BBK X19 service manual

X19(RU)

service manual

Catalog

Chapter One About Maintenance

1.1 Safety precautions

1.1.1 Precautions for antistatic

1.1.2 About placement position

1.2 Maintenance method

1.2.1 Visualized method

1.2.2 Electric resistance method

1.2.3 Voltage method

1.2.4 Current method

1.2.5 Cutting method

1.2.6 Element substitution method

1.2.7 Comparison method

1.3 Required device for maintenance

Chapter Two Functions and Operation Instructions

1

2

3

4

2.1 USAGE INTRODUCTION

2.2 USAGE INTRODUCTION

2.2.1 BUTTONS AND JACKS ILLUSTRATION

2.2.2 MAIN MENU ILLUSTRATION

2.2.3 PLAYING INTERFACE ILLUSTRATION

2.2.4 TUNING INTERFACE ILLUSTRATION

2.2.5 RECORDING INTERFACE ILLUSTRATION

2.3 BASIC OPERATION

2.3.1 INSTALL USB DRIVE PROGRAM

2.3.2 USE MOBILE STORAGE FUNCTION

2.3.3 DISCONNECT USB SAFELY

2.3.4 OMV VIDEO CONVERSION TOOL

2.3.5 MAKE PICTURE

2.3.6 BROWSE/CANCEL FILE

2.3.7 PLAY MUSIC

4

5

6

7

8

9

2.3.8 A-B REPEAT FUNCTION

9

2.3.9 RECORDING

2.3.10 TUNING

2.3.11 UPGRADE

2.4 ADDITIONAL INFORMATION

2.5 SPECIFICATION

Chapter Three Servicing and Principle

section One Principle of the Player

3.1.1 Function introduction

3.1.2 Block diagram of the player

3.1.3 Introduction to IC used by the player

Section Two Unit Circuit Principle

3.2.1 FLASH circuit principle

3.2.2 FM tuning circuit

3.2.3 OLED module circuit

9

10

11

12

13

14

15

16

3.2.4 Buttons circuit

3.2.5 Headphone jack circuit

3.2.6 Charge control circuit

3.2.7 Battery protection circuit

3.2.8 Power circuit

3.2.9 Reset circuit

3.2.10 Power on/off control circuit

3.2.11 Microphone circuit

3.2.12 USB jack circuit

3.2.13 RTC circuit

Section Three Servicing Cases

3.3.1 Servicing cases

3.3.2 Troubleshooting flow chart

Section Four Waveform diagram

Section Five Function Introduction to IC

17

18

19

20

21

22

23

24

25

28

33

40

3.5.1 Function introduction to PNX0102AEX

3.5.2 Function introduction to HY27UG088G5M

3.5.3 Function introduction to TPS79301

3.5.4 Function introduction to G690L263T71

40

51

53

54

3.5.5 Function introduction to TPS62200

55

3.5.6 Function introduction to Lm2703

3.5.7 Function introduction to TEA5767HN

3.5.8 Function introduction to ISL6294IRZ

3.5.9 Function introduction to PIC10F200T

3.5.10 Function introduction to PQ1X281M2ZP

3.5.11 Function introduction to Si1912

3.5.12 Function introduction to Si1912

Chapter Four Assembly and Disassembly Process

4.1 Disassembly process of the player

4.2 Assembly process for the player

Chapter Cinque PCB board & Circuit diagram

Section One PCB board

Section Two circuit diagram

56

57

59

61

62

63

65

68

71

73

Chapter six BOM List

74

Chapter One About Maintenance

1.1 Safety precautions

1.1.1 Precautions for antistatic

Movement and friction will both bring static electricity which causes serious damages to integrated

IC. Though static charge is little, when a limited quantity of electric charge is added to large-

scaleintegrated IC, as the capacitance is very small in the meantime, now the integrated IC is very much

easy to be struck through by static electricity or the performance will decrease. Thus static electricity

prevention is of extraordinary importance. The following are several measures to prevent static

electricity:

1. Use a piece of electric conduction metal with the length of about 2 metres to insert into the earth,

and Fetch the lead wire from the top of the surplus metal and connect to the required static electricity

device. The length and depth of the metal embedded under the earth should be determined according to

the wettability of the local soil. For humid places, it may be shorter, and longer and deeper for dry places.

If possible, it can be distributed and layed in terms of “#” shape.

2. On operating table-board, the antistatic table cushion should be covered and grounded.

3. All devices and equipments should be placed on the antistatic table cushion and grounded.

4. Maintenance personnel should wear antistatic wrist ring which should be grounded.

5. Places around the operating position should also be covered with electric conduction cushion or

Painted with antistatic paint.

1.1.2 About placement position

1. Audio power amplifier cannot be installed in places with high temperature and humidity.

2. Positions for placement should be stable and secure.

1.2 Maintenance method

1.2.1 Visualized method

Directly view whether abnormalities of collision, lack of element, joint welding, shedding welding,

rosin joint, copper foil turning up, lead wire disconnection and elements burning up among pins of

- 1 -

Elements appear. Check power supply of the machine and then use hands to touch the casing of part of

elements and check whether they are hot to judge the trouble spot. You should pay more attention when

using this method to check in high voltage parts.

1.2.2 Electric resistance method

Set the multimeter in resistance position and test whether the numerical value of resistance of each

point in the circuit has difference from the normal value to judge the trouble spot. But in the circuit the

tested numerical value of resistance is not accurate, and the tested numerical value of integrated IC's

pins can only be used for reference, so the elements should be broken down for test.

1.2.3 Voltage method

Voltage method is relatively convenient, quick and accurate. Set the multimeter in voltage position

and test power supply voltage of the player and voltage of a certain point to judge the trouble spot

according to the tested voltage variation.

1.2.4 Current method

Set the multimeter in current position and test current of the player of a certain point to judge the

trouble spot. But when testing in current method, the multimeter should be series connected in the

circuit, which makes this method too trivial and troublesome, so it is less frequently used in reality.

1.2.5 Cutting method

Cutting method should be combined with electric resistance method and voltage method to use.

This method is mainly used in phenomena of short circuit and current leakage of the circuit. When

cutting the input terminal voltage of a certain level, if voltage of the player rises again, it means that the

trouble lies in this level.

1.2.6 Element substitution method

When some elements cannot be judged good or bad, substitution method may de adopted directly.

1.2.7 Comparison method

A same good PC board is usually used to test the correct voltage and waveform. Compared these

data with those tested through fault PC board, the cause of troubles may be found.

Through the above maintenance method, theoretical knowledge and maintenance experience, all

difficulties and troubles will be readily solved.

- 2 -

1.3 Required device for maintenance

Audio Generator

Digital oscillograph ( 100MHE)

SMD rework station

Multimeter

Soldering iron

Pointed-month pincers

Cutting nippers

Forceps

Electric screw driver

Terminals connecting cord

Headphone

Microphone

- 3 -

Chapter Two

Functions and Operation Instructions

2.1 FUNCTIONS AND FEATURES

# Philips PNX0102audio decode chip

Adopt famous Plilips PNX0102 audio decode chip, special for Hi-Fi MP3 player, forcefully making

up audio signal loss when compressing MP3 to revert audio signal better.

# Support 3D surround stereo sound effect, 9 EQ modes

You may taste heartquaking bass and vivid surround stereo sound effect.

# Play MP3/WMA/WAV files

Support 32kbps 320kbps MP3 file and 8kbps 192kbps WMA file.

# Mobile storage function

Capable of downloading files from Windows resource manager.

# FM tuning/FM recording function

Auto scanning and auto/manual saving function may listen to FM radio station program more easily. You may record FM program into Mp3 file directly.

# Voice recording function

May be used to record in class, meeting and interview.

# USB 2.0 transmission (high speed)

USB2.0 high speed data transmission. # Support firmware upgrading function Support upgrading function. You may add new function to the built-in program of this player

Conveniently. # Support multi-level directory Support 11-level 256 folders and 3000 flies at most.

2.2 USAGE INTRODUCTION

2.2.1 BUTTONS AND JACKS ILLUSTRATION

#

Press for long in power-off mode

#

press for long in power-on mode

#

Press in playback interface

#

Press when recording

#

Press when tuning

- 4 -

power on power off switch in pause/play pause recording mute

Press when operating menu

#

Press in stopwatch timing

#

Press in playback interface

#

Press for long in playback

#

interface

Press in tuning PRESET mode

#

Press for long in tuning PRESET

#

mode

Press in tuning SCAN mode

#

Press for long in tuning SCAN

#

mode

When operating menu

#

Press or for long in “My EQ”

#

Press or for long when browsing

#

E-books

Press when browsing pictures

#

enter the selected item or confirm setup Pause previous/next track

fast backward/forward select channel

full auto scanning manual scanning

automanual scanning move cursor or set item select the frequency point you want to set

turn pages switch pictures

# Press for long in any mode (except recording) # Press when tuning # Press when operating menu

# Press or for long in playback interface or when tuning # Press in “My EQ” setup # Press or for long when setting screen saver or timing power off # Press when setting clock # Press when setting 3D

USB jack, power adapter, LINE IN jack

# Press in playback mode # Press for long in any time # Press long when listening radio set # Press in file browsing interface # Press when in antomanual/manual scanning # Press when browsing E-books Headphone jack MIC: microphone

Enter main menu switch in PRESET and SCAN mode not save the setup and return to the previous menu

adjust volume adjust dB value

adjust screen saver/timing power off time set time adjust subwoofer

A-B reread record/generate recording file

enter FM recording/generate recoding file cancel file

save radio station adjust page number

2.2.2 MAIN MENU ILLUSTRATION

# My Music save music file/FM recording file/LINEIN recording file # My Movie save movie file

- 5 -

# My Photo Save picture file # My Ebook Save text file # FM Radio Select “FM Radio” to enter its mode # My Voice Save microphone recording file, such as meeting, classroom and interview

2.2.3 PLAYING INTERFACE ILLUSTRATION

# Calendar Select “Calendar” to enter its mode # Stopwatch Select “Stopwatch” to enter timing mode # SYS Setup Select “SYS Setup” to set system items

1

Current track sequence number

2

Total track number

3

Playback status

4

Sound effect mode

5

Playback mode Battery capacity

6

7

8

9

2.2.4 TUNING INTERFACE ILLUSTRATION

1

Dual channel

2

Battery capacity Frequency of currently-listening

3

radio station Scanning progress bar

4

.

5

6

2.2.5 RECORDING INTERFACE ILLUSTRATION

Bit rate Song name/singer/lyrics display Current playback time Playback progress bar Music spectrum display

PRESET channel display PRESET mode (normal listening) SCAN mode (scanning) Mono channel

.

1

Battery capacity

2

Time that has been recorded Record file name

3

Recording/pause

4

The left recordable time

5

.

As for the name of recorded file "V001.WAV": 001 is serial number of the current recorded track and arranged according to sequence; WAV is file format after recording.

- 6 -

2.3 BASIC OPERATION

2.3.1 INSTALL USB DRIVE

PROGRAM

If your computer is Windows 98, you must install drive program if you want to use the mobile storage function of MP3 player in computer.

1. Place USB drive disc into CD-ROM driver

of computer.

2. Connect Mp3 player to computer, and the computer will automatically indicate that new firmware device has been found, and run the installation guide, shown as the following figure. You only need to find the drive information file on disc according to prompt information to finish the installation of drive program.

3. After installation finishes, restart the computer and you may use the mobile storage function normally.

Shown as the following figure:

.

NOTE: NOTE:

# To avoid abnormality of the player appears, you

.

are suggested to power off firstly before connecting MP3 PLAYER with computer, and then use USB # transmission line to connect MP3 PLAYER, then connect computer.

In Windows 98 system, there is no “ ”symbol.

2.3.3 DISCONNECT USB SAFELY

After operation finishes, click " “ symbol on bottom right corner of Windows desktop with right button of mouse, and disconnect USB safely according to the computer prompt.

2.3.2 USE MOBILE STORAGE FUNCTION

This player can be used as mobile storage in Windows ME/2000/XP operating system. In Windows 98SE and Mac operating system, random drive program must be installed firstly and then used as mobile storage.

Connect MP3 PLAYER and computer with

USB transmission line. After the bottom right corner of desktop appears “ ” symbol, the

mobile storage function of Mp3 PLAYER

.

2.3.4 OMV VIDEO CONVERSION

TOOL

1. General description Before using, please install DirectX 9.0 and upgrade Windows Media Player to 9.0 or version above this. Usage platform: Windows2000, Windows XP

2. Explanation of help Basic operation:

The interface after program running:

2. Select a file to open in “Open” dialogue box.

1.Click “File” menu and select “ OpenFile”.

.

3.Now set to save file path and file name, with steps the same as above..

- 7 -

1. After the setup of saving file path is successful, click icon to begin conversing.

After conversion finishes, the hint of “Conversion Succeed”will appear.

Conversion setup: Before conversion, you may perform the setup of parameter conversion. Click icon to

pop up dialogue box and perform parameter setup of VideSize, PlaydFrame, AudioBits, Intercept Segment.

1.VideoSize:may be set according to the screen size of MP3.As the following figure, screen size is

2.PlaydFrame:the played frame rate of each second during file conversion maybe

set. 96(length)*64(width)an d unit is pixel spot.

Note:

1.If DirectX 9.0 still can not run after installation finishes, Open 'Display Properties' in the Control Panel of PC, Click the 'Settings' tab, Click on the 'Advanced' button at the bottom of the page, Click on the 'Troubleshooting' tab in the window that appears, Verify that the 'Hardware Acceleration' slider is at the rightmost position.

2.If the playback of video file after conversion appears halt, you may turn off other application programs to run conversion program again.

2.3.5 MAKE PICTURE

Install MakePic, download MakePic from SOKEN website or copy the installation program file of MakePic from the attached present disc. Click “Setup exe” twice and then finish the installation according to prompt. How to make picture:

1. MakePic running Click “Start” Program MakePic runs the

tool of making picture.

2. After opening the program of making picture,

click “File” “Open photo”, shown as the following figure:

3.AudioBits:bit rate of music during file conversion may be set.

4.Intercept Segmen:a segment may be

intercepted in video to conduct conversion. As in the following figure, input starting time

Point and finish time point, for instance,

intercept the segment between 10 seconds and 1minutes plus 30 seconds; if you do not

Select, it means the whole segment is intercepted(note:for some ASF, WMA file, the starting point of intercepted segment is from 0).

3. Click “Zooming zone” button to select your desired picture zone. Click “Save” icon to generate BMP format picture.

2.3.6 BROWSE/CANCEL FILE

# BROWSE FILE In any case, press button for long to enter

M

“Main Menu”. Musical file and recording file are separately saved in the two items of main menu “My Music” and “My Voice”. Press button

/

to select upward or downward to browse files.

M

PRESS FOR LONG

PRESS

- 8 -

#CANCEL FILE

A-B

PRESS

A-B

M

When browsing files, press button and the cancel dialogue box will pop up. Press

/

button to select “Yes” and press button to cancel the file. Select “Esc” or button to exit.

PRESS

#ADJUST VOLUME

When playing or tuning, pressing button or for long may both adjust volume. The display of adjusting volume in music playback interface is shown as follows:

Note: File data cannot be cancelled when playing musical and recording files.

2.3.7 PLAY MUSIC

#PLAY MUSIC Press button to select song in “My Music”. Press button to begin playing music, and meanwhile the playback interface displays. #PAUSE MUSIC When playing, press button to switch to pause state. Press button again to continue playing.

#NEXT and PREV When playing, pressing button may skip to the next track to play; and pressing button may skip to the previous track to play. #FF and FB When playing, Pressing button for long without losing may realize fast forward.

/

PRESS

A-B

/

M

A-B

NOTE:

#In some operating system (such as complex font Windows), the operation of copying lyrics/song file and changing song's name may probably lead to incorrect display. When playing WMA songs of VBR , pressing buttons may probably has slow response or has no lyrics display. When playing some non

/

standard songs or songs with special format, noise may probably occur.

2.3.8 A-B REPEAT FUNCTION

When playing, if you want to listen to a certain segment repeatedly, please use A-B repeat function. Press button for the first time to select the beginning point that you desire to repeat play and screen displays “A”;press it for the second time to select the ending point that you desire to repeat play and screen displays "A-B”, and system begins to repeat play between A-B segment. Press this button for the third time to cancel repeat and continue to play.

PRESS

PRESS FOR LONG

#FF and FB When playing, Pressing button for long without losing may realize fast backward.

PRESS FOR LONG

NOTE:

When in FB/FF operation, if you press button for long without losing, the state is still FB/FB after entering the next track.

2.3.9 RECORDING

In any cases, press button for long to enter recording mode; pressing button may pause recording and pressing button for long may generate recording file and then exit.

