BSL Equipment
Home / Signal Generators & Counters / RF & Microwave Signal Generators / Berkeley Nucleonics Corp. 202H Pulse Module

Berkeley Nucleonics Corp. 202H Pulse Module

Berkeley Nucleonics Corp. · Model: 202H Made to order
Berkeley Nucleonics Corp. 202H Pulse Module
Request a quote

Berkeley Nucleonics 202H is a 300V high-voltage pulse module with nanosecond risetimes and adjustable width for component testing, flashlamp gating, and pulse research.

Model 202H
Manufacturer Berkeley Nucleonics Corp.
Category RF & Microwave Signal Generators
Availability Made to order

Overview

The Berkeley Nucleonics 202H is a high-voltage pulse module designed for the BNC Model 6040 Mainframe. It delivers 300V output with nanosecond risetimes and very low jitter, making it ideal for testing components, gating flashlamps, triggering capacitor banks, and other high-voltage pulse experiments. Pulse amplitude and width are adjustable via the front panel or remote programming.

Key Features

  • 300V high-voltage output into 50 Ohms
  • Nanosecond risetimes with very low jitter
  • Adjustable pulse width from 3 ns to 5 ms
  • Adjustable delay from 0 ns to 5 ms (plus fixed delay)
  • Rise time: 400 ps typical
  • Internal trigger rate: 0.01 Hz to 100 MHz
  • External trigger rate: 0 to 100 MHz
  • Front panel and remote programming control
  • Multiple outputs: ECL, Pulse Out (from mainframe), High Voltage Pulse Out (BNC connector)

Applications

  • Component testing and characterization
  • Flashlamp gating and triggering
  • Capacitor bank switching
  • High-voltage pulse research and experiments
Output Voltage 300V
Output Impedance 50 Ohms
Pulse Width 3 ns to 5 ms
Delay 0 ns to 5 ms (plus fixed delay)
Rise Time 400 ps typical
Internal Trigger Rate 0.01 Hz to 100 MHz
External Trigger Rate 0 to 100 MHz
Output Types ECL, Pulse Out, High Voltage Pulse Out (BNC)
Berkeley Nucleonics Corp. 202H Pulse Module

Request a quote

Berkeley Nucleonics Corp. 202H Pulse Module

Response within 24 hours
No obligation
Direct communication

By submitting this form, you agree to the processing of your personal data in accordance with our privacy policy.