Mitsubishi M52756SP Datasheet

M52756SP

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VCC(H,V,
Buffer,SW,sync Sepa)(5V)

30 pin plastic SDIP

21123456789301029112812271326142517241823222019SWITCH

VCC(R)(12V)

OUTPUT (R)

GND(R)

VCC(B)(12V)

OUTPUT (G)

GND(B)

VCC(G)(12V)

OUTPUT (B)

GND(G)

G Buffer OUT

OUTPUT (H)

OUTPUT (V)

GND(H,V,Buffer,

SW,sync Sepa)

INPUT1 (R)

VCC1(R)(5V)

INPUT1 (G)

INPUT1 (B)

INPUT1 (H)

INPUT1 (V)

INPUT2 (R)

INPUT2 (G)

INPUT2 (B)

INPUT2 (H)

INPUT2 (V)

VCC(G)(5V)

VCC1(B)(5V)

1516Sync Sepa OUT

Sync Sepa IN

WIDE BAND ANALOG SWITCH

DESCRIPTION

The M52756SP is a semiconductor integrated circuit for the
RGBHV interface. The device features switching signals input
from two types of image sources and outputting the signals to
the CRT display, etc. Synchronous signals, meeting a
frequency band of 10kHz to 200kHz, are output at TTL. The
frequency band of video signals is 250MHz, acquiring high­resolution images, and are optimum as an interface IC with
high-resolution CRT display and various new media.

DESCRIPTION

• Frequency band: RGB ............................................250MHz

HV...................................10kHz to 200kHz

• Input level: RGB................................................0.7Vp-p(typ.)

HV TTL input....................3.5Vo-p(both channel)

• RGBOUT can drive connected load of 75Ω.

• Only the G channel is provided with sync-on video output.

• The TTL format is adopted for HV output.

• It is possible to save the consumption current by stopping

current supply to Pin 2, 4, 24, 27, 30.

• Sync Separation circuit

PIN CONFIGURATION (TOP VIEW)

Outline 30P4B

APPLICATION

Display monitor

RECOMMENDED OPERATING CONDITION

Supply voltage range.....................4.75 to 5.25V, 11.5 to 12.5V

Rated supply voltage................................................5.0V, 12.0V

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WIDE BAND ANALOG SWITCH

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Absolute Maximum Rating

Parameter

Supply voltage

Ambient temperature

Storage temperature

Recommended supply

Recommended sopply

Electrostatic discharge

Power dissipation

Symbol

Vcc

Pd

Topr

Tstg

Vopr

Vopr'

Surge

Rating

Unit

V

mW

˚C˚CVVV

voltage

voltage range

-20~+75

6.0,13.0

1736

-40~+150

5.0,12.0

4.75~5.25,11.5~12.5

Ambient temperature Ta (˚C)

(Ambient temperature: 25˚C)

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WIDE BAND ANALOG SWITCH

+150

Thermal Derating Curve

2000

1736

1000

-20

0

25 50 75 100 125 150

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Pin

Description

DC

Voltage[V]

Peripheral circuits at pins

Notes

Pin Description

V

V

2~5V

0~0.8V

No.

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WIDE BAND ANALOG SWITCH

1

Input 1 (R)

3

Input 1 (B)

5

Input 1 (G)

2

Vcc(R)

4

Vcc(B)

9

Vcc(G)

11

Vcc(H,V,Buffer,

Input 1 (H)

6

Input 1 (V)

7

SW,SyncSep)

2.25

5.0

3.0V

5.0V

4.5K

750µ

5.0V

20K

Input signal with low
impedance.

Input pulse between
2V and 5V.

2~5V

0~0.8V

10K

10
12

13
14

Input 2 (R)

8

Input 2 (B)
Input 2 (G)

Input 2 (H)
Input 2 (V)

2.25

3.0V

5.0V

4.5K

750µ

5.0V

20K

Input signal with low
impedance.

Input pulse between
2V and 5V.