PRESS

NOTE:

#To avoid sudden power-off when recording, you cannot record when in low battery and when disc is fully written. If you are recording, it indicates "FULL DISC" and exits recording.

- 9 -

PRESS

# When recording with microphone, if you press buttons and the sound of pressing may probably be recorded. # Select recording format “MIC”/“LINEIN” when recording.

# LINEIN RE RECORDING Firstly select LINEIN in “SYS Setup”--- “REC Set” --- “REC Source”, and then connect LINEIN input jack of MP3 PLAYER to the headphone output jack of DVD or CD player with LINEIN cord, and then enter recording according to above operation steps. The output audio signal of DVD or CD player can be re recorded into MP3 file (The output signal of any device with headphone output can be re recorded into MP3 file through this player.).

NOTE:

When in LINEIN recording, if external sound source input extent is too large, the playback of files after being re recorded will have distortion and noise. Please adjust the external sound source to proper volume.

2.3.10 TUNING

# ENTER TUNING MODE Select "FM Radio" in main menu and press button to listen to radio. # QUIT TUNING MODE When listening to radio, press button for long to return to main menu. # PRESET/SCAN MODE SWITCH When listening to radio, press button to switch between PRESET and SCAN mode.

1. PRESET MODE #ADJUST CHANNEL Press button to enter the next channel, and press button to enter the previous channel. #FULL AUTO SCANNING In PRESET mode, press or button for long to begin full auto scanning. All scanned radio stations will be saved automatically.

PRESS FOR LONG

2. SCAN mode #MANUAL/AUTOMANUAL SCANNING Press button to increase 0.1MHz each time; and press button to decrease 0.1 MHz each time. Press button to save radio station and

A-B

switch to PRESET mode. Press button for long to increase frequency continuously and stop until radio station has been searched. Press button to

A-B

save radio station. Press button for long to decrease frequency continuously and stop until radio station has been searched. Press button

A-B

to save radio station.

#SAVE RADIO STATION In manual scanning mode, pressing button may save the current radio station; in automanual scanning mode, pressing button after radio station is searched may also save the ratio station. Press button to mute.

PRESS

NOTE: NOTE:

PRESS

In the course of full auto/automanual

M

scanning, press or button will stop

M

searching.

- 10 -

/

#FM RECORDING When listening to radio set, press button for long to enter FM recording; press button to pause recording; press button for long to generate recording file and then exit to tuning mode. The file generated by FM recording is MP3 format.

PRESS FOR LONG

PRESS

NOTE: NOTE: When using FM, please pull up LINEIN cord to

avoid the sound mixing of LINEIN and FM.

2.3.11 UPGRADE

# UPGRADE Download the latest firmware updating file from BBK website firstly, such as "BBK_X19RU.ebn" and "X19RU_Resource.bin", copy the two files into root directory of Mp3 PLAYER at the same time, and then power on again. Find "Upgrade” item in “SETTINGS", and pressing button may start updating. After updating finishes, MP3 PLAYER will power on again.

PRESS

# After firmware updating finishes, some function or interface may probably be different from user manual, so please take real object as standard.

# After updating finishes, blank screen may probably appear for about 30 seconds, which means MP3 is updating resources.

2.4 ADDITIONAL INFORMATION

# The longest playback time In the state of proper volume , "NORMAL" sound effect and screen saver, play MP3 music file with 128kbps, and 44.1kHz, the longest playback time of this player is about 8 hours. In other cases, playback times will be different. # Accessories .Headphone .Hanging necklace .USB drive disc .User manual .USB transmission line .Warranty card .LINE-IN cord .Protection case # The lowest computer configuration requirements .Above Windows98SE/2000/XP/ME,Mac8.5 .Pentium 200MHz centre processor or above .CD-ROM drive .40MB spare hard disc space .32MB EMS memory .USB jack

NOTE:

# Make sure MP3 PLAYER has enough quantity of electric charge before updating. # To ensure successful firmware updating, do not power off during the course of updating. # Updating will last for about one minute, please try your best not to operate other buttons during this course. # After updating finishes, the player will power on automatically and meanwhile cancel the used updating file at the same time.

2.5 SPECIFICATION

Model

Audio decode chip

Lithium battery

Continuous playback time

Dimensions/weight

Audio SNR

Headphone output

Frequency range

FM tuning range

Working temperature

Files supported

- 11 -

X19 Color

Philips PNX0102

3.7V 320mAh

The longest continuous playback time is 8 hours.

62mm X 33mm X 10.5mm about 33g

90dB

9mW+9mW 32 ohm (18mW+18mW headphone impedance 16 ohm)

18Hz~20kHz

87.5MHz~108MHz

0 C ~ 40 C

MPEG 1/2 Layer 3 (32kbps~320kbps), WMA (8kbps~192kbps), WAV

Chapter Three Servicing and Principle

Section One Principle of the Player

3.1.1 Function introduction

1. Mp3 main decode chip, which adopts professional MP3 decode chip PNX0102 of Philips

company, with integrated ARM and DSP core inside. Sound quality is good and power consumption is

low.

2. USB jack circuit: USB jack, data exchange.

3. Flash circuit: data storage of the player.

4. OLED circuit: 1’ colorful screen, display of working state of the player.

5. MIC circuit: external audio input, record function finishes.

3.1.2 Block diagram of the player

Block diagram of the player is shown in the figure 3.1.2.1:

32.768K

CRASTAL

HEADPHONES

ANTI-POP CIRCUIT

IMPEDANCE MATCH

MICROPHONE

USB INTERFACE

3V-12V DC-DC

CONVERTER

OLED MODULE

FM MODULE

SRAM

PNX 0102

NAND

FLASH MEMORY

LDO MODULE

2.8V VOLTAGE

1.8V

VOLTAGE

BUTTON ARRAY

RESET CIRCUIT

12M CRYSTAL

3.0V VOLTAGE

1.8V

DC-DC

POWER

MANAGEMENT

LI-ON BATTERY

RECHARGE

CIRCUIT

USB INTERFACE

3.3V

DC-DC

Figure 3.1.2.1 block diagram

- 12 -

3.1.3 Introduction to IC of the player

IC model Location Function

ISL6294IRZ DFN U1 Charg e managemen t

PNX0102AET U2 MP3 decode

TPS79301 U3 Prec ision voltage s tabil izer

TPS62200 U4 Prec ision voltage s tabil izer

PQ1X281M2ZP U5 Prec ision voltage stabilizer

PIC10F200T-I U6 Voltag e detect

M41T62 U7 RTC chip

G690L263T71 U8 Reset IC

HY27UG088G5M U9 Flash

LM2703 U10 12V boost

CS26LV16163HI U11 SDRAM

TEA5767HN U12 TuningIC

RCLAMP0504F U13 ESD protec tion

Introduction to IC of the player is shown as in the following table:

- 13 -

Section Two Unit Circuit Principle

3.2.1 FLASH circuit

1. FLASH circuit schematic diagram is shown in the figure 3.2.1.1:

3.3V

NC NC NC NC NC

RE

NC

NC NC

WE WP

NC NC NC NC NC

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24

R52

47K 5%

C40

SM_A3 SM_A2 SM_LB SM_WPN

R61

100K

DGND

R53

47K 5%

3.3V

104 6.3V/X5R

DGND

SM_A3 SM_A2 SM_LB SM_WPN

%

5

R54

47K 5%

SM_RDY SM_OE SM_CS0 SM_CS2

SM_D7 SM_D6 SM_D5 SM_D4

C38

104 6.3V/X5R

SM_D3 SM_D2 SM_D1 SM_D0

3.3V

DGND

SM_D7 SM_D6 SM_D5 SM_D4

SM_D3 SM_D2 SM_D1 SM_D0

48 47 46 45 44 43 42 41 40 39 38 37 36 35 34 33 32 31 30 29 28 27 26 25

NC NC NC NC I/O7 I/O6 I/O5 I/O4 NC NC PRE VCC VSS NC NC NC I/O3 I/O2 I/O1 I/O0 NC NC NC NC

U9

R/B2 R/B1

CE1 CE2

VCC VSS

CLE ALE

Figure 3.2.1.1 Flash circuit schematic diagram

2. Working principle: Flash Memory is the storage unit of the player, all MP3 and waveform files

should be stored in FLASH. Flash module is composed of FLASH chip TC58512FT and peripheral circuit

to finish internal files’s working of read, write and delete. 3.3V voltage circuit provides 3.3V voltage for

Flash working. R53 and R54 is pull up resistor of /CE1 and CE2, R52 is pull up resistor of R/B1, R61 is

the pull down resistor of /WP,Vcc is power supply pin of FLASH, /CE is chip selection signal, high level is

effective, VCC33 provides 3.3V voltage and FLASH begins to work. /RE, /WE are read effective and

write effective signal end respectively to control read and write function of FLASH. I/O1 - I/O8 are 8 data

lines to complete the exchange of FLASH and external data to realize functions of write, delete and edit

of MP3.

When MP3 is powered on, 3.3V voltage supplies power for Flash through Vcc, /CE inputs 3.3V high

level signal and Flash begins to work effectively. When MP3 is playing musical and recording files, /RE

is high level, Flash performs read operation. When writing files in through data line o recording through

microphone, /WE is high level, Flash performs write in operation. Working of read out and write in are

performed through I/O1 I/O8 8 data/address lines. When playing video, data in Flash is processed by

PNX0102 and then the continuous video output is realized through SDRAM U11 cache.

- 14 -

3.2.2 FM tuning circuit

1. FM tuning circuit diagram is shown in the figure 3.2.2.1;

R62

C76

FM_3V3

SGND

RF

L12

C54

L13

C75

D6

D7

FM_3V3

R63

SGND

BB202

C77

L14

C83

SGND

R16

C64

SGND

R5

C85

R30

R31

C84

40

37

38

39

N.C

1

N.C

2

CPOP

3

VCOT1

4

VCOT2

5

VCOVCC

6

DGND

7

DVCC

8

DATA

9

CLOCK

10

N.C

SGND

TCAGC

LOOPSW

W/R11BUSM12BUSEN13SWP114SWP215XTAL116XTAL217PDLF18PHLF19N.C

R32

3.3V

R58

FM_3V3

32

33

34

35

36

RFI1

RFI2

AVCC

AGND

RFGND

TEA5767HN

NECTAR-I

FM_BUSEN

R59

FM_SCL

FM_SDA

R73

SGND

31

U12

N.C

IFGAI

N.C DIFL2 DIFL1

TCIFC

VREF

MPXO

TMUTE

RAVO LAVO

N.C

20

32.768KHz

FM_SCL

FM_SDA

X3

C57

30 29 28 27 26 25 24 23 22 21

SGND

C89

C90

C91

C92

SGND

C93

1

C49

2

SGND

5767R

5767L

SGND

R74

C80

SGND

5767R

5767L

SGND

C81

C58

SGND

Figure 3.2.2.1 FM tuning circuit diagram

2. Working principle: tuning circuit is composed of micro digital tuning IC TEA5767HN of Philips

company and peripheral circuit. Power supply voltage is supplied by PQ1X28 to provide pure voltage

with value 2.8V for IC. C75, C83, C64, C84, L14 are antenna input match circuit of FM module; variable

diode D6, D7 and winding inductor L12, L13 are selection tuning circuit in FM module. Control means of

FM adopts IIC bus control means, 8, 9 of TEA5767 are data line and control line.

When MP3 player switches to FM tuning state, pin 13 BUSEN of TEA5767HN receives high level

signal, bus control mode is gated, IC begins to work. As antenna, headphone receives FM signals from

nature, through antenna input matching circuit, input TEA5767HN, PNX0101 via RFI1 and RFI2 to

control TEA5767HN to perform intermediate frequency and selected frequency control through IIC_SCL

and IIC_SDA to transform FM signals to sound simulating signals and then is outputted by FM_OUTR

and FM_OUTL to ADC circuit of PNX0102 and then output through headphone after DAC processing.

- 15 -

3.2.3 OLED module circuit

1. OLED module circuit is shown in the figure 3.2.3.1:

LCD_CS LCD_RES LCD_RS LCD_RW LCD_RD LCD_D0 LCD_D1 LCD_D2 LCD_D3 LCD_D4 LCD_D5 LCD_D6 LCD_D7

R69

1 50K 5 %

C82

475 6.3V/X5R

OLED_POWER

P_VDD

DGND

OLED_POWER

DGND

5

4

R20

47K 5%

L2

CDRH2D11/HP-4R7

U10

VIN

SW

GND

EN

FB

LM2703

1

2

3

MBR0520

DGND

D8

R70

470K 1%

R71

43K 1%

DGND

C87

22PF 25

V

DGND

LCD_CS LCD_RES LCD_RS LCD_RW LCD_RD LCD_D0 LCD_D1 LCD_D2 LCD_D3 LCD_D4 LCD_D5 LCD_D6 LCD_D7

Q7

MMST3906

C88

475 16V/Y5V

DGND

104 6.3V/X5R

C9

R68

1M 5%

105 16V/X7R

L17

600R/100MHz

3.3V

C86

R6 R7

DGND

10k 5% 10k 5%

DGND

1 2 3 4 5

C36

6 7 8

9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31

C12

475 16V/Y5V

NC GND TESE0 TEST1 TEST2 TEST3 TEST4 VP_R VP_G VP_B VDD BS1 BS2 IREF CS# RES D/C WR RD D0 D1 D2 D3 D4 D5 D6 D7 NC VOCMH VCC NC

OLED

1

J3

tp7

Figure 3.2.3.1 OLED circuit schematic diagram

2. Working principle: 12V high voltage is required to lighten OLED and matching circuit must be

matched to finish. The circuit includes two parts: boosted circuit and OLED jack circuit, in which boosted

circuit is constituted by boosted DC-DC LM2703 and peripheral circuit, VIN is power input, EN is

Lm2703 enable end, high level is effective, SW is high voltage output pin, FB is feedback pin,

voltageValue VOLED outputted by high voltage is achieved through selecting two voltage partial resistor

on two ends of FB, and the following relation is met:

From the above, VOLED is about 12.2V and L2 in the circuit is IES of boost circuit.

3.3V voltage inputs to LM2703 through Vin, EN receives high level to make LM2703 effective, 3.3V

voltage is outputted by SW pin through LM2703 boost and inputs to C electrode of triode Q7, Q7 is

connected, 12V voltage outputs to power supply pin 30 of OLED to provide OLED with lightening voltage,

diode D8 is used to prevent reverse current damaging IC. During the process of working, FB feedback to

LM2703 through detecting capacitor C87 to control the output voltage through adjusting resistor R70

and R71.

- 16 -

OLED jack circuit is connected with OLED of PNX0101 directly, through data exchange of

LED_DB0~LED_DB7 and PNX0102, character display is controlled by internal program of PNX0102.

Pin 16 of OLED is reset signal and controlled by one MPMC jack of PNX0102. When power on, high

level outputs and OLED resets.

3.2.4 Buttons circuit

1. Buttons circuit is shown in the figure 3.2.4.1:

3.3V

R49

47K 5%

R50

47K 5%

DFU

SW1

SW2

SW3

SW4

SW5

SW6

SW7

TS-1186

DGND

TS-1186

R51

1K 5%

3.3V

SCAN_C1

SCAN_C2

SCAN_C3

SCAN_C4

SCAN_C5

SCAN_C6

SCAN_C7

SCAN_C1

SCAN_C2

SCAN_C3

SCAN_C4

SCAN_C5

SCAN_C6

SCAN_C7

R45

47K 5%

R46

R47

47K 5%

D5

1N4148WS

R48

47K 5%

Figure 3.2.4.1 Buttons circuit schematic diagram

2. Working principle: buttons of X19 (RU) are composed of 7 single buttons (one is DFU button).

Button detecting is to use voltage detecting mode to decide which button functions through utilizing

PNX0102 to scan the voltage variation of SCAN_C1~SCAN_C7. When the relevant button is pressed,

voltage of the corresponding preset point of this button will pull down to ground through the

corresponding resistor in R45~R50. Low voltage is inputted to the corresponding detect circuit input jack

of PNX0102 and the internal program makes the corresponding response to realize button function.

