TB1261F_技术文档

TB1261F/TB1262F

TOSHIBA BiCMOS INTEGRATED CIRCUIT, SILICON MONOLITHIC

TB1261F/TB1262F

PAL/NTSC/SECAM 1CHIP

(IF + VCD PROCESSOR)

The TB1261F/TB1262F are TV signal processor ICs, which

contains PIF, SIF, Video, Chroma and Deflection blocks. They can

be applied for worldwide Multi system TV sets.

The flexibility of this TB1261F/TB1262F contributes to

reduce development costs and components in a TV set.

FEATURES

·

IF

·

Chroma

·

Integrated PIF VCO, aligned automatically.

Inter/ split carrier input

SIF BPF built-in

SIF Trap filter built in

Tank-less SIF demodulator

Neg/pos demodulation PIF line up *

AM sound demodulation line up *

·

PAL/ NTSC/ SECAM demodulation

with 1Xtal and Built in 1HDL system

External YCbCr in/out Interface

Base band TINT

·

SCART RGB interface

·

RGB Analog RGB interface

·

Half-tone and transparent for OSD

RGB cut-off/ drive controls by bus

ABCL (ABL and ACL combined)

·

Video

·

Chroma trap

Y delay line

Black stretch

Y-gamma

Pre/over shoot control

VM signal output

·

Sync./ DEF HVCO integrated

·

V saw tooth single output

EW output available for flat wide TV

·

*; TB1262F only

2002-6-30 1 / 66

TB1261F/TB1262F

1, Block diagram

Bed pin

32

26

27

31

20

23

22

21

18

14

13

12

SCL

SDA

42

43

Sync out

ABCL IN

Ysm

H.AFC

EXT.B IN

EXT.G IN

EXT.R IN

VM OUT

B OUT

62

54

DC Restor

BLACK Det

59

Ys(YCbCr)

Cb2/B in

Cr2/R in

56

57

55

r 3 C Y C b

r 2 C Y C b

Y / C

G OUT

Y2/CVBS2/G in

R OUT

48

49

44

Cb3 in

Cr3 in

Y3/CVBS3 in

34

6

CW OUT

X'tal

51

52

53

Cr out

Cb out

Y/MON out

7

APC Filter

S-filter

9

61

Y/CVBS 1 in

C in

58

80

79

PIF IN

NC

68

IF DET OUT

77

76

SIF IN

75

72

DAC 1

DAC 2

DAC 3

19

36

66

IF GND

QFP 80 pin

2002-6-30 2 / 66

TB1261F/TB1262F

2, BUS CONTROL MAP of the “TB1261F/62F”

[WRITE]

Slave Address: 88H

D7

D6

D5

D4

D3

D2

D1

D0

0

WPS

Bｒｔ on RGB

Col-γ

Contrast

Bright

Color

0000_0000

1

2

0100_0000

3

Demo-P

Sharpness

0010_0000

4

Y+C sw

( 0 )

RGB Mute

Tint

N-Comb

RGB>YUV Blue Back

R Cut Off

G Cut Off

B Cut Off

0100_0000

5

Video sw

Color System

C-in sw

CbCr sw

Ys in

C-Trap

Y/Mon out 0000_0000

6

Coring

0000_0000

0100_0000

0000_0000

1010_0000

0001_0000

0000_0000

7

8

9

0A

Drive ref

B Drive Gain

R/G Drive Gain

RF AGC

S-Trap

FM-Band

DC-Restore

ABL-SP

Shoot Balance

0B BLK SW

0C

0D

0E

Spl/Int

PLL S

PIF Freq.

Buzz-R

VM-P

VCO-M

SIF-in

SIF-574

AFT-S

Over Mod

VM-G

Au-G

SIF-Freq.

0F S-col feint

Y-γ Point

10

11

12

13

Y-Mute

F ID

Y-DL

ABL-G

PN ID S

BPF/TOF

Black Stretch

L-AGC

S GP Phase

S Inhibit S ID Sense S-ID M

HP-Boost

Black Adj. B-Y

H Phase

V Phase

L-SECAM 0000_0000

1000_1000

0001_0000

0000_0000

1100_0000

1000_1000

0010_0000

0000_0000

0100_1000

0100_0000

0010_0000

0001_0000

0110_0100

0000_0000

Black Adj. R-Y

14 sync gate

15

F sync

312/313

V Freq.

16 VRamp Ref

17

V Size

V Linearity

V-S Corr.

18

AFC Gain

V Cent.

19 H Side BLK

1A RFAGC-Adj. LAGC lim

V BLK Bottom

PIF Det Lev

V BLK Top

Noise Det Level

1B

1C

1D

1E

1F

20

21

V AGC

dac1

dac2

EW Para

H Size

EW Trape

EW Corner Top

EW Corner Bottom

H. Bow

H Stop

xxx

V. EHT

H. EHT

DCNF

dac3

H. Par

S2-Q

TEST

Strap-HP/LP

P PLL u

Strap-GD

Strap-Q

0000_0000

[READ]

D7

D6

D5

D4

D3

Color System

D2

D1

D0

R0

R1

POR

IF Lock

V-STD

H Lock

Noise

AFT-C

AFT-W

V Freq.

RFAGC

C IN DC Sound Dev. Station Det PVCO-Err

2002-6-30 3 / 66

TB1261F/TB1262F

3, Features comparizon for TB1261F and TB1262F

TB1261F and TB1262F are distinguished with their assured specifications for its IF systems. Basically,

TB1261 is for Asian models and TB1262 is for Europeans. The comparisons are shown in the next table.

TB1261F

TB1262F

Picture IF

Sound IF

- Neg. demo

- Pos. demo (L/L')

- Split/ inter carrier

- BG, DK, I, M (FM)

- BG (IGR-bilingual fm)

- Split/ inter carrier

- BG, DK, I (FM)

- L (AM sound demo)

These difference are realized by its Bus controls. The bits marked 'n/a' in the next table should not be selected

by controller micro processor , in fact they can be set but not assured.

BUS CONTROL ITEMS

PIF Freq. (00)

BITS CONTROLS

TB1261F

TB1262F

x

n/a

x

n/a

x

000

001

010

011

100

101

00

45.75 MHz

[ Sub; 0Dh D7~D5 3 bits ]

39.5 MHz

38.9 MHz

38.0 MHz

34.2 MHz

33.9 MHz

not LSECAM, not FM stop

L-SECAM

L-SECAM & AGC speed up

FM Stop

x

n/a

x

n/a

x

L-SECAM (0), L-AGC(0), FM Stop

[ Sub; 12h D1,D0 2 bits ]

x

01

n/a

x

10

11

x

SIF-Freq (00)

[ Sub; 0Eh D1-D2 2 bits ]

x

00

01

10

11

0

5.5MHz

6.0MHz

6.5MHz

4.5MHz

Others

x

n/a

x

SIF-574 (0)

[ Sub; 0Eh D0 1 bit ]

x

n/a

1

5.74MHz

x ;

can be selected

n/a ;

the feature not guaranteed

2002-6-30 4 / 66

TB1261F/TB1262F

4, MAXIMUM RATINGS

(Ta=25℃)

ITEM

SYMBOL

Vcc max9

Vcc max5

Vdd max3.3

PD max

V in

RATING

12

UNIT

Ｖ

Supply Voltage (9V Vcc)

Ｖ

Supply Voltage (5V Vcc)

Supply Voltage (3.3V Vdd)

Power Dissipation

Input terminal Voltage

Operating Temperature

Storage Temperature

6.5

Ｖ

5.0

1980(*1)

mW

V

℃

GND – 0.3

~

Vcc + 0.3

Topr

-20

-55

65

Tstg

150

(*1) When using this device at above Ta=25℃, the power dissipation decreases by 15.9mV per 1℃ rise.

(*2) This IC is weak against static electricity and surge impulse. Please take counter measure to meet, if

necessary.

(*3) This IC is not proofed enough against a strong E-M field by CRT which mau cause function error

and/or poor characteristics. Keeping the distance from CRT to the IC longer than 20cm, or if cannot,

placing shield metal over the IC, is recommended in an application.

Ta-PD Curve ( on a PCB)

1980

1349

0

65

150

Taꢀ(°ｃ)

Atmosphere Temperature

5, OPERATING POWER SUPPLY VOLTAGE

PIN NO.

PIN NAME

IF Vcc (5V)

MIN.

4.75

8.55

3.1

TYP.

5

MAX. UNIT

NOTE

－

74

67

25

45

35

5.25

9.45

3.5

V

IF Vcc (9V)

RGB VCC (9V)

H VCC (9V)

9

－

9

V

9

DIGITAL VDD

3.3

This pin should be supplied from

HVcc via 270 ohms of resister.

11

Y/C VCC (5V)

4.75

5

5.25

V

2002-6-30 5 / 66

TB1261F/TB1262F

6, DATA TRANSFER FORMAT VIA I2C BUS

Start and stop condition

SDA

SCL

S

P

Start condition

Stop condition

Bit transfer

SDA

SCL

SDA stable

Change of SDA allowed

Acknowledge

SDA by

The transmitter releases the SDA line (HIGH)

during the acknowledge clock pulse.

transmitter

SDA by

receiver

The receiver has to pull down the SDA line

(LOW) during the acknowledge clock pulse.

SCL from

1

8

9

master

S

Clock pulse for acknowledgment

Data transmit format 1

S

Slave address

7bit

0

A

Sub address

8bit

A

Transmit data

8bit

A P

MSB

S : Start condition

MSB

A : Acknowledge

MSB

P : Stop condition

Data transmit format 2

S

Slave address

0

1

A

Sub address

Transmit data 1

A

Sub address

A

Transmit data n

A P

Data received format

S

Slave address

7bit

A

Received data 01

8bit

A

Received data 02

A P

MSB

At the moment of the first acknowledge, the master transmitter becomes a master receiver and the slave receiver

becomes a slave transmitter. This acknowledge is still generated by the slave.

The Stop condition is generated by the master.

2002-6-30 6 / 66

TB1261F/TB1262F

Optional data transmit format : automatic increment mode

S

Slave address

7bit

0

A

1

Sub address

7bit

A

Transmit data 1

8bit

Transmit data n

8bit

A P

MSB

In this transmission methods, data is set on automatically incremented sub-address from the specified sub-address.

Purchase of TOSHIBA I²C components conveys a license under the Philips I²C Patent Rights to use these

components in an I²C system, provided that the system conforms to the I²C Standard Specification as defined by

Philips.

2002-6-30 7 / 66

TB1261F/TB1262F

Pin Description

#

7, Terminal Descriptions

19

DAC1;

A terminal to be output High/ Low status by an

Pin Description

#

QFP open collector interface. The pull up resistance

only should be fixed as a sink current is 1mA or less

and the pull up voltage should be less than the

voltage of RGB Vcc.

1

IF AGC;

(8)

A terminal should be connected to an IF AGC

filter. Connect 0.47uF of capacitor to ＧＮＤ.

In selecting L system, the capacitor works for

20

YS/YM SW;

1st SIF AGC.

(20) A terminal for switching of EXT RGB Mode and

2

3

nc;

fast transparent.

EXT. RGB

PIF Filter;

(9)

A terminal to be connected to a filter for

stabilizing the PIF VCO center frequency. Put a

capacitor of 10 uF.

2.1V -----------------

Half tone

0.7V -----------------

TV

4

FM Filter;

(10) A terminal should be connected to an FM PLL

filter. Put a lag lead CR filter.;

0V -----------------

21

22

23

EXT. R IN;

5

6

nc;

EXT. G IN;

Xtal (4.43MHz);

EXT. B IN;

(11)

A

terminal should be connected with

a

Input terminals for EXT R/G/B signals. The

4.433619MHz crystal oscillator. The oscillated

signal leads to the chroma demodulation, H out

frequency tuning, AFT, etc.;

(21) signals are clamped by capacitors, therefore the

(22) input impedance should be low, 100 ohms or

(23) less is recommended. For this input, the

brightness control with ABL is available.

ABL OFF: for small area like OSD

7

APC Filter;

(12) A terminal should be connected with an APC

filter for chroma demodulation. This terminal

voltage controls the frequency of VCXO.;

ABL ON: for large area like TELETEXT

(input level 0.7Vp-p/100IRE)

8

9

nc;

24

25

nc;

SECAM Filter;

RGB VCC (9V);

(13) The terminal should be connected a SECAM

filter for holding SECAN reference frequency.

(24) A Vcc terminal for RGB block. Supply 9V.

26

(25) An input terminal for IICBUS clock.;

27 SDA;

(26) An input/output terminal for IICBUS data.;

SCL;

Connect

0.47uF to GND, If not using

SECAM decoder on TB1261, put at least 0.01uF

of capacitor to GND.

10

11

nc;

28

EHT IN;

Y/C VCC;

(27) The input terminal for EHT. The ratio of EW /

V is controlled by bus.;

(14) A Vcc terminal for Y/C circuit. Supply 5V.;

12

13

14

R OUT;

G OUT;

B OUT;

29

30

31

nc;

ABCL IN;

(15) Terminals for R/G/B signal output, should be

(16) lead to CRT driver. Connect resistances to

(17) GND, for the current source if the slew rate is

not enough. Due to the source current

limitation, the resistances should be 2.0kΩ or

(28) An input terminal for ABL/ACL control. Control

voltage range is 5.0 - 6.0V. The ratio of ABL

versus ACL can be set by bus control.;

32

Bed pin;

QFP Connect GND.

more.;

only The earth pattern should be recommended to be

isolated from Def GND and connect IF GND.

15

16

17

nc;

Y/C GND;

33

EW OUT;

(29) An output terminal for E-W OUT.

(18) The GND terminal for Y/C circuit.;

34

CW OUT;

18

VM OUT;

(30) An output terminal for the continuous chroma

sub-carrier frequency wave, with amplitude of

0.4Vp-p (typ).

(19) The output terminal for applying veracity

scanning modulation (VSM). The IIC Bus

controls phase and Gain of VSM.;

2002-6-30 8 / 66

TB1261F/TB1262F

Pin Description

#

Pin Description

#

35

DIG. VDD ;

46

V RAMP;

(31) A Vdd terminal for of digital block. Supply

HVcc voltage through 270 ohms of resistance.

The coupling capacitor should be 10uF or less,

in order to keep rise up time good enough.

(36) A terminal should be connected with a capacitor

to generate the V.Ramp signal.Connect this pin

to GND via 0.47uF.The V.Ramp amplitude is

kept constant by the V.AGC.;

The voltage of this terminal is clipped to

approximately 3.3V by the internal regulator.

47

V OUT;

(37) An output terminal for the vertical saw tooth

wave.

36

Dac2;

A terminal to be output High/ Low status by an

48

49

Cb3 IN;

QFP open collector interface. The pull up resistance

only should be fixed as a sink current is 1mA or less

and the voltage is less than the voltage of H

Vcc.

Cr3 IN;

Input terminals for ;

QFP

-

Cb and Cr signals of Y/Cb/Cr_3

only These terminals are clamped by charging /

discharging the coupling capacitors. It is

recommended that input impedance is kept at

or below 100Ω.

37

FBP IN;

(32) An input terminal for FBP. V/GP pulses are

output over this FBP.

The Threshold levels are;

50

DIG GND;

1.4 V ; for Blanking

(38) A GND terminal for digital block.;

3.7 V;

nc;

H OUT;

for HAFC2

51

52

Cr OUT;

Cb OUT;

38

39

(39) Output terminals for demodulated Cb and Cr

(40) signals.

(33) An output terminal for horizontal driving

pulses.;

53

Y/Mon OUT

40

VD OUT;

(41) An alternative output terminal for;

QFP An output terminal for VD pulses. The pulses

only are 3V for its level.

-

Y signal after Y1 process

Or Mon out after selector

Those two are selected by IICBUS

41

HD OUT;

QFP An output terminal fot HD pulses. GP Pulses

only are overlaid as SCP.

54

BLACK DET;

(42) A terminal should be connected with Black

level detecting filter for black stretch. This

terminal voltage controls the Black stretching

gain. The IIC Bus controls the on/off and start

point of the Black stretch. ;

Also BPP is overlaid to stop black stretch

detecting.

Those levels are

5V;

3V;

for GP out

for HD out

for BPP in

55

Y2/CVBS2/G IN

0.7V;

(43) An alternative input terminal for;

42

Sync out;

-

Y + Sync signals of Y/Cb/Cr_2 in

Or CVBS_2

Or G signal of Scart Y/R/G/B in

QFP An output terminal of the sliced sync pulses.

Pull up this pin with 5.1kΩ of resistance.

only

43

Those three are selected by IICBUS.

These terminals are clamped by charging /

discharging the coupling capacitors. It is

recommended that input impedance is kept at

or below 100Ω.

H AFC Filter;

(34) A terminal should be connected with H. AFC

Filter. The DC voltage of this pin controls the H

VCO frequency.

44

Y3/CVBS3 IN;

56

57

Cb2/B IN;

Cr2/R IN;

An alternative input terminal for;

QFP

only

-

Y + Sync signals of Y/Cb/Cr_3

(44) Alternative input terminals for;

Or CVBS_3

(45)

-

Cb and Cr signals of Y/Cb/Cr_2

Those two are selected by IICBUS

Or R and B signal of Scart Y/R/G/B in

This terminal is clamped by charging

/

Those three are selected by IICBUS

These terminals are clamped by charging /

discharging the coupling capacitors. It is

recommended that input impedance is kept at

or below 100Ω.

discharging the coupling capacitors. It is

recommended that input impedance is kept at

or below 100Ω. Input level 1Vp-p/140IRE

45

H VCC (9V);

(35) A Vcc terminal for DEF circuit, HOUT, IICBUS

POR, etc. Supply 9V.;

58

C-IN;

(46) An input terminal for chroma signal (standard

burst amplitude level 286mVp-p). The dc level

of this pin can be read by bus to detect if S port

is connected or not.;

2002-6-30 9 / 66

TB1261F/TB1262F

Pin Description

#

Pin Description

#

59

Ys(YCbCr)

69

LOOP Filter;

(47) A fast switch for selecting Y/Cb/Cr2 in (or fast

blanking for scart R/G/B in).

Forced Y/Cb/Cr (or scart R/G/B in)

0.7V -----------------

(53) A terminal to be connected with loop filter for

PIF PLL. The terminal voltage controls the PIF

VCO frequency.;

70

DC NF;

Selecting by IICBUS

(54) A terminal for connecting a capacitor for DC

NF. This filter is very sensitive for the Audio

quality; therefore connect capacitor to a stable

GND point.

0V -----------------

60

61

nc;

Y/CVBS1 IN

In selecting L system, the capacitor works for

PIF AGC filter.

(48) An alternative input terminal for;

-

Y + Sync signals of Y/C

Or CVBS_1

71

SIF OUT;

Those two are selected by IICBUS

(55) An output terminal for a 2’nd SIF signal, which

is mixed down by a regenerated carrier.

This terminal is clamped by charging

/

discharging the coupling capacitors. It is

recommended that input impedance is kept at

or below 100Ω. Input level 1Vp-p/140IRE

72

IF GND;

(56) The GND terminal for IF circuit.;

73

(1)

SIF IN / H corr.;

62

DC RESTOR;

An input terminal for 2’nd SIF signal and H.

curve correction.

(49) A terminal to be connected with a capacitor to

detect the average picture level for DC

restoration. The ratio of the DC restoration is

set by bus.Leave this terminal open if the DC

restoration is not required. ;

74

(2)

75

76

(3)

(4)

IF VCC (5V);

A Vcc terminal for the IF circuit. Supply 5V.;

1’st SIF IN(1);

1’st SIF IN(2);

63

64

65

nc;

Input terminals for 1’st SIF signals.

If not using Split input, leave these pins open,

and turn the IICBUS bit of “Spl/ Int” [s0C/d7]

to “1”

nc;

De-Emphasis/Mon-OUT;

(50) A terminal to De-Emphasis Audio signal, and

pick up detected Audio signal. Connect

capacitor (4700pF) to GND. The time constant

50/75us is set by the IICBUS control “SIF

Freq”. Remove the capacitor for connecting

US/JPN sound multiplex system.

77

Nc ( to GND );

Connect this pin to GND to isolate PIF and

1stSIF input.

78

(5)

RF AGC;

An output terminal for RF AGC. A pull up

resistor is required because of its open collector

output. A de-coupling capacitor should be also

connected to adjust the response.

IF IN(1);

66

DAC 3;

QFP A terminal to be output High/ Low status by an

only open collector interface. The pull up resistance

should be fixed as a sink current is 1mA or less

and the voltage is less than the voltage of IF

Vcc.

79

80

(6)

(7)

IF IN(2);

Input terminals for IF signals. Pin 6 and 7 are

the both input poles of a differential amplifier.

The normal input level is 90dB(uV); input

impedance is 1.5 k ohms.

