OPA615ID Texas Instruments - Yeehing Electronics

Wide Bandwidth, DC Restoration Circuit

Pricing (USD)

Quantity	Unit Price
1 — 99	9.633
100 — 249	8.414
250 — 999	6.488
1,000 +	4.06

The above prices are for reference only.

Specifications

Manufacturer	Texas Instruments
Product Category	Transconductance Amplifiers
RoHS	Y
Series	OPA615
Number of Channels	1 Channel
GBP - Gain Bandwidth Product	-
SR - Slew Rate	2.5 kV/us
Output Current per Channel	5 mA
Ib - Input Bias Current	3 uA
Vos - Input Offset Voltage	40 mV
Forward Transconductance - Min	65 mA/V
Supply Voltage - Max	12.4 V
Supply Voltage - Min	8 V
Operating Supply Current	13 mA
Minimum Operating Temperature	- 40 C
Maximum Operating Temperature	+ 85 C
Mounting Style	SMD/SMT
Package / Case	MSOP-10
Packaging	Reel
Amplifier Type	Transconductance Amplifier
Height	1.02 mm
Length	3 mm
Output Type	Cascode
Product	Transconductance Amplifiers
Supply Type	Dual
Type	Wideband Amplifier
Width	3 mm
Brand	Texas Instruments
Shutdown	No Shutdown
3 dB Bandwidth	710 MHz
Dual Supply Voltage	+/- 4 V to +/- 6.2 V
en - Input Voltage Noise Density	4.6 nV/sqrt Hz
Gain V/V	1 V/V
Maximum Dual Supply Voltage	+/- 6.2 V
Minimum Dual Supply Voltage	+/- 4 V
Moisture Sensitive	Yes
Product Type	Transconductance Amplifiers
Factory Pack Quantity	2500
Subcategory	Amplifier ICs
Vcm - Common Mode Voltage	+/- 3.2 V
Unit Weight	0.000836 oz

For more information, please refer to datasheet

Documents

OPA615ID Datasheet

More Information

The OPA615 is a complete subsystem for very fast and precise DC restoration, offset clamping, and low-frequency hum suppression of wideband amplifiers or buffers. Although it is designed to stabilize the performance of video signals, the circuit can also be used as a sample-and-hold amplifier, high-speed integrator, or peak detector for nanosecond pulses. The device features a wideband Operational Transconductance Amplifier (OTA) with a high-impedance cascode current source output and fast and precise sampling comparator that together set a new standard for high-speed applications. Both the OTA and the sampling comparator can be used as stand-alone circuits or combined to form a more complex signal processing stage. The self-biased, bipolar OTA can be viewed as an ideal voltage-controlled current source and is optimized for low input bias current. The sampling comparator has two identical high-impedance inputs and a current source output optimized for low output bias current and offset voltage; it can be controlled by a TTL-compatible switching stage within a few nanoseconds. The transconductance of the OTA and sampling comparator can be adjusted by an external resistor, allowing bandwidth, quiescent current, and gain trade-offs to be optimized.