BRPI1004119A2 - absorber or heatsink with double spiral tubing that transmits temperature difference fluid - Google Patents

Abstract

ABSORBING DEVICE OR HEAT SINK WITH DOUBLE SPIRAL PIPE TRANSMITING TEMPERATURE DIFFERENCE FLUID. The present invention relates to a device, which is composed of one or more fluid pipes installed in parallel or near parallel by series or parallel connection, each pipe is specifically distributed by one or more double spiral arrangements to transmit thermally conductive fluid, and double spiral fluid tubing constitutes fluid flow evenly distributed over temperature difference.

Description

"DOUBLE SPIRAL PIPE ABSORBING HEAT OR HEAT DEVICE TRANSMITING TEMPERATURE DIFFERENCE FLUID"

HISTORIC

(a) Field of the Invention

The present invention relates to a dual-coil heat-absorbing or heat-dissipating device that transmits temperature difference fluid, which is composed of one or more fluid lines installed in parallel or near parallel in series connection or in parallel, and each pipe is specifically distributed by one or more double spiral arrangements to transmit temperature-difference thermal conductive fluid consisting of gaseous or liquid state, gaseous to liquid state, or liquid to gas, and by means of the double spiral fluid pipe constituting the fluid flow evenly distributed by temperature difference, thereby the fluids passing through neighboring pipe flow in reverse direction to produce heat absorption or dissipation function over the article or space that receives heat absorption or heat dissipation the passive, thereby forming a more uniform temperature distribution state in the space or article that receives passive heat absorption or dissipation.

(b) Description of the Prior Art

For conventional heat absorbing or dissipating devices that pass thermally conductive fluid such as the heat-absorbing or dissipating body comprised of gaseous or liquid state, gaseous to liquid state or liquid to gaseous state such as water radiators. motor cooling, heat absorbing cooling energy discharge devices using thermal conductive fluid, or heat dissipation heating energy discharge devices using thermal conductive fluid as heating devices, heaters, or heat transfer heating, since the direction of flow of the thermally conductive fluid is fixed, a larger temperature difference is formed between different positions in the heat-absorbing or dissipating body of the thermally conductive fluid.

SUMMARY OF THE INVENTION

The present invention relates to a dual-coil heat-absorbing or heat-dissipating device that transmits temperature difference fluid, which is composed of one or more fluid lines installed in parallel or near parallel in series connection or in parallel, and each pipe is specifically distributed by one or more double spiral arrangements for transmitting temperature difference thermally conductive fluid consisting of gaseous or liquid state fluid, gaseous to liquid state fluid or liquid to gaseous state fluid.

BRIEF DESCRIPTION OF DRAWINGS

Figure 1 is a schematic main structural view of a heat absorbing or dissipating device to be penetrated by thermally conductive fluid in a fixed flow direction consisting of conventional heat dissipating or gaseous fluid or gaseous to liquid state or fluid. liquid to gaseous fluid;

Figure 2 is a temperature difference distribution diagram of Figure 1 being operated for the heat absorbing cooling energy discharge device function;

Figure 3 is a temperature difference distribution diagram of Figure 1 being operated for the heat dissipating heating energy discharge device function;

Figure 4 is a main structural schematic view of one embodiment according to the present invention;

Figure 5 is a temperature difference distribution diagram formed in the structure shown in Figure 4 being operated for the function of the heat absorbing cooling energy discharge device; Figure 6 is a temperature difference distribution diagram formed in the structure shown in Figure 4 being operated for the function of the heat dissipating heating energy discharge device;

Figure 7 is a schematic structural view.

principal of another embodiment according to the present invention;

Figure 8 is a temperature difference distribution diagram formed in the structure shown in Figure 7 being operated for heat absorbing cooling energy discharge device function;

Figure 9 is a temperature difference distribution diagram formed in the structure shown in Figure 7 being operated for heat dissipating heating energy discharge device function; Figure 10 is a schematic structure view.

in another embodiment according to the present invention,

Figure 11 is a temperature difference distribution diagram formed on the mustard structure in Figure 20 10 being operated for the function of the heat absorbing cooling energy discharge device;

Figure 12 is a temperature difference distribution diagram formed on the mustard structure in Figure being operated for the function of the heat dissipation heating energy discharge device;

Figure 13 is a main structural schematic view of the structure shown in Figure 4, which directly transmits thermal energy to the space or article that receives passive heat absorption or dissipation; Figure 14 is a schematic structural view.

main structure shown in Figure 7, which directly transmits thermal energy to the space or article that receives passive absorption or heat dissipation;

Figure 15 is a main structural schematic view of the mustard structure in Figure 10 which directly transmits thermal energy to the space or article that receives passive heat absorption or dissipation; Figure 16 shows the first practical application of fluid piping 101 shown in Figure 4 through the thermal energy transmission body 100 for heat absorption or dissipation to be combined with the structural pipe body which transmits the thermal conductive fluid to passively receiving heat dissipation or absorption 100 'according to the present invention;

Figure 17 shows the second practical application of fluid piping 101 shown in Figure 7, through the thermal energy transmission body 100, for heat absorption or dissipation, to be combined with the structural pipe body that transmits the thermal conductive fluid. passively receiving heat absorbing or dissipating means 100 according to the present invention;

Figure 18 shows the third practical application of fluid piping 101 shown in Figure 10 through the heat absorbing or heat dissipating thermal energy transmission body 100 to be combined with the tubing structural body transmitting the absorbing or dissipating thermal conductive fluid. passively receiving heat 100 'in accordance with the present invention;

Figure 19 shows the first practical application of fluid piping 101 shown in Figure 4 is through the heat absorbing or heat dissipating thermal power transmission body 100 to be combined with multiple assemblies of the structural pipe body transmitting the thermally conductive fluid. passively receiving heat absorption or dissipation 100 'in accordance with the present invention;

Figure 20 shows the second practical application of fluid piping 101 shown in Figure 7 through the heat absorbing or heat dissipating thermal power transmission body 100 to be combined with multiple assemblies of the structural pipe body that transmits the thermally conductive fluid. passively receiving heat absorption or dissipation 100 'in accordance with the present invention;

Figure 21 shows the third practical application of fluid piping 101 shown in Figure 10 through the heat-absorbing or heat dissipating thermal power transmission body 100 to be combined with multiple assemblies of the structural pipe body that transmits the thermally conductive fluid. passively receiving heat dissipation or absorption 100 'according to the present invention;

Figure 22 is a structural view of one embodiment, wherein fluid piping 101 is additionally connected to independent thermal conductive plate 300 in accordance with the present invention;

Figure 23 is a sectional drawing of the line A-A in

Figure 22;

Figure 24 is a schematic structural view of one embodiment, wherein the common thermally conductive plate 400 is installed between the fluid piping 101 according to the present invention;

Figure 25 is a sectional drawing of the line B-B in

Figure 24;

Figure 26 is a schematic structural view of one embodiment, wherein a thermally conductive plate 350 with temperature isolation slits is installed between fluid piping 101 according to the present invention;

Figure 27 is a sectional drawing of the line C-C in

Figure 26; and

Figure 28 is a schematic view of the operating system, wherein the thermally conductive fluid is periodically pumped bi-directionally by a bi-directional fluid pump in accordance with the present invention.

