OTHER FEATUREON SCREEN DISPLAY,SLEEP TIMER,ON/OFF TIMER
AU TO TU N ING
CHILD LOCK
TELETEXT
PICTURE TYPE SELECTION
2-TUNER,TV/AV
WEIGH T14” : 13.8kg(set)
20” : 23.6kg(set)
21” : 26.2kg(set)
1
Page 4
1-2. VCR PART
GENER ALtemperature
formatstandard
tape width12.65 mm
tape speedSP : 23.39m m /sec
max. r e co r din g time w i th
fu llsiz e c as se tte
AUDIOrecording systemlongitudinal track
input-3.8dBm(500mVrms), more than 47Kohms, unbalanced.
output-3.8dBm(500mVrms),less than 1Kohm, unbalanced
frequency range100Hz to 8KHz
signal to noise ratio40dB(more than)
VIDEOsignal systemPAL/S E C AM colour and CCIR m ono chrome signals,
recording system R otary 2-head herical scan with a slant double azim uth
5
~ 35(operating)
-20
~ 60 (storage temperature)
LP : 11.70mm/sec
SP : 240min. with E-240 video cassette
LP : 480min. with E-240 video cassette
625lines/50fields.
combination video head.
input1Vp-p, 75 ohms, unbalanced
output1Vp-p, 75 ohms, unbalanced
signal to noise ratio45dB with NETTETE IMAGE control at center position.
horizontal resolution240 lines with NETTETE IMAGE control at center position
* Design and specifications can be subjected to change without notice.
CHANNEL COVERAGE
SYSTEMPAL,SECAM-B/G
PAL-I/I
PAL,SECM-B/G ,DK
HYPER BAND
CHANNELVHF ch 2 - 12
UHF ch 21 - 69
CATV ch X,Y,Z,S1-S41
PAL,SECM-B/G
HYPER BAND
VHF ch 2 - 12
UHF ch 21 - 69
CATV ch X,Y,Z,S1-S41
PAL-IOAK-B/H
UHF ch21 -69VHF LOW ch 1A- 5
VHF HIGH ch 5A-N11
UHF ch 21 - 69
IN/OUTPUT JACK TYPE
MODELEUROPEMIDDLE EAST,ASIA,CIS AUSTRALIA
JACK TYPESCART TPYE & RCA TYPERCA TYPE
2
Page 5
2. SAFETY INSTRUCTION
WARNING
BEFORE SERVICING THIS CHASSIS, READ THE “X-RAY RADIATION PRECAUTION”,
“SAFETY PRECAUTION” AND “PRODUCT SAFETY NOTI CE” BELOW.
2-1. X-RAY RADIATION PRECAUTION
1. Excessive high voltage can produce potentially hazardous X-RAY RAD IATION.To avoid such hazards,
the high voltage must not exceed the specified limit. The nom inal value of the high voltage of this receiver is
22-23kv(14”), 25-26kv(20”, 21”) at max beam current.
The high voltage must not, under any circum stances, exceed 27.5kv (14", 20”), 29.0kv(21”).
Each tim e a receiver requires servicing, the high voltage should be checked. It is recomm ended the
reading of the high voltage recorded as a part of the service records. it is im portant to use an accurate
and reliable high voltage meter.
2. The only source of X-RAY R adiation in this TV receiver is the picture tube. For continuous RAD IATION
protection, the replacem ent tube must be exactly the same type tube as specified in the parts list.
2-2. SAFETY PRECAUTION
1. Potentials of high voltage are present when this receiver is operating. Operation of the receiver outside
the cabinet or with the back cover removed involves a shock hazard from the receiver.
1) Servicing should not be attempted by anyone who is not thoroughly familiar with the precautions
necessary when working on highvoltage equipm ent.
2) Always discharge the picture tube to avoid the shock hazard before removing the anode cap.
3) Discharge the high potential of the picture tube before handling the tube. The picture tube is highly
evacuated and if broken, glass fragm ents will b e v io le n tly e x p e lle d .
2. If any Fuse in this TV receiver is blown, replace it with the FUSE specified in the Replacement Parts List.
3. W hen replacing a high wattage resistor(oxide m etal film resistor) in circuit board, keep the re sistor 10mm
away from circuit board.
4. Keep wires away from high voltage or high temperature components.
5. This receiver must operate under AC 260 volts, 50Hz/60Hz.
(AC 100~250 volts, 50/60Hz)NEV ER connect to DC supply or any other power or frequency.
2-3. PRODUCT SAFETY NOTICE
Many electrical and mechanical parts in this chassis have special safety-related characteristics.
These characteristics are often passed unnoticed by a visual inspection and the X-RAY RA DIATION protection
afforded by them cannot necessarily be obtained by using replacem ent components rated for higher voltage,
wattage, etc. Replacement parts which have these special safety characteristics are identified in this manual
and its supplements, electrical components having such features are identified by designated symbol on the
parts list. B efore replacing any of these components, read the parts list in this manual carefully.
The use of substitute replacem ent parts which do not have the same safety characteristics as specified in the
parts list may created X -RAY Radiation.
3
Page 6
3. BLOCK DIAGRAM
3-1. Audio Signal Flow
4
Page 7
3-2. Video Signal Flow
5
Page 8
3-3. TV and monitor power switching
6
Page 9
4. ALIG NMENT INSTRUC TIONS
4-1. MAIN TUNER AFT
1. STAN DARD B/G
1) Set a signal generator with
- RF FRE Q UE N C Y = 38.9 MH z
- RF OUTP UT LEVE L = 80
2) Connect the signal generator RF output to TP1 ( TUNER IF OU TP UT )
There must be no signal input to the TU N ER .
3) Press the "VCO" KEY and w ait until the TV screen display "AFT OK"
4-2. SUB TUNER AFT
1. STAN DARD B/G
1) Set a signal generator with
- RF FRE Q UE N C Y = 38.9 MH z
- RF OUTP UT LEVE L = 80
2) Connect the signal generator RF output to TP2 ( TUNER IF OU TP UT )
3) Connect the DC voltage meter to TP3.
4) Adjust L201 ( AFT CO IL ) for 2.2V
5 dBuV
5 dBuV
0.1V.
4-3. MAIN TUNER AGC
1) Set a P attern Generator with RF level 60 2 dBuV, 210.25 M Hz.
2) Connect a O SC ILLOSC O PE P R O BE to P101 ( TUNER AG C INPU T ).
3) Adjust AGC U P /DOWN K EY the voltage drop about 1.8V D C over below it's m aximum voltage.
4-4. SUB TUNER AGC
1) Set a P attern Generator with RF level 60 2 dBuV, 210.25 M Hz.
2) Connect a O SC ILLOSC O PE P R O BE to P101 ( TUNER AG C INPU T ).
3) Press the "SUB AG C" KE Y and m onitoring the SUB TUN E R P ICTUR E .
4) Adjust R202 ( SUB AG C VR ) the voltage drop about 1.8V D C over below it's m axim um voltage.
4-5. SCREEN
1) Apply a CO LO R B AR PATTERN SIGNA L.
2) Press the "SCREE N " KEY .
3) Connect a O SC ILLOSC O PE P R O BE to P906 ( CRT CATHO D E R ,G,B )
4) Adjust the screen volume on FB T such that the highest black level voltage 130
5Vdc .
7
Page 10
4-6. WHITE BALANCE
1) Apply a CO LO R B AR PATTERN SIGNA L.
2) Adjust the R,G,B UP/DOW N K EY of the other color w hich did not appear on the screen to obtain W H ITE.
4-7. FOCUS
1) Apply a RE TM A PATTERN S IGNAL.
2) Adjust the FOCU S V O LUME on FBT to obtain optimal resolution.
4-8. GEOMETRY
1. S-CORREC TION
1) Apply a CROSSHATCH PATTERN SIGNAL.
2) Adjust the S -COR R U P /DOWN K EY obtain
the same distance betw een horizontal lines.
2. VERTICAL SLOPE
1) Apply a RE TM A PATTERN S IGNAL.
2) Pressing the V -SLOP E +/- KEY,the
lower half of the screen is blanked.
2) Adjust the border line of blanked picture
coincident with the center marks of the
pattern using the V -SLOPE + /- KEY.
3. VERTICAL CENTER
1) Apply a RE TM A PATTERN S IGNAL.
2) Adjust the center line of pattern coincident
with the mechanical center m arks of the
CRT using the V-CEN TE R +/- KE Y.
4. VERTICAL SIZE
The V-CENTE R adjustment has to be
done in advance.
1) Apply a RE TM A PATTERN S IGNAL.
2) Adjust the upperside of the pattern coincident
with the mechanical center m arks of the
CRT using the V-SIZE +/- KE Y.
5. HORIZONTAL CENTER
1) Apply a RE TM A PATTERN S IGNAL.
2) Adjust picture centering with H-CEN TE R +/- KE Y.
8
Page 11
4-9. ADJUSTMENT
1. X-POSITION AND P2,P3 ADJUSTMENT
1) Adjust point : X-POSITION
C h e c k in g p o in t : o sc illo s c ope ch1 = H /SW (PY04 #6)
o sc illo s c ope ch2 = PB ENVE (PY04 #4)
Triggering : CH1
M easuring E quipment : oscilloscope, path jig
M ode : PLAYBACK,ATK OFF
Test tape : DP -2 (6KH z)
CONNECTION METHODE
Adjustment Procedure
PY04
4
6
P601
3
2
1
ADJUST JIG
CH2
CH1
CH1
GND
OSCILLOSCOPE 1
OSCILLOSCOPE 2
1) Connect the PATH JIG to PY04 after Test tape PLAYBA C K
2) Pressing the "ATK OFF" KEY.
3) Insert the DP -2 TAPE . ( Auto playback)
3) Adjust the waveform of PB EN V E to maximum(figure1) using X -position V R.
4) Adjust IN /OUT PU T G U IDE until the exact waveform appear as bellow figure2.
max.
(figure 1)(figure 2)
9
Page 12
2. AUTO PG ADJUSTMENT
1) After adjustm ent of 9-1. Press the " RE C." button.
2) Eject the Test tape.
3. AZIMUTH ADJUSTMENT
1) Adjust point : AZIM U TH S CR E W
Checking point : SOUND OUTPUT (P601)
M easuring E quipment : oscilloscope or audio level m eter.
M ode : PLAYBACK
Test tape : DP -2 (6KH z)
Adjustment Procedure
1) Connect the measuring equipment to the AUD IO O U TP UT (P601) terminal.
2) After test tape playback, adjust the output level maximally by varing the azim uth screw.
( 6K
-3.8m +1m/-3m )
3) Fix the azim uth screw with locking paint.
If EEPRO M ( I703 ) has been changed :
- Option data has to be changed and
- all alignment function has to be readjusted.
SECAM-L AFT
1. MAIN TUNER AFT
1.1 STANDARD SECAM-L
1) Set a signal generator with
- RF FREQUENCY = 34.5 MHz
- RF O U T P U T L E VEL = 8 0
5 dBuV
2) Connect the signal generator RF output to TP1 ( TUNE R IF OU TPU T )
There must be no signal input to the TU N ER .
3) Press the "VCO -L" K EY and wait until the TV screen display "AFT-L OK"
2. SUB TUNER AFT
2.1 STANDARD SECAM-L
1) Select the P R. of received SE CA M -L
2) Set a signal generator with
- RF FREQUENCY = 34.2 MHz
- RF O U T P U T L E VEL = 8 0
5 dBuV
3) Connect the signal generator RF output to TP2 ( TUNE R IF OU TPU T )
4) Connect the DC voltage meter to TP3.
5) Adjust R240 ( AFT VR ) for 2.2V
0.1V.
10
Page 13
5. SERVICE REMOCON DIAGRAM
5-1. HOW TO CHECK TV SECTION WITHOUT VCR DECK
IF YOU WANT TO CHECK TV SECTION WITHOUT DECK MECHANISM, THEN PLEASE PERFORM
IN THIS ORDER.
1. PULL OUT THE POWER CORD.
2. REMOVE THE VCR DECK MECHANISM.
3. SUPPLY THE MAIN POWER. (MAIN SW ON)
4. WAIT FOR ABOUT 10 SECONDS. (YO U CAN SEE THE LIGHT OF POWER LED IF THE TV IS NORM AL)
5. TURN ON THE TV USING THE REMOCON.(YOU CAN SEE THE OSD ‘EMERGENCY’)
6. CHECK THE TV SECTION.
5-2. REMOCON
5th
4th
3rd
2nd
1st
RGB
+
1
S-CORR
-
456
V-CEN
+
7
H-CEN
REC ATK OFF SUB AGC
-
+
AGC
-
AFT
AFT-L
SCREEN
+++
---
3
2
+++
V-SIZE V-SLOP
---
8
9
0
LANGUAGE
To Enter The " SERVICE MODE "
Press blue, yellow, green, red power buttons in regular sequency within five seconds using USER
REMOCON aft er s etin g TV/VC R off.
11
Page 14
5-3. REFER TO GENE RA L ADJUST ME NT
1. S-CORR +/- ( S-CORRECTION )
Press this button to adjust the same distance betwe en h orizontal lines on screen of crosshatch pattern.
2. H-CENTER +/- ( HORIZONTAL CENTER )
Press this button to adjust picture centering with H-center on screen of RETM A pattern.
3. V-CENTER +/- ( VERTICAL CENTER )
Press this button to adjust the center line of the pattern coincident w ith the mechanical center m arks of the
CRT on screen of RET M A pattern.
4. V-SIZE +/- ( VERTICAL SIZE )
Press this button to adjust the upperside of the pattern coincident with the mechanical
center marks of the CRT on screen of RE TM A pattern.
5. V-SLOPE +/- ( VERTICAL SLOPE )
Press this button to adjust the border line of blanked picture coincident w ith the center
m arks of the pattern.
6. R,G,B +/- ( WHITE BALANCE )
The screen is becom e WH ITE adjusted R,G,B level by this button.
7. ATK OFF ( Auto tracking off )
Press this button to adjust X-PATH adjustment.
FRO NT panel's LED s are lighted up if you press this button. ( without TAPE )
8. SUB AGC
Press this button to adjust SU B TUN ER AGC Adjustm ent.
Press once : picture is displayed colour pattern.
Press tw ice : picture is displayed black/white pattern.
9. REC
Press this pattern to adjust AUTO P G Adjustment.
10. LANGUAG E
Press this button to adjust LANG UA G E SELEC TION.
12
Page 15
11. SCREEN
Press this button to adjust the screen volum e on FB T.
12. AGC +/-
Press this button to adjust M AIN TUNE R AG C.
13. AFT
Press this button to adjust VCO.
14. AFT-L
Press this button to adjust VCO -L. ( only use the SECAM -L model. )
15. POWER
Press this button to turn your TV/VCR on or off.
If you forget your " child lock secret N o. "
1 . En te r t h e " SERVIC E MO DE. " ¢ †
2. POW ER OFF/ON
13
Page 16
6. IC DESCRIPTION
6-1. SDA5255 ( Micro controller & T eletext Decoder )
1. General de scri pti on
The TDA 5255 contains a slicer for V PS and T TX, an accelerating acquisition hardware module,
a display generator for "LEVEL1"TTX data and a 8bit u-controller running at 333nsec cycle time.
The controller with dedicated hardw are guarantees flexibility, does most of the internal processing of TTX
acquisition, transfers data to/from the external memory interface and receives/transmits data via IIC and
UA RT user interfaces.
The Slicer combined with dedicated hardware stores TTX data in a VB I 1Kbyte buffer.
The u-controller firmw are does the total acquisition task (hamm ing and parity checks, page search and
evaluation of header control bits) once per field.
2. Feature
•
Acquisition :
- feature selection via special function register
- simultaneous reception of TTX and VPS
- Fixed framing code for TTX and VPS
- Programm able framing code window for TTX
- Acquisition during VBI
- Direct access to VBI RAM buffer
- Acquisition of packets x26,x27,8/30 (firm ware)
- Assistance of all relevant checks (firmw are)
- 1-bit framing-code error torelance (switchable)
•
Display
- Feature selectable via special function register
- 50/60Hz display
- Level 1 serial attribute display pages
- blanking and contrast reduction output
- 8 direct addressable display pages
- 12 x 10 character m atrix
- 96 character R O M (standard 90 character set)
- 143 national option characters for 11 languages
- 288 characters for x26 display
- 64 block mosaic graphic characters
- 32 free addressable characters for OS D in expanded character RO M +32 inside OS D box
- double height (TOP/BOT TOM )
- conceal/reveal
- transparent foreground/background inside/outside of a box
- cursor (colour changes from foreground to background colour)
- flash (flash ra te 1 s)
- programmable horizontal and vertical sync delay
- hardware assisted fast display page erase
- full screen background colour in outer screen
14
Page 17
•
Synchronization
display synchronization to sandcastle or horizontal sync and vertical sync with start/stop oscilla tor o r disp lay
synchronization to HS/VS with external clock independent clock systems for acquisition, display and controller.
