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LM248N

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Texas Instruments

QUAD, 36-V, 1-MHZ OPERATIONAL AMPLIFIER WITH -25°C TO 85°C OPERATION

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PDIP (N)
Integrated Circuits (ICs)

LM248N

Active
Texas Instruments

QUAD, 36-V, 1-MHZ OPERATIONAL AMPLIFIER WITH -25°C TO 85°C OPERATION

Technical Specifications

Parameters and characteristics for this part

SpecificationLM248N
Amplifier TypeGeneral Purpose
Current - Input Bias30 nA
Current - Output / Channel25 mA
Current - Supply2.4 mA
Gain Bandwidth Product1.3 MHz
Mounting TypeThrough Hole
Number of Circuits4
Operating Temperature [Max]85 C
Operating Temperature [Min]-25 °C
Package / Case14-DIP
Package / Case [x]0.3 "
Package / Case [y]7.62 mm
Voltage - Input Offset1 mV
Voltage - Supply Span (Max) [Max]36 V
Voltage - Supply Span (Min) [Min]8 V

Pricing

Prices provided here are for design reference only. For realtime values and availability, please visit the distributors directly

DistributorPackageQuantity$
DigikeyTube 1$ 0.58
10$ 0.50
25$ 0.46
100$ 0.37
250$ 0.34
500$ 0.29
1000$ 0.22
1000$ 0.23
2500$ 0.21
5000$ 0.19
NewarkEach 1$ 0.49
10$ 0.36
100$ 0.28
500$ 0.25
1000$ 0.24
3000$ 0.23
10000$ 0.23
Texas InstrumentsTUBE 1$ 0.38
100$ 0.26
250$ 0.20
1000$ 0.13

Description

General part information

LM248 Series

The LM148, LM248, and LM348 are quadruple, independent, high-gain, internally compensated operational amplifiers designed to have operating characteristics similar to the µA741. These amplifiers exhibit low supply-current drain and input bias and offset currents that are much less than those of the µA741.

The LM148, LM248, and LM348 are quadruple, independent, high-gain, internally compensated operational amplifiers designed to have operating characteristics similar to the µA741. These amplifiers exhibit low supply-current drain and input bias and offset currents that are much less than those of the µA741.

Documents

Technical documentation and resources

AN-46 The Phase Locked Loop IC as a Communication System Building Block

Application note

AN-263 Sine Wave Generation Techniques (Rev. C)

Application note

Audio Applications of Linear Integrated Circuits

Application note

AN-24 A Simplified Test Set for Op Amp Characterization

Application note

Quadruple Operational Amplifiers datasheet (Rev. C)

Data sheet

AN-29 IC Op Amp Beats FETs on Input Current (Rev. B)

Application note

AN-30 Log Converters (Rev. B)

Application note

AN-79 IC Preamplifier Challenges Choppers on Drift (Rev. B)

Application note

True RMS Detector

Application note

AN-20 An Applications Guide for Op Amps (Rev. C)

Application note

Precise Tri-Wave Generation

Application note

Get More Power Out of Dual or Quad Op-Amps

Application note

Get Fast Stable Response From Improved Unity-Gain Followers

Application note

AN-278 Designing with a New Super Fast Dual Norton Amplifier (Rev. B)

Application note

AN-241 Working with High Impedance Op Amps

Application note

AN-256 Circuitry for Inexpensive Relative Humidity Measurement (Rev. B)

Application note

Applying a New Precision Op Amp

Application note

Predicting Op Amp Slew Rate Limited Response

Application note

General Purpose Power Supply

Application note

AN-31 Amplifier Circuit Collection (Rev. D)

Application note

AN-260 A 20-Bit (1 ppm) Linear Slope-Integrating A/D Converter (Rev. B)

Application note

AN-480 A 40 MHz Programmable Video Op Amp

Application note

AN-32 FET Circuit Applications

Application note

Super Matched Bipolar Transistor Pair Sets New Standards for Drift and Noise (Rev. B)

Application note

AN-4 Monolithic Op Amp—The Universal Linear Component (Rev. B)

Application note

AN-446 A 150W IC Op Amp Simplifies Design of Power Circuits

Application note

Building an Op Amp With Bipolar Transistors, A Historical Application Note (Rev. A)

Application note

Low Drift Amplifiers

Application note