Philips EM1A AA Service Manual

Download

Colour Television Chassis

EM1A

CL 06532111_000.eps

171000

Contents Page Contents Page

1. Technical specifications, connection facilities & chassis overview 2

2. Safety- and maintenance instructions, 4 warnings and notes.

3. Directions for use 6

4. Mechanical instructions 11

5. Faultfinding and repair tips 15

Block-, wiring diagrams and testpoint overviews

6. Blockdiagram video processing 27 Blockdiagram audio & control 28 Blockdiagram Large Signal Panel: supply 29 Powerlines overview 30 Wiring diagram 31

C overview 32

I Testpoint overview LSP 33 Testpoint overview SSB / DW / CRT panel 34

Electrical diagram’s en PWB’s Diagram PWB

7. Main supply (Diagram A1) 35 43-48 Standby supply (Diagram A2) 36 43-48 Line deflection (Diagram A3) 37 43-48 Frame deflection (Diagram A4) 38 43-48 Audio amplifier (Diagram A5) 39 43-48 Headphone amplifier (Diagram A6) 40 43-48 Tuner, I/O, SIMM-connector (Diagram A7) 41 43-48 Front control (Diagram A8) 42 43-48 SSB: SIMM-connector (Diagram B1) 49 55-60 IF, I/O, videoprocessing (Diagram B2) 50 55-60 Feature box (Diagram B3) 51 55-60 HOP (Diagram B4) 52 55-60 Audio demodulator (Diagram B6) 53 55-60 Painter (Diagram B7) 54 55-60 Multi PIP controller (Diagram C1) 61 65/66 Tuner (Diagram C2) 62 65/66 I/O processing (Diagram C3) 63 65/66

Copyright 2000 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.

IF video sync (Diagram C4) 64 65/66 Side I/O panel (Diagram D) 67 67 Top control panel (Diagram E) 69 69 CRT panel (Diagram F) 70 71 DC-shift panel (Diagram G) 71 71 Horizontal DAF panel (Diagram I1) 72 74 Vertical DAF panel (Diagram I2) 73 74 Mains switch panel (Diagram J) 75 75 Mains harmonic panel (Diagram Y) 76 76

8. Alignments 77

9. Circuit description and 82 list of abbreviations 96

10. Spareparts list 98

Published by CO 0070 Service PaCE Printed in the Netherlands Subject to modification 5 3122 785 10850

GB 2 EM1A1.

Technical specifications, connection facilities & chassis overview

1. Technical specifications, connection facilities & chassis overview

1.1 Technical specifications

1.1.1 Reception

Tuning system : PLL Colour systems (off-air) : NTSC M (3.58 &

4.43 MHz), : PAL B/G/D/K/I/M/N, : SECAM B/G/D/K/L

Sound systems : FM/FM,

: 2SC B/G, : NICAM B/G/D/K/I/L

A/V connections : PAL B/G,

:SECAM, : NTSC M (3.58 &

4.43 MHz).

Channel selections : 100 channels,

: UVSH-channels

Frequency range : 44.25 - 855.25 MHz Aerial input : 75 Ω, Coax

1.1.2 Miscellaneous

Set stroke numbers : /56, /57, /69, /79,

/93

Mains voltage : 160 - 276 V

(± 10 %),

: 50 / 60 Hz (± 5 %)

Ambient temperature : + 5 to + 45 deg. C. Standby Power consumption : < 1 W.

1.2.2 Rear connections

75Ω

MONITOR

OUT

VIDEO

L/MONO

AUDIO

COMPONENT VIDEO INPUT

SERVICE

CONNECTOR

Figure 1-2

Monitor out

1 - Video 1 Vpp / 75 Ω 2 - Audio L (0.5 Vrms / 10 kΩ) 3 - Audio R (0.5 Vrms / 10 kΩ)

AV1 in

1 - Y 0.7 Vpp / 75 Ω 2 - Pb 0.7 Vpp / 75 Ω 3 - Pr 0.7 Vpp / 75 Ω

AV1 in

4 - Video 1 Vpp / 75 Ω 5 - Audio L (0.5 Vrms / 10 kΩ) 6 - Audio R (0.5 Vrms / 10 kΩ)

AV1

AV2

S-VIDEO

CL 06532130_001.eps

021000

kq kq

jq jq jq

1.2 Connection facilities

1.2.1 Control buttons & Side I/O connections

TOP CONTROL

P+

V+V-

RED

Figure 1-1

SVHS

1 - gnd 2 - gnd 3 - Y 1 Vpp / 75 Ω 4 - C 0.3 Vpp / 75 Ω

Audio / video

1 - Video 1 Vpp / 75 Ω 2 - Audio L (0.2 Vrms / 10 kΩ) 3 - Audio R (0.2 Vrms / 10 kΩ) 4 - Headphone 32 - 2000 Ω / 10 mW

P-

SIDE I/OFRONT CONTROL

S-Video

Video

L Audio R

CL 06532130_002.eps

031000

j j

jq jq jq rt

v v

AV2 in

1 - Video 1 Vpp / 75 Ω 2 - Audio L (0.5 Vrms / 10 kΩ) 3 - Audio R (0.5 Vrms / 10 kΩ)

AV2 in (SVHS)

1 - gnd 2 - gnd 3 - Y 1 Vpp / 75 Ω 4 - C 0.3 Vpp / 75 Ω

jq jq jq

v j j

Technical specifications, connection facilities & chassis overview

1.3 Chassis overview

CRT/SCAVEM PANEL

SIDE I/O PANEL

SMALL SIGNAL BOARD

TOP CONTROL PANEL

GB 3EM1A 1.

PIP/DOUBLE

WINDOW PANEL

Figure 1-3

MAINS SWITCH PANEL

LARGE SIGNAL PANEL

MAINS HARMONIC

PANEL

DAF PANEL

CL 06532130_003.eps

181000

GB 4 EM1A2.

Safety & maintenance instructions, warnings and notes

2. Safety & maintenance instructions, warnings and notes

2.1 Safety instructions for repairs

Safety regulations require that during a repair:

• Safety components, indicated by the symbol ∆, should be

replaced by components identical to the original ones;

• When replacing the CRT, safety goggles must be worn.

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

• General repair instruction: as a strict precaution, we advise you to resolder the solder joints, through which the horizontal deflection current is flowing, in particular:

– All pins of the line output transformer (LOT); – Fly-back capacitor(s); – S-correction capacitor(s); – Line output transistor; – Pins of the connector with wires to the deflection coil; – Other components through which the deflection

current flows. Note: This resoldering is advised to prevent bad connections due to metal fatigue in solder joints and is therefore only necessary for television sets older than 2 years.

• The wire trees and EHT cable should be routed correctly

and fixed with the mounted cable clamps.

• The insulation of the mains lead should be checked for

external damage.

• The mains lead strain relief should be checked for its

function in order to avoid touching the CRT, hot components or heat sinks.

• The electrical DC resistance between the mains plug and

the secondary side should be checked (only for sets which have a mains isolated power supply). This check can be done as follows: – Unplug the mains cord and connect a wire between

the two pins of the mains plug;

– Set the mains switch to the 'ON' position (keep the

mains cord unplugged!);

– 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 MΩ and 12 MΩ.

– Switch off the TV and remove the wire between the

two pins of the mains plug.

• The cabinet should be checked for defects to avoid

touching of any inner parts by the customer.

2.2 Maintenance instructions

2.3 Warnings

• In order to prevent damage to IC's and transistors, all high-voltage flashovers must be avoided. In order to prevent damage to the picture tube, the method shown in Fig. 2-1 should be used to discharge the picture tube. Use a high-voltage probe and a multimeter (position VDC). Discharge until the meter reading is 0 V (after approx. 30 s).

Figure 2-1

• All IC's and many other semiconductors are susceptible to electrostatic discharges (ESD). Careless handling during repair can reduce life drastically. When repairing, make sure that 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 table mat, wristband,

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

– Wristband tester 4822 344 13999.

• Together with the deflection unit and any multipole unit,

the used flat square picture tubes form an integrated unit. The deflection and the multipole units are set optimally at the factory. Adjustment of this unit during repair is therefore not recommended.

• Be careful during measurements in the high-voltage section and on the picture tube.

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

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

CL 26532098/042

140792

It is recommended to have a maintenance inspection carried out by a qualified service employee. The interval depends on the usage conditions:

• When the set is used under normal circumstances, for example in a living room, the recommended interval is 3 to 5 years.

• When the set is used in circumstances with higher dust, grease or moisture levels, for example in a kitchen, the recommended interval is 1 year.

• The maintenance inspection contains the following actions: – Execute the above-mentioned 'general repair

instruction'.

– Clean the power supply and deflection circuitry on

the chassis.

– Clean the picture tube panel and the neck of the

picture tube.

2.4 Notes

Safety & maintenance instructions, warnings and notes

GB 5EM1A 2.

• The direct voltages and oscillograms should be measured with regard to the tuner earth ( (

) as this is called.

• The direct voltages and oscillograms shown in the diagrams are indicative and should be measured 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.

• Where necessary, the oscillograms and direct voltages are measured with ( Voltages in the power supply section are measured both for normal operation ( values are indicated by means of the appropriate symbols.

• The picture tube PWB has printed spark gaps. Each spark gap is connected between an electrode of the picture tube and the Aquadag coating.

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

• DOLBY, the double D symbol and PRO LOGIC are trademarks of Dolby Laboratories Licensing Corporation. Manufactured under license from Dolby Laboratories Licensing Corporation.

) and without (E) aerial signal.

) and in Standby (F). These

), or hot earth

GB 6 EM1A3.

A/CH

MENU SURF

SMARTSMART

f◊

PIP

PIP CH

UP DN

ACTIVE CONTROL

PROGRAM LIST

DOLBY V.

q©

ßê

Sleep

Allows you to select a time period after which

the set will switch to standby mode

automatically.

Standby

• Switch set off temporarily to standby mode.

(The red light indicator lights up when set is

on standby mode).

• To switch on set from standby mode, press

button again.

(Alternate Channel)

A/CH

Allows you to alternate between the last

viewed channel and the present channel.

PIP (Picture in Picture)/Dual Window On/Off

ßê©

PIP CH UP/DOWN

(if provided) See p. 12

Freeze

Allows you to freeze the main picture.

Screen format

Press this key repeatedly to select another

screen format:Auto, 4:3, Expand 4:3 and

Compress 16:9. See also p. 11.

Digit

(0-9)

Allows you to select a channel.

Note: For a 2-digit number,the second digit

must be entered before the “-”sign disappears.

Smart Sound

Allows you to select your desired sound setting

from 4 types of sound settings.

Press the key repeatedly to select the different

settings.

Smart Picture

Allows you to select 5 types of picture settings.

Press the key repeatedly to select the different

settings.

Preparation

Your remote control

DOLBY V

◊

Dolby Virtual (with Dolby Surround signals)

Dolby Virtual (Virtual Dolby Surround) enables you to experience the effect

of Dolby Pro Logic Surround,reproducing a rear sound effect.

Incredible Surround

Stereo

sound mode, when

Incredible Surround

is selected, it seems as

though the loudspeakers are spread further apart from one another.

Mono

sound mode, this feature,when switched on, enables you to hear

a spatial effect of sound.

Active Control On/Off

Measures and corrects all incoming signals in order to provide the best picture

quality settings. Press to select the Active Control values On or Off.

ON: Sharpness and Noise Reduction are controlled automatically.The Picture

settings are being adapted continuously and automatically. The menu items cannot

be selected.

PROGRAM LIST

Allows you to navigate through a list of installed programmes for a quick overview

of the channels and activate the channel you have selected.

Displays main menu.

Also exits the menu from the screen or returns

to a higher menu level.

SURF

Allows you to select up to a maximum of 10

favourite channels or sources and view quickly

the selected channels or sources.

To add a new channel or source:

• Select the channel number or source you

want to add to the surf list.

• Press the SURF key.

The request ADD? appears next to the

selected channel number or source.

• Press the cursor right to add.

To delete a channel or source:

• Select the channel number or source you

want to remove from the surf list.

• Press the SURF key.

The request DELETE? appears next to the

selected channel number or source.

• Press the cursor right to delete.

Press the SURF key repeatedly to scroll

through the selected channels or sources.

Cursor

Up/Down: allows you to select the next or

previous item on the menu and to

select another picture format

Left/Right:

allows you to access the sub-menus

and adjust the settings.

Volume

+/-

Increases or decreases volume.

Mute

Mutes the sound.To restore the sound,press

the button again.

CH +/-

Selects channels in ascending or

descending order.

Allows you to select the AV channels.

On Screen Display

• Displays the channel number, sound

transmission mode, the clock and the status

of the sleeptimer.

• Also allows you to exit menu from screen.XAllows you to switch from Stereo to Mono

sound during stereo transmission or to choose

between Language Y or Language Z during

dual sound transmission.

Timer

Allows you to set the clock to switch to

another channel at a specified time while you

are watching another channel or when the

set is on standby mode.

Colour keys,

bhUf

Teletext

(if provided) See p. 13

Allows you to access teletext information.

for future use

A/CH

SURF

SMARTSMART

bhgU

VIDEO MOVIES

PIP

PIP CH

UP DN

q©

ßê

3. Directions for use

Directions for use

Installation

Press the

Use the cursor in the up/down directions to select a menu item.

Note: Sometimes not all the menu items are visible on the screen;press the cursor

down until all the items are displayed.“Use the cursor in the left/right directions to access the sub-menu and to

To use the menus

key to display/cancel the main menu.

adjust the settings.

Press the menu key to return.(Press the i key to switch the menu off.

‘

select menu

return

PICTURE

SOUND

item

switch

menu off

FEATURES

INSTALL

Note: If no action is executed, the menu automatically disappears after about 12

seconds.

key.

Press the

First, select your language.

Select the menu language

Store TV channels

PICTURE

SOUND

FEATURES

INSTALL

LANGUAGE

with the cursor down.

INSTALL

Select

key to return to the main menu.

Press the cursor right to select

Press the cursor right again.

Select your language with the cursor up/down.§Press the

“

‘

(

LANGUAGE

AUTO STORE

MANUAL STORE

SORT

CHANNEL EDIT

INSTALL

NAME

From now onwards, all on-screen displays will appear in the language that you

have chosen.

You can now search for and store the TV channels in two different ways: using

Auto store or Manual store (tuning in channel by channel).

key to return to the

menu.

INSTALL

in the

menu or press the i key to switch the menu off.

AUTO STORE

Select

Automatic tuning of channels

Press the cursor right to start the searching.

All TV channels are searched for and stored automatically.“When the tuning is completed, press the

INSTALL

SORT

CHANNEL EDIT

NAME

LANGUAGE

AUTO STORE

MANUAL STORE

INSTALL

Note: Channel numbers will always be written in Latin characters, even when a

language has been selected which uses other characters.

Installation

Directions for use

Installation

Sorting of channels

According to your preference you can change the order of the stored TV

channels.

Select

SORT

in the

INSTALL

menu.

Press the cursor right to enter the menu.“Key in the channel number in the

FROM

column you want to swap from. Use

the digit keys or the cursor left/right.

‘

Press the cursor down and select

(

Key in the channel number in the

column you want to swap to.

Press the cursor down and select

EXCHANGE

Press the cursor right.

The message

EXCHANGED

appears and the selected channels are exchanged.

Repeat steps

“

until all TV channel are allocated as you like.

Press the

key to return to the

INSTALL

menu or press the i key to

switch menu off.

This feature allows you to edit or skip channels from the channel list which

have bad or weak signals or channels which you do not watch often.

Note: Once a channel is skipped, you cannot select it with the

CH -

key.

You can only access the channel with the digit keys.

Select

CHANNEL EDIT

in the

INSTALL

menu.

Press the cursor right to enter the channel list.

“

Select the channel you want to skip with the cursor up/down.‘Press the cursor right to skip the selected channel.

The message

SKIPPED

is displayed.

(

Press the cursor up/down to select another channel and repeat step

‘

Press the cursor left or the

key to return to the install menu or the

i key to switch menu off.

Note: to add back channels to the list, repeat steps

‘

and press the

i key to switch menu off.

Editing of channels

It is possible to assign a name to a TV channel.This feature allows you to

enter a new name or modify an existing name of a channel, including

peripherals.

Note: Even when you have selected another language in the language menu, only

the English language character set is offered to enter names to the TV channels

stored.

Select a TV channel or peripheral you want to assign a name or modify the

existing name.éSelect

NAME

in the

INSTALL

menu.

“

Press the cursor right to enter the menu.‘Key in the selected character with the cursor up/down.(Move to the next character with the cursor right and key in the next

character.You can key up to a maximum of 5 characters.

Press the

key to store the named channel.

Naming of channels

INSTALL

LANGUAGE

AUTO STORE

MANUAL STORE

SORT

CHANNEL EDIT

NAME

INSTALL

LANGUAGE

AUTO STORE

MANUAL STORE

SORT

CHANNEL EDIT ƒ

NAME

SORT

FROMTOEXCHANGE/EXCHANGED

34567 SKIPPED

INSTALL

LANGUAGE

AUTO STORE

MANUAL STORE

SORT

CHANNEL EDIT

NAME

CNN

GB 7EM1A 3.

Manual tuning of channels

menu.

INSTALL

in the

MANUAL STORE

Manual tuning allows you to store channel by channel.

You must go through every step of the manual store menu.&Select

LANGUAGE

AUTO STORE

MANUAL STORE

SORT

INSTALL

and press the cursor right.

is selected, the respective colour system will be automatically

COLOUR SYSTEM

AUTO

selected according to the transmission system.

Press the cursor right to enter the menu.“Select

If the reception is poor, select another colour system with the cursor up/down.

CHANNEL EDIT

NAME

COLOUR SYSTEM

SOUND SYSTEM

MANUAL STORE

and press the cursor right.

key or the cursor left.

is selected, the respective sound system will be automatically

SOUND SYSTEM

AUTO

selected according to the transmission system.

Press the

Select

‘

(

CHANNEL

STORE/STORED

FINE TUNE

PLL

key or the cursor left.

and press the cursor left or right to start the searching.

Note: If the reception is poor,select another sound system with the cursor up/down.

Searching stops once a transmitting channel is found.

Note: If the reception is poor, select another colour and/or sound system.

Press the

Select

CHANNEL

Select

Key in the desired channel number with the digit keys or with the cursor

left/right.0Press the cursor down.

and press the cursor left/right to adjust.

FINE TUNE

In case of poor reception, you can improve the reception by adjusting the

frequency.1Select

In rare cases certain TV channels may reproduce distorted or unstable

pictures.

menu or press the i key to

STORE

(Phase Locked Loop) to switch to the setting 2 with the cursor

PLL

left/right to restore the picture for the respective transmission.

Select

Press the cursor down to select

Press the cursor right.

INSTALL

to continue searching for another transmitting

appears and the search menu item is highlighted again.

key to return to the

STORED

switch menu off.

channel.

The message

Now repeat steps

Press the

Installation

GB 8 EM1A3.

Connect Peripheral Equipment

CABLE

VCR

AV 2

AV 1

Monitor

out

COMPONENT VIDEO INPUT

VIDEO

L/Mono

AUDIO

S-VIDEO

OUT

OUT IN

j x

Video recorder and other A/V peripherals

Interconnect your video recorder with extra RF cables 3.éTo obtain better picture quality, also connect the Video,Audio left and Audio

right (only for stereo equipment) cables to the

VIDEO

AUDIO L/

Mono and

AUDIO R

input of

AV2 IN

sockets 4.

Note: in case of mono equipment, only the left loudspeaker reproduces sound.

Use a mono to stereo adaptor (not supplied) for sound reproduction via all

internal loudspeakers.

When a video recorder is not connected to

MONITOROUT

you can only record a

programme from the aerial or from the cable system.

Only when a video recorder is connected to

MONITOROUT

it is possible to record a

programme from other equipment connected to the TV. See Record with your video

recorder, p.18.

CABLE

VCR

OUT

j x

AV 2

AV 1

Monitor

out

COMPONENT VIDEO INPUT

VIDEO

L/Mono

AUDIO

S-VIDEO

Directions for use

There is a wide range of audio and video equipment that can be connected

to your TV.The following connection diagrams show you how to connect

them.

Video recorder

Connect Peripheral Equipment

Connect the RF cable 1 to the RF socket x of your video recorder.éConnect another RF cable 2 from the output j of your video recorder to

VIDEO

input instead of connecting the video

AV2 IN

input

Mono and

Use a mono to stereo adaptor (not supplied) for sound reproduction via all

internal loudspeakers.

Better playback quality can be obtained if you also connect the Video,Audio

Left and Right (only for stereo equipment) cables 3 to the

Note: in case of mono equipment, only the left loudspeaker reproduces sound.

AUDIO L/

the input x of your TV.

connectors can be used for daisy chaining or to record

MONITOR OUT

The

programmes from your TV. See Record with your video recorder, p. 18.

S-VIDEO

input. (See the instructions of your video recorder.)

cable with the

VIDEO

quality with a S-VHS video recorder is obtained by connecting

S-VHS-Video

recorder to the

the

S-VHS-Video

If the cables 3 are not used the following steps are required:

Search for and store the test signal of the video recorder

Unplug the RF cable 1 from the RF socket x of your video recorder.éSwitch on your TV and put the video recorder on the test signal or play a

prerecorded tape (See the handbook for your video recorder.).“Search for the test signal of your video recorder in the same way as you

searched for and stored the TV signals. See Installation, Store TV Channels,

Manual Tuning, p. 5.‘Store the test signal under programme number 0 or between 90 and 99.

Replace the RF cable in the RF socket x of your video recorder after

(

Connect Peripheral Equipment

you have stored the test signal.

Directions for use

Record

Equipment connected with an aerial cable only :

Select the channel number under which you have stored the test signal with

the digit keys.

Equipment connected to the back or to the right side of the TV

Press the

key repeatedly to select

AV1

CVI

AV2

FRONT

, according to

where you connected your equipment at the back or the right side of your

TV.

Select

CVI

to view the playback of DVD discs if you used the Component

Video Input sockets (

Y-Pb-Pr

and

AUDIO L

Mono

and

inputs).

If you want to change to TV channels?

Enter the channel number of the TV channel which you want to watch with

the digit keys.

To select connected equipment

A/CH

SURF

SMARTSMART

f◊

PIP

PIP CH

UP DN

DOLBY V.

ACTIVE CONTROL

PROGRAM LIST

q©

ßê

To record S-VHS quality, connect an S-VHS peripheral directly to the video

recorder.

Record a TV programme&Select the channel number on your video recorder.éSet your video recorder to record.

See the handbook for your video recorder.

Switching channel numbers on your TV does not disturb recording !

Record a programme on your video recorder connected to

MONITOR OUT

from Audio/Video equipment connected to

AV1,AV2

or to sockets on the right side of the TV

Switch on the equipment.

Select the correct external on your TV and on your video recorder.“Set your video recorder to record.

You record what you are watching on the screen.

Do not switch channel numbers or do not switch off your TV when you are recording !

Record with your video recorder

•V

AV 2

AV 1

Monitor

out

COMPONENT VIDEO INPUT

VIDEO

L/Mono

AUDIO

S-VIDEO

1 2

DVD

GB 9EM1A 3.

1 for mono

AUDIO L

2 and

VIDEO

equipment.

Connect your camera or camcorder to sockets at the right side of your TV.éConnect the equipment to

Camera & camcorder

AUDIO

2) and

VIDEO

AUDIO R

input 3 (instead of

S-VIDEO

S-VHS quality with an S-VHS camcorder is obtained by connecting the S-VHS

cables with the

For stereo equipment also connect

inputs 1.

“

DVD-player

input

Y-Pb-Pr

VIDEO

input.

Mono and

in sockets on the TV.

(See the handbook of your DVD player.)

For correct picture reproduction also connect to

Connect the cables of your Y-Pb-Pr DVD player 1 to the

AV1

Connect the Audio left and right (only for stereo equipment) cables to the

AUDIO L/

Insert the plug into the headphone socket L at the right side of the TV.éPress ¬ on the remote control to switch off the internal loudspeakers

Headphone

to adjust the headphone volume and

Headphone

Connect Peripheral Equipment

menu select

SOUND

of the TV.

balance.

The headphone impedance must be between 8 and 4000 Ohm.

The headphone socket has a 3.5 mm jack.

In the

GB 10 EM1A3.

Directions for use

Personal notes:

Using a highly directional antenna may improve the picture .

Then re-insert the plug into the mains socket and turn on the television again.

Items to Check and Actions to follow

• This may be caused by obstruction to the antenna due to high rise buildings or hills.

• Check that the television's AC power cord is plugged into the mains socket.

• Unplug the television, wait for 60 seconds.

• Check the antenna connection at the rear of the television to see if it is properly connected to the

television input terminal.

• Possible broadcast station trouble. Try another channel.

• Adjust the contrast and brightness settings or select another picture setting with the smart picture key.

• Increase the VOLUME.

• Check that the television is not muted, press the ¬ button on the remote control.

• When no signal is detected, the television automatically switches off the sound.

This is proper operation and does not indicate a malfunction.

• Check the transmission system’s sound settings of this set.

connected to the right side of of your TV and another peripheral is connected to AV1 or AV2 at the

• Adjust the contrast and brightness setting or select another picture setting with the smart picture key.

same time. In this case, switch off one of the other peripherals.

• Check the transmission system’s colour settings of this set.

• Sometimes, poor picture quality occurs when having activated an S-VHS camera or camcorder

• Check the antenna connection.

• This may be caused by electrical interference (e.g. hairdryer, nearby neon lights,etc.)

• Turn off the equipment.

• Turn off the television immediately and consult a qualified service personnel.

• Check whether the batteries are working. Replace if necessar y.

• Clean the remote control sensor lens on the television.

• Operating range between television and the remote control should not be more than 6 meters.

• You can still use the keys at the top of your TV.

• This could be due to antenna siting or reflected signal.

• Switch over to “MONO” mode by pressing the X key.

• Press the i key again to exit from the menu.

Before Calling Service

Please make these simple checks before calling service.These tips may save you time and money since charges for television installation and

adjustments of customer controls are not covered under your warranty.

Symptoms

“Ghost” or double images

No power

No picture

Good picture but no sound

Good sound but poor

colour or no picture

Poor picture

Snowish picture and noise

Horizontal dotted line

One white line across the

screen

Television not responding to

remote control

NICAM sound distortion

(crackling noise)

Wrong menu

If your problem is not solved

Turn your TV off and then on again once.

Never attempt to repair a defective TV yourself.

Check with your dealer or call a TV technician.

4. Mechanical instructions

4.1 Removing the Rear Cover

1. Remove all the fixation screws of the rear cover.

2. Now the rear cover can be removed by pulling it backward.

4.2 Service positions

4.2.1 Service position LSP

Position 1: For better accessibility of the LSP, do the following:

SSB

LSP

LSP - bracket

Mechanical instructions

GB 11EM1A 4.

Bottom tray

CL 06532130_004.eps

031000

Figure 4-1

1. Remove the LSP-module from the bottom tray by pulling the complete module back- and then upward.

2. Hook the bracket in the first row of fixation holes of the cabinet bottom. In other words reposition the bracket from [1] to [2].

3. The same can be done with the DW-module (position [3] to [4]).

Position 2: This service position is comparable to that of the A10A. To get access to the bottom side (solder side) of the LSP, do the following:

CL 06532130_006.eps

121000

Figure 4-2

1. Disconnect the CRT/SCAVEM panel from the CRTsocket.

2. Release LSP and DW-module, and pull backward.

3. Remove Mains switch module from bottomplate (see description below).

4. Free the necessary wiring from their fixation clamps, for the ease of handling.

5. Sometimes a cable must be disconnected for the ease of handling, like the degaussing coil (0020) and loudspeaker (1735, 1736 & 1737) cables.

6. Now reposition following modules, in order to cope with the LSP service position: – DAF-module from the LSP-bracket by pressing lever

while pushing the module forward in the direction of the CRT (see also description below).

– Mains Harmonic module from the LSP-bracket by

removing 1 screw and then slide the module backward, away from the CRT (see also description below).

7. Turn the chassis tray 90 degrees counter clockwise (see figure 4.2 - [2]).

8. Flip the chassis tray with the rear I/O panel towards the CRT [3].

9. Place the hook of the tray in the fixation hole at the right side of the cabinet bottom and pull the chassis tray backward [4].

GB 12 EM1A4.

Mechanical instructions

10. Reconnect cables (except degaussing cable 0020), panels and modules.

Alternative position 2: A somewhat easier way to access the bottom side (solder side) of the LSP is the following (only possible when the high tension cable is long enough):

Figure 4-3

1. Disconnect the CRT/SCAVEM panel from the CRTsocket.

2. Release LSP and DW-module, and pull backward.

3. Remove Mains switch module from bottomplate (see description below).

4. Free the necessary wiring from their fixation clamps, for the ease of handling.

5. Sometimes a cable must be disconnected for the ease of handling, like the degaussing coil (0020), loudspeaker (1735, 1736 & 1737) cables and 0325 (frame deflection).

6. Now reposition following modules, in order to cope with the LSP service position: – DAF-module from the LSP-bracket by pressing lever

while pushing the module forward in the direction of the CRT (see also description below).

– Mains Harmonic module from the LSP-bracket by

removing 1 screw and then slide the module backward, away from the CRT (see also description below).

7. Flip the chassis tray 90 degrees clockwise [2].

8. Place the hook of the tray in fixation hole [A] of the cabinet bottom and pull the chassis tray backward [3].

9. Reconnect the cables (except degaussing cable 0020), panels and modules.

4.2.2 Service position SSB

All relevant test points can be accessed with the SSB in original position, but for ease of use a 'SSB extension board' is available under number 9965 000 05769. Before usage of this board, the 'LSP top-bracket' has to be taken out. This can be done by:

1. Remove the DAF panel (see 4.2.5).

2. Remove the 2 screws which hold the bracket at the right side.

3. Lift the bracket at the same side. It hinges at the cooling plate.

Note: For some type numbers, the LSP has to be moved slightly to the right side in order to create enough space for the SSB extension board.

CL 06532130_007.eps

131000

To get access to the test points of the SSB, the shielding has to be removed:

FROM

PIP/DW MODULE (0205)

0948

0946

CL 06532130_008.eps

131000

Figure 4-4

1. Put the LSP in service position 1 (as described above).

2. If a PIP/DW module is present, then disconnect the IFcable from connector 1946, flatcable from connector 1948 and flatfoil on DW-module connector 0205 [1].

3. Release the 'top fixation clamp' which holds the SSB [2] and pull the SSB slightly towards the Tuner [3]. At the same time, the 2 metal clamps at both sides of the SIMMconnector must be released [4] . The complete SSB can be taken out now by pulling the topside of the SSB towards the Tuner [5]. It 'hinges' in the SIM-connector.

