NSC LM715CJ, LM715CH Datasheet

LM715 High Speed Operational Amplifier
LM715 High Speed Operational Amplifier
October 1989
General Description
The LM715 is a high speed, high gain, monolithic operation­al amplifier intended for use in a wide range of applications where fast signal acquisition or wide bandwidth is required. The LM715 features fast settling time, high slew rate, low offsets, and high output swing for large signal applications. In addition, the device displays excellent temperature stabil­ity and will operate over a wide range of supply voltages.
Connection Diagrams
10-Lead Metal Package
TL/H/10059– 1
Top View
Lead 5 connected to case.
Ordering Information
Device Package Package
Code Code Description
LM715MH H10C Metal LM715CH H10C Metal LM715MJ J14A Ceramic DIP LM715CJ J14A Ceramic DIP
Features
Y
High slew rateÐ 100 V/ms (Inverting, A
Y
Fast settling timeÐ 800 ns typically
Y
Wide bandwidthÐ 65 MHz typically
Y
Wide operating supply range
Y
Wide input voltage ranges
e
V
1) typically
Applications
Y
Video amplifiers
Y
Active filters
Y
High speed data conversion
14-Lead DIP
Top View
TL/H/10059– 2
C
1995 National Semiconductor Corporation RRD-B30M115/Printed in U. S. A.
TL/H/10059
Absolute Maximum Ratings
If Military/Aerospace specified devices are required, please contact the National Semiconductor Sales Office/Distributors for availability and specifications.
Storage Temperature Range
Operating Temperature Range
Extended (LM715M) Commercial (LM715C) 0
b
65§Ctoa175§C
b
55§Ctoa125§C
Ctoa70§C
§
Lead Temperature
Metal Can and Ceramic DIP (Soldering, 60 sec.) 300
C
§
LM715M and LM715C Electrical Characteristics
Symbol Parameter Conditions
V
IO
I
IO
I
IB
Z
I
R
O
I
CC
P
c
V
IR
A
VS
V Settling Time V
TR Transient Rise Time V
SR Slew Rate A
The following specifications apply over the range ofb55§CsT LM715C
Symbol Parameter Conditions
V
IO
I
IO
I
IB
CMR Common Mode R
PSRR Power Supply R
A
VS
V
OP
Note 1: T
Note 2: Ratings apply to ambient temperature at 25
Note 3: For supply voltages less than
Note 4: T
Input Offset Voltage R
Input Offset Current 70 250 70 250 nA
Input Bias Current 400 750 400 1500 nA
Input Impedance 1.0 1.0 MX
Output Resistance 75 75 X
Supply Current 5.5 7.0 5.5 10 mA
Power Consumption 165 210 165 300 mW
Input Voltage Range
Large Signal Voltage Gain R
Response
Overshoot 25 40 25 50 %
Input Offset Voltage R
Input Offset Current T
Input Bias Current T
Rejection (Note 4) (Note 4)
Rejection Ratio (Note 4) (Note 4)
Large Signal R Voltage Gain V
Output Voltage Swing R
e
175§C.
J Max
g
e
A
25§C only.
15V, the absolute maximum input voltage is equal to the supply voltage.
e
T
25§C, V
A
s
S
t
L
O
e
I
e
V
e
A
V
e
A
V
e
A
V
CC
10 kX 2.0 5.0 2.0 7.5 mV
2.0 kX,V
g
5.0V, A
400 mV, A
O
V
V
e
100 70 70
10 38 38
1.0 (Non-Inverting) 15 18 10 18
1.0 (Inverting) 100 100
Min Typ Max Min Typ Max
s
10 kX 7.5 10 mV
S
e
T
A
A Max
e
T
T
A
A Min
e
T
A
A Max
e
T
T
A
A Min
s
10 kX
S
s
10 kX
S
t
2.0 kX,
L
e
g
10V
O
e
2.0 kX
L
C. Above this temperature, derate the 10L-Metal Can at 7.1 mW/§C, and the 14L-Ceramic DIP at 9.1 mW/§C.
§
74 92
10 8 V/mV
g
Internal Power Dissipation (Notes 1, 2)
10L-Metal Can 1.07W 14L-Ceramic DIP 1.36W
Supply Voltage
Differential Input Voltage
Input Voltage (Note 3)
e
g
15V, unless otherwise specified
LM715M LM715C
Min Typ Max Min Typ Max
g10g
e
g
10V 15 30 10 30 V/mV
e
1.0 800 800 ns
e
1.0 30 60 30 75 ns
s
a
125§C for the LM715M, and 0§CsT
A
12
g10g
12 V
s
a
70§C for the
A
LM715M LM715C
250 250
800 750
0.75 1.5
4.0 7.5
74 92
45 400
g
13 V
10
45 300
g
13
g
10
g
g
g
Units
V/ms
Units
mV/V
18V
5V
15V
nA
mA
dB
2
Typical Performance Characteristics for LM715M and LM715C
Voltage Gain vs Temperature (LM715)
Common Mode Rejection Ratio vs Temperature (LM715)
Slew Rate vs Temperature (LM715C)
Supply Voltage Rejection Ratio vs Temperature (LM715)
Voltage Gain vs Temperature (LM715C)
Common Mode Rejection Ratio vs Temperature (LM715C)
Slew Rate vs Temperature (LM715)
Supply Voltage Rejection Ratio vs Temperature (LM715C)
Frequency Response for Open Loop Gains (Note 1)
Frequency Response for Closed Loop Gains
Note 1: See ‘‘Non-Inverting Compensation Components Value Table’’ for Closed Loop Gain values.
Voltage Gain vs Frequency vs Frequency
3
Open Loop Phase
TL/H/10059– 4
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