An ultra-low energy consumption assembled thermal insulation structure integrated system and its construction process

Abstract

The present invention discloses an integrated system of an ultra-low energy consumption assembled insulation structure, which relates to the technical field of insulation structures, wherein a protective inner wall is installed inside the installation outer frame in an embedded installation manner, a protective outer wall is fixedly installed at a position corresponding to the inner position of the protective inner wall on one side of the protective inner wall, an internal insulation inner box is embedded and installed inside the protective inner wall, and a top-mounted gas box is fixedly connected at a position corresponding to the inner position of the protective inner wall at the middle of the top of the internal insulation inner box. The present invention reduces the heat exchange efficiency between the internal insulation inner box and the insulation space, so that the temperature inside the insulation space can be continuously maintained within a suitable range, thereby effectively improving the insulation efficiency of the insulation structure, and when the temperature inside the insulation space is low, the heat transfer oil at the bottom of the bottom circulating liquid tank can also be auxiliary heated by the electric heating inner pipe, thereby effectively expanding the function of the insulation structure, improving the use effect of the insulation structure, and reducing the energy consumption of the insulation structure.

Description

Technical Field

[0001] The present invention relates to the technical field of thermal insulation structures, and in particular to an ultra-low energy consumption assembled thermal insulation structure integrated system and a construction process thereof. Background Art

[0002] A Chinese patent discloses an assembled component insulation structure and a construction method thereof, with application number 202310431447.3. The patent can be directly installed inside the assembled component wall, reducing the construction and waterproofing construction on the facade of the component wall, ensuring the integrity and quality of the component wall, and reducing the construction process, saving time and construction costs;

[0003] However, due to the lack of corresponding auxiliary structures, the current insulation structure can only use the physical and chemical properties of its own materials for insulation after installation, making it impossible for the insulation structure to fully utilize the excess heat inside the insulation space and the excess heat outside the insulation space, thereby reducing the insulation efficiency of the insulation structure and increasing the use cost of the insulation structure. Summary of the invention

[0004] The present invention provides an ultra-low energy consumption assembled insulation structure integrated system and its construction process, which can effectively solve the problem that the insulation structure proposed in the above background technology lacks a corresponding auxiliary structure, resulting in the insulation structure being able to only use the physical and chemical properties of its own material for insulation after installation, making it impossible for the insulation structure to fully utilize the excess heat inside the insulation space and the excess heat outside the insulation space, thereby reducing the insulation efficiency of the insulation structure and increasing the use cost of the insulation structure.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: an ultra-low energy consumption assembled thermal insulation structure integrated system, comprising an installation outer frame, wherein a multi-layer gas-liquid circulation heat conduction and thermal insulation mechanism is arranged inside the installation outer frame, and the multi-layer gas-liquid circulation heat conduction and thermal insulation mechanism is used to collect and store the heat inside the thermal insulation space, and when the temperature inside the thermal insulation space drops, the stored heat is diffused in the reverse direction, and at the same time, the heat outside the thermal insulation space is collected and transferred, so as to adjust the temperature inside the thermal insulation structure;

[0006] The multi-layer gas-liquid circulation heat conduction and heat insulation mechanism comprises a protective inner wall;

[0007] A protective inner wall is installed inside the installation outer frame in an embedded installation manner, and a protective outer wall is fixedly installed at a position corresponding to the inner part of the protective inner wall on one side of the protective inner wall;

[0008] An internal heat-insulating inner box is embedded and installed inside the protective inner wall, a top-mounted air box is fixedly connected to the middle of the top of the internal heat-insulating inner box at a position corresponding to the inside of the protective inner wall, and a telescopic adjustment air bag is fixedly connected to the bottom of the top-mounted air box at a position corresponding to the inside of the internal heat-insulating inner box;

[0009] A bottom circulating liquid tank is fixedly installed in the middle of the bottom end of the internal heat-insulating inner box, and a liquid guide pipe opening is evenly and evenly fixedly connected to the top of the bottom circulating liquid tank at a position corresponding to the bottom of the inner side of the internal heat-insulating inner box, and an isolation bottom frame is embedded in the middle of the inner side of the bottom circulating liquid tank, and an electric heating inner tube is inserted and installed in the inner side of the bottom circulating liquid tank corresponding to the inner position of the isolation bottom frame, and the electric heating inner tube is powered by an external power supply;

[0010] A heat-conducting outer rubber plate is embedded and installed on one side of the protective inner wall close to the protective outer wall, and an insulation inner plate is embedded and installed at a position corresponding to the outer side of the internal insulation inner box in the protective inner wall;

[0011] A heat-conducting inlaid outer plate is embedded and installed at a position on the outer side of the protective outer wall corresponding to the inner position of the outer frame, and a circulating heat-conducting flat box is embedded and installed in the middle of the inner side of the protective outer wall.