•
Controlle
r
- 8bit configuration
in ternal clock
- 18
- 0.33
instruction cycle
- eight 16bit data pointer registers (DPTR)
- two 16bit tim ers
- watchdog tim er
- se rial interfa c e (U AR T )
- 1Kbyte on chip extended RAM (access via MO VX)
- 8Kbyte on chip ACQ buffer RAM (access via MO VX)
- 6channel 8bit PWM unit
- 2channel 14bit PWM unit
- 4multiplexed AD C inputs with 8bit resolution
- one 8bit I/O port with open drain output and optional IIC emulation
- two 8bit multifunctional I/Oports
- one 4bit port working as digital or analog inputs
- one 2bit I/O port with optional address latch enable function
•
P-SDIP 52 package
•
5V supply voltage
3. BLOCK DIAGRAM
WATCHDOG
PWM
C500
CPU
ADC
ROM
32KB
TTX
VPS
SLICER
EXTENDED
RAM
1KBYTE
ACK
DISPLAY
TIMING
CHAR.ROM
448*12*10
DUAL PORT
INTERFACE
VBI BUFFER
1KB
DISPLAY
GEN.
DUAL PORT
INTERFACE
DISPLAY
PAGE 8KB
15
Page 18
4. Pin description
PINNAMESYMBOLDESCRIPTION
1P3.1SYSSECAM -L OUT for switching M AINSAW filter L9461
- SECAM-L' : H
- SECAM-L : L
2 P0.7/OP EN D RA INSYSSECAM -L OU T for switching SUB SAW filter L9461
- SECAM-L' : H
- SECAM-L : L
3 P0 .6/OPEN DRAINSDASE RIAL DATA IN/OUT fo r I IC
4 P0.5/OPEN DRAINSCLSERIAL CLOCK for IIC
5 P 0 .4 /OPE N D R AINO P T IO NTVCR : L , MVP : H
6 P0 .3/OPEN DRAINO PT IONB G : L, SE CAM : H
7 P0.2/OPEN DRAINTUN-CLKTUNER CLOCK
8 P0.1/OP EN DRAINTUN-DATATUNER DATA
9 P0.0/OPEN DRAINOPTION2HD :L, 4HD:H
10 VSSVSSGROUND
11 VCCVCCPOWER SUPPLY
12 X-TAL1OSC INinput to inverting osc. amplifer
13 X-TAL2OSC OUToutput to inverting osc. amplifer
14 P4 .0 /A L E
15RESETRSTRESET IN(ACTIVE LOW )
16 P1.7/14BIT PWMCANAL+CANAL CH RECORD : H
17 P1.7/14BIT PWM 4-STATETV/AV,AM/FM
18 P1.7/14BIT PWM2-STATETV-AM/FM
19 P1.7 /14BIT PWMS / SWSLOW S W IDEN T IN f or Au toma ti c
switching between TV/AV mode
- H : AV/RGB MO DE
- L : TV MO DE
20P1.7/14BIT PWMMU TESPK MUTE : H
21P1.7/14BIT PW MGNDGND
22P1.7/14BIT PW MF/SWFAST SW IDENT IN for stopping OSD
display in RGB mode
- H : TV /A V MODE
- L : RGB MODE
23P1.7/14BIT PW MOPTION2 TUN ER : L, 1 TUNE R : H
24VSSAVSSAAnalog GND for slicer
25FIL3FIL3P LL LO O P Filter I/O for Phase Shifting.
26FIL2FIL2P LL LO O P Filter I/O for TTX Slicing.
27FIL1FIL1P LL LOOP Filter I/O for VPS Slicing.
16
Page 19
PINNAMESYMBOLDESCRIPTION
28VCC AVCCAAnalog Supply for Slicer
29IREFIREFR eference current for slicer P LLs
30CVBSCVBSCVBS INPUT
31P2.3/8bit ADCAFT2AFT INPUT for SUB TUNER
32 P2.3/8bit ADCAGCAGC INPUT for ATS SORTING
33 P2.3/8bit ADCKEY1KEY MATRIX INPUT
34 P2.3/8bit ADCKEY2KEY MATRIX INPUT
35 VSSVSSGROUND
36 P3 .3 /I N T 1IR IN PU TRE MOCO N IR IN PUT
37 VDDVDDPOW ER SUPPLY
38 LCINOS C INC LOC K IN for OSD
39 LCOUTOSC OUTCLOCK OUT for OSD
40 P3.7/TXT/I/OS/S DATASYSCON SE RIAL DATA INPUT
41 P3.7/RXDS/S CLKSYSCO N SE RIAL CLOCK
42 P3.4T1P.DETP OWER DETECTOR : L
43 P3.4T0MO N ON LTV MONITOR ON : L
44 P3.2INT0S/S DATASYSCON SE R IAL DATA OUTPUT
45 HS/SCH/SYNCH SYNC IN (Active H)
46 P4.7/VSV/SYNCV SYNC IN (Active H)
47 RRRED OUT
48 GGGREEN OUT
49 BBBLUE OUT
50 BLANKBLBLANKING OUT
51 CO RCORCONTRAST REDUCTION OUT
52 P3.0EVEN/ODDEVEN /ODD OUT for non-interacing in TTX mode
17
Page 20
6-2. CAT24C08P (EEPROM)
1. Typical feature
IIC BUS co mp a tib le
Low pow er CM O S technology
16Byte page write buffer
Self timed w rite cycle with auto clear
100,000 program/erase cycles
100 year data retention
Optional high endurance device available
2. Descripti on
The CAT24C08P is a 8Kbit serial CM OS EEPRO M internally organized as 1024x8bits.
The CAT24C08P features a 16byte page write buffer.
3. Block Diag ram
EXTERNAL
➪
VCC
➪
VGG
START/S TOP
SDA
TEST
SEL
AO
A1
A2
➪
➪
➪
➪
➪
➪
LOGIC
CONTROL
LOGIC
STATE COU NTERS
SLAVE
ADDRESS
COMPARATIRS
4. Pin Descri ption
PINSYMBOLDESCRIPTION
1-3A0,A1,A2Device address input
D OUT
AKC
WORD ADDRESS
BUFFER
XDEC
SENSE AMPS
SHIFT REGISTERS
COLUM N
DECODERS
64
HIGH VOLTAGE/
TIMING CONTROL
EEPROM
64X128
DATA IN STORAGE
4VS SGround
5S DASerial data/address
6S CLSerial clock
7TESTConnect to VSS
8VCC+5V POWER SU PPLY
18
Page 21
6-3. TDA8374A( Single chip TV Processor for Negative modulation IF )
1. General D escription
The TDA 8374A is IIC B US controlled single chip TV processors which are intended to be
applied in PAL/NTSC television receiver.
TDA 8374N3 : With positive and negative m odulation
A pplie d i n PAL /SECA M/NTSC T V.
2. Feature
•
IF
- Vision IF amplifier with high sensitivity and good figures for differential phase and again.
- PLL demodulator with high linearity offering the possibility for (single standard) intercarrier stereo audio application.
- Alignment PLL via IIC
•
VIDEO
- Integrated luminance delay line
- Integrated chroma trap and bandpass filters (auto calibrated)
- Asymm etrical peaking circuit in the luminance channel.
- Black stretching of non standard CVBS or luminance signals.
•
COLOUR
- SECA M interface for application w ith SEC AM add-on TDA8395.
•
RGB
- RGB control (brightness,contrast,saturation.
- Black current stabilization and white point adjustment.
•
INPUT/OUTPUT
- Flexible video source select with CVBS input for the internal signal and tw o external video inputs
(one switchable for CVBS or Y/C)
- The output signal of the video source select is externally available(also as CVBS when Y/C input is used.)
- External audio input
- Linear RGB input with fast blanking.
•
SYNCHRONIZATION AND DEFLECTION
- Horizontal synchronization with two control loops and alignment free horizontal oscillator.
- Slow start and slow stop of the horizontal drive output to enable low stress start-up and
switch-off from the line circuit at nominal line supply voltage.
- Vertical count dow n circuit for stable behavior with provisions for non standard signals.
- Vertical geometry control
- Vertical drive optim ized for DC coupled vertical output stages.
•
CONTROL
- Full IIC B US control, as w ell for customer controls as for factory alignment.
- All automatic controls have an option for forced mode.
•
POWER CONSUMPTION
- Low pow er consum ption (900m W at 8.0Volts).
•
PACKAGING
- SD IL-56 ( Shrinked Dual In Line, 56pins )
19
Page 22
3. Block Diagram
20
Page 23
4. Pin Descri ption
NONAMEDESCRIPTION
1SOUND IF INPUTSIF I NPUT
2EXT AUDIO IN PUTEXTERNAL AUDIO INPUT
34VCO R EF FILTERThe IF VCO tuned circuit is applied to these pin.
Its resonance frequency must be two tim es the if-frequency and in between a
range of 64-120Mhz.
This range is suitable for the if standards as 33.4,38.9,45.75 and 58.75 MHz.
The VCO freq. can be adjusted by IIC bus so a fixed coil can be used.
5PLL LOO P FILTERThe PLL loopfilter is a first order filter with R=390 ohm and C=100nF in series to
ground.
The loopfilter bandwidth is 60KHz and is optimal for both fast catching
and sufficient video suppression for optim al sound performance.
Sound performance can theoretically be improved by adding a small
capacitor(approx.0-4.7nF) between pin 5 and ground.
This however must be evaluated further because the normal video signal
response should not be effected.
6IF VIDEO OU TP U TAlthough the video output impedance is low it is recommended to avoid
high frequency current in the output due to for instance sound trap filters.
This can be achieved by means of an emitter follower at the video output
with a 1
resistor in series with the base.
7BUS INP UT : SCLs e r ia l cl o ck lin e
8BUS INPUT : SDAserial data line
9BANDGAP
DECOUPLING
10CHROMA INPUT
11Y/CVBS INPUTThe Y S-VHS signal of 1Vpp (inclu sive sync amplitude) is AC coupled to pin11.
12 37MAIN
POSITIVE SUPPLY
The bandgap circuit provides a very stable and temperature ijdependent
reference voltage.
This reference voltage(6.7V)ensures optimal performance of the TDA8374
and is used in almost all functional circuit blocks.
The supplied C S-VHS input burst amplitude should be nominally 300
(assumed is a colour bar signa! with 75% saturation and with chroma/burst ratio of
2.2/1).
The C S-VHS input is internally clamped to 4V via 50
The external AC coupling capacitor with 50* forms a high pass filter.
A recommended coupling capacitor is 1 nF ; the high pass filter cut off
frequency is then approxim ately 3kHz.
The TDA8374A has a main supply pin 12 and a hprizontal supply pin 37.
Both pins have to be supplied simultaneously. Notice that the IC has not been
designed to use this pin 37as start pin.
(pin 37 supplies the horizontal oscillator, PHI-1 and PHI-2)
(pin 12 sup plies the rest of the circuits in th IC)
The nominal supply voltage is 8V. W ith min/m ax values of 7.2-8.8V.
Also in stand-by condition th IC m ust be supplied with 8V.
.
pp.
21
Page 24
NONAMEDESCRIPTION
A Voltage detection circuit is connected to both pins.
- pin12 if V12 < 6.8V than a power on reset, POR. is generated.
The Hout output is disabled immediate.
- pin37 if V37 < 5.8V than the horizontal output is disabled imm ediate.
13 17INT CVBS INPU T EXT
CVBS INPUT
It is recom mended that the CVBS1 int and CVBS2 ext input amplitudes
are 1Vpp (inclusive sync amplitude).
This, because the noise detector switches the
(i.e. auto
1 mode w hen FO A ,FOB=0,0) when noise level exceeds 100mVrms
1 loop to slow mode
(i.e. at S/N of 20dB)
14G R O U N DAll internal circuits are connected to this ground pin 14.
15AU D IO O U TP UTThe output signal is volume controlled and is active for both internal and external
audio signals.
The nominal gain is +12dB and -68dB,which gives a total control range of 80dB.
16DECOUPLING
FILTER TUNING
Voltage variations at pin 16, which can be due to external leakage current or
crosstalk from interference sources, should be less than 50mV to ensure that tun-
ing of filters/delay cells remains correct.
18BLACK CURRENT
IN P U T
19
BLUE OUTPUT
20
GREEN OUTPUT
21
RED OUTPUT
For correct operation of the loop CURRENT information is supplied to the black
current input pin.
The RGB output are supplied to the video output stages from pins 21, 20,
and19 respectively.
For nominal signals (i.e. CVBS/S-VHS,-(R-Y),-(B-Y),TTX inputs) and for nominal
control settings, then the RGB output signal amplitudes is typically 2V
BLACK-WHITE.
22V-GUARD INPUT
/BEAM CURRENT
LIMITER
The beam current limiting function is realized by reducing the contrast (and finally
the brightness) when the beam current reaches too high level.
The circuit falls apart in two functions:
- Average beam current limiting(ABL):reacting on the average content of the picture
- Peak white limiting (W PL):reacting on high local peaks in the R GB signal.
23
RED INPUT GREEN
24
INPUT BLUE INPUT
25
26RGB INSERTION
SWIT C H IN PU T
The RIN,GIN,BIN signals(nominal signal am plitude of 700mV)
AC coupled to pin 23,24 and25 respectively.
Clamping action occurs during burstkey period.
The table below a survey is given of the three modes which can be selected with a
voltage on R G B insertion switch input pin ;
Vpin26 IIC function Selected RGB signal
0.9V - 3V IE1 =0 RGB(I NTE RNA L)
IE 1 =1 Rin,Gin , Bin
(fa st ins e r t ion o n p in 23 ,24 ,25 )
>4V IE1=X OS D can be ins erted a t the RG B ou t pins.
27LU MINAN CE INPUTAn nominal input signal amplitude of 1V black-white MUST be DC coupled.
50PF;clamping action occurs during burstkey period.
28LUMINANCE
OUTPUT
The luminance output signal is approximately 1V black-white w ith typical
output impedance of 250 ohm.
22
Page 25
NONAMEDESCRIPTION
29 30R-Y OUTPUT
B-Y OUTPUT
The maximum output impedance of pins 29,and 30 is 500
PAL/N TSC signals are identified. When SEC AM is identified by the
when
SECAM add-on and no PAL/NTSC is already identified by the ASM,
then the A SM sets the -(R-Y)/-(B-Y) output switch open (via DEMSW).
This enables the -(R-Y)/-(B-Y) outputs of the TDA8395 to be directly
connected to pins 29 and 30 respectively.
3132B-Y INPUT
R-Y INPUT
The -(B-Y), -(R-Y) output signals (supplied from baseband delay line) are
AC coupled, via a coupling capacitor of 10nF or greater, to the -(B-Y)/
- (R-Y) inputs; both inputs are clam ped during burstkey period.
33SE CAM REF OUTP UTThe SECA M reference output is directly connected to pin 1 of the TDA8395 for
SECAM decoding;it also can be used as a reference for comb. filter application.
34 35X-TAL 3.58
X-TAL 4.43
To ensure correct operation of both:
- colour processing internal circuits,
- sync calibration internal circuits,
it is only allowed to have 3.6MHz X-tals on pin34: both 4.4MHz, 3.6MHz
X-tals are allowed on pin 35.
If pin35 is not used:then it is left open in application(also XA, XB=0,1).
36LO OP F ILTE R BUR ST
PHASE DETECTOR
One of the important aspects of the PLL is the loop filter connected to pin 36;
it influences the dynamic perform ance of the loop.
38CVBS OUTPUTThe output amplitude is 1Vpp (transfer gain ratio between CVBS 1int or
CVBS2ext or CVBS3ext/Y S-VHS and CVBS out is 1).