67

IF Vcc(9V);

(51) A Vcc terminal for Y/C circuit. Supply 9V.;

68

IF DET OUT;

(52) Detected PIF output terminal.(typical output

level 2.2Vp-p)

2002-6-30 10 / 66

TB1261F/TB1262F

8, Interfaces

1; IF AGC

20; Ysm

7; APC Filter

22; EXT.G IN

11

74

11

20

1

7

250Ω

220

0.7V

100k

2.0V

17

72

74

17

9; S-filter

21; EXT.R IN

23; EXT.B IN

11

21

22

9

800

72

23

5k

2.45V

17

12; R OUT

14; B OUT

13; G OUT

3; PIF filter

26; SCL

25

67

45

12

13

3

26

1k

100

14

5k

1.4/2.1V

3.3V

1k

17

25

50

72

67

18; VM OUT

4; FM filter

27; SDA

45

4

3k

27

18

200Ω

5k

50

15 k

1.4/2.1V

10 p

15 k

3.3V

4.5V

17

25

72

50

19; DAC 1

6; X'tal

28; EHT in

45

11

19

100Ω

6

28

5k

17

3.5V

17

50

2002-6-30 11 / 66

TB1261F/TB1262F

31; ABCL IN

39; H OUT

44; Y3/CVBS3 in

45

50

45

25

17

1

k

5k

44

1

k

50Ω

31

39

30k

6V

50

45

33; EW OUT

40; VD

46; V RAMP

45

33

46

1k

300

3V

200

50

45

50

6k

50

45

34; CW OUT

47; V OUT

45

41; HD/SCP OUT

47

34

200Ω

1k

41

200

5V

3V

50

45

BPP

6k

50

36; DAC 2

48; Cb3 in

49; Cr3 in

11

42; Sync out

45

5 k

36

48

49

100Ω

42

5 k

200Ω

41

50

17

37; FBP IN

51; Cr out 52; Cb out

43; H.AFC

45

50

37

200Ω

237

51

43

VD

GP

100

300

75k

1.4V

3.5V

AFC

blk

50

2002-6-30 12 / 66

TB1261F/TB1262F

68; IF DET OUT

59; Ys(YCbCr)

53; Y/MON out

11

72

25

17

59

250

68

53

100

50k

17

67

61; Y/CVBS 1 in

69; LOOP Filter

54; BLACK Det

11

74

11

1kΩ

69

4kΩ

500

61

1kΩ

1 k

54

4kΩ

1 k

14 k

17

72

17

62; DC Restor

70; DC NF/AM AGC

55; Y2/CVBS2/G in

11

1kΩ

55

1kΩ

50k

62

70

1KΩ

10k

17

65; DE-EMP.AUDIO OUT

56; Cb2/B in

57; Cr2/R in

11

67

1kΩ

56

1.5 k

10 k

1kΩ

65

57

500

15.5 k

1k

72

17

11

71; SIF OUT

58; C in

66; DAC 3

72

67

71

58

1k

100Ω

66

100Ω

75k

1.8V

2.5V

67

17

72

2002-6-30 13 / 66

TB1261F/TB1262F

73; SIF IN

78; RF AGC

79; PIF IN

80; PIF IN

74

int/ext

67

99k

30k

10p

5k

79

80

73

8p

20p

99k

500

15k

30k

3V

78

1k

dac

20p

1.8V

72

1.44k

2V

72

4K

72

76; SIF IN

75; SIF IN

74

99k

75

76

20p

99k

20p

1.44k

2V

1.44k

72

2002-6-30 14 / 66

TB1261F/TB1262F

9,

BUS Description

WRITE MODE

[PIF]

PLL-S (0)

[ Sub; 0Ch D6 1 bit ]

RF AGC (00)

[ Sub; 0Ch D5~D0 6 bits ]

Stops Demodulation

Data

Descriptions

Normal

Data

00

Descriptions

0

1

(recommended)

speed-up （x2）

IF mute

01

3F

65dB(uV)

PLL Sensitivity. Set always '0; normal'

105 dB(uV)

Buzz-R (0)

Data

[ Sub; 0Eh D6 1 bit ]

RF AGC delay point (Pin6-7)

Descriptions

PIF Freq. (00)

[ Sub; 0Dh D7~D5 3 bits ]

Descriptions

0

1

On (recommended)

Off

Data

000

001

010

011

100

101

45.75 MHz

39.5 MHz

38.9 MHz

38.0 MHz

34.2 MHz

33.9 MHz

Nyquist Buzz Reducer SW.

PIF Det lev (4)

Data

[ Sub; 1Ah D5~D4 2 bits ]

Descriptions

0

3

Min

Max

PIF detected output level trimming

Setting IF frequency according to tuner frequency. It

fixes the VCO frequency and AFT center frequency.

(V pp)

2.4

VCO-M (0)

[ Sub; 0Dh D1 1 bit ]

Data

Descriptions

2.3

2.2

2.1

2.0

0

1

Absolute

Relative

(duration of searching)

(normal)

VCO tuning mode

TB1261 has two VCO tuning mode, which are

'Absolute' and 'relative'. The 'Absolute' mode refers

the crystal oscillation frequency 4.43MHz, the

'Relative' mode refers the IF input frequency, which is

tuned by AFT loop.

0

1

2

3

BUS setting

Graph PIF det out level

Set 'Relative' mode in normal receiving, and 'Absolute'

in channel searching. Even setting the 'Relative' mode,

the VCO

L-SECAM (0), L-AGC(0), FM Stop

[ Sub; 12h D1,D0 2 bits ]

D1 D0 Descriptions

mode works as 'Absolute' in status of 'PIF Unlock'

automatically.

0

1

0

1

0

not LSECAM, not FM stop

L-SECAM

L-SECAM & AGC speed up

FM Stop

{L-SECAM}

AFT-S (0)

Data

[ Sub; 0Eh D7 1 bit ]

Descriptions

0

1

Wide

Narrow

400kHz

100kHz

Selecting the IF mode to the L-system or not.

This mode is available only for the TB1262. This bit

set to L-system as to;

The range of the AFT-W read.

- Turn the modulation polarity to positive

- Delay the AGC time constant (Peek AGC),

with switching the IF AGC filter to the capacitor

of DCNF pin (10uF) instead of IFAGC pin

(0.47uF) .

Over Mod (0)

[ Sub; 0Eh D5 1 bit]

Data

Descriptions

0

1

Off

On

(recommended)

on/off the over modulation switch

- SIF AM demodulation (Split carrier only)

with switching the SIF AGC filter to the

capacitor of IFAGC pin (0.47uF) .

{L-SECAM AGC speed up}

The measure circuit against over modulation stops the

APC in detecting the over modulation, in order to avoid

folding the detected signal. It may cause, however,

malfunction against the phase modulated RF signals.

So evaluate carefully in using this function.

Speed up the AGC response for channel search

{FM Stop}

Stopping the FM demodulator to use in NICAM

demodulation.

2002-6-30 15 / 66

TB1261F/TB1262F

S-Trap(100)

Data

[ Sub; 0Dh D2-D4 3 bits ]

[SIF]

Descriptions

SIF-Freq (00)

[ Sub; 0Eh D1-D2 2 bits ]

000

S-trap Off

Data

00

Descriptions

001

111

fo tuning min

fo tuning max

5.5MHz

6.0MHz

6.5MHz

4.5MHz

01

Trap fo tuning and on/off switch. Need to set the

tuning data for each sound system.

10

11

Strap-Q (00)

[ Sub; 22h D1-D0 2 bits ]

Set the SIF frequency for BPF

Set the SIF frequency for Trap filter

Select the SIF FM demodulator band

select the de-emphasis speed

Data

00

Descriptions

Q = 3

Q = 5

01

10

Q = 7 (recommended)

Q = 9

SIF-574 (0)

Data

[ Sub; 0Eh D0 1 bit ]

11

Descriptions

Others

5.74MHz

Sound trap Q control. Need to set the tuning data for

each sound system.

0

1

To use this bit, an external BPF of 5.74MHz is required

Strap-GD (00)

[ Sub; 22h D1-D0 2 bits ]

Data

00

Descriptions

Au-G (0) [ Sub; 0Eh D4 1 bit ]

off

Data

Descriptions

927mVrms at 25kHz/DEV

500mVrms at 25kHz/DEV

01

60 ns

90 ns

120 ns

0

1

10

11

Audio Gain Switch for M system

Sound trap Group delay control. Need to set the tuning

data for each sound system.

FM-band (0)

[ Sub; 0Eh D3 1 bit ]

Descriptions

Data

L AGC-lim

[ Sub; 1Ah D6 1 bit ]

0

1

Wide

Narrow

Data

Descriptions

0

1

on

off

Select FM band width

It controls the bandwidth or pull-in range of the FM

demodulator. This bit should be set depending on the

region as to put wide/narrow bandwidth ceramic BPF.

AGC limiter for L system. It works when set L system.

PIF PLL u

[ Sub; 22h D5 1 bit ]

Data

Descriptions

SIF-in (0)

Data

[ Sub; 0Dh D0 1 bit]

Descriptions

0

1

normal

1/3

0

1

Internal

External

Reduce the u of the PIF PLL

Select 2^ndSIF limiter input path. External BPF is

required in selecting 'External'.

S trap-HP LP (00) [ Sub; 22h D7-D6 2 bits ]

Data

00

Descriptions

off

Spl/ Int (0)

Data

[ Sub; 0Ch D7 1 bit ]

01

1

dB

(HPF)

(LPF)

Descriptions

Split carrier

Inter carrier

10

11

- 3 dB

- 2 dB

0

1

Frequency response control. Need to set the tuning

data for each sound system

Split carrier / Inter carrier selecting.

DCNF (1)

[ Sub; 20h D6 1 bit ]

S2-Q

Data

0

[ Sub; 22h D4 1 bit ]

Data

Descriptions

Normal

Descriptions

0

1

normal

Speed up

1

fixed Q=3 for S2 trap

DCNF Speed. Need to set '1 speed up' at least 500ms

after power on.

RFAGC-adj

Data

[ Sub; 1Ah D7 1 bit ]

Descriptions

Normal

adjusting mode

0

1

RF AGC delay point adjusting mode. See ***.

2002-6-30 16 / 66

TB1261F/TB1262F

Y-γpoint (00)

[ Sub; 0Fh D1-D0 2 bits ]

[YUV, RGB]

Data

00

Descriptions

Off

- Y1

01

10

90IRE

80IRE

70IRE

Y-DL (001)

Data

000

[ Sub; 10h D4-D6 3 bits ]

Descriptions

11

-120ns

-80ns

Set the point of non linear curve for Y signal

001

010

-40ns

+0ns

+400ns

+80ns

+120ns

+160ns

-

Y C points

011

100

Start Point;

out

101

off / 70 / 80 / 90 IRE

110

111

Gain -6dB

Y Delay time

in

C-Trap (0)

[ Sub; 06h D1 1 bit ]

Data

Descriptions

0

1

Off;

On;

for Y / C Separated input

for internal C trap (-20dB or less)

Sharpness (20)

[ Sub; 03h D5-D0 6 bits ]

Descriptions

Data

00

Chroma trap filter for Y input

-5.9dB

3.7dB

5.0 dB

20

- Y2

3F

Black Stretch (00) [ Sub; 11h D0-D1 2 bits ]

Sharpness control

peak:4MHz

Data

00

Descriptions

Off

Shoot balance (00) [ Sub; 11h D4-D2 3 bits ]

01

25IRE

35IRE

45IRE

Data

Descriptions

pre

10

0

7

11

over

Set the black stretch start poin.

shoot balance control

Black stretch

coring (0)

[ Sub; 06h D0 1 bit ]

Data

Descriptions

0

1

On

Off

Start Point;

out

off / 25 / 35 / 45 IRE

on/off the coring

Maximum gain fixed

WPS (0)

Data

[ Sub; 00h D7 1 bit ]

Descriptions

in

[ Sub; 0Fh D2-D3 2 bits ]

0

1

On

Off

DC-Restor. (00)

Data

00

Descriptions

White Peak Suppresser Switch

120%

90%

100%

110%

VM-P (0)

Data

[ Sub; 0Fh D6 1 bit ]

Descriptions

-120ns

01

10

11

0

1

-60ns

DC Restoration control

VSM output phase switching

DC restroration;

120%

VM-G (10)

[ Sub; 0Fh D4-D5 2 bits ]

Data

00

Descriptions

- 10dB

- 3dB

110%

100%

0

100%

01

90%

10

0dB

11

Off

100 IRE

APL

VSM output gain switching

2002-6-30 17 / 66

TB1261F/TB1262F

- UV

TINT (40)

Data

00

[ Sub; 04h D6-D0 7 bits ]

ABL-SP (00)

[ Sub; 00h D3-D2 2 bits ]

Descriptions

Data

00

Descriptions

-35°

35°

0V

7F

01

-0.20 V

-0.30 V

-0.50 V

Tint control (Base Band TINT)

10

11

Black Adj. R-Y (4) [ Sub; 13h D7-D4 4 bits ]

Black Adj. B-Y (4) [ Sub; 13h D3-D0 4 bits ]

Selecting ABL start point

Data

0

F

Descriptions

-92 mV

ABL-G (00)

[ Sub; 00h D1-D0 2 bits ]

Data

00

Descriptions

-0.21 V

+85mV

14mV/dev

UV Black level adjust

01

-0.38 V

10

-0.50 V

-0.67 V

Color (40)

Data

00

[ Sub; 02h D6-D0 7 bits ]

11

Descriptions

-20 dB or less

6.5 dB

ABL Gain control

7F

Y-Mute (0)

[ Sub; 10h D7 1 bit ]

Color control

DEMO-P (00)

Data

Descriptions

[ Sub; 03h D6-D7 2 bits ]

Descriptions

0

1

Off

On

Data

00

PAL1

PAL2

on / off the Y MUTE

01

NTSC1 (105°)

NTSC2 (95°)

10

RGB

Bright (00)

[ Sub; 01h D6-D0 7 bits ]

11

Data

00

Descriptions

the relative phase / amplitude

The relative amplitude and phase are fixed as the

following table. The setting are depend on only

IICBUS command, so that a set micro computer should

select DEMO-P mode on read out 'Color system' in

changing the phase on received color system.

1.75 V (Pedestal Level)

3.25 V (Pedestal Level)

7F

Brightness control

Brt on RGB (0)

[ Sub 01h D7 1 bit ]

Data

Descriptions

RGB Brt on

RGB Brt off

Table The relative amplitude and phase

0

1

BUS

mode

00

PAL1

01

PAL2

10

NTSC

1

11

NTSC

2

Brightness on RGB input

Relative

Amplitude

Relative

Phase

R-Y/B-Y

G-Y/B-Y

R-Y/B-Y

G-Y/B-Y

Cr out

0.55

0.33

90

0.78

0.33

90

0.79

0.28

105

246

0.78

0.33

105

237

Blue Back (0)

[ Sub; 06h D2 1 bit ]

Data

Descriptions

0

1

Off

on (50 IRE )

240

330mVpp

CbCr out

/

90 deg

0 deg

Blue Back Switch

Cb out

/

R Cutoff (00)

G Cutoff (00)

B Cutoff (00)

[ Sub; 07h D7-D0 8 bits ]

[ Sub; 08h D7-D0 8 bits ]

[ Sub; 09h D7-D0 8 bits ]

Col-γ (0)

[ Sub; 02h D7 1 bit ]

Data

Descriptions

Data

00

Descriptions

0

1

Off

On

-0.65 V

0.65 V

FF

on/off the color γ on R

R,G,B Cutoff control

- YUV

B Drive (40)

[ Sub; 0Ah D6-D0 7 bits ]

[ Sub; 0Bh D6-D0 7 bits ]

R/G Drive (40)

Contrast (00)

[ Sub; 00h D6-D0 7 bits ]

Data

00

Descriptions

-5.5 dB

3.5 dB

Data

00

Descriptions

DB

7F

-24dB

R/G, B Drive control

contrast control

2002-6-30 18 / 66

TB1261F/TB1262F

Drive ref (0)

[ Sub; 0Ah D7 1 bit ]

P/N ID S (0)

[ Sub; 11h D6 1 bit ]

Descriptions

Normal

Low

Data

Descriptions

Data

0

1

R reference ( G active )

G reference ( R active )

0

1

Drive control reference

PAL / NTSC ID sensitivity for digital comb filter

Blk (0)

[ Sub; 0Bh D7 1 bit ]

F ID (0)

[ Sub; 11h D7 1 bit ]

Data

Descriptions

Data

Descriptions

0

1

Blanking on ( normal mode)

Blanking off

0

1

Normal

always color on on a fixed color systems

Hor. And Vert. blanking for RGB outputs

Forced killer off (This function dose not work on Auto

1 and Auto 2 mode)

RGB-M (1)

[ Sub; 06h D7 1 bit ]

Descriptions

SGP (00)

Data

00

[ Sub; 12h D7-D6 2 bits ]

Descriptions

Data

0

1

Off

On

Auto

( -20 IRE )

01

+500ns (delayed)

center

-500ns (forwarded)

on / off the RGB mute

10

[CHROMA STAGE]

11

SECAM Gate pulse phase

Color System (000) [ Sub; 06h D6-D4 3 bits ]

Data

000

Descriptions

S- inhibit (0)

[ Sub; 12h D5 1 bit ]

Descriptions

Auto 1 (for Eu, Asia,,,,)

443PAL , 358NTSC , SECAM , 443NTSC

Auto 2 (for S-America)

358NTSC , M-PAL , N-PAL

Fixed 358NTSC

Data

0

1

Normal

001

SECAM inhibit

010

011

100

101

110

111

Fixed 443NTSC

S-ID S (0)

[ Sub; 12h D4 1 bit ]

Descriptions

Fixed 443PAL

Data

Fixed SECAM

0

1

Normal

Low

Fixed M PAL

Fixed N PAL

SECAM ID Sensitivity

Color system selection

S-ID M (0)

[ Sub; 12h D3 1 bit ]

N-Comb (0)

Data

[ Sub; 05h D3 1 bit ]

Descriptions

Data

Descriptions

0

1

H

H+V

* recommended

0

1

Off

On

SECAM ID mode

Comb filter for base-band color signal of NTSC

HP Boost (0)

Data

[ Sub; 12h D2 1 bit ]

Descriptions

BPF/TOF (0)

Data

[ Sub; 11h D5 1 bit ]

Descriptions

0

1

Normal

Boost

0

1

BPF

TOF

Enhance the higher side of SECAM Bell filter, to

eliminate cross color

Select chroma BPF frequency response

S-col-feint (0)

[ Sub; 0Fh D7 1 bit ]

Descriptions

on ; for RF in

off; for AV in

BPF

TOF

BPF

TOF

Data

0

1

On / off the SECAM color feinting feature, which

decrease color gain on RF level.

358

443

2002-6-30 19 / 66

TB1261F/TB1262F

[DEF]

V Phase (00h)

[ Sub; 15h D4-D0 5 bits ]

V-AGC (1)

[ Sub; 1Bh D7 1 bit ]

Data

0

Descriptions

Data

Descriptions

(0H)

(31H)

0

1

Normal

31

Speed up (x3)

Vertical Position control by delaying the V-ramp timing

V Size (40h)

[ Sub; 16h D6-D0 7 bits ]

Descriptions

H Phase (10h)

[ Sub; 14h D4-D0 5 bits ]

Data

00

Descriptions

00

01

7F

V Stop

-47 %

47 %

-3us

3us

1F

Horizontal Position control

Vertical size alignment / Vstop

V-Freq (000)

[ Sub; 15h D7-D5 3 bits ]

V Linearity (4h)

[ Sub; 17h D7-D4 4 bits ]

Data

000

001

010

011

100

101

110

111

Descriptions

Data

Descriptions

Auto

0

-12 %

12 %

50 Hz

F

60 Hz

50Hz in no input

Forced 312.5 H , stopped V pull-in

Forced 262.5 H , stopped V pull-in

Forced 313 H , stopped V pull-in

Forced 263 H , stopped V pull-in

V linearity alignment

V cent. (10h)

[ Sub; 18h D5-D0 6 bits ]

Data

Descriptions

-12 %

12 %

0

3F

V centering

Vertical frequency pull-in mode selection

V-S Corr (4h)

[ Sub; 17h D3-D0 4 bits ]

AFC Gain (00)

[ Sub; 18h D7-D6 2 bits ]

Data

Descriptions

Data

Descriptions

0

F

20 %

-12 %

00

Normal

01

1 / 3 sensitivity

X 3 at V blanking duration

AFC OFF

10

11

AFC gain

V Ramp Ref. (0)

[ Sub; 16h D7 1 bit ]

Data

Descriptions

External (YC Vcc)

Internal

0

1

Sync gate (0)

[ Sub; 14h D7 1 bit ]

Data

0

1

Descriptions

Normal

Gated

Select the reference voltage

V.EHT (0h)

[ Sub; 1Eh D7-D5 3 bits ]

Data

Descriptions

Min

F sync (0)

[ Sub; 14h D6 1 bit ]

0

7

( 0 %)

(-9 %)

Data

Descriptions

Max gain

0

1

Normal ; for input from RF

Adjust the sensitivity for V

F sync ;

for input from AV

equipments

H Size (10)

[ Sub; 1Ch D5-D0 5 bits ]

Forced sync

Data

00

Descriptions

700 uA

H STOP (0)

[ Sub; 1Ch D6 1 bit ]

3F

0 uA ( at top )

Data

Descriptions

Adjust the H size by biasing the EW DC voltage

0

1

Normal

& Y-mute & RGB mute;

H STOP

EW Para (40)

[ Sub; 1Bh D6-D0 7 bits ]

Descriptions

0 uA(p-p)

440 uA(p-p)

H OUT stop

Data

00

312/313 (0)

[ Sub; 14h D5 1 bit ]

7F

Data

Descriptions

Normal

Adjust the EW Parabola amplitude

0

1

TELETXT(312/313)

(This function makes V-scanning non-interlace for

teletext)

