Philips Q548.1E Service Manual

Page 1
Colour Television Chassis
LA
18560_000_090401.eps
090401

Contents Page Contents Page

1. Revision List 2
2. Technical Specifications and Connections 2
3. Precautions, Notes, and Abbreviation List 5
4. Mechanical Instructions 9
5. Service Modes, Error Codes, and Fault Finding 16
6. Alignments 33
7. Circuit Descriptions 39
8. IC Data Sheets 49
9. Block Diagrams Wiring Diagram 32" (Frame) 59 Wiring Diagram 37" (Roadrunner) 60 Wiring Diagram 42" (Frame/Roadrunner) 61 Wiring Diagram 47" (Frame / Roadrunner) 62 Wiring Diagram 52" (Frame) 63 Block Diagram Video 64 Block Diagram Audio 65 Block Diagram Control & Clock Signals 66 Block Diagram I2C 67 Supply Lines Overview 68
10. Circuit Diagrams and PWB Layouts Drawing PWB Interface Ambilight + Single DC-DC Interface Ambilight Dual DC-DC (AB2) 70 72 Interface Ambilight Microcontrollerblock (AB3) 71 72 6 LED Ambilight Microcontroller 73 76 8 LED Ambilight Microcontroller 77 81 10 LED Ambilight Microcontroller 82 86 12 LED Ambilight Microcontroller 87 91 SSB: DC/DC +3V3 +1V2 (B01A) 92 127 SSB: DC/DC +3V3 +1V2 Standby (B01B) 93 127 SSB: Front End (B02A) 94 127 SSB: PNX8543 - Power (B03A) 95 127 SSB: PNX8543 - Video/LVDS Out
SSB: PNX8543 Audio Amplifier (B03C) 97 127
©
Copyright 2009 Koninklijke Philips Electronics N.V. 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.
(AB1) 69 72
(B03B) 96 127
SSB: PNX8543 Audio (B03D) 98 127 SSB: PNX8543 Analog AV (B03E) 99 127 SSB: PNX8543 SDRAM (B03F) 100 127 SSB: PNX8543 Control MIPS/Flash/PCI (B03G) 101 127 SSB: PNX8543 Standby Control/Debug (B03H) 102 127 SSB: Bolt-on (Pt. no. 1) (B04A) 103 127 SSB: Bolt-on (Pt. no. 3) (B04A) 104 128 SSB: Analog IO - Scart 1 & 2 (Pt. no. 1) (B04B) 105 127 SSB: Analog IO - Scart 1 & 2 (Pt. no. 3) (B04B) 106 128 SSB: YPbPr / Side I/O / S-video (B04C) 107 127 SSB: HDMI (B05A) 108 127 SSB: Ethernet (Pt. no. 1) (B05B) 109 127 SSB: Ethernet (Pt. no. 3) (B05B) 110 128 SSB: PCMCIA (B05C) 111 127 SSB: Class-D (B06A) 112 127 SSB: Display Interface (Common) (B07A) 113 127 SSB: Display Supply (Pt. no. 1) (B07B) 114 127 SSB: Display Supply (Pt. no. 3) (B07B) 115 128 SSB: PNX5100 - Power (B08A) 116 127 SSB: PNX5100 - SDRAM (B08B) 117 127 SSB: PNX5100-Ctrl/PCI/Debug (Pt. no. 1)(B08C)118 127 SSB: PNX5100-Ctrl/PCI/Debug (Pt. no. 3)(B08C)119 128 SSB: PNX5100 - LVDS In/Out (B08D) 120 127 SSB: PNX5100 - AmbiLight (B08E) 121 127 SSB: SRP List Explanation 122 SSB: SRP List Part 1 (Pt. no. 1) 123 SSB: SRP List Part 2 (Pt. no. 1) 124 SSB: SRP List Part 1 (Pt. no. 3) 125 SSB: SRP List Part 2 (Pt. no. 3) 126
Published by ER/TY 0968 BU TV Consumer Care, the Netherlands Subject to modification EN 3122 785 18562
2009-Aug-07
Page 2
EN 2 Q548.1E LA1.
Revision List

1. Revision List

Manual xxxx xxx xxxx.0
First release.
Manual xxxx xxx xxxx.1
All Chapters: added CTNs to the manual, see Table 2-1
Chapter 2: added AV output characteristics to section
2.3.2 Rear Connections
Chapter 6: changed option codes of all sets, see Table 6-6
Chapter 6: introduced “option 9” for dedicated sets, see
Table 6-7
Chapter 10: introduction of an alternative Ethernet Controller, see diagram 8.7 Diagram SSB: Ethernet (Pt. no.
3) B05B, LAN9420 (IC7N04)
Chapter 10: introduction of SSB Pt. 3, see diagrams
SSB: Bolt-on (Pt. no. 3) no. 3), SSB: Ethernet (Pt. no. 3), SSB: Display Supply (Pt. no. 3) and SSB: PNX5100-Ctrl/PCI/Debug (Pt. no. 3).
Manual xxxx xxx xxxx.2
All Chapters: added 47PFL8404H/60 to the manual, see
Table 2-1
Chapter 5: removed SSB replacement flowchart
Chapter 6: added section 6.6 Service SSB delivered
without main software loaded.

2. Technical Specifications and Connections

, SSB: Analog IO - Scart 1 & 2 (Pt.
Index of this chapter:

2.1 Technical Specifications

2.2 Directions for Use

2.3 Connections
2.4 Chassis Overview
Notes:
Figures can deviate due to the different set executions.
Specifications are indicative (subject to change).
2.1 Technical Specifications
For on-line product support please use the links in Table 2-1. Here is product information available, as well as getting started, user manuals, frequently asked questions and software & drivers.

Table 2-1 Described Model numbers

CTN Styling Published in:
32PFL7404H/12
32PFL7404H/60
32PFL7674H/12
32PFL7674H/60
32PFL7684H/12
32PFL7684H/60
32PFL7694H/12
32PFL7694H/60
32PFL7864H/12
32PFL7864H/60
32PFL8404H/12
32PFL8404H/60
37PFL8404H/12
37PFL8404H/60
37PFL8684H/12
37PFL8694H/12
Frame 3122 785 18560
Frame 3122 785 18561
Frame 3122 785 18561
Frame 3122 785 18561
Frame 3122 785 18561
Frame 3122 785 18561
Frame 3122 785 18561
Frame 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18560
Roadrunner 3122 785 18561
Roadrunner 3122 785 18560
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
CTN Styling Published in:
42PFL7404H/12 Frame 3122 785 18560
42PFL7404H/60
42PFL7674H/12
42PFL7674H/60
42PFL7864H/12
42PFL7864H/60
42PFL8404H/12
42PFL8404H/60
42PFL8654H/12
42PFL8684H/12
42PFL8684H/60
42PFL8694H/12
42PFL8694H/60
47PFL7404H/12
47PFL7404H/60
47PFL7864H/12
47PFL8404H/12
47PFL8404H/60
52PFL7404H/12
52PFL7404H/60
Frame 3122 785 18561
Frame 3122 785 18561
Frame 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18560
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18561
Frame 3122 785 18560
Frame 3122 785 18561
Roadrunner 3122 785 18561
Roadrunner 3122 785 18560
Roadrunner 3122 785 18561
Frame 3122 785 18560
Frame 3122 785 18561
2.2 Directions for Use
You can download this information from the following websites:
http://www.philips.com/support http://www.p4c.philips.com
2009-Aug-07
Page 3

2.3 Connections

Technical Specifications and Connections
EN 3Q548.1E LA 2.
Side connectors
26-52"
1
19-22"
2 3 4
5
Back connectors
11
AUDIO
OUT
12
10 9
SPDIF
EXT 2
OUT
(RGB/CVBS)
VGA
EXT 1
(RGB/CVBS)
6
7
8
Note: The following connector colour abbreviations are used (according to DIN/IEC 757): Bk= Black, Bu= Blue, Gn= Green, Gy= Grey, Rd= Red, Wh= White, Ye= Yellow.

2.3.1 Side Connections

1 - Cinch: Audio - In
Rd - Audio R 0.5 V Wh - Audio L 0.5 V
2 - Cinch: Video CVBS - In
Ye - Video CVBS 1 V
/ 10 kΩ jq
RMS
/ 10 kΩ jq
RMS
/ 75 Ω jq
PP
AUDIO IN: LEFT / RIGHT HDMI 1 / DVI HDMI 2 / DVI HDMI 3 / DVI
13
EXT 3
14

Figure 2-1 Connection overview

4 - Head phone (Output)
Bk - Head phone 32 - 600 Ω / 10 mW ot
5 - Common Interface
68p - See diagram B05C SSB: PCMCIA
6 - USB2.0
VGA
HDMI 3
HDMI 2 HDMI 1
15 16
1 2 3 4
TV ANTENNA
18440_001_090217.eps
10000_022_090121.eps
090527
090121
jk
3 - S-Video (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 Ω j
PP
/ 75 Ω j
PP
Figure 2-2 USB (type A)
1-+5V k 2 - Data (-) jk 3 - Data (+) jk 4 - Ground Gnd H
2009-Aug-07
Page 4
EN 4 Q548.1E LA2.
Technical Specifications and Connections
7 - HDMI: Digital Video, Digital Audio - In (see connector 15)
8 - Service Connector (UART)
1 - Ground Gnd H 2 - UART_TX Transmit k 3 - UART_RX Receive j

2.3.2 Rear Connections

9 - EXT1/2: Video RGB - In, CVBS - In/Out, Audio - In/Out (*)
20
21
10000_001_090121.eps
2
1
090121
Figure 2-3 SCART connector
1 - Audio R 0.5 V 2 - Audio R 0.5 V 3 - Audio L 0.5 V
/ 1 kΩ k
RMS
/ 10 kΩ j
RMS
/ 1 kΩ k
RMS
4 - Ground Audio Gnd H 5 - Ground Blue Gnd H 6 - Audio L 0.5 V 7 - Video Blue 0.7 V 8 - Function Select 0 - 2 V: INT
/ 10 kΩ j
RMS
/ 75 Ω jk
PP
4.5 - 7 V: EXT 16:9
9.5 - 12 V: EXT 4:3 j
9 - Ground Green Gnd H 10 - n.c. 11 - Video Green 0.7 V 12 - n.c.
/ 75 Ω j
PP
13 - Ground Red Gnd H 14 - Ground P50 Gnd H 15 - Video Red 0.7 V 16 - Status/FBL 0 - 0.4 V: INT
/ 75 Ω j
PP
1 - 3 V: EXT / 75 Ω j 17 - Ground Video Gnd H 18 - Ground FBL Gnd H 19 - Video CVBS/Y 1 V 20 - Video CVBS 1 V 21 - Shield Gnd H
/ 75 Ω k
PP
/ 75 Ω j
PP
(*) Note: The AV output on SCART 1 or 2 will be enabled (SW controlled) for analogue RF channels only, if the decoder is turned “on” in the Menu: select Setup -> Installation -> Decoder
-> Status: select SCART 1 or 2 -> Channel: select any analogue channel.
10 - Cinch: S/PDIF - Out
Bk - Coaxial 0.4 - 0.6V
/ 75 Ω kq
PP
11 - Cinch: Audio - Out
Rd - Audio - R 0.5 V Wh - Audio - L 0.5 V
/ 10 kΩ kq
RMS
/ 10 kΩ kq
RMS
12 - VGA: Video RGB - In
1
5
6
11
10000_002_090121.eps
10
15
090127
1 - Video Red 0.7 V 2 - Video Green 0.7 V 3 - Video Blue 0.7 V 4-n.c.
/ 75 Ω j
PP
/ 75 Ω j
PP
/ 75 Ω j
PP
5 - Ground Gnd H 6 - Ground Red Gnd H 7 - Ground Green Gnd H 8 - Ground Blue Gnd H 9-+5V 10 - Ground Sync Gnd H
+5 V j
DC
11 - n.c. 12 - DDC_SDA DDC data j 13 - H-sync 0 - 5 V j 14 - V-sync 0 - 5 V j 15 - DDC_SCL DDC clock j
13 - Mini Jack: Audio - In
Wh - Audio L 0.5 V Rd - Audio R 0.5 V
/ 10 kΩ jo
RMS
/ 10 kΩ jo
RMS
14 - EXT3: Cinch: Video YPbPr - In, Audio - In
Gn - Video Y 1 V Bu - Video Pb 0.7 V Rd - Video Pr 0.7 V Rd - Audio - R 0.5 V Wh - Audio - L 0.5 V
/ 75 Ω jq
PP
/ 75 Ω jq
PP
/ 75 Ω jq
PP
/ 10 kΩ jq
RMS
/ 10 kΩ jq
RMS
15 - HDMI 1, 2 & 3: Digital Video, Digital Audio - In
19
18 2
10000_017_090121.eps
1
090428
Figure 2-5 HDMI (type A) connector
1 - D2+ Data channel j 2 - Shield Gnd H 3 - D2- Data channel j 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 - Easylink Control channel jk 14 - n.c. 15 - DDC_SCL DDC clock j 16 - DDC_SDA DDC data jk 17 - Ground Gnd H 18 - +5V j 19 - HPD Hot Plug Detect j 20 - Ground Gnd H
16 - Aerial - In
- - IEC-type (EU) Coax, 75 Ω D
Figure 2-4 VGA Connector

2.4 Chassis Overview

Refer to chapter Block Diagrams for PWB/CBA locations.
2009-Aug-07
Page 5
Precautions, Notes, and Abbreviation List

3. Precautions, Notes, and Abbreviation List

EN 5Q548.1E LA 3.
Index of this chapter:

3.1 Safety Instructions

3.2 Warnings

3.3 Notes

3.4 Abbreviation List
3.1 Safety Instructions
Safety regulations require the following during a repair:
Connect the set to the Mains/AC Power via an isolation transformer (> 800 VA).
Replace safety components, indicated by the symbol h, only by components identical to the original ones. Any other component substitution (other than original type) may increase risk of fire or electrical shock hazard. Of de set ontploft!
Safety regulations require that after a repair, the set must be returned in its original condition. Pay in particular attention to the following points:
Route the wire trees correctly and fix them with the mounted cable clamps.
Check the insulation of the Mains/AC Power lead for external damage.
Check the strain relief of the Mains/AC Power cord for proper function.
Check the electrical DC resistance between the Mains/AC Power plug and the secondary side (only for sets that have a Mains/AC Power isolated power supply):
1. Unplug the Mains/AC Power cord and connect a wire
between the two pins of the Mains/AC Power plug.
2. Set the Mains/AC Power switch to the “on” position
(keep the Mains/AC Power cord unplugged!).
3. Measure the resistance value between the pins of the
Mains/AC Power plug and the metal shielding of the tuner or the aerial connection on the set. The reading should be between 4.5 MΩ and 12 MΩ.
4. Switch “off” the set, and remove the wire between the
two pins of the Mains/AC Power plug.
Check the cabinet for defects, to prevent touching of any inner parts by the customer.
picture carrier at 475.25 MHz for PAL, or 61.25 MHz for NTSC (channel 3).
Where necessary, measure the waveforms and voltages
with (D) and without (E) aerial signal. Measure the voltages in the power supply section both in normal operation (G) and in stand-by (F). These values are indicated by means of the appropriate symbols.

3.3.2 Schematic Notes

All resistor values are in ohms, and the value multiplier is often used to indicate the decimal point location (e.g. 2K2 indicates 2.2 kΩ).
Resistor values with no multiplier may be indicated with either an “E” or an “R” (e.g. 220E or 220R indicates 220 Ω).
All capacitor values are given in micro-farads (μ=× 10 nano-farads (n =× 10
Capacitor values may also use the value multiplier as the decimal point indication (e.g. 2p2 indicates 2.2 pF).
An “asterisk” (*) indicates component usage varies. Refer to the diversity tables for the correct values.
The correct component values are listed on the Philips Spare Parts Web Portal.

3.3.3 Spare Parts

For the latest spare part overview, consult your Philips Spare Part web portal.

3.3.4 BGA (Ball Grid Array) ICs

Introduction
For more information on how to handle BGA devices, visit this URL: http://www.atyourservice-magazine.com “Magazine”, then go to “Repair downloads”. Here you will find Information on how to deal with BGA-ICs.
BGA Temperature Profiles
For BGA-ICs, you must use the correct temperature-profile. Where applicable and available, this profile is added to the IC Data Sheet information section in this manual.
-9
), or pico-farads (p =× 10
. Select
-12
-6
),
).
3.2 Warnings
All ICs and many other semiconductors are susceptible to
electrostatic discharges (ESD w). Careless handling during repair can reduce life drastically. Make sure that, during repair, you are connected with the same potential as the mass of the set by a wristband with resistance. Keep components and tools also at this same potential.
Be careful during measurements in the high voltage section.
Never replace modules or other components while the unit is switched “on”.
When you align the set, use plastic rather than metal tools. This will prevent any short circuits and the danger of a circuit becoming unstable.
3.3 Notes

3.3.1 General

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

3.3.5 Lead-free Soldering

Due to lead-free technology some rules have to be respected by the workshop during a repair:
Use only lead-free soldering tin. If lead-free solder paste is required, please contact the manufacturer of your soldering equipment. In general, use of solder paste within workshops should be avoided because paste is not easy to store and to handle.
Use only adequate solder tools applicable for lead-free soldering tin. The solder tool must be able: – To reach a solder-tip temperature of at least 400°C. – To stabilize the adjusted temperature at the solder-tip. – To exchange solder-tips for different applications.
Adjust your solder tool so that a temperature of around 360°C - 380°C is reached and stabilized at the solder joint. Heating time of the solder-joint should not exceed ~ 4 sec. Avoid temperatures above 400°C, otherwise wear-out of tips will increase drastically and flux-fluid will be destroyed. To avoid wear-out of tips, switch “off” unused equipment or reduce heat.
Mix of lead-free soldering tin/parts with leaded soldering tin/parts is possible but PHILIPS recommends strongly to avoid mixed regimes. If this cannot be avoided, carefully clear the solder-joint from old tin and re-solder with new tin.
2009-Aug-07
Page 6
EN 6 Q548.1E LA3.
Precautions, Notes, and Abbreviation List

3.3.6 Alternative BOM identification

It should be noted that on the European Service website, “Alternative BOM” is referred to as “Design variant”.
The third digit in the serial number (example: AG2B0335000001) indicates the number of the alternative B.O.M. (Bill Of Materials) that has been used for producing the specific TV set. In general, it is possible that the same TV model on the market is produced with e.g. two different types of displays, coming from two different suppliers. This will then result in sets which have the same CTN (Commercial Type Number; e.g. 28PW9515/12) but which have a different B.O.M. number. By looking at the third digit of the serial number, one can identify which B.O.M. is used for the TV set he is working with. If the third digit of the serial number contains the number “1” (example: AG1B033500001), then the TV set has been manufactured according to B.O.M. number 1. If the third digit is a “2” (example: AG2B0335000001), then the set has been produced according to B.O.M. no. 2. This is important for ordering the correct spare parts! For the third digit, the numbers 1...9 and the characters A...Z can be used, so in total: 9 plus 26= 35 different B.O.M.s can be indicated by the third digit of the serial number.
Identification: The bottom line of a type plate gives a 14-digit serial number. Digits 1 and 2 refer to the production centre (e.g. AG is Bruges), digit 3 refers to the B.O.M. code, digit 4 refers to the Service version change code, digits 5 and 6 refer to the production year, and digits 7 and 8 refer to production week (in example below it is 2006 week 17). The 6 last digits contain the serial number.
MODEL :
PROD.NO:
32PF9968/10
AG 1A0617 000001
MADE IN BELGIUM
220-240V 50/60Hz
~
VHF+S+H+UHF
BJ3.0E LA
S
10000_024_090121.eps
Figure 3-1 Serial number (example)

3.3.7 Board Level Repair (BLR) or Component Level Repair (CLR)

If a board is defective, consult your repair procedure to decide if the board has to be exchanged or if it should be repaired on component level. If your repair procedure says the board should be exchanged completely, do not solder on the defective board. Otherwise, it cannot be returned to the O.E.M. supplier for back charging!

3.3.8 Practical Service Precautions

It makes sense to avoid exposure to electrical shock.
While some sources are expected to have a possible dangerous impact, others of quite high potential are of limited current and are sometimes held in less regard.
Always respect voltages. While some may not be
dangerous in themselves, they can cause unexpected reactions that are best avoided. Before reaching into a powered TV set, it is best to test the high voltage insulation. It is easy to do, and is a good service precaution.
128W
090121

3.4 Abbreviation List

0/6/12 SCART switch control signal on A/V
board. 0 = loop through (AUX to TV), 6 = play 16 : 9 format, 12 = play 4 : 3 format
AARA Automatic Aspect Ratio Adaptation:
algorithm that adapts aspect ratio to remove horizontal black bars; keeps the original aspect ratio
ACI Automatic Channel Installation:
algorithm that installs TV channels directly from a cable network by
means of a predefined TXT page ADC Analogue to Digital Converter AFC Automatic Frequency Control: control
signal used to tune to the correct
frequency AGC Automatic Gain Control: algorithm that
controls the video input of the feature
box AM Amplitude Modulation AP Asia Pacific AR Aspect Ratio: 4 by 3 or 16 by 9 ASF Auto Screen Fit: algorithm that adapts
aspect ratio to remove horizontal black
bars without discarding video
information ATSC Advanced Television Systems
Committee, the digital TV standard in
the USA ATV See Auto TV Auto TV A hardware and software control
system that measures picture content,
and adapts image parameters in a
dynamic way AV External Audio Video AVC Audio Video Controller AVIP Audio Video Input Processor B/G Monochrome TV system. Sound
carrier distance is 5.5 MHz BLR Board-Level Repair 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 C Centre channel (audio) CEC Consumer Electronics Control bus:
remote control bus on HDMI
connections CL Constant Level: audio output to
connect with an external amplifier CLR Component Level Repair ComPair Computer aided rePair CP Connected Planet / Copy Protection CSM Customer Service Mode CTI Color Transient Improvement:
manipulates steepness of chroma
transients CVBS Composite Video Blanking and
Synchronization DAC Digital to Analogue Converter DBE Dynamic Bass Enhancement: extra
low frequency amplification DDC See “E-DDC” D/K Monochrome TV system. Sound
carrier distance is 6.5 MHz DFI Dynamic Frame Insertion DFU Directions For Use: owner's manual DMR Digital Media Reader: card reader DMSD Digital Multi Standard Decoding DNM Digital Natural Motion
2009-Aug-07
Page 7
Precautions, Notes, and Abbreviation List
EN 7Q548.1E LA 3.
DNR Digital Noise Reduction: noise
reduction feature of the set DRAM Dynamic RAM DRM Digital Rights Management DSP Digital Signal Processing DST Dealer Service Tool: special remote
control designed for service
technicians DTCP Digital Transmission Content
Protection; A protocol for protecting
digital audio/video content that is
traversing a high speed serial bus,
such as IEEE-1394 DVB-C Digital Video Broadcast - Cable DVB-T Digital Video Broadcast - Terrestrial DVD Digital Versatile Disc DVI(-d) Digital Visual Interface (d= digital only) E-DDC Enhanced Display Data Channel
(VESA standard for communication
channel and display). Using E-DDC,
the video source can read the EDID
information form the display. EDID Extended Display Identification Data
(VESA standard) EEPROM Electrically Erasable and
Programmable Read Only Memory EMI Electro Magnetic Interference EPLD Erasable Programmable Logic Device EU Europe EXT EXTernal (source), entering the set by
SCART or by cinches (jacks) FDS Full Dual Screen (same as FDW) FDW Full Dual Window (same as FDS) FLASH FLASH memory FM Field Memory or Frequency
Modulation FPGA Field-Programmable Gate Array FTV Flat TeleVision Gb/s Giga bits per second G-TXT Green TeleteXT H H_sync to the module HD High Definition HDD Hard Disk Drive HDCP High-bandwidth Digital Content
Protection: A “key” encoded into the
HDMI/DVI signal that prevents video
data piracy. If a source is HDCP coded
and connected via HDMI/DVI without
the proper HDCP decoding, the
picture is put into a “snow vision” mode
or changed to a low resolution. For
normal content distribution the source
and the display device must be
enabled for HDCP “software key”
decoding. HDMI High Definition Multimedia Interface HP HeadPhone I Monochrome TV system. Sound
2
I
C Inter IC bus
2
I
D Inter IC Data bus
2
I
S Inter IC Sound bus
carrier distance is 6.0 MHz
IF Intermediate Frequency IR Infra Red IRQ Interrupt Request ITU-656 The ITU Radio communication Sector
(ITU-R) is a standards body
subcommittee of the International
Telecommunication Union relating to
radio communication. ITU-656 (a.k.a.
SDI), is a digitized video format used
for broadcast grade video.
Uncompressed digital component or
digital composite signals can be used.
The SDI signal is self-synchronizing,
uses 8 bit or 10 bit data words, and has a maximum data rate of 270 Mbit/s, with a minimum bandwidth of 135 MHz.
ITV Institutional TeleVision; TV sets for
hotels, hospitals etc.
LS Last Status; The settings last chosen
by the customer and read and stored in RAM or in the NVM. They are called at start-up of the set to configure it according to the customer's
preferences LATAM Latin America LCD Liquid Crystal Display LED Light Emitting Diode L/L' Monochrome TV system. Sound
carrier distance is 6.5 MHz. L' is Band
I, L is all bands except for Band I LPL LG.Philips LCD (supplier) LS Loudspeaker LVDS Low Voltage Differential Signalling Mbps Mega bits per second M/N Monochrome TV system. Sound
carrier distance is 4.5 MHz MIPS Microprocessor without Interlocked
Pipeline-Stages; A RISC-based
microprocessor MOP Matrix Output Processor MOSFET Metal Oxide Silicon Field Effect
Transistor, switching device MPEG Motion Pictures Experts Group MPIF Multi Platform InterFace MUTE MUTE Line NC Not Connected NICAM Near Instantaneous Compounded
Audio Multiplexing. This is a digital
sound system, mainly used in Europe. NTC Negative Temperature Coefficient,
non-linear resistor NTSC National Television Standard
Committee. Color system mainly used
in North America and Japan. Color
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: IC containing
TV related data such as alignments O/C Open Circuit OSD On Screen Display OTC On screen display Teletext and
Control; also called Artistic (SAA5800) P50 Project 50: communication protocol
between TV and peripherals PAL Phase Alternating Line. Color system
mainly used in West Europe (color
carrier= 4.433619 MHz) and South
America (color carrier PAL M=
3.575612 MHz and PAL N= 3.582056
MHz) PCB Printed Circuit Board (same as “PWB”) PCM Pulse Code Modulation PDP Plasma Display Panel PFC Power Factor Corrector (or Pre-
conditioner) PIP Picture In Picture PLL Phase Locked Loop. Used for e.g.
FST tuning systems. The customer
can give directly the desired frequency POD Point Of Deployment: a removable
CAM module, implementing the CA
system for a host (e.g. a TV-set) POR Power On Reset, signal to reset the uP PTC Positive Temperature Coefficient,
non-linear resistor PWB Printed Wiring Board (same as “PCB”)
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EN 8 Q548.1E LA3.
Precautions, Notes, and Abbreviation List
PWM Pulse Width Modulation QRC Quasi Resonant Converter QTNR Quality Temporal Noise Reduction QVCP Quality Video Composition Processor RAM Random Access Memory RGB Red, Green, and Blue. The primary
color signals for TV. By mixing levels of R, G, and B, all colors (Y/C) are
reproduced. RC Remote Control RC5 / RC6 Signal protocol from the remote
control receiver RESET RESET signal ROM Read Only Memory RSDS Reduced Swing Differential Signalling
data interface R-TXT Red TeleteXT SAM Service Alignment Mode S/C Short Circuit SCART Syndicat des Constructeurs
d'Appareils Radiorécepteurs et
Téléviseurs SCL Serial Clock I SCL-F CLock Signal on Fast I SD Standard Definition SDA Serial Data I SDA-F DAta Signal on Fast I
2
C
2
C bus
2
C
2
C bus SDI Serial Digital Interface, see “ITU-656” SDRAM Synchronous DRAM SECAM SEequence Couleur Avec Mémoire.
Color system mainly used in France and East Europe. Color carriers=
4.406250 MHz and 4.250000 MHz SIF Sound Intermediate Frequency SMPS Switched Mode Power Supply SoC System on Chip SOG Sync On Green SOPS Self Oscillating Power Supply SPI Serial Peripheral Interface bus; a 4-
wire synchronous serial data link
standard S/PDIF Sony Philips Digital InterFace SRAM Static RAM SRP Service Reference Protocol SSB Small Signal Board STBY STand-BY SVGA 800 × 600 (4:3) SVHS Super Video Home System SW Software SWAN Spatial temporal Weighted Averaging
Noise reduction SXGA 1280 × 1024 TFT Thin Film Transistor THD Total Harmonic Distortion TMDS Transmission Minimized Differential
Signalling TXT TeleteXT TXT-DW Dual Window with TeleteXT UI User Interface uP Microprocessor UXGA 1 600 × 1 200 (4:3) V V-sync to the module VESA Video Electronics Standards
Association VGA 640 × 480 (4:3) VL Variable Level out: processed audio
output toward external amplifier VSB Vestigial Side Band; modulation
method WYSIWYR What You See Is What You Record:
record selection that follows main
picture and sound WXGA 1280 × 768 (15:9) XTAL Quartz crystal XGA 1024 × 768 (4:3)
Y Luminance signal Y/C Luminance (Y) and Chrominance (C)
signal
YPbPr Component video. Luminance and
scaled color difference signals (B-Y and R-Y)
YUV Component video
2009-Aug-07
Page 9

4. Mechanical Instructions

Mechanical Instructions
EN 9Q548.1E LA 4.
Index of this chapter:

4.1 Cable Dressing

4.2 Service Positions
4.3 Assy/Panel Removal
4.4 Set Re-assembly
4.1 Cable Dressing
Notes:
Figures below can deviate slightly from the actual situation, due to the different set executions.

Figure 4-1 Cable dressing 32PFL7xxx/xx

18560_104_090401.eps
090402

Figure 4-2 Cable dressing 42PFL7xxx/xx

18560_102_090401.eps
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EN 10 Q548.1E LA4.
Mechanical Instructions

Figure 4-3 Cable dressing 47PFL7xxx/xx

18560_101_090401.eps
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2009-Aug-07

Figure 4-4 Cable dressing 52PFL7xxx/xx

18560_100_090401.eps
090401
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Mechanical Instructions
EN 11Q548.1E LA 4.

Figure 4-5 Cable dressing 32PFL8xxx/xx

18560_103_090401.eps
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Figure 4-6 Cable dressing 37PFL8xxx/xx

1
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Mechanical Instructions

Figure 4-7 Cable dressing 42PFL8xxx/xx

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Figure 4-8 Cable dressing 47PFL8xxx/xx

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Mechanical Instructions
EN 13Q548.1E LA 4.

4.2 Service Positions

For easy servicing of this set, there are a few possibilities created:
The buffers from the packaging.
Foam bars (created for Service).

4.2.1 Foam Bars

Required for sets
1
42"

4.3.2 Speakers

Each speaker unit is mounted with two screws. When defective, replace the whole unit.

4.3.3 Ambi Light

Each Ambi Light unit is mounted on a subframe. Refer to
Figure 4-10
for details.
1
1
2
3
1
2
3
10000_018_090121.eps
Figure 4-9 Foam bars
The foam bars (order code 3122 785 90580 for two pieces) can be used for all types and sizes of Flat TVs. See figure Figure 4-9 larger, require four foam bars [1]. Ensure that the foam bars are always supporting the cabinet and never only the display. Caution: Failure to follow these guidelines can seriously damage the display! By laying the TV face down on the (ESD protective) foam bars, a stable situation is created to perform measurements and alignments. By placing a mirror under the TV, you can monitor the screen.
for details. Sets with a display of 42" and

4.3 Assy/Panel Removal

090121
1
Figure 4-10 Ambi Light unit
1. Remove the Ambi Light cover [1].
2. Unplug the connector(s) [2].
3. Remove the subframe [3].
4. The PWB can now be taken from the subframe.
When defective, replace the whole unit.

4.3.4 Main Supply Panel

1. Unplug all connectors.
2. Remove the fixation screws.
3. Take the board out.
When defective, replace the whole unit.

4.3.5 IR & LED Board / Stand Support

Refer to Figure 4-11
for details.
2
1
18560_408_090401.eps
090402
The instructions apply to the 8000 series (Roadrunner - with AmbiLight).

4.3.1 Rear Cover

Warning: Disconnect the mains power cord before you remove
the rear cover. Note: it is not necessary to remove the stand while removing the rear cover.
1. Remove all screws of the rear cover.
2. Lift the rear cover from the TV. Make sure that wires and flat coils are not damaged while lifting the rear cover from the set.
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EN 14 Q548.1E LA4.
Mechanical Instructions
2
1
Figure 4-11 IR & LED Board / Stand Support
1. Remove the stand.
2. Remove the IR/LED cover [1].
3. Remove the connectors on the IR/LED board.
4. Remove the fixation screws from the IR/LED board. When defective, replace the whole unit.
Stand Support Removal for LCD panel removal
1. Remove the Main Supply Panel as earlier described.
2. Remove the screws [2] and take the support out.

4.3.6 Small Signal Board (SSB)

Caution: It is mandatory to remount screws at their original
position during re-assembly. Failure to do so may result in damaging the SSB.
1. Unplug all connectors.
2. Remove the screws that secure the board.
3. The SSB can now be taken out of the set.
18560_109_090401.eps
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1
18560_110_090401.eps
Figure 4-12 LCD Panel - top support
4
2
3
1
090402
4

4.3.7 Keyboard Control Panel

1. Remove the right AmbiLight unit.
2. Follow instructions for removing the IR/LED board until 3.
3. Remove the connector on the IR/LED board.
4. Release the cable.
5. Release the clip on top of the unit and take the unit out. When defective, replace the whole unit.

4.3.8 LCD Panel

Refer to Figure 4-12
to Figure 4-15 for details.
1. Remove the AmbiLight units as earlier described.
2. Remove the subwoofer as earlier described.
3. Remove the Top Support [1].
4. Release the LVDS [2] - and other connectors [3] from the SSB.
5. Remove the subframe of the SSB [4] with the SSB still mounted on it.
6. Release all connectors [5] from the PSU.
7. Remove the subframe of the PSU [6] with the PSU still mounted on it.
8. Remove the stand support as earlier described.
9. Release the connectors [7] on the IR/LED Panel as earlier described.
10. Remove the clips that secure the flare [8].
11. Remove the flare.
12. Now the LCD Panel can be lifted from the front cabinet.
44
18560_111_090401.eps
Figure 4-13 LCD Panel - SSB subframe
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Mechanical Instructions
EN 15Q548.1E LA 4.
6
6
5
5
Figure 4-14 LCD Panel - PSU subframe
8
8
5
5
18560_112_090401.eps
6
6
090402
8
8
8
8

4.4 Set Re-assembly

To re-assemble the whole set, execute all processes in reverse order.
Notes:
While re-assembling, make sure that all cables are placed and connected in their original position. See Figure 4-1
Pay special attention not to damage the EMC foams in the set. Ensure that EMC foams are mounted correctly.
to Figure 4-8
7
Figure 4-15 LCD Panel - panel removal
8
8
18560_113_090401.eps
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EN 16 Q548.1E LA5.
Service Modes, Error Codes, and Fault Finding

5. Service Modes, Error Codes, and Fault Finding

Index of this chapter:

5.1 Test Points

5.2 Service Modes

5.3 Step by step Start-up
5.4 Service Tools
5.5 Error Codes
5.6 The Blinking LED Procedure
5.7 Protections
5.8 Fault Finding and Repair Tips
5.9 Software Upgrading
5.1 Test Points
As most signals are digital, it will be difficult to measure waveforms with a standard oscilloscope. However, several key ICs are capable of generating test patterns, which can be controlled via ComPair. In this way it is possible to determine which part is defective.
Perform measurements 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) offers several features for the service technician, while the Customer Service Mode (CSM) is used for communication between the call centre and the customer.
All service-unfriendly modes (if present) are disabled, like: – (Sleep) timer. – Child/parental lock. – Picture mute (blue mute or black mute). – Automatic volume levelling (AVL). – Skip/blank of non-favourite pre-sets.
How to Activate SDM
For this chassis there are two kinds of SDM: an analog SDM and a digital SDM. Tuning will happen according to Table 5-1
Analog SDM: use the standard RC-transmitter and key in the code “062596”, directly followed by the “MENU” (or HOME) button. Note: It is possible that, together with the SDM, the main menu will appear. To switch it “off”, push the “MENU” (or HOME) button again.
Digital SDM: use the standard RC-transmitter and key in the code “062593”, directly followed by the “MENU” (or HOME) button. Note: It is possible that, together with the SDM, the main menu will appear. To switch it “off”, push the “MENU” (or HOME) button again.
Analog SDM can also be activated by, on the SSB, shorting for a moment the solder pads SDM [1] (see
Figure 5-1
).
1
SDM1SDM
.
This chassis also offers the option of using ComPair, a hardware interface between a computer and the TV chassis. It offers the abilities of structured troubleshooting, error code reading, and software version read-out for all chassis. (see also section 5.4.1 ComPair
Note: For the new model range, a new remote control (RC) is used with some renamed buttons. This has an impact on the activation of the Service modes. For instance the old “MENU” button is now called “HOME” (or is indicated by a “house” icon).

5.2.1 Service Default Mode (SDM)

Purpose
To create a pre-defined setting, to get the same measurement results as given in this manual.
To override SW protections detected by stand-by processor and make the TV start up to the step just before protection (a sort of automatic step by step start up). See section 5.3 Step by step Start-up
To start the blinking LED procedure where only layer 2 errors are displayed (see also section 5.5 Error Codes
Specifications
Table 5-1 SDM default settings
Region Freq. (MHz)
Europe, AP(PAL/Multi) 475.25 PAL B/G
Europe, AP DVB-T 546.00 PID
).
.
Video: 0B 06 PID PCR: 0B 06 PID Audio: 0B 07
Default system
DVB-T
18440_200_090225.eps
Figure 5-1 Service mode pads
After activating this mode, “SDM” will appear in the upper right corner of the screen (when a picture is available).
How to Navigate
When the “MENU” (or HOME) button is pressed on the RC transmitter, the set will toggle between the SDM and the normal
).
user menu (with the SDM mode still active in the background).
How to Exit SDM
Use one of the following methods:
Switch the set to STAND-BY via the RC-transmitter.
Via a standard customer RC-transmitter: key in “00”­sequence.
090306
All picture settings at 50% (brightness, colour, contrast).
All sound settings at 50%, except volume at 25%.
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Service Modes, Error Codes, and Fault Finding
EN 17Q548.1E LA 5.

5.2.2 Service Alignment Mode (SAM)

Purpose
To perform (software) alignments.
To change option settings.
To easily identify the used software version.
To view operation hours.
To display (or clear) the error code buffer.
How to Activate SAM
Via a standard RC transmitter: key in the code “062596” directly followed by the “INFO” or “I+” button. After activating SAM with this method a service warning will appear on the screen, continue by pressing the red button on the RC.
Contents of SAM (see also Table 6-8
):
Hardware InformationA. SW version. Displays the software version of the
main software (example: Q5431-0.26.2.0= AAAaB_X.Y.W.Z).
AAAA= the chassis name, where “a” indicates the chip version: e.g. TV543/32= Q543, TV543/82= Q548, Q543/92= Q549.
B= the SW branch version. This is a sequential number (this is no longer the region indication, as the software is now multi-region).
X.Y.W.Z= the software version, where X is the main version number (different numbers are not compatible with one another) and Y.W.Z is the sub version number (a higher number is always compatible with a lower number).
B. SBY PROC version. Displays the software version
of the stand-by processor.
C. Production Code. Displays the production code of
the TV, this is the serial number as printed on the back of the TV set. Note that if an NVM is replaced or is initialized after corruption, this production code has to be re-written to NVM. ComPair will foresee in a possibility to do this.
Operation Hours. Displays the accumulated total of operation hours (not the stand-by hours). Every time the TV is switched “on/off”, 0.5 hours is added to this number.
Errors (followed by maximum 10 errors). The most recent error is displayed at the upper left (for an error explanation see section 5.5 Error Codes
).
Reset Error Buffer. When “cursor right” (or the “OK button) is pressed and then the “OK” button is pressed, the error buffer is reset.
Alignments. This will activate the “ALIGNMENTS” sub­menu. See chapter 6. Alignments.
Dealer Options. Extra features for the dealers. See Table
6-8.
Options. Extra features for Service. For more information regarding option codes, see chapter 6. Alignments. Note that if the option code numbers are changed, these have to be confirmed with pressing the “OK” button before the options are stored. Otherwise changes will be lost.
Initialize NVM. The moment the processor recognizes a corrupted NVM, the “initialize NVM” line will be highlighted. Now, two things can be done (dependent of the service instructions at that moment): – Save the content of the NVM via ComPair for
development analysis, before initializing. This will give the Service department an extra possibility for diagnosis (e.g. when Development asks for this).
– Initialize the NVM.
Note: When the NVM is corrupted, or replaced, there is a high possibility that no picture appears because the display code is not correct. So, before initializing the NVM via the SAM, a picture is necessary and therefore the correct display option has to be entered. Refer to chapter 6. Alignments for details. To adapt this option, it’s advised to use ComPair (the correct HEX values
for the options can be found in chapter 8 “Alignments”) or
a method via a standard RC (described below). Changing the display option via a standard RC: Key in the code “062598” directly followed by the “MENU” (or HOME) button and “XXX” (where XXX is the 3 digit decimal display code as mentioned in Table 6-6
. Make sure to key in all three digits, also the leading zero’s. If the above action is successful, the front LED will go out as an indication that the RC sequence was correct. After the display option is changed in the NVM, the TV will go to the Stand-by mode. If the NVM was corrupted or empty before this action, it will be initialized first (loaded with default values). This initializing can take up to 20 seconds.
Display Option
Code
39mm
040
PHILIPS
MODEL:
32PF9968/10
27mm
PROD.SERIAL NO:
AG 1A0620 000001
(CTN Sticker)
10000_038_090121.eps
090121
Figure 5-2 Location of Display Option Code sticker
Store - go right. All options and alignments are stored
when pressing “cursor right” (or the “OK” button) and then the “OK”-button.
SW Maintenance.
SW Events. Not useful for Service purposes. In case
of specific software problems, the development department can ask for this information.
HW Events. Not useful for Service purposes. In case
of specific software problems, the development department can ask for this information.
Test settings. For development purposes only.
Development file versions. Not useful for Service
purposes, this information is only used by the development department.
Upload to USB. To upload several settings from the TV to
an USB stick, which is connected to the SSB. The items are “Channel list”, “Personal settings”, “Option codes”, “Display-related alignments” and “History list”. First a
directory “repair\” has to be created in the root of the USB stick. To upload the settings select each item
separately, press “cursor right” (or the “OK button), confirm with “OK” and wait until “Done” appears. In case the download to the USB stick was not successful “Failure” will appear. In this case, check if the USB stick is connected properly and if the directory “repair” is present in the root of the USB stick. Now the settings are stored onto the USB stick and can be used to download onto another TV or other SSB. Uploading is of course only possible if the software is running and if a picture is available. This method is created to be able to save the customer’s TV settings and to store them into another SSB.
Download from USB. To download several settings from
the USB stick to the TV. Same way of working as with uploading. To make sure that the download of the channel list from USB to the TV is executed properly, it is necessary to restart the TV and tune to a valid preset if necessary.
Note: The “History list item” can not be downloaded from USB to the TV. This is a “read-only” item. In case of specific problems, the development department can ask for this information.
How to Navigate
In SAM, the menu items can be selected with the
“CURSOR UP/DOWN” key (or the scroll wheel) on the RC­transmitter. The selected item will be highlighted. When not
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Service Modes, Error Codes, and Fault Finding
all menu items fit on the screen, move the “CURSOR UP/ DOWN” key to display the next/previous menu items.
With the “CURSOR LEFT/RIGHT” keys (or the scroll wheel), it is possible to: – (De) activate the selected menu item. – (De) activate the selected sub menu.
With the “OK” key, it is possible to activate the selected action.
How to Exit SAM
Use one of the following methods:
Switch the set to STAND-BY via the RC-transmitter.
Via a standard RC-transmitter, key in “00” sequence, or select the “BACK” key.

5.2.3 Customer Service Mode (CSM)

Purpose
When a customer is having problems with his TV-set, he can call his dealer or the Customer Helpdesk. 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. When CSM is activated, the layer 1 error is displayed via blinking LED. Only the latest error is displayed. (see also section 5.5 Error Codes
When CSM is activated and there is a USB stick connected to the TV, the software will dump the complete CSM content to the USB stick. The file (Csm.txt) will be saved in the root of the USB stick. This information can be handy if no information is displayed.
Only for Q548.1:
When in the Q548.1 chassis CSM is activated, a test pattern will be displayed during 5 s.: 1 s. blue, 1 s. green, and 1 s. red, then again 1 s. blue and 1 s. green. This test pattern is generated by the PNX5120. So if this test pattern is shown, it could be determined that the back end video chain (PNX5120, LVDS, and display) of the SSB is working. For LED backlight TV sets, the test pattern is build as follows: 1 s. blue, 1 s. green, 1 s. red (generated by the PNX5120) and further on with 3 seconds RGB pattern from the LED Dimming Panel.
How to Activate CSM
Key in the code “123654” via the standard RC transmitter.
Note: Activation of the CSM is only possible if there is no (user) menu on the screen!
How to Navigate
By means of the “CURSOR-DOWN/UP” knob (or the scroll wheel) on the RC-transmitter, can be navigated through the menus.
Contents of CSM
The contents are displayed on three pages: General, Software versions, and Quality items. However, these group names itself are not shown anywhere in the CSM menu.
General
Set Type. This information is very helpful for a helpdesk/ workshop as reference for further diagnosis. In this way, it is not necessary for the customer to look at the rear of the TV-set. Note that if an NVM is replaced or is initialized after corruption, this set type has to be re-written to NVM. ComPair will foresee in a possibility to do this.
).
Production Code. Displays the production code (the serial number) of the TV. Note that if an NVM is replaced or is initialized after corruption, this production code has to be re-written to NVM. ComPair will foresee a in possibility to do this.
Installed date. Indicates the date of the first installation of the TV. This date is acquired via time extraction.
Options 1. Gives the option codes of option group 1 as set in SAM (Service Alignment Mode).
Options 2. Gives the option codes of option group 2 as set in SAM (Service Alignment Mode).
12NC SSB. Gives an identification of the SSB as stored in NVM. Note that if an NVM is replaced or is initialized after corruption, this identification number has to be re-written to NVM. ComPair will foresee in a possibility to do this. This identification number is the 12nc number of the SSB. Remark: the content here can also be a part of the 12NC of the SSB in combination with the serial number.
12NC display. Shows the 12NC of the display
12NC supply. Shows the 12NC of the supply.
12NC “fan board”. Shows the 12NC of the “fan board”­module (for sets with LED backlight).
12NC “LED Dimming Panel”. Shows the 12NC of the LED dimming Panel (for sets with LED backlight).
Software versions
Current main SW. Displays the built-in main software version. In case of field problems related to software, software can be upgraded. As this software is consumer upgradeable, it will also be published on the Internet. Example: Q5431E_1.2.3.4.
Stand-by SW. Displays the built-in stand-by processor software version. Upgrading this software will be possible via ComPair or via USB (see section Software Upgrading). Example: STDBY_1.2.3.4.
MOP ambient light SW. Displays the MOP ambient light EPLD SW.
MPEG4 software. Displays the MPEG4 software (for sets with MPEG4).
PNX5120 boot NVM. Displays the SW-version that is used in the PNX5120 boot NVM (for sets with PNX5120).
LED Dimming SW. Displays the LED dimming EPLD SW (for sets with LED backlight).
Quality items
Signal quality. Poor/average/good
Child lock. Not active/active. This is a combined item for locks. If any lock (Preset lock, child lock, lock after or parental lock) is active, the item shall show “active”.
HDMI HDCP key. Indicates of the HDMI keys (or HDCP keys) are valid or not. In case these keys are not valid and the consumer wants to make use of the HDMI functionality, the SSB has to be replaced.
Ethernet MAC address. Not applicable.
Wireless MAC address. Not applicable.
BDS key. Indicates if the “BDS level 1” key is valid or not.
CI slot present. If the common interface module is detected the result will be “YES”, else “NO”.
HDMI input format. The detected input format of the HDMI.
HDMI audio input stream. The HDMI audio input stream is displayed: present / not present.
HDMI video input stream. The HDMI video input stream is displayed: present / not present.
How to Exit CSM
Press the “MENU” (or HOME) button twice on the RC­transmitter.
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Service Modes, Error Codes, and Fault Finding
EN 19Q548.1E LA 5.

