Ensure peak device performance with a suite of specialized instruments.
Microelectromechanical systems (MEMS) require painstaking testing and validation, but the right tools can assist with integration, design, and verification. Whether the MEMS device is optical, acoustic, or mechanical, Moku can help. From a Phasemeter and Lock-in Amplifier to common test essentials like an Oscilloscope, Spectrum Analyzer, and Waveform Generator, it’s easy to integrate custom test setups into your experiment.
Learn how researchers at Southeast University in China are streamlining MEMS control and test processes.
Explore user case studies, comprehensive application notes, and detailed configuration guides to improve MEMS control and characterization.
Yes. Multi-Instrument Mode allows you to use one device to simultaneously generate a drive signal, using the Waveform Generator, and measure the response, using either the Lock-in Amplifier, Oscilloscope, or Phasemeter. This makes it ideal for characterizing MEMS resonators, performing Q-factor measurements, or closing feedback loops in inertial sensing applications, without needing to chain together separate instruments.
Moku devices use ADC blending techniques on its analog frontend to maximize noise performance, with adjustable coupling, impedance, and attenuation.This allows precise detection of small voltage or current outputs typical of piezoelectric or capacitive MEMS devices. For especially weak signals, the Lock-in Amplifier can extract amplitude and phase information well below the noise floor, making it a powerful tool for MEMS displacement or motion sensing.
Yes. The Moku Python API lets you automate every step of your measurement process, from stimulus generation and parameter sweeps to data logging and result analysis. You can integrate it with existing software stacks or production benches without needing low-level drivers, enabling repeatable, scriptable testing for MEMS validation.
