Philips EM8E Service Manual

Colour television Chassis

EM8E

AA

E_14780_000.eps

170704

Contents Page Contents Page

1 Technical Specifications, Connections,

and Chassis Overview 2
2 Safety Instructions, Warnings, and Notes 6
3 Directions for Use 8
4 Mechanical Instructions 9
5 Service Modes, Error Codes, and Faultfinding 15
6 Block Diagrams, Testpoint Overview, and

Waveforms (Not Applicable yet)

Wiring Diagram 32” Sharp LCD 21
7 Circuit Diagrams and PWB layouts Diagram PWB

LCoS Audio Amplifier Board (Diagram AA1) 22 23

LCoS System Board (Diagram K1) 24 28

LCoS System Board (Diagram K2) 25 28

LCoS System Board (Diagram K3) 26 28

LCoS System Board (Diagram K4) 27 28

LED Sensor Panel (Diagram LS) 29 30

LCoS Side Jack Panel (Diagram O) 31 32

LCoS LED / Keyboard Panel (Diagram P1) 33 34

LCoS MSB: OSD Insertion (Diagram SL1A) 35 (NA)

LCoS MSB: OSD Insertion (Diagram SL1B) 36 (NA)

LCoS MSB: OSD Insertion (Diagram SL1C) 37 (NA)

LCoS MSB: TMDS-TX (Diagram SL2) 38 (NA)

LCoS MSB: Scaler 1 (Diagram SL3A) 39 (NA)

LCoS MSB: Scaler 2 (Diagram SL3B) 40 (NA)

LCoS MSB: Scaler 3 (Diagram SL3C) 41 (NA)

LCoS MSB: LVDS Receiver (Diagram SL3D) 42 (NA)

LCoS MSB: HD Sync Slicer (Diagram SL4A) 43 (NA)

LCoS MSB: HD2 + VGA Input (Diagram SL4B) 44 (NA)

LCoS MSB: HD1 - 2 Selector (Diagram SL4C) 45 (NA)

LCoS MSB: DVI Receiver (Diagram SL5) 46 (NA)

LCoS MSB: DC-Converter (Diagram SL6) 47 (NA)

Thermo Sensor Panel (Diagram TS1) 48 48

LCoS Main Power Board (Diagram U1) 49 50

LCoS SCART Daughter Board (Diagram VDS1) 51 52

©

Copyright 2004 Philips Consumer Electronics B.V. Eindhoven, The Netherlands.
All rights reserved. No part of this publication may be reproduced, stored in a
retrieval system or transmitted, in any form or by any means, electronic,
mechanical, photocopying, or otherwise without the prior permission of Philips.

LCoS 1fH SCART Panel (Diagram VS1) 53 56
LCoS 1fH SCART Panel (Diagram VS2) 54 56
LCoS 1fH SCART Panel (Diagram VS3) 55 56
LCoS Input Power Board (Diagram W1) 57 59

LCoS Input Power Board (Diagram W2) 58 59
8 Alignments 61
9 Circuit Descriptions 67

List of Abbreviations 93

IC Data Sheets (Not Applicable)
10 Spare Parts List 95
11 Revision List 106

Published by JH 0467 TV Service Printed in The Netherlands Subject to modification EN 3122 785 14780

EN 2 EM8E1.

Technical Specifications, Connections, and Chassis Overview

1. Technical Specifications, Connections, and Chassis Overview

Index of this chapter:

1. Technical Specifications

2. Connections

3. Chassis Overview

Note: Figures below can deviate slightly from the actual
situation, due to the different set executions.

1.1 Technical Specifications

1.1.1 Vision

Display type : Rear projection, LCD
Screen size : 55” (140 cm), 16:9
Resolution (HxV) : 1280 x 720p, WXGA
Viewing angle (HxV) : 160 x 120 deg.
Tuning system : PLL
Colour systems : PAL B/G, D/K, I

: SECAM B/G, D/K, L/L’

Add. systems Ext in : NTSC 3.58, 4.43

: 576i (YPrPb)
: 576p (YPrPb)
: 720p
: 1080i
: SECAM
: VGA (640 x 400)
: VGA (640 x 480)
: WVGA (848 x 480)
: WVGA (852 x 480)
: SVGA (800 x 600)
: XGA (1024 x 768)
: SXGA (1280 x 1024)

Channel selections : 100 presets

: UVSH

Aerial input : 75 ohm, IEC-type

1.1.2 Sound

1.2 Connections

Note: The following connector colour abbreviations are used
(acc. to DIN/IEC 757): Bk= Black, Bu= Blue, Gn= Green, Gy=
Grey, Rd= Red, Wh= White, and Ye= Yellow.

1.2.1 Side Connections / Top Control

R

AUDIO

L

VIDEO

S-VIDEO

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Figure 1-1 Side I/O connections

-+
VOLUME CHANEL

Figure 1-2 Top Control

Mini Jack: Audio Headphone - Out

Bk -Headphone 32 - 600 ohm / 10 mW ot

MENU

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Sound systems : AV stereo,

: FM/FM B/G (5.5-5.74)
: FM/FM Cz (6.5-6.25)
: NICAM B/G (5.5-5.85)
: NICAM D/K (5.5-5.85)
: NICAM I (6.0-6.52)
: NICAM L (6.5AM-

5.85)

Maximum power : 2 x 25 WRMS (int.)

1.1.3 Miscellaneous

Power supply:

- Mains voltage : 220 - 240 VAC

- Mains frequency : 50 / 60 Hz.

Ambient conditions:

- Temperature range : +5 to +40 deg. C

- Maximum humidity : 90 % R.H.

Power consumption

- Normal operation : ca. 270 W

- Standby : < 1 W

Dimensions (WxHxD) : 1437 x 968 x 443 cm
Weight : 40 kg

1.2.2 Rear Connections

Cinch: Audio - In, CVBS - In

Re - Audio - R 0.5 VRMS / 10 kohm jq
Wh -Audio - L 0.5 VRMS / 10 kohm jq
Ye -CVBS 1 VPP / 75 ohm jq

Hosiden: SVHS - In

1-Y Ground H
2-C Ground H
3-Y 1 VPP / 75 ohm j
4-C 0.3 VPP / 75 ohm j

Technical Specifications, Connections, and Chassis Overview

External 2: Audio - In/Out, RGB/YUV - In, CVBS - In/Out

EN 3EM8E 1.

C

2

EXT3

R

L

EXT5 EXT4 EXT2 EXT1 SERVICE I

L

R

STANDARD/
HD INPUTS

STANDARD/
HD INPUTS

OUT

MONITOR

SUB

OUT

IN

CENTER

EXT7

EXT6

DVI

R

R

RGB+HV

PrPrPb

L

L

Y

TUNER

Pb

Y

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Figure 1-3 Rear connections

Service Connector (ComPair)

1-SDA-S I2C data (5 V) jk
2-SCL-S I2C clock (5 V) j
3-GND Ground H

External 1: Audio In/Out, RGB/YUV - In , CVBS - In/Out

20

2

20

21

2

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050404

1

Figure 1-5 SCART connector

1-Audio - R 0.5 VRMS / 1 kohm k
2-Audio - R 0.5 VRMS / 10 kohm j
3-Audio - L 0.5 VRMS / 1 kohm k
4-Audio - gnd Ground H
5-Blue - gnd Ground H
6-Audio - L 0.5 VRMS / 10 kohm j
7-Blue/U - in 0.7 VPP / 75 ohm j
8-CVBS-status 0 - 2 V: INT

4.5 - 7 V: EXT 16:9

9.5 - 12 V: EXT 4:3 j
9-Green - gnd Ground H
10 - Easylink P50 j
11 - Green/Y - in 0.7 VPP / 75 ohm j
12 - n.c.
13 - Red - gnd Ground H
14 - FBL - gnd Ground H
15 - Red/V - in 0.7 VPP / 75 ohm j
16 - Status/FBL 0 - 0.4 V: INT

1 - 3 V: EXT / 75 ohm j
17 - Video Ground H
18 - Video Ground H
19 - CVBS - out 1 VPP / 75 ohm k
20 - CVBS - in 1 VPP / 75 ohm j
21 - Shielding Ground H

External 3: Audio - In, CVBS - In

21

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1

Figure 1-4 SCART connector

1-Audio - R 0.5 VRMS / 1 kohm k
2-Audio - R 0.5 VRMS / 10 kohm j
3-Audio - L 0.5 VRMS / 1 kohm k
4-Audio - gnd Ground H
5-Blue - gnd Ground H
6-Audio - L 0.5 VRMS / 10 kohm j
7-Blue/U - in 0.7 VPP / 75 ohm j
8-CVBS-status 0 - 2 V: INT

4.5 - 7 V: EXT 16:9

9.5 - 12 V: EXT 4:3 j
9-Green - gnd Ground H
10 - n.c.
11 - Green/Y - in 0.7 VPP / 75 ohm j
12 - n.c.
13 - Red - gnd Ground H
14 - FBL - gnd Ground H
15 - Red/V - in 0.7 VPP / 75 ohm j
16 - Status/FBL 0 - 0.4 V: INT

1 - 3 V: EXT / 75 ohm j
17 - Video Ground H
18 - Video Ground H
19 - CVBS - out 1 VPP / 75 ohm k
20 - CVBS - in 1 VPP / 75 ohm j
21 - Shielding Ground H

20

21

2

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1

Figure 1-6 SCART connector

1-n.c.
2-Audio - R 0.5 VRMS / 10 kohm j
3-n.c.
4-Audio - gnd Ground H
5-Blue - gnd Ground H
6-Audio - L 0.5 VRMS / 10 kohm j
7-n.c.
8-CVBS-status 0 - 2 V: INT

4.5 - 7 V: EXT 16:9

9.5 - 12 V: EXT 4:3 j
9-Green - gnd Ground H
10 - n.c.
11 - n.c.
12 - n.c.
13 - Red - gnd Ground H
14 - FBL - gnd Ground H
15 - n.c.
16 - n.c.
17 - Video Ground H
18 - Video Ground H
19 - n.c.
20 - CVBS - in 1 VPP / 75 ohm j
21 - Shielding Ground H

EN 4 EM8E1.

Technical Specifications, Connections, and Chassis Overview

Cinch: Audio Centre - In

Gn -Centre 0.5 VRMS / 10 kohm jq

Cinch: Audio Subwoofer - Out

Bk -Subwoofer 0.5 VRMS / 1 kohm kq

Cinch: Audio Monitor - Out

Rd -Audio - R 0.5 VRMS / 1 kohm kq
Wh -Audio - L 0.5 VRMS / 1 kohm kq

External 4 (Cinch): YPbPr - In (2fH)

Gn -Y 0.7 VRMS / 10 kohm kq
Bu -Pb 0.7 VRMS / 10 kohm kq
Rd -Pr 0.7 VRMS / 10 kohm kq

Rd -Audio - R 0.5 VRMS / 10 kohm kq
Wh -Audio - L 0.5 VRMS / 10 kohm kq

External 5 (Cinch): YPbPr - In (2fH)

Gn -Y 0.7 VRMS / 10 kohm kq
Bu -Pb 0.7 VRMS / 10 kohm kq
Rd -Pr 0.7 VRMS / 10 kohm kq

Rd -Audio - R 0.5 VRMS / 10 kohm kq
Wh -Audio - L 0.5 VRMS / 10 kohm kq

External 6: VGA - In

1

6

11

5

10

15

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11 - Ground GND H
12 - n.c.
13 - n.c.
14 - +5V
15 - Ground GND H
16 - + 5V Hot Plug
17 - RX0- j
18 - RX0+ j
19 - Ground GND H
20 - n.c.
21 - n.c.
22 - Ground GND H
23 - RXC+ j
24 - RXC- j
C5 - Ground GND H

External 7 (Cinch): DVI Audio - In

Rd - Audio - R 0.5 VRMS / 10 kohm jq
Wh -Audio - L 0.5 VRMS / 10 kohm jq

Aerial - In

-IEC-type Coax, 75 ohm D

Figure 1-7 VGA Connector

1-Red 0.7 VPP / 75 ohm j
2-Green 0.7 VPP / 75 ohm j
3-Blue 0.7 VPP / 75 ohm j
4-TXD k
5- Ground H
6-Red Ground H
7-Green Ground H
8-Blue Ground H
9-RC k
10 - Ground H
11 - RXD j
12 - DDC_SDA j
13 - H-sync 0 - 5 V j
14 - V-sync 0 - 5 V j
15 - DDC_SCL j

External 6 (Cinch): VGA Audio - In

Rd -Audio - R 0.5 VRMS / 10 kohm jq
Wh -Audio - L 0.5 VRMS / 10 kohm jq

External 7: DVI-D: In

18
916

17

24

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C5

050404

Figure 1-8 DVI-D connector

1-RX2- j
2-RX2+ j
3-Ground GND H
4- n.c.
5- n.c.
6-SCL_DVI k
7-SDA_DVI jk
8- n.c.
9-RX1- j
10 - RX1+ j

Technical Specifications, Connections, and Chassis Overview

1.3 Chassis Overview

LED SENSOR PANEL

LS

EN 5EM8E 1.

LAMP SUPPLY

MAIN POWER BOARD

U

POWER INPUT BOARD

W

Figure 1-9 PWB location

TEMP SENSOR BOARD

KEYBOARD PANEL

LIGHT ENGINE

JACK PANEL

AUDIO AMPLIFIER

SCALER BOARD

SMALL SIGNAL BOARD

SYSTEM BOARD

SIDE JACK PANEL

E_14780_013.eps

TS

P

VS

AA

SL

B
K

O

190704

EN 6 EM8E2.

Safety Instructions, Warnings, and Notes

2. Safety Instructions, Warnings, and Notes

2.1 Safety Instructions

Safety regulations require that during a repair:

• Connect the set to the mains via an isolation transformer
(> 800 VA).

• Replace safety components, indicated by the symbol h,
only by components identical to the original ones. Any
other component substitution (other than original type) may
increase risk of fire or electrical shock hazard.

Safety regulations require that after a repair, the set must be
returned in its original condition. Pay in particular attention to
the following points:

• Route the wire trees correctly and fix them with the
mounted cable clamps.

• Check the insulation of the mains lead for external
damage.

• Check the strain relief of the mains cord for proper function.

• Check the electrical DC resistance between the mains plug

and the secondary side (only for sets which have a mains
isolated power supply):

1. Unplug the mains cord and connect a wire between the

two pins of the mains plug.

2. Set the mains switch to the "on" position (keep the

mains cord unplugged!).

3. Measure the resistance value between the pins of the

mains plug and the metal shielding of the tuner or the
aerial connection on the set. The reading should be
between 4.5 Mohm and 12 Mohm.

4. Switch "off" the set, and remove the wire between the

two pins of the mains plug.

• Check the cabinet for defects, to avoid touching of any
inner parts by the customer.

2.2 Warnings

voltages in the power supply section both in normal
operation (G) and in standby (F). These values are
indicated by means of the appropriate symbols.

• The semiconductors indicated in the circuit diagram and in
the parts lists, are interchangeable per position with the
semiconductors in the unit, irrespective of the type
indication on these semiconductors.

• Manufactured under license from Dolby Laboratories.
“Dolby”, “Pro Logic” and the “double-D symbol”, are
trademarks of Dolby Laboratories.

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Figure 2-1 Dolby PL Symbol

2.3.2 Schematic Notes

• All resistor values are in ohms and the value multiplier is
often used to indicate the decimal point location (e.g. 2K2
indicates 2.2 kohm).

• Resistor values with no multiplier may be indicated with
either an "E" or an "R" (e.g. 220E or 220R indicates 220
ohm).

• All capacitor values are given in micro-farads (µ= x10-6),
nano-farads (n= x10-9), or pico-farads (p= x10-12).

• Capacitor values may also use the value multiplier as the
decimal point indication (e.g. 2p2 indicates 2.2 pF).

• An "asterisk" (*) indicates component usage varies. Refer
to the diversity tables for the correct values.

• The correct component values are listed in the Electrical
Replacement Parts List. Therefore, always check this list
when there is any doubt.

• All ICs and many other semiconductors are susceptible to
electrostatic discharges (ESD w). Careless handling
during repair can reduce life drastically. Make sure that,
during repair, you are connected with the same potential as
the mass of the set by a wristband with resistance. Keep
components and tools also at this same potential.
Available ESD protection equipment:
– Complete kit ESD3 (small tablemat, wristband,

connection box, extension cable and earth cable) 4822
310 10671.

– Wristband tester 4822 344 13999.

• Be careful during measurements in the high voltage

section.

• Never replace modules or other components while the unit
is switched "on".

• When you align the set, use plastic rather than metal tools.
This will prevent any short circuits and the danger of a
circuit becoming unstable.

2.3 Notes

2.3.1 General

• Measure the voltages and waveforms with regard to the
chassis (= tuner) ground (H), or hot ground (I), depending
on the tested area of circuitry. The voltages and waveforms
shown in the diagrams are indicative. Measure them in the
Service Default Mode (see chapter 5) with a colour bar
signal and stereo sound (L: 3 kHz, R: 1 kHz unless stated
otherwise) and picture carrier at 475.25 MHz for PAL, or

61.25 MHz for NTSC (channel 3).

• Where necessary, measure the waveforms and voltages
with (D) and without (E) aerial signal. Measure the

2.3.3 Rework on BGA (Ball Grid Array) ICs

General

Although (LF)BGA assembly yields are very high, there may
still be a requirement for component rework. By rework, we
mean the process of removing the component from the PWB
and replacing it with a new component. If an (LF)BGA is
removed from a PWB, the solder balls of the component are
deformed drastically so the removed (LF)BGA has to be
discarded.

Device Removal

As is the case with any component that, it is essential when
removing an (LF)BGA, the board, tracks, solder lands, or
surrounding components are not damaged. To remove an
(LF)BGA, the board must be uniformly heated to a temperature
close to the reflow soldering temperature. A uniform
temperature reduces the chance of warping the PWB.
To do this, we recommend that the board is heated until it is
certain that all the joints are molten. Then carefully pull the
component off the board with a vacuum nozzle. For the
appropriate temperature profiles, see the IC data sheet.

Area Preparation

When the component has been removed, the vacant IC area
must be cleaned before replacing the (LF)BGA.
Removing an IC often leaves varying amounts of solder on the
mounting lands. This excessive solder can be removed with
either a solder sucker or solder wick. The remaining flux can be
removed with a brush and cleaning agent.
After the board is properly cleaned and inspected, apply flux on
the solder lands and on the connection balls of the (LF)BGA.
Note: Do not apply solder paste, as this has shown to result in
problems during re-soldering.

Safety Instructions, Warnings, and Notes

Device Replacement

The last step in the repair process is to solder the new
component on the board. Ideally, the (LF)BGA should be
aligned under a microscope or magnifying glass. If this is not
possible, try to align the (LF)BGA with any board markers.
To reflow the solder, apply a temperature profile according to
the IC data sheet. So as not to damage neighbouring
components, it may be necessary to reduce some
temperatures and times.

More Information

For more information on how to handle BGA devices, visit this
URL:

http://www.atyourservice.ce.philips.com (needs
subscription). After login, select “Magazine”, then go to
“Workshop Information”. Here you will find Information on how
to deal with BGA-ICs.

2.3.4 Practical Service Precautions

• It makes sense to avoid exposure to electrical shock.

While some sources are expected to have a possible
dangerous impact, others of quite high potential are of
limited current and are sometimes held in less regard.

• Always respect voltages. While some may not be

dangerous in themselves, they can cause unexpected
reactions - reactions that are best avoided. Before reaching
into a powered TV set, it is best to test the high voltage
insulation. It is easy to do, and is a good service precaution.

EN 7EM8E 2.

EN 8 EM8E3.

3. Directions for Use

You can download this information from the following website:
http://www.philips.com/support

Directions for Use

4. Mechanical Instructions

Mechanical Instructions

EN 9EM8E 4.

Index of this chapter:

1. Dust Filter

2. Rear Covers

3. Mirror

4. Top Control

5. Speakers

6. Screen Assembly

7. Side Jack Panel

8. Small Signal Package

9. Large Signal Package

10. LED/Sensor Panel

11. Lamp Replacement

    

Remote Control

N

¨

¨

¨

¨

DFU

Owner's Manual

Item 0034

Back Cover,

(Upper)

Item 0080

Support,

Mirror,

(Left)

Item 0021

Mirror

Item 0078

Support,

Mirror,

(Top)

Item 0079

Support,

Mirror,
(Right)

12. Light Engine Replacement

13. Re-assembly

Notes:

• Figures below can deviate slightly from the actual situation,
due to the different set executions.

• Follow the disassemble instructions in described order.

• Use Torx T10 and T20 screwdrivers to dismantle the set.

Item 0066

Overlay,

Control Housing

L

J

K

V

W

Item 0076

Rail, Screen,

(Vertical Right)

Item 0030

Front,

Cabinet

Item 0039

Baffle,

Speakers

Rail, Screen,
(Horizontal)

Item 0132

Frame, LED

Sensor Board

Item 0075
Rail, Screen,
(Vertical Left)

Item 0077

Item 0032

Cap,
(Top)

Item 0096

Door,

Lamp Access

C

Item 0144 & 0145

Cap Mounting

A

Item 0036

Back Cover,

(Lower)

Item 0093

Support,

Back

B

Item 0127

Side Jacks for

Mains Knob

Item 0150

Fan Assembly

Item 8190 (UK/HK)
Item 8191 (Europe)

D

Item 0090

Bracket,

X

Mains Cord

Item 0023

Light

Shield

Left Interconnect

N

Item 0018

Bracket,

Light Engine

R

Figure 4-1 Exploded view

Item 0077

L

Item 0022

Screen,

Protector

Item 0019

Screen,

Lenticular

Item 0020

Lens,

Fresnel

Item 0017

Xion-1

Light Engine

Y

Q

Item 0098

Assembly Filter

(2 Required)

T

S

Item 0091

Bracket,

Right Interconnect

Item 0067

Label,

Rear Jack Scart

J

Item 0038

Base,

Cabinet

Rail, Screen,

(Horizontal)

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EN 10 EM8E4.

Mechanical Instructions

4.1 Dust Filter (Item 0098)

E_14780_071.eps

Figure 4-2 Dust filter removal

One dust filter is located under the Power Cord another one
under the Small Signal Package, to prevent dust buildup in the
set.
Under certain conditions, if this filter becomes dirty, the set
could overheat and shut down.
This item can be replaced by the customer.

290604

• It may be necessary to press on the sides of the upper back
where it “snaps” into place at the front cabinet to get it to
release.

• When replacing the Upper Cabinet Rear, care should be
used to properly route the cable for theTop Control
assembly.

• When re-installing the Upper Cabinet Rear, care should be
taken to correctly position the Light Shield that is attached
to the Upper Cabinet Rear.

1. Remove (8) T20 Torx screws (C).

2. Remove (2) T20 Torx screws (D) attaching the Fan Motor

Assembly to the Upper Rear Cover.

3. Remove (4) T20 Torx screws (E) attaching the small signal
cable assembly harness to the Upper Cabinet Rear (not
shown).

4.3 Mirror (Item 0021)

1. Remove both Lower and Upper Rear Covers.

2. Remove both the Left and Right Vertical mirror support

brackets (items 0079 and 0080).

3. Remove both Horizontal Mirror support brackets and
remove the mirror (items 0078).

Note: Care should be taken NOT to place fingerprints or
smudges on the mirror.

4.2 Rear Covers

4.2.1 Lower Rear Cover (item 0036)

1. Make sure all power-, audio-, video-, coax-, and SCART
cables are unplugged.

2. Remove all fixation screws (A) from the Rear Cover (lower
part only).

3. Pull the Rear Cover a few inches away from the set. Note:
It is clamped at the upper left and right side. Therefore you
must e.g. insert a thin metal plate (do not use a
screwdriver!) to release this clamp (see figure “Rear cover
clamp”).

4. Now, unplug the Side Jack panel (B).

5. Remove the Rear Cover and set it aside.

4.4 Top Control (Item 1032)

1. Remove (2) T20 Torx screws (V) holding the Keyboard and
cover to the cabinet cap.

2. Remove (2) T6 Torx screws holding the circuit board to the
control bracket.

3. Release (4) plastic clips holding the circuit board to the
control bracket and lift the PWB from the bracket.

4. Disconnect connector 1201 and ground clip 1202.

4.5 Speakers

4.5.1 Woofer (Item 5213)

1. Remove Lower Rear Cover item 0034.

2. Remove (2) T20 Torx screws (R) to allow the small signal

assembly to slide to the rear.

3. Remove (2) T20 Torx screws (N) to allow the power
assembly to slide to the rear.

4. Remove (4) T20 Torx screws from the speakers and
disconnect the speaker wires.

4.5.2 Tweeter (Item 5214)

1. Remove both the Lower and Upper Rear Covers.

2. Remove (2) T20 Torx screws and disconnect the speaker

wires.

Figure 4-3 Rear cover clamp

4.2.2 Upper Rear Cover (Item 0034)

Notes:

• The Lower Rear Cover must be removed before removing
the Upper Rear Cover.

• The Upper Rear Cover holds the Mirror.

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4.5.3 Speaker Baffle (Item 0039)

Note: There are no adjustments that require the removal of the

speaker baffle.

Caution: Do NOT reposition the light engine to gain access to
the speaker baffle tabs.

1. Remove the Lower Rear Cover.

2. Carefully release the (20) plastic tabs holding the speaker

baffle in place.

Mechanical Instructions

EN 11EM8E 4.

4.6 Screen Assembly (Item 0030)

1. Remove the Lower and Upper Rear Covers.

2. Remove (4) T20 Torx screws (W) and remove the Top Cap

with Customer Control Assembly (0032).

3. Disconnect the Tweeter speaker wiring.

4. Remove (9) T20 Torx screws (J).

5. Lay lens assembly on flat clean surface.

6. Remove (12) T20 Torx screws (K) from vertical side rails

Item 0075 and 0076.

7. Remove (16) T20 Torx screws (L) from horizontal screen
rails Item 0077.

4.7 Side Jack Panel (Item 0127)

• Make sure all cables of the Side Jack panel are unplugged.

• Remove the two mounting screws.

• Unlock the clamps, which secure the panel, and remove

the Side Jack panel.

4.8 Small Signal Package

3

4.8.2 Jack Panel

AUDIO AMPLIFIER

(at the rear)

SYSTEM BOARD

JACK PANEL

MAIN SCALER BOARD

(MSB)

SMALL SIGNAL BOARD

(SSB)

Figure 4-5 Boards of the Small Signal Package

Pull out the Jack panel from the Small Signal Package,
unplugging it from the System Board connector.
See Figure “Boards of the Small Signal Package”.
Note: For measurements it is sometimes necessary to place
the Jack Panel in a service position. In this case it is necessary
to use the specific “Extending card” (4835 310 57605)

1

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2

3

1a

1b

Figure 4-4 Small Signal Package

1. Remove the two package mounting screws (1a).

1. Slide the Small Signal Package forward (1b).

4.8.1 Cover Plate

1. Remove all Cover Plate mounting screws (2). See Figure
“Small Signal Package”.

2. Use a 5 mm socket screwdriver to remove the four
connector distance bolts (3). See Figure “Small Signal
Package”.

3. Remove the Cover Plate.

2

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4.8.3 Main Scaler Board (MSB)

1. Disconnect the DVI connector and all cables from the top
of the MSB.

2. Pull out the MSB from the Small Signal package,
unplugging it from the System Board connector.

3. Remove both cover shields from the MSB.
See Figure “Boards of the Small Signal Package”.

Note: For measurements it is sometimes necessary to place
the MSB in a service position. In this case it is necessary to use
the specific “Extending card”, including two cables (4835 310

57605).

4.8.4 Small Signal Board (SSB)

1. Disconnect all cables from the SSB.

2. Remove the three mounting screws (1) from the SSB

bracket. See Figure “Boards of the Small Signal package”.

3. Carefully pull out the SSB, unplugging it from the System
Board connector.

4. Remove all shieldings from the SSB.

Note: For measurements sometimes it is necessary to place
the SSB in a service position. In this case it is necessary to use
the specific “Repair kit board” (order nr. 9965 000 14526)

4.8.5 Audio Amplifier Board

The Audio Amplifier is located at the rear of the System Board.

1. Disconnect all cables from the Audio Amplifier board.

2. Remove the four mounting board screws.

3. Remove the board.

EN 12 EM8E4.

Mechanical Instructions

4.8.6 System Board

Figure 4-6 Rear side of the Small Signal Package

4.9.1 Main Power Board

1. Remove the six board mounting screws (1).

2. Disconnect all cables from the Main Power board.

3. Unlock the clamp, which secures the board at the topside,

and remove the Main Power board.

4.9.2 Input Power Board

1

1. Remove the six board mounting screws.

2. Disconnect all cables from the Input Power Board.

3. Unlock the clamps, which secure the board at the topside,

and remove the Input Power Board.

4.10 LED/Sensor Panel (Item 0132)

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1. Remove the two Sensor panel mounting screws.

2. Remove the Sensor panel bracket.

3. Disconnect all cables from the Sensor panel. Unlock the

two clamps, which secure the panel, and remove the
Sensor panel.

4.11 Lamp Replacement

Caution: The light source lamp produces extreme heat. Allow

a cool-down period before touching or replacing the lamp

1

assembly.

Notes:

• The lamp is easy accesible via the sliding door in the lower
rear cover.

• For protection, the lamp circuit contains a “normally closed”
switch. Therefore, the lamp will not operate with the lamp
access door in the open position.

• There are no tools required for this procedure.

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Figure 4-7 Top side of the Small Signal Package

Note: The Audio, Jack, Scaler, and SSB panels should be

removed prior to removal of the system board.

1. Disconnect all cables from the System Board.

2. Disconnect the Arial-In cable.

3. Remove the four mounting screws at the rear side of the

Small Signal package (1). See Figure “Rear side of the
Small SignalPpackage”.

4. Remove the six mounting screws at the top side of the
Small Signal package (1). See Figure “Top side of the
Small Signal Package”.

5. Remove the six mounting screws from the bottom side of
the Small Signal Package (1). See Figure “Top side of the
Small Signal Package”.

6. Remove the two side panels from the Small Signal
Package.

7. Unlock the clamp, which secures the board at the bottom
side, and remove the System Board.

4.9 Large Signal Package

1. Remove the two Large Signal Package mounting screws
(1). See figure “Cable dressing part 1: PSU” further on.

2. Slide the package out of the set (2). Note: It may be
necessary to release some of the cable holders first.

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Figure 4-8 Lamp replacement

To replace the lamp assembly:

1. Slide the Lamp Access Door on the rear of the unit to the
right.

2. Unscrew the two silver thumbscrews holding the assembly
in place.

3. Slide the old lamp assembly out by crisping the “metal
handle” and pulling straight out.

4. Install the replacement lamp assembly by pushing into
place and tightening the thumbscrews.

5. Slide the Lamp Access Door to the left to close (the unit will
not operate with this door open).

Mechanical Instructions

EN 13EM8E 4.

4.12 Light Engine Replacement

Notes:

• The LCoS Light Engine comes pre-adjusted. No
adjustment for focus should be required. In rare cases, the
set may require a minor focus touch up (see chapter
“Alignments”).

• Due to screw placement, to replace the Light Engine, it is
necessary to remove the upper rear cover before
beginning the replacement. Use care with the routing of the
wiring for the Customer Keypad when replacing the upper­back. Also, note mounting direction of the Upper-back
support bracket for proper re-installation.

Caution:

• Do not remove the three “silver” nuts and washers, as
these hold the Light Engine support bracket and are
critical adjustment points for focus and picture alignment.

• The Light Engine has an operating voltage of
approximately 1,000 volts. Always use caution when
working in the vicinity of the Light Engine while the unit is
in operation.

4.13 Re-assembly

To re-assemble the whole set, execute all processes in reverse
order.

Note: While re-assembling the set, make sure that:

• All cables are placed and connected in their original
position (see next figures).

• All cables are routed such that contact with any PWB is
prevented.

• All cables are dressed away from the Lamp Power Supply
(located behind the lamp assy).

• All "grounding" wires are re-connected (Side I/O, Audio
Amplifier, System Board, and PSU).

4.13.1 Cable Dressing

3

4

Remove the screws shown.

1 2

Remove the bracing bar

Figure 4-9 Light engine removal (part 1)

4 4 4

Figure 4-10 Light engine removal (part 2)

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2

1

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Figure 4-11 Cable dressing part 1: PSU

• Screw mounted cable tie to the fan assy (3).

• Be sure that the wires between the fan assy and the PSU

(4) are fitted with double insulation (heat shrink sleeve).

5

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1. First, disassemble the fan assy and the cable tree (1).

2. Then, remove the bracing bar (2).

3. Next, take out the screws (“C”, see exploded view) and

remove the top cover

4. Remove the three “black” T-10 Torx screws (3) located in
the vicinity of each of the three “silver” nuts and washers.

5. Re-install the Light Engine in reverse order

Figure 4-12 Cable dressing part 2: Light Engine

• Attach the ferrite to the shield (5) with a cable tie .

EN 14 EM8E4.

Mechanical Instructions

8

7

6

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Figure 4-13 Cable dressing part 3: SSP

• Route the flat foil cable through the clip and through the
ferrite (6).

• Be sure that a ferrite (2422 549 00125) is mounted on the
flat foil cable near the PWB connector (7). The flat foil cable
must be secured with tape at this side (the tape must
overlap both sides of the SSB shielding).

• Both flat foil cables from the SSB to the Scaler board must
be routed through the strain reliefs (8) on the bracket.

Service Modes, Error Codes, and Fault Finding

5. Service Modes, Error Codes, and Fault Finding

EN 15EM8E 5.

Index of this chapter

1. Test Conditions

2. Service Modes

3. Error Codes

4. ComPair

5. The “Blinking LED” Procedure

6. Fault Finding

5.1 Test Conditions

The chassis is equipped with test points, printed on the circuit
board assemblies. They refer to the diagram letters. The
numbering is in a logical sequence for diagnostics. Always start
diagnosing (within a functional block), in the sequence of the
relevant test points for that block.

Perform measurements under the following conditions:

• Service Default Mode (SDM).

• Video: colour bar signal.

• Audio: 3 kHz left, 1 kHz right.

5.2 Service Modes

Service Default Mode (SDM) and Service Alignment Mode
(SAM) offer several features for the service technician, while
the Customer Service Mode (CSM) is used for communication
between a Philips Customer Care Centre (P3C) and a
customer.

There is also the option of using ComPair, a hardware interface
between a computer (see requirements below) and the TV
chassis. It offers the ability of structured troubleshooting, test
pattern generation, error code reading, software version
readout, and software upgrading.

Minimum requirements: a Pentium processor, Windows 95/
98, and a CD-ROM drive.

5.2.1 Service Default Mode (SDM)

Upon entry into the Service default mode, the letters “SDM” will
be displayed at the upper right corner of the screen.

Special SDM functions

Access to Normal user menu

Press the “MENU” button on the remote control to switch from
the SDM to the normal user menu (with the SDM mode still
active in the background).

How to exit

To exit the Service default mode, enter zero “0” twice.

Note: To save the error codes, “unplug” the AC power cord
without turning the set "off".

5.2.2 Service Alignment Mode (SAM)

Purpose

The Service alignment mode (SAM) is used to align the set
and/or adjust the option settings and to display/clear the error
code buffer values.

How to activate SAM

Use one of the following methods:

• Via a standard RC transmitter: key in the code “062596”
directly followed by the “OSD [i+]” button. After activating
SAM with this method a service warning will appear on the
screen, you can continue by pressing any digit key on the
RC.

• Short for a moment the two solder pads on the SSP with
the indication "SAM". Depending on the software version,
it is possible that a service warning will appear. You can
continue by pressing any digit key on the RC.

• Use the DST-emulation feature of ComPair.

• Press the ALIGN button on the DST while the set is in the

normal operation

After activating this mode, “SAM” will appear in the upper right
corner of the screen.

Introduction

The Service default mode (SDM) is a technical aid for the
service technician. The Service default mode (SDM)
establishes fixed, repeatable settings of customer controls,
which allow consistent measurements to be made. The SDM
also initiates the blinking LED procedure and, if necessary,
overrides the 5V protection.

The following functions are turned OFF while in SDM:

• Timer

• Sleep timer

The following functions are disabled during SDM (and enabled
after leaving SDM):

• Parental lock

• Blue mute

• Hospitality mode

• No-ident timer (normally the set is automatically switched

off when no video signal (IDENT) is received for 15
minutes).

All other controls operate normally.

How to enter

To enter the Service alignment mode (SAM), press the
following key sequence on the standard remote control
transmitter: 0-6-2-5-9-6-[MENU]. Do not allow the display to
“time out” while entering the key sequence.

• DEFECTIVE MODULE: Displays “Unknown” if no defective module is found.

Contents of SAM

• OPERATION HOURS (Run Timer). Displays the
accumulated total of operational hours (in hexadecimal
format).

• SW VERSION INFO (example):
– ROM VERSION. Displays the date of the software and

the software version of the ROM
(e.g.: EM8EU1_1.0_01234 = AAABBC_X.Y_NNNNN).

• AAA= the chassis name.

• BB= the region: EU= Europe, AP= Asia Pacific

PAL/Multi, AN= Asia Pacific NTSC, US= USA, LT=
LATAM.

• C= the language cluster number.

• X.Y= the software version, where X is the main

version number (different numbers are not
compatible with one another) and Y is the sub
version number (a higher number is always
compatible with a lower number).

• NNNNN= last five digits of 12nc code software.

– SW VERSION MAIN SCALER: Displays the software

version of the MSP.

– SW VERSION EPLD. Displays the software version of

the EPLD.

– SW VERSION GDE: Displays the software version of

the System Board.

• ERRORS (10 errors possible): Displays the 10 most
recent errors. The most recent error is displayed at the
upper left.

EN 16 EM8E5.

Service Modes, Error Codes, and Fault Finding

• RESET ERROR BUFFER: Pressing the “OK” or RIGHT
cursor clears the error buffer and the “Errors” level shows
“No Errors.”

• ALIGNMENTS: Allows access to 6 alignment menus.
General, Luminance Delay, MSB, GDE-Video, GDE-NVM,
and Gamma.

• DEALER OPTIONS: Allows access to dealer “Personal
Options” menu.

• SERVICE OPTIONS: Allows access to 6 service option
menus. Dual Screen, Video repro, Source Select, Audio
repro, Miscellaneous, Opt. No.

• INITIALISE NVM: Not Accessible (only after replacing the
NVM).

• STORE OPTIONS: Select “OK” to save previously
changed selections.

• FUNCTIONAL TEST: Finds module Errors and places the
Error code in the “Errors” register and shows the module
name at the “Defective Module” level. If this test finds no
faults, the ERROR buffer is set to “No Errors” and the
“Defective Module” level shows “NONE.”

• BROADCAST INFO. The purpose of this menu is to debug
the broadcast, NOT the TV. The menu gives an overview
of what is received on the current preset related to Time
extraction, CNI codes, and NexTView transmission.
Following items are displayed:

– Preset. Shows the preset number.
– Local. Local date and time from the selected preset.
– UTC (Coordinated Universal Time). Extracted from the

selected preset.

– LTO (Local Time Offset). Extracted from the selected

preset.

– CNI (Country and Network Identification). Extracted

from the current preset (displayed as a four digit
hexadecimal number. The CNI number identifies the
broadcaster.

– NexTView service (optional). This item gives

information about the type of NexTView service that is
available for the current preset. The possible strings
are:

1. NexTView provider.

2. NexTView data available from preset xx (where xx

is the preset number).

3. No NexTView data available.

– CNI Linking (optional). 'Link' refers to the connection

between the broadcasted NexTView programme
information and the preset number. The possible
strings are:

1. Data available for preset xx xx xx (where xx xx xx
is a list off all presets for which a CNI link is
available).

2. 'Automatic link' or ' Manual link', depending on
what is read from the broadcast and from the CNI
table in the NVM. 'Automatic' means that the link
has been made based on broadcasted information,
without user-interaction. 'Manual' means that the
user has established this link by selecting a preset
in the pop-up menu that you get after setting a
reminder/recording/lock/watch in EPG. Erase a
wrong 'Manual link' by entering the Manual
Installation menu and (without changing anything)
activate 'Store'.

3. Nothing is shown.

How to navigate

• Use the Cursor UP/DOWN keys to select Menu items. The
selected option will be highlighted. When not all menu
options fit on the screen, press the Cursor UP/DOWN or
LEFT/RIGHT keys on the remote transmitter, to display the
next/previous menu.

• With the cursor LEFT/RIGHT keys, it is possible to:
– activate/deactivate the selected menu (e.g.

ALIGNMENTS/GENERAL)

– change the value of the selected menu item (e.g.

TUNER AGC)

– activate the selected submenu (e.g. TEST PATTERN)

How to exit

Press the “MENU” button, enter zero “0” twice, or switch the set
off with the power button.

Note: To save the error codes, “unplug” the AC power cord
without turning the set off.

5.2.3 Customer Service Mode (CSM)

Purpose

When a customer is having problems with his TV-set, he can
call his dealer. The service technician can than ask the
customer to activate the CSM, in order to identify the status of
the set. Now, the service technician can judge the severity of
the complaint. In many cases, he can advise the customer how
to solve the problem, or he can decide if it is necessary to visit
the customer.
The CSM is a read only mode; therefore, modifications in this
mode are not possible.

How to activate CSM

Use one of the following methods:

• Press the “MUTE” button on the RC-transmitter
simultaneously with the “MENU” button on the TV (top
control) for at least 4 seconds.

• Key in the code “123654” via the standard RC transmitter.

Note: Activation of the CSM is only possible if there is no (user)
menu on the screen!

How to navigate

By means of the “CURSOR-DOWN/UP” knob on the RC­transmitter, you can navigate through the menus.

Contents of CSM

CUSTOMER SERVICE MENU 1

• SW VERSION. Displays the built-in software version of the
SSB micrprocessor. In case of field problems related to
software, software can be upgraded. You will find details of
the software versions in the chapter “Software Survey” of
the “Product Survey - Colour Television” publication. This
publication is generated four times a year.

• SW VERSION MAIN. Displays the built-in software
version for the Main Scaler Board.

• SW VERSION EPLD. SW VERSION MAIN. Displays the
built-in software version of the EPLD.

• SW VERSION GDE. SW VERSION MAIN. Displays the
built-in software version of the System Board.

• LIGHT ENG SW VERSION.SW VERSION MAIN.
Displays the built-in software version of the LE.

• LIGHT ENG HW VERSION. Displays the hardware
version of the LE.

• MANUFACTURER’S ID. Each Manufacturer that uses this
Light Engine got an ID number assigned to them. This
number shown in CSM is used to verify that a light engine
for one mfgr did not get mixed up with another mfgr. Size is
up to 5 characters

• PRODUCT ID. This is the product ID, basically the
identification number for the given manufacturer, which
light engine product is hooked up. It will tell if the engine is
a Xion engine, or a Venus engine. For 2k4 based LCoS
products, this means it will always see a XIon ID. For 2k5
with Jaguar, this may be Xion or Venus. Size is up to 5
characters.

• ENGINE DRB SERIAL. The serial number of the DRive
module Board, the electronics of the light engine. Size is up
to 10 characters.

• ENGINE OPTICS SERIAL. This is the serial number of the
optics assemly of the light engine. The big black plastic part
containing the prisms, mirrors, etc. Size is up to 10
characters

Service Modes, Error Codes, and Fault Finding

EN 17EM8E 5.

CUSTOMER SERVICE MENU 2

• LAMP LIFETIME COUNTER. This is the count of hours
since the time the lamp lifetime reset was pressed. This
reset is available to the customer. Range is 0 to 32,767.

• LAMP EXPECTED. This is the setting the customer chose
as the type of lamp he is using, and then the number of
hours based on that type of lamp. (e.g. customer selects
lamp type X, and this is converted into hours) . Range is 0
to 32,767.

• ENGINE LIFETIME. This is the total number of hours the
engine itself has been run with the lamp “on”. This is
important for later service as the Light Engine can be
swapped from final TV to TV. Range is 0 to 32,767.

• POLARIZE LIFETIME. This is the total number of hours
that the polarizer within this light engine has been active.
Again, important because engines can be swapped, or
polarizers repaired and replaced in an existing engine.
Range is 0 to 32,767.

• PANEL LIFETIME. This is the total number of hours that
the LCoS Panel itself within this light engine has been
active. Again, important because engines can be swapped,
or panels repaired and replaced in an existing engine.
Range is 0 to 32,767.

• SET TYPE. This information is very helpful for a help desk/
workshop as reference for further diagnosis. In this way, it
is not necessary for the customer to look at the rear of the
TV-set.

• CODE 1. Gives the latest five errors of the error buffer. As
soon as the built-in diagnose software has detected an
error the buffer is adapted. The last occurred error is
displayed on the left most position. Each error code is
displayed as a 3-digit number. When less than 10 errors
occur, the rest of the buffer is empty (000). See also
paragraph Error Codes for a description.

• CODE 2. Gives the first five errors of the error buffer. See
also paragraph Error Codes for a description.

• VOLUME. Gives the last status of the volume as set by the
customer. The value can vary from 0 (volume is minimum)
to 100 (volume is maximum). Volume values can be
changed via the volume key on the RC-transmitter.

CUSTOMER SERVICE MENU 3

• BRIGHTNESS. Gives the last status of the brightness as
set by the customer. The value can vary from 0 (brightness
is minimum) to 100 (brightness is maximum). Brightness
values can be changed via the “CURSOR LEFT” and
“CURSOR RIGHT” keys on the RC-transmitter after
pressing the “MENU” button and selecting “PICTURE” and
“BRIGHTNESS”.

• CONTRAST. Gives the last status of the contrast as set by
the customer. The value can vary from 0 (contrast is
minimum) to 100 (contrast is maximum). Contrast values
can be changed via “CURSOR LEFT” and “CURSOR
RIGHT” keys on the RC-transmitter after pressing the
“MENU” button and selecting “PICTURE” and
“CONTRAST”.

• COLOUR. Gives the last status of the colour saturation, as
set by the customer. The value can vary from 0 (colour is
minimum) to 100 (colour is maximum). Colour values can
be changed via “CURSOR LEFT” and “CURSOR RIGHT”
keys on the RC-transmitter after pressing the “MENU”
button and selecting “PICTURE” and “COLOUR”.

• HUE. Only relevant for NTSC-signals (e.g. NTSC DVD
discs)

• SHARPNESS. Gives the sharpness value. The value can
vary from 0 (sharpness is minimum) to 7 (sharpness is
maximum). In case of bad antenna signals, a too high
value of the sharpness can result in a noisy picture.
Sharpness values can be changed via the “CURSOR
LEFT” and “CURSOR RIGHT” keys on the RC-transmitter
after pressing the “MENU” button and selecting “PICTURE”
and “SHARPNESS”.

• HEADPHONE VOLUME. Gives the last status of the head
phone volume, as set by the customer. The value can vary
from 0 (volume is minimum) to 100 (volume is maximum).

Head phone volume values can be changed via the
“CURSOR LEFT” and “CURSOR RIGHT” keys on the RC­transmitter after pressing the “MENU” button and selecting
“SOUND” and “HEADPHONE VOLUME”.

• TUNER FREQUENCY. Indicates the frequency the
selected transmitter is tuned to. The tuner frequency can
be changed via the “CURSOR LEFT” and “CURSOR
RIGHT” keys for fine tune after opening the installation
menu and selecting “INSTALL” and “MANUAL INSTALL”.

• DIGITAL OPTION. Gives the selected digital mode,
“PROGRESSIVE SCAN”, “MOVIE PLUS” or “PIXEL
PLUS”. Change via “MENU”, “PICTURE”, “DIGITAL
OPTIONS”.

• TV SYSTEM. Gives information about the video system of
the selected transmitter.

– BG: PAL BG signal received.
– DK: PAL DK signal received.
– I: PAL I signal received.
– L/La: SECAM L/La signals received.
– M: NTSC M signal received with video carrier on 38.9

MHz.

• DNR. Gives the selected DNR setting (Dynamic Noise
Reduction), “OFF”, “MINIMUM”, “MEDIUM”, or
“MAXIMUM”. Change via “MENU”, “PICTURE”, “DNR”

CUSTOMER SERVICE MENU 4

• NOISE FIGURE. Gives the noise ratio for the selected
transmitter. This value can vary from 0 (good signal) to 127
(average signal) and to 255 (bad signal). For some
software versions, the noise figure will only be valid when
“Active Control” is set to “medium” or “maximum”.

• SOURCE. Indicates which source is used and the video/
audio signal quality of the selected source. (Example:
Tuner, Video/NICAM) Source: “TUNER”, “EXT1”, “EXT2”,
“EXT3”, “EXT4”, “SIDE”, “AV1”, “AV2”, “AV3” or “AV4”.
Video signal quality: “VIDEO”, “S-VIDEO”, “RGB 1FH”,
“YPBPR 1FH 480P”, “YPBPR 1FH 576P”, “YPBPR 1FH
1080I”, “YPBPR 2FH 480P”, “YPBPR 2FH 576P”, “YPBPR
2FH 1080I”, “RGB 2FH 480P”, “RGB 2FH 576P” or “RGB
2FH 1080I”. Audio signal quality: “STEREO”, “SPDIF 1”,
“SPDIF 2”, or “SPDIF”.

• AUDIO SYSTEM. Gives information about the audio
system of the selected transmitter: “ANALOGUE MONO”,
“ANALOGUE STEREO”, “PCM 2/0”, “DD 1/0”, “DD 2/0
LtRt”, “DD 2/0 L0R0”, “DD 2/1”, “DD 2/2”, “DD 3/0”, “DD 3/
1”, “DD 3/2”, “DD 1+1”, “MPEG 1/0”, “MPEG 2/0”, “MPEG
2/0 LtRt”, “MPEG 2/1”, “MPEG 2/2”, “MPEG 3/0”, “MPEG
3/1”, “MPEG 3/2”, “MPEG 1+1” or “MPEG 2+2”.

• TUNED BIT. Gives information about the tuning method of
the stored pre-set. If a channel is found via “automatic
installation”, you will see the value “YES”. When you
change this (automatically found) frequency via “fine tune”
adjustment (installation menu - manual installation), the
displayed value will change to “NO”. Therefore, when you
see the value “NO” in this line, it is an indication that the
received channel is a non-standard signal (e.g. of a VCR).

• ON TIMER. Indicates if the “On Timer” is set “ON” or “OFF”
and if the timer is “ON” also displays start time, start day
and program number. Change via “MENU”, “TV”,
“FEATURES”, and “ON TIMER”.

• PRESET LOCK. Indicates if the selected preset has a child
lock: “LOCKED” or “UNLOCKED”. Change via “MENU”,
“TV”, “FEATURES”, “CHILD LOCK”, and “CUSTOM
LOCK”.

• CHILD LOCK. Indicates the last status of the general child
lock: “UNLOCK”, “LOCK”, or “CUSTOM LOCK”. Change
via “MENU”, “TV”, “FEATURES”, “CHILD LOCK”, and
“LOCK”.

• AGE LOCK. Indicates the last status of the EPG rating for
child lock: “OFF”, “4 YEARS”, “6 YEARS”, “8 YEARS”, “10
YEARS”, “12 YEARS”, “14 YEARS” or “16 YEARS”. This is
only displayed if child lock is set to “CUSTOM LOCK”

• LOCK AFTER. Indicates at what time the child lock is set:
“OFF” or e.g. “18:45” (lock time). This is only displayed if
child lock is set to “CUSTOM LOCK”

EN 18 EM8E5.

Service Modes, Error Codes, and Fault Finding

• CATEGORY LOCK. Indicates the last status of the EPG
theme child lock: “MOVIES”, “NEWS”, “SHOWS”,
“SPORTS”, “CHILDREN”, “MUSIC”, “CULTURE”, or
“SERIES”. This is only displayed if child lock is set to
“CUSTOM LOCK”. It is possible that more than one value
is shown.

CUSTOMER SERVICE MENU 5

• PROGRAM CATEGORY. Indicates the theme of the
selected transmitter: “MOVIES”, “NEWS”, “SHOWS”,
“SPORTS”, “CHILDREN”, “MUSIC”, “CULTURE”, or
“SERIES”.

• SW CODE 1.

• SW CODE 2.

• TV RATINGS LOCK. Only applicable for US.

• MOVIE RATINGS LOCK. Only applicable for US.

• V-CHIP TV STATUS. Only applicable for US.

• V-CHIP MOVIE STATUS. Only applicable for US.

• OPTION S 1. Gives the option codes of option group 1 as

set in SAM (Service Alignment Mode).

• OPTION S 2. Gives the option codes of option group 2 as
set in SAM (Service Alignment Mode).

• LAMP SERVICE COUNTER.

CUSTOMER SERVICE MENU 6

• BULB REPLACED INST. 1 - 5. These each should be
zero, unless a customer has replaced his bulb. This will
show the last 5 run time hours of the set, where the
customer has pressed the lamp replaced menu item to
“yes”. Multiples are kept as a customer may errantly press
the button, and these numbers, along with the lifetime of
the engine, can be used in warranty claim questions as to
whether a lamp has been replaced by customer or by
service, or not. Or if a kid has pressed it just to see what it
would do, etc. Range is 0 to 65,535.

SW EVENT - LOG

This item contains 'software event logging' information that can
be delivered to the Philips development centre on special
request.

How to exit CSM

Use one of the following methods:

• After you press a key on the RC-transmitter (with exception
of the “CHANNEL”, “VOLUME” and digit (0-9) keys), or

• After you switch the TV-set “OFF” with the mains switch.

5.3 ComPair

5.3.1 Introduction

ComPair (Computer Aided Repair) is a service tool for Philips
Consumer Electronics products. ComPair is a further
development on the European DST (service remote control),
which allows faster and more accurate diagnostics. ComPair
has three big advantages:

• ComPair helps you to quickly get an understanding on how
to repair the chassis in a short time by guiding you
systematically through the repair procedures.

• ComPair allows very detailed diagnostics (on I2C level)
and is therefore capable of accurately indicating problem
areas. You do not have to know anything about I2C
commands yourself because ComPair takes care of this.

• ComPair speeds up the repair time since it can
automatically communicate with the chassis (when the
microprocessor is working) and all repair information is
directly available. When ComPair is installed together with
the SearchMan electronic manual of the defective chassis,
schematics and PWBs are only a mouse click away.

5.3.2 Specifications

ComPair consists of a Windows based faultfinding program
and an interface box between PC and the (defective) product.
The ComPair interface box is connected to the PC via a serial
or RS232 cable.
For this chassis, the ComPair interface box and the TV
communicate via a bi-directional service cable via the service
connector.

The ComPair faultfinding program is able to determine the
problem of the defective television. ComPair can gather
diagnostic information in two ways:

• Automatic (by communication with the television): ComPair
can automatically read out the contents of the entire error
buffer. Diagnosis is done on I2C level. ComPair can access
the I2C bus of the television. ComPair can send and
receive I2C commands to the micro controller of the
television. In this way, it is possible for ComPair to
communicate (read and write) to devices on the I2C
busses of the TV-set.

• Manually (by asking questions to you): Automatic
diagnosis is only possible if the micro controller of the
television is working correctly and only to a certain extends.
When this is not the case, ComPair will guide you through
the faultfinding tree by asking you questions (e.g. Does the

screen give a picture? Click on the correct answer: YES /
NO) and showing you examples (e.g. Measure test-point I7
and click on the correct oscillogram you see on the
oscilloscope). You can answer by clicking on a link (e.g.

text or a waveform picture) that will bring you to the next
step in the faultfinding process.

By a combination of automatic diagnostics and an interactive
question / answer procedure, ComPair will enable you to find
most problems in a fast and effective way.

Beside fault finding, ComPair provides some additional
features like:

• Up- or downloading of pre-sets.

• Managing of pre-set lists.

• Emulation of the Dealer Service Tool (DST).

• If both ComPair and SearchMan (Electronic Service

Manual) are installed, all the schematics and the PWBs of
the set are available by clicking on the appropriate
hyperlink.

Example: Measure the DC-voltage on capacitor C2568
(Schematic/Panel) at the Mono-carrier.

– Click on the “Panel” hyperlink to automatically show

the PWB with a highlighted capacitor C2568.

– Click on the “Schematic” hyperlink to automatically

show the position of the highlighted capacitor.

5.3.3 How To Connect

1. First, install the ComPair Browser software (see the Quick
Reference Card for installation instructions).

2. Connect the RS232 interface cable between a free serial
(COM) port of your PC and the PC connector (marked with
“PC”) of the ComPair interface.

3. Connect the mains adapter to the supply connector
(marked with “POWER 9V DC”) of the ComPair interface.

4. Switch the ComPair interface “OFF”.

5. Switch the television set “OFF” with the mains switch.

6. Connect the ComPair interface cable between the

connector on the rear side of the ComPair interface
(marked with “I2C”) and the ComPair connector at the rear
side of the TV.

7. Plug the mains adapter in a mains outlet, and switch the
interface “ON”. The green and red LEDs light up together.
The red LED extinguishes after approx. 1 second while the
green LED remains lit.

8. Start the ComPair program and read the “Introduction”
chapter.

Service Modes, Error Codes, and Fault Finding

Note: A fault in the protection detection circuitry can also lead
to a protection.

TO SERVICE
CONNECTOR

PC VCR I2CPower

9V DC
E_06532_008.eps

190204

Error codes "01", "02", "03", and "04" are protection codes, and
in this case the supplies of some circuits will be switched "off".
Also in protection, the LED will blink the number of times
equivalent to the most recent error code.

Table 5-1 Error codes

EN 19EM8E 5.

Figure 5-1 ComPair Interface connection

5.3.4 How To Order

ComPair order codes (EU/AP/LATAM):

• Starter kit ComPair32/SearchMan32 software and
ComPair interface (excl. transformer): 3122 785 90450.

• ComPair interface (excluding transformer): 4822 727

21631.

• Starter kit ComPair32 software (registration version): 3122
785 60040.

• Starter kit SearchMan32 software: 3122 785 60050.

• ComPair32 CD (update): 3122 785 60070 (year 2002,

3122 785 60110 (year 2003).

• SearchMan32 CD (update): 3122 785 60080 (year 2002),
3122 785 60120 (2003), 3122 785 60130 (2004).

• ComPair interface cable: 3122 785 90004.

• ComPair firmware upgrade IC: 3122 785 90510 (only

useful for TV-sets with flashable software).

• Transformer (non-UK): 4822 727 21632.

• Transformer UK: 4822 727 21633.

Note: If you encounter any problems, contact your local
support desk.

5.4 Error Codes

5.4.1 Introduction

The error code buffer contains all errors detected since the last
time the buffer was erased. The buffer is written from the left to
the right. When an error occurs, which is not yet in the error
code buffer, the error code will appear at the left side and all
other errors shift one position to the right.

5.4.2 How to clear the Error Buffer

Use one of the following methods:

• Activate “Reset Error Buffer” in SAM menu

• If the content of the error buffer was not changed for 50+

hours, it resets automatically.

By leaving SDM or SAM via the power switch, the error buffer
will not be reset.

Examples:
ERROR: 000 000 000 : No errors detected
ERROR: 036 000 000 : Error code 036 is the last and only
detected error
ERROR: 018 036 000 : Error code 036 was first detected and
error code 018 is the last detected (newest) error

The contents of the error buffer can also be displayed by using
of the “blinking LED” procedure, if no picture is available. See
the chapter “The blinking LED procedure “below.

5.4.3 Error Code Definition

In case of non-intermittent faults, clear the error buffer before
you begin the repair. Make sure “old” error codes are not
present. If possible, check the entire content of the error
buffers. In some situations an error code is only the result of
another error code (and not the actual cause).

Error Description

1 (1) NVM (M24C32)
2 HFB protection
3 Picnic (SAA4978)
4 5VProtection
5 8V Protection
6 (2) Slow I2C bus blocked
8 HIP I/O-video processing (TDA9320)
9 Wireless Expander (PCF8574)
12 Topic (LT P Peaking) (TDA9178)
13 Tuner Protection
14 ITT Sound Processor (MSP3411/3412/3452)
15 3D Combfilter protection (mPD64083)
16 Feature Box Protection (FBX)
17 I/O Expander HD Interface (M62320P)
18 Fast I2C bus blocked
19 Auto Scavem DAC (TDA8444)
21 PIP I/O Expander (M62320P)
22 PIP BOCMA (TDA888X)
23 PIP Tuner
24 PIP Muppet (SAB9081)
25 PIP V-Chip (Z86130)
26 Falconic (SAA4992)
27 Eagle device
28 Back Current loop
32 Flash Ram (EPG)
36 Light engine shutdown Protection Error
37 Light engine shutdown protection. Spontaneous

blinking 37-37-37.
38 Lamp Failure.
39 Light engine polarizer fan failure, protection error.
41 Shutdown protection error, spontaneous blinking 41-

41-41. GDE not responding
42 Not protection error. GDE NVM error
43 Fan Fault. Not protection error. Shut down if error

exists continuously for 2 minutes
44 Ambient Temperature Warning. Not protection error.

Message should be displayed for 6 seconds and every

15 minutes as long as temp is above ambient temp.

warning
45 High temperature alert. Not protection error. Shut

down message should be displayed and system

should enter standby after 1 minute if the temperature

exceeds this limit.
46 Audio fault (audio board). N ot protection error.
47 Audio fault (audio board). N ot protection error.
48 Thermo cutoff SW. Protection error
49 Engine Fault Lamp Off. Unexpected Lamp Off.

System should enter into standby.
51 Main scaler not working. Communication via EPLD is

ok, scaler not responding. Not a protection error.
52 NVM error MSB Pixelworks (local error number

MSB=3),
53 Video switch. Local error number MSB=4
54 Audio switch (local error number MSB=5) (TEA6422D)
55 EPLD (local error number MSB=6)
56 ADC error (local error number MSB=7) (AD9888)
57 MSB I2C error. Not protection error
59 Reserved error codes for NAFTA Digital TV

EN 20 EM8E5.

Service Modes, Error Codes, and Fault Finding

(1) This error should start the Blinking LED procedure when it
occurs.
(2) This error has the highest priority, so if other errors occur
simultaneously, this should go first.

5.5 The Blinking LED Procedure

NOTE: Perform this procedure without any signal applied.

This is necessary because making any adjustment, such as
lowering the volume, will render the Blinking LED procedure
inoperative.

The contents of the error buffer can also be made visible
through the “blinking LED” procedure. This is especially useful
when there is no picture.