CL 06532130_009.eps

Figure 4-5

1. Once the SSB has been taken out of the connector, the shielding can be removed.

2. After removal of the shielding, the panel can be replaced in its connector in reverse order. Don't forget to reconnect the cables.

3. If necessary for the measurement, the LSP can be put in 'service position 2' (as described above).

031000

Mechanical instructions

GB 13EM1A 4.

4.2.3 Accessing the Double Window (DW) panel

PIP/Double Window

Multi Voltage

CL 06532130_015.eps

Figure 4-6

1. Remove the DW bracket from the bottom tray by pulling it backward (after pressing the fixation clamp).

2. The board can easily be lifted out of the bracket [2] after releasing the 2 fixation clamps [1].

4.2.4 Accessing the Multi Voltage panel (if present)

031000

1. The complete module can be removed from the LSPbracket by pressing its fixation clamp [1] (located behind the PWB), while sliding the module in the direction of the CRT [2].

2. The board can easily be lifted from its bracket after releasing the 2 fixation clamps [3].

4.2.6 Accessing the Mains Harmonic panel

CL 06532130_017.eps

Figure 4-8

1. The complete module can be removed from the LSPbracket (after removal of the DAF-panel) by removing screw [1] and then slide the module in the opposite direction of the CRT [2].

2. The board can easily be lifted from its bracket after releasing the 2 fixation clamps [3].

131000

1. Remove the DW bracket from the bottom tray by pulling it backward.

2. Press the 2 fixation clamps downward [3] (see figure 4-

7).

3. The board can easily be lifted out of the bracket after releasing the 2 fixation clamps [4].

4.2.5 Accessing the Double Astigmatic Focus (DAF) panel

4.2.7 Accessing the Top Control panel

Figure 4-9

1. Remove the two fixation screws, which hold the panel.

2. Pull the board backward (w.o.w. release it from its front hinge [M]).

3. The board can easily be lifted from its bracket after releasing the 2 fixation clamps at the connector side.

Top control board

CL 06532012_003.eps

030200

Figure 4-7

CL 06532130_016.eps

031000

GB 14 EM1A4.

Mechanical instructions

4.2.8 Accessing the Side I/O panel

CL 06532012_004.eps

Figure 4-10

4.2.9 Accessing the Mains Switch panel

1. The complete Side I/O-assembly can easily be removed by unscrewing the 2 fixation screws.

2. The board can easily be lifted out of the bracket after releasing the 2 fixation clamps.

030200

Figure 4-11

The easiest way to access this module is with the LSP in service position 2.

1. Release the two fixation clamps by pulling them backward [1].

2. At the same time, the complete assy must be pulled backward [2].

3. If the board has to be removed, release the 2 clamps at the bracket sides and lift panel up [3].

4.3 Mounting the Rear Cover

Before mounting the Rear Cover, some checks has to be performed:

• Check whether the Mains Cord is mounted correctly in the guiding brackets.

• Check whether all cables are replaced in their original position. This is very important due to the large 'hot' area of the set.

CL 06532130_018.eps

021000

Fault finding and repair tips

5. Fault finding and repair tips

GB 15EM1A 5.

In this chapter the following paragraphs are included:

1. Test points.

2. Service Modes.

3. Problems and solving tips (related to CSM).

4. ComPair.

5. Error codes.

6. The 'blinking LED' procedure.

7. Protections.

8. Repair tips.

5.1 Test points

The EM1A chassis is equipped with test points in the service printing. These test points are referring to the functional blocks:

• A1-A2-A3, etc.: Test points for the audio processing circuitry [A5, A6, and B6].

• C1-C2-C3, etc.: Test points for the control circuitry [B7].

• F1-F2-F3, etc.: Test points for the frame drive and frame

output circuitry [A4, B4] and Double Window [C].

• F1F-F2F, etc.: Test points for the RGB-signals on the CRT panel [F].

• I1-I2-I3, etc.: Test points for the intermediate frequency circuitry [A7, B2].

• L1-L2-L3, etc.: Test points for the line drive and line output circuitry [A3, B4].

• P1-P2-P3, etc.: Test points for the power supply [A1, A2].

• SC1-SC2, etc.: Test points for the synchronisation

circuitry on the CRT panel [F].

• V1-V2-V3, etc.: Test points for the video processing circuitry [B].

• Via grounding the 'Front Detect'-line on the Side I/O

panel during switch ON (pins 1 and 7 of connector

0936).

• By the 'DEFAULT' button on the DST while the set is in the normal operation mode.

CAUTION: Entering SDM by grounding the 'Front Detect'line will override the 5V-protection. This should only be done for a short period of time. In case of SW-protections (errors 1 - 4), the set will shutdown in 15 s.

When doing this, the service-engineer must know what he is doing as it could lead to damaging the set.

After entering SDM, the following screen will be shown with 'SDM' at the upper right side for recognition.

SDM Menu

HRS: 0001 SWID: EM11A1-1.0 ERR: 0 0 0 0 0 0 0

SDM

PICTURE BRIGHTNESS

SDM

SOUND COLOUR

FEATURES CONTRAST INSTALL SHARPNESS

COLOUR TEMP

CL 06532130_010.eps

SDM

031000

Figure 5-1

Explanation

The numbering is done, in a for diagnostics logical sequence; always start diagnosing within a functional block in the sequence of the relevant test points for that functional block.

Measurements are performed under the following conditions:

• Service mode: SDM.

• Video: colour bar signal.

• Audio: 3 kHz left, 1 kHz right.

5.2 Service modes

5.2.1 Service Default Mode (SDM)

Purpose

• To provide a situation with predefined settings to get the same measurement results as given in this manual.

• Start the 'Blinking LED' procedure.

• Have the possibility to override the 5V-protection.

Specification

• Tuning frequency 475.25 MHz for PAL/SECAM sets and at channel 3 (61.25 MHz) for NTSC-sets.

• All picture settings at 50 % (brightness, colour, contrast, hue).

• All sound settings at 50 % except volume at 25 % (so bass, treble, balance at 50 %, volume at 25 %).

• All service-unfriendly modes are disabled, like timer, sleep timer, parental lock, blue mute, hospitality mode and no-ident timer (normally the set is automatically switched off when no video signal - IDENT - was received for 15 minutes).

Entering

• Via a standard RC-handset by entering the code '062596' followed by the 'MENU' button.

• Via ComPair.

Access to normal user menu

Pressing the 'MENU' button on the remote control, switches between the SDM and the normal user menus (with the SDM mode still active in the background).

Error buffer

Pressing the 'OSD' button [i+] of the remote control, shows / hides the error buffer. OSD can be hidden to prevent interference with oscillogram measurements.

Access to SAM

By pressing the 'VOLUME +' and 'VOLUME -' buttons on the local keyboard simultaneously for a few seconds, the set toggles from SDM to SAM.

Exiting

There are 2 ways to exit this mode:

• Switch the set to 'STANDBY', the error buffer will also be cleared (by switching the set OFF-ON with the mains switch, the set will come up again in the SDM).

• By pressing the 'EXIT' button on the DST.

5.2.2 Service Alignment Mode (SAM)

Purpose

• To perform alignments.

• To change option settings.

• To display / clear the error code buffer.

Specification

• Software alignments (see chapter 8).

• Option settings (see chapter 8).

• Error buffer reading and erasing. The most recent error

code is displayed on the left side.

• Operation counter.

• Software version.

GB 16 EM1A5.

Fault finding and repair tips

Entering

• Via a standard RC-handset by entering the code '062596' followed by the 'OSD' button [i+].

• Via ComPair.

SAM Menu

PICTURE BRIGHTNESS SOUND COLOUR FEATURES CONTRAST INSTALL SHARPNESS

HRS: 0003 SWID: EM11A1-1.0

ERR: 0 0 0 0 0 0 0 OPT: 254 100 128 0 0 0 0 0

CLEAR ERRORS OPTIONS AKB ON/OFF OPC ON/OFF VSD ON/OFF TUNER WHITE TONE GEOMETRY SOUND

COLOUR TEMP

2 3 4

SAM

• By the 'ALIGN' button on the DST while the set is in the normal operation mode.

The following screen will be shown, with 'SAM' at the upper right side for recognition.

SAM

NPRG WSSB SYSTEM OB1 OB2

TUNER

IF-PLL OFFSET AGC 2ND

AFA AFB

NORMAL RED

Explanation

The Service Alignment Mode menu will now appear on the screen. The following information is displayed:

1. Operation hours timer (hexadecimal).

2. Software identification of the main micro controller (AAABBB-X.Y).

• AAA is the chassis name (EM1= Painter processor,

EM2= OTC processor).

• B = Software code belonging to a certain stroke

number (see table below).

• X = (main version number).

• Y = (subversion number).

3. Error buffer (7 errors possible).

4. Option bytes (8 codes possible), summary of options are explained below.

Figure 5-2

VER-SLOPE

SOUND

NIC-FMAM 2CS-FM PS-FM PS-NIC-BGDK PS-NIC-I

CL 06532130_011.eps

5. Sub menus are listed in a scroll-menu.

Country Strokenumber Software Singapore /69 2A1 Thailand Malaysia Indonesia Middle East /56 2A2 China /93 1A1 Hong Kong /57 2A1 Australia /79 New Zealand

SAM

021000

Fault finding and repair tips

GB 17EM1A 5.

Menu control

Menu items can be selected with the 'CURSOR UP/DOWN' key. The selected item will be highlighted. When not all menu items fit on the screen, moving the 'CURSOR UP/DOWN' will display the next/previous menu items. With the 'CURSOR LEFT/RIGHT' keys, it is possible to:

• (De)activate the selected menu item (e.g. GEOMETRY).

• Change the value of the selected menu item (e.g. VER-

SLOPE).

• Activate the selected submenu (e.g. SERV-BLK).

Access to normal user menu

Pressing the 'MENU' button on the remote control switches between the SDM and the normal user menus (with the SAM mode still active in the background). Pressing the 'MENU' key in a submenu will go to the previous menu.

The menus and submenus

• CLEAR ERRORS. Erasing the contents of the error buffer. Select the CLEAR ERRORS menu item and press the 'CURSOR RIGHT' key. The content of the error buffer is cleared.

• The functionality of the OPTIONS and ALIGNMENTS (TUNER, WHITE TONE, SOUND, GEOMETRY and SMART SETTING) sub menus is described in chapter 8.

Exiting

There are 2 ways to exit this mode:

• Switch the set to 'STANDBY', the error buffer will also be cleared (by switching the set OFF-ON with the mains switch, the set will come up again in the SAM).

• By pressing the 'EXIT' button on the DST.

5.2.3 Customer Service Mode (CSM)

Purpose

The 'Customer Service Mode' is a special service mode, which can be activated and deactivated by the customer upon request of the service technician/dealer during a telephone conversation, in order to identify the status of the set. This CSM is a 'read only' mode, therefore modifications in this mode are not possible.

Entering

The Customer Service Mode will switch ON after pressing the 'MUTE' key on the remote control handset and any of the top control buttons on the TV for at least 4 seconds simultaneously. This activation only works if there is no menu on the screen.

HRS:

Hexadecimal

counter of operating hours (example: 1B (hex) = 0001 1011 (bin) = 27 (dec)). Standby hours are not counted as operating hours. SWID: Software identification of the main micro controller (see paragraph 5.2.2). Details on available software versions can be found in the chapter 'Software Survey' of the publication 'Product Survey - Colour Television'.

Line 2: Error code buffer (for more details see paragraph 5.3). Displays the last 7 errors of the error code buffer.

Line 3: Software and hardware functionality of the EM1A is controlled by option bits. An option byte or option number represents 8 of those bits. Each option number is displayed as a decimal number between 0 and 255. The set may not work correctly when an incorrect option code is set. See chapter 8 for more information on correct option settings

Line 4: Indicates which colour and sound system is installed for the selected pre-set: Line 5: Indicates that the set is not receiving an 'ident' signal on the selected source. Note: On some models, BLUE MUTE is displayed (if the BM option is ON) when no signal is received.

Line 6: Indicates whether the SLEEPTIMER function is ON/OFF.

Line 7: Indicates whether the CHILD LOCK function is ON/OFF.

Line 8: Indicates whether the current pre-set is defined as SKIPPED or NON-PREFERRED.

Line 9: Indicates whether the HOTEL MODE is activated.

Line 10: Indicates which SOURCE is installed for this pre-set: EXT1, SVHS2, EXT2, and Tuner.

Line 11: Indicates which sound mode is installed for this pre-set: Mono, NICAM, Stereo, L1, L2, SAP or Virtual

Line 12 to 17: Value indicates parameter levels at CSM entry.

Explanation

After switching on the Customer Service Menu the following screen will appear:

CSM Menu

1 HRS: 0005 SWID: EM11A1-1.0 2 CODES: 0 0 0 0 0 0 0 3 OPT: 254 100 128 0 0 0 0 0 4 SYSTEM: AUTO 11 SOUND: MONO 5 NO SIGNAL 12 VOLUME: 6 TIMER ON 13 BALANCE: +/7 CHANNEL BLOCKED 14 HUE: +/8 NOT PREFERRED 15 COLOUR: 9 HOTELMODE ON 16 BRIGHTNESS: 10 SOURCE: 1 17 CONTRAST:

CL 06532130_012.eps

CSM

131000

Figure 5-3

Line 1:

Exiting

The Customer Service Mode will switch OFF after pressing any key of the remote control handset (with exception of the 'P+' and 'P-' keys) and switching OFF the TV set with the mains switch.

5.3 Problems and solving tips (related to CSM)

5.3.1 Picture problems

No colours / noise in picture

Check CSM line 4. Wrong colour system installed. To change the setting:

1. Press the 'MENU' button on the remote control.

2. Select the INSTALL sub menu.

3. Select the MANUAL STORE sub menu.

4. Select and change the COLOUR SYSTEM setting until

picture and sound are correct.

5. Select the STORE menu item.

GB 18 EM1A5.

Fault finding and repair tips

Colours not correct / unstable picture

Check CSM line 4. Wrong colour system installed. To change the setting:

1. Press the 'MENU' button on the remote control.

2. Select the INSTALL sub menu.

3. Select the MANUAL STORE sub menu.

4. Select and change the COLOUR SYSTEM setting until picture and sound are correct.

5. Select the STORE menu item.

TV switches off or changes channel without any user action

The TV-set switches off after 'TV SWITCHING OFF' was displayed. Auto standby switched the set off because:

• There was no ident signal for more than 15 minutes.

• There was no remote control signal received or local key

pressed for > 2 hours.

See chapter 8 for a description on the options to enable/ disable auto standby

Picture too dark or too bright

• Press 'Smart Picture' button on the remote control. In case the picture improves, increase / decrease the brightness value or increase / decrease the contrast value. The new 'Personal Preference' value is automatically stored after 3 minutes.

• After switching on the Customer Service Mode the picture is OK. Increase / decrease the brightness value or increase / decrease the contrast value. The new 'Personal Preference' value is automatically stored after 3 minutes.

White line around picture elements and text

• Press 'Smart Picture' button on the remote control. In case the picture improves, decrease the sharpness value. The new 'Personal Preference' value is automatically stored after 3 minutes.

• After switching on the Customer Service Mode the picture is OK. Decrease the sharpness value. The new 'Personal Preference' value is automatically stored after 3 minutes.

Snowy picture

Check CSM line 5. If this line indicates NO SIGNAL, check following:

• no or bad antenna signal; connect a proper antenna signal

• antenna not connected; connect the antenna

• no channel / pre-set is stored at this program number; go

to the INSTALL menu and store a proper channel at this program number

• the tuner is faulty (in this case the CODES line will contain number 13 or 16); check the tuner and replace/ repair if necessary

Snowy picture and/or unstable picture

• A scrambled or decoded signal is received.

Black and white picture

• Press 'Smart Picture' button on the remote control. In case picture improves, increase the COLOUR value. The new 'Personal Preference' value is automatically stored after 3 minutes.

• After switching on the Customer Service Mode the picture is OK. Increase the COLOUR value. The new 'Personal Preference' value is automatically stored after 3 minutes.

Menu text not sharp enough

• Press 'Smart Picture' button on the remote control. In case the picture improves, decrease the CONTRAST

value. The new 'Personal Preference' value is automatically stored after 3 minutes.

• After switching on the Customer Service Mode the picture is OK. Decrease the CONTRAST value. The new 'Personal Preference' value is automatically stored after 3 minutes.

5.3.2 Sound problems

No sound or sound too loud (after channel change / switching on)

• After switching on the Customer Service Mode the volume is OK. Increase / decrease the volume level. The new 'Personal Preference' value is automatically stored after 3 minutes.

5.4 ComPair

5.4.1 Introduction

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

1. ComPair helps you to quickly get an understanding how to repair the EM1A in short time by guiding you step by step through the repair procedures.

2. 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; ComPair takes care of this.

3. ComPair speeds up the repair time since it can automatically communicate with the EM1A (when the microprocessor is working) and all repair information is directly available. When ComPair is installed together with the SearchMan EM1A electronic manual, schematics and PWBs are only a mouse-click away.

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. In case of the EM1A chassis, the ComPair interface box and the TV communicate via a bidirectional service cable via the service connector at the rear side of the set (located at the left side of the rear cinch connectors, see also figure 1-2). The ComPair faultfinding program is able to determine the problem of the defective television. ComPair can gather diagnostic information in 2 ways:

1. Communication to the television (automatic)

2. Asking questions to you (manually)

ComPair combines this information with the repair information in its database to find out how to repair the TVset.

Automatic information gathering

Reading out the error buffer, 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.

Manual information gathering

Automatic diagnosis is only possible if the micro controller of the television is working correctly and only to a certain extend. When this is not the case, ComPair will guide you through the faultfinding tree by asking you questions and showing you examples. 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.

Fault finding and repair tips

A question could be: Does the screen give a picture? (Click on the correct answer) YES / NO An example can be: Measure test-point I7 and click on the correct oscillogram you see on the oscilloscope

GB 19EM1A 5.

I7 B7502

1V / div DC

10µs / div

Figure 5-4

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.

Additional features

Beside fault finding, ComPair provides some additional features like:

• Uploading/downloading of pre-sets.

• Managing of pre-set lists.

• Emulation of the Dealer Service Tool.

5.4.2 SearchMan (Electronic Service Manual)

If both ComPair and SearchMan are installed, all the schematics and the PWBs of the faulty set are available when clicking on the hyper-link of a schematic or a PWB in ComPair. Example: Measure the DC-voltage on capacitor C2568 (Schematic/Panel) at the Monocarrier. Clicking on the PWB hyper-link automatically shows the PWB with a highlighted capacitor C2568. Clicking on the schematic hyper-link automatically shows the position of a highlighted capacitor at the schematic.

5.4.3 Connecting the ComPair interface

The ComPair Browser software should be installed and setup before connecting the ComPair interface to the TV-set (see the ComPair Browser Quick Reference Card for installation instructions).

1. Connect the RS232 interface cable to a free serial (COM) port on the PC and the ComPair interface PC connector (connector marked with 'PC').

2. Connect the mains adapter to the connector marked 'POWER 9V DC' on the ComPair interface.

3. Switch the ComPair interface 'OFF'.

4. Switch the television set 'OFF' with the mains switch.

5. Connect the interface cable to the connector on the rear side of the ComPair interface that is marked 'I figure 5-6).

6. Connect the other end of the interface cable to the ComPair connector on the monocarrier (left to the rear cinch connectors).

7. Plug the mains adapter in the mains outlet and switch 'ON' the interface. The green and red LEDs light up together. The red LED extinguishes after approx. 1 second (the green LED remains lit).

8. Start-up ComPair and select 'File' menu, 'Open...:; select 'EM1A Fault finding' and click 'OK'.

9. Click on the icon to switch 'ON' the communication mode (the red LED on the ComPair interface will light up).

10. Switch 'ON' the TV-set with the mains switch.

11. When the set is in standby, click on 'Start-up in ComPair mode from standby' in the ComPair EM1A faultfinding tree, otherwise continue.

C' (see

EXTERNAL 2

AUDIO EXTERNAL 1

SERVICE

CONNECTOR

PC VCR I2CPower

9V DC

Figure 5-5

The set has now started up in ComPair mode. Follow the instruction in the EM1A faultfinding tree to diagnose the set. Note that the OSD works but that the actual user control is disabled

5.4.4 Pre-set installation

Pre-sets can be installed via the service cable:

• sending TO the television and reading FROM the television

• the rear cover does NOT have to be removed

Click on 'File', 'Open' and select 'EM1A fault finding' to use the cable. Pre-sets can be installed via menu 'Tools', 'Installation' and 'Pre-sets'.

5.4.5 Ordering ComPair

ComPair order codes:

• Starter kit ComPair + SearchMan software + ComPair interface (excluding transformer): 4822 727 21629

• ComPair interface (excluding transformer): 4822 727 21631

• Starter kit ComPair software: 4822 727 21634

• Starter kit SearchMan software: 4822 727 21635

• Starter kit ComPair + SearchMan software: 4822 727

21636

• ComPair CD (update): 4822 727 21637

• SearchMan CD (update): 4822 727 21638

• ComPair interface cable (for EM1A): 4822 727 21641

5.5 Error codes

5.5.1 Error buffer

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

The error code buffer will be cleared in the following cases:

• By activating 'CLEAR ERRORS' in the SAM menu: – Exiting SDM or SAM with the 'Standby' command on

the remote control (by leaving SDM or SAM with the mains switch, the error buffer is not reset).

– Transmitting the commands 'DIAGNOSE 99 OK' with

the DST (RC7150) or with ComPair

• Automatically reset if the content of the error buffer has not changed for 50 hours

Examples: ERROR: 0 0 0 0 0 0 0 : No errors detected ERROR: 6 0 0 0 0 0 0 : Error code 6 is the last and only detected error

CL96532160_029.eps

110100

GB 20 EM1A5.

Fault finding and repair tips

ERROR: 9 6 0 0 0 0 0 : Error code 6 was first detected and error code 9 is the last detected (newest) error

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. See paragraph 5.6 'The blinking LED procedure '.

5.5.2 Error codes

In case of non-intermittent faults, clear the error buffer before starting the repair. This is to prevent that 'old' error codes are still present.

If possible, check the entire content of the error buffer. In some situations an error code is only the result of another

Error Device Description Def. item Diagram 0 1 FBX 3V3 prot FBX 3V3 protection 5703 B3 2 No HFB No Horizontal Flyback 0325 A4 3 X-Ray protection X-Ray protection 4 5 V protection 5 V protection 1200/7651 A7/B6 5 No HOP POR Startup failure B4 6 General I 7 Mains Dip error HW-error 10 MC24C32 NVM communication error 7012 B7 11 MC24C32 NVM identification error 7012 12 SAA5667 Main µP, int. RAM test failure 7001 B7 13 TEDE9 Main Tuner 1200 A7 14 MSP3415D MSP34xx 7651 B6 15 CY7C1019 SRAM test failure 7011 B7 16 TELE9 PIP/DW Tuner 7201 C2 17 SAB9081H Multi PIP-IC 7801 C1 18 M62320P PIP/DW IO-expander 7403 C3 23 TDA888xx PIP/DW BOCMA-IC 7301 C4 27 Virtual Dolby Virtual Dolby error 30 TDA9320 HIP I/O-video processing 7323 B2 31 SAA4978 PICNIC 7709 B3 32 TDA9330 HOP video control/geometry 7301 B4

C bus error General I2C bus error

error code (and not the actual cause). E.g. a fault in the protection detection circuitry can also lead to a protection.

Explanation of error codes:

Error 0

No errors.

Error 1

This protection is activated, when the PICNIC (pos. 7709 on diagram B3) can not communicate via I2C for a certain time. This could mean that stabiliser 7713 is defective. When e.g. 2704 makes a short circuit to ground, 7713 will become very hot. For safety reasons the set will be switched to protection mode.

Error 2

The absence of an HFB-pulse (pin 4 of connector 0324 on LSP, diagram A3) is detected by the HOP (pos. 7301 on diagram B4). A bit will be set in the HOP. After filtering by the software, the set will switch to protection mode.

Error 3

Reserved.

Error 4

When the +5 V protection is active, the set is switched to protection and error code 4 is placed in the error buffer. The LED will blink 4 times (repeatedly). A 5 V failure can cause a drop in the 5 V supply output, resulting in an undefined behaviour of the set. Therefore, some I2C devices (Tuner

and MSP) connected to the 5 V supply are constantly monitored. When none of these devices responds to the micro controller for a prolonged time, the micro controller assumes that there is a failure in the 5 V supply. By starting up the set via grounding of the FRONT_DETECT-line (on the side I/O), the +5 V protection will be overruled and it will be easier to determine the cause. The +5V protection will be activated when these I2C devices fail (no I2C communication):

– Main Tuner (pos. 1200 on the LSP), – MSP34xx sound processor (pos. 7651 on the SSB).

The following tips are useful to isolate the problem area, after overriding the +5 V protection. Determine whether: – The MSP sound processor is loading the +5 V; isolate

3650 and/or 4604 (see diagram B6).

– The main Tuner is loading the +5 V source; isolate coil

5200.

Caution! Overriding the +5 V protection when there is a 5 V failure can increase the temperature in the set and may cause permanent damage to components. Do not override the +5V-protection for a prolonged time.

Error 5

Fault finding and repair tips

GB 21EM1A 5.

This error is covered by the Flash/Main routine described at error 7. When during restart the 8 V remains absent, error 5 will be generated.

Error 6 This will occur in the following cases:

– SCL or SDA is shorted to ground. – SCL is shorted to SDA. – SDA or SCL connection at the micro controller is open

circuit.

Error 7

Flash detection: From the EHT-info, via D6303 and T7303 a flash will stop the H-drive and line output stage immediately. The FLS-bit in the status register of the HOP is set to ‘high’. As the duration of a flash is very short the FLS-bit will be reset to ‘low’ again after the flash refresh, so via a slow start the set will be started again. If this interrupt occurs 5 times within an interval of 10 seconds (indicating a mains interruption), the set will go into protection and will generate error 7.

Error 10

Non Volatile Memory (EEPROM - pos. 7012) does not respond to the micro controller.

Error 11

During the last start-up, the NVM and the micro controller did not recognise each other (e.g. one of them was replaced or the NVM memory has been changed/adapted or lost), therefore the NVM was loaded with default values.

Error 12

Microprocessor (Painter - pos. 7001) internal RAM test failure.

Error 13

Tuner (pos. 1200) is corrupted, the I

C line to the tuner is low,

or there is no supply voltage at pins 7, 4 and 5 of the tuner.

Error 14

Sound controller MSP34xx (pos. 7651) does not respond to the micro controller.

Error 15

SRAM test failure (pos. 7011).

Error 16

The Tuner (pos. 7201) on the PIP/DW-panel does not respond to the micro controller.

Error 17

Multi PIP IC SAB9081 I

C communication failure (pos. 7801

on the PIP/DW-panel).

Error 18

I/O expander IC M62320P I

C communication failure (pos.

7403 on the PIP/DW-panel).

Error 23

BOCMA IC TDA888xx I

C communication failure (pos. 7301

on the PIP/DW-panel).

Error 27

Virtual Dolby IC error.

Error 30

TDA 9320 HIP I/O-video processing (pos. 7323 on the SSB).

Error 31

SAA4978 PICNIC error (pos. 7709 on the SSB).

Error 32

TDA 9330 HOP video control/geometry error (pos. 7301 on the SSB).

Note: Error codes 1, 2 and 4 are protection codes and in this case 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.

5.6 The 'blinking LED' procedure

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 contents of the error-buffer. Error-codes ≥ 10 are shown as follows. A long blink of 750 msec. which is an indication of the decimal digit, followed by a pause of 1500 msec, followed by n short blinks. When all the error-codes are displayed, the sequence is finished with a LED display of 3 seconds. Then the sequence starts again.

Example: Error code position 1 2 3 4 5 Error buffer: 12 9 6 0 0 After entering SDM: 1 long blink (750 ms.) - pause (1500 ms.)

- 2 short blinks - pause (3 s.) - 9 short blinks - pause (3 s.) -

6 short blinks - pause (3 s.) - long blink (3 s.) - etc.

Note: If errors 1, 2 or 4 occur, the LED

always

occurred error, even if the set is NOT in service mode.

5.7 Protections

5.7.1 General

The EM1A has only one microprocessor (Painter) which remains active during Standby. This because power of the microprocessor and the memories is coming from the 3V3 supply, which is derived from the 5V Standby-circuitry. So in both Power-on as in Standby-mode the microprocessor is connected to this power supply.

If a fault situation is detected an error code will be generated and if necessary the set will be put in the protection-mode. The protection-mode is indicated by blinking of the red LED at a frequency of 3 Hz. In some error cases the microprocessor does not put the set in the protection-mode. The error codes of the error buffer can be read via the service-menu (SAM), the blinking LED procedure or via DST/ ComPair. The DST diagnose functionality will force the set into the Service-standby, which is alike the usual Standby, however the microprocessor has to remain in normal operation completely.

To get a quick diagnosis the EM1A has 3 service-modes implemented:

• The Customer Service Mode (CSM).

• The Service Default Mode (SDM). Start-up of the set in a

predefined way.

• The Service Alignment Mode (SAM). In this mode items of the set can be adjusted via a menu and with the help of test patterns.

The 'Protection Diagram' shows the structure of the protection system. See diagram below.

gives the last

GB 22 EM1A5.

HFB X-RAY PROTECT

X-RAY PROTECT

EHT-INFO BCL

FLASH DETECT

Fault finding and repair tips

positioned in ‘Standby’-mode. The Painter will now try to restart the set. If this will not succeed after 5 times (after ≈ 30 60 s.), the Painter will generate error 7 (this error can have several causes, such as a Flash, BRIDGE_PROT, DEFL_PROT or a serious mains dip). A blinking red LED will

XPR (43)

HOP

FLS (5)

be started.

5.8 Repair tips

I2C SLOW BUS

HIP HOP PICNIC TUNER NVM MSP

FBX PROTECTION

TUNER PROTECTION

HFB

PICNIC 3V3

TUNER 8V

+5V2

I2C

NHF (13)

I2C

CL 06532111_055.eps

PAINTER

121000

Figure 5-6

There are several types of protections:

• I2C related protections (e.g. +5V supply check).

• HOP related protections (mainly for deflection items).

• Hardware errors which are not sensed by the Painter

(e.g. BRIDGE_PROT)

I2C related protections

In normal operation some registers of the I2C controlled IC's will be refreshed every 200 msec. During this sequence the I2C-busses and the I2C -IC's as well will be checked. The I2C protection will take place if the SDA and SCL are whether short-circuited to ground or to each other. An I2C error can also occur, if the power supply of the IC is missing (e.g. FBX_PROT; error 1).

HOP related protections

Every 200 msec. the status register of the HOP is read by the Painter via I2C. If a protection signal is detected on one of the inputs of the HOP, then the relevant error bit in the HOP register is set to ‘high’. If the error bit is still ‘high’ after 1 sec., the Painter will store the error code in the error buffer (NVM) and depending on the relevancy of the error bit the set will either go into the protection-mode or not.