[0012] According to the above technical solution, the outer sides of the protective inner wall and the protective outer wall are tightly slidably fitted with the inner side of the installation outer frame, and the connection between the protective inner wall and the protective outer wall is tightly fitted.

[0013] According to the above technical solution, the cross-sectional shape of the telescopic adjustment airbag is an isosceles trapezoid, the telescopic adjustment airbag and the top mounted air box are both filled with mixed inert gas, the side surface of the telescopic adjustment airbag fits tightly against the inner wall of the internal insulation inner box, and the internal insulation inner box can expand laterally.

[0014] According to the above technical solution, the internal heat-insulating inner box and the bottom circulating liquid tank are both filled with heat-conducting oil, and the top inclined surface of the isolation chassis is evenly provided with liquid-conducting holes.

[0015] According to the above technical solution, the middle parts of both sides of the circulating heat-conducting flat box are evenly and evenly fixedly connected with diffusion side boxes, and the side surfaces of the protective outer wall corresponding to the outer sides of the diffusion side boxes are embedded with filling side plates;

[0016] An isolation elastic plate is fixedly connected to one side of the circulating heat-conducting flat box close to the protective inner wall, and a hard buffer flat box is fixedly connected to the top and bottom positions of one side of the circulating heat-conducting flat box corresponding to the isolation elastic plate, and an internal compression airbag is fixedly connected between the two hard buffer flat boxes.

[0017] According to the above technical solution, the middle of the top and bottom of the circulating heat-conducting flat box are fixedly connected with a guide flat tube, the bottom of the guide flat tube located at the bottom of the circulating heat-conducting flat box is fixedly connected with a low-temperature guide bottom tube, the inside of the low-temperature guide bottom tube is fixedly connected with a low-temperature conveying auger through a motor, and one end of the low-temperature guide bottom tube is fixedly connected with a low-temperature guide box at a position corresponding to the bottom of the protective outer wall;

[0018] The top of the low-temperature guide box is fixedly connected with a low-temperature guide vertical pipe at a position corresponding to the inner side of the heat-conducting embedded outer plate, and the side of the low-temperature guide vertical pipe is evenly and evenly fixedly connected with low-temperature guide thin tubes at a position corresponding to the inner side of the heat-conducting embedded outer plate. One side of the low-temperature guide thin tube is fixedly connected with a heat-absorbing flat box through a flat tube, and the back of the heat-absorbing flat box is fixedly connected with a heating guide thin tube through a flat tube at a position corresponding to the inner side of the heat-conducting embedded outer plate;

[0019] The ends of the multiple heating guide tubes are commonly fixedly connected to a heating guide vertical pipe at a position corresponding to one side of the inner side of the heat-conducting embedded outer plate, the top of the heating guide vertical pipe is fixedly connected to a heating guide corner box at a position corresponding to the top of the protective outer wall, the middle of one end of the heating guide corner box is fixedly connected to a heating guide top pipe, and the end of the heating guide top pipe is connected to a heating conveying auger via a motor.

[0020] According to the above technical solution, the sides of the thermal insulation inner plate and the heat-conducting outer rubber plate are flush with the sides of the protective inner wall, the outer side of the filling side plate is flush with the side of the circulating heat-conducting flat box, and the circulating heat-conducting flat box and the diffusion side box are filled with mixed heat-conducting oil;

[0021] The internal compression airbag and the hard buffer flat box are filled with mixed inert gas, and the internal compression airbag is made of heat-conducting material.

[0022] According to the above technical solution, the low-temperature guide tubes, low-temperature guide tubes, heating guide tubes and heating guide tubes are all embedded in the gap between the protective outer wall and the heat-conducting embedded outer plate, and the low-temperature guide tubes and heating guide tubes are arranged in an interlaced manner.

