Offset Lens Camera for Blind Spot Vision

The patent applies asymmetry by deliberately offsetting the lens from the center of the imaging array sensor. This asymmetric configuration positions the optical center at a specific distance from the sensor center, creating a non-uniform image distribution that concentrates higher resolution and lower distortion in the blind spot monitoring regions while accepting reduced quality in other areas. This resolves the contradiction by sacrificing symmetric balance to achieve superior measurement precision in critical areas.

The patent implements local quality by creating different image qualities at different regions of the sensor array. The offset lens configuration ensures that the blind spot monitoring regions receive higher resolution and lower distortion images, while other regions of the field of view have acceptable but lower quality. This local optimization resolves the contradiction by providing high measurement precision where it is most needed rather than uniformly across the entire field of view.

The patent uses asymmetric lens offset to strategically manage distortion distribution. By positioning the optical center away from the sensor center, the system accepts higher distortion in non-critical regions while maintaining lower distortion in blind spot areas. This asymmetric approach allows the wide angle lens to provide expanded field of view coverage while controlling distortion in the most important monitoring zones.

The patent applies local quality by allowing different distortion levels in different field of view regions. The offset lens configuration creates a distortion map where blind spot areas experience lower distortion for better measurement precision, while peripheral areas tolerate higher distortion to achieve comprehensive field of view coverage. This resolves the contradiction by optimizing image quality locally rather than globally.

The patent embraces local quality variations as a solution rather than a problem. The offset lens configuration intentionally creates non-uniform image quality across the sensor array, with enhanced resolution and stability in blind spot monitoring regions and acceptable quality elsewhere. This local optimization strategy resolves the contradiction by prioritizing composition stability in critical areas over global uniformity.

The patent uses asymmetric lens-sensor positioning to create deliberate quality variations. The offset configuration produces a stable, high-resolution image in the blind spot regions while accepting reduced uniformity across the entire field of view. This asymmetric design resolves the contradiction by making the image composition stable where it matters most for safety monitoring.

The patent applies asymmetry in the camera system design to prioritize blind spot monitoring performance. The offset lens configuration ensures that the most critical monitoring regions receive optimized image quality, thereby maintaining high driver awareness and safety despite the transition from conventional mirrors to camera-based systems. This resolves the contradiction by making the integrated system reliable in critical functions.

The patent implements local quality optimization to ensure that blind spot monitoring regions achieve sufficient image quality for reliable driver awareness. By concentrating optical resources and resolution in these critical areas through lens offset, the system maintains high reliability for safety-critical functions while accepting lower quality in non-critical regions, thus preserving overall system adaptability.