Panasonic WV-CF102E User manual

ORDER NO. AVS0901083C8
Colour CCTV Camera
Model No. WV-CF102
SPECIFICATIONS
Panasonic Corporation
All rights reserved. Unauthorized copying and
distribution is a violation of law.
©2009
Power source and power
consumption: 12 V DC, 180 mA
Image sensor: 1/4 inch interline transfer CCD
Effective pixels: 752 (H) x 582 (V)
Scanning area: 3.7 (H) x 2.7 (V) mm
Scanning system: 2 : 1 interlace
Scanning lines: 625 lines
Scanning frequency: Horizontal: 15.625 kHz
Vertical: 50.00 Hz
Synchronization: Internal, multiplexed vertical drive (VD2)
Resolution: Horizontal: 540 TV lines (at center)
Vertical: 400 TV lines (at center)
Video output: 1.0 V[p-p] PAL composite 75 Ω
White balance: ATW
Signal-to-noise ratio: 50 dB (equivalent to AGC Off, weight On)
Minimum illumination: 1.2 lx at F2.0
Switch function: Backlight compensation selector (ON/OFF), Adaptive Black
Stretch selector (ON/OFF), Simple day/night mode selector
(ON/OFF)
Fixed focal length lens:sneL
Focal length: f=2.5 mm
F number: F2.0
Angle of view: Horizontal: 90°
Vertical: 65°
The Product with PbF

CAUTION
RISK OF ELECTRIC SHOCK
DO NOT OPEN
CAUTION:
TO REDUCE THE RISK OF ELECTRIC SHOCK, DO
NOT REMOVE COVER (OR BACK). NO USER
SERVICEABLE PARTS INSIDE.
REFER SERVICING TO QUALIFIED SERVICE
PERSONNEL.
This symbol warns the user that uninsulated voltage within the
unit may have sufficient magnitude to cause electric shock.
Therefore, it is dangerous to make any kind of contact with any
inside part of this unit.
This symbol alerts the user that important literature concerning
the operation and maintenance of this has been included.
Therefore, it should be read carefully in order to avoid any
problems.
IMPORTANT SAFETY NOTICE
About Lead Free Solder (PbF)
Distribution of PbF PCB:
PCBs (manufactured) using lead free solder (PbF) will have a stamp on the PCB.
Caution:
8Lead free solder has a higher melting point than standard solder. Typically the melting points is 35 °C – 40 °C
(95 °F – 104 °F) higher. Please use a soldering iron with temperature control and adjust it to 360 °C – 370 °C
(680 °F – 698 °F). In case of using high temperature soldering iron, please be careful not to heat too long.
8Lead free solder will tend to splash when heated too high (600 °C / 1112 °F).
8Lead free solder (Sn - 3.0Ag – 0.5Cu) or equivalents are recommended on repairing our lead free soldered PCB.
YWARNING
This service information is designed for experienced repair technicians only and is not designed for use by the
general public.
It does not contain warnings or cautions to advise non-technical individuals of potential dangers in attempting to
service a product.
Products powered by electricity should be serviced or repaired only by experienced professional technicians. Any
attempt to service or repair the product or products dealt with in this service information by anyone else could result
in serious injury or death.
8There are special components used in this equipment which are important for safety. These parts are indicated
by the ”
Y ” mark on the schematic diagram and the replacement parts list. It is essential that these critical parts
should be replaced with manufacturer's specified parts to prevent X-radiation, shock, fire, or other hazards.
Do not modify the original design without permission of manufacture.
8If a wiring unit is supplied as a repair part, the entire wiring unit shall be replaced, rather than repairing
and connecting the wires, even when only some of its wires are broken.

STANDARD ACCESSORIES
Operating Instructions ...........................1 pc.
Top cover fixing screw (M3)...................1 pc.
Template ................................................1 pc.
Adjusting angle: Panning range: +180 ° to –140 °
Tilting range: ±75 °
Azimuth range: ±145°
Ambient temperature: –10 °C - +50 °C
Ambient humidity: Less than 90 %
Dimensions: ø108 mm x 83 mm (H)
Weight: 300 g
Wei
g
hts and dimensions indicated are approximate.
LIMITATION OF LIABILITY
THIS PUBLICATION IS PROVIDED "AS IS"
WITHOUT WARRANTY OF ANY KIND,
EITHER EXPRESS OR IMPLIED, INCLUDING
BUT NOT LIMITED TO, THE IMPLIED WAR-
RANTIES OF MERCHANTABILITY, FITNESS
FOR ANY PARTICULAR PURPOSE, OR
NON-INFRINGEMENT OF THE THIRD
PARTY'S RIGHT.
THIS PUBLICATION COULD INCLUDE
TECHNICAL INACCURACIES OR TYPO-
GRAPHICAL ERRORS. CHANGES ARE
ADDED TO THE INFORMATION HEREIN, AT
ANY TIME, FOR THE IMPROVEMENTS OF
THIS PUBLICATION AND/OR THE CORRE-
SPONDING PRODUCT (S).
DISCLAIMER OF WARRANTY
IN NO EVENT SHALL Panasonic Corporation
BE LIABLE TO ANY PARTY OR ANY PER-
SON, EXCEPT FOR REPLACEMENT OR
REASONABLE MAINTENANCE OF THE
PRODUCT, FOR THE CASES, INCLUDING
BUT NOT LIMITED TO BELOW:
(1) ANY DAMAGE AND LOSS, INCLUDING
WITHOUT LIMITATION, DIRECT OR
INDIRECT, SPECIAL, CONSEQUENTIAL
OR EXEMPLARY, ARISING OUT OF OR
RELATING TO THE PRODUCT;
(2) PERSONAL INJURY OR ANY DAMAGE
CAUSED BY INAPPROPRIATE USE OR
NEGLIGENT OPERATION OF THE USER;
(3) UNAUTHORIZED DISASSEMBLE,
REPAIR OR MODIFICATION OF THE
PRODUCT BY THE USER;
(4) INCONVENIENCE OR ANY LOSS ARIS-
ING WHEN IMAGES ARE NOT DIS-
PLAYED, DUE TO ANY REASON OR
CAUSE INCLUDING ANY FAILURE OR
PROBLEM OF THE PRODUCT;
(5) ANY PROBLEM, CONSEQUENTIAL
INCONVENIENCE, OR LOSS OR DAM-
AGE, ARISING OUT OF THE SYSTEM
COMBINED BY THE DEVICES OF THIRD
PARTY;
(6) ANY CLAIM OR ACTION FOR DAM-
AGES, BROUGHT BY ANY PERSON OR
ORGANIZATION BEING A PHOTO-
GENIC SUBJECT, DUE TO VIOLATION
OF PRIVACY WITH THE RESULT OF
THAT SURVEILLANCE-CAMERA'S PIC-
TURE, INCLUDING SAVED DATA, FOR
SOME REASON, BECOMES PUBLIC OR
IS USED FOR THE PURPOSE OTHER
THAN SURVEILLANCE.

