CN104697219A - Heat release system using natural heat storage matrix to generate heat convection - Google Patents

Abstract

The present invention relates to a heat release system by thermal convection of a natural heat storage matrix, which mainly comprises installing an active heater and a fluid transmission pipeline in a solid or liquid heat storage matrix such as a stratum, surface, pond, lake, river, desert, iceberg, ocean, etc. with a relatively large stable heat storage capacity, so as to form an approximate thermal convection device, so as to receive a relatively low-temperature fluid entering the active heater and be heated, and then pass to a temperature difference body to be subjected to heat release by natural convection of cold drop and heat rise.

Description

A heat release system that uses natural heat storage matrix to induce heat convection

This application is a divisional application, the original application date is April 15, 2003, the application number is 03110490.8, and the title of the invention is: heat release system using natural temperature storage matrix to induce heat convection.

technical field

The present invention discloses a heat release system that utilizes the natural temperature storage matrix to induce heat convection. It uses the natural temperature storage matrix to heat the lower temperature fluid, and utilizes the principle of the fluid’s cold drop and heat rise to control the temperature difference of the intended heat release. Body, the function of open-circuit or closed-circuit temperature regulation.

Background technique

Traditionally, heat pumps are used for heating or heat release of fluids in different spaces, and a fluid pump must be installed as an auxiliary pump. Therefore, the system must have a power source, and the installation cost is high. The subsequent operation also consumes energy. The cost is also higher.

Contents of the invention

The main purpose of the present invention is to provide a heat release system that uses natural heat storage matrix to cause heat convection, which can be used in solid state such as formations, ground surfaces, ponds, lakes, rivers, deserts, icebergs, oceans, etc. Or an active heater is set in the liquid temperature storage body, and the two ends of the active heater are respectively provided with fluid transmission pipes to respectively lead to the temperature difference body and the temperature difference body intended to receive heat release, so as to form a similar heat-generating convection device. With this thermal convection device, the lower temperature fluid from the body with temperature difference and entering the active heater 108 from the inlet transmission pipe is heated, and the natural convection function is generated by the cooling and heating of the fluid, and the outlet The output of the transmission pipeline leads to the temperature difference body intended to receive the heat release to form an open heat release system, or the transmission pipeline leads to the active heat release device 201, and then flows back to the active heat generator 108 through the transmission pipe to form a closed type heat release system. heat system.

Description of drawings

Fig. 1 is a three-dimensional schematic diagram of an open heat release system structure example of an active heater 108 of the present invention, in which the heat exchange fluid is nested with tubular structures of different apertures.

FIG. 2 is a cross-sectional view of FIG. 1 .

Fig. 3 is a three-dimensional schematic diagram of a structure example of a closed heat release system in which the active heat generator 108 or the active heat release device 201 is nested with tubular structures of different apertures according to the present invention.

FIG. 4 is a cross-sectional view of FIG. 3 .

Fig. 5 is a three-dimensional schematic diagram of the structure of an open heat release system in which the active heater of the present invention is formed by interlacing multiple sets of tubular structures;

FIG. 6 is a cross-sectional view of FIG. 5 .

Fig. 7 is a three-dimensional schematic diagram of the structure of a closed heat release system in which the active heater or active radiator of the present invention is formed by interlacing multiple sets of tubular structures.

FIG. 8 is a cross-sectional view of FIG. 7 .

FIG. 9 is a three-dimensional schematic diagram of the structure of the open heat release system formed by the active heater 108 of the present invention combined with the transmission pipeline of the smaller diameter tubular structure pierced through the inner hole of the transmission pipeline formed by the annular tubular body.

FIG. 10 is a cross-sectional view of FIG. 9 .

Figure 11 is a closed type formed by the inner hole of the transmission pipeline formed by the transmission pipeline with a smaller aperture tubular structure passing through the annular tubular body between the active heater or the active radiator 201 according to the present invention. Three-dimensional schematic diagram of the heat release system structure.