2002-6-30 20 / 66

TB1261F/TB1262F

EW Corner Top (10) [ Sub; 1Eh D4-D0 5 bits ]

[OTHERS]

Data

00

Descriptions

noise det (4)

[ Sub; 1Ah D3-D0 4 bits ]

720 uA (-36%)

160 uA (36%)

Data

Descriptions

1F

0

F

Adjust upper EW corner

EW Corner Bottom (19) [ Sub; 1Fh D4-D0 5 bits ]

Noise det level setting

Data

00

1F

Descriptions

720 uA (-36%)

160 uA (36%)

Dac 1 (0)

Dac 2 (0)

Dac 3 (0)

Data

0

1

[ Sub; 1Ch D7 1 bit ]

[ Sub; 1Dh D7 1 bit ]

[ Sub; 20h D7 1 bit ]

Descriptions

High impedance

Low

EW Trape (20)

[ Sub; 1Dh D5-D0 6 bits ]

Data

00

Descriptions

- 6.5 %

6.5 %

1F

TEST (00)

Data

00

others

[ Sub; 21h D7-D0 8 bits ]

Adjusting EW trapezium

Descriptions

Normal

For testing IC

V BLK Bottom (0h) [ Sub; 19h D6-D4 3 bits ]

Data

Descriptions

Normal

80 %

Leave these bits preset data ; 0000 0000

0

7

Lower V Blanking for RGB outs

V BLK top (0h)

[ Sub; 19h D3-D0 4 bits ]

Data

Descriptions

0

Normal

85 %

F

Upper V Blanking for RGB outs

H Side BLK (0)

[ Sub; 19h D7 1 bit ]

Data

Descriptions

0

1

Off

on

(92%)

H side Blanking

H bow (4)

[ Sub; 20h D2-D0 3 bits ]

Data

Descriptions

0

7

)

(

)

(

- 1uS

+ 1uS

H Bow curve correction

H Par (4)

[ Sub; 20h D5-D3 3 bits ]

Data

Descriptions

╲ ╲

╱ ╱

-/+ 2 uS

+/- 2 uS

0

7

H Parallelogram correction

H.EHT (0)

[ Sub; 1Fh D7-D5 3 bits ]

Data

Descriptions

Min (0 %)

Max

0

7

Adjust the sensitivity for H EHT

2002-6-30 21 / 66

TB1261F/TB1262F

IO selection

switch [D]

Y/mon out (0)

[ Sub; 05h D0 1 bit ]

switch [A]

Video sw (00)

Y/mon out (0)

Data

0

1

Descriptions

Y out

[ Sub; 05h D6-D5 2 bits ]

[ Sub; 05h D0 1 bit ]

Descriptions

Mon out

Y/mon

Video

sw

00

switch [E]

CbCr sw (0)

Video sw (00)

Ys(CbCr)

Data

CbCr Video

out

[ Sub; 05h D2 1 bit ]

[ Sub; 05h D6-D5 2 bits ]

Pin# 59

1

V1

01

V2

10

V3

Descriptions

11

inhibit

V1

Ys

0

* *

0

1

*

Low YUV 1

V2 cannot select in using RGB>YUV mode

V3 is available only for QFP version

00/01 Low YUB 2

10/11 Low YUV 3

**

High YUV 2

switch [B]

C in sw (0)

[ Sub; 05h D4 1 bit ]

Descriptions

switch [F]

Data

0

1

RGB->YUV (0)

[ Sub; 06h D3 1 bit ]

Vsw out

C-in

for CVBS in

for Y/C in

Data

0

1

Descriptions

RGB in

(RGB->YCbCR sw on)

YCbCr in

switch [C]

Y+C sw (0)

RGB->YCbCR sw

[ Sub; 04h D7 1 bit ]

Descriptions

Through

Data

0

1

switch [G]

Ys in (0)

[ Sub; 05h D1 1 bit ]

Descriptions

Activate

Prohibited

Y+C

Data

0

1

Fig. TB1261F Switch box

52

Cb OUT

51

<Y+C sw>

Cr OUT

Yout

[D]

53

Y/Mon OUT

[C]

6dB

Mon out

58

61

[B]

C

proc.

C-IN

V1

V2

V3

[A]

[E]

Y/CVBS1 IN

YUV 1

int

Y1

proc.

Y2

UV

inhibit

ext

Sync

proc.

to DEF

[F]

RGB

YUV 2

YUV 3

55

56

57

59

Y2/CVBS2/G IN

|

Cb2/B IN

Cr2/R IN

YUV

[G]

Ys(YCbCr)

44

48

49

Y3/CVBS3 IN

Cb3 IN

<Ys in>

Cr3 IN

2002-6-30 22 / 66

TB1261F/TB1262F

READ MODE

V-STD

Data

Descriptions

! General warning

0

1

Non standard vertical frequency

Standard vertical frequency

The read bus flags indicate that a certain signal is

detected at the moment. But reliability of detection

result is not so accurate if checking only one flag, that

confirming several flags, which means similar result

by each other, at the same time is recommended.

Vertical synchronization pulse is within the window of

0.625H from 312.5/262.5, or not.

Noise

Data

Descriptions

Lower noise level than reference voltage

Larger

POR

0

1

Data

Descriptions

After the first bus accessed, always 0

A reset condition occurred just before

0

1

It shows the noise level on H sync pulse. The slice level

is set by 'Noise det' of IICBUS.

The detected result is hold one H period after every H

sync periods. Decide the result with the majority of

several readings.

IF Lock

Data

Descriptions

0

1

IF PLL lock detection, locked out

Locked in

RF AGC

1

Data

Descriptions

High

Low

This bit shows the locked/unlocked status of PIF PLL.

0

1

H Lock

This bit can show the DC voltage for RF AGC pin.

Data

Descriptions

0

1

Horizontal sync lock detection, Lock out

Lock in

C-in DC

Data

Descriptions

Cin voltage not GND

GND

The 'H Lock' indicates whether H sync pulses are

within the certain windows which generated by H

counter.

0

1

The DC voltage on C-in terminal. It is to detect S-jack

switch status with external circuit.

Color System

Data

0 0 0

0 0 1

0 1 0

0 1 1

1 0 0

1 0 1

1 1 0

1 1 1

Descriptions

No color

4.43 PAL

M-PAL

Sound dev

Data

Descriptions

0

1

within the range ( of 300% )

out of range

N-PAL

'Sound dev' detects over deviation of the SIF, which set

to '1' in detecting the frequency offset of more than

157kHz, or 300%.

358 NTSC

443 NTSC

SECAM

N/A

The detected result is hold until the first 'read' is

commanded by means of S/R latch, and reset to '0'

after that. Decide the result with the majority of

several readings.

AFT-W

Station det

Data

Descriptions

Out of the AFT window

In the AFT window

Descriptions

No-Signal

Tuned

0

1

0

1

This bit shows the status whether the FM PLL is

locked or unlocked. However it may not work so

accurate for field signal, that use other parameters to

control sound system.

AFT-C

Data

Descriptions

Upper frequency

Lower frequency

0

1

P VCO err

V Freq

Data

Descriptions

Ok

Data

Descriptions

50 Hz

0

1

0

1

error detect

60 Hz

This bit is only for evaluation.

Vertical oscillation frequency.

2002-6-30 23 / 66

TB1261F/TB1262F

EW control

DAC

MIN

720uA

DAC

MIN

⊿440uA

700uA

350uA

440uA

TYP

7bits

⊿700uA

6bits

Cent

MAX

160uA

(H-Size=MAX, Parabola=MAX)

0uA

Coner (bottom)

H Size

DAC

Min Max

DAC

MAX

5%

440uA

⊿440uA

200uA

TYP

MIN

7bits

0uA

(H-Size=MAX)

Parabola

100%

Trapezium

DAC

MIN

720uA

⊿440uA

440uA

160uA

TYP

7bits

MAX

(H-Size=MAX, Parabola=MAX)

Coner (Top)

2002-6-30 24 / 66

TB1261F/TB1262F

Vertical control

V-centering

V-S

DAC

(B)

(A)

MAX

TYP

MIN

DAC

MAX

(C)

TYP

MIN

(B)

(C)

(A)

7 bits

V-S(+) = (A – B) / A x 100%

+20%

-/+ 12% 6bits

V-S(-) = (A – C) / A x 100% -12%

V-CENT(+) = B / A x 100%

V-CENT(-) = C / A x 100%

V-Phase

V-Size

DAC

MAX

(B)

00h---------1Fh (5bit)

0H ---------31H (V ramp phase)

(A)

TYP

MIN

(C)

V-BLK (TOP)

in

RGB BLK

23 24

1

Blanking

0

-/+ 47% 7 bits

2

3

29H

4

31H

5

33H

6

35H

7

37H

50Hz

23H

25H

27H

V-Size(max) = (B – A) / A x 100%

V-Size(min) = (C – A) / A x 100%

335H 337H 339H 341H 343H 345H 347H 349H

22H 24H 26H 28H 30H 32H 34H 36H

284H 286H 288H 290H 292H 294H 296H 298H

60Hz

V-Linearity

8

39H

9

41H

A

43H

B

45H

C

47H

D

49H

E

51H

F

53H

DAC

MAX

(B)

50Hz

60Hz

351H 353H 355H 357H 359H 361H 363H 365H

38H 40H 42H 44H 46H 48H 50H 52H

300H 302H 304H 306H 308H 310H 312H 314H

TYP

MIN

(C)

(F)

(A)

V-BLK (Bottom)

in

(D)

RGB BLK

(E)

0

50Hz 312H

625H

60Hz 263H

1H

1

2

3

4

5

6

7

-/+ 12% 4 bits

V-Lin = {( B – C ) + ( E - F)} / {2 x ( A + D )} x 100%

306

621

259

522

302

617

255

518

298

613

251

514

294

609

247

510

290

605

243

506

286

601

239

502

282

597

235

498

2002-6-30 25 / 66

TB1261F/TB1262F

10, Electrical Characteristics

(unless otherwise specified, Ta = 25°C, V

= 5.0 and 9.0 V for each appropriate)

CC

DC CHARACTERISTIC

CURRENT CONSUMPTION

Test

Characteristics

Symbol

Circu Test Condition

it

Min

Typ.

Max

Unit

IF Vcc (5V)

IccIF5

IccIF9

Supply 5.0 V

24

10

30

13

14

18

20

78

38

16.5

17.5

22.5

24

mA

IF Vcc (9V)

Supply 9.0 V

RGB VCC (9V)

H VCC (9V)

IccRGB9

IccHVcc

Idd

Supply 9.0 V

10.5

13.5

16

Supply 9.0 V

DIGITAL VDD ( around 3.3V)

Y/C VCC (5V)

Supply 9.0 V via 270 ohms

Supply 5.0 V

IccYC5

58

98

PIN VOLTAGE

Test

Circuit

Characteristics

Symbol

Test Condition

Min

Typ.

Max

Unit

4

FM Filter

V4

V6

2.5

2.6

2.0

1.6

2.2

4.5

3.6

3.0

2.6

3.2

0.0

3.3

6.0

2.7

7.0

1.8

2.2

5.0

3.2

2.5

1.6

1.8

2.2

3.0

6.5

4.6

4.0

3.6

4.2

0.25

4.5

7.0

3.5

8.0

V

6

X’TAL

7

APC FILTER

SECAM Filter

VSM OUT

YS/YM SW

EXT. R IN

EXT. G IN

EXT. B IN

ABCL IN

V7

9

V9

18

20

21

22

23

31

34

43

V18

V20

V21

V22

V23

V31

V34

V43

2.0

4.0

2.0

6.0

CW OUT

H AFC FILTER

at sync tip in non-selected

at 35%of sync in selected

Average DC voltage

44

Y3/CVBS3 in

V44

V

47

48

49

51

52

54

V OUT

V47

V48

V49

V51

V52

V54

4.5

2.2

1.5

1.0

5.5

4.2

3.5

V

Cr3 in

Cb3 in

Cr OUT

Cb OUT

BLACK DET

at sync tip in non-selected

at 35%of sync in selected

55

56

Y2/CVBS2/G in

Cb2/B in

V55

V56

V

2.0

4.0

2002-6-30 26 / 66

TB1261F/TB1262F

Test

Circuit

Characteristics

Cr2/R in

Symbol

Test Condition

Min

Typ.

Max

Unit

57

58

59

V57

V58

V59

2.0

1.5

3.0

2.5

0

4.0

3.5

V

C1 in

YS

0.25

at sync tip in non-selected

at 35%of sync in selected

on input 50IRE Y signal

1.8

2.2

2.5

4.1

2.2

2.0

3.0

2.0

61

Y1/CVBS1 in

V61

V

62

65

69

71

73

75

76

79

80

DC RESTORE

De-Emp/Mon OUT

LOOP FILTER

SIF OUT

V62

V65

V69

V71

V73

V75

V76

V79

V80

1.5

1

3.5

8

V

1.2

1.0

3.2

3.0

SIF in / H corr.

SIF in(1)

1.0

3.0

SIF in(2)

PIF in(1)

PIF in(2)

AC CHARACTERISTIC

PIF STAGE

TEST

ITEM

SYMBOL

COND

ITON

MIN

TYP

MAX

UNIT

CIRCUIT

PIF STAGE

Video output signal amplitude

Nega

Posi

V Det (p)n

V Det (p)p

vin min(p)

vin max(p)

RAGC(p)

Vsync n

Vsync p

DG

in; #79,80

2.0

-

2.2

42

105

63

2.8

2

2.4

V

P1

P2

out; #68

2.4

PIF input sensitivity

47

dB(uV)

PIF maximum input signal

PIF gain control range

Synchronous signal level

100

53

2.6

-

dB

V

Nega

Posi

3.0

P3

P4

3.0

Differential gain

5

%

deg

MHz

dB

Differential phase

DP

-

2

5

Video bandwidth (-3dB)

Video output S/N

fDet(p)

S/N(p)

P5

P6

P7

P8

6

8

-

54

34

-

60

40

3

-

Inter Modulation

I M

-

dB

kΩ

pF

PIF input resistance (*)

PIF input capacitance (*)

RF AGC output voltage

Zin R(p)

Zin C(p)

VAGC max

VAGC min

v Dly min

v Dly max

fpH(p)

in; #79,80

out; #79,80

in; #79,80

out; #78

-

max

9.0-

-

V

P9

min

-

0.3

80

-

RF AGC delay point

min

70

dB(uV)

P10

max

100

1.4

-

110

1.7

-1.7

1.7

-1.7

Capture range of the PLL

Hold range of the PLL

Upper

Lower

Upper

Lower

in; #79,80

out; #68

-

MHz

fpL(p)

-1.4

-

P11

fhH(p)

1.4

-

fhL(p)

-1.4

β

Control steepness of the VCO

AFT Center turn Frequency

in; #79,80

out; #69

MHz/V

P12

-

3.0

-

fAFTC

in; #79,80

out; BUS (r)

P13

P14

0

MHz

kHz

AFT window

narrow

fAFTW(n)L

fAFTW(n)H

fAFTW(w)L

fAFTW(w)H

-50

50

Wide

-200

200

S-trap reduction

in; #79,80

out; #68

P15

-30

-24

2002-6-30 27 / 66

TB1261F/TB1262F

TEST

COND

ITON

TEST

ITEM

SYMBOL

MIN

TYP

MAX

UNIT

CIRCUIT

1ST SIF STAGE

ｖin max(s)1

ｖin min(s)1

ＲAGC(s)1

vSIF1

SIF maximum input signal

SIF minimum input signal

SIF gain control range

2nd SIF output level

in; #75,76

S1

100

110

40

70

103

10

5

-

50

-

dB(uV)

dB

in(uc); #79,80

out; #71

-

50

100

-

106

-

dB(uV)

kΩ

SIF input resistance（*）

SIF input capacitance（*）

Ｚin R(s)

Ｚin C(s)

in; #75,76

out; #75,76

S2

-

pF

AM sound

AM input sensitivity

vin minAM

vin maxAM

vSIF L

in; #75,76

S3

S4

-

40

110

103

500

54

50

-

dB(uV)

AM maximum input level

2nd SIF output level (L)

in(uc); #79,80

100

375

48

106

665

-

dB(uV)

mVrms

dB

AF output signal amplitude (AM)

AF output S/N (AM)

vDet(s)AM

S/N(s)AM

THDAM

out; #65

Total harmonics distortion (AM)

2nd SIF stage

-

0.7

3.0

%

AF output signal amplitude(5.5MHz)

AF output S/N (5.5MHz)

vDet(s)5.5M in; 73

695

55

-

927

60

1236

-

mVrms

dB

S5

S6

S7

S/Ns)5.5M

THD5.5M

vDet(s)6.0M

S/N(s)6.0M

THD6.0M

vDet(s)6.5M

S/N(s)6.5M

THD6.5M

vDet(s)4.5M

L

out; 71

Total harmonics distortion (5.5MHz)

AF output signal amplitude (6.0MHz)

AF output S/N (6.0MHz)

0.3

927

60

1.0

1236

-

%

695

55

-

mVrms

dB

Total harmonics distortion (6.0MHz)

AF output signal amplitude (6.5MHz)

AF output S/N (6.5MHz)

0.3

927

60

1.0

1236

-

%

695

55

-

mVrms

dB

Total harmonics distortion (6.5MHz)

AF output signal amplitude (4.5MHz

Low)

0.3

1.0

%

350

500

710

mVrms

S8

S9

AF output S/N (4.5MHz Low)

Total harmonics distortion (4.5MHz Low)

AF output signal amplitude (4.5MHz

High)

S/N(s)4.5ML

THD4.5ML

vDet(s)4.5M

H

52

-

58

-

dB

%

0.3

1.0

649

52

-

927

1324

mVrms

S/N(s)4.5M

H

AF output S/N (4.5MHz High)

58

-

dB

Total harmonics distortion (4.5MHz

High)

THD4.5MH

0.3

1.0

%

Limiting sensitivity (4.5MHz Low)

(4.5MHz High)

lim(s)4.5ML

im(s)4.5MH

lim(s)5.5M

lim(s)6.0M

lim(s)6.5M

AMR4.5MH

AMR 4.5ML

AMR5.5M

AMR6.0M

AMR6.5M

40

45

40

45

55

60

45

50

45

50

-

S10

dB(uV)

(5.5MHz)

-

(6.0MHz)

-

(6.5MHz)

-

AM reduction ratio (4.5MHz High)

(4.5MHz Low)

50

dB

-

S11

S12

(5.5MHz)

-

(6.0MHz)

-

(6.5MHz)

-

Demodulation band width of the FM

demodulator (Upper 1)

Demodulation band width of the FM

demodulator (Lower1)

VIDEO STAGE

fpH(s)1

130

-

kHz

fpL(s)1

-

-130

Y Input Dynamic Range

Y Delay time

Y1 in

－

in; #61

out; #53

V1

V2

0.9

350

570

-80

120

30

1.0

440

680

-120

160

40

V(p-p)

ns

(PAL NTSC)

t_YDELP

t_YDELS

530

790

-160

200

50

(SECAM)

(000)

t_YDEL-120

t_YDEL160

t_{YDEL step}

G_TRAP358

G_TRAP443

ns

(111)

1step

Chroma Trap Gain

3.58MHz

－

V3

-27

-23

dB

4.43MHz

－

-27

-23

ｄB

MHz

Y gain (Y)

G Y1

V4

V5

5.0

5.5

6.0

Y frequency response

－

FR_Y

8.0

Mon out gain (MON)

(Y1/CVBS1)

(Y2/CVBS2)

(Y3/CVBS3)

G_TV1

in;#61 / out;#53

in;#55 / out;#53

in;#44 / out;#53

in;#61 / out;#53

5.5

6

6.5

－

dB

V6

V7

G_TV2

G_TV3

FR_Y

dB

MHz

Y frequency response

8.0

2002-6-30 28 / 66

TB1261F/TB1262F

TEST

COND

ITON

TEST

ITEM

SYMBOL

MIN

TYP

MAX

UNIT

dB

CIRCUIT

V switch cross-talk (CVBS1-CVBS2)

(CVBS1-CVBS3)

CT_{V1_2}

-55

－

CT_{CVBS1_3}

CT_{CVBS2_1}

CT_{CVBS2_3}

CT_{CVBS3_1}

CT_{CVBS3_2}

(CVBS2-CVBS1)

in; #61, 55 or 44

out; #53

V8

(CVBS2-CVBS3)

(CVBS3-CVBS1)

(CVBS3-CVBS2)

RGB input D-range

Ys Mode Switching Level

CHROMA STAGE

0.9

0.5

1.0

0.7

V (p-p)

0.9

Ｖ

ACCL

－

ACC Characteristic

C1

C2

25

1000

5.07

1.8

40

－

mV(p-p)

MHz

ns

Ｖ

ACCH

600

4.87

1.6

Ｆ

0T443

TOF Characteristic.(4.43)

BPF Characteristic. (4.43)

TOF Characteristic. (3.58)

BPF Characteristic. (3.58)

C Delay Time

fo

Q

fo

Q

fo

Q

fo

Q

(*) test mode

5.27

2.0

Ｑ

T443

Ｆ

0B443

4.26

1.6

4.46

1.8

4.66

2.0

Ｑ

B443

Ｆ

0T358

4.05

1.6

4.25

1.8

4.46

2.0

Ｑ

T358

Ｆ

0B358

3.43

1.6

3.63

1.8

3.83

2.0

Ｑ

B358

(PAL)

t_CDELN

t_CDELP

t_CDELS

C3

C4

595

700

805

510

765

350

-1500

350

-2000

350

-1500

350

-2000

0.6

600

900

450

-600

450

-600

450

-600

450

-600

1.1

690

1035

－

(NTSC)