CONTENTS
MAJOR OPERATING CONTROLS AND THEIR FUNCTIONS .............................................................................. 1-1
ADJUSTMENT PROCEDURE................................................................................................................................. 2-1
WIRING DIAGRAM.................................................................................................................................................. 3-1
OVERALL BLOCK DIAGRAM ................................................................................................................................ 3-2
SCHEMATIC DIAGRAM
SENSOR BOARD ................................................................................................................................................ 4-1
MAIN BOARD (1/2) .............................................................................................................................................. 4-2
MAIN BOARD (2/2) .............................................................................................................................................. 4-3
I/F BOARD ........................................................................................................................................................... 4-4
POWER BOARD .................................................................................................................................................. 4-5
CONDUCTOR VIEW
SENSOR BOARD ................................................................................................................................................ 5-1
MAIN BOARD....................................................................................................................................................... 5-2
I/F BOARD ........................................................................................................................................................... 5-3
POWER BOARD .................................................................................................................................................. 5-4
EXPLODED VIEW
(1/4) (MAIN UNIT-1) .............................................................................................................................................6-1
(2/4) (MAIN UNIT-2) .............................................................................................................................................6-2
(3/4) (CAMERA UNIT).......................................................................................................................................... 6-3
(4/4) (PACKAGING) ............................................................................................................................................. 6-4
REPLACEMENT PARTS LIST................................................................................................................................ 7-1

1-1
MAJOR OPERATING CONTROLS AND THEIR FUNCTIONS
qVideo output connector
Composite video signals are transmitted.
If this unit is connected to the multiplex
unit, the multiplexed VD2 that is priori-
tized over INT is automatically selected.
wMarker
This marker is used when the top cover
is installed.
eDip switch
Selects ON/OFF of backlight compensa-
tion, Adaptive Black Stretch or Simple
day/night mode.
•Simple day/night mode selector [D/N]
ON: The camera selects black-and-white
mode if the picture is dark, or color
mode if the picture is bright enough.
OFF: Color picture is displayed normally.
Default setting: OFF
Note:
The simple day/night function is
established by utilising the SENSE UP
function for B/W images. The IR filter
is secured.
•Adaptive Black Stretch selector [B.S.]
ON: The dark area of the object is auto-
matically corrected to lighten it.
OFF: Does not compensate.
Default setting: OFF
Important:
In the case of "ON" setting, noise
may be increased in the dark area
of the object.
In addition, darkness and brightness
may be emphasized in the vicinity of
the boundary between the dark and
bri
g
ht areas.

1-2
•Backlight compensation selector [BLC]
ON: Compensates the background auto-
matically if it is brighter than the
object.
OFF: This mode is used when the front
of the object is extremely bright.
Default setting: OFF
Note:
Under some conditions, such as
extremely strong backlight, the
desired compensation effect may
not be achieved even if the mode is
set to ON to detect the backlight
level.
rLens unit
Rotate to adjust focus.
tAzimuth adjuster
Adjusts the azimuth angle of the cam-
era.
yTilting table
Adjusts the tilting position of the camera.
uPanning table
Adjusts the panning position of the cam-
era.
i-1 Panning table lock screw [LOCK]
Fixes the panning table.
i-2 Panning table lock screw hole [LOCK]
(backup)
oPower cable
Supplies 12 V DC from an external power
source.
!0 Cable access hole
!1 Fingerplate

2-1
1. Test Equipment Required
The following Test Equipments are required for Adjustment
of the Colour CCTV Camera WV-CF102.
8 Oscilloscope
8 Frequency Counter
8 Vectorscope
8 Underscanned Colour Video Monitor
8 12 V DC Power Supply Unit
8 Personal Computer (Windows XP with 25-pin Parallel
Port)
8 Lux Meter
8 Lighting (140 footcandles (1 400 lx), Colour Temperature
3 200 K)
8 Colour Temperature Conversion Filters
Recommended manufacturer and part numbers are
shown in Table 1-1.
Table 1-1
8 Radiation Chart
8 Logarithmic Gray Scale Chart
(Part Number: YWV2310RB99)
8 Colour Chip Chart (Part Number: YWV2100RB98)
8 White Chart or White Paper
8 EVR (Electric Variable Resistor) Adjustment Kit as shown
in Fig. 1-1. (Part Number: YWV0JA0019AN)
8 EVR Interface Board as shown in Fig. 1-2.
(Part Number: V0JA0039AN)
ADJUSTMENT PROCEDURE
Conversion KENKO KODAK
3 200 K →5 100 K C12 80B
8 Extension Cable as shown in Fig. 1-3.
(Part Number: B50040BEGDD2)
8 Extension Board Ass'y as shown in Fig. 1-4.
(Part Number: V0JA0041AN)
Fig. 1-4
Fig. 1-1
Fig. 1-3
EVR Adjustment Kit
Cable of EVR
Adjustment Kit
Fig. 1-2
CN2
To
I/F Board
CN5
CN1
To
Cable of EVR
Adjustment Kit
CN2
CN1 CN4
CN5
To
Main Board
CN1
To
Sensor Board
CN2
To
Extension
Cable
To
Extension
Cable

2-2
2. Disassembling Procedure for
Adjustment
8 Referring to Fig. 2-1, turn the Top Cover in the Direction
of the arrow.
8 Referring to Fig. 2-2, remove three screws that secure
the Bottom Plate and remove the Button Plate from the
Main Unit.
8 Referring to Fig. 2-3, disconnect the connector CN3 on
the I/F Board and remove the Flexible Cable of the Main
Unit.
Fig. 2-1
Fig. 2-2
Fig. 2-3
8 Referring to Fig. 2-4, remove one screw (Special Screw)
that secure the Camera Unit.
8 Referring to Fig. 2-5, release the hook part of the Camera
Unit by using the pliers for lead or equivalent and remove
the Camera Unit from the Main Unit.
When you release the hook part, because there is a
risk of damege, please be careful.
8 Referring to Fig. 2-6, disconnect the connector CN3 on
the Main Board and remove the Flexible Cable from the
Camera Unit.
Fig. 2-4
Fig. 2-5
Top Cover
Remove three screws.
Bottom Plate
Remove one screw.
Camera Unit
Fig. 2-6
Camera Unit
CN3 on
Main Board Flexible
Cable
Main Unit
CN3 on I/F Board
Bottom Plate
Flexible Cable
Camera Unit
Hook

