Mountings TRIZ Cases

A single focal length lens system uses a moving rear focusing unit to achieve compactness and light weight.

Asymmetric support surfaces constrain lens deformation within three micrometers, improving stability and ensuring imaging quality.

A lens barrel design uses a rotating cam barrel to drive independent sub aperture stop blades for precise light control.

Curved waveguides mix light in compact spaces without increasing height.

Direct relative position detection between the rear base and guide barrel suppresses focus drift during zoom reversal operations.

A piezoelectric camera actuator replaces coil-magnet systems to eliminate magnetic leakage and resonance vibrations.

A three-group optical system moves a third lens perpendicular to the axis for vibration reduction.

Asymmetric guide shafts support uneven lens loads, resolving smooth movement issues caused by weight differences.

A plasmonic nanocavity coating reduces electromagnetic wave reflection from conductive surfaces through resonant excitation of leaky modes.

Mechanical retention replaces adhesive bonding to prevent optical axis misalignment over time.

Flexible ring members replace suspension wires to reduce thickness and power consumption in the optical element driving mechanism.

A four-element optical imaging lens uses reflective surfaces to fold light paths within a compact structure.

Protruding portion directs elastic member force to prevent water and dust intrusion through moving lens barrel gaps.

A moving coil actuator system positions optical elements axially using electromagnetic force and a corrugated suspension.

Hybrid MEMS and thermo-optic phase shifters reduce power consumption by using mechanical elongation for coarse adjustment alongside thermal tuning.

A lens spacer decouples from the barrel via a gap to prevent thermal expansion interference while maintaining structural integrity.

An imaging lens module uses a Lorentz force to drive the lens assembly parallel to the optical axis for precise positioning.

Segmented engaging portions balance frictional forces against fastening loads to prevent torsional deformation of the pressing ring.

A CO2 laser mirror assembly aligns its thermal neutral plane with the reflective surface to minimize curvature changes.

A seven-element imaging lens system uses lenses with specific refractive index temperature coefficients to stabilize optical performance.

An optical sensor detects visual acuity requirements and drives a worm gear mechanism to adjust diopters, eliminating manual intervention.

Upper and lower arms adjust spacing and angle of the lens, resolving complexity trade-offs in mounting security.

Electroactive polymer actuators adjust lens position to enable auto-focusing and zoom within compact optical modules.

Transverse monolithic bars reduce distribution pitch to 1 mm while maintaining micrometer stroke.

Nested group frames engage rotation restricting ribs to constrain relative orientation, reducing volume while maintaining mechanical stability.

Segmented optical rows replace bulky multi-axis platforms, enabling precise arbitrary beam generation without complex alignment.

A rotatable sample holder enables multi-angle object photography within an enclosed housing.

An optical system uses a light path adjusting member to redirect light, resolving the trade-off between lens focal length and electronic device thickness.

A head mounted display uses a light sensor to detect optical element position based on electronic display pixel patterns for precise rendering alignment.

A radiative insulation assembly blocks thermal radiation between stiffeners and an emissive structure to maintain uniform temperature.

Segmented lens modules with sealed electrical contacts reduce part count and weight while maintaining reliable user-specific optical performance.

Dual flexure joints transmit drive motion while compensating thermal expansion to maintain angle accuracy.

Chemical etching creates tapered beryllium mirror walls to resolve the trade-off between structural rigidity and rotational inertia in scanning motors.

Optomechanical and digital ocular sensor reader systems enable patients to view and image implanted intraocular sensors for self-examination.

Three movable lens groups resolve the trade-off between wide field angle and device complexity in projection zoom lenses.

A lens optical system uses a metal restraining member to mechanically control plastic lens curvature.

A camera lens module integrates a heating element between inner and outer barrels to warm optical components.

Asymmetric bayonet mount claws prevent misalignment damage during lens attachment.

A zoom lens system uses four specific lens groups to manage optical aberrations across the entire zoom range.

A wearable display device uses a fastening unit to couple a prism to a base, restricting relative motion and securing adhesive agents within defined grooves.

A decentering optical system overlaps light flux components on an exit pupil plane to integrate signals from multiple display elements.

A compact laser processing head featuring a motor-actuated swivelable frame for rapid lens interchange.

A five-element camera lens group uses non-rotational aspheric surfaces to correct off-axis optical aberrations.

Interlocking pins slide along nested grooves to extend the optical zooming path without restricting barrel movement.

A rear attachment lens uses segmented optical groups to extend the focal length of a camera system.

Optical image capturing systems use thin lens positioning elements to increase light admission and field of view.

Central lens pressing reduces optical volume and power consumption by eliminating end supports, enabling compact high-speed scanning.

Spaced adhesion and caulking portions distribute fixing force around the lens circumference to reduce surface distortion.

Reinforcing sections on the thin-sheet electric section body increase deformation resistance to prevent erroneous contact with conductor patterns.