(SECAM)

Ｆ

4APCP+

APC Pull- In Range (4.43MHz)

APC Hold Range (4.43MHz)

APC Pull-In Range (3.58MHz)

APC Hold Range (3.58MHz)

in; #58

uc_in ; #61

out; #51, 52

Hz

Ｆ

-

-450

－

4APCP

Ｆ

4APCH+

Ｆ

4APCH-

-450

－

Ｆ

3APCP+

Ｆ

-450

－

3APCP-

3APCH+

Ｆ

3APCH-

-450

1.6

β

443

APC Control Sensitivity (4.43MHz)

APC Control Sensitivity (3.58MHz)

PAL ID Sensitivity (Normal Mode)

Hz/mV

in;#58 (#61)

out; #7

C5

C6

β

358

0.4

0.9

1.4

Ｖ

PIDON

in; #58

0.8

1.6

3.2

mV(p-p)

Ｖ

in ; #61

0.9

1.8

3.6

PIDOFF

PAL ID Sensitivity (Low Mode)

NTSC ID Sensitivity (Normal Mode)

NTSC ID Sensitivity (Low Mode)

black adjustment (internal)

out; #51, 52

1.2

2.5

5.0

PIDLON

Ｖ

1.6

3.2

6.4

PIDLOFF

Ｖ

NIDON

0.8

1.6

3.2

Ｖ

1.0

2.0

4.0

NIDOFF

1.4

2.8

5.6

NIDLON

Ｖ

1.8

3.6

7.2

NIDLOFF

V_{B INT MAX}

V_{R INT MAX}

V_{B INT MIN}

V_{R INT MIN}

ΔV_{B INT}

C7

27.5

18.0

-39.5

-28.5

3.5

35.5

24.0

-31.5

-22.5

4.5

43.5

30.0

-30.7

-16.5

5.5

mV

Black adjustment sensitivity (internal)

black adjustment (external)

ΔV_{R INT}

2.1

3.1

4.1

V_{B EXT MAX}

V_{R EXT MAX}

V_{B EXT MIN}

V_{R EXT MIN}

ΔV_{B EXT}

ΔV_{R EXT}

345

190

-585

-355

49

425

230

-505

-295

62

505

290

-425

-235

75

Black adjustment sensitivity (external)

27

35

43

0.5５

0.75

0.53

0.55

0.57

CWOUT Amplitude

4.43M

3.58M

0.40

0.60

0.38

0.70

0.90

0.68

V_CW

C8

V(p-p)

CbCr out amplitude Cr PAL

Cb PAL

color bar (75%)

V(p-p)

Cr NTSC

Cb NTSC

SECAM STAGE

SECAM CbCr Output Amplitude

VBS

VRS

R/B-S

in;#58

(Color bar 75%)

C9

0.37

0.39

0.90

0.52

0.54

1.05

0.67

0.69

1.20

V(p-p)

SECAM CbCr out Relative Amplitude

C10

2002-6-30 29 / 66

TB1261F/TB1262F

TEST

COND

ITON

TEST

ITEM

SYMBOL

MIN

TYP

MAX

UNIT

dB

CIRCUIT

SECAM CbCr out S/N Ratio

SNB-S

SBR-S

LinB

LinR

trfB

uc_in ; #61

out; #51, 52

C11

C12

C13

C14

-

83

-

-44.

-45.

100

90

-28

-32

117

1.5

5.0

5.6

1.6

3.6

5.2

6.4

1.6

4.0

SECAM Linearity

%

us

SECAM Rising-Fall Time

0.70

trfR

SIDHON

-

0.90

2.5

2.8

0.8

1.8

2.6

3.2

0.8

2.0

SECAM ID Sensitivity

(Normal Mode)

H

Ｖ

1.2

1.4

0.4

0.9

1.3

1.6

0.4

1.0

mV(p-p)

Ｖ

SIDHOFF

H+V

H

Ｖ

SIDHVON

Ｖ

SIDHVOFF

SECAM ID Sensitivity

(Low Mode)

Ｖ

SIDLHON

Ｖ

SIDLHOFF

H+V

Ｖ

SIDLHVON

Ｖ

SIDLHVOFF

YUV (Y)

Brightness Control Characteristics

V_BRTMAX

V_BRTCEN

V_BRTMIN

ΔV_BRT

in; #61

Y1

2.95

1.95

0.95

13.2

13.0

8.2

3.40

2.40

1.40

15.3

14.7

9.8

3.80

2.85

1.85

17.3

16.3

11.4

-1.2

12.0

5.5

V (dc)

out; #14(B)

Brightness Control resolution

Contrast Control for Y

mV(/step)

dB

Ｇ

UCYMAX

Y2

Y3

Ｇ

UCYCEN

Ｇ

UCYMIN

-4.4

6.0

-2.8

9.0

Sharpness Control

Ｇ

SHMAX

dB

Ｇ

SHCEN

3.5

4.5

Ｇ

SHMIN

-16.0

2.7

-13.0

3.7

-10.0

4.7

Sharpness Peaking Frequency

Sharpness Coring

Y γ correction start point

Ｆ

SHP

Y4

Y5

MHz

dB

(IRE)

G_COR

-0.9

67

-0.7

70

-0.5

73

V_Y_γ

70

V_Y_γ

74

77

80

V_Y_γ

90

82

-6

1.15

21

30

39

85

-5

1.3

25

34

43

90

88

-4

1.55

29

38

47

95

Y γ correction curve

G_Y_γ

dB

V

Black stretch AMP Gain

Ｇ

BLEX

Y6

Y7

Black stretch Start Point

V_{BLEX 25IRE}

V_{BLEX 35IRE}

V_{BLEX 45IRE}

V_dcrest90

DC restoration gain

(IRE)

V_dcrest110

V_dcrest120

V_{dcrest step}

V_WPS

F_VSM

G_{VSM 0}

103

110

108

115

8

4.24

3.5

0.50

4

113

120

11

4.54

4.5

1.70

5.

10.5

-18.5

-110

-60

75

0.9

5

3.94

2.5

-0.7

2.7

8.

WPS Level

VSM Peak Frequency

VSM Gain

Y8

Y9

Y10

V(p)

MHz

dB

in; #61

out; #18

(VM-G = 0dB)

(VM-G = -3dB)

(VM-G = -10dB)

(VM-G = off)

2T Pulse (0)

G_VSM-3

G_VSM-10

G_{VSM OFF}

T_{VM2T (0)}

T_{VM2T (1)}

T_VMBUS

V_VMMBLK

9.

-

- 22.5

-150

-90

60

VSM Phase

Y11

-190

-120

45

ns

2T Pulse (1)

BUS (1)－(0)

VSM Mute Threshold Level on Ys

V18

0.5

0.7

V

YUV (UV)

Δθ

TINT control range

MAX

MIN

MAX

MIN

Min

in; #58

uc_in ; #61

out; #12, 13, 14

UV1

28

-28

35

-35

43

-43

deg

MAX

Δθ

MIN

Ｇ

COLMAX

Color Control

UV2

UV3

4.7

6.2

7.7

dB

Ｇ

COLMIN

－

-25

Ｇ

UCCMIN

-11.0

－

±2ｄB

Contrast Control for UV

-15.0

－

-13.0

0

5.00

18.00

0.55

0.33

Ｇ

UCCCEN

Center

Max

Ｇ

UCCMAX

±2ｄB

±3.5dB

3.0

7.0

Ｇ

UCC

14.5

0.45

0.27

21.5

0.65

0.39

Relative Amplitude (PAL1)

R/B

G/B

V_P1R/B

V_P1G/B

UV4

2002-6-30 30 / 66

TB1261F/TB1262F

TEST

COND

ITON

TEST

ITEM

SYMBOL

MIN

TYP

MAX

UNIT

CIRCUIT

Relative Amplitude (PAL2)

Relative Amplitude (NTSC1)

Relative Amplitude (NTSC2)

R/B

G/B

R/B

G/B

R/B

G/B

R-B

G-B

R-B

G-B

R-B

G-B

R-B

G-B

V_P2R/B

V _P2G/B

V_N1R/B

V_N1G/B

V_N2R/B

V_N2G/B

0.68

0.27

0.69

0.22

0.68

0.27

85

0.78

0.33

0.79

0.28

0.78

0.33

90

0.88

0.39

0.89

0.34

0.88

0.39

95

θ

P1R-B

Relative Phase

(PAL1)

UV5

deg

θ

P1G-B

235

85

240

90

245

95

θ

P2R-B

(PAL2)

θ

P2G-B

235

100

241

99

240

105

246

104

237

-6

245

110

251

109

242

-5

θ

N1R-B

(NTSC1)

(NTSC2)

θ

N1G-B

θ

N2R-B

θ

N2G-B

232

-7

Ｇ

HTC

Half Tone reduction. for UV

Half Tone reduction for Y

RGB STAGE

UV6

UV7

dB

G

HTY

-7

-6

-5

V-BLK Pulse Output Level

H-BLK Pulse Output Level

Ｖ

VBLK

in; #61

out; #12

0.1

0.6

1.1

T1

V(p)

Ｖ

HBLK

RGB Output Black Level (0IRE DC)

RGB Output White Level(100IRE AC)

Cut-Off Voltage Variable Range

Ｖ

BLACK

T2

T3

T4

2.25

3.3

2.5

2.75

4.1

V

V(p)

V

Ｖ

WHITE

3.7

Ｖ

CUT+

0.6

0.7

0.65

-0.65

4.0

Ｖ

CUT-

-0.7

-0.6

V

Drive Control Variable Range

ABCL Control Voltage Range

Ｇ

DR+

T5

T6

3.0

5.0

dB

V

Ｇ

DR-

-7.5-

5.6

-6.5

5.9

-5.5

Ｖ

ABCLH

6.2

Ｖ

ABCLL

4.2

4.5

4.8

V

ACL Gain

ABL Point

Ｇ

ACL

-19.5

-0.1

-17.5

0

-15.5

0.1

dB

V

Ｖ

ABLP1

T7

T8

Ｖ

ABLP2

-0.26

-0.33

-0.36

-0.32

-0.45

-0.62

-0.10

11.40

-0.16

-0.23

-0.26

-0.22

-0.35

-0.52

0

-0.06

-0.13

-0.16

-0.12

-0.25

-0.42

+0.10

13.00

Ｖ

ABLP3

Ｖ

ABLP4

ABL Gain

Ｖ

ABLG1

V

Ｖ

ABLG2

Ｖ

ABLG3

Ｖ

ABLG4

Analog RGB Gain

in; #20,21,22,23

out; #12, 13, 14

dB

12.20

Analog RGB reduction on Ym

Analog RGB Dynamic Range

-6

ＤＲ

T9

T11

0.7

2.9

1.0

-

V(p-p)

TX

Analog RGB Brightness

Control Characteristic

MAX.

CEN.

MIN.

Ｖ

3.3

3.7

2.7

1.7

0.92

V

TXBRMAX

ＶT_XBRCEN

1.9

2.3

Ｖ

0.9

1.3

TXBRMIN

YsYm Mode Switching Level

Ｖ

YSANA

T12

T13

0.52

0.72

Ｖ

YSBLK

1.82

－

2.02

40

-55

-46

-

2.22

100

-40

50

Analog RGB Mode Transfer

Characteristic

τＲ

ns

YS

tＰＲ

－

YS

τＦ

－

YS

tＰＦ

－

YS

Cross Talk from Analog RGB toＴＶ

ＣＴ

－

T14

T15

T17

dB

mV

TX-TV

Cross Talk from ＴＶ to Analog RGB

Analog RGB / RGB Output Voltage

Axes Difference

ＣＴ

－

TV-TX

ΔV_R-G

ΔV_G-B

ΔV_B-R

-50

1.7

3.84

-

50

2.1

4.44

RGB Mute DC level

Blue Back level

DEF STAGE

Ｖ

RGBMR

T18

D1

1.9

4.14

V

V_BB

AFC Inactive Period

50Hz

Ｔ

－

309-7

262-10

4.7

40.5

15.39

(H)

50AFCOFF

60Hz

Ｔ

60AFCOFF

H-OUT Start Voltage

Ｖ

HON

D2

D3

D4

D5

4.4

38.5

15.38

5.0

42.5

15.40

V

％

H-OUT Pulse Duty

Ｗ

HOUT

H-OUT Freq. On AFC Stop Mode

Horizontal Free-Run Frequency

Ｆ

kHz

HAFCOFF

50Hz

Ｆ

H50FR

15.475 15.625 15.775

2002-6-30 31 / 66

TB1261F/TB1262F

TEST

COND

ITON

TEST

ITEM

SYMBOL

MIN

TYP

MAX

UNIT

CIRCUIT

60Hz

MAX.

MIN.

Ｆ

H60FR

15.585 15.734 15.885

16.200 16.400 16.600

14.600 14.900 15.200

2.4

500

4.2

－

kHz

Horizontal Freq. Variable

Range

Horizontal Freq. Control Sensitivity

Horizontal Pull-In Range

Ｆ

HMAX

D6

Ｆ

HMIN

β

HAFC

D7

D8

2.9

－

3.4

－

Hz/mV

Hz

Ｆ

HPH

Ｆ

HPL

－

H-OUT Voltage

Ｖ

HOUTH

D9

4.6

0.15

0

3.2

0.3

6.8

1.2

5.0

0.30

20

3.7

0.4

7.3

1.4

V

Ｖ

HOUT

Horizontal Freq. Dependence on Ｖcc

FBP Phase

ΔＦ

D10

D11

-20

2.7

0.2

6.3

1.0

Hz/V

us

HVCC

ＰＨ

FBP

H-Sync. Phase

ＰＨ

HSYNC

Horizontal Position Variable Range

H correction control range

ΔＰＨ

D12

us

HPOS

ΔＰＨ

HCOR+

( + )

( - )

ΔＰＨ

HCOR

－

-1.4

-1.2

-1.0

us

AFC-2 Pulse Threshold Level

H-BLK Pulse Threshold Level

Ｖ

AFC2

D13

D14

3.2

0.8

91

3.5

1.3

3.8

1.6

93

V

Ｖ

HBLK

V

Wide H blank ratio

50Hz Left side

50Hz Right side

60Hz Left side

60Hz Right side

ΔW_WHBLK50L

ΔW_WHBLK50R

ΔW_WHBLK60L

ΔW_WHBLK60R

ＰHBPDET

ＷBPDET

92

%

us

88

91

89

90

93

92

91.5

8.5

14.5

2.8

2.0

45

92.5

9.0

93.5

9.5

15.5

3.2

2.4

55

BLACK Peak Det. Stop Period (H)

D15

D16

D18

15.0

3.0

Gate Pulse Start Phase

Gate Pulse Width

Vertical Free-Run Frequency Auto₅₀

Auto₆₀

ＰＨ

us

GP

Ｗ

GP

2.2

Ｆ

50

Hz

VAUFR50

VAUFR60

55

60

65

50Hz

Ｆ

45

50

55

V50FR

V60FR

50GPM

60GPM

60Hz

50Hz

60Hz

Ｆ

55

－

60

65

－

Gate Pulse V-Masking Period

Ｔ

D19

308-7

261-10

3.3

(H)

－

V.Ramp DC on Service Mode

Vertical Pull-In Range (Auto)

Ｖ

NOVRAMP

D20

D21

3.1

－

3.5

－

V

(H)

Ｆ

VPAUL

224.5

344.5

274.5

344.5

224.5

294.5

312.5

262.5

313

263

29

Ｆ

－

VPAUH

F_VP50L

F_VP50H

Vertical Pull-In Range (50Hz)

Vertical Pull-In Range (60Hz)

Vertical Period on Fixed Mode

－

Ｆ

VP60L

－

Ｆ

VP60H

－

T_V312.5

T_V262.5

T_V313

D22

D23

D24

D25

(H)

－

Ｔ

V263

－

VD Start Phase

VD Width

50Hz

60Hz

50Hz

60Hz

50Hz

60Hz

50Hz

60Hz

ＰＨ

27

－

31

－

us

(H)

us

50VD

ＰＨ

29

60VD

Ｗ

50VD

12

Ｗ

60VD

－

12

V-BLK Start Phase

V-BLK Width

ＰＨ

27

－

29

31

－

50VBLK

60VBLK

ＰＨ

Ｗ

29

22

(H)

V

50VBLK

60VBLK

Ｗ

－

18

Sand Castle Pulse Level

Ｖ

6.70

4.60

1.55

4.5

2.5

－

7.00

4.90

1.85

5

7.30

5.20

2.15

5.5

3.5

0.1

3.5

0.1

1.84

2.2

+56

-43

5.2

SCPH

SCPM

Ｖ

SCPL

HD pulse level

VD pulse level

GP

V

HD

3

V

Low

High

Low

0

2.5

－

3

V

0

V

V-Ramp Amplitude

Vertical out Amplitude

Ｖ

VRAMP

D26

1.50

1.8

+48

-51

4.8

1.67

2.0

V(p-p)

%

Cen

Max

Min

Ｖ

VOUT,

R_{VOUT MAX}

R_{VOUT MIN}

V _OUTDC

+52

-47

5

%

Vertical center voltage

V

2002-6-30 32 / 66

TB1261F/TB1262F

TEST

COND

ITON

TEST

ITEM

SYMBOL

MIN

TYP

MAX

UNIT

%

CIRCUIT

Vertical center

Max

Min

Ｖ

+10

-14

+12

-12

+14

-10

CENT MAX

Ｖ

CENT MIN

Vertical Linearity Variable Range

Vertical S Correction Variable Range

Ｖ

LIN

±10.5 ±12.5 ±14.5

D27

D28

%

Ｖ

S(+)

+21

-19

8.0

550

+23

-17

9.0

700

+25

-15

10.0

850

Ｖ

S(-)

ΔV_EHT

V_EWDCMAX

Vertical Amplitude EHT Correction

D29

D30

%

uA

E-W H size

Max

－

360

－

Min

Max

Min

Max

Min

Max

Min

Max

Min

V_EWDCMIN

V_EWPMAX

V_EWPMIN

0

480

0

60

600

10

E-W Parabola

D35

D36

D37

uA (p-p)

E-W Conner top

V_EWCTMAX

V_EWCTMIN

V_EWCBMAX

V_EWCBMIN

V_TRMAX

590

60

720

130

720

130

3

850

200

850

200

5

E-W Conner bottom

E-W Trapezium Correction

590

60

1

%

V_TRMIN

-9

-7

-5

E-W DC EHT Correction

H-Bow Correction

V_EWDCEHT

T_HBOWMAX

T_HBOWMIN

T_HPARAMAX

T_HPARAMIN

D38

D39

110

+300

-650

±100

±150

10

170

+400

-550

±200

±250

25

230

+500

-450

±300

±350

40

uA

Max

Min

Max

Min

us

H-Parallelogram Correction

us

NoiseDet level

BUS(0011)

BUS (1111)

Ｖ

NDET3

D40

mVpp

Ｖ

NDET15

265

280

295

2002-6-30 33 / 66

TB1261F/TB1262F

TEST CONDITION

PIF STAGE

Note Items/Symbols

Bus conditions

Measurement methods

P1

P2

P3

Video output signal

amplitude

RF AGC:except 0 (1) Input a signal that 38.9[MHz], 90[dB(mV)], and 87.5 [%]

PIF Freq. :

38.9MHz

negative modulated by 100% white video signal at pin 79.

(2) Set the bit of “L-SECAM MODE” to “00”.

/ vDet(p)n

/ vDet(p)p

PIF det lev;01(b) (3) Measure the amplitude of the pin 68 output signal

L-SECAM MODE

:0/1

(vDet(p)n[V(p-p)]).

(4) Input a signal that 38.9[MHz], 90[dB(mV)], and 97 [%]

positive modulated by 100% white video signal at pin 6.

(5) Set the bit of “L-SECAM MODE” to “01”.

(6) Measure the amplitude of the pin 68 output signal

(vDet(p)p[V(p-p)]).

Others : Preset

RF AGC:except 0 (1) Input a signal that 38.9[MHz], 90[dB(mV)], and 30 [%]

PIF Input Sensitivity

/ vin min(p)

PIF

modulated by 15 [kHz] sine wave at pin 79..

(2) Measure the amplitude at Pin 68(vo#68 [V(p-p)]).

(3) Decreasing the IF input level, measure the input level at

which the output amplitude at pin 68 turns to be –3dB

against “vo#68” (vin min(p)[dB(mV)]).

Freq.:38.9MHz

Others : Preset

PIF maximum input

signal

/ vin max(p)

PIF gain control

range

(4) Increasing the IF input level, measure the input level at

which the output amplitude at pin 54 turns to be -1dB

against “vo#68” (vin min(p)[dB(mV)]).

/ RAGC(p)

(5) RAGC(p)[dB] = vin max(p) - vin min(p)

Synchronous signal

level

RF AGC:except 0 (1) Input a signal that 38.9[MHz], 90[dB(mV)], 87.5[%] negative

PIF Freq. :

38.9MHz

L-SECAM

MODE

modulated by 100% white signal at pin 79.

/ Vsync n

(2) Set the bit of “L-SECAM MODE” to “00”.

/ Vsync p

(3) Measure the voltage of the sync. tip at pin 68 (Vsync n[V]).

