JP2011089762A - Heat absorbing/releasing device - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a heat absorbing/releasing device in which heat conductive fluid forms comparatively large temperature difference at respective positions of a heat absorbing element or a heat releasing element. <P>SOLUTION: The device is composed by installing parallel or almost parallel fluid conduits (101) made by one-way or more serial or parallel connection. One or more specified double scrolls are arranged in each conduit to transport the heat conductive fluid (110). A fluid flow passage where temperature difference is uniform is constituted of the fluid conduits (101) of the double scrolls. Fluids passing through conduits of adjacent arrays are made to flow to the reverse directions so as to generate a heat absorbing function or a heat releasing function with respect to an object or a space (200) which passively releases or absorbs heat. The object or the space (200) which passively releases or absorbs heat is comparatively uniformly distributed. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

  The present invention relates to a heat absorbing / dissipating device.

  The conventional endothermic or heat-dissipating gas phase fluid, liquid phase fluid, fluid that changes from gas phase to liquid phase, or heat transfer fluid that is composed of fluid that changes from liquid phase to gas phase passes through the heat absorption. Or an application device that generates heat, such as a radiator in an engine room, a cold energy generator that absorbs heat energy using a heat transfer fluid, or a heat energy generator that releases heat energy using a heat transfer fluid, For example, a heating appliance, a heating device, or a thermal energy transmission device is formed, and the flow direction of the heat transfer fluid is fixed.

  Provided is a heat absorbing / dissipating device in which a heat conduction fluid forms a relatively large temperature difference at each position of heat absorption or radiator.

  The heat-absorbing / dissipating device according to claim 1 is configured by installing fluid lines that are connected in series or in parallel in parallel or near one-way. One or more double scrolls specified for each pipe line are arranged and composed of a gas phase fluid with a temperature difference, a liquid phase fluid, a fluid that changes from a gas phase to a liquid phase, or a fluid that changes from a liquid phase to a gas phase The heat transfer fluid is transported, and a fluid flow path having a uniform temperature difference is formed through the double scroll fluid conduit. The fluid passing through the pipes in the adjacent arrangement is flowed in the opposite direction, and the object or space that passively radiates or absorbs heat is created by causing the object or space that passively radiates or absorbs heat to generate heat absorption or heat dissipation. It is a heat absorbing / dissipating device that distributes relatively uniformly. The thermal energy transfer body is composed of a thermally conductive material in a solid phase, a rubber phase, a liquid phase, or a gas phase, combined with an array of double scroll pipelines, and fluid pipelines of fluids with different flow directions having temperature differences ( 101) the heat energy of the heat transfer fluid (110) constituted by the gas phase fluid, the liquid phase fluid, the fluid changing from the gas phase to the liquid phase, or the fluid changing from the liquid phase to the gas phase. An endothermic function or a heat dissipation function is activated for a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that transports, passively radiates or absorbs heat. The fluid pipe (101) is made of a heat conductive material, and the double scroll pipe and the double scroll pipe arrangement which are parallel or nearly parallel are adjacent to each other with a fluid transport pipe having a different flow direction having a temperature difference as an adjacent pipe. The heat sink of the conduction fluid or the temperature distribution state of the radiator is formed relatively uniformly, and the object or space that passively radiates or absorbs heat has a function of absorbing or radiating heat. Is the inlet / outlet end side of the pipe line, provided with a fluid inlet (111) and a fluid outlet (112), and the fluid pipe line at the center of the scroll is bent in the opposite direction, thereby The turning structure (103) has a gas phase fluid, a liquid phase fluid, a fluid changing from a gas phase to a liquid phase, or a gas phase to a gas phase by a fluid inlet (111) and a fluid outlet (112) at the end of the fluid conduit. phase The heat conduction fluid (110) constituted by the changing fluid is transported, the fluid passing through the fluid pipes in the adjacent arrangement is flowed in the opposite direction, and the heat is transferred through the thermal energy transmission body (100) that absorbs or dissipates heat. Solid-state, rubber-phase, liquid-phase, or gas-phase object or space that dissipates or absorbs heat passively by a solid-state, rubber-phase, liquid-phase, or gas-phase heat conduction material (200) Transmit to. Further, the fluid pipe (101) is configured by one-way or more series connection or parallel connection, and one or more double scrolls are arranged in each pipe, and the fluid inlets (111) at both ends of the fluid pipe (101) are arranged. And a fluid outlet (112) for transporting a gas phase fluid, a liquid phase fluid, a fluid changing from the gas phase to the liquid phase, or a heat transfer fluid (110) composed of a fluid changing from the liquid phase to the gas phase, The heat conduction fluid (110) of the fluid pipe line (101) passing through the adjacent arrangement of pipe lines is caused to flow in the opposite direction, and the heat energy is generated by a solid phase, rubber phase, liquid phase, or gas phase heat conduction material. The heat is transmitted to the heat energy transmitting body (100) that absorbs or dissipates heat. The fluid conduit (101) can be parallel or nearly parallel to a plane or three-dimensional, and forms a thermal energy transmission body (100) that absorbs or dissipates heat, and passively dissipates or absorbs a solid phase, rubber Endothermic or dissipate heat to a phase, liquid phase, or gas phase object or space (200).

Heat transfer fluid in a fixed flow direction through a conventional heat transfer fluid composed of a gas phase fluid that absorbs heat or dissipates, a liquid phase fluid, a fluid that changes from a gas phase to a liquid phase, or a fluid that changes from a liquid phase to a gas phase Structure explanatory drawing which passes the heat absorption or heat radiating device comprised by this. FIG. 2 is a temperature difference distribution diagram during operation of the cold energy generating apparatus that absorbs heat in FIG. 1. FIG. 2 is a temperature difference distribution diagram during operation of the heat energy generating device for radiating heat in FIG. 1. Structure explanatory drawing of 1st Embodiment of this invention. FIG. 5 is a temperature difference distribution diagram during operation of the cold energy generating apparatus that absorbs heat shown in FIG. 4. FIG. 5 is a temperature difference distribution diagram during operation of the heat energy generating device for radiating heat shown in FIG. 4. Structure explanatory drawing of 2nd Embodiment of this invention. FIG. 8 is a temperature difference distribution diagram during operation of the cold energy generating apparatus that absorbs heat shown in FIG. 7. FIG. 8 is a temperature difference distribution diagram during operation of the heat energy generating device for radiating heat shown in FIG. 7. Structure explanatory drawing of 3rd Embodiment of this invention. FIG. 11 is a temperature difference distribution diagram during operation of the cold energy generating apparatus that absorbs heat shown in FIG. 10. FIG. 11 is a temperature difference distribution diagram during operation of the heat energy generating device for radiating heat shown in FIG. 10. FIG. 5 is an explanatory diagram of main structures for transmitting thermal energy to the object or space that directly and passively radiates or absorbs heat shown in FIG. 4. It is main structure explanatory drawing which transmits a thermal energy with respect to the object or space which directly thermally radiates or absorbs heat shown in FIG. FIG. 11 is a main structural explanatory diagram for transmitting thermal energy to the object or space that directly and passively radiates or absorbs heat shown in FIG. 10. The fluid conduit (101) shown in FIG. 4 of the present invention is combined with a conduit structure (100 ′) that transmits a heat conduction fluid that passively radiates or absorbs heat through a thermal energy transmitter (100) that absorbs or dissipates heat. The form is shown. The fluid conduit (101) shown in FIG. 7 of the present invention is combined with a conduit structure (100 ′) that transmits a heat conduction fluid that passively radiates or absorbs heat through a thermal energy transmitter (100) that absorbs or radiates heat. The form is shown. The fluid conduit (101) shown in FIG. 10 of the present invention is combined with a conduit structure (100 ′) that transmits a heat conduction fluid that passively radiates or absorbs heat through a thermal energy transmitter (100) that absorbs or radiates heat. The form is shown. Pipe structure (100 ′) for transmitting several sets of passive heat dissipation or heat absorption heat conduction fluid through heat energy transmission body (100) that absorbs or dissipates heat through fluid conduit (101) shown in FIG. 4 of the present invention. One of the forms combined with is shown. The pipe structure (100 ') for transmitting several sets of passive heat dissipation or heat absorption heat conduction fluid through the heat energy transmission body (100) that absorbs or dissipates heat through the fluid conduit (101) shown in FIG. 7 of the present invention. The form combined with is shown. Pipe structure (100 ′) for transmitting several sets of passive heat dissipation or heat absorption heat conduction fluid through heat energy transmission body (100) that absorbs or dissipates heat through fluid conduit (101) shown in FIG. 10 of the present invention. The form combined with is shown. It is explanatory drawing which shows embodiment which adds the independent heat conductive board (300) to the fluid pipe line (101) of this invention. It is AA sectional drawing of FIG. It is explanatory drawing which shows embodiment which installs a co-heat conductive board (400) in the fluid pipe line (101) of this invention. It is BB sectional drawing of FIG. It is explanatory drawing which shows embodiment which installs the heat conductive board (350) which has a heat-resistant tank in the fluid pipe line (101) of this invention. It is CC sectional drawing of FIG. It is explanatory drawing which shows the action | operation system of the heat transfer fluid (110) which this invention pumps in two directions periodically and pumps in two directions.

