Adjustable support units position reflecting surfaces to direct specular light accurately.
Segmenting the drive operation member into integral and separate parts stabilizes roller pressing, reducing transmission loss in lens barrels.
A lens barrel uses distributed rolling members and an urging spring to maintain constant force application along the optical axis.
A camera device uses a lens holder groove to vent gas during adhesive curing.
Multiple serpentine springs maintain angular position by resisting translational drift during shipment or operation.
Localized energy-absorbing glue on the suspension member resists vibration forces, preventing adhesive fracture and maintaining image stability.
A five-element imaging lens uses aspheric surfaces to correct optical aberrations while maintaining a compact form factor.
Third rotation axis adjusts tilt angle to expand scanning area without increasing gyroscopic forces.
Screw rod and gear adjust display screen to lens distance for clear vision across different user eyesight conditions
Segmented single actuation coil distributes heat evenly across torsional arms, eliminating mechanical property variations caused by temperature gradients.
A lens clip holds an optical lens array at a predetermined position relative to laser diodes.
A logic IC selectively switches connections between camera body signals and lens memory or controller terminals, reducing communication line complexity.
A compact auto focusing lens assembly uses magnetic suspension and elastic members to position the lens along the optical axis.
Transfer printing segments fabrication to overcome compound semiconductor cost barriers while enabling compact photonic systems.
A lens module uses a segmented optical filter and air guiding groove to exhaust heat from the image side compartment.
A camera module lens assembly moves along a guide rail to retract optical components into the body.
A compact launch assembly pivots fiber ferrules to align local oscillator light.
Segmented support distributes impact forces through intermediary components, preventing disengagement without increasing the outer diameter of the lens barrel.
Segmenting the lens from the housing reduces replacement costs while maintaining structural simplicity.
Closed-loop capacitance feedback controls a piezoelectric actuator, maintaining focus consistency despite thermal drift and hysteresis.
Sloped support reduces stiction and pull-in voltage in varifocal lenses, resolving dielectric defects and fluid flow issues.
Magnetic rod transmission replaces complex gears to reduce part count and prevent tilting during zooming.
A control unit coordinates insertion and retraction of optical members on a shared plane to minimize switching time.
Inclined window member redirects stray reflections to expand scanning range while projection portions align frame members within base recesses.
Nesting the actuator inside a focus component recess maintains structural rigidity while allowing compact lens adjustment without external tilting.
Integral movement of the first two lens groups simplifies the focusing mechanism, reducing barrel size and manufacturing costs.
Segmented contact portions lock the rotational barrel against impact forces, preventing gear damage and maintaining image quality.
A hybrid optical filter switch module uses a metal first housing and plastic second housing to stabilize lens focus position.
Folded optical film edges create structural trusses that resist deflection, eliminating frame complexity while maintaining lens flatness.
Polycarbonate lens barrel composition combines glass fibers with specific lubricant ratios to reduce friction while maintaining dimensional stability.
Segmented plastic lens barrel with varying wall thicknesses improves roundness and flatness, addressing manufacturing precision limits in injection molding.
Optical lens alignment uses local oscillator signal fitting to determine precise Z-axis positions for photodetector integration.
A see-through display apparatus uses a deformable lens to generate multi-layered depth images from 2D content.
A sensor case seal structure uses screw fastening to press an O ring against a base member, creating a reliable barrier for moving shafts.
Reversing pixel readout order for phase difference detection eliminates autofocus response delays while maintaining measurement precision.
An isolation slot in a piezoelectric drive bracket isolates mounting stress, maintaining resonant frequency stability and reducing power consumption.
A wearable accommodation remote control measures focal distance to wirelessly adjust optical power, resolving presbyopia complexity.
A position detection apparatus outputs displacement signals with different periods to derive absolute and relative positions simultaneously.
Clearance fit between a resin lens fitting portion and lens barrel reduces axis misalignment caused by thermal expansion in vehicle stereo cameras.
Separate left and right sight distance and pupillary distance adjusting mechanisms resolve uneven image sharpness from synchronous adjustments.
Intersecting deflection axes at the mirror surface reduce optical path errors while compact lateral actuation fits limited spaces.
Flexible posts accommodate differential thermal expansion between the lens holder and circuit board substrate.
A hollow shaft drive device rotates orthogonal gears to direct light across a wide three-dimensional space.
A zoom optical system uses four lens groups with specific refractive powers to achieve compact size and light weight.
A liquid lens uses circumferential electrodes to control interface curvature and inclination for optical zoom and image stabilization.
A single-layer plastic lens with a continuous refractive index gradient consolidates optical functions into one component.
An adhesive lens assembly replaces mechanical frames with bonding layers to reduce volume and prevent lens deformation.
Integrated translation filters in ophthalmic lenses provide three-dimensional perception without cumbersome external glasses.
A camera module with a liquid lens adjusts imaging timing to stabilize optical performance.
Lenses using materials with zero or negative dn/dt values compensate for thermal expansion, maintaining image quality despite temperature fluctuations.