Philips DPTV585 Schematic

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Colour Television Chassis
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DPTV585

Contents Page Contents Page

1. Technical Specifications, Connections, and Chassis Overview 2
2. Safety Instructions, Warnings, and Notes 4
3. Directions for Use 5
4. Mechanical Instructions 6
5. Service Modes, Error Codes, and Fault Finding 10
6. Block Diagrams, Testpoint Overviews, and
Waveforms
Wiring Diagram 17 I2C Overview 18
7. Circuit Diagrams and PWB Layouts Diagram PWB Power Supply Panel: AC Input (A1) 19 20 SSB: SIM Connector (Male) (B1) 21 27-29 SSB: IF, I/O Videoprocessing (B2) 22 27-29 SSB: Feature Box (100Hz Processing) (B3) 23 27-29 SSB: HOP (B4) 24 27-29 SSB: Audio Demodulator (B6) 25 27-29 SSB: Painter (B6) 26 27-29 SSM: Tuner (C1) 30 41-42 SSM: I/O’s (C2) 31 41-42 SSM: Video Buffer (C3) 32 41-42 SSM: Convergence HV Output 1 (C4) 33 41-42 SSM: Convergence HV Output 2 (C5) 34 41-42 SSM: Interconnections (C6) 35 41-42 SSM: Audio Amplifier (C7) 36 41-42 SSM: Headphone Amplifier (C8) 37 41-42 Mapping SSM C1-C8 Part 1 (C10) 38 41-42 Mapping SSM C1-C8 Part 2 (C11) 39 41-42 Mapping SSM C1-C8 Part 3 (C12) 40 41-42 CRT Panel: Red (DR1) 43 47-47 CRT Panel: Green (DG1) 44 47-47 CRT Panel: Blue (DB1) 45 47-47 Mapping CRT Panel: Red, Green, and Blue 46 47-47 Large Signal Panel (E1) 48 52-53
©
Copyright 2005 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.
Large Signal Panel (E2) 49 52-53 Large Signal Panel (E3) 50 52-53 LSP: Diversity Tables (E4) 51 52-53 Side Jack Panel (G1) 54 56 Mapping Side Jack Panel G1 (G2) 55 56 ACS Module (H1) 57 61-62 ACS Module (H2) 58 61-62 ACS Module (H3) 59 61-62 Mapping ACS Module H1-H3 (H4) 60 61-62 Mapping ACS Module H1-H3 (H4) 60 61-62 HOP Panel (J1) 63 68-69 HOP Panel (J2) 64 68-69 Diversity HOP Panel J1 and J2 (J3) 65 68-69 Mapping HOP Panel Part 1 (J4) 66 68-69 Mapping HOP Panel Part 2 (J5) 67 68-69 Keyboard Panel(K1) 70 Mapping Keyboard Panel(K2) 71 Layout Keyboard Panel (Top and BottomSide) 72 UART Interface Module(U1) 73
8. Alignments 75
9. Circuit Descriptions, List of Abbreviations, and IC Data Sheets 81
10. Spare Parts List 106
11. Revision List 107
Published by JH 568 TV Service Printed in the Netherlands Subject to modification EN 3122 785 15122
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Technical Specifications, Connections, and Chassis Overview

1. Technical Specifications, Connections, and Chassis Overview

Index of this chapter:

1.1 Technical Specifications

1.2 Connection Overview

1.3 Chassis Overview
Notes:
Figures can deviate due to the different set executions.
Specifications are indicative (subject to change).
1.1 Technical Specifications

1.1.1 Vision

Display type : 3 x CRT,
: Rear Projection TV
Screen size : 51” (129.5 cm), 16:9
: 60” (152.5 cm), 16:9 Resolution (Hor. Res.) : > 1000 lines Viewing angle (HxV degrees) : 160x30 Tuning system : PLL TV Colour systems : ATSC
: NTSC M/N 3.58
: Clear QAM Video playback : NTSC M/N 3.58, 4.43
: Supported video formats : 640x480i - 1fH
: 640x480p - 2fH
: 1920x1080i - 2fH Presets/channels : 181, Full-Cable Tuner bands : VHF
: UHF
: S-band
: Hyper-band
1.2 Connection Overview
Note: The following connector colour abbreviations are used
(acc. to DIN/IEC 757): Bk= Black, Bu= Blue, Gn= Green, Gy= Grey, Rd= Red, Wh= White, and Ye= Yellow.

1.2.1 Front / Side Connections

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Figure 1-1 Front and Side I/O

1.2.2 Rear Connections

1.1.2 Sound

Sound systems : FM-mono
: AV Stereo
: AC-3 Dolby Digital
:BTSC Maximum power (W 51 inch : 2 x 5
):
RMS
60 inch : 2 x 10

1.1.3 Miscellaneous

Power supply:
- Mains voltage (V 51 inch : 90 - 140 / 110
):
AC
60 inch : 90 - 140
- Mains frequency (Hz) : 60
Ambient conditions:
- Temperature range (°C) : +5 to +40
- Maximum humidity : 90% R.H.
Power consumption (values are indicative)
- Normal operation (W) : 255
- Stand-by (W) : < 1
Dimensions (WxHxD cm) : 51 inch : 125 x 140 x 62 60 inch : 143.5 x 150.7 x 68.3
Weight (kg) : 51 inch : 83.7 60 inch : 87
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Figure 1-2 Rear I/O
Aerial - In
- - F-type (US) Coax, 75 ohm D
Cinch: Video CVBS - In, Audio - In
Ye - Video CVBS 1 V Wh - Audio L 0.5 V Rd - Audio R 0.5 V
/ 75 ohm jq
PP
/ 10 kohm jq
RMS
/ 10 kohm jq
RMS
Cinch: Video YPbPr - In
Gn - Video Y 1 V Bu - Video Pb 0.7 V Rd - Video Pr 0.7 V
/ 75 ohm jq
PP
/ 75 ohm jq
PP
/ 75 ohm jq
PP
SVHS (Hosiden): Video Y/C - In
1 -Ground Y Gnd H 2 -Ground C Gnd H 3 -Video Y 1 V 4 -Video C 0.3 V
/ 75 ohm j
PP
P / 75 ohm j
PP
HDMI: Digital Video, Digital Audio - In
19
18 2
1
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Figure 1-3 HDMI (type A) connector
1 -D2+ Data channel j 2 -Shield Gnd H 3 -D2- Data channel j
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4 -D1+ Data channel j 5 -Shield Gnd H 6 -D1- Data channel j 7 -D0+ Data channel j 8 -Shield Gnd H 9 -D0- Data channel j 10 - CLK+ Data channel j 11 - Shield Gnd H 12 - CLK- Data channel j 13 - n.c. 14 - n.c. 15 - DDC_SCL DDC clock j 16 - DDC_SDA DDC data jk 17 - Ground Gnd H

1.3 Chassis Overview

18 - +5V j 19 - HPD Hot Plug Detect j 20 - Ground Gnd H
Service Connector (ComPair)
1 -SDA-S I 2 -SCL-S I 3 -Ground Gnd H
Cinch: S/PDIF - Out
Bk - Coaxial 0.4 - 0.6V
2
C Data (0 - 5 V) jk
2
C Clock (0 - 5 V) j
/ 75 ohm
kq
PP
CRT Panel
AT SC
SSB
ACS
SSM
LSB
HOP

Figure 1-4 PWB locations

AC INPUT
FOCUS BLOCK
(FG2)
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Safety Instructions, Warnings, and Notes

2. Safety Instructions, Warnings, and Notes

Index of this chapter:

2.1 Safety Instructions

2.2 Maintenance Instructions

2.3 Warnings

2.4 Notes

2.1 Safety Instructions
Safety regulations require that during a repair:
Due to the chassis concept, a very large part of the circuitry
(incl. deflection) is 'hot'. Therefore, connect the set to the mains via an isolation transformer.
Replace safety components, indicated by the symbol h,
only by components identical to the original ones. Any other component substitution (other than original type) may increase risk of fire or electrical shock hazard.
Wear safety goggles when you replace the CRT.
Safety regulations require that after a repair, you must return the set in its original condition. Pay, in particular, attention to the following points:
General repair instruction: as a strict precaution, we advise
you to re-solder the solder connections through which the horizontal deflection current is flowing. In particular this is valid for the:
1. Pins of the line output transformer (LOT).
2. Fly-back capacitor(s).
3. S-correction capacitor(s).
4. Line output transistor.
5. Pins of the connector with wires to the deflection coil.
6. Other components through which the deflection current flows.
The maintenance inspection includes the following actions:
1. Perform the 'general repair instruction' noted above.
2. Clean the power supply and deflection circuitry on the chassis.
3. Clean the picture tube panel and the neck of the picture tube.
2.3 Warnings
In order to prevent damage to ICs and transistors, avoid all high voltage flashovers. In order to prevent damage to the picture tube, use the method shown in Fig. 2-1, to discharge the picture tube. Use a high voltage probe and a multi-meter (position V reading is 0 V (after approx. 30 s).
V

Figure 2-1 Discharge picture tube

). Discharge until the meter
DC
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Note: This re-soldering is advised to prevent bad connections due to metal fatigue in solder connections, and is therefore only necessary for television sets more than two years old.
Route the wire trees and EHT cable correctly and secure them with the mounted cable clamps.
Check the insulation of the mains cord for external damage.
Check the strain relief of the mains cord for proper function, to prevent the cord from touching the CRT, hot components, or heat sinks.
Check the electrical DC resistance between the mains plug and the secondary side (only for sets that have an isolated power supply). Do this as follows:
1. Unplug the mains cord and connect a wire between the
two pins of the mains plug.
2. Turn on the main power switch (keep the mains cord
unplugged!).
3. Measure the resistance value between the pins of the
mains plug and the metal shielding of the tuner or the aerial connection of the set. The reading should be between 4.5 M and 12 MΩ.
4. Switch the TV 'off' and remove the wire between the
two pins of the mains plug.
Check the cabinet for defects, to prevent the possibility of the customer touching any internal parts.
2.2 Maintenance Instructions
All ICs and many other semiconductors are susceptible to
electrostatic discharges (ESD, w). Careless handling during repair can reduce life drastically. Make sure that, during repair, you are connected with the same potential as the mass of the set by a wristband with resistance. Keep components and tools also at this potential. Available ESD protection equipment: – Complete kit ESD3 (small tablemat, wristband,
connection box, extension cable and ground cable) 4822 310 10671.
– Wristband tester 4822 344 13999.
Together with the deflection unit and any multi-pole unit, flat square picture tubes form an integrated unit. The deflection and the multi-pole units are set optimally at the factory. We do not recommend adjusting this unit during repair.
Be careful during measurements in the high voltage section and on the picture tube.
Never replace modules or other components while the unit is 'on’.
When you align the set, use plastic rather than metal tools. This will prevent any short circuits and the danger of a circuit becoming unstable.
2.4 Notes

2.4.1 General

We recommend a maintenance inspection carried out by qualified service personnel. The interval depends on the usage conditions:
When a customer uses the set under normal circumstances, for example in a living room, the recommended interval is three to five years.
When a customer uses the set in an environment with higher dust, grease, or moisture levels, for example in a kitchen, the recommended interval is one year.
Measure the voltages and waveforms with regard to the
chassis (= tuner) ground (H), or hot ground (I), depending on the tested area of circuitry.
The voltages and waveforms shown in the diagrams are indicative. Measure them in the Service Default Mode (see chapter 5) with a colour bar signal and stereo sound (L: 3 kHz, R: 1 kHz unless stated otherwise) and picture carrier at 475.25 MHz (PAL) or 61.25 MHz (NTSC, channel 3).
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Directions for Use
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Where necessary, measure the waveforms and voltages
with (D) and without (E) aerial signal. Measure the voltages in the power supply section both in normal operation (G) and in standby (F). These values are indicated by means of the appropriate symbols.
The picture tube panel 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 interchangeable per position with the semiconductors in the unit, irrespective of the type indication on these semiconductors.

3. Directions for Use

You can download this information from the following websites:
http://www.philips.com/support http://www.p4c.philips.com
Manufactured under license from Dolby Laboratories. ‘Dolby’, ‘Pro Logic’ and the ‘double-D symbol’, are trademarks of Dolby Laboratories.
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Figure 2-2 Dolby PL symbol
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Mechanical Instructions

4. Mechanical Instructions

Index of this chapter:

4.1 Disassembly Procedures

4.2 Service Position
4.3 Picture Tube Replacement
4.4 Set Re-assembly
Notes:
Figures below can deviate slightly from the actual situation, due to the different set executions.
Follow the disassembly instructions in described order.
4.1 Disassembly Procedures
All numbers, found in the following text, refer to the drawing below and apply to both the 43” and 55” models.
Note:
Not all shown items are available for all models.
If you are servicing a PWB or speaker, you do not need to remove the plastic Upper Back Cover (4).

4.1.1 Lower Center Back Cover Removal (86)

1. Remove all screws (B and C).
2. Remove the Lower Center Back Cover.

4.1.2 Side Back Cover Removal

Remove all screws (F) from each of the Side Back Covers (some prying may be necessary to dislodge covers).
Note: This allows access to the Side Jack Panel and to the Left and the Right Speakers.

4.1.3 Large Signal Board Removal (LSB)

Note: See for the location of the panels figure "PWB location"
in Chapter 1 "Technical Specifications, Connection Facilities, and Chassis Overview".
1. Disconnect all cables.
2. Remove three screws from the center of the PWB and pull three tabs on the right of the bracket.
3. Lift the right side of the LSB and slide the panel up and out.

Figure 4-1 Exploded view 51” cabinet

4.1.4 AC Input Panel Removal

1. Disconnect all cables.
2. Remove four screws from the PWB.
3. Lift the AC Input Panel up and out.

4.1.5 Small Signal Module Removal (SSM)

1. Remove three screws along the rear of the chassis frame.
2. Remove two screws, which hold the chassis frame and are located between the LSB and SSB panels.
3. Remove one screw, which holds the chassis frame and is located between the Input Power and LSB panels
4. Remove the rear Jack Panel cover (76).
5. Slide the Chassis assembly rearward to allow access to the Module Bracket.
6. Remove the screws, which secure the Module Bracket, and release the cables.
7. Remove two screws from the centre of the SSM PWB.
8. Pull three tabs on the right of the panel bracket.
9. Lift the right side of the SSM, then move the SSM to the right to remove it.
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4.1.6 Side Jack Panel Removal

1. Remove the Left Side Back Cover (see procedure above excluding the Module Bracket removal).
2. Remove two screws from the panel.
3. Slide the Side Jack Panel PWB out of the bracket.

4.1.7 PIP Panel Removal (if present)

1. Remove the rear Jack Panel cover (76).
2. Remove three screws from the PIP panel.

4.1.8 Small Signal Board Removal (SSB)

First, remove the Module Bracket (see the chapter “Small Signal Module Removal”).
1. Release the metal retainer clips, located at the front and rear edges of the SIMM connector.
2. Tilt the SSB to the right and then pull it up.

4.1.9 Convergence Panel Removal (ACS)

First, remove the Module Bracket (see the chapter “Small Signal Module Removal”).
1. Carefully pull the ACS panel upward to separate it from the SSM connectors.
2. Disconnect the cable assemblies.

4.1.10 Wide Band Video Panel Removal (HOP)

4.1.15 Complete Optical Assembly or Individual CRT Assembly Removal

1. Remove the Plastic Light Barrier.
2. Disconnect the CRT panels, 2nd anode leads (at HVT),
and the yoke connectors from assemblies to be removed.
3. To remove the complete Optical Assembly, remove four
screws (G) and lift the assembly up and out.
4. To remove individual CRT assemblies, remove four screws
(H) from the desired assembly and lift the assembly up and out.
Caution: Do not disturb the focus assembly wing nuts, as this will misadjust mechanical focus.

4.2 Service Position

1. Remove the Side Back Covers.
2. Remove the Front Speaker Baffle.
3. Remove the Front Control Panel.
4. Route the ribbon cable and the wire through opening and
into the back of the unit.
5. Reconnect the ribbon cable to the Front Control Panel.
6. Remove the Side Jack Panel to allow room for cable
movement.
7. Remove the rear Jack Panel cover (76).
8. Being careful with the PIP Panel, pull the Chassis Frame
out and tilt up.
9. Place the Chassis Frame on the bottom board of the PTV.
First, remove the Module Bracket (see the chapter “Small Signal Module Removal”).
1. Remove the rear Jack Panel cover (76).
2. Disconnect the ribbon cable connectors.
3. Carefully separate the HOP panel from the SSM connectors.

4.1.11 Front Control Panel and Left or Right Speaker Removal (5)

1. Remove the Left and Right Side Back Covers.
2. Remove the two screws (on either side) of the speaker location.
3. Release two tabs on either side of the speaker baffle and pull the baffle forwards.
4. Loosen the ribbon cable and the grounding wire to allow working space.
5. Remove two screws to remove the Front Control Panel (4527).
6. Remove four screws each to remove the speakers (5208/
5206).

4.1.12 Upper Back Cover Removal (4)

1. Remove all screws (A and B).
2. Lift the cover up to dislodge from pegs (J) and remove the cover.

4.1.13 Plastic Light Barrier Removal (Optical Assembly)

Remove two screws (E) (one each at either end of the plastic light barrier).

4.1.14 Mirror Mounting Board Removal (57)

4.3 Picture Tube Replacement

Replacement of the cathode ray tube (CRT) and/or optical system components of a Projection TV (PTV) can be easily accomplished by following general guidelines. Use care when working around the CRT and optical systems of the PTV. The PTV light path encompasses a number of precision optical components. These include lenses, mirrors, the lenticular screen, and Fresnel lens. The PTV incorporates three separate CRTs, representing green, red, and blue outputs. Each CRT uses an independent deflection/convergence yoke, magnetic centring ring, coupler, C-element lens, and output lens (A/B lens). Each tube is mechanically fastened to a coupler which houses fluid (a glycol-type substance) used to cool the high temperatures generated by the small (7") CRTs. The fluid also provides an optical characteristic supporting the optical system of the PTV. When replacement of a CRT or optical component is required, caution must be exercised in preventing fluid spillage. The technician must carefully reassemble the CRT/ optical components, ensuring a proper seal of the coupling fluid. Use only factory original coupling fluid.
Caution: Do not use or add water as an alternative to the prescribed coupling fluid. Note: Upon completion of CRT/optical assembly repair, the centring, convergence, grey scale, mechanical and electrical focus adjustments are required. If more than one assembly requires repair, it is recommended the service technician fully complete one assembly at a time, using the existing assemblies as a reference for the alignment of the centring and convergence.
The following procedure should be used when performing repairs on the CRT/optical assemblies of the Projection TV.
Remove all screws, located in the mirror mounting board brackets, and remove the board.
Note: Take care not to place fingerprints or smudges on the mirror.

4.3.1 Disassembly Procedure

A. Removal of a single CRT/Lens Assembly from the light rack
1. Remove AC power from the PTV.
2. Remove the upper and lower back covers (1/4" screws).
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Mechanical Instructions
3. Remove the barrier board and the shield cover from around the lens assemblies (1/4" screws).
4. Carefully remove the CRT Socket Board from the CRT of the CRT/optical assembly being serviced.
5. Remove the yoke and convergence plugs, of the CRT/ optical assembly being serviced, from the Large Signal Module.
6. Remove the high voltage anode lead from the HV splitter block on the Large Signal Module of the CRT/optical assembly being serviced. Remove ground lug connectors from the coupler frame.
7. Remove the four 1/4" screws that secure the CRT/lens assembly to the light rack. These four screws are located in each corner, on the top of the coupler assembly. Caution: Do not remove the bolts with pressure springs or the inverted Torx screws of the CRT/lens assembly. The removal of these components could result in fluid spillage into the PTV cabinet.
8. Carefully remove the CRT/Lens assembly from the PTV cabinet.

4.3.2 Servicing the CRT/Lens Assembly

Warning: Coupling fluid is a poisonous solution containing a
high concentration of ethylene glycol. Do not leave exposed fluid unattended. Prevent children or pets from coming into contact with the fluid. Clean up spills immediately.
Caution: Do not attempt any repairs on the CRT/optical block assembly without first removing the CRT coupling fluid. Removal of the delta output lens will result in spillage of the coupling fluid.
B. Removing the PTV Coupling Fluid
All repairs made to the CRT/optical block assembly require the removal of the coupling fluid. The following procedure describes how to remove the PTV coupling fluid.
1. Lay the CRT assembly on its side with the plug pointing up.
2. Remove the plug (X8).
3. Remove some of the fluid from the coupler to prevent spillage when the CRT is removed. An empty coupling fluid bottle with a cone top is recommended to lower the fluid level within the coupler. Squeeze and hold the bottle and insert the tip of the cap into the drain hole of the coupler. Loosen the grip on the bottle, allowing the fluid to be pulled up into the bottle. Save the fluid.
4. Reinstall the plug (X8).
5. Stand the CRT assembly up with the neck of the CRT pointing up.
6. With an awl or marking pen, outline the edges of the CRT onto the coupler. Note: The correct positioning of the CRT to the coupler is critical to the optimum performance of the optical system.
7. Remove the four CRT mounting bolts (A) (with springs and spacers) and remove the mounting bracket (D).
8. Remove the four CRT mounting ear screws. Note: The CRT mounting ear screws are not used on some assemblies.
9. Gently remove any metal shavings from around the screw holes. Do not allow the metal shavings to get into the fluid. Note the position of the high voltage anode cap with respect to the coupler.
10. Carefully remove the CRT from the coupler. Wipe any excess fluid from the faceplate of the CRT. Set the CRT aside.
11. Use an empty coupling fluid bottle to extract the remainder of the fluid from the coupler. Note: Complete removal of the coupling fluid is not necessary when only replacing the CRT.
12. Clean any remaining fluid from the coupler and the CRT gasket channel using absorbent tissue. Refer to "C". Cleaning the Coupler, C-element Lens, and CRT Faceplate procedure if the fluid is discoloured or contaminated.
13. Make all necessary repairs.
C. Cleaning the Coupler, C-Element Lens, and CRT Faceplate
1. Remove CRT coupling fluid as described in steps B1 through B13.
2. Using denatured alcohol on a cloth made of 100% cotton or a lens cleaning tissue, gently clean the C-element (fisheye) lens, coupler and the CRT faceplate. Thoroughly clean the coupler assembly, including the expansion chamber bladder, and allow to fully dry. Caution: Do not use soap or detergent type substances to clean the coupler and its related assemblies. Water can be used as an alternative to denatured alcohol, but the assemblies must be completely dry before reassembly of the coupler and the addition of the coupling fluid. A hair dryer may be used to dry the coupler and its assemblies before reassembly. If contaminated fluid is discovered, the coupler and its related assemblies must be completely disassembled and cleaned to prevent a reoccurrence.
3. Replace the CRT and C-element lens gaskets.
4. Reassemble the C-element lens and the output lens to the coupler.
5. Refer to "Replacing the CRT Coupling Fluid" upon completion of necessary repairs and cleaning of the optical/coupler assemblies.
D. Replacement of the CRT
1. Remove CRT coupling fluid as described in steps B1 through B13.
2. Remove the plastic protective coating (if present) from the faceplate of the replacement CRT.
3. Refer to "Replacing the CRT Coupling Fluid" to complete the CRT replacement.
E. Repair or Replacement of the Optical/Coupler Assembly
1. Remove CRT coupling fluid as described in steps B1 through B13.
2. Remove the four inverted-type Torx screws, which secure the Delta output lens to the coupler. An inverted-type Torx socket can be purchased using part number 4835 395
17303.
3. Removal of the Delta output lens will allow access to the C­element lens, C-element gasket, coupler, and its assemblies.
4. Refer to "Replacing the CRT Coupling Fluid" upon completion of necessary repairs to the optical/coupler assemblies.
F. Replacing the PTV Coupling Fluid
Notes:
Before replacing the CRT coupling fluid, ensure the expansion chamber bladder is fully collapsed. This can be easily inspected by viewing the bladder through the small hole on the expansion chamber assembly. If the rubber of the bladder is not easily visible through the small hole, then the bladder may be considered collapsed and fluid can be added. If the rubber of the expansion chamber bladder is visible at the hole of the expansion chamber, then replacement of the expansion chamber bladder is required.
The CRT coupling fluid is critical to the optical performance of the PTV. Use only part number 4835 310 67032 (3 bottle kit) or 4835 310 67031 (1 bottle) to ensure the optical integrity and performance reliability of the PTV when replacing the CRT coupling fluid.
1. Reinstall the CRT gasket into the gasket channel of the coupler. Confirm the placement of the CRT, C-element lens, and vent plug gaskets.
2. Place the CRT onto the coupler with the high voltage anode lead positioned as marked in step 10 of procedure B.
3. Carefully position the CRT onto the coupler, using the outline defined in step 6 of procedure B as a reference.
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them.
5. Tighten the CRT mounting ear screws in a star pattern (like tightening lug nuts on the wheel of a car). Make sure the CRT does not shift position from the outline defined in step B6. Caution: do not over tighten the CRT ear screws (the CRT mounting ear screws are not used on some assemblies).
6. Install the CRT mounting bracket and start the four CRT mounting bracket bolts with springs.
7. Tighten the bolts in a star pattern.
8. Lay the CRT assembly on its side with the plug pointing up.
9. Remove the plug.
10. Using the PTV coupling fluid bottle with the cone top, refill the coupler with fluid through the drain access hole. Completely fill the coupler chamber so the fluid is level with the top of the coupler at the plug. Wipe any excess fluid from around the coupler.
11. Reinstall the plug and check for any fluid leaks.
12. Install the repaired CRT/optical block assembly into the PTV and perform any necessary adjustments.

4.4 Set Re-assembly

To re-assemble the whole set, execute all processes in reverse order.
Note: While re-assembling, make sure that all cables are placed and connected in their original position
Mechanical Instructions
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Service Modes, Error Codes, and Fault Finding

5. Service Modes, Error Codes, and Fault Finding

Index of this chapter:

5.1 Test Conditions

5.2 Service Modes

5.3 Problems and Solving Tips (related to CSM)
5.4 ComPair
5.5 Error Codes
5.6 The ”Blinking LED” Procedure
5.7 Trouble Shooting Tips
5.1 Test Conditions
The chassis is equipped with test points printed on the circuit board assemblies. They refer to the diagram letters. The numbering is in a logical sequence for diagnostics. Always start diagnosing (within a functional block), in the sequence of the relevant test points for that block.
Measurements should be performed under the following conditions:
Service Default Mode.
Video: Colour Bar Signal.
Audio: 3 kHz left, 1 kHz right.
5.2 Service Modes
Service Default Mode (SDM) and Service Alignment Mode (SAM) offer several features for the service technician, while the Customer Service Mode (CSM) is used for communication between a Philips Customer Care Centre (P3C) and a customer.
There is also the option of using ComPair, a hardware interface between a computer (see requirements below) and the TV chassis. It offers the ability of structured troubleshooting, test pattern generation, error code reading, software version readout, and software upgrading. Minimum requirements: a Pentium processor, Windows 95/ 98, and a CD-ROM drive (see also paragraph “ComPair”).

5.2.1 Service Default Mode (SDM)

Introduction
The Service Default Mode (SDM) is a technical aid for the service technician. The Service Default Mode (SDM) establishes fixed, repeatable settings of customer controls, which allow consistent measurements to be made. The SDM also initiates the blinking LED procedure and, if necessary, overrides the 5 V protection.
The SDM places the set in the following pre-defined conditions:
Tuning frequency set to 475.25MHz.
Volume level set to 25% (of the maximum volume level).
Other picture and sound settings set to 50% (mid-range).
The following functions are turned OFF while in SDM:
•Timer
Sleep timer
The following functions are disabled during SDM (and enabled after leaving SDM):
Parental lock
Blue mute
Hospitality Mode
No-ident Timer (normally the set is automatically switched off when no video signal (IDENT) is received for 15 minutes).
All other controls operate normally.
How to enter SDM
To enter the Service Default Mode, press the following key sequence on the remote control transmitter “0-6-2-5-9-6”-MENU. Do not allow the display to time out between entries while keying the sequence. Upon entry into the Service Default Mode, the letters "SDM" will be displayed at the upper right corner of the screen.
HRS: 120E SWID: HDR: 1AP1-5.15
ERR: 14 13 31 30 17 16 23
Figure 5-1 SDM menu
Special SDM functions
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).
How to exit SDM
To exit the Service Default Mode, press the Power (standby) button.
Note: To save the error codes, unplug the AC power cord without turning off the set. When the power is turned back on, the Service Default Mode will still be active.

5.2.2 Service Alignment Mode (SAM)

The Service Alignment Mode (SAM) is used to align the set and/or adjust the option settings and to display/clear the error code buffer values.
How to enter SAM
To enter the Service Alignment Mode (SAM), press the following key sequence on the remote transmitter: “0-6-2-5-9-6”-[i+]. Do not allow the display to time out between entries. After entering SAM with this method a service warning will appear on the screen, you can continue by pressing any digit key on the RC.
Use the DST-emulation feature of ComPair.
Press the ALIGN button on the DST while the set is in the normal operation
After entering this mode, “SAM” the following menu structure will appear on the screen:
SDM
E_15000_061.eps
141004
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HRS: 0062 SWID: HD5.2US1-1.0
ERR: 101 23 18 0 0 0 0
OPT: 199 174 7 207 55 0 0 0
SAM
EN 11DPTV585 AA 5.
Clear Errors: Erases the contents of the error buffer. Select the CLEAR ERRORS menu item and press the LEFT or RIGHT cursor key. The contents of the error buffer are cleared.
The functionality of the OPTIONS and ALIGNMENTS (TUNER, WHITE TONE, GEOMETRY, SOUND, and SMART SETTING) sub-menus are described in the "Alignments" section (chapter
8).
CLEAR ERRORS > OPTIONS > TUNER > SOUND > SMART SETTING > GDE SAM >
F_15120_037.eps
090805
Figure 5-2 SAM menu
Contents of SAM
OPERATION HOURS. Displays the accumulated total of operation hours (not the standby hours).
SOFTWARE INFOSWID Displays the SW version of the software.
example: HD5.2US1-1.00
AP1 = 2 letter and 1 digit combination to indicate the software type and supported languages:
AP = Asian Pacific.
1 = Main SW language version number.
5.15 = Sub version number.
ERRORS (followed by maximal 7 errors). The most recent error is displayed at the upper left (for an error explanation see paragraph “Error Codes”).
OPTION BYTES. See chapter 8.
SUB MENU –Clear Errors
Erases the contents of the error buffer. Select the CLEAR ERRORS menu item and press the LEFT or RIGHT cursor key. The contents of the error buffer are cleared.
The functionality of the OPTIONS and ALIGNMENTS (TUNER, WHITE TONE, GEOMETRY, SOUND, and SMART SETTING) sub-menus are described in the service adjustments.
– The functionality of the OPTIONS and ALIGNMENTS
(TUNER, WHITE TONE, GEOMETRY, SOUND, and SMART SETTING) sub-menus are described in the service adjustments.
How to navigate
Menu items may be selected using the cursor UP/DOWN keys. The selected item will be highlighted. When not all menu items will fit on the screen, pressing the cursor UP/DOWN keys on the remote transmitter will display the next/previous menu items.
With the cursor LEFT/RIGHT keys, it is possible to:
Activate/deactivate the selected menu item (e.g. TUNER)
Change the value of the selected menu item (e.g. VER­SLOPE)
Activate the selected submenu (e.g. SERV-BLK)
Access to normal user menu Pressing the "MENU" button on the remote control switches between the SAM and the normal user menus (with the SAM mode still active in the background). Pressing the "MENU" key in a submenu will return the screen to the previous menu.
Menu and Sub-menu Definitions
How to exit SAM
To exit the Service Alignment Mode, press the Power (Standby) button.
Note: To save the error codes, unplug the AC power cord without turning off the set. When the power is turned back on, the Service Alignment Mode will still be active.

5.2.3 Customer Service Mode (CSM)

Purpose
When a customer is having problems with his TV-set, he can call his dealer. The service technician can then ask the customer to activate the CSM, in order to identify the status of the set. Now, the service technician can judge the severity of the complaint. In many cases, he can advise the customer how to solve the problem, or he can decide if it is necessary to visit the customer. The CSM is a read only mode; therefore, modifications in this mode are not possible.
There are 2 pages in the CSM. the second page is accessed by pressing the ‘channel down’ button on the remote control or keyboard. Press ‘channel up’ to view the previous page. The second page shows the status of the ATSC module, like channel input, RF channel selected, channel information, type and status.
How to enter CSM
Use one of the following methods:
Press the 'MUTE' button on the RC-transmitter simultaneously with the 'MENU' button on the TV (top control) for (at least) 4 seconds.
Note: Activation of the CSM is only possible if there is no (user) menu on the screen!
1
HRS: 0062 SWID: IHDTV2K4: 2US1-1.00
HDDW SWID: HDDW1.1-00018 NVMID: 30
2
3
GDE SWID: 01.22
CODES: 101 23 17 103 31 23 16
4
OPT: 186 174 7 207 55 0 0 0
5
6
SYSTEM: DIGITAL
7
8
VOLUME: 26
9
BALANCE: 0 SOURCE: ANTENNA
10
11
12 TINT: 0
13 COLOR: 59
14 BRIGHTNESS: 66
15 PICTURE: 51
Figure 5-3 CSM menu
Contents of CSM
Customer Service Menu 1
Line 1 : "HRS : nnnn" and SWID : "2US1-1.00" – HRS: Indicates the accumulated total of operational
hours. (Shown in hexadecimal format.) (Standby hours are not counted as operating hours).
CSM
F_15120_038.eps
090805
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Service Modes, Error Codes, and Fault Finding
– SWID: Software identification of the main micro
controller (2US1-1.00)
– US1 is 2 letter and 1 digit combination to indicate the
software type and the supported languages.
Line 2 : "HDDW SWID: HDDW1.1-00018" AND “NVMID: 30”; – HDDW SWID: Software identification of DW module. – NVMID: Software identification of the NVM.
Line 3: "GDE SWID: 01.22"; Software identification of GDE engine.
Line 4 : "CODES : xx xx xx xx xx xx xx "; Error code buffer (see explanation of error codes above) Displays the last 7 errors of the error code buffer.
Line 5 : "OPT xxx xxx xxx xxx xxx xxx xxx xxx"; Option bytes. Option bits control software and hardware functionality. An option byte or option number represents 8 of those bits. Each option number is displayed as a number between 0 and 255. The set may not work correctly when an incorrect option code is set. See Service Adjustments for more information on correct option settings
Line 6: "SYSTEM : AUTO"; Indicates which Colour and sound system is installed for this preset: NTSC/PAL/ SECAM. Complaints that may be caused by an incorrect system setting: no color / colours not correct / unstable picture /noise in picture. To change the system setting of a preset: Press the "MENU" button on the remote control – Select the INSTALL sub menu – Select the MANUAL STORE sub menu – Select and change the SYSTEM setting until picture
and sound are correct
– Select the STORE menu item
Line 7 : Line 7 through 15 show the stauts of customer controls and signal source selected.
Line 8: "VOLUME"; Value indicates level at CSM entry.
Line 9 : "BALANCE"; Value indicates level at CSM entry.
Line 10 : "SOURCE :"Indicates which SOURCE is installed for this preset. AV1, AV2, SVHS2, Channel number (8)
Line 11: Line 7 through 15 show the stauts of customer controls and signal source selected..
Line 12 : "TINT"; Value indicates level at CSM entry.
Line 13 : "COLOUR"; Value indicates level at CSM entry.
Line 14 : "BRIGHTNESS"; Value indicates level at CSM entry.
Line 15 : "PICTURE"; Value indicates level at CSM entry.
How to exit CSM
Use one of the following methods:
Press a key on the remote control transmitter with exception of the 'CHANNEL', 'VOLUME' and digit (0-9) keys)
Press the ‘POWER’ button on the remote control transmitter or on the TV set.

5.3 Problems and Solving Tips (related to CSM)

Note: Below described problems are all related to the TV
settings. The procedures to change the value (or status) of the different settings are described above. New value(s) are automatically stored.

5.3.1 Picture Problems

Snowy/noisy picture
1. Check line 24 'Noise Figure'. In case the value is 127 or higher, and the value is high on other programs, check the aerial cable/aerial system.
2. Check lines 11 'Sharpness' and 24 'Noise Figure'. In case the value of line 11 is 3 or 4 and the value of line 24 is high (127 or higher), decrease the 'Sharpness' value.
'Contrast' value. The new value(s) are automatically stored (in 'personal' pre-set) for all TV channels.
2. Check line 7 'Brightness' and 8 'Contrast'. If the value of line 7 is low (< 10) or the value of line 8 is low (< 10), increase the 'Brightness' or the 'Contrast' value.
Picture too bright
1. Press 'Smart Picture' button on the RC-transmitter. In case the picture improves, decrease the 'Brightness' or the 'Contrast' value. The new value(s) are automatically stored (in 'personal' pre-set) for all TV channels.
2. Check lines 7 'Brightness' and 6 'Contrast'. If the value of line 7 is high (> 40) or the value of line 8 is high (> 50). Decrease the 'Brightness' value or increase the 'Contrast' value.
White line around picture elements and text
1. Press 'Smart Picture' button on the Remote Control. In case the picture improves, decrease the 'Sharpness' value. The new value is automatically stored (in “personal” pre­set) for all TV channels.
2. Check line 11 'Sharpness'. Decrease the 'Sharpness' value. The new value is automatically stored for all TV channels.
No picture
Check line 27 'Tuned bit'. In case the value is 'On', install the required program again. Open the installation menu and perform manual installation.
Blue picture
No proper signal is received. Check the aerial cable/aerial system.
Blue picture and/or unstable picture
A scrambled or decoded signal is received.
Black and white picture
Check line 9 'Colour'. In case the value is low (< 10), increase the 'Colour' value. The new value is automatically stored for all TV channels.
No colours/colour lines around picture elements or colours not correct or unstable picture
Check line 20 'TV System'. If a “strange” system pops up, something has gone wrong during installation. Re-install the channel.
Menu text not sharp enough
1. Press 'Smart Picture' button on the RC-transmitter. In case picture improves, decrease the contrast value. The new value(s) are automatically stored for all TV channels.
2. Check line 8 'Contrast'. The value of line 8 is high (> 50). Decrease the contrast value.

5.3.2 Sound Problems

No sound from left and right speaker
Check line 6 'Volume'. The value is low. Increase the value of 'Volume'. The new value(s) are automatically stored (in “personal” pre-set) for all TV channels.
Sound too loud for left and right speaker
Check line 6 'Volume'. The value is high. Decrease the value of 'LS Volume'. The new value(s) are automatically stored (in “personal” pre-set) for all TV channels.
Picture too dark
1. Press 'Smart Picture' button on the RC-transmitter. In case the picture improves, increase the 'Brightness' or the
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EN 13DPTV585 AA 5.

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 European DST (service remote control), which allows faster and more accurate diagnostics. ComPair has three big advantages:
ComPair helps you to quickly get an understanding on how to repair the chassis in a short time by guiding you systematically through the repair procedures.
ComPair allows very detailed diagnostics (on I is therefore capable of accurately indicating problem areas. You do not have to know anything about I yourself because ComPair takes care of this.
ComPair speeds up the repair time since it can automatically communicate with the chassis (when the microprocessor is working) and all repair information is directly available. When ComPair is installed together with the Force/SearchMan electronic manual of the defective chassis, schematics and PWBs are only a mouse click away.

5.4.2 Specifications

ComPair consists of a Windows based fault finding program and an interface box between PC and the (defective) product. The ComPair interface box is connected to the PC via a serial (or RS232) cable. For this chassis, the ComPair interface box and the TV communicate via a bi-directional service cable via the service connector(s).
The ComPair fault finding program is able to determine the problem of the defective television. ComPair can gather diagnostic information in two ways:
Automatic (by communication with the television): ComPair can automatically read out the contents of the entire error buffer. Diagnosis is done on I access the I send and receive I
2
C/UART bus of the television. ComPair can
2
C/UART commands to the micro controller of the television. In this way, it is possible for ComPair to communicate (read and write) to devices on
2
C/UART busses of the TV-set.
the I
Manually (by asking questions to you): Automatic diagnosis is only possible if the micro controller of the television is working correctly and only to a certain extend. When this is not the case, ComPair will guide you through the fault finding tree by asking you questions (e.g. Does the
screen give a picture? Click on the correct answer: YES / NO) and showing you examples (e.g. Measure test-point I7 and click on the correct oscillogram you see on the oscilloscope). You can answer by clicking on a link (e.g.
text or a waveform picture) that will bring you to the next step in the fault finding process.
By a combination of automatic diagnostics and an interactive question / answer procedure, ComPair will enable you to find most problems in a fast and effective way.
Beside fault finding, ComPair provides some additional features like:
Up- or downloading of pre-sets.
Managing of pre-set lists.
Emulation of the (European) Dealer Service Tool (DST).
If both ComPair and Force/SearchMan (Electronic Service Manual) are installed, all the schematics and the PWBs of the set are available by clicking on the appropriate hyperlink.
Example: Measure the DC-voltage on capacitor C2568 (Schematic/Panel) at the Mono-carrier.
– Click on the “Panel” hyperlink to automatically show
the PWB with a highlighted capacitor C2568.
2
C/UART level. ComPair can
2
C level) and
2
C commands
– Click on the “Schematic” hyperlink to automatically
show the position of the highlighted capacitor.

5.4.3 How To Connect

This is described in the chassis fault finding database in ComPair .
TO
UART SERVICE
CONNECTOR
PC VCR I2CPower
9V DC
E_06532_021.eps
Figure 5-4 ComPair interface connection

5.4.4 How To Order

ComPair order codes (US):
ComPair Software: ST4191.
ComPair Interface Box: 4822 727 21631.
AC Adapter: T405-ND.
ComPair Quick Start Guide: ST4190.
ComPair interface extension cable: 3139 131 03791.
ComPair UART interface cable: 3122 785 90630.
Note: If you encounter any problems, contact your local support desk.
TO I2C SERVICE CONNECTOR
180804
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Service Modes, Error Codes, and Fault Finding

5.5 Error Codes

5.5.1 Introduction

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 code will appear at the left side and all other errors shift one position to the right.

5.5.2 How to read the error buffer

Use one of the following methods:
On screen via the SAM (only possible when you have a picture). Examples: – ERR: 0 0 0 0 0 0 0 : No errors detected.ERR: 6 0 0 0 0 0 0 : Error code 6 is the last and only
detected error.
ERR: 9 6 0 0 0 0 0 : Error code 6 was first detected and
error code 9 is the last detected (newest) error.
Via the "blinking LED" procedure, if no picture is available. See explanation of "The blinking LED procedure" below.

5.5.3 How to clear the error buffer

The error code buffer will be cleared in the following cases:
By activating "CLEAR ERRORS" in the SAM menu.
By exiting SDM or SAM with the "Standby" command on the remote control.
Upon automatic reset, when the content has not changed for 50 consecutive hours.
Note: By leaving SDM or SAM via the Mains switch, the error buffer will not be reset.

5.5.4 Error codes

In case of non-intermittent faults, clear the error buffer before starting the repair. This to ensure that "old" error codes are no longer present. Before clearing the buffer, write down the content, as the history can give you valuable information. If possible, check the entire content of the error buffer. In some situations, an error code is only the result of another error code, and not the actual cause (e.g. a fault in the protection detection circuitry can also lead to a protection).
Table 5-1 Error Code Table
Error number Explanation
0 No error
1 FBX 3V3 protection
2 No Horizontal Flyback protection
3 Vertical Output Failure (GDE)
4 +5V protection active
5 HOP POR not sucessful
6 General I2C error main I2C bus
7 DAC Initialisation failure (GDE)
8 (not applicable)
9 HCS-GDE communication failure
10 NVM communication failure
11 NVM Id error
12 Main uP Internal RAM test failure
13 Main tuner I2C failure
14 Sound I2C failure
15 SRAM test failure
16 (not applicable)
17 (not applicable)
18 (not applicable)
19 (not applicable)
20 (not applicable)
21 (not applicable)
22 (not applicable)
23 Bocma IC TDA888xx on DW panel errorn
24
25
26
27 Virtual Dolby error
30 HIP I/O-video processing error
31 Feature Box error
32
33
34
35
100
101 No Ack or response from GDE
102 HCS encountered errors
103 Sony A/V Switch I2C communication failure
104 GDE non-critical error
105 Change Display Config Exit did not occur
106 I'm alive' not received in time
107 Reserved for future error codes
108 Reserved for future error codes
109 Reserved for future error codes
110 Reserved for future error codes
111 Reserved for future error codes
112 Reserved for future error codes
113 Reserved for future error codes
114 Reserved for future error codes
115 Reserved for future error codes
116 Reserved for future error codes
117 Reserved for future error codes
118 Reserved for future error codes
119 Reserved for future error codes
Note: Error codes 1,2, 3, and 4 are protection codes, and in this case, the supplies of some circuits will be switched "off". Also, in protection, the LED will blink the number of times equivalent to the most recent error code.
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Table 5-2 Error Code Table GDE
Error Error Name Description
A Vertical Output Failure This error indicates the Vertical Deflection pulse received at pin 9 on the TDA933x is not correct.
This can be caused by a failure in the HOP board or the Scan Board.
B Horizontal Flyback Failure This error indicates the Horizontal Flyback pulse received at pin 13 on the TDA933x is not correct.
This can be caused by a failure in the HOP board or the Scan Board.
C HOP Initialization Failure This error indicates the TDA933x was not initialized correctly during ACS board power up.
This can be caused by an error on the ACS board, the HOP board or the Small Signal Carrier board.
D DAC Initialization Failure This error indicates the TDA8444 was not initialized correctly during ACS board power up.
This can be caused by an error on the ACS board, the HOP board or the Small Signal Carrier board.
E Auto Convergence Failure This error indicates an error during the Auto Convergence process.
F Set References Failure This error indicates there was an error while setting the reference values.
G Sensor Pattern Failure This error indicates there is an error in a sensor or an error occurred while walking a pattern
across a sensor.
H General Initialization Failure This error indicates a general initialization software failure. This error is caused by the ACS board.
I HOP IIC Error This error indicates there was an IIC error while accessing the HOP.
This can be caused by an error on the ACS board, the HOP board or the Small Signal Carrier.
J DAC IIC Error This error indicates there was an IIC error while accessing the DAC.
This can be caused by an error on the ACS board, the HOP board or the Small Signal Carrier.
K ST2050A IIC Error This error indicates there was an IIC error while accessing the ST2050A.
This can be caused by an error on the ACS board.
L Main EEPROM IIC Error This error indicates there was an IIC error while accessing the main EEPROM on the ACS board.
This can be caused by an error on the ACS board.
M EEPROM Factory Service 1 Failure This error indicates there was a data integrity failure when accessing the main EEPROM factory/
service area 1. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
N EEPROM Factory Service 2 Failure This error indicates there was a data integrity failure when accessing the main EEPROM factory/
service area 2. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
O EEPROM Factory Service 3 Failure This error indicates there was a data integrity failure when accessing the main EEPROM factory/
service area 3. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
P EEPROM Customer Data 1 Failure This error indicates there was a data integrity failure when accessing the main EEPROM custom-
er data area 1. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
Q EEPROM Customer Data 2 Failure This error indicates there was a data integrity failure when accessing the main EEPROM custom-
er data area 2. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
R EEPROM Customer Data 3 Failure This error indicates there was a data integrity failure when accessing the main EEPROM custom-
er data area 3. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
S EEPROM Factory Service 4 Failure This error indicates there was a data integrity failure when accessing the main EEPROM factory/
service area 4. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
T EEPROM Factory Service 5 Failure This error indicates there was a data integrity failure when accessing the main EEPROM factory/
service area 5. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
U EEPROM Factory Service 6 Failure This error indicates there was a data integrity failure when accessing the main EEPROM factory/
service area 6. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
V EEPROM Customer Data 4 Failure This error indicates there was a data integrity failure when accessing the main EEPROM custom-
er data area 4. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
W EEPROM Customer Data 5 Failure This error indicates there was a data integrity failure when accessing the main EEPROM custom-
er data area 5. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
X EEPROM Customer Data 6 Failure This error indicates there was a data integrity failure when accessing the main EEPROM custom-
er data area 6. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
Y EEPROM Scratch Pad Failure This error indicates there was a data integrity failure when accessing the main EEPROM scratch
pad area. This error is caused by corrupted EEPROM data that does not match the data integrity CRC.
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Service Modes, Error Codes, and Fault Finding

5.6 The ”Blinking LED” Procedure

5.6.1 Introduction

The contents of the error buffer can also be made visible through the "blinking LED" procedure. This is especially useful when there is no picture.
When the SDM is entered, the LED will blink the number of times equal to the value of the error code. – The ON/OFF indicator going out for 500 ms precedes all
error code sequences. (There is a possibility of up to 10.)
– After the 500 ms delay, the ON/OFF indicator will slowly
flash the first number of the first code.
– This immediately follows by rapid flashes for the second
number in the first code. If an error code is smaller than 10, the ON/OFF indicator will rapidly flash 1-9 times to indicate the code. (EXP. Six rapid flashes indicate an error code of
6.)
– There will be a delay of approximately 3 seconds between
codes.
– For error codes of 10 and higher, the ON/OFF indicator will
slowly flash the correct number of times to indicate the first digit, and will then rapidly flash the correct number of times to indicate the second digit. (EXP. Three slow flashes followed by six rapid flashes indicate an error code of 36.)
– When all error-codes are displayed, the sequence is
finished and the ON/OFF indicator turns OFF for 300 ms. At this point the sequence will begin again as indicated by the ON/OFF indicator turning ON for 300 ms and repeating all error codes.
Example: 112 024 036 0 0
After entering SDM: – The sequence will begin by the ON/OFF indicator turning
off for 500 ms.
– Then slowly blink 11 times followed by two rapid blinks
(indicating error code 112).
– Next the LED will pause for 300 ms followed by 2 slow
blinks follow by 4 rapid blinks, (indicating error code 024).
– Next the LED will pause for 300 ms, then slowly blink 3
times followed by 6 rapid blinks (indicating error code 36).
– Then pause 300 ms ending the sequence in this example. – If there were error codes in positions 4 and 5, those
sequences would also be given.
Note: If errors 1, 2, 3, or 4 occur, the LED always blinks indicating the last error that occurred, even if the set is not in service mode.
Checking the Screen voltage from the Focus G2 block will indicate whether the High voltage circuit is working or not. Horizontal and Vertical drive from the HOP panel must be present for the High voltage to be present. Horizontal drive should be present on Pin 9 of 1510 and Vertical drive should be present on Pin 3.

