LTC6088
LTC6088 is Quad 14MHz Rail-to-Rail CMOS Amplifiers manufactured by Linear Technology.
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LTC6087/LTC6088 Dual/Quad 14MHz, Rail-to-Rail CMOS Amplifiers Features n n n
DESCRIPTION
The LTC®6087/LTC6088 are dual/quad, low noise, low offset, rail-to-rail input/output, unity-gain stable CMOS operational amplifiers that feature 1p A of input bias current. A 14MHz gain bandwidth and 7.2V/μs slew rate, bined with low noise (10n V/√Hz) and a low 0.75m V offset, make the LTC6087/LTC6088 useful in a variety of applications. The 1.1m A supply current and the shutdown mode are ideal for signal processing applications which demand performance with minimal power. The LTC6087/LTC6088 has an output stage which swings within 30m V of either supply rail to maximize signal dynamic range in low supply applications. The input mon mode range includes the entire supply voltage. These op amps are specified on power supply voltages of 3V and 5V from
- 40°C to 125°C. The dual amplifier LTC6087 is available in 8-lead MSOP and 10-lead DFN packages. The quad amplifier LTC6088 is available in 16-lead SSOP and DFN packages.
L, LT, LTC and LTM are registered trademarks of Linear Technology Corporation. All other trademarks are the property of their respective owners. n n n n n n n n n
Low Offset Voltage: 750μV Maximum Low Offset Drift: 5μV/°C Maximum Input Bias Current: 1p A (Typical at 25°C) 15p A (Typical at 85°C) Rail-to-Rail Inputs and Outputs Gain Bandwidth Product: 14MHz CMRR: 70d B Minimum PSRR: 93d B Minimum Input Noise Voltage Density: 12n V/√Hz Supply Current: 1.1m A per Amp Shutdown Current: 2.3μA per Amp 2.7V to 5.5V Operation Voltage Available in 8-Lead MSOP and 10-Lead DFN Packages (LTC6087), 16-Lead SSOP and DFN Packages (LTC6088)
APPLICATIONS n n n n n
Portable Test Equipment Medical Equipment Audio Data Acquisition High Impedance Transducer Amplifier
TYPICAL APPLICATION
Single Supply Shock/Vibration Sensor Amplifier
1000 MURATA SHOCK SENSOR PKGS-00MX1 520p F , 0.57p C/g .murata.
LTC6087 Input Bias Current vs Temperature
VS = 5V VCM =...