[0023] According to the above technical solution, an external splicing installation mechanism is provided outside the installation outer frame, and the external splicing installation mechanism is used to splice and position each insulation structure, and to fix and install the insulation structure after splicing and positioning, so as to realize assembly between the insulation structures;

[0024] The external splicing installation mechanism includes a splicing top block;

[0025] A splicing top block is fixedly installed in the middle of the top of the installation outer frame, and a splicing bottom block is fixedly installed in the middle of the bottom of the installation outer frame. Splicing vertical blocks are evenly and evenly fixedly connected in the middle of the concave sides of the splicing top block and the splicing bottom block, and splicing rectangular grooves are evenly opened in the middle of the convex side of the splicing bottom block. The splicing top block and the splicing bottom block are staggered, and the splicing vertical blocks on the outside of the splicing top block and the splicing bottom block are respectively correspondingly connected to the splicing rectangular grooves.

[0026] The sides of the splicing top block, the splicing bottom block and the splicing vertical block are all penetrated with fixing holes, and the fixing holes are installed with fixing top bolts through threads;

[0027] A limited bottom block is fixedly installed on the bottom of the side surface of the installation outer frame, and an adjusting side bolt is fixedly and movably installed through the middle of both sides of the limited bottom block, and one end of the outer side of the adjusting side bolt is fixedly sleeved on the limited rotation block, and a clamping arc groove is penetrated at the bottom of the end of the limited rotation block, and a limited rectangular groove is penetrated in the middle of one side of the top of the limited rotation block, and a mounting top block is fixedly connected to the side surface of the installation outer frame corresponding to the top position of the limited rotation block, and a limited rectangular strip is inserted and installed inside the limited rectangular groove, and a mounting top bolt is installed through a thread at the middle of the top surface of the installation top block corresponding to the top position of the limited rectangular strip, and sealing strips are embedded and bonded to the edges of the four side surfaces of the installation outer frame, and the top of both sides of one side surface of the installation outer frame is penetrated by a glue injection slot hole;

[0028] The limit rotation blocks on both sides of the installation outer frame are arranged in an interlaced manner, and the clamping arc grooves and adjacent adjustment side bolts are clamped and matched with each other, and the sealing strips on the sides of two adjacent installation outer frames are tightly fitted.

[0029] According to the above technical solution, a construction process of an ultra-low energy consumption assembled thermal insulation structure is provided, which is used for the construction process of an integrated system of an ultra-low energy consumption assembled thermal insulation structure, and comprises the following steps:

[0030] S1. Build the bracket: Build the corresponding installation bracket at a suitable location according to the installation requirements of the insulation structure, transport the insulation structure to be used to the vicinity of the installed installation bracket, and inspect the internal structures of the installation outer frame;

[0031] S2, splicing and positioning: the internal components of the installation outer frame are placed inside the installation bracket, and the installation outer frame is positioned by splicing the top block and the bottom block together;

[0032] S3, fixed installation: lock and limit the side of the installation outer frame by twisting and adjusting the side bolts and the limit turning block, and insert the limit rectangular strip into the limit rectangular groove to achieve the limit between the installation outer frames and complete the installation of the insulation structure;

[0033] S4, internal filling: After the installation of the insulation structure is completed, the insulation material inside needs to be filled. A proper amount of mixed heat transfer oil is added to the internal insulation box and the circulating heat transfer flat box through the corresponding conduit, and the building foam agent is filled into the gap on the side of the installation outer frame through the injection slot to complete the pre-use commissioning of the insulation structure;

[0034] S5. Inspection and acceptance: The inspectors shall test the mechanical strength of the installed insulation structure and the insulation effect of the installed insulation structure to complete the construction and installation of the insulation structure.

[0035] Compared with the prior art, the present invention has the following beneficial effects: the present invention has a scientific and reasonable structure and is safe and convenient to use:

[0036] 1. A multi-layer gas-liquid circulation heat conduction insulation mechanism is provided. Through the mutual cooperation between the components inside the multi-layer gas-liquid circulation heat conduction insulation mechanism, the insulation process of the insulation structure is optimized, so that the insulation structure can be dynamically adjusted according to the temperature inside the insulation space during use, and the heat inside the insulation space is collected and stored by the internal insulation inner box, and the heat exchange path between the heat transfer oil and the insulation space is cut off by the expansion of the telescopic adjustment airbag. By reducing the heat exchange efficiency between the internal insulation inner box and the insulation space, the temperature inside the insulation space can be continuously maintained within a suitable range, thereby effectively improving the insulation efficiency of the insulation structure, and when the temperature inside the insulation space is low, the heat transfer oil at the bottom of the bottom circulation liquid tank can be auxiliary heated by the electric heating inner pipe, thereby effectively expanding the function of the insulation structure, improving the use effect of the insulation structure, and reducing the energy consumption of the insulation structure;