5.7.3 No Picture

If Audio is present but there is no Picture, press the Index button on the Remote control. If OSD is present, High voltage is working and the CRT drive circuits are working. If the signal is NTSC, YUV from the SSM is fed to the HOP on connector
1250. YUV from the SSB can be checked on Pins 25, 24, and 23 of connector 1020.

5.7.4 No Audio

The Audio amplifier is located on the SSM. The Audio is powered by a supply located on the Large Signal panel. This voltage can be checked on Pins 10 and 11 of connector 1516. These voltages will measure a plus 23 and a minus 23 Volts. Speaker output can be checked on connector 1349. A Centre Channel Amp switch panel will be present on the Core models

5.7 Trouble Shooting Tips

5.7.1 Introduction

Before the set can be repaired to a component level, it is necessary to determine which board is defective. The Wiring interconnect diagram is a useful tool for this (see chapter 6).

5.7.2 Dead set

The Standby Power supply and Rectifiers are located on the Input panel. Control for power On/Off is performed by the Microprocessor located on the SSB. This Processor is powered by the 5 Volt standby voltage from the Input Panel. For a Dead Set condition, check the 5 Volt standby supply on Pin 1 of 1102. If this voltage is present, check the Standby line on Pin 3. This line will be approximately 2.6 Volts in standby and zero Volts when the set is turned "on". If the Standby line goes Low, check the 130 Volt source on Pin 8 of connector 1518. If this voltage is present, the Full Power supply on located on the Large Signal panel is working. If the Picture is not present but audio is, the High voltage or video drive circuits may have failed.
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Block Diagrams, Testpoint Overviews, and Waveforms
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6. Block Diagrams, Testpoint Overviews, and Waveforms

Wiring Diagram

R G2
R FOCUS
FOCUS G2 BLOCK
DF
DF-RET
DAG
G G2
G FOCUS
B G2
B FOCUS
+200V
YOKES
12345
GND_HANCSTARTUPNCRAWDC
12345
1
INPUT FILTER
1505
4
LSB
RED
GREEN
BLUE
GND
1500
1507
STANDBY POWER SUPPLY
1511 GND
321
412341234
1002
FOCUS
1
2
1504
3
HV MODULE
1
2
3
1501
4
1
2
3
1502
4
1
2
3
1503
4
1102 1202
HORIZ_HI
HORIZ_LO
VERT_HI
VERT_LO
HORIZ_HI
HORIZ_LO
VERT_HI
VERT_LO
HORIZ_HI
HORIZ_LO
VERT_HI
VERT_LO
DAG
1201
1207 1210
12354
+8
BIAS
+12
FIL
G1
12
11
10
9
8
7
6
1516
5
4
3
2
1
1
2
3
4
5
6
7
1510
8
9
10
11
12
1
2
3
4
5
6
7
1518
8
9
10
11
12
1
2
3
4
5
6
7
1504
8
9
10
11
12
1202
BLUE CRT BOARD
B AKB
GND
GND
-V_AUDIO
+V_AUDIO
GND
+35V
+22V
+22V
GND-C
GND-C
-22V
-22V
-35V
+5VSTBY
GND
STANDBY
GND
+15V
GND
+5V2
+5V2
GND
GND
+9V
+9V
ABL
GND
VERT
VERT
EWO
EHT
FLASH
GND
HDR
SCO
HFP
DPC
HBLANK
DEF-GND
VFB
GND
NC
STANDBY
+5V_STBY
+130V
GND
PWR_FAIL
GND
+15V
+200V
GND
1212
123
GND
FIL
312
BLUE
G1
4
GND
1204
+8V
1
1
BIAS
2
2
3
3
+12V
1217
4
5
12
11
10
9
8
7
6
1516
5
4
3
2
1
1
2
3
4
5
6
7
1518
8
9
10
11
12
4
GND
5
G AKB
14235
1207
1
2
3
4
5
6
7
8
9
10
11
12
GND
+200VG1FIL
DAG
213
1201
1202
GREEN CRT BOARD RED CRT BOARD
+8
BIAS
+12
12345
1721 1720 1711 1710 1701 1700
123456789
1510
AV1
V
L
R
TUNER
1102
6987101112
4
GND
HF
GND
GND2+200V
FIL
1
3
1212
1210
123
GND
GND
GRN
B AKB
GND
BLUE
123
1950
SCL
SDA
GND
+5V
ACS CONTROL MODULE
AV2
V
L
R
1003 GND
G1
G2G2
4
1204 1204
GND
+8V
-15V
+12V
SSM
GND
17DPTV585 AA 6.
+8V
1
1
BIAS
2
2
3
3
+12V
1217
4
55
12354
132
HD O
1
2
1302
213
SDA_1
GND
3124587
1207
4
GND
G AKB
HOP MODULE
1250 1610
45687
GND
GND
VD O
U-SSB
12501950
IF
1
GND
2
1009
5
476
SCL_1
GND
GND
INT_ATSC
6
1001
FIL
+200V
GND
DAG
1201
GND 123
V-SSB
0302
8
+5V
3
1
2G14
1202
GND
GRN
921
GND
GND
GND
Y-SSB
1043
312
4
586
FBL-TXT
GND
BTXT
GTXT
RTXT
1098765432
1002
SSB
9
+5V
9
1
Rx
GND
2
3
Tx
POD_DET
4
PWR_ON
5
1000
RESET
6
7
8
123
GND
1212
1210
123
GND
RED
345
RI2
GI2
1610
7109
RXD
G2
4
RED CONV
GND
YOKE
RV-OUT
RV-RET
RH-OUT
123
1005 1006 1007
312
4
521
BI2
BL2
GND
TXD
GND
1
1020
1000
1
2
3
4
5
P1206
6
7
8
1234587
DPTV585 ATSC WIRING INTERCONNECT 05/25/05
RH-RET
GV-OUT
44231
RED
GND
GND 3
1151
21345
Y
GNDPrGNDPbGND
21364
P1254
GREEN CONV YOKE
GV-RET
6
BLUE CONV YOKE
GH-OUT
GH-RET
BV-OUT
BV-RET
BH-OUT
324
1
6
1012 1011
2
133
AV4-R
GND
5
132
P1219 P1208
ATSC MODULEATSC INTERFACE
P1533 P1534
11
10912
BH-RET
AV4-L
4
GND
421
1010
1002
1
2
R-CL_VL-OUT
L-CL_VL-OUT
GND
3
1243576
Y/C_CVBS_SENSE_FRNT
1
Y_FRNT_SVHS
2
GND
3
Y_CVBS_FRNT
4
GND
5
C_FRNT_SVHS
6
7
GND
1335
L_FRNT
8
GND
9
R_FRNT
10 10
L_HP_AMP
1
GND
2
R_HP_AMP
3
1344
1
+5V_STBY
KEYBOARD
2
3
GND
4
NC
5
ON-OFF-LED
1014
6
NC
RC5
7
1
RIGHT
2
GND
3
GND
1349
N/C
4
5
LEFT
8
1000/1020
B-SC1-IN_U-IN
1
3
R-SC1-IN_VIN
GND
5
C-SC2_SVHS-IN
CVBS_TER_OUT
IF-TER
AGC
GND
NC
NC
V-SSB
Y-SSB
GND
FRAMEDRIVE-
NC
EHT-INFO
NC
VFB
NC
NC
+9V
+5V
SCL-IN
NC
L-SC2_AV2-IN
NC
GND
NC
NC
NC
HEADPHONE-L
L-CL_VL-OUT
GND
NC
AUDIO-L
ON-OFF-LED
KEYBOARD
T
T
7
9
11
13
15
17
19
21
23
25
27
29
31
33
35
37
39
41
43
45
47
49
51
53
55
57
59
61
63
65
67
69
71
73
75
77
79
ACS CONTROL MODULE
CVBS-SC2_MON-OUT
1
2
3
4
5
6
7
1335
8
9
1
2
SIDE JACK
3
1344
PANEL
GND
1
2
GND
FRONT
3
CONTROLS
4
5
1014
6
7
SOUND_ENABLE
Y-CVBS_FRONT-IN (NU)
W
W
1000
1001
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
2
G-SC1-IN_Y-IN
4
FBL-SC1-IN
6
Y-CVBS-SC2_AV2-IN
8
GND
10
NC
12
GND
14
GND
16
NC
STATUS_1_PIP-AFT_50-60HZ
18
NC
20
GND
22
U-SSB
24
H-SSB
26
VSYNC-SSB
28
GND
30
32
HBLANK
34
NC
36
STANDBY
38
IRQ
+5VSTBY
40
42
GND
44
GND
SDA_IN
46
48
NC
PWR_FAIL
50
L-SC1_AV1-IN
52
GND
54
NC
56
R-SC2_AV2-IN
58
R-SC1_AV1-IN
60
FRONT DETECT
62
C_FRONT-IN (NU)
64
66
NC
68
HEADPHONE_R
70
R-CL_VL-OUT
NC
72
AUDIO_SW
74
AUDIO-R
76
78
RC5
80
INT_ATSC
SCL_A_TXD
SDA_A_RXD
GND
SCL_C
H SYNC
SDA_C
GND
R
GND
G
GND
B
GND
FB
GND
GND
+9V
GND
-8V
STANDBY
VBLANK
HBLANK
GND
RV
RH
GV
GH
BV
BH
GND
15801581
3.3V
3.3V
GND
GNDNCGNDNCGND
GND
+6VD
+6VD
GND
+3V3D
+3V3D
+3V3D
GND
GND
GND
+6VD
GND
F_15120_043.eps 120805
Page 18
Block Diagrams, Testpoint Overviews, and Waveforms
www.sharatronica.com

I2C Overview

I²C
PAINTER
B7
7001 SAA5667HL
SET PROCESSOR
(PAINTER)
82
81
84
83
80
78
97
ADDRESS
DATA
47
3029
3027
3028
3026
3063
SDA-F
SCL-F
SDA-S
SCL-S
SDA_NVM
SCL_NVM
WC_NVM
ADDRESS
DATA
G-TXT
+5V2_CON
3032
+5V2_CON
3030
+3V3_INTPAINTER
3001
+3V3_INTPAINTER
3074
3033
3031
3002
7
5 6
7012
M24C32
EEPROM
NVM
ERR
10
7011
CY7C1019
RAM
3067
ERR
N.C.
N.C.
18DPTV585 AA 6.
SIMM CON.
B1
6
3906
3911
1002
IF,I/O VIDEOPROCESSING
B2
INTERCONNECTIONS
C6
1000 1020
46
47
1043
77
99
RXD
TXD
3377
47 46
7323
TDA9320H
HIP
ERR
30
3376
1201
1033
1
2
8
6
12
10
SDA-IN
SCL-IN
TO PIP
TO MMI
B4
C1
H1
1000
66
44
22
11
HOP
TUNER
3115
UV1336BE/A
ACS MODULE
1000
SDA_A_Rxd
SCL_A_Txd
3321
11 10
7301
TDA9330H
HOP
ERR
5
5 4
1106
TUNER
ERR
13
SDA_C
SCL_C
3114
3320
AUDIO DEMODULATOR
B6
3131
3130
33 32
7017
CXA2089S
AUDI O VIDEO SWITH
ERR 103
3655
3656
21
7651
MSP34XX
AUDI O
DECODER
ERR
14
1028
1030
1
2
3
1
2
3
FEATURE BOX
B3
UART INTERFACE PANEL
U1
1009 1001
2
4
RES
RES
SDA
SCL
ACS MODULE
H3
3655
3656
2 1
7002
P89LPC921
MICRO
CONTROLLER
ERR
37
4304
4302
3705
3703
54
7709
SAA4978H
PICNIC
DATA
3005
11
3003
12
1
Rx
TO P1206
3
Tx
ATS C
ACS MODULE
H2
SDA_C
SCL_C
Rxd
Txd
+5V2_CON
DATA
3702
3739
3205
3204
3074
CLK32
CLK16
11
10
16
17
1
2
89
88
61
SAA4990H
62
PROZONIC
7716
M87C257
EPROM
7100
SAA5667HL
MICRO
CONTROLLER
7708
15 26
7714
MSM54V12222A
FIELD
MEMORY
15 26
7715
MSM54V12222A
FIELD
MEMORY
J1
1950
55
44
PROCESSOR
HOP PANEL
1950
7002
STV2050A
VIDEO
7020÷7021
8
7023÷7024
9
3965
TDA9331H
PROCESSOR
EF
EF
3966
11 10
7600
DISPLAY
5 6
M24128-MN6
EEPROM
17Kx8
3955
3956
7000
SDA
SCL
34
7800
TDA8444T/N4
OCTUPLE
6 BIT DAC
5 6
7001
M24128-MN6
EEPROM
17Kx8
1030
SDA_B
SCL_B
3200
3201
1300
1
2
3
I2C BUS B
TEST CONNECT
HOP PANEL
J2
1
2
3
1111
11
12
29
28
F_15120_015.eps
020805
Page 19
Circuit Diagrams and PWB Layouts
www.sharatronica.com

7. Circuit Diagrams and PWB Layouts

Power Supply Panel: AC Input

A1
A
AC MAINS PLUG
B
C
D
E
F
1M0
3515
7512 BC847B
I534
6K8
3516
G
3139 123 6020.2
12
AUXILARY SUPPLY
1533
PFC5000
1505
1 4
AC NEUTRAL
TUNER GND
1511 1 2
I535
AC HOT
F512
F513
GND_TUNER
3514
I578
1530
1531
220K
7513 BC847B
34 1
3MM
2.5MM
I537
1V7
1234567891011
5HT6A3
1506
2516
BZX384-C5V1
2559
2
2n2
6516
2u2
1534
PFC5000
470n
2503
3519
I526
2u2
2544
I509
3501
4M7
3540
2540
43
12
V
1524
500V
DSP-501N
3506
4M7
I512
STR-W6833N(LF2003)
I527
22K
2u2
2u2
2537
2541
3456789
GND_HB
GND_HB
1
5
I530
F511
2531
220n
3510
3500
-T
1M5
2n2
I532
2532
GND_HB
6514
BAS316
5511
JLB2806
I579
I508
2n2
I531
3503
470R
3513
4M7
GND_TUNER
7510
7
7V3
6
3V2
I529
1M0
3543
1R0
3550
GND_HB
2539
3551
RTFC
OLP FB
2511
4
VCC
S|GND
3
22n
1R0
I510
21V
OCP
0V
BD
2508
470p
D
2538
470p
3549
330R
2502
470p
179V
2V
3
1R0
1n0
3537
1K0
W8051
2543
I528
9501
5502
9502
3527
470p
I522
I533
100K
2533
12
4
I516
GND_HC
I513
2512
4
GND_HC
2547
RES
6509
RGP10D
22u 35V
GND_HA
2501
1n0
GBU4J
470u
3523
I580
SARS03
6502
47K
6508
I521
6511
3536
23
2528
I523
2504
22n
5510
3531
10R
BAS316
1K5
3
2500
6500
14
GBU4J
179V
2
1n0
F501
1n0
1n0
I519
I520
I524
I525
GND_HC
3V
3
0V
GND_HA
GND_HA
8
7
6
3
2
GND_HB
I514
2507
I517
1
2510
GND_HA
470u
F500
5 4 3 2
F510
1
HEATSINK
1
2545
1n0
5501
SS34421-01
2546
1n0
7511
TCET1103(G)
1507
B5P-VH
1560
2
GND_6VD
3
14
16 13
15 10
12 11
9
TO 1500 OF LSB PANEL
I544
GND_6VD
14
5V8
3539
2
4V8
19DPTV585 AA 7.
I536
1K0
GND_6VD
F524
2548
3538
330R
6503
SB360
2552
1n0
RES
I560
I545
I538
4V9
10u 25V
GND_6VD
I546
1
2
6504
SB340
2549
RES
6513
SB340
6512
RES
2551
RES
5515
I574
4u7
2514
2m2 25V
F523
10V
2521
2m2
I563
12
HEATSINK
1523
3542
RES RES
2534
2n2
2542
1n5
7516 TL431
3
2V3
I501
I573
2518
5508
10u
2535
GND_6VD GND_6VD
3532
3530
1K0
470u 25V
5509
4u7
2m2 10V
GND_6VD
2517
5V
+5VSTDYBY
25V470u
2519
F520
2536
3534
220R
RES
3546
6507
10u 25V
7 8
SI4532ADY
3533
3547
3505
47K
BZX384-C10
I558
15V1
2
7505-2
470u 25V
2K2
I539
2K2
GND_6VD
I504
0V
2u2
2558
6501
1
5V1
5512
2553
GND_6VD
BC847B
3517
5505
I564
2522
4u7
I581
7500
3502
0V
7502
BC847B
7505-1 SI4532ADY
15V3
3
100K
4
10V5
10K
3507
BZX384-C10
4u7
2529
2530
470u 25V
25V
1n0
2550
470u
GND_6VD
I502
3520
1K0
I568
1n0
I584
10K
1n0
10 11
1 2 3 4 5 6
I505
7 8 9 10 11 12
B12B-EH-A
F509
10 11 12
GND_6VD
5507
10u
2527
5514
10u
2557
GND_3V3D
F_15120_001.eps
1504
1519 1 2 3 4 5 6
B6P-VH
1581 1 2 3 4 5 6 7 8
B8P-PH-K
1580
1 2 3 4 5 6 7 8 9
+9V
25V
470u
+3V3D
25V
470u
Supply
To
280605
1102
To
Interface
To
P1533
To
+15V
+5V2
+9V
+6VD
I566
3522
3526
I583
3529
3528
GND_6VD
GND_3V3D
+6VD
+3V3D
GND_3V3D
+6VD
13K
2526
2K2
3K3
2556
GND_6VD
2K2
F502
F506
F507
F527
F508
+3V3D
GND_6VD
470u 10V
10V470u
+5VSTDYBY
STANDBY
2505
2u2
I506
0V
10n
10K
3508
2506
15V
6 5
I561
L5972D
VCC
15V2
FB
1V
+6VD
8
VCC
6V2
FB
1V
I572
3521
I557
7508
5503
10u
6505
100K
BAS316
2523
5504
10u
GND
2
3
6
L5972D
GND
2
3
6
3504
10K
1u050V
OUT
COMP
7
7507
OUT
COMP
7
GND_6VD
2520
2513
3509
I507
470u 25V
+5V2
25V470u
18
9V5
45
1V5
1
3V5
45
1V1
GND_6VD
10K
STANDBY
+15V
2524
2554
GND_3V3D
I569
220p
2525
I570
3524
I585
2555
220p
I586
3535
9503 9504 9505
I565
6506
22n
4K7
I582
6510
22n
GND_6VD
4K7
GND_6VD
GND_6VD
5506
47u
STPS2L30A
15K
3525
5513
47u
STPS2L30A
15K
3541
GND_6VD
1580
P1534
A
B
C
D
E
F
G
1504 A11 1505 A1 1506 A2 1507 A6 1511 C1 1519 B11 1523 F7 1524 B2 1530 B1 1531 C1 1533 A1 1534 A2 1560 B6 1580 C11 1581 B11 2500 A5 2501 A5 2502 B3 2503 B2 2504 B5 2505 A9 2506 B9 2507 B5 2508 C3 2510 C5 2511 C3 2512 C4 2513 C9 2514 C7 2516 C2 2517 C7 2518 C7 2519 D7 2520 D9 2521 D7 2522 E8 2523 C9 2524 E10 2525 E10 2526 E11 2527 E11 2528 D5 2529 D8 2530 E8 2531 C4 2532 F4 2533 E4 2534 F7 2535 E7 2536 E8 2537 G3 2538 G3 2539 G3 2540 G2 2541 G2 2542 F7 2543 G4 2544 G2 2545 D6 2546 F6 2547 E4 2548 G6 2549 D7 2550 F8 2551 E7 2552 C6 2553 F8 2554 F10 2555 F10 2556 F11 2557 F11 2558 C8 2559 G2 3500 A4 3501 B2 3502 A8 3503 B3 3504 B9 3505 A8 3506 B2 3507 C8 3508 B9 3509 B9 3510 B4 3513 B3 3514 F1 3515 F1 3516 G1
3517 C8 3519 C2 3520 C8 3521 C9 3522 E10 3523 D4 3524 E10 3525 E10 3526 E10 3527 B4 3528 G10 3529 F10 3530 F7 3531 E5 3532 F7 3533 F8 3534 F7 3535 G10 3536 G5 3537 F4 3538 F6 3539 F6 3540 F2 3541 G10 3542 F7 3543 G3 3546 G7 3547 G8 3549 G3 3550 G3 3551 G3 5501 D6 5502 B4 5503 C9 5504 D9 5505 D8 5506 D10 5507 D11 5508 D7 5509 E7 5510 E5 5511 B3 5512 F8 5513 F10 5514 F11 5515 C7 6500 A5 6501 C8 6502 C5 6503 C6 6504 D7 6505 C9 6506 E10 6507 C8 6508 E5 6509 E4 6510 F10 6511 G5 6512 E7 6513 D7 6514 G4 6516 F2 7500 A8 7502 B8 7505-1 B8 7505-2 D8 7507 F9 7508 D9 7510 E3 7511 F6 7512 F1 7513 F1 7516 G7 9501 B4 9502 C4 9503 C10 9504 C10 9505 C10 F500 A5 F501 B5 F502 A11 F506 A11 F507 A11 F508 A11 F509 C11 F510 B5 F511 C4 F512 A1
F513 B1 F520 E8 F523 D7 F524 C6 F527 A11 I501 A7 I502 B8 I504 A8 I505 A11 I506 B9 I507 B9 I508 B3 I509 A2 I510 A3 I512 C3 I513 B4 I514 B5 I516 A4 I517 C5 I519 E5 I520 E5 I521 E5 I522 F4 I523 G5 I524 F5 I525 F5 I526 F2 I527 F3 I528 G4 I529 F3 I530 G3 I531 G3 I532 E4 I533 E4 I534 G1 I535 F1 I536 F6 I537 F2 I538 F6 I539 F8 I544 D6 I545 E6 I546 F6 I557 C9 I558 C8 I560 D6 I561 C9 I563 D7 I564 D8 I565 D10 I566 D10 I568 D8 I569 D10 I570 E10 I572 B9 I573 B7 I574 B7 I578 C1 I579 B3 I580 D4 I581 F8 I582 F10 I583 F10 I584 F8 I585 F10 I586 F10
Page 20
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout Power Supply Panel (Top Side)

20DPTV585 AA 7.
3139 123 6020.1

Layout Power Supply Panel (Bottom Side)

F_15120_002.eps
280605
3139 123 6020.2
F_15120_003.eps
280605
Page 21

SSB: SIM Connector (Male)

B1
B1
www.sharatronica.com
v1 G3
v3 G3
v4 G3 v5 G3
v6 G3 v7 G4 v8 G4
v9 G4 v10 G4
v11 G5 v12 G5 v13 G5
v14 G5 v15 G5
1 10 11 12 13 14 15
v16 G5 v17 G6 v18 G6
v19 G6 v20 G6
2
Circuit Diagrams and PWB Layouts
v21 G6 v22 G6 v23 G7
v24 G7 v25 G7
v26 G7 v27 G7 v28 G7
v29 G8 v30 G8
v31 G8 v32 G8 v35 G9
v36 G9 v37 G10
3
v38 G10 v39 G10 v40 G10
v41 G10 v42 G10
4
v43 G11 v44 G11 v45 G11
v46 G11 v47 G11
21DPTV585 AA 7.
v48 G11 v49 G12 v50 G12
v51 G12 v52 G12
v53 G12 v54 G12v2 G3 v55 G12
v56 G13 v57 G13
5678
v58 G13 v59 G13 v60 G13
v61 G13 v62 G14
v63 G14 v64 G14 v65 G8
v71 G12 0010 H15
1000 H2 2900 G13 2901 G13
2902 G14 2903 G14
2904 G10 2905 G8 2906 G10
2907 G5 2908 G1
2909 G1 2910 G1 2911 G2
2912 G2 3900 F14
3901 F14 3902 F9 3903 F13
3904 F14 3905 F8
3906 F14 3907 F10 3908 F9
3909 F10 3910 F5
3911 G14 4901 F3 4902 F3
4903 F3 4904 F3
9
4905 F3 4906 F4 4907 F4
4908 F4 4909 F3
4910 G3 4911 G3 4912 G3
4913 G3 4914 G3
4915 G4 4916 G4 4917 G4
4918 G3 4919 F5
4920 F5 4921 F5 4922 G5
4923 G5 4924 G5
4925 F6 4926 G6 4927 F5
4928 F6 4929 F7
4930 G5 4931 G6 4932 G7
4934 G5 4950 F7 4935 F8
4936 G8 4937 F11 4938 F11
4939 F12 4940 G11
4941 G11 4942 G12 4944 F6
4945 F6 4946 F6
4947 F6 4948 F7 4949 F7
4951 F7
4952 F7 4953 F8 4954 F8
4955 G8 4956 G6
4957 G6 4958 G6 4959 G6
4960 G7 4961 G7
4962 G7 4963 G7 4964 G7
4965 G8 4966 G8
5900 F1 5901 F1 5902 F2
5903 F2 5904 F2
A
B
C
D
E
B1
SIM CONNECTOR (MALE) SSB
B7-63
B7-149
P50
SC1-STATUS
B4-150
CVBS-PIP_TUN1-2-CVBS-IN
B4-64
CUTOFF
B1
A
B6-105
L-FRONT-IN
B6-106
R-FRONT-IN
HEADPHONE-L
B7-91
SCL-S
B4-92
POR-FLASH
B6-94
B6-95
L-SC2_AV2-IN
L-SC1_AV1-IN
B7-93
SOUND-ENABLE
B6-96
B6-97
L-SC2-OUT
L-SC1_AV-OUT
B6-98
R-SC2-OUT
R-SC2_AV2-IN
B6-99
B6-100
R-SC1_AV1-IN
B6-101
R-SC1_AV-OUT
B7-102
FRONT-DETECT
B6-89
B6-88
SCL-F
SDA-F
+3V3_SIM
B7-86
B7-87
SDA-F
B4-84
B3-82
SDA-F SDA-F
SCL-F
B4-85
SCL-F
B3-83
SCL-F
B7-90
SDA-S
B7-141
B7-152
B7-151
STANDBY
PIP-MONO
IRQ-DIGITAL
B4-78
B4-76
B4-68
B4-66
B4-67
R-CRT
B4-69
B4-70,B4-75
LINEDRIVE1
FRAMEDRIVE+
GND-LINEDRIVE
B4-71
B4-72
EW-DRIVE
FRAMEDRIVE-
HFB_X-RAY-PROT
B4-65
B-CRT
G-CRT
GND-RGB-CRT
B4-74,B4-139,B4-140
B4-73
TILT
EHT-INFO
DYN-FASE-COR
B4-77
B4-79
LIGHT-SENSOR
B4-155
IRQ-DIGITAL
Y-SCAVEM
B6-107
B6-108
L-CL_VL-OUT
HEADPHONE-R
B6-110
B6-109
R-CL_VL-OUT
GND-AUD
B6-111
B6-112
AUDIO-C
AUDIO-SL
B6-114
B6-113
AUDIO-L
AUDIO-SW
B6-115
AUDIO-R
B7-116
ON-OFF-LED
B7-
RC
B7-117
KEYBOARD
B7-118
DEGAUSSING
AUDIO DEMODULATOR
B6
B7
OTC/PAINTER
VDP-HOP
B3/B8
FEATURE-BOX
B
C
D
E
F
5900
100n
2908
G
H
8204 000 6507.3
1 10 11 12 13 14 15
+5V_CON
2909
+5V
+5V_VDP
+5V_AUD
5902
5901
100n
2910
100n
2911
+5V
+5V
( SIM CON. FEMALE )
+8V_AUD
5903
2912
100n
+8V
TO 1020
SSM PANEL
7
(Section 6)
2
5904
100n
+8V_VDP
+8V
4918
v1
1000
B2-51
B2-50
B-SC1-IN_U-IN
G-SC1-IN_Y-IN
4909
4901
4911
4910
v3
v2
3
1
F201
F202
B2-52
R-SC1_V-IN
4902
F203
B2-53
FBL-SC1-IN
4903
4912
v4
F204
3
4904
4913
v5
F205
B2-56
B2-58
B2-54
B2-55
C-SC2_SVHS-IN
Y-CVBS-SC2_AV2-IN
4905
4914
v6
7
F207
F206
B2-57
B2-59
IF-TER
CVBS-TER-OUT
CVBS-SC1_AV1-IN
4906
4907
4908
CVBS-SC2_MON-OUT
4916
4917
4915
v9
v8
F208
v7
9
F209
v10
101112131415161718
F211
F212
F213
F214
F210
4927
4930
v11
F215
B2-60
AGC
4922
v12
4919
F216
4924
F217
B2-61
B2-62
SC1-STATUS
3910
4920
4921
220R
SEL-SVHS-RR_STATUS2
2907
4923
4934
100p
v13
v14
v15
v16
19220
21
F220
F218
F219
4944
4925
4956
4926
v18
v17
2223242526
F223
F224
F222
F221
4957
v19
4945
F225
4958
v20
4946
F226
4931
v21
4928
27
F227
4959
v22
4947
28
4960
F228
4948
v23
29
F229
4949
4961
4962
v24
303132
F231
F230
4950
4963
v25
F232
3905
4952
4951
4929
2905
4964
4932
100p
v29
v26
v28
v27
3334353637
F234
F235
F233
4955
F236
220R
v30
4953
4965
v31
38
F237
4954
4966
+5V2
v32
394404142
F239
F238
F240
4936
v65
4935
F241
+8V
434445
F242
F243
F244
SERVICE TIP: USE SSB-EXTENSION PANEL: 9965 000 05769 (board only) or 9965 000 14526 (with cables)
4
5678
+5V
F245
9
3906
v33
46
B2-80
SDA-F
F246
100R
3911
v34
47
F247
B2-81
SCL-F
3908
100R
v35
48
3902
100R
v36
F248
3907
100R
3909
220R
2904
100p
2906
v37
v38
495505152
F249
F250
F251
220R
100p
v39
F252
8204_000_65073
v42
v40
v41
535455
F253
F254
F255
57
56
F256
F257
B2-103
B2-104
3900
3901
220R
220R
v62
78
100p
F278
3904
2902
v63
79880
F279
220R
v64
100p
F280
220R
2903
100p
0010
C-FRONT-IN
Y-CVBS-FRONT-IN
4937
4938
4939
4942
4940
4941
v55
v53
v43
58
F258
v44
59660
F259
v47
v45
F260
v49
v46
61
F261
v50
v48
62
63
F263
F262
v52
v51
666768
65
64
F267
F264
F266B4F268
F265
v71
v54
7071727374
69
F269
F270
F271
v57
v56
F272
F273
3903
100p
2901
2900
v61
v58
v60
v59
75
77
76
F277
F275
F274
F276
B2
VDP-HIP
MECHPART
E_15000_127.eps
F
G
H
191004
Page 22

SSB: IF, I/O Videoprocessing

www.sharatronica.com
1 32 4 5 6 7
IF, I/O VIDEOPROSSING
A
+5V_VDP
3R9
B
C
D
E
F
G
H
I
8204 000 6507.3
3464
2425
IF-TER
0302
1
2
PH-S
FROM
0302
OF SSM PANEL (SECTION 1)
100u
2402
4n7
5401
F14
2V/div DC
10ms/div
L8
1V/div DC
20us/div
I6 VIF-Out
0.5V / div AC 10µs / div
1
+5VCOM
2412
4n7
0u39
Circuit Diagrams and PWB Layouts
SAW-FILTER
1408
K120A
V2 CVBS_INT
V6
500mV/div DC
V7
500mV/div DC
V8
500mV/div DC
V9 SDA
V10 SCL
NC
INP
2
SWIINP3
1
4
GND
569101314
0.5V / div AC 10µs / div
20us/div
20us/div
20us/div
1V / div DC
0.2ms / div
1V / div DC
0.2ms / div
2
22DPTV585 AA 7.
8 9
(SSB)
AGC
B1-60
B7-120
ATT-SWITCH
4407
15
11121617
GND
OUTP1 7
OUTP2
GND
+5VS
10K
3415
3384
100R
18K
3463
22K
3441
18
8
+8V_VDP
6R8
3416
47u
2413
+8V_VDP
7411
BC847B
3403
1
2
3
180R
3400
4R7
+8VP
78
*
3417
2377
5CCE 5408
6
5
4
5407
6u8
100u
5409
6u8
3401
100K
2410
2411
470n
100n
2418 12p
+8VP
7322
2401
10n
2378
2376
3418
390R
3437
1K
100n
100n
4V7
4V7
3V7
4V7
4V7
1V5
3V4
I6
4V7
2V7
3V8
3V8
64
63
1
2
3
4
6
7
8
62
10
12
13
5
QSS_AM
SIF2
SIF1
AGCSIF
VIF1
VIF2
AGCDEC
PLLRILT
VCO1
VCO2
IF DEM
TUNERAGC
VIFOUT
GROUP DELAY COR.
IN
OUT
V2
3V9
2384
3385
14
100n
470R
CVBSINT
3V5
2365
CVBS116CVBS2
3V5
3419
220K
3420
3436
270R
3382
5406
10u
1407
TPSCC
1
3
2
3402
1K
390R
+8VP
1410
TPSCC
1
3
1K
2
3456
3457
4K7
4K7
7410
BC847BW
1K
3405
4401
B1-150
B1-58
CVBS-TER-OUT
CVBS-PIP_TUN1-2-CVBS-IN
B6-119
QSS_AM
CVBS-SC1_AV1-IN
B1-57
3 4 5 6 7 8 9
c002
2u2
22n
2374
2375
2373
4V1
44
GND_1
35
DEC
100n
5V1
33
DIGDEC
7V8
7V8
9
11
45
+8_1
+8_2
GND_2
SUPPLY CTRL
HIP
I/O SWITCH
Y_CVBS320Y_CVBS4
18
3V5
0V1
2367
100n
2366
100n
4322
CVBS-AV3-IN
Y-CVBS-SC2_AV2-IN
B1-54
C321C4
100n
2368
C-SC2_SVHS-IN
B1-55
23
3V5 0V1
2369
100n
3446
5410
Y-CVBS-FRONT-IN
B1-103
100n
2370
100R
2420
6u8
B1-104
24
PIPOUT
32
2V8
100n
150p
C-FRONT-IN
B1-61
B1-62
SC1-STATUS
SEL-SVHS-RR_STATUS2
48
ADSEL
7323
TDA9320H
COMBOUT
26
3V3
100R
7320
AV 115AV 2
+8VP
0V0V0V
17
0V
31
DIGGND
CVBSOUT
34
3370
BC847BW
47R
3372
3371
470R
CVBS-SC2_MON-OUT
CVBS-TXT
B1-56
B5-122
V10
4V9
19
22
SW0
SW01
LUMA & CHROMA PROC.
YCOMBIN
28
B1-81
B1-80
SCL-F
SDA-F
F14
3377
100R
V9
3376
100R
4V9
58
46
47
SCL
SDA
HPLL
SVBCOUT
SYS125SYS2
CCOMBIN
30
27
29
COMB-C-OUT
SYS1
SYS2
COMB-Y_CVBS-OUT
FSC
B3-124
B3-123
VA50
HA50
0V
61
VA
SYNC
FBL1IN
OUTP SWITCH
FBL2IN
YOUT
UOUT
VOUT
X3.579
X3.575
X3.582
X4.43
COL_PLL
SEC_DEC
SCOUT
59
SC
L8
0V4V1
60
HA
R1IN
G1IN
B1IN
R2IN
G2IN
B2IN
2424
100n
3303
CVBS-TXT
36
37
38
39
41
42
43
40
49
50
51
57
56
55
54
52
53
2356
100K
3378
15K
1V2
2V
2V2
0V
2V7
2V3
2V2
2V5
3468
2371
4n7
2350
100n
2352
100n
4326
V7
3393
100n
2357
+5VCOM
RES
4319
4318
100K
10
11 12 13
2372
1u
2351
100n
+8VP
7413 BFS20
3461
1K8
1K5
V6
3462
4409
R-SC1_V-IN
G-SC1-IN_Y-IN
B-SC1-IN_U-IN
FBL-SC1-IN
3460
3K3
+8VP
Y50
U50
V50
V8
PAL N
RES
1316
RES
2381
HC-49/U
3M582056
15p
2379
RES
1p5
100K
2358
100n
3n3
RES
1315
RES
2359
HC-49/U
4M433619
RES
1p5
15p
2360
NOT USED FOR US
+5VCOM
2354
CLAMP
CLAMP
SAND-
CASTLE
AGND
DGND
13
4
7307-p4
100n
FILTER
TUNING
2353
6
VCC VDD
2H/4H DELAY
ADAPTIVE
COMB FILTER
FSC8FSCSEL
9
3466
100n
FSC
CLOCK
100K
GEN
SYS110SYS2
SYS1
5
11
2 INPSEL
12 Y|CVBS1
3 Y|CVBS2
1CIN
7SC
SC
7307 TDA9181
10 11 12
2385
100n
SYS2
B1-52
B1-51
B1-50
B1-53
B3-125
B3-126
B3-127
RES
PAL M
1317
RES
2382
Y|CVBSO
OUTSEL
15
2422
4406
HC-49/U
3M575611
15p
2380
14
16COUT
100n
3451
RES
1p5
COUT-3D
YOUT-3D
3452
270R
CVBS-TXT
100MHZ
100MHZ
RES
150R
5411
68u
NTSC M
5412
5413
100MHZ
5414
COMB-Y_CVBS-OUT
+5VS
3450
7412 BC857BW
10p
2423
2421
1318
HC-49/U
3M579545
1p2
12p
2361
2362
2302
COMB-C-OUT
100n
*
2344
*
10p
2345
*
10p
2346
10p
13
1K
6p8
7307-p4
1303
5
4
3
2
1
E_15000_128.eps
TO
1303
OF SSM PA NE L (SECT. 1)
191004
A
B
C
D
E
F
G
H
I
0302 D1 1303 H13 1315 E10 1316 E11 1317 E12 1318 E12 1407 F4 1408 C2 1410 G4 2302 G13 2344 H13 2345 H13 2346 I13 2350 C10 2351 C10 2352 C10 2353 I11 2354 G11 2356 E9 2357 F10 2358 E10 2359 F10 2360 E10 2361 E13 2362 F13 2365 F6 2366 F7 2367 F7 2368 F7 2369 F7 2370 F7 2371 B10 2372 B10 2373 B7 2374 B7 2375 B7 2376 B6 2377 B5 2378 B6 2379 E11 2380 E12 2381 F11 2382 F12 2384 E6 2385 G12 2401 C6 2402 C1 2410 C5 2411 C5 2412 D1 2413 D3 2418 D5 2420 G7 2421 C13 2422 B12 2423 C13 2424 G9 2425 B1 3303 H9 3370 F8 3371 F8 3372 F8 3376 B8 3377 A8 3378 B10 3382 E5 3384 B4 3385 F6 3393 E10 3400 A5 3401 B5 3402 F4 3403 E4 3405 G5 3415 B3 3416 D3 3417 E5 3418 C6 3419 F3 3420 G4 3436 E4 3437 D6 3441 B3 3446 G7 3450 B13 3451 C12 3452 C12 3456 G5 3457 G5 3460 C11 3461 C10 3462 C11 3463 B3 3464 B1 3466 H11 3468 H9 4318 G10 4319 F10 4322 F7 4326 D10 4401 H3 4406 C12 4407 B3 4409 D10 5401 D1 5406 F4 5407 B5
5408 C5 5409 B5 5410 H7 5411 C12 5412 H13 5413 H13 5414 H13 7307 G10 7320 F8 7322 E5 7323 D8 7410 G5 7411 D4 7412 C13 7413 C11
Page 23
Circuit Diagrams and PWB Layouts
www.sharatronica.com

SSB: Feature Box (100Hz Processing)