2-3
8 Referring to Fig. 2-7, remove two screws that secure the
CCD Bottom Case and remove the CCD Bottom Case
from the Camera Unit.
8 Referring to Fig. 2-8, disconnect the connectors between
CN2 on the Sensor Board and CN1 on the Main Board,
remove the Main Board from the Camera Unit.
8 Referring to Fig. 2-9, remove two screws that secure the
Sensor Board and remove the Sensor Board from the
Camera Unit.
Fig. 2-7
8Confirm that removed the Sensor Board and the Main
Board from the Camera Unit as shown in Fig. 2-10.
8 Referring to Fig. 2-11, reconnect the connectors by using
the Extension Cable (Refer to Fig. 1-3) and the Extension
Board Ass'y (Refer to Fig. 1-4) between CN2 on the
Sensor Board and CN1 on the Main Board for Servicing.
Fig. 2-8
Camera Unit CN2
Sensor Board
CN1
Main Board
Fig. 2-9
Remove two screws. Camera Unit
Sensor Board
Fig. 2-11
Main Board
Extension
Board Ass'y
Sensor Board
Extension Cable
Fig. 2-10
Sensor Board Main Board
Remove two screws.
CCD Bottom Case
Camera Unit

2-4
3.2. Setting Up for EVR Adjustment
(1) Preparation
8Personal Computer (Windows XP with 25-pin Parallel
Port)
8EVR Adjustment Kit (Refer to Fig. 1-1)
8EVR Interface Board (Refer to Fig. 1-2)
8Adjustment package (Download from BIG-WEB)
8SOFT EV2 package (Download from BIG-WEB)
(2) Connection for EVR Adjustment Kit
8Referring to Fig. 3-1, connect the Cable of EVR
Adjustment Kit to CN2 on the EVR Interface Board.
8Connect CN1 on the EVR Interface Board to CN5 on the
I/F Board of WV-CF102.
8Connect the connector of the EVR Adjustment Kit to the
Parallel Port of Personal Computer.
8Connect the 12 V DC Power Supply Unit to the EVR
Adjustment Kit.
3.3. Setting Up
8 An initial setting of the Dip Switch SW5 on the I/F Board
as follows.
Back Light Compensation Selector
(BLC ON,OFF) ............................................................OFF
Adaptive Black Stretch Selector
(B.S. ON,OFF) ............................................................OFF
Simple Day/Night Mode Selector
(D/N ON,OFF).............................................................OFF
8 The adjustments should be done with this initial setting,
uniess otherwise specified.
8 The adjustments should be done after 10 minutes warm
up.
3. Connection and Setting Up for
Adjustment
3.1. Connection
8The Fig. 3-1 shows the connecting diagram for the
Adjustment Procedure.
8Connect the Underscanned Colour Video Monitor to
the Video Output Connector of WV-CF102 through the
Vectorscope by using the coaxial cables.
8Terminate the input terminal of the Underscanned Colour
Video monitor with 75 Ω.
8Connect the 12 V DC Power Supply Unit to the Power
Cable of WV-CF102.
8Connect the Personal Computer to WV-CF102 through
the EVR Adjustment Kit and the EVR Interface Board.
(Refer to 3.2. Setting Up for EVR Adjustment)
8Connect the probe of the Oscilloscope or Frequency
Counter at the desired Test point in each adjustment
step.
Fig. 3-1
Test Chart
Underscanned
Colour
Video Monitor
75 Ω
WV-CF102
Vectorscope
Video Output
Connector
Power Cable 12 V DC
Power Supply Unit
12 V DC
Power Supply Unit
EVR
Adjustment
Kit
Cable of EVR
Adjustment kit
EVR
Interface
Board
Parallel
Port Personal
Computer

2-5
4. Adjustment Procedure
8 The Location of Test Points and Adjusting Controls refer
to Wiring Diagram on page 3-1.
4.1. Adjustment Procedure-1
(1) Power Supply Voltage Confirmation
8 Confirm that +9.0V line voltage is obtained 9.0 V ± 1.0 V
at 50 mA.
8 Confirm that +5.0V line voltage is obtained 5.0 V ± 1.0 V
at 250 mA.
(2) Focus Adjustment
Test Point: Video Output Connector
Adjust: Lens
8Open the Lens iris.
8Set the Radiation Chart 1.2 m away from the Camera.
8Referring to Fig. 4-4-1, the Lens is rotated to the left and
right, adjust the Lens to obtain a focal point while viewing
the image of the Video Monitor.
4.2. Adjustment Procedure-2
(EVR Adjustment)
4.2.1. Installation of EVR Software to
Personal Computer
1. Open the Adjustment package folder.
2. Open the Install package.
3. Open DISK1 file.
4. Excute the SETUP.EXE.
(Store the software to the default position)
5. Click OK button of "iotest Setup" program screen.
6. Click the icon button of "iotest Setup" program screen.
(Software is saved into C:¥Program Files¥ by file name
"iotest")
7. Click OK button of "iotest Setup" program screen.
8. Open the Adjustment package folder.
9. Copy "scp060601_CF102_PAL-16k256kE2P_XP.exe"
into the iotest folder.
10. Then open the Install package and copy all files in
DISK4 into the iotest folder.
4.2.2. Execution of Adjustment Software
1. Open the iotest folder.
2. Execute the adjustment software (scp060601_CF102_
PAL-16k256kE2P_XP.exe).
The following adjustment menu will be displayed. (Make
sure "EEPROM (E)" is selected as shown.)
Note: If not operating, download following files from the
internet and arrange into C:¥WINDOWS¥SYSTEM32.
File names : MSVBVM60.DLL, COMDLG32.OCX
(DISK5 are in the same file)
Fig. 4-1-1
Lens

2-6
3. Click Tool(T) and select "EEPROM CHECK".
4. "EEPROM CHECK" menu will be displayed.
Click CHECK button.
If "256kbits EEPROM" is displayed, continue next step.
If "16kbits EEPROM" is displayed, skip to item-7.
Confirm the display and click ESC button for close
"EEPROM CHECK" menu.
5. Click OPEN+LOAD(L) button.
6. Open the SOFT EV2 package and select SOFT.
(scp_SOFT_Ver0609141435.ev2)
The EV2 software will be stored in EEPROM (address
4000-7C08).
Note: If "SLAVE-ADDRESS Receiver Error" appears, click
Option (O) and change "WAIT" valume within the limit of
from 20 up to 250. Then excute item-5 and 6 again.
(Data are just example)