DESCRIPTION OF MAIN COMPONENT SYMBOLS

100: Thermal power transmission body for heat absorption or dissipation.

100 ': structural pipe body that transmits thermally conductive fluid for passive heat absorption or dissipation.

101: fluid piping.

103: Pipe steering structure.

110: thermal conductive fluid.

111: fluid inlet. 112: fluid outlet. 200: article that receives heat dissipation or absorption passively in solid state, or colloid, or liquid, or gaseous, or space.

300: independent thermal conductive plate.

350: Thermal conductive plate with temperature isolation slots.

400: common thermal conductive plate.

500: control device.

600: fluid pumping device

bidirectional.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

Figure 1 is a schematic main structural view of a conventional heat absorber or heatsink device to be penetrated by thermally conductive fluid in a fixed flow direction consisting of gaseous fluid or heat-absorbing or dissipating liquid or liquid fluid or gaseous to liquid state or liquid to gaseous state fluid. As shown in Figure 1, the heat sink or absorber assembly is conventionally comprised of thermally conductive fluid 110, which is comprised of gaseous or liquid state fluid, or gaseous to liquid state fluid, or liquid to gaseous state fluid. by passing through the first fluid piping 101 to match the thermal energy transmission body for heat absorption or dissipation 100 to 1) passing the thermal conductive fluid 110 through the fluid piping 101 to perform the cooling or heating functions through the heat-absorbing or heat-dissipating thermal energy transmission body 100 on an article receiving passively solid or colloidal or liquid or gaseous heat absorption or dissipation or space 200; or 2) passing the thermally conductive fluid 110 through the fluid piping 101 to inversely receive the surrounding cooling or heating energy from the heat absorbing or dissipating thermal power transmission body 100 to perform cooling or heating functions; wherein item 1) is frequently applied to engine cooling water radiators, heat absorbing cooling energy discharge devices using thermally conductive fluid 110, or heat dissipating heating energy discharge devices utilizing the thermal conductive fluid 110 such as heating devices, heaters, evaporators, condensers, or the cooling or heating energy transfer device; later item 2) is often applied in cooling or heating energy transfer devices; and in the application of item 1), the thermally conductive fluid 110 is entering through the fluid tubing inlet 101 on one side of the thermal energy transmission body for heat absorption or dissipation 100 and exiting through another side end thereby forming a larger temperature difference between the inlet and outlet of the thermal energy transmission body fluid absorption pipe 101 for heat absorption or dissipation 100 passed through the thermally conductive fluid 110, and similarly in the application of item 2), will form a temperature difference larger between the inlet and outlet of the heat-absorbing or heat-dissipating fluid body 101, which are the defects of the conventional heat-absorbing or absorbing device.

Figure 2 is a diagram of the "temperature difference distribution of Figure 1 being operated for the function of heat absorbing cooling energy discharge device. Figure 2 shows that the thermally conductive fluid 110 in the unidirectional flow direction, as shown in Figure 1 being operated in the conventional heat dissipation heat discharge functions appears in unidirectional flow path distribution, where when the thermally conductive fluid 110 passes through the fluid piping 101, a distribution state of Larger temperature difference forms between the inlet and outlet of the thermally conductive fluid 110 of the thermal energy transmission body for heat absorption or dissipation 100.

Figure 3 is a distribution diagram of

temperature difference of Figure 1 being operated for the heating energy discharge device function for 8

heat dissipation. Figure 3 shows that the thermal conductive fluid 110 in the unidirectional flow direction as shown in Figure 1 being operated in the conventional heat absorption cooling energy discharge function appears in unidirectional flow path distribution, where when the conductive fluid 110 passes through fluid piping 101, a larger temperature difference distribution state is formed between the inlet and outlet of the thermally conductive fluid 110 of the thermal energy transmission body for heat absorption or dissipation 100.

Aiming at the above phenomenon, the present invention innovatively describes a thermally conductive fluid-absorbing or heat-dissipating device which passes through, wherein the double spiral arrangement tubing transmits the temperature difference fluids in directions of different flow according to the temperature difference, so as to produce heat absorption or dissipation function over the article or space that passively receives heat dissipation or absorption, thereby forming a more uniform temperature distribution state over the space or article that receives heat dissipation or passive absorption.

Figure 4 is a main structural schematic view of one embodiment according to the present invention. As shown in Figure 4, the main structure comprises the following:

- Heat-absorbing or heat-dissipating thermal energy transmission body 100: produced from solid-state or colloidal thermal conductive material or liquid or gaseous to receive the thermal energy of thermal-conductive fluid 110 consisting of gaseous or liquid-state fluid, gaseous-to-liquid state fluid or liquid-to-gaseous state fluid within the combined fluid piping 101 with double coil arrangement that transmits the temperature difference fluids in different flow directions according to the temperature difference so as to perform heat absorbing cooling energy discharge operation function or heat dissipating heating energy discharge operation function on the article receiving passive solid or colloid or liquid heat absorption or dissipation, or gas, or space 200, where the number of thermal energy transmission bodies for heat absorption or dissipation 100 may be one or more than one, and

- Fluid tubing 101: Produced from good thermally conductive material, wherein fluid tubing 101 is a parallel or near parallel double spiral piping structure, and the arrangement of the double spiral piping structure is one in which the temperature difference fluid piping and transmitting temperature difference fluids in different flow directions are arranged to be the neighboring pipe, thereby the thermally conductive fluid forms a more uniform temperature distribution state in the heat dissipation or absorption body. heat, so as to produce heat absorbing or dissipating function over the article or heat dissipating or heat absorbing space passively; It is characterized by the fact that the exterior of the double coiled tubing is the inlet and outlet side of the tubing, which is installed with fluid inlet 111 and fluid outlet 112, and the fluid piping near the center of the coiled spiral. one reverse turn is the pipeline steering structure 103 for transmission fluid, thereby thermally conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous to liquid state fluid, or liquid to gaseous state fluid is transmitted through the fluid inlet 111 to fluid outlet 112 disposed at both ends of the fluid tubing, thereby the fluids in the fluid tubing passing through the neighboring tubing flow in reverse directions so as through the thermal power transmission body for heat dissipation or absorption 100 transmit thermal energy to the article receiving passive heat absorption or dissipation in space or solid state, or colloid, or liquid or gas 200; and

fluid piping 101 is comprised of one or more piping by series or parallel connection, and each piping is distributed by one or more double coil arrangements for transmitting thermally conductive fluid 110 consisting of gaseous fluid or liquid, fluid gaseous to liquid or fluid to gaseous state through fluid inlet 111 and fluid outlet 112 disposed at both ends of fluid tubing 101 for thermally conductive fluids 110 passing through neighboring fluid tubing 101 in reverse flow directions, so as to transmit thermal energy to the heat absorbing or dissipating thermal energy transmission body 100 produced from solid or colloidal or liquid or gaseous thermal conductive material; and

fluid piping 101 is distributed parallel or nearly parallel to a flat structure or three-dimensional structure in the heat-absorbing or heat-dissipating thermal energy transmission body 100 to perform heat-absorbing or dissipating function on the absorbing article or solid state heat dissipation, or colloid, or liquid, or gaseous, or space 200.