(4) Input a signal that 38.9[MHz], 90[dB(mV)], and 97 [%]

positive modulated by 100% white video signal at pin 79.

(5) Set the bit of “L-SECAM MODE” to “01”.

:0/1

Others : Preset

(6) Measure the voltage of the sync. tip at pin 68 (Vsync p[V]).

P4

P5

Differential Gain

/ DG

RF AGC:except 0 (1) Input a signal that 38.9[MHz], 90[dB(mV)], and 87.5 [%]

PIF Freq.:

38.9MHz

modulated by 10 stair video signal at pin 79.

(2) Measure "DG[%]" and "DP[°]" for Pin54 output.

Differential Phase

/ DP

Vi Pol:0/1

Others : Preset

Video bandwidth

(-3dB)

RF AGC:except 0 (1) Input the mixture of 2 signals (signal1 : 38.9[MHz] /

PIF Freq.:

38.9MHz

L-SECAM

MODE

82[dB(mV)], signal 2 : 38.8[MHz] / 69[dB(mV)]) to pin 79.

(2) Measure the minimum voltage of the output signal at pin 68

(Vo#68).

/ fDet(p)

(3) Apply the DC voltage to pin 1 and adjust it so that the

minimum voltage of the output signal at pin 68 is equal to

Vo#68.

:0/1

Others : Preset

(4) Decrease frequency of the input signal 2 at pin 79, and

measure amplitude of the output signal at pin 68.

(5) Measure fDet(p) shown as below.

3[dB]

vDet1M

Ref level

f Det(p)

1[MHz]

Frequency of the output signal at pin68

2002-6-30 34 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

Measurement methods

P6

Video output S/N

/ S/N(p)

RF AGC:except 0 (1) Input a signal that 38.9[MHz], 90[dB(mV)], and 87.5 [%]

PIF Freq. :

38.9MHz

modulated by black video signal at pin 6.

(2) Measure the video S/N for pin 68 output (HPF : 100[kHz],

LPF : 5[MHz], CCIR weighted) (S/N(p)[dB]).

Others : Preset

P7

Intermodulation

/ IM

RF AGC:except 0 (1) Input a signal composed of following 3 signals at pin 79;

PIF Freq. :

38.9MHz

38.90[MHz]/90[dB(mV)],

34.47[MHz]/80dB(mV)]

Others : Preset

33.40[MHz]/80[dB(mV)]

(2) Adjust pin 1 voltage so that the bottom of pin 68 output is

equal to sync. tip level.

(3) Measure the 1.07[MHz] level against the 4.43[MHz]

level(=0[dB]) (IM[dB]).

P8

P9

Preset

(1) Remove all connection from pin 79 and pin 80.

(2) Measure the resistance (Zin R(p)[kW]) and capacitance (Zin

C(p)[pF]) of pin 79 and pin 80 by the impedance meter.

PIF input resistance

/ Zin R(p)

PIF

input

capacitance

/ Zin C(p)

RF AGC output

voltage

RF AGC:Adjust

PIF Freq. :

(1) Input a 38.9[MHz], 90[dB(mV)] signal at pin 79.

(2) Adjust RF AGC so that the pin 78 voltage is 4.5V.

(3) Increase the IF input level to 107dB(uV).

(4) Measure the pin 78 voltage (VAGC min[V]).

(5) Connect pin 79 and pin 80 to GND.

/ VAGC max

/ VAGC min

38.9MHz

Others : Preset

(6) Measure the pin 78 voltage (VAGC max[V]).

P10

P11

RF delay point

/ v Dly min

RF AGC :

Adjust

(1) Input a 38.9[MHz], 90[dB(mV)] signal at pin 79.

(2) Set the data of “RF AGC” to 01(h).

/ v Dly max

PIF Freq.

(3) Decrease the IF input level, measure the input level at

which the voltage at pin 78 turn to be 4.5[V] (v Dly

min[dB(mV)]).

38.9MHz

RF AGC: 01/3F

Others : Preset

(4) Set the data of “RF AGC” to 3F(h).

(5) Increase the IF input level, measure the input level at

which the voltage at pin 78 turn to be 4.5[V] (v Dly

max[dB(mV)]).

RF AGC : except (1) Set the bit of “PIF Freq.” to “(0,1,1), 38.9MHz”.

Capture range of the

PLL

0

(2) Input a signal that f0=38.9[MHz], 60[dB( V)] at pin 79.

(3) As read the bit of “IF lock”, sweep up/down the input signal

frequency.

PIF Freq. :

38.9MHz

Others : Preset

/ fpH(p)

/ fpL(p)

(4) Measure fsuL, fsuH, fsdH, fsdL shown as below.

fpH(p) = fsdH – f0

Hold range of the

PLL

fpL(p) = fsuL – f0

/ fhH(p)

fhH(p) = fsuH – f0

/ fhL(p)

fhL(p) = fsdL – f0

[Read BUS DATA] The bit of "IF lock"

IF LOCK

1

IF LOCK

0

frequency

fpL(p)

fhH(p)

IF LOCK

1

0

fhL(p)

fpH(p)

P12

Control steepness of PIF Freq. :

(1) Set the bit of “VCO Adj. Req.” to “1”, and set the bit of “VCO

Adj. Req.” to “0”.

the VCO

38.9MHz

/ b

Others : Preset

(2) Set the FET probe which connected to the spectrum analyzer

near by pin 50 or pin 51 (Don’t touch the probe directly to pin

50 or to pin 51).

(3) Apply 2.3[V] to pin 47, and measure frequency of the VCO

oscillation by the spectrum analyzer (fLVCO[MHz]).

(4) Apply 2.7[V] to pin 47, and measure frequency of the VCO

oscillation by the spectrum analyzer (fHVCO[MHz]).

(5) b[MHz/V] = (fHVCO-fLVCO)/0.4

2002-6-30 35 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

PIF Freq. :

Measurement methods

P13

AFT Center turn

Frequency

(1) Input a signal that f0=38.9[MHz], 60[dB( V)] at pin 79.

(2) As read the bit of “AFT center”, sweep up the input signal

frequency.

38.9MHz

/ fAFTC

Others : Preset

(3) Measure the lowest frequency that the bit of “AFT center” is

“0”, shown as below. That is fAFTC

[Read BUS DATA] The bit of "AFT center"

AFT center

1

AFT center

0

frequency

fAFTcxxx f0

P14

AFT window narrow PIF Freq. :

(1) Input a signal that f0=38.9[MHz], 60[dB( V)] at pin 41.

(2) Set the bit of “AFT window” to “(0), narrow”.

(3) As read the bit of “AFT window”, sweep up the input signal

frequency.

/ fAFTW(n)L

/ fAFTW(n)H

/f AFTW(w)L

/ fAFTW(w)H

38.9MHz

Others : Preset

(4) Measure the highest frequency but lower than f0 (38.9MHz)

that the bit of “AFT window” is “0”, shown as below. That is

fAFTw(n)L.

(5) Measure the lowest frequency but higher than f0 (38.9MHz)

that the bit of “AFT window” is “0”, shown as below. That is

fAFTw(n)H.

(6) Set the bit of “AFT window” to “(1), wide”.

(7) Measure as (3) ~ (5), that is fAFTw(w)L, fAFTw(w)H.

[Read BUS DATA] The bit of "AFT window"

AFT window

1

AFT window

0

frequency

fAFTwL f0 fAFTwH

P15

S-trap reduction

(1) Input a signal composed of following 3 signals at pin 79;

38.90[MHz]/90[dB(mV)],

33.40[MHz]/80[dB(mV)]

(2) Set the "Strap" of IICBUS to "0(h) off"

(3) measure the output level of 5.5MHz component for pin #68

by spectrum analyzer. -> V68 (strap off)

(4) Set the "Strap" of IICBUS to "4(h)"

(5) measure the output level of 5.5MHz component for pin #68

by spectrum analyzer -> V68 (strap on)

(6) Calc the result of reduction

Strap = V68 (strap off) - V68 (strap on)

2002-6-30 36 / 66

TB1261F/TB1262F

SIF STAGE

Note Items/Symbols

Bus conditions

RF AGC :

Measurement methods

S1

SIF maximum input

(1) Input a 38.9[MHz], 90[dB(mV)] signal at pin 79.

(2) Input a 33.4[MHz], 90[dB(mV)] signal at pin 75.

(3) Measure the amplitude at pin 71 (vSIF1[dB(mV)]).

(4) Decreasing the 33.4[MHz] signal level, measure the

33.4[MHz] signal level at which the amplitude at pin 3

turns to be –3[dB] against “vSIF1” (vin min(s)1[dB(mV)]).

(5) Increasing the 33.4[MHz] signal level, measure the

33.4[MHz] signal level at which the amplitude at pin 3

turns to be +3[dB] against “vSIF1” (vin max(s)1[dB(mV)]).

(6) R AGC[dB] = vin max1(s) – vin min1(s)

signal / vin max(s)1

SIF minimum input

signal / vin min(s)1

SIF gain control

range / R AGC(s)1

2nd SIF output level

/ vSIF1

except 0

PIF Freq. :

38.9MHz

Others : Preset

S2

S3

SIF input resistance

/ Zin R(s)

Preset

(1) Remove all connection from pin 75 and 76..

(2) Measure the resistance (Zin R(s)[kW]) and capacitance (Zin

C(s)[pF]) of pin 75 and 76 by the impedance meter.

SIF

input

capacitance

/ Zin C(s)

AM demodulation

sensitivity

RF AGC:

(1) Input a 38.9[MHz], 90[dB(mV)] signal at pin 79.

(2) Input a signal that 32.4[MHz], 80[dB(mV)] and 54[%]

modulated by 400[Hz] sine wave at pin 75.

except0

/ vin minAM

AM demodulation

maximum input

level

PIF Freq. :

38.9MHz

(3) Measure the amplitude at pin 71 (v#71[mVrms]).

(4) Decrease the 32.4[MHz] signal level, measure the

32.4[MHz] signal level at which the amplitude at pin 71

turns to be –3[dB] against “v#71” (vin minAM[dB(mV)]).

(5) Increase the 32.4[MHz] signal level, measure the 32.4[MHz]

signal level at which the amplitude at pin 71 turns to be

–3[dB] against “v#71” (vin maxAM[dB(mV)]).

SIF Freq. :

6.5MHz

/ vin maxAM

L-SECAM

MODE : 1

Others : Preset

S4

SIF-Freq. : 6.5M

L SECAM

AF output signal

amplitude

(1) Input a 38.9[MHz], 90[dB(mV)] signal at pin 79.

(2) Input a signal that 32.4[MHz], 80[dB(mV)] and 54[%]

modulated by 400[Hz] sine wave at pin 75

mode : L

/ vDet(s)AM

AF output S/N

/ S/N(s)AM

SECAM

(3) Measure the amplitude at pin 65 (vDet(s)AM[mVrms]).

(4) Measure the total harmonics distortion at pin 65

(THDAM[%]).

Others : Preset

Total harmonics

distortion

(5) Input a signal that 32.4[MHz], 80[dB( V)] at pin 75

(6) Measure the amplitude at pin 65 (vn(s)[mVrms]).

(7) S/N AM[dB] = 20log(vDet(s)/vn(s))

/ THDAM

S5

S6

SIF-Freq. :5.5M

Others : Preset

(1) Input a signal that 5.5[MHz], 100[dB(mV)], 50[kHz] deviated

by 400[Hz] sine wave at pin 73.

AF output signal

amplitude

(8) Measure the amplitude at pin 65 (vDet(s)5.5MH[mVrms]).

(9) Measure the total harmonics distortion at pin 65

(THD5.5MH[%]).

/ vDet(s)5.5M

AF output S/N

/ S/N(s)5.5M

Total harmonics

distortion

(2) Input a 5.5[MHz], 100[dB(mV)] signal at pin 73.

(3) Measure the amplitude at pin 65 (vn(s)[mVrms]).

(4) (6)S/N4.5MH[dB] = 20log(vDet(s)/vn(s))

/ THD5.5M

AF output signal

amplitude

SIF-Freq. : 6.0M (1) Input a signal that 6.0[MHz], 100[dB(mV)], 50[kHz] deviated

AUDIO ATT :

127

by 400[Hz] sine wave at pin 73.

(2) Do same measuring as vDet(s)5.5M et al. (vDet(s)6.0M,

S/N(s)6.5M, THD6.0M).

/ vDet(s)6.0M

AF output S/N

/ S/N(s)6.0M

Total harmonics

distortion

Others : Preset

/ THD6.0M

2002-6-30 37 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

Measurement methods

S7

S8

S9

SIF-Freq. : 6.5M (1) Input a signal that 6.5[MHz], 100[dB(mV)], 50[kHz] deviated

AF output signal

amplitude

AUDIO ATT :

127

by 400[Hz] sine wave at pin 73.

(2) Do same measuring as vDet(s)5.5M et al. (vDet(s)6.5M,

S/N(s)6.5M, THD6.5M).

/ vDet(s)6.5M

AF output S/N

/ S/N(s)6.5M

Total harmonics

distortion

Others : Preset

/ THD6.5M

SIF-Freq. : 4.5M (1) Input a signal that 4.5[MHz], 100[dB(mV)], 25[kHz] deviated

AF output signal

amplitude

Au Gain : 1

AUDIO ATT :

127

by 400[kHz] sine wave at pin 73.

(2) Do same measuring as vDet(s)5.5MH et al. (vDet(s)4.5ML,

S/N(s)4.5ML, THD4.5ML).

/ vDet(s)4.5ML

AF output S/N

/ S/N(s)4.5ML

Total harmonics

distortion

Others : Preset

/ THD4.5ML

AF output signal

amplitude

SIF-Freq. : 4.5M (1) Input a signal that 4.5[MHz], 100[dB(mV)], 25[kHz] deviated

Au Gain : 0

AUDIO ATT :

127

by 400[Hz] sine wave at pin 73.

(2) Do same measuring as vDet(s)5.5M et al. (vDet(s)4.5MGH,

S/N(s)4.5ML, THD4.5MH).

/ vDet(s)4.5MH

AF output S/N

/ S/N(s)4.5MH

Total harmonics

distortion

Others : Preset

/ THD4.5MH

Limiting sensitivity

/ vin lim(s)4.5MH

/ vin lim(s)4.5ML

/ vin lim(s)5.5M

/ vin lim(s)6.0M

/ vin lim(s)6.5M

SIF-Freq. :

(1) Set the bits of “SIF-Freq.” to “11”, “Au Gain” to “0”.

S10

4.5M/5.5M/6.0M/ (2) Input a signal that 4.5[MHz], 100[dB(mV)], 25[kHz] deviated

6.5M

by 400[Hz] sine wave at pin 73.

AUDIO ATT :

127

(3) Measure the amplitude at pin 65 (vo#65[mVrms]).

(4) Decreasing the 4.5[MHz] signal level, measure the 4.5[MHz]

signal level at which the amplitude at pin 65 turns to be

–3[dB] against “vo#4” (vin lim(s)4.5MH[dB(mV)]).

(5) Input a signal that 4.5[MHz], 100[dB(mV)], 25[kHz] deviated

by 400[Hz] sine wave at pin 73.

Au Gain : 0/1

Others : Preset

(6) Set the bits of “Au Gain” to “1”.

(7) Do same measuring as above (3)~(4) (vin lim(s)4.5ML).

(8) Set the bits of “SIF-Freq.” to “00”.

(9) Change the frequency of the input signal to 5.5MHz, and

change the deviation of the input signal to 50[kHz].

(10) Do same measuring as above (3)~(4) (vin lim(s)5.5M).

(11) Set the bits of “SIF-Freq.” to “01”.

(12) Change the frequency of the input signal to 6.0MHz, and do

same measuring as above (3)~(4) (vin lim(s)6.0M).

(13) Set the bits of “SIF-Freq.” to “10”.

(14) Change the frequency of the input signal to 6.5MHz, and do

same measuring as above (3)~(4) (vin lim(s)6.5M).

2002-6-30 38 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

SIF-Freq. :

Measurement methods

AM reduction ratio

/ AMR4.5MH

/ AMR4.5ML

/ AMR5.5M

(1) Set the bits of “SIF-Freq.” to “11”, “Au Gain” to “0”.

S11

4.5M/5.5M/6.0M/ (2) Input a signal that 4.5[MHz], 100[dB(mV)], 25[kHz] deviated

6.5M

by 400[Hz] sine wave at pin 73.

AUDIO ATT :

127

(3) Measure the amplitude at pin 65 (vo#65[mVrms]).

(4) Input a signal that 4.5[MHz], 100[dB(mV)], and 30 [%]

modulated by 400 [Hz] sine wave at pin 73.

/ AMR6.0M

/ AMR6.5M

Au Gain : 0/1

Others : Preset

(5) Measure the amplitude at pin 65 (v#65[mVrms]).

(6) AMR4.5H[dB] = 20log(v#65/ vo#65)

(7) Input a signal that 4.5[MHz], 100[dB(mV)], 25[kHz] deviated

by 400[Hz] sine wave at pin 73.

(8) Set the bits of “Au Gain” to “1”.

(9) Do same measuring as above (3)~(6) (AMR4.5ML).

(10) Set the bits of “SIF-Freq.” to “00”.

(11) Change the frequency of the input signals to 5.5MHz, and

change the deviation of the input signal to 50[kHz].

(12) Do same measuring as above (3)~(6) (AMR5.5M).

(13) Set the bits of “SIF-Freq.” to “01”.

(14) Change the frequency of the input signals to 6.0MHz, and

do same measuring as above (3)~(6) (AMR6.0M).

(15) Set the bits of “SIF-Freq.” to “10”.

(16) Change the frequency of the input signals to 6.5MHz, and

do same measuring as above (3)~(6) (AMR6.5M).

S12

Demodulation band

width of the FM

demodulator

/ fpH(s)1

SIF-Freq. : 4.5M (1) Input a signal that 4.5[MHz], 100[dB( V)], 25[kHz]

AUDIO ATT :

127

deviated by 400[Hz] sine wave at pin 73.

(2) Measure the amplitude at pin 65(vo#65 [V(p-p)]).

(3) Increase the input signal frequency, measure the input

signal frequency at which the output amplitude at pin 65

turn to be -3[dB] against “vo#65” (fpH(s)1[MHz])

Others : Preset

/ fpL(s)1

(4) Decrease the input signal frequency, measure the input

signal frequency at which the output amplitude at pin 65

turn to be -3[dB] against “vo#65” (fpL(s)1[MHz])

2002-6-30 39 / 66

TB1261F/TB1262F

VIDEO stage (RGB Mute:0

Note Items/Symbols

/

R cut off:128

Bus conditions

Y/Monout=0

ctrap = off

/

DC rest.:2(100%)

/

WPS:1(OFF))

Measurement methods

V1

Y Input Dynamic

Range

(1) Input a white signal with sync into Pin61.

(2) Increasing the Pin61 input amplitude, measure the

amplitude at which the Pin53 output is clipped, that is

"DR_Y".

/ DR_Y

Ydl=011(b)

Others: Preset

Y/Monout=0

ctrap = off

V2

Y Delay Time

/ t_YDELP

(1) Input a 2T pulse with sync and PAL burst into Pin61.

(2) Set the BUS data so that Y DL is 0ns(011).Observe the

Pin53 output, measure the delay time between Pin61 and

Pin53, that is "t_YDELP".

/ t_YDELS

Ydl=parametric

Others: Preset

/ Δt_YDEL-120

/ Δt_YDEL+160

/ Δt_{YDEL step}

(3) Set the BUS data so that Y DL is –120ns(000). Observe the

Pin53 output, measure the delay time between Pin61 and

Pin53 that is t_YDEL-120

.

(4) Set the BUS data so that Y DL is +160ns(111). Observe the

Pin53 output, measure the delay time between Pin61 and

Pin53 that is t_YDEL+160

.

(5) Calculate, “Δt_YDEL-120”= t_YDEL-120- "t_YDEL

"

1. “Δt_YDEL+160”= t_YDEL+160- "t_YDEL

"

2. “Δt_YDEL”= (“Δt_YDEL+160”- “Δt_YDEL-120”)/7

(6) Input a 2T pulse with sync and SECAM ID into Pin61.

(7) Set the BUS data so that Y DL is 0ns(011).Observe the

Pin53 output, measure the delay time between Pin61 and

Pin53, that is "t_YDELS".

V3

Chroma Trap Gain

/ G_TRAP

Y/Monout=0

(1) Input a 0.5V(p-p), 4.43MHz signal with sync into Pin61.

ctrap=parametric (2) Measure the 4.43MHz amplitude at PIn53 for Chroma

Ydl=011(b)

Trap:1/0, that is V_TRAPON/ V_TRAPOFF.

Others: Preset

(3) Calculate;"G_TRAP443"=20*log(V_TRAPON/V_TRAPOFF)

(4) Input a 0.5V(p-p), 3.58MHz signal with sync into Pin61.

(5) Measure the 3.58MHz amplitude at PIn53 for Chroma

Trap:1/0, that is V_TRAPON/ V_TRAPOFF

.

(6) Calculate;"G_TRAP358"=20*log(V_TRAPON/V_TRAPOFF

)

V4

V5

(1) Input 1Vp-p white signal with sync into pin #61

(2) Measure the gain between pin#61 and pin #53 for its

picture (without sync) level. Gy1

Y gain

Y Frequency

Response

/ FR_Y

Y/Monout=0

ctrap = off

(1) Input a 0.5V(p-p) sweep signal with sync into Pin61.