• HFB: Horizontal Flyback. If the horizontal flyback is not present, then this is detected via the HOP (HFB_XRAY_PROT). One status bit is set to ‘high’. The error code is stored in the error buffer and the set will go into the protection mode

• Flash detection. From the EHT-info, via D6303 and T7303 a flash will stop the H-drive and line output stage immediately. The FLS-bit in the status register of the HOP is set to ‘high’. As the duration of a flash is very short the FLS-bit will be reset to ‘low’ again after the flash refresh, so via a slow start the set will be started again.

5.8.1 General

RESET

PAINTER

STANDBY-POR

IF NOT POR: ERROR 5 IS GENERATED

(OUT)

STANDBY INFO

(TEMPORARELY LOW THEN HIGH LIKE STARTING A CAR)

MAIN SUPPLY

NON-VFB

7308

7013

BRIDGE-PROT

I2C-bus

STANDBY-POR

STANDBY

POR-bit

7324

5V STANDBY

START/

STOP

START/

STOP

DEFL.

HOP

Figure 5-7

The start-up of the set is very different as of other sets (see fig. 5-7 & 5-8):

1. When the set is switched ‘ON’, first the HOP is placed in 'low power start-up' mode (HOP-standby-mode). This means that 5 V (derived from available Standby-supply) is connected to pin 22 of the HOP-IC.

2. Now the HOP is driving the line-circuitry with 50 kHz pulses. At the base of the line-transistor this is sensed via the 'STANDBY’-line.

3. This signal triggers the Main supply to operate. Now the line-stage has 'BAT'-voltage (141 V), it will also start.

4. After the 5 and 8 V-supply lines are sensed by the Painter

C), it will read the POR-bit from the HOP via the

(via I I2C-bus.

5. Now the HOP is switched in ‘ON’-mode and the set will start-up further with normal drive (31.25 kHz for PAL).

6. The last step will be the unblanking of the picture.

So standby is not controlled via a standby-line from microprocessor, but is achieved indirectly via the HOPcircuitry.

OUT

4429

CUT OFF

7306

CL 06532111_056.eps

HOTCOLD

121000

Hardware related protections

Due to the architecture (with 'hot' deflection) there are two protections that are 'unknown' to the microprocessor, namely the 'BRIDGE_PROT' (coming from the line stage) and the 'DEFL_PROT' protection (coming from the frame deflection stage). If one of these protections is triggered, the set is

Fault finding and repair tips

off

Standby supply starts oscillating

GB 23EM1A 5.

Standby-supply is running; +3.3V, +5V2 ready

'Standby-info' = high; µP has been reset by POR

Degaussing is activated automatically and should

be acivated after 12 seconds

Standby bit set in NVM?

yes

'Standby-info' remains

Initialize I/O pins of the OTC

Make 'Standby-info' low

Supply is in standby-mode

Mute

5V2 present on the HOP. HOP starts in low power start up mode

Deflection starts on 50kHz; +5V and +8V become present

+5V and +8V levels can be detected by the Painter. Vcc of the HOP is present.

Activate protection for +8V and +5V

Low_power_standby High_power_standby

high

Main_power_on

Standby high Go to protection Error code 05 'HOP POR not successfull'

Wait 1500ms and reset MSP

(Sound-IC)

read POR bit from the HOP

POR available within 1 second ?

yes

Put 'Standby-INFO' high again

Give HOP_start_commando within 23.5 ms after a

POR is obtained from the HOP

DISABLE I2C while EHT is starting up: 250ms

Activate I2C protection. Set protection algorithms active for

I2C, +5V, +8V, HFB, FBX

Initialize I2C IC's

From here onwards, I2C communication is possible

HOP_on

Set Black Current Stabilisation = Active

Figure 5-8

CL 06532130_021.eps

171000

GB 24 EM1A5.

• Notice that a very big part of the set (Large Signal Panel) is 'hot', meaning the primary part of the Standby supply, the whole Main supply (except for the secondary Audio supply) and the complete deflection circuit. So notice

that the deflection-coil is hot!

• This set does not have an IR transmitting-LED. In its place, a Service (ComPair) connector is implemented at the rear of the set, which is directly accessible. In addition to this, there is a blinking LED procedure to show the contents of the error buffer.

• The relay you hear during switching 'ON' (via the main switch) is from the degaussing-circuitry. So it is not used for switching the supply as in the MG-chassis.

• When there is a menu in the picture, entry of servicemodes cannot be performed. So see to it that there is no menu on the picture.

5.8.2 Repair tips

'Repair-tips how to repair the Main power supply:

• Simplest way is to replace components of the Main supply with repair kit (3122 785 90260)

• More detailed way: – Replace FET 7504 and zener 6505 – Remove SSB-panel – Short-circuit BE of TS7529 in order to put supply in

‘on’-mode (TS7529 is blocking then)

– Load capacitor C2515 (VBAT) with a load of 500

ohm. Supply can not work without a minimum load.

– Use a variac to slowly increase the VMAINS.

Measure over sensing-resistors R3514/15 whether a nice sawtooth-voltage becomes available. Also measure the VBAT-output

– VBAT may never exceed 141 V. If so there is

something wrong in the feedback-circuitry (e.g. regulator 7506)

Fault finding and repair tips

Repair-tips how to repair the Standby power supply:

• Simplest way is to replace components of the Standby supply with repair kit (3122 785 90270)

Repair-tips how to repair the Deflection-circuitry:

• Simplest way is to replace components of the Deflectioncircuitry with repair kit (3122 785 90120)

Service-tips:

• Be careful measuring on gate of FET 7504. Circuitry is very high ohmic and can easily be damaged.

• Take care not to touch ‘hot’ heatsink while disconnecting SSB, despite the fact that mains cord is out of mains socket. There still is an annoying rest-voltage for a short while.

• Do not try to measure on side of SSB directed to the hot heatsink. This is dangerous. All service test points are guided to the Tuner side and are pointed out by service printing. Where the circuitry was too crowded to place this service-printing it has been explained on the Test point overviews in this manual

Fault finding and repair tips

Phenomenon Possible Cause Repair tip

No picture, no LED. Standby Supply defective. Measure circuitry (see diagram A2). Start at test-point P16.

No picture, red LED (high intensity). Despite expectation, the set should be ON (this looks like Standby). After some

There are 2 protections (which are not ’seen’ by the processor) that force the set in protection (after 5 restart attempts): BRIDGE_PROT or MAINS DIP

error. time LED will start blinking. Set going into protection after 5 restarts (error 7), taking about 30 - 60 s. No picture, red LED blinking (3 Hz)

180 V missing on CRT-panel

(diagr. F). Most probably R3341

is interrupted, or RGB-amplifier

IC7307 is defective.

Set is in protection due to

various causes. For error codes

see error code list.

No picture, red LED blinking (code 6, 6, 6)

No communication on I2C1-bus

(’devices’ bus) to processor. Set

is in protection-mode No picture, red LED blinking (code 10, 10,

10) No picture, no sound, set is making audible squeaking sound

No picture, no sound,

No communication on I2C3-bus

(’NVM’ bus) to processor. Set is

in protection-mode

Supply could be in hiccup-mode

which can be heard via supply-

transformer squeaking

Supply does not work correctly If e.g. V LED works fine No RC5-reception. Red LED does not

Processor-circuitry or RC-

receiver is wrong. echo RC-commands. Relay-activation

Processor not working correctly. Check RESET-circuitry on diagram B5. When switching on the set all I/o(degaussing) not audible when switch set on from off . No sound, but picture. Measure P7 on diagram A1.

Possible sound-amplifier is

defect (but not short-circuited),

or sound-enable line is high

(see diagram A5).

Further the audio-signal path

must be measured (HIP, MSP,

switch-IC s, amplifier). No sound at headphone output.

Discrete amplifiers or supply to

it could be damaged. Picture is rotated. Rotation-circuitry or supply to it

could be damaged (if present). No picture. Check functionality and cabling

Tuner to SSB. Picture looks like cushion, further OK

Or NVM-content is overwritten

or E/W-MOSFET is short-

circuited Very white picture,

180 V is missing on CRT-panel Probably R3468 on LSP (diagram A3) is interrupted, or bad connection with flyback lines visible Un-sharp picture Focus could be misaligned or

SCAVEM-circuitry does not

work correctly Un-synced picture Sync is derived in HIP-IC from

X-tals 1309 and/or 1310 Picture distorted. Check video-path, service

default mode.

No menu, OSD. Probably processor is defective. Measure test points C7, C8, C9, C10 on diagram B7.

Regardless the mode of the set, this voltage should always be available. If protection is activated due to an absence of the Frame deflection, this can be measured on test-point F10 (diagr. A4). Error 33 will be generated. The BRIDGE_PROT could be triggered by an E/W failure. An MAINS_DIP error (error 7) will be generated in both cases after 5 restart attempts, and will be visible via the blinking LED procedure.

ComPair is very useful here.

Measure 180 V behind R3341 (diagr. F) while operating, or measure resistance of R3341 while set is of.

You have no picture, so: Read out the error buffer via ComPair. Read out blinking LED information via ’DIAGNOSE X’ with DST. When error is known, check circuitry related to supply voltage and I communication. Measure, dependent of the error, on the I2C-bus which device is loading the bus. This protection can be overruled via SDM-entry (via shortcircuiting FRONT_DETECT to GND on Side I/O). No contact of processor with the NVM. A lot of settings will therefore be wrong.

This could be caused by: Short-circuited V Short-circuited sound-winding (amplifier is short-circuiting 28 V) or Short-circuited D6514 (due to a too high V Delete excessive load to see where failure is caused by or check feed

(caused by short circuited line transistor 7421) or

BAT

back circuit. See repair-tip main power supply (supply needs a minimal load).

is only about 90 V, regulator-IC 7506 could be damaged.

BAT

In case set reacts on local keyboard operation, error must be found in the IR-receiver circuitry (diagram J).

pins of processor should become high for a moment, so also the degaussinput signal.

Measure and repair. With ComPair there is a beep-test that can determine where the signal stops (use loudspeakers, headphone).

Measure A12, A13, A14, A15 and supply-line on diagram A6.

Measure test-points F3, R1, R2 on diagram A4.

Notice cable 1946.

First check in Service Alignment Mode, whether geometry can be restored. If not check test point L4 and diagram A3, or measure with an ohmmeter whether TS7480 is defective.

plug 0324 to 0224 (CRT-panel).

Align focus-potmeter of Line Transformer; check SCAVEM-circuitry on CRT-panel [F].

Maybe an X-tal is making bad contact.

Investigate whether there exists an error code in the error buffer. In case there is an error code, check I

C-bus and/or supply-lines (see overview supply-lines). Measure and check signal path Tuner, HIP, PICNIC, HOP, RGB-amplifier. In case it is a geometry-issue, check Frame-circuitry, alignments or possible corrupted NVM (7012)

GB 25EM1A 5.

C -

CL 06532111_057.EPS

121000

GB 26 EM1A5.

Personal notes:

Fault finding and repair tips

8. Alignments

Note: The Service Default Mode (SDM) and Service Alignment Mode (SAM) are described in chapter 5.

8.1 General alignment conditions

All electrical adjustments should be performed under the following conditions:

• Supply voltage: 110 / 220 V (± 10 %); 50 / 60 Hz (± 5 %)

• Warm-up time: ≈ 20 minutes

• The voltages and oscillograms are measured in relation

to the tuner earth (with exception to the voltages on the primary side of the power supply). Never use the cooling fins / plates as ground.

• Test probe: Ri > 10 MΩ; Ci < 2.5 pF.

• Use an isolated trimmer / screwdriver for the alignments.

Alignments

0V Ref.

8.2.2 Focusing

max.

CUTOFF

Figure 8-2

[VDC]

GB 77EM1A 8.

CL 06532130_014.eps

131000

8.2 Alignments on the large signal panel (LSP)

Large Signal panel (LSP)

Warning

All alignments are on hot-part !

SSB

LOT

Focus 1 Focus 1 Screen

H.AMPL

3603 36093480

V.AMPL

V.SHIFT

CL 06532130_013.eps

031000

TUNER

CINCH

Figure 8-1

8.2.1 Vg2 adjustment

Rough method

Using a pattern generator displaying a black pattern (PAL BG, 475.25 MHz), adjust the Vg2 potmeter of LOT (item

5430) to obtain normal picture (without visible fly-back lines).

1. Tune the set to a circle or crosshatch test pattern (use an external video pattern generator).

2. Adjust the 1st Focus potmeter (upper LOT potmeter, see figure 8-1) until the horizontal and vertical lines at 1/4 from east and west, at the height of the centre line, are of minimum width without visible haze.

3. Adjust the 2nd Focus potmeter (middle LOT potmeter, see figure 8-1) until the horizontal and vertical lines at 1/ 4 from north and south, at the height of the centre line, are of minimum width without visible haze.

8.3 Alignments and settings in the Service Alignment Menu

8.3.1 General

With the software alignments of the Service Alignment Mode the Geometry, White tone and Tuner (IF)can be aligned. Put the set in the SAM mode (see chapter 5). The SAM menu will now appear on the screen. Menu navigation is done with the 'CURSOR UP, DOWN, LEFT or RIGHT' keys of the RC-handset.

8.3.2 Geometry

The geometry alignments menu contains several items to align the set, in order to obtain a correct picture geometry.

East/West Trapezium

Accurate method

1. Connect the RF output of the pattern generator to the antenna-input of the TV. Test pattern is a 'black' pattern (blank screen on CRT without any OSD info).

2. Set the channel of the oscilloscope to 50 V/div and the time base to 5 ms. Select 'external triggering' on the vertical pulse (anode of diode 6619, located near connector 0325 to frame deflection coil).

3. Measure the black level pulse during the vertical flyback (1st full line after the frame blanking) at the R, G and B cathodes of the CRT (pin 8, 6 and 11 of the CRT connector). Select the cathode with the highest V

value for the measurement.

4. Adjust Vcutoff with the Vg2 (SCREEN) potmeter of the LOT to 170 ± 2 V

East/West Parabola

Horizontal Bow

Figure 8-3

CL 96532156_012.eps

250100

GB 78 EM1A8.

Alignments

Initial set-up

1. Connect an external video pattern generator (PAL BG,

475.25 MHz) to the aerial input of the TV-set with a crosshatch test pattern.

2. Set 'Smart Picture' to NATURAL.

3. Activate the SAM-menu (see chapter 5).

4. Go to sub-menu GEOMETRY. Now the following alignments can be performed:

Vertical slope (VER. SLOPE)

Align the vertical centre of the picture to the vertical centre of the CRT.This is the first alignment to be performed of the vertical alignments. For an easy alignment set SERV.BLK to ON.

Service blanking (SERV. BLK)

Switch the blanking of the lower half of the screen ON/OFF (to be used in combination with the vertical slope alignment).

Vertical amplitude alignment

Align the vertical amplitude with potentiometer R3603 on the LSP (see Fig. 8-1) so that the complete test pattern is visible.

Vertical shift alignment

Align the vertical centering with potentiometer R3609 on the LSP (see Fig. 8-1) so that the test pattern is located vertically in the middle. Repeat the 'vertical amplitude' alignment if necessary.

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

471.18 MHz and 471.31 MHz, you don't need to re-adjust the IF-AFC.

5. If not, adjust the frequency in the 'Fine tune' line to

471.25 MHz and store the program by leaving the menu (this is very important because this will disable the AFC algorythm).

6. Now go to the SAM and select 'Alignments' - 'General' 'IF AFC'.

7. First you must align the 'IF AFC'-parameter such that you come into the AFC-window (AFA = 1)

8. Then you must look for the point where the AFBparameter changes from 1 to 0. This level is the value you are looking for.

9. After adjustment store the value by returning to the former menu.

10. Now return to the 'Installation' menu.

11. Select 'Manual Installation' - 'Search' - '47' - 'OK' and store it. This will set the AFC 'on' again.

12. During the 'IF PLL'-parameter adjustment, one can see feedback at the screen, by means of the 'AFA' and 'AFB' indication (see table).

AFA AFB IF-PLL offset 0 0 Decrease offset value 0 1 Increase off-set value 10Correct 11Correct

Horizontal shift (HOR. SHIFT)

Align the horizontal centre of the picture to the horizontal centre of the CRT.

Horizontal bow (HOR. BOW)

Align straight horizontal lines in the top and the bottom; horizontal rotation around the centre.

Horizontal parallelogram (HOR. PARALLEL)

Align straight vertical lines in the top and the bottom; vertical rotation around the centre.

East West width (EW. WIDTH)

Align the picture width until the complete test pattern is visible.

East West parabola (EW. PARA)

Align straight vertical lines at the sides of the screen.

East West Trapezium (EW. TRAP)

Align straight vertical lines in the middle of the screen.

East West Upper Corner (EW. UCORN)

Align straight vertical lines in the upper corners of the screen.

East West Lower Corner (EW. LCORN)

Align straight vertical lines in the lower corners of the screen.

8.3.3 Tuner (Large Signal Panel and Double Window)

AGC

Set pattern generator (e.g. PM5418) to a colour bar video signal and connect the RF output to aerial input. Set amplitude to at least 1 mV and set frequency for PAL-BG to

471.25 MHz.

1. Activate the SAM-menu. Go to the sub-menu TUNER, and select the 'AGC' sub-menu.

2. Connect a DC multi-meter to pin 1 of the tuner (item 1200 on LSP).

3. Adjust the AGC until the voltage at pin 1 of the Tuner is just below 3.8 V.

4. The value can be incremented or decremented by pressing the MENU LEFT/RIGHT button on the RC.

5. Switch the set to STANDBY.

2ND AGC

Set pattern generator (e.g. PM5418) to a colour bar video signal and connect the RF output to aerial input. Set amplitude to at least 1 mV and set frequency for PAL-BG to

471.25 MHz.

1. Activate the SAM-menu. Go to the sub-menu TUNER, and select the '2nd AGC' sub-menu.

2. Connect a DC multi-meter to pin 1 of the tuner (7201 on DW panel).

3. Adjust the 2nd AGC until the voltage at pin 1 of the Tuner is just below 3.8 V.

4. The value can be incremented or decremented by pressing the MENU LEFT/RIGHT button on the RC.

5. Switch the set to STANDBY.

Note: Described alignments are only necessary when HIP or NVM is changed.

IF PLL OFFSET

Supply, via a video generator (e.g. PM5518), a TV-signal (e.g. colour bar) with a signal-strength of at least 1 mV and a frequency of 471.25 MHz (use BG if possible, otherwise match the system of your generator with the received signal in the set). Alignment procedure:

1. Go to the 'Installation' menu.

2. Select 'Manual installation'.

3. Tune the TV-set to the system and frequency described above via 'Search' - '471' - 'OK'.

8.3.4 Black cut off

In the WHITE TONE sub menu, the values of the black cut off level can be adjusted. The colour temperature mode (NORMAL, DELTA COOL, DELTA WARM) or the colour (R, G, B) can be selected with the UP/DOWN RIGHT/LEFT cursor keys. The value can be changed with the RIGHT/ LEFT cursor keys. First the values for the NORMAL colour temperature should be selected. Then the offset values for the DELTA COOL and DELTA WARM mode can be selected (note that the alignment values are non-linear).

• +1 to +63 represent a positive offset (63 is the maximum positive offset).

Alignments

GB 79EM1A 8.

• -63 to -1 represent a negative offset (-63 is the minimum negative offset).

1. Set pattern generator (e.g. PM5418) to a white spot (chess board) pattern and connect RF output with aerial input. Set amplitude to 1 mV and set frequency for PALBG to 475.25 MHz.

2. Set CONTRAST to the maximum value (99).

3. NORMAL settings

– NORMAL RED = 32 – NORMAL GREEN = 32 – NORMAL BLUE =32

4. COOL settings

– DELTA COOL RED = -3 – DELTA COOL GREEN = 0 – DELTA COOL BLUE = 3

5. WARM settings

– DELTA WARM RED = 4 – DELTA WARM GREEN = 0 – DELTA WARM BLUE = -8

6. CUT OFF (default) settings

– BLACK LEVEL R = 7 – BLACK LEVEL G = 7

7. Measure with a colour analyser (calibrated with the spectra) on the centre of a white square on the screen. Adjust the values of BLACK LEVEL R and BLACK LEVEL G to get the right XY-coordinates for Tint = Normal (see table 8-1).

Note: When there is no colour analyser available, use the default settings mentioned above.

8.4 Options

8.4.1 Options

Options are used to control the presence / absence of certain features and hardware. There are two ways to change the option settings (see also fig. 8-3):

Changing a single option

An option can be selected with the MENU UP/DOWN keys and its setting can be changed with the MENU LEFT/RIGHT keys. Changes in the option settings are saved by leaving the OPTION submenu. Some changes will only take affect after the set has been switched OFF and ON with the mains switch (cold start).

Changing multiple options by changing option byte values

Changing the option bytes directly, makes it possible to set all options very fast. An option byte (OB1..8) can be selected with the MENU UP/DOWN keys and its setting can be changed with the MENU LEFT/RIGHT keys. An option byte represents a number of different options. All options of the EM1A are controlled via 8 option bytes. Select the option byte (OB1..OB8) and key in the new value. Changes in the option byte settings are saved by leaving the OPTION submenu. Some changes will only take affect after the set has been switched OFF and ON with the mains switch (cold start).

8.3.5 Light output

In the WHITE TONE sub menu, also the light output of the CRT can be adjusted. In this case a colour analyser is necessary.

1. Set pattern generator (e.g. PM5418) to a white spot pattern and connect RF output to aerial input. Set amplitude to 1 mV and set frequency for PAL-BG to

475.25 MHz.

2. Set CONTRAST to the maximum value (99).

3. Measure with a colour analyser (calibrated with the spectra) on the centre of the white square on the screen. Adjust the level of NORMAL RED, NORMAL GREEN and NORMAL BLUE in a simultaneous way to get the 360 cd light output.

8.3.6 White drive

In the WHITE TONE sub menu, the values of the WHITE DRIVE level can be adjusted. The colour temperature mode (NORMAL, DELTA COOL, DELTA WARM) or the colour (R, G, B) can be selected with the UP/DOWN RIGHT/LEFT cursor keys. The value can be changed with the RIGHT/ LEFT cursor keys.

1. Set pattern generator (e.g. PM5418) to a white spot pattern and connect RF output to aerial input. Set amplitude to 1 mV

475.25 MHz.

2. Set CONTRAST to the maximum value (99).

3. Measure with a colour analyser (calibrated with the spectra) on the centre of the white square on the screen. Adjust the level of NORMAL BLUE and NORMAL RED to get the right XY-coordinates. See table 8-1.

and set frequency for PAL-BG to

RMS

Option bits/bytes

An option byte value is calculated in the following way: Value 'option bit 1' x 1 = Value 'option bit 2' x 2 = Value 'option bit 3' x 4 = Value 'option bit 4' x 8 = Value 'option bit 5' x 16 = Value 'option bit 6' x 32 = Value 'option bit 7' x 64 = Value 'option bit 8' x 128 = ======================== Total: value 'option byte' =

2 Software versions are used: 1A1 and 2A1/2A2. Below find, in table 8-2 and 8-3, the option definition for both versions (for an explanation of the SW-version versus country code see table in chapter 5.2.2, page 16).

Table 8-1

Tint Temperature (K) X Y Warm 8700 289 299 Normal 13500 266 274 Cool 18300 256 264

GB 80 EM1A8.

Alignments

Option table (version 1A1):

Table 8-2

Byte Bit Abbr. Feature Description (OFF = 0, ON = 1) OB1 1 AUSB Auto Standby After 2hrs OFF = function disabled / ON= function enabled OB1 2 AV3 Side AV source OFF = side AV source not available / ON = available OB1 3 HOSP Hospitality mode OFF = hospital mode disabled / ON = enabled OB1 4 E149 Picture setting for expand 14:9 OFF = not available in FORMAT menu / ON = available OB1 5 C169 Pict. setting for compress 16:9 OFF = not available in FORMAT menu / ON = available OB1 6 CVI External source selection for PIP OFF = disabled / ON = enabled OB1 7 SBNP Auto Standby with no picture OFF = no switch to stdby / ON= switch to stdby after 10m. when no ident OB1 8 ASBY Auto Standby After 2 hours OFF = disabled / ON = active after 2 hrs of no RC or keyboard response OB2 1 PIPC PIP Control OFF = disabled / ON = enabled OB2 2 BLMU Blue Mute OFF = disabled / ON = enabled OB2 3 SOSD Smart OSD OFF = full display of OSD not available / ON = available OB2 4 PLST Program List OFF = access to Command is ignored / ON = access is processed OB2 5 PITN Philips tuner OFF = ALPS compatible tuner used / ON= Philips compatible tuner used OB2 6 VDBY Virtual Dolby OFF = Virtual Dolby not available / ON = Virtual Dolby is available OB2 7 IPMU Incredible picture via menu OFF = menu item 'INCR. PICT' not available / ON = available OB2 8 CBFL Comb filter OFF = no comb filter on the SSB / ON = comb filter present on the SSB OB3 1 SURF Surf OFF = disabled / ON = enabled OB3 2 CHNA China set OFF = disabled / ON = enabled OB3 3 VSLC Vertical slicing OFF = disabled / ON = enabled OB3 4 W169 Double Window 16:9 OFF = disabled / ON = enabled OB3 5 W4X3 Double Window 4:3 OFF = disabled / ON = enabled OB3 6 PIPF PIP Functionality OFF = disabled / ON = enabled OB3 7 PIPT PIP Tuner OFF = disabled / ON = enabled OB3 8 PIPS PIP Surf OFF = disabled / ON = enabled OB4 1 APC Auto Picture Control OFF = Time Window is set to 2 s. / ON = Time window is set to 5 s. OB4 2 INCF Internal Combfilter OFF = disabled / ON = enabled OB4 3 TMWIN Time Window OFF = Time Window is set to 2 s. / ON = Time window is set to 5 s. OB4 4 SNIC Sound IC MSP3451 OFF = sound IC MSP3451 not present / ON = present OB4 5 ROTI Rotation tilt OFF = menu item 'ROTATION' not available / ON = available OB4 6 CHLK Child Lock OFF = function disabled / ON = enabled OB4 7 AAVL Automatic Volume Leveller OFF = menu item 'AVL' not available / ON = menu item available OB4 8 TIME Timer OFF = disabled / ON = enabled OB5 1 N/A (RESERVED) N/A OB5 2 N/A (RESERVED) N/A OB5 3 N/A (RESERVED) N/A OB5 4 N/A (RESERVED) N/A OB5 5 N/A (RESERVED) N/A OB5 6 N/A (RESERVED) N/A OB5 7 N/A (RESERVED) N/A OB5 8 PAGC PICNIC AGC OFF = disabled / ON = enabled OB6 1..8 N/A (RESERVED) N/A OB7 1..8 N/A (RESERVED) N/A OB8 1..8 N/A (RESERVED) N/A

Alignments

GB 81EM1A 8.

Option table (version 2A1 / 2A2):

Table 8-3

Byte Bit Abbr. Feature Description (OFF = 0, ON = 1) OB1 1 AV3 Side AV source OFF = side AV source not available / ON = available OB1 2 SMCK Smart clock OFF = function disabled / ON= function enabled OB1 3 HOSP Hospitality mode OFF = hospital mode disabled / ON = enabled OB1 4 E149 Picture setting for expand 14:9 OFF = not available in FORMAT menu / ON = available OB1 5 C169 Pict. setting for compress 16:9 OFF = not available in FORMAT menu / ON = available OB1 6 CVI External source selection for PIP OFF = function disabled / ON= function enabled OB1 7 SBNP Auto Standby with no picture OFF = no switch to stdby / ON= switch to stdby after 10m. when no ident OB1 8 ASBY Auto Standby After 2 hours OFF = disabled / ON = active after 2 hrs of no RC or keyboard response OB2 1 SOSD Smart OSD OFF = full display of OSD not available / ON = available OB2 2 PLST Program List OFF = access to Command is ignored / ON = access is processed OB2 3 PITN Philips tuner OFF = ALPS compatible tuner used / ON= Philips compatible tuner used OB2 4 VDBY Virtual Dolby OFF = Virtual Dolby not available / ON = Virtual Dolby is available OB2 5 NTSC NTSC playback OFF = not possible via EXT-in / ON= function enabled OB2 6 IPMU Incredible picture via menu OFF = menu item 'INCR. PICT' not available / ON = available OB2 7 CBFL Comb filter OFF = no comb filter on the SSB / ON = comb filter present on the SSB OB2 8 AUSB Auto Standby auto on OFF = function disabled / ON= function enabled OB3 1 W4X3 Double Window 4:3 OFF = function disabled / ON= function enabled OB3 2 ISUR Incredible Surround OFF = function disabled / ON= function enabled OB3 3 PIPF PIP Functionality OFF = function disabled / ON= function enabled OB3 4 PIPT PIP Tuner OFF = function disabled / ON= function enabled OB3 5 PIPS PIP Surf OFF = function disabled / ON= function enabled OB2 6 PIPC PIP Control OFF = function disabled / ON= function enabled OB3 7 BLMU Blue Mute OFF = function disabled / ON= function enabled OB3 8 FAPG Favorite page OFF = function disabled / ON= function enabled OB4 1 CHLK Child Lock OFF = function disabled / ON= function enabled OB4 2 AAVL Automatic Volume Leveller OFF = menu item 'AVL' not available / ON = menu item available OB4 3 TIME Timer OFF = function disabled / ON= function enabled OB4 4 DTXT Double window TXT OFF = function disabled / ON= function enabled OB4 5 TXT Teletext available OFF = function disabled / ON= function enabled OB4 6 SURF Surf OFF = function disabled / ON= function enabled OB4 7 VSLC Vertical slicing OFF = function disabled / ON= function enabled OB4 8 W169 Double Window 16:9 OFF = function disabled / ON= function enabled OB5 1 N/A (RESERVED) N/A OB5 2 N/A (RESERVED) N/A OB5 3 APC Auto Picture Control OFF = disabled / ON = enabled OB5 4 PAGC PICNIC AGC OFF = disabled / ON = enabled OB5 5 INCF Selection colour delay line OFF = disabled / ON = enabled OB5 6 TMWIN Time Window OFF = Time Window is set to 2 s. / ON = Time window is set to 5 s. OB5 7 SNIC Sound IC MSP3451 OFF = sound IC MSP3451 not present / ON = present OB5 8 ROTI Rotation tilt OFF = menu item 'ROTATION' not available / ON = available OB6 1..8 N/A (RESERVED) N/A OB7 1..8 N/A (RESERVED) N/A OB8 1..8 N/A (RESERVED) N/A

GB 82 EM1A9.

