ROHM BH3856

BH3856S / BH3856FS
Audio ICs
2-wire serial sound control IC
BH3856S / BH3856FS
The BH3856S and BH3856FS are signal processing ICs designed for volume and tone control in televisions, mini
component stereo systems, and other audio products. Their two-line serial control (I2C BUS) enables them to control
volume and tone on the basis of signals from a microcomputer, etc.
!Applications
Televisions, [Video equipped television], personal computer televisions, mini component stereo systems, car stereos.
!Features
1) I2C BUS facilitates direct serial control from a microcomputer of volume (main volume), balance (left / right), and tone
(bass, treble). DC control is also possible.
2) Volume is produced by a low-distortion, low-noise VCA. Designed to minimize step noise.
3) Stable standard voltage supply and built-in I/O buffer mean that few attachments are needed. SSOP-A32 package
designed to save space.
4) Matrix surround yields powerful sound.
!Absolute maximum ratings (Ta = 25°C)
Parameter
Symbol
Limits
Unit
Vcc
10.0
V
Pd
1200 ∗1
850 ∗2
Power supply voltage
Power dissipation
BH3856S
BH3856FS
mW
Operating temperature
Topr
−40~+85
°C
Storage temperature
Tstg
−55~+150
°C
∗1 Reduced by 12mW for each increase in Ta of 1°C over 25°C.
∗2 Reduced by 6.8mW for each increase in Ta of 1°C over 25°C.
!Recommended operating conditions (Ta = 25°C)
Parameter
Power supply voltage
Symbol
Min.
Typ.
Max.
Unit
VCC
6.0
9
9.5
V
Note : I2C BUS is a registered trademark of Philips.
BH3856S / BH3856FS
Audio ICs
!Block diagram
BH3856S
A_GND
30k
30k
1
VCC
30
FILTER
29
IN2
28
BVN2
27
BIN2
26
BVO2
− −
2
BVN1
3
BIN1
4
BVO1
5
47k
7
47k
+
+ −
Volume
Volume
5.1k
Tone
6
TIN1
Tone
TVN1
(Bass)
5.1k
−
(Bass)
IN1
25
TVN2
24
TIN2
23
TVO2
22
OUT2
21
VC1
20
VC2
19
TC
Matrix surround
−
−
10
SC
11
Volume
Volume
30k
Control
VCC
2.1k
+
9
+
8
(Treble)
TVO1
OUT1
(Treble)
2.1k
VCC
30k
200k
30k
N.C.
12
SDA
13
18
BC
SCL
14
17
Vref
30k
Reference Voltage
D_GND
SLAVE ADDRESS
16 SELECT SW
15
BH3856FS
A_GND
30k
1
30k
VCC
BVN1
3
BIN1
4
N.C.
5
BVO1
6
47k
(Bass)
5.1k
−
FILTER
31
IN2
30
BVN2
47k
+
+ −
Tone
Volume
Volume
Matrix surround
TIN1
8
TVO1
9
OUT1
10
VCC
11
(Treble)
(Treble)
7
29
N.C.
28
BIN2
27
BVO2
26
TVN2
5.1k
Tone
2
(Bass)
IN1
TVN1
32
− −
2.1k
25
TIN2
24
TVO2
23
OUT2
22
VC1
21
VC2
20
TC
19
BC
2.1k
−
Volume
+
+
Volume
Control
−
30k
VCC
SC
12
SDA
13
N.C.
14
SCL
15
D_GND
16
30k
200k
30k
30k
Reference Voltage
18 Vref
SLAVE ADDRESS
17 SELECT SW
BH3856S / BH3856FS
Audio ICs
!Pin descriptions
Pin No.