3.2.5 Headphone jack circuit

1. Headphone jack circuit is shown in the figure 3.2.5.1:

J1

2SJ-A390-A02

MUTE

tp5

tp6

1

3

4

2

1

RF

L7

L11

L16

RF

47K 5%

1K/100MHz

DGND

R13

DGND

4.7K 1%

Q5

1

S1

4

S2

NTJD4401

U13

RCLAMP0504F

Figure 3.2.5.1 Headphone jack circuit schematic diagram

R14

G12G2

34 25 16

5

MUTE

D1 D2

- 17 -

6 3

DGND

R43

1K 5%

R44

1K 5%

C65

C66

220UF

R56

18R 5%

4

V

C67

103 16V / X 7R1 %

4

V

DGND

C68

DGND

R55

18R 5%

103 16V / X 7 R1 %

R_OUT

L_OUT

R_OUT

L_OUT

2. Working principle: left and right channels audio signals outputted from PNX0102 , through 220uF

C65 C66 capacitor coupling output, are sent to headphone jack circuit. Headphone jack circuit is

composed of the dual MOS tube NT JD4401 and headphone socket J1 that control sound output. Pin 2

and 5 of NTJD4401 are connected to mute circuit. When MUTE button is pressed, control dual MOS

tube is disconnected to cut the output of left and right channels of headphone. in circuit

RCLAMP0504F

is TVS diode array, used to protect ESD to prevent external static from damaging internal circuit through

headphone jack. Ground wire of headphone is also used as antenna input of FM tuning.

3.2.6 Charge control circuit

1. Charge control circuit fulfills the charge function to lithium-ion battery and circuit diagram is

shown in the figure 3.2.6.1:

tp1

D2

DGND

BAT

IREF

IMIN

GND

MBR0520

8 7 6 5

680K

G Q1

R4

47K 5%

DGND

R11

R2

60K 5%

S

SI2301

D

C11

DGND

BAT

DGND

105 16V/X7R

tp2

1

CN1

1

BAT

2

USB_VBUS

/STATUS

USB_VBUS

/STATUS

3.3V

R3

47K 5%

1

D9

MBR0520

105 16V/X7R

1 2 3 4

DGND

C1

VIN PPR CHG EN

ISL6294

U1

R80

100k

MMST3904

Q9

DGND

ISL6294

R79

47K

DGND

Figure 3.2.6.1 Charge control circuit diagram

2. Working principle: charge circuit is composed of charge control IC ISL6294 and peripheral circuit.

Pin VIN is ISL6294 power input pin, that is input end of USB 5V power; BAT is output pin of ISL6294, that

is input end of lithium-ion battery; /CHG is charge state indication end; when /CHG is low level, it means

machine is in charge, or else it means the charge finishes; IMIN is min charge current setup end, that is,

when charge current is lower than the current set by this end, charge is terminated. Setup of min charge

current is realized through selecting external resistor R2. The relation between min charge current /

MIN

and R2 is shown as follows:

(mA)

- 18 -

From the above, we know that min charge current is 20 mA.

IREF is charge current setup end and ISL6294 uses this reference current to charge lithium battery.

Relation between charge current I and external resistor is shown as follows:

REF

Triode Q9 in circuit is used as charge current selection. When users use computer to charge battery,

PNX0102 outputs Sl6294, which is low level, Q9 cuts off and R11 is connected into circuit. From the

above, IREF is about 100 mA; when users use charger to charge battery, PNX0102 outputs ISL6294,

which is high level, Q9 is saturated on, R2 and R11 are connected parallel into circuit. From the above,

IREF is about 200m A. The reason for this design is that USB jack of some computers (for instance,

some PC) cannot provide large current to charge battery.

3.2.7 Battery protection circuit

1. Battery protection circuit board is installed on lithium battery and used to prevent lithium battery

from damage of short-circuit, over discharge and over charge. Lithium battery and battery protection

circuit board are together called lithium battery core components. Battery protection board circuit

diagram is shown in the figure 3.2.7.1:

VCC

C2 104

1

BAT+

1

BAT-

S8261AAJMD-G2J-T2 SOT23-6

1

DOUT

R2 2K

2

3

1

2 3

4

U1

V-

COUT

ECH8601 2206A

S1 G1

U2

S2 G2

D1 D1 D2 D2

VSS

VDD

Ct

8

7 6

5

6

5

R1

4

470

C1 104

C3 104

Figure 3.2.7.1 Battery protection circuit diagram

Equivalent circuit diagram of battery protection circuit is shown in the figure 3.2.7.2:

P+

Ct

Vss

R1

5

VDD

U1

Dout

1

V-

Cout

3

C3

2

R2

Lithium battery

C1

4

B

6

C2

U2

P-

Figure 3.2.7.2 Battery protection circuit equivalent diagram

- 19 -

2. Working principle: battery protection circuit is mainly composed of battery protection IC S8261

and internal dual N groove MOSFET ECH8601. S8261 is the protection IC of the lithium-ion polymer

chargeable battery of internal high precision voltage detect circuit and delay circuit. DOUT and COUT

pin are over discharge (when lithium battery voltage is lower than 2.4V) protection output end and over

charge (when lithium battery voltage is higher than 4.2V) protection output end. The two pins are high

level when working normally; MOSFET is on and lithium battery voltage outputs to the player through

protection board; when in protection, the two pins output low level to control MOSFET to cut off power.

Over current detect (short-circuit protection) is fulfilled through the control of DOUT and COUT output by

V- pin when detecting short-circuit state; when battery is in short-circuit, voltage on V- external resistor

R1 will have a sudden change, V- detects that voltage on R2 increases immediately and then outputs to

control DOUT and COUT and outputs low level at the same time to control MOS tube to cut off battery to

protect battery.

3.2.8 Power circuit

1. 3.3V power circuit is shown in the figure 3.2.8.1:

P_VDD

106 6.3V/X5R

DGND

102 16V/X7R

C17

C56

DGND

1 2

R24

68K 5%

U3

VIN

VOUT GND EN3BYPASS

TPS79301

Figure 3.2.8.1 3.3V power circuit

FB

103 16V/X7R

EN

6 5 4

C52

DGND

R23

33K +/-1%

R25

20K +/-1%

DGND

tp3

1

C48

DGND

22pF 25V/C0G

3.3V

C59

106 6.3V/X5R

3.3V power is supplied by IC TPS79301 and peripheral circuit. TPS79301 is linear voltage

stabilizing module (also called LDO), EN pin is the enable pin that controls normal working and high

level is effective; BYPASS has resistor onside and constitutes low-pass filter with external 103 capacitor

C5 to decrease output noise; setup of TPS79301 output voltage is decided by two external resistors of

FB pin and he relation is shown as follows:

From the above, we know that VOUT is 3.2V.

- 20 -

2. 2.8V power circuit is shown in the figure 3.2.8.2:

C61

104 6.3V/X5R

3.3V

DGND

PQ1X281M2ZP

1

VI

2

GND EN3BYPASS

U5

VOUT

5

4

104 6.3V/X5R

DGND

Figure 3.2.8.2 2.8V power circuit diagram

C5

tp9

FM2.8V

1

C62

106 6.3V/X5R

DGND

1.8V power is supplied by IC TPS62200 and peripheral circuit. TPS62200 is high efficiency reduce

DC-DC converter; EN pin is enable pin and high level is effective; the relation between TPS62200 output

voltage and FB pin feedback resistor is :

From the above, we know that output voltage is about 1.75V.

3. 1.8V power circuit is shown in the figure 3.2.8.3:

C63R26

47pF 25V

R28

100K +/-1%

tp4

1.8V

1

C60

106 6.3V/X5R

DGND

P_VDD

C18

475 6.3V/X5R

DGND

L6

CDRH2D11/HP-4R7

5

4

R27

1.2M1 %

EN

DGND

1 2 3

ERASE

VI GND EN

TPS62200

ERASE

U4

SW

FB

R12

47K 5%

MMST3904

Figure 3.2.8.3 1.8V power circuit diagram

240K

Q2

DGND

In order to enhance and better sound quality of Mp3, FM tuning and microphone effect, TPS62200

provides 2.8V power with low ripple interference. EN is enable end and high level working.

3.2.9 Reset circuit

1. Reset circuit is shown in the figure 3.2.9.1:

3.3V

3

VCC

RST

GND

G690

2

DGND

Figure 3.2.9.1 Reset circuit diagram

U8

1

- 21 -

RST

2. Working principle: reset circuit is composed of reset IC G690L263. When power on, pin 2 level of

G690L263 changes from 0V to 3.3V, pin 3 outputs a low level reset pulse signal with pulse width140

millisecond which inputs to T14 pin of PNX0102 for the reset of the player.

3.2.10 Power on/off control circuit

1. Power on/off control circuit is shown in the figure 3.2.10.1:

0R

tp8

BAT

R18

00 K5

1

SW1

tp10

104 6.3V/X5R

1 2 3

DGND

GPIO1

1

C8

DGND

U6

GP0 VSS GP1

PIC10F200

D1

1N4148WS

R81

GP3 VDD GP2

OFF_CPU

0R

OFF

6

U6_GP3

5 4

EN

OFF_CPU

tp11

1

MMST3906

10K 5%

R1

R76

Q8

10K 5%

R75

10K 5%

AZ431L

Figure 3.2.10.1 Power on/off control circuit diagram

R78

20K 5%

R77

20K 5%

Q3

R82

OFF

R36

2.7K 1% / 1K 1%

R37

2K 1% / 1.8K 1%

DGND

2. Working principle: power on/off control is fulfilled by PIC10F200T-I and with battery low voltage

protection function through software design.

Pin 1 of U6 is connected with OPEN button Sw1. When SW1 is pressed, voltage is pulled down, pin

4 GP2 of U6 outputs high level, EN high level inputs to U3 and U4, 3.3V and 1.8V power supply begins

to output and system power on. When power off manually or voltage is too low, OFF or OFF_CPU output

high level, GP2 outputs low level, EN changes to low level, power supply stops and system power off.

Meanwhile, pin 5 Vdd of U6 detects battery voltage. When battery voltage is lower than 2.8V,

internal software controls EN to output low level, system is in power off state to protect battery.

3.2.11 Microphone circuit

1. Microphone circuit is shown in the figure 3.2.11.1:

MIC

WM-62A

2 1

R60

2.2K 5%

DGND

C71

C21

105 6.3V/X5R

MIC_IN

105 6.3V/X5R

27k 5%

MIC_IN

Q4

MMST3904

R41

MIC_VDD

R40

18K 5%

C74

475 6.3V/X5R

MIC_VDD

DGND

Figure 3.2.11.1 Microphone circuit diagram

- 22 -

2. Working principle: microphone circuit is composed of microphone and microphone power bias

circuit. MIC1 switches the recorded external voice signals into electric signals, through C71 coupling,

outputs to ADC circuit of PNX0102 to switch analog electric signals into digital signals and forms WAV

files through software encoding and saves in FLASH. R40, R41, Q4 and C74 in circuit is triode voltage

stabilizing system, which provides microphone with stable power bias, R60 is bias resistor of

microphone.

3.2.12 USB jack circuit

1. USB jack circuit is shown in the figure 3.2.12.1:

DGND

3.3V

R33

1M 5%

J2

1 2 3

8

P

I

SB

U

4 5

N

6 7 8

10 9

DGND

R34

10K 1%

R35

10K 1%

L5

600R/100MHz

13

985DH

R38

4.7K 1%

DGND

C37

104 10V/X5R

DGND

C69

C70

R39

4.7K 1%

USB_VBUS

24

USB_DM

T1

USB_DP

FM_L_OUT

105 6.3V/X5R

FM_R_OUT

105 6.3V/X5R

USB_VBUS

USB_DM

USB_DP

FM_L_OUT

FM_R_OUT

Figure 3.2.12.1 USB jack circuit diagram

2. Working principle: USB data jack network is composed of USB_VBS (USB 5V power), USB_DM

(anode data line), USB_DP (cathode data line) and grounding surface casing (ground line). USB jack is

directly connected with USB control module of PNX0102. After Mp3 is connected with computer,

USB_VBS high level of computer USB jack inputs to USB_VUSB of PNX0102, USB jack is effective,

USB jack is connected with PNX01021 through USB_DP and USB_DM and then connected with Flash

through PNX0102 to realize the exchange of Flash internal data and computer internal data.

Meanwhile, USB jack of this player is also Line-In. When recording selects Line-In, external audio

signals input through FM_R_OUT and FM_L_OUT, then directly inputs to ADC module of PNX0102

through C69 and C70 coupling to save musical or wave files into Flash after AD conversion.

- 23 -

3.2.13 RTC circuit

1. To maintain normal function of clock and auto power-on, this player is with RTC circuit, shown in

the figure 3.2.13.1:

DGND

D11

1N4148WS

1

XI

2

XO

3

VSS

4

SQW

DGND

15

14NC13

NC16NC

Vcc

IRQ/OUT

VSS5NC6NC7NC

8

NC

SCL

SDA

M41T62

C39

104 6.3V/X5R

U7

12 11 10

9

DGND

R57

10K 5%

FM_SCL

FM_SDA

Q6

MMST3906

RTC_ON

FM_SCL

FM_SDA

RTC_ON

BAT

32.768KHz

BAT

X2

D10

1N4148WS

Figure 3.2.13.1 RTC circuit diagram

2. Working principle: in normal working and power off state, U7 supplies power through Vcc,

32.768kHz crystal oscillator maintains system clock function, meanwhile U7 intermit port/IRQ outputs

high level, Q6 cuts off and RTC_ON outputs low level.

Through software design, this player may fulfill timing power-on function. When system clock

reaches timing power-on time, /IRQ outputs low level intermit signal, Q6 is connected, RTC_ON

changes to high level, meanwhile D3 is connected, EN changes to high level and system power on.

- 24 -

Section Three Servicing Cases

3.3.1 Servicing cases

[ Example 1 ] Syntom: power not on

Description: no OSD and no output

Analysis and troubleshooting: connect with power adapter and check whether charge is available

and whether screen has display and result is that there is no display; take down machine and check

power supply 3.3V and 1.8V, we find that 3.3V decreases to 0.6V; use power adapter to suppl power,

input 5V is normal, charge enable end is high level and it is also normal; observe carefully and find that

pin 2 of U3 (TPS79301) has false welding; after weld again, trouble is removed.

[ Example 2 ] Symptom: machine cannot be switched on

Description: press ON button, screen has no display and headphone has no output.

Analysis and troubleshooting: firstly make sure whether machine cannot be switched on or power

not on; connect with power adapter or computer and check whether screen displays normally; connect

with power adapter and charge can display, which means that power and rear stage circuit working is

normal; power on/off circuit, through a light touch switch Sw1, forms loop after closing; signal produces

and enters U6 (PIC10F200) pin 1 high level to make pin 4 produce a high level to give power an enable

end signal to control whether the whole circuit works; test SW1 switch, press SHUT and check whether

it is on; when testing, we find that Sw1 has false welding; after welding again, trouble is removed.

[ Example 3 ] Symptom: cannot connect with computer

Description: no response and no OSD after connecting with computer

Analysis and troubleshooting: firstly make sure whether charge and power on are normal and the

result is normal; use diode level of multimeter to test the resistance to ground of D+, D- data signals in

USB terminal position and it should be close to several hundred ohm, but we find that D+ resistance

value is normal, D- resistance value is infinite and USB terminal has false welding; after welding again,

trouble is removed.

[ Example 4 ] Symptom: noise appears when tuning

Description: noise appears when tuning.

Analysis and troubleshooting: firstly judge whether tuning components or common part has trouble,

whether one side of headphone has sound when listening, and the result is normal; then switch to tuning

- 25 -

State, search radio station automatically, tuning is normal, which means power supply, data and clock

are normal; we remote external interference, receive the nearest local radio station and check whether it

is clear, and the result shows noise still exists; circuit that causes noise is high frequency tuning and

mixed frequency part; carefully check and find that pin 37 of tuning U12(TEA5767HN)is false welding;

weld again and trouble is removed.

[ Example 5 ] Symptom: noise appear when playing

Description: headphone output noise when playing

Analysis and troubleshooting: if there is noise when playing, it is BGA that has trouble, for playback

and other functions are all normal, only there is noise, so it is necessary to analyse whether decode [art

or rear stage causes this trouble, when playing 1KHZ standard signal, there should be sine wave signals

and not any noise; test P3, N3 waveform close to BGA, so we judge that it is BGA that has trouble; after

changing it, trouble is removed.

[ Example 6 ] Symptom: no OSD

Description: screen has no display

Analysis and troubleshooting: firstly confirm whether trouble lies in power or screen itself; power on

and listen to the sound and sound s normal, so it is preliminarily judged that power supply 3.3V and 1.8V

are both basically normal. Firstly test voltage on two ends of L2 and it is about 4.3V, which is basically

normal; then test voltage on two ends of D8 and find that anode has no 13V voltage, take down display

screen and there is still no; check input end voltage and enable voltage and they are basically normal,

then check FB end voltage of feedback pin and it is obviously low, EN enable end has false welding,

after welding again, trouble is removed.

[ Example 7 ] Symptom: screen has mosaic

Description: display screen has mosaic and display has disorder

Analysis and troubleshooting: this troubleshooting is the same with that of no screen display, with

the difference is that power supply is normal; firstly confirm whether the screen itself has trouble or

circuit has trouble, change display screen and trouble still exists, then use oscillograph to test the 8-digit

number of OLED screen and find that flat cable holder of display screen has false welding, after welding

again, trouble is removed.