Circuit descriptions and abbreviation list

9. Circuit descriptions and abbreviation list

9.1 Circuit descriptions

The following circuits are described:

1. Introduction

2. Block diagrams

3. Power supply

4. Control & Teletext

5. Tuner & IF

6. Video: High-end Input Processor

7. Video: Feature box

8. Video: High-end Output Processor

9. Synchronisation

10. Horizontal deflection

11. Vertical deflection

12. Audio

13. CRT & SCAVEM

14. Double Window (DW)

9.1.1 Introduction

The EM1A is a lower specified MG-chassis. EM stands for Eco-MG, 1 for the used processor (Painter) and A stands for Asian Pacific. The user interface and processor are the same as used in the A10A set. In the EM1A however, a HIP, PICNIC and HOP are used for the 100 Hz function i.s.o. the BOCMA in the A10A. So the HIP and HOP have the same functionality as the BOCMA (to let the set work in 2fH-mode), while the PICNIC is used for video features like AutoTV and Freeze.

The architecture consists of a conventional Large Signal Panel (LSP) a Double Window panel (DW) and a Small Signal Board (SSB) module, placed into a so-called SIMMconnector (Standard Interface, 80 pins).

The LSP is built up very conventional, with hardly any surface mounted components on the copper side. Difference with the MG-chassis is that the EM1A LSP has a very large 'hot' part, including the deflection coil.

The SSB is a high tech module (2 sides reflow technology, full SMC) with very high component density and complete shielding for EMC-reasons. Despite this, it is designed in such a way, that repair on component level will be possible. To achieve this, attention has been paid to:

• The position of service test lands (Tuner side).

• Accessibility (Tuner side).

• Clearance around surface mounted IC's (for replacing).

• Diagnostics & Fault Finding via ComPair.

Warning: Be aware that half of the LSP-circuitry is 'hot', including the deflection coil.

Protection: The start-up behaviour of the EM1A is different then that of the MG-chassis, meaning that there does not exist a situation as in the MG where we have 'supply ON/ deflection circuit OFF'. This means that isolating failures in the EM1A must be done in a different way. See Chapter 5 of this manual.

9.1.2 Block diagrams

PIP/DW MODULE

TUNER

SPLITTER

PIP/DW

VIDEO-EXT

EXT

AUDIO-EXT

I/O

MONITOR-OUT (A+V)

TOP

CONTROL

REC.

POWER

SUPPLY

LOW

POWER

STBY

EHT

180V

141V

28V

ETC.

5V2

MULTI

VOLTAGE

FILTER

TUNER

FBL

VIF SIF

BOCMA

FILTER

COMB

FILTER

YUV

VIF

SIF

PROC.

YUV50AUDIO-PIP

HIP

CVBS-TEXT

(V)

AUDIO-PIP

AUDIO-EXT

(A) MONITOR-OUT

PICNIC (FBX)PAINTER

SIF

MSP

PROZONIC

YUV VD

VD100

HD100

FBL-TEXT RGB-TEXT

NVM

TXT

RAM

AMPL

VDHOP

HOP

S/W

VERT

E/W

CRT

SCAVEM

HOR

E/W

R G

SCAVEM

CRT

POWER ON/OFF

MAINS

Figure 9-1

CL 06532130_019.eps

131000

Circuit descriptions and abbreviation list

GB 83EM1A 9.

The tuner type is a PLL tuner and delivers the IF-signal, via audio & video SAW-filters, to the HIP (High-end Input Processor). The HIP has the following functions:

• IF modulation.

• Video source- and record select.

• Colour decoder.

• Synchronisation.

Two EXT-connectors can be used: AV1 is fully equipped and AV2 is meant for VCR. There is also a possibility for Y/C in. The MON-out can be used for WYSIWYR (What You See Is What You Record).

The HIP delivers the signal to the PICNIC. This IC takes care of:

• Analogue to Digital conversion and vice versa.

• 50 to 100 Hz conversion.

• Panorama mode.

• Noise reduction.

• Dynamic contrast.

Digital Scan

For

the PROZONIC is required, which can be

connected to the PICNIC.

After the PICNIC the, now doubled, YUV- and H/V-signals are fed to the HOP (High-end Output Processor). This IC handles the video control and geometry part. The RGBsignals from TXT/OSD are also inserted via the HOP. The video part delivers the RGB signals to the CRT-panel and the geometry part delivers the H-drive, V-drive and also a drivesignal for rotation (as a variable DC-level on the V-drive signal).

Both deflection circuits are 'hot' and located on the LSP and are driven by the HOP. To make the galvanic separation, the line drive is driven via transformer 5410 and the framedrive via optocoupler 7610.The horizontal output stage generates some supply voltages, the EHT-, focus- and Vg2-voltages.

The RGB amplifiers on the CRT-panel are integrated in one IC and are supplied with 180 V from the LOT. The SCAVEM circuit modulates transitions of the Luminance (Y) signal on the horizontal deflection current, giving a sharper picture.

The sound part is built around the MSP34xx (Multichannel Sound Processor) for IF sound detection, sound control and source selection. Amplification is done via an integrated power amplifier IC, the TDA2616.

The microprocessor, called Painter (OSD, Teletext and Control) takes care of the analogue TXT input- and output processing. The Painter processor and RAM (if present) are supplied with 3.3 V, which is derived from the +5VSTANDBY. The NVM (Non Volatile Memory) is used to store the settings, the Painter is an OTP (One Time Programmable) chip with programmed ROM-code and the (optional) DRAM is used for storing the Teletext pages.

In the EM1A there is a separate Standby Supply in order to reduce the Standby power consumption. During Standby, the Main Supply is switched off (via TS7529). A relay is used to switch the Degaussing circuit. The Main Supply, a SOPS supply based on the 'downconverter' principle, generates the 141 V (VBAT) and the 28 V for the audio part. Difference with former MG-sets is that VBAT is not mains isolated ('hot') and is alignment free.

• Mains filter

• Degaussing picture tube

• Standby power supply

• Main supply

Mains filter (diagram A1)

1501

3521 4M7

3509

2507

0001

14 23

5503

3500

1R5

6501

6502

6503

6504

CL 96532156_019.eps

+375V

2510 220µ

GND

180100

3501

Figure 9-2

The mains filter has 2 functions: it prevents high-frequency signals to be transferred into the mains and it protects the set from lightning damage.

C2507 prevents the high-frequency signals, generated by the set, to be conveyed into the mains by short-circuiting them.

In case of a lightning surge between the 2 phases (differential mode) the energy is immediately bled away through the VDR (R3509) to the other phase. In case of a lightning surge on both phases of the mains in relation to the aerial earth, the mains filter acts as a high resistance (UEMK=L * dI/dt) as a result of which the voltage across coil L5503/04 increases. A spark gap (0001) prevents that the voltage increases too much, which would lead to a damaged coil. When ignited, the current will be discharged via this spark gap. The two networks using R3503//0002 and R3502//0003 are also used for lightning protection. They lead the energy of a common-mode lightning surge from the 'cold' to the 'hot' side in case of insertion on the aerial or from the 'hot' to the 'cold' side in case of insertion via the mains-input. Resistor R3500 is used for limiting the inrush-current.

Degaussing picture tube (diagram A1)

After switching 'ON' the set via the mains switch, the DEGAUSS_INPUT signal from the processor (Painter) will be made high, transistor 7528 will conduct and relay 1002 will be activated. Initially a considerable current will flow, via PTC 3516, through the degaussing coil. The PTC will heat up, resistance will rise and the current will decay rapidly. The Painter will switch off the relay after 12 seconds.

Standby power supply (diagram A2)

This power supply is of a SOPS type (Self-Oscillating Power Supply) and is regulated by the controlled switching of an oscillator. It uses the so-called 'Flyback' principle:

375V

Isec

96532156_020.eps

210100

out

9.1.3 Power supply (diagram A1 & A2)

General

The power supply has a number of main functions. These functions are dealt with in succession:

Figure 9-3

• After closing switch 'S', the current ID will increase linear in time. The magnetic energy in the primary coil is directly proportional with the self-inductance of the coil and current ID (thus with the time the switch is closed). The

GB 84 EM1A9.

voltage polarity at the secondary winding is negative (due to different winding direction), meaning that diode D will block. Capacitor C will discharge via RL, UOUT will decrease.

• Opening switch 'S' will generate a counter-e.m.f. in the primary winding, trying to maintain current ID. Through this the polarity of the secondary voltage will inverse. The magnetic energy, stored in the coil, will now be transformed to the secondary side. Diode D will now conduct, capacitor C will be charged and UOUT will increase.

6103

3107

2K2

5102

2102

10µ

3106

2K2

3125 15R

7100

3126 10K

2101 2n2

3103 1K

3102 1K

3117 47R

6105 15V

3127

5K6

+375V

-20V

3120

10R

Circuit descriptions and abbreviation list

HOT COLD

MAIN

PRIM

SEC

6111

6107

ON OFF

t0 t1 t2

3114 220R

SEC

3124 6122

68R 3V9

3101

6M8

GND-STB

MAINS

6106 20V

3110

10R

3104 47R

6108

7101

2114 10n

PRIM

7102

3108 //3118

GND-STB

5101

2104 2µ2

N.Usec

+5V2

OUT

3113

15R

2109

330N

To apply this on the EM1A (diagram A2): replace Switch 'S' by FET TS7102, coil L by L5101, diode D by D6107//D6111 and C by C2104.

Time interval t0 - t1: After switching on the set, the gate of MOSFET TS7102 will be high (max. 15 V due to zenerdiode D6105). This will drive the FET into saturation (UDS = 0 V). The DC-voltage UMAINS will be transposed across the primary winding of L5101 (3, 5) resulting in a linear increasing current through this coil. The voltage across the co-coupled coil (1, 2) is also positive and will keep the FET into conductivity via C2101, R3103, R3105, R3102 and R3117 for some time. The slope of the primary current is determined by the self-induction of the coil and on the magnitude of the supply voltage (+375 V). The maximum current is determined by the time the FET stays into conductance (t0 - t1). This time is directly determined by the voltage across R3108//R3118. This voltage is a measure of the current and if it exceeds 1.4 V, TS7101 will be driven into conductivity and consequently connect the gate of TS7102 to earth; the FET will block. The current will be: 1.4 V/(10//4.7 ohm) = 0.43 A. The voltage across the secondary winding (8, 9) will be negative, diodes D6111 and D6107 will block.

Time interval t1 - t2: The sudden current interruption in the primary coil, will induce a counter-e.m.f. that wants to maintain the current. The voltage on the drain of the FET will increase. The secondary voltage (8, 9) will become positive and will charge

Figure 9-4

7103/04

CL 96532156_021.eps

250100

C2104 via D6107 and D6111. All energy that was stored in L5101 during t0 - t1 will be transferred into the load. Due to the transformer principle, a voltage will now be induced in the primary winding (3, 5) and the co-coupled winding (1, 2). This voltage will be: N * USEC (N = winding ratio). The voltage across the co-coupled coil will be negative, keeping the FET blocked.

Time t2: At t2, the current through the secondary coil will be reduced to zero, as C2104 is no longer charged. As a consequence, the voltages will decay and will change polarity. The gate of the FET will be again made positive, is driven into conductivity and the cycle starts again.

Feedback, stabilisation: The Standby Power Supply always oscillates at maximum power; the only limiting factor is the maximum primary current that has been pre-set with R3108//3118. UOUT is determined by R3114, R3124 and zenerdiode D6122. If the voltage across R3114 exceeds the threshold voltage of the diode of the optocoupler 7104 (±1 V) or, in other words, UOUT exceeds 5.2 V the transistor of the optocoupler will conduct. Transistor TS7100 will be driven and a negative voltage will be transposed to the emitter of TS7101. When TS7101 conducts, the gate of the FET is at earth potential forcing the oscillator stop. Due to the load, the secondary voltage UOUT will decrease. At a certain voltage, optocoupler TS7103/04 will block and the oscillator will start again.

Circuit descriptions and abbreviation list

GB 85EM1A 9.

Since there are no capacitors and there is a high amplification-factor in the feedback circuit, the feedback is ultra-fast. This is why the ripple on UOUT is minimal. The negative supply voltage (-20 V) used in the feedback circuit originates from the co-coupling coil and is rectified through D6103. Stabilisation is not effected through duty-cycle control but through burst-mode of TS7100. Burst-mode is load dependent. If the power supply is less loaded, the secondary voltage will have the tendency to increase more rapidly. If the load on the power supply increases, then the oscillator stops less often, right up to the moment that the oscillator is operating continuously: maximum load. If the power supply is now loaded even more, the output voltage will decay. The maximum load is determined by the maximum primary current set by R3108//

3118.

Protection: If the optocoupler would fail, the secondary voltage will increase. This would have disastrous consequences since many IC's (e.g. Painter, flash-RAM, DRAM) are fed with this

5.2 V. In other words, very expensive repairs would be required. We already know that the negative supply is directly dependent upon the secondary 5.2 V, as a consequence of which the negative supply will increase proportionally as the secondary voltage increases. If the negative supply in the mean time reaches -30 V, D6106 will start to zener and as a consequence TS7101 will start conducting. Basically, D6106 will take over the stabilisation task of the optocoupler, however, with a considerable spread: from -20 V to -30 V is a 50 % increase, thus UOUT will increase from 5.2 V to max. 7.5 V.

Main supply (diagram A1)

Some important notes on beforehand:

is not isolated from the mains supply ('hot').

BAT

is alignment free.

BAT

The Main Power Supply generates the 141 V (VBAT) and the 28 V for the audio part, and is based on the so-called 'down converter' principle.

BAT =

BAT

. δT

060100

Vin

closedSopen

δT

96532156_022.eps

• After closing switch 'S', the linear in time increasing current IT, , will charge capacitor C.

• Opening switch 'S' will generate a counter-e.m.f. in coil L, trying to maintain current IT. This is possible via diode D (this diode is also called 'freewheel diode'). So after opening 'S', the magnetic energy stored in coil L will be transferred to electrostatic energy in capacitor C. The VIN will only supply current during the time that 'S' is closed while a constant current is flowing through RL.

• VBAT is directly proportional with VIN and the time that 'S' is closed and reverse proportional with period time 'T'. So by changing the duty cycle, it will be possible to control VBAT.

R3514

3514 3515

-1.4V

+12V

-0.7V

6506

3504

OFFTOFF

1503

7502

6508

5505

UMAINS 180V i.s.o. 240V

ca 10 µs

3513

7504

3508

6505 15V

5506

2515

6510

3518

15V

120K

3511

3512 68K

BAT

LOAD

COLDHOT

2503

5506

Figure 9-6

At start-up of the main supply, C2515 can be assumed as being a shortcircuit. UAB will be 15 V (R3513, D6510) and UGS of the FET will be +5.4 V (voltage division over R3512 and R3518). The FET will be driven into saturation (same as closing switch 'S' ). The drain-current will increase linear in time. With other words: resistors R3513 and R3518 will start the oscillator. The voltage across the co-coupled coil (4, 5) is also positive and will keep the FET into conductivity.

The drain-current will also flow through R3514//R3515. The voltage on the base of TS7502 will be +0.8 V due to the stabilisation circuit (which is explained further). At increasing current, the emitter-voltage of TS7502 will get more negative. When this voltage reaches -0.7 V, TS7502 will be driven into conductivity and consequently connect the gate of TS7504 to earth; the FET will block (same as opening switch 'S'). The maximum drain-current is: 0.7 V/(R3514//R3515) = 1.4 A. The voltage polarities on L5506 will invert, keeping the gate of TS7504 negative via the co-coupled coil (4, 5). The voltage on the secondary winding of L5506 (7, 8) will be positive, generating the +28 V audio supply voltage via D6507 and C2512.

The sudden current interruption in the primary coil, will induce a counter-e.m.f. that wants to maintain the current via the 'freewheel' diode D6508. This current is linear decreasing in time and as it is also flowing through R3414//R3415, TS7502 will be blocked after a certain time period. The gate of the FET will be again made positive, is driven into conductivity and the cycle starts again.

Stabilisation of VBAT: The output voltage VBAT will be determined by: VBAT = VIN * TON/(TON + TOFF) = VIN * duty-cycle.

1502 6507

CL 96532156_014.eps

2512

210100

(28V)

Figure 9-5

GB 86 EM1A9.

Circuit descriptions and abbreviation list

To stabilise the output voltage, a feedback loop is implemented, which will reduce TON when VBAT increases and vice versa.

Via a voltage divider, excisting of (1 %) resistors R3507, R3510 and R3527, a voltage of 2.5 V (when VBAT = 141 V) is fed to the input of precision shunt regulator 7506. This regulator will conduct, a current will flow through R3524 and TS7505 will be driven into conductivity. The base of TS7502 will now be set at a certain positive voltage. As this transistor switches the FET TS7504 on and off, this circuit can determine the dutycycle.

E.g. when the load increases, VBAT will decrease. As a consequence, the input-voltage of regulator 7506 will decrease, resulting in a lower current. Through that, the emitter-base voltage of TS7505 will diminish. The current through R3504 will decline, changing the basevoltage of TS7502 and through that the TON (will increase) of the FET. The output voltage VBAT will rise. If the load continues to increase, the regulator will block at a certain moment, the collector-current of TS7505 will now be zero. If there flows no current through R3504, TON will now be maximum (IMAX = 1.4 A). This is the point where VBAT will be below 141 V, and at further increasing load will be switched off (The voltage across the co-coupled coil (4, 5) will decrease due to the increasing load. Therefore the voltage on the gate of TS7504 comes below the threshold voltage. The supply switches off and an audible hiccuping can be heard).

On the other hand when the load decreases, VBAT will rise. As a consequence, the input-voltage of 7506 will also rise resulting in a higher current. The current through R3504 will rise, changing the base-voltage of TS7502 and through that the TON (will decrease) of the FET. The output voltage VBAT will be reduced.

If, for instance, VIN will decrease (e.g. UMAINS is 180 V i.s.o. 240 V), the slope of the drain-current will be flattened, through which the FET will be longer into conductance, keeping VOUT constant.

If, for any reason, the stabilisation circuit might fail, the output voltage VBAT can never exceed 200 V (via D6514). D6514 will form a shortcircuit, VBAT will drop and the set will switch off (this will result in an audible hick-uping of the supply).

Set to 'STANDBY" (via RC): When the set is switched to 'STANDBY' via the Remote Control, the Main supply will be switched off. This is done by the circuit around TS7529 (see diagram A1): During 'ON'-state the Main supply is fed with line pulses via the STANDBY line. They are rectified and smoothed via D6517, D6516 and C2530 and fed to TS7529. Because they are less than -20 V, this transistor will be blocked. When these pulses are stopped (STANDBY), TS7529 will be saturated and TS7502 will be switched off. This will switch off the Main supply.

Set to 'ON' (via 'STANDBY'): At the moment the set is switched 'ON', the HOP is not working (as much as possible IC's are made voltageless during 'STANDBY'). Therefore it is impossible that the STANDBY line carries line-pulses, so the main supply cannot start up. This problem is solved via the 'low power start-up' possibility of the HOP. Via pin 22, the HOP receives, via the STANDBY_INFO line from the Painter, a voltage of 5.2 V coming from the Standby supply. The result will be that the HOP will generate pulses with a nominal TOFF and TON growing from 0 to 30 % of the nominal value. This signal is unchanged until the Main supply is switched 'ON' and the HOP the correct I

C-command POR-bit) has

received.

Guarding circuit: The negative pulses on the secondary winding of L5506 are rectified by D6520 and smoothed by C2535. The resulting negative DC-voltage will keep TS7510 blocked, even as TS7511.

When something happens in the Main supply through which these pulses will decrease, the DC-voltage will increase. TS7510 starts to conduct, even as TS7511. Via R3541 and D6522 this situation will be maintained (thyristor principle). The collector of TS7511 drives via R3538 a positive pulse back to the Painter (named STANDBY(POR)). The Painter will now switch off the Main supply via the STANDBY_INFO signal.

SSB

There are 3 voltages used for the SSB: +8 V, +5.2 V and +5 V. +5.2 V is the Standby voltage; it should always be present. The 8 V is derived from the 11D V with stabiliser 7906 (on LSP). This 11D voltage is only present when the line-drive pulses start the deflection. The 8 V is used to switch the +5.2 V with transistor 7905 to supply the +5 V.

9.1.4 Control & Teletext (diagram B7)

Painter

The SAA5667 (IC7001) is called the Painter (OSD, TXT and Control). In this IC, the microprocessor and the TXT-decoder (level 2.5) are integrated. Some of its functions are:

• Set control.

• TXT/OSD acquisition.

• RGB-outputs to the HOP

• Menu blending; for blending the contrast is software

controlled.

• I/O-ports for I2C, RC5, LED, and service modes.

• Error code generation.

The software for EM1A can be 192 kB. For TXT-data 100 pages can be stored in IC7011. The Non Volatile Memory IC7011 is a 4-kb version M24C32.

All ICs in this part are supplied with 3V3. For this voltage a 3V3 stabiliser is used (IC7005). When the 3.3 V is available, a POR is generated with TS7003/7004 to wake up the Painter. During the reset all I/O pins are high. When a POR is generated the TV-set is in Standby mode.

The horizontal (HD100) and vertical (VSYNC) sync pulses are also fed to the Painter for stable OSD and TXT.

Teletext

The TXT-decoder in the Painter gets its video signal directly on pin 31 (from the HIP). The RGB-outputs are available on pins 46/47/48. Fast blanking is realised via pen 52. A separate memory is used to store the TXT information (IC7011).

2222

In the EM1A-chassis with Painter-processor there are two

C-busses used:

• Slow (max. 100 kHz) hardware I used for all IC communication.

• Separate short bus (called I

C-bus (called I2C1),

C3) for the Non Volatile

Memory (NVM) to avoid data corruption.

Circuit descriptions and abbreviation list

GB 87EM1A 9.

NVM

The Non Volatile Memory contains all set related data that must be kept permanently, such as:

• Software identification.

• Operational hours.

• Error-codes.

• Option codes.

• All factory alignments.

• Last Status items for the customer + a complete factory

recall.

• TXT featuring (keeping habit watch data).

9.1.5 Tuner & IF (diagram A7 & B2)

The tuner is I2C-controlled and is capable of receiving off-air, S- (cable) and Hyperband channels: The tuning is done via I2C. The reference voltage on pin 9 is 33 V. This voltage is derived from the 180 V (from the LOT) via 2 resistors of 120 kΩ (diagram F) and a zenerdiode. The Painter together with the HIP controls the tuning procedure. There is also automatic switching for the different video systems.

The IF-filter is integrated in a SAW (Surface Acoustic Wave) filter. The type of this filter is depending of the standard(s) that has to be received. Two SAW filters are used: One for filtering picture-IF and one for filtering sound-IF.

The output of the tuner is controlled via an IF-amplifier with AGC-control. This is a voltage feedback from pin 62 of the HIP to pin 1 of the tuner. AGC take-over point is adjusted via the service alignment mode ’Tuner AGC’. If there is too much noise in the picture, then it could be that the AGC setting is wrong. The AGC-setting could also be mis-aligned if the picture deforms with perfect signal. The IF-amplifier amplifies too much.

The video IF-signal is fed to pins 2 & 3 of the PLL-controlled IF-demodulator. The voltage controlled oscillator of the PLL is adjusted via the service menu ‘IF AFC’. If the alignment is correct then the displayed frequency in the installation menu is the same as the applied frequency from a generator. The external coil L5408 connected between pins 7 & 8 is used as reference. The demodulated IF-video signal is available at pin 10 of the HIP. In this video signal there is a rest of sound carrier, which is filtered by the sound trap 1406 or 1407 (depends on the received standard). Then the signal is fed to the HIP again (pin 12) where the group delay can be corrected, dependent on the standard that is received. On pin 13 the CVBS-signal becomes available which is used for further processing in the TV. Via TS7322 the signal is supplied to AV1 (PIP/DW) and back into the HIP (pin 14) to the I/O selection.

To realise quasi split sound, the IF-signal is fed to the HIP on pin 63 & 64 via SAW-filter 1405. The FM (or AM for L-norm)

-modulated signal is available on pin 5 and is fed to the audio demodulator MSP34xx.

9.1.6 Video: High-end Input Processor (HIP, diagram B2)

In the EM1A the TDA932xH input processor is used, which contains the following functions:

• IF demodulation.

• Group delay correction.

• AFC signal generation, used to track drifting transmitters.

• Sound carrier re-generation (SIF).

• AM demodulation.

• Sync acquisition, delivering HA and VA.

• Switching off IF-filtering.

The HIP has various inputs.

• Full matrix switch with: – 2 CVBS inputs

– 2 Y/C (or additional CVBS) inputs – 1 CVBS front end input

• Two RGB and 1 YUV-input

Outputs: Three separate switchable outputs can be used:

• 1 YUV-output is fed to the PICNIC

• 2 CVBS outputs: One for Teletext Dual Screen and the

other for output to MONITOR OUT to have WYSIWYR (What you see is what you record)

The input signals from the Front I/O are fed to the HIP and front detection is fed to the Painter. AV1 is a CVBS- and a YUV input (e.g. for DVD), while AV2 is meant for CVBS and Y/C (SVHS). The 3rd option is a MONITOR OUT-output.

Video processing

The sandcastle-pulse of the HIP will not be used for synchronisation. The HOP will generate synchronisation signal derived from the feature box (PICNIC) signals. The HIP itself (no external voltage) controls the Y/C switch in the HIP. The chrominance decoder in the HIP is full multistandard: PAL/SECAM/NTSC. Two different crystals can be connected to the pins 54 & 57 without any alignment. The crystals are also used as a reference for the synchronisation. A digital control circuit that is locked to the reference signal of the colour decoder determines the start-up of the sync. This crystal may only be replaced by the original one. If just a crystal is taken, the internal capacitance will be different and the effect will be that there is no colour. In the HIP, a sync separation circuit has been integrated; the HIP delivers the HA and VA (50/60 Hz) to the PICNIC and PIP/DW module. On pin 59 there is the 1fH sandcastle but this is not connected to any circuit and only used internally for the colour demodulator. The 2fH-sandcastle signal is generated by the HOP.

9.1.7 Video: Feature box (PICNIC, diagram B3)

Introduction

The basic function of the Feature box (FBX6) is picture improvement, and depending on the version several scan conversion methods can be applied. The PICNIC is the central key component. In the EM1A-chassis the featurebox is integrated on the SSB. The PICNIC is used for the 100 Hz conversion. In the PICNIC the following functions are present:

• The ADC.

• The DAC.

• The 100 Hz conversion.

• The noise limiter (DNR).

• The contrast improvement.

All these functions are integrated in one IC: SAA4978H, a 160 pins QFP

ADC/DAC

Analogue to Digital conversion is done with three identical 9bit ADC's. Digital to Analogue conversion uses three identical 10-bit DAC's. In the PICNIC there are three 9 bits ADCs present for Y, U & V. For digitising the Y (luminance) 9 bits are used, to realise a more detailed picture. The 9 bits are only internally used. Via dithering the 9 bits are reduced to 8 bits and that data is stored into the memory. The data in the memory is fed back to the PICNIC and via undithering the data is again reproduced 9 bits for processing. U/V (colour difference signals) is also sampled with 9 bits. These two 9 bit data streams are multiplexed to 4 bits data streams. This reduction can be allowed, as the perception for colours by the human eye is less sensitive as for luminance.

GB 88 EM1A9.

Circuit descriptions and abbreviation list

100 Hz conversion

The main task of the PICNIC is the conversion from 50 Hz to 100 Hz for YUV and HV-sync. In order to remove 'large area flicker' (especially visible in a white picture), the field-rate of the video is doubled by the FBX6. A 50 Hz frame frequency is converted to 100 Hz. Also the line frequency (16 kHz) is doubled (32 kHz). Basically, when the video input contains fields A, B etc..., the conversion provides an AABB sequence on the display. The actual conversion is done in the first Field Memory by reading it twice at double speed, while writing it once.

Automatic Aspect Ratio Adaptation (AARA)

This feature uses data from the 'black bar detection circuit' to adapt the vertical and horizontal amplitude to an aspect ratio belonging to the display without showing the black bars.

CTI

At CVBS video signals, the bandwidth of colour signals is limited to 1/4 of the luminance bandwidth. Transients between areas of different colours are therefore not very sharp. The PICNIC can steepen these transients artificially with a time manipulation algorithm.

Dynamic Contrast

To make the contrast (black/white) range wider, Philips has invented Dynamic Contrast. It uses the digital memory used in 100 Hz sets. It measures every A-field (25 x/s) and digitally analyses where on the greyscale most of the image is located. If it's a relatively dark image, the lighter part of that image is stretched towards white, so that more contrast will become visible in that picture. If it's a relatively light image, the darker part of that image is stretched towards black, so that these darker parts will have more contrast. When the image is in the middle of the greyscale, both dark and light parts are stretched.

PROZONIC

M E M 1

When applying this, the 2nd Field Memory has to be installed. The following functions are available:

• Line flicker reduction (Digital Scan): this is a feature to reduce the 25 Hz interlace line flicker.

• Dynamic Noise Reduction: noise affected signals can be improved by combining the pixel values of the current and past video fields. This is however only possible in areas without movement.

• Variable Vertical Sample Rate Conversion

• Synchronous No Parity Eight bit Reception an

Transmission interface (SNERT-bus)

Depending on the chassis model, the FBX6 can have the following specification:

Featurebox 6 diversity Set Chipset EM1A 1fH N.A. EM1A 2fH 1 Memory EM1A 2fH DNR 1 Memory incl. DNR EM1A 2fH Dig. Scan PROZONIC + 2 Memories

9.1.8 Video: High-end Output Processor (HOP, diagram B4)

General

In the HOP (High-end Output Processor, TDA9330) the video processor and digital deflection processor are integrated. The main functions of the HOP are:

• Video control (contrast, brightness, saturation, etc.).

• 2nd RGB interface for OSD/TXT.

• Peak White Limiting.

• Cut-off control and White Drive (RGB outputs).

• Geometry control.

The YUV-signals from the PICNIC are fed to the HOP. In the HOP, the video and geometry control parts are integrated. Also the RGB-signals from TXT/OSD are inserted via the HOP. This IC has all functions from a video processor and geometry control (like the DDP in MD2). The geometry part delivers the H-drive, EW-drive and also a drive signal for rotation. The internal V-drive circuit of the HOP is not used (is explained further on).

BUS A BUS

BBUS BUS CBUS BUS D

I C

100Hz CONFIGURATION

BBUS BUS CBUS BUS D

I C

DIGITAL SCAN

PICNIC/SAA4978H

M E M 1

PICNIC/SAA4978H

P R O Z N

Y FEATY DEC U FEATU DEC V FEATV DEC HD100HA VD100VA

M E M 2

Y FEATY DEC U FEATU DEC V FEATV DEC HD100HA VD100VA

CL 96532156_017.eps

110100

Figure 9-7

To the PICNIC external IC's are connected dependent of the features. If EM1A has only 100 Hz, then only one memory-IC is used to store one frame. For sets with Digital Scan the PROZONIC (IC7708, SAA4990H) is added with two memory-ICs (IC7714 & 7715). It is an abbreviation for PROgressive scan Zoom and Noise reduction IC.