10K

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Description

Peripheral circuits at pins

Notes

Pin Description

V

to

OPEN

is

built in.

Connect resistance more
than 1KΩ is necessary
during power supply and
terminal that open
collector output type.
When not used, ground
the pin to GND.

is

built in.

WIDE BAND ANALOG SWITCH

Pin
No.

Voltage[V]

15 Switch 2.4

16

GND(H,V,Buffer,

SW,SyncSep)

22
25
28

17
18

GND(G)
GND(B)
GND(R)

Output(V)
Output(H)

GND

DC

5.0V
10K

13K

12K

5.0V

1K

Switch by OPEN and
GND.

7.3K

2.25V

Output impedance

19

Sync Sepa
OUT

20

Sync Sepa
IN

21

OUTPUT
(G Buffer)

2.3

0.75

5.0V

3.0V

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1K

500

1K

5.0V

790

5.0V

Input signal with low
impedance.

When not used, set

Output impedance

75

5

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Description

Peripheral circuits at pins

Notes

Pin Description

12.0

WIDE BAND ANALOG SWITCH

Pin
No.

22

OUTPUT(G)

26

OUTPUT(B)

29

OUTPUT(R)

Vcc(G)

24

Vcc(B)

27

Vcc(R)

30

DC

Voltage[V]

1.8

1.6m

75

12.0V
50

8.0m

This output pin can
drive connected load

of 75Ω.

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Attached Fig.3 Measuring Circuit Diagram

47µ

100µ

75Ω

47µ

a

baSW Aba

SW B

SW 1

b

(Vcc5V)

TP29

TP26

TP23

TP21

TP19

TP18

TP17

TP15

RGB

HVSGSS

SW GND :INPUT1
SW OPEN :INPUT2

1µaSW 2b100µ

75ΩaSW 3ba

SW 4b75ΩaSW 5ba

SW 6ba

SW 7b100µ

75ΩaSW 8ba

SW 9b100µ

75ΩaSW 10ba

SW 11b75ΩaSW 12ba

SW 13ba

SW 14ba

SW 15b47µ

47µ

47µ

75Ω

75ΩaSW 20b100KΩ

1KΩ

baSW B

47µ

baSW B

47µ

75Ω

75Ω

75Ω

75Ω

100µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

0.01µ

100µ

A

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WIDE BAND ANALOG SWITCH

B

(Vcc12V)

A A

AA

SG

SG

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the
amplitude of input signal when the output waveform is distorted. The amplitude is as Vimax1. And
measure Vimax1 when SG1 as the input signal of Pin 3,Pin 5 in same way.
Next, set SW 15 to OPEN, measure Vimax2 when SG1 as the input signal of Pin8, 10, 12.

note5) 1. The condition is shown as Table 1.

2. Set SW15 to GND, SG2 as the input signal of Pin 1. At this time, read the amplitude output from

T.P 29. The amplitude is as VOR1.

3. Voltage gain Gv1 is

4. The method as same as 2 and 3, measure the voltage gain Gv1 when SG2 as the input signal of

Pin 3, 5.

5. The difference of each channel relative voltage gain is as ∆Gv1.

∆Gv1=Gv1R-Gv1B,Gv1B-Gv1G,Gv1G-Gv1R

6. Set SW15 to OPEN, measure Gv2, ∆Gv2 in the same way.

note5') Voltage gain ∆Gv' is

∆Gv'=Gv1R-Gv2R,Gv1G-Gv2G,Gv1B-Gv2B

note6) 1. The condition is shown as table 1. This test is by active probe.

2. Measure the amplitude output from T.P.21.

3. Measure the GV3,GV4 by the same way as note5.

note7) 1. The condition is shown as table 1. This test is by active probe.

2. Set SW15 to GND, SG2 as the input signal of Pin 1. Measure the amplitude output from T.P.29.

The amplitude is as VOR1.By the same way, measure the output when SG4 is as input signal of
Pin 1, the output is as VOR2.