[0037] At the same time, when it is necessary to use the external temperature to assist the insulation of the thermal insulation structure, the low-temperature conveying auger and the heating conveying auger can drive the heat transfer oil inside the circulating heat-conducting flat box and the heat-absorbing flat box to circulate as needed, and adjust the temperature of the internal area of ​​the protective outer wall during the circulation of the heat transfer oil. The circulation of the heat transfer oil inside the circulating heat-conducting flat box and the heat-absorbing flat box heats up the temperature between the protective outer wall and the heat-conducting inlaid outer plate, so as to insulate the inside of the thermal insulation structure by reducing the temperature difference between the protective inner wall and the protective outer wall, and the heat of the external space can be collected to assist the heating of the inside of the thermal insulation structure, so as to improve the utilization rate of the surrounding environment heat by the thermal insulation structure, thereby improving the actual use effect of the thermal insulation structure;

[0038] The expansion states of inert gases with different contents inside the telescopic adjustment airbag and the internal compression airbag at different temperatures are fully utilized, and the heat exchange efficiency between the internal insulation inner box and the insulation space is adjusted through the expansion and contraction of the telescopic adjustment airbag to ensure that the insulation structure can provide stable insulation effect for the interior of the insulation space under different temperature conditions. The small amount of inert gas inside the internal compression airbag can expand and be fully compressed, so that the internal compression airbag can isolate the heat between the protective inner wall and the protective outer wall in the expanded state, and after the internal compression airbag is fully compressed, the external heat can be transferred to the internal insulation inner box, thereby expanding the function and use effect of the insulation structure.

[0039] 2. An external splicing installation mechanism is provided. The installation process of the thermal insulation structure is optimized through the mutual cooperation between the components inside the external splicing installation mechanism. The external installation frame can be installed and positioned longitudinally through the mutual cooperation between the components connected to the splicing top block and the splicing bottom block. Then, the external installation frame can be positioned and installed transversely through the mutual cooperation between the adjusting side bolts and the limit rotating block. Then, the thermal insulation structure can be quickly assembled and installed through the mutual cooperation between the splicing components, which effectively improves the convenience of installation of the thermal insulation structure. At the same time, the top of the limit rotating block is fixed through the mutual cooperation between the limit rectangular strip and the limit rectangular groove, which improves the installation stability of the thermal insulation structure.

[0040] At the same time, the edge cavity formed after the installation of the outer frame is completed is utilized, and the corresponding thermal insulation sealant is injected into the cavity in conjunction with the glue injection slot, and then the cavities on the outside of the installation outer frame are filled with the solidified thermal insulation sealant, and the components between the outer periphery of the installation outer frame are positioned, thereby improving the installation stability of the insulation structure and preventing the installation outer frame from affecting the overall thermal insulation performance of the insulation structure after installation.

[0041] In summary, the installation and use process of the insulation structure is optimized through the mutual cooperation between the multi-layer gas-liquid circulation heat conduction insulation mechanism and the external splicing installation mechanism. By installing the splicing structural components on the outside of the outer frame, the installation process of the insulation structure is made faster and more convenient. In addition, the internal insulation inner box and the circulating heat conduction flat box are designed to be filled with heat conduction oil. The insulation structure does not need to be injected with heat conduction oil during the transportation and installation process, making the insulation structure lighter during installation and transportation, so as to improve the convenience of the installation process of the insulation structure. In the use of the insulation structure, the circulation of the heat conduction oil is utilized to expand and contract the inert gas in the telescopic adjustment airbag and the internal compression airbag, thereby effectively improving the use effect of the insulation structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0042] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0043] In the attached picture:

[0044] Figure 1 It is a schematic diagram of the structure of the present invention;

[0045] Figure 2 It is a structural schematic diagram of the installation of the heat absorbing flat box of the present invention;

[0046] Figure 3 It is a structural schematic diagram of the installation of the telescopic adjustment airbag of the present invention;

[0047] Figure 4 It is a structural schematic diagram of the multi-layer gas-liquid circulation heat conduction and heat preservation mechanism of the present invention;

[0048] Figure 5 It is a schematic diagram of the structure of the internal compression air bag installation of the present invention;

