Adaptive Optics Teaching and Demonstration System
The Qijing Technology adaptive optics teaching demonstration system is an Adaptive Optics (AO) experimental platform for university teaching and research. Through real-time wavefront measurement and feedback control, it demonstrates the entire process from wavefront aberration generation to correction, helping users understand the basic principles and operation of adaptive optics. Its compact structure and flexible configuration suit undergraduate and postgraduate demonstrations as well as basic research experiments. It combines practical teaching with research extensibility and good cost effectiveness. Far-field spots under the first 9 aberration terms, excluding tilt. Deformable mirror generation of nondiffracting Airy beams.
Save to Favorites
Overview
Applications
Key Features
Datasheet
Please provide your email to download the datasheet.
Invalid email format. Please try again.
Supplier Information
Related Products
-
Atmospheric Turbulence Simulation System
Adaptive Optics
Qj-mirror
Atmospheric Turbulence Simulator Based on a Single-Piezo Deformable Mirror; Uses Taylor's Frozen-Turbulence Theory to Simulate Dynamic Phase Screens, Monitored by a Wavefront Sensor. An In-House Single-Piezo Mirror Acts as the Aberration Simulator for Different Turbulence Strengths.
-
Adaptive Optics System
Adaptive Optics
Qj-mirror
Adaptive Optics System, Closed-Loop Rate 500Hz, Residual Corrected Wavefront <20nm rms; Defocus Wavefront PV>±10μm, First Mirror Resonance >1.5 kHz.
-
Deformable Mirror DM69-08
Adaptive Optics
Thetaoptics
Number of Actuators: 69 Aperture Diameter: 5.6 mm Actuator Spacing: 0.8 mm
Deformable mirrors, also called wavefront correctors, mainly serve adaptive optics. They alter incident phase by changing optical path length or the transmission medium's refractive index to correct wavefront phase. Many independently controlled elements reshape the surface under applied voltage to correct wavefront errors, making them essential adaptive optics components. ALPAO of France uses electromagnetic actuation: energized voice coils move magnets attached to a mirror membrane to change its shape. ALPAO has over 10 years of adaptive optics experience. The source cites applications including multi-object adaptive optics (MOAO) on the 8.2-meter Subaru telescope, zebrafish brain imaging in the Betzig laboratory associated with the 2014 Nobel Prize, and the 39-meter E-ELT. One mirror supplied for E-ELT has 12000 elements.
-
Deformable Mirror DM69-15
Adaptive Optics
Thetaoptics
Number of Actuators: 69 Aperture Diameter: 10.5 mm Actuator Spacing: 1.5 mm
Deformable mirrors, also called wavefront correctors, mainly serve adaptive optics. They alter incident phase by changing optical path length or the transmission medium's refractive index to correct wavefront phase. Many independently controlled elements reshape the surface under applied voltage to correct wavefront errors, making them essential adaptive optics components. ALPAO of France uses electromagnetic actuation: energized voice coils move magnets attached to a mirror membrane to change its shape. ALPAO has over 10 years of adaptive optics experience. The source cites applications including multi-object adaptive optics (MOAO) on the 8.2-meter Subaru telescope, zebrafish brain imaging in the Betzig laboratory associated with the 2014 Nobel Prize, and the 39-meter E-ELT. One mirror supplied for E-ELT has 12000 elements.
Related Articles
The petrochemical industry features continuous high-risk production, where production equipment operates uninterruptedly under extreme working conditions including high temperature, high pressure, strong corrosion and oxidation.
Driven by the continuous pursuit of higher precision and efficiency in optical communication and optoelectronic device manufacturing, OLCR-1000 Low-Coherence Interferometer, independently developed by Wuhan Guanggu Interconnect Technology Co., Ltd., provides an innovative technical solution for distributed return loss testing of optical fibers and optoelectronic devices.
Driven by the rapid upgrading of intelligent vehicles, optoelectronic sensing technologies represented by laser sensing and infrared thermal imaging have become core pillars for high-level autonomous driving and smart cockpit iteration. Leveraging automotive-grade optoelectronic R&D advantages, Pilot Technology Group launches the VITAL intelligent vehicle solution. By integrating high-power VCSEL laser chips and vehicle infrared night-vision thermal imagers, the system comprehensively enhances vehicle environmental perception and realizes safer, smarter and more comfortable driving experiences.
Fiber lasers and fiber amplification systems require excitation sources with stable wavelength, narrow spectral linewidth and consistent output power.
Loading...
Name
Phone
Organization
Use Case
Database Platform