Abstract: A multilayer thermoplastic sheet, comprising a first colored thermoplastic layer; a second colored thermoplastic layer; and a third colored thermoplastic layer; wherein at least one of the colored layers is a different color than at least one of the other two colored layers; and a multilayer thermoplastic sheet, wherein the sheet has a total thickness of from about 0.125 inches to about 0.500 inches, and a plurality of lines cut into the surface at depth of from about 0.010 inches to about 0.080 inches. Lines may be cut into a multilayer thermoplastic sheet via computer numerical control (CNC) routing to simulate ceramic tile.

Abstract: A bathing apparatus comprising a whirlpool pump; a heater; an air blower; a drain pump; and an electric module, wherein the electric module is configured to receive electric power from an electric power line and to distribute electric power to the whirlpool pump, heater, air blower, and drain pump, when electric power is distributed to one of the heater or the air blower, electric power cannot be distributed to the other of the heater or the air blower, and when electric power is distributed to the drain pump, electric power cannot be distributed to the whirlpool pump, the heater, and the air blower.

Abstract: A walk-in bath comprising a sidewall and a door; wherein the door is configured to be in an open position or a closed position, the sidewall and closed door define a tub configured to hold bathing water, the door comprises a fin configured to be grasped by a bather, and the fin comprises a continuous projection positioned on a top edge of the door between a first end of the door and a second end of the door.

Abstract: A multilayer thermoplastic sheet, comprising a first colored thermoplastic layer; a second colored thermoplastic layer; and a third colored thermoplastic layer; wherein at least one of the colored layers is a different color than at least one of the other two colored layers; and a multilayer thermoplastic sheet, wherein the sheet has a total thickness of from about 0.125 inches to about 0.500 inches, and a plurality of lines cut into the surface at depth of from about 0.010 inches to about 0.080 inches. Lines may be cut into a multilayer thermoplastic sheet via computer numerical control (CNC) routing to simulate ceramic tile.

Abstract: A walk-in bath comprising a sidewall and a door; wherein the door is configured to be in an open position or a closed position, the sidewall and closed door define a tub configured to hold bathing water, the door comprises a fin configured to be grasped by a bather, and the fin comprises a continuous projection positioned on a top edge of the door between a first end of the door and a second end of the door.

Abstract: The present invention provides a child bath that can be used either as a stand alone bath or as a conversion unit for conventional bathtubs. The child bath includes a vertical front panel and a horizontal top panel with a wash basin that holds a smaller volume of water than a convention bathtub. A support frame provides structural support to the horizontal and front panels. In one embodiment of the invention, the support frame fits within a conventional bathtub and holds the horizontal panel across the top of the bathtub, while holding the front panel in front of at least a portion of the side of the bathtub. In another embodiment of the invention the support frame holds the horizontal panel higher than the height of a conventional bathtub, thereby allowing an adult to stand next to the tub while bathing a child.

Abstract: The present invention provides a method for manufacturing a door for a walk-in bathtub, which comprises forming a tub door cap from an acrylic sheet, wherein the tub door cap has an outer shape defining a door for a walk-in tub; forming a channel into a surface of the tub door cap along a peripheral area thereof; forming a threshold portion configured to mate with the channel in the tub door cap and extend outwardly from the tub door cap; and the tub door cap is then adhered to the threshold portion of the door to form a walk-in tub door. The acrylic sheet that forms the tub door cap may be cast acrylic or it may be reinforced by co-extruding with thermoplastic, adding a reinforcing filler and/or fiberglass. A walk-in bathtub door made by the method described above and a walk-in bathtub assembly having a door made by the method described above are also provided herein.

Abstract: The disclosure concerns a door assembly for a walk-in bathtub that includes a door that fits within a door threshold in the wall of the walk-in tub. The door assembly further comprises a hinge assembly that includes a first axis mount coupled to the door threshold and a second axis mount coupled to the outer side of the door. A double axis hinge is coupled to both axis mounts, to thereby connect the door to the bathtub. The double axis hinge is able to open the door towards the inside of the tub by pivoting about the first axis toward the inside of the bathtub as the door in turn counter rotates about the second axis at the distal end of the hinge, in the direction opposite to that of the hinge.

Abstract: The present invention provides a drain system for a walk-in bathtub. The drain system includes a conventional drain opening in the bottom of the walk-in bathtub and a second drain opening in the side of the foot well of the bathtub. A motorized pump pumps water out of the bathtub through the second drain opening in the foot well. A first drain line provides water outflow from the conventional drain opening to a primary drain pipe. A second drain line provides outflow from the motorized pump to the primary drain pipe, and a third drain line joins the primary drain pipe from an overflow opening near the top of the bathtub. A low water sensor is coupled to the second drain line and motorized pump and deactivates the pump when the water level in the bathtub is equal to or lower than the second drain opening.

Abstract: The present invention provides a drain system for a walk-in bathtub. The drain system includes a conventional drain opening in the bottom of the walk-in bathtub and a second drain opening in the side of the foot well of the bathtub. A motorized pump pumps water out of the bathtub through the second drain opening in the foot well. A first drain line provides water outflow from the conventional drain opening to a primary drain pipe. A second drain line provides outflow from the motorized pump to the primary drain pipe, and a third drain line joins the primary drain pipe from an overflow opening near the top of the bathtub. A low water sensor is coupled to the second drain line and motorized pump and deactivates the pump when the water level in the bathtub is equal to or lower than the second drain opening.

Abstract: The present invention provides a method for manufacturing a door for a walk-in bathtub, which comprises forming a tub door cap from an acrylic sheet, wherein the tub door cap has an outer shape defining a door for a walk-in tub; forming a channel into a surface of the tub door cap along a peripheral area thereof; forming a threshold portion configured to mate with the channel in the tub door cap and extend outwardly from the tub door cap; and the tub door cap is then adhered to the threshold portion of the door to form a walk-in tub door. The acrylic sheet that forms the tub door cap may be cast acrylic or it may be reinforced by co-extruding with thermoplastic, adding a reinforcing filler and/or fiberglass. A walk-in bathtub door made by the method described above and a walk-in bathtub assembly having a door made by the method described above are also provided herein.