The maximum output impedance is 250ߟ.
39BLACK PEAK HOLD
CAPACITOR
For the correct working of the black stretcher an external time constant should be
added at the black peak hold capacitor input.
40 H O R OUTP UTThis open collector output is meant to drive the horizontal output stage.
The output is active low,i.e. the line transistor should conduct during
the low period of the output.
41SANDCASTLE OUTPUT
/FLYBACK INPUT
Pin 41 is a combined input/output pin.
The pin provides a three level sandcastle pulse.
Both burstkey pulse and vertical blanking pulse are always available, the line
blanking pulse is only present when the external flyback pulse is fed to this pin.
The line flyback pulse, fed to this pin is used for two functions
- input signal for the PH I-2 loop
- RGB line blanking.
(without flyback pulse blanking occurs only during the burstkey pulse)
To ensure correct working of the delay line and SECAM add-on,
the output should not be loaded with more than :
- Sandcastle input delay line TDA 4665
- Sandcastle input SECAM add-on TDA 8395
42PH I-2 FILTE R/The loop filter is a first order filter.
FLASH PR O DE CTThis pin requiresa capacitor(C) only.
A flash protection becomes active when this pin is forced>6V.
The horizontal drive is switched-off immediately.
Once the voltage is <6V the horizontal drive is switched-on again via the slow start
prodecure.
23
Page 26
NONAMEDESCRIPTION
43P HI-1 FILT ERThe loop filter connected to pin 43 is suitable for various signal conditions
as strong/weak and VCR signal.
This is achieved by switching of the loopfilter time constant by changing
the PHI-1 output current.
Via IIC bus FOA/B,different time constants can be chosen,including an
automatic mode which gives optimal performance under varing conditions.
44G R O U NDTo this pin are connected the IC-substrate and horizontal output.
45EAST-WEST DRIVEnot used.
46 47VERT. DRIVE+
VERT DRIVE-
The vertical drive has a current output.The output is balanced which ensures a
good common mode behavior with temperature and makes the
output signal less sensitive for disturbances.
48 49IF INPU TThe PLL freq. range is 32-60M Hz w ith corresponding VCO freq. 64-120MHz.
The IF input impedance is 2
in parallel w ith 3pF and matches the required load
for comm only used saw filters.
A DC coupling is allow ed, so no series capacitors between saw filter
and IF input are necessary.
50EHT/OVERVOLTAGE
not used
PROTECT IN PUT
51VERTTICAL SAW-
TOOTH CAPACITOR
This pin requires a capacitor to ground of 100nF +/-5%.
The optim al sawtooth amplitude is 3.5V and is determined by the external
capacitor and charge current.
The sawtooth bottom-level is 2V.
52REFERENCE CUR-
RENT INPUT
53AGC DECOUPLING
CAPACITOR
This pin requires a resistor to ground.
The optimal reference current is 100
The AGC capacitor value is 2.2
.which is determined by this resistor.
and has been defined for an optimal
compromise between AGC speed and tilt for all AGC m odes(+/-modulation)
54TU NER AGC OU TPUTThis output is used to control(reduce) the tuner gain for strong RF signals.
The tuner AGC is an open collector output which is acting as a variable current
source to ground.
55A UD IO D E EM P H AS ISOnly a capacitor has to be connected to this pin that defines the deemphasis time
constant. The signal is internally connected through to the Audio switch.
The capacitor can be calculated as follows.
56SOUND DECO UPLING
This pin requires a capacitor of 10
connected to ground.
The pin acts as a low pass filter needed for the DC feedback loop.
24
Page 27
6-4. TDA4665 ( BASEBAND DELA Y LINE )
1. Feature
Two comb.filters,using the switched-capacitor technique, for one line delay time.
Adjustment free application.
No crosstalk between SEC AM colour carriers.
Handles negative or positive colour-difference input signals.
Claamping of AC -coupled input signals ( (R-Y) and (B-Y)).
VC O w ithout external components.
3M Hz internal clock signal derived from a 6M H z VC O , line-locked by the sandcastle pulse (64uS line)
Sam ple-and-hold circuits and low pass filters to suppress the 3MHz clock signal.
Addition of delayed and non-delayed output signals.
Output buffer am plifiers.
Com b. filtering functions for NTSC colour-difference signals to suppress cross-colour.
2. General D escription
The TDA 4661 is an integrated baseband delay line circuit w ith one line delay. It is suitable for
decoders with colour-difference signal outputs (R -Y) and (B-Y).
3. Block Diag ram
4. Pin Descri ption
SYMBOLPINDESCRIPTIONSY MBO LPINDESCRIPTION
Vp
nc2not connectedGND 110ground for digital part(0V )
GND23ground for digital part(0V)Vo(R-Y)11 (R-Y) output signal
i.c.4internally connectedVo(B-Y)12 (B-Y) output signal
SAND5sandcastle pulse inputnc13not connected
nc6not connectedVi(B-Y)14 (B-Y) input signal
i.c7internally connectednc1 5not connected
i.c8internally connectedVi(R-Y)16 (R-Y) input signal
Fully integrated filters.
Alignm ent free.
For use with baseband delay.
2. Description
The TDA8395 is a self-calibrating, fully integrated SECA M decoder.The IC should preferably be used
in conjunction with the PAL/NTSC decoder TDA8362 and with the switch capacitor baseband delay
circuit TDA 4665. The IC incorporates HF and LF filters, a demodulator and an identification circuit
(lum inance is not processed in this IC)
A highly stable reference frequency is required for calibration and a two-level sandcastle pulse for
blanking and burst gating.
B la c k -c u rr e n t m ea s u reme n t o u tp u t fo r a u to mat ic bla c k c ur re n t s t a b iliz a tio n (A B S)
Single supply voltage of 200V
Internal protection against positive appearing CRT flash-over discharge
Protection against ES D
Internal 2.5V reference circuit
Controllable switch-off behavior
2. Description
The TDA6106Q is a monolithic video output amplifier (5M Hz bandwidth) in a SIL 9MP package,
using high-voltage DMO S technology, and is intended to drive the cathode of C RT directly.
To obtain maximum performance, the amplifier should be used with black-current control.
3. Block Diag ram
Pin 6
TDA6 1O6Q
Vdd
Vdd
MIRROR 1
inout
Pin 3
vin
Vbias
DIFF.STAGE
out outout out
1X
+
MIRROR 3
4. Pin Descri ption
SYMBOLPINDESCRIPTION
nc1nc
nc2nc
Vin3inverting input
GND4ground,substrate
I om5black-current measurement output
Vdd6supply voltage high
nc7nc
Voc8cathode output
Vof9feedback/transient output
High efficient fully DC-coupled vertical output bridge circuit.
Vertical fly-back switch
Guard circuit
Protection against : 0short circuit of the output pins (7 and 4)
Tem perature (thermal) protection
High EMC imm unity because of common m ode inputs
2. Description
The TDA 8356 is power circuit for use in 90 and 110 colour deflection system s for field frequencies
of 50 to 120Hz. The circuit provides a DC driven vertical deflection output circuit, operating as a high
efficient class G system.
3. Block Diag ram
4. Pin Descri ption
SYMBOLPINDESCRIPTION
Idrive(pos)1input power stage (positive) : include Ii(sb) signal bias
Idrive(neg)2input pow er stage (negative) : include Ii(sb) signal bias
Vp3operating supply voltage
Vo(b)4output voltage B
GND5ground
Vfb6input flyback supply voltage
Vo(a)7output voltage A
Vo(guard)8guard output voltage
Vi(fb)9input feedback voltage
No sw itch-on/off clicks
Good overall stability
Short circuit proof
2. Description
The TDA 7056 is a mono output am plifier contained in a 9 pin m edium power package.
The device is designed for battery fed portable mono recorders,radios and television.
3. Block Diag ram
Positive
supply
Input
n.c.
Signal
ground
4. Pin Descri ption
SYMBOLPINDESCRIPTION
nc1nc
Vp2positive supply voltage
input(+)3input signal
signal GND4signal ground
nc5nc
output(+)6output(+)
power GND7power ground
output(-)8output(-)
nc9nc
2
3
5
4
6
8
719
Power
ground
n.c.
n.c.
Output(+)
Output(-)
29
Page 32
6-9. STR-S5707 ( Hybrid IC for a Switching Regulator )
1. Feature
Sm all SIP isolated package : Resin sealed type (transfer m old)
Lo power discipation at a lighter load
M any protection function function : - Pulse-by-pulse over current protection
- Over-voltage protection with a latch
- Thermal protection with a latch
These protection functions are incorporated and can be latched with an external signal.
2. Description
The STR-S5707 is a Hybrid IC with a built in power transistor and a separate excitation control IC,
designed for converter type switching m ode pow er supply applications.
The IC is a capable of quasi-resonant mode and requires small number of external component.
3. Block Diag ram
4. Pin Descri ption
SYMBOLPINDESCRIPTION
C1collector of power TR
GND2ground(Emitter of power TR)
B3Base of power TR
SINK 4Base current (IS) input
OCP5over current sensing signal input
INH6input for synchronizing OFF time and latch
circuit operation
SENS7constant voltage control signal input
DRIVE8output(-)Base drive current (ID) output
VIN9supply voltage for control circuit
30
Page 33
Electrical Charact eristi cs of Contr ol Part (Ta=25 °C)
DescriptionTerminalSymbolRatingUnit
MINTY PMAX
On-state voltage9-2Vin(on)7.688.4V
Off-state voltage9-2V in(off)4.64.95.2V
Operating circuit current9-2Iin(on)15-28
Stand-by circuit current9-2Iin(off)--200
On-time-Ton33-41
O ff- ti me-Toff45-55
OCP terminal T hreshold voltage6-2Vocp-1.12-1-0.88V
INH terminal Threshold voltage 18-2Vinh10.650.750.85V
INH terminal Threshold voltage 28-2Vinh2-1.42.0V
INH terminal Threshold voltage 38-2Vlatch3.25.15.8V
OVP operating voltage9-2Vin(ovp)9.2-10.7V
Latch circuit sustaining current9-2Ih--500
Latch circuit cancellation voltage9-2Vin(latch off)2.53.1-V
MIC thermal shutdown starting temp.-Tj(tsd)125150Fixed reference voltage7-2Vs
Temperature coefficient of reference voltage7-2--+2.5-
32.0
0.3
Electrical Charact eristics of power transi ent part (Trl) (Ta=25°C)
V
DescriptionTerminalSymbolRatingUnit
MINTY PMAX
Collector Saturation Voltage1-2Vce(sat)--0.4V
Collector Cutoff Current1-2ICEX--100
Base-Em itter Saturation Voltage3-2VBE(sat)--1.5V
DC Current Gain-hFE29-61Thermal Resistance- j-F--1.3
Switching Time1-2ts--15
The TOP 210 is intended for 100/110/230 VAC off-line power supply applications in the 0 to 8W
( 0 to 5W universal ) range.
Controlled M OS FET turn-on.
Integrated PW M Ccontroller and 700V MOS FET in industry standard eight pin DIP package.
Only one external capacitor needed for compensation, bypass and start-up/auto-restart functions.
Auto-restart and cycle by cycle current limiting functions handle both prim ary and secondary.faults.
On-chip thermal shutdow n with hysteresis protects the entire system against overload.
2. Description
The TOP 210 is stand-by power supply for GR EE N or ENE R GY EF FICIENT PR O D UC TS .
3. Block Diagram
4. Pin Description
SYMBOLPINDESCRIPTION
SOUR CE1Internally connected to output MOSFET source
NC2nc
NC3nc
CONTR OL 4Error amplifier and feedback current input pin
DRAIN5Output MOSFET drain connection
NC6nc
NC7nc
SOUR C E8Output MOS FE T source connection for high voltage return
32
Page 35
6-11. LA71511MQ ( QIP-80E ) : A/V 1-CHIP
Application : PAL VHS VTR audio and video signal Processor
1. Feature
Applicable to m ulti system : PA L-GBI, MESE CA M ,4.43NTS C ,NAP-GBI
Built-in NA P circuit to convert NT SC to PAL
Normal audio signal processing circuit (self-alignment for record bias)
Built-in SECAM discrimination circuit (MESEC AM )
Built-in record and playback FM -EQ function (IIC bus control)
Y/C seperation using built-in com b filter
Built-in switching circuit for 3 video/audio inputs
Serial control by IIC bus
C o mp lete a d jus tme n t free
Crosstalk reduction by CCD IC for exclusive use (colour com b filter is unnecessary)
Operating supply voltage : 4.8V - 5.2V
33
Page 36
2. PIN DESCRIPTION
PIN NO.PIN NAMESTANDARD DC VOLTPIN NO.PIN NAMESTANDARD DC VOLT
1A.REC.OUT2.3V41Y CCD DRIVE
2A-GND0V42Y CCD DRIVE
3A.AUTO BIAS IN2.3V43NT SC H OU T
2FSC OUT
4A .EQ-S W22 .3 V44P B AP C 2RE C : 0 V P B : 1 .7 V
5A.AUTO BIAS CREC: CONTRO L VOLT
PB : 5V
6A.AUTO BIAS BREC : 0.7V, PB : 0V46PB C O UTRE C : 3.9V, P B : 2.45V
7A.EQ-IN2.3V47C-VCC5V
8A .EQ-N F B2 .3 V48C CCD DR IV E2R EC : 2 .4 V, P B : 2 .4 V
9A.EQ-SW12.3V49SLD FIL REC: 3.8V, PB : 3.8V
10A.EQ-OUT2.3V50C CC D D RIVE1R EC: 2.4V, PB : 2.4V
11A.LIN E PB IN51AFC /APC FIL.R EC: 3.8V, PB : 3.8V
12AGC -TC1
carrier leak bal.
13ACC FILTERREC : 1.9V, P B : 1.9V53PA STOP TRSW0V
14REC-C-OUTREC: 2.7V, PB : 0V54REC APC FIL.R EC: 2.1V
15PB YFM /CINREC : 0V, PB : 3.2V55VX01/X01 INVXO: 3.9V, X0 : 3.8V
16EQ-FILT ERREC : 2.6V, PB : 2.7V56V X01/X01 OUTV XO: 2.5V, X0 : 2.3V
17PB EQ OU TRE C: 5V, PB : 2.4V57C G N D0V
18REC Y FM OUTREC 2.2V58VXO 2/X02 OU T1
21TRICK H O UTTR ICK MO DE 4.2V61KILL-FILTERCO LOUR :1.9V KIL:3.1V
22AGC -TC2REC : 1.6V PB : 1.5V62ACK/SLD OUT
23PB E-PEAKINGREC: 0V PB : 1.4V 63SERIAL CLK IN
24MAIN EM PH F.RE C: 2.1V PB : 1.8V64S. DATA IN
25REC-YREC: 2.2V65SEC AM DE T/
MAIN EMP OUTPB : 2.2V
26CLAM P INREC :2.8V PB : 2.8V66C-ROT PU L-IN
27Y-GND0V67H/SW P UL-IN
28VIDEO IN1SYNC TIP:1.5V PB:0V68SECAM DET
29FB CLAM P F IL.REC : 2.75V PB : 2.7V69S EC AM DE T ADJ2.5V
30VIDEO IN2SYNC TIP:1.5V PB:0V
31REGREC : 4V PB : 4V70A .MUTE O N /OFF0V
32VIDEO IN3S YN C TIP:1.5V PB:0V71A.LINE IN12.3V
33QV,QH-INSERT
CHAR.-INSERT
34VPS O UTS YN C TIP:1.5V P B:0V74A.VREF FIL.2.3V
35VIDEO AG C INREC: 3.1V, PB : 4.2V75A.LINE IN32.3V
36Y-VCC5V76A-VCC5V
37SYNC - O U T77A .L INE O UT2.3V
38VIDEO OU T78A.ALC DET IN2.3V
39VCA F ILT ERREC : 2.9V, PB : 2.9V79A . REC IN2.3V
40VCA IN(CLAMP)REC: 2.8V, PB : 2.8V80A.H SW OUTREC:5V, PB : 0V
REC: 2.3V
PB : 2.3V
REC PAUSE: 2V
THROUGH : 0-0.8V
CHARACTER : 1-2.2V
Q H IN : 2 .5 -3.2 V
Q V IN : 3 .8 - VCC
45PB C IN1.75V
52C CCD INREC: 3.25V
or PB H OUT
59VXO 2/X02 OUT2VXO: 2.7V 3.58N T:0V
S-DET OUT
LPF
72A.ALC DET0V
73A .L INE IN 22.3 V
N T S C MO D E : 3 .2 V
EX.NTSC MODE : OV
PB : 3.25V
VXO :2 .5 V X 0 :2 .3 V
PB HO UT : 3.4V
XO: 2.4V 3.58N T:0V
XO : 3.8V 3.58NT:0V
PIN65'H'=4V
PIN65'L'=2V
34
Page 37
6-12. LA70001 ( HEAD AMP IC )
1. Feature
AG C circuit is built-in this IC ( no record current adjustment is required )
Playback envelope detector circuit is built-in this IC for the purpose of auto-tracking.