FEATURE BOX (100Hz processing)
B3
A
5701
B
5703
+5VF
C
D
E
F
G
H
I
J
K
B1-83,B3­SCL-F B1-82,B3­SDA-F
B4-128 Y100
B4-129 U100
B4-130 V100
B4-131,B7 -148
HD100
B4-132 VD100
B2-152
Y-PIP+MAIN-IN
B2-153 U-PIP+MAIN-IN
B2-154 V-PIP+MAIN-IN
B2-124 HA50
B2-123 VA50
2706
2770
2729
2731
B1 B6
8204 000 6507.3
100u
5704
56p
100p
100R 3733
100R
3728
100n
3747
68R
3748
68R
3749
68R
5707
600R
3714
22R
5706
3719
RES 3720
RES
5u6
2718
2721
2725
PMBT2369
7704
3754
3755
3757
3759
2707
V17
RES
RES
RES
10R
1R
1R
1R
3722
3721
7713 MC33269D
4
IN
5
NC
8
2757
100n
2712
BC857BW
4717
5708
RES
4716
5709
RES
4715
5710
RES
3717
3798
RES
RES
RES
RES
GND-ADJ
10u
10u
7701
2719
2726 2723
3716
4K7
4K7
2733
22n
2738
22n
2743
22n
1
+5VA
3708
3711
2795
100n
5702
2
RES
3
OUT
6
7
5705
RES
RES
2708
2709
3V3_INT
3745
1K
1K
3741
7702
2K7
BC847BW
3710
100K
1K
4714
RES
4712
RES
4713
RES
2756
3740
100n
V18
S4
S5
S5
V13
10u
2702
2704
2710
RES
3V3_INT
3707
3709
1K
1R
3744
TO 25-7714 AND 7715 TO 60-7708
+3A
S7
S8
1701
18p
2747
RES
3730
3V3_INT
5798
+5V_PA
+5VA
+5P
5799
RES
2799
RES
3V3_INT
+3D
RES
+3A
RES
+5M
3K9
1R
RES
4711
TO 61-7708
SNERT-DA
SNERT-CL
TO 62-7708
3703
100R
4V8
TO 16-7714 AND 7715
RSTW
RSTR
+3A
V14
V16
1V5
1V5
2771
V15
100n
S3
2730
2772
22n
100n
+3A
5718
0u33 2798
2766
680p
S6
+3A
1M
12M
3725
CX-5F
18p
2748
3731
3732
100R
+3V3_PA
4703
RES
3718
220R
2773
1V5
1K
3V2
100n
3V2
1V6
4V7
3705
100R
0V3
23DPTV585 AA 7.
10 11987654321
7714
MSM54V12222A
1
VSS1
VSS3
UVC2
YB470YB569YB668YB767YB8
2
NC1
VCC3
3
DOUT11
DIN11
4
DOUT10
DIN10
5
DOUT9
DIN9
6
DOUT8
DIN8
7
DOUT7
DIN7
8
DIN6
DOUT6
9
DIN5
DOUT5
10
DIN4
DOUT4
11
DIN3
DOUT3
12
DOUT2
DIN2
13
DOUT1
DIN1
FIELD MEMORY
14
DOUT0
DIN0
15
16
17
18
19
**
5715
RES
+5P
0V
129
128
130
UVC3
UVC4
UVC5
71
SWCK
RSTW
WE
IE
NC2
VCC120VCC2
4723
2713
100n
0V
0V
FM1I(0)
FM1I(1)
FM1I(2)
127
126
125
UVC6
UVC7
BUS C
BUS B
YB074YB173YB272YB3
75
0V
FM1I(3)
124
UVC8
SRCK
RSTR
VSS2
+3D
VDDO2
BUS D
10 11987654321
RE
OE
3V2
123
CLK
5711
600R
0013
MECHPART
7709
160
T1
3V1
SN-DA
1
SN-CL
2
3V1
3
VSSO6
SCL
4
SDA
5
UP-RST
6
0V
WD-RST
7
0V
RSTW
8
0V
RSTR
9
0V
FBL
10
5V
VDDA1
11
3V2
1V2
Y-OUT
12
VSSA1
13
U-OUT
14
V-OUT
15
VSSA2
16
BGEXT
17
3V
H-D
18
0V
V- D
19
AGND
20
1V3
DIFFIN
21
VDDA2
22
1V1
Y-IN
23
0V
3V2
VDDA3
24
1V0
U-IN
25
1V0
VIN
26
VSSA3
27
H-A
28
V- A
29
0V0
0V
HREF-EXT
30
VDDA4
31
1n
VSSA4
32
33
VSSX
OSC-I
34
35
OSC-O
TEST
36
0V
TRST
37
0V1
3V2
TMS
38
TDI
39
TDO
40
3V2
TCK
41
1V8
: only for PHILIPS DNR memory
**
E(6)
E(7)
21 22 23 24 25 26 27 28 29
20
E(5)
19
E(4)
18
E(3)
17
16
(PICNIC-EPROM)
15
E(2)
14
E(1)
E(0)
E(0)
E(1)
E(2)
E(3)
157
159
158
156
155
154
P0-0
P0-1
P0-2
P0-3
153
P0-4
P0
T0
INT0
INT1
MICRO-PROCESSOR
ANALOG
PROCESSING
CLK
PLL
TIMING
OSC
BST
VSSO1
UVA044UVA145UVA246UVA347UVA448UVA5
42
43
UVA650UVA751UVA8
E(10)
7716
SOCKET PLCC32
10111213
E(2)
E(1)
E(0)
E(3)
E(4)
E(5)
E(6)
E(7)
152
151
150
P0-5
P0-6
P0-7
PSP
3 X DAC
3 X ADC
FRONT
BUS A
VDDO1
49
2796
3V2
100n
E(9)
E(8)
E(11)
30
E(13)
31
E(14)
32
1
2
3
E(12)
4
E(7)
56789
E(6)
E(5)
E(4)
E(8)
E(9)
E(10)
E(11)
E(12)
+5M
5V0
2776
100n
149
148
VDDO3
147
146
P2-0
P2-1
P2-2
PICNIC
144
143
145
P2-3
P2-4
P2
SAA4978H
END
YA 054YA 155YA 256YA 357YA 458YA 559YA 660YA 761YA 8
52
53
E(14)
E(13)
P2-5
FM1I(0)
FM1I(1)
+5VA
5720
600R
100n
2755
10R
3706
3704
RES
135
136
138
139
142
141
140
137
ALE
VSSD4
PSEN
EAN
VDDD4
P2-6
CLK
TIMING
P2-7
FM1I(2)
FM1I(3)
FM1I(4)
FM1I(5)
FM1I(6)
FM1I(7)
FM1I(8)
FM1I(9)
FM1I(10)
FM1I(11) FM1O(11)
FROM 88-7709 CLK-16
RSTW
FROM 8-7709
FM1I(12)
FM1I(13)
+3D
2785
100n
interne SW
3V2
134
133
132
131
UVC0
UVC1
VSSD3
VSSO5
BACK END
PEAKING
MUX
MID END
HISTOGRAM
NOISE
REDUCTION
TIMING
TBC/SRC
MUX
VSSD1
VSSO2
2767
100n
WE-A
62
WE-B
VDDD1
64
63
66
65
+3D+3D
4725
40
39
38
37
36
35
34
33
32
31
30
29
28
27
26
25
24
23
22
21
122
YC0
100R
100R
100R
100R
100R
100R
100R
100R
100R
100R
100R
100R
3V3_INT
1V2
FM1I(4)
121
YC1
VSSO4
VDDD3
VSSD2
CLK32
CLK16
VDDD2
VSSO3
CLK-AS
UVB479UVB578UVB677UVB776UVB8
80
3792-D
3792-C
3792-B
3792-A
3791-A
3791-B
3791-C
3791-D
3790-A
3790-B
3790-C
3790-D
FROM 88-7709
3797
100R
4726
5716
RES
YC2
YC3
YC4
YC5
YC6
YC7
YC8
WE-C
IE-C
RE-D
YD8
YD7
YD6
YD5
YD4
YD3
YD2
YD1
YD0
UVD8
UVD7
UVD6
UVD5
UVD4
UVD3
UVD2
UVD1
UVD0
UVB0
UVB1
UVB2
UVB3
**
RES
FM1O(0)
FM1O(1)
FM1O(2)
FM1O(3)
FM1O(4)
FM1O(5)
FM1O(6)
FM1O(7)
FM1O(8)
FM1O(9)
FM1O(10)
FROM 9-7709
RSTR FM1O(12)
4731
4732
+5P
2788
100n
120
119
118
117
116
115
114
113
112
111
110
100R
109
100R
108
100R
107
100R
106
100R
105
100R
104
100R
103
100R
102
100R
101
100
+3D
99
100R
98
100R
97
100R
96
100R
95
94
93
92
91
90
89
3739
88
100R
87
3V2
86
85
84
83
82
81
CLK-32
**
3793-A
3793-B
3793-C
3793-D
3794-A
3794-B
3794-C
3794-D
3795-A
3795-B
3795-C
3795-D
2786
1V6
4724
3796
3V2
100n
TO 20-7708 TO 15-7715 TO 26-7715 TO 26-7714 3702
22R
TO 15-7714
2774
100n
2792
1V6
FM1I(10)
FM1I(11)
FM1I(12)
FM1I(13)
PRO(12)
PRO(11)
PRO(10)
CLK-16
FROM 88-7709
100n
FM1I(5)
FM1I(6)
FM1I(7)
FM1I(8)
FM1I(9)
PRO(9)
PRO(8)
PRO(7)
PRO(6)
PRO(5)
PRO(4)
PRO(3)
PRO(2)
PRO(1)
PRO(0)
12 13 14 15
7715
MSM54V12222A
1
VSS1
2
NC1
3
FM2I(11)
FM2I(10)
FM2I(9)
FM2I(8)
FM2I(7)
FM2I(6)
FM2I(5)
FM2I(4)
FM2I(3)
FM2I(2)
FM2I(1)
FM2I(0)
CLK-32
RSTR
FROM 9-7709
+5P
5717
RES
CLK-32
2797
+3D
FROM 2-7709
FROM 1-7709
+5P
FROM 9-7709
RSTR
RES
DOUT11
DIN11
4
DOUT10
DIN10
5
DIN9
DOUT9
6
DOUT8
DIN8
7
DOUT7
DIN7
8
DOUT6
DIN6
9
DOUT5
DIN5
10
DOUT4
DIN4
11
DOUT3
DIN3
12
DOUT2
DIN2
13
DOUT1
DIN1
FIELD MEMORY
14
DOUT0
DIN0
15
SWCK
16
RSTW
17
WE
18
IE
19
NC2
20
VCC121VCC2
FM1O(11)
FM1O(10)
FM1O(9)
FM1O(8)
FM1O(7)
FM1O(6)
FM1O(5)
FM1O(4)
FM1O(3)
FM1O(2)
FM1O(1)
FM1O(0)
FM1O(12)
CLK-32
SNERT-CL
SNERT-DA
3746
4K7
4728
RES
FM2O(11)
FM2O(10)
FM2O(9)
FM2O(8)
FM2O(7)
FM2O(6)
FM2O(5)
FM2O(4)
FM2O(3)
FM2O(2)
FM2O(1)
FM2O(0)
FM2O(12)
FM2O(13)
12 13 14 15
VSS3
VCC3
SRCK
RSTR
VSS2
RE
OE
40
39
38
37
36
35
34
33
32
31
30
29
28
27
FROM 88-7709
26
FROM 9-7709
25
24
23
22
4792
4793
+5P
67
YA 7
68
YA 6
69
YA 5
70
YA 4
71
YA 3
72
YA 2
75
YA 1
76
YA 0
UVA3
77
UVA2
78
79
UVA1
80
UVA0
3
RE1_OUT
20
CKL
62
UPCL
61
UPDA
60
RSTR
40
VRSYT
25
UVB0
26
UVB1
27
UVB2
28
UVB3
29
YB0
30
YB1
31
YB2
32
YB3
35
YB4
36
YB5
37
YB6
38
YB7
24
RE2_OUT
23
WE2_OUT
4733
RES
FM2O(11)
FM2O(10)
FM2O(9)
FM2O(8)
FM2O(7)
FM2O(6)
FM2O(5)
FM2O(4)
FM2O(3)
FM2O(2)
FM2O(1)
FM2O(0)
CLK-32
RSTR
FM2O(12)
4791 RES
FM2O(13)
SP
1
3V3_INT
4734
5713
600R
2728
100n
100n
2790
100n
100n
100n
100n
VDD2
22
2760
VDD3
33
2761
VDD4
2762
45
100n
2763
51
VDD5
100n
2758
5
2759
12
VDD1
7708
SAA4990H
PROZONIC
AP
2
VSS4
VSS2
VSS3
VSS1
34
4
46
21
11
VDD6
VSS5
58
52
100n
2764
VDD7
VSS6
100n
2765
74
59
VDD8
VSS7
16
B3
S3
1V/div DC
10us/div
S4
1V/div DC
5ms/div
S5 Y-IN
0.2V / div AC 10µs / div
PRO(11)
57
YD7
PRO(10)
56
YD6
YD5
YD4
YD3
YD2
YD1
YD0
UVD3
UVD2
UVD1
UVD0
RE_IN
UVC0
UVC1
UVC2
UVC3
YC0
YC1
YC2
YC3
YC4
YC5
YC6
YC7
HREF
VSS8
73
PRO(9)
55
PRO(8)
54
PRO(7)
53
PRO(6)
50
PRO(5)
49
PRO(4)
48
PRO(3)
47
PRO(2)
44
PRO(1)
43
PRO(0)
42
PRO(12)
39
FM2I(11)
19
FM2I(10)
18
FM2I(9)
17
FM2I(8)
16
FM2I(7)
15
FM2I(6)
14
FM2I(5)
13
FM2I(4)
10
FM2I(3)
9
FM2I(2)
8
FM2I(1)
7
FM2I(0)
6
NC
66
NC
65
NC
64
NC
63
41
S6 H-A
2V / div AC
10µs / div
S7 V-A
1V / div AC
5ms / div
S8
1V/div DC
250ns/div
V13 V-IN
0.2V / div AC 10µs / div
V14
500mV/div DC
5us/div
V15
500mV/div DC
5us/div
V16
500mV/div DC
5us/div
V17 SCL
1V / div DC
0.2ms / div
E_15000_129.eps
16
191004
A
B
C
D
E
F
G
H
I
J
K
0013 A4
1701 J3
2702 B3
2704 B3
2706 C1
2707 C2
2708 C3
2709 C3
2710 C3
2712 D2
2713 D10
2718 F2
2719 F2
2721 G2
2723 G2
2725 G2
2726 G2
2728 B14
2729 H1
2730 H4
2731 I1
2733 I2
2738 J2
2743 J2
2747 J3
2748 J4
2755 B8
2756 E3
2757 C2
2758 E13
2759 E13
2760 E13
2761 E14
2762 E14
2763 E14
2764 E14
2765 E14
2766 H4
2767 K8
2770 D1
2771 G4
2772 H4
2773 I4
2774 J11
2776 D6
2785 D9
2786 I11
2788 E11
2790 C14
2792 C11
2795 B3
2796 K6
2797 J12
2798 H4
2799 B4
3702 I11
3703 E4
3704 D8
3705 F4
3706 D8
3707 D3
3708 D2
3709 E3
3710 E3
3711 E2
3714 I2
3716 H2
3717 I2
3718 H4
3719 C2
3720 C2
3721 B2
3722 B2
3725 J4
3728 K1
3730 K3
3731 K4
3732 K4
3733 K1
3739 J11
3740 E3
3741 D3
3744 E3
3745 D3
3746 H12
3747 F2
3748 F2
3749 G2
3754 I2
3755 I2
3757 J2
3759 J2
3790-A B11
3790-B B11
3790-C B11
3790-D C11
3791-A B11
3791-B B11
3791-C B11
3791-D B11
3792-A A11
3792-B A11
3792-C A11
3792-D A11
3793-A G11
3793-B G11
3793-C G11
3793-D G11
3794-A G11
3794-B G11
3794-C G11
3794-D H11
3795-A H11
3795-B H11
3795-C H11
3795-D H11
3796 F11
3797 C11
3798 A2
4703 F4
4711 E4
4712 F3
4713 G3
4714 F3
4715 G2
4716 F2
4717 F2
4723 D10
4724 A11
4725 A11
4726 C11
4728 H12
4731 C11
4732 C11
4733 A13
4734 A13
4791 C13
4792 C13
4793 D13
5701 A3
5702 B3
5703 C1
5704 C1
5705 C3
5706 C2
5707 H2
5708 F2
5709 G2
5710 G2
5711 D10
5713 A14
5715 D9
5716 D11
5717 C12
5718 H4
5720 B8
5798 A4
5799 B4
7701 D2
7702 D3
7704 H2
7708 F13
7709 E4
7713 B2
7714 A10
7715 A12
7716 B6
Page 24
Circuit Diagrams and PWB Layouts
www.sharatronica.com
24DPTV585 AA 7.

SSB: HOP

2
HOP
2399
NC
ADR
DEC
7
15
2301
2332
4K7
3458
10p2426
2427 10p
10p2428
2347 10p
10p2348
2349 10p
100n
SPEC­TRAL PROC
ADC
AD14AD25AD3
3
100n
3305
3396
100R
3398
100R
5301
6u8
100n
2
GND
68K
2396
100n
3320
100R
3321
100R
+8VG
2315
3363
NoHOP1a
18
VCC
SOUT
YOUT
UOUT
VOUT
WIN­DOW
100n
1K
7302 RES
A
B
C
D
B1-85
B1-84
E
F
B3-132
G
B3-131
H
I
TDA9178
B3-128
Y100
B3-129
U100
V100
B3-130
3454
SDA-F
100R
3455
SCL-F
100R
HD100
SANDCASTLE
FBL_2FH
R_2FH
G_2FH
B_2FH
SCL-F
SDA-F
+8VS
2341
VD100
VD
HD100
R_2FH
G_2FH
B_2FH
FBL_2FH
HD100
VD
13 12 2 10 23 24
YIN
6
8
UIN
9
VIN
22
CF
CONTROL
6308
MCL4148
3453
33K
+8V_VDP
3329
100u
100u
2314
7304 PDTC144EU
3387
100R
5304
100MHZ
5305
100MHZ
5306
100MHZ
5307
100MHZ
5308
100MHZ
5309
100MHZ
LUMA
PROCESSING
CHROMA
PROCESSING
SCL14SDA
11
3397
100R
6R8
5302
6u8
+5VS
8204 000 6507.3
1345678910
F17 F18 F19 F20
20
SC
3339
3395
100R
2395
100n
2397
100n
*
*
2317
2363
1
2
3
4
5
6
7
1
2309
2310
RES
1304
+8VS
21
19
17
16
6K8
2u2
2307
100n
470p
+5VS
3333
2320
V100
4302
V21
100n
2321
10p
V22
10p
GND-RGB-CRT
22n
2318
F17
L12
1K
3331
1K
10p
1304
V24
V26
U100
4303
2322
3302
TO
1K8
V20
100n
Y100
4304
V19
2323
3V5
3V8
3V8
0V
R1
1V2
G1
1V5
B1
1V2
4V7
4V7
V23
7V6
7V6
4V8
0V
5V0
0V
0V
0V7
4V9
Yltp
4305
2429
100n
100n
7301
TDA9330H
28
27
26
33
30
31
32
10
11
17
39
18
19 2
7
6
23
24
12
1V1
13
res only for No HOP
4308
4309
4310
Y
U
SWITCH
V
VUY
RGB-YUV
MATRIX
2
C
I
SYNC+GEO
RGB
BANDGAP
ANAGND
SUPPLY
DIGSUP
DIGGND
1
PHI- PHI-2
20 21 22
1301
0V7
1V1
12MCSTCV
2
*
6334
*
3334
SANDCASTLE
HFB
SATUR’N
CONTROL COLOUR
DIFF
MATRIX
Y
BLACK
STRETCH
SCHsel
9
0V7
MCL4148
1K
3324
13 14
HFB_X-RAY-PROT
2325
*
4K7
4V0
3323
6306
R
G
B
100n
SAT
CONTRAST
BRIGHTNESS
CONTR
+8VG
*
3325
*
3326
*
100K
2311
6307
BZM55-C5V6
L12 L13
V25
R
AND
G
B
CONTROL
BRIGHT
HOP
0V
3336
100K
3327
100K
100K
3337
68p
BAT254
DYN-FASE-COR
POR
B1-76
V19 V20 V21
R-TXT
G-TXT
B5-134
2330
2329
100n
3V6
3V0
RGB-INSERTION
START/STOP
H-DRIVE
29
3V4
1K
7324
BC847CW
10n
33K
2324
6316
MCL4148
POR_FLASH
B7-92
B-TXT
B5-135
B5-136
100n
2331
100n
5
0V
+5VC
100u
2335
7308 PDTC144EU
STANDBY-INFO
B5-146
B5-137
FBL-TXT
V27
0V
R
G
B_2FH
WHITE POINT
CONTROL
PWL +
BEAM CURR
LIMITER
1K8
3335
3K9
3338
6315
POR_FLASH
B7-92
G_2FH
WHITE P.
3311
MCL4148
R_2FH
3313
3319
3332
0V23V6
33K
2304
1K
1K
1K
G
BB
+8VS
3360
2342
100n
3355
2328
22p
3435 36 37 38
OUTPUT
AMPL
+ BUFFER
+ BLUE
STRETCH
CONTIN’S
CATHODE
CALIBR’N
6-BITS
DAC
EW
FRAME
RAMP
GENERATOR
6312
3314
22K
10p
: RESERVED
*
100K
33K
40
41
42
44
43
25
3
4
1
16
15
8
MCL4148
0011
V22 SCL
3373
3374
3467
10K
1V8
RR
2V1
G
1V8
B
5V
0V5
2334
5V
F20
0V4
0V4
3V9
3328
39K
3V8
1V8
L13
+8VS
7303
BC857BW
MECHPART
Yltp
FBL_2FH
100K
BC847BW 7375
BC847BW
33K
7305
+8VS
*
6321
3345
10K
6319
MCL4148
2u2
3394
2336
F18
2313
100n
1K
NoHOP2b
6303
BZM55-C47
6313
BZM55-C22
3346
3347
+8VS
4K7
3310
2303
+5VC
3318
2308
MCL4148
2u2
3306
220R
+8VS
3315
res only for No HOP
NoHOP1a
HD100
V23 SDA
Y-SCAVEM CIRCUITRY:
+8VS+8VS
3301
100K
BC847BW
7306
10K
33K
3351
3465
V28
3340
100R
V29
3341
100R
V30
3342
100R
33K
3348
2K2
22K
3390
18K
7318
47K
BC857BW
3308
680K
10n
18K
3307
NoHOP1b
F19
3K9
3366
1K
3317
220R
10p
6304
MCL4148
6314
MCL4148
NoHOP1b
4311
NoHOP2b
4312
B1-155
+8VS
+8VS
PMBT2369
3392
3362
10n
5303
100n
2333
3344
3309
470R
470R
Y-SCAVEM
7315
2u2
2K2
UL ONLY
3388
680R
2338
10n
2319
3300
2300
2306
2343
100n
3367
3330
4307
470p
3352
3359
3389
3472
10K
3K9
3K3
3316
12K
BC847BW
100K
100K
+8VS
47K
7312 BC847BW
BC847BW
PDTC144EU
(FOR PTV
SET)
7314
1K
3350
6310
BZM55-C6V8
7317
+5VS +5VS
10K
7309
+5V2
2398
V28 V29 V30
11 12 131345678910
+8VS
7313
BZM55-C22
3469
100K
4K7
7311
6311
6317
MCL4148
2u2
*
3368
220R
3386
3365
68K
FBL-TXT
3358
3459
3343
68K
*
7310
PDTC144EU
22K
3391
C001
1K8
2K2
3375
100R
+5V_VDP
3304
2340
3322
1K
3R9
10u
+8VS
7340 BC847BW
10K
3399
EW-DRIVE
HFB_X-RAY-PROT
FRAMEDRIVE-
3369
220R
4369
3312
FRAMEDRIVE+
150R
(RES
ONLY FOR
NO HOP)
LINEDRIVE1
GND-LINEDRIVE
+5VS
1K
3353
2K2
3354
PMBT2369
MCL4148
6309
3470
100K
6318
PDZ-27B
2339
+5VS
68K
3364
BC847BW
+5V2_CON
3R9
+5VC
100u
11 12 13
B1
BCL
R-CRT
G-CRT
B-CRT
CUTOFF
EHT-INFO
EHT-INFO
4313
VSYNC
EHT-INFO
E_15000_130.eps
B6
B7-120
B1-67
B1-66
B1-65
B1-64
B1-140
B1-75
B1-72
B1-74
B1-73
B1-70
B7-142
B1-68
B1-69
B1-139
191004
A
B
C
D
E
F
G
H
I
0011 I7
1301 G4
1304 H3
2300 I11
2301 B2
2303 E8
2304 G7
2306 H9
2307 F3
2308 G8
2309 D3
2310 E3
2311 H5
2313 F8
2314 E1
2315 E2
2317 E3
2318 E3
2319 G10
2320 H3
2321 B3
2322 B3
2323 B3
2324 H6
2325 G5
2328 B7
2329 B6
2330 A6
2331 B6
2332 E2
2333 D10
2334 E8
2335 H6
2336 E8
2338 G11
2339 E11
2340 I12
2341 E1
2342 A7
2343 A9
2347 I2
2348 I2
2349 I2
2363 F3
2395 D3
2396 D2
2397 D3
2398 I10
2399 A2
2426 H2
2427 H2
2428 I2
2429 A4
3300 H11
3301 A9
3302 C3
3304 H12
3305 C2
3306 E8
3307 E9
3308 E9
3309 E11
3310 E8
3311 G7
3312 F12
3313 A7
3314 G7
3315 G8
3316 H9
3317 G9
3318 F8
3319 A7
3320 D2
3321 D2
3322 D12
3323 H5
3324 I4
3325 G5
3326 G5
3327 G5
3328 F8
3329 E1
3330 G9
3331 G3
3332 B7
3333 G3
3334 H4
3335 G6
3336 G5
3337 H5
3338 H6
3339 C3
3340 B9
3341 C9
3342 C9
3343 D12
3344 D10
3345 D8
3346 C8
3347 D8
3348 D9
3350 B10
3351 B9
3352 A9
3353 A11
3354 A11
3355 A7
3358 A12
3359 B9
3360 A7
3362 G10
3363 F2
3364 G11
3365 G11
3366 F9
3367 F9
3368 F12
3369 F12
3373 A8
3374 A8
3375 E12
3386 G12
3387 G1
3388 F11
3389 D10
3390 D9
3391 G12
3392 E10
3394 D8
3395 C3
3396 D2
3397 D2
3398 D2
3399 B12
3453 C2
3454 B1
3455 C1
3458 F2
3459 B12
3465 B9
3467 B8
3469 D11
3470 E11
3472 E10
4302 A3
4303 A3
4304 A3
4305 A4
4307 B9
4308 B4
4309 B4
4310 B4
4311 I9
4312 I9
4313 G13
4369 F13
5301 E2
5302 E2
5303 H10
5304 H2
5305 H2
5306 I2
5307 I2
5308 I2
5309 I2
6303 H8
6304 H9
6306 I5
6307 I5
6308 C2
6309 D11
6310 D10
6311 D12
6312 G7
6313 H8
6314 H9
6315 I6
6316 I6
6317 E12
6318 E11
6319 D8
6321 C8
6334 H4
7301 B3
7302 A1
7303 G8
7304 G2
7305 B8
7306 A9
7308 H6
7309 G10
7310 F12
7311 G11
7312 D10
7313 A11
7314 A10
7315 B11
7317 E10
7318 D9
7324 G6
7340 B12
7375 A8
C001 H12
1V/div DC
5ms/div
1V/div DC
10ms/div
1V/div DC
10ms/div
1V/div DC
5ms/div
1V/div DC
50us/div
1V/div DC
10us/div
1V/div DC
10us/div
1V/dic DC
10us/div
1V/div DC
10us/div
1V / div DC
0.2ms / div
1V / div DC
0.2ms / div
1V/div DC
10us/div
1V/div DC
10us/div
1V/div DC
10us/div
Page 25
Circuit Diagrams and PWB Layouts
www.sharatronica.com
25DPTV585 AA 7.

SSB: Audio Demodulator

6650
RES
4603
RES
1
2
46
51
52
50
47
36
35
39
38
42
41
45
44
7654-B
BC847BS
+8VA
4
3
7666-A
3639
RES
7651
MSP3451G
I2C_CL
I2C_DA
VREFTOP
ANA_IN-
ANA-IN2+
ANA_IN1+
MONO_IN
SCART 4
SC4-IN-R
SC4-IN-L
SCART 3
SC3-IN-R
SC3-IN-L
SCART 2
SC2_IN_R
SC2_IN_L
SCART 1
SC1_IN_R
SC1_IN_L
A
+8VA
3627
7667 RES
SELECT_AUDIO_LR
RES
5651
5652
RES
5
3624
6
1
3634
VREF119VREF2
27
A
A
100u
2610
100u
2666
2665
+8VA+8VA
RES
3625
RES
2696
*
3699
RES
2632
2
RES
RES
3630
RES
A
7
8
ADR-DA
ADR-WS
DEMODULATOR
NICAM
DECODER
AHVSS
ASG0
ASG1
ASG2
33
43
4037
3628
RES
RES
3554
3553
RES
RES
3555
2n2
RES
A
9
ADR-CL
IDENT
A/D
A/D
AVSS
48
2611
2634
1n
3533
1n
+5DA
+5DB
3540
10K
10K
2690
RES
100n
7674
BC847BW
2691
100n
+8V_AUD
62
ADR_SEL
FM1
FM2 NICAM A NICAM B
IDENT
SCART-L
SCART-R
TP1
DVSS
56
11
B2/B3-125
Y50
B2/B3-126
U50
B2/B3-127
V50
Y-PIP+MAIN-IN
U-PIP+MAIN-IN
V-PIP+MAIN-IN
PIP_AUD_IN
7668
BC857BW
MUTE_SSB
4689
6654
*
2591
I2S-WS
for MSP3410D only
for MSP3415D only
SCART
TESTEN
53
F675
4608
4607
*
*
3532
MCL4148
10u
2640
3644
3
I2S-CL
I2S INTERFACE
I2SL/R I2SL/R
DSP
Switching Facilities
AUD-CL-OUT
57
4609
*
AUDIO DEMODULATOR
A
B
C
D
E
F
G
H
I
J
B6
B1 B6
B5-147 RESET-AUDIO B1-113
B1-113 AUDIO-SW
SCL-F
B1-88 SDA-F
SNDR-SC3-IN
SNDL-SC3-IN
CVBS-AV3-IN
STATUS_SC3
HA50
VA50
B2-119 QSS_AM
PIP_AUDIO (n.c.)
PIP_AUD_IN
SNDR-SC3-IN
SNDL-SC3-IN
B1-106
R-FRONT-IN
B1-105
L-FRONT-IN
B1-98 R-SC2_AV2-IN
B1-95
L-SC2_AV2-IN
B1-100
R-SC1_AV1-IN
B1-94
L-SC1_AV1-IN
6u8 4606
5656
2592
+8VC
B1-89
5663 RES
3531
RES
2K7
*
3576
*
2570
5667
5668
2589
100p
100p
2588
**
4652
3692
3560
6K8
100R
1n
2562
3693
3562
100R
6K8
1n
2563
3654
3564
6K8
100R
1n
2564
3653
3567
6K8
100R
1n
2565
3688
3570
6K8
100R
1n
2566
3571
3689
100R
6K8
1n
25672568
3684
3572
6K8
100R
1n
3685
3574
6K8
100R
1n
2569
COMPONENTS WITH DIVERSITY
*
2695
1n
A
1n
2670
100n
100u
A
3577
100R
1680
1
2
3
4
5
6
*
2571
100p
1
2
3
TUNER SIM/CONNECTOR
3551
*
1K
2551
*
2506
330n
22K
3694
2659
2507
330n
22K
3695
2660
2661
330n
22K
3651
2663
2662
330n
22K
3652
2664
2504
330n
22K
3690
2552
2505
330n
22K
3691
2553
2502
330n
22K
3686
2503
330n
22K
3687
2555 2554
1681
+8VA
*
2653
330n
3n3
470p
470p
470p
470p
470p470p
470p
470p
N.C.
TO 1948
+5V
3656
100R 3655
100R
2654
2593
1n
2594
1n
2595
1n
C100
470p
2693
5654
+5V_AUD
220p
6651
2550
330p
100n
2697
*
A
A
8204 000 6507.3
SERVICE TIP: IN CASE SSB IS PLACED IN SSB-EXTENSION-PANEL 9965 000 05769, COAX-CABLE 1681 - 1948 IS TOO SHORT. A LONGER CABLE 3104 311 00351 CAN BE ORDERED.
2682
*
+5VF
2698
10u
3550
10u
A
3650
RES
4604
2681
100n
2651
100n
1K
3626
RES
+8VA
MUTE_CS
7666-B
4V7
4V8
2652
47p
2501
47p
3V7
3V7
3V7
3V7
3V7
3V7
3V7
3V7
7654-A RES
3552
RES
+5V2
RES
RES
MCL4148
+5DB
1K
220n
1R5
4690
RES RES
6
54
I2S-DA-IN112I2S-DA-IN2
I2S-DA-OUT1
LOUDSPEAKER R
LOUDSPEAKER L
HEADPHONE R
HEADPHONE L
SCART-R
SCART-L
NC159NC2
D-CTR-IO1
60
58
5657
4682
5658
4683
5659
4684
5660
4685
5661
4686
5662
4687
5666
3519
10K
4523
6656
6653
RES
4688
NC3
D-CTR-IO0
64
61
5V
+5DA
2556
**
2559
*
ANTI-POP CIRCUIT
+5V2
3523
100K
7675-A
BC847BS
2508
100u1n2609
5653
2678
8V
31
AHVSUP
D/A
D/A
D/A
HEADPHONE
D/A
D/A
D/A
AUDIO PLL
XTAL_IN55XTAL_OUT
AVSUP
54
49
100p
100p
2V2
2V4
1651
CX-5F
18M432
3p3
2667
2558
2557
100p
*
2561
100p
2560
*
*
RES
2514
6652
10u
2677
7V
6V9
30
32
CAPL-A
CAPL-M
LOUDSPEAKER
NC414NC515NC6
13
3p3
2668
100p
2587
100p
*
4520
4521
RES
15n
BZX284-C10
+8VC
10u
STANDBYQ
DVSUP
RESETQ
DACM-C
DACM-S
DACM-SUB
AGNDC
DACM_R
DACM_L
DACA-R
DACA-L
SC2-OUT-R
SC2-OUT-L
SC1_OUT_R
SC1_OUT_L
*
1
2
3
4
5
6
7
8
9
10
100p
1682
4522
63
10
16
22
24
23
34
20
21
17
18
25
26
28
29
3524
5V
0V2
0V2
3V7
3V8
3V8
3V8
TO 0205
+5V2
7675-B
100K
BC847BS
+5DB
5V
0V
0V
OF
C1
3642
100R 3643
100R
4632
4633
+3V3_FBX
+3V3_SIM
2686
3525
680K
2590
2679
2680
10u
+5V_AUD
1n
2512
2687
5664
5669
100p
100n
220n
1n
2513
A
A
2584
6657
PDZ-2.7B
6658
MCL4148
3526
1M5
10u
2645
330n
2694
5665
100n
3545 B12
3546 D11
3547 C13
3550 E3
3551 D2
3552 I4
3553 I5
3554 I5
3555 J5 3556 B14
3557 C13
3558 D14
3559 E13
3560 E1
3561 E13
3562 E1
3563 F13
3564 F1 3565 F12
3566 F12
3567 G1
3568 G14
3569 G14
3570 G1
3571 H1
3572 H1
3573 H14
3574 I1 3575 I14
3576 C1
3577 B2
3612 G13
3613 G13
3614 I14
3615 I14
3616 G14
3624 B5 3625 B5
3626 I4
3627 H4
3628 I5
3630 C5
3634 C5
3636 D11
3637 C11
3639 C4
3642 E9 3643 E9
3644 C7
3650 A4
3651 F2
3652 G2
3653 G2
3654 F2
3655 B3
3656 B3 3657 D11
3658 C11
3659 B13
3663 C13
3664 B13
3666 E10
3667 E10
3668 F10
3669 F11
3670 E11 3671 E11
3673 G12
3675 B12
3680 B13
3681 A11
3682 B12
3683 H13
3684 H2
3685 I2 3686 I2
3687 I2
3688 G2
3689 H2
3690 G2
3691 H2
3692 E2
3693 E2
3694 E2 3695 F2
3698 C11
3699 C5
4520 A8
4521 A8
4522 B9
4523 A7
4603 A4
4604 A4
4606 A1 4607 I6
4608 I6
4609 I6
4610 D13
4611 G11
4632 F9
4633 G9
4642 D13
4645 F13 4652 E1
4676 J12
4677 J12
4682 H7
4683 H7
4684 I7
4685 I7
4686 I7
4687 I7
4688 C7 4689 A6
4690 C7
5651 A5
5652 A5
5653 C7
5654 A3
5656 A1
5657 H7
5658 H7 5659 I7
5660 I7
5661 I7
5662 I7
5663 C1
5664 I9
5665 I10
5666 J7
5667 D1
5668 D1
5669 I9
6650 A4
6651 E3
6652 C8
6653 C7
6654 B6
6656 A7
6657 A10
6658 A10 7651 D4
7652 H12
7653 D13
7654-A H4
7654-B I4
7656-A B12
7656-B B12
7663-A B13
7663-B B14 7664-A C11
7664-B C11
7665-A E11
7665-B E11
7666-A C4
7666-B B4
7667 I5
7668 A6
7674 B6
7675-A A8 7675-B A9
7677 C14
7678-A E14
7678-B E14
7680 G13
C100 J3
RES
1651 H8
1680 B2
1681 C2
1682 H8
1683 I11
2501 E4
2502 H2
2503 I2
2504 G2
A
2505 H2
2506 E2
2507 E2
2508 C8
2509 C12
2510 D13
2511 E13
2512 B9
2513 B10 2514 B8
2546 G13
2547 G13
2548 H13
B
2549 I13
2550 E3
2551 E2
2552 G2
2553 H2
2554 I2 2555 I2
2556 I7
2557 I7
2558 I8
2559 J7
2560 J7
2561 J8
C
2562 E1
2563 F1 2564 F1
2565 G1
2566 G1
2567 H1
2568 I1
2569 I1
2570 C1
2571 C2
2572 C14
2573 C13 2574 D14
D
2575 E13
2576 F13
2577 F14
2578 F14
2579 F14
2580 G14
2581 G14
2582 I14 2583 I14
2584 J10
2585 J10
2586 J10
2587 J8
E
2588 D1
2589 D1
2590 J9
2591 B6
2592 B1 2593 I3
2594 I3
2595 J3
2609 C8
2610 A5
2611 A5
2629 B11
2632 C5
F
2634 C5 2637 A11
2640 B6
2643 C10
2644 D10
2645 E10
2646 C10
2649 E10
2651 E4
2652 E4 2653 D2
2654 E3
2659 E2
G
2660 F2
2661 F2
2662 G2
2663 F2
2664 G2
2665 A5
2666 A5 2667 H7
2668 H8
2670 A2
2673 B11
2674 A11
2677 C8
H
2678 C8
2679 E9
2680 E9 2681 E4
2682 E3
2686 F9
2687 G9
2690 B6
2691 C6
2693 A3
2694 F10
2695 A2
2696 B5
I
2697 I3
2698 I3
3519 A7
3520 C12
3521 E13
3522 F13
3523 A7
3524 A9
3525 A9 3526 A10
3527 B10
3528 C14
3529 E14
J
3530 E14
3531 C1
3532 B6
3533 B5
3540 A6
3544 B11
141110987654321 12 13
7677
RES
RES
3558
100R
2575
2576
3568
100R
3569
100R
3683
B6
4 7663-B RES 3
3556
RES
2574
R-CL_VL-OUT
7678-A
1n
BC847BS
SELECT_AUDIO_LR
7678-B
1n
BC847BS
2577
1n
HEADPHONE-R
2578
1n
HEADPHONE-L
2579
1n
R-SC1_AV-OUT
2580
10n
L-SC1_AV-OUT
2581
1n
3616
RES
RES
3573
RES
RES
2582
3575
RES
2583
E_15000_131.eps
14
AUDIO-C
RES
2572
AUDIO-SL
3528
RES
MUTE_SSB
AUDIO-C
B1-114
AUDIO-L
1n
F693
3529
1K
MUTE_SSB
B1-110
L-CL_VL-OUT
F694
1K3530
MUTE_SSB
B1-115
AUDIO-R
B1-108
B1-107
AUDIO-C
B6-149,B1-101
B1-97,B6-150
B5-145
SEL_IN_2
B1-99
R-SC2-OUT
3614
B1-96
L-SC2-OUT
RES
3615
191004
RES
+8VA
16
VCC
MUXDX
1y0
1y1
2y0
2y1
3y0
3y1
VEE
MUTE_CS
+8VA
RES
2
3680
RES
6 7663-A RES 1
5
3664
36593547
RES
RES
3663
RES
3557
RES
A
2573
7653
RES
G3
15
GND
8
A
A
*
4610
*
6
4642
A
14
11
10u
2510
3559
10
4
9
100R
3521
47K
3561
2511
100R
10u
*
47K
3522
4645
3563
100R
MUTE_CS
2637
RES
1n
2674
3527
100R
2629
RES
1n
2673
+8VA
1K2
3698
3658
150K
330n
2646
A
3637
100K
2643
330n
1n
2644
47K
3657
+8VA
150K
100K
2
1K2
3671
BC847BPN
6 7665-A BC847BPN 1
3666
330n2649
A
3667
5
6
2
7664-A BC847BPN
1
3636
220R
A
4 7665-B
5
3
3670
3681
3544
3546
1K2
RES
2
RES
+8VA
3545
6 7656-A RES 1
3675
A
4 7664-B BC847BPN 3
RES
RES
5
3682
1K2
3520
2509
RES
4 7656-B RES 3
10u
12
13
2
1
5
3
1K2
3565
100R
3566
7
1n
47K
3668
3669
220R
A
100R
2546
3612
RES
2547
RES
3613
RES
RES
RES
7680
2548
RES
2549
RES
2585
100n
2586
3673
+8VA
10K
8V
4611
7652
16
RES
6
VCC
G3
A
14
MUXDX
12
1y0
11
13
1y1
15
2
2y0
10
1
2y1
4
5
1683
*
1
2
3
N.C.
1n
9
3y0
3y1
VEE
GND
8
7
0V
A
A
4676
*
4677
*
1110987654321 12 13
Page 26

SSB: Painter

www.sharatronica.com
A
+5V2_CON
B
C
D
E
+5V_PA
F
G
H
8204 000 6507.3
3054
2013
RES
100u
BC857B
3070
1R5 3071
1R5
6003
PAINTER
T 315mA
2014
MCL4148
3015
470K
2027
7005 MC33269D
4
5
8
100n
3014
4K7
7009 MC33269D
4
5
8
100n
0012
IN
NC
GND-ADJ
2017
IN
NC
GND-ADJ
MECHPART
1003
7002
100n
3072
22R 3073
22R
1
1
Circuit Diagrams and PWB Layouts
OUT
3013
10K
3016
OUT
7003 BC847BW
2
3
6
2015
7
1K
2
3
6
2028
7
+3V3_INTPAINTER
PMBT2369
+3V3_PA
100n
100n
3017
7007
7004 BC847BW
2016
4K7
PMBT2369
10K
3011
100u
7006
RES
+3V3_INTPAINTER
RESET
10K
3008
4005
3009
47K
47K
3010
RES
4004
3057
47K
3056
47K
B1-93
B4-120
B1-117
B1-102
B4-146
B6-144
B1-118
B1-116
B2-122
VS
VSYNC
HS
HFB
B1: B6
C4 HSYNC
1V / div DC
20us / div
SOUND-ENABLE
ATT-SWITCH / BCL
STANDBY-INFO
STANDBY
KEYBOARD
SAM-SDM
FRONT-DETECT
A(14) RDN WRN
STANDBY-INFO
+3V3_INTPAINTER
A(7)
SEL_IN_1
P50_OUT
DEGAUSSING
3059
+3V3_INTPAINTER
P50_IN
A(6)
ON-OFF-LED
CVBS-TXT
P50_OUT
47K
3022
B4-142
7010
BC847BW
RES
B3-131
RES
RES
2022
220n
4006
3043
470R
4K7
C5 VSYNC
1V / div DC
10ms / div
4007
+3V3_INTPAINTER
3060
3042
10K
470R
3019
3044
470R
2031
100n
P50
RES
6001
1PS76SB10
RES
3023
220R
+3V3_INTPAINTER
2K7
3040
470R
3045
470R
C6
C6 C11
200mV/div DC
10us/div
2K2
3012
3039
470R
10n
2020
3041
470R
RES
3020
470R
3050
470R
+3V3_INTPAINTER
P50_IN
RES
BC847B
10K
3025
RES
6002
RES
3024
3049
470R
3V9
0V
0V
0V3 3V3
7008
1PS76SB10
RES
27K
+5V2_CON
3074
10K
3048
0V4
3V3
1V0
0V5
3V3
0V
2V8
3V3
3V3
0V3
0V3
200mV/div DC
3061
10K
470R
7001
SAA5667HL
0V4
1
P2.7|PWM6
2
P3.0|ADC0
3
0V
A17-LN
4
0V
P3.1|ADC1
5
P3.2|ADC2
6
P3.3|ADC3
7
A15-LN
8
0V
A14
9
RD_
10
WR_
11
VSSC1
12
VSSP1
13
P0.5
14
EA_
15
A7
16
P0.0|TX
17
P0.1|RX
18
P0.2|INT2
19
PSEN_
20
ALE
21
VPE1
22
P0.3|INT3
23
A6
24
P0.4|INT4
25
P3.7
26DPTV585 AA 7.
+3V3_INTPAINTER
250ns/div
CEN
0V
100
99
VSSC3
P2.0|TPWM
P0.628P0.7|T2
A427A5
26
3V3
3V3
A(4)
A(5)
100R
3076
2032
100R
3077
2033
WC_NVM
I/P SERiAL DATA
O/P SERIAL DATA
0V
0V
0V
0V4
95
96
97
98
P2.3|PWM2
P2.4|PWM3
P2.5|PWM4
P2.6|PWM5
Painter -
VSSA
CVBS031CVBS1
30
29
32
0V
1V
A(15)
2008
10p
10p
To Mapping D13
D(4)
D(5)
D(6)
D(7)
I/P CLOCK
I/P MODE SELECT
0V
0V3
0V3
0V3
0V4
0V4
0V4
93
94
92
P2.1|PWM0
P2.2|PWM1
Processor
SYNC-FILTER
IREF
A1237A13
A15-BK
34
35
36
33
38
0V
0V0V3V3
3V3
0V8
1V2
0V3
A(3)
A(13)
A(12)
24K
3018
100n
+3V3_INTPAINTER
D(0)
D(1)
D(2)
D(3)
0V
5V2
0V3
AD085AD186AD287AD388AD489AD590AD691AD7
VPE2
FRAME41G
A239A3
A1
40
3051
A(2)
A(1)
2005
PTV-FTV ONLY
4002
SDA-S
SDA-S
3028
5V2
5V2
83
84
P1.4|SCL1
P1.5|SDA1
P3.4|PWM7|T2EX
42
44
43
0V
470R
100n
3003
RES
3026
220R
5V2
P1.7|SDA0
VDDA
150R
SDA-F
SCL-S
5V2
5V2
81
82
P1.6|SCL0
B46CORB
45
3V30V0V
3004
4003
SCL-S
SDA-F
220R
3029
3V3
80
P1.3|T1
47
RES
220R
3027
0V4
3V3
78
79
P1.1|T0
P1.2|INT0
R
A0
48
49
0V
3005
150R
SCL-F
SCL-F
0V2
77
A16-LN
MVX-RD
RESET_
XTALOUT
OSCGND MVX-WR
ROMBK0 ROMBK1 ROMBK2
RAMBK0
RAMBK1
50
3V3
3030
4K7
3031
4K7
3032
4K7
3033
4K7
220R
76
3V2
P1.0|INT1
VDDP
RESET
XTALIN
A8
A9 A10 A11
VDDC
VSSC2
INTD_
VSSP2
P3.6
VSYNC
P3.5
HSYNC
VDS
150R
+5V2_CON
75 74 73 72 71 70 69 68 67 66 65 64 63 62 61 60 59 58 57 56 55 54 53 52 51
A(0)
3062
100R 3063
100R 3064
100R
NC
3V3 0V
0V 2V3
1V7
1V6
0V 0V
3V3
3V3
3V3
0V1
3V3
0V
2V3 0V
0V1
1V9
0V4
0V8 3V3 3V0 3V3 0V
0V
1002
B1/B4-92
SDA_NVM
2010
POR_FLASH
7013
PDTC144EU
22K
3021
1
10n
2003
2030
100n
47p
47p
2011
1102
+3V3_INTPAINTER
3
2
+3V3_INTPAINTER
100n
2004
3006
1K
47p
2012
2023
3
4
5
3065
3058
1001
2001
3007
3066
10p
6
10K
470R
2009
33p
1K5
100R
3067
SCL_NVM
470p
2002
33p
3034
470R
3068
100R
789
2026
10p
B1-121
3035
C11
100R
2024
RC
470R
C5
SEL_IN_2
C4
3069
10p
+5V2_CON
3052
10K
RESET
A(8)
A(9) A(10) A(11)
FBL-TXT
A(16)
R-TXT
G-TXT
B-TXT
100R
2025
13121110987654321
+3V3_INTPAINTER
824
VCC
CE_
A0
A1
A2
A3
A4
A5
A6
A7
A8
A9
A10
A11
A12
A13
A14
A15
A16
GND
925
3001
2007
100n
WE_
OE_
I|O7
I|O6
I|O5
I|O4
I|O3
I|O2
I|O1
I|O0
4K7
12
WRN
28
RDN
27
D(7)
26
D(5)
23
D(2)
22
D(0)
11
D(1)
10
D(3)
7
D(4)
6
D(6)
FROM mapping A8
SDA_NVM
WC_NVM
SCL_NVM
4K7
3002
6K8
3053
B6-145
VS
B4-137
HS
2006
100n
7011
CY7C1019V33
CEN
A(14)
A(7)
A(4)
A(13)
A(8)
A(9)
A(10)
A(11)
A(16)
A(0)
A(1)
A(2)
A(3)
A(12)
A(15)
A(5)
A(6)
5
1
2
3
4
13
14
15
16
17
18
19
20
21
29
30
31
32
NVM
4
VSS
WC_
B4-124
B4-135
B4-136
7012
SDA
5
M24C32
VCC
8
+3V3_INTPAINTER
SCL
7
6
E2
3
E1
2
E0
1
10p
E_15000_132.eps
191004
A
B
C
D
E
F
G
H
0012 H1
1001 C10
1002 H9
1003 B1
2001 D10
2002 D10
2003 B9
2004 D10
2005 G8
2006 B13
2007 B13
2008 G7
2009 B10
2010 G9
2011 G9
2012 G10
2013 B1
2014 B1
2015 B2
2016 B3
2017 D2
2020 C6
2022 G5
2023 G10
2024 G10
2025 G11
2026 H10
2027 F1
2028 F2
2030 C9
2031 F5
2032 G7
2033 H7
3001 G13
3002 G13
3003 G8
3004 G8
3005 G9
3006 E10
3007 F10
3008 G3
3009 H3
3010 H3
3011 G3
3012 C6
3013 C2
3014 C2
3015 D1
3016 D2
3017 C3
3018 F7
3019 D5
3020 D6
3021 B9
3022 G5
3023 G5
3024 G6
3025 G6
3026 B8
3027 B9
3028 B8
3029 B8
3030 B9
3031 B9
3032 B9
3033 B9
3034 E10
3035 B10
3039 C6
3040 D6
3041 D6
3042 D5
3043 E5
3044 E5
3045 F6
3048 C6
3049 B6
3050 E6
3051 F8
3052 B11
3053 B11
3054 B1
3056 G4
3057 G4
3058 B10
3059 E5
3060 C5
3061 A7
3062 F9
3063 G9
3064 G9
3065 B10
3066 G10
3067 G10
3068 G10
3069 G11
3070 E1
3071 F1
3072 E2
3073 E2
3074 B7
3076 G7
3077 H7
4002 A8
4003 A8
4004 G4
4005 H3
4006 C5
4007 C5
6001 G5
6002 G6
6003 B1
7001 C7
7002 C1
7003 D2
7004 D3
7005 B2
7006 G3
7007 H3
7008 G6
7009 E2
7010 G5
7011 B13
7012 F12
7013 B9
13121110987654321
Page 27

Layout SSB (Top Side)

www.sharatronica.com
Circuit Diagrams and PWB Layouts
27DPTV585 AA 7.
8204 000 6507.3
E_15000_133.eps
191004
Page 28
Circuit Diagrams and PWB Layouts
www.sharatronica.com
28DPTV585 AA 7.

