Use of controls, adjustments or procedures other than those specified herein may result in
hazardous radiation exposure.
CAUTION:TO REDUCETHE RISK OF
CAUTION
RISK OF ELECTRIC
SHOCK DO NOT OPEN.
The lighting flash with arrowhead symbol, with an equilateral triangle is intended to
alert the user to the presence of uninsulatedvoltage within the products
enclosure that may be of sufficient magnitude to constitute a risk of electric shock to
the person.
The exclamation point within an equilateral triangle is intended to alert the user to the
presence of important operating and maintenance (servicing) instructions in the
literature accompanying the appliance.
ELECTRICAL SHOCK, DO NOT REMOVE
COVER (OR BACK). NO USER SERVICEABLE
PARTS INSIDE. REFER SER VICING TO
QUALIFIED SERVICE PERSONNEL.
dangerous
WARNING: TO REDUCE RISK OF FIRE OR ELECTRIC SHOCK, DO NOT
EXPOSE THIS APPLIANCE TO RAIN OR MOISTURE.
2
Page 3
IMPORTANT SAFETY INSTRUCTIONS
CAUTION:
Read all of these instructions. Save these instructions for later use. Follow all Warnings and
Instructions marked on the audio equipment.
1. Read Instructions- All the safety and operating instructions should be read before the product is operated.
2. Retain Instructions- The safety and operating instructions should be retained for future reference.
3. Heed Warnings- All warnings on the product and in the operating instructions should be adhered to.
4. Follow Instructions- All operating and use instructions should be followed.
FOR YOUR PERSONAL SAFETY
1.When the power cord or plug is damaged or frayed, unplug this television set from the wall outlet and refer servicing to
qualified service personnel.
2.Do not overload wall outlets and extension cords as this can result in fire or electric shock.
3.Do not allow anything to rest on or roll over the power cord, and do not place the TV where power cord is subject to
traffic or abuse. This may result in a shock or fire hazard.
4.Do not attempt to service this television set yourself as opening or removing covers may expose you to dangerous
voltage or other hazards. Refer all servicing to qualified service personnel.
5.Never push objects of any kind into this television set through cabinet slots as they may touch dangerous voltage
points or short out parts that could result in a fire or electric shock. Never spill liquid of any kind on the television set.
6.If the television set has been dropped or the cabinet has been damaged, unplug this television set from the wall outlet
and refer servicing to qualified service personnel.
7.If liquid has been spilled into the television set, unplug this television set from the wall outlet and refer servicing to
qualified service personnel.
8.Do not subject your television set to impact of any kind. Be particularly careful not to damage the picture tube surface.
9.Unplug this television set from the wall outlet before cleaning. Do not use liquid cleaners or aerosol cleaners. Use a
damp cloth for cleaning.
10.1. Do not place this television set on an unstable cart, stand, or table. The television set may fall, causing serious injury
to a child or an adult, and serious damage to the appliance. Use only with a cart or stand recommended by the
manufacturer, or sold with the television set. Wall or shelf mounting should follow the manufacturer s instructions, and
should use a mounting kit approved by the manufacturer.
10.2. An appliance and cart combination should be moved with care. Quick stops, excessive force, and uneven surfaces
may cause the appliance and cart combination to overturn.
3
Page 4
PROTECTION AND LOCATION OF YOUR SET
11.Do not use this television set near water ... for example, near a bathtub, washbowl, kitchen sink, or laundry tub, in a
wet basement, or near a swimming pool, etc.
Never expose the set to rain or water. If the set has been exposed to rain or water, unplug the set from the wall
outlet and refer servicing to qualified service personnel.
12. Choose a place where light (artificial or sunlight) does not shine directly on the screen.
13. Avoid dusty places, since piling up of dust inside TV chassis may cause failure of the set when high humidity persists.
14. The set has slots, or openings in the cabinet for ventilation purposes, to provide reliable operation of the receiver, to
protect it from overheating. These openings must not be blocked or covered.
Never cover the slots or openings with cloth or other material.
Never block the bottom ventilation slots of the set by placing it on a bed, sofa, rug, etc.
Never place the set near or over a radiator or heat register.
Never place the set inenclosure, unless proper ventilation is provided.
a built-in
PROTECTION AND LOCATION OF YOUR SET
15.1. If an outside antenna is connected to the television set, be sure the antenna system is grounded so as to provide some
protection against voltage surges and built up static charges, Section 810 of the National Electrical Code, NFPA No.
70-1975, provides information with respect to proper grounding of the mast and supporting structure, grounding of the
lead-in wire to an antenna discharge unit, size of grounding conductors, location of antenna discharge unit, connection
to grounding electrode, and requirements for the grounding electrode.
EXAMPLE OF ANTENNA GROUNDING AS PER NATIONAL ELECTRICAL CODE INSTRUCTIONS
EXAMPLE OF ANTENNA GROUNDING AS PER
NATIONAL ELECTRICAL CODE
ANTENNA
LEAD- IN WIRE
GROUND CLAMP
ANTENNA DISCHARGE
UNIT (NEC SECTION
810-20)
GROUNDING
ELECTRIC SERVICE
EQUIPMENT
NEC-NATIONAL ELECTRICAL CODE
15.2. Note to CATV system installer : (Only for the television set with CATV reception)
This reminder is provided to call the CATV systemattention to Article 820-40 of the NEC that provides
installer s
guidelines for proper grounding and, in particular, specifies that the cable ground shall be connected to the grounding
system of the building, as close to the point of cable entry as practical.
16.An outside antenna system should not be located in the vicinity of overhead power lines or other electric lights or power
circuits, or where it can fall into such power lines or circuits. When installing an outside antenna system, extreme care
should be taken to keep from touching such power lines or circuits as contact with them might be fatal.
CONDUCTORS
(NEC SECTION810-21)
GROUND CLAMPS
POWER SERVICE GROUNDING
ELECTRODE SYSTEM
(NEC ART 250. PART H)
17.For added protection for this television set during a lightning storm, or when it is left unattended and unused for long
periods of time, unplug it from the wall outlet and disconnect the antenna. This will prevent damage due to lightning
and power-line surges.
4
Page 5
OPERATION OF YOUR SET
18.
This television set should be operated only from the type of power source indicated on the marking label.If you are not
sure of the type of power supply at your home, consult your television dealer or local power company. For television
sets designed to operate from battery power, refer to the operating instructions.
19.If the television set does not operate normally by following the operating instructions, unplug this television set from the
wall outlet and refer servicing to qualified service personnel. Adjust only those controls that are covered in the operating
instructions as improper adjustment of other controls may result in damage and will often require extensive work by a
qualified technician to restore the television set to normal operation.
20.When going on a holiday : If your television set is to remain unused for a period of time, for instance, when you go on
a holiday, turn the television setand unplug the television set from the wall outlet.
off
IF THE SET DOES NOT OPERATE PROPERLY
21. If you are unable to restore normal operation by following thedetailed procedure in your operating instructions,
do not attempt any further adjustment. Unplug the set and call your dealer or service technician.
22. Whenever the television set is damaged or fails, or a distinct change in performance indicates a need for
service, unplug the set and have it checked by a professional service technician.
23. It is normal for some TV sets to make occasional snapping or popping sounds, particularly when being
turned on or off. If the snapping or popping is continuous or frequent, unplug the set and consult your
dealer or service technician.
FOR SERVICE AND MODIFICATION
24. Do not use attachments not recommended by the television set manufacturer as they may cause hazards.
25. When replacement parts are required, be sure the service technician has used replacement parts specified
by the manufacturer that have the same characteristics as the original part. Unauthorized substitutions
may result in fire, electric shock, or other hazards.
26. Upon completion of any service or repairs to the television set, ask the service technician to perform
routine safety checks to determine that the television is in safe operating condition.