(2) Measure the frequency at which the output amplitude is

3dB down against the level of 100Hz, which is "FR_Y".

Ydl=011(b)

Others: Preset

Y/Monout=1

videosw=paramet

ric

V6

V7

(1) Input 1Vp-p white signal with sync into pin #61, #55, and

#44

Mon out gain (MON)

(Y1/CVBS1) G_TV1

(Y2/CVBS2) G_TV2

(Y3/CVBS3) G_TV3

Y frequency response

FR_Y

(2) Measure the gain from pin#61, #55 and #44 to pin #53 in

Others: Preset

switching the IICBUS of 'video sw'.

Y/Mon out = 1

video sw = 00

Others: Preset

Y/Monout=1

videosw=paramet

ric

(1) Input a 0.5V(p-p) sweep signal with sync into Pin61.

(2) Measure the frequency at which the output amplitude is

3dB down against the level of 100Hz, which is "FR_Y".

(1) Input a sine wave signal (CVBS, V0=0.5Vp-p, f0=4MHz)

into pin 61, connect pin 55 and 44 to GND through 0.1 F

capacitor.

V switch cross-talk

(CVBS1-CVBS2)

CT_{CVBS1_2}

(CVBS1-CVBS3)

CT_{CVBS1_3}

(CVBS2-CVBS1)

CT_{CVBS2_1}

(CVBS2-CVBS3)

CT_{CVBS2_3}

(2) Set the bit of “Video SW” to “01, V2”, and measure the

amplitude of 4MHz signal at pin 53, that is V1-2.

(3) Set the bit of “Video SW” to “00, V1” and measure the

amplitude of 4MHz signal at pin 53, that is V1.

(4) “C CVBS1_2” = 20*log (V1-2 / V1)

Others: Preset

(5) Measure the same way as (1)-(4) for others with the

combination of desired and undesired inputs,

(CVBS3-CVBS1)

CT_{CVBS3_1}

(CVBS3-CVBS2)

CT_{CVBS3_2}

2002-6-30 40 / 66

TB1261F/TB1262F

CHROMA STAGE (RGB Mute:0 / RGB cut off:128 / DC rest.:2(100%))

Note Items/Symbols

Bus conditions

RGB Mute:0

Y Mute:1

Measurement methods

C1

ACC Characteristics

(1) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into Pin61.

/ V_ACCH

/ V_ACCL

Uni-Color:127

Others: Preset

(2) Changing the amplitude of burst and chroma, measure the

input amplitude at which Pin51 output amplitude is

+1dB/-1dB against the one for 300mVp-p input, that is

"V_ACCH"/"V_ACCL".

C2

Measure on test (1) Set “BPF/TOF” to 1, “Color System” to 4(443PAL).

TOF Characteristics

(4.43MHz)

mode

(2) Input a sweep signal into Pin #61 and #58.

(3) Observe the frequency response at Pin34 and measure the

Peaking Frequency / Q of chroma filter, that is "F_0T443" /

"Q_T443".

s;21,d;00010000

s;1A,d;xx00xxxx

/ F_0T443/ Q_T443

BPF Characteristics

(4.43MHz)

BPF/TOF :0/1

Color System:

2/4

(4) Set BPF/TOF to 0 and Color System to 4(443PAL) and

repeat (2)&(3), that is "F_0B443" / "Q_B443".

/ F_0B443/ Q_B443

TOF Characteristics

(3.58MHz)

(5) Set BPF/TOF to 1 and Color System to 2(358NTSC) and

repeat (2)&(3), that is "F_0T358" / "Q_T358".

F-ID =1

/ F_0T358/ Q_T358

BPF Characteristics

(3.58MHz)

C-in sw= 1 (c in) (6) Set BPF/TOF to 0 and Color System to 2(358NTSC) and

Others: Preset

repeat (2)&(3), that is "F_0B358" / "Q_B358".

/ F_0B358/ Q_B358

C3

C4

Others: Preset

(1) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into Pin61.

C Delay Time

/ t_CDEL

(2) Observe the Pin51 output, measure the delay time between

Pin61 and Pin51 that is "t_CDEL".

Delay Time Difference

between Y/C

/ Δt_Y/C

(3) Calculate;"Δt_Y/C"=t_YDEL-t_CDEL

Color System:

4/2

(1) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into Pin61.

APC Pull-in Range

(4.43MHz)

Others: Preset

(2) Set Color System to 4(443PAL).

/ ΔF_4APCP+

(3) For higher frequency than 4.43MHz, measure the burst

/ ΔF_4APCP-

frequency at which PLL pulls-in / locks out that is F_4APCP+

/

APC Hold Range

(4.43MHz)

F_4APCH+

(4) For lower frequency than 4.43MHz, repeat (2), that is

F_4APCP-/ F_4APCH-

.

/ ΔF_4APCH+

.

/ ΔF_4APCH-

(5) Calculate;

APC Pull-in Range

(3.58MHz)

"ΔF_4APCP+"= F_4APCP+- 4433619

"ΔF_4APCP-"= F_4APCP-- 4433619

/ ΔF_3APCP+

"ΔF_4APCH+"=F_4APCH+-4433619

/ ΔF_3APCP-

"ΔF_4APCH-"=F_4APCH-- 4433619

(6) Input a 3.58MHz NTSC rainbow color-bar (286mV(p-p),

burst:chroma=1:1) with sync into Pin61 and 58.

(7) Set Color System to 2(358NTSC).

(8) For higher frequency than 3.58MHz, repeat (2), that is

APC Hold Range

(3.58MHz)

/ ΔF_3APCH+

/ ΔF_3APCH-

F_3APCP+/ F_3APCH+.

(9) For lower frequency than 3.58MHz, repeat (2), that is

_3APCP-/ F_3APCH-

(10) Calculate;

F

.

"ΔF_3APCP+"=F_3APCP+-3579545

"ΔF_3APCP-"=3579545-F_3APCP-

"ΔF_3APCH+"=F_3APCH+-3579545

"ΔF_3APCH-"=3579545-F_3APCH-

2002-6-30 41 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

Measurement methods

C5

Color

4/2

System: (1) Connect Pin61 to GND via a 1uF capacitor.

(2) Set Color System to 4(443PAL).

APC Control

Sensitivity

(4.43MHz)

Others: Preset

(3) Adjust Pin7 voltage so that the Pin34 output frequency is

4.433619MHz that is V_4APCCEN

.

/ β

443

(4) Measure the Pin34 output frequency when Pin7 voltage is

APC Control

Sensitivity

(3.58MHz)

V

_4APCCEN+200mV / V_4APCCENT, that is F_4APC+ / F_4APC-.

(5) Calculate; "β₄₄₃"=(F_4APC+-F_4APC-)/200

(6) Set Color System to 2 (358NTSC).

/ β

358

(7) Adjust Pin7 voltage so that the Pin34 output frequency is

3.579545MHz that is V_3APCCEN

(8) Measure the Pin34 output frequency when Pin7 voltage is

_3APCCEN+200mV / V_3APCCEN, that is F_3APC+/ F_3APC-

(9) Calculate;

.

V

.

"β₃₅₈"=(F_3APC+-F_3APC-)/200

C6

P/N ID Sens:0/1

Color System:

4/2

(1) Set P/N ID Sens. to 0.

PAL ID Sensitivity

(Normal Mode)

/ V_PALIDON

(2) Set Color System to 4(443PAL).

(3) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into pin#61 and 58.

(4) Measure the burst amplitude at which Pin13 DC level

changes from high to low / from low to high, that is

"V_PALIDON" / "V_PALIDOFF".

Y Mute:01

/ V_PALIDOFF

Uni-Color:127

RGB Mute:0

BPF/TOF;0 BPF

Others: Preset

PAL ID Sensitivity

(Low Mode)

/ V_PALIDLON

(5) Set Color System to 2(358NTSC).

/ V_PALIDLOFF

(6) Input a 3.58MHz NTSC rainbow color-bar (286mV(p-p),

burst:chroma=1:1) with sync into pin#61 and 58, and

repeat (3), that is "V_NTIDON" / "V_NTIDOFF".

NTSC ID Sensitivity

(Normal Mode)

/ V_NTIDON

(7) Set P/N ID Sens.to 1, repeat (2) ~ (6) that are

“VPALIDLON”, “VPALIDLOFF”, VNTIDLON and

VNTIDLOFF.

/ V_NTIDOFF

NTSC ID Sensitivity

(Low Mode)

/ V_NTIDLON

/ V_NTIDLOFF

C7

B-Y black Adj.:

0/15

(1) For B-Y/R-Y Black Adj.:8, measure the DC level of picture

Black adjustment

(internal)

period at Pin51,52 that is V_SBCEN/ V_SRCEN

.

R-Y black Adj.:

0/15

(2) For B-Y Black Adj.:0 /15, measure the DC level change of

picture period against V_SBCENat Pin52, that is "V_BINTMIN" /

"V_BINTMAX".

/ V_BINTMAX

/ V_RINTMAX

Others: Preset

/ V_RINTMIN

(3) For R-Y Black Adj.:0/15, measure the DC level change of

picture period against V_SRCENat Pin51, that is "V_RINTMIN" /

/ V_RINTMIN

Black adjustment

sensitivity (Internal)

/ΔV_BINT

V

_RINTMAX".

(4) Calculate;

"ΔV_BINT"=(V_SBMAX-V_SBMIN)/15

/ΔV_RINT

"ΔV_RINT"=(V_SRMAX- V_SRMIN)/15

B-Y black Adj.:

0/15

(1) For B-Y/R-Y Black Adj.:8, measure the DC level of picture

Black adjustment

(External)

period at Pin12,14 that is V_SBCEN/ V_SRCEN

.

R-Y black Adj.:

0/15

(2) For B-Y Black Adj.:0 /15, measure the DC level change of

picture period against V_SBCENat Pin14, that is "V_BEXTMIN" /

"V_BEXTMAX".

/ V_BINTMAX

/ V_RINTMAX

DemoP; 00

Cont; 7F

/ V_RINTMIN

(3) For R-Y Black Adj.:0/15, measure the DC level change of

picture period against V_SRCENat Pin12, that is "V_REXTMIN" /

V_REXTMAX".

/ V_RINTMIN

Color; 40

Black adjustment

sensitivity External

/ΔV_BINT

Ymute; 1

CbCrSW; 1

Others: Preset

(4) Calculate;

"ΔV_BINT"= (V_BEXTMAX- V_BEXTMIN) / 15

/ΔV_RINT

"ΔV_RINT"= (V_REXTMAX- V_REXTMIN) / 15

C8

C9

Others: Preset

(1) Input a 4.43MHz PAL rainbow color-bar (300mV(p-p),

burst:chroma=1:1) with sync into Pin61.

(2) Measure the amplitude of Pin34 output that is "V_CW".

fsc Continuous Wave

Output Level

/ V_CW

SECAM CbCr output RGB Mute:0

(1)Input a 75% color bar(200mV(p-p) at R ID) into Pin61..

(2) Measure the R-Y output amplitude at Pin51, that is "VRS".

(3) Measure the B-Y output amplitude at Pin52, that is "VBS".

amplitude

/ VBS

Color System:5

Uni-Color:64

Y Mute:1

/ VRS

Others: preset

2002-6-30 42 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

Measurement methods

SECAM CbCr out

Relative Amplitude

/ R/B-S

C10

(1)Calculate : "R/B-S"=VRS/VBS

C11

C12

Color Difference S/N RGB Mute:0

(1)Input a 200mV(p-p) non-modulated chroma signal into Pin61.

(2) Measure the amplitude of noise on Pin51, that is nR.

(3) Measure the amplitude of noise on Pin52, that is nB.

(4) Calculate : "SNB-S"=20log(2√2VBS/nB)

"SNR-S"=20log(2√2VRS/nR)

Ratio

Color System:5

Uni-Color:64

Y Mute:1

/ SNB-S

/ SBR-S

Others: preset

Color System:5

SECAM Linearity

/ LinB

(1)Input a 75% color bar(200mV(p-p) at R ID) into Pin61.

(2)Measure the amplitude between Black and Cyan/Red, that is

VCyan/VRed for pin #51.

Others: preset

/ LinR

(3)Measure the amplitude between Black and Yellow/Blue, that

is VYellow/VBlue for pin #52.

(4)Calculate :

"LinR"=VCync/Vred

"LinB"=VYellow/VBlue

red

LinR

cyan

blue

LinB

yellow

C13

C14

Rising-Fall Time

/ trfB

Color System:5

Others: preset

(1)Input a 75% color bar(200mV(p-p) at R ID) into Pin61.

(2)Measure the rising time(from 10% to 90%) between Green

and Magenta at Pin 51/Pin 52, that is "trR"/"trB".

Magenta

/ trfR

trB，trR

Green

10%

90%

S ID Sens:0/1

S ID Mode:0/1

Color System:5

Others: Preset

(1) Input a 75% color bar(200mV(p-p) at R ID) into Pin61..

(2) Set BUS data so that “S ID Sens” is Normal, “S ID Mode”

is H.

SECAM ID

Sensitivity (Normal

Mode)

(3) Measure the burst amplitude at which color killer turns on

and off, that is "V_SIDHON" / "V_SIDHOFF".

/ V_SIDHON

/ V_SIDHOFF

(4) Set BUS data so that “S ID Mode” is H+V.

(5) Repeat (3), that is "V_SIDHVON" / "V_SIDHVOFF".

(6) Set BUS data so that “S ID Sens” is Low, “S ID Mode” is H.

(7) Repeat (3), that is "V_SIDLHON" / "V_SIDLHOFF".

(8) Set BUS data so that “S ID Mode” is H+V.

(1) (9)Repeat (3), that is "V_SIDLHVON" / "V_SIDLHVOFF".

/ V_SIDHVON

/ V_SIDHVOFF

SECAM ID

Sensitivity (Low

Mode)

/ V_SIDLHON

/ V_SIDLHOFF

/ V_SIDLHVON

/ V_SIDLHVOFF

2002-6-30 43 / 66

TB1261F/TB1262F

YUV STAGE (RGB Mute:0 / RGB cut off:128 / DC rest.:2(100%))

Note Items/Symbols

Bus conditions

Brightness:

0/64/127

Measurement methods

Y1

(1) Input a 0(IRE) black signal with sync into Pin61.

(2) Measure the DC level of picture period at Pin14 for

Brightness:127/64/0, that is "VBRTMAX" / "VBRTCEN" /

"VBRTMIN".

Brightness Control

/ V_BRTMAX

Color:0

/ V_BRTCEN

RGB Mute:0

R cut off:128

DC rest.:2(100%)

Others: Preset

/ V_BRTMIN

(3) Calculate;"ΔV_BRT"=(V_BRTMAX-V_BRTMIN)/127

Brightness Control

resolution

/ ΔV_BRT

Contrast Control for Y

/ G_UCYMAX

Y2

Y3

Uni-Color:0/64/1

27

(1)Input a PAL color bar (75%) signal with sync into Pin61.

(2)Measure the output picture amplitude at Pin14 for

/ G_UCYCEN

Color:0

contrast:127/64/0, that is V_UCYMAX/ V_UCYCEN/ V_UCYMIN

(3)Calculate; "G_UCYMAX"=20*log(V_UCYMAX/0.35)

"G_UCYCEN"=20*log(V_UCYCEN/0.35)

.

/ G_UCYMIN

RGB Mute:0

R cut off:128

DC rest.:2(100%)

WPS:1(OFF)

Others: Preset

"G_UCYMIN"=20*log(V_UCYMIN/0.35)

Sharpness Control

/ GSHMAX

/ GSHCEN

Sharpness:0/32/6 (1)Input a 0.5V(p-p) sweep signal with sync into Pin61.

3

(2)Measure the output picture amplitude for 100kHz at Pin14

Uni-Color:64

Color:0

that is V_SH100k.

/ GSHMIN

(3)Measure the output picture amplitude for FSHP when

Sharpness is max.,center and min. that are V_SHMAX, V_SHCENand

RGB Mute:0

R cut off:128

V_SHMIN

.

DC rest.:2(100%) (4)Calculate; "G_SHMAX"=20*log(V_SHMAX/V_SH100k

)

Others: Preset

"G_SHCEN"=20*log(V_SHCEN/V_SH100k)

"G_SHMIN"=20*log(V_SHMIN/V_SH100k

)

Sharpness

Frequency

/ F_SHP

Peaking

Y4

Y5

Sharpness:63

Uni-Color:63

Color:0

(1) Input a 0.5V(p-p) sweep signal with sync into Pin61.

(2) Set the IICBUS switch of coring to 1

(3) Measure the frequency at which the Pin14 output amplitude

is Max. that is "FSHP".

RGB Mute:0

R cut off:128

DC rest.:2(100%) (4) Set the IICBUS switch of coring to 0

Coring=0/1

(5) Measure the frequency at which the Pin14 output amplitude

Others: Preset

is Max. that is "FSHPoff".

G_COR=20*log( FSHPoff / FSHP )

Uni-Color:127

Color:0

(1) Input a gray raster with sync to Pin61.

(2) Set BUS data so that γ point is 90IRE.

(3) Increasing a video amplitude of input from 50(IRE),

measure a video amplitude as the figure below, that is “VY

γ 90”

Y

γ

correction

start point

γ

RGB Mute:0

R cut off:128

DC rest.:2(100%)

γ point:0/1/2/3

WPS:1(OFF)

Others: Preset

/ V_Y

70

/ V_Y

80

γ

/ V_Y

90

γ

(4) Set BUS data so that γ point is 80IRE.And repeat (3), that

is “VYγ 80”.

(5) Set BUS data so that γ point is 70IRE.And repeat (3), that

is “VYγ 70”.

Y

curve

/ G_Y

γ

(6) From the measurement in the above, find gain of the

γ

portion that the γ correction has an effect on.

#14 output

Y γ=off

Y γ=90/80/70IRE

V

#61 input

Yγ90

2002-6-30 44 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

Measurement methods

Y6

Black

Expansion Uni-Color:127

(1)Input a gray raster with sync to Pin61.

Start Point

/ V_BLEX25

/ V_BLEX35

/ V_BLEX45

Color:0

(2)Set black stretch to 25(IRE).

Black stretch:

0/1/2/3

(3)Decreasing Y amplitude of input from 50(IRE), measure a Y

amplitude as the figure below, that is “V_BLEX25

(4)Set black stretch to 35(IRE)/45(IRE).

(5)Repeat (3), that is ‘V_BLEX35”, “V_BLEX45”.

”

RGB Mute:0

R cut off:128

Black

Expansion

DC rest.:2(100%) (6)Find gain of the portion that the black stretch has an effect

AMP Gain

/ G_BLEX

Others: Preset

on.

#14

output

Black

stretch

=off

25/35/45IRE

V

#61 input

BLEX25

Y7

Y8

DC

Restoration Uni-Color:127

Color:0

(1) Input a 100(IRE)(=0.7Vp-p) white signal with sync into

Pin38&39.

Gain

/ V_Dcrest120

/ V_Dcrest90

/ V_{Dcrest step}

DC rest.: 0/1/2/3

RGB Mute:0

(2) Set DC rest. to 10.

(3) Measure a Y amplitude of pin20 output that is V100.

(4) Set DC rest to 00.

R cut off:128

Others: Preset

(5) Measure a Y amplitude of pin20 output that is V120.

(6) Calculate, “Vdcrest120” =(V120/V100)×100

(7) Set DC rest to 11.

(8) Repeat (5)&(6), that is “VDcrest90”.

(9) Calculate, “VDcrest step”=(Vdcrest120 - VDcrest90)/4

(1) Input a 120(IRE) ramp signal with sync into Pin61.

(2) Measure the DC voltage from cut-off level to peak(at which

output signal is clipped) that is "VWPS".

WPS Level

/ V_WPS

Uni-Color:127

Brightness:63

Color:0

RGB Mute:0

R cut off:128

DC rest.:2(100%)

WPS:0/1

Others: Preset

VSM Peak

Frequency

/F_VSM

(1) Input 100mV(p-p) sweep signal to pin61(Y in).

(2) Measure the peak point frequency “FVSM” at pin18(VSM

OUT) by using a spectrum analyzer.

Y9

RGB Mute:0

VSM gain:3

Others: Preset

RGB Mute:0

c-trap=off

VSM Gain

(1) Input 100mV(p-p) FVSM sine wave signal (see Y9) to

Y10

pin61(Y in).

/ G_{VSM 0}

(2) Set VSM Gain (0/1/2/3) and measure the amplitude at

pin18(VM OUT),that is “VVM0 “/ “VVM-3 “/ “VVM-10 “/

“VVM-OFF“.

/ G_{VSM -3}

VSM gain:

0/1/2/3

/ G_{VSM -10}

/ G_VSMOFF

Others: Preset

(3) Calculate,

G_{VSM 0}=20*log(V_VM0/0.1)

G_VSM-3=20*log(V_VM-3/0.1)

G_VSM-10=20*log(V_VM-10/0.1)

G_VSMOFF=20*log(V_VM-off/0.1)

2002-6-30 45 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

RGB Mute:0

VSM gain:7

Ysm Mode:0

Uni-color : 127

Sharpness :

Variable

Measurement methods

VSM Phase

/ T_VMFP

(1) Input 700mV(p-p) FVSM 2T pulse to pin61 (Y in).

(2) Set the BUS data of contrast to the maximum and increase

the BUS data of Sharpness from the minimum to a value

where pin14 (B OUT) waveform is not distorted.