Function
Pin name
BH3856S BH3856FS
Analog ground
1
1
A_GND
2
2
IN1
3
3
BVN1
Channel 1 bass filter
4
4
BIN1
Channel 1 bass filter
5
6
BVO1
Channel 1 bass filter
6
7
TVN1
Channel 1 treble filter
7
8
TIN1
Channel 1 treble filter
8
9
TVO1
Channel 1 treble filter
Channel 1 volume output
Channel 1 volume input
9
10
OUT1
10
11
VCC
Power supply
11
12
SC
Time constant pin for prevention of switching shock
13
13
SDA
SDA data input pin
14
15
SCL
SCL data input pin
15
16
D_GND
16
17
SASS
17
18
Vref
Reference voltage output
18
19
BC
Time constant pin for prevention of switching shock
19
20
TC
Time constant pin for prevention of switching shock
20
21
VC2
Time constant pin for prevention of switching shock
21
22
VC1
Time constant pin for prevention of switching shock
22
23
OUT2
Channel 2 volume output
23
24
TVO2
Channel 2 treble filter
24
25
TIN2
Channel 2 treble filter
25
26
TVN2
Channel 2 treble filter
26
27
BVO2
Channel 2 bass filter
27
28
BIN2
Channel 2 bass filter
28
30
BVN2
Channel 2 bass filter
29
31
IN2
30
32
FILTER
12
5, 14, 29
N.C.
Digital ground
Slave address selection pin
Channel 2 volulme input
Filter
Not connected internally.
BH3856S / BH3856FS
Audio ICs
!Input / output circuits
Symbol
Pin voltage
Equivalent circuit
Description
VCC
IN1
IN2
4.5V
4.5V
Main volume input pin.
Designed for input impedance of 47kΩTyp.).
2pin
31pin
47kΩ
A_GND
2/1VCC
VCC
BVN1
BVN2
4.5V
4.5V
50kΩ
A_GND
Pin for low band filter connection.
3pin
30pin
VCC
BIN1
BIN2
4.5V
4.5V
4pin
28pin
Pin for low band filter connection.
5.1kΩ
2/1VCC
A_GND
VCC
BVO1
BVO1
4.5V
4.5V
6pin
27pin
50kΩ
Pin for low band filter connection.
A_GND
VCC
30kΩ
FILTER
5.2V
32pin
A_GND
Filter input pin.
Please install a capacitor of about 10µF to
the filter pin.
Has built-in precharge and discharge circuits.
30kΩ
VCC
TVN1
TVN2
4.5V
4.5V
25kΩ
A_GND
Pin for high band filter connection.
7pin
26pin
VCC
TIN1
TIN2
4.5V
4.5V
8pin
25pin
Pin for high band filter connection.
2.1kΩ
2/1VCC
A_GND
∗The pin numbers are for the BH3856S.
BH3856S / BH3856FS
Audio ICs
Symbol
Pin voltage
Equivalent Circuit
Description
VCC
TVO1
TVO2
4.5V
4.5V
25kΩ
Pin for high band filter connection.
9pin
24pin
A_GND
VCC
OUT1
OUT2
4.5V
4.5V
Main volume output pin.
OUT1 is the volume output for Channel 1.
OUT2 is the volume output for Channel 2.
10pin
24pin
A_GND
VCC
Digital
SC
BC
TC
VC1
VC2
VREF
−
12pin
19pin
20pin
22pin
21pin
A_GND
For prevention of shock noise during
step switching.
SC : Surround pin
BC : Bass pin
TC : Treble pin
VC1 : Volume pin (Channel 1)
VC2 : Volume pin (Channel 2)
VCC
Vref
3.8V
3.8V regulator output pin.
Output requires capacitor for stopping
oscillation. Output pin has built-in precharge
and discharge circuits, so there is no problem
with start-up or shut-down even with a large
capacitor. This pin is for connection to the
high-band filter.
18pin
A_GND
VCC
SDA
SCL
SASS
−
2kΩ
13pin
15pin
17pin
A_GND
VCC
−
A_GND
−
Analog GND pin. Connected to IC board.
D_GND
−
Digital GND pin. Separate from Analog GND pin.
· I2C bass input pin
SDA : serial data line
SCL : serial clock line
· Slave address selection pin
SASS: slave address selection switch
Power supply voltage pin.
∗The pin numbers are for the BH3856S.
BH3856S / BH3856FS
Audio ICs
!Electrical characteristics (unless otherwise noted, Ta = 25°C, VCC = 9V, f = 1kHz, BW = 20 ~ 20kHz, VOL = Max.,
TONE = ALL FLAT, Rg = 600Ω, RL = 10kΩ)
Parameter
Quiescent current
Symbol
Min.
Typ.
Max.
Unit
IQ
−
20
27
mA
Conditions
No signal
Maximum input
Vim
2.3
2.5
−
Vrms
Maximum output
Vom
2.3
2.5
−
Vrms
Gv
−1.5
0
+1.5
dB
VIN=1Vrms
Maximum attenuation
ATT
90
110
−
dB
Vo=1Vrms
Crosstalk
VCT
70
80
−
dB
Vo=1Vrms
VB Max.