The structural relationships between the heat absorbing or heat dissipating thermal power transmission body 100 and the fluid piping 101 as shown in Figure 4 may consist of one or more relationships as follows, including:

(1) the heat-absorbing or heat-dissipating thermal power transmission body 100 is in a structure

mounted with fluid piping 101;

(2) the heat absorbing or heat dissipating thermal power transmission body 100 is in an integral structure with fluid piping 101;

(3) The function of thermal energy transmission body for heat absorption or dissipation 100 is directly

provided by fluid piping 101;

(4) The function of the thermal energy transmission body for heat absorption or dissipation 100 is provided by fluid piping 101 additionally installed with the plate.

300 independent thermal conductor that does not connect to neighboring piping; (5) the function of the heat absorbing or heat dissipating thermal power transmission body 100 is provided by the common thermal conductive plate 400 connected between the neighboring fluid piping 101; and

(6) The function of the heat absorbing or heat dissipating thermal power transmission body 100 is provided by the thermal conductive plate 350 with temperature isolation slots connected between the neighboring fluid piping 101.

Figure 5 is a temperature difference distribution diagram formed in the structure shown in Figure 4 being operated for the function of heat absorbing cooling energy discharge device. As shown in Figure 5, in the heat absorbing or heat dissipating thermal power transmission body 100, the thermal conductive fluid 110 passing through the inlet of the fluid pipe 101 is at a lower temperature, the thermal conductive fluid 110 passing through the outlet. of fluid piping 101 is at a higher temperature, and the heat absorbing or heat dissipating thermal energy transmission body 100 demonstrates the average temperature, which is more evenly distributed, between the temperatures of the inlet thermally conductive fluid 110 and the fluid. thermal output conductor 110, to perform the energy discharge function for heat absorption and cooling on the article receiving passive solid state heat dissipation or absorption, or colloid, or liquid, or gas, or space 200 to prevent the local low temperature is too low.

Figure 6 is a temperature difference distribution diagram formed in the structure shown in Figure 4 being operated for heat dissipating heating energy discharge device function. As shown in Figure 6, the thermal energy transmission body for heat absorption or dissipation 100, the thermal conductive fluid 110 passing through the inlet of the fluid piping 101 is at a higher temperature, the thermal conductive fluid passing through the fluid pipe outlet 101 is at a lower temperature, and the heat absorbing or heat dissipating thermal power transmission body 100 demonstrates the average temperature, which is more evenly distributed, between the temperatures of the inlet thermally conductive fluid 110 and thermally conductive output fluid 110, to perform the function of heating energy discharge and heat dissipation on the article receiving passive solid state heat dissipation or absorption, or colloid, or liquid, or gaseous, or space 200 to prevent the local high temperature from being too high.

Figure 7 is a main structural schematic view of another embodiment according to the present invention. As shown in Figure 7, the structure further includes:

- Heat-absorbing or heat-dissipating thermal energy body 100: Produced from solid-state thermal conductive material, or colloid or liquid or gas to receive thermal energy from thermally conductive fluid 110

consisting of gaseous or liquid-state fluid, gaseous-to-liquid fluid or liquid-to-gaseous fluid within the combined dual-spiral arrangement fluid piping 101 which transmits the temperature difference fluids in different flow directions according to the temperature difference so as to perform heat absorbing cooling energy discharge operation function or heat dissipation heating energy discharge operation function on the article receiving passively solid state heat dissipation or absorption , or colloid, or liquid, or gas, or space 200, wherein the number of heat absorbing or heat dissipating thermal energy transmission bodies 100 may be one or more than one; and

- Fluid tubing 101: Produced from good thermally conductive material, where fluid tubing 101 is a

double coiled pipe structure in parallel or near parallel, and the arrangement of the double coiled pipe structure is that temperature difference fluid piping and transmitting temperature difference fluids in different flow directions are arranged to be neighboring piping, thereby the thermally conductive fluid forms a more uniform temperature distribution state in the heat-absorbing or dissipating body, so as to produce heat-absorbing or dissipating function on the article or space that receives heat-absorbing or dissipating. Heat is characterized by the fact that the exterior of the double coiled tubing is the pipe steering structure 103, and the fluid piping near the center of the reverse loop spiral is used as the pipe inlet and side to transmit fluid and is installed with the fluid inlet 111 and the fluid outlet 112 so Thus, the thermal conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous to liquid state fluid, or liquid to gaseous state fluid is transmitted through fluid inlet 111 and fluid outlet 112 disposed at both ends of the tubing. thus, fluids in the fluid tubing passing through neighboring tubing flow in reverse directions, so that through the thermal energy transmission body for heat absorption or dissipation 100 transmit thermal energy to the article receiving absorption or dissipation of solid state passive heat, or colloid, or liquid, or gas, or space 200; and

fluid piping 101 is comprised of one or more fluid piping serially connected in parallel with one or more distributed double spiral arrangements for transmitting thermally conductive fluid 110 comprised of gaseous or liquid state, gaseous to liquid state. , or liquid to gaseous fluid through fluid inlet 111 and fluid outlet 112 disposed at both ends of fluid tubing 101, to thermally conductive fluids 110 passing through neighboring fluid tubing 101 in reverse flow directions, for transmitting thermal energy to the heat absorbing or dissipating thermal energy transmission body 100 produced from solid-state, colloidal or liquid or gaseous thermal conductive material; and

Fluid tubing 101 is distributed parallel or nearly parallel to a flat structure or three-dimensional structure in the thermal energy transmission body for heat absorption or dissipation 100 to perform absorption or heat dissipation function on the absorbing article. or passively solid state heat dissipation, or colloid, or liquid, or gaseous, or space 200.

The structural relationships between the heat absorbing or heat dissipating thermal power transmission body 100 and fluid piping 101, as shown in Figure 7 may be comprised of one or more relationships as follows, including:

(1) the heat absorbing or heat dissipating thermal power transmission body 100 is in a frame mounted with fluid piping 101;

(2) the heat absorbing or heat dissipating thermal power transmission body 100 is in an integral structure with fluid piping 101;

(3) the function of the thermal energy transmission body for heat absorption or heat dissipation 100 is directly provided by fluid piping 101;

(4) the function of the heat-absorbing or heat-dissipating heat transfer body 100 is provided by fluid piping 101 additionally installed with the independent thermal conductive plate 300 which does not connect with neighboring piping;

(5) the function of the heat-absorbing or heat-dissipating thermal power transmission body 100 is provided by the thermal-conductive plate commutating 400 connected between neighboring fluid piping 101; and

(6) The function of the heat absorbing or heat dissipating thermal power transmission body 100 is provided by the thermal conductive plate 350 with temperature isolation slots connected between the neighboring fluid piping 101.

