A foot spa tub includes a tub basin, a first magnetic drive member rotatably coupled to a drive motor, and a first casing supporting the magnetic drive member. The first casing is disposed against an exterior surface of a sidewall of the basin. A second magnetic drive member is rotatably coupled to a blade. The first and second magnetic drive members are magnetically coupled to each other so that the blade is drivingly coupled to the drive motor. A nozzle houses the second magnetic drive member and the blade. The nozzle is detachably securable to an interior surface of the sidewall by a magnetic attraction force between the first and second magnetic drive members. A method of circulating liquid in a foot tub spa is also provided.

The steamhead includes a dispensing chamber having an inlet connected to receive steam from a steam generator located outside of the steam bath enclosure and a steam outlet. The steamhead is mounted between studs which support the enclosure wall by a bracket that is adjustable to accommodate studs of different spacing. A hollow cylindrical member extends from the front of the chamber in alignment with the steam outlet. A first part is telescopically received within the hollow member to accommodate enclosure walls of various thicknesses. A flange extends from the rim of the first part to overlap the chamber edge which defines the steam outlet. A second part having a round, concave surface facing the interior of the enclosure is rotatably mounted within the first part for controlling the flow of steam through the steam passageway. The chamber includes baffles for reducing the force of the emitted steam.

A spa (100) with built-in seating is disclosed. The spa (100) includes a pool body (10) partially enclosing a water cavity (11), and a seating assembly (20). The seating assembly (20) includes an inflatable bench (23) attached to a floor of the pool body (10), and an inflatable backrest (25) attached to the inflatable bench (23) by at least one attachment assembly (31) having an adjustable length such that a user can adjust a position of the inflatable backrest (25) relative to the inflatable bench (23).

A foot spa tub includes a tub basin, a first magnetic drive member rotatably coupled to a drive motor, and a first casing supporting the magnetic drive member. The first casing is disposed against an exterior surface of a sidewall of the basin. A second magnetic drive member is rotatably coupled to a blade. The first and second magnetic drive members are magnetically coupled to each other so that the blade is drivingly coupled to the drive motor. A nozzle houses the second magnetic drive member and the blade. The nozzle is detachably securable to an interior surface of the sidewall by a magnetic attraction force between the first and second magnetic drive members. A method of circulating liquid in a foot tub spa is also provided.

The present invention relates to a bathing robot device which: can perform the bathing, washing, cleaning, drying, skin caring, disinfecting, or sterilizing of an object; can use technology such as electronic control, artificial intelligence, or IT to autonomously perform corresponding functions without depending on only manpower; and can interact/communicate with an external device. The bathing robot device performs functions of: in a state in which the object is fixed without moving at one position, cleaning or washing the object by spraying water and a cleaning agent to the object; sensing ending of the cleaning or the washing, and drying the object by blowing air; and then, if necessary, spraying a lotion, a medicine, etc. Further, the bathing robot also performs a function of washing and drying an external device such as an object transfer device or a bathing table.

A SPA pool is provided including a pool body, the pool body including a pool bottom and a pool wall together defining a water cavity. The SPA pool further includes: an inflatable seat defining therein a second air chamber and disposed in the water cavity; a first nozzle assembly, wherein at least a part of the first nozzle assembly is accommodated within the inflatable seat, and a first end of the first nozzle assembly is in fluid communication with the water cavity. The pool body further includes a fluid pipeline disposed in the first air chamber, the fluid pipeline being in fluid communication with a second end of the first nozzle assembly, so that the first nozzle assembly provides fluid communication between the water cavity and the fluid pipeline.

A fitting assembly for installation in an opening in a tub shell wall of a bathing installation tub. A resilient grommet is sized to be inserted into the opening and has an interior peripheral recess defined in a wall portion, having a recess cross-sectional configuration. A fitting body has a protruding external rib having a rib cross-sectional configuration complimentary to the recess cross-sectional configuration, the rib positioned on the fitting body so that when the fitting body is inserted into the grommet, the rib is received into the recess on the grommet. The grommet and fitting are configured such that the recess and the rib are positioned behind the back surface of the shell wall when installed in the opening, and the grommet is compressed by the edge of the shell opening and pushed outwardly by the rib to lock the fitting into the shell opening.

A massage nozzle includes a nozzle housing and a nozzle core detachably attached in the nozzle housing. The nozzle housing is split-type and includes a cover mounted in a hole of a wall of a hot tub, a nozzle seat and a fastener. The cover includes an end ring and a side wall extending from the end ring. The side wall is conformed with the hole. The nozzle seat includes an inlet and a spray end which has a surface conformed with the side wall. The nozzle seat passes through and detachably connects with the cover. The outer circumferential surface of the spray end contacts with an inner surface of the side wall. The fastener is detachably sleeved on the outer circumferential surface of the nozzle seat and cooperates with the cover to fix the nozzle seat to the hot tub. The installation is convenient and the cost is reduced.

Devices, systems, and methods described herein can provide a simulated fluid environment similar to the mother's womb to recreate an ideal or more familiar environment for infants who are born before their ideal due date. In some embodiments, the premature infant amniotic bath incubator can comprise an incubating tank with synthetic or simulated amniotic fluid, a heating element(s), a temperature sensor(s), and/or thermostat(s) for temperature regulation.

The mist generating device includes a housing 11 having a water tank 12; a shaft portion 13 provided in the housing and extending in a vertical direction; an impeller 14 disposed on the shaft portion to be rotatable by means of the motor in a horizontal direction about a rotation axis that is the shaft portion; a nozzle 15 for jetting the water in the water tank toward the impeller; and a pump 21 for delivering the water in the water tank to the nozzle. The impeller includes a plurality of blades 14a arranged along a rotation direction of the impeller and configured to collide with the water jetted from the nozzle. The water jetted from the nozzle collides with the blades to thereby smash the water and generate mist. The housing includes a mist releasing port 18 for releasing the mist generated in the housing outwardly of the housing.