An embodiment according to the present invention will be described with reference to the drawings. Prior to describing an embodiment according to the present invention, a conventional heat absorbing / dissipating device will be described.
FIG. 1 shows a conventional flow direction through a heat transfer fluid composed of a heat absorbing or radiating gas phase fluid, a liquid phase fluid, a fluid changing from the gas phase to the liquid phase, or a fluid changing from the liquid phase to the gas phase. It is main structure explanatory drawing through which the heat absorption or heat radiating device comprised with a heat transfer fluid passes. Illustrated in FIG. 1 is a traditional fixed flow gas phase fluid, a liquid phase fluid, a heat transfer fluid (110) that transports a fluid that changes from liquid phase to gas phase, or changes from gas phase to liquid phase. Is an assembly structure of an endothermic or heat radiating device configured by coupling with a thermal energy transmission body (100) that passes through the fluid pipe (101) and absorbs or radiates heat. 1) A solid, rubber, liquid, or gas that passively radiates or absorbs heat through a thermal energy transfer body (100) that absorbs or dissipates heat by a heat transfer fluid (110) that passes through the fluid pipe (101). It acts as a cooling or heating function for the phase object or space (200). 2) Cool or heat the cold energy or heat energy coming from the periphery of the thermal energy transmission body (100) that absorbs or dissipates heat in the opposite direction by the heat transfer fluid (110) passing through the fluid pipe (101). For example, a radiator of an engine room, a cold energy generator that absorbs heat through the heat transfer fluid (110), and a heat energy generator that dissipates heat through the heat transfer fluid (110), such as a heating appliance and a heating device, are often seen in the above 1). , Evaporators, condensers, or cold energy or thermal energy transmission devices. The latter 2) is often applied to cold energy or thermal energy transmission devices. When applying to 1), the heat transfer fluid (110) enters the heat transfer fluid (110) from the inlet of the fluid conduit (101) at the side end of one side of the heat energy transfer body (100) that absorbs or dissipates heat, A heat transfer fluid (110) at the inlet of the fluid conduit (101) of the thermal energy transmission body (100) that can be taken out from the other end and absorbs or dissipates heat and a heat transfer fluid (110) at the outlet of the fluid conduit (101) Pass through and form a relatively large temperature difference. Similarly, when applied to (2), forming a relatively large temperature difference at the inlet of the fluid line (101) and the outlet of the fluid line (101) is a disadvantage.

  FIG. 2 is a temperature difference distribution diagram during operation of the cold energy generating apparatus that absorbs heat shown in FIG. As shown in FIG. 2, a conventional unidirectionally flowing heat transfer fluid (110) is used to form a unidirectional flow path while absorbing or releasing heat energy, and the heat transfer fluid (110). Relatively large temperature difference between the inlet of the heat transfer fluid (110) and the outlet of the heat transfer fluid (110) of the heat energy transfer body (100) that absorbs or dissipates heat when the fluid passes through the fluid conduit (101). Form a distribution state.

  FIG. 3 is a temperature difference distribution diagram during operation of the heat energy generating device of FIG. As shown in FIG. 3, a traditional one-way flow of heat transfer fluid (110) is used to form a one-way flow path while absorbing or radiating cold energy, and heat transfer fluid ( 110) is relatively large between the inlet of the heat transfer fluid (110) and the outlet of the heat transfer fluid (110) of the thermal energy transfer body (100) that absorbs or dissipates heat when passing through the fluid line (101). A temperature difference distribution state is formed.

  In contrast to the above-described phenomenon, the present invention is a device that radiates or absorbs heat by using a kind of heat transfer fluid that is the first in history, and uses an arrangement of double scroll pipes, and the temperature of the flow direction varies depending on the temperature difference. Transporting fluids with differences, creating heat absorption or heat dissipation function for objects or spaces that passively dissipate or absorb heat, and form a temperature distribution state that distributes heat absorption or heat dissipation of heat conduction fluid relatively evenly To do.

(First embodiment)
FIG. 4 is an explanatory view of the main structure of the first embodiment of the present invention. The thermal energy transmission body (100) that absorbs or dissipates heat is made of a thermally conductive material in a solid phase, a rubber phase, a liquid phase, or a gas phase, combined with an array of double scroll pipes, and having a flow direction having a temperature difference. Heat conduction fluid constituted by a gas phase fluid, a liquid phase fluid, a fluid that changes from a gas phase to a liquid phase, or a fluid that changes from a liquid phase to a gas phase, which circulates in the fluid conduit (101) of different fluids The heat absorption function or the heat radiation function is activated for a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that transports, passively releases or absorbs thermal energy of (110). One or more thermal energy transmission bodies (100) that absorb or dissipate heat may be included.

