Industrial Controls Division
SPECIFICATIONS
Inputs
Outputs
4 per Channel.
Each input may be attached to
either an inverting or non-inverting
op-amp input.
Amplifier outputs at terminals
5, 10, 15, and 21.
Signal levels to ±10 VDC nominal.
Input Impedance:
Two inputs have fixed input
resistors (100 kΩ supplied);
two inputs each have a fixed
resistor (51.1 kΩ supplied)
plus a 20-turn, 100 kΩ
potentiometer.
Signal levels:
±100 to ±100 VDC,
depending on configuration.
NF123-158B1 Series
Auxiliary Amplifier Card
Temperature Range:
10°C to 50°C (50°F to 120°F)
Connector:
DIN 41612 style C
Form Factor:
Eurocard 100 x 160 mm, 7 HP, 3 U
Weight:
0.38 lb (0.17 kg)
The NF123-158B1 Auxiliary Amplifier circuit card is designed to easily
accommodate the special needs of unique control systems.The flexibility of
this card provides the Control Engineer with a tool to design custom circuits
not available in standard cards.Typical applications include buffers, summing
amplifiers, differential amplifiers, oscillators, compensators, current-to-voltage
converters, and dither generators.
The NF123-158B1 Auxiliary Amplifier Card is a forward compatible
replacement for the F123-158-A001.
FEATURES
Flexible Configuration Options:
Each channel may be configured for any standard op-amp circuit:
inverting amplifier, non-inverting amplifier, differential amplifier, inverting
summing amplifier with up to 4 inputs, non-inverting summing amplifier
with up to 4 inputs, current-to-voltage converter, differentiator, integrator,
compensation, oscillator, etc.
Configuration of the printed-circuit board traces is accomplished
through simple jumpers.
Four Independent Channels:
May be configured identically for multi-channel operations or uniquely
for cascaded operations.
Front-Panel Test Points:
Allow fast access to outputs of each channel.
Front-Panel Adjustments (Four per channel):
Provide quick access to gains, scales, and biases.
Allow precise adjustments with 20-turn potentiometers.
ADJUSTMENTS
Because each card is uniquely configured, it is difficult to give precise adjustment
instructions. Usually, for channel 1 (V OUT5), P1 and P2 change the scaling of
inputs at terminals 1 & 2; P3 changes the gain; and P4 changes the bias.
P5 through P8 control the corresponding functions of channel 2 (V OUT 10).
P9 through P12 control the corresponding functions of channel 3 (V OUT 15).
P13 through P16 control the corresponding functions of channel 4 (V OUT 21).
Set-up instructions are now available for several specific configurations including:
Conversion to dither generator (25 – 300 Hz).
Converting 4 to 20 mA input ➧ 0 to +10 V output.
Converting 4 to 20 mA input ➧ -10 to +10 V output.
Converting ±1 VDC input ➧ ±10 VDC output (non-inverting).
Converting 4 to 20 mA input ➧ 0 to -10 V output.
NF123-158B1 AUXILIARY AMPLIFIER CARD SCHEMATIC
S3
R4
CW
S2
51.1K
1
P1
100K
S1
S4
CW
100K
P3
CW
100K
S7
C1
S8
100pF
2
10K
Z3
51.1K
S5
7
3
3
100K
R5
100K
S10
S11
R1
1
-15V
R9
NF
R7
NF
S12
100 Ω
R1
_
V1
741
+
100Ω
Rg
R8 NF
