Analog Devices ADA4938-1ACPZ-R7

Low-Noise Operational Amplifier 8-SOIC -40 to 85

4700V/us 1000MHz 1mV 75dB 13uA Single channel LFCSP-16(3x3) Differential Amplifiers ROHS

SP Amp DIFF AMP Single ±5.5V/11V 16-Pin LFCSP EP T/R

IC ADC DRIVER 16LFCSP / ADC Driver IC Data Acquisition 16-LFCSP-VQ (3x3)

37mA 4.7KV/¦Ìs 1GHz 1 11V 4mV@ 5V 13¦ÌA 1GHz , 3mm*3mm*830¦Ìm

DIFF-AMP, 1GHZ, -40 TO 85DEG C, LFCSP-EP;

IC AMP DIFF ADC DR 16BIT 16LFCSP

差分放大器, 1GHZ, -40 至 85度, LFCSP-EP;

The ADA4938 is a low noise, ultralow distortion, high speed differential amplifier. It is an ideal choice for driving high performance ADCs with resolutions up to 16 bits from dc to 27 MHz, or up to 12 bits from dc to 74 MHz. The output common-mode voltage is adjustable over a wide range, allowing the ADA4938 to match the input of the ADC. The internal common-mode feedback loop also provides exceptional output balance as well as suppression of even-order harmonic distortion products. Full differential and single-ended-to-differential gain configurations are easily realized with the ADA4938. A simple external feedback network of four resistors determines the closed-loop gain of the amplifier. The ADA4938 is fabricated using the Analog Devices, Inc. proprietary third-generation, high voltage XFCB process, enabling it to achieve very low levels of distortion with an input voltage noise of only 2.6 nV/vHz. The low dc offset and excellent dynamic performance of the ADA4938 make it well suited for a wide variety of data acquisition and signal processing applications. The ADA4938-1 (single amplifier) is available in a Pb-free, 3 mm × 3 mm, 16-lead LFCSP. The ADA4938-2 (dual amplifier) is available in a Pb-free, 4 mm × 4 mm, 24-lead LFCSP. The pinouts have been optimized to facilitate layout and minimize distortion. The parts are specified to operate over the extended industrial temperature range of -40°C to +85°C. Applications ADC drivers Single-ended-to-differential converters IF and baseband gain blocks Differential buffers Line drivers Data Sheet, Rev. 0, 11/07