[ Example 8 ] Symptom:

Description:

Noise when playing recording files

Analysis and troubleshooting: schematic diagram of record circuit is shown in the figure, it is mainly

composed of microphone and microphone power bias circuit, MIC switches the external voice signals

recorded into electric signals, through being coupled by C71, output to ADC circuit of PNX0102 and form

- 26 -

WMA files through software coding to save in Flash.When repairing this kind of machine, firstly play files

and check whether there is noise and there is no; check recording circuit and power supply is normal;

when recording, use oscillograph to test C71 and there is noise interference, after changing MIC, trouble

is removed.

[ Example 9 ] Symptom: cannot connect with computer

Description: no display after connecting with computer and disk cannot be found

Analysis and troubleshooting: if software program is incorrect or lost, machine may probably not be

switched on or machine failure will happen; when this trouble appears, please fresh the software firstly;

firstly check whether software upgrading is available and then down load software program; after

upgrading software, trouble is removed.

[ Example 10 ] Symptom: cannot charge

Description: charge mode can display but in fact charge function is not available

Analysis and troubleshooting: charge mode and charge can both display but the player cannot be

fully charged; after 3 hours, unplug power adapter and power on, low battery charge displays and then

power off automatically; you may enter charge mode and there is charge indication, which means there

is power input,

BAT and CHG are normal, so we should consider charge control pin, check IMIN current

control end, when current of this pin is very small, charge stops; R11 has false welding; after welding

again, trouble is removed.

- 27 -

3.3.2 Troubleshooting flow chart

1.Troubleshooting process for No screen display is shown in the figure 3.2.2.1:

No screen display

Check

whether D8 anode

12V voltage is

normal

Y

Check

whether 12V

voltage is on display

screen socket

Y

Change

display screen

components and check

whether they are

ok

Y

Display screen has trouble

N

Check DC-DC boosted circuit and surrounding elements

N

Flat cable holder of display screen is false welding

N

Flat cable holder of display screen has trouble

Figure 3.3.2.1 Trouble shooting flow chart for “No screen display”

- 28 -

2.Troubleshooting process for USB not connected is shown in the figure 3.2.2.2:

USB not connected

Whether L5 is normal

Y

Check

whether 3.3V, 1.8V

are normal

Y

Check

whether 12M

crystal oscillator’s

oscillation is

normal

Y

Check

resistance to

ground of D+, D- (red

means grounding,

use diode level to

test )

Y

Change BGA

N

Change L5

Check each DC-DC switch circuit and peripheral elements

Change crystal oscillator or capacitors on two sides

Check T1 or change BGA

Figure 3.3.2.2 Troubleshooting plow chart for “USB not connected”

- 29 -

3.Troubleshooting process for Buttons have no function is shown in the figure 3.2.2.3:

Buttons have no function

Confirm

whether all buttons

have no

function

Y

whether machine

failure

N

Whether

3.3V circuit output is normal

Y

Check R45~R50

N

Change a certain button

Y

N

Change BGA

Figure 3.3.2.3 Troubleshooting flow chart for “Buttons have no function”

- 30 -

4.Troubleshooting process for No tuning function is shown in the figure 3.2.2.4:

No tuning function

Whether

it ca switch to tuning

mode

Y

Whether

it can switch to auto

search

Y

Whether

there is click sound

Y

Check antenna high frequency input loop

N

Check power supply oscillation, data I C circuit

N

Check SCL, SDA signal

N

whether BGA has tuning

Check

signal

BGA has trouble

2

Y

Figure 3.3.2.4 Troubleshooting flow chart for “No tuning function”

- 31 -

5 . Troubleshooting process for “Cannot charge” is shown in the figure 3.2.2.5:

Cannot charge

Connect

Whether

battery is fully

charged

N

with computer

and check whether charge

is available

N

Check set detect circuit

Y

Battery

is fully charged and

protected

Y

Discharge

supply of the player

Change battery

Y

Power

is normal

Y

Whether

BAT voltage has

change

Y

N

Figure 3.2.2.5 Troubleshooting flow chart for “Cannot charge”

Check power supply circuit

Change U1

- 32 -

Section Four Waveform diagram

This section collects signal waveform diagram of audio, video and each unit circuit with the purpose

to help servicing personnel to judge where trouble lies in accurately and quickly to improve servicing

skills. For the difference of oscillograph's type, model and tuner, a certain difference may exist, so the

servicing personnel are expected to pay more attention to check in daily operation.

1. 12M crystal oscillator oscillation waveform diagram

2. L2 boosted energy storage waveform diagram

µÚËÄ½Ú Î¬ÐÞ²ÎÊý

- 33 -

3. Software power supply 3V3 waveform diagram

4. LCD_3V3 waveform diagram

5. LCD_CS waveform diagram

- 34 -

6. LCD_RESET waveform diagram

7. LCD_D/C waveform diagram

8. LCD_WR waveform diagram

- 35 -

9. LCD_RD waveform diagram

10. LCD_DB0 waveform diagram

11. LCD_DB1 waveform diagram

- 36 -

12. LCD_DB2 waveform diagram

13. LCD_DB3 waveform diagram

14. LCD_DB4 waveform diagram

- 37 -

15. LCD_DB5 waveform diagram

16. LCD_DB6 waveform diagram

17. LCD_DB7 waveform diagram

- 38 -

18. IREF waveform diagram

19. VCOMH waveform diagram

20. VOLED waveform diagram

- 39 -

Section Five Function Introduction to IC

3.5.1 Function introduction to PNX0102AET

1. Description

The PNX0102 (ARM-based Solid State Audio IC) is an IC based on an embedded RISC processor. The device is designed for hand-held Solid State Audio applications like portable MP3 players. The high level of integration, low power consumption and high processor performances make the PNX0102 very suitable for portable hand-held devices.

The PNX0102 is based on the powerful ARM7TDMI CPU core, which is a full 32-bit RISC processor with 8 k byte dedicated cache.

2. Features

2.1 General Features

One chip solution for compressed audio players using flash memory◆ Programmable architecture enables flexible support of “up◆ -coming” digital music formats FM Radio inp◆ ut and control support Embedded program flash for easy upgrading and increased program security◆ Support for Philips Life◆ Vibes TM audio enhancement algorithms Small footprint package TBGA180 10 x10mm 0.5pitch◆

2.2 Hardware Features

ARM7TDMI + 8kByte ◆ cache Embedded 64kByte RAM and 32 k◆ Byte ROM Ultra low power Audio DSP for support of Philips Life◆ Vibes TM audio enhancement algorithms Integrated embedded program Flash (8M bit)◆ Maximum 4Mbyte of e xternal static memory◆ External memory support: ◆ Nand Flash/Compact flash/MMC/SMC/SRAM/ROM/SDRAM Integrated MCI interf ace◆ Integrated USB 2.0 HS compliant slave interface (for firmware upgrade, data support from/to PC, ◆

streaming audio)

Intelligent Configuration Power Management◆ Single battery oper◆ ated embedded DC/DC converter Integrated 6800/8080 compatible LCD interface◆

- 40 -

General◆ -Purpose IO pins (nearly all pins can be configured as GPIO pins) Integrated Master/Slave IIC interface◆ Integrated ADC with line input and voice input (with recordin◆ g possibility) Built◆ -in ADC for level measurement & control (5-inputs) Integrated DAC with line output, headphone output w ith short◆ -circuit protection Integrated IIS input and output interface◆ Integrated SPDIF rece iver◆ Integrated UART + IRDA◆ In◆ tegrated Real Time Clock with alarm Boundary scan◆

2.3 Possible software features

MP3 encoding/decoding (*) => Support for MPEG 1 layer 3 and MPEG 2 layer 2.5 and layer 3 audio ◆

decoding (MP3)

WMA decoding (*)◆ AAC decoding (*)◆ Ogg Vorbis decoding (◆ *) Voice recording using ADPCM◆ Intelligent power management software◆ USB Mass Storage Class◆ USB Device Firmware Upgrade◆ Philips Life◆ Vibes TM sound enhancement software including bass/treble/volume control. (*) Audio decoders/encoders do need appropriate licenses.

3. PIN Description

SYMBOL

BGA

BALL

XTALH_IN T10 A input apio (ZI)

XTALH_OUT V9 A output apio (IO)

XTALH_VDDA18 U9 vddco Analog supply Oscillator

XTALH_VSSA T9 vssco Analog ground Oscillators

DIGITAL

I/O LEVEL

APPL. FUNC

12 MHz oscillator (fixed: 4 pins)

PIN STATE

AFTER RESET

CELL

DESCRIPTION

TYPE

12 MHz clock input

12 MHz clock output

32.768 kHz oscillator (fixed: 4 pins)

XTALL_IN V7 A input apio (ZI)

XTALL_OUT T8 A output apio (ZI)

XTALL_VDDA18 U8 vddco Analog supply Oscillators/PLL’s

- 41 -

32.768 kHz clock input

32.768 kHz clock output

XTALL_GNDA V8 vssco Analog ground Oscillators/PLL’s

bitslicer/SPDIF (fixed: 3pins)

SPDIF_IN T12 A input apio (IO)

SPDIF_VDDA33 U11 vddco Analog supply SPDIF input

SPDIF_GNDA T11 vssco Analog ground SPDIF input

10-bit ADC (fixed: 7 pins)

ADC10B_GPA4 U5 A input apio (ZI)

ADC10B_GPA3 T6 A input apio (ZI)

ADC10B_GPA2 U6 A input apio (ZI)

ADC10B_GPA1 T7 A input apio (ZI)

ADC10B_GPA0 U7 A input apio (ZI)

ADC10B_VDDA33

ADC10B_GNDA U10 vssco Analog ground 10-bit ADC

DAC_VOUTR M3 A output apio (IO)

DAC_VOUTL M2 A output apio (IO)

V10 vddco Analog supply 10-bit ADC

DAC (fixed: 13 pins)

Analog General Purpose pins

SPDIF input

SDAC Right Analog Output

SDAC Left Analog Output

DAC_VDDA33 L1 vddco SDAC Positive Voltage

DAC_VREFP L2 A input apio (IO)

DAC_VREFN M1 A input apio (IO) SDAC Negative Reference Voltage

HP_OUTR P3 A output apio (IO)

HP_OUTL N3 A output apio (IO)

HP_OUTCA N2 A output apio (IO) Headphone common output reference

HP_OUTCB N1 A output apio (IO) Headphone common output reference

HP_VDDA33A R1 vddco Headphone analog supply

HP_VDDA33B R2 vddco Headphone analog supply

HP_GNDAA P2 vssco Headphone analog ground

HP_GNDAB P1 vssco Headphone analog ground

ADC (fixed: 11 pins)

ADC_VCOM T3 A input apio (IO)

ADC_VREFP U2 A input apio (IO)

SDAC Positive Reference Voltage

SDAC Right Headphone Output

SDAC Left Headphone Output

ADC Common Reference Voltage

ADC Positive Reference Voltage

ADC_VREFN V1 A input apio (IO)

ADC_VDDA18 V3 vddco Analog supply ADC

ADC_VDDA33 U3 vddco Analog supply ADC

ADC Negative Reference Voltage

- 42 -

ADC_GNDA V2 vssco Analog ground ADC

ADC_VREF U1 A input apio (IO)

ADC_VINR T1 A input apio (IO)

ADC_VINL T4 A input apio (IO)

ADC_MIC R3 A input apio (IO)

ADC_MIC_LNA output Output of LNA of Microphone input

HP_VCOM

LCD_RW_WR

GPIO_LCD_11

LCD_E_RD

GPIO_LCD_10

LCD_DB_7

GPIO_LCD_9

T2 A

LCD Interface (fixed: 12 pins)

G2

F2

E3

0-5 VDC

I/O output

tolerant

0-5 VDC

I/O output

tolerant

0-5 VDC

I/O output

tolerant

input

apio (IO)

bpts10tht

5v

bpts10tht

5v

bpts10tht

5v

ADC Reference Voltage

SADC Right Analog Input

SADC Left Analog Input

Microphone input

HP Common Reference Voltage

6800 read/write select 8080 active

‘high’ write enable

General Purpose IO pin

6800 enable 8080 active ‘high’ read

enable

General Purpose IO pin

Data input 7/Data output 7/Serial data

output/4-bit data 3

General Purpos IO pin

LCD_DB_6

E2

GPIO_LCD_8

LCD_DB_5

D3

GPIO_LCD_7

LCD_DB_4 Data input 4/Data output 4/4-bit data 0

D1

GPIO_LCD_6

LCD_DB_3 Data input 3/Data output 3

D2

GPIO_LCD_5

LCD_DB_2 Data input 2/Data output 2

C3

GPIO_LCD_4

LCD_DB_1 Data input 1/Data output 1

C1

GPIO_LCD_3

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

I/O output

bpts10tht

5v

bpts10tht

I/O output

5v

bpts10tht

I/O output

5v

bpts10tht

I/O output

5v

bpts10tht

I/O output

5v

bpts10tht

I/O output

5v

Data input 6/Data output 6/Serial data

input/4-bit data 2

General Purpose IO pin

Data input 5/Data output 5/Serial clock

output/4-bit data 1

General Purpos IO pin

General Purpose IO pin

LCD_DB_0

C2 0-5 VDC I/O output bpts10tht

Data input 0/Data output 0

- 43 -

GPIO_LCD_2

tolerant 5v

General Purpose IO pin

LCD_CSB Chip Select

B3

GPIO_LCD_1

LCD_RS

F3

GPIO_LCD_0

MCI_DAT_3 Data input/Data output

J3

GPIO_MCI_5

MCI_DAT_2 Data input/Data output

J1

GPIO_MCI_4

MCI_DAT_1 Data input/Data output

J2

GPIO_MCI_3

MCI_DAT_0 Data input/Data output

H3

GPIO_MCI_2

MCI_CLK MCI clock output

G3

GPIO_MCI_1

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

I/O output

bpts10tht

I/O output

Memory Card Interface (fixed: 6 pins)

bpts10tht

I/O input

bpts10tht

I/O input

bpts10tht

I/O input

bpts10tht

I/O input

bpts10tht

I/O output

5v

General Purpose IO pin

‘high’ Data register select ‘low’

instruction register select

General Purpose IO pin

MCI_CMD Command input/Command output

H2

GPIO_MCI_0

USB_CONNECT_

N

T15

GPIO_USB_1

USB_RPU

USB_DP usb11 Positive USB data line USB 2.0 FS

U17 A input

USB_DP

USB_DM usb11 Negative USB data line USB 2.0 FS

T17 A input

USB_DM

USB_VBUS

U14

GPIO_USB_0

USB_RREF P16 I/O

0-5 VDC

I/O input

tolerant

USB Interface (fixed: 4 pins + (8 pins reserved for future use))

0-5 VDC

I/O output

tolerant

A apio (IO)

0-5 VDC

I/O input

tolerant

bpts10tht

5v

bpts10tht

5v

apio Positive USB data line USB 2.0 HS

apio Negative USB data line USB 2.0 HS

bpts10tht

5v

bpts10tht

5v

Soft connect output USB 2.0 FS

USB Supply detection line USB 2.0 FS

General Purpose IO pin

Reserved for USB 2.0 HS

& USB 2.0 HS

General Purpose IO pin

USB_GNDA R17 vssco Reserved for USB 2.0 HS

- 44 -

USB_VSSA_REF

R16 vccso Reserved for USB 2.0 HS

USB_VSSA_TERM

USB_VDDA18_PL

L

USB_VDDA18_BG

USB_VDDA33 U18 vddco Reserved for USB 2.0 HS

USB_VDDA33_DR

V

DAI_BCK DAI Bitclock

GPIO_DAI_2

DAI_WS DAI Wordselect

GPIO_DAI_1

DAI_DATA DAI Serial data input

GPIO_DAI_0

T16 vssco Reserved for USB 2.0 HS

U15 vddco Reserved for USB 2.0 HS

U16 vddco Reserved for USB 2.0 HS

V18 vddco Reserved for USB 2.0 HS

DAI Interface (fixed: 3 pins)

H17

G17

G16

0-5 VDC

I/O input

tolerant

0-5 VDC

I/O input

tolerant

0-5 VDC

I/O input

tolerant

DAO Interface (fixed: 4 pins)

bpts10tht

5v

bpts10tht

5v

bpts10tht

5v

General Purpose IO pin

DAO_CLK F16

DAO_BCK DAO Bitclock

G18

GPIO_DAO_2

DAO_WS F18

DAO_DATA DAO Serial data output

F17

GPIO_DAO_0

JTAG_TRST_N T13

JTAG_TCK V4

JTAG_TMS U12

0-5 VDC

I/O output

tolerant

0-5 VDC

I/O output

tolerant

0-5 VDC

I/O output

tolerant

0-5 VDC

I/O output

tolerant

JTAG (fixed: 6 pins)

