Abstract:
A refrigerator and method of supplying coolant material are provided, the refrigerator including an interior and a main cooling loop, at least a portion of the interior includes a freezer section and at least a portion of the main cooling loop includes an evaporator. The refrigerator includes at least one detachable module having at least one connector, the detachable module configured to removably attach to a surface of the refrigerator, and a secondary cooling loop having at least one connector that corresponds to the at least one detachable module's at least one connector, wherein at least a portion of the secondary cooling loop is in thermal communication with at least one of the main cooling loop, the evaporator, and the freezer section, and wherein the secondary cooling loop is configured to be in fluid communication with the at least one detachable module through the corresponding at least one connectors.
Abstract:
A refrigerator appliance configuration, and associated methods of operation, for an appliance with a controller, a condenser, at least one evaporator, a compressor, and two refrigeration compartments. The configuration may be equipped with a variable-speed or variable-capacity compressor, variable speed evaporator or compartment fans, a damper, and/or a dual-temperature evaporator with a valve system to control flow of refrigerant through one or more pressure reduction devices. The controller, by operation of the compressor, fans, damper and/or valve system, depending on the appliance configuration, synchronizes alternating cycles of cooling each compartment to a temperature approximately equal to the compartment set point temperature.
Abstract:
An appliance includes a cabinet; a first compartment; and a second compartment. The first compartment and the second compartment are separated by a horizontal mullion. The cabinet also typically includes a coolant system that has: a single compressor for regulating a temperature of the first compartment and a temperature of the second compartment operably connected to at least one evaporator; a shared coolant fluid connection system; and a coolant fluid spaced within the shared coolant fluid connection system used to regulate both the temperature of the first compartment and the second compartment. The compressor can provide the shared coolant at at least two different pressures to at least one evaporator using the shared coolant fluid connection circuit. The ratio of the substantially steady state heat gain for the first compartment to the substantially steady state total heat gain for the overall cabinet is about 0.65:1 or greater.
Abstract:
A mechanical power coupling system including a mechanical power connector component for communicating a mechanical power service with another mechanical power connector component. A mechanical power service switch is provided for selectively permitting communication of the mechanical power service between the mechanical power connector components. The mechanical power service switch is activated to transfer a mechanical power service from a mechanical power service source to a mechanical power service consumer in response to a proximity sensor engaging a proximity target.
Abstract:
A mechanical power communicating device and a modular system of a host and a mechanical power communicating device for communicating a mechanical power service. A first component of the mechanical power communicating device communicates a mechanical power service from host to a second component of the mechanical power communicating device or to a functional device. The mechanical power communicating device may be a functional device, an adapter for coupling a functional device to a host, or a functional unit of an adapter and a functional device. The mechanical power communicating device may include a first component having a first interface connectable to the host, the first component pivotally connected to a second component having a second interface connectable to the functional device. The modular system may include a host having differently oriented mechanical power service interfaces and the mechanical power communicating device.
Abstract:
A system for communicating a substance from between substance communicating devices. A substance switch is provided for selectively transferring the substance from a first substance communicating device, such as a host or other substance source to a first substance communicating device, such as a such as a substance consumer. The substance switch is activated to communicate the substance between the first substance communicating device and the second substance communicating device in response to movement of a component associated with one of the substance communicating devices.
Abstract:
Systems and components for providing or receiving a mechanical power service through a mechanical power coupling system. A mechanical power service switch is provided for selectively communicating the mechanical power service between a first mechanical power service communicating device, such as a host or other mechanical power service source and a first mechanical power service communicating device, such as a mechanical power service consumer. The mechanical power service switch is activated to transfer a mechanical power service in response to detection of a contactless proximity target associated with one of the mechanical power service communicating devices by a proximity sensor associated with the other of the mechanical power service communicating devices.
Abstract:
A substance communication coupling system includes a substance connector component for communication of a substance with another substance connector component. A substance switch is provided for selectively permitting communication of the substance between the substance connector components. The substance switch is activated to transfer a substance from a substance source to a substance consumer in response to a proximity sensor engaging a proximity target.
Abstract:
A heat exchanger for a refrigerator includes a dividing wall that bifurcates the heat exchanger into first and second airflow passages. The fins include apertures therein, allowing for both horizontal and vertical movement of air through the heat exchanger. The dividing wall extends through the heat exchanger at an angle, which decreases the cross-sectional diameter of both the first and second airflow passages and results in accelerated air flow through the air passages. In use, air from the refrigerator is directed into the first airflow passage of the heat exchanger for heat exchange, and is then directed by curved baffles into the second airflow passage for further heat exchange. Air exiting the second airflow passage is then directed into a compartment of the refrigerator.
Abstract:
A distributed refrigeration system for a vehicle includes a vapor compression primary cooling circuit and a separate secondary cooling circuit. The secondary cooling circuit utilizes a non-toxic cooling fluid that is pumped to remote locations in the vehicle through designated supply lines. A heat exchanger acting with the primary cooling circuit cools the cooling fluid. A portable main storage compartment is fluidly connectable to the primary or secondary cooling circuits. The portable main cold storage compartment can be expandable. At the remote locations in the vehicle, docking stations permit items to be selectively cooled by the secondary cooling circuit. Both the primary and secondary cooling circuits can operate independently of the vehicle engine.