[0049] Figure 6 It is a structural schematic diagram of the top mounted air box installation of the present invention;

[0050] Figure 7 It is a structural schematic diagram of the installation of the heating and flow guiding capillary tube of the present invention;

[0051] Figure 8 It is a structural schematic diagram of the installation of the low-temperature conveying auger of the present invention;

[0052] Fig. 9 It is a structural schematic diagram of the external splicing installation mechanism of the present invention;

[0053] Fig.10 It is a structural schematic diagram of the installation of the spliced ​​bottom block of the present invention;

[0054] Fig.11 It is a flow chart of the steps of the construction process of the present invention;

[0055] Numbers in the figure: 1. Install the outer frame;

[0056] 2. Multi-layer gas-liquid circulation heat conduction and insulation mechanism; 201. Protective inner wall; 202. Protective outer wall; 203. Internal insulation inner box; 204. Top mounted gas box; 205. Telescopic adjustment airbag; 206. Bottom circulating liquid tank; 207. Liquid guide pipe opening; 208. Isolation chassis; 209. Electric heating inner pipe; 210. Insulation inner plate; 211. Heat conduction inlaid outer plate; 212. Circulating heat conduction flat box; 213. Diffusion side box; 214. Filling side plate; 215. Isolation spring 216, hard buffer flat box; 217, internal compression airbag; 218, diversion flat tube; 219, low temperature diversion bottom tube; 220, low temperature conveying auger; 221, low temperature diversion box; 222, low temperature diversion vertical tube; 223, low temperature diversion capillary; 224, heat absorbing flat box; 225, heating diversion capillary; 226, heating diversion vertical tube; 227, heating diversion angle box; 228, heating diversion top tube; 229, heating conveying auger; 230, heat conductive outer rubber plate;

[0057] 3. External splicing installation mechanism; 301, splicing top block; 302, splicing bottom block; 303, splicing vertical block; 304, splicing rectangular groove; 305, fixing clamp hole; 306, fixing top bolt; 307, limiting bottom block; 308, adjusting side bolt; 309, limiting rotating block; 310, clamping arc groove; 311, limiting rectangular groove; 312, installing top block; 313, limiting rectangular strip; 314, installing top bolt; 315, sealing strip; 316, glue injection slot. DETAILED DESCRIPTION

[0058] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0059] Example: Figure 1-10 As shown, the present invention provides a technical solution, an ultra-low energy consumption assembled thermal insulation structure integrated system, comprising an installation outer frame 1, a multi-layer gas-liquid circulation heat conduction insulation mechanism 2 is arranged inside the installation outer frame 1, and the multi-layer gas-liquid circulation heat conduction insulation mechanism 2 is used to collect and store the heat inside the thermal insulation space, and when the temperature inside the thermal insulation space drops, the stored heat is diffused in the reverse direction, and at the same time, the heat outside the thermal insulation space is collected and transferred to adjust the temperature inside the thermal insulation structure;

[0060] The multi-layer gas-liquid circulation heat-conducting and heat-insulating mechanism 2 comprises a protective inner wall 201, a protective outer wall 202, an internal heat-insulating inner box 203, a top-mounted gas box 204, a telescopic adjustment air bag 205, a bottom circulating liquid tank 206, a liquid-conducting pipe opening 207, an isolation bottom frame 208, an electric heating inner pipe 209, a heat-insulating inner plate 210, a heat-conducting inlaid outer plate 211, a circulating heat-conducting flat box 212, a diffusion side box 213, a filling side plate 214, and an isolation elastic plate 2 15. hard buffer flat box 216, internal compression air bag 217, guide flat tube 218, low temperature guide bottom tube 219, low temperature conveying auger 220, low temperature guide box 221, low temperature guide vertical tube 222, low temperature guide thin tube 223, heat absorbing flat box 224, heating guide thin tube 225, heating guide vertical tube 226, heating guide angle box 227, heating guide top tube 228, heating conveying auger 229 and heat conductive outer rubber plate 230;

[0061] A protective inner wall 201 is installed in an embedded manner inside the installation outer frame 1, and a protective outer wall 202 is fixedly installed on one side of the protective inner wall 201 at a position corresponding to the inner part of the protective inner wall 201. The outer sides of the protective inner wall 201 and the protective outer wall 202 are tightly slidably fitted with the inner side of the installation outer frame 1, and the connection between the protective inner wall 201 and the protective outer wall 202 is tightly fitted;