When the SDM is entered, the LED will blink the number of
times, equal to the value of any error codes.
The ON/OFF indicator turning orange for 500 ms precedes all
error code sequences (there is a possibility of up to 10).
After the 500 ms delay, the ON/OFF indicator will turn green for
1500 ms before the first code begins. If an error code is smaller
than 10, the ON/OFF indicator will rapidly flash orange 1-9
times to indicate the code (EXP. Six rapid flashes indicates an
error code of 6.)
There will be a delay, green light, of approximately 3 seconds
between codes.
For error codes of 10 and higher, the ON/OFF indicator will
slowly flash orange the correct number of times to indicate the
first digit, and then will rapidly flash orange the correct number
of times to indicate the second digit (EXP. Three slow orange
flashes followed by 6 rapid orange flashes indicate an error
code of 36.)
When all error-codes are displayed, the sequence is finished
and the ON/OFF indicator turns green for 3 seconds. At this
point the sequence will begin again as indicated by the ON/
OFF indicator turning orange for 500 ms.

approximately 3.3 V. This voltage can be measured on Pin 36
of 1205.
When the set is turned "On", the OTC will pull the Standby Line
Low. The relay on the Input Power board will then turn "On",
providing RAW_DC voltage to the Main Power board via Pin 1
of 1311. If 5 V is present on Pin 11 of 1403, Pin 1 and 3 of 1460,
and Pins 1 and 2 of 1410, the Standby line on Pin 9 of 1403 is
Low, RAW_DC should be present on Pin 1 of 1311. If it is not,
the Input Power board should be repaired or replaced.
When the RAW_DC voltage is applied to the Main Power
board, +36 V should appear on Pin 4 of 1312.
Additional voltage are 5 V on Pins 3, 4 and 5 of 1313, +9 V on
Pins 1 and 2 of 1314, +3.3 V on Pins 5 and 6 of 1314, and +12
V on 1314.
Operating voltages are applied to the Light Engine on
connector 1315.

5.6.2 Troubleshooting Audio Problems

The Audio Power supply is located on the Input Power board.
A positive 25 V should be present on Pin 1 of 1316 and a minus
25 V on Pin 4. An audio signal should be present on Pins 1 and
4 of 1700. The SOUND_ENABLE line should be High to switch
the Audio Amplifier "On".

5.6.3 Troubleshooting Video Problems

The 1fH signals from the SCART panel or Side Jack panel are
fed to the SSB for processing. The signal is fed to the Scaler
board in a digital format via 1401. (Figure 75) After processing,
the signal is fed to the Light Engine via connector 1200. The
SSB can be bypassed by selecting the inputs on the Scaler
board.

Table 5-2 Example of the blinking LED procedure

Error code position 1 2 3 4 5

Error buffer: 018 006 036 0 0

After entering SDM: The sequence will begin with 1 long blink
of 500 ms, then pause 1500 ms, then slowly blink once followed
by 8 rapid blinks (indicating error code 18), next the LED will
pause for 3 seconds followed by 6 rapid blinks (indicating error
code 6), next the LED will pause for 3 seconds, then slowly
blink 3 times followed by 6 rapid blinks (indicating error code

36), then pause 3 seconds ending the sequence in this
example. If there were error codes in positions 4 and 5, those
sequences would also be given.

5.6 Fault Finding

5.6.1 Troubleshooting a Dead Set

If the status lamp is Red, the 5 V supply is present and the OTC
is working. If the indicator LED is "Off", the Standby Supply may
not be working. The Standby Supply is located on the Main
Power Board. This voltage can be measured on Pin 2 of
connector 1312.
This voltage is then fed to the Input Power board on 1403, Pin

1. The 5 V Standby voltage is also fed to the Side Jack Panel
via Pin 4 of 1344. It is then fed back to the System board on Pin
5 of 1344 and then to the Input Power board on Pin 11 of 1403.
If the voltage on Pin 5 of 1344 is High, the +5V_STBY_SW
voltage is switched "On" and fed to the SSB via Pin 40 of
connector 1205.
The ON/OFF LED voltage is fed to the System board via Pin 77
of 1205. It is then fed to the LED Sensor Panel via Pin 5 of

1214. In the Standby mode, the Standby line will be

Block Diagrams, Testpoint Overview, and Waveforms

6. Block Diagrams, Testpoint Overview, and Waveforms

Not applicable yet

EN 21EM8E 6.

Circuit Diagrams and PWB Layouts

7. Circuit Diagrams and PWB Layouts

LCoS Audio Amplifier Board

EN 22EM8E 7.

1

A

B

C

D

E

F

TO SYSTEM
BOARD

(1700)

G

SOUND_ENABLE

H

I

J

K

L

M

N

3135_037_11411_01 X
RESERVED

O

Ref Des

P

9710 NOT USED
9711 NOT USED

3135 033 3353.3

1

2

3

47

LCOS AUDIO AMPLIFIER BOARD

I713

3702

6K8

5V2
5V2

I711

3701

10K

2739

100R

7701

0V

BC847B

A1

I707

2701

3793
100R

47n

2703

330n

330n

3790

100R

6708

6709

4

1700

B8B-EH-A

9711

8

NOT USED

7
6
5
4

AUDIO_R

3
2
1

AUDIO_L

1216

1
2

F702

TO SYSTEM
BOARD

E

N
A

U

F

R

T

O

A

P
E

X

NOT USED

3135_037_11411_01 RESERVED

2

9710

A2

2740

n
o
t
_
u
s
e
d

X

F700

100n

2729

F701

F703

3792

100R

47n

3791

319803690010

319803690010

3

F708

I750

5

I714

6704

6706

BAS316

BAS316

6705

6707

BAS316

BAS316

6710

2704

BAS316

6711

BAS316 BAS316

BAS316

NOTES

1. CAPACITANCE VALUES ARE IN F
m= MILI u= MICRO n= NANO p= PICO f= FEMT

2. RESISTANCE VALUES ARE IN OHMS:
R= OHM K= KILO M= MEGA G= GIGA T= TERA

3. SAFETY TRIANGLE REPRESENTS PCEC REPLA

4. FOR VALUE SEE TABLE.

*

5

6

3703

33K

10K

3704

I710

100n

2702

100n

10R

3705

I704

220n

2708

I702

220n

2720

1701

HEATSINK

123

2718

27p

3712

10K

I708

I712

A4

100n

2706

470p

2722

I751

2721

ARADS:

6

I709

4

I738

A3

3721

470p

2705

-23V1
26V

0V
0V

0V

5V1

-14V2
5V3

24V6

24V6

5K6

3722

68K

O

CEMENT PART ONLY.

7

8

2u2 50V

470p

2709

2710

I717

470p

I718

7700

TDA7490

14

CURREF

8

OSC

7

FEED1

9

FEED2

10

IN1

0V

18

IN2

17

0V

FEED3

19

0V

FEED4

6

STBY-MUTE

25

VREG

-VCCSIGNSUB

12

+5V

4

-VCCPOW1

+VCCPOW1

22

-VCCPOW2

+VCCPOW2

I715

3723

56K

8

913

3708

56K

5K6

3706

3707

68K

I719

3711

120K

220n

2723

0V

11

T1

5

9V2

BOOT1

3

0V

OUT1

OUT2

BOOT2

T2

NC1

GND

-5V

I732

0V

23

9V3

21
15

0V

20

13
1

-24V6

-5V4

16

-24V6

2
24

-24V6

2743

220n

220n

2732

9

10

BC847B

I736

2714

33n

I731

A6

A5

I739

2726

33n

I705

I703

2727

1n0

I742

2733

220n

220n

2724

2742

220n

10

11

7710

BC847B

5V1
5V1

0V
0V

7711

4V9

BC847B

4V9

I720

5V1
5V1

7707

0V6

I721

2719

2715

1n0

1n0

2716

330p
3710

22K

2728

330p
3725

22K

2707

100n

I746

I747

2711

1n0

3799

3714

I756

47K

3728
220R

I722

3709
220R

2744

220n

2712

2725

220n

220n

3724
220R

3729
220R

I723

BC857B

0V6

47K

2731

7706

I726

3713

2713

5701

68u

2745

220n

2m2

12

I757

3K3

3797

3716
47K

5V2
5V2

5V2
5V2

V06
V06

100R

I728

V06
V06

100n

I724

1311

1702

BT169B

2777

1412

I758

3798

3K3

I725

3715

47K

+5V

3K3

2735

3726

I727

4V7
4V7

6703

1N4148

2717

5716

680n

I743

5702

68u

1K0

3720

I735

1K0

2m2

2730

3719

F719

14

15 18

I730

10u 50V

I755

3727

47K

100p

10n

2737

5714

1u0

2780

5717

5713

5718

100n

1u0

1u0

1u0

15

3730

3717

2781

5V2
5V2

7705
BC847B

0V

0V

100R

F709

150K

16

5708

7704
BC847B

0V
0V

2776

47u 50V

I737

0V6
0V6

10K

3796

3718

150K

I733

1

1703
2

I734

1

10n

2736

1704
2

5715

2763

680n

F710

F712

F711

100n

F718

16

17 19

+5V

1n0

5707

17

F714

F716

F717

F715

F713

100R

1n0

2741

1321

A7

26-62-7051

F704

1K5

F705
F706

F707

A8

1K5

1316

1

+V_AUDIO

2
3
4

-V_AUDIO

B4P-VH

18

6702

1N4148

6701

1N4148

2734

5V2
5V2

I740

0V

0V

3731

0V3
0V3

7708
BC847B

3

3732

CM08

4

3

3733

CM08

4

24V6

-24V6

1305

+5V

1

GND

2

PWR_FAIL

3

PWRFAIL_STDBY

4

AUDIO_FAULT

5

GND

6

DC_FAULT

7

B7B-PH-K

FOR NAFTA
TO CENTER CHANNEL OR SPEAKERS

RIGHT+

1

RIGHT-

2

LEFT-

3
5

OR

LEFT+

FOR EUROPE

CONNECT TO THE SPEAKERS

TO INPUT

POWER BOARD

(1316)

19

(1349)

20

TO SYSTEM

BOARD

(1305)

E_14780_137.eps

130704

20

A

B

C

D

E

F

G

H

I

J

K

L

M

N

O

P

1216 J2
1305 C18
1316 K17
1321 H18
1700 H2
1701 F6
1702 F13
1703 G16
1704 H16
2701 G5
2702 H6
2703 I4
2704 I5
2705 E7
2706 I6
2707 I10
2708 K6
2709 F8
2710 F8
2711 J11
2712 I11
2713 F13
2714 H9
2715 F10
2716 G11
2717 F14
2718 G6
2719 F11
2720 K6
2721 K7
2722 J6
2723 G9
2724 K9
2725 I11
2726 I10
2727 J10
2728 H11
2729 F3
2730 L14
2731 K12
2732 L9
2733 K10
2734 C17
2735 E14
2736 H16
2737 H15
2739 H4
2740 I3
2741 F17
2742 L10
2743 K9
2744 G11
2745 I12
2763 J16
2776 E16
2777 G13
2780 K15
2781 L15
3701 E4
3702 E5
3703 D6
3704 E6
3705 J6
3706 F9
3707 F8
3708 E9
3709 F12
3710 H11
3711 F9
3712 H6
3713 E13
3714 E11
3715 D14
3716 D13
3717 G15
3718 G16
3719 L13
3720 K13
3721 J7
3722 K7
3723 J8
3724 J11
3725 I11
3726 E14
3727 F15
3728 F12
3729 J11
3730 D15
3731 E17
3732 G17
3733 H17
3790 H4
3791 I3
3792 I3
3793 G4
3796 G16
3797 B13
3798 B13
3799 D12
5701 G13
5702 J13
5707 F17
5708 C16

5713 L14
5714 J14
5715 I16
5716 G14
5717 K14
5718 L14
6701 B17
6702 B17
6703 F14
6704 H5
6705 H5
6706 H5
6707 H5
6708 I5
6709 J5
6710 I5
6711 J5
7700 H8
7701 E4
7704 E16
7705 D15
7706 D13
7707 F11
7708 F16
7710 B11
7711 D12
9710 H3
9711 G2
F700 E3
F701 G3
F702 I3
F703 H3
F704 H17
F705 H17
F706 H17
F707 H17
F708 G3
F709 F15
F710 J16
F711 K16
F712 K16
F713 D18
F714 B17
F715 C17
F716 B18
F717 B17
F718 L16
F719 L14
I702 K6
I703 J10
I704 J6
I705 I10
I707 G4
I708 H6
I709 E7
I710 F6
I711 E4
I712 H6
I713 E4
I714 E5
I715 J7
I717 F8
I718 F8
I719 F9
I720 D12
I721 F11
I722 F11
I723 L11
I724 G13
I725 D14
I726 E12
I727 E14
I728 E13
I730 D14
I731 H10
I732 H9
I733 G16
I734 H16
I735 L14
I736 G10
I737 F16
I738 G7
I739 H10
I740 E17
I742 K10
I743 J14
I746 J11
I747 J10
I750 I3
I751 J6
I755 F14
I756 E11
I757 B13
I758 B14

Circuit Diagrams and PWB Layouts

EN 23EM8E 7.

Layout LCoS Audio Amplifier Board (Top Side)

3135 033 3353.3

E_14780_078.eps

090704

1216 E1
1305 A1
1316 A2
1700 A1
1701 B2
1702 D1
1703 D2
1704 D2
2701 B2
2703 A2
2705 C1
2730 B2
2731 B2
2735 A1
2763 D2
2776 D1
2777 D2
2780 A2
2781 A2
3701 A1
3702 B1
3705 C2
3711 B2
3713 C1
3715 C1
3719 A2
3720 A2
3724 C2
3729 C2
3732 D2
3733 D2
3792 A2
3793 A2
3798 B1
3799 C1
5701 C2
5702 C2
5713 A2
5714 A2
5715 D2
5716 D1
5717 A2
5718 A2
6701 B1
6702 A1
6703 B1
7700 C2
9012 D2
9019 B2
9026 C1
9027 B1
9030 B2
9031 B2
9032 B2
9033 B1
9034 B2
9710 A2
9711 A1

Layout LCoS Audio Amplifier Board (Bottom Side)

3135 033 3353.3

E_14780_079.eps

120704

2702 B1
2704 B1
2706 B1
2707 B1
2708 C1
2709 C1
2710 C1
2711 C1
2712 C1
2713 D2
2714 C1
2715 C2
2716 C1
2717 B2
2718 B1
2719 C2
2720 C1
2721 C1
2722 C1
2723 B1
2724 C1
2725 C2
2726 C1
2727 C1
2728 C1
2729 A2
2732 C1
2733 B1
2734 A2
2736 D1
2737 D1
2739 A1
2740 A1
2741 A2
2742 C1
2743 B1
2744 B1
2745 C2
3703 B1
3704 B1
3706 C1
3707 C1
3708 C1
3709 C1
3710 C1
3712 B1
3714 C2
3716 B2
3717 D1
3718 D1
3721 C1
3722 C1
3723 C1
3725 C1
3726 A2
3727 B2
3728 C2
3730 D2
3731 D2
3790 A1
3791 A1
3796 D2
3797 C2
4700 B1
4701 C2
5707 B2
5708 B2
6704 B1
6705 B1
6706 B1
6707 B2
6708 A1
6709 A1
6710 B1
6711 B1
7701 B2
7704 D2
7705 D2
7706 B2
7707 C2
7708 B2
7710 C2
7711 C2

LCoS System Board

1

1

A

A

B

B

C

C

D

D

EE

F

F

GG

H

H

I

I

J

J

K

K

L

L

M

M

N

N

O

O

P

P

SDA-PW
SCL-PW

L-D1

3-D13

R-D1

3-D20

L-D2

3-D13

R-D2

3-D20

3-G20

3-H20

3135 033 3299.6

1

1

2

2

LCoS SYSTEM BOARD (1 OF 4)

VACATION_SW

4-C5,1-K18,1-E16,1-C17

10K

3103

10K

3104

I163

0V0

I164

0V0

0V0

I167

0V0

I170

C3

3V3

F134
F135

3V3

C4

MT1

52479-0640

TUNER

1203
UV1316-MK3

MT113MT2

L

H

M

L

H

M

MT315MT4

TUNER_GND

2

2

+5V_STDBY

7019
BC847B

SCALER (MSB)

1210-1

1210-2

ROW_A

ROW_B

A1

B1

A2

B2

A3

B3

A4

B4

A5

B5

A6

B6

A7

B7

A8

B8

A9

B9

A10

B10

A11

B11

A12

B12

A13

B13

A14

B14

A15

B15

A16

B16

A17

B17

A18

B18

A19

B19

A20

B20

A21

B21

A22

B22

A23

B23

A24

B24

A25

B25

A26

B26

A27

B27

A28

B28

A29

B29

A30

B30

A31

B31

A32

B32

52479-0640

MT2

TUNER_GND

12

AGC

1

TU

2

AS

3

SCL

4

SDA

5

6

NC1

VS

7

ADC

8

VST

9

PLL

IF2|NC2

10

IF1

11

14

TL431BCLP

3

3

3105

220K

4123

35V4u7

2128

I168

0V0

I171

0V0

I174

0V2

0V0

4-G15,3-L9,2-F18,1-C8,1-H13,1-I12,#3

4V

4-G15,3-M9,2-F18,1-C6,1-H13,1-I7,#3

4V

I192
I195

6102

6101

BAS316

I207

50V

2102

100u

F108

C2

C1

I209

2104

F109

32V3

6112

BZV85-C15

16V8

7115

1

K

2V4

R

3

A

2

3

3

Circuit Diagrams and PWB Layouts

6

Pr

CVBS-SC1_AV1-IN

R-SC1_AV-OUT

L-SC2_AV2-IN

SCL-EMG

L-Y2

L-Y1

AUDIO-SW

R-FRONT-IN

R-MSB

R-SC2-OUT

STATUS-SC3

SNDR-SC3-IN

5108

+8V6A

1u0

16V330u

2123

5109

+3V3A

1u0

2124

470u 10V

10K

100R

3101

SCL-EMG

SDA-EMG

2116

Y-COMB

C-COMB

CVBS-IN

5106

1n0

INPUT POWER

1217

0-106451-1

61

7119
SI4431ADY

5678

3-C13

3-C20

1-H11

1-H7

5V

2-I17,2-B20

2-I17,2-C20

5V

BAS316

4103

3111

47R

1n0

2103

2105

4

4

9002

+5V_STDBY_SW

2351

100n

100n

2352

+3V3

+12V

100n

2353

L-RGB

R-RGB

HFB

VFB

SDA-EMG

SCL-EMG

SDA-GDE
SCL-GDE

SOUND-ENABLE

10K

3K9

3107

3106

5101

4104

6u8

3110

4-G15,3-M9,2-F18,1-C6,1-H13,1-I7,#3

47R

4-G15,3-L9,2-F18,1-C8,1-H13,1-I12,#3

220u

3108

75R

3112

120K

10K

100n

3109

4

4

5307

5308

5309

2130

1u0 50V

1-G8

C1

C2

C5
C6

1-N19,1-C10

1-H7

+5V

IF-TER

PIP_TUNER_33V

+36V

5

5

SEL-SVHS-RR_STATUS2

4-G15,3-M9,2-F18,1-H13,1-I7,1-O11,#3

+5V2A

+9V

+8V6

+3V3

+5V_STDBY

3122

AGC

5

5

2-N14,1-F19

1-G12

1-J7

1-I7

1-H7

3-D13

3-D13

1-J12

1-C13,1-J12

3-F20

1-J7

1-N9

1-M9

SEL-SVHS-RR_STATUS2

470p

2101

EMG* 3D COMB

1-F13

1-F13

1-E13

1
2

7

7

I100

FBL-SC1-IN

I105

L-SC1_AV-OUT

I108

CENTER-IN

I112

R-SC2_AV2-IN

I115

4-G15,3-L9,2-F18,1-H13,1-I12,1-O11,#3

SDA-EMG

+9V

I121

R-Y2

I125

R-Y1

L-FRONT-IN

I133

L-MSB

I137

P50-W

I140

L-SC2-OUT

I144

SNDL-SC3-IN

I147

2-M13

B-SC1_U-IN

C-SC2_SVHS-IN

CVBS-TER-OUT

LIGHT-SENSOR

R-SC1_AV-OUT

HEADPHONE-L

1-C12

1-D12

1-J5

AGC

1-C6

1-G4

VFB

1-F16

4-G15,3-M9,2-F18,1-C6,1-H13,1-O11,#3

SCL-EMG

1-C6

L-SC2_AV2-IN

L-SC2-OUT

1-E8
1-E6

R-SC2-OUT

1-C6
1-E12,1-C13

Y-F RO N T-I N

1-C13,1-D8

L-FRONT-IN

3-K2
1-C12

L-CL_VL-OUT

4-J8

AUDIO- L

1-F16

ON-OFF-LED

1-E16

KEYBOARD

1303

B5B-PH-K

R-SC3_V-IN

1

G-SC3_Y-IN

2

B-SC3_U-IN

3
4

FBL-SC3-IN

5

INPUT POWER

1218

0-106451-1

7

7

8

1-G12

1-J12

4-J8

1-J11

3-D20

3-D20

1-C13,1-J7

3-F13

1-H12

1-J7

1-M9

I149

R-SC1_V-IN

CVBS-SC2_MON-OUT

I159

I165

I172

F137

F139
I204

EMG* SCART3

1-D10
1-E10
1-E12

1-D10

1
2

8

98

9

REAR JACK PANEL

1fH CINCH

1220-2

1220-1

ROW_B

ROW_A

IF-TER

0V0

I103

I107

I111

4V4

I114

4V4

4V

I116

4V

0V

I123

0V
0V

I127

0V
0V

I131

0V
0V

I135

4V4
4V4

I143

I146

MT1

2-M17

1-B12

1-N5

+8V6A

+5V

+3V3A

I179
I181

4125

4122

3113

10R

52479-0640

I151

F136

A1
A2
A3
A4
A5
A6
A7
A8
A9
A10
A11
A12
A13
A14
A15
A16
A17
A18
A19
A20
A21
A22
A23
A24
A25
A26
A27
A28
A29
A30
A31
A32

MT2

1205-A

ROW_A

87613-8001

AUDIO_GND

B1
B2
B3
B4
B5
B6
B7
B8

B9
B10
B11
B12
B13
B14
B15
B16
B17
B18
B19
B20
B21
B22
B23
B24
B25
B26
B27
B28
B29
B30
B31
B32

52479-0640

EMG*SSB

1
3
5
7
9
11
13
15
17
19
21
23
25
27
29
31
33
35
37
39
41
43
45
47
49
51
53
55
57
59
61
63
65
67
69
71
73
75
77
79

EMG* SCART3

1402

B5B-PH-K

1

SNDR-SC3-IN
2
3

SNDL-SC3-IN
4
5

CVBS-SC3-IN

STATUS-SC3

AUDIO AMPLIFIER

1216

1
2

106957

NOTES

1. CAPACITANCE VALUES ARE IN F
m=MILI u=MICRO n=NANO p=PICO f=FEMT

2. RESISTANCE VALUES ARE IN OHMS:
R=OHM K=KILO M=MEGA G=GIGA T=TERA

3. SAFETY TRIANGLE REPRESENTS PCEC REPLA

4. FOR VALUE SEE TABLE.

*

9

9

10

10

0V

0V

2V3

0V
0V

0V9

0V1

0V

1V

I124

1V4

I128

I132

0V

3-L2,1-I12

4V4
4V4

0V

CVBS-FRONT-IN

0V

I145

Note: See SSB Schematic B1 for
Voltages and Waveforms for
Connector 1205

1205-B

ROW_B

I150

2
4
6

8
10
12
14

I160

16
18

I162

20
22
24
26
28
30
32
34

I169

36

I173

38
40
42
44
46
48
50

I182

52
54
56
58
60

I194

62
64
66

F138

68
70
72

I200

74

F140

76

I203

78
80

87613-8001

1680

B6B-PH-K

1-E6

1-E8

1-D12
1-E6

KEYBOARD

1215

0-106451-1

ARADS:

10

10

EN 24EM8E 7.

1111 13

I101

I102

I104

I106

I110

I109

I113

1-I5,1-N19

SOUND-ENABLE

+9V

1-D19

C-PIP

1-M8

FBL-SC3-IN

1-M8

R-SC3_V-IN

L-SC1_AV1-IN

1-M8

G-SC3_Y-IN

2-N20

1-C12

1-C12

1-G4

1-F16,1-K18

4-G15,3-L9,2-F18,1-C8,1-H13,1-O11,#3

4-E15

1-C8

1-C13

4126

4123

1-C12

4-K8

1-H19

1

HA50
2
3

VA50

1-H19

4
5
6

1

C1

2

C2

O

CEMENT PART ONLY.

11

2-N10,1-F19

Pb

2-N17,1-F19

Y

1-G8

CVBS-SC2_MON-OUT

1-J11

R-CL_VL-OUT

1-J7

L-CL_VL-OUT

1-G11

Y-CVBS-SC2_AV2-IN

1-G7

C-SC2_SVHS-IN

I117

1-H11

SC1-STATUS

I122

1-D19

Y-CVBS-PIP

I126

1-G7

CVBS-TER-OUT

I130

1-M9

CVBS-SC3-IN

1-C13,1-J12

I134

C-FRONT-IN

3-M2,1-J12

I138

R-SC1_AV1-IN

1-C13,1-J7

I142

Y-F RO N T-I N

I148

1-M8

B-SC3_U-IN

G-SC1_Y-IN

1-B8

Y-CVBS-SC2_AV2-IN

1-C6

SC1-STATUS

1-E8

HFB

STANDBY

+5V_STDBY_SW

+3V3A

INT-EMG

3-L2,1-D10

1-C8

R-SC2_AV2-IN

3-M2,1-D12

FRONT-DETECT

1-D12,1-C13
1-C13,1-D6

3-M2

R-CL_VL-OUT

1-D6

AUDIO- R

1-F16

EMG*

1681

B3B-PH-K

I2S_DATA_IN

1

I2S_DATA_OUT

2
3

4-G15,3-L9,2-F18,1-C8,1-H13,1-I12,#3
SDA-EMG
SCL-EMG

4-G15,3-M9,2-F18,1-C6,1-H13,1-I7,1-L5,#2

12

12

FRONT-DETECT

FBL-SC1-IN

CVBS-SC1_AV1-IN

STAT1_AFT_PIP-50-60HZ

P50-W

C1

4-G15,3-L9,2-F18,1-C8,1-I12,1-O11,#3

C2

4-G15,3-M9,2-F18,1-C6,1-I7,1-O11,1-L5,#2

SDA-EMG

L-SC1_AV1-IN

L-SC1_AV-OUT

R-SC1_AV1-IN

C-FRONT-IN
R-FRONT-IN
HEADPHONE-R

AUDIO-SW

RC5

EMG* AUDIO DELAY

2-C9
2-C1

I118

2-M10

I2S_CLK

I119

12

13

+8V6

Y-F RO N T-I N

C-FRONT-IN

L-FRONT-IN

R-FRONT-IN

CVBS-IN

C-COMB

Y-COMB

SDA-EMG

SCL-EMG

05FMN-BTK-A

PWRFAIL_STDBY

I I C

1244

B3B-EH-A

13

13

+9V

+5V
+5V

1683

PWR_FAIL

1
2
3

14

14 19

15

15

16

HP_OUT_L

3-M13

17

17

SIDE JACK

1335

1-E12,1-J7

1-D12,1-J12

1-D8,1-J7
1-J11
1-D6,1-J12

B11B-EH-A

1
2
3
4
5
6
7
8
9
10
11

1n0

1n0

2354

2357

100p

2355

2356

100p

1n0

1n0

2359

2358

HP_OUT_R

VACATION_SW

SIDE JACK

1337

0-106451-1

3-N13

4-C5,1-K18,1-E16,1-B2

1
2

+5V

2362

I T V

1245

95003-2661

1n0

3D COMB

1008

09JL-BT-E

1-M6

1-M6

1-M6

1

2V8

2
3
4
5
6

1V5

7
8

0V9

9

101112

13

3D COMB

1009

09JL-BT-E

1

+15V_STBY

4V1

2

+5V2A

3

4V1

4

+5V

5

8V9

6
7
8
9
12

10
11

13

+9V

+8V6

+3V3

2114

F102

F103

2110

100n

2111

470u 16V

F104

10V2m2

2115

100n

2113

VACATION_SW

KEYBOARD

LAMP_FAULT

ON-OFF-LED

LIGHT-SENSOR

F101

16V
1m0

6105

SB140

5104

1u0

+12V

STANDBY

F100

2112

2108

RC5

+9V

F105

4-C5,1-K18,1-B2,1-C17

1-K7
1-K7

4-H5
1-I11,1-K18
1-K12
1-I7

5102

1u0

1n0

100n

5103

1u0

100n

2109

2m2 25V

1n0

2381

2380

1n0

2369

MAIN POWER

+5V2

1n0

2370

2371

+9VR

1n0

2379

9001

1n0

2368

1313

B8P-VH

1
2
3
4
5
6
7
8

MAIN POWER

1314

B9P-VH

1
2
3
4
5
6
7
8
9

1n0

1n0

1n0

2367

2366

4-G15,3-L9,2-F18,1-C8,1-H13,1-I12,#3
SDA-EMG

C1

+5V

3121
100K

3120

+5V

47K

C2

SCL-EMG
4-G15,3-M9,2-F18,1-C6,1-H13,1-I7,#3

DC_FAULT

THERMO_CUTOFF

DOOR_INTERLOCK

STANDBY

VACATION_SW

AUDIO AMPLIFIER

1
2
3
4
5

4-E5,2-J8,1-M17
4-F5,2-J8,1-M17

14

1412

+5V_STDBY

2388

1n0

+33V

MAIN POWER

1312

B7B-EH-A

F106

1n0

1n0

2386

2387

15

15

1
2
3
4
5
6
7

1n0

2385

PWRFAIL_STDBY

AUDIO_FAULT

16

16

PWR_FAIL

DC_FAULT

+5V

4-E5,2-J8,1-N13
4-F5,2-J8,1-N13
2-F11

1-J18

2127

17

17 18

1n0

1n0

2129

2125

1n0

1n0

2126

AUDIO_GND

18

18

3114
56R

3115
56R

3116
56R

3117
56R

1n0

2363

1
2
3
4
5

LED SENSOR

6

1n0

2365

2364

3118

47K

3119

100K

1-N17

4-D5

4-E5

1-I11,1-F16

4-C5,1-E16,1-B2,1-C17

+5V

1305

B7B-PH-K

1
2
3
4
5
6
7

SOUND-ENABLE

18

1n0

B10B-EH-A

7023
BC847B

+5V_STDBY

1214

+5V_STDBY

L

R

1-I5,1-C10

1916

4117

1n0

2361

2360

Y-CVBS-PIP

1
2
3
4
5
6
7
8
9
10

7022
BC847B

6114

VA50

BAS316

HA50

+8V6

PIP_TUNER_33V

1n0

2378

2376

1n0

2377

4-J16

4-K16

2383

AUDIO_GND

19

19

SIDE JACK

1344

B5B-EH-A

1
2
3
4
5

1n0

1-D10

C-PIP

1-D12

2-N10,1-B12

Pb

2-N17,1-B12

Y

2-N14,1-B6

Pr

6113

BAS316

1-M11
1-M11

+5V

F107

INPUT POWER

1n0

1n0

2374

1n0

2372

2375

AUDIO AMPLIFIER

I120

I129

1n0

1n0

2382

2384

E_14780_113.eps

20

20

PIP MOD

B5B-EH-A

PIP MOD

B4B-EH-A

PIP MOD

B10B-EH-A

4V0

B12B-EH-A

1n0

B8B-EH-A

1n0

20

20

1200

1207

1201

1403

1700

1
2
3
4
5

1
2
3
4

1
2
3
4
5
6
7
8
9
10

1
2
3
4
5
6
7
8
9
10
11
12

1
2
3
4
5
6
7
8

130704

A

A

B

B

C8C

D

D

E

E

F

F

G

G

H

H

I

I

J

J

K

K

L

L

M

M

N

N

O

O

P

P

1008 E14
1009 H14
1200 D20
1201 H20
1203 K2
1205-A G9
1205-B G10
1207 F20
1210-1 E2
1210-2 E3
1214 E18
1215 N10
1216 N9
1217 N6
1218 N7
1220-1 B9
1220-2 B9
1244 N13
1245 D17
1303 M7
1305 M18
1312 M15
1313 H16
1314 J16
1335 B15
1337 D16
1344 B19
1402 M8
1403 J20
1680 M10
1681 M11
1683 M13
1700 M20
2101 J6
2102 K3
2103 M4
2104 M3
2105 O3
2108 J15
2109 J15
2110 J14
2111 J14
2112 I15
2113 K14
2114 I15
2115 K14
2116 J6
2123 G6
2124 I6
2125 N17
2126 N17
2127 N17
2128 C3
2129 N17
2130 J4
2351 E4
2352 E4
2353 F4
2354 D14
2355 D14
2356 D14
2357 D14
2358 D15
2359 D15
2360 C19
2361 C18
2362 C17
2363 C17
2364 G18
2365 G17
2366 G17
2367 G17
2368 G16
2369 G16
2370 I16
2371 I16
2372 L19
2374 L19
2375 L19
2376 L19
2377 L18
2378 L18
2379 L16
2380 L16
2381 L15
2382 N19
2383 N19
2384 N19
2385 N15
2386 N14
2387 N14
2388 N14
3101 I6
3103 C2
3104 C2
3105 C3
3106 J4
3107 J4
3108 N4
3109 O4
3110 L4
3111 L3
3112 O4
3113 K9
3114 B18
3115 B18
3116 B18
3117 C18
3118 G18
3119 H18
3120 H17
3121 H17
3122 I5
4103 L4

4104 K4
4117 B19
4122 J8
4123 J11
4125 J9
4126 J10
5101 K4
5102 H15
5103 J16
5104 K15
5106 I6
5108 G6
5109 H6
5307 E4
5308 F4
5309 F4
6101 J3
6102 J3
6105 J15
6112 N3
6113 H19
6114 H18
7019 C2
7022 G19
7023 H18
7115 N3
7119 C3
9001 F17
9002 C4

Circuit Diagrams and PWB Layouts

EN 25EM8E 7.

LCoS System Board

3227
4K7

4K7

3240

1K0

I261

7001
BC847B

270R

3220
470R

13

13

2309

27p

2308

I231

27p

F112

I237

3330

100R

3339
100R
3328
100R

4K7

7025
BC847B

1K0

3209

1-G7

7005
BC857B

1K0

3214

13

149

1412

I224

12M

1600

DSX840GA

I236

3314

3315

100R

B-SC1_U-IN R-SC1_V-IN

21

F113

3333

20

33R

10
35

2213

100p

32
33

11

100R

15
16
17
18
19

1
12
23
34

I257

+9V

10R

3395

8u2

5317

16V22u

2219

1-F19,1-B6

14

2391

2209

7108

P89C668

XTAL1
XTAL2

RST
EA_|VPP
PSEN_
ALE

RXD
TXD
INT0_
INT1_
T0|CEX3
T1|CEX4
WR_
RD_

NC

100n

2u2

15

15

+5V

5301

4422

VCC

PORT3

VSS

3207

4131

3226

I260

10R

3218

15

2307

10u50V

2302

100n

AD0
AD1
AD2
AD3
AD4

PORT0PORT1PORT2

AD5
AD6
AD7

T2

T2EX

ECI
CEX0
CEX1
CEX2

SCL
SDA

A8

A9
A10
A11
A12
A13
A14
A15

3212

100K

39K

3224

16

16

I213

I229

43

I232

42

I234

41
40
39
38
37
36

2
313
414
5
6
7
8
9

24

A

2-B7

25

B

2-B7

26

C

2-B7

27
28
29
30
31

SCL-GDE

SDA-GDE

I255
I256

1K0

3213

I259

7003
BC847B

3225

100R

3216

330R

16

16 17

3306

3309
100R

2215

1K0

7007
BC857B

1K0

1n0

17

17

4K7

4K7

3307

3319

3320

4K7

4K7

4-G15,3-M9,1-I17,1-H4,1-L5,1-O11,1-I7,#2

3308
100R

3228

1K0

3233

100R

4129

6201

PDZ6.8-B

6202

PDZ6.8-B

1-H4,2-C20
1-H4,2-B20

1-G8

1-F19,1-B12

17 18149

18

+5V

5315

2390
100n

I230

3-K19
3-K19
3-M19
3-L19

4-G15,3-L9,1-G18,1-H4,1-L5,1-O11,#3

1204

SKQNAB

2303

100n

7

WC

6

SCL

5

2208

I264

2u2

I233

3-C8

EEPROM

4132

3322

7008
BC847B

S_DATA_OUT
SHIFT_CLK
ADC_SEL
S_DATA_IN

SCL-EMG

SDA-EMG

POL_FAN_FAULT

+5V

5316

7107
M24C32-WMN6T

8

?

(4Kx8)

ADR

4

3204

10R

4K7

3323

0
1
2SDA

3206

100K

27K

3221

18

19

19

4K7

3311
100R

3316
100R

7009
BC847B

1
2
3

3210

3222

1K0

I262

7002
BC847B

150R

3223
180R

+5V

4K7

3321

1K0

3211

7006
BC857B

1K0

3215

19

1-H4,2-I17

SDA-GDE

1-H4,2-I17

SCL-GDE

PROGRAMMING

1241

B7B-EH-A

1-G11

G-SC1_Y-IN

E_14780_114.eps

20

2015

203

1
2
3
4
5
6
7

ENABLE
TXD

RXD
RST

130704

1

A

A

B

B

2-C5,2-G5,2-L10

CLK

I2S_DATA_OUT

C

C

D

D

E

E

F

F

G

G

H

H

I

I

J

J

K

K

L

L L

M

M

N N

N

O

O

1-M12

21

LCoS SYSTEM BOARD (2 OF 4)

1
11

2
3
4
5
6
7
8
9

CY7C199-15ZC

19
18
17
16
15
13
12

11

2202

100n

3135 033 3299.6

1

2

2

7104

74HCT573

7103

A,1D

A

2201

9

15
1
2
3
4
5
6
7

EN
C1

1D

32kx8

3 183

+5VD

2203

100n

20

19
18
17
16
15
14
13
12

10

14

20

G2

27

2C1

22

2EN

10

14

9

13

8

12

7

11

6

10

5

9

4

8

32k-1

3

A

7

0

2

6

1

5

26

4

25

3

24

2

23

1

21

0

RAM

28

+5VD

+5VD

7101

100n

TC74HC590AF

16

EN3

C2

CTR8

G1

(CT=255)Z4

4

1+

CT=0

2D3

8

3

4 2010

4

2-C5,2-C1,2-L10

I239
I241

I242
I243
I244

I248

I253
I254

14
13

12
11
10

+5VD

I266

4

4

5

2-C1,2-G5,2-L10

CLK

5125

100R

95

F111

3232

3230

1-M12

3244

4K7

3389

4K7

2217

3202

3231
1K0

3K9

2210

2216
82p

82p

1K0

6

6

+5VD

2204

100n

7105

20

74HCT573

1

EN

11

C1

2

1D

3
4
5
6
7
8
9

10

+5V

5302

50V10u

2211

CLK

100n

2206

9

4

15
1
2
3

4110

4

4111

5

4112

6

4113

7

4115

4114

6

6

19
18
17
16
15
14
13
12

+5VD

16

(CT=255)Z4

2D3

I217

2212

7102

TC74HC590AF

CTR8

8

100n

CT=0

EN3

C2

A
B
C

G1

1+

7

7

2-F16

2-G16

2-G16

+5VD

PWRFAIL_STDBY

14
13

12
11
10

71

7

11
10
9

7
4

3
2
1
15
14
13
12

PWR_FAIL

F110

+5VD

0

G

1
2

EN
0

1
2
3
4
5
6
7

+5VD

16

MUX

0
7

8

4-F5,1-M17,1-N13

4-E5,1-N13,1-M17

7004

BC847B

8

8

2205

100n

7106

CD74ACT151M96

5
6

+5VD

3201

470R

22R

3229

8

8

I2S_DATA_IN

1202

SKQNAB

1n0

3388

2-C5,2-C1,2-G5

1-M12

10

PWM_DRIVE

SYS_TACH

SYS_FAN_FAULT

AUDIO_FAULT

2218

100n

I258

7016
BC847B

4K7

CLK

I2S_CLK

Pb YPr

10

11

112

+5V

I R

1243

3235

680R

1K2

3237

2K2

3243

1-F19,1-B12

B3B-EH-A

3234
100R

6304

3238
220K

1
2
3

3-H6

3-I2
3-G6
1-M17

3

I250

R

3236

7109

TL431BCLP

1

K

A
2

2207

2u2

560R

10K

3334

3390

3332

100n

2214

6305

BAS316BAS316

3239

100K

4130

3203

I263

10R

11 1913

4K7

3331

4K7

7010
BC847B

4128

+5V

6306

BAS316

7024
BC857B

22K

3241

22K

3242

3205

3208

100K

39K

3217

3219

12

A

A

B

B

C

C

D

D

E

E

F

F

G

G

H

H

I

I

J

J

K

K

L

M

M

N

O

O

1202 I10
1204 G17
1241 I20
1243 D11
1600 C13
2201 L2
2202 I2
2203 B3
2204 B6
2205 B8
2206 L6
2207 M11
2208 M17
2209 M14
2210 M9
2211 G6
2212 G6
2213 D14
2214 G11
2215 H16
2216 M9
2217 K9
2218 G10
2219 L14
2302 C15
2303 H17
2307 B15
2308 C13
2309 C13
2390 B17
2391 L14
3201 L8
3202 L9
3203 M11
3204 M18
3205 L12
3206 L18
3207 L15
3208 L12
3209 L13
3210 L18
3211 L19
3212 L15
3213 L16
3214 N13
3215 N19
3216 N16
3217 N12
3218 N15
3219 N12
3220 M12
3221 N18
3222 N18
3223 M18
3224 N15
3225 M16
3226 M15
3227 D12
3228 G17
3229 M8
3230 M8
3231 L9
3232 C8
3233 G17
3234 G10
3235 G10
3236 G11
3237 H10
3238 H10
3239 H11
3240 H12
3241 I12
3242 I12
3243 I10
3244 J9
3306 C16
3307 C17
3308 F16
3309 F16
3311 C19
3314 E13
3315 F13
3316 C19
3319 C16
3320 C17
3321 J19
3322 B18
3323 B18
3328 F13
3330 E13
3331 D12
3332 E11
3333 C13
3334 D11
3339 F13
3388 K9
3389 J9
3390 D11
3395 K14
4110 N6
4111 N6
4112 N6
4113 O5
4114 O5
4115 O6
4128 F12
4129 G17
4130 M11
4131 M14
4132 M17

5301 B15
5302 F6
5315 B18
5316 H17
5317 L14
6201 H16
6202 H16
6304 G10
6305 G11
6306 G12
7001 M12
7002 M18
7003 M16
7004 L8
7005 M13
7006 M19
7007 M16
7008 C18
7009 C19
7010 E12
7016 J10
7024 H12
7025 I13
7101 L3
7102 L7
7103 E3
7104 B3
7105 B6
7106 B8
7107 H18
7108 C14
7109 I11

LCoS System Board

1

1

A

A

A

B8B

C

C

C

D

D

E

E

E

F

F

F

G

G

G

H

H

H

I

I

I

J

J

J

K

K

K

LDL

L

M

MBM

N

N

N

O

O

O

3135 033 3299.6

1

1

1

23

LCoS_SYSTEM_BOARD (3 OF 4)

2324

+5V

100n

3347
1M0

I292

50V1u0

BC857B

2325

2-F11

SYS_TACH

HEADPHONE-L

1-J7

L-SC1_AV1-IN

1-I12,1-D10

HEADPHONE-R

1-J12

R-SC1_AV1-IN

1-J12,1-D12

2

Circuit Diagrams and PWB Layouts

5

5

3342

1M0

I290

BC857B

7017

100n

7116

2106
100n

6110

INPUT

SELECTOR

SUPPLY

VS

16

2316

5

BAS316

F129

F128

AGND

715

F118

16V100u

AUDIO_GND

543

5

3346

6111

7118

NE555D

COMP

5

U
AU

6

X

2

Y

4

R1

3357

I291

1K0

100K

2-F11

BAS316

1

RECL

VOLUME+

LOUDNESS

SERIAL BUS DECODER

CREF

RECR

10

16V22u

2317

6

+5V +5V

8

RX>U

U

Y<

S

2

3

1

7

1

1

SYS_FAN_FAULT

2-F11

PWM_DRIVE

SYS_FAN_TACH

2319
100n

19

LOUDL

+ LATCHES

SOFT

MUTE

VOLUME+

LOUDNESS

LOUDR

12

100n

2318

6

62

7

7

10K

3358

2117

100n

4121

+5V

4K7

3350

F127

OUTL 2

MUTE

SDA

MUTE

7

7

3351
100K

3359

6103

100K

BAS316

F132

2-G18

F133

2120
100n

6104

BAS316

5312

F126

7011
BC847B

F114

6DGND
4
5SCL
8ADDR
3CSM

9OUTR

4-G15,2-F18,1-G18,1-H4,1-L5,1-O11,#3

3305

100R

3329
100R

4-G15,2-F18,1-I17,1-H4,1-L5,1-O11,#3

2331

22n

F115

4101
4102

8

8

3

3

+5V

7111

NE555D

8

COMP

5

U
AU

6

Y<

X

2

Y

4

R1

1

3349

I297

7015

1K0

4108

3302

560R

AUDIO_GND

3303

2313

4u7 35V

3301

560R

3304

560R

AUDIO_GND

4109

4116

4118

3

4

41

4

+5V

2107

1u0 50V

10K

2323

3348

RX>U

U

S

2

3

1

7

1

+12V

10K

3345

2322

I303

100n

2312

2314

35V4u7

2315

4u7

560R

TDA7309D-TR

35V4u7

17 IN1L
18 IN2L
20 IN3L

14 IN1R
13 IN2R
11 IN3R

35V

5305

+9V

2u2

4

4

POL_FAN_FAULT

+12V

10K

3360

5311

I296

2121

100n

2122

+12V

10K

3352

3353

3K3

7012
BC847B

2336
470n

SDA-EMG
SCL-EMG

2338
470n

9

9

LIGHTENGINE

1252

BM06B-SRSS-TBT

1
2
3
4
5
6

100n

78

10K

3354

AUDIO_GND

3313
10K

3335
10K

9

9

3355

3356

220R

7013
BC857B

F125

1K2

EN 26EM8E 7.

1210

2326

8

VSS
4

F123

25V220u

2389

16V 100u

2345
100n

+12V

6108

6109

OUTA

OUTB

12

L-RGB

L-Y1
L-Y2
L-D1
L-D2

L-MSB

5304

2301

100n

BAS316

5303

100n

2306

BAS316

1

16V 100u

7

12

12

12 13

11

11

10

10

100n

2321

6302

7014
STD3NK60Z

3312

3K3

2343

100u 16V

10 1413

10

11

BAS316

5313

5310

F124

8u2

330u

+5V

3317
3K3

3318

68K

2344
100p

7117

TDA1308

2

3

6

5

INA_NEG

INA_POS

INB_NEG

INB_POS

2396
100p

VDD

3336

68K

1111 15

18

14

14

3376

10K

3382

1-B17

6n8

AUDIO_GND

1-B17

6n8

AUDIO_GND

10K

3374

HP_OUT_L

HP_OUT_R

149

+9V

2330
4u7
2332

2333

4u7
2334

4u7
2335

4u7

4u7

10K

14118

138613

1312

1-G4

1-D6

1-D6

1-F1
1-G1

10K

3381

10K

3380

1-D8

1251

B3B-EH-A

1
2

SYSTEM FAN

3

F116

2392

10K

2393

3338

F117

2394

100u16V

10K

3337

2395

13

5306

I271

I275
I278
I281
I282

15 1716

15

15

100n

2328

22

NC321NC4
NC

L1
L2
L3
L4
L5
L6

LOUT3

16

THERMAL SENSOR

THERMAL SENSOR

8

LOUT2

14

22u

NC17NC2

1262

B3B-PH-K

1
2
3

1261

B4B-PH-K

1
2
3
4

LOUT1

12

2327

4
5
6
9
10
11

15

15 16

16

16

16

16

17

17

I270

22u

2329

3

2

1

GND

SUPPLY

DECODER

ADDR

26

CAP

BUS

SCL27SDA

+5V

7113

TEA6422

VS

ROUT3

15

17

28

F119

3365
100R

F120

3366
100R

6106

6107

BAS316

3340
100R

3341
100R

3343

3344

100K

17

17

18 19 20

18

2337

I272

R1

25

R2

24

R3

23

R4

20

R5

19

R6

18

ROUT113ROUT2

+5V +3V3

BSN20

10K

3392

+5V

10K

3102

2320

BAS316

100K

7121

312

7120
BSN20

3

100n

4u735V

2339

I276

4u735V

I277

2341

I279

4u735V

I280

3393

+3V3

1

3391

2

7110

8TLC0832CD

1

CLK

CS_

VCC|REF

2

CH0

3

CH1

GND

4

18

18

1814

19

19

2340

35V 4u7

2119

35V 4u7

10K

3377

10K

10K

3383

3379

10K

10K

2-E18

7

SHIFT_CLK

2-E18

6

DO

DI

S_DATA_OUT

2-E18

5

S_DATA_IN

2-E18

ADC_SEL

1917

19519

1-G4

1-D8
1-D8

1-F1

1-G1

10K

3384

10K

3385

1-D6

1-G1

1-G1

E_14780_115.eps

20

20

R-RGB

R-Y1
R-Y2

R-D1
R-D2

R-MSB

SDA-PW

SCL-PW

20

20

20

130704

A

A

A

B

B

B

C

C

C

D

D

D

E

E

E

F

F

F

G

G

G

H

H

H

II

I

J

J

J

KK

K

L

L

L

M

M

M

N

N

N

O

O

O

1251 G13
1252 D9
1261 L16
1262 J16
2106 C5
2107 D4
2117 B7
2119 D18
2120 D8
2121 E8
2122 E9
2301 G12
2306 H12
2312 K4
2313 K3
2314 L3
2315 M4
2316 N5
2317 N5
2318 N6
2319 J6
2320 K17
2321 G10
2322 I4
2323 F4
2324 G2
2325 H2
2326 H11
2327 B15
2328 B15
2329 B16
2330 C14
2331 M8
2332 D14
2333 D14
2334 D14
2335 D14
2336 K9
2337 C18
2338 M9
2339 D18
2340 D18
2341 D18
2343 K10
2344 K10
2345 K11
2389 K11
2392 L12
2393 M13
2394 M12
2395 N13
2396 N10
3102 H17
3301 L3
3302 L3
3303 M3
3304 M3
3305 L8
3312 K10
3313 K9
3317 K10
3318 K11
3329 L8
3335 M9
3336 N11
3337 N13
3338 M13
3340 K16
3341 L16
3342 C4
3343 L17
3344 L17
3345 I4
3346 F5
3347 G2
3348 F4
3349 H3
3350 H7
3351 H7
3352 G8
3353 H9
3354 G9
3355 G9
3356 I9
3357 D5
3358 B7
3359 B8
3360 D8
3365 G17
3366 H17
3374 E13
3376 E13
3377 E19
3379 E18
3380 E13
3381 E13
3382 E13
3383 E19
3384 E19
3385 E19
3391 H18
3392 G17
3393 G18
4101 O8
4102 O8
4108 K2
4109 K2
4116 L2
4118 M2

4121 C7
5303 H12
5304 G12
5305 N4
5306 B14
5310 H10
5311 D9
5312 E8
5313 H11
6103 B7
6104 E8
6106 K17
6107 K17
6108 G11
6109 H11
6110 F5
6111 H5
6302 G10
7011 H8
7012 H8
7013 H9
7014 H10
7015 H2
7017 D5
7110 K18
7111 F3
7113 C17
7116 K5
7117 L11
7118 B6
7120 G17
7121 F17

LCoS System Board

1

A

B

C

D

E

F

G

H

I

J

K

Circuit Diagrams and PWB Layouts

2 14

3

54

76

EN 27EM8E 7.

9

10 11

13128

LCoS SYSTEM BOARD (4 OF 4)

VACATION_SW

1-C17,1-B2,1-E16,1-K18

THERMO_CUTOFF

DOOR_INTERLOCK

PWR_FAIL

PWRFAIL_STDBY

LAMP_FAULT

F130

1-K18

F131

1-K18

2-J8,1-N13,1-M17

2-J8,1-M17,1-N13

1-F16

BC847B

4127

3362

100R

3373

100R

7021

5107

5110

5111

5112

5113

+5V_STDBY

3372

3375

3378

2342

2347

2348

F141

2K2

15K

39K

470p

470p

470p

3371

6301

3325

3310

3324

2349

2350

2K2

2K2

2K2

470p

470p

10K

BC847B

BAS316

7020

3394

1K0

3396

1K0

3370

56K

6300

BAS316

VAC_SW
TH_CUT
D_SW
PWR_F
PWR_S

AUDIO-L

CENTER-IN

AUDIO-R

1-K7

1-C8

1-K11

I288
I283
I284
I287
I289

4
5
6
7

9
10
11
12

3400
150R

4119

4120

+5V_STDBY

10K

F122

7114

PCF8574T

13

INT_

A0
A1

A2
SCL
SDA

VDD

VSS

+9V

7112

16

VDD

MDX

G4
1

2
4X1
4X2

VEE VSS

78

AUDIO_GND

1
2
3
14
15

16

8

2346
100n

14

15

4

AUDIO_GND

2118
100n

3404

3411

22K

56K

+9V

3405

3412

22K

56K

AUDIO_GND

SHIFT

REGISTER

22K

3402

56K

3409

INTERRUPT

22K

3403

56K

3410

LOGIC

BUS C2I

CONTROL

22K

56K

POWER-ON

RESET

AUDIO_GND

INPUT

FILTER

74HC4053D

6
12

13
11

2
1
10

5
3
9

LP FILTER

P0
P1
P2
P3

I/O

I136

2403

PORTS

10u 16V

10u 16V

10u 16V

22n

BIT 8

+9V

3401

2400

2401

3408

P4
P5
P6
P7

I293
I294
I295

2404

220u 16V

3369

4107

3406

7027
BC847B

3415

3417

10K

10R

75R

75R

3368

4106

2405

3361

4124

4K7

10K

10K

3367

4105

3-L9,2-F18,1-G18,1-H4,1-L5,1-O11,#3

+9V

10R

3407

220u 16V

7026
BC847B

75R

3416

75R

3418

3364

3363

3-M9,2-F18,1-I17,1-H4,1-L5,1-O11,1-I7,#2

2406

100u

16V

2407

100u16V2402

4K7

7018
BC847B

AUDIO_GND

F121

3413
100R

3414
100R

3326

2408

10K

1-I11

22n

INT-EMG

SCL-EMG
SDA-EMG

22n

2409

1-M19

1-N19

2118 F10
2342 B4
2346 H9
2347 C4

A

2348 D4
2349 E4
2350 F4
2400 I7
2401 I7
2402 J7
2403 J7

B

2404 H10
2405 H11
2406 I12
2407 J12
2408 J12
2409 J13
3310 C4

C

3324 D4
3325 B4
3326 E12
3361 C11
3362 B3
3363 D11
3364 D12

D

3367 D11
3368 D11
3369 D11
3370 F4
3371 G4
3372 G4
3373 D3

E

3375 G4
3378 H4
3394 E4
3396 E4
3400 I6
3401 I7
3402 I7
3403 I8

F

3404 I10
3405 I10
3406 H11
3407 H11
3408 J7
3409 J7
3410 J8

G

3411 J10
3412 J10
3413 I12
3414 J12
3415 J11
3416 J11
3417 J11

H

3418 J11
4105 E11
4106 E11
4107 E11
4119 H6
4120 J6
4124 D12
4127 H3

I

L

5107 B3
5110 C3
5111 D3
5112 E3

J

5113 E3
6300 F5
6301 H4
7018 E12

R

7020 G4
7021 H3
7026 I11
7027 I11
7112 H9
7114 D8

K

L

3135 033 3299.6

1

L

E_14780_116.eps

2

3

5

6

7

8

9

10

114

12 13

130704

14

Circuit Diagrams and PWB Layouts

Layout LCoS System Board (Top Side)

2306 B1

2210 B1

2127 F1

2114 F4

2101 A3

1312 G2

1217 B1

1008 B4
1009 B3
1200 E2
1201 D1
1202 B2
1203 A2
1204 F1
1205 A3
1207 D1
1210 D3
1214 G2
1215 B1
1216 A1

1218 B1
1220 E2
1241 C1
1243 C1
1244 F1
1245 G2
1251 B1
1252 B1
1261 C1
1262 C1
1303 B2
1305 G1

1313 G4
1314 G3
1335 G2
1337 F1
1344 F2
1402 E1
1403 G1
1600 C2
1680 E2
1681 E1
1683 B1
1700 G2

3135 033 3299.6

2102 B4
2103 B2
2104 B3
2105 B2
2106 C4
2107 C4
2108 F4
2109 G3
2110 F3
2111 G3
2112 G4
2113 G4

2115 F4
2116 F3
2117 C4
2118 E2
2119 E4
2120 B4
2121 B1
2122 B1
2123 A3
2124 A3
2125 F1
2126 F1

2128 F4
2129 F1
2130 A2
2201 C2
2202 C2
2203 B1
2204 C2
2205 C1
2206 B1
2207 D2
2208 D2
2209 D2

2211 C2
2212 C2
2213 C3
2214 B2
2215 C2
2216 B1
2217 B2
2218 B2
2219 D2
2301 B1
2302 C3
2303 C3

2307 C3
2308 C2
2309 C2
2312 E4
2313 E4
2314 E4
2315 D4
2316 E4
2317 D4
2318 D4
2319 E4
2320 C3

2321 C4
2322 C4
2323 C4
2324 C4
2325 C4
2326 B3
2327 D3
2328 D3
2329 D3
2330 D3
2331 E4
2332 D3
2333 E3

2334 E3
2335 E3
2336 E4
2337 D4
2338 E4
2339 E4
2340 D4
2341 E4
2342 F2
2343 C4
2344 C4
2345 D4
2346 F2

2347 F2
2348 F2
2349 F2
2350 F2
2351 C2
2352 C2
2353 D2
2354 G1
2355 E3
2356 E3
2357 E3
2358 G2
2359 E3

2360 F2
2361 F2
2362 F2
2363 F2
2364 G3
2365 G3
2366 G2
2367 G2
2368 G2
2369 G2
2370 G4
2371 G4
2372 G1

2374 G1
2375 G1
2376 G1
2377 G1
2378 G1
2379 G3
2380 G3
2381 G4
2382 G2
2383 G2
2384 G2
2385 G3
2386 G3

2387 G3
2388 G2
2389 C4
2390 C3
2391 D2
2392 C4
2393 D4
2394 C4
2395 C4
2396 C4
2400 F2
2401 E2
2402 F3

2403 E3
2404 F4
2405 F4
2406 F3
2407 F3
2408 F3
2409 F4
3101 F3
3102 D3
3103 F3
3104 F4
3105 F4
3106 B3

E_14780_117.eps

3107 B3
3108 B2
3109 B2
3110 A3
3111 A2
3112 B2
3113 A4
3114 F2
3115 F2
3116 F2
3117 F2
3118 D2
3119 D2

130704

3120 D2
3121 D2
3122 F3
3201 B1
3202 B1
3203 D2
3204 D2
3205 D2
3206 D2
3207 D2
3208 D2
3209 D2
3210 D2

3211 D2
3212 D3
3213 D3
3214 D2
3215 D2
3216 D3
3217 D2
3218 D2
3219 D2
3220 D2
3221 D2
3222 D2
3223 D2
3224 D2
3225 D3
3226 D3
3227 C3
3228 C2
3229 B1
3230 B1
3231 B1
3232 C2
3233 C2
3234 B2
3235 B2
3236 B2
3237 B2
3238 B2
3239 B2
3240 B2
3241 B3
3242 C3
3243 B2
3244 F2
3301 E4
3302 D4
3303 E4
3304 D4
3305 E4
3306 C3
3307 C3
3308 C3
3309 C3
3310 F2
3311 C3
3312 D4
3313 C4
3314 C3
3315 C2
3316 C3
3317 D4
3318 C4
3319 C3
3320 C3
3321 C3
3322 C3
3323 C3
3324 F2
3325 F2
3326 F2
3328 C2
3329 E4
3330 C2
3331 C2
3332 C3
3333 C2
3334 C3
3335 C4
3336 C4
3337 C4
3338 D4
3339 C2
3340 C3
3341 C3
3342 C4
3343 C3
3344 C3
3345 C4
3346 C4
3347 C4
3348 C4
3349 C4
3350 C4
3351 C4
3352 C4
3353 C4
3354 C4
3355 C4
3356 C4
3357 B4
3358 C4
3359 C4
3360 B4
3361 F2
3362 F2
3363 F2
3364 E2
3365 D3
3366 D3
3367 E2
3368 E2
3369 E2
3370 F3
3371 F3
3372 F3
3373 F2
3374 D3
3375 F3
3376 D3
3377 D4
3378 F3
3379 D4
3380 E3
3381 E3
3382 E3
3383 E4
3384 E4
3385 E4
3388 B2
3389 F2
3390 C2
3391 D3
3392 D3

3393 D3
3394 F2
3395 D2
3396 F2
3400 E2
3401 F3
3402 F3
3403 F3
3404 F2
3405 F3
3406 F3
3407 F3
3408 F4
3409 F3
3410 F3
3411 F2
3412 F3
3413 F3
3414 F3
3415 F3
3416 F3
3417 F3
3418 F4
4101 E4
4102 D4
4103 B3
4104 B3
4105 E2
4106 E2
4107 E2
4108 D4
4109 E4
4110 B2
4111 B2
4112 B2
4113 B2
4114 B2
4115 B2
4116 E4
4117 F2
4118 D4
4119 F2
4120 F3
4121 B4
4122 F2
4123 F2
4124 F2
4125 F3
4126 F3
4127 F3
4128 C4
4129 C4
4130 D2
4131 D2
4132 D2
5101 B3
5102 G4
5103 G3
5104 G4
5106 F3
5107 F2
5108 A3
5109 A4
5110 F2
5111 F2
5112 F2
5113 F2
5301 C3
5302 C1
5303 B1
5304 B1
5305 E4
5306 D3
5307 C2
5308 C2
5309 D2
5310 C4
5311 B1
5312 B1
5313 B3
5315 C3
5316 C3
5317 D2
6101 B3
6102 B3
6103 C4
6104 B4
6105 G3
6106 C3
6107 C3
6108 B3
6109 B3
6110 C4
6111 C4
6112 A2
6113 E2
6114 E2
6201 C2
6202 C2
6300 F3
6301 F3
6302 B4
6304 B2
6305 B2
6306 B2
7001 D2
7002 D2
7003 D3
7004 B1
7005 D2
7006 D2
7007 D3
7008 C4
7009 C3
7010 C2
7011 C4
7012 C4
7013 C4
7014 C4
7015 C4
7016 B2
7017 B4
7018 F2

EN 28EM8E 7.