0-5 VDC

I input ipthdt5v JTAG Reset Input (pull-down)

tolerant

0-5 VDC

I input ipthut5v JTAG Clock Input (pull-up)

tolerant

0-5 VDC

I input ipthut5v

tolerant

bpts10tht

5v

bpts10tht

5v

bpts10tht

5v

bpts10tht

5v

256 fs clock output

General Purpose IO pin

DAO Wordselect

General Purpose IO pin

JTAG Mode Select Input (external

pull-up)

JTAG_TDI T5

JTAG_TDO U13 0-5 VDC I/O output bpts10tht JTAG Data output

0-5 VDC

I input ipthut5v JTAG Data Input (pull-up)

tolerant

- 45 -

tolerant 5v

JTAG_SEL_ARM U4

IIC_SCL H16

IIC_SDA J17

MPMC_D_15 MPMC data input/output 15

B8 I/O input bpts10th

GPIO_MPMC_50

MPMC_D_14 MPMC data input/output 14

C8 I/O input bpts10th

GPIO_MPMC_49

MPMC_D_13 MPMC data input/output 13

B7 I/O input bpts10th

GPIO_MPMC_48

MPMC_D_12 MPMC data input/output 12

C7 I/O input bpts10th

GPIO_MPMC_47

0-5 VDC

I input ipthdt5v JTAG selection (pull-down)

tolerant

IIC master/slave Interface (fixed: 2 pins)

0-5 VDC

I/O input iic400kt5v

tolerant

0-5 VDC

I/O input iic400kt5v

tolerant

MPMC (fixed: 52 pins)

Serial clock IIC Slave

Serial data IIC Slave

General Purpose IO pin

MPMC_D_11 MPMC data input/output 11

B6 I/O input bpts10th

GPIO_MPMC_46

MPMC_D_10 MPMC data input/output 10

C6 I/O input bpts10th

GPIO_MPMC_45

MPMC_D_9 MPMC data input/output 9

C5 I/O input bpts10th

GPIO_MPMC_44

MPMC_D_8 MPMC data input/output 8

C4 I/O input bpts10th

GPIO_MPMC_43

MPMC_D_7 MPMC data input/output 7

B5 I/O input bpts10th

GPIO_MPMC_42

MPMC_D_6 MPMC data input/output 6

A5 I/O input bpts10th

GPIO_MPMC_41

MPMC_D_5 MPMC data input/output 5

B4 I/O input bpts10th

GPIO_MPMC_40

General Purpose IO pin

MPMC_D_4 MPMC data input/output 4

A4 I/O input bpts10th

GPIO_MPMC_39

General Purpose IO pin

- 46 -

MPMC_D_3 MPMC data input/output 3

A3 I/O input bpts10th

GPIO_MPMC_38

MPMC_D_2 MPMC data input/output 2

B2 I/O input bpts10th

GPIO_MPMC_37

MPMC_D_1 MPMC data input/output 1

A2 I/O input bpts10th

GPIO_MPMC_36

MPMC_D_0 MPMC data input/output 0

A1 I/O input bpts10th

GPIO_MPMC_35

MPMC_A_20 MPMC address 20

C13 I/O output bpts10th

GPIO_MPMC_34

MPMC_A_19 MPMC address 19

B13 I/O output bpts10th

GPIO_MPMC_33

MPMC_A_18 MPMC address 18

A13 I/O output bpts10th

GPIO_MPMC_32

General Purpose IO pin

MPMC_A_17 MPMC address 17

C14 I/O output bpts10th

GPIO_MPMC_31

MPMC_A_16 MPMC address 16

B14 I/O output bpts10th

GPIO_MPMC_30

MPMC_A_15 MPMC address 15

A14 I/O output bpts10th

GPIO_MPMC_29

MPMC_A_14 MPMC address 14

C15 I/O output bpts10th

GPIO_MPMC_28

MPMC_A_13 MPMC address 13

B15 I/O output bpts10th

GPIO_MPMC_27

MPMC_A_12 MPMC address 12

C16 I/O output bpts10th

GPIO_MPMC_26

MPMC_A_11 MPMC address 11

B16 I/O output bpts10th

GPIO_MPMC_25

General Purpose IO pin

MPMC_A_10 MPMC address 10

C17 I/O output bpts10th

GPIO_MPMC_24

MPMC_A_9 MPMC address 9

B17 I/O output bpts10th

GPIO_MPMC_23

MPMC_A_8

C18 I/O output bpts10th

General Purpose IO pin

MPMC address 8

- 47 -

GPIO_MPMC_22

MPMC_A_7 MPMC address 7

GPIO_MPMC_21

MPMC_A_6 MPMC address 6

GPIO_MPMC_20

MPMC_A_5 MPMC address 5

GPIO_MPMC_19

MPMC_A_4 MPMC address 4

GPIO_MPMC_18

MPMC_A_3 MPMC address 3

GPIO_MPMC_17

MPMC_A_2 MPMC address 2

GPIO_MPMC_16

MPMC_A_1 MPMC address 1

GPIO_MPMC_15

B18 I/O output bpts10th

A18 I/O output bpts10th

D18 I/O output bpts10th

D17 I/O output bpts10th

D16 I/O output bpts10th

E18 I/O output bpts10th

E17 I/O output bpts10th

General Purpose IO pin

MPMC_A_0 MPMC address 0

E16 I/O output bpts10th

GPIO_MPMC_14

MPMC_NSTCS_2

B11 I/O output bpts10th

GPIO_MPMC_13

MPMC_NSTCS_1

A8 I/O output bpts10th

GPIO_MPMC_12

MPMC_NSTCS_0

C9 I/O output bpts10th

GPIO_MPMC_11

MPMC_NDYCS SDRAM chip select. Active LOW.

B9 I/O output bpts10th

GPIO_MPMC_10

MPMC_CLKOUT A10 O output bpt4mt

General Purpose IO pin

Static memory chip select 2. Default

active LOW (reprogrammable).

General Purpose IO pin

Static memory chip select 1. Default

active LOW (reprogrammable).

General Purpose IO pin

Static memory chip select 0. Default

active LOW (reprogrammable).

General Purpose IO pin

Memory clock output. Connect to the

clock input of SDRAM and SyncFlash

devices.

MPMC_CKE SDRAM clock enable. Active HIGH.

B10 I/O output bpts10th

GPIO_MPMC_9

MPMC_NWE

C11 I/O output bpts10th

General Purpose IO pin

Write enable for SDRAM. Active LOW.

- 48 -

GPIO_MPMC_8

General Purpose IO pin

MPMC_NRAS

GPIO_MPMC_7

MPMC_NCAS

GPIO_MPMC_6

MPMC_DQM_1

GPIO_MPMC_5

MPMC_DQM_0

A9 I/O output bpts10th

C10 I/O output bpts10th

A11 I/O output bpts10th

C12 I/O output bpts10th

Row address strobe for SDRAM and

SyncFlash devices. Active LOW.

General Purpose IO pin

Column address strobe for SDRAM

and SyncFlash devices. Active LOW.

General Purpose IO pin

Data mask output to SDRAM. Active

HIGH. The signal MPMCDQMOUT[1]

mask byte [15:8] on the data bus.

Used for SDRAM devices.

General Purpose IO pin

Data mask output to SDRAM. Active

HIGH. The signal MPMCDQMOUT[0]

mask byte [7:0] on the data bus. Used

for SDRAM devices.

GPIO_MPMC_4

MPMC_NOE

GPIO_MPMC_3

MPMC_BLOUT1

GPIO_MPMC_2

MPMC_BLOUT0

GPIO_MPMC_1

MPMC_RPOUT

General Purpose IO pin

Output enable for static memories.

Active LOW. Used for static memory

A17 I/O output bpts10th

devices.

General Purpose IO pin

The signal nMPMCBLSOUT[1] selects

byte lane [15:8] on the data bus. Used

B12 I/O output bpts10th

for static memory devices.

General Purpose IO pin

The signal nMPMCBLSOUT[0] selects

byte lane [7:0] on the data bus. Used

A12 I/O output bpts10th

for static memory devices.

General Purpose IO pin

Reset power down to SyncFlash

memory. Active LOW. Used for static

B1 I/O output bpts10th

memory devices.

GPIO_MPMC_0

UART_TXD

UART (fixed: 4 pins)

L3 0-5 VDC I/O output bpts10tht

General Purpose IO pin

Serial output

- 49 -

GPIO_UART_3

tolerant 5v

General Purpose IO pin

UART_RXD Serial input

K3

GPIO_UART_2

UART_NCTS Clear to send (active low)

K2

GPIO_UART_1

UART_NRTS Ready to send

K1

GPIO_UART_0

GPIO_3 J16

GPIO_2 K18

GPIO_1 K17

GPIO_0 K16

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

0-5 VDC

tolerant

I/O input

I/O output

Mode selection pins (fixed: 2 pins)

I/O input

GPIO (fixed: 2 pins)

input output

I/O

(Test Mode))

I/O input

bpts10tht

bpts10thd

bpts10tht

5v

t5v

5v

General Purpose IO pin

Start up mode pin 2 (pull down)

General Purpose IO pin

Start up mode pin 1 (pull down)

General Purpose IO pin

General Purpose IO pin Toggled (Test

Mode)

General Purpose IO pin (stop)

Reset input pin (fixed: 1 pin)

RSTIN_N T14

FLASH_VDD_HV

VDDI1 H1 vddco Core supply (Mem)

VDDI2 V11 vddco Core supply (Core)

VDDI3 V16 vddi Core supply (Flash)

VSSI1 G1 vssco Core ground (Mem)

VSSI2 V12 vssco Core ground (Core)

VSSI3 V17 vssis Core ground (Flash)

VDDE1 E1 vdde3v3

VDDE2 V5 vdde3v3

V15 vddco

0-5 VDC

I input ipthut5v System Reset input (active low)

tolerant

Flash pins (fixed: 1 pins)

Digital supplies (fixed: 6 pins)

Peripheral supplies (fixed: 12 pins)

Peripherel (I/O) supply (3.3V)

Peripheral (I/O) supply (3.3V)

VDDE3 V14 vdde3v3

VDDE4 J18 vdde3v3

Peripheral (I/O) supply (3.3V)

- 50 -

VSSE1 F1 vsse3v3

Peripheral (I/O) ground

VSSE2 V6 vsse3v3

VSSE3 V13 vsse3v3

VSSE4 H18 vsse3v3

VDDE5 A16 vdde3v3

VDDE6 A7 vdde3v3

VSSE5 A15 vsse3v3

VSSE6 A6 vsse3v3

DC/DC pins (fixed: 13 pins)

DCDC_PLAY L17 A apio Play button input

DCDC_STOP L18 A apio Stop signal input

DCDC_LX2 N17 A apio DC/DC connection to external coil 2

DCDC_LX1 P17 A apio DC/DC connection to external coil 1

DCDC_VUSB T18 A apio USB supply voltage

Peripheral (I/O) ground

MPMC Peripheral (I/O) supply (1.8V ..

3.3V)

MPMC Peripheral (I/O) supply (1.8V ..

3.3V)

MPMC Peripheral (I/O) ground

DCDC_VBAT M17 vddco Battery supply voltage

DCDC_VOUT33A

DCDC_VOUT33B

DCDC_VOUT18 N18 vddco DC/DC 1.8V output voltage

DCDC_VSS1 P18 vssco DC/DC ground to N-switch 1

DCDC_VSS2 N16 vssco DC/DC ground to N-switch 2

DCDC_GND L16 vssco Core ground and substrate

DCDC_CLEAN M18 vssco

R18 vddco DC/DC 3.3V output voltage

M16 vddco DC/DC 3.3V input voltage

Reference circuit ground, not

connected to substrate

3.5.2 Function introduction to HY27UG088G5M

1. Description

Offered in 512Mx8bit, the HY27UG088G5M is 4G bit with spare 128M bit capacity. Its NAND cell provides the most cost-effective solution for the solid state mass storage market. A program operation can be performed in typical 200μs on the 2112-byte page and an erase operation can be performed in typical 2ms on a 128K-byte block. Data in the data page can be read out at 30ns cycle time per byte. The I/O pins serve as the ports for address and data input/output as well as command input. The on-chip write controller automates all program and erase functions including pulse repetition, where required, and internal verification and margining of data.

- 51 -

Even the write-intensive systems can take advantage of the HY27UG088G5M′s extended reliability of 100K program/erase cycles by providing ECC(Error Correcting Code) with real time mapping-out algorithm. The K9K4G08U0M is an optimum solution for large nonvolatile storage applications such as solid state file storage and other portable applications requiring non-volatility. An ultra high density solution having two 4Gb stacked with two chip selects is also available in standard TSOPI package.

2. Features

◆ Voltage Supply – 2.7 V ~3.6 V

◆ Organization – Memory Cell Array – (512M + 16,384K)bit x 8bit – Data Register – (2K + 64)bit x8bit – Cache Register – (2K + 64)bit x8bit

◆ Automatic Program and Erase – Page Program – (2K + 64)Byte – Block Erase – (128K + 4K)Byte

◆ Page Read Operation – Page Size – 2K-Byte – Random Read : 25μs(Max.) – Serial Access : 30ns(Min.)

◆ Fast Write Cycle Time – Program time : 200μs(Typ.) – Block Erase Time : 2ms(Typ.)

◆ Command/Address/Data Multiplexed I/O Port

◆ Hardware Data Protection

– Program/Erase Lockout During Power Transitions

◆ Reliable CMOS Floating-Gate Technology – Endurance : 100K Program/Erase Cycles – Data Retention : 10 Years

◆ Command Register Operation

◆ Cache Program Operation for High Performance Program

- 52 -

◆ Power-On Auto-Read Operation

◆ Intelligent Copy-Back Operation

◆ Unique ID for Copyright Protection

◆ Package :

– K9K4G08U0M-YCB0/YIB0

48-Pin TSOP I (12 x 20 / 0.5 mm pitch)

– K9W8G08U1M-YCB0/YIB0 : Two K9K4G08U0M stacked.

48-Pin TSOP I (12 x 20 / 0.5 mm pitch)

– K9K4G08U0M-PCB0/PIB0 : Pb-FREE PACKAGE

48-Pin TSOP I (12 x 20 / 0.5 mm pitch)

– K9W8G08U1M-PCB0/PIB0 : Two K9K4G08U0M stacked.

48-Pin TSOP I (12 x 20 / 0.5 mm pitch)

3. PIN Description

PIN No. Symbol I/O Description

29~32, 41~44 I/O0 ~ I/O7 I/O DATA INPUTS/OUTPUTS

16 CLE I COMMAND LATCH ENABLE

17 ALE I ADDRESS LATCH ENABLE

9, 10 /CE1, /CE2 I CHIP ENABLE

8 /RE I READ ENABLE

18 /WE I WRITE ENABLE

19 /WP I WRITE PROTECT

6, 7 R/B1, R/B2 I READY/BUSY OUTPUT

38 PRE I POWER-ON READ ENABLE

37 Vcc P POWER

36 Vss P GROUND

1~5, 14, 15, 20~24, 25~28, 33~35, 39,

40, 45~48

N.C N NO CONNECTION

3.5.3 Function introduction to TPS79301

1. Description

The TPS793xx family of low-dropout (LDO) low-power linear voltage regulators features high power supply rejection ratio (PSRR), ultralow noise, fast start-up, and excellent line and load transient responses in NanoStar wafer chip scale and SOT23 packages. NanoStar packaging gives an ultrasmall footprint as well as an ultralow profile and package weight, making it ideal for portable applications such as handsets and PDAs.

- 53 -

Each device in the family is stable, with a 2.2-µF ceramic capacitor on the output. The TPS793xx family uses an advanced, proprietary BiCMOS fabrication process to yield extremely low dropout voltages (e.g., 112 mV at 200mA, TPS79330). Each device achieves fast star-up times (approximately 50µs with a 0.001-µF capacitor) while consuming very low quiescent current (170 µA typical). Moreover, when the device is placed in standby mode, the supply current is reduced to less than 1 µA. The TPS79328 exhibits approximately 32 µVRMS of output voltage noise with a 0.1-µF bypass capacitor. Applications with analog components that are noise sensitive, such as portable RF electronics, benefit from the high PSRR and low-noise features as well as the fast response time.