5
Page 6
MT35-EU Product Specification
Model #22E92NH2226E90NH2226E92NH2232E90NH2232E92NH22
DVBT (yes/no)Yes(MPEG 2)Yes(MPEG 2)Yes(MPEG 2)Yes(MPEG 2)Yes(MPEG 2)
Video standard NTSC 3.58 / 4.43 (AV)YesYesYesYesYes
HD capability
PC capability (up to maximum format)UXGAUXGAUXGAUXGAUXGA
User convenience
IB languages
Program Numbers (example: 99+3AV)
Number of buttons on cabinet (Power; Vol+/-;
Pr+/-, Menu )
Main switch button (yes/no)NoNoNoNoNo
ClockYesYesYesYesYes
Sleep timerYesYesYesYesYes
wake-up timerYesYesYesYesYes
Parent Control - Channel lock (Input code for
certain channel)
Parent Control - Child lock (set the lock of the
keyboard, only the RCU can control the TV)
Parent Control - Kid pass (preset the ontime,
channel for each day of the week)
Parent Control - Channel lock (For digital
transmission and DVD program, to filter some
programms)
Program auto switch offYesYesYesYesYes
TV GuideYesYesYesYesYes
Auto Naming/Auto SortingYes/YesYes/YesYes/YesYes/YesYes/Yes
Auto update (for DVBT software ugrades)NoNoNoNoNo
Multipicture : PIP (Double Tuner) / PIP (AV) /
PAP / PAT / PIC
Hotel mode (Y/N)NoNoNoNoNo
Tuner FM (yes/no)Yes(in DVB-T)Yes(in DVB-T)Yes(in DVB-T)Yes(in DVB-T)Yes(in DVB-T)
Connectors (if possible, please indicate the
position)
RF Input (Antenna): Analogical / Digital2 in 12 in 12 in 12 in 12 in 1
Scart 1 : CVBS / RGB / S-VIDEO1/1/-1/1/-1/1/-1/1/-1/1/CINCH audio in / out (No volumpe control on
Audio out/can be jack 3,5mm)
CINCH video in / out1(side)/-1(side)/-1(side)/-1(side)/-1(side)/S-video in / out1(side)/-1(side)/-1(side)/-1(side)/-1(side)/-
Latin Pan-Euro West
Latin Pan-Euro East
Cyrillic(RussiaBulgarian/Ukrainian/
Byelorussia)
Greek
Arabic
Page 8
Component Video Input (YCrCb/YPrPb)1(rear)1(rear)1(rear)1(rear)1(rear)
Component Audio Input (YCrCb/YPrPb)1(rear)1(rear)1(rear)1(rear)1(rear)
VGA in / Audio L/R in / Jack audio in 3.5mm1/-/11/-/11/-/11/-/11/-/1
HDMI1.32(1.3)2(1.3)2(1.3)2(1.3)2(1.3)
DVI-HDCPShare with HDMIShare with HDMIShare with HDMIShare with HDMIShare with HDMI
Audio input for DVI – HDCPshare with VGAshare with VGAshare with VGAshare with VGAshare with VGA
CINCH subwoofer out / Coaxial out (SP-DIF)-/Yes-/Yes-/Yes-/Yes-/Yes
Headphone connector (mm)3.5mm,x1 (side)3.5mm,x1 (side)3.5mm,x1 (side)3.5mm,x1 (side)3.5mm,x1 (side)
RS232 (Y/N)share with VGAshare with VGAshare with VGAshare with VGAshare with VGA
USB slot (NO/1.1/2)
Yes(only for SW
update)
Yes(only for SW
update)
Yes(only for SW
update)
Yes(only for SW
update)
Yes(only for SW
update)
DVB-CI (common interface)YesYesYesYesYes
Accessories included
Remote control referenceRC1994906RC1994906RC1994906RC1994906RC1994906
Carton (English/French/Spanish)Yes(English)Yes(English)Yes(English)Yes(English)Yes(English)
BatteriesYesYesYesYesYes
IBYesYesYesYesYes
Product registration CardNoNoNoNoNo
AC power cords11111
Audio Cord (Cinch to Jack 3.5mm)NoNoNoNoNo
VGA CordNoNoNoNoNo
WallmountNoNoNoNoNo
Antenna CableNoNoNoNoNo
General Data
Size (W x H x D, with stand) in mm529x439x180663x504x205663x504x205796x582x230796x582x230
Size (W x H x D, without stand) in mm529x403x73.5663x461x108663x461x108796x535x102796x535x102
Package Size (W x H x D, with stand but not
The xxE90/E92NH22 models are Europe LCD platform with DVB-T designed for driving below
panels:
• 32” LPL (LVDS)
• 26” CMO(LVDS)
• 22” AUO(DUAL LVDS)
The main chip is from Mediatec (MTK5335 series) and supports below inputs:
• one analog and digital mixed RF (PAL B/G D/K I, SECAM B/G D/K L/L’,DVB-T)
• one SCART (CVBS & RGB)
• one CMP (YPrPb can support from 480i up to 1080p)
• one VGA
• two HDMI (can support 480i/p, 576i/p, 720p up to 1080i/p)
compliant v1.2. with HDCP, audio included as EIA-861B standard
• one S-Video input
• one Headphone output
• one SPDIF output
More relevant details are listed into the Spec.
INFO:
ª All tests and measurements mentioned hereafter have to be carried out at a normal mains
voltage (110 ~ 240 VAC)
ª All voltages have to be measured with respect to ground, unless otherwise stated
ª All final tests have to be done on a complete set including LCD panel in a room with temperature
of 25+/-7°Cª The White Balance (color temperature) has to be performed into subdued lighted room after at
least 1 hour of warm-up/burn-in. This is applicable for both Alignment and Picture Performance
evaluation at OQA in order to be set free of any temperature drift (colorimetry vs time)
1. Electrical Assembly Alignment
1.1. Preconditions – DC/DC Check
Before Power On the chassis, please check and make sure that U801,U802,U805, U809, U803,
U804, U811,U201,C817(positive) outputs are not shorted to ground.
Supply 12v and 5v to P804 and test the relative voltage.
Download latest release MCU_SW into the Standby CPU(U810) using WT_MCU_ISP SW tool. See
Appendixn “How to download MCU SW”.
Download latest release SW into the flash using MTK SW tool. See Appendixo
“How to download
FLASH SW”. Or download the SW from USB port.
1.2. Functional Test
Once the boards (chassis, FAV, KB, IR, PSU…) and the panel are well interconnected, connect all
external generator devices to relevant inputs/outputs below according to their respective test
patterns format and check picture content and sound quality accordingly:
Source Test signal (generator) Test pattern (format/image)
Analog /Digital Tuner RF cable Full Band (VHF/UHF) + CATV DVB-T
SCART1 (CVBS) Chroma/Fluke PAL Half Color & Gray bars
Side av (cvbs)–
Chroma/Fluke PAL Half Color & Gray bars
SVideo(Y/C)
SCART1 (RGB) Chroma/Fluke Half Color & Gray bars
SCART1 (CVBSOut) RF cable First channel
HDMI DVD with HDMI
Movie 720p@60Hz
compliancy
VGA Chroma/QuantumData 1024x768@60Hz
Half Color & Gray bars
Headphone RF cable First channel
Loud Speakers RF cable First channel
CMP (YPrPb) Chroma/QuantumData 1080i@60Hz
Half Color & Gray bars
Audio tones can be defined by the factory (ie: 1KHz & 3KHz, sweep, …).
Picture video formats can be changed by the factory according to their own standard.
1.3. ADC Calibration
Two inputs require an ADC calibration for the time being, That are:
VGA
Provide a test signal 1024×768@60Hz with White Black squares.
Select the corresponding “Auto Color” submenu item from “Factory Menu”, then press ”OK” to
start.
When VGA channel is aligned, SCAR T-RGB is also aligned, so it is not necessary for RGB to be
separately aligned.
CMP
Provide a test signal 576i@50Hz with 100% 8 steps Color Bar.
Select the corresponding “Auto Color” submenu item from “Factory Menu”, then press ”OK” to
start.
Page 11
The ADC is well performed when it’s displayed “CMP” after few seconds.
1.4. DDC & EDID Test
The E-EDID data structure are according to VESA Enhanced EDID 1.3 (and EIA/CEA-861B for
HDMI).
Both VGA and HDMI have their own separate bin files:
For EDID check, it’s needed to check whether the correct EDID is downloaded by checking
corresponding EDID NVM Checksum or read them out to check bit by bit if it is in line with the
released EDID bin file.
•**Before check the EDID please ensure the “Factory Key” in factory menu is disabled
1.5. HDCP Test
For HDCP compliancy, it’s needed to check whether the HDCP key has been well set.
2. Final Assembly Alignment
2.1. Entering to “Factory Menu”
To enter into Factory Menu in case of “Factory Key” is disabled, please to follow below steps:
- press Remote Control key “MENU” to display main menu
- press the subsequence Remote Control keys “7”, “9”, “1” and “5”
- press Remote Control key “MENU” to exit main menu
- press Remote Control key “MENU” to display main menu again
The main menu will display ”FACTCORY” at the last item
To pop-up Factory Menu in case of “Factory Key” is enabled, please to follow below step:
- press Remote Control key “Blue”
To enable/disable “Factory Key”, please to follow below steps:
- press Remote Control “OK” key to enter into “System” submenu
- press Remote Control “RIGHT ”or “LEFT” key till “Factory Key” item
- press Remote Control “OK” key to toggle mode
To exit “Factory Menu”, press “Exit” key from Remote Control.
To comeback to “Factory Menu” root when you are into a submenu:
- press Remote Control “RED” key.
Entering to “P” Mode
2.2.
To enter into “P” mode, an external serial 3.3VDC device is required for sending relevant
commands. See appendixp
“Serial Command Protocol for MTKxx”.
2.3. White Balance Alignment
Only VGA input requires color temperature adjustment as all other inputs or relative ones. Both
Warm and Cool Color Coordinates are also relatives to Normal Color Temperature mode ones.
See appendixq
“CVBS/RGB/CMP/HDMI Relative Matrix Offsets” and “WARM/COOL Relative
Page 12
Matrix Offsets”. Those offsets values don’t require any alignment but can be fine-tuned in Factory
Menu as well.
<The appendix is just a template, Every lot the relative offset is different. We need to align 5 sets
first to get the relative offset data every lot. >
Expected Targets and Tolerances
The measured parameters should be “x, y” coordinates.
The White Balance alignment should be performed using a contact less analyzer (ei: Minolta
CA-210). The analyzer may not touch the screen surface, and measurement must be performed in
a dark environment keeping the probe(s) at 90+/-2° from the panel.
The alignment has to fulfill the requirements in Application Form.
2.4. High Pot. and Insulating Resistance Tests
At the end of the process, a High Pot. and an Insulating Resistance tests are required for
matching Safety Electrical requirements (ei: xxxx)
High Voltage Withstanding requirements
- “Voltage” Ö 4240VDC
- “Max Leakage Current” Ö 1 mA
- “Test Time” Ö 3 sec
Insulating Resistance requirements
- “Voltage” Ö DC500V
- “Threshold Max” Ö
- “Threshold Min” Ö 4MΩ
- “Test Time” Ö 3 sec
3. “Factory Menu” Definition
1). System
Item Sub-item
Factory Key OFF:Factory Key is invalidation
ON :Factory Key is availability, and BLUE key is the shortcut key.
