Analog-to-Digital Converters (ADCs)
Includes precision data-acquisition and high-speed sampling devices that convert analog signals from sensors, measurement systems, and communications front ends into data for digital processing.
Analog & Mixed-Signal Devices
Analog and signal chain components for signal acquisition, amplification, data conversion, and precision measurement, including amplifiers, ADCs, DACs, analog switches, and voltage references for industrial, medical, communications, and smart device applications.
Product Range
Includes precision data-acquisition and high-speed sampling devices that convert analog signals from sensors, measurement systems, and communications front ends into data for digital processing.
Generate precision control voltages or currents and high-speed waveforms, connecting digital control systems to analog output paths.
Operational, instrumentation, and differential amplifiers amplify, buffer, and drive weak signals for signal conditioning before and after conversion.
Determine whether a signal crosses a set threshold and provide outputs for state detection, fast triggering, and protection logic.
Switch among multiple analog input or output paths for multichannel measurement, calibration, and signal routing.
Provide a stable reference voltage for ADCs, DACs, and precision measurement circuits, supporting repeatable conversion and measurement.
Integrate signal-conditioning stages such as amplification and filtering for specific applications; some devices also integrate data conversion for multichannel acquisition or dedicated measurement paths.
Selection Focus
Check source impedance, signal amplitude, and common-mode voltage to match amplification, filtering, and protection. For multichannel acquisition, allow the switched input to settle before conversion.
Assess noise, offset, gain error, drift, and linearity across the amplifier, reference, and converter against the system accuracy target. ADC bit depth alone does not define accuracy.
Compare SAR, delta-sigma, and pipeline ADC architectures against resolution, signal bandwidth, channel count, and allowable latency; then verify sampling rate and conversion delay.
For high-speed acquisition, consider clock jitter’s effect on dynamic performance and match the digital interface rate to the host’s data throughput.
Choose the DAC output type for the required voltage or current range, update rate, and load; verify that buffering or current-to-voltage conversion can drive the load and settle in time.
Reference Models