5.3 Step by step Start-up

When the TV is in a protection state due to an error detected by stand-by software (error blinking is displayed) and SDM is activated via short cutting the pins on the SSB, the TV starts up until it reaches the situation just before protection. So, this is a kind of automatic step by step start-up. In combination with the start-up diagrams below, it is shown which supplies are present at a certain moment. Important to know is, that if e.g. the 3V3 detection fails and thus layer 2 error = 18 is blinking while the TV is restarted via SDM, the Stand-by Processor will enable the 3V3, but the TV set will not go to protection now. The TV will stay in this situation until it is reset (Mains/AC Power supply interrupted). Caution: in case the start-up in this mode with a faulty FET 7101-1 is done, all ICs supplied by the +3V3 could be destroyed, due to over voltage (12V on 3V3-line). It is recommended to measure first the FET 7101-1 or others FETs on short-circuit before activating SDM via the service pads.
The abbreviations “SP” and “MP” in the figures stand for:
SP: protection or error detected by the Stand-by Processor.
MP: protection or error detected by the MIPS Main Processor.
St by
Hibernate
Mains
off
- WakeUp requested
- Acquisition needed
- Tact switch pushed
- stby requested and no data Acquisition required
Tact switch
pushed
- Tact switch pushed
- last status is hibernate after mains ON
Mains
on
Semi St by
GoToProtection
WakeUp
requested
- St by requested
-tact SW pushed
WakeUp
requested
(SDM)
Protection
Active
GoToProtection

Figure 5-3 Transition diagram

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EN 20 Q548.1E LA5.
Detect2 should bepolledonthestandard 40ms interval and startup should be continued when detect2 becomes high.
This enables the +3V3and+5V converter. Asa result, also+5V-tuner, +2V5, +1V8-PNX8541 and +1V8-PNX5100 (if present) become available.
Delayof50ms needed becauseofthelatency of the detect-1 circuit. This delayisalso needed for the PNX5100. The reset of the PNX5100 should only bereleased 10msafter powering the IC.
Service Modes, Error Codes, and Fault Finding
Off
Mains isapplied
Standby Supply starts running.
All standby supply voltagesbecome available.
st-byµPresets
InitialiseI/Opins of the st-byµP:
- Switch reset-AVC LOW (reset state)
- Switch WP-NandFlash LOW (protected)
- Switch reset-system LOW (reset state)
- Switch reset-5100 LOW (reset state)
- Switch reset-Ethernet LOW (reset state)
-keepreset-NVM high, Audio-reset and Audio-Mute-Up HIGH
start keyboard scanning, RC detection. Wake upreasonsare
Switch ON Platform and display supply by switching
isswitched on, followed by the +1V2 DCDC converter
Delay1.5second before checking detect2 line
No
Enable the DCDC converter for +3V3and
off.
Reset detect2_delay_flag
LOW the Standbyline.
+12V, +24Vs,ALand Bolt-on power
if the detect2_delay_flagisset
Detect2 high received
within 2 seconds?
Yes
Wait fixed time of 15ms
Detect2 high?
Yes
Reset detect2_delay_flag
+5V. (ENABLE-3V3)
Wait 50ms
No
Enter protection
Stand byor
Protec tion
If the protection state was left by short circuiting the
SDM pins, detection of a protection condition during
startupwillstall the startup. Protection conditions in a
playing set will be ignored. The protection mode will
not be entered.
- Switch Audio-Reset high.
It is low in the standbymodeifthestandby
mode lasted longer than10s.
Carefull we don’t hit this error
directly if the delayflagisset.
Power-OK error:
Layer1: 3
Layer2: 16
If the supply is hicking, the firstdetect2could
bepositive (12V still present), followed by
negative Supply-fault (already low). Adding a
fixed delay bringsusbehind this delaygap.
Confirmation received from NXP that there does not need to be a delay between the rise of the +1V2 and the +3V3.Only requirement is to have the +1V2 before or atthesame time
as the +3V3.150ms delayisdeleted.
Set detect2_delay_flag
Detect-1 I/O line
High?
Yes
Yes
Enable the supply detection algorithm
Set I²C slave address
of StandbyµPto(A0h)
Switch LOW the RESET-NVM line to allow access to NVM. (Add a 2ms delay before trying to address the NVM to allow correct NVM
No
initialization, this is no issueinthissetup, the delayisautomatically
covered bythearchitectural setup)
Switch HIGH the WP-NandFlashto
allow access to NAND Flash
ReleaseReset-PNX5100.
PNX5100 will start booting.
Wait 10 ms
Detect EJTAG debugprobe
(pulling pin of the probe interface to
ground byinserting EJTAG probe)
EJTAG probe
connected ?
No
Cold boot?
Yes
Release AVC system reset
Feed cold boot script
ReleaseAVCsystem reset
Feed warm boot script
No
No
Detect-2 I/O line
High?
Yes
Wait 50ms
Detect-1 I/O line
High?
No
Detect-2 I/O line
High?
Yes
Voltage output error:
Layer1: 2
Layer2: 18
Yes
ReleaseAVCsystem reset
Feed initializing boot script
disable alive mechanism
Disable 3V3, switch standby
No
line high and wait 4 seconds
No
Enter p rotect ion
This will allow access to NVM and NAND FLASH and can not bedone earlier becausetheFLASHneeds to
beinWriteProtectas long as the suppliesare not available.
Only usefull in case of PNX5100 present. To avoid diversity in standbyµP,thereset-PNX5100 will still be switched bythestandbyµP.
This 10ms delayisstill present to give some relaxation to the supplies. (The PCI arbiter on the PNX5100 is never used and is not the reason anymore)
An EJTAG probe (e.g. WindPower ICE probe) can be connected for Linux Kernel debugging purposes.
These checks prevent the set from going in to standbyonthefalse error condition where the
first 3V3 is negative becauseofahickup,
although the 12V was abouttoreappear.
Becauseofthis reappearance, the 12V check
is OK which would cause protection. If we wait
50ms,the3V3should be back as well.
2009-Aug-07
To: 18440_216b_090227.eps
To: 18440_216b_090227.eps

Figure 5-4 “Off/Stand-by” to “Semi Stand-by” flowchart (part 1)

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From: 18440_216a_090227.eps
3-th try?
Yes
Blink Code as
error code
Enter protection
Reset-system is connected to the Micronas MultiStandard decoder.
This cannot bedonethrough the bootscript, the I/O is on the standbyµP
Timing need to be updated if more mature info isavailable.
No
Code = Layer1: 2 Layer2: 15
Switch AVC PNX8543
in reset (active low)
Wait 10ms
Switch the NVM reset
line HIGH.
Disable all supply related protectionsand
switch off the +3V3 +5V DC/DC converter.
Wait 5ms
switch off the remaining DC/DC
converters
Switch Standby I/O line high
and wait 4 seconds
No
Code =
Layer1: 2
Layer2: 53
From : 18440_216a_090227.eps
Reset-system isswitched HIGH bythe
AVC at the end of the bootscript
AVC releases Reset-Ethernet when the
end of the AVC boot-script is detected
Reset-Audio and Audio-Mute-Up are
switched byMIPS code later on in the
startup process
Bootscript ready
in 1250 ms?
Yes
Set I²C slave address
of StandbyµPto(60h)
RPC start (comm. protocol)
FlashtoRam
image transfer succeeded
within 30s?
Yes
SWinitialization
No
No
No
succeeded within 20s?
Yes
Enable Alive check mechanism
MIPS reads the wake upreason
from standbyµP.
5100 SW start
Wake upreason
coldboot & not semi-
standby?
yes
Startup screen cfg file
present?
yes
MIPSsends displayparametersand
Bitmap to 5100
MIPS triggers 5100 to displaythe
startup screen
Startup screen visible
Reset-system isswitched HIGH bythe
AVC attheendofthebootscript
AVC releases Reset-Ethernet when the
end of the AVC boot-script is detected
Reset-Audio and Audio-Mute-Up are
switched byMIPS code later on in the
startupprocess
Timing needs to be updated if more mature info is available.
Timing needs to be updated if more mature info is available.
Wait until AVC starts to
communicate
Startup screen shall only bevisiblewhen there isacoldboot to an active state end situation. The startup screen shall not
bevisiblewhen waking upforrebootreasons or waking upto semi-standby conditions.
The first time after the option turn on of the startup screen or when the set is virgin, the cfg file is not present and hence the startup screen will not be shown.
To keep this flowchart readable, the exact displayturn on description is not copied here. Please see the Semi-standby to On description for the detailed display startup sequence. During the complete displaytimeoftheStartup screen, the preheat condition of 100% PWM is valid.
Initialize audio
Switch on the displayincaseofa LED backlight
display by sending the TurnOnDisplay(1) (I²C)
command to the PNX5100
Enable the PWM outputtowards the displayLVDS
cable in caseofa LED Backlight set.
(CTRL4-PNX5100)
Initialize tuner and Multi Standard decoder
Initialize source selection
Initialize video processing IC's
- local contrast FPGA
- PNX5100 (if present)
Init ialize AutoTV
Initialize Ambilight with Lights off.
:
In caseofa LED backlight display, a LED DIM panel is present which is fed bytheVdisplay.To power the LED DIM Panel, the Vdisplay switch driven by the PNX5100 must beclosed. The display startup sequence is taken care of bytheLEDDIM panel. Secondly, this cmd will alsoenable the LVDS outputof the 5100 towards theLEDDIMpanel.
In caseofa LED backlight display, the PWM-dimming signal needs to beroutedtotheLVDS cable. This routing is not
allowed in non-LED sets (see alsodisplay configuration)
Semi-Standby

Figure 5-5 “Off/Stand-by” to “Semi Stand-by” flowchart (part 2)

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EN 22 Q548.1E LA5.
Service Modes, Error Codes, and Fault Finding
Constraints taken into account:
- Display may only be started when valid LVDS output clock can be delivered by the AVC.
- To have a reliable operation of the backlight, the backlight should be driven with a PWM duty cycle of 100% during the first seconds. Only after this first one or two seconds, the PWM may be set to the required output level (Note that the PWM output should be present before the backlight is switched on). To minimize the artefacts, the picture should only be unblanked after these first seconds.
Semi Standby
The assumption here is that a fast toggle (<2s) can
only happen during ON->SEMI ->ON. In these states,
the AVC is still active and can provide the 2s delay. A
transition ON->SEMI->STBY->SEMI->ON cannot be
made in less than 2s, because the standby state will
CPipe already generates a valid output clock in the semi-standby state: display
startup can start immediately when leaving
be maintained for at least 4s.
the semi-standby state.
Wait until previous on-state is left more than 2
seconds ago. (to prevent LCD display problems)
Assert RGB video blanking
and audio mute
Display already on?
(splash screen)
No
Switch on the display power by
The exact timings to
switch on the
display (LVDS
delay, lamp delay)
are defined in the
display file.
The sum of the LVDS delay and the Lamp delay needs
to be used because the Lamp delay is specified with
the appearance of the LVDS on the display as
reference. This moment is not known by ceplf, only the
switch on of the LCD power is known. The delta
The complete algorithm description is
removed here.
Only the start of the algorithm
is mentioned here as reminder.
between both is the LVDS delay.
switching LCD-PWR-ON low
Wait x ms
Switch on LVDS output in 8543
No
Start POK line detection
algorithm
return
PNX5100 present?
Yes
Switch on the display by sending the
TurnOnDisplay(1) (I²C) cmd to the PNX5100
Delay Lamp-on with the sum of the LVDS delay and
the Lamp delay indicated in the display file
Switch off the dimming backlight feature, set
the BOOST control to nominal and make sure
PWM output is set to 100%
Switch on LCD backlight (Lamp-ON)
Wait until valid and stable audio and video, corresponding to the
requested output is delivered by the AVC
the backlight has been switched on for at least the time which is
indicated in the display file as preheat time.
Switch Audio-Reset low and wait 5ms
Release audio mute and wait 100ms before any other audio
handling is done (e.g. volume change)
AND
Yes
Initialize audio and video
processing IC's and functions
according needed use case.
2009-Aug-07
The higher level requirement is that audio and video should be demuted without transient effects and that the audio should be demuted maximum 1s before or
at the same time as the unblanking of the video.
The higher level requirement is that the
ambilight functionality may not be switched on
before the backlight is turned on in case the
set contains a CE IPB inverter supply.

Figure 5-6 “Semi Stand-by” to “Active” flowchart

Restore dimming backlight feature, PWM and BOOST output
Switch on the Ambilight functionality according the last status
Yes
and unblank the video.
settings.
Startup screen Option and Installation setting
Photoscreen ON?
Yes
Display cfg file present
and up to date, according
correct display option?
No
Prepare Start screen Display config
file and copy to Flash
Active
18440_217_090227.eps
No
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Service Modes, Error Codes, and Fault Finding
Active
Mute all sound outputs via softmute
Wait 100ms
Set main amplifier mute (I/O: audio-mute)
EN 23Q548.1E LA 5.
Force ext audio outputs to ground
(I/O: audio reset)
Switch off Ambilight
Wait until Ambilight has faded out: Output power
Observer on PNX5100 should be zero
Switch off POK line detection
Switch off LCD backlight
Mute all video outputs
Wait x ms (display file)
and wait 5ms
algorithm
The higher level requirement is that the
backlight may not be switched off before the
ambilight functionality is turned off in case the
set contains a CE IPB inverter supply.
No
Switch off LVDS output in 8543
Wait x ms
Switch off the display power by
switching LCD-PWR-ON high
PNX5100 present?
Yes
Switch off the display by sending:
- TurnOnDisplay(0) (I²C) command to the PNX5100
- or sending OUTPUT-ENABLE(0) to the LED DIM panel in case of a LED BL set.
Semi Standby

Figure 5-7 “Active” to “Semi Stand-by” flowchart

The exact timings to
switch off the
display (LVDS
delay, lamp delay)
are defined in the
display file.
18440_219_090227.eps
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Service Modes, Error Codes, and Fault Finding
Semi Stand by
If ambientlight functionality was used in semi-standby (lampadaire mode), switch off ambient light
Delay transition until ramping down of ambient light is
finished. *)
Transfer Wake up reasons to the Stand by µP.
Switch Memories to self-refresh (this creates a more
stable condition when switching off the power).
Switch AVC system in reset state (reset-system and
reset-AVC lines)
Switch reset-PNX5100 LOW
Switch Reset-Ethernet LOW
Wait 10ms
Switch the NVM reset line HIGH
Switch WP-Nandflash LOW
Disable all supply related protections and switch off
the DC/DC converters (ENABLE-3V3)
*) If this is not performed and the set is switched to standby when the switch off of the ambilights is still ongoing, the lights will switch off abruptly when the supply is cut.
Important remarks:
release reset audio 10 sec after entering
standby to save power
Also here, the standby state has to be
maintained for at least 4s before starting
another state transition.
Wait 5ms
Switch OFF all supplies by switching HIGH the
Standby I/O line
Stand by

Figure 5-8 “Semi Stand-by” to “Stand-by” flowchart

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Service Modes, Error Codes, and Fault Finding
EN 25Q548.1E LA 5.

5.4 Service Tools

5.4.1 ComPair

Introduction
ComPair (Computer Aided Repair) is a Service tool for Philips Consumer Electronics products. and offers the following:
1. ComPair helps to quickly get an understanding on how to repair the chassis in a short and effective way.
2. ComPair allows very detailed diagnostics and is therefore capable of accurately indicating problem areas. No knowledge on I because ComPair takes care of this.
3. ComPair speeds up the repair time since it can automatically communicate with the chassis (when the uP is working) and all repair information is directly available.
4. ComPair features TV software up possibilities.
Specifications
ComPair consists of a Windows based fault finding program and an interface box between PC and the (defective) product. The ComPair II interface box is connected to the PC via an USB cable. For the TV chassis, the ComPair interface box and the TV communicate via a bi-directional cable via the service connector(s). The ComPair fault finding program is able to determine the problem of the defective television, by a combination of automatic diagnostics and an interactive question/answer procedure.
How to Connect
This is described in the chassis fault finding database in ComPair.
ComPair II
RC in
Optional
Switch
Figure 5-9 ComPair II interface connection
Caution: It is compulsory to connect the TV to the PC as
shown in the picture above (with the ComPair interface in between), as the ComPair interface acts as a level shifter. If one connects the TV directly to the PC (via UART), ICs will be blown!
How to Order
ComPair II order codes:
ComPair II interface: 3122 785 91020.
Software is available via the Philips Service web portal.
ComPair serial interface cable for Q52x.x. (using 3.5 mm Mini Jack connectors): 3138 188 75051.
Note: When having problems, please contact your local support desk.
Power ModeLink/
Activity
HDMI
2
I
2
C or UART commands is necessary,
TO TV
TO
TO
UART SERVICE
CONNECTOR
2
C
I
RS232 /UART
ComPair II Developed by Philips Brugge
Optional power
5V DC
10000_036_090121.eps
C only
UART SERVICE
CONNECTOR
RC out
TO
I2C SERVICE CONNECTOR
Multi
function
PC
090121

5.5 Error Codes

5.5.1 Introduction

The error code buffer contains all detected errors since the last time the buffer was erased. The buffer is written from left to right, new errors are logged at the left side, and all other errors shift one position to the right. When an error occurs, it is added to the list of errors, provided the list is not full. When an error occurs and the error buffer is full, then the new error is not added, and the error buffer stays intact (history is maintained). To prevent that an occasional error stays in the list forever, the error is removed from the list after more than 50 hrs. of operation. When multiple errors occur (errors occurred within a short time span), there is a high probability that there is some relation between them. New in this chassis is the way errors can be displayed:
There is a simple blinking LED procedure for board level repair (home repair) so called LAYER 1 errors next to the existing errors which are LAYER 2 errors (see Table 5-3
– LAYER 1 errors are one digit errors – LAYER 2 errors are two digit errors.
In protection mode. – From consumer mode: LAYER 1. – From SDM mode: LAYER 2.
Fatal errors, if I and SAM are not selectable. – From consumer mode: LAYER 1. – From SDM mode: LAYER 2.
Important remark: For all errors detected by MIPS which are fatal => rebooting of the TV set (reboot starts after LAYER 1 error blinking), one should short the solder paths at start-up from the power OFF state by mains interruption and not via the power button to trigger the SDM via the hardware pins.
In CSM mode – When entering CSM: error LAYER 1 will be displayed
by blinking LED. Only the latest error is shown.
In SDM mode – When SDM is entered via Remote Control code or the
hardware pins, LAYER 2 is displayed via blinking LED.
In the ON state – In “Display error mode”, set with the RC commands
“mute_06250X _OK” LAYER 2 errors are displayed via blinking LED.
Error display on screen. – In CSM no error codes are displayed on screen. – In SAM the complete error list is shown.
Basically there are three kinds of errors:
Errors detected by the Stand-by software which lead to protection. These errors will always lead to protection and an automatic start of the blinking LED LAYER 1 error. (see section 5.6 The Blinking LED Procedure
Errors detected by the Stand-by software which not lead to protection. In this case the front LED should blink the involved error. See also section Extra Information that it can take up several minutes before the TV starts blinking the error (e.g. LAYER 1 error = 2, LAYER 2 error = 15 or 53).
Errors detected by main software (MIPS). In this case the error will be logged into the error buffer and can be read out via ComPair, via blinking LED method LAYER 1-2 error, or in case picture is visible, via SAM.
2
C bus is blocked and the set re-boots, CSM
).
).
. Note
2009-Aug-07
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EN 26 Q548.1E LA5.
Service Modes, Error Codes, and Fault Finding

5.5.2 How to Read the Error Buffer

Use one of the following methods:
On screen via the SAM (only when a picture is visible). E.g.: – 00 00 00 00 00: No errors detected – 23 00 00 00 00: Error code 23 is the last and only
detected error.
37 23 00 00 00: Error code 23 was first detected and
error code 37 is the last detected error.
– Note that no protection errors can be logged in the
error buffer.
Via the blinking LED procedure. See section 5.5.3 How to
Clear the Error Buffer.
•Via ComPair.

5.5.3 How to Clear the Error Buffer

Use one of the following methods:
By activation of the “RESET ERROR BUFFER” command in the SAM menu.
With a normal RC, key in sequence “MUTE” followed by “062599” and “OK”.
If the content of the error buffer has not changed for 50+ hours, it resets automatically.

5.5.4 Error Buffer

In case of non-intermittent faults, clear the error buffer before starting to repair (before clearing the buffer, write down the
content, as this history can give significant information). This to ensure that old error codes are no longer present. If possible, check the entire contents 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).
There are several mechanisms of error detection:
Via error bits in the status registers of ICs.
Via polling on I/O pins going to the stand-by processor.
Via sensing of analogue values on the stand-by processor or the PNX8543.
Via a “not acknowledge” of an I
2
C communication.
Take notice that some errors need several minutes before they start blinking or before they will be logged. So in case of problems wait 2 minutes from start-up onwards, and then check if the front LED is blinking or if an error is logged.
Table 5-2 Layer 1 code overview (multi chassis overview)
LAYER 1 codes
SSB 2
Display supply 3
Platform supply 4 Only for display option 196 and 197
Fan 7
AmbiLight or DC/DC or 3D LED dim panel 8
Table 5-3 Error code overview (multi chassis overview)
Description
Main NVM 2 0 MIPS I Temp. protection 3 12 MIPS I
LAYER 1 error
LAYER 2 error
Monitored
Medium
Error/Prot.
EB: in Error Buffer
BL: Blinking LED
2
C1 E x STM24C128 SSB TV shut down with red LED blinking 2.
2
C4 P BL/EB Supply
Device
Defective board
I2C3213MIPSI2C3 E BL/EB SSB SSB I2C2214MIPSI2C2 E BL/EB SSB SSB
PNX does not boot (HW cause) PNX 5100 does not boot
12V 3 16 St-by µP I/O P BL Supply
12V 3 16 St-by µP I/O P BL Platform Supply
Inverter or display supply 3 17 Mips I/O E EB Supply
Only for display option 196 and 197 4 17 Mips I/O E EB Display Supply
1V2, 1V2, 3V3, 5V to low 2 18 St-by µP I/O P BL SSB PNX 5100 2 21 MIPS I
HDMI MUX 2 23 MIPS I
215St-by µP I
2
C1 P BL SSB SSB
2
C3 E EB PNX 5100 SSB
2
C3 E EB TDA9996 SSB
I2C switch 2 24 Mips I2C2 E EB PCA9540 SSB
Boot-NVM PNX5120 2 25 MIPS
Multi Standard demodulator (Micronas IF) 2 27 MIPS I
ARM (AL) 8 28 MIPS
FPGA (Local contrast) 2 29 MIPS Tuner1 2 34 MIPS I
2
FAN I
C expander 7 41 MIPS I2C2 E EB PCA 9533 FAN mod.
T× sensor 7 42 MIPS I
FAN 1 7 43 MIPS
FAN 2 7 44 MIPS MIPS does not boot (SW cause) 2 53 St-by µP I
Display 5 64 MIPS
FPGA LED dim 2D 2 65 MIPS FPGA LED dim 3D 8 65 MIPS I
I2C3 E EB STM24C08 SSB
2
C3 E EB DRX3616K
DRX3626K
SSB
I2C3 E EB NXP LPC2103 AL mod. or DC/DC I2C3 E EB Altera SSB
2
C3 E EB UV1783S
2
C2 E EB LM 75 T×sensor
HD1816
SSB
I2C2EEB FAN I2C2EEB FAN
2
C1 P BL PNX8543 SSB TV is rebooting endlessly with white LED blinking. I2C2 E BL/EB Altera Display I2C3 E EB Xilinx SSB
2
C2 E EB Altera SSB
Special Remarks
TV is rebooting endlessly with red LED blinking “2”.
TV is rebooting endlessly with red LED blinking “2”
TV shut down with red LED blinking “3”.
TV still in normal operation mode, but without backlights. Enter CSM Layer 1 red LED blinking “3”.
TV shut down with red LED blinking “2”.
TV is rebooting endlessly, with red LED blinking “2” (shown every 20 second).
Activate CSM red LED blinking “2”.
TV is rebooting endlessly, with red LED blinking “2” (shown every minute).
TV is in normal operation but without video displayed (RF).
TV is in normal operation but without AMBILIGHT “on”.
TV is in normal operation but without video displayed (RF).
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Service Modes, Error Codes, and Fault Finding
EN 27Q548.1E LA 5.
Extra Information
Rebooting. When a TV is constantly rebooting due to internal problems, most of the time no errors will be logged or blinked. This rebooting can be recognized via a ComPair interface and Hyperterminal (for Hyperterminal settings, see section 5.8.6 UART Logging
). It’s shown that the loggings which are generated by the main software keep continuing. In this case diagnose has to be done via ComPair.
Main NVM. When there is no I
2
C communication towards the main NVM, LAYER 1 error = “2” will be displayed via the blinking LED procedure. In SDM, LAYER 2 error can be “19”. Check the logging for keywords like “I
Error 13 (I
2
C bus 3 blocked). When this error occurs, the
2
C bus blocked”.
TV will constantly reboot due to the blocked bus. The best way for further diagnosis here, is to use ComPair.
Error 15 (PNX8543 doesn’t boot). Indicates that the main processor was not able to read his bootscript. This error will point to a hardware problem around the PNX8543 (supplies not OK, PNX 8541 completely dead, I between PNX and Stand-by Processor broken, etc...). When error 15 occurs it is also possible that I blocked (NVM). I
2
C2 can be indicated in the schematics as
2
C link
2
C2 bus is
follows: SCL-UP-MIPS, SDA-UP-MIPS, SCL-2 or SDA-2. Other root causes for this error can be due to hardware problems with: NVM PNX5120, PNX5120 itself, or DDRs.
Error 16 (12V). This voltage is made in the power supply and results in protection (LAYER 1 error = “3”). When SDM is activated we see blinking LED LAYER 2 error = “16”.
Error 17 (POK). The display is switched “on” with the signal “Lamp On”. If the inverter starts (or 24V display is OK) the POK line becomes “high”. If the POK line is not “high”, the set backlight will be switched “off” and “on” again for 3 times (start-up). If the set POK line becomes “high” after the retries, no error is logged; if the POK stays “low”, error is logged: LAYER 1 error = “3”, LAYER 2 error = “17”. No protection is required, the start-up goes on.
Error 18 (1V2-3V3-5V too low). All these supplies are generated by the DC/DC supply on the SSB. If one of these supplies is too low, protection occurs and blinking LED LAYER 1 error = “2” will be displayed automatically. In SDM this gives LAYER 2 error = “18”.
Error 21 (PNX5120). When there is no I
2
C communication towards the PNX5120 after start-up (power “off” by disconnection of the mains cord), LAYER 2 error will blink continuously via the blinking LED procedure in SDM. (start­up the TV with the solder paths short to activate SDM).
Error 23 (HDMI). When there is no I
2
C communication towards the HDMI multiplexer after start up, LAYER 2 error = “23” will be logged and displayed via the blinking LED procedure if SDM is switched “on”.
Error 25 (Boot-NVM PNX5120). When there is no I
2
C communication towards the PNX5120 NVM after start-up, TV is rebooting endlessly with blinking LAYER 1 error = 2 (shown every minute). When SDM is activated we see blinking LED LAYER 2 error = “25”.
Error 27 (Multi Standard demodulator). When there is no
2
I
C communication towards the Multi Standard demodulator after start up, LAYER 2 error = “27” will be logged and displayed via the blinking LED procedure when SDM is switched “on”.
Error 28 (FPGA ambilight). When there is no I
2
C communication towards the FPGA ambilight after start up, LAYER 2 error = “28” will be logged and displayed via the blinking LED procedure if SDM is switched “on”. Note that it can take up several minutes before the TV starts blinking LAYER 1 error = “2” in CSM or in SDM, LAYER 2 error = “28”.
Error 34 (Tuner). When there is no I
2
C communication towards the tuner after start up, LAYER 2 error = “34” will be logged and displayed via the blinking LED procedure when SDM is switched on.
Error 53. This error will indicate that the PNX8543 has read his bootscript (when this would have failed, error 15 would blink) but initialization was never completed because
of hardware problems (NAND flash,...) or software initialization problems. Possible cause could be that there is no valid software loaded (try to upgrade to the latest main software version). Note that it can take up to 2 minutes before the TV starts blinking LAYER 1 error = “2” or in SDM, LAYER 2 error = “53”.

5.6 The Blinking LED Procedure

5.6.1 Introduction

The blinking LED procedure can be split up into two situations:
Blinking LED procedure LAYER 1 error. In this case the error is automatically blinked when the TV is put in CSM. This will be only one digit error, namely the one that is referring to the defective board (see table 5-3 Error code
overview (multi chassis overview)) which causes the failure
of the TV. This approach will especially be used for home repair and call centres. The aim here is to have service diagnosis from a distance.
Blinking LED procedure LAYER 2 error. Via this procedure, the contents of the error buffer can be made visible via the front LED. In this case the error contains 2 digits (see table
5-3 Error code overview (multi chassis overview)
be displayed when SDM (hardware pins) is activated. This is especially useful for fault finding and gives more details regarding the failure of the defective board.
Important remark: For all errors detected by MIPS which are fatal (rebooting of the TV set, with reboot starts after LAYER 1 error blinking), one should short the SDM solder paths at start­up from the power OFF state by mains interruption and not via the power button, to trigger the SDM via the hardware pins.
When one of the blinking LED procedures is activated, the front LED will show (blink) the contents of the error-buffer. Error codes greater then 10 are shown as follows:
1. “n” long blinks (where “n” = 1 to 9) indicating decimal digit
2. A pause of 1.5 s
3. “n” short blinks (where “n”= 1 to 9)
4. A pause of approximately 3 s,
5. When all the error codes are displayed, the sequence finishes with a LED blink of 3 s
6. The sequence starts again.
Example: Error 12 8 6 0 0. After activation of the SDM, the front LED will show:
1. One long blink of 750 ms (which is an indication of the decimal digit) followed by a pause of 1.5 s
2. Two short blinks of 250 ms followed by a pause of 3 s
3. Eight short blinks followed by a pause of 3 s
4. Six short blinks followed by a pause of 3 s
5. One long blink of 3 s to finish the sequence
6. The sequence starts again.

5.6.2 How to Activate

Use one of the following methods:
Activate the CSM. The blinking front LED will show only the latest layer 1 error, this works in “normal operation” mode or automatically when the error/protection is monitored by the stand-by processor. At the time of this release, this layer 1 error blinking was not working as expected. In case no picture is shown and there is no LED blinking, read the logging to detect whether “error devices” are mentioned. (see section 5.8.6 UART Logging
Activate the SDM. The blinking front LED will show the entire contents of the layer 2 error buffer, this works in “normal operation” mode or when SDM (via hardware pins) is activated when the tv set is in protection.
) and will
).
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Service Modes, Error Codes, and Fault Finding
Important remark:
For all errors detected by MIPS which are fatal => rebooting of the TV set (reboot starts after LAYER 1 error blinking), one should short the solder paths at start-up from the power OFF state by mains interruption and not via the power button to trigger the SDM via the hardware pins.
Transmit the commands “MUTE” - “062500” - “OK” with a normal RC. The complete error buffer is shown. Take notice that it takes some seconds before the blinking LED starts.
Transmit the commands “MUTE” - “06250x” - “OK” with a normal RC (where “x” is a number between 1 and 5). When x = 1 the last detected error is shown, x = 2
the second last error, etc.... Take notice that it takes some
seconds before the blinking LED starts.

5.7 Protections

5.7.1 Software Protections

Most of the protections and errors use either the stand-by microprocessor or the MIPS controller as detection device. Since in these cases, checking of observers, polling of ADCs, and filtering of input values are all heavily software based, these protections are referred to as software protections. There are several types of software related protections, solving a variety of fault conditions:
Protections related to supplies: check of the 12V, +5V, +3V3 and 1V2.
Protections related to breakdown of the safety check mechanism. E.g. since the protection detections are done by means of software, failing of the software will have to initiate a protection mode since safety cannot be guaranteed any more.
Remark on the Supply Errors
The detection of a supply dip or supply loss during the normal playing of the set does not lead to a protection, but to a cold reboot of the set. If the supply is still missing after the reboot, the TV will go to protection.
Protections during Start-up
During TV start-up, some voltages and IC observers are actively monitored to be able to optimise the start-up speed, and to assure good operation of all components. If these monitors do not respond in a defined way, this indicates a malfunction of the system and leads to a protection. As the observers are only used during start-up, they are described in the start-up flow in detail (see section 5.3 Step by step Start-
up).

5.7.2 Hardware Protections

The only real hardware protection in this chassis appears in case of an audio problem e.g. DC voltage on the speakers. The audio protection circuit pulls the “supply-fault” low and the tv set will blink LAYER 1 error = 2 or in SDM, LAYER 2 error = 19. Be very careful to overrule this protection via SDM (not to cause damage to the Class D audio amplifier). Check audio part first before activating via SDM. In case one of the
speakers is not connected, the protection can also be triggered.
Repair Tips
It is also possible that the set has an audio DC protection because of an interruption in one or both speakers (the DC voltage that is still on the circuit cannot disappear through the speakers). Caution: (Dis)connecting the speakers during the ON state of the TV can damage the audio amplifier.

5.7.3 Important remark regarding the blinking LED indication

As for the blinking LED indication, the blinking LED of layer 1 error displaying can be switched “off” by pushing the power button on the keyboard. This condition is not valid after the set was unpowered (via mains interruption). The blinking LED starts again and can only be switched “off” by unplugging the mains connection. This can be explained by the fact that the MIPS can not load the keyboard functionality from software during the start-up and does not recognise the keyboard commands at this time.

5.8 Fault Finding and Repair Tips

Read also section “5.5 Error Codes, 5.5.4 Error Buffer, Extra
Information”.

5.8.1 Ambilight

Due to degeneration process of the AmbiLights, there can be a difference in the colour and/or light output of the spare ambilight module in comparison with the originals ones contained in the TV set. Via ComPair, the light output can be adjusted.

5.8.2 CSM

When CSM is activated and there is a USB stick connected to the TV, the software will dump the complete CSM content to the USB stick. The file (Csm.txt) will be saved in the root of the USB stick. If this mechanism works it can be concluded that a large part of the operating system is already working (MIPS, USB...)

5.8.3 Exit “Factory Mode”

When an “F” is displayed in the screen’s right corner, this means the set is in “Factory” mode, and it normally happens after a new SSB is mounted. To exit this mode, push the “VOLUME minus” button on the TV’s local keyboard for 10 seconds (this disables the continuous mode). Then push the “SOURCE” button on the TV’s local keyboard for 10 seconds until the “F” disappears from the screen.

5.8.4 DC/DC Converter

Introduction
The best way to find a failure in the DC-DC converters is to check their starting-up sequence at “power-on via the mains cord”, presuming that the stand-by microprocessor is operational.
If the input voltage of DC-DC converters is around 12.7 V (measured on decoupling capacitors 2107 and 2123 and the enable signals are “low” (active), then the output voltages should have their normal values. The +12V and +5VPOD supplies start-up first (enabled by PODMODE signal from the stand-by microprocessor). There is a supplementary condition for 12V to start-up: if the +5V­POD does not start up due to a local defect, then +12V will not be available as well. The +5V-ON supply is enabled by the ONMODE signal (coming also from the stand-by microprocessor). The +1V2 supply starts up when the +12V appears, then at least 100 ms later, the +3V3 will be activated via the ENABLE-3V3 signal from the stand-by microprocessor. If the +12V value is less than 10 V, the last enumerated voltages will not show up due to the under­voltage detection circuit 7105-1 + 6101 and surrounding components. Furthermore, if the +12V is less than 8 V, then also the +1V2 will not be available. The +5V5-TUN generator 7202 (present only for the analogue version of China platforms) will start to operate as soon as the 12V (PSU) is present.
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The consumption of controller IC 7103 is around 19 mA (that means almost 200 mV drop voltage across resistor
3108).
The current capability of DC-DC converters is quite high (short-circuit current is 7 to 10 A).
The DETECT1 signal (active “low”) is an internal protection (error 18) of the DC-DC convertor and will occur if the output voltage of any DC-DC convertor is out of limits (10% of the normal value).
Fault Finding
Symptom: +1V2 not present (even for a short while ~10 ms) – Check 12 V availability (resistor 3108, MOS-FETs
7101 and 7102), value of +12 V, and surrounding
components) – Check the voltage on pin 9 (1.5 V), – Check for +1V2 output voltage short-circuit to GND that
can generate pulsed over-currents 7...10 A through coil
5103.
– Check the over-current detection circuit (2106 or 3131
interrupted).
Symptom: +1V2 present for about 100ms, +3V3 not rising. – Check the ENABLE-3V3 signal (active “low”), – Check the voltage on pin 8 (1.5 V), – Check the under-voltage detection circuit (the voltage
on collector of transistor 7105-1 should be less than
0.8 V),
– Check for output voltages short-circuits to GND (+3V3)
that can generate pulsed over currents 7...10 A through coil 5101,
– Check the over-current detection circuit (2105 or 3127
interrupted).
Symptom: +1V2 OK, +3V3 present for about 100 ms. Possible cause: SUPPLY-FAULT line stays “low” even though the +3V3 and +1V2 is available - the stand-by microprocessor is detecting that and switching “off” all supply voltages. – Check the drop voltage across resistor 3108 (they
could be too high, meaning a defective controller IC or MOS-FETs),
– Check if the boost voltage on pin 4 of controller IC 7103
is less than 14 V (should be 19 V),
– Check if +1V2 or +3V3 are higher than their normal
values - that can be due to defective DC feedback of the respective DC-DC convertor (ex. 3152, 3144).
Symptom: +1V2 and +3V3 show a high level of ripple voltage (audible noise can come from the filtering coils 5101, 5103). Possible cause: instability of the frequency and/or duty cycle of a DC-DC converter or stabiliser. – Check the resistor 3164, capacitors 2102 and 2103,
input and output decoupling capacitors.
– Check AC feedback circuits (2120, 2129, 3141, 3153,
2110, 2114 and 3135).
Symptom: +1V2, +3V3 ok, no +5V5-TUN (analogue sets only). Possible cause: the “+5V5-TUN GENERATOR” circuit (7202 and surroundings components) is defective: check transistor 7202 (it has to have gate voltage pulses of about 10 V amplitude and drain voltage pulses of about 35 V amplitude) and surrounding components. A high consumption (more than 6 mA) from +5V5-TUN voltage can cause also +5V5-TUN voltage to be too low or zero.
Note: when a pair of power MOSFETs (7101 or 7102) becomes defective, the controller IC 7103 should be replaced as well.

5.8.5 Fan self test (only for sets with LED backlight)

In case fans are present, a softest can be done by pushing the red coloured button on the remote control while the TV set is in CSM. Exit CSM and check the status of the fans in the error buffer by entering SAM (062596 + info button on the RC). In case of failure (fully red screen) more detailed information is available in the error buffer (error 41, 42, 43, 44).

5.8.6 UART Logging

When something is wrong with the TV set (f.i.the set is rebooting) checking the UART logging using hyperterminal can be done to find more information. Hyperterminal is a standard Windows application. It can be found via Programs, Accessories, Communications, Hyperterminal. Connect a “ComPair UART”-cable (3138 188 75051) from the Service connector in the TV set, via the ComPair interface (this is compulsory, otherwise ICs are blown in the PC), to the “COMx”-port of the PC. After start-up of Hyperterminal, fill in a name (f.i. “logging”) in the “Connection Description” box, then apply the following settings:
1. COMx
2. Bits per second = 115200
3. Data bits = 8
4. Parity = none
5. Stop bits = 1
6. Flow control = none During the start-up of the TV set, the logging will be displayed. This is also the case during rebooting of the TV set (the same logging appears time after time). Also available in the logging is the “Display Option Code” (useful when there is no picture), look for item “DisplayRawNumber” in the beginning of the logging. Tip: When there is no picture available during reboot, it is possible to check for “error devices” in the logging (LAYER 2 error). This can be very helpful to determine the failure cause of the reboot. For protection state, there is no logging.

5.8.7 Loudspeakers

Make sure that the volume is set to minimum during disconnecting the speakers in the “on” state of the TV. The audio amplifier can be damaged by disconnecting the speakers during “on” state of the set! Sometimes the set can go into protection, but that is not always the case.

5.8.8 Tuner

Attention: In case the tuner is replaced, always check the tuner options!

5.8.9 Display option code

Attention: In case the SSB is replaced, always check the display option code in SAM, even when picture is available. Performance with the incorrect display option code can lead to unwanted side-effects for certain conditions. See also Table 6-6

5.8.10 Upgrade HDMI EDID NVM

To upgrade the HDMI EDID, see ComPair for further instructions.
for the code.
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5.8.11 Upgrade VGA EDID NVM

To upgrade the VGA EDID NVM, pin 7 of the EDID NVM [2] has to be short circuited to ground. See ComPair for further instructions.
Service Modes, Error Codes, and Fault Finding
SDM2EDID
Figure 5-10 VGA EDID NVM
1
18440_201_090225.eps
090306
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EN 31Q548.1E LA 5.

5.8.12 SSB Replacement

Follow the instructions in section 6.5 Reset of Repaired SSB and 6.6 Service SSB delivered without main software loaded case a SSB has to be exchanged.

5.9 Software Upgrading

5.9.1 Introduction

The set software and security keys are stored in a NAND­Flash, which is connected to the PNX8543 via the PCI bus.
It is possible for the user to upgrade the main software via the USB port. This allows replacement of a software image in a stand alone set, without the need of an E-JTAG debugger. A description on how to upgrade the main software can be found in the DFU.
Important: When the NAND-Flash must be replaced, a new SSB must be ordered, due to the presence of the security keys! (copy protection keys, MAC address, ...). It is not possible anymore to replace the NAND-Flash with another one from a scrap-board. Perform the following actions after SSB replacement:
1. Set the correct option codes (see sticker inside the TV).
2. Update the TV software (see the DFU for instructions).
3. Perform the alignments as described in section Reset of
Repaired SSB.
4. Check in CSM if the HDMI keys are valid.
For the correct order number of a new SSB, always refer to the Spare Parts list, available on the Philips Spare Part web portal.

5.9.2 Main Software Upgrade

The “UpgradeAll.upg” file is only used in the factory.
The “FlashUtils.upg” file is only used by Service centres that are allowed to do component level repair on the SSB.
in
1. Create a directory “UPGRADES” on the USB stick.
2. Rename the “autorun.upg” to something else, e.g. to “software.upg”. Do not use long or complicated names, keep it simple. Make sure that “AUTORUN.UPG” is no longer present in the root of the USB stick.
3. Copy the renamed “upg” file into this directory.
4. Insert USB stick into the TV.
5. The renamed “upg” file will be visible and selectable in the upgrade application.
Back-up Software Upgrade Application
If the default software upgrade application does not start (could be due to a corrupted boot 2 sector) via the above described method, try activating the “back-up software upgrade application”. How to start the “back-up software upgrade application” manually:
1. Disconnect the TV from the Mains/AC Power.
2. Press the “INFO”-button on a Philips remote control or “CURSOR DOWN” button on a Philips DVD RC-6 remote control (it is also possible to use a TV remote in “DVD” mode). Keep the “INFO”-button (or “cursor down” button) pressed while reconnecting the TV to the Mains/AC Power.
3. The software upgrade application will start.

5.9.3 Stand-by Software Upgrade via USB

In this chassis it is possible to upgrade the Stand-by software via a USB stick. The method is similar to upgrading the main software via USB. Use the following steps:
1. Create a directory “UPGRADES” on the USB stick.
2. Copy the Stand-by software (part of the one-zip file, e.g. StandbySW_CFT69_84.0.0.0.upg) into this directory.
3. Insert the USB stick into the TV.
4. Start the download application manually (see section Manual Software Upgrade
.
5. Select the appropriate file and press the “red” button to upgrade.
Automatic Software Upgrade
In “normal” conditions, so when there is no major problem with the TV, the main software and the default software upgrade application can be upgraded with the “AUTORUN.UPG” (FUS part of the one-zip file: e.g. FUS _Q5431E_
1.25.5.0_commercial.zip). This can also be done by the consumers themselves, but they will have to get their software from the commercial Philips website or via the Software Update Assistant in the user menu (see DFU). The “autorun.upg” file must be placed in the root of the USB stick. How to upgrade:
1. Copy “AUTORUN.UPG” to the root of the USB stick.
2. Insert USB stick in the set while the set is in ON MODE. The set will restart and the upgrading will start automatically. As soon as the programming is finished, a message is shown to remove the USB stick and restart the set.
Manual Software Upgrade
In case that the software upgrade application does not start automatically, it can also be started manually. How to start the software upgrade application manually:
1. Disconnect the TV from the Mains/AC Power.
2. Press the “OK” button on a Philips TV remote control or a Philips DVD RC-6 remote control (it is also possible to use a TV remote in “DVD” mode). Keep the “OK” button pressed while reconnecting the TV to the Mains/AC Power.
3. The software upgrade application will start.

5.9.4 Content and Usage of the One-Zip Software File

Below the content of the One-Zip file is explained, and instructions on how and when to use it.
File name Description
EDID_Q5481_x.x.x.x.zip Contains the EDID content of the
EJTAGDownload_Q5481_x.x.x.x.zip Only used by service centra which are
FUS_Q5481_vx.x.x.x.zip Contains the “autorun.upg” which is
VGA_HD_EDID_TV543_x.x.x.x.zip Contains the EDID content of the
processNVM_Q5481_x.x.x.x.zip Default NVM content. Must be
Software_history_vx.x.x.x.pdf Contains a history overview of the
different VGA NVM. See ComPair for further instructions.
allowed to do Component Level Repair.
needed to upgrade the TV main software and the software download application.
different (HD) VGA NVM. See ComPair for further instructions.
programmed via ComPair.
software.
Attention!
In case the download application has been started manually, the “autorun.upg” will maybe not be recognized. What to do in this case:
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File name Description
StandbySW_CFT73_x.x.x.x.zip Contains the Stand-by software in
VGA_FHD_EDID_TV543_x.x.x.x.zip Contains the EDID content of the
“upg” and “hex” format.
- The “StandbySW_xxxxx_prod.upg” file can be used to upgrade the Stand­by software via USB.
- The “StandbySW_xxxxx.hex” file can be used to upgrade the Stand-by software via ComPair.
- The files “StandbySW_xxxxx_exhex.hex” and “StandbySW_xxxxx_dev.upg” may not be used by Service technicians (only for development purposes).
different (FHD) VGA NVM. See ComPair for further instructions.
Service Modes, Error Codes, and Fault Finding
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6. Alignments

Alignments
EN 33Q548.1E LA 6.
Index of this chapter:

6.1 General Alignment Conditions

6.2 Hardware Alignments

6.3 Software Alignments

6.4 Option Settings
6.5 Reset of Repaired SSB
6.7 Total Overview SAM modes
6.1 General Alignment Conditions
Perform all electrical adjustments under the following conditions:
Power supply voltage (depends on region): – AP-NTSC: 120 VAC or 230 V – AP-PAL-multi: 120 - 230 V – EU: 230 V
/ 50 Hz (± 10%).
AC
LATAM-NTSC: 120 - 230 V – US: 120 V
/ 60 Hz (± 10%).
AC
/ 50 Hz (± 10%).
AC
/ 50 Hz (± 10%).
AC
/ 50 Hz (± 10%).
AC
Connect the set to the mains via an isolation transformer with low internal resistance.
Allow the set to warm up for approximately 15 minutes.
Measure voltages and waveforms in relation to correct ground (e.g. measure audio signals in relation to AUDIO_GND). Caution: It is not allowed to use heat sinks as ground.
Test probe: R
> 10 MΩ, Ci < 20 pF.
i
Use an isolated trimmer/screwdriver to perform alignments.

6.1.1 Alignment Sequence

First, set the correct options: – In SAM, select “Options”, and then “Option numbers”. – Fill in the option settings for “Group 1” and “Group 2”
according to the set sticker (see also section Option
Settings).
– Press OK on the remote control before the cursor is
moved to the left.
– In submenu “Option numbers” select “Store” and press
OK on the RC.
•OR: – In main menu, select “Store” again and press OK on
the RC.
– Switch the set to Stand-by.
Warming up (>15 minutes).
6.2 Hardware Alignments
Not applicable.
6.3 Software Alignments
Put the set in SAM mode (see chapter 5. Service Modes, Error Codes, and Fault Finding). The SAM menu will now appear on the screen. Select ALIGNMENTS and go to one of the sub menus. The alignments are explained below. The following items can be aligned:
Tuner AGC.
White point.
To store the data:
Press OK on the RC before the cursor is moved to the left.
In main menu select “Store” and press OK on the RC.
Press MENU on the RC to switch back to the main menu.
Switch the set to stand-by mode.
For the next alignments, supply the following test signals via a video generator to the RF input:
EU/AP-PAL models: a PAL B/G TV-signal with a signal strength of at least 1 mV and a frequency of 475.25 MHz
US/AP-NTSC models: an NTSC M/N TV-signal with a signal strength of at least 1 mV and a frequency of 61.25 MHz (channel 3).
LATAM models: an NTSC M TV-signal with a signal strength of at least 1 mV and a frequency of 61.25 MHz (channel 3).

6.3.1 Tuner AGC (RF AGC Take Over Point Adjustment)

Purpose: To keep the tuner output signal constant as the input signal amplitude varies. No alignment is necessary, as the AGC alignment is done automatically (standard value: “64”). Store settings and exit SAM.

6.3.2 White Point

Set “Active control” to “Off”.
Choose “TV menu”, “TV Settings” and then “Picture” and set picture settings as follows:
Picture Setting
Dynamic backlight Off
Dynamic Contrast Off
Colour Enhancement Off
Picture Format Un scaled
Light Sensor Off
Brightness 50
Colour 0
Contrast 100
Go to the SAM and select “Alignments”-> “White point”.
White point alignment LCD screens:
Use a 100% white screen as input signal and set the following values: – “Colour temperature”: “Normal”. – All “White point” values to: “127”. – “Red BL offset” values to “7”. – “Green BL offset” values to “7”.
In case you have a colour analyser:
Measure with a calibrated contactless colour analyser in the centre of the screen. Consequently, the measurement needs to be done in a dark environment.
Adjust the correct x, y coordinates (while holding one of the White point registers R, G or B on 127) by means of decreasing the value of one or two other white points to the correct x, y coordinates (see Table 6-1
). Tolerance: dx: ±
0.004, dy: ± 0.004.
Repeat this step for the other colour temperatures that need to be aligned.
When finished press OK on the RC and then press STORE (in the SAM root menu) to store the aligned values to the NVM.
Restore the initial picture settings after the alignments.
Table 6-1 White D alignment values
Value Cool (11000K) Normal (9000K) Warm (6500K)
x 0.278 0.289 0.314
y 0.278 0.291 0.319
If you do not have a colour analyser, you can use the default values. This is the next best solution. The default values are average values coming from production.
Select a COLOUR TEMPERATURE (e.g. COOL, NORMAL, or WARM).
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Alignments
Set the RED, GREEN and BLUE default values according to the values in Table 6-1
.
When finished press OK on the RC, then press STORE (in the SAM root menu) to store the aligned values to the NVM.
Restore the initial picture settings after the alignments.
Table 6-2 White tone default settings 32" & 42" Frame sets
(7000 series)
White Tone 32" 42" Black level
Colour Temp R G B R G B R G
Normal 127 93 100 127 116 112 8 8
Cool 127 98 122 125 114 124 8 8
Warm 12783 6112710873 8 8
Table 6-3 White tone default settings 47" & 52" Frame sets
(7000 series)
White Tone 47" 52" Black level
Colour Temp R G B R G B R G
Normal 127 120 105 tbd tbd tbd 8 8
Cool 126 125 125 tbd tbd tbd 8 8
Warm 127 110 68 tbd tbd tbd 8 8
Table 6-4 White tone default settings 32" & 37" Roadrunner
sets (8000 series)
White Tone 32" 37" Black level
Colour Temp R G B R G B R G
Normal 127 93 97 125 127 102 8 8
Cool 127 100 120 122 127 117 8 8
Warm 12783 5912711862 8 8
Table 6-5 White tone default settings 42" & 47" Roadrunner
sets (8000 series)
White Tone 42" 47" Black level
Colour Temp R G B R G B R G
Normal 127 103 99 127 119 107 8 8
Cool 127 109 118 127 124 125 8 8
Warm 12794 6112711168 8 8
Note: The tint settings of the Frame sets (7000 series) 52" were not available at time of publishing.

6.3.3 LCD Panel Flicker Alignment

Note: This is only necessary for Forward Integration models
(sets that have the LCD Timing Controller (TCON) located on the SSB) - not applicable to sets in this chassis.
See ComPair for further instructions.

6.4 Option Settings

6.4.1 Introduction

The microprocessor communicates with a large number of I 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 PNX5120 ICs (back-end advanced video picture improvement IC which offers motion estimation and compensation features (commercially called HDNM) plus integrated Ambilight control) is made known by the option codes.
Notes:
offset
offset
offset
offset
After changing the option(s), save them by pressing the OK button on the RC before the cursor is moved to the left, select STORE in the SAM root menu and press OK on the RC.
The new option setting is only active after the TV is switched “off” / “stand-by” and “on” again with the mains switch (the NVM is then read again).

6.4.2 Dealer Options

For dealer options, in SAM select “Dealer options”. See Table 6-8
.

6.4.3 (Service) Options

Select the sub menu's to set the initialisation codes (options) of the model number via text menus. See Table 6-8
.

6.4.4 Opt. No. (Option numbers)

Select this sub menu to set all options at once (expressed in two long strings of numbers). An option number (or “option byte”) represents a number of different options. When you change these numbers directly, you can set all options very quickly. All options are controlled via eight option numbers. When the NVM is replaced, all options will require resetting. To be certain that the factory settings are reproduced exactly, you must set both option number lines. You can find the correct option numbers on a sticker inside the TV set and in Table 6-6
. Example: The options sticker gives the following option numbers:
08192 00133 01387 45160
12232 04256 00164 00000 The first line (group 1) indicates hardware options 1 to 4, the second line (group 2) indicate software options 5 to 8. Every 5-digit number represents 16 bits (so the maximum value will be 65536 if all options are set). When all the correct options are set, the sum of the decimal values of each Option Byte (OB) will give the option number. See Table 6-6
for the options.
Diversity
Not all sets with the same Commercial Type Number (CTN) necessarily have the same option code! Use of Alternative BOM An alternative BOM number usually indicates the use of an alternative display or power supply. This results in another display code thus in another Option code. For the power supply there is no difference. Refer to Chapter 3. Precautions, Notes, and Abbreviation List.

6.4.5 Option Code Overview

Table 6-6 Option and display code overview
CTN (Alt. BOM#)
32PFL7404H/xx 08193 00649 01391 45288 10165 28832 00162 00000 181
32PFL7674H/xx 08209 00656 02031 45288 10165 28832 00160 00000 181
32PFL7684H/xx 08209 00656 02031 45288 10165 28832 00160 00000 181
32PFL7694H/xx 08193 00650 01391 45288 10165 28832 00162 00000 181
32PFL7864H/xx 08193 00650 01391 45288 10165 28832 00162 00000 181
2
C
32PFL8404H/xx 08209 00656 02031 45288 26549 28834 00162 00000 181
37PFL8404H/xx 08209 00656 02031 45288 26549 28834 00170 00000 161
37PFL8684H/xx 08209 00658 02031 45288 26529 28834 00168 00000 161
37PFL8694H/xx 08209 00658 02031 45288 26529 28834 00168 00000 161
42PFL7404H/xx 08193 00651 01391 45288 10167 28832 00178 00000 183
42PFL7674H/xx 08193 00652 01391 45288 10167 28832 00176 00000 183
42PFL7864H/xx 08193 00652 01391 45288 10167 28832 00177 00000 183
42PFL8404H/xx 08209 00657 02031 45288 26551 28834 00178 00000 183
42PFL8654H/xx 08209 00659 02031 45288 26551 28834 00176 00000 183
42PFL8684H/xx 08209 00659 02031 45288 26551 28834 00176 00000 183
42PFL8694H/xx 08209 00659 02031 45288 26551 28834 00176 00000 183
Options Group 1 Options Group 2 Disp.
code
2009-Aug-07
Page 35
Alignments
EN 35Q548.1E LA 6.
CTN (Alt. BOM#)
47PFL7404H/xx
47PFL7864H/xx 08193 00652 01391 45288 10170 28832 00161 00000 186
47PFL8404H/xx 08209 00657 02031 45288 26554 28834 00162 00000 186
52PFL7404H/xx 08193 00651 01391 45288 10192 28832 00186 00000 208
Options Group 1 Options Group 2 Disp.
08193 00651 01391 45288
10170 28832 00162 00000 186
Important: after having edited the option numbers as described above, you must press OK on the remote control before the cursor is moved to the left!
BBE & WMA Functionality
Some sets have the possibility to swith “on” the “BBE” and/or “WMA” functionality for an enhanced audio experience. This has to be executed via ComPair via “option 9”.
Table 6-7 “Option 9” overview
CTN (Alt. BOM#)
32PFL7674H/xx 00010
42PFL7674H/xx 00010
32PFL7684H/xx 00010
32PFL7694H/xx 00010
32PFL7864H/xx 00010
42PFL7864H/xx 00010
47PFL7864H/xx 00010
42PFL8654H/xx 00014
37PFL8684H/xx 00014
42PFL8684H/xx 00014
37PFL8694H/xx 00014
42PFL8694H/xx 00014
Option 9

6.5 Reset of Repaired SSB

A very important issue towards a repaired SSB from a service repair shop implies the reset of the NVM on the SSB. A repaired SSB in service should get the service Set type “00PF0000000000” and Production code “00000000000000”. Also the virgin bit is to be set. To set all this, you can use the ComPair tool. In case of a display replacement, reset the “Operation hours” to “0”, or to the operation hours of the replacement display.

