OPA593 Series

85-V, 100-µV wide-bandwidth (10 MHz) high-output-current (250 mA) precision operational amplifier

Catalog

85-V, 100-µV wide-bandwidth (10 MHz) high-output-current (250 mA) precision operational amplifier

Part	Current - Input Bias	Number of Circuits	Supplier Device Package	Voltage - Supply Span (Min) [Min]	Current - Output / Channel	Voltage - Supply Span (Max) [Max]	Voltage - Input Offset	Package / Case	Gain Bandwidth Product	Slew Rate	Current - Supply	Amplifier Type	Mounting Type	Operating Temperature [Min]	Operating Temperature [Max]	Output Type
Texas Instruments OPA593DNTR	1 pA	1	12-WSON (4x4)	8 V	250 mA	85 V	20 çV	12-WFDFN Exposed Pad	10 MHz	45 V/µs	3.25 mA	Power	Surface Mount	-40 °C	125 °C	Push-Pull Rail-to-Rail
Texas Instruments OPA593DNTT	1 pA	1	12-WSON (4x4)	8 V	250 mA	85 V	20 çV	12-WFDFN Exposed Pad	10 MHz	45 V/µs	3.25 mA	Power	Surface Mount	-40 °C	125 °C	Push-Pull Rail-to-Rail

Catalog

85-V, 100-µV wide-bandwidth (10 MHz) high-output-current (250 mA) precision operational amplifier

Key Features

• Wide power-supply range:8 V (±4 V) to 85 V (±42.5 V)Low offset voltage: ±20 µVLow offset voltage drift: ±0.4 µV/°CHigh output current: 250 mAWide gain bandwidth: 10 MHzHigh slew rate: 45 V/µs, risingLow noise: 7 nV/√Hzat 10 kHzMux-friendly inputsRail-to-rail outputQuiescent current:Enabled: 3.25 mADisabled: 250 µASpecified current limit accuracyOvertemperature and overcurrent flagsTemperature range: –40°C to +125°CPackage: 12-pin WSONWide power-supply range:8 V (±4 V) to 85 V (±42.5 V)Low offset voltage: ±20 µVLow offset voltage drift: ±0.4 µV/°CHigh output current: 250 mAWide gain bandwidth: 10 MHzHigh slew rate: 45 V/µs, risingLow noise: 7 nV/√Hzat 10 kHzMux-friendly inputsRail-to-rail outputQuiescent current:Enabled: 3.25 mADisabled: 250 µASpecified current limit accuracyOvertemperature and overcurrent flagsTemperature range: –40°C to +125°CPackage: 12-pin WSON

Description

The OPA593 is a high-voltage (85 V), high-precision, wide-bandwidth (10 MHz), high-output-current (250 mA), unity-gain-stable, power op amp. The OPA593 uses a laser trimming technique to improve the offset voltage (20 µV, typical) and offset voltage drift (0.4 µV/°C, typical), and thus avoids the need for calibration. This device featuresmux-friendlyinputs that enable differential input voltage range to the supply rails and help improve settling performance in multichannel systems. An external resistor can be used to limit the current with specified accuracy, and thus provide more precise measurements. In case of an overcurrent or overtemperature condition, the device indicates erroneous operation through a status flag. An included disable feature is used to shutdown the device, saving power and placing the output into a high-impedance state. The device is unity-gain stable, enabling operation as a high-impedance buffer. The wide bandwidth and high slew enable high signal gains. The high output current and capacitive drive allow the device to drive external field-effect transistors (FETs) used to provide higher system currents, such as in a digital power supply. The OPA593 is a high-voltage (85 V), high-precision, wide-bandwidth (10 MHz), high-output-current (250 mA), unity-gain-stable, power op amp. The OPA593 uses a laser trimming technique to improve the offset voltage (20 µV, typical) and offset voltage drift (0.4 µV/°C, typical), and thus avoids the need for calibration. This device featuresmux-friendlyinputs that enable differential input voltage range to the supply rails and help improve settling performance in multichannel systems. An external resistor can be used to limit the current with specified accuracy, and thus provide more precise measurements. In case of an overcurrent or overtemperature condition, the device indicates erroneous operation through a status flag. An included disable feature is used to shutdown the device, saving power and placing the output into a high-impedance state. The device is unity-gain stable, enabling operation as a high-impedance buffer. The wide bandwidth and high slew enable high signal gains. The high output current and capacitive drive allow the device to drive external field-effect transistors (FETs) used to provide higher system currents, such as in a digital power supply.