3. The frequency characteristic Fc1 is

4. The method as same as 2 and 3, measure the frequency Fc1 when input signal to Pin 3, 5.

5. The difference between of each channel frequency characteristic is as ∆Fc1.

6. Set SW15 to OPEN, measure Fc2,∆Fc2.

note8) By the same way as Note7 measure the Fc3, Fc4 when SG5 of input signal.
note9) 1. The condition is shown as Table1. This test is by active prove.

2. Set SW15 to GND, SG3 as the input signal of Pin 1. Measure the amplitude output from T.P.29.

The amplitude is as VOR3.

3. Set SW15 to OPEN, measure the amplitude output from T.P.29. The amplitude is as VOR3'.

4. The crosstalk between two inputs C.T.I.1 is

5. By the same way, measure the crosstalk between two inputs when SG3 as the input

signal of Pin3, Pin 5.

WIDE BAND ANALOG SWITCH

note ) It omits the SW.No accorded with signal input pin because it is already written in Table 1.

SW A is in side a if there is not defined specially.

note1) The condition is shown as Table 1. Set SW15 to GND(or OPEN) and SW A to side b, measure the

current by current meter A(or B). The current is as Icc1(Icc2,Icc3).

note2) Set SW15 to GND (or OPEN), measure the DC voltage of T.P.29(T.P.26,T.P.23) when there is no

signal input.The DC voltage is as VDC1(or VDC2).

note3) Measure the DC voltage of T.P.21 same as note2, the DC voltage is as VDC3(or VDC4).
note4) Set SW15 to GND, SG1 as the input signal of Pin 1.Rising up the amplitude of SG1 slowly, read

GV1= 20 LOG

FC1 = 20 LOG

VOR1 [Vp-p]

0.7 [Vp-p]

VOR2 [Vp-p]
VOR1 [Vp-p]

[dB]

[dB]

C.T.I.1= 20 LOG

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VOR3' [Vp-p]

VOR3 [Vp-p]

[dB]

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input

voltage is as Vith1(Vith 2).

2

2

100%

90%0%10%TrTf

2

2

WIDE BAND ANALOG SWITCH

6. Next, set SW15 to OPEN, SG3 as the input signal of Pin 8, measure the amplitude output
from T.P.29. The amplitude is as VOR4.

7. Set SW15 to GND, measure the amplitude output from T.P.29. The amplitude is as VOR4'.

8. The crosstalk between two inputs C.T.I.2 is

C.T.I.2= 20 LOG

9. By the same way, measure the crosstalk between channels when SG3 as the input signal
of Pin 10,12.

note10) Set SG4 as the input signal, and then the same method as note9, measure C.T.I.3, C.T.I.4.
note11) 1. The condition is as Table 1. This test is by active prove.

2. Set SW15 to GND, SG3 as the input signal of Pin 1. Measure the amplitude output from
T.P.29. The amplitude is as VOR5.

3. Next, measure T.P.26, T.P.23 in the same state, and the amplitude is as VOG 5, VOB 5.

4. The crosstalk between channels C.T.C.1 is

C.T.C1= 20 LOG

5. Measure the crosstalk between channels when SG3 is as the input signal of Pin 3, Pin 5 .

6. Next, set SW15 to OPEN, SG3 as the input signal of Pin8, measure the amplitude output
from T.P.29. The amplitude is as VOR6.

7.Next, measure the amplitude output from T.P.26, T.P.23 in the same state. The amplitude is

as

VOG6, VOB6.

8. The crosstalk between channels C.T.C.2 is

C.T.C2= 20 LOG

VOR4'[Vp-p]
VOR4[Vp-p]

VOG5 or VOB5

VOR5

VOG6 or VOB6

VOR6

[dB]

[dB]

[dB]

9. By the same way, measure the crosstalk between channels when input signal to Pin10, 12.

note12) Set SG4 as the input signal, and the same method as note11, measure C.T.C.3, C.T.C.4.
note13) 1. The condition is as Table 1. Set SW15 to GND (or OPEN).

