Optical Elements TRIZ Cases

Six-element lens assembly with alternating refractive powers resolves miniaturization and field of view trade-offs.

Segmented lens portions with angled reflective members widen the field of view without increasing device complexity.

An elastic main strap distributes facial pressure while a rotatable supporter pivots the display, resolving adaptability versus complexity trade-offs.

A five-element imaging lens assembly achieves compact packaging through alternating refractive powers and optimized spacing.

A holder transparent portion guides image light while an adhesive material bonds the fixing member to the case exterior.

A negative-lead zoom lens system uses a U-turn movement of the second group to achieve a 4x zoom ratio.

A head-up display lens applies a gradient refractive index to minimize ghost image intensity, ensuring clear primary images at high incident angles.

A pivoting hinge system with spherical joints rotates a display module across multiple axes within electronic eyewear frames.

A stacked reflective polarizer assembly manages visible and infrared light polarization states to enhance virtual image visibility in heads-up displays.

Segmented collimating elements and pupil expanders adjust independently to resolve weight versus adaptability contradictions in head-mounted displays.

A five-piece infrared lens system with specific refractive power configurations and aspheric surfaces to achieve high resolution and wide field of view.

A six-lens imaging optical system uses cemented lens groups to correct lateral chromatic and coma aberrations.

A light path control member uses a pump to move absorbing fluid into channels, switching display viewing angles.

A method designs off-axis three-mirror imaging systems using freeform surfaces to optimize optical performance.

A six-element camera optical lens uses alternating positive and negative refractive powers to achieve large aperture and ultra-thin form factors.

A zoom optical system uses movable lens groups to correct image blur and reduce aberration variations during operation.

A six-piece optical lens system uses segmented elements with specific curvatures to correct aberrations and improve imaging quality.

A large-aperture telephoto lens system uses a three-group optical configuration to correct aberrations and minimize focusing weight.

Six-lens fixed-focus projection design with aspherical elements reduces spherical aberration and distortion while minimizing projector volume.

Protrusions on a transparent layer reduce the brightness ratio between front and side surfaces, resolving uneven light distribution in display apparatuses.

A six-element imaging lens assembly uses alternating refractive powers to focus light on a sensor.

An integrated electrical chamber within the connecting part protects components from water ingress and short circuits while improving assembly efficiency.

A telephoto macro lens uses two moving positive lens groups to focus light from infinity to close range.

Optimized lens arrangement and material selection reduce total length while correcting aberrations for wide-angle smartphone cameras.

A zoom lens configuration uses specific refractive power arrangements to achieve compact design and high optical performance.

A movable counterbalance in the securement band offsets front-heavy display loads to maintain structural stability across varying head sizes.

A seven-lens imaging assembly uses a glass third lens to stabilize focal length against thermal expansion while plastic lenses enable miniaturization.

Offset shielding edges prevent simultaneous air compression, reducing noise and temperature while blocking flare beams.

A five-lens optical assembly corrects aberrations through specific refractive power distribution and surface curvature optimization.

A three-element imaging lens uses positive-negative-positive power distribution to converge light rays while maintaining a compact physical footprint.

Stress alleviation areas between the mirror reflecting surface and torsion bars reduce material fatigue near rib structures.

A five-element imaging lens corrects chromatic aberration and distortion while maintaining a compact total length for small cameras.

Segmented microstructures redirect specific beam percentages while transmitting undeviated portions, resolving adaptability versus complexity trade-offs.

A five-element optical lens assembly uses specific refractive powers and aspheric surfaces to capture light efficiently.

A five-element camera optical lens design reduces volume by optimizing the fourth lens refractive index and aspheric surface profiles.

A freeform off-axis three-reflecting mirror optical system maintains a consistent F-number across the field of view.

Segmenting a single laser path into multiple spatially-separated virtual positions via facet angles expands the eyebox without increasing device bulk.

Radial opacity variations in a binary occulter suppress diffraction, achieving 10^-10 contrast ratios for direct exoplanet observation.

A smart glasses system registers detected objects to display associated information when they appear in the user's field of view.

A seven-piece camera optical lens design distributes refractive power across alternating positive and negative elements to correct optical aberrations.

Four segmented lens elements correct aberrations while maintaining a shortened total length for portable devices.

Distinct refractive index layers confine light emission within designated pixel areas, eliminating color mixing from adjacent wavelength conversion structures.