7019 F4
7020 F3
7021 F3
7022 E2
7023 E2
7024 B2
7025 C3
7026 F3
7027 F3
7101 C2
7102 B2
7103 C2
7104 C1
7105 C1
7106 C1
7107 C3
7108 C3
7109 B2
7110 C3
7111 C4
7112 F2
7113 E3
7114 F2
7115 B2
7116 E4
7117 C4
7118 B4
7119 F4
7120 D3
7121 D3
9001 F3
9002 F4

 

E_06532_012.eps

130204

LED Sensor Panel

L S

L S

Circuit Diagrams and PWB Layouts

EN 29EM8E 7.

LS

A

B

C

D

E

F

G

21

3

LED SENSOR PANEL

ON_OFF_LED

1-B8

3001
150R

6003

VS

OUT

GND

TSOP2136UH1

6000-1

TLUV5300

ORANGE-RED

12

I012

2003

2

I013

1

3

10V100u

6000-2

TLUV5300

GREEN

6K8

3008

10K

3013

32

3006
330R

3002
470R

I011

+5V_STDBY

54

3007

1-B8

1K5

BC847B

RC5

7001

3003

1K2

6

+9V

3004

10K

3005

15K

+9V

1-C8

STANDBY

50V10u

2001

7

2002

6004

ON_OFF_LED

LIGHT_SENSOR

STANDBY

470n

3009

I015

BPW46

1M5

I016

3014

RC5

1M5

1-C3

1-F5

1-F11
1-C7

+9V

+5V_STDBY

8

7000-1
LM358DR2

4

F001

F004

I017

F006

F002

F003

F005

1201

S4B-EH

I020

3016

F007

1

+9V

2

KEYBOARD

3

GND KEYBOARD

4

+5V_STDBY

3010

10K

2004

470n
3011

3K3

1K0

1214

S10B-EH

8

7000-2
LM358DR2

4

+5V STANDBY

1

KEYBOARD

2

SGND

3

LAMP FAULT

4

ON/OFF LED

5

STANDBY

6

RC5

7

LIGHT SENSOR

8
9

+9V

10

I019

3012

4K7

3017

1-C8

3K3

111098

LIGHT_SENSOR

1312

LS

A

B

C

D

E

F

G

1201 D9
1214 B10
2001 E7
2002 F7
2003 F4
2004 F9
3001 C3
3002 F5
3003 C6
3004 D6
3005 C6
3006 E5
3007 C5
3008 F4
3009 F7
3010 E9
3011 F9
3012 F10
3013 F4
3014 G8
3015 G9
3016 G9
3017 G11
6000-1 C4
6000-2 C4
6003 F3
6004 G7
7000-1 F8
7000-2 F10
7001 C6
F001 A9
F002 A9
F003 B9
F004 B9
F005 B9
F006 C9
F007 B9
I011 C5
I012 E4
I013 F4
I015 F7
I016 F8
I017 F9
I019 F10
I020 F9

H

I

J

3135 033 3315.4

1

NOTES

1. CAPACITANCE VALUES ARE IN FARADS:
m=MILI u=MICRO n=NANO p=PICO f=FEMTO

2. RESISTANCE VALUES ARE IN OHMS:
R=OHM K=KILO M=MEGA G=GIGA T=TERA

3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.

4. FOR VALUE SEE TABLE.

*

5432

H

I

J

E_14780_096.eps

130704

6

7

98

1110

12

13

Circuit Diagrams and PWB Layouts

Layout LED Sensor Panel (Top Side)

1201 A1 1214 A2 2001 A1 2003 A2 6000 A2 6003 A2 6004 A1

EN 30EM8E 7.

 

3135 033 3315.4

Layout LED Sensor Panel (Bottom Side)

2002 A2
2004 A2
3001 A1

3002 A2
3003 A1
3004 A1

3005 A1
3006 A1
3007 A1

3008 A1
3009 A2
3010 A2

3011 A2
3012 A2
3013 A1

3014 A2
3016 A2
3017 A1

4002 A1
4003 A1
4004 A2

4005 A1
7000 A2
7001 A1

E_14780_098 .eps

130704

3135 033 3315.4

E_14780_099 .eps

130704

E_06532_012.eps

130204

LCoS Side Jack Panel

Circuit Diagrams and PWB Layouts

EN 31EM8E 7.

D

G

G

A

A

B

B

CC

D

E

E

1 11 12

21

23

3

4 56

7

8

98

109

11

12

1310

13

LCoS SIDE JACK PANEL

A

A

B

B

1302-1

YELLOW

2

1

YKC21-5834

F017

11

2

4

3

1

TCS7959-14-201

1301

F019

F

F

1302-2
WHITE

5
6
4

YKC21-5834

1302-3

RED

7
9
8

YKC21-5834

F016

F018

6003

BZX284-C6V8

6004

87

65

10 9

F020

F014

BZX284-C6V8

F015

3107

6001

6002

5001

270n

75R

BZX284-C6V8

3106

BZX284-C6V8

2107

75R

680p

5002

270n

3117

F003

F004

F005

3115

100R

F013

3120

2111

680p

10R

3121

10R

3122

F007

3123

10R

3124

10n

10K

2112

2113

680p

10R

10K

3125

2114

F008

10n

6009

6010

6011

BZX284-C6V8

6012

BZX284-C6V8

BZX284-C6V8

BZX284-C6V8

F010

1303

5
4

F012

2

F011

3
7
8

3116

1K0

47K

2108

100p

3118

1K0

YKB21-5101A

1

F001

F002

Y-FRONT-IN

C-FRONT-IN

L-FRONT-IN
FRONT-DETECT
R-FRONT-IN

F006

HP_OUT_L

HP_OUT_R

+5VSTBY

VACATION-SW

1300

14

25

36

SPUL

F009

2115

100n

1335

B11B-EH-A

1337
106957

1

2

1344

B5B-EH-A

TO SYSTEM BOARD

1
2
3
4
5
6
7
8
9
10
11

TO SYSTEM BOARD

TO SYSTEM BOARD

1
2
3
4
5

C

C

DD

E

E

F

F

G

G

H

H

I

I

J

J

3135 033 3311.5

1

H

130704

H

I

I

J

J

6005

6007

BZX284-C6V8BZX284-C6V8

BZX284-C6V8

6006

6008

BZX284-C6V8

2

3 9105

2109

680p

3119

2110

100p

NOTES

1. CAPACITANCE VALUES ARE IN FARADS:
m=MILI u=MICRO n=NANO p=PICO f=FEMTO

2. RESISTANCE VALUES ARE IN OHMS:
R=OHM K=KILO M=MEGA G=GIGA T=TERA

3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.

4. FOR VALUE SEE TABLE.

*

6

7

E_14780_104.eps

8

8

912

10

11456

11

12231

13

13

47K

Circuit Diagrams and PWB Layouts

EN 32EM8E 7.

Layout LCoS Side Jack Panel (Top Side)

1300 C1
1301 A1
1302 B1
1303 C1
1335 A1
1337 B1
1344 C1

Layout LCoS Side Jack Panel (Bottom Side)

2107 B1
2108 A1
2109 B1
2110 B1
2111 C1
2112 C1
2113 B1
2114 B1
2115 C1
3106 A1
3107 A1
3115 A1
3116 B1
3117 B1
3118 B1
3119 B1
3120 C1
3121 C1
3122 C1
3123 B1
3124 B1
3125 B1
4001 A1
4002 A1
5001 A1
5002 A1
6001 A1
6002 A1
6003 A1
6004 A1
6005 B1
6006 A1
6007 B1
6008 B1
6009 C1
6010 C1
6011 C1
6012 C1

3135 033 3311.5

E_14780_105.eps

130704

3135 033 3311.5

E_14780_106.eps

130704

Circuit Diagrams and PWB Layouts

LCoS LED / Keyboard Panel

EN 33EM8E 7.

A

B

C

D

LCoS LED / KEYBOARD

3007

2K4

F203

I010

6001

I007

3009

910R

F204

BZX284-C6V8

+9V

KEYBOARD

SGND

+5V_STDBY

1201

S4B-EH

3011
120R

F202

1
2
3
4

F200

F201

F205

7000
BC847B

1203

LED-HOLDER

1

2

6003

TLHB5400

3010
160R

3001

390R

5

6321 104

7

NOTES

1. CAPACITANCE VALUES ARE IN FARADS:
m=MILI u=MICRO n=NANO p=PICO f=FEMTO

2. RESISTANCE VALUES ARE IN OHMS:
R=OHM K=KILO M=MEGA G=GIGA T=TERA

3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.

4. FOR VALUE SEE TABLE.

8

9

*

3002

200R

I002I001 I004I003 I005 I006

3003

620R

3004

1K1

4000

3006

2K0

A

B

C

D

1001 D5
1002 D5
1003 D6
1004 D7
1005 D8
1006 D9
1201 C2
1202 E2
1203 A5
3001 D5
3002 D5
3003 D6
3004 D7
3006 D9
3007 B3
3009 C4
3010 C5
3011 B3
4000 D8
6001 D4
6002 D4
6003 B5
7000 B4
F200 D2
F201 C3
F202 C3
F203 B4
F204 C4
F205 C3
I001 D5
I002 D5
I003 D6
I004 D7
I005 D8
I006 D9
I007 D4
I010 B4

E

3135 033 3313.2

1 9

1202

1
2

106957

2

6002

BZX284-C6V8

1001

SKQNAB

1002

SKQNAB

1003

SKQNAB

543 10

7

1004

SKQNAB

1005

SKQNAB

86

1006

SKQNAB

E

E_14780_100.eps

130704

Circuit Diagrams and PWB Layouts

Layout LCoS LED / Keyboard Panel (Top Side)

1001 A4
1002 A4

3135 033 3313.2

1003 A1
1004 A1

1005 A3
1006 A3

1201 A1
1202 A1

1203 A3
6003 A3

EN 34EM8E 7.

E_14780_102.eps

130704

 

Layout LCoS LED / Keyboard Panel (Bottom Side)

3001 A1
3002 A1

3135 033 3313.2

3003 A4
3004 A4

3006 A2
3007 A3

3009 A3
3010 A3

3011 A3
4000 A2

6001 A2
6002 A2

7000 A3

E_14780_103.eps

130704

E_06532_012.eps

130204

LCoS MSB: OSD Insertion

12345

A

B

C

D

E

F

SCL_GDE

SDA_GDE

SDA_SCALER

G

SCL_SCALER

H

I

2110

2111

22p

22p

22p

22p

2114

2113

Circuit Diagrams and PWB Layouts

OSD INSERTION

+3V3

5107

100MHZ

2107

100n

3

VDD

SC0 5

SC1 8

SCL1 SD0 4

I2C

INP

-BUS

FIL

3117
100R

3118
100R

SD1 72 SDA

CTRL

VSS

6

SDA_SCALER_LOC

SCL_SCALER_LOC

SCL_SLOW

SDA_SLOW

2108

22p

2109

7107

PCA9540D

22p

4110

4111

3106

1101

1
2
3
4

B4B-EH-A

EN 35EM8E 7.

67

INIT_DONE
CLKUSR

D4

IO_1

F140
F141

F138

F139

F130

C3

IO_2

C2

IO_3

B1

IO_4

G5

IO_5

F4

IO_6

D3

IO_7

E4

IO_8

F5

IO_9

E3

IO_10

D2

IO_11

E2

IO_12

D1

IO_13

F3

IO_14

G3

IO_15

F2

IO_16

E1

IO_17

G2

IO_18

F1

IO_19

H5

IO_20

B15

IO_132

A15

IO_133

B14

IO_134

C13

IO_135

B13

IO_136

A13

IO_137

B12

IO_138

C12

IO_139

E12

IO_140

E11

IO_141

E9

IO_142

D12

IO_143

D11

IO_144

C11

IO_145

B11

IO_146

A11

IO_147

B10

IO_148

C10

IO_149

D10

IO_150

A9

IO_151

B9

IO_152

D9

IO_153

C9

IO_154

E10

IO_155

C8

IO_156

R2

IO_41

T2

IO_42

R3

IO_43

P4

IO_44

R4

IO_45

T4

IO_46

R5

IO_47

P5

IO_48

M5

IO_49

M6

IO_50

N5

IO_51

N6

IO_52

P6

IO_53

R6

IO_54

M7

IO_55

T6

IO_56

R7

IO_57

P7

IO_58

N7

IO_59

R8

IO_60

T8

IO_61

M8

IO_62

N8

IO_63

P8

IO_64

OTC_GREEN(3)

OTC_GREEN(2)
BLEND_FDB(3)
BLEND_FDB(1)
OTC_GREEN(7)
BLEND_FDB(0)
BLEND_FDB(2)
OTC_RED(2)
OTC_GREEN(5)
OTC_RED(0)
OTC_GREEN(6)
OTC_RED(5)
OTC_RED(7)
OTC_RED(3)
OTC_RED(1)
OTC_RED(6)
OTC_RED(4)

F103

39K

39K

3107

F104

3108

BLEND_FDB(4)

I108

V_LM1881

100R

F105

3109

I109

100R

TEST3

10K

3121

TEST4

TEST1

TEST2

22p

2121

F106

3110

VSYNC_PLL

V_TXT

HSYNC_PLL

H_TXT

F124

F123

10K

10K

3124

OSD_BLUE(6)
OSD_BLUE(7)

OSD_GREEN(0)
OSD_GREEN(1)
OSD_GREEN(2)
OSD_GREEN(4)
OSD_GREEN(3)

OSD_GREEN(5)
OSD_GREEN(6)

OSD_GREEN(7)
OSD_RED(1)
OSD_RED(0)

OSD_RED(3)
OSD_RED(4)

OSD_RED(2)

I110

3123

F121F122

10K

22p

3122

2122

89

7120-2

EP1C12F256C8

Φ

BANK 1

J1

IO_21

K2

IO_22

L3

IO_23

K1

IO_24

L1

IO_25

L2

IO_26

M1

IO_27

N1

IO_28

M2

IO_29

N2

IO_30

M3

IO_31

L5

IO_32

I117

M4

7120-3

EP1C12F256C8

Φ

BANK 2

7120-5

EP1C12F256C8

Φ

BANK 4

IO_33
IO_34
IO_35
IO_36
IO_37
IO_38
IO_39
IO_40

IO_157
IO_158
IO_159
IO_160
IO_161
IO_162
IO_163
IO_164
IO_165
IO_166
IO_167
IO_168
IO_169
IO_170
IO_171
IO_172
IO_173
IO_174
IO_175
IO_176
IO_177
IO_178
IO_179

DEV_OE

DEV_CLR

IO_65
IO_66
IO_67
IO_68
IO_69
IO_70
IO_71
IO_72
IO_73
IO_74
IO_75
IO_76
IO_77
IO_78
IO_79
IO_80
IO_81
IO_82
IO_83
IO_84
IO_85
IO_86
IO_87
IO_88

N3
K5
L4
R1
P2
P3
N4

D8
E8
A8
B8
D7
C7
B7
A6
E7
B6
C6
D6
D5
E6
E5
C5
B5
A4
B4
C4
B3
A2
B2

M10

R9

T9
P9
N9

R10
T11
N10
P10
R11
P11
N11
N12

M9

M11
M12
P12
R12
T13
R13
R14
P13
T15
R15

F133

F137

IRQ_FTV

F136

TEST0

F113

F116

IRQ_PW

CLAMP_EXT

10 11

I135

3135

100R

I134

3134

100R

SCR_ODD_EVEN

F114

SCR_DEN

F115

3133
100R

3136
100R

F135

F134

SCL_SCALER_LOC

SCL_EPLD

SDA_EPLD

SDA_SCALER_LOC

SCR_HSYNC
SCR_VSYNC

OTC_BLEND(0)
OTC_BLEND(1)

OTC_BLEND(2)
OTC_BLEND(4)
OTC_BLEND(3)
OTC_BLEND(6)

OSD_BLUE(0)

OTC_BLEND(5)

OSD_BLUE(1)
OTC_BLEND(7)
BLEND_FDB(7)

OSD_BLUE(2)
BLEND_FDB(5)
BLEND_FDB(6)

OSD_BLUE(5)

OSD_BLUE(3)

OSD_BLUE(4)

OTC_BLUE(0)

OTC_BLUE(1)

OTC_BLUE(2)

OTC_BLUE(3)

OTC_BLUE(4)

OTC_BLUE(6)

OTC_BLUE(5)

OTC_BLUE(7)

OTC_GREEN(4)
OTC_GREEN(0)
OTC_GREEN(1)

OSD_RED(6)
OSD_RED(7)
OSD_RED(5)

SCR_BLUE(5)

SCR_BLUE(7)

SCR_BLUE(6)

100R

F107

+5VA

3111

100R

I111

7120-4

EP1C12F256C8

IO_89
IO_90
IO_91
IO_92
IO_93
IO_94
IO_95
IO_96
IO_97
IO_98
IO_99
IO_100
IO_101
IO_102
IO_103
IO_104
IO_105
IO_106
IO_107
IO_108
IO_109
IO_110

Φ

BANK 3

IO_111
IO_112
IO_113
IO_114
IO_115
IO_116
IO_117
IO_118
IO_119
IO_120
IO_121
IO_122
IO_123
IO_124
IO_125
IO_126
IO_127
IO_128
IO_129
IO_130
IO_131

G14
G13
G15
F16
F14
F13
F15
E16
E15
D16
D15
E14
F12
E13
D14
H13
G12
B16
C15
C14
D13

F144

F143

F142

TEST7

TEST6

TEST5

F128

F129

F131

SCR_RED(3)

SCR_RED(6)
SCR_RED(0)
SCR_RED(5)

SCR_RED(1)

V_HDO
H_HDO

C_LM1881

N13
P14
P15
R16
N15
N16
K12
K14
L12
N14
M13
M14
L13
M15
M16
L14
L15
L16
K16
K15
J16
H12

SCR_BLUE(4)
SCR_BLUE(2)
SCR_BLUE(3)
SCR_GREEN(4)
SCR_BLUE(1)

SCR_GREEN(1)

SCR_BLUE(0)

SCR_GREEN(7)

SCR_GREEN(5)
SCR_GREEN(6)
SCR_GREEN(3)
SCR_RED(4)
SCR_GREEN(2)
SCR_GREEN(0)
SCR_RED(2)
SCR_RED(7)

PW_START

F132

12 13

+3V3_FILT

+3V3_FILT

10K

3120

I120

F120

+3V3_FILT

2K2

3112

F108

F111

F112

10K

3116

SCR_RED(2)

SCR_BLUE(2)

SCR_GREEN(2)

10K

F110

3115

10K

3114

F126
F127
F125

1K

3138

2138

F109

3113

10K

220p

+1V5_FILT

7137

NCP303

IN

1

RST

GND

4

NC

CD

OSD_VSYNC
OSD_HSYNC

OSD_DEN
RESET_FLASH_n

RESET_SCALER

10K

3137

3139

2

I137

33K

3

I139

5

470n

2139

1101 H4
2107 B3
2108 D2
2109 D2
2110 F1
2111 F1
2113 G1
2114 G1
2121 E7
2122 E6
2138 E12
2139 E13
3106 C4

A

3107 C4
3108 C4
3109 C4
3110 G4
3111 G4
3112 E12
3113 F12
3114 F12
3115 F12
3116 F12
3117 G3
3118 G3
3120 D12
3121 D7

B

3122 D6
3123 D6
3124 D6
3133 D10
3134 E10
3135 E10
3136 E10
3137 D13
3138 D12
3139 D13
4110 G2
4111 G2
5107 B3

C

7107 C3
7120-2 A8
7120-3 C8
7120-4 G8
7120-5 E8
7137 D13
F103 B4
F104 C4
F105 C4
F106 G4
F107 G4
F108 E12
F109 F13

D

F110 F12
F111 F12
F112 F12
F113 F9
F114 F10
F115 F10
F116 F9
F120 D12
F121 D6
F122 D6
F123 D6
F124 D5

E

F125 G12
F126 G12
F127 G12
F128 H9
F129 H10
F130 C7
F131 I11
F132 H7
F133 G9
F134 E11
F135 E11
F136 C9
F137 C9

F

F138 D7
F139 D7
F140 D7
F141 D7
F142 I9
F143 H9
F144 H9
I108 C5
I109 C5
I110 G5
I111 G5
I117 B9
I120 D12

G

I134 E10
I135 E10
I137 D13
I139 D13

H

I

3122 359 1014.3

123456

{BLEND_FDB(0:7),OTC_BLEND(0:7),OTC_RED(0:7),OTC_BLUE(0:7),OTC_GREEN(0:7),OSD_GREEN(0:7),OSD_RED(0:7),OSD_BLUE(0:7),SCR_RED(0:7),SCR_GREEN(0:7),SCR_BLUE(0:7)}

78

E_14780_122.eps

070704

9101112 13

LCoS MSB: OSD Insertion

12345

A

B

C

D

F158

A153

A155

A157

1401

E

F

FMN

G

H

I

3122 359 1014.3

12

10

F153

9

8

7

6

5

4

3

2

1

Circuit Diagrams and PWB Layouts

OSD
INSERTION

3151

I151

3152

2154

2156

2158

2152

47u 6.3V

10K

F154

47n

F156

47n

F157

47n

1R0

470R

470R

470R

IRQ_FTV

HSYNC_PLL
VSYNC_PLL
CLAMP_EXT

2190

6n8

2191

68n

34567

A151

22p

2151

22p

2153

22p

2155

22p

2157

3158

4p7

2159

+3V3_PLL

SDA_SCALER_LOC

SCL_SCALER_LOC

3155

3157 3156

75R

I173

I174

+3V3_ANA

3153

680R

3154

330R

RED_OSD

GREEN_OSD

BLUE_OSD

2189
100n

3173
2K7

I153

I172

I175

I176

5170

2170

+3V3

100MHZ

10u

F179

7170

AD9883AKST

RAIN54

48

GAIN

BAIN43

MIDSCV37

HSYNC30

VSYNC31

SOGIN49

CLAMP38

COAST29

FILT33

SDA57

56

SCL

A055

+5VA

5160

100MHZ

F160

10u

2160

2171

1122236978

1

7160

LD1117DT33

3

OUTIN

COM

1

F162

F163

100n

2172

2174

100n

2173

100n

VDD

CLAMP

CLAMP

2021242528

6 7 8 9 10 11 12 13 14

F164

5164

100MHZ

F165

5165

F161

2

100MHZ

5166

F166

100MHZ

100u

2161

+3V3_ANA

100n

2175

2176

100n

79

100n

100n

2178

2177

100n

2179

2662273942

2180

100n

100n

2181

45

VD

SYNC

PROCESSING

AND CLOCK

GENERATION

SERIAL REGISTER

AND

PWR MANAGMENT

GND

32

36

40414447505360

100n

2182

100n

2183

465152

A/D

A/DCLAMP

A/D

+3V3_ANA

+3V3_PLL

+3V3_SAD

100n

2184

2185

100n

59

REF

61

8

8

8

2186

100n

63

100n

2187

REF-BYPASS

681080

EN 36EM8E 7.

100n

2188

100n

34

35

PVD

ROUTA0

ROUTA1

ROUTA2

ROUTA3

ROUTA4

ROUTA5

ROUTA6

ROUTA7

GOUTA0

GOUTA1

GOUTA2

GOUTA3

GOUTA4

GOUTA5

GOUTA6

GOUTA7

BOUTA0

BOUTA1

BOUTA2

BOUTA3

BOUTA4

BOUTA5

BOUTA6

BOUTA7

HSOUT 66

VSOUT

SOGOUT 65

DATACK 67

+3V3_PLL

F170

77

F171

76

75

74

73

72

71

70

F173

9

F174

8

7

6

5

4

3

2

F176

19

F177

18

17

16

15

14

13

12

64

58

I178

I179

I191

I193

I195

I180

I181

I182

I183

3190

3192

3194

3196

3180

3181

3182

3183

33K

33K

33K

33K

33K

33K

33K

33K

I190

I192

I194

I184

I185

I186

I187

3191

3193

3195

3197

3184

3185

3186

3187

3188

18K

18K

18K

18K

BLEND_OSD

18K

18K

18K

18K

I188

22K

2194

CLK_RET

2199

100n

1n0

F194

VD

Φ

8-BIT

ADC

GND

4916

5195

VDD

+3V3

100MHZ

10u

2196

2195

0

0

19

1

18

2

17

3

14

DATA

4

13

5

12

6

1

7

100n

F195
F196

+3V3_SAD

100n

2198

2197

100n

7195

AD9283BRS-80

58 15

7

AIN+

62

AIN-

1

PWRDWN

10

ENCODE

I198

21

VREFOUT

3

VREFIN

OTC_BLEND(0)

OTC_BLEND(1)

F197

OTC_BLEND(2)

OTC_BLEND(3)

OTC_BLEND(4)

OTC_BLEND(5)

OTC_BLEND(6)

OTC_BLEND(7)

,SCR_GREEN(0:7),SCR_BLUE(0:7)}

F172

F175

F178

BLEND_FDB(7)

BLEND_FDB(6)

BLEND_FDB(5)

BLEND_FDB(4)

BLEND_FDB(3)

BLEND_FDB(2)

BLEND_FDB(1)

BLEND_FDB(0)

OTC_RED(0)

OTC_RED(1)

OTC_RED(2)

OTC_RED(3)

OTC_RED(4)

OTC_RED(5)

OTC_RED(6)

OTC_RED(7)

OTC_GREEN(0)

OTC_GREEN(1)

OTC_GREEN(2)

OTC_GREEN(3)

OTC_GREEN(4)

OTC_GREEN(5)

OTC_GREEN(6)

OTC_GREEN(7)

{BLEND_FDB(0:7),OTC_BLEND(0:7),OTC_RED(0:7),OTC_BLUE(0:7),OTC_GREEN(0:7),OSD_GREEN(0:7),OSD_RED(0:7),OSD_BLUE(0:7),SCR_RED(0:7)
OTC_BLUE(0)

OTC_BLUE(1)

OTC_BLUE(2)

OTC_BLUE(3)

OTC_BLUE(4)

OTC_BLUE(5)

OTC_BLUE(6)

OTC_BLUE(7)

CLK_RET

2192

I177

100n

8 9 10 11 12 13 14

E_14780_123.eps

070704

1401 E1

I181 B9

2151 B2

I182 C9

2152 B3

I183 C9

2153 E2

I184 B10

2154 E3

I185 B10

2155 F2

I186 C10

2156 E3

I187 C10

2157 F2

I188 D10

2158 F3

I190 A10

2159 G2

I191 A9

2160 A4

I192 A10
2161 A5
2170 C4
2171 C4
2172 C5
2173 C5
2174 C5
2175 C5
2176 C5
2177 C5
2178 C6
2179 C6
2180 C6
2181 C6
2182 C6
2183 C6
2184 C6
2185 C7
2186 C7
2187 C7
2188 C7
2189 G3
2190 H3
2191 H3
2192 I8
2194 D10
2195 A12
2196 A12
2197 A11
2198 A11
2199 C11
3151 B2
3152 B3
3153 B3
3154 B3
3155 E2
3156 F2
3157 F2
3158 G2
3173 H3
3180 B10
3181 B10
3182 C10
3183 C10
3184 B10
3185 C10
3186 C10
3187 C10
3188 D10
3190 A10
3191 A10
3192 A10
3193 A10
3194 A10
3195 A10
3196 A10
3197 B10
5160 A4
5164 A6
5165 A6
5166 A6
5170 C4
5195 A12
7160 A5
7170 C4
7195 B11
A151 B2
A153 E2
A155 E2
A157 F2
F153 E1
F154 E3
F156 E3
F157 F3
F158 F2
F160 A4
F161 A5
F162 A5
F163 A5
F164 A6
F165 A6
F166 A6
F170 D8
F171 D8
F172 D8
F173 E8
F174 E8
F175 E8
F176 F8
F177 F8
F178 G8
F179 C4
F194 A12
F195 B13
F196 B13
F197 B13
I151 B3
I153 B4
I172 G4
I173 H3
I174 H3
I175 I4
I176 I4
I177 I8
I178 A10
I179 A9
I180 B9

I193 A9

I194 A10

I195 A9

I198 B11

A

B

C

D

E

F

G

H

I

LCoS MSB: OSD Insertion

1234

A

B

+1V5_C

5240

3220
100R

3221
100R

100MHZ

I240

+1V5_FILT

RXD_MSB

TXD_MSB

C

D

E

F

G

H

+1V5_C

Circuit Diagrams and PWB Layouts

OSD INSERTION

+5VA

+5VA

6220

2225

+1V5_FILT

100n

BAV99

2226

F220

F221

100n

2227

6221

100n

+5VA

+5VA

3V3

2228

BAV99

+3V3

100n

5225

2229

100MHZ

I225

2230

100n

+3V3_FILT

100n

+5VA

3V3

+3V3_FILT

F222

C1
G6
P1
A14
F10
F7
A3
P16
K11
C16
T3
L7
L10
T14

A7
A10
G8
G10
H7
H9
J8
J10
K7
K9
T7
T10

H6
H11

EN 37EM8E 7.

567

0315

SR

1

BANK1

BANK2

BANK3

BANK4

VCCINT

PLL1
PLL2

2
3
4
5

6

7

7120-6

EP1C12F256C8

Φ

POWER

VCCIO

VCCA

GNDA

GNDG

+3V3

+3V3_PRA
+3V3_PRA
+3V3_PRA

G11

GND

PLL1
PLL2
PLL1
PLL2

5255

100MHZ

7255
EPCS4SI8

1

CS_

DCLK

5

ASDI

3260

10K

3268

10K

A1

A16

A5

A12

F6
F8
F9

F11

G7
G9

H8

H10

J7

J9
K6
K8

K10

L6

L8

L9

L11

T1
T5

T12
T16

J6

J11

J5

J12

VCC

Φ

SCD

GND
4

3267

10K

3261

10K

378

DATA

I255

I261

I268

I267

I260

2255

100n

26

2262

100n

2263

RES

1109

MODU II

8 9 10 11 12 13

+3V3_PRA

100n

7120-1

EP1C12F256C8

Φ

F271

SCAN

TDI

TDO

TCK

TMS

CEO

CLK

1V5

3V3

+3V3_PRA

0V8

2V7

H14

H15

J14

J15

H4
G1

0

H1

1

G16

2

H16

3

+3V3_PRA

10K

3266

CONTROL

F269

REFCLK

SCR_DCLK

CLK_RET

1

2

3

4

+3V3_PRA

5

6

F268

7

F267

8

F266

9

10

H2
K4

G4

K3
J3
J2

K13

J13

H3

J4

RES

1105

MODU II

DATA0
DCLK
CSO
ASDO
0

MSEL

1
CONF_DONE
STATUS
CONFIG
CE

A276

A278

A277

F270

1

2

3

4

F272

5

6

7

8

F274

9

F275

10

3264

10K

3265

3K9

0315 B5
1105 E11
1109 E8
2225 G2
2226 G2
2227 G3
2228 G3
2229 G3
2230 G4
2240 I1
2241 I1
2242 I2

A

2243 I2
2244 I2
2255 C7
2262 C7
2263 C7
3220 B2
3221 C2
3260 D6
3261 D7
3264 F13
3265 G13
3266 F12

B

3267 D7
3268 D6
5225 G3
5240 H1
5255 B6
6220 C2
6221 C3
7120-1 C11
7120-6 F5
7255 C6
A276 E11
A277 E11

C

A278 E11
F220 B3
F221 C3
F222 C5
F266 F8
F267 F8
F268 F8
F269 D8
F270 E11
F271 F11
F272 F11

D

F274 F11
F275 G11
I225 G4
I240 H1
I255 B7
I260 D7
I261 D7
I267 D7
I268 D7

E

F

G

H

I

3122 359 1014.3

100n

2241

2242

2240

100n

100n

2243

100n

2244

100n

I

E_14780_124.eps

1

23

456789

10 11 12 13

070704

LCoS MSB: TMDS-TX

1

A

B

C

D

E

F

G

Circuit Diagrams and PWB Layouts

23

TMDS - TX

F311

F312

F313

F301

F306

+3V3A_TMDS

3304

470R

45

7295
SII160

90

DIE23

91

DIE22

92

DIE21

93

DIE20

94

DIE19

95

DIE18

96

DIE17

97

DIE16

99

DIE15

100

DIE14

1

DIE13

2

DIE12

3

DIE11

4

DIE10

5

DIE9

6

DIE8

9

DIE7

10

DIE6

11

DIE5

12

DIE4

13

DIE3

14

DIE2

15

DIE1

16

DIE0

48

DIO23

49

DIO22

50

DIO21

51

DIO20

52

DIO19

53

DIO18

54

DIO17

55

DIO16

58

DIO15

59

DIO14

60

DIO13

61

DIO12

62

DIO11

63

DIO10

64

DIO9

65

DIO8

68

DIO7

69

DIO6

70

DIO5

71

DIO4

72

DIO3

73

DIO2

74

DIO1

75

DIO0

80

IDCK

78

DE

76

HSYNC

3V3
3V3

77
32
84
83
82
24
25
26

VSYNC
EXT_SW
CTL1
CTL2
CTL3
EDGE
PIXS
PD

2V8

I323

+3V3IO_TMDS

3306

10K

I326

EN 38EM8E 7.

6 7 8 9 10 11 12

F295

2318

RES

I324

+3V3

F296

F297

F298

F300

F302

F303

F304

F299

F305

F310

0303

YKF45-7003
1

2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25 26

TXC+

TXC-

TX0+

TX0-

TX1+

TX1-

TX2+

TX2-

PVCC2
PGND2
PVCC1
PGND1

RES1
RES2
RES3
RES4
RES5
RES6
RES7
RES8

IVCC1
IVCC2
IVCC3
IVCC4

VCC1
VCC2
VCC3
VCC4

GND1
GND2
GND3
GND4
GND5
GND6

AVCC1
AVCC2
AVCC3

AGND1
AGND2
AGND3
AGND4

35
34

40
39

43
42

46
45

85
86
18
19

87
20
21
22
23
27
28
29

17
66
81
98

8
30
56
88

7
31
57
67
79
89

36
38
44

33
37
41
47

1300

F309

2311

+3V3IO_TMDS

2297

+3V3A_TMDS

3V3

DLW21S

100n

100n

3V3

2312

3V3

2298

1301

+3V3PLL_TMDS

5295

100MHZ

1u

100n

2315

100n

2299

100n

DLW21S

2300

1302

100n

2302

100n

2314

1303

DLW21S

100R

100R

100n

2303

+3V3A_TMDS

3V3

1u

2307

100n

3302

3303

2304

2308

F307

100n

DLW21S

2305

F308

100n

0p56
2319

0p56
2320

0p56
2316

0p56

2321
0p56

2322
0p56

2323
0p56

2317
0p56

2296

2295

2309

22p

22p

100n

2306

100n

RES

RES

RES

RES

RES

RES

RES

5296

100MHZ

1u

5297

100MHZ

A

B

C

D

E

F

G

0303 B12
1300 C7
1301 C7
1302 C8
1303 C8
2295 D9
2296 D9
2297 E7
2298 E7
2299 E7
2300 E8
2302 E8
2303 E8
2304 E9
2305 E9
2306 E9
2307 F8
2308 F9
2309 F9
2311 D7
2312 D7
2314 F8
2315 D7
2316 B9
2317 D9
2318 B9
2319 B9
2320 B9
2321 C9
2322 C9
2323 C9
3302 D9
3303 D9
3304 G4
3306 G5
5295 D8
5296 E9
5297 F9
7295 B6
F295 A10
F296 B10
F297 B10
F298 B10
F299 D10
F300 C10
F301 F3
F302 C10
F303 C10
F304 D10
F305 D10
F306 F3
F307 E9
F308 F9
F309 D7
F310 B11
F311 C3
F312 D3
F313 E3
I323 G4
I324 F10
I326 G5

3122 359 1015.3

1234

E_14780_125.eps

070704

5

6 7 8 9 10 11 12

LCoS MSB: Scaler 1

1

A

+3V3_AD_D

B

7347-B

74LVC125A

5

4

C

D

E

F

G

+5VA

H

5345

100MHZ

I

+3V3

3122 359 1016.3

14

7

74LVC125A

6

100n

Circuit Diagrams and PWB Layouts

234

SCALER - 1

3V3

8

GND

74LVC125A

2

O1

3

O2

6

O3

7

O4

1

7347-D

12

13

2378

100n
100n
100n

100n

100n
100n

100n
100n
100n
100n

100n
100n

100n
100n
100n
100n
100n
100n
100n
100n

14

7

2348
2349
2350

2352

2354
2355

2357
2358
2359
2360

2362
2363

2364
2365
2366
2367
2368
2369
2370
2371

F346

10u

2361

100n

7345

AD9888KS

3V3

3V3

3V3

122
112
102

3V3

5346

100MHZ

4349

5347

100MHZ

5348

100MHZ

GRE(0)

GRE(1)

GRE(2)

120

119

118

REDA0

REDA1

REDA2
52
48
47

39
38
37
34
26
25
21
18
14
10

7
6
1

98

VDD VD PVD

89
79
69
56

I370

3V3

I371
3V3

F347

3V3

1u

2385

F350

3V3

1u

2386

2377

7347-C

9

10

F345

14

7

+3V3_ADPLL

+3V3_AD_A

+3V3_AD_D

7346

LD1117

4

IN

5
8

GRE(0:7)

GRE(3)

117

REDA3

GRE(4)

116

REDA4

GRE(0:7)

GRE(5)

GRE(6)

GRE(7)

115

114

113

REDA5

REDA6

REDA7

+3V3PLL_DVI

+3V3_ADPLL

+3V3PLL_TMDS

+3V3_AD_A

+3V3_AD_D

EN 39EM8E 7.

567891011

GFBK

AD_DVI_VS

AD_DVI_CLK

I366

I36811I365

GRO(0)

110

REDB0

GRO(1)

109

REDB1

GRO(2)

108

REDB2

GRO(0:7)

GRO(3)

107

REDB3

8

GRO(4)

106

REDB4

A/D

GRO(0:7)

GRO(5)

105

REDB5

GRO(6)

104

REDB6

GRO(7)

103

REDB7

GGE(0)

GGE(1)

97

96

GREENA0

GGE(2)

95

94

GREENA1

GREENA2

8

A/DCLAMP

GGE(0:7)

GGE(3)

GGE(4)

93

GREENA3

GREENA4

GGE(0:7)

GGE(5)

GGE(6)

92

91

GREENA5

GGE(7)

90

GREENA6

GREENA787GREENB0

GGO(0)

8

GGO(1)

GGO(2)

86

85

GREENB1

A/D

GGO(0:7)

GGO(3)

84

GREENB2

GREENB3

GGO(4)

83

82

GREENB4

GGO(0:7)

GGO(5)

GGO(6)

81

GREENB5

GREENB6

GGO(7)

80

GREENB7

GBE(0)

77

BLUEA0

GBE(1)

76

BLUEA1

GBE(2)

75

BLUEA2

GBE(0:7)

GBE(3)

74

BLUEA3

GBE(4)

73

BLUEA4

GBE(0:7)

GBE(5)

72

BLUEA5

GBE(6)

GBE(7)

71

70

BLUEA6

BLUEA764BLUEB0

GBO(0)

GBO(1)

63

BLUEB1

GBO(2)

62

BLUEB2

GBO(0:7)

GBO(3)

61

BLUEB3

GBO(4)

60

BLUEB4

GBO(0:7)

GBO(5)

59

BLUEB5

GBO(6)

58

BLUEB6

GBO(7)

57

BLUEB7

GFBK

3347

I345

125

I367

3345

100R

I346

HSOUT

AD_DVI_VS

100R

3348

I347

126

127

VSOUT

DVI_PWR_DOWN_n

AD_DVI_CLK

47R

3346

2346

100R

I348

123

124

DATACK

SOGOUT

DATACK_

I349

I350

9

RMIDSCV

AND

CLAMP

A354

13 GAIN0

2372

F355

2379

Y_HD

GAIN117

A356

47n

47n

G_VGA

G_VGA

RAIN05

8 RAIN1

0V

0V 0V 0V 0V 0V

A352

F353

47n

2374

47n

2381

R_VGA

R_VGA

PR_HD

CLAMP

BAIN020

23 BAIN1

F357

47n

2373

2380

B_VGA

PB_HD

47n

B_VGA

45 HSYNC0

F351

H_HDO

H_HDO

HSYNC143

H_VGA

H_VGA

SYNC

PROCESSING

SOGIN012

VSYNC044

F358

V_HDO

42 VSYNC1

V_VGA

V_HDO

I358

2375

V_VGA

16 SOGIN1

I359

1n

2382

AND CLOCK

GENERATION

CKINV29

COAST53

30 CLAMP

1n

GBLKSPL

54 CKEXT

I360

3349

GCOAST

I361

10K

I364

2384

GCOAST

GBLKSPL

FILT50

3350

+3V3_ADPLL

3K3

39n

SERIAL REGISTER

SDA31

32 SCL

33 A0

I362

I363

3351

100R

3n9

2383

3352

100R

F348

SDA_SCALER

SCL_SCALER

F349

POWER MANAGMENT

3V3
3V3

SCL_SCALER
SDA_SCALER

12

2345

100n

24

BMIDSCV

+3V3_AD_D

100n

2347

I351

REFOUT 2

REF

7347-A

74LVC125A

2

1

100n

GND

128
121
111
101
100
99
88
78
68
67
66
65
55
51
49
46
41
40
36
35
28
27
22
19
15
11
4
3

13

14

3

7

AD_DVI_HS

E_14780_126.eps

070704

A

B

C

D

E

F

G

H

I

2345 B12
2346 B12
2347 B12
2348 C3
2349 C3
2350 C3
2352 D3
2354 E3
2355 E3
2357 E3
2358 E3
2359 E3
2360 E3
2361 B3
2362 F3
2363 F3
2364 F3
2365 F3
2366 F3
2367 G3
2368 G3
2369 G3
2370 G3
2371 G3
2372 H6
2373 H7
2374 H5
2375 H9
2377 H2
2378 H3
2379 H7
2380 H8
2381 H6
2382 H9
2383 H10
2384 I10
2385 I4
2386 I4
3345 B11
3346 B11
3347 B11
3348 B11
3349 H9
3350 H10
3351 H10
3352 H10
4349 H3
5345 H1
5346 H3
5347 I3
5348 I3
7345 B3
7346 H2
7347-A A12
7347-B A1
7347-C A2
7347-D A3
A352 H5
A354 H6
A356 H7
F345 H2
F346 H3
F347 I4
F348 I10
F349 I10
F350 I4
F351 I8
F353 H6
F355 H7
F357 H8
F358 I8
I345 B11
I346 B11
I347 B11
I348 B11
I349 B12
I350 B12
I351 B12
I358 H9
I359 H9
I360 H9
I361 H10
I362 H10
I363 H10
I364 H10
I365 A11
I366 A11
I367 A11
I368 A11
I370 H4
I371 H4

1 456789

23

10

11 12 13

LCoS MSB: Scaler 2

12

A

I398

5405

2405

100n

100MHZ

+3V3

B

D(0:15)D(0:15)

C

D

E

F

G

H

I

3122 359 1016.3

1

3V3

BHEN

A(0)

D(0)

D(1)

D(2)

D(3)

D(4)

D(5)

D(6)

D(7)

D(8)

D(9)

D(10)

D(11)

D(12)

D(13)

D(14)

D(15)

+3V3

M29W160ET70

D(0)
D(1)
D(2)
D(3)
D(4)
D(5)
D(6)
D(7)
D(8)
D(9)
D(10)
D(11)
D(12)
D(13)
D(14)
D(15)

29
31
33
35
38
40
42
44
30
32
34
36
39
41
43

45

13
14
10

11
33
39
40

7
8

9
10
13
14
15
16
29
30
31
32
35
36
37
38

22
23
28

5406

100MHZ

7409

0
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
A-1

NC

Circuit Diagrams and PWB Layouts

SCALER - 2

7406
CY62126

RAMWE

RAMOE

3428
100R

A(10)

A(11)

A(12)

A(13)

A(14)

A(15)

A(16)

A

BYTE

A(1)

A(2)

A(3)

A(4)

A(5)

A(6)

A(7)

A(8)

A(9)

10
11
12
13
14
15
16
17
18
19

19

RB
RP

WE

OE
CE

I410

+3V3F

0
1
2
3
4
5
6
7
8
9

25
24
23
22
21
20
19
18
8
7
6
5
4
3
2
1
48
17
16
9

15

11
28
26
47

12

I409

A(0:19)

F393

3427

A(10)
A(11)
A(12)
A(13)
A(14)
A(15)
A(16)
A(17)
A(18)
A(19)

A(1)
A(2)
A(3)
A(4)
A(5)
A(6)
A(7)
A(8)
A(9)

VCC

WE_

BLE_

CE_

BHE_

OE_

I|O1

A0

I|O2

A1

I|O3

A2

I|O4

A3

I|O5

A4
A5

I|O6
I|O7

A6

I|O8

A7

I|O9

A8

I|O10

A9

I|O11

A10
A11

I|O12
I|O13

A12

I|O14

A13

I|O15

A14

I|O16

A15

NC1
NC2
NC3

VSS

1234

2409
100n

I436

VDD

[FLASH]

2Mx8/1Mx16

D

2M-1 / 1M-1

VSS

2

17

6
I411

41

5
4
3
2

1
44
43
42
27
26
25
24
21
20
19
18

3V3

37

0

2746

EN 40EM8E 7.

34567

ROMWE

ROMOE

A(0:19)

A(0)

7407-4

4K7

PW181

A(0:19)

A(0)

A(1)

A(2)

A(3)

A(4)

A(5)

A(6)

T4

T3

Y1

V3

U4

U3

W2

A0A1A2A3A4A5A6A7A8

RESET

MCKEXT

DCKEXTXIXO

A3

C5

Y11

E5

D6

A(7)

A(8)

A(9)

A(10)

A(11)

A(12)

A(13)

A(14)

A(15)

V2

V1

P4

R4

U2

R3T2U1T1R2

W1

A9

A10

A11

A12

A13

A14

A15

RXD

TXD

IRRCVR0

IRRCVR1

PORTA0

PORTA1

PORTA2

V12

Y12

V13

W13

Y13

Y14

V11

W11

F396

F399

F398

F397

100R
3413

TXD_PW

RXD_PW

I400

3V3

4K7

3444

+3V3PW

I401

4K7

+3V3PW

1V6

100R3422

NVM_SDA

SCL_SCALER

SDA_SCALER

REFCLK

2446

100n

14M31818

I387

7411

FXO-34FL

1

RESET_SCALER

+3V3

5411

100MHZ

4

3

2

I389

3V3

3445

3455
47R

A(16)

A(17)

A(18)

A(19)

P3

R1

A16

A17

A18

PORTA3

PORTA4

PORTA5

W14

Y15

W15

F402

F400

F401

100R3423

3414100R

100R

3420

NVM_SCL

SCL_EPLD

SDA_EPLD

D(0:15)

D(0)

D(1)

D(2)

Y9W9V9

V10

Y10

D0

D1D2D3D4D5D6D7D8D9

A19

PORTA6

PORTA7

PORTB0

V15

R17

W18

F405

F404

F403

3426 100R

NVM_WC

F389

3447

3V3

4K7

3448

3V3

4K7

F392

3407

4K7

3410

4K7

D(0:15)

D(5)

D(6)

D(3)

D(4)

Y8W8V8

PORTB1

PORTB2

PORTB3

PORTB4

PORTB5

V18

Y18

U18

Y19

F407

F409

F406

F408

TRI_LEVEL_SEL

SCR_ODD_EVEN
+3V3PW

+3V3PW

3405

4K7

3409

4K7

3411

4K7

3425
4K7

D(7)

W7

PORTB6

W19

T18

F411

F410

D(8)

D(9)

U8

PORTB7

D(10)

D(11)

V7W6Y6

D10

PORTC0

T17

V16

F412

F413

D(12)

V6

D11

D12

PORTC1

PORTC2

W16

Y16

F414

F415

D(13)

D13

PORTC3

D(14)

D(15)

U6

U7

D14

PORTC4

V17

U17

F417

W3

D15

PORTC5

PORTC6

W17

Y17

F419

F418

3456

IRQ_PW

2FHIN1_2FHIN2

TRISTATE_DVI_n

SW_PWR_DOWN_n

DVI_PWR_DOWN_n

100n

2432

E14

VDD6

GND3

+1V5PW

100n

F16

E15

VDD7

VDD8

GND4

GND5

D8D9D11

LVDS_PWR_DOWN_n

RS232_SCALER_OTC

+1V5PW

+1V5PW

100n

2434

2433

J5

L5

K5

H5

K16

H16

VDD9

VDD10

VDD11

VDD12

VDD13

VDD14

GND11

GND10

GND9

GND6

GND7

GND8

D13

D15G4G17H4H8

D12

A(0:19)

I449

ROMWE

ROMOE

3436
3K3

3438

I451

3V3

4K7

+3V3F

3V3

1410

RF

12

F394

I450

3V0

+3V3F

3441

3K3

REF1410

34

3437

3K3

6405

3V3

1K

RESET_FLASH_n

BOOTWE

2447

4u7

BAT54 COL

3440

7407-5

PW181

+1V5PW

100n

2431

E9

E7

E10

VDD1

VDD2

+1V5PW

E11

E12

VDD3

VDD4

GND1

A1

E13

VDD5

GND2

34567

+3V3PW

ROMWE

ROMOE

4K7

BHEN

RAMWE

RAMOE

ROMWE

Y3

W12

RD_

WR_

PORTC7

P1

F420

PW_TMS

ROMOE

V5

BHEN_

ROMOE_

CPUTMS

CPUTCK

Y2

F421

PW_TCK

W5

W4

ROMWE_

CPUTDI

N3

M4

F422

F423

PW_TDI

PW_TDO

Y5

V4

RAMOE_

RAMWE_

CPUTDO

U16N4T5

F424

I416

PW_START

Y4

U10

CS0_

CS1_

MODE0

MODE1

F425

F426

F386

NMI

W10

EXTINT

MODE2

P2

F427

+3V3PW

RES

4411

4412

10K

1234567

F416

+1V5PW

+1V5PW

+1V5PW

+1V5PW

100n

100n

100n

100n

100n

2439

2438

2437

2435

2436

P5

P6

N5

N6

P15

P16

R13

N16

VDD19

GND16

H9

VDD20

GND17

H10

VDD21

GND18

H11

H12B2H13J8J9

VDD22

VDD23

GND19

GND20

R14

VDD24

GND21

VDD16

VDD15GND12

GND13

N15

VDD17

GND14

VDD18

GND15

3434

3V3

B20

NMI

NC1

MODE3

ADR24B

U15

RES

3450

+1V5PW

100n

2440

T6T7T9

R15

VDD25

VDD26

VDD27

GND22

GND23

GND24

J10

J11

V14

C19

NC2

NC3

3452 10K

10K

F486

+1V5PW

100n

VDD28

VDD29

GND25

GND26

J13K4K8

J12

PW_START

10K3449

10K3451

8

+1V5PW

100n

2443

2441

T10

T11

T12

VDD30

VDD31

VDD32

GND27

GND28

GND29

K9B3K10

3V3

+3V3PW

1412
MODU II

+1V5PW

T15

T13

T14

VDD33

VDD34

GND30

GND31

K11

K12

8

2411

100n

GRE(0:7)

GGE(0:7)

GBE(0:7)

GRO(0:7)

GGO(0:7)

GBO(0:7)

+2V5PW

+2V5PW

2415

3412

1K

+3V3PW

9101112

AD_DVI_CLK
AD_DVI_DE
AD_DVI_VS

AD_DVI_HS

GRE(0)
GRE(1)
GRE(2)
GRE(3)
GRE(4)
GRE(5)

GRE(0:7)

GRE(6)
GRE(7)

GGE(0)
GGE(1)
GGE(2)
GGE(3)
GGE(4)
GGE(5)

GGE(0:7)

GGE(6)
GGE(7)

GBE(0)
GBE(1)
GBE(2)
GBE(3)
GBE(4)
GBE(5)

GBE(0:7)

GBE(6)
GBE(7)

GRO(0)
GRO(1)
GRO(2)
GRO(3)
GRO(4)
GRO(5)

GRO(0:7)

GRO(6)
GRO(7)

GGO(0)
GGO(1)
GGO(2)
GGO(3)
GGO(4)
GGO(5)

GGO(0:7)

GGO(6)
GGO(7)

GBO(0)
GBO(1)
GBO(2)
GBO(3)
GBO(4)
GBO(5)

GBO(0:7)

GBO(6)
GBO(7)

100n

+2V5PW

2448

+1V5PW_PLL

100n

2444

B4

C4

VPP1

VDD35

GND32

GND33

GND34

K13L8L9

100n

2445

VPP2

GND35

L10

4u7

A2

VCC1

GND36

GND37

L11

100n

2412

U5

T16

VCC2

GND38

L12

L13D4L18M8M9

+2V5PW

U9

VCC3

VCC4

GND39

GND40

U11

VCC5

GND41

+2V5PW

100n

2413

U13

VCC6

GND42

GND43

M10

+3V3PW

100n

2414

E8

E6

VIO1

VIO2

GND44

GND45

M12

M11

100n

2416

F5

VIO3

GND46

M13N8N9

+3V3PW

100n

2417

F7

F6

F14

VIO4

VIO5

GND47

GND48

N10D5N11

+3V3PW

+3V3PW

100n

2418

G5

F15

VIO6

VIO7

VIO8

GND49

GND50

GND51

N12

G6

N13

100n

2419

G15

VIO9

VIO10

GND52

GND53

N17

+3V3PW

100n

2420

J16

L16

G16

VIO11

VIO12

GND54

GND55

N18

P17R5U12

89

13 14

CLK_EMG

DE_EMG
V_EMG

H_EMG

Y(0)
Y(1)
Y(2)
Y(3)
Y(4)
Y(5)
Y(6)
Y(7)

UV(0)
UV(1)
UV(2)
UV(3)
UV(4)
UV(5)
UV(6)
UV(7)

7407-3
PW181

7407-2
PW181

E1
N2
E3
F3
D1

E2
F1
F2
G3
G2
H3
H2
G1

J4
H1
J3
J2
J1
K3
K2
K1

L2
L1
L3
L4
M3
M1
N1
M2

VCLK
VPEN
VVS
VHS
FIELD

VR0
VR1
VR2
VR3
VR4
VR5
VR6
VR7

VG0
VG1
VG2
VG3
VG4
VG5
VG6
VG7

VB0
VB1
VB2
VB3
VB4
VB5
VB6
VB7

DCLK

DRE0
DRE1
DRE2
DRE3
DRE4
DRE5
DRE6
DRE7

DGE0
DGE1
DGE2
DGE3
DGE4
DGE5
DGE6
DGE7

DBE0
DBE1
DBE2
DBE3
DBE4
DBE5
DBE6
DBE7

DRO0
DRO1
DRO2
DRO3
DRO4
DRO5
DRO6
DRO7

DGO0
DGO1
DGO2
DGO3
DGO4
DGO5
DGO6
DGO7

DBO0
DBO1
DBO2
DBO3
DBO4
DBO5
DBO6
DBO7

47R

I448

F390

F391

NVM_SCL

3435

SCR_RED(0)
SCR_RED(1)
SCR_RED(2)
SCR_RED(3)
SCR_RED(4)
SCR_RED(5)
SCR_RED(6)
SCR_RED(7)

SCR_GREEN(0)
SCR_GREEN(1)
SCR_GREEN(2)
SCR_GREEN(3)
SCR_GREEN(4)
SCR_GREEN(5)
SCR_GREEN(6)
SCR_GREEN(7)

SCR_BLUE(0)
SCR_BLUE(1)
SCR_BLUE(2)
SCR_BLUE(3)
SCR_BLUE(4)
SCR_BLUE(5)
SCR_BLUE(6)
SCR_BLUE(7)

I386

NVM_SCL

J17

C20

DVS

D18

DHS

N19

DEN

V19
Y20
R16
U19
R18

W20

V20
U20

T19

T20
R19
R20
M18
P18
P19
P20

M17
N20
M20

L17
M19
K17

L19

L20

K19
K20
K18

J20

J18

J19
H20
H19

H18
H17
G20
G19
G18

F20

F19

F18

E20
E19
E18

F17
D20
D19
D16
D17

3415

7407-1

PW181

+3V3PW

M5

M16

VIO13

VIO14

GND56

GND57

U14

A10
B9
A9
C10
B10

E4
C3
B1
F4
C2
C1
D3
D2

C11
B12
B11
A8
B8
C8
A7
B7

B18
A20
B17
A19
B16
A17
A16
A15

A6
C7
B6
A5
D7
B5
C6
A4

C13
B15
A14
B14
A13
C12
B13
A12

C18
E17
C17
B19
E16
C16
C15
D14

VIO15

GND58

100n

2421

R6R7R8

VIO16

GND59

Y7

GCLK
GPEN
GVS
GHS
GSOG

GRE0
GRE1
GRE2
GRE3
GRE4
GRE5
GRE6
GRE7

GGE0
GGE1
GGE2
GGE3
GGE4
GGE5
GGE6
GGE7

GBE0
GBE1
GBE2
GBE3
GBE4
GBE5
GBE6
GBE7

GRO0
GRO1
GRO2
GRO3
GRO4
GRO5
GRO6
GRO7

GGO0
GGO1
GGO2
GGO3
GGO4
GGO5
GGO6
GGO7

GBO0
GBO1
GBO2
GBO3
GBO4
GBO5
GBO6
GBO7

+3V3PW

VIO17

VIO18

T8

100n

2423

VIO19

GFBK

GREF
GBLKSPL
GCOAST

GHSFOUT

A11
D10
C14

A18

C9

CLK_EMG

DE_EMG

V_EMG
H_EMG

Y(0:7)

UV(0:7)

GFBK

GBLKSPL

GCOAST

Y(0:7)

UV(0:7)

10 11 12 13 14

SCR_DCLK
SCR_VSYNC
SCR_HSYNC

SCR_DEN

3406

4K7

100R

I395

2406

SCR_RED(0:7)

SCR_RED(0:7)

SCR_GREEN(0:7)

SCR_GREEN(0:7)

SCR_BLUE(0:7)

SCR_BLUE(0:7)

2408

7405
M24C32

1

E0

2

E1

3

E2

6

SCL

7

WC_

NVM_WC

18p

NVM_WC

SCR_DCLK
SCR_VSYNC
SCR_HSYNC

SCR_DEN

+3V3PW

5408

100MHZ

100n

3V3

NVM_SDA

F395

8

VCC

5

SDA

I399

VSS

4

E_14780_127.eps

070704

I390

3408

3416

NVM_SDA

4K7

100R

1410 G4
1412 D8
2405 A1
2406 G13
2408 E14
2409 E2
2411 F8
2412 H8
2413 H8
2414 H9
2415 F8
2416 H9

A

2417 H9
2418 H9
2419 H9
2420 H9
2421 H10
2423 H10
2431 H5
2432 H6
2433 H6
2434 H6
2435 H6
2436 H7
2437 H7
2438 H7

B

2439 H7
2440 H7
2441 H7
2443 H8
2444 H8
2445 H8
2446 D3
2447 H5
2448 G8
3405 D6
3406 F13

C

3407 E5
3408 F14
3409 E6
3410 E5
3411 E6
3412 A8
3413 C5
3414 C5
3415 F13
3416 F14
3420 D5
3422 C5

D

3423 C5
3425 E6
3426 C5
3427 B3
3428 B2
3434 A7
3435 A13
3436 G3
3437 G4
3438 H3
3440 H4
3441 H4

E

3444 D4
3445 D4
3447 C5
3448 D5
3449 C7
3450 C7
3451 C7
3452 C7
3455 E4
3456 D6
4411 C7

F

4412 C7
5405 A1
5406 E2
5408 E14
5411 D4
6405 H4
7405 F14
7406 A2
7407-1 A10
7407-2 E12
7407-3 A12
7407-4 B4

G

7407-5 H5
7409 E2
7411 D4
F386 A7
F389 C5
F390 A13
F391 A13
F392 D5
F393 G3
F394 G4
F395 F14
F396 B5

H

F397 B5
F398 B5
F399 B5
F400 B5
F401 B5
F402 B5
F403 B5
F404 B5
F405 B5
F406 B5
F407 B5

I

F408 B6
F409 B6
F410 B6
F411 B6
F412 B6
F413 B6
F414 B6
F415 B6
F416 E7
F417 B6
F418 B6

F419 B6
F420 B7
F421 B7
F422 B7
F423 B7
F424 B7
F425 B7
F426 B7
F427 B7
F486 D7
I386 F13
I387 D3
I389 E4
I390 F14
I395 F13
I398 A1
I399 G14
I400 C4
I401 C4
I409 A3
I410 B3
I411 B2
I416 A7
I436 E2
I448 A13
I449 G3
I450 H4
I451 H3

LCoS MSB: Scaler 3

A

B

C

3497

D

PGOOD

E

F

G

H

I

I491

3V

2502

10K

100n

3511

+1V5

+3V3

4K7

I489

3512

7490
BC847BW

0V7

4K7

+1V5

5486

100MHZ

Circuit Diagrams and PWB Layouts

SCALER - 3

F530

+9VA+9VA

F528

3498

2494

F531

3V3

10K

I490

2497

4u7

0V

F534
F535

F490

7491
BC847BW

100MHZ

4u7

3999

1K0

3489

4R7

5488

+9VA

3499

I495

3500

+3V3PW

F532

150R

150R
I496

2495

1V5

F533

4u7

1V5

2V5

1

K

A

3

TS2431

7494

R

F499

F511

2

F529

I497

2V5

+1V5PW_PLL

+1V5PW

2493

+2V5PW

1u0

RS232_SCALER_OTC

TXD_PW

RXD_PW

EN 41EM8E 7.