(3) Measure the phase difference between the timing at the

center level of pin18(B OUT) and the timing at peak level of

pin18(VSM OUT) which responses the pin61 input., that is

TVMFP.

Y11

/ T_VM2T

Others: Preset

(4) In case that pin61 input signal is 2T pulse, the phase

difference is T_VM2T

#12(R-OUT)

#18(SVM-OUT)

Tvm2t(0)

Tvm2t(1)

VSM Ys Mute

Threshold Voltage

/ V_VMMBLK

Y12

RGB Mute:0

VSM gain:3

(1) Input 100mV(p-p) F_VSMsine wave signal (see Y9) to pin61(Y

in).

Others: Preset

(2) Apply dc voltage for pin15(Ysm) and increase the voltage

from 0V. Measure the power supply voltage when pin18(VSM

OUT) output disappears, that is V_VMMBLK

.

UV1

RGB Mute:0

Tint:0/64/127

Y Mute:1

(1) Input a 4.43MHz PAL rainbow color-bar (burst:chroma=1:1)

with sync into Pin61

Tint control range

/ Δθ

MAX

(2) Set Tint to 64 and adjust the burst phase so that the 6th bar

/ Δθ

MIN

contrast:127

Others: Preset

of Pin14 output is maximum, that is θ

.

CEN

(3) Change Tint to 127/0 and adjust the burst phase so that the

6th bar of Pin20 output is maximum, that is θ_MAX/θ

.

MIN

(4) Calculate; "Δθ_MAX"=-(θ_443MAX-θ

"Δθ_MIN"=-(θ_443MIN-θ

)

CEN

)

CEN

Color Control

/ G_COLMAX

/ G_COLMIN

UV2

RGB Mute:0

Color:0/64/127

Y Mute:1

(1) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into Pin61.

(2) Measure the Pin14 amplitude for Color 127/64/0, that is

Uni-Color:127

Others: Preset

V

_COLMAX/ V_COLCEN/ V_COLMIN

.

(3) Calculate; "G_COLMAX"=20*log(V_COLMAX/V_COLCEN

)

"G_COLMIN"=20*log(V_COLMIN/V_COLCEN

)

UV3 contrast control for RGB Mute:0

(1) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into Pin38&43.

UV

Uni-Color:0/127

/ G_UCC

Y Mute:1 Others: (2) Measure the Pin20 amplitude for Uni-Color 127/0 that is

Preset

V_UCCMAX, and V_UCCMIN.

(3) Calculate;"G_UCC"=20*log(V_UCCMIN/V_UCCMAX

)

UV4 Relative Amplitude

(PAL1)

RGB Mute:0

Y Mute:0/1

(1) Input a 100IRE signal with sync into pin61.

(2) Adjust G/B drive so that each amplitude of pin12/13/14

output are equal.

/ V_P1R/B

Uni-Color:127

Others: Preset

/ V_P1G/B

(3) Set Y Mute to 1.

Relative Amplitude

(PAL2)

(4) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into Pin61.

(5) Measure the amplitude of Pin12/13/14 output, that is

"VPROUT"/ "VPGOUT" / "VPBOUT"

(6) Calculate;

/ V_P2R/B

/ V_P2G/B

Relative Amplitude

(NtsC1)

" V_P1R/B"=VPROUT/VPBOUT

/ V_N1R/B

" V_P1G/B"=VPGOUT/VPBOUT

/ V_N1G/B

(7) Set 'Demo P' to PAL2/NTSC1/NTSC2.

(8) Repeat (6)&(7), that is “V_P2R/B”/” V_P2G/B”/ V_N1R/B”/” V_N1G/B”/”

V_N2R/B”/” V_N2G/B”.

Relative Amplitude

(NTSC2)

/ V_N2R/B

/ V_N2G/B

2002-6-30 46 / 66

TB1261F/TB1262F

Note Items/Symbols

UV5 Relative Phase

(PAL1)

Bus conditions

RGB Mute:0

Y Mute:1

Measurement methods

(1) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into Pin61.

(2) Observe the Pin12/13/14 output, measure the R/G/B

modulation angle (θ_PR/θ_PG/θ_PB) according following figure

and formula.

Uni-Color:127

NTSC Phase:

0/1/2

/ θ

PR-B

/ θ

PG-B

Relative Phase

(PAL2)

Others: Preset

θp*={θo*- Arktag(1/(2A/B+sqrt(3))-15}

/ θ

N1R-B

peak

/ θ

N1G-B

B

A

Relative Phase

(NTSC1)

/ θ

N2R-B

For θ_P1R; Peak:3rd bar, θ =90

For θ

; Peak(negative):4⁰t^Rh bar, θ_0G=240

/ θ

N2G-B

P1G

P1B

Relative Phase

(NTSC2)

; Peak:6th bar, θ =0

0B

Calculate;

/ θ

DR-B

"θ_P1R-_B"=θ_P1R-θ

"θ_P1G-B"=θ_P1G-θ

P1B

/ θ

DG-B

P1B

(3) Set ' Demo-P' to 01, 10 and 11, and acquire each PAL2,

NTSC1 and NTSC2 results with the same measurements.

2002-6-30 47 / 66

TB1261F/TB1262F

TEXT STAGE (RGB Mute:0 / RGB cut off:128 / DC rest.:2(100%) / WPS:1(off))

Note Items/Symbols

Bus conditions

Measurement methods

T1

V-BLK Pulse Output All: Preset

(1) Input a composite sync signal into Pin61.

Level

(2) Measure the DC level of V/H blanking period at Pin14, that

/ V_VBLK

is

H-BLK Pulse Output

Level

"V_VBLK" / "V_HBLK".

/ V_HBLK

T2

T3

RGB Output Black

Level (0IRE DC)

/ V_BLACK

RGB Mute:0

Color:0

(1) Input a 0(IRE) Y signal with sync into Pin61.

(2) Measure the DC level of picture period at Pin14, that is

"V_BLACK".

B cut off:128

DC rest.:2(100%)

Others: Preset

RGB Output White

Level(100 IRE AC)

/ V_WHITE

RGB Mute:0

B cut off:128

DC rest.:2(100%)

Uni-Color:127

Color:0

(1) Input a 100(IRE)(=0.7Vp-p) Y signal with sync into Pin61.

(2) Measure the amplitude from 0 to 100IRE at Pin14, that is

"V_WHITE".

WPS:1(off)

Others: Preset

T4

T5

Cut-off Voltage

Variable Range

/ ΔV_CUT+

RGB Mute:0

(1) Input a 0(IRE) Y signal with sync into Pin61.

DC rest.:2(100%)

B Cut Off:0/255

Color:64 Brt; 64

Others: Preset

(2) Measure the DC level of picture period at Pin14 for B

Cut-off:255/0 , that is V_CUTMAX/ V_CUTMIN

.

(3) Calculate;

"

Δ

V_CUT+"=V_CUTMAX-V_BLACK

"

Δ

/ ΔV_CUT-

V

_CUT-"=V_CUTMIN-V_BLACK

Drive Control

Variable Range

/ G_DR+

RGB Mute:0

DC rest.:2(100%)

B Drive:0/127

Uni-Color:127

Color:0

(1) Input a 100(IRE) (=0.7Vp-p) Y signal with sync into Pin61.

(2) Measure the amplitude from 0 to 100IRE at Pin14 for B

drive127/0, that is V_DRMAX/ V_DRMIN

.

/ G_DR-

(3) Calculate; "G_DR+"=20*log(V_DRMAX/V_WHITE

)

"G_DR-"=20*log(V_DRMIN/V_WHITE

)

WPS:1(OFF)

Others: Preset

T6

T7

ABCL Control

Voltage Range

/ V_ABCLH

RGB Mute:0

B cut off:128

DC rest.:2(100%)

ABL Gain:3

Uni-Color:127

Color:0

(1) Input a 100(IRE) (=0.7Vp-p) Y signal with sync into Pin61.

(2) Decreasing the Pin31 voltage, measure the voltage at which

Pin14 output begins/stops decreasing, that is "VABCLH" /

"VABCLL".

/ V_ABCLL

ACL Gain

/ G_ACL

(3) Measure the minimum amplitude of Pin14 output, that is

VACLMIN.

WPS:1(OFF)

Others: Preset

(4) Calculate; "GACL"=20*log(V_ACLMIN/V_WHITE

)

ABL Start Point

/ V_ABLP0

RGB Mute:0

B cut off:128

DC rest.:2(100%)

ABL Start Point:

0/1/2/3

(1) Input a 0(IRE) Y signal with sync into Pin61.

(2) For ABL Point 0/1/2/3, decreasing the Pin31 voltage,

measure the voltage at which Pin14 output begins

/ V_ABLP1

/ V_ABLP2

decreasing, that is V_ABL1/V_ABL2/V_ABL3/V_ABL4

(3) Calculate; "V_ABLP0"=V_ABL1-V_ABCLH

"V_ABLP1"=V_ABL2-V_ABCLH

.

/ V_ABLP3

ABL Gain:3

Uni-Color:127

Color:0

"V_ABLP2"=V_ABL3-V_ABCLH

"V_ABLP3"=V_ABL4-V_ABCLH

WPS:1(OFF)

Others: Preset

T8

ABL Gain

/ V_ABLG0

/ V_ABLG1

/ V_ABLG2

/ V_ABLG3

RGB Mute:0

B cut off:128

DC rest.:2(100%)

ABL Gain:

(1) Input a 0(IRE) Y signal with sync into Pin61.

(2) For ABL Gain 0/1/2/3, measure the DC level of picture

period at Pin14 when Pin31 voltage is V_ABCLL, that is

V_ABL5/V_ABL6/V_ABL7/V_ABL8

.

00/01/10/11

(3) Calculate; "V_ABLG0"=V_ABL5-V_BLACK

"V_ABLG1"=V_ABL6-V_BLACK

Uni-Color:127

Color:0

"V_ABLG2"=V_ABL7-V_BLACK

WPS:1(OFF)

Others: Preset

"V_ABLG3"=V_ABL8-V_BLACK

2002-6-30 48 / 66

TB1261F/TB1262F

Note Items/Symbols

Bus conditions

RGB Mute:0

B cut off:128

Measurement methods

T9

Analog RGB

Dynamic Range

/ DR_TX

(1) Input a composite sync signal into Pin61.

(2) Supply 2.5V to Pin20.

DC rest.:2(100%) (3) Input a signal of following figure into Pin23.

RGB

(4) Increasing the amplitude of Pin23 input, measure the

Contrast:32

Ysm Mode:1

Others: Preset

amplitude at which the Pin14 amplitude stops increasing,

that is "DR_TX".

Sinusoidal wave

Frequency f₀

Amplitude V₀

pin23 input

pin61 input

T11

T12

Analog RGB

Brightness Control

Characteristic

/ V_TXBRMAX

RGB Mute:0

B cut off:128

DC rest.:2(100%)

Brightness:

0/64/127 Others:

Preset

(1) Supply 3V to Pin15.

(2) Connect Pin21, 22 and 23 to GND via a 0.1uF of capacitor.

(3) For Brightness 127/64/0, measure the DC level of picture

period at Pin14, that is "V_TXBRMAX" / "V_TXBRCEN" / "V_TXBRMIN".

/ V_TXBRCEN

/ V_TXBRMIN

Ysm Mode Switching RGB Mute:0

(1)Input a composite sync signal into Pin61.

Level

Others: Preset (2)Input a signal of NOTE:T9 figure into Pin23.

/Ｖ

(3)More Increasing the Pin23 voltage, measure the voltage at

which the signal inputted into Pin23 appears at Pin14, that is

"V_YSANA".

YSANA

/ V

YSBLK

(4)Increasing the Pin23 voltage, measure the voltage at which

the signal disappear at Pin14, that is "V_YSBLK".

T13

Analog RGB Mode RGB Mute:0

(1) Input a 50(IRE) (=0.35Vp-p) Y signal with sync into Pin61.

(2) Connect Pin21, 22 and 23 to GND via a 0.1uF capacitor.

Transfer

Characteristic

/ τR_YS

B cut off:128

DC rest.:2(100%) (3) Measure the Analog RGB Mode Transfer time, according to

Others: Preset

following figure,

/ tPR_YS

1H

/ τF_YS

/ tPF_YS

20

s

μ

20

s

μ

Pin20 Input

20 s

n

20 s

n

50%

tPR

tPF_Ys

Pin14 Output

100%

90%

50%

10%

0%

R

F

YS

τ

YS

T14

Cross Talk from

Analog RGB to TV

/ CT_TX-TV

RGB Mute:0

B cut off:128

(1) Input a composite sync signal into Pin61.

(2) Connect Pin61 to GND via a 1uF capacitor.

DC rest.:2(100%) (3) Input

a

sine

wave

signal

(f=4MHz,

Video

contrast:127

amplitude=0.5V(p-p)) into Pin23.

(4) Supply 0V to Pin20.

Others: Preset

(5) Measure the amplitude at Pin14, that is V_TV

.

(6) Supply 2.5V to Pin20.

(7) Measure the amplitude of 4MHz signal at Pin14, that is

V_TX

.

(8) Calculate; "CT_TX-TV"=20*log(V_TV/ V_TX

)

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TB1261F/TB1262F

Note Items/Symbols

Bus conditions

RGB Mute:0

R cut off:128

Measurement methods

(1) Input sine

amplitude=0.5V(p-p)) with sync into Pin61.

T15

Cross Talk from TV

to Analog RGB

/ CT_TV-TX

a

wave

signal

(f=4MHz,

Video

DC rest.:2(100%) (2) Connect Pin21, 22 and 23 to GND via a 0.1uF capacitor.

Ysm Mode:1

Uni-color:127

(3) Supply 2.5V to Pin20.

(4) Measure the amplitude at Pin14, that is V_TX

.

RGB contrast:63 (5) Supply 0V to Pin20.

Others: Preset

(6) Measure the amplitude of 4MHz signal at Pin14, that is

V_TV

.

(7) Calculate; "CT_TV-TX"=20*log(V_TX/ V_TV

)

T17

RGB Mute:0

R/G/B cut off:128

Brightness:63

DC rest.:2(100%)

Color:0

Analog RGB／RGB

(1)Input a 0IRE signal with sync into Pin61.

(2)Connect Pin21, 22 and 23 to GND via 0.01μF.

Output Voltage Axes

Difference

／ΔV_R-G

(3)Measure the DC level of picture period at Pin12, 13 and 14,

that is R_Y/G_Y/B_Y.

／ΔV_G-B

(4)Supply Pin15 to 2.5V.

Uni-color:127

Others: Preset

／ΔV_B-R

(5) Measure the DC level of picture period at Pin12, 13 and 14,

that is R_T/G_T/B_T.

(6)Calculate;

ΔR ＝ R_T－ R_Y

ΔG ＝ G_T－ G_Y

ΔB ＝ B_T－ B_Y

“ΔV_R-G” ＝ ΔR － ΔG

“ΔV_G-B” ＝ ΔG － ΔB

“ΔV_B-R” ＝ ΔB － ΔR

RGB Mute DC level

V_RGBMUTE

T18

RGB Mute:0/1

R/G/B cut off:128

Brightness:63

DC rest.:2(100%)

Color:0

(1)Input a 0IRE signal with sync into Pin61.

(2)Set the IICBUS switch of RGBMUTE to 1

(3)Connect Pin21, 22 and 23 to GND via 0.01μF.

(4)Measure the DC level of picture period at Pin 14, that is

V_RGBMUTE

Uni-color:127

Others: Preset

(5)Reset RGBMUTE to 0 and set Blueback to 1

(6)Measure the DC level of picture period at Pin 14, that is V_BB

(1) Input a 100(IRE) (=0.7Vp-p) white signal with sync into

Pin61.

UV6 Half Tone

Ysm Mode:0

Characteristics for Y Uni-Color:127

/ G_HTY

Color:0

(2) Measure the output picture amplitude at Pin14 that is

RGB Mute:0

R cut off:128

V_HTYOFF.

(3) Supply Pin20 1.5V.

DC rest.:2(100%) (4) Measure the output picture amplitude at Pin14 that is

Others: Preset

RGB Mute:0

V_HTYON.

Calculate;"G_HTY"=20*log(V_HTYON/V_HTYOFF

)

UV7 Half Tone

(1) Input a 4.43MHz PAL rainbow color-bar(300mV(p-p),

burst:chroma=1:1) with sync into Pin61. .

Characteristics for C Y Mute:1

/ G_HTC

Uni-Color:127

Others: Preset

(2) Supply Pin15 1.5V and measure the amplitude of Pin14

output, that is V_PBHTC

.

(3) Calculate; (V_PBOUT:see C7)

"G_HTC"=20*log(V_PBHTC/V_PBOUT

)

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DEF STAGE

Note Items/Symbols

Bus conditions

All: Preset

Measurement methods

D1

AFC Inactive Period

(1) Input a 50Hz/60Hz composite sync signal into Pin61.

(2) Measure "T_50AFCOFF" / "T_60AFCOFF" at Pin43. (cf. Fig.D1)

/ T_50AFCOFF

/ T_60AFCOFF

D2

H-OUT Start Voltage All: Preset

/ V_HON

(1) Let Pin11, 25, 67and 74 be open.

(2) Increasing Pin45 voltage, measure the voltage at which H

OUT pulse appears at Pin39, that is "V_HON".

D3

H-OUT Pulse Duty

/ W_HOUT

All: Preset

(1) Measure t_HOUT1& t_HOUT2at Pin39.

command IIC read (2) Calculate ;"W_HOUT"=t_HOUT1/(t_HOUT1+t_HOUT2)*100

t_HOUT1

t_HOUT2

D4

D5

D6

H-OUT Freq. on AFC AFC

Gain:11 (1) Input a 50Hz composite sync signal into Pin61.

Stop Mode

/ F_HAFCOFF

(OFF)

(2) Measure the

"F_HAFCOFF".

H OUT frequency at Pin32, that is

Others: Preset

V-Freq:001/010

Others: Preset

Horizontal

Free-run Frequency

/ F_HFR

(1) Measure the H OUT frequency at Pin61, that is "F_H50FR

"

/ "F_H60FR".

Horizontal

Variable Range

/ F_HMAX

Freq. All: Preset

(1) Connect Pin43 to Vcc via a 10kΩ and measure the H OUT

frequency at Pin39, that is "F_HMIN".

(2) Connect Pin43 to GND via a 68kΩ and measure the H

OUT frequency at Pin39, that is "F_HMAX".

/ F_HMIN

D7

D8

Horizontal

Freq. All: Preset

(1) Measure the Pin39 voltage at which H OUT frequency is

Control Sensitivity

15.734kHz, that is V_H15734.

/ β

(2) Measure the H OUT frequency when Pin43 voltage is

HAFC

V

_H15734+ 50mV /V_H15734- 50mV, that is F_HLOW/ F_HHIGH.

(3) Calculate;"β_HAFC"=(F_HHIGH-F_HLOW)/100

Horizontal Pull-in

Range

All: Preset

(1) Input a composite sync signal into Pin61.

(2) Decreasing the horizontal frequency from 17kHz, measure

the frequency at which H OUT synchronized with Sync

/ ΔF_HPH

in(Pin61), that is F_HPH

.

/ ΔF_HPL

(3) Increasing the horizontal frequency from 14kHz, measure

the frequency at which H OUT synchronized with Sync

in(Pin61), that is F_HPL

.

(4) Calculate; "ΔF_HPH"=F_HPH-15734

"ΔF_HPL"=15625-F_HPL

D9

H-OUT Voltage

/ V_HOUTH

All:

Preset (1) Measure the high level of H OUT at Pin39, that is

"V_HOUTH".

/ V_HOUTL

(2) Measure the low level of H OUT at Pin39, that is "V_HOUTL".

(1) Measure the H OUT frequency when H Vcc(Pin45) is

8.5V/9.5V, that is F_HVCCH/F_HVCCL.

D10

D11

Horizontal Freq.

Dependence on Vcc

/ ΔF_HVCC

All: Preset

(2) Calculate;"ΔF_HVCC"=(F_HVCCH-F_HVCCL)/1

(1) Input a composite sync signal into Pin61.

(2) According to the following figure, measure "PH_FBP" &

"PH_HSYNC".

FBP Phase

/ PH_FBP

H-Sync. Phase

/ PH_HSYNC

63.5µs

Sync in(Pin61)

a

4.7µs

0.25V

a/2

PH

HSYNC

H AFC(Pin43)

PH

FBP

FBP in(Pin37)

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Note Items/Symbols

Bus conditions

Measurement methods

D12

Horizontal Position

H

Position:0/31 (1) Input a composite sync signal into Pin61.

Variable Range

Others: Preset

(2) Changing BUS data of “Horizontal Position” from 0 to 31,

/ ΔPH_HPOS

measure "ΔPH_HPOS" according to the following figure.

/ ΔＰＨ

HCOR+

(00)

/ ΔＰＨ

HCOR

－

ΔPH

FBP in(Pin37)

HPOS

(1F)

(3) Measure the H phase where the pin #73 (Hcorr) is opened

and the HPOS is 16

(4) Measure the H phase shift form (3) when supply 5.5V for

pin #73, that isΔＰＨ

.

(5) Measure the H pha^Hs^Ce^ORs⁺hift from (3) when supply 0.5V for

pin #73, that isΔＰＨ

.

HCOR-

D13

D14

AFC-2 Pulse

Threshold Level

/ V_AFC2

All: Preset

(1) Input a composite sync signal into Pin61.