Video Control

After conversion to RGB again, the signals can be controlled for Saturation, Contrast and Brightness.

2nd RGB interface for OSD/TXT

On pins 35 - 38 the RGB and fast blanking from the Painter (OSD and TXT) are inserted.

Peak White Limiting

On pin 43 there is a Peak White Limiting signal line (PWL). If the beam current (EHT-info line) increases, then the EHTinfo voltage will decrease. PWL is controlled by average limiting via R3343/C2333.

Cut-off control

Switching the TV to Standby:

1. Vertical scan is completed.

2. Vertical flyback is completed (the horizontal output is gated with the flyback pulse, so that the horizontal output transistor cannot be switched on during the flyback pulse).

3. Slow stop of the horizontal output is started, by gradually reducing the 'on' time at the horizontal output from nominal to zero (this will take 50 ms).

4. At the same time the fixed beam current is forced via the black current loop for 25 ms. This is done by setting the RGB outputs to a maximum voltage of 5.6 V.

In the EM1A a 'one-point' cut-off control is used: A current of 8 µA (for cut-off) is fed to pin 44 of the HOP. This is done with a measurement pulse during the frame flyback.

Circuit descriptions and abbreviation list

GB 89EM1A 9.

During the 1st frame, 3 pulses are generated to adjust the cut-off voltage at a current of 8 µA. With this measurement the black level at the RGB-outputs is adjusted. So at start-up there is no monitor pulse anymore. At start-up, the HOP measures the pulses, which come back via pin 44. The RGB-outputs have to be between 1.5 V and

3.5 V. If one of the outputs is higher than 3.5 V or one of them lower then 1.5 V, the RGB-outputs will be blanked.

Geometry control

All geometry control is done via I2C and the data is stored in the NVM (IC7012) of the SSB.

Line drive (LINEDRIVE1).

Line drive is derived from an internal VCO. As a reference an external resonator is used (1301). The internal VCO is locked with the HD100-pulse, which comes from the PICNIC. The 'PHI-2' part in the HOP receives the HFB_X-RAY_PROT (pin

13) to correct the phase of the line drive. The EHT-info is supplied to pin 14 (DYN-PHASE-CORR) to compensate picture breathing depending on the beam current.

Frame drive (FRAMEDRIVE+).

The VD100 signal from the PICNIC will be extended for 16.5 lines by the circuit around TS7309 and 7311. The resulting signal (VDHOP) will drive TS7310. This will result in the (asymmetric) FRAMEDRIVE+ signal.

Note: The Frame outputs (pins 1/2) of the HOP are not used!

East/West drive.

At pin 3 the E/W-drive is available. Pin 4 is a feedback input for the EHT-info and is used to prevent pumping of the picture. EHT varies also dependent of the beam current.

Frame rotation.

For frame rotation a control voltage is used from pin 25 of the HOP. This voltage can vary from 0.4 till 4 V.

Guarding protections:

• Flash detection: When a flash occurs, the EHT-info will become negative very fast. Via D6303/D6304/R3316, TS7303 starts to conduct. This makes pin 5 of HOP high. When pin 5 of HOP is high, then the output (pin 8) is immediately stopped. If the H-drive stops, then also pin 5 will be low again, which will reset the flash detection. A bit (FLS) will be set in an output status register, so via the Painter it can be seen when there was a flash. This FLS-bit will be reset when the Painter has read that register.

• HFB protection: If the HFB is not present then this will be detected via the HOP. The Painter puts the TV into protection and an error code will be generated.

9.1.9 Synchronisation (diagram B3 & B4)

The HIP video processor provides vertical and horizontal sync pulses V

and HA, which are synchronised with the

incoming CVBS signal. These pulses are fed to the PICNIC where they are doubled to be synchronous with the 100 Hz picture. The outgoing pulses, V

D100

and H

D100

HOP that supplies the vertical and horizontal drive pulses and the 2f

sandcastle pulse.

The VD100 pulse from the PICNIC is only one line long. Therefore this pulse is converted into a VDHOP signal by a 530 µs monostable oscillator (extended by 16.5 lines). This signal is on block function level equal to VSYNC and FRAMEDRIVE+.

The Painter is synchronised on the HD100 pulse from the FBX and on the VSYNC for the synchronisation of TXT/OSD.

are fed to the

When no CVBS is offered to the video processor, the VA and HA pulses are switched off by the HIP, and the VD and HD pulses are then generated by the PICNIC. This to assure a stable OSD.

9.1.10 Horizontal (line) deflection (diagram A3)

Driving the line output stage

LINEDRIVE 1

HOTCOLD

MAIN SUPPLY +11D

STANDBY SUPPLY +5V2

T OFF

STARTNORMAL

T7421 conducting

3406

2402

(HOP)

EW_DRIVE

(HOP)

6408

6407

3411

2412

2414

7409

3414

3407

2415

3486

3487

3404

3484

7481

3485

3409

5410

5411

7408

+8V

3483

7482

141V

7421

2417

3417

141V

3418

3481

6481 2480

5430

2420

6480 2426 6422

7480

Figure 9-8

The HOP (located on the SSB) generates the line-drive pulses (LINEDRIVE1), which have a frequency of 31250 Hz (T = 32 µs).

When the LINEDRIVE1 signal is high, TS7409 and TS7408 will conduct. A constant DC voltage will be applied across L5410, causing a linear increasing current through this coil. The secondary voltage of L5410 has a negative polarity so that TS7421 will block. When switching on the set, the current through L5410 is supplied by the 5V2 Standby supply (via D6407), and taken over by the +11D voltage (via D6408) of the main supply.

When the LINEDRIVE1 signal becomes low, TS7409 and TS7408 will block. The voltage polarity across the primary winding of L5410 will invert. The positive voltage on the secondary winding will now drive TS7421 into conductivity. Because of the storage time of the line transistor (TS7421), L5410 cannot transfer its energy immediately to the secondary side. This may result in high voltage peaks on the collector of TS7409 and TS7408. To prevent that these peaks will damage the transistors, a 'snubber' circuit (C2414, C2412 and R3411) will suppress them.

When the LINEDRIVE1 signal is high again, the abovedescribed sequence starts again. Circuit L5411 and R3409 will increase the switch-off time of the line transistor.

The line stage will be started via the 'slow start' principle. During start-up, the HOP generates line drive pulses with a small TON and a high frequency (50 kHz); TOFF will be constant and TON will be gradually increased until the dutycycle is 50 % (normal condition). The time interval from start to normal condition takes about 150 ms. When switching off, the same procedure is followed, but now in reverse order.

Operation of the line output stage

To explain the operation of the line output stage, we use the following start conditions:

• C2433 is charged to max. 141 V (VBAT)

• TS7421 is driven into conductivity.

2425 6423

S-correction

Deflection centre

Linearity Correction

X > Y

2421

Caused by serial losses in the line output stage

LINE DEFL. COIL.

LINEARITY

(*1)

COIL. 5421

2432//33//34

(

5422

CL 96532156_013.eps

3431

2431

260100

GB 90 EM1A9.

Circuit descriptions and abbreviation list

5430

141V

7421

2420

Defl

t2t1

100V

6423

6422

Line defl.

2425

2433

141V

2421

41V

2426

41V

5422

5430

141V

7421

2420

Figure 9-9

Period t1 - t2: When TS7421 is driven into conductivity, the capacitor voltage of 141 V, will be divided across bridgecoil L5422 and the deflection coil (conn. 0317). Due to the chosen inductance values, there will be 100 V across the deflection coil and 41 V across L5422. The linear increasing current in the deflection coil will result in a spot moving from the centre of the picture tube to the right. The voltage across L5422 will also charge C2421 (41 V - 0.7 V).

Period t2 - t3: At the moment the LINEDRIVE signal becomes high, TS7421 will stop conducting. In the coils a voltage will be induced, trying to maintain the current. The current through the line deflection coils continues to flow through C2425 and C2421 and the current through L5422 continues to flow through C2426 and C2421. The energy stored in the line deflection coil is passed to C2425, and the energy of L5422 to C2426. The resonance-frequencies of these 2 LC-circuits define the flyback time of the spot from the right side of the picture tube to the left. On average no current flows through C2421 and thus the voltage across this capacitor remains constant.

5430

141V

7421

Defl

t3 t4

Line defl.

2425

6423

2420

6422

2433

2421

41V

2426

5422

5430

141V

7421

6423

2420

6422

Figure 9-10

Period t3 - t4: As for the period t2 - t3; but now the current flows in the opposite direction, since the voltage across C2425 and C2426 is higher than the voltage across C2433 and C2421.

Period t4 - t5: The coils want to maintain the negative current and will charge the capacitors negative. Because of this, D6422 and D6423 will conduct. The voltage is 100 V across the deflection coil and 41 V across L5422. As both diodes conduct, we may consider the voltage to be constant. A linear current flows with the same changing characteristics as in period t1 - t2. The spot now moves from the extreme left of the picture tube to the centre. Before the current becomes zero, and the spot is located in the centre of the frame, TS7421 reverts back into conductivity. First a short negative current will flow. The cycle starts again.

The linearity correction

Defl

t2 t3

A constant voltage across the horizontal deflection coil should result in a linear increasing saw-tooth current. This however is not the case as the resistance of the coil is not negligible. In order to compensate for this, a pre-magnetised

2425

2421

2426

CL 96532156_024.eps

Line defl.

2433

5422

060199

6423

6422

coil L5421 in series with the deflection coil is used. This coil ensures that during time interval t1 - t3 the circuit-resistance will be higher than during t4 - t5. L5421 is called the linearity coil. To avoid self-oscillation, R3431 and C2431 are placed parallel to L5421.

The S-correction

Since the sides of the picture are further away from the point of deflection than the centre, a linear saw-tooth current would result in a non-linear image (the centre would be scanned slower than the sides). To solve this, the deflection current for the right- and left side will be reduced. C2433 is charged quadratic during time interval t1 - t2. Left and right the voltage across the deflection coil decreases, causing the deflection to slow down. In the centre, the voltage increases and the deflection will be faster. An Sshaped current will have to be superimposed onto the sawtooth current. This correction is called finger-length correction or S-correction. C2433 is relatively small, as a result of which the saw-tooth current will generate a parabolic voltage with negative voltage peaks. The current also results in a parabolic voltage across C2421, resulting in the fingerlength correction, proportionally increasing with the picture width. The EW-DRIVE signal will ensure the largest picture width in the centre of the frame. Here the largest correction is applied. The larger the picture width, the higher the deflection current through C2433.

The E/W-correction

A line, written at the upper- or lower side of the screen, will be larger at the screen centre when a fixed deflection current is used. Therefore the amplitude of the deflection current must be increased when the spot approaches the screen centre. This is called East/West correction. The EW-DRIVE signal is generated in the HOP and will drive

Defl

FET TS7480 via TS7481 and optocoupler TS7482. TS7480 will charge capacitor C2423 more or less, increasing the deflection current when reaching the centre of the screen.

t5t4

2425

2421

41V

2426

Line defl.

100V

2433

141V

5422

CL 96532156_025.eps

231299

41V

Secondary line-voltages

During the blocking time of TS7421, the magnetic energy of coil 1 - 5 of the LOT will be transferred to electrical energy in the secondary winding. Via rectifying and smoothing, the several secondary supply voltages will be generated:

• EHT, Focus and Vg2-voltage

• +180V for the CRT panel (pin 8 LOT)

• +11D for the line deflection (pin 12 LOT)

• +13VLOT for the frame deflection (pin 6 LOT)

• -15VLOT for the frame deflection (pin 3 LOT)

• Filament voltage (pin 9 LOT)

•

The EHT-INFO signal is derived via R3450//R3451. This signal decreases while the beam current increases. It is fed to the HOP to compensate for loss of picture width and picture height.

The DYN-FASE-CORR signal is fed to the HOP via C2455 and drives a dynamic phase correction necessary because of beam current variations. This is done by regulating TON of the line transistor TS7421.

East-West circuit

The moment TS7480 is driven into saturation, C2421 will discharge during the flyback. As a consequence of which C2421 must be charged again during the scan via the conduction diode D6422 (as long as C2421 is not charged to the voltage across L5422, D6422 will conduct). The current in the deflection coil is therefore larger than the current

Circuit descriptions and abbreviation list

GB 91EM1A 9.

flowing in L5422 (1-2). The voltage across the deflection coil increases, so the picture width increases. When TS7480 blocks, C2421 will not discharge anymore and the voltage across C2421 will remain constant. The result is that the voltage across the deflection coil is minimal. The voltage across coil L5422, however, is maximal. This coil (L5422) consists of a transformer:

• As the current through the coil 1-2 increases (smaller picture width), the current through coil 3-4 decreases. Because of the transformer characteristic a higher voltage will be subjected to coil 3-4, which will counteract the current. The current will diminish even further.

• When the current through coil 1-2 diminishes (larger picture width), the current through coil 3-4 increases.

The EW Drive

The EW drive signal originates in the HOP and is supplied to TS7480. The shape of this signal determines the various geometric correction parameters:

• H amplitude

• EW-parabola

• EW-corner

• EW-trapezium

• Horizontal parallelogram

• Horizontal bow

Beam current correction

The EHT-info at point 10 of the LOT is dependent on the value of the beam current and the voltage divider R3450, R3451 and C2450. The EHT-info is fed to the HOP to trim the contrast and to compensate for the changes in picture-width as a function of the EHT-info, when the high-voltage is decreased. The EHT-info is integrated via C2450 and sent to the gate of the E/W FET (TS7480) as a DC-voltage to correct the EW-current.

9.1.11 Vertical (frame) deflection (diagram A4)

Driving the frame output stage

HOTCOLD

HOP

(6-BITS DAC) 25

FRAMEDRIVE+

+13V_LOT

7610

3440

ROTAT I ON CIRCUIT

+8V

3389

3390

3394

DHOP

3386

3391

7312

3388

7310

SYNC

3630

3631

+13V_LOT 141V

36193632

7606

7605

Figure 9-11

The HOP drives the frame output stage. As the HOP is 'cold' and the frame output stage is 'hot', they must be galvanic isolated. This is done by means of an optocoupler. In the MGchassis the HOP generates 3 signals needed for the frame output stage: VDPOS, VDNEG and FRAME ROTATION. To avoid the costs of 3 optocouplers, the frame drive pulse and rotation DC-voltage are added together and then fed to optocoupler TS7610.This is done as follows: The VD100 signal from the PICNIC (diagram B3 pin 19) is extended for 16.5 lines and inverted via a monostable multivibrator (TS7311 & TS7309, diagram B4). The output signal VDHOP is then superimposed on a DC-voltage from pin 25 of the HOP. The resulting signal is called FRAMEDRIVE+ and is fed to optocoupler 7610 (diagram A4). So this signal contains info for both the frame deflection and the frame rotation (if present). The circuit around IC7440 will amplify this signal and the output current will flow through the rotation coil. The vertical pulses on this signal are filtered by C2445 to ensure that only a DC-voltage will be supplied to the rotation coil.

The output voltage of the rotation circuit is between -8 and +8 V.

141V

3600

3601 3633

2601

+13V +12V

2600

7600

3602

3603

V. AMPL.

36123614

7603

3618

3615

+13V

3606

3607

7602

3608

3605

-15V

E/W

7620

3609

2602

V. SHIFT

3610

FRAME

3623

DEFL.

OUT

COIL

3620//21//22

CL 96532156_027.eps

070100

Figure 9-12

The sawtooth voltage for the frame output stage is not generated by the HOP but by a discrete circuit after the optocoupler 7610: via R3600 and R3601 a linear increasing voltage over C2601 is built up with a large time constant. The circuit around TS7603 is a current source, driving C2601 with a current value derived from the E/W modulator. This will result in an S-shaped voltage on C2601 (also known as EWcorrection).

Flyback generator

The frame output stage is supplied via the +13 V and -15 V coming from the LOT. The output of the amplifier is 0 VDC, so a coupling capacitor is not required.

During the (forward) scan, a supply of +13 and -15 V is sufficient to respond to the slow changing current. The flyback generator puts a voltage of -15 V on pin 3. Because of the voltage drop over zenerdiode D6622 (8.2 V), C2622 will be charged to 19 V: being 13 + (15 - 8.2 - 0.7) V. During the flyback scan, the change in current per time is

3600 2M2

3601 2M2

2601

6600

470n

much larger, so a higher voltage is required. The flyback generator will now generate a voltage of +13 V on pin 3. Added to the charge on C2622 this will give a flyback voltage of 32 V (depending on the CRT size, this value can differ).

The IC amplifier (IC7620, pin 5) supplies the sawtooth current to the frame deflection coil. The current through this coil is measured via R3620//R3621//R3622 and fed back to

CL 96532156_026.eps

210100

the inverting input of the amplifier. R3624 and C2624 on the output of the amplifier, form a filter for high frequencies and in that way also prevents oscillations. Peak voltages on the output, e.g. as a result of a possible flash, are damped by the clamp circuit consisting of D6619, C2627 and R3627. The network consisting of R3625, R3629 and C2629 form an extra damping circuit.

Protection circuit for bridge-coil and frame output stage

The secondary voltage of bridge coil L5422 is guarded at the diode modulator (D6421/22) via a detection circuit consisting of an 8.2 V zenerdiode (diagram A3). When the bridge-coil is working properly, the average voltage on D6422 is such that this zenerdiode will conduct and will drive TS7652 into saturation via the BRIDGE_PROT signal (see diagram A4). When, for any reason, the secondary side of the bridge-coil is shorted, the average voltage on D6422 will drop below the zener-voltage and TS7652 will block. Now capacitor C2642 will be charged. Transistor TS7407 will start conducting and the STANDBY signal will be grounded via R3403. This will switch off the main supply (see diagram A1).

GB 92 EM1A9.

Circuit descriptions and abbreviation list

Via the circuit built around TS7641 the frame output stage is guarded. If the frame output stage is working properly, TS7641 and TS7652 will both conduct and thereby discharging C2642. TS7407 is blocked now, causing the STANDBY signal to be high ohmic. If there are frame pulses missing, TS7641 will block and capacitor C2642 can be charged. Transistor TS7407 will now start conducting and the STANDBY signal will be grounded via R3403. This will switch off the main supply (see diagram A1).

9.1.12 Audio (diagram B6, A5 & A6)

Introduction

All EM1A sets contain one of ITT's Multistandard Sound Processing IC's for sound decoding. The diversity arises because each member of the MSP-family handles its own set of sound standards:

• MSP3415D: Europe & AP decoding, Stereo incl. NICAM.

• MSP3451G: Global decoding, Virtual Dolby.

This IC takes care of the main FM sound decoding. AM decoding for the L system is done by the HIP. The demodulated L sound is then again source selected and processed in the MSP. The reason for this is the bad AM detection performance of the MSP. In case of NICAM L however, this is handled by the MSP.

All MSP versions contain digital audio processing, used for the basic left/right stereo sound, such as bass, treble, balance, incredible sound and spatial. In addition to that, the MSP3451 is also able to perform Virtual Dolby, a Dolby approved sound mode for surround sound reproduction with left/right speakers only.

Audio source selection

MSP3515D (stereo)

This IC is an economised version of the MSP3410 that is used in the MG-chassis. It can cover 2 stereo and 1 mono (AM) input. Since more inputs are required, a separate source selector is used (HEF4052, IC7675). This selector has AV1, AV2, FRONT and MON-OUT (Tuner) as input and is connected to the EXT1 input of the MSP3415. The EXT2 input is not used.

Since the MSP3415 has only one EXT output, which is connected to the EXT1, a constant level output and connection to EXT2 is not available. This is fixed by connecting the HEF4052 input selector to the constant level output and to EXT2 via a so-called 'Régimbeau' switch (IC7652). This switch is needed to prevent feedback (Larsen effect). When EXT2 is chosen as input signal, and the output of EXT2 is selected, this means that the main picture is also EXT2 and will cause the Larsen effect. To prevent this, the record select must be switched to Tuner. This is especially important when decoders are used, behind a 'transparent' VCR connected to EXT2.

To get a constant level output if the Tuner is selected, the EXT1 output (Tuner at any time), has to be fed back to the input selector and selected as input for the MSP (EXT1 input).

The MSP3415 has no separate output to drive a headphone. The headphone is therefore hardwired (on the LSP) to the main sound output.

MSP3451G (Virtual Dolby)

The MSP3451, which is used in all versions supporting Virtual Dolby, is capable of supporting 4 stereo inputs and 1 mono (AM) INPUT. Therefore the extra input selector (HEF4052) is not needed.

The MSP3451 is also capable of supporting 2 EXT outputs, so the trick used in the MSP3415 set-up to get a constant level output is not needed.

The MSP3451 has a separate headphone output, so sound control be done separate from the speakers.

Audio decoding

At the input a choice can be made between two IF-signals; SIF and SIFM. The selected signal is fed to the AGC. After this, an ADC converts the IF-signal to digital.

This digital signal can be processed by 2 demodulation channels. The first one is able to handle FM and NICAM signals. The second one can handle FM and AM signals.

Each channel contains a mixer to shift the incoming signal in the frequency domain. This shift is determined by the value of a DCO (Digital Controlled Oscillator)..

After the down-mix, the signal is fed, via a filter, to a discriminator. From here the AM, FM or NICAM demodulation can be performed.

Both channels contain an 'automatic carrier mute' function, which automatically mutes the output of the analogue section when no carrier is detected.

After demodulation, the FM-signals are subjected to a deemphasis operation. After that the matrix of the stereo system is applied.

Audio processing

The sound processing in EM1A is completely done by the MSP3415D for 'Stereo' sets and the MSP3451G for 'Virtual Dolby' sets:

• Volume control is done by the user via the SOUND menu.

• Tone control is done via the BASS/TREBLE control.

• Headphone control in 'Stereo'-sets is done via the

loudspeaker output of the MSP, no sound control possible. In 'Virtual Dolby'-sets, the MSP has a separate Headphone output so separate sound control is possible.

• Mute control can be done in different ways: – Via the SOUND_ENABLE line of the Painter. Used

during start-up/switch-off conditions, in order to avoid audible plops. This line is active low (high = mute).

– Via the decoding part of the MSP. – Via the processing part of the MSP.

The mute on the RC or in the UI is per today a combination of processing mute and SOUND_ENABLE line. When a user mute is done, the processing mute will turn down the volume, after which the SOUND_ENABLE line is switched. De-muting is the other way around. The reason for this is a technical problem with crosstalk of the headphone into the loudspeakers.

Automatic Volume Levelling (AVL)

One of the features of the MSP-family is AVL. If used, it limits the big volume differences in the broadcast between e.g. news transmissions and commercials or within a movie. To be able to get a Dolby approval (for the Virtual Dolby sets), the AVL feature must be switchable. Therefore, the AVL feature is customer switchable via the menu.

Audio amplification

The audio amplifier part is very straightforward. It uses 2 integrated power amplifier ICs (TDA2616). It delivers an output of 2 x 10 WRMS to 2 full range speakers and/or subwoofer.

Circuit descriptions and abbreviation list

GB 93EM1A 9.

The supply voltage is +28 V, generated by the main supply via L5506.

Muting is done via the SOUND-ENABLE line connected to pin 2 of the amplifier-IC and coming from the Painter. This signal is inverted by TS7730, as a result of which at a high level of the SOUND-ENABLE signal, current is sinked from pin 2 and the IC mutes.

9.1.13 CRT & SCAVEM (diagram F)

RGB amplifiers

On the CRT panel, the RGB amplifier (TDA6108, IC7307) is located. Via the outputs 9, 8 and 7 the cathodes of the picture tube are driven. The supply voltage for the amplifier is 180 V and is derived from the LOT.

SCAVEM

The SCAVEM-circuitry is implemented in the layout of the picture tube panel. It is thus not an extra module. SCAVEM means SCAn VElocity Modulation. This means that the picture content influences the horizontal deflection. In an ideal square wave, the sides are limited in slope by a limited bandwidth (5 MHz). SCAVEM will improve the slope as follows: At a positive slope, an SCAVEM-current is generated which supports the deflection current. The first half of the slope the spot is accelerated and the picture is darker, while at the second half of the slope, the spot is delayed and the slope becomes steeper. At the end of the slope, the SCAVEM-current decays to zero and the spot is at the original position. An overshoot occurs which improves the impression of sharpness. At the negative slope, the SCAVEM-current counteracts the deflection. During the first half of the slope, the spot is delayed and the slope becomes steeper. During the second half the spot accelerates, the SCAVEMcurrent is zero at the end of the slope.

Via the three resistors R33315, R33317 and R3320, Red, Green and Blue are added together and offered to the emitter TS7300. On the collector of this transistor, configured in a common base, the sum of these 3 signals is obtained. Via the emitter follower formed with TS7301, this signal is conveyed to the differentiator C2303, R3309 and R3318. Only the high frequencies are differentiated (small RC-time). The positive and negative pulses of this signal drive respectively TS7303 and TS7302 into conductivity. The DC setting of the output stage is set by R3304, R3308, R3316 and R3319. The working voltage of the transistors is settled at half the supply voltage. At the positive section of the pulse, the current flows through R3318, C2307, the SCAVEM-coil and TS7303. At the negative section of the pulse, the current flows through R3318, C2409, the SCAVEM-coil and TS7302.

between the two tuners need to be swapped, then the tuner RF frequency is swapped. The AV-switching is the same for all regions.

Key components

• Tuner (7201): – AP Non-China TEDE9X700A – China TEDE9X701A

• SAW Filter (1352): – AP Non-China OFWK7260M (39.8MHz) – China OFWK6287K (38.0 MHz)

• IF + Video processor (7301): – AP/China & LATAM TDA8889H

• PIP processor (7801) SAB9081H

• Switching IC's TDA8601 (7803), HEF4053 (7401 &

7402)

• IO expander (7403) M62320P

9.1.14 Double Window (DW)

Introduction

The Double Window (DW) panel provides the option for viewer to see two pictures or programs on the displayed area of a TV screen. The displayed pictures can be in PIP mode or DW mode. The viewer can also select the size and position of the 'second' picture.

The DW-models always have 2 tuners. In the AP execution, the TV uses one RF signal, which is connected, to the tuner with splitter located on the DW panel. The 2nd tuner on the main panel is fed with the signal from this splitter. Due to this connection, the Main PCB tuner (Tuner 1) always processes the Main Picture, and the tuner located on the DW panel (Tuner 2) always process the DW picture. If the picture

GB 94 EM1A9.

Block Diagram

There is one configuration as shown below.

Circuit descriptions and abbreviation list

DVSYNC

DHSYNC

V-MAIN-OUT

U-MAIN-OUT

Y-MAIN-OUT

0205

43 1

V-PIP+MAIN-IN

Y-PIP+MAIN-IN

PIP-AUDIO

U-PIP+MAIN-IN

RF to Main Tuner

TUNER - 7201

SPLITTER

LATAM & AP

CVBS-PIP_TUN1-2-CVBS-IN

CVBS_TER_OUT

SEL_TUNER1

NAFTA & AP-NTSC 24

CVBS-SC1_AV1-IN

CVBS-SC2_AV2-IN

SEL-MAIN-R1R2

Y-CVBS-FRONT-IN

C-SC2_SVHS-IN

C-FRONT-IN

SDA SCL

7402-B

7402-A

7401-B

7403

EXPANDER

SEL_TUNER2

7401-A

PIP-AUDIO

AP & LATAM

4305

1333

7401-C

SEL-FRNT-RR

SEL-MAIN-R1R2

SEL-FRNT-RR

SEL_TUNER1

SEL_TUNER2

FBLK

RESET

SEL-YUV_RGB

SEMI-STD-BY

1352

DOUBLE WINDOW PROCESSOR

TDA888X

IC7301

+ +

26 60

GUIDE+

7402-C

9470

IC7801

SAB9081H

8772

SVSYNC

5649

SEL_PIP_CVBS

982100

SHSYNC

8379

SYNC

RGB/YUV

MATRIX

COLOUR

DECODING

RGB/

YUV

INPUT2

41 42 43

R-SC1-IN_V-IN

G-SC1-IN_Y-IN

7501

V-CHIP

YUV INTERFACE

40 45 46

B-SC1-IN_U-IN

SDA

SCL

NAFTA ONLY

RBG/YUV

MATRIX

7803

234

TDA8601

RGB

OUTPUT

RGB

INPUT1

CL 06532045_070.eps

010800

Circuit Description

IF & Video section

The TV uses one RF input to the DW’s tuner with a splitter. The tuner on the main board receives RF from the splitter. Due to this configuration, the main board tuner always processes the Main picture while the DW tuner always processes the Sub picture. If the picture between the two tuners needs to be swapped, then the tuners’ RF frequencies are swapped.

Figure 9-13

IF-TER from the tuner is fed to pin-1 & 2, IF circuits of TDA888x IC7301 via a SAW filter. The AGC voltage for the tuner can be adjusted in the SAM’s tuner menu.

Dependant of the region execution, different SAW-filters are applied.Therefore circuit diversity is unavoidable as shown in figure below. The RESET-signal is used to set the SAW-filter to different IF frequency modes. Table below shows IF frequency settings by the RESET signal.

Circuit descriptions and abbreviation list

CL06532045_072.eps

100500

Figure 9-14

SAW-filter (pos. 1352) RESET = Low RESET = High AP P/M (38.9MHz) NTSC-M/N PAL BG/DK/I China (38.0MHz) NTSC-M/N PAL BG/DK/I

In order to display the external AV sources by the DW panel, source selection circuit is incorporated on the panel. In EM1A, 4 external AV sources are possible (AV1, AV2/SVHS1, AV3/S-VHS2 & YUV). The selection between these sources is done by IC7401 HEF4053.

Note: When S-VHS is inserted from the rear, AV2 source will be disabled. Likewise when S-VHS is inserted from the sideAV. The YUV is fed directly to video processor IC7301. This source selection is done internally by the IC. The video processor IC7301 will decode the CVBS at pin-24 or pin-29 into YC signal and further process it into YUV signal and output at pin-40, 45 & 46. The IC7301 internal FM demodulator is used to produce mono audio and is available at the pin-8 of IC7301. This audio signal PIP-AUDIO is fed to the SSB sound processor as such that DW sound appeared at the headphone

GB 95EM1A 9.

Power supplies

The power supplies used by DW panel are from the main board 5V, 8V and 33V (for tuner only). The 5V is regulated to +3.3V, +3V & +3VD by IC7802 LM317T. These voltages are mainly used by DW processor circuitry. The 8V is mainly supplied to IC7301 TDA888x IF + video processing circuitry and also to fast switching IC7803.

