Red-to-Near-Infrared Acousto-Optic Modulators AOMO 3095-1990
AOMO 3095-1990 is a red-to-near-infrared acousto-optic modulator using tellurium dioxide as the acousto-optic medium. Designed for high-speed beam modulation, beam positioning and frequency control in red and near-infrared laser systems, it provides high diffraction efficiency, stable acousto-optic interaction and excellent beam control to meet modulation-accuracy, beam-pointing stability and system-reliability requirements in precision optics. The excellent acousto-optic properties of TeO₂ allow AOMO 3095-1990 to provide efficient, stable modulation, precise frequency control and diffraction-angle adjustment, supporting reliable beam positioning and dynamic intensity modulation while maintaining good beam quality. Optimized for the red-to-near-infrared band, it provides stable beam-delivery control for complex photonics platforms and applications requiring both beam modulation and spatial positioning. Applications include optical testing and measurement platforms, research laser systems, laboratory photonics equipment, precision optical instruments and other red and near-infrared laser applications, providing reliable integrated beam modulation, frequency control and beam positioning for high-performance laser systems.
Overview
Specifications
| Parameter | Value |
|---|---|
| Applicable Wavelength Band | Red Light - Near Infrared |
| Minimum Wavelength | 680 nm |
| Maximum Wavelength | 1300 nm |
| Center Frequency | 95 MHz |
| Clear Aperture Dimension | 1.3 mm × 1.3 mm |
| Acousto-optic Medium | TeO₂ |
| Acoustic Velocity | 4.2 mm/μs |
| Rise/Fall Time | 159 ns |
| RF Bandwidth [-13 dB Return Loss] | 60 MHz(@ -13 dB Return Loss ) |
| Input Impedance | 50 Ω |
| Standing Wave Ratio | ≤ 1.65:1 |
| Insertion Loss | ≤ 5% |
| Single-Surface Reflectance | ≤ 2% |
| Optical Power Density | <250 W/mm² |
| Extinction Ratio | ≥1000:1 |
| Polarization | At a 90° angle to the mounting plane |
| Operating RF Power [Wavelength :680 nm] | 0.86 W |
| Bragg Angle [Wavelength :680 nm] | 10.13 mrad |
| Beam Separation Angle [Wavelength :680 nm] | 20.26 mrad |
| Operating RF Power [Wavelength :1064 nm] | 2.2 W |
| Bragg Angle [Wavelength :1064 nm] | 10.13 mrad |
| Beam Separation Angle [Wavelength :1064 nm] | 20.26 mrad |
| Operating RF Power [Wavelength :1300 nm] | 2.2 W |
| Bragg Angle [Wavelength :1300 nm] | 10.13 mrad |
| Beam Separation Angle [Wavelength :1300 nm] | 20.26 mrad |
| Diffraction Efficiency [Beam Diameter :800 µm; Wavelength :680 nm] | 90% |
| Rise Time [Beam Diameter :800 µm; Wavelength :680 nm] | 128 ns |
| Diffraction Efficiency [Beam Diameter :800 µm; Wavelength :1064 nm] | 90% |
| Rise Time [Beam Diameter :800 µm; Wavelength :1064 nm] | 128 ns |
| Diffraction Efficiency [Beam Diameter :800 µm; Wavelength :1300 nm] | 80% |
| Rise Time [Beam Diameter :800 µm; Wavelength :1300 nm] | 128 ns |
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