  The fluid pipe (101) is made of a heat conductive material, and the double scroll pipe line and the double scroll pipe arrangement in parallel or nearly parallel are arranged with adjacent fluid transport pipes having different flow directions having temperature differences as the adjacent pipe lines. The heat sink of the conduction fluid or the temperature distribution state of the radiator is formed relatively uniformly, and the object or space that passively radiates or absorbs heat has a function of absorbing or radiating heat. Is the inlet / outlet end side of the pipe line, provided with a fluid inlet (111) and a fluid outlet (112), and the fluid pipe line at the center of the scroll is bent in the opposite direction, thereby The turning structure (103) has a gas phase fluid, a liquid phase fluid, a fluid changing from a gas phase to a liquid phase, or a gas phase to a gas phase by a fluid inlet (111) and a fluid outlet (112) at the end of the fluid conduit. In phase The heat conduction fluid (110) constituted by the fluid to be converted is transported, the fluid passing through the fluid pipes in the adjacent arrangement is caused to flow in the reverse direction, and the heat is passed through the thermal energy transmission body (100) that absorbs or dissipates heat. Solid-state, rubber-phase, liquid-phase, or gas-phase object or space that dissipates or absorbs heat passively by a solid-state, rubber-phase, liquid-phase, or gas-phase heat conduction material (200) Transmit to.

  The above-described fluid pipe (101) is configured by one-way or more series connection or parallel connection, and one or more double scrolls are arranged in each pipe, and fluid inlets (111) at both ends of the fluid pipe (101). And a fluid outlet (112) for transporting a heat transfer fluid (110) composed of a gas phase fluid, a liquid phase fluid, a fluid changing from a gas phase to a liquid phase, or a fluid changing from a liquid phase to a gas phase. The heat conduction fluid (110) of the fluid pipe (101) passing through the pipes of the matching arrangement is caused to flow in the reverse direction, and the thermal energy is constituted by a solid phase, rubber phase, liquid phase, or gas phase heat conduction material. The heat is transmitted to the heat energy transmitting body (100) that absorbs or dissipates heat.

  The fluid conduit (101) can be parallel or nearly parallel to a plane or three-dimensional, and forms a thermal energy transmission body (100) that absorbs or dissipates heat, and passively dissipates or absorbs a solid phase, rubber Endothermic or radiate heat to the phase, liquid phase, or gas phase object or space (200).

The thermal energy transmission body (100) and the fluid pipe (101) for absorbing or radiating heat shown in FIG.
1) a structure for assembling a heat energy transmission body (100) that absorbs or dissipates heat and a fluid pipe (101);
2) a structure constituted by an integral structure of a heat energy transmission body (100) that absorbs or dissipates heat and a fluid pipe (101);
3) A structure having a function of a thermal energy transmission body (100) in which the fluid pipe (101) directly absorbs or dissipates heat,
4) It has the function of a thermal energy transmission body (100) that absorbs or dissipates heat by additionally installing an independent thermal conductive plate (300) that is not connected to the fluid pipeline (101) and the adjacent pipeline. Construction,
5) A structure having a function of a thermal energy transmission body (100) for connecting or absorbing heat between the surrounding fluid conduits (101) and absorbing or radiating heat.
6) One or more of the structures having the function of a thermal energy transmission body (100) that absorbs or dissipates heat by connecting a heat conductive plate (350) having a heat-resistant tank between the surrounding fluid pipes (101) It has the following structure.

  FIG. 5 shows a temperature difference distribution diagram during operation of the cold energy generating apparatus that absorbs heat shown in FIG. As shown in FIG. 5, in the thermal energy transmission body (100) that absorbs or dissipates heat, the heat transfer fluid (110) passing through the inlet end of the fluid pipe (101) has a relatively low temperature, and the outlet end The heat transfer fluid (110) is relatively hot. In addition, the temperature of the thermal energy transmission body (100) that absorbs or dissipates heat is an intermediate temperature between the feeding temperature of the heat conduction fluid (110) and the sending temperature of the heat conduction fluid (110), and absorbs heat or dissipates heat. The heat energy transfer body (100) is uniformly distributed. A local low temperature is avoided by absorbing or radiating thermal energy to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passively radiates or absorbs heat.

  6 shows a temperature difference distribution diagram during operation of the heat energy generating device for radiating heat shown in FIG. As shown in FIG. 6, in the thermal energy transmission body (100) that absorbs or dissipates heat, the heat transfer fluid (110) that passes through the inlet end of the fluid pipe (101) has a relatively high temperature, and the outlet end The heat transfer fluid (110) has a relatively low temperature. In addition, the temperature of the heat energy transmission body (100) that absorbs or dissipates heat is an intermediate temperature between the feeding temperature of the heat conduction fluid (110) and the sending temperature of the heat conduction fluid (110), and heat that absorbs or dissipates heat. It is uniformly distributed in the energy transmission body (100). A local high temperature is avoided by absorbing or dissipating thermal energy to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passively radiates or absorbs heat.

(Second Embodiment)
FIG. 7 shows a structure explanatory diagram of the second embodiment of the present invention.
The thermal energy transmission body (100) that absorbs or dissipates heat is composed of a solid phase, rubber phase, liquid phase, or gas phase thermal conductive material, combined with an array of double scroll lines, and having a temperature difference. Conduction composed of a gas phase fluid, a liquid phase fluid, a fluid that changes from a gas phase to a liquid phase, or a fluid that changes from a liquid phase to a gas phase. For the solid phase, rubber phase, liquid phase, or gas phase object or space (200) that transports, passively dissipates or absorbs the heat energy of the fluid (110), it has a heat absorption function or a heat dissipation function for cold energy. Operate. One or more thermal energy transmission bodies (100) that absorb or dissipate heat may be included.

  The fluid pipe (101) is made of a heat conductive material, and the double scroll pipe line and the double scroll pipe arrangement in parallel or nearly parallel are arranged with adjacent fluid transport pipes having different flow directions having temperature differences as the adjacent pipe lines. The heat absorption of the conduction fluid or the temperature distribution state of the heat radiating body is formed relatively uniformly, and a heat absorption or heat radiation function is generated for an object or space that passively radiates or absorbs heat. The outer ring of the double-scroll distribution pipe is on the inlet / outlet side of the pipe, is provided with a fluid inlet (111) and a fluid outlet (112), and the fluid pipe at the center of the scroll is bent in the opposite direction. As a result, the transmission fluid pipe turning structure (103) changes from the fluid inlet (111) and the fluid outlet (112) at the end of the fluid pipe to the gas phase fluid, the liquid phase fluid, and the gas phase to the liquid phase. Heat or heat transfer fluid (110) composed of a fluid that changes from a liquid phase to a gas phase, and a fluid passing through adjacent fluid conduits in the opposite direction to flow in the opposite direction to absorb or dissipate heat. Through the energy transmission body (100), the solid phase, rubber phase, liquid phase, or the solid phase, rubber phase, liquid phase, or the solid phase that absorbs or absorbs heat passively composed of the heat conducting material in the solid phase, rubber phase, liquid phase, or gas phase , Gas phase objects or spaces (20 ) To be transmitted.

  The fluid conduit (101) is configured by one-way or more series connection or parallel connection, and one or more double scrolls are arranged in each conduit, and the fluid inlet (111) and the fluid at both ends of the fluid conduit (101) are arranged. The exit (112) transports a gas-phase fluid, a liquid-phase fluid, a fluid that changes from a gas phase to a liquid phase, or a heat transfer fluid (110) that is composed of a fluid that changes from a liquid phase to a gas phase. The heat conduction fluid (110) of the fluid pipe (101) passing through the pipes of the array is caused to flow in the opposite direction, and the heat energy is constituted by a solid phase, rubber phase, liquid phase, or gas phase heat conduction material. The heat is transmitted to the heat energy transmitting body (100) that absorbs or dissipates heat.