Mapping Layout SSB (Top Side)

1000 C3 1303 A1 1403 C1 1408 B1 1651 B4 1680 B4 1681 B4 2003 A1 2005 A2 2006 A2 2007 A2 2009 A2 2013 A1 2016 A1 2027 A2 2028 A3 2301 B3 2305 B2 2314 B2 2315 B2 2316 B2 2317 B2 2318 B2 2322 B2 2324 C3 2327 B1 2329 B3 2330 B3 2331 B3 2332 B2 2333 C3 2334 B3 2336 B3 2339 B1 2340 B3 2344 A1 2345 A1 2346 A1 2347 A1 2348 A1 2349 B1 2350 C2 2351 C2 2352 C2 2353 C2 2355 B1 2356 B2 2357 B2 2358 B2 2359 B2 2360 B2 2361 B2 2362 B2 2363 B2 2364 B1 2365 C1 2367 C2 2368 C2 2373 C2 2376 B2 2377 B2 2379 B1 2380 B1 2381 B1 2382 B1 2383 B1 2387 B1 2388 C2 2389 C2 2391 C1 2393 C2 2394 B2 2395 B2 2396 B2 2397 B2 2398 B3 2401 B2 2404 B1 2405 B1 2406 B1 2407 B1 2408 B1 2409 B1 2410 B1 2411 B1 2412 B1 2413 C1 2417 B1 2425 C3 2427 A1
2428 B1 2429 B3 2508 B3 2514 C4 2546 C4 2547 C4 2548 C4 2549 C3 2562 B4 2563 B4 2564 C4 2565 C4 2566 C4 2567 C4 2568 C4 2569 C3 2570 B4 2571 B4 2572 C4 2573 C4 2574 C4 2575 C4 2576 C4 2577 C4 2578 C4 2579 C4 2580 C4 2581 C4 2582 C4 2583 C4 2588 B4 2589 B4 2590 C4 2591 B4 2592 C4 2593 B4 2594 C3 2609 C3 2665 B4 2666 B3 2667 B4 2668 B4 2670 B4 2677 B4 2678 C4 2680 B4 2682 B4 2687 B4 2693 C4 2695 C4 2697 B4 2698 B4 2702 A4 2704 B3 2708 B4 2713 A4 2729 B3 2733 A3 2738 A3 2743 A3 2757 A4 2758 A4 2765 A4 2767 A3 2771 A3 2772 A3 2773 A3 2776 A3 2785 A4 2790 A4 2796 A4 2797 A4 2912 C3 3021 A2 3026 A2 3027 A2 3028 A2 3029 A2 3033 A2 3058 A2 3061 A2 3065 A2 3070 A2 3071 A3 3072 A3 3073 A3 3301 C2 3302 B3 3304 B3 3306 C2
3317 C2 3318 B2 3320 B2 3321 B2 3322 C3 3329 C3 3330 B2 3332 B2 3335 B2 3336 C3 3340 C2 3341 C2 3342 C2 3343 C3 3344 B3 3345 C3 3346 C3 3347 C3 3348 C3 3349 B2 3353 C3 3361 B3 3363 B2 3370 C2 3371 C2 3372 C2 3373 B1 3374 B1 3375 B1 3376 B2 3377 B2 3379 B1 3381 B1 3387 B2 3388 C3 3389 B1 3390 C3 3393 B2 3394 B2 3395 B3 3396 B2 3397 B2 3398 B2 3399 C3 3400 C3 3402 B2 3404 C1 3406 B1 3409 B1 3411 B1 3412 B2 3416 C1 3418 B1 3423 C1 3433 B1 3436 C1 3437 B1 3439 C1 3442 C2 3443 C2 3444 C2 3447 C2 3448 C2 3449 C2 3460 B2 3461 B2 3462 B2 3472 C3 3519 C4 3520 C4 3523 C4 3524 C4 3525 C4 3526 B4 3527 B4 3528 C4 3529 C4 3530 C4 3531 B4 3552 C4 3553 B4 3554 B4 3555 C4 3560 B4 3562 B4 3576 B4 3612 C4 3613 C4 3614 C4 3615 C3
3616 C4 3626 B4 3627 B4 3628 B4 3642 B4 3643 B4 3655 B4 3656 B4 3673 C4 3683 C4 3702 A4 3703 A3 3704 A4 3705 A3 3706 A3 3714 B3 3716 B3 3717 B3 3728 A3 3733 A3 3739 A4 3755 A3 3757 A3 3759 A3 3790 A4 3791 A4 3792 A4 3797 A4 3900 C3 3901 C3 3902 C3 3903 C3 3904 C3 3905 C3 3906 C3 3907 C3 3908 C3 3909 C3 3910 C3 3911 C3 4002 A2 4003 A2 4007 A3 4520 C4 4521 C4 4522 C4 4523 C4 4606 B3 4607 B3 4608 B3 4609 B3 4611 C4 4632 B4 4633 B4 4642 C4 4645 B4 4677 B4 4682 B3 4683 B3 4684 B3 4685 B3 4686 B3 4687 B3 4688 C3 4689 C4 4723 A4 4726 A4 4731 A4 4732 A4 4733 A4 4734 A4 4791 A4 4792 A4 4793 A4 4901 C2 4902 C2 4903 C2 4904 C2 4905 C2 4906 C2 4907 C1 4908 C1 4909 C2 4919 C2 4920 C1 4921 C1 4925 C2 4927 C2 4928 C2 4929 C2
4935 C3 4937 C3 4938 C3 4939 C3 4944 C2 4945 C2 4946 C2 4947 C2 4948 C2 4949 C2 4950 C2 4951 C2 4952 C2 4953 C1 4954 C3 5301 B2 5302 B2 5303 A1 5304 A1 5305 A1 5306 A1 5309 A1 5310 A1 5311 B1 5403 B1 5405 B2 5406 C1 5411 B1 5416 C1 5653 C3 5656 B3 5663 B4 5667 B4 5668 B4 5702 B4 5703 A4 5707 B3 5711 A4 5713 A4 5715 A4 5716 A4 5717 A4 5798 A3 5902 C3 5903 C3 5904 C3 6301 C2 6309 B3 6310 C3 6311 C3 6316 C3 6319 B3 6320 A1 6321 A1 6322 A1 6404 B1 6652 B3 6653 C3 6656 C4 6657 C4 6658 B4 7009 A3 7011 A2 7013 A1 7304 B2 7320 C2 7323 C2 7340 C3 7361 B3 7362 B3 7402 C1 7404 B2 7405 B1 7408 C2 7409 C2 7411 C1 7413 B2 7652 B4 7653 B4 7654 B4 7667 B4 7668 C4 7675 C4 7677 C4 7678 C4 7680 C4 7704 A3 7709 A4 7714 A4 7715 A4
9302 B3 9303 B3 9304 B3 9305 B3 9322 C2 9408 C1 9412 C1 9414 C1 9416 B1 9417 C1 9419 C1
E_15000_133m.eps
191004

Mapping Layout SSB (Bottom Side)

1001 A4 1002 A4 1003 A4 1301 B3 1304 A4 1305 B3 1306 B4 1307 B4 1308 B3 1406 C4 1407 C4 1409 B4 1410 B4 1411 B3 1682 B1 1683 B1 1701 A2 2001 A4 2002 A4 2004 A4 2008 A3 2010 A3 2011 A3 2012 A3 2014 A4 2015 A4 2017 A4 2020 A3 2022 A3 2023 A4 2024 A4 2025 A4 2026 A4 2030 A4 2031 B3 2032 A4 2033 A4 2302 C3 2303 B3 2304 B3 2306 C3 2307 B3 2308 B3 2309 B3 2310 B3 2311 B3 2312 B3 2313 B3 2319 B3 2320 B3 2321 B3 2323 B3 2325 B3 2326 C3 2328 B2 2342 C2 2343 C2 2354 C3 2366 C4 2369 C3 2370 C2 2371 B3 2372 B3 2374 C3 2375 C3 2378 B4 2384 C4 2385 C3 2386 C2 2390 C4 2392 C3 2399 C4 2402 C4 2418 B3 2419 B3 2420 C3 2421 C3 2422 C4 2423 C3 2424 C3 2426 A4 2431 B3 2501 B1 2502 B1 2503 B1 2504 B1 2505 B1 2506 B1 2507 B1 2509 C1
2510 C1 2511 C1 2512 C1 2513 C1 2550 B1 2551 B2 2552 B1 2553 B1 2554 B1 2555 B1 2556 B1 2557 B1 2558 B1 2559 B1 2560 B1 2561 B1 2584 B1 2585 B1 2586 B1 2587 C1 2595 C1 2610 B1 2611 B1 2629 B1 2632 C1 2634 B1 2637 B1 2640 B1 2643 B1 2644 B1 2645 B1 2646 C1 2649 C1 2651 B1 2652 B1 2653 B2 2654 B1 2659 B1 2660 B1 2661 B1 2662 B1 2663 B1 2664 B1 2673 B1 2674 B1 2679 B1 2681 B1 2686 B1 2690 B1 2691 B1 2694 B1 2696 C1 2706 A1 2707 A1 2709 A2 2710 A2 2712 A1 2718 B2 2719 A2 2721 A2 2723 A2 2725 B2 2726 A2 2728 A1 2730 A2 2731 A1 2747 A2 2748 A2 2755 A1 2756 A2 2759 A1 2760 A1 2761 A1 2762 A1 2763 A1 2764 A1 2766 A2 2770 A1 2774 A1 2786 A1 2788 A1 2792 A1 2795 A1 2798 A2 2799 A2 2900 C2 2901 C2 2902 C2 2903 C2 2904 C2
2905 C2 2906 C2 2907 C2 2908 C3 2909 C2 2910 C2 2911 C2 3001 A3 3002 A3 3003 A3 3004 A3 3005 A3 3006 A3 3007 A3 3008 A4 3009 A2 3010 A2 3011 A4 3012 A3 3013 A4 3014 A4 3015 A4 3016 A4 3017 A4 3018 A3 3019 A3 3020 A3 3022 A3 3023 A3 3024 A3 3025 A3 3030 A3 3031 A3 3032 A3 3034 A3 3035 A3 3039 A3 3040 A3 3041 A3 3042 A3 3043 A3 3044 A3 3045 A3 3048 A3 3049 A3 3050 A3 3051 A3 3052 A3 3053 A3 3054 A4 3056 A4 3057 A4 3059 A3 3060 A3 3062 A3 3063 A3 3064 A3 3066 A4 3067 A4 3068 A4 3069 A4 3074 A3 3076 A4 3077 A4 3303 C3 3305 B2 3307 B3 3308 C3 3310 B3 3311 B3 3312 C3 3313 C3 3314 B3 3315 C3 3316 C3 3319 C3 3323 B3 3324 B3 3325 C2 3326 B3 3327 B3 3328 B3 3331 B3 3333 B3 3334 B3 3339 C2 3350 C2 3351 C2 3352 C2 3354 C2
3355 C2 3358 B2 3359 C2 3360 C2 3362 B3 3364 B3 3365 C3 3366 B3 3367 B3 3368 B2 3378 B3 3380 B3 3382 C4 3385 C4 3386 C2 3391 C3 3401 B4 3403 C4 3405 C3 3407 B4 3408 B3 3410 B4 3414 B3 3415 B3 3417 B4 3419 C4 3420 B3 3421 B4 3434 B4 3435 C4 3441 B3 3445 B4 3446 C3 3450 B3 3451 C4 3452 C3 3453 B2 3454 B2 3455 B2 3456 B3 3457 B3 3459 B2 3463 B3 3465 C2 3467 C2 3468 C3 3470 C2 3471 C2 3473 C4 3474 C4 3521 C1 3522 C1 3532 B1 3533 B1 3540 B1 3544 B1 3545 B1 3546 B1 3547 B1 3550 B1 3551 B2 3556 C1 3557 C1 3558 C1 3559 C1 3561 C1 3563 C1 3564 C1 3565 C1 3566 C1 3567 C1 3568 C1 3569 C1 3570 C1 3571 C1 3572 C1 3573 C1 3574 C2 3575 C1 3577 C1 3624 C1 3625 C1 3630 C1 3634 C1 3636 B1 3637 B1 3639 C1 3644 C2 3650 C2 3651 B1
3652 B1 3653 B1 3654 B1 3657 B1 3658 C1 3659 B1 3663 B1 3664 B1 3666 C1 3667 C1 3668 C1 3669 B1 3670 C1 3671 C1 3675 B1 3680 B1 3681 B1 3682 B1 3684 B1 3685 B1 3686 B1 3687 B1 3688 B1 3689 B1 3690 B1 3691 B1 3692 B1 3693 B1 3694 B1 3695 B1 3698 C1 3699 C1 3707 A2 3708 A1 3709 A2 3710 A2 3711 A2 3718 A2 3719 A2 3720 A2 3721 A1 3722 A1 3725 A2 3730 A2 3731 A2 3732 A2 3740 A2 3741 A1 3744 A2 3745 A1 3746 A1 3747 B2 3748 B2 3749 B2 3754 A1 3793 A1 3794 A1 3795 A1 3796 A1 3798 A1 4004 A4 4005 A4 4006 A4 4603 C2 4604 C2 4610 C1 4652 B2 4676 B1 4690 C2 4703 A2 4711 A2 4712 A2 4713 A2 4714 A2 4715 A2 4716 A2 4717 A2 4724 A1 4725 A1 4728 A1 4910 C3 4911 C3 4912 C3 4913 C3 4914 C3 4915 C3 4916 C4 4917 C4 4918 C3 4922 C3
4923 C4 4924 C4 4926 C3 4930 C3 4931 C3 4932 C3 4934 C2 4936 C2 4940 C2 4941 C2 4942 C2 4955 C2 4956 C3 4957 C3 4958 C3 4959 C3 4960 C3 4961 C3 4962 C3 4963 C3 4964 C3 4965 C4 4966 C2 5307 A4 5308 B4 5312 C3 5401 B3 5402 C4 5404 B4 5408 B4 5409 C3 5415 C4 5417 C4 5651 C2 5652 C2 5654 C1 5657 B1 5658 B1 5659 B1 5660 B1 5661 B1 5662 B1 5664 B1 5665 B1 5666 C1 5669 C1 5701 A1 5704 A2 5705 A2 5706 A1 5708 A2 5709 A2 5710 A2 5718 A2 5720 A1 5799 A2 5900 C3 5901 C2 6001 A3 6002 A3 6003 A4 6303 C3 6304 C3 6306 B3 6307 B3 6308 B2 6312 B3 6313 B3 6314 C3 6317 C3 6334 B3 6402 B4 6403 B4 6405 B4 6650 C2 6651 B1 6654 B1 7001 A3 7002 A4 7003 A4 7004 A4 7005 A4 7006 A4 7007 A4 7008 A3 7010 A3 7012 A3 7301 B2 7302 B2 7303 C3
7305 C2 7306 C2 7307 C3 7310 C3 7311 C2 7312 B3 7313 C2 7314 C2 7315 C2 7318 B3 7322 C4 7375 C2 7401 B4 7403 B4 7406 B4 7407 B4 7410 B3 7412 C3 7651 B1 7656 B1 7663 B1 7664 C1 7665 C1 7666 C1 7674 B1 7701 A1 7702 A2 7708 A1 7713 A1 7716 A2 9308 B3 9309 B3 9310 B3 9311 B3 9312 B3 9313 C2 9318 C3 9319 C3 9324 C3 9401 B4 9402 B4 9403 B4 9405 B4 9406 C4 9407 B3 9410 B3 9413 C4 9415 B4 9418 B4 9420 C4 9421 C2
E_15000_134m.eps
191004
Page 29
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout SSB (Bottom Side)

29DPTV585 AA 7.
8204 000 6507.3
E_15000_134.eps
191004
Page 30

SSM: Tuner

www.sharatronica.com
C1
C2,C3
A
C2
C2
C6
B
FRONT-DETECT
Y-CVBS-FRONT-IN
C-FRONT-IN
L-FRONT-IN
C
D
E
F
G
R-FRONT-IN
C6
C6,C1
C6,C1
1028 S3B-EH
GND
SCL_IN
SDA_IN
RES
1302
B2B-PH-K
TO SSM
C6
1301 B2B-PH-K
1 2
C6
+130V
+33V
3139 123 6060.1
Circuit Diagrams and PWB Layouts
30DPTV585 AA 7.
1234567891011
TUNER (SSM)
Y
AV1-Y_CVBS
AV2-Y_CVBS
FRONT-DETECT
AV1-C
C2
C2
C2
C2
C2
C2
C2
C2
C2
C2
+5V
5007
BZX284-C33
5u6
AV2-C
AV5-L
AV1-L
AV2-L
AV4-L
AV5-R
AV1-R
AV2-R
AV4-R
3015
3114
6034
15K
47R
2000
3016
3115
47R
2014
50V1u0
2018
1u0
50V
2022
50V1u0
2017
50V1u0
2021
1u0
50V
47R
9
BTLBTL
MT1
12
MT2
13
IF11IF
NC3
10
10u
2083
220u
RES
1335
B10B-EH-A
GND
GND
GND
GND
TO SIDE
INPUT
3 2 1
1 2
TUNER_B+
10
AGC
SCL_IN
SDA_IN
IF-TER
1 2 3 4 5 6 7 8 9
15K
3000
3011 100R
123
3109
22K
BAS216
6010
6011
BAS216
5
SDASDA
NC2
8
1n0
2092
470n
2094
470n
2088
100n
3120
1K2
3124
1K2
3128
1K2
3123
1K2
3129
1K2
1u0
25V
2078
100u
3
4
2
1
TUTU
SCLSCL
ADDADD
AGC
AGC
MT4
MT3
V-SUPPLYV-SUPPLY
NC1
6
2084
ENV56
7
+9V
2095
22u
50V
2016
1u0
2020
1u0
2015
2019
2023
1106
2087
100n
2089
100n
2091
470n
2093
470n
50V
50V
50V1u0
50V1u0
50V
15
14
RF-IN
7017 CXA2089S
TV5TV
4V1
V17V1
4V1
V214V2
4V1
V3V3
21
4V1
V4
V4
29
4V1
Y19Y1
Y216Y2
Y323Y3
C1
C1
11
4V6
C218C2
4V7
C325C3
4V7
LTV4LTV
3122
1K2
3126
1K2
3121
1K2
3125
1K2
3127
1K2
2085
47n
2013
S-1
S-2
1u0
C2
C2
4V7
4V7
4V7
4V7
4V7
4V7
4V7
4V7
4V7
4V7
0V
19
0V
26
0V
13
5V2
20
5V2
27
0-106451-1
3026
100R
TO
LIGHT SENSOR
0-106451-1
LV18LV1
LV215LV2
LV322LV3
LV428LV4
RTV6RTV
RV110RV1
RV217RV2
RV324RV3
RV430RV4
S2-112S2-1
S2-2S2-2
S2-3S2-3
S-1S-1
S-2S-2
S-3S-3
1002
1003
RES
1010
0-106451-1
TO
6dB
6dB
6dB
6dB
SWITCHES
6dB
6dB
BIAS
6dB
0dB
6dB
0dB
SWITCHES
6dB
6dB
LOGIC
GND
GND
2
1 2
KEYBD/
1 2
1 2
SIDE
9V4
VCC40VCC
VOUT146VOUT1
YIN1
YIN1
YOUT11YOUT1
TRAP148TRAP1
COUT13COUT1
CIN144CIN1
VOUT239VOUT2
YOUT237YOUT2
COUT235COUT2
BIAS43BIAS
LOUT145LOUT1
ROUT147ROUT1
LOUT2LOUT2
ROUT238ROUT2
DC-OUT34DC-OUT
SCL
SCL
SDA33SDA
ADR31ADR
MUTE
MUTE
C6
3V8
42
4V1
3V7
3V8
4V5
4V7
3V8
3V7
4V6
4V7
4V7
4V7
36
4V7
4V7
0V
32
3V4
3V2
0V
41
0V
C6
B4B-EH-A
1015
2025
1u0
123
RES
3022
4K7
3023
1K0
3024
4K7
2099
2u2
9014
2103
100n
4
9015
10R
3028
1016 B4B-EH-A
4 3 2 1
1344
3021
1K0
1K0
3175
123
B3B-EH-A
TO 1322 OF
1K0
3174
1V6
3177
4K7
3130
220R
9V2
3176
1V
7003
BC847B
4K7
0V
3118
470R
3131
220R
3116
9V4
2V1
10R
0V
470R
+9V
100n
7209
BC847B
1V5
100n
3030
1030
FROM 1030 OF
SIDE JACK PANEL
C6
C8
C6
C6
C8
C6
2086
9V2
7002
BC847B
3117
9025
03JQ-BT
+9V
10R
3027
470R
2090
0V
3119
470R
9024
123
GND
SCL-C
SDA-C
HOP PANEL
9V4
9026
9027
9023
9022
0V
10R
3029
7208 BC847B
9028
9029
JACK PANEL
4567891011
C6
C6
C-SC2_SVHS-IN
Y-CVBS-SC2_AV2-IN
9035
9036
4001
4002
+9V
+5V
TO 3D COMB
GND
GND
1
GND
GND
CVBS
2345678
Y-CVBS_FRONT-IN
C_FRONT-IN
SCL_IN
SDA_IN
INT_ATSC
9021
GND
C-OUT
Y-OUT
9
5 4 3 2 1
1 2 3 4
1 2 3 4
TO PIP
5 4 3 2 1
1 2 3 4 5 6 7 8 9
10
11
12
13
11
10
1303 B5B-PH-K
RES
1017 B4B-EH-A
RES
1018
B4B-EH-A
RES
1222 B5B-EH-A
12 13
1009 09JL-BT-E
09JL-BT-E
1008
CVBS
GND
C-OUT GND Y-OUT
Y-CVBS_TO-PIP
GND C_TO-PIP GND
GND SDA_1 GND SCL-1 GND +9V GND
+5V
TO 3D COMB
+5V
F_15120_005.eps
A
B
C6
C6
C
D
C6,C1
C6,C1
C6
E
OR
Uart Interface
F
G
020805
1002 E5 1003 F5 1008 A11 1009 F11 1010 G5 1015 F6 1016 C7 1017 B11 1018 C11 1028 E1 1030 F8 1106 F4 1222 D11 1301 G1 1302 F1 1303 A11 1335 B1 1344 F7 2000 G2 2013 F4 2014 C3 2015 C4 2016 C4 2017 C3 2018 C3 2019 D4 2020 C4 2021 D3 2022 C3 2023 D4 2025 A6 2078 D3 2083 G3 2084 G3 2085 F4 2086 A8 2087 B4 2088 B3 2089 B4 2090 C9 2091 A4 2092 A3 2093 A4 2094 A3 2095 A6 2099 B6 2103 A6 3000 G1 3011 G1 3015 E2 3016 E2 3021 A7 3022 A6 3023 B6 3024 B6 3026 F5 3027 A9 3028 A8 3029 C9 3030 C8 3109 D3 3114 E2 3115 E2 3116 B8 3117 B8 3118 D8 3119 D9 3120 C3 3121 C4 3122 C4 3123 C3 3124 C3 3125 D4 3126 C4 3127 D4 3128 C3 3129 D3 3130 E8 3131 E8 3174 D7 3175 D7 3176 B8 3177 B8 4001 B10 4002 B10 5007 E2 6010 D3 6011 E3 6034 G2 7002 B8 7003 A8 7017 A5 7208 D9 7209 D8
9014 D6 9015 D6 9021 F10 9022 E9 9023 E9 9024 E9 9025 E9 9026 E9 9027 E9 9028 E9 9029 E9 9035 A10 9036 A10
Page 31
Circuit Diagrams and PWB Layouts
www.sharatronica.com
31DPTV585 AA 7.

SSM: I/O’s

1234567891011
C2 C2
A
B
C
D
E
AV2 IN
F
G
I/O (SSM)
1024-11
L
D2
YKC21-2921
1024-10
YKC21-2921
AV1
R
D1
1024-12
YKC21-2921
V
D3
2
3
8
1024-2
YKC21-2921
L
A2
1024-1
YKC21-2921
R
A1
1024-3 YKC21-2921
V
A3
1029 YKC21-3416
7
2
3
8
7
AV1 IN
AV2
20
23
19
22
21
24
YKF51-5347
2
5
1
4
3
6
YKF51-5347
3
2
1
1025
1026
3045
100R
3046
100R
330p
75R
330p
3105
2062
3103
2066
75R
6030
47K
3003
3048
100R
330p
47K
3005
3052
100R
BZX284-C6V8
330p
3047
100R
22p
2076
330p
22p
47K
3002
4018
75R
116
116
47K
3104
330p
3102
3004
75R
6031
BZX284-C6V8
94
105
1
3049
100R
3050
100R
4017
94
105
1
2077
3073
150R
3139 123 6060.1
2063
2068
2067
3051
100R
2071
SUB_WOOF
C8
S-2
100n
C1
+Vp
2102
+Vp
3142
1R0
6018
6021
BAV99
BAV99
22p
AV2-L
AV2-R
22p
2069
2072
2104
R-CL_VL-OUT L-CL_VL-OUT
AV4-R
AV4-L
B5B-EH-A
100n
6024
0V
47K
3006
6032
BZX284-C6V8
6037
BZX284-C6V8
47K
3007
BAV99
22p
2075
0V
C1
C1
C1
C1
C1
C1
C1
C1
C1
B4B-EH-A
1207
CVBS-SC2_MON-OUT
C6
C6
C6
TO P1208
(AUDIO IN)
C1
C1
TO P1219
(AUDIO OUT)
C1
C1
9011
9012
9013
Y
C1,C3
L-CL_VL-OUT
R-CL_VL-OUT
AV4-R
AV4-L
1 2 3
AV5-R
4
5
GND
1 2 3
B3B-PH-K
1 2 3 4
B4B-PH-K
1011 B3B-EH-A
AV5-L
123
GND
3145
1K0
1013
1012
1031
AV1-L
+9V
AV1-R
+Vp
AV1-Y_CVBS
AV1-C
BAV99
6020
S-1
+Vp
6023
Pr
Pb
BAV99
AV2-Y_CVBS
AV2-C
4
Pr
GND
123
Y
Pb
RES RES
C3
C3
7016
BC847B
2079
2080
0V
1K0
3144
10R
3146
3008
330p
BZX284-C6V8
6016
BZX284-C6V8
6038
3009
330p
3057
100R
75R
47K
47K
3106
2081
2082
+Vp
+9V
330p
330p
3101
150R
6026
BZX284-C6V8
6022
BZX284-C6V8
6017
BZX284-C6V8
6012
BZX284-C6V8
BAV996028
22p
2074
22p
BZX284-C6V8
BZX284-C6V8
BZX284-C6V8
BZX284-C6V8
3058
100R
6014
BAV99
6027
6025
6019
6013
75R
2070
3107
3012
100R
3013
100R
3055
100R
3056
100R
+Vp
3053
100R
3054
100R
22p
8
11
3100
68R
3072
150R
BAV996029
3059
100R
75R
2073
3108
7
10
9
12
1
2
3
JPJ9811-01-320
1
4
5
2
3
15
18
14
17
13
16
1234567891011
1024-5
YKC21-2921
B2
1024-4
YKC21-2921
B1
1024-6
YKC21-2921
B3
1021
1027
JPJ9822-01-320
1024-9
YKC21-2921
C3
1024-8
YKC21-2921
C2
1024-7
YKC21-2921
C1
F_15120_006.eps
A
L
R
AV OUT
B
V
C
AV4
D
AV5 AUDIO IN
E
Y
Pb
AV1
F
Pr
G
020805
1011 D6 1012 C7 1013 B7 1021 C11 1024-1 D1 1024-10 A1 1024-11 A1 1024-12 B1 1024-2 C1 1024-3 D1 1024-4 B11 1024-5 A11 1024-6 B11 1024-7 F11 1024-8 F11 1024-9 E11 1025 B2 1026 E2 1027 D11 1029 G1 1031 G7 1207 G6 2062 A3 2063 A3 2066 D3 2067 D3 2068 B3 2069 B4 2070 B9 2071 E3 2072 E4 2073 G10 2074 G9 2075 G7 2076 C3 2077 F2 2079 C7 2080 E7 2081 C8 2082 E8 2102 A4 2104 A7 3002 A2 3003 A3 3004 D3 3005 D3 3006 C7 3007 E7 3008 C8 3009 E8 3012 D10 3013 D10 3045 A2 3046 A2 3047 B3 3048 B3 3049 D2 3050 D2 3051 E3 3052 E3 3053 C10 3054 C10 3055 D10 3056 E10 3057 F8 3058 F9 3059 F10 3072 B10 3073 G2 3100 B10 3101 B9 3102 B2 3103 B3 3104 E2 3105 E3 3106 G8 3107 G9 3108 G10 3142 A4 3144 A8 3145 A7 3146 A8 4017 E2 4018 B2 6012 E9 6013 E9 6014 A9 6016 D8 6017 E9 6018 C4
6019 E9 6020 C5 6021 E4 6022 C9 6023 E5 6024 F7 6025 C9 6026 C9 6027 C9 6028 F8 6029 F10 6030 G3 6031 G3 6032 D7 6037 D7 6038 D8 7016 A7 9011 E6 9012 F6 9013 F6
Page 32
Circuit Diagrams and PWB Layouts
www.sharatronica.com
32DPTV585 AA 7.

SSM: Video Buffer

12345678910
C3 C3
A
B
C
D
E
F
G
3139 123 6060.1
VIDEO BUFFER (SSM)
68K
3852
V-SSB
C6
U-SSB
C6
Y-SSB
C6
2811
2u2
2809
2u2
2807
2u2
3841
100R
3831
100R
3851
100R
3842
3843
3832
3833
3853
4V2
7V2
68K
68K
68K
68K
3V
2V3
39K
3854
7V2
7808 BC847B
3V9
3855
7V2
7810 BC847B
3V7
3845
3834
9V5
7806 BC847B
3835 3844
680R
680R
680R
680R
10R
680R
7807
3856
680R
3846
680R
3836
100R
3857
7V8
BC857B 7809
5V1
22K
3847
BC857B 7811
4V5
22K
3837
680R
0V
BC857B
7807
1V8
3838
330R
3135_037_11211_01Ref Des basic
NOT USED3837
NOT USED
7V8
680R
3858
680R
3848
6801
25V470u
100n
2814
2813
BZX384-C9V1
3135_037_11241_01 core
NOT USED
NOT USED
NOT USED NOT USED
3809
330R
V-SSB-N
U-SSB-N
+15V
Y-SSB-N
3135_037_12281_01 999
NOT USED3835
NOT USED
C8
C8
C8
C6
R_OSD
C6
C6
G_OSD
C6
C6
B_OSD
C6
C6
FBLTXT
C6
FRAMEDRIVE-
C6
RESERVED not used
319802156810NOT USED
680R 319801106810
680R 319801042150
BC857B
RTXT
GTXT
BTXT
FBL
3304
10R
3305
10R
3313
10R
3314
10R
3321
10R
3322
10R
3329
10R
3330
10R
4005
REDTXT
GRNTXT
BLUTXT
TXTFBL
VFB
+9V
3802
2801
Y
C2
C8
2u2
C8
Pb
C2
C8
C8
Pr
C2
C6
2803
2u2
2805
2u2
3801
10R
3811
10R
3821
10R
3803
+9V
3812
0V
3813
+9V
3822
0V
3823
+9V
1K0
3804
100K
7800
0V
BC847B
3806
0V
180R
27K
3805
150R
+9V
1K0
3814
100K
0V
7802 BC847B
3816
0V
470R
39K
3815
270R
+9V
1K0
3824
100K
0V
7804 BC847B
3826
100R
330R
39K
0V
3825
+9V
1K0
3807
0V
BC857B
0V
7801
0V
1K0
3808
+9V
1K0
3817
0V
BC857B 7803
0V
1K0
3818
+9V
1K0
3827
0V
BC857B 7805
0V
1K0
3828
G-SC1-IN_Y-IN
B-SC1-IN_U-IN
R-SC1-IN_V-IN
F_15120_007.eps
C6
C6
C6
020805
A
B
C
D
E
F
G
2801 B8 2803 D8 2805 F8 2807 F1 2809 D1 2811 B1 2813 E4 2814 E4 3304 A6 3305 B6 3313 B6 3314 C6 3321 D6 3322 D6 3329 E6 3330 F6 3801 B8 3802 A9 3803 B9 3804 A9 3805 B9 3806 B9 3807 A10 3808 B10 3809 E4 3811 D8 3812 C9 3813 D9 3814 C9 3815 D9 3816 D9 3817 C10 3818 D10 3821 F8 3822 E9 3823 F9 3824 E9 3825 F9 3826 F9 3827 E10 3828 F10 3831 F2 3832 E2 3833 F2 3834 E2 3835 F2 3836 F3 3837 E3 3838 F3 3841 D2 3842 C2 3843 D2 3844 C2 3845 D2 3846 D3 3847 C3 3848 D3 3851 B2 3852 A2 3853 B2 3854 A2 3855 B2 3856 B3 3857 A3 3858 B3 4005 F6 6801 E3 7800 B9 7801 A10 7802 D9 7803 D10 7804 F9 7805 F10 7806 F2 7807 F3 7808 B2 7809 A3 7810 D2 7811 D3
12345678910
Page 33
Circuit Diagrams and PWB Layouts
www.sharatronica.com
33DPTV585 AA 7.

SSM: Convergence HV Output 1

1234567891011
C4 C4
CONVEGENCE HV OUTPUT 1 (SSM)
C6
BV
C6
C6
RV
GV
A
B
C
D
E
F
G
VccPSW-H
C6
C6
C6
+35V
-35V
35V6
100u
2008
-22V
VCC
GNDGND
9044
GND-C
35V6
10
3
-36V8
9
11
7044
STK392-120
18
1
2
GND-C
9045
-35V
100u
2028
0045 HEATSINK
GND-C
BH
GH
RH
150p
2060
2057
2056
150p
150p
GND-C
GND-C
GND-C
3K3
3K3
GND-C
3034
2043
3091
BC817-25
3K3
GND-C
-37V7
3167
4K7
7007
3090
-36V7
-37V7
100n
GND-C
3092
GND-C
22K
10u
GND-C
2032
2133
GND-C GND-C
GND-C
100u
100u
35V6
0V
0V
0V
0V
0V
0V
-37V9
-22V8
2037
2030
GND-C
5
6
7
8
14
13
12
15
16
17
4
100n
GND-C
100u
PRE_POS
CH1_IN_POS
CH1_IN_NEG
CH1_NEG
CH2_IN_POS
CH2_IN_POS
CH2_NEG
CH3_IN_POS
CH3_IN_NEG
CH3_NEG
PRE_NEG
2132
100n
GND-C
MUTING
CH1_OUT
CH2_OUT
CH3_OUT
SUB_GND
2134
2131
100n
GND-C
3K3
2026
150p
3147
3K3
150p
2096
3099
GND-C
GND-C
GND-C
100R
6R8
3161
2107
100R
150p
GND-C
150p
GND-C
3094
2061
GND-C
3K3
3K3
GND-C
3152
3148
6R8
3151
GND-C
7005
-37V6
BC817-25
-37V6
-37V7
4K7
22K
3169
3033
10u
2042
2038
100u
0V
GND-C
GND-C
0V
0V
0V
150p
2109
GND-C
GND-C
3095
3K3
9009
9010
2130
GND-C
100n
3154
GND-C
6R8
GND-C
3162
3153
0V
0V
-37V8
-37V9
-38V
6R8
PRE_POS
5
3155
GND-C
3158
GND-C
6R8
GND-C
6R8
3156
MUTING
CH1_OUT
CH2_OUT
CH3_OUT
SUB_GND
6R8
CH1_IN_POS
6
CH1_IN_NEG
7
CH1_NEG
8
CH2_IN_POS
14
0V
CH2_IN_POS
0V
13
CH2_NEG
12
CH3_IN_POS
0V
15
CH3_IN_NEG
0V
16
CH3_NEG
17
PRE_NEG
4
3K3
150p
2113
2111
150p
3096
3K3
3097
3157
GND-C
6R8
VCC
GNDGND
2105
35V6
10
-36V8
3
0V
9
7045 STK392-120
0V
11
18
0V
1
0V
2
GND-C
3093
150p
3K3
3164
3166
3150
GND-C
100R
3163
6R8
100R
GND-C
100R
3149
6R8
3160
3165
100R
3098
3K3
2115
150p
6R8
3159
RV-OUT RV-RET
RH-OUT RH-RET
GV-OUT GV-RET GH-OUT GH-RET
BV-OUT BV-RET BH-OUT BH-RET
VccPSW-V
GND-C
6R8
RV_OUT
VccNSW-V
B4P-VH
RH_OUT
GV_OUT
GH_OUT
BV_OUT
BH_OUT
1005
1006
B4P-VH
1007
B4P-VH
1 2 3 4
1 2 3 4
1 2 3 4
C5
TO RED YOKE
C5
C5
C5
C5
TO BLUE YOKE TO GREEN YOKE
C5
A
B
C
D
E
F
G
0045 B2 1005 D11 1006 E11 1007 F11 2008 A5 2026 B6 2028 B3 2030 C3 2032 G3 2037 G3 2038 D5 2042 D5 2043 G2 2056 E2 2057 E2 2060 E2 2061 C7 2096 B6 2105 G9 2107 F6 2109 F5 2111 E8 2113 E7 2115 C10 2130 D6 2131 A5 2132 G3 2133 G3 2134 G4 3033 C5 3034 G2 3090 E2 3091 E2 3092 E1 3093 G9 3094 F7 3095 F5 3096 F8 3097 E8 3098 B10 3099 B7 3147 B6 3148 C7 3149 G9 3150 G9 3151 F7 3152 F7 3153 F6 3154 F6 3155 E8 3156 E8 3157 F8 3158 F8 3159 B10 3160 B10 3161 E6 3162 E6 3163 F9 3164 E9 3165 B10 3166 G9 3167 F2 3169 C5 7005 C5 7007 F2 7044 E5 7045 B9 9009 F6 9010 F6 9044 F4 9045 F5
H
3139 123 6060.1
Ref Des 3135_037_11211_01
basic core 9009 9010
3135_037_11241_01
NOT USEDNOT USED
3135_037_12281_01 999
NOT USED 319803690010 NOT USEDNOT USED 319803690010NOT USED
RESERVED not used
F_15120_008.eps
020805
H
1234567891011
Page 34
Circuit Diagrams and PWB Layouts
www.sharatronica.com
34DPTV585 AA 7.

SSM: Convergence HV Output 2

12345678910
C5 C5
CONVERGENCE HV OUTPUT 2 (SSM)
C4 C4 C4
BV_OUT
GV_OUT
RV_OUT
A
+22V
+35V
VccPSW-H
8K2
B
C
D
E
F
G
3139 123 6060.1
8K2
100K
GND-C
3134
100R
2044
330p
6035
BAS216
3078
7024
PMBT2369
0V
6039
BAS216
6050
BAS216
6051
BAS216
3K3
3067
0V
220K
3110
8K2
3135
8K2
3136
8K2
3137
3168
0V
7023 PMBT2369
0V
100R
4K7
3133
0V
2K7
3K3
3190
3194
0V
7004 BC847B
0V
2153
GND-C
10K
680R
6033
GND-C
BH_OUT
GH_OUT
RH_OUT
3191
470R
35V6
7009 BC817-25
0V
7008 BC807-25
0V
3195
470R
100u
3112
3132
BZX284-C6V8
C4
C4
C4
2150
GND-C
1n0
GND-C
3192
6R8
100u
BYD33D
6007
2154
7021
IRF9Z24N
1
2152
1n0
10R
1n0
GND-C
3081
2047
3
35V7
2
35V6
GND-C
3193
10R
33K
9042
3085
123456
3042
8K2
3044
BAS216
6046
BAS216
6047
BAS216
-22V
3035
6045
BAS216
6042
BAS216
6041
BAS216
6040
100K
GND-C
GND-C
3020
3031
3037
100R 2040
330p
100K
BAS216
470u
GND-C
2035
330p
3038
100R
6048
0V
-37V9
1n0
GND-C
1
0V
2157
1n0
BYD33D
6006
2160
1n0
100n
GND-C
2156
7020
IRF9Z24N
9041
2161
33K
GND-C
3
35V6
35V6
2
3201
10R
3084
33K
GND-C
10R
1n0
GND-C
BYD33D
6008
3086
9040
10R
2052
GND-C
3082
2050
3083
1n0
2K7
3196
0V
7019 BC847B
0V
10K
680R
6044
GND-C
3079
3K3
3199
3170
BZX284-C6V8
0V
2K7
3041
0V
0V
3077
7012 BC817-25
7013 BC807-25
0V
470R
470u
GND-C
470R
0V
3065
3061
6R8
4K7
3043
220K
0V
3062
3K3
220K
1n0
GND-C
0V
7001 BF550
0V
3019
2055
7015
PMBT2369
0V
3032
3K3
3060
7006 BF550
0V
4K7
0V
6043
BAS216
0V
2059
100R
BC857B
3036
100R
6049
GND-C
7014
3080
0V
7018
PMBT2369
3063
BZX284-C6V8
0V
0V
3K3
3074
680R
10K
3064
3066
2058
3197
0V
7010 BC817-25
0V
7011 BC807-25
0V
3200
1n0
GND-C
STP16NE06
0V
470R
3198
6R8
470R
2159
3202
10R
7022
78910
VccPSW-V
-22VR
VccNSW-V
-35V
F_15120_009.eps
020805
A
B
C
D
E
F
G
2035 B6 2040 E5 2044 F1 2047 D3 2050 D10 2052 F10 2055 G6 2058 D8 2059 G6 2150 B3 2152 C3 2153 D2 2154 D3 2156 B9 2157 C9 2159 D8 2160 E9 2161 F9 3019 F6 3020 E5 3031 D5 3032 C6 3035 B5 3036 F6 3037 E5 3038 C6 3041 G8 3042 B5 3043 B6 3044 B5 3060 D6 3061 F8 3062 D6 3063 C7 3064 E7 3065 G8 3066 F7 3067 F1 3074 F7 3077 E8 3078 F1 3079 B7 3080 B7 3081 D3 3082 D10 3083 E10 3084 D9 3085 B4 3086 E10 3110 D1 3112 D2 3132 F2 3133 F2 3134 E1 3135 G2 3136 G2 3137 G2 3168 D2 3170 C7 3190 B2 3191 B3 3192 B3 3193 C4 3194 D2 3195 C3 3196 B8 3197 B8 3198 B9 3199 B8 3200 C8 3201 C9 3202 E9 6006 C9 6007 C3 6008 E10 6033 F2 6035 F1 6039 G1 6040 C5 6041 C5 6042 B5 6043 C6 6044 D7 6045 D5 6046 E5 6047 E5 6048 D6 6049 E6 6050 G1 6051 G1 7001 E6
7004 E2 7006 E6 7008 C3 7009 B3 7010 B8 7011 C8 7012 E8 7013 F8 7014 E6 7015 C6 7018 B7 7019 B7 7020 B9 7021 B3 7022 F9 7023 E2 7024 E1 9040 B10 9041 F9 9042 B4
Page 35

SSM: Interconnections

www.sharatronica.com
C6
A
A
TO SSB
B
B
CVBS-PIP_ TUN1-2-CVBS-IN
CVBS_TER_OUT
C
C
D
D
E
E
F
F
STATUS_1_PIP-AFT_50-60HZ
G
G
H
H
3139 123 6060.1
INTERCONNECTIONS (SSM)
1043
10FMN-BTRK-A
10
GND
9
TXD
8
GND
7
RXD
6
GND
5
RTXT
4
GTXT
3
BTXT
2
GND
1
FBLTXT
1272
B3B-EH-A
1
GND
2 3
TO PIP
9017
+5V
1u0
2024
2K2
3001
3014
+8V
1201
B10B-EH-A
1
SDA_IN
2
SCL_IN
GND
3 4 5 6
HFB_PIP
+5V
7 8
TO PIP
RES
+8V
9
+33VT2
GND
10
1681
B3B-PH-K
3
VFB_PEMG
2 1
HFB_PEMG
1234567
1234
1K03018
+5V
TXD
RXD
RTXT GTXT BTXT
FBLTXT
4010
BAS216
47K
I
2045 1n0
6009
BYD33D
+9V
Circuit Diagrams and PWB Layouts
231
5009
15u
1200
TPSRD
4M5
2034
47n
6-H10
5005
2029
O
+3.3V
+8V
C7 C1
C1
C8 C2
C7
2012
O
3
+5V-PIP
100R
1u0
TUNER_B+
820R
560R
3070
C3 C3
C1
CVBS-SC2_MON-OUT
C2
C1 C1
C3 C3
C3
SOUND_ENABLE
L-SC2_AV2-IN
Y-CVBS_FRONT-IN
HEADPHONE_L
L-CL_VL-OUT
3025
10u
2002
1-I1
3069
2031
120p
4015
3017
330R
B-SC1-IN_U-IN R-SC1-IN_V-IN
C-SC2_SVHS-IN
FRAMEDRIVE-
9019
9007
9016
AUDIO-L
+5V_STBY
6004
1
2
5008
C6
C6
C3 C3 C3
C3
I
GND
100n
5006
3068
330R
0V
1u0
10p
2048
5010
330R
3039
ROW_A
1 3 5 7 9
IF-TER
AGC
V-SSB Y-SSB
8-F11,7-A10,7-A11,6-E7,6-E11
11 13 15 17 19
21 23 25 27 29 31 33 35 37 39 41 43
45 47 49
51
53
55
57
59
61
63
65
67
69
71
73
75
77
79
12345
GND
+5V_STBY
KEYBOARD
TO FRONT CONTROLS
35DPTV585 AA 7.
4567891011
4567891011312
7025 BC847B
0V
1020-A
81 82
87613-8001
87613-8001
ON-OFF-LED
2046
3010
180R
ROW_B 1020-B
82
6
68p
7
RC5
0V
81
2 4 6
8 10 12 14 16 18
20 22
24 26
28 30 32 34 36 38 40 42 44 46
48 50
52 54 56 58 60 62 64 66 68 70 72 74 76 78
80
B7B-EH-A
1014
TO ACS CONTROL
GND
GND
B_OSD
G_OSD
FBL
8V5
7026 BC847B
2V3
3182
3071
1K0
10K
3111 470R
4004
4007
4008 4009
9020
C1,C6
SDA-C
SDA-C
C3
C3
C3
C3
C1,C6
C1,C6
C6
C6
GND
C1,C6
SCL-C
SCL-C
15JL-BT-E
1000
1-A11
C3
C1
Y-CVBS-SC2_AV2-IN
9018 4006
C1
C1
SCL_IN
SDA_IN
56789
101112
GND
GND
GND
SCL_IN
SDA_IN
19
15
17
16
18
FBL
B_OSD
G_OSD
R_OSD
SDA-C
SCL-C
RXD
TXD
3183
15K
G-SC1-IN_Y-IN
U-SSB H-SSB VSYNC-SSB
HBLANK
STANDBY IRQ +5V_STBY
+3.3V
PWR_FAIL
L-SC1_AV1-IN
R-SC2_AV2-IN R-SC1_AV1-IN FRONT-DETECT C_FRONT-IN
HEADPHONE_R R-CL_VL-OUT
AUDIO_SW AUDIO-R
INT_ATSC
C3,C6
IRQ
VFB
1
234
VFB
RC5
GND
GND
1011121314
C8,C7,C6
B12B-EH-A
1033
+5V
+15V
GND
GND
R_OSD
C3 C8 C8
C6
C7 C1
C1 C1 C1 C1
C8 C2
C8 C7
C1
4V9
H-HOP
SDA-C
56789
2054
SCL-C
2027
+5V
GND
IN
1u0
TXD
RXD
1
234
GND-C
9030
9031
6003
S1D
15V6
IN OUT
OUTIN
COM
7103
GND
1u0
L7812CV
0103 HEATSINK
-22V9
100n
2001
6015
S1D
7104
LF33CV
OUT
OUTIN
COM
GND
TO MMI
567
L7912CV
IN OUT
+3.3V
0V
100n
S1D
6001
7101
COM
2053
+12V
11V8
2005
OUTIN
GND
0104 HEATSINK
TO WB/HOP
+5V
GND
SCL-2
-12V
HOP
+12V 9
12
13
10
11
6-F10
HOP
-12V
-22VR
10u
5011
-22V9
100n
100u
-12V1
1u0
8 9 10 11
8
H-HOP
GND
SDA-2
1
2345678
9033
9032
8-C10
S1D
6002
7102
L7908CV
OUTIN
IN
COM
GND
2007
0102 HEATSINK
-12V
100n
2003
2010
0101 HEATSINK
+8V
L7805CV
IN
8V5 5V
1u0
2097
6005
S1D
7105
COM
-8V2
OUT
09JL-BT-E
1950
100n
1u0
OUTIN
GND
+5V
2006
2011
OUT
C1,C6
SCL_IN
100n
100n
C1,C6
SDA_IN
2004
+15V
+5V-PIP
2098
+9V
5000
10u
10u
C3,C6
VFB
0105 HEATSINK
2041
GND-C
C4 C4 C4 C4 C4 C4
2039
C6
STANDBY
+5V_STBY
6036
BZX384-C4V7
PWR_FAIL
100n
2033
-35V
-22VR
-22V
+22V
+35V
+V_AUDIO
-V_AUDIO
10u
+130V
5001
2049
+33V
10u
100n
2036
GND-C
GH
HBLANK
RV RH GV
BV BH
5002
10u
100n
5004
10u
5003
10u
GND-C
91011
GND-C
B12B-EH-A
1001
15JL-BT-E
16 17 18
1518
B12B-EH-A
1516
1 2 3 4 5 6 7 8 9 10 11 12
C6
GND
1
+9V
2 3
GND
-8V
4 5
STANDBY
6
VFB
7
HBLANK
8
DEF_GND
9
RV RH
10
GV
11
GH
12
BV
13 14
BH
15
GND
19
HBLANK
1 2
DEF_GND
3
VFB
4
GND
5
+33V STANDBY
6
+5V_STBY
7
+130V
8
GND
9 10
PWR_FAIL
11
GND +15V
12
-35V
-22V
-22V GND-C GND-C
+22V +22V
+35V
GNDVFB_PIP +V_AUDIO
-V_AUDIO GND
F_15120_010.eps
TO LARGE SIGNAL
020805
A
A
B
B
TO ACS CONTROL
C
C
D
D
TO LARGE SIGNAL
E
E
F
F
G
G
H
H
0101 E8
0101 E8 0102 D8
0102 D8 0103 D7
0103 D7 0104 G8
0104 G8 0105 G9
0105 G9 1000 A6
1000 A6 1001 A11
1001 A11 1014 H4
1014 H4 1020-A C4
1020-A C4 1020-B C4
1020-B C4 1033 H6
1033 H6 1043 A1
1043 A1 1200 C2
1200 C2 1201 F1
1201 F1 1272 C1
1272 C1 1516 F11
1516 F11 1518 D11
1518 D11 1681 G1
1681 G1 1950 A9
1950 A9 2001 E7
2001 E7 2002 H3
2002 H3 2003 E8
2003 E8 2004 D9
2004 D9 2005 C8
2005 C8 2006 B9
2006 B9 2007 C8
2007 C8 2010 E8
2010 E8 2011 D9
2011 D9 2012 H2
2012 H2 2024 D1
2024 D1 2027 C7
2027 C7 2029 H2
2029 H2 2031 B3
2031 B3 2033 E9
2033 E9 2034 E2
2034 E2 2036 A10
2036 A10 2039 C9
2039 C9 2041 A9
2041 A9 2045 C2
2045 C2 2046 B4
2046 B4 2048 B4
2048 B4 2049 A10
2049 A10 2053 G7
2053 G7 2054 G7
2054 G7 2097 G8
2097 G8 2098 G9
2098 G9 3001 E1
3001 E1 3010 B4
3010 B4 3014 E1
3014 E1 3017 B3
3017 B3 3018 C1
3018 C1 3025 G3
3025 G3 3039 B4
3039 B4 3068 A4
3068 A4 3069 A3
3069 A3 3070 B3
3070 B3 3071 B5
3071 B5 3111 D5
3111 D5 3182 C5
3182 C5 3183 C6
3183 C6 4004 F5
4004 F5 4006 D5
4006 D5 4007 F5
4007 F5 4008 D5
4008 D5 4009 D5
4009 D5 4010 C2
4010 C2 4015 B3
4015 B3 5000 A9
5000 A9 5001 A10
5001 A10 5002 F10
5002 F10 5003 F10
5003 F10 5004 F10
5004 F10 5005 G2
5005 G2 5006 G2
5006 G2 5008 H2
5008 H2 5009 B2
5009 B2 5010 B3
5010 B3 5011 C8
5011 C8 6001 E7
6001 E7 6002 C8
6002 C8 6003 C7
6003 C7 6004 E2
6004 E2 6005 F9
6005 F9 6009 D2
6009 D2 6015 F7
6015 F7 6036 D9
6036 D9 7025 B4
7025 B4 7026 A5
7026 A5 7101 E8
7101 E8 7102 C8
7102 C8 7103 C7
7103 C7 7104 G7
7104 G7 7105 G9
7105 G9 9007 D3
9007 D3 9016 D3
9016 D3 9017 D1
9017 D1
9018 D5
9018 D5 9019 D3
9019 D3 9020 F5
9020 F5 9030 B7
9030 B7 9031 B7
9031 B7 9032 B8
9032 B8 9033 B9
9033 B9
Page 36