6.5.1 SSB identification

Whenever ordering a new SSB, it should ne noted that the correct ordering number (12nc) of a SSB is located on a sticker on the SSB. The format is <12nc SSB><serial number>. The ordering number of a “Service” SSB is the same as the ordering number of an initial “factory” SSB.
code

6.6 Service SSB delivered without main software loaded

Due to a changed manufacturing process, new Service SSB’s can be delivered to the warehouse without main TV software loaded. Below you find the steps to follow when such
an SSB is received.

6.6.1 When a picture is available

1. Mount the Service SSB into the TV set. After start-up,
normally the download application will appear on the screen.
2. Download the latest main software (FUS) from the
www.p4c.philips.com
3. Create a folder "upgrades" in the root of a USB stick (size
> 50 MB) and save the "autorun.upg" file in this "upgrades" folder. Note: it is possible to rename this file, e.g. "Q549_SW_version.upg", this in case there are more than one "autorun.upg" files on your USB stick
4. Plug the prepared USB stick into the TV set, and select the
"autorun" file in the displayed browser on the screen
5. Now the main TV software will be loaded automatically,
supported by a progress bar
6. Set the correct "display code" via "062598-HOME-xxx",
where "xxx" is the 3-digit display panel code (see sticker on the side/bottom of the cabinet).

6.6.2 When no picture is available

Due to a possible wrong display option code in the received Service SSB (NVM), no picture can be available at start-up and thus no download application will be visible. Here you can proceed and finalize step by step to load the main TV software via the UART logging on the PC (for visual feedback).
1. Start-up the TV set, equipped with the Service SSB, and
enable the UART logging on the PC (see for settings 5.8
Fault Finding and Repair Tips 5.8.6 UART Logging)
2. The TV set will start-up automatically in the download
application if main TV software is not loaded
3. Plug the prepared USB stick into the TV set, press cursor
"Right" to enter the list, and navigate to the "autorun" file in the UART logging printout via the cursor keys on the remote control. When the correct file is selected, press "OK"
4. Press cursor "Down" and "OK" to start the flashing of the
main TV software. Printouts like: "L: 1-100% , V: 1-100% and P: 1-100%" should be visible now in the UART logging
5. Wait until the message "Operation successful!” is
displayed and remove all inserted media. Restart the TV set
6. Set the correct "display code" via "062598-HOME-xxx",
where "xxx" is the 3-digit display panel code (see sticker on the side/bottom of the cabinet).
website.
Figure 6-1 SSB identification
18310_221_090318.eps
090319

6.6.3 Use of repaired SSBs instead of new

Repaired SSBs on stock will obviously already contain main TV software. This implies that only a main software upgrade is required if you use a “repaired” SSB for board swap instead of a “new” SSB.
2009-Aug-07
Page 36
EN 36 Q548.1E LA6.

6.7 Total Overview SAM modes

Table 6-8 SAM mode overview

Main Menu Sub-menu 1 Sub-menu 2 Sub-menu 3 Description
Hardware Information A. SW version e.g. “Q5431_0.26.10.0” Display TV & Stand-by SW version and CTN serial
B. Stand-by processor version e.g. “STDBY_84.69.0.0”
C. Production code e.g. “See type plate”
Operation hours Displays the accumulated total of operation hours.TV
Error Displayed the most recent error.
Reset error buffer Clears all content in the error buffer.
Alignment Tuner AGC RF-AGC Take over point adjustment (AGC default
White point Colour temperature Normal 3 difference modes of colour temperature can be se-
Dealer options Picture mute Off/On Select Picture mute On/Off. Picture is muted / not
Virgin mode Off/On
E-sticker Off/On Select E-sticker On/Off (USP’s on-screen)
Auto store mode None Autostore mode disabled (not in installation menu)
Options Digital broadcast DVB Off/On Select DVB On/Off
Digital features USB Off/On Select USB On/Off
Display Screen 201 / LCD LGD WUE SBA1 37" Displayed the panel code & type model.
Video reproduction Picture processing None/PNX5120 Select Picture processing None/PNX5120 (Q543.xE
Alignments
number.
switched “on/off” & every 0.5 hours is increase one
value is 64)
Warn
Cool
White point red LCD White Point Alignment. For values,
White point green
White point blue
Red black level offset
Green black level offset
PDC/VPS Autostore mode via ATS (PDC/VPS) enabled
TXT page Autostore mode via ACI enabled
PDC/VPS/TXT Autostore mode via ACI or ATS enabled
DVB - T installation Off/On or Country dependent Select DVB T installation On/Off or by country
DVB - T light Off/On Select DVB T light On/Off
DVB - C Off/On Select DVB C On/Off
DVB - C installation Off/On or Country dependent Select DVB C installation On/Off or by country
Over the air download Off/On or Country dependent Select Over the air download On/Off or by country
8 days EPG Off/On Select 8 day EPG On/Off
Ethernet Off/On Select Ethernet On/Off
Wi-Fi Off/On Select Wi-Fi On/Off
DLNA Off/On Select DLNA On/Off
On-line service Off On-line service is Off
PTP (Picture Transfer Protocol) Off/On Select PTP On/Off
Update assistant Off/On Select Update assistant On/Off
Internet software update Off Internet software update is Off
LightGuide Off/On Select LightGuide On/Off
Display fans Not present/Present Select Display fans Present/Not present.
Temperature sensor No sensor N.A
Temperature LUT 0 N.A
E-box & monitor Off/On Select E-box & monitor On/Off
MOP local contrast Off/On Select MOP local contrast On/Off
Light sensor Off/On Select Light sensor On/Off
Light sensor type 0/1/2/3 Select Light sensor type form 0 to 3 (for difference
Pixel Plus type Pixel Plus HD Select type of picture improvement.
Perfect Pixel HD
Pixel Precise HD
Pixel Plus HD (used in Q543.xE)
Pixel Precise HD (used in Q548.1E)
Ambilight None, Select type of Ambilight modules use.
2 sided 2/2
2 sided 4/4
3 sided 2/3/2
3 sided 4/3/4
3 sided 4/5/4
4 sided 4/3/4/3
Ambilight technology LED/Future use Ambilight technology LED is in use.
MOP ambilight Off/On Select MOP ambilight On/Off
lected
see Table 6-1.
muted in case no input signal is detected at input con­nectors.
Select Virgin mode On/Off. TV starts up / does not start up (once) with a language selection menu after the mains switch is turned “on” for the first time (virgin mode)
chassis).
styling).
For 8400 series only
2009-Aug-07
Page 37
Alignments
Main Menu Sub-menu 1 Sub-menu 2 Sub-menu 3 Description
Audio reproduction Acoustic system Cabinet design used for setting dynamic audio pa-
Source selection EXT1/AV1 type SCART CBVS RGB LR Select input source when connected with external
CVBS Y/C YPbPr LR
CVBS Y/C YPbPr HV LR
(CVBS) YPbPr LR
EXT2/AV2 type SCART CBVS RGB LR Select input source when connected with external
CVBS Y/C LR
(CVBS) YPbPr LR
CVBS Y/C LR
EXT3/AV3 type None Select input source when connected with external
CVBS
CVBS LR
YPbPr
YPbPr LR
YPbPr HV LR
VGA Off/On Select VGA On/Off
SIDE I/O Off/On Select SIDE I/O On/Off
HDMI 1 Off/On Select HDMI 1 On/Off
HDMI 2 Off/On Select HDMI 2 On/Off
HDMI 3 Off/On Select HDMI 3 On/Off
HDMI 4 Off/On Select HDMI 4 On/Off
HDMI side Off/On Select HDMI side On/Off
HDMI CEC Off/On Select HDMI CEC On/Off
HDMI CEC RC pass through Off/On Select HDMI CEC RC pass through On/Off
HDMI CEC Pixel Plus link Off/On Select Pixel Plus link On/Off
Miscellaneous Region Europe/AP-PAL-MULTI/Australia Select Region/country.
Option number Group 1 e.g. “08192.02181.01387.45160” The first line (group 1) indicates hardware options 1
Group 2 e.g. “10185.12448.00164.00000” The second line (group 2) indicates software options
Store Store after changing.
Initialise NVM N.A
Store
Software maintenance Software events Display Display information is for development purposes.
Hardware events Display Display information is for development purposes.
Operation hours display 0003 In case the display must be swapped for repair, you
Test setting Digital information QAM modulation: 64-QAM Display information is for development purposes.
Install start frequency 000 Install start frequency from 0 MHz
Install end frequency 999 Install end frequency as 999 MHz
Default install frequency
Installation Digital only Select Digital only or Digital + Analogue before instal-
Tuner type HD1816-MK1/TD1716-MK4/
System RC support Off/On Select System RC support On/Off.
Embedded user manual Off/On Select Embedded user manual On/Off.
Start-up screen Off/On Select Start-up screen On/Off.
Wallpaper Off/On Select Wallpaper On/Off.
Hotel mode Off Hotel mode is Off.
Clear
Test reboot
Test reboot is to restart the TV.
Clear
Symbol rate: 23:29
Original network ID: 12817
Network ID:12817
Transport stream ID: 2
Service ID: 3
Hierarchical modulation: 0
Selected video PID: 35
Selected main audio PID: 99
Selected 2nd audio PID: -1
Digital + Analogue
TD1716-MK3/HD1816-MK2
rameters.
equipment.
equipment.
equipment.
Select type of Tuner used.
to 4.
5 to 8.
Select Store in the SAM root menu after making any changes.
can reset the “Display operation hours” to “0”. So, this one does keeps up the lifetime of the display itself (mainly to compensate the degeneration behaviour).
lation.
EN 37Q548.1E LA 6.
2009-Aug-07
Page 38
EN 38 Q548.1E LA6.
Main Menu Sub-menu 1 Sub-menu 2 Sub-menu 3 Description
Development file ver­sions
Upload to USB Channel list To upload several settings from the TV to an USB
Download from USB Channel list To download several settings from the USB stick to
Development 1 file version Display parameters DISPT 4.0.8.11 Display information is for development purposes.
Development 2 file version 12NC one zip software Display information is for development purposes.
Personal settings
Option codes
Display-related alignment
History list
Personal settings
Option codes
Display-related alignment
Alignments
Acoustics parameters ACSTS 3.0.6.1
PQF - Fixed settings 1 “4.54.34.32.34”
PQS - Profile set 1 “4.57.34.32.34”
PQU - User styles 1 “4.56.34.32.34”
Initial main software
NVM version Q5431_0.4.3.0
Flash units SW Q5431_0.16.48.24
stick
the TV.
2009-Aug-07
Page 39

7. Circuit Descriptions

Circuit Descriptions
EN 39Q548.1E LA 7.
Index of this chapter:

7.1 Introduction

7.2 Power Supply
7.3 DC-DC Converter
7.4 Front-End
7.5 HDMI
7.6 Video and Audio Processing - PNX8543
7.7 Common Interface CI+
Notes:
•Only new circuits (circuits that are not published recently) are described.
Figures can deviate slightly from the actual situation, due to different set executions.
For a good understanding of the following circuit descriptions, please use the wiring, block (see chapter 9.
Block Diagrams) and circuit diagrams (see chapter
10. Circuit Diagrams and PWB Layouts).Where necessary, you will find a separate drawing for clarification.
7.1 Introduction
The Q548.1E LA chassis (platform name TV543/82) is a derivative from the Q543.1E LA chassis.
Main difference with the previous chassis is the addition of the PNX5120 Video Back-End Processor.
Roadrunner sets (8000 series) are equipped with AmbiLight.

7.1.1 Implementation

Key components of this chassis are:
PNX8543 Digital Colour Decoder
HD1816AF Hybrid Tuner
DRX3926K Demodulator
TDA9996 HDMI Switch
TPA3123D2PWP Class D Power Amplifier
PNX5120 Video Back-End Processor.

7.1.2 TV543 Architecture Overview

For details about the chassis block diagrams refer to chapter 9. Block Diagrams. An overview of the TV543 architecture can be found in Figure 7-1
.
Optional for
Q548 chassis
Figure 7-1 Architecture of TV543/82 platform
18540_200_090327.eps
090402
2009-Aug-07
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EN 40 Q548.1E LA7.

7.1.3 SSB Cell Layout

Circuit Descriptions
2009-Aug-07
Figure 7-2 SSB layout cells (top view)
18540_201_090327.eps
090327
Page 41

7.2 Power Supply

All power supplies described below are a black box for Service. When defective, a new board must be ordered and the defective one must be returned, unless the main fuse of the board is broken. Always replace a defective fuse with one with the correct specifications! This part is available in the regular market. Consult the Service Spare Parts website for the order codes of the boards.

7.2.1 Specifications

Most sets in the TV543 platform use the Integrated Power Board (IPB) - incl. inverter. The 52" sets in this chassis have a conventional PSU - with separate inverter.
Circuit Descriptions
+3V3-STANDBY
+12V, +Vsnd, +24V
Max 1.0sec Max 0.5 sec
Vin AC
STANDBY
Figure 7-4 PSU Timing Diagram
EN 41Q548.1E LA 7.
Min 20 msec
Max 5.0 sec
8440_209_090226.eps
1
090227
In this Service Manual, no detailed information is available for design protection reasons.

7.2.2 Diversity

Below find an overview of the different PSUs that are used:
Table 7-1 Supply diversity
Supplier PSU Model Input Voltage Range
LGIT PLHL-T826B 32" High Mains (198 to 265 VAC)
Delta DPS-298CP A 37" High Mains (198 to 265 VAC)
Delta DPS-298CP-4 A 42" High Mains (198 to 265 V
Delta DPS-298CP-2 A 47" High Mains (198 to 265 V
Delta DPS-411AP-3A 52" High Mains (198 to 265 VAC)

7.2.3 Application

An application diagram can be found below:
Inverter
AC Input
RELAY
PFC
Vo=400V
Non- Isolated/Hot
Flyback
Isolated/Cold
18440_208_090226.eps
Figure 7-3 Application Integrated Power Board

7.2.4 Power Supply Timing

The STANDBY signal controls the on-mode voltages +12V, +V
and +24V. During chassis cold start from AC mains,
snd
+12V can be expected to be stable within 1.0 seconds, while for a warm start, i.e. wake up from stand-by power state, this timing becomes 0.5 seconds maximum. During AC switch off, stand-by power +3V3-STANDBY decay is at least 20 ms but not more than 5.0 seconds compared to +12V. Refer to
Figure 7-4
:
AC
AC
To Lamps
+12V
Audio Supply (+12V)
+24V
STANDBY (HIIGH=OFF, LOW=ON)
+3V3_STANDBY
)
)
090327

7.2.5 Power Supply Protection

Power supply protection is implemented via the stand-by controller of the PNX8543 via the following signals:
POWER-OK: signal from PSU to indicate if the supply output from the IPB is normal
DETECT1: signal to indicate if the +5V, +3V3 and +1V2 voltages on the chassis are present
DETECT2: signal to indicate if the +12V voltage on the chassis is present.

7.3 DC-DC Converter

Input power is obtained from the IPB module via the following voltages:
+3V3-STANDBY (stand-by-mode only)
+12V (on-mode)
•+V
+24V (bolt-on power) (on-mode).
Control is achieved by the PNX8543 controller via the STANDBY signal.
Audio power is specifically for audio supply usage only and does not go through any DC conversion.
Below find a block diagram of the on-board DC-DC converters.
+
(audio power) (on-mode)
snd
+12V
3V3-STANDBY

Figure 7-5 DC-DC converters

NCP5422 + 2x
Si4936
(Sync Dual
Controller
+ Dual FETs)
ST1S10
(Sync Power IC)
ST1S10
(Sync Power IC)
LD3985M
(Linear Regulator)
LD1117
(Linear Regulator)
LD1117
(Linear Regulator)
18440_210_090227.eps
+1V2-PNX8543
+3V3
+1V8-PNX8543
+1V8-PNX5100
ENABLE-3V3
+5V_+5V5-TUN
+1V2-PNX5100
+1V2-STANDBY
090227
2009-Aug-07
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EN 42 Q548.1E LA7.

7.4 Front-End

The Front-End consist of the following key components:
Circuit Descriptions
Platform with embedded EDID
Tuner HD1816AF
IF demodulator DRX3926K
AGC amplifier UPC3221GV
SAW filter 36M125.
Below find a block diagram of the front-end application.
NXP Hybrid
Tuner
SAW
IF Amplifier DRX3926K PNX8543
Filter
I2C-TUNER
IF-AGC
18440_211_090227.eps

Figure 7-6 Front-End block diagram

The DRX3926K is a multi-standard demodulator supporting DVB-C, DVB-T and analogue standards. The demodulated digital stream is fed into the parallel transport stream data ports of the PNX8543. The demodulated analogue signal in the form of CVBS is connected to the analogue video CVBS/Y input channel, while the SIF is connected via the SSIF2 positive input port.

7.5 HDMI

In this platform, the TDA9996 HDMI multiplexer is implemented. The EDID contents are no longer stored in a separate EEPROM, but directly in the multiplexer. Each input has its own physical sub address: the first 253 bytes are common, where the last 3 bytes define the specific input. The EDID contents are, at +5V power-up, downloaded to RAM. The following figures show the HDMI input configuration and EDID control.
I2C-SSB
CVBS
2nd SIF
TS
090227
EDID : 25 3B
IIC
CPU
TDA9996
3B 3B 3B 3B
253 common Bytes
+ 1B sub addres of
S o u rc e Physica l Add ress
+3B for input A
4 × HDMI
inpu ts

Figure 7-8 EDID control (embedded EDID)

Some delta’s w.r.t. TDA9996 compared to earlier chassis/ platforms are:
+5V detection mechanism
stable clock detection mechanism
integrated EDID
•RT control
HPD control
TMDS output control
CEC control
new hot-plug control for PNX8543 for 5th HDMI input
new EDID structure: EDID stored in TDA9996, therefore there are no EDID pins on the SSB. Only in the event of a 5th HDMI input, an additional EEPROM is foreseen, as was implemented in previous platforms.
Some delta’s with respect to PNX8543 compared to earlier chassis/platforms are:
2 HDMI inputs (A & B)
HDMI deep colour RGB/YCbCr 4:4:1 10/12 bit detection.
After replacement of the TDA9996 HDMI multiplexer, the
2
default I and the HDMI EDIDs should be reprogrammed as well. Both actions should be executed via ComPair.
C address should be reprogrammed from C0 to CE,
+3B for input B +3B for inpu t C +3B for inpu t D
18440_214_090227.eps
090720
PNX8543
Edid
1M96
HDMI 4 (optional)
A B
HDMIA-RX
1P06
ARX
1P04
HDMI 3
(opt iona l)
HDMIB-RX
Out
A
TDA9996
B
BRX
1P03
HDMI 2

Figure 7-7 HDMI input configuration

D
DRX
C
CRX
1P02
HDMI 1
18440_213_090227.eps
1P0 5
HDMI Side
(optional)
090720
2009-Aug-07
Page 43
Circuit Descriptions
EN 43Q548.1E LA 7.

7.6 Video and Audio Processing - PNX8543

The PNX8543 is the main audio and video processor (or System-on-Chip) for this platform. It is a member of the PNX85xx SoC family (described in earlier chassis) with the addition of the MPEG4 functionality; the separate STi710x MPEG4 decoder is no longer implemented in this platform.
PNX8543x
TS in from
channel decoder
TS out/in for
PCMCIA
DV-ITU-656
CVBS, Y/C,
RGB
Low-IF
SSIF, LR
Dual SPDIF
I2S
Dual HDMI
CI/CA
VIDEO
DECODER
DIGITAL IF
AUDIO DEMOD
AND DECODE
AUDIO IN
HDMI
RECEIVER
SYSTEM
CONTROLLER
(8051)
SYSTEM
PROCESSOR
DV INPUT
3D COMB
MPEG/H.264
DECODER
300 MHz
MIPS32 4KEc
MPEG
VIDEO
CPU
MEMORY
CONTROLLER
The PNX8543 handles the digital and analogue audio- and video decoding and processing. The processor is a MIPS32 general purpose CPU and a 8051-based TV controller for power management and user event handling.
For a functional diagram of the PNX8543, refer to Figure 7-9
PRIMARY
VIDEO
OUTPUT
AV-PIP
SUB-PICTURE
SECONDARY
VIDEO
OUTPUT
SCALER,
DE-INTERLACE
AND NOISE
REDUCTION
AUDIO DSP
300 MHz
AV-D SP
DRAWING
ENGINE
DMA BLOCK
.
LV DS
VIDEO
ENCODER
AUDIO DACS
AUDIO OUT
LV DS for flat panel display (single or dual channel)
analog CVBS
analog audio
2
S
I
SPDIF
I2C
PWM
GPIO IR ADC UART I2C GPIO Flash
SPI

Figure 7-9 PNX8543 functional diagram

01 x22 x
USB 2.0 CA
PCI 2.2
18440_202_090226.eps
090226
2009-Aug-07
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EN 44 Q548.1E LA7.

7.6.1 Video Subsystem

Circuit Descriptions
Refer to Figure 7-10
for the main video interfaces for the PNX8543 and the video signal flow between blocks and memory.
PNX8543x
A
LOW IF
CVBS
RGB
YPbPr
VGA
Dual HDMI
AFE
(ADC)
HDMI_
RX
VCP/PC
VCP_RX
PC_RX
HDMI
HDMI_UIP
VCP_
VCP_ WIFD
PC_
UIP
UIP
DDR2-SDRAM
MCU-DDR
DMA BUS
GFX1
GFX2
PIP
main
2D_DE
CPIPE_
MBVP_ L2QTV
MBVP_ L2VO1
L2QTV
LV DS_BUF
LV DS_TX
LCD panel FPD-LVDS1
LCD panel FPD-LVDS2
DV (including
ITU-656)
TS
PCMCIA TSDO
TSDI CMD
VIP
(ITU-656)
CAI
TSI
VMSP
Figure 7-10 PNX8543 video flow diagram
The Video Subsystem consist of the following blocks:
Analogue Front-End (AFE) block
Video and PC Capture (VPC/PC) pipe
HDMI Receiver interface
Memory-Based Video Processor MBVP)
Video Composition Pipe (CPIPE)
Memory Based Video Processor (MBVP) VO-1
Memory Based Video Processor (MBVP) VO-2
Video Composition Pipe (CPIPE)
Dual Flat Panel Display-LVDS (FPD-LVDS)
Digital Encoder (DENC)
Digital Video VIP
2D graphics block.
MBVP_
L2VO2
CPIPE_
L2VO
MSVD
DENC
A
CVBS/Y
MUX
DAC
C
DAC
monitor CVBS1/Y
monitor
CVBS2/C
18440_203_090226.eps
090226
2009-Aug-07
Page 45

7.6.2 Audio Subsystem

Circuit Descriptions
EN 45Q548.1E LA 7.
Refer to Figure 7-11
for the main audio interfaces for the PNX8543 and the audio signal flow between blocks and memory.
DDR2-SDRAM
PNX8543x
TS-IN
SPDIF-IN1 SPDIF-IN2
I2S-IN-SD1 I2S-IN-SD2 I2S-IN-SD3 I2S-IN-SD4
I2S-IN-WS I2S-IN-SCK I2S-IN-OSC
HDMI
IF
SSIF
CAI
XB1
SPDIF
HDMI_RX
from XB4
2
I
S
ADC
DigIF
SPDIF
VMSP
SPDIF-IN
fast SPDIF
XB2
4
ASDEC
(DEMODULATION
AND DECODING)
AI
4 × I2S
MCU
4 × I2S
TM2270
(MPEG, AC-3, MP3
DECODER)
SPDIF-OUT
DMA BUS
AO
XB3
APP - AUDIO DSP
(POST PROCESSING)
4 × I2S
XB4
SPDIF-Out
4
I2S-OUT-SD1 I2S-OUT-SD2 I2S-OUT-SD3 I2S-OUT-SD4
I2S-OUT-WS I2S-OUT-SCK I2S-OUT-OSC
L, R
ADC
Figure 7-11 PNX8543 audio flow diagram
The Audio Subsystem consist of the following blocks:
Analogue Audio Front End (AAFE) used to capture Baseband Audio Inputs and to sample Secondary Sound IF (SSIF) directly or via Low-IF input
HDMI Receiver interface block
SPDIF input block
Audio Input (AI) block
Audio Output (AO) block
Demodulation & Decoding (ASDEC) DSP for decoding all analogue terrestrial TV sound standards
Audio Post-Processing (APP) block
Digital Audio decoder.
2
DAC
2
DAC
2
DAC
2
DAC
Main L, R
HP L, R
SCART2 L, R
SCART1 L, R
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090226
2009-Aug-07
Page 46
EN 46 Q548.1E LA7.

7.6.3 Connectivity and Compute Subsystem

Circuit Descriptions
Refer to Figure 7-12 subsystem.
I2C-1
I2C-2
I2C-3
for the connectivity and compute
PNX8543x
IIC4_DMA
IIC2_DMA
IIC3_DMA
DDR2-SDRAM
MCU_DDR
MIPS 4KEc
EJTAG
AVD SP
UART-1
UART-2
UART1
UART2
USB2.0USB
EJTAG
The Connectivity Subsystem consists of:
PCI/XIO interface
USB2.0 interface
Three 2-wire UARTs
Four Master/Slave I
Common Interface/Conditional Access Interface.
The Computing Subsystem consists of:
32-bit MIPS RISC core
Enhanced JTAG (EJTAG) block inside the MIPS
JTAG_MMIO blocks
TV controller
Audio/Video DSP (AV_DSP)
Memory Control Unit (MCU).
JTAG_MMIO
2
C interfaces
Figure 7-12 PNX8543 connectivity and compute subsystem
DCS-NETWORK
DMA BUS
PCI_XIO
PCI/XIO
CAI
CI/CA
I2C-MC
SYSTEM
CONTROLLER
80C51
UART-3
PWMs
GPIOs
18440_205_090226.eps

7.6.4 Service Notice - FLASH RAM / PNX8543 exchange

The FLASH RAM (item 7M00) and/or PNX8543 (item 7600) can only be exchanged by an authorised central workshop with dedicated programming tools. Due to the presence of (CI+) keys in the components, unauthorised exchange of these components will always result in a defective board.
090226

7.7 Common Interface CI+

Together with this platform, an extension to the Common Interface (CI) Conditional Access system is added, called CI+.
CI+ or Common Interface Plus is a specification that extends the Common Interface (DVB-CI) as described in the digital broadcasting standard DVB.
2009-Aug-07
Page 47
The weakness of the conventional CI module used in a Conditional Access system was the absence of a Copy Protection mechanism, as decrypted content could be sent over the PCMCIA interface unscrambled. With the CI+ extension, a form of copy protection is established between the Conditional Access Module (CAM) and the Integrated Digital Television (IDTV). The security mechanisms in CI+ are derived/copied from POD (with the exception of Out Of Band (OOB) used in US CA systems). For more information about conventional CA systems using a CI module, refer to the BJ3.0E L/PA or BL2.xU Service Manual.
The CI+ standard is downwards compatible with the existing CI standard.
The following figure shows the implementation of the CI+ Conditional Access system in the TV543 platform.

7.8 Ambi Light

Circuit Descriptions
tuner
Transport stream

Figure 7-13 CI+ Conditional Access implementation

channel decoder
inte rface
TS-INP UT
CA-MDI
(SC )
EN 47Q548.1E LA 7.
DES/AES
descrambler
MHEG CI+
decoder
demux
PNX8543
PCI/XIO
MHEG MMI
application
Command
CA-CTRL
inte rface
CA-MDO
CA clien t
DES/AES
scrambler
CAM
Matrix
Matrix
Transport Streams
CA-Control
Proprietary CA scrambling
CI + StandardisedCCS scrambling
18440_221_090227.eps
090227
The Ambi Light architecture in this platform has been entirely renewed. The characteristics are:
Additional DC/DC board generating 12/16/24 V (optional)
ARM processor (on DC/DC panel or AL board)
Low-power LEDs
SPI interface from ARM to LED drivers
2
•I
C upgradeable via USB
Each AL module has a temperature sensor.

Figure 7-14 Interface between Ambi Light and SSB

7.8.1 ARM controller

The use of the DC/DC board is optional. In case no DC/DC board is implemented, the ARM processor is located on one of the AL boards.
Refer to Figure 7-14
for the Ambi Light architecture.
18310_203_090317.eps
090317
Refer to Figure 7-15
below for signal interfacing to and from the ARM controller. The ARM controller is located on the DC/DC board (item no. 7302) or AL panel (item no. 7102).
SDA
SCL
SEL1
SEL2
TxD
RxD
Sd a1
Scl1
tb d
tb d
ARM
Txd 0
Rxd0
SPI C LOCK
Sck
SPI LATCH
P0.7
SPI LA TCH 2 (only on dc/dc for aurea )
P0.8
SPI D ATA OUT
MOSI
PWM CLOCK
MAT0.0
SPI DATA RETURN
MISO
BLANK
MAT1.0
PROG
tb d
C S EEPROM
tb d
TEM P
P0.10
18310_204_090318.eps
090318
Figure 7-15 ARM controller interface
Data transfer between ARM processor and LED drivers is executed by a Serial Peripheral Interface (SPI) bus interface.
2009-Aug-07
Page 48
EN 48 Q548.1E LA7.
Circuit Descriptions
The SPI bus is a synchronous serial data link standard that operates in full duplex mode.
For debugging purposes, the working principle is given below:
At startup the controller will read-out matrix data from the EEPROM devices (via SPI DATA RETURN)
Before operation, the driver current is set via SPI, with driver in DC mode
During normal operation the controller receives RGB-, configuration-, operation mode- and topology data via I
The controller converts the I
2
C RGB data via the matrixes
2
C
to SPI LED data
Via data return the controller receives error data (if applicable).
Amb ilig ht m odu le 1 Am b iligh t mo du le 2 Amb ilight modu le N
S o ut S in So ut S o utS in
o ut16
LED
DRIVER
LED
DRIVER
1
SPI data in
ARM
SPI d ata retu rn
SPI clo ck (S CLK) SPI la tch (XL AT)
PRO G (VPRG ) BLANK PW M CLOC K ( GSCLK)
Also PWM clock and BLANK signals are generated by the controller. The controller can be reprogrammed via I USB). The controller can receive matrix values via I
2
C (via
2
C, which will be stored in the EEPROM of each AL module via the SPI bus. The temperature sensor in each AL module controls the TEMP line; in case of a too high temperature the controller will reduce the overall brightness.

7.8.2 LED driver communication (via SPI bus)

Refer to Figure 7-16
below for signal interfacing between the ARM controller and the LED drivers on the AL boards, and the LED drivers and the EEPROMs on the AL boards.
o ut16
LED
o ut16
DRIVER
2
N
Figure 7-16 SPI communication between ARM controller and LED drivers
The ARM controller communicates with the LED drivers (on each AL module) via an SPI bus. For debugging purposes, the working principle is given below:
Data from the ARM controller is linked through the drivers, which are connected in cascade
SPI CLK, SPI LATCH, PROG, BLANK and PWM CLOCK are going directly from the controller to each driver
SPI DATA RETURN is linked from the last driver to the controller: controller decides which driver returns data.

7.8.3 Temperature Control

Refer to Figure 7-17
for signal interfacing between the ARM
controller and the temperature sensor on the AL boards.
Amb iligh t mod ule 1 Am bilig ht mo dule 2
TEMP
SENS OR
Vcc
Pull-upPull-upPull-up
TEMP
SENS OR
Vcc
Amb iligh t mod ule N
SENS OR
TEMP
Vcc
18310_205_090318.eps
090318
Each AL board is equipped with a temperature sensor. If one of the sensors detects a temperature over the threshold, the TEMP line is pulled LOW which results in brightness reduction.
ARM
18310_206_090318.eps
Figure 7-17 Communication between ARM controller and
temperature sensor
2009-Aug-07
090318
Page 49

8. IC Data Sheets

IC Data Sheets
EN 49Q548.1E LA 8.
This chapter shows the internal block diagrams and pin configurations of ICs that are drawn as “black boxes” in the
electrical diagrams (with the exception of “memory” and “logic” ICs).

8.1 Diagram SSB: DC/DC +3V3 +1V2 B01A, NCP5422AD (IC 7103)

Block Diagram
+
V
CC
+
+
+
+
+
+
0.25 V
A
5.0
IS+1
IS−1
IS+2
IS−2
8.6 V
7.8 V
70 mV
70 mV
+
S
Set
Dominant
R
1.0 V
Q
+
V
CC
BIAS
FAULT
E/A OFF
R
+
E/A1
OSC
CURRENT
SOURCE
OSC
PWM Comparator 1
0.425 V
PWM Comparator 2
GEN
CLK1
CLK2
RAMP1
0.425 V
− +
1.0 V
FAULT
FAULT
RAMP2
E/A OFF
+
+
E/A2
1.2 mA
RAMP1
S
Reset Dominant
R
FAULT
S
Reset Dominant
R
FAULT
non−overlap
non−overlap
FAULT
RAMP2
V
V
BST
CC
BST
CC
BST
GATE(H)1
GATE(L)1
GATE(H)
GATE(L)2
GND
2
Pin Configuration
GATE(H)1
GATE(L)1

Figure 8-1 Internal block diagram and pin configuration

V
COMP1
FB1
V
FB2
SO−16
16
N
A
C
W
45P 2 2
WWYL
A
GND
BST
IS+1 IS−1 V
FB1
1
COMP1
A= Assembly Location WL = Wafer Lot Y= Year WW = Work Week
GATE(H)2 GATE(L)2 V
CC
R
OSC
IS+2
IS−2
V
FB2
COMP2
COMP2
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2009-Aug-07
Page 50
EN 50 Q548.1E LA8.
IC Data Sheets

8.2 Diagram SSB: DC/DC +3V3 +1V2 Standby B01B, ST1S10PH (IC 7202/7222)

Block Diagram
Pin Configuration
2009-Aug-07
DFN8 (4x4)

Figure 8-2 Internal block diagram and pin configuration

PowerSO-8
I_18010_083.eps
130608
Page 51
IC Data Sheets

8.3 Diagram SSB: DC/DC +3V3 +1V2 Standby B01B, LD3985M (IC 7201)

Block Diagram
EN 51Q548.1E LA 8.
Pin Configuration
TSOT23-5L/SOT23-5L Flip-Chip

Figure 8-3 Internal block diagram and pin configuration

G_16290_084.eps
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2009-Aug-07
Page 52
EN 52 Q548.1E LA8.
IC Data Sheets

8.4 Diagram SSB: Front End B02A, DRX3926K (IC 7303)

Block Diagram
RF AGC
Main
Tuner
2
C
I
Pin Configuration
VSSAL_AFE2
VDDAL_AFE2
PDP
PDN
48 47 46 45 44 43 42 41 40 39 38 37 36 35 34 33
49XI
50XO
51VSSAH_OSC
52VDDAH_OSC
53VDDH
54VSSH
55VSSL
56VDDL
57TDO
58TMS
59TCK
60TDI
61I2C_SDA2
62I2C_SCL2
63I2S_CL
64I2S_DA
123 45678 910111213 14 15 16
I2S_WS
VDDL
VSSL
SAW
Integrated Tuner
VDDAH_CVBS
SIF
GPIO1
MSTRT
MERR
VSSAH_CVBS
CVBS
VSSH
VDDH
IF AGC
DRXK
INP
MCLK
INN
VSSAH_AFE1
MD0
MVAL
ADCIF AMP
Presaw
Sense
VDDAH_AFE1
VDDAL_AFE1
MD2
MD1
VSSAL_AFE1
IF_AGC
RF_AGC
19
VDDL
VSSL
MD3
RSTN32
SAW_SW31
GPIO230
VSYNC29
VSSL28
VDDL27
VDDH26
VSSH25
I2C_SDA124
I2C_SCL123
MD722
MD621
MD520
MD4
VDDH18
VSSH17
DVB-T/QAM/ATV
Demodulator
Stereo Decoder
System Controller
DVB-T/QAM
FEC
DAC
DAC
MPEG-2 TS
CVBS
SIF
2
S Audio
I
2
C
I
GPIO
18440_300_090303.eps
090303
2009-Aug-07

Figure 8-4 Pin configuration

Page 53
IC Data Sheets

8.5 Diagram SSB: PNX8543 - Power B03A-B03H, PNX8543 (IC7600)

Block Diagram
TS in from
channel decoder
TS out/in for
PCMCIA
DV-ITU-656
CVBS, Y/C,
RGB
Low-IF
SSIF, LR
Dual SPDIF
I2S
Dual HDMI
PNX8543x
CI/CA
VIDEO
DECODER
DIGITAL IF
AUDIO DEMOD
AND DECODE
AUDIO IN
HDMI
RECEIVER
SYSTEM
CONTROLLER
(8051)
MPEG
SYSTEM
PROCESSOR
DV INPUT
3D COMB
MPEG/H.264
VIDEO
DECODER
300 MHz
MIPS32 4KEc
CPU
MEMORY
CONTROLLER
PRIMARY
VIDEO
OUTPUT
AV-PIP
SUB-PICTURE
SECONDARY
VIDEO
OUTPUT
SCALER,
DE-INTERLACE
AND NOISE
REDUCTION
AUDIO DSP
300 MHz
AV-D SP
DRAWING
ENGINE
DMA BLOCK
LVD S
VIDEO
ENCODER
AUDIO DACS
AUDIO OUT
LVD S for flat panel display (single or dual channel)
analog CVBS
analog audio
2
S
I
SPDIF
EN 53Q548.1E LA 8.
PWM
I2C
Pin Configuration
ball A1 index area
A
B
C
D
E
F
G
H
J
K
L
M
N
P
R
T
U
V
W
Y
AA
AB
AC
AD
AE
AF
AG
AH
AJ
AK
AL
AM
AN
AP
GPIO IR ADC UART I2C GPIO Flash
SPI
USB 2.0 CA
01 x22 x
426121018 26412 22308 20 28614
1917253 11 19 2771523513 21 29
PNX8543xEH
Transparent top view
PCI 2.2
32
34
33
31
18440_301_090303.eps
090303

Figure 8-5 Internal block diagram and pin configuration

2009-Aug-07
Page 54
EN 54 Q548.1E LA8.
IC Data Sheets

8.6 Diagram SSB: Ethernet (Pt. no. 1) B05B, DP83816 (IC7N04)

Block Diagram
TPRDP/M
25 MHz Clk
SRAM
RX-2 KB
SRAM
RXFilter
SRAM
TX-2 KB
PCI CLK
PCI CNTL
PCI AD
3V DSP Physical Layer
RAM
.5 KB
a t a d
d r x T
BIST
Logic
a t a d
a
r d d A
t a
r d d A x T
d
d r x R
r w
x
x
R
T
MAC/BIU
Pin Configuration
TPTDP/M
t g M
X R I I M
I
I M
Interface
Logic
a t a d r w x R
t g
X R I I M M I
I M
t u o a t a d t s e T
n i a
X T I I M
t a d
t s e T
MII RX MII TX MII Mgt
BIOS ROM Cntl BIOS ROM Data EEPROM/LEDs
E E / M O R
X T I
I M
B
RESERVED
RESERVED
PMEN/CLKRUNN
DP83816

Figure 8-6 Internal block diagram and pin configuration

VSS
IAUXVDD
VREF
VSS
TPRDM
TPRDP
IAUXVDD
REGEN
VSS
VSS
VSS TPTDM TPTDP
VSS
AUXVDD
VSS
AUXVDD
PCICLK
INTAN RSTN GNTN REQN
VSS
AD31 AD30 AD29
PCIVDD
AD28 AD27 AD26
37
NC
38 39 40 41 42
NC
43
NC
44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 67 68 69 70 71 72
S S V S S V
C N
6 3 5
3
3 7
5 2 D A
4 1 A M / 2
5 1 A M / 3 D X T
3 1 A M / 1 D X T
6 1
D D V X U A
D D V X U A
A M / L O C
K L C X T
N E X T
S R C
S S V C N
4
2 3
3 3
3
D X T
3 2
4 2
8 2
5
9 2
6 2
7
0 3
1
2
3
2
DP83816
1 8
8 7
7 7
6 7
5 7
4 7
3
4 2 D A
L
S S V
E
N
S D I
E B C
5 8
4 8
3 8
2 8
0 8
9 7
2 2 D A 3 2 D A
6 8
8 1 D A
9 1 D A
1 2 D A
0 2
D D V
C N
C N
D
I
A C P
0
1
2 1 A M /
1
1
7 A M / 1 D X R
9 A
8
A
A M /
8 1
1 9 0
N E M A R F
S S 1 X
V
7 1
6 1
N Y D R I
M /
V
R E X R
D X R
4 1 5 1
Identification
4 9
3 9 2 9
5 9
N L
N Y D R
D D V I C P
E S V
T
E D
E O X
R
3 1
Pin1
6 9
N P O T S
A M / 2 D X
D D V
M / 3 D
X
X R
U A
R
2 1
0 1
1 1
9 9
8 9
7 9
R A P
N R R E S
N R R
E P
D D V X U A
0
S
D X T
1 C
2
S
X
V
9 1
0 2
1 2
2 2
9 8
8 8
7 8
9
S S V
2 N
7
6
1 D A
1 D A
E B C
K L C
6 A M / 0 D
I D E E / 3
E
K L C
E / 4
O
C D M
I D
5
S S V
A
A
A
X
X
M
M
M
M
R
R
5
1
2
6 7 8
9
3
4
3 0 1
2 0 1
1 0 1
0 0 1
4 0 1
5 0 1
1 N E B C
2 1 D A
3
5 1 D A
4 1 D A
S
1 D A
S V
144 143 142 141 140 139 138 137 136 135 134 133 132 131 130 129 128 127 126 125 124 123 122 121 120 119 118 117 116 115 114 113 112 111 110 109
7
6
0 1 8 0 1
0 1
1 1 D A
0 1 D A
D D V
I C P
MA2/LED100N MA1/LED10N MA0/LEDACTN MD7 MD6 MD5 MD4/EEDO AUXVDD VSS MD3 MD2 MD1/CFGDISN MD0 MWRN MRDN MCSN EESEL RESERVED NC NC NC PWRGOOD 3VAUX AD0 AD1 AD2 AD3 PCIVDD AD4 AD5 VSS AD6 AD7 CBEN0 AD8 AD9
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IC Data Sheets

8.7 Diagram SSB: Ethernet (Pt. no. 3) B05B, LAN9420 (IC7N04)

Block Diagram
PCI Host
LAN9420/LAN9420i
EEPROM (optional)
Magnetics
EN 55Q548.1E LA 8.
To Ethernet
PCI Bus
PCI Device
PCI Device
Pin Configuration
External
25MHz Crystal
GPIOs/LEDs
(optional)

Figure 8-7 Internal block diagram and pin configuration

18561_300_090717.eps
090717
2009-Aug-07
Page 56
EN 56 Q548.1E LA8.
IC Data Sheets

8.8 Diagram SSB: Class-D B06A, TPA3123D (IC 7L10)

Block Diagram
1F
LIN
1F
1F
RIN
BYPASS
AGND
BSR
ROUT
PGNDR
PGNDL
LOUT
BSL
0.22 F
0.22 F
0.68 F
0.68 F
22 H
22 H
470 F
470 F
PVCCL
PVCCR
VCLAMP
GAIN0
GAIN1
1F
}
Control
Shutdown
Control
AVC C
SD
MUTE
Pin Configuration
PVCCL
SD
PVCCL
MUTE
LIN
RIN
BYPASS
AGND AGND
PVCCR
VCLAMP
PVCCR
TERMINAL
NAME
SD
RIN 6 I Audio input for right channel
LIN 5 I Audio input for left channel
GAIN0 18 I Gain select least-significant bit. TTL logic levels with compliance to AVCC
GAIN1 17 I Gain select most-significant bit. TTL logic levels with compliance to AVCC
MUTE 4 I
BSL 21 I/O Bootstrap I/O for left channel
PVCCL 1, 3 P Power supply for left-channel H-bridge, not internally connected to PVCCR or AVCC
LOUT 22 O Class-D 1/2-H-bridge positive output for left channel
PGNDL 23, 24 P Power ground for left-channel H-bridge
VCLAMP 11 P Internally generated voltage supply for bootstrap capacitors
BSR 16 I/O Bootstrap I/O for right channel
ROUT 15 O Class-D 1/2-H-bridge negative output for right channel
PGNDR 13, 14 P Power ground for right-channel H-bridge.
PVCCR 10, 12 P Power supply for right-channel H-bridge, not connected to PVCCL or AVCC
AGND 9 P Analog ground for digital/analog cells in core
AGND 8 P Analog ground for analog cells in core
BYPASS 7 O
AVCC 19, 20 P High-voltage analog power supply. Not internally connected to PVCCR or PVCCL
Thermal pad Die pad P
24-PIN (PWP)
I/O/P DESCRIPTION
2I
Shutdown signal for IC (low = disabled, high = operational). TTL logic levels with compliance to AVCC
Mute signal for quick disable/enable of outputs (high = outputs switch at 50% duty cycle, low = outputs enabled). TTL logic levels with compliance to AVCC
Reference for preamplifier inputs. Nominally equal to AVCC/8. Also controls start-up time via external capacitor sizing.
Connect to ground. Thermal pad should be soldered down on all applications to properly secure device to printed wiring board.
1 2 3
4 5 6 7 8 9
10 11 12
24 23 22
21 20 19 18 17 16
15 14 13
PGNDL PGNDL LOUT BSL AVC C AVC C GAIN0 GAIN1 BSR ROUT PGNDR PGNDR
18440_302_090303.eps
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2009-Aug-07

Figure 8-8 Internal block diagram and pin configuration

Page 57
IC Data Sheets

8.9 Diagram SSB: Ethernet (Pt. no. 1) B08D, PNX51xx (IC7C00)

Block Diagram
EN 57Q548.1E LA 8.
PNX51xx
LV DS RX 1
LV DS RX 2
PCI/XIO
I2C
I2C
UART
AUDIO IN
UIP L3K7
I2C-DMA
MEMORY
CONTROLLER
Video
Video
GFX
GIC 1
GIC 2
GIC 3
CPIPE L3K7
UART
16 X GPIO
EJTAG
CLOCK
TM327x 1
TM327x 2
TM327x 3
LV DS TX 1
LV DS TX 2
LV DS TX 3
LV DS TX 4
CAB
AUDIO OUT
Pin Configuration
ball A1 index area

Figure 8-9 Internal block diagram and pin configuration

AB
AD
AF
A
B
C
D
E
F
G
H
J
K
L
M
N
P
R
T
U
V
W
Y
AA
AC
AE
1 3 57911
2468 10 121314
PNX51xx
Transparent top view
18 20
15 171619
22 242526
21 23
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2009-Aug-07
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EN 58 Q548.1E LA8.
IC Data Sheets
2009-Aug-07
Page 59

9. Block Diagrams

Wiring Diagram 32" (Frame)

WIRING DIAGRAM 32"
1M83
(AL1)
1. SCL
2. SPI-DATA-IN
3. SDA
4. CONTROL-1
5. CONTROL-2
6. +3V3
7. BLANK
8. EEPROM-CS
9. TEMP-SENSOR
10. PROG
11. VLED1
12. GND
13. VLED2
14. GND
TO
BACKLIGHT
KEYBOARD CONTROL
(1114)
(FRAME / ROADRUNNER)
+ -
SUBWOOFER
8316
(5214)
Block Diagrams
DANGEROUS
HIGH VOLTAGE
CN2
1. HV1
2. N.C.
3. HV1
8319
DANGEROUS
HIGH VOLTAGE
CN3
1. HV2
2. N.C.
3. HV2
MAIN POWER SUPPLY IPB PLHL-T826B
(1005)
CN7
CN1
6. GND
1. N
5. +24V
2. L
4. GND
3. +24V
T3.15A
2. GND
1. +24V
EN 59Q548.1E LA 9.
*8M83
CN4
11. FAN_PWM
10. GND_SND
9. +VSND
8. +12V
7. +12V
6. +12V
5. GND1
4. GND1
3. GND1
2. STANDBY
1. 3V3_ST
CN5
12. GND1
11. I2C_DATA
10. I2C_SCL
9. INV_OK
8. A/P_DIM
7. BOOST
6. DIM
5. BL_ON_OFF
4. GND1
3. GND1
2. +12V
1. +12V
LCD DISPLAY
(1004)
8G51
8M20
8M95
8M99
*8M85
8G50
1G50
(B07B)
1. N.C
2. N.C ... ... ...
39. N.C
40. N.C
41. N.C
1G51
(B07B)
1. +VDISP-OUT
2. +VDISP-OUT
3. +VDISP-OUT
4. +VDISP-OUT ... ... ...
51. GND
1M20
(B03G)
8. +5V
7. KEYBOARD
6. LED1
5. +3V3-STANDBY
4. LED2
3. RC
2. GND
1. LIGHT-SENSOR
1M95
(B01B)
11. N.C
10. GNDSND
9. +AUDIO-POWER
8. +12V
7. +12V
6. +12V
5. GND
4. GND
3. GND
2. STANDBY
1. +3V3-STANDBY
1M99
(B01B)
12. GND
11. SDA-SET
10. SCL-SET
9. POWER-OK
8. GND
7. BACKLIGHT-BOOST
6. BACKLIGHT-OUT
5. LAMP-ON-OUT
4. GND
3. GND
2. +12VD
1. +12VD
1735
(B06A)
4. RIGHT-SPEAKER
3. GNDSND
2. GNDSND
1. LEFT-SPEAKER
1736
(B06A)
3. RIGHT-SPEAKER
2. GNDSND
1. LEFT-SPEAKER
1M59
(B08E)
1. SCL-AMBI-3V3
2. GND
3. SDA-AMBI-3V3
4. GND
5. GND
6. +3V3
7. GND
B
SSB
(1150)
*8M83
TO
BACKLIGHT
1M85
(AL4)
14. GND
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. BLANK-BUF
6. +3V3
5. PWM-CLOCK-BUF
4. SPI-LATCH
3. SPI-DATA-RETURN
2. SPI-DATA-OUT
1. SPI-CLOCK-BUF
(1175)
*AMBI-LIGHT MODULE
10 LED
AL
(1176)
*AMBI-LIGHT MODULE
10 LED
AL
RIGHT SPEAKER
(5213)
Board Level Repair
Component Level Repair Only For Authorized Workshop
* Only For 32PFL8404H/xx
8308
INLET
IR LED PANEL
(1112)
2009-Aug-07
1M83
(AL1)
8763
P2
3P
P1
8P
LEFT SPEAKER
(5213)
14. GND
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. GND
6. +3V3
5. CONTROL-2
4. CONTROL-1
3. SDA
2. GND
1. SCL
18560_400_090326.eps
090714
Page 60

Wiring Diagram 37" (Roadrunner)