+12
+15
+18
dB
100Hz, VIN=100mVrms
VB Min.
−18
−15
−12
dB
100Hz, VIN=100mVrms
Voltage gain
Low range control width
THD=1%, VOL=−20dB (ATT)
THD=1%
VT Max.
+12
+15
+18
dB
100kHz, VIN=100mVrms
VT Min.
−18
−15
−12
dB
100kHz, VIN=100mVrms
Matrix surround single-channel gain
GSR
4
6
8
dB
Vo=1Vrms
Total Harmonic distortion
THD
−
0.01
0.1
%
Vo=0.5Vrms, BPF=400Hz~30kHz
Output noise voltage
VNO1
−
45
65
µVrms No signal, VOL=Max., Rg=0
Residual output noise voltage
VMNO
−
2
10
µVrms No signal, VOL=−∞, Rg=0
Reference power supply output voltage
Vref
3.5
3.8
4.1
V
Reference power supply
output current capacity
Iref
3.0
10
−
mA
Vref > 3.7V
GCB
−1.5
0
+1.5
dB
channel 1 taken as the standard for
measurements.
RIN
kΩ
f=1kHz
f=1kHz
High range control width
Channel balance
33
47
61
−
−
10
Ω
Ripple rejection ratio
RR
40
−
−
dB
f=100Hz, VRR=1Vrms
Input high level voltage
VIH
4
−
−
V
SCL, SDA
Input low level voltage
VIL
−
−
1
V
SCL, SDA
Output impedance
∗
∗
Iref=3mA
ROUT
Input impedance
∗
∗ Measurement performed using Matsushita Communication Industrial VP-9690A DIN AUDIO filter (average value wave detection, effective value display).
Not designed for radiation resistance.
Signal input occurs in equiphase.
BH3856S / BH3856FS
Audio ICs
!Measurement circuit
30k
+ −
2
S4
− +
0.1µF
+ −
27
5.1k
5
2.1k
2200pF
(Treble)
2200pF
7
C4
4.7k
10µF
25
Matrix surround
(Treble)
C3
Tone
6
Volume
Volume
2.1k
2200pF
23
10µF
11
200k
T1
VVC1
30k
21
VVC2
30k
20
S6
1
1
10µF
T2
13
18
14
17
S7
10µF
Reference voltage
VCC
VCC
15
BH3856S
Fig.1
1
1.2k
16
Units : R [Ω]
C [F]
Note : Diagram depicts the BH3856S.
THD
VBC
30k
2
V
19
12
S5
10k
V
VTC
30k
I VCC A
2
Volume
VAOUT2
VCC
V
Volume
VOUT2
10
22
−
Control
+
VOUT1
10k
VAOUT1
−
+
9
10µF
V
2200pF
10µF
V
V
24
8
THD
1 2 3
2
0.1µF
26
V
S2
1
VAIN2
10µF
VAIN1
5.1k
0.1µF
47k
VAIN22
0.1µF
4
C2
VAIN11
47k
(Bass)
C1
4.7k
V
28
3
2
(Bass)
S3
1
0.47µF
29
Tone
S1
30
VCC
0.47µF
3 2 1
1000µF
30k
1
2
V1 V
BH3856S / BH3856FS
Audio ICs
!Performing data settings
(1) I2C BUS timing
Symbol
Min.
Typ.
Max.
Unit
SCL clock frequency
Parameter
fSCL
0
−
100
kHz
SCL clock hold time, HIGH state
tHIGH
4
−
−
µs
SCL clock hold time, LOW state
tLOW
4.7
−
−
µs
SDA and SDL signal start-up time
tr
−
−
1
µs
SDA and SDL signal shut-down time
tf
−
−
0.3
µs
Set-up time for re-send [start] conditions
tSU;STA
4.7
−
−
µs
Hold time (re-send) [start] conditions
(After hold time ends, initial clock
pulse is generated.)
tHD;STA
4
−
−
µs
Set time for [stop] conditions.
tSU;STO
4.7
−
−
µs
tBUF
4.7
−
−
µs
tSU;DAT
250
−
−
ns
Bus free time between [stop] condition
and [start] condition
Data set-up time
tr
tf
SLC
tLOW
tHIGH
SDA start condition
tSU ; STA
tHD ; STA
tSU ; STO
tBUF
SDA stop condition
SDA
tSU ; DAT
tHD ; DAT
tSU ; STA = start code set-up time.
tBUF = bus free time.
tHD ; STA = start code hold time.
tSU ; DAT = data set-up time.
tSU ; STO = stop code set-up time.
tHD ; DAT = data hold time.
