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Keithley’s SourceMeter Source Measure Unit (SMU) instruments give both device test engineers and power module design engineers the tools they need to make the measurements they require. Whether they’re familiar with curve tracers, semiconductor parameter analyzers, or oscilloscopes, they can obtain accurate results simply and quickly. This application note highlights some of the most commonly performed tests, the challenges associated with them, and how Keithley SMU instruments and ACS Basic Edition Software can simplify the testing process.

Keithley’s Series 2400 Source Measure Unit (SMU) Instruments are designed specifically for test applications that demand tightly coupled sourcing and measurement. All SourceMeter models provide precision voltage and current sourcing as well as …

Keithley has taken the power of its Automated Characterization Suite (ACS) software and focused it on wafer level reliability (WLR) testing. ACS-WLRFL is an added functionality to ACS that leverages the measurement speed and system integration …

Watch this demonstration of a breakdown test on a Silicon Carbide MOSFET using a Keithley 2657A High Power System SourceMeter™ SMU Instrument, 8010 Test Fixture, and KickStart Software.

MAKE MULTIPLE MEASUREMENTS ACCURATELY USING A SINGLE INSTRUMENT A source measure unit (SMU) instrument is a five-in-one tool. It combines the useful features of a digital multimeter (DMM), power supply, current …

This primer discusses methods for efficient, flexible test and characterization throughout the life cycle of a power semiconductor device.

Design and production of today’s semiconductors and power modules based on silicon carbide and gallium nitride demand more rigorous testing than with previous generations.  This technical brief provides information on how to cost-effectively achieve safe, accurate, and reliable testing to meet precise design requirements.

Selector guide for Keithley text fixtures

This selection guide provides the information you need to select the best hardware and software for your power device characterization requirements.

This e-guide explores some of the most common DC current vs. voltage (I-V) tests being performed today, the seemingly inherent complications posed by each, and how new techniques can help to not only overcome these challenges but enhance efficiency and productivity, as well.