FIG. 12 is a cross-sectional view of FIG. 11 .

Description of component symbols:

101: Natural heat storage matrix

102: body with temperature difference

103: Thermobody that accepts heat release

104: heat exchange fluid

108: Active heater

109: Thermal insulation structure

201: Active radiator

332: Transmission pipeline with small diameter

333: Transmission pipeline composed of annular tubular body

334: The top closed end face of the transmission pipeline composed of annular tubular body

335: Diversion holes at the top of transfer pipes with smaller bores

1001: thermal fins

1002: barrier board

1301: outer tube

1302: Bottom closed end face of outer tube

1303: inner tube

1304: Bottom of inner tube

1305: diversion gap

1306: Top closed end of outer tube

1307: Top closed end face of inner tube

1308: diversion hole

1309: Lateral diversion

1310: Top of inner tube

2001: Filtration device

2002: Protective helmet structure

Detailed ways

According to the embodiment of the accompanying drawings, the structural features and its effect and purpose of the present invention are described in detail as follows:

The above-mentioned heat release system that uses natural temperature storage matrix to cause heat convection, its open heat generation and heat release circulation system structure, can further be shown in Figure 1 and Figure 2, by being circular or other geometric shapes with different apertures Tubular structures of different sizes are nested with each other, with a heat insulating structure or made of heat insulating materials between them, and tubular structures with different apertures are nested to form a multi-tubular open fluid transmission pipeline structure, including at least A group of transmission pipes with smaller diameters are sleeved in pipes with larger diameters, and the bottom of the top closed end surface 1307 of the inner pipe with the smaller diameters is set to the outer pipe wall with larger diameters, and a diversion pipe is installed 1309, for the introduction of lower-temperature fluid to the active heater 108, and for the relatively high-temperature fluid to rise and discharge from the larger-diameter transmission pipeline, and the bottoms of the transmission pipelines of two different diameters are jointly connected to the set The active heater 108 in the natural temperature storage matrix 101 constitutes an open heat release system; the same active heater can be provided with heat-conducting fins 1001 on the outside as required, or installed inside to prevent backflow barriers 1002; wherein the active heater 108 placed in the natural temperature storage matrix 101 is composed of an outer tube 1301 with a larger aperture and a closed end surface 1302 at the bottom of the outer tube 1301, and heat conducting fins 1001 can be added as required To improve the heat conduction effect with the temperature storage matrix, one or more sets of inner tubes 1303 with smaller apertures are provided inside, and a diversion gap 1305 is provided between the bottom 1304 of the inner tube 1303 and the inner space at the bottom of the outer tube for The lower temperature heat exchange fluid 104 enters the inner tube 1303 and is heated and then flows upward through the outer tube 1301 to form an open heat release system.

Figure 1 shows the active heater 108 of the present invention in which the heat exchange fluid is a three-dimensional schematic structural view of an open heat release system formed by fitting tubular structures with different apertures, and Figure 2 is a cross-sectional view of Figure 1; the above Figures 1 and 2 The open fluid transmission pipeline structure is formed by the fitting of tubular structures with different apertures as shown, which can further form a closed system as shown in Figures 3 and 4.

Fig. 3 is a three-dimensional schematic diagram of a structure example of a closed heat release system formed by fitting the active heater 108 or active radiator 201 of the present invention with tubular structures of different apertures, and Fig. 4 is a cross-sectional view of Fig. 3; Fig. 3 and Fig. As shown in 4, its main structure is composed of circular or other geometric shapes of tubular structures with different aperture sizes, which are nested with each other and have multiple tubular structures with thermal isolation effect, and at least one set of tubular structures with smaller diameter The small transmission pipe is sleeved in the pipe with a larger diameter, and the lower temperature fluid is introduced from the smaller diameter transmission pipe, and the relatively higher temperature fluid is discharged from the larger diameter transmission pipe. The bottoms of the transmission pipes of different diameters lead to the active heater 108 arranged in the natural temperature storage matrix 101, and the tops of them lead to the active heat radiator 201 arranged on it, and are used for heat release temperature difference body 103 The active radiator 201 for heat release is formed by the outer tube 1301 with a larger aperture and the top closed end surface 1306 of the outer tube 1301, and one or more sets of inner tubes 1303 and inner tubes with smaller apertures are provided inside. The top 1310 of the tube 1303 is provided with a diversion hole 1308 for the higher temperature heat exchange fluid 104 to flow upward along the inner tube 1303, and after releasing heat and cooling down along the outer tube 1301, it rises through the inner tube 1303 to form a closed Type heat release system, the same active heater 108 and active heat radiator 201 can be equipped with heat conduction fins 1001 on the outside as required, or set up a backflow prevention barrier inside.