[0062] An internal heat-insulating inner box 203 is embedded and installed inside the protective inner wall 201. A top-mounted air box 204 is fixedly connected to the middle of the top of the internal heat-insulating inner box 203 at a position corresponding to the inner position of the protective inner wall 201. A telescopic adjustment air bag 205 is fixedly connected to the bottom of the top-mounted air box 204 at a position corresponding to the inner position of the internal heat-insulating inner box 203. The cross-sectional shape of the telescopic adjustment air bag 205 is an isosceles trapezoid. The telescopic adjustment air bag 205 and the top-mounted air box 204 are both filled with mixed inert gas. The side of the telescopic adjustment air bag 205 fits tightly with the inner wall of the internal heat-insulating inner box 203, and the internal heat-insulating inner box 203 can expand laterally.

[0063] A bottom circulating liquid tank 206 is fixedly installed in the middle of the bottom end of the internal heat-insulating inner box 203, and a liquid guide pipe port 207 is evenly and evenly fixedly connected at the top of the bottom circulating liquid tank 206 corresponding to the bottom position of the inner side of the internal heat-insulating inner box 203, and an isolation chassis 208 is embedded and installed in the middle of the inner side of the bottom circulating liquid tank 206. The internal heat-insulating inner box 203 and the bottom circulating liquid tank 206 are both filled with heat-conducting oil, and the top inclined surface of the isolation chassis 208 is evenly provided with liquid guide holes, and an electric heating inner tube 209 is inserted and installed in the bottom circulating liquid tank 206 at a position corresponding to the inner side of the isolation chassis 208, and the electric heating inner tube 209 is powered by an external power supply, and a heat-conducting outer rubber plate 230 is embedded and installed on one side of the protective inner wall 201 close to the protective outer wall 202, and an insulation inner plate 210 is embedded and installed in the protective inner wall 201 at a position corresponding to the outer side of the internal heat-insulating inner box 203;

[0064] A heat-conducting inlaid outer plate 211 is embedded and installed at the position inside the outer frame 1 corresponding to the outer side of the protective outer wall 202, a circulating heat-conducting flat box 212 is embedded and installed in the middle of the inner side of the protective outer wall 202, and diffusion side boxes 213 are evenly and evenly fixedly connected to the middle of both sides of the circulating heat-conducting flat box 212, and a filling side plate 214 is embedded and installed at the position outside the diffusion side box 213 corresponding to the side of the protective outer wall 202, the sides of the thermal insulation inner plate 210 and the heat-conducting outer rubber plate 230 are flush with the side of the protective inner wall 201, the outer side of the filling side plate 214 is flush with the side of the circulating heat-conducting flat box 212, and the circulating heat-conducting flat box 212 and the diffusion side box 213 are filled with mixed heat-conducting oil;

[0065] An isolation elastic plate 215 is fixedly connected to one side of the circulating heat-conducting flat box 212 near the protective inner wall 201, and a hard buffer flat box 216 is fixedly connected to the top and bottom positions of one side of the circulating heat-conducting flat box 212 corresponding to the isolation elastic plate 215. An internal compression airbag 217 is fixedly connected between the two hard buffer flat boxes 216. A small amount of mixed inert gas is filled inside the internal compression airbag 217 and the hard buffer flat box 216, and the internal compression airbag 217 is made of a heat-conducting material;