WIRING DIAGRAM 37" (ROADRUNNER)
1M83 (AL1)
1. SCL
2. SPI-DATA-IN
3. SDA
4. CONTROL-1
5. CONTROL-2
6. +3V3
7. BLANK
8. EEPROM-CS
9. TEMP-SENSOR
10. PROG
11. VLED1
12. GND
13. VLED2
14. GND
Block Diagrams
8319
8M85
EN 60Q548.1E LA 9.
1M85 (AL4)
14. GND
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. BLANK-BUF
LCD DISPLAY (1004)
TO
BACKLIGHT
8M83
6. +3V3
5. PWM-CLOCK-BUF
4. SPI-LATCH
3. SPI-DATA-RETURN
2. SPI-DATA-OUT
1. SPI-CLOCK-BUF
BACKLIGHT
KEYBOARD CONTROL
(1114)
TO
8316
CN2
1. HV1
1G50 (B07B)
1. N.C
2. N.C ...
8G50
8G51
8M83
8M20
2. N.C.
3. HV1
CN3
1. HV2
2. N.C.
3. HV2
MAIN POWER SUPPLY IPB DPS-298CPA B
(1005)
CN7
6. GND
5. +24V
4. GND
3. +24 V
2. GND
1. +24V
CN4
11. FAN_PWM
10. GND_SND
9. +VSND
8. +12V
7. +12V
6. +12V
5. GND1
4. GND1
3. GND1
2. STANDBY
1. 3V3_ST
CN5
12. GND1
11. I2C_DATA
10. I2C_SCL
9. INV_OK
8. A/P_DIM
7. BOOST
6. DIM
5. BL_ON_OFF
4. GND1
3. GND1
2. +12V
1. +12V
8M95
8M99
FUSE
CN1
1. N
2. L
... ...
39. N.C
40. N.C
41. N.C
1G51 (B07B)
1. +VDISP-OUT
2. +VDISP-OUT
3. +VDISP-OUT
4. +VDISP-OUT ... ... ...
51. GND
1M20 (B03G)
8. +5V
7. KEYBOARD
6. LED1
5. +3V3-STANDBY
4. LED2
3. RC
2. GND
1. LIGHT-SENSOR
1M95 (B01B)
11. N.C
10. GNDSND
9. +AUDIO-POWER
8. +12V
7. +12V
6. +12V
5. GND
4. GND
3. GND
2. STANDBY
1. +3V3-STANDBY
1M99 (B01B)
12. GND
11. SDA-SET
10. SCL-SET
9. POWER-OK
8. GND
7. BACKLIGHT-BOOST
6. BACKLIGHT-OUT
5. LAMP-ON-OUT
4. GND
3. GND
2. +12VD
1. +12VD
1735 (B06A)
4. RIGHT-SPEAKER
3. GNDSND
2. GNDSND
1. LEFT-SPEAKER
1736 (B06A)
3. RIGHT-SPEAKER
2. GNDSND
1. LEFT-SPEAKER
1M59 (B08E)
1. SCL-AMBI-3V3
2. GND
3. SDA-AMBI-3V3
4. GND
5. GND
6. +3V3
7. GND
B
SSB
(1150)
(1175)
AMBI-LIGHT MODULE
10 LED
AL
(1176)
AMBI-LIGHT MODULE
10 LED
AL
RIGHT SPEAKER
(5213)
Board Level Repair
Component Level Repair Only For Authorized Workshop
8308
INLET
2009-Aug-07
IR LED PANEL
(1112)
1M83 (AL1)
14. GND
13. VLED2
12. GND
11. VLED1
8736
P2
3P
P1
8P
+ -
SUBWOOFER
(5214)
LEFT SPEAKER
(5213)
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. GND
6. +3V3
5. CONTROL-2
4. CONTROL-1
3. SDA
2. GND
1. SCL
18560_410_090331.eps
090714
Page 61

Wiring Diagram 42" (Frame/Roadrunner)

WIRING DIAGRAM 42"
1M83
(AL1)
1. SCL
2. SPI-DATA-IN
3. SDA
4. CONTROL-1
5. CONTROL-2
6. +3V3
7. BLANK
8. EEPROM-CS
9. TEMP-SENSOR
10. PROG
11. VLED1
12. GND
13. VLED2
14. GND
KEYBOARD CONTROL
(1114)
TO
BACKLIGHT
(FRAME / ROADRUNNER)
8316
CN2
1. HV1
2. N.C.
3. HV1
CN3
Block Diagrams
1. HV2
2. N.C.
3. HV2
MAIN POWER SUPPLY IPB DPS-298CP-4A
(1005)
CN7
6. GND
5. +24V
CN1
4. GND
1. N
EN 61Q548.1E LA 9.
*8M85
1M85
8319
LCD DISPLAY
(1004)
TO
BACKLIGHT
*8M83
1G50
(B07B)
1. N.C
2. N.C ...
8735
... ...
39. N.C
40. N.C
41. N.C
1G51
(B07B)
1. +VDISP-OUT
2. +VDISP-OUT
3. +VDISP-OUT
4. +VDISP-OUT ... ... ...
51. GND
1M20
(B03G)
8. +5V
7. KEYBOARD
6. LED1
5. +3V3-STANDBY
4. LED2
3. RC
2. GND
1. LIGHT-SENSOR
1M95
(B01B)
11. N.C
10. GNDSND
9. +AUDIO-POWER
8. +12V
7. +12V
6. +12V
5. GND
4. GND
3. GND
2. STANDBY
1. +3V3-STANDBY
1M99
(B01B)
12. GND
11. SDA-SET
10. SCL-SET
9. POWER-OK
8. GND
7. BACKLIGHT-BOOST
6. BACKLIGHT-OUT
5. LAMP-ON-OUT
4. GND
3. GND
2. +12VD
1. +12VD
1735
(B06A)
4. RIGHT-SPEAKER
3. GNDSND
2. GNDSND
1. LEFT-SPEAKER
1736
(B06A)
3. RIGHT-SPEAKER
2. GNDSND
1. LEFT-SPEAKER
8G50
8G51
*8M83
CN4
11. FAN_PWM
10. GND_SND
9. +VSND
8. +12V
1. +24V
7. +12V
6. +12V
5. GND1
4. GND1
3. GND1
2. STANDBY
1. 3V3_ST
CN5
12. GND1
11. I2C_DATA
10. I2C_SCL
9. INV_OK
8. A/P_DIM
7. BOOST
6. DIM
5. BL_ON_OFF
4. GND1
3. GND1
2. +12V
1. +12V
3. +24 V
2. GND
8M20
8M95
8M99
FUSE
2. L
8308
INLET
1M59
(B08E)
1. SCL-AMBI-3V3
2. GND
3. SDA-AMBI-3V3
4. GND
5. GND
6. +3V3
7. GND
B
SSB
(1150)
(AL4)
14. GND
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. BLANK-BUF
6. +3V3
5. PWM-CLOCK-BUF
4. SPI-LATCH
3. SPI-DATA-RETURN
2. SPI-DATA-OUT
1. SPI-CLOCK-BUF
(1175)
*AMBI-LIGHT MODULE
12 LED
AL
(1176)
*AMBI-LIGHT MODULE
12 LED
AL
Board Level Repair
Component Level Repair
+ -
SPEAKER RIGHT (5212) SPEAKER LEFT (5211)
Only For Authorized Workshop
* Only For AmbiLight-sets
IR LED PANEL
(1112)
2009-Aug-07
P2
3P
P1
8P
+ -
1M83
(AL1)
14. GND
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. GND
6. +3V3
5. CONTROL-2
4. CONTROL-1
3. SDA
2. GND
1. SCL
18560_412_090331.eps
090714
Page 62

Wiring Diagram 47" (Frame / Roadrunner)

WIRING DIAGRAM 47" (FRAME / ROADRUNNER)
Block Diagrams
EN 62Q548.1E LA 9.
1M83 (AL1)
1. SCL
2. SPI-DATA-IN
3. SDA
4. CONTROL-1
5. CONTROL-2
6. +3V3
7. BLANK
8. EEPROM-CS
9. TEMP-SENSOR
10. PROG
11. VLED1
12. GND
13. VLED2
14. GND
*AMBI-LIGHT MODULE
1M85 (AL4)
1. SPI-CLOCK-BUF
2. SPI-DATA-OUT
3. SPI-DATA-RETURN
4. SPI-LATCH
5. PWM-CLOCK-BUF
6. +3V3
7. BLANK-BU
8. EEPROM-CS
9. TEMP-SENSOR
10. PROG
11. VLED1
12. GND
13. VLED2
14. GND
KEYBOARD CONTROL
(1114)
1M83 (AL1)
1. SCL
2. SPI-DATA-IN
3. SDA
4. CONTROL-1
5. CONTROL-2
6. +3V3
7. BLANK
8. EEPROM-CS
9. TEMP-SENSOR
10. PROG
11. VLED1
12. GND
13. VLED2
14. GND
*AMBI-LIGHT MODULE
(1178)
8 LED
AL
(1177)
6 LED
AL
TO
BACKLIGHT
*8M82
8316
CN2
1. HV1
1M85 (AL4)
14. GND
*8M85
8319
LCD DISPLAY (1004)
TO
BACKLIGHT
*8M59
1G50 (B07B)
1. N.C
2. N.C ...
8G50
8G51
*8M90
CN4
11. FAN_PWM
4. GND
3. +24V
FUSE
2. GND
1. +24V
10. GND_SND
9. +VSND
8. +12V
7. +12V
6. +12V
5. GND1
4. GND1
3. GND1
2. STANDBY
1. 3V3_ST
CN5
12. GND1
11. I2C_DATA
10. I2C_SCL
9. INV_OK
8. A/P_DIM
7. BOOST
6. DIM
5. BL_ON_OFF
4. GND1
3. GND1
2. +12V
1. +12V
8308
8M95
8M99
INLET
6. GND
5. +24V
4. GND
3. +24V
2. GND
1M90 (AB1)
*DC-DC
AB
INTERFACE
1M84 (AB1)
14. GND
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. BLANK-BUF
6. +3V3
5. PWM-CLOCK-BUF
4. SPI-LATCH1CONN
3. SPI-DATA-RETURN
2. SPI-CLOCK-BUF
1. SPI-LATCH2CONN
1. +24V
1M59 (AB1)
7. GND
6. +3V3
5. CONTROL2
4. CONTROL1
3. SDA
2. GND
1. SCL
(1179)
CN7
6. GND
CN3
1. HV2
2. N.C.
2. N.C.
3. HV1
3. HV2
5. +24V
MAIN POWER SUPPLY IPB DPS-298CP-2A
(1005)
CN1
1. N
2. L
... ...
39. N.C
40. N.C
41. N.C
1G51 (B07B)
1. +VDISP-OUT
2. +VDISP-OUT
3. +VDISP-OUT
4. +VDISP-OUT ... ... ...
51. GND
1M20 (B03G)
8. +5V
7. KEYBOARD
6. LED1
5. +3V3-STANDBY
4. LED2
3. RC
2. GND
1. LIGHT-SENSOR
1M95 (B01B)
11. N.C
10. GNDSND
9. +AUDIO-POWER
8. +12V
7. +12V
6. +12V
5. GND
4. GND
3. GND
2. STANDBY
1. +3V3-STANDBY
1M99 (B01B)
12. GND
11. SDA-SET
10. SCL-SET
9. POWER-OK
8. GND
7. BACKLIGHT-BOOST
6. BACKLIGHT-OUT
5. LAMP-ON-OUT
4. GND
3. GND
2. +12VD
1. +12VD
1735 (B06A)
4. RIGHT-SPEAKER
3. GNDSND
2. GNDSND
1. LEFT-SPEAKER
1736 (B06A)
3. RIGHT-SPEAKER
2. GNDSND
1. LEFT-SPEAKER
8735
1M59 (B08E)
1. SCL-AMBI-3V3
2. GND
3. SDA-AMBI-3V3
4. GND
5. GND
6. +3V3
7. GND
SSB
B
(1150)
*8M84
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. BLANK-BUF
6. +3V3
5. PWM-CLOCK-BUF
4. SPI-LATCH
3. SPI-DATA-RETURN
2. SPI-DATA-OUT
1. SPI-CLOCK-BUF
(1178)
*AMBI-LIGHT MODULE
8 LED
AL
1M83 (AL1)
14. GND
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. BLANK
6. +3V3
5. CONTROL-2
4. CONTROL-1
3. SDA
2. SPI-DATA-IN
1. SCL
*8M81
1M84 (AL1)
14. GND
13. VLED2
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. BLANK-BUF
6. +3V3
5. PWM-CLOCK-BUF
4. SPI-LATCH
3. SPI-DATA-RETURN
2. SPI-DATA-OUT
1. SPI-CLOCK-BUF
(1177)
*AMBI-LIGHT MODULE
6 LED
AL
1M84 (AL1)
1. SPI-CLOCK-BUF
2. SPI-DATA-OUT
3. SPI-DATA-RETURN
4. SPI-LATCH
5. PWM-CLOCK-BUF
6. +3V3
7. BLANK-BUF
8. EEPROM-CS
9. TEMP-SENSOR
10. PROG
11. VLED1
12. GND
13. VLED2
14. GND
SPEAKER RIGHT
(5212)
+ -
Component Level Repair Only For Authorized Workshop
* Only For 47PFL8404H/12
IR LED PANEL
(1112)
2009-Aug-07
1M83 (AL1)
14. GND
13. VLED2
8M20
P2
3P
P1
8P
+ -
SPEAKER LEFT
(5211)
12. GND
11. VLED1
10. PROG
9. TEMP-SENSOR
8. EEPROM-CS
7. BLANK
6. +3V3
5. CONTROL-2
4. CONTROL-1
3. SDA
2. SPI-DATA-IN
1. SCL
18560_411_090331.eps
090714
Page 63

Wiring Diagram 52" (Frame)

WIRING DIAGRAM 52"
Board Level Repair
(FRAME)
Block Diagrams
EN 63Q548.1E LA 9.
Component Level Repair Only For Authorized Workshop
INVERTER
KEYBOARD CONTROL
(1114)
INVERTER
INVERTER
CONNECTOR
CONNECTOR
8316
8319
CN2/1319
14. PDIM_Select
13. PWM
12. On/Off
11. Vbri
10. GND3
9. GND3
8. GND3
7. GND3
6. GND3
5. 24Vinv
4. 24Vinv
3. 24Vinv
2. 24Vinv
1. 24Vinv
CN3/1316
12. N.C.
11. N.C.
10. GND3
9. GND3
8. GND3
7. GND3
6. GND3
5. 24Vinv
4. 24Vinv
3. 24Vinv
2. 24Vinv
1. 24Vinv
MAIN POWER SUPPLY PSU DPS-411AP3A B
(1005)
CN1/1308
1. N
CN6/1M95
11. FAN_PWM
10. GND_SND
9. +VSND
8. +12 V
7. +12V
6. +12V
5. GND1
4. GND1
3. GND1
2. STANDBY
1. 3V3_ST
CN7/1M99
12. GND1
11. I2C_DATA
10. I2C_SCL
9. INV_OK
8. A/P_DIM
7. BOOST
6. DIM
5. BL_ON_OFF
4. GND1
3. GND1
2. +12V
1. +12V
FUSE
2. L
LCD DISPLAY
8308
INLET
(1004)
8G50
8G51
8M20
8M95
8M99
1G50
(B07B)
1. N.C
2. N.C ... ... ...
39. N.C
40. N.C
41. N.C
1G51
(B07B)
1. +VDISP-OUT
2. +VDISP-OUT
3. +VDISP-OUT
4. +VDISP-OUT ... ... ...
51. GND
1M20
(B03G)
8. +5V
7. KEYBOARD
6. LED1
5. +3V3-STANDBY
4. LED2
3. RC
2. GND
1. LIGHT-SENSOR
1M95
(B01B)
11. N.C
10. GNDSND
9. +AUDIO-POWER
8. +12V
7. +12V
6. +12V
5. GND
4. GND
3. GND
2. STANDBY
1. +3V3-STANDBY
1M99
(B01B)
12. GND
11. SDA-SET
10. SCL-SET
9. POWER-OK
8. GND
7. BACKLIGHT-BOOST
6. BACKLIGHT-OUT
5. LAMP-ON-OUT
4. GND
3. GND
2. +12VD
1. +12VD
1735
(B06A)
4. RIGHT-SPEAKER
3. GNDSND
2. GNDSND
1. LEFT-SPEAKER
1736
(B06A)
3. RIGHT-SPEAKER
2. GNDSND
1. LEFT-SPEAKER
B
SSB
(1150)
+ -
IR LED PANEL
SPEAKER RIGHT (5212) SPEAKER LEFT (5211)
(1112)
P2
3P
P1
8P
2009-Aug-07
+ -
18560_402_090326.eps
090714
Page 64

Block Diagram Video

VIDEO
FRONT END
B02A
1301
B05A
HD1816AF/BHXP
MAIN HYBRID
TUNER
HDMI
1
19
HDMI SIDE
CONNECTOR
1
19
HDMI 1
CONNECTOR
1
19
HDMI 2
CONNECTOR
1
19
HDMI 3
CONNECTOR
18 2
18 2
18 2
18 2
CRX2+
CRX2-
CRX1+
CRX1-
CRX0+
CRX0-
CRXC+
CRXC-
BRX2+
BRX2-
BRX1+
BRX1-
BRX0+
BRX0-
BRXC+
BRXC-
ARX2+
ARX2-
ARX1+
ARX1-
ARX0+
ARX0-
ARXC+
ARXC-
IF-OUT1
IF-OUT2
RF-AGC
1H03
1H01
1H00
1H02
1
3
4
6
7
9 10
12
1
3
4
6
7
9 10
12
1
3
4
6
7
9 10
12
1
3
4
6
7
9 10
12
72
71
69
68
66
65
63
62
42
41
39
39
36
35
33
32
23
22
20
19
17
16
14
13
10
11
3
7H11 TDA9996
SWITCH
RXB
RXA
HDMI
4302
4303
+5V-TUNER
VDDx_1V8
VDDO_3V3
VDDx_3V3
VDDH_3V3
RXDRXC
D0_+
D0_-
D1_+
D1_-
D2_+
D2_-
3301
C_+
C_-
1303
1
2
SAW 36M125
DRX2+
DRX2-
DRX1+
DRX1-
DRX0+
DRX0-
DRXC+
DRXC-
CRX2+
CRX2-
CRX1+
CRX1-
CRX0+
CRX0-
CRXC+
CRXC-
BRX2+
BRX2-
BRX1+
BRX1-
BRX0+
BRX0-
BRXC+
BRXC-
ARX2+
ARX2-
ARX1+
ARX1-
ARX0+
ARX0-
ARXC+
ARXC-
90
89
87
86
84
83
81
80
8,45,91,24, 75,95 4
46,55
15,21,34,40, 64,70,85,88
2 3
99
100 96
97
93
94
DRX2+
DRX2-
DRX1+
DRX1-
DRX0+
DRX0-
DRXC+
DRXC-
2364
2367
2306
5
2307
4
VDD_1V8 VDDO_3V3
VDDS_3V3
VDDH_3V3
33AA3306
33AC
5311
+5V-TUNER
2365
2368
7302 UPC3221GV
AGC AMPLIFIER
1
VCC
2
3
IN
4
AGC CONTROL
+3V3A
IF-AGC
RF-AGC
ANALOG IO - SCART 1&2
B04B
1
EXT 1
EXT 2
B04C
EXT 3
7
11
15
16
20
21
SCART1
1
7
11
15
16
20
21
SCART2
YPBR / SIDE IO / S-VIDEO
10
15
5
1
6
11
VGA
CONNECTOR
1G22
PR
Y
PB
CVBS
SIDE
I/O
5
SVHS IN
Block Diagrams
B05C
3303
7
3304
6
OUT
3305
7F02 74HC4053PW
1F01
1F02
1G30
1G20
1G37
1
2
14
7F03
19
8
16
15
7
11
20
19
7
15
11
20
16
8
1
2
3
13
14
3
4
7F06
7F04
7F05
7
12
9
2
PCMCIA
CONDITIONAL
PDP
PDN
IF-N
IF-P
1304
27M
MDX
9,10,11
PCMCIA
ACCESS
7303 DRX3926K
47
PD_P
48
PD_N
39
40
49
XI
50
XO
34
IF_AGC
33
RF_AGC
16
5
1
7F01
AV2-PB_SC2-B
AV2-PR_SC2-R
AV2-BLK_LCD-SDA
FRONT-Y_CVBS
1K00
17
18
33 51
52
DEMODULATOR
+5V
CVBS-TER-OUT
Y_CVBS-MON-OUT-SC
AV1_STATUS
AV2-Y_SC2-G
H-SYNC-VGA
V-SYNC-VGA
SIF
CVBS
VDDL
VDDAL_AFE
REGIMBEAU_CVBS-SWITCH
AV1_ BLK
SC1-R
SC1-B
SC1-G
CVBS1
CVBS2
AV2-STATUS
R-VGA
G-VGA
B-VGA
AV3- PR
AV3-Y
AV3-PB
FRONT-C
RXC+
RXC-
RX0+
RX0-
RX1+
RX1-
RX2+
RX2-
68P
44
43
8,18,26,53
2,16,27,56 37
42
52
36,46
MDO(0-7)
3311
3348
7K04-7K05 74LVC245APW
BUFFER
CA-MDI(0-7)
PCMCIA-VCC-VPP
FE-DATA(0-7)
7345
4314
4315
+3V3BVDDH
+1V2 +3V3AVDDAH_AFE1
+3V3EVDDAH_CVBS
+3V3DVDDAH_OSC
+1V2A
7F07-7F08
B03H
CONTROL
B03H
CONTROL
B03H
B03H
CONTROL
B03H
CONTROL
20
CA-MDO(0-7)
CVBS
CVBS-TER-OUT
Y-CVBS-MON-OUT
RREF-PNX85XX
EN 64Q548.1E LA 9.
PNX8543
B03
+3V3
SIF
7600 PNX85433EH/M2A
B03B
CA_MD0
CA_MDI
TNR_TSDI
B03E
F2
AI51
H3
AI44
TUN_CA
ANALOG VIDEO
B03B
LVD S
LOUT2_A_P LOUT2_A_N LOUT2_B_P LOUT2_B_N LOUT2_C_P
LOUT2_C_N
LOUT2_D_P
LOUT2_D_N
LOUT2_E_P
LOUT2_E_N LOUT2_CLK_P LOUT2_CLK_N
IREF_LVDS
A_P A_N B_P B_N C_P C_N D_P D_N E_P
E_N CLK_P CLK_N
AP18 AN18 AL18 AK18 AP19 AN19 AP20 AN20 AM20 AL20 AM19 AL19
AP22 AN22 AL22 AK22 AP23 AN23 AP24 AN24 AM24 AL24 AM23 AL23
AK19
RX51001A+
RX51001A-
RX51001B+
RX51001B-
RX51001C+
RX51001C-
RX51001D+
RX51001D-
RX51001E+
RX51001E-
RX51001CLK+
RX51001CLK-
RX51002A+
RX51002A-
RX51002B+
RX51002B-
RX51002C+
RX5100C-
RX51002D+
RX51002D-
RX51002E+
RX51002E-
RX51002CLK+
RX51002CLK-
VDDA-LVDS
PNX8543
H264
A3
3H64
CVBS1Y_P
J2
AI32
L2
AI22
N2
AI12
G4
AI41
L3
AI23
J3
AI33
N3
AI13
H1
AI42
K4
PC3_AI3
P4
PC1_AI3
M4
PC2_AI3
T1
HSYNCIN
T2
VSYNCIN
K1
PC3_AI1
P1
PC1_AI1
M1
PC2_AI1
H2
AI43
G1
AI54
B05A
A14
HDMI_RXC_B_N
A15
HDMI_RXC_B_P
B13
HDMI_RX0_B_N
B14
HDMI_RX0_B_P
A12
HDMI_RX1_B_N
A13
HDMI_RX1_B_P
B11
HDMI_RX2_B_N
B12
HDMI_RX2_B_P
C16
HDMI_RREF
HDMI_DV
USB 2.0
VDD
B03A
VDDA_3V3_AADC
VDDA_3V3_ADAC
VDD_3V3_LVDS
VDDA_HDMI_3V3_BIAS
VDD_3V3_SBPER
VDD_1V2_CORE
VDD_1V2_SBCORE
VDD_3V3_PER
VDD_1V8_DDR
CONROL
B03G
USB_FAULT
USB_DM USB_DP
USB_RPU
USB_VBUS
PCI
B03G
MEMORY
B03F
M_IREF
M_VREF
M_DQ
PCI
M_A
AJ6
AK12
AK20
F16
AC6
AJ12
AF5
AJ21
AG30
B03G
AL16
AN16
AP16
3M21
AM17
3M23
AN17
PCI-AD<->NAND-AD
B03F
3B03
AA31 AB32
DDR2-D(0-15)
DDR2-A(0-12)
VDDA-DAC
VDDA-ADC
VDDA-LVDS
RREF-PNX85XX
+3V3-STANDBY
+1V2-PNX85XX
1V2-STANDBY
+3V3-PER
1V8-PMNX85XX
PNX8543 - CONTROL MIPS/FLASH/PCI
+5V
USB-OC
3M31
+3V3-PER
+3V3-PER
PNX8543 - SDRAM
+1V8-PNX85XX DDR2-VREF-CTRL
(0-12)
(16-31)
PNX5100 - LVDS IN/OUT
B08D
7C00 PNX5100EH/M2
B08D
AE20
AF20 AC20 AD20 AC19 AD19 AE19
AF19 AE18
PNX5100
AF18 AC18 AD18
AE17
AF17
FHD 100Hz
AC17 AD17 AC16 AD16 AE16
AF16 AE15
AF15 AC15 AD15
+T
7M00 NAND01GW3B2BN6F
NAND
FLASH
1G
12,37
VCC
7B01 EDE1116AEBG
SDRAM
J1
VDDL
J2
7B00 EDE1116AEBG
SDRAM
J1
VDDL
J2
VREF
LVD S RX
HD-NM
USB20-DM
USB20-DP
+3V3-NAND
+1V8-PNX85XX DDR2-VREF-DDRVREF
+1V8-PNX85XX DDR2-VREF-DDR
B08D
B08A
SUPPLY
B08B
LVD S TX
DDR2
VREF
1M09
D
A
1
2 3
4
B07B
E17
+3V3
E14
+3V3
AB20
+3V3
AA5
+1V2-PNX5100
L16
+1V8-PNX5100
P22
+1V2-PNX5100-DDR-PLL1
AB18
+3V3-PNX5100-LVDS-IN
J5
+1V2-PNX-TRI-PLL1
L5
+1V2-PNX-TRI-PLL2
T5
+1V2-PNX-TRI-PLL3
M22
+1V2-PNX5100-DLL
AE25
+3V3-PNX5100-DDR-PLL0
E15
+1V2-PNX5100-LVDS-PLL
B15
+3V3-PNX5100-LVDS-PLL
AE14
+1V2-PNX5100-CLOCK
AD14
+3V3-PNX5100-CLOCK
B08B
P24
PNX5100-DDR2-VREF-CTRL
PNX5100-DDR2-D(0-15)
PNX5100-DDR2-A(0-12)
CONNECTOR SIDE
SW UPLOAD
4321
DISPLAY INTERFACE
TX1
TX2
QUAD LVDS
1920x1080 100/120HZ
TX3
TX4
+VDISP-OUT
I2C
N.C.
I2C
PNX5100 - SDRAM
7C01 EDE5116AJBG
(0-12)
(16-31)
USB 2.0
JPEG
MP3
DDR2
SDRAM
VDDL VREF
7C02 EDE5116AJBG
DDR2
SDRAM
VDDL VREF
1G50
1
2
3
TO DISPLAY
1080p 50/60Hz
37
38
39
40
41
1G51
51
50
49
40
TO DISPLAY
11
1080p 100/120Hz
5
4
3
2
1
J1
+1V8-PNX5100
J2
PNX5100-DDR2-VREF-DDR
J1
+1V8-PNX5100
J2
PNX5100-DDR2-VREF-DDR
18560_403_090326.eps
090326
2009-Aug-07
Page 65

Block Diagram Audio

AUDIO
FRONT END
B02A
1301
B05A
HD1816AF/BHXP
MAIN HYBRID
TUNER
HDMI
1
19
HDMI SIDE
CONNECTOR
1
19
HDMI 1
CONNECTOR
1
19
HDMI 2
CONNECTOR
1
19
HDMI 3
CONNECTOR
18 2
18 2
18 2
18 2
CRX2+
CRX2-
CRX1+
CRX1-
CRX0+
CRX0-
CRXC+
CRXC-
BRX2+
BRX2-
BRX1+
BRX1-
BRX0+
BRX0-
BRXC+
BRXC-
ARX2+
ARX2-
ARX1+
ARX1-
ARX0+
ARX0-
ARXC+
ARXC-
IF-OUT1
IF-OUT2
RF-AGC
1H03
1
3
4
6
7
9 10
12
1H01
1
3
4
6
7
9 10
12
1H00
1
3
4
6
7
9 10
12
1H02
1
3
4
6
7
9 10
12
RES FOR /32
72
71
69
68
66
65
63
62
42
41
39
39
36
35
33
32
23
22
20
19
17
16
14
13
10
11
3
7H11 TDA9996
SWITCH
RXB
RXA
HDMI
4302
4303
+3V3A
RXDRXC
VDDx_1V8
VDDO_3V3
VDDx_3V3
VDDH_3V3
D0_+
D0_-
D1_+
D1_-
D2_+
D2_-
3305
C_+
C_-
1303
1
2
SAW 36M125
DRX2+
DRX2-
DRX1+
DRX1-
DRX0+
DRX0-
DRXC+
DRXC-
CRX2+
CRX2-
CRX1+
CRX1-
CRX0+
CRX0-
CRXC+
CRXC-
BRX2+
BRX2-
BRX1+
BRX1-
BRX0+
BRX0-
BRXC+
BRXC-
ARX2+
ARX2-
ARX1+
ARX1-
ARX0+
ARX0-
ARXC+
ARXC-
90
89
87
86
84
83
81
80
8,45,91,24, 75,95 4
46,55
15,21,34,40, 64,70,85,88
2 3
99
100 96
97
93
94
DRX2+
DRX2-
DRX1+
DRX1-
DRX0+
DRX0-
DRXC+
DRXC-
2364
2367
2306
5
2307
4
VDD_1V8 VDDO_3V3
VDDS_3V3
VDDH_3V3
5311
2365
33AA3306
2368
33AC
7302 UPC3221GV
+5V-TUN
AGC AMPLIFIER
1
VCC
2
3
IN
4
AGC CONTROL
IF-AGC
RF-AGC
ANALOG - SCART 1&2
B04B
EXT 1
EXT 2
YPBR / SIDE IO / S-VIDEO
B04C
DIGITAL
AUDIO
AUDIO OUT
AUDIO IN
EXT 3
AUDIO IN
SIDE
I/O
AUDIO IN
DVI -> HDMI
16
20
SCART1
16
20
SCART2
OUT
L+R
L+R
L+R
Block Diagrams
PCMCIA
B05C
PCMCIA
CONDITIONAL
ACCESS
7303 DRX3926K
47
PDP
PDN
3303
7
6
OUT
+3V3A
3305
1F01
3
1
1
7
11
6
15
2
21
1F02
1
3
7
1
11
6
15
2
21
1G25
1G22
1G20
1G18
3304
2
4
6
5
3
5
8
2
3
1
IF-N
IF-P
1304
27M
AP-SCART-OUT-L
AP-SCART-OUT-R
AP-SCART-OUT-L
AP-SCART-OUT-R
AUDIO-IN2-L
AUDIO-IN2-R
AUDIO-OUT-L
AUDIO-OUT-R
AUDIO-IN3-L
AUDIO-IN3-R
AUDIO-IN5-L
AUDIO-IN5-R
HDMIB-RXC+
HDMIB-RXC-
HDMIB-RX0+
HDMIB-RX0-
HDMIB-RX1+
HDMIB-RX1-
HDMIB-RX2+
HDMIB-RX2-
48
39
40
49
50
34
33
PD_P
PD_N
XI
XO
IF_AGC
RF_AGC
1K00
DEMODULATOR
CVBS
3F00
3F02
7F00
A-PLOP
7G01
EF
7G00
A-PLOP
17
18
33 51
52
SIF
68P
MDO(0-7)
3311
44
3348
43
8,18,26,53
2,16,27,56 37
42
52
36,46
AUDIO-CL-L
AUDIO-CL-R
A-PLOP
A-PLOP
7K04-7K05 74LVC245APW
BUFFER
CA-MDI(0-7)
PCMCIA-VCC-VPP
FE-DATA(0-7)
7345
4314
+3V3BVDDH
+1V2VDDL +3V3AVDDAH_AFE1
+3V3EVDDAH_CVBS
+3V3DVDDAH_OSC
+1V2AVDDAL_AFE
B03C
7803-1/2
173
AUDIO-IN1-L
AUDIO-IN1-R
B03C
7803-3/4
8
14
B03C
AUDIO-IN4-L
AUDIO-IN4-R
20
+3V3
CA-MDO(0-7)
SIF
CVBS
PNX8543 - AUDIO AMPLIFIER
ADAC(7)
ADAC(8)
5
SPDIF-OUT-1
ADAC(5)
10
ADAC(6)
12
RREF-PNX85XX
3H64
B03
7H00 PNX85439EH/M2
B03B
B03E
F2
H3
B03D
AL9
AL8
AN7
AP7
AK6
AL6
V1
AN11
AP10
AM6
AN6
AN5
AP5
AP6
AM5
B04H
A14
A15 B13
B14 A12
A13
B11
B12
C16
EN 65Q548.1E LA 9.
PNX8543
TUNER_CA
CA_MD0
CA_MDI
TNR_TSDI
ANALOG VIDEO
AI51
AI44
AUDIO
ADAC7
ADAC8
AIN_1_L
AIN_1_R
AIN_2_L
AIN_2_R
SPDIF_OUT
ADAC5
ADAC6
AIN_3_L
AIN_3_R
AIN_5_L
AIN_5_R
AIN_4_L
AIN_4_R
DIGITAL VIDEO IN
HDMI_RXC_B_N
HDMI_RXC_B_P HDMI_RX0_B_N
HDMI_RX0_B_P HDMI_RX1_B_N
HDMI_RX1_B_P
HDMI_RX2_B_N
HDMI_RX2_B_P
HDMI_RREF
PNX8543
H264
USB 2.0
B03D
B03G
B03G
B03F
AUDIO
VREF_POS
VDDA_3V3_DAC
STANDBY
B03H
CONROL
USB_FAULT
USB_DM
USB_DP
USB_RPU
USB_VBUS
PCI
MEMORY
M_IREF
M_VREF
AADC
ADAC1
ADAC2
PO_7
PO_6
ADAC3
ADAC4
PCI
M_DQ
M_A
5902
AN8
5900
AM9
AK9
AN14
AP13
AC5
AD1
AM12
AM11
AL16
AN16
AP16
3M21
AM17
3M23
AN17
PCI-AD24<->NAND-AD
3B03
AA31 AB32
DDR2-D(0-15)
DDR2-A(0-12)
CLASS-D
B06A
VDDA-AUDIO
VDDA-DAC
ADAC(1)
ADAC(2)
AUDIO-MUTE
PNX8543 - AUDIO AMPLIFIER
B03C
AUDIO-RESET
ADAC(3)
ADAC(4)
PNX8543 - CONTROL MIPS/FLASH/PCI
B03G
+5V
3M31
USB-OC
+3V3-PER
+3V3-PER
B03F
+1V8-PNX85XX DDR2-VREF-CTRL
(0-12)
+T
7M00 NAND01GW3B2BN6F
NAND
FLASH
1G
12,37
PNX8543 - SDRAM
7B01 EDE1116AEBG
SDRAM
J1 J2
7B00 EDE1116AEBG
USB20-DM
USB20-DP
SDRAM
(16-31)
J1 J2
A-STBY
3L17
7807-1 7807-2
+3V3-NAND
+1V8-PNX85XX DDR2-VREF-DDR
+1V8-PNX85XX DDR2-VREF-DDR
MUTE
A-STBY
AUDIO-RESET
1M09
1
2 3
4
5
6
2
4
5
2
6
CONNECTOR SIDE
4321
7L10 TPA3123D2PWP
PVCC_L
PVCC_R
OUT-L
IN-L
CLASS D
POWER
AMPLIFIER
IN-R
OUT-R
SD
MUTE
A-PLOP
7830 TPA6111A2DGN
HEADPHONE
AMPLIFIER
SHUTDOWN
IN-1
IN-2
USB 2.0
SW UPLOAD
JPEG
MP3
VO_1
VO_2
VDD
B04B
B04C
1,3
10,12
22
15
1
7
8
5L07
5L08
7L03
STANDBY &
PROTECTION
+3V3
+AUDIO-POWER
LEFT-SPEAKER
RIGHT-SPEAKER
YPBR / SIDE IO / S-VIDEO
B04C
HP_LOUT
HP_ROUT
1G21
2
3
1
5L09
5L10
1735
1
2
SPEAKER L
3
4
SPEAKER R
1736
1
2
3
SUBWOOFER
(OPTIONAL)
HEADPHONE
OUT 3.5mm
18540_404_090311.eps
090326
2009-Aug-07
Page 66

Block Diagram Control & Clock Signals

CONTROL + CLOCK SIGNALS
B05B
ETHERNET
ETHERNET
CONNECTOR
PCI-CLK-ETHERNET
B03G
RESET-ETHERNET
B03H
ETHERNET
CONNECTOR
PCI-CLK-ETHERNET
B03G
RESET-ETHERNET
B03H
OPTIONAL
B08
PNX5100
7C00 PNX5100EH/M2
CONTROL
B08C
PNX5100
PCI_XIO
B08C
DDR2
B08B
GPIO
B08C
B07B
DISPLAY INTERFACE
3P24
1N00
1N00
BACKLIGHT-IN BACKLIGHT-OUT
7N04 DP83816AVNGNOPB
ETHERNET
CONTROLLER
60
62
7N04 LAN9420
ETHERNET
CONTROLLER
16
15
AF24
AE13
27M
1CD0
AF13
L3
B08B
PNX5100-DDR2-D(0-31)
DDR2-A(0-12)
PNX5100-DDR2-CLK_P
P26
PNX5100-DDR2-CLK_N
P25
B23
B07A
DISPLAY INTERFACE (COMMON)
CONTROL
17
25M
1N02
18
61
IRQ-PCI
SSB_31391236443.1
120
25M
1N02
119
14
IRQ-PCI
SSB_31391236443.3
RESET-PNX5100
PCI-CLK-PNX5100
PNX5100 - SDRAM
J8
K8
PNX5100-BL-CTRL
PCI-AD(0-31)
PCI-AD(0-31)
B03H
B03G
7C01 EDE5116AJBG
7C02
EDE5116AJBG
SDRAM
B01B
Block Diagrams
B02A
FRONT END
B03G
B05C
PCMCIA
PCMCIA
CONDITIONAL
ACCESS
B03G
PNX8543 - CONTROL MIPS/FLASH/PCI
WP-NANDFLASH
B03H
PNX8543 - STANDBY-CONTROL / DEBUG
B05A
HDMI
1K00
1
COMMON INTERFACE
68
7M00 NAND01GW3B2BN6F
19
USB 2.0
CONNECTOR
SIDE
TO IR/LED PANEL
AND KEYBOARD CONTROL
1
2
18
19
4x HDMI
CONNECTOR
FLASH
4 3 21
TO PIN:
1H02-13 1H00-13 1H01-13 1H03-13
1H02-15 1H00-15
1H01-15 1H03-15
RESET-SYSTEM
CA-MDI(0-7)
PCMCIA-D(0-7)
PCMCIA-A(0-14)
NAND
(1G)
1M09
1
2
3
4
1M20
1
2
3
4
5
6
7
8
ARX-DDC-CLK BRX-DDC-CLK
CRX-DDC-CLK
DRX-DDC-CLK
7303 DRX3926K-XK-A3
49
DEMODULATOR
27M
1304
50
32
MOCLKA
MDO(0-7) CA-MDO(0-7)
IRQ-CA
IRQ-PCI
NAND-AD(0-7) <-- PCI-AD(24-31)
7
9
7K04-7K05
7K03
PCI-AD(24-31)
7K00 7K01
9 10 5
CA-MICLK
CA-DATADIR CA-DATAEN
CA-ADDEN
PCI-AD(0-14)
B03H
RC
LED2
+3V3-STAN D B Y
+5V
CEC
7M81
DETECT-12V
B01B
B01A
B03G
B04B
B04B
B04B
B04B
+3V3-STAN D B Y
7D05 NCP303LSN30G
2
INP
3
GND
7H09
CONTROL
7H11 TDA9996
57
SWITCH
12 31
61
79
OUTP
HDMI
LED1
1
EN 66Q548.1E LA 9.
FE-DATA(0-7)
FE-CLK
FE-VALID
FE-SOP
CA-MOCLK_VS2
PCI-AD(0-31)PCI-AD(0-31) PCI-AD(0-31)
XIO-ACK
XIO-SEL-NAND
IRQ-CA
IRQ-PC1
USB-OC
USB20-DM
USB20-DP
LIGHT-SENSOR
4D00
RC_uP
KEYBOARD
4D09
DETECT2
DETECT1
RESET-SYSTEM
AV1- BLK
AV2-BLK_LCD-SDA
AV1- STATU S
AV2- STATU S
RESET-STBY
CEC-HDMI
B03
PNX8543
7600 PNX85433EH/M2A/
TUN_CA
B03B
TNR_TSDI
B10
TNR_MICLK
C10
TNR_MIVAL
B9
TNR_MISTRT
H32
CA_MICLK
CA_MDI
A34
CA_VSN_0
H31
CA_MOCLK
CA_MDO
D31
CA_DATA_DIR
A31
CA_DATA_EN
B31
CA_ADD_EN
J34
CA_RDY
B03G
PCI_AD
A20
XIO_ACK
B20
XIO_SEL_0
B03G
L34
GPIO_3
U4
GPIO_2
AL16
USB_FAULT
AN16
USB_DM
AP16
USB_DP
B03H
AD2
P0_5
AN2
CADC_1
AF2
P1_0
AJ2
PWM_1
AJ3
PWM_0
AN3
CADC_0
AD3
P2_5
AD4
P2_4
AH3
P3_3
AH1
P3_5
AH2
P
3_4
AP2
CADC_2
AP1
CADC_3
AF3
RESET_IN
AG4
P1_2
B05A
RX
HDMI_RX
PNX8543
PCI
CONTROL
STANDBY
HDMI_DV
LOUT2_CLK_N
LOUT2_CLK_P
CLK_N
CLK_P
MEMORY
B03F
M_DQ
M_CLK_P
M_CLK_N
PLL_OUT
TRDY_CLK
RESET_SYS
GPIO_2
GPIO_6
GPIO_4
GPIO_5
UA_RX_0
UA_TX_1
XTAL_I
XTAL_O
SPI_CLK
SPI_CSB SPI_SDO
SPI_SDI
M_A
P1_7
P6_4
P0_1
P6_5
P2_2
P2_7
P1_1
P2_6
P0_6
P0_7
P2_3
AL23
AM23
AL19
AM19
AB34
AB33
AP28
A30
AN28
U3
V2
L32
L31
AG1
AH5
AG2
AK2
AC1
W1
W2
AJ1
AK4
AK3 AJ4
AK1
AE1
AE4
AF1
AE5
AD1
AC5
AD5
B8D
PNX5100 - LVDS IN/OUT
7C00 PNX5100EH/M2
DDR2
B08B
PNX5100
RX51002CLK-
RX51002CLK+
RX51001CLK-
RX51001CLK+
B03F
PNX8543 - SDRAM
DDR2-D(0-31)(0-15)
DDR2-A(0-12)
DDR2-CLK_P
DDR2-CLK_N
B03G
PNX8543 - CONTROL MIPS/FLASH/PCI
PCI-CLK-OUT
PCI-CLK-PNX8543
WC-EEPROM-PNX5100_SPI-DI
PNX8543-LCD-PWR-ON_SPI-DI
B03H
PNX8543 - STANDBY-CONTROL / DEBUG
SDM
SPI-PROG
27M
1D00
SPI-SDI
REGIMBEAU_CVBS-SWITCH
AE16
AD16
AD19
AC19
7B00 EDE1116AEBG
7B01
EDE1116AEBG
J8
K8
3M30
PCI-CLK-PNX5100
3M46
RESET-SYSTEM
RXD-MIPS
TXD-MIPS
RXD-UP
TXD-UP
RESET-NVM
SPI-CLK
SPI-WP
SPI-CSB SPI-SDO
LAMP-ON-OUT
ENABLE-3V3
POWER-OK
AUDIO-RESET
AUDIO-MUTE
STANDBY
SDRAM
7D07
B02A
B04C
B07B
B01A
B04B
B03C
B06A
E18
E19
E20
E21
E10
E11
E12
E13
B08C
B03H
SPI-PROG
7D06 M24C64-WDW6P
8
7D09 M25P05-AVMN6P
6
3
1 5
2
B01B
2D08
SDM
2D07
EEPROM
(8Kx8)
512K
FLASH
B07B
DISPLAY INTERFACE
1G50
1M04
2
3
1
25
24
1G51
33
32
17
16
1M01
RES
1M99
1M95
TX1CLK-
TX1CLK+
TX2CLK-
TX2CLK+
TX3CLK-
TX3CLK+
TX4CLK-
TX4CLK+
B01B
DC / DC +3V3-STANDBY_+1V2-STANDBY
BACKLIGHT-OUT
B07A
BACKLIGHT-BOOST
N.C.
9
DISPLAY
8
DISPLAY
UART
SERVICE
CONNECTOR
3
1
FOR
FACTORY USE
2
ONLY
4
5
TO
6
POWER SUPPLY
7
9
TO
2
POWER SUPPLY
18560_405_090326.eps
TO
TO
090728
2009-Aug-07
Page 67

Block Diagram I2C

I²C
PNX8543 - CONTROL MIPS/FLASH/PCI
B03G
7600 PNX85433EH/M2A
G32
SDA 3
D33
SCL 3
PNX8543
B03F
MEMORY
M_DQ
M_A
B05A
HDMI_DV
DDC_SDA_B
DDC_SCL_B
B03G
D15
C15
PCI
PCI_AD
SDA3
SCL3
ERR
13
DDR2-D
DDR2-A
PCI-AD
SSB BUS
400 kHz
PNX8543 - SDRAM
B03F
7B01 EDE1116AEBG
7B00 EDE1116AEBG
PNX8543 - CONTROL
B03G
MIPS/FLASH/PCI
7M00 NAND01GW3B2
3M19
3M18
SDRAM
FLASH
1G
+3V3-PER
3M27
DDC-SDA
DDC-SCL
3M26
B05A
3H01
+5V
Block Diagrams
HDMI
3H66
49 50
TDA9996
3H02
6
5
7H11
HDMI
MUX
ERR
23
3H65
EN 67Q548.1E LA 9.
FRONT END
B02A
SDA-SSB
SCL-SSB
ARX-5V
3H08
3H07
3H09
3H13
3H11
ARX-DDC-DAT
ARX-DDC-CLK
BRX-DDC-DAT
BRX-DDC-CLK
CRX-DDC-DAT
CRX-DDC-CLK
DRX-DDC-DAT
DRX-DDC-CLK
11
12
BRX-5V
3H10
30
31
CRX-5V
3H14
60
61
DRX-5V
3H12
78
79
1H02
16
15
CONNECTOR 3
1H00
16
15
CONNECTOR 2
1H01
16
15
CONNECTOR 1
1H03
16
15
HDMI
HDMI
HDMI
HDMI
CONNECTOR
SIDE
3399
3398
24 23
7303
DRX3926K-XK
DEMODULATOR
MICRONAS
ERR
27
+3V3B
3388
61
62
3365
TUNER BUS
400 kHz
SDA-TUNER
SCL-TUNER
3317
3316
76
1301
HD1816AF
MAIN
TUNER
ERR
34
PNX5100 - CONTROL / PCI / DEBUG
B08C
3CDD
3CDC
56
7CD0
M24C08
EEPROM
ERR
25
3CD8
3CD9
K1 K2
7C00
PNX5100EH
PNX5100
ERR15ERR
21
B08E
3CDA
L1
L2
3388
3CD9
B08B
PNX5100-DDR2-D(0-31)
PNX5100-DDR2-A(0-12)
PNX5100 - AMBILIGHT
+3V3
AMBILIGHT BUS
3365
SDA-AMBI-3V3
SCL-AMBI-3V3
5CE5
+3V3
PNX5100 - SDRAM
7C01 EDE5116AJBG
7C02 EDE5116AJBG
SDRAM
30 kHz
1CE2
T1.0A
1M59
3
1
2
4
5
7
6
TO AMBILIGHT
(OPTIONAL)
B03H
STANDBY
ERR
SDA 2
SCL 2
SDA 1
SCL 1
MC_SDA
MC_SCL
PO_1
53
B33
D32
H33
F33
AK5
AL5
AC1
SDA2
SCL2
ERR
14
SDA1
SCL1
RESET-NVM
SET BUS
100 kHz
3M91
SDA-SET
3M90
SCL-SET
STANDBY BUS
400 kHz
3M15
SDA-UP-MIPS
3M14
SCL-UP-MIPS
PNX8543 - STANDBY - CONTROL / DEBUG
B03H
3D46
SDA-UP-MIPS
3D45
SCL-UP-MIPS
+3V3-PER
3D56-1
7D09 M25P05
512K
FLASH
3D56-2
7D07
56
8
M24C64
EEPROM
(NVM)
7D06
+3V3-PER
3M93
3M92
+3V3-PER
3M25
3M24
+3V3-STANDBY
3D39
3D38
RES
+3V3-STANDBY
DC / DC +3V3-STANDBY_+1V2-STANDBY
B01B
1M99
4202
4201
PNX8543 - CONTROL MIPS/FLASH/PCI
B03G
11
10
RES
TO
POWER
SUPPLY
YPBR / SIDE IO / S-VIDEO
B04C
10
15
5
1
6
11
VGA
CONNECTOR
1G30
12
15
WC-EEPROM-PNX5100_SPI-DI
B03G
3G60
+5V
3G56
DATA-SDA
CLK-SCL
7G32
3G63
+3V3
3G61
56
M24C02
7
EEPROM
3G58
7G31
256x8
UA_RX_0
UA_TX_1
GPIO_4
GPIO_5
AG1
AH5
L32
L31
RXD-UP
TXD-UP
RXD-MIPS
TXD-MIPS
3D21
3D22
+3V3-PER
3M09
3M10
B04A
4E18
4E19
BOLT-ON
RXD
TXD
3M74
3M73
3M76
3M75
1M04
3
2
1
1M01
RES
3
1
FACTORY USE
2
4
SERVICE
CONNECTOR
2009-Aug-07
FOR
ONLY
UART
18560_406_090326.eps
090331
Page 68