The aforementioned heat release system that uses natural temperature storage matrix to cause heat convection, its closed heat generation and heat release cycle system structure, can be further shown in Figure 5 and Figure 6, by being circular or other geometric shapes. The structure is formed by passing through the annular tubular body, and the heat insulation structure or the heat insulation material is arranged between the two to have a heat insulation effect.

This heat release system, which uses natural temperature storage matrix to induce heat convection, can be further composed of circular or other geometric tubular structures that are staggered to form an open or closed heat release system. Figure 5 shows the active heat release system of the present invention. The three-dimensional schematic diagram of the structure of the open heat release system in which the heater is formed by interlacing multiple sets of tubular structures. Figure 6 is a cross-sectional view of Figure 5; The system can further be composed of multiple groups of tubular structures of the same or different sizes in circular or other geometric shapes, which are arranged in a staggered manner to form an open fluid transmission pipeline structure, including at least one set of fluid transmission pipelines with lower inlets for lower temperature The fluid is introduced downwards, and at least one group of fluid transmission pipes with higher outlets are used to provide relatively high-temperature fluids to ascend and discharge, and the two transmission pipes have a good heat insulation structure 109 between the contacted natural heat storage matrix 101, or directly The transmission pipeline is made of good heat insulation material, and the bottom of the two transmission pipelines lead to the active heater 108 installed in the natural temperature storage matrix to form an open heat release system that uses the natural temperature storage matrix to generate heat and convection ; The same active heater 108 can be provided with heat conduction fins 1001 on the outside as required, or a backflow prevention barrier inside.

The multiple sets of tubular structures shown in FIG. 5 and FIG. 6 can further constitute a closed fluid transmission pipeline structure.

Fig. 7 is a three-dimensional schematic diagram of the structure of a closed heat release system in which the active heater or active radiator of the present invention is formed by interlacing multiple sets of tubular structures, and Fig. 8 is a cross-sectional view of Fig. 7; Fig. 7 and Fig. 8 show A closed heat release system consisting of active heaters and active radiators combined with multiple sets of tubular structures interlaced to form transmission pipes. Its main structure includes circular or other geometric shapes of the same size or different sizes Heater 108 and active heat radiator 201 constitute, wherein at least one set of inlet port lower fluid transmission pipes are used for lower temperature fluid introduced by temperature difference body 102 to drop into active heater 108, and at least one set of discharge ports The higher fluid transmission pipeline is used to raise the higher temperature fluid heated by the active heater 108 to the active radiator 201 to release heat to the temperature difference body 103 that receives the heat release, and the two transmission pipelines are naturally in contact with the Between the temperature storage matrix 101 is a transmission pipeline with a good heat insulation structure 109, or directly made of good heat insulation materials. The top is connected to the active heat radiator 201 arranged on it to form a closed type heat release system that uses natural temperature storage matrix to generate heat and convection; the same active heater can be equipped with heat conduction fins 1001 on the outside as required , or set up inside to prevent backflow barriers.