Note: option step
1)Enter menu
2)7915
3)Exit/Enter menu
4)Enter Factory Item
Enter Factory menu .(Or Enter Factory mode by hotkey )
Burning Mode Off/On
Power Mode Boot/Standby/Previous
Boot: Enter power on mode
Standby: Enter standby mode
Page 13
Pre- frequency
table
Reset
TECI command
2). Balance
Item Sub-item
Balance
Source For balance source
Tone Normal/Warm/Cool
Auto Color
White R R White balance
White G G White balance
White B B White balance
Gray R R Gray balance
Gray G G Gray balance
Gray B B Gray balance
3).Sound Volume Curve
Item Sub-item
Sound
VOL_0 0
Previous: power on according to last status
HuiZhou/ Poland
Note:Pre-Frequency table(HuiZhou/ Poland)
Reset EEPROM data, and load the default value of EEPROM
All: clear NVM values,and set to default value。
User: Clear date of NVM in user menu, except the value of
language / related installation/Factory setting, then set to the
default value.
Shop: Clear date of NVM in user menu, include the val ue related
installation, and Clear date of factory menu except the item
of Balance and sound ,set to default value
Note:Priority below basic function of Factory menu
Note:Switch SOURCE used left/right key
Note: RGB gain range is 0-255
The value of Warm and cool is the
offset of Normal mode, their range is
-128-127, if the offset value beyond
the boundary,set to max or min
value.
Note:display the completed source name
on the right of item,If all the sourcs is
ok ,show “All”
VOL_10 2
VOL_50 14
VOL_90 135
VOL_100 255
Note:mapping volume value
to 0—255 of the MCU
register
Page 14
TV Pre 186
AV Pre 186
4).INFO SW version information
Info
Project LCD_5335_TCL
MTK Version XXXXXX
Version IDTV-XXXXXX_XX
DATE 2008-XX-XX
5).Factory default settings
Followed as OOB setting.
Appendix n
“How to download MCU SW”
Prepare WT_MCU_ISP SW tool for update.
1. Connect the PC to board using MCU updating tool on P802 connector form chassis board.
2. Provide the +5VDC on P804 connector form chassis board and check U811 output voltage
should be 3.3V.
3. Start “WT_MCU_ISP.exe” and download the MCU SW. ( please see file
ISPToolGuideV33-08-2-17)
Appendix o
“How to download FLASH SW”
Prepare MTK SW tool for update.
1. Connect the PC to the board using an external +3.3VDC serial device (USB or COMx) on
P201 connector from chassis board. VGA input can also be used using pin12 (RXD) & pin15
(TXD) just taking care that “Factory Key” from Factory Menu is enabled.
2. Provide the +5VDC STB on P804 connector from chassis board
3. Start “MTKTOOL.exe” application under MTKxx folder, and set the parameters as below
picture:
Page 15
4. Press “Browse” button to select the corresponding SW bin file to upload
5. Press “Upgrade” button to start downloading the SW and wait the gauge displayed “100%”
that means the SW has been successfully downloaded.
In the meanwhile, all operations such erasing flash and so… are parsed into the debug
window script.
6. Once the SW is downloaded, switch-off/on the chassis board and wait few seconds for
Eeprom update.
Appendix p
“Serial Command Protocol for MTKxx”
1. A serial protocol for driving MTK µchip through external +3.3VDC serial device (USB or
COMx) is available. It may facilitate manufacturing process. Thus, both P201 connector from
chassis board or either VGA input can also be used using pin12 (RXD) & pin15 (TXD) just
taking care that “Factory Key” from Factory Menu is enabled.
2. The required serial port settings are as below
• 115200 bps
• 8 data bit
• 1 bit stop
• none parity
3. The command format is like hereafter described into BNS representation:
•0xBB + Command + Data[[..] + ..] + 0xEE
Both 0xBB and 0xEE bytes are mandatory and used as header and footer of the
transmitted frame. Apart from INIT frame that is described further, all sent bytes need to be triggered
before by an additional one as 0x50. So a complete frame might match following one:
customers never miss any wonderful stream. Professional error-concealment provides stable, smooth and
mosaic-free video quality.
Key Features:
An transport demultiplexer
An MPEG2 video decoder
An AC3 audio decoder
Note: All Package are Lead Free
HDMI1.3 receiver
Audio codec
FEATURES
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Page 17
MT5335PU Approval Datasheet
DOCUMENT ARE SUBJECT TO CHANGE WITHOUT NOTICE
Host CPU
ARM 926EJS
8K I-Cache and 8K D-Cache
4K Instruction TCM
JTAG ICE interface
Watch Dog timers
Transport Demultiplexer
Supports a serial or parallel transport stream input
Supports DVB-T, MPEG-2 transport stream input
Supports DES/3-DES/DVB de-scramblers
Up to 8-PID even/odd keys for descrambling
Supports 32 PID filters and 32 section filters
Supports positive/negative/mask section filtering
Supports hardware CRC-32 check
Supports PCR recovery function
Supports a micro-processor for stream process and MPEG start code detection
MPEG2 Decoder
Supports one MPEG-2 HD decoder
MPEG MP@ML, MP@HL and MPEG-1 video standards
2D Graphics
Supports multiple color modes
Point, horizontal/vertical line primitive drawings
Rectangle fill and gradient fill functions
Bitblt with transparent options
Alpha blending and alpha composition Bitblt
Stretch Bitblt
Font rendering by color expansion
YCbCr to RGB color space conversion
Supports off-line scaler
MTK CONFIDENTIAL, NO DISCLOSURE
OSD Plane
Two linking list OSDs with multiple color mode and one of them has scaler
Video Plane
Supports video capture and over scan.
Flesh tone management
Gamma/anti-Gamma correction
Color Transient Improvement (CTI)
2D Peaking
Saturation/hue adjustment
Brightness and contrast adjustment
Black and White level extender
Adaptive Luma/Chroma management
Automatic detect film or video source
3:2/2:2 pull down source detection
The MT5335PU support bob mode de-interlace with excellent low angle image processing.
Arbitrary ratio vertical/horizontal scaling of video, from 1/32X to 32X
Advanced non-linear panorama scaling.
The MT5335PU support 1-bit line in data (two channels)
HDMI Receiver
Mixed 3 channels of HDMI1.3, data rate can be up to 2.25 GHz
EIA/CEA-861B
CEC
Audio ADC
The MT5335PU supports 8-channel (4 R/L pairs) analog audio input.
MTK CONFIDENTIAL, NO DISCLOSURE
TV audio demodulator
Supports BTSC/EIA-J/A2/NICAM/PAL FM/SECAM world-wide formats
Standard automatic detection
Stereo demodulation, SAP demodulation
Mode selection (Main/SAP/Stereo)
Audio DAC
Four on-chip audio DACs (2 R/L pairs) support R/L channel and subwoofer outputs
DRAM Controller
3/14
Page 19
MT5335PU Approval Datasheet
DOCUMENT ARE SUBJECT TO CHANGE WITHOUT NOTICE
Supports 64 Mb to 512 Mb DDR DRAM devices
The MT5335PU supports 16-bit data bus; address offers up to 64 M bytes space.
Supports DDR1-333, DDR1-400, DDR2-400, DDR2-533, DDR2-667, DDR2-800
Audio DSP
Supports Dolby Digital AC-3 decoding
MPEG-1 layer I/II decoding (DVB)
Dolby Prologic II
Audio output: 7.1ch + 2ch (down mix)
Pink noise and white noise generator
Equalizer
Bass management
3D surround processing with virtual surround
Audio and video lip synchronization
Supports reverberation
Automatic volume control
One SPDIF out
If internal audio DAC is disabled, the MT5335PU supports 1-bit (2-channel) main audio I
interface. Each channel is up to 24-bit resolution.
Flash Interface
The MT5335PU supports two one serial flash
Serial flash interface supports up to 60 MHz clock rate, depending on the spec. of the flash device
(currently 20 MHz at maximum)
Supports on-the-fly decompression from Serial Flash to DRAM
MTK CONFIDENTIAL, NO DISCLOSURE
2
S output
Peripherals
The MT5335PU has one dedicated UART and one shared UART with GPIO.
The MT5335PU has three basic serial interfaces; one is for the tuner, one is the master for general
purpose and the other is the slave for HDMI EDID data.
Three PWMs
IR blaster and receiver
Real-time clock and watchdog controller
1-port USB2.0/1.1 host supports USB mass storage class devices.
Supports five-channel servo ADC.
IC Outline
The MT5335PU is 256-pin LQFP-EPAD Package
3.3V/1.1V and 2.5V for DDR1, 1.8V for DDR2
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Page 20
MT5335PU Approval Datasheet
DOCUMENT ARE SUBJECT TO CHANGE WITHOUT NOTICE
MTK CONFIDENTIAL, NO DISCLOSURE
The MT5335PU is designed as an advanced, highly integrated SoC with improved connectivity features
including HDMI interface and component/composite signal connections. Figure 1-1 shows the MT5335PU
system block diagram while Figure 1-2 shows the MT5335PU functional block diagram.