I2C BUS timing rules
BH3856S / BH3856FS
Audio ICs
(2) I2C BUS data format
MSB
LSB
MSB
LSB
MSB LSB
S
Slave address
A
Select address
A
Data
A
P
1bit
8bit
1bit
8bit
1bit
8bit
1bit
1bit
•S
• Slave address
•A
• Select address
• Data
•P
= start condition (start bit recognition)
= IC recognition. Upper 7 bits are random. Bottom bit is “L” for the sake of overwrite.
= acknowledge bit (recognition of acknowledgment)
= selection between volume, bass, treble and matrix surround.
= volume and tone data
= stop condition (stop bit recognition)
(3) BH3856S / BH3856FS slave address
MSB
LSB
A6
A5
A4
A3
A2
A1
A0
R/W
1
0
0
0
0
0
A
0
• Slave address selection
1) A = 1 (10000010) [SASS pin HIGH]
2) A = 0 (10000000) [SASS pin LOW]
(4) Interface protocol
1) Basic protocol
S
A
Slave address
MSB
LSB
A
Select address
MSB
LSB
A
Data
P
MSB LSB
2) Auto increment (Select address increases (+1) by the value of the data.)
S
A
Slave address
MSB
LSB
A
Select address
MSB
LSB
Data 1, data 2,...data N
MSB
A
P
A
P
LSB
(Example 1) The address data specified by select address is taken as data 1.
(Example 2) The address data specified by select address +1 is taken as data 2.
(Example 3) The address data specified by select address +N−1 is taken as data N.
3) Structure with which transmission is not possible (In this case, only select address 1 is set.)
S
Slave address
MSB
A
LSB
Select address 1
MSB
LSB
A
Data
MSB
LSB
A
Select address 2
MSB
Note : Following transmission of data, data transmitted as select address
2 will not be recognized as select address 2, but as data.
LSB
A
Data
MSB
LSB
BH3856S / BH3856FS
Audio ICs
(5) Specification of select address and data
Function
LSB
D7
D6
D5
Data
D4
D3
D2
D1
D0
MSB
Select address
MSB
LSB
0 Volume ch1 (L)
0
0
0
0
0
0
0
0
VL7
VL6
VL5
VL4
VL3
VL2
VL1
VL0
1 Volume ch2 (R)
0
0
0
0
0
0
0
1
VR7
VR6
VR5
VR4
VR3
VR2
VR1
VR0
2 Bass
0
0
0
0
0
0
1
0
0
0
BA5
BA4
BA3
BA2
BA1
BA0
3 Treble
0
0
0
0
0
0
1
1
0
0
TR5
TR4
TR3
TR2
TR1
TR0
4 Surround
0
0
0
0
0
1
0
0
0
0
0
0
0
0
0
SR0
∗The auto increment function cycles the select address in the manner shown in Figure A.
(Fig. A)
0 → 1 → 2
↑
↓
4 ← ← ←3
∗The cycle commences from the initially specified select address.
(6) Surround data
Function
MSB
Matrix surround OFF
Matrix surround ON
Data
D4
D3
D6
D5
0
0
0
0
0
0
0
0
D7
(7) Matrix surround
+
+
+
L→
+
Input
R→
Output
(2L−R)
+
×1
+
×1
Input
+
Output
(2R−L)
LSB
D2
D1
D0
0
0
0
0
0
0
0
1
BH3856S / BH3856FS
Audio ICs
(8) Volume attenuation (reference values)
ATT
(dB)
DATA
(HEX)
ATT
(dB)
DATA
(HEX)
ATT
(dB)
DATA
(HEX)
0
FF
−19
85
−56
42
−1
E4
−20
82
−58
3F
−2
D8
−22
7C
−60
3C
−3
CF
−24
78
−62
39
−4
C8
−26
74
−64
36
−5
C2
−28
70
−66
34
−6
BD
−30
6D
−68
32
−7
B8
−32
6A
−70
2F
−8
B2
−34
68
−72
2D
−9
AD
−36
65
−74
2A
−10
A9
−38
61
−76
28
−11
A5
−40
5C
−78
26
−12
A0
−42
59
−80
24
−13
9C
−44
55
−82
22
−14
98
−46
52
−84
20
−15
94
−48
4E
−86
1E
−16
90
−50
4B
−90
1A
−17
8C
−52
48
−100
13
−18
89
−54
45
−112
00
Note : All figures in this table are reference values. When using this IC, check this table carefully and perform the appropriate setting.
