An ozone and contrast therapy system including an enclosure defining an interior volume, a steam system having a steam dispenser for releasing steam within the interior volume, a cold shower system having a shower head for releasing cold water within the interior volume over a user, and an ozone system having a nozzle for releasing ozone into the interior volume.

The apparatus according to the invention is adapted for transcutaneous treatment by gas. The apparatus (10) comprises a rigid-wall cabinet (20) and having an upper opening and at least one openable panel, wherein a seat (25) is arranged inside the cabinet (20), and the cabinet (20) comprises at least one gas concentration measurement unit (29a), and the cabinet (20) further comprises a gas inlet (30) for feeding the treatment gas and a gas outlet (31) for discharging the treatment gas; a gas supply unit (40) coupled to the gas inlet (30) of the cabinet (20) via a pipe (41) and through an interposed controllable valve (42); and a gas tank (50) connected to the gas supply unit (40). The apparatus further comprises a ventilation unit (60) connected to the gas outlet (31) of the cabinet (20) through an interposed controllable valve (63), said ventilation unit (60) being coupled via a further pipe (62) to a space (70) hermetically separated from the room containing the cabinet (20), and wherein said ventilation unit (60) is designed so that it can discharge the entire volume of the treatment gas from the inner space of the cabinet (20) within at most 5 seconds. The apparatus further comprises a control unit (80) for receiving the signals of the gas concentration measurement unit (29a) and for controlling operation of the valves (42, 63) and said ventilation unit (60) based on at least the signals of the gas concentration measurement unit (29a).

The apparatus according to the invention is adapted for transcutaneous treatment by gas. The apparatus (10) comprises a rigid-wall cabinet (20) and having an upper opening and at least one openable panel, wherein a seat (25) is arranged inside the cabinet (20), and the cabinet (20) comprises at least one gas concentration measurement unit (29a), and the cabinet (20) further comprises a gas inlet (30) for feeding the treatment gas and a gas outlet (31) for discharging the treatment gas; a gas supply unit (40) coupled to the gas inlet (30) of the cabinet (20) via a pipe (41) and through an interposed controllable valve (42); and a gas tank (50) connected to the gas supply unit (40). The apparatus further comprises a ventilation unit (60) connected to the gas outlet (31) of the cabinet (20) through an interposed controllable valve (63), said ventilation unit (60) being coupled via a further pipe (62) to a space (70) hermetically separated from the room containing the cabinet (20), and wherein said ventilation unit (60) is designed so that it can discharge the entire volume of the treatment gas from the inner space of the cabinet (20) within at most 5 seconds. The apparatus further comprises a control unit (80) for receiving the signals of the gas concentration measurement unit (29a) and for controlling operation of the valves (42, 63) and said ventilation unit (60) based on at least the signals of the gas concentration measurement unit (29a).

An apparatus for use in applying a therapy to a human limb includes a bag for surrounding all or part of the limb. The apparatus also includes a connection arrangement, mounted to a wall of the bag in a distal portion of the bag, that enables therethrough a flow of a gas between a pressure-regulating device and an interior space of the bag. The apparatus also includes a gas-permeable strip affixed to an interior surface of the bag and having a length equal to at least 70% of the bag's length. The distal end of the strip is in communication with the connection arrangement in the distal portion of the bag, and a proximal end of the strip is disposed in a proximal portion of the bag. The strip contains a partially compressible, gas-permeable material forming a lengthwise gas-flow pathway.

An apparatus for use in applying a therapy to a human limb includes a bag for surrounding all or part of the limb. The apparatus also includes a connection arrangement, mounted to a wall of the bag in a distal portion of the bag, that enables therethrough a flow of a gas between a pressure-regulating device and an interior space of the bag. The apparatus also includes a gas-permeable strip affixed to an interior surface of the bag and having a length equal to at least 70% of the bag's length. The distal end of the strip is in communication with the connection arrangement in the distal portion of the bag, and a proximal end of the strip is disposed in a proximal portion of the bag. The strip contains a partially compressible, gas-permeable material forming a lengthwise gas-flow pathway.

A handheld therapeutic apparatus and method of treatment are disclosed. In one example, the apparatus includes a valve system, a detachable gas cartridge housing unit that houses a gas cartridge or gas delivery from an outside gas cylinder in fluid communication with said valve system, a detachable treatment receptacle for the delivery of gas therapies is in fluid communication with said valve system, and a detachable nozzle in fluid communication with said valve system.

A handheld therapeutic apparatus and method of treatment are disclosed. In one example, the apparatus includes a valve system, a detachable gas cartridge housing unit that houses a gas cartridge or gas delivery from an outside gas cylinder in fluid communication with said valve system, a detachable treatment receptacle for the delivery of gas therapies is in fluid communication with said valve system, and a detachable nozzle in fluid communication with said valve system.

A helmetless support and ventilation system for use with surgical hoods and gowns, including a flexible band, a plurality of front offsets connected to the flexible band, an offset extension such that the plurality of front offsets is connected to the offset extension and the offset extension is located away from the flexible band, a plurality of faceplate attachment extensions, wherein each of the plurality of faceplate attachment extensions is connected to the offset extension, a plurality of support faceplate attachments, such that each of the plurality of support faceplate attachments are connected to each of the plurality of faceplate attachment extensions, and a ventilation system located within a surgical gown and a surgical hood for providing filtered, ventilation air within the surgical gown and the surgical hood, wherein the ventilation system is retained by shoulders of a wearer of the ventilation.

A helmetless support and ventilation system for use with surgical hoods and gowns, including a flexible band, a plurality of front offsets connected to the flexible band, an offset extension such that the plurality of front offsets is connected to the offset extension and the offset extension is located away from the flexible band, a plurality of faceplate attachment extensions, wherein each of the plurality of faceplate attachment extensions is connected to the offset extension, a plurality of support faceplate attachments, such that each of the plurality of support faceplate attachments are connected to each of the plurality of faceplate attachment extensions, and a ventilation system located within a surgical gown and a surgical hood for providing filtered, ventilation air within the surgical gown and the surgical hood, wherein the ventilation system is retained by shoulders of a wearer of the ventilation.

The present invention is directed to a system and method of use for an operational halotherapy enclosure system sufficiently sized to retain therein an exercise machine for a person to do physical exercise and includes a red light panel and a thermal heating light panel. The halotherapy enclosure system also includes a salt aerosol dispersing device configured to disperse salt particles inside of the enclosed space, and a controller configured to control the emission of red light waves from the red light panel, thermal energy from the thermal heating light panel, and air salination emissions from the aerosol dispersing device within the enclosed space. The combination of aerosolized salt, red light waves, and thermal energy produces an enhanced beneficial result when a person inside of the halotherapy enclosure is exercising and inhaling the aerosolized salt under the red light and thermal energy conditions.