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Characterization of a picosecond gated optical intensifier
1Sydor Technologies, 291 Millstead Way, Rochester, New York 14624, USA.
The Review of Scientific Instruments
|November 8, 2018
Summary
We tested a new picosecond gated optical intensifier for high-temperature plasma diagnostics. This high-speed imaging detector offers precise timing and fast gating, crucial for optimizing plasma performance.
Area of Science:
- Plasma physics
- Optical engineering
- Detector technology
Background:
- High-speed imaging detectors are essential for characterizing and optimizing high-temperature plasmas.
- Key performance parameters include precise timing, high spatial resolution, low noise, high gain, and fast gating.
Purpose of the Study:
- To present test results for a picosecond gated optical intensifier designed for plasma diagnostics.
- To evaluate the intensifier's suitability for meeting stringent performance requirements.
Main Methods:
- Testing a Kentech picosecond gated optical intensifier, part of a Sydor detector solution.
- Utilizing a pulsed laser to assess gate profile and spatial resolution performance.
- Measuring jitter (standard deviation of 4 ps) and gate widths (<80 ps).
Main Results:
- The intensifier demonstrated low jitter (SD 4 ps) and fast gate widths (<80 ps).
- Spatial resolution performance was evaluated at various points within the gate.
Conclusions:
- The tested picosecond gated optical intensifier shows promise for high-temperature plasma characterization.
- Its precise timing and fast gating capabilities align with the demands of advanced plasma diagnostics.
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