Figure 8 is a temperature difference distribution diagram formed in the structure shown in Figure 7 being operated for the function of the heat absorbing cooling energy discharge device. As shown in Figure 8, in the heat absorbing or heat dissipating thermal power transmission body 100, the thermally conductive fluid 110 passing through the inlet of the fluid piping 101 is at a lower temperature, the thermally conductive fluid 110 that passes through of the fluid pipe outlet 101 is at a higher temperature, and the heat absorbing or heat dissipating thermal power transmission body 100 demonstrates the average temperature, which is more evenly distributed, between the temperatures of the thermally conductive fluid entering 110 and the thermally conductive fluid exiting 110, to perform the function of discharging cooling energy and heat absorption on the article receiving passively solid or colloid, or liquid, or gaseous, heat-absorbing or dissipating space 200, to prevent the local low temperature from being too low.

Figure 9 is a temperature difference distribution diagram formed in the structure shown in Figure 7 being operated for heat dissipating heating energy discharge device function. As shown in Figure 9, the thermal energy transmission body for heat absorption or dissipation 100, the thermal conductive fluid 110 passing through the inlet of the fluid piping 101 is at a higher temperature, the thermal conductive fluid passing through the fluid pipe outlet 101 is at a lower temperature, and the heat absorbing or heat dissipating thermal power transmission body 100 demonstrates the average temperature, which is more evenly distributed, between the temperatures of the inlet thermally conductive fluid 110 and thermally conductive output fluid 110, to perform the function of heating energy discharge and heat dissipation on the article receiving passively solid state heat dissipation or absorption, or colloid, or liquid, or gas, or space 200 to prevent the local high temperature is too high.

Figure 10 is a main structural schematic view of still another embodiment according to the present invention. As shown in Figure 10, the additional structure including:

- Heat-absorbing or heat-dissipating thermal energy transmission body 100: Produced from solid-state thermal conductive material, or colloid or liquid or gaseous to receive the thermal energy of thermal-conductive fluid 110 consisting of gaseous or liquid state fluid, fluid Gaseous-to-liquid or liquid-to-gaseous fluid within the dual-spiral arrangement combined fluid piping 101 which transmits the temperature difference fluids in different flow directions according to the temperature difference to perform function heat-absorbing cooling energy discharge operation or heat-dissipating heating energy discharge function on the article receiving passively solid or colloid or liquid or gaseous heat dissipation or absorption, or space 200, where the number of the thermal energy transmission bodies for The heat absorption or dissipation 100 may be one or more than one; and

- Fluid Pipe 101: Produced from good thermally conductive material, where Fluid Pipe 101 is a parallel or nearly parallel double spiral pipe structure, and the arrangement of the double spiral pipe structure is that the fluid pipe with temperature difference and transmitting the temperature difference fluids in different flow directions are arranged to be the neighboring pipe, thereby the thermally conductive fluid forms a more uniform temperature distribution state in the heat absorption or dissipation body of so as to produce heat absorption or dissipation function on the article or space receiving heat absorption or dissipation; is characterized by the fact that the exterior of the double coiled pipe is the pipe direction structure 103, the pipe near the middle side of the double coiled pipe is on the extreme side of the pipe inlet and outlet, and is installed with fluid inlet 111 and fluid outlet 112, and the sidemost and closest to the center of the spiral is in a reverse loop to be used as the pipeline steering structure 103 for transmitting fluid, thereby from the inlet. 111 and fluid outlet 112 at both ends of the fluid tubing to transmit thermally conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous to liquid state fluid, or liquid to gaseous state fluid, causing the fluids that pass through the neighboring pipe in reverse flow directions, and through the thermal energy transmission body to absorb heat dissipation or transmission 100 transmits thermal energy to the article receiving passive solid state or colloid, or liquid, or gaseous heat absorption or dissipation;

or space 200; and

fluid piping 101 is comprised of one or more fluid piping serially connected in parallel with one or more distributed double spiral arrangements for transmitting thermally conductive fluid 110 comprised of gaseous or liquid state, gaseous to liquid state. , or liquid-to-gaseous fluid through fluid inlet 111 and fluid outlet 112 disposed at both ends of fluid tubing 101 so that thermally conductive fluids 110 pass through neighboring fluid tubing 101 in directions. reverse flow, so as to transmit thermal energy to the heat absorbing or dissipating thermal energy transmission body 100 produced from solid-state thermal conductive material, or colloid or liquid or gas; and

Fluid tubing 101 is distributed parallel or nearly parallel to a flat structure or three-dimensional structure in the thermal energy transmission body for heat absorption or dissipation 100 to perform absorption or heat dissipation function on the absorbing article. or passively solid state heat dissipation, or colloid, or liquid, or gaseous, or space 200.

The structural relationships between the heat absorbing or heat dissipating thermal power transmission body 100 and the fluid piping 101 as shown in Figure 10 may consist of one or more relationships as follows, including:

(1) the heat absorbing or heat dissipating thermal power transmission body 100 is in a frame mounted with fluid piping 101;

(2) the heat-absorbing or heat-dissipating thermal power transmission body 100 is in a housing

integral with fluid piping 101; (3) the function of the thermal energy transmission body for heat absorption or heat dissipation 100 is directly provided by fluid piping 101;

(4) the function of the heat-absorbing or heat-dissipating heat transfer body 100 is provided by fluid piping 101 additionally installed with the independent thermal conductive plate 300 which does not connect with neighboring piping;

(5) the function of the thermal energy transmission body for heat absorption or dissipation 100 is provided by the common thermal conductive plate 400 connected between neighboring fluid piping 101; and

(6) The function of the heat absorbing or heat dissipating thermal power transmission body 100 is provided by the thermal conductive plate 350 with temperature isolation slots connected between the neighboring fluid piping 101.

Figure 11 is a temperature difference distribution diagram formed in the structure shown in Figure being operated for the function of the heat absorbing cooling energy discharge device. As shown in Figure 11, in the heat absorbing or heat dissipating thermal power transmission body 100, the thermal conductive fluid 110 passing through the inlet of the fluid piping 101 is at a lower temperature, the thermal conductive fluid 110 passing through of the fluid pipe outlet 101 is at a higher temperature, and the heat absorbing or heat dissipating thermal power transmission body 100 demonstrates the average temperature, which is more evenly distributed, between the temperatures of the thermally conductive fluid entering 110 and the thermally conductive fluid exiting 110, to perform the function of discharging cooling energy and heat absorption on the article receiving passively solid or colloid, or liquid, or gaseous, heat-absorbing or dissipating space 200, to prevent the local low temperature from being too low.

The figure. 12 is a temperature difference distribution diagram formed in the structure shown in Figure being operated for heat dissipating heating energy discharge device function. As shown in Figure 12, the thermal energy transmission body for heat absorption or dissipation 100, the thermally conductive fluid 110 passing through the inlet of the fluid pipe 101 is at a higher temperature, the thermally conductive fluid 110 that passes through of the fluid pipe outlet 101 is at a lower temperature, and the heat absorbing or heat dissipating thermal energy transmission body 100 demonstrates the average temperature, which is more evenly distributed, between the temperatures of the inlet thermally conductive fluid 110 and output thermal conductive fluid 110, to perform the function of heating energy discharge and heat dissipation on the article receiving passive solid state heat dissipation or absorption, or colloid, or liquid, or gaseous, or space 200 to prevent the local high temperature from being too high.