(2) Decreasing the FBP high level, measure the DC level at

which H OUT phase changes against Sync in(Pin61)

phase, that is "V_AFC2".

H-BLK Pulse

Threshold Level

/ V_HBLK

RGB Mute:0

contrast:127

Others: Preset

(1) Input a composite sync signal into Pin61.

(2) Increasing the FBP high level, measure the DC level at

which H blanking begins to work, that is "V_HBLK".

(3) Measure as the figure below when the IICBUS of

'W-HBLK=1' and when input 50/60Hz of V freq.

ΔW_WHBLK50L

ΔW_WHBLK50R

ΔW_WHBLK60L

ΔW_WHBLK60R

100%

WIDE

H-BLK

Δwhblk50L

Δwhblk60L

Δwhblk50R

Δwhblk60R

D15

Black Peak Det. Stop TEST:00001000

(1) Input a composite sync signal into Pin61.

(2) According to the following figure, measure "PH_BPDET" &

"W_BPDET".

Period (H)

/ PH_BPDET

/ W_BPDET

Black Stretch:01

Others: Preset

63.5µs

Sync in(Pin61)

4.7µs

0.25V

H AFC(Pin43)

ΔPH

HPOS

5V

W

BPDET

SCP OUT(Pin37)

0V

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Note Items/Symbols

Bus conditions

All: Preset

Measurement methods

D16

Gate Pulse Start

Phase

(1) Input a composite sync signal into Pin61.

(2) According to the following figure, measure "PH_GP" &

/ PH_GP

"W_GP".

Gate Pulse Width

/ W_GP

63.5µs

Sync in(Pin61)

4.7µs

0.25V

H AFC(Pin43)

PH

W

GP

5V

0V

SCP OUT(Pin37)

D18

D19

Vertical Free-run

Frequency

/ F_VAUFR50

/ F_VAUFR60

/ F_V50FR

V-Freq:

(1) Input a 50Hz composite sync signal into Pin61.

(2) Set V-Freq to 0.

0/1/2

Others: Preset

(3) For no input, measure the frequency of V Ramp at Pin46,

that is "F_VAUFR50".

(4) Input a 60Hz composite sync signal into Pin61.

/ F_V60FR

(5) Repeat (2)&(3), that is “F_VAUFR60”

(6) Set V-Freq. To 1/2, repeat (2), that is "F_V50FR" / "F_V60FR".

(1) Input a 50Hz/60Hz composite sync signal into Pin61.

(2) Measure "T_50GPM" / "T_60GPM" at Pin37. (cf. Fig.D19)

Gate Pulse

V-Masking Period

/ T_50GPM

All: Preset

/ T_60GPM

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Note Items/Symbols

Bus conditions

Measurement methods

D20

V. Ramp DC on

Service Mode

/ V_NOVRAMP

V STOP:1 Others: (1) Set V STOP to 1.

Preset

(2) Measure the DC level of Pin47, that is "V_NOVRAMP".

D21

Vertical Pull-in

Range (Auto)

/ F_VPAUL

V-Freq:0/1/2

(1) Input a composite sync signal into Pin61.

Others: Preset

(2) For V-Freq 0/1/2, increasing the input vertical period from

220H by 0.5H step, measure the period at which input

/ F_VPAUH

signal synchronized with V Ramp(Pin46), that is "F_VPAUL

"

Vertical Pull-in

Range (50Hz)

/ F_VP50L

/” F_VP50L”/ "F_VP60L".

(3) For V-Freq 0/1/2, decreasing the input vertical period from

360H by 0.5H step, measure the period at which input

signal synchronized with V Ramp, that is "F_VPAUH" /”

/ F_VP50H

Vertical Pull-in

Range (60Hz)

/ F_VP60L

F_VP50H”/ "F_VP60H".

/ F_VP60H

D22

D23

D24

D25

Vertical Period on

Fixed Mode

/ T_V3125

V-Freq:4/5/6/7

Others: Preset

(1) For V-Freq 4/5/6/7, measure the vertical period at SCP out

(Pin37), that is "T_V312.5"/"T_V262.5" / "T_V313"/"T_V263" .

/ T_V2625

/ T_V313

/ T_V263

VD Start Phase

/ PH_50VD

All: Preset

(1) Input a 50Hz/60Hz composite sync signal into Pin61.

(2) Measure " PH_50VD" / " W_50VD" and " PH_60VD" / " W_60VDat

Pin40. (cf. Fig.D23)

/ PH_60VD

VD Width

/ W_50VD

/ W_60D

V-BLK Start Phase

/ PH_50VBLK

/ PH_60VBLK

V-BLK Width

/ W_50VBLK

/ W_60VBLK

(1) Input a 50Hz/60Hz composite sync signal into Pin61.

(2) Measure " PH_50VBLK" / " W_50VBLK" and " PH_60VBLK" / "

W

_60VBLK"at Pin14.

Sand Castle Pulse All: Preset

(1) Measure "V_SCPH" / "V_SCPM" / "V_SCPL" at Pin37.

Level

V_SCPH

V_SCPM

V_SCPL

/ V_SCPH

/ V_SCPM

/ V_SCPL

D26

V Ramp Amplitude

/ V_VRAMP

All: Preset

(1) Measure the V Ramp amplitude at Pin46, that is "V_VRAMP".

(2) Measure the V Ramp amplitude at pin #47, that is "V_OUT

"

/ Ｖ

(3) Measure the V Ramp increasing ratio at pin #47 at when

'V Size' = Max, that is "R_{VOUT MAX"}

VOUT,

/ Ｖ

VOUT MAX

(4) Measure the V Ramp decreasing ratio at pin #47 at when

'V Size' = 01, that is "R_{VOUT MIN"}

/ Ｖ

VOUT MIN

/ V _OUTDC

(5) Measure the V Ramp dc voltage at pin #47 at when 'V

Size' = 00, that is " V _OUTDC

"

(6) Measure the V Ramp dc voltage at pin #47 at when 'V

Size' = 00 and 'V cent'=MAX, let it 'V _MAXDC

" V _{CENT MAX}" = ( 'V _MAXDC' - " V _OUTDC" ) / "V_OUT

(7) Measure the V Ramp dc voltage at pin #47 at when 'V

Size' = 00 and 'V cent'=Min, let it 'V _MINDC

" V _{CENT MAX}" = ( 'V _MINDC' - " V _OUTDC" ) / "V_OUT

'

"

'

"

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Note Items/Symbols

Bus conditions

V Linearity:0/8/15

Others: Preset

Measurement methods

D27

Vertical Linearity

Variable Range

/ ΔV_LIN

(1) Supply 6V into pin28(EHT in).

(2) Measure the levels of the A - F in the following figure in

setting the V-Lin for each.

(3) Calc the "V-LIN" with this formula.

V-Lin = {( B – C ) + ( E - F)} / {2 x ( A + D )} x 100%

DAC

MAX

(B)

TYP

MIN

(C)

(F)

(A)

(D)

(E)

D28

V

S

Corr.:0/8/15

Vertical S Correction

Variable Range

/ ΔV_-S(+)

(1) Supply 6V into pin28(EHT in).

Others: Preset

(2) Measure the levels of the A - F in the following figure in

setting the V-S for each.

/ ΔV_S(-)-

(3) Calc the "V-LIN" with this formula.

V-S(+) = (A – B) / A x 100%

V-S(-) = (A – C) / A x 100%

DAC

MAX

(B)

(A)

TYP

MIN

(C)

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Note Items/Symbols

Bus conditions

Parabola

Measurement methods

D29

Vertical Amplitude

EHT Correction

/ΔV_EHT

(1) Set the BUS data of Parabola correction to 0(MAX),and

change the BUS data of Trapezium correction so that the

parabola waveform at pin41(EW OUT) is symmetrical.

correction:

32/63

Trapezium

correction:

0~31

V.EHT:0/7

Others: Preset

(2) Set the BUS data of Parabola correction to 32(CEN).

(3) Supply 1V into pin28(EHT in).

(4) Set the BUS data of V.EHT to 0(MIN).

(5) Measure the amplitude of waveform at pin47(V out),that

is V_EHT(00).

(6) Set the BUS data of V.EHT to 7(MAX).

(7) Measure the amplitude of waveform at pin47(V out),that

is V_EHT(07).

(8) ΔV_EHT=(V_EHT(00)-V_EHT(07))/V_EHT(00))×100%

V_EHT

Pin47 Waveform

D30

E-W H Size

/ V_EWDCMAX

/ V_EWDCMIN

Parabola

correction:

32/63

(1) Set the BUS data of Parabola correction to 0(MAX),and

change the BUS data of Trapezium correction so that the

parabola waveform at pin33(EW OUT) is symmetrical.

(2) Set the BUS data of Parabola correction to 32(CEN).

(3) Supply 6V into pin28(EHT in).

Trapezium

correction:

0~31

(4) Set the BUS data of Horizontal size to 0(MAX).

Measure the voltage at pin33(EW OUT),that is

"V_EWDCMAX".

Horizontal

size:0/63

Others: Preset

(5) Set the BUS data of Horizontal size to 63(MIN).

Measure the voltage at pin33(EW OUT),that is

"V_EWDCMIN".

center

Pin41 Waveform

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Note Items/Symbols

Bus conditions

Parabola

Measurement methods

D35

E-W Parabolic

/ V_EWPMAX

(1) Set the BUS data of Parabola correction to 0(MAX),and

change the BUS data of Trapezium correction so that the

parabola waveform at pin33(EW OUT) is symmetrical.

(2) Set the BUS data of Horizontal size to 32(CEN).

(3) Supply 6V into pin28(EHT in).

correction:

0/63

/ V_EWPMIN

Trapezium

correction:

0~31

(4) Set the BUS data of Parabola correction to 0(MAX).

Measure the amplitude of waveform at pin33(EW

OUT),that is " V_EWPMAX".

Horizontal size:32

Others: Preset

(5) Set the BUS data of Parabola correction to 63(MIN).

Measure the amplitude of waveform at pin33(EW

OUT),that is " V_EWPMIN".

V_EWPMIN

V

EWPMAX

Pin33 Waveform

D36

E-W Corner

Parabola

(1) Set the BUS data of Parabola correction to 0(MAX),and

change the BUS data of Trapezium correction so that the

parabola waveform at pin33(EW OUT) is symmetrical.

(2) Set the BUS data of Parabola correction to 0(MAX).

correction:0

Trapezium

correction:0~31

/ V_EWCTMAX

/ V_EWCTMIN

/ V_EWCBMAX

/ V_EWCBMIN

Corner correction: (3) Supply 6V into pin28(EHT in).

0/15

(4) Set the BUS data of Corner correction to 0.

Others: Preset

(5) Measure the amplitude of waveform at pin33(EW

OUT),that is V_CR(0).

(6) Set the BUS data of Corner correction to 15.

(7) Measure the amplitude of waveform at pin33(EW

OUT),that is V_CR(15).

(8) V_COR=V_CR(15)-V_CR(0)

VCR(0)

VCR(15)

Pin33 Waveform

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Note Items/Symbols

Bus conditions

Trapezium

correction:

0/31

Measurement methods

D37

E-W Trapezium

Correction

/ V_TRMAX

(1) Set the BUS data of 'EW Trape' so as to hit the peak at the

center of the V period.

(2) Set the BUS data of Trapezium correction to 0.

(3) Measure the % of the shifts.

/ V_TRMIN

Others: Preset

(4) Set the BUS data of Trapezium correction to 63.

(5) Measure the % of the shifts.

MAX

MIN

100%

D38

E-W Parabolic EHT

Correction

Trapezium

(1) Set the BUS data of Parabola correction to 0(MAX),and

change the BUS data of Trapezium correction so that the

parabola waveform at pin33(EW OUT) is symmetrical.

(2) Set the BUS data of H.EHT to 7.

correction:0~31

H.EHT:7

/ΔV_{EWP EHT}

Others: Preset

(3) Supply 6V into pin28(EHT in).

(4) Measure the amplitude of waveform at pin34(EW

OUT),that is V_EHP(6).

(5) Supply 1V into pin28(EHT in).

(6) Measure the amplitude of waveform at pin33(EW

OUT),that is V_EHP(1).

(7) ΔV_{EWP EHT}=(V_EHP(6)-V_EHP(1))/V_EHP(6)×100%

V_EHP(1)

V_EHP(6)

Pin33 Waveform

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Note Items/Symbols

Bus conditions

Trapezium

correction:

0~31

Measurement methods

D39

E-W DC EHT

Correction

/ V_EWDCEHT

(1) Set the BUS data of Parabola correction to 0(MAX),and

change the BUS data of Trapezium correction so that the

parabola waveform at pin33(EW OUT) is symmetrical.

(2) Supply 1V into pin28(EHT in).

H.EHT:0/7

Others: Preset

(3) Set the BUS data of H.EHT to 0.

(4) Measure the vertical phase center voltage of waveform at

pin33(EW OUT),that is V_EHD(0).

(5) Set the BUS data of H.EHT to 7.

(6) Measure the vertical phase center voltage of waveform at

pin33(EW OUT),that is V_EHD(7).

(7) V_EWDCEHT=V_EHD(0)-V_EHD(7)

V_EHP(0)

V_EHD(7)

center

Pin33 Waveform

D40

(1) Let the phase of the HOUT falling edge by to the H sync is

H-Bow Correction

H-Parallelogram

Correction

Origin when HBAW = 4 (cent).

(2) Measure the phase shifting when H BAW= 0 and 7, that is

T_HBOWMAX/ T_HBOWMIN.

(3) Measure the phase shifting when H PARA= 0 and 7, that

is T_HPARAMAX/ T_HPARAMIN

/ T_HBOWMAX

/ T_HBOWMIN

/ T_HPARAMAX

/ T_HPARAMIN

MIN

MAX

H-Bow Correction

MAX

H-Parallelogram Correction

MIN

D41

(1) Input CVBS signals with 10MHz of sin wave for

#61(CVBS1in)

Noise Det level

Ｖ

NDET3

Ｖ

NDET15

(2) Set the IICBUS of 'Nose Det Level' to 3

(3) Measure the input sin wave amplitude at the level which

the Read bus of NOISE det turned to 1, that is 1VNDET3.

(4) Set the IICBUS of 'Nose Det Level' to 15

(5) Measure the same way as (3), that is 1VNDET3.

2002-6-30 62 / 66

TB1261F/TB1262F

11, Evaluation board shema

SCL

CE31:47uF

+

R39:4.7kΩ

14 13 12 11 10

9

8

7

9

17

14

7

TC74HC125P

1

2

3

4

5

6

21

R40:51kΩ

R48:680Ω

SDA

+

CE12:10uF

R41:

51kΩ

R42:270Ω

L2:68uH

VR2:

50kB

CE10:47uF

+

L1:68uH

VR1:

50kB

C16:0.01uF

+

CE16:47uF

C22:0.01uF

HD

OUT

N.C.

C15:0.1uF

R46:10kΩ

Sync OUT

H AFC Filter

Y3/CVBS3 IN

H Vcc(9V)

V Ramp

EXT B IN

EXT G IN

EXT R IN

Ys/Ym IN

DAC-1

R24:75Ω

R23:75Ω

R22:75Ω

R49:8.2kΩ

CE17:2.2uF

+

C14:0.1uF

C13:0.1uF

C23:0.022uF

R45:75Ω

+

CE13:1uF

C24:0.01uF

CE18:47uF

+

R21:10kΩ

+

CE19:0.47uF

R13:10kΩ

V OUT

SVM OUT

YC GND

N.C.

R20:1kΩ

R28:4.7kΩ

R50:1kΩ

R63:75Ω

R62:75Ω

Cb3 IN

C34:0.1uF

C35:0.1uF

Cr3 IN

Dig GND

Cr OUT

N.C.

R19:3kΩ

R18:100Ω

B OUT

R17:3kΩ

Cb OUT

G OUT

R16:100Ω

R15:3kΩ

Y/CVBS Mon OUT

Black Det Filter

Y2/CVBS2/G IN

Cb2/B IN

Cr2/R IN

R OUT

R14:100Ω

R51:100kΩ

CE20:10uF

CE21:1uF

C12:0.01uF

CE8:47uF

+

R54:75Ω

YC Vcc(5V)

N.C.

+

R53:75Ω

R52:75Ω

R55:75Ω

C27:0.1uF

+

SECAM Filter

CE9:0.47uF

N.C.

APC Filter

X'tal

C11:2200pF

C26:0.1uF

C25:0.1uF

+

R12:33kΩ

Chroma1 IN

Ys

CE7:0.22uF

C10:12pF

X1: 4.433619MHz

C38:820pF

Ω 7 5 R 6 4 :

N.C.

V Ref Filter

PIF Filter

N.C.

CE23:1uF

Y1/CVBS1 IN

APL Det Filter

N.C.

+

R56:

1kΩ

R10:2.7kΩ C37:0.033uF

+

CE22:1uF

CE3:10uF

R61:330Ω

CE5:0.47uF

+

IF AGC

N.C.

C33:0.01uF

+

CE30:47uF

C7:0.01uF

R74:22kΩ

R71:2.2kΩ

R7:200Ω

R6:47Ω

R66:3kΩ

T1

R8:

220Ω

R72:20kΩ

R60:3kΩ

R67:2kΩ

R1:1kΩ

R9:5.6kΩ

SAW

R59:2kΩ

R2:1kΩ

SAW

C1:0.01uF

F1:BPF

R5:1.6kΩ

R4:75Ω

+

C4:0.01uF

+

R69:200Ω

CE29:47uF

C31:0.01uF

C8:0.01uF

P1

+9V

+5V

+

CE28:100uF

C32:0.01uF

Reg.

2002-6-30 63 / 66

TB1261F/TB1262F

12, Application circuit

41

42

43

44

45

46

47

48

49

50

51

52

53

54

55

56

57

58

59

60

61

62

63

64

24

HD/SCP OUT

Sync out

10k

23

EXT.B IN

EXT.G IN

EXT.R IN

Ysm

0.22uF 8.2k

0.01uF

22

H.AFC

0.01uF

21

Y3/CVBS3 in

H Vcc(9V)

V RAMP

1uF

0.01uF

20

19

DAC 1

0.47uF

18

17

16

15

14

13

12

11

10

9

10k

V OUT

VM OUT

YC GND

Cb3 in

0.1uF

Cr3 in

Dig GND

Cr out

B OUT

G OUT

100

Cb out

Y/MON out

BLACK Det

Y2/CVBS2/G in

Cb2/B in

Cr2/R in

C in

R OUT

220k

1uF

YC Vcc(5V)

1uF

S-filter

0.1uF

0.01uF

0.47uF

2200pF

8

BT621FTB62F1

TB26F1BT26F1

7

APC Filter

X'tal

0.22uF

33k

6

Ys(YCbCr)

4.43MHz 10pF

5

4

Y/CVBS 1 in

FM filter

1uF

10uF

3

DC Restor

PIF filter

1uF

2

1

IF AGC

0.47uF

W

S A

W

S A

QFP80

2002-6-30 64 / 66

TB1261F/TB1262F

13, OUTLINE DRAWING

2002-6-30 65 / 66

TB1261F/TB1262F

000707EBA1

RESTRICTIONS ON PRODUCT USE

· TOSHIBA is continually working to improve the quality and reliability of its products.Nevertheless,semiconductor

devices in generalcan malfunction or fail due to their inherent electrical sensitivity and vulnerability to physical

stress.It is the responsibility of the buyer,when utilizing TOSHIBA products,to comply with the standards of safety in

making a safe design for the entire system,and to avoid situations in which a malfunction or failure of such TOSHIBA

products could cause loss of human life,bodily injury or damage to property. In developing your designs,please

ensure that TOSHIBA products are used within specified operating ranges as set forth in the most recent TOSHIBA

products specifications.Also,please keep in mind the precautions and conditions set forth in the “Handling Guide for

Semiconductor Devices,” or “TOSHIBA Semiconductor Reliability Handbook ” etc..

· The TOSHIBA products listed in this document are intended for usage in general electronics applications

(computer,personal

equipment,office

equipment,measuring

equipment,industrial

robotics,domestic

appliances,etc.).These TOSHIBA products are neither intended nor warranted for usage in equipment that requires

extraordinarily high quality and/or reliability or a malfunction or failure of which may cause loss of human life or bodily

injury (“Unintended Usage ”).Unintended Usage include atomic energy control instruments,airplane or spaceship

instruments,transportation instruments,traffic signal instruments,combustion control instruments,medical

instruments,all types of safety devices,etc..Unintended Usage of TOSHIBA products listed in this document shall be

made at the customer ’s own risk.

· The products described in this document are subject to the foreign exchange and foreign trade laws.

· The information contained herein is presented only as a guide for the applications of our products.No responsibility is

assumed by TOSHIBA CORPORATION for any infringements of intellectual property or other rights of the third

parties which may result from its use.No license is granted by implication or otherwise under any intellectual property

or other rights of TOSHIBA CORPORATION or others.

· The information contained herein is subject to change without notice.

2002-6-30 66 / 66


型号：	TB1261F
厂家：	TOSHIBA
描述：	TOSHIBA BiCMOS INTEGRATED CIRCUIT, SILICON MONOLITHIC 东芝的BiCMOS集成电路硅单片
文件：	总66页 (文件大小：1535K)
中文：	中文翻译
下载：	下载PDF数据表文档文件

TB1261F [TOSHIBA]

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