DW/PIP processing

IC7801 SAB9081 is a multi-standard PIP controller, which can be used in double window or PIP applications. The YUV from the video processor IC7301 is fed to pin-79, 81 & 83. IC7801 will inserts YUV from the IC7301 with reduced size into the main picture YUV source in PIP environment. The main picture YUV is fed to pin-100, 2 & 98 respectively. These signals are mainly used during the DW mode.

Inside IC7801, the conversion to the digital environment is done on chip with ADCs. Processing and storage (1 MB DRAM) of the video data is done entirely in the digital domain. The conversion back to the analogue domain is done by DACs. Internal clocks are generated by PLLs, which lock on to the applied horizontal and vertical syncs from the main & sub pictures. The main picture syncs are applied to pin-70 (vert.) & pin-94 (hor.) and the sub picture syncs are applied to pin-72 (vert.) and pin-87 (hor.). For DW mode, the main picture is compressed horizontally by a factor of two and directly fed to the output. After compression, a horizontal expansion of two is possible for the main picture. The sub picture is also compressed horizontally by a factor of two but stored in memory before it is fed to the outputs.

Post-processed YUV signals are fed to fast switching IC7803 TDA8601 pin-6, 7 & 8. In normal operation (w/o DW), the main picture YUV signals (at pin-2, 3 & 4) are bypassed by IC7803, and returned back to the main video processor. When DW mode is active, the compressed YUV signals (main & sub pictures) are used and fed to main video processor. During the PIP mode, only sub-picture YUV signals are used. The insertion control is made possible by fast blanking signal from IC7801 pin-68.

GB 96 EM1A9.

Circuit descriptions and abbreviation list

9.2 Abbreviation list

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 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

featurebox AI Artificial Intelligence AM Amplitude Modulation ANR Automatic Noise Reduction: one of

the algorithms of Auto TV AR Aspect Ratio: 4 by 3 or 16 by 9 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_SW Audio Subwoofer AUDIO-L-PROC Audio left processed AUDIO-R-PROC Audio right processed AUDIO-SR Audio surround right Auto TV Name for the combination of picture

features/improvements, which work

automatically (ANR/Auto sharpness/

Auto Histo/ambient light). BC-PROT Beam current protection BG System B and G BLC-INFO Black current information B-SC1-IN Blue EXT1 in B-SC2-IN Blue EXT2 in B-TXT Blue teletext CENTER Centre speaker C-FRONT Chrominance front input 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-SC1-IN CVBS EXT1 in CVBS-SC2 OUT CVBS EXT2 out CVBS-SC2-IN CVBS EXT2 in CVBS-SC3-IN CVBS EXT3 in CVBS-SC4-IN CVBS EXT4 IN CVBS-TER CVBS terrestrial CVBS-TXT-DSOUT CBVBS teletext Dual Screen out CVBS-TXT-OUT CVBS teletext out CVBS-Y-FRONT CVBS luminance front input DAC-HOP Digital analogue converter HOP IC DBE Dynamic Bass Enhancement: extra

low frequency amplification DC-filament Filament supply voltage DC-PROT DC protection DFU Direction For Use: description for the

end user

DNR Digital Noise Reduction: noise

reduction feature of the box DSP Digital Signal Processing DST Dealer Service Tool: special remote

control designed for dealers to enter

e.g. service mode DVD Digital Versatile Disc DYN-FASE-COR Dynamic phase correction EHT Extra High Tension EHT-INFO Extra High Tension information EPG Electronic Program Guide: system

used by broadcasters to transmit TV

guide information (= NexTView) EW East West, related to horizontal

deflection of the set EXT External (source), entering the set

via EXT or via cinches FBL Fast Blanking: DC signal

accompanying RGB signals FBL-SC1-IN Fast blanking signal for EXT1 in FBL-SC2-IN Fast blanking signal for EXT2 in FBL-TXT Fast Blanking Teletext FBX Feature Box: part of small signal /

separate module which contains 100

Hz processing, extra featuring and

AutoTV algorithms FEAT-U U from Feature Box FEAT-V V from Feature Box FEAT-Y Y from Feature Box FILAMENT Filament of CRT FLASH Flash memory FM Field Memory or Frequency

Modulation FMS Functional Module Specification:

document that describes an isolated

hardware function FRONT-C Front input chrominance (SVHS) FRONT-DETECT Front input detection FRONT-Y_CVBS Front input luminance or CVBS

(SVHS) FRS Functional Requirement

Specification: software specification

document G-SC1-IN Green EXT1 in G-SC2-IN Green EXT2 in G-TXT Green teletext HA Horizontal Acquisition: horizontal

sync pulse coming out of the HIP HD100 Horizontal Drive: horizontal sync

pulse coming out of the featurebox HDTV High Definition TV: highest

resolution defined by the ATSC

standard (1080 lines and 1920

horizontal pixels, referred to as

1080i) The second HDTV standard,

720p x 1280 is not used in EM1A

chassis (3fH standard not feasible) Headroom Extra margin provision to avoid

clipping of signals HEATER Heater (Filament) HFB Horizontal Flyback Pulse: horizontal

sync pulse from large signal

deflection HFB+13V Non rectified output 13V-winding

LOT HIP High-end video Input Processor:

video and chroma decoder of EM1A HOP High-end video Output Processor:

video, sync and geometry controller

of EM1A HP Headphone HSI Hardware Software Interface IN-FRONT-SNDL Sound left front in IN-FRONT-SNDR Sound right front in IN-SC1-B In EXT1 Blue

Circuit descriptions and abbreviation list

GB 97EM1A 9.

IN-SC1-G In EXT1 Green IN-SC1-R In EXT1 Red IN-SC1-SNDL In EXT1 sound left IN-SC1-SNDR In EXT1 sound right IN-SC2-B In EXT2 Blue IN-SC2-CVBS_Y In EXT2 CVBS or luminance (SVHS) IN-SC2-FBL In EXT2 fast blanking IN-SC2-G In EXT2 Green 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. IO-BUS In/Out - Bus Last Status The settings last chosen by the

customer and 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 LDP Line Deflection Protection LED Light Emitting Diode LINE-DRIVE Line drive signal LNA Low Noise Adapter LSP Large signal panel MSP Multistandard Sound Processor: ITT

sound decoder of EM1A MUTE Mute-Line NC Not Connected NDF No vertical DeFlection: vertical

flyback protection NHF No Horizontal deflection: horizontal

flyback protection 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 Painter On screen display Teletext and

Control; also named Artistic

(SAA5800) P50 Project 50 communication: protocol

between TV and peripherals PCB Printed Circuit board PICNIC Peripheral Integrated Combined

Network IC: main IC for 100 Hz

featuring and feature processing PILOT Pilot Signal PILOTMUTE Pilot Mute signal 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 RAM Random Access Memory RC Remote Control RC5 RC5 signal from the remote control

receiver RESET Reset signal ROM Read Only Memory SAM Service Alignment Mode SC Sandcastle: pulse derived from sync

signals SCAVEM Scan Velocity Modulation S/C Short Circuit SC1-OUT EXT output of the MSP audio IC SC2-B-IN Scart2 Blue in SC2-C-IN Scart2 chrominance in SC2-OUT EXT output of the MSP audio IC SIF Sound Intermediate Frequency SIMM 80-fold connector between LSP and

SSB SLDP Smart Local Dooming Prevention

(HW and SW) SNDL-SC1-IN Sound left EXT1 in

SNDL-SC1-OUT Sound left EXT1 out SNDL-SC2-IN Sound left EXT2 in SNDL-SC2-OUT Sound left EXT2 out SNDR-SC1-IN Sound right EXT1 in SNDR-SC1-OUT Sound right EXT1 out SNDR-SC2-IN Sound right EXT2 out SNDR-SC2-OUT Sound right EXT2 out SNDS-VL-OUT Surround sound left variable level

out

SNDS-VR-OUT Surround sound right variable level

out

SNERT Synchronous No parity Eight bit

Reception and Transmit SSB Small Signal Board STBY Standby SW Subwoofer TXT Teletext TXT DS Teletext Dual Screen µP microprocessor VA Vertical Acquisition VBAT main supply for deflection (mostly

141 V) VD100 Vertical Drive: vertical sync pulse

from deflection 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 Y-OUT Luminance-signal to HOP IC

GB 98 EM1A10.

10. Spare parts list

Spare parts list

[A] Large Signal Panel + [F] CRT Panel

Various

3122 785 90260 Main Supply Repair Kit 3122 785 90270 Standby Supply Repair Kit

3122 785 90120 Line Supply Repair Kit 0010 2422 025 16374 2P male V 0020 4822 267 10774 2P male red 0029 3104 304 22832 Chassis frame 0032 4822 492 70788 Fix IC 0036 4822 265 20723 2P 0037 3104 304 21114 LOT SSB support 0045 4822 267 10734 5P 0050 4822 466 93461 20 X 25 0065 3104 304 22031 LOT Spacer EMG 0102 3104 304 21601 Support bracket AP 0125 3104 304 90361 Insulation plate EMG 0150 4822 265 11253 Fuse holder 0153 4822 265 11253 Fuse holder 0203 4822 265 30734 4P 0204 2422 025 04854 6P female V 0224 4822 265 41113 7P 0298 2422 500 80036 CRT V 9P female 0317 4822 265 20723 2P 0324 4822 265 41113 7P 0325 2422 025 16382 3P male V 0340 4822 267 10968 11P 0383 4822 267 10735 3P 0391 4822 267 10973 1P 0395 4822 492 70789 Fix transistor 0396 4822 492 70789 Fix transistor 0480 4822 492 70789 Fix transistor 0504 4822 492 63524 Fix transistor 0505 3122 121 24785 Spring for bracket 0620 4822 492 70789 Fix transistor 0750 3122 121 24785 Spring for bracket 0760 3122 121 24785 Spring for bracket 1001 4822 252 60151 Spark gap 1002 2422 132 07411 Relay 1P 5V 5A 1200 2422 542 90067 TUN V+U PLL PH Dk 1200 2422 542 90072 TUN TV V+U 1401 4822 071 51601 Fuse 160mA 1501 4822 070 34002 Fuse 4A 1503 4822 070 12502 Fuse 2.5A 1735 2422 025 16407 3P male V 1736 2422 025 16382 3P male V 1737 4822 267 10735 3P 1900 2422 026 05064 Cinch 12P female H 1901 2422 026 04926 4P female H 1920 4822 265 30735 5P 1921 2422 025 04851 3P 1922 2422 025 04851 3P 1923 2422 025 16599 80P female V 1936 2422 025 12485 11P male V 1937 4822 267 10557 10P 1940 4822 267 10968 11P 1943 4822 267 10748 3P 1945 4822 267 10735 3P 1946 5322 268 90415 2P 1947 4822 267 10734 5P 1948 4822 265 31215 3P

2101 5322 122 32818 2n2F 10% 100V 2102 4822 124 81151 22µF 50V 2104 4822 123 14025 2200µF 20% 16V 2106 5322 126 10223 4n7F 10% 63V 2108 4822 121 70162 10nF 5% 400V 2109 4822 126 13482 470nF 20-80% 16V 2110 5322 121 42498 680nF 5% 63V 2111 4822 121 43526 47nF 5% 250V 2112 4822 124 11913 22nF 20% 275V 2113 4822 122 33127 2n2F 10% 63V 2114 4822 121 10711 100nF 20% 275V 2120 5322 121 42386 100nF 5% 63V 2200 4822 124 80195 470µF 20% 10V 2201 4822 126 14076 220nF 25V 2202 4822 126 13473 220nF 80-20% 50V 2203 4822 124 40433 47µF 20% 25V 2300 4822 124 40764 22µF 100 V 2301 4822 124 40196 220µF 20% 16V 2303 5322 122 31863 330pF 5% 63V 2304 4822 121 41856 22nF 5% 250V 2305 3198 017 44740 470nF 10V 2306 4822 126 14585 100nF 10% 50V

2307 5322 122 32654 22nF 10% 63V 2309 5322 122 32654 22nF 10% 63V 2313 4822 124 11565 10µF 20% 250V 2315 4822 122 33216 270pF 5% 50V 2316 4822 121 40518 100nF 10% 250V 2317 5322 121 44356 4n7F 5% 2kV 2318 5322 122 32654 22nF 10% 63V 2319 4822 122 30043 10nF 80% 63V 2320 4822 126 13838 100nF 20-80% 50V 2325 4822 126 14585 100nF 10% 50V 2400 4822 124 11575 7µF 20% 160V 2402 4822 126 13599 3n3F 10% 500V 2411 4822 126 14585 100nF 10% 50V 2412 4822 126 13751 47nF 10% 63V 2413 4822 124 12255 10µF 20% 50V 2414 4822 126 13751 47nF 10% 63V 2415 4822 122 33575 220pF 5% 63V 2416 4822 126 14133 1nF 20% 250V 2417 4822 126 14076 220nF 25V 2419 4822 126 14237 470pF 10% 2kV 2420 4822 121 70595 1n2F 5% 2kV 2421 4822 121 42634 560nF 5% 250V 2424 4822 126 10206 2n2F 10% 500V 2425 4822 121 10526 9n1F 5% 2kV 2426 2222 375 90218 18nF 5% 630V 2429 4822 121 43343 4n7F 10% 400V 2430 4822 121 41857 10nF 5% 250V 2431 4822 126 10206 2n2F 10% 500V 2433 2222 479 90022 0.43µF 250V 2446 5322 122 32268 470pF 10% 50V 2447 5322 122 32268 470pF 10% 50V 2448 5322 122 32268 470pF 10% 50V 2450 5322 121 42578 100nF 5% 250V 2455 5322 122 34099 470pF 10% 63V 2459 4822 122 31177 470pF 10% 500V 2460 4822 124 40784 3300µF 20% 16V 2461 4822 122 31177 470pF 10% 500V 2462 4822 124 80061 1000µF 20% 25V 2463 4822 122 31177 470pF 10% 500V 2464 4822 124 80061 1000µF 20% 25V 2465 4822 122 31177 470pF 10% 500V 2466 4822 124 41584 100µF 20% 10V 2467 4822 124 41584 100µF 20% 10V 2468 4822 124 12297 4.7µF 20% 350V 2469 4822 122 31169 1n5F 10% 500V 2471 2222 460 90025 18nF 2% 63V 2480 4822 121 43856 4n7F 5% 250V 2485 2222 460 90022 10nF 2% 63V 2489 4822 124 40433 47µF 20% 25V 2492 4822 126 14076 220nF 25V 2493 5322 122 32654 22nF 10% 63V 2494 4822 126 14076 220nF 25V 2495 4822 126 14076 220nF 25V 2496 4822 126 13838 100nF 20-80% 50V 2497 4822 126 14076 220nF 25V 2498 4822 126 14585 100nF 10% 50V 2499 4822 122 33891 3.3nF10% 63V 2501 4822 126 14588 2n2F 10% 1kV 2502 5322 122 32818 2n2F 10% 100V 2503 5322 121 42489 33nF 5% 250V 2505 2020 554 90148 470pF 20% 250V 2506 4822 121 43913 470nF 10% 100V 2507 4822 126 13589 470nF 275V 2508 4822 124 11913 22nF 20% 275V 2509 4822 124 11913 22nF 20% 275V 2510 4822 124 12415 20µF 20% 400V 2512 4822 124 12056 1000µF 20% 35V 2513 5322 122 34099 470pF 10% 63V 2514 5322 122 31863 330pF 5% 63V 2515 2020 021 91543 47µF 20% 160V 2518 4822 126 13249 150pF 10% 500V 2519 5322 122 32818 2n2F 10% 100V 2520 4822 126 14585 100nF 10% 50V 2521 4822 122 33216 270pF 5% 50V 2528 4822 126 14585 100nF 10% 50V 2530 4822 126 14585 100nF 10% 50V 2531 4822 122 31169 1n5F 10% 500V 2536 4822 124 21913 1µF 20% 63V 2538 5322 126 10223 4n7F 10% 63V 2601 4822 121 51319 1µF 10% 63V 2602 4822 124 81151 22µF 50V 2603 2020 552 95447 16V 2U2 2604 4822 124 40248 10µF 20% 63V 2607 4822 124 40769 4.7µF 20% 100V 2609 4822 124 40196 220µF 20% 16V 2610 4822 122 33127 2n2F 10% 63V 2620 4822 126 14076 220nF 25V 2621 4822 126 13838 100nF 20-80% 50V 2622 4822 124 40255 100µF 20% 63V

2624 4822 121 51252 470nF 5% 63V 2625 4822 121 51252 470nF 5% 63V 2627 5322 124 40641 10µF 20% 100V 2639 2238 780 15654 220n 10% 16V 2640 4822 124 21913 1µF 20% 63V 2642 4822 124 40255 100µF 20% 63V 2653 5322 126 10511 1nF 5% 50V 2704 4822 124 41751 47µF 20% 50V 2730 4822 124 81151 22µF 50V 2731 4822 124 81151 22µF 50V 2732 4822 124 40255 100µF 20% 63V 2733 4822 124 40255 100µF 20% 63V 2734 4822 124 81151 22µF 50V 2735 4822 124 81151 22µF 50V 2738 4822 124 80791 470µF 16V 20% 2739 4822 124 80791 470µF 16V 20% 2756 4822 126 13751 47nF 10% 63V 2758 4822 124 40769 4.7µF 20% 100V 2759 4822 124 40769 4.7µF 20% 100V 2760 4822 124 80061 1000µF 20% 25V 2761 4822 124 80061 1000µF 20% 25V 2762 4822 124 80061 1000µF 20% 25V 2765 4822 124 40255 100µF 20% 63V 2766 4822 124 40255 100µF 20% 63V 2767 4822 124 80144 220µF 20% 25V 2768 4822 124 80144 220µF 20% 25V 2775 4822 126 13751 47nF 10% 63V 2776 4822 126 13751 47nF 10% 63V 2782 4822 126 13751 47nF 10% 63V 2784 4822 121 43526 47nF 5% 250V 2785 4822 121 43526 47nF 5% 250V 2786 5322 121 42498 680nF 5% 63V 2906 5322 122 32531 100pF 5% 50V 2910 5322 122 32531 100pF 5% 50V 2912 4822 124 40248 10µF 20% 63V 2913 4822 126 14585 100nF 10% 50V 2917 5322 122 32531 100pF 5% 50V 2920 5322 122 32531 100pF 5% 50V 2923 5322 122 31863 330pF 5% 63V 2925 5322 122 31863 330pF 5% 63V 2926 4822 124 11767 470µF 20% 25V 2927 4822 124 41751 47µF 20% 50V 2928 4822 126 13482 470nF 20-80% 16V 2941 5322 122 31865 1n5F 10% 63V 2942 5322 122 31865 1n5F 10% 63V 2944 4822 121 10779 1n5F 10% 50V 2946 5322 122 31865 1n5F 10% 63V 2951 4822 124 21913 1µF 20% 63V 2952 4822 126 13751 47nF 10% 63V 2953 4822 126 13751 47nF 10% 63V

3101 4822 053 20106 10M 5% 0.25W 3102 4822 050 26801 680Ω 1% 0.6W 3103 4822 050 26801 680Ω 1% 0.6W 3104 4822 116 52195 47Ω 5% 0.5W 3105 4822 050 26801 680Ω 1% 0.6W 3106 4822 050 11002 1k 1% 0.4W 3107 4822 050 11002 1k 1% 0.4W 3108 4822 116 52176 10Ω 5% 0.5W 3109 4822 051 20109 10Ω 5% 0.1W 3110 4822 052 10109 10Ω 5% 0.33W 3113 4822 116 52186 22Ω 5% 0.5W 3114 4822 116 83872 220Ω 5% 0.5W 3117 4822 116 52195 47Ω 5% 0.5W 3118 4822 050 24708 4Ω7 1% 0.6W 3120 4822 051 20109 10Ω 5% 0.1W 3123 4822 116 52176 10Ω 5% 0.5W 3124 4822 116 52199 68Ω 5% 0.5W 3125 4822 116 52182 15Ω 5% 0.5W 3126 4822 050 21003 10k 1% 0.6W 3127 4822 116 52289 5k6 5% 0.5W 3130 4822 116 52195 47Ω 5% 0.5W 3200 4822 051 20101 100Ω 5% 0.1W 3201 4822 051 20101 100Ω 5% 0.1W 3202 4822 050 11002 1k 1% 0.4W 3203 4822 051 10102 1k 2% 0.25W 3230 4822 053 11223 22k 5% 2W 3300 4822 052 10109 10Ω 5% 0.33W 3301 4822 053 12472 4k7 5% 3W 3303 4822 117 10965 18k 1% 0.1W 3304 4822 051 10102 1k 2% 0.25W 3307 4822 051 20109 10Ω 5% 0.1W 3308 4822 117 11148 56k 1% 0.1W 3309 4822 117 10353 150Ω 1% 0.1W 3310 4822 051 10102 1k 2% 0.25W 3311 4822 051 20479 47Ω 5% 0.1W 3312 4822 117 11449 2k2 5% 0.1W

Spare parts list

GB 99EM1A 10.

3316 4822 117 11148 56k 1% 0.1W 3318 4822 051 20478 4Ω7 5% 0.1W 3319 4822 051 10102 1k 2% 0.25W 3321 4822 053 12472 4k7 5% 3W 3322 4822 051 20101 100Ω 5% 0.1W 3334 4822 050 11002 1k 1% 0.4W 3335 4822 051 10102 1k 2% 0.25W 3336 4822 051 10102 1k 2% 0.25W 3337 4822 051 10102 1k 2% 0.25W 3338 3198 013 01020 1k 20% 0.5W 3339 3198 013 01020 1k 20% 0.5W 3340 3198 013 01020 1k 20% 0.5W 3341 4822 052 10151 150Ω 5% 0.33W 3342 4822 051 20471 470Ω 5% 0.1W 3343 4822 050 22202 2k2 1% 0.6W 3345 4822 116 52191 33Ω 5% 0.5W 3347 3198 013 01520 1k5 20% 0.5W 3348 4822 050 22202 2k2 1% 0.6W 3349 3198 013 01020 1k 20% 0.5W 3350 4822 116 83883 470Ω 5% 0.5W 3351 4822 116 83883 470Ω 5% 0.5W 3352 4822 116 83883 470Ω 5% 0.5W 3354 4822 117 11449 2k2 5% 0.1W 3355 4822 051 20478 4Ω7 5% 0.1W 3356 4822 051 10102 1k 2% 0.25W 3357 4822 051 20478 4Ω7 5% 0.1W 3358 4822 117 11139 1k5 1% 0.1W 3365 4822 051 20478 4Ω7 5% 0.1W 3402 4822 117 10837 100k 1% 0.1W 3403 4822 051 20101 100Ω 5% 0.1W 3404 4822 051 20471 470Ω 5% 0.1W 3406 4822 051 20101 100Ω 5% 0.1W 3407 4822 117 10833 10k 1% 0.1W 3408 4822 117 11504 270Ω 1% 0.1W 3409 4822 050 11002 1k 1% 0.4W 3410 4822 051 20479 47Ω 5% 0.1W 3411 4822 116 52193 39Ω 5% 0.5W 3414 4822 117 13577 330Ω 1% 1.25W 3415 3198 012 31590 15Ω 5% 3W 3417 4822 116 52176 10Ω 5% 0.5W 3418 4822 050 23303 33k 1% 0.6W 3431 4822 052 10331 330Ω 5% 0.33W 3450 4822 116 52238 12k 5% 0.5W 3451 4822 116 52303 8k2 5% 0.5W 3460 4822 052 10108 1Ω 5% 0.33W 3461 4822 052 10108 1Ω 5% 0.33W 3462 4822 052 10108 1Ω 5% 0.33W 3463 4822 052 10108 1Ω 5% 0.33W 3464 4822 052 11108 1Ω 5% 0.5W 3465 4822 052 11108 1Ω 5% 0.5W 3466 4822 052 10228 2Ω2 5% 0.33W 3467 4822 052 10228 2Ω2 5% 0.33W 3468 4822 052 11688 6Ω8 5% 0.5W 3469 4822 116 52175 100Ω 5% 0.5W 3470 4822 051 20472 4k7 5% 0.1W 3471 4822 117 11507 6k8 1% 0.1W 3472 4822 051 20393 39k 5% 0.1W 3473 4822 117 10834 47k 1% 0.1W 3474 4822 117 10833 10k 1% 0.1W 3476 4822 116 83874 220k 5% 0.5W 3477 4822 117 10833 10k 1% 0.1W 3478 4822 117 11503 220Ω 1% 0.1W 3481 4822 116 52175 100Ω 5% 0.5W 3484 4822 051 10102 1k 2% 0.25W 3485 4822 051 10102 1k 2% 0.25W 3486 4822 051 20472 4k7 5% 0.1W 3487 4822 051 20223 22k 5% 0.1W 3489 4822 117 11449 2k2 5% 0.1W 3490 4822 051 20223 22k 5% 0.1W 3495 4822 050 23303 33k 1% 0.6W 3496 4822 050 11002 1k 1% 0.4W 3497 4822 051 20101 100Ω 5% 0.1W 3498 4822 051 10102 1k 2% 0.25W 3499 4822 051 20101 100Ω 5% 0.1W 3500 4822 117 12074 1Ω5 10% 7W 3501 3198 013 04710 470Ω 20% 0.5W 3504 4822 116 83883 470Ω 5% 0.5W 3505 4822 051 20683 68k 5% 0.1W 3506 4822 117 10834 47k 1% 0.1W 3507 4822 050 21604 160k 1% 0.6W 3508 3198 012 16820 6.8k.1W 3509 2322 595 90022 VDR DC 1mA/612V 3510 4822 117 11951 2k 1% 0.1W 3511 4822 116 52276 3k9 5% 0.5W 3512 4822 116 52297 68k 5% 0.5W 3513 4822 116 52272 330k 5% 0.5W 3514 3198 012 16870 0Ω68 5% 1W 3515 2322 193 53128 1Ω2 5% 3516 4822 116 10075 9Ω 220V 3517 4822 051 20472 4k7 5% 0.1W 3518 4822 116 52234 100k 5% 0.5W 3519 4822 051 20223 22k 5% 0.1W 3520 4822 053 11333 33k 5% 2W 3521 4822 117 10118 1M 5% 0.5W

3522 4822 116 83961 6k8 5% 3523 4822 051 20105 1M 5% 0.1W 3524 4822 051 10102 1k 2% 0.25W 3525 4822 051 20479 47Ω 5% 0.1W 3526 4822 116 83303 10Ω 2W 3527 4822 117 11454 820Ω 1% 0.1W 3528 4822 117 10833 10k 1% 0.1W 3529 4822 051 20472 4k7 5% 0.1W 3530 4822 116 52297 68k 5% 0.5W 3531 4822 117 10833 10k 1% 0.1W 3533 4822 051 20159 15Ω 5% 0.1W 3535 4822 051 20184 180k 5% 0.1W 3536 4822 051 20684 680k 5% 0.1W 3537 4822 051 20223 22k 5% 0.1W 3540 4822 117 10834 47k 1% 0.1W 3542 3198 012 11570 0Ω15 5% 1W 3543 4822 117 11504 270Ω 1% 0.1W 3544 4822 051 20479 47Ω 5% 0.1W 3545 4822 051 20471 470Ω 5% 0.1W 3600 4822 050 24704 470k 1% 0.6W 3601 4822 050 24704 470k 1% 0.6W 3602 4822 051 20822 8k2 5% 0.1W 3603 4822 101 11186 470Ω 30% lin 0.1W 3604 4822 051 20471 470Ω 5% 0.1W 3605 4822 051 20273 27k 5% 0.1W 3606 4822 051 10102 1k 2% 0.25W 3607 4822 051 20223 22k 5% 0.1W 3608 4822 051 20223 22k 5% 0.1W 3609 4822 101 11192 22k 30% lin 0.1W 3610 4822 051 20333 33k 5% 0.1W 3612 4822 051 20274 270k 5% 0.1W 3613 4822 051 20274 270k 5% 0.1W 3614 4822 050 21504 150k 1% 0.6W 3615 4822 116 52292 560k 5% 0.5W 3616 4822 116 52285 470k 5% 0.5W 3617 4822 050 11002 1k 1% 0.4W 3618 4822 051 10102 1k 2% 0.25W 3619 4822 051 20562 5k6 5% 0.1W 3620 4822 116 80176 1Ω 5% 0.5W 3621 4822 116 80176 1Ω 5% 0.5W 3622 4822 116 80176 1Ω 5% 0.5W 3623 4822 051 20223 22k 5% 0.1W 3624 4822 052 10158 1Ω5 5% 0.33W 3625 4822 116 83872 220Ω 5% 0.5W 3626 4822 116 83872 220Ω 5% 0.5W 3627 4822 116 52238 12k 5% 0.5W 3628 5322 116 53564 3Ω3 5% 0.5W 3630 4822 051 10102 1k 2% 0.25W 3631 4822 051 20472 4k7 5% 0.1W 3632 4822 117 10833 10k 1% 0.1W 3633 4822 117 11449 2k2 5% 0.1W 3639 4822 051 20105 1M 5% 0.1W 3640 4822 116 52257 22k 5% 0.5W 3641 4822 117 10833 10k 1% 0.1W 3642 4822 117 10833 10k 1% 0.1W 3643 4822 051 20223 22k 5% 0.1W 3644 4822 117 10833 10k 1% 0.1W 3645 4822 116 52272 330k 5% 0.5W 3652 4822 051 20101 100Ω 5% 0.1W 3653 4822 051 20472 4k7 5% 0.1W 3661 4822 051 10102 1k 2% 0.25W 3662 4822 051 20225 2M2 5% 0.1W 3663 4822 051 20332 3k3 5% 0.1W 3665 4822 051 20684 680k 5% 0.1W 3701 4822 117 10833 10k 1% 0.1W 3702 4822 117 10833 10k 1% 0.1W 3703 4822 117 10833 10k 1% 0.1W 3705 4822 051 20122 1k2 5% 0.1W 3706 4822 051 20122 1k2 5% 0.1W 3707 4822 051 20122 1k2 5% 0.1W 3708 4822 116 83961 6k8 5% 3710 4822 051 10102 1k 2% 0.25W 3711 4822 117 10833 10k 1% 0.1W 3714 4822 051 20472 4k7 5% 0.1W 3715 4822 051 10102 1k 2% 0.25W 3716 4822 117 11139 1k5 1% 0.1W 3717 4822 051 20472 4k7 5% 0.1W 3718 4822 116 52243 1k5 5% 0.5W 3719 4822 051 10102 1k 2% 0.25W 3730 4822 117 10833 10k 1% 0.1W 3731 4822 117 10833 10k 1% 0.1W 3732 4822 051 20822 8k2 5% 0.1W 3733 4822 051 20822 8k2 5% 0.1W 3734 4822 117 10834 47k 1% 0.1W 3735 4822 117 10834 47k 1% 0.1W 3736 4822 051 10102 1k 2% 0.25W 3737 4822 051 10102 1k 2% 0.25W 3738 4822 117 11148 56k 1% 0.1W 3739 4822 117 11148 56k 1% 0.1W 3740 4822 051 20683 68k 5% 0.1W 3741 4822 051 20683 68k 5% 0.1W 3742 4822 116 52199 68Ω 5% 0.5W 3743 4822 116 52199 68Ω 5% 0.5W 3744 4822 117 11503 220Ω 1% 0.1W