R 1 = R f = UNITY GAIN
-15V
S15
R15
CW
P5
100K
51.1K
S13
S16
100K
CW
P7
100K
S19
51.1K
S17
100pF +15V
2
7
6
A2
5
4
3
1
-15V
S20
Z5
S21
R13
8
100K
R16
100K
S22
S23
R12
VOUT =
P8
100K
V OUT10
R22
Inverting Summing Amplifier
10
100 Ω
Rf
R1
V1
Channel 2
R2
S24
V2
R19 NF
100pF
-15V
S27
R26
CW
51.1K
P9
100K
S25
S28
CW
100K
CW
P11
100K
S31
C3
51.1K
S32
100pF
2
S29
A3
S33
R24
3
13
100K
R27
100K
S34
S35
R23
4
1
6
15
5
-15V
CW
P13
100K
CW
S37
S42
S40
S41
R39
GAIN
S43
C4
S44
100pF
2
R35
7
1
S46
100K
S47
R38
100K
4
S48
100pF
100 Ω
R1
_
V1
-15V
R42
NF
R40
NF
Rf
+15V
21
5
19
R2
V2
741
100Ω
+
V OUT
Channel 4
Rg
R41 NF
R45
R46
NF
NF
23
25
28
22
R 1 • R 2 • R 3 •R f
R1 R 2 R 3 + R1 R 2 R f + R1 R 3 R f + R2 R 3 R f
Differential Amplifier
R44
6
A4
3
18
100K
=
V 1 V 2 V3
+
+
R1 R 2 R 3
V OUT21
+15V
Z11
-15V
CW
P16
100K
10K
Z12
S45
R34
set R g
R43
100K
R36
BIAS
100K
CW
P15
Z10
51.1K
17
P14
100K
S39
51.1K
16
VOUT = - R
f
R30 NF
R37
S38
100 Ω
Channel 3
S36
VOUT
Rg
R31
NF
R29
NF
100Ω
R33
14
100K
741
+
V OUT15
7
_
V3
+15V
+15V
Z8
R3
R32
10K
Z9
CW
P12
100K
S30
12
P10
100K
GAIN
Z7
R25
BIAS
R28
S26
11
-R f
V
R1 1
set R g = R1* R f
R 1+R f
+15V
R20
NF
R18
NF
9
100K
CW
R21
10K
Z6
C2
BIAS
S18
7
P6
100K
GAIN
Z4
R14
CW
R17
S14
6
VOUT
Channel 1
4
100K
100 pf
5
5
4
+15V
R11
6
A1
S9
Rf
P4
100K
V OUT5
+15V
Z2
R2
Buffer Amplifier–Inverting
-15V
CW
R10
S6
2
P2
100K
GAIN
Z1
R3
BIAS
R6
TYPICAL APPLICATIONS
+15V (40 mA typical)
C5
10 µF
30
C6
10 µF
SIGNAL GROUND
Power
Inputs
Low-Pass
Filter
C7
NF
C8
NF
-15V (40 mA typical)
An ‘Extender Card’ is highly recommended to gain access to ‘Test Points’ and ‘Adjustments’ while cards are powered-up within a Eurocard Rack Assembly.
(Moog ref P/N A81750-1)
VOUT =
Rf
V __ V1
R1 2
for R f = R g and R 1 = R 2
NOTES:
1. NF – NOT FURNISHED
2. ■ – PIN 1 (SQUARE PAD ON PCB)
3. CW – CLOCKWISE
4. O – INDICATES COMPONENT STANDOFF
DIFFERENTIATOR
INTEGRATOR
C1
R1
C1
R1
VI
VI
VO
VO
∆VI
VO = –R1C1 ∆t
VOUT= –
fc =
BASIC NONINVERTING AMPLIFIER CIRCUIT
∫
1
t2
VINdt
R1C1 t1
1
2πR1C1
VOLTAGE FOLLOWER
VI
VO
VI
VO
R2
R1
VO =
[
1+
R2
R1
]
(V1)
DIFFERENTIATOR WITH HIGH FREQUENCY
NOISE CORRECTION
HIGH-PASS AND LOW-PASS FILTER CIRCUITS
C1
R1
VI
R1
R2
VO
VI
RS
C1
VO
C2
1
fO = 2π C2 R1R2
1
fC1 = 2πR1C1
(a) LOW-PASS FILTER
R2
C1
C2
OFFSET VOLTAGE ADJUSTMENT FOR VOLTAGE FOLLOWERS
VI
VO
R1
+V
1
fO = 2π R2 C1C2
(b) HIGH-PASS FILTER
R2
100K
R1
2M
R3
1K
-V
OUTPUT
INPUT
RANGE = ±V
( )
R3
R1
SET-UP INSTRUCTIONS
1. Converting Channel-1 & 2 ⇒ Dither Generator w/Dither Freq ≈ 25 to 300Hz
• Adjustable Dither Frequency (Sq Wave) and Amplitude
• Select Ch1 and Ch2 for circuit configuration
• Refer to Schematic Diagram – Figure ‘A’
• A1 of Ch1 is NOT used (Remove from circuit)
• A2 of Ch2 is configured as a Free-Running Astable Multivibrator Circuit or
Square Wave Generator
• Dither Frequency ⇒ fDITHER = 1/t1 = 1 / 2 [C1 x (P7 + R21)]
• Channel-1:
• Remove R1 (100K) & replace with C2, 1mf, 35 VDC capacitor
• Install jumper Z1
• Insert jumper S3, S5, S7 & S12 Only
• Ensure jumpers S1, S2, S4, S6, S8, S9 to S11 are NOT connected
