A heat transport device includes: a heat receiving member that receives heat; a heat dissipation member that dissipates heat; a coolant circulation path that includes a main flow portion in which coolant flows and split flow portions where part of the main flow portion is split into plural flow paths, and that causes coolant to circulate between the heat receiving member and the heat dissipating member; pumps that are provided to the respective split flow portions; and a bypass flow path that forms a bypass between the respective split flow portions on an outlet side of the pumps and the main flow portion.

A rapid cooling apparatus. The rapid cooling apparatus includes a base that supports a cooling chamber and a reservoir compartment. The cooling chamber has a floor, one or more sidewalls, and a ceiling that form an tenor volume that can hold beverages and other containers. A door is affixed to the cooling chamber for providing access to the interior volume of the cooling chamber. A fluid reservoir is positioned within the reservoir compartment and is configured to dispense a fluid cooling agent into the cooling chamber via one or more nozzles. The nozzles are disposed within the cooling chamber and directed at beverages and other containers positioned within the cooling chamber.

Cold storage unit apparatuses designed for high energy efficiency are provided, which may include: a refrigeration system; a box enclosing an interior space, the box formed by a plurality of insulated sides; an entry into the interior space including a plurality of openable barriers facilitating preventing entry of heat or moisture into the interior space; and a power system connected to the refrigeration system, the power system facilitating independent operation of the refrigeration system when not connected to a power grid, and further facilitating a net energy use of zero from a power grid when connected to a power grid. Cold storage units may further include systems for using the refrigerant of the refrigeration system to defrost one or more components of the cold storage unit, and for using the refrigerant to facilitate maintaining a desired internal temperature of the interior space of the cold storage unit.

The invention relates to a switch cabinet with a cooling apparatus which has a first closed coolant circuit and a second closed coolant circuit separated fluidically from the first coolant circuit, the first coolant circuit having a refrigerating machine or a cold water set and the second coolant circuit having a heat pipe arrangement.

In some embodiments, a system for operating an HVAC control network includes a first control unit communicatively coupled to a first plurality of HVAC units and a first interactive display, the first control unit further comprising a software access point (softAP). A second control unit, the second control unit communicatively coupled to a second plurality of HVAC units and a second interactive display. The second control unit may include a push button. The second control unit may connect to the first control unit to create an HVAC control network using a Wi-Fi direct protocol by invoking a Wi-Fi direct, push button configuration protocol in response to detecting that the push button has been depressed. The first control unit may control the second plurality of HVAC units over the HVAC control network in response to the second control unit connecting to the first control unit.

The present invention discloses a vibration table based on fluid cooling, including: a pressure bearing table body and a fluid supply device, wherein the pressure bearing table body includes a cavity and a moving ring located in the cavity, a through hole is formed in an upper housing of the cavity, and the moving ring penetrates out of the through hole; the cavity is provided therein with a driving device and a cooling system, the driving device can drive the moving ring to vibrate up and down, and the cooling system is configured to refrigerate the cavity; the fluid supply device receives fluid from the cavity, refrigerates the fluid, and outputs the refrigerated fluid to the cavity. A rolling seal can isolate the cavity from an external space, so as to protect the cavity and components therein.

A heat exchange system for realizing an adequate heat exchange among a plural type of fluids uses a refrigerant radiator and a radiator which are combined to have one unit for enabling heat exchange between a refrigerant and a coolant, and decreases an inflow amount of the coolant flowing into the radiator when coolant temperature of the coolant flowing into the radiator is equal to or higher than a second standard temperature, which is set to be lower than a temperature of the refrigerant flowing into the refrigerant radiator, and is equal to or lower than a predetermined first standard temperature. In such manner, heat from the refrigerant is effectively transferred to an outside air by reducing an unwanted heat exchange between the refrigerant and the outside air.

An automatically adjustable swing seal for a rack-aisle freezing and chilling system extends, for example, from the top horizontal frame member of a racking structure and defines an intake opening along with side seals and a bottom seal. The swing seal is positioned at a height such that a product stack having a top edge positioned at any point along the face of the swing seal creates a seal between the intake opening and the stack via the swing seal, the side seals, and the bottom seal. Thus, stacks of varying heights may automatically be accommodated. Further, the bottom edge of the swing seal may be beveled, such that if a product stack is not evenly stacked a portion of the uneven stacking will not catch against the swing seal when the stack is pulled away from the opening.

There is provided a cold water tank including: a first tank having an inlet pipe through which water to be cooled is introduced; and a second tank provided in the interior of the first tank such that water of the first tank can be introduced thereinto, having an evaporator included in a refrigerating cycle to cool the introduced water, and having an outlet pipe through which cooled water flows. Although water is introduced at high pressure, the introduced water can remain in the cold water tank for a period of time required for being cooled, and although water is introduced at high pressure, the introduced water can be in a stable state in the cold water tank. Thus, water can be cooled with its inflow pressure maintained, and the degree of freedom of a faucet or cock for allowing cold water to flow therethrough can be improved in its height.

There is disclosed a vehicle air conditioner which can realize a desirable outlet temperature even when a refrigerant subcool degree of a radiator varies. A controller executes a heating mode to let a refrigerant discharged from a compressor 2 radiate heat in a radiator 4, decompress the refrigerant by which heat has been radiated, and then let the refrigerant absorb heat in an outdoor heat exchanger 7, thereby heating the vehicle interior. The controller controls the compressor 2 on the basis of a radiator target pressure, and corrects the radiator target pressure in such a direction as to heighten when a target subcool degree enlarges, on the basis of the target subcool degree (the refrigerant subcool degree) of the radiator 4.