Keithley 2657A: The Ultimate High-Power System SourceMeter SMU Instrument for Precision Testing

Keithley 2657A High Power System SourceMeter SMU Instrument Unleash Precision and Power in Your High-Current Applications The Keithley 2657A High Power System SourceMeter SMU Instrument is a cutting-edge solution for demanding high-current applications. With its exceptional precision, wide measurement range, and unparalleled power handling capabilities, the 2657A empowers engineers and researchers to push the boundaries of their designs. Product Specifications: Current Source/Sink: ±10A DC, 100A pulsed Voltage Source/Measure: ±100V DC, 1000V pulsed Power Dissipation: 1000W continuous, 2000W pulsed Measurement Resolution: 10fA, 100nV Features and Benefits: High-Current Precision: Measure and source currents with unmatched accuracy, enabling precise characterization of high-power devices. Wide Measurement Range: Capture a vast range of current and voltage values, providing comprehensive insights into device behavior. Exceptional Power Handling: Handle high power levels with ease, allowing for testing of demanding power electronics and energy storage systems. Pulsed Operation: Generate high-power pulses for transient analysis and dynamic characterization. Intuitive Interface: Navigate seamlessly through the instrument’s advanced features with a user-friendly touchscreen interface. Remote Control: Automate measurements and integrate the 2657A into complex test systems via GPIB, USB, or Ethernet connectivity. Value to the Customer: The Keithley 2657A High Power System SourceMeter SMU Instrument empowers customers to: Accurately characterize high-power devices and systems Optimize power efficiency and performance Test and validate energy storage solutions Advance research and development in power electronics* Enhance product quality and reliability With its unparalleled precision, power handling capabilities, and ease of use, the Keithley 2657A is the ultimate tool for engineers and researchers seeking to unlock the full potential of their high-current applications.