  The fluid conduit (101) can be parallel or nearly parallel to a plane or three-dimensional, and forms a thermal energy transmission body (100) that absorbs or dissipates heat, and passively dissipates or absorbs a solid phase, rubber Endothermic or radiate heat to the phase, liquid phase, or gas phase object or space (200).

The thermal energy transmission body (100) and the fluid pipe (101) for absorbing or radiating heat shown in FIG.
1) a structure for assembling a heat energy transmission body (100) that absorbs or dissipates heat and a fluid pipe (101);
2) a structure constituted by an integral structure of a heat energy transmission body (100) that absorbs or dissipates heat and a fluid pipe (101);
3) A structure having a function of a thermal energy transmission body (100) in which the fluid pipe (101) directly absorbs or dissipates heat,
4) It has the function of a thermal energy transmission body (100) that absorbs or dissipates heat by additionally installing an independent thermal conductive plate (300) that is not connected to the fluid pipeline (101) and the adjacent pipeline. Construction,
5) A structure having a function of a thermal energy transmission body (100) for connecting or absorbing heat between the surrounding fluid conduits (101) and absorbing or radiating heat.
6) One or more of the structures having the function of a thermal energy transmission body (100) that absorbs or dissipates heat by connecting a heat conductive plate (350) having a heat-resistant tank between the surrounding fluid pipes (101) It has the following structure.

  FIG. 8 shows a temperature difference distribution diagram during operation of the cold energy generating apparatus that absorbs heat shown in FIG. As shown in FIG. 8, in the heat energy transmission body (100) that absorbs or dissipates heat, the heat conduction fluid (110) that passes through the inlet end of the fluid pipe (101) has a relatively low temperature, and heat conduction. The delivery end of the fluid (110) is relatively hot. In addition, the temperature of the heat energy transmission body (100) that absorbs or dissipates heat is an intermediate temperature between the temperature at which the heat transfer fluid (110) is fed and the temperature at which the heat transfer fluid (110) is sent, and the heat energy that absorbs or dissipates heat. The transmitter (100) is uniformly distributed. A local low temperature is avoided by absorbing or dissipating thermal energy to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passively radiates or absorbs heat.

  FIG. 9 shows a temperature difference distribution diagram during operation of the heat energy generating device for radiating heat shown in FIG. As shown in FIG. 9, in the thermal energy transmission body (100) that absorbs or dissipates heat, the heat conduction fluid (110) that passes through the inlet end of the fluid pipe (101) has a relatively high temperature. The delivery end of the fluid (110) is relatively cold. In addition, the temperature of the heat energy transmission body (100) that absorbs or dissipates heat is an intermediate temperature between the feeding temperature of the heat conduction fluid (110) and the sending temperature of the heat conduction fluid (110), and heat that absorbs or dissipates heat. It is uniformly distributed in the energy transmission body (100). A local high temperature is avoided by absorbing or dissipating thermal energy to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passively radiates or absorbs heat.

(Third embodiment)
FIG. 10 shows a structure explanatory diagram of the third embodiment of the present invention.
The thermal energy transmission body (100) that absorbs or dissipates heat is composed of a solid-phase, rubber-phase, liquid-phase, and gas-phase thermally conductive material, and is combined with an array of double scroll pipes and has a different flow direction with a temperature difference. A heat conduction fluid (a fluid that flows through the fluid conduit (101), a liquid phase fluid, a fluid that changes from a gas phase to a liquid phase, or a fluid that changes from a liquid phase to a gas phase ( 110) The heat absorption function or the heat dissipation function of the cold energy is activated for the solid phase, rubber phase, liquid phase, or gas phase object or space (200) that transports, passively releases or absorbs the thermal energy of 110). . One or more thermal energy transmission bodies (100) that absorb or dissipate heat may be included.

  The fluid pipe (101) is made of a heat conductive material, and the double scroll pipe line and the double scroll pipe arrangement in parallel or nearly parallel are arranged with adjacent fluid transport pipes having different flow directions having temperature differences as the adjacent pipe lines. The heat absorption of the conduction fluid or the temperature distribution state of the heat radiating body is formed relatively uniformly, and a heat absorption or heat radiation function is generated for an object or space that passively radiates or absorbs heat. The outer ring of the double-scroll distribution pipe is a pipe turning structure (103), and an intermediate portion close to one side of the double-scroll distribution pipe is set as the sending / inlet end side, and the fluid inlet (111) and the fluid outlet (112) is provided, and the fluid pipe line in the central part of the scroll shape is bent in the opposite direction to form a turning structure (103) of the pipe line of the transmission fluid, and the fluid inlet (111) at the end of the fluid pipe line And from the fluid outlet (112) transport a heat transfer fluid (110) composed of a gas phase fluid, a liquid phase fluid, a fluid changing from the gas phase to the liquid phase, or a fluid changing from the liquid phase to the gas phase, The fluid passing through the fluid pipes in the adjacent arrangement flows in the opposite direction, and passes through the thermal energy transmission body (100) that absorbs or dissipates heat, and the thermal energy is transferred in the solid phase, rubber phase, liquid phase, or gas phase. Passive composed of materials Solid phase to heat dissipation or absorption, rubber phase, liquid phase, or transmitted to the object or space gas phase (200).

  The fluid conduit (101) is configured by one-way or more series connection or parallel connection, and one or more double scrolls are arranged in each conduit, and the fluid inlet (111) and the fluid at both ends of the fluid conduit (101) are arranged. Adjacent arrangement for transporting a heat transfer fluid (110) composed of a gas phase fluid, a liquid phase fluid, a fluid changing from a gas phase to a liquid phase, or a fluid changing from a liquid phase to a gas phase by an outlet (112) The heat conduction fluid (110) of the fluid pipe line (101) passing through the pipe line flows in the opposite direction, and the heat energy is absorbed by a solid phase, rubber phase, liquid phase, or gas phase heat conduction material. Or it transmits to the thermal energy transmission body (100) which dissipates heat.

  The fluid conduit (101) can be parallel or nearly parallel to a plane or three-dimensional, and forms a thermal energy transmission body (100) that absorbs or dissipates heat, and passively dissipates or absorbs a solid phase, rubber Endothermic or dissipate heat to a phase, liquid phase, or gas phase object or space (200).

The thermal energy transmission body (100) and the fluid pipe (101) for absorbing or radiating heat shown in FIG.
1) a structure for assembling a heat energy transmission body (100) that absorbs or dissipates heat and a fluid pipe (101);
2) a structure constituted by an integral structure of a heat energy transmission body (100) that absorbs or dissipates heat and a fluid pipe (101);
3) A structure having a function of a thermal energy transmission body (100) in which the fluid pipe (101) directly absorbs or dissipates heat,
4) It has the function of a thermal energy transmission body (100) that absorbs or dissipates heat by additionally installing an independent thermal conductive plate (300) that is not connected to the fluid pipeline (101) and the adjacent pipeline. Construction,
5) A structure having a function of a thermal energy transmission body (100) for connecting or absorbing heat between the surrounding fluid conduits (101) and absorbing or radiating heat.
6) One or more of the structures having the function of a thermal energy transmission body (100) that absorbs or dissipates heat by connecting a heat conductive plate (350) having a heat-resistant tank between the surrounding fluid pipes (101) It has the following structure.