(9) Bass / Treble gain settings (reference values)
ATT
(dB)
DATA
(HEX)
ATT
(dB)
DATA
(HEX)
15
3F
0
1F
14
38
−1
1C
13
35
−2
1B
12
33
−3
19
11
31
−4
18
10
2F
−5
17
9
2E
−6
16
8
2D
−7
15
7
2C
−8
13
6
2B
−9
12
5
2A
−10
11
4
29
−11
0F
3
27
−12
0D
2
26
−13
0B
1
25
−14
08
0
1F
−15
05
Notes : (1) The gain values in the treble and bass data setting tables above are based on the assumption that the filter constants have
been set so that maximum and minimum gain are equal to the peak and bottom values listed in the frequency characteristics
drawings.
(2) All figures in this table are reference values. When using this IC, check this table carefully and perform the appropriate setting.
BH3856S / BH3856FS
Audio ICs
!Application example
10µF
30k
30k
VCC
1
30
+ −
0.47µF
AGND
3
C1
28
47k
47k
0.1µF
+ −
(Bass)
5.1k
0.1µF
− +
(Bass)
4
C2
5.1k
C2
0.1µF
C3
2200pF
C4
2200pF
25
surround
(Treble)
(Treble)
2.1k
8
Tone
Tone
7
Volume
Volume
Matrix
2200pF
2200pF
0.1µF
26
6
C4
C1
27
5
C3
0.47µF
29
2
24
2.1k
23
10µF
10µF
+
−
VCC
33µF
Volume
Control
10
VCC
22
−
Volume
11
0.22µF
+
9
30k
21
0.22µF
30k
20
200k
DGND
0.033µF
30k
12
19
3.3µF
30k
MICRO
COMPUTER
13
18
14
17
10µF
Reference voltage
AGND
16
15
BH3856S
Fig.2
Note : Diagram depicts the BH3856S.
DGND
BH3856S / BH3856FS
Audio ICs
!Operation notes
(1) Operating power supply voltage range
As long as the operating power supply voltage and ambient temperature are kept within the specified range, the basic
circuits are guaranteed to function, but be sure to check the constants as well as the element settings, voltage settings,
and temperature settings.
(2) Bass filter
C1
BVO
−3dB
0.1µF
R2
50kΩ
C2
BIN
BVN
−
+
0.1µF
R1
5.1kΩ
IC internal BIAS
IC internal BIAS
( 12 Vcc )
( 12 Vcc )
f0
∆f
∗B.P.F. composed of multiple feedback active f0 can be varied according to the value of C.BIN
(theoretical equation)
f0 =
1
×
2π
G=
R2
C1
× 1+
5kΩ
C2
1
R1R2C1C2
1
2
Q
1
R2C1C2
1.0 × 10−5
C
Q
× (C1 + C2)
−1
Note : Filter gain is calculated using the equation on the left. Total output
gain is the sum of the gain for each of the internal circuits.
−1
(When R1 = 5.1kΩ, R2 = 50kΩ, C1 = C2 = C)
f0 =
1
2
1.57
G = 5.0
Frequency f: (Hz)
BH3856S / BH3856FS
Audio ICs
(3) About the treble filter
C3
TVO
−3dB
2200pF
R2
25kΩ
C4
TIN
TVN
−
R1
2.1kΩ
+
2200pF
IC internal BIAS
IC internal BIAS
( 12 Vcc )
( 12 Vcc )
f0
Frequency f: (Hz)
∆f
∗The band-pass filter is constructed using a multiple-feedback active filter.
f0 can be varied by changing the value of the capacitors.
(Theoretical formulas)
f0 =
1
×
2π
G=
R2
C3
× 1+
5kΩ
C4
1
R1R2C3C4
1
2
1
Q
R1
R2C3C4
2
× (C3 + C4)
−1
Note : The filter gain is given by the formula on the left, but the total output gain
is determined by the this in combination with the internal circuit.