Operating supply voltage : 4.8V - 5.5V
2. Pin Description
PIN NO.PIN NAMESTANDARD DC
VOLTAGE
1NC13VCC5V
2NC14REC CURRENT
3HA (EP/SP)1.5V THRESHOLD15REC.AGC FIL.PB : 0V REC: 1.6V
4SW 301.0V THR ES H O LD16L INPB : 2.1V REC: 4.1V
5H-SYNC1.5V THRESHOLD17REC SP OUTPB : 2.1V REC: 4.1V
6ENVELOPE
DET OUT
7PB OU TP B : 1.7V REC: 2.1V19H INPB : 0V REC: 4.1V
8GND20GND0V
9REC Y INPB : 4.0V REC: 3.7V21N C
10REC C INPB : 4.0V REC : 3.7V22NC
11REC/MUTE/PB23NC
12REC CU RRENT
ADJ.2
PB : REC : 0V18PB FILTERPB : 0V RE C: 2.5V
PB : 2.5V REC: 2.5V24NC
PIN NO.PIN NAMESTANDARD DC
VOLTAGE
PB : 5.0V REC: 4.5V
ADJ. 1
3. Block Diag ram
H-CH
L-CH
35
Page 38
6-13. LC89977M ( CCD DELAY LINE IC )
1. Feature
Built-in com b filter function for colour noise reduction
Built-in 1H delay line for lum inance signal
3fsc (13.3M Hz) clock is generated by PLL circuit and is synchronized with fsc(4.43MHz) clock input.
Com b filter for chrominance noise reduction
Available system : PAL,GBI,4.43NTSC
The output phase of luminance signal is the sam e phase of input signal
Package : MFP-14S
2. Functions
2CC D shift registers. ( for chrominance signal, and for luminance signal )
Timing generator and clock driver for CCD.
Delay time selective circuit.
Signal adder unit on CC D shift register.
Auto-bias circuit.
Sync tip clamp circuit for luminance signal.
Center bias circuit for chrominance signal.
Sam ple and hold circuit and output Amp.
3fsc clock generator w ith P LL circuit.
3fsc clock output circuit.
High voltage generator for CCD Reset Drain(RD).
3. Block Diag ram
36
Page 39
SYSCON PORT ( IN01 )
NO.NAMEPORTI/OASSIGNMENTACTIVECN
1KEY0
2PATH ADJ.P77/AN7IU SE FOR PAT H ADJUST.A/DPATH JIG
3P.G DELAY
4DRUM SEL.P75/AN5IA/D
SPLPA/D INPUT RN08
PAL 2HD(SP)57/751.85~2.56. 2K
PAL 2HD(S/LP)40/40 40 /401.25~1.854.3K
SECAM 2HD(LP) 40/40 40/401.25~1.854.3K
PAL 4HD 45/50 30/302.5~ 3. 112K
SECAM 4HD49/49 20/201.25~1.8522K
5POWER FAILP74/AN4IWHEN POWER IS DISCONNECTED THIS
L
PORT DETECTS POWER FAILURE AND
THEN GOES INTO POWER
COMPENSATIO N MODE.
6END SENSORP73/AN3ITAPE END SENSOR DATA INPUT.LEND SENSOR
7START SENSOR P72/AN2ITAPE START SENSOR DATA INPUT.A/DSTART SENS.
8A. ENV.
9V. ENVE.P70/AN0IDC ENVE DATA INPUTA/DVIDEO
10SLOW BREAK
11
12
13QV SYNCP64/RTP9OOUT THIS SIGNAL DURING TRICK MODEPULSE/LVIDEO
14I.R INPUTP63/RTP8IREMOCON DATA INPUTPI.R RECEIVER
15C. RO TARYP 6 2/
EXORout
O2HD : SW PULSE
4HD :EXCLUSIVE or OUTPUT OF HEAD
PVIDEO
AMP SW & SW PULSE.
16H.AMP SWP61/
EXORout
OTO SELECT SP HEAD OR LP HEAD.
SP HEAD : L , LP HEAD : H
PVIDEO
2HEAD : H
4HEAD :
SP LL/H
LPHL/H
17COMPARATORP60/EXORinICOMPARE SP ENVE WITH SP ENVE
PALYCUE/REV
PVIDEO
SP : L, LP : H
18V. HEAD SWP57/RTP7OTO SELECT R/L CHANNEL (VIDEO HEAD)PVIDEO
19A. HEAD SW
20TRICK (H)
21CAP F/RP54/RTP4OCAPSTAN MOTOR FORWARD (L)
REVERSE (H)
L/HDECK
(CAPSTAN)
22REC (H)
23CAP I LIMOTHIS PORT IS USUALLY OPEN BUT
OUT -PUTS THE CAPSTAN STOP STATE
LDECK
(CAPSTAN)
OF FRAME ADVANCE
24LP (H)
25SLP (H)
26REC SAFETYIREC SAFETY TAB IS DETECTED L STATE SO
THAT RECORDING IS INHIBITED.
LREC SAFETY
SW
37
Page 40
NO.NAMEPORTI/OASSIGNMENTACTIVECN
27SYNC DET (L)
28PB (L)
29TAPE DOWN LP44ITAPE INSERTED : LL
30
31
32
33
CAM D
CAM C
CAM B
CAM A
P43
P42
P41
P40
CAM DATA INPUT
* MODE SWITCHING TABLE
CAM ACAM BCAM C CAM DMODE
LHHHEJECT
LHLHSTAND BY
HHLHREV
HHLLSTOP
HHHLPLAY
HLLLSLOW
HLHHBRAKE
HLHLFF/REW
HHHHCAM OFF
LDECK
(CAM)
34 35NUB
GND
NUA
36CLK SELCLOCK SELIAFTER RESET, A SYSTEM CLOCK IS
L/H
SELECTED DEPENDING UP ON CUR
RENT STATE : IF L : 32.768KHz
H : 16MHz IS SELECTED.
37VCCVCC5V
38XinXin16MHz OS C IN
39XoutXout16MHz OS C OU T
40VSSGND
41XcinP141/XcinI32.768KHz OSC IN
42XcoutP140/XcoutO32.768K Hz OSC OUT
43RESET LRESET LIRESET INPUTL
44 45L MOTOR ON
P32 P31OL/HL/M O TOR IC
L MOTOR F/R
LM FLM ROUTPUT
LOA DING MO TORHLFORWA RD
REV DRIVINGLHREVERSE
LOADING MOTORHHBRAKE
FOR DRIVINGLL
46P30
47P21
48P20
49P17
50AV MUTE HP16OH
51GNDP15
52REC LEDP14OLED DRIVINGHLED
53POWER LEDP13OLED DRIVINGHLED
54ST BY LEDP12OLED D RIVINGHLED
55POW E R ON HP11OVCR POW ER ON : HHPO W ER PART
56AUDIO MUTEP10OAUDIO MUTE H OUTPUTH
57SECAM (H)P07ISECAM MODE INPUTHSECAM IC
58MESECAM (H)P06IMESECAM D ETECT INPUTHY/C IC
59VIDEO DATAP05OVIDEO SECAM SERIAL D ATA OUTPUTSERIALY/C,SECAM IC
60VIDEO CLOCKP04OVIDEO SECAM SERIAL CLOCK OUTPUTSERIALY/C,SECAM IC
38
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NO.NAMEPORTI/OASSIGNMENTACTIVECN
61SECAM CON HP03SECAM CONTROL : SECAM : "H"HSECAM IC
62MESECAM HP02
63HEAD SEL.P01OHEAD SELECTION 2HD : L
H/L
4HD : H
64RESET HP00ORESET PULSE OUTHTIMER
65P107/Sout1
66P106/Sin1
67P105/Sclk1
68SYS D. OUTP104/Sout0OSYSCON SERIAL DATA OUTPUTPULSETIMEER
69SYS DATA INP103/Sin0ISYSCON SERIAL DATA INPUTPULSETIMEER
70P102/Sclk0B
71SYS CLK INP101/Sclk0aISYSCON SERIAL CLOCK INPUTPULSETIMEER
72P100/T 1
73P97/T5
74PAL HP96/T4OPLAYBACK PAL MODE : HHPREAMP
75P95/INT0
76P94/PWM2
77CAP PWMP93/PWM1ODRUM MOTOR CONTROL PWM OUTPUT.PULSEDECK(DRUM)
78DRUM PWMP92/PWM0OCAP. MOTOR CONTROL PWM OUTPUT.PULSEDECK(CAP)
79P91/RL S
80HIGH SPEED
The IF signal from the tuner is fed through a SAW filter to the differential IF input (pin 48 and 49).
The first IF stage consists of 3AC-coupled amplifiers with a total gain control range of over 66dB.
The reference carrier for the video dem odulator is obtained by a PLL carrier regenerator(eliminating
notch filter com promises,as in reference tuned circuits for passive carrier regeneration).
O n ly a n o sc illat o r coil is needed(pin3,4) that can be aligned via IIC bus to the double IF frequency.
The AFC information is derived from the VCO control voltage of the IF-PLL and can be read via IIC
bus. Bit AFB toggles w hen the picture carrier is exactly at the desired IF frequency (=half the aligned IF -PLL
frequency). AFA is active in a window around this point.
For fast search-tuning applications this w indow can be increased by a factor3 (AFW bit).
7-2. TUNER AGC
The automatic gain control(AGC ) circuit operates on top sync level at negative modulated signals or on peak
white level at positive modulation, selected by MO D bit.
The tuner AG C is controlled via pin 54.
The tener AGC take over point (TOP ) can be set over a wide range :0.8mVrms - 80m Vrms IF input
signal amplitude.
The tuner AG C output m ay have to operate above V cc of TDA8374.
Therefore pin54 is an open collector output, that can operate from 0.3up to Vcc+1V(at> 2m A sink current)
Source sele ct switch
TDA8374 input switch can select one of the follow ing sources;
pin 13 front-end : CVBS1int
pin 1 7 : C V B S 2e xt
pin 11,1 0 : S-V H S Y,C
Selected signal is available at the CV BS output pin38, in case of Y/C input Y+C are added.
It drive teletext and the TDA8395 SECA M add-on.
For S-VHS applications, the Y,C input can be selected, independent of the CVB S source switch.
TDA8374 Y,C inputs are selected,w hile the source switch outputs CV BS Iint or CVB S 2ext on CV BSout.
7-3. Horizontal synchronization and protection
The sync. seperator adapts its slicing level in the m iddle between top-sync and black level of the CVBS
signal. The seperated sync. pulses are fed to the first phase detector and to the coincidence detector.
The
T he coin ciden ce detec t or detec ts whet her the horizonta l lin e os cillator is sy nchroniz ed to the inco mmi ng v ideo.
The line oscillator is a VCO -type, running at twice the line frequency.
It is ca lib r a te d w ith th e X - ta l o sc illa t o r frequency of the colour decoder and has a m aximum deviation of 2% of
the nominal frequency, so no alignment is needed.
Calibration is done at start up(the TDA8374 must first know what colour X-tals are connected,bit
XA,XB) after synchronization loss (-1 coincidence detector "Sync Locked" bit SL).
-1 loop gain is determined by the components at pin 43 (C+RC ).
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The second phase detector -2 locks the phase of the horizontal drive pulses at output pin 40 to the
horizontal flyback pulse at input pin 41.
This compensates for the storage tim e of the horizontal deflection transistor.
The
The horizontal phase can be given a static off set via IIC bus (HSH "horizontal shift).
A dynam ic correction is possible by current feedback into the
To protect the horizontal deflection transistor, the horizontal drive is switched off immediately
when a pow er failure ("Pow er-On R eset "bit PO R ) is detected.
The power failure may have corrupted the contents of the internal data registers, so the TDA8374 should be started up again.
The TDA 8374 has a separate supply input (pin 37) that only used as a clean supply voltage for the horizontal
oscillator circuits.
-2 loop filter (C) is externally connected to pin 42.
-2 loop filter capacitor.
7-4. Vertical Synchronization
The vertical sawtooth generator drives the vertical output.
It uses an external capacitor at pin51 and a current reference resistor at pin 52.
The TD A 837 4 vertical drive has differe ntial current outputs for DC-coupled vertical outp ut stage, like the TDA835 6.
At TDA8356 input pins1 and pin2 this current is converted into a drive voltage via a resistor.
7-5. Geometry processing
W ith the TDA8374 is possible to im plement automatic geometry alignment, because all parameters are
adjusted via the IIC bus.
The deflection processor of the TDA8374 offers the following five controls;
- Horizontal shift
- Vertical slope
- Vertical amplitude
- Vertical s-co rrec tion
- Ve r tic a l sh if t
7-6. Colour decoder
The colour decoder contains an alignment-free X-tal oscilla to r, a dual killer and difference demodulators.
Together w ith the TDA8395 S EC A M add-on a multi standard PAL/SEC AM/NTSC decoder can be built
with automatic reconition.
W hich standard can be decoded depends on the external X-tal used.
Two X-tal pins (34 and 36) are present so normally no external switching is required.
The IC must be told w hich X-tals are connected (bit XA and XB).
This is important, because the X-tal frequency of the colour decoder is also used to calibrate many
internal circuit. The burst phase detector locks the X-tal oscilla to r with th e c h r o m a b u rs t s ignal.
The phase detector operates during the burst key period only, to prevent disturbance of the PLL by
the chroma signal. Two gain modes provide:
- G ood catching range when the PLL is not locked.
- Low ripple voltage and good noise imm unity once the PLL has locked.
41
Page 44
The killer circuit switches off the R-Y and B-Y demodulators at very low input signal conditions
(chroma burst am plitude).
A hysteresis prevents on/off switching at low,noisy signals.
The TDA 8374 has alignment-free internal luminance delay, chroma bandpass and chroma trap.
They are im plemented as gyrator circuits tuned by tracking to the frequency of the chroma X-tal oscillator.
The chroma trap in the Y signal path is by-passed when Y/C input is selected (S-VHS).
For SECA M an extra luminance delay is build-in, for correct delay of the luminance signal.
RG B output and black current stabilization
The colour difference signals (R-Y, B-Y)are matrixed with the luminance signal(Y) to obtain the RGBout
output signals (pins 19, 20, 21).
In the TDA8374 the matrix type automatically adapts to the decoded standard (NTSC, PAL).
Linear amplifiers are used to interface external RGB in signals (pins 23, 24, 25) from the SCART connector.
These signals overrule the internal RG B signals when the data insertion pin 26(FBI) is switched to a level
between 1.0V and 3.0V.
The contrast and brightness control a nd the pea k white limiter operate on both internal and e xternal RG B signals.
R,G,B each have there own, independent gain control to compensate for the difference in phosphor
efficiencie s of the picture tube : so called "white point" adjustm ent.
The nominal am plitude is about 2V black to white, at nominal input signals and control settings.
TDA8374 has a black current stabilization l oo p , t h at au toma t ic a l ly adjus t t he b lack lev el to the c ut- o ff
voltage of the picture tubes three gun cathodes.
Since no current is following when the voltage the cathode is equal to the cut-off voltage of the tube,
the loop stabilizes at a very small gun current.
This "black current" of the three guns is measured internally and compared with a reference current,
to adjust the black level of RG Bout.
The black level loop is active during 4lines at the and of the vertical blanking.
In the first line the leakage current is measured (max.acceptable 100
).
In the next three lines the black levels of the three guns are adjuster.
The nom inal value of the "black current" is 10
.
The ratio of the "black current" for the 3guns tracks automatically with the white point adjustment,
so the back-ground colour is the sam e as the adjusted w hite point.