  FIG. 11 shows a temperature difference distribution diagram during operation of the cold energy generating apparatus that absorbs heat shown in FIG. As shown in FIG. 11, in the thermal energy transmission body (100) that absorbs or dissipates heat, the heat transfer fluid (110) passing through the inlet end of the fluid pipe (101) has a relatively low temperature, and the outlet end The heat transfer fluid (110) is relatively hot. The temperature of the heat energy transmission body (100) that absorbs or dissipates heat is intermediate between the temperature at which the heat transfer fluid (110) is fed and the temperature at which the heat transfer fluid (110) is sent, and the heat energy that absorbs or dissipates heat. The transmitter (100) is uniformly distributed. A local low temperature is avoided by absorbing or dissipating thermal energy to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passively radiates or absorbs heat.

  12 shows a temperature difference distribution diagram during operation of the heat energy generating device for radiating heat shown in FIG. As shown in FIG. 12, in the thermal energy transmission body (100) that absorbs or dissipates heat, the heat transfer fluid (110) passing through the inlet end of the fluid conduit (101) is relatively hot, and the outlet end The heat transfer fluid (110) has a relatively low temperature. In addition, the temperature of the heat energy transmission body (100) that absorbs or dissipates heat is an intermediate temperature between the feeding temperature of the heat conduction fluid (110) and the sending temperature of the heat conduction fluid (110), and heat that absorbs or dissipates heat. It is uniformly distributed in the energy transmission body (100). A local high temperature is avoided by absorbing or dissipating thermal energy to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passively radiates or absorbs heat.

  In addition to transmitting heat energy through a heat energy transmission body (100) that absorbs or dissipates heat, the heat absorbing / dissipating device arranges the fluid pipes (101) in a parallel or parallel plane or three-dimensional shape, and directly forms a structure. The heat conduction fluid (110) composed of a gas phase fluid having a temperature difference, a liquid phase fluid, a fluid changing from the gas phase to the liquid phase, or a fluid changing from the liquid phase to the gas phase Thermal energy is absorbed or released to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passes through and directly passively dissipates or absorbs heat.

FIG. 13 shows a structure constituted by the direct double scroll pipe shown in FIG. 4 and shows a structure explanatory diagram for transmitting energy to an object or space that directly and passively radiates or absorbs heat.
FIG. 14 is an explanatory diagram of a structure for transmitting energy to the object or space that directly and passively radiates or absorbs heat shown in FIG.
FIG. 15 is an explanatory diagram of a structure for transmitting thermal energy to the object or space directly and passively radiating or absorbing heat shown in FIG.

By transferring and flowing the heat transfer fluid (110) through the fluid pipe (101), the fluid pipes (101) are arranged in a parallel or parallel plane or three-dimensional shape to form a joint structure, The entire temperature difference of the joint structure is uniformly distributed, and heat is absorbed or dissipated to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passively dissipates or absorbs heat. .
The structural relationship between a solid phase, a rubber phase, a liquid phase, or a gas phase object or space (200) and a fluid conduit (101) that passively radiates or absorbs heat of the heat absorbing and radiating device is the same as that of the fluid conduit (101). The joint structure is directly constituted by a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that passively radiates or absorbs heat. Then, heat energy is transmitted to the solid phase, rubber phase, liquid phase, or vapor phase body or space (200) that passively radiates or absorbs heat.

By forming a pipe structure (100 ′) for transmitting a heat conducting fluid that passively dissipates or absorbs heat by forming related fluid pipes in parallel or nearly parallel plane or three-dimensional form, passive Instead of a solid, rubber, liquid, or gas phase object or space (200) that radiates or absorbs heat.
By transmission of a heat transfer fluid (110) composed of a gas phase fluid, a liquid phase fluid, a fluid changing from the gas phase to the liquid phase, or a fluid changing from the liquid phase to the gas phase by the fluid line (101), Passing heat energy through the heat energy transmitting body (100) that absorbs or dissipates heat, the pipe structure (100 ') that transmits heat conduction fluid that passively dissipates or absorbs heat passively dissipates or absorbs heat. Let

FIG. 16 shows a pipe structure (100 ′) in which the fluid conduit (101) in FIG. 4 of the present invention transmits a heat conduction fluid that passively dissipates or absorbs heat by means of a heat energy transmitter (100) that absorbs or dissipates heat. ) In combination.
FIG. 17 shows a pipe structure (100 ′) in which the fluid conduit (101) in FIG. 7 of the present invention transmits a heat conduction fluid that passively dissipates or absorbs heat by means of a heat energy transmitter (100) that absorbs or dissipates heat. ) In combination.
FIG. 18 shows a pipe structure (100 ′) in which the fluid conduit (101) in FIG. 10 of the present invention transmits a heat conduction fluid that passively dissipates or absorbs heat by means of a heat energy transmitter (100) that absorbs or dissipates heat. ) In combination.
FIG. 19 shows a pipe structure (100) of a heat conduction fluid in which the fluid conduit (101) in FIG. 4 of the present invention absorbs or dissipates heat by several sets of heat energy transfer bodies (100). ') Indicates the form combined with.
FIG. 20 shows a pipe structure (100) of a heat conduction fluid in which the fluid conduit (101) in FIG. 7 of the present invention passively radiates or absorbs heat by several heat energy transmitters (100) that absorb or radiate heat. ') Indicates the form combined with.
FIG. 21 shows a pipe structure of a heat conduction fluid in which the fluid pipe (101) in FIG. 10 of the present invention absorbs or dissipates heat by several sets of heat conduction fluid (100). 100 ′).

In order to further enhance the heat absorption or heat dissipation effect, the heat absorption and heat dissipation device is independent of at least one of the fluid conduit (101) and the pipe structure (100 ′) that transmits the heat conduction fluid that passively dissipates or absorbs heat. By additionally installing the heat conductive plate (300), the heat dissipation or heat absorption effect can be further enhanced.
FIG. 22 shows a configuration in which an independent heat conductive plate (300) is added to the fluid pipe (101).
23 is a cross-sectional view taken along the line AA in FIG.

  In order to further enhance the heat absorption or heat dissipation effect, the heat absorption and heat dissipation device transmits heat to the fluid pipe line (101) and at least one of the pipe structure (100 ′) that transmits the heat conduction fluid that passively dissipates or absorbs heat. By additionally installing the property plate (400), the ≡advance heat dissipation or endothermic effect can be further enhanced.

FIG. 24 is an explanatory view showing a form in which the cothermally conductive plate (400) is installed in the fluid conduit (101).
25 is a cross-sectional view taken along the line BB of FIG.
The heat-absorbing / dissipating device combines the stability of the structure, the manufacturing process, and the need for an independent heat-conducting function. A heat-conducting plate (350) having a heat-resistant tank is installed between the fluid pipes (101) to dissipate heat. Alternatively, the endothermic effect can be further enhanced.
FIG. 26 is an explanatory view showing a form in which a heat conductive plate (350) having a heat-resistant tank is installed in the fluid pipe (101).
27 is a cross-sectional view taken along the line CC of FIG.

  At least one fluid of the fluid conduit (101) and the pipe structure (100 ′) that transmits the heat conduction fluid that passively radiates or absorbs heat is controlled by the control device (500). Driven by the two-way fluid pumping device (600), periodically pumps in the forward and reverse directions, and pumps the heat transfer fluid (110) in two directions, thereby enhancing the temperature equalizing effect.