−1
(When R1 = 2.1kΩ, R2 = 25kΩ, C3 = C4 = C)
f0 =
2.2 × 10−5
C
Q
1.73
G = 2.5
(4) I2C BUS control
High-frequency digital signals are input on the SCL and SDA terminals, so ensure that the wiring and PCB pattern is
designed in such a way as to ensure that these signals do not interfere with the analog signal system.
If you are not using I2C BUS control (i.e. you are using DC control), connect the SCL, SDA and SASS terminals to GND
(do not leave them disconnected).
(5) Step switching noise
The VC1, VC2, TC, BC and SC terminals have components connected to them the application example. The values of
these components may need to be changed depending on the signal level setting and PCB pattern.
Investigate carefully before deciding on the values of the various circuit constants.
The equivalent circuit for these terminals is given below (an integrator circuit is set at the first stage to slow the variation).
Each Pin
R
C
+
−
R value (kΩ)
VC1, VC2, BC, TC
30
SC
200
(6) Volume and tone level settings
This specification sheet gives reference values for the amount of attenuation and gain with respect to the serial control
data. The internal D / A convertor is an R-2R circuit, and data exists for the places where continuous variation does not
occur between data. Use this when fine setting is required. The setting limits are up to 8 bits for volume (256 steps) and 6
bits (64 steps) for tone.
BH3856S / BH3856FS
Audio ICs
(7) Digital / analog separation
The digital and analog power supplies and grounds for this IC (BH3856) are completely separate. The digital circuits are
supplied from a stable reference source that is on the chip (Vref (3.8V)). For this reason, there is no need to worry about
timing shifts, on interference due to digital noise.
(8) Matrix surround
+
+
+
L→
+
Input
R→
Output
(2L-R)
+
×1
+
×1
Input
+
Output
(2R-L)
∗The matrix surround circuit construction is as shown in the diagram above. The gain is obtained from the formulas
in the diagram.
Phase Gain
0dB
Negative Phase Gain
6dB
(However, reverse-phase gain is for input to one channel only)
(9) DC control
An internal impedance of 30kΩ is seen from the VC1, VC2, TC and BC terminals, are 200kΩ is seen from the SC (pin 11)
terminal, so with regard to DC control, we recommend direct control with the voltage source. When using variable volume,
take the impedance into consideration when making the setting.
Note : The DC control voltage range is 0V to Vref.
Do not apply voltages above Vref to the terminals.
(10) GND
• As shown in the application circuit example, connect the external component GND to the analog GND.
• However, the GND for the capacitor connected to the Vref terminal should be connected to the digital GND.
• If a capacitor with goof high-frequency characteristics is connected in parallel with the capacitor connected to Vref, the
performances of the circuit with respect to static noise will improve (we recommend a ceramic capacitor of between
0.001µF and 0.1µF)
• When using long digital and analog ground lines, take care to ensure that there is no potential difference between the
two ground lines.
BH3856S / BH3856FS
Audio ICs
!Electrical characteristic curves
QUIESCENT CURRENT : IQ (mA)
TOTAL HARMONIC DISTORTION : THD (%)
RL = 10kΩ
22
20
18
16
14
12
10
8
6
4
2
0
5
7
6
8
9
10
1
25
VCC = 9V
f = 1kHz
VCC = 9V
RL = 10kΩ
20
0.4
VOLTAGE GAIN : GBT (dB)
24
0.1
0.04
15
10
5
0
−5
−10
−15
−20
0.01
−40
POWER SUPPLY VOLTAGE : VCC (V)
Fig. 3 Quiescent curve vs.
Power supply voltage
−30
−20
−10
0
−25
10
10
100
1k
10k
FREQUENCY : f (Hz)
Fig.4 Total harmonic distortion vs.
Input voltage
Fig. 5 Output gain vs. Frequency
!External dimensions (Units : mm)
BH3856FS
BH3856S
28.0±0.3
30
16
3.2±0.2
0.3±0.1
17
1
16
0.8
0.36±0.1
0.15±0.1
7.8±0.3
1.8±0.1
10.16
32
5.4±0.2
15
0.11
0.51Min.
4.7±0.3
8.4±0.3
13.6±0.2
1
0.3Min.
0.15
0.5±0.1
1.778
SDIP30
100k
INPUT VOLTAGE : VIN (dBV)
0°~15°
SSOP-A32