Dual Channel AOM Power Stabilization Servo Controller 60-350MHz 2.5W

Specifications

Frequency Range: 60-350 MHz
Frequency Adjustment Accuracy: 1 Hz
Frequency Switching Time: 25 ns
Maximum RF Output Power: 2.5 W
RF Output Impedance: 50 Ω
External Trigger Level: 0-3.3 V
Analog Voltage Input Range: -10 to 10 V
Supply Voltage: 24 V
Communication Interface: USB/Type-C, optional

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Features

Key Features – Dual-Channel AOM Power Stabilization Servo Controller

  • Dual-channel AOM power stabilization controller designed for precision laser power control in acousto-optic modulator (AOM) based optical systems.
  • Integrated RF signal generation and control enables adjustment of RF frequency and RF intensity for stable and repeatable laser output power.
  • Wide RF frequency range of 60–350 MHz supports a broad selection of AOM devices and laser power stabilization applications.
  • High-resolution frequency tuning with 1 Hz adjustment accuracy provides precise RF control for demanding photonics, laser, and optical measurement systems.
  • Ultra-fast frequency switching time of 25 ns supports rapid modulation, fast optical switching, and dynamic laser power control.
  • Up to 2.5 W RF output power delivers strong drive capability for compatible AOM power stabilization optical modules.
  • High-precision dual-channel DDS architecture offers ultra-low-noise RF signal generation for stable and accurate optical power regulation.
  • 50 Ω RF output impedance ensures standard RF matching and compatibility with common AOM drivers, RF cables, and optical modulation setups.
  • External trigger input level of 0–3.3 V allows convenient synchronization with control electronics, timing systems, and experimental setups.
  • Analog voltage input range from -10 V to +10 V enables flexible external control of RF output power and laser intensity stabilization.
  • 24 V DC supply voltage provides convenient integration into laboratory, OEM, and industrial laser control platforms.
  • USB Type-C communication interface supports easy connection, configuration, and software-based control; optional communication configurations are available.
  • Designed for use with AOM power stabilization optical modules to reduce laser power drift and improve long-term optical output stability.
  • Suitable for precision photonics applications including laser power stabilization, optical modulation, laser intensity control, spectroscopy, quantum optics, microscopy, interferometry, and laboratory automation.
  • Software control panel support allows users to configure operating parameters, monitor settings, and manage RF control functions through a computer interface.
  • Compact and application-ready RF servo controller solution for researchers, system integrators, and OEM laser equipment manufacturers requiring stable dual-channel AOM control.
  • Manufactured by CSRayzer Optical Technology Co., Ltd., a specialist in special optic devices for advanced laser and photonics systems.

Applications

Applications of Dual-Channel AOM Power Stabilization Servo Controller

  • Laser power stabilization: Used with an AOM power stabilization optical module to maintain stable laser output power in precision optical systems.
  • Dual-channel laser intensity control: Ideal for applications requiring independent RF control of two AOM channels, two laser beams, or two optical paths.
  • Acousto-optic modulator RF driving: Provides high-precision RF signal generation for compatible AOMs operating within the 60–350 MHz frequency range.
  • Laser noise suppression: Helps reduce laser intensity fluctuation and improve power stability for low-noise photonics experiments and optical instruments.
  • Precision spectroscopy: Suitable for absorption spectroscopy, fluorescence spectroscopy, Raman spectroscopy, saturated absorption spectroscopy, and other laser-based measurement systems requiring stable optical power.
  • Quantum optics and atomic physics: Used in cold atom experiments, ion trapping, atom interferometry, optical pumping, and quantum research platforms where stable laser intensity is critical.
  • Optical tweezers and optical trapping: Enables stable beam power control for optical manipulation, particle trapping, and biological sample handling.
  • Microscopy and bio-imaging systems: Supports stable laser illumination in confocal microscopy, fluorescence microscopy, multiphoton microscopy, and laser scanning imaging setups.
  • Interferometry and metrology: Improves measurement repeatability in laser interferometers, displacement measurement systems, precision metrology, and optical sensing platforms.
  • Holography and beam modulation: Provides stable RF control for AOM-based beam modulation in holographic imaging, optical beam shaping, and spatial light control systems.
  • Laser material processing: Applicable in precision laser marking, laser trimming, micromachining, and laser processing systems requiring controlled and repeatable laser power.
  • Semiconductor and lithography systems: Supports stable optical power delivery in semiconductor inspection, mask alignment, wafer metrology, and photolithography-related laser systems.
  • Fiber laser and solid-state laser systems: Can be integrated into laser platforms using AOMs for power regulation, beam switching, and intensity stabilization.
  • Laser pulse and beam switching: The fast frequency switching capability is useful for AOM-based beam gating, optical switching, and pulse selection applications.
  • Frequency shifting applications: Suitable for systems using AOMs to introduce controlled optical frequency shifts for heterodyne detection, Doppler measurements, and laser frequency control.
  • Optical communications and photonics testing: Useful in optical link testing, modulated light source control, fiber optic experiments, and photonic device characterization.
  • LiDAR and laser ranging systems: Helps maintain consistent laser power in research and industrial LiDAR, ranging, and optical detection setups.
  • OEM laser instrumentation: Suitable for integration into OEM optical instruments, laser modules, laboratory automation systems, and custom photonics platforms.
  • Research laboratory laser control: Provides precise DDS-based RF frequency and amplitude control for universities, R&D laboratories, and advanced optical experiment setups.
  • Automated laser power feedback systems: Supports analog voltage input and external trigger control for closed-loop laser power stabilization and automated experimental workflows.