A steam therapy equipment including a vessel for heating a mixture of water and organic materials, a compressor to inject pressurized air into the vessel producing pressurized steam. The pressurized steam is conducted into the equipment via one or more valves. The therapy equipment is formed from at least one panel and may include a supporting frame. The therapy equipment includes a temperature sensor to measure the temperature inside the therapy equipment when pressurized steam is admitted via the valves. A patient enters the equipment and is exposed to the pressurized steam, causing dilation of the skin pores of the patient, whereby toxins are removed from the patient. One or more applicators may conduct pressurized steam to specific portions of the body of the patient. The patient may be provided with a portion of the mixture to consume as part of the steam therapy treatment.

Systems, devices, and methods are disclosed herein for ultraviolet saunas. Systems include a plurality of walls of an enclosure, the enclosure being a sauna enclosure configured to accommodate a user. The systems further include a plurality of heating elements coupled to the plurality of walls, a plurality of emissive elements configured to generate ultraviolet (UV) light, and a controller coupled to the plurality of heating elements and the plurality of emissive elements. The controller includes one or more processors configured to generate activation properties for each of the plurality of heating elements and the plurality of emissive elements, activate at least one of the plurality of heating elements based on the plurality of activation properties, and activate the at least one emissive element based on the plurality of activation properties.

An apparatus, method and computer program of heating a sauna sweat room for providing a comfortable temperature and environment in the sauna sweat room for a pleasant sauna experience. The apparatus includes a heating unit comprising a heat accumulator and a duct for collecting a hot air and a cool air and enabling the mix of the collected hot and cool air for providing homogenous temperature in the sauna sweat room. The method includes receiving the hot air heated by the heat accumulator in the at least one duct, receiving in the at least one duct the cool air, mixing the received hot air with the received cool air to obtain a mixed air stream, directing at least part of the mixed air stream towards a lower section of the sauna sweat room via the second end of the at least one duct.

A modular portable exercise and sauna tent is an apparatus that provides an enclosed phototherapeutic environment for a user. The size and shape of the apparatus is adjustable depending on the position of the user within the apparatus. The apparatus includes a scaffolding, a thermally insulative cover, and at least one heating lamp. The thermally insulative cover further includes a first panel, a second panel, and an overlay panel. The scaffolding defines an area of heat around the user. The thermally insulative cover encloses the defined area. The scaffolding further includes a first base frame, a second base frame, and a plurality of lateral posts, each of which are adjustable in length. The shapes of the first base frame and the second base frame are both adjustable. The apparatus preferably includes a flooring layer that provides comfort and protection for the user against the ground.

A steam shower system, includes a steam enclosure, including a front plate, a rear wall, and a steam chamber; a steam mixing valve with a steam control dial; a mixed water line; a steam nozzle assembly with a stem nozzle head; a steam vent, including a perimeter wall, including a perimeter wall and a perimeter ledge; a steam deflector; a steam barrier; a vacuum air vent, which is optionally hidden behind the steam control dial; and aromatherapy device, including an aromatherapy aperture and receptor with a container for aromatic liquid; such that the steam vent is configured to emit steam from the steam chamber.

Power feed connections and sauna heating panels include a power feed having a first insulated conductor electrically coupled to a first terminal and a second insulated conductor electrically coupled to a second terminal. The first and second terminals are electrically coupled with at least one heating element. In some cases the power feed includes a supply portion, a connection portion, and an extension portion. The extension portion has one or more conductors in a twisted configuration extending away from the first and second terminals. In some cases the power feed includes an extension conductor portion coupled to a return conductor portion in a twisted configuration. The extension portion extends away from a second terminal past a second connection point and the return portion returns back to and connects to the second connection point at the second terminal. Methods for providing power connections to heating panels are also provided.

The disclosure relates to backlit wall covering for a sauna with wood lamellae arranged spaced from one another and fastened to slats spaced from one another. A diffuser is adhesively bonded onto the rear sides of the wood lamellae.

A cryotherapy chamber with one or more integrated systems. A first system is a prescriptive windchill system that incorporates at least one auxiliary windchill fan located within the cryotherapy chamber that is in signal communication with a user interface also located and accessible within the cryotherapy chamber that responds to control signals provided by a user inside of the cryotherapy chamber to cause the at least one auxiliary windchill fan to activate and to control a speed to further lower a temperature of the cryotherapy chamber. A second system includes a presence sensor that detects a presence of a user when located within the cryotherapy chamber and indicates when the user is no longer present in the cryotherapy chamber to allow an administrative entity to externally turn down or turn off one or more systems in the cryotherapy chamber when the user exits the cryotherapy chamber.

The insulating glass element is constructed for for doors, windows and fixed glass fronts. The insulating glass element includes a first glass pane and a second glass pane that is spaced from the first glass pane by a circumferential spacer element in an edge region. The glass panes each have a continuous recess; a first circumferential sealing element in the edge region of the glass panes, which seals the volume enclosed between the glass panes and the spacer element in the area of the spacer element in a gas-tight manner against the surroundings; and an insert introduced between the glass panes. The insert has a recess and is provided with a centering element that interacts with a recess of a glass pane for positioning the insert relative to the glass panes.

While such systems and methods can include any suitable component, in some cases, they include a first and a second piece of sauna housing and a sauna heater. In some such cases, the second piece of sauna housing slidingly couples with the first piece to define an interior sauna chamber. Additionally, in some cases, a first portion of the second piece of sauna housing is configured to slidably fit within the first piece such that a volume of the sauna chamber is configured to increase and decrease, respectively, when the second piece is moved into an extended position or when the second piece is moved from the extended position into a collapsed position in which the second piece nests within the first piece. In some cases, the first and second pieces include a ceiling that is configured to extend over a user within the sauna chamber. Other implementations are described.