• Remove R5 (100K) Resistor
• Remove R10 (10K) Resistor
• Remove R6 (100K) Resistor
• Remove R11 (100Ω) Resistor
• Jumper Pin-1 to Pin-5 of Ch1
• Connect jumper S4/Ch1 to Pin-2/Ch1
• Connect Pin-4/Ch1 to Pin-10/Ch2
• Set pot P1 of Ch1 to full CW position (Zero)
• Channel-2:
• Insert jumpers S22 & S23
• Ensure jumpers S13 to S21 and S24 are NOT connected
• Remove R13 (100K) & replace with 49.9K, 1% resistor
• Remove R12 (100K) & replace with C1, 0.33mf, 35 VDC capacitor
• Remove R17 (100K) resistor
• Remove R22 (100Ω) resistor & replace with ‘jumper’
• Remove R21 (10K) & replace with 8.2K, l% resistor
• Remove R16 (100K) & replace with 20K, 1% resistor
• Connect Pin-10/Ch2 to Pin-8/Ch2 and Pin-9/Ch2 to Pin-22/Sig Gnd
• Monitor output voltage & frequency at Pin-5/Ch1 (Frequency should range
from 25 to 300Hz by adjusting pot P7)
• Check circuit & repeat set-up instructions if I/O conditions are NOT
achieved
Channel 1
Set P1 full CW ⇒ 0
S2
Z1
S3 (Dither On/Off)
Vout-5
Pin-1
CW
P1
S6
R3
Vo
S7
Pin-5
Pin-2
CW
f = 25 to 300 Hz
P2
S5
DITH AMPL
Signal Gnd
C2
S12
S4
All Resistors 1% Tol
R3 = 301K
P1, P2 = 100K pots
C2 = 1mf/35 VDC
Rmv A1, R5, R6, R10, 11
Pin-4
Channel 2
Jumper
C1 = 0.33mf/35 VDC
R13 = 49.9K
R21 = 8.2K
Remove R22 (100Ω)
P7 = 100K Pot
R16 = 20K
P7
DITH FREQ
CW
R21
Pin-9
C1
Vout-10
S23
R22
–
Pin-10
A2
+
Pin-8
R13
S22
Jumper
R16
All Resistors are 1% Tol
Pin-22
Sig Gnd
Power Inputs
Fig. A – Model NF123-158B1; Converting Channel 1 &2 ⇒ Dither Generator w/Adj Sq Wave Freq = 25 to 300 Hz
SET-UP INSTRUCTIONS
1. Converting 4 to 20mA Input Command Signal ⇒ 0 to +10 VDC Output Signal
• Select Ch1 and Ch2 for circuit configuration
• Refer to Schematic Diagram – Figure ‘A’
• A1 of Ch1 is configured as a Differential Amplifier with a Gain of 2X
• A2 of Ch2 is configured as an Inverting Amplifier with Zero Bias (offset)
and Span (Gain) Adjust
• Channel-1:
• Remove R6(100K) Resistor
• Install jumper Z3
• Insert jumper S9 & S12 Only
• Ensure jumpers S3, 4 and S7, 8 are NOT connected
• Remove R5 (100K) & replace with 200K, l% resistor
• Remove R10 (10K) & replace with 200K, 1% resistor
• Jumper Pin-5/Ch1 to Pin-8/Ch2
• Install 250Ω, 1% resistor across Pins-3 and Pin-4 of Ch1 Input
• Channel-2:
• Install jumper S21
• Ensure jumpers S15, 16 & S19, 20 & S23, 24 are NOT connected
• Remove R16 (I00K) & replace with1K, 1% resistor
• Apply a 4 to 20mA Input Signal to Pins 3 & 4
• Measured voltage across Pins 3 & 4 should range from 1 VDC to 5 VDC
(Voltage drop across 250Ω input resistor)
• Monitor output voltage at A1/Pin-6 (Voltage should range from 2 VDC to
10 VDC)
• Set Current Driver input signal to +4mA
• Adjust BIAS (Zero Offset) pot (P8) to obtain 0 VDC at Test Point ‘Vout-10’
• Set Current Driver input signal to +20mA
• Adjust GAIN (Span) pot (P7) to obtain +10 VDC at Test Point ‘Vout-10’
• Verify output voltage at Test Point ‘Vout-10’ is +10V
• Ensure Span output (A2) does not enter saturation
• Span & Zero interaction is Normal. Multiple iterations may be required.
