AD632AD Analog Devices Inc, AD632AD Datasheet - Page 4

IC MULTIPLIER MONO PREC 14-CDIP

AD632AD

Manufacturer Part Number
AD632AD
Description
IC MULTIPLIER MONO PREC 14-CDIP
Manufacturer
Analog Devices Inc
Datasheet

Specifications of AD632AD

Package / Case
14-CDIP (0.300", 7.62mm)
Rohs Status
RoHS non-compliant
Function
Analog Multiplier/Divider
Number Of Bits/stages
4-Quadrant
No. Of Pins
14
Peak Reflow Compatible (260 C)
No
Ic Function
Analog Multiplier IC
Leaded Process Compatible
No
No. Of Channels
6
Lead Free Status / RoHS Status
Contains lead / RoHS non-compliant

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AD632
Typical Performance Curves
(typical @ +25 C with
Figure 3. Frequency Response vs. Divider Denominator
Input Voltage
Figure 2. Frequency Response as a Multiplier
Figure 1. AC Feedthrough vs. Frequency
V
S
= 15 V)
–4–
OPERATION AS A MULTIPLIER
Figure 5 shows the basic connection for multiplication. Note
that the circuit will meet all specifications without trimming.
In some cases the user may wish to reduce ac feedthrough to a
minimum (as in a suppressed carrier modulator) by applying an
external trim voltage ( 30 mV range required) to the X or Y
input. Curve 1 shows the typical ac feedthrough with this ad-
justment mode. Note that the feedthrough of the Y input is a
factor of 10 lower than that of the X input and should be used
in applications where null suppression is critical.
The Z
tional signal into the output. In this mode the output amplifier
behaves as a voltage follower with a 1 MHz small signal band-
width and a 20 V/ s slew rate. This terminal should always be
referenced to the ground point of the driven system, particularly
if this is remote. Likewise the differential inputs should be refer-
enced to their respective signal common potentials to realize the
full accuracy of the AD632.
A much lower scaling voltage can be achieved without any re-
duction of input signal range using a feedback attenuator as
shown in Figure 6. In this example, the scale is such that
V
10. This connection results in a reduction of bandwidth to
about 80 kHz without the peaking capacitor C
output offset voltage is increased by a factor of 10 making exter-
nal adjustments necessary in some applications.
OUT
= XY, so that the circuit can exhibit a maximum gain of
2
terminal of the AD632 may be used to sum an addi-
Figure 4. AD632 Functional Block Diagram
Figure 5. Basic Multiplier Connection
F
. In addition, the
REV. A

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