Supply Lines Overview

SUPPLY LINES OVERVIEW
+12V
+12V
GND1
GND1
BL-ON_OFF
DIM
BOOST
A/P_DIM
MAIN
POWER SUPPLY
CN2
1
HV1
2
N.C.
3
HV1
CN3
1
HV2
2
N.C.
3
HV2
INV_OK
3V3_ST
STANDBY
GND1
GND1
GND1
+12V
+12V
+12V
+VSND
GND_SND
TO DISPLAY
TO DISPLAY
DC / DC +3V3-STANDBY_+1V2-STANDBY
B01B
CN5
11
22
33
44
55
66
77
88
99
CN4
11
22
33
44
55
66
77
88
99
10 10
11 11
B08a
B03a
B01b
1M99
1M95
5221
N.C.N.C.
SENCE+1V2-PNX5100
DC / DC +3V3_+1V2
B01A
SENSE+1V2-PNX85XX
+12V
5104
7103 NCP5422ADG
Dual
Synchronous
Step-Down
Controller
LAMP-ON-OUT
BACKLIGHT-OUT
BACKLIGHT-BOOST
POWER-OK
7201
IN OUT
COM
STANDBY
7202
52045203
VOLT. REG.
7222
VOLT. REG.
3108
14
7101-1
1
5101
7U01-2
2
7102-1
16
5103
7102-2
15
Block Diagrams
+12VD
B03H
CONTROL
B07A
CONTROL
N.C.
B03H
CONTROL
+3V3-STANDBY
+1V2-STANDBY
B03H
CONTROL
+12V
6217
+5V
+5V5-TUN
+1V2-PNX5100
+AUDIO-POWER
SENCE+1V2-PNX5100
SENSE+1V2-PNX85XX
+12V
+12VF
12V/3V3
COVERSION
+3V3
+3V3F
5105
12V/1V2
COVERSION
+1V2-PNX85XX
B07a
B03a,g,h, B04a,B05a,
B03a
B01a,B02a, B04a,b
B02a, B03d,g,h, B04a,b,c, B05a,c, B07a
B02a
B03h,B08a
B03c,B06a
B01a
B01b
B01b
B01b
B01a
B01b
B01a
B01b
B01a
B03d
B03a
B03a
B01b
B03a
B01a
B01b
B03a
B03a
B02a, B03a,c,d,g,h, B04b,c,B05a,b,c, B07a,b, B08a,c,d,e
B03a,B08a
B03a,h
FRONT END
B02A
7308
IN OUT
COM
7309
IN OUT
COM
7307
IN OUT
COM
PNX8543 - POWER
B03A
+1V2-PNX85XX
+1V2-STANDBY
+3V3F
+3V3
PNX8543 - VIDEO STREAMS/LVDS OUTPUT
B03B
+3V3-PER
PNX8543 - AUDIO AMPLIFIER
B03C
+AUDIO-POWER
4801
3819
7802
+3V3
PNX8543 - AUDIO
B03D
+5V
PNX8543 - SDRAM
B03F
+1V8-PNX85XX
CONTROL
5304
5307
5306
5305
7315
7601
IN OUT
COM
5612
5600
5615
5621
5622
7801
7900
IN OUT
COM
3B47
3B48
3389
EN 68Q548.1E LA 9.
+3V3+3V3
+1V2
+1V2A
+5V+5V
3V3B
3V3A
3V3D
3V3E
+5V5-TUN+5V5-TUN
+5V-TUNER
ANTENNA-SUPPLY
+12V+12V
+1V2-PNX85XX
SENSE+1V2-PNX85XX
+1V2-STANDBY
+3V3F
+1V8-PNX85XX
+3V3-STANDBY+3V3-STANDBY
+3V3
+3V3-PER
RREF-PNX85xx
VDDA-LVDS
VDDA-AUDIOVDDA-AUDIO
VDDA-DAC
VDDA-ADC
VDDA-LVDSVDDA-LVDS
+3V3-PER
+AUDIO-POWER
RES
AUDIO-VDD
+3V3
+3V3+3V3
+5V
VDDA-AUDIO
VDDA-DACVDDA-DAC
+1V8-PNX85XX
DDR2-VREF-CTRL
DDR2-VREF-DDR
RES
B01a
B03a
B01b
B01b
B01a
B01b
B01b
B01a
B03a B01b
B01b
B01b
B01b
B01b
B01a
B01b
B01a
B01b
B01a
B03a
B01b
B01b
B03a
B01a
B01a
B01b
B01A
B03f,B05a
B03b,g,h
B05a
B03b
B03d
B03a
PNX8543 - CONTROL MIPS/FLASH/PCI
B03G
5M00
+3V3-PER
+3V3-STANDBY
+5V
5M84
5M88
PNX8543 - STANDBY-CONTROL/DEBUG
B03H
+1V2-PNX85XX
+1V2-PNX5100
+3V3-STANDBY
+3V3
+3V3-PER
+5V
BOLT-ON
B04A
+3V3-STANDBY
+5V
+12V
ANALOG IO - SCART 1&2
B04B
+5V
+3V3
+12V
YPBR / SIDE IO / S-VIDEO
B04C
+3V3
+5V
HDMI
B05A
+3V3
5H01
5H06
5H03
+1V8-PNX85XX
5H00
+3V3-STANDBY
+5V
+5V
1H02
HDMI 3
HDMI 2
HDMI 1
18
1H00
18
1H03
18
1H01
18
ETHERNET
PCMCIA
5N06
5N07
5K00
3K00
+T
CONNECTOR
CONNECTOR
HDMI SIDE
CONNECTOR
CONNECTOR
B05B
+3V3
B05C
+3V3
+5V
+3V3+3V3
+3V3-NAND
+3V3-PER
+3V3-STANDBY
+5V
1M20
+1V2-PNX8541
+1V2-PNX5100
+3V3-STANDBY
+3V3
+3V3-PER
+5V
+3V3-STANDBY
+5V
+12V
RES
+5V
+3V3
+12V
3V3
+
+5V
+3V3
VDDO_3V3
VDDS_3V3
VDDH_3V3
+1V8-PNX85XX
VDD_1V8
+3V3-STANDBY
+5V
+5V
RREF-PMX85XXRREF-PMX85XX
ARX-5V
BRX-5V
DRX-5V
CRX-5V
+3V3
+3V3-ET-DIG
+3V3-ET-ANA
+3V3
+3V3_BUF
+5V
PCMCIA-VCC-VPP
CLASS-D
B06A
B01b
5
8
B01a
B01b
B01b
B01a
B07a
B01b
B01a
B01a
B08a
B01a
B01a
B01a
TO IR/LED PANEL
DISPLAY INTERFACING (COMMOM)
B07A
4P26
+12VD
DISPLAY SUPPLY
B07B
7P02
7P03 PNX8543-LCD-PWR-ON_SPI-DI
PNX5100 - POWER
B08A
+1V2-PNX5100
+3V3
+3V3F
PNX5100 - SDRAM
B08B
PNX5100 - CONTROL / PCI / DEBUG
B08C
PNX5100 - LVDS IN / OUT
B08D
+3V3
PNX5100 - AMBILIGHT
B08E
+3V3
4P29
CC60
7C60
IN OUT
5C60
5C61
5C62
5C63
5C64
5C65
5C66
5C67
5C68
5C69
5C70
COM
3C20
3C22
+AUDIO-POWER+AUDIO-POWER
+3V3+3V3
+5V+5V
4P28
4P39
+VDISP-IN
RES
4P30
4P31
+12VD
+3V3+3V3
+VDISP-IN+VDISP-IN
+VDISP-OUT
+1V2-PNX5100
+1V2-PNX5100-CLOCK
+1V2-PNX5100-TRI-PLL1
+1V2-PNX5100-TRI-PLL2
+1V2-PNX5100-TRI-PLL3
+1V2-PNX5100-DDR-PLL1
+1V2-PNX5100-LVDS-PLL
+1V2-PNX5100-DLL
SENSE+1V2-PNX5100
+3V3
+3V3-PNX5100-LVDS-IN
+3V3-PNX5100-CLOCK
+3V3-PNX5100-DDR-PLL0
+3V3-PNX5100-LVDS-PLL
+3V3F
+1V8-PNX5100
+1V8-PNX5100+1V8-PNX5100
PNX5100-DDR2-VREF-CTRL
PNX5100-DDR2-VREF-DDR
+3V3+3V3
+3V3
+3V3
1M59
6
TO AMBI-LIGHT
(OPTIONAL)
18560_407_090326.eps
B07b
B01b
B08b
090715
2009-Aug-07
Page 69
Circuit Diagrams and PWB Layouts

10. Circuit Diagrams and PWB Layouts

Interface Ambilight + Single DC-DC

EN 69Q548.1E LA 10.
A
B
C
D
All rights reserved. Reproduction in whole or in parts
owner.
is prohibited without the written consent of the copyright
E
F
G
H
A
B
C
D
2 9
431
5
7
8
10
123 45678 9
INTERFACE + SINGLE DC-DC
F126
*
1M85
1 2
3
4 5 6 7
8
9 10 11 12 13 14 15 16
502382-1470
1M59
1
2
3
4
5
6
7
1735446-7
1M90
1
2
3
4
5
6
1735446-6
F115
F116 F117 F118 F119 F120
F121 F122 F123 F124
1M84
1 2
3
4 5 6 7
8
9 10 11 12 13 14 15 16
502382-1470
3109 100R
+24V
+24V
RES
3110 100R
F101 F102 F103 F104 F105 F106 F108
F109 F110 F111 F112
F113
F125
2108
2109
+3V3
VLED1
VLED2
9101 9102
9103 9104
RES
RES
100p
100p
RES
(RES)
(RES)
+3V3
+24V
SPI-LATCH2CONN
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH1CONN
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
SPI-LATCH1
SPI-LATCH1CONN
SPI-LATCH2CONN
SPI-LATCH2
SCL
SDA
CONTROL1 CONTROL2
+16V
RES
+24V
3100
0R1
10n
3112
100n
3101
47R
2101
I101
I102
100R
2102
2n2
3104
330R
F114
2104
I105
1%
33K
1M0
3105
12K
3106
3107
5107 RES
30R
5108 RES
30R
I100
220p
5102
2100
220n
7100
5
6 7
8
9
14
17 16
1
2
15K
3102
I106
1100
3.0A 32VT10u
NCP3163BMNR2G
I103
I108
2103
3
VCC
LPK_SENSE
DRV_COL
SWI_COL
BOOT_IN
1
VFB
2
TIM_CAP
NC
GND GND_HS
18
F107
Φ
SWI_EMIT
+24VF
LVI_OUT
19
1101
VIA
+16V
RES
RES
30R
30R
5101
5100
I109
*
63V
T2.0A
514
10 11 12 13
20 21 22 23 24 25 26 27 28 29
30 31
*
*
30R
5103
*
5105
30R
5104
+12V
*
30R
30R
5106
+16V
6100
3111
E
+12V
+16V
c001
c002
VLED1
VLED2
SS24
100K
2105
1%
3108
116
100n
3K3
3103
2106
2107
I104
3K3
100n
100n
VSW
12
A
B
C
D
E
1100 A6 1101 A7 1M59 C2 1M84 A2 1M85 A2 1M90 D2 2100 A6 2101 B5 2102 C6 2103 D6 2104 D5 2105 D9 2106 D9 2107 E9 2108 D3 2109 E3
3100 B5 3101 C5 3102 D6 3103 D9 3104 D6 3105 D5 3106 D5 3107 D5 3108 E9 3109 D2 3110 D3 3111 E8 3112 B6
5100 A8 5101 A8 5102 A7 5103 B8 5104 B8 5105 B8 5106 B8 5107 A6 5108 A6 6100 C8 7100 B7 9101 C3 9102 C3 9103 C3 9104 C3 F101 B3 F102 B3 F103 B3 F104 B3 F105 B3 F106 B3 F107 A7 F108 B3 F109 B3 F110 B3 F111 B3 F112 B3 F113 B3 F114 B5 F115 C2 F116 D2 F117 D2 F118 D2 F119 D2 F120 D2 F121 E2 F122 E2
13
F123 E2 F124 E2 F125 B3 F126 A2 I100 A6 I101 C6 I102 C6 I103 C6 I104 D9 I105 D5 I106 D7 I108 D6 I109 A8 c001 E2 c002 E2
A
B
C
D
E
F
G
H
12
I
J
1
STUFFING DIVERSITIES FOR DC/DC INTERFACE AMBI 2K9
DC/DC INTERFACE
3104 328 58341
3104 328 58351
3104 328 58361
3104 328 58371
2
1101
in
out
out out
3
1M85
in
out
out out
3 4
5103/5104
out out
out
5105/5106
in
4
out
in in
out
VLED1
24V
12V
16V
12V
VLED2
16V
12V
16V
16V
567
See the stuffing diversities table in the case of components marked with one star (*)
SETNAMECHN
CLASS_NO
DC-DC INTERFACE
08-06-19
08-08-06
08-10-23
NAME
CT
6
7
1
2
3
Peter Van Hove
85
AMBI 2K9
SUPERS.
DATEMGr CHECK
08-06-06********
9
10
8
9
I
1
08-06-19
08-08-06
2
08-09-18
3104 313 6325
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
11
12
3
08-10-23
4
08-12-06
5
13
***031**
13
18310_600_090305.eps
J
A3
090305
2009-Aug-07
Page 70
Circuit Diagrams and PWB Layouts

Interface Ambilight Dual DC-DC

EN 70Q548.1E LA 10.
A
B
C
D
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
owner.
E
F
G
H
1
2
3
4
5
6
7
8
109
11
12
13
A
A
B
C
D
E
1
2 3
4567
DUAL DC-DC
2200
F204
I217
**
9202
F207
3K3
I214
22n
(VLED2)
+16V
+16V
RES
I200
3204
2211
2214
I208
I211
**
10R
1n0
1n0
I212
3210
I215
3200
6R8
3202
6R8
3K9
**
3211
F202
2204
**
47n
3206
RES
33K
2221
RES
**
1%
VSW
**
F200
**
2206
5200
10u
**
35V
4u7
2207
100u
I204
**
**
6200
SS24
**
**
RES
2216 2217
22n
3207
**
RES
RES
4u7
2218
2219
68K
1%
4u7
7200 : TPS54383 in case of 16V or dual dc-dc converter
The components marked with one star (*) belong to the 12V versions (3104 328 58351, 3104 328 58371).
The components marked with two stars (**) belong to the 16V versions
(3104 328 58331, 3104 328 58341, 3104 328 58361, 3104 328 58371).
2201
100u35V
7200
TPS54283PWP
9 10 11
4u7
2212
220n
1
PVDD1 PVDD2
BOOT1 SW1 EN1 FB1
ILIM2 SEQ BP
GND GND_HS
4
8
+24VF
A
2202
14
Φ
BOOT2
SW2
EN2 FB2
16 17 18 19 20 21 22
VIA2
23 24 25 26
15
35V
220n
2203
100u
2205
F203
312 213 65 87
I216
I213
47n
I206
*
9201
RES
3K3
3209
*
22n
2222 RES
RES
I201
3201
6R8
3203
*
3212
I205
*
6R8
*
10R
3205
I209
*
1n0
2213
I210
*
1n0
2215
*
33K
3K3
3213
1%
5201
*
10u
*
6201
SS24
RES
22n
3208
*
47K
1%
RES
RES
*
22u
22u
2208
2209
F201
*
10u
2220
*
2210
2223
220u 25V
10u
*
(VLED1)
2224
+12V
10u
B
C
+12V
D
VLED1
E
2200 A4 2201 A4 2202 A5 2203 A5 2204 B3 2205 B6 2206 B1 2207 B2 2208 B7 2209 B7 2210 B8 2211 C3 2212 C4 2213 C6 2214 C3 2215 C6 2216 C2 2217 C7 2218 D1 2219 D2 2220 D7 2221 D3 2222 D5 2223 D8 2224 D8
3200 A3 3201 A6 3202 B3 3203 B6 3204 B3 3205 B6 3206 D3 3207 D2 3208 D7 3209 D5 3210 D3 3211 D3 3212 D6 3213 D6
5200 B2 5201 B7 6200 B2 6201 B7 7200 B4 9201 B5 9202 C4 F200 B2 F201 C7 F202 D3 F203 B5 F204 B4 F207 C4 I200 A3 I201 A6 I204 B2 I205 B6 I206 B6 I208 B3 I209 B6 I210 C6 I211 C3 I212 C3
I213 D5 I214 D4 I215 D3 I216 B5 I217 B4
B
C
D
E
F
G
H
1
2
I
J
1
2 13
3
4
3 45
CLASS_NO
08-06-19
08-08-06
08-10-23
NAME
5
6
7
1
2
3
Peter Van Hove
CHECK
8
678
EMANTESNHC
DC-DC INTERFACE
AMBI 2K9
SUPERS.
DATE
9
08-06-09
10
3 2
3104 313 6325
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
11
130
12
1
08-06-19
2
08-08-06
3
08-09-18
4
08-10-23
5
08-12-06
A3
18310_601_090305.eps
I
J
090305
2009-Aug-07
Page 71
Circuit Diagrams and PWB Layouts

Interface Ambilight Microcontrollerblock

EN 71Q548.1E LA 10.
A
B
C
D
E
G
H
K
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
owner.
M
N
1
2
3
4
5
6
7
98
10
11 15
12
13
14
16
17
18
19
20
A
123
MICROCONTROLLER
A
+3V3
2300
B
C
F
D
7302
LPC2103FBD48
11
X1
12
E
I
+3V3
F
J
G
1K0
3339
F317
2
3
I308
5
9305 RES
2318
100n
1300
7303
NCP303LSN10T1
IN
RST
GND
CD
NC
+3V3
16M9
RES 9300
3332
10K RES
9301
RES
9302 9303RES
F308
+3V3
10K
3333
1
4
X2
20
RTXC1
25
RTXC2
26
RTCK
4
VBAT
F307
27
DBGSEL
6
RST
L
+1V8
H
45678
7301
LD2985BM18R
1
3
INH BP
1u0
1 2
3
B3B-PH-SM4-TBT(LF)
71943
VSS
MICRO-
CTRL
P0.10|RTS1|CAP1.0|AD0.3 P0.11|CTS1|CAP1.1|AD0.4
P0.12|DSR1|MAT1.0|AD0.5
P0.14|DCD1|SCK1|EINT1
VDD_1V8
5
+3V3
2322
100n
2321
OUTIN
COM
2
RES
1302
45
Φ
P0.0|TXD0|MAT3.1 P0.1|RXD0|MAT3.2
P0.2|SCL0|CAP0.0 P0.3|SDA0|MAT0.0 P0.4|SCK0|CAP0.1
P0.5|MISO0|MAT0.1 P0.6|MOSI0|CAP0.2 P0.7|SSEL0|MAT2.0
P0.8|TXD1|MAT2.1 P0.9|RXD1|MAT2.2
P0.13|DTR1|MAT1.1
P0.15|RI1|EINT2
P0.16|EINT0|MAT0.2
P0.17|CAP1.2|SCL1
P0.18|CAP1.3|SDA1 P0.19|MAT1.2|MISO1 P0.20|MAT1.3|MOSI1 P0.21|SSEL1|MAT3.0
P0.27|TRST|CAP2.0
P0.28|TMS|CAP2.1 P0.29|TCK|CAP2.2
P0.30|TDI|MAT3.3
VDD_3V3
17
40
9307
100n
2323
5
4
VSSA
P0.22|AD0.0 P0.23|AD0.1 P0.24|AD0.2 P0.25|AD0.6 P0.26|AD0.7
P0.31|TDO
VDDA
100n
F300
I303
2301
100n
10n
2303
+3V3
F304
F305
F306
2308
31
13 14 18 21 22 23 24 28 29
30 35 36 37
41 44 45 46 47 48
1 2
3 32 33 34 38 39
8
9 10 15 16
42
F315
100n
2324
+1V8
4u7
2302
+3V3
10K
10K
3320
3321
10K3304-2
6
5
8
10K
10K
10K3303-2
10K3302-2
10K3302-4
27
27
45
10K3300-2
3323
3322
100R
100R
27
10K
10K
100p
I310
2309
100p
27
3 6
3301-3 10K
3328
3301-2
3329
10K
I319
UD-MD
I322
3334
22R
F314
3335
I309
100R
2
1
100n
2320
1301
RES
SKHUBHE010
3
4
1
10K
RES3325
10K
RES
3 6
1 8
3 6
3326
3302-3 10K
3303-3 10K
3303-1 10K
I321
I307
F310
10K
2319
100p
3336
3337
6
10K
1 8
3
4
3301-1 10K
10K
3327
I317
2310
F309
10K
27
3301-4
3304-1
3300-3 10K
3324
6
10K3300-4
45
3
1 8
3302-1 10K
I305
I313
I314
I318
100p
2312
100p
100n
2311
711
+3V3
10K3304-4
45
10K
1 8
3304-3 10K
3305-1
I311
I312
I315
RES
100p
100p
2313
2314
91011
1K5 1%
1%1K5
7300-2 LM393PT
5
6
I304
TEMP-SENSOR
100K
3310
RES
+3V3
8
7
4
F303
2305
10n
RES
3315
47K
RES
3318
10K
RES
+3V3
RES
1%
3311
1K5
F301
RES
10K
10n
2304
-T
C300
3306-3
RES
3330
3331 3306-2 2 3306-1 3306-4 3307-1 3338 3307-4 4 5 3307-2 2 7 3308-4 3308-2
3308-1
3309-4 3309-1
45
27
10K
3314
10K
+3V3
1%
RES
3317
1K5
F316
1%1K8
3319
RES
3 6
100R 100R 100R
7
100R
8
1
100R
45
100R
1 8
100R 100R 100R 100R
45
100R
27
100R
1 8
100R 54 8 1
100R
100R
3 6
7300-1 LM393PT
3
2
10K3305-3
+3V3
8
4
I300
F320
I302
9103 45
3313
I306
I316
I320
100p
2316
100p
2315
F311 F312
3305-4 10K
F313
3305-2
812
2306
100n
1
PWM-CLOCK-BUF
SPI-DATA-RETURN
PWM-CLOCK-BUF
+3V3
+3V3
3312
10n
2307
3316
CONTROL1
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-LATCH1 SPI-LATCH2
TEMP-SENSOR
EEPROM-CS
BLANK-BUF
PROG
CONTROL2
F302
SCL SDA
1300 E2 1301 H5 1302 C4 2300 A3 2301 A4 2302 A5 2303 A4 2304 B8 2305 B10 2306 B9
A
2307 B10 2308 D4 2309 D5 2310 F6 2311 F7 2312 F7 2313 F7 2314 F7 2315 F7 2316 F8 2318 G2 2319 G6
B
2320 H5 2321 H4 2322 H4 2323 H4 2324 H4
3300-2 D5 3300-3 D7 3300-4 D7 3301-1 D6 3301-2 E5 3301-3 E6 3301-4 D7
C
3302-1 D7 3302-2 D6 3302-3 E6 3302-4 D6 3303-1 E6 3303-2 D6 3303-3 E6 3304-1 D6 3304-2 D7 3304-3 D7 3304-4 D7
D
3305-1 E7 3305-2 G8 3305-3 G9 3305-4 G8 3306-1 E8 3306-2 E8 3306-3 E8 3306-4 E8 3307-1 E8 3307-2 F8 3307-4 F8 3308-1 F8
E
3308-2 F8 3308-4 F8 3309-1 F8 3309-4 F8 3310 A10 3311 A8 3312 A10 3313 B8 3314 B8 3315 B10 3316 B10 3317 B8
F
3318 C10 3319 C8 3320 C5 3321 C5 3322 D5 3323 D5 3324 D7 3325 D6 3326 D6 3327 D6 3328 E5
G
3329 E5 3330 E8 3331 E8 3332 E3 3333 F2 3334 G5 3335 G5 3336 G6 3337 G6 3338 E8 3339 F1
7300-1 B9
H
7300-2 A10 7301 A4 7302 E3 7303 F2 9300 E3 9301 F3 9302 F3
9303 F3 9305 G1 9307 H4 C300 B8 F300 A5 F301 A8 F302 A10 F303 B11 F304 C4 F305 C4 F306 D4 F307 F3 F308 F3 F309 G6 F310 G6 F311 G8 F312 G8 F313 G8 F314 G5 F315 H4 F316 C9 F317 F1 F320 E9 I300 E9 I302 F9 I303 A4 I304 C10 I305 E6 I306 E7 I307 G6 I308 G2 I309 G5 I310 D5 I311 E7 I312 E7 I313 E7 I314 F7 I315 F7 I316 F8 I317 F6 I318 F7 I319 F5 I320 F8 I321 F6 I322 G5
B
C
D
E
F
G
H
I
J
K
L
M
N
08-06-19
08-08-06
08-09-18
08-10-23
08-12-06
O
P
A2
090410
O
CLASS_NO
08-06-19
P
NAME
1
2
3
4
7
98
10
11
1256
13
14
08-08-06
08-10-23
Peter Van Hove
1
2
3
15
SETNAMECHN
DC-DC INTERFACE
AMBI 2K9
SUPERS.
08-06-09
DATECHECK
16
17
3104 313 6325
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
18
130
19
1
2
3
4
33
5
20
18310_602_090305.eps
2009-Aug-07
Page 72
Circuit Diagrams and PWB Layouts
P
EN 72Q548.1E LA 10.

Layout DC/DC Interface Ambilight

1302
5201
1M59
6201
2203
2200
1100
1M90
2201 2202
1101
5102
7200
9201
9202
6200
5200
2208
2209
2220
2210
2218
2206
2219
2207
ersonal Notes:
1M85
3338
2300
2322
2301
7301
2302
2303
2321
3308
2316
3309
3326
2312
2223
2224
2323
2315
3306
9104 9103
3331
2310
9102
9101
3307
2311
2319
3324
1301
1M84
F102
F101
F307
9302
9303
3300
F320
F125
3104 313 6325.5
F108
F103
F106
F105
F126
9300
3332
I313
I310
3330
I311
3304
I305
I312
I317
7302
I314
I315
I322
I307
3302
2314
3301
C300
2304
3313
F302
3312
2307
3316
2305
3315
F104
F109
F110 F111
F112
F312
3305
3334
F313
I306
I318
F315
2324
9307
F301
3311
3314
7300
F316
3317
2306
3319
F306
3322 3323
2308 2309
F305
F311
F310
F300
I321
I320
F115
F119
2108
2104
3105 3106 3107
c001
5106
2215
2212
I213
3209
I102
2106 2105
2102
2222
3213
3212
I206
3208
2217
3207
F200
2216
3210
3211
I104
3206
2221
3103
3104
I214
F201
I103
I106
I101
3101
5103
51045105
I210
2213
I209
3205
F207
F203
I217
I216
I212
F202
I211
2211
2214
5100
5101
F114
3100
2205
F204
I201
3203
3201
3200 3202
2204
I208
I109
I205
6100
3204
I204
F107
I200
F113
F122
F304
3320
3321
3337
F309
3336
9301
3303
2313 3325
I319
3329 3327
I316
3328
2320
I309
3335
F303
3318
3310
I304
I215
1300
I303
F314
2318
7303
F308
3333
3339
c002
F317
9305
I308
I105
2107
3108
7100
I108
3102
3111
2103
3112
2101
I302
F116
3109
I300
F117
3110
F118
F120
F123
5107
5108
2100
2109
F124
I100
F121
18310_550_090309.eps
090729
10000_012_090121.eps
090121
2009-Aug-07
Page 73
Circuit Diagrams and PWB Layouts

6 LED Ambilight Microcontroller

EN 73Q548.1E LA 10.
1
A
2
1
MICROCONTROLLER BLOCK LITEON
B
A
C
B
D
E
C
F
IN
1M83
F120
1
F121
2
F122
3
F123
4
F124
5
F125
6
F126
7
F127
8
F128
9
F129
10
F130
11
F131
12
F132
13 14
15 16
1M1A
1 2
3
4 5 6 7
8
9 10 11 12 13 14
15
16
D
G
H
E
I
F
J
G
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
H
OUT
1
2
3
4
5
6
7
8
9 10 11 12 13 14
1
2
3
4
5
6
7
8
9 10 11 12 13 14
1M84
15 16
1M2A
15 16
F133 F135 F136 F139 F137
F138 F134
M
2127
VLED1
VLED2
+3V3
VLED1
VLED2
3
35V10u
1u0
2128
2129
10u35V
+3V3
VLED1
VLED2
1u0
2130
+3V3
2
+3V3
VLED1
VLED2
4
9111 RES
9113 RES
9112
9114
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
PROG
VLED1
RST
7
5
9107 9108
9109 9110
1105
T1.5A
16M9
1101
+3V3
NC
10K
RES 9103
F104
+3V3
10K
3120
1
4
SPI-CLOCK
SPI-LATCH
PWM-CLOCK
LPC2103FBD48
9101
3118
RES
9102
9104 RES
SDA
F102
8 9
6
VLED1-F
7102
71943
VSS
11
X1
MICRO-
12
CTRL
X2
20
RTXC1
25
RTXC2
26
RTCK
4
P0.10|RTS1|CAP1.0|AD0.3
VBAT
P0.11|CTS1|CAP1.1|AD0.4 P0.12|DSR1|MAT1.0|AD0.5
27
DBGSEL
6
RST
VDD_1V8
5
+3V3
+1V8
100n
2119
2120
+3V3
2101
31
VSSA
Φ
P0.0|TXD0|MAT3.1
P0.1|RXD0|MAT3.2
P0.2|SCL0|CAP0.0
P0.3|SDA0|MAT0.0
P0.4|SCK0|CAP0.1 P0.5|MISO0|MAT0.1 P0.6|MOSI0|CAP0.2 P0.7|SSEL0|MAT2.0
P0.8|TXD1|MAT2.1
P0.9|RXD1|MAT2.2
P0.13|DTR1|MAT1.1
P0.14|DCD1|SCK1|EINT1
P0.15|RI1|EINT2
P0.16|EINT0|MAT0.2
P0.17|CAP1.2|SCL1 P0.18|CAP1.3|SDA1
P0.19|MAT1.2|MISO1 P0.20|MAT1.3|MOSI1 P0.21|SSEL1|MAT3.0
P0.22|AD0.0 P0.23|AD0.1 P0.24|AD0.2 P0.25|AD0.6 P0.26|AD0.7
P0.27|TRST|CAP2.0
P0.28|TMS|CAP2.1
P0.29|TCK|CAP2.2
P0.30|TDI|MAT3.3
P0.31|TDO
VDD_3V3
VDDA
42
17
40
9119
F103
2121
100n
100n
1u0
F107
F108
2113
LD2985BM18R
1
3
F105
2109
13 14 18 21 22 23 24 28 29
30 35 36 37
41 44 45 46 47 48
1 2
3 32 33 34 38 39
8
9 10 15 16
100n
7101
IN
INH BP
COM
2
+3V3
3108
3109
100p
UD-MD
10
7
5
OUT
4
2102
10n
2104
+3V3
10K
10K
3107
72
3110
100R
100R
100p
2110
3117
10K
22R
3131
100R
2112
100n
5
3
SCL
SPI-DATA-IN
SDA
CONTROL-1 CONTROL-2
BLANK
EEPROM-CS
TEMP-SENSOR
PROG
33p
2125
SCL
SDA
CONTROL-1 CONTROL-2
EEPROM-CS
TEMP-SENSOR
PROG
F109
SCL SPI-DATA-RETURN
CONTROL-1 CONTROL-2
+3V3
10K
3119
RES9121
2111
6
4
NCP303LSN10T1
2
3
5
100n
7110
IN
GND
CD
11
12
8 9 10111213
F101
+1V8
4u7
100n
2103
10K
7
7
2
10K
3105-2
3101-2
10K
10K
10K
27
3 6
3116
3104-3
3104-2
3130
F112
9106
RES
10K
10K
2
45
3106-2
3105-4
10K
10K
3 6
3106-1 1 8
3106-3
3105-33 6
I110
RES
100p
2118
3133
RES
3113
10K
10K
10K
10K
10K
10K
1 83102-1
1 8
45
10K
3104-1
10K
RES
3114
3115
I111
10K
10K
3132
3 6
3101-3
3112
3104-4
10K
10K
1 8
45
3101-4
3105-1
RES2114
100p
2116
100p
2115
+3V3
7
10K
45
3102-2 2
3102-4
10K
10K
3 63102-3
100p
2117
13
10K
10K
8
1
3103-1
RES
RES
2124
100p
2122
100p
2123
100p
I113 I114 I115
100p
3103-4
3103-2
14
+3V3
3135
F116
10K
10n
2105
C140
100p
4
2
-T
2131
3137
+3V3
3140
3123
3124-4 3128 3129 3124-1 3124-2 2 7 3124-3 3125-1 3142 3125-2 3125-4 3126-2 3126-4 4 5
3126-1
3127-1 3127-4 4 5
100p
5
10K
7
10K
3111
2126
1%
1K5
RES
10K
1%1K5
RES
F118
RES
1K8 1%
45
1 8
3 6 1 8
27 45 27
1 8
1 8
3103-3
3
7116-1 LM393PT
3
2
100R 100R 100R 100R 100R 100R
100R
100R
100R 100R
100R 100R
100R
100R 100R
6
15
+3V3
84
I124
I125
I126
10K
100n
2107
1
PWM-CLOCK-BUF
SPI-CLOCK-BUF
SPI-DATA-RETURN
TEMP-SENSOR
+3V3
16
10n
2108
CONTROL-1
SPI-DATA-IN
SPI-LATCH
SPI-LATCH-2
EEPROM-CS
BLANK-BUF
PROG
CONTROL-2
+3V3
3136
3139
SCL SDA
1%1K5
F106
1K5 1%
100K
7116-2 LM393PT
5
6
10n
47K
10K
TEMP-SENSOR
+3V3
3138
17
3134
RES
84
7
F117
2106
RES
RES
3141
RES
18
7116-2 A12 9101 E5 9102 F5 9103 F5 9104 F5 9106 H8 9107 A5 9108 A5 9109 A5 9110 B5 9111 A3 9112 B2 9113 B3 9114 B2 9119 H6 9121 G4 C140 B10 F101 A8 F102 F5 F103 H7 F104 F5 F105 D7 F106 B12 F107 C7 F108 D7 F109 G3 F112 G8 F116 A10 F117 B13 F118 C11 F120 A1 F121 A1 F122 A1 F123 A1 F124 B1 F125 B1 F126 B1 F127 B1 F128 B1 F129 B1 F130 B1 F131 B1 F132 B1 F133 E1 F134 F1 F135 E1 F136 F1 F137 F1 F138 F1 F139 F1 I110 G8 I111 G8 I113 G10 I114 G10 I115 G10 I124 E11 I125 E11 I126 F11
20
A
B
C
D
E
F
G
H
I
J
K
L
M
19
1101 E4 1105 B5 1M1A C1 1M2A G1 1M83 A1 1M84 E1 2101 A6 2102 A7 2103 A8 2104 B7 2105 B10 2106 B13 2107 B11
A
2108 B12 2109 D7 2110 D7 2111 G4 2112 H7 2113 H7 2114 F9 2115 F9 2116 F9 2117 F9 2118 H8 2119 H6
B
2120 H6 2121 H6 2122 F9 2123 F10 2124 F10 2125 B3 2126 F10 2127 B1 2128 B1 2129 B2 2130 F2 2131 F10
C
3101-2 D7 3101-3 D9 3101-4 E9 3102-1 D9 3102-2 D9 3102-3 E9 3102-4 D9 3103-1 E9 3103-2 G10 3103-3 G11 3103-4 G10
D
3104-1 D8 3104-2 E8 3104-3 E8 3104-4 D9 3105-1 E9 3105-2 D8 3105-3 E8 3105-4 D8 3106-1 E8 3106-2 D8 3106-3 E8 3107 C7
E
3108 C7 3109 D7 3110 D7 3111 B10 3112 D9 3113 D8 3114 E8 3115 E8 3116 E8 3117 E7 3118 E5 3119 F4
F
3120 F5 3123 C11 3124-1 E11 3124-2 E11 3124-3 E11 3124-4 E11 3125-1 F11 3125-2 F11 3125-4 F11 3126-1 F11 3126-2 F11
G
3126-4 F11 3127-1 F11 3127-4 F11 3128 E11 3129 E11 3130 G8 3131 G7 3132 H8 3133 H8 3134 A13 3135 A11 3136 A12
H
3137 B11 3138 B13 3139 B12 3140 C11 3141 C13 3142 F11
7101 A7 7102 E6 7110 F4 7116-1 B11
123 45678 9 10111213
N
N
1X03
REF EMC HOLE
O
345
1
2
P
1
2
4
5
6
7
8
103
119
12
13
14
CLASS_NO
2008-08-08
2008-10-27
NAME
Peter Van Hove
2
3
15
SETNAMECHN
DRIVER 6LED LITEON
2K9
SUPERS.
2008-06-02
DATECHECK
16
17
1
2
8204 000 8857
3
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
18
130
19
1
3
20
18310_610_090305.eps
2008-06-10
2008-08-08
2008-10-27
O
P
A2
090730
2009-Aug-07
Page 74
Circuit Diagrams and PWB Layouts

6 LED Ambilight Microcontroller

EN 74Q548.1E LA 10.
74HCT125PW
F205
3207
RES
9209
74HCT125PW
F206
3209
RES
9211
74HCT125PW
F207
3211
RES
9213
PWM-R1
PWM-G1
PWM-B1
PWM-R2
PWM-G2
PWM-B2
EEPROM-CS-LOCAL
13
INPUT BUFFER
9208 RES
+3V3
7201-1
14
2
1
EN
7
9210 RES
7201-4
+3V3
14
12
13
EN
7
9212
RES
+3V3
7201-2
14
5
4
EN
7
9214 RES
+3V3
7201-3 74HCT125PW
14
8
EN
7
EEPROM-CS-LOCAL DATA-RETURN-SWITCH
14
3
11
6
9
F208
10
15
3219
100R
3220
3223
100R
27R
3212
100R
169
PWM-CLOCK-BUF
100p
22172218
SPI-CLOCK-BUF
100p
BLANK-BUF
100p
2219
SPI-DATA-OUT-FIL
DATA-RETURN-SWITCH
17
18
19
2201 B8 2202 C8 2203 D8 2209 B2 2210 G6 2211 I6 2214 A6 2215 F7 2216 F7
A
2217 B12 2218 C12 2219 D12 2220 E9
3121 D9 3203 B5 3204 B7 3205 C5 3207 B9 3209 C9 3210 B3
B
3211 C9 3212 D11 3213 B3 3214 H6 3215 H6 3216 H6 3217 H6 3218 H6 3219 B11 3220 C11 3221 H11 3222 I8
C
3223 C11 3224 H11
6216 I8 7201-1 A10 7201-2 C10 7201-3 D10 7201-4 B10 7209 B2 7210 C2 7212 B3 7214 B6 7215 G7
D
9208 A10 9209 B9 9210 B10 9211 C9 9212 C10 9213 D9 9214 D10 F202 B3 F203 C5 F204 H6 F205 B10
E
F206 C10 F207 C10 F208 D10 F209 H11 F210 G9 F211 G9 F212 G9 F213 H9 F214 H9 F215 H9
20
A
B
C
D
E
F
G
H
F
I
G
+3V3
+3V3
3K3
3K3
3221
3224
F209
H
J
K
L
1
A
123 45678
32 8
4
5
6
7
10
11
12
910111213
MICROCONTROLLER BLOCK LITEON
A
B
C
B
EEPROM-CS
PDTC144EU
1
33p
2209
D
PDTC144EU
C
EEPROM-CS-LOCAL
1
+3V3
3213
7209
3
2
7210
3
2
10K
F202
7212
PDTC144EU
+3V3
10K
3210
SPI-CS
SPI-CS
+3V3
10K
3203
F203
RES
3205
10K
5
6
1
3
E
D
F
G
7214
D
C
S
W
M95010-WDW6
8
VCC
Φ
(64K)
GND
4
HOLD
+3V3
Q
2214
100n
2
3204
7
10K
SPI-DATA-RETURN
+3V3
SPI-CLOCK-BUF
SPI-DATA-IN
PWM-CLOCK
SPI-CLOCK
BLANK
SPI-DATA-RETURN
+3V3
33p
2201
33p
2202
33p
2203
1K0
+3V3
1K0
+3V3
1K0
3121
100R
RES
2220
100p
E
H
F
I
J
G
PWM-CLOCK-BUF BLANK-BUF
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
H
L
PROG
SPI-LATCH
SPI-CLOCK-BUF
SPI-DATA-IN SPI-DATA-OUT
SPI-DATA-OUT-FIL
+3V3
2210
33p
3217
100R
RES
3218 3215
1K2
1K2
3216
100R
3214
10K
2211
2216
7215
TLC5946PWP
25
2
6
F204
27
3
4 5 24
26
33p
+3V3
1u0
VCC
LED DRIVER
PWM CONTROL
GSCLK
BLANK
MODE
IREF
XLAT
SCLK SIN SOUT
XHALF
GND GND_HS
1
2215
100n
28
Φ
7
0
8
1
9
2
10
3
11
4
12
5
13
6
14
7
15
OUT
8
16
9
17
10
18
11
19
12
20
13
21
14
22
15
23
XERR
VIA
303132
33
29
3222
470R
F210
F211
F212
F213
F214
F215
DATA-RETURN-SWITCH
I
M
N
123 456
7 8 9 10111213
O
P
12
3
5
6 15
7 8
9
10
6216
SML-310
+3V3
I
M
N
2008-06-10
2008-08-08
2008-10-27
O
P
A2
090730
11
12
13
14
CLASS_NO
2008-08-08
2008-10-27
NAME
Peter Van Hove
SETNAMECHN
DRIVER 6LED LITEON
2
3
CHECK
SUPERS.
DATE
16
2K9
2008-06-02
C
17 18
8204 000 8857
23
ROYAL PHILIPS ELECTRONICS N.V. 2008
130
194
1
2
3
20
18310_610_090305.eps
2009-Aug-07
Page 75

6 LED Ambilight LEDs

Circuit Diagrams and PWB Layouts
EN 75Q548.1E LA 10.
1
A
123
3
4
5
6
456
8
914
10
7
LED LITEON
B
A
VLED1-F
VLED2
9308
9307
C
B
VLED2
D
E
VLED1-F
9309-4
9309-11 8
9309-227
9301
9302
C
F341F340
F342
LTW-E500T-PH1
4
GREEN
RED
6
BLUE
F343
7000
GND_HS
3
25
1
7
LTW-E500T-PH1
4
GREEN
RED
6
BLUE
7001
GND_HS
7
3
25
1
LTW-E500T-PH1
4
GREEN
RED
5
6
BLUE
7002
GND_HS
3
2
1
7
9305-22
9305-445
1 8
9305-1
7
45
7003
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
GND_HS
7
3
2
16
9318-1
9318-4
5
9318-3
6
F
D
G
E
H
I
F
J
G
3338
560R
3340
560R
3343
560R
3346
560R
3349
560R
3352
560R
3355
560R
3369
560R
3370
560R
3371
560R
3372
560R
3373
560R
3374
560R
3341
1K5 3344
1K5 3347
1K5 3350
1K5 3353
1K5 3356
1K5 3384
1K5 3385
1K5 3386
1K5 3387
1K5
3388
1K5 3389
1K5 3390
1K5 3391
1K5
K
All rights reserved. Reproduction in whole or in parts
owner.
is prohibited without the written consent of the copyright
H
L
M
I
3336
390R 3337
390R 3339
390R 3342
390R
PWM-B1
PWM-R1
PWM-G1
VLED1-F
3331
3332
10K
10K
VLED1-F
3325
3326
10K
10K
VLED1-F
3327
3330
36
18 9306-1
9320-2 72
9320-1 81
9306-3
9306-4 45
RED6
BLUE6
F307
7307 BC847BW
F308
3334
1K0
F303
3328
1K0
10K
3333
1K0
10K
7305 BC847BW
7306 BC847BW
F305
9317
F302
Place jumper 9314, 9316, 9317
if VLED < 17V
9314
F304
9316
9320-4 5
4
N
9310-2
9310-4
27
45
3
18
4
PWM-B2
PWM-R2
PWM-G2
11
8
9310-1
1 8
4
6
7004
LTW-E500T-PH1
GREEN
RED
BLUE
GND_HS
7
VLED1-F
3301
3303
12 132
GREEN6GREEN6
10K
10K
VLED1-F
BLUE6
3304
3306
3
RED6
10K
10K
VLED1-F
15
9
3 6
25
1 8
1
5
9319-11 8
9319-3
9319-44
3 6
7317 BC847BW
F326
3302
1K0
7315 BC847BW
F328
3305
1K0
10K
3307
3308
1K0
10K
3309
10 11
9312-33 6
9312-445
9303-3
5
9303-44
9303-1
9304-227
9304-1
1 8
9304-44
5
F325
9325
F327
F329
7316 BC847BW
F330
9312-11 8
9326
9327
LTW- E 50 0 T-P H1
4
GREEN
RED
5
6
BLUE
BLUE-2
RED-2
GREEN-2
7005
3
2
GND_HS
1
7
Place jumper 9325, 9326, 9327
if VLED < 17V
G
R
16
12
B
9315-227
9315-4
45
9315-1
1 8
B
B
3335
390R
3345
390R
3348
390R
3351
390R
9313-2
9313-1
27
1 8
F344
F347
17
9313-4
45
G
R
F345
RG
3310
1K5
3311
1K5
3312
1K5
3313
1K5
3314
1K5
3315
1K5
3316
1K5
3317
1K5
3318
1K5
3319
1K5
3320
1K5
3321
1K5
3322
1K5
3323
1K5
F348
9311-11 8
9311-3
9311-445
3 6
18
13
F346
RED-1
GREEN-1
3354
560R
3357
560R
3358
560R
3359
560R
3360
560R
3361
560R
3362
560R
3363
560R
3364
560R
3365
560R
3366
560R
3367
560R
3368
560R
BLUE-1
F349
GREEN-2
RED-2
BLUE-2
197
3301 F9 3302 F9 3303 F9 3304 G9 3305 G9 3306 H9 3307 H9 3308 H9 3309 I9 3310 D12 3311 D12
A
3312 E12 3313 E12 3314 E12 3315 E12 3316 E12 3317 F12 3318 F12 3319 F12 3320 F12 3321 G12 3322 G12 3323 G12
B
3325 G4 3326 H4 3327 H4 3328 G4 3330 I4 3331 F4 3332 F4 3333 H4 3334 F4 3335 D12 3336 D2 3337 D2
C
3338 D1 3339 D2 3340 D1 3341 D1 3342 E2 3343 D1 3344 D1 3345 D12 3346 E1 3347 D1 3348 E12
D
3349 E1 3350 E1 3351 E12 3352 E1 3353 E1 3354 D13 3355 E1 3356 E1 3357 D13 3358 E13 3359 E13 3360 E13
E
3361 E13 3362 E13 3363 F13 3364 F13 3365 F13 3366 F13 3367 G13 3368 G13 3369 F1 3370 F1 3371 F1 3372 F1
F
3373 F1 3374 G1 3384 E1 3385 F1 3386 F1 3387 F1 3388 F1 3389 F1 3390 G1 3391 G1
7000 C2
G
7001 C3 7002 C4 7003 C6 7004 C8 7005 C11 7305 G4 7306 H5 7307 F4 7315 G9 7316 H10 7317 F9 9301 C1
H
9302 C1 9303-1 C10 9303-3 C10 9303-4 C10 9304-1 E10 9304-2 E10 9304-4 E10 9305-1 C6 9305-2 C6 9305-4 C6 9306-1 D5 9306-3 D5
I
9306-4 D5 9307 A6 9308 A6 9309-1 B6 9309-2 B6 9309-4 B6 9310-1 B8
9310-2 B8 9310-4 B8 9311-1 H13 9311-3 H13 9311-4 H12 9312-1 B10 9312-3 B10 9312-4 B10 9313-1 B12 9313-2 B12 9313-4 B12 9314 G5 9315-1 C12 9315-2 C12 9315-4 C12 9316 H5 9317 F5 9318-1 C8 9318-3 C8 9318-4 C8 9319-1 D9 9319-3 D9 9319-4 D9 9320-1 D7 9320-2 D7 9320-4 D7 9325 F10 9326 G10 9327 H10 F302 G5 F303 G4 F304 H5 F305 H5 F307 F5 F308 F4 F325 F10 F326 F9 F327 G10 F328 G9 F329 H10 F330 H10 F340 D1 F341 D1 F342 D1 F343 D2 F344 D12 F345 D12 F346 D13 F347 G12 F348 G13 F349 G13
20
A
B
C
D
E
F
G
H
I
J
K
L
M
N
1
2
3
O
P
1
2
4
5
456
63
7
8
9
7 8 9
10
CLASS_NO
11
12
SETNAMECHN
13
DRIVER 6LED LITEON
2008-08-08
2
3
2008-10-27
NAME
Peter Van Hove
10 18
11
12
13 20
1514
SUPERS.
DATECHECK
16
2K9
2008-06-02
17
8204 000 8857
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
130
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1
2
3
33
18310_612_090305.eps
2008-06-10
2008-08-08
2008-10-27
O
P
A2
090730
2009-Aug-07
Page 76

Layout 6 LED Ambilight

Circuit Diagrams and PWB Layouts
EN 76Q548.1E LA 10.
F347F348 F349
3342 3339
3338 3340 3343 3346 3349 3352 3355
7000
3337 3336
F135
F346
F345
F344
2109
3108
3109
9111
2125
9109
9112
1M83 1M84
2130
9110
9114
9107
2202
9302
3389
3374
3385
3390
3384
3369 3373
3356
3372
3350 3347
3371 3370
3344 3341
3121
3391 3386
3212
9214
3387 3388
2218
3220
9210
7201
3353
3209
9301
9211
2203
9212
9208
2217
3223
2201
9108
2220
9113
3224
3221
2211
3216
6216
3222
F116
3218
2216 2215
3215
7215
3217
F106
1105
3211
3219
3207
9213
9209
2219
F214
F213
7001
3214
F215
21282129
3330
2210
3325
3326
3328
9316
7306
9314
7305
2101
2102
2103
7101
2104
3331
3332
3334
9308 9307
9317
3327
3333
7307
9309
9305
9306
F209
7002
3128
3129
I113
1101
3103
I114
I115
3124
3130
2120
2123
3102
2131
3142
3101
2114
9101
9103
3118
9104
F109
I126
3107
2110
3110
3132 3133
I110
2119
I111
7102
F107 F108
3106
9102
F104
3120 3119
9121
3127
3114
3117
3113
7110
2117 2116 3115 2126
2113
2124 2121
2115
3112
F105
2111
3131
3126
9106
2112 3116 9119
3104
2122
3105
3125
2118
I124
7003
F137
3210
7214
3203
3205
F130
F101
7210
7212
2209
7209
3213
2214
3204
F132
F212
3136
3138
C140
3139
2106
3134 3141
9320
2108
2107
9318
3111
3137
2105
3135
3140
3123
7116
9310
F127
3306
9326
7004
F123
F139
F126
2127
3304
3305
3301
3302
3303
3307
3308
3309
9325
9327
7315
7316
7317
9303
9312
1M1A1M2A
F131
F129
9313
9315
3314
9304
9319
F120
F122
F128
F121
F124
3364
3365
3316
3317
3319
3320
3363
3366
3367
3368
3315
3311
3312
3313
3318
3321
3322
3323
7005
3354
3357
3358
3359
3360
3361
3362
3335
3345
3348
3310
3351
9311
3104 313 6313.3
F326
F330
F328
F325
F329
F327
F118
F133
F202 F203
F136
F134
I125
F112
F117
F103
F102
F308
F305
F211
F307
F304
F210
F303
F302
F204
F138
F207
F205
F206
F208
F125
F340
F342
F343
F341
18310_551_090309
090309
2009-Aug-07
Page 77
Circuit Diagrams and PWB Layouts