Continue to repeat adjustment until both are within specification (0 to
+10V) without further adjustment.
• Adjust Input Command from 4 to 20mA
• Verify voltage range at Pin-10 is 0 to +10V as Current Input varies from 4
to 20mA
• Check circuit & repeat set-up instructions if I/O conditions are NOT
achieved
Channel 1
Z3
R10
Command Signal
4-20mA
Vout-5
S9
3
R2
I
250Ω
4
Pin-5
R11
–
A2
+
S12
R1
R5
+1 to +5 VDC
+2 to +10 VDC
Channel 2
P8
BIAS
Jumper
CW
-15V
+15V
P7
GAIN
CW
R17
Pin-8
R13
R21
S21
R22
–
R1, R2, R13, R17 = 100K
R10, R5 = 200K
R11, R22 = 100Ω
P7, P8 = 100K Pots
R16 = 1K
R21 = 10K
Vout-10
Pin-10
0 to +10 VDC
Output
A2
+
R16
All Resistors are 1% Tolerance
Fig. A – Model NF123-158B1; Converting 4 to 20 mA Input Command Signal ⇒ 0 to +10 VDC Output Signal
Industrial Controls Division
2. Converting 4 to 20mA Input Command Signal ⇒ -10 to +10 VDC
Output Signal (±10V)
• Requires selection of all 4-Channels for circuit configuration
• Refer to Schematic Diagram – Figure ‘B’
• A1 of Ch1 is configured as an Inverting Unity-Gain Amp
• A2 of Ch2 is NOT used
• A3 of Ch3 is configured as a Differential Amp with a Gain of 1X
• A4 of Ch4 is configured as a Summer Amp with BIAS Adjust & fixed
Gain of -5X
• Low-Pass Filter Section is re-configured as a +10 VDC Reference Supply
• Channel-1:
• Install jumper Z3
• Insert jumper S9 ONLY
• Ensure jumpers S1 to S8 and S10 to S12 are NOT installed
• Remove RI0 (10K) & replace with 100K, 1% resistor
• Remove R12 (100K) & replace with 2K, 1% resistor
• Remove R5 (100K) & replace with 50K, 1% resistor
• Jumper Pin-5 of Ch1 to Pin-4 of Ch1
• Connect ‘center’ pin of jumper S11, 12 to Pin-6 of Ch2
• I/O conditions:
• Ch1/Pin-3 ⇒ +I0 VDC Input
• Ch1/Pin-5 ⇒ -10 VDC Output
• Ch1/Pin-4 ⇒ -10 VDC Input
• Channel-2:
• Install jumper Z4
• Insert jumper S16 & S24 ONLY
• Ensure jumpers S13 to S15 & S17 to S23 are NOT installed
• Remove resistor R12 & R13 & replace with 2k, 1%
• Connect ‘center’ pin of jumper S13, 14 to ‘center’ pin of S21,22
• Connect Pin-8/Ch2 to Pin-28 ⇒ Power Supply Input Section
• I/O conditions:
• Ch2/Pin-6 ⇒ -10 VDC Input
• Ch2/Pin-8 ⇒ +15 VDC Power Input
• Ch2/Pin-9 ⇒ -3 VDC Bias Voltage Setting
• Channel-3:
• Install jumper Z9
• Insert jumper S33 & S36 ONLY
• Ensure jumpers S25 to S32 & S34, 35 are NOT installed
• Remove resistor R23, R24, R27 & R28 (100K) and R32 (10K)
• Replace resistor R23, R24, R27 and R32 with 200K, 1%
• Remove R28 (100K) resistor
• Install 250Ω, 1% precision resistor across Pin-13 and Pin-14 of
Ch3 Input
• Connect Pin-15/Ch3 to Pin-18/Ch4 ⇒ A4 – Output Gain Stage
• I/O conditions:
• Ch3/Pin-13, 14 ⇒ +1 VDC @ 4mA to +5 VDC @ 20mA
(250Ω load)
• Ch3/Pin-15 ⇒ +I to +5 VDC Voltage Swing
• Channel-4:
• Install jumper Z12