LVDS
LCD
MT5131/3
Tuner
MT 5335P U
DRAMFlash
Pa ne l
Figure 1-1 System Block Diagram
5/14
Page 21
MT5335PU Approval Datasheet
DOCUMENT ARE SUBJECT TO CHANGE WITHOUT NOTICE
TS
In
YC Input
CVBS/
VADCx4
Component
Analog
Input
HDMI
Rx
HDMI In
I/F
Tuner
In
Audio
Demod
TV
Decoder
Audio In
VDO-In
De-interlace
IrDA
Serial IF
JPEG,MPEG
2-D Graphic
USB2.0
Watchdog
ARM
BIM
Audio DSP
TS
Demux
JTAG
Audio I/F
Audio DAC
BScan
PCRMS,SD,SM,xD
RTC
UART
MTK CONFIDENTIAL, NO DISCLOSURE
Audio
Input
Audio
ADC
Panel
LVDS
16-bit DDR
DDR
DRAM
Controller
Mix and Post
Processing
OSD
scaler
Vplane
scaler
DRAM Bus
IO Bus
CKGEN
Serial FlashServo ADC
PWM
NAND Flash
SPDIF, I
2
S
Figure 1-2 Functional Block Diagram
6/14
Page 22
MT5133 DATA SHEET
General Description
1. Introduction
MT5133 is Media Tak’s 2nd generation COFDM (Coded Orthogonal Frequency
Division Multiplex) channel demodulator for DVB-T receiver. It is fully compliant with
the DVB-T specification (ETSI 300744) and Nordig Unified. MT5133 implements the
functions from tuner IF out to MPEG-2 transport stream input. The device can support
2K, 4K or 8K mode with 6, 7, 8MHz channel. By integrating high performance A/D
converters into the chip, MT5133 can accept first or second IF signal from
conventional tuner thus eliminating the need for an external down-converter. Pure
digital synchronization, advance channel estimation and equalization guarantee the
wide acquisition range of MT5133. User can easily access on-chip information,
including signal-to-noise ratio, Bit Error Ratio (BER) before and after Viterbidecoder.
Serial or parallel MPEG transport stream output can be interfaced to all commonly
available backend processor chips.
2. Features
z ETSI300744 and Nordig Unified compliant
z Suitable for Single Frequency Network (SFN) operation
z Support 2K, 4K, 8K modes
z Support QPSK, 16QAM,64QAM constellations
z 1/4, 1/8, 1/16, 1/32 Guard interval
z Support hierarchical & non-hierarchical modes
z Automatic mode detection
z Full-digital timing/frequency with wide acquisition range
z Support triple offset
z On-chip high-performance 10-bit ADC
z Excellent adjacent Channel interference (ACI) rejection capability
z Excellent Co-Channel interference (CCI) rejection capability
z Build-in PID filters
z Very low power consumption < 180Mw
z Controlled by I2C interface
z Package: QFN48
Page 23
3. Block Diagram
IF
ADC&RF
interface
System
Control
AGC
Time Domain
Processing
Freq. Domain
Processing
FEC
Host
interface
I2C
TSIF
Block Diagram of MT5133
Page 24
MT8295 DATA SHEET
1. Introduction
The MediaTek MT8295 is a companion chip combined with MT533X serial chips to
enable Common Interface (CI) and with the second generation of the Common
Interface (CIV2) functions. It supports DVB compliant Conditional Access Module
(CAM) and PCMCIA type memory cards. A NAND-flash-like bus bridge is built-in to
perform the communication between a host and the card.
Highly Flexible Interface: MT8295 supports one parallel or two serial MPEG2
transport stream interfaces from the front end demodulator and a serial MPEG2
transport stream interface to MPEG2 decoder. Also, the MT8295 is designed with
highly flexible interface timing to compliant with the maximum vendor’s CAMs in the
word.
Extra Value for Your TV: MT8295 enables TV to receive DVB-CI protected program. It
helps content providers to protect their programs and allows customers to receive
more high-value TV programs. Fully tested compliant software is also available for
this device.
2. DTV System Use MT8295
Tuner MT513X MT5335/6/7 Panel
Demod
TS in
CI/PCMCIA
interface
DRAMFLASH
Decoder
TS out
Host
interface
MT8295
Card
TS out
Card
TS in
CAM
Page 25
WT6702F Data Sheet v0.93
1. General Description
The WT6702F is a microcontroller for system power manager with 1)Turbo 8051 compatible (3T) CPU, 2)
8K bytes flash memory, 3) 256 bytes SRAM, 4) 2 PWMs, 5) DPMS detector, 6) 8051 2 timers and UART,
7) Three Slave IIC interface, 8) 4 channel 8-bit A/D converter, 9) Real Time Clock, 10) watch-dog timer,
11) Embedded ISP, 12) Power down mode, 13) Embedded ICE mode.
1.1. Features
Embedded turbo 8051(3T) CPU
• Normal operation mode : 12MHz, 2MHz
• Stand by mode : 32KHz
Memory :
• RAM: 256 Bytes
• Flash memory: 8K Bytes
Turbo 8051 Timer0, Timer1, & UART
Sync processor for monitoring DPMS (VGA connector) wake up signal
8-bit A/D converter with 4 selectable inputs, shared with IO pin
2 PWM pin output
3 slave mode IIC interface
Universal IR Receiver
INT pin to main chip
Watch Dog timer
Low voltage reset
32.768KHz crystal Oscillator & build-in RC Oscillator
Build-in RTC
Maximum 18 programmable IO pins
• 18-IO: 24 pin package
• 14-IO: 20 pin package
• 11/12-IO: 16 pin package
Power consumption :
• Lower than 6mA at 12Mhz mode
• Lower than 4mA at 2Mhz mode
• Lower than 2mA at low speed mode(32KHz)
Operating voltage range : 3.6V – 2.5V
Package:
• SOP16
• SOP20/SSOP20
• SOP24
1.2. Application
• Display system power management MCU with RTC.
• I/O expander with RTC and ADC.
Copyright 2006 Weltrend Semiconductor, Inc. All Rights Reserved.
Weltrend reserves right to modify all information contained in this document without notice.
- 4 -
Page 26
2. Pin Assignment
2.1. Package Type
WT6702F Data Sheet v0.93
32KOSCO
32KOSCI
PWM1/GPIOC1
RXD/IRQ3/GPIOB7
TXD/IRQ2/GPIOB6
HIN/GPIOB5GPIOB4/VIN
32KOSCO
PWM1/GPIOC1
RXD/IRQ3/GPIOB7
TXD/IRQ2/GPIOB6
HIN/GPIOB5
VIN/GPIOB4
IRQ1/P1.3/GPIOB3
1
2
3
VSS
4
NRST
5
6
7
89
1
32KOSCI
2
3
VSS
4
NRST
5
6
7
8
9
1011
WT6702F_S161
WT6702F_S200
16
VDD
15
GPIOA0/AD0
14
GPIOA3/AD3/IR
13
GPIOA6/SCL1
12
GPIOA7/SDA1
11
GPIOB0/SCL2
10
GPIOB1/SDA2
20
VDD_RTC
19
VDD
18
GPIOA0/AD0
17
GPIOA3/AD3/IR
16
GPIOA4/SCL3/P1.0
15
GPIOA5/SDA3/P1.1
14
GPIOA6/SCL1
13
GPIOA7/SDA1
12
GPIOB0/SCL2
GPIOB1/SDA2
Package Type Package Outline
SOP 16 pin 150mil
SOP 20 pin 300mil
SSOP 20 pin 150mil
SOP 24 pin 300mil
32KOSCO
32KOSCI
VSS
NRST
PWM1/GPIOC1
PWM0/GPIOC0
RXD/IRQ3/GPIOB7
TXD/IRQ2/GPIOB6
HIN/GPIOB5
VIN/GPIOB4
IRQ1/P1.3/GPIOB3
IRQ0/P1.2/GPIOB2
2
3
4
5
6
WT6702F_S240
7
8
9
10
11
12
241
VDD_RTC
23
VDD
22
GPIOA0/AD0
21
GPIOA1/AD1
20
GPIOA2/AD2
19
GPIOA3/AD3/IR
18
GPIOA4/SCL3/P1.0
17
GPIOA5/SDA3/P1.1
16
GPIOA6/SCL1
15
GPIOA7/SDA1
14
GPIOB0/SCL2
13
GPIOB1/SDA2
Copyright 2006 Weltrend Semiconductor, Inc. All Rights Reserved.
Weltrend reserves right to modify all information contained in this document without notice.
- 5 -
Page 27
2.2. Pin Description
WT6702F Data Sheet v0.93
S240 S200 S161
23 19 16
24 20 16 VDD_RTC PWR RTC Power (<3.3V)
1 1 1 32KOSCO O 32kHz oscillator output
2 2 2 32KOSCI I 32kHz oscillator input
3 3 3 VSS GND Ground
4 4 4 NRST I Reset pin, active low (internal pull high)
5 5 5 GPIOC1 I/O PWM1 output. Shared with GPIO C1
6 GPIOC0 I/O PWM0 output. Shared with GPIO C0
7 6 6 GPIOB7 I/O 8051 UART RXD or external IRQ3 interrupt input. Shared with GPIO
8 7 7 GPIOB6 I/O 8051 UART TXD or external IRQ2 interrupt input. Shared with GPIO
9 8 8 GPIOB5 I/O HIN input. Shared with GPIO B5
10 9 9 GPIOB4 I/O VIN input. Shared with GPIO B4
11 10
12
13 11 10 GPIOB1 I/O 2
14 12 11 GPIOB0 I/O 2nd slave IIC SCL2. Shared with GPIO B0
15 13 12 GPIOA7 I/O 1st slave IIC SDA1. Shared with GPIO A7
16 14 13 GPIOA6 I/O 1st slave IIC SCL1. Shared with GPIO A6
17 15
18 16
19 17 14 GPIOA3 I/O Key pad ADC input3 or IR detector input. Shared with GPIO A3
20
21
22 18 15 GPIOA0 I/O Key pad ADC input0. Shared with GPIO A0
GPIOB3 I/O 8051 P1.3 or external IRQ1 interrupt input. Shared with GPIO B3
GPIOB2 I/O 8051 P1.2 or external IRQ0 interrupt input. Shared with GPIO B2
GPIOA5 I/O 3rd slave IIC SDA or 8051 P1.1. Shared with GPIO A5
GPIOA4 I/O 3rd slave IIC SCL or 8051 P1.0. Shared with GPIO A4
GPIOA2 I/O Key pad ADC input2. Shared with GPIO A2
GPIOA1 I/O Key pad ADC input1. Shared with GPIO A1
Pin
Name
VDD PWR Power 3.3V
I/O
B7
B6
nd
slave IIC SDA2. Shared with GPIO B1
Function Description
(a) All GPIOs have Schmitt trigger input.