8 LED Ambilight Microcontroller

EN 77Q548.1E LA 10.
A
B
C
D
E
F
G
H
J
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
M
N
2107
100n
1
PWM-CLOCK-BUF
SPI-CLOCK-BUF
SPI-DATA-RETURN
TEMP-SENSOR
+3V3
16
+3V3
3136
10n
2108
3139
CONTROL-1
SPI-DATA-IN
SPI-LATCH
SPI-LATCH-2
EEPROM-CS
BLANK-BUF
PROG
CONTROL-2
SCL SDA
1%1K5
F106
1K5 1%
7116-2 LM393PT
5
6
TEMP-SENSOR
7116-2 A12 9101 E5 9102 F5 9103 F5 9104 F5 9106 H8 9107 A5 9108 A5 9109 A5 9110 B5 9111 A3 9112 B2 9113 B3 9114 B2 9119 H6 9121 G4 C140 B10 F101 A8 F102 F5 F103 H7 F104 F5 F105 D7 F106 B12 F107 C7 F108 D7 F109 G3 F112 G8 F116 A10 F117 B13 F118 C11 F120 A1 F121 A1 F122 A1 F123 A1 F124 B1 F125 B1 F126 B1 F127 B1 F128 B1 F129 B1 F130 B1 F131 B1 F132 B1 F133 E1 F134 F1 F135 E1 F136 F1 F137 F1 F138 F1 F139 F1 I110 G8 I111 G8 I113 G10 I114 G10 I115 G10 I124 E11 I125 E11 I126 F11
20
A
B
C
D
E
F
G
H
I
J
K
L
M
17
3134
100K
RES
+3V3
8
7
4
F117
2106
RES
10n
3138
47K
RES
3141
10K
RES
18
19
1101 E4 1105 B5 1M1A C1 1M2A G1 1M83 A1 1M84 E1 2101 A6 2102 A7 2103 A8 2104 B7 2105 B10 2106 B13 2107 B11
A
2108 B12 2109 D7 2110 D7 2111 G4 2112 H7 2113 H7 2114 F9 2115 F9 2116 F9 2117 F9 2118 H8 2119 H6
B
2120 H6 2121 H6 2122 F9 2123 F10 2124 F10 2125 B3 2126 F10 2127 B1 2128 B1 2129 B2 2130 F2 2131 F10
C
3101-2 D7 3101-3 D9 3101-4 E9 3102-1 D9 3102-2 D9 3102-3 E9 3102-4 D9 3103-1 E9 3103-2 G10 3103-3 G11 3103-4 G10
D
3104-1 D8 3104-2 E8 3104-3 E8 3104-4 D9 3105-1 E9 3105-2 D8 3105-3 E8 3105-4 D8 3106-1 E8 3106-2 D8 3106-3 E8 3107 C7
E
3108 C7 3109 D7 3110 D7 3111 B10 3112 D9 3113 D8 3114 E8 3115 E8 3116 E8 3117 E7 3118 E5 3119 F4
F
3120 F5 3123 C11 3124-1 E11 3124-2 E11 3124-3 E11 3124-4 E11 3125-1 F11 3125-2 F11 3125-4 F11 3126-1 F11 3126-2 F11
G
3126-4 F11 3127-1 F11 3127-4 F11 3128 E11 3129 E11 3130 G8 3131 G7 3132 H8 3133 H8 3134 A13 3135 A11 3136 A12
H
3137 B11 3138 B13 3139 B12 3140 C11 3141 C13 3142 F11
7101 A7 7102 E6 7110 F4 7116-1 B11
1
2
3
1
4
2
5
3
6
7
4
8 9
6
10
11
8
12
13
975
14
10 11 12 13
15
MICROCONTROLLER LITEON
C140
100p
2
10K
-T
2131
+3V3
3135
F116
10n
3137
2105
+3V3
3140
3123
3124-4
3128 3129
3124-2 2 7 3124-3 3125-1 1 8
3142 3125-2 3125-4 3126-2 3126-4
3126-1
3127-1 3127-4 4 5
100p
10K
7
10K
1%
1K5
RES
10K
1%1K5
RES
F118
RES
1K8 1%
45
1 83124-1
3 6
27 4 27 45
1 8
1 8
3103-336
7116-1 LM393PT
3
2
100R 100R 100R 100R 100R 100R 100R 100R
5
100R 100R
100R 100R
100R
100R 100R
+3V3
84
I124
I125
I126
10K
A
B
C
IN
1M83
F120
1
F121
2
F122
3
F123
4
F124
5
F125
6
F126
7
F127
8
F128
9
F129
10
F130
11
F131
12
F132
13 14
15 16
1M1A
1 2
3
4 5 6 7
8
9 10 11 12 13 14
15 16
1u0
2127
2128
+3V3
VLED1
VLED2
35V
35V10u
2129
10u
+3V3
VLED1
VLED2
9111
RES
9113
RES
9112
9114
TEMP-SENSOR
33p
2125
TEMP-SENSOR
SPI-DATA-IN
CONTROL-1 CONTROL-2
BLANK
EEPROM-CS
PROG
CONTROL-1 CONTROL-2
EEPROM-CS
PROG
SCL
SDA
SCL
SDA
SCL SPI-DATA-RETURN
CONTROL-1 CONTROL-2
VLED1
9107 9108
9109 9110
1105
T1.5A
SPI-CLOCK
SDA
SPI-LATCH
PWM-CLOCK
+3V3
VLED1-F
D
7102
LPC2103FBD48
E
OUT
1M84
F133
1
F135
2
F136
3
F139
4
F137
I
F
G
H
5
6
F138
7
F134
8
9 10 11 12 13 14
15 16
1M2A
1
2
3
4
5
6
7
8
9 10 11 12 13 14
15 16
VLED1
VLED2
+3V3
VLED1
VLED2
+3V3
1u0
2130
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
+3V3
10K
3119
F109
2
3
RES
5
9121
100n
2111
1101
7110
NCP303LSN10T1
IN
RST
GND
NC
CD
+3V3
16M9
1
4
+3V3
9101
3118
RES
10K
9102
F102
RES 9103
9104 RES
F104
10K
3120
+1V8
11
12
20 25
26
4
27
6
X1
X2
RTXC1 RTXC2
RTCK
VBAT
DBGSEL
RST
VDD_1V8
2119
7
VSS
MICRO-
5
+3V3
100n
43
19
Φ
P0.0|TXD0|MAT3.1
P0.1|RXD0|MAT3.2
CTRL
P0.2|SCL0|CAP0.0 P0.3|SDA0|MAT0.0
P0.4|SCK0|CAP0.1 P0.5|MISO0|MAT0.1 P0.6|MOSI0|CAP0.2 P0.7|SSEL0|MAT2.0
P0.8|TXD1|MAT2.1
P0.9|RXD1|MAT2.2 P0.10|RTS1|CAP1.0|AD0.3 P0.11|CTS1|CAP1.1|AD0.4 P0.12|DSR1|MAT1.0|AD0.5
P0.13|DTR1|MAT1.1
P0.14|DCD1|
P0.15|RI1|EINT2
P0.16|EINT0|MAT0.2
P0.17|CAP1.2|SCL1
P0.18|CAP1.3|SDA1 P0.19|MAT1.2|MISO1 P0.20|MAT1.3|MOSI1 P0.21|SSEL1|MAT3.0
P0.27|TRST|CAP2.0
P0.28|TMS|CAP2.1 P0.29|TCK|CAP2.2
P0.30|TDI|MAT3.3
VDD_3V3
17
40
9119
100n
2121
100n
2120
VSSA
SCK1|EINT1
P0.22|AD0.0 P0.23|AD0.1 P0.24|AD0.2 P0.25|AD0.6 P0.26|AD0.7
P0.31|TDO
VDDA
7101
LD2985BM18R
1
OUTIN
3
INH BP
1u0
2101
COM
2
+3V3
+3V3
10K
3107
3108
F107
F105
F108
3109
3110
100R
2109
100p
31
13 14 18 21 22 23 24 28 29
30 35 36 37
41 44 45 46 47 48
1 2
3 32 33 34 38
UD-MD
39
8
9 10 15 16
42
F103
100n
2113
10K
100R
2110
2112
5
4
2104
2102
10n
72
10K
3101-2
100p
27
3104-2
3117
10K
22R
3131
100R
100n
F101
100n
10K
10K
3116
3130
F112
9106
4u7
2103
10K
10K
45
27
3105-2
3105-4
10K
10K
1 8
3 6
3 6
3104-3
3106-1
3105-3
I110
RES
2118
RES
+1V8
10K
27
1 8
10K
RES
3106-2
3104-1
3113
10K
10K
10K
RES
3114
3106-33 6
10K
100p
3132
3133
3111
+3V3
10K
10K
10K
10K
1 8
3112
3104-4 4 5
3102-1
10K
10K
1 8
3115
3105-1
RES
2114
100p
2115
I111
10K
10K
10K
27
3 6
3101-3
3102-2
10K
45
3101-4
2116
100p
10K
3102-4 4 5
10K
8
10K
1
3 63102-3
3103-1
RES
RES
100p
2117
2124
100p
100p
2122
2123
100p
2126
100p
I113
3103-445 I114 I115
3103-2
123 45678 910111213
N
1X03
REF EMC HOLE
O
345
1
2
P
1
2
4
5
6
7
8
103
119
12
13
14
CLASS_NO
2008-08-08
NAME
Peter Van Hove
2
3
15
SETNAMECHN
DRIVER 6LED LITEON
2K9
SUPERS.
2008-06-02
DATECHECK
16
17
8204 000 8857
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
18
130
19
1
2
3
13
20
18560_500_090403.eps
2008-06-10
2008-08-08
??
O
P
A2
090410
2009-Aug-07
Page 78
Circuit Diagrams and PWB Layouts

8 LED Ambilight Microcontroller

EN 78Q548.1E LA 10.
1
A
123 45678
32 8
4
5
6
7
10
11
12
13 19
910111213
MICROCONTROLLER LITEON
3207
9209
3209
9211
3211
9213
74HCT125PW
F205
RES
74HCT125PW
F206
RES
74HCT125PW
F207
RES
2
1
7201-4
12
13
5
4
7201-3 74HCT125PW
8
INPUT BUFFER
9208 RES
7201-1
EN
9210 RES
EN
9212
7201-2
EN
9214
A
B
C
B
EEPROM-CS
PDTC144EU
33p
2209
D
PDTC144EU
C
EEPROM-CS-LOCAL
+3V3
3213
7209
3
1
2
7210
3
1
2
10K
F202
7212
PDTC144EU
+3V3
10K
3210
SPI-CS
SPI-CS
+3V3
10K
3203
F203
RES
3205
10K
5
6
1
3 11
E E
D
F
G
7214
D
(64K)
C
S
W
M95010-WDW6
+3V3
2214
100n
8
VCC
GND
2
Φ
Q
3204
7
HOLD
4
10K
SPI-DATA-RETURN
+3V3
SPI-CLOCK-BUF
SPI-DATA-IN
PWM-CLOCK
SPI-CLOCK
BLANK
SPI-DATA-RETURN
+3V3
33p
2201
33p
2202
33p
2203
1K0
+3V3
1K0
+3V3
1K0
3121
100R
RES
2220
100p
E
H
F
J
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
I
TLC5946PWP
G
PWM-CLOCK-BUF BLANK-BUF
PROG
SPI-LATCH
H
SPI-CLOCK-BUF
SPI-DATA-IN SPI-DATA-OUT
SPI-DATA-OUT-FIL
+3V3
2210
33p
3217
100R
RES
3218 3215
1K2
1K2
3216
100R
3214
10K
2211
F204
2216
1u0
7215
25
2
6
27
3
4 5 24
33p
+3V3
28
VCC
Φ
LED DRIVER
PWM CONTROL
GSCLK
BLANK
MODE
IREF
XLAT
SCLK SIN SOUT
XHALF
GND GND_HS
1
29
2215
100n
7
0
8
1
9
2
10
3
11
4
12
5
13
6
14
7
15
8
OUT
16
9
17
10
18
11
19
12
20
13
21
14
22
15
2326
XERR
VIA
32
30
31
33
3222
470R
F210
F211
F212
F213
F214
F215
EEPROM-CS-LOCAL
DATA-RETURN-SWITCH
PWM-R1
PWM-G1
PWM-B1
PWM-R2
PWM-G2
PWM-B2
EEPROM-CS-LOCAL DATA-RETURN-SWITCH
14
+3V3
14
3
7
+3V3
14
7
RES
+3V3
14
6
7
RES
+3V3
14
9
F208
10
EN
7
15
3219
100R
3220
3223
100R
169
PWM-CLOCK-BUF
100p
22172218
27R
3212
100R
SPI-CLOCK-BUF
100p
BLANK-BUF
100p
2219
SPI-DATA-OUT-FIL
DATA-RETURN-SWITCH
17
18
20
2201 B8 2202 C8 2203 D8 2209 B2 2210 G6 2211 I6 2214 A6 2215 F7 2216 F7
A
2217 B12 2218 C12 2219 D12 2220 E9
3121 D9 3203 B5 3204 B7 3205 C5 3207 B9 3209 C9 3210 B3
B
3211 C9 3212 D11 3213 B3 3214 H6 3215 H6 3216 H6 3217 H6 3218 H6 3219 B11 3220 C11 3221 H11 3222 I8
C
3223 C11 3224 H11
6216 I8 7201-1 A10 7201-2 C10 7201-3 D10 7201-4 B10 7209 B2 7210 C2 7212 B3 7214 B6 7215 G7
D
9208 A10 9209 B9 9210 B10 9211 C9 9212 C10 9213 D9 9214 D10 F202 B3 F203 C5 F204 H6 F205 B10
E
F206 C10 F207 C10 F208 D10 F209 H11 F210 G9 F211 G9 F212 G9 F213 H9 F214 H9 F215 H9
F
G
+3V3
+3V3
3K3
3K3
3221
3224
F209
H
A
B
C
D
F
G
H
I
J
K
L
I
M
N
123 456
7 8 9 10111213
O
6216
SML-310
+3V3
CLASS_NO
SETNAMECHN
DRIVER 6LED LITEON
P
NAME
12
3
5
6 15
7 8
9
10
11
12
13
14
2008-08-08
Peter Van Hove
2
3
SUPERS.
DATECHECK
16
2K9
2008-06-02
C
17 18
I
8204 000 8857
23
ROYAL PHILIPS ELECTRONICS N.V. 2008
130
194
M
N
O
2008-06-10
1
2008-08-08
2
??
3
P
A2
20
18560_501_090403.eps
090410
2009-Aug-07
Page 79

8 LED Ambilight LEDs

Circuit Diagrams and PWB Layouts
EN 79Q548.1E LA 10.
1
A
123
3
4
5
6
8
914
456
10
7
LED LITEON
B
A
VLED1-F
9307
VLED2
9308
C
B
VLED2
D
E
VLED1-F
9309-2
9309-11 8
9309-4
45
25
16
LTW-E500T-PH1
4
GREEN
RED
BLUE
7002
GND_HS
3
25
16
7
9301
9302
C
F341F340
F342
LTW-E500T-PH1
4
GREEN
RED
BLUE
F343
7000
GND_HS
3
25
16
7
LTW-E500T-PH1
4
GREEN
RED
BLUE
7001
GND_HS
3
7
9305-227
9305-445
1 89305-1
27
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
7003
GND_HS
3
2
16
7
F F
G
H
J
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
M
D
3338
560R
3340
560R
3343
560R
3346
560R
3349
E
560R
3352
560R
3355
560R
3369
560R
3370
I
560R
560R
560R
560R
560R
3371
3372
3373
3374
F
G
3341
1K5 3344
1K5 3347
1K5 3350
1K5 3353
1K5 3356
1K5 3384
1K5 3385
1K5 3386
1K5 3387
1K5
3388
1K5 3389
1K5 3390
1K5 3391
1K5
H
I
3336
390R 3337
390R 3339
390R 3342
390R
PWM-B1
PWM-R1
PWM-G1
VLED1-F
3331
3332
10K
10K
VLED1-F
3325
3326
10K
10K
VLED1-F
3327
3330
54
9320-2 72
9320-1 81
9306-1 18
9306-4 45
9306-336
F307
7307 BC847BW
F308
3334
1K0
F303
3328
1K0
10K
3333
1K0
10K
7305 BC847BW
F305
7306 BC847BW
9317
F302
9314
F304
Place jumper 9314, 9316, 9317
if VLED < 17V
9316
9320-4
N
1
2
3
456
7 8 9
9318-3
9318-1
9318-4
36
18
45
PWM-B2
PWM-R2
PWM-G2
11
8
9310-227
9310-1
9310-4
1 8
45
LTW-E500T-PH1
4 9315-227
GREEN
RED
BLUE
7004
GND_HS
7
VLED1-F
3301
3303
12 132
GREEN6GREEN6
10K
10K
VLED1-F
BLUE6BLUE6
3304
3306
3
25
16
RED6RED6
10K
10K
VLED1-F
3307
3309
9
9319-3
9319-445
9319-1
3 6
1 8
7317 BC847BW
F326
3302
1K0
F328
3305
1K0
10K
3308
1K0
10K
3 6
9303-3
9303-445
9303-11 8
9304-22
9304-11 8
45
9304-4
F325
7315 BC847BW
7316 BC847BW
F330
10 11
9312-11 8
9312-3
9312-445
3 6
7
9325
F327
F329
9326
9327
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
BLUE-2
RED-2
GREEN-2
7005
GND_HS
10
15
3
2
16
7
Place jumper 9325, 9326, 9327
G
if VLED < 17V
R
11
1 8
B
9315-44
9315-1
3335
390R 3345
390R 3348
390R 3351
390R
16
12
5
12
9313-4
9313-2
9313-1
45
27
1 8
G
B
F344
B
F347
17
13
R
F345
F346
RG
3310
1K5
3311
1K5
3312
1K5
3313
1K5
3314
1K5
3315
1K5
3316
1K5
3317
1K5
3318
1K5
3319
1K5
3320
1K5
3321
1K5
3322
1K5
3323
1K5
3354
560R
3357
560R
3358
560R
3359
560R
3360
560R
3361
560R
3362
560R
3363
560R
3364
560R
3365
560R
3366
560R
3367
560R
3368
560R
F348
9311-445
9311-3
9311-11 8
3 6
13
F349
GREEN-2
RED-2
BLUE-2
RED-1
GREEN-1
BLUE-1
18
9310-2 B8 9310-4 B8 9311-1 H13 9311-3 H13 9311-4 H12 9312-1 B10 9312-3 B10 9312-4 B10 9313-1 B12 9313-2 B12 9313-4 B12 9314 G5 9315-1 C12 9315-2 C12 9315-4 C12 9316 H5 9317 F5 9318-1 C8 9318-3 C8 9318-4 C8 9319-1 D9 9319-3 D9 9319-4 D9 9320-1 D7 9320-2 D7 9320-4 D7 9325 F10 9326 G10 9327 H10 F302 G5 F303 G4 F304 H5 F305 H5 F307 F5 F308 F4 F325 F10 F326 F9 F327 G10 F328 G9 F329 H10 F330 H10 F340 D1 F341 D1 F342 D1 F343 D2 F344 D12 F345 D12 F346 D13 F347 G12 F348 G13 F349 G13
20
197
3301 F9 3302 F9 3303 F9 3304 G9 3305 G9 3306 H9 3307 H9 3308 H9 3309 I9 3310 D12 3311 D12
A
3312 E12 3313 E12 3314 E12 3315 E12 3316 E12 3317 F12 3318 F12 3319 F12 3320 F12 3321 G12 3322 G12 3323 G12
B
3325 G4 3326 H4 3327 H4 3328 G4 3330 I4 3331 F4 3332 F4 3333 H4 3334 F4 3335 D12 3336 D2 3337 D2
C
3338 D1 3339 D2 3340 D1 3341 D1 3342 E2 3343 D1 3344 D1 3345 D12 3346 E1 3347 D1 3348 E12
D
3349 E1 3350 E1 3351 E12 3352 E1 3353 E1 3354 D13 3355 E1 3356 E1 3357 D13 3358 E13 3359 E13 3360 E13
E
3361 E13 3362 E13 3363 F13 3364 F13 3365 F13 3366 F13 3367 G13 3368 G13 3369 F1 3370 F1 3371 F1 3372 F1
F
3373 F1 3374 G1 3384 E1 3385 F1 3386 F1 3387 F1 3388 F1 3389 F1 3390 G1 3391 G1
7000 C2
G
7001 C3 7002 C4 7003 C6 7004 C8 7005 C11 7305 G4 7306 H5 7307 F4 7315 G9 7316 H10 7317 F9 9301 C1
H
9302 C1 9303-1 C10 9303-3 C10 9303-4 C10 9304-1 E10 9304-2 E10 9304-4 E10 9305-1 C6 9305-2 C6 9305-4 C6 9306-1 D5 9306-3 D5
I
9306-4 D5 9307 A6 9308 A6 9309-1 B6 9309-2 B6 9309-4 B6 9310-1 B8
A
B
C
D
E
G
H
I
J
K
L
M
N
2008-06-10
2008-08-08
??
O
P
A2
090403
O
CLASS_NO
P
NAME
1
2
4
5
63
7
8
9
10 18
11
12
13
2008-08-08
Peter Van Hove
2
3
1514
SETNAMECHN
DRIVER 6LED LITEON
2K9
SUPERS.
2008-06-02
DATECHECK
16
17
8204 000 8857
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
130
19
1
2
3
33
20
18560_502_090403.eps
2009-Aug-07
Page 80
Circuit Diagrams and PWB Layouts

8 LED Ambilight LED Drive

EN 80Q548.1E LA 10.
A
B
C
D
E
F
G
H
J
K
is prohibited without the written consent of the copyright
owner.
All rights reserved. Reproduction in whole or in parts
L
12
I
76
8 201954
9103
11
13
4121
15 16
17
18
A
12
3 4
567
8 910
LED DRIVE
A
7006
GREEN
RED
BLUE
GND_HS
2
3
16
7
2
LTW-E500T-PH1
GREEN-1
RED-1
B
BLUE-1
4
5
7007
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
GND_HS
7
3
16
C
1M85
1 2
3
4 5 6
D
E
F
7
8
9 10 11 12 13 14
15 16
1M3A
1
2
3
4
5
6
7
8
9 10 11 12 13 14
15 16
+3V3
VLED1
VLED2
+3V3
VLED1
VLED2
G
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
3538
560R
3540
560R
3543
560R
3546
560R
3549
560R
3552
560R
3555
560R
3569
560R
3570
560R
3571
560R
3572
560R
3573
560R
3574
560R
GREEN-2
RED-2
BLUE-2
3541
1K5 3544
1K5 3547
1K5 3550
1K5 3553
1K5 3556
1K5 3584
1K5 3585
1K5 3586
1K5 3587
1K5 3588
1K5 3589
1K5 3590
1K5 3591
1K5
3536
390R
390R 3539
390R 3542
390R
3537
1M3A E2 1M85 D2
3536 E9 3537 E9 3538 E7 3539 E9 3540 E7 3541 E8 3542 E9 3543 E7 3544 E8 3546 E7 3547 E8 3549 F7
A
3550 E8 3552 F7 3553 F8 3555 F7 3556 F8 3569 F7 3570 F7 3571 G7 3572 G7 3573 G7 3574 G7 3584 F8
B
3585 F8 3586 F8 3587 G8 3588 G8 3589 G8 3590 G8 3591 G8
7006 A5 7007 A7
C
B
C
D
E
F
G
D
H
E
I
F
J
K
G
L
2008-05-23
2008-08-08
0
M
NN
O
P
A2
090403
M
123
1X04
REF EMC HOLE
4
5
67
8
O
P
1
2
3
4 20
6
75
98
10
11 12
9
10
CLASS_NO
2008-05-23
1
2
2008-08-08
3
2008-10-31
Peter Van Hove
NAME
1413
15
SETNAMECHN
2LED + CONNECTOR
2K9
SUPERS.
2008-04-20
DATECHECK
16
17
8204 000 8874
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
18 19
1
2
3
11
130
18560_503_090403.eps
2009-Aug-07
Page 81

Layout 8 LED Ambilight

1M83 1M841M85
3342
9107
9302
3339
3389
3374
3385
1X03
3338
3369
3340
3384 3356
3343
3373
3350
3346
3372
3349
3347
3371 3370
3352
3344
3355
3341
3337
7000
3336
3390 3391 3386 3387 3388 3353
9301
2202
3212
3220
2218
9211
2130
9114
9110
3121
9214
9210
7201
3209
Circuit Diagrams and PWB Layouts
3109
3107
3108
21092110
9113
9109
9111
9112
2125
3221
3224
3216
2211
6216
3222
2203
1105
9212
3211
3219
9208
3207
2217
9213
9209
3223
2219
9108
2201
2220
2216
3214
2215
7001
3218
3215
21282129
7215
2210
3325
3328
3326
3217
9316
9314
7305
2101
2102
2103
7101
2104
3331
3332
3334
9308 9307
9317
3333
3327
3330
7307
7306
9309
9305
9306
3128 3129
I113
3103
I115
3124
3130
2120
2123
3102
2131
3142
7002
9103
3118
9101
3101
9104
3132 3133
I110
2119
1101
I111
I114
7102
2114
3110
9102
3120 3119
9121
3127
3106
3113
3114
3117
7110
2111
2117 2116
3115
3131
3126
2126
9106
2112 3116 9119
2113
2124 2121
3104
2122
3125
3105
2118
3112
2115
7003
EN 81Q548.1E LA 10.
3210
7214
3203
3205
7210
7212
9313
3363
3364
3365
3366
3368
3354
3359
3360
3361
3367
3357
3358
3312
3351
3310
3311
3335
3345
3348
3321
3322
7005
9311
3362
1X04
3555
3569
3570
3571
3572
3573
3574
3591
3553
3590
3589
3588
3587
3586
3546
3543
3540
3549
3552
7006
3538
3547
3585
3550
3544
3556
3541
3584
3542
3536
3537
3539
7007
9315
3315
3316
3317
3313
3314
3318
3319
3320
3136
3138
C140
3139
2209
7209
3213
2214
3204
2106
3111
2108
2105
3137
2107
3135
3140
3134
3123
3141
7116
9320
9310
9318
3305
3306
3304
9326
7315
7004
2127
3302
3301
3307
3308
3309
3303
9327
9325
7316
7317
9304
9303
9312
9319
3323
3104 313 6314.3
F347F348 F349
F135
F346
F345
F344
F326
F328
F330
F325
F327
F329
F215
F214
F213
F106
F116
F118
F133
F202 F203
F136
F209
F109
I126
F112
F117
F107 F108
F105
F104
F134
I125
F103
I124
F137
F102
F132
F130
F101
F212
F308
F305
F307
F210
F211
F303
F304
F302
F127
F204
F123
F139
F126
1M1A1M2A1M3A
F131
F207
F129
F138
F206
F208
F125
F205
F120
F122
F128
F121
F124
F343
F340
F342
F341
18490_550_090326.eps
090729
2009-Aug-07
Page 82
Circuit Diagrams and PWB Layouts

10 LED Ambilight Microcontroller

EN 82Q548.1E LA 10.
A
B
C
D
E
F
G
H
K
owner.
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
L
M
N
100n
2107
2108
1
CONTROL-1
PWM-CLOCK-BUF
SPI-CLOCK-BUF
SPI-DATA-RETURN
SPI-DATA-IN
SPI-LATCH-2
TEMP-SENSOR
EEPROM-CS
BLANK-BUF
CONTROL-2
+3V3
16
+3V3
10n
SPI-LATCH
PROG
3136
3139
SCL
SDA
1%1K5
F106
1K5 1%
100K
7116-2 LM393PT
5
6
10K
TEMP-SENSOR
7116-2 A12 9101 E5 9102 F5 9103 F5 9104 F5 9106 H8 9107 A5 9108 A5 9109 A5 9110 B5 9111 A3 9112 B2 9113 B3 9114 B2 9119 H6 9121 G4 C140 B10 F101 A8 F102 F5 F103 H7 F104 F5 F105 D7 F106 B12 F107 C7 F108 D7 F109 G3 F112 G8 F116 A10 F117 B13 F118 C11 F120 A1 F121 A1 F122 A1 F123 A1 F124 B1 F125 B1 F126 B1 F127 B1 F128 B1 F129 B1 F130 B1 F131 B1 F132 B1 F133 E1 F134 F1 F135 E1 F136 F1 F137 F1 F138 F1 F139 F1 I110 G8 I111 G8 I113 G10 I114 G10 I115 G10 I124 E11 I125 E11 I126 F11
20
A
B
C
D
E
F
G
H
I
J
K
L
M
17
3134
RES
+3V3
8
7
4
F117
2106
RES
10n
3138
47K
RES
3141
RES
18
19
1101 E4 1105 B5 1M1A C1 1M2A G1 1M83 A1 1M84 E1 2101 A6 2102 A7 2103 A8 2104 B7 2105 B10 2106 B13 2107 B11
A
2108 B12 2109 D7 2110 D7 2111 G4 2112 H7 2113 H7 2114 F9 2115 F9 2116 F9 2117 F9 2118 H8 2119 H6
B
2120 H6 2121 H6 2122 F9 2123 F10 2124 F10 2125 B3 2126 F10 2127 B1 2128 B1 2129 B2 2130 F2 2131 F10
C
3101-2 D7 3101-3 D9 3101-4 E9 3102-1 D9 3102-2 D9 3102-3 E9 3102-4 D9 3103-1 E9 3103-2 G10 3103-3 G11 3103-4 G10
D
3104-1 D8 3104-2 E8 3104-3 E8 3104-4 D9 3105-1 E9 3105-2 D8 3105-3 E8 3105-4 D8 3106-1 E8 3106-2 D8 3106-3 E8 3107 C7
E
3108 C7 3109 D7 3110 D7 3111 B10 3112 D9 3113 D8 3114 E8 3115 E8 3116 E8 3117 E7 3118 E5 3119 F4
F
3120 F5 3123 C11 3124-1 E11 3124-2 E11 3124-3 E11 3124-4 E11 3125-1 F11 3125-2 F11 3125-4 F11 3126-1 F11 3126-2 F11
G
3126-4 F11 3127-1 F11 3127-4 F11 3128 E11 3129 E11 3130 G8 3131 G7 3132 H8 3133 H8 3134 A13 3135 A11 3136 A12
H
3137 B11 3138 B13 3139 B12 3140 C11 3141 C13 3142 F11
7101 A7 7102 E6 7110 F4 7116-1 B11
1
2
3
1
4
2
5
3
6
7
4
8 9
6
10
11
8
12
13
975
14
10 11 12 13
15
MICROCONTROLLER BLOCK LITEON
A
B
C
IN
1M83
F120
1
F121
2
F122
3
F123
4
F124
5
F125
6
F126
7
F127
8
F128
9
F129
10
F130
11
F131
12
F132
13 14
15 16
1M1A
1 2
3
4 5 6 7
8
9 10 11 12 13 14
15 16
1u0
2128
2127
+3V3
VLED1
VLED2
35V
35V10u
2129
10u
+3V3
VLED1
VLED2
9111 RES
9113
RES
33p
2125
9112
9114
SPI-DATA-IN
CONTROL-1 CONTROL-2
BLANK
EEPROM-CS
TEMP-SENSOR
PROG
CONTROL-1 CONTROL-2
EEPROM-CS
TEMP-SENSOR
PROG
SCL
SDA
SCL
SDA
SCL SPI-DATA-RETURN
CONTROL-1 CONTROL-2
VLED1
9107 9108
9109
9110
1105
T1.5A
SPI-CLOCK
SPI-LATCH
PWM-CLOCK
SDA
VLED1-F
+3V3
D
7102
X1
X2
RTXC1 RTXC2
RTCK
VBAT
DBGSEL
RST
VDD_1V8
2119
7
VSS
MICRO-
CTRL
5
+3V3
100n
43
19
VSSA
Φ
P0.0|TXD0|MAT3.1 P0.1|RXD0|MAT3.2
P0.2|SCL0|CAP0.0 P0.3|SDA0|MAT0.0 P0.4|SCK0|CAP0.1
P0.5|MISO0|MAT0.1 P0.6|MOSI0|CAP0.2 P0.7|SSEL0|MAT2.0
P0.8|TXD1|MAT2.1 P0.9|RXD1|MAT2.2
P0.10|RTS1|CAP1.0|AD0.3 P0.11|CTS1|CAP1.1|AD0.4
P0.12|DSR1|MAT1.0|AD0.5
P0.13|DTR1|MAT1.1
P0.14|DCD1|
SCK1|EINT1
P0.15|RI1|EINT2
P0.16|EINT0|MAT0.2
P0.17|CAP1.2|SCL1
P0.18|CAP1.3|SDA1 P0.19|MAT1.2|MISO1 P0.20|MAT1.3|MOSI1 P0.21|SSEL1|MAT3.0
P0.22|AD0.0 P0.23|AD0.1 P0.24|AD0.2 P0.25|AD0.6 P0.26|AD0.7
P0.27|TRST|CAP2.0
P0.28|TMS|CAP2.1
P0.29|TCK|CAP2.2
P0.30|TDI|MAT3.3
P0.31|TDO
VDD_3V3
VDDA
17
40
9119
100n
2121
100n
2120
LPC2103FBD48
F104
11
12
20 25
9101
3118
26
RES
10K
9102
4
F102
9104
27
RES
6
+1V8
E
OUT
1M84
F133
1
F135
2
F136
3
F139
4
F137
I
F
J
G
H
5 6
F138
7
F134
8
9 10 11 12 13 14
15 16
1M2A
1
2
3
4
5
6
7
8
9 10 11 12 13 14
15 16
VLED1
VLED2
+3V3
VLED1
VLED2
+3V3
1u0
2130
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
F109
+3V3
10K
3119
2
3
RES
5
9121
100n
2111
1101
7110
NCP303LSN10T1
IN
RST
GND
NC
CD
+3V3
16M9
1
4
+3V3
RES 9103
10K
3120
7101
LD2985BM18R
1
OUTIN
3
INH BP
1u0
2101
COM
2
+3V3
+3V3
10K
3107
3108
F107
F105
F108
3110
3109
100R
2109
100p
31
13 14 18 21 22 23 24 28 29
30 35 36 37
41 44 45 46 47 48
1 2
3 32 33 34 38 39
UD-MD
8
9 10 15 16
42
F103
100n
2113
10K
100R
2110
2112
5
4
2104
2102
10n
72
10K
3101-2
100p
27
3104-2
3117
10K
22R
3131
100R
100n
F101
100n
10K
10K
3116
3130
F112
9106
4u7
2103
10K
10K
45
27
3105-2
3105-4
10K
10K
1 8
3 6
3 6
3104-3
3105-3
3106-1
I110
RES
2118
RES
+1V8
10K
27
1 8
10K
RES
3106-2
3104-1
3113
10K
10K
10K
RES
3114
3106-33 6
10K
100p
3132
3133
+3V3
10K
10K
10K
1 8
3112
3104-4 4 5
3102-1
10K
10K
1 8
3115
3105-1
RES2114
2115
100p
I111
10K
10K
10K
3 6
27
3101-3
3102-2
10K
45
3101-4
100p
2116
10K
10K
3102-4 4 5
10K
8
10K
1
3 63102-3
3103-1
RES
RES
100p
100p
2122
100p
2117
2126
2124
2123
100p
100p
I113
3103-445 I114 I115
3103-2
+3V3
1%
3135
1K5
F116
RES
10K
10n
3137
2105
3111
-T
C140
100p
2
2131
+3V3
3140
3123
3124-4
3128 3129
3124-2 2 7 3124-3 3125-1 1 8
3142 3125-2 3125-4 3126-2 3126-4
3126-1
3127-1 3127-4 4 5
100p
10K
3103-336
7
10K
10K
1%1K5
1K8 1%
45
1 83124-1
3 6
27 4 27 45
1 8
1 8
RES
F118
RES
7116-1 LM393PT
3
2
100R 100R 100R 100R 100R 100R 100R 100R
5
100R 100R
100R 100R
100R
100R 100R
+3V3
8
4
I124
I125
I126
10K
123 45678 9 10111213
N
1X03
REF EMC HOLE
2008-06-10
2008-08-08
??
O
P
A2
O
2
345
1
P
1
2
4
5
6
7
8
103
119
12
13
14
CLASS_NO
2008-08-08
NAME
Peter Van Hove
2
3
15
SETNAMECHN
DRIVER 6LED LITEON
2K9
SUPERS.
2008-06-02
DATECHECK
16
17
8204 000 8857
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
18
130
19
1
2
3
13
20
2009-Aug-07
Page 83
Circuit Diagrams and PWB Layouts

10 LED Ambilight Microcontroller

EN 83Q548.1E LA 10.
SPI-CS
+3V3
3203
F203
3205
PWM-CLOCK-BUF BLANK-BUF
PROG
SPI-LATCH
SPI-CLOCK-BUF
SPI-DATA-IN SPI-DATA-OUT
SPI-DATA-OUT-FIL
7
10
11
12
13 19
14
15
910111213
INPUT BUFFER
+3V3
2214
100n
7214
8
VCC
5
D
(64K)
6
10K
RES
10K
C
1
S
3 11
W
M95010-WDW6
GND
2
Φ
Q
3204
7
HOLD
4
10K
SPI-DATA-RETURN
+3V3
SPI-CLOCK-BUF
SPI-DATA-IN
PWM-CLOCK
SPI-CLOCK
BLANK
SPI-DATA-RETURN
3207
+3V3
33p
2201
+3V3
33p
2202
+3V3
33p
2203
RES
2220
100p
3121
100R
RES
1K0
9209
3209
RES
1K0
9211
3211
RES
1K0
9213
7201-1
74HCT125PW
2
F205
1
7201-4
74HCT125PW
12
F206
13
7201-2
74HCT125PW
5
F207
4
7201-3 74HCT125PW
8
9208 RES
EN
9210 RES
EN
9212
EN
9214
+3V3
14
3
7
+3V3
14
7
RES
+3V3
14
6
7
RES
+3V3
14
9
F208
10
EN
7
3219
100R
3220
3223
100R
27R
3212
100R
169
PWM-CLOCK-BUF
100p
22172218
SPI-CLOCK-BUF
100p
BLANK-BUF
2219
100p
SPI-DATA-OUT-FIL
DATA-RETURN-SWITCH
17
18
20
2201 B8 2202 C8 2203 D8 2209 B2 2210 G6 2211 I6 2214 A6 2215 F7 2216 F7
A
2217 B12 2218 C12 2219 D12 2220 E9
3121 D9 3203 B5 3204 B7 3205 C5 3207 B9 3209 C9 3210 B3
B
3211 C9 3212 D11 3213 B3 3214 H6 3215 H6 3216 H6 3217 H6 3218 H6 3219 B11 3220 C11 3221 H11 3222 I8
C
3223 C11 3224 H11
6216 I8 7201-1 A10 7201-2 C10 7201-3 D10 7201-4 B10 7209 B2 7210 C2 7212 B3 7214 B6 7215 G7
D
9208 A10 9209 B9 9210 B10 9211 C9 9212 C10 9213 D9 9214 D10 F202 B3 F203 C5 F204 H6 F205 B10
E
F206 C10 F207 C10 F208 D10 F209 H11 F210 G9 F211 G9 F212 G9 F213 H9 F214 H9 F215 H9
F
+3V3
28
VCC
Φ
LED DRIVER
PWM CONTROL
GSCLK
BLANK
MODE
IREF
XLAT
SCLK SIN SOUT
XHALF
GND GND_HS
1
29
2215
100n
7
0
8
1
9
2
10
3
11
4
12
5
13
6
14
7
15
OUT
8
16
9
17
10
18
11
19
12
20
13
21
14
22
15
2326
XERR
VIA
32
33
30
31
3222
470R
F210
F211
F212
F213
F214
F215
EEPROM-CS-LOCAL
DATA-RETURN-SWITCH
PWM-R1
PWM-G1
PWM-B1
PWM-R2
PWM-G2
PWM-B2
EEPROM-CS-LOCAL DATA-RETURN-SWITCH
+3V3
+3V3
3K3
3K3
3224
F209
3221
G
H
+3V3
2216
1u0
7215
TLC5946PWP
25
2210
33p
3217
100R
RES
3218 3215
1K2
1K2
3216
100R
3214
10K
2
6
F204
27
3
4 5 24
33p
2211
1
A
123 45678
32 8
4
5
6
MICROCONTROLLER BLOCK LITEON
A
B
C
B
EEPROM-CS
PDTC144EU
1
33p
2209
D
PDTC144EU
C
EEPROM-CS-LOCAL
1
+3V3
3213
7209
3
2
7210
3
2
10K
F202
7212
PDTC144EU
+3V3
10K
3210
SPI-CS
E E
D
F
G
E
H
F
I
J
G
K
owner.
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
H
L
A
B
C
D
F
G
H
I
J
K
L
I
M
N
123 456
7 8 9 10111213
O
P
12
3
5
6 15
7 8
9
10
6216
SML-310
+3V3
I
M
N
2008-06-10
2008-08-08
??
O
P
A2
090306
11
12
13
14
CLASS_NO
2008-08-08
NAME
Peter Van Hove
SETNAMECHN
DRIVER 6LED LITEON
2
3
SUPERS.
DATECHECK
16
2K9
2008-06-02
C
17 18
8204 000 8857
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130
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1
2
3
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18310_631_090306.eps
2009-Aug-07
Page 84

10 LED Ambilight LEDs

Circuit Diagrams and PWB Layouts
EN 84Q548.1E LA 10.
1
A
123
3
4
5
6
8
914
456
10
7
LED LITEON
B
A
VLED1-F
VLED2
9307
9308
C
B
VLED1-F
D
C
E
VLED2
9309-11 8
9309-2
9309-4
45
9301
9302
F341F340
F342
LTW-E500T-PH1
4
GREEN
RED
BLUE
F343
7000
GND_HS
3
25
16
7
LTW-E500T-PH1
4
GREEN
RED
BLUE
7001
GND_HS
3
25
16
7
7002
LTW-E500T-PH1
4
GREEN
RED
BLUE
GND_HS
3
25
16
7
9305-227
9305-445
1 89305-1
27
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
7003
GND_HS
7
3
2
16
9318-3
9318-1
9318-4
F F
G
H
K
All rights reserved. Reproduction in whole or in parts
owner.
is prohibited without the written consent of the copyright
L
M
D
E
I
F
J
G
3338
560R
3340
560R
3343
560R
3346
560R
3349
560R
3352
560R
3355
560R
3369
560R
3370
560R
3371
560R
3372
560R
3373
560R
3374
560R
3341
1K5 3344
1K5 3347
1K5 3350
1K5 3353
1K5 3356
1K5 3384
1K5 3385
1K5 3386
1K5 3387
1K5
3388
1K5 3389
1K5 3390
1K5 3391
1K5
H
I
3336
390R 3337
390R 3339
390R 3342
390R
PWM-B1
PWM-R1
PWM-G1
VLED1-F
3331
3332
10K
10K
VLED1-F
3325
3326
10K
10K
VLED1-F
3327
3330
54
9320-2 72
9320-1 81
9306-4 45
9306-336
9306-1 18
F307
7307 BC847BW
F308
3334
1K0
F303
3328
1K0
10K
3333
1K0
10K
7305 BC847BW
7306 BC847BW
F305
9317
F302
Place jumper 9314, 9316, 9317
if VLED < 17V
9314
F304
9316
9320-4
N
9310-4
9310-227
45
36
18
45
PWM-B2
PWM-R2
PWM-G2
11
8
9310-1
1 8
LTW-E500T-PH1
4 9315-227
GREEN
RED
BLUE
7004
GND_HS
7
VLED1-F
3301
3303
12 132
GREEN6GREEN6
BLUE6BLUE6
10K
10K
VLED1-F
3304
3306
3
RED6RED6
10K
10K
VLED1-F
9
25
16
9319-1
1 8
3302
1K0
10K
3307
10K
3309
3 6
9303-3
9303-445
9303-11 8
9319-3
9319-4
3 6
45
45
7317 BC847BW
F326
7315 BC847BW
F328
3305
1K0
7316 BC847BW
F330
3308
1K0
10 11
9312-445
9312-1
9312-3
3 6
1 8
LTW-E500T-PH1
4
5
9304-22
7
9304-11 8
9304-4
F325
BLUE-2
9325
F327
RED-2
9326
F329
GREEN-2
9327
GREEN
RED
BLUE
7005
GND_HS
15
3
2
16
7
Place jumper 9325, 9326, 9327
G
if VLED < 17V
R
9315-44
1 8
9315-1
B
3335
390R 3345
390R 3348
390R 3351
390R
16
12
9313-1
1 8
B
5
F344
B
F347
17
9313-4
9313-2
45
27
G
R
F345
RG
3310
1K5
3311
1K5
3312
1K5
3313
1K5
3314
1K5
3315
1K5 3316
1K5 3317
1K5 3318
1K5 3319
1K5 3320
1K5 3321
1K5 3322
1K5 3323
1K5
F348
9311-3
9311-445
3 6
18
13
F346
RED-1
GREEN-1
3354
560R
3357
560R
3358
560R
3359
560R
3360
560R
3361
560R
3362
560R
3363
560R
3364
560R
3365
560R
3366
560R
3367
560R
3368
560R
9311-11 8
BLUE-1
F349
GREEN-2
RED-2
BLUE-2
197
3301 F9 3302 F9 3303 F9 3304 G9 3305 G9 3306 H9 3307 H9 3308 H9 3309 I9 3310 D12 3311 D12
A
3312 E12 3313 E12 3314 E12 3315 E12 3316 E12 3317 F12 3318 F12 3319 F12 3320 F12 3321 G12 3322 G12 3323 G12
B
3325 G4 3326 H4 3327 H4 3328 G4 3330 I4 3331 F4 3332 F4 3333 H4 3334 F4 3335 D12 3336 D2 3337 D2
C
3338 D1 3339 D2 3340 D1 3341 D1 3342 E2 3343 D1 3344 D1 3345 D12 3346 E1 3347 D1 3348 E12
D
3349 E1 3350 E1 3351 E12 3352 E1 3353 E1 3354 D13 3355 E1 3356 E1 3357 D13 3358 E13 3359 E13 3360 E13
E
3361 E13 3362 E13 3363 F13 3364 F13 3365 F13 3366 F13 3367 G13 3368 G13 3369 F1 3370 F1 3371 F1 3372 F1
F
3373 F1 3374 G1 3384 E1 3385 F1 3386 F1 3387 F1 3388 F1 3389 F1 3390 G1 3391 G1
7000 C2
G
7001 C3 7002 C4 7003 C6 7004 C8 7005 C11 7305 G4 7306 H5 7307 F4 7315 G9 7316 H10 7317 F9 9301 C1
H
9302 C1 9303-1 C10 9303-3 C10 9303-4 C10 9304-1 E10 9304-2 E10 9304-4 E10 9305-1 C6 9305-2 C6 9305-4 C6 9306-1 D5 9306-3 D5
I
9306-4 D5 9307 A6 9308 A6 9309-1 B6 9309-2 B6 9309-4 B6 9310-1 B8
9310-2 B8 9310-4 B8 9311-1 H13 9311-3 H13 9311-4 H12 9312-1 B10 9312-3 B10 9312-4 B10 9313-1 B12 9313-2 B12 9313-4 B12 9314 G5 9315-1 C12 9315-2 C12 9315-4 C12 9316 H5 9317 F5 9318-1 C8 9318-3 C8 9318-4 C8 9319-1 D9 9319-3 D9 9319-4 D9 9320-1 D7 9320-2 D7 9320-4 D7 9325 F10 9326 G10 9327 H10 F302 G5 F303 G4 F304 H5 F305 H5 F307 F5 F308 F4 F325 F10 F326 F9 F327 G10 F328 G9 F329 H10 F330 H10 F340 D1 F341 D1 F342 D1 F343 D2 F344 D12 F345 D12 F346 D13 F347 G12 F348 G13 F349 G13
20
A
B
C
D
E
G
H
I
J
K
L
M
N
1
2
O
P
1
2
4
3
5
456
63
7
8
9
7 8 9
10
11
CLASS_NO
12
SETNAMECHN
13
DRIVER 6LED LITEON
2
2008-08-08
3
Peter Van Hove
NAME
10 18
11
12
13
1514
SUPERS.
DATECHECK
16
2K9
2008-06-02
17
8204 000 8857
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
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19
O
2008-06-10
1
2008-08-08
2
??
3
P
33
A2
20
18310_632_090306.eps
090306
2009-Aug-07
Page 85
Circuit Diagrams and PWB Layouts

10 LED Ambilight LED Drive

EN 85Q548.1E LA 10.
A
B
C
D
E
F
G
H
K
owner.
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
L
1
45
6
7
8 20
9
10
11
12
13
142 3
15
17
18 1916
A
1
2 3 456
7
8
9
10
LED DRIVE
A
7006
GREEN
RED
BLUE
GND_HS
7
2
3
2
LTW-E500T-PH1
GREEN-1
RED-1
B
BLUE-1
4
5
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
7007
GND_HS
3
16
7
2
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
7008
GND_HS
7009
LTW-E500T-PH1
4
3
1616
7
2
GREEN
RED
5
BLUE
GND_HS
3
16
7
C
1M85
1 2
3
4 5
D
E
I
J
F
6 7
8
9 10 11 12 13 14
15 16
1M3A
1
2
3
4
5
6
7
8
9 10 11 12 13 14
15 16
+3V3
VLED1
VLED2
+3V3
VLED1
VLED2
G
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
GREEN-2
RED-2
BLUE-2
3538
560R
3540
560R
3543
560R
3
546
560R
3549
560R
3552
560R
3555
560R
3569
560R
3570
560R
3571
560R
3572
560R
3573
560R
3574
560R
3541
1K5 3544
1K5 3547
1K5 3550
1K5 3553
1K5 3556
1K5 3584
1K5 3585
1K5 3586
1K5 3587
1K5 3588
1K5 3589
1K5 3590
1K5 3591
1K5
3536
390R 3537
390R 3539
390R 3542
390R
1M3A E2 1M85 D2
3536 E9 3537 E9 3538 E7 3539 E9 3540 E7 3541 E8 3542 E9 3543 E7 3544 E8 3546 E7 3547 E8 3549 F7
A
3550 E8 3552 F7 3553 F8 3555 F7 3556 F8 3569 F7 3570 F7 3571 G7 3572 G7 3573 G7 3574 G7 3584 F8
B
3585 F8 3586 F8 3587 G8 3588 G8 3589 G8 3590 G8 3591 G8
7006 A2 7007 A4 7008 A5 7009 A6
C
B
C
D
E
F
G
D
H
E
I
F
J
K
G
L
M
12
1X04
REF EMC HOLE
3
4
O
P
12 14
3
4
5
67
5678 910
CLASS_NO
2008-08-14
2008-10-3123
NAME
Peter Van Hove
8 1211
9
10
13 19
15
EMANTESNHC
4 LED + CONNECTOR
LITEON 2K9
SUPERS.
CHECK DATE
2008-07-29
16
1
232008-10-24
8204 000 8897
11
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
17
18
130
20
18310_633_090306.eps
M
NN
O
2008-08-14
2008-10-31
P
A2
090306
2009-Aug-07
Page 86

Layout 10 LED Ambilight

1M83 1M841M85
1X03
3342 3339
3337
7000
3336
9110
2130
9114
9107
2202
9302
3338
3374
3385
3389
3369
3340
3384
3390
3121
3356
3343
3373
3391
3350
3346
3372
3386
3212
9214
3371
3387
3349
3347
3370
3388
3352
3344
3220
2218
9210
3355
7201
3353
3341
3209
9301
9211
9108
2201
2220
Circuit Diagrams and PWB Layouts
3107
3109
3108
21092110
I113
3103
I115
3124
3130
2120
2123
2131
3142
7002
9103
9101
3118
3101
9104
3128 3129
3132 3133
I110
1101
I114
7102
3102
2114
3110
2119
I111
9113
9109
9112
9111
2125
3221
3224
3216
2211
6216
3222
2203
1105
9212
3211
9208
3219
3207
2217
9213
9209
3223
2219
2216 2215
3214
7001
3215
3218
7215
2210
3328
3326
3217
9316
9314
7305
21282129
2101
2102
2103
7101
2104
3334
3331
3332
9308 9307
9317
3327
3333
3330
3325
7307
7306
9309
9305
9306
3120 3119
9121
3106
3127
3113
3114
9102
3117
7110
2111
2117 2116
3115
3131
3126
2126
9106
2112 3116 9119
2113
2124 2121
3104
2122
3105
3125
2118
3112
2115
2209
7209
7210
3213
7212
2214
3204
3210
7214
7003
3203
3205
3136
3138
3139
2106
2108
2107
3134 3141
9318
9320
C140
3111
2105
3137
3135
3140
3123
7116
9310
EN 86Q548.1E LA 10.
3305
3306
9326
7315
7004
9313
3363
3354
3359
3360
3364
3365
3368
3357
3358
3361
3362
3366
3367
9315
3314
2127
3301
3302
3308
3307
3303
3304
3309
9325
9327
7316
7317
9319
9304
9303
9312
3316
3317
3315
3319
3320
3318
3312
3310
3311
3335
3313
3321
3322
3323
7005
3351
3345
3348
1X04
3555
3569
3570
3571
3572
3574
3573
3588
3553
3586
3587
3589
3590
3591
3538
3543
3540
3546
3552
9311
7006
7007
7008
3549
3541
3544
3547
3556
3550
3584
3585
3537
3539
3536
7009
3542
3104 313 6315.2
F347F348 F349
F135
F346
F345
F344
F326
F328
F330
F325
F329
F215
F214
F116
F213
F327
F106
F118
F209
F202 F203
F133
F136
I126
F107 F108
F105
F104
F109
F134
I125
F112
F117
I124
F137
F103
F102
F132
F130
F212
F101
F210
F308
F305
F211
F303
F307
F304
F204
F302
F123
F127
F139
F126
1M1A1M2A1M3A
F131
F138
F207
F208
F125
F205
F120
F122
F128
F121
F206
F342
F124
F340
F343
F341
18310_553_090309
090309
F129
2009-Aug-07
Page 87
Circuit Diagrams and PWB Layouts

