Analog Devices Manuals

AD605 is a dual-channel, low-noise, single-supply variable gain amplifier manufactured by Analog Devices. AD605's input noise is 1.8nV/√Hz, 2.7pA/√Hz at maximum gain, bandwidth is 40MHz (-3dB), differential input absolute gain range is programmable from -14dB to +34dB (FBK shorted to OUT) through 0dB to +48dB (FBK open). Variable gain scaling is 20dB/V through 40dB/V. AD605 has stable gain, temperature and power variations, single-ended unipolar gain control output common mode independently set power shutdown at the lower end of gain control. AD605 uses single 5V supply, low power is 90mW/channel, and can directly drive A/D converters.

The AD604 is a dual-channel, low-noise, variable gain amplifier from Analog Devices. The AD604 features ultralow noise, high accuracy, programmable gain ranges, and gain scaling, and can be used in ultrasound and sonar applications.

The AME8808 is a 750mA low dropout linear regulator from Analog Microelectronics, Inc. It features 30µA quiescent current and 1.5% accuracy, and is ideal for battery applications. It can be used in instrumentation, portable electronics, wireless devices, cordless phones, PC peripherals, battery powered widgets, and electronic scales.

The AD603 is a low noise, voltage-controlled amplifier for use in RF and IF AGC systems. It provides accurate, pin selectable gains of -11 dB to +31 dB with a bandwidth of 90 MHz or 9 dB to 51 dB with a bandwidth of 9 MHz. Any intermediate gain range may be arranged using one external resistor. The input referred noise spectral density is only 1.3 nV/√Hz and the output referred power spectral density is -126 dBm/Hz. The device has good linearity, with a maximum gain error of ±0.5 dB and a dynamic range of 60 dB.

AD603 is a low noise, voltage-controlled amplifier from ADI that provides accurate, pin selectable gains of -11 dB to +31 dB with a bandwidth of 90 MHz or +9 dB to +51 dB with a bandwidth of 9 MHz. Any intermediate gain range may be arranged using one external resistor. The input referred noise spectral density is only 1.3 nV/√Hz and power consumption is 125 mW at the recommended ±5 V supplies.

The AD600/AD602 are dual channel, low noise, wideband variable gain amplifiers optimized for use in ultrasound imaging systems but are applicable to any application requiring precise gain, low noise and high bandwidth.

AD8033/AD8034 are low-cost, 80 MHz FastFET™ op amps with features such as FET input, high speed, low noise, wide supply voltage range, and low power consumption.

The AD8031/AD8032 are Analog Devices' low power, high speed, full range input output amplifiers with 800uA current and 80MHz bandwidth.

AD8029/AD8030/AD8040 is a low power, high speed, rail-to-rail input/output amplifier. It features low power consumption, high speed, rail-to-rail input/output, etc.

AD8027/AD8028 is a low distortion, high speed rail-to-rail input/output amplifier. It features a high speed 190 MHz bandwidth, 100 V/µs slew rate, low distortion of 120 dBc @ 1 MHz SFDR, low noise of 4.3 nV/√Hz, low offset voltage of 900 µV max, etc. It is suitable for applications such as filters, ADC drivers, level shifting, buffering, professional video, low voltage instrumentation, etc.

AD8026 is a low cost, closed loop, voltage feedback, quad amplifier. Precision trimmed resistors set a fixed RF/RG ratio of 5/3 to a typical gain accuracy of 0.02%

The AD8024 is a low settling time, high-speed, high output voltage quad current feedback operational amplifier. It is manufactured on ADI’s proprietary high gain low noise process and features high output drive capability and low power consumption. The AD8024 is ideal for LCD column drivers, high performance test equipment, video line drivers and ATE applications.

The AD8023 is a high current output drive, high voltage output drive, triple video amplifier. Each amplifier has 70 mA of output current and is optimized for driving large capacitive loads. The amplifiers are current feedback amplifiers and feature gain flatness of 0.1 dB to 10 MHz while offering differential gain and phase error of 0.06% and 0.02°.