Mountings TRIZ Cases

By moving the stopper outside the filter element and below its top surface, this case cuts camera module height and avoids part collisions.

When an object nears the lens, AE is paused to preserve the intended darkening effect during transition shooting.

Alternating curved and trimmed mounting surfaces make lens barrel shrinkage more uniform, reducing assembly stress and coaxiality errors.

Multiple detectors and on-chip histograms resolve several targets in one field of view while improving time-of-flight distance accuracy.

Insert-molded fixing and an isolating article let an imaging lens module shrink in size while preserving strength, optical quality, and heat dissipation.

Selective RGB meta-photodiodes replace color filters to improve light use, preserve resolution, and support autofocus pixels.

Roughened size-reduction surfaces and controlled lens thickness ratios help compact imaging modules maintain optical performance and manufacturability.

A flange-supported stereo camera holder and flexible board reduce vibration transfer, keeping 3D component position measurement accurate.

Orthogonal piezo loading and Poisson-effect motion reduction enable picometer positioning while maintaining high stiffness and load capacity.

A lever-driven gear mechanism adjusts lens spacing in wearable optics to match different eye positions with precise, user-friendly alignment.

Separate focus and anti-shake guide assemblies simplify camera module alignment, reduce blur, and improve assembly yield.

A metal flange around a press-molded glass lens preserves compact size while improving positioning accuracy, stability, and crack resistance.

Grooved lens flanges and spacers form a buffer structure that resists thermal deformation and preserves vehicle camera optical reliability.

A temperature-sensed heater inside the lens barrel warms the front lens automatically while sealed housing improves waterproof reliability.

A guide-groove lens extension mechanism replaces the prism path, reducing light attenuation and easing thickness limits in telephoto camera modules.

Precomputed cam-curve data synchronizes zoom and focus lens motion to keep transitions smooth and maintain focus during trace imaging.

A protruding fixing ring isolates the lens group from glue-shrinkage stress in the barrel, improving centering accuracy and assembly stability.

Relative internal and external reflection intensities reveal hydrophilic coating degradation on camera covers before imaging accuracy drops.

By placing the lens closer to the light guide than the light source, this AR optical layout improves axis alignment, compactness, and light uniformity.

A segmented bending-web lens mount decouples inner and outer rings to reduce lens stress birefringence, deformation, and space use.

Precise second-lens thinning and spacer spacing balance miniaturization with imaging quality while reducing aberrations and stray light.

A recessed carrier base and PCB through-opening cut camera module height while preserving TTL without Flip-Chip cost.

A seven-lens layout with targeted spacing and curvature control suppresses stray light and improves assembly stability in compact camera modules.

A fan-driven airflow path cools the image reader sensor through an opening while limiting dust buildup and reading errors.

An annular elastic member absorbs thermal expansion mismatch in a metal lens barrel, preventing lens rattling and preserving optical performance.

A short-TTL telephoto lens uses polymer elements with different Abbe numbers to cut chromatic aberration and fit OIS into compact cameras.

A two-substrate optical layout uses depth along the optical axis to secure circuit area, shrink camera size, and reduce connection failures.

Mating tapered surfaces self-align adjacent lenses during press-fitting, preserving the air gap and reducing stress that can degrade optical performance.

A thermoset adhesive ratio and lower-window edge height help liquid lenses resist prolonged heat without bond failure.

Inclined, asymmetric lens barrel surfaces shrink camera footprint while preserving aberration control and high-resolution imaging.

Selective activation of monolithic VCSEL emitter banks boosts vertical resolution while limiting power use, crosstalk, and LiDAR size.

By splitting, redirecting, and recombining light beams, this optical module expands AR/VR viewing angle in a compact display structure.

Controlled sensor motion with mixed amplitudes suppresses aliasing and moiré during phase-difference focus detection.

Controlled venting channels balance pressure and humidity in a sealed lens assembly while blocking dust and moisture to preserve optical quality.

An annular barrel protrusion extends into the PCB window to cut lens module height and shield the image-side lens surface from scratches.

An actuator deforms the flash lens to switch between focused and wide illumination, matching object distance and field of view.

A copper-core, tin-silver alloy pillar cuts resistivity in LED module packaging while simplifying bump fabrication and lowering cost.

Insert-molded fixing and wire isolation help imaging lens modules stay compact while preserving structural strength and optical quality.

A movement threshold suppresses focus-lens tracking during zoom rattling, cutting unwanted vibration and sound from minor lens shifts.

Biasing guide rails with springs keeps head-mounted optical modules aligned during IPD adjustment, reducing image rotation and vergence issues.

Reference-object position data defines a target region so focus can shift to nearby moving objects without losing focal precision.

A rotary cylinder sleeved around a sliding lift lens cuts camera module height while preserving image quality, waterproofing, and precise positioning.

A bent metal support reinforces the reflective element holder, limiting deformation and preserving assembly accuracy in folded light paths.