iStar DH320T ICCD Camera for High-Speed Time-Resolved Spectroscopy

Specifications

Sensor Type: iCCD
# Pixels (Width): 1024
# Pixels (Height): 255
Pixel Size (Square): 26 um
Peak Quantum Efficiency: 50 %
Full Frame Rate: 15 fps
Bit Depth: 16 bit
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Features


  • USB 2.0 Connection: Simple Plug & Play connectivity for ease of use.

  • Multi-MHz Readout Speeds: Enables rapid image capture for fast transition phenomena analysis and “focusing mode”.

  • Integrated Digital Delay Generator: Comprehensive software controls for seamless experiment integration.

  • Close-Coupled Gating: Achieves true optical gating speeds of less than 2 ns for ultimate temporal resolution.

  • Lowest Insertion Delay: As low as 19 ns for precise timing control.

  • Fibre-Optic Coupling: Ensures high optical throughput without vignetting.

  • IntelliGate™ MCP Gating: Offers On/Off ratios greater than 108 in the UV spectrum.

  • Photocathode Gating Rate: Up to 500 kHz, enhancing the Signal to Noise ratio for high-speed laser-based experiments.

  • Cropped Sensor Mode: Specialized acquisition mode for achieving the fastest image acquisition rate.

  • High Resolution Gen 2 and 3 Intensifiers: Provides the highest available intensifier resolution with QE greater than 50% and sensitivity options from 120 nm to 1,100 nm.

  • Thermo-Electric Cooling: Cools down to -40°C, ideal for low-light applications.

  • Real-Time Control: Intuitive Windows user interface for real-time acquisition optimization.

  • Photocathode Dry Gas Purge Port: Provides further EBI reduction for low-light applications.

Applications


  • Time-Resolved Spectroscopy: Ideal for ns-scale studies of fast transient phenomena in atomic and molecular physics.

  • Plasma Diagnostics: Enables detailed plasma emission measurements with high temporal resolution.

  • Laser-Induced Fluorescence (LIF): Provides gated detection for sensitive LIF experiments.

  • Raman Spectroscopy: Enhances signal-to-noise ratio in gated Raman setups.

  • Fluorescence Lifetime Studies: Suitable for nanosecond-scale fluorescence decay measurements.

  • High-Speed Kinetics Studies: Captures rapid spectral changes in chemical dynamics research