For the dual spiral piping heat absorbing or dissipating device that transmits temperature difference fluid, in addition to transferring thermal energy through the thermal energy transmission body to absorbing or dissipating heat 100, fluid tubing 101 may be provided. distributed in parallel or near parallel in a flat structure or three-dimensional structure to directly constitute the structural body for the thermal conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous to liquid state fluid, or liquid to gaseous fluid passing through through to directly discharge heating energy to dissipate heat or cooling energy discharge to absorb heat in the article receiving passive solid state or colloid, or liquid, or gaseous, absorption or heat dissipation or space 200.

Figure 13 is a main structural schematic view of the structure shown in Figure 4, which directly transmits thermal energy to the space or article receiving passive heat absorption or dissipation.

Figure 14 is a main structural schematic view of the structure shown in Figure 7, which directly transmits thermal energy to the space or article that receives passive heat absorption or dissipation.

Figure 15 is a main structural schematic view of the structure shown in Figure 10, which directly transmits thermal energy to the space or article that receives passive heat absorption or dissipation.

By means of fluid piping 101 which transmits thermally conductive fluid 110, fluid piping 101 is distributed in parallel or nearly parallel in a flat structure or three-dimensional structure to constitute a common structural body, in which the common structural body with temperature Evenly distributed integral performs heat absorption or dissipation function on the article that receives passively solid state absorption or dissipation, or colloid, or liquid, or gas, or space 200.

For the dual-spiral tubing heat-absorbing or dissipating device that transmits temperature difference fluid, the structural relationships between the article receiving passively solid or colloid or liquid or gaseous heat absorption or dissipation, or space 200 and fluid line 101 include that fluid line 101 and the article that receives passively solid or colloidal heat absorption or dissipation, or liquid or gas, or space 200 directly build the common structural body, and transmit thermal energy for the article receiving passively solid or colloidal or liquid or gaseous heat absorption or dissipation or space 200 in which:

the relevant fluid piping is distributed parallel or nearly parallel to a flat structure or three-dimensional structure to constitute the structural piping body that transmits the heat dissipating or heat absorbing conductive fluid passively receiving 100 'in place of the receiving article. passively absorbing or dissipating heat in the solid state, or colloid, or liquid, or gas, or space 200; and

via fluid piping 101 which transmits thermally conductive fluid 110 comprised of gaseous or liquid state fluid, gaseous to liquid state fluid, or liquid to gaseous state fluid, and through the dissipating or dissipating thermal energy transmission body. Heat absorbing 100 transmits thermal energy, thereby the tubing structural body transmitting heat conductive fluid that absorbs or dissipates passively receiving heat 100 'passively receives heat dissipation or absorption.

Figure 16 shows the first practical application of fluid piping 101 shown in Figure 4 through the heat dissipation or heat absorption thermal energy transmission body 100 to be combined with the structural pipe body that transmits the thermally absorbing or thermally conductive fluid. heat dissipates 100 'in accordance with the present invention.

Figure 17 shows the second practical application of fluid piping 101 shown in Figure 7 through the heat absorbing or dissipating heat energy transmission body 100 to be combined with the structural tubing body which transmits the heat absorbing or thermally conductive fluid. heat dissipates 100 'in accordance with the present invention.

Figure 18 shows the third practical application of fluid piping 101 shown in Figure 10 through the heat absorbing or dissipating thermal energy transmission body 100 to be combined with the structural piping body that transmits the absorbing or dissipating thermal conductive fluid. 100 'heat according to the present invention.

Figure 19 shows the first practical application of fluid piping 101 shown in Figure 4 through the heat absorbing or heat dissipating heat transfer body 100 to be combined with multiple assemblies of the structural tubing body that transmits the absorbing heat conductive fluid. or heat dissipates 100 'in accordance with the present invention.

Figure 20 shows the second practical application of fluid piping 101 shown in Figure 7 through the heat absorbing or dissipating heat energy transmission body 100 to be combined with multiple assemblies of the structural tubing body that transmits the absorbing thermal conductive fluid. or heat dissipates 100 'in accordance with the present invention. Figure 21 shows the third practical application of fluid piping 101 shown in Figure 10 through the heat absorbing or heat dissipating heat transfer body 100 to be combined with multiple assemblies of the structural tubing body that transmits the heat absorbing fluid conductor. or heat dissipates 100 'in accordance with the present invention.

Like the dual-spiral piping heat-absorbing or dissipating device that transmits temperature difference fluid, to further enhance the heat absorption or dissipation effects, the independent thermal conductive plate 300 is additionally installed in fluid piping 101 and / or in the structural body of the pipe transmitting the heat conductive fluid for heat absorption or dissipation that passively receives 100 'in order to enhance the heat absorption or dissipation effects.

Figure 22 is a structural view of one embodiment, wherein fluid piping 101 is additionally connected to independent thermal conductive plate 300 in accordance with the present invention.

Figure 23 is a sectional drawing of the line A-A in

Figure 22

Like the dual-coil heat-absorbing or heat sink device that transmits temperature difference fluid, to further enhance heat absorption or dissipation effects, the common thermal conductive plate 400 is installed between the fluid line 101 and / or the heat exchanger. structural body of piping transmitting the heat conductive fluid for heat absorption or dissipation that passively receives 100 'to enhance the effects of heat absorption or dissipation.

Figure 24 is a schematic structural view of one embodiment, wherein a common thermally conductive plate is installed between fluid piping 101 in accordance with the present invention.

Figure 25 is a sectional drawing of the line B-B in

Figure 24. As a double spiral piping absorber or heat sink device that transmits temperature difference fluid, to take into account the stability of the structure, the manufacturing process, and the need for independent thermal conductive function, the thermally conductive plate 350 with Temperature insulation slits can be additionally installed between fluid piping 101 to increase the effects of heat absorption or dissipation.

Figure 26 is a schematic structural view of one embodiment, wherein a thermally conductive plate with temperature insulating slits is installed between fluid piping 101 in accordance with the present invention.

Figure 27 is a sectional drawing of the line C-C in

Figure 26

Like the double-coiled tubing absorber or heatsink that transmits temperature difference fluid, the fluid that passes through the fluid tubing 101 and / or the structural body of the tubing transmitting the heat conductive fluid for heat absorption or dissipation. passively receive 100 'can be controlled by the control device 500 to drive the bi-directional fluid pumping device 600 for forward / reverse pumping operation, to periodically bi-directionally pump the thermal conductive fluid 110 and enhance the effects of equalizing temperature.

The bidirectional fluid pumping device 600 is used for periodic forward / reverse pumping under the control of the control device 500 consisting of the electromechanical device, electronic device, or microcomputer and related software.

Figure 28 is a schematic view of the operating system, wherein the thermally conductive fluid is periodically pumped bi-directionally by a bi-directional fluid pump in accordance with the present invention.