2. Features

◆ 200-mA RF Low-Dropout Regulator With Enable

◆ Available in 1.8-V, 2.5-V, 2.8-V, 2.85-V, 3-V, 3.3-V, 4.75-V, and Adj (1.22 V to 5.5 V)

◆ High PSRR (70 dB at 10 kHz)

◆ Ultralow Noise (32 µV)

◆ Fast Start-Up Time (50 µs)

◆ Stable With a 2.2-µF Ceramic Capacitor

◆ Excellent Load/Line Transient Response

◆ Very Low Dropout Voltage (112 mV at Full exLoad, TPS79330)

◆　 5-Pin SOT23 (DBV) and NanoStar Wafer Chip Scale (YEQ) Packages

3. PIN Description

PIN No. Symbol I/O Description

1

2

3

4

5

6

IN

GND

EN

BYPASS

FB

OUT

I Unregulated input to the device

I Regulator ground

I Enables or shuts down the device

O further reduce regulator noise

O feedback input voltage for the adjustable device

O Output of the regulator

3.5.4 Function introduction to G690L263T71

1. Description

The G690/G691 are microprocessor (µP) supervisory circuits used to monitor the power supplies in µP and digital systems. They provide excellent circuit reliability and low cost by eliminating external components and adjustments when used with +5V, +3.3V, +3.0V- powered circuits.

These circuits perform a single function: they assert a reset signal whenever the VCC supply voltage

- 54 -

declines below a preset threshold, keeping it asserted for at least 140ms after VCC has risen above the reset threshold. Reset thresholds suitable for operation with a variety of supply voltages are available.

The G691L has an open-drain output stage, while the G690 have push-pull outputs. The G691L’s open-drain RESET output requires a pull-up resistor that can be connected to a volta ge higher than VCC. The G690L have an active-low RESET output, while the G690H has an active-high RESET output. The reset comparator is designed to ignore fast transients on VCC, and the outputs are guaranteed to be in the correct logic state for VCC down to 1V.

Low supply current makes the G690/G691 ideal for use in portable equipment. The G690/G691 are available in 3-pin SOT-23 packages.

2. Features

◆ Precision Monitoring of +3V, +3.3V, and +5V Power-Supply Voltages

◆ Fully Specified Over Temperature

◆ Available in Three Output Configurations

Push-Pull RESET Output (G690L)

◆ 140ms min Power-On Reset Pulse Width

◆ 10µA Supply Current

◆ Guaranteed Reset Valid to VCC = +1V

◆ Power Supply Transient Immunity

◆ No External Components

◆　 3-Pin SOT-23 Packages

3. PIN Description

PIN No. Symbol I/O Description

1

2

3

/RESET

GND

VCC

O

I

P

RESET Signal Output

Ground

Power

3.5.5 Function introduction to TPS62200

1. Description

The TPS6220x devices are a family of high-efficiency synchronous step-down converters ideally suited for portable systems powered by 1-cell Li-Ion or 3-cell NiMH/NiCd batteries. The devices are also suitable to operate from a standard 3.3-V or 5-V voltage rail.

With an output voltage range of 6.0 V down to 0.7 V and up to 300 mA output current, the devices are

- 55 -

ideal to power low voltage DSPs and processors used in PDAs, pocket PCs, and smart phones. Under nominal load current, the devices operate with a fixed switching frequency of typically 1 MHz. At light load currents, the part enters the power save mode operation; the switching frequency is reduced and the quiescent current is typically only 15 µA; therefore it achieves the highest efficiency over the entire load current range. The TPS6220x needs only three small external components. Together with the tiny SOT23 package, a minimum system solution size can be achieved. An advanced fast response voltage mode control scheme achieves superior line and load regulation with small ceramic input and output capacitors.

2. Features

◆ High Efficiency Synchronous Step-Down Converter With up to 95% Efficiency

◆ 2.5 V to 6.0 V Input Voltage Range

◆ Adjustable Output Voltage Range From 0.7 V to VI

◆ Fixed Output Voltage Options Available

◆ Up to 300 mA Output Current

◆ 1 MHz Fixed Frequency PWM Operation

◆ Highest Efficiency Over Wide Load Current Range Due to Power Save Mode

◆ 15-µA Typical Quiescent Current

◆ Soft Start

◆ 100% Duty Cycle Low-Dropout Operation

◆ Dynamic Output-Voltage Positioning

◆　 Available in a Tiny 5-Pin SOT23 Package

3. PIN Description

PIN No. Symbol I/O Description

1

2

3

4

5

VI

GND

EN

FB

SW

I

I/O

Supply voltage pin

Ground

The enable pin of the device

The feedback pin of the device

The switch pin

3.5.6 Function introduction to LM2703

1. Description

The LM2703 is a micropower step-up DC/DC in a small 5-lead SOT-23 package. A current limited, fixed off-time control scheme conserves operating current resulting in high efficiency over a wide range of load conditions. The 21V switch allows for output voltages as high as 20V. The low 400ns off-time permits the use

- 56 -

of tiny, low profile inductors and capacitors to minimize footprint and cost in space-conscious portable applications. The LM2703 is ideal for LCD panels requiring low current and high efficiency as well as white LED applications for cellular phone back-lighting. The LM2703 can drive up to 4 white LEDs from a single Li-Ion battery.

2. Features

◆ 350mA, 0.7W, internal switch

◆ Uses small surface mount components

◆ Adjustable output voltage up to 20V

◆ 2.2V to 7V input range

◆ Input undervoltage lockout

◆ 0.01µA shutdown current

◆　 Small 5-Lead SOT-23 package

3. PIN Description

PIN No. Symbol I/O Description

1 SW P Power Switch input.

2 GND Ground.

3 FB O Output voltage feedback input.

4

5

SHDN I Shutdown control input, active low.

VIN

I Analog and Power input.

3.5.7 Function introduction to TEA5767HN

1. Description

The TEA5767HN is a single-chip electronically tuned FM stereo radio for low-voltage application with fully integrated IF selectivity and demodulation. The radio is completely adjustment-free and only requires a minimum of small and low cost external components. The radio can be tuned to the European, US and Japanese FM bands.

2. Features

◆ High sensitivity due to integrated low-noise RF input amplifier

◆ FM mixer for conversion to IF of the US/Europe (87.5 to 108 MHz) and Japanese (76 to 91MHz) FM

band

◆ Preset tuning to receive Japanese TV audio up to 108 MHz

◆ RF Automatic Gain Control (AGC) circuit

- 57 -

◆ LC tuner oscillator operating with low cost fixed chip inductors

◆ FM IF selectivity performed internally

◆ No external discriminator needed due to fully integrated FM demodulator

◆ Crystal reference frequency oscillator; the oscillator operates with a 32.768 kHz clock crystal or with a

13 MHz crystal and with an externally applied 6.5 MHz reference frequency

◆ PLL synthesizer tuning system

◆ I2C-bus and 3-wire bus, selectable via pin BUSMODE

◆ 7-bit IF counter output via the bus

◆ 4-bit level information output via the bus

◆ Soft mute

◆ Signal dependent mono to stereo blend [Stereo Noise Cancelling (SNC)]

◆ Signal dependent High Cut Control (HCC)

◆ Soft mute, SNC and HCC can be switched off via the bus

◆ Adjustment-free stereo decoder

◆ Autonomous search tuning function

◆ Standby mode

◆ Two software programmable ports

◆ Bus enable line to switch the bus input and output lines into 3-state mode

◆　 Automotive temperature range (at VCCA, VCC(VCO) and VCCD = 5 V).

3. PIN Description

PIN No. Symbol I/O Description

1 n.c. not connected

2 CPOUT O charge pump output of synthesizer PLL

3 VCOTANK1 O voltage controlled oscillator tuned circuit output 1

4 VCOTANK2 O voltage controlled oscillator tuned circuit output 2

5 VCC(VCO) P voltage controlled oscillator supply voltage

6 DGND digital ground

7 VCCD P digital supply voltage

8 DATA I/O bus data line input/output

9 CLOCK I bus clock line input

10 n.c. not connected

11 WRITE/READ I write/read control input for the 3-wire bus

12 BUSMODE I bus mode select input

13 BUSENABLE I bus enable input

- 58 -

14 SWPORT1 software programmable port 1

15 SWPORT2 software programmable port 2

16 XTAL1 I crystal oscillator input 1

17 XTAL2 I crystal oscillator input 2

18 PHASEFIL phase detector loop filter

19 PILFIL pilot detector low-pass filter

20 n.c. not connected

21 n.c. not connected

22 VAFL O left audio frequency output voltage

23 VAFR O right audio frequency output voltage

24 TMUTE I time constant for soft mute

25 MPXO O FM demodulator MPX signal output

26 Vref P reference voltage

27 TIFC I time constant for IF centre adjust

28 LIMDEC1 I decoupling IF limiter 1

29 LIMDEC2 I decoupling IF limiter 2

30 n.c. not connected

31 n.c. not connected

32 Igain I gain control current for IF filter

33 AGND analog ground

34 VCCA P analog supply voltage

35 RFI1 I RF input 1

36 RFGND RF ground

37 RFI2 I RF input 2

38 TAGC time constant RF AGC

39 LOOPSW switch output of synthesizer PLL loop filter

40 n.c.

not connected

3.5.8 Function introduction to ISL6294IRZ

1. Description

The ISL6294 is a cost-effective, fully integrated high input voltage single-cell Li-ion battery charger. The charger uses a CC/CV charge profile required by Li-ion batteries. The charger accepts an input voltage up to 28V but is disabled when the input voltage exceeds the OVP threshold, typically 6.8V, to prevent excessive

- 59 -

power dissipation. The 28V rating eliminates the overvoltage protection circuit required in a low input voltage charger.

The charge current and the end-of-charge (EOC) current are programmable with external resistors. When the battery voltage is lower than typically 2.55V, the charger preconditions the battery with typically 20% of the programmed charge current. When the charge current reduces to the programmable EOC current level during the CV charge phase, an EOC indication is provided by the CHG pin, which is an open-drain output. An internal thermal foldback function protects the charger from any thermal failure.

Two indication pins (PPR and CHG) allow simple interface to a microprocessor or LEDs. When no adapter is attached or when disabled, the charger draws less than 1µA leakage current from the battery.

2. Features

◆ Complete Charger for Single-Cell Li-ion/Polymer Batteries

◆ Integrated Pass Element and Current Sensor

◆ No External Blocking Diode Required

◆ Low Component Count and Cost

◆ 1% Voltage Accuracy

◆ Programmable Charge Current

◆ Programmable End-of-Charge Current

◆ Charge Current Thermal Foldback for Thermal Protection

◆ Trickle Charge for Fully Discharged Batteries

◆ 28V Maximum Voltage for the Power Input

◆ Power Presence and Charge Indications

◆ Less Than 1µA Leakage Current off the Battery When No Input Power Attached or Charger Disabled

◆　 Ambient Temperature Range: -40°C to 85°C

3. PIN Description

PIN No. Symbol I/O Description

1

2

3

4

VIN

PPR

CHG

EN

P

I

Open-drain power presence indication

Open-drain charge indication pin

Power input

Enable input

5

6

7

8

BAT

IREF

IMIN

GND

O

I

Charge-current program and monitoring pin

End-of-charge (EOC) current program pin

Charger output pin

System ground

- 60 -

3.5.9 Function introduction to PIC10F200T

1. Description

The PIC10F200/202/204/206 devices from Microchip Technology are low-cost, high-performance, 8-bit, fullystatic, Flash-based CMOS microcontrollers. They employ a RISC architecture with only 33 single-word/ single-cycle instructions. All instructions are single cycle (1 µs) except for program branches, which take two cycles. The PIC10F200/202/204/206 devices deliver performance in an order of magnitude higher than their competitors in the same price category. The 12-bit wide instructions are highly symmetrical, resulting in a typical 2:1 code compression over other 8-bit microcontrollers in its class. The easy to use and easy to remember instruction set reduces development time significantly.

2. Features

◆ Only 33 single-word instructions to learn

◆ All single-cycle instructions except for program branches, which are two-cycle

◆ 12-bit wide instructions

◆ 2-level deep hardware stack

◆ Direct, Indirect and Relative Addressing modes for data and instructions

◆ 8-bit wide data path

◆ 8 Special Function Hardware registers

◆ Operating speed:

- 4 MHz internal clock

- 1 s instruction cycle？

◆ Operating Current:

- < 350 A @ 2V, 4 MHz？

◆ Standby Current:

- 100 nA @ 2V, typical

◆ Low-power, high-speed Flash technology:

- 100,000 Flash endurance

- > 40 year retention

◆ Fully static design

◆ Wide operating voltage range: 2.0V to 5.5V

◆ Wide temperature range:

- Industrial: -40 C to +85 C？？

- Extended: -40 C to +125 C？？

◆ 4 I/O pins:

- 3 I/O pins with individual direction control

- 1 input only pin

- High current sink/source for direct LED drive

- 61 -

- Wake-on-change

- Weak pull-ups

◆　 8-bit real-time clock/counter (TMR0) with 8-bit programmable prescaler

3. PIN Description

3.5.10 Function introduction to PQ1X281M2ZP

1. Description

The PQ1Xxx1M2ZP Series are Low Output Current, Compact Surface Mount Type Low Power-Loss Voltage Regulators.

2. Features

◆ Compact surface mount package (2.9×1.6×1.1mm)

◆ Low power-loss (Dropout voltage: TYP. 0.11 V/MAX. 0.26V at IO=60mA)

◆ Also compatible ceramic capacitors because of suppressing oscillation level

◆ High ripple rejection (TYP. 70dB)

◆ Low dissipation current (Dissipation current at no load: TYP. 150µA)

◆ Built-in ON/OFF control function (Dissipation current at OFF-state: MAX. 1µA)

◆ Built-in overcurrent and overheat protection functions

◆ *It is available for every 0.1V of output voltage (1.3V to 5.0V)

3. PIN Description

PIN No. Symbol I/O Description

1

2

Vin

GND

I DC input

Ground

3

4

5

Vc

Nr

Vo

I ON/OFF control terminal

I Noise reduction

O DC Output

- 62 -

3.5.11 Function introduction to SI1912

1. Description

The SI1912 is a Dual N-Channel 20-V (D-S) MOSFET.

2. Features

◆ TrenchFET Power MOSFETS: 1.8-V Rated

◆ ESD Protected: 2000 V

◆　 Thermally Enhanced SC-70 Package

3. PIN Description

3.5.12 Function introduction to SI1912

1. Description

The M41T6X Serial Access TIMEKEEPER® is a low power Serial RTC with a built-in 32.768 KHz oscillator (external crystal controlled). Eight registers (see Table 3., page 13) are used for the clock/ calendar function and are configured in binary coded decimal (BCD) format. An additional 8 registers provide status/control of Alarm, 32KHz output, Calibration, and Watchdog functions. Addresses and data are transferred serially via a two line, bi-directional I2C interface. The built-in address register is incremented automatically after each WRITE or READ data byte.

2. Features

◆ TIMEKEEPING DOWN TO 1.0V

◆ 1.3V TO 3.6V I2C BUS OPERATING VOLTAGE

◆ COUNTERS FOR TENTHS/HUNDREDTHS OF SECONDS, SECONDS, MINUTES, HOURS, DAY,

DATE, MONTH, YEAR, AND CENTURY

◆ SERIAL INTERFACE SUPPORTS I2C BUS (400KHz)

◆ PROGRAMMABLE ALARM WITH FLAG BIT ONLY (M41T63/64)

◆ PROGRAMMABLE ALARM WITH INTERRUPT FUNCTION (M41T62/65)

◆ LOW OPERATING CURRENT OF 350µA

- 63 -

◆ SOFTWARE CLOCK CALIBRATION

◆ OSCILLATOR STOP DETECTION

◆ 32KHz SQUARE WAVE ON POWER-UP (M41T62/63/64)

◆ WATCHDOG TIMER

◆ WATCHDOG OUTPUT (M41T63/65)

◆ AUTOMATIC LEAP YEAR COMPENSATION

◆ OPERATING TEMPERATURE OF –40 TO 85°C

◆　 LEAD-FREE 16-PIN QFN PACKAGE

3. PIN Description

PIN No. Symbol I/O Description

1

2

3, 5

4

9

10

11

14

6, 7, 8, 12, 13, 15, 16 NC Not used

XI

XO

VSS

SQW

SDA

SCL

/IRQ/OUT

VCC

O

I

Programmable Square Wave -Defaults to 32KHz on Power-up

Oscillator Input

Oscillator Output

Ground

Serial Data Input/Output

Serial Clock Input

Interrupt or OUT Output

Supply Voltage

- 64 -

Chapter Four

Assembly and Disassembly Process

In order to get to know the structure of X19 (RU) more easily and directly, now we use pictures to present each key point of disassembly and assembly process before all users to prevent users from operating blindly and to damage elements, so we hope you can operate according to the instructions strictly.

Note: all operations must be with strict anti-static measures. Operators must wear anti-static gloves or wrist ring; electric screwdriver must be grounded effectively and articles, such as nippers must be removed static before using!

4.1 Disassembly process for the player

1. Remove the bottom casing by exerting strength in MIC hole (A in the figure) and pay

attention not to damage the aluminum alloy surface casing.

