A portable, personal therapy chamber for provision of infrared radiation therapy. The therapy chamber includes a pair of telescopically positionable cabins that are lightweight and easily portable by a single user. The therapy chamber is configured for use by a single person lying generally prone on a surface. The cabins are disposed to overlie the user and include a plurality of infrared radiation elements that direct infrared energy toward the user's body. When using the therapy chamber, the user's head extends from an open end of the cabin. A facial treatment fixture is integrated with the cabin to be extendable longitudinally from a terminal end thereof and to overlie the user's face/head. The therapy chamber can be configured to provide mild hyperbaric oxygen therapy in addition to infrared therapy.

Disclosed is a disposable for use with a structure having a vessel surface that defines a vessel for receiving liquid. The disposable includes a pad and a layer. The pad has a pair of surfaces spaced apart from one another by a tubular sidewall. The pad is permeable to air flow. One of the pair of surfaces is positioned, in use, against the vessel surface. The layer overlies the other of the pair of surfaces and is at least substantially impermeable to air flow. In use, gas is introduced into the pad and issues through the sidewall in the form of bubbles. The disposable is useful in association with foot spas and the like.

The present invention provides a microbubble washing apparatus for washing the pubic region and the like using a washing agent composition containing a protease and a lipase, and a washing liquid containing microbubbles and a microbubble washing method using the washing apparatus. The microbubble washing apparatus includes a microbubble generation mechanism configured to prepare washing liquid containing microbubbles, a nozzle configured to discharge the prepared washing liquid, and a washing liquid holding section attachable to cover the pubic region and the like and configured to seal and hold the washing liquid discharged from the nozzle such that the washing liquid does not leak outside. The washing liquid holding section has a washing liquid inlet to introduce the washing liquid discharged from the nozzle into the washing liquid holding section and a washing liquid outlet to eject the introduced washing liquid.

The present invention provides a microbubble washing apparatus for washing the pubic region and the like using a washing agent composition containing a protease and a lipase, and a washing liquid containing microbubbles and a microbubble washing method using the washing apparatus. The microbubble washing apparatus includes a microbubble generation mechanism configured to prepare washing liquid containing microbubbles, a nozzle configured to discharge the prepared washing liquid, and a washing liquid holding section attachable to cover the pubic region and the like and configured to seal and hold the washing liquid discharged from the nozzle such that the washing liquid does not leak outside. The washing liquid holding section has a washing liquid inlet to introduce the washing liquid discharged from the nozzle into the washing liquid holding section and a washing liquid outlet to eject the introduced washing liquid.

A local feature controller for pool and spa equipment is provided. The local feature controller can be pre-programmed to selectively control operation of devices near the local feature controller, namely, a valve actuator, water fountain, pool light, landscaping light, etc. The local feature controller can operate autonomously, or under the control of the central controller. The local feature controller could include a liquid crystal display (LCD) and associated user input keys for allowing a user to interact with and control the controller. The local feature controller could be buried underground, and it could be powered by one or more local power sources, namely, a rechargeable battery, line-level (AC) power, a solar panel, or a liquid turbine installed inline with a return line from the pool's filtration system.

A local feature controller for pool and spa equipment is provided. The local feature controller can be pre-programmed to selectively control operation of devices near the local feature controller, namely, a valve actuator, water fountain, pool light, landscaping light, etc. The local feature controller can operate autonomously, or under the control of the central controller. The local feature controller could include a liquid crystal display (LCD) and associated user input keys for allowing a user to interact with and control the controller. The local feature controller could be buried underground, and it could be powered by one or more local power sources, namely, a rechargeable battery, line-level (AC) power, a solar panel, or a liquid turbine installed inline with a return line from the pool's filtration system.

A bubble-generating apparatus comprises: a casing defining a casing bore extending longitudinally therethrough; and a diffuser located in the casing bore, the diffuser defining a diffuser bore extending longitudinally therethrough. The diffuser bore comprises a fluid-input region at or near a fluid-input end of the diffuser and a fluid-output region at or near a fluid-output end of the diffuser. A cross-sectional area of the diffuser bore in the fluid-input region is greater than the cross-sectional area of the diffuser bore in the fluid-output region. At least a portion of the diffuser is porous for permitting a flow of pressurized gas from a region of the casing bore located outside of the diffuser bore, through the porous portion of the diffuser and into the diffuser bore.

A bubble-generating apparatus comprises: a casing defining a casing bore extending longitudinally therethrough; and a diffuser located in the casing bore, the diffuser defining a diffuser bore extending longitudinally therethrough. The diffuser bore comprises a fluid-input region at or near a fluid-input end of the diffuser and a fluid-output region at or near a fluid-output end of the diffuser. A cross-sectional area of the diffuser bore in the fluid-input region is greater than the cross-sectional area of the diffuser bore in the fluid-output region. At least a portion of the diffuser is porous for permitting a flow of pressurized gas from a region of the casing bore located outside of the diffuser bore, through the porous portion of the diffuser and into the diffuser bore.

A system (5) for generating a gaseous mixture for an enclosure (7) for treatment of a wound (3), comprising a generator (11) for generating the gaseous mixture and for delivering said gaseous mixture to the treatment enclosure (7) at a defined flow rate, the generator (11) of the gaseous mixture being designed to vary a molar fraction of dioxygen of said delivered gaseous mixture and to vary a molar fraction of water vapour of said delivered gaseous mixture, a control unit (39) which serves for controlling the delivered gaseous mixture and is provided with a processor (41) for receiving information relating to a pressure (P) inside the treatment enclosure (7) and/or designed to determine a flow rate of said gaseous mixture to be delivered in the treatment enclosure (7) in order to obtain an internal target pressure, the target pressure being defined by a time variation function of the pressure between a minimum pressure, corresponding to an ambient pressure outside the treatment enclosure (7), and a maximum pressure.

A system (5) for generating a gaseous mixture for an enclosure (7) for treatment of a wound (3), comprising a generator (11) for generating the gaseous mixture and for delivering said gaseous mixture to the treatment enclosure (7) at a defined flow rate, the generator (11) of the gaseous mixture being designed to vary a molar fraction of dioxygen of said delivered gaseous mixture and to vary a molar fraction of water vapour of said delivered gaseous mixture, a control unit (39) which serves for controlling the delivered gaseous mixture and is provided with a processor (41) for receiving information relating to a pressure (P) inside the treatment enclosure (7) and/or designed to determine a flow rate of said gaseous mixture to be delivered in the treatment enclosure (7) in order to obtain an internal target pressure, the target pressure being defined by a time variation function of the pressure between a minimum pressure, corresponding to an ambient pressure outside the treatment enclosure (7), and a maximum pressure.