(b) When use Slave IIC or 8051 P1.x (or UART), the external circuit need pull high(4.7kΩ)
(c) GPIOA3, GPIOA2, GPIOA1, GPIOA0 MAX input are +3.6v(=3.3v+0.3v)
and the other GPIOs MAX input is +5v (5v tolerant PAD)
Copyright 2006 Weltrend Semiconductor, Inc. All Rights Reserved.
Weltrend reserves right to modify all information contained in this document without notice.
Copyright 2006 Weltrend Semiconductor, Inc. All Rights Reserved.
Weltrend reserves right to modify all information contained in this document without notice.
- 7 -
Page 29
4. Functional Block Diagram
Turbo 8031 MCU
WT6702F Data Sheet v0.93
8K bytes code
flash
Internal 256
bytes SRAM
32K Oscillator
RTC
RC
Oscillator
Key Pad ADC
Reset
Processor
Clock
Processor
8051
UART,Timer0,
Timer1
1st SIIC
2nd SIIC
internal bus
3rd SIIC
HV DPMS
Detector
Interrupt
Processor
IR Detector
PWM
Clock off &
Wake Up
4 IRQ
Watchdog
Processor
timer
GPIO
Processor
Copyright 2006 Weltrend Semiconductor, Inc. All Rights Reserved.
Weltrend reserves right to modify all information contained in this document without notice.
- 8 -
Page 30
w
24-bit 192kHz Stereo DAC with 1.7Vrms Line Driver
DESCRIPTION
The WM8501 is a high performance stereo DAC with an
integrated 1.7Vrms line driver. It is designed for audio
applications that require a high voltage output along with
enhanced load drive capability.
The WM8501 supports data input word lengths from 16 to
24-bits and sampling rates up to 192kHz. The WM8501
consists of a serial interface port, digital interpolation filters,
multi-bit sigma delta modulators and stereo DAC in a 14lead SOIC package.
The hardware control interface is used for the selection of
audio data interface format, enable and de-emphasis. The
WM8501 supports I
Operating on separate analog and digital supplies the
WM8501 offers very lower power consumption from the
digital section, whilst supporting enhanced load drive from
the analogue output.
2
S, right Justified or DSP interfaces.
WM8501
FEATURES
•Stereo DAC with 1.7Vrms line driver from 5V analogue
supply
AGND Supply Ground reference for analog circuits and substrate connection
AVDD Supply Positive supply for analog circuits
LOUT Analogue output Left channel DAC output
DGND Digital Supply Digital ground supply
DVDD Digital Supply Digital positive supply
DEEMPH Digital input De-emphasis select, Internal pull down
High = de-emphasis ON
Low = de-emphasis OFF
FORMAT Digital input Data input format select, Internal pull up
Low = 16-bit right justified or DSP (Mode B)
High = 16-24-bit I
MCLK Digital input Master clock input
2
S or DSP (Mode A)
w
PP Rev 3.1 May 2006
4
Page 33
Silicon Image
Confidential for Philips
Consumer Electronics
Internal Use Only
SiI9185A 3:1 HDMI 1.3 Switch
Preliminary Data Sheet
.
General Description
The SiI9185A is the first generation of TMDS switch device supporting Revision 1.3 of the HDMI Specification (HDMI
Consortium; June 2006). With three HDMI inputs and a single output, the SiI9185A provides a low-cost method of
adding additional HDMI ports to the latest Digital TVs. New DTVs can easily connect to the many HDMI sources
coming on the market, including DVDs, STB, game consoles, PCs, camcorders, and digital still cameras. The SiI9185A
is a fully HDMI compliant device providing a simple, low-cost method of retransmitting protected digital audio and
video, giving end-users a truly all-digital experience. Built-in backward compatibility with DVI 1.0 allows HDMI
systems to connect to any DVI 1.0 source.
The SiI9185A provides additional integrated features to help lower system cost and provide enhanced features to the end
consumer. To lower system cost, the SiI9185A provides a complete solution for switching sink-side HDMI signals. This
includes DDC switching, individual HPD control, and 5V sense. The addition of these features eliminates additional
external components, helping to lower cost. For source-side applications, the SiI9185A DDC switching can be bypassed
with an external 4-channel I
The SiI9185A is the first generation of device from Silicon Image to integrate the Extended Display Identification Data
(EDID). The EDID is stored in on-board RAM that is downloaded from the system microcontroller during power up or
initialization. The EDID is reflected on each of the three HDMI ports through the DDC bus. Flexibility is built in to
allow mixing different EDID formats in an application. This allows elimination of up to three EDID ROMs while also
saving board space.
Finally, the SiI9185A provides a complete, simple solution to enabling Consumer Electronics Control (CEC) in a DTV.
CEC is a single-wire bus that transmits remote control commands throughout a home network. The SiI9185A integrates
both an HDMI-compliant I/O and Silicon Image’s CEC API. The CEC I/O meets all HDMI compliance tests and
eliminates the need for additional external components, again saving board space. The CEC API manages reception and
transmission of all CEC signals according to the CEC protocol and makes the information available to the system
microcontroller. This significantly lowers the system-level control by the system microcontroller, simplifying firmware
overhead.
A very low power standby mode is available, allowing DTVs to meet industry low-power requirements such as Energy
Star. During this mode both the CEC and EDID are still functional.
Silicon Image’s SiI9185A uses the latest generation of TMDS core technology. These TMDS cores are guaranteed to
pass all HDMI compliance tests.
2
C-bus switch (e.g., Texas Instruments PCA95445) to allow clock stretching.
The SiI9185A provides a low-cost method of providing additional HDMI inputs to a DTV. System cost is reduced by
integrating DDC and HPD switching along with integrated EDID. Feature enhancements like the embedded CEC API
provide a simple method of adding CEC to a DTV without burdening the system microcontroller.
Figure 2 and Figure 3 show the functional blocks of the device as applied to sink and source applications, respectively.
Pin descriptions begin on page 20.
The SiI9185A 3:1 HDMI 1.3 switch is used to select a single set of HDMI/DVI signals from one of three HDMI/DVI
receiver-ports, and to generate a fully compliant HDMI/DVI stream as an output. It also provides DDC/HDCP, HPD,
and +5V switching to allow full compliance to the HDMI/DVI specifications.
The combination of dynamic equalizer and state-of-the-art DPLL can overcome signal distortion due to the long lengths
of HDMI/DVI cables. SiI9185A-based switches can be cascaded many times to regenerate TMDS and HDCP signals.
Figure 4. Functional Block Diagram
As shown in Figure 4, the SiI9185A consists of five major blocks:
• Receiver block
• Transmitter block
• CEC Interface block
• EDID RAM block
• Configuration block
Receiver Block
The three HDMI/ DVI receive ports are defined as Port 0, Port 1, and Port 2. Each of the ports is terminated separately
and equalized under the control of the receiver digital block and controlled by the local I
power down of all ports are selected by using the Port Select (PSEL[1:0]) signals. PSEL[1:0] can either be controlled by
a register in I
2
The I
HDCP specifications, the SiI9185A also switches and relays information with correct timing from three bidirectional I
Rx-ports to one bidirectional Tx-port. The HDCP switching and relaying operation is also done in the Receive block by
monitoring the I
provide correct HDCP data flow between the selected Receiver and the Transmitter port.
2
C mode, or pins in stand-alone mode.
C Switch conveys bidirectional DDC/EDID and HDCP information. In order to comply with the HDMI/DVI and
2
C/HDCP protocol to decide the right direction of signal transfer. The port selection signal is used to
The Transmit block consists of a fully compliant, HDMI 1.3 transmitter. This transmitter re-transmits the data received
by the selected receiver port.
CEC Interface
The Consumer Electronics Control (CEC) Interface block provides CEC electrically compliant signals between CEC
devices and a CEC master. It allows products to meet the electrical specifications of CEC signaling by translating the
LVTTL signals of an external microcontroller (CEC host-side or Tx-side) to CEC signaling levels for CEC devices at the
Rx-side, and vice versa.
Additionally, a CEC controller compatible with the Silicon Image CEC API is included on-chip. This CEC controller has
a high-level register interface accessible through the I
commands. This controller makes CEC control very easy and straightforward, and removes the burden of having a host
CPU perform these low-level transactions on the CEC bus.
In order to use the high-level CEC API, the host must perform a calibration of the internal CEC clock inside the
SiI9185A. This calibration is performed by setting the calibration bit, and then sending a 10ms pulse (±1%) on the
CEC_D signal input to the SiI9185A. The SiI9185A uses this pulse to calibrate an internal clock that is then used to
generate all CEC timing to guarantee CEC compliance to the HDMI specification. This calibration must be repeated at
time intervals corresponding to changes in temperature of 15°C.
EDID RAM Block
The EDID RAM block consists of 256 bytes of RAM that is shared by all ports. This means the timing information must
be identical among all the ports if the internal EDID is used. Independent registers for the CEC physical address and
checksum values for each port are also included, as these are unique to each port. On-board logic controls arbitration
when reading the 256 bytes of EDID RAM, CEC physical address, and checksum values. This allows simultaneous reads
of all ports from three different source devices if they are connected and attempt an EDID read at the same time.