Fig. 9 is a three-dimensional schematic diagram of an open heat release system structure of the present invention composed of an active heater 108 combined with a transfer pipe of a smaller diameter tubular structure pierced through the inner hole of the transfer pipe formed by an annular tubular body, and Fig. 10 is The cross-sectional view of Fig. 9; shown in Fig. 9 and Fig. 10, it is mainly composed of a transmission pipeline of a circular or other geometrically shaped tubular structure and a transmission pipeline of an annular tubular structure, which is a penetrating pipeline with a thermal isolation effect. Assume that it is formed by combining, wherein at least one set of transmission pipes 332 is the inner hole of the transmission pipe 333 formed by the annular tubular body, the two can be in direct contact or have a selected gap, and the transmission pipe with a smaller diameter The pipeline 332 is used to introduce the lower temperature fluid from the lower temperature temperature difference body 102 to descend into the active heater 108, and the transmission pipeline 333 composed of an annular tubular body is used to guide the higher temperature fluid heated by the active heater 108 to the active heater 108. The temperature difference body 103 that receives the heat release, the bottom of the two kinds of transmission pipes lead to the active heater 108 arranged in the natural temperature storage matrix 101 to form an open heat release system. The same active heater 108 can be used according to It is necessary to arrange heat conduction fins 1001 on the outside, or to install a backflow prevention barrier inside.

The above-mentioned open heat release system shown in FIG. 9 and FIG. 10 can be further configured as a closed heat release system as shown in FIGS. 11 and 12 .

Fig. 11 is a closed type formed by the transmission pipeline inner hole formed by the transmission pipeline formed by the transmission pipeline with a smaller aperture tubular structure passing through the annular tubular body between the active heater 108 and the active heat radiator 201 according to the present invention. Figure 12 is a sectional view of Figure 11; as shown in Figure 11 and Figure 12, it is mainly composed of a transmission pipeline with a circular or other geometrically shaped tubular structure, and a circular tubular structure The transmission pipeline of the body is composed of a combination of penetrations with thermal insulation effect, wherein at least one set of transmission pipelines 332 is the inner hole of the transmission pipeline 333 formed by the annular tubular body, and the two can be in direct contact or have optional The space between the two kinds of transmission pipes and the natural temperature storage matrix 101 that they are in contact with is a good heat insulation structure 109, or the transmission pipe is directly made of good heat insulation material, and the transmission pipe 332 is for the lower temperature fluid It descends into the active heater 108, and the transmission pipe 333 formed by the annular tubular body is used to raise the higher temperature fluid heated by the active heater 108 to the active radiator 201, and the bottoms of the two transmission pipes are connected together To the active heat generator 108 arranged in the natural temperature storage matrix 101, the tops of the two kinds of transmission pipes lead to the active heat radiator 201 arranged on it, and provide the active heat release for the heat release temperature difference body 103 The device 201 is enlarged and formed by the top closed end surface 334 of the transmission pipe 333 formed by the annular tubular body. The lower side of the active heat radiator 201 is provided with a diversion hole at the top of the transmission pipe 332 with one or more groups of smaller apertures. 335, the heat exchange fluid 104 is released and cooled by the active radiator 201, then descends and flows back to the active heater 108 along the transmission pipe 332, so as to form a closed heat release system. The same active heater 108 and active The heat radiator 201 can be provided with heat conduction fins 1001 on the outside as required, or can be provided with a backflow prevention barrier inside.

The aforementioned structures of the active heater 108 or the active radiator 201 can be selected according to requirements, and can be composed of structures of the same geometric shape, or a mixture of structures of different geometric shapes.

