Texas Instruments 1-Channel Differential Amplifier 1.5 MHz 8-Pin SOIC

The image is for reference only, please refer to product details and specifications

Bulk discount available

Subtotal (1 tube of 75 units)*

HK$2,600.025

Add to Basket
Select or type quantity
Temporarily out of stock
  • Shipping from 18 May 2026
Need more? Click ‘Check delivery dates’ to find extra stock and lead times.
Units
Per unit
Per Tube*
75 - 300HK$34.667HK$2,600.03
375 +HK$33.973HK$2,547.98

*price indicative

RS Stock No.:
145-7532
Mfr. Part No.:
INA133U
Manufacturer:
Texas Instruments
Find similar products by selecting one or more attributes.
Select all

Brand

Texas Instruments

Product Type

Differential Amplifier

Minimum Supply Voltage

12V

Maximum Supply Voltage

36V

Vos - Input Offset Voltage

0.75 mV

Maximum Voltage Gain

0dB

GBP - Gain Bandwidth Product

1.5MHz

Number of Channels

1

Mount Type

Surface

Package Type

SOIC

Slew Rate

5V/μs

CMRR - Common Mode Rejection Ratio

80dB

Minimum Operating Temperature

-40°C

Pin Count

8

Maximum Operating Temperature

85°C

Series

INA133

Height

1.58mm

Standards/Approvals

RoHS

Width

3.91 mm

Length

4.9mm

Automotive Standard

No

Supply Current

1.2mA

COO (Country of Origin):
MY

Differential Amplifiers, Texas Instruments


Differential Amplifiers are operational amplifiers configured to amplify differential input signals but to supress or reject common-mode signals; they incorporate on-chip resistors to define the differential gain.

Instrumentation Amplifiers, Texas Instruments


Instrumentation amplifiers are composite differential amplifier blocks generally incorporating a classic three operational amplifier configuration. They provide high input impedance, very high common-mode rejection and allow differential gain to be accurately set via internal or external resistors. Differential amplifiers offer low DC offset and drift coupled with high open loop gain and low noise and are frequently used in high-precision test and measurement applications and electrically noisy environments.

Related links