At switch-on of the TV receiver the black current stabilization circuit is not yet active and RG Bout are
blanked. Before the first measurem ent pulses appear, 0.5sec delay ensures that the deflection is active,
so the pulses will not be visible on the screen.
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D u ri n g th e me a s ur in g lin e s R GB o u t w ill s upply 4V pulses to the video output stages.
The TDA8374 waits until the black current feedback input (pin18) exceeds 200
the picture tube warm-up.
Then the black current stabiliza tio n c irc u it is a c tiv e .
After a waiting tim e of about 1.0sec, the blanking of R GBout is released.
, which indicates that
7-8. Tuning
The AFC information of the TDA8374 is not available as an analogue voltage.
Automatic following (= frequency tracking, AFC ) can be done via the IIC bus by software.
The TDA 8374 AFC w indow is typically 80kHz wide.
This value is m ade higher than the 62.5kHz tuning step, to prevent an autom atic following loop from
continuously adapting the tuning frequency.
W ith this AFC window ( 40kHz) the m aximum tuning error is less than 62.5kHz.
For high speed search-tunung-algorithms,the AFC window can be widened to 240kHz via bit AFW.
7-9. TDA8395 SECAM DECODER
The TDA8395 is an alignment-free SECAM colour decoder, including a cloche filter, demodulator and
line identification circuit.
The cloche filter is a gyrator-capacitor type.
Its frequency is calibrated in the vertical retrace period.
The calibration reference(pin1) is obtained from the TDA8374 colour X-tal oscillator.(pin33).
Pin 7 is a decoupling for the cloche reference.
The voltage change at this pin due to leakage currents should be lower than 10mV, during field scan,
resulting in a capacitor if minimal 100nF.
Pin 8 is the reference capacitor for the PLL.
The voltage variation during field scan at this pin should be lower than 2m V, resulting in a capacitor of 220nF.
The sandcastle input (pin15) is connected to TDA8374 pin41 and is used for generation of the blanking
periods and provides clock information for the identification circuit.
The CVBS source select output (TDA8374 pin38) supplies SECA M chrom a to pin 16 of the TDA8395.
This is demodulated by a PLL demodulator, that uses the reference frequency at pin 1 and a bandgap
reference to obtain the desired demodulation characteristic.
If the digital line identification in the TDA 8395 detects SEC AM , pin1 will sin k a c u rre n t o f 150ßÀ out of
TDA8374 SE CAM ref pin33.
W hen the TDA8374 has not detected PAL or NTSC , will re s pond by increasing the voltage at pin33 from
1.5V to 5V. Now the TDA8374 colour difference outputs pin30 and 29 are m ade high-ohmic and the
TDA8395 output pin 9 and 10 are switched on.
T h e s e ou tp u t s w ill b e d is connected and high-ohm ic when no SE CA M is detected for tw o frame periods,
the decoder will b e ini tia lized bef o re tr y ing again.
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7-10. Base band delay line TDA4665
TDA4665 is an integrated double baseband delay line of 64.
It couples to the TDA8374 and TDA 8395 without any switches or alignments.
The TDA4665 consist of tw o main blocks :
- Tw o delay lines of 64
- Internal clock generation of 3MHz, line locked to the sandcastle pulse.
The TDA 4665 operates according to the mode demanded by the colour transmission standard :
- For PAL it operates as geom etric adder to satisfy the PAL demodulation requirements
- In NTSC m ode it reduces cross colour interference (comb-filtering).
- For S EC AM it repeats the colour difference signal on consecutive horizontal scan lines.
A sandcastle pulse is connected to pin 5.
The top pulse voltage (should not exceed 5V) can be directly coupled to the 5V sandcastle output of the
TDA8374. The R-Y and B -Y colour difference signals (from TD A8374 pins 30 and 29) are AC-coupled
and clamped by the input stages at pins 16 and 14.
A n in te rn a l 6 MH z cu r re n t c o n tro lle d o s c illa to r is line lo c k e d via a P L L to th e s andcastle pulse at pin 11
and 12. This clock drives the delay lines to obtain the required 64ß¡.
Sam ple and hold low pass filters supress the clock signal.
The original and the delayed signals are added, buffered and fed to the output pins 11 and 12.
These are AC-coupled to the R-Y and B-Y colour difference input pins 32 and 31 of TDA8374.
The TDA4665 needs a 5Vsupply voltage on pin 1 for the digital part and on pin 9 for the analogue part.
in switched capacitor technique
7-11. TDA8356 Vertical deflection.
The TDA8356 is a vertical deflection circuit.
It can be used in 90° C deflection systems with frame frequencies from 50 up to 120Hz.
W ith its bridge configuration the deflection output can be DC coupled with few external components.
Only a supply voltage for the scan and a second supply for the flyback are needed.
The TDA 8356 can drive max. 2A.
The vertical drive currents of TDA8374 pins 47 and 46 are connected to input pins 1, 2 of the TDA8356.
The currents are converted into a voltage by a resistor between pins 1 and 2.
Pin 2 is on a fixed D C level (internal bias voltage) and on pin 1 the drive voltage can be measured
(typical 1.8Vp-p).
The drive voltage is amplified by 'A' and fed to tw o amplifiers 'B' and 'C ', one is inverting and the other is
a non inverting amplifier.
The outputs(pins 4 and 7) are connected to the series connection of the vertical deflection coil and
feedback resistor. The voltage across feedback resistor is fed via pin9 to correction amplifier'D',to obtain.
a deflection current which is proportional to the drive voltage.
The supply voltage for the TDA8356 is 16V at pin 3.
The flyback generator has a separate supply voltage of 45V on pin 6.
The guard pulse is useful to synchronize O SD .
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7-12. Horizontal deflection
The circuit contains H drive, line output transformer.
The H drive pulses from the TDA8374 are am plified in the horizontal drive circuit, to get sufficient base
drive current for the high voltage switching transistor Q402.
During the horizontal scan period (=52
through the primary winding of the FBT to ground.
After this tim e Q 402 is switched-off and the energy stored in the FBT during the scan period w ill b e
transformed to the flyback capacitor C 406, C416.
This energy transfer will ta k e p la c e in a c o s in e s h ap e b e c a u s e th e p rima ry o f th e F B T and C406,
416 from a resonant circuit.
The time the energy is transfered from FBT to C406,416 and back to the FBT, is called the flyback time
and will take p lace i n about 12
The flyback peak voltage is about 8 times the scan voltage.
In series with the horizontal deflection coil there is a (damped) linearity corrector coil.
During the scan there is some loss in the resistance of the deflection coil.
In the first part of a line the linearity corrector stores some energy in a perm anent magnet until it is saturated.
This improves the linearity of the horizontal scan speed.
The required S-correction for the picture tube can be adjusted with the value of C415.
The beam current limiting information is derived from the foot of the H .V winding of the FB T.
This is connected via resistor to +8V.
As the beam current increase, the voltage on line beam current decreases.
Beam current is damped by a integration filter before it is fedback to TDA 8374 pin 22.
The TDA8374 will d e c re a s e th e c o n tra s t( and eventually the brightness)to limit the average beam current.
.
) Q402 will conduct, and a sawtooth current flows from +123V
7-13. Video amplifiers
Three TDA 6106Q integrated video amplifiers drive cathode of the picture tube directly.
They are protected against CRT flashover discharges and ESD (electro static discharge).
The three video amplifiers, have a beam current output I black, used by the TDA8374 black current loop
to control the black level on the cathodes.
The outputs can be connected together because the black current loop sequentially controls the black
level for each cathode.
The am plification of the TD A6106Q is set by the resistors between pin 3 and 9 and between pin 3
(negative-input) and the TDA8374 output.
There are no alignment any more on the CPT panel, because of the automatic black current stabilization
and because the white point adjustment can be done in the TDA 8374 via IIC bus.
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7-14. Power supply STR-S5707
1. Vin term inal, start-up circuit
A start-up circuit is to start and stop a operation of a control IC by detecting a voltage appearing at a Vin terminal (pin 9).
At start up of a power supply, when a voltage at the Vin terminal reaches to 8V (typical) by charging up C817
by the function of a start-up resistor, R804, a control circuit starts operating by the function of the start-up circuit.
After the control circuit starts its operation, pow er source is obtained by smoothing voltage appearing at
winding of pin 6,7 of T801.
2. Oscillator,F/B terminal voltage (pin 7)
A oscillator generates pulse signals which turns a power transistor on and off by making use of charge and
discharge of C1 and C2 incorporated in the Hybrid IC.
Constant voltage control of a switch-mode power supply is performed by changing both on-time and
off-tim e except when the load is light (ex. rem ote control stand-by mode of TVs).
The on-time is controlled by changing a current charged by C1, which is as the result of that the detection
winding of pin 5-7 of T801, which detects a change of voltage in a secondary side, connected to the sensing
terminal (pin 7). has the current in accordance with an output signal from an output voltage detection circuit
(a n e rr o r a m p lif ie r) bu ilt in .
As an AC input voltage to the power supply gats the higher and a load current the smaller,
the current flowing to the SENS term inal gets the larger, and the on-time gets the shorter.
3. Function of INH terminal (pin 6), control of off-tim e
Signal to the IN H terminal is used as inputs to COM P.1 and CO M P.2 inside of the control IC.
A threshold voltage of CO M P.1,V TH 1 is set at 0.75V(Ta=25
alm ost 0V (the power transistor is in OFF m ode) when a voltage at the INH terminal reaches the VTH 1.
A threshold voltage of CO MP.2, VTH2, is set at 1.5V (Ta=25
W hen the IN H term inal voltage reaches VTH2, an output from C OM P.2 reverses (the power TR is in on mode).
) and an input signal to a drive circuit becomes
).
Quasi-resonant operation
By inputting the voltage of winding of pin 6-7 of T801 which is synchronized with the energy discharge time
of a secondary winding to the INH terminal through D810 and R808 , quasi-resonant operation can be achieved.
W hen the power transistor turns off and a voltage higher than VTH 2 is applied to the INH terminal,
C3 immediately discharges and then starts charging again.
Even after the discharge of energy of a secondary winding is com pleted, VINH does not imm ediately
increases. when it gets low er than VTH1, the transistor turns on.
4. Drive circuit
The STR-S5707 applies the proportional drive system in order to minim ize turn-on and saturation loss,
and storage tim e.
5. OC P function
Over-current protection is performed pulse by pulse by directly detecting collector current of the power transistor.
detecting voltage is set to -1V below a reference point of GND (ground).
6. Latch circuit w hich sustains an output from the oscillator low and stops operation of the power supply when
over-voltage protection (OVP ) circuit and therm al shutdown (TSD) circuit are in operation.
As the sustaining current of the latch circuit is 500
maximum w hen Vin term inal voltage is 4V,
46
Page 49
the power supply circuit sustains the off state as long as current of 500 m inim um flows to Vin terminal
from a start up resistor.
In order to prevent a malfunction to be caused by a noise and so on, delay tim e is provided by C1
incorporated in the IC and, therefore, the latch circuit operates when the OV P or TSD circuit is in operation,
or an external signal input is provided for about 10
or longer.
In addition, even after the latch circuit start operating, the constant voltage regulator circuit is in operation
and the circuit current is at high level.
As a result, Vin terminal voltage rapidly decreases.
W hen Vin term inal voltage becomes lower than the shutdown voltage, VIN(OFF) (4.9V typical), it starts
increasing as the circuit current is below 500
.
W hen it reaches the O N -state voltage, VIN(ON) (8V typical), Vin terminal voltage starts decreasing because
the circuit current increases again.
W hen the latch circuit is on, Vin terminal voltage increases and decreases within the range from 4.9V typical
to 8V typical and is prevented from abnormally rising.
Calibration of the latch is done by decreasing Vin terminal voltage below 3.3V.
The power supply can be restarted after disconnecting an AC input to the power supply once.
7. Thermal shutdown circuit
It is a circuit to trigger the latch circuit w hen the frame temperature of the IC exceeds 150
(typ i ca l).
Although the temperature is actually sensed at the control chip, it works against overheating of the
power transistor as the power transistor and the control IC are mounted on the same lead fram e.
8. Over-voltage protection circuit
It is a circuit to trigger the latch circuit when Vin terminal voltage exceeds 11V (typical).
Althrough it basically functions as protections as protection of Vin terminal against over-voltage,
since Vin terminal is usually supplied from the drive winding of the transformer and the voltage is propor
ational to the output voltage, it also functions against the over-voltage of secondary output which causes
when the control circuit opens or in some other events.
7-15. Stand-by Mode TOP210
This IC(TOP210) is used for low-power concumption w hen receiver is operating in stand-by m ode.
1. DR AIN PIN (pin5)
Output M O SF ET drain connection. Provides internal bias current during start-up operation via an internal
switched high voltage current source. Internal current sense point.
2. CO NT RO L PIN (pin4)
Error amplifier and feedback current input pin for duty cycle control.
Internal bias current during normal operation.
It is also used as the supply bypass and auto-restart/compensation capacitor connection point.
IS CLOCK AND DATA APPL IED TO PIN 63,64 OF IY01 ?
CHECK RCY37, RCY38,
CCY27.
OK
IS THE VOLTAGE FROM 0.7V
TO 3.0V AT PIN 5 OF IY01 ?
NG
NG
NG
CHECK SYSCON.
CHECK IY01.
NG
AC SIGNAL IS PUT ON THE
DC VOLTAGE AT PIN 5 OF
IY01.
OK
CHECK AC HEAD.
IS THE VOLTAGE FROM 0.7V
TO 0.8V AT PIN 6 OF IY01 ?
OK
AC SIGNAL PUT ON 70KHz
AT BASE OF QY04.
OKOK
CLEAN HEAD.CHECK RY21, RY22, TY01, CCY47.
OKOK
61
OK
NG
NG
IS THE VOLTAGE HIGHER THAN
3.0V AT COLLECTOR OF QCY06 ?
CHECK IY01.CHECK QCY06CHECK IY01.
NG
Page 64
10-9. VCR VIDEO CIRCUIT
A. TROUBLE SHOOTING OF PREAMP IN THE PLAYBACK MODE.
IS THE SIGNAL FROM HEADS
FED TO PIN1 AND PIN3 (LP MODE)
OR PIN 5 AND PIN 7 (SP MODE) OF
PAY01.
OK
IS ON/OFF 5V FROM PIN 76 OF
IY01 SUPPLIED TO PIN 13 OF IY04
AT 5VOLTS ?
OK
IS REC (H) FROM PIN 19 OF
IY01 SUPPLIED TO PIN 11 OF
IY04 AT ZERO VOLTS ?
OK
IS H.AMP SW FROM PIN 16 OF
IN01 SUPPLIED TO PIN 3 OF
IY04 ?
NG
NG
NG
NG
IY04 : LA70001
CHECK DRUM AND
DECK MECHANISM.
CHECK ON/OFF 5V
CHECK REC (H)
CHECK H.AMP SW
OK
IS VIDEO SW FROM PIN 18 OF
IN01 SUPPLIED TO PIN 4 OF
IY04 ?
OK
IS TRICK(H) FROM PIN 21 OF
IY01 SUPPLIED TO DN07 AT
ZERO VOLT ?‘
OK
IS THE SIGNAL FROM PIN1 AND
PIN3 (LP MODE) OR PIN5 AND
PIN7 (SP MODE) OF PAY01 FED
OK
IS THE SIGNAL FROM PIN7 OF
IY04 FED TO C354 ?
OK
CHECK VIDEO CIRCUIT
NG
NG
NG
NG
CHECK VIDEO SW
CHECK TRICK (H)
CHANGE IY04
CHECK PB EQ
REC(H) : "HIGH" IN THE RECORD MODE
"LOW" IN THE EE AND PB MODE
H.A SW : "HIG H" IN THE LP MODE
"LOW" IN THE S P MODE
TRICK(H) : "HIGH" IN THE TRICK PLAY
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B. TROUBLE SHOOTING OF PREAMP IN THE RECORD MODE.
IY04 : LA70001
IS THE Y-FM SIGNAL FROM PIN
18 OF IY01 FED TO PIN9 OF IY04 ?
OK
IS THE DOWN CONVERTED COLOUR
SIGNAL FROM PIN 14 OF IY01 FED
TO PIN 10 OF IY04 ?
OK
IS ON/OFF 5V SUPPLIED TO PIN
13 OF IY04 AT 5 VOLTS ?
OK
IS REC(H) SUPPLIED TO PIN 11 OF
IY04 AT 5 VOLTS ?