2-7
7. Click OPEN+LOAD(L) button and load EV2 data.
EV2 data: CF102_PAL_DATA_ver100.ev2
8. The EV2 data will be stored in EEPROM (address
0000-07FF).
Note: If "SLAVE-ADDRESS Receiver Error" appears, click
Option (O) and change "WAIT" valume within the limit of
from 20 up to 250. Then excute item-7 and 8 again.
<About the other Button Functions>
8 If you click READ(R) button, you can confirm the
setup data.
8 If you click READ+SAVE(S) button, you can save the
data of the Camera.
8 If you click RESET(P) button, it is same meaning of
power reset.
8 If you click END(Z) button, you can finish the EVR
Adjustment.
8 GRID(G) button is not used for adjustment.
4.2.3. Adjustment Procedure
1. Click Adjust(A) to open adjustment menu and select
"Adjust".
2. Select each item from the menu, press ENTER key of the
Personal Computer or click the white colour Button on
the right side of the Adjustment menu and perform each
adjustment.
3. Press ARROW keys M< of the Personal Computer to
change the Current Data or input the data into New Data
box. Then press ENTER key of the Personal Computer.
4. In order to go next step, click ESC button or press the
ENTER key of the Personal Computer.
The adjusted data is stored.
5. When finished the adjustment, click END(Z) button.
(Data are just example)
(Data are example of the fsc Adjustment)

2-8
(2) fsc Adjustment
Test Point: TD70 or TD71 (14MHz) Main Board
8 Confirm that the item "2. fsc Adjustment" is displayed.
8 Connect the Frequncy Counter to TD70 or TD71.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Subcarrier Frequency becomes
14.18750 MHz ± 40 Hz.
8 Press ENTER key of the Personal Computer for next
adjustment.
(3) High Clip Level Adjustment
Test Point: Video Output Connector
8 Confirm that the item "3. High Clip Label Adjustment" dis-
played.
8 Confirm the Colour Temperature at 3 200 K.
8 Aim the Camera at the Logarithmic Gray Scale Chart.
8 Connect the terminated Oscilloscope with 75 Ωto the
Video Output Connector.
8 Adjust data with the ARROW keys M< of the Personal
Computer so that the signal level becomes 805 mV
+35
– 0 mV as shown in Fig. 4-2-1.
8 Press ENTER key of the Personal Computer for next
adjustment.
(4) Pedestal Level Adjustment
Test Point: Video Output Connector
8 Confirm that the item "4. Pedestal Level Adjustment" dis-
played.
8 Connect the terminated Oscilloscope with 75 Ωto the
Video Output Connector.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Pedestal level becomes 50 mV ± 5
mV as shown in Fig. 4-2-2.
8 Press ENTER key of the Personal Computerfor next
adjustment.
(6) Video Output Gain Adjustment
Test Point: Video Output Connector
8 Confirm that the item "6. Video Out Gain Adjustment" dis-
played.
8 Keep the Colour Temperature at 3 200 K.
8 Aim the Camera at the Logarithmic Gray Scale Chart.
8 Connect the terminated Oscilloscope with 75 Ωto the
Video Output Connector.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Video signal level becomes 700 mV
± 50 mV as shown in Fig. 4-2-3.
8 Press ENTER key of the Personal Computer for next
adjustment.
805 mV
+ 35
– 0
Fig. 4-2-1
50 mV ±5 mV
Fig. 4-2-2
700 mV ±50 mV
Fig. 4-2-3

2-9
(8.2.a) Burst Phase R-Y Adjustment
Test Point: Video Output Connector
8 Confirm that the item "8.2.a. Burst Phase R-Y
Adjustment" displayed.
8 Keep the Colour Temperature at 3 200 K.
8 Aim the Camera at the Logarithmic Gray Scale Chart.
8 Set the Mode Switch of the Vectorscope to NTSC mode.
8 Adjust data with ARROW Keys M< of the Personal
Computer so that the Burst phase becomes 135° ± 1° as
shown in Fig. 4-2-4.
8 Change the Mode Switch of the Vectorscope from the
NTSC mode to the PAL mode.
8 Adjust data with ARROW Keys M< of the Personal
Computer so that the Burst phase becomes 90° ± 2° as
shown in Fig. 4-2-4.
8 Press ENTER key of the Personal Computer for next
adjustment.
(8.2.a) Burst Phase B-Y Adjustment
Test Point: Video Output Connector
8 Confirm that the item "8.2.a. Burst Phase B-Y
Adjustment" displayed.
8 Keep the Colour Temperature at 3 200 K.
8 Aim the Camera at the Logarithmic Gray Scale Chart.
8 Set the Mode Switch of the Vectorscope to NTSC mode.
8 Adjust data with ARROW Keys M< of the Personal
Computer so that the Burst phase becomes 135° ± 1° as
shown in Fig. 4-2-5.
8 Change the Mode Switch of the Vectorscope from the
NTSC mode to the PAL mode.
8 Adjust data with ARROW Keys M< of the Personal
Computer so that the Burst phase becomes 90° ± 2° as
shown in Fig. 4-2-5.
8 Press ENTER key of the Personal Computer for next
adjustment.
(8.2.b) Burst Level Adjustment
Test Point: Video Output Connector
8 Confirm that the item "8.2.b. Burst Level Adjustment" dis-
played.
8 Keep the Colour Temperature at 3 200 K.
8 Aim the Camera at the Logarithmic Gray Scale Chart.
8 Connect the terminated Oscilloscope with 75 Ωto the
Video Output Connector.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Burst level becomes 300 mV ± 10
mV as shown in Fig. 4-2-6.
8 Press ENTER key of the Personal Computer.
8 Click ESC button.
8 Select the item "8.2.a. Burst Phase R-Y Adjustment" with
ARROW keys M< of the Personal Computer and press
ENTER key of the Personal Computer.
8 Repeat adjustment steps (8.2.a),(8.2.a) and (8.2.b) until
Burst phase and level are adjusted to proper position as
shown in Fig. 4-2-4 to Fig. 4-2-6.
8 Aim the Camera at the White Chart or White paper for
next adjustment.
8 Press ENTER key of the Personal Computer for next
adjustment.
(9.1) 3200K White Balance Adjustment
Test Point: Video Output Connector
8 Confirm that the item "9.1. 3200K White Balance
Adjustment" displayed.
8 Keep the Colour Temperature at 3 200 K.
8 Aim the Camera at the White Chart or White Paper.
8 Click the WRITE button.
8 Press ENTER key of the Personal Computer for next
adjustment.
cy
gMG
YL
yl B
b
GCY
dG
10°
0°
10°
dø
100%
75%
R
V
U
mg
r
20%
20%
dG
cy
gMG
YL
yl B
b
GCY
dG
10°
0°
10°
dø
100%
75%
R
V
U
mg
r
20%
20%
dG
135°±1°
(90°±2°)
(135°±1°)
90°±2°
PAL modeNTSC mode
Fig. 4-2-4
cy
gMG
YL
yl B
b
GCY
dG
10°
0°
10°
dø
100%
75%
R
V
U
mg
r
20%
20%
dG
cy
gMG
YL
yl B
b
GCY
dG
10°
0°
10°
dø
100%
75%
R
V
U
mg
r
20%
20%
dG
135°±1°(135°±1°)
(90°±2°)
90°±2°
NTSC mode PAL mode
Fig. 4-2-5
300 mV ±10 mV
Fig. 4-2-6