For applications of a dual-spiral fluid-absorbing heat sink or heat sink device, one or more methods based on operating principles in accordance with structural application needs and cost considerations may be used to make the following drawings, including:

- for the dual-coil heat absorber or heatsink device that transmits temperature difference fluid, fluid tubing 101 and / or tubing structural body that transmits the heat-absorbing or heat dissipating conductive fluid passively receiving 100 and the heat absorbing or heat dissipating thermal power transmission body 100 may be comprised of an integral type structure;

- for the dual-coil heat absorber or heatsink device that transmits temperature difference fluid, fluid tubing 101 and / or tubing structural body that transmits the heat-absorbing or heat dissipating conductive fluid passively receiving 100 and the heat absorbing or heat dissipating thermal energy transmission body 100 may be comprised of an assembled structure;

- for the dual-coiled heat sink absorber or heatsink device that transmits temperature difference fluid, the fluid tubing 101 and / or the pipe structural body that transmits the heat-absorbing or dissipating heat conductive fluid that passively receives 100 The heat-absorbing or heat-dissipating thermal power transmission body 100 may be comprised of the structural unit of the single structural body in plate, block, or multi-fin format, or the fin-mounted structural unit, and may be consisting of at least one structural unit as required;

- for the double spiral pipe absorber or heat sink device which transmits temperature difference fluid, it may be composed of one or more, and between the respectively belonging fluid pipes are in series, in parallel, or in connection. parallel series, and can be produced in various geometric shapes;

- for the double spiral piping absorber or heatsink device that transmits temperature difference fluid, the thermal conductive fluid 110 passing through the fluid piping 101 and / or pipe structural body that transmits the thermally conductive absorption fluid. or passively receiving heat dissipation 100 'may be carried by pumping, and / or evaporation, and / or natural cold-heat circulation;

- for the double spiral piping absorber or heatsink device which transmits temperature difference fluid, the heating or cooling energy is discharged to the article or space receiving passively liquid heat absorption or dissipation, 200, through the use of natural cold-heat fluid convection, temperature difference and / or forced fluid pumping to generate thermal transfer convection function, and / or radiation and / or conduction; or the heating or cooling energy is discharged to the article receiving passive solid-state heat dissipation or absorption, or colloid or liquid, or gas, or space 200 through conduction;

- for the absorber or heatsink device

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double coil heat that transmits temperature difference fluid, the thermal conductive fluid 110 passing through fluid piping 101 and / or the structural pipe body transmitting the heat absorbing or heat dissipating conductive fluid passively receiving 100 ' is circulated in closed circuit or released in open circuit;

- For the dual spiral piping absorber or heatsink device which transmits temperature difference fluid, the fluid inlets and fluid outlets of the various fluid lines may be installed with the same or different indication direction within the three-dimensional space. ; and

- For the dual-spiral piping absorber or heatsink device that transmits temperature difference fluid, there are various modes of fluid piping installation, including that the fluid piping is composed of tubular structure, and / or the tubing of fluid is comprised of fluid flow plate sheet structure, and / or the pore-like fluid tubing is composed of fluid flow block structure.

The dual-spout piping heat-absorbing or dissipating device of temperature difference fluid of the present invention can be applied to various cooling, heat dissipating or heat-absorbing heat conducting application devices such as water radiators. motor cooling, or cooling energy discharge device using thermal conductive fluid for heat absorption, or heating energy discharge device using thermal conductive fluid for heat dissipation, such as thermal energy transfer to heating equipment, heater or thermal energy transfer devices, or heating or cooling to ceilings, walls or floors of buildings or cooling of photovoltaic panels, or heating or cooling to electric machines or power machines, or absorption and heat dissipation from various machine enclosures, heat pipe structures, shell casings, various semiconductor chips or components, ventilation devices, or heat absorption, heat dissipation, or thermal energy transfer for information, audio, imaging devices, various lamps, or LED devices, or evaporator heat absorption or heat dissipation or thermal energy transfer from condensers of air conditioning devices, or thermal energy transfer from mechanical devices, or frictional heat loss heat dissipation, or heat dissipation or energy transfer electric heater or other household electric heating appliances or cooking devices, or thermal energy transfer or heat absorption from flame heating stoves or cooking devices, or heat absorption, heat dissipation or thermal energy transfer from earth layer or energi thermal water, house or plant construction or building material or building structure devices, water tower heat absorption or dissipation, or thermal energy transfer, heat dissipation or heat absorption from batteries or fuel cells ; and applied for the transfer of thermal energy in household appliances, industrial products, electronics, electrical machinery or mechanical devices, power generation equipment, buildings, air conditioners, industrial equipment or industrial manufacturing process.

Claims (18)