When the system of the present invention is applied, based on the management and control system, the following devices can be selectively installed as required, including:

--Flow meter: for accumulative calculation of the exchange fluid flow, this device can be selected as needed;

--Filter device 2001: In order to prevent the pipeline from being blocked for a long time and have a cleaning function, it is installed at the fluid suction port or outlet, including a filter screen and a harmful fluid filter device;

--Protective cap structure 2002: a cap structure that is installed at the outlet or inlet of the transmission pipeline, and does not hinder the fluidity of the heat exchange fluid. Protection against falling rain or foreign objects;

--Flow regulating valve: for manual or mechanical control of the release volume of the exchange fluid;

-- Humidity adjustment device or humidity treatment structure: it is composed of humidity detection device or discharge pump group or pipeline preset discharge hole or humidity or accumulated water treatment structure. This device is selectively set when the fluid is gas ;

--Control unit: It is composed of electromechanical or solid-state electronic circuits and related software. Its functions can be selected according to needs, including fluid flow control, valve control, fluid temperature monitoring, fluid pump control and safety protection control functions. , and the input side or each output port is equipped with harmful fluid detection. When the harmful fluid exists and exceeds the monitoring value, an alarm will be issued and the air flow will be cut off or other strain control processing will be performed to form the functions of regulating temperature, regulating the flow rate of exchanged airflow, and regulating humidity. control unit.

In practical application, the heat release system of the present invention using natural temperature storage matrix to induce heat convection, wherein the heat exchange fluid includes gas or liquid; and it has a temperature difference body 102 and a temperature difference body 103 intended to receive heat release, including:

(1) Air-conditioned spaces with fixed buildings, such as buildings, greenhouses or public activity buildings; and

(2) Spaces with air-conditioning requirements and structures that move in a fluid-type natural heat storage matrix, such as ships, operating floating platforms, water buildings, etc.; and

(3) Open air spaces for containing gases or liquids, such as open spaces such as pools or valleys or basins or deserts; and

(4) Airtight containers for containing gases or liquids, such as gas or liquid containers; and

(5) Equipment for various processes or processes; and

(6) Equipment or appliances that passively prevent icing or actively deice; and

(7) Open roads or airport runways or waterways that are passively protected from icing or actively deiced; and

(8) the depth of the temperature difference between the surface layer and the temperature difference of the channel of a port or lake or river; and

(9) Specific geology such as desert and surrounding environment.

In addition, in this heat release system that uses natural temperature storage matrix to cause heat convection, the following expansions and auxiliary systems can be added, including:

1. Based on site needs or considerations of economic benefits, a fluid-actuated turbine can be added to the outlet of the heat exchange fluid to generate output of rotary kinetic energy to drive a generator or other loads;

2. If it is necessary to enhance the function or support the effect, an auxiliary fluid pump can be added to the inlet or outlet or the flow path of the thermal convection device as required, including the fluid kinetic energy actuated by the natural environment or solar power generation Driven by a fluid pump of the actuating type or an additional auxiliary electric drive type;

3. If it is necessary to enhance the function or support the effect, a fluid heating device can be added to the heating and convection device as needed;

Based on the above, this project uses the heat release system of the natural temperature storage matrix to cause heat convection, and uses the natural temperature resources of the natural temperature storage matrix to improve environmental conditions and other application functions. and beneficial effects are further described in detail. It should be understood that the above description is only a specific embodiment of the present invention, and is not used to limit the protection scope of the present invention. All within the spirit and principles of the present invention, all Any modification, equivalent replacement, improvement, etc. should be included in the protection scope of the present invention.

Claims (13)