2-10
(10.2.a) 3200K R-Y Gain Adjustment
Test Point: Video Output Connector
8 Confirm that the item "10.2.a. 3200K R-Y Gain
Adjustment" displayed.
8 Keep the Colour Temperature at 3 200 K.
8 Aim the Camera at the Colour Chip Chart.
8 Set the Gain Control of the Vectorscope to the normal
position.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Red gain becomes 220 % ± 5 %.
Note: Chrominance phase and gain are adjusted to proper
position as shown in Fig. 4-2-7 and Table 4-2-1.
8 Press ENTER key of the Personal Computer for next
adjustment.
(10.2.b) 3200K B-Y Gain Adjustment
Test Point: Video Output Connector
8 Confirm that the item "10.2.b. 3200K B-Y Gain
Adjustment" displayed.
8 Keep the Colour Temperature at 3 200 K.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Yellow gain becomes 110 % ± 5 %.
Note: Chrominance phase and gain are adjusted to proper
position as shown in Fig. 4-2-7 and Table 4-2-1.
8 Press ENTER key of the Personal Computer for next
adjustment.
(10.2.d) 3200K R-Y Matrix Adjustment
Test Point: Video Output Connector
8 Confirm that the item "10.2.d. 3200K R-Y Matrix
Adjustment" displayed.
8 Keep the Colour Temperature at 3 200 K.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Red vector phase becomes 108° ±
2°.
Note: Chrominance phase and gain are adjusted to proper
position as shown in Fig. 4-2-7 and Table 4-2-1.
8 Press ENTER key of the Personal Computer for next
adjustment.
(10.2.e) 3200K B-Y Matrix Adjustment
Test Point: Video Output Connector
8 Confirm that the item "10.2.e. 3200K B-Y Matrix
Adjustment" displayed.
8 Keep the Colour Temperature at 3 200 K.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Yellow vector phase becomes 165°
± 5°.
8 Repeat adjustment steps (10.2.a),(10.2.b),(10.2.d)
and (10.2.e) until both Chrominance phase and gain are
adjusted to proper position as shown in Fig. 4-2-7 and
Table 4-2-1.
8 Press ENTER key of the Personal Computer for next
adjustment.
(10.3.a) 5100K R-Y Gain Adjustment
Test Point: Video Output Connector
8 Confirm that the item "10.3.a. 5100K R-Y Gain
Adjustment" displayed.
8 Change the Colour Temperature from 3 200 K to 5 100 K
by mounting the Colour Temperature Conversion Filter on
the Lens.
8 Aim the Camera at the Colour Chip Chart.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Red gain becomes 220 % ± 5 %.
Note: Chrominance phase and gain are adjusted to proper
position as shown in Fig. 4-2-8 and Table 4-2-2.
8 Press ENTER key of the Personal Computer for next
adjustment.
(10.3.b) 5100K B-Y Gain Adjustment
Test Point: Video Output Connector
8 Confirm that the item "10.3.b. 5100K B-Y Gain
Adjustment" displayed.
8 Keep the Colour Temperature at 5 100 K.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Yellow gain becomes 110 % ± 5 %.
Note: Chrominance phase and gain are adjusted to proper
position as shown in Fig. 4-2-8 and Table 4-2-2.
8 Press ENTER key of the Personal Computer for next
adjustment.
cy
gMG
YL
yl B
b
GCY
dG
10°
0°
10°
dø
100%
75%
R
V
U
mg
r
20%
20%
dG
Red
±2˚
220 % ±5 %
Phase
Gain
Yellow
±5˚
110 % ±5 %
108˚ 165˚
Table 4-2-1
Fig. 4-2-7

2-11
(10.3.c) 5100K R-Y Matrix Adjustment
Test Point: Video Output Connector
8 Confirm taht the item "10.3.c. 5100K R-Y Matrix
Adjustment" displayed.
8 Keep the Colour Temperature at 5 100 K.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Red vector phase becomes 108° ±
2°.
Note: Chrominance phase and gain are adjusted to proper
position as shown in Fig. 4-2-8 and Table 4-2-2.
8 Press ENTER key of the Personal Computer for next
adjustment.
(10.3.d) 5100K B-Y Matrix Adjustment
Test Point: Video Output Connector
8 Confirm that the item "10.3.d. 5100K B-Y Matrix
Adjustment" displayed.
8 Keep the Colour Temperature at 5 100 K.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the Yellow vector phase becomes 165°
± 5°.
8 Repeat adjusment steps (10.3.a) to (10.3.d) until both
Chrominance phase and gain are adjusted to proper posi-
tion as shown in Fig. 4-2-8 and Table 4-2-2.
8 Press ENTER key of the Personal Computer for next
adjustment.
(11) High Light Chroma Clip Adjustment
Test Point: Video Output Connector
Adjust: RAM (1028)
8 Confirm that the item "11. Hight Light Chroma Clip
Adjustment" displayed.
8 Return the Colour Temperature from 5 100 K to 3 200 K
by removing the Colour Temperature Conversion Filter
from the Lens.
8 Aim the Camera at the White Chart or White Paper.
8 Connect the terminated Oscilloscope with 75 Ωto the
Video Output Connector.
8 Adjust data with ARROW keys M< of the Personal
Computer so that the false chrominance level becomes
minimum as shown in Fig. 4-2-9.
Note: The Data of 1028 should be adjusted from FF, the first
minimum point of the false chrominance signal is
adjusting point.
8 Press ENTER key of the Personal Computer.
8 After completing the adjustment, click the END(Z) button
to finish this adjustment procedure.
Table 4-2-2
cy
gMG
YL
yl B
b
GCY
dG
10°
0°
10°
dø
100%
75%
R
V
U
mg
r
20%
20%
dG
Red
±2˚
220 % ±5 %
Phase
Gain
Yellow
±5˚
110 % ±5 %
108˚ 165˚
Fig. 4-2-8
Minimize
Chrominance
Level
Fig. 4-2-9

WIRING DIAGRAM
E11
E12
POWER
CABLE
E13
VIDEO
OUTPUT
CABLE
12
CN1
41
CN3
1
2
CN7
19 210
CN5
150
249
CN1
250
149
CN2
51
CN2
15
E2
291 302
CN3
230
129
CN3
(IC2)
(SW5)
(Connect by using the Extension Cable and
the Extension Board Ass’y for Servicing)
TD71 (TD70)
(14MHz)
(TD70 is placed
in the back)
TO
EVR
ADJUSTMENT
KIT
THROUGH
EVR
INTERFACE
BOARD
VIDEO OUTPUT
CONNECTOR
I/F BOARD
POWER
BOARD
SENSOR BOARD MAIN BOARD
3-1

