The bathtub generally has a wall having a translucent inner layer defining a cavity for receiving water. The bathtub has at least one translucent outer reinforcement member which is secured to a portion of the translucent inner layer, thus forming at least one window with the corresponding portion of the translucent inner layer. The bathtub has a corresponding light source which faces the translucent outer reinforcement member for lighting through the window, into the cavity. The wall further has an outer reinforcement layer covering the translucent inner layer around the at least one window.

A floating ultraviolet irradiator is disclosed. The floating ultraviolet irradiator according to the present invention comprises: a lower case having, at the center of a protruding part protruding downward, an opening of a predetermined area; an upper cover coupled to the lower case so as to partition a mounting space therebetween disconnected from the outside; and a substrate provided in the mounting space disconnected from the outside and having a UV light source mounted therein, and can float on water by means of air filled in the mounting space disconnected from the outside, wherein a UV transmission window is coupled to the opening of the lower case in a sealed state, a UV light source for transmitting UV light to the UV transmission window is mounted in the center of the lower side of the substrate at a position corresponding to that of the UV transmission window, and at least two water detectors for detecting contact with water are mounted along the periphery of the substrate in contact with the lower case.

A laser ionization therapy assembly having a reservoir defined by a peripheral wall and a base; a support device having a support coupling member and a support opening; and a laser module accommodating a laser diode, the laser module having an opening and a laser module coupling member, wherein the support device is fixedly attached to the peripheral wall of the reservoir and the laser module is detachably coupled thereto, wherein the laser diode is positioned at an angle relative to the base of the reservoir so that laser light is directed through the openings of the laser module and support device to a predetermined location within the reservoir at a height of between ? inch to 1 inch above the base, and wherein the laser light has a wavelength of between about 630 and 640 nm and a peak power of about 10 mW.

The bathtub generally has a wall having a translucent inner layer defining a cavity for receiving water. The bathtub has at least one translucent outer reinforcement member which is secured to a portion of the translucent inner layer, thus forming at least one window with the corresponding portion of the translucent inner layer. The bathtub has a corresponding light source which faces the translucent outer reinforcement member for lighting through the window, into the cavity. The wall further has an outer reinforcement layer covering the translucent inner layer around the at least one window.

Described herein are systems, devices, and methods for administering low-level light therapy (LLLT). The systems, devices, and methods aim to accelerate wound healing and reduce the incidence of infection.

A laser ionization therapy assembly having a reservoir defined by a peripheral wall and a base; a support device having a support coupling member and a support opening; and a laser module accommodating a laser diode, the laser module having an opening and a laser module coupling member, wherein the support device is fixedly attached to the peripheral wall of the reservoir and the laser module is detachably coupled thereto, wherein the laser diode is positioned at an angle relative to the base of the reservoir so that laser light is directed through the openings of the laser module and support device to a predetermined location within the reservoir at a height of between inch to 1 inch above the base, and wherein the laser light has a wavelength of between about 630 and 640 nm and a peak power of about 10 mW.

A system for transporting a sauna device is used for storing and transporting an infrared sauna lamp. The system includes an infrared sauna lamp and a sealable carrying bag. The infrared sauna lamp emits heat and light used for therapeutic healing. The sealable carrying bag is used to store, protect, and transport the infrared sauna lamp. The sealable carrying bag includes a flexible receptacle, a lid, a first handle and a second handle. The infrared sauna lamp is placed within the flexible receptacle during transport. The lid is connected to the flexible receptacle and is used to close the sealable carrying bag. The first handle and the second handle connect to the flexible receptacle and are used to carry the sealable carrying bag. A first pouch, a second pouch, and a third pouch are placed within the flexible receptacle to carry various items associated with the infrared sauna lamp.

A device for the body relaxation and renewal is described. It includes a perpendicular housing, which is a body with two side walls, a rear wall, and a front wall. The walls include vents situated in a lower and an upper part of said walls. A light panel is located inside at least one of said walls with alternately mounted fluorescent lamps and halogen lights. The fluorescent lamps are mounted in three rows of three pieces, in a vertical plane, one above another. The halogen lamps are set in slots mounted to vertical brackets and placed symmetrically in two vertical rows in three sections of two pieces.

A personal therapy compartment includes a base of size to receive a human patient. The compartment includes a bed in the base said bed being made of a light transmissive material. An array of lights mounted is below the bed to transmit light onto a body supported on the bed. A control panel controls at least the wavelength, intensity and pulsation of the light.

According to an exemplary embodiment, a method and system of non-surgical, non-invasive body contouring and weight reduction treatments may be shown and described. These treatments may provide tissue remodeling, such as skin tightening and skin contour smoothening, as well as provide other cosmetic applications. The method and system may include determining an area of tissue suitable for a noninvasive cosmetic treatment, targeting the area with radiant energy, stimulating the area with a series of micro-pulses, and massaging the area with a vibrational plate. The system and method may result in the reduction of undesired fat deposits and correction of other skin conditions, such as loose skin and cellulite. Furthermore, all aspects of the present method and system may be performed in a non-invasive manner.