A refrigerated food pan cooling device includes a food pan receiving well and a cooling system, wherein the cooling system includes a refrigeration system with a compressor, a condenser, a metering device and an evaporator. The evaporator includes at least one first refrigerant line downstream of the metering device and upstream of the compressor. The first refrigerant line runs along an external surface of at least one of the well walls. The condenser is configured as a hot wall condenser, that lacks any fan or blower, wherein the hot wall condenser includes at least one second refrigerant line downstream of the compressor and upstream of the metering device. The second refrigerant line runs, at least partly, along an internal surface of at least the first exterior sidewall to transfer heat through the first exterior sidewall to ambient air.

The chilling system provides cooling to components housed within a container by pumping propylene-glycol-water-mixture (PGWM) or equivalent through heat exchange assemblies and thermal transfer vessels. The thermal transfer vessels are filled with a paraffin-based phase change material (PCM) or equivalent solution for realizing phase change of the PCMs at selected melting points. The heat exchange assemblies are provided with thermal electric coolers for cooling the PGWM as it travels through the heat exchangers. The cooled PGWM is directed into and through a target cooling manifold of a target heat exchanger assembly to realize cooling the housed components. The system operates on direct current at under 500 watts of power and requires no Freon-type refrigerants or compressors. A microcontroller controls switches for realizing desired flow paths of the PGWM upon receiving phase change and temperature information from sensors.

Secondary loop air conditioning and heat pump systems include a reservoir with a capsule holding a phase change material.

Secondary loop air conditioning and heat pump systems include a reservoir with a capsule holding a phase change material.

Systems and methods for cooling a datacenter are disclosed. In at least one embodiment, an in-row cooling unit is located within a row of racks and between a racks so that it can use an interchangeable heat exchanger (IHE) to receive primary coolant and can use one or more flow controllers to provide a first part of a primary coolant to cool secondary coolant that is to be distributed to at least one cold plate and to provide a second part of a primary coolant to cool air to be circulated through at least one server tray or rack.

A container enclosing a volume. The container having a container floor facing the volume, a release valve, and a container roof positioned opposite the container floor. The container roof having a container roof inlet that penetrates the container roof. A trough is coupled to the container roof inlet. The trough has at least one beverage mount for holding the beverage, a trough outlet, and a water pump coupled to the trough for transferring a fluid through the trough and the trough outlet.

A cooling system is disclosed. The cooling system may comprise a first cooling unit installed at a cooling target, the first cooling unit including a first cooling pipe forming a flow path of a first refrigerant; and a second cooling unit installed at the cooling target, the second cooling unit including a second cooling pipe forming a flow path of a second refrigerant, wherein the first cooling pipe includes a first cooling pipe first end adjacent to a first side of the cooling target, the first refrigerant being introduced into the first cooling pipe first end; and a first cooling pipe second end adjacent to a second side of the cooling target, the first refrigerant being discharged from the first cooling pipe second end, wherein the second cooling pipe includes a second cooling pipe first end adjacent to the first side of the cooling target, the second refrigerant being discharged from the second cooling pipe first end; and a second cooling pipe second end adjacent to the second side of the cooling target, the second refrigerant being introduced into the second cooling pipe second end.

A cooling system is disclosed. The cooling system may comprise a first cooling unit installed at a cooling target, the first cooling unit including a first cooling pipe forming a flow path of a first refrigerant; and a second cooling unit installed at the cooling target, the second cooling unit including a second cooling pipe forming a flow path of a second refrigerant, wherein the first cooling pipe includes a first cooling pipe first end adjacent to a first side of the cooling target, the first refrigerant being introduced into the first cooling pipe first end; and a first cooling pipe second end adjacent to a second side of the cooling target, the first refrigerant being discharged from the first cooling pipe second end, wherein the second cooling pipe includes a second cooling pipe first end adjacent to the first side of the cooling target, the second refrigerant being discharged from the second cooling pipe first end; and a second cooling pipe second end adjacent to the second side of the cooling target, the second refrigerant being introduced into the second cooling pipe second end.

A Cold Therapy Cooler Apparatus includes a port body with a flange and threads that is inserted into an orifice in the sidewall or lid of a cooler. An interior retaining ring with compatible threads cooperates with the flange to retain the port body within the orifice. A circulating pump is inside the cooler. An internal supply hose is connected to the pump, and to a supply pass-through that passes through the port body and is connected to an exterior supply hose. An internal return hose is connected to the pump, and to a return pass-through that passes through the port body and is connected to an exterior return hose. The exterior hoses are connected to an anatomical area cooling device. A power cord is connected to the pump and to a power cord connection by way of a power cord pass-through that passes through the port body.

A Cold Therapy Cooler Apparatus includes a port body with a flange and threads that is inserted into an orifice in the sidewall or lid of a cooler. An interior retaining ring with compatible threads cooperates with the flange to retain the port body within the orifice. A circulating pump is inside the cooler. An internal supply hose is connected to the pump, and to a supply pass-through that passes through the port body and is connected to an exterior supply hose. An internal return hose is connected to the pump, and to a return pass-through that passes through the port body and is connected to an exterior return hose. The exterior hoses are connected to an anatomical area cooling device. A power cord is connected to the pump and to a power cord connection by way of a power cord pass-through that passes through the port body.