1. A heat release system that uses natural heat storage matrix to cause heat convection, wherein the heat release system is used in formations, ground surfaces, ponds, lakes, rivers, deserts, icebergs, oceans, etc. that have relatively large stable heat storage capacity. An active heater is installed in the solid or liquid temperature storage body, and the two ends of the active heater are respectively provided with fluid transmission pipes to lead to the temperature difference body and the temperature difference body intended to receive heat release, forming an approximate thermal convection device, by means of this thermal convection device, the lower temperature fluid from the body with temperature difference, which enters the active heater (108) from the inlet transmission pipe is heated, and natural convection is generated by the cooling and heating of the fluid function, and the outlet transmission pipeline is output to the temperature difference body intended to receive heat release to form an open heat release system, or the transmission pipeline leads to the active heat release device (201), and then returns to the active heat generator ( 108), and constitute a closed heat release system, its open heat generation and heat release circulation system structure is made up of circular or other geometric shapes with different pore size tubular structures that fit each other, between the two In order to be provided with a thermal insulation structure or made of thermal insulation materials, tubular structures with different apertures are nested to form a multi-tubular open fluid transmission pipeline structure, including at least one set of transmission pipelines with smaller diameters sleeved on the diameter of the pipe. In the larger pipe, a diversion pipe (1309) is provided from the bottom of the closed end surface (1307) of the inner pipe top of the transmission pipe with a smaller diameter to the outer pipe wall with a larger diameter, for introducing a lower temperature fluid into the The active heater (108), and the larger-diameter transmission pipe for the relatively higher-temperature fluid to rise and discharge, and the bottom of the two different-diameter transmission pipes lead to the natural temperature storage matrix (101) The active heater (108) in the middle is used to form an open heat release system; the same active heater can be provided with heat conduction fins (1001) on the outside as required, or installed inside to prevent backflow barriers (1002 ); wherein the active heater (108) for placing in the natural temperature storage matrix (101) is composed of an outer tube (1301) with a larger aperture and a bottom closed end surface (1302) of the outer tube (1301), and Heat conduction fins (1001) can be added as required to enhance the heat conduction effect with the temperature storage matrix, and one or more sets of inner tubes (1303) with smaller apertures are provided inside, and the bottom of the inner tube (1303) (1304 ) and the inner space at the bottom of the outer tube, a diversion gap (1305) is provided for the lower temperature heat exchange fluid (104) to enter the inner tube (1303) to be heated and flow upward through the outer tube (1301) to form an open heat release system. 2. The heat release system using natural temperature storage matrix to induce heat convection as claimed in claim 1, wherein the active heat generator (108) and the active heat release device (201) are further combined by tubular structures with different apertures The closed heat release system formed by it is mainly composed of multiple tubular structures with circular or other geometric shapes with different aperture sizes, which are nested with each other and have a thermal isolation effect, and at least one A group of transmission pipes with smaller diameters are sleeved in pipes with larger diameters, and the transmission pipes with smaller diameters are used for lower-temperature fluids to descend and lead in, and the transmission pipes with larger diameters for relatively higher-temperature fluids to ascend and discharge , and the bottoms of the transmission pipelines of two different pipe diameters lead to the active heat generator (108) arranged in the natural temperature storage matrix (101) together, and the tops lead to the active heat radiator (108) arranged thereon. 201), and the active radiator (201) for releasing heat to the heat release temperature difference body (103) is formed by the outer tube (1301) with a larger aperture and the top closed end surface (1306) of the outer tube (1301) , which is provided with one or more sets of inner tubes (1303) with smaller apertures and a diversion hole (1308) between the top (1310) of the inner tube (1303) for higher temperature heat exchange fluid (104) flows upwards along the inner pipe (1303), and rises through the inner pipe (1303) after descending along the outer pipe (1301) after heat release and cooling down to form a closed heat release system. The same active heater (108) And the active heat radiator (201) can be equipped with heat conduction fins (1001) on the outside as required, or can be set inside to prevent backflow barriers. 