• Insert jumper S45 ONLY
• Ensure jumpers S37 to S44 and S46 to S48 are NOT installed
• Remove resistor R35, R38, R39 (100K) and R43 (10K)
• Replace resistors R35 with 2K; R38 with 5K and R43 with 10K
(1% toll)
• Connect Pin-9/Ch2 to R39 (Pin-2) of Ch4
• I/O conditions:
• Ch4/Pin-18 ⇒ +1 to +5 VDC Input Range
• Ch4/Pin-21 ⇒ ±10 VDC Output
• Low-Pass Filter Section:
• Install jumper across R45 (NF = Not Furnished)
• Replace resistor R46 (NF) with 27.4K, 1%
• Replace capacitor C7 (NF) with a 10.0V Zener Diode – LM4040
type or equivalent (Anode to Gnd) – Label as DZ1 designation
• Connect Pin-25 (Low-Pass Filter Section) to Pin-28 (Power Input
Section)
• Connect Pin-23 (Low-Pass Filter Section) to Pin-3 (Ch1)
• I/O conditions: Low Pass Filter Section
• Pin-23 ⇒ +10 VDC Ref Output
• Pin-25 ⇒ +15 VDC Power Input
• Check circuit & repeat set-up instructions if I/O conditions are NOT
achieved
Z3
R10
Channel 1
+10 VDC Ref
Vout-5
S9
R2
3
R5
S11
-10 VDC Output
Jumper
R1
4
Pin-5
R11
–
A1
+
S12
Z4
Channel 2
S16
R11 = 100Ω
R2, R10 = 100K
R13, R12 = 2K
P5 = 100K
DZ1 = 10.0V Zener Diode
R46 = 27.4K
R5 = 50K
All resistors are 1% Tolerance
-3V Bias
P5
BIAS
S14
S21
S13
S22
Pin-6
Pin-8
CW
Pin-9
R13
R12
S24
SUMMER
Ch4/R39
+10 VDC Ref
1
R45 (Jumper)
23
R46
2
25
+15 VDC
1
28
DZ1
10V
(Replace C7 with DZ1)
+15V
C5
Signal Gnd
22
30
C6
-15V
Power Inputs
Low-Pass Filter/Ref Supply
Fig. B – Model NF123-158B1; Converting 4 to 20 mA Input Command Signal ⇒ -10 to +10 VDC Output Signal (±10 VDC)
Channel 3
Remove
Z9
R28
R32
Command Signal
4-20mA
Vout-15
S33
13
R24
I
250Ω
14
Pin-15
R33
–
A3
+
S36
R23
R27
+1 to +5 VDC Voltage Swing
Channel 4
R39 (Remove)
1
2
From BIAS Pot
Ch2/Pin-9
Z12
Pin-18
R35
Jumper
R23, R24, R32, R27 = 200K
R43 = 10K
R33, R44 = 100Ω
P7, P8 = 100K Pots
R38 = 5K
R35 = 2K
R43
Vout-21
S45
R44
–
Pin-21
±10 VDC
Output
A4
+
A4-GAIN = -5X
R38
All Resistors are 1% Tolerance
Fig. B – Model NF123-158B1; Converting 4 to 20 mA Input Command Signal ⇒ -10 to +10 VDC Output Signal (±10 VDC)
Industrial Controls Division
SET-UP INSTRUCTIONS
Converting Channel-1 & 2 ⇒ 4 to 20mA Input Command = 0 to -10
VDC Output Signal
1. Select Ch1 and Ch2 for circuit configuration
2. Refer to Schematic Diagram – Figure ‘C’
3. Install jumpers between Pin-5 (Ch1) & Pin-6 (Ch2) and Pin-15
(Ch3) & Pin-16 (Ch4) for proper operation
4. Refer to diagram for component installation/values including
jumper locations
5. Channel-1: Connect current source to Input Pins 4 (+) & 3 (-)
• Set Current to 0.0mA
• Monitor voltage at Vout-5
• Adjust P4 for 0 VDC
6. Set current Input to +20.0mA
• Adjust P3 for +10.0 VDC at Vout-5
• Set Current to +4.0mA
• Verify +2.0 VDC at Vout-5
7. Channel-2:Adjust P5 fully ‘CW’ and P7 fully ‘CCW’
