Threaded engagement between a lock collar and adjustment screw prevents misalignment while maintaining manufacturing simplicity.
A lens assembly incorporates a UV absorber within its water-repellent layer to protect optical components from radiation damage.
A spacer with a protrusion portion guides a light-shielding sheet along the optical axis to maintain precise alignment against lens elements.
Optimizing axial distances and refractive power in a five-lens module reduces volume while maintaining image quality.
An ophthalmic lens with a specific aspheric curvature ratio resolves the trade-off between wide field of view and ghost imaging.
An integrated feedback control circuit in a liquid lens assembly compensates for thermal drift and orientation changes, reducing processor burden.
Replacing screws with adhesive bonding eliminates optical axis misalignment caused by thermal stress and fastening pressure.
Protrusive structures on a plastic lens barrel reduce stray light, addressing edge illumination loss in compact imaging systems.
Segmenting actuator movement into phases distributes restoring forces, lowering energy consumption and actuator size.
Time-division driving segments the target area into subregions scanned sequentially, eliminating crosstalk while reducing circuit complexity.
Directly affixed micromolding lenses form a self-supporting stack that reduces z-height and thermal shift without requiring lens barrels.
Adjusting scanning lens size and position modifies lateral magnification across different polygon mirror configurations.
An intermediate layer deposited by chemical vapor deposition improves adhesion while maintaining optical properties.
An optical apparatus uses an elastic member between a pressing member and biased member to maintain lens alignment.
A passive infrared lens design uses meniscus elements to maintain focus stability.
Snapping tabs prevent lateral snap and stiction during voltage spikes, ensuring stable recovery.