[0066] The top and the middle of the bottom of the circulating heat-conducting flat box 212 are fixedly connected with a guide flat tube 218, the bottom of the guide flat tube 218 located at the bottom of the circulating heat-conducting flat box 212 is fixedly connected with a low-temperature guide bottom tube 219, the inside of the low-temperature guide bottom tube 219 is fixedly connected with a low-temperature conveying auger 220 through a motor, one end of the low-temperature guide bottom tube 219 is fixedly connected with a low-temperature guide box 221 at a position corresponding to the bottom of the protective outer wall 202, the top of the low-temperature guide box 221 is fixedly connected with a low-temperature guide vertical pipe 222 at a position corresponding to the inner side of the heat-conducting inlaid outer plate 211, and the side of the low-temperature guide vertical pipe 222 is evenly and evenly fixedly connected with a low-temperature guide thin tube 223 at a position corresponding to the inner side of the heat-conducting inlaid outer plate 211. One side of the low-temperature guide tube 223 is fixedly connected to a heat-absorbing flat box 224 through a flat tube, and the back of the heat-absorbing flat box 224 is fixedly connected to a heating guide tube 225 through a flat tube at a position corresponding to the inner side of the heat-conducting inlaid outer plate 211. The ends of multiple heating guide tubes 225 correspond to the positions on one side of the inner side of the heat-conducting inlaid outer plate 211 and are commonly fixedly connected to a heating guide vertical pipe 226. The top of the heating guide vertical pipe 226 corresponds to the top position of the protective outer wall 202 and is fixedly connected to a heating guide angle box 227. The middle part of one end of the heating guide angle box 227 is fixedly connected to a heating guide top pipe 228. The end of the heating guide top pipe 228 is connected to a heating conveying auger 229 through a motor. The low-temperature guide vertical pipe 22 2. The low-temperature guiding tubes 223, the heating guiding tubes 225 and the heating guiding vertical tubes 226 are all embedded in the gap between the protective outer wall 202 and the heat-conducting inlaid outer plate 211. The low-temperature guiding tubes 223 and the heating guiding tubes 225 are arranged in an interlaced manner. The insulation process of the insulation structure is optimized through the mutual cooperation between the components inside the multi-layer gas-liquid circulation heat-conducting insulation mechanism 2. The insulation structure can be dynamically adjusted according to the temperature inside the insulation space during use through the mutual cooperation between the gas box 204 installed on the top of the internal insulation inner box 203 and the circulating liquid box 206 at the bottom. When the temperature inside the insulation space is high, the insulation can be adjusted by the internal insulation inner box 203. The heat inside the space is collected and stored, and when the temperature inside the internal insulation box 203 rises, the expansion of the telescopic regulating airbag 205 is used to cut off the heat exchange path between the heat transfer oil and the insulation space, thereby reducing the heat exchange efficiency between the internal insulation box 203 and the insulation space, so that the temperature inside the insulation space can be continuously maintained within a suitable range, thereby effectively improving the insulation efficiency of the insulation structure, and when the temperature inside the insulation space is low, the heat transfer oil at the bottom of the bottom circulating liquid tank 206 can also be supplemented by the electric heating inner tube 209, thereby effectively expanding the function of the insulation structure, improving the use effect of the insulation structure, and reducing the energy consumption of the insulation structure;

[0067] At the same time, when it is necessary to use the external temperature to assist the insulation of the insulation structure, the low-temperature conveying auger 220 and the heating conveying auger 229 can drive the circulation of the heat-conducting flat box 212 and the heat-absorbing flat box 224 according to the needs, and adjust the temperature of the internal area of ​​the protective outer wall 202 during the circulation of the heat-conducting oil. When the temperature outside the insulation space is low, the circulation of the heat-conducting flat box 212 and the heat-absorbing flat box 224 can be used to heat the protective outer wall 202 and the heat-conducting inlaid outer plate 211, so as to insulate the inside of the insulation structure by reducing the temperature difference between the protective inner wall 201 and the protective outer wall 202. When the temperature outside the insulation space is high, the heat of the external space can be collected to assist the heating of the inside of the insulation structure, so as to improve the utilization rate of the surrounding environment heat by the insulation structure, thereby improving the actual use effect of the insulation structure.

[0068] The expansion states of the inert gases with different contents in the telescopic adjustment airbag 205 and the internal compression airbag 217 at different temperatures are fully utilized, and the heat exchange efficiency between the internal insulation inner box 203 and the insulation space is adjusted by the expansion and contraction of the telescopic adjustment airbag 205, so as to ensure that the insulation structure can provide a stable insulation effect for the insulation space under different temperature conditions. The internal compression airbag 217 has a small amount of inert gas that can be expanded and fully compressed, so that the internal compression airbag 217 can isolate the heat between the protective inner wall 201 and the protective outer wall 202 in the expanded state, and after the internal compression airbag 217 is fully compressed, it can transfer the external heat to the internal insulation inner box 203, thereby effectively expanding the function and use effect of the insulation structure.

