Light Therapy TRIZ Cases

A light emitting unit combines UV-B and UV-C LEDs to stimulate vitamin D3 production.

A phototherapy device uses an LED array with a passive heat-conductive support structure to deliver uniform radiation intensity.

Relocating the radial fan to the foot area reduces head noise and cold risk by inverting airflow direction to cool lamps via wall channels.

A companion animal housing unit provides uniform flood illumination for effective phototherapy treatment.

A photobiomodulation system adjusts laser dosage and timing using real-time EEG signals to enhance cerebral oxygenation.

A metal enclosure optical assembly uses an aluminum nitride substrate to conduct heat from the light emitter.

Semi-cylinder barrel-shaped exposition tunnel directs actinic radiation from angled LED arrays to the subject.

A monolithic optical neural probe integrates close-packed dual-color micro-LEDs with recording electrodes to enable precise bi-directional stimulation.

Segmenting the light source from the nasal insert enables self-administration, overcoming the portability limits of invasive deep brain stimulation.

Segmented LED units on a thin film penetrate deep wounds, resolving bulk constraints in traditional therapy devices.

An intraoral phototherapy probe delivers light to pharyngeal tissues using an air gap between the source and shell.

Solid optical rods transmit laser light through resilient foam pads to deliver periodic therapy without skilled operation.

Independent electrode control adjusts current intensity based on skin contact to resolve homogeneity issues in keratin treatment.

Thermal radiating studs transfer LED heat to a passive plate, eliminating fan noise and extending lifespan.

A compact phototherapy apparatus uses a light guide path to direct ultraviolet light through an irradiation window for targeted treatment.

Multi-stage light therapy apparatus adjusts intensity across three phases using white and colored LEDs to improve patient compliance.

A percutaneous port delivers light directly to target tissue, bypassing skin absorption to reduce power requirements for chronic treatment.

Segmented LED modules with local thermal sensors and fans maintain optimal skin temperature, solving uneven heating in retrofitted tanning beds.

A light conversion layer adjusts wavelengths while an adjustable structure defines the light penetrating area, preventing side effects on healthy tissues.

Flat-panel optical fiber pad with flexible gel layer provides homogeneous light distribution to treat hidden body areas while preventing skin damage.

A flexible phototherapy bandage with embedded LEDs and a self-adhesive backing.

A flexible two-dimensional array of organic light emitting diodes modulates the vagus nerve through the outer ear skin.

A blue light LED device generates 450-470 nm radiation to penetrate subcutaneous tissue and target cancer cells.

An implantable optical medical lead steers a light guide using magnetic fields generated by electrodes.

Controlled photonic chamber uses FIR and MIR emitters to deliver customizable light environments.

Transparent flexible mouthpiece housing integrates light sources to deliver photobiomodulation therapy directly to the oral mucosa.

Elastomeric sleeve disperses red and blue light to stimulate blood flow, replacing pharmaceuticals that cause adverse effects.

A light therapy apparatus delivers therapeutic blue-green and near-infrared wavelengths using independently controlled LEDs.

A portable infrared mask embeds LEDs close to skin to enhance collagen production.

A sleep mask uses radiation diffusers to emit uniform light fields across the eyes.

A motorized light therapy stand uses a rotating support bar to adjust device orientation for flexible positioning.

Infrared nerve stimulation transmits optical energy through the eye to activate retinal nerves, resolving tissue damage risks from electrical methods.

A side-emitting optical fiber with a translucent silicone jacket prevents mechanical stress damage while maintaining wearer comfort.

A radiation emitting device with an extended heat spreading section on its back surface transfers thermal energy to mammal tissue.

A total reflection layer prevents absorption by the LN substrate, doubling output power.

Microprocessors adjust light dosage based on sensor feedback, resolving the trade-off between precise treatment control and device complexity.

Embedded side-emitting optical fibers deliver targeted light therapy to skin, overcoming the limited recovery benefits of standard wraps.

A facial irradiation device uses a flexible printed circuit board to distribute multiple light emitting diodes across specific skin regions.

Irradiation device emits near-infrared light perpendicularly to optical fibers, enabling effective tumor irradiation while minimizing invasiveness.

A hadron treatment planning method segments the spread-out Bragg peak into depth sections to assign specific relative biological effectiveness values.

A diode array combined with a flexible tissue pressure cap accelerates active ingredient infiltration into skin layers.

A therapy system outputs electromagnetic radiation at distinct peak wavelengths and irradiances for customizable treatment programs.

A high-power laser irradiation system delivers optical energy at specific infrared wavelengths to stimulate cellular activity and promote healing.

High intensity light penetrates periorbital skin to reach the retina via an extra-pupillary pathway.

Integrating dye circulation into the handpiece mitigates quenching and heating while reducing system size compared to separate base units.

A movable observation module shifts out of the way for probe insertion, enabling accurate positioning on the back without interference.

A non-invasive tACS applicator positions electrodes at the temples to stimulate retinal ganglion cells and enhance residual vision.

Calcium fluoride transmission elements prevent short-wavelength absorption damage, enabling stable laser-sustained plasma emission.

A medical apparatus emits electromagnetic radiation with a scotopic to photopic luminous intensity ratio of at least 1.85:1.

A phototherapeutic footwear device emits UVB and red light to stimulate vitamin D and melatonin production in the patient's skin.