1. A dual-spiral fluid absorber or heat sink device which transmits temperature difference fluid, characterized in that the device is composed of one or more pipes installed in parallel or near parallel by series or parallel connection; and each pipe is specifically distributed by one or more double coil arrangements for transmitting temperature difference thermally conductive fluid comprised of gaseous or liquid state, gaseous to liquid state, or liquid to gaseous state, and via of the double spiral fluid pipe constituting fluid flow evenly distributed by temperature difference, thereby passing fluids through neighboring pipe flow in reverse direction to produce heat absorption or dissipation function on the article or space that receives heat absorption or dissipation passively from that forming a more uniform temperature distribution state in the passively absorbing or dissipating heat-dissipating article or space, the main components including: heat-absorbing or heat-dissipating thermal energy body 100: produced from solid-state thermally conductive material , or colloid, or liquid or gas to receive the thermal energy of the thermally conductive fluid 110 consisting of gaseous or liquid state fluid, gas-to-liquid state fluid, or liquid-to-gaseous state fluid within the combined fluid piping 101 arranged in Double spiral coil that transmits the temperature difference fluids in different flow directions according to the temperature difference, so as to perform cooling energy discharge operation function or heat discharge operation function. heating for heat dissipation on the article receiving passively solid or colloidal or liquid or gaseous heat absorption or dissipation or space 200, wherein the number of heat-absorbing or heat dissipating thermal energy transmission bodies 100 may be one or more than one; and fluid piping 101: produced from good thermally conductive material, wherein fluid piping 101 is a parallel or near parallel double spiral piping structure, and the arrangement of the double spiral piping structure is one in which the temperature difference fluid piping that transmits temperature difference fluids in different flow directions are arranged to be the neighboring pipe, thus the thermally conductive fluid forms a more uniform temperature distribution state in the dissipation or absorption body heat, so as to produce heat absorption or dissipation function on the article or space that passively receives heat dissipation or absorption; It is characterized by the fact that the exterior of the double coiled tubing is the inlet and outlet side of the tubing, which is installed with the fluid inlet 111 and the fluid outlet 112, and the fluid tubing near the center of the tubing. Spiral in a reverse turn is the piping steering structure 103 for transmission fluid, thereby thermally conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous to liquid state fluid, or liquid to gaseous state fluid is transmitted. through the fluid inlet 111 to the fluid outlet 112 placed at both ends of the fluid tubing, thereby the fluids in the fluid tubing that passes through the neighboring tubing flow in reverse directions so as through the fluid transmission body. thermal energy for heat dissipation or absorption 100 transmit thermal energy to the article receiving passive heat absorption or dissipation solid state, or colloid, or liquid, or gaseous, or space 200; and fluid piping 101 is comprised of one or more piping by series or parallel connection, and each piping is distributed by one or more double coil arrangements for transmitting thermally conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous-to-liquid fluid or liquid-to-gaseous fluid through the fluid inlet 111 and the fluid outlet 112 disposed at both ends of the fluid tubing 101 to the thermally conductive fluids 110 passing through the fluid tubing. neighboring 101 in reverse flow directions so as to transmit thermal energy to the thermal energy transmission body for heat absorption or dissipation 100 produced from solid, or colloid, or liquid, or gaseous thermal conductive material; and fluid piping 101 is parallel or nearly parallel distributed in a flat structure or three-dimensional structure in the heat-absorbing or heat-dissipating thermal energy transmission body 100 to perform heat-absorbing or dissipating function on the absorbing article. or solid state heat dissipation, or colloid, or liquid, or gas, or space 200. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that the structural relationships between the thermal energy transmission body for heat absorption or dissipation 100 and fluid piping 101 are comprised of one or more relationships as follows, including: (1) the heat-absorbing or heat dissipating thermal power transmission body 100 is in a structure mounted with fluid piping 101, - (2) the heat absorbing or heat dissipating thermal power transmission body 100 is in an integral structure with fluid piping 101; (3) the function of the heat-energy transmission body for heat absorption or dissipation 100 is directly provided by fluid piping 101; (4) the function of the heat-absorbing or heat-dissipating heat transfer body 100 is provided by fluid piping 101 additionally installed with the independent thermal conductive plate 300. which does not connect to neighboring piping; (5) the function of the heat absorbing or heat dissipating thermal power transmission body 100 is provided by the common thermal conductive plate 400 connected between the neighboring fluid piping 101; and (6) the function of the heat absorbing or heat dissipating thermal power transmission body 100 is provided by the thermal conductive plate 350 with temperature isolation slots connected between neighboring fluid piping 101. A dual spiral-pipe heat-absorbing or dissipating device which transmits temperature difference fluid according to claim 1, characterized in that the structure further includes: thermal energy transmission body for absorption or heat dissipation 100: produced from solid-state, colloidal, or liquid, or gaseous thermally conductive material to receive the thermal energy of thermally-conductive fluid 110 consisting of gaseous or liquid-state fluid, gaseous-to-liquid or liquid-state fluid. liquid to gaseous state within the dual-spiral arrangement combined fluid piping 101 which transmits the temperature difference fluids in different flow directions according to the temperature difference, so as to perform cooling energy discharge operation function For heat absorption or heating energy discharge operation function for heat dissipation over the article receiving passively solid or colloidal or liquid or gaseous heat dissipation or absorption, or space 200, where the number of the thermal energy transmission bodies for heat absorption or dissipation 100 is one or more than one; and fluid piping 101: Produced from good thermally conductive material, where fluid piping 101 is a parallel or near parallel double spiral piping structure, and the arrangement of the double spiral piping structure is that the fluid piping with temperature difference and which transmits the temperature difference fluids in different flow directions are arranged to be the neighboring pipe, thus the thermally conductive fluid forms a more uniform temperature distribution state in the heat absorption or dissipation body, so as to produce heat absorption or dissipation function on the article or space receiving heat absorption or dissipation; It is characterized by the fact that the exterior of the double spiral arrangement pipe is the pipe direction structure 103, and the fluid pipe near the center of the reverse loop spiral is used as the inlet and outlet side of pipe to transmit fluid and is installed with fluid inlet 111 and fluid outlet 112, thereby thermally conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous to liquid state fluid, or liquid to gaseous state fluid is transmitted through fluid inlet 111 and fluid outlet 112 disposed at both ends of the fluid tubing, thereby the fluids in the fluid tubing passing through the neighboring tubing flow in reverse directions so that through the thermal energy transmission body to heat absorption or dissipation 100 transmit thermal energy to the article that receives heat absorption or dissipation passiv solid-state, or colloid, or liquid, or gaseous, or space 200; and fluid piping 101 is comprised of one or more fluid piping serially connected in parallel with one or more distributed double spiral arrangements to transmit thermal conductive fluid 110 comprised of gaseous or liquid state, gaseous fluid to liquid, or liquid-to-gaseous fluid through fluid inlet 111 and fluid outlet 112 disposed at both ends of fluid tubing 101, to thermally conductive fluids 110 passing through neighboring fluid tubing 101 in flow directions inverse, so as to transmit thermal energy to the heat-absorbing or heat-dissipating thermal energy transmission body 100 produced from solid-state, colloid, or liquid, or gaseous thermal conductive material; and fluid piping 101 is distributed parallel or nearly parallel to a flat structure or three-dimensional structure in the heat-absorbing or heat-dissipating thermal energy transmission body 100 to perform absorption or heat dissipation on the receiving article. or passively solid state heat dissipation, or colloid, or liquid, or gaseous, or space 200. A dual-spiral fluid-absorbing heat sink or heat dissipating device according to claim 1, characterized in that the structure additionally includes: thermal energy transmission body for heat absorption or dissipation 100: produced from solid, or colloidal, or liquid, or gaseous thermal conductive material to receive the thermal energy of thermally conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous to liquid state, or liquid fluid to gas within the dual-spiral arrangement combined fluid piping 101 which transmits the temperature difference fluids in different flow directions according to the temperature difference, so as to perform cooling energy discharge operation function for absorption of heat or heating energy discharge operation function for heat dissipation on the article receiving passively solid or colloidal or liquid or gaseous heat dissipation or absorption or space 200, wherein the number of the heat-absorbing or heat-dissipating thermal energy transmission bodies 100 is one or more than one; and fluid piping 101: Produced from good thermally conductive material, where fluid piping 101 is a parallel or near parallel double spiral piping structure, and the arrangement of the double spiral piping structure is that the fluid piping with temperature difference and which transmits the temperature difference fluids in different flow directions are arranged to be the neighboring pipe, thus the thermally conductive fluid forms a more uniform temperature distribution state in the heat absorption or dissipation body, so as to produce heat absorption or dissipation function on the article or space receiving heat absorption or dissipation; is characterized by the fact that the exterior of the double coiled pipe is the pipe direction structure 103, the pipe near the middle side of the double coiled pipe is on the extreme side of the pipe inlet and outlet, and is installed with fluid inlet 111 and fluid outlet 112, and the sidemost and closest to the center of the spiral is in a reverse loop to be used as the pipeline steering structure 103 for transmitting fluid, thereby from the inlet. 