The internal EDID can be selected on a per-port basis using registers on the local I
can use the internal EDID, and Port 2 can use a discrete EEPROM for the EDID.
2
C interface which can be used to send and receive CEC
2
C bus. For example: Port 0 and Port 1
Configuration Block
The Configuration block is used to configure and control the operation of the SiI9185A. The SiI9185A has two modes of
operation: I
All of these registers are accessible over the local I
control, CEC control, EDID loading, and power-down control.
In Standalone mode, all functions are controlled and observed by using pins on the SiI9185A. The mode is determined
by the level of the I2CSEL/INT pin at the rising edge of RESET#. A high indicates I
Standalone mode. In Standalone mode, the SiI9185A operates independently, and has no need for an external
microprocessor.
2
C and Standalone. In I2C mode, all functions of the SiI9185A are controlled and observed with I2C registers.
2
C Interface. These registers are used to perform port select, HPD
There are five I2C interfaces in the SiI9185A. There is one local slave I2C port that is used to configure the operation of
the SiI9185A in I
DDC transmit port; these ports are used to transfer DDC and HDPC information. All of the I
compliant to the I
Local Slave I2C Interface
The local I2C interface on the SiI9185A (pins LSCL and LSDA) is a slave interface capable of running up to 100 kHz.
This bus is used to configure the SiI9185A by reading/writing to necessary registers.
The local I
appear as three separate devices on the I
registers, is fixed, and can only be set to one of two values by using the I2CADDR pin. The other two addresses (used
for CEC and EDID) have an I
so the default value can be changed if there is a bus conflict with another device.
Table 1. Control of the Default I
I2CADDR=LOW I2CADDR=HIGH
PHY and Chip Control Registers (fixed)
EDID Controller (programmable)
CEC Registers (programmable)
The PHY and Chip Control I2C address is fixed at boot-up and cannot be changed. The EDID Controller I2C Address
and the CEC Controller I
the SiI9181/9185 HDMI Switch Programmer’s Reference Guide for more information.
2
C mode. Three slaves are connected to the three DDC receive ports, and one master is connected to the
2
C specification.
2
C interface of the SiI9185A consists of three separate I2C slave addresses. This means the SiI9185A will
2
C register programmable address mapped into the PHY and Chip Control register space,
2
C Address each have a register associated with them that allows the address to be changed. See
2
C local bus. The first of these addresses is used for PHY and Chip Control
2
C Addresses with the I2CADDR Pin
0xD0 0xD4
0xE0 0xE4
0xC0 0xC4
2
C pads are 5V tolerant and
DDC Receiver Ports (Slave) and DDC Transmitter Port (Master) Interfaces
The DDC bus is an I2C interface used in the HDMI interconnection to facilitate bidirectional transfer of DDC/EDID
information and perform the HDCP authentication process between source and sink devices. The SiI9185A includes
three DDC slave I
HDMI transmitters. The SiI9185A also includes a master I
receiver (Figure 3). The DDC ports support I
Standard and supports I
The DDC master I
specification (100 kHz). Due to the relaying function in the SiI9185A, the I
support SCL clock stretching by the slave to which it is connected. This is not an issue when used in sink applications
that use Silicon Image receivers because they do not perform any clock stretching. For other applications it should be
confirmed that the sink receiver device that connects to the SiI9185A output does not perform clock stretching on the I
bus. For source applications an external I
DDC ports of the SiI9185A. This will eliminate the SCL clock stretching issue (see Figure 4).
The SiI9185A will operate between an HDMI source and sink device, so DDC/EDID and HDCP transactions on the
DDC bus must flow through the SiI9185A without causing information loss or timing margin degradation. The SiI9185A
2
C ports, one for each of the receive ports. These are used for direct connection to each of the upstream
2
2
C transactions needed for HDCP.
2
C port and the three DDC slave I2C ports comply with the Standard Mode timing of the I2C
C transactions specified by the VESA Enhanced Display Data Channel
2
C switch (such as the NXP 9545A) can be used to bypass the master and slave
C port for direct connection to the downstream HDMI
2
C master in the transmit port does not
2
C
Page 41
Silicon Image
Confidential for Philips
Consumer Electronics
Internal Use Only
SiI9185A 3:1 HDMI 1.3 Switch
Preliminary Data Sheet
Silicon Image, Inc.
analyzes and regenerates the DDC signal, making it possible to extend the cable length of I2C DDC by cascading
multiple SiI9185As together.
Control Pins
The SiI9185A can operate in two distinct modes, depending on the state of the I2CSEL pin at the end of RESET#:
Standalone mode, and I
an external microprocessor. The configuration of the switch is set using signals on the external control pins listed below,
and after configuration, the switch operates independently.
2
C Control mode, the SiI9185A requires an external processor and is controlled over the I2C interface.
In I
RESET# Control Pin
The system reset pin (RESET#) is an active-low input. When RESET# is low, all digital logic is reset including the I2C
interfaces. When RESET# is high, the SiI9185A operates in normal mode.
Two pins are used to configure bootstrap options on the rising edge of RESET#: I2CSEL/INT and I2CADDR/TPWR.
The I2CSEL/INT is sampled on the rising edge of RESET# to determine the operating mode. The I2CADDR/TPWR pin
is sampled on the rising edge of RESET# to determine the base address of the I
the sections that follow.
I2CSEL/INT
The dual-purpose I2CSEL/INT pin acts as a configuration input pin for mode selection during the period when RESET#
is true (low), and as the interrupt (INT) output during normal operation. The level on the I2CSEL/INT pin is latched
when the RESET# signal transitions from low to high. If the I2CSEL/INT value is high on the rising edge of RESET#,
the SiI9185A comes up in I
SiI9185A comes up in Standalone mode and the EPSEL[1:0] pins are used as the external port select pins. Note that
when I2CSEL is low at the rising edge of RESET#, the local I
2
C registers are not lost.
I
After RESET# is deasserted (goes high), the I2CSEL/INT pin becomes the interrupt output pin (INT). When interrupt
conditions are met and the particular interrupt is enabled, the INT signal goes low indicating to the host that an interrupt
has occurred and that actions are needed.
2
C Control mode. In Standalone mode, the SiI9185A operates independently and has no need for
2
C interface. These pins are discussed in
2
C Control mode. If the I2CSEL/INT value is low at the rising edge of RESET#, the
2
C is disabled from that time, but the contents of the local
EPSEL1/LSCL and EPSEL0/LSDA
The EPSEL1/LSCL and EPSEL0/LSDA pins are dual-function pins, and their function depends on whether the
SiI9185A is in Standalone mode or in I
selection pins EPSEL[1:0]. In I
the EPSEL0/LSDA pin becomes the I
The receive port is selected externally using the EPSEL[1:0] pins in Standalone mode, or internally using I
2
C Control mode). When I2CSEL is high at the end of RESET#, the receive port is selected by the I2C register
(I
IPSEL[1:0] (0xD0: 0x08). When I2CSEL is low at the end of RESET#, the receive port is selected using the external
pins EPSEL[1:0] as shown in Table 1, and the local I
Table 2. Port Selection Using the EPSEL Pins
EPSEL1 EPSEL0
Port 0
Port 1
Port 2
Standby Mode
2
0 0
0 1
1 0
1 1
2
C Control mode. In Standalone mode, these pins become the external port
C Control mode, the EPSEL1/LSCL becomes the I2C Interface clock signal LSCL, and
There are two power modes: P0 for Normal mode and P1 for Standby mode. The Normal mode, P0, is enabled when one
of three RX ports is selected to provide audio/visual stream and HDCP/DDC information to the TX port as shown in
Table 2. In Normal mode, all power supplies (AVCC33, AVCC18, and DVCC18) must be applied. In P0, all of the
functional blocks are active: PLL, data-paths, local I
Setting PSEL[1:0] = 11 sets the SiI9185A into low-power standby mode (P1). In P1, all of the receive ports transition to
the low-power state and the Tx outputs are disabled (Hi-Z). The purpose of P1 is to make the SiI9185A alive to power
the DDC and CEC interfaces only, while the data-path of the SiI9185A (analog and digital) consumes minimum power.
2
C and DDC relay require logic power (DVCC18), I/O power (AVCC33), and OSC power (AVCC18). Because
The I
none of the receive ports are selected in P1, the PLL does not get an input clock, and shuts itself down. In Standalone
mode P1, the HPD outputs are deasserted (set to 0).
2
C and DDC relaying, and CEC.
I2CADDR/TPWR Control Pin
The I2CADDR/TPWR pin is sampled on the rising edge of RESET# to determine bit two of the default base address for
2
C interface. If I2CADDR/TPWR is low on the rising edge of RESET#, the I2C interface address for the PHY and
the I
Chip Control registers is set to 0xD0, the I
interface address for the CEC Registers is set to 0xC0. If I2CADDR/TPWR is high on the rising edge of RESET#, the
2
C interface addresses are set to 0xD4, 0xE4, and 0xC4, respectively. The actual address values in both modes are
I
shown in Table 1 on page 8.
Once RESET# goes high, the I2CADDR/TPWR pin becomes the normal output Transmit Power (TPWR). TPWR is an
output from the SiI9185A that tells the transmit side that the selected receive port is actually connected. The switching
time between RPWR0/1/2 and TPWR is determined by the PLL lock behavior and logic that detects the presence of a
valid input signal (see RPWR[0:2](+5V) and TPWR(+5V) control pins on page 11 for a description).
