The invention provides a tip that permits therapeutic electromagnetic energy systems to deliver multiple beams of overlapping, partially overlapping, and non-overlapping electromagnetic energy in the treatment of tissue disorders and conditions. The tip finds use with laser systems, intense pulsed light systems, LED systems, radiofrequency systems, and microwave systems.

An illumination system for a medical technology therapy and/or diagnosis system is provided. The system includes a light source, preferably a laser light source, and a light guide, which at a proximal end can be connected to the at least one light source and/or can be assigned thereto, and which system has at the distal end of the light guide a diffuser element having a longitudinal axis which extends into or in the diffuser element perpendicularly with respect to an input face of the light guide, wherein the diffuser element emits light laterally with respect to the longitudinal axis over its active length in the operating state, wherein the diffuser element has at least one diffuser base body and the diffuser base body contains a matrix that has at least one scattering element and is enclosed at least on its cladding surface by a solid encapsulation.

A light treatment system includes: a probe configured to be inserted into a bladder, the probe including an optical fiber configured to propagate light, and a light emitter that is provided at a distal end of the optical fiber, the light emitter being configured to emit the light; and a balloon catheter into which the probe is inserted, the balloon catheter being configured to be inserted into the bladder, the balloon catheter including a distal end portion that is to be dilated in the bladder, a wall configured to divide inside of the distal end portion into two regions, and a reflector configured to reflect the light emitted by the light emitter, the reflector being provided on a surface of the wall, the surface facing a region of the two regions, the region being where the light emitter is positioned.

A light irradiation device includes a first illumination optical system to emit first light that causes a chemical reaction on an object; a second illumination optical system to emit second light having a wavelength different from a wavelength of the first light; a light emitter to emit the first light from the first illumination optical system and the second light from the second illumination optical system to the object in space shared by the first light and the second light, to irradiate an irradiation area on the object; an image-capturing optical system to capture an image of the space including the object; and circuitry configured to: detect a state of the irradiation area based on the image captured by the image-capturing optical system; and control at least one of the first light and the second light based on the detected state.

Disclosed is a lighting device for bright therapy and dark therapy, comprising: a light source part including a red light source, a green light source and a blue light source; a power supply part supplying a power to the light source part; and a controller adjusting, by controlling the power supply part, a bio illuminance to allow melatonin suppression value to exceed a first reference value during morning hours and to allow the melatonin suppression value to be less than a second reference value while maintaining a visual illuminance over a predetermined value during evening hours.

Disclosed herein a method for improving holistic wellness of humans, wherein said method comprises of synergizing the light and color via spectral wavelengths inducing Simultaneous Adjacent Chroma Stimulus (SACS), sound frequencies and projection art. The synergized light and color, sound frequencies and projection art provide a sensory experience that de-stresses and realigns the body, mind and soul. The corresponding system comprises of an enclosure having projection screens and multipurpose integrated apparatus, wherein said apparatus comprises of CONTENT projecting means, color and light producing means, sound producing means and geometric reflectors, wherein these are configured to project lights on to the projection screen shown through a story-telling format, wherein said light projecting means, light producing means, sound producing means, projecting screens and reflectors are relatively placed so as to optimally produce the desired response of de-stressing and breaking the vicious cycle of stress in humans.

A contact lens configured to decrease dark adaptation comprises one or more LEDs and directs light from the LED away from the fovea and toward the parafovea or perifoveal regions of the retain. In some embodiments, soft contact lens embedded with one or more arrays of microLEDs and electronics operating the LEDs is configured to be worn at night in order to inhibit dark adaptation and reduce oxygen consumption by the rods. The contact lens may be made of a single layer of a contact lens material or multiple layers sandwiching a flexible transparent plastic layer comprising the electronics and the LED arrays. The contact lens may be made of a hydrophilic hydrogel material that is biocompatible to the human cornea, or a silicone hydrogel material. The contact lens may be spherical and may provide refractive correction to the eye of the wearer.

Various systems and methods are implemented for controlling stimulus of a cell. One such method is implemented for optical stimulation of a cell expressing a NpHR ion pump. The method includes the step of providing a sequence of stimuli to the cell. Each stimulus increases the probability of depolarization events occurring in the cell. Light is provided to the cell to activate the expressed NpHR ion pump, thereby decreasing the probability of depolarization events occurring in the cell.

Disclosed is a high power VCSEL laser treatment device with a skin cooling function, comprising VCSEL array (4) packaged on a laser heat sink (2), an optical transmission device (8) arranged in front of light-exiting faces of the VCSEL array (4) and a high-heat-conductivity optical window sheet (6) adhered to the light-exiting port end of the optical transmission device (8). An integrally molded cooling conduction metal piece (1) is arranged on the outer sides of the laser heat sink (2), the optical transmission device (8) and the high-heat-conductivity optical window sheet (6). In addition, one or more semiconductor chilling plates (7) are arranged between the cooling conduction metal piece (1) and the laser heat sink (2). In the above-mentioned high power VCSEL semiconductor laser treatment device, the semiconductor chilling plates (7) and the VCSEL array (4) share the heat sink, so that the inner structure is simplified.

Devices utilizing holographic 4D plenoptic capture and display technologies to generate a light field function to provide glasses-less vision correction for observers with imperfect vision, and to project an image according to the generated light field function, and methods for calibrating a four-dimensional light field for a user with an uncorrected visual acuity.