12 LED Ambilight Microcontroller

EN 87Q548.1E LA 10.
A
B
C
D
E
F
G
H
J
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
M
N
100n
2107
1
PWM-CLOCK-BUF
SPI-CLOCK-BUF
SPI-DATA-RETURN
SPI-LATCH-2
TEMP-SENSOR
+3V3
16
+3V3
3136
10n
2108
3139
CONTROL-1
SPI-DATA-IN
SPI-LATCH
EEPROM-CS
BLANK-BUF
PROG
CONTROL-2
SDA
SCL
1%1K5
F106
1K5 1%
100K
7116-2 LM393PT
5
6
TEMP-SENSOR
7116-2 A12 9101 E5 9102 F5 9103 F5 9104 F5 9106 H8 9107 A5 9108 A5 9109 A5 9110 B5 9111 A3 9112 B2 9113 B3 9114 B2 9119 H6 9121 G4 C140 B10 F101 A8 F102 F5 F103 H7 F104 F5 F105 D7 F106 B12 F107 C7 F108 D7 F109 G3 F112 G8 F116 A10 F117 B13 F118 C11 F120 A1 F121 A1 F122 A1 F123 A1 F124 B1 F125 B1 F126 B1 F127 B1 F128 B1 F129 B1 F130 B1 F131 B1 F132 B1 F133 E1 F134 F1 F135 E1 F136 F1 F137 F1 F138 F1 F139 F1 I110 G8 I111 G8 I113 G10 I114 G10 I115 G10 I124 E11 I125 E11 I126 F11
20
A
B
C
D
E
F
G
H
I
J
K
L
M
17
3134
RES
+3V3
8
7
4
F117
2106
RES
10n
3138
47K
RES
3141
10K
RES
18
19
1101 E4 1105 B5 1M1A C1 1M2A G1 1M83 A1 1M84 E1 2101 A6 2102 A7 2103 A8 2104 B7 2105 B10 2106 B13 2107 B11
A
2108 B12 2109 D7 2110 D7 2111 G4 2112 H7 2113 H7 2114 F9 2115 F9 2116 F9 2117 F9 2118 H8 2119 H6
B
2120 H6 2121 H6 2122 F9 2123 F10 2124 F10 2125 B3 2126 F10 2127 B1 2128 B1 2129 B2 2130 F2 2131 F10
C
3101-2 D7 3101-3 D9 3101-4 E9 3102-1 D9 3102-2 D9 3102-3 E9 3102-4 D9 3103-1 E9 3103-2 G10 3103-3 G11 3103-4 G10
D
3104-1 D8 3104-2 E8 3104-3 E8 3104-4 D9 3105-1 E9 3105-2 D8 3105-3 E8 3105-4 D8 3106-1 E8 3106-2 D8 3106-3 E8 3107 C7
E
3108 C7 3109 D7 3110 D7 3111 B10 3112 D9 3113 D8 3114 E8 3115 E8 3116 E8 3117 E7 3118 E5 3119 F4
F
3120 F5 3123 C11 3124-1 E11 3124-2 E11 3124-3 E11 3124-4 E11 3125-1 F11 3125-2 F11 3125-4 F11 3126-1 F11 3126-2 F11
G
3126-4 F11 3127-1 F11 3127-4 F11 3128 E11 3129 E11 3130 G8 3131 G7 3132 H8 3133 H8 3134 A13 3135 A11 3136 A12
H
3137 B11 3138 B13 3139 B12 3140 C11 3141 C13 3142 F11
7101 A7 7102 E6 7110 F4 7116-1 B11
1
2
1
3
4
2
5
3
6
7
4
8 9
6
10
11
8
12
13
975
14
10 11 12 13
15
MICROCONTROLLER LITEON
A
B
C
IN
1M83
F120
1
F121
2
F122
3
F123
4
F124
5
F125
6
F126
7
F127
8
F128
9
F129
10
F130
11
F131
12
F132
13 14
15 16
1M1A
1 2
3
4 5 6 7
8
9 10 11 12 13 14
15 16
1u0
2127
2128
+3V3
VLED1
VLED2
35V
35V10u
2129
10u
+3V3
VLED1
VLED2
9111
RES
9113
RES
9112
9114
TEMP-SENSOR
33p
2125
TEMP-SENSOR
SPI-DATA-IN
CONTROL-1 CONTROL-2
BLANK
EEPROM-CS
PROG
CONTROL-1 CONTROL-2
EEPROM-CS
PROG
SCL
SDA
SCL
SDA
SCL SPI-DATA-RETURN
CONTROL-1 CONTROL-2
VLED1
9107 9108
9109 9110
1105
T1.5A
SPI-CLOCK
SPI-LATCH
PWM-CLOCK
SDA
VLED1-F
+3V3
D
7102
LPC2103FBD48
E
OUT
1M84
F133
1
F135
2
F136
3
F139
4
F137
I
F
G
H
5
6
F138
7
F134
8
9 10 11 12 13 14
15 16
1M2A
1
2
3
4
5
6
7
8
9 10 11 12 13 14
15 16
VLED1
VLED2
+3V3
VLED1
VLED2
+3V3
1u0
2130
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
+3V3
10K
3119
F109
2
3
RES
5
9121
100n
2111
7110
NCP303LSN10T1
IN
RST
GND
NC
CD
16M9
1101
+3V3
+3V3
3120
1
4
9101
3118
RES
10K
9102
F102
RES 9103
9104 RES
F104
10K
+1V8
11
12
20 25
26
4
27
6
X1
X2
RTXC1 RTXC2
RTCK
VBAT
DBGSEL
RST
VDD_1V8
2119
7
VSS
MICRO-
CTRL
5
+3V3
100n
43
19
Φ
P0.0|TXD0|MAT3.1
P0.1|RXD0|MAT3.2
P0.2|SCL0|CAP0.0
P0.3|SDA0|MAT0.0
P0.4|SCK0|CAP0.1 P0.5|MISO0|MAT0.1 P0.6|MOSI0|CAP0.2 P0.7|SSEL0|MAT2.0
P0.8|TXD1|MAT2.1
P0.9|RXD1|MAT2.2 P0.10|RTS1|CAP1.0|AD0.3 P0.11|CTS1|CAP1.1|AD0.4
P0.12|DSR1|MAT1.0|AD0.5
P0.13|DTR1|MAT1.1
SCK1|EINT1
P0.14|DCD1|
P0.15|RI1|EINT2
P0.16|EINT0|MAT0.2
P0.17|CAP1.2|SCL1
P0.18|CAP1.3|SDA1 P0.19|MAT1.2|MISO1 P0.20|MAT1.3|MOSI1 P0.21|SSEL1|MAT3.0
P0.22|AD0.0 P0.23|AD0.1 P0.24|AD0.2 P0.25|AD0.6 P0.26|AD0.7
P0.27|TRST|CAP2.0
P0.28|TMS|CAP2.1
P0.29|TCK|CAP2.2
P0.30|TDI|MAT3.3
VDD_3V3
17
40
9119
100n
2121
100n
2120
VSSA
P0.31|TDO
VDDA
7101
LD2985BM18R
1
OUTIN
3
INH BP
1u0
2101
COM
2
+3V3
+3V3
10K
3107
3108
F107
F105
F108
3109
3110
100R
2109
100p
31
13 14 18 21 22 23 24 28 29
30 35 36 37
41 44 45 46 47 48
1 2
3 32 33 34 38
UD-MD
39
8
9 10 15 16
42
F103
100n
2113
10K
100R
2110
2112
5
4
2104
2102
10n
72
10K
3101-2
100p
27
3104-2
3117
10K
3130
22R
3131
100R
100n
10K
3116
F112
F101
100n
10K
3 6
3104-3
9106
RES
4u7
2103
10K
45
273105-2
3105-4
10K
10K
3 6
3105-3
RES
2118
+1V8
10K
10K
27
RES
3106-2
3113
10K
10K
1 8
3106-1
3106-33 6
I110
10K
100p
3133
+3V3
10K
10K
10K
10K
1 8
1 8
10K
3104-4 4 5
3102-1
3104-1
10K
10K
RES
1 8
3114
3115
3105-1
RES
2114
100p
2115
I111
10K
3132
10K
3 6
3101-3
3112
10K
100p
10K
10K
27
3102-2
3102-4 4 5
10K
8
10K
3 63102-3
45
3103-1
3101-4
100p
2116
2117
10K
1
RES
RES
2124
2122
100p
2123
100p
2126
100p
100p
I113
3103-445 I114 I115
3103-2
+3V3
1%
3135
1K5
F116
RES
10K
10n
3137
2105
3111
-T
C140
+3V3
3140
3123
3124-4
3128 3129
3124-2 2 7 3124-3
3125-1 1 8
3142 3125-2 3125-4 3126-2 3126-4
3126-1
3127-1 3127-4 4 5
100p
2131
100p
10K
3103-336
7
10K
2
10K
7116-1 LM393PT
1%1K5
RES
3
F118
2
RES
1K8 1%
45
100R 100R
1 83124-1
100R 100R
3 6
100R 100R 100R 100R
27
5
100R
4
100R
27
100R
45
100R
1 8
100R
1 8
100R 100R
+3V3
84
I124
I125
I126
10K
123 45678 910111213
N
1X03
REF EMC HOLE
O
345
1
2
P
1
2
4
5
6
7
8
103
119
12
13
14
CLASS_NO
2008-08-08
NAME
Peter Van Hove
2
3
15
SETNAMECHN
DRIVER 6LED LITEON
2K9
SUPERS.
2008-06-02
DATECHECK
16
17
8204 000 8857
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
18
130
19
1
2
3
13
20
18560_510_090403.eps
2008-06-10
2008-08-08
??
O
P
A2
090410
2009-Aug-07
Page 88
Circuit Diagrams and PWB Layouts

12 LED Ambilight Microcontroller

EN 88Q548.1E LA 10.
1
A
123 45678
32 8
4
5
6
7
10
11
12
13 19
910111213
MICROCONTROLLER LITEON
3207
9209
3209
9211
3211
9213
74HCT125PW
F205
RES
74HCT125PW
F206
RES
74HCT125PW
F207
RES
2
1
7201-4
12
13
5
4
7201-3 74HCT125PW
8
INPUT BUFFER
9208 RES
7201-1
EN
9210 RES
EN
9212
7201-2
EN
9214
A
B
C
B
EEPROM-CS
PDTC144EU
33p
2209
D
PDTC144EU
C
EEPROM-CS-LOCAL
+3V3
3213
7209
3
1
2
7210
3
1
2
10K
F202
7212
PDTC144EU
+3V3
10K
3210
SPI-CS
SPI-CS
+3V3
10K
3203
F203
RES
3205
10K
5
6
1
3 11
E E
D
F
G
7214
D
(64K)
C
S
W
M95010-WDW6
+3V3
2214
100n
8
VCC
GND
2
Φ
Q
3204
7
HOLD
4
10K
SPI-DATA-RETURN
+3V3
SPI-CLOCK-BUF
SPI-DATA-IN
PWM-CLOCK
SPI-CLOCK
BLANK
SPI-DATA-RETURN
+3V3
33p
2201
33p
2202
33p
2203
1K0
+3V3
1K0
+3V3
1K0
3121
100R
RES
2220
100p
E
H
F
J
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
I
TLC5946PWP
G
PWM-CLOCK-BUF BLANK-BUF
PROG
SPI-LATCH
H
SPI-CLOCK-BUF
SPI-DATA-IN SPI-DATA-OUT
SPI-DATA-OUT-FIL
+3V3
2210
33p
3217
100R
RES
3218 3215
1K2
1K2
3216
100R
3214
10K
2211
F204
2216
1u0
7215
25
2
6
27
3
4 5 24
33p
+3V3
28
VCC
Φ
LED DRIVER
PWM CONTROL
GSCLK
BLANK
MODE
IREF
XLAT
SCLK SIN SOUT
XHALF
GND GND_HS
1
29
2215
100n
7
0
8
1
9
2
10
3
11
4
12
5
13
6
14
7
15
OUT
8
16
9
17
10
18
11
19
12
20
13
21
14
22
15
2326
XERR
VIA
32
30
31
33
3222
470R
F210
F211
F212
F213
F214
F215
EEPROM-CS-LOCAL
DATA-RETURN-SWITCH
PWM-R1
PWM-G1
PWM-B1
PWM-R2
PWM-G2
PWM-B2
EEPROM-CS-LOCAL DATA-RETURN-SWITCH
14
+3V3
14
3
7
+3V3
14
7
RES
+3V3
14
6
7
RES
+3V3
14
9
F208
10
EN
7
15
3219
100R
3220
3223
100R
169
PWM-CLOCK-BUF
100p
22172218
27R
3212
100R
SPI-CLOCK-BUF
100p
BLANK-BUF
100p
2219
SPI-DATA-OUT-FIL
DATA-RETURN-SWITCH
17
18
20
2201 B8 2202 C8 2203 D8 2209 B2 2210 G6 2211 I6 2214 A6 2215 F7 2216 F7
A
2217 B12 2218 C12 2219 D12 2220 E9
3121 D9 3203 B5 3204 B7 3205 C5 3207 B9 3209 C9 3210 B3
B
3211 C9 3212 D11 3213 B3 3214 H6 3215 H6 3216 H6 3217 H6 3218 H6 3219 B11 3220 C11 3221 H11 3222 I8
C
3223 C11 3224 H11
6216 I8 7201-1 A10 7201-2 C10 7201-3 D10 7201-4 B10 7209 B2 7210 C2 7212 B3 7214 B6 7215 G7
D
9208 A10 9209 B9 9210 B10 9211 C9 9212 C10 9213 D9 9214 D10 F202 B3 F203 C5 F204 H6 F205 B10
E
F206 C10 F207 C10 F208 D10 F209 H11 F210 G9 F211 G9 F212 G9 F213 H9 F214 H9 F215 H9
F
G
+3V3
+3V3
3K3
3K3
3221
3224
F209
H
A
B
C
D
F
G
H
I
J
K
L
I
M
N
123 456
7 8 9 10111213
O
P
12
3
5
6 15
7 8
9
10
6216
SML-310
+3V3
I
M
N
2008-06-10
2008-08-08
??
O
P
A2
090410
11
12
13
14
CLASS_NO
2008-08-08
NAME
Peter Van Hove
SETNAMECHN
DRIVER 6LED LITEON
2
3
SUPERS.
DATECHECK
16
2K9
2008-06-02
C
17 18
8204 000 8857
23
ROYAL PHILIPS ELECTRONICS N.V. 2008
130
194
1
2
3
20
18560_511_090403.eps
2009-Aug-07
Page 89

12 LED Ambilight LEDs

Circuit Diagrams and PWB Layouts
EN 89Q548.1E LA 10.
1
A
123
3
4
5
6
8
914
456
10
7
LED LITEON
B
A
VLED1-F
9307
VLED2
9308
C
B
VLED2
D
E
VLED1-F
9309-2
9309-11 8
9309-4
45
25
16
LTW-E500T-PH1
4
GREEN
RED
BLUE
7002
GND_HS
3
25
16
7
9301
9302
C
F341F340
F342
LTW-E500T-PH1
4
GREEN
RED
BLUE
F343
7000
GND_HS
3
25
16
7
LTW-E500T-PH1
4
GREEN
RED
BLUE
7001
GND_HS
3
7
9305-227
9305-445
1 89305-1
27
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
7003
GND_HS
3
2
16
7
F F
G
H
J
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
M
D
3338
560R
3340
560R
3343
560R
3346
560R
3349
E
560R
3352
560R
3355
560R
3369
560R
3370
I
560R
560R
560R
560R
560R
3371
3372
3373
3374
F
G
3341
1K5 3344
1K5 3347
1K5 3350
1K5 3353
1K5 3356
1K5
3384
1K5
3385
1K5
3386
1K5
3387
1K5
3388
1K5
3389
1K5
3390
1K5
3391
1K5
H
I
3336
390R 3337
390R 3339
390R 3342
390R
PWM-B1
PWM-R1
PWM-G1
VLED1-F
3331
3332
10K
10K
VLED1-F
3325
3326
10K
10K
VLED1-F
3327
3330
54
9320-2 72
9320-1 81
9306-1 18
9306-4 45
9306-336
F307
7307 BC847BW
F308
3334
1K0
7305 BC847BW
F303
3328
1K0
10K
3333
1K0
10K
F305
7306 BC847BW
9317
F302
Place jumper 9314, 9316, 9317
if VLED < 17V
9314
F304
9316
9320-4
N
1
2
3
456
7 8 9
9318-3
9318-1
9318-4
36
18
45
PWM-B2
PWM-R2
PWM-G2
11
8
9310-227
9310-1
9310-4
1 8
45
LTW-E500T-PH1
4 9315-227
GREEN
RED
BLUE
7004
GND_HS
7
VLED1-F
3301
3303
12 132
GREEN6GREEN6
10K
10K
VLED1-F
BLUE6BLUE6
3304
3306
3
25
16
RED6RED6
10K
10K
VLED1-F
3307
3309
9
9319-3
9319-445
9319-1
3 6
1 8
7317 BC847BW
F326
3302
1K0
F328
3305
1K0
10K
3308
1K0
10K
3 6
9303-3
9303-445
9303-11 8
9304-22
9304-11 8
45
9304-4
F325
7315 BC847BW
7316 BC847BW
F330
10 11
9312-11 8
9312-3
9312-445
3 6
7
9325
F327
F329
9326
9327
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
BLUE-2
RED-2
GREEN-2
7005
GND_HS
10
15
3
2
16
7
Place jumper 9325, 9326, 9327
G
if VLED < 17V
R
11
1 8
B
9315-44
9315-1
3335
390R 3345
390R 3348
390R 3351
390R
16
12
5
12
9313-4
9313-2
9313-1
45
27
1 8
G
B
F344
B
F347
17
13
R
F345
F346
RG
3310
1K5
3311
1K5
3312
1K5
3313
1K5
3314
1K5
3315
1K5
3316
1K5
3317
1K5
3318
1K5
3319
1K5
3320
1K5
3321
1K5
3322
1K5
3323
1K5
3354
560R
3357
560R
3358
560R
3359
560R
3360
560R
3361
560R
3362
560R
3363
560R
3364
560R
3365
560R
3366
560R
3367
560R
3368
560R
F348
9311-445
9311-3
9311-11 8
3 6
13
F349
GREEN-2
RED-2
BLUE-2
RED-1
GREEN-1
BLUE-1
18
9310-2 B8 9310-4 B8 9311-1 H13 9311-3 H13 9311-4 H12 9312-1 B10 9312-3 B10 9312-4 B10 9313-1 B12 9313-2 B12 9313-4 B12 9314 G5 9315-1 C12 9315-2 C12 9315-4 C12 9316 H5 9317 F5 9318-1 C8 9318-3 C8 9318-4 C8 9319-1 D9 9319-3 D9 9319-4 D9 9320-1 D7 9320-2 D7 9320-4 D7 9325 F10 9326 G10 9327 H10 F302 G5 F303 G4 F304 H5 F305 H5 F307 F5 F308 F4 F325 F10 F326 F9 F327 G10 F328 G9 F329 H10 F330 H10 F340 D1 F341 D1 F342 D1 F343 D2 F344 D12 F345 D12 F346 D13 F347 G12 F348 G13 F349 G13
20
197
3301 F9 3302 F9 3303 F9 3304 G9 3305 G9 3306 H9 3307 H9 3308 H9 3309 I9 3310 D12 3311 D12
A
3312 E12 3313 E12 3314 E12 3315 E12 3316 E12 3317 F12 3318 F12 3319 F12 3320 F12 3321 G12 3322 G12 3323 G12
B
3325 G4 3326 H4 3327 H4 3328 G4 3330 I4 3331 F4 3332 F4 3333 H4 3334 F4 3335 D12 3336 D2 3337 D2
C
3338 D1 3339 D2 3340 D1 3341 D1 3342 E2 3343 D1 3344 D1 3345 D12 3346 E1 3347 D1 3348 E12
D
3349 E1 3350 E1 3351 E12 3352 E1 3353 E1 3354 D13 3355 E1 3356 E1 3357 D13 3358 E13 3359 E13 3360 E13
E
3361 E13 3362 E13 3363 F13 3364 F13 3365 F13 3366 F13 3367 G13 3368 G13 3369 F1 3370 F1 3371 F1 3372 F1
F
3373 F1 3374 G1 3384 E1 3385 F1 3386 F1 3387 F1 3388 F1 3389 F1 3390 G1 3391 G1
7000 C2
G
7001 C3 7002 C4 7003 C6 7004 C8 7005 C11 7305 G4 7306 H5 7307 F4 7315 G9 7316 H10 7317 F9 9301 C1
H
9302 C1 9303-1 C10 9303-3 C10 9303-4 C10 9304-1 E10 9304-2 E10 9304-4 E10 9305-1 C6 9305-2 C6 9305-4 C6 9306-1 D5 9306-3 D5
I
9306-4 D5 9307 A6 9308 A6 9309-1 B6 9309-2 B6 9309-4 B6 9310-1 B8
A
B
C
D
E
G
H
I
J
K
L
M
N
2008-06-10
2008-08-08
??
O
P
A2
090403
O
CLASS_NO
P
NAME
1
2
4
5
63
7
8
9
10 18
11
12
13
2008-08-08
Peter Van Hove
2
3
1514
SETNAMECHN
DRIVER 6LED LITEON
2K9
SUPERS.
2008-06-02
DATECHECK
16
17
8204 000 8857
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
130
19
1
2
3
33
20
18560_512_090403.eps
2009-Aug-07
Page 90
Circuit Diagrams and PWB Layouts

12 LED Ambilight LED Drive

EN 90Q548.1E LA 10.
A
B
C
D
E
F
G
H
J
K
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
12
I
3
45
7
8
9
10
11
1312
14
15
16
17
18 19
206
A
1
2 3 4
56
7
8
91011
12
LED DRIVE
A
7006
GREEN
RED
BLUE
GND_HS
2
3
2
16
7
B
GREEN-1
RED-1
BLUE-1
LTW-E500T-PH1
4
5
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
7007
GND_HS
3
2
16
7
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
7008
GND_HS
3
2
16
7
7009
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
GND_HS
7
7010
LTW-E500T-PH1
4
3
2
16
GREEN
RED
5
BLUE
3
22
GND_HS
16
7
7011
LTW-E500T-PH1
4
GREEN
RED
5
BLUE
GND_HS
3
16
7
C
1M3A F2 1M85 D2
3536 E11 3537 E11 3538 E9 3539 F11 3540 F9 3541 E10 3542 F11 3543 F9
A
3544 F10 3546 F9 3547 F10 3549 F9 3550 F10 3552 F9 3553 F10 3555 G10 3556 F10 3569 G9 3570 G9 3571 G9
B
3572 G9 3573 H9 3574 H9 3584 G10 3585 G10 3586 G10 3587 G10 3588 G10 3589 H10 3590 H10 3591 H10
C
7006 B2 7007 B3 7008 B5 7009 B6 7010 B7 7011 B8
B
C
D
E
F
D
E
F
G
H
1M85
1 2
3
4 5 6 7
8
9 10 11 12 13 14
15 16
1M3A
1
2
3
4
5
6
7
8
9 10 11 12 13 14
15
16
+3V3
VLED1
VLED2
+3V3
VLED1
VLED2
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
SPI-CLOCK-BUF
SPI-DATA-OUT
SPI-DATA-RETURN
SPI-LATCH
PWM-CLOCK-BUF
BLANK-BUF
EEPROM-CS
TEMP-SENSOR
PROG
3538
560R
3540
560R
3543
560R
3546
560R
3549
560R
3552
560R
3555
560R
3569
560R
3570
560R
3571
560R
3572
560R
3573
560R
3574
560R
GREEN-2
RED-2
BLUE-2
3541
1K5
3544
1K5
3547
1K5
3550
1K5
3553
1K5
3556
1K5
3584
1K5
3585
1K5
3586
1K5
3587
1K5
3588
1K5
3589
1K5
3590
1K5
3591
1K5
3536
390R 3537
390R 3539
390R 3542
390R
D
G
E
H
I
F
J
G
K
H
L
M
12
1X04
REF EMC HOLE
3 4
5
6
7 8 9
10 11
12
M
NN
O
CLASS_NO
SETNAMECHN
2
O
2008-10-29
6 LED + CONNECTOR
P
NAME
12
3
4
5
67
98
10
1211
13
14
2008-08-14
2008-10-29
Peter Van Hove
2
3
15
2K9 LITEON
SUPERS.
2008-07-30
DATECHECK
16
17
2009-Aug-07
8204 000 8898
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
11
130
1918
18560_513_090403.eps
A2
20
090729
P
Page 91

Layout 12 LED Ambilight

9113
2203
1105
9212
3211
3219
9208
3207
2217
9213
9209
3223
2219
2201
9108
2220
1X03
1M83 1M84 1M85
3342
2130
9110
9114
9107
2202
9302
3339
3338
3374
3385
3389
3340
3369
3384
3390
3121
3343
3356
3373
3391
3350
3346
3372
3386
3212
9214
3349
3347
3371
3387
3344
3352
3370
3388
3220
2218
9210
7201
3341
3355
3353
3337
7000
3209
9301
3336
9211
9109
9111
9112
2125
3221
3224
3216
2211
6216
3222
7001
Circuit Diagrams and PWB Layouts
3107
21092110
3108
3109
3128
3110
3103
I115
3124
3130
2120
2123
2131
3142
7002
9103
3118
3101
9104
3129
I113
1101
I114
7102
3102
2114
9101
3132 3133
3106
I110
9102
3117
2119
I111
2124 2121
3214
2216 2215
3215
3218
7215
2210
3326
3328
3217
9316
9314
7305
21282129
2101
2102
2103
7101
2104
3332
3334
3331
9308 9307
9317
3327
3333
3330
3325
7307
7306
9305
9309
9306
EN 91Q548.1E LA 10.
9313
3354
3357
3358
3360
3361
3362
3365
3366
3367
3368
3359
3363
3120 3119
9121
3127
3113
3114
7110
2111
2117 2116
3115
3131
3126
2126
9106
2112 3116 9119
2113
3104
2122
3105
3125
2115
2118
3112
2209
7210
7209
3213
7212
2214
3210
7214
7003
3203
3205
3136
3138
C140
2106
3139
3111
2108
2105
3137
2107
3135
3140
3134
3204
3123
3141
7116
7004
9310
9318
9320
2127
3301
3305
3306
3303
3304
3307
3308
3309
3302
9325
9327
9326
7315
7316
7317
9312
3364
9315
3345
3348
3310
3311
3312
3313
3315
3316
3335
3351
3317
3318
3323
3314
3320
3321
3322
3319
3555
3569
3570
3571
3572
3573
3574
3591
3553
3586
3587
3588
3589
3590
3538
3549
3540
3543
3546
7005
9319
9303
9304
9311
7006
7007
7008
7009
7010
3552
3544
3547
3541
3550
3556
3584
3585
3536
3537
3539
1X04
7011
3542
3104 313 6335.2
F135
F346
F347F348 F349
F345
F344
F326
F330
F329
F215
F214
F328
F325
F327
F106
F116
F213
F118
F209
F202 F203
F133
F136
F107 F108
F105
F104
F109
I126
F134
I125
F112
F117
I124
F137
F103
F102
F132
F130
F212
F101
F210
F308
F305
F211
F303
F307
F304
F302
F123
F127
F139
F126
1M1A1M2A1M3A
F131
F138
F207
F208
F204
F205
F120
F122
F128
F121
F129
F124
F206
F340
F125
F343
F342
F341
18490_551_090326.eps
090729
2009-Aug-07
Page 92

SSB: DC/DC +3V3 +1V2

Circuit Diagrams and PWB Layouts
EN 92Q548.1E LA 10.
1
2100 B2
A
2101 B4 2102 D1 2103 D4 2104 B6 2105 D6 2106 E5
B
C
A
D
B
E
F
C
G
D
H
E
I
J
F
K
is prohibited without the written consent of the copyright
owner.
All rights reserved. Reproduction in whole or in parts
G
L
2107 B6 2108 B5 2109 C6 2110 C8 2111 C8 2112 C9 2113 C7
2114 C8 2115 D7 2116 E9 2117 E9 2118 E9 2119 E9 2120 E8
2121 E8 2122 B11 2123 B11 2124 C12 2125 E12 2127 E12 2128 F7
2129 F8 2130 F7 2131 F7 2132 F5 2133 H2 2134 H2 2135 H2
2140 C9 2141 C9 3100 B2 3101 B2 3102 C2 3103 C1 3105 C1
5
3106 C2 3107 C3 3108 B4 3109 C5 3110 C5 3113 C5 3114 C5
3115 C6 3116 C5 3117 D1 3118 E1 3119 E4 3120 E4 3121 E4
6
3122 F2 3124 C6 3125 D6 3126 D6 3127 D6 3128 D5 3129 D5
7
3130 E5 3131 E6 3132 C7 3133 C8 3134 C8 3135 D8 3136 D7
3137 D6 3138 E9 3139 E7 3140 E8 3141 E8 3142 E6 3143 E6
84
3144 F8 3145 E11 3146 E10 3147 F11 3148 F10 3149 F11 3150 F11
92
3151 G11 3152 G11 3153 F8 3154 F8 3155 F8 3156 F7 3157 F7
3158 F3 3159 H1 3160 H1 3164 D4 5100 B8 5101 C8 5102 E8
10
5103 E8 5104 B11 5105 E11 6100 E6 6101 F5 6102 G7 6103 F7
11
6104 B2 7100-1 C2 7100-2 B1 7101-1 B5 7101-2 C6 7102-1 C7 7102-2 D6
7103 C4 7104 D2 7105-1 E3 7105-2 E4 7106 F7 7107-1 E10 7107-2 F10
12
F100 C4 F101 C7 F102 D6 F103 D6 F104 E7 F105 F4 F106 C2
133
F107 B7 F108 D10 F109 E10 F110 F10 F111 E12 F112 D9 F113 F7
F114 D4 F115 D4 I100 B3 I101 B1 I102 C1 I103 B4 I106 D4
I107 D3 I108 D4 I109 C2 I111 D5 I112 B5 I113 C5 I114 D8
15
I115 C5 I116 D5 I117 D5 I118 D6 I119 D6 I120 D6 I121 C6
I122 E5 I124 E4 I125 F3 I126 F5 I127 F2 I128 D1 I129 E6
16
I130 F7 I131 E8 I132 E8 I133 F8 I134 F8 I136 E9 I137 E11
1714
I138 F11 I141 H2 I143 C8 I144 C8 I146 E5 I147 F7 I148 C8
18
1 2 3 4 5 6 7 8 9 1011121314
DC / DC +3V3_+1V2
100R
1K0
5104
10u
22u
10u
2122
2123
RES
2124
220u 25V
RES
6.3V
2125
330u
F111
5105
22u
2127
3149
3K3
2K2
3151
1%
1K0
3152
1%120R
RES
3100
4
BC847BPN
7100-2
I101
3
10K
3103
I102
0V
2
10K
3105
100n
2102
GND-SIG
I128
3117
33K
33K
3118
GND-SIG
5
7104 BC847BW
1
3V3-ST
I109
6
7100-1 BC847BPN
1
GND-SIG
3101
22K
6104
I100
BAS316
F106
3102
100R
3V3
22K
10K
3107
3106
3
2
7105-1
3122
10K
I127
BC857BS
RES
DETECT1
NCP5422ADR2G
F100
I107
2103
GND-SIG GND-SIG
I124
1
7105-2
BC857BS
2
I125
6
3158
100K
F114
F115
I106
I108
100n
GND-SIG
4
3
22K
2100
100n
2101
GND-SIG
3164
4
7
10
8
9
13
330R
10R
3108
I103
1u0
22R
3109
7103
14
Φ
VCC
BST
1
VFB
2
1
COMP
2
ROSC
39K
3119
3120
5
F105
1
H1
GATE
2
L1
16
H2
GATE
15
L2
5
+1
6
-1
IS
12
+2
11
-2
GND
3
I146
1K0
3121
I126
1K0
6101
PDZ9.1-B
12V UNDER-VOLTAGE DETECTION
7101-1
I112
3110 22R
I115
I116
78
FDS6930B
2
1
2108
3n3
I113
4
4R7
4R7
3114
3113
3130
2K7
I111
+12VF
3115
3116
22R
I117
I118
I120
2105
3128
2K7
3129
I122
1K0
100n
2106
2132
56
3
22R
100n
BAS316
1u0
7101-2
FDS6930B
3124
4R7
3125
4R7
3126
1K0
F103
3131
6100
10u
22u
RES
2104
2107
VSW
I121
2
2109
3n3
7102-2
56
4
3
I119
FDS6930B
F102
2K2
3127
3137
6K8
F104
2K2
I129
3142
68R
3143
68R
I147
6103
I130
3
7106
BC817-25W
2
BOOSTER
+1V2-PNX85XX
78
FDS6930B
1
BAS316
F107
12V/3V3 CONVERSION
F101
22R
7102-1
3136
6K8
3132
RES
I144
1n0
2113
RES
I114
1n0
2115
RES
12V/1V2 CONVERSION
3139
RES
2128
RES
2130
F113
RES
6102
PDZ18-B
470R
470R
2131
100n 3156
3157
1
RES
5100
10u
5101
10u
22u
3133
RES
I143
100n
2114
I148
1K0
3135
RES
5102
10u
5103
10u
6K8
22R
22R
3140
3141
RES
I131
I132
1n0
2129
100n
I133
I134
1n0
1K0
3153
3154
15K
GND-SIG
2112
2111
2110
F112
2119
10u
3n3
2120
1u0
2121
3144
120R
1%
1K0
3155
1%
GND-SIG
22u
3n3
6K8
22R
3134
22u
22u
2141
2140
RES
F108
RESFRES
RES
2116
2117
2118
*
10R
3138
10u
10u
10u
RES
F109
I136
3146
10K
3148
10K
7107-1
BC847BS
F110
7107-2
BC847BS
6
3145
2
I137
1
3147
3
I138
5
4
3150
220u 25V
+12VF
+12V
+3V3
+1V2-PNX85XX
+3V3F
SENSE+1V2-PNX85XX
ENABLE-3V3
PROT-DC
19
20
A
B
C
A
D
B
E
C
G
D
H
E
I
J
F
K
G
L
100p
2133
2134
M
H
GND-SIG
4K7
3160
3159
470R
1%
GND-SIG
N
12345678910
O
P
1
2
I141
100p
2135
100n
GND-SIG
MULTI 12NC : 3139_123_64421 / 64541 / 64561 BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
H
M
N
11 12 13 14
" X100 ~ X199 "
1X05
REF EMC HOLE
1X06
REF EMC HOLE
Round screw hole of 4.02mm
3
4
510
6 18
1X12
REF EMC HOLE
1X02
REF EMC HOLE
Round screw hole of 4.5mm
987
1X07
REF EMC HOLE
11
1X03
REF EMC HOLE
Oval screw hole of 5mm x 4.02mm
12
1X08
REF EMC HOLE
13
14
DC343514
CLASS_NO
3PC332
-- -- --
2008-10-17
2009-01-1623
Kailash
NAME
SV
1
CHECK DATE
15
********EMANTESNHC
PCB SB SSB BD
TV543_2K9
**** *** *****
SUPERS.
2008-10-17
16
17
1
1 2008-12-16
3139 123 6443
25
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
13010
19
01
20
18440_500_090223.eps
O
2009-01-16
P
A2
090224
2009-Aug-07
Page 93
Circuit Diagrams and PWB Layouts

SSB: DC/DC +3V3 +1V2 Standby

EN 93Q548.1E LA 10.
1
A
1M95 D1
B
1M99 B1 2200 C1 2201 C1 2202 C2
C
D
A
E
F
G
1M99
1 2 3
B
4 5 6
FROM PSU
7 8
9 10 11 12
1-1735446-2
C
H
D
I
E
1 2 3 4 5 6 7 8
FROM PSU
9 10 11
1-1735446-1
J
K
F
owner.
is prohibited without the written consent of the copyright
All rights reserved. Reproduction in whole or in parts
L
2203 C2 2204 D2 2205 D3 2206 E1 2207 E2
2208 E2
2210 B6 2211 D4 2212 B9
2213 B9 2214 B9 2215 B12 2216 C13 2217 B12
2218 B12 2219 C10 2220 D2 2221 F9 2222 F9
2223 F9 2224 F12 2225 F12 2226 F13 2227 F13
5
2228 F13 2229 F13 2230 E2 2231 C1 2232 C2
2233 B6 2235 C32209 B5 2236 C2 2237 C2 3200 B1
6
3201 B1 3204 D2 3207 B10 3208 C11 3210 C12
78
3211 C12 3212 B14 3213 B13 3214 C13 3215 C14
3221 G12 3222 G12 3223 F13 3224 F12 3225 C5
3226 C5 3227 C6 3228 D6 3229 D6 3230 D6
3231 D6 3232 D4 3233 E4 3234 E5 4201 B2
4202 C2 5203 B9 5204 B11 5221 F9 5222 F11
102
1234567
DC / DC +3V3-STANDBY_+1V2-STANDBY
7201
10K
I212
5
10K
I213
6
I215
1
BC847BPN(COL)
1
3
LD3985M122
INH BP
3228
3230
2
7224-1
5
OUTIN
I202
4
COM
2
4
7223-2
BC847BPN(COL)
I218
3227
3
220K
6K8
10K
I217
+1V2-STANDBY
F218
1u0
2233
100n
2210
4
I219
7224-2
BC847BPN(COL)
5
RES
10K
3229
F227
3K3
3231
3
DETECT-12V
3V3-ST
1M95
+3V3-STANDBY
F228
F201
F202
F203 F204 F205 F206 F223 F224 F225 F226
2200 100p
F207 F208 F209 F210 F211 F212 F213 F214 F215
F216
F217
68R3200 68R
3201
4201 4202
100p2201
2231 100p
GNDSND
RES
2206
100n
RES
100p2203
100p
2232
RES
1n0
2220
3204 68R
RES
RES
100n
2207
2208
100n
RES
GNDSND
10n2235
100p
2202 100p
2203
2203 100p
RES
2204 1n0
2205 1n0
1n02230
RES
+3V3-STANDBY
STANDBY
+12V
+AUDIO-POWER
+12VD
LAMP-ON-OUT
BACKLIGHT-OUT
BACKLIGHT-BOOST
POWER-OK
SCL-SET
SDA-SET
+1V2-STANDBY
3232
3233
10K
I214
6225
PDZ8.2-B
1K0
2211
2
1u0
2209
+12V
1u0
3225
3226
6
7223-1 BC847BPN(COL)
1
I216
3234
22K
6217 B12 6225 D4 7201 A6 7202-1 B10 7202-2 C10
DC / DC
+12V
DC / DC
+12V
11
7203 B14 7204 D10 7222-1 E10 7222-2 F10 7223-1 D5
5203
33R
5221
33R
2212
2221
7223-2 C6 7224-1 E6 7224-2 C7 F201 B1 F202 B1
9
10u
2213
10u
2222
12
13
14
15
164
17
18
193
209
A
RES
I216 D5 I217 D6 I218 C6 I219 C6
F230
ENABLE-3V3
15
+5V5-TUN
+5V
PROT-DC
4121018
F220
I206
3213
3K9
1K0
3215
F221
7203 BC847BW
3212
10K
B
C
D
A
E
B
F
C
G
H
D
F203 B1 F204 B1 F205 B1 F206 B1 F207 D1
F208 D1 F209 D1 F210 D1 F211 D1 F212 D1
F213 D1 F214 E1 F215 E1 F216 E1 F217 E1
F218 B6 F219 B12 F220 B14 F221 D14 F222 F12
F223 B1 F224 B1 F225 C1 F226 C1 F227 D6
F228 B1 F229 B12 F230 B15 F231 F12 I202 B6
I203 B9 I204 B10 I205 B11 I206 B14 I207 D11
11
7202-1
1
2
INH
SYNCSWVFB
4
7202-2
10 11
2219
100n
GND
VIA
6
A
SW
VIN
HSPA
9
8
3208
100K
5204
+3V3
F219
10u
10u
2215
RES
3210
I205
7
35
I207
6217 SS36
2218
100K
25V220u
RES
2216
4n7 3214
10u
2217
F229
1%
1K0
3211
18K
ST1S10PH
RES
I204
3207
I203
100K
10u
10u
2214
ST1S10PH
RES 7204
PDTC144EU
I210 F9 I212 C5 I213 D5 I214 D4 I215 E5
13
1%
I
E
7222-1
1
I210
10u
2223
ST1S10PH
10u
ST1S10PH
A
INH
VIN
SYNCSWVFB
GND
4
7222-2
10 11
VIA
6
SW
HSPA
928
5222
7
35
F222
2u0
4n7
2225
4K7
3221
RES
3224
3222
1%
100K
1%
1K0
22u2224
2226 22u
F231
3223
2227
22u2228
220u 25V
2229 22u
RES
RES
1%470R
+1V2-PNX5100
SENSE+1V2-PNX5100
J
K
F
L
G
M
H
N
MULTI 12NC : 3139_123_64421 / 64541 / 64561
G
M
H
N
BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
O
12345 14 15
P
2
3 1715
5
64
7 13
6 7 8 9 10 11 12 13
" X200 ~ X299 "
8
9
10
11
12
14
DC343514
CLASS_NO
3PC332
-- -- --
2008-10-17
2009-01-1623
NAME
Kailash
SV
1
CHECK DATE
********EMANTESNHC
PCB SB SSB BD
TV543_2K9
**** *** *****
SUPERS.
2008-10-17
16
2009-Aug-07
O
2009-01-16
1
2008-12-16
1
3139 123 6443
P
25
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
18
0213010
191
A2
20
18440_501_090223.eps
090224
Page 94
Circuit Diagrams and PWB Layouts
EN 94Q548.1E LA 10.

SSB: Front End

12345678
1
A
B
C
D
E
F
G
H
I
J
K
L
A
B
C
+5V5-TUN
D
E
1XXX
*
HD1816 MK1
RF-IN
F
DC_PWR
NC1
RF_AGC
NC2
AS SCL SDA
TUNER
XTAL_OUT
4XXX
RES
TUNER
XTAL_OUT
IF_OUT1 IF_OUT2
4XXX
RES
RF-IN
DC_PWR
RF_AGC
IF_OUT1 IF_OUT2
+5V
MT MT
1XXX
*
HD1816
MT
NC1
NC2
AS SCL SDA
+5V
A312
MT
G
H
I
J
K
All rights reserved. Reproduction in whole or in parts
owner.
is prohibited without the written consent of the copyright
L
M
N
O
P
MULTI 12NC : 3139_123_64421 / 64541 / 64561
BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
1
1234567
2
54
1
1u0
2336
* I…C ADRESS C0
2302
*
4n7
F317 F318 F319 F320 F321 F322 F323 F324 F325 A310 A311
MK2
3386
4R7
7307
LK112SM50
OUTIN
SHDN BP
COM
2
ANTENNA-SUPPLY
RES
4316
2358 4n7
*
*
3
FRONT END
+5V
RES
5309
F306
3
100n
2337
2363
2360 10n
*
4302
*
4303
*
2369
2304
4u7RES
4n72359
4304
RES
RES 5302
1
820n
2
3
4323
3306
0R05
RES
3307
4u7
2u2
+5V-TUNER
5301
2305
100n
I
GND
OFWX6966M
510R
4
+5V-TUNER
30R
16V47u
1303
36M125
4
O1 O2IGND
+5V-TUNER
3301
2301
RES 5310
30R
5 4
2307 10n
1300 E6
910111213141516
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
A
A
B
I324
7308
OUTIN
COM
1
F301
TDO
F302
TCK
F303
TMS
F304
TDI
F305
DRX3926K-XK-A3
2331
12p
1304
2332
12p
I322 I323
100n
47R 47R3399
3370
F337
10K
10K3376
2311
3318
RES
120R
7303
49
XI
27M
50
XO
40 39
47
P
48
PD
N
32
RSTN
31
SAW_SW
23
SCL1
24
I2C
SDA1
62
SCL2
61
I2C
SDA2
59
TCK
60
TDI
57
TDO
58
TMS
4
GPIO1
30
GPIO2
66 67 85 68 69 70 71 72 73 74
VIA
75 76 77 78 79 80 81
83
10u
2312
+3V3A
+3V3E
37
425236468
VDDAH_AFE1
VDDAH_CVBS
VSSAH_AFE1
VSSAH_CVBS
38
415135
SIF-GND
10u
10u
2314
2313
5305
30R
2321
5306
30R
2323
2325
+3V3B
+3V3D
+1V2A
53
18
26
VDDH VDDL
VDDAH_OSC
VDDAL_AFE1
VDDAL_AFE2
Φ
DEMODULATOR
VSSH VSSL
VSSAL_AFE1
VSSAL_AFE2
VSSAH_OSC
45717
25
54
2315
2316
100n
100n
2u2
100n
2322
2u2
2324
100n
100n
100n
2326
+1V2
16
27
2
3
15
28
56
55
100n
2327
MSTRT
MD
RF_AGC
IF_AGC
I2S
VSYNC
MERR MCLK
MVAL
CVBS
65
2317
2u2
SIF
DA CL
WS
VIA
GND_HS
5304
10u
100n
5307
10u
2u2
2328
5
MSTRT
6
MERR
9
MCLK
10
MVAL
11
MD0
0
12
MD1
1
13
MD2
2
14
MD3
3
19
MD4
4
MD5
20
5
21
MD6
6
22
MD7
7
33 34
44
43
64 63
1
29
84
86 87 88 89 90 91 92 93 94 95 96 97 98
99 10082 101
100n
2318
2319
100n
2u2
2329
2330
100n
+3V3B
10K
10K
10K
10K
10K
3396
3394
3393
3395
3397RES
RES
RES
RES
F339
I301
2353 100n
3357
10K
RES
2346
I307
22u
3345
10K
3349
150R
2320
3348
18K
2
F308
2u2
F309
F310
F311
3355
3311 100R
3346
+1V2
+1V2A
+3V3E
+3V3D
+3V3A
3308-4
4 3308-3 3308-2
2747R 3308-1
18 3309-4 3309-3
36 3309-2 3309-1 3310-4
45 3310-3 3310-2
2747R 3310-1
18
18K
2
3358
150R
+5V-TUNER
7345-2
BC847BPN(COL)
470R
I308
5
6
7345-1 BC847BPN(COL)
1
3347
150R I306
3356
6
7312-1 BC847BPN
1
5
47R 47R36
47R
FE-DATA(0)
5
47R4
FE-DATA(1)
47R
FE-DATA(2)
47R2
7
FE-DATA(3)
47R18
FE-DATA(4)
47R
FE-DATA(5)
47R36
FE-DATA(6) FE-DATA(7)
47R
4
470R
I303
BC847BPN 7312-2
5
3
3359
150R
2354
22u
2345
4
3
3391
18R
F315
4314
BC857BS
RES
7314-1
3362
RES
2
100R
F314
4315
RES 3363
5
100R
+5V-TUNER
3p3
+5V-TUNER
150R3361RES
3360 150RRES
1
6
4
BC857BS 7314-2
RES
3
FE-VALID
FE-DATA(0:7)
RF-AGC
I325
3392
68R
CVBS-TER-OUT
FE-SOP
FE-CLK
IF-AGC
SIF
CVBS
B
C
C
D
E
D
F
E
G
F
H
I
G
J
H
K
L
I
M
J
N
K
2009-01-16
O
P
A2
L
18440_502_090223.eps
14
CLASS_NO
3PC332
-- -- --
2008-10-17
2009-01-1623
Wang Bing Bing
NAME
SV
DC343514
1
CHECK DATE
15
********EMANTESNHC
PCB SB SSB BD
TV543_2K9
**** *** *****
SUPERS.
2008-10-17
16
17
1
1 2008-12-16
3139 123 6443
25
25
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
18
13010
19
03
03
20
5313
RES
10K
10K
4319
F312 F313
6302
BZX384-C6V8
+5V-TUNER
3387
I328
3372
I329
3375
RES 30R5308
32
30R
2344
100n
3354
22R
RES
3302 10K
RES
ANTENNA-SUPPLY
2355
100n
100K
3377
100K
+12V
7316-1
84
3
LM393PT
2
27K
+12V
7316-2
84
LM393PT
5
6
4K7
LD1117DT12
2334
3398
I327
1
7
+1V2-PNX85XX
+3V3
7309
6K8
22n
I313 I314
18p
18p
2341
2342
4318
3303
220R
22p
2308
2370
3304
220R
6K8
3305
22n
22K
2335
3XXX
3XXX
RES
RES
PDN
N Y Y N N N N Y Y Y N N Y Y N NY N
N N N N
RES
4320
2364
10n
2367
10n
10n2306
2362 100n
*
*
2350 100n
*
A328 A329
4307
4308
*
*
not in Arch2K8
UPC3221GV-E1
5311
820n
100n2349
4306
*
4312
*
4313
*
7302
2 INPUT1
3 INPUT2
4VAGC
33AA
560R
4321
RES
33AC
560R
4322
RES
*
AGC CONTROL
2351 100n
F327
F332 F333 F334 A322 A323 F335
2361 100n
*
+5V-TUNER
ANT_PWR B1 RF_AGC SCL SDA B2 VTU_TP NC IF_AGC DIF2 DIF1 AIF
100n
A325
2352
*
1
VCC
GND1
8
2365
10n
470R
33AB
2368
10n
LG1
Pend new 12nc
TUNER
4317
100n
2300
*
*
7OUTPUT1
I318
I319
6OUTPUT2
RES
GND2
+5V-TUNER
5
A327
2366
RES
4324 4325
+3V3A
100n
RFS
LGI
*
1300
Y N
1301
N
2302 2349
Y Y
2350 2351
Y
2352
Y
2358
N
2359
N N
2360
Y
2361
Y
2362 4302
N N
4303 4304
Y 4306 4307
Y 4308
YN 4312
Y
Y
4313
Y
4317
Y4318
1XXX
MTMT
*
TDTC-G321D
3316 3317
A324
2p2
5303
A326
220K
ANTENNA-CTRL
+5V
47R 47R
2309
100p
680n
2310
100p
F316
LK112M33TR
54
1
SHDN BP
1u0
2371
RF-AGC
SCL-TUNER SDA-TUNER
IF-N
IF-P
IF-AGC
I321
PDP
+12V
3364
4K7
22n
2357
F338
COM
OUTIN
2
3
2372
100n
IF-P IF-N
PDP
PDN RESET-SYSTEM
SCL-SSB SDA-SSB
SCL-TUNER SDA-TUNER
ANTENNA-CTRL
RESERVED
+5V-TUNER
2
1
3
6301
BAS316
+3V3
+3V3B
2u2
2373
TUNER BOUNDARY SCAN
+3V3B
3350
3351
3352 10K
3353 10K
+3V3B
4K73365
3388 4K7
18p2347
RES
2348 18p
3366
+3V3B
4K7
2356
100n
4
7315 BCP56
I326
3389
2R2
3367
2R2
3369
3368
220R
I331
3371
3373
3374
RES
F336
220R
27K
10K
2K7
" X300 ~ X399 "
5
63
7
8
9
10
11
8 9 10 11 12 13 14 15 16
12
132
1301 D1 1303 G3 1304 E11 1306 F1 2300 F6 2301 C4 2302 E2 2304 D3 2305 D3 2306 G4 2307 G4 2308 G7 2309 G8 2310 G8 2311 C12 2312 C12 2313 C12 2314 C13 2315 C13 2316 C13 2317 C13 2318 C14 2319 C14 2320 C14 2321 C13 2322 C13 2323 C13 2324 C13 2325 D13 2326 D13 2327 D13 2328 D13 2329 D14 2330 D14 2331 E11 2332 E11 2334 F11 2335 H7 2336 C2 2337 C2 2341 E7 2342 E7 2344 C11 2345 H15 2346 H14 2347 G10 2348 G10 2349 E5 2350 E5 2351 F5 2352 F5 2353 F14 2354 G16 2355 H10 2356 H9 2357 H8 2358 E2 2359 E2 2360 E2 2361 F5 2362 E5 2363 E2 2364 H4 2365 H6 2366 H6 2367 H4 2368 H6 2369 C3 2370 G7 2371 C8 2372 C9 2373 C9 3301 C4 3302 E10 3303 G7 3304 G7 3305 H7 3306 H3 3307 H3 3308-1 E15 3308-2 E15 3308-3 E15 3308-4 E15 3309-1 F15 3309-2 F15 3309-3 E15 3309-4 E15 3310-1 F15 3310-2 F15 3310-3 F15 3310-4 F15 3311 G15 3312 H7 3313 H7 3316 D7 3317 D7 3318 C12 3345 I14 3346 H15 3347 I15 3348 H15 3349 I14 3350 D10 3351 D10 3352 D10 3353 D10 3354 D11 3355 F15 3356 F15 3357 G14 3358 G15 3359 G15 3360 I16 3361 I16 3362 I15 3363 J15 3364 H9 3365 E10 3366 G10 3367 I10 3368 I9 3369 I10 3370 I11 3371 I10 3372 I10 3373 J10 3374 J10 3375 J10 3376 I11 3377 H10 3386 B2 3387 H10 3388 E10 3389 H10 3391 I15 3392 I16 3393 E14 3394 E14 3395 E14 3396 E14 3397 E14
3398 F11 3399 F11 33AA H5 33AB H5 33AC H5 4302 E2 4303 F2 4304 F3 4306 E5 4307 F4 4308 F5 4312 E5 4313 F5 4314 I15 4315 J15 4316 E2 4317 F7 4318 F7 4319 F10 4320 H4 4321 H5 4322 I5 4323 G3 4324 G7 4325 G7 4326 F1 4327 F1 5301 D3 5302 G3 5303 G8 5304 B14 5305 C12 5306 C12 5307 D14 5308 B11 5309 B3 5310 D4 5311 H4 5313 B10 6301 H9 6302 H10 7302 G5 7303 E12 7307 B2 7308 B11 7309 B9 7312-1 G15 7312-2 G16 7314-1 I15 7314-2 J16 7315 H9 7316-1 I11 7316-2 J11 7345-1 I15 7345-2 H15 A310 E2 A311 F2 A312 F1 A322 E5 A323 F5 A324 G7 A325 F6 A326 G7 A327 G6 A328 E4 A329 F4 F301 D11 F302 D11 F303 D11 F304 D11 F305 D11 F306 B3 F308 B15 F309 C15 F310 C15 F311 D15 F312 F10 F313 F10 F314 J16 F315 I16 F316 H8 F317 E2 F318 E2 F319 E2 F320 E2 F321 E2 F322 E2 F323 E2 F324 E2 F325 E2 F327 E5 F332 E5 F333 E5 F334 E5 F335 F5 F336 G10 F337 I11 F338 J8 F339 E14 I301 F14 I303 F15 I306 I15 I307 H14 I308 H15 I313 D7 I314 D7 I318 G6 I319 G6 I321 H8 I322 F11 I323 F11 I324 B11 I325 G16 I326 H9 I327 H11 I328 I10 I329 J10 I331 I9
090224
2009-Aug-07
Page 95
Circuit Diagrams and PWB Layouts
EN 95Q548.1E LA 10.