4484

3V3

RES

REF1410

F481
F483
F485
F487
F489
F492
F494
F496
F498
F500
F502
F504
F505
F506
F508

F513
F515
F516
F518

F520
F522

F525
F527

I479

3485

5V

3488

0V6

3505

3K3

3507

3K3

+5VA

10K

I498

+3V3

470K

+3V3

+3V3

+3V3

4485

7484

PMBF170

3484

F471

+3V3

3486

F473

3V3

7486

BC847BW

F480

A(2)

F482

A(4)

F484

A(6)

F428
F488

A(9)

F491

A(11) A(10)

F493

+3V3

F495

A(12)

F497

A(14) A(13)

+3V3

F501

A(17) A(16)

F503

A(19) A(18)

BOOTWE

F507

ROMOE

F509

F512

D(15) D(7)

F514

D(14) D(6)

F517

D(5)

F519

D(4)

F521

D(3) D(10)

F523

D(2)

F524

D(9)

F526

D(8) D(0)

100K

3V3

4K7

I478

I481

3492

1K

2492

18p

RES

1486
FTR

1
3
5
78

9
11 12
13 14
15 16
17 18
19
21 22
23 24
25 26
27 28
29
31 32
33 34
35 36
37 38
39
41 42
43 44
45 46
47 48
49
51 52
53 54
55 56
57 58
59

2
4
6

10

20

30

40

50

60

3487

+3V3

0V

10K

7487
BC847BW

3490

33K

BAT54 COL

6485

3506

3K3

3508

3K3

+3V3

0V

I499

A(1)

A(3)

A(5)

A(7)

A(8)

+3V3

A(15)

ROMWE

D(13)

D(12)

D(11)

D(1)

A(0:19)

D(0:15)

A(0:19)
+3V3
+3V3

ROMWE

D(0:15)

TXD_MSB

RXD_MSB

A

B

C

D

E

F

G

H

1486 E7
2492 C7
2493 D5
2494 H2
2495 G3
2497 G2
2502 D1
3484 B7
3485 B8
3486 C6
3487 C7
3488 C8
3489 F3
3490 C8
3492 C7
3497 D1
3498 D2
3499 C3
3500 D3
3505 F8
3506 F8
3507 F8
3508 G8
3511 D2
3512 D2
3999 B3
4484 A7
4485 A7
5486 H2
5488 F3
6485 C8
7484 A7
7486 C7
7487 C8
7490 D2
7491 D3
7494 D4
F428 E6
F471 B6
F473 C6
F480 E6
F481 E8
F482 E6
F483 E8
F484 E6
F485 E8
F487 E8
F488 E6
F489 E8
F490 H3
F491 E6
F492 E8
F493 F6
F494 F8
F495 F6
F496 F8
F497 F6
F498 F8
F499 F4
F500 F8
F501 F6
F502 F8
F503 F6
F504 F8
F505 F8
F506 G8
F507 G6
F508 G8
F509 G7
F511 F4
F512 G6
F513 G8
F514 G6
F515 G8
F516 G8
F517 G6
F518 G8
F519 H6
F520 H8
F521 H6
F522 H8
F523 H7
F524 H6
F525 H8
F526 H6
F527 H8
F528 F2
F529 D4
F530 B2
F531 B2
F532 B3
F533 B3
F534 G3
F535 G3
I478 C7
I479 C8
I481 C7
I489 D2
I490 D3
I491 D1
I495 C3
I496 D3
I497 D4
I498 B8
I499 C9

I

13123456789101112

3122 359 1016.3

12345678910111213

E_14780_128.eps

070704

LCoS MSB: LVDS Receiver

12 4

A

B

C

D

E

F

G

LVDS_PWR_DOWN_n

1100

FMN

Circuit Diagrams and PWB Layouts

3

5678910

LVDS - RECEIVER

F540

2559

RES

0p47

5536

100MHZ

2548

2558
RES

0p47

1n

1502

2535

2550

3543
47R

DLW21S

2557
RES

+3V3

5539

+3V3PLL_TMDS

LVDS_PWR_DOWN_n

3540

47R

DLW21S

1505

0p47

2564
RES

F545

1

F546

2

F548

3

4

F549

5

F550

6

7

F551

8

F552

9

10

F553

11

F554

12

13

F555

14

F556

15

16

2563

RES

0p47

2562
RES

0p47

3541
47R

DLW21S

1504

2561

RES

0p47

2560
RES

0V

0p47

F544

100MHZ

3542

47R

DLW21S

1503

1u

100n

0p47

2536

2555

RES

1n

0p47

EN 42EM8E 7.

3544

47R

DLW21S

1501

100n

2538

7537

DS90CF386MTD

25

PWR-DWN

17

RXCLKIN-

18

RXCLKIN+

9

RXIN0-

10

RXIN0+

11

RXIN1-

12

RXIN1+

15

RXIN2-

16

RXIN2+

19

RXIN3-

20

RXIN3+

0p47

2556

RES

F541

2539

3V3

3V3

3V3

23

13

LVDS-VCC

31 40 48 56

PLL-VCC

GND LVDS-GND

4 28 36 44 52 8 14 21

100n

VCC

2540

100n

2541

100n

2542

100n

5535

100MHZ

1u

2543

RXCLKOUT

RXOUT10
RXOUT11
RXOUT12
RXOUT13
RXOUT14
RXOUT15
RXOUT16
RXOUT17
RXOUT18
RXOUT19
RXOUT20
RXOUT21
RXOUT22
RXOUT23
RXOUT24
RXOUT25
RXOUT26
RXOUT27

PLL-GND122PLL-GND2

24

+3V3

RXOUT0
RXOUT1
RXOUT2
RXOUT3
RXOUT4
RXOUT5
RXOUT6
RXOUT7
RXOUT8
RXOUT9

11 12

A

B

26
27
29
30
32
33
34
35
37
38
39
41
42
43
45
46
47
49
50
51
53
54
55
1
2
3
5
6
7

3539-D

45

47R

3535-D

45

47R

36

3535-B

27

47R

18

3536-D

45

47R

36

3536-B

27

47R

18

3537-A

81

47R

72

3537-C

63

47R

54

3538-A

81

47R

72

3538-C

63

47R

54

F564

3539-C

36

47R

3539-B

27

47R

3535-C

47R

3535-A

47R

3536-C

47R

3536-A

47R

3537-B

47R

3537-D

47R

3538-B

47R

3538-D

47R

F565

3539-A

18

47R

F558

F559

F562

F557

Y(0)

Y(1)

Y(2)

Y(3)

Y(4)

Y(5)

Y(6)

Y(7)

UV(0)

UV(1)

UV(2)

UV(3)

UV(4)

UV(5)

UV(6)

UV(7)

V_EMG

H_EMG

CLK_EMG

DE_EMG

Y(0:7)

Y(0:7)

UV(0:7)

UV(0:7)

V_EMG
H_EMG

CLK_EMG

DE_EMG

C

D

E

F

1100 E2
1501 F6
1502 E5
1503 E4
1504 E3
1505 E2
2535 B6
2536 B6
2538 B7
2539 B8
2540 B8
2541 B8
2542 B8
2543 B9
2548 C5
2550 C6
2555 F6
2556 F7
2557 E6
2558 E5
2559 E5
2560 E4
2561 E4
2562 E3
2563 E3
2564 E2
3535-A D11
3535-B C11
3535-C C11
3535-D C11
3536-A D11
3536-B D11
3536-C D11
3536-D D11
3537-A E11
3537-B E11
3537-C E11
3537-D E11
3538-A E11
3538-B E11
3538-C E11
3538-D F11
3539-A G11
3539-B G11
3539-C F10
3539-D F10
3540 D3
3541 D4
3542 E5
3543 E5
3544 E6
5535 A9
5536 B5
5539 B4
7537 C7
F540 B6
F541 B8
F544 B5
F545 E2
F546 E2
F548 E2
F549 F2
F550 F2
F551 F2
F552 F2
F553 G2
F554 G2
F555 G2
F556 G2
F557 G12
F558 C11
F559 E12
F562 G12
F564 F11
F565 F11

G

H

3122 359 1016.3

1

H

E_14780_129.eps

2

3

45

67

8 101112

9

070704

LCoS MSB: HD Sync Slicer

123

A

B

C

I582

2586

4u7

I585

D

E

F

G

H

Y_HD_SYNC

3583

100R

2V41

3582

3585

Circuit Diagrams and PWB Layouts

HD SYNC. SLICER

I590

3V3

F587

22K

22K

I586

7582
BC847BW

3586

1V76

1K

3584

22R

I583

2587
100n

1V9

3589

680K

I584

3593

1K

3V0

2598

100p

3590

560R

7583
LM1881M

1

CSYNC

2

VIN

3

VSYNC

4

GND

I593

EN 43EM8E 7.

2582 B7
2583 C6
2584 C5
2585 C5
2586 D1
2587 D3
2588 D5
2590 E8
2593 F11
2594 F8
2595 F6
2596 F7
2598 G4
2599 G5
2600 H11
3581 B6
3582 C2
3583 D1
3584 D2
3585 D2
3586 D2
3587 D8
3588 D5
3589 C3
3590 B4
3591 C4
3593 D3
3595 G5
3597 G5
3598 G4
3599 G5
3603 G5
3604 G10
3605 H11
3606 H12
3607 G12
4580 F11
5581 B8
5582 C5
5583 F11
5584 F8
5585 F6
6581 G10
7581-A B7
7581-B D7
7582 D2
7583 C4
7589-A A11
7589-B B11
7589-C G11
7592 F6
7593-B G9
7593-C G9
7593-D G7
7594 H12
F581 B4
F582 C8
F583 B7
F584 C6
F585 C4
F587 C3
F589 F11
F590 F8
F591 F5
F592 G10
F593 G7
F594 G10
F595 G12
F596 G11
I581 C6
I582 D1
I583 D3
I584 D3
I585 D2
I586 D2
I587 D5
I588 D8
I590 B3
I593 G4
I595 G5
I596 G5
I602 G8
I603 G5
I604 G10

2584

100n

47K

I595

2K2

47K

I587

3588

100n

F591

2585

1V2

330K

3597

1K0

5

5582

100MHZ

22u

2599

I596

I603

100n

2V1

2V1

4V7

F584

+5VA

5

6

I581

2V6

+5VA

5585

7592

TL3016CD

LATCH-ENABLE
IN+2

IN-3

VCC-

4

3581

4V8

3V0

2583

100MHZ

4V9

1

VCC+

GND

6

78910

F583

4V9

7581-A
74HCT4538

4K7

4V8

270p

7581-B

74HCT4538

10 14

2V4

2595

4V8

Q7

0V

Q_ 8

16

1

CX
RCX

4

>

1

57
3

R

8

16

CX

RCX

>

1

R

8

22u

2596

100n

F593

100n

2582

F582

62

0V15

4V7

15

12
119
13

74LVC14

3587

I588

3V0
0V1

2590

F590

7593-D

14

98

7

5581

100MHZ

1%
47K

2%

470p

+3V3

5584

2594

0V

100MHZ

100n

+5VA

7593-B

74LVC14

34

I602

11 12

+5VSWITCH

7589-A

74HCT4053D

Y0

12

Y1

13

Vss

8

7589-B

74HCT4053D

Y0

2

Y1

115

Vss

8

Vee

7

Vee

7

E

6

E

6

16

Vdd

S

11

Z

14

+5VSWITCH

16

Vdd

S

10

Z

A

B

C

D

E

+5VA

5583

100MHZ

+5VSWITCH

F589

F

100n

2593

4580

RES

F592

F594

I604

0V

7589-C

74HCT4053D

5

3

6581

BAS316

Y0

Y1

E

Vee

Vss

6

7

8

TRI_LEVEL_PRESENT

16

Vdd

2600

S

Z

F596

100n

9

0V

3607

RES

BC847BW
7594

F595

0V1

3606

10K

C_LM1881

TRI_LEVEL_SEL

G

H

4

47K

3605

7593-C

74LVC14

14

7

14

56

7

H_BILEVEL

0V13V2

H_TRILEVEL

3604

100R

4

F581

3591

O|E-FI

RSET

BG|BP

3598
100R

1K

VS

F585

8

4V9

7
6
5

V_LM1881

2588

3595

3599

3603

3122 359 1017.3

1234

E_14780_130.eps

070704

56789101112

LCoS MSB: HD2 + VGA Input

12

A

B

C

D

E

F

G

H

I

Circuit Diagrams and PWB Layouts

345678

HD2 + VGA INPUT

0311-6

YKC21-8563N

YKC21-8563N

YKC21-8563N

SUB-D

0311-4

0310

GREEN2

0311-5

BLUE2

RED2

1617

F610

12
9

F611

11
8

F612
F613

10
7

VGA_SOUND_R

VGA_SOUND_L

F623

1

F624

2

F625

3
4

F628

5
6
7
8

9
10
11

F630

12

F631

13

F632

14

F633

15

2669

2664

10p

10p

2633

I655

2665

2670

22p

2634

VGA_SOUND_R

VGA_SOUND_L

6633

BZX384-C33

I656

6635

BZX384-C33

10p

2666

10p

10p

2671

22p

6634

6636

2635

10p

2672

22p

3649

100R

3651

100R

BZX384-C33

BZX384-C33

0V

6637

BZX384-C6V8

10p

2659

4V9

6640

0V

6630

BZX384-C6V8

I642

I644

2660

100p

6638

BZX384-C6V8

4650

4652

100p

0V

BZX384-C6V8

EN 44EM8E 7.

0V

6631

3653

0V

6641

BZX384-C6V8

33K

3654

0V

6639

BZX384-C6V8

BZX384-C6V8

0V

6632

33K

3666

0V

6642

3634

BZX384-C6V8

75R

75R

3667

3668

BZX384-C6V8

75R

75R

1V9

6643

75R

3635

3656
100R

3669

3677

470R

BZX384-C6V8

4K7

3636

3655

100R

3657

100R

3673

100R

75R

R_RGB

L_RGB

3676
470R

3630
100R

3631
100R

3633
100R

7633
M24C02

I664

4V8

I657

I658

I659

910111213

I610

Y_HD2

I611

PB_HD2

I614

PR_HD2

R_VGA
G_VGA

B_VGA

I671

I672

F626
8

VCC

5

SDA

VSS

4

H_VGA
V_VGA

SCL

WC_

1

E0

2

E1

3

E2

6
7

4V8
5V

3678

3675

10K

I665

F629

1R

3674

100R

3670

4K7

2667

5633

100MHZ

100n

F627

+5VA

A

B

C

D

E

G

H

0310 F4
0311-4 B4
0311-5 B4
0311-6 A4
2633 C5
2634 C5
2635 C6
2659 E6
2660 E6
2664 G5
2665 G5
2666 G5
2667 G11
2669 I5
2670 I5
2671 I5
2672 I6
3630 A8
3631 B8
3633 B8
3634 C8
3635 C8
3636 C8
3649 D6
3651 E6
3653 E7
3654 E7
3655 F8
3656 F8
3657 G8
3666 G7
3667 G7
3668 G8
3669 G8
3670 G10
3673 G8
3674 G10
3675 H10
3676 H8
3677 H8
3678 G10
4650 D7
4652 E7
5633 G11
6630 C6
6631 C7
6632 C7
6633 E5
6634 E5
6635 E5
6636 E5
6637 G6
6638 G6
6639 G7
6640 I6
6641 I7
6642 I7
6643 I8
7633 G8
F610 A5
F611 B5
F612 B5
F613 B5
F623 F4
F624 F4
F625 G4
F626 G9
F627 G11

F

F628 G4
F629 H10
F630 H4
F631 H4
F632 H4
F633 H4
I610 A9
I611 B9
I614 B9
I642 D6
I644 E6
I655 E5
I656 E5
I657 F9
I658 F9
I659 G9
I664 G8
I665 G10
I671 H9
I672 H9

I

3122 359 1017.3

12

E_14780_131.eps

070704

3

45678910111213

LCoS MSB: HD1 - 2 Selector

12

A

B

C

D

0311-1

F713

RED1

0311-3

GREEN1

0311-2

BLUE1

+5VSW

4

F714

1

F711

6

3

F712

5

2

22p

2725

2726

F710

5710

100MHZ

+5VSW

5711

100MHZ

G

YKC21-8563N

E

YKC21-8563N

YKC21-8563N

F

Circuit Diagrams and PWB Layouts

345

HD1 - 2 SELECTOR

0V2

0V

22p

2714

2727

22u

22p

2713

100n

2730

6710

BZX384-C6V8

100n

6711

BZX384-C6V8

F716

F717

0V

6712

+5VCC1

+5VCC2

3720

BZX384-C6V8

75R

3721

75R

3722

75R

100R

3717
100R

3718
100R

PR_HD2

Y_HD2

PB_HD2

47u

47u

47u

I718

47u

I721

47u

I723

2FHIN1_2FHIN2

EN 45EM8E 7.

6789

2710

16V

2712

16V

2716

16V

2718

16V

2720

16V

2722

16V47u

+5VCC

I711

I713

I715

I719

I722

I724

3727
10K

3725
10K

I732

3726

+5VCC1

7710

M52758FP

1

36

VCC-R

19

2

11

5

13

7

16

8

17

9

18

7725
BC847BW

SWITCH

IN1_R

IN2_R

IN1_G

IN2_G

IN1_B

IN2_B

IN1_H

IN2_H

IN1_V

IN2_V

101215

4V8

1V3
1V7

1V3
1V7

1V3
1V7

I731

0V

10K

+5VCC3

+5VCC2

6

3

31

VCC-G VCC-B

SYNC_ON_G

GND

262934

20

28

OUT_R

OUT_G

OUT_B

OUT_H

OUT_V

VCC

NC

+5VCC

24

4
14
23
32
33

I716

I717

I720

3713

10R

3714

10R

3716

10R

2V0

35

2V0

30

25

2V0

27

22

21

10 11 12 13

+5VSW

5715

100MHZ

2715

7715
BC847BW

I712

1V4

3711

470R

7716
BC847BW

I725

1V4

3731

470R

7717
BC847BW

I729

1V4

3733

470R

100n

3710

47R

3730

47R3715

3732

47R

F715

F726

4716

RES

F727

4717

RES

F728

4718

RES

PR_HD

Y_HD

Y_HD_SYNC

PB_HD

A

B

C

D

E

G

0311-1 D1
0311-2 E1
0311-3 E1
2710 C6
2712 D6
2713 G2
2714 G2
2715 B12
2716 D6
2718 E6
2720 E6
2722 F6
2724 I2
2725 F2
2726 F2
2727 F2
2730 G3
2732 H2
2733 H2
2734 H3
2735 H3
2736 H2
2737 H2
3710 C13
3711 C12
3713 D9
3714 D9
3715 E5
3716 D9
3717 E5
3718 F5
3720 F4
3721 F4
3722 F5
3725 F6
3726 G7
3727 F6
3730 D13
3731 E12
3732 F13
3733 G12
4716 C12
4717 D12
4718 F12
5710 G2
5711 G2
5712 H2
5715 A12
5724 I2
6710 F3
6711 F3
6712 F4
7710 C7
7715 B12
7716 D12
7717 F12
7725 F7
F710 G1
F711 E1
F712 F1
F713 E1
F714 E1
F715 B11
F716 G3
F717 G3
F718 H3
F726 B11
F727 D11
F728 F11

F

I711 C6
I712 C12
I713 D6
I715 D6
I716 D9
I717 D9
I718 E5
I719 E6
I720 D9
I721 E5
I722 E6
I723 F5
I724 F6
I725 D12
I729 F12
I731 F7
I732 F7

H

I

3122 359 1017.3

12345678910

5712

100MHZ

5724

100MHZ

2732

2736

22u

22u

2733

2737

2724

100n

100n

100n

2734

2735

100n

100n

F718

+5VCC3

+5VCC

E_14780_132.eps

11 12 13

H

I

120704

LCoS MSB: DVI Receiver

123456

A

SDA_DDC

B

C

F755
F754

0305

YKF45-7003

1
2

D

10
11
12
13
14
15

E

16
17
18
19
20
21
22
23
24
2526

F

G

H

I

3122 359 1018.3

F751

3
4

F750

5

SCL_DDC

6

SDA_DDC

7
8

F749

9

F748

F752

F746

470p

2775

F744
F743

F741
F740

0308-3

YKC21-8564N

5
6

WHITE2

0308-4

YKC21-8564N

7
8

RED2

0308-2

YKC21-8564N

F615

3
4

RED1

0308-1

YKC21-8564N

F617

1

F618

2

WHITE1

123456

Circuit Diagrams and PWB Layouts

DVI RECEIVER

I769

6761

SCL_DDC

BAV99

6753

BAV99

6749

BAV99

6747

BAV99

6745

F765

F767

6755

BAS316

BZX384-C6V8

10p

2767

10p

2764

+3V3

+3V3

+3V3

F766

VGA_SOUND_R

VGA_SOUND_L

5747

100MHZ

BAV99

6754

BAV99

6750

BAV99

6748

BAV99

6746

3767

6752

6751

6757

I812

6759

4K7

3768
100R

BZX384-C6V8

BZX384-C6V8

+3V3+3V3

+3V3

+3V3

+3V3

BZX384-C33

I813

BZX384-C33

7747
M24C02

I780

6758

6760

F757

5

1

1703
4

1702 1
4

1

1701
4

4

1700
1

3777

100R

3779

100R

BZX384-C33

BZX384-C33

SDA

VSS

4

2771

8

VCC

2

3

2

3

2

3

3

2

I798

I805

DLW21S

2788

DLW21S

2786

DLW21S

2784

DLW21S

2782

100p

2772

WC_

0p56

0p56

0p56

0p56

SCL

RES

E0
E1
E2

RES

RES

RES

100p

4778

4780

EN 46EM8E 7.

7

+3V3DDVI

I782

5749

6756

1

3800

2
3

I775

6

F760

7

3799

0p56

2789

RES

0p56

2787

RESRES

2785

0p56

RES

0p56

2783

100MHZ

4K7

10K

100n

2759

3797

3798
100R

1R0

RES

7749

PMBF170

SCL_DDC

7750

PMBF170

SDA_DDC

I799

L_D1

BAS316

+3V3DDVI

3769

+3V3DDVI

3770

+5VA

10K

I755

I756

10K

3760

100R

3761

100R

RES

3795

4795

4K7
RES

I814

SiI161

3745

4745

I740

4K7

RES

3793

4793

I752

4K7

RES

3794

4794

I771

4K7
RES

RES

3792

4752

4K7

SiI159

SiI169

+3V3ADVI

+3V3

I807

3781

33K

3782

R_D1

33K

5751

2766

100MHZ

I795

1u

2769

100n

2770

100n

2773

F764

+3V3ADVI

100n

789

8 9 10 11 12 13 14

4748

4747

+3V3ADVI

I816

+3V3DDVI

4K7

3801

I789

4749

4u7

2790

No HDCP

RES

I791

TRISTATE_DVI_n

DVI_PWR_DOWN_n

3790

390R

1%

I748

99

9

7

4

1

2

100

3

96

80

81

85

86

90

91

93

94

7746

SII169

RESERVED

PDO

STAG_OUT

PIXS

RESET

PD

SCL

SDA

EXT_RES

+

-

+

-

+

-

+

-

I784

828488

AVCC

CONFIG

RX2

RX1

RX0

RXC

AGND PGND

7983878992

1n

+3V3ADVI

97

95

PVCC OVCC

PanelLink

Receiver

98

F770

5780

100MHZ

10u

2781

2780

1829435778

Φ

CONTROLS

OGND GND

1928455876

+3V3DDVI

63867

VCC

BLUE EVEN 0

QE

QE

QE

BLUE ODD

QO

QO

QO

HSYNCH

VSYNCH

CTRL

5

+3V3PLL_DVI

+3V3DDVI

7
8GREEN EVEN

15
16RED EVEN

23

0

7
8GREEN ODD

15
16RED ODD

23

ODCK

DE

SCDT

1

2

3

39

68

10
11

81

12
13

6

14

8

15
16
17
20
21

8

22
23
24
25
26

6

27
30
31
32
33
34
35
36

6

37

49
50

81

51
52

63

53

81

54
55
56
59

81

60
61
62

63

63
64
65
66

63

69

81

70
71
72

63

73

81

74
75
77

I804

44

48

47

8

40

41

42

47R

3746-A

47R

3746-C

3

47R

3747-A

1

47R

3747-C6

3

47R

3748-A

1

47R

3748-C6

3

47R

3749-A8

1

47R

3749-C

3

47R

3750-A8

1

47R

3750-C6

3

47R

3751-A8

1

47R

3751-C

3

47R

3752-A

47R

3752-C

47R

3753-A

47R

3753-C63

47R

3754-A

47R

3754-C

3755-A81

47R

3755-C

47R

3756-A

47R

3756-C

47R

3757-A

47R

3757-C63

3758-D

45

47R

46

3758-A

18

47R

F861

F817

47R
3746-B72

47R

5

3746-D

4

47R
3747-B72

47R

5

3747-D

4

47R
3748-B72

47R

5

4

3748-D

47R

7

3749-B

2

47R

3749-D54

47R
3750-B72
47R

3750-D54

47R

7

3751-B

2

47R

5

3751-D

4

47R

3752-B7

2

47R

3752-D

54

47R

3753-B

72

47R

54

3753-D

47R

3754-B72

47R

5447R

3754-D

47R

3755-B72

47R

54

3755-D

47R

3756-B

72

47R

54

3756-D

47R

72

3757-B

47R

3757-D5

4

3758-C

36

47R

3758-B

27

47R

4K7

3765

F818

3764

100R

4765

3762

4762

F783
F782

F780
F779

F777
F776

F792
F791

F789
F788

F786
F785

4K7

3763

100R

F794

F796

F793

F795

3759

F759

4K7

I777
I776

GBE(0)
GBE(1)
GBE(2)
GBE(3)
GBE(4)
GBE(5)
GBE(6)
GBE(7)
GGE(0)
GGE(1)
GGE(2)
GGE(3)
GGE(4)
GGE(5)
GGE(6)
GGE(7)
GRE(0)
GRE(1)
GRE(2)
GRE(3)
GRE(4)
GRE(5)
GRE(6)
GRE(7)

GBO(0)
GBO(1)
GBO(2)
GBO(3)
GBO(4)
GBO(5)
GBO(6)

GBO(7)
GGO(0)
GGO(1)
GGO(2)
GGO(3)
GGO(4)
GGO(5)
GGO(6)
GGO(7)
GRO(0)
GRO(1)
GRO(2)
GRO(3)
GRO(4)
GRO(5)
GRO(6)
GRO(7)

AD_DVI_CLK
AD_DVI_DE
AD_DVI_HS
AD_DVI_VS

7

WC

6

SCL

5

+3V3

5746

2752

100MHZ

1u

2753

100n

2754

100n

2755

100n

2756

100n

2757

100n

2760

100n

2761

100n

2762

F753

+3V3DDVI

100n

10 11 12 13 14

F756

Φ

(512x8)

EEPROM

GBE(2)

GGE(2)

GRE(2)

GBO(2)

GGO(2)

GRO(2)

+3V3DDVI

7748
M24C04-WMN6

8

0

ADR

1
2SDA

4

E_14780_133.eps

I770

5748

2758

F781

F778

F775

F790

F787

F784

100MHZ

100n

1
2
3

GBE(0:7)

GGE(0:7)

GRE(0:7)

GBO(0:7)

GGO(0:7)

GRO(0:7)

10K

3766

I819

120704

0305 D1
0308-1 I2
0308-2 I2
0308-3 G2
0308-4 H2
1700 G3
1701 F3
1702 E3
1703 C3
2752 I8
2753 I8
2754 I8

A

2755 I9
2756 I9
2757 I9
2758 F14
2759 A5
2760 I9
2761 I10
2762 I10
2764 C2
2766 I6
2767 B2
2769 I6
2770 I6

B

2771 I4
2772 I4
2773 I6
2775 E2
2780 A10
2781 A10
2782 G4
2783 G4
2784 F4
2785 F4
2786 E4
2787 E4

C

2788 D4
2789 D4
2790 A8
3745 A7
3746-A B12
3746-B B12
3746-C B12
3746-D B12
3747-A B12
3747-B B12
3747-C B12
3747-D B12

D

3748-A B12
3748-B B12
3748-C B12
3748-D C12
3749-A C12
3749-B C12
3749-C C12
3749-D C12
3750-A C12
3750-B C12
3750-C C12

E

3750-D C12
3751-A C12
3751-B C12
3751-C C12
3751-D C12
3752-A D12
3752-B D12
3752-C D12
3752-D D12
3753-A D12
3753-B D12
3753-C D12

F

3753-D D12
3754-A D12
3754-B D12
3754-C D12
3754-D D12
3755-A D12
3755-B D12
3755-C E12
3755-D E12
3756-A E12
3756-B E12
3756-C E12

G

3756-D E12
3757-A E12
3757-B E12
3757-C E12
3757-D E12
3758-A F11
3758-B F12
3758-C E12
3758-D E11
3759 F13
3760 C6

H

3761 C6
3762 F12
3763 G13
3764 G12
3765 F12
3766 F14
3767 A3
3768 B3
3769 B6
3770 C6
3777 H3
3779 H3
3781 I4

I

3782 I5
3790 C8
3792 A7
3793 A7
3794 A7
3795 A6
3797 A5
3798 B5
3799 B5
3800 A5
3801 A8

4745 C6
4747 A9
4748 A9
4749 A8
4752 C7
4762 G12
4765 G12
4778 H4
4780 H4
4793 C7
4794 C7
4795 C6
5746 H8
5747 A3
5748 F14
5749 A5
5751 H6
5780 A10
6745 G2
6746 G3
6747 F2
6748 F3
6749 E2
6750 E3
6751 C3
6752 B3
6753 D2
6754 D3
6755 A2
6756 A6
6757 H3
6758 H3
6759 I3
6760 I3
6761 A2
7746 A9
7747 A3
7748 G14
7749 B5
7750 C5
F615 I2
F617 I2
F618 I2
F740 G1
F741 F1
F743 F1
F744 F1
F746 E2
F748 E1
F749 D1
F750 D1
F751 D1
F752 E1
F753 H10
F754 C1
F755 C1
F756 F13
F757 A3
F759 G13
F760 B4
F764 H7
F765 H2
F766 H2
F767 H2
F770 G10
F775 C14
F776 C13
F777 C13
F778 C14
F779 B13
F780 B13
F781 B14
F782 B13
F783 B13
F784 E14
F785 E13
F786 E13
F787 D14
F788 D13
F789 D13
F790 D14
F791 D13
F792 C13
F793 E13
F794 E13
F795 F13
F796 F13
F817 G12
F818 G12
F861 F11
I740 B7
I748 C8
I752 B7
I755 B6
I756 C6
I769 A2
I770 E14
I771 C7
I775 B4
I776 G13
I777 G13
I780 A3
I782 A5
I784 A9
I789 A8
I791 B8
I795 H6
I798 H4
I799 H5
I804 E11
I805 H4
I807 H5
I812 I3
I813 I3
I814 C6
I816 A10
I819 G14

LCoS MSB: DC-Converter

123456

ROW_A

0300-1

A

B

C

D

E

F

G

H

3122 359 1019.3

A1
A2
A3
A4
A5
A6
A7
A8

F884

A9
A10
A11
A12
A13
A14
A15
A16
A17
A18
A19
A20
A21
A22
A23
A24
A25
A26
A27
A28
A29
A30
A31
A32

MT1

B10
B11
B12
B13
B14
B15
B16
B17
B18
B19
B20
B21
B22
B23
B24
B25
B26
B27
B28
B29
B30
B31
B32

B1

B2

B3

B4

B5

B6

B7

B8

B9

53319

ROW_B

0300-2

53319

MT2

F878

F879

1234

Circuit Diagrams and PWB Layouts

DC - CONVERTER

F883

F882

F881

F880

RES

RES

470p

F896

F894

F893

F891

F897

F895

F892

F890

F885

F898

2880

470p

2881

5890

22u

5892

22u

2882

4890

1890
T 2A

446

1892
T 2A

446

4892

470p

470p

2883

RES

RES

5V

12V

9V

F886

+5VA

2886

100n

F889
F899

2888

100n

2897

470p

470p

2896

56

L_D1
R_D1

SDA_SCALER
SCL_SCALER

+5VA

+12V

RES

+9VA

L_RGB
R_RGB

H_TXT

V_TXT

SDA_SLOW

SCL_SLOW
SDA_GDE
SCL_GDE

EN 47EM8E 7.

789

+9VA

1820

2823

100n

2853

100n

822267617580

1821

822267617590

10R

3821

VREF

SS

OSC

EAREF

3820

9

0V

PGOOD

Monitor

Protection & Ref

OSC

I825

3

8V8

15

VCC

OCSET

COMP

5

I820

8V9

7820

L6910

2822

100n

1

I821

4V

RES

3822

10K

2824

1n0

I822

1V2

I823

0V9

4

2

8

1V7

10R

3851

3850

100n

7850

L6910

1

4

2

8

I850

VREF

SS

OSC

EAREF

9

PGOOD

Monitor

Protection & Ref

OSC

8V8

3

15

VCC

OCSET

COMP

5

8V9

2852

I851

4V

I852

RES

3852

1V2

10K

I853

2854

0V9

1n0

1V2

I855

680R

680R

2821

2851

I870

4u7

2870

1n0

BOOT

HGATE

PHASE

LGATE

PGND

GND

VFB

NC

16

F830

1n0

BOOT

HGATE

PHASE

LGATE

PGND

GND

VFB

NC

16

F860

789

10 11 12 13 14

7870
LD1117

IN3OUT

F823

12

11

10

14

F829

13

7

6

2825

GND

2871

1n5

1

6820

2827

0V9

3826

2826

1u

12V

2

I871

BAS316

100n

2K7

I824

15n

F825
F827

F828

F826

F870

3870

120R

3871

120R

I872

3872

120R

I873

3873

120R

7830-B

SI4936ADY

4

2

3828

390R

3829

+5VSW

3

1

10K

+5VSW

56

78

7830-A

SI4936ADY

2820

3831
1K0

3830

+3V3

4u7

I831

F820

2833

I844

3832

2832

3V3

5830

22u

220n

680R

4n7

7840

LD1117D

4

IN

5
8

GND

1

3841

2830

F840

3840

120R

2840

+1V5_C

10u

4891

2

O1

3

O2

6

O3

7

O4

I840

24R

+9VA

F822

3V3

4u7

4u7

2831

6830

PRLL5819

1K

PGOOD

4u7

56

3

78

SI4936ADY

1

10K

RES

7860-A

3860

2850

3861
1K0

I861

2863

I862

3862

2862

5860

22u

220n

680R

4n7

2860

F863

F852

1V5

4u7

2861

F862

+1V5

4u7

6860

PRLL5819

6850

BAS316

F853

10V

7860-B

3856

100n

2K7

15n

I854

F855
F857

F858

F856

SI4936ADY

4

2

1K5

3858

3859

12

2857
11

10

14

F859

13

7

0V9

6

6n8

2855

2856

1K

E_14780_134.eps

10 11 12 13 14

+1V5_C+3V3

+9VA

+3V3

+1V5

120704

0300-1 A1
0300-2 F1
1820 A8
1821 B8
1890 F4
1892 F4
2820 D11
2821 D9
2822 D8
2823 E7
2824 E8
2825 F10
2826 F10
2827 E10

A

2830 E12
2831 E13
2832 F12
2833 E12
2840 B13
2850 G11
2851 G9
2852 G8
2853 H7
2854 H8
2855 I10

B

2856 I10
2857 H10
2860 H12
2861 H13
2862 I12
2863 H12
2870 A9
2871 B10
2880 B3
2881 B3
2882 B4
2883 B4

C

2886 F6
2888 G6
2896 H5
2897 H6
3820 D9
3821 D9
3822 E8
3826 F10
3828 F11
3829 F11
3830 F12
3831 F12

D

3832 F12
3840 B13
3841 B12
3850 G9
3851 G9
3852 H8
3856 I10
3858 I11
3859 I11
3860 I11
3861 I12

E

3862 I12
3870 A11
3871 B11
3872 B11
3873 C11
4890 E4
4891 B14
4892 G4
5830 E12
5860 H12
5890 F3
5892 F3

F

6820 D10
6830 E13
6850 G10
6860 H13
7820 D8
7830-A E11
7830-B E11
7840 B12
7850 G8
7860-A H11
7860-B H11
7870 A10

G

F820 D12
F822 E13
F823 E10
F825 E11
F826 F11
F827 E11
F828 E11
F829 E10
F830 F10
F840 B13
F852 H13

H

F853 H10
F855 H11
F856 I11
F857 H11
F858 H11
F859 H10
F860 I10
F862 H13
F863 H12
F870 A11
F878 G2
F879 G2

I

F880 B3
F881 B2
F882 B3
F883 B2
F884 B2
F885 F3
F886 F5
F889 F5
F890 H3
F891 H3

F892 H3
F893 H3
F894 G3
F895 G3
F896 G3
F897 G3
F898 F3
F899 F5
I820 D8
I821 E8
I822 E8
I823 E8
I824 F10
I825 D9
I831 F12
I840 B13
I844 E12
I850 G9
I851 H8
I852 H8
I853 H8
I854 I10
I855 G9
I861 I12
I862 H12
I870 A10
I871 B10
I872 B11
I873 B11

Circuit Diagrams and PWB Layouts

EN 48EM8E 7.

Thermo Sensor Panel

2001

100n

2002 F9
3001 D6
3002 E6

3006

3003

10K

-T
I001

820R

A

B

C

D

E

1201 E9
1202 E9
2001 E5

3003 F5
3004 F6
3005 E7

3006 E5
3007 E6
3008 F8

4001 F8
7001 E6
7002 E7

F001 D8
F002 E8
F003 F8

321

LCOS THERMAL SENSOR

F001

5K6

3001

I002

7002
BC847B

I003

7001
BC847B

3005

I004

3004

680R

NOTES

1. CAPACITANCE VALUES ARE IN FARADS:

2. RESISTANCE VALUES ARE IN OHMS:

3. SAFETY TRIANGLE REPRESENTS PCEC REPLA

4. FOR VALUE SEE TABLE.

100R

4001

22K

3008

m=MILI u=MICRO n=NANO p=PICO f=FEMT

R=OHM K=KILO M=MEGA G=GIGA T=TERA

*

F002

F003

3002

68K

I005

3007
1M0

I001 E5
I002 E7
I003 E7

54

100n

2002

O

CEMENT PART ONLY.

I004 E7
I005 E6

1201

PH-S

1202

PH-S

6

+5V

1

ROV_TEMP

2

GND

3

N/C

4

+5V

1

AMB_TEMP

2

GND

3

7

TO SYSTEM BD

CONN

1261

TO SYSTEM BD

CONN

1262

Layout Thermo Sensor Panel (Bottom Side)

2001 A1
2002 A1
3001 A1

A

B

C

D

E

3002 A1
3003 A1
3004 A1
3005 A1
3007 A1
3008 A1
4001 A1
7001 A1
7002 A1

3135 033 3317.2

1

2

3

Layout Thermo Sensor Panel (Top Side)

1201 A1
1202 A1
3006 A1

E_14780_092.eps

130704

54

6

7

3135 033 3317.2

E_14780_095.eps

130704

3135 033 3317.2

E_14780_094.eps

130704

Circuit Diagrams and PWB Layouts

EN 49EM8E 7.

LCoS Main Power Board

7303

2SK2886

13V9

2229

470p

NOT_USED

6203

BY229X-200

NOT_USED

6204

PBYR10100X

2235

1n0

3252

22R

11V8

S

G

I325

I212

13V9

9317

113

11

5V1

I216

I215

7304

TL431BCLP

K

111

11

BAV21

R

1K0

1K0

I229

K

A

I233

5207

10u

NOT_USED

+5VSTDBY

2239

I351

5V1

1

TL431BCLP

2365

I359

2346

100n

14

14

I375

5V1

DS

1m0 16V

5V1

0V06

7209

3353
100K

1u0

100V

QRS

REFERENCE
REGULATOR

I236

14

14

2SK2886

BC557B
7210

15

15

+15VSTDBY

1m0

2225

NOT_USED

7203

I226

5V1

2240

11V8

G

2246

2247

I358

3355

3335

100K

1m0 16V

I349

11V8

I350

1u0 100V

0V01

0

7211

BC547B

I354

22u 35V

I355

1K0

3357

8K2

3354

1K0

3356

I234

1

5V0

K

3

R

1V4

A
TL431BCLP

2

150K

3336

1

4V5

SWC

100R

2

SWE

3

0V66

TIMC

2347

4

GND

15

15

+5V2

3231

+12V

33K

35V22u

2K2

3260

3259

I356

7309

I338

I360

470p

2227

680R

PWRFAIL_STDBY

3359
180R

2366

1m010V

6308

5V2

BZX79-B5V1

BC557B

5V1

7310

0V3

I357

3K3

3358

1305

HEATSINK

1234

7308
2SJ334

4V

F317

D

G

4V5

S

1n0

2348

8V9

2351

I340

I235

22n

8R2

3350

16

12

12

I219

I225

2238

3230

33R

I232

6209

-22V8

2355

A

2V4

+9V

5317

I213

2338

1m0 25V

3m3 16V

3237

10K7

I353

I352

3253

27K

1u0100V

2265

I314

3349
0R47

+36V

100V
1u0

3331

2353

270R

10K

3342

3328

2K7

3348
100R

+22V

I337

I339

100n

2339

12

BZX79-B5V1

3255

35V22u

3351

1K0

1310

13

22K

1m0

2231

3220

5212

6202

33K

+12V

4V5

8V9

0R1

9V0

1V2

3334

2340

NOT_USED

3254

3352

I231

DCOL

8

IS

7

6

VCC

CIN_NEG

5

I361

I377

4K7

3

0V9

2K7

MC34063AP1

10n

136

13

BAV21

NOT_USED

3256

3257

5V1

R

2

6309

7307

IPK

OSC

6312

6306

BAV21

PWR_FAIL

SB360L

3343

1K8

17

17

+9V

5328
330u

17

18

18

+5VSTDBY

PWR_FAIL

PWRFAIL_STDBY

+15VSTDBY

I336

5316

10u

2349

1m0 10V

1818

19

19

5215

F310

F311

5318

+36V

5325

F320

5216

F321

5208

5217

+5V2

+9V

+3V3

+12V

+22V

+12V

+5V2

+3V3

5315

5214

5324

5306

5308

5307

5322

5327

5321

5213

5319

I309

10V

10n

2352

2345

1m0

19

19

I365

F312

F313

F323

I368

F325

F314

I369

F326

F315

F324

TO LIGHT ENGINE

F318

I370

F319

F327

F328

TO AUDIO BOARD

+3V3

E_14780_118.eps

20

TO SYSTEM BOARD

1312

B7B-EH-A

1
2
3
4
5
6
7

TO SYSTEM BOARD

1313

B8P-VH

1
2
3
4
5
6
7
8

TO SYSTEM BOARD

1314

B9P-VH

1
2
3
4
5
6
7
8
9

1315

B10P-VH

1
2
3
4
5
6
7
8
9
10

1206

0-106451-1

130704

2017

20

56

I221

3

2

I222

110

6207

CQY80NG

6

15V1

5

9V2

4

8V0

8V5

3347

10R

2356

100p

6314

BYW29EX-200

1234

P6

6315

PBYR10100X

2359

100p

NOT_USED

6316

BYW95C

I211

2362

470p

A
L
L
_
C
O
M
M
O
N

8

8

2221

470p

I214

1219

HEATSINK

22V2

3330

220R

N
O
T
_
U
S
E
D

X

9V0

13V5

5210

US28207

2245

BYV95C

1

1

A

A

B

B

C

C

TO AUDIO BOARD

D

D

195V0

E

E

268V0

F

F

G

G

H

H

GND_M

I

I

5V8

1

1V5

J J

J

K

K

L

L

M

M

N

N

GND_M

2323

GND_M

470p

OO

LCOS MAIN POWER BOARD

GND_HS

Note: Observe Proper Ground
Connection.

1311

B6P-VH

6

I200

5
4
3
2
1

GND_HA

CONTROL

C
F

5

3333

I208

2344

I209

1. CAPACITANCE VALUES ARE IN FARADS:

2. RESISTANCE VALUES ARE IN OHMS:

3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.

4. FOR VALUE SEE TABLE.

GND_HS

GND_HA

I345

5301

43

12

I205

W8051

1n0

2310

GND_HA

Note: Observe Proper Ground
Connection.

172V5

7302

1V9

TOP247Y

2

7

D

L

X

S

3

4

1V2

0

8K2

3326

HEATSINK

GND_M

I333

6R8

47u 16V

NOTES

m=MILI u=MICRO n=NANO p=PICO f=FEMTO

R=OHM K=KILO M=MEGA G=GIGA T=TERA

*

1300

2226

1n0

GND_HB

GND_M

2333

GND_M

3324

470R

F316

5V8

470p

5V8

3

GND_HS

1

C

F

5

2223

2312

GND_M

F329

I346

2

GND_HB

2

L

CONTROL

1V2
1V2

470p

I201

1n0

GND_M

5201

W8051

7202
TOP246Y

X

3226

2320

GND_M

GND_M

GND_HB

3

10K

GND_HB

3233

2244

100u 400V

2335

3325

I344

43

1

7
D

S

I202

GND_HB

3321

100p

162V0

121V0

4

12

1R0

35V
22u

33R

BYV95C

10u

3322

22K

6301

2337

470p

6305

3327
10K

2341

4

3

100R
I206

2336

BY229X-800

I326

50V

2222

GND_HB

1218

HEATSINK

4n7

I207

5309

I331

1n0

I203

5 20

I217

2224

100p

NOT_USED

6201

F330

BY229X-800

2233

330p

GND_HB

I204

3224
470R

I320

2321

470p

5310

56

I321

3

2

1

US28212

2334

470p

GND_HA

6307

CQY80NG

6

17V2

0

5

4

8V1
0V9

I334

6

6

3221

I332

0

2343

0

2

3227

+9V

3329

47u 16V

2V4

3

R

7306
TL431BCLP

I342

33K

2236

470p

33R

I224

2237

470p

6205

BYV95C

GND_HB

150R

1K0

3323

4n7

56K

2350

3332

I210

2342

I335

0

10K

3338

I341

7

8

9

10

1

8V3

7V2

2

0

3

1

7V2

K

A

3222

100R

3228

100n

100K

GND_HB

7

2220

5209

I227

2241

10u 50V

I311

P5

I315

I322

I327

3344

750K

3345

27K

3135_037_10663_01 X
RESERVED

100u 400V

GND_HB

P4

P7

+9V

P

95

97 162 16

I218

7

8

9

+5VSTDBY

3229

I228

1

4V9

4V8

3223

3V8

2

3V7

3

2243

I230

100n

3V8

7206

16V

1

TL431BCLP

3V7

47u

K

3

R

2V4

A

2

10K

3238

6313

I313

39V7

2354

22u 100V

I317

5320

10u

2358

2357

1m5 25V

I324

2360

1m5 25V

I329

5326

10u

2363

470u 50V

Ref Des 3135_037_10663_01 RESERVED
2224 NOT USED 319801951010

NOT USED

2225

2229 NOT USED

2231 NOT USED

2334 NOT USED

2359 NOT USED 319801941010

3220 NOT USED 319801102230

5207 NOT USED 242253595363

NOT USED

6203

10

1302

HEATSINK

1234

P3

I223

47R

1K0

3339

1K0

22K

3340

9300

I318

5305

13V5

D

35V22u

1m0 25V

2367

3346

+22V

3K3

5323

2361

1m0 25V

I330

9318

3341

2364

680R

470u 50V

100p
202001293458

1m0
319801964710

470p
202002191411

1m0
202055490169

470p

100p

22K

10u
934038000127

BY229X-200
319803690010NOT USED9300

3135 033 3295.5

1

3 16

3

4 10

5

5

6

72 89

84

9

10

A

A

B

B

C

C

D

D

E

E

F

F

G

G

H

H

I

I

J

K

K

L

L

M

M

N12N

O

O

P

P

1206 K20
1218 E4
1219 I8
1300 K20
1302 B10
1305 J16
1311 E2
1312 A20
1313 D20
1314 F20
1315 I20
2220 B7
2221 B8
2222 B4
2223 F3
2224 B5
2225 B14
2226 B2
2227 E16
2229 A11
2231 B13
2233 C5
2235 C11
2236 C6
2237 D6
2238 C12
2239 C13
2240 C15
2241 E7
2243 E9
2244 F4
2245 F8
2246 D14
2247 F14
2265 F11
2310 H2
2312 H3
2320 H3
2321 G5
2323 J16
2333 J3
2334 J5
2335 I3
2336 H4
2337 J4
2338 M11
2339 M12
2340 N13
2341 K4
2342 M6
2343 M6
2344 M1
2345 L19
2346 N13
2347 M15
2348 L16
2349 L17
2350 L6
2351 L15
2352 L19
2353 I12
2354 H9
2355 H11
2356 H8
2357 I9
2358 I9
2359 K8
2360 K9
2361 K10
2362 L7
2363 L9
2364 L9
2365 I13
2366 G16
2367 I10
3220 B12
3221 B6
3222 B6
3223 E9
3224 E5
3226 D3
3227 D6
3228 E6
3229 D9
3230 C11
3231 D15
3233 F4
3237 D12
3238 F9
3252 F11
3253 F12
3254 E13
3255 G12
3256 E13
3257 E13
3259 E15
3260 E15
3321 H4
3322 H4
3323 K6
3324 L3
3325 J4
3326 J2

3327 K4
3328 J12
3329 K6
3330 L8
3331 I12
3332 L6
3333 L1
3334 N12
3335 N14
3336 L15
3338 N6
3339 H10
3340 H9
3341 L10
3342 J12
3343 N17
3344 M7
3345 M7
3346 J10
3347 H8
3348 K12
3349 L11
3350 M16
3351 M12
3352 H13
3353 I14
3354 G14
3355 I14
3356 H15
3357 G15
3358 I16
3359 G16
5201 B3
5207 A13
5208 D19
5209 C7
5210 C8
5212 C13
5213 I19
5214 D19
5215 A19
5216 B19
5217 D19
5301 G2
5305 I10
5306 F19
5307 G19
5308 F19
5309 I4
5310 I5
5315 L18
5316 L18
5317 K11
5318 B19
5319 I19
5320 I9
5321 I19
5322 G19
5323 J9
5324 F19
5325 B19
5326 K9
5327 I19
5328 L17
6201 B5
6202 E12
6203 A11
6204 C11
6205 E6
6207 E8
6209 F11
6301 I4
6305 K4
6306 G17
6307 L5
6308 G16
6309 I13
6312 L16
6313 H8
6314 I8
6315 J8
6316 K8
7202 C3
7203 C14
7206 F9
7209 F13
7210 E14
7211 D15
7302 I2
7303 I10
7304 J11
7306 N5
7307 L14
7308 L16
7309 I15
7310 G15
9300 I10
9317 K11
9318 K10
F310 A19
F311 B19
F312 D20
F313 D20

F314 F19
F315 G19
F316 B3
F317 L16
F318 I19
F319 I19
F320 B19
F321 B19
F323 D19
F324 G19
F325 F19
F326 F19
F327 I19
F328 I19
F329 I3
F330 C4
I200 E2
I201 F3
I202 F4
I203 E4
I204 E5
I205 H2
I206 H4
I207 I4
I208 M1
I209 M1
I210 M6
I211 L8
I212 K10
I213 K11
I214 H8
I215 F11
I216 C11
I217 B5
I218 B9
I219 A12
I221 C7
I222 C7
I223 C9
I224 D6
I225 C12
I226 C14
I227 E7
I228 D9
I229 F13
I230 E9
I231 I13
I232 D11
I233 I13
I234 H15
I235 L16
I236 N14
I309 L19
I311 H7
I313 H9
I314 H12
I315 I7
I317 I9
I318 I9
I320 G5
I321 I4
I322 J7
I324 J9
I325 J11
I326 J4
I327 K7
I329 K9
I330 K10
I331 J4
I332 K6
I333 L2
I334 M5
I335 M6
I336 L17
I337 L12
I338 L15
I339 M12
I340 N15
I341 B5
I342 B6
I344 J4
I345 F2
I346 L3
I349 D15
I350 D15
I351 E13
I352 F12
I353 F12
I354 F15
I355 G14
I356 G15
I357 H15
I358 H14
I359 K13
I360 M15
I361 N13
I365 B20
I368 E20
I369 F20
I370 I20
I375 A14
I377 C13

Circuit Diagrams and PWB Layouts

EN 50EM8E 7.

Layout LCoS Main Power Board (Top Side)

1206 G4
1218 A5
1219 C5
1300 A2
1302 C2
1305 E3
1311 A3
1312 G5
1313 G5
1314 G2
1315 G4
2220 B4
2221 B4
2222 B4
2224 B5
2225 E5

2226 A3
2227 F5
2229 C5
2231 D5
2233 B5
2235 C5
2236 B5
2237 B5
2238 D4
2239 E4
2240 E4
2241 B5
2243 C5
2244 A5
2245 C5
2246 E5

2247 E5
2265 D5
2310 A2
2312 B2
2320 B1
2321 C1
2333 B2
2334 C4
2335 B2
2336 B2
2337 B3
2338 E2
2339 E2
2341 B3
2342 C4
2343 C4

2344 B3
2346 E3
2348 F2
2349 F3
2350 C4
2351 E3
2352 F2
2353 E4
2354 C1
2355 G5
2356 D1
2357 D1
2358 E1
2359 D2
2360 D2
2361 E2

2362 C3
2363 D3
2364 D3
2365 D3
2366 E4
2367 F3
3220 D5
3221 B5
3222 B4
3224 A5
3227 B5
3230 C4
3231 F5
3233 A5
3237 D5
3238 C5

3252 C5
3253 E5
3255 E5
3256 E5
3257 E5
3259 F5
3260 F5
3321 B2
3322 B2
3324 B3
3325 C3
3329 C3
3330 C3
3333 B3
3336 E3
3338 C3

3339 C1
3340 C1
3341 D4
3342 F4
3344 C3
3346 E4
3347 C1
3348 E3
3349 E2
3350 E2
3351 E2
3352 D2
3355 E3
3356 E3
3357 E3
3358 E3

3359 E3
5201 A4
5207 D5
5208 F5
5209 B5
5210 C5
5212 D5
5213 F4
5214 F5
5215 F5
5216 F5
5217 F5
5301 A1
5305 F1
5306 F3
5307 F2

5308 F2
5309 B2
5310 C2
5315 F2
5316 F2
5317 E2
5318 G5
5319 F3
5320 D1
5321 G3
5322 G2
5323 D2
5324 F3
5325 G5
5326 D3
5327 F4

5328 F3
6201 B5
6202 E5
6203 D5
6204 D4
6205 B5
6207 C5
6209 D5
6301 B3
6305 B3
6306 E3
6307 C3
6308 E3
6309 D2
6312 F2
6313 C1

6314 D1
6315 D2
6316 D3
7202 A5
7203 E5
7206 C5
7209 D5
7210 E5
7211 E5
7302 B2
7303 F4
7304 E4
7306 C3
7307 E3
7308 F3
7309 E3

7310 E3
9001 A4
9003 E5
9005 D5
9012 F5
9013 F4
9014 D2
9016 D3
9017 D3
9018 G3
9019 E5
9020 E5
9024 G4
9025 E4
9026 F3
9028 E2

9029 E2
9030 G4
9031 E3
9032 F2
9033 F4
9300 F4
9317 E4
9318 D4

Layout LCoS Main Power Board (Bottom Side)

2223 A1
2323 B4

2340 E4
2345 F4

2347 E4
3223 C1

3226 A1
3228 B1

3229 C1
3254 E1

3323 C3
3326 B4

3327 B3
3328 F2

3331 F2
3332 C2

3334 E4
3335 F4

3343 F4
3345 C3

3353 E3
3354 E3

3135 033 3295.5

E_14780_120.eps

060704

3135 033 3295.5

E_14780_121.eps

120704

LCoS SCART Daughter Board

21

A

Circuit Diagrams and PWB Layouts

43 10 139

LCoS SCART DAUGHTER BOARD

EN 51EM8E 7.

7

865

1211

A

0001 E8
1201-1 D5
1201-2 C5
1202-1 F5
1202-2 E5
1203 E7
F001 F6
F002 F6
F003 E6
F004 D6
F005 C6

B

C

D

E

B

F005

3

YKC21-3978

1201-2

YKC21-3978

1201-1

YKC21-3978
1202-2

F

YKC21-3978

1202-1

4

F004

1
2

0001

6

F003

3
4

F002

1
2

F001

5
4
3
2
1

1203
B6B-EH-A

HEATSINK

1234

C

D

E

F

H

I

J

3135 033 3319.3

1

NOTES

1. CAPACITANCE VALUES ARE IN FARADS:
m=MILI u=MICRO n=NANO p=PICO f=FEMTO

2. RESISTANCE VALUES ARE IN OHMS:
R=OHM K=KILO M=MEGA G=GIGA T=TERA

3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.

4. FOR VALUE SEE TABLE.

*

GG

H

I

J

E_14780_088.eps

130704

3

4

652 131211

7

9

108

Circuit Diagrams and PWB Layouts

Layout LCoS SCART Daughter Board (Top Side)

EN 52EM8E 7.

 

0001 A1
1201 A1
1202 A1
1203 A1
9001 A1

3135 033 3319.3

Layout LCoS SCART Daughter Board (Bottom Side)

E_14780_090.eps

130704

3135 033 3319.3

E_14780_091.eps

130704

E_06532_012.eps

130204

LCoS 1fH SCART Panel

1

LCoS 1fH SCART

A

B

C

D

R-SC1_AV-OUT

R-SC1_AV1-IN

L-SC1_AV-OUT

E

F

L-SC1_AV1-IN

B-SC1-IN_U-IN

STATUS_PIP-AFT

G-SC1-IN_Y-IN

R-SC1-IN_V-IN

FBL-SC1-IN

CVBS-SC1_AV1-IN

G

H

I

J

3135 033 3305.5

1220-1

1206

S3B-EH

1
2
3

A1

GND_P

R-SC1-IN_V-IN

HEATSINK

A3

A4A5A6A7A8

F001

F002

F003

F004

F005

F006

F007

F008

F009

1401

1234

GND_P

Circuit Diagrams and PWB Layouts

432

A22

A9

FBL-SC1-IN

L-SC1_AV-OUT

R-SC1_AV-OUT

CVBS-SC1_AV1-IN

3013
150R

3014
150R

3025
100R

3026
100R

3024
100R

F010

F011

A10

A11

A12

A13

A14

3-G4

3-G4

3-D11

CENTER-IN

L-SC2_AV2-IN

R-SC2_AV2-IN

SEL-SVHS-RR_STATUS2

3009
150R

3010
150R

3027
100R

3023
100R

SDA-EMG
SCL-EMG

32

A15

2-F2

SDA-EMG

A16

A17

+9V

SCL-EMG

A23

A24

A25

A26

2-B9

AUDIO-SW

I040

2007

A27

2-F2

3-G11

3-G11

L-MSB

R-MSB

P50-W

6021

BZX384-C6V8

6022

BZX384-C6V8

GND_A

A28

R-SC2_AV-OUT

A29

2-E2

2-E2

L-SC2_AV-OUT

100p

GND_A

A18

A19A2A20

A21

L-Y2-IN

R-Y2-IN

L-Y1-IN

R-Y1-IN

330p

GND_A

NOTES

1. CAPACITANCE VALUES ARE IN FARADS:
m=MILI u=MICRO n=NANO p=PICO f=FEMTO

2. RESISTANCE VALUES ARE IN OHMS:
R=OHM K=KILO M=MEGA G=GIGA T=TERA

3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.

4. FOR VALUE SEE TABLE.

*

4

A32

A30

A31

2-C1

2-A1

SNDL-SC3-IN

STATUS-SC3-IN

2012

MT1

B1

MT2

GND_A

2-A1

SNDR-SC3-IN

6012

BZX384-C6V8

6013

BZX384-C6V8

GND_A

5

B4B5B6B7B8

GND_MON

G-SC1-IN_Y-IN

B-SC1-IN_U-IN

CVBS-SC2_MON-OUT

330p

GND_A

5

B9

2-I4

3-B11

L-CL_VL-OUT

R-CL_VL-OUT

I042I041

2006

GND_A

B10

B11

B12

B13

GND_P

GND_P

2-G2

3-B11

Y-CVBS-SC2_AV2-IN

6019

BZX384-C6V8

6020

BZX384-C6V8

GND_A

6

B17

B18

B14

B15

B16

GND_TER

2-G2

+9V

C-SC2_SVHS-IN

STATUS_PIP-AFT

6010

I043

2011

100p

BZX384-C6V8

GND_A

61

B19B2B20

B21

B22

2-G2

FBL-SC3-IN

CVBS-TER-OUT

BZX384-C6V8

6011

B25

B26

B23

B24

2-D1

2-F2

R-SC3_V-IN

CVBS-SC3-IN

L-SC1_AV1-IN

75R

3043

6018

EN 53EM8E 7.

7

B27

B28

B29B3B30

GND_CVBC

R-SC1_AV1-IN

BZX384-C6V8

GND_P

7

GND_SC

2005

B32

B31

2-F2

B-SC3_U-IN

G-SC3_Y-IN

330p

1220-2

2-F2

6009

GND_P

8

3021

BZX384-C6V8

GND_P

8

8K2

75R

3042

CVBS-TER-OUT

1204-2
YKC21-3699

1204-1

YKC21-3699

6017

BZX384-C6V8

+VA

+9V

3041

GND_A

2-J4

9

9

75R

GND_P

5

6

4

2

3

1

6016

GND_A

F028

2021

F013

F015

F016

I020

I022

F023

F025

F027

BZX384-C6V8

F029

10V100u

F012

GND_A

3038

3062

470R

3063

6R8

I019

I021

F022

F024

F026

75R

10

3002
100R

3001

100R

F014

3004
100R

3003
100R

6014

I046

BZX384-C6V8

BC847B

I044

10

BZX284-C6V8

BZX284-C6V8

BZX284-C6V8

BZX284-C6V8

3039

7001

6004

6003

6008

6007

75R

GND_P

2018

I008

3052

1K0

3053

1K0

6015

BZX384-C6V8

10V100u

11

I005

6002

BZX284-C6V8

I006

6001

BZX284-C6V8

I007

6006

BZX284-C6V8

6005

BZX284-C6V8

GND_TER

11

3060

GND_A

GND_A

GND_A

GND_A

3011
150R

3012
150R

3058

3K9

I048

560R

330p

GND_A

330p

GND_A

F018

F020

3040

75R

I001

I002

2001

I003

I004

2003

F021

GND_A

GND_A

F030

47K

47K

12

3007

3005

F017

F019

12

330p

GND_A

GND_A

GND_A

GND_P

330p

2002

GND_A

2004

GND_P

47K

47K

GND_A

3008

3006

1

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

13

R-Y1-IN

L-Y1-IN

R-Y2-IN

L-Y2-IN

1201

E_14780_107.eps

13

130704

A

B

C

D

E

F

G

H

I

J

1201 D12
1204-1 C9
1204-2 A9
1206 H2
1220-1 B2
1220-2 B5
1401 G2
2001 B11
2002 B12
2003 C11
2004 C12
2005 F7
2006 G5
2007 G4
2011 G6
2012 G4
2018 H10
2021 H9
3001 B10
3002 A10
3003 C10
3004 C10
3005 C12
3006 C12
3007 B12
3008 B12
3009 D3
3010 E3
3011 D11
3012 E11
3013 D3
3014 E3
3021 F8
3023 F3
3024 F3
3025 E3
3026 E3
3027 F3
3038 F10
3039 F10
3040 H11
3041 F9
3042 F8
3043 F7
3052 D11
3053 E11
3058 E11
3060 H11
3062 H10
3063 H10
6001 B11
6002 A11
6003 B10
6004 A10
6005 C11
6006 B11
6007 C10
6008 B10
6009 F8
6010 F6
6011 G6
6012 F5
6013 G5
6014 F10
6015 F11
6016 F9
6017 F9
6018 F7
6019 F6
6020 G6
6021 F4
6022 G4
7001 H10
F001 D2
F002 D2
F003 E2
F004 E2
F005 E2
F006 E2
F007 E2
F008 F2
F009 F2
F010 H3
F011 H3
F012 A10
F013 B9
F014 B10
F015 B9
F016 C9
F017 D12
F018 D12
F019 E12
F020 E12
F021 F12
F022 E10
F023 E9
F024 E10
F025 E9
F026 F10
F027 F9
F028 H9
F029 H9
F030 G12

I001 A12
I002 B12
I003 C12
I004 C12
I005 A11
I006 B11
I007 B11
I008 D11
I019 D10
I020 D9
I021 E10
I022 E9
I040 G4
I041 G5
I042 G5
I043 G6
I044 H10
I046 H10
I048 G11

LCoS 1fH SCART Panel

1

1

LCoS 1fH SCART

A

C

C

D

D

G

G

H

H

A

B

B

E

E

F

F

I

I

J

J

SNDR-SC3-IN

SNDL-SC3-IN

STATUS-SC3-IN

CVBS-SC3-IN

R-SC2_AV-OUT

L-SC2_AV-OUT

SEL-SVHS-RR_STATUS2

Y-CVBS-SC2_AV2-IN

C-SC2_SVHS-IN

1-C5

1-C4

1-C4

1-C7

R-SC2-IN

L-SC2-IN

B-SC3_U-IN

P50-W

G-SC3_Y-IN

R-SC3_V-IN

FBL-SC3-IN

3135 033 3305.5

F032

F033

1-C4

3-G11

1-C4
3-G11
1-C7

1-C3

1-C4
1-C7

1-C7

1-C6

1-C6

1-C6

1

F031

2019

680n

3031
100R

F035

F063

F061

F034

Circuit Diagrams and PWB Layouts

F064

F062

2020

680n

I079

3033
100R

3068

GND_A

F069

F068

F067

F066

F065

3035
100R

3032
100R

3030
100R

22K

3037

100R

3029

100R

322

3

3064

6K8

312

32

I080

3019
150R

3020
150R

3034
100R

BZX384-C6V8

2015

GND_A

2008

GND_A

6027

100p

3015

150R

3016

150R

330p

4

I081

6035

BZX384-C6V8

6025

BZX384-C6V8

I064

6032

BZX384-C6V8

GND_A

GND_A

CVBS-SC2_MON-OUT

4

4

2014

GND_A

I063

100p

3067

6024

6029

GND_A

+VA

I087

3065

6K8

22K

BZX384-C6V8

I062

BZX384-C6V8

GND_A

F060

1-C5

1-G9

2016

GND_AGND_A

F038

6026

6033

5

I086

6036

BZX384-C6V8

100p

BZX384-C6V8

2009

BZX384-C6V8

GND_A

3036
100R

GND_MON

5

5

3056

1K0

6037

GND_A

330p

3066

BZX384-C6V8

GND_CVBC

2013

GND_A

I113

10K

3057

1K0

I082

6039

I061

100p

GND_A

EN 54EM8E 7.