SCHEMATIC DIAGRAM OF SENSOR BOARD
CCDSUB
OV2
OV1
OV4
OV3
OV4
OV3
OV2
OV1
CCD_OUT
ALC_DC
R CCD_OUT H2 H1
OSCIN
SDAT
CS
SCLK
MOB
CH2CH1
V1
OV4
V2
V3
OV3
CCDSUB
V4
SUB
FWHD FVD
ALC_VREF
SCK0
SOUT0
SLD0
D[0]
D[1]
D[2]
D[3]
D[4]
D[5]
D[6]
D[7]
D[8]
D[9]
D[10]
D[11]
ADCLK
R
H2
H1
FVD
D[0]
RESET3.3V
HCLR
PHOTO_OUT
ALC_VREF
OV2
OV1
HCLR
CS
V3
V2
V4
D[6]
D[3]
D[7]
D[11]
SDAT
SCLK
SCK0
MOB
PHOTO_OUT
SOUT0
SUB
FWHD
ADCLK
D[2]
D[4]
SLD0
CH1
CH2
D[8]
V1
ALC_VREF
D[10]
D[9]
ALC_DC
OSCIN
RESET3.3V
D[1]
D[5]
Q5
1
2
34
5
6
C10
OPEN
R41
100
3.3V
IC7
1A_OUTPUT
2A–INPUT
3A+INPUT
4GND 5
B+INPUT
6
B–INPUT
7
B_OUTPUT
8
V+
R51
10k
GND
R40
0
GND
R69
OPEN
GND
2.5V
C22
270p
15V
R38
0
C28
2.2
R15
OPEN
R23
OPEN
R59
150k
R53
15k
R39
0
R11
OPEN
GND
L4
OPEN
–8V
R34
1M
R71
330k
TD5
R64
2.2k
R73
33k
R22
OPEN
ALC5V
R72
1k
5V
GND
TD4
R70
2.2k
IC3
OPEN
11A
21Y
32A
42Y
53A
63Y
7GND 8
4Y
9
4A
10
5Y
11
5A
12
6Y
13
6A
14
VCC
R96
0
3.3V
5V
R24
OPEN
D2
1 2
3
5V
D6
OPEN
1
2
3
5V 5V
L7
OPEN
ALC_GND
R74
0
D7
OPEN
1
2
3
D5
OPEN
1
2
3
R79
0
R81
0
L10R77
0
R87
8.2
OPEN
R80
0
L9
L8
R86
OPEN
R82
0
R83
0
L11
R78
0
R84
0
CN3
1GND
2DRIVE
3 DUMPER
4VREF
Attachment1
Attachment2
R5
0
R6
2.2k
C4
0.047
R21
0
R18
OPEN
OPEN
15V
–8V
R25
1M
C6
0.047
R4 0
GND
R7
10
R3 0
C11
1
Q1
L1
OPEN
GND
SGND1
R1
0
L12
OPEN
R97
0
GND
ALC_GND
ALC5V
MGND
R13
0
R9
0
R27
0
R33
0
1
OD
2
GND_1
3
OFD
4
PW
5
faiRS
6
faiH1
7
faiH2
8faiV4
9faiV3
10 faiV2
11 faiV1
12 NC
13 GND_2
14 OS
IC1
1faiV4
2faiV3
3faiV2
4faiV1
5GND_1
6NC1
7NC2
8OS 9
OD
10
GND_2
11
OFD
12
PW
13
faiRS
14
NC3
15
faiH1
16
faiH2
Z2
1
2
3
45
6
7
8
R26
10
C5
0.1
L2
10
3.3V
Z1
1
2
3
45
6
7
8
R10
OPEN
R14
10
R12
10
2.5V
C9
0.1
C1
R28
GND
R45
5V
D9
OPEN
CN1
1 OUT1A
2 OUT1B
3 OUT2A
4 OUT2B
5PI
6 3.3V
7OUT
8GND
Attachment1
Attachment2
L5
MGND
GND
R52
R47
L3
R46
MOT5V
R42
GND
3.3V
GND
GND
MOT3.3V
GND
R37
D8
C23
R54
2.5V
R49
OPEN
15V
C37
1
GND
R55
0
IC6
1SUBO
2VSS
3BO1
4VDD2a
5TO1
6VCC
7TI1
8PG1
9BI1
10 SUBI
12
BI2
13
PG2
14
TI2
15
GND
16
VDD1
17
TO2
18
BO2
19
VDD2b
20
Vsb
11
NC
D4
OPEN
–8V3.3V
R50
0
R48
0
C41
0.1
C24
C39
0.1
C32
0.1
C16
OPEN
OPEN
OPEN OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN
OPEN OPEN OPEN
C19
C46 10p C44 10p
C36
1000p
C2
OPEN
C12
0.01
C7 OPEN
C40 2200p
C47 OPEN C48 OPEN C49 OPEN
C13
100pC15 33p
C17 100p
C42
0.047
C45 560p
C43
OPEN
C33
10
R2
0
C30
1
R8
47
C31
1000p
C8 0.1
C14 0.1
C34
0.01
C29
0.1
GND
GND
R16
OPEN
C25 0.1
0.1
Z4 1
2
3
45
6
7
8
Z6 1
2
3
45
6
7
8
L6
L14
3.3V
C38
4.7
3.3V
L13
33
GND
R30
0
R17
OPEN
R19
OPEN
R29
OPEN
R31
27k
GND GND
5V
L15
8.2
C50
0.1
ALC5V
TD52 TD51
TD50TD48
TD46TD44
TD42
TD40 TD38TD36 TD34TD32
TD30 TD28 TD26 TD24 TD41
TD31TD35
TD43
TD33
TD27TD39
TD47
TD37
TD21
TD29TD45TD49 TD22
TD23
TD25
TD19
TD9 TD11
TD10
TD12
TD14
TD13
TD20
TD8TD6
TD7TD3TD1
TD2
TD16
TD17TD18
TD15
C3
10
C51
22
GND
CN2
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
R32
R35
R36
R57
R60
R61
0
C54
0.1
C53
0.1
C52
C21
R62
D10
IC5
1
OE1 2
A1 3
A2 4
A3 5
A4 6
A5 7
A6 8
A7 9
A8 10
GND
11 Y8
12 Y7
13 Y6
14 Y5
15 Y4
16 Y3
17 Y2
18 Y1
19 OE2
20 Vcc
IC4
1
OE1 2
A1 3
A2 4
A3 5
A4 6
A5 7
A6 8
A7 9
A8 10
GND
11 Y8
12 Y7
13 Y6
14 Y5
15 Y4
16 Y3
17 Y2
18 Y1
19 OE2
20 Vcc
MOT3.3V
MOT5V
GND
C55
10
C35
22
R56 100
100
100
100
100
R58 100
R63 100
R65 100
R66 100
R67 100
R68 100
R75 100
C18
C20
TH1
2k
GND
R43
510k
R20
3.3k
ALC5V
IC9
23
SCLK
35
RNF4 34
OUT4B
16 RNF2 15 OUT2A
5PGND5
14 VM12
27
VISEL
12 RNF1
7VM5
26
RESET
4OUT5B
2IN2[IN4]
9PI2
36
OUT4A
18 DGND_2 17 OUT2B 13 OUT1B
6OUT5A
3IN3 24
SDAT
25
OSCIN
8PI1
1IN1[EN4]
11 OUT1A
21
VCC
22
CS
31
OUT3A
32
VM3
33
VM4
10 DGND_1
19
MOB
20
EXT
28
DGND_3
29
OUT3B
30
RNF3[PGND3]
IC8
23
Bias
35
D4 34 D3
16 CLK_in 15 RG
5D9
14 DVdd3
27
AVss2
12 H2
7D11
26
VRB
4D8
2D6
9DLLC
36
D5
18 VD_in 17 HD_in 13 DVss3
6D10
3D7 24
AVdd12
25
VRT
8DVdd12
1DVss1
11 H1
21
FBC
22
SHC
31
D0/MON
32
D1
33
D2
10 DVss2
19
AVss1
20
CDS_in
28
CS
29
Sdata
30
SCK
V4
SUB
D[7]
FVD
GND
D[4]
D[10]
ALC_DC
OSCIN
GND
PBLK
FWHD
CS
CH1
HCLR
–8V
V2
GND
GND
GND
2.5V
SLD0
D[2]
D[9]
D[5]
SDAT
D[0]
MGND
RESET3.3V
GND
V1
SCK0
D[11]
MOB
GND
SOUT0
ADCLK
3.3V
D[8]
GND
V3
D[3]
SCLK
15V
CH2
PHOTO_OUT
ALC_VREF
D[6]
D[1]
5V
IC2
TO
MAIN
BOARD
(1/2)
CN1
CCD CCD
IMAGE
SENSOR V DRIVER
ALC
(NOT USED)
<INDEX>
SENSOR BOARD
IC1 OPEN
IC2 B1,C1
IC3 OPEN
IC4 D1,E1
IC5 D1
IC6 B4,C4
IC7 B4
IC8 D2,D3
IC9 OPEN
Q1 B1
Q5 A4
D2 B2
D4 OPEN
D5 OPEN
D6 OPEN
D7 OPEN
D8 OPEN
D9 OPEN
D10 OPEN
SENSOR BOARD
1
A
B
C
D
E
23456
4-1

