Eye Diagnostics TRIZ Cases

A projection unit projects an image onto the tear fluid and conjunctiva to calculate curvature radius from reflections.

Phase modulation suppresses coherence revival artifacts in OCT systems, enabling high-speed imaging without complex anti-reflection coatings.

Speculum-mounted optical fibers deliver light through the sclera to reduce glare and improve peripheral visualization during vitreoretinal surgery.

A stereovision optometry apparatus uses an adjustable reflective mirror to measure individual perception of 3D content.

Encoded color patterns guide head-mounted display lens positioning to resolve manual alignment complexity and improve measurement precision.

Automated calibration ensures reliable color vision screening, preventing permanent damage from late detection of hereditary or acquired conditions.

A lens body made of electroactive material adjusts its shape and optical properties via applied voltage.

An articulatable retinal camera moves to offset positions to capture wide-angle views, resolving limited peripheral detection in diabetic retinopathy diagnosis.

An embedded fiducial peak generates a data acquisition clock that corrects swept laser nonlinearity, eliminating the need for complex k-clock hardware.

A subjective eye refracting power measurement apparatus projects a visual target onto the fundus using a relay optical system to form an image of the correction optics.

An optical coherence tomography system determines working distance to correct magnification factors in eye topography imaging.

A model eye uses vegetable oil and glass to replicate human corneal reflectivity.

Adjustable supports under the stage glass maintain flatness despite weight-induced flexure, enabling precise contour illumination of large workpieces.

Calculates effective refraction index based on transmitted wavelengths to optimize lens topography for accurate optical power.

A system quantifies ocular dominance by fusing monocular and binocular views to determine sensory input weights.

Eye imaging during visual field tests captures gaze and eyelid data, resolving fixation monitoring contradictions.

A multitask vision architecture uses wave aberration metrics to optimize refractive corrections.

Photovoltaic compounds convert light energy into electrical signals, restoring vision without foreign proteins or UV damage.

A visual field test apparatus presents stimuli and estimates sensitivity levels using a statistical model that incorporates binary responses.

A compact glare tester uses a mirrored surface to intensify low-energy LED light for accurate environmental simulation.

Alternating secondary vision regions provide clear intermediate and near sight while eliminating chromatic aberrations common in diffractive multifocals.

A flat panel display projects light patterns onto the cornea for optical capture and processing.

Optimized progressive lens design adapts power progression to individual head-eye behavior patterns.

An optical lens uses an atoric object-side surface and a toric eyeball-side element to cancel surface power shifts.

Dynamic light patterns compensate for alignment errors and skew rays to improve corneal topography accuracy.

Automated eye tracking replaces manual prism tests, resolving measurement inaccuracy that causes unsuccessful surgeries.

A swept-source OCT system uses dynamic k-clock switching to adjust sampling rates and imaging depth.

A head-mounted examination apparatus uses a fixed-focus optical assembly and dome device for visual field perimetry.

A scanning laser ophthalmoscope objective lens system uses a tilted second lens with specific curvature to redirect reflected light away from the sensor.

A planar toroidal light source uses a spiral coil of side-emitting optical fiber to generate uniform illumination.

Phase-correlation algorithms align reference and comparative iris sections to compensate for rotational eye movement during comprehensive examination.

Virtual reality headset displays distinct images to each eye, enabling accurate binocular vision detection while reducing testing time and complexity.

An eye implant uses asymmetric free-form surfaces to correct optical aberrations based on biometric data.

Calculation unit maps operating rod tilt to inspection unit position, resolving alignment shifts during coarse and fine motion transitions.

A closed-loop adaptive optics system combines subjective visual feedback with objective wavefront measurements to resolve presbyopic vision trade-offs.

A reflector with a diffraction component achieves beam tilt through optical diffraction, eliminating mechanical torque and vibration during high-speed rotation.

A split-prism rangefinder detects lateral offset changes in returned light segments to measure eye displacement between scans.

A vision testing device uses a head-mounted display to present background light for both eyes during examination.

A modified regression formula incorporates corneal spherical aberration to optimize intraocular lens power calculations.

A fixation loss switch identifies patient eye movement during visual field testing to flag unreliable response data in real time.

A method determines ophthalmic lens characteristics based on wearer height to customize power progression and fitting cross.

A pediatric vision test kit uses threads of varying thickness to assess visual acuity in young children.

An electro-active spectacle lens switches optical effects using stored refraction data to resolve the trade-off between adaptability and device complexity.

Segmenting the OCT light source via a dichroic filter eliminates mechanical switching delays, enabling simultaneous anterior and posterior eye segment imaging.

Adjustable prism in a handheld measurement system identifies proprioceptive lag and visual misalignment to alleviate eye strain.

A sapphire lens attached to a fiber probe sheath creates a fluid-tight seal, preventing fluid ingress and boosting sensitivity to 88 dB.

Vector field representation defines optical surfaces, eliminating complex coordinate computations and accelerating the design process.

Segmenting the scale from the Maddox rod resolves precision versus cost trade-offs, enabling accurate surgical measurements.

Segmented hardware replaces bulky stationary systems to enable field diagnosis of mild traumatic brain injury by tracking eye movements during virtual stimuli.

Short focal length Hartmann Shack lenslet array expands measurement range for large aberrations and wide pupils without refocusing.