Technical Document
Specifications
Brand
Texas InstrumentsAmplifier Type
Transconductance
Mounting Type
Surface Mount
Package Type
SOIC
Power Supply Type
Dual, Single
Number of Channels per Chip
1
Pin Count
8
Typical Single Supply Voltage
5 V
Typical Dual Supply Voltage
±5V
Typical Slew Rate
410V/µs
Minimum Operating Temperature
-40 °C
Maximum Operating Temperature
+85 °C
Rail to Rail
No
Typical Input Voltage Noise Density
2.4nV/√Hz
Height
1.58mm
Dimensions
4.9 x 3.91 x 1.58mm
Length
4.9mm
Width
3.91mm
Product details
Transconductance Amplifiers, Texas Instruments
LM137000 and OPA860/861 Operational Transconductance Amplifiers (OTAs) from Texas Instruments. Operational Transconductance Amplifiers produce an output current proportional to a differential input. The transconductance, or gain, of the OTA can be controlled via a current which makes the devices suitable for a wide range of voltage or current controlled applications such as filters, oscillators, multipliers and variable gain cells.
Transconductance Amplifiers
Stock information temporarily unavailable.
Price on asking
Each (Supplied in a Tube) (Exc. VAT)
Production pack (Tube)
10
Price on asking
Each (Supplied in a Tube) (Exc. VAT)
Stock information temporarily unavailable.
Production pack (Tube)
10
Technical Document
Specifications
Brand
Texas InstrumentsAmplifier Type
Transconductance
Mounting Type
Surface Mount
Package Type
SOIC
Power Supply Type
Dual, Single
Number of Channels per Chip
1
Pin Count
8
Typical Single Supply Voltage
5 V
Typical Dual Supply Voltage
±5V
Typical Slew Rate
410V/µs
Minimum Operating Temperature
-40 °C
Maximum Operating Temperature
+85 °C
Rail to Rail
No
Typical Input Voltage Noise Density
2.4nV/√Hz
Height
1.58mm
Dimensions
4.9 x 3.91 x 1.58mm
Length
4.9mm
Width
3.91mm
Product details
Transconductance Amplifiers, Texas Instruments
LM137000 and OPA860/861 Operational Transconductance Amplifiers (OTAs) from Texas Instruments. Operational Transconductance Amplifiers produce an output current proportional to a differential input. The transconductance, or gain, of the OTA can be controlled via a current which makes the devices suitable for a wide range of voltage or current controlled applications such as filters, oscillators, multipliers and variable gain cells.


