Ultrafast laser micro-stressing for correction of thin fused silica optics for the Lynx X-Ray Telescope Mission

Keyphrases

• Ultrafast Laser 100%
• Fused Silica 100%
• X-ray Telescopes 100%
• Lynx 100%
• Fused Silica Optics 100%
• Space Telescope 66%
• Laser-induced 66%
• Mirror Substrate 66%
• In Situ 33%
• Angular Resolution 33%
• Laser Micromachining 33%
• Optics 33%
• Material Properties 33%
• Correction Method 33%
• Wavefront Sensing 33%
• Microstructural Changes 33%
• Nonlinear Optical Response 33%
• Laser Pulse 33%
• Micromachining 33%
• Long-term Stability 33%
• Sensing System 33%
• Rapid Development 33%
• Ultrashort Laser Pulses 33%
• Precision Correction 33%
• Local Deformation 33%
• Micro-deformation 33%
• Local Stress 33%
• Femtosecond Laser Micromachining 33%
• Peak-to-valley 33%
• Deformation Changes 33%
• Surface Figure 33%
• Waveguide Fabrication 33%
• Fused Silica Substrate 33%
• Pulse Generation 33%
• Stress Change 33%
• Transparent Materials 33%
• RMS Slope 33%
• Capture Range 33%
• High Nonlinear 33%
• Figure Correction 33%
• Thin Mirror 33%
• Correctability 33%
• Femtosecond Laser Technology 33%
• Surface Ablation 33%
• Change Material 33%
• Femtosecond Laser Interaction 33%
• Stress Increase 33%
• Highly Controllable 33%
• Surface Peak 33%
• Resolution Requirements 33%
• Nonlinear Optical Phenomena 33%
• Integrated Stress 33%

Physics

• Optics 100%
• Ultrafast Lasers 100%
• X Ray Telescopes 100%
• Space Telescope 66%
• Laser Pulse 66%
• Laser Machining 66%
• Waveguide 33%
• Wavefront Sensing 33%
• Optical Phenomena 33%
• Micromachining 33%