A lubricant dispensing system employing configurable shelving that aligns a lubricant dispenser's spigot directly above a fill port of a lubricant dispensing jug. The shelving system units are configurable to accommodate the available space in a garage, designed for use with lubricant bag boxes, and possesses a spill catch below the jug.

The spout includes a first and a second member. The first member includes an elongated and generally tubular first main body having two segregated and parallel internal passageways, one being an air duct and the other being a liquid duct. Both ducts are substantially straight and substantially unobstructed along the entire first main body but the air duct ends with at least one constricted opening through which the air circuit exits the air duct. A valve is juxtaposed to the rear end of the first main body and is made integral therewith. The valve engages a valve seat provided at the rear end of a tubular inner conduit inside the second member and in which a rear section of the first main body is slidingly axially movable. The valve is normally maintained closed by a biasing element. The spout may be provided with a child resistant closure (CRC) device.

A fluid container having a body, a handle arranged in a top section of the body, a flow trigger in the handle, and a safety trigger that interacts with the flow trigger and prevents activation of the flow trigger. A vent assembly is arranged in the body and is configured to b activated by the safety trigger to vent the body. A spout assembly is movably coupled to the body and rotates between a use position and a storage position. A first valve opens as the spout assembly is moved from the storage position to the use position and a second valve is arranged upstream of the first valve to control fluid flow into the spout assembly. A linkage mechanism is arranged between th flow trigger and the second valve and configured to open the second valve when the flow trigger is activated and the safety trigger is released.

The disclosure relates to a portable fuel container system which can facilitate extracting substantially all of the contents contained therein, without having to physically manipulate the container to do so, thereby minimizing spillage and waste. Embodiments of the fuel container system can include a fuel container enclosing a fluid cavity and a fluid dispenser. A collection channel may be recessed in the base section of the container and configured to gravitationally draw fluid to an end of the channel having an aperture, which forms a low point of the fluid cavity. A fluid dispenser can be coupled to the aperture and be in fluid communication with the cavity. The dispenser can include a valve and flexible conduit, allowing the user to position the dispenser to a desired location before activating the flow of fluid.

A nozzle for dispensing fluid including a nozzle body having a spout and fluid path through which fluid to be dispensed is flowable. The nozzle includes an actuator configured to detect when the spout is sufficiently inserted into a fluid receptacle, and a shut-off device configured to selectively terminate or prevent fluid dispensing operations through the fluid path. The nozzle further includes an interlock operatively coupling the actuator to the shut-off device. The interlock includes a slider that is operatively coupled to the actuator and a pivotable arm that is operatively coupled to the shut-off device, and the slider is slidable along the arm.

A volatile liquid refueling apparatus, which includes a probe including an outer collar, and a receiver including a receiving collar, where the outer collar of the probe and the receiving collar of the receiver are configured to join to create a vapor-tight enclosure, and where the receiver further includes a locking mechanism whereby the apparatus can be locked in an open position.

A fluid container having a body, a handle arranged in a top section of the body, a flow trigger in the handle, and a safety trigger that interacts with the flow trigger and prevents activation of the flow trigger. A vent assembly is arranged in the body and is configured to b activated by the safety trigger to vent the body. A spout assembly is movably coupled to the body and rotates between a use position and a storage position. A first valve opens as the spout assembly is moved from the storage position to the use position and a second valve is arranged upstream of the first valve to control fluid flow into the spout assembly. A linkage mechanism is arranged between the flow trigger and the second valve and configured to open the second valve when the flow trigger is activated and the safety trigger is released.

A fluid transfer tube having a probe tube having first and second ends, the first end having at least one fluid transfer entrance port, the second end having at least one fluid transfer exit port, and an anti-cavitation fin extending from said first end to said second end.

A refrigerator includes a cabinet defining a fresh food compartment and a door pivotally mounted to the cabinet and including an interior surface in communication with the fresh food compartment when the door is closed. A shelf unit is disposed adjacent the interior surface of the door, and a container is supported by the shelf unit. A fill mechanism is positioned vertically above the container and the container is configured to receive liquid from the fill mechanism. A sensor is configured to sense a property of the container or liquid received in the container. A control is in communication with the sensor and regulates a dispensing of liquid into the container based upon the sensed property. The sensor utilizes a magnetic sensing element located adjacent to the container.