SCHEMATIC DIAGRAM OF MAIN BOARD (1/2)
PCO1
NATURAL
FLICKER
AGC_L/H
VCXO
ALC/ELC
D[4]
D[5]
CH2
D[6]
CH1
D[7]
SUB
PWM[3]
D[8]
V4
D[9]
PCO1
D[10]
AFIRQ
D[11]
HCLR
SYNC
PBLK
V3
V2
V1
LPF1 VCXO FVR SOUT0
FVD
RESET
D[0]
D[1]
D[2]
D[3]
LLDET2
BLC
AGC_L/H
NATURAL
FLICKER
VD2
BLC
ALC/ELC
ALC_DC
CBLK
CP2
SYNC
VD2
BFP
BFP CP2
I2CSDA
I2CSCL
E2P_WP
E2P_WP
AFIRQ
FVD
LLDET2
CS
SDAT
PHOTO_OUT
SCLK
MOB
OSCIN
PCO0
PWM[2]
LPOUT
CXIN
RESET3.3V
OSCCNT
CPUPORT1
I2CSDA
PWM[4]
EASY_D/N
PWM[0] PWM[1]
PWM[0]
VREF1
PWM[1]
VREF2
CLIP_LEV_X
EASY_D/N
FM_FREQ_X
CLIP_LEV_X
VREF1 VREF2 CBLK
FWHD
COIN
CXIN
ALC_DC
PBLK
ALC_VREF
FWHD
CS
FVD
SUB
HCLR
V1
D[10]
V2
D[8]
V3
D[6]
V4
D[4]
D[2]
ADCLK
D[0]
D[1]
ALC_VREF
YSIG
CSIG
CSIG
YSIG
OSCCNT
LPF1
CPUPORT1
ADCLK
PCO0
SLD0
CH1
SLD0
CH2
D[3]
D[5]
D[7]
D[9]
D[11]
PHOTO_OUT
OSCIN
MOB
RESET3.3V
SDAT
SCK0
SCLK
SOUT0
SCK0
PWM[2]
FVR
PWM[3]
ALC_DC
PWM[4]
FM_FREQ_X
LPOUT
RESET
COIN
I2CSCL
C41
0.1
GND
R8 0
R58
10k
GND
R71
OPEN
5V
R7 0
R67
OPEN
R65
3.9k
GND
3.3V
L8
OPEN
SGND2
R85
OPEN
R68
0
R63
0
R56
OPEN
GND
R74
OPEN
GND
C34 0.1
–8V
R75
OPEN
R57
OPEN
R60
OPEN
C40
10
X2
1VC
2NC
3GND 4
OUT
5
OE
6
VDD
2.5V
R72
1k
R64
1M
C27
OPEN
R73
OPEN
C28
10
GND
R6
0
R52
1.5k
X1
OPEN
1VC
2NC
3GND 4
OUT
5
OE
6
VDD
5V
Q2
G
S
D
R76
OPEN
OPEN
R69
OPEN
R53
0
5V
SGND1
C30
0.1
R55
470
R79
OPEN
L2 OPEN
C43
OPEN
R61
0
L5 OPEN
1 2 34
6
7 8
GND
R51
10k
L1 OPEN
R54
OPEN
LPF_2.5V
L6
R80
OPEN
GND
GND
R70
OPEN
15V
IC4
1A_OUTPUT
2A–INPUT
3A+INPUT
4GND 5
B+INPUT
6
B–INPUT
7
B_OUTPUT
8
V+
C36
0.1
MGND
R62 0
L7
3.3V
GND
2.5V
LPF_2.5V
R66
OPEN
5V
R77
100
3.3V
CN1
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
Attachment1
Attachment2
NATURAL
EASY_D/N
AGC_L/H
FLICKER
R91
2.2k
Q3
GND
3.3V
D4
OPEN
Q1
OPEN
G
S
D
C11
0.1
D2.5V
C1
0.1
IC1
1TGVDD1
2ADCLK
3V1
4V2
5V3
6V4
7SUB
8CH1
9CH2
10 TGVSS1
11 R
12 H1
13 H1D
14 H2
15 H2D
16 TGVDD2
17 DS1
18 DS2
19 TGVSS2
20 DVSS1
21 DVDD1
22 FWHD
23 FVD
24 PBLK
25 CPOB
26 HCLR
27 DVSS2
28 DVDD2
29 ADIN11
30 ADIN10
31 ADIN9
32 ADIN8
33 ADIN7
34 ADIN6
35 ADIN5
36 ADIN4
37 ADIN3
38 ADIN2
39 ADIN1
40 ADIN0
41 EXTIN0
42 EXTIN1
43 EXTMODE
44 CHRIN
45 WCHRIN 46 TESTCLK 47 DVDD3 48 DVSS3 49 SIN1 50 SDIN 51 DSEP 52 SDOUT 53 DVSS4 54 DVDD4 55 SCK0 56 SOUT0 57 SCK1 58 SOUT1 59 CP2 60 BFP 61 DVSS5 62 DVDD5 63 FVR 64 VCXO 65 LPF1 66 DAVDD1 67 CSIG 68 DAVSS1 69 VREF2 70 VRO2 71 DAVDD2 72 YSIG 73 DAVSS2 74 VREF1 75 VRO1 76 AFIRQ 77 PCO1 78 PCO0 79 DVDD6 80 DVSS6 81 ROMDT0 82 ROMDT1 83 ROMDT2 84 ROMDT3 85 ROMDT4 86 ROMDT5 87 ROMDT6 88 ROMDT7
89
DVSS7
90
DVDD7
91
I2CSCL
92
I2CSDA
93
CPUPORT0
94
CPUPORT1
95
MRESETO
96
MRESETI
97
TEST0
98
TEST1
99
REVIRQ
100
TCK
101
XSM
102