2. The rising of 10 % ~ 90 % for input pulse is Tri, the falling
of 10 % ~ 90 % for input pulse is Tfi.

3. Next, the rising of 10 % ~ 90 % for output pulse is Tro, the
falling of 10 % ~ 90 % for output pulse is Tfo.

4. The pulse characteristic Tr1, Tf1 ( Tr2, Tf2 ) is

Tr1(Tr2) = (Tro) - (Tri) (nsec)

Tf1(Tf2) = (Tfo) - (Tfi) (nsec)

note14) The condition is as Table 1. Set SW15 to GND (OPEN), input 5V at input terminal. Measure the

output voltage, the voltage is as VOH1 (VOH2).

note15) The condition is as Table 1. Set SW15 to GND (OPEN), input 0V at input terminal. Measure the

output voltage, the voltage is as VOL1 (VOL2).

note16) The condition is as table 1. Set SW15 to GND (OPEN), increasing gradually the voltage of input

terminal from 0V, measure the voltage of input terminal when output terminal is 4.5V. The

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50%

Trd

Tfd

50%

SG7

Output waveform

Falling delay time is as Tfd1(Tfd2). Reference to the Fig. as shown below.

(50%)

Tdsr

Tdsf

(50%)

WIDE BAND ANALOG SWITCH

note17, note18) The condition is as table 1. Set SW15 to GND (OPEN), SG7 is as the input signal of

input terminal, measure the waveform of output. Rising delay time is as Trd1 (Trd2).

note19) 1. The condition is as table 1. SG1 is as the input signal of Pin1, Pin3, Pin5, and SG7 is as the

input signal of Pin6, Pin7. There is no input at another pins.

2. Input 0V at Pin15, confirm that there are signals output from T.P.29, T.P.26, T.P.23, T.P.21,
T.P.18,T.P.17.

3. Increasing gradually the voltage of terminal Pin15. Read the voltage when there is no signal
output from the terminals listed as above. The voltage is as Vsth1.

4. SG1 as the input signal of Pin8, Pin10, Pin12, and SG7 as the input signal of Pin13, Pin14.
There is no input at another pins.

5. Inputs 5V at Pin15, confirm that there is no signal output from T.P29, T.P.26, T.P.23, T.P.21,
T.P.18,T.P.17.

6. Decreasing gradually the voltage of terminal Pin 15. Read the voltage when there are signals
output from the terminals listed as above. The voltage is as Vsth2.

note20) The condition is as table 1. SG8 of luminance 0% is the input signal of Pin20. Increase sync level

from 0Vp-p to 0.02Vp-p. Confirm outputting no pluse.

note21) The condition is as table 1. SG8 of luminance 100%(or 0%) is the input signal of Pin20. Decrease

sync level from 0.3Vp-p to 0.2Vp-p. Confirm no malfunction produced by noise.

note22) The condition is as table 1. SG8 of luminance 100%(or 0%) is the input signal of Pin20. Measure

the high(low) at SyncOUT. The measured value is treated as VSH(VSL).

note23) The condition is as table 1. SG8 of luminance 100%(or 0%) is the input signal of Pin20. SyncOUT

becomes High with sync part of SG8. Measure the time needed for the front(rear) edge of SG8
sync to fall(rise) from 50% and for SyncOUT to rise(fall) from 50% with an active prove. The
measured value is treated as Tdsf(Tdsr).