6 13

F039

F036

GND_P

3049

BZX384-C6V8

GND_CVBC

6023

BZX384-C6V8

GND_SC

6028

BZX384-C6V8

BC847B
7002

6

6102

3046

I112

2039

100n

6

6

F040

75R

BZX284-C12

75R

6031

GND_SC

3061

GND_MON

GND_MON

GND_A

BZX384-C6V8

GND_P

560R

GND_P

GND_CVBC

GND_P

8K2

3022

3044

75R

7

7

2010

GND_P

7

7

1B

2B

3B

4B

5B

6B

7B

8B

9B

10B

11B

12B

13B

14B

15B

16B

17B

18B

19B

20B

21B

330p

6101

BZX284-C12

GND_P

8

1202-2

ROW_B

PPTV/90

AUDIO-SW

I059

I057

F053

F055

F057

6201

GND_P

75R

3051

GND_SC

6041

GND_SC

BZX384-C6V8

GND_SC

BZX79-C6V8

NOTES

1. CAPACITANCE VALUES ARE IN FARADS:
m= MILI u= MICRO n= NANO p= PICO f= FEMT

2. RESISTANCE VALUES ARE IN OHMS:
R= OHM K= KILO M= MEGA G= GIGA T= TERA

1-C4

I060

I058

F052

F054

F056

F058

6040

9

9

F041

75R

3050

BZX384-C6V8

GND_SC

2023

50V

10u

3048

GND_SC

3. SAFETY TRIANGLE REPRESENTS PCEC REPLA

4. FOR VALUE SEE TABLE.

*

9

75R

10

I091

3069

100R

I093

GND_A

3055

1K0

3054

1K0

3028
100R

6038

3045

BZX384-C6V8

GND_SC

GND_SC

CEMENT PART ONLY.

1089

108

3071

O

75R

3070

30K

2017

220p

51K

6030

GND_SC

I092

I094

BZX384-C6V8

11

1110548

+9V

3072

100R

2024

25V 220u

7003
BC847B

2025

50V 10u

3073

470R

GND_P

3017

150R

3018

150R

3059

3K9

3074

GND_A

F050

F051

F059

11

GND_P

I095

I097

100K

6042

6043

GND_A

GND_SC

GND_MON

3075

150R

BZX284-C6V8

BZX284-C6V8

F046

F047

F048

F049

GND_A

GND_P

12

12

F042

GND_P

1211

1A

2A

3A

4A

5A

6A

7A

8A

9A

10A

11A

12A

13A

14A

15A

16A

17A

18A

19A

20A

21A

3-A11

SUB-OUT

1202-1
ROW_A

PPTV/90

13

E_14780_108.eps

120704

1312

13

A

A

B

B

C

C

D

D

E

E

F

F

G

G

H

H

I

I

J

J

1202-1 E12
1202-2 A7
2008 H3
2009 H5
2010 G7
2013 H5
2014 H4
2015 B3
2016 B5
2017 B10
2019 A2
2020 A2
2023 B9
2024 B11
2025 C11
2039 J6
3015 E3
3016 F3
3017 E11
3018 E11
3019 E3
3020 E3
3022 G7
3028 F10
3029 G3
3030 G3
3031 C2
3032 G3
3033 D2
3034 F3
3035 F3
3036 I5
3037 F3
3044 I7
3045 G10
3046 G6
3048 G9
3049 D6
3050 G9
3051 G8
3054 F10
3055 E10
3056 A5
3057 A6
3059 F11
3061 I6
3064 A3
3065 A4
3066 I5
3067 B4
3068 B3
3069 B10
3070 B10
3071 C10
3072 A11
3073 C11
3074 D11
3075 C12
6023 G6
6024 G4
6025 G4
6026 G5
6027 B3
6028 H6
6029 H4
6030 G10
6031 G6
6032 H4
6033 H5
6035 B4
6036 B5
6037 B5
6038 G10
6039 D5
6040 G9
6041 G8
6042 C11
6043 D11
6101 G7
6102 B6
6201 G8
7002 I6
7003 B10
F031 A2
F032 A2
F033 C2
F034 G2
F035 D2
F036 B6
F037 B3
F038 D5
F039 A6
F040 A6
F041 B9
F042 C12
F046 E12
F047 E11
F048 E12
F049 E11
F050 F11
F051 F11

F052 F9
F053 F8
F054 F9
F055 F8
F056 F9
F057 G8
F058 G9
F059 H11
F060 I5
F061 G2
F062 G2
F063 F2
F064 F2
F065 F3
F066 E3
F067 E3
F068 E3
F069 E3
I057 E8
I058 E9
I059 E8
I060 E9
I061 H5
I062 H5
I063 H4
I064 H4
I079 A2
I080 A3
I081 B4
I082 B5
I086 A5
I087 A5
I091 B10
I092 B10
I093 C10
I094 C10
I095 C11
I097 C11
I112 I6
I113 I5

LCoS 1fH SCART Panel

1

LCoS 1fH SCART

A

B

+9V

7004

MC78L05ACD-R2

8

IN OUT

2

GND GND

3

GND

45

NC

C

GND_P

SCL-EMG

SDA-EMG

D

1-B3

1-B3

3080

100R

E

F

G

H

GND

Circuit Diagrams and PWB Layouts

LP FILTER

BIT8

2034

50V10u

2035

50V10u

65

I/O

PORTS

6
5
4
3
2
1

B6B-EH-A

10K

9101

3083

3

F037

10K

3084

9102

2028

100n

GND_PGND_PGND_P

GND_P

2

1
6
7

NC

3081
100R

10K

3082

9100

4 11

7005
PCF8574T

13

INT_

1-C3

1-C3

INTERRUPT

LOGIC

BUSC2I

CONTROL

F071

F072

SHIFT

REGISTER

A01

A12

A23

SCL14

SDA15

VDD16

VSS8

L-SC2_AV2-IN

R-SC2_AV2-IN

INPUT

FILTER

POWER-ON

RESET

1210

P0 4

P1 5

P2 6

P3 7

P4 9

P5 10

P6 11

P7 12

GND_P

EN 55EM8E 7.

GND_A

2029

100n

74HC4053D

14

15

4

7006

7

3096

GND_A

+9V

VDD

MDX

VEEVSS

8

4X1
4X2

G4

560R

16

F043

1
2

7

F045

F044

3079
150R

12
13
11

10

98

3076

3093

GND_P

1K0

51K

I101

2026

330p

3094

GND_A

6044

6045

GND_A

7007
BC847B

3K0

I102

BZX284-C6V8

I103

BZX284-C6V8

2037

220u 25V

GND_A

3091

22K

3092

22R

3095

22R

3077

GND_A

+9V

F070

2038

GND_A

2030

50V 10u

2032

50V 10u

3078
150R

2036

10u 50V

6

2
1

5
3
9

1K0

GND_AGND_AGND_A

10n

2031

50V 10u

2033

50V 10u

2027

330p

10

GND_A

6046

6047

F074

2022

50V10u

2040

10u

50V

BZX284-C6V8

I104

BZX284-C6V8

2-F2

1-C4

F073

2-E2

1-C4

L-SC2-IN

L-MSB

R-SC2-IN

R-MSB

2-C12

1-C5

1-C5

1-C3

SUB-OUT

R-CL_VL-OUT

L-CL_VL-OUT

CENTER-IN

1312

A

B

C

D

E

F

1210 B6
2022 B10
2026 B8
2027 B10
2028 D3
2029 F7
2030 G9
2031 G10
2032 G9
2033 G10
2034 G6
2035 G6
2036 C8
2037 E9
2038 E9
2040 B10
3076 B8
3077 B9
3078 B8
3079 B7
3080 D1
3081 D2
3082 C2
3083 C3
3084 C3
3085 H9
3086 H9
3087 H8
3088 H8
3089 H6
3090 H6
3091 C9
3092 D9
3093 D8
3094 E8
3095 D9
3096 D7
6044 B9
6045 C9
6046 B10
6047 C10
7004 B2
7005 D5
7006 G7
7007 D8
9100 D2
9101 D3
9102 D3
F043 B7
F044 B7
F045 C7
F070 D9
F071 G5
F072 G5
F073 G10
F074 H10
I101 B8
I102 B8
I103 B9
I104 B10

G

H

I

J

3135 033 3305.5

1

10K

3090

10K

3089

GND_P

GND_A

GND_A

10K

3088

10K

3087

10K

3086

10K

3085

I

J

E_14780_109.eps

120704

2

3 12

54

611

7

8

913

10

Circuit Diagrams and PWB Layouts

EN 56EM8E 7.

Layout LCoS 1fH SCART Panel (Top Side)

1201 A4
1202 A2
1204 A1
1206 A4
1210 C4
1220 F3
1401 A4
2018 E3

2021 E4
2022 C4
2023 E2
2024 D2
2025 D4
2030 D2
2031 E3
2032 E2

2033 E2
2034 D3
2035 E3
2036 D4
2037 D4
2040 C4
3009 C3
3010 D3

3013 B4
3014 B4
3015 E3
3023 B4
3024 B4
3025 E4
3026 E4
3029 F4

3030 F4
3032 B3
3034 A2
3035 A2
3036 B3
3037 C3
3040 B3
3044 A3

3054 B2
3055 C2
3058 E3
3059 B4
3060 B3
3069 E2
3072 D2
3080 D4

3081 D4
3085 E2
3086 E2
3091 D4
3092 D4
3093 D4
6201 C2
9001 C2

9002 B4
9003 E2
9004 C3
9005 C3
9006 D4
9007 D3
9008 D2
9009 D3

9010 D3
9011 E3
9012 E3
9013 E3
9014 F2
9015 F2
9016 E4
9017 E4

9018 E4
9019 E4
9020 D4
9021 D4
9022 E3
9100 C2
9101 C2
9102 C2

9103 E4
9104 A4
9105 F4
9106 F4
9107 E4
9108 E3
9109 F3
9110 A2

9111 B3
9112 A2
9113 E2
9114 A1
9115 F2
9116 C3
9117 B2
9118 A3

9119 C3
9120 B4
9121 C3

Layout LCoS 1fH SCART Panel (Bottom Side)

2001 A4
2002 A4
2003 A4
2004 A4
2005 E2
2006 A1
2007 A2
2008 B4
2009 B3
2010 B1

2011 D2
2012 D1
2013 B3
2014 C3
2015 D3
2016 D3
2017 D3
2019 D4
2020 E4
2026 C1

2027 C1
2028 D3
2029 E3
2038 D1
2039 B2
3001 A4
3002 A4
3003 A4
3004 A4
3005 A4

3006 A4
3007 A4
3008 A4
3011 A1
3012 A1
3016 B3
3017 B4
3018 B4
3019 B4
3020 B3

3021 E2
3022 B1
3027 F1
3028 C4
3031 A3
3033 A3
3038 A1
3039 A1
3041 F1
3042 E1

3043 E1
3045 A2
3046 A3
3048 A2
3049 A3
3050 A2
3051 A2
3052 C1
3053 D2
3056 D4

3057 D4
3061 B2
3062 B2
3063 E2
3064 D4
3065 D4
3066 B2
3067 E4
3068 D3
3070 D3

3071 D3
3073 D3
3074 C1
3075 C1
3076 C1
3077 C1
3078 C1
3079 C1
3082 D3
3083 D3

3084 D3
3087 D3
3088 D3
3089 E3
3090 E3
3094 D1
3095 D1
3096 C1
4001 A1
6001 A4

6002 A4
6003 A4
6004 A4
6005 A4
6006 A4
6007 A4
6008 A4
6009 E2
6010 D2
6011 D2

6012 D2
6013 D1
6014 A1
6015 A1
6016 F1
6017 E1
6018 E1
6019 A1
6020 B1
6021 A1

6022 B1
6023 B3
6024 C3
6025 B4
6026 B3
6027 D4
6028 B3
6029 C3
6030 A2
6031 A3

6032 B4
6033 B3
6035 D3
6036 D4
6037 D3
6038 A2
6039 A3
6040 A2
6041 A2
6042 C1

6043 C1
6044 C1
6045 C1
6046 C1
6047 C1
6101 B1
6102 A3
7001 B2
7002 B2
7003 D3

7004 D3
7005 D3
7006 E3
7007 D1

3135 033 3305.5

E_14780_111.eps

130704

3135 033 3305.5

E_14780_112.eps

130704

LCoS Input Power Board

1

2

LCOS INPUT POWER BOARD

A

B

1212

B2P(4-2.3)-VH

1
4

C

D

E

1217

TO SYSTEM

F

BOARD

G

1
2

TUNER GND

RAW-DC

H

I

GND_HA

J

CONTROL_VOLTAGE

K

L

M

N

O

P

3135 033 33513

F210

1401

HEATSINK

23

1

2-J4

F211

GND_TUNER

5406

5411

GND_HA

2

1214

V_NOM

470p

2220

GND_HA

1211

5HT

470p

3219

3425
100R

5V8
0V7

GND_HA

2423

GND_HA

Circuit Diagrams and PWB Layouts

3

I202

2205

680n

I201

2.5 MM

4M7

I200

3426
56K

I416

2432

1n0

2

L

1

CONTROL

C
F

5

6R8

3433

I405

2444

22u 35V

1207

7402
TOP247Y

X

1V3

3

0V6

3403

3212

I403

12K

GND_TUNER

I418

4

5213

4

12

V

JLB2806

4M7

3216

I203

4M7

3218

5408

6411

F408

198V

1V9

7

D

S

4

GND_HA

6406

6402

3

56

3203
0R68

3202
0R68

I204

5218

43

3

2214

470p

GND_TUNER

I419

100p

2431

BY229X-800

2433

BZX79-C18

GND_HA

1N4148

3430

470R

GND_HA

12

JLB2806

I205

1208

500V

2213

GND_TUNER

5409

1u0

100p

4K7

3441

I442

0V03

0V67

5 14

470p

2424

5412

I409

I404

6410

6
5

4

CQY80NG

I206

1n0

GND_HA

2437

100p

6405

BYV95C

GND_HA

9208

3217

470R

5407

I407

I410

35V22u

2441

1

4V9

5V1

3V8

2

4V6

3

TO SYSTEM
BOARD

64

I406

I408

GND_HA

GND_HA

I440

I441

F212

12V0

0

8V6
0V9

3471

1
2

0-106451-1

US28206

5

4

3

2

1

6

5

4

1K0

1K2

3472

1218

2421

470p

5410

2434

470p

2435

470p

7411

BC847B

2222
470p

2221
470p

3470
47R

0V0

7

3204

2M2

CQY80NG

+5VSTDBY

F406

4V0

7

F213

6

7

8

6404

17V7

1

2
3

2473

1n0

0V7

0

1206
1
2

0-106451-1

1
2

0-106451-1

0

16V6

0

I444

0V7

0

220n

2201

3213

3215

TO MAIN POWER
BOARD

1209

GND_HS

I411

I412

7409
BC847B

0V7

0

8

I208

2219

5417

5419

3473
1K0

3474

100K

BAS316

6403

2K7

3464

2472

9

3207

3210

I207

9201

5209

5

4

81

UP48205

3211
0R68

3214
0R68

6202

3

GBU4J

4

259V
276V

I413

I414

+5VSTDBY

BC857B

7412

I436

5V0

5V0

6408

BAS316

0 0V6

1402

HEATSINK

1234

P1

P2

0

BC857B

2

3475

4V3

5V1

3462
4K7

I454

6409

1N4148

1V0

0

7408

400V100u

I453

220u 10V

10

I209

I210

1n0

2212

1

I213

1n0

2217

GND_HS

2453

470p

6413

BYW29EX-200

2456

470p

6414

BYW29EX-200

50V

2436

47u

7406

TL431BCLP

10K

3476

10K

I448

5V0
5V4

0

BC857B

3V5

7410

3465

3K9

1K0

3466

9

EN 57EM8E 7.

6200

1N4148

G5PA-1-5VDC

1

23

GND_HA

3453

33R

24V7

3456

33R

-24V7

I423

1K0

3432

3431

56K

I424

2443

4n7

17V5

1

0

K

I426

2V4

R

3

0

A

2

3438

3463

5V0
5V1

10K

6407

BZX79-C6V8

+5V

I211

7211

BC547B

4

I212

1n0

2200

1n0

2203

5422

1u0

1m0

2454

5420

1u0

1m0

2457

F405

24V7

3444
820K

3445

100K

10K

3460

12

0V08

5V0

0V8

6201

14

23

1215

HEATSINK

123

GND_HA

F403

F404

1-H16,1-J14

4V3

1-I16,1-J14

3461

10K

12

11

1210

I415

I417

3429
1K2

I425

100n

2442

10K

+5VSTDBY

F409

NOTES

1. CAPACITANCE VALUES ARE IN FARADS:
m=MILI u=MICRO n=NANO p=PICO f=FEMTO

2. RESISTANCE VALUES ARE IN OHMS:
R=OHM K=KILO M=MEGA G=GIGA T=TERA

3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.

4. FOR VALUE SEE TABLE.

*

11

13

+5VSTDBY

4V3

BC857B

7212

I215

3247

1K0

100K

F217

2202

I217

GND_HA

+V_AUDIO

DC_FAULT

-V_AUDIO

5V0

I214

I216

0

400V470u

1m5

2206

9207

9204

9209

1m5

2209

F218

+V_AUDIO

-V_AUDIO

0

3249

273V

294V

9206

1-B15

+5VSTDBY

100n

4V7

9203

I218

2208

400V470u

14

2249

3253

2225

100R

50V1u0

1-J12,1-H16

1-O12,1-I16

15 16

+5VSTDBY

1K0

3246

I434

3248

1K0

1-M12

DC_FAULT

I435

I445

1n0

2210

5210

GND_HA

F302

I449

3252
100R

2211

1n0

1316

24V7

1
2
3
4

-24V7

B4P-VH

15

+5VSTDBY

3245
3K3

F402

I438

1n0

2216

I003

5212

5214

F300

GND_HS

F400

5211

TO

AUDIO AMPLIFIER

(1316)

BOARD

F401

0V03

4V8

4V8

0V5

5V0

273V

F301

259V

I450

I447

1-J12,1-J14

16

2215

100n

1
2
3
4
5
6
7
8
9
10
11
12

F407

273V

273V

1
2
3
4
5
6

B6P-VH

1
2
3

2
1

1-O12,1-J14

1403

+5VSTDBY

DC_FAULT

THERMO_CUTOFF

DOOR_INTERLOCK

STANDBY

VACATION_SWITCH

+5V

+5V

RAW-DC

RAW-DC-LAMP

1311

RAW-DC

RAWDC_STDBY

1460

5V0

5V0

1410

5V0
5V0

+V_AUDIO

-V_AUDIO

17

TO SYSTEM
BOARD

TO MAIN POWER

(1311)

BOARD

TO
DOOR INTERLOCK
SWITCH

THERMO_CUTOFF_SW

24V7

-24V7

178 13

18

18

19

191 10

20

E_14780_083.eps

130704

20

1206 E7
1207 F3
1208 D5
1209 F7

A

1210 B11
1211 C3
1212 C2
1214 E2
1215 D12
1217 F2

B

1218 O7
1311 F16
1316 J15
1401 I2
1402 G9
1403 B16
1410 H16

C

1460 G16
2200 C11
2201 B8
2202 C13
2203 D11
2205 C3

D

2206 C13
2208 E14
2209 E13
2210 C15
2211 G15
2212 E10

E

2213 E5
2214 E4
2215 A16
2216 C15
2217 F10
2219 E8
2220 F2

F

2221 E7
2222 D7
2225 G14
2249 B14
2421 G7
2423 L3

G

2424 H5
2431 H5
2432 H3
2433 I5
2434 I7
2435 J7
2436 K9

H

2437 J6
2441 K6
2442 L11
2443 K11
2444 L3
2453 G10

I

2454 H11
2456 I10
2457 I11
2472 O8
2473 M7
3202 B5

J

3203 B5
3204 C7
3207 B9
3210 B9
3211 D9
3212 C4
3213 D8

K

3214 D9
3215 D8
3216 D4
3217 D6
3218 E4
3219 F3

L

3245 B15
3246 B15
3247 B13
3248 B14
3249 B12
3252 G15
3253 E14

M

3403 J3
3425 H3
3426 H3
3429 J11
3430 L4
3431 K11

N

3432 K10
3433 L3
3438 L11
3441 K5
3444 L11
3445 L11

O

3453 G10
3456 I10
3460 M12
3461 O12
3462 N9
3463 N11
3464 O8

P

3465 O10
3466 O9
3470 L7

3471 M6
3472 M7
3473 M8
3474 M8
3475 M9
3476 M10
5209 C9
5210 E14
5211 G16
5212 D16
5213 C4
5214 F15
5218 C6
5406 G2
5407 G6
5408 H4
5409 I5
5410 I7
5411 J2
5412 I5
5417 H8
5419 I8
5420 I12
5422 H12
6200 B11
6201 C12
6202 E9
6402 K4
6403 N8
6404 K7
6405 J6
6406 K4
6407 N10
6408 N9
6409 O9
6410 M6
6411 H4
6413 H10
6414 I10
7211 B12
7212 B13
7402 I3
7406 L10
7408 O9
7409 O8
7410 N10
7411 N7
7412 M9
9201 B9
9203 C14
9204 D13
9206 D12
9207 D13
9208 D6
9209 E13
F210 C2
F211 C2
F212 C6
F213 C7
F217 C13
F218 E13
F300 F16
F301 F16
F302 F15
F400 G16
F401 B16
F402 B15
F403 H12
F404 I12
F405 I11
F406 M7
F407 D16
F408 H4
F409 O11
I003 D15
I200 F3
I201 E3
I202 C3
I203 E4
I204 C5
I205 D5
I206 D5
I207 B9
I208 D8
I209 C10
I210 D10
I211 B11
I212 B12
I213 E10
I214 B14
I215 B12
I216 B13
I217 D13
I218 D14
I403 J3
I404 L5
I405 L3
I406 I6
I407 I6
I408 I6
I409 J5
I410 K6
I411 H8

I412 I8
I413 H9
I414 I9
I415 H11
I416 H3
I417 I11
I418 H4
I419 H4
I423 J11
I424 K10
I425 K11
I426 L10
I434 B15
I435 C15
I436 M9
I438 B16
I440 L6
I441 M6
I442 M5
I444 M7
I445 C15
I447 H16
I448 M9
I449 G15
I450 G16
I453 N8
I454 N9

LCoS Input Power Board

1

2

LCOS INPUT POWER BOARD

A

B

C

D

E

F

G

H

I

J

K

3

Circuit Diagrams and PWB Layouts

6

8V4
0V6

7500

BC857B

11V9

0V2

I023

10R

3536

50V10u

10n

2542

GND_S

RAW-DC-LAMP

CONTROL_VOLTAGE

273V

5

I009

I002

5502

2541

GND_S

4

1-J2

EN 58EM8E 7.

1110

I017

5507

2530

220p

7

7502

D

TOP247Y

S

4

GND_HA

I015

2531

220p

I006

1518

HEATSINK

123

6501

BYV29F-400

3522

33R

GND_HA

2534

GND_HA

12

HEATSINK

1234

GND_HA

400V100u

1520

2535

GND_HA

1n0

13

W8051

12

43

5514

GND_HA

I018

1n0

2536

I019

5503

TL431BCLP

2V4

8

I005

1n0

2522

GND_HA

7506

A2K

R

GND_S

1V2

3

3543

GND_S

9

I008

I007

5510-1

56

10

GND_HA

I011

6R8

3533

I012

GND_S

16V47u

2544

GND_S

I010

3542

120K

3K0

5509

190u

5510-2

1

UC28214-03

3

2533

220p

GND_HA

1

5V9

0V5

2523

470p

I001

I013

3541

150K

C
F

GND_S

L

CONTROL

5

I014

148V0

2

1V8

X

3

1V3

0

I020

10K

3526

GND_HA

3540
150K

7

I004

3539
470R

I022

3537

3K3

11V4

0V3

3538

1K0

I024

1

11V3

0V5

22n

2543

3544

22K

1514

350V0

1V1

1310

0

B2P3-VH

TO LAMP SUPPLY
BOARD

1
2

16

18

1917

20

A

B

C

D

E

F

G

H

I

J

K

1310 J15
1518 H11
1520 F12
2522 F8
2523 H9
2530 G11
2531 F11
2533 G10
2534 J12
2535 J12
2536 J14
2541 J5
2542 J6
2543 J7
2544 I9
3522 G11
3526 I10
3533 H9
3536 I6
3537 I7
3538 J6
3539 H7
3540 J10
3541 J9
3542 J9
3543 J8
3544 J7
5502 J5
5503 F7
5507 F11
5509 F10
5510-1 F9
5510-2 F9
5514 J13
6501 F11
7500 I6
7502 H10
7506 J8
C0001 I10
I001 I10
I002 I5
I004 F7
I005 F8
I006 G11
I007 F10
I008 F9
I009 I5
I010 J9
I011 H9
I012 I9
I013 J9
I014 J10
I015 J10
I017 F11
I018 J14
I019 K14
I020 I10
I022 I7
I023 I6
I024 I7

L

M

N

O

P

3135 033 33513

1

L

M

N

O

P

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2

3

45

6

7

8

9 10

11

12

13 18

1514

16 17

19

130704

20

Circuit Diagrams and PWB Layouts

EN 59EM8E 7.

Layout LCoS Input Power Board (Top Side)

3135 033 33513

E_14780_086.eps

130704

1206 G2
1208 A2
1209 C1
1210 B5
1211 B1
1212 A1
1214 A1
1215 C4
1217 A2
1218 G3
1310 F1
1311 D5
1316 F3
1401 D5
1402 F4
1403 G2
1410 G2
1460 F2
1518 C1
1520 D2
2200 B5
2201 A4
2202 C4
2203 C5
2205 B1
2206 C4
2208 D3
2209 D3
2212 C5
2213 A3
2214 A2
2217 C5
2219 C5
2220 A2
2221 C2
2222 C2
2225 G1
2249 G2
2421 F4
2424 D4
2431 E5
2432 E5
2433 E5
2434 F5
2435 F3
2436 F4
2437 E5
2441 E5
2442 G3
2443 F3
2444 E4
2453 G4
2454 G4
2456 G4
2457 G5
2472 G3
2522 E3
2523 D1
2530 C2
2531 E2
2533 C2
2534 E1
2535 E2
2536 F1
2541 D2
2542 D2
2543 D2
2544 D2
3202 B3
3203 B3
3204 B3
3207 B4
3210 B4
3211 A5
3212 B1
3213 A4
3214 A5
3215 A4
3216 A1
3217 A3
3218 A1
3219 A1
3246 G2
3248 G2
3403 E3
3425 E4
3426 E5
3429 F3
3430 E4
3431 F3
3433 E4
3438 F3
3441 E5
3444 F3
3445 G3
3453 G4
3456 G4
3460 G3
3461 G3
3470 F2
3472 F2
3473 G2
3522 D3
3526 C1
3533 D1
3536 D2
3537 D2
3538 D2
3539 D1
3540 D1
3541 D2
3542 D3
5209 A5
5212 E3
5213 B2
5214 D5

5218 B3
5406 D4
5407 E4
5408 E5
5409 E4
5410 F4
5411 E3
5412 F5
5417 F4
5419 F5
5420 G3
5422 G3
5502 E3
5503 E3
5507 E2
5509 E2
5510 E2
5514 F1
6200 G1
6201 C4
6202 C5
6402 E4
6404 F4
6405 E5
6406 E4
6407 G3
6409 G3
6410 F3
6411 E5
6413 G4
6414 G5
6501 E1
7211 G1
7402 E4
7406 F3
7502 D2
7506 D2
9010 B4
9011 C5
9016 F4
9020 D4
9022 F3
9023 G2
9024 D4
9025 D2
9026 E3
9027 D2
9028 D3
9029 D4
9201 B5
9203 C3
9204 C4
9206 C4
9207 C4
9208 B3
9209 C4

Layout LCoS Audio Amplifier Board (Bottom Side)

2210 G4
2211 G4
2215 G5

2216 G4
2423 E2
2473 F4

3245 G4
3247 G5
3249 G5

3252 G4
3253 G4
3432 F2

3462 G4
3463 G4
3464 G3

3465 G4
3466 G4
3471 F3

3474 G3
3475 G4
3476 G4

3543 D4
3544 D4
5210 G4

5211 G4
6403 G4
6408 G4

7212 G5
7408 G4
7409 G3

7410 G4
7411 G4
7412 G4

7500 D4

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 

Circuit Diagrams and PWB Layouts

EN 60EM8E 7.

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200204

8. Alignments

Index of this chapter:

1. General Alignment Conditions

2. Hardware Alignments

3. Software Alignments

4. Option Codes

8.1 General Alignment Conditions

8.1.1 Start Conditions

Perform all electrical adjustments under the following
conditions:

• Power supply voltage: 230 VAC (+/- 10%)

• Connect the set to the mains via an isolation transformer

with low internal resistance.

• Allow the set to warm up for approximately 20 to 30
minutes.

• Measure the voltages and the waveforms in relation to
chassis ground (with the exception of the voltages on the
primary side of the power supply).
Caution: Never use the cooling fins/plates as ground.

• Test probe: Ri > 10 Mohm, Ci < 20 pF.

• Use an isolated trimmer/screwdriver to perform the

alignments.

Perform all electrical adjustments with the following start
settings (for all CRTs):

• Set LIGHT SENSOR "off", by setting ACTIVE CONTROL
to "off" with the remote control.

• Set CONTRAST to "75", BRIGHTNESS and COLOUR to
"40" (via PICTURE menu).

• Set COLOUR ENHANCEMENT to "off" (via PICTURE
menu).

• Set DIGITAL OPTIONS to "Pixel Plus" (via PICTURE
menu), unless otherwise stated (for sets without "Pixel
Plus" (= Eagle), set to "Natural Motion").

• Set DYNAMIC CONTRAST to "off" (via PICTURE menu).

Alignments

Figure 8-1 Focus access

• To access the Focus adjustments on the Light Engine, it
will first be necessary to remove the front Speaker Cover.
This cover snaps in place. In some models, the Speaker
Cover has additional screws to hold the cover tightly
against the cabinet. To prevent damage to the cabinet,
unsnap as many tabs as possible from the back of the set,
before removing the Speaker Cover.

• Use an inverted 4.5 mm hex socket for these adjustments.

EN 61EM8E 8.

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120704

8.1.2 Adjustment Sequence

Use the following adjustment sequence:

1. Set the correct TV-set "Options" (after storing, re-start the
set!).

2. Rough adjustment of "Geometry".

3. Allow the set to warm up.

4. Accurate adjustment of "Geometry".

5. Software alignments.

8.2 Hardware Alignments

8.2.1 Light Engine Focus Adjustment

The Light Engine comes pre-adjusted. No adjustment for focus
should be required. In rare cases, the set may require a minor
focus touch up.

ENO SIHT ESU

JDA OTUEHT TS

THGIR REPPU

EHT FO RENROC

.NEERCS

ENO SIHT ESU

JDA OTUEHT TS

DNA MOTTOB

EC

EHT FO RETN

.NEERCS

U

OT ENO SIHT ES

REPPU EHT TSUJDA

FO RENROC TFEL

.NEERCS EHT

E_14780_080.eps

130704

Figure 8-2 Focus adjustments

• The upper screw adjusts the upper right portion of the
screen. The thumbwheel, located on the right-hand end of
the Light Engine module, adjusts the lower part of the
screen, and the lower screws adjust the upper left part of
the screen.

• No more than two complete turns should be required to
correct the focus.

EN 62 EM8E8.

Figure 8-3 Light Engine adjustment points

Alignments

E_14780_141.eps

120704

Alignment procedure:

1. Go to the user "Installation" menu.

2. Select "Manual Installation".

3. Tune the TV-set to the system and frequency described

above via "Search" - "475" - "OK".

4. If the frequency, showed in the line "Fine tune", is between

475.18 MHz and 475.31 MHz, you do not need to re-adjust
the "IF AFC".

5. If not, adjust the frequency in the "Fine tune" line to 475.25
MHz and "Store" the program (this is very important
because this will disable the AFC algorithm).

6. Now go to the SAM and select ALIGNMENTS - GENERAL

- IF AFC.

7. During the IF AFC parameter adjustment, one can see
OSD feedback in the top of the screen.

8. This OSD feedback can give 4 kind of messages:

1. Use a 4 mm wrench to loosen the lock nut on each

adjustment post.

2. Use a #15 Torx to loosen the Centring Bracket.

3. Place a 6 mm rod (or 1/4 inch) in the Centre Reference to

keep the Light Engine centred.

4. Adjust the Tilt adjustment screws to make the Light Engine
parallel with the cabinet.

5. Turn the set "on" and apply a crosshatch pattern to the set.

6. If the picture is tilted, use adjustment post "2" to correct the

picture. Use a 4.5 mm inverted hex to adjust the post.

7. If the picture is high or low, use adjustment post "1" to
correct the picture.

8. If the picture is shifted to the left or right, use adjustment
post "3" to correct the picture.

9. If the picture is still shifted to the left or right, remove the
Centring rod and slide the assembly to correct the picture.

10. Tighten the Centring bracket.

11. Tighten the Lock nut on each of the adjustment post. To

prevent the post from turning, place the inverted hex over
each post.

12. Remove the Centring rod.

8.3 Software Alignments

8.3.1 Introduction

With the software alignments, it is possible to align the
Geometry, White Tone, and Tuner IF settings.
Put the set in the SAM (see chapter 5). The SAM menu will now
appear on the screen. Select, via "Alignments", one of the
sub-menus. They are explained below in the sequence of the
sub-menus.

Notes:

• All changes to menu items and alignments are stored
automatically, except the option codes. They must be
stored manually.

• If the Option codes have been changed and stored, the
set has to be switched "OFF" and "ON" using the mains
switch to activate the new settings (when switching via
Standby, the option code settings are NOT read by the
microprocessor).

• If an empty EAROM (permanent memory) is detected, all
settings are set to pre-programmed default values.

8.3.2 GENERAL

LUMA GAIN

Fixed setting is “1”.

IF AFC

Supply, via an external video generator (e.g. PM5518), a TV
signal with strength of at least 1 mV and a frequency of 475.25
MHz. Use system BG if possible, otherwise match the system
of your generator with the received signal in the set.

Table 8-1 AFC

AFC-window AFC-frequency vs. reference

Out High
In High
[ In ] [ Low ]
Out Low

1. The first item (IN or OUT) informs you whether you are in
or out the AFC-window.

2. The second item (HIGH or LOW) informs you about
whether the AFC-frequency is too high or too low.

3. First, you must align the IF AFC parameter such that you
come into the AFC-window (= IN).

4. Then you must look for the point where the IF AFC
parameter changes from HIGH to LOW. This level is the
value you are looking for.

5. After adjustment, STORE the value.

6. Now return to the user "Installation" menu.

7. Select "Manual Installation" - "Search" - "475" - "OK" and

"Store". This will set the AFC "on" again.

Service tip: If you do not trust the frequency accuracy of your
service generator, connect it to a "good" TV set and check it
with the "Fine tune"-line.

IF LPRIME AFC

Use the same procedure as for the IF AFC alignment, but set
the video generator to SECAM L/L" (only necessary for
countries that have or can receive this system).

TUNER AGC

1. Set the external pattern generator to a colour bar video
signal and connect the RF output to the aerial input. Set the
amplitude to 10 mV and set the frequency to 475.25 MHz.

2. Connect a DC multimeter between pin 1 and the shielding
of the Tuner (item 1200 on the LSP).

3. Adjust the TUNER AGC value (default value is "20") with
the LEFT/RIGHT cursor keys until the voltage at pin 1 of
the tuner lies between 3.8 and 2.3 V.

4. STORE the alignment.

BLEND INTENSITY

Use this alignment when you replace the microcontroller. It
aligns the level of transparency of the menu-picture blended
into the main-picture.
Position the "BRIGHTNESS", "CONTRAST", and "COLOUR"
setting in the middle position (via the user PICTURE menu).

1. Apply a signal with a 100 % white video-pattern.

2. Align the BLEND INTENSITY parameter such, that the

blended signal is 65 % of the black-white amplitude. In
practice, this is about 1.3 V (blended signal) versus 2 V (full
white signal).

3. The parameter can be adjusted in between "0" and "31"
(default value= "31").

8.3.3 LUM. DEL. (Luminance Delay)

With this alignment, you place the luminance information
exactly on the chrominance information (brightness is pushed
onto the colour). Use a colour bar/grey scale pattern as test
signal.

• LUM. DELAY PAL BG: Apply a PAL BG colour bar/grey
scale pattern as a test signal. Adjust this parameter until
the transients of the colour part and black and white part of
the test pattern are at the same position. Default value=
"9".

• LUM. DELAY PAL I: Apply a PAL I colour bar/grey scale
pattern as a test signal. Adjust this parameter until the
transients of the colour part and black and white part of the
test pattern are at the same position. Default value= "10".

• LUM. DELAY SECAM: Apply a SECAM colour bar/grey
scale pattern as a test signal. Adjust this parameter until
the transients of the colour part and black and white part of
the test pattern are at the same position. Default value=
"11".

• LUM. DELAY BYPASS: apply a NTSC colour bar/
greyscale pattern as a test signal. Adjust this value until the
transients of the colour and black & white part of the test
area are at the same position. Default value= "7".

Alignments

Figure 8-4 YPbPr test pattern

EN 63EM8E 8.

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010706

8.3.4 MSB (Main Scaler Board)

TEST PATTERN

To check the correct functioning of the MSB board (and its
following circuitry). When set to "on" it will display a colour bar
on the screen with eight colours (left= white, right= black).

ALIGN ADC

Required Equipment

• Digital Video Generator (e.g. VG-828D Astro).

• One YPbPr Cinch-to-BNC cable.

• One VGA-to-BNC cable.

Note: When such a (expensive) generator is not available, it is
possible to align the VGA ADC via a Personal Computer as a
"next best" solution. This requires a PC, a test pattern file (see
figure "VGA test pattern"), and a VGA cable from PC to TV. The
test pattern file (filename= "ADC alignment.bmp") is available
at your NSO (refer to Service Info HE-01/0040).
Perform the "ADC Alignment Procedure (with Personal

Computer)" as described further on.

Initial Setup

1. In the on-screen menu, place the TV in WIDE SCREEN
mode.

2. Activate the SAM mode by entering "0 6 2 5 9 6 [i+]" on the
remote.

3. Setup the Digital Video Generator programs as indicated in
the table and text below.

Table 8-2 Digital video generator setup

Program
#

Program description Pattern

500 480p ADC Alignment Six Color Bar, (see figure)
501 720p ADC Alignment Six Color Bar, (see figure)
502 480i ADC Alignment Six Color Bar, (see figure)
503 VGA ADC Alignment Black-White, (see figure)

E_14780_076.eps

Figure 8-5 VGA test pattern

• 480p Signal Source Setup (Program #500):
– YPbPr amplitude: minimum 690 mV, maximum 710

mV from a 75-ohm source.

– YPbPr brightness: lowest level = black.
– Sync included on YPbPr - bi-level, -300 mV on Y only.
– Horizontal frequency: 31.47 kHz.
– Vertical frequency: 59.94 Hz.
– H_divider number (H_total): 858.
– H_active video: 720 pixels.
– H_back porch: 59 pixels.
– H_sync duration: 63 pixels.
– V_total line number: 525.
– V_back porch: 30 lines.
– V_active video: 483 lines.
– V_sync duration: 6 lines.

• 720p Signal Source Setup (Program #501):
– YPbPr amplitude: minimum 690 mV, maximum 710

mV from a 75-ohm source.

– YPbPr brightness: lowest level = black.
– Sync included on YPbPr - tri-level, -300 mV on Y only.
– Horizontal frequency: 45 kHz.
– Vertical frequency: 60 Hz.
– H_divider number (H_total): 1650.
– H_active video: 1280 pixels.
– H_back porch: 260 pixels.
– H_sync duration: 40 pixels.
– V_total line number: 750.
– V_back porch: 20 lines.
– V_active video: 720 lines.
– V_sync duration: 5 lines.

010706

EN 64 EM8E8.

Alignments

• 480i Signal Source Setup (Program #502):
– YPbPr amplitude: minimum 690 mV, maximum 710

mV from a 75-ohm source.

– YPbPr brightness: lowest level = black.
– Sync included on YPbPr - bi-level, -300 mV on Y only.
– Horizontal frequency: 31.47 kHz
– Vertical frequency: 29.97 Hz
– H_divider number (H_total): 858
– H_active video: 720 pixels
– H_back porch: 59 pixels
– H_sync duration: 63 pixels
– V_total line number: 525
– Start V_sync field 1 line 4 on H sync.
– V_sync duration: 6 lines.
– V_backporch: 13 lines.
– V_active video field 1: 240 lines.
– Start V_sync field 2: line 266 in between H syncs.
– V_sync duration: 51/2 lines.
– V_back porch: 14 lines.
– V_active video field 2: 240 lines.

• VGA Signal Source Setup (Program #503):
– RGB amplitude: minimum 760 mV, maximum 780 mV

from a 75-ohm source.

– RGB brightness: lowest level = black.
– Separate H and V sync, 5 V amplitude, both negative

polarity.

– Horizontal frequency: 31.469 kHz.
– Vertical frequency: 59.940 Hz.
– H_divider number (H_total): 800.
– H_active video: 640 pixels.
– H_back porch: 40 pixels.
– H_sync duration: 96 pixels.
– V_total line number: 525.
– V_back porch: 25 lines.
– V_active video: 480 lines.
– V_sync duration: 2 lines.

ADC Alignment Procedure (with Digital Video Generator)

• 480p Alignment Procedure:

1. Perform the initial setup.

2. Set the Digital Video Generator to "Program #500".

3. Connect the YPbPr Cinch-to-BNC cable between the

Digital Video Generator and an MSB input (EXT4 or
EXT5).

4. Set the source to the chosen MSB input (EXT4 or

EXT5) by pressing the source bottom on the remote
repeatedly until the screen changes to a vertical colour
band pattern. The MSB input is now selected.

5. In the SAM menu go to ALIGNMENT -> MSB -> ALIGN

ADC and press OK on the remote. The screen will
flicker. Once the flickering stops, the alignment is
ready.

• 720p Alignment Procedure:

1. Perform the initial setup.

2. Set the Digital Video Generator to "Program #501".

3. Connect the YPbPr Cinch-to-BNC cable between the

Digital Video Generator and an MSB input (EXT4 or
EXT5).

4. Set the source to the chosen MSB input (EXT4 or

EXT5) by pressing the source bottom on the remote
repeatedly until the screen changes to a vertical colour
band pattern. The MSB input is now selected.

5. In the SAM menu go to ALIGNMENT -> MSB -> ALIGN

ADC and press OK on the remote. The screen will
flicker. Once the flickering stops, the alignment is
ready.

• 480i Alignment Procedure:

1. Perform the initial setup.

2. Set the Digital Video Generator to "Program #502".

3. Connect the YPbPr Cinch-to-BNC cable between the

Digital Video Generator and an MSB input (EXT4 or
EXT5).

4. Set the source to the chosen MSB input (EXT4 or
EXT5) by pressing the source bottom on the remote
repeatedly until the screen changes to a vertical colour
band pattern. The MSB input is now selected.

5. In the SAM menu go to ALIGNMENT -> MSB -> ALIGN
ADC and press OK on the remote. The screen will
flicker. Once the flickering stops, the alignment is
ready.

• VGA Alignment Procedure:

1. Perform the initial setup.

2. Set the Digital Video Generator to "Program #503".

3. Connect the VGA cable between the TV EXT6 input

and the RED, GREEN, BLUE, HS, and VS Digital
Video Generator output.

4. Set the source to EXT6 by pressing the source bottom
on the remote repeatedly until the screen changes to
black on the left and white on the right. EXT6 is now
selected.

5. In the SAM menu go to ALIGNMENT -> MSB -> ALIGN
ADC and press OK on the remote. The screen will
flicker. Once the flickering stops, the alignment is
ready.

ADC Alignment Procedure (with Personal Computer)

• VGA Alignment Procedure:

1. Supply, via a Personal Computer in VGA-mode

(640x480), the "ADC alignment" test pattern. The test
pattern file (filename= "ADC alignment.bmp") is
available at your NSO (refer to Service Info HE-01/
0040, the bmp-file is attached to this Service
Information). This is a half black and half white picture:
black has the value 17, and white 235 on a full scale of
255 (= 700 mV).
Note: use e.g. the program MS Paint, and display the
picture in "full screen" mode (CTRL-F).

2. In the SAM menu go to ALIGNMENT -> MSB -> ALIGN
ADC and press OK on the remote. The screen will
flicker. Once the flickering stops, the alignment is
ready.

RECALL Factory

This will restore the factory alignment values as saved in the
NVM.

8.3.5 GDE-NVM

RESET LAMP SVC (SERVICE) COUNTER

This will reset the lamp counter (line 50) in the CSM menu, and
must be activated after the lamp has been replaced.

SAVE TO FACTORY

This will save the GDE settings in the NVM.

RESTORE FACTORY

This will restore the factory alignment values as saved in the
NVM.

8.3.6 GAMMA

The gamma correction factor is linked to the incidence of light
on the light sensor. Use the default values:

• Light Sensor Index: "0"

• Gamma: "24"

Alignments

EN 65EM8E 8.

8.4 Option Settings

8.4.1 Introduction

The microprocessor communicates with a large number of I2C
ICs in the set. To ensure good communication and to make
digital diagnosis possible, the microprocessor has to know

8.4.2 DEALER OPTIONS

Select this sub-menu to set the initialisation codes (= options)
of the set via text menu's.

Table 8-3 Dealer options overview

Menu name Subjects Options Description

Personal Options Picture Mute Yes Picture (blue) mute active in case no picture detected

No Noise in case of no picture detected

Virgin Mode Yes TV starts up (once) with language selection menu after mains switch "on"

for the first time (virgin mode)

No TV does not starts up (once) with language selection menu after mains

switch "on" for the first time (virgin mode)

Auto Store Mode None Autostore mode disabled (not in installation menu)

PDC-VPS Autostore mode via ATS (PDC/VPS) enabled
TXT page Autostore mode via ACI enabled
PDC-VPS-TXT Autostore mode via ACI or ATS enabled

TXT Preference TOP Preference to TOP Teletext

FLOF Preference to FLOF Teletext

DVD door lock (only for
sets with integrated DVD)

Yes To disable the DVD tray opening function
No To enable the DVD tray opening function

which ICs to address. The presence / absence of these specific
ICs (or functions) is made known by the option codes.
Notes:

• After changing the option(s), save them with the STORE
command.

• The new option setting is only active after the TV is
switched "off" and "on" again with the AC power switch (the
EAROM is then read again).

8.4.3 SERVICE OPTIONS

Select this sub-menu to set the initialisation codes (= options)
of the set via text menu's.

Table 8-4 Service options overview

Menu-item Subjects Options Description

Chassis/Region Region Europe Select your region

AP PalMulti Select your region

Dual Screen PIP/Dual Screen No Not selectable

Text/EPG DS Yes / No Feature present / not present
Teletext NexTView type Flash RAM Flash RAM present / not present
Video Repro Featurebox type Not selectable

Lightsensor Yes / No Feature present / not present

2D Combfilter Yes / No Feature present / not present

Picture Impr. Yes / No LTP (TOPIC) present / not present

PixelPlus Yes / No Eagle IC present / not present

Signalling bits Yes / No For 16:9 / 4:3 sets
Source Sel. AV3 2Fh Yes Not selectable

AV4 2Fh Yes Not selectable
Audio Repro Acoustic System 4 Speakers Cabinet design (Matchline)

2 Speakers Cabinet design (Epic)
Vitual Dolby Yes Not selectable
AVL On / Off Enable / disable Automatic Volume Limiter

Miscellaneous Home Cinema Yes / No Model with / without Home Cinema Link (EU only)

Integrated RC Yes / No Control pheripheral equipment via TV IR receiver (EU only)
Tuner type UV1316 / TEDE9 Model with Philips tuner / Alps tuner
P50 DVD menu line Yes / No Enable / disable DVD control via user menu with TV RC (EU only)
VGA Data Graphic Yes / No Set with / without VGA input

Option no. Group 1 Group 1 option code overview (see set sticker)

Group 2 Group 2 option code overview (see set sticker)

EN 66 EM8E8.

OPT. NO. (Option numbers)

Select this sub menu to set all options at once (expressed in
two long strings of numbers).

An option number (or option byte) represents a number of
different options. When you change these numbers directly,
you can set all options very fast. All options are controlled via
eight option numbers.
When the EAROM is replaced, all options will require a re­setting. To be certain that the factory settings are reproduced
exactly, you must set both option number lines. You can find
the correct option numbers on a sticker inside the TV set.

Example: The sticker in the 55PL9874/12 gives the following
option numbers:

53835 40992 49472 00064
04182 00001 00000 03971

Every 5-digit number represents 16 bits (so maximum number
can be 65536 if all options are set).
When all the correct options are set, the sum of the decimal
values of each Option Byte (OB) will give the option number

Alignments

Circuit Description, List of Abbreviations, and IC Data Sheets

9. Circuit Description, List of Abbreviations, and IC Data Sheets

EN 67EM8E 9.

Index of this chapter:

1. Introduction

2. Power Supply Block

3. Video Signal Flow Block

4. Light Engine Block

5. Audio Signal Flow Block

6. OTC Microprocessor Block

7. SSB Standby Supply

8. Keyboard

9. Light Sensor

10. LED Circuit

11. I2C Interconnect

12. Fan Drive

13. Abbreviation List

9.1 Introduction

9.1.1 General

The EM8E chassis is a rear projector television, based on
LCoS (Liquid Crystal on Silicon) technology. LCoS is a
reflective LCD technology. The light source is an ARC
projection lamp, which is replaceable by the customer. This
projector is lighter and more compact, than comparable size
projection sets using tubes.

The model has Pixel Plus for the 1fH inputs. The EM8E is a
High Definition Ready set with a screen resolution of
1280x720. The tuning system is capable of tuning all the PAL
and SECAM systems. The 1fH EXT inputs can accept PAL,
SECAM, or NTSC.

A timer in the set will inform the customer when the Lamp
should be changed. Under the Setup/General title, the Bulb
Replaced selection will reset the timer when the OK button on
the Remote is pressed. The Timer is set for 6000 hours. When
the set is turned on, it takes approximately 30 seconds before
the lamp will turn on. There is an approximate 30 second
shutdown time before the set turns off and can be turned on
again.

9.1.2 Set Operation

The set has three 1fH SCART inputs and one Side Jack panel.
Component or Composite video can be input into SCART 1.
RGB or Composite video can be input into SCART 2 while
SCART 3 is only wired for Composite video. Composite video
or SVHS can be input into the Side Jack panel. The SCART
and Side jack panel will accept PAL, SECAM, or NTSC signals.
AV4 or AV5 can accepts either 1fH or 2fH signals. AV6 is a
DB15 RGB input. AV7 is a DVI 1080i input connector. Inputs
from 1h sources should be connected to SCART 1, SCART2,
SCART 3, or the Side Jack panel for best results.

The indicator LEDs and the Remote Control Receiver are
located on the front of the set. When the set is turned "on", the
Amber LED will turn "on". After the Lamp in the set has
switched "on", the Green LED will turn "on".
The Control Panel is located at the top of the set. The "Power
on" button is lighted with a blue LED whenever power is applied
to the set.

When the set is turned "on" via the Keyboard or Remote
Control, the set will take approximately 30 seconds to display a
picture. By using the SELECT button, the Remote can be used
to control other devices. A list of setup codes for other devices
is located in the customer's operators manual. The customer
can select the MENU button on the Remote to make additional
selections and adjustments as desired. Use the cursor right

and cursor down buttons on the Remote to select the desired
topic.

When PICTURE is selected, use the cursor down button to
select the desired subtopic. For example, press the cursor
down button to select CONTRAST then use the cursor left and
cursor right buttons to change the values. Additional dots on
the lower part of the line indicate that additional selections are
present. Continue to press the cursor down button to make
these selections.

Under COLOR TEMPERATURE, there are three selections:
NORMAL, WARM, and COOL. With the NORMAL selection,
the picture displays a normal Gray Scale. If the customer
desires a reddish tint to the picture, WARM is selected. COOL
shifts the picture's gray scale in the direction of Blue.

With sets with Pixel Plus, the customer can select between
Progressive Scan and Pixel Plus. Pixel Plus provides additional
picture enhancement.

9.1.3 Picture Formats

There are seven different Picture Formats: Super Zoom,
Panoramic, 4:3, Movie Expand 14:9, Movie expand 16:9, 16:9
Subtitle, or Wide screen, which can be selected by the
customer.

• Super Zoom enlarges the picture vertically without
distortion. Some of the top and bottom portions of the
picture will be deleted.

• The Panoramic format evenly stretches the edges while
keeping the center of the picture linear to display a 4:3
picture on a 16:9 screen.

• The 4x3 format displays a 4:3 picture without change.
Black or gray bars will show at the left and right sides.
There is no loss of picture on the top and bottom.

• Movie Expand 14:9 displays the picture in a 14:9 aspect
ratio. Some of the top and bottom portions of the picture will
be deleted. Black or gray bars will show at the left and right
sides. This would be used by the viewer if the original
material was in the 14x9 letterbox format.

• Movie Expand 16:9 format stretches the picture
horizontally and vertically to fill the 16:9 screen. Some of
the top and bottom portions of the picture will be deleted.
This format would be used by the viewer if the original
material was in the 16x9 letterbox format.

• The 16:9 Subtitle format zooms the picture for a full view of
subtitles or other information displayed at the bottom of the
screen. The top portion of the picture will be deleted in this
mode. This format digitally stretches the picture vertically,
then shifts it up.

• The Wide Screen format evenly stretches the width of a 4:3
picture to fill the screen. The viewer would use this format
if the original material was in a 16x9 compressed Format.

When portions of the picture are deleted, the cursor buttons on
the Remote can shift the picture to select the area to be
deleted.

Under the Channels title, is the channel guide lock selection.
The customer can lock out selected channels or channels that
are transmitting a selected rating code. These channels can
only be view when the code selected by the customer is
entered. If the customer forgets the code, a code of "8888",
entered twice, can be used to unlock the set.

EN 68 EM8E9.

9.1.4 Reflective LCD Projection System

B+

Circuit Description, List of Abbreviations, and IC Data Sheets

E_14780_015.eps

280604

Figure 9-1 LCD cell

The LCoS (Liquid Crystal on Silicon) uses a single LCD device
with multiple LCD cells. Since a single panel is used, it is
necessary to scan the panel with the primary colours to obtain
a colour picture. A LCD is a light valve, which allows more or
less light pass through it, depending on the applied voltage.

E_14780_016.eps

280604

Figure 9-2 Transmissive LCD

The LCD used in most projectors and direct view LCD TVs
uses a transmissive type of LCD. Light is projected to pass
through the LCD panel. One of the disadvantages of this type
of system is that the electronics to control the LCD cells limit the
surface area in which light can pass. This limits the resolution
of the picture and brightness.

E_14780_069.eps

290604

Figure 9-4 LCD surface area

The reflective LCD used in the LCoS projector uses a
1280x1024 device with 20 micron pixels. Since the aspect ratio
of the TV is 16x9, the actual area used is 1280x720.
Regardless of the input format, the LCD displays the picture in
a 1280x720 format.
The Philips LCoS projector uses a single LCD device. To
obtain a colour picture, the LCD is scanned with strips of Red,
Green, and Blue light. Splitting the light from the Lamp and
directing it to three colour filters, which produces Red, Green,
and Blue light, develop the strips of colour. The output from the
filters is directed to three rotating prisms to produce the colour
strips and direct them to the correct parts of the LCD. Data is
directed to the LCD in such a way, that the correct data for
colour, illuminating to that portion of the LCD will be displayed.
The LCD is being scanned a rate of 180 Hz. The phase of each
prism is offset by 30 degrees, to provide colour separation. The
reflected light from the LCD is fed to a projection lens, the
mirror, and finally the screen.

LIQUID
CRYSTAL
DISPLAY

SCANNING PRISM

PROJECTION LENS

LAMP
DRIVER

LAMP

LIGHT SENSOR

E_14780_017.eps

280604

Figure 9-3 Reflective LCD

The reflective type of LCD, like the one used in the LCoS, has
the electronics beneath the LCD cells, allowing greater
resolution. The LCD cells are turned on, switching the
individual cells. Beneath each cell is a reflective surface. The
amount of light reflected from each cell depends on the applied
voltage. Since the LCD may be illuminated by all three primary
colors at one time, several cells are addressed at once.

E_14780_068.eps

Figure 9-5 Light engine path

PRISM

E_14780_070.eps

Figure 9-6 Light engine without lamp and PWB

120704

290604

Circuit Description, List of Abbreviations, and IC Data Sheets

9.2 Power Supply Block

EN 69EM8E 9.

RECT

RELAY

STANDBY

LAMP
INTERLOCK
VACATION
SWITCH

POWER
INPUT
BOARD

AUDIO
SUP

LAMP
SUP

The Bridge Rectifiers, on/off Relay, Audio Power supply, and
Lamp supply are located on the Power Input board. The

9.2.1 AC Input

3219

4.7M

1211
5

2205
680n

1207

STANDBY

3212
V-

3216

4.7M

3218

4.7M

3246
10K

3245
10K

5213

3248
10K

3250
10K

1212

1

4

1214

2220
470p

RAW-STBY

RECT

RAW-DC

+25V

-25V

330V

Figure 9-7 Power supply block

3249
100K

3247
1K

5209

100k

7211

5218

2249
100n

7212

3204

2.2M
2201

220n

+5VSTBY

160V

325V

STBY
SUPPLY

+5V STBY

+36V

MAIN
SUPPLY

+22V

+12V

+9V

MAIN
POWER
BOARD

REG

+3V3

E_14780_014.eps

280604

Standby and Main supplies are located on the Main Power
board.

2212
1n

2200
1n

2203
1n

325V

2219
100uF

6201

RAWDC_STBY

325V

5212

2202
1500uF

RAW-DC-LAMP

RAW-DC

2217
1n

6202

1210

6200

+5VSTBY

SIDE
JACK
PAN E L

1344-5

1300
VACATION
SWITCH

SYSTEM
BOARD

1403-11

1401-1

LAMP
HOUSING

T

THERMAL
SWITCH

Figure 9-8 AC input

AC is applied to the Power Input Board via connector 1212.
This voltage is rectified to produce the RAWDC-STBY and is
fed to the Main Power Board. This feeds the Standby Supply
that produces a 5 V Standby and a switched +5 V2 supply. This
supply feeds the Power Relay on the Power Input board and
the SSB to power the Microprocessor.

The AC input voltage is also fed to a Relay Switch controlled by
the Microprocessor on the SSB via the System Board. When
the set is turned "on", the Standby line goes Low, switching the
Relay "on". The Relay B+ goes through a Thermal Lamp
switch, Door Interlock switch, and Vacation Switch. Voltage
from the Relay is fed to a rectifier that supplies RAW_DC to the
Audio Supply and Lamp Supply located on the Power Input
Board. The rectifier is connected as a voltage doubler. It also
supplies RAW_DC to the Main Supply located on the Main
Power Board. The Audio Supply provides a positive and
negative voltage to the Audio Amplifier Board. The Lamp

1410-2

1460-3

LAMP
HOUSING

LAMP
DOOR
SWITCH

1460-1

E_14780_018.eps

280604

Supply is a Boost regulator that supplies 330 V to the Lamp
Driver board.

The Main Supply produces a +36 V, a +12 V, a +22 V and a +9
V supply. The +9 V supply is also fed to a 3.3 V regulator.

Fuse 1211 provides protection against over current. Spark
gaps 1214 and 1216 provide protection against excessive
voltage spikes on the AC line. Resistors 3207, 3210, 3213, and
3215 limit the current when power is first applied to the set.
Bridge 6202 rectifies the AC voltage to produce the
RAWDC_STBY for the Standby regulator.

Bridge 6201 provides power for the Lamp Supply and the Main
Power supply. When the set is turned "on", Relay 1210
switches "on" to provide power to 6201. Bridge 6201,
Capacitors 2202 and 2209 constitute a voltage doubler circuit.
When the set is turned "on", the Standby line goes Low.