3745 4822 117 11503 220Ω 1% 0.1W 3750 4822 117 10834 47k 1% 0.1W 3756 4822 117 10833 10k 1% 0.1W 3757 4822 117 10837 100k 1% 0.1W 3758 4822 117 10837 100k 1% 0.1W 3762 4822 051 20828 8Ω2 5% 0.1W 3763 4822 117 10837 100k 1% 0.1W 3765 4822 117 11507 6k8 1% 0.1W 3770 4822 117 10834 47k 1% 0.1W 3773 4822 051 20154 150k 5% 0.1W 3784 4822 051 20828 8Ω2 5% 0.1W 3789 4822 051 20828 8Ω2 5% 0.1W 3790 4822 051 20822 8k2 5% 0.1W 3792 4822 051 20822 8k2 5% 0.1W 3794 4822 116 52195 47Ω 5% 0.5W 3798 4822 116 52249 1k8 5% 0.5W 3908 4822 116 52201 75Ω 5% 0.5W 3909 4822 116 52201 75Ω 5% 0.5W 3910 4822 051 20101 100Ω 5% 0.1W 3911 4822 116 52201 75Ω 5% 0.5W 3913 4822 116 52201 75Ω 5% 0.5W 3915 4822 116 52201 75Ω 5% 0.5W 3919 4822 051 10102 1k 2% 0.25W 3920 4822 051 10102 1k 2% 0.25W 3925 4822 052 10688 6Ω8 5% 0.33W 3928 4822 051 20101 100Ω 5% 0.1W 3929 4822 117 10833 10k 1% 0.1W 3930 4822 051 20561 560Ω 5% 0.1W 3932 4822 116 52201 75Ω 5% 0.5W 3935 4822 116 52201 75Ω 5% 0.5W 3936 4822 117 10353 150Ω 1% 0.1W 3937 4822 117 10353 150Ω 1% 0.1W 3940 4822 117 10353 150Ω 1% 0.1W 3941 4822 117 10353 150Ω 1% 0.1W 3944 4822 051 10102 1k 2% 0.25W 3946 4822 051 10102 1k 2% 0.25W 3950 4822 116 52249 1k8 5% 0.5W 3970 4822 051 20121 120Ω 5% 0.1W 3971 4822 117 10833 10k 1% 0.1W 3972 4822 117 10833 10k 1% 0.1W 3991 4822 116 52175 100Ω 5% 0.5W 3992 4822 116 52175 100Ω 5% 0.5W 3993 4822 051 20101 100Ω 5% 0.1W 3995 4822 116 52175 100Ω 5% 0.5W 3996 4822 116 52175 100Ω 5% 0.5W 3997 4822 116 52175 100Ω 5% 0.5W 4xxx 4822 051 10008 0Ω 5% 0.25W 4xxx 4822 051 20008 0Ω 5% 0.25W

5101 8204 000 73591 TFM standby 5102 4822 157 70436 8.2µH 5103 4822 526 10704 Bead 100mHz 5104 4822 157 11411 Bead 100mHz 5105 4822 157 11411 Bead 100mHz 5110 4822 157 11411 Bead 100mHz 5115 4822 157 11411 Bead 100mHz 5120 3198 018 16870 680nF 10% 5200 4822 157 11775 6.8µH 5% 5203 4822 157 71206 Coil 5204 4822 157 71206 Coil 5205 4822 157 71206 Coil 5400 4822 157 11869 33µH 10% 5410 2422 531 02447 TFM sig driver 5411 4822 157 71097 0.56µH 5421 2422 536 00102 Coil lincor 6µH 5422 2422 531 02357 Bridge coil 5426 4822 157 70826 2.4µH 5430 3128 138 21091 TFM LOT slot 5461 4822 157 11411 Bead 100mHz 5463 4822 157 11411 Bead 100mHz 5465 4822 157 11411 Bead 100mHz 5466 4822 157 11869 33µH 10% 5467 4822 157 11411 Bead 100mHz 5468 4822 157 11737 22µH 10% 5469 3198 018 11890 18U 5% 5494 4822 157 11855 68µH 10% 5502 4822 157 11411 Bead 100mHz 5504 2422 549 43286 Bridge coil 5505 4822 157 11411 Bead 100mHz 5506 2422 531 98042 TFM SMT 5510 4822 157 11411 Bead 100mHz 5620 4822 157 11771 0.09µH 10%

6103 4822 130 42488 BYD33D 6105 4822 130 34281 BZX79-B15 6106 4822 130 34398 BZX79-B24 6108 4822 130 30621 1N4148 6109 4822 130 31083 BYW55

GB 100 EM1A10.

Spare parts list

6111 4822 130 83865 SB360 6120 4822 130 30621 1N4148 6121 4822 130 30621 1N4148 6122 3198 010 53980 BZX79-B3V9 6200 9322 149 10685 BZM55-C33 6204 9322 129 38685 BZM55-C6V8 6205 9322 129 38685 BZM55-C6V8 6206 9322 129 38685 BZM55-C6V8 6207 9322 129 38685 BZM55-C6V8 6305 4822 130 30842 BAV21 6306 4822 130 30842 BAV21 6307 4822 130 30842 BAV21 6308 4822 130 83757 BAS216 6309 4822 130 83757 BAS216 6310 4822 130 83757 BAS216 6405 9322 149 10685 BZM55-C33 6406 4822 130 83757 BAS216 6407 4822 130 83757 BAS216 6408 4822 130 42488 BYD33D 6421 4822 130 10753 BY359X-1500 6422 4822 130 10218 BY229X-800 6442 9322 129 42685 BZM55-C15 6461 4822 130 83796 BYV29F-500 6463 4822 130 83796 BYV29F-500 6465 4822 130 83796 BYV29F-500 6466 4822 130 83796 BYV29F-500 6468 4822 130 42488 BYD33D 6480 4822 130 42488 BYD33D 6481 4822 130 31024 BZX79-B18 6482 4822 130 83757 BAS216 6492 4822 130 83757 BAS216 6493 4822 130 11594 BZX284-C47 6499 9322 129 39685 BZM55-C8V2 6504 4822 130 10741 GBU6J 6505 4822 130 34281 BZX79-B15 6506 4822 130 30621 1N4148 6507 9340 550 66112 BYV28-200/24 6508 4822 130 11415 BYV28-400/20 6510 4822 130 34281 BZX79-B15 6511 4822 130 83757 BAS216 6512 4822 130 83757 BAS216 6514 5322 130 31932 BZT03-C200 6515 4822 130 32904 BZV85-C5V6 6516 4822 130 83757 BAS216 6517 4822 130 31983 BAT85 6518 4822 130 83757 BAS216 6519 4822 130 42488 BYD33D 6600 4822 130 30621 1N4148 6616 4822 130 83757 BAS216 6619 4822 130 42488 BYD33D 6620 5322 130 31938 BYV27-200 6623 4822 130 83757 BAS216 6660 4822 130 31983 BAT85 6665 4822 130 83757 BAS216 6731 4822 130 83757 BAS216 6732 4822 130 83757 BAS216

7100 4822 130 44568 BC557B 7101 4822 130 40959 BC547B 7102 4822 130 11417 STP3NB60FP 7104 4822 130 11418 TCDT1102G 7228 4822 209 73852 PMBT2369 7300 4822 130 44154 BF199 7301 5322 130 60159 BC846B 7302 5322 130 41888 BD140-16 7303 5322 130 41886 BD139-16 7304 4822 130 60373 BC856B 7307 9352 561 40112 TDA6108 7407 5322 130 60159 BC846B 7408 5322 130 44647 BC368 7409 5322 130 60159 BC846B 7421 9340 210 30127 BU2520DX 7440 4822 209 70672 LM358N 7480 4822 130 11417 STP3NB60FP 7481 4822 130 44568 BC557B 7482 4822 130 11418 TCDT1102G 7501 4822 130 60373 BC856B 7502 4822 130 61675 BF487 7504 9322 126 65687 STP5NB60FP 7505 4822 130 60373 BC856B 7506 4822 209 14933 TL431IZ 7510 5322 130 60159 BC846B 7528 4822 130 40981 BC337-25 7529 5322 130 60159 BC846B 7600 4822 130 44461 BC546B 7602 5322 130 60159 BC846B 7603 4822 130 60373 BC856B 7605 5322 130 60159 BC846B 7606 5322 130 60159 BC846B 7610 4822 130 11418 TCDT1102G 7620 4822 209 90009 TDA8177

7640 5322 130 60159 BC846B 7641 5322 130 60159 BC846B 7652 5322 130 60159 BC846B 7653 5322 130 60159 BC846B 7654 4822 130 60373 BC856B 7655 5322 130 60159 BC846B 7701 5322 130 60159 BC846B 7702 5322 130 60159 BC846B 7720 5322 130 60159 BC846B 7721 5322 130 60159 BC846B 7722 4822 130 60373 BC856B 7723 4822 130 60373 BC856B 7724 5322 130 60159 BC846B 7725 5322 130 60159 BC846B 7730 5322 130 60159 BC846B 7731 4822 130 60373 BC856B 7732 5322 130 60159 BC846B 7733 5322 130 60159 BC846B 7740 4822 209 32269 TDA2616/N1 7750 4822 209 32269 TDA2616/N1 7901 4822 130 40959 BC547B 7905 5322 130 44647 BC368 7906 4822 209 12334 L4940V85 7907 5322 130 60159 BC846B 8001 4822 320 20233 cable 8036 3104 311 01421 2P3 220mm 8203 3104 311 02441 4P 400mm 8204 3104 311 02521 6P 280mm 8317 3104 311 01421 2P3 220mm 8324 3104 311 01881 7P 480mm 8325 4822 320 20189 EHT cable 8326 4822 320 20216 EHT cable 8340 3104 311 02321 11P 400mm 8400 2422 025 16691 3P 2.5mm H 8501 3104 311 01892 JST 560mm 8737 3104 311 01101 3P 1m 8920 3104 311 02511 5P 280mm 8921 3104 311 01831 3P 280mm 8922 3104 311 01831 3P 280mm 8937 3104 311 02071 10P 280mm 9312 4822 051 20008 Jumper

[B] Small Signal Board

Various

0002 3104 301 23991 Shielding frame 0003 3104 301 24001 Shielding top cover 0026 3104 301 24011 Shielding bottom cover 0302 2422 025 16542 2P male V 1001 2422 543 89018 Crystal 12MHz 1020 3104 328 06281 SSB multi AP virtual DS 1020 3104 328 06291 SSB China virtual DS 1020 3104 328 10991 SSB Middle East virtual DS 1301 2422 540 98456 Crystal 12MHz 1309 2422 543 01184 Crystal 4.433619MHz 1310 2422 543 01183 Crystal 3.579545MHz 1405 2422 549 44374 Saw Filter OFWK9352L 1405 2422 549 44389 Saw Filter OFWK9361L 1406 2422 549 44324 Crystal 5.5-5.74MHz 1407 2422 549 44043 Crystal 4MHz 1408 2422 549 44376 Saw Filter 1408 2422 549 44388 Saw Filter 1409 2422 549 44373 Saw Filter OFWK3955L 1651 2422 543 89019 Crystal 18.432MHz 1681 2422 025 16835 3P male H 1682 2422 025 16729 10P female V 1701 2422 543 89018 Crystal 12MHz

2001 4822 126 11671 33pF 2002 4822 126 11671 33pF 2004 4822 126 14305 100nF 10% 16V 2005 4822 126 14305 100nF 10% 16V 2006 4822 126 14305 100nF 10% 16V 2007 4822 126 14305 100nF 10% 16V 2008 4822 126 14305 100nF 10% 16V 2010 4822 122 33777 47pF 5% 63V 2011 4822 122 33777 47pF 5% 63V 2012 4822 122 33777 47pF 5% 63V 2013 4822 124 12095 100µF 20% 16V 2014 4822 126 14305 100nF 10% 16V 2015 4822 126 14305 100nF 10% 16V 2016 4822 124 12095 100µF 20% 16V 2017 4822 126 14305 100nF 10% 16V 2020 5322 126 11583 10nF 10% 50V 2030 4822 126 14305 100nF 10% 16V 2031 4822 126 14305 100nF 10% 16V 2300 4822 124 12095 100µF 20% 16V 2301 3198 017 41050 1µF 10V

2302 4822 126 14305 100nF 10% 16V 2303 5322 126 11583 10nF 10% 50V 2304 4822 122 33741 10pF 10% 50V 2306 4822 126 13881 470pF 5% 50V 2307 4822 126 14305 100nF 10% 16V 2308 4822 122 33741 10pF 10% 50V 2313 4822 121 70159 0.1µF 16V 2314 4822 124 12095 100µF 20% 16V 2315 4822 126 14305 100nF 10% 16V 2317 4822 126 14491 2.2µF 10V 2318 4822 126 14494 22nF 10% 25V 2319 5322 126 11583 10nF 10% 50V 2320 4822 122 33741 10pF 10% 50V 2321 4822 126 14305 100nF 10% 16V 2322 4822 126 14305 100nF 10% 16V 2323 4822 126 14305 100nF 10% 16V 2324 5322 126 11583 10nF 10% 50V 2325 4822 126 14305 100nF 10% 16V 2328 4822 122 33761 22pF 5% 50V 2329 4822 126 14305 100nF 10% 16V 2330 4822 126 14305 100nF 10% 16V 2331 4822 126 14305 100nF 10% 16V 2332 4822 126 14305 100nF 10% 16V 2333 4822 126 14491 2.2µF 10V 2334 4822 126 14491 2.2µF 10V 2335 4822 124 80349 47µF 20% 6.3V 2336 4822 126 14491 2.2µF 10V 2338 5322 126 11583 10nF 10% 50V 2340 4822 124 23002 10µF 16V 2341 4822 124 12095 100µF 20% 16V 2342 4822 126 14305 100nF 10% 16V 2343 4822 126 14305 100nF 10% 16V 2350 4822 126 14305 100nF 10% 16V 2351 4822 126 14305 100nF 10% 16V 2352 4822 126 14305 100nF 10% 16V 2353 4822 126 14305 100nF 10% 16V 2354 4822 126 14305 100nF 10% 16V 2356 4822 126 14305 100nF 10% 16V 2357 4822 126 14305 100nF 10% 16V 2358 5322 126 11579 3n3F 10% 63V 2359 4822 122 33752 15pF 5% 50V 2360 3198 016 31280 1p5F 50V 2361 3198 016 31280 1p5F 50V 2362 4822 126 11663 12pF 2365 4822 126 14305 100nF 10% 16V 2366 4822 126 14305 100nF 10% 16V 2367 4822 126 14305 100nF 10% 16V 2368 4822 126 14305 100nF 10% 16V 2369 4822 126 14305 100nF 10% 16V 2370 4822 126 14305 100nF 10% 16V 2371 4822 126 13193 4n7F 10% 63V 2372 4822 126 14043 1µF 20-80% 16V 2373 4822 126 14305 100nF 10% 16V 2374 4822 126 14491 2.2µF 10V 2375 4822 126 14494 22nF 10% 25V 2376 4822 126 14305 100nF 10% 16V 2377 4822 124 12095 100µF 20% 16V 2378 4822 126 14305 100nF 10% 16V 2384 4822 126 14305 100nF 10% 16V 2385 4822 126 14305 100nF 10% 16V 2409 4822 126 14491 2.2µF 10V 2410 4822 126 14472 1µF 10% 10V 2411 4822 126 14305 100nF 10% 16V 2412 4822 126 13193 4n7F 10% 63V 2413 4822 124 80151 47µF 16V 2417 3198 017 44740 470nF 10V 2418 3198 016 38280 8p2F 50V 2418 4822 122 33741 10pF 10% 50V 2420 4822 122 33753 150pF 5% 50V 2422 4822 126 14305 100nF 10% 16V 2424 4822 126 14305 100nF 10% 16V 2425 4822 124 12095 100µF 20% 16V 2426 4822 126 14305 100nF 10% 16V 2501 4822 122 33777 47pF 5% 63V 2502 4822 122 32927 20nF 20-80% 50V 2503 4822 122 32927 20nF 20-80% 50V 2504 4822 122 32927 20nF 20-80% 50V 2505 4822 122 32927 20nF 20-80% 50V 2508 2020 021 91557 100µF 20% 16V 2509 4822 122 33752 15pF 5% 50V 2510 4822 122 33752 15pF 5% 50V 2550 4822 126 14241 50V 330P 2602 4822 126 14107 330nF 20-80% 25V 2603 4822 126 14107 330nF 20-80% 25V 2604 4822 126 14107 330nF 20-80% 25V 2605 4822 126 14305 100nF 10% 16V 2609 3198 016 31020 1nF 25V 2610 4822 126 14238 50V 2N2 2611 5322 126 11578 1nF 10% 50V 2629 4822 126 14107 330nF 20-80% 25V 2632 4822 126 14107 330nF 20-80% 25V 2634 3198 016 31020 1nF 25V 2637 4822 126 14107 330nF 20-80% 25V 2639 4822 124 23002 10µF 16V

Spare parts list

GB 101EM1A 10.

2640 4822 126 13879 20nF 20-80% 16V 2651 4822 126 14305 100nF 10% 16V 2652 4822 122 33777 47pF 5% 63V 2653 4822 122 32927 20nF 20-80% 50V 2654 4822 126 13881 470pF 5% 50V 2655 4822 126 13881 470pF 5% 50V 2656 4822 126 13881 470pF 5% 50V 2657 4822 126 13881 470pF 5% 50V 2658 4822 126 13881 470pF 5% 50V 2661 4822 122 32927 20nF 20-80% 50V 2662 4822 122 32927 20nF 20-80% 50V 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 3p3F 50V 2668 3198 016 33380 3p3F 50V 2669 4822 124 23002 10µF 16V 2670 4822 126 14305 100nF 10% 16V 2673 3198 016 31020 1nF 25V 2674 3198 016 31020 1nF 25V 2675 4822 124 23002 10µF 16V 2677 2020 021 91554 10µF 20% 16V 2678 2020 021 91554 10µF 20% 16V 2679 4822 126 14305 100nF 10% 16V 2680 2020 021 91554 10µF 20% 16V 2681 4822 126 14305 100nF 10% 16V 2682 2020 021 91554 10µF 20% 16V 2685 3198 016 31020 1nF 25V 2686 3198 016 31020 1nF 25V 2693 4822 126 13883 220pF 5% 50V 2694 4822 126 14305 100nF 10% 16V 2702 2020 021 91554 10µF 20% 16V 2703 4822 126 14305 100nF 10% 16V 2704 2020 021 91554 10µF 20% 16V 2706 2020 021 91557 100µF 20% 16V 2707 4822 126 14305 100nF 10% 16V 2708 2020 021 91554 10µF 20% 16V 2709 4822 126 14305 100nF 10% 16V 2710 2020 021 91554 10µF 20% 16V 2712 2020 021 91554 10µF 20% 16V 2713 4822 126 14305 100nF 10% 16V 2728 4822 126 14305 100nF 10% 16V 2729 4822 126 14225 56pF 5% 50V 2730 4822 126 14494 22nF 10% 25V 2731 4822 122 31765 100pF 2% 63V 2733 4822 126 14494 22nF 10% 25V 2738 4822 126 14494 22nF 10% 25V 2743 4822 126 14494 22nF 10% 25V 2747 4822 126 14507 18pF 5% 50V 2748 4822 126 14507 18pF 5% 50V 2755 4822 126 14305 100nF 10% 16V 2756 4822 126 14305 100nF 10% 16V 2757 2020 021 91554 10µF 20% 16V 2758 4822 126 14305 100nF 10% 16V 2759 4822 126 14305 100nF 10% 16V 2760 4822 126 14305 100nF 10% 16V 2761 4822 126 14305 100nF 10% 16V 2762 4822 126 14305 100nF 10% 16V 2763 4822 126 14305 100nF 10% 16V 2764 4822 126 14305 100nF 10% 16V 2765 4822 126 14305 100nF 10% 16V 2766 4822 126 14305 100nF 10% 16V 2767 4822 126 14305 100nF 10% 16V 2770 4822 126 14305 100nF 10% 16V 2771 4822 126 14305 100nF 10% 16V 2772 4822 126 14305 100nF 10% 16V 2773 3198 016 31020 1nF 25V 2774 4822 126 14305 100nF 10% 16V 2776 4822 126 14305 100nF 10% 16V 2785 4822 126 14305 100nF 10% 16V 2786 4822 126 14305 100nF 10% 16V 2788 4822 126 14305 100nF 10% 16V 2790 4822 126 14305 100nF 10% 16V 2792 4822 126 14305 100nF 10% 16V 2795 4822 126 14305 100nF 10% 16V 2796 4822 126 14305 100nF 10% 16V 2798 3198 016 36810 680pF 25V 2900 5322 126 11582 6n8F 10% 63V 2901 5322 126 11582 6n8F 10% 63V 2902 5322 126 11583 10nF 10% 50V 2903 5322 126 11582 6n8F 10% 63V 2904 5322 126 11582 6n8F 10% 63V 2906 5322 126 11582 6n8F 10% 63V 2908 4822 126 13883 220pF 5% 50V 2909 4822 126 13883 220pF 5% 50V 2910 4822 126 13883 220pF 5% 50V 2911 4822 126 13883 220pF 5% 50V 2912 4822 126 13883 220pF 5% 50V 2913 4822 126 13883 220pF 5% 50V 2914 4822 126 13883 220pF 5% 50V 2915 4822 126 13883 220pF 5% 50V 2916 4822 126 13883 220pF 5% 50V 2917 5322 126 11582 6n8F 10% 63V

3001 4822 051 30472 4k7 5% 0.062W 3002 4822 051 30472 4k7 5% 0.062W 3003 4822 051 30151 150Ω 5% 0.062W 3004 4822 051 30151 150Ω 5% 0.062W 3005 4822 051 30151 150Ω 5% 0.062W 3006 4822 051 30102 1k 5% 0.062W 3007 4822 051 30102 1k 5% 0.062W 3008 4822 051 30103 10k 5% 0.062W 3009 4822 117 12925 47k 1% 0.063W 3010 4822 117 12925 47k 1% 0.063W 3011 4822 051 30103 10k 5% 0.062W 3012 4822 051 30222 2k2 5% 0.062W 3013 4822 051 30103 10k 5% 0.062W 3014 4822 051 30472 4k7 5% 0.062W 3015 4822 051 30474 470k 5% 0.062W 3016 4822 051 30102 1k 5% 0.062W 3017 4822 051 30472 4k7 5% 0.062W 3018 4822 117 13525 24k 1% 0.62W 3019 4822 051 30471 470Ω 5% 0.062W 3026 4822 051 30221 220Ω 5% 0.062W 3027 4822 051 30221 220Ω 5% 0.062W 3028 4822 051 30221 220Ω 5% 0.062W 3029 4822 051 30221 220Ω 5% 0.062W 3030 4822 051 30472 4k7 5% 0.062W 3031 4822 051 30472 4k7 5% 0.062W 3032 4822 051 30472 4k7 5% 0.062W 3033 4822 051 30472 4k7 5% 0.062W 3034 4822 051 30471 470Ω 5% 0.062W 3035 4822 051 30471 470Ω 5% 0.062W 3036 4822 051 30471 470Ω 5% 0.062W 3037 4822 051 30103 10k 5% 0.062W 3038 4822 051 30472 4k7 5% 0.062W 3039 4822 051 30471 470Ω 5% 0.062W 3040 4822 051 30471 470Ω 5% 0.062W 3041 4822 051 30471 470Ω 5% 0.062W 3042 4822 051 30103 10k 5% 0.062W 3043 4822 051 30471 470Ω 5% 0.062W 3044 4822 051 30471 470Ω 5% 0.062W 3045 4822 051 30471 470Ω 5% 0.062W 3049 4822 051 30471 470Ω 5% 0.062W 3050 4822 051 30471 470Ω 5% 0.062W 3051 4822 051 30471 470Ω 5% 0.062W 3052 4822 051 30682 6k8 5% 0.062W 3053 4822 051 30103 10k 5% 0.062W 3055 2422 086 11013 Fuse 1Ω5 3056 4822 117 12925 47k 1% 0.063W 3057 4822 117 12925 47k 1% 0.063W 3059 4822 051 30472 4k7 5% 0.062W 3060 4822 051 30272 2k7 5% 0.062W 3061 4822 051 30103 10k 5% 0.062W 3062 4822 051 30101 100Ω 5% 0.062W 3063 4822 051 30101 100Ω 5% 0.062W 3064 4822 051 30101 100Ω 5% 0.062W 3300 2322 750 63908 Fuse 3Ω9 5% 3301 4822 117 13632 100k 1% 0.62W 3302 2322 750 63908 Fuse 3Ω9 5% 3304 2322 750 63908 Fuse 3Ω9 5% 3306 4822 051 30221 220Ω 5% 0.062W 3307 4822 051 30183 18k 5% 0.062W 3308 4822 051 30684 680k 5% 0.062W 3310 4822 117 12925 47k 1% 0.063W 3311 4822 117 13632 100k 1% 0.62W 3314 4822 051 30103 10k 5% 0.062W 3315 4822 051 30102 1k 5% 0.062W 3316 4822 051 30123 12k 5% 0.062W 3317 4822 051 30221 220Ω 5% 0.062W 3318 4822 051 30102 1k 5% 0.062W 3320 4822 051 30101 100Ω 5% 0.062W 3321 4822 051 30101 100Ω 5% 0.062W 3322 4822 051 10102 1k 2% 0.25W 3324 4822 051 30472 4k7 5% 0.062W 3327 4822 117 13632 100k 1% 0.62W 3328 4822 051 30393 39k 5% 0.062W 3329 4822 117 13568 6Ω8 5% 1206 3330 4822 051 30332 3k3 5% 0.062W 3331 4822 051 30102 1k 5% 0.062W 3333 4822 051 30102 1k 5% 0.062W 3335 4822 051 30332 3k3 5% 0.062W 3336 4822 051 30102 1k 5% 0.062W 3337 4822 051 30153 15k 5% 0.062W 3338 4822 051 30682 6k8 5% 0.062W 3340 4822 051 30101 100Ω 5% 0.062W 3341 4822 051 30101 100Ω 5% 0.062W 3342 4822 051 30101 100Ω 5% 0.062W 3343 4822 051 30683 68k 5% 0.062W 3344 4822 051 30222 2k2 5% 0.062W 3345 4822 051 30103 10k 5% 0.062W 3346 4822 051 30333 33k 5% 0.062W 3347 4822 051 30223 22k 5% 0.062W 3348 4822 051 30222 2k2 5% 0.062W

3351 4822 051 30109 10Ω 5% 0.062W 3352 4822 117 13632 100k 1% 0.62W 3353 4822 051 30102 1k 5% 0.062W 3354 4822 051 30103 10k 5% 0.062W 3355 4822 051 30109 10Ω 5% 0.062W 3356 4822 051 30101 100Ω 5% 0.062W 3358 4822 051 30222 2k2 5% 0.062W 3359 4822 117 13632 100k 1% 0.62W 3360 4822 051 30102 1k 5% 0.062W 3361 4822 051 30151 150Ω 5% 0.062W 3362 4822 051 30103 10k 5% 0.062W 3363 4822 051 30102 1k 5% 0.062W 3364 4822 051 30683 68k 5% 0.062W 3365 4822 051 30472 4k7 5% 0.062W 3366 4822 051 30102 1k 5% 0.062W 3367 4822 051 30102 1k 5% 0.062W 3370 4822 051 30101 100Ω 5% 0.062W 3371 4822 051 30479 47Ω 5% 0.062W 3372 4822 051 30471 470Ω 5% 0.062W 3376 4822 051 30101 100Ω 5% 0.062W 3377 4822 051 30101 100Ω 5% 0.062W 3378 4822 051 30153 15k 5% 0.062W 3382 4822 051 30471 470Ω 5% 0.062W 3384 4822 051 30101 100Ω 5% 0.062W 3385 4822 051 30471 470Ω 5% 0.062W 3386 4822 051 30223 22k 5% 0.062W 3388 4822 051 30681 680Ω 5% 0.062W 3389 4822 117 12925 47k 1% 0.063W 3390 4822 051 30183 18k 5% 0.062W 3391 4822 051 30683 68k 5% 0.062W 3393 4822 117 13632 100k 1% 0.62W 3394 4822 051 30472 4k7 5% 0.062W 3395 4822 051 30222 2k2 5% 0.062W 3400 4822 117 11152 4Ω7 5% 3407 4822 051 30562 5k6 5% 0.063W 3410 4822 051 30472 4k7 5% 0.062W 3411 4822 051 30472 4k7 5% 0.062W 3415 4822 051 30103 10k 5% 0.062W 3416 4822 117 13568 6Ω8 5% 1206 3418 4822 051 30391 390Ω 5% 0.062W 3419 4822 051 30101 100Ω 5% 0.062W 3419 4822 051 30479 47Ω 5% 0.062W 3421 4822 051 30562 5k6 5% 0.063W 3423 4822 051 30562 5k6 5% 0.063W 3433 4822 051 30392 3k9 5% 0.063W 3434 4822 051 30472 4k7 5% 0.062W 3435 4822 051 30562 5k6 5% 0.063W 3436 4822 051 30271 270Ω 5% 0.062W 3437 4822 051 30102 1k 5% 0.062W 3439 4822 051 30471 470Ω 5% 0.062W 3439 4822 051 30561 560Ω 5% 0.062W 3441 4822 051 30393 39k 5% 0.062W 3446 4822 051 30101 100Ω 5% 0.062W 3453 4822 051 30223 22k 5% 0.062W 3530 4822 157 71593 10µH 10% 3532 4822 051 30273 27k 5% 0.062W 3544 4822 117 12864 82k 5% 0.6W 3545 4822 117 12864 82k 5% 0.6W 3550 4822 051 30102 1k 5% 0.062W 3601 4822 117 12864 82k 5% 0.6W 3602 4822 051 30681 680Ω 5% 0.062W 3603 4822 051 30681 680Ω 5% 0.062W 3604 4822 051 30471 470Ω 5% 0.062W 3605 4822 051 30471 470Ω 5% 0.062W 3606 4822 051 30154 150k 5% 0.062W 3610 4822 117 12925 47k 1% 0.063W 3611 4822 117 12925 47k 1% 0.063W 3621 4822 051 30273 27k 5% 0.062W 3624 4822 051 30681 680Ω 5% 0.062W 3625 4822 051 30333 33k 5% 0.062W 3630 4822 051 30273 27k 5% 0.062W 3634 4822 051 30121 120Ω 5% 0.062W 3637 4822 051 30681 680Ω 5% 0.062W 3651 4822 051 30223 22k 5% 0.062W 3652 4822 051 30223 22k 5% 0.062W 3653 4822 051 30682 6k8 5% 0.062W 3654 4822 051 30682 6k8 5% 0.062W 3655 4822 051 30101 100Ω 5% 0.062W 3656 4822 051 30101 100Ω 5% 0.062W 3658 4822 051 30273 27k 5% 0.062W 3660 4822 051 30154 150k 5% 0.062W 3662 4822 051 30271 270Ω 5% 0.062W 3680 4822 051 30271 270Ω 5% 0.062W 3684 4822 051 30682 6k8 5% 0.062W 3685 4822 051 30682 6k8 5% 0.062W 3686 4822 051 30223 22k 5% 0.062W 3687 4822 051 30223 22k 5% 0.062W 3688 4822 051 30682 6k8 5% 0.062W 3689 4822 051 30682 6k8 5% 0.062W 3690 4822 051 30223 22k 5% 0.062W 3691 4822 051 30223 22k 5% 0.062W 3702 4822 117 12139 22Ω 5% 0.062W 3703 4822 051 30101 100Ω 5% 0.062W 3705 4822 051 30101 100Ω 5% 0.062W

GB 102 EM1A10.