2
C interface address for the EDID Controller is set to 0xE0, and the I2C
CEC Transceiver Control Pins
The CEC (Consumer Electronics Control) interface is composed of the bidirectional signals CEC_D, CEC_A, and a
2
C interface. CEC_D is the CEC signal from a CEC Master (microcontroller), and CEC_A is an electrical spec-
local I
compliant CEC signal connected to all CEC Slave devices. The CEC_A signal drives the CEC pins from all three
HDMI/DVI Rx connectors at the same time.
The CEC interface has two modes: CEC_D relay mode and CEC API mode. In CEC_D relay mode, the SiI9185A is
simply a CEC transceiver, and all software must be implemented on the host CPU. In CEC API mode, the SiI9185A
performs all the low-level CEC control, and the host CPU must read and write to high-level I
receive CEC commands. In CEC_D relay mode, the CEC interface only monitors the CEC signal direction and provides
appropriate timing between events. In CEC API mode, the local I
to generate CEC signaling to the CEC_A port, and the local I
HPD Control Pin
The Hot Plug Detection (HPD) signal is provided in the HDMI/DVI connector to provide a signal to the host that the
EDID is readable. In the SiI9185A there are three outputs for the receive side (HPD0, HPD1, and HPD2), and one input
from the transmit side (HPDIN). HPDIN from the Tx port can be relayed to the selected Rx port, or the HPD[0:2]
outputs can be set using registers. In Standalone mode, the HPD outputs of non-selected Rx ports are set to low, so no
EDID transaction or HDCP authentication is initiated for non-selected ports until that port is selected. The default signal
level of the HPD output is low and the high signal level is 3.3V CMOS (and is +5V tolerant).
In internal SiI9185A applications, the HPDIN pin may not to be brought out as an external pin. In this case, the local I
directly controls the HPD output of selected and/or non-selected ports. But in external HDMI switch applications, the
HDMI receiver on the video processing board provides an HPD signal input to the HDMI switch board, and the HPD
input is re-directed to one of the selected receive ports.
2
C Control mode, the state of the HPD pins is controlled by setting the HP_CTRL_x bits in the Hot Plug Detect
In I
Output Control register, where x is the channel number. Each of the HPD0, HPD1, and HPD2 signals is independently
controllable. For example, all three signals could be high at the same time.
HPD output pins have 1-kΩ series resistors integrated to comply with the impedance requirement specified in version 1.3
of the HDMI Specification.
Table 3 on page 11 shows the possible states of the HPD control signals.
2
C registers to send and
2
C provides CEC commands to the CEC interface block
SiI9185A in Standalone mode Pass-through from HPDIN
SiI9185A in I2C mode, register
programming
Port not selected in Standalone
mode
Note that to be HDMI compliant, each HPD Output is ANDed with its respective RPWR input. Hence a given HPD
Output pin can only reflect a High state when the RPWR input of that port detects a High input (and the appropriate
HP_CTRL_ bits are set to 01b, or they are set to 11b with the HPDIN signal being detected as High).
RPWR[0:2](+5V) and TPWR(+5V) Control Pins
The three RPWR (+5V) input signals on the receive side of the SiI9185A (RPWR0, RPWR1, and RPWR2) indicate that
an HDMI cable is connected and 5V is electrically present. The PWR(+5V) signal on the transmit side of the SiI9185A
(TPWR) notifies the receiving device that the transmit port has this 5V present. When the selected receive port is
actually connected to a source device (a DVD player, for example), determined by monitoring the active port’s
RPWR[0:2](+5V) signal, then the transmit port of the SiI9185A sends the receiver-present signal (TPWR) to the HDMI
receiver on the video processing board.
The RPWR(+5V) signal of the selected Rx port, (RPWR0, RPWR1, and RPWR2) is transferred to TPWR under the
control of PSEL[1:0] signals, which can come from registers in I
TPWR signal to the transmit port is pulled low for a period of 1 µS when the port selection is changed. After this time, it
follows the state of the newly selected port.
RPWR input pins have internal pull-down resistors. When a port is not used, simply leaving them unconnected is
sufficient.
Low
Low (default)
Four options: selected by the HP_CTRL_x bits:
0b00 = Low
0b01 = High (3.3V)
0b10 = Tri-state
0b11 = Pass-Through
The SiI9185A embeds 256 bytes of RAM for EDID and used to eliminate the discrete EEPROM EDID from the system.
H
D
M
I
0
H
D
M
I
1
H
D
M
I
2
+5V
TMDS0
HPD0
DDC0
CEC_A
+5V
TMDS1
HPD1
DDC1
+5V
TMDS2
HPD2
DDC2
EDID
Select the input and control the SiI 9185
using either SEL0/1 or the I
from the microcontroller
SiI9185A
Optional EDID to
support EDID different
from Port 0 and Port 1
Figure 7. EDID in the SiI9185A
CEC_D
SEL0
SEL1
CSCL/
CSDA
TMDS_Out
DDC_Out
TPWR
HPDIN
2
C interface
Micro-
Controller
Optional 5V
detection output
to Audio DAC
for muting
SiI 9011/
SiI 9013/
SiI 9025/
SiI 9125
EDID Emulation Function
All of the HDMI input ports have a DDC interface consisting of DSDA# and DSCL# where # is the port number. The
SiI9185A device incorporates the function of an HDMI 1.3 compliant EDID in internal registers. The first block must
conform to the VESA EDID specification. The second block must conform to the CEA-861D specification.
The SiI9185A supports two blocks of EDID, each 128 bytes long. Table 4 shows the layout of the EDID block as it
appears to each of the DDC interface controllers.
Table 4. Layout of the EDID Blocks
Block # Description Length DDC I2C Slave
0 EDID 1.3 according to VESA 128 bytes 0xA0 0x00 – 0x7F
1
The host writes the desired information into the EDID memory through the local I2C interface.
EDID extension according to the
CEA 861 specification
The EDID is stored in 256 bytes of on-chip RAM. The SiI9185A contains I2C distributor/arbiter logic to ensure that the
EDID can be read by all three DDC input buses simultaneously.
The EDID memory provides identical information to each DDC channel except for the following:
•The CEC physical address for each channel. The location of this physical address in the EDID memory is
specified by the contents of the CSCPA_ADDR register (0xE0:0x08) in the EDID controller. When the EDID
memory is loaded through the local I
(Port) 0. When the EDID controller detects that DDC for Channel 1 or Channel 2 is trying to read the CEC
physical address location, it automatically replaces the information with the actual CEC1 or CEC2 physical
address values stored in the CEC Physical Channel Address registers.
•Checksum. The checksum is always stored in the last register address for the EDID space (location 0xFF).
When the EDID memory is loaded through the local I
contains the value for Channel (Port) 0. However, the checksum is different for each channel due to the
difference in physical CEC addresses for these channels. The host firmware stores different checksums for
channels 1 and 2 in two different locations in the EDID controller registers. When the EDID controller logic
detects that the DDC for a particular channel is reading the checksum, it responds with the value in one of the
two registers, based on the inquiring port.
Figure 8 shows a block diagram of how the EDID function is emulated using RAM.
2
C controller, the CEC physical address contains the value for Channel
2
C controller, the checksum value (location 0xFF)
Figure 8. EDID Emulation Using RAM
The EDID contains the CEC physical address and must be loaded before enabling the CEC function. Additionally,
HOTPLUG must be controlled to guarantee proper EDID and CEC operation by the host. The basic flow for loading the
EDID into SiI9185A is shown below:
1. Power up the system.
2. Reset the SiI9185A.
3. Load the EDID for Port 0 into the SiI9185A.
4. Write the CEC physical addresses for Port 1 and Port 2.
5. Write the checksum values for Port 1 and Port 2.
6. Calibrate the CEC clock if using the CEC API.
7. Initialize the CEC registers if using the CEC API.
8. Enable DDC and CEC for all ports.
9. Write the registers to set HPD0, HPD1, and HPD2 high (now the host can read the EDID).
There is hardware assistance in the SiI9185A for CEC control that makes the software development for CEC much
easier. CEC control has been implemented according to the internal Silicon Image CEC API (CPI ) specification.
The CEC signal has two modes of operation:
1. Pass-through mode: In this mode, an external microcontroller can control the CEC level by using the CEC_D
pin. The CEC API function in the SiI9185A is not used.
2. CEC API mode: In this mode, the SiI9185A performs decoding when acting as a follower, and a high-level
command interface when acting as an initiator.
Pass-through mode is engaged under the following conditions:
• When the SiI9185A is working in Standalone mode, or
• When the SiI9185A is working in I
CEC Reference Clock Calibration
An on-chip ring oscillator is used to send and receive CEC data while meeting the CEC timing specification. However,
the ring oscillator frequency can vary on a per device basis, based on manufacturing variables. Therefore, it is necessary
to calibrate this internal ring oscillator by applying an externally driven pulse of 10 ms to the CEC_D pin. The procedure
for applying this calibration signal is:
1. The host processor should set the CEC_D pin high before starting the calibration cycle.
2. The host processor starts the calibration cycle by setting the CALIB bit in local I
bit is self-resetting.
3. The host processor should wait for at least 100 ns after writing the CALIB bit.
4. The host processor should then cause the CEC_D pin to go through a high-to-low transition. The signal should
stay low for a period of 10 ms ±1%, and then transition back high.
5. At this point calibration is complete.
6. The calibration cycle will be repeated each time the host writes a ‘1’ to the CALIB bit.
A counter is used to count the number of ring oscillator clocks in this 10 ms pulse, and the frequency of the ring
oscillator is determined from this count. This is used as the time base to accurately send and receive CEC commands
according to the CEC specification. Note that unless the calibration pulse is properly applied to the SiI9185A and the
calibration cycle is properly completed, the CEC logic will NOT operate correctly. The host should complete the
calibration cycle before setting the CEC enable bit in the local I
The oscillator used in the CEC timing mechanism may vary slightly with temperature. It is recommended that as a
precaution the CEC reference clock calibration process be repeated for every 15°C of change. For example, it may be
periodically recalibrated approximately every 10 minutes.