2. Use “+”-shaped screwdriver to remove screws A, B and C and then remove the stainless

board according to the arrow direction.

- 65 -

3. Remove the grounding spring in position A.

4. Remove battery according to the arrow direction in the figure.

5. After removing battery, use hand to take out the stain board upwards from the indication

position of arrow.

- 66 -

6. Use “+”-shaped screwdriver to remove two main board screws (A, B).

7. Open the buttons (A, B) on main board and use hand to press buttons on face side to take

out the main board.

8. Remove button from the front surface casing.　

- 67 -

4.2 Assembly process of the player

1. Install the button into the button hole.　

2. After installing headphone base (A) and USB base (B) into proper position, use hand to

press down main board and the main board may be installed to proper position. When installing main board, please make sure you press down after screen is in proper position to avoid damaging the screen. 　

3. Use “+”-shaped screwdriver to fix 2 main board screws (A, B).　

- 68 -

4. Install the battery.

5. Install the grounding spring in position A.

6. Install the cover board and use “+”-shaped screwdriver to fix 3 cover board screws (A, B, C).

- 69 -

7. Install the bottom casing.

- 70 -

PCB board & Circuit diagram

Chapter Cinque

Section One PCB board

Surface layer of mainBoard

- 71 -

Bottom layer of mainBoard

- 72 -

tp3

P_VDD

tp1

D2

MBR0520

1

USB_VBUS

D9

MBR0520

C1

105 16V/X7R

3.3V

R3

1

VIN

47K 5%

2

/STATUS

PPR

3

CHG

4

EN

ISL6294 U1

DGND

ISL6294

- 73 -

C46

22PF 25V/C0G +/-5%

X1

2

112

4

334

12MHz

C47

22PF 25V/C0G +/-5%

DGND

EN改到脚窃电

100K±1%

R8

USB_VBUS

EN

R9

180K 1%

DGND

FM_R_OUT FM_L_OUT

R83

1M 5%

DGND

FM_BUSEN

ISL6294

100K 5%

R10

R17

C35

180K 1%

DGND

3.3V

3

U8

VCC

1

RST

GND

G690

2

DGND

C50

332 16V/X7R

C2

104 6.3V/X5R

DGND

C51

332 16V/X7R

R_OUT

L_OUT

FM_R_OUT FM_L_OUT MIC_IN

MIC_IN

LCD_RW

R84

LCD_RW

LCD_RD

LCD_D7

1M 5%

LCD_D7

LCD_D6

LCD_D5

LCD_D4

LCD_D3

LCD_D2

LCD_D1

LCD_D0

LCD_CS

LCD_RS

SM_WPN

SM_WPN SM_CS2

SM_RDY

MIC_VDD

FM_BUSEN

ISL6294

1.5K 1%

R21

3.3V

USB_DP

USB_DM

DGND

R22

MUTE

LCD_RES

104 6.3V/X5R

LCD_RES

SCAN_C3

SCAN_C2

SCAN_C1

JTAG-TRST JTAG-TCK JTAG-TMS JTAGT-TDI JTAG-TDO JTAG-SEL-ARM

FM_SCL

FM_SDA

RST

G Q1

R4

47K 5%

DGND

8

BAT

7

IREF

6

IMIN

R11

R2

5

GND

680K 5%

60K 5%

DGND

R80

100k

R79

MMST3904

47K

ISL6294

12K 1%

Q9

DGND

3.3V

C16

106 6.3V/X5R

3.3V

C25

C24

C23

104 6.3V/X5R

DGND

U2

R18

M16

PNX0102

DCDC-VOUT33B

DCDC-VOUT33A

T10

XTALH-IN

V9

XTALH-OUT

V7

XTALL-IN

T8

XTALL-OUT

T12

SPDIF-IN

U5

ADC10B-GPA4

T6

ADC10B-GPA3

U6

ADC10B-GPA2

T7

ADC10B-GPA1

U7

ADC10B-GPA0

M3

DAC-VOUTR

M2

DAC-VOUTL

P3

HP-OUTR

N3

HP-OUTL

N2

HP-OUTCA

N1

HP-OUTCB

T1

ADC-VNR

T4

ADC-VINL

R3

ADC-MIC

G2

LCD-RW-WR

F2

LCD-E-RD

E3

LCD-DB7

E2

LCD-DB6

D3

LCD-DB5

D1

LCD-DB4

D2

LCD-DB3

C3

LCD-DB2

C1

LCD-DB1

C2

LCD-DB0

B3

LCD-CSB

F3

LCD-RS

J3

MCI-DAT3

J1

MCI-DAT2

J2

MCI-DAT1

H3

MCI-DAT0

G3

MCI-CLK

H2

MCI-CMD

T15

USB-CONNECT

U17

USB-DP

T17

USB-DM

U14

USB-VUSB

P16

USB-RREF

H17

DAI-BCK

G17

DAI-WS

G16

DAI-DATA

F16

DAO-CLK

G18

DAO-BCK

F18

DAO-WS

F17

DAO-DATA

T13

JTAG-TRST

V4

JTAG-TCK

U12

JTAG-TMS

T5

JTAG-TDI

U13

JTAG-TDO

U4

JTAG-SEL-ARM

H16

IIC-SCL

J17

IIC-SDA

T14

RSTIN

DCDC_VSS1

DCDC_VSS2

DCDC_GND

P18

N16

L16

U3

C17

1

VIN

VOUT

2

GND

FB

EN3BYPASS

106 6.3V/X5R

TPS79301

C56

DGND

1

CN1

1

BAT

2

C27

104 6.3V/X5R

C30

104 6.3V/X5R

VDDE1E1VDDE2V5VDDE3

FLASH-VDD-HV

VSSE1F1VSSE2V6VSSE3

V13

R24

68K 5%

C18

475 6.3V/X5R

DGND

tp2

DGND

C28

104 6.3V/X5R

DGND

V14

J18

A16

VDDE4

VSSE4

VSSE5

A6

H18

A15

103 16V/X7R 1%

ＥＮ

EN

C19

106 6.3V/X5R

A7

V18

U18

U15

VDDE5

VDDE6

USB-VDDDA33

USB-VDDA18-PLL

USB-VDDA33-DRV

AUDIO PLAYERSYMPHONY

VSSE6

XTAL_VSSAT9STAL_GNDAV8SPDIF_GNDA

T11

DGND

U16

USB-VDD18-BG

ADC10B_GNDA

U10

DGND DGND

102 16V/X7R +/-1%

SI2301

D S

BAT

DGND

C11

105 16V/X7R

3.3V

1.8V

L1

600R/100MHz

C22

104 6.3V/X5R

DGND

C26

C29

104 6.3V/X5R

1.8V

N18

V11

V16

V15

VDDI1H1VDDI2

VDDI3

DCDC-VOUTT18

OSCIALLATORS

SPDIF

10-BIT ADC

DAC

ADC

LCD INTERFACE

MEMORY CARDINTERFACE

USB INTERFACE

DA INTERFACE

JTAG

IIC MASTERINTERFACE

RESET

DCDC_CLEAN

VSS1G1VSS2

VSS3

V12

V17

M18

6 5 4

C52

DGND

1 2

ERASE

V3

ADC-VDDA33U3ADC-VDDA18

HP_GNDAAP2HP_GNDAB

P1

DGND

VI GND EN3FB

TPS62200

ERASE

U2

R1

ADC-VREFP

USB_VSSA_TERM

USB_VSSA_REF

R17

T16

R16

R23

33K +/-1%

R25

20K±1%

47K 5%

DGND

R2

L1

HP-VDDA33B

HP-VDDA33A

MPMC

USB_GNDA

M1

1

C48

22PF 25V/C0G +/-5%

U4

5

SW

4

R12

1.8V

C31

104 6.3V/X5R

L2

DAC-VREFP

DAC-VDDDA33

UART

GPIO

DC/DC

ADC_GNDAV2ADC_VREFU1ADC_VREFN

DAC_VREFN

V1

3.3V

L6

CDRH2D11/HP-4R7

R27

1.2M 1%

MMST3904

ADC_VREFP

HP_VDDA33

DAC_VDDA33

DAC_VREFP

U9

U8

U11

SPDIF-VDDA33

XTALL-VDDA18

XTALH-VDDA18

MPMC-CLKOUT

MPMC-BLOUT1 MPMC-BLOUT0

MPMC-RPOUT

ADC_VCOMT3ADC_MIC_LNA

104 6.3V/X5R

C3

C59

106 6.3V/X5R

R26

240K±1%

Q2

DGND

V10

ADC-10B-VDDA33

MPMC-D15 MPMC-D14 MPMC-D13 MPMC-D12 MPMC-D11 MPMC-D10

MPMC-D9 MPMC-D8 MPMC-D7 MPMC-D6 MPMC-D5 MPMC-D4 MPMC-D3 MPMC-D2 MPMC-D1 MPMC-D0

MPMC-A20 MPMC-A19 MPMC-A18 MPMC-A17 MPMC-A16 MPMC-A15 MPMC-A14 MPMC-A13 MPMC-A12 MPMC-A11 MPMC-A10

MPMC-A9 MPMC-A8 MPMC-A7 MPMC-A6 MPMC-A5 MPMC-A4 MPMC-A3 MPMC-A2 MPMC-A1 MPMC-A0

MPMC-STCS2 MPMC-STCS1 MPMC-STCS0 MPMC-DYCS

MPMC-CKE

MPMC-WE MPMC-RAS

MPMC-CAS MPMC-DAM1 MPMC-DQM0

MPMC-OE

UART-TXD

UART-RXD

UART-CTS UART-RTS

GPIO3 GPIO2 GPIO1 GPIO0

DCDC-PLAY

DCDC-STOP

DCDC-VBAT

DCDC-LX2

DCDC-LX1

DCDC-VUSB

T2

C78

106 6.3V/X5R

C63

47PF 25V/C0G +/-1%

R28

100K±1%

C32

104 6.3V/X5R

B8 C8 B7 C7 B6 C6 C5 C4 B5 A5 B4 A4 A3 B2 A2 A1

C13 B13 A13 C14 B14 A14 C15 B15 C16 B16 C17 B17 C18 B18 A18 D18 D17 D16 E18 E17 E16

B11 A8 C9 B9 A10 B10 C11 A9 C10 A11 C12 A17 B12 A12 B1

L3 K3 K2 K1

J16 K18 K17 K16

L17 L18 M17 N17 P17 T18

C4

OLED_POWER ERASE

104 6.3V/X5R

DGND

MUTE

tp51tp6

tp4

1.8V

1

C60

106 6.3V/X5R

DGND

L3

1.8V

600R/100MHz

C33

104 6.3V/X5R

DGND

C34

104 6.3V/X5R

SM_D15 SM_D14 SM_D13 SM_D12 SM_D11 SM_D10 SM_D9 SM_D8 SM_D7 SM_D6 SM_D5 SM_D4 SM_D3 SM_D2 SM_D1 SM_D0

SM_A20 SM_A19 SM_A18 SM_A17 SM_A16 SM_A15 SM_A14 SM_A13 SM_A12 SM_A11 SM_A10 SM_A9 SM_A8 SM_A7 SM_A6 SM_A5 SM_A4 SM_A3 SM_A2 SM_A1 SM_A0

SM_CS2 SM_CS1 SM_CS0

SM_WE

SM_OE SM_UB SM_LB SCAN_C6

SCAN_C6

SCAN_C5

SCAN_C4

OLED_POWER

ERASE

SCAN_C7

OFF_CPU

/STATUS

DGND

C79

106 6.3V/X5R

3.3V

L4

600R/100MHz

DGND

SM_D15 SM_D14 SM_D13 SM_D12 SM_D11 SM_D10

SM_D9 SM_D8 SM_D7 SM_D6 SM_D5 SM_D4 SM_D3 SM_D2 SM_D1 SM_D0

SM_A20 SM_A19 SM_A18 SM_A17 SM_A16 SM_A15 SM_A14 SM_A13 SM_A12 SM_A11 SM_A10

SM_A9 SM_A8 SM_A7 SM_A6 SM_A5 SM_A4 SM_A3 SM_A2 SM_A1 SM_A0

SM_CS1 SM_CS0

SM_WE

SM_OE SM_UB SM_LB

DFU

GPIO2

J1

2SJ-A390-A02

1

3

4

2 1

3.3V

C61

104 6.3V/X5R

DGND

BAT

8PIN USB

DGND

1K/100MHz

L7

1K/100MHz

L11

1K/100MHz

L16

DGND

RF

PQ1X281M2ZP

1

5

VI

VOUT

2

GND

4

EN3BYPASS

104 6.3V/X5R

U5

DGND

R18

C8

tp8

104 6.3V/X5R

100K 5%

1

U6

SW1

1 2 3

DGND

PIC10F200

GPIO1

tp10

D1

1

1N4148WS

R81

0R

R46

R45

47K 5%

D5

SCAN_C1

SCAN_C2

SCAN_C3

SCAN_C4

SCAN_C5

SCAN_C6

SCAN_C7

32.768KHz

10 9

1N4148WS

SCAN_C2

SCAN_C3

SCAN_C4

SCAN_C5

SCAN_C6

SCAN_C7

D11

D10

BAT

1N4148WS

X2

J2

DGND

NC16NC

1

XI

2

XO

3

VSS

4

SQW

DGND

VSS5NC6NC7NC

DGND

3.3V

R33

1M 5%

1 2 3 4 5 6 7 8

MUTE

R13

R14

47K 5%

4.7K 1%

DGND

5

Q5

1

6

S1

D1

4

3

G12G2

S2

D2

NTJD4401

U13

34 25 16

RCLAMP0504F

DGND

tp9

R29

1

FM2.8V

C5

DGND

GP0 VSS GP1

R47

47K 5%

15

14NC13

Vcc

IRQ/OUT

L8 L10 L9

C62

106 6.3V/X5R

DGND

BAT

tp11

1

6

U6_GP3

GP3

5

VDD

R1 10K 5%

4

GP2

EN

R76

OFF_CPU

OFF

RTC_ON

USB_VBUS

3.3V

R50

R48

R49

47K 5%

SW1

SW2

SW3

SW4

SW5

SW6

SW7

DFU

C39

104 6.3V/X5R

U7

DGND

12

10K 5%

NC

R57

11 10

SCL

9

SDA

8

M41T62

FM_SCL

FM_SDA

L5

600R/100MHz

C37

104 10V/X5R

DGND

13

24

985DH

R34

C69

10K 1%

R35

10K 1%

105 6.3V/X5R

C70

105 6.3V/X5R

R39

R38

4.7K 1%

DGND

100R 5%

106 6.3V/X5R

T1

100R 5% 1K/100MHz 100R 5%

C20

MMST3906

USB_VBUS

FM_L_OUT

FM_R_OUT

C65

220UF 4V

R_OUT

C67

R43

103 16V/X7R 1%

1K 5%

DGND

R44

1K 5%

DGND

C13

C53

105 6.3V/X5R

103 16V/X7R 1%

DGND

C6

C14

104 6.3V/X5R

226 6.3V/X5R

DGND

R78

Q8

R77

20K 5%

AZ431L

10K 5%

R75

10K 5%

D3

1N4148WS

D4

R15

10K 5%

1N4148WS

TS-1186

DGND

TS-1186

R51

TS-1186

1K 5%

Q6

MMST3906

RTC_ON

FM_SCL

FM_SDA

USB_VBUS

USB_DM

USB_DP

FM_L_OUT

FM_R_OUT

R55

18R 5%

220UF 4V

C66

DGND

L_OUT

C68

103 16V/X7R 1%

R56

18R 5%

DGND

ADC_VREFP

DAC_VREFP HP_VDDA33 DAC_VDDA33

C7

226 6.3V/X5R

R82

0R

OFF

R36

20K 5%

2.7K 1% / 1K 1%

Q3

R37

2K 1% / 1.8K 1%

DGND

EN

R19

47K 5%

DGND

3.3V

MIC

2

C71

MIC_IN

C21

105 6.3V/X5R

NAND FLASH

O603CS

L12

33nH

MURATA COILCRAFT OR TOKO SMD LLQ1608-A33NG

O603CS

L13

33nH

MURATA COILCRAFT OR TOKO SMD LLQ1608-A33NG

105 6.3V/X5R

U9

FM_L_OUT FM_R_OUT

MIC_IN

Q4

MMST3904

MIC_VDD

R40

18K 5%

R41

C74

27k 5%

475 6.3V/X5R

DGND

P_VDD

C82

475 6.3V/X5R

DGND

OLED_POWER

R20

47K 5%

DGND

3.3V

1

NC

2

NC

3

R53

R52

NC NC

NC R/B2 R/B1

RE CE1 CE2

NC VCC VSS

NC

NC CLE ALE

WE

WP

NC

RF

103 16V/X7R 1%

C54

FM_L_OUT FM_R_OUT

221 16V/X7R +/-5%

R54

4

47K 5%

5 6 7

SM_RDY

8 9 10 11 12 13 14 15 16

SM_A3

17

SM_A2

18

SM_LB

19

SM_WPN

20 21 22 23 24

C75

COILCRAFT

TOKO SMD

R63

22R 5%

SM_RDY

SM_OE

SM_CS0

SM_CS2

3.3V

104 6.3V/X5R

C40

DGND

SM_A3 SM_A2 SM_LB SM_WPN

R61

100K 5%

DGND

105 6.3V/X5R

C72

105 6.3V/X5R

C73

R66

R67

4.7K 1%

DGND

C83 33PF 25V/C0G +/-1%

O603CS

L14

MURATA

120nH

C64

47PF 25V/C0G +/-1%

R16

100K 5%

C77

223 16V/X7R +/-5%

C85

393 16V/X7R +/-5%

SGND

D6

BB202

D7

BB202

FM_3V3

SGND

D8

CDRH2D11/HP-4R7

L2 U10

MBR0520

5

1

VIN

SW

R70

2

470K 1%

GND

4

3

DGND

EN

FB

LM2703

R64

10K 1%

R65

SGND

R5

10K 5%

5767L

5767R

1 2 3 4 5 6 7 8 9

10

5767L 5767R

C84

472 16V/X7R +/-1%

40

N.C

N.C CPOP VCOT1 VCOT2 VCOVCC DGND DVCC DATA CLOCK N.C

W/R11BUSM12BUSEN13SWP114SWP215XTAL116XTAL217PDLF18PHLF19N.C

SGND

39

38

LOOPSW

R71

43K 1%

SM_A0 SM_A1 SM_A2 SM_A3 SM_A4 SM_A5 SM_A6 SM_A7 SM_A8 SM_A9 SM_A10 SM_A11 SM_A12 SM_A13 SM_A14 SM_A15 SM_A16 SM_A17 SM_A18 SM_A19 SM_A20