XTST
103
SMCK
104
MST
105
DVDD8
106
DVSS8
107
BSIN
108
BDBMX
109
BRSTX
110
BEXCK
111
BSOUT
112
ROMADR0
113
ROMADR1
114
ROMADR2
115
ROMADR3
116
ROMADR4
117
ROMADR5
118
ROMADR6
119
ROMADR7
120
ROMADR8
121
ROMADR9
122
ROMADR10
123
ROMADR11
124
DVDD9
125
DVSS9
126
ROMADR12
127
ROMADR13
128
ROMADR14
129
ROMCSX
130
ROMRDX
131
ROMWRX
132
DVSS10
133
DVDD10
134
RESET
135
NTPAL
136
TEST2
137
TEST3
138
TEST4
139
ROMSEL0
140
ROMSEL1
141
MCKSEL
142
OSCSEL
143
OSCWAIT
144
DVSS11
145
CXOUT
146
CXIN
147
MD
148
DVDD11
149
CVD
150
CHD
151
CSYNC
152
CBLK
153
PCLKHALF
154
PWM0
155
PWM1
156
PWM2
157
PWM3
158
PWM4
159
PCLK
160
DVSS12
161
DVDD12
162
COIN
163
OSCCNT
164
GPIO0
165
GPIO1
166
GPIO2
167
GPIO3
168
GPIO4
169
GPIO5
170
GPIO6
171
GPIO7
172
GPIO8
173
GPIO9
174
GPIO10
175
GPIO11
176
GPIO12
C12
0.1
C2
0.1
C13
0.1
C21
0.1
C19
0.1
C15
0.1
C14
0.1
C3
0.1
GND
A2.5V
C20
0.1
C10
0.1
C17
0.1
C5
0.1
C6
0.1
C9
0.1
Q4
R14
1k
IC3
1NC
2IN_A
3GND 4
OUT_Y
5
VCC
D2.5V
GND
C23
0.1
D2.5V
C38
OPEN
R20
11k
GND
C22
1
C24
OPEN
BLC
ALC/ELC
FM_FREQ_X
SYNC
CBLK
ALC_DC
CLIP_LEV_X
CP2
BFP
VD2
I2CSDA
I2CSCL
LLDET2
E2P_WP
AFIRQ
FVD
C26
OPEN
C29
1
C31
0.1
C37
OPEN
C39
OPEN
CS
SDAT
SCLK
PHOTO_OUT
OSCIN
MOB
LPOUT
RESET3.3V
CPUPORT1
GND
R36
0
R13
OPEN
D2.5V
R12
0
R37
100k
GND
R38
0
C18
1
GND
R41
10k
R39
OPEN
D3
OPEN
D2.5V
R11
10
R46
0
R19
0
R48
OPEN
R47
10
TD1
TD16
TD18TD3 TD22TD10
TD4TD2 TD8 TD24
TD14
TD20TD12
TD6 TD26
TD11 TD38TD23
TD25
TD40
TD21 TD33
TD31
TD37
TD15
TD5
TD27
TD29 TD41TD13TD9 TD17 TD39
TD35TD19TD7
TD30
TD32 TD36TD28
TD34
TD68
ALC_VREF
CSIG
YSIG
IC5
1NC 2IN_A 3GND 4
OUT_Y
5
VCC
R84
OPEN
IC6
OPEN
1IN_B
2IN_A
3GND 4
OUT_Y
5
VCC
R83
10k
TD72
TD73
TD74
TD75
TD76
R40 OPEN
R18 OPEN
R10
0
R9 OPEN
TD70 TD71
PCLK PCLK
IC2
1
VOUT
2
VSS
3VIN
C54
0.1
2.5V
L9
C52
0.1
A2.5V
D2.5V
L10
GND
2.5V
GND
C53
10
GND
C55
10
GND
R35
0
R31
OPEN
R93
10k
R86
10k
D2.5V
GND
R100
10k
R99
10k
D2.5V
R94 10k
C4
10
R170
100k
GND
3.3V
R169
10k
Q8
GND
R22
10k
C35
1
GNDGND
C33
OPEN
C32
OPEN
C16
10
R16
2.7k
R17
2.7k
R173
130
R15
100
R92
240
R176
0
R177
OPEN
IC12
1
VOUT
2
VSS
3VIN
3.3V
Q9
GND
V4
FWHD
D[9]
(NTSC)
2.5V
D[5]
CS
(56.75MHz)
ADCLK
GND
SCK0
15V
HCLR
OSCIN
SUB
GND
D[6]
3.3V
GND
(PAL)
D[2]
D[1]
MGND
GND
ALC_VREF
SDAT
V3
5V
SLDO
GND
PBLK
ALC_DC
GND
PHOTO_OUT
SCLK
D[7]
FVD
D[4]
CH1
–8V
D[8]
MOB
D[3]
SOUT0
GND
CH2
D[11]
RESET3.3V
V2
V1
D[0]
GND
D[10]
TO (2/2)
SCP-DSP
DSP RESET
LPF (VD2)
VCXO
PWM LPF
TO
SENSOR
BOARD
CN2
TD70,71
(14MHz)
DSP
<INDEX>
MAIN BOARD (1/2)
IC1 B3,B4,
C3,C4,
D3,D4
IC2 A4,A5
IC3 C7
IC4 C6
IC5 OPEN
IC6 OPEN
IC12 A5
Q1 OPEN
Q2 D6
Q3 A4
Q4 A3
Q8 A7
Q9 E3
D3 OPEN
D4 OPEN
MAIN BOARD (1/2)
1
A
B
C
D
E
234567
4-2