OK
IS TRICK (H) SUPPLIED TO PIN 1
OF IY04 AT ZERO VOLTS ?
OK
IS THE SIGNAL FROM PIN9 AND PIN
10 FED TO PIN 22 (SP MODE) AND
PIN17 (LP MODE) OF IY04 ?
NG
NG
NG
NG
NG
NG
CHECK RY48, CCY05
AND PCB PATTERN.
CHECK CCY04 AND
PCB PATTERN.
CHECK ON/OFF 5V
CHECK REC (H)
CHECK TRICK (H)
CHECK IY04.
OK
CHANGE DRUM
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C. TROU BLE SHO O TING OF LUMI NA NCE SI GNA L IN T HE RE COR D MO DE.
IS THE VIDEO SIGNAL FROM PIN
24 OF IY01 ?
OK
IS ON/OFF 5V SUPPLIED TO PIN 36
AND PIN 47 OF IY01 AT 5 VOLTS ?
OK
IS THE LUMINANCE SIGNAL FROM
PIN 25 OF IY01 FED TO PIN 26 OF
IY01 ?
OK
IS THE LUMINANCE SIGNAL FROM
PIN 26 OF IY01 FED TO PIN 18 OF
IY01 ?
NG
NG
NG
NG
CHECK PCB PATTERN
AND ADJACENT CIRCUIT.
CHECK ON/OFF 5V
CHECK QCY03, RCY02,
RCY39, CCY46, CCY70.
IS TRICK (H) SUPPLIED TO
ANODE OF DN07 AT 0 VOLT ?
OK
CHECK IY01CHECK TRICK (H)
NG
OK
IS THE MODULATING LUMINANCE
SIGNAL FROM PIN 18 OF IY01 FED
TO PIN 9 OF IY04 ?IY01 ?
OK
TO PREAMP CIRCUIT
NG
CHECK RY48, CCY05
64
Page 67
D.TROUBL E SH OO TIN G OF PAL COLO UR I N THE REC ORD MODE.
IS THE VIDEO SIGNAL FROM PIN
35 OF IY01 ?
OK
IS ON/OFF 5V SUPPLIED TO PIN 36
AND PIN 47 OF IY01 AT 5 VOLTS ?
OK
IS THE DOWN-CONVERTED COLOUR
SIGNAL OBTAINED FROM PIN 14 OF
IY01 ?
OK
IS THE DOWN-CONVERTED COLOUR
SIGNAL FROM PIN 14 OF IY01 FED
TO PIN 7 OF IY04 THROUGH BUFFER
QCY08, QCY11 ?
OK
TO PREAMP CIRCUIT.
NG
NG
NG
NG
CHECK PCB PATTERN AND
ADJACENT CIRCUIT.
CHECK ON/OFF 5V
CHECK IY01.
CHECK QCY08, QCY11
AND ADJACENT CIRCUIT.
E.TROUBLE SHOOTING OF SECAM COLOUR IN THE RECORD MODE.
IS THE VIDEO SIGNAL FROM PIN
35 OF IY01 ?
OK
IS ON/OFF 5V SUPPLIED TO PIN 5
AND PIN 17 OF IY03 AT 5 VOLTS ?
OK
IS THE SI GN AL FROM PIN 24 OF
IY03 FED TO PIN 12 OF IY03 AND
12dB AMP CIRCUIT ?
OK
IS THE SIGNAL FROM COLLECTOR
OF QCL07 FED TO PIN 10 OF IY04 ?
OK
TO PREAMP
CIRCUIT.
NG
NG
NG
NG
CHECK PCB PATTERN AND
ADJACENT CIRCUIT.
CHECK ON/OFF 5V
CHECK IY03 AND 12dB AMP
CIRCUIT.
CHECK QCL05, QCL07, CCL17,
RCL12
65
Page 68
F. TROUBLE SHOOTING OF LUMINANCE IN THE PLAYBACK MODE.
IS Y-FM SIGNAL FROM PIN 7 OF
IY04 FED TO PIN 15 OF IY01 ?
OK
IS ON/OFF 5V SUPPLIED TO PIN 36
AND PIN 47 OF IY01 AT 5 VOLTS ?
OK
IS THE LUMINANCE SIGNAL FROM
PIN 15 OF IY01 FED TO PIN 25 OF
OK
IS THE LUMINANCE SIGNAL FROM
PIN 25 OF IY01 FED TO PIN 26 OF
OK
IS THE LUMINANCE SIGNAL FROM
PIN 26 OF IY01 FED TO PIN 38 OF
NG
NG
NG
NG
NG
CHECK PREAMP CIRCUIT
CHECK ON/OFF 5V
CHECK QCY07, LY08, LY06,
CCY93, CCY42, CCY92, RCY52.
CHECK QCY03, RCY53, RCY39,
CCY70, CCY46, RCY02.
CHANGE IY01
OK
TO TV PART.
66
Page 69
G. TROUBLE SHOOTING OF PAL COLOUR IN THE PLAYBACK MODE.
IS THE SIGNAL FROM PIN 7 OF
IY04 FED TO PIN 15 OF IY01 ?
OK
IS THE PAL COLOUR SIGNAL FROM
PIN 7 OF IY04 FED TO PIN 15 OF
IY01 THROUGH AMP CIRCUIT ?
OK
IS ON/OFF 5V SUPPLIED TO PIN 36
AND PIN 47 OF IY01 AT 5 VOLTS ?
OK
IS THE PAL COLOUR SIGNAL FROM
PIN 15 OF IY01 FED TO PIN 48 AND
PIN 50 OF IY01 ?
OK
IS THE SIGNAL FROM PIN 48 AND
PIN 50 OF IY01 FED TO PIN 3 AND
PIN 1 OF IY02 R ESPECTIVELY ?
NG
NG
NG
NG
NG
CHECK PREAMP CIRCUIT
CHECK AMP CIRCUIT
THE AMP CIRCUIT CONSIST OF
QCY08, QCY11 AND ADJACENT CIRCUIT.
CHECK ON/OFF 5V
CHECK IY01
CHECK IY01
OK
IS THE SIGNAL OBTAINED FROM
PIN 13 OF IY02 ?
OK
IS THE COLOUR SIGNAL FROM PIN
13 OF IY02 FED T O PIN 45 AND
THROUGH PIN 52 AND 46 OF IY01 ?
OK
IS COLOUR ROTARY SUPPLY TO
PIN 66 OF IY01 ?
OK
TO TV PART.
NG
NG
NG
CHECK IY01
CHECK IY01, QCY01,
RCY08, CY18.
CHECK COLOUR ROTARY
67
Page 70
H. TROU BLE SHOO TING OF S EC AM COL OU R IN THE PL AY BAC K MODE .
IS THE SIGNAL FROM PIN 7 OF
IY04 FED TO PIN 15 OF IY01 ?
OK
IS THE SIGNAL FROM PIN 7 OF
IY04 FED TO PIN 21 OF IY01 THROUGH
PB AMP AND 1.1MHz BPF ?
OK
IS ON/OFF 5V SUPPLIED TO PIN 5
AND PIN 17 OF IY 01 ?
OK
IS SECAM COLOUR SIGNAL FROM
PIN 21 FED TO PIN 12 OF IY01
THROUGH
PIN 14 AND 12dB AMP CIRCUIT ?
OK
IS C.SYNC ( COMPOSITIVE SYNC )
SUPPLIED TO PIN 9 OF IY03 ?
NG
NG
NG
NG
NG
CHECK PREAMP CIRCUIT
CHECK PB AMP CIRCUIT
AND IY03
THE AMP CIRCUIT CONSIST OF
QCY08, QCY11 AND ADJACENT CIRCUIT.
CHECK ON/OFF 5V
CHECK 12dB AMP CIRCUIT.
THE 12dB AMP CIRCUIT CONSIST OF
QCL07,RCL33,RCL34,RCL36,CCL35
CHECK C.SYNC
OK
IS THE SIGNAL FROM PIN 12 FED
TO PIN 15 OF IY03 ?
OK
IS THE SIGNAL FROM PIN 15 OF
IY03 FED TO PIN 46 OF IY01 ?
OK
TO TV PART.
NG
NG
CHECK IY03.
CHECK CCL17,QCL05,RCL12
AND SECAM (H)
68
Page 71
11. ELECTRICAL PA RTS LIST
WARNING
COMPO NENTS MARKED W ITH THIS SYMBOL M UST ONLY BE REPLACED BY A
COMPO NENT HAVING IDENTICAL PHYSICAL CHARACTERISTICS.
ACCESSORY AS
BAG INSTRUCTION
COVER BACK AS
COVER BACK
SPEC PLATE
CLOTH BLACK
CLOTH BLACK
PACK IN G AS
STAPLE PIN
BO X C AR TO N
PAD
BA G PE
CRT GROUND AS
COIL DEGAUSSING
C AB I NET AS
DECO SENSOR AS
SCREW TAPPING
D OOR F/L AS
SP R ING
SCREW TAPPING
CLAMP CORD
BUTTON POWER
SP R ING
BUTTON
SCREW TAPPING
M ARK BR AND
SCREW CRT FIXING AS
SCREW CRT FIXING AS
WASHER RUBBER
CR T AS
CO IL DY
RUBBER WEDG E
MA G N E T CP
TAPE GLASS
BOND SILICON
DV T-1 4F 6L A
L.D.P.E T0.05X250X400
D VT -14 F6 PA
H IPS BK
150ART P/E FILM (C/TV)
FELT T0 .7 L= 3 00
FELT T0 .7 L= 2 00
DV T-1 4F 6L A
18M/M J D O
SW-3
EPS 14F6
1000X950
1401H-1015-1P
DC-1450
DV T-1 4F 6L A
5526100+7817901
T2S WA S 3X 10 M FZ N
2817701+7823301
SWPB 0.3 5
T2S TRS 4X16 MFZN BK
NYLON 66 BLK 5280N
ABS BK
SWPA
ABS BK
T2S WA S 3X 10 M FZ N
COPPER T0.4
30X 80 BK
30X 1 40 YL
C R
DV T-1 4F 6L A
OD Y -M 1 401
HM R 28 SR (|0X 54)
NY-225 (MINI N ECK )
20MMX 30 M
RTV 2 52
CRT BARE
MASK FRONT AS
MASK FRONT
SPEAKER AS
CO N N AS
SPEAKER
PCB MAIN MANU AL AS
MO D U L E R F
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
LED IR
HO LDE R I R
LED
LED
LED
JACK EARPHON E
IC
IC VIDEO PRO CESSO R
IC DE LAY
IC
IC
IC RE G U L ATOR
HEAT SINK ASS`Y
IC
HE AT S I NK IC
SCREW TAPPTITE
IC
IC
IC SIF
IC SIF
IC SWITC H
IC
IC PR EAMP
IC SE CAM.L
IC PR EAMP
JACK PHON O
A34 JLL 90 X
D VT - 14 F 6L A
HIPS BK
D VT - 14 F 6L A
YH025-03+YST025+ULW=200
SP- 77 A04
D VT - 14 F 6L A
PH-RF-9701A
1S2186
1S2186
BB909A
1S2186
1S2186
SI531 2-H
ABS
KLY 114-L (YELLOW )
KLG-114L
KLR114L
YSC-1538
TDA9802
TDA8374/N3
TDA4665/V4
TDA8395
TC4053BP
KA7808
1TDA7056-- + 7174300811
TDA7056
A1050P-H24 T1.6
TT2 RND 3X 8 MFZ N
MN 1280R
CAT24 C0 8 P
STV8225
STV8225
KI A7042 P
BA6209
TFMW5380
TA1238N
LA70001 (2HD)
YSC0 2P-4100 - 13A
SO C K ET RGB
CO IL CHOKE
CO IL A FT
CO IL CHOKE
CO IL P IF
CO IL CHOKE
DE C K A S
FRAME MAIN PCB AS
SCREW TAPPING
SCREW TAPPING
SCREW TAPPING
HOLDER AC CORD
HO LDE R LE D
BR K T EA R T H
TIE C AB L E
CLAMP WIRE
S HIEL D T OP
SCREW TAPPING
SCREW TAPPING
SHIELD CASE AS
SH IEL D P LAT E
SHIELD CASE
SCREW TAPPTITE
SCREW TAPPING
RUBBER CUSHION
CO N N AS
CO N N AS
CO N N AS
CO N N AS
CO N N AS
CO N N AS
CONN HOUSING
CO N N AS
CO N N AS
CO N N WA FER
CO N N WA FER
R FU S IB LE
FILTER S AW
FILTER S AW
SR-21A1 (AN G LE TYPE)
TRF-1201B (0.97 UH )
TRF-A0 01
TRF-1201B (0.97 UH )
TRF-7780 A ( ST I CK)
TRF-1015 C (6.8 UH J)
DRP-7203(2HD,SP/LP)
3816000+7817620+7817640
T2S TRS 4X16 MFZN BK
T2S PAN 3X12 MF ZN BK
T2S WAS 3X12 MFZN BK
NYL O N 66 U L/CS A
FR H IPS B K
C5212P-1/2M T0.15
N YL ON6 6 DA1 00
NYL O N 66
SECC-O T0. 8
T2S TRS 4X16 MFZN BK
T2S WAS 3X12 MFZN BK
D VN-14 F7JA
SPTH-C T0 .3
ET T0. 3
TT2 RND 3X 8 MFZ N
T2S WA S 3X 10 MFZ N
FR RUBBER SPONGE
YH025-05+YST025+ULW=200
YH025-05+YST025+ULW=300
YH025-07+YST025+UAW=400
YH025-03+YST025+ULW=400
YH025-10+YBNH250+ULW=200
60-8283-3078-45+ULW=200
00-8370-041-000-800
BI C-02 H- 2 0T +US W= 1 00
60-8283-3068-45+UAW=150
TKC -G 0 6P -A1
TKC -G 1 0P -A1
1/2W 10 O HM J
G1966M
L 9461-M
5PG1966M- 5PL9461M- 1SG239S-- 1SG239S-- TST5811-- 97P2338200
TST5811-- 97P2338200
5SN0101Z20
5S50202002
5S50202002
5S40202013
5800000032
4859717030
4859005350
4859717030
4859005450
5XE18R000E
5PMKT40M A 5PMKT40M A PTMPJ2A531
HCQK220JCA
HCFK104ZC A
HCFK103ZC A
HCFK104ZC A
HCFK104ZC A
HCBK102K CA
HCQK101JCA
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCQK102JCA
HCFK103ZC A
HCQK101JCA
HCFK103ZC A
HCQK221JCA
HCQK221JCA
HCBK333K CA
FILTER S AW
FILTER S AW
IC SE NSOR
IC SE NSOR
TR PH O TO
HO L DE R TR
TR PH O TO
HO L DE R TR
SW D E TE C T
SW TAC T
SW TAC T
SW P U S H
CO IL O S C
TUNER VARACTOR
JACK PHONE PLUG A S
TUNER VARACTOR
JACK PHONE PLUG A S
CRYSTAL QUARTZ
FI LTE R CERA
FI LTE R CERA
PCB CHIP MOUN T B AS
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
G1966M
L 9461-M
SG-239S
SG-239S
ST- 5811 ( D- RAN K)
ABS
ST- 5811 ( D- RAN K)
ABS
JDS1105-6X
JTM-11 08B 2C -2P
JTM-11 08B 2C -2P
SPUJ19XSM011(KPJ 2S1B)
DE0 -0 06
TELE9-084A
PLUG+CA B LE1365 AW G 24=150D
TELE9-084A
PLUG+CA B LE1365 AW G 24=250D
HC-49/U 18.000MHZ 30PPM
MKT40MA100P
MKT40MA100P
D VT - 14 F 6L A
50V CH 22PF J 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V X7R 1000PF K 2012
50V CH 100PF J 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V CH 1000PF J 2012
50V Y5V 0.01MF Z 2012
50V CH 100PF J 2012
50V Y5V 0.01MF Z 2012
50V CH 220PF J 2012
50V CH 220PF J 2012
50V X7R 0.033MF K 2012
HCBK223K CA
HCQK220JCA
HCQK220JCA
HCQK820JCA
HCFK104ZC A
HCFK104ZC A
HCFK103ZC A
HCBH224K C A
HCQK820JCA
HCFK104ZC A
HCBK102K CA
HCQK390JCA
HCQK220JCA
HCBK102K CA
HCBK102K CA
HCBK472K CA
HCFK104ZC A
HCFK104ZC A
HCBK333K CA
HCFK103ZC A
HCFK104ZC A
HCTAF229MB
HCQK221JCA
HCQK221JCA
HCTAJ478MB
HCFK104ZC A
HCTAJ478MB
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCFK103ZC A
HCFK104ZC A
HCFK103ZC A
HCFK103ZC A
HCBK102K CA
HCBK102K CA
HCBK102K CA
HCBK102K CA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP TANTAL
C CHIP CERA
C CHIP CERA
C CHIP TANTAL
C CHIP CERA
C CHIP TANTAL
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
50V X7R 0.022MF K 2012
50V CH 22PF J 2012
50V CH 22PF J 2012
50V CH 82PF J 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
25V X7R 0.22MF K 2012
50V CH 82PF J 2012
50V Y5V 0.1MF Z 2012
50V X7R 1000PF K 2012
50V CH 39PF J 2012
50V CH 22PF J 2012
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
50V X7R 4700PF K 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V X7R 0.033MF K 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
16V 2.2MF M 3216
50V CH 220PF J 2012
50V CH 220PF J 2012