SSM: Audio Amplifier

www.sharatronica.com
Circuit Diagrams and PWB Layouts
36DPTV585 AA 7.
C7
A
B
C
D
E
F
G
H
3139 123 6060.1
1234567891011
AUDIO AMPLIFIER (SSM)
5V
5716
2737
10n
1701 MRT
2000mA T
MRT 1700
2000mA
1K0
0V
100K
T
+5V_STBY
3720
5V
BC857B
7708
3717
2736
10n
2763
680n
100K
2u2
3718
5715
2778
2u2
7705
BC847B
2776
2u2
2K2
2K2
3730
100R
2u2
2775
3732
3733
-V_AUDIO
+V_AUDIO
2u2
2773
STANDBY
1349
26-62-6051
2774
1 2 3 5
RIGHT GND GND LEFT
7704
BC847B
3731
100R
TO CENTER CHANNEL
G
F_15120_011.eps
020805
A
B
C
D
E
F
H
100R
100n
2780
3713
2713
3K3
680n
100n
+5V_STBY
3726
3719
1K0
1702
10K
2777
2781
3715
47K
BT169B
3796
100n
C6
SOUND_ENABLE
C6
AUDIO-R
C6
AUDIO-L
C6
Item 51" 60"
2730
2731
7700
2200 uF 16V
2200 uF 16V
TDA7490L TDA7490
Ref Des 3135_037_11211_01
basic NOT USED4019
2701
50V
2703
50V
2200 uF 25V
2200 uF 25V
3135_037_11241_01 core
NOT USED
1u0
1u0
3701
10K
3702
6K8
5V
7701
0V
BC847B
0V
3727
100K
2702
1n0
3790
4K7
2782
3n3 3793
10K
2783
3n3 3792
10K
3791
4K7
2704
1n0
3135_037_12281_01 RESERVED 999
319802190020 NOT USED
3712
10K
2718
22p
3705
2708
2720
33K
2705
10R
220n
220n
3703
1u0
2706
100n
not used
3704
10K
100n
2707
470p
2722
470p
68K
2709
470p
3708
56K
2721
3722
470p
12V6 2V4
0V 0V
0V
0V
0V 0V
5V
3V2 5V1 13V5
2710
3706
5K6
3707
68K
3711
120K
14
17
22
5K6
6
4
CURREF
CURREF OSC8OSC
FEED17FEED1 FEED29FEED2
IN110IN1
IN218IN2
FEED3
FEED3 FEED419FEED4
STBY-MUTE
STBY-MUTE
VREG25VREG +5V12+5V +VCCPOW1 +VCCPOW2
3721
HEATSINK
10u
BOOT15BOOT1
OUT13OUT1
OUT2
OUT2
BOOT221BOOT2
-VCCSIGNSUB
-VCCPOW1
-VCCPOW2
3723
56K
0110
220n
2712
NC1
GND13GND
-5V16-5V
T111T1
T215T2
3798
47K
2735
7700 TDA7490
PWR_FAIL
47K
6702
3799
3716
47K
5V
3714
220n
47K
5701
68u
2719
1n0
3725
22K
2728
330p
5702
68u
3724
100R
7710
3797
100K
BC847B
220n
0V 9V 0V
0V
23
9V 0V
0V
20
1
13V7
5V5
2
24
13V813V6
2723
33n
2714
2727
1n0
220n
33n
2725
2726
0V
7707
BC847B
2715
1n0
2711
1n0
0V
BC857B
0V
7706
5V
3794
100K
3709
100R
5711 5713
2724
220n
5712
2733
220n
2732
2731
4019
0V
5710
2m2
BZX284-C6V8
100R
7711
BC847B
0V
5709
2m2
2730
3795
0V
3789
100K
2716
330p
3710
22K
10u
5714
10u
1234567891011
0110 F5 1349 D11 1700 F9 1701 F9 1702 C9 2701 D2 2702 C2 2703 D2 2704 E2 2705 C3 2706 F3 2707 F3 2708 F3 2709 C4 2710 C4 2711 F6 2712 C5 2713 C8 2714 D6 2715 D6 2716 D8 2718 D3 2719 D7 2720 F3 2721 F4 2722 E4 2723 C6 2724 G7 2725 C6 2726 E6 2727 F6 2728 E7 2730 G8 2731 G7 2732 G7 2733 G7 2735 B5 2736 D9 2737 D9 2763 E9 2773 B10 2774 B11 2775 B10 2776 B10 2777 D9 2778 B10 2780 G8 2781 G9 2782 D2 2783 D2 3701 B2 3702 B3 3703 C3 3704 C3 3705 E3 3706 B4 3707 C4 3708 B4 3709 D7 3710 D8 3711 C4 3712 D3 3713 B8 3714 B7 3715 A9 3716 A7 3717 C9 3718 C10 3719 B9 3720 B9 3721 F4 3722 F4 3723 F5 3724 F7 3725 D7 3726 B9 3727 C2 3730 B10 3731 B11 3732 C10 3733 D10 3789 C8 3790 D2 3791 E2 3792 D2 3793 D2 3794 B7 3795 B8 3796 C9 3797 B6 3798 B5 3799 A7 4019 B7 5701 C7 5702 E7 5709 E8
5710 E8 5711 F7 5712 G7 5713 F8 5714 F8 5715 E10 5716 C9 6702 A8 7700 D5 7701 B3 7704 B11 7705 B10 7706 B7 7707 B6 7708 B9 7710 B6 7711 B8
Page 37
Circuit Diagrams and PWB Layouts
www.sharatronica.com

SSM: Headphone Amplifier

37DPTV585 AA 7.
12345678910
GND-C
1604
1605
1601
1600
9046
1
SIN-21T-1.8S(B)
1
SIN-21T-1.8S(B)
1
SIN-21T-1.8S(B)
1
SIN-21T-1.8S(B)
9048
1602
SIN-21T-1.8S(B)
1603
SIN-21T-1.8S(B)
1
1
C8 C8
A
HEADPHONE AMPLIFIER (SSM)
3412
33K
2414
100p
8
+5V
5V
1606
SIN-21T-1.8S(B)
1607
SIN-21T-1.8S(B)
1608
SIN-21T-1.8S(B)
1609
SIN-21T-1.8S(B)
9037
1
1
1
1
B
C
D
E
F
G
C6
C6
C6
HEADPHONE_L
+5V
HEADPHONE_R
AUDIO_SW
100u
100u
10u
2412
2413
100n
3415
3K3
2421
2440
2411
470n
50V
50V
2423
470n
50V
3423
3K3
3422
10K
3418
10K
3442
1K0
220R
470R
+12V
3441
7415 BC847B
0V
3443
VDD
VSS
0V
4
2417
100p
3416
33K
50V 10u
2441
OUTA
OUTB
2442
100K
1
7403
TDA1308
7
220u
3444
0V
2467
10K
3419
2415
0V
100u
50V
2418
10K
3420
2416
SUB_WOOF
6n8
1-G8
6n8
HP_OUT_L
HP_OUT_R
C1
C1
C6
C6
C6
C6
C6
C3 C3 C3
C2
C3
100u
50V
INA_NEG
0V
2
INA_POS
0V
3
INB_NEG
0V
6
INB_POS
5
0V
3440
100K
0V
3447
100K
GND-C
GND-C
+15V
H-SSB
VSYNC-SSB
Y-SSB-N
U-SSB-N
V-SSB-N
1250
9038
0106 HEATSINK
12345
09JL-BT-E
HSYNC
VSYNC
TO WB/HOP
3140
1R0
GND
100n
678
GND
V-SSB-N
U-SSB-N
GND
GND-C
GND-C
3
15V
2108
9
GND
Y-SSB-N
6052
BAS316
7106 LM317T
IN OUT
ADJ
2K7
9008
9005
9003
10
11
12
13
GND-C
9039
2
9V2
8V
1
3138
9006
9004
BAS316
2106
TXTFBL BLUTXT GRNTXT REDTXT
GND-C
6053
1u0
H-SSB
VSYNC-SSB
Y-SSB-N
U-SSB-N
V-SSB-N
430R
3139
9047
2110
47u
C6
C6
C3
C3
C3
1610
B5B-EH-A
C7,C6
5
TXTFBL
4
BLUTXT
3
GRNTXT
2
REDTXT
1
GND
HOP
+5V_STBY
STANDBY
+15V
+5V
+9V
TO WB/HOP
2140
220u
B5B-EH-A
5 4 3 2 1
2802
16V
100u
1206
2141
100u
11
+5V
+15V
+9V
1102
B12B-EH-A
1 2 3 4 5 6 7 8 9 10 11 12
+5V_STBY GND STANDBY GND
+15V GND
+5V +5V GND GND
+9V +9V
0106 C7 1102 D11 1206 C10 1250 F7 1600 B8 1601 A8 1602 A9
A
1603 B9 1604 A8 1605 A8 1606 A7 1607 A7 1608 A7 1609 B7 1610 F9 2106 D8 2108 D8 2110 D9 2140 F10
B
2141 F10 2411 B2 2412 C2 2413 C2 2414 B3 2415 C5 2416 D5 2417 D4 2418 D5 2421 D2 2423 D2 2440 F2
C
2441 G4 2442 F4 2467 B5 2802 D10 3138 D8 3139 D9 3140 C7 3412 A3 3415 C2 3416 D4 3418 D3
D
3419 C5 3420 D5 3422 B3 3423 C3 3440 F3 3441 F4 3442 F3 3443 G4 3444 G4 3447 G3 6052 C8 6053 D9
E
7106 C8 7403 C4
TO INPUT BOARD
7415 G4 9003 F8 9004 E8 9005 E8 9006 E8 9008 E8 9037 B7 9038 B7 9039 B8 9046 B8
F
9047 B9 9048 B9
G
3139 123 6060.1
12
F_15120_012.eps
020805
34567891011
Page 38
Circuit Diagrams and PWB Layouts
C10
www.sharatronica.com

Mapping SSM C1-C8 Part 1

38DPTV585 AA 7.
54321
6
7
12111098
13
A
B
C
D
E
11
C10
SMALL SIGNAL MODULE (AP)
A
B
C
D
E
H
F
I
J
F
G
H
I
J
3135 033 3345.7
E_15000_020.eps
061004
1
65432 1312111098
7
Page 39
Circuit Diagrams and PWB Layouts
C11
www.sharatronica.com

Mapping SSM C1-C8 Part 2

39DPTV585 AA 7.
6
7
12111098
1354321
A
B
C
D
E
11
C11
SMALL SIGNAL MODULE (AP)
A
B
C
D
E
G
H
F
I
J
F
G
H
I
J
3135 033 3345.7
E_15000_021.eps
061004
1
5432 1312111098
6
7
Page 40
Circuit Diagrams and PWB Layouts
C12
www.sharatronica.com

Mapping SSM C1-C8 Part 3

40DPTV585 AA 7.
4321
Personal Notes:
A
B
C
D
11
C12
SMALL SIGNAL MODULE (AP)
A
B
C
D
E
G
H
E
F
F
G
H
I
I
J
3135 033 3345.7
143
J
E_15000_022.eps
191004
E_06532_012.eps
131004
2
Page 41

Layout SSM (Top Side)

www.sharatronica.com
Circuit Diagrams and PWB Layouts
41DPTV585 AA 7.
3139 123 6060.1
F_15120_013.eps
020805
Page 42
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout SSM (Bottom Side)

42DPTV585 AA 7.
3139 123 6060.1
F_15120_014.eps
020805
Page 43

CRT Panel: Red

D(R)1
www.sharatronica.com
Circuit Diagrams and PWB Layouts
43DPTV585 AA 7.
D(R)1
A
B
C
D
I103
E
F
3213
G
H
I
J
680R
I133
3208
100R
RV5
RV3
BAS216
4V
RV11
2209
1n
100u
2211
3225
2K2
6204
6K8
2201
I105
.5V
3.3V
7202
BF570
8.1V
21
3
RED CRT PANEL
To HOP Panel
12 3
I104
RV1
I112
3203
4V
100n
RV6
3223
3226
470R
1210
EH-S
3201
3200
1K5
-.7V
-.1V
7200 BF570
3209
3227
22R
75R
2K2
RV2
RV4
330R
3204
100R
RV10
1217
EH-B
1207
EH-S
1211 TMPJ02X-A1
1
F104
2219
2p2
RV13
RV7
I123
8.1V
1
1
N/U
23
2.2V
4V
3.2V
I114
3214
I134
.3V
2
2
RV12
5 IIN
4 VIN+
2 VIN-
2204
1n
2207
1u
N/U
100R
2212
1n
2215
1u
I135
11.6V
3
3
F103
4
3212
22K
11.2V
6
VCC
MIRROR
1X
RC+
RC-
3
1
3.3V
2.5V
3224
1K
10p
2210
3215
680R
3216
10R
4
5
4
5
To Green CRT Panel 1217
2224
47n
2214
47n
VDD
MIRROR
CURRENT
INPUT
911
F106
2213
1n
100u
2216
4
4
I106
3202
F125
1
7
To LSP Panel
1K5
6200
BYD33M
2218
100p
129V
3210
10K
I128
1n
2206
2208
100p
N/U
I117
I121
RV9
I127
1205
DSP
1206
DSP
I118
I125
-18V
6.2V
RV1 RV3RV2 RV6RV5RV4RV3
200mV / div AC
10µs / div
1V / div AC
10µs / div
1203 HPS0521
4
5
6
7
8
9
10
11
12
1
100mV / div AC
10µs / div
50V / div AC
10µs / div
5986
1202
EH-S
1
2
3
EH-B
1212
1
2
F102
2221
100n
2200
1n
RT-01T
1208
1
3218
I107
3
6.2V
5201
1204
SLV
220R
206V
4u7
2217
F117
I102
206V
10
4X
NC
3220
CASCODE
CASCODE
N/U
100R
7201 TDA6120Q
GND
8
128V
12OUTC
13OUT
7OUTM
21.5V
2203
RV8
129V
100p
3206
I119 I113
I115
47R
5202
0u47
3217
1R
6201
BAS21
3211
10K
5200
1209
DSP
5203
0u47
0001
HEATSINK
12
10
100mV / div AC
10µs / div
RV9 RV10RV8RV7 RV11 RV12
50V / div AC
10µs / div
3
11
100mV / div AC
10µs / div
100mV / div AC
10µs / div
I111
1V / div AC
10µs / div
100mV / div AC
10µs / div
I108
12
1
2
1201
1V / div AC
10µs / div
100mV / div AC
10µs / div
VH
13
1V / div AC
10µs / div
RV13
100mV / div AC
10µs / div
A
B
C
D
E
F
G
H
F105
NOTES
1. CAPACITANCE VALUES ARE IN FARADS: m=MILI u=MICRO n=NANO p=PICO f=FEMTO
2. RESISTANCE VALUES ARE IN OHMS: R=OHM K=KILO M=MEGA G=GIGA T=TERA
3. SAFETY TRIANGE REPRESENTS PCEC REPLACEMENT PART ONLY.
4. FOR VALUE SEE TABLE.
*
I
J
3135 013 3267.4
1 765
2 13
43 9
E_15000_008.eps
131004
8
10
11
12
Page 44

CRT Panel: Green

D(G)1
www.sharatronica.com
Circuit Diagrams and PWB Layouts
44DPTV585 AA 7.
D(G)1
A
B
C
D
E
F
G
H
I
J
I103
3213
680R
I133
3208 100R
GV5
GV3
BAS216
4V
GV11
2209
1n
100u
2211
3225
2K2
To HOP Panel 1720
GV1
6K8
3203
.5V
6204
100n
2201
I105
3.3V
7202
BF570
8.1V
470R
21
3
4
GREEN CRT PANEL
1210
EH-S
12 3
-.7V
I104
22R
3201
75R
3200
I112
-.1V
7200 BF570
4V
GV6
3209
1K5
3223
3226
3227
2K2
GV2
GV4
330R
3204
100R
GV10
1217
EH-B
1207
EH-S
1211 TMPJ02X-A1
1
F104
2219
2p2
GV13
GV7
I123
I114
8.1V
1
1
N/U
23
2.2V
4V
3.2V
3214
I134
.3V
2
2
5 IIN
4 VIN+
2 VIN-
2204
1n
2207
1u
N/U
100R
2212
1n
2215
1u
I135
11.6V
3
3
GV12
3212
22K
11.2V
6
VCC
MIRROR
1X
RC+
RC-
3
1
3.3V
2.5V
3224
1K
2210
3215
680R
3216
10R
F103
To Red CRT Panel 1207
4
5
4
5
To HOP Panel 1701
10p
2224
47n
2214
47n
VDD
MIRROR
CURRENT
INPUT
911
F106
2213
1n
100u
2216
5986
1202
EH-S
1
2
3
EH-B
1212
1
2
F102
2221
100n
2200
1n
RT-01T
1208
1
3218
I107
3
5201
1204
SLV
220R
206V
4u7
2217
F117
I102
206V
10
4X
NC
3220
CASCODE
CASCODE
N/U
100R
7201 TDA6120Q
GND
8
128V
12OUTC
13OUT
21.5V
7OUTM
2203
GV8
129V
100p
3206
I119 I113
I115
47R
5202
0u47
3217
1R
6201
BAS21
3211
10K
5200
1209
DSP
5203
0u47
7
To LSP Panel 1202
4
To Red CRT Panel 1202
4
6.2V
I106
1K5
3202
6200
BYD33M
2218
100p
F125
1
I128
1n
2206
129V
3210
10K
2208
100p
N/U
I117
I121
GV9
I127
1205
DSP
1206
DSP
I118
I125
GV1 GV3
200mV / div AC
10µs / div
50V / div AC
10µs / div
1203 HPS0521
4
-18V
6.2V
5
6
7
8
9
10
11
12
1
GV2
100mV / div AC
10µs / div
50V / div AC
10µs / div
10
100mV / div AC
10µs / div
GV10 GV11GV9GV8 GV12 GV13
100mV / div AC
10µs / div
0001
HEATSINK
3
12
11
1V / div AC
10µs / div
100mV / div AC
10µs / div
I111
1V / div AC
10µs / div
100mV / div AC
10µs / div
I108
12
GV6GV5GV4
100mV / div AC
1201
1
2
1V / div AC
10µs / div
10µs / div
VH
13
GV7
1V / div AC
10µs / div
A
B
C
D
E
F
G
H
F105
NOTES
1. CAPACITANCE VALUES ARE IN FARADS: m=MILI u=MICRO n=NANO p=PICO f=FEMTO
2. RESISTANCE VALUES ARE IN OHMS: R=OHM K=KILO M=MEGA G=GIGA T=TERA
3. SAFETY TRIANGE REPRESENTS PCEC REPLACEMENT PART ONLY.
4. FOR VALUE SEE TABLE.
*
I
J
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1 765
2 13
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E_15000_007.eps
131004
8
10
11
12
Page 45

CRT Panel: Blue

D(B)1
www.sharatronica.com
Circuit Diagrams and PWB Layouts
45DPTV585 AA 7.
D(B)1
A
B
C
D
E
F
G
H
I
J
I103
3213
680R
I133
3208 100R
BV5
BV3
BAS216
4.1V
BV11
2209
1n
100u
2211
3225
2K2
To HOP Panel 1720
12 3
BV1
6K8
3203
.5V
6204
100n
2201
I105
BV6
3.3V
7202
BF570
8.1V
3223
470R
21
3
BLUE CRT PANEL
I104
I112
4.1V
3226
1210
EH-S
3201
3200
1K5
-.6V
-.1V
7200
BF570
3209
3227
22R
75R
2K2
BV2
BV4
330R
3204
100R
BV10
1217
EH-B
1207 EH-S
1211 TMPJ02X-A1
1
F104
2219
2p2
BV13
BV7
I123
8.1V
1
1
N/U
23
5 IIN
2.2V
4 VIN+
4V
2 VIN-
3.2V
I114
2204
1n
2207
1u
N/U
3214
100R
2212
1n
2215
1u
I134
I135
F103
.3V
11.6V
2
3
3
2
To HOP Panel 1701
BV12
3212
22K
11.2V
6
VCC
MIRROR
1X
RC+
RC-
3
1
3.3V
2.5V
3224
1K
10p
2210
3215
680R
3216
10R
To Green CRT Panel 1207
4
5
4
5
4
F106
2224
47n
2214
47n
206V
10
VDD
MIRROR
4X
CURRENT
INPUT
NC
911
2213
1n
100u
2216
3220
100R
F105
5986
4u7
2217
I102
7201 TDA6120Q
CASCODE
12OUTC
13OUT
7OUTM
CASCODE
GND
8
N/U
1
EH-B
1212
1
206V
I115
47R
5202
0u47
3217
1R
6201
BAS21
3211
10K
2221
100n
2200
5200
1209
DSP
5203
0u47
21.5V
2203
F117
123V
BV8
124V
100p
3206
I119 I113
NOTES
1. CAPACITANCE VALUES ARE IN FARADS: m=MILI u=MICRO n=NANO p=PICO f=FEMTO
2. RESISTANCE VALUES ARE IN OHMS: R=OHM K=KILO M=MEGA G=GIGA T=TERA
3. SAFETY TRIANGE REPRESENTS PCEC REPLACEMENT PART ONLY.
4. FOR VALUE SEE TABLE.
*
1202
EH-S
2
2
F102
I107
1n
1208
RT-01T
1
3218
7
To LSP Panel 1202
3
4
To Green CRT Panel 1202
3
4
6.2V
I106
1K5
3202
6200
BYD33M
5201
1204 SLV
220R
1
F125
124.3V
2206
2218
100p
I128
3210
10K
1n
2208
100p
N/U
BV9
I117
I121
I127
1205
DSP
1206
DSP
I118
I125
-18V
6.2V
BV1 BV3BV2
200mV / div AC
10µs / div
BV7
1V / div AC
10µs / div
1203 HPS0521
4
5
6
7
8
9
10
11
12
1
100mV / div AC
10µs / div
50V / div AC
10µs / div
0001
HEATSINK
12
10
3
100mV / div AC
10µs / div
50V / div AC
10µs / div
11
BV5BV4
1V / div AC
10µs / div
BV10 BV11BV9BV8 BV12 BV13
100mV / div AC
10µs / div
I111
100mV / div AC
I108
1V / div AC
10µs / div
10µs / div
1
2
12
1201
BV6
1V / div AC
10µs / div
100mV / div AC
10µs / div
VH
13
100mV / div AC
A
B
10µs / div
C
D
E
F
G
H
I
J
3135 013 3267.4
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2 13
43 9
E_15000_006.eps
131004
8
10
11
12
Page 46
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Mapping CRT Panel: Red, Green, and Blue

46DPTV585 AA 7.
Personal Notes:
E150000_135.eps
191004
E_06532_012.eps
131004
Page 47
Circuit Diagrams and PWB Layouts
www.sharatronica.com
47DPTV585 AA 7.

Layout CRT Panel (Top Side)

0001 A2 1201 C1 1202 B2 1203 B1 1204 B1 1205 C1 1206 C1 1207 B2 1208 B2 1209 B1 1210 A2 1211 A2 1212 B2 1217 B2 2206 B1 2208 C1 2211 A2 2216 B2 2217 B2 2218 C2 3202 C2 3210 B1 3212 A1 3217 B2 3218 B1 3226 A2 5200 B2 5201 B2 6200 C2 7201 A2 9000 B2

Layout CRT Panel (Bottom Side)

2200 B1 2201 A1 2203 A1 2204 B1 2207 B1 2209 A1 2210 A1 2212 B1 2213 B1 2214 B1 2215 B1 2219 A1 2221 B1 2224 B1 3200 A1 3201 A1 3203 A1 3204 A1 3206 B2 3208 A1 3209 A1 3211 B2 3213 A1 3214 B1 3215 A1 3216 B1 3220 A1 3223 A1 3224 A1 3225 A1 3227 A1 5202 B2 5203 B2 6201 B1 6204 A1 7200 A1 7202 A1
3135 013 3267.4
E_15000_009.eps
061004
3135 013 3267.4
E_15000_010.eps
061004
Page 48

Large Signal Panel

www.sharatronica.com
1
LARGE SIGNAL PANEL
A
E1
B
C
D
E
F
G
H
I
J
K
CQY80NG
L
M
N
O
P
3135 033 3341.1
1 13
1
2
3
4
5
VH
1500
GND_C
GND_C
2310
GND_C
680p
GND_C
3315
15K
3317
1K
3316
GND_C
VCC
7303
42
I159
NOTES
1. CAPACITANCE VALUES ARE IN FARADS: m=MILI u=MICRO n=NANO p=PICO f=FEMTO
2. RESISTANCE VALUES ARE IN OHMS: R=OHM K=KILO M=MEGA G=GIGA T=TERA
3. SAFETY TRIANGE REPRESENTS PCEC REPLACEMENT PART ONLY.
4. FOR VALUE SEE TABLE.
*
Circuit Diagrams and PWB Layouts
2390
2n2
5330
W8051
5315
INITIALIZATION BLOCK
Latch
Reset
THERMAL
SHUTDOWN
CURRENT SENSE
Dmax & SOFT-START
CONTROL
Iref
3338
GND_C
+15V
3267
150R
2268
3K3
3294
5
I110
GND_C
SUPPLY &
QSet
I149
10K
2306
100u
9210
5
I165
I114
Soft Start & Dmax
11
GND_C
3
GND_C
7302 MC44603A
82K
2309
82p
GND_C
I143
47K
I148
3314
I135
F106
220p
2353
2311
DEMAGNETICATION
Vdem in
8
9 2 10
15
12
14
1n
13
Sync C
T
R standby
F
R standby
P
2.5V
VOLTAGE
FEEDBACK
E/A OUT
MANAGEMENT
Vdem out
Iref
OSCILLATOR
(REDUCED FREQUENCY)
ERROR
AMP
STANDBY
Vosc prot
Vosc
3313
10K
Rref
Iref
I164
I111
16
Vref
REFERENCE
4
1300
5A0 5HT
I132
BLOCK
I166
I113
I118
Iref
Vref enable
FOLDBACK
VCC
FOLDBACK INPUT
I150
3318
150K
CURRENT SENSE INPUT
5
15K
3319
7
GND_C
+130VS
3329
330R
I156
1u
2328
3324
100K
I188
I160
3325
47K
2n2
2333
I161
3
47K
3350
470R
3-K2,2-F2
HOUT
2K7
3323
I162
3322
4n7
2334
3
15
7304
TL431
3328
100R
I157
4K7
3326
I158
3327
100R
1
2
2
GND_C
2346
100n
BUFFER
Vovp out
Vref
OVERVOLTAGE
MANAGEMENT
OVERVOLTAGE
PROTECTION
UVLO1
Vref
1u
100p
2271
48DPTV585 AA 7.
UVLO1
47K
47K
3300
22K
Vcc
6
47u
Vcc
OUTPUT
3285
3286
2354
2303
100u
I130
1
18V
GND
I889
9
470u
2300
470u
2338
F108
GND_C
3307
4R7
I141
10n
3305
I128
2349
7301
STW13NB60
1
10K
GND_C
F117
15K
3344
15K
3343
5305
2
3
I144
220R
2n2
330p
3310
3301
3302
220R
I116
2301
21
2304
6302
1N5062
3308
0R22
GND_C
3309
0R22
GND_C
390R
2307
2308
10
3365
220R
I120
STANDBY
1-L17
0032 MECHPART
12345
I142
6303
GND_C
4n7
4n7
F111
23
14
+5VSTDBY
I140
2305
470p
2302
6301
BYV95C
3304
5301
470p
82
470u
2337
5312
7309
BC547B
I125
1K
3303
100K
3306
15R
7 15
I163
VCC
1305
G5PA-1-5VDC
F107
3311
4R7
Vc
I136
I139
3
4
GND_C
6313
1N4148
75R
3312
I134
5303
BC547B
7300
5302
GND_C
0034 HEATSINK
VCC
I146
3321
6
8K2
8K2
3320
1234
GND_C
I152
11
GND_C
1N5062
GND_C
I891
0213
6213
I896
123
MTP6P20E
7213
100n
HEATSINK
BYV28-200/20
2276
I890
100n
2270
7214
8
NE555D
VCC
THR6
COMP
CTRL 5
COMP
DISC7
FF
GND
1
TR 2
RES 4
OUT 3
9211
I892
I893
9K1
3280
10n
2267
6211
BAT254
3281
270R
I894
5240
I895
10K
3277
BZX284-C15
2n2
2269
2279
3291
100R
100n
2391 2n2
5300
US54107
11 12
10
8
6
2
1
470p
6212 I898
5241
12
13
14
15
16
17
18
I127
19
20
21
22
I129
9000
2n2
2277
2278
I115
AGND
13
5308
1u
5321
1u
5323
I117
I119
I121
I124
I897
I122
5319
I174
5320
I137
5324
I170
I173
470p
2323
6308
BY229X-600
470p
2329
BY229X-600
6309
2364
470p
BY229X-600
6316
BY229X-600
6306
470p
2315
6307
BY229X-600
2319
470p
6317
BY229X-600
2361
470p
2-C2
14
VSCAN
0041
HEATSINK
0045
HEATSINK
0035
HEATSINK
HEATSINK
0047
I153
100p
2371
0033
12
12
12
12
0037
1
12
2370
I189
100n
HEATSINK
HEATSINK
2
5310
BYV95C
3358
3361
I171
5313
I112
I123
2316
I138
I154
6318
18K
I190
3360
100R
4K7
16
I168
I172
5316
10u
1m
2330
AGND
5322
10u
1m
2365
1m
I133
2320
1m
5314
10u
2362
TL431
100n
2363
1m
3357
1
7305
3
2
1m
I191
2372
RESERVED
HDR2K3 LSB
17
I169
5318
1m
AGND
1m
4K7
2331
3353
AGND
AGND
1m
4K7
3354
2366
5307
10u
1m
2317
3355
5309
10u
4K7
470p
2350
6315
MUR8100E
6314
BY229X-600
I192
3359
68K
STANDBY
+130VS
6K8
3362
3K3
3363
3135 033 33411 01
6 18
7
84
9
10
11
14
15
16
17
5317
10u
2324
4K7
2321
HEATSINK
0043
1-C10
100n
100n
1m
5306
12
I151
6320
AGND
F119
2312
470p
6305
6304
4K7
F114
100n
HEATSINK
0039
19
F113
F118
2335
3339
68R
12
I145
F142
2326
5304
1
2
PCB-TAB4.8x0.5
100n
- AUDIO
+ AUDIO
+35V
+22V
- 22V
- 35V
2339
2313
100n
AGND
1506
2325
F120
F141
100n
2322
F140
F139
F133
470u
470u
20
RESERVED
9001
3345
10R
AGND
EH-B 1516
12
11
10
9
8
7
6
5
4
3
2
1
1001
EH-B
3
FAN
2
1
RESERVED
+130VS
6310
BYD33D
A
B
C
D
E
F
G
H
18
1m
2327
3352
AGND
F115
2332
F116
2318
4K7
3356
I147
MUR8100E
BY229X-600
I
3351
F125
F134
F127
F128
F129
F135
PWR FAIL
F131
10u
F136
F137
150R
10
11
12
1
2
3
4
5
6
7
8
9
1518
EH-B
PROTECT
2-L2
+130VHV
J
K
L
M
N
5311
1N4148
F121
2314
470u
HBLANK
2-D20
DEFGND
2-C20
VBLANK
2-N19
3347
10K
+5VSTDBY
F132
6321
1N4148
5336
10u
+15V
2336
O
P
F_15120_016.eps
020805
19 2012
Page 49
Circuit Diagrams and PWB Layouts
www.sharatronica.com
49DPTV585 AA 7.

Large Signal Panel

22u
BYV27-200
BAS216
2803
470p
6802
BYV95C
2833
6830
128
I818
BZX284-C15
47u
12
I822
HEATSINK
2818
5805
1n
3813
1K87
3821
8n2
6809
90u
7IN+
1IN-
3814
3819
470R
I881
1R5
15
BYD33J
2820
4u7
I875
3820
152
AMPLIFIER POWER
1R0
3817
1R
I835
3808
5804
5u1
-13V
TDA8177 7811
4
GND
VSUP6VSUPO
2
3818
1R5
I836
47R
3807
470R
PROTECTION
THERMAL
GENERATOR
FLYBACK
FLYB
3
2825
I878
470n
2828
16
2815
10u
5803
2816
430n
2850
510n
5OUT
100u
6811
BYV27-200
6826
BZX79-C18
13
0085
HEATSINK
12
0081 MECHPART
345
12
560p
2817
5810
3823
VDOA
3-K2
VDOB
3-K2
BYM357DX
47K
BAS216
0082 HEATSINK
1234
3812
100R
3811
100R
6832
I852
3829
68K
3822
1R0
13
14
I810
2805
470p
6801
BY229X-200
0180
123
3
1
6810
2
I843
22n
2819
6821
5807
2m2
I873
2824
I869
2829
F806
4n7
1K87
2n2
2823
4n7
2822
14
17
5801 US40104
89
7
6
5
3
1
2200u
I847
I850
2826
100n
100n
17
18
1000
I812
6803
BY229X-200
2807
470p
1R
3810
10
12
13
14
15
16
I845
2827
3815
2K7
I825
I813
I830
I837
-13V
F809
3865
2K2
1816
HEATSINK
10R
2811
470p
BYV27-200
6805
2814
470p
6806
BYV27-200
I876
I814
2808
47u
3803
3802
1K
I828
I834
DYN-FOCUS-LOW
3-C2
DYN-FOCUS-HIGH
3-D2
DM-INPUT
3-L19
HOT-COLLECTOR
3-N2
3-F2
HVG-ON
3-K19
3804
220R
3805
220R
3806
220R
+13V
VBLANK
1-K19
VPULSE
3-L2
19
3816
1R
6804
F803
1804
F804
T1A
1m
MRT
2812
1m
2813
1805
F805
T1A
MRT
VERT-PARABOLA
1501
LV
1
2
3
I860
4
1502
LV
1
2
3
4
1503
LV
1
2
3
4
19 20
1
32
4
5
6
9
10
11
LARGE SIGNAL PANEL
A
E2 E2
B
C
D
E
F
G
H
VSCAN
+130VS
HOUT
FILAMENT
2-M11
1-L14
3-K2,1-M4
9203
5802
47u
3840
4K7
3839
4K7
7807
6813
BZX284-C10
BSN304
I842
3834
47R
I840
2846
330p
3835
470R
I841
2K2
3836
5808
I827
UD15201
2836
100n
I838
470p
2834
4K7
3837
6816
BZX79-C68
1820
47u
2801
I832
1n
2831
I849
6812
BZX79-C68
+15V
3832
100K
I833
1m5
2835
3838
1R
I854
+15V
10n
2832
F800
2806
100n
F802
7801 BU2520AF
2821
3809
4R7
100n
5811
3866
150R
3826
27K
18K
3833
7803-B
5
8
LM393D
6
4
I844
22n
2830
7
6825
3825
1K5
3824
I848
100R
BZX284-C10
2810
I
1K
3851
47K
3861
7809 BC847B
10K
3867
100R
EH-B
EH-B
430n 319801211080 1R0
NOT USED
3850
7810
BC847B
6828
3868
1K
BZX284-C10
I877
-200V
I858
I861
6817
BAS216
BF423
7812
I868
2K2
3849
I874
15K
3859
I880
15K
3862
15K
3864
J
6824
BZX284-C10
6814
I865
K
L
PROTECT
1-N20
1n
BZX284-C10
3844
22K
2838
+15V
BAS216
BAS216
7808
BC847B
I866
6815
6829
+15V
470K
3841
2837
3843
2K2
1u
10K
3842
I871
1n
22K
2839
3845
M
27K
3846
NEG-HORIZ-PULSE
I882
2-A20
N
USA BASIC 4:3 USA BASIC 16:9 USA CORE 4:3 USA CORE 16:9
Ref Des 313503710981 313503710991 313503711001 313503711011 NOT_USED
O
P
1002 NOT USED NOT USED NOT USED NOT USED 242202512479
1102 NOT USED NOT USED
2816 NOT USED
3820 319801211080
1R0
5802 242253595282
47u
9203 NOT USED NOT USED
6822
F808
3847
BYV95C
1R
NOT USED
319801211580 31980121 1R5
242253595282 47u
100K
2n2
2840
NOT USED NOT USED 242202512479
NOT USED NOT USED 222247990022
319801211080 1R0
242253595282 47u NOT USED NOT USED 319803690010
3848
I884
10n
2841
6823
BAS216
319801211580 31980121 1R5
242253595282 47u
2845
100n 7906
BC847B
6818
BAS216
6819
BZX79-C18
47K
3860
I867
3852 4K7
100R
100n
2843
9818
1u
2842
+15V
I859
10K
3854
I864
3855
330R
7813
BC847B
10K
3853
5809
G1
47u
6820
I862
BZX284-C10
10u
2844
1002 EH-B
4
3
2
1
3857
3856
1102 EH-B
4
3
2
1
RESERVED
HDR2K3 LSB
3135 033 33411 01
3135 033 3341.1
1
3
4
5
611
7
8
9
10K
10
47u
BAS216
3801
0R68
+30V_CLAMP
7802
2SK2232
3827
1K
6831
1202 EH-B
I811
1801
T2A
MRT
470u
2804
2802
2-B20
470p
2847
6827
I857
+15V
BC857B
7814
3858
4K7
4
FILAMENT
3
2-A2
2
1
200V
207
NEG-HORIZ-PULSE
2-N2
+30V_CLAMP
2-F11
DEFGND
1-K19
BZX79-C4V7
HBLANK
1-K19
+13V
6807
BAS216
-13V
6808
BAS216
F_15120_017.eps
020805
A
B
C
D
E
F
G
H
I
J
K
L
M
N
O
P
Page 50

Large Signal Panel

www.sharatronica.com
1
2 16
Circuit Diagrams and PWB Layouts
3
4
5
68
7
9
50DPTV585 AA 7.
10
11
13
14
1512
17
18
19
20
E3 E3
1504
LV
F900
1
2-F19
2-G19
2
3
DSP
100R
100n
2901
1900
3907
I918
DYN FOCUS
B B
C
D
DYN-FOCUS-LOW
DYN-FOCUS-HIGH
3902
3901
100R
E
F
VERT-PARABOLA
2-H19
G
1510 EH-B
F933
VERT
VERT
FLASH
ABL
EWO
EHT
HDR
SCO
HFP
DPC
VPULSE
-200V
VDOA
VDOB
+15V
HOUT
2-J13
2-L13
2-F2,1-M4
2-O19
1
F934
2
F935
3
F936
4
5
6
7
8
9
10
11
12
3927
2M2
H
I
J
K
L
M
HOT-COLLECTOR
2-G19
F941
F938
BZX79-C18
2903
I927
3904
4u7
F942
F937
I936
F939
F904
I941
1n
2906
6902
3928
10K
3926
220K
3935
2M2
22K
2910
3900
2K7
33n
3929
10K
100n
2905
I957
18K
3932
N
I914
3K3
4
5901
W80731
I919
+330V
3903
330K
I928
2904
1K
3931
3930
100R
I956
7902 BC847B
68
2n2
1K5
3909
7901
BF487
27K
10n
3905
3936
10R
2908
220p
I917
2902
I924
6901
BAS216
BC327-25
6903
I931
6905
BZX79-C8V2
1K
3925
3940
100K
10R
3933
I954I958
3934
4n7
2907
I955
4K7
6906
6910
BAT85
BZX79-C4V7
BZX79-C3V9
6904
3923
470R
BAS216
3924
47K
4R7
3937
47u
2911
I935
7903
3916
3920
120K
+15V
6909
VFOC
5904
HVG
NC
2K2
3915
6908
BAS216
1N4148
I932
10R
2912
-13V
+15V
120K
3919
BAS216
10u
2914
1K
3906
+15V
I949
2926
4n7
LARGE SIGNAL PANEL
EHT EHT
EHT
TRANSFORMER
VAUX
ABL RTN VAUX
GND
I929
10u
6912
7904
BC847B
10K
3922
6919
BGR
DRIVER & CONTROL
OVP
TEST
NC NC
7 8 9 11 12 13 1411023456
+130VS
3910
3911
3914
1K
8K2
2921
100n
3917
22K
3921
470K
BAT254
ON / OFF GND
6K8
56K
3913
BC857B 7905
680R
I910
VB+
MT
I916
I920
I923
3912
1K5
2913
100n
3918
2927
100n
Ref Des 313503710981 313503710991 313503711001 313503711011 NOT_USED 1505 NOT USED NOT USED NOT USED NOT USED 242201518552
5903 NOT USED
5903
100n
6914
BAS216
2916
100n
6913
BAS216
2915
USA BASIC 4:3 USA BASIC 16:9 USA CORE 4:3 USA CORE 16:9
NOT USED
NOT USED NOT USED 319801890020
2917
3908
22R
47u
2925
I921
1n
2919
I925
100p
6915
BYV27-600
I930
RESERVE
PCB-TAB4.8x0.5
I915
2922
100p
6917
BYV27-400
2924
100p
6916
BYV27-600
F902
F903
I912
1901
1
2
3
EH-B
+330V
PCB-TAB4.8x0.5
1505
1
2
HVG-ON
2-H19
DM-INPUT
2-G19
+130VHV
TEST
-200V
DAG
5902
47u
4u7
2920
2n2
2918
AA
C
D
E
F
G
H
I
J
K
L
M
N
O
P
3135 033 3341.1
1
HDR2K3 LSB
3135 033 33411 01
3 11
4
5
6 18
7 20
8
9
10
12
13
14
15
16
17
O
P
F_15120_018.eps
020805
192
Page 51

LSP: Diversity Tables

www.sharatronica.com
2
DIVERSITY TABLES
A
E4
Circuit Diagrams and PWB Layouts
34
5
51DPTV585 AA 7.
6
71
8
9
Personal Notes:
A
B
Ref Des 313503710981 313503710991 313503711001 0213 NOT USED
1001 NOT USED NOT USED NOT USED NOT USED 241202000725
C
D
E
F
G
H
I
J
K
2267 NOT USED NOT USED NOT USED NOT USED 319801701030
2268 NOT USED NOT USED NOT USED
2269
NOT USED NOT USED NOT USED NOT USED
2270 NOT USED
2271 NOT USED NOT USED NOT USED NOT USED 319801601010
2276 NOT USED NOT USED NOT USED NOT USED 222236585104
2277
NOT USED NOT USED NOT USED NOT USED
2278 NOT USED
2279 NOT USED NOT USED
2300 NOT USED NOT USED NOT USED NOT USED 202002490682
2333 NOT USED NOT USED NOT USED NOT USED
2337 NOT USED
2339 NOT USED NOT USED
2391 NOT USED NOT USED NOT USED NOT USED 202055490173
3267 NOT USED NOT USED NOT USED NOT USED 319801211510
NOT USED NOT USED NOT USED NOT USED
3277
3280 NOT USED
3281 NOT USED NOT USED
3285 NOT USED NOT USED NOT USED NOT USED 319802154730
3286 NOT USED NOT USED NOT USED NOT USED
3291 NOT USED
3294 NOT USED NOT USED
3320 NOT USED NOT USED NOT USED NOT USED 319801108220
3321 NOT USED NOT USED NOT USED NOT USED 319801108220
3338 NOT USED
3339 NOT USED NOT USED
5240 NOT USED NOT USED NOT USED
5241 NOT USED NOT USED NOT USED NOT USED 319801890020
5300 242253102507
US54107
6211 NOT USED NOT USED
6212 NOT USED NOT USED NOT USED
6213 NOT USED NOT USED NOT USED NOT USED 934038720115
6305 NOT USED NOT USED NOT USED NOT USED 933940500687
6315 NOT USED NOT USED
7213 NOT USED NOT USED NOT USED
NOT USED NOT USED NOT USED NOT USED 933656110623
7214
9001 NOT USED NOT USED NOT USED NOT USED 319803690010 9210 NOT USED NOT USED NOT USED 9211 NOT USED
USA BASIC 16:9USA BASIC 4:3
NOT USED NOT USED NOT USED 313501104201
NOT USED NOT USED NOT USED 319802321040
NOT USED NOT USED NOT USED 202055890555
NOT USED NOT USED NOT USED 202002490562
NOT USED NOT USED NOT USED 232273469102
NOT USED NOT USED NOT USED 319802151010
NOT USED NOT USED NOT USED 319802151030
242253102507 US54107
NOT USED NOT USED NOT USED 319803690010
SHEET 1
USA CORE 4:3
NOT USED NOT USED 222236585104
NOT USED NOT USED 319802644710
NOT USED NOT USED 319802152710
NOT USED NOT USED 319801103320
NOT USED NOT USED 232225141689
242253102508 US54108
NOT USED NOT USED 934039300115
NOT USED NOT USED 933940500687
USA CORE 16:9
313503711011 NOT_USED
NOT USED 319802531010
NOT USED 319801890020
242253102508 US54108
NOT USED 933910440112
NOT USED 932209027687
NOT USED 319803690010
HEATSINK
EH-B
10n
100u
202031090057 2n2
100n
100p
100n 319801952220
2n2
470p
100n
470u 319801912220
2n2
470u
470u
2n2
150R 319802151030
10K
9K1
270R
47K 319802154730
47K
100R
3K3
8K2
8K2
10K
68R
242253102507 US54107
BAT254
BYV28-200/20
BZX284-C15
MUR8100E
MUR8100E
MTP6P20E
NE555D
B
C
D
E
F
G
H
I
J
K
L
M
N
O
P
3135 033 3341.1
1
B
B
A
A
S
S
I
I
C
C
4
1
b
6
y
b
3
y
313503710981 X 313503710991 X 313503711001 313503711011 X NOT_USED X
9
R
C
C
E
O
O
S
R
R
E
E
E
1
R
4
6
V
b
b
y
E
3
D
y 9
X
M
N
O
L
P
F_15120_019.eps
020805
2
3
4
5
6
7
89
E_06532_012.eps
131004
Page 52
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout Large Signal Panel (Top Side)

52DPTV585 AA 7.
3135 033 3341.1
F_15120_020.eps
020805
Page 53
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout Large Signal Panel (Bottom Side)

53DPTV585 AA 7.
3135 033 3341.1
F_15120_021.eps
020805
Page 54
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Side Jack Panel

123456789
Side Jack Panel
G1
2
A
3
8
7
1
B
4000
C
D
E
F
NOTES
1. CAPACITANCE VALUES ARE IN FARADS:
G
m=MILI u=MICRO n=NANO p=PICO f=FEMTO
2. RESISTANCE VALUES ARE IN OHMS: R=OHM K=KILO M=MEGA G=GIGA T=TERA
3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.
4. FOR VALUE SEE TABLE.
94
I000
YELLOW
1001-1
YKC21-5617
Y_CVBS_FRNT
WHITE
RED
1337
0-106451-1
105
1 2
116
4001
1001-2
4 6 5
1001-3
7 9 8
1 2
YKF51-5347
YKC21-5617
YKC21-5617
1002
F010
F011
F012
3030
1K8
L_FRNT
R_FRNT
F014
C_FRNT_SVHS
Y_FRNT_SVHS
6000
I002
3000
BZX284-C6V8
6002
BZX284-C6V8
75R
6003
3002
BZX284-C6V8
I003
6005
BZX284-C6V8
6006
I004
BZX284-C6V8
2002
6007
BZX284-C6V8
6008
I015
BZX284-C6V8
2006
6009
BZX284-C6V8
A
H D
1 0
R
P
2
T
K 2
V
3135_037_05461 3135_037_10581 X 3135_037_11961 X
3135_037_12321 RESERVED
X
330p
330p
75R
I023
H D R 2 K 3
E M G
X3135_037_12131
6001
6004
3006
3009
I H D T V _ 2 K 4
BZX284-C6V8
BZX284-C6V8
22K
22K
M X 9 9 9
X
54DPTV585 AA 7.
10 11
3135_037_05461Ref Des
1002 242202604926
YKF51-5347
F015
2000
220n
75R
3001
3005
1K0
F016
F017
F018
I008
I009
TO SSM
1335
B10B-EH-A
1 2 3 4 5 6 7 8 9 10
330p
2005 2001
F019
330p
3029
3K9
1007
YKB21
I016
5
4002
4
3007
1K0
2
3
7
F021
F020
8
1
N O T _ U S E_ D
1007 242202604747
YKB21
1344
241202000725 B3B-EH-A
2238910198542000
2008 NOT USED NOT USED NOT USED NOT USED
2009 NOT USED NOT USED NOT USED NOT USED NOT USED 319801706820
3000 319802157590
75R
3001 319802157590
75R
3019 319802151090
10R
3020 319802151090
10R
3023 319802151090
10R
3026 NOT USED NOT USED NOT USED NOT USED NOT USED 319802151030
3027 NOT USED NOT USED NOT USED NOT USED
3028 319802151090
10R
3029 319802153920
3K9
3030 319802151820
1K8
NOT USED NOT USED NOT USED NOT USED 319802190020 NOT USED
4000 4001 NOT USED NOT USED NOT USED 4002 NOT USED 6000 934038640115
BZX284-C6V8
6001 934038640115
BZX284-C6V8
6002 934038640115
BZX284-C6V8
6004 934038640115
BZX284-C6V8
934038640115
6010
BZX284-C6V8
6011
934038640115 BZX284-C6V8
6012 934038640115
BZX284-C6V8
6013 934038640115
BZX284-C6V8
3023
10R
3028
10R
3019
10R
3020
10R
6n8
3026
2008
3135_037_10581 3135_037_11961 3135_037_12131 3135_037_12321 RESERVED 242202604926
YKF51-5347
242202604747 YKB21
241202000725 B3B-EH-A
223891019854
220n220n
319802157590
75R 319802157590
75R 319802151090
10R 319802151090
10R 319802151090
10R
319802151090
10R 319802153920
3K9 319802151820
1K8
NOT USED NOT USED 934038640115
BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
6011
BZX284-C6V8
I021
242202604926 YKF51-5347
NOT USED
223891019854
220n
319802157590
75R 319802157590
75R NOT USED 319802151090
NOT USED
NOT USED 319802151090
NOT USED 319802151090
NOT USED NOT USED 319802153920
319802151820
1K8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
NOT USED 934038640115
NOT USED 934038640115
NOT USED
NOT USED 934038640115
242202604926 YKF51-5347
242202604747 YKB21
241202000725NOT USED B3B-EH-A
223891019854
220n
319802157590
75R 319802157590
75R
10R 319802151090
10R
10R
10R
319802157590 31980215
75R
NOT USED 319802190020 NOT USED NOT USED 934038640115
BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
934038640115 BZX284-C6V8
BZX284-C6V8
BZX284-C6V8
934038640115 BZX284-C6V8
BZX284-C6V8
F023
6012
BZX284-C6V8
I022
10K
6n8
3027
2009
6013
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED
NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED
NOT USED 319802151030
NOT USED NOT USED
3K9 319802151820
1K8
319802190020 NOT USED NOT USED NOT USED
NOT USED
NOT USED
NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
1 2 3
B3B-EH-A
1344
BZX284-C6V8
10K
6010
F022
BZX284-C6V8
NOT USEDNOT USED
319801706820
6n8
6n8 NOT USED
NOT USED
10K
10K
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
A
B
C
D
E
F
1001-1 B2 1001-2 C2 1001-3 D2 1002 A2 1007 E6 1335 B7 1337 E2 1344 F10 2000 A5 2001 C5 2002 D3 2005 C5 2006 E3 2008 F8 2009 F9 3000 A3 3001 A5 3002 B3 3005 B5 3006 D4 3007 C5 3009 E4 3019 E7 3020 F7 3023 E7 3026 F8 3027 F9 3028 E7 3029 E6 3030 B3 4000 B1 4001 A2 4002 E7 6000 A3 6001 A4 6002 B3 6003 B3 6004 B4 6005 C3 6006 D3 6007 D3 6008 E3 6009 E3 6010 F8 6011 F8 6012 E9 6013 F9 F010 B2 F011 C2 F012 E2 F014 A3 F015 A6 F016 A6 F017 B6 F018 B6 F019 C6 F020 F7 F021 E7 F022 F10 F023 E10 I000 B2 I002 A3 I003 C3 I004 D3 I008 A6 I009 B6 I015 E3 I016 E6 I021 F8 I022 F9 I023 B4
G
X
3141 083 3008.1
123456789
10 11
F_15020_018.eps
020305
Page 55
Circuit Diagrams and PWB Layouts
G2
www.sharatronica.com

Mapping Side Jack Panel G1

55DPTV585 AA 7.
321
Personal Notes:
A
B
E
G2
A10PTV SIDE JACK PANEL
A
B
C
D
E
F
F
G
H
I
J
I
J
3135 033 3217.4
132
E_15000_033.eps
191004
E_06532_012.eps
131004
Page 56
Circuit Diagrams and PWB Layouts
www.sharatronica.com
56DPTV585 AA 7.