EN 70 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

Transistor 7212 turns "on" turning transistor 7211 "on",
switching the Relay 7210 "on". The 5 V Standby supply for the
Relay is connected to the Lamp Door Interlock switch, the
Thermal switch which is located on the Lamp Housing, and the

9.2.2 Standby Supply

RAWDC_STBY

1

C

5.8V
REG

OSC

Re

5

GND_HB

1213

GND_HS

GND_HB

GND_HB

Rs

INTERNAL
SUPPLY

+

5.8

4.8

7202

-

TOP246Y

PWM

F

3233
1

2244
22uF

GND_HB

X

L

2

3

3226

8.2K

GND_HB

7

D

GND_HB

S

4

GND_HB

3224
470

Vacation switch located on the Side Jack panel. If the
Projection Lamp Door is open, the Vacation switch is open, or
the Lamp Housing has overheated, the set cannot be turned
"on".

2222
1n

2236

4.7nF

6201

3221

3222

33K

33

5209

2232

2233

100p

100p

2237

3225

2.2K

100p

6205
2245
100uF

GND_HB

GND_HB

4

1

6207

5

2

2243
100n

7206

+5VSTBY

5211

GND_HB

3229
47

3238
10K

5210

10

9

5

3

2

6

1

7
8

3223
1K

2250

3232

4.7nF

56K

2242

3237

100n

10.7K

3230
33

2235
1n

3252
330

5212

6204

2236

2239

1000uF

1000uF

3253

6209

22K

2265

3255

1uF

47K

+5VSTBY

7203

2240
1000uF

6206

7211

18V

3256
1K

3257
1K

7210

3258

7209

470

3260

3.3K

3259
1K

3231
1K

+5.2

+12V

PWRFAIL_STDBY

E_14780_019.eps

280604

Figure 9-9 Standby supply

The Standby supply is located on the Main Power board. It
provides the +5 V STBY supply to the set whenever power is
applied.

When power is first applied, the RAWDC_STBY is applied to
the primary winding of 5210 and to Pin 7 of 7202. Current
through resistor Rs charges Capacitor 2244 connected to Pin
1 of 7202. When the charge on 2244 reaches 5.8 V, the Internal
Supply switch is switched to internal. The Oscillator and PWM
turn "on" to drive the internal FET. The PWM will continue to
drive the FET until the charge on Capacitor 2244 drops below

4.8 V. Capacitor 2244 will again charge and the process will
repeat. With each start-up cycle, energy is transferred to the
secondary windings of 5210. When the +5 V STBY supply
reaches 5 V, the input of 7206 will go to 2.5 V. This will turn
Shunt Regulator 7206 "on", causing current to flow through
opto insulator or 6207. Voltage from Pins 1 and 2 of 5210 is
rectified by 6205 to produce the operating voltage for 7202.
When opto insulator 6207 turns "on", the operating voltage is
applied to Pin 1 of 7202. The supply is in a normal operating
mode.

Regulation of the secondary is accomplished by monitoring the
reference voltage via Shunt Regulator 7206 and opto insulator

6207. The +5 V STBY is the reference voltage for the Standby
supply. If the 5-V standby supply should increase, Shunt
Regulator 7206 will conduct harder, causing the LED in Opto
insulator 6207 to get brighter. The internal resistance of the
transistor inside 6207 will be reduced. The internal regulator
inside 7202 connected to Pin 1 works to keep Pin 1 at 5.8 V. If
the current through 6207 increases, the current flow through
the 5.8-V regulator will increase. This increase in current will
cause the voltage across the sensing resistor Re to increase.
The PWM will then reduce the "on" time of the internal FET,
reducing the secondary voltage. If the 5-V standby voltage
should decrease, the current through the sensing resistor Re
will decrease, reducing the voltage across the resistor. This will
cause the PWM to turn the internal FET "on" for a longer period
of time, increasing the secondary voltage.

FET 7203 switches the +5.2 V supply, when the +12 V supply
from the Main Power supply is switched "on". If the Standby

Supply should fail, or Power is removed from the set, the
Standby Power Fail circuit will signal the Microprocessor in
time to allow it to shut down. Voltage from Pin 8 of 5210 is
rectified by 6209 to produce a negative voltage. This voltage
and the +5 V standby voltage are applied to the input of Shut
Regulator 7209. The combined voltage keeps the input to 7209
below the turn "on" voltage of 2.5 V. A small Capacitor, 2265,
filters the negative voltage that is rectified by 6209. If power is
removed from the set, 2265 will discharge quickly because of
its small value. The input to 7209 will then go above 2.5 V,
turning it "on". This will turn transistor 7210 "on", switching the
Standby Power Fail line High. Transistor 7210 will also turn
"on", turning the +5.2 V supply "off".

Circuit Description, List of Abbreviations, and IC Data Sheets

9.2.3 Main Power Supply

RAW-DC

GND_HA

1

C

5.8V
REG

Re

5.87V

OSC

5

GND_M

+

5.8

-

4.8

F

2

GND_M

3333

6.8
2344

47uF

5301

PWM

L

GND_M

GND_M

7302
TOP247Y

Rs

INTERNAL
SUPPLY

X

3

3326

8.2K

3324
470

320V

2320
100uF

GND_M

GND_M

4

EN 71EM8E 9.

2312

2336

1n

4.7nF

GND_M

6301

3321

3322

22K

100

20.2V

2343
47uF

GND_M

5

4

7306

2341
10uF

5309

2337
470p

6305

8.2V

1

2

7.1V

2243
100n

2.5V

7

D

2333
470p

GND_M

3327
10K

GND_M

S

6307

8.14V

Figure 9-10 Main power supply

GND_M

+9V

3325
33

2350

4.7nF

3323
1K

3338
10K

3329
150

5310

3347
10

6313

6

5

7

2356
100p

8

3

2

9

10

1

3322
56K

3344

2342

750K

100n

3345
27K

6314

5320

2357
1500uF

+9V

2354
22uF

2362
470p

6316

6315

5305
2358

1000uF

3330
220

3340
22K

2363
470uF

3339
470

+22V

2367
22uF

5323

2360
1500uF

3352

2.7K

3346

3.3K

5326

2355
1uF

2364
470uF

6309

2365
1uF

2361
1000uF

+36V

7303

-48.6V

7304

3341
680

3353
100K

2353
22uF

7309

7310

+12V

2366
1000uF

3358

3.3K

3359
180

6308

5.1V

PWR_FAIL

E_14780_020.eps

6306

+9V

280604

3331
270

3342
10K

3328

2.7K

+9V

+22V

3357
1K

3354

8.2K

3356
1K

1.1V
3355

150K

Power is applied to the Main Power supply when the set is
turned "on". The RAW-DC is switched to the Main Power
supply located on the Main Power supply board. Voltage is
applied to the Primary winding of 5310 via Pins 5 and 3.
Voltage is then applied to Pin 7 of 7302. In the Start-up mode,
voltage from the internal current limiting resistor Rs is routed to
Pin 1 where it charges Capacitor 2344. When the charge on
Capacitor 2344 reaches 5.8 V, Pin 1 is switched to the Internal
Supply connection. The Oscillator and PWM drive are switched
"on" to drive 5310. IC 7302 will continue to drive the
Transformer, 5310, until the charge on 2344 drops below 4.8 V.
The Start-up cycles will continue until the secondary reference
voltage, the 9 V supply, reaches the correct level. When the 9­V supply reaches the correct level, 2.5 V will be applied to the
input of Shunt Regulator 7306. Shunt Regulator 7306 will then
turn "on" causing current to flow through the LED in Opto
insulator 6307. This will turn the transistor inside 6307 to turn
"on". Voltage from Pins 1 and 2 of the Hot secondary is rectified
by 6305 and filtered by 2341. Opto insulator 6307 switches this
voltage to Pin 1 of 7302 to provide the operating voltage for the
IC.

The secondary produces +36 V, +12 V, +9 V, and +22 V
supplies. Shunt Regulator 7304 and FET 7303 regulate the +12
V supply.

The PWR_FAIL Main Power Fail detection circuit signals the
Microprocessor when power is about to be lost to the set while
it is "on". Voltage from Pin 9 of 5310 is rectified by 6309 to
produce a negative voltage, which is filtered by Capacitor 2365.
This voltage along with the +9 V supply is applied to the input
of Shunt regulator 7309 via resistor network of 3354, 3355, and

3353. As long as the negative voltage is present on 2365, the
voltage on the input of 7309 will be less than the 2.5 V
necessary to turn it "on". Transistor 7310 will be turned "off",
keeping the PWR_FAIL line Low. When the switched mode
supply ceases operation, Capacitor 2365 will discharge
quickly, due to its low value, allowing the voltage on the input
of 7309 to increase to 2.5 V from the 9 V supply via resistors
3359 and 3357. Shunt Regulator 7309 will turn "on", turning
transistor 7310 "on", causing the PWR_FAIL line to go High.
This will signal the Microprocessor to shut everything down
before the main supply voltage drops.

Regulation of the secondary is accomplished by monitoring the
reference voltage, the +9 V supply, to control the "on" time of
the internal FET of 7302. If the +9 V supply increases, Shunt
Regulator 7306 will conduct harder increasing the amount of

current through 6307. This will cause the LED to increase in
brightness, reducing the internal resistance of the transistor
inside the IC. The increase in current will cause the voltage
across the internal sensing resistor Re inside 7302 to increase.
The PWM will then reduce the "on" time of the internal FET,
decreasing the secondary voltage. If the +9 V supply should
decrease, 7306 will conduct less, the transistor inside 6307 will
conduct less, causing less current to flow through the sensing
resistor Re. The PWM will sense the lower voltage across Re,
increasing the "on" time of the internal FET to increase the
secondary voltage. During normal operation, the voltage on Pin
1 of 7302 will stay at 5.8 V due to the internal regulator.

EN 72 EM8E9.

9.2.4 3.3 Volt Regulator

Circuit Description, List of Abbreviations, and IC Data Sheets

+9V

5317

3349

0.47

3334
1K

3348

100

1.27V

3351

8

Q

S

100

R

7

0.1

6

5

2348
100n

3335

100K

2340
10n

OSC

+

-

1.25V
REF
REG

7307
MC34063

1

2

3

4

Figure 9-11 3.3 Volt regulator

IC 7307 and transistor 7308 make up the 3.3-V regulator
located on the Main Power Supply board. When the Oscillator
in 7307 goes Low, the flip-flop is reset causing Q to go Low and
the output to go High. When the Feedback voltage on Pin 5 is
below 1.25 V, the comparator outputs a High. When the
Oscillator goes High, the flip-flop is Set, causing Q to go High.
This causes Pin 1 to go Low, turning Transistor 7308 "on". 7308
will stay on until the Oscillator goes Low, resetting the flip-flop.
If the output voltage monitored on Pin 5 goes below 3.3 V, the
voltage on Pin 5 will drop below the 1.25 V reference. The flip-

3336
100

2347
470p

2351
22n

7308

2348

3350

5328

1n

6312

8.2

5316

2349
1000uF

2345
10n

3343

1.8k

flop will then Set when the Oscillator goes High. If the output
voltage goes above 3.3 V, the reference voltage on Pin 5 will
be above the 1.25 V internal reference. The flip-flop will not Set
when the Oscillator goes High until the feedback reference
voltage on Pin 5 drops below the 1.25 V internal reference. This
method controls the "on" time of 7308 to regulate the 3.3-V
supply. Pin 7 monitors the current by reading the voltage drop
across resistors 3349 and 3351. If the output current is
excessive, the Oscillator will go Low to shorten the "on" time of

7308.

2352
1000uF

E_14780_021.eps

+3.3V

280604

9.2.5 Audio Power Supply

1

2423
470p

GND_HA

C

5.8V
REG

Re

+

5.8

-

4.8

OSC

F

5

GND_HA

3433

6.8
2444

47uF

GND_HA

CONTROL_VOLTAGE

PWM

L

2

INTERNAL
SUPPLY

7402
TOP247Y

3

12.4V

6411

2433
100p

GND_HA

3441

4.7K

6406
18V

3430
470

0V

6404

5408

325V

8.5V

2432
1nF

3426
56K

GND_HA

5

4

17.15V

7406

6410

5

4

2441
10uF

2453

5419

5417

3460
10K

3464
10K

470p

6413

6414

2456
470p

+V_AUDIO

+5VSTBY

3473
1K

3474
100K

7412

6409

6408

2472
100uF

+25V

-25V

2454
1000uF

2457
1000uF

6403

3462

4.7K

3475
10K

3476
10K

5420

5422

DC_FAULT

7410

+V_AUDIO

-V_AUDIO

3463

10K

6407

6.8V

+5VSTBY

3461
10K

-V_AUDIO

E_14780_022.eps

280604

5410

3438
10K

3470
47

3429
1K

3432
1K

2442
100n

3472

1.2K

5

3

2

1

3431
56K

+5VSTBY

7411

6

7

8

3444
820K

3445
100K

2473
1n

7409

3425
33

5409

GND_HA
2437
100p

6405

+V_AUDIO

18.25V

1

2

2443

4.7nF

2.5V

4.99V

1

3471
1K

2

3.91V

RAW-DC

2420

4.7uF
GND_HA

Rs

X

3403
12K

5.9V

4

GND_HA

7

D

S

5411

Figure 9-12 Audio power supply

Circuit Description, List of Abbreviations, and IC Data Sheets

EN 73EM8E 9.

The Audio supply produces a plus and minus 23 V. This supply
is located on the Power Input board. The Audio supply also
produces the control voltage or operating voltage for the Lamp
supply.

RAW-DC voltage is applied to the Audio Power supply circuit
when the set is turned "on". This voltage is applied to primary
windings, Pins 5 and 3, of Transformer 5410. It is also applied
to Pin 7 of the Switching Regulator, IC 7402. Start-up occurs
when the voltage applied to Pin 7 is fed to the current limiting
resistor Rs and to Pin 1 of the IC. This voltage charges
Capacitor 2444. When the voltage on this Capacitor reaches

5.8 V, Pin 1 is switched to the Internal Supply. The Oscillator
and PWM drive turns "on" to drive the internal FET. This drives
5410 to produce the secondary voltages. The IC will continue
to operate until the charge on 2444 drops below 4.8 V. The
Start-up cycle will then repeat. When the secondary voltages
have reached the correct level, the input to Shunt Regulator
6404 will increase to 2.5 V. Shut Regulator 7406 will then turn
"on", switching Opto insulator 6404 "on". The voltage on Pin 1
and 2 of 5410 is rectified by 6405 and filtered by Capacitor

2441. Opto insulator 6404 then switches this voltage to Pin 1 of
7402 to provide the operating voltage. The supply is then
operating in a normal mode. The operating voltage from 6405
is also used to supply the CONTROL-VOLTAGE supply to the
Lamp supply.

Regulation is accomplished by monitoring the Positive Audio
supply. This voltage is fed to resistor network, 3444, 3445, and

3438. It is then fed to the input of Shunt Regulator 7406. If the
secondary voltage should increase, Shut Regulator 7406 will
conduct harder, increasing the current through the LED in Opto
insulator 6404. This will decrease the internal resistance of the
Transistor inside 6404. The 5.8-V regulator inside 7402 keeps

Pin 1 at 5.8 V. To maintain this Pin at the correct voltage, the
Regulator will increase the current through the sensing resistor
Re. The voltage across Re is fed to the PWM which reduces
the "on" time of the Internal FET, which reduces the output
voltage. If the secondary voltage should decrease, the voltage
across Re would decrease via the same path. The PWM would
then increase the "on" time of the internal FET to increase the
secondary voltage. In some cases, the secondary load could
become excessive on the positive supply causing the voltage
on the other windings of 5410 to increase. If the voltage from
Pin 1 of 5410 should exceed 23.8 volts, Zener diode 6404 will
conduct, increasing the current through the sensing resistor Re
to reduce the "on" time of the internal FET to prevent damage
to the supply.

The Audio supply can also be shut down if a DC-FAULT is
detected in the Audio Output circuit or if the positive and
negative supplies become unbalanced. In normal operation,
the DC-FAULT line is Low, turning Transistor 7412 "on". This
turns Transistor 7411 "on", which turns on Opto insulator 6410.
This connects resistor 3403 and Pin 3 of 7402 to ground. This
enables the Switching Regulator IC 7402. If Pin 3 is open, 7402
will shut down. If the DC_FAULT line should go High, 7412 will
turn "off", turning 7411 and the Opto insulator 6410 "off". This
will shut the supply down. The positive supply is connected to
diodes 6407 and 6409 via resistor 3460. The negative supply
is also connected to the same point. When the supplies are
equal, the voltage at this point is zero. If the voltage becomes
unbalanced in the negative direction by -2.5 V, Transistor 7410
will turn "on", turning Transistor 7409 "on". This will turn
Transistor 7411 "off", shutting the supply "off". If the voltage
becomes unbalanced in the positive direction by 1.2 V, Diode
6409 will conduct, turning Transistor 7409 "on", turning 7411
"off", shutting the supply down.

9.2.6 Lamp Supply

CONTROL_VOLTAGE

5502

2544
47uF

3533

6.8

2541
10uF

GND_S

3536
10

2542
10n

7500

GND_S

RAW-DC-LAMP

5.9V

3537
100

3538
1K

1511
5

5503

2522
1n

3535

3534

680K

680K

1

C

5.8

4.8

OSC

5

GND_HA

F

GND_S

3542
120K

+

-

7506

5.8V
REG

Re

GND_S

2.5V

3543

2.7K

2

3541
120K

PWM

L

GND_HA

7502
TOP247Y

3540
120K

5510

190uH

Rs

INTERNAL
SUPPLY

X

3

3526
10K

GND_HA

2534
100uF

5509
BEAD

GND_HA

7

D

2533
220p

S

4

GND_HA

2535
1n

GND_HA

5507

2531
220p

2530
220p

3522
33

6501

GND_HA

5514

2536
1n

2

E_14780_023.eps

1310

1

TO LAMP
BOARD

280604

Figure 9-13 Lamp supply

The Projection requires a minimum of 330 V to operate. To
ensure that sufficient voltage is present, a Boost Regulator is
used. A Boost Regulator has a higher output voltage than the
input voltage. The Lamp supply is located on the Power Input
board.

RAW-DC-LAMP is applied to the Boost circuit via Fuse 1511.
Voltage is applied to Pin 1 and Capacitor 2544 via the current
limiting resistor Rs in 7502. When the charge on 2544 reaches

5.8 V, the PWM circuit drives the internal FET. When the FET
is "on", a field builds up in Coil 5510. 5509 is a Ferrite bead to
reduce RFI. When the FET turns "off", the field in 5510
reverses polarity. This voltage is rectified by Diode 6501, which
charges Capacitor 2534. This will continue until the charge on
2544 drops below 4.8 volts. The Start-up cycle will then repeat.
When the voltage across 2534 reaches 330 volts, Shunt
Regulator 7506 turns "on", turning Transistor 7500 "on". The

EN 74 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

Control Voltage from the Audio Power supply now becomes the
operating voltage for Pin 1 of 7502.

Regulation is accomplished by the monitoring of the 330 V
Lamp voltage by Shunt Regulator 7506. If the 330 V supply
increases, 7506 will turn "on" harder, turning Transistor 7500
"on" harder. The increase in current will increase the voltage
across the sensing resistor Re inside 7502. The Regulator
connected to Pin 1 will keep Pin 1 at a constant 5.8 V. The
voltage across Re will be fed to the PWM, reducing the "on"
time of the internal FET to reduce the output voltage. If the 330
V supply decreases, the voltage across Re will decrease,
causing the PWM to increase the "on" time of the internal FET.
If the RAW-DC-LAMP voltage is 330 V or higher, the "on" time
of the internal FET in 7502 will be to small for it to have an effect
on the output voltage.

If the Switch mode circuit for the Lamp supply fails to operate,
the voltage to the Lamp would be equal to the RAW-DC-LAMP
voltage. The symptom is this case would be that the lamp
would not ignite. Another possibility would be that 7502 might
short. There would not be Lamp voltage in this case. The
feedback circuit might cause a Low output voltage, 7506 and
7500, failing to operate. A Scope reading on Pin 1 of 7502
would indicate that the voltage would be changing between 4.8
and 5.8 V. Pin 7 of 7502 would be pulsing "on" and "off".

9.3 Video Signal Flow Block

SCART 1

SCART 2

SCART 3

SIDE

AV4

AV5

AV6

AV7

The LCoS projector has three sections: the 1fH PAL, SECAM,
and NTSC processing, Scaler HD Processing, and the Light
Engine.

The 1fH PAL, SECAM, and NTSC section has four video
inputs, SCART 1, SCART 2, SCART 3, and Side Jack panel,
which are for 1h Y Pr Pb, RGB, SVHS, or Composite video
only. This section has Line Doubling and Pixel Plus functions.
This section generates a 2fh signal, which is fed to the Scaler
HD Processing section.

The Scaler HD Processing section has two YPbPr inputs, AV3
and AV4. AV5 is a RGB input, while AV6 is a DVI input. AV3
and AV4 can accept either a 1fH PAL, SECAM, NTSC, 480P,
576P, or a 1080I HD signal. For best results, the 1fH signals
should be connected to SCART 1, SCART 2, SCART 3, or the
Side input. It also processes the 2fH signal from the 1fH
section. The signal is processed to output a 1280x720 pixel to
the Light Engine. The Light Engine contains all of the display
circuits used to project the picture to the screen.

Notes:

• 1fH processing is for PAL, SECAM, and NTSC only.

• Pixel Plus processing in the 1fH section.

• Either 1fH or 2fH signal can be applied to the Scaler.

• Regardless of the source, all signals are displayed in a

1FH PAL, SECAM, NTSC
PROCESSING

SCALER
HD PROCESSING
2FH

Figure 9-14 Video signal flow block

1280x720 format.

LIGHT
ENGINE
1280x720

E_14780_024.eps

280604

Circuit Description, List of Abbreviations, and IC Data Sheets

9.3.1 1fH Section Block

EN 75EM8E 9.

FRONT

SVHS

SCART1

SCART2

SCART3

SIDE JACK PANEL

Y-FRONT-IN
C-FRONT-IN

SCART PANEL

G-SC1-IN_Y-IN
B-SC1-IN_U-IN
R-SC1-IN_V-IN

STATUS-PIN-AFT
FBL-SC1-IN
CVBS-SC1_AV1-IN

B-SC3_U-IN
SEL-SVHS-RR_STATUS2
G-SC3_Y-IN
FBL-SC3-IN
Y-CVBS-SC2_AV2-IN

R-SC3_V-IN
C-SC2_SVHS-IN

CVBS-SC3-IN
STATUS-SC3-IN

SYSTEM BOARD

Y
U

7611
PICNIC

V

7323
HIP

Y

Y

U

7724
EAGLE

U

7100
LVDS

7718
FALCONIC

V

V

Y
U

V

SSB

Y

2D

C

CVBS

COMB

TX0
TX1
TX2
TX3
TXC

7719
FM3

7714
FM1

TO
SCALER
BOARD

7717
FM2

TUNER

Figure 9-15 1fH section block

The inputs for the 1fH section are for PAL/SECAM or NTSC
Composite or Component signals only. The Side Jack panel
can accept either composite video or SVHS video. The
Composite video or YC from the Side Jack Panel is fed to the
HIP on the SSB. SCART1 and SCART2 YUV/RGB or
Composite signals are fed to the HIP for switching and
processing. The YPbPr to YUV converter is bypassed for the
European version of the LCoS. Only Composite video can be
applied to SCART3.

The HIP IC on the SSB selects between the internal Tuner
video or from one of the inputs from the SCART panel. If the

Side Jack Panel

1302-1

1301-A

4

3

5

1

2

7

9

6

8

10

6003

6.8V

6004

6.8V

6001

6.8V
6002

6.8V

3107
75

3106
75

IF

E_14780_025.eps

280604

signal is Composite video, it is fed to a 2D Comb filter panel for
processing. YC from the 2D Comb filter is fed back to the HIP.
The HIP then outputs YUV to the Feature Box, which performs
the line doubling and zooming features. YUV from the Feature
Box is then fed to the Eagle circuit, which enhances the picture.
The Pixel Plus feature is performed in the Eagle if the set is
programmed for the Pixel Plus feature. The YUV output from
the Eagle is then fed to the LVDS transmitter before being sent
to the Scaler board. The video signal is digitised in the Feature
Box and remains digitised from that point on.

3127
100

3126
100

2116
22p

2103
22p

1335

5

3

7

SYSTEM
BOARD

1220

B29

B24

JACK PANEL

Y-FRONT-IN

C-FRONT-IN

E_14780_026.eps

280604

Figure 9-16 Side jack panel

EN 76 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

The Side Jack panel can have either a composite or SVHS
input. When a connector is inserted into the SVHS input, the
composite input is disconnected. Zener diodes are connected
to both the Y/Composite and the C lines to limit the applied

1fH SCART Input

1FH SCART SYSTEM BOARD SSB

SCART1

11

G-SC1-IN_Y-IN

7

B-SC1-IN_U-IN

R-SC1-IN_V-IN

15

6017

6.8V

6018

6.8V

6016

6.8V

3042
75

3043
75

3041
75

3026
100

3025
100

3027
100

1220

2208

2.2uF

B4

2207

2.2uF

B2

2209

2.2uF

A1

3204
10

3221
27K

3203
10

3217
39K

3226
10

3216
39K

3206
100K

3205
100K

3207
100K

3210
1K

3222
150

3208
1K

3219
270

3212
1K

3224
330

7002

7001

7003

voltage to 7.4 V. A 75-ohm resistor on both lines provides the
correct impedance matching. The Y/composite and C signals
are output to the Jack panel via the System board.

3995

5317

3223
180

3220
470

3225
100

3211
1K

3209

1K

3213

1K

7006

3215
1K

7005

3214
1K

7007

3216
1K

10

+9V

3

1205
2

1

G-SC1_Y-IN

B-SC1_U-IN

R-SC1_V-IN

CVBS-SC1_AV1-IN

20

A7

Figure 9-17 1fH SCART input

The G-SC1-IN_Y-IN, B-SC1-IN_U-IN, and R-SC1-IN_V-IN are
routed to the SSB via the System board. A 75-ohm resistor
located on each line provides impedance matching. To prevent
an excessive signal from being applied to the signal lines, a 6.8
V zener is placed on each signal line.

Main Tuner

AGC

5101

+5V

2103
220uF

SCL-EMG

SDA-EMG

3108
75

+36v

2105
100n

6101

6102

3106

10K

3107

3112
120K

3109
10K

3.9K

2104
1nF

6112
15V

7115

3

3110
47

3111
47

6,7

1

2

Figure 9-18 Main tuner

1

4
5

9

PIP_TUNER_33V

10

1203
TUNER

CVBS-SC1_AV1-IN

E_14780_027.eps

12,13,14,15

280604

11

E_14780_028.eps

IF_TER

280604

The Main tuner is located on the System board. The IF output
from this Tuner is fed to the SSB for processing. The 36 V
supply from the Main Power supply board supplies the tuning
voltage. This voltage is regulated by Zener diode 6112 and
Shunt Regulator 7115 to produce 33 V. The 33 V supply is also
fed to the PIP/DW panel to supply the tuning voltage for that
Tuner. The +5 V supply is also fed to Pin 6 and 7 of the Tuner.

Circuit Description, List of Abbreviations, and IC Data Sheets

HIP (High end Input Processor) Circuit

2412

IF-TER

LMN

4.7n

5411

2405

4.7n

3433

3406

3.9K

47

3409

2.7K

+8VP

3423

5.6K
7405

5401

5403

40.4MHz

6403

3414

4.7K

6402

6404

3407

5.6K

+8VP

7403

6405

3434

2.7K
+8VP

7401

2406
220p

2407
68p

1409-A
AUDIO
SAW
FILTER

1410-A
SAW
FILTER
NTSC

1408-A
SAW
FILTER
PAL/SECAM

CVBS-SC2_MON-OUT

Y-CVBS-SC2_AV2-IN

SOUND
TRAP
BASEBAND
AUDIO

CVBS-SC1_AV1-IN

CVBS-AV3-IN

Y-CVBS-FRONT-IN

C-SC2_SVHS-IN

C-FRONT-IN
R-SC1_V-IN

R-SC3_V-IN

G-SC1-IN_Y-IN

G_SC3_Y-IN

B-SC1-IN_U-IN

B_SC3_U-IN

FBL-SC1-IN

FBL-SC3-IN

CVBS-INT

SDA-F

SCL-F

31,48,33

EN 77EM8E 9.

+8VP

64

63

2

3

10

34

14
16
20
18

23
21

24
36
41

37
42

38
43
39

40

47

46

SIF AMP

VIF AMP
AND PLL
DEMODULATOR
AGC/AFC

DELAY

DEMOD

VERT
PROC

SYNC SEP

RGB TO
YUV
MATRIX
AND
BYPASS
SWITCH

QSS MIXER
AM DEMOD

VIDEO
AMP

Y

YUV
SWITCH

U

V

ADD

7323
HIP
TDA9320

HORIZ(LINE)
PROC

5

SOUND-OUTPUT

5404

11

5405

45

28

49

50
51

29

26

25

27

59
60

61

SYS1

SYS2

YOUT

UOUT
VOUT

HA50

VA50

COMB-C

7320

SC

+8VP

11

10

COMB-Y

3371
47

3372
470

3456

4.7K

3457

4.7K

3400

4.7

CVBS-TXT

+8V_VDP

12

7

+8VP

5904

16

THREE LINE
COMB
FILTER

QSS_AM

3405
1K

+8V

14

7307
TDA9181

E_14780_139.eps

+5VCOM

5,6

120704

Figure 9-19 HIP (High-end Input Processor) circuit

The High-end Input Processor circuit is located on the Small
Signal Board (SSB). The IF-TER signal from the Tuner on the
System board is fed to the SSB. If the set is a multi-system
version (PAL, SECAM, and NTSC), there will be two video
SAW filters present, 1410-A and 1408-A. The LMN line selects
the correct SAW filter depending on the selection by the user.
The LMN line will go High for NTSC and Low for PAL or
SECAM. If the set is a multi-system PAL-SECAM only, only
1410-A will be present. SAW filter 1409-A detects the Sound
Carrier.

Video IF is fed to Pins 2 and 3 of the HIP IC. It is Amplified and
detected, fed to an internal Video amplifier, and output on Pin

10. The signal is fed to a Sound trap circuit and fed to Pin 14.
The Video switch selects composite video from Pin 14, the
SCART inputs, or the Side Jack panel. The selected video is
output on Pin 26 where it is buffered by 7320 before being fed
to Pin 12 of 7307, the 2D comb filter. The Luminance Y signal
is output on Pin 14 and the C Chroma signal is output on Pin

29. The internal switch connected to Pin 28 selects between Y
from the Comb filter or from the selected Y signal from the
SCART or Side Jack panel. The selected Y signal is fed to a
delay and then to a YUV switch. The Chroma switch connected
to Pin 29 selects between the Chroma signal from the Comb
filter or one of the selected Chroma inputs. The YUV switch
selects between the YUV from the Delay and Demodulator,
and the selected YUV from SCART1 or SCART2. The selected
YUV signal is output on Pins 49, 50, and 51 to the PICNIC IC.

The selected Y signal is then fed to the internal Sync Separator.
Line Sync is output on Pin 60 and Frame sync is output on Pin

61. These signals are fed to the PICNIC IC. Horizontal sync is
also output on Pin 59 to sync the Comb filter.

Sound Trap Switching

+8V VDP

3416

6.8

3437
1K

10

VIF

7323
HIP

14

7411

3436
220

5402

1406

5.5MHZ

3419

TRAP

82

BG

LMN

5406

1407

4.5MHZ
TRAP

7407

3435

4.7K

3417

5.6K
3421

5.6K

3445
470

7406

+8VP

7322

3439
470

3474
1K

3385
470

Figure 9-20 Sound trap switching

Composite video is output on Pin 10 of 7323 and buffered by
transistor 7411. The signal is then applied to the 5.5 MHz trap,

1406. In the PAL/SECAM mode, the LMN line is Low, switching
transistor 7407 "on", causing the signal to bypass 1407, the 4.5
MHz filter. The video is then buffered by transistor 7322 before
being applied to Pin 14 of 7323.

In the NTSC mode, the LMN line goes High, turning transistor
7406 "on", switching the 4.5 MHz SAW filter "on". Transistor
7407 is turned "off", forcing the signal through 1407.

3382
390

3473
1K

2399
68p

5417

2384
100n

E_14780_029.eps

280604

EN 78 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

Feature Box

E

Y-PIP+MAIN-IN

U-PIP+MAIN-IN

V-PIP+MAIN-IN

7719
FM3

D

C

7717

B

FM2

1682

6

23

AGC

PREFILTER

CLAMP

8

25

AGC

PREFILTER

CLAMP

9

26

AGC

PREFILTER

CLAMP

28

HA50

SYNC
PROCESSING

29

VA50

4

SCL-F

5

SDA-F

A/D

A/D

A/D

MICROCONTROLLER CORE

ADDRESS

DYNAMIC
NOISE
REDUCTION

TIME
BASE
CORRECTION

DE-INTERLACER

MF

7714
FM1

7716
EPROM

NOISE
REDUCTION

HISTOGRAM

MP

MOTION
ESTIMATOR

F

TO

VERT

EAGLE

PEAK

PROGRAM
ROM

BUS D

TRIPLE
DAC

7718
FALCONIC
SAA4992

TO EAGLE

G

7611
PICNIC

SAA4978

TRIPLE
ANALOG
FILTER

E_14780_030.eps

UP­CONVERSION

MP

26

27

SN-DA

SN-CL

1

2

BUS C

MUX

DATA

Figure 9-21 Feature box

The circuit located on the SSB labelled the Feature Box
performs the digitising, line doubling, and picture resizing. The
main functions are performed by 7611, PICNIC (PICture
improvement Network IC), and 7718, FALCONIC (Field And
Line COnverter and Noise reduction IC). The PICNIC IC
performs the A/D Analogue-to-Digital conversion while the
FALCONIC performs the Line Doubling. The FALCONIC also
performs the Super Zoom, Panoramic, 4:3, Movie Expand
14:9, Movie Expand 16:9, 16:9 Subtitle, and Wide screen
picture format conversions.

The YUV signal is fed to the PICNIC on Pins 23, 25, and 26.
Horizontal and Vertical Sync is fed to the IC on Pins 28 and 29.
The signals are fed to a Clamping circuit to limit the sampling
range, an AGC, and a pre-filter circuit. It is then fed to a triple
A/D converter, Time Base Corrector, Noise Reduction and
Histogram circuit, and a Multiplexer. The pre-filter circuit limits
the bandwidth of the signals to prevent aliasing. Aliasing shows
up as artefacts in the picture, which is caused by under
sampling. The Multiplexer combines the three data streams
into one.

Data is output from the PICNIC to FM1 (Field Memory), IC

7714. The Fields are read by 7718 to the Dynamic Noise
Reduction circuit and to the processor. The De-Interlace writes
the Field data to Field Memory 2, 7717 and Field Memory 2,

7719. The Processor then reads the Field memories to convert
the signal to a progressive scan signal. A Motion Estimator
processes moving blocks in the picture to produce a natural
motion. The processors resize the picture to fit the format
selected by the user. However the picture appears to be
formatted, the output is always a 480P format. The Signal is
output on two 16-bit busses, F and G, to the Eagle processor.

The FALCONIC is controlled by the Microprocessor in the
PICNIC. The Fast clock and data line from the OTC controls the
PICNIC. The PICNIC communicates with the FALCONIC and
the Eagle via the SN clock and data line. This is called a
SNERT interface. SNERT is a No parity Eight-bit Reception
and Transmission interface.

Eagle

7722

F

FM4

CONTROLS

VERT
HORIZ
PEAK

SCALING

7724
EAGLE

INPUT

7723

G

FM5

12

14

15

18
19

SN_CL

SN_DA

MUX

SNERT
INERFACE

YUV
FORMAT

SYNC

Y_OUT

U_VOUT

HD_E

VD_E

E_14780_031.eps

280604

Figure 9-22 Eagle

The Eagle circuit provides Skin tone correction, Blue stretch,
and Green Enhancement. In versions equipped with the Pixel

280604

Plus feature, the Eagle IC performs the corrections for this
mode.

The video frames are sent to FM4 and FM5, 7722 and 7723,
memories from the FALCONIC IC. These memory ICs hold the
frame data until they are required for processing by the Eagle.
The Input Multiplexer selects which frame is to be read. The
Vertical and Horizontal Peaking circuit sharpens the edges and
adds blue pixels to enhance the picture. This circuit is part of
the Pixel Plus processing.

The Scaling circuit scales the picture to 1280x720 pixels to
conform to the Light Engine display. The YUV format circuit
converts the picture to conform to the MSB (Main Scaler Board)
input. The Eagle is controlled by the Microprocessor in the
PICNIC IC via the SNERT interface. The Eagle outputs an 8-bit
digital Y and UV signal to the LVDS transmitter.

LVDS Transmitter

7100
LVDS

Y_OUT

U_VOUT

CLK

TX

TTL PARALLEL TO LVDS

PLL

48
47

46
45

42
41

38
37

40
39

TXOUT0­TXOUT0+

TXOUT1­TXOUT1+

TXOUT2­TXOUT2+

TXOUT3­TXOUT3+

TXCLKOUT­TXCLKOUT+

E_14780_032.eps

280604

Figure 9-23 LVDS transmitter

The 8-bit digital Y and UV signal is fed to the LVDS (Low
Voltage Differential Signalling) Transmitter, 7100. IC 7100
converts the parallel 16-bit signal to a serial data output. The
output of the LVDS is held a 345mv to prevent RFI (Radio
Frequency Interference). There are four data pairs and one
clock pair. This circuit uses an 85MHz clock and is able to
transfer data up to 300 Mbytes per second. The LVDS data is
then sent to the MSB (Main Scaler Board) for further
processing.

Circuit Description, List of Abbreviations, and IC Data Sheets

EN 79EM8E 9.

9.3.2 2fH Section Block

RXIN0
RXIN1
RXIN2
RXIN3
RXINC

Y
Pb
Pr

Y
Pb
Pr

AV4

AV5

7710
SWITCH

VGA IN
AV6

7537

LVD S
REC

7746
DVI
AV7

R 8B
G 8B
B 8B

Y
Pb
Pr

7345
A/D

R
G
B

Figure 9-24 2fH section block

VGA Input

+5VA

5633

3675
10K

Y 8B
UV 8B

7

7633

3

The 2fH processing section is located on the MSB (Main Scaler
Board). Signal if fed to this board via the SSB via the LVDS line,
VGA connector, DVI connector, or the 2fH Component inputs.

OSD

R

A/D

7407
SCALER

R 8B
G 8B
B 8B

G
B

7101
PLD

OSD
INSERTION

LVDS Line

The serial LVDS data is decoded back into Y 8-bit and UV 8-bit
parallel data. This data is fed to the Scaler IC. The two 2fH
YPbPr analogue inputs, AV3 and AV4 are fed to a selection
switch, 7710. The selected YPbPr is fed to 7345 that selects
between the selected YPbPr and the AV5 RGB input. IC 7345
selects the desired input and performs an Analogue to Digital

7295
TMDS
TXR

TX0

TO

TX1

LIGHT
ENGINE

TX2
TXC

conversion. The three 8-bit parallel data lines are fed to the
Scaler IC along with the three 8-bit lines from the DVI (Digital
Video Interface) connector. The Scaler can perform a 1fH to
2fH conversion. It can also produce a split screen between two
inputs. Therefore it is possible to have a split screen with the
NTSC signal on one side and an HD input on the other side.
The Scaler also formats the video signal to fit the 1280x720

E_14780_033.eps

280604

pixel Light Engine display. The Scaler outputs the video data
signal via three 8-bit data lines to the OSD insertion circuit. The
analogue OSD (On Screen Display) signal from the OTC is
digitised and inserted into the signal from the Scaler. The signal
is then output from the OSD circuit to the TMDS where the
signal is converted from three 8-bit lines to three serial and one
clock line before being fed to the Light Engine.

"D" SHELL

3655

3668
75

100

3656
100

3657
100

3677
100

3676
100

R_VGA

G_VGA

B_VGA

V_VGA

H_VGA

E_14780_034.eps

280604

11

3669

4.7K

8

4

3673
100

5

3674
100

6

3670

4.7K

6643

+5VA

6640

+5VA

1

6

12

2

7

13

3

8

14

4

9

15

5

10

2666
10p

2665
10p

2664
10p

2670
10p

2671
10p

6638

6637

6639

6641

6642

+5VA

+5VA

+5VA

+5VA

3667
75

3666
75

Figure 9-25 VGA input

RGB is fed to the set via AV5 using a DB15 connector. IC 7633
is loaded with the possible settings that are read by the
computer when it is connected. Some of the possible inputs to
AV5 are VGA (640x480), SVGA (800x600), XGA (1024x768),
SXGA (1280x1024), HD60p (1280x720), WVGA (848x480),
and WXGA (1368x768). The RGB drive, Vertical, and
Horizontal Sync are all clamped to prevent excessive signal
levels from being applied to the set. The input signal is clamped
to 5.6 V in the positive direction and 0.6 V in the negative
direction.

EN 80 EM8E9.

AV4 and AV5 Inputs

Circuit Description, List of Abbreviations, and IC Data Sheets

Y_HD_SYNC

7716

+5VA

3711
470

5715

5710

5711

5712

5724

3731
470

3733
470

3710
47

3730
47

3732
47

Y_HD

PB_HD

PR_HD

2714
22uF

2732
22uF

2736
22uF

2724
100n

+5VCC1

+5VCC2

+5VCC3

+5VCC

E_14780_035.eps

290604

+5VCC2

+5VCC

+5VCC3

+5VCC1

3

1

6

7710
SWITCH
M52758

3727
10k

24

30

7717

7715

2FHIN1_2FH1N2

+5VA

+5VCC

3725
10K

3726
10K

27

35

10,12,15

AV3

Y

Pb

Pr

AV4

Y

Pb

Pr

2726
22p

2725
22p

2727
22p

2635
22p

2634
22p

2633
22p

3722
75

3720
75

3722
75

3636
75

3635
75

3634
75

6711

+5VA

+5VA

6712

+5VA

6632

+5VA

6631

+5VA

6630

+5VA

3717
100

3630
100

3718
100

3715
100

3631
100

3633
100

2720
47uF

2722
47uF

2718
47uF

2712
47uF

2716
47uF

2710
47uf

13

5

16

7

11
2

19

7725

Figure 9-26 AV4 and AV5 inputs

The AV4 and AV5 inputs allow the input of Component YPbPr
signals from a 1080I, 480p, PAL/SECAM or NTSC source.
Better results are obtained by inserting the PAL, SECAM, or
NTSC Component source into SCART1 or SCART2. Each of
the AV3 and AV4 inputs are clamped to limit the level of the
signals applied. This is accomplished by using diode arrays,
6711, 6710, 6712, 6632, 6631, and 6630. The positive portion
of the signal is clamped to 5.6 V and 0.6 V in the negative
direction.

IC 7710 selects the two AV sources. This is a High Frequency
switching IC with minimal cross talk. Pixelworks IC controls the
IC via the 2fHIN1_2FH1N2 line. The Control line is inverted by
Transistor 7725, which is connected to Pin 19. When the
Control line is High, 7725 turns "on" to pull Pin 19 Low. This
selects input AV4. When the Control line goes Low, Pin 19
goes High and AV3 is selected. To reduce interference, each
section of the IC is powered by a different 5-V supply. The
YPbPr signals are output on Pins 30, 27, and 35. The signals
are then buffered by Transistors 7716, 7717, and 7715.

Analogue Input A/D Conversation

+3V3_ADPLL +3V3_AD_A

PR_HD
R_VGA

Y_HD

G_VGA

PB_HD
B_VGA

V_VGA
H_VGA

SDA_SCALER
SCL_SCALER

5
8

13
17

20
23

12

SOY
SOG

16
42

43

31
32

CLAMP A/D

CLAMP A/D

CLAMP A/D

SYNC PROCESSING
AND CLOCK
GENERATION

7345
A/D

Figure 9-27 Analogue input A/D conversation

113-120

103-110

90-97

80-87

70-77

57-64

125
127
123

126

7347-A

GRE

GRO

GGE

GGO

GBE

GBO

GFBK (HSOUT)
AD_DVI_VS (VSOUT)
AD_DVI_CLK (DATACK)

AD_DVI_HS

E_14780_036.eps

290604

The selected YPbPr signal and the RGB signals from the VGA
connector are fed to IC 7345. IC 7345 converts the signals from

Circuit Description, List of Abbreviations, and IC Data Sheets

EN 81EM8E 9.

Analogue to Digital. There are two triple 8-bit lines. The GRO,
GBO, and GGO lines carry the Odd field data while the GRE,
GBE, and GGE line carry the Even field data. Sync on Y is fed
to Pin 12, Sync on Green is fed to Pin 16, while Horizontal and
Vertical Sync is fed to Pins 43 and 42. The IC outputs

DVI Input

6755

5747

0305
AV6

3767

6751

6748

6750

6746

+3V3

+3V3

+3V3

4.7K

6753

3768
100

1703

1702

1701

1700

8

7747
ST24FC21
EEPROM

6

7

4

5

3

6761

+5VA

6752

+5VA

+5VA

1
2

3
4

5

6
7

8

9

10
11

12
13

14
15

16
17

18

19
20
21

22

23

24

25
26

6754

+3V3

6749

+3V3

6747

+3V3 +3V3

6745

+3V3

3800

4.7K

3799
10K

3798
100

3797

4.7K

7749

5749

3769
10K

6756

7750

Horizontal Sync on Pins 125 and 126. Vertical Sync is output
on Pin 127. Clock information for the data is output on Pin 123.
The IC is controlled by the SDA_SCALER and SCL_SCALER
lines from the Pixel works (Scaler) IC.

+5VA

+3V3DDVI

TRISTATE_DVI_N

DVI_PWR_DOWN-n9

3770
10K

+3V3ADVI
+3V3DDVI

+3V3PLL_DVI

3769
10K

100

3

81

80

95
78
67

86

85

9

2

91

90

93

94

+3V3DDVI

OCK_INV (SCL)

ST (SDA)

RX2

7746
DVI
RECEIVER

RX1

RX0

RXC

44

46
48

47

40

41

10-17
BLUE EVEN

20-27
GREEN EVEN

30-37
RED EVEN

49-56
BLUE ODD

59-66
GREEN ODD

69-77
RED ODD

AD_DVI_CLK
AD_DVI_DE

AD_DVI_HS

AD_DVI_VS

SCL

SDA

GBE(2)

GGE(2)

GRE(2)

GBO(2)

GGO(2)

GRO(2)

6

5

7748

8

E_14780_037.eps

+3V3DDVI

290604

Figure 9-28 DVI input

AV6 is the DVI (Digital Video Interface) input. This type
interface is used on some computer video cards and Set Top
boxes. This is digital transmission based on the TMDS
(Transition-Minimized Differential-Signalling) format. The
TMDS system provides a high-speed reduced RFI (Radio
Frequency Interference) transmission system. IC 7746 is the
DVI receiver processor.

IC 7747 stores plug and play information for the device
transmitting data to the set. IC 7747 is powered by the +5VA
supply when the set is operating. The connecting device can
also supply power to read the setup information from 7747. The
connecting device also communicates with 7746 (DVI receiver)
when the set is turned "on". The connecting device provides the
format settings to 7746 via Pins 3 and 100. When the set is
turned "off", Transistors 7749 and 7750 are turned "off" to
prevent the signal from reaching 7746. When the set is turned
"on", those Transistors are turned "on" to connect the signal.
The B+ line to 7747 and the Data lines are clamped to 5.6 V
Positive and 0.6 V Negative with Diode Arrays 6761, 6752, and

6751.

There are three data pairs to 7746: RX0, RX1, and RX2. There
is also a Clock line RXC connected to Pins 93 and 94. Each of
these lines is clamped to prevent an excessive signal from

being applied to this circuit. The lines are clamped to 0.6 V in
the negative direction and 3.9 V in the positive direction. When
AV6 is selected, Pins 2 and 9 are switched High (3.3 volts).
This turns 7746 "on", making all of the logic circuits active.
When some other input other than AV6 is selected, all of the
Outputs are put into a high impedance tri-state mode. All of the
logic circuits are powered down and the inputs are disabled in
this mode. Pin 44 transmits clock information to the Scaler IC.
Pin 46 is a Data Enable line to signal the Scaler IC that data is
being output on the data lines. This line is switched High when
data is present. Pins 47 and 48 output Sync to the Scaler IC.

EN 82 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

LVDS Receiver

2
3

5
6

8
9

14
15

11
12

LVDS_PWR_DOWN_n

9
10

11
12

15
16

19
20

17
18

7537

25

LVDS
RECEIVER

LVDS TO TTL PARALLEL

PLL

30,32-35,37-39

43,45-47,49-51,53

54
55

7

26

V_EMG
H_EMG

DE_EMG

CLK_EMG

E_14780_038.eps

290604

Y

UV

Figure 9-29 LVDS receiver

Picture data from the SSB is transmitted to the MSB (Main
Scaler Board) via the LVDS (Low Voltage transmission system)
to IC 7537. The LVDS receiver has four data lines and one
clock line.

The IC is switched "on" or "off" by the Scaler IC via the
LVDS_PWR_DOWN_n line connected to Pin 25. When
SCART1, SCART2, SCART3, or the Front (Side) input is
selected, the Scaler IC switches Pin 25 High to switch IC 7537
"on". The Signal from the Eagle is output to the Scaler as digital
Y and UV. Vertical and Horizontal Sync is output on Pin 54 and

55. The Clock data signal is output on Pin 26. The DE_EMG
line goes High when the IC is switched "on" to signal the Scaler
IC that data is present from this IC.

7407. The YUV input goes to the Video Port. This is the digital
video information from the SSB. AV3, AV4, AV5, and AV6 are
applied to the Graphics Port. Among the inputs that 7407 can
process from the Graphics Port are VGA, SVGA, XGA, and
1080I. The Horizontal Image Scaler, Crisp Image Scaler, and
Spatial Noise Reduction circuits, perform part of the scaling
functions, create the Spit Screen if selected by the user, and
make picture enhancements. The other Scaler scales the
picture to 1280x720 to meet the requirements of the Light
Engine. The Scaler IC has its own internal memory to store the
frames while they are being processed.

The Microprocessor in the Scaler controls the operation of the
Scaler and several external devices. This is a slave
Microprocessor of the OTC located on the SSB. The OTC
communicates with the Scaler via the PLD IC. Two external
memory ICs, 7406 and 7409, store the program information for
the Scaler. The NVM, 7405, stores the settings for the IC. The
Display Port outputs the processed video data on three 8-bit
lines, SCR_RED, SCR_GREEN, and SCR_BLUE.

OSD and Output Circuit

A/D
S/H

FROM
OTC

OSD-R

OSD-G

OSD-B

OSD-FBL

FROM
SCALER

D/A

D/A

D/A

D/A

6 BIT

6 BIT

6 BIT

6 BIT

SCR-RED

SCR-GREEN

PLD

7101

OSD-R

OSD-G

OSD-B

TMDS

TX0

TO
LIGHT

TX1

ENGINE

TX2

TXC

Scaler

VG0-VG7

Y

UV

CLK_EMG

AD_DVI_VS

AD_DVI_CLK

AD_DVI_HS

DE_EMG

V_EMG
H_EMG

GFBK

VB0-VB7

GRE0-GRE7

GRO0-GRO7

GGE0-GGE7

GGO0-GGO7

GBE0-GBE7

GBO0-GBO7

VIDEO
PORT

VCLK
VPEN

WS

VHS

GFBK

GVS

GCLK

GHS

GRAPHICS
PORT

HORIZ

PROCESSOR

IMAGE

MEMORY

SCALER

INTERFACE

CRISP
IMAGE
SCALER

FRAME
MEMORY

BUFFER
SPATIAL
NOISE
REDUCTION

7407
SCALER
PW181

MICROPROCESSOR ROM/RAM INTERFACE

X1

PORTA2

PORTA3

56SDA
7405
NVM

SCL

7411
REFCLK

PORTA0

SDA_SCALER

PORTA1

PORTA4

SCL_SCALER

IMAGE
SCALER

PORTA5

A0-A19

7406
MEMORY

SCL_EPLD

SDA_EPLD

7409
MEMORY

DISPLAY
PORT

TIMING
GENERATOR

DRE0-DRE7

SCR_RED

DGE0-DGE7

SCR_GREEN

DBE0-DBE7

SCR_BLUE

DCLK

SCR_DCLK

DVS

SCR_VSYNC

DHS

SCR_HSYNC

DEN

SCR_DEN

D0-D15

E_14780_039.eps

290604

Figure 9-30 Scaler

IC 7407 is a highly integrated system on a chip that interfaces
the YUV signal from the SSB, the DVI interface, or the
Analogue HD inputs to the 1280x720 Light Engine. The Scaler,
7407, is a 352 Pin Ball Grid array device.

Video Data from the Eagle for the 1fH signal is already scaled
correctly in the Eagle. The inputs from the DVI or 2fH Inputs
may require some Scaling. This function is performed by the
Scaler. The Scaler can also perform a 1fH to 2fH conversion
allowing PAL, SECAM or NTSC inputs into AV3 and AV4.
However, the Scaler is not as efficient as the Feature Box and
Eagle on the SSB. Therefore, 1fH inputs should be applied only
to SCART1, SCART2, SCART3, or the Side input for best
results. The Scaler can also display two different inputs in a
Split-Screen format. This can be done between the 1fH inputs
or one of the 2fH inputs. This is not possible between two of the
2fH inputs or 2 1fH inputs. There are two video data inputs to

SCR-BLUE

E_14780_040.eps

290604

Figure 9-31 OSD and output circuit

The SCR_RED, SCR_GREEN, and SCR_BLUE data is sent to
the PLD (Programmed Logic Device). The PLD inserts the
digitised OSD information onto the video information. The
signal from the PLD is output to the TMDS transmitter and then
to the Light Engine.

The OSD information from the OTC on the SSB is in an
Analogue format. This information is fed to A/D (Analogue to
Digital) and S/H (Sample and Hold) circuits. These circuits
convert the OSD into four 6-bit data lines before feeding the
information to the PLD. As will be shown later, the PLD is also
a slave Processor that communicates with the OTC and the
Scaler.

OTC OSD Input

MSB

(MAIN SCALER BOARD)

7101
PLD

1210

B20

H_TXT

B22

V_TXT

SYSTEM
BOARD

SSB (SMALL SIGNAL BOARD)

1205

7015

32

83

7016

29

84

7001
OTC

FADING (FBL)

R
G
B

1401

6
7
8

10

E_14780_041.eps

MSB

(MAIN SCALER

BOARD)

1401

6
7
8

10

090704

Figure 9-32 OTC OSD input

The OSD (On Screen Display) signals are generated by the
OTC (Microprocessor) located on the SSB. These are
Analogue RGB signals with a Fast Blanking line. The OSD
signals are sent to the MSB via connector 1401. Sync for the
text is generated by the PLD located on the MSB. This Sync is
fed to the OTC via the System Board.

Circuit Description, List of Abbreviations, and IC Data Sheets

OSD Scaler Input

BLEND_FDB(3)
BLEND_FDB(2)
BLEND_FDB(0)

BLEND_FDB(1)

FBL_OSD

BLUE_FDB(3)
BLUE_FDB(2)

BLUE_FDB(1)

BLUE_FDB(0)

BLUE_OSD

GREEN_FDB(3)
GREEN_FDB(2)
GREEN_FDB(1)
GREEN_FDB(0)

GREEN_OSD

RED_FDB(3)
RED_FDB(2)

RED_FDB(1)

RED_FDB(0)

RED_OSD

7190

7194

7197

7201

7189

7192

7196

7200

ADJ
MATRIX

ADJ
MATRIX

ADJ
MATRIX

ADJ
MATRIX

7188

7191

7195

7198

UPPER REFERENCE VOLTAGE
LOWER REFERENCE VOLTAGE

5
6

A/D

4

12
11

A/D

13

ADC_CLOCK

5
6

A/D

4

12
11

A/D

13

7193
A/D

7199

A/D

LATCH

LATCH

LATCH

LATCH

TTL
OUT

TTL
OUT

TTL
OUT

TTL
OUT

23-28

OTC_BLEND(0:5)

15-20

OTC_BLUE(0:5)

23-28

OTC_GREEN(0:5)

15-20

OTC_RED(0:5)

7102
7104
7107
LATCHES

EN 83EM8E 9.

8BIT

PLD

8BIT

8BIT

ADC_CLOCK

Figure 9-33 OSD Scaler Input

The OSD and Fast Blanking signals are converted to a digital
signal and fed to the PLD (Programmed Logic Device) to be
inserted into the Picture Data. The Red, Green, and Blue OSD
is buffered and fed to two A/D (Analogue to Digital) converters,
7193 and 7199. A Data reference signal, FDB, from the PLD,
along with an Upper Reference Voltage and a Lower

Reference Voltage and A/D Converters

3208

1.5K
HIGH REFERENCE

3210
560

LOW REFERENCE

BLEND_FDB(3)

BLEND_FDB(2)

BLEND_FDB(1)

BLEND_FDB(0)

FBL_OSD

3185
10K

3189
10K

3199
10K

3205
10K

3186
10K

3190
10K

3200
10K

3206
10K

3212
750

3216
680

+5VA_OSD

3187
10K

3194
10K

3202
10K

3209
10K

+5VA_OSD

3192
1K

7190

7189

3193
22K

2203

4.7uF

7188

2194
10uF

E_14780_042.eps

CLK_RET

290604

Reference Voltage is used to set the voltage level in which
sampling will begin and end. The ADC_CLOCK is used to clock
the sampled data out of 7193 and 7199. Data is output on two
6-bit data lines to latches, 7102, 7104, and 7107 before being
fed to the PLD. The CLK_RET line clocks the data out of the
Latches.

2.89V

2186

3188

10uF

120

3191
100

3196

56

2.03V

3197

3198

120

75

3204

3201

75

56

3207
18

5

6

A/D

4

ADC_CLOCK

7185

7187

7193

LATCHES

1

TTL
OUT

+5VA_OSD

+5VA_OSD

28
27
26
25

24
23

OTC_BLEND(5)
OTC_BLEND(4)
OTC_BLEND(3)

OTC_BLEND(2)
OTC_BLEND(1)
OTC_BLEND(0)

E_14780_043.eps

290604

Figure 9-34 Reference voltage and A/D converters

EN 84 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

The BLEND_FDB signals are fed to a resistor matrix to set the
DC reference voltage for the A/D converters. The signals are
buffered by Transistors 7189 and 7188 to add bias to the
Analogue FBL_OSD signal. The output of the matrix is also
added to the High and Low Reference voltages. Regulator
7185 sets the Upper Reference voltage while 7187 sets the
Lower Reference voltage. The output of the A/D converter is
clocked out by the ADC_CLOCK signal to the TTL outputs. The
signal is output on a 6-bit data line. The Red, Green, and Blue
circuits work the same as this one.

Input Latch and PLD Sync

7102
LATCH

CLK_RET

OTC_BLEND(5)
OTC_BLEND(4)
OTC_BLEND(3)
OTC_BLEND(2)

OTC_BLEND(1)

OTC_BLEND(0)

OTC_BLUE(5)
OTC_BLUE(4)

11

2
3
4
5
6
7
8
9

20

C1

10

+3V3

158

19
18

159

17

161
162

16
15

164

14

165

13

166
167

12

7101
PLD

15

14

200-203

6,7,9,13

2-5

204-207

DIV_ADCLK

HSYNC_PLL

BLEND_FDB

BLUE_FDB

GREEN_FDB

RED_FDB

E_14780_044.eps

290604

Figure 9-35 Input latch and PLD Sync

One of the three latches that are used to clock data to the PLD
is shown. The OTC_BLEND (FBLK) and two bits of the Blue
are fed to the Latch 7102. This data is clocked out to the PLD
by the CLK_RET line. The reference *_FDB lines are output
from the PLD to set the sample reference voltage as described
earlier. The DIV_ADCLK and HSYNC_PLL sync lines are used
to set the CLK_RET and ADC_CLOCK signals.

ADC Clock Circuit

DIV_ADCLK

HSYNC_PLL

+5VA_OSD

16

7287

3

PHASE
COMPARATOR

14

+9VA

2190

4.7uF

RES ARRAY
66

7282

13

2286
47n

5.02

7186

3195
120

3.77

3203
120

3211
120

3213
120

RES ARRAY

3282

66
3283
220

7280

+5VA_OSD

2193
10uF

10K

7281

2.06

7283-C

7283-B

7283-A

14

14

14

1

2282
56p

3286

2287

1M

56p

7288-A

1

6

2

3

5

4

2284

2283

56p

56p

7288-B

7288-C

3

2

+3.3V

4

5

6

ADC_CLOCK

8

9

CLK_RET

7288D

E_14780_045.eps

290604

Figure 9-36 ADC clock circuit

TMDS Transmitter

OSD_RED(0:7)

OSD_GREEN(0:7)

OSD_BLUE(0:7)

OSD_VSYNC
OSD_HSYNC

OSD_DEN

SCR_DCLK

DATA
CAPTURE
LOGIC

77
76
78

80

7295

TMDS-TX
DTA
H
V

ENC

DTA
CTL

ENC

DTA
CTL

ENC

PLL

40

TX0

39

43

TX1

42

46

TX2

45

35

TXC

34

E_14780_046.eps

290604

TX0+
TX0-

TX1+
TX1-

TX2+
TX2-

TXC+
TXC-

Figure 9-37 TMDS transmitter

The three 8-bit video data lines, OSD_RED, OSD_GREEN,
and OSD_BLUE are fed to the TMDS Transmitter, 7295. IC
7295 converts the Parallel data into DVI formatted serial data
lines to drive the Light Engine. Data and Sync are output on
TX0. TX1 and TX2 are encoded with video data. TXC is the
clock line.

MSB Clock and Sync Lines

72

7101

PLD

SCR_VSYNC

C20

90
89

SCR_HSYNC

D18

SCR_DEN

N19

91

J17

18
17
19

SCR_DCLK

OSD_VSYNC
OSD_HSYNC
OSD_DEN

77

TMDS

76

TX

78

80

E_14780_047.eps

290604

V_EMG
H_EMG
DE_EMG
CLK_EMG

AD_DVI_DE

C_LM1881

E3
F3
N2
E1

SCALER
7407

A11

A9
A10
C10

B9

HD SYNC SLICER

54
7537
LVDS

55
RECEIVER

7

26

13

7345

Y_HD

17

G_VGA

16
12
42

V_VGA

43

H_VGA

125

GFBK

127

AD_DVI_VS

SYNC

123

AD_DVI_CLK

PROC

126

AD_DVI_HS

47

44

7746
DVI

48

46

Figure 9-38 MSB clock and Sync lines

If the input signal is a 1080I Analogue signal, the Sync will most
likely be Tri-Level sync. This Sync is fed to a Sync Slicer circuit
and then to the PLD. Horizontal, Vertical, Clock, and an Enable
line are fed from the LVDS Receiver to the Scaler. Horizontal
Sync, Vertical Sync, and Clock from the A/D converter and DVI
receiver are also fed to the Scaler. The A/D converter or the
DVI Receiver is selected by the Scaler IC. The output of the
one selected is turned "on". The output of the other one is
turned "off". Sync is then fed to the PLD and then to the TMDS
Transmitter. Sync is transmitted to the Light Engine via data
lines.