35V 0.47MF M 3216
50V Y5V 0.1MF Z 2012
35V 0.47MF M 3216
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
HCBK102K CA
HCBK102K CA
HCBK102K CA
HCBK102K CA
HCQK130JCA
HCQK130JCA
HCBK181KEA
HCBK181KEA
HCBK181KEA
HCBK181KEA
HCBK223K CA
HCQK151JCA
HCQK680JCA
HCBK392K CA
HCBK472K CA
HCBK472K CA
HCBK332K CA
HCQK560JCA
HCBK223K CA
HCQK221JCA
HCTBF100M B
HCBK223K CA
HCTAJ478MB
HCQK100DCA
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCTAF229MB
HCTAF229MB
HCTAF229MB
HCTAF229MB
HCTAH109MB
HCTAJ478MB
HCFK103ZC A
HCBK102K CA
HCTAF229MB
HCBK473K CA
HCFK103ZC A
HCFK103ZC A
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C C HI P TA NTAL
C CHIP CERA
C C HI P TA NTAL
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C C HI P TA NTAL
C C HI P TA NTAL
C C HI P TA NTAL
C C HI P TA NTAL
C C HI P TA NTAL
C C HI P TA NTAL
C CHIP CERA
C CHIP CERA
C C HI P TA NTAL
C CHIP CERA
C CHIP CERA
C CHIP CERA
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
50V CH 13PF J 2012
50V CH 13PF J 2012
50V X7R 180PF K 3216
50V X7R 180PF K 3216
50V X7R 180PF K 3216
50V X7R 180PF K 3216
50V X7R 0.022MF K 2012
50V CH 150PF J 2012
50V CH 68PF J 2012
50V X7R 3900PF K 2012
50V X7R 4700PF K 2012
50V X7R 4700PF K 2012
50V X7R 3300PF K 2012
50V CH 56PF J 2012
50V X7R 0.022MF K 2012
50V CH 220PF J 2012
16V 10MF M 3528
50V X7R 0.022MF K 2012
35V 0.47MF M 3216
50V CH 10PF D 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
16V 2.2MF M 3216
16V 2.2MF M 3216
16V 2.2MF M 3216
16V 2.2MF M 3216
25V 1MF M 3216
35V 0.47MF M 3216
50V Y5V 0.01MF Z 2012
50V X7R 1000PF K 2012
16V 2.2MF M 3216
50V X7R 0.047MF K 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
HCFK103ZC A
HCFK103ZC A
HCQK101JCA
HCQK101JCA
HCBK102K CA
HCBK102K CA
HCFK103ZC A
HCFK103ZC A
HCBK333K CA
HCBK333K CA
HCBK472K CA
HCBH224K C A
HCFK103ZC A
HCQK150JCA
HCQK180JCA
HCFK103ZC A
HCQK160JCA
HCQK390JCA
HCFK103ZC A
HCQK330JCA
HCFK103ZC A
HCQK221JCA
HCBH224K C A
HCTAJ478MB
HCFK104ZC A
HCFK104ZC A
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCTAH109MB
HCQK220JCA
HCQK150JCA
HCFK103ZC A
HCFK103ZC A
HCFK104ZC A
HCFK104ZC A
HCFK103ZC A
HCQK101JCA
HCBK333K CA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C C HI P TA NTAL
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C C HI P TA NTAL
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V CH 100PF J 2012
50V CH 100PF J 2012
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V X7R 0.033MF K 2012
50V X7R 0.033MF K 2012
50V X7R 4700PF K 2012
25V X7R 0.22MF K 2012
50V Y5V 0.01MF Z 2012
50V CH 15PF J 2012
50V CH 18PF J 2012
50V Y5V 0.01MF Z 2012
50V CH 16PF J 2012
50V CH 39PF J 2012
50V Y5V 0.01MF Z 2012
50V CH 33PF J 2012
50V Y5V 0.01MF Z 2012
50V CH 220PF J 2012
25V X7R 0.22MF K 2012
35V 0.47MF M 3216
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
25V 1MF M 3216
50V CH 22PF J 2012
50V CH 15PF J 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V CH 100PF J 2012
50V X7R 0.033MF K 2012
HCBK473K CA
HCFK103ZC A
HCQK820JCA
HCFK103ZC A
HCBK473K CA
HCFK103ZC A
HCTBH 479M B
HCTAF229MB
HCTAH109MB
HCTAH109MB
HCTBH 479M B
HCQK101JCA
HRFT000-CA
HCFK103ZC A
HCFK103ZC A
HCTBF100M B
HCFK104ZC A
HCFK103ZC A
HCBK102K CA
HCFK103ZC A
HCFK103ZC A
HCBK102K CA
HCBK102K CA
HCFK103ZC A
HCBK332K CA
HCFK104ZC A
HCFK103ZC A
HCBK223K CA
HCBK223K CA
HCFK104ZC A
HCTAH109MB
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCFK103ZC A
HCFK104ZC A
HCFK103ZC A
HCTBF100M B
HCTAH109MB
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP CERA
R C HI P
C CHIP CERA
C CHIP CERA
C CHIP TANTAL
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP TANTAL
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP TANTAL
C CHIP TANTAL
50V X7R 0.047MF K 2012
50V Y5V 0.01MF Z 2012
50V CH 82PF J 2012
50V Y5V 0.01MF Z 2012
50V X7R 0.047MF K 2012
50V Y5V 0.01MF Z 2012
25V 4.7MF M 3528
16V 2.2MF M 3216
25V 1MF M 3216
25V 1MF M 3216
25V 4.7MF M 3528
50V CH 100PF J 2012
1/10 0 OHM 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
16V 10MF M 3528
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V X7R 1000PF K 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V X7R 1000PF K 2012
50V X7R 1000PF K 2012
50V Y5V 0.01MF Z 2012
50V X7R 3300PF K 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V X7R 0.022MF K 2012
50V X7R 0.022MF K 2012
50V Y5V 0.1MF Z 2012
25V 1MF M 3216
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
16V 10MF M 3528
25V 1MF M 3216
HCQK100DCA
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCBK223K CA
HCFK104ZC A
HCFK103ZC A
HCFK103ZC A
HCFK104ZC A
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCFK103ZC A
HCFK104ZC A
HCFK103ZC A
HCFK103ZC A
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCQK101JCA
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCFK104ZC A
HCBK153K CA
HCQK101JCA
HCFK103ZC A
HCBK473K CA
HCBK473K CA
HCBK102K CA
HCBK472K CA
HCQK220JCA
HCBK122K CA
HCQK270JCA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
50V CH 10PF D 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V X7R 0.022MF K 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V CH 100PF J 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V Y5V 0.1MF Z 2012
50V X7R 0.015MF K 2012
50V CH 100PF J 2012
50V Y5V 0.01MF Z 2012
50V X7R 0.047MF K 2012
50V X7R 0.047MF K 2012
50V X7R 1000PF K 2012
50V X7R 4700PF K 2012
50V CH 22PF J 2012
50V X7R 1200PF K 2012
50V CH 27PF J 2012
HCFK104ZC A
HCFK103ZC A
HCQK201JCA
HCBK333K CA
HCQK391JCA
HCBK223K CA
HCQK101JCA
HCBK152K CA
HCFK103ZC A
HCTBF100M B
HCBK473K CA
HCTAH109MB
HCTAH109MB
HCTBH 479M B
HCTAH109MB
HCTAH109MB
HCTAH109MB
HCTAH109MB
HCTBF100M B
HCTAJ108MB
HCTAH109MB
HCTAH109MB
HCTBF100M B
HCTBF100M B
HCTBF100M B
HCTBF100M B
HCTAH109MB
HCFK103ZC A
HCFK104ZC A
HCQK330JCA
HCQK270JCA
HCQK680JCA
HCFK103ZC A
HCFK103ZC A
HCBK102K CA
HCFK103ZC A
1LA71511MQ
1LC89977MM
TKTC3881-B
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP TANTAL
C CHIP CERA
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP TANTAL
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
C CHIP CERA
IC CHIP SIG NALPRO C
IC CHIP DEL AY L I NE
TR C HIP
50V Y5V 0.1MF Z 2012
50V Y5V 0.01MF Z 2012
50V CH 200PF J 2012
50V X7R 0.033MF K 2012
50V CH 390PF J 2012
50V X7R 0.022MF K 2012
50V CH 100PF J 2012
50V X7R 1500PF K 2012
50V Y5V 0.01MF Z 2012
16V 10MF M 3528
50V X7R 0.047MF K 2012
25V 1MF M 3216
25V 1MF M 3216
25V 4.7MF M 3528
25V 1MF M 3216
25V 1MF M 3216
25V 1MF M 3216
25V 1MF M 3216
16V 10MF M 3528
35V 0.1MF M 3216
25V 1MF M 3216
25V 1MF M 3216
16V 10MF M 3528
16V 10MF M 3528
16V 10MF M 3528
16V 10MF M 3528
25V 1MF M 3216
50V Y5V 0.01MF Z 2012
50V Y5V 0.1MF Z 2012
50V CH 33PF J 2012
50V CH 27PF J 2012
50V CH 68PF J 2012
50V Y5V 0.01MF Z 2012
50V Y5V 0.01MF Z 2012
50V X7R 1000PF K 2012
50V Y5V 0.01MF Z 2012
LA71511M
LC89977M
KTC3881
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
TR C HIP
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R CH IP
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
R C HI P
CRYSTAL CHIP QUARTZ
PCB MAIN (RHU) AS
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
PCB MAIN M-10 AS
CO N N WA FER
CO N N WA FER
CO N N WA FER
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
PCB MAIN RADIAL AS
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C M YL A R
C M YL A R
C M YL A R
C M YL A R
C EL E CT R O
C M YL A R
C EL E CT R O
C EL E CT R O
32.768KHZ 20PPM 8038
D VT - 14 F 6L A
16V RS S 470M F (10X12.5)TP
25V RS S 330M F (10X12.5)TP
16V RS S 1000M F (10X20) TP
16V RS S 1000M F (10X20) TP
25V RU S 470M F (10X16) TP
D VT - 14 F 6L A
YW025-03 (STICK)
YW025-03 (STICK)
YW025-07 (STICK)
2W 2 0 OHM J SMAL L
2W 2 7 OHM J SMAL L
2W 3.9 OH M J SM A LL
D VT - 14 F 6L A
25V RS S 47M F (5X11) TP
50V RS S 22M F (5X11) TP
25V RS S 47M F (5X11) TP
50V RS S 1M F (5X11) T P
25V RS S 47M F (5X11) TP
50V RS S 4.7MF (5X11) TP
50V RS S 4.7MF (5X11) TP
25V RS S 100M F (6.3X11) TP
25V RS S 100M F (6.3X11) TP
50V RS S 2.2MF (5X11) TP
100V 0.1MF J (TP)
100V 0.1MF J (TP)
100V 0.047MF J (TP)
100V 0.1MF J (TP)
50V RS S 10M F (5X11) TP
50V EU 0.22MF J (T P)
25V RS S 47M F (5X11) TP
25V RS S 47M F (5X11) TP
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C CE R A
C CE R A
C CE R A
C CE R A
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C MY LA R
C E LE CTRO
C E LE CTRO
25V RS S 47M F (5X11) TP
25V RS S 47M F (5X11) TP
25V RS S 47M F (5X11) TP
25V RS S 47M F (5X11) TP
25V RS S 100M F (6.3X11) TP
25V RS S 100M F (6.3X11) TP
25V RS S 100M F (6.3X11) TP
50V RS S 0.47MF (5X11) TP
25V RS S 100M F (6.3X11) TP
25V RS S 47M F (5X11) TP
25V RS S 47M F (5X11) TP
16V RS M 47M F (5X7) TP
10V RS S 470M F 8X 11.5
16V RS M 100M F (6.3X7) TP
10V RS S 470M F 8X 11.5
16V RS M 100M F (6.3X7) TP
25V RS S 220M F (8X11.5) TP
16V RS M 47M F (5X7) TP
16V RS M 47M F (5X7) TP
50V RN D 2.2MF (5X11) TP
50V RN D 2.2MF (5X11) TP
50V CH 18PF J (TAPPING)
50V CH 18PF J (TAPPING)
50V CH 22PF J (TAPPING)
50V CH 22PF J (TAPPING)
16V RS M 47M F (5X7) TP
16V RS M 47M F (5X7) TP
16V RS M 47M F (5X7) TP
10V RS S 470M F 8X 11.5
16V RS M 47M F (5X7) TP
16V RS M 47M F (5X7) TP
25V RS S 220M F (8X11.5) TP
16V RS M 100M F (6.3X7) TP
16V RS M 47M F (5X7) TP
50V RS S 10M F (5X11) TP
25V RS S 100M F (6.3X11) TP
100V 0.022MF J TP
50V RSM 0.4 7MF (4X 7)
50V RSM 0.4 7MF (4X 7)
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
C E LE CTRO
COIL PEAKING
TR
TR
TR
TR
R SEMI FIXED
R SEMI FIXED
S W TA CT
S W TA CT
S W TA CT
S W TA CT
S W TA CT
S W TA CT
CRYSTAL QUARTZ
CRYSTAL QUARTZ
CRYSTAL QUARTZ
CRYSTAL QUARTZ
CRYSTAL QUARTZ
FILTER C ER A
FILTER C ER A
FILTER C ER A
FILTER C ER A
PCB MAIN AXIAL AS
P CB MAIN
C CE R A A XIA L
C CE R A A XIA L
C CE R A
50V RSM 1MF (4X7) TP
16V RS M 47M F (5X7) TP
16V RS M 47M F (5X7) TP
16V RSM 22 MF ( 5X 7)
16V RS M 47M F (5X7) TP
16V RS M 47M F (5X7) TP
16V RS M 47M F (5X7) TP
16V RS M 47M F (5X7) TP
50V RS S 22M F (5X11) TP
16V RS M 47M F (5X7) TP
16V RSM 22 MF ( 5X 7)
16V RS M 47M F (5X7) TP
10MH 5 MM J RADIAL
KRC 102-M (TAP PING)
KRC 102-M (TAP PING)
KRC 102-M (TAP PING)