C41

104 6.3V/X5R

35

36

37

RFI1

RFI2

RFGND

TCAGC

TEA5767HN

NECTAR-I

R32

3.3V

R58

R59

10K 5%

R30 R31

10K 5%

FM_SCL

100R 5%

FM_SDA

100R 5%

DGND

LCD_CS

LCD_RES

LCD_RS

LCD_RW

LCD_RD

LCD_D0

LCD_D1

LCD_D2

LCD_D3

LCD_D4

LCD_D5

LCD_D6

LCD_D7

R69

150K 5%

Q7

C87

22PF 25V/C0G +/-5%

C88

475 16V/Y5V

DGND

U11

A3

SM_A0

A0

A4

SM_A1

A1

A5

SM_A2

A2

B3

SM_A3

A3

B4

SM_A4

A4

C3

SM_A5

A5

C4

SM_A6

A6

D4

SM_A7

A7

H2

SM_A8

A8

H3

SM_A9

A9

H4

SM_A10

A10

H5

SM_A11

A11

G3

SM_A12

A12

G4

SM_A13

A13

F3

SM_A14

A14

F4

SM_A15

A15

E4

SM_A16

A16

D3

SM_A17

A17

H1

SM_A18

A18

G2

SM_A19

A19

H6

SM_A20

A20

D6

VCC

3.3V

D1

VSS

E6

VSS

16Mb/PSRAM

DGND

L15

FM2.8V

1K/100MHz

FM_3V3

R73

18K 5%

SGND

31

32

33

34

U12

N.C

IFGAI

AVCC

AGND

30

N.C

29

DIFL2

28

DIFL1

27

TCIFC

26

VREF

25

MPXO

24

TMUTE

23

RAVO

22

LAVO

21

N.C

20

100R 5%

FM_BUSEN

FM_SCL

FM_SDA

1

R60

WM-62A

2.2K 5%

DGND

48

NC

47

NC

46

NC

45

NC

44

SM_D7

I/O7

SM_D7

43

SM_D6

I/O6

SM_D6

42

SM_D5

I/O5

SM_D5

41

SM_D4

I/O4

SM_D4

40

NC

39

3.3V

NC

38

PRE

37

VCC

C38

36

VSS

35

104 6.3V/X5R

NC

34

NC

33

DGND

NC

32

SM_D3

I/O3

SM_D3 SM_WE

31

SM_D2

I/O2

SM_D2

30

SM_D1

I/O1

SM_D1

29

SM_D0

I/O0

SM_D0

28

NC

27

NC

26

NC

25

NC

FM_3V3

R62

22R 5%

C76

223 16V/X7R +/-5%

SGND

J3

1

NC

2

GND

3

3.3V

TESE0

4

TEST1

5

TEST2

C36

6

TEST3

104 6.3V/X5R

7

TEST4

8

VP_R

9

DGND

R6

104 6.3V/X5R

C9

R68

1M 5%

0603改为封装

105 16V/X7R

L17

600R/100MHz

MMST3906

I/O1 I/O2 I/O3 I/O4 I/O5 I/O6 I/O7 I/O8

I/O9 I/O10 I/O11 I/O12 I/O13 I/O14 I/O15 I/O16

WE

CS1

CS2

OE UB LB NC

VCC

C15

105 6.3V/X5R

SGND

R42

DGND

0R

102 16V/X7R +/-1%

X3

FM

32.768KHz

OR 13MHz CRYSTAL

R7

C86

DGND

B6 C5 C6 D5 E5 F5 F6 G6 B1 C1 C2 D2 E2 F2 F1 G1 G5 B5 A6 A2 B2 A1 E3 E1

C45

104 6.3V/X5R

DGND

C10

104 6.3V/X5R

C90 473 16V/X7R +/-1%

C92

C57

12

SM_D0 SM_D1 SM_D2 SM_D3 SM_D4 SM_D5 SM_D6 SM_D7 SM_D8 SM_D9 SM_D10 SM_D11 SM_D12 SM_D13 SM_D14 SM_D15 SM_WE SM_CS1

SM_OE SM_UB SM_LB

103 16V/X7R 1%

SGND

C89

C91

333 16V/X7R +/-1%

C93

VP_G

10

VP_B

11

VDD

12

BS1

13

10k 5%

BS2

14

10k 5%

IREF

15

CS#

16

RES

17

D/C

18

WR

19

RD

20

D0

21

D1

22

D2

23

D3

24

D4

25

D5

26

D6

27

D7

28

NC

29

VOCMH

30

VCC

31

NC

OLED

tp7

1

C12

475 16V/Y5V

DGND

SM_D0 SM_D1 SM_D2 SM_D3 SM_D4 SM_D5 SM_D6 SM_D7 SM_D8 SM_D9 SM_D10 SM_D11

3.3V

SM_D12 SM_D13 SM_D14

R72

SM_D15

3.3K 5%

SM_CS1

C44

SM_OE SM_UB

104 6.3V/X5R

SM_LB

DGND

3.3V

C55

FM_3V3

473 16V/X7R +/-1%

SGND

333 16V/X7R +/-1%

SGND

5767R

5767L

R74

33K 1%

C49

C80

22PF 25V/C0G +/-5%

223 16V/X7R +/-5%

SGNDSGND

Section Two circuit diagram

C58

C81

223 16V/X7R +/-5%

102 16V/X7R +/-1%

SGNDSGNDSGND

Chapter six BOM List

MATERIAL

CODE

X19H (RU) (2G) BLACK WHITE

BATTERY PROTECT BOARD 5446654

0090223 SMD RESISTOR 1/16W 2K±5% R2

0090011 SMD RESISTOR 1/16W 470O±5% 0603 R1

0310207 SMD CAPACITOR 50V 104 ±20% 7R 0603

0310543 SMD CAPACITOR 50V 104±10% 7R 0603

0882570 IC S-8261AANMG22 SO23-6 U1

0790065

0790090

1632263 PCB E9-0

X19H (RU) (2G) BLACK WHITE

MAINBOARD 5449854 1.0/Ver3.00

0090377 SMD RESISTOR 1/16W 4.7K±5% 0402 R14

MATERIAL NAME SPECIFICATIONS LOCATION

SMD FIELD EFFECT TRANSISTOR SMD FIELD EFFECT TRANSISTOR

ECH8601 TSSOP

ECH8601R TSSOP

C1,C2,C3　　　　①

U2　　　　　　　②

0090741 PRECISION SMD RESISTOR 1/16W 4.7K±1% 0402 R38,R39,R66,R67

0090369 SMD RESISTOR 1/16W 2.2K±5% 0402 R60

0090324 SMD RESISTOR 1/16W 0O±5% 0402 R42,R81,R24

0090639 PRECISION SMD RESISTOR 1/16W 1.5K±1% 0402 R21

0090740 PRECISION SMD RESISTOR 1/16W 1.8K±1% 0402 R36

0090652 PRECISION SMD RESISTOR 1/16W 1K±1% 0402 R37

0090362 SMD RESISTOR 1/16W 1K±5% 0402 R43,R44,R51

0390356 SMD MAGNETIC BEADS 1KO/100MHz±25% 1608 L1,L5,L7,L10,L11,L15,L16

0090433 SMD RESISTOR 1/16W 1MO±5% 0402 R33,R83,R84

0090748 SMD RESISTOR 1/16W1.3MO±5% 0402 R68

0700154 SMD TRIODE 14148WS SO323 D1,D3,D4,D5,D10,D11

0310776 SMD CAPACITOR 6.3V 105±20% 5R 0402 ? ? C71,C13,C15,C21,C69,C70,C72,C73

1980074 SMDEARPHONE SOCKET 2S0386-001 J1

0090373 SMD RESISTOR 1/16W 3.3K±5% 0402 R72

0310717 SMD CAPACITOR 6.3V 475±20% 5R 0603 C82,C18,C74,C7

0090462 PRECISION SMD RESISTOR 1/16W 10K±1% 0402 R34,R35

0090651 PRECISION SMD RESISTOR 1/16W 200O±1% 0402 R64,R65

- 74 -

MATERIAL

CODE

0090385 SMD RESISTOR 1/16W 10K±5% 0402 R57,R58,R59,R5,R6,R7,R76

0090453 PRECISION SMD RESISTOR 1/16W 12K±1% 0402 R22

0960284 SMD CRYSTAL OSCILLATOR 12MHz±30ppm 5032/4 20P X1

0090390 SMD RESISTOR 1/16W 18K±5% 0402 R73

0090387 SMD RESISTOR 1/1612K±5% 0402 R40

0090644 SMD RESISTOR 1/16W 18O±5% 0402 R56,R55

0090672 PRECISION SMD RESISTOR 1/16W 20K±1% 0402 R25

0310416 SMD CAPACITOR 50V 22P±5% NPO 0402 C49,C47,C48,C46,C87

0090447 SMD RESISTOR 1/16W 22O±5% 0402 R62,R63

0960279 SMD CRYSTAL OSCILLATOR 32.768KHz±20ppm SS6 12.5P X2,X3

0090396 SMD RESISTOR 1/16W 33K±5% 0402 R74

0090671 PRECISION SMD RESISTOR 1/16W 33K±1% 0402 R23

0310420 SMD CAPACITOR 50V 33P±5% NPO 0402 C83

MATERIAL NAME SPECIFICATIONS LOCATION

0390221 SMD COIL THREAD INDUCTOR 33nH±2% 1608 L12,L13

0090400 SMD RESISTOR 1/16W 47K±5% 0402

0310424 SMD CAPACITOR 50V 47P±5% NPO 0402 C64,C63

0090404 SMD RESISTOR 1/16W 68K±5% 0402 R41

0090408 SMD RESISTOR 1/16W 100K±5% 0402 R61,R10,R16,R18

0090509 PRECISION SMD RESISTOR 1/16W 100K±1% 0402 R8,R28

0090339 SMD RESISTOR 1/16W 100O±5% 0402 L8,R29,R30,R31,R32,L9

0390398 SMD COIL THREAD INDUCTOR 120nH±2% 1608 L14

0090412 SMD RESISTOR 1/16W 150K±5% 0402 R69

0090645 PRECISION SMD RESISTOR 1/16W 180K±1% 0402 R9,R17

0310736 SMD TANTALUMCAPACITOR 4V 220uF±20% 3528(B) C65,C66

0090687 PRECISION SMD RESISTOR 1/16W 240K±1% 0402 R26

0090683 PRECISION SMD RESISTOR 1/16W 470K±1% 0402 R70

0390388 SMD MAGNETIC BEADS 600O/100MHZ±25% 1005 L3,L4,L17

R45,R46,R47,R48,R49,R50,R52,R53,R54,R3,R4, R12,R13,R15,R19,R20,R79,R71

0090738 PRECISION SMD RESISTOR 1/16W 1.2MO±1% 0402 R27

C2,C3,C4,C5,C6,C8,C9,C10,C22,C23,C24,C25,C

0310480 SMD CAPACITOR 10V 104±10% 5R 0402

0310790 SMD CAPACITOR

10V 104±20％ 5R 0402

26,C27,C28,C29,C30,C31,C32,C33,C34,C35,C36, C37,C38,C39,C40,C41,C44,C45,C61,C56　③

C2,C3,C4,C5,C6,C8,C9,C10,C22,C23,C24,C25,C 26,C27,C28,C29,C30,C31,C32,C33,C34,C35,C36, C37,C38,C39,C40,C41,C44,C45,C61,C56　③

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MATERIAL

CODE

0310486 SMD CAPACITOR 6.3V 106±20% 5R 0805 C20,C78,C79,C14,C16,C17,C19,C59,C60,C62

0310704 SMD CAPACITOR 25V 102±10% 7R 0402 C57,C58

0310453 SMD CAPACITOR 25V 103±10% 7R 0402 C52,C53,C67,C68,C54,C55

0310658 SMD CAPACITOR 25V 105±10% 7R 0805 C86

0310216 SMD CAPACITOR 10V 105 +80%-20% 0603 C1,C11

0310435 SMD CAPACITOR 50V 221±5% NPO 0402 C75

0310455 SMD CAPACITOR 16V 223±10% 7R 0402 C77,C80,C81,C76

0310705 SMD CAPACITOR 25V 332±10% 7R 0402 C50,C51

0310710 SMD CAPACITOR 16V 333±10% 5R 0402 C92,C93

0310711 SMD CAPACITOR 10V 393±10% 5R 0402 C85

0310706 SMD CAPACITOR 25V 472±10% 7R 0402 C84

0310712 SMD CAPACITOR 10V 473±10% 5R 0402 C89,C90,C91

0310752 SMD CAPACITOR 25V 106±10% 5R 1206 C12,C88

MATERIAL NAME SPECIFICATIONS LOCATION

0700115 SMD TRANSFIGURATION DIODE BB202 D6,D7

0390432 SMD CORES INDUCTOR 4.7uH±30% CDRH2D11/HP L2,L6

0882951 IC 26LV16163HC-70 BGA U11

0882481 IC G690L26371 SO23-3 U8

0882851 IC ISL6294IRZ DFN U1

0882565 IC L2703 SO23-5

0882999 IC 5331 SO23-5

0882850 IC 4162 QFN U7

0680077 SMD SCHOTTKY DIODE MBR0520 SOD123 D2,D8,D9

0780298 SMD TRIODE MMS3904 SO323 Q2,Q4,Q9

0780293 SMD TRIODE MMS3906 SO323 Q6,Q7

0883396 IC HY27UH08AG5TPCB TSOP U9

0790070

0882853 IC PIC10200I/OTG SO23 U6

0882852 IC PNX0102AET/102 TFBGA U2

SMD FIELD EFFECT TRANSISTOR

NTJD4401N SO363 Q5

U10　　　　　　④

0882480 IC PQ12812ZP SO23-5 U5

1090080 ESD ELEMENT RCL0504 SC70-6L U13

0790041

0882388 IC TE5767HN HVQFN U12

SMD FIELD EFFECT TRANSISTOR

SI2305DS SO23 Q1

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MATERIAL

CODE

0882476 IC TP62200 SO23-5 U4

0882475 IC 79301 SO23-6 U3

1340174 LIGHT TOUCH SWITCH TS-1186-2(180 GRAM PUISSANCE) SW1,SW2,SW3,SW4,SW5,SW6,SW7

1140082 MICROPHONE 44dB±3dB 4×1.2 WITH NEEDLE MIC

0090429 SMD RESISTOR 1/16W 680K±5% 0402 R2,R11

1000053 COMMON MODE FILTER SDCW2012-2-371T NT2012 T1

1860110 USB SOCKET R-S13DG-03 J2

1632974 PCB 0002192

0090402 SMD RESISTOR 1/16W 56K±5% 0402 R80

MATERIAL NAME SPECIFICATIONS LOCATION

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BBK X19 service manual

Specifications and Main Features

Frequently Asked Questions

User Manual