SG8

sync(50%)

SyncOUT

Pedestal voltage

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Symbol

Input Signal

0.7Vp-p(amplitude variable)

Pulse with amplitude 0.7Vp-p ( f = 60 kHz, duty 80% )

0V

5V

0.7Vp-p

1.5µsec

0.7Vp-p

0.3Vp-p

SG1

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WIDE BAND ANALOG SWITCH

Sine wave ( f = 60 kHz, 0.7Vp-p, amplitude variable )

SG2
SG3

SG4
SG5

SG6

SG7

Sine wave ( f = 1 MHz, amplitude 0.7Vp-p )

Sine wave ( f = 10 MHz, amplitude 0.7Vp-p )

Sine wave ( f = 100 MHz, amplitude 0.7Vp-p )

Sine wave ( f = 250 MHz, amplitude 0.7Vp-p )

Square wave ( Amplitude 5.0 Vo-p TTL, f = 60 KHz, duty 50% )

SG8

Video signal (luminance 100%,0%) 60KHz

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Video width of 12.5µsec(75%)
Luminance 100% or 0% variable

Sync level is
variable

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Note how to use this IC

15

5V5VR

I<7.5mA

1KΩ

1. R, G, B input signal is 0.7Vp-p of standard video signal.

2. H, V input is 2.0V(minimum) TTL type.

3. Input signal with sufficient low impedance to input terminal.

4. The terminal of H, V output pin are shown as Fig.4. It is possible to
reduce rise time by insert the resistor between Vcc line and H, V output
Pin, but set the value of resistor in order that the current is under 7.5 mA.
Setting the value of R is more than 2kΩ as shown in Fig.4 .

5. Switch (Pin 15) can be changed when this terminal is GND or OPEN

When GND : Signal output from input 1
When OPEN : Signal output from input 2

When the switch is being used as Fig.5

0 ~ 0.5V : Signal output from input 1
2 ~ 5 V : Signal output from input 2

It is not allowable to set voltage higher than Vcc.

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WIDE BAND ANALOG SWITCH

Fig.4

Fig.5

Notice of making printed circuit board.

Please notice following as shown below. It will maybe cause something oscillation because of the
P.C.B. layout of the wide band analog switch.

• The distance between resistor and output pin is as short as possible.

• The capacitance of output terminal as small as possible.

• Set the capacitance between Vcc and GND near the pins if possible.

• Using stable power-source.
The separated 12V-power-source (if possible the separated 5V-power-source will be better).

• Assign an area as large as possible for grounding.

• Pay attention to leak of signaling from the output.

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0.01µ

47µ

75Ω

75Ω

75Ω

75Ω

0.01µ

47µ

75Ω

75Ω

1kΩ

5V

1µ

100kΩ

75Ω

0.01µ

100µ

0.01µ

47µ

75Ω

0.01µ

100µ

75Ω

0.01µ

100µ

0.01µ

47µ

75Ω

0.01µ

100µ

0.01µ

47µ

75Ω

0.01µ

100µ

75Ω

0.01µ

100µ

0.01µ

47µ

0.01µ

47µ

Attached Fig.6 Application Example

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WIDE BAND ANALOG SWITCH

GND
OUTPUT(V)
OUTPUT(H)

Sync Sepa OUT

Sync Sepa IN

OUTPUT(G Buffer)

GND(G)

OUTPUT(G)

VCC(G)(12V)

GND(B)

OUTPUT(B)

VCC(B)(12V)

SWITCH
INPUT2(V)
INPUT2(H)
INPUT2(G)

VCC(5V)
INPUT2(B)

VCC(G)(5V)
INPUT2(R)

INPUT1(V)
INPUT1(H)
INPUT1(G)
VCC(B)(5V)

OUTPUT(R)

VCC(R)(12V)

GND(R)

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INPUT1(B)
VCC(R)(5V)

INPUT1(R)

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Marking

X X X X X X

M 5 2 7 5 6 S P

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WIDE BAND ANALOG SWITCH

Mark Lot Number

Model Type Number

Structure

Material

Outer Passivation

Inner Lead Plating

Die Bond

Lead Flame

Lead Flame

Plastic Molding

Pellet

Back Metalize

Wire

Lead Flame

Mold Material : Epoxy
Wire Material : Au
Outer Lead Treatment : Solder Plating
Lead Flame Material : Tin Nickel Copper
Inner Lead Treatment : Silver Plating
Over Passivation : SiN

Factory

Fukuoka,Japan

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