Application in optical design: Optimization for high intensity and aberration free camera lens system

The cost of a camera device has risen considerably in the last decade due to the optical lens element. Imaging system aberration is primarily caused by the different types of elements. The cost of an optical lens element is also related to the quality of the imaging system. The research proposes a unique optical design with reduced and optimized lens elements while maintaining high output quality. The research proposes the analysis and design of an optical imaging system with a reduced optical lens element. This paper looks at how sequential ray tracing algorithms use fine-tuned bespoke and commercial optical design and suggests more fine-tuning to improve imaging quality. Design stages also include automatic global synthesis, asphere expert, and glass expert, all of which must be correctly optimized to reduce error and improve performance. The proposed design is evaluated utilizing optical simulator analysis features such as the Modulation Transfer Function (MTF), Spot diagram and Quick ray aberration, and Error function to test its performance. The wavefront differential approach blends TOR (full form is needed) analysis for measuring the performance impact of manufacturing and assembly errors with diffraction MTF performance measurements. In both qualitative and quantitative terms, the proposed imaging system outperforms the existing imaging system. [Display omitted] •An objective of our research is on the redundancy of optical lens elements in existing commercial design.•Designing imaging system using sequential ray-tracing based algorithms.•Develop initial design (existing system) with optical parameters and design specifications.•Design Three optical element systems with the best output performance analysis from the four optical element systems using optimization techniques.•An evaluate proposed optical design by Code V analysis such as Modulation transfer function, Quick ray aberration, and Spot diagram.