Mountings TRIZ Cases

Inorganic fillers raise thermal conductivity to 2.5 W/m-K, reducing optical misalignment from thermal expansion.

Segmented VO2 structure coupled via dielectric spacer overcomes fabrication complexity while achieving fourfold emittance increase.

A dynamic reflector mechanism adjusts mirror angles to maintain consistent imaging distance and reduce distortion across varying driver positions.

Storing aperture information in a reflective lens allows the camera body to calculate precise defocus amounts despite shielding changes.

A processor sets a narrower focus lens driving range based on a reference position to enable faster autofocus operations.

A movable opening member edge stabilizes the liquid lens interface for precise focal point adjustment.

Partitioned mirror housing separates front and rear spaces, allowing rear-side screw insertion to resolve poor visibility during assembly.

Clamping a separate stop between the lens group and barrel wall reduces thickness and weight while minimizing light reflection.

Coplanar contacting surfaces align lens holder and base, preventing skew during focus adjustment to maintain sufficient driving force.

Elastic spacer ring absorbs axial deformation of plastic lenses to maintain precise optical distances without distortion.

Nested within a delivery catheter, the dynamic mirror extends to visualize posterior ocular structures behind the iris.

Metallic insert members replace adhesive bonding to provide robust solderable connections, resolving circuit interruptions under intensive operation.

A lens structure uses a convex surface and annular groove to converge and reflect light for uniform extraction.

Elastic member between lenses exerts urging force to prevent rattling when caulking portions lift.

A lens apparatus switches between asynchronous and synchronous communication methods based on operational requirements.

A vision system lens module uses a stepped aperture and spring clip to mount multiple lens types on a single housing.

An orthogonal guide shaft moves lens frames along the optical axis, resolving compact zoom accuracy challenges.

A camera module uses a Hall sensor to detect magnetic member position before activating the electromagnetic actuator for precise lens barrel alignment.

An imaging optical lens assembly balances compact volume and high imaging quality by optimizing axial thickness ratios and curvature parameters.

A five-element optical imaging lens uses controlled surface curvatures to shorten total length while maintaining high imaging quality.

Segmenting the lens barrel into receiving spaces for optical elements and light blocking resolves assembly precision trade-offs while reducing stray light.

An inorganic meta optical element replaces polymeric lenses to minimize thermal distortions while correcting spherical aberrations.

A camera control system designates autofocus positions via touch drag operations while maintaining continuous tracking.

Kinematic retaining mechanism constrains lens barrel movement to maintain optical axis alignment under external forces.

A photographing lens system incorporates an optical path switching mechanism to reconfigure light paths between front and rear lens groups.

Segmenting the holding function from manipulation via a needle pin prevents optical path blockage and surface damage during micro-optics assembly.

Parallel frame reading and storage combine multiple exposures into one output period, preventing overexposure while maintaining smooth motion picture quality.

Beam splitter divides optical beams into independent lateral and angular sub-beams, resolving mechanical-optical axis misalignment in flexible delivery systems.

A lens module uses a protruding barrel portion attached to a recessed lens portion to align glass lenses within the optical assembly.

Alternating protrusion and separation structures on an annular optical element scatter stray light to reduce reflectivity.

A retractable reflecting component extends through a shell opening to direct light onto a fixed camera sensor.

A mobile camera module uses phase detection to determine initial step angles for rapid autofocus.

Positional adjustment suppresses eccentricity between the horn section and receiving base, ensuring precise lens alignment without complex fixed mechanisms.

An eight-element lens system uses glass and plastic materials to maintain optical performance.

Wafer level parts assembly reduces centering errors by merging components on a substrate using self-service alignment.

Optimizing the overlap degree to 2.55 or more suppresses light quantity unevenness caused by assembly errors in rod lens arrays.

Actuator extraction reduces outboard mass while dynamics principles enable precise field of view adjustment without increasing structural complexity.

A movable display module shifts along the optical axis to adjust object distance within a head-mounted display.

Bipod strut pairs with cross-blade flexures minimize thermal print-through and mechanical distortion in large precision mirrors.

A wearable telescopic imaging device captures magnified images through a beam splitter that directs light to both an eyepiece and a camera sensor.

Segmenting the lens assembly into modular groups resolves the trade-off between compact module size and ease of assembly.

Varying rib surface roughness guides optical axis alignment and diffuses unintended light reflection to reduce flare in multi-lens camera modules.

A six-element optical imaging lens assembly uses specific refractive powers to achieve a large aperture ratio.

Single-phase polycrystalline opto-ceramics overcome conventional glass limitations by enabling nearly apochromatic imaging behavior.

A focus detection device selects AF pixel pairs based on exit pupil distance to maintain precision.

A sense capacitor formed by electrical traces on a lens and holder detects lens presence through capacitance sensing.

A 3D imaging autofocus mechanism adjusts focus lenses using stored displacement data to compensate for individual unit differences.

Segmenting optical components into two refractive elements with distinct thermal properties compensates for temperature-induced wavefront distortion.

Segmented driving assemblies and resonance-based self-sensing eliminate complex external sensors, reducing device structure complexity and manufacturing costs.

A seven-lens imaging system uses aspherical surfaces to optimize light transmission and aberration correction within a compact optical path.