In standalone applications where CEC-relay mode is used, the incoming CEC timing is measured using the internal
oscillator clock to reproduce the correct output timing. For example, if the START period of CEC_D is measured to be
some number of internal oscillator clocks, that number is used as the basis to re-shape the CEC output timing. Therefore,
in CEC-relay mode a calibration pulse is not required.
2
C Control mode but the CEC enable bit is set to 0 (offset 0x08 bit 6)
2
C offset 0x09 bit 0 to 1. This
2
C.
CEC Programming Interface (CPI)
The CEC application solution involves both low-level and a high-level components. For low-level components, the lowlevel CEC protocol is handled by the slave I
CEC software source code allows command strings to be exchanged over the I
For development, Silicon Image provides Windows-based software tools, including a kit that allows a PC to be used to
generate I
The I
set is used across all Silicon Image devices and applications, both software and hardware.
2
C commands over any USB 1.1-capable port.
2
C register set used for this solution is referred to as CEC Programming Interface or just CPI. This standard register
2
C interface of the SiI9185A. For high-level components, the Silicon Image
Wide Range Input Voltage Simple Synchronous DC/DC
Converter
General Description
The RT8110 is a single power supply PWM DC-DC
controller designed to drive N-MOSFET in a synchronous
buck topology. The IC integrates the control, output
adjustment, monitor and protection functions in a small
8-pin package.
The RT81 10 uses an internal compensation high DC gain
voltage mode PWM control for simple a pplication design.
An internal 0.8V reference allows the output voltage to be
precisely regulated for low voltage requirement. A fixed
400kHz oscillator reduces the component size for saving
board space.
The RT81 10 features over current protection, a nd under
voltage lock-out. The output current is monitored by
sensing the voltage drop across the Low side MOSFET's
R
, which eliminates the need for a current sensing
DS(ON)
resistor.
Ordering Information
RT8110
Note :
RichTek Pb-free and Green products are :
-
Package Type
V8 : SOT-23-8
Operating Temperature Range
P : Pb Free with Commercial Standard
G : Green (Halogen Free with Commer cial Standard)
`RoHS compliant and compatible with the current require-
ments of IPC/JEDEC J-STD-020.
`Suitable for use in SnPb or Pb-free soldering processes.
`100% matte tin (Sn) plating.
Features
zz
Wide Input Operation Voltage 5V to 23V
z
zz
zz
z 0.8V Internal Reference
zz
zz
z Drive Two N-MOSFET s
zz
zz
z High DC gain Voltage Mode PWM Control
zz
zz
z Fast T ran sient Respon se
zz
zz
z Fixed 400kHz Oscillator Freq uency
zz
zz
z Fully Dynamic 0 to 80% Duty Cycle
zz
zz
z Internal Soft Start
zz
zz
z Adaptive Non-Overlapping Gate Driver
zz
zz
z Over-Current Protection Under Voltage Lockout
zz
zz
z RoHS Compliant and 100% Lead (Pb)-Free
zz
Applications
z Motherboard Power Regulation for Computers
z Subsystems Power Supplies
z Cable Modems, Set Top Boxes, and DSL Modems
z DSP and Core Communication processor Supplies
z Memory Power Supplies
z Personal Computer Peripherals
z Industrial Power Supplies
z 5V-Input DC-DC Regulators
z Low V oltage Distributed Power Supplies
Pin Configurations
(TOP VIEW)
PHASE
GND
UGATE
7
1
2
LGATE
5
68
34
FB
Marking Information
For marking information, contact our sales re presentative
directly or through a RichTek distributor located in your
area, otherwise visit our website for detail.
BOOT
DRIVE
SOT-23-8
Note : There is no pin1 indicator on top mark for SOT-23-8
type, and pin 1 will be lower left pin when reading top mark
VCC
from left to right.
DS8110-01C March 2007www.richtek.com
1
Page 48
RT8110
Typical Application Circuit
1
C
1uF
Q
R1
k
2
E
n
Chip Shutdown
1
N
2
2
2
2
2
R1
0
1
5
V
2
R2
R2
k
0
1
v
V
h
k
0
C
1uF
1
Q
2
0
0
7
N
2
Conceptual
V
I
D
1
M
A
7
3
2
C
R
T
8
1
1
4
V
C
2
D
R
3
F
B
4
V
C
1
2
D
R
3
F
B
0
C
I
V
E
1
D
M
A
7
R
T
8
C
I
V
E
1
O
B
T
O
7
T
A
G
U
E
8
P
H
A
S
E
5
A
L
G
T
E
6
D
N
G
3
2
1
1
0
1
O
B
T
O
7
T
A
G
U
E
8
P
H
A
S
E
5
A
L
G
T
E
6
D
N
G
2
0.1uF
C
2
0.1uF
N
+
4
C
3
C
1
L
M
U
5
M
L
V
I
N
M
U
5
M
L
4
7
0
u
u
F
1
u
H
R3
2
1
3
C
1
u
F
L
1
u
H
F
V
T
U
+
C
5
1
0
0
0
u
F
6
C
1
0
n
F
R4
5
5
2
0
+
4
C
+
C
5
1
0
0
0
u
6
C
1
0
n
F
O
2
.
5
V
V
T
U
O
2
.
5
V
F
R4
R3
2
1
5
5
2
0
DS8110-01C March 2007www.richtek.com
2
Page 49
Conceptual
Functional Pin Description
Pin No. Pin Name Pin Function
This pin prov ides grou nd ref erenced bi as voltage to the upper MOSFET dri ver. A bootstrap
1 BOOT
2 DRIVE
circuit is used to cr eate a v oltage su itable to drive a logic- level N -MOSF ET when operatin g
at a single 5V power supply.
This pin connects to the base of the external BJT(2N2222), wh ich is designed to withstand
to 23V and provides a regulated 5.3V voltage to VCC pin as the power of the PWM
controller. The pin also can function as shut down with two different application circuits. The
one can pull low the pin to gnd, the other can pu ll low drive to make V
threshold.
RT8110
lower than PO R
DD
3 FB
This pin is connected to the PWM controller’s output divider. This pin also connects to
internal PWM error amplifier inverting input and protection monitor.
This is the m ain bias supply for the RT8110. This pin also pro vid es th e gate b ias c har ge f or
4 VCC
the lower MOSFET gate. The voltage at this pin is monitored for power-on reset (POR)
purpose.
5 LGATE
6
GND Signal and power ground for the IC. All voltage levels are measured with respect to this pin.
7 UGATE
8 PHASE
Connect LGATE to t he PWM controller’s lower MOSFET gate. T his pin provides the gat e
drive for the lower MOSFET.
Connect UGATE pin to the PW M controller’s upper MOSFET gate. This pin provides the
gate drive for the upper MOSFET.
This pin is used to monitor the voltage drop across the lower MOSFET for over-current
protection.
Function Block Diagram
0.8V
REF
SSE
+
Gm
FB
+
-
0.5V
EO
DRIVE
VCC
Regulator
SS
Oscillator
+
+
+
-
VCC
UVP
PWM
Power-
On Reset
POR
Soft-Start
and Fault
Logic
S1L
Gate
Control
Logic
OC
PH_M
VCC
I
OC
R
1.5V
VCC
OC
PHASE
UGATE
BOOT
LGATE
GND
+
-
+
DS8110-01C March 2007www.richtek.com
3
Page 50
Page 51
Page 52
Page 53
Page 54
Page 55
A
A
AO4459
p
P-Channel Enhancement Mode Field Effect Transistor
General Description
The AO4459 uses advanced trench technology to provide
excellent R
for use as a load switch or in PWM applications. Standard
roduct AO4459 is Pb-free (meets ROHS & Sony 259
specifications). AO4459L is a Green Product ordering
with low gate charge. This device is suitable
DS(ON)
Features
VDS (V) = -30V
I
= -6.5A (VGS = -10V)
D
R
< 46mΩ (VGS = -10V)
DS(ON)
R
< 72mΩ (VGS = -4.5V)
DS(ON)
option. AO4459 and AO4459L are electrically identical.
SOIC-8
Top View
S
S
S
G
Absolute Maximum Ratings T
A
D
D
D
D
=25°C unless otherwise noted
G
Symbol
Drain-Source Voltage-30
Continuous Drain
Current
A
Pulsed Drain Current
B
T
A
T
A
=25°C
=70°C
TA=25°C
Power Dissipation
A
T
=70°C
A
Junction and Storage Temperature Range
V
DS
V
GS
I
D
I
DM
P
D
TJ, T
STG
D
S
MaximumUnitsParameter
±20Gate-Source Voltage
-6.5
-5.3
-30
3.1
2
-55 to 150
V
V
A
W
°C
Thermal Characteristics
ParameterUnits
Maximum Junction-to-Ambient
Maximum Junction-to-Ambient
Maximum Junction-to-Lead
C
t ≤ 10s
Steady-State
Steady-State
SymbolTypMax
R
θJA
R
θJL
3340
6275
1824
°C/W
°C/W
°C/W
Alpha & Omega Semiconductor, Ltd.
Page 56
M3D315
1.Product profile
1.1 Description
1.2 Features
PHKD13N03LT
Dual TrenchMOS™ logic level FET
Rev. 01 — 23 June 2003Product data
Dual N-channel enhancement mode field-effect transistor in a plastic package using
TrenchMOS™ technology.