KTC3202Y (TP)
N VZ 6T H1 2 0K OHM
RH0638C 10K OHM B
SKHV17910A
SKHV17910A
SKHV17910A
SKHV17910A
SKHV17910A
SKHV10910A
HC-49U 3.579545M (TP)
HC-49U 4.433619M 20PP TA
HC-49S 4.286000M 20PPM TP
HC-49S 16.00000M 30PPM TP
HC-49S 4.433619M 15PPM TP
SFSH5.5MC B-TF21 (TP)
TPS 5.5MB -TF 2 1 (TP )
SFSH5.5MC B-TF21 (TP)
TPS 5.5MB -TF 2 1 (TP )
D VT - 14 F 6L A
330X246 D1B
50V F 0.1 MF Z
50V F 0.1 MF Z
25V F 0.01MF Z (AXIAL)
CCZF1E103Z
CCZF1E103Z
CCZF1E103Z
CCZF1E103Z
CCZF1E103Z
CCZF1E103Z
CCZF1E103Z
CCZF1E103Z
CCZF1E103Z
CBZF1H104Z
CCZB1H 101K
CCZB1H 101K
CCZB1H 101K
CCZB1H 101K
CCZF1E223Z
CCZF1E103Z
CCZF1E103Z
CCZF1E103Z
CCZF1E223Z
CCZF1E103Z
CBZF1H104Z
CBZR1C 562M
85801065GY
85801065GY
D1N4003-- DUZ5R1B M - DUZ5R1B M - DUZ5R1B M - DUZ9R1B M - DUZ5R1B M - D1N4148-- DUZ5R1B M - D1N4148-- D1N4148-- DUZ6R2B M - DUZ6R2B M - DUZ6R2B M - DUZ6R2B M - DUZ6R2B M --
C C ERA
C C ERA
C C ERA
C C ERA
C C ERA
C C ERA
C C ERA
C C ERA
C C ERA
C CERA AXIAL
C CERA AXIAL
C CERA AXIAL
C CERA AXIAL
C CERA AXIAL
C CERA AXIAL
C C ERA
C C ERA
C C ERA
C CERA AXIAL
C C ERA
C CERA AXIAL
C CERA AXIAL
WIRE COPPER
WIRE COPPER
DIO DE
DIODE ZENER
DIODE ZENER
DIODE ZENER
DIODE ZENER
DIODE ZENER
DIO DE
DIODE ZENER
DIO DE
DIO DE
DIODE ZENER
DIODE ZENER
DIODE ZENER
DIODE ZENER
DIODE ZENER
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
50V F 0.1 MF Z
50V B 100PF K
50V B 100PF K
50V B 100PF K
50V B 100PF K
25V F 0.022MF Z
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.01MF Z (AXIAL)
25V F 0.022MF Z
25V F 0.01MF Z (AXIAL)
50V F 0.1 MF Z
16V Y5R 5600PF M
AWG 22 1/0.65 TIN C O ATING
AWG 22 1/0.65 TIN C O ATING
1N4003 (TAPPING)
U Z-5.1 BM
U Z-5.1 BM
U Z-5.1 BM
UZ-9 .1B M 9.1V
U Z-5.1 BM
1N4148 (TAPPING)
U Z-5.1 BM
1N4148 (TAPPING)
1N4148 (TAPPING)
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
DUZ6R2B M - DUZ6R2B M - DUZ6R2B M - DUZ6R2B M - D1N4148-- D1N4148-- D1N4148-- D1N4148-- D1N4148-- D1N4003-- D1N4148-- DUZ9R1B M - D1N4148-- DUZ6R2B M - D1N4148-- DM TZ6R2B- D1N4003-- D1N4003-- DUZ6R2B M - D1N4148-- D1N4148-- DUZ6R2B M - DUZ6R2B M - DUZ6R2B M - D1N4148-- D1N4148-- D1N4148-- D1N4148-- D1N4148-- D1N4148-- D1N4148-- D1N4148-- 5CPZ150K02
5CPZ220K02
5CPZ100K04
5CPZ100K04
5CPZ100K04
5CPZ100K02
5CPZ829K02
DIO DE Z E NE R
DIO DE Z E NE R
DIO DE Z E NE R
DIO DE Z E NE R
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE Z E NE R
DIO DE
DIO DE Z E NE R
DIO DE
DIO DE Z E NE R
DIO DE
DIO DE
DIO DE Z E NE R
DIO DE
DIO DE
DIO DE Z E NE R
DIO DE Z E NE R
DIO DE Z E NE R
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4003 (TAPPING)
1N4148 (TAPPING)
UZ-9 .1B M 9.1V
1N4148 (TAPPING)
UZ-6 .2B M 6.2V
1N4148 (TAPPING)
MTZ 6.2-B (TAPPING)
1N4003 (TAPPING)
1N4003 (TAPPING)
UZ-6 .2B M 6.2V
1N4148 (TAPPING)
1N4148 (TAPPING)
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
UZ-6 .2B M 6.2V
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
15UH K (AXIAL 3.5MM)
22UH K (AXIAL 3.5MM)
10UH 10.5MM K (LAL04TB)
10UH 10.5MM K (LAL04TB)
10UH 10.5MM K (LAL04TB)
10UH K (AXIAL 3.5MM)
COIL PEAKING
COIL PEAKING
COIL BEAD
COIL BEAD
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
COIL PEAKING
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
WIRE COPPER
5.6UH K (AXIAL 3.5MM)
10UH 10.5MM K (LAL04TB)
BI-3857
BI-3857
100UH K (AXIAL 10.5MM)
6.8UH K (AXIAL 3.5MM)
10UH 10.5MM K (LAL04TB)
100UH K (AXIAL 10.5MM)
100UH K (AXIAL 10.5MM)
100UH K (AXIAL 10.5MM)
100UH K (AXIAL 10.5MM)
100UH K (AXIAL 10.5MM)
100UH K (AXIAL 10.5MM)
56UH K (AXIAL 3.5MM)
120UH K (AXIAL 3.5MM)
15UH K (AXIAL 3.5MM)
100UH K (AXIAL 10.5MM)
27UH K (AXIAL 3.5MM)
220UH 3.5MM K (LAL02TB)
1/2 1.5 O H M J
1/6 8.2K O H M J
1/6 1.2K O H M J
1/ 6 22 0 OHM J
1/ 6 10 0 K OHM J
1/6 22K O HM J
1/6 8.2K O H M J
1/6 47 O H M J
1/ 4 1 OH M J
1/4 10 O H M J
1/ 4 1 OH M J
1/ 4 27 0 OHM J
1/ 6 1K OHM J
1/ 6 10 0 OHM J
1/ 6 1K OHM J
1/ 6 1K OHM J
1/6 10K O HM J
1/ 6 22 0 OHM J
1/ 6 22 0 OHM J
AWG 22 1/0.65 TIN C O ATING
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
1/6 47K O HM J
1/6 8.2K O H M J
1/6 10K O HM J
1/6 1.2K O H M J
1/ 4 22 0 OHM J
1/ 4 22 0 OHM J
1/4 10 O H M J
1/ 6 12 0 OHM J
1/ 6 12 0 OHM J
1/ 6 12 0 OHM J
1/ 6 10 0 OHM J
1/ 6 10 0 OHM J
1/ 6 10 0 OHM J
1/6 4.7K O H M J
1/6 82K O HM J
1/6 2.2K O H M J
1/6 22K O HM J
1/ 6 1K OHM J
1/ 6 1K OHM J
1/ 6 22 0 OHM J
1/ 6 22 0 OHM J
1/6 22K O HM J
1/6 4.3K O H M J
1/6 10K O HM J
1/6 10K O HM J
1/6 10K O HM J
1/6 10K O HM J
1/6 10K O HM J
1/6 4.7K O H M J
1/ 6 30 0 OHM J
1/ 6 30 0 OHM J
1/6 27K O HM J
1/6 27K O HM J
1/6 1.8K O H M J
1/6 15K O HM J
1/ 6 22 0 OHM J
1/ 6 22 0 OHM J
1/ 6 10 0 OHM J
1/ 6 10 0 OHM J
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
R C ARB ON FIL M
PCB POWER MAN UAL AS
C M YL A R
C M YL A R
C LINE ACROSS
C C ERA AC
C EL E CT R O
DIO DE
DIO DE
1/ 6 3.3 K OHM J
1/6 3.3K O H M J
1/ 6 1K OHM J
1/ 6 1K OHM J
1/ 6 1K OHM J
1/6 4.7K O H M J
1/6 4.7K O H M J
1/6 4.7K O H M J
1/6 4.7K O H M J
1/6 4.7K O H M J
1/ 6 56 0 OHM J
1/ 6 56 0 OHM J
1/ 6 56 0 OHM J
1/6 1.1K O H M J
1/ 6 22 0 OHM J
1/ 6 1K OHM J
1/ 6 1K OHM J
1/6 1.8K O H M J
1/6 2.2 O H M J
1/6 2.2 O H M J
1/6 51K O HM J
1/6 33K O HM J
1/6 51K O HM J
1/ 6 39 0 OHM J
1/ 6 56 0 OHM J
1/6 82 O H M J
1/6 1.2K O H M J
1/ 6 15 0 OHM J
1/6 4.7K O H M J
1/6 10K O HM J
1/6 3.3K O H M J
D VT - 14 F 6L A
200V PU 0.47MF J
1.6KV BU P 7500PF J
AC250V 0.47MF U /C/SNDF/SV
AC400V 4700PF F D E 7150F
400V LHS 180M F (25X35)
BYW95C (TAPPING)
BYW95C (TAPPING)
DIO DE
IC
FUSE CER A
HEAT SINK ASS`Y
IC VE RT ICAL
HE AT SIN K
SCREW TAPPTITE
IC PO WE R
HE AT SIN K
SCREW TAPPTITE
HEAT SINK ASS`Y
IC RE GULATOR
HE AT SIN K
SCREW TAPPTITE
IC RE GULATOR
SCREW TAPPTITE
IC RE GULATOR
SCREW TAPPTITE
IC RE GULATOR
IC STAN D BY
IC AMP
IC AMP
IC AMP
CO IL H-LINEA RITY
FI LTE R L I NE
CO NN WAF ER
CO NN WAF ER
CO NN WAF ER
CO NN AS
CORD POW ER AS
CO R D PO WE R
TR
HE AT SIN K
SCREW TAPPTITE
P OSIST OR
R CE M E N T
S W RE L AY
S W RE L AY
BYW95C (TAPPING)
UPC574J
SEM KO F4A H 4A 250V M F51
1TDA8356-- + 7174301011
TDA8356
AL E X
TT2 RND 3X 10 MFZN
STR -S 57 07
AL E X (2160 AS )
TT2 RND 3X 10 MFZN
1K1A7812P1 + 7174301011
KI A7812 PI
AL 6063S-T5
TT2 RND 3X 10 MFZN
KI A7812 PI
TT2 RND 3X 10 MFZN
KI A7806 PI
TT2 RND 3X 10 MFZN
KI A7806 PI
TOP2 1 0
TDA6106Q
TDA6106Q
TDA6106Q
L- 1 25 (12 5UH )
LF-2 4A1
YFW50 0- 05
YW0 2 5-10
YF254-05
YH025-03+YST025+ULW=300
CW 4232+BL102NG +T UB E=2500
CW4232 H03VV H2-F=2250
2SD2499
AL E X
TT2 RND 3X 10 MFZN
ECPCC180M290
10W 3.3 OHM J T RIPOD
DJ5D2-0(M)-0.25W
DG 12 D1 -0(M )-II 1C -1P
SO C K ET CR T
TRANS DRIVE
FBT
TRANS SMP S
TRANS SMP S
PCB POWER ODD SHAPE
C EL E CT R O
C EL E CT R O
C C ERA
C EL E CT R O
C EL E CT R O
C EL E CT R O
C C ERA
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C M YL A R
C C ERA
C EL E CT R O
PCB POWER M-10 AS
CO N N WA FER
CO N N WA FER
TER M PIN
TER M PIN
TER M PIN
TER M PIN
CO N N WA FER
CO N N WA FER
CO N N WA FER
TER M PIN
R M-OXIDE F ILM
IS MM03 S
H D-15 D
HST1142.5057
TSM-4042A2
ST-2 2A 3
D VT - 14 F 6L A
160V RSS 47M F (13X25) TP
25V RS S 470M F (10X16) TP
2KV B 470P F K (TAPPING)
160V RSS 33M F (13X20) TP
160V RSS 3.3MF (8X16) TP
250V RSS 33M F (13X25) TP
2KV B 680P F K (TAPPING)
100V RSS 10M F (6.3X11) TP
25V RU S 220M F (8X11.5) TP
25V RS S 330M F (10X12.5)TP
160V RSS 100M F (16X25) TP
16V RS S 470M F (10X12.5)TP
400V RSS 22M F (16X25) TP
16V RS S 1000M F (10X20) TP
25V RS S 470M F (10X16) TP
25V RS S 470M F (10X16) TP
16V RS S 470M F (10X12.5)TP
16V RS S 1000M F (10X20) TP
PL 63 0V 220 0P F J
2KV B 1000P F K (TAPPING)
16V RS S 330M F (8X11.5) TP
D VT - 14 F 6L A
YW025-05 (STICK)
YW025-05 (STICK)
DA-IB0214(D2.3/DY PIN)
DA-IB0214(D2.3/DY PIN)
DA-IB0214(D2.3/DY PIN)
DA-IB0214(D2.3/DY PIN)
YW025-03 (STICK)
YW025-07 (STICK)
YW025-03 (STICK)
DA-IB0214(D2.3/DY PIN)
2W 270 OHM J SMA LL
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
R M-OXIDE F ILM
R FU S IB LE
R M-OXIDE F ILM
R M-OXD I E FIL M
TER M PIN
PCB POWER RADIAL AS
C C ERA
C C ERA
C C ERA
C M YL A R
C C ERA
C C ERA
C C ERA
C C ERA
C C ERA
C M YL A R
C C ERA
C C ERA
C C ERA
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C EL E CT R O
C C ERA
C C ERA
C M YL A R
C M YL A R
C C ERA
C C ERA
2W 9.1K O HM J S M ALL
2W 9.1K O HM J S M ALL
2W 9.1K O HM J S M ALL
2W 5.1K O HM J S M ALL
2W 5.1K O HM J S M ALL
1W 1.2 OHM J (TA PPING)
1W 1K O HM J (TAPPING)
2W 4 7 K OHM J S MA LL
2W 5.6K O HM J S M ALL
2W 4 7 OHM J SMAL L
2W 0.33 OHM J (TAPPING)
2W 5.6K O HM J S M ALL
2W 1 OHM J SMA LL
DA-IB0214(D2.3/DY PIN)
D VT - 14 F 6L A
50V B 1000PF K (TAPPING)
500V B 470PF K (TAPPING)
500V B 1000PF K (TAPPIN G )
100V 0.1MF J (TP)
500V B 4700PF K (TAPPIN G )
500V B 220PF K (TAPPING)
500V B 4700PF K (TAPPIN G )
500V B 1000PF K (TAPPIN G )
500V SL 47PF J (TAPPING)
100V 0.1MF J (TP)
1KV F 4700PF Z (T)
1KV F 4700PF Z (T)
50V F 0.01MF Z (TAPPING )
50V RS S 47M F (6.3X11) TP
25V RS S 100M F (6.3X11) TP
25V RU S 100M F (6.3X11) TP
25V RS S 220M F (8X11.5) TP
25V RS S 47M F (5X11) TP
1KV F 4700PF Z (T)
1KV F 4700PF Z (T)
250V M EU 0.1MF K
250V M EU 0.1MF K
50V B 560PF K (TAPPING)
50V B 560PF K (TAPPING)
C CE R A
C CE R A
CLI P F USE
CLI P F USE
CO IL C H O K E
TR
TR
TR
TR
TR
PCB POWER AXIAL AS
PC B PO WE R
C CE R A A XIA L
C CE R A
C CE R A A XIA L
C CE R A A XIA L
C CE R A A XIA L
C CE R A A XIA L
C CE R A
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
DIO DE
50V B 560PF K (TAPPING)
50V F 0.047MF Z (TAPPING)
PFC5000-0702
PFC5000-0702
610G0233(470K)
KTC3198Y
KTC3207 (TP)
KTC3202Y (TP)
KTC3202Y (TP)
KTA1266Y (TP)
D VT - 14 F 6L A
330X123(330X246/2)D1B
50V B 1000PF K
25V F 0.01MF Z (AXIAL)
50V B 1000PF K
50V F 0.1 MF Z
50V F 0.1 MF Z
50V F 0.1 MF Z
25V F 0.01MF Z (AXIAL)
1N4937 (TAPPING)
1N4937 (TAPPING)
1N4937 (TAPPING)
1N4937 (TAPPING)
1N4148 (TAPPING)
1N4937 (TAPPING)
1N4148 (TAPPING)
1N4148 (TAPPING)
1S1888 (TAPPING)
1S1888 (TAPPING)
1S1888 (TAPPING)
1S1888 (TAPPING)
1N4937 (TAPPING)
1N4937 (TAPPING)
BYV95C (TAPPING)
1N4937 (TAPPING)
BYV95C (TAPPING)
BYV95C (TAPPING)
RU 1P (TAPPING)
1N4148 (TAPPING)
!
98
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