The bi-directional fluid pumping device (600) described above is controlled by a control device (500) configured by an electromechanical device, an electronic device, or a microcomputer and related software, and periodically pumps in the forward and reverse directions.
FIG. 28 is an explanatory diagram showing an operating system of the heat transfer fluid (110) pumped in two directions and periodically pumped in two directions.

  When applying the heat-absorbing / dissipating device, one or more of the following types can be manufactured based on the aforementioned operating principle, depending on application needs, demand structure, and cost consideration.

  At least one of a fluid conduit (101) of the heat absorbing / dissipating device and a pipe structure (100 ′) for transmitting a heat conduction fluid that passively radiates or absorbs heat, and a thermal energy transmitter (100) that absorbs or radiates heat Can be a unitary structure;

  The fluid pipe (101) of the heat absorbing / dissipating device and the pipe structure (100 ′) that transmits a heat conduction fluid that passively radiates or absorbs heat and a thermal energy transmitter (that absorbs or radiates heat) 100) can be constituted by a combination structure;

  At least one of the coupling in the fluid pipe (101) of the heat absorbing / dissipating device and the pipe structure (100 ') for transmitting the heat conduction fluid that passively radiates or absorbs heat, and the thermal energy transmitter that absorbs or radiates heat (100) can constitute a plate-like, block-like, multi-wing-like structural unit, or a structural unit by combination with a blade piece, or can be constituted by at least one structural unit.

  The heat-absorbing / dissipating device is assembled by one or more, and the individual parts are connected in series, in parallel, or in series-parallel, or in parallel or overlapping between the fluid lines through which the fluid line (101) passes. Various geometric shapes can be used.

  At least one heat conducting fluid (110) of the fluid conduit (101) of the heat sink / heat dissipator and the pipe structure (100 ′) that transmits the heat conducting fluid that passively radiates or absorbs heat is pumped and evaporated. And transporting the heat transfer fluid (110) in at least one natural convection mode of cold.

  The heat-absorbing / dissipating device passively dissipates heat in the fluid state by at least one of the heat transfer function or transmission system among the cooling temperature difference of the fluid, natural convection, and forced convection, radiation, and conduction. Alternatively, it absorbs or releases thermal energy to a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that absorbs heat.

  At least one of the heat transfer fluid (110) of the fluid pipe (101) of the heat dissipation and heat dissipation device and the pipe structure (100 ′) that transmits the heat transfer fluid that passively dissipates or absorbs heat is hermetically circulated or Flows through an open environment.

  The fluid inlet and the fluid outlet of each fluid conduit of the heat absorbing / dissipating device open in the same direction or different directions in the three-dimensional space.

  The fluid conduit of the heat absorbing / dissipating device is configured by a tubular structure, a plate-like structure, or a massive structure of a tunnel-like fluid conduit.

Heat-absorbing / dissipating devices include heat conduction application devices, heat energy absorption devices, heat energy release devices, heating devices, heat energy transmission devices, building heating or cooling, solar panel cooling, electric or power machine heating or cooling, machines Body shell heat absorption or heat dissipation, heat absorption or heat dissipation of the heat pipe structure that absorbs or dissipates the shell, heat absorption or heat dissipation of the body shell, heat absorption or heat dissipation of the chip or semiconductor element, heat absorption or heat dissipation of the ventilator, information device, stereo or imaging device Heat transfer, heat absorption or heat dissipation of various lamps or light emitting diodes (LEDs), heat absorption of the evaporator of the air conditioner or heat dissipation or heat energy transfer of the cooler, heat energy transfer of mechanical devices, heat dissipation of losses due to frictional heat, Electric heating equipment or other electric appliances or electric rice cookers Or heat energy transfer, flame heating stove or cookware heat absorption or heat energy transfer, heat energy absorption or heat dissipation in the formation or water, heat absorption or heat energy transfer, factory building or house building or building material or building space heat absorption or heat dissipation or It can be applied to heat energy transfer, heat absorption or heat dissipation of water towers, heat absorption or heat dissipation of batteries or fuel cells, or heat energy transfer.
In addition, the heat absorbing / dissipating device can be applied to household appliances, industrial products, electronic products, mechanical devices, power generation facilities, buildings, air conditioners, production facilities, or thermal energy transmission during the manufacturing process of industries.

DESCRIPTION OF SYMBOLS 100 ... Thermal energy transmission body 100 'that absorbs or dissipates heat Pipe line structure 101 that transmits heat conduction fluid that passively dissipates or absorbs heat ... Fluid pipe line 103 ... Diversion structure of the pipe line 110 ... heat conduction fluid 111 ... fluid inlet 112 ... fluid outlet 200 ... a solid phase, a rubber phase, a liquid phase, or a gas phase object or space 300 that passively radiates or absorbs heat Independent thermal conductive plate 350 ... thermal conductive plate 400 having a heat-resistant tank ... co-thermal conductive plate 500 ... control device 600 ... bidirectional fluid pumping device

Claims (18)