Layout Side Jack Panel (Top Side)

1001 B1 1002 A1 1007 C1 1335 B1 1337 C1 1344 C1 9000 A1 9001 B1 9002 A1

Layout Side Jack Panel (Bottom Side)

2000 A1 2001 B1 2002 B1 2005 B1 2006 B1 2008 C1 2009 C1 3000 B1 3001 A1 3002 B1 3005 B1 3006 B1 3007 B1 3009 B1 3019 C1 3020 C1 3023 C1 3026 C1 3027 C1 3028 C1 3029 C1 3030 A1 4000 A1 4001 A1 4002 C1 6000 A1 6001 A1 6002 A1 6003 A1 6004 A1 6005 B1 6006 B1 6007 B1 6008 B1 6009 B1 6010 B1 6011 C1 6012 C1 6013 C1
3141 083 3008.1
F_15020_019.eps
100305
3141 083 3008.1
F_15020_020.eps
100305
Page 57

ACS Module

www.sharatronica.com
1
2
Circuit Diagrams and PWB Layouts
4
53
6
57DPTV585 AA 7.
7
8
9
12
13
14 15
16
17
18
191110
20
A
H1 H1
B
C
D
E
F
G
H
I
J
K
L
ACS MODULE
1000
S15B-JL-R
F101 1 2 3 4 5 6 7 8 9
10 11 12 13 14 15 16 17
1001
S15B-JL-R
1 2 3 4 5 6 7 8 9
10 11 12 13 14 15 16
SDA_B
SCL_B
SYNC_ H
SYNC_V
Reset_S T
17
F104
F10 6
VBLNK
HBLNK
RV RH GV GH
BV
BH
3-J2,2-H13
3-J2,2-H13
2-H2,2-N13
3-I8,2-H2
3-E 2
F10 2
3-K2,2-G13
3-K2,2-G13
3-C11
3-F11
3-D11
3-H11
3-G 5
2-K13
F112
F114
SCL_A_Tx d SDA_A_Rx d
3-G5
SCL_ C HORIZ_SYNC
SDA_C
R
G
B
BLANK
2004
2006
+5V
7000
8
M24128-MN6
?
EEPROM
16Kx8
7
WC NC
65
NOT USED 7001 M24128-MN6
EEPROM
16Kx 8
7
WC NC
65
+3.3V
BC857 B
7021
BC857B
7024
+9V
100n
2001
10u 16V
2003
100n
10u 16V
F11 6
2021
120p
3025
-8V
1K5
5K6
3024
3029
5K6
F117
1
3079
2 3
SDASCL
4
F70 0
+5V
8
?
1 2 3
SDASCL
4
10K
3011
3012
10K
3013
4K7
3026
2K2
7026
BC847B
2024
120p
3030
1K5
7020
BC847B
BC847B
7023
7027
BC847B
10K
3010
10K
+3.3V
2K2
3027
3031
2K2
NVM_wc_N
2-N13
4000
1002
1
WRITE PROTECT
4001
7036 BC847B
3080
1K0
7037
BC847 B
7022
BC847 B
F707
F708
F70 9
4K7
3014
+3.3V
120p
2022
BC857B
7025
4K7
120p
2023
3028
1K5
120p
2025
3032
BC857B
3033
3020
+3.3V
82K
F727
SYNC_H
+3.3V
7028
SYNC_V
4K7
120p
2026
+3.3V
3081
1K0
3082
3083
1K0
33p
2016
F728
15K
3023
1n5
2019
10n
2020
3022
2017
+5V
1K0
+3.3V
3016
10K
3021
10K
15K
1n5
2018
10n
1K2
1K2
3092
3090
1K2
3091
6000
BAS216
7006
LD1117DT33 C
32
OUTIN
COM
100n
2010
+3.3V
3015
10K
10n
2002
F774
2011
1
5005
14 ECLK
72
F002
390n
5006
SDAO7
SDAI8
SCL S9
ADS071
SDAM1
SCL M2
OSCL21
GRE S22
FLT225
FILT24
SYNH27
SYNV28
REST13
TES T11
TBU040
TBU139
TBU238
TBU337
TBU436
TBU535
TBU634
TBU733
VBL K10
MLIN75
OPTT74
OPTI
F00 3
10u
16V
2040
2014
10u
5
I C
SLAVE
MASTER
400 KHz
OSC.
PLL
VERT.
FILTER
TIMEBASE
DAC
GRI D
GNDA47GNDB59GNDC
1003
GND
+3.3V
2034
100n
100n
2009
12
73
VCCN
VCCQ
2
2
I C
2
DAC ENABLE
I C
PLL
LOGI C
PARALLEL
BUS EXPANDER
MEMORY
REGISTER
TIMING
GNDD
67 20
23
1
100n
2029
32
VCCM
START LOGI C
SYSTEM RESET VSYNC
BUS
2
I C
BUS
GNDF
MEM CTRL
VCCL
2013
100n
6
SYS CLK
GNDG43GNDH
100n
2015
42
31
VCCJ
VCCK
GREEN
41
30 76
2030
100n
RED MEM
MEM
BLUE MEM
VCCH
100n
2031
44
FOCUS
PROC.
FOCUS
+9V
VCCG
2028
26
100n
GNDJ29GNDK4GNDL
2012
19
VCCF
POLATION
GNDM
+5V
-8V
M
3005
2-N13
ON_OFF
N
Ref Des
NAFTA Manual Conv FN2
3045 NOT USED
O
7001 NOT USED NOT USED
P
100R
100p
2005
6006
BAS216
3-H8
2-C 3
2-C 3
3135_037_10251_013135_037_10241_01 NAFTA Auto Conv FN1
NOT USED NOT USED NOT USED 319802151030
3135_037_11381_01 2K3 NAFTA Manual Conv FN5
3135_037_11391_01 2K3 NAFTA Auto Conv FN6
RESERVED FN0
10K
NOT USED NOT USED 932211746668
EEPROM M24128-MN6 F 16Kx8
2-C 3
TBU0
3-I8,2-J13
TBU1
TBU2
OPT T
BLANK_ST
NOTES
1. CAPACITANCE VALUES ARE IN FARADS: m=MILI u=MICRO n=NANO p=PICO f=FEMTO
2. RESISTANCE VALUES ARE IN OHMS: R=OHM K=KILO M=MEGA G=GIGA T=TERA
3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.
4. FOR VALUE SEE TABLE.
*
BAS216
L78M05CDT
13
1u0
2007
100n
100n
2035
2032
100n
100n
2033
62
VCCC70VCCD
INTER-
GAIN/
OFFSET
LOOP
011111h
VIDEO
PATTERN
GEN.
GNDP56GNDQ
GNDN
3
53
15
3045
10K
NOT USED
6001
7007
COM
2
VCCA50VCCB
OUTIN
100n
2041
VERT
FILTER
HOR.
FILTER
GNDI
3043
PORT
16V10u
6
6
INTERF.
5K6
BC857B
3044
10K
2008
14
14
14
14
14
14
BANDGAP
4
4
4
7038
F00 1
100n
7002 STV2050 A
D
A
D
A
D
A
D
A
D
A
D
A
D
A
D
A
IREF
D
A
D
A
D
A
+5V
DARV 66
DNRV 65
DAGV 64
DNGV 63
DABV 61
DNBV 60
DNRH 51
DAGH 49
DNGH 48
DABH 46
DNBH
FOCS 69
FOCR 68
REFC
OGAH 57
REFN 54
POUT 77
PORA 80
PORB 79
3042
5K6
VIDR 16
VIDG 17
VIDB 18
3041
7029
BC847 B
52DARH
45
55
BAND GAP ADJUST
58OGAV
F754
78PORC
4K7
3040
33K
2042
10p
3050
10K
7004-2
8
3049
100R
3048
100R
3064
100R
3063
100R
3058
100R
3059
100R
3035
10K
3036
10K
1005
1
120p
2027
3034
1K0
3-F8
3-B 8
3-D8
RED_ST
GRN_ST
BLUE_ST
3074
100R
3073
100R
3068
100R
3069
100R
3054
100R
3053
100R
LM833D
5
6
4
7004-1
8
LM833D
3
2
4
3065
10K
2045
10p
2044
10p
3060
10K
847003-2
LM833D
5
6
7003-1
8
3
2
5
6
3
2
LM833D
4
3075
10K
2047
10p
2046
10p
3070
10K
7005-2
8
LM833D
4
7005-1
8
LM833D
4
3055
10K
2043
10p
2054
7
1
2052
2050
7
1
2048
2058
7
1
2056
3087
+9V
100R
10u
100n
2055
RV
BC847B
-8V
BC847B
-8V
BC847B
GH
-8V
F005
7032
F006
RH
7033
BC847B
+9V
F007
BV
7030
F008
BH
7031
BC847B
+9V
F009
GV
7034
F010
7035
BC847B
3051
330R
3066
330R
3086
100R
10u
100n
2053
3085
100R
10u
100n
2051
3061
330R
3076
330R
3084
100R
10u
100n
2049
3089
100R
10u
2059
100n
3071
330R
3056
330R
3088
100R
10u
100n
2057
+5V
F004
3052
220R
3067
220R
3062
220R
3077
220R
3072
220R
3057
220R
AUTO CONVERGENCE
3135 013 3233.8
1
2
3
5
6
7
8
9
10 11 17
1413124
16
1815
19
1004
B2B-EH- A
1 2
F_15120_022.eps
020805
20
A
B
C
E
F
G
H
I
J
K
L
N
P
Page 58

ACS Module

www.sharatronica.com
2 12
Circuit Diagrams and PWB Layouts
4
5
58DPTV585 AA 7.
7
81 13
9
10
11
14
15
163
17
18
196
20
A
H2 H2
B
C
D
E
F
G
H
I
J
K
L
M M
N
ACS MODULE
SENSOR MUX
F019
1-O8
F020
1-O8
F021
1-O8
ADC_GND
F02 2
2201
100n
BZX284-C5V1
TOP
SHIELD
2252
2205
56p
2204
56p
0001
SHIEL D
1234
6405
SYNC_ H
SYNC_ V
Reset_N
TBU0
TBU1
TBU2
3405
-8V
150R
1-H2,2-N13
3-I8,1-H 2
3-E2
TPWM
ADC
PWM7
VPE1 VPE2
COR
VDS
INT
INT0
SCL1 SDA1 SCL0 SDA0
T2EX
INT5
60
F015
F016
F017
F018
R
G
B
RX TX
2 3 4
T2
NT1
T0
T1
0 1 2 3 4 5 6
0 1 2 3
0 1 2
0 1
INPUT FROM
SENSOR
B4B-EH- A
ADC_GND
B5B-EH- A
ADC_GND
41
21
F142
42
43
48
47
46
52 68 74
16 17 18 22 24 13 28 29
76 78 79 80 83 84 81 82
F100
100
93
F19 3
94
F19 4
95
F19 5
96
F196
97 98
1
2 4 5 6
44
54 59 25
58 57 56
51 50
+5V
1010
3418
1 2 3 4
1011
1 2 3 4 5
+5V
4K7
3206
4307
4308
3241
1K0
3220
1K0
3222
1K0
3215
100R
ADC_GND
F01 2
3K3
3K3
4K7
3208
3207
3221
1K0
3230
100R
NOT USED
3K3
3209
3210
NOT USED
3231
100R
3232
100R
100R
2279
10u
2280
100n
7140-1 TL074C
3
4
1
2
11
2281
3419
-8V
100R
100n
2282
16V10u
3K3
3211
7227
BF570
3291
33K
2250
3n3
3205
100R
3204
100R
3203
3202
100R
100R
3212
100R
3214
3216
100R
3233
1K0
100R
3225
1K0
3217
3235
1K0
100R
3218
3219
1K0
1K0
3226
22K
10K
3227
SAMPLE & HOL D
7140-2 TL074C 7140-3
5
6
3-K2,1-D 2
3-K2,1-D 2
3-J2,1-F 2
3-J2,1-G 2
3-B10
3-D10
3-E1 0
3-G10
3-I8,1-O 9
1-H2,2-H 2
4
7
11
SDA_ C
SCL_C
3-G2
SDA_ A
3-G 2
SCL_ A
SDA_ B
SCL_ B
RED_uP
GRN_uP
BLUE_uP
BLANK_uP
3-H5
Rx d
3-G2
Txd
+3.3V
OPTT
+3.3V
+3.3V
1-D2
HORIZ_SYNC
+3.3V
SYNC_ H
1-N1
ON_OFF
1-A5
NVM_wc_N
6230
3292
100R
BAS216
ADC_GND
7540
BC847B
ADC_GND
+5V
IR
1018
6K8
3236
F013
10K
3237
2K2
10n
B3B-EH- A
SH_CLEAR
KEYBOARD
1019
F014
B2B-EH- A
10n
2235
+3.3V
3224
3223
4K7
2224
TL074C
10
4
8
9
11
470n
2253
F011
3282
100R
6231
BZX284-C5V1
3-J8
ADC_IN
ADC_GND
3293
1K0
+3.3V
2211
16V10u
2210
100n
8
VCC
71
CL K
6
DO
5
REF
GND
4
7101
TLV0831C D
CS_
IN+
IN-
+3.3V
6208
2
3
BAS216
6209
BAS216
3242
100R
NOT USED
3-I8
SH_CLEAR
1K0
3243
ADC_GND
4306
1 2 3
1 2
+5V
2200
100n
2251
16V100 u
7141
74HCT4051
16
VCC
7
MDX
0 7
13
0
14
1
15
2
12
3
1
4
5
5
2
6
4
7
GNDVEE
8
11
0
10
8X
9
2
6
G8
3
16V100u
ADC_GND
16V47u
2207
100n
2206
2223
3240
100n
3229
24K
100R
BOTTOM
SHIELD
3228
100R
3234
F17 2
100R
2311
F170
12M
1200
0002
SHIELD
1234
3294
100R
3296
100R
3298
3299
100R
100R
3400
3401
100R
100R
NOT USED
1K0
3213
7100
SAA5667H L
31
32
34
35
53
55
70
71
69
72
73
10n
61
20
14
9
10
19
85 86 87 88 89 90 91 92
49 40 39 38 27 26 23 15 67 66 65 64 37 36 8 7 77 3 33
3295
100R
3297
100R
456375
VDDA
CVBS 0
CVBS 1
SYNC_FILTER
IREF
HSYNC
VSYNC
XTALIN
XTALOUT
OSCGND
RESET
RESET
INTD
ALE
EA
RD
WR
PSEN
AD<0:7>
0
7
A<0:17>
0
14 A15_L N A16_L N A17_L N A15_B K
VSSC
VSSA
3011629912
SENSOR_1
SENSOR_2
SENSOR_3
SENSOR_4
VDDC
?
+3.3V
5200
100u
VDDP
MOVX_WR
MOVX_RD
P0<0:7>
P1<0:7>
P2<0:7>
P3<0:7>
ROMBK
RAMBK
VSSP
FRAME
PWM
A
B
C
D
E
F
G
H
I
J
K
L
N
O
P
3135 013 3233.8
1
O
AUTO CONVERGENCE
3135 013 32338
4
65
7
8
9
10
11
1413
1512
1623
17 18
19
F_15120_023.eps
20
P
020805
Page 59

ACS Module

www.sharatronica.com
1
2
Circuit Diagrams and PWB Layouts
3 13
4 10
5 16
6
7
8
9
59DPTV585 AA 7.
11
12
14
15
17
18
19
20
A
H3 H3
B
C
D
E
F
G
I
J
K
ACS MODULE
4300
+5V
6308
6310
NOT USED
TESTPOINT
2313
100n
10n
2310
BAS216
BAS216
F027
F028
4301
NOT USED
SCL_A
SDA_A
Reset_S T
Reset_N
Txd
1-I2
IIC BUS
2-I13
2-G13
2-G13
SDA_ B
SCL_B
SDA_C
SCL_C
+9V
3332
3333
2-I2
10K
2K2
4302
4303
NOT USED
4305
NOT USED
2-H13,1-F 2
2-H13,1-G 2
2-G13,1-D 2
2-G13,1-D 2
RESET
1302
1
RT-01T-1.0B
+3.3V
2312
100n
7301
RESET
3200
100R
10p
BAS216
BAS216
14K
2318
2319
VDD
RESE T LOGIC& TIMER
REF VOLT
OF 1.25V
GND
10p
TEST CONNECT
10p
2TPS3707-33D
3
4304
I2C BUS B
03JQ-S T
2320
RESET _
1300
RESET
8
7
6
NC
PFO_
2315
SCL_A_Tx d
1-D2
SDA_A_Rx d
1-D2
Rx d
2-I13
SDA_B
1
GND
2
SCL_ B
3
10p
RESET
F301
1
MR_
45
PFI
3331
100R
6309
BAS216
2317
6311
BAS216
3201
100R
+5V
6312
6313
BAS216
6314
6315
BAS216
OSD "OR" CIRCUI T
+5V
2-H13
1-N15
1-N14
1-N14
1-O8
2-H2,1-H 2
2-J13,1-O 9
2-E17
2-D17
3329
1K0
3328
1K0
3327
1K0
3326
1K0
RED_ST
100n
2314
GRN_ST
100n
BLUE_ST
BLANK_ST
SYNC_V
OPTT
SH_CLEAR
ADC_IN
7014
3306
BC847B
+5V
7015
BC847B
+5V
7016
BC847B
+5V
7017
BC847B
3348
100R
3350
100R
100R
2-H13
3307
100R
2-H13
3308
100R
BLANK_uP BLUE_uP GRN_uP RED_uP
2-I13
3309
100R
3349
100R
3351
100R
3314
47R
3315
47R
3316
47R
3317
47R
1301
B6B-EH- A
3322
3323
3324
3325
1 2 3
DEVELOPMENT
4
CONNECTOR
5 6
F02 3
100R
NOT USED
F02 4
100R
NOT USED
F02 5
100R
NOT USED
F02 6
100R
NOT USED
COMPUTER
R
1-E 2
G
1-E 2
B
1-E 2
BLANK
1-E 2
ADC_GND
L
M
N
2 K
N
O
3135_037_10241_01 X 3135_037_10251_01 X 3135_037_11381_01 X 3135_037_11391_01
P
RESERVED X
3 _ N A F T A _ A u t o
X
N
2 K 3 _ N A F T A _ M a n
N
A
O
A
F
T
F
T
_
T
U
A
A
S
_
_
E
M
A
a
D
u
n
t
u
o
a l
Ref De s 3 135_037_10241_0 1
NAFTA Manual Conv FN2
3322 NOT USED
3323 NOT USED
3324 NOT USED NOT USED NOT USED NOT USED 31980215101 0
3325 NOT USED NOT USED NOT USED NOT USED
4300 NOT USED 4301 NOT USED NOT USED NOT USED NOT USED 319802190020 4303 NOT USED NOT USED 4305 NOT USED NOT USED NOT USED NOT USED 319802190020
3135_037_10251_01 NAFTA Auto Conv FN1
NOT USED
NOT USED NOT USED NOT USED
NOT USED NOT USED NOT USED 319802190020
SHEET 3
3135_037_11381_01 2K3 NAFTA Manual Conv FN5
NOT USED
NOT USED
3135_037_11391_01 2K3 NAFTA Auto Conv FN6
NOT USED 319802151010
NOT USED 319802190020
RESERVED FN0
100R 319802151010
100R
100R 319802151010
100R
3135_037_10241_01
Ref De s
FN2
1010 NOT USED 242202512479
1011 NOT USED 242202512481
2200 NOT USED 319802321040
2201 NOT USED 319802321040
2210 NOT USED
2211 NOT USED 319803041090
2250 NOT USED NOT USED
2251 NOT USED
2252 NOT USED 319803041010
2253 NOT USED
2279 NOT USED 319803041090
2280 NOT USED 319802321040
2281 NOT USED
2282 NOT USED
3208 NOT USED NOT USED NOT USED NOT USED 319802153320
NOT USED NOT USED NOT USED
3209
3241 NOT USED
3242 NOT USED
3243 NOT USED 319802151020
3282 NOT USED
3291 NOT USED 319802153330
3292 NOT USED 319802151010
3293 NOT USED
3294 NOT USED
3295 NOT USED 319802151010
NOT USED 319802151010
3296
3297 NOT USED 319802151010
3298 NOT USED NOT USED NOT USED NOT USED 319802151010
3299 NOT USED NOT USED NOT USED NOT USED
3400 NOT USED
3401 NOT USED
3405 NOT USED 319802151510
3418 NOT USED 319802151010
3419 NOT USED
6208 NOT USED
6209 NOT USED 934025530115
6230
NOT USED
NOT USED 934038610115
6231
6405 NOT USED 934038610115
7101 NOT USED
7140-1 NOT USED 932201584668
7140-2 NOT USED 932201584668
7140-3 NOT USED
7141 NOT USED
7540 NOT USED 319801042030
3135_037_10251_01 NAFTA Auto Conv FN 1
B4B-EH- A
B5B-EH- A
100n
100n 319802321040
100n
10u 16V
319801703320
3n3 319803041010
100u 16V
100u 16V
319801724740
470n
10u
100n 319802321040
100n 319803041090
10u 16V
319802151020
1K0 NOT USED NOT USED NOT USED 319802151010
1K0 319802151010
100R
33K
100R 319802151020
1K0 319802151010
100R
100R
100R
100R
NOT USED
NOT USED NOT USED NOT USED
150R
100R 319802151010
100R 934025530115
BAS216
BAS216 934025530115
BAS216
BZX284-C5V 1
BZX284-C5V 1 932217307668
TLV0831C D
TL074C
TL074C 932201584668
TL074C 933715300118
74HCT4051 MDX
BC847B
SHEET 2
3135_037_11381_01 2K3 NAFTA Manual Conv FN5
NOT USED
NOT USED
NOT USED 319802321040
NOT USED
NOT USED 319802321040
NOT USED 319803041090
NOT USED 319803041010
NOT USED 319803041010
NOT USED
NOT USED
NOT USED 319802321040
NOT USED
NOT USED 319803041090
NOT USED
NOT USED 319802151020
NOT USED
NOT USED
NOT USED 319802151010
NOT USED
NOT USED 319802151010
NOT USED 319802151010
NOT USED
NOT USED 319802151010
NOT USED
NOT USED 319802151510
NOT USED
NOT USED
NOT USED 934025530115
NOT USED 934025530115
NOT USED 934025530115
NOT USED 934038610115
NOT USED 934038610115
NOT USED
NOT USED
NOT USED 932201584668
NOT USED
NOT USED 933715300118
NOT USED 319801042030
3135_037_11391_01 2K3 NAFTA Auto Conv FN6
242202512479
B4B-EH- A 242202512481
B5B-EH- A
100n 319802321040
100n
100n
10u 16V
319801703320
3n3
100u 16V
100u 16V
319801724740
470n 319803041090
10u
100n 319802321040
100n
10u 16V
NOT USED 319802153320
319802151020
1K0
1K0 319802151010
100R 319802153330
33K
100R 319802151020
1K0
100R
100R 319802151010
100R
100R
NOT USED 319802151010
150R 319802151010
100R 319802151010
100R
BAS216
BAS216
BAS216
BZX284-C5V 1
BZX284-C5V 1 932217307668
TLV0831C D 932201584668
TL074C
TL074C 932201584668
TL074C
74HCT4051 MDX
BC847B
RESERVED FN0NAFTA Manual Conv
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
3K3
3K3 NOT USED
100R NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
100R 319802151010
100R
100R 319802151010
100R NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
NOT USED
AUTO CONVERGENCE
3135 013 3233.8
1 1110
2
3
4
5
68
7
9
3135 013 32338
12
14
15
16
17
18
1913
F_15120_024.eps
020805
20
A
B
C
D
E
F
G
HH
I
J
K
L
M
N
O
P
Page 60
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Mapping ACS Module H1-H3

60DPTV585 AA 7.
4321
5
6
7
1312111098
C
D
A
B
H4
ACS MODULE: MAPPING
A
B
C
D
G
H
E
F
E
F
G
H
I
I
J
3135 013 3233.8
J
AUTO CONVERGENCE
3135 013 32338
1
65432 1312111098
7
F_15120_025.eps
020805
Page 61
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout ACS Panel (Top Side)

61DPTV585 AA 7.
3135 013 3233.8
F_15120_026.eps
020805
Page 62
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout ACS Panel (Bottom Side)

62DPTV585 AA 7.
3135 013 3233.8
F_15120_027.eps
020805
Page 63

HOP Panel

3 1 0 1 0 0 1 1 2 2 5 0 1 1 1 2 2 2 2 2 3 3 3 4 4 4 4 4 5 5 5 6 6 6 6 7 7 7 7 8 8 8 8 9 9 9 9 0 0 0 1 1 1 1 1 2 2 2 2 2 3 3 3 3 3 3 3 3 3 3 4 0 0 0 0 1 1 1 2 2 2 3 4 4 5 0 0 0 1 1 1 1 1 1 1 0 0 0 0 0 0 0 0 1 1 1 1 2 2 2 3 5 5 5 5 5 6 6 6 1 1 1 1 1 1 1 1 1 2 2 2 2 2 2 2 2
www.sharatronica.com
J1
A
B
To 1207 of
CRT Panel
(BLUE)
RES
C
D
E
F
G
H
I
J
K
RES
Circuit Diagrams and PWB Layouts
63DPTV585 AA 7.
12345678910111213141516
HOP PANEL
DAC+12V+8V
1-J7
EH-B
+8V
+8V
39K
3732
3725
1n0
22K
3724
5
1K0
3644
100p
1510
3731
2724
100n
+8V
7900-1
LM393D
2911
1u0
2900
1u0
18K
3901
1
2
BAS316
3
4
5
6
7
8
9
10
11
12
2958
47u
2957
100n
EH-B
EH-B
EH-B
1R
3750
1K0
3740
2741
1701
1
2
345
1711
1
2
3
4
1721
1
2
345
2740
100n
2750
100n
2702
100n
2644
To 1510 of
2901
1u0
2903
2904
10p
2905
10p
2906
1n0
1n0
4907
2909
2910
10p
3911
10p
2912
47K
100n
2913
1n0
To 1210 of
CRT Panel
(BLUE)
1720 EH-B
123
4K7
7730
3723
BF550
1K0
1K1
3K3
1u0
2731
3727
220R
+12V
8
1
4
6643
3601
3602
100R
100R
3603
3604
100R
100R
4605
3608
47R
3609
3613
100R
2K2
3614
2968
100n
4957
123456789
3730
PMBT2369
3
2
3607
1K0
100R
+5V
3957
1K2
3722
7720
1u0
2720
10K
3903
3902
10K
1u0
2933
1u0
2902
2601
2602
1n0
1n0
+8V
2963
1R
3965 100R100R
3953
100R
3955
100R
3956 3966
To 1210 of
CRT Panel
(GREEN)
1710 EH-B
2
3
1
+8V
3726
100R
39K
3715
-8V
7721
BF550
22K
3714
100n
2721
100n
2714
820n
5711
680R
44BO42
BLKIN
VDOA
VDOB
EWO
EHTIN
FLASH
GND1
DECVD
HOUT
SCO
SCL
SDA
HSEL
12
2615
100n
2961
16
47u
1R
1950
To 1950 of
JL
interconnections (SSM)
100n
3711
680R
3710
100R
43
BCL
HFB
13
2616
47u
3721
5721
820n
3720
100R
3643
100R
1
2
3
4
6
2607
7
47n
8
9
10
11
+8V
-12V
+12V
S1D
6963
16
1R
3952
47u
1R
3951
2951
2953
100n
2952
100n
3716
100R
-8V
7711
BF550
3713
1K0
2711
100n
+8V
1K2
3712
75R
3707
7710
PMBT2369
47R
3708
1u0
2710
+8V
2638
16
47u
2639
100n
2637
100n
2635
100n
39
40
41
38
RO
GO
BL2
VP2
7600
TDA9331H
VP1
VSC
IREF
DPC
14
3616
39K
DECBG
17
15
16
18
2617
22n
2620
+8V
37
BI2
GND2
19
1601
DSX840
12M
12p
2618
2u2
2619
22n
36
GI2
XTALI
20 21
35
RI2
XTALO
2621
34
PWL
FBCSO
DACOUT
LPSU
22
12p
BL1
BI1
GI1
RI1
YIN
UIN
VIN
HD
VD
+8V
3639
100R
2636
100n
2634
3705
3704
2704
22n
39K
22K
100n
PMBT2369
33
32
31
30
295
28
27
26
25
24
23
7700
3645
2633
1-B2
3702
2700
100R
1u0
2632
100n
2630
100n
2627
100n
DAC
3623
100R
BC807-25
To 1210 of
CRT Panel
(RED)
1700 EH-B
1
3703
1K0
1K2
1u0
3646
100R
1K0
3633
100R
-8V
7922
3922
-12V
J2
J2
SCL
B-BIAS
To 1610 of
5
4
3
2
1
3627
10R
1610
EH-B
SDA
7800
1
TDA8444T/N4
3
4
+12V
2
100n
2800
6495
BAS316
3496
22K
3495
1030 JQ-S
1
2
3
SDA
SCL
VP
SDA
SCL
VMAX
SLAVE RECEIVER
REFERENCE
VOLTAGE
GENERATOR
DAC0-7
DAC09
DAC110
DAC211
GND
8
100K
To 1030 of
TUNER (SSM)
DAC312
1K0
3812
3810
1K0
1K0
3809
3811
2812
100n
2810
2811
100n
2809
100n
SHARP
J2
U
J2
V
J2
HD
J2
VD
J2
Hf
NOTES
1. CAPACITANCE VALUES ARE IN FARADS: m=MILI u=MICRO n=NANO p=PICO f=FEMTO
2. RESISTANCE VALUES ARE IN OHMS: R=OHM K=KILO M=MEGA G=GIGA T=TERA
3. SAFETY TRIANGE REPRESENTS PCEC REPLACEMENT PART ONLY.
4. FOR VALUE SEE TABLE.
*
A05A16A2
I2C BUS
DAC413
DAC514
1K0
3814
15K
3813
2814
100n
2813
100n
7
DAC615
DAC716
10K
10K
3816
10K
3815
100n
2816
100n
3824
2815
100n
2
3
G-BIAS
R-BIAS
3706
100R
-8V
7701
BF550
47u
2924
100n
2701
16
3701
5701
820n
680R
3700
100R
3647
100R
10K
3648
3638
47R
3637
47R
3636
47R
3635
47R
3634
2631
100n
2628
100n
2626
100n
3624
+8V
1K0
3632
10R
3631
10R
3630
10R
3628
10R
3626
10R
6923
BZX284-C6V8
2923
1u0
1K0
10R
3923
2922
47u
J2
J2J2J2
BPb
GY
47u
UU
RPr
F_15120_028.eps
+12V
1K0
3426
+12V
3429
180R
7412
BF550
3424
390R
3p3
2424
2409
100n
1K0
3470
100n
1K0
3471
2471
1n0
2470
2472
3441
+12V
1K0
3443
100R
3444
390R
2429
+12V
100n
1K0
3480
100n
1K0
3481
2481
1n0
2480
2482
1K0
3460
180R
3467
390R
100n
3464
390R
2449
+12V
100n
1K0
3490
1K0
3491
2491
1n0
2490
2492
22R
3449
180R
3428
220R
+12V
7410
MC1496D
3448
+12V
7430
MC1496D
3468
+12V
7450
MC1496D
22R
+OUTPUT
GAIN_ADJ2
GAIN_ADJ1
+SIG_INP
3447
+OUTPUT
GAIN_ADJ2
GAIN_ADJ1
+SIG_INP
22R
3462
220R
+OUTPUT
GAIN_ADJ2
GAIN_ADJ1
+SIG_INP
3420
-SIG_INP
390R
-SIG_INP
-SIG_INP
3422
3425
470R
+CARRIER
8
NC4
13
100n
-CARRIER
10
NC3
11
-OUTPUT
12
NC2
1n0
9
VEE
14
7432
BF550
3p3
2444
3445
470R
+CARRIER
8
NC4
13
100n
-CARRIER
10
NC3
11
-OUTPUT
12
NC2
1n0
9
VEE
14
7452
BF550
3p3
2464
3465
470R
+CARRIER
8
NC4
100n
13
-CARRIER
10
NC3
11
-OUTPUT
12
NC2
1n0
9
VEE
14
7413
BF550
+12V
+12V
3818
100K
3817
100K
TINT
VS1
VS2
SYNCSEL
10K
3825
10K
10K
3826
3801
3802
3427
390R
1K0
SREF
1K0
2473
1u0
2802
SHARP
7433
BF550
SREF
2483
SHARP
+12V
3466
7453 BF550
SREF
2493
SHARP
BIAS
BIAS
BIAS
3421
+12V
1K0
7414 BF550
3419
430R
2419
1K0
10p
7411
PMBT2369
+12V
22R
3418
3K9
3416
7
NC1
7434
BF550
3442
220R
NC1
3463
NC1
2416
6
100n
5
3415
4
22R
3
3414
2
100R
1
3413
22R
3446
1K0
3439
430R
2439
10p
7431
PMBT2369
+12V
3436
7
6
5
3435
4
22R
3
3434
2
100R
1
3461
1K0
7454 BF550
3459
430R
2459
1K0
10p
PMBT2369
+12V
7
3456
6
5
3455
4
22R
3
3454
2
100R
1
3453
22R
1u5
5411
5410
680n
4p7
2420
+12V
3K9
3K9
3438
2436
100n
5431
5430
3433
22R
2440
+12V
7451
3458
2456
100n
5451
5450
2460
VV
2422
+12V
68p
2421
33p
3412
180R
22R
1u5
680n
4p7
22R
1u5
680n
4p7
15K
3410
2410
47u
5K6
3411
2442
+12V
68p
2441
33p
2462
68p
2461
33p
180R
180R
15K
3430
+12V
2430
16
5K6
3431
15K
3450
2450
47u
16
5K6
3451
3432
3452
A
J2
B
C
D
J2
E
F
G
J2
H
J2
I
J
J2
K
10 15 16 16 17 17 17 17 17 17 19 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 24 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 26 27 27 27 27 27 27 27 27 27 27 27 27 27 27 28 28 28 28 28 28 28 28 28 28 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 29 34 34 34 34 34 34 34 34 34 34 34 34 34 34 34 34 34
Page 64

HOP Panel

www.sharatronica.com
J2
A
B
C
D
E
F
G
H
I
J
J1
HD
J1
VD
J1
J1
3139 123 6064.1
Circuit Diagrams and PWB Layouts
64DPTV585 AA 7.
1234567891011121314 15
HOP PANEL
J1
+12V
7511
PMBT2369
3530
+12V
3540
330R
7521
PMBT2369
+5V +5V
2330
100n
3339
Hf
100R
330R
3523
3522
16
12
8
4
7
9
3513
3512
1K8
3521
22R
15K
SYNCSEL
7330
74HC157D
VCC
GND
1K8
15K
MUX 1~
2509
100n
3511
22R
TREF
TREF
G1
EN
1
+12V
+12V
UU
10R
3510
2511
47u
47u
2510
3515
22R
3516
3519
1K0
3K9
VV
1-C19
10R
3520
2521
47u
47u
2520
3525
22R
1K0
3526
3529
3K9
1M0
3331
1
100n
2331
15
2
3
5
6
11
10
14
13
3332
3335
100R
HOUT2
VOUT2
2519
2529
100R
3336
3517
470R
3518
22R
3527
470R
3528
22R
BAS316
3333
100R
+SIG_INP
1
GAIN_ADJ1
2
GAIN_ADJ2
3
4
5
6
7
100n
1
2
3
4
5
6
7
100n
6331
-SIG_INP
BIAS
+OUTPUT
NC1
+SIG_INP
GAIN_ADJ1
GAIN_ADJ2
-SIG_INP
BIAS
+OUTPUT
NC1
10
9
7510
MC1496D
7520
MC1496D
16
CX
RCX
>
1
R
8
74HC4538D
100R
15
14
12
11
13
7328-B
-OUTPUT
-CARRIER
+CARRIER
-OUTPUT
-CARRIER
+CARRIER
2329
14
VEE
9
NC2
12
11
NC3
10
13
NC4
VEE
NC2
NC3
NC4
2502
8
2500
14
9
12
2506
11
1n0
10
13
2507
100n
8
1n0
2505
2K2
3325
100n
2325
470p
3326
1K0
68p
2326
+5V
3531
2501
22R
3501
1n0
22R
3502
220R
100n
3500
22R
1n0
TREF
TBIAS
3541
22R
22R
3506
3507
220R
3505
22R
16
62
2K2
3323
+12V
2806
1n0
7530
PMBT2369
3K3
3532
4K7
3806
7805
BC847B
1K0
4K7
1u0
3805
3807
2807
+12V
2931
1n0
7540
PMBT2369
3K3
3542
3324
2324
1
CX
>
R
4
57
3
7328-A
74HC4538D
470p
+5V
RCX
1
8
J1
J1
J1
J1
U
TINT
J1,J2
+12V
4K7
3803
3K
1u0
3804
2804
V
J1
TINT
J1,J2
1-N20
RPr
J1
1-J20
GY
J1
1-F20
BPb
J1
+5V
68K
2K2
3320
4K7
3321
4K7
3322
VOUT2
HOUT2
CSO
2321
470p
2322
470p
1234567891011121314 15
SCL
SDA
VS1
2291
100n
15 B-OUT
22 HD-OUT
+5V
2290
47u
R-OUT21
G-OUT19
VD-OUT14
20
VCC
1
2
1
2
1
2
1
2
1
2
HD-S-SIG-DET
7210
BA7657F
R1-IN
R2-IN
G1-IN
G2-IN
B1-IN
B2-IN
VD1-IN
VD2-IN
HD1-IN
HD2-IN
DET
17 C-S-OUT C-V-IN 18
SYNC SEPA
CTL 16
LOGIC
GROUND
46810
1111
JET
+5VA
3456789
1
2
6112
BAS316
2110
3111
47R
47u
+5VA
6152
6151
+5VA
6172
6171
6111
+5VA
6132
6131
BAS316
BAS316
BAS316
BAS316
+5VA
+5VA
+5VA
BAS316
6122
BAS316
2120
47u
6121
BAS316
BAS316
2130
47u
BAS316
+5VA
+5VA
6147
BAS316
6146
BAS316
+5V
2944
2150
47u
6162
BAS316
2160
47u
6161
BAS316
2170
47u
6182
BAS316
220R
6181
BAS316
+5VA
6187
BAS316
220R
6186
BAS316
3110
3121
47R
3120
3131
47R
3130
6142
BAS316
3141
220R
6141
BAS316
3146
220R
+5VA
3944
10R
100n
100n
2945
3151
47R
75R
3150
3161
47R
75R
3160
3171
47R
75R
3170
3181
1K01K0
3180
3186
3185
75R
75R
75R
1K0
3140
3145
RES
1110 SUB-D
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16 17
FROM
1K0
P1255
1151 1 2 3 4 5 6
B6B-EH-A
F_15120_029.eps
1152 1 2 3 4
S4B-EH
1 2 3 4 5 6
S6B-EH
RES
020805
1153
VOUT1
HOUT1
+5V
2191
100n
21 R-OUT
19 G-OUT
B-OUT15
14 VD-OUT
HD-OUT22
17
16
2190
47u
20
VCC
1
2
1
2
1
2
1
2
1
2
HD-S-SIG-DET
15
+5V
BA7657F
VD1-IN
VD2-IN
HD1-IN
HD2-IN
R1-IN
R2-IN
G1-IN
G2-IN
B1-IN
B2-IN
13
14
7110
1
7
3
9
5
11
12
13
24
23
2
RES
10
11
12
DET
C-S-OUT17 18C-V-IN
SYNC
SEPA
LOGIC
GROUND
4211
2210
47u
4210
2220
47u
4220
2230
47u
4230
1
7
3
9
5
11
12
13
24
23
3248
2
2248
470K
470p
1-E13
VS2
100n
2216
VOUT1
HOUT1
3247
+5V
68K
To 1250 of
1u0
2247
4221
4231
4213
4223
3281
2270
220R
3286
3271
220R
1250
JL
123456789
1K0
3285
3270
1K0
3280
16CTL
46810
47u
2260
47R
3261
75R
3260
100n
2111
47u
47u
2250
47R
47R
3251
75R
75R
3250
1110 B15 1111 A13 1151 E15 1152 J15 1153 E15 1250 I10 2110 B14 2111 E12 2120 B14
A
2130 C14 2150 F14 2160 G14 2170 H14 2190 B11 2191 B11 2210 F9 2216 I9 2220 F9 2230 F10 2247 I10 2248 H9
B
2250 H12 2260 H11 2270 H11 2290 F8 2291 F8 2321 I7 2322 I7 2324 H6 2325 H4 2326 I5 2329 H4
C
2330 H1 2331 H3 2500 C5 2501 B5 2502 C5 2505 F5 2506 E5 2507 F5 2509 A2 2510 B3 2511 B3 2519 C3
D
2520 E3 2521 D2 2529 F3 2804 D7 2806 B6 2807 D6 2931 E6 2944 F14 2945 F14 3110 B15 3111 B14 3120 C15
E
3121 B14 3130 C15 3131 C14 3140 D15 3141 D14 3145 E15 3146 E14 3150 F14 3151 F14 3160 G14 3161 G14
F
3170 H14 3171 H14 3180 I14 3181 I14 3185 J14 3186 J14 3247 H10 3248 H9 3250 I12 3251 H12 3260 I11 3261 H11
G
3270 I11 3271 H11 3280 J11 3281 H11 3285 I11 3286 H11 3320 H6 3321 I6 3322 I6 3323 I5 3324 H6 3325 H4
H
3326 H5 3331 G3 3332 I3 3333 H3 3335 I3 3336 I3 3339 I1 3500 C5 3501 C5 3502 C5 3505 F5
I
3506 E5 3507 F5 3510 A3 3511 B2 3512 B2 3513 A2 3515 B2 3516 B2 3517 B3 3518 B3 3519 C3 3520 D3
J
3521 E2 3522 E2 3523 D2 3525 E3 3526 E3 3527 E3
3528 E3 3529 F3 3530 B2 3531 B5 3532 C6 3540 D1 3541 E5 3542 E6 3803 C6 3804 D6 3805 D6 3806 D6 3807 D6 3944 E14 4210 F9 4211 E11 4213 F11 4220 F10 4221 F11 4223 F11 4230 F10 4231 F11 6111 B13 6112 B13 6121 C14 6122 B14 6131 C13 6132 C13 6141 D14 6142 D14 6146 E14 6147 E14 6151 F13 6152 F13 6161 G13 6162 G13 6171 H13 6172 H13 6181 I13 6182 I13 6186 J14 6187 J14 6331 G3 7110 B12 7210 F9 7328-A I6 7328-B I4 7330 G2 7510 B4 7511 B1 7520 E4 7521 E1 7530 B6 7540 E6 7805 D6
Page 65
Circuit Diagrams and PWB Layouts
J3
www.sharatronica.com