3. The heat release system of heat convection caused by natural temperature storage matrix as claimed in claim 1, wherein, further, multiple groups of tubular structures of the same or different sizes in circular or other geometric shapes can be arranged in a staggered manner to form an open type The fluid transmission pipeline structure includes at least one set of fluid transmission pipelines with lower inlets for lower-temperature fluid introduction, and at least one set of fluid transmission pipelines with higher discharge outlets for relatively high-temperature fluids to rise and discharge, and the two Between the transmission pipeline and the contacted natural temperature storage matrix (101) is a transmission pipeline with a good heat insulation structure (109), or directly made of good heat insulation materials, and the bottom of the two transmission pipelines are connected to the natural temperature storage matrix The active heater (108) in it is used to form an open heat release system that uses the natural temperature storage matrix to cause heat convection; the same active heater (108) can be provided with heat conduction fins (1001) on the outside as required , or a counter-flow prevention barrier (1002) is set inside. 4. As claimed in claim 1, the heat release system using natural temperature storage matrix to induce heat convection, wherein it can further be a closed type transmission pipeline composed of active heaters and active radiators combined with multiple sets of tubular structures interlaced The heat release system, its main structure includes circular or other geometric shapes with the same size or different sizes of transmission pipes and active heaters (108) and active radiators (201), wherein at least one set of inlets is relatively The low fluid transmission pipeline is used to introduce the lower temperature fluid from the temperature difference body (102) and descend into the active heater (108), and the fluid transmission pipeline with at least one set of higher outlets is used to guide the active heater (108) The higher temperature fluid caused by heat rises and leads to the active radiator (201) to release heat to the temperature difference body (103) that receives the heat release, and there is a gap between the two kinds of transmission pipelines and the contacted natural temperature storage matrix (101). A good heat insulation structure (109), or a transmission pipeline directly made of a good heat insulation material, the bottom of the two transmission pipelines lead to the active heater (108) arranged in the natural temperature storage matrix (101), and the top Commonly lead to the active heat radiator (201) arranged on it to form a closed heat release system that uses natural temperature storage matrix to generate heat and convection; the same active heat generator can be equipped with heat conduction fins on the outside as required (1001), or set up inside to prevent backflow barriers. 5. The heat release system for heat convection caused by natural temperature storage matrix as claimed in claim 1, wherein it can further be formed by a circular or other geometric tubular structure pierced through the annular tubular body, between the two It is equipped with a thermal insulation structure or is made of thermal insulation materials and has a thermal insulation effect; its main composition is a transmission pipeline with a circular or other geometric tubular structure and a transmission pipeline with a circular tubular structure, which has a Combination of heat insulation effect through penetration, wherein at least one set of transmission pipes (332) are pierced through the inner hole of the transmission pipe (333) formed by the annular tubular body, and the two can be in direct contact or have a selected gap, and the transmission pipe (332) is used to introduce the lower temperature fluid from the lower temperature temperature difference body (102) and drop it into the active heater (108), while the transmission pipe (333) composed of an annular tubular body is used for the active heater (108). The higher temperature fluid heated by the heater (108) leads to the temperature difference body (103) that accepts the heat release, and the bottoms of the two transmission pipes lead to the active heater (108) arranged in the natural temperature storage matrix (101). ) to form an open heat release system, the same active heater (108) can be provided with heat conduction fins (1001) on the outside as required, or a backflow prevention barrier inside. 6. As claimed in claim 1, the thermal convection heat release system by natural temperature storage matrix, wherein, further, between the active heat generator (108) and the active heat release device (201), there is a relatively large The transmission pipeline with small-diameter tubular structure is formed by passing through the annular tubular body; its main structure is a transmission pipeline with a circular or other geometrical tubular structure, which has a thermal isolation effect from the transmission pipeline with an annular tubular structure. Composed of the perforation combination, wherein at least one group of transmission pipes (332) with smaller diameters are pierced in the inner hole of the transmission pipe (333) formed by the annular tubular body, and the two can be in direct contact or have optional fixed gap or selected filler, and the two kinds of transmission pipelines have good heat insulation structure (109) between the two kinds of transmission pipelines and the contacted natural heat storage matrix (101), or the transmission pipelines are directly made of good heat insulation materials, and the transmission pipelines ( 332) is used for the lower temperature fluid to descend into the active heater (108), and the transmission pipe (333) formed by the annular tubular body is used to guide the higher temperature fluid heated by the active heater (108) to the active radiator. Heater (201), the bottoms of the two kinds of transmission