SSB: PNX8543 - Power

1234567891011121314151617
1
A
B
C
D
E
F
G
H
I
J
K
L
A
B
C
D
E
F
+1V8-PNX85XX
+1V2-PNX85XX
+3V3F
10u
2603
5600
+3V3
33R
G
H
I
7600-10
J
PNX85439E
K
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
owner.
L
M
V14
U6
AA14 AA15 AA16 AA17 AA18 AA19 AA20 AA21 P18 AA5 AB31 AB4 AB5 AC31 AC33 AE6 AF33 AG31 AH29
VSS
AH6 AJ15 AJ24 AJ25 AJ29 AJ33 AJ5 AJ9 AK10 AK13 AK23 AK25 AL1 AL2 AL3 AL30 AM1 AM18
N
O
P
MULTI 12NC : 3139_123_64421 / 64541 / 64561 BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
1
2
1234
PNX8543 - POWER
7601
LD1117DT18
32
OUTIN
COM
100n
2601
2604
2606
F601
2607
V15
AM2
V16
AM21
1
I600
1u0
100n
2605
6.3V330u
C600
SENSE+1V2-PNX85XX
330u 6.3V
V18
AM31
V19
AM32
V20
AM33
W14
AM34
W18
W15
W16
W19
W17
VSS
AN1
AP33
AN32
AN33
AN34
V17
AM22
3
F600
2602
RREF-PNX85XX
W20
Y15
Y16
Y14
B34
D13
D12
AP34
2600 C4 2601 C2 2602 C4 2603 C2 2604 D2 2605 D3
8 1513
2612
100n
100n
2693
RES
+1V2-PNX85XX
100n
100n
2614
2613RES
2615RES
RES
100n
1u0
RES
100n
2623
2624
5602
33R
2627
100n
5627
33R
100n
26A4
26A3
5601
33R
100n
2629
2628
5604
33R
100n
2631
10u
22u
2626
26A1
F607
1u0
2637
100n
2636
+1V2-PNX85XX
+1V2-PNX85XX
F609
1u0
2640
100n
2641
87
2625
2699
26A2
2630
+3V3-PER
5611
9
100n
100n
2616
RES
100n
10u
10u
10u
10u
100n
33R
100n
100n
2617
2618
RES
F602
I616
F625
F603
5610
F608
33R
1u0
2638
2639
F610
1u0
2642
2643
RES
9
7 8 9 1011121314151617
2608
2621
100R
1u0
2609
1u0
2622
+3V3-STANDBY
+1V2-PNX85XX
+3V3
+3V3
7
2610
100n
2611
100n
100n
100n
100n
2692
2691
RES
RES
+3V3
+3V3
+3V3
5608
33R
5609
33R
53
+1V2-PNX85XX
+1V2-STANDBY
+1V8-PNX85XX
10u
22u
2600
7602
LD1117
5603
+3V3
33R
10u
2697
RES
+1V2-PNX85XX
+1V2-PNX85XX
RREF-PNX85XX
I615
Y20
Y33
Y17
Y18
Y5
Y6
Y19
5626
33R
5605
33R
5607
+3V3
33R
VSS
VSS
E18
E12
D17
D18
F5F7F8
E3
E4
F22
F30
F21
F27
F29
K2
H6
G6
G5
G29
5
2 4
3
OUTIN
COM
3601
1
F605
100n
2632
100n
2633
F606
100n
100n
2634
2635
L5 M2 N5
P14 P15 P16 P17
P19
P2
P20 P21 P33 R14 R15 R16 R17 R18
VSS
R19 R20 T14 T15 T16 T17 T18 T19 T20 T31 U14 U15 U16 U17 U18 U19 U20 U33
L33
6
56
10
100n
100n
2620
2619
7600-9
PNX85439E
AJ12 AJ13 AJ14 AJ20 AJ23 F18 F19 F20 F25 F26 F9 K30 L30 U30 V30 V6
AF5 AF6 AG5 AG6
AC6 AD6
P6 R6 H5
T5
F604
100n
T3 L6 M6 N6 T6
D16 E17
F16 E16 C13 C17
E13
E14
AJ26
100n
F17
D4 K6
VDD_1V2_CORE
VDD_1V2_SBCORE
VDD_3V3_SBPER
VDDA_3V3_VID_1_1 VDDA_3V3_VID_1_2 VDDA_3V3_VID_4 VDDA_3V3_DCSCCO VDDA_1V2_DCS_A
VDDA_1V2_VID
VSS_CL
VDDA_1V2_HDMI_EQ VDD_3V3_HDMI_TERM_2 VDDA_HDMI_3V3_BIAS VDDA_3V3_HDMI_PLL_2 VDD_1V2_HDMI_1 VDD_1V2_HDMI_2 VDDA_1V2_HDMI_EQ VDD_3V3_HDMI_TERM_1 VDDA_3V3_HDMI_PLL_1
VPP_ID_8542 VPP_ID_8543 VDDA_3V3_VIDOUT VDDA_1V2_ADC4A
112
12
VDD
AH30
AG30
VDD_1V8_DDR
R21
" X600 ~ X699 "
1110
13
+3V3-PER
VDD_3V3_PER
VDDA_1V2_CAB
VDDA_3V3_MCAB
JTAG_VSST1
VDDA_1V2_USB_PLL
VDDA_3V3_USB
GNDA_USB
VDDA_1V2_LVDS_PLL
VDD_3V3_LVDS
VDDA_3V3_LVDS
VDDA_1V2_AADC VDDA_3V3_AADC
VDDA_3V3_ACT
VDDA_3V3_ADAC
VDDA_1V2_DLL
VDDA_3V3_DDRPLL0
VSSA_DDRPLL0
VDD_1V2_DDRPLL0
VSS_DDRPLL
VSSA_DLL
T21
T30
V21
R30
U21
W21
14
AJ21 AJ22 AJ27 AJ28
AJ8 F10 F23 F24 F28
F6
H29
J29
J6
W6
AA6 AB6
AM3
AK17
AJ17
AJ16
AJ18 AK20 AK21 AK24
AL21
AJ19
AJ7 AJ6 AK8 AK12
Y30
AJ30
P30
AF30D14
AC30 AD30
AB30 AA30
W30
0
AK30
1
N30
4
AE30
7
Y21
2682
100n
DC343514
CLASS_NO
3PC332
-- -- --
2008-10-17
2009-01-1623
NAME
Vincent Yap / Lee CW
SV
144 15
100n
100n
RES
2645
RES
2644
2684
100n
2683
1
CHECK DATE
RES
100n
16
100n
100n
100n
RES
RES
2648
2647
2646
I614
2657
2696
2694
2695
100n
100n
100n
PCB SB SSB BD
TV543_2K9
SUPERS.
16
RES
2649
2667
RES
2685
100n
5618
33R
100n
100n
2668
100n
2008-10-17
100n
RES
2650
2664
RES
F619
100n
2686
**** *** *****
100n
RES
2651
+1V2-PNX85XX
2665
100n
1u0
2669
VDDA-DAC
VDDA-ADC
2674
2687
100n
********EMANTESNHC
17
100n
100n
2652
2653
I613
F616
100n
2666
100n
F620
100n2673
100n
2676
100n
2675
100n
2678
2680 100n
2688
2689
100n
100n
17
1864
19
20
A
F611
5612
+3V3
100n
100n
2654
2655
100n
2658
2659
5616
33R
100n
2663
5620
+1V2-PNX85XX
33R
33R
2656 1u0
F612
5617
+3V3
33R
1u0
+1V2-PNX85XX
VDDA-LVDS
F617
F618
RES
2670
5613
+1V2-PNX85XX
33R
1u0
100n
2660
2661
F615
5614
+3V3
33R
100n
2662
5615
+3V3
33R
5619
+3V3
33R
1u0
2671
100n
B
C
D
E
F
5621 33R
F621
100n
2672
F622
100n
2677
100n
F623
1u0
2679
F624
2681 100n
F626
2690
1u0
1u0
VDDA-AUDIO
33R5622
VDDA-AUDIO
G
5623
+1V2-PNX85XX
33R
5624
+3V3
33R
5625
+1V2-PNX85XX
33R
+1V8-PNX85XX
H
I
J
K
L
M
N
O
1
2009-01-16
1 2008-12-16
3139 123 6443
25
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
1812
13010
19
04
20
P
A2
2606 D2 2607 E2 2608 A6 2609 A6
A
2610 A6 2611 A6 2612 A7 2613 A7 2614 A7 2615 A7 2616 A7 2617 A8 2618 A8 2619 A8 2620 A8 2621 B6
B
2622 B6 2623 C7 2624 C7 2625 C7 2626 E7 2627 C7 2628 D7 2629 D7 2630 E7 2631 D7 2632 E5 2633 E5
C
2634 F5 2635 F5 2636 F7 2637 F7 2638 F8 2639 F8 2640 G7 2641 G7 2642 G8 2643 G8 2644 B12
D
2645 B13 2646 B13 2647 B13 2648 B13 2649 B13 2650 B14 2651 B14 2652 B14 2653 B14 2654 B15 2655 B15 2656 B15
E
2657 C13 2658 C14 2659 C15 2660 B16 2661 B16 2662 C16 2663 C15 2664 D14 2665 D14 2666 D14 2667 D14 2668 D14
F
2669 D14 2670 D16 2671 D16 2672 F15 2673 F14 2674 F14 2675 F14 2676 F14 2677 F15 2678 G14 2679 G15
G
2680 H14 2681 H15 2682 H12 2683 H12 2684 H13 2685 H13 2686 H14 2687 H14 2688 H14 2689 H14 2690 H15 2691 B6
H
2692 B6 2693 B7 2694 H13 2695 H13 2696 H13 2697 D5 2699 C7 26A1 E7 26A2 D7 26A3 C7 26A4 C7 3601 D6
I
5600 C2 5601 D7 5602 C7 5603 D4 5604 D7 5605 E5 5607 F5 5608 E6 5609 F6 5610 F8 5611 G7
J
5612 A15 5613 B16 5614 C16 5615 D16 5616 C15 5617 B15 5618 B14 5619 D16 5620 D15 5621 E15 5622 E15 5623 F15
K
5624 G15 5625 G15 5626 E5 5627 C7 7600-10 G2 7600-9 B9 7601 B3 7602 D5 C600 E3 F600 C4 F601 E2 F602 C8
L
F603 D8 F604 E8 F605 E6 F606 F6 F607 E7 F608 F8
18440_503_090223.eps
F609 F7 F610 G8 F611 A15 F612 B15 F615 C16 F616 C14 F617 D15 F618 D15 F619 D14 F620 E14 F621 E15 F622 F15 F623 G15 F624 G15 F625 D8 F626 H15 I600 C3 I613 B14 I614 B13 I615 G4 I616 C8
090224
2009-Aug-07
Page 96
Circuit Diagrams and PWB Layouts

SSB: PNX8543 - Video/LVDS Out

EN 96Q548.1E LA 10.
2
3
4
5
6
7
8
91413
10 11 121
A
1234
B
PNX8543 - VIDEO STREAMS / LVDS OUTPUT
56
789101112
A
C
7600-5
PNX85439E
LVDS
B
D
E
C
F
7600-11
Y29
W29
AA29
AB29
AC29
PNX85439E
Y4 R2 C4 R4 T4 W4
W5 F11 F12 F13 F14 F15 C14 AJ11 AL12 AK15
AD29
AE29
NC NC
AL25
AL17
AP21
AN21
AN25
AM25
AM26
AP30
AN26
AN31
AP26
AP31
AM27
AP32
AN27
K31
M30
AK28
AL28 AM28 AK29
AL29 AM29 AN29
K29
L29
M29
N29 P29 R29 T29 U29 V29
AF29
AG29
AM30R5AN30
NC
NC
NC
AL26
AP25
AK26
D
G
IREF_LVDS
CLK
LOUT2_A
LOUT2_B
LOUT2_C
LOUT2_D
LOUT2_E
LOUT2_CLK
VDDA-LVDS
12K
3700
F700
AK19
AN18
N
A
AP18
P
AK18
N
B
AL18
P
AN19
N
C
AP19
P
AN20
N
D
AP20
P
AL20
N
E
AM20
P
AL19
N
AM19
P
AN22
N
AP22
P
AK22
N
AL22
P
AN23
N
AP23
P
AN24
N
AP24
P
AL24
N
AM24
P
AL23
N
AM23
P
F702 F703
F704 F705
F706 F707
F708 F709
F710 F711
F712 F713
RX51001A-
RX51001A+
RX51001B-
RX51001B+
RX51001C-
RX51001C+
RX51001D-
RX51001D+
RX51001E-
RX51001E+
RX51001CLK-
RX51001CLK+
RX51002A-
RX51002A+
RX51002B-
RX51002B+
RX51002C-
RX51002C+
RX51002D-
RX51002D+
RX51002E-
RX51002E+
RX51002CLK-
RX51002CLK+
171615
18
19
20
A
3700 B6 3707-1 F6 3707-2 F6 3707-3 F6 3707-4 F6 3708-1 F6 3708-2 F6 3708-3 F6 3708-4 F6
A
3709-1 F8 3709-2 G8 3709-3 F6 3709-4 G6 3710 G7 3711 H1 3714 H2 4700 H6 4701 H2 4702 G4 7600-11 B2 7600-12 F5
B
7600-5 B5 F700 B6 F701 H2 F702 C7 F703 C7 F704 D7 F705 D7 F706 D7 F707 D7 F708 D7 F709 D7 F710 D7
C
F711 D7 F712 D7 F713 E7
B
C
D
E
F
D
G
H
E
I
F
J
G
K
owner.
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
L
H
M
I
N
7600-12
E33 C32 B32 J30 K34 K33 H30 J33
E34
D34
D10 E10 A9 A11 C11 D11 E11 A10
C12
B10
B9
C10
PNX85439E
0 1 2 3
CA_MDO
4 5 6 7
CA_MOSTRT
CA_MOVAL
CA_MOCLK
0 1 2 3
TNR_TSDI
4 5 6 7
TNR_ERROR
TNR_MICLK
TNR_MISTRT
TNR_MIVAL
TUN_CA
CA_DATA
CA_MDI
CA_MISTRT
CA_MIVAL
CA_MICLK
CA_ADD_EN
CA_CDN
CA_OOB_EN
CA_RDY
CA_RST
CA_VCCEN
CA_VPPEN
CA_VSN
G33
0
G31
1
G30
2
H34
3
F34
4
F32
5
F31
6
G34
7
J31
E32
H32H31
B31
K32
0
A32
1
D31
DIR
A31
EN
C31
J34
C34
C33
A33
J32
0
A34
1
3708-1 1 8
36
3708-3 47R
453708-4 47R 27
3708-2
4700
2747R3707-2
47R
45
3707-4 47R
18
3707-1 47R
47R
36
3709-3
3709-4
3710 33R
47R3707-3
36
47R
47R45
CA-MOCLK_VS2
+3V3-PER
CA-MDO(0:7)
CA-MDO(0) CA-MDO(1) CA-MDO(2) CA-MDO(3) CA-MDO(4) CA-MDO(5) CA-MDO(6) CA-MDO(7)
CA-MOSTRT
CA-MOVAL
CA-MOCLK_VS2
FE-DATA(0:7)
FE-DATA(0) FE-DATA(1) FE-DATA(2) FE-DATA(3) FE-DATA(4) FE-DATA(5) FE-DATA(6)
F701
3711
4K7
4701
3714
FE-ERR FE-ERR
RES
10K
FE-DATA(7)
FE-CLK
FE-SOP
FE-VALID
4702
MULTI 12NC : 3139_123_64421 / 64541 / 64561 BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
1234567
CA-MDI0 CA-MDI1 CA-MDI2 CA-MDI3 CA-MDI4 CA-MDI5 CA-MDI6 CA-MDI7
CA-MISTRT
CA-MIVAL
CA-MICLK
CA-ADDEN
CA-CD1 CA-CD2
CA-DATADIR
CA-DATAEN
IRQ-CA
CA-RST
CA-VS1
NC
813709-1 47R
3709-2
72
47R
NC
89
10 11 12
E
H
I
F
J
G
K
H
L
M
I
N
2009-01-16
2008-12-161
O
P
A2
090224
O
P
" X700 ~ X799 "
1
2
543
7
8
9
106
11
12
1413
CLASS_NO
3PC332
-- -- --
2008-10-17
2009-01-16
NAME
Vincent Yap / Lee CW
SV
DC343514
********SETNAMECHN
1
2
3
PCB SB SSB BD
CHECK
TV543_2K9
**** *** *****
SUPERS.
DATE
2008-10-17
17
3139 123 6443
19
03101
05
25
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
181615
1
20
18440_504_090223.eps
2009-Aug-07
Page 97
Circuit Diagrams and PWB Layouts

SSB: PNX8543 Audio Amplifier

EN 97Q548.1E LA 10.
1
A
B
A
C
+AUDIO-POWER
B
D
E
C
F
D
G
H
E
RESERVED FOR ITV
I
F
J
BATHROOM SPEAKER
1 2
G
K
owner.
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
3
502382-0370
L
H
MULTI 12NC : 3139_123_64421 / 64541 / 64561
M
BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
N
2
3 12
5
123
6
4 5 6 7 8 9 10 11 12 13 14
7
PNX8543 - AUDIO AMPLIFIER
ADAC(7)
RES
3819-2
22K
3812
5K6
4801
22K
27
I819
I822
BC847BW
1800
45
3821 100R
F800
3818
4R7
I818
1u0
6801
2800
BZX384-C6V8
3819-3
36
I821
10K
3820
AUDIO-VDD
10K
3810
I810
I811
7808
BC847BW
3814
470R
F801
100R3822
F802
1n0
1n0
EMC
EMC
2824
2825
12345
BC807-25W
22K
3819-1
18
7802 BC847BW
I823
5
22K
3819-4
4
AUDIO-VDD
10K
3811
I813
7809
3815
470R
F812
7801
I812
AUDIO-VDD
ADAC(8)
ADAC(5)
ADAC(6)
3813
5K6
ADAC(3)
ADAC(4)
ADAC(3)
2833 1u0
ADAC(4)
AUDIO-RESET
3
I833
2
3816-2
7
10K
5
I835
6
3816-3
10K
10
I836
2830
9
220p
3817-1
10K
12
I837
2831
13
220p
3817-3
10K
3835-3 22K36
27
2836 33p
7830
TPA6111A2DGN
I847
AMPLIFIER
2
1
I848
IN-
6
2
5
SHUTDOWN
I849
3
BYPASS
GND
104
AUDIO-VDD
4
7803-1 LM324
11
3816-1
18
10K 2823
33p
AUDIO-VDD
4
7803-2 LM324
11
3816-4
54
10K 2808
33p
AUDIO-VDD
4
7803-3 LM324
11
3817-2
27
10K 2809
33p
AUDIO-VDD
4
7803-4 LM324
11
3817-4
5
10K 2810
33p
33p2835
22K3835-2
VDD
Φ
GND_HS
4
9
2806
100n
1
7
8
14
4
8
1
VO
2
10
VIA
11
+3V3
F809
1K0
RES
3831
F803
1K0
3832
RES
F804
1K0
RES
3840
F805
1K0
3834
RES
1u0
2834
1
7
AUDIO-OUT-L
AUDIO-OUT-R
I850
I851
AUDIO-CL-L
AUDIO-CL-R
HP_LOUT
HP_ROUT
8
I845
3835-1 22K18
1u02832
I846
9
I814
2826
220p
2
I815
2827
220p
36
I816
3n3
2811
18
I817
3n3
2812
36
22K3835-4 4 5
3839
10K
1u02837
6789
AUDIO-RESET
F808
3830-4
45
22K
14
63
3830-3
15
7807-1 BC847BPN(COL)26
I839
3841
0R
22K
1u0
2822RES
16
10K
3833
3830-2
22K
1
27
I840
17
+AUDIO-POWER
22K
3830-1
18
5
4
7807-2
BC847BPN(COL)
F811
3
10 11 12 13 14
18
A-PLOP
A-STBY
191311
1800 G1 2800 B2 2806 A8 2808 C8 2809 E8 2810 F8 2811 D7 2812 E7 2822 C12 2823 B8 2824 G2 2825 G2 2826 A7 2827 B7
A
2830 D7 2831 E7 2832 H6 2833 H6 2834 G8 2835 G7 2836 G7 2837 H6 3810 F2 3811 F3 3812 F3 3813 F4
B
3814 G2 3815 G3 3816-1 B8 3816-2 B7 3816-3 C7 3816-4 C8 3817-1 D7 3817-2 D8 3817-3 F7 3817-4 F8 3818 B2
C
3819-1 B3 3819-2 B3 3819-3 C3 3819-4 C3 3820 C2 3821 G1 3822 G1 3830-1 B13 3830-2 C13 3830-3 C11 3830-4 C11 3831 A9
D
3832 C9 3833 B12 3834 E9 3835-1 H6 3835-2 G7 3835-3 F7 3835-4 H6 3839 H7 3840 D9 3841 C11 4801 A3 6801 B2
E
7801 B4 7802 C3 7803-1 A8 7803-2 B8 7803-3 D8 7803-4 E8 7807-1 C12 7807-2 C14 7808 F2 7809 F3 7830 G7
F
F800 G1 F801 G2 F802 G2 F803 B9 F804 D9 F805 E9 F808 C11 F809 A9 F811 C14 F812 B4 I810 F2 I811 F3
G
I812 F4 I813 F3 I814 A7 I815 B7 I816 D7 I817 E7 I818 B2 I819 B3 I821 C2 I822 C3 I823 C3 I833 A7
H
I835 B7 I836 D7 I837 E7 I839 C12 I840 C13 I845 H6 I846 H6 I847 H7 I848 H7 I849 H7
20
I850 H9 I851 H9
A
B
C
D
E
F
G
H
I
J
K
L
M
N
O
P
1
4
5
6
7
8
10
11
" X800 ~ X899 "
1223
139
14
DC343514
CLASS_NO
3PC332
-- -- --
2008-10-17
2009-01-1623
NAME
Hor Siew Lee
SV
1
15
CHECK
********EMANTESNHC
PCB SB SSB BD
TV543_2K9
SUPERS.
**** *** *****
DATE
2008-10-17
16
17
1
1 2008-12-16
3139 123 6443
25
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
06
13010
1918
20
18440_505_090223.eps
O
2009-01-16
P
A2
090224
2009-Aug-07
Page 98

SSB: PNX8543 Audio

Circuit Diagrams and PWB Layouts
EN 98Q548.1E LA 10.
1
A
B
A
C
B
D
E
C
F
D
G
E
H
4903 & 4904
I
F
J
G
K
owner.
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
H
L
MULTI 12NC : 3139_123_64421 / 64541 / 64561
BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
M
2
3
4
5
6
87
10
11 20199
12
13
14
15
16
123456789101112
PNX8543 - AUDIO
I901
I902
I903
I904
I905
I906
I907
I908
I909
I910
2926
2927
2928
2929
2930 1u0
2931
2933
2934
2935
1u0
33p
RES
2900
1u0
33p
2901
RES
1u0
33p
2902
RES
1u0
33p2903
RES
33p
RES
2904
1u0
33p
RES
2905
1u02932
33p
RES
2906
1u0
33p
RES
2907
1u0
33p
RES
2908
1u0
33p
RES
2909
VDDA-AUDIO
RES
47K
3932
SPDIF-IN
47K
3933
10u
4K7
4K7
2924
3906
2925
100n
3907
3908
I921
I916
75R
5902
33R
2910-1
5900
33R
100n 100n
2910-2
2718
I914
10u
2912
2910-4
45
7600-7
PNX85439E
AK7 AL7
AM8 AM9
AP8 AN8
AN7 AP7
AK6 AL6
AM6 AN6
AP6 AM5
AN5 AP5
U5 C19
AN15 AL14
AK14 AP15 AM15 AL15
AM14
I917
B1
I918
AM7
I919
100n
100n
2910-3
36
L
VREF_AADC
R
NEG
VREF
POS
VRNEG AADC
L
AIN_1
R
L
AIN_2
R
L
AIN_3
R
L
AIN_4
R
L
AIN_5
R
1
SPDIF_IN
2
OSCLK SCK
SD1 SD2
I2S_IN
SD3 SD4
I2S_IN_WS
RESREF
VCOM_ADC
C1
AOUT
D3
AGND1
VDDA-AUDIO
VDDA-AUDIO
AUDIO
AADC
I2S_IN
VDDA_3V3_DAC
VSSA_ADAC
ADAC1
ADAC3
ADAC6 N
ADAC7BUF ADAC8BUF
ADAC
SPDIF_OUT
OSCLK
I2S_OUT
I2S_OUT_SD
I2S_OUT_WS
VDDA-AUDIO
7900
10u
2919
ADAC(1)
ADAC(2)
ADAC(3)
ADAC(4)
ADAC(5)
ADAC(6)
ADAC(7) ADAC(8)
ADAC(7) ADAC(8)
SPDIF-OUT-1
AUD_GND
10
I922
2920
LD2985BM33R
5
OUT IN
4
10n
ADAC(1) ADAC(2) ADAC(3) ADAC(4)
ADAC(8) ADAC(7)
1
3
INHBP
COM
2
3n3
2936
3n3
2922
11 12
RES
2921
I913
22K
3909
3n3
2937
2938
AUD_GNDAUD_GND
3n3
2923
+5V
10u
3910
+3V3
22K
3n3
3n3
2939
I911
8
100n
2915-2
2915-1
VDDA-DAC
1
27
AK9
AJ10
AN14 AP14
N
AL13
P
AP13 AN13
NADAC2
AM1333K27
P
AM12
AN12
N
AP12
P
AM11
AL11
NADAC4
AK11
P
AN11 AP11
NADAC5
AL10
P
AP10 AN10
AM10
P
AP9 AN9
AL9
7
AL8
8
V1
AA2
Y2
SCK
Y3
1
AA1
2
AA3
3
AA4
4
Y1
AUD_GND
I920
3911-4
3911-3 33R
3912-3 33R
3912-1
3914 33R
3911-1 33R
3915 68R
100n
100n
2915-3
36
45
36
45
36
7
2
8
1
27
1
8
5
2915-4
4
33R
33R3912-4
33R3912-2
33R
33R3913 RES
33R3911-2
5901
F901
33R
100n
RES
F902
45
RES
6901
CDS4C12GTA
RES
6900
CDS4C12GTA
PnS SS
12V
12V
OTHERS
YESX
X 33K33K 33K33K 33K 33KX33K
22K 100K
X
X
3900-4 33K
3900-1 1 8 33K
45
3904-4 33K
3904-3 3 6
4 5 33K3903-4
3903-2 33K27
3924-2
3926-1 33K18
X X
X 33K 33K 33K
33K 33K 33K 33K
33K
3900-3
36
33K
3900-2
27
33K
3905-4
4901
45
33K
33K
3905-3
4902
36
33K
3923-4
4905
45
33K
3923-2
27
33K3924-1 1 8
33K
3925-1
4903
4906
18
33K
3925-2
27
33K
3927-1
33K3926-2 2 7
4904
33K
3927-2
7281
AUDIO-IN1-L
AUDIO-IN1-R
AUDIO-IN2-L
AUDIO-IN2-R
AUDIO-IN3-L
AUDIO-IN3-R
AUDIO-IN4-L
AUDIO-IN4-R
AUDIO-IN5-L
AUDIO-IN5-R
4901 & 4902
4905 & 4906
3904 3905 3903 3923 3924 3925 3926 3927
FLAVORS 22"
FLAVORS 32"/42"
YES
X
YES
X
X 15K 220K
100K XX X X 33K X
X
YES
22K
X
33K
123456789
I905 C4 I906 C4 I907 D4 I908 D4 I909 E4 I910 E4 I911 C9 I913 C11 I914 C7 I916 B7 I917 F7 I918 F7 I919 G7 I920 F9 I921 B7 I922 C10
18
A
B
C
D
E
F
G
H
I
J
K
L
17
2900 B5 2901 B5 2902 B5 2903 C5 2904 C5 2905 D5 2906 D5 2907 E5 2908 E5
A
2909 E5 2910-1 B7 2910-2 B7 2910-3 C7 2910-4 C7 2912 C7 2915-1 C9 2915-2 C9 2915-3 C9 2915-4 C9 2919 C10 2920 C10
B
2921 C11 2922 E11 2923 E11 2924 G5 2925 G6 2926 A4 2927 B4 2928 B4 2929 C4 2930 C4 2931 C4 2932 D4
C
2933 D4 2934 E4 2935 E4 2936 E11 2937 E11 2938 E11 2939 E12 3900-1 B2 3900-2 B3 3900-3 A3 3900-4 A2
D
3903-2 C2 3903-4 C2 3904-3 C2 3904-4 B2 3905-3 C3 3905-4 B3 3906 G6 3907 G6 3908 G6 3909 C11 3910 C11 3911-1 F9
E
3911-2 F9 3911-3 D9 3911-4 D9 3912-1 E9 3912-2 E9 3912-3 E9 3912-4 D9 3913 F9 3914 F9 3915 F9 3923-1 D3 3923-4 C3
F
3924-1 D2 3924-2 D2 3925-1 D3 3925-2 E3 3926-1 E2 3926-2 E2 3927-1 E3 3927-2 E3 3932 F6 3933 F6 4901 B4
G
4902 C4 4903 D3 4904 E4 4905 C4 4906 D4 5900 B7 5901 C10 5902 B7 6900 E2 6901 D2 7600-7 C7 7900 B11
H
F901 C10 F902 F10 I901 A4 I902 B4 I903 B4 I904 C4
M
N
O
P
" X900 ~ X999"
21
3
4
5
6
7
8
9 15
10
11
12 13
14
DC343514
CLASS_NO
3PC332
-- -- --
2008-10-17
2009-01-1623
Hor Siew Lee
NAME
SV
********EMANTESNHC
1
PCB SB SSB BD
CHECK
TV543_2K9
**** *** *****
SUPERS.
2008-10-17
DATE
16
17
3139 123 6443
25
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
07
13010
18
1
1 2008-12-16
2019
18440_506_090223.eps
N
O
2009-01-16
P
A2
090224
2009-Aug-07
Page 99
Circuit Diagrams and PWB Layouts

SSB: PNX8543 Analog AV

EN 99Q548.1E LA 10.
2A02 D3 2A03 E3 2A04 F2
A
2A06 B6 2A07 C6 2A08 D6 2A09 D5
B
C
A
D
B
E
F
C
G
D
H
E
I
J
F
K
owner.
All rights reserved. Reproduction in whole or in parts
is prohibited without the written consent of the copyright
G
L
M
H
MULTI 12NC : 3139_123_64421 / 64541 / 64561
N
BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
2A10 E11 2A11 E11 2A12 D11 2A13 E6 2A14 E6 2A15 E6 2A16 E6
2A17 F6 2A18 F6 2A19 F6 2A20 F6 2A21 F6 2A22 G6 2A23 G6
32
2A24 G6 2A25 G6 2A26 H6 2A27 H6 2A28 H6 2A29 H6 2A30 H6
2A31 F12 2A32 C11 2A33 C12 2A34 C12 2A35 B11 2A36 B12 2A37 B12
4
2A38 C11 2A39 C12 2A40 C12 2A41 F11 2A42 F12 2A43 F12 2A44 E11
2A45 E12 2A46 E12 2A47 D11 2A48 D12 2A49 D12 2A50 F11 2A51 G6
6
2A52 G11 2A53 H11 2A54 A7 2A55 B7 2A56 A7 2A57 G11 2A59 H12
2A60 H11 2A65 E9 2A66 E10 2A67 E10 2A68 F11 2A69 F11 2A70 E10
7
2A71 G6 2A72 C5 2A73 C6 2A74 C5 2A75 C6 2A76 D5 2A77 D6
8
3A06 E3 3A07 E3 3A08 E3 3A09 F3 3A10 F2 3A11 F2 3A13 D3
3A14 B5 3A15 C6 3A16 C5 3A17 C6 3A18 D5 3A19 D6 3A20 F14
9
3A21 F12 3A22 C13 3A23 C12 3A24 B13 3A25 B12 3A26 C13 3A27 C12
105
3A28 F13 3A29 F12 3A30 E13 3A31 E12 3A32 D13 3A33 D12 3A34 G14
3A35 G12 3A36 G14 3A37 G12 3A38 H14 3A39 H12 3A40 A6 3A41 A6
3A42 B6 3A43 B7 3A44 A6 3A45 B7 3A46 G14 3A47 H12 3A49 H11
121
3A50 D3 3A51 F3 3A52 E2 3A53 E2 3A54 B5 3A55 C5
4A01 D12 4A02 E12 4A03 E12 4A04 E5 4A05 E5 4A06 F5 5A00 C12
13
5A01 B12 5A02 C12 5A03 F12 5A04 E12 5A05 D12 5A06 B6 5A07 C6
4111
5A08 D6 7600-1 D3 CA01 H10 FA11 C6 FA13 B6 FA14 D3 IA03 E3
IA04 E3 IA05 F3 IA06 F3 IA07 F3 IA09 F6 IA11 G6 IA12 G53A56 D5
15
IA14 H5 IA15 H5 IA16 H5 IA17 C12 IA18 C13 IA19 F13
16
IA20 E12 IA21 F12 IA22 C12 IA24 D12 IA25 F12 IA27 H12 IA28 A6
IA29 A6 IA30 G12 IA33 F12 IA35 E3 IA43 E13 IA44 D13 IA45 H11
17
18
IA46 H12IA13 G6
19
1234567891011121314
PNX8543 - ANALOG AV
3A44
3A4218R
RES 2A73
2A75
RES
2A77
RES
3A40
10n2A13
22n2A14
22n
22n2A19
22n
22n2A22
22n2A26
22n2A28
22n2A30
IA28
IA29
FA13
56R
100p
3A15
FA11
56R
100p
3A17
56R
100p
3A19
IA09
IA11
IA13
SIF-GND
2A06
2A07
2A08
56R
22n
22n
22n
56R
56R
3A41
22n 2A56
3A45
3A43
2A5422n
2A5522n
SCART
CINCH
Y Y Y
N N N N Y YYN
N Y N
N N N
Y Y Y Y N
N Y
22n
2A66 22n
2A65
*
*
2A67 22n
2A70 22n
*
*
CA01
2A10 2A11 2A12 2A41 2A44 2A47 2A65 2A66 2A67 2A68 2A69 2A70
22n2A68
**
SIF-GND
22n2A69
2A60 12p
SCART
2A32
2A12 22n
*
2A47 22n
*
2A11
* *
2A10 22n
*
2A41
*
2A35
22n
2A38
22n
22n
22n
22n2A44
22n
2A57 22n
IA45
3A49 390R
2A31
5A01
1u8
47R
150p
3A25
2A36
IA22
5A02
1u8
47R
150p
2A39
3A27
5A00
IA17
1u8
47R
150p
2A33
3A23
FOR CINCH
IA24
3A33
2A48
*
IA20
150p
2A45
3A31
*
FOR CINCH
IA21
3A29
2A42
*
22n
IA33
47R
3A21
22n
IA25
47R
3A35
22n2A52
47R
3A37
IA30
47R
3A47
IA27
22n2A53
47R
3A39
IA46
2A59
2A37
2A40
2A34
4A01
5A05
1u8
150p
FOR SCART
FOR CINCH
4A02
5A04
1u8
FOR SCART
4A03
5A03
1u8
150p
FOR SCART
3A24
27R
150p
3A26
27R
150p
IA18
3A22
27R
150p
IA44
3A32
*
SCART
27R
150p
2A49
IA43
*
3A30
150p
2A46
3A28
*
IA19
150p
2A43
100n
3A28 3A29 3A30 3A31 3A32 3A33
3A20
3A34
3A46 27R
47R 27R 47R 27R 47R
27R
27R2A50
27R3A36
27R3A38
AV2-Y_SC2-G
CINCH 18R 56R 18R 56R 18R 56R
AV2-PB_SC2-B
AV2-PR_SC2-R
FRONT-Y_CVBS
SC1-G
SC1-B
SC1-R
CVBS1
CVBS2
CVBS
FRONT-C
H-SYNC-VGA
V-SYNC-VGA
RES
3A10
RES
3A11RES 75R
R-VGA
B-VGA
G-VGA
2A04
3A50
3A53 100R
2A03
3A06
3A07
3A08 3A51
3A09
270p
75R
180R
FA14
270p
3A13
180R
2A02
RES
T1 P1
100R3A52
T2
IA03
U1
22n
IA35
A1
10K
IA04
C3
4K7
C2
4K7
180R
A3
180R
B3
IA05
A2
IA06
B2
IA07
J5
Y_CVBS-MON-OUT
7600-1 PNX85439E
ANALOG_VIDEO
SYNC_IN_1 SYNC_IN_2
HSYNCIN
IN
VSYN
OUT
CURREF
BIAS
DAC
AGC
P
CVBS1Y
N
P
CVBS2C
N
GND_A3_TG
PC1_AI1 PC1_AI2 PC1_AI3
PC1_AID
REF 1
PC2_AI1 PC2_AI2 PC2_AI3 PC2_AID
REF 2
PC3_AI1 PC3_AI2 PC3_AI3 PC3_AID
REF 3
REF 4
REF 5
AI1N_IF AI1P_IF AI2P_IF AI2N_IF
18R
18R
AV3-PR
AV3-PB
AV3-Y
2A09
R1 R3
P3 P4 P5 N1
AI11
N2
AI12
N3
AI13
N4
M1 M3
M4 M5 L1
AI21
L2
AI22
L3
AI23
L4
K1
K3 K4 K5 J1
AI31
J2
AI32
J3
AI33
J4
G3
AI4N
G4
AI41
H1
AI42
H2
AI43
H3
AI44
H4
F1
AI5N
F2
AI51
F3
AI52
F4
AI53
G1
AI54
G2
D2 D1
E1
E2
3A14
18R
5A06
RES
3A54
RES
18R
330n
100p
2A72
RES
3A16
18R
5A07
RES
3A55RES
18R
330n
100p
2A74
RES
3A18
18R
5A08
RES
RES 3A56
18R
4A04
4A05
4A06
2A76
RES
RES
RES
IA12
IA14
IA15
IA16
330n
100p
2A15 22n
2A16 22n
2A17 22n 2A18
2A20 2A21 22nRES
2A23 22n
2A24 22n
2A71 100p
2A25 22n 2A51 22n
2A27 22n
2A29 22n
10n
15
SIF
20
A
B
C
A
D
B
E
C
F
G
D
H
E
I
J
F
K
G
L
M
H
N
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15
O
P
" XA00 ~ XA99 "
1
3
42
5
6
7
8
9
10
11 12
13
14
CLASS_NO
3PC332
-- -- --
2008-10-17
2009-01-16
NAME
Vincent Yap / Lee CW
SV
DC343514
1
2
3
15
PCB SB SSB BD
********SETNAMECHN
TV543_2K9
**** *** *****
SUPERS.
2008-10-17
DATECHECK
1
3139 123 6443
19
08
03101
20
25
C
ROYAL PHILIPS ELECTRONICS N.V. 2008
1716
18
18440_507_090223.eps
2009-Aug-07
2009-01-16
2008-12-161
O
P
A2
090224
Page 100

SSB: PNX8543 SDRAM

Circuit Diagrams and PWB Layouts
EN 100Q548.1E LA 10.
12
A
B
C
D
E
F
G
H
I
J
K
All rights reserved. Reproduction in whole or in parts
owner.
is prohibited without the written consent of the copyright
L
M
4
1
2 3 4 5 6 7 8 9 10 11 12 13
7
863
9
10 18
115
13
14
5121
16
PNX8543 - SDRAM
7600-2
A
B
C
D
DDR2-A0 DDR2-A1 DDR2-A2 DDR2-A3 DDR2-A4 DDR2-A5 DDR2-A6 DDR2-A7 DDR2-A8 DDR2-A9 DDR2-A10 DDR2-A11 DDR2-A12
DDR2-BA0 DDR2-BA1 DDR2-BA2
DDR2-CAS
DDR2-CKE
DDR2-CLK_N DDR2-CLK_P
DDR2-CS
DDR2-DQM0 DDR2-DQM1 DDR2-DQM2 DDR2-DQM3
DDR2-DQS0_N DDR2-DQS0_P
DDR2-DQS1_N DDR2-DQS1_P
DDR2-DQS2_N DDR2-DQS2_P
DDR2-DQS3_N DDR2-DQS3_P
3B00
220R
+1V8-PNX85XX
E
100n
100n
100n
2B06
2B05
2B04
F
DDR2-ODT DDR2-CKE DDR2-WE DDR2-CS DDR2-RAS DDR2-CAS
DDR2-BA0 DDR2-BA1
G
H
DDR2-A0 DDR2-A1 DDR2-A2 DDR2-A3 DDR2-A4 DDR2-A5 DDR2-A6 DDR2-A7 DDR2-A8 DDR2-A9 DDR2-A10 DDR2-A11 DDR2-A12
DDR2-CLK_P DDR2-CLK_N
DDR2-DQS0_P DDR2-DQS0_N
DDR2-DQS1_P DDR2-DQS1_N
3B06
3B08
33R
33R
2B07
3B05
100n
100n
100n
2B08
33R
2B10
2B09
RES
220R
3B07
33R
3B09
100n
100n
100n
2B12
2B11
HYB18TC512160B2F-3S
7B01
M9
A1E1J9
J1
A9G9C1C3C7
R1
VDD
K9
ODT
K2
CKE
K3
WE
L8
CS
K7
RAS
L7
CAS
L2
0
BA
L3
1
M8
0
M3
1
M7
2
N2
3
N8
4
N3
5
N7
6
P2
7
P8
8
P3
9
M2
10
P7
11
R2
12
J8
CK
K8
F7
LDQS
E8
B7
UDQS
A8
VDDL
Φ
SDRAM
A
VSSDL
J3
P9J7A7
N1
B2
A3
E3
PNX85439E
MEMORY
AA34
0
AE33
1
AA33
2
AD31
3
Y34
4
AD32
5
M_A
W33
6
AC32
7
W34
8
Y31
9
AD34
10
V33
11
Y32
12
AC34
0
AD33
M_BA
1
AA32
2
W32
M_CASB
AE31
M_CKE
AB33
N
M_CLK
AB34
P
W31
M_CSB
AJ34
0
AJ31
1
M_DQM
R34
2
R31
3
AG33
N
AG34
M_DQS0
P
AH31
N
M_DQS1
AH32
P
N34
N
M_DQS2
N33
P
N31
N
M_DQS3
N32
P
2B02
1u0
2B03
330u 6.3V
RES
2B13
G7
G3
C9E9G1
VDDQ
B8
E7
D2
D8
A2 E2
L1
NC
R3 R7 R8
G8
0
G2
1
H7
2
H3
3
H1
4
H9
5
F1
6
F9
7
DQ
C8
8
C2
9
D7
10
D3
11
D1
12
D9
13
B1
14
B9
15
B3
UDM
F3
LDM
J2
VREF
QSSVSSV
F2
F8
H2
H8
AH34
0
AK33
1
AH33
2
AL34
3
AL33
4
AE34
5
AK34
6
AF34
7
AG32
8
AK31
9
AJ32
10
AL32
11
AL31
12
AF31
13
AK32
14
AF32
15
P34
M_DQ
16
T34
17
R33
18
U34
19
V34
20
M33
21
T33
22
M34
23
P31
24
T32
25
P32
26
U31
27
U32
28
M31
29
R32
30
M32
31
AA31
IREF
V31
ODT
V32
M
RASB
AB32
VREF
AE32
WEB
100n
100n
100n
2B15
2B14
2B16RES
3B11
3B13
3B15
3B17
3B19
3B21
3B23
3B25
33R
2B21 100n
3B03
FB02
5K6
3B04
820R
2B01
100n
100n
100n
2B18
2B17
RES 2B19
RES
RES
3B10
33R
33R
3B12 33R 3B14
33R
33R 3B16
33R
33R 3B18
33R
33R 3B20
33R
33R 3B22
33R
33R 3B24
33R
33R
DDR2-VREF-DDR
DDR2-D0 DDR2-D1 DDR2-D3 DDR2-D2 DDR2-D6 DDR2-D5 DDR2-D4 DDR2-D7 DDR2-D8
DDR2-D9 DDR2-D10 DDR2-D11 DDR2-D12 DDR2-D13 DDR2-D14 DDR2-D15 DDR2-D16 DDR2-D17 DDR2-D19 DDR2-D18 DDR2-D22 DDR2-D23 DDR2-D20 DDR2-D21 DDR2-D24 DDR2-D30 DDR2-D26 DDR2-D25 DDR2-D28 DDR2-D31 DDR2-D27 DDR2-D29
+1V8-PNX85XX
2B00
100n
DDR2-VREF-CTRL
100n
DDR2-ODT
DDR2-RAS
DDR2-WE
22u
100n
2B20
RES
DDR2-ODT DDR2-CKE DDR2-WE DDR2-CS
DDR2-BA2 DDR2-BA2
DDR2-RAS DDR2-CAS
DDR2-BA0
DDR2-D0
DDR2-BA1 DDR2-D1 DDR2-D3
DDR2-A0 DDR2-D2
DDR2-A1 DDR2-D4
DDR2-A2 DDR2-D5
DDR2-A3
DDR2-A4
DDR2-D6 DDR2-D7
DDR2-A5 DDR2-D8
DDR2-A6 DDR2-D9
DDR2-A7
DDR2-D10
DDR2-A8
DDR2-D11
DDR2-A9
DDR2-D12
DDR2-A10
DDR2-D13
DDR2-A11
DDR2-D14
DDR2-A12
DDR2-D15
DDR2-CLK_P
DDR2-CLK_N
DDR2-DQM1 DDR2-DQM0
DDR2-DQS2_P
DDR2-DQS2_N
DDR2-DQS3_P
DDR2-DQS3_N
2B25
100n
100n
100n
2B27
2B28
2B26
3B27
33R
3B29
100n
3B26
33R
2B29
DDR2-VREF-CTRL
100n
2B30
220R
33R
33R
RES
100n
100n
2B32
2B31
HYB18TC512160B2F-3S
3B28
3B30
+1V8-PNX85XX
6.3V
RES
3B47
2B22
3B49
+1V8-PNX85XX
VDD
J3
E3
1K0 1% 1%1K0
J1
SDRAM
P9J7A7H8B2
N1
VDDL
VSSDL
330u
2B23RES
A9
C1
Φ
DDR2-VREF-DDR
6.3V330u 1u0
2B24
C7C9E9G1G3
C3
VDDQ
B8
E7
D2
D8
G7
DQ
QSSVSSV
F8
F2
H2
FB01
100n
100n
2B33
7B00
A1E1J9M9R1
K9
ODT
K2
CKE
K3
WE
L8
CS
K7
RAS
L7
CAS
L2
0
BA
L3
1
M8
0
M3
1
M7
2
N2
3
N8
4
N3
5
N7
A
6
P2
7
P8
8
P3
9
M2
10
P7
11
R2
12
J8
CK
K8
F7
LDQS
E8
B7 A8
UDQS
A3
G9
VREF
+1V8-PNX85XX
FB00
100n
2B34
2B35
A2 E2 L1
NC
R3 R7 R8
G8
0
G2
1
H7
2
H3
3
H1
4
H9
5
F1
6
F9
7
C8
8
C2
9
D7
10
D3
11
D1
12
D9
13
B1
14
B9
15
B3
UDM
F3
LDM
J2
17
1%1%1K0
1K0
3B50 3B48
100n
100n
100n
100n
2B37
2B36
3B32 3B33
3B36
3B38
3B40
3B42
3B44
3B46
2B39
2B38RES
RES
RES
3B31
33R 33R
33R
33R
33R
33R
33R
33R
2B42
100n
100n
100n
2B40
RES
33R
3B3433R
33R3B35 3B37 33R 3B39 33R 3B41 33R 3B43 33R 3B45 33R
DDR2-VREF-DDR
2B41
RES
22u
DDR2-D16 DDR2-D17 DDR2-D19 DDR2-D18 DDR2-D20 DDR2-D21 DDR2-D22 DDR2-D23 DDR2-D24 DDR2-D30 DDR2-D26 DDR2-D25 DDR2-D28 DDR2-D29 DDR2-D27 DDR2-D31
DDR2-DQM3 DDR2-DQM2
19
20
2B00 D7 2B01 D6 2B02 E5 2B03 E5 2B04 F1 2B05 F2 2B06 F2 2B07 F2 2B08 F2 2B09 F2 2B10 F3 2B11 F3
A
2B12 F3 2B13 F5 2B14 F5 2B15 F6 2B16 F6 2B17 F6 2B18 F6 2B19 F6 2B20 F7 2B21 H6 2B22 B10 2B23 E10
B
2B24 E10 2B25 F8 2B26 F8 2B27 F8 2B28 F8 2B29 F8 2B30 F9 2B31 F9 2B32 F9 2B33 F9 2B34 F11
C
2B35 F11 2B36 F12 2B37 F12 2B38 F12 2B39 F12 2B40 F12 2B41 F13 2B42 H12 3B00 C3 3B03 C7 3B04 D7 3B05 H2
D
3B06 H2 3B07 H3 3B08 H2 3B09 H3 3B10 G6 3B11 G6 3B12 G6 3B13 G6 3B14 G6 3B15 G6 3B16 G6 3B17 G6
E
3B18 G6 3B19 G6 3B20 H6 3B21 H6 3B22 H6 3B23 H6 3B24 H6 3B25 H6 3B26 H8 3B27 H8 3B28 H9
F
3B29 H8 3B30 H9 3B31 G12 3B32 G12 3B33 G12 3B34 G12 3B35 G12 3B36 G12 3B37 G12 3B38 G12 3B39 G12 3B40 G12
G
3B41 H12 3B42 H12 3B43 H12 3B44 H12 3B45 H12 3B46 H12 3B47 B10 3B48 B12 3B49 B10 3B50 B12 7600-2 A5 7B00 F10
H
7B01 F3 FB00 B11 FB01 B10 FB02 C6
A
B
C
D
E
F
G
H
I
J
K
L
M
I
N
MULTI 12NC : 3139_123_64421 / 64541 / 64561
I
N
BD 12NC : 3139_123_64431 / 64551 / 64571
CELL 12C : 8239_125_14871
O
P
2
1 2 3 4 5 6 7 8 9 10 11 12 13
DC343514
CLASS_NO
3PC332
-- -- --
1
2008-10-17
2
3
2009-01-16
NAME
" XB00 ~ XB99 "
3
4
6
7
85
9
10
11
12
13
Vincent Yap / Lee CW
SV
1514
PCB SB SSB BD
CHECK
2009-Aug-07
********SETNAMECHN
TV543_2K9
SUPERS.
**** *** *****
DATE
2008-10-17
161
17
25
C
3139 123 6443
03101
ROYAL PHILIPS ELECTRONICS N.V. 2008
09
1918
O
2009-01-16
1
2008-12-161
P
A2
20
18440_508_090223.eps
090224
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