Mountings TRIZ Cases

Segmented SMA modules drive movable parts for autofocus and stabilization, reducing structure complexity.

A scanning optical device routes a cable harness to overlap the light beam, reducing wiring length.

Threaded spacer fitting aligns lens groups within the barrel, correcting misassembly errors during integration.

A one-piece block housing parallel optical groups eliminates manual alignment of multiple components, reducing calibration time and specialized labor costs.

An optical module uses an inclined groove to slide a second lens along the optical axis, preventing axis shift and improving imaging quality.

Rotatable elastic members integrated into the housing push the optical component radially, eliminating complex external tools for precise axis alignment.

A reflective module assembly integrates a damper structure to absorb impact energy during optical image stabilization movements.

Segmented operating part with detachable cover resolves complexity trade-offs while maintaining shock resistance and stability.

Segmented structure groups with radial adjustment nodes and elastic pads reduce deformation in lightweight optics.

Beveled edges on a tubular lens mount enable three-point suspension that maintains collinear centerlines despite loose assembly tolerances.

Tapered adhesive surfaces guide bonding material into gaps between stacked lens elements, preventing shifts and uneven distribution during assembly.

A camera module autofocus actuator uses a plastic guide pin and spheres to maintain optimal friction for lens carrier movement.

An electromagnetic lens drive uses an anti-tilt mechanism to stabilize lens movement along the optical axis.

Adjustable facial interface mechanism moves lens depth relative to the wearer's face.

Pre-formed engaging and concave portions in the lens holder ensure precise concentricity of stacked lenses, resolving assembly tolerance issues.

A lens barrel index ring displays dual scales for normal and macro modes to maintain consistent focus ring movement.

Elastic member between spacer and lenses enables simultaneous alignment of multiple lens widths.

Digital light path length modulators in a modulation stack create multi-focal 3D images, eliminating fragile mechanical components and reducing system size.

A segmented optical lens assembly uses fixed and moving groups to capture high-quality telephoto images in compact electronic devices.

A lens driving mechanism uses a leaf spring to connect the holder and frame for precise optical movement.

Adjust seat rings undergo opposite axial thermal deformations to maintain focal length stability in camera systems.

Melt-coupled reinforcing members join the lens barrel and holder, eliminating adhesive thermal deformation that degrades resolution.

An electromagnetic lens driver uses magnetic force to induce friction, holding the optical module in place without continuous power.

An S-shaped flexible circuit board counteracts twisting and pulling forces on the lens assembly, improving image stabilization.

Embedding a metal member with protrusions in the lens rim prevents deformation from impact forces during auto-focusing operations.

Elastically meshing gears and compression coil springs absorb mechanical energy in the rearview mirror drive mechanism.

Ultrasonic vibration in a MEMS piezoelectric actuator enables precise lens motion control while reducing actuator size and manufacturing cost.

A de-icing window conducts heat from the lens barrel to prevent ice formation on camera lenses.

A rearview mirror pivot uses orthogonal axes and a spring clip to enable dual-axis rotation.

A lens movement assembly adjusts inter-lens distance to match user interpupillary spacing.

Concentric annular sections with variable pitch structures suppress aspect ratios, maintaining structural stability while achieving high diffraction efficiency.

A lens barrel system uses adhesive injection through a ring frame to secure optical components without mechanical contact.

Varying microlens curvature optimizes pupil division for focus detection while suppressing pixel crosstalk to improve imaging quality.

Shape memory alloy wires drive a movable structure to deform an elastic lens for precise optical focusing.

Coupling protrusions align optical axes between lens groups, reducing manufacturing tolerance sensitivity and assembly difficulty.

A camera body adjusts focus lens driving based on zoom position data to maintain image stability during video recording.

Surrounding the side surface of an imaging module with a dedicated holding unit improves coupling strength and protects against mechanical impacts.

A lens cam barrel uses a resin layer to absorb external impacts and prevent surface denting.

Piezoelectric actuators deform a flat lens surface to replace mechanical parts, eliminating moving components while maintaining autofocus and zoom capabilities.

Segmented housing and orthogonal adjustment mechanisms maintain precise alignment in harsh environments.

Side-mounted rods with matched holes allow direct plate securement at varied angles, resolving assembly complexity and manufacturing cost trade-offs.