pipes are connected to the active heater (108) arranged in the natural temperature storage matrix (101), and the tops of the two kinds of transmission pipes are connected to the active release device arranged on it. Heater (201), and the active radiator (201) for releasing heat to the heat release temperature difference body (103) is formed by expanding the top closed end surface (334) of the transmission pipe (333) formed by the annular tubular body, The lower side of the active heat radiator (201) is provided with diversion holes (335) on the top of one or more groups of transmission pipes (332) with smaller apertures, and the heat exchange fluid (104) passes through the active heat radiator ( 201) After releasing the heat and cooling down, it descends and flows back to the active heater (108) along the transmission pipeline (332) to form a closed heat release system. The same active heater (108) and active radiator (201) Heat conduction fins (1001) can be arranged on the outside as required, or a backflow prevention barrier can be arranged inside. 7. The heat release system using natural temperature storage matrix to induce heat convection as claimed in claim 1, wherein the structure of the active heat generator (108) or the active heat release device (201) can be selected as required Form, and can be composed of structures of the same geometric shape, or a mixture of structural forms of different geometric shapes. 8. As claimed in claim 1, the heat release system using natural temperature storage matrix to induce heat convection, wherein, further, the following devices can be selectively installed according to the needs, including: --Flow meter: for accumulative calculation of the exchange fluid flow, this device can be selected as needed; --Filter device (2001): In order to prevent long-term blockage of the pipeline and have a cleaning function, it is installed at the fluid suction port or outlet, including a filter screen and a harmful fluid filter device; --Protective cap structure (2002): It is a cap structure that is installed at the outlet or inlet of the transmission pipeline, and does not hinder the fluidity of the heat exchange fluid. When the transmission pipeline extends vertically or obliquely upwards, Protection against falling rain or foreign objects; --Flow regulating valve: for manual or mechanical control of the release volume of the exchange fluid; -- Humidity adjustment device or humidity treatment structure: it is composed of humidity detection device or discharge pump group or pipeline preset discharge hole or humidity or accumulated water treatment structure. This device is selectively set when the fluid is gas ; --Control unit: It is composed of electromechanical or solid-state electronic circuits and related software. Its functions can be selected according to needs, including fluid flow control, valve control, fluid temperature monitoring, fluid pump control and safety protection control functions. , and the input side or each output port is equipped with harmful fluid detection. When the harmful fluid exists and exceeds the monitoring value, an alarm will be issued and the air flow will be cut off or other strain control processing will be performed to form the functions of regulating temperature, regulating the flow rate of exchanged airflow, and regulating humidity. control unit. 9. The thermal convection heat release system using natural temperature storage matrix as claimed in claim 1, wherein the heat exchange fluid comprises gas or liquid. 10. The heat release system using natural heat storage matrix to induce heat convection as claimed in claim 1, wherein the temperature difference body (102) and the temperature difference body (103) intended to receive heat release include: Air-conditioned spaces with fixed structures, such as buildings, greenhouses or buildings for public events; or A space with air-conditioning requirements, and a structure that moves in a fluid natural heat storage matrix, such as a ship, an operating floating platform, a water structure; or an open-air space for accommodating gas or liquid, such as: a pool or a valley or a basin or a desert opening space; or airtight containers for containing gases or liquids, such as gas storage or liquid storage containers; or equipment for various processes or procedures; or machinery or household appliances that passively prevent icing or actively deicing; or passively prevent icing Or actively deiced open roads or airport runways or water channels; or deep layers of the waterway surface and temperature difference in ports or lakes or rivers; or specific geology such as deserts and surrounding environments. 11. The heat release system using natural temperature storage matrix to induce heat convection as claimed in claim 1, wherein the heat exchange fluid outlet can further be equipped with a fluid actuated turbine to generate the output of rotary kinetic energy to drive the generator or other loads. 12. The heat release system of heat convection by means of natural temperature storage matrix as claimed in claim 1, wherein an auxiliary fluid pump can be added as required in the inlet or outlet or flow path of the heat convection device, Including fluid kinetic energy actuated by natural environment, solar power actuated type, or fluid pump driven by additional auxiliary electric power. 13. The thermal convection heat release system using natural temperature storage matrix as claimed in claim 1, wherein, in the thermal convection device, a fluid heating device can be added as required for function enhancement or effect support.