Spare parts list

3706 4822 051 30109 10Ω 5% 0.062W 3707 4822 051 30392 3k9 5% 0.063W 3708 4822 051 30272 2k7 5% 0.062W 3709 4822 051 30008 Jumper 3711 4822 051 30102 1k 5% 0.062W 3714 4822 117 12139 22Ω 5% 0.062W 3716 4822 051 30472 4k7 5% 0.062W 3717 4822 051 30472 4k7 5% 0.062W 3718 4822 051 30221 220Ω 5% 0.062W 3719 4822 117 13574 1Ω5 5% 1206 3720 4822 117 13574 1Ω5 5% 1206 3725 4822 051 30105 1M 5% 0.062W 3728 4822 051 30101 100Ω 5% 0.062W 3731 4822 051 30101 100Ω 5% 0.062W 3732 4822 051 10102 1k 2% 0.25W 3733 4822 051 30101 100Ω 5% 0.062W 3739 4822 051 30101 100Ω 5% 0.062W 3740 4822 051 30008 Jumper 3741 4822 051 30102 1k 5% 0.062W 3744 4822 051 30102 1k 5% 0.062W 3745 4822 051 30102 1k 5% 0.062W 3746 4822 051 30472 4k7 5% 0.062W 3747 4822 051 30689 68Ω 5% 0.063W 3748 4822 051 30689 68Ω 5% 0.063W 3749 4822 051 30689 68Ω 5% 0.063W 3754 4822 051 30109 10Ω 5% 0.062W 3755 4822 051 30008 Jumper 3757 4822 051 30008 Jumper 3759 4822 051 30008 Jumper 3790 3198 031 11010 4X100Ω 5% 3791 3198 031 11010 4X100Ω 5% 3792 3198 031 11010 4X100Ω 5% 3793 3198 031 11010 4X100Ω 5% 3794 3198 031 11010 4X100Ω 5% 3795 3198 031 11010 4X100Ω 5% 3796 4822 051 30101 100Ω 5% 0.062W 3797 4822 051 30101 100Ω 5% 0.062W

5301 4822 157 11876 6.8µH 10% 5302 4822 157 11876 6.8µH 10% 5401 3198 018 33370 0U33 10% 5401 4822 157 71303 Coil MLF2012DR39KT 5405 3198 018 33980 3U9 10% 5406 4822 157 11876 6.8µH 10% 5407 2422 535 95427 Bead 100mHz 5408 2422 549 44459 IND VAR 78mHz 5409 2422 535 95427 Bead 100mHz 5410 3198 018 51080 1U 10% 5639 4822 157 11781 Coil BLM11A601SPT1 5640 4822 157 11781 Coil BLM11A601SPT1 5641 4822 157 11781 Coil BLM11A601SPT1 5642 4822 157 11781 Coil BLM11A601SPT1 5643 4822 157 11781 Coil BLM11A601SPT1 5644 4822 157 11781 Coil BLM11A601SPT1 5645 4822 157 11781 Coil BLM11A601SPT1 5651 2422 549 43769 100mHz 30R 5652 2422 549 43769 100mHz 30R 5653 2422 549 43769 100mHz 30R 5654 4822 157 11716 Coil BLM21P300SPT 5655 3198 018 56880 6U8 10% 5656 4822 157 71593 10µH 10% 5701 4822 157 71206 Coil 5702 2422 535 95427 Bead 100mHz 5703 4822 157 11716 Coil BLM21P300SPT 5704 4822 157 11716 Coil BLM21P300SPT 5705 2422 535 95427 Bead 100mHz 5706 4822 157 11778 5U6 10% 5707 4822 157 11781 Coil BLM11A601SPT1 5711 4822 157 11781 Coil BLM11A601SPT1 5713 4822 157 11781 Coil BLM11A601SPT1 5718 3198 018 33370 0U33 10% 5720 4822 157 11781 Coil BLM11A601SPT1 5911 4822 157 11781 Coil BLM11A601SPT1 5912 4822 157 11781 Coil BLM11A601SPT1 5913 4822 157 11781 Coil BLM11A601SPT1 5914 4822 157 11781 Coil BLM11A601SPT1 5915 4822 157 11781 Coil BLM11A601SPT1 5916 4822 157 11781 Coil BLM11A601SPT1 5917 4822 157 11781 Coil BLM11A601SPT1 5918 4822 157 11781 Coil BLM11A601SPT1 5919 4822 157 11781 Coil BLM11A601SPT1 5920 4822 157 11781 Coil BLM11A601SPT1 5921 4822 157 11781 Coil BLM11A601SPT1 5922 4822 157 11781 Coil BLM11A601SPT1 5923 4822 157 11781 Coil BLM11A601SPT1 5924 4822 157 11781 Coil BLM11A601SPT1 5925 4822 157 11781 Coil BLM11A601SPT1 5926 4822 157 11781 Coil BLM11A601SPT1 5927 4822 157 11781 Coil BLM11A601SPT1 5928 4822 157 11781 Coil BLM11A601SPT1 5929 4822 157 11781 Coil BLM11A601SPT1

5930 4822 157 11781 Coil BLM11A601SPT1 5931 4822 157 11781 Coil BLM11A601SPT1 5932 4822 157 11781 Coil BLM11A601SPT1 5933 4822 157 11781 Coil BLM11A601SPT1 5935 4822 157 11781 Coil BLM11A601SPT1 5940 4822 157 11781 Coil BLM11A601SPT1 5943 4822 157 11781 Coil BLM11A601SPT1 5944 4822 157 11781 Coil BLM11A601SPT1 5945 4822 157 11781 Coil BLM11A601SPT1 5946 4822 157 11781 Coil BLM11A601SPT1 5947 4822 157 11781 Coil BLM11A601SPT1 5948 4822 157 11781 Coil BLM11A601SPT1 5949 4822 157 11781 Coil BLM11A601SPT1 5950 4822 157 11781 Coil BLM11A601SPT1 5951 4822 157 11781 Coil BLM11A601SPT1

6303 4822 130 11594 BZX284-C47 6304 4822 130 83757 BAS216 6306 9322 129 37685 BZM55-C5V6 6307 4822 130 11528 1PS76SB10 6309 4822 130 83757 BAS216 6310 9322 129 38685 BZM55-C6V8 6311 9322 149 08685 BZM55-C22 6319 4822 130 83757 BAS216 6320 4822 130 83757 BAS216 6321 4822 130 83757 BAS216 6322 4822 130 83757 BAS216 6403 4822 130 11525 1SS356 6404 4822 130 11525 1SS356 6405 4822 130 11525 1SS356 6406 9322 149 08685 BZM55-C22 6652 9322 129 40685 BZM55-C10 6654 4822 130 83757 BAS216

7001 9352 641 92557 SAA5667 7001 9352 659 94557 SAA5647HL/M1 7002 4822 130 60373 BC856B 7003 3198 010 42310 BC847BW 7004 3198 010 42310 BC847BW 7005 9322 116 74668 LD1117D33 7006 4822 209 73852 PMBT2369 7007 4822 209 73852 PMBT2369 7011 9322 156 63668 CY7C1019V33-15VC 7012 4822 209 17377 M24C32-WMN6 7301 9352 625 23518 TDA9330H/N2 7303 5322 130 42756 BC857C 7307 9352 630 99118 Comb filter multi TDA9181 7308 9340 310 30215 PDTC144ET 7309 9340 310 30215 PDTC144ET 7310 9340 310 30215 PDTC144ET 7311 3198 010 42310 BC847BW 7312 3198 010 42310 BC847BW 7313 4822 209 73852 PMBT2369 7314 3198 010 42310 BC847BW 7315 4822 209 73852 PMBT2369 7320 3198 010 42310 BC847BW 7322 3198 010 42310 BC847BW 7323 9352 625 24518 TDA9321H/N2 7324 5322 130 63679 BC847CW 7401 3198 010 42310 BC847BW 7405 3198 010 42310 BC847BW 7406 3198 010 42310 BC847BW 7407 5322 130 42756 BC857C 7411 5322 130 60159 BC846B 7651 9322 151 17671 MSP3411G-FH-A2 7656 9340 425 30115 BC847BPN 7661 9340 425 30115 BC847BPN 7682 9340 425 30115 BC847BPN 7701 5322 130 42756 BC857C 7702 3198 010 42310 BC847BW 7704 4822 209 73852 PMBT2369 7708 4822 209 90034 SAA4990H/V0 7709 9352 640 20557 SAA4978H/V203 7713 9322 116 74668 LD1117D33 7714 4822 209 17307 MSM54V12222A-30JS 7715 4822 209 17307 MSM54V12222A-30JS 7716 2422 486 80737 32P female V 8681 3104 311 00121 3P 280mm 8682 3104 311 02951 10P 280mm

[C] PIP DW Panel

Various

0172 3104 301 08351 Phone 120 phone 0175 3104 304 22073 multi voltage bracket 0200 4822 267 10734 5P

0201 4822 267 10557 10P 0205 2422 025 16587 10P female V 0207 4822 267 10565 4P 0236 4822 267 10735 3P 0272 2422 025 16382 3P male V 0273 2422 025 12482 6P male V 1327 4822 242 10694 Crystal 12MHz 1333 2422 549 44311 Filter 5.8-6.5MHz 1352 2422 549 44202 Saw Filter OFWK6287K 1352 2422 549 44223 Saw Filter OFWK7260M

2261 4822 124 40207 100µF 20% 25V 2262 5322 126 10511 1nF 5% 50V 2265 4822 124 40207 100µF 20% 25V 2269 4822 126 13751 47nF 10% 63V 2301 3198 017 41050 1µF 10V 2302 5322 126 10184 820P 5% 50V 3 2303 5322 126 10223 4n7F 10% 63V 2306 5322 126 11583 10nF 10% 50V 2309 4822 126 14585 100nF 10% 50V 2312 4822 122 33177 10nF 20% 50V 2313 4822 126 14585 100nF 10% 50V 2314 4822 126 14585 100nF 10% 50V 2316 4822 126 14494 22nF 10% 25V 2317 4822 126 13879 20nF 20-80% 16V 2319 4822 126 14305 100nF 10% 16V 2321 5322 126 10465 3.9nF 10% 50V 2322 4822 124 40248 10µF 20% 63V 2324 4822 126 14585 100nF 10% 50V 2327 4822 126 11671 33pF 2328 4822 126 11671 33pF 2331 4822 124 22652 2.2µF 20% 50V 2332 4822 126 14076 220nF 25V 2333 4822 126 14305 100nF 10% 16V 2334 5322 122 32654 22nF 10% 63V 2335 4822 126 14043 1µF 20-80% 16V 2336 5322 126 10184 820P 5% 50V 3 2338 4822 122 33127 2n2F 10% 63V 2342 4822 126 13692 47pF 1% 63V 2345 4822 126 13692 47pF 1% 63V 2348 4822 122 33777 47pF 5% 63V 2349 4822 122 33177 10nF 20% 50V 2350 4822 124 40248 10µF 20% 63V 2351 4822 122 33177 10nF 20% 50V 2354 4822 126 13482 470nF 20-80% 16V 2355 3198 017 41050 1µF 10V 2356 4822 126 13482 470nF 20-80% 16V 2357 5322 122 32448 10pF 5% 63V 2372 5322 126 10223 4n7F 10% 63V 2373 4822 124 21913 1µF 20% 63V 2374 5322 122 32654 22nF 10% 63V 2375 5322 126 10511 1nF 5% 50V 2376 5322 126 10511 1nF 5% 50V 2377 5322 126 10511 1nF 5% 50V 2380 4822 124 40248 10µF 20% 63V 2385 4822 126 13881 470pF 5% 50V 2386 4822 126 13881 470pF 5% 50V 2390 4822 122 33777 47pF 5% 63V 2391 4822 122 31765 100pF 2% 63V 2392 4822 126 14507 18pF 5% 50V 2393 4822 122 31765 100pF 2% 63V 2401 3198 017 41050 1µF 10V 2402 3198 017 41050 1µF 10V 2403 3198 017 41050 1µF 10V 2404 3198 017 41050 1µF 10V 2405 3198 017 41050 1µF 10V 2411 4822 124 40248 10µF 20% 63V 2412 4822 126 13879 20nF 20-80% 16V 2415 4822 126 13879 20nF 20-80% 16V 2431 4822 126 14305 100nF 10% 16V 2432 4822 126 14305 100nF 10% 16V 2434 4822 126 14305 100nF 10% 16V 2436 4822 124 40207 100µF 20% 25V 2811 4822 126 14305 100nF 10% 16V 2812 4822 126 14305 100nF 10% 16V 2813 4822 122 33753 150pF 5% 50V 2814 4822 126 13838 100nF 20-80% 50V 2816 4822 124 40248 10µF 20% 63V 2817 4822 126 13838 100nF 20-80% 50V 2818 4822 126 13838 100nF 20-80% 50V 2819 4822 126 13838 100nF 20-80% 50V 2821 4822 124 40248 10µF 20% 63V 2822 4822 126 13838 100nF 20-80% 50V 2823 4822 126 14305 100nF 10% 16V 2824 4822 126 14305 100nF 10% 16V 2825 5322 122 33538 150pF 2% 63V 2826 4822 126 13838 100nF 20-80% 50V 2827 4822 124 40207 100µF 20% 25V 2828 4822 126 14305 100nF 10% 16V 2829 4822 126 13838 100nF 20-80% 50V 2831 4822 126 14043 1µF 20-80% 16V

Spare parts list

GB 103EM1A 10.

2832 4822 126 14043 1µF 20-80% 16V 2833 4822 126 14305 100nF 10% 16V 2834 4822 124 40248 10µF 20% 63V 2836 4822 126 14305 100nF 10% 16V 2837 4822 126 13838 100nF 20-80% 50V 2838 4822 124 40248 10µF 20% 63V 2839 4822 126 13838 100nF 20-80% 50V 2841 4822 124 40248 10µF 20% 63V 2842 4822 122 33753 150pF 5% 50V 2843 4822 126 14305 100nF 10% 16V 2844 4822 126 14305 100nF 10% 16V 2846 4822 126 13838 100nF 20-80% 50V 2847 5322 122 33538 150pF 2% 63V 2848 4822 126 13838 100nF 20-80% 50V 2849 4822 126 13838 100nF 20-80% 50V 2851 4822 124 40248 10µF 20% 63V 2852 4822 126 14585 100nF 10% 50V 2853 4822 124 40248 10µF 20% 63V 2854 4822 126 13838 100nF 20-80% 50V 2856 5322 122 33538 150pF 2% 63V 2857 4822 122 33753 150pF 5% 50V 2861 4822 124 40248 10µF 20% 63V 2862 4822 126 14305 100nF 10% 16V 2863 4822 124 81151 22µF 50V 2864 3198 017 34730 47nF 16V 2866 3198 017 34730 47nF 16V 2867 3198 017 41050 1µF 10V 2868 4822 126 14305 100nF 10% 16V 2869 4822 124 40207 100µF 20% 25V 2871 3198 017 41050 1µF 10V 2872 3198 017 34730 47nF 16V 2873 3198 017 34730 47nF 16V 2874 4822 051 30008 Jumper 2876 4822 051 30008 Jumper 2877 4822 051 30008 Jumper 2878 4822 126 13838 100nF 20-80% 50V 2882 4822 051 20008 Jumper 2883 4822 051 20008 Jumper 2891 5322 122 31647 1nF10% 63V 2892 4822 122 33777 47pF 5% 63V 2893 4822 122 33777 47pF 5% 63V 2894 4822 122 33777 47pF 5% 63V 2895 4822 126 13692 47pF 1% 63V 2896 4822 126 13692 47pF 1% 63V 2897 4822 122 33777 47pF 5% 63V 2898 4822 124 40207 100µF 20% 25V 2899 4822 124 40207 100µF 20% 25V

3263 4822 117 11449 2k2 5% 0.1W 3264 4822 117 10833 10k 1% 0.1W 3267 4822 051 20479 47Ω 5% 0.1W 3268 4822 051 20479 47Ω 5% 0.1W 3270 4822 051 20008 Jumper 3301 4822 051 30102 1k 5% 0.062W 3305 4822 117 12955 2k7 1% 0.1W 3311 4822 051 20273 27k 5% 0.1W 3312 4822 117 10833 10k 1% 0.1W 3315 4822 117 12708 39k 1% 0.1W 3316 4822 051 30681 680Ω 5% 0.062W 3318 4822 051 30101 100Ω 5% 0.062W 3321 4822 051 30103 10k 5% 0.062W 3322 4822 117 12902 8k2 1% 0.063W 3324 4822 051 20391 390Ω 5% 0.1W 3326 5322 117 12487 1k 1% 0.125W 3327 4822 051 30561 560Ω 5% 0.062W 3329 4822 051 20101 100Ω 5% 0.1W 3330 4822 051 20101 100Ω 5% 0.1W 3333 4822 051 30681 680Ω 5% 0.062W 3334 4822 051 30471 470Ω 5% 0.062W 3335 4822 051 20121 120Ω 5% 0.1W 3338 4822 051 20008 Jumper 3339 4822 117 10833 10k 1% 0.1W 3340 4822 051 30222 2k2 5% 0.062W 3341 4822 051 20479 47Ω 5% 0.1W 3344 4822 051 20479 47Ω 5% 0.1W 3345 4822 051 30479 47Ω 5% 0.062W 3346 4822 051 30561 560Ω 5% 0.062W 3348 4822 051 30008 Jumper 3349 4822 051 30479 47Ω 5% 0.062W 3352 4822 051 30222 2k2 5% 0.062W 3353 4822 051 30682 6k8 5% 0.062W 3354 4822 051 30222 2k2 5% 0.062W 3355 4822 051 30273 27k 5% 0.062W 3356 4822 051 30183 18k 5% 0.062W 3370 4822 051 20101 100Ω 5% 0.1W 3371 4822 116 83933 15k 1% 0.1W 3372 4822 051 30008 Jumper 3374 4822 051 30472 4k7 5% 0.062W 3381 4822 051 20101 100Ω 5% 0.1W 3382 4822 051 20101 100Ω 5% 0.1W 3383 4822 051 20101 100Ω 5% 0.1W

3384 4822 051 30103 10k 5% 0.062W 3385 4822 051 30472 4k7 5% 0.062W 3386 4822 051 30103 10k 5% 0.062W 3387 4822 051 30393 39k 5% 0.062W 3388 4822 051 30103 10k 5% 0.062W 3389 4822 051 30472 4k7 5% 0.062W 3390 4822 051 30471 470Ω 5% 0.062W 3401 4822 051 30101 100Ω 5% 0.062W 3402 4822 051 30101 100Ω 5% 0.062W 3403 4822 051 20101 100Ω 5% 0.1W 3404 4822 051 30101 100Ω 5% 0.062W 3405 4822 051 20101 100Ω 5% 0.1W 3411 4822 117 12925 47k 1% 0.063W 3412 4822 117 12925 47k 1% 0.063W 3413 4822 051 30102 1k 5% 0.062W 3414 4822 117 12925 47k 1% 0.063W 3415 4822 117 12925 47k 1% 0.063W 3416 4822 051 30102 1k 5% 0.062W 3431 4822 051 30101 100Ω 5% 0.062W 3432 4822 051 30101 100Ω 5% 0.062W 3437 4822 051 20472 4k7 5% 0.1W 3438 4822 051 30471 470Ω 5% 0.062W 3439 4822 051 20008 Jumper 3440 4822 051 20471 470Ω 5% 0.1W 3441 4822 051 30152 1k5 5% 0.062W 3444 4822 051 20471 470Ω 5% 0.1W 3453 4822 051 30472 4k7 5% 0.062W 3456 4822 051 30472 4k7 5% 0.062W 3457 4822 051 30472 4k7 5% 0.062W 3460 4822 051 30472 4k7 5% 0.062W 3462 4822 052 10228 2Ω2 5% 0.33W 3465 4822 051 20471 470Ω 5% 0.1W 3801 4822 117 11503 220Ω 1% 0.1W 3802 4822 117 10361 680Ω 1% 0.1W 3803 4822 117 11503 220Ω 1% 0.1W 3804 4822 051 30681 680Ω 5% 0.062W 3805 4822 051 30221 220Ω 5% 0.062W 3806 4822 051 30681 680Ω 5% 0.062W 3807 4822 051 30221 220Ω 5% 0.062W 3808 4822 117 10361 680Ω 1% 0.1W 3809 4822 051 30221 220Ω 5% 0.062W 3810 4822 051 30681 680Ω 5% 0.062W 3811 4822 117 11503 220Ω 1% 0.1W 3812 4822 051 30479 47Ω 5% 0.062W 3813 4822 051 30151 150Ω 5% 0.062W 3814 4822 051 30223 22k 5% 0.062W 3816 4822 051 30479 47Ω 5% 0.062W 3817 4822 051 30151 150Ω 5% 0.062W 3818 4822 051 30479 47Ω 5% 0.062W 3821 4822 051 30151 150Ω 5% 0.062W 3823 4822 117 10361 680Ω 1% 0.1W 3825 4822 051 30221 220Ω 5% 0.062W 3826 4822 051 30332 3k3 5% 0.062W 3827 4822 117 12903 1k8 1% 0.063W 3828 4822 051 30221 220Ω 5% 0.062W 3829 4822 051 30221 220Ω 5% 0.062W 3831 4822 051 30221 220Ω 5% 0.062W 3832 4822 051 30393 39k 5% 0.062W 3833 4822 051 30332 3k3 5% 0.062W 3834 4822 117 12903 1k8 1% 0.063W 3836 4822 051 30332 3k3 5% 0.062W 3837 4822 117 12903 1k8 1% 0.063W 3838 4822 051 30393 39k 5% 0.062W 3839 4822 117 11503 220Ω 1% 0.1W 3846 4822 117 11503 220Ω 1% 0.1W 3852 4822 051 30101 100Ω 5% 0.062W 3854 4822 051 30101 100Ω 5% 0.062W 3860 4822 051 30008 Jumper 3862 4822 052 10108 1Ω 5% 0.33W 3863 4822 052 10108 1Ω 5% 0.33W 3866 4822 051 30102 1k 5% 0.062W 3868 4822 117 12903 1k8 1% 0.063W 3869 4822 051 30332 3k3 5% 0.062W 3871 4822 051 30222 2k2 5% 0.062W 3872 4822 051 30471 470Ω 5% 0.062W 3873 4822 051 30152 1k5 5% 0.062W 3874 4822 051 30152 1k5 5% 0.062W 3876 4822 051 20472 4k7 5% 0.1W 3878 4822 051 30102 1k 5% 0.062W 3879 4822 051 30221 220Ω 5% 0.062W 3880 4822 051 30221 220Ω 5% 0.062W 3881 4822 051 30391 390Ω 5% 0.062W 3882 4822 051 30472 4k7 5% 0.062W 3883 4822 051 30332 3k3 5% 0.062W 3884 4822 117 10361 680Ω 1% 0.1W 3886 4822 051 30008 Jumper 3887 4822 051 30008 Jumper 3888 4822 051 30008 Jumper 3889 4822 051 30339 33Ω 5% 0.062W 3890 4822 051 30339 33Ω 5% 0.062W 3891 4822 051 30339 33Ω 5% 0.062W 3892 4822 051 20472 4k7 5% 0.1W 3893 4822 051 30152 1k5 5% 0.062W 3894 4822 051 30222 2k2 5% 0.062W

3895 4822 051 30471 470Ω 5% 0.062W 3896 4822 051 30152 1k5 5% 0.062W 3897 4822 051 30221 220Ω 5% 0.062W 3898 4822 051 30102 1k 5% 0.062W 4xxx 4822 051 10008 0Ω 5% 0.25W 4xxx 4822 051 20008 0Ω 5% 0.25W

5261 4822 157 11778 5U6 10% 5309 4822 157 71334 0.68µH 5332 4822 157 71334 0.68µH 5333 4822 157 71334 0.68µH 5334 4822 157 71334 0.68µH 5349 4822 157 71694 0U82 10% 5350 3198 018 61590 15U 5% 5351 3198 018 61590 15U 5% 5352 4822 157 71334 0.68µH 5816 4822 157 11506 12uF 5818 4822 157 11506 12uF 5827 4822 157 11506 12uF 5834 4822 157 11506 12uF 5839 4822 157 11506 12uF 5848 4822 157 11506 12uF 5849 4822 157 11506 12uF 5851 4822 157 11506 12uF 5853 4822 157 11506 12uF

6301 4822 130 11525 1SS356 6412 4822 130 11397 BAS316 6415 4822 130 11397 BAS316 6801 4822 130 11564 UDZ3.9B 6802 4822 130 11564 UDZ3.9B

7201 2422 542 90075 Tuner TEDE9X700A ALPS 7201 2422 542 90076 TUN SPL V+U PLL IEC Dk 7301 9352 638 73557 TDA8889H/N1 7305 3198 010 42310 BC847BW 7307 3198 010 42310 BC847BW 7331 5322 130 42756 BC857C 7332 3198 010 42310 BC847BW 7385 3198 010 42310 BC847BW 7386 3198 010 42310 BC847BW 7401 5322 209 14481 HEF4053BT 7403 4822 209 17345 M62320FP 7411 3198 010 42310 BC847BW 7412 3198 010 42310 BC847BW 7438 3198 010 42310 BC847BW 7801 9352 639 81557 SAB9081H/N4 7802 4822 209 80591 LM317T 7803 4822 209 12776 TDA8601T/C1 7804 9352 457 50115 74HC1G32GW 7805 3198 010 42310 BC847BW 7806 3198 010 42310 BC847BW 7807 3198 010 42310 BC847BW 7808 3198 010 42310 BC847BW 7809 3198 010 42310 BC847BW 7810 3198 010 42310 BC847BW 7828 3198 010 42310 BC847BW 7871 3198 010 42310 BC847BW 7874 3198 010 42310 BC847BW 7876 5322 130 42756 BC857C 7891 3198 010 42310 BC847BW 7892 3198 010 42310 BC847BW 7893 3198 010 42310 BC847BW 7894 5322 130 42756 BC857C

[D] Side I/O Panel

Various

0044 3139 124 30421 Side I/O bracket 1901 2422 026 04926 4P female H 1902 4822 267 10975 3P 1903 4822 267 31014 Headphone socket 1936 2422 025 12485 11P male V

2903 5322 122 32531 100pF 5% 50V 2904 5322 122 32531 100pF 5% 50V 2905 4822 122 33177 10nF 20% 50V 2906 4822 122 33177 10nF 20% 50V

GB 104 EM1A10.

Spare parts list

3901 4822 051 20101 100Ω 5% 0.1W 3902 4822 116 52201 75Ω 5% 0.5W 3903 4822 051 20101 100Ω 5% 0.1W 3904 4822 116 52201 75Ω 5% 0.5W 3905 4822 116 52249 1k8 5% 0.5W 3906 4822 050 11002 1k 1% 0.4W 3908 4822 050 11002 1k 1% 0.4W 3910 4822 116 52276 3k9 5% 0.5W 3911 4822 050 21003 10k 1% 0.6W 3912 4822 050 21003 10k 1% 0.6W 8936 3104 301 07753 11P 560mm

[E] Top Control Panel

Various

0215 4822 267 10748 3P 1091 4822 276 13775 Switch 1092 4822 276 13775 Switch 1093 4822 276 13775 Switch 1094 4822 276 13775 Switch

3091 4822 051 20561 560Ω 5% 0.1W 3092 4822 051 20391 390Ω 5% 0.1W 3093 4822 051 20561 560Ω 5% 0.1W 3094 4822 117 11504 270Ω 1% 0.1W 3095 4822 051 20332 3k3 5% 0.1W 3096 4822 117 11139 1k5 1% 0.1W

6091 4822 130 31983 BAT85 8345 4822 320 12511 3P 1500mm

[J] Mains Switch Panel

Various

0132h4822 276 14024 Power switch

3139 124 30431 Front interface bracket

0187

0214 2422 025 06353 5P male H 1002 9322 127 54667 IR receiver TSOP1836UH1

9322 050 99682 LED

1008

2001 4822 124 40207 100uF 20% 25V 2002 4822 122 30043 10nF 80% 63V

3003 4822 116 52228 680Ω 5% 0.5W 3004 4822 116 80176 1Ω 5% 0.5W 3008 4822 053 21475 4M7 5% 0.5W 3009 4822 053 21225 2M2 5% 0.5W

[Y] Mains Harmonic Panel

Various

0030 3139 124 33211 Mains harmonic bracket 0061 4822 265 20723 2P

2061 4822 122 33799 1nF 10% 1kV

5066 8204 000 74291 Coil Mains harmonic

[G] DC Shift Panel

Various

0317 4822 265 20723 2P 0318 4822 265 20723 2P 1001 3104 328 06231 DC shift assy EMG 1430 2422 086 10581 Fuse 400mA 65V

5430 3128 138 38911 DC shift coil

6432 9340 317 00133 BYD33V 6433 9340 317 00133 BYD33V 8318 3104 301 08731 2P3 220mm

[I] DAF Panel

Various

0030 3104 304 21651 DAF DC-SHIFT BRACKET 0317 4822 265 20723 2P 0318 2422 025 16374 2P male V 0391 3104 311 02452 JST 340mm 0397 4822 267 10973 1P

2800 2222 375 90504 820pF 5% 2kV 2890 2222 375 90504 820pF 5% 2kV

3898 4822 116 21211 VDR 420V 3899 4822 116 21211 VDR 420V

5800 2422 531 02437 TFM SIG DAF S21975-03

Philips EM1A AA Service Manual

Specifications and Main Features

Frequently Asked Questions

User Manual