One or more parallel or nearly parallel series or parallel fluid pipelines are installed, and one or more double scrolls specified for each pipeline are arranged to provide a gas phase fluid or liquid phase with a temperature difference. A fluid flow that transports a fluid, a fluid that changes from a gas phase to a liquid phase, or a heat transfer fluid that is composed of a fluid that changes from a liquid phase to a gas phase, and that has a uniform temperature difference through a fluid line of a double scroll. Constructs a path and causes the fluid passing through the adjacent lines of pipes to flow in the opposite direction, creating heat absorption or heat dissipation function for objects or spaces that passively radiate or absorb heat, and passively radiate or absorb heat A heat absorbing / dissipating device that distributes an object or space relatively uniformly,
Consists of a solid phase, rubber phase, liquid phase, or gas phase thermally conductive material, combined with an array of double scroll pipelines, and circulates inside the fluid pipeline (101) of fluids with different flow directions with temperature differences Transports heat energy of a heat transfer fluid (110) composed of a gas phase fluid, a liquid phase fluid, a fluid that changes from a gas phase to a liquid phase, or a fluid that changes from a liquid phase to a gas phase. Or a thermal energy transmission body (100) that operates an endothermic function or a heat radiation function on a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that absorbs heat;
Consisting of parallel or substantially parallel double scroll pipes and double scroll pipe arrangements composed of heat conducting materials, adjacent fluid transport pipes with different flow directions with temperature differences are used to absorb heat from heat conduction fluid or heat sinks. A temperature distribution state is formed relatively uniformly, and an object or space that passively dissipates or absorbs heat is caused to absorb heat or dissipate, and the outer ring of the double scroll distribution line is located at the entrance and exit ends of the line. A fluid inlet (111) and a fluid outlet (112) are provided, and the fluid conduit in the center of the scroll shape is bent in the opposite direction to form a turning structure (103) for the transmission fluid conduit, Consists of gas phase fluid, liquid phase fluid, fluid changing from gas phase to liquid phase, or fluid changing from liquid phase to gas phase by fluid inlet (111) and fluid outlet (112) at the end of the pipeline The heat conduction fluid (110) is transported, the fluid passing through the fluid pipes in the adjacent arrangement is flowed in the reverse direction, and the heat energy is absorbed or dissipated through the heat energy transmission body (100), the heat energy is solid phase, rubber A fluid conduit that transfers to a solid, rubber, liquid, or gas phase object or space (200) that is passively dissipating or absorbing heat composed of a phase, liquid phase, or gas phase heat transfer material (101)
The fluid conduit (101) is configured by one-way or more series connection or parallel connection, and one or more double scrolls are arranged in each conduit, and the fluid inlet (111) and the fluid at both ends of the fluid conduit (101) are arranged. The exit (112) transports a gas-phase fluid, a liquid-phase fluid, a fluid that changes from a gas phase to a liquid phase, or a heat transfer fluid (110) that is composed of a fluid that changes from a liquid phase to a gas phase. The heat conduction fluid (110) of the fluid pipe (101) passing through the pipes of the array is caused to flow in the opposite direction, and the heat energy is constituted by a solid phase, rubber phase, liquid phase, or gas phase heat conduction material. Transmit to the heat energy transfer body (100) that absorbs or dissipates heat,
The fluid pipe (101) can be parallel or substantially parallel plane or three-dimensional, and forms a thermal energy transmission body (100) that absorbs or dissipates heat, and passively dissipates or absorbs a solid phase, rubber A heat absorbing / dissipating device that absorbs heat or dissipates heat from a phase, liquid phase, or gas phase object or space (200). The thermal energy transmission body (100) and the fluid pipe (101) that absorb or dissipate heat are:
1) a structure for assembling a heat energy transmission body (100) that absorbs or dissipates heat and a fluid pipe (101);
2) a structure constituted by an integral structure of a heat energy transmission body (100) that absorbs or dissipates heat and a fluid pipe (101);
3) A structure having a function of a thermal energy transmission body (100) in which the fluid pipe (101) directly absorbs or dissipates heat,
4) It has the function of a thermal energy transmission body (100) that absorbs or dissipates heat by additionally installing an independent thermal conductive plate (300) that is not connected to the fluid pipeline (101) and the adjacent pipeline. Construction,
5) A structure having a function of a thermal energy transmission body (100) for connecting or absorbing heat between the surrounding fluid conduits (101) and absorbing or radiating heat.
6) A structure having a function of a thermal energy transmission body (100) that absorbs or dissipates heat by connecting a thermal conductive plate (350) having a heat-resistant tank between the surrounding fluid pipes (101).
The heat absorbing / dissipating device according to claim 1, having one or more structures. Consists of a solid phase, rubber phase, liquid phase, or gas phase thermally conductive material, combined with an array of double scroll lines, and inside the fluid lines (101) of fluids with different flow directions having temperature differences Passively transports and passively heat energy of a heat transfer fluid (110) composed of a circulating gas phase fluid, a liquid phase fluid, a fluid that changes from a gas phase to a liquid phase, or a fluid that changes from a liquid phase to a gas phase A thermal energy transmission body (100) that operates a heat absorption function or a heat radiation function of cold energy on a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that radiates or absorbs heat; and
Consisting of parallel or substantially parallel double scroll pipes and double scroll pipe arrangements composed of heat conducting materials, adjacent fluid transport pipes with different flow directions with temperature differences are used to absorb heat from heat conduction fluid or heat sinks. A temperature distribution state is formed relatively uniformly, and an object or space that passively dissipates or absorbs heat is caused to absorb heat or dissipate, and the outer ring of the double scroll distribution line is located at the entrance and exit ends of the line. A fluid inlet (111) and a fluid outlet (112) are provided, and the fluid conduit in the center of the scroll shape is bent in the opposite direction to form a turning structure (103) for the transmission fluid conduit, Consists of gas phase fluid, liquid phase fluid, fluid changing from gas phase to liquid phase, or fluid changing from liquid phase to gas phase by fluid inlet (111) and fluid outlet (112) at the end of the pipeline The heat conduction fluid (110) is transported, the fluid passing through the fluid pipes in the adjacent arrangement is flowed in the reverse direction, and the heat energy is absorbed or dissipated through the heat energy transmission body (100), the heat energy is solid phase, rubber A fluid conduit that transfers to a solid, rubber, liquid, or gas phase object or space (200) that is passively dissipating or absorbing heat composed of a phase, liquid phase, or gas phase heat transfer material (101)
The fluid conduit (101) is configured by one-way or more series connection or parallel connection, and one or more double scrolls are arranged in each conduit, and the fluid inlet (111) and the fluid at both ends of the fluid conduit (101) are arranged. The exit (112) transports a gas-phase fluid, a liquid-phase fluid, a fluid that changes from a gas phase to a liquid phase, or a heat transfer fluid (110) that is composed of a fluid that changes from a liquid phase to a gas phase. The heat conduction fluid (110) of the fluid pipe (101) passing through the pipes of the array is caused to flow in the opposite direction, and the heat energy is constituted by a solid phase, rubber phase, liquid phase, or gas phase heat conduction material. The heat pipe (101) that transmits to the heat energy transmission body (100) that absorbs or dissipates heat can be parallel or substantially parallel to a flat or three-dimensional shape, and the heat energy transmission body (100) that absorbs or dissipates heat. The The heat absorbing / dissipating heat according to claim 1, characterized in that it absorbs or dissipates heat to or from a solid phase, rubber phase, liquid phase, or gas phase object or space that is formed and passively dissipates or absorbs heat. apparatus. Consists of a solid phase, rubber phase, liquid phase, or gas phase thermally conductive material, combined with an array of double scroll pipelines, and circulates inside the fluid pipeline (101) of fluids with different flow directions with temperature differences Transports heat energy of a heat transfer fluid (110) composed of a gas phase fluid, a liquid phase fluid, a fluid that changes from a gas phase to a liquid phase, or a fluid that changes from a liquid phase to a gas phase. Or a heat energy transmitting body (100) that operates a heat absorbing function or a heat radiating function on a solid phase, rubber phase, liquid phase, gas phase object or space (200) that absorbs heat, and a heat conductive material, The substantially parallel double scroll pipe and double scroll pipe arrangement have fluid transport pipes with different flow directions and adjacent pipes to form heat absorption of heat conduction fluid or temperature distribution of the radiator relatively uniformly. Let A heat-absorbing or heat-dissipating function is generated for an object or space that dynamically dissipates or absorbs heat. The outer ring of the double scroll distribution pipe is a pipe turning structure (103). The intermediate portion close to one side is the inlet / outlet side, the fluid inlet (111) and the fluid outlet (112) are provided, and the fluid passage in the central part of the scroll shape bends in the opposite direction, so that the transmission fluid conduit From the gas phase fluid, the liquid phase fluid, the fluid changing from the gas phase to the liquid phase, or from the liquid phase by the fluid inlet (111) and the fluid outlet (112) at the end of the fluid conduit. A thermal energy transmission body (100) that transports a heat conduction fluid (110) composed of a fluid that changes into a gas phase, causes fluids that pass through adjacent fluid conduits to flow in opposite directions, and absorbs or dissipates heat. Through heat Solid-state, rubber-phase, liquid-phase, or gas-phase object or space (200) that passively dissipates or absorbs heat from a solid-state, rubber-phase, liquid-phase, or gas-phase heat conductive material A fluid conduit (101) for transmitting to
