Methods for improving imaging quality of a small-distance high-speed rotational reflection tracking system

Area of Science:

• Optical Engineering
• Imaging Systems
• Robotics and Control

Background:

• High-speed tracking systems using rotating reflectors face imaging quality degradation.
• Key issues include double vision from reflector optics and depth of field limitations.
• These factors are particularly critical for systems operating at close ranges.

Purpose of the Study:

• To investigate and quantify the impact of reflector optical characteristics and depth of field on imaging quality.
• To develop and validate a method for improving imaging performance in rotational reflection high-speed tracking systems.

Main Methods:

• Theoretical analysis to quantify the effects of double vision and depth of field.
• Proposal of a hardware position adjustment method.
• Simulation and experimental validation of the proposed method.

Main Results:

• The study successfully quantified the detrimental effects of double vision and limited depth of field.
• The proposed hardware position adjustment method demonstrated significant improvements in imaging quality.
• Experimental results confirmed the effectiveness of the solution in enhancing system performance.

Conclusions:

• The developed method effectively mitigates imaging quality issues in high-speed tracking systems with rotating reflectors.
• This research provides valuable insights and a practical solution for improving optical tracking system performance.
• The findings offer a reference for researchers and engineers in the field of high-speed optical tracking.