The DIV_ADCLK and HSYNC_PLL signals are fed to a Phase
Comparator, 7287. The Phase Comparator drives Transistor
7282, 7280, and 7281. This circuit sets the reference voltage
for the amplifiers in 7283. IC 7283, A, B, and C make up a
phase oscillator circuit. The Frequency of this circuit is set by
the value of Capacitors 2282, 2283, 2284, and the voltage
applied to the circuit. The output of the Oscillator feeds a series
of buffer amplifiers in 7288 to produce the ADC_CLOCK and
CLK_RET signals.

Circuit Description, List of Abbreviations, and IC Data Sheets

9.4 Light Engine Block

EN 85EM8E 9.

TX0+
TX0-

TX1+

7202
TMDS
REC

7301

G

CONTRAST
BRIGHT
GAMMA

R

G

R

TX1-

TX2+
TX2-

TXC+

7301
CONTRAST

B

BRIGHT
GAMMA

B

TXC-

TMDS data from the MSB is fed to the TMDS Receiver on the
Light Engine. Red, Green, and Blue data is fed to IC 7301 for
Contrast, Brightness, and Gamma correction. The Signal is
then output to a Homogeneity correction circuit. This circuit

9.5 Audio Signal Flow Block

HOMOG­ENEITY
CORR

7401
LATCH

7402
LATCH

Figure 9-39 Light Engine Block

7600
MEM

7602
MEM

7507
DISPLAY
CONTROL

7601
MEM

7603
MEM

REFLECTIVE
LCD
PANEL

E_14780_048.eps

290604

corrects for uneven brightness and contrast spots in the
picture. This output is then fed to a latch circuit and then to the
Display Control circuit. This circuit addresses the rows and
columns of the Reflective LCD Panel.

SCALER
BOARD

R-RGB

AV5

L-RGB

R-D1

AV6

L-D1

FRONT
JACK
PAN EL

HEADPHONE

SYSTEM BOARD

1FH SCART PANEL

R-Y1

AV3

L-Y1

R-Y2

AV4

L-Y2

A20

A21

A18

A19

1220-1

7113
TEA6422

23

1335

11

1344

3
1

SDA-PW
SCL-PW

9

20

25
19
6
9

4
10
28
27

R-FRONT-IN

L-FRONT-IN

DECODER

0300

B17

A13

B15

A11

SCART2

1

R-SC2_AVOUT

3

L-SC2_AVOUT

2

R-SC2-IN

6

L-SC2-IN

1220-1

13

R-MSB

A26

L-MSB

12

A25

15

SDA-ENG

14

SCL-EMG

SCART1

1

R-SC1_AV-OUT

2

L-SC1_AV-OUT

3
4

7006

74HC4053

1

15

2
13

14

12

9,10,11

SCART3

12

7005
I/O

HP_OUT_L
HP_OUT_R

2

SNDR-SC3-IN

6

SNDL-SC3-IN

7117
HEADPHONE
AMPLIFIER

1220-1

B26

A13

B25

A12

R-SC1_AV1-IN

R-SC2_AV2-IN

L-SC1_AV1-IN

L-SC2_AV2-IN

7116
SWITCH
AND
VOLUME
CONTROL

1205-61

1205-56

SSB

1205-59
1205-55

1205-80

1205-58

1205-52

1680-1

SOUND-ENABLE

1680-3

1205-53

1205-66

1205-65

68

1205-68

HEADPHONE-R

69

1205-69

HEADPHONE-L

DA-OUT1

DA-IN1

L-AUDIO

R-AUDIO

CENTER-IN

1683

1

2

4

CLK

1205

75

76

73

1700

3

4

1

5

7112

1

R

AUDIO
DELAY
ON
SYSTEM
BOARD

CENTER SW

AUDIO
AMPLIFIER

1321

2

3

GND

GND

E_14780_049.eps

290604

5

L

9.5.1 Introduction

The LCoS projector has a two-channel (20 W per channel)
audio system. The Picture and Audio source can be selected
from any one of seven inputs. The AV inputs are located on the

Figure 9-40 Audio signal flow block

Jack Panel, Scaler board, or Front Jack panel. The Audio
processing for the Tuner is located on the SSB. The Audio
Amplifier is located on a board behind the System board.

EN 86 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

AV4 and AV5 inputs are located on the SCART Panel. AV6 and
AV7 audio inputs are located on the Scaler board. These inputs
are fed to switch 7113 located on the System board. The
selected output from the System board is fed to the SCART
panel. IC 7006 on the SCART panel selects between the output
of 7113 and SCART2. The selected outputs are fed to the SSB
(Small Signal Board) along with SCART1 and SCART3. The
Audio Processor on the SSB outputs the audio in a digital form
via connector 1683 to an Audio Delay circuit located on the
System board. Due to the time required to process the video
signal, it is necessary to delay the audio to ensure proper sync.
Left and Right audio is output to the System board via
connector 1205. IC 7112 on the System board Left and Right

9.5.2 SSB Audio Processing

TO SYSTEM BOARD

AUDIO DELAY

5

4

+5DB

63

7651
MSP3452G

DEMODULATOR

27

19

+5DB

10

A/D

A/D

CLK

WS

4

FM1
FM2
NICAM A
NICAM B

L

R

33

QSS_AM

PIP_AUDIO

SNDR-SC3-IN

SNDL-SC3-IN

R-FRONT-IN

L-FRONT-IN
R-SC2_AV2-IN
L-SC2_AV2-IN

R-SC1_AV1-IN
L_SC1_AV1-IN

SCL-F
SDA-F

+8VC

31

1
2

50

47
36
35
39
38
42
41
45
44

3

2

DA-IN1

5

3

I2S INTERFACE

LOUDSPEAKER R

LOUDSPEAKER L

HEADPHONE R

HEADPHONE L

SWITCHING

2667

3.3p

DA-OUT1

6

audio or Centre channel audio from the SSB. The selected
audio from 7112 is fed to the Audio Amplifier via connector

1700. The Audio Amplifier drives the speakers via connector

1321.

Monitor audio is output from the Audio Processor on the SSB
to SCART1 and SCART2. Headphone audio from the SSB is
output to a switch 7116, located on the System board. In
addition, L-SC1_AV1-IN and R-SC1_AV2-IN are also fed to the
switch. IC 7116 is a combination switch and volume control.
The output of 7116 is fed to IC 7117, Headphone Amplifier,
before being fed to the Side Jack panel. IC 7116 controls
headphone volume via the I2C bus.

1

1683

7654-B

12

1651

60

DACM-S

DACM-C

D/A

D/A

D/A

D/A

R

D/A

L

D/A

2668

8M

3.3p

R
L

R
L

7654-A

61

23

BUFFER

22

BUFFER

20

BUFFER

21

BUFFER

17

18

25
26

28
29

AUDIO-C

HEADPHONE-R

HEADPHONE-L

AUDIO-SW

SEL_IN_2
FROM OTC

TO SYSTEM BOARD

7667

SELECT_AUDIO_LR
H NORMAL AUDIO
L CENTER CHANNEL

12
13
2
1
5
3

12
13
2
1
5
3

7653
74HC4053

7652
74HC4053

7680

14
11
15
10
4
9

14
11
15
10
4
9

AUDIO-L

R-CL_VL-OUT

L-CL_VL-OUT

AUDIO-R

R-SC2-OUT

NOT USED IN LCOS

L-SC2-OUT

E_14780_050.eps

290604

Figure 9-41 SSB audio processing

Audio processing is performed by IC 7651, which is located on
the SSB (Small Signal Board). Base band audio is fed to the
signal processor on Pin 50. R-SC1_AV1-IN, L-SC1_AV1-IN, R­SC2_AV2-IN, L-SC2_AV2-IN, SNDR-SC3-IN, SNDL-SC3-IN,
and R-FRONT-IN, L-FRONT-IN are fed to the IC on Pins 44,
45, 41, and 42. PIP audio from the PIP/DW board is input on
Pin 47. The selected AV inputs can be output on Pins 25 and
26 or can be sent to the Sound processor via the Left and Right
A/D (Analogue to Digital) converters. The Sound processor
selects between the output of the Demodulator or the selected
AV input for processing. The Sound processing includes
Volume, Equalizer, Balance, Loudness, Incredible Sound, and
Virtual Dolby. The digitised audio is output on Pin 5 to the
System board to an Audio Delay circuit. The signal is returned
to the IC on Pin 6. Due to the time required for the video
processing, it is necessary to delay the audio to obtain the
proper sync. The Main Speaker signal is output on Pins 20 and

21. The signal is buffered and fed to ICs 7653 and 7652. ICs
7653 and 7652 connect the Speaker Amplifier to the Centre
Channel audio from Pin 22 or the Main audio from Pins 20 and

21. If the Centre Channel audio has been selected for the Main
Speakers, the MON-OUT (R-CL_VL-OUT and L-CL_VL-OUT)
are connected to Pins 20 and 21. If the output on Pins 20 and
21 is selected, the MON-OUT is connected to the outputs on

Pins 25 and 26. Selected Headphone signal is output on Pins
17 and 18. SW (Sub Woofer) audio is output on Pin 23.

Circuit Description, List of Abbreviations, and IC Data Sheets

9.5.3 Audio Signal Delay Circuit

CLK

7102
8-BIT

ADD

ADD

7103
32Kx8
RAM

CNTR

7101
8-BIT
CNTR

The delay circuit for the Audio is located on the System board.
The clock signal from I2S bus is fed to two 8-bit counters. The
output of these counters addresses a RAM IC, 7103. Data from
the Audio processor is fed to Pin 2 and is output on Pin 19. The
addressing of the RAM and the data signal to the 7104 latch
shifts the data from Pin 18 of 7104 down to Pin 12. Each time
it is shifted, it is delayed. The output of 7104 is fed to a second
latch (7105), which is controlled by the Clock signal. The output
of 7105 is fed to a Multiplexer, 7106, that is controlled by
switching lines, A, B, and C. A, B, and C switching lines are
generated by the System Microprocessor. The delayed data is
output on Pin 5 of 7106. If the selected signal to the set is
applied to the Scaler board, the delay is set for 32ms. If the
selected signal is applied to the 1fH input (SSB), the delay is
set for 48ms.

CLK

DATA IN

11
12
13
15
16
17
18

19

A

C

B

32MS

48MS
64MS

11

2
3
4
5
6
7
8
9

19

7104

18

LATCH

17
16
15
14
13
12 12

H
L
L

HL
LH
HH

HD
480P, 576P

1FH (PAL, SECAM, NTSC)

11

CLK

2
3
4
5
6
7
8
9

Figure 9-42 Audio signal delay circuit

7105
LATCH

EN 87EM8E 9.

11

A

10

B

9

C

8MS
16MS
32MS
48MS
56MS
64MS

4
3
2
1
15
14
13
12

7106
MUX

5

DATA OUT
TO SSB

E_14780_051.eps

290604

19
18
17
16
15
14
13

9.5.4 Power ON Muting

3519
10K

7675-A

+5.2V

+5V_AUDIO

6657

2.7V

3527
100

6658

3526

1.5M

3524
100K

2513
10uF

+5.2V

7675-B

Figure 9-43 Power ON muting

During power up, when the set is turned "on", the MON output
and the Subwoofer output are muted momentarily to prevent
turn on noise in any external amplifiers. When the set is turned
"on", Transistor 7675-A is turned "on" by the +5.2 V supply via
Resistor 3524. This turns Transistor 7668 "on", which turns
"on" Transistors 7678A, 7678B, and 7677. This mutes the R­CL_VL-OUT and L-CL_VL-OUT, which are the MON output
lines. Transistor 7677 mutes the AUDIO-SL (SUB OUT) line.
When the charge on Capacitor 2513 reaches 0.7 volts,
Transistor 7675-B is turned "on", which turns the other
Transistors "off", removing the mute.

7668

R-CL_VL-OUT

3529
1K

L-CL_VL-OUT

3530
1K

AUDIO-SL

3528
1K

E_14780_052.eps

290604

7678-A

7678-B

7677

EN 88 EM8E9.

9.5.5 Audio Power Amplifier

Circuit Description, List of Abbreviations, and IC Data Sheets

AUDIO-R

AUDIO-L

+V_AUDIO

-V_AUDIO

1700

+AVCC

-AVCC

2720
220n

2708
220n

2701

3793

680n

3

1

100

2702

3790

10n

470

2703

3792

680n

100

3791

2704

470

10n

2780
100n

2781
100n

5714

5713

1

4

2

3

2731
2200uF

2730
2200uF

2706
100n

2707
100n

+5VAUD

+AVCC

-AVCC

10

12

13
16

18

20

3705
10

3706

5.6K

1

25

7700
AUDIO
AMPLIFIER
TDA7490

6

STBY
MUTE

3721

5.6K

3711
120

3707
68K

7

14

2

9

PWM

OSC

PWM

19

3722
68K

24

17

2722

470p

2721

470

-AVCC

3708
56K

4

2714
33n

5

3
11

8

15
23

21

2726
33n

22

3723
56K

+AVCC

3725
22K

2716
330p

3710
22K

2718

3712
10k

2728
330p

2777
680n

2763
680n

2719
1n

2711
1n

3709
220

3724
220

5715

5716

2736
10n

+AVCC

SHUTD

+AVCC

SHUTD

2737
10n

1703

1704

1321

1

3732

1.5K
2

TO
SPEAKERS

5

3733

1.5K
3

E_14780_053.eps

290604

2715
1n

5701

22p

5702

2727
1n

Figure 9-44 Audio power amplifier

The Audio rower amplifier is located on a board behind the
System board. The Amplifier outputs 25 watts per channel.
This is a class D amplifier.

The signal is applied to the Amplifier on Pins 3 and 1 of
connector 1700. The signal is applied to Pins 10 and 18 of IC

7700. The output stages are basically switch mode supplies
that are driven by a 200 kHz oscillator. The pulse width of the
output signal is determined by the amplitude of the audio signal
at that instant. The Left channel output is filtered by 5702, 2763,
5715, and 2736. The Right channel is filtered by 5701, 2777,
5716, and 2737. Final filtering is performed by chokes 1703
and 1704. The DC voltage on the output lines is monitored by
SHUTD. Since the speakers are direct coupled, no DC voltage
can be allowed on the output lines.

The Amplifier is powered by the +V_AUDIO and -V_AUDIO
supply lines. These are a +25 and -25 V supplies.

The Audio from the amplifier is output to the Centre Channel
switch.

9.5.6 Audio Pro tection Circuit

7700
AUDIO
AMP

+5V

STBY-MUTE

3704

3703

10K

7701

RIGHT

3701

SOUND_ENABLE

7705

3717
150K

3796

LEFT

10K

3718
150K

10K

2729
1nF

2776

2.2uF
7704

3731

2.2uF

100

2778

33K

3702

2705

6.8K
1uF

3716
47K

3715

7706

47K

3714
47K

3726

3.3K

3713

1702

100
2713

100n

+5VSTBY

7710

7707

3799
47K

3727

6703

47K

2717
100p

Figure 9-45 Audio protection circuit

The Left and Right channels are monitored for the presence of
a DC voltage. The Right and Left channels are connected to
Transistors 7704 and 7705 via Resistors 3717 and 3718. The
signal is filtered by Capacitor 2778. If the DC voltage goes 0.7
V positive, Transistor 7704 will turn "on". If the voltage goes -

0.7 volts, Transistor 7705 will turn "on". This will turn
Transistors 7706 and 7707 "on", which will mute the audio
amplifier by pulling the STBY-MUTE line Low. Transistor 7711
will turn "on", signalling the System Microprocessor via the
AUDIO_FAULT line that there is a problem with the Audio
circuit. It will also turn "on" SCR 1702 which will turn Transistor
7708 "off". The DC_FAULT line will go Low, which will result in
the Audio Power supply shutting down. Since the SCR is
powered by the +5V STBY line, power must be removed from
the set, to reset the device.

3798

3.3K
PWR_FAIL

3797
1K

7711

AUDIO_FAULT

5708

DC_FAULT

7708

E_14780_054.eps

290604

Circuit Description, List of Abbreviations, and IC Data Sheets

C

9.5.7 Headphone Switch and Amplifier Circuit

HEADPHONE-L

L-SC1_AV1-IN

HEADPHONE-R

R-SC1_AV1-IN

4108

4109

4116

4118

2312

4u7

35V

2313

4u7

35V

3301

3302

560R

560R

2314

4u7

35V

2315

4u7

35V

3303

3304

560R

560R

7116

TDA7309D-TR

17

IN1L

18

IN2L

20

IN3L

14

IN1R

13

IN2R

11

IN3R

INPUT

SELECTOR

SUPPLY

VS

AGND

16

71

5305

+9V

F118

2u2

2316

100u 16V

Figure 9-46 Headphone switch and amplifier circuit

1

RECL

VOLUME+
LOUDNESS

SERIAL BUS DECODER

CREF

RECR

5

10

2317

22u 16V

LOUDL

+ LATCHES

VOL

LOUDNESS

EN 89EM8E 9.

+5V

2319

100n

19

F114

OUTL 2

MUTE

DGND

6

SDA

4

SCL

5

ADDR

SOFT
MUTE

UME+

LOUDR

12

2318

100n

8

CSM 3

F115

OUTR 9

MUTE

2336

470n

3305
100R

2331

22n

SDA-EMG

3329

SCL-EMG

100R

2338

470n

4101

4102

3312

3.3K

3317
3K3

2343

100u

16V

3313
10K

3335
10K

2344

100p

7117
TDA1308

2

INA_NEG

INA_POS

3

6

INB_NEG

INB_POS

5

2396

100p

2389

16V

100u

2345

100n

3318

33K

8

VDD

OUTA

1

7

OUTB

VSS

4

3336

33K

F116

2392

16V

100u

2394

16V

100u

3338

3337

10K

2393

F117

10K

2395

1-A18

HP_OUT_L

6n8

1-B18

HP_OUT_R

6n8

E_14780_055.eps

290604

The Headphone Amplifier circuit is located on the System
board. AV1 audio or Headphone audio selected by the Audio
processor is applied to IC 7116. The volume for the
Headphones is controlled by IC 7116. This IC is controlled by
the SDA and SCL line's I2C bus from the OTC located on the
SSB. Left and Right audio is output on Pins 2 and 9 to the
Headphone amplifier, IC 7117. The Headphone amplifier is
powered by the +5 V supply.

9.6 OTC Microprocessor Block

RGB OSDBLK

H/V SYN

DAC

CONFIG
EEPROM

XTAL

EXTERNAL
ROM
AND
DRAM

TV
CONTROL

KEY
PAD

IR

DUAL
I2C BUS

REMOTE

Figure 9-47 OTC microprocessor block

9.6.1 Introduction

SHARED
DRAM

INTERNAL
MEMORY
INTERFACE

EXTERNAL
MEMORY
INTERFACE

TV CONTROL
AND
TUNING

PERIPHERAL
INTERFACE

VIDEO

TEXT

DISPLAY GENERATOR

CLUT

XA CORE

SCRATCH
SRAM

DRCS
AND
CURSOR RAM

SYNC/PLL
AND CLOCK

INSTRUCTION
ROM

7001
SAA5801H

I2C BUS

I2C BUS

I2C BUS

MSB

SYSTEM
BOARD

LIGHT
ENGINE

E_14780_056.eps

290604

9.6.2 OTC Microprocessor Block

CVBS-TXT

SSB

107

7010

113

104

STANDBY

116

100

7015

83

HFB

7016

84

VSYNC

5

74

RESET

23-37

7001
OTC

45-66

86
85

88

87

91

SDA

92

SCL

KEYBOARD

SENSOR

SYSTEM

BOARD

BOARD

1205

1214

1201-2

1214

1214-2

ON/OFF
LED

STBY
LED

LIGHT
SENSOR

RC5

79

2

2

77

5

5

36

6

6

37

8

8

7

7

78

Figure 9-48 OTC microprocessor block

The Keyboard is connected to the OTC via the Sensor board
and System board to Pin 107. The Standby line on Pin 104
goes Low when the set is turned "on". It also turns "on" the
Standby LED. The On/Off line, Pin 113, goes Low turning "on"
7010, which output a High to the Orange LED when the set is
turned "on". Once all of the circuits are turned "on", this line
turns that LED "off". The Standby line then goes Low, which
turns the Green LED "on". A Light Sensor connected to Pin 116
senses the ambient light to allow the set to change the
brightness for optimum viewing. The NVM, 7011, stores the
customer settings, operation hours, and option codes. The
program to run the OTC is stored in IC 7006. IC 7012 is used
by the OTC as a temporary storage. There are two I2C busses,
the Slow bus and the Fast bus.

DTA

7006
PROGRAM
FLASH
RAM

ADD

SDA-S

SCL-S

SDA-F

SCL-F

5
6

7007

7012

DRAM

EPG

TXT

FLASH-RAM

7011
NVM

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290604

The OTC (On-screen display Text Control) is located on the
SSB. This is the main Microprocessor for the set. The User
communicates with the OTC via the Keyboard or Remote
Control. It communicates with the rest of the set via a dual I2C
bus. The start-up program is located in the Instruction ROM
inside the IC. The Main program is located in external DRAM.
An internal Text decoder removes the Closed Caption text and
Teletext information. There are three other Microprocessors in
the set, located on the MSB (Main Scaler Board), on the
System board, and in the Light Engine.

9.7 SSB Standby Supply

SYSTEM

POWER INPUT

6202
BRIDGE

BOARD

VACATION_SW

3103
10K

3104
10K

MAIN POWER

1311-6

STBY
PS

1311-6

BOARD

+5V_STBY

3105
22K

7019

7119

2128

4.7uF

+5V_STBY_SW

BOARD

1312-2

+5VSTBY

+5V_STBY_SW

SW

1312-2

7114
I/O

LED SENSOR

6003
IR REC

1214-1

BOARD

Figure 9-49 SSB Standby Supply

The 5 V Standby voltage is fed to the System board where it
supplies the I/O, 7114, and a Standby switch. The Standby 5 V

1205-40

SSB (SMALL SIGNAL BOARD)

5900

+5V

+5V_CON

7005

+3V3_INTOTC

3.3V
REG

7001
OTC

7006
FLASH

7012
FLASH

7011
NVM

E_14780_058.eps

290604

EN 90 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

supply is also fed to the Power Input board where it is looped
through the Side Jack panel, Thermal Switch, and Door
Interlock Switch.The VACATION_SW voltage is then used to
switch the 5 V Standby voltage to the OTC located on the SSB.
Transistor 7019 is switched "on" when the VACATION_SW
voltage goes High (5 V), turning transistor 7119 "on". The +5
V_STBY_SW voltage is then fed to a 3.3 V regulator, 7005,
located on the SSB. This then supplies the operating voltage to
the OTC and memory ICs. When the Vacation switch is
switched "off", the VACATION_SW voltage goes Low, turning
7019 and 7119 "off". This removes the 5 V supply to the SSB.

9.8 Keyboard

3011
120

3007

2.4K

1201

1

+9V

2

KEYBOARD
TO LED
SENSOR

+5V_STBY

TO
SYSTEM
BOARD

SGND

3

4

1202

1

2

Figure 9-50 Keyboard

The Keyboard is located at the top of the set's cabinet. The
resistors connected to each switch cause a different voltage to
be applied to the keyboard line when pressed. A LED is
mounted under the Standby switch.

6003

7000

3009
910

3010
160

3002
200

VOLUME+

3003
620

CHANNEL+

3001

6001

390

6.8V
VOLUME-

6002

6.8V

3004

1.1K

CHANNEL-

STANDBY

3006
2K

MENU

E_14780_059.eps

290604

the LAMP FAULT line is Low, and the Standby line is High.
When the set is "on", the LED is Green. The Standby line is
Low, turning 7001 "off", switching the Green LED "on". The
On_Off_LED line is Low. When the Lamp requires
replacement, the LED blinks Orange. The LAMP FAULT line
pulses "on" and "off".

9.9 Light Sensor

+9V

2001
10uF

3014

1.5M

7001-1

3

8

+

1

2

­4

2002
470n

6004

3009

1.5M

Figure 9-51 Light sensor

The Light Sensor, 6004, is amplified by two OpAmps, 7001 and

7000. This senses the ambient light. The output of 7000 is fed
to the OTC to make adjustments in the picture brightness to
compensate for the changes in ambient light.

3016
1K

3010

10K

2004
470n

7000-2

3011

3.3K
5

8

+

6

­4

9.10 LED Circuit

LAMP FAULT

6000-2

6000-1

3001

ON_OFF_LED

150

ORANGE-RED

GREEN

3007

1.5K

7001

3003

1.2K

7

3004
10K

+9V

3012

4.7K

3017

3.3K

3005

7.5K

LIGHT_SENSOR

E_14780_060.eps

290604

STANDBY

E_14780_061.eps

290604

Figure 9-52 LED Circuit

The indicator LED has three states, which are Red, Orange,
and Green. When the set is in the Semi-Standby mode, the set
is downloading Teletext data, the indicator LED is Orange. To
accomplish this, the ON_OFF_LED is High, the LAMP FAULT
line is Low, and the Standby line is Low. In the Standby mode,
the LED is Red. To accomplish this, the ON_OFF_LED is High,

Circuit Description, List of Abbreviations, and IC Data Sheets

9.11 I2C Interconnect

9.11.1 I2C Interconnect Part One

88

SDA-F

87

7001
OTC

SCL-F

SDA-S
SCL-S

3709
100

4

7713
PICNIC

SN-DA

1

26

7718
FALCONIC

1205

48

86

85

49

SSB SYSTEM BOARD 1FH SCART

1220

A15

3309
100

3308
100

RXD

7109
RESET

SDA

SCL

TO SCART
PAN EL

9

8

28

18
19

2
11

A16

7108
SYSTEM
MICRO

14

15

7005

I/O

16

PWM_DRIVE

3

SHIFT_CLK

5

S_DATA_IN

24

A

25

B

26

C

13

TXD

4

ADC_SEL

40

7008

43
41

7009

42

10

5

SN-CL

2

27

3710
100

3111
47

9741-C

9741-D
10

5

10

3376
100

1203
TUNER

1

5

D_SW

3329
100

7651
MSP

3655
100

2

1220

A15
A16

15

14

POL_FAN_FAULT

7020

12

7021

7016

SYS_FAN_FAULT

AUDIO_FAULT

S_DATA_OUT

CENTER SW

LAMP_FAULT

5

6
7

9

7114
D/A

10

PWR_FAIL

3656

3377

100

100

46

47

7323
HIP

32

26

7724
EAGLE

SDA-EMG
SCL-EMG

3110

3305

47

100

4

4

7116
HP SW
VOL CTL

TH_CUT

PWR_F

PWR_S

EN 91EM8E 9.

1206
1

2

COMPAIR

3

1210-2

B30

TO MSB

B29

SDA-GDE

SCL-GDE

6

5

7107
NVM

E_14780_062.eps

290604

Figure 9-53 I2C Interconnect Part One

The OTC communicates with the set via two I2C busses. The
SDA-F, Fast bus communicates with the PICNIC, HIP, and
MSP (Audio Processor). The SN-DA line from the processor in
the PICNIC communicates with the FALCONIC and EAGLE.

The SDA-S Slow bus communicates with the devices on the
System board, Jack Panel, PIP/DW board, MSB, and 3D Comb
filter board. The ComPair interface communicates with the set
via the Slow I

2

C bus. The ComPair connector is located on the
Jack Panel. All of the devices on the Jack Panel, PIP/DW, and
3D Comb are controlled directly by the OTC. The System
Microprocessor, 7108, is a slave of the OTC. The System
Microprocessor controls the Processor on the Light Engine.
The MSB also has its own Microprocessors, which receive
instructions from the OTS via the Slow I2C bus.

EN 92 EM8E9.

9.11.2 I2C Interconnect Part Two

Circuit Description, List of Abbreviations, and IC Data Sheets

7113
AUDIO
SWITCH

SYSTEM
BOARD

SDA-PW

SCL-PW

0300

B29

B30

B25

B27

A22

A23

SDA_GDE

SCL_GDE

SDA-S
SCL-S

7101
PLD

SDA_SCALER

SCALER
BOARD

SCL_SCALER

0303

7

TO LIGHT ENGINE

6

SDA_EPLD

67

SCL_EPLD

68

85
87

W14

W15

V13

W13

Y14

7407
PW

Y13

SDA_NVM

SCL_NVM

T17

V16

W16

Y16

V17

U17

W17

2FHIN1_2FN1N2
TRISTATE_DVI_n

DVI_PWR_DOWN_n
RS232_SCALER_OTC

LVDS_PWR_DOWN_n
IRQ_PW
SW_PWR_DOWN_n

5

7405
NVM

6

E_14780_063.eps

290604

The MSB has two Microprocessors, 7101 and 7407. The PLD
(Programmed Logic Device) mixes the digital OSD from the
OTC with the digital video signal from the Pixelworks IC, 7407.
The OTC sends and receives commands to and from the PLD
via the I2C Slow bus. These commands are then relayed to the
main Microprocessor on the MSB, 7407. IC 7407 controls its
internal video processing functions as well as external
switching. IC 7407 has its own NVM, 7405, which stores format
and video switching commands.

9.12 Fan Drive

The fan cools the Light Engine, while the set is in operation. A
sensing circuit increases the speed of the fan, when the
temperature increases, and decreases the speed, when the
temperature drops. There are two fans, which are mounted on
the Light Engine.

3001

3007

5.6K

1M

3006

3002

10K
2001
100n

68K

-t
3003

820

7001

3004
680

Figure 9-55 Temperature sensor board

The Temperature Sensor Board is located on the bottom of the
sets cabinet. When the temperature increases, the resistance
of 3006 increases. This reduces the drive to Transistor 7001,
allowing more current to feed Transistor 7002 via Resistor

3001. When Transistor 7002 turns on harder, the voltage on
the AMP-TEMP line increases. The Sensor Board is powered
by the +5 V supply from the System Board.

7002

3005
100

Figure 9-54 I2C Interconnect Part Two

AMB_TEMP

FROM TEMP
SENSOR
BOARD

Figure 9-56 Temperature sensing A/D converter

The voltage represents the ambient temperature of the set from
the Sensor Board, which is fed to the System Board via

1202

+5V

connector 1262. The voltage is fed to the positive input of IC

7110. This IC converts the voltage into an 8-bit data signal,
which is fed to the System Microprocessor, 7108. See Figure

3008
22K

AMB_TEMP

GND

E_14780_064.eps

290604

for 7108. The ADC_SEL line from 7108 signals 7110 to sample
the voltage on Pin 2. This line is held Low during the sampling
period. The SHIFT_CLK reads the data out to 7108. The
S_DATA_IN line sends configuration data to 7110.
The System Control Microprocessor provides a PWM drive to
the Fan drive circuit. The PWM_DRIVE signal is amplified by
Transistors 7011, 7012, 7013, and 7014. The Fan is powered
by the +12 V supply, which is fed to the Fan via connector 1251.
The return side of the Fans is fed to Transistor 7014, which
provides speed control drive. A Hall Effect sensor on the
System Fan feeds drive back to the System Board via
connector 1251, Pin 3. Feedback from the Light Engine Fan is
fed back on connector 1251, Pin 2.

+5V

GND

1262

7110

+5V

8

+

A/D

-

1

4

5

6

E_14780_065.eps

S_DATA_OUT

290604

+5V

+5V

1

3340

6107

100

2

3344
100K

3

+5V

6106

3343
100K

2

3

S_DATA-IN

ADC_SEL

SHIFT_CLK

Circuit Description, List of Abbreviations, and IC Data Sheets

EN 93EM8E 9.

LIGHT ENGINE FAN

1252

5311

1

FAN

3

2

FB

ENGINE FAN TACH

SYSTEM FAN

1251

1

FAN

2

3

FB

E_14780_066.eps

PWM_DRIVE

+12V

+5V

3350

4.7K

3352
10K

7011

3351
100K

3355

3354
10K

3353
10K

7012

7014

1K

3356

1.2K

5310

6019

5304

6018

2326
100uF

SYS_FAN_TACH

5303

Figure 9-57 Fan drive circuit

The SYS_FAN_TACH for the System Fan and the ENGINE
FAN TACH signals are fed to a Fan Failure detection circuit,
which signals the System Microprocessor, 7108, if the Fan
should stop. When the signal line goes High, the Comparator
connected to Pin 2 will output a High, which will Set the Latch.
The Output on Pin 3 will go Low. When the signal goes Low,
Transistor 7015 turns "on", discharging Capacitor 2325. If the
Fan stops turning, the signal will cease. Capacitor 2325 will
charge via Resistor 3347. The output of Comparator connected
to Pin 6 will go High, resetting the Latch, causing Pin 3 to go
High. This will signal the System Microprocessor that the Fan
has failed. The set will then shut down. IC 7118 monitors the
ENGINE FAN TECH in the same manner to signal the System
Microprocessor is the Light Engine fan should fail.

+5V

8

7118
COMP

6

+

Q

R

5

2107
1uF

2325
1uF

-

2106
100n

+

S

R

-

2
7

4

+5V

+5V

8

7111
COMP

6

+

Q

R

5

-

2324
100n

+

S

R

-

2
7

4

+5V

+5V

3358
10K

3

POL_FAN_FAULT

1

+5V

3348
10K

3

SYS_FAN_FAULT

1

E_14780_067.eps

ENGINE FAN TACH

SYS_FAN_TACH

+12V

3360
10K

2120
100n

+12V

3345
10K

2322
100n

3342
1M

3359

3357

100K

1K

7017

+5V

6103

6104

+5V

+5V

3347
1M

3346

3349

100K

1K

7015

+5V

6110

6111

+5V

+5V

Figure 9-58 Fan failure detection circuit

290604

290604

9.13 Abbreviation list

2DNR Spatial (2D) Noise Reduction
3DNR Temporal (3D) Noise Reduction
AARA Automatic Aspect Ratio Adaptation:

algorithm that adapts aspect ratio to
remove horizontal black bars; keeping
up the original aspect ratio

ACI Automatic Channel Installation:

algorithm that installs TV sets directly
from cable network by means of a

predefined TXT page
ADC Analogue to Digital Converter
AFC Automatic Frequency Control: control

signal used to tune to the correct

frequency
AGC Automatic Gain Control: algorithm that

controls the video input of the feature-

box
AM Amplitude Modulation
ANR Automatic Noise Reduction: one of the

algorithms of Auto TV
AR Aspect Ratio: 4 by 3 or 16 by 9
Artistic See OTC 2.5: main processor
ASF Auto Screen Fit: algorithm that adapts

aspect ratio to remove horizontal black

bars but without throwing away video

information
ATV See Auto TV
AUDIO_C Audio Centre
AUDIO_L Audio Left
AUDIO_R Audio Right
AUDIO_SL Audio Surround Left
AUDIO-SR Audio surround right
AUDIO_SW Audio Subwoofer
Auto TV A hardware and software control

system that measures picture content,

and adapts image parameters in a

dynamic way
BG System B and G
B-SC1-IN Blue SCART1 in
B-SC2-IN Blue SCART2 in
B-TXT Blue teletext
CL Constant Level: audio output to

connect with an external amplifier
ComPair Computer aided rePair
CRT Cathode Ray Tube or picture tube
CSM Customer Service Mode
CTI Colour Transient Improvement:

manipulates steepness of chroma

transients
CVBS Composite Video Blanking and

Synchronisation
CVBS-TER CVBS terrestrial
DAC Digital to Analogue Converter
DBE Dynamic Bass Enhancement: extra

low frequency amplification
DFU Direction For Use: description for the

end user
DNR Digital Noise Reduction: noise

reduction feature of the box
DPL Dolby ProLogic
DSP Digital Signal Processing
DST Dealer Service Tool: special remote

control designed for dealers to enter

e.g. service mode
DVD Digital Versatile Disc
Eagle Feature box IC performing peaking,

zooming and sub pixel LTI in both

horizontal and vertical direction, CTI

and other colour features
EHT Extra High Tension

EN 94 EM8E9.

Circuit Description, List of Abbreviations, and IC Data Sheets

EPG Electronic Program Guide: system

used by broadcasters to transmit TV
guide information (= NexTView)

EXT External (source), entering the set via

SCART or via cinches

FALCONIC SAA4992H, Feature Box IC

performing Digital Natural Motion,
3DNR, and vertical zoom and vertical
peaking

FBL Fast Blanking: DC signal

accompanying RGB signals
FBL-PIP The fast blanking signal for PIP
FBL-TXT The fast blanking signal for TXT. It has

a higher priority than FBL-PIP
FBX Feature Box: part of small signal /

separate module which contains 100

Hz processing, extra featuring and

AutoTV algorithms (FBX6= based on

PICNIC, FBX7= based on PICNIC and

Eagle)
FDS Full Dual Screen
FHP Fujitsu Hitachi Plasma display Ltd.
FLASH Flash memory
FM Field Memory or Frequency

Modulation
G-TXT Green teletext
GND-DRIVE A separate ground for the line drive

towards the line driver
HA50 Horizontal Acquisition 1fh: horizontal

sync pulse coming out of the HIP
HD100 Horizontal Drive 2fh: horizontal sync

pulse coming out of the feature-box
HD at HOME A signal from the OTC, to switch the

HOP to the Pixel Plus standard (75 Hz

frame)
HIP High-end video Input Processor

(TDA9320): video and chroma

decoder of EM5E
HOP High-end video Output Processor

(TDA9330): video, sync, and

geometry controller of EM5E
HP Headphone
Interlaced Scan mode where two fields are used

to form one frame. Each field contains

half the number of the total amount of

lines. The fields are written in 'pairs',

causing line flicker
Last Status The settings last chosen by the

customer, read, and stored in RAM or

in the NVM. They are called at start-up

of the set to configure it according the

customers wishes
LCD Liquid Crystal Display
LCoS Liquid Crystal on Silicon
LPL LG-Philips LCD
LED Light Emitting Diode
LINE DRIVE Line drive signal (for the Line

transistor)
LNA Low Noise Adapter
LSP Large signal panel
MSP Multi-standard Sound Processor: ITT

sound decoder of EM5E
MUTE Mute-Line
NC Not Connected
NVM Non Volatile Memory: IC containing

TV related data e.g. alignments
O/C Open Circuit
ON/OFF LED On/Off control signal for the LED
OSD On Screen Display
OTC On screen display Teletext and

Control; also named Artistic

(SAA5800)
P50 Project 50 communication: protocol

between TV and peripherals
PCB Printed Circuit Board

PDP Plasma Display Panel
PICNIC Peripheral Integrated Combined

Network IC (SAA4978): main IC for
100 Hz featuring and feature

processing
PIP Picture In Picture
Progressive Scan Scan mode where all scan lines are

displayed in one frame at the same

time, creating a double vertical

resolution.
PTP Picture Tube Panel
PWB Printed Wiring Board
RAM Random Access Memory
R-TXT Red teletext
RC Remote Control
RC5 / RC6 Signal protocol from the remote

control receiver
RESET Reset signal
RGB-PIP RGB-input for PIP
RGB-TXT RGB-input for Teletext and OSD
RGB-VC RGB-input to the Picture Tube Panel
ROM Read Only Memory
SAM Service Alignment Mode
SC Sandcastle: two-level pulse derived

from sync signals
S/C Short Circuit
SCAVEM Scan Velocity Modulation
SCL-F Clock signal on fast I2C bus
SD Standard Definition
SDA-F Data signal on fast I2C bus
SDI Samsung Display Industry
SIF Sound Intermediate Frequency
SNERT Synchronous No parity Eight bit

Reception and Transmit
SSB/SSP Small Signal Board/Panel
STBY Standby
SW Subwoofer
TXT Teletext
TXT-DS Teletext Dual Screen
TXT-KILL To kill the TXT picture to insert a PIP.

It has a higher priority than FBL-TXT.
uP Microprocessor
U100 U from Feature Box
V100 V from Feature Box
VA50 Vertical Acquisition 1Fh
VD100 Vertical Drive 2fh: vertical sync pulse

from deflection
VDPOS One of the symmetrical drive signals

for the DC frame output stage.
VDNEG One of the symmetrical drive signals

for the DC frame output stage.
VDS Virtual Dolby Surround
VFB Vertical Flyback Pulse: vertical sync

pulse coming from the Feature Box
VL Variable Level out: processed audio

output towards external amplifier
WYSIWYR What You See Is What You Record:

record selection that follows main

picture and sound
XTAL Quartz crystal
Y100 Y from Feature Box
Y-OUT Luminance-signal to HOP IC
YUV-Feat The YUV input for the main picture,

coming from the Feature box or the HI

10. Spare Parts List

Spare Parts List

EN 95EM8E 10.

Set Level

Various

0009 3135 038 70071 Cable 600/2P
8192 3135 031 01501 Cable 4P2/120
8210 3135 031 01301 CBLE HR 6P/85/6P HR
8215 3135 031 01751 Cable 4P
8252 3135 031 02131 CBLE SH 6P/650/6P SH
8253 3104 311 00131 Cable 3p/560/3p
8305 3135 031 01311 Cable 7P/200/7P
8310 3135 031 01461 Cable 3P2/300/3P2
8311 3135 031 01121 Cable 6P/350/6P
8313 3135 031 02151 Cable 3P
8335 3135 031 01101 Cable 11P/800/11P
8344 3135 031 01111 CBLE HR 5P/800/5P HR
8402 3104 311 03221 Cable 5p/400/5p KR Wh
8460 3135 031 01241 Cable 3P/1050/2P
8500 3135 031 01691 CBLE SH 7P/530/7P SH
8601 3135 031 01601 Cable (m)1P/250/1P(f)
8680 3135 031 01181 Cable 6P/525/6P
8681 3135 031 00811 CBLE KR 3P/450/3P KR
8700 3135 031 01421 CBLE HR 8P/200/8P HR

Audio Amplifier [AA]

Various

1216 4822 265 11517 Connector 1p m
1305 4822 267 10618 Connector 7p
1316 2422 025 10647 Connector 4p m
1321 4822 265 11557 Connector 5p
1700 4822 267 10574 Connector 8p
1702 4822 130 20297 BT169B
1703 2422 549 43778 Line filter 50V 2A4
1704 2422 549 43778 Line filter 50V 2A4

g

2701 5322 121 42498 680nF 5% 63V
2702 5322 122 34098 10nF 10% 63V X7R
2703 5322 121 42498 680nF 5% 63V
2704 5322 122 34098 10nF 10% 63V X7R
2705 4822 124 22652 2.2µF 20% 50V
2706 4822 126 14585 100nF 10% 0805 50V
2707 4822 126 14585 100nF 10% 0805 50V
2708 4822 126 14076 220nF +80/-20% 25V
2709 5322 122 32268 470pF 5% 50V 0805 NP0
2710 5322 122 32268 470pF 5% 50V 0805 NP0
2711 5322 126 10511 1nF 5% 50V
2712 4822 126 13473 220nF +80%/-20% 50V
2713 4822 126 14585 100nF 10% 0805 50V
2714 4822 126 12105 33nF 5% 50V 0805
2715 5322 126 10511 1nF 5% 50V
2716 5322 122 31863 330pF 5% 63V 0805
2717 5322 122 32531 100pF 5% 50V
2718 5322 122 32658 22pF 5% 50V
2719 5322 126 10511 1nF 5% 50V
2720 4822 126 14076 220nF +80/-20% 25V
2721 5322 122 32268 470pF 5% 50V 0805 NP0
2722 5322 122 32268 470pF 5% 50V 0805 NP0
2723 4822 126 13473 220nF +80%/-20% 50V
2724 4822 126 13473 220nF +80%/-20% 50V
2725 4822 126 13473 220nF +80%/-20% 50V
2726 4822 126 12105 33nF 5% 50V 0805
2727 5322 126 10511 1nF 5% 50V
2728 5322 122 31863 330pF 5% 63V 0805
2729 4822 126 14585 100nF 10% 0805 50V
2730 4822 124 81168 2200 µF 20% 35V
2731 4822 124 81168 2200 µF 20% 35V
2732 4822 126 13473 220nF +80%/-20% 50V
2733 4822 126 13473 220nF +80%/-20% 50V
2734 5322 126 10511 1nF 5% 50V
2735 4822 124 40248 10µF 20% 63V
2736 5322 122 34098 10nF 10% 63V X7R
2737 5322 122 34098 10nF 10% 63V X7R
2739 5322 126 10511 1nF 5% 50V
2740 5322 126 10511 1nF 5% 50V
2741 5322 126 10511 1nF 5% 50V
2742 4822 126 13473 220nF +80%/-20% 50V
2743 4822 126 13473 220nF +80%/-20% 50V
2744 4822 126 13473 220nF +80%/-20% 50V
2745 4822 126 13473 220nF +80%/-20% 50V
2763 5322 121 42498 680nF 5% 63V
2776 4822 124 40248 10µF 20% 63V
2777 5322 121 42498 680nF 5% 63V

2780 5322 121 42386 100nF 5% 63V
2781 5322 121 42386 100nF 5% 63V

f

3701 4822 050 21003 10kΩ 1% 0.6W
3702 4822 116 83961 6.8kΩ 5%
3703 4822 051 20333 33kΩ 5% 0.1W
3704 4822 117 10833 10kΩ 1% 0.1W
3705 4822 116 52176 10Ω 5% 0.5W
3706 4822 051 20562 5.6kΩ 5% 0.1W 0805
3707 4822 051 20683 68kΩ 5% 0.1W
3708 4822 117 11148 56kΩ 1% 0.1W
3709 4822 117 11503 220Ω 1% 0.1W
3710 4822 051 20223 22kΩ 5% 0.1W
3711 4822 050 21204 120kΩ 1% 0,6W
3712 4822 117 10833 10kΩ 1% 0.1W
3713 4822 116 52175 100Ω 5% 0.5W
3714 4822 117 10834 47kΩ 1% 0.1W
3715 4822 116 83884 47kΩ 5% 0.5W
3716 4822 117 10834 47kΩ 1% 0.1W
3717 4822 051 20154 150kΩ 5% 0.1W
3718 4822 051 20154 150kΩ 5% 0.1W
3719 2120 105 93428 1kΩ 5% 2W
3720 2120 105 93428 1kΩ 5% 2W
3721 4822 051 20562 5.6kΩ 5% 0.1W 0805
3722 4822 051 20683 68kΩ 5% 0.1W
3723 4822 117 11148 56kΩ 1% 0.1W
3724 4822 116 83872 220Ω 5% 0.5W
3725 4822 051 20223 22kΩ 5% 0.1W
3726 4822 051 20332 2.3kΩ 5% 0.1W
3727 4822 117 10834 47kΩ 1% 0.1W
3728 4822 117 11503 220Ω 1% 0.1W
3729 4822 116 83872 220Ω 5% 0.5W
3730 4822 117 11373 100Ω 1% 0805
3731 4822 117 11373 100Ω 1% 0805
3732 4822 116 52243 1.5kΩ 5% 0.5W
3733 4822 116 52243 1.5kΩ 5% 0.5W
3734 4822 117 10837 100kΩ 1% 0.1W
3790 4822 117 11373 100Ω 1% 0805
3791 4822 117 11373 100Ω 1% 0805
3792 4822 116 52175 100Ω 5% 0.5W
3793 4822 116 52175 100Ω 5% 0.5W
3796 4822 117 10833 10kΩ 1% 0.1W
3797 4822 051 20332 2.3kΩ 5% 0.1W
3798 4822 116 52269 3.3kΩ 5% 0.5W
3799 4822 116 83884 47kΩ 5% 0.5W
4700 4822 051 20008 Jumper 0805
4701 4822 051 20008 Jumper 0805

b

5701 2422 536 00504 68µH 10%
5702 2422 536 00504 68µH 10%
5707 4822 157 11716 Bead 30Ω at 100MHz
5708 4822 157 11716 Bead 30Ω at 100MHz
5713 2422 535 95387 1µH 5%
5714 2422 535 95387 1µH 5%
5715 4822 157 11411 Bead 80Ω at 100MHz
5716 4822 157 11411 Bead 80Ω at 100MHz

d

6701 4822 130 30621 1N4148
6702 4822 130 30621 1N4148
6703 4822 130 30621 1N4148
6704 4822 130 11397 BAS316
6705 4822 130 11397 BAS316
6706 4822 130 11397 BAS316
6707 4822 130 11397 BAS316
6708 4822 130 11397 BAS316
6709 4822 130 11397 BAS316
6710 4822 130 11397 BAS316
6711 4822 130 11397 BAS316

ce

7700 9322 147 50667 TDA7490
7701 5322 130 60159 BC846B
7704 5322 130 60159 BC846B
7705 5322 130 60159 BC846B
7706 4822 130 60373 BC856B
7707 5322 130 60159 BC846B
7708 5322 130 60159 BC846B
7710 5322 130 60159 BC846B
7711 5322 130 60159 BC846B

Small Signal Board [B]

Various

0600 3135 037 02881 Softw. (check Prod.Surv.)
1001 2422 543 89022 Xtal 6MHz 20p
1100 2422 025 16388 Connector 16P f
1101 2422 549 45325 Bead 67Ω at 100MHz
1102 2422 549 45325 Bead 67Ω at 100MHz
1103 2422 549 45325 Bead 67Ω at 100MHz
1104 2422 549 45325 Bead 67Ω at 100MHz
1105 2422 549 45325 Bead 67Ω at 100MHz
1305 2422 543 01184 Xtal 4.433619MHz 20p
1308 2422 543 01183 Xtal 3.579545MHz 16p
1401 2422 025 16729 Connector 10p f foil
1402 2422 025 16966 Connector 5p m SMD
1403

h 2422 086 11092 Fuse 500mA 50V F SMD

1407 2422 549 44324 Filt. 5.5/5.74MHz
1408 2422 549 44372 SAW 38.9MHz K3953L
1409 2422 549 44369 SAW 38.9MHz K9656L
1651 2422 543 89019 Xtal 18.432MHz 12p
1680 2422 025 16961 Connector 6p m SMD
1683 2422 025 16793 Connector 5p f
1702 2422 540 98456 Resonator 12MHz

g

2001 2222 867 15339 33pF 5% 50V 0603
2002 4822 126 11669 27pF 5% 50V 0603
2003 4822 126 13879 220nF +80-20% 16V
2004 4822 126 13879 220nF +80-20% 16V
2005 2238 586 59812 100nF 20% 50V 0603
2006 2238 586 59812 100nF 20% 50V 0603
2007 2238 586 59812 100nF 20% 50V 0603
2008 2238 586 59812 100nF 20% 50V 0603
2010 4822 126 11785 47pF 5% 50V 0603
2011 4822 126 11785 47pF 5% 50V 0603
2012 4822 126 11785 47pF 5% 50V 0603
2013 4822 124 12095 100µF 20% 16V
2016 4822 124 12095 100µF 20% 16V
2017 2238 586 59812 100nF 20% 50V 0603
2019 2238 586 59812 100nF 20% 50V 0603
2020 4822 126 13883 220pF 5% 50V
2022 2238 586 59812 100nF 20% 50V 0603
2023 2238 586 59812 100nF 20% 50V 0603
2024 2238 586 59812 100nF 20% 50V 0603
2025 2238 586 59812 100nF 20% 50V 0603
2026 2238 586 59812 100nF 20% 50V 0603
2027 2238 586 59812 100nF 20% 50V 0603
2028 2238 586 59812 100nF 20% 50V 0603
2029 2238 586 59812 100nF 20% 50V 0603
2031 2238 586 59812 100nF 20% 50V 0603
2033 4822 126 14226 82pF 5% 50V 0603
2034 4822 126 14226 82pF 5% 50V 0603
2035 4822 126 14226 82pF 5% 50V 0603
2036 4822 126 14226 82pF 5% 50V 0603
2037 4822 126 14226 82pF 5% 50V 0603
2038 2238 586 59812 100nF 20% 50V 0603
2039 2238 586 59812 100nF 20% 50V 0603
2040 2238 586 59812 100nF 20% 50V 0603
2052 4822 122 33741 10pF 10% 50V
2053 4822 122 33741 10pF 10% 50V
2054 4822 122 33741 10pF 10% 50V
2055 4822 122 33741 10pF 10% 50V
2056 4822 122 33741 10pF 10% 50V
2057 4822 122 33741 10pF 10% 50V
2100 2238 586 59812 100nF 20% 50V 0603
2101 2238 586 59812 100nF 20% 50V 0603
2102 2238 586 59812 100nF 20% 50V 0603
2103 2020 021 91854 10µF 20% 16V
2104 2238 586 59812 100nF 20% 50V 0603
2105 5322 126 11578 1nF 10% 50V 0603
2106 2238 586 59812 100nF 20% 50V 0603
2107 5322 126 11578 1nF 10% 50V 0603
2108 5322 126 11578 1nF 10% 50V 0603
2109 2238 586 59812 100nF 20% 50V 0603
2110 2020 021 91854 10µF 20% 16V
2111 5322 126 11578 1nF 10% 50V 0603
2112 2238 586 59812 100nF 20% 50V 0603
2302 2238 586 59812 100nF 20% 50V 0603
2303 2022 552 05679 1µF 10% 16V 0805
2305 2238 586 59812 100nF 20% 50V 0603
2312 2020 552 96659 33µF 5% 50V 1206
2316 2238 586 59812 100nF 20% 50V 0603
2322 2238 586 59812 100nF 20% 50V 0603
2340 4822 124 12095 100µF 20% 16V
2350 2238 586 59812 100nF 20% 50V 0603

EN 96 EM8E10.

Spare Parts List

2351 2238 586 59812 100nF 20% 50V 0603
2352 2238 586 59812 100nF 20% 50V 0603
2353 2238 586 59812 100nF 20% 50V 0603
2354 2238 586 59812 100nF 20% 50V 0603
2356 2238 586 59812 100nF 20% 50V 0603
2357 2238 586 59812 100nF 20% 50V 0603
2358 5322 126 11579 3.3nF 10% 63V
2359 4822 122 33752 15pF 5% 50V
2360 3198 016 31280 1.2pF 0.25pF 50V 0603
2361 3198 016 31280 1.2pF 0.25pF 50V 0603
2362 4822 126 11663 12pF 5% 50V 0603
2365 2238 586 59812 100nF 20% 50V 0603
2366 2238 586 59812 100nF 20% 50V 0603
2367 2238 586 59812 100nF 20% 50V 0603
2368 2238 586 59812 100nF 20% 50V 0603
2369 2238 586 59812 100nF 20% 50V 0603
2370 2238 586 59812 100nF 20% 50V 0603
2371 4822 126 13193 4.7nF 10% 63V
2372 4822 126 14043 1µF +80-20% 16V 0805
2373 2238 586 59812 100nF 20% 50V 0603
2374 4822 126 14491 2.2µF 10V 0805
2375 2238 916 15641 22nF 10% 25V 0603
2376 2238 586 59812 100nF 20% 50V 0603
2377 4822 124 12095 100µF 20% 16V
2378 2238 586 59812 100nF 20% 50V 0603
2384 2238 586 59812 100nF 20% 50V 0603
2385 2238 586 59812 100nF 20% 50V 0603
2390 2238 586 59812 100nF 20% 50V 0603
2391 2238 586 59812 100nF 20% 50V 0603
2394 4822 126 14491 2.2µF 10V 0805
2404 2022 552 05679 1µF 10% 16V 0805
2405 4822 126 13193 4.7nF 10% 63V
2406 4822 126 13883 220pF 5% 50V
2407 4822 126 14221 68pF 5% 50V 0603 NP0
2408 3198 016 32780 2.7pF 10% 50V 0603
2409 4822 126 14491 2.2µF 10V 0805
2411 2238 586 59812 100nF 20% 50V 0603
2412 4822 126 13193 4.7nF 10% 63V
2417 3198 017 44740 470nF 10V 0603
2418 4822 126 13956 6.8pF 5% 63V 0603
2420 4822 122 33753 150pF 5% 50V NP0
2422 2238 586 59812 100nF 20% 50V 0603
2424 2238 586 59812 100nF 20% 50V 0603
2425 4822 124 12095 100µF 20% 16V
2501 4822 126 11785 47pF 5% 50V 0603
2502 4822 126 14107 330nF +-80/-20% 25V
2503 4822 126 14107 330nF +-80/-20% 25V
2504 4822 126 14107 330nF +-80/-20% 25V
2505 4822 126 14107 330nF +-80/-20% 25V
2506 4822 126 14107 330nF +-80/-20% 25V
2507 4822 126 14107 330nF +-80/-20% 25V
2508 4822 124 12095 100µF 20% 16V
2510 2022 552 05679 1µF 10% 16V 0805
2511 2022 552 05679 1µF 10% 16V 0805
2512 4822 126 13879 220nF +80-20% 16V
2513 4822 124 23002 10µF 16V
2515 2020 552 94427 100pF 5% 50V
2520 2238 586 59812 100nF 20% 50V 0603
2521 2238 586 59812 100nF 20% 50V 0603
2522 4822 126 13881 470pF 5% 50V
2523 3198 016 31020 1nF 25V 0603
2524 2238 586 59812 100nF 20% 50V 0603
2525 4822 126 13881 470pF 5% 50V
2526 3198 016 31020 1nF 25V 0603
2528 4822 126 14491 2.2µF 10V 0805
2529 4822 126 14472 1µF 10% 10V 0805
2530 4822 126 14472 1µF 10% 10V 0805
2546 4822 124 23002 10µF 16V
2547 4822 124 23002 10µF 16V
2548 4822 124 23002 10µF 16V
2549 4822 124 23002 10µF 16V
2550 4822 126 14241 330pF 0603 50V
2551 5322 126 11579 3.3nF 10% 63V
2552 4822 126 13881 470pF 5% 50V
2553 4822 126 13881 470pF 5% 50V
2554 4822 126 13881 470pF 5% 50V
2555 4822 126 13881 470pF 5% 50V
2562 3198 016 31020 1nF 25V 0603
2563 3198 016 31020 1nF 25V 0603
2564 3198 016 31020 1nF 25V 0603
2565 3198 016 31020 1nF 25V 0603
2566 3198 016 31020 1nF 25V 0603
2567 3198 016 31020 1nF 25V 0603
2568 3198 016 31020 1nF 25V 0603
2569 3198 016 31020 1nF 25V 0603
2570 3198 016 31020 1nF 25V 0603
2571 2020 552 94427 100pF 5% 50V
2574 3198 016 31020 1nF 25V 0603
2575 3198 016 31020 1nF 25V 0603
2576 3198 016 31020 1nF 25V 0603
2577 3198 016 31020 1nF 25V 0603
2578 2020 552 94427 100pF 5% 50V
2579 2020 552 94427 100pF 5% 50V
2580 3198 016 31020 1nF 25V 0603

2581 3198 016 31020 1nF 25V 0603
2582 3198 016 31020 1nF 25V 0603
2583 3198 016 31020 1nF 25V 0603
2584 2020 552 94427 100pF 5% 50V
2585 2020 552 94427 100pF 5% 50V
2586 2020 552 94427 100pF 5% 50V
2590 2020 552 94427 100pF 5% 50V
2592 5322 126 11578 1nF 10% 50V 0603
2593 3198 016 31020 1nF 25V 0603
2594 3198 016 31020 1nF 25V 0603
2595 3198 016 31020 1nF 25V 0603
2609 3198 016 31020 1nF 25V 0603
2610 4822 126 14238 2.2nF 50V 0603
2611 3198 016 31020 1nF 25V 0603
2632 4822 126 14107 330nF +-80/-20% 25V
2634 3198 016 31020 1nF 25V 0603
2640 4822 126 13879 220nF +80-20% 16V
2643 4822 126 14107 330nF +-80/-20% 25V
2644 3198 016 31020 1nF 25V 0603
2645 4822 126 14107 330nF +-80/-20% 25V
2646 4822 126 14491 2.2µF 10V 0805
2649 4822 126 14491 2.2µF 10V 0805
2651 2238 586 59812 100nF 20% 50V 0603
2652 4822 126 11785 47pF 5% 50V 0603
2653 4822 126 14107 330nF +-80/-20% 25V
2654 4822 126 13881 470pF 5% 50V
2659 4822 126 13881 470pF 5% 50V
2660 4822 126 13881 470pF 5% 50V
2661 4822 126 14107 330nF +-80/-20% 25V
2662 4822 126 14107 330nF +-80/-20% 25V
2663 4822 126 13881 470pF 5% 50V
2664 4822 126 13881 470pF 5% 50V
2665 4822 124 12095 100µF 20% 16V
2666 4822 124 12095 100µF 20% 16V
2667 3198 016 33380 3.3pF 50V 0603
2668 3198 016 33380 3.3pF 50V 0603
2670 2238 586 59812 100nF 20% 50V 0603
2673 3198 016 31020 1nF 25V 0603
2674 3198 016 31020 1nF 25V 0603
2677 4822 124 23002 10µF 16V
2678 4822 124 23002 10µF 16V
2679 2238 586 59812 100nF 20% 50V 0603
2680 4822 124 23002 10µF 16V
2681 2238 586 59812 100nF 20% 50V 0603
2682 4822 124 23002 10µF 16V
2686 3198 016 31020 1nF 25V 0603
2687 3198 016 31020 1nF 25V 0603
2690 2238 586 59812 100nF 20% 50V 0603
2691 2238 586 59812 100nF 20% 50V 0603
2693 4822 126 13883 220pF 5% 50V
2694 3198 016 31020 1nF 25V 0603
2695 4822 124 12095 100µF 20% 16V
2697 2238 586 59812 100nF 20% 50V 0603
2698 4822 126 14491 2.2µF 10V 0805
2709 2238 586 59812 100nF 20% 50V 0603
2710 2238 586 59812 100nF 20% 50V 0603
2711 2238 586 59812 100nF 20% 50V 0603
2712 2238 586 59812 100nF 20% 50V 0603
2713 4822 122 33761 22pF 5% 50V
2714 4822 122 33761 22pF 5% 50V
2716 2238 586 59812 100nF 20% 50V 0603
2718 4822 122 33752 15pF 5% 50V
2719 4822 122 33752 15pF 5% 50V
2720 4822 122 33752 15pF 5% 50V
2721 2020 552 94427 100pF 5% 50V
2722 2020 552 94427 100pF 5% 50V
2728 2020 021 91854 10µF 20% 16V
2729 2238 586 59812 100nF 20% 50V 0603
2730 2020 021 91557 100µF 20% 16V
2731 2238 586 59812 100nF 20% 50V 0603
2732 2238 586 59812 100nF 20% 50V 0603
2733 2238 586 59812 100nF 20% 50V 0603
2734 2238 586 59812 100nF 20% 50V 0603
2735 2238 586 59812 100nF 20% 50V 0603
2740 2238 916 15641 22nF 10% 25V 0603
2741 2238 916 15641 22nF 10% 25V 0603
2742 2238 916 15641 22nF 10% 25V 0603
2743 2238 586 59812 100nF 20% 50V 0603
2744 2238 586 59812 100nF 20% 50V 0603
2745 2238 586 59812 100nF 20% 50V 0603
2746 2238 586 59812 100nF 20% 50V 0603
2747 2238 586 59812 100nF 20% 50V 0603
2748 2238 586 59812 100nF 20% 50V 0603
2749 2020 021 91854 10µF 20% 16V
2750 2238 586 59812 100nF 20% 50V 0603
2751 2238 586 59812 100nF 20% 50V 0603
2752 2238 586 59812 100nF 20% 50V 0603
2753 2238 586 59812 100nF 20% 50V 0603
2754 2238 586 59812 100nF 20% 50V 0603
2755 2238 586 59812 100nF 20% 50V 0603
2756 2238 586 59812 100nF 20% 50V 0603
2757 2238 916 15641 22nF 10% 25V 0603
2760 2238 586 59812 100nF 20% 50V 0603
2761 2238 586 59812 100nF 20% 50V 0603

2762 2238 586 59812 100nF 20% 50V 0603
2763 2238 586 59812 100nF 20% 50V 0603
2764 2238 586 59812 100nF 20% 50V 0603
2765 2238 586 59812 100nF 20% 50V 0603
2766 2238 586 59812 100nF 20% 50V 0603
2767 2238 586 59812 100nF 20% 50V 0603
2768 2238 586 59812 100nF 20% 50V 0603
2769 2238 586 59812 100nF 20% 50V 0603
2770 2020 021 91854 10µF 20% 16V
2771 2238 586 59812 100nF 20% 50V 0603
2772 2020 021 91557 100µF 20% 16V
2773 2238 586 59812 100nF 20% 50V 0603
2774 2238 586 59812 100nF 20% 50V 0603
2775 2238 586 59812 100nF 20% 50V 0603
2776 2238 586 59812 100nF 20% 50V 0603
2777 2238 586 59812 100nF 20% 50V 0603
2778 2238 586 59812 100nF 20% 50V 0603
2779 2238 586 59812 100nF 20% 50V 0603
2780 2238 586 59812 100nF 20% 50V 0603
2781 2238 586 59812 100nF 20% 50V 0603
2782 2238 586 59812 100nF 20% 50V 0603
2784 2238 586 59812 100nF 20% 50V 0603
2785 2238 586 59812 100nF 20% 50V 0603
2786 2238 586 59812 100nF 20% 50V 0603
2787 2238 586 59812 100nF 20% 50V 0603
2788 2238 586 59812 100nF 20% 50V 0603
2789 2238 586 59812 100nF 20% 50V 0603
2790 2238 586 59812 100nF 20% 50V 0603
2791 2238 586 59812 100nF 20% 50V 0603
2792 2020 021 91854 10µF 20% 16V
2793 2238 586 59812 100nF 20% 50V 0603
2794 2020 021 91854 10µF 20% 16V
2795 2238 586 59812 100nF 20% 50V 0603
2796 2238 586 59812 100nF 20% 50V 0603
2797 2238 586 59812 100nF 20% 50V 0603
2798 2238 586 59812 100nF 20% 50V 0603
2799 2238 586 59812 100nF 20% 50V 0603
2800 2238 586 59812 100nF 20% 50V 0603
2801 2238 586 59812 100nF 20% 50V 0603
2802 2238 586 59812 100nF 20% 50V 0603
2803 2238 586 59812 100nF 20% 50V 0603
2805 2238 586 59812 100nF 20% 50V 0603
2807 2238 586 59812 100nF 20% 50V 0603
2809 2238 586 59812 100nF 20% 50V 0603
2810 2238 586 59812 100nF 20% 50V 0603
2811 2238 586 59812 100nF 20% 50V 0603
2812 2238 586 59812 100nF 20% 50V 0603
2813 2238 586 59812 100nF 20% 50V 0603
2817 2238 586 59812 100nF 20% 50V 0603
2819 2238 586 59812 100nF 20% 50V 0603
2820 2238 586 59812 100nF 20% 50V 0603
2821 2238 586 59812 100nF 20% 50V 0603
2822 2238 586 59812 100nF 20% 50V 0603
2823 5322 126 11578 1nF 10% 50V 0603
2824 5322 126 11578 1nF 10% 50V 0603
2825 2238 586 59812 100nF 20% 50V 0603
2826 2238 586 59812 100nF 20% 50V 0603
2829 2238 586 59812 100nF 20% 50V 0603
2831 4822 126 14221 68pF 5% 50V 0603 NP0
2832 2238 586 59812 100nF 20% 50V 0603
2833 2238 586 59812 100nF 20% 50V 0603
2835 2238 586 59812 100nF 20% 50V 0603
2836 2238 586 59812 100nF 20% 50V 0603
2838 2238 586 59812 100nF 20% 50V 0603
2843 2238 586 59812 100nF 20% 50V 0603
2845 2238 586 59812 100nF 20% 50V 0603
2846 2238 586 59812 100nF 20% 50V 0603
2847 2238 586 59812 100nF 20% 50V 0603
2848 2238 586 59812 100nF 20% 50V 0603
2851 2238 586 59812 100nF 20% 50V 0603
2853 2238 586 59812 100nF 20% 50V 0603
2854 2238 586 59812 100nF 20% 50V 0603
2857 2238 586 59812 100nF 20% 50V 0603
2859 2238 586 59812 100nF 20% 50V 0603
2860 2238 586 59812 100nF 20% 50V 0603
2861 2238 586 59812 100nF 20% 50V 0603
2864 2238 586 59812 100nF 20% 50V 0603
2865 2238 586 59812 100nF 20% 50V 0603
2866 2238 586 59812 100nF 20% 50V 0603
2867 2238 586 59812 100nF 20% 50V 0603
2870 2020 021 91854 10µF 20% 16V
2871 2020 021 91854 10µF 20% 16V
2872 2238 586 59812 100nF 20% 50V 0603
2874 2020 021 91854 10µF 20% 16V
2875 2020 021 91854 10µF 20% 16V
2876 2238 586 59812 100nF 20% 50V 0603
2880 2020 021 91557 100µF 20% 16V
2881 4822 126 11669 27pF 5% 50V 0603
2884 2238 586 59812 100nF 20% 50V 0603
2896 2238 586 59812 100nF 20% 50V 0603
2899 2238 586 59812 100nF 20% 50V 0603
2908 2238 586 59812 100nF 20% 50V 0603
2909 2238 586 59812 100nF 20% 50V 0603
2910 2238 586 59812 100nF 20% 50V 0603

Spare Parts List

EN 97EM8E 10.

