The invention refers to a panel assembly and a tap device including the panel assembly, wherein the tap device includes a valve with a valve cover, and the panel assembly includes a panel with a through hole, wherein the panel assembly further includes a positioning member passing through the through hole and can be secured to the panel, and the positioning member is movably plugged onto the valve cover in the axial direction of the valve cover.

A test cylinder of a valve assembly is mounted a body of the valve assembly, the body includes a holder containing an accommodation chamber, a bottom fence formed, and a cold-water inlet and a hot-water inlet which respectively communicate with a cold-water inflow pipe and a hot-water inflow pipe of the body. The accommodation chamber has a first mixing-water outlet and a second mixing-water outlet which individually communicate with a first outflow pipe and a second outflow pipe. The test cylinder includes a peripheral fence, a first orifice, an edge fence, and a first cavity defined. The peripheral fence has at least one second orifice, a second cavity, and an internal surround portion of the accommodation chamber. The edge fence has a closing portion extending from an outer wall thereof and has a conduit defined in the edge fence.

A shower valve assembly configured to divert water between a tub port and a shower port. The diverter valve assembly position or state is changed by pushing a button connected to a stem and a poppet valve. When the water supply is turned off, a poppet spring shifts the poppet valve to a tub open position, and a check valve spring opens a check valve, allowing water from the shower port to flow out of the tub port.

A pressure reducer for a system separator includes a seal element accommodated in a groove, which is subject on a first side to a pressure prevailing at an inlet-side connection stub of the system separator and on a second side to a pressure prevailing in an inlet chamber of the system separator. At least one recess is introduced into a wall delimiting the groove on the first side, into which recess the seal element partially enters, canceling out its sealing effect, when the pressure prevailing at the inlet-side connection stub falls below the pressure prevailing in the inlet chamber.

A device and method enable both an automated and a user controlled diversion of fluid flow from a first pathway to an alternate pathway. The automated method relies upon detection of an environmental quality, such as fluid temperature, fluid heat content, fluid viscosity, fluid chemical composition, flow rate, or other detectable parameter. Both the automated diversion and the user controlled diversion rely upon positioning of the piston relative to the two pathways. The piston defines an internal pathway and the position of the piston internal pathway determines whether fluid flows through the first pathway or the alternate pathway. A lever movably couples the piston to an actuator; in the automated method an actuator responsive to its environment moves the lever to reposition the piston. In the user controlled method an override is applied, preferably manually, to reposition the piston to cause the diversion from the first pathway to the alternate pathway.

A sprinkler with a push-in connection includes a sprinkler frame, an operating element, and a sealing cap. The sprinkler also includes one or more sealing gaskets and a retainer. Each such sealing gasket is located at least partially within a groove in the sprinkler frame. The retainer is also at least partially located within a groove in the sprinkler frame. The retainer connects to an internal bore of an outlet of a fluid supply conduit when the sprinkler is installed in the outlet. The one or more gaskets seal against the internal bore of the outlet when the sprinkler is installed in the outlet. The retainer is a spring mechanism so that the diameter of the retainer is reduced when the sprinkler is inserted into the internal bore of the outlet, and the retainer maintains pressure against the outlet internal bore.

The water diversion assembly of the present invention herein diverts and preserves the water supply when water supply is currently below the threshold temperature. The present invention relates to a water diversion assembly having a hot water inlet connected to a hot water supply and a cold water inlet connected to a cold water supply. An appliance outlet, for use by the user of an appliance, is configured to connect and deliver a water mix at an outlet temperature. The appliance outlet is in fluid communication with the hot water inlet, the cold water inlet, and a water collection outlet. Within the water diversion assembly, a thermostatic diversion valve having a hot water threshold temperature setting and arranged such that water from the hot water supply via the hot water inlet is delivered to the water collection outlet until the hot water threshold temperature is reached and then thermostatically diverted to a thermostatic mixing valve.

A bath faucet system includes a housing, a diverter assembly, and an internal waterway. The housing forms an outer shell of the bath faucet system and includes a water inlet, a water outlet, and a cavity extending between the water inlet and the water outlet. The internal waterway is disposed within the cavity between the water inlet and the water outlet. The internal waterway includes a water jacket and a hose. The water jacket is coupled to the water inlet and configured to contain water flowing into the housing via the water inlet. The water jacket includes a hose connector along an outside surface of the water jacket. The hose includes a first end coupled to the hose connector, a second end coupled to the water outlet, and a central portion connecting the first end to the second end and configured to prevent water from contacting the housing.

A diverter for a spout includes a housing defining a compartment with an opening and one or more passageways positioned around the compartment to allow passage of a water flow. An actuator extends into the compartment. The actuator is slidable in a first direction from a resting position to a diverting position and is slidable in a second direction from the diverting position to the resting position. The first and second directions are opposite directions parallel to a central axis of the housing. The actuator being configured to block the water flow when in the diverting position.

A command device for a water supply plumbing fixture that extends along a main axis and has a base group fluidically connectable to at least one inlet line and to supply lines, and an activation and regulation group engaged with the base group is provided. The activation and regulation group has a plurality of activation members configurable in an active configuration and a passive configuration in which the activation members respectively allow or prevent passage of water to a respective supply line, and a regulation member having an annular adjustment crown angularly rotatable, the activation members being housed at least in part within the adjustment crown, and a valve element, housed at least in part inside the adjustment crown, engaged with the base group and with the adjustment crown, so that each angular position of the adjustment crown corresponds to a respective configuration of the valve element.