The fluid conduit (101) is configured by one-way or more series connection or parallel connection, and one or more double scrolls are arranged in each conduit, and the fluid inlet (111) and the fluid at both ends of the fluid conduit (101) are arranged. The exit (112) transports a gas-phase fluid, a liquid-phase fluid, a fluid that changes from a gas phase to a liquid phase, or a heat transfer fluid (110) that is composed of a fluid that changes from a liquid phase to a gas phase. The heat conduction fluid (110) of the fluid pipe (101) passing through the pipes of the array is caused to flow in the opposite direction, and the heat energy is constituted by a solid phase, rubber phase, liquid phase, or gas phase heat conduction material. Transmit to the heat energy transfer body (100) that absorbs or dissipates heat,
The fluid pipe (101) can be parallel or substantially parallel plane or three-dimensional, and forms a thermal energy transmission body (100) that absorbs or dissipates heat, and passively dissipates or absorbs a solid phase, rubber The heat absorbing / dissipating device according to claim 1, wherein the heat absorbing / dissipating device dissipates heat or dissipates a phase, liquid phase or gas phase object or space (200).   In addition to transmitting heat energy through the heat energy transmitting body (100) that absorbs or dissipates heat, the fluid pipes (101) are arranged in a parallel or substantially parallel plane shape or three-dimensional shape, and directly constitute a structure. Passing through a heat transfer fluid (110) composed of a gas phase fluid having a temperature difference, a liquid phase fluid, a fluid changing from a gas phase to a liquid phase, or a fluid changing from a liquid phase to a gas phase, and directly passive The heat absorbing / dissipating device according to claim 1, wherein thermal energy is absorbed or released from a solid phase, rubber phase, liquid phase, gas phase object or space (200) that thermally radiates or absorbs heat. The relationship between the solid pipe, the rubber phase, the liquid phase, or the gas phase object or space (200) that passively radiates or absorbs heat and the fluid pipe (101) is related to the fluid pipe (101) and the passive heat radiation. Or a solid phase, a rubber phase, a liquid phase, or a solid phase, a rubber phase, a liquid phase, or a gas phase object or space (200) constituting a joint structure and passively radiating or absorbing heat, or , Transfer thermal energy to a gas phase object or space (200),
By forming a pipe structure (100 ′) for transmitting a heat conduction fluid that passively dissipates or absorbs heat by forming related fluid pipes in a parallel or substantially parallel plane shape or a three-dimensional shape, The heat-absorbing and heat-dissipating device according to claim 1, characterized in that it replaces a solid phase, rubber phase, liquid phase, or gas phase object or space (200) that radiates or absorbs heat.   At least one of the fluid conduit (101) and the pipe structure (100 ′) that transmits heat conduction fluid that passively dissipates or absorbs heat is provided with an independent heat conductive plate (300) and a co-heat conductive plate (400). And at least 1 is installed among the heat conductive plates (350) with a heat-resistant tank, The heat absorption-and-dissipation apparatus of Claim 1 characterized by the above-mentioned. At least one of the fluid pipe (101) and the pipe structure (100 ′) that transmits the heat conduction fluid that passively radiates or absorbs heat is bidirectionally pumped under the control of the controller (500). Driven by the device (600), periodically pumped in forward and reverse directions, pumping the heat transfer fluid (110) in two directions,
The bi-directional fluid pumping device (600) is controlled by a control device (500) configured by an electromechanical device, an electronic device, or a microcomputer and related software, and is periodically pumped in forward and reverse directions. The heat absorbing / dissipating device according to claim 1.   At least one of the fluid pipe (101) and the pipe structure (100 ′) that transmits the heat conduction fluid that passively radiates or absorbs heat and the thermal energy transmitter (100) that absorbs and radiates heat are integrated. The heat absorbing / dissipating device according to claim 1.   A combination of at least one of the fluid pipe (101) and the pipe structure (100 ′) that transmits the heat conduction fluid that passively radiates or absorbs heat and the thermal energy transmitter (100) that absorbs or radiates heat The heat-absorbing / dissipating device according to claim 1.   At least one of the coupling in the fluid pipe (101) and the pipe structure (100 ′) that transmits the heat conduction fluid that passively radiates or absorbs heat, and the thermal energy transmitter (100) that absorbs or radiates heat Is a plate-like, lump-like, or multi-winged structural unit, or a combination of blades with a structural unit, or at least one structural unit. Item 1. The heat absorbing and radiating device according to Item 1.   The individual parts are assembled by one or more, and the individual parts are connected in series, parallel, or series-parallel between the fluid pipes through which the fluid pipe (101) passes, or are arranged in various geometries such as parallel or overlapping. The heat-absorbing / dissipating device according to claim 1.   At least one heat conduction fluid (110) of the fluid pipe (101) and the pipe structure (100 ′) that transmits the heat conduction fluid that passively radiates or absorbs heat is pumped, evaporated, and cooled. The heat-absorbing / dissipating device according to claim 1, wherein the heat-conducting fluid (110) is transported by at least one natural convection method.   Passively dissipates or absorbs heat in the fluid state by at least one of the heat transfer function or conduction method among the cold temperature difference of the fluid, natural convection, convection caused by forced pumping of the fluid, radiation, and conduction. The heat absorbing / dissipating device according to claim 1, wherein thermal energy is absorbed or released from a solid phase, rubber phase, liquid phase, or gas phase object or space (200).   At least one of the fluid conduit (101) and the conduit structure (100 ′) that transmits the passively heat-dissipating or absorbing heat-conducting fluid (110) has a closed circulation or open environment. The heat absorbing / dissipating device according to claim 1, wherein the heat absorbing / dissipating device flows.   2. The heat absorbing / dissipating device according to claim 1, wherein the fluid inlet and the fluid outlet of the fluid pipe are opened in the same direction or in different directions in the three-dimensional space.   2. The heat absorbing / dissipating device according to claim 1, wherein the fluid pipe is constituted by a tubular structure, a plate-like structure, or a massive structure of a tunnel-like fluid pipe. Heat conduction application device, thermal energy absorption device, thermal energy release device, heating device, thermal energy transmission device, building heating or cooling, solar panel cooling, electric or power machine heating or cooling, machine shell heat absorption or heat dissipation Heat pipe structure body shell heat absorption or heat dissipation, body shell heat absorption or heat dissipation, chip or semiconductor element heat absorption or heat dissipation, heat absorption, heat dissipation or heat energy transfer of ventilation device, information device, stereo or image device, various lamps or Endothermic or dissipative heat or heat energy transfer of light emitting diodes (LEDs), endothermic or heat transfer of air conditioner evaporators, dissipated or thermal energy transfer of coolers, thermal energy transmission of mechanical devices, loss of heat due to frictional heat, electric heating devices or other Dissipation or heat energy from electric appliances or electric rice cookers Heat transfer, heat absorption of heat stoves or cookware for heat transfer, heat absorption of heat energy in the formation or water, heat dissipation or heat transfer of heat energy, heat absorption or heat dissipation or heat energy of factory building or house building or building material or building space Applicable to transmission, heat absorption or heat dissipation of water tower, heat absorption or heat dissipation of battery or fuel cell or heat energy transmission,
2. The home appliance, the industrial product, the electronic product, the mechanical device, the power generation facility, the building, the air conditioner, the production facility, or the heat energy transmission during the manufacturing process of the industry. Absorption and heat dissipation device.

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