AD734AN Analog Devices Inc, AD734AN Datasheet - Page 2

• Manufacturer Part Number: AD734AN
• Description: IC MULTIPLIER/DIVIDER 14-DIP
• Manufacturer: Analog Devices Inc

Specifications of AD734AN

• Rohs Status: RoHS non-compliant
• Function: Analog Multiplier
• Number Of Bits/stages: 4-Quadrant
• Package / Case: 14-DIP (0.300", 7.62mm)
• No. Of Pins: 14
• Frequency Max: 10MHz
• No. Of Channels: 6
• Supply Voltage Min: 8V
• Peak Reflow Compatible (260 C): No
• Ic Function: Analog Multiplier IC
• Accuracy: 0.4 %
• Accuracy %: 0.4%
• Output Voltage: 12V
• Lead Free Status / RoHS Status: Contains lead / RoHS non-compliant

TRANSFER FUNCTION
Parameter
MULTIPLIER PERFORMANCE
DIVIDER PERFORMANCE (Y = 10 V)
INPUT INTERFACES (X, Y, & Z)
DENOMINATOR INTERFACES (U0, U1, & U2)
OUTPUT AMPLIFIER (W)
POWER SUPPLIES, V
NOTES
1
2
3
All min and max specifications are guaranteed.
Specifications subject to change without notice.
AD734–SPECIFICATIONS
Figures given are percent of full scale (e.g., 0.01% = 1 mV).
dBc refers to deciBels relative to the full-scale input (carrier) level of 7 V rms.
See Figure 10 for test circuit.
Transfer Function
Total Static Error
Peak Nonlinearity
THD
Feedthrough
Noise (RTO)
Transfer Function
Gain Error
X Input Clipping Level
U Input Scaling Error
(Output to 1%)
3 dB Bandwidth
Operating Range
CMRR
Operating Range
Denominator Range
Interface Resistor
Output Voltage Swing
Open-Loop Voltage Gain
Dynamic Response
Settling Time
Short-Circuit Current
Operating Supply Range
Quiescent Current
Z Input Offset Voltage
Z Input PSRR (Either Supply)
Input Bias Current (X, Y, Z Inputs)
Input Resistance
Input Capacitance
Over T
vs. Temperature
vs. Either Supply
Spectral Density
Total Output Noise
X Input Offset Voltage
Y Input Offset Voltage
3 dB Bandwidth
Slew Rate
To 1%
To 0.1%
2
MIN
to T
1
MAX
3
S
W
A
O
Conditions
–10 V
T
–10 V
–10 V
X = 7 V rms, Y = +10 V, f
T
Y = 7 V rms, X = +10 V, f
T
X = 7 V rms, Y = nulled, f
Y = 7 V rms, X = nulled, f
X = Y = 0
100 Hz to 1 MHz
10 Hz to 20 kHz
T
Y = 10 V, U = 100 mV to 10 V
Y 10 V
T
U = 1 V to 10 V Step, X = 1 V
Differential or Common Mode
T
T
T
f 1 kHz
T
f = 5 kHz
T
Differential
Differential
U1 to U2
T
X = Y = 0, Input to Z
From X or Y Input, CL 20 pF
W
+20 V or –20 V Output Step
T
T
X
V
MIN
MIN
MIN
MIN
MIN
MIN
MIN
MIN
MIN
MIN
MIN
MIN
MIN
1
S
= 14 V to 16 V
7 V rms
U
to T
to T
to T
to T
to T
to T
to T
to T
to T
to T
to T
to T
to T
X
1
2
X
Y
X, Y
MAX
MAX
MAX
MAX
MAX
MAX
MAX
MAX
MAX
MAX
MAX
MAX
MAX
U
Y
2
+10 V, X = +10 V
1
+10 V, Y = +10 V
Y
10 V
(T
2
A
= +25 C, +V
Z
1
Z
5 kHz
5 kHz
2
5 kHz
5 kHz
–2–
S
= VP = +15 V, –V
Min Typ Max
54
50
70
8
20
6
12
8
W = XY/10
VN to VP-3
0.1
0.004
0.01 0.05
0.05
0.025
–85
–85
1.0
–94
W = XY/U
1
1.25
100
40
70
85
50
50
2
1000:1
28
72
10
450
125
200
50
9
A
12.5
0.4
1
–58
–55
–60
–57
–60
–66
–85
0.3
0.8
15
25
10
12
20
50
300
400
80
12
–88
S
16.5
U
= VN = –15 V, R
Min Typ Max
66
56
70
8
20
6
12
8
W = XY/10
VN to VP-3
0.1
0.003
0.01 0.05
0.05
0.025
–85
–85
1.0
–94
W = XY/U
1
1.25
100
40
70
85
50
50
2
1000:1
28
72
10
450
125
200
50
9
B
12.5
L
0.25
0.6
–66
–63
–80
–74
–70
–76
–88
–85
0.15
0.65
5
15
5
6
10
50
150
300
80
12
U
16.5
2 k )
Min Typ Max
54
50
70
8
20
6
12
8
W = XY/10
VN to VP-3
S
0.1
0.004
0.01 0.05
0.05
0.025
–85
–85
1.0
–94
W = XY/U
1
1.25
100
40
70
85
50
50
2
1000:1
28
72
10
450
125
200
50
9
12.5
0.4
1.25
–58
–55
–60
–57
–60
–66
–88
–85
0.3
1
15
25
10
12
20
90
300
500
80
12
U
16.5
REV. C
Units
%
%
%/ C
%/V
%
%
dBc
dBc
dBc
dBc
dBc
dBc
dBc
dBc
%
V
%
%
ns
MHz
V
mV
mV
mV
mV
mV
mV
dB
dB
dB
nA
nA
k
pF
V
k
V
dB
MHz
V/ s
ns
ns
mA
V
mA
V/ Hz