Diversity HOP Panel J1 and J2

1
65DPTV585 AA 7.
765432
Personal Notes:
A
HDR2K4 HOP 28KHZ AP AUG
J3
N3 HOP DB15 N3 HOP W/O DB15
Ref Des 3135_037_12781_01 3135_037_12791_01 RESERVED 1030 NOT USED NOT USED 242202517535
NOT USED NOT USED NOT USED
2603
B
2604 NOT USED NOT USED NOT USED
2605 NOT USED NOT USED
2608 NOT USED NOT USED NOT USED
2900 NOT USED NOT USED 319801721050
C
3611 NOT USED NOT USED NOT USED
3613 319802152220
2K2
3617
NOT USED NOT USED NOT USED
3618 NOT USED NOT USED NOT USED
D
E
F
G
NOT USED NOT USED NOT USED
3619
3620 NOT USED NOT USED NOT USED
3621 NOT USED NOT USED
3625 NOT USED NOT USED NOT USED
3629 NOT USED NOT USED
3816 NOT USED NOT USED 319802151030
3817 NOT USED NOT USED 319802151040
3818 NOT USED NOT USED
3826 NOT USED NOT USED 319802151030
4957 NOT USED 7601 NOT USED NOT USED NOT USED
7602 NOT USED NOT USED NOT USED
NOT USED NOT USED NOT USED
7605-1
7605-2 NOT USED NOT USED NOT USED
H
I
J
K
L
319802152220
2K2
NOT USED 319802190020
SHEET 1
RESERVED
JQ-S
NOT USED
1u0
NOT USED
NOT USED
NOT USED
10K
100K 319802151040
100K
10K
N3 HOP DB15 N3 HOP W/O DB15
Ref Des 1110 242202516857
SUB-D
1111 NOT USED NOT USED 242202517519
2110 319803044790
47u
2120 319803044790
47u
2130 319803044790
47u
2210 319803044790
47u
2220
319803044790 47u
2230 319803044790
47u
3110
319802157590 75R
3111 319802154790
47R
3120
319802157590 75R
3121 319802154790
47R
319802157590
3130
75R
3131 319802154790
47R
3140 319802151020
1K0
319802152210
3141
220R
3145 319802151020
1K0
3146
319802152210 220R
3250 NOT USED NOT USED 319802157590
NOT USED NOT USED 319802157590
3260
3270 NOT USED NOT USED 319802157590
3280 NOT USED NOT USED 319802151020
3285 NOT USED NOT USED 319802151020
3332 NOT USED NOT USED 319802151010
3333 NOT USED NOT USED
3335 NOT USED NOT USED 319802151010
3336 NOT USED
4210 NOT USED 319802190020 NOT USED 4211 NOT USED 319802190020 4213 NOT USED 319802190020 NOT USED 4220 NOT USED 319802190020 NOT USED 4221 NOT USED 319802190020 NOT USED 4223 NOT USED 4230 NOT USED 319802190020 NOT USED 4231 NOT USED 319802190020 NOT USED
319801010630
6111
BAS316
6112 319801010630
BAS316
6121
319801010630 BAS316
6122 319801010630
BAS316
319801010630
6131
BAS316
6132 319801010630
BAS316
6141 319801010630
BAS316
319801010630
6142
BAS316
6146 319801010630
BAS316
319801010630
6147
BAS316
6331 NOT USED NOT USED 319801010630
7110 932211562668
BA7657F
3135_037_12791_013135_037_12781_01 NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED 319802151010
319802190020 NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED
NOT USED NOT USED
NOT USED NOT USED
NOT USED
RESERVED
RESERVED
JET
NOT USED
NOT USED
75R
75R
75R
1K0
1K0
100R
319802151010 100R
100R
100R
NOT USED
NOT USED
BAS316
NOT USED
SHEET 2
A
B
C
D
E
F
G
H
I
J
K
L
M
N
O
P
3135 033 3429.2
12345
M
N
O
P
E_15000_044.eps
191004
67
E_06532_012.eps
131004
Page 66
Circuit Diagrams and PWB Layouts
J4
www.sharatronica.com

Mapping HOP Panel Part 1

66DPTV585 AA 7.
C
D
A
B
J4
HDR2K4 HOP 28KHZ AP AUG
54321
6
7
1312111098
A
B
C
D
G
H
E
F
E
F
G
H
I
I
J
3135 033 3429.2
J
E_15000_045.eps
111004
1
65432 1312111098
7
Page 67
Circuit Diagrams and PWB Layouts
J5
www.sharatronica.com

Mapping HOP Panel Part 2

67DPTV585 AA 7.
4321
Personal Notes:
C
D
A
B
E
J5
HDR2K4 HOP 28KHZ AP AUG
A
B
C
D
E
G
H
F
F
G
H
I
J
I
J
3135 033 3429.2
1432
E_15000_046.eps
191004
E_06532_012.eps
131004
Page 68
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout HOP Panel (Top Side)

68DPTV585 AA 7.
3139 123 6064.1
F_15120_030.eps
020805
Page 69
Circuit Diagrams and PWB Layouts
www.sharatronica.com

Layout HOP Panel (Bottom Side)

69DPTV585 AA 7.
3139 123 6064.1
F_15120_031.eps
020805
Page 70

Keyboard Panel

K1
www.sharatronica.com
Circuit Diagrams and PWB Layouts
70DPTV585 AA 7.
C
D
A
E
1
2
53
6
7
8
94
10
1211
13
KEYBOARD/LIGHT SENSOR AP
K1
A
6102
BZX284-C6V8
6103
BZX284-C6V8
+9V
LIGHT_SENSOR
I020
4100
1K5
3100
SKQNAB
1401
3101
100R
I014 I015
SKQNAB
1402
240R
SKQNAB
3102
1403
470R
SKQNAB
3103
1404
I016
1K5
SKQNAB
1405
3104
I017
3105
820R
I018 I019
SKQNAB
1406
3K6
3106
SKQNAB
1407
EMG STAR PEMG
BB
C
D
E
F
1201
1 2 3 4 5 6 7
S7B-EH
1202
1 2
106957
F
2101
10u 16V
+5V_STANDBY KEYBOARD
+9V ON_OFF_LED LIGHT_SENSOR
RC5
I006
ON_OFF_LED
2102
470n
3110
1M5
I009
I021
3
2
4120
I007
I008 I012
7000-1
84
LM358DR2
1
I022
1K2
ORANGE-RED6101-1
I010
+5V_STANDBY
3122
TLUV5300
GREEN
6101-2
3111
10K
3112
3K3
2104
470n
TLUV5300
5
6
I024
3121
560R
1301 LED-HOLDER
84
7000-2 LM358DR2
7
KEYBOARD
I013
+9V
I011
3113
4K7
BPW46
6104
1M5
3115
3K3
3116
1K0
3117
3K3
3118
G
H H
6105 TSOP1736UU1
OUT
GND
2
VS
VS
3
OUT
1
GND
I
I005
I001 I002
2103
100u 16V
I004
6K8
10K
3108
3114
3107
330R
3109
470R
I003
+5V_STANDBY
RC5
NOTES
1. CAPACITANCE VALUES ARE IN FARADS: m=MILI u=MICRO n=NANO p=PICO f=FEMTO
2. RESISTANCE VALUES ARE IN OHMS: R=OHM K=KILO M=MEGA G=GIGA T=TERA
3. SAFETY TRIANGLE REPRESENTS PCEC REPLACEMENT PART ONLY.
4. FOR VALUE SEE TABLE.
J
3135 033 3343.4
1
2
3
49
5
6
7
8
10 12
11 13
E_15000_049.eps
191004
G
I
J
Page 71

Mapping Keyboard Panel

K2
www.sharatronica.com
Circuit Diagrams and PWB Layouts
321
4
71DPTV585 AA 7.
Personal Notes:
A
B
C
D
E
K2
KEYBOARD/LIGHT SENSOR AP
A
B
C
D
E
G
H
F
F
G
H
I
J
I
J
3135 033 3343.4
14
E_15000_050.eps
191004
E_06532_012.eps
131004
32
Page 72
Circuit Diagrams and PWB Layouts
www.sharatronica.com
72DPTV585 AA 7.

Layout Keyboard Panel (Top and BottomSide)

1201 -- 1202 -- 1301 -- 1401 -- 1402 -- 1403 -- 1404 -- 1405 -- 1406 -- 1407 -- 2101 -- 2103 -- 3109 -- 6101 -- 6104 -- 6105 -- 9102 --
3135 033 3343.4
2102 -­2104 --
3100 -­3101 --
3135 033 3343.4
3102 -­3103 --
3104 -­3105 --
3106 -­3107 --
3108 -­3110 --
3111 -­3112 --
3113 -­3114 --
3115 -­3116 --
3117 -­3118 --
3121 -­3122 --
4100 -­4101 --
4120 -­6102 --
6103 -­7000 --
E_15000_051.eps
111004
Page 73
Circuit Diagrams and PWB Layouts
www.sharatronica.com
73DPTV585 AA 7.

UART Interface Module

12345
U1 U1
UART INTERFACE PANEL
A
1000 D5 1001 D5 1004 D1
1006 C5 1007 E5 1008 C4
1009 D4 1011 C3 2000 D1
2002 D2 2003 D4 2004 D4
2005 D5 2006 D5 2007 D5
2008 E4 2009 E4 2010 E4
2011 F4 3000 C1 3001 D4
3002 D4 3003 D4 3004 D2
3005 D4 3006 D4 3007 D4
3008 E4 3009 C4 6000 E2
7001 C1 7002 D2
B
C
D
E
F
5V 1006
*connect for
programming
4R7
2000
*
S3B-PH-SM4-TB
7001
MC78FC33H
3000
23
OUTIN
5V
220n
RES
1004
1 2 3
45
3V3
COM
1
BURST_CON
POWER_DOWN
*
Voltage Voltage
1
3V1
2
3V3
3
3V3 4 5 6 7 8
3V3 9
3V1
10
3V3
2002
*
6000
0V 0V 0V 0V
3004
7002
220n
P89LPC921FDH
1 20 19 18 17
220R
16 14 13
TLMG3100
Pin NoPin No
11 12 13 14 15 16 17 18 19 20
7002
3V3
15
VDD
Φ
P0<0:7> CMP2 CIN2B CIN2A CIN1B CIN1A CMPREF 0 CMP1 T1 KBI<0:7>
3V1 3V3 3V3 3V3 3V3 3V3 3V3 3V3 3V3 3V3
VSS
5
P1<0:7>
P3<0:1>
CLKOUT
XTAL2 XTAL1
INT
TXD
RXD
SCL SDA
RST
1011
*
*
12 11
T0
10
9 8
1
4 3 2
7 6
1009 1 2
*connect for
programming
2
3001 47R
3002
3003
3006
47R3007
RES
1K0
47R
47R3005
47R
1008
T2B-SQ
1
*
1K03009
3008
47R
5V
2008
1n0
2009
1n0
2010
1n0
2011
1n0
2003
Reset Power_on Pod_Det
Tx
Rx
1n0
2004
5V
1n0
1n0
2005
irq_res
1n0
2006
B6B-PH-SM4-TBT(LF)
SDA
SCL
5V
RES
*
1 2 3 4
B4B-PH-K
1n0
2007
6 5 4 3 2 1
1 2 3 4 5 6 7 8 9
S09B-JL-F-E
*
1 2 3 4
B4B-EH-A
1000
1001
1007
78
1011
RES
A
B
C
TO ATSC P1206
TO SSM 1009
D
E
F

Layout UART Interface Modukle

3139 123 6062.1
F_15120_033.eps
020805
Optional items not inserted
3139 123 6062.1
12345
F_15120_032.eps
020805
Page 74
Circuit Diagrams and PWB Layouts
www.sharatronica.com
74DPTV585 AA 7.
Page 75

8. Alignments

www.sharatronica.com
Alignments
EN 75DPTV585 AA 8.
Index of this chapter:

8.1 General Alignment Conditions

8.2 Hardware alignments

8.3 Software Alignments

8.4 Convergence and Geometry Adjustments
8.5 Option Settings
8.1 General Alignment Conditions

8.1.1 Start Conditions

Perform all electrical adjustments under the following conditions:
Power supply voltage: according to countries standard (± 10 %).
Connect the set to the mains via an isolation transformer with low internal resistance.
Allow the set to warm up for approximately 10 to 20 minutes.
Measure the voltages and waveforms in relation to chassis ground (with the exception of the voltages on the primary side of the power supply). Caution: never use the cooling fins/plates as ground.
Test probe: Ri > 10 Mohm, Ci < 20 pF.
Use an isolated trimmer/screwdriver to perform the alignments.
8.2 Hardware alignments
5. Repeat steps two through four to adjust the focus of the two remaining CRTs.
Note: Before beginning the following adjustment procedures set the customer picture, sharpness, brightness, and tint controls to midrange and the customer colour control to minimum.
Optical Focus Adjustment
1. Remove the back cover of the set and the light shield, then turn these on and inject an NTSC crosshatch pattern signal into the antenna terminal. Note: The crosshatch pattern will appear clearer if the front of the screen is covered with a dark cloth.
2. Cover tow of the CRT output lenses with cardboard pieces (or other non-conductive, opaque material) and observe the magnified reflection of the other picture tube on the backside of the viewing screen.
3. Loosen the "lens retaining wing nuts" on the CRT Focus Assembly.
4. Move the wing nut in the slot of the uncovered lens to locate the optimum optical focus viewing the picture from the back side of the screen), then re-tighten the wing nut.
5. Confirm correct focus by viewing the screen from the front of the set.
6. Repeat steps two through five to adjust the focus of the two remaining CRTs.
8.3 Software Alignments

8.2.1 VG2 Set-up

Preferred Method
1. Connect a Black Level signal to the aerial input of the set.
2. Preset all G2 controls on the Focus/G2 Combo Block to minimum (fully CCW).
3. Connect an Oscilloscope to the Collector of the output transistor on the Green CRT board. Set the probe to x10.
4. Adjust the Green G2 control until the Black Level is at 200 V.
5. Repeat steps 3 and 4 for the Red and Blue CRTs.
Alternate Method
1. Connect a Black Level signal to the aerial input of the set.
2. Preset all G2 controls on the Focus/G2 Combo Block to minimum (fully CCW).
3. Turn each G2 control clockwise until each CRT is barely illuminated.

8.2.2 Focus adjustment

Note: Before beginning the following adjustment procedures
set the customer picture, sharpness, brightness, and tint controls to midrange and the customer colour control to minimum.
Electrical Focus Adjustment
1. Remove the back cover of the set and the light shield, then turn the set on and inject a crosshatch pattern signal into the antenna terminal. Note: The crosshatch pattern will appear clearer if the front of the screen is covered with a dark cloth.
2. Cover two of the CRT output lenses with cardboard pieces (or other non-conductive opaque material) to observe the magnified reflection of the other picture tube on the backside of the viewing screen.
3. Adjust the CRTs focus control (located on the Screen/ Focus Control Block) for the sharpest raster image.
4. Confirm correct focus by viewing the screen from the front of the set.
With the software alignments, it is possible to align e.g. Geometry, White Tone, and Tuner IF settings. Put the set in the SAM (see chapter 5 "Service Modes, Error Codes, and Faultfinding"). The SAM menu will now appear on the screen. Select, via the cursor, one of the sub-menus.
Enter the Service Alignment Mode (SAM) by pressing the following key sequence on the remote control transmitter: “0-6-2-5-9-6”-[i+]. Do not allow the display to time out while entering the key sequence. The following menu will appear:

Table 8-1 Alignments menu and default values

Alignments Item Default
General Luma gain 3
IF AFC 80
IF Lprime AFC 80
Tuner AGC 20
Tuner AGC Tuner 2 8
Blend Intensity 16
Lum. Delay Lum. Delay Pal B/G 11
Lum. Delay Pal I 8
Lum. Delay Secam 8
Lum. Delay Bypass 11
GDE SAM See menu on screen

8.3.1 General

LUMA GAIN
Fixed setting of "2".
IF AFC
Supply, via a service generator or via off-air, a TV-signal with a signal strength of at least 1 mV and a frequency of 475.25 MHz (PAL) or 61.25 MHz (NTSC). Alignment procedure:
Page 76
EN 76 DPTV585 AA8.
www.sharatronica.com
Alignments
1. During the IF AFC-parameter adjustment, one can see OSD feedback on the screen.
2. The OSD feedback can give 4 kinds of messages:
3. The first item (IN/OUT) informs you whether you are in or out of the AFC-window.
4. The second item (HIGH/LOW) informs you whether the AFC-frequency is too high or too low.
Table 8-2 OSD feedback of AFC alignment
AFC-window AFC-frequency vs. reference
Out High
In High
In Low
Out Low
1. Adjust the IF AFC parameter until the first value is within the AFC window (= IN).
2. Next, adjust the IF AFC parameter until the second value is LOW.
IF LPRIME AFC
Same procedure as described above but with other signal source (SECAM L').
TUNER AGC
1. Connect the RF output of a video pattern generator to the antenna input.
2. From the generator, input a PAL B/G TV signal with a signal strength of approximately 2 mV and a frequency of
475.25 MHz (PAL) or 61.25 MHz (NTSC).
3. Measure the DC voltage on pin 1 of the (main) Tuner. You can adjust this voltage by adjusting the TUNER AGC item in the SAM menu. Alignment is correct when the DC voltage is just below 3.5 V.
IF AFC TUNER 2 (if present)
Use the same procedure as described above (under IF AFC) with the set switched to the DW source.
IF LPRIME AFC TUNER 2 (if present)
Use the same procedure as described above (under IF LPRIME AFC) with the set switched to the DW source.
TUNER AGC TUNER 2
Use the same procedure as described above (under TUNER AGC) with the set switched to the DW source. Measure on pin “1” of the DW Tuner.
BLEND INTENSITY
Use this alignment when you replace the microcontroller or the HOP. It aligns the level of transparency of the menu-picture blended into the main-picture. Position the "Brightness", "Contrast", and "Colour" setting in the middle position (in the customer "Picture" menu).
1. Apply a signal with a 100 % white video pattern (white raster).
2. Connect an oscilloscope to pin 8 of connector 1298 of the CRT panel and measure the Red output level.
3. Align the BLEND INTENSITY parameter so that the blended signal is 65 % of the black-white amplitude. This will be about 1.3 V (blended signal) versus 2 V (full white signal).
4. The parameter can be adjusted from 0 to 31.

8.3.2 LUM. DEL. (Luminance Delay)

With this alignment, you place the luminance information exactly on the chrominance information (brightness is pushed onto the colour). Use a colour bar / grey scale pattern as test signal.
LUM. DELAY PAL BG: Apply a PAL BG colour bar / grey scale pattern as a test signal. Adjust this parameter until the transients of the colour part and black and white part of the test pattern are at the same position. Default value is "9".
LUM. DELAY PAL I: Apply a PAL I colour bar/grey scale pattern as a test signal. Adjust this parameter until the transients of the colour part and black and white part of the test pattern are at the same position. Default value is "9".
LUM. DELAY SECAM: Apply a SECAM colour bar/grey scale pattern as a test signal. Adjust this parameter until the transients of the colour part and black and white part of the test pattern are at the same position. Default value is "11".
LUM. DELAY BYPASS: apply a NTSC colour bar/ greyscale pattern as a test signal. Adjust this value until the transients of the colour and black and white part of the test area are at the same position. Default value is "10".

8.3.3 GDE SAM

Specifications:
Set display mode in service mode.
Service blanking.
Set geometry.
Preset picture.
Set white tone.
Convergence disable for setting geometry.
The GDE SAM mode (GDE = Generic Display Engine), allows the Service Technician to set Geometry and White Tone (Grey Scale). This mode is controlled by the GDE microprocessor located on the ASC module. These settings are stored in an EEPROM located on the ASC module. The GDE SAM displays the Software version of the GDE microprocessor and the GDE Errors.
There are three settings for Geometry in the 4x3 aspect ratio sets and two for the 16x9 aspect ratio sets. The signal for the 480p mode can be applied to the set via the HD YPbPr inputs or from the SSB when the set is in the NTSC mode. All Geometry alignments for this mode should be done with an NTSC signal selected. Adjustments for the 1080i should be done with an HD 1080i signal applied to the set. The 4x3 aspect ratio sets have both a Full and Compressed mode that requires alignment. The Service Blanking selection (SERV BLANK) will blank the bottom half of the picture. This selection is useful when adjusting the Yokes to level the picture. The Clamp Pulse should be set to Normal for a 480p or NTSC signal. It should be set to 1080i for an HD signal. The Convergence Processor selection will enable or disable Convergence drive. Convergence should be disabled when performing Cantering or Geometry alignments.

8.4 Convergence and Geometry Adjustments

8.4.1 Introduction

If the ACS module has been replaced, the following adjustments will be required in the order as shown:
1. Geometry.
2. Convergence.
3. Grey Scale (White Tone).
If the Large Signal Board (LSB) has been changed the following adjustment are required:
1. Geometry.
2. Convergence.
If one or more CRTs have been replaced:
1. Geometry.
2. Convergence.
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3. Grey Scale (White Tone).
If the SSM (Small Signal Module has been changed:
1. Convergence.
Enter the Service Alignment Mode (SAM) by pressing the following key sequence on the remote control transmitter: 0-6- 2-5-9-6-[i+]. Do not allow the display to time out while entering the key sequence.
Cursor down to the Alignments level and then Cursor right to locate the GDE SAM. Press the OK button to enter the GDE SAM mode.
Note: Read the complete following text before starting the alignments.

8.4.2 Screen Centring

If one or more CRTs are replaced, it will be necessary to perform Screen Centring.
1. Place the Convergence Template on the TV screen or place a string from corner to corner to determine the screen centre.
2. Apply a centre cross pattern to the TV.
3. Enter the SAM mode, described in the Geometry section and disable Convergence.
4. Cover the Red and Blue CRTs.
5. Using the Centring rings on the Green CRT, centre the cross onto the centre of the template.
6. Uncover the Red CRT and centre the Red onto the Green cross.
7. Follow the same procedure with the Blue CRT.
Note: Only perform the Screen Centring for the first mode to be adjusted. Do not repeat the adjustment for the other modes.

8.4.3 Geometry Alignment

The Geometry alignment data is stored in the NVM, located on the ACS module. Whenever the ACS module or the Large Signal Board (LSB) have been changed, a Geometry alignment will be necessary. The Geometry Alignment is performed in the GDE SAM alignment mode. Make sure the set is in the mode in which you wish to align before entering the SAM mode. Use the AV button on the Remote to select the input with a signal, applied after entering the SAM mode.
Apply a crosshatch pattern to the set. Cursor Down to CONV PROC in the menu and press the Right Cursor button to select. This will disable the Convergence drive. Select GEOMETRY in the menu and enter the following default values for the mode being adjusted.
After entering the default values, the E-W WIDTH, VERTICAL SLOPE, and VERTICAL AMP should be the only settings requiring further adjustment.
Note: Perform (and store) Convergence alignment after any changes to the Geometry.

8.4.4 Convergence Mode

There are two new screen sizes for the AP region incorporating a Digital Convergence system using 208 adjustment points. The Convergence Processor is located on the ACS (Automatic Convergence System) module. The Convergence drive circuits are located on the SSP (Small Signal Panel). Data for the Convergence and Geometry settings are stored in the EEPROM located on the ACS module. If the CRTs, the Large Signal Panel (LSP), or the Small Signal Module (SSM) are changed, a complete Geometry and Convergence alignment will be necessary. If the ACS module, the Small Signal Panel (SSP), or CRTs are changed, a complete Convergence alignment will be necessary. To obtain the correct Geometry during Convergence, a template must be used. There are eight Geometry and Convergence settings, stored in the EEPROM on the ACS Module.
51 inch 16x9 aspect ratio - Use Template ST4183
60 inch 4x3 aspect ratio - Use Template ST4182

8.4.5 Convergence Alignment

Enter the Service Alignment Mode (SAM) by pressing the following key sequence on the remote control transmitter: 0-6-2-5-9-6-[i+]. Do not allow the display to time out while entering the key sequence.
Make sure that a signal is applied to the set for the mode being adjusted. Make sure that the set is in the mode you wish to adjust before entering the Convergence Alignment mode.
Table 8-3 Geometry Default Values
Wide blank 7 7
Horizontal Shift 21 21
Horizontal Para 8 8
E-W Width 30 30
E-W Para 31 31
E-W Trap 31 31
Horizontal Bow 7 7
Vertical Slope 36 36
Vertical Ampl 47 47
S Correction 31 31
Vertical Shift 31 31
Fast Blank 0 0
480p 1080i
(full)
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0 6 2 5 9 7 I+
USE CURSOR KEYS TO HIGHLIGHT USE MENU KEY TO SELECT USE STATUS KEY TO RETURN
CURSOR KEYS TO ADJUST
MENU TO CHANGE STEP SIZE
I+ TO RETURN
CURSOR RIGHT TO SELECT POWER OFF TO EXIT CONVERGENCE
CONVERGENCE ADJUSTMENTS SENSOR TEST
1
2
4
MENU
I+
I+
3
CURSOR KEYS TO NAVIGATE
MENU TO ADJUST
I+ TO RETURN
MANUAL CONVERGENCE WO VIDEO MANUAL CONVERGENCE W VIDEO
RESTORE FACTORY
RESTORE DEFAULTS
CURSOR RIGHT TO SELECT I+ TO RETURN
SENSORS NOT VERIFIED AT LOCATIONS______
MENU TO TEST AGAIN I+ TO RETURN
SENSORS OK
I+ TO RETURN
CURSOR RIGHT
I+
GREEN RED TO GREEN BLUE TO GREEN GREEN TO RED BLUE TO RED SP RED SP BLUE MP RED MP BLUE STORE
I+
MENU TO SAVE DATA
I+ TO RETURN
MENU TO SAVE DATA
I+ TO RETURN
MENU
Figure 8-1 Convergence menus
Use the Cursor Up-Down button to highlight the selection. Press the Cursor Right button to make the selection. In the second menu:
MANUAL CONVERGENCE WO VIDEO means that the screen behind the adjustment grid will be blank. This does not mean that Convergence can be performed without a signal being applied to the set.
MANUAL CONVERGENCE W VIDEO displays the applied video behind the adjustment grid.
RESTORE FACTORY loads the values from the last saved convergence alignment.
RESTORE DEFAULT loads values from the ROM on the ACS Microprocessor.
RESTORE FACTORY or RESTORE DEFAULT will overwrite all eight Convergence modes.
If the ACS module has been changed, there may not be data in the NVM for RESTORE FACTORY. The RESTORE DEFAULT settings will then be loaded.
An internally generated grid will be displayed in the Convergence mode as shown on the following page. The shaded area is the visible screen area. Horizontal lines A and M are displayed on the top and bottom edge of the visible screen area. Lines 1 and 15 are also displayed on the left and right edge of the visible screen area. Vertical line 0 is adjustable but not visible.
0
123456789101112131415
A
B
C
D
E
F
G
H
I
J
K
L
M
Figure 8-2 Convergence alignment grid

8.4.6 Single Tube Replacement Convergence

If a single tube has been replaced, it is not necessary to do a Major Convergence alignment.
1. Enter the Convergence mode and select the adjustment needed.
2. Select "Red to Green", for example if the Red tube has been replaced.
3. Adjust the centring rings on the CRT to centre the Red pattern onto the Green pattern.
4. Starting with the centreline, adjust the Red icon onto the Green pattern. Best results are obtained when navigating from left to right. Two or three passes may be necessary to obtain satisfactory results.
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8.4.7 Touch Up Convergence

When making minor Convergence corrections, move the Cursor to the location to be adjusted then press the MENU button to adjust that location. When in the adjustment mode, press the MENU button a second time if it is desired to change the step size of the adjustment. When making minor Convergence corrections, you may adjust the following:
RED TO GREEN
BLUE TO GREEN
SP RED
•MP RED
SP BLUE
MP BLUE

8.4.8 Green Geometry

Important: Do not make changes to the Green Geometry without placing a Template over the screen.
The Green Geometry must be done first when performing a complete convergence alignment. A Screen Template is necessary to obtain the correct geometry. Failure to use the Screen Template or mis-adjustment of the convergence will result in reduced life of the Convergence amplifiers.
Figure 8-3 Screen shot of "Green geometry" adjustment
Place the Screen template on the TV screen. Select GREEN in the selection menu. The Cursor will appear in the centre of the screen as shown in the picture.
When the ACS module has been replaced, it would be advisable to load Default settings. Press the MENU button to adjust, and then use the Cursor buttons to move the Green cross onto the Template. The adjustment of the cross has two-step sizes: large and small. Press the MENU button to toggle between the two. After a point has been adjusted, press the Index button to return to Navigate. When Default settings have been loaded, the left most line that is not visible should be adjusted first. Adjust the Vertical line 0 while observing line 1 to make line 1 parallel with the left edge of the screen. The adjustment should only be made in small steps. Do not adjust any one point more than 1/4 the distance of one grid in each pass. After the left most line is adjusted, start at the centre left of the screen and work to the right, aligning the Horizontal lines. When adjusting the Horizontal lines, best results are obtained when working from left to right. After the Centre line is adjusted, go to the next line down until all of the lines have been adjusted, then work from the centre up to adjust the Horizontal lines. Using the same method, work from centre out to adjust the Vertical lines. At least three passes will be necessary to complete the alignment. Press the Index button to return to the selection menu.
When the GREEN geometry is complete, STORE the data. Remove the template from the screen. Select RED TO GREEN in the selection menu. Using the same method that was used to adjust the Green Grid to the Template, adjust the Red Grid onto the Green Grid. If the set is a later production, select SP RED to centre the Red grid onto the Green grid. Exit this mode by pressing the MENU button. Then select the MP RED to adjust the Red onto the Green using the 35-point adjustment. When this is complete, select the RED TO GREEN to perform the 208-point adjustment.
When the RED TO GREEN is complete, select the BLUE TO GREEN, using the same alignment method as the RED TO GREEN.
Select STORE to save your the alignments after adjusting each colour. Each time data is stored; the Intellisense circuit will recalculate the position of the four sensors in the set.
Exiting the Convergence Mode without saving will cause the alignments to be lost.
Repeat the adjustment for each of the remaining modes.

8.4.9 Grey Scale Alignment

1. Place the input to the RGB (AUX 5) or YPbPr (AUX 4) mode. Connect a Computer or Computer monitor generator to the AUX 5 input or a Component Generator to AUX 4.
2. Preset the G2 controls counter clockwise.
3. Turn the Green G2 clockwise to make the menu visible.
4. Enter the SAM mode by entering 0-6-2-5-9-6-[i+] on the Remote Control. Select the GDE mode and select WHITE TONE.
5. Preset the following registers: Use the Cursor Right-Left buttons to set the value. Use the Cursor Up-Down buttons to select the register. Press the MENU button to exit the WHITE TONE menu. – NORMAL RED CUT-OFF: “14” – NORMAL GREEN CUT-OFF: “35” – NORMAL BLUE CUT-OFF:”6” – NORMAL RED DRIVE: “44” – NORMAL GREEN DRIVE: “56” – NORMAL BLUE DRIVE: “43”
6. Set the BRIGHTNESS, PICTURE, and SHARPNESS to their midpoint position. Select a Black Raster pattern on the computer or computer monitor generator.
7. Connect an Oscilloscope, set to measure DC, to each cathode to determine the dominant (lowest) colour.
8. Adjust the SUB BRIGHTNESS control to set the Black Level equal to 180 Volts on the Oscilloscope.
9. Move the probe to the remaining cathodes and adjust the corresponding cut-off registers to make the black part of the waveform at 180 Volts.
10. Set the corresponding G2 control to just make cut-off for the black part of the waveform for that tube.
11. Remove the Oscilloscope probe.
12. Apply a Greyscale pattern to the set.
13. Adjust the Drive Controls to achieve the proper white balance. At least one drive should remain 3F.
14. The following Drives and Cut-offs should be set as listed. These are in the WHITE TONE menu. – COOL CUT-OFF RED: “0” – COOL CUT-OFF GREEN: “0” – COOL CUT-OFF BLUE: “0” – COOL DRIVE RED: “-9” – COOL DRIVE GREEN: “-7” – COOL DRIVE BLUE: “0” – WARM CUT-OFF RED: “0” – WARM CUT-OFF GREEN: “0” – WARM CUT-OFF BLUE: “0” – WARM DRIVE RED: “0” – WARM DRIVE GREEN: “0”
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Alignments
– WARM DRIVE BLUE: “-8”
15.Press the MENU button to return to the SAM menu. Exit the Service mode by turning the set ”off”.

8.5 Option Settings

8.5.1 Introduction

The microprocessor communicates with a large number of I2C ICs in the set. To ensure good communication and to make digital diagnosis possible, the microprocessor has to know which ICs to address. The presence / absence of these specific ICs (or functions) is made known by the option codes.
Notes:
After changing the option(s), save them with the STORE command.
The new option setting is only active after the TV is switched "off" and "on" again with the Mains switch (the EAROM is then read again).

8.5.2 DEALER OPTIONS

Table 8-4 Dealer options
Menu name Subjects
Personal Options
Picture Mute Yes Picture mute active in
Virgin Mode Yes TV starts up once with
Auto Store Mode
TXT Preference
Option s Physically in set
case no picture detected
No Noise in case of no picture
detected
language selection menu after mains switch on for the first time (virgin mode)
No TV does not starts up
once with language selection menu after mains switch on for the first time (virgin mode)
None Autostore mode disabled
(not in installation menu)
PDC­VPS
TXT page
PDC­VPS­TXT
TOP Preference to TOP
FLOF Preference to FLOF
Autostore mode via ATS (PDC/VPS) enabled
Autostore mode via ACI enabled
Autostore mode via ACI or ATS enabled
Teletext
Teletext

8.5.4 Option Codes

Enter the Service Alignment Mode (SAM) by pressing the following key sequence on the remote control transmitter: 0-6-2-5-9-6-[i+]. Do not allow the display to time out while entering the key sequence.
Cursor to the OPT. NO. in the SERVICE OPTIONS level. Locate the “option code label” on the inside right panel of the unit and enter the correct codes for the model being serviced.
Example
Group 1: 49483 32801 33055 32793
Group 2: 39897 32768 32768 00000
Note: Remember to cursor to the STORE OPTIONS level and select “OK” to save these changes

8.5.3 SERVICE OPTIONS

Table 8-5 Service options
Menu name Dual screen
Service Options
Video repro Lightsensor Yes/No
Miscellaneous Tuner Type TEDE9/
Opt. No. Group 1
TXT/EPG Dual Screen Yes/No
2D Combfilter Yes/No
Pixel Plus Yes/No
UV1316
Group 2
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9. Circuit Descriptions, List of Abbreviations, and IC Data Sheets

Index of this chapter:

9.1 Introduction

9.2 Power Supplies

9.3 Video
9.4 Audio
9.5 Control/OSD
9.6 List of Abbreviations
9.7 IC Data Sheets
9.1 Introduction
This new chassis is being introduced for the Nafta region (USA and Canada) in 2005/2006 model year. The table below lists the Model and Chassis numbers.

Table 9-1 Model and chassis overview

Model Chassis
51MP6100D/37 DPTV585
51PP9100D/37 DPTV585
60PP9100D/37 DPTV585
This chassis is derived from a previous introduced chassis but is prepared for ATSC reception. The chassis has NTSC and ATSC tuning capability. The digital broadcast formats it tunes are 8VSB and QAM. The set has the capability of displaying the 1080i, 480p, 480i and 720p high definition component analogue inputs. All are converted and displayed as 1080i. The 1fH RF inputs can be NTSC. The 1fH AV inputs can be YPbPr­component, composite, or SVHS and are diplayed as 480p.
Some of the highlights are:
TV-off air systems (NTSC).
NTSC (3.58 - 4.5 MHz).
HD signal inputs are analogue.
Component in.
ATSC digital in (8VSB and QAM).
The sets have 1fH multi-system composite, SVHS, and component inputs. The External 1fH or TV RF signals are fed to the Picnic and Eagle circuits, where the user can select between 100 Hz Digital Scan or Double lines.
External input systems:
NTSC 3.58 MHz
480p, 480i, 1080i, 720p component input
All of the sets, based on the PEMG and have a 16x9 aspect ratio. There are eight different scan modes with each requiring separate geometry and convergence settings. Each of the modes has separate geometry and convergence data, stored in the NVM, located on the ACS (Automatic Convergence System) module. Sound System processing is performed on the SSB (Small Signal Board). This is a multi-system sound decoding processor. The audio amplifier is located on the SSM (Small Signal Module). This is a digital amplifier; 10 Watt (2 x 5 Watts) for the 51” and 20 Watt (2 x 10 Watts) for the 60”. There is also a Headphone output, located on the Side Jack Panel. The headphone amplifier is located on the SSM.
Sound system:
51”: 10 W (2x5W) Audio.
60”: 20 W (2x10W) Audio.
Headphone Out.
Speaker "on"/Off.
Aspect Ratio
16x9
16x9
16x9
Destination
USA/Canada
USA/Canada
USA/Canada
9.2 Power Supplies
The Rectifiers and Standby Supplies are located on the AC Input Panel. The Main Power Supply is located on the Large Signal Board (LSB).
In the table below, the models are listed with their respective voltage requirements. Auto Multi Voltage sets have a voltage range of 90 to 140 V.

Table 9-2 Voltage range overview

Model Voltage Range
51MP6100D/37 90 - 140V nominal 110 V
51PP9100D/37 90 - 140V nominal 110 V
60PP9100D/37 90 - 140V nominal 110 V

9.2.1 Overall Power Supply Block

Figure 9-1 Power supply block diagram
The bridge rectifiers and Standby supply are located on the AC Input Panel. The Main Power supply is located on the Large Signal panel. A mains switch switches the AC power to the bridge rectifier, located on the AC Input panel. This switch must be turned "on", to place the set in the Standby mode. The Standby supply produces a +5 Volt standby voltage. In the Standby mode, the set consumes less than 1 W of power. When the set is turned "on", the microprocessor on the SSB causes the STANDBY line to go "low", switching the Standby supply to produce +15 V, +9 V, and +5.2 V sources. It also turns the Main Power supply "on", which produces the Audio, +35, ­35, +22, -22, +130 V_S, and +130 V_HV supplies. The +130 V_S supply is for the Horizontal Output section. The +130 V_HV supplies power to the High Voltage section.
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9.2.2 AC Input Board

Circuit Descriptions, List of Abbreviations, and IC Data Sheets
F_15120_040.eps 090805
Figure 9-2 AC input board
The AC Input circuit is located on the AC Input panel. AC power is connected to the AC Input panel via connector 1505. A 6.3 Amp Fuse, 1506 provides overcurrent protection. The Neutral side of the AC line is connected to a series of Spark Gaps, 1529, 1530, and 1531 to the Tuner Ground to protect the set from voltage surges. AC voltage is fed to Bridge rectifiers 6500

9.2.3 Standby Power Supply

and 6402. Bridge 6500 provides the RAW B+ to the Main Power supply located on the LSB. The Neutral side of the AC line is also connected to the STARTUP for the Main supply. This provides the Startup voltage for the Main supply.Bridge 6502 provides the Raw DC for the Standby supply.
When power is applied to the set, Capacitor 2533 begins charging via startup Resistor 3527. When the voltage on Pin 4 of 7510 reaches approximately 19 volts, the IC begins switching Pin 1 of 7510. When Pin 1 goes Low, current flows through the windings of 5501 via Pins 8 and 6. Energy is coupled to the secondary windings. Operating voltage for the Standby supply after startup is supplied by windings connected to Pins 2 and 3. The +5STDBY is the reference supply for the regulation circuit. The +5STDBY supply is fed to the input of Shunt Regulator 7516 which drives Optoisolator 7511. If the 5­volt supply
Figure 9-3 Standby power supply circuit
increases, 7511 will turn on harder, reducing the feedback voltage on Pin 6 of 7510. If the 5 volt supply decreases, the voltage on Pin 6 will increase, causing the internal switch of 7510 to stay on longer.
Over voltage protection is accomplished by monitoring the voltage on Pin 5 of 7510. Voltage from Pin 2 of 5501 is rectified by Diode 6511 and is fed to Pin 5 via diode 6514. If this voltage goes above a certain level, 7510 will turn Off. If the DC voltage feeding 7510 decreases, the Feedback voltage on Pin 6 will increase. To prevent the IC from being overdriven, the voltage on Pin 6 is limited to 5 volts. In normal operation, DC from the
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bridge rectifier is fed to the base of 7512, keeping it turned On. This keeps Transistor 7513 turned Off. If the DC voltage drops to approximately 75 volts, Transistor 7512 will turn Off, Transistor 7513 will turn On, putting the anode of Zener 6516 to ground, clamping the voltage on Pin 6 at 5 volts.
The Standby supply produces the +5STDBY, +6VD supplies when power is applied to the set. The +6VD supply feeds 7507 which produces a +3V3D supply. When the set is turned On, the Standby line from the microprocessor on the SSB goes Low. Transistor 7502 turns Off, turning Transistor 7500 On. 7500 turns Transistor 7505-1 On, switching the +15 volt supply On. The +15 volt supply also feed regulator 7508 to produce the +9 volt supply. Transistor 7505-2 also turns On, switching the +5V2 supply On.

9.2.4 Main Power Supply

Under voltage Detection
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Figure 9-4 Under voltage detection circuit
If the 15-Volt supply drops below 11.2 Volts, transistor 7221 will turn "off". The 5-Volt standby supply will be applied to the base of 7220 (Figure " Standby power supply circuit") via resistors 3262 and 3263. This will cause the +15UV line to go "high". In the Standby mode, the Standby line is "high" turning transistor 7222 "on". When the set is turned "on", 7222 turns "off". Capacitor 2296 provides a delay to prevent the +15UV line from going "high" before the +15V supply turns "on".
This circuit can be defeated by grounding the base of transistor
7220. When repairs are complete, this jumper should be removed.
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The Main Power supply is located on the Large Signal panel. The Main B+ voltage from the Input panel is applied to the Main Power switching transistor, 7301, via Pins 6 and 8 of transformer 5300. This voltage is protected by fuse 1300 and filtered by choke 5330. The Standby line goes "low" when the set is turned "on". Transistor 7309 is turned "off", which turns 7300 "on". This turns relay 1305 "on". The Start-up voltage is applied to capacitor 2303 via resistor 3300. When 2303 charges to 14.5 Volts, the under-voltage lockout of 7302 connected to pin 1 is turned "on". Drive is output on pin 3 to the switching FET, 7301. This signal drives 5300 to produce the Main Power supply voltages. IC 7302 will continue to drive
Figure 9-5 Main power supply circuit
5300 until the charges on capacitor 2303 drop below 9.4 Volts. The Under voltage Lockout of 7302 will then turn the output on pin 3 "off" until 2303 again charges to 14.5 Volts. After several start-up cycles, the operating voltage for 7302 is supplied by pin 10 of 5300.
Regulation is accomplished by monitoring the 130V_S supply via resistors 3324, 3350, 3323, and 3322. The feedback voltage is applied to the Shunt Regulator 7304, which drives the feedback opto-isolator 7303. The feedback voltage is applied to pin 14 of 7302. The voltage is fed to comparator "C" which is referenced to 2.5 Volts. This output of this comparator
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sets the reference voltage for comparator "B", which is compared with the voltage on the source of 7301. This voltage is developed when 7301 turns "on", causing current to flow through resistors 3308 and 3309. If 7301 fails, Resistors 3308 and 3309 should be replaced. These are one percent tolerance resistors.
The Main Power supply produces: +130 V, +35 V, +22 V, -22 V, -35 Volt, a plus audio supply, and a minus audio supply. The Audio supply is a plus and minus 23 Volts. This supplies the digital audio amplifier located on the SSM (Small Signal Module).
When troubleshooting, notice that the Hot Ground for the Main Power supply is separated from the main Hot Ground on the AC Input Panel by Choke 5330. To ensure correct readings, use the Hot Ground in the Main power supply. If the power supply is overloaded or the operating voltage is missing, the voltage on pin 1 of the IC should be changing between 9.4 and
14.5 Volts. Each time the voltage reaches 14.5 Volts, drive
should appear on pin 3 of the IC. If a voltage is present on pin 1 that is greater than 14.5 Volts and there is no drive on pin 3, the IC should be replaced. If drive is present on pin 3, check for drive on the Drain of 7301. If drive is present here, check for a short on the 130 Volt lines, a problem in the feedback circuit, or a problem with the operating voltage.
Power Fail Shutdown
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Figure 9-6 Power fail shutdown circuit
The +22 Volt supply is rectified by 6306 and the -22 Volt supply is rectified by 6307. The voltage on pin 18 of 5300 is monitored to detect a failure of the AC supply to the set. This circuit signals the microprocessor in the event that AC is removed from the set while it is turned "on". The voltage from pin 18 is rectified by 6318 and is applied to the Shunt Regulator 7305. Shunt Regulator 7305 is turned "on", keeping the Power Fail and Protect lines Low. When AC is removed while the set is "on", 7305 will turn "off" fast. This is because the filter capacitor for the input to 7305 is small. When 7305 turns "off", the Power Fail line goes "high" from the voltage on the +22 Volt line. The microprocessor will shut the set down while it still has voltage to operate.

9.3 Video

The HDR2004 is a multi-system PTV. It will accept:
RF inputs from NTSC, PAL, or SECAM.
Composite or SVHS inputs from NTSC, PAL, or SECAM sources.
Component YPbPr inputs from 1fH NTSC, PAL, or SECAM.
YPbPr or RGB inputs from 480p, 576p, or 1080i sources.
Composite Video or SVHS YC from the Side Jack panel is fed to the video switch, located on the SSM (Small Signal Module). The SSM video switch selects between the composite inputs or SVHS inputs of the Side Jack panel or the inputs, located on the SSM. AV1 and AV2 inputs are located on the SSM. AV3 is

Figure 9-7 Video signal block diagram

the Side Jack panel input. Selected composite video or YC is fed to the SSB (Small Signal Board), which plugs into the SSM. PAL, SECAM, or NTSC component video YPbPr is buffered and fed to the SSB. Selected composite video is fed to the PIP panel for the PIP window picture information. IF from the tuner located on the SSM is fed to the SSB. Composite video from the SSB, which is developed from the main Tuner, is fed to the Video Output jack on the SSM. Switching "on" the PIP panel selects between video from the Tuner on the PIP panel or selected Video from the SSM. YUV for the main picture from the SSB is fed to the PIP panel for the Picture in Picture information to be inserted. After insertion of the PIP information, the YUV signal is fed back to the SSB. A line
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doubler circuit on the SSB, called the Feature Box, changes the interlaced 625 or 525 signal to a Progressive Scan 480p, 576p, 100Hz, or 120 Hz signal. This YUV signal is buffered and fed to the SSM where it is buffered before being fed to the HOP (High end Output Processor) panel. The HOP panel has the HD input jacks and DB15 RGB input. These inputs can be either 480p, 576p, or 1080i. The Video processing circuits on this panel perform the Colour, Tint, Brightness, and Contrast adjustments for the video. Signal selections between the signal from the SSB and the HD inputs are performed on the HOP panel. Sync processing and selection is also performed on the HOP panel. Red, Green, and Blue drive from the HOP panel is fed to the three CRT panels.
There are two sets of connectors, labelled YPbPr. The one on the SSM is for NTSC signal levels only. The one on the HOP is for 1080i, 576p, or 480p Progressive Scan only.
1fH Horizontal (Line) and Vertical (Frame) drive from the SSB is fed to the HOP via the SSM. The HOP panel selects between the sync from the SSB or the external HD inputs. These signals are processed on the HOP before being sent to the LSB.