• Set Current to +4.0mA
• Adjust P8 for 0.0 VDC at Vout-10
8. Set current to +20mA
• Adjust P7 for -10.0 VDC at Vout-10
• Verify 0.0 VDC at +4.0mA Input
9. Check circuit & repeat set-up instructions if I/O conditions are
NOT achieved
Pin-4 (+)
GAIN
+15V
Channel 1
Command Signal
4-20mA
R1
P4
BIAS
S11
I
R2
R10
CW
CW
-15V
Z3
–
A1
R11
+
Pin-5
Z3 = 30K
Vout-5
R1, R2 = 10K
R5 = 20K
P3, 4 = 100K
R6 = 500K
R10 = 1K
R11 = 100Ω
All Resistors are 1% Tolerance
250Ω
Pin-3 (-)
P3
R6
S10
R5
Channel 2
CW
P8
BIAS
Jumper
-15V
+15V
P7
GAIN
R21
CW
S14
R17
CW
Pin-6
P5
Vout-10
S15
Pin-10
R22
–
0 to -10 VDC
Output
A2
R15
+
Ch3 & Ch4
Pin-15
P7, 8 = 100K
R15 = 51.1K
R21 = 1K
R22 = 100Ω
R16, 17 = 100K
All Resistors are 1% Tolerance
R16
Pin-16
Fig. C – Model NF123-158B1; Converting 4 to 20 mA Input Command Signal ⇒ 0 to -10 VDC Output Signal
SET-UP INSTRUCTIONS: INVERTING AMP TO NON-INVERTING AMP
Converting ±1 VDC Input Command Signal ⇒ ±10 VDC Output
(Non-Inverting) Signal
• Select Ch1 for circuit configuration
• Refer to Schematic Diagram
• A1 of Ch1 is configured as a Non-Inverting Amplifier with a Gain
of 1X to 21X
• Channel-1:
• Insert jumper Z1, S1, S3 & S10 Only
• Ensure jumpers S2, S4, S5 thru S9, S11, S12 & Z2, 3 are NOT
connected
• Remove R2 (100K) resistor & replace with jumper
• Remove R5 (100K) resistor from circuit
• Remove R10 (10K) resistor & replace with jumper
• Set P1 potentiometer to 5K
• Connect Pin-15/NF122-202A1 to Pin-3/Ch1
• Connect Pin-22 (Gnd)/NF122-202A1 to ‘Gnd’ side of R5
resistor (Pin-2)
• DO NOT use Pin-1/Ch1 of the NF123-158B1
• Apply a ±1 VDC Input Signal across Pin-3 to Ground (Pin-22)
• Measured voltage across Pin 3 to Ground (Pin-22) should range
from ±1 VDC to -1 VDC (Input Signal from NF122-202A1 Card)
• Monitor output voltage at Pin-5/Ch1
• Gain = eo /ein = (1 + P3/P1) ⇒ Non-Inverting Amplifier
Configuration
• Calculated Gain Range = 1 min to 21 max
• With ±1 VDC Input Signal @ Pin-3/Ch1, adjust P3 (GAIN) pot for
±10 VDC Output (Non-Inverting) @ Pin-5/Ch1.Verify.
• Check circuit & repeat set-up instructions if I/O conditions are
NOT achieved
Channel 1
S2 Z1
Do Not Use
Pin-1 Input
Pin-1 CW P1
S1
Pin-15 of
NF122-202A1
15
Pin-3
S10
R2
GAIN
+15V
P4
BIAS
R6
CW
-15V
Signal
Gnd
22
R10
CW
Z3
S3
Jumper
±1 VDC
P3
Note: Set P1 pot to 5K (CCW)
Remove
–
A1
R11
+
Pin-5
P1, 3 = 100K pot
Vout-5
R2 = Jumper
R5, 6 = Remove
R5
Z1 = Install Jumper
R6 = Remove
R10 = Jumper
R11 = 100Ω
All Resistors are 1% Tolerance
±10 VDC
Output
Fig. D – Model NF123-158B1; Converting ±1 VDC Input Command Signal ⇒ ±10 VDC Output (Non-Inverting) Signal
Industrial Controls Division
Moog Inc., East Aurora, NY 14052-0018
Telephone: 716/655-3000
Fax: 716/655-1803
Toll Free: 1-800-272-MOOG
CDL6179 Rev C 500-204 898