2911 2238 586 59812 100nF 20% 50V 0603
2912 3198 017 44740 470nF 10V 0603

f

3001 4822 051 30472 4.7Ω 5% 0.062W
3002 4822 051 30472 4.7Ω 5% 0.062W
3003 4822 117 13525 24kΩ 1% 0.62W 0603
3006 4822 051 30471 47Ω 5% 0.062W
3007 3198 031 14710 4 x 470Ω 5% 1206
3008 4822 117 13523 220Ω 5% 0.63W
3009 4822 051 30008 Jumper 0603
3011 4822 051 30471 47Ω 5% 0.062W
3012 3198 031 11010 4 x 100Ω 5% 1206
3013 4822 051 30103 10kΩ 5% 0.062W
3014 4822 051 30682 6.8Ω 5% 0.062W
3015 4822 051 30474 470kΩ 5% 0.062W
3016 4822 051 30152 1.5Ω 5% 0.062W
3017 4822 051 30472 4.7Ω 5% 0.062W
3018 4822 051 30103 10kΩ 5% 0.062W
3019 4822 051 30472 4.7Ω 5% 0.062W
3020 4822 051 30103 10kΩ 5% 0.062W
3021 4822 051 30103 10kΩ 5% 0.062W
3024 4822 051 30273 27kΩ 5% 0.062W
3025 4822 051 30221 220Ω 5% 0.062W
3026 4822 051 30472 4.7Ω 5% 0.062W
3027 4822 117 12925 47kΩ 1% 0.063W 0603
3029 4822 051 30103 10kΩ 5% 0.062W
3031 4822 051 30103 10kΩ 5% 0.062W
3033 4822 051 30103 10kΩ 5% 0.062W
3034 3198 031 11010 4 x 100Ω 5% 1206
3035 3198 031 11010 4 x 100Ω 5% 1206
3039 4822 051 30181 180Ω 5% 0.062W
3040 4822 051 30472 4.7Ω 5% 0.062W
3041 4822 051 30472 4.7Ω 5% 0.062W
3042 4822 051 30472 4.7Ω 5% 0.062W
3044 4822 051 30272 2.7kΩ 5% 0.062W
3045 4822 051 30101 100Ω 5% 0.062W
3046 3198 031 11010 4 x 100Ω 5% 1206
3048 3198 031 11010 4 x 100Ω 5% 1206
3049 3198 031 11010 4 x 100Ω 5% 1206
3050 3198 031 11010 4 x 100Ω 5% 1206
3051 3198 031 11010 4 x 100Ω 5% 1206
3052 3198 031 11010 4 x 100Ω 5% 1206
3053 4822 051 30101 100Ω 5% 0.062W
3054 3198 031 11010 4 x 100Ω 5% 1206
3055 3198 031 11010 4 x 100Ω 5% 1206
3056 3198 031 11010 4 x 100Ω 5% 1206
3057 3198 031 11010 4 x 100Ω 5% 1206
3059 2322 704 66201 620Ω 1% 0603
3061 4822 051 30103 10kΩ 5% 0.062W
3062 4822 051 30103 10kΩ 5% 0.062W
3064 3198 031 11010 4 x 100Ω 5% 1206
3065 4822 051 30472 4.7Ω 5% 0.062W
3066 4822 117 12925 47kΩ 1% 0.063W 0603
3067 4822 051 30474 470kΩ 5% 0.062W
3068 4822 051 30272 2.7kΩ 5% 0.062W
3069 4822 051 30272 2.7kΩ 5% 0.062W
3073 3198 031 14710 4 x 470Ω 5% 1206
3074 3198 031 14710 4 x 470Ω 5% 1206
3076 3198 031 14710 4 x 470Ω 5% 1206
3078 3198 031 14710 4 x 470Ω 5% 1206
3079 4822 051 30472 4.7Ω 5% 0.062W
3080 4822 051 30472 4.7Ω 5% 0.062W
3081 4822 051 30008 Jumper 0603
3088 4822 051 30472 4.7Ω 5% 0.062W
3090 3198 031 14710 4 x 470Ω 5% 1206
3093 4822 051 30103 10kΩ 5% 0.062W
3094 4822 117 12925 47kΩ 1% 0.063W 0603
3095 4822 117 12925 47kΩ 1% 0.063W 0603
3096 4822 117 12925 47kΩ 1% 0.063W 0603
3097 4822 051 30008 Jumper 0603
3098 4822 051 30101 100Ω 5% 0.062W
3099 3198 031 14710 4 x 470Ω 5% 1206
3169 4822 051 30102 1kΩ 5% 0.062W
3170 4822 051 30102 1kΩ 5% 0.062W
3171 4822 051 30102 1kΩ 5% 0.062W
3172 4822 051 30102 1kΩ 5% 0.062W
3173 4822 051 30102 1kΩ 5% 0.062W
3174 4822 051 30102 1kΩ 5% 0.062W
3176 4822 051 30102 1kΩ 5% 0.062W
3180 4822 117 12917 1Ω 5% 0.062W
3181 4822 117 12917 1Ω 5% 0.062W
3182 4822 117 12917 1Ω 5% 0.062W
3183 4822 117 12917 1Ω 5% 0.062W
3184 4822 117 12917 1Ω 5% 0.062W
3185 4822 117 12917 1Ω 5% 0.062W
3186 4822 117 12917 1Ω 5% 0.062W
3187 4822 117 12917 1Ω 5% 0.062W
3188 4822 117 12917 1Ω 5% 0.062W
3189 4822 117 12917 1Ω 5% 0.062W
3301 4822 117 13632 100kΩ 1% 0603 0.62W
3303 4822 117 13632 100kΩ 1% 0603 0.62W

h 2322 750 63908 3.9Ω 5% Fuse 1206

3304
3308 4822 051 20154 150kΩ 5% 0.1W
3324 4822 051 30008 Jumper 0603
3329

h 4822 117 13568 6.8Ω 5% 1206

3370 4822 051 30101 100Ω 5% 0.062W
3371 4822 051 30479 47Ω 5% 0.062W
3372 4822 051 30471 47Ω 5% 0.062W
3373 4822 051 30008 Jumper 0603
3374 4822 051 30008 Jumper 0603
3375 4822 051 30008 Jumper 0603
3376 4822 051 30101 100Ω 5% 0.062W
3377 4822 051 30101 100Ω 5% 0.062W
3378 4822 051 30153 15kΩ 5% 0.062W
3379 4822 051 30008 Jumper 0603
3380 4822 051 30101 100Ω 5% 0.062W
3382 4822 051 30561 560Ω 5% 0.062W
3385 4822 051 30471 47Ω 5% 0.062W
3393 4822 117 13632 100kΩ 1% 0603 0.62W

h 4822 117 11152 4.7Ω 5%

3400

h 2322 750 63908 3.9Ω 5% Fuse 1206

3402
3403 4822 051 30101 100Ω 5% 0.062W
3404 4822 051 30561 560Ω 5% 0.062W
3405 4822 051 30102 1kΩ 5% 0.062W
3406 2322 702 60279 27Ω 5% 0.1W 0603
3408 4822 051 30101 100Ω 5% 0.062W
3411 4822 051 30272 2.7kΩ 5% 0.062W
3412 4822 051 30102 1kΩ 5% 0.062W
3414 4822 051 30472 4.7Ω 5% 0.062W
3415 4822 051 30222 2.2kΩ 5% 0.062W
3418 4822 051 30391 390Ω 5% 0.062W
3419 4822 051 30339 33Ω 5% 0.062W
3435 4822 051 30472 4.7Ω 5% 0.062W
3436 4822 051 30181 180Ω 5% 0.062W
3437 4822 051 30471 47Ω 5% 0.062W
3439 4822 051 30471 47Ω 5% 0.062W
3441 4822 051 30562 5.6kΩ 5% 0.063W 0603
3445 4822 051 30271 270Ω 5% 0.062W
3446 4822 051 30101 100Ω 5% 0.062W
3463 4822 051 30472 4.7Ω 5% 0.062W
3468 4822 117 13632 100kΩ 1% 0603 0.62W
3500 4822 051 30153 15kΩ 5% 0.062W
3501 2422 549 43769 Bead 30Ω at 100MHz
3504 4822 051 30123 12kΩ 5% 0.1W
3505 4822 051 30153 15kΩ 5% 0.062W
3506 2422 549 43769 Bead 30Ω at 100MHz
3509 4822 051 30123 12kΩ 5% 0.1W
3510 4822 117 12925 47kΩ 1% 0.063W 0603
3511 4822 117 13632 100kΩ 1% 0603 0.62W
3512 4822 051 30154 150kΩ 5% 0.062W
3513 4822 117 12889 270kΩ 1% 0.063W 0603
3514 4822 117 12925 47kΩ 1% 0.063W 0603
3515 4822 117 13632 100kΩ 1% 0603 0.62W
3516 4822 051 30392 3.9Ω 5% 0.063W 0603
3519 4822 051 30103 10kΩ 5% 0.062W
3521 4822 117 13632 100kΩ 1% 0603 0.62W
3522 4822 117 13632 100kΩ 1% 0603 0.62W
3523 4822 117 13632 100kΩ 1% 0603 0.62W
3524 4822 117 13632 100kΩ 1% 0603 0.62W
3525 4822 051 30684 680kΩ 5% 0.062W
3526 4822 051 30105 1MΩ 5% 0.062W
3527 4822 051 30221 220Ω 5% 0.062W
3529 4822 051 30103 10kΩ 5% 0.062W
3530 4822 051 30103 10kΩ 5% 0.062W
3531 4822 117 12902 8.2kΩ 1% 0.063W 0603
3532 4822 051 30102 1kΩ 5% 0.062W
3533 4822 051 30103 10kΩ 5% 0.062W
3540 4822 051 30103 10kΩ 5% 0.062W
3546 4822 051 30102 1kΩ 5% 0.062W
3551 4822 051 30102 1kΩ 5% 0.062W
3554 4822 051 30223 22kΩ 5% 0.062W
3558 4822 051 30101 100Ω 5% 0.062W
3559 4822 051 30101 100Ω 5% 0.062W
3560 4822 051 30101 100Ω 5% 0.062W
3561 4822 051 30101 100Ω 5% 0.062W
3562 4822 051 30101 100Ω 5% 0.062W
3563 4822 051 30101 100Ω 5% 0.062W
3564 4822 051 30101 100Ω 5% 0.062W
3567 4822 051 30101 100Ω 5% 0.062W
3568 4822 051 30101 100Ω 5% 0.062W
3569 4822 051 30101 100Ω 5% 0.062W
3570 4822 051 30101 100Ω 5% 0.062W
3571 4822 051 30101 100Ω 5% 0.062W
3572 4822 051 30101 100Ω 5% 0.062W
3573 4822 051 30101 100Ω 5% 0.062W
3574 4822 051 30101 100Ω 5% 0.062W
3575 4822 051 30101 100Ω 5% 0.062W
3576 4822 051 30272 2.7kΩ 5% 0.062W
3577 4822 051 30101 100Ω 5% 0.062W
3578 4822 051 30103 10kΩ 5% 0.062W
3579 4822 051 30103 10kΩ 5% 0.062W
3612 4822 117 12925 47kΩ 1% 0.063W 0603
3613 4822 117 12925 47kΩ 1% 0.063W 0603
3614 4822 117 12925 47kΩ 1% 0.063W 0603
3615 4822 117 12925 47kΩ 1% 0.063W 0603

3616 4822 051 30272 2.7kΩ 5% 0.062W
3624 4822 117 11817 1.2kΩ 1% 0.0625W
3626 4822 051 30154 150kΩ 5% 0.062W
3627 4822 051 30103 10kΩ 5% 0.062W
3628 4822 051 30223 22kΩ 5% 0.062W
3630 4822 051 30563 56kΩ 5% 0.062W
3634 4822 051 30121 120Ω 5% 0.062W
3636 4822 051 30271 270Ω 5% 0.062W
3637 4822 117 12864 82kΩ 5% 0.6W
3639 4822 051 30102 1kΩ 5% 0.062W
3640 4822 051 30101 100Ω 5% 0.062W
3641 4822 051 30101 100Ω 5% 0.062W
3642 4822 051 30101 100Ω 5% 0.062W
3643 4822 051 30101 100Ω 5% 0.062W

h 4822 117 11152 4.7Ω 5%

3644
3653 4822 051 30008 Jumper 0603
3654 4822 051 30008 Jumper 0603
3655 4822 051 30101 100Ω 5% 0.062W
3656 4822 051 30101 100Ω 5% 0.062W
3657 4822 051 30563 56kΩ 5% 0.062W
3658 4822 051 30154 150kΩ 5% 0.062W
3666 4822 051 30154 150kΩ 5% 0.062W
3667 4822 117 12864 82kΩ 5% 0.6W
3668 4822 051 30563 56kΩ 5% 0.062W
3669 4822 051 30271 270Ω 5% 0.062W
3670 4822 051 30102 1kΩ 5% 0.062W
3671 4822 117 11817 1.2kΩ 1% 0.0625W
3673 4822 051 30103 10kΩ 5% 0.062W
3683 4822 051 30223 22kΩ 5% 0.062W
3684 4822 051 30008 Jumper 0603
3685 4822 051 30008 Jumper 0603
3688 4822 051 30008 Jumper 0603
3689 4822 051 30008 Jumper 0603
3692 4822 051 30008 Jumper 0603
3693 4822 051 30008 Jumper 0603
3698 4822 117 11817 1.2kΩ 1% 0.0625W
3699 2322 702 60184 180kΩ 5% 0603
3709 4822 051 30101 100Ω 5% 0.062W
3710 4822 051 30101 100Ω 5% 0.062W
3711 4822 117 12925 47kΩ 1% 0.063W 0603
3712 4822 117 12925 47kΩ 1% 0.063W 0603
3713 4822 051 30181 180Ω 5% 0.062W
3714 4822 051 30181 180Ω 5% 0.062W
3715 4822 051 30181 180Ω 5% 0.062W
3716 4822 117 13632 100kΩ 1% 0603 0.62W
3717 4822 117 13632 100kΩ 1% 0603 0.62W
3718 4822 117 13632 100kΩ 1% 0603 0.62W
3719 4822 051 30332 3.3Ω 5% 0.062W
3720 4822 051 30103 10kΩ 5% 0.062W
3725 4822 051 30332 3.3Ω 5% 0.062W
3726 4822 117 11817 1.2kΩ 1% 0.0625W
3727 4822 051 30151 150Ω 5% 0.062W
3728 4822 051 30151 150Ω 5% 0.062W
3730 4822 051 30681 680Ω 5% 0.062W
3736 4822 051 30101 100Ω 5% 0.062W
3737 4822 051 30102 1kΩ 5% 0.062W
3738 4822 051 30102 1kΩ 5% 0.062W
3739 4822 051 30153 15kΩ 5% 0.062W
3740 4822 051 30102 1kΩ 5% 0.062W
3741 4822 051 30183 18kΩ 5% 0.062W
3742 4822 051 30183 18kΩ 5% 0.062W
3744 4822 051 30222 2.2kΩ 5% 0.062W
3745 4822 051 30102 1kΩ 5% 0.062W
3746 4822 051 30392 3.9Ω 5% 0.063W 0603
3747 4822 051 30154 150kΩ 5% 0.062W
3748 4822 117 12891 220kΩ 1%
3749 4822 051 30392 3.9Ω 5% 0.063W 0603
3750 4822 051 30332 3.3Ω 5% 0.062W
3751 4822 051 30472 4.7Ω 5% 0.062W
3752 4822 117 12917 1Ω 5% 0.062W
3753 4822 117 12917 1Ω 5% 0.062W
3754 4822 051 30101 100Ω 5% 0.062W
3755 4822 051 30472 4.7Ω 5% 0.062W
3756 4822 117 12902 8.2kΩ 1% 0.063W 0603
3757 4822 051 30479 47Ω 5% 0.062W
3758 4822 051 30472 4.7Ω 5% 0.062W
3759 4822 051 30221 220Ω 5% 0.062W
3762 4822 051 30101 100Ω 5% 0.062W
3763 4822 117 12139 22Ω 5% 0.062W
3764 4822 051 30109 10Ω 5% 0.062W
3771 4822 117 12971 15Ω 5% 0603 0.62W
3772 4822 117 12971 15Ω 5% 0603 0.62W
3773 4822 117 12925 47kΩ 1% 0.063W 0603
3774 4822 117 12925 47kΩ 1% 0.063W 0603
3781 4822 117 12925 47kΩ 1% 0.063W 0603
3782 4822 117 12925 47kΩ 1% 0.063W 0603
3783 4822 117 12925 47kΩ 1% 0.063W 0603
3792 4822 051 30102 1kΩ 5% 0.062W
3793 4822 051 30222 2.2kΩ 5% 0.062W
3794 4822 117 12971 15Ω 5% 0603 0.62W
3795 4822 051 30339 33Ω 5% 0.062W
3804 4822 051 30102 1kΩ 5% 0.062W
9008 4822 051 30008 Jumper 0603
9009 4822 051 30008 Jumper 0603

EN 98 EM8E10.

Spare Parts List

9010 4822 051 30008 Jumper 0603
9011 4822 051 30008 Jumper 0603
9012 4822 051 30008 Jumper 0603
9013 4822 051 30008 Jumper 0603
9015 4822 051 30008 Jumper 0603
9302 4822 051 30008 Jumper 0603
9303 4822 051 30008 Jumper 0603
9304 4822 051 30008 Jumper 0603
9313 4822 051 30008 Jumper 0603
9318 4822 051 30008 Jumper 0603
9322 4822 051 30008 Jumper 0603
9406 4822 051 30008 Jumper 0603
9410 4822 051 30008 Jumper 0603
9413 4822 051 30008 Jumper 0603
9416 4822 051 30008 Jumper 0603
9417 4822 051 30008 Jumper 0603
9418 4822 051 30008 Jumper 0603
9419 4822 051 30008 Jumper 0603
9420 4822 051 30008 Jumper 0603
9520 4822 051 30008 Jumper 0603
9522 4822 051 30008 Jumper 0603
9603 4822 051 30008 Jumper 0603
9604 4822 051 30008 Jumper 0603
9607 4822 051 30008 Jumper 0603
9608 4822 051 30008 Jumper 0603
9609 4822 051 30008 Jumper 0603
9610 4822 051 30008 Jumper 0603
9611 4822 051 30008 Jumper 0603
9642 4822 051 30008 Jumper 0603
9645 4822 051 30008 Jumper 0603
9688 4822 051 30008 Jumper 0603
9689 4822 051 30008 Jumper 0603
9691 4822 051 30008 Jumper 0603
9692 4822 051 30008 Jumper 0603
9702 4822 051 30008 Jumper 0603
9703 4822 051 30008 Jumper 0603
9704 4822 051 30008 Jumper 0603
9712 4822 051 30008 Jumper 0603
9714 4822 051 30008 Jumper 0603
9716 4822 051 30008 Jumper 0603
9717 4822 051 30008 Jumper 0603
9718 4822 051 30008 Jumper 0603
9719 4822 051 30008 Jumper 0603
9721 4822 051 30008 Jumper 0603
9723 4822 051 30008 Jumper 0603
9725 4822 051 30008 Jumper 0603
9729 4822 051 30008 Jumper 0603
9731 4822 051 30008 Jumper 0603
9733 4822 051 30008 Jumper 0603
9735 4822 051 30008 Jumper 0603
9739 4822 051 30008 Jumper 0603
9740 4822 051 30008 Jumper 0603
9741 4822 117 12662 4 x 10Ω 5%
9744 4822 051 30008 Jumper 0603
9747 4822 051 30008 Jumper 0603
9754 4822 051 30008 Jumper 0603
9760 4822 051 30008 Jumper 0603
9761 4822 051 30008 Jumper 0603
9762 4822 051 30008 Jumper 0603
9763 4822 051 30008 Jumper 0603
9764 4822 051 30008 Jumper 0603
9765 4822 051 30008 Jumper 0603
9768 4822 051 30008 Jumper 0603
9769 4822 051 30008 Jumper 0603
9901 4822 051 30008 Jumper 0603
9902 4822 051 30008 Jumper 0603
9903 4822 051 30008 Jumper 0603
9904 4822 051 30008 Jumper 0603
9905 4822 051 30008 Jumper 0603
9906 4822 051 30008 Jumper 0603
9907 4822 051 30008 Jumper 0603
9908 4822 051 30008 Jumper 0603
9909 4822 051 30008 Jumper 0603
9919 4822 051 30008 Jumper 0603
9920 4822 051 30008 Jumper 0603
9921 4822 051 30008 Jumper 0603
9925 4822 051 30008 Jumper 0603
9927 4822 051 30008 Jumper 0603
9928 4822 051 30008 Jumper 0603
9929 4822 051 30008 Jumper 0603
9935 4822 051 30008 Jumper 0603
9937 4822 051 30008 Jumper 0603
9938 4822 051 30008 Jumper 0603
9939 4822 051 30008 Jumper 0603
9944 4822 051 30008 Jumper 0603
9945 4822 051 30008 Jumper 0603
9946 4822 051 30008 Jumper 0603
9947 4822 051 30008 Jumper 0603
9948 4822 051 30008 Jumper 0603
9949 4822 051 30008 Jumper 0603
9950 4822 051 30008 Jumper 0603
9951 4822 051 30008 Jumper 0603
9952 4822 051 30008 Jumper 0603
9953 4822 051 30008 Jumper 0603

9954 4822 051 30008 Jumper 0603

b

5150 4822 156 21729 Bead 1kΩ 100MHz 0805
5151 4822 156 21729 Bead 1kΩ 100MHz 0805
5152 4822 156 21729 Bead 1kΩ 100MHz 0805
5153 4822 156 21729 Bead 1kΩ 100MHz 0805
5154 4822 156 21729 Bead 1kΩ 100MHz 0805
5155 4822 156 21729 Bead 1kΩ 100MHz 0805
5401 3198 018 56880 6.8µH 10% 0603
5403 2422 549 44461 Trimmer 40MHz 5CCE
5404 2422 535 95427 Bead 120Ω at 100MHz
5405 2422 535 95427 Bead 120Ω at 100MHz
5406 4822 157 10586 2.2µH 10% 0805
5408 2422 549 44983 Trimmer 78MHz 5CCB
5409 2422 549 42896 Bead 120Ω 100MHz
5411 4822 157 11892 0.22µH 10% 0805
5415 4822 157 11716 Bead 30Ω at 100MHz
5416 4822 157 11716 Bead 30Ω at 100MHz
5651 2422 549 43769 Bead 30Ω at 100MHz
5652 2422 549 43769 Bead 30Ω at 100MHz
5653 2422 549 43769 Bead 30Ω at 100MHz
5654 4822 157 11716 Bead 30Ω at 100MHz
5655 4822 157 11828 22µH 20% 0805
5656 4822 157 11876 6.8µH 10% 0805
5663 2422 549 43769 Bead 30Ω at 100MHz
5664 2422 549 43769 Bead 30Ω at 100MHz
5665 2422 549 43769 Bead 30Ω at 100MHz
5669 2422 549 43769 Bead 30Ω at 100MHz
5670 2422 549 43769 Bead 30Ω at 100MHz
5671 4822 157 11716 Bead 30Ω at 100MHz
5672 4822 157 11716 Bead 30Ω at 100MHz
5706 4822 157 11716 Bead 30Ω at 100MHz
5707 4822 156 21729 Bead 1kΩ 100MHz 0805
5710 4822 156 21729 Bead 1kΩ 100MHz 0805
5711 4822 156 21729 Bead 1kΩ 100MHz 0805
5712 4822 156 21729 Bead 1kΩ 100MHz 0805
5713 4822 157 11716 Bead 30Ω at 100MHz
5714 4822 157 71206 Bead 600Ω 100MHz
5716 4822 156 21729 Bead 1kΩ 100MHz 0805
5717 4822 156 21729 Bead 1kΩ 100MHz 0805
5718 4822 157 11716 Bead 30Ω at 100MHz
5719 4822 156 21729 Bead 1kΩ 100MHz 0805
5721 4822 157 71206 Bead 600Ω 100MHz
5722 4822 156 21729 Bead 1kΩ 100MHz 0805
5724 4822 156 21729 Bead 1kΩ 100MHz 0805
5726 4822 156 21729 Bead 1kΩ 100MHz 0805
5727 4822 156 21729 Bead 1kΩ 100MHz 0805
5728 4822 157 11716 Bead 30Ω at 100MHz
5729 4822 157 11716 Bead 30Ω at 100MHz
5731 4822 156 21729 Bead 1kΩ 100MHz 0805
5736 4822 157 11876 6.8µH 10% 0805
5737 4822 156 21729 Bead 1kΩ 100MHz 0805
5738 4822 157 11716 Bead 30Ω at 100MHz
5742 4822 157 11716 Bead 30Ω at 100MHz

5743 4822 156 21729 Bead 1kΩ 100MHz 0805
5744 4822 157 11716 Bead 30Ω at 100MHz
5900 4822 157 11716 Bead 30Ω at 100MHz
5901 4822 157 11716 Bead 30Ω at 100MHz
5902 4822 157 11716 Bead 30Ω at 100MHz
5903 4822 157 11716 Bead 30Ω at 100MHz
5904 4822 157 11716 Bead 30Ω at 100MHz
5910 2422 549 43062 Bead 600Ω at 100MHz

5911 2422 549 43062 Bead 600Ω at 100MHz

5912 2422 549 43062 Bead 600Ω at 100MHz

5913 2422 549 43062 Bead 600Ω at 100MHz

5914 2422 549 43062 Bead 600Ω at 100MHz

5915 2422 549 43062 Bead 600Ω at 100MHz

5917 2422 549 43062 Bead 600Ω at 100MHz

5918 2422 549 43062 Bead 600Ω at 100MHz

5919 2422 549 43062 Bead 600Ω at 100MHz

5920 2422 549 43062 Bead 600Ω at 100MHz

d

6001 4822 130 80622 BAT54

6002 4822 130 11397 BAS316

6003 4822 130 80622 BAT54

6004 4822 130 80622 BAT54

6005 4822 130 11422 PLVA2650A

6403 9340 552 30115 BA591

6652 4822 130 11551 UDZS10B

6657 9322 102 64685 UDZ2.7B

6658 4822 130 11397 BAS316

6926 4822 130 10837 UDZS8.2B

6956 4822 130 10837 UDZS8.2B

6957 4822 130 10837 UDZS8.2B

ce

7001 9352 684 81557 SAA5801H/015

7002 3198 010 42320 BC857BW
7003 3198 010 42310 BC847BW
7004 3198 010 42310 BC847BW
7005 9322 116 74668 LD1117D33
7006 For softw. see item 0600
7007 9322 200 55668 IS41LV16100-50K
7008 3198 010 42310 BC847BW
7009 3198 010 42310 BC847BW
7010 3198 010 42320 BC857BW
7011 9322 156 81668 M24C32-WMN6TNKSA
7012 9322 156 72668 M29W400BT-90N1
7013 3198 010 42310 BC847BW
7014 3198 010 42320 BC857BW
7015 4822 209 73852 PMBT2369
7016 4822 209 73852 PMBT2369
7100 9322 159 45668 DS90C385MTD
7307 9352 630 99118 TDA9181T
7312 9340 310 30215 PDTC144ET
7320 3198 010 42310 BC847BW
7322 3198 010 42310 BC847BW
7323 9352 625 24518 TDA9321H/N2
7402 3198 010 42310 BC847BW
7403 5322 130 60159 BC846B
7404 3198 010 42310 BC847BW
7407 4822 130 60373 BC856B
7410 3198 010 42310 BC847BW
7411 5322 130 60159 BC846B
7651 9322 180 61702 MSP3411G-FH-B8-V3
7652 9351 869 40118 74HC4053PW
7654 9340 425 20115 BC847BS
7664 9340 425 30115 BC847BPN
7665 9340 425 30115 BC847BPN
7666 9340 425 30115 BC847BPN
7668 3198 010 42320 BC857BW
7674 3198 010 42310 BC847BW
7675 9340 425 20115 BC847BS
7678 9340 425 20115 BC847BS
7679 9340 425 20115 BC847BS
7680 3198 010 42310 BC847BW
7681 9322 060 73668 MC33178DR2
7682 5322 130 60159 BC846B
7706 9322 142 88668 LF25CDT
7707 5322 130 60159 BC846B
7708 5322 130 60159 BC846B
7709 5322 130 60159 BC846B
7710 5322 130 60159 BC846B
7711 2422 486 80938 Socket 32p.f
7711 For softw. see item 7999
7712 9351 870 00118 74HC573PW
7713 9352 688 09557 SAA4978H/V204
7714 9965 000 02179 MS81V04160-25TB
7715 4822 209 73852 PMBT2369
7717 9322 183 81668 MSM54V12222B-25JS
7718 9352 695 58557 SAA4993H/V1
7719 9322 183 81668 MSM54V12222B-25JS
7722 9965 000 02179 MS81V04160-25TB
7723 9965 000 02179 MS81V04160-25TB
7724 9322 188 08702 T8F24EF-0002
7725 4822 209 73852 PMBT2369
7726 4822 209 17398 LD1117DT33
7727 9322 170 14668 LF15ABDT
7734 9352 684 56115 74LVC1G04GW
7735 9352 686 75125 74LVC1G79GW
7999 3104 317 45301 Softw.(check Prod.Surv.)

System Board [K]

Various

1202 4822 276 13775 Switch
1203 3139 147 18851 UV1316/A I X U-3
1204 4822 276 13775 Switch
1205 2422 025 16599 Connector 80p f
1210 2422 025 17715 Connector 64P F
1214 4822 267 10557 Connector 10p
1215 4822 267 10973 Connector 1p
1216 4822 265 11517 Connector 1p m
1217 4822 267 10973 Connector 1p
1218 4822 267 10973 Connector 1p
1220 2422 025 17715 Connector 64P F
1241 2422 025 11244 Connector 7p m
1244 4822 267 10735 Connector 3p
1251 4822 267 10735 Connector 3p
1252 2422 025 17955 Connector 6P m
1262 2422 025 10768 Connector 3p m
1305 4822 267 10618 Connector 7p
1312 2422 025 11244 Connector 7p m
1313 2422 025 10648 Connector 8p m
1314 2422 025 12827 Connector 9p m
1335 2422 025 12485 Connector 11p m
1337 4822 267 10973 Connector 1p
1344 4822 267 10734 Connector 5p

Spare Parts List

EN 99EM8E 10.

1402 4822 267 10637 Connector 5p
1403 2422 025 08333 Connector 12p m
1600 2422 543 01095 Res. 12MHz DSX840
1680 2422 025 08149 Connector 6p m
1681 2422 025 10768 Connector 3p m
1683 2422 025 16563 connector 5P f
1700 4822 267 10574 Connector 8p

g

2101 5322 122 32268 470pF 5% 50V 0805 NP0
2102 4822 124 40255 100µF 20% 63V
2103 4822 124 40196 220µF 20% 16V
2104 5322 126 10511 1nF 5% 50V
2105 4822 126 14585 100nF 10% 0805 50V
2106 4822 126 14585 100nF 10% 0805 50V
2107 4822 124 12084 1µF 20% 50V
2108 2020 021 91551 2200µF 20% 25V
2109 4822 126 14585 100nF 10% 0805 50V
2110 2020 021 91687 470µF 20% 16V
2111 4822 126 14585 100nF 10% 0805 50V
2112 4822 126 14585 100nF 10% 0805 50V
2113 4822 126 14585 100nF 10% 0805 50V
2114 4822 124 81144 1000µF 16V
2115 2020 021 91668 2200µF 20% 10V
2116 5322 126 10511 1nF 5% 50V
2117 4822 126 14585 100nF 10% 0805 50V
2118 4822 126 14585 100nF 10% 0805 50V
2119 2020 021 91729 4.7µF 20% 35V
2120 4822 126 14585 100nF 10% 0805 50V
2121 4822 126 14585 100nF 10% 0805 50V
2122 4822 126 14585 100nF 10% 0805 50V
2123 4822 124 40849 330UF 20% 16V
2124 2020 021 91569 ELCO 470UF 10V
2125 5322 126 10511 1nF 5% 50V
2126 5322 126 10511 1nF 5% 50V
2127 5322 126 10511 1nF 5% 50V
2128 2020 021 91729 4.7µF 20% 35V
2129 5322 126 10511 1nF 5% 50V
2130 4822 124 12084 1µF 20% 50V
2201 4822 126 14585 100nF 10% 0805 50V
2202 4822 126 14585 100nF 10% 0805 50V
2203 4822 126 14585 100nF 10% 0805 50V
2204 4822 126 14585 100nF 10% 0805 50V
2205 4822 126 14585 100nF 10% 0805 50V
2206 4822 126 14585 100nF 10% 0805 50V
2207 4822 126 14491 2.2µF 10V 0805
2208 4822 126 14491 2.2µF 10V 0805
2209 4822 126 14491 2.2µF 10V 0805
2210 4822 126 13695 82pF 1% 63V
2211 4822 124 40248 10µF 20% 63V
2212 4822 126 14585 100nF 10% 0805 50V
2213 5322 122 32531 100pF 5% 50V
2214 4822 126 14585 100nF 10% 0805 50V
2215 5322 126 10511 1nF 5% 50V
2216 4822 126 13695 82pF 1% 63V
2218 4822 126 14585 100nF 10% 0805 50V
2301 4822 126 14585 100nF 10% 0805 50V
2302 4822 126 14585 100nF 10% 0805 50V
2303 4822 126 14585 100nF 10% 0805 50V
2306 4822 126 14585 100nF 10% 0805 50V
2307 4822 124 40248 10µF 20% 63V
2308 4822 126 13691 27pF 1% 63V
2309 4822 126 13691 27pF 1% 63V
2320 4822 126 14585 100nF 10% 0805 50V
2321 4822 126 14585 100nF 10% 0805 50V
2322 4822 126 14585 100nF 10% 0805 50V
2323 4822 126 14585 100nF 10% 0805 50V
2324 4822 126 14585 100nF 10% 0805 50V
2325 4822 124 12084 1µF 20% 50V
2326 4822 124 12379 220µF 25V
2327 4822 126 14585 100nF 10% 0805 50V
2328 4822 124 11946 22µF 20% 16V
2329 4822 124 11946 22µF 20% 16V
2330 2020 021 91729 4.7µF 20% 35V
2332 2020 021 91729 4.7µF 20% 35V
2333 2020 021 91729 4.7µF 20% 35V
2334 2020 021 91729 4.7µF 20% 35V
2335 2020 021 91729 4.7µF 20% 35V
2337 2020 021 91729 4.7µF 20% 35V
2339 2020 021 91729 4.7µF 20% 35V
2340 2020 021 91729 4.7µF 20% 35V
2341 2020 021 91729 4.7µF 20% 35V
2342 5322 122 32268 470pF 5% 50V 0805 NP0
2346 4822 126 14585 100nF 10% 0805 50V
2347 5322 122 32268 470pF 5% 50V 0805 NP0
2348 5322 122 32268 470pF 5% 50V 0805 NP0
2349 5322 122 32268 470pF 5% 50V 0805 NP0
2350 5322 122 32268 470pF 5% 50V 0805 NP0
2351 4822 126 14585 100nF 10% 0805 50V
2352 4822 126 14585 100nF 10% 0805 50V
2353 4822 126 14585 100nF 10% 0805 50V
2354 5322 126 10511 1nF 5% 50V

2355 5322 122 32531 100pF 5% 50V
2356 5322 122 32531 100pF 5% 50V
2357 5322 126 10511 1nF 5% 50V
2358 5322 126 10511 1nF 5% 50V
2359 5322 126 10511 1nF 5% 50V
2360 5322 126 10511 1nF 5% 50V
2361 5322 126 10511 1nF 5% 50V
2362 5322 126 10511 1nF 5% 50V
2363 5322 126 10511 1nF 5% 50V
2364 5322 126 10511 1nF 5% 50V
2365 5322 126 10511 1nF 5% 50V
2366 5322 126 10511 1nF 5% 50V
2367 5322 126 10511 1nF 5% 50V
2368 5322 126 10511 1nF 5% 50V
2369 5322 126 10511 1nF 5% 50V
2370 5322 126 10511 1nF 5% 50V
2371 5322 126 10511 1nF 5% 50V
2372 5322 126 10511 1nF 5% 50V
2374 5322 126 10511 1nF 5% 50V
2375 5322 126 10511 1nF 5% 50V
2376 5322 126 10511 1nF 5% 50V
2377 5322 126 10511 1nF 5% 50V
2378 5322 126 10511 1nF 5% 50V
2379 5322 126 10511 1nF 5% 50V
2380 5322 126 10511 1nF 5% 50V
2381 5322 126 10511 1nF 5% 50V
2382 5322 126 10511 1nF 5% 50V
2383 5322 126 10511 1nF 5% 50V
2384 5322 126 10511 1nF 5% 50V
2385 5322 126 10511 1nF 5% 50V
2386 5322 126 10511 1nF 5% 50V
2387 5322 126 10511 1nF 5% 50V
2388 5322 126 10511 1nF 5% 50V
2390 4822 126 14585 100nF 10% 0805 50V
2392 4822 124 12095 100µF 20% 16V
2393 5322 122 31866 6.8nF 10% 63V
2394 4822 124 12095 100µF 20% 16V
2395 5322 122 31866 6.8nF 10% 63V
2400 4822 124 23002 10µF 16V
2401 4822 124 23002 10µF 16V
2402 4822 124 23002 10µF 16V
2403 5322 122 32654 22nF 10% 63V 0805
2404 2020 021 91832 220µF 20% 16V
2405 2020 021 91832 220µF 20% 16V
2406 4822 124 12095 100µF 20% 16V
2407 4822 124 12095 100µF 20% 16V
2408 5322 122 32654 22nF 10% 63V 0805
2409 5322 122 32654 22nF 10% 63V 0805

f

3101 4822 117 11373 100Ω 1% 0805
3102 4822 117 10833 10kΩ 1% 0.1W
3103 4822 117 10833 10kΩ 1% 0.1W
3104 4822 117 10833 10kΩ 1% 0.1W
3105 3198 021 52240 220kΩ 5% 0805
3106 4822 117 10833 10kΩ 1% 0.1W
3108 4822 117 11927 75Ω 1% 0.1W
3109 4822 117 10833 10kΩ 1% 0.1W
3110 4822 051 20479 47kΩ 5% 0.1W
3111 4822 051 20479 47kΩ 5% 0.1W
3112 4822 117 11374 120K 1% RC12H 0805
3113 4822 051 20109 10Ω 5% 0.1W
3114 4822 051 20569 56Ω 5% 0,1W
3115 4822 051 20569 56Ω 5% 0,1W
3116 4822 051 20569 56Ω 5% 0,1W
3117 4822 051 20569 56Ω 5% 0,1W
3122 4822 117 10833 10kΩ 1% 0.1W
3201 4822 051 20471 470Ω 5% 0.1W
3202 4822 051 20392 2.9kΩ 5% 0.1W
3227 4822 051 20472 4.7kΩ 5% 0.1W
3228 4822 051 10102 1kΩ 2% 0.25W
3229 4822 051 20229 22kΩ 5% 0.1W
3230 4822 051 10102 1kΩ 2% 0.25W
3231 4822 051 10102 1kΩ 2% 0.25W
3232 4822 117 11373 100Ω 1% 0805
3234 4822 117 11373 100Ω 1% 0805
3235 4822 117 10361 680Ω 1% 0.1W
3236 4822 051 20561 560Ω 5% 0.1W
3237 4822 051 20122 1.2kΩ 5% 0.1W
3238 3198 021 52240 220kΩ 5% 0805
3239 4822 117 10837 100kΩ 1% 0.1W
3240 4822 051 20472 4.7kΩ 5% 0.1W
3241 4822 051 20223 22kΩ 5% 0.1W
3242 4822 051 20223 22kΩ 5% 0.1W
3243 4822 117 11449 2.2kΩ 5% 0.1W 0805
3306 4822 051 20472 4.7kΩ 5% 0.1W
3307 4822 051 20472 4.7kΩ 5% 0.1W
3308 4822 117 11373 100Ω 1% 0805
3309 4822 117 11373 100Ω 1% 0805
3310 4822 117 11449 2.2kΩ 5% 0.1W 0805
3311 4822 117 11373 100Ω 1% 0805
3314 4822 117 11373 100Ω 1% 0805

3315 4822 117 11373 100Ω 1% 0805
3316 4822 117 11373 100Ω 1% 0805
3319 4822 051 20472 4.7kΩ 5% 0.1W
3320 4822 051 20472 4.7kΩ 5% 0.1W
3321 4822 051 20472 4.7kΩ 5% 0.1W
3322 4822 051 20472 4.7kΩ 5% 0.1W
3323 4822 051 20472 4.7kΩ 5% 0.1W
3324 4822 117 11449 2.2kΩ 5% 0.1W 0805
3325 4822 117 11449 2.2kΩ 5% 0.1W 0805
3326 4822 117 10833 10kΩ 1% 0.1W
3328 4822 117 11373 100Ω 1% 0805
3330 4822 117 11373 100Ω 1% 0805
3331 4822 051 20472 4.7kΩ 5% 0.1W
3332 4822 051 20472 4.7kΩ 5% 0.1W
3333 2322 734 63309 33Ω 1% 0.1W 0805
3334 4822 051 20472 4.7kΩ 5% 0.1W
3337 4822 117 10833 10kΩ 1% 0.1W
3338 4822 117 10833 10kΩ 1% 0.1W
3339 4822 117 11373 100Ω 1% 0805
3340 4822 117 11373 100Ω 1% 0805
3341 4822 117 11373 100Ω 1% 0805
3342 4822 051 20105 1MΩ 5% 0.1W
3343 4822 117 10837 100kΩ 1% 0.1W
3344 4822 117 10837 100kΩ 1% 0.1W
3345 4822 117 10833 10kΩ 1% 0.1W
3346 4822 117 10837 100kΩ 1% 0.1W
3347 4822 051 20105 1MΩ 5% 0.1W
3348 4822 117 10833 10kΩ 1% 0.1W
3349 4822 051 10102 1kΩ 2% 0.25W
3350 4822 051 20472 4.7kΩ 5% 0.1W
3351 4822 117 10837 100kΩ 1% 0.1W
3352 4822 117 10833 10kΩ 1% 0.1W
3353 4822 051 20332 2.3kΩ 5% 0.1W
3354 4822 117 10833 10kΩ 1% 0.1W
3355 4822 117 11503 220Ω 1% 0.1W
3356 4822 051 20122 1.2kΩ 5% 0.1W
3357 4822 051 10102 1kΩ 2% 0.25W
3358 4822 117 10833 10kΩ 1% 0.1W
3359 4822 117 10837 100kΩ 1% 0.1W
3360 4822 117 10833 10kΩ 1% 0.1W
3361 4822 117 10833 10kΩ 1% 0.1W
3362 4822 117 11373 100Ω 1% 0805
3363 4822 051 20472 4.7kΩ 5% 0.1W
3364 4822 051 20472 4.7kΩ 5% 0.1W
3365 4822 117 11373 100Ω 1% 0805
3366 4822 117 11373 100Ω 1% 0805
3370 4822 117 11148 56kΩ 1% 0.1W
3371 4822 117 10833 10kΩ 1% 0.1W
3372 4822 117 11449 2.2kΩ 5% 0.1W 0805
3373 4822 117 11373 100Ω 1% 0805
3374 4822 117 10833 10kΩ 1% 0.1W
3375 4822 116 83933 15kΩ 1% 0.1W
3376 4822 117 10833 10kΩ 1% 0.1W
3377 4822 117 10833 10kΩ 1% 0.1W
3378 4822 051 20393 39kΩ 5% 0.1W
3379 4822 117 10833 10kΩ 1% 0.1W
3380 4822 117 10833 10kΩ 1% 0.1W
3381 4822 117 10833 10kΩ 1% 0.1W
3382 4822 117 10833 10kΩ 1% 0.1W
3383 4822 117 10833 10kΩ 1% 0.1W
3384 4822 117 10833 10kΩ 1% 0.1W
3385 4822 117 10833 10kΩ 1% 0.1W
3390 4822 117 10833 10kΩ 1% 0.1W
3391 4822 117 10833 10kΩ 1% 0.1W
3392 4822 117 10833 10kΩ 1% 0.1W
3393 4822 117 10833 10kΩ 1% 0.1W
3394 4822 051 10102 1kΩ 2% 0.25W
3396 4822 051 10102 1kΩ 2% 0.25W
3400 4822 117 10353 150Ω 1% 0.1W
3401 4822 051 20223 22kΩ 5% 0.1W
3402 4822 051 20223 22kΩ 5% 0.1W
3403 4822 051 20223 22kΩ 5% 0.1W
3404 4822 051 20223 22kΩ 5% 0.1W
3405 4822 051 20223 22kΩ 5% 0.1W
3406 4822 051 20109 10Ω 5% 0.1W
3407 4822 051 20109 10Ω 5% 0.1W
3408 4822 117 11148 56kΩ 1% 0.1W
3409 4822 117 11148 56kΩ 1% 0.1W
3410 4822 117 11148 56kΩ 1% 0.1W
3411 4822 117 11148 56kΩ 1% 0.1W
3412 4822 117 11148 56kΩ 1% 0.1W
3413 4822 117 11373 100Ω 1% 0805
3414 4822 117 11373 100Ω 1% 0805
3415 5322 117 13078 100Ω 1% 0.125W 1206
3416 5322 117 13078 100Ω 1% 0.125W 1206
3417 5322 117 13078 100Ω 1% 0.125W 1206
3418 5322 117 13078 100Ω 1% 0.125W 1206
4101 4822 051 20008 Jumper 0805
4102 4822 051 20008 Jumper 0805
4104 4822 051 20008 Jumper 0805
4105 4822 051 20008 Jumper 0805
4106 4822 051 20008 Jumper 0805
4107 4822 051 20008 Jumper 0805
4108 4822 051 20008 Jumper 0805

EN 100 EM8E10.

Spare Parts List

4109 4822 051 20008 Jumper 0805
4110 4822 051 20008 Jumper 0805
4114 4822 051 20008 Jumper 0805
4115 4822 051 20008 Jumper 0805
4116 4822 051 20008 Jumper 0805
4118 4822 051 20008 Jumper 0805
4121 4822 051 20008 Jumper 0805
4122 4822 051 20008 Jumper 0805
4123 4822 051 20008 Jumper 0805
4125 4822 051 20008 Jumper 0805
4126 4822 051 20008 Jumper 0805
4129 4822 051 20008 Jumper 0805
4130 4822 051 20008 Jumper 0805
4131 4822 051 20008 Jumper 0805
4132 4822 051 20008 Jumper 0805

b

5101 2422 535 94819 6.8µH 20% 1210
5102 2422 535 95387 1µH 5%
5103 2422 535 95387 1µH 5%
5104 2422 535 95387 1µH 5%
5106 4822 157 11716 Bead 30Ω at 100MHz
5107 4822 157 11716 Bead 30Ω at 100MHz
5108 2422 535 95387 1µH 5%
5109 2422 535 95387 1µH 5%
5110 4822 157 11716 Bead 30Ω at 100MHz
5111 4822 157 11716 Bead 30Ω at 100MHz
5112 4822 157 11716 Bead 30Ω at 100MHz
5113 4822 157 11716 Bead 30Ω at 100MHz
5301 4822 157 11716 Bead 30Ω at 100MHz
5302 4822 157 11716 Bead 30Ω at 100MHz
5303 4822 157 11716 Bead 30Ω at 100MHz
5304 4822 157 11716 Bead 30Ω at 100MHz
5306 4822 157 11716 Bead 30Ω at 100MHz
5307 4822 157 11716 Bead 30Ω at 100MHz
5308 4822 157 11716 Bead 30Ω at 100MHz
5309 4822 157 11716 Bead 30Ω at 100MHz
5310 4822 157 70436 8,2UH
5311 4822 157 11716 Bead 30Ω at 100MHz
5312 4822 157 11716 Bead 30Ω at 100MHz
5313 2422 535 94649 330µH 10%
5315 4822 157 11716 Bead 30Ω at 100MHz
5316 4822 157 11716 Bead 30Ω at 100MHz

d

6101 4822 130 11397 BAS316
6102 4822 130 11397 BAS316
6103 4822 130 11397 BAS316
6104 4822 130 11397 BAS316
6105 5322 130 81917 SB140
6106 4822 130 11397 BAS316
6107 4822 130 11397 BAS316
6108 4822 130 11397 BAS316
6109 4822 130 11397 BAS316
6110 4822 130 11397 BAS316
6111 4822 130 11397 BAS316
6112 9335 006 90133 BZV85-C
6201 4822 130 11416 PDZ6.8B
6202 4822 130 11416 PDZ6.8B
6300 4822 130 11397 BAS316
6301 4822 130 11397 BAS316
6302 4822 130 11397 BAS316
6304 4822 130 11397 BAS316
6305 4822 130 11397 BAS316
6306 4822 130 11397 BAS316

ce

7004 5322 130 60159 BC846B
7008 5322 130 60159 BC846B
7009 5322 130 60159 BC846B
7010 5322 130 60159 BC846B
7011 5322 130 60159 BC846B
7012 5322 130 60159 BC846B
7013 4822 130 60373 BC856B
7014 9322 195 38668 STD3NK60Z
7015 4822 130 60373 BC856B
7017 4822 130 60373 BC856B
7018 5322 130 60159 BC846B
7019 5322 130 60159 BC846B
7020 5322 130 60159 BC846B
7021 5322 130 60159 BC846B
7024 4822 130 60373 BC856B
7025 5322 130 60159 BC846B
7026 5322 130 60159 BC846B
7027 5322 130 60159 BC846B
7101 9322 167 76668 TC74HC590AF
7102 9322 167 76668 TC74HC590AF
7103 9322 153 66668 CY7C199-15ZC
7104 9351 869 80118 74HCT573DB

7105 9351 869 80118 74HCT573DB

7106 9322 195 64668 CD74ACT151M

7107 9322 156 81668 M24C32-WMN6TNKSA

7108 9352 654 18112 P89C668HBA

7109 4822 209 81397 TL431CLPST

7110 9322 185 44668 TLC0832CD

7111 9322 208 05668 SM NE555D

7112 4822 209 60792 74HC4053D

7113 9322 116 87668 TEA6422D

7114 5322 209 11578 PCF8574T

7115 4822 209 81397 TL431CLPST

7118 9322 208 05668 SM NE555D

7119 9322 160 69668 SI4431ADY

7120 9965 000 04199 Connector 2p

7121 9965 000 04199 Connector 2p

LED Sensor Panel [LS]

Various

0207 4822 256 10336 LED HOLDER

0209 4822 256 10562 Photo diode holder

1201 4822 267 10567 Connector 4p

1214 2422 025 12493 Connector 10p m h 2.50

g

2001 4822 124 40248 10µF 20% 63V

2002 3198 017 44740 470nF 10V 0603

2003 4822 124 41584 100µF 20% 10V

2004 3198 017 44740 470nF 10V 0603

f

3001 4822 051 30151 150Ω 5% 0.062W

3002 4822 051 30471 47Ω 5% 0.062W

3003 4822 117 11817 1.2kΩ 1% 0.0625W

3004 4822 051 30103 10kΩ 5% 0.062W

3005 4822 116 83933 15kΩ 1% 0.1W

3006 4822 117 13577 330Ω 1% 1.25W 0805

3007 4822 051 30152 1.5Ω 5% 0.062W

3008 4822 051 30682 6.8Ω 5% 0.062W

3009 4822 051 30155 1.5MΩ 5% 0.062W

3010 4822 051 30103 10kΩ 5% 0.062W

3011 4822 051 30332 3.3Ω 5% 0.062W

3012 4822 051 30472 4.7Ω 5% 0.062W

3013 4822 051 30103 10kΩ 5% 0.062W

3014 4822 051 30155 1.5MΩ 5% 0.062W

3016 4822 051 30102 1kΩ 5% 0.062W

3017 4822 051 30332 3.3Ω 5% 0.062W

4002 4822 051 20008 Jumper 0805

4003 4822 051 30008 Jumper 0603

4004 4822 051 30008 Jumper 0603

4005 4822 051 30008 Jumper 0603

d

6000 4822 209 72895 TLUV5320

6003 9322 159 21667 IR RECEIVER

6004 4822 130 11595 BPW46

TSOP2136UH1(VISH)L

ce

7000 5322 209 82941 LM358D

7001 5322 130 60159 BC846B

Side I/O [O]

Various

1300 2422 128 03068 Switch PUSH

1301 2422 026 05157 Connector 4P f

1302 2422 026 05493 Con. Cinch 3P f

1303 4822 267 31014 Socket headphone

1335 2422 025 12485 Connector 11p m

1337 4822 267 10973 Connector 1p

1344 4822 267 10734 Connector 5p

g

2107 5322 126 10733 680pF 5% 50V

2108 5322 122 32531 100pF 5% 50V

2109 5322 126 10733 680pF 5% 50V

2110 5322 122 32531 100pF 5% 50V

2111 5322 126 10733 680pF 5% 50V

2112 4822 122 33177 10nF 20% 50V

2113 5322 126 10733 680pF 5% 50V

2114 4822 122 33177 10nF 20% 50V
2115 4822 126 14585 100nF 10% 0805 50V

f

3106 4822 117 11927 75Ω 1% 0.1W
3107 4822 117 11927 75Ω 1% 0.1W
3115 4822 117 11373 100Ω 1% 0805
3116 4822 051 10102 1kΩ 2% 0.25W
3117 4822 117 10834 47kΩ 1% 0.1W
3118 4822 051 10102 1kΩ 2% 0.25W
3119 4822 117 10834 47kΩ 1% 0.1W
3120 4822 051 20109 10Ω 5% 0.1W
3121 4822 051 20109 10Ω 5% 0.1W
3122 4822 117 10833 10kΩ 1% 0.1W
3123 4822 051 20109 10Ω 5% 0.1W
3124 4822 051 20109 10Ω 5% 0.1W
3125 4822 117 10833 10kΩ 1% 0.1W
4001 4822 051 20008 Jumper 0805
4002 4822 051 20008 Jumper 0805

b

5001 3198 018 32770 0.27µH 10% 0805
5002 3198 018 32770 0.27µH 10% 0805

d

6001 4822 130 10852 BZX284-C6V8
6002 4822 130 10852 BZX284-C6V8
6003 4822 130 10852 BZX284-C6V8
6004 4822 130 10852 BZX284-C6V8
6005 4822 130 10852 BZX284-C6V8
6006 4822 130 10852 BZX284-C6V8
6007 4822 130 10852 BZX284-C6V8
6008 4822 130 10852 BZX284-C6V8
6009 4822 130 10852 BZX284-C6V8
6010 4822 130 10852 BZX284-C6V8
6011 4822 130 10852 BZX284-C6V8
6012 4822 130 10852 BZX284-C6V8

LED Keyboard [P]

Various

1001 4822 276 13775 Switch
1002 4822 276 13775 Switch
1003 4822 276 13775 Switch
1004 4822 276 13775 Switch
1005 4822 276 13775 Switch
1006 4822 276 13775 Switch
1201 4822 267 10567 Connector 4p
1202 4822 265 11517 Connector 1p m
1203 3135 034 00711 HOLDER-LED

f

3001 4822 117 11596 390Ω 1% 0.1W
3002 4822 117 13528 200Ω 1% 0.125W 0805
3003 4822 117 10845 620Ω 1% 0.1W
3004 4822 117 11534 1.1kΩ 1% 0.1W
3006 4822 117 11951 2kΩ 1% 0.1W
3007 4822 117 11142 2K40 1% 0,1W
3009 2322 734 69101 910Ω 1% 0805
3010 4822 117 12974 16OR 1% 0,1W
3011 4822 051 20121 120Ω 5% 0.1W
4000 4822 051 20008 Jumper 0805

d

6001 4822 130 10852 BZX284-C6V8
6002 4822 130 10852 BZX284-C6V8
6003 9322 188 10682 LED VS TLHB5400

ce

7000 5322 130 60159 BC846B

Main Scaler Board [SL]

Various

0300 2422 025 17714 Connector 64P m
0303 2422 033 00484 Soc DVI 24p f
0305 2422 033 00484 Soc DVI 24p f
0308 2422 026 05422 Con. cinch 4P6 F
0310 2422 025 17027 Connector 15p f