111 and fluid outlet 112 at both ends of the fluid tubing to transmit the thermally conductive fluid 110 consisting of gaseous or liquid state fluid, gaseous to liquid state fluid, or liquid to gaseous fluid, causing the fluids that pass through the neighboring pipe in reverse flow directions, and through the thermal energy transmission body to abso heat dissipation or dissipation 100 transmits thermal energy to the article receiving passively solid or heat-absorbing heat dissipation or dissipation, or space 200; and fluid piping 101 is comprised of one or more fluid piping connected in series or in parallel with one or more distributed double spiral arrangements for transmitting thermally conductive fluid 110 comprised of gaseous or liquid, gaseous fluid. for liquid, or liquid to gaseous fluid through fluid inlet 111 and fluid outlet 112 disposed at both ends of fluid tubing 101 so that thermally conductive fluids 110 pass through neighboring fluid tubing 101 in reverse flow directions, so as to transmit thermal energy to the heat absorbing or dissipating thermal energy transmission body 100 produced from solid-state thermal conductive material, or colloid or liquid or gas; and fluid piping 101 is distributed parallel or nearly parallel to a flat structure or three-dimensional structure in the thermal energy transmission body for heat absorption or dissipation ■ 100 to perform heat absorption or dissipation function on the receiving article. heat passive absorption or dissipation in solid state, or colloid, or liquid, or gaseous, or space 200. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that in addition to transferring thermal energy through the thermal energy transmission body for absorption or dissipation 100, fluid piping 101 is distributed parallel or nearly parallel in a flat structure or three-dimensional structure to directly constitute the structural body for the thermally conductive fluid 110 consisting of gaseous or liquid state, gaseous fluid to liquid, or liquid to gaseous fluid passing therethrough to directly discharge heating energy to dissipate heat or cooling energy discharge to absorb heat in the article receiving passive solid state absorption or heat dissipation, or colloid, or liquid, or gaseous, or space 200. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that the structural relationships between the article receiving passively solid-state heat absorption or dissipation , or colloid, or liquid, or gaseous, or space 200, and fluid tubing 101 includes that fluid tubing 101 and the article receiving passively solid state heat, or colloid, or liquid, or gas, heat absorption or dissipation, or space 200 directly construct the common structural body, and transmit thermal energy to the article that receives passively solid-state heat absorption or dissipation, or colloid, or liquid, or gas, or space 200, in which: the fluid piping The relevant material is distributed in parallel or almost parallel in a flat structure or three-dimensional structure to constitute the structural body of the pipe. which transmits the heat-absorbing or dissipating heat-conductive fluid passively receiving 100 'in place of the article receiving passive solid-state heat or absorption, or colloid, or liquid, or gas, or space 200. A dual-coil heat-absorbing or heat-absorbing heat sink device according to claim 1, characterized in that the independent thermally conductive plate 300 and / or the common thermally conductive plate 400 , and / or the thermally insulating slit thermal conductive plate 350 are additionally installed in the fluid piping 101 and / or the tubing structural body which transmits the heat dissipating or absorbing heat conductive fluid passively receiving 100 'of to optimize the effects of heat absorption or dissipation. A dual-spiral piping absorber or heatsink that transmits temperature difference fluid according to claim 1, characterized in that the fluid passing through the fluid piping 101 and / or the structural body of Pipe that transmits heat conductive fluid that absorbs or dissipates heat passively receiving 100 'can be controlled by control device 500 to bidirectionally drive fluid pumping device 600 for periodic forward / reverse pumping operation, to periodically pump fluid bidirectionally thermal conductor 110, and optimize equalization temperature effects; and the bidirectional fluid pumping device 600 is used for periodic forward / reverse pumping under the control of the control device 500 consisting of the electromechanical device, electronic device, or microcomputer and related software. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that the fluid piping 101 and / or the structural body of the fluid-transmitting piping Passive heat absorbing or dissipating heat conductor 100 'and the heat absorbing or heat dissipating thermal energy transmission body 100 are comprised of an integral type structure. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that the fluid piping 101 and / or the structural body of the fluid-transmitting piping passively receiving heat-absorbing or heat-dissipating conductor 100 'and the heat-absorbing or heat-dissipating thermal energy transmission body 100 are comprised of a mounted structure. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that the fluid piping 101 and / or the structural body of the fluid-transmitting piping passive heat absorbing or dissipating heat conductor 100 'and the heat absorbing or heat dissipating thermal power transmission body 100 are comprised of the structural unit of the single structural body in plate, block, or multi-fin format, or the finned structural unit, and are comprised of at least one structural unit as required. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that it can be composed of one or more than one, and between the fluid lines respectively. They are connected in series, in parallel, or in series-parallel connection, and can be produced in various geometric shapes. A dual-coil heat absorber or heat sink device which transmits temperature difference fluid according to claim 1, characterized in that the thermally conductive fluid 110 passing through the fluid line 101 and / or structural pipe body that transmits the heat-absorbing or heat-dissipating conductive fluid passively receiving 100 'is conveyed by pumping, and / or evaporation, and / or natural heat-cold circulation. A dual spiral piping absorber or heatsink that transmits temperature difference fluid according to claim 1, characterized in that the heating or cooling energy is discharged to the absorbing article or space 200. or passively liquid heat dissipation through the use of natural cold-heat fluid convection, in temperature difference, and / or forced fluid pumping to generate thermal transfer convection function, and / or radiation and / or conduction. ; or the heating or cooling energy is discharged to the article receiving passive solid-state heat dissipation or absorption, or colloid, or liquid, or gas, or space 200 through conduction. A dual-coil heat absorber or heat sink device which transmits temperature difference fluid according to claim 1, characterized in that the thermally conductive fluid 110 passing through the fluid line 101 and / or The pipe structural body transmitting the heat-absorbing or heat-dissipating conductive fluid passively receiving 100 'is circulated in closed circuit or released in open circuit. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that the fluid inlets and fluid outlets of the various fluid lines are installed with same or different indication direction within three-dimensional space. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that there are various modes of fluid piping installation, including that the fluid piping is composed of tubular structure, and / or fluid tubing is composed of fluid flow plate sheet structure, and / or pore-like fluid tubing is composed of fluid flow block structure. A dual-spiral fluid-absorbing heat sink or heat sink device according to claim 1, characterized in that the device is applied to various heat-conducting application devices. cooling, heat dissipation or heat absorption, such as engine cooling water radiators, or cooling energy discharge device using heat conductive fluid for heat absorption, or heating energy discharge device using conductive fluid heat dissipation, such as the transfer of thermal energy to heating equipment, heater or thermal energy transfer devices, or heating or cooling to ceilings, walls or floors of buildings, or cooling of photovoltaic panels, or heating or cooling to machines. electrical or power machinery, or abso tion and heat dissipation of various machine casings, heat pipe structures, frame casings, various semiconductor chips or components, ventilation devices, or heat absorption, heat dissipation or thermal energy transfer for information, audio, imaging devices, various lamps or LED devices, or evaporator heat absorption or heat dissipation or thermal energy transfer from condensers of air conditioning devices, or thermal energy transfer from mechanical devices, or heat loss from heat loss. frictional heat, or heat dissipation or thermal energy transfer from electric heater or other household electric heating appliances or cooking devices, or thermal energy transfer or heat absorption from flame heating stoves or cooking devices, or heat transfer. heat absorption, d heat dissipation or thermal energy from the earth layer or thermal energy from water, house or plant construction or building material or construction structure devices, water tower heat absorption or dissipation, or thermal energy transfer, heat dissipation heat or heat absorption from batteries or fuel cells; and applied for the transfer of thermal energy in household appliances, industrial products, electronics, electrical machinery or mechanical devices, power generation equipment, buildings, air conditioners, industrial equipment or industrial manufacturing process.