9.3.1 Side Jack Panel

9.3.2 SSM composite Inputs

Figure 9-9 CVBS (composite) video inputs
The composite inputs are located on the SSM. There are two composite or SVHS inputs. A connector in the SVHS inputs will mute the composite inputs when the cable in plugged into the SVHS input. A connector in the SVHS inputs will cause a voltage change on the SEL-SVHS-RR_STATUS2 line. This will signal the microprocessor that something is connected to that input.
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Figure 9-8 Side Jack circuit
The Side Jack panel has a composite Video and SVHS input. When there is a connector in the SVHS input, the composite input is muted. Resistors 3001, 3002, and 3000 on the Video, Y, and C lines provide 75-ohm impedance matching. If a cable is plugged into the SVHS connector, the line connecting resistor, 3029, to ground is removed causing the voltage on the Y/C_CVBS_SENSE_FRNT line to increase. This signals the microprocessor to switch the video switching circuits from composite video to YC In. There is also a left and right channel audio input.

9.3.3 SSM Video Switching

Figure 9-10 Video switching on SSM
IC 7017, located on the SSM, performs the Video and Audio switching for the composite inputs to the SSM. Selected Y or composite video is output on pin 1 before being fed to the SSB. Selected C is output on pin 3 and is fed to the SSB. Selected composite Video for the PIP window is output on pin 39 and fed to the PIP panel. If an SVHS source is selected for the PIP window, the YC is combined in 7017 and output on pin 39. IC 7017 is controlled by the microprocessor via the I2C SDA and SCL lines on pins 33 and 32.
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9.3.4 SSB Video Switching

Figure 9-11 Video switching on SSB
Selected composite video from the SSM is fed to the HIP 7323, located on the SSB. IF from the main Tuner, located on the SSM, is fed to the SSB via connector 1020 to the switchable SAW filters 1408 and 1410. Refer to Figure "SAW filter switching circuit" for description of the SAW circuits. IF from the SAW filters is then fed to Pins 2 and 3 of 7323. composite Video is output on pin 10 and is buffered by 7411. Video is then fed to the switchable Sound traps. Refer to Figure "Sound trap switching circuit" for a description of the Sound Traps. Output from the Sound traps is buffered by 7322 and fed to pin 14 of
7323. IC 7323 then selects between the Tuner Video and
selected composite Video or Luminance from the SSM on pin
20. If the signal selected is composite video, it is output on pin
26 and buffered by 7320. It is then fed to the Three Line Comb filter, 7307. Luminance is output on pin 14 and fed back to 7323 on pin 28. Chroma is output on pin 16 and fed to pin 29. The internal Chroma switch selects between the output of the Comb filter or external Chroma on pin 21. Selected Chroma is fed to the internal Demodulator, which outputs UV to the YUV switch. Selected Luminance is fed to the internal Delay and to the YUV switch.
The YUV switch selects between the YUV from the internal decoder and YUV from the YPbPr inputs located on the SSM. The microprocessor, located on the SSB, via the I2C buss, SDA-F and SCL-F, controls the HIP 7323. The YPbPr signals for NTSC are fed through buffer amplifiers on the SSM before being fed to the SSB. The selected YUV signal is output on Pins 49, 50, and 51 to the PIP/DW circuit via connector 1682.
The Y or Luminance signal is fed to the internal Sync Separator to develop Line and Frame sync. This sync is output on pin 60 and 61. pin 60 is the Line sync while pin 61 is the Frame sync. Line sync is also output on pin 59 to synchronize the Three Line Comb filter. When the Component input is selected by the YUV switch (a DVD player for example), the Y signal is selected by 7017 on the SSM and fed to pin 20 of 7323. The selected Y signal is then fed to the internal Sync Separator.
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9.3.5 SAW Filter Switching

Figure 9-12 SAW filter switching circuit
The HDR2K3 AP set has a Multi-System tuning system. Since NTSC uses a 6 MHz bandwidth and PAL/SECAM uses an 8 MHz bandwidth, it is necessary to have separate SAW filters. The LMN line switches between PAL/SECAM and NTSC.
The LMN line goes "high" in the NTSC mode. Transistor 7405 turns "on" causing a short at the junction of resistor 3406 and capacitor 2406, removing the signal to the PAL/SECAM SAW filter (item 1408-A). Transistor 7401 is turned "off". Diode 6402 is forward biased via resistors 3410 and 3406, causing signal to be applied to pin 2 of 1410-A, and the NTSC SAW filter.
The LMN line goes "low" in the PAL/SECAM mode. Transistor 7405 turns "off", allowing signal to be applied to pin 2 of 1408­A, the PAL/SECAM SAW filter. Transistor 7401 is biased "on" via resistors 3409 and 3407. This prevents the signal from reaching pin 2 of 1410-A.

9.3.6 3D Comb Filter

Figure 9-13 3D Comb Filter circuit
The 3D Comb Filter is used in NTSC only sets. This is a separate PC board, which plugs into the System board. The video signal is buffered by 7008 and 7009. Transistors 7010, 7015, 7016, and 7017 separate the Sync from the composite video. The Sync is fed to pin 76 of 7023. The composite video is buffered by 7011 and fed to a 6 MHz filter, 5006. This prevents any high frequency signals from causing any problems with the A/D conversion. The signal from 5006 is buffered by 7012 and fed to pin 88 of 7023. A full frame 3D YC separation is performed by the YCS circuit. The Y and C signals are buffered and fed to 6 MHz filters, 5003 and 5004. The YC signals are then fed back to the SSB via the SSM.
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9.3.7 Sound Trap Switching

Figure 9-14 Sound trap switching circuit
Composite video is output on pin 10 of 7323 and buffered by transistor 7411. The signal is then applied to the 5.5 MHz trap,
1406. In the PAL/SECAM mode, the LMN line is Low, switching transistor 7407 "on", causing the signal to bypass 1407, the 4.5 MHz filter. The video is then buffered by transistor 7322 before being applied to pin 14 of 7323.
In the NTSC mode, the LMN line goes "high" and transistor 7406 turns "on", switching the 4.5 MHz SAW filter "on". Transistor 7407 is turned "off".
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9.3.8 1fH Component Buffer Amplifiers

9.3.9 Feature Box

Y-PIP+MAIN-IN
U-PIP+MAIN-IN
V-PIP+MAIN-IN
SCL-F
SDA-F
HA50
VA50
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Figure 9-15 Component (YPbPr) buffers
The Y signal is buffered by transistors 7800 and 7801. This is an impedance matching and YPbPr to YUV circuit. This circuit does not invert the signal. The Pb signal is amplified by 7802 and buffered by 7803. The Pr signal is amplified by 7804 and buffered by 7805. The Pb and Pr signals are inverted.
E
D
C
B
A/D
A/D
A/D
16b
16b
16b
DE-INTERLACER
16b
DYNAMIC NOISE REDUCTION
7714 FM1
TIME BASE CORRECTION
MICROCONTROLLER CORE
MP
MOTION ESTIMATOR
MF
16b
NOISE REDUCTION
HISTOGRAM
UP­CONVERSION
7718
27
SN-CL
2
PROGRAM ROM
BUS D
TRIPLE DAC
FALCONIC SAA4992
TO EAGLE
MP
26
SN-DA
1
BUS C
MUX
VERT PEAK
F
G
7611 PICNIC
SAA4978
16b
16b
TRIPLE ANALOG FILTER
TO EAGLE
12
14
NOT USED
15
18
19
7719 FM3
7717 FM2
1682
6
23
8
25
9
26
28
29
4
5
CLAMP
CLAMP
CLAMP
SYNC PROCESSING
AGC
PREFILTER
AGC
PREFILTER
AGC
PREFILTER
ADDRESS
7716 EPROM
DATA
Figure 9-16 FBX block diagram
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The circuit located on the SSB labelled the Feature Box performs the digitising, line doubling, and picture resizing. The main functions are performed by 7611, PICNIC (PICture improvement Network IC), and 7718, FALCONIC (Field And Line Converter and Noise reduction IC). The PICNIC IC performs the A/D Analogue-to-Digital conversion while the FALCONIC performs the Line Doubling. The FALCONIC also performs the Super Zoom, Panoramic, 4:3, Movie Expand 14:9, Movie Expand 16:9, 16:9 Subtitle, and Widescreen picture format conversions.
The YUV signal is fed to the PICNIC on Pins 23, 25, and 26. Horizontal and Vertical Sync is fed to the IC on Pins 28 and 29. The signals are fed to a Clamping circuit to limit the sampling range, an AGC, and a Prefilter circuit. It is then fed to a triple A/ D converter, Time Base Corrector, Noise Reduction and Histogram circuit, and a Multiplexer. The Prefilter circuit limits the bandwidth of the signals to prevent aliasing. Aliasing shows up as artefacts in the picture, which is caused by under sampling. The Multiplexer combines the three data streams.
Data is output from the PICNIC to FM1 (Field Memory), IC
7714. The Fields are ready by 7718 to the Dynamic Noise
Reduction circuit and to the processor. The De-Interlace writes the Field data to Field Memory 2, 7717 and Field Memory 2,
7719. The Processor then reads the Field memories to convert
the signal to a progressive scan signal. A Motion Estimator processes moving blocks in the picture to produce a natural motion. The processors resize the picture to fit the format selected by the user. However the picture appears to be formatted, the output is always a 480P or 576P format. The Signal is output on two 16-bit busses, F and G, to the Eagle processor.
The FALCONIC is controlled by the microprocessor in the PICNIC. The PICNIC is controlled by the Fast clock and data line from the OTC. The PICNIC communicates with the FALCONIC and the Eagle via the SN clock and data line. This is called a SNERT interface. SNERT is a No parity Eight-bit Reception and Transmission interface. Horizontal and Vertical sync is output on Pins 18 and 19.

9.3.10 Eagle

16b
7722
F
FM4
VERT
INPUT MUX
16b
7723
G
FM5
SN_CL
SN_DA
SNERT
INERFACE
CONTROLS
HORIZ PEAK
SCALING
7724 EAGLE
YUV FORMAT
D/A
SYNC
Figure 9-17 Eagle
The Eagle circuit provides Skin tone correction, Blue stretch, and Green Enhancement. In versions, equipped with the Pixel Plus feature, the Eagle IC performs the corrections for this mode.
The video frames are sent to FM4 and FM5, 7722 and 7723, memories from the FALCONIC IC. These memory ICs hold the frame data until they are required for processing by the Eagle. The Input Multiplexer selects which frame is to be read. The Vertical and Horizontal Peaking circuit sharpens the edges and adds blue pixels to enhance the picture. This circuit is part of the Pixel Plus processing.
The Scaling circuit scales the picture to a 100 Hz Digital Scan, 75 Hz Digital Scan, 576 progressive, or 480p progressive. If the input signal is from an NTSC source, only 75 Hz or 480p is available. The signal is converted to an analogue format and output on Pins 54, 63, and 73. Sync is output on Pins 28 and
29. The signal is then fed to a buffer circuit on the SSM and then to the HOP. The Eagle is controlled by the microprocessor in the PICNIC IC via the SNERT interface. The Eagle outputs an analogue YUV signal to the SSM (Small Signal Module).
7731
7728
54
63
73
28
29
7732
7733
HD_E
VD_E
Y_EAGLE_E
7729
U_EAGLE_E
7730
V_EAGLE_E
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9.3.11 ATSC module

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Figure 9-18 ATSC module
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Component video from the YPbPr input is fed to U1201, switch. The YPbPr input on the ATSC module can be 480i, 480p, 720p, or 1080i. The A/D, U201 shares a 16bit bus with the HDMI receiver. Only the Philips version has the HDMI input. The Customer selected signal is fed to U201, the ATSC processor. The ATSC processor enhances and rescales the signals from these inputs. The ATSC tuner, U701, is fed to the IF section, U703, and then to filters U704 and U703. The ATSC processor can decode either 8VSB terrestrial, 64QAM, or 256QAM signals.
The output of the ATSC processor is fed to the POD processor IC. Most of the POD processing circuit is not present since this set does not have that feature. Two memory ICs, U502 and U503 stores the picture information while the video is being processed. The analog YPbPr 1080i signals are output to the HOP module.

9.3.12 SSM HOP Buffer Amplifiers

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Figure 9-19 SSM YUV-buffers
The Y-SSB, U-SSB, and V-SSB signals are fed to buffer amplifiers, located on the SSM. Transistors 7806 and 7807 buffer the Y signal. The U signal is buffered and inverted by transistors 7810 and 7811. The V signal is buffered and inverted by transistors 7808 and 7809. The YUV signal is then fed to the HOP panel via connector 1250.
The input to the HOP panel can be RGB or YPbPr via the cinch connectors. The RGB or YPbPr signal can be either 480p, 720p progressive scan or 480i, 1080i interlaced.
IC7210 selects between the output of the ATSC panel and the YUV signal from the SSM.
The switch is controlled by the VS2 switching signal.

9.3.14 HOP Signal Processing

The Y/G, B/Pb, and R/Pr signals are fed to their respective sharpness controls. If the input is a YUV signal, the Y signal is fed to pin 28 of 7600. The U and V signals are fed to the Tint Control circuit and then to Pins 27 and 26 of 7600. If the input is RGB, the signals are fed to Pins 31, 32, and 30 of 7600 to an RGB to YUV converter. When RGB input is used, there is no Tint control available for the signal.
The input selector switch in 7600 selects between the YUV on Pins 28, 27, and 26 or the output of the internal RGB/YUV converter. The signal is fed to the RGB insertion circuits where the OSD is inserted. The signal is then fed to a White Point circuit and then to the Output Amplifier. The White Point and Output Amplifier have the Drive controls and Cut-off controls. Input from the ABL line on Pins 43 makes adjustments in the brightness levels to adjust for changes in beam current. The AKB pulses from the CRTs are fed to pin 44 to the Cathode Calibration circuit. The Cathode Calibration circuit adjusts the Cut-off levels of the CRTs to maintain the correct grey scale tracking. When the set is first turned "on", a calibration pulse is output on the RGB lines. The Cathode Calibration circuit monitors this pulse on the AKB line to set the Black level and the maximum drive voltage for the cathode. Once the Calibration has taken place, the Output Amplifiers switches to the RGB drive signal as the output.
Horizontal and Vertical Sync is fed to 7600 on Pins 23 and 24. IC 7600 processes the sync to provide the geometry for the picture. Horizontal drive is output to the sweep circuit on pin 8. Vertical drive is output on Pins 1 and 2. East West drive is output on pin 3. Sandcastle (SCO) is output on pin 9. Horizontal Feedback (HFB) from the sweep circuit is fed into the Phase Loop to phase correct the Horizontal drive.
IC 7600 is controlled by the microprocessor via the I2C buss on Pins 10 and 11. Geometry and Drive settings are stored in the Memory IC located on the HOP panel.

9.3.13 HOP RGB/YUV Switching

1151
3 From ATS C
1 module
5
Figure 9-20 RGB/YUV switching
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9.3.15 HOP Sharpness Control

Figure 9-22 HOP sharpness control
Figure 9-21 HOP signal processing
signal, it is amplified by 7412 and buffered by 7413. If the input was a U signal, it is buffered by 7414.

9.3.16 HOP Tint Control

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The Sharpness controls for the YUV/RGB signals are located on the HOP panel. Since all three circuits are basically the same, only the Blue one will be discussed.
The Blue signal is fed to pin 1 of 7410. It is also fed to a Low Pass filter consisting of 5411 and 5410. This path is amplified by transistor 7411. The Low Pass filter blocks the higher frequencies as well as shifting the phase of the signal. The output of the Low Pass filter is also fed to pin 4 of 7410. The mixing of these two-phase shifted signals only allows the High frequency component to be amplified and output on pin 12. The gain of the High frequency component is controlled by the Sharpness voltage, which is applied to Pins 8 and 10. The two signals are combined at pin 12 of the IC. If the input was a Blue
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Figure 9-23 HOP tint control
IC 7510 amplifies the U signal while 7520 amplifies the V signal. The Tint control voltage changes the balance between the U and V signals to change, causing the tint of the picture to change.
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9.3.17 HOP RGB Amplifiers

Figure 9-24 HOP RGB amplifiers
The output of 7600 is fed to the RGB amplifiers before being fed to the CRTs. Transistors 7720 and 7721 buffer the Blue output on pin 42. The B-BIAS control voltage controls the gain of this circuit. Transistor 7730 provides an additional voltage gain for the signal.
Items 7710 and 7711 buffer the Green output from pin 41 of
7600. The G-BIAS controls the gain of the circuit.
The Red output from pin 40 of 7600 is buffered by 7700 and
7701. The R-BIAS controls the gain of the circuit.
The drive of the Red and Green outputs is compared with the Blue drive by 7900-A. The difference signal is fed back to 7600 via the ABL line. If the Blue CRT is driven harder than the Green and Red CRTs, the inverting input on pin 2 will become greater than the non-inverting input on pin 3, resulting in the output on pin 1 to go Low. The ABL line will go Low, causing 7600 to reduce the drive to all of the CRTs. This circuit prevents the Blue tube from being over-driven.

9.3.18 HOP Analogue Control

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9.3.19 CRT Panel

Figure 9-26 RGB amplifiers on CRT panel
The Red, Green, and Blue signals from the HOP panel are fed to their respective CRT panel. The signal is fed to the emitter of 7200 and then to 7202 on each panel. The output of 7202 is fed to pin 2 of 7201, which drives the cathode of the CRT. AKB drive is output on pin 7 and fed to the HOP panel.

9.3.20 HOP Sync Switching and Processing

Figure 9-27 HOP sync processing
Horizontal and Vertical Sync from the SSB is fed to the HOP panel via the SSM panel, when NTSC is used as the signal source. In sets with the D Shell RGB input, 7110 switches between the Vertical and Horizontal Sync on the cinch connectors or the Sync from Pins 13 and 14 of the D Shell connector. IC 7210 selects between the output of 7110 and the Sync from the SSB. For separate Horizontal and Vertical Sync, the output of 7210 is fed to the multiplexer IC 7330, which is used as a switch. In the case of Sync on Y or Sync on Green, pin 19 of 7210 is fed to pin 18 of 7210 to a Sync Separator. If separate Horizontal Sync is present, the internal detector in 7210 turns the Sync Separator "off". The Sync output on pin 17 is fed to a Low Pass Filter, which separates the Vertical Sync. The Timer IC 7328 detects the Horizontal Sync and feeds it to
7330. The detected Horizontal Sync from 7328 is fed to pin 1 of 7330 to switch the IC to the pin 6 and 3 inputs.
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Figure 9-25 IC7800 HOP analogue control
IC 7800 develops the analogue control voltage for the HOP panel. The I2C bus controls the IC. This IC is located on the HOP panel.
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9.3.21 Line Output

Circuit Descriptions, List of Abbreviations, and IC Data Sheets
Horizontal drive from the HOP panel is fed to 7807 on the Large Signal panel. Transistor 7807 drives the Horizontal Output Transistor 7801, which drives the Yokes and the Horizontal Output Transformer 5801. Transformer 5801 produces plus and minus 13-Volt supplies for the Vertical Output circuit. It also produces a 200-Volt source and Filament voltage for the CRT panels. The output of 7807 also drives 7803 and 7802, which drives the Dynamic Focus circuit.

9.3.22 Frame Amplifier

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Figure 9-28 Line output circuit
Figure 9-29 Frame circuit
The Vertical drive from the HOP panel drives the Vertical Output IC 7811. This IC is located on the Large Signal panel. Drive is fed to pin 7 and is output on pin 5 to drive the three Vertical Yokes. This IC is powered by the plus and minus 13­Volt supplies from the Horizontal Output circuit. A Vertical pulse on pin 6 is fed to the sweep failure detection circuit. If there is a failure in the Horizontal or Vertical sweep, the High Voltage will be shut down.
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9.3.23 High Voltage Circuit

EN 93DPTV585 AA 9.
The High Voltage module is an integrated High Voltage supply with its own switching power supply. When the set is turned "on", 11.5 volts from the Sweep Failure detection circuit is fed to diode 6913 and to pin 8 of the High Voltage module. A supply voltage of 130 volts is also fed to pin 10 of the module. The Module then outputs High voltage to the three CRTs. It also outputs Focus voltage to the Focus G2 block. Output on pin 4 is rectified by 6917 to produce a negative 200 Volt source for the CRT G1 voltage. The voltage is also rectified by 6919 to

9.3.24 Shutdown

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Figure 9-30 High voltage circuit
produce a 375 Volt source for the Dynamic Focus drive. The DAG line along with the output on pin 2 is connected to 7903 to produce the ABL voltage for the set. If an over-current condition should develop with the drive, the ABL voltage will go Low, turning 7905 "on", latching 7904, which will remove drive to pin 8 of the HVG. This will cause the High voltage to shut "off". Vertical Parabola drive is fed to 7901 to produce the Vertical component of the Dynamic Focus drive.
The Shutdown circuit will shut the High voltage "off" if the Horizontal or Vertical Sweep should fail. It will also shut the High voltage "off" if the Power Fail line goes "high" or the +200 Volt source should fail.
Figure 9-31 Blanking and HV-protection circuit
The Vertical pulse is fed to zener diodes 6824 and 6814, which keeps capacitor 2837 charged. This pulse is rectified by 6815 to keep the base of 7808 at a negative voltage. This keeps the
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transistor turned "off". In the same manner, the Negative Horizontal pulses keep the base of 7810 at a negative voltage to keep it turned "off". The Protect line is normally Low, keeping 7809 turned "off". The +200-volt source is fed through zener diodes 6812 and 6816, resistor 3850, the base-emitter of 7906, the base emitter of 7812 to keep transistor 7813 turned "on". This turns transistor 7814 "on", which switches the "on" voltage to the High Voltage module. The conduction of 7812 keeps the voltage on the G1 line at approximately - 18 Volts, which turns the CRTs "on". If the Vertical Pulse should fail, transistor 7808 will turn "on", which will turn 7906, 7812, 7813, and 7814 "off". This will turn the HVG module "off". In addition when 7812 turns "off", the G1 voltage will go to -200 Volts, blanking the CRTs. The same sequence will occur if Horizontal should fail, the Protect line should go "high", or the +200 Volt source should fail.

9.3.25 Convergence

The Convergence system is split into two sections. The convergence signal processor is located on the ACS (Auto Convergence System) module. The output amplifiers are located on the SSM (Small Signal Module).
Convergence processor
Convergence Horizontal Output
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Figure 9-33 Convergence horizontal output circuit
IC 7044 amplifies the Horizontal convergence waveforms. The correction waveforms are fed to the IC on Pins 6, 14, and 15. They are output to the Convergence Yokes on Pins 9, 11, and
18. The IC is powered by four supply inputs. A +35 Volt supply is fed to pin 5, a -35 Volt supply is fed to pin 4, and a -22 Volt supply is fed to pin 8, 12, and 17. The supply fed to pin 10 is normally a +22 Volt supply. During signal peak drives, the voltage on pin 10 is increased to +35 Volts. Feedback sense voltage is developed across the 6.8 ohm resistors on the return side of each yoke. Transistor 7007 is part of a Soft Start circuit. When the set is turned "on", Transistor 7007 turns "on" until capacitor 2043 is fully charged. While 7007 is being turned "on", a negative voltage is placed on pin 3 muting the output of the IC. A 220-ohm snubber resistor is across each of the yoke windings. This resistor will overheat if the unit is operated with the Convergence Yokes unplugged.
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Figure 9-32 Convergence signal processor
The Convergence data is stored in the EEPROM, 7000. The microprocessor located on the ASC module reads 1,971 bytes of data from 7000 and writes it to the Convergence Processor,
7002. Horizontal sync is inverted by 7026, buffered by 7025, and fed to pin 27 of 7002. Vertical sync is inverted by 7027, buffered by 7028, and fed to pin 28 of 7002. The data is processed to produce the desired convergence correction waveforms, which are output on six DACS. During the convergence adjustment procedure, a 180-point alignment grid is output on Pins 16, 17, and 18. This signal is mixed with the OSD to be displayed on the screen. In the 4x3 aspect ratio set, there are three sets of convergence data. In sets with a 16x9 aspect ratio, there are two sets of convergence data. The set will require convergence alignment for each set of convergence data. The correct mode must be selected and the signal for that mode must be applied to the set during the convergence alignment. The output of the DACS is fed to six op-amps before being fed to the Power Amplifiers located on the SSM. When screen centring is being performed, it is necessary to disable the convergence drive waveform. A High on pin 77 turns transistor 7029 "on", turning 7038 "on", which turns transistors 7032, 7033, 7030, 7031, 7034, and 7035 "on". This mutes the correction drive signal to the Power Amplifiers.
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Convergence Vertical Output
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Figure 9-34 Convergence vertical output circuit
IC 7045 amplifies the Vertical convergence waveforms. The correction waveforms are fed to the IC on Pins 6, 14, and 15. Output is on Pins 9, 11, and 18 to the Vertical Convergence yokes. Feedback sense voltage is developed across the 6.8­ohm resistors on the return side of each yoke. A Snubber resistor is across each yoke. These resistors will overheat if the circuit is operated without the Convergence Yokes being plugged in. The IC is powered by four supplies, +35 Volt, -35 Volt, VccPSW-V, and VCCNSW-V. The VccPSW-V supply is normally at +22 volts. The BV_OUT, GV_OUT, and RV_OUT lines are connected to a Vertical Power up circuit, which senses the drive to the Convergence Yokes. If the drive to the yokes reaches 10 to 12 Volts, the Vertical Power up circuit will switch the VccPSW-V supply to +35 Volts. If the Vertical Power
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EN 95DPTV585 AA 9.
up circuit senses a negative 10 to 12 volt drive to the Vertical Convergence yokes, the VccNSW-V supply will switch from ­22 Volts to -35 Volts. As with the Horizontal drive circuit, 7005 mutes the output of 7045 during power up.

9.4 Audio

9.4.1 Overall Audio Block

Figure 9-35 Overall Audio Block
IC 7017, located on the SSM, selects Left and Right channels of audio and feeds them to the Audio Processor, 7651, located on the SSB panel. The Audio processor selects between the two audio channels from the SSM or internally decoded audio from selected audio IF on the SSB. The Processor outputs line level Left and Right monitor audio, and line level Sub Woofer out. These jacks are located on the SSM. It also outputs Left and Right audio to the Audio Amplifier, located on the SSM.
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Left and Right audio is output to a Headphone Amplifier located on the SSM. The output of the Headphone Amplifier is fed to the Side Jack Panel.

9.4.2 Audio Processor

Figure 9-36 Audio Processor
Audio processing is performed by 7651, which is located on the SSB. QSS Audio IF is fed to pin 50 of the IC. If the RF signal source is SECAM, the AM audio is fed to pin 47. Selected AV audio is fed to Pins 42, 41,45, and 44. The Demodulator detects and decodes the signal before feeding it to the processing section. The selected AV audio is fed to two A/D converters and then to the processing section. The Sound processing includes Volume, Equalizer, balance, Loudness, Incredible Sound, and Virtual Dolby. After processing, the Audio signal is fed to six D/A converters. The Main Speaker Audio is output on Pins 20 and 21. Headphone Audio is output on Pins 17 and 18 before being fed to an amplifier on the SSM. AV out Audio is output on Pins 25 and 26.
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9.4.3 Audio Amplifier

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Figure 9-37 Audio Amplifier
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Circuit Descriptions, List of Abbreviations, and IC Data Sheets
The Audio Amplifier is located on the SSM. The output power for the Audio Amplifier is 10 Watts per channel for the Basic and Basic Plus versions. The Core Version has an output of 15 Watts per channel. IC 7700 is the Audio output IC. This is a class D amplifier. Left and Right Audio from the SSB is fed to Pins 10 and 18 of the IC. The output stages are basically switch mode circuits, driven by the audio input signal. The frequency of the output is keep at 200 kHz by an internal 200 kHz oscillator. The pulse width of the output is determined by the signal level of the input signal. The Right Channel pulse width signal is output on pin 3. The output is filtered by 5701, 2777, 2776, 2717, 5716, and 2737. The amplified audio is output on connection 1349. In the same manner, Left audio is output on pin 23. The IC is powered by +19 and -19 Volt supplies. The supplies are protected by fuses 1700 and 1701. The Supply voltage for the Core version is 4 volts higher than the Basic and Basic plus version. The extra supply voltage is needed to produce the additional 5 Watts per channel output.
Muting and volume control for the audio takes place in the Audio Signal processor on the SSB. The STBY MUTE line on pin 6 goes to 2.5 Volts to mute the audio when the set is turned "on" or "off". This line goes "low" to place the amplifier in a Standby mode if a DC voltage is detected on the Audio Output lines.

9.4.4 Shutdown Mute

If the Power Fail line should go "high", 7710 will turn "on", causing the Standby-Mute line to go Low.

9.4.5 Centre Channel Amp Switch

Figure 9-39 Centre Channel Amp Switch
The Core versions have a Centre Channel amp switch, located on the rear of the set. The Output of the Audio Amplifier on the Basic and Basic Plus versions are fed directly to the speakers. In the Core sets, the Output is fed to the Centre Channel amp switch before being fed to the speakers. When the Centre Channel amp switch is placed in the External position, the Left and Right speakers in the set are placed in series with the external speaker input. In cases where the Customer has a separate sound system, this switch allows the speakers in the set to be used as the centre output.
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Figure 9-38 Shutdown Mute
The Audio Amplifier will be placed in a Standby mode and the set will shut down if a DC voltage is detected on the Speaker Output lines. The Left and Right audio output lines are connected to the base of 7704 and the emitter of 7705 via resistors 3718 and 3717. Filter capacitor 2778 filters out the AC component of the waveform. If the DC voltage goes positive, 7704 will turn "on". If the voltage goes negative, 7705 will turn "on". This turns 7706 "on" which turns 7707 "on". This causes the Front Detect line to go Low, preventing the microprocessor from receiving any commands. It also turns SCR 6701 "on", turning transistor 7708 "on", causing the Standby line to go "high". If this SCR is turned "on", it will be necessary to remove power from the set to reset the circuit. This will turn the set "off". Transistor 7707 also turns "on", causing the Standby-Mute line to go Low. This places the Audio Output IC in a Standby mode.

9.4.6 Headphone Amplifier

Figure 9-40 Headphone Amplifier
IC 7403 is the Amplifier for the Headphone output. The volume control for the Headphone output is on the Audio Signal processor located on the SSB. The Headphone Amplifier is located on the SSM. The output of the amplifier on Pins 1 and 7 is sent to the Headphone Jack, located on the Side Jack panel.
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9.5 Control/OSD

9.5.1 Microprocessor

The HDR2K3 has two microprocessors. The microprocessor, OTC, located on the SSB, 7001, is the main processor for the set. When Power is applied to the set and the Mains switch is turned "on", the processor monitors the Keyboard and IR receiver located on the Sensor Board. This IC controls the functions on the SSB, Video switching on the SSM, and the PIP/DW panel. A ROM located inside the IC has the Startup program. The main program to run the processors is located in
the Program Flash RAM, 7006. IC 7012 is used by the OTC for temporary storage. IC 7007 is used to store data for Teletext. There are three I2C busses, a fast bus, F, a slow bus, S, and a TX bus to communicate with the microprocessor on the ACS module. The NVM 7011 stores settings such as customer preferences, OPT numbers, Tuner settings, and Error codes. composite video is fed to pin 5 for decoding Teletext and Closed Caption information. In the Standby mode, Power is not applied to the processor on the ACS module.
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EN 97DPTV585 AA 9.
SENSOR BOARD
KEYBOARD
STBY LED
ON/OFF LED
LIGHT SENSOR
RC5
1201
2
5
4
6
7
1014
2
5
4
6
7
SSM
+9V
1020
79
77
37
78
HFB
VSYNC
CVBS-TXT
RESET
7010
STANDBY
7015
7016
107
113
104
116
100
83
84
5
74
SSB
7001 OTC
SDA
SCL
23-37
DTA
7006
7012
PROGRAM
EPG
FLASH
FLASH-RAM
RAM
45-66
ADD
SDA-S
SCL-S
SDA-F
SCL-F
5
6
7011 NVM
TxD
RxD
90
89
86
85
88
87
91
92
Figure 9-41 Microprocessor
7007 DRAM TXT
1401-2
1401-4
SSM
1043-9
1043-7
1000-1
1000-2
SYNC-V
SYNC-H
RESET
+3.3V
75
7100
82
ACS CONTROL
81
16
17
55
53
72
30
ACS
28
13
84
SDA-C
83
SCL-C
69
70
52
BLANK-UP
48
RED-UP
47
GRN-UP
46
BLUE-UP
1200
TO HOP VIA SSM
6
7000 NVM
5
1
SDA-B
SCL-B
7
WC
8
+5V
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CONV PROC
The microprocessor, 7100, located on the ACS module, controls the Convergence, Geometry, and CRT drive circuits. Settings for Convergence, Geometry, and White drive are stored in the NVM, 7000. This IC is 512K for the AP sets and 256K for the Korean version. When 7100 reads the size of 7000, it then determines which software to load. If it reads 512K present, the AP software is loaded. If it reads 256K, NTSC only software is loaded. Commands for the ACS processor are produced by the OTC on the SSB and transmitted via the TXD and RXD lines.

9.5.2 Front Control Panel

KEYBOARD
ON_OFF_LED
+5V_STANDBY
LIGHT_SENSOR
GND
+9V
RC5
1201
2
6102
6.8V
3
3121 560
3107 330
3109 470
LIGHT_SENSOR
RED
6101
GREEN
+9V
5
4
1
7
6
VOL-
VOL+
CH+
100
240
3101
3102
6103
6.8V
3108
6.8K
1401
RC5
3114 10K
1403
1402
1
6105
2
IR REC
3
Figure 9-42 Front Control Panel
CH-
MENU
ASC
820
470
3103
1404
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1.5K
3105
3104
1406
1405
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The IR Receiver, 6105, receives commands from the remote control.

9.5.3 Light Sensor

+9V
2101 10uF
3115 330K
7000-1
3
8
+
1
2
­4
3116
3.3K
3110
2102
330K
220n
6104
POWER
3.6K
3106
1407
3117 1K
3111
4.7K
2104
2.2uF
3112
3.3K
7000-2
3113
5
8
+
4.7K
7
6
­4
LIGHT_SENSOR
3118 1K
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Figure 9-43 Light Sensor
The Light Sensor, 6104, is amplified by two op amps in 7000. This circuit senses the ambient light and outputs a voltage on pin 7 of 7000. This voltage is fed to the OTC, which makes changes in the picture brightness to compensate for changes in the ambient light.
The Front Control panel has the Power LED, Keyboard, IR Receiver, and Light Sensor. The Keyboard is a resistor ladder. The voltage changes value depending on which selection is made. The voltage on this line will be 3.3 volts if no buttons are selected. The two-colour LED indicates the status of the set. In the Standby mode, the ON_OFF_LED line is High and the +9­volt source is turned "off". In this case, the RED LED is lit. When the set is turned "on", the +9-volt source is switched "on", turning the Green section of the LED "on". The LED then turns Yellow. When the set is fully "on", the ON_OFF_LED line goes Low, turning the Red LED "off". The indicator is now Green.
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9.5.4 I2C interconnect

Circuit Descriptions, List of Abbreviations, and IC Data Sheets
SSB
90
TXD
RXD
89
88
SDA-F
87
SCL-F
SDA-S
SCL-S
3709 100
4
7713 PICNIC
SN-DA
1
26
7718 FALCONIC
1020
48
86
85
49
7001 OTC
5
SN-CL
2
27
3376
3710
100
100
46
7323 HIP
9741-C
10
9741-D
32
10
7724 EAGLE
3114
3115
47
47
4
5
1203 TUNER
3656
3377
100
100
47
26
1
2
COMPAIR
The OTC communicates with the set via three I2C busses. SDA-F, Fast bus communicates with the PICNIC, HIP, and MSP (Audio Processor). The SN-DA line from the PICNIC communicates with the FALCONIC and EAGLE. The SDA-S Slow bus communicates with the Tuner, AV Switch, and ComPair connector on the SSM. It also communicates with the PIP-DW board.
The TXD and RXD lines communicate with the microprocessor on the ACS module. The microprocessor on the ACS communicates with the GDE NVM, Convergence Processor, and the HOP panel.

9.5.5 On-Screen Display

1401
1043
2
1
4
2
3655 100
1
2
7651 MSP
SSM
3130
3131
220
220
32
3
33
7017 AV SW
Figure 9-44 I2C interconnect
7000 GDE NVM
HOP
7021 7020
7024
3955 100
3956 100
3965 100
3966 100
7832 7829
7801 PIP/DW
7022
7002 CONV PROC
7023
7800 I/O
7600 HOP
3267 100
7201 TUNER
3268 100
3330 100
7301
SIGNAL PRO
3329 3509 100
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1000
1
2
1201
ACS
28
SDA-B
7100 ACS MICRO
13
SCL-B
84
83
1000
6
4
1950
5
SDA-C
4
SCL-C
PIP/DW PANEL
0201
1
1
2
2
3431 100
7403 I/O EXP
3432 100
In the SAM (Service Alignment Mode), the menus are generated by 7001, except those in the GDE SAM. The GDE SAM menus are generated by IC 7100 on the ACS module.
The Convergence Alignment menus are generated by 7100, while the Convergence Alignment grid is generated by IC 7002. The OSD signals from 7001 on the SSB are fed to the SSM (Small Signal Module) via connector 1002 and 1043. The OSD signals from the Convergence Processor, 7002, are buffered by 7014 through 7017 before being mixed with the signals from the ACS microprocessor, 7100. They are fed to the SSM via connector 1000. The signals from the ACS and SSB are mixed and fed to the HOP panel and HOP IC, 7600, via connector
1610. The HOP IC, 7600, mixes the OSD signal with the video signal before feeding it to the CRTs.
100
7403 I/O EXP
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3510 100
Figure 9-45 On-Screen Display
Signal for the OSD (On-Screen Display) comes from three different sources. IC 7001, which is located on the SSB (Small Signal Board), generates all of the customer menus except for Convergence.
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EN 99DPTV585 AA 9.

9.6 List of Abbreviations

16:9-ARFRONT 16:9 aspect ratio input from side jack
panel 50Hz/60Hz 50Hz/60Hz AC frequency 6-CHANNEL DAC 6-Channel DAC ACS Auto Convergence System AFC Automatic Frequency Control AGC Automatic Gain Control AM-FM Amplitude Modulation/Frequency
Modulation AM-SOUND Amplitude modulated sound signal AP Asia Pacific AR Aspect Ratio: 4 by 3 or 16 by 9 ATV See Auto TV Auto TV A hardware and software control
system that measures picture content,
and adapts image parameters in a
dynamic way 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 AUX-SUPPLY Auxiliary supply BC-PROT Beam current protection B/G Monochrome TV system. Sound
carrier distance is 5.5 MHz BLC-INFO Black current information B-SC1-IN Blue SCART1 in B-SC2-IN Blue SCART2 in BTSC Broadcast Television Standard
Committee. Multiplex FM stereo sound
system, originating from the USA and
used e.g. in LATAM and AP-NTSC
countries B-TXT Blue teletext B-vc Blue from video-controller C Centre C/16/9 Chrominance input C-7-OUT Chrominance on pin 7 SCART
(variant) CBA Circuit Board Assembly CENTER Centre speaker C-FRONT Chrominance front input CL_DS_L Constant Level Dual Screen Left CL_DS_R Constant Level Dual Screen Right CL_L Constant Level Left CL_L_OUT Constant Level Left out CL_R Constant Level Right CL-R-OUT Constant Level Right out CODEC Coding/Decoding COMP Compander ON/OFF CORDL_L Cordless Left CORDL_R Cordless Right CORE TOP LEVEL Core Top Level CRT Cathode Ray Tube CSM Customer Service Mode C-UI Chrominance UI CVBS Composite Video Blanking Signal CVBS_Y-UI CVBS Y UI CVBS-PIP-DS CVBS Picture In Picture dual Screen CVBS-SC1-IN CVBS SCART1 in CVBS-SC2 OUT CVBS SCART2 out CVBS-SC2-IN CVBS SCART2 in CVBS-SC3-IN CVBS SCART3 in CVBS-SC4-IN CVBS SCART4 in CVBS-TER CVBS terrestrial CVBS-TXT-DS-OUT 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 DC_PROT/ AUDIO_SR DC protection (for supply) DC-filament Filament supply voltage DC-PROT DC protection DETECT Detect signal side I/O (side jack panel)
input DFU Directions For Use: owner's manual DIG_IN1 Digital In 1 DIG_IN2 Digital In 2 DIGITAL I/O Digital in/out DIG-OUT Digital out D/K Monochrome TV system. Sound
carrier distance is 6.5 MHz DNR Dynamic Noise Reduction DS-AUDIO-L Dual Sound Audio Left DS-AUDIO-R Dual Sound Audio Right DSP Digital Signal Processing DST Dealer Service Tool: special remote
control designed for service
technicians DUET DUET-IC DVD Digital Versatile Disc DYN-FASE-COR Dynamic phase correction Eagle Feature box IC performing peaking,
zooming and sub pixel LTI in both
horizontal and vertical directions, CTI,
and other colour features EHT-INFO Extra high-tension information EPG Electronic Program Guide (=
NexTView) EW-DRIVE East-west drive signal FALCONIC Field and line rate converter IC.
SAA4992H, feature box IC which
performs Digital Natural Motion, 3DNR
vertical zoom, and vertical peaking FBCSO Fixed beam current switch off FBL-DS-OUT Fast Blanking Dual Screen out FBL-FDS Fast Blanking Full Dual Screen FBL-PIP Fast Blanking PIP FBL-SC1-IN Fast blanking signal for SCART1 in FBL-SC2-IN Fast blanking signal for SCART2 in FBL-TXT Fast Blanking Teletext FDS Full Dual Screen (same as FDW) FDSL-OUT Full Dual Screen - Left out FDSR-OUT Full Dual Screen - Right out FDW Full Dual Window (same as FDS) FEAT-U U from Feature Box FEAT-V V from Feature Box FEAT-Y Y from Feature Box FILAMENT Filament of CRT FILAMENT-PROT Filament protection FLASH Flash memory FM Field Memory or Frequency
Modulation FM SOUND Frequency Modulation Sound FRAME ROTATION Frame rotation FRAME-ROT + Frame rotation plus FRONT-C Front input chrominance (SVHS) FRONT-DETECT Front input detection FRONT-Y_CVBS Front input luminance or CVBS
(SVHS) GDE Generic Display Engine GHOST-IN Signal Ghost cancellation in G-SC1-IN Green SCART1 in G-SC2-IN Green SCART2 in G-TXT Green teletext G-vc Green from video-controller HA Horizontal Acquisition HA1 Horizontal Sync (diversity) HA-D Horizontal Sync from HIP-IC to FDS HD Horizontal drive coming from PICNIC Hdefl-1in Horizontal deflection signal needed for
DC-shift circuitry Hdefl-lin Horizontal deflection linearity
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Circuit Descriptions, List of Abbreviations, and IC Data Sheets
HEATER Heater (Filament) HFB Horizontal flyback HFB+13V Non-rectified output 13V-winding LOT HFB-D Horizontal flyback to FDS HIP High-end Input Processor HOP High-end Output Processor HOSD PIP Horizontal OSD PIP HP Headphone HS-DS Horizontal sync input POPOV (Double
Window PIP IC)
I Monochrome TV system. Sound
carrier distance is 6.0 MHz I2C Integrated IC bus I2S Integrated IC Sound bus I2S-CL I2S bus clock I2S-DSP-IN I2S digital signal processor in I2S-DSP-OUT I2S digital signal processor out I2S-DSP-OUT1 Serial-DSP-bus-out1 I2S-WS I2S bus Word Stroke IN-C_IN-R-SC2 Either Chrominance-in SCART2 or
Red-in SCART pin 15 IN-FRONT-SNDL Sound left front in IN-FRONT-SNDR Sound right front in IN-SC1-B In SCART1 blue IN-SC1-G In SCART1 green IN-SC1-R In SCART1 red IN-SC1-SNDL In SCART1 sound left IN-SC1-SNDR In SCART1 sound right IN-SC2-B In SCART2 blue IN-SC2-CVBS_Y In SCART2 CVBS or luminance
(SVHS) IN-SC2-FBL In SCART2 fast blanking IN-SC2-G In SCART2 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. IN-UI-B B input from UI IN-UI-FBL Fast Blanking input from UI IN-UI-G G input from UI IN-UI-R R input from UI IO-BUS In/out - Bus IR-LED Drive signal for the service infrared
LED KEYBOARD Top controls L Left Audio LDP Line Deflection Protection LED Light Emitting Diode LINE-DRIVE Line drive signal L/L' Monochrome TV system. Sound
carrier distance is 6.5 MHz. L' is Band
I, L is all bands except for Band I LMN System L, M, N LNA Low noise adapter LS CORRECTION Picture with corrections LSB Large Signal Board LV- Frame coil sink signal to the N/S
correction circuitry LV+ Frame coil drive signal from the frame
output stage MCADEC_RESET Reset signal (Master reset) MCS-MPEG Multi Channel Sound - MPEG M/N Monochrome TV system. Sound
carrier distance is 4.5 MHz MSP-CLOCK Clock signal multi-standard sound
processor MUP Microcomputer MUTE Mute-Line N52502 CAD naming referring to other sub-
schedule NC Not Connected NICAM Near Instantaneous Compounded
Audio Multiplexing. This is a digital
sound system, mainly used in Europe.
NTSC National Television Standard
Committee. Colour system mainly used in North America and Japan. Colour carrier NTSC M/N= 3.579545 MHz, NTSC 4.43= 4.433619 MHz (this is a VCR norm, it is not transmitted off-
air) NVM Non-Volatile Memory O/C Open Circuit ON/OFF LED On/off control signal for the LED OSD On Screen Display OTC OSD, Teletext Controller OUT-1 Y-output POPOV (Double Window
PIP IC) OUT-2 V-output POPOV (Double Window
PIP IC) OUT-3 U-output POPOV (Double Window
PIP IC) OVERRULE-TXT Overrule Teletext P50_OUT Easy link data line from SCART2 PAL Phase Alternating Line. Colour system
mainly used in West Europe (colour
carrier= 4.433619 MHz) and South
America (colour carrier PAL M=
3.575612 MHz and PAL N= 3.582056
MHz) PCB Printed Circuit Board (CBA) PD Power Down PICNIC Picture Improved Combined Network
IC PILOT Pilot Signal PILOTMUTE Pilot Mute signal PIP Picture In Picture PIP-B Picture In picture Blue PIP-FBL PIP Fast Blanking PIP-G Picture In Picture Green PIP-R Picture In Picture Red PLL Phase Locked Loop. Used for e.g.
FST tuning systems. The customer
can give directly the desired frequency POPOV Double Window PIP IC POR Power On Reset, signal to reset the P Progressive Scan Scan mode where all scan lines are
displayed in one frame at the same
time, creating a double vertical
resolution. POWER-DOWN MUTE Power Down Mute POWER-ON MUTE Power "on" Mute R Right Audio RAM Random Access Memory RC5 RC5 signal from the remote control
receiver RESET Reset signal RESET-AUDIO Reset signal for audio IC MSP3410 RESET-AUDIO-INV Reset signal for audio IC MSP3410
inverted RESET-FLASH Reset signal flash memory RF Right output (no companding) ROM Read "on"ly Memory R-SC1-IN Red SCART1 in R-TXT Red teletext R-VC Red from video-controller S/C Short Circuit SAM Service Alignment Mode SC2-B-IN SCART2 blue in SC2-C-IN SCART2 chrominance in SC2FH_IFH Sandcastle 1fH/2fH SC2-G-IN SCART2 green in SC2-R-IN C-IN Red in SCART2 or chrominance in Scavem Scan Velocity Modulation SCAVEM-SW Scavem- switch SCL Serial Clock I2C SCL-F Clock line of the I2C-bus fast (for TXT) SCL-S Clock line of the I2C-bus slow
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