[0069] An external splicing installation mechanism 3 is arranged outside the installation outer frame 1, and the external splicing installation mechanism 3 is used to splice and position each insulation structure, and to fix and install the insulation structure after the splicing and positioning, so as to realize the assembly between the insulation structures;

[0070] The external splicing installation mechanism 3 includes a splicing top block 301, a splicing bottom block 302, a splicing vertical block 303, a splicing rectangular groove 304, a fixing clamping hole 305, a fixing top bolt 306, a limiting bottom block 307, an adjusting side bolt 308, a limiting rotating block 309, a clamping arc groove 310, a limiting rectangular groove 311, an installation top block 312, a limiting rectangular strip 313, an installation top bolt 314, a sealing strip 315 and a glue injection slot 316;

[0071] A top block 301 is fixedly installed in the middle of the top of the installation outer frame 1, and a bottom block 302 is fixedly installed in the middle of the bottom of the installation outer frame 1. A vertical block 303 is evenly and evenly fixedly connected to the top block 301 and the middle of the concave side of the bottom block 302. A rectangular groove 304 is evenly opened in the middle of the convex side of the bottom block 302. The top block 301, the bottom block 302 and the vertical block 303 are all penetrated by fixing holes 305 on the side, and a fixing top bolt 306 is installed in the fixing hole 305 through a thread.

[0072] A limited bottom block 307 is fixedly installed at the bottom of the side of the installation outer frame 1, and an adjustable side bolt 308 is fixedly installed in the middle of both sides of the limited bottom block 307. One end of the outer side of the adjustable side bolt 308 is fixedly sleeved with a limited rotation block 309. A clamping arc groove 310 is penetrated at the bottom of the end of the limited rotation block 309, and a limited rectangular groove 311 is penetrated in the middle of one side of the top of the limited rotation block 309. A mounting top block 312 is fixedly connected to the side of the installation outer frame 1 corresponding to the top position of the limited rotation block 309, and a mounting top block 312 is inserted inside the limited rectangular groove 311. A limited rectangular strip 313 is installed, and a mounting top bolt 314 is installed through a thread at the middle of the top surface of the mounting top block 312 corresponding to the top position of the limited rectangular strip 313, and the edges of the four side surfaces of the mounting outer frame 1 are embedded and bonded with sealing strips 315, and the tops of both sides of one side of the mounting outer frame 1 are penetrated with glue injection slots 316, and the splicing top blocks 301 and the splicing bottom blocks 302 are arranged alternately, and the splicing vertical blocks 303 on the outside of the splicing top blocks 301 and the splicing bottom blocks 302 are respectively correspondingly connected with the splicing rectangular grooves 304;

[0073] The limiting rotating blocks 309 on both sides of the installation outer frame 1 are arranged in an interlaced manner, and the engaging arc grooves 310 and the adjacent adjusting side bolts 308 are engaged with each other, and the sealing strips 315 on the sides of the two adjacent installation outer frames 1 are tightly fitted. The mutual cooperation between the components inside the external splicing installation mechanism 3 optimizes the installation process of the thermal insulation structure. The installation outer frame 1 can be longitudinally installed and positioned by the mutual cooperation between the components connected to the splicing top block 301 and the splicing bottom block 302, and then the installation outer frame 1 can be horizontally positioned and installed by the mutual cooperation between the adjusting side bolts 308 and the limiting rotating blocks 309. Then, the thermal insulation structure can be quickly assembled and installed by the mutual cooperation between the splicing components, which effectively improves the installation convenience of the thermal insulation structure. At the same time, the top of the limiting rotating block 309 is fixed by the mutual cooperation between the limiting rectangular strip 313 and the limiting rectangular groove 311, which further improves the installation stability of the thermal insulation structure.

[0074] At the same time, the edge cavity formed after the installation of the outer frame 1 is used to cooperate with the glue injection slot 316 to inject the corresponding thermal insulation sealant into the cavity, and then the solidified thermal insulation sealant is used to fill the cavities outside the installation outer frame 1, and the components between the outer periphery of the installation outer frame 1 are positioned, so as to further improve the installation stability of the thermal insulation structure, and effectively prevent the installation outer frame 1 from affecting the overall thermal insulation performance of the thermal insulation structure after installation;

[0075] Among them, the inert gas can be matched according to the site requirements, and it is recommended to use a mixture of nitrogen and carbon dioxide.

[0076] like Fig.11 As shown, a construction process of an ultra-low energy consumption assembled thermal insulation structure integrated system includes the following steps:

[0077] S1. Building a bracket: Building a corresponding mounting bracket at a suitable location according to the installation requirements of the thermal insulation structure, transporting the required thermal insulation structure to the vicinity of the installed mounting bracket, and inspecting the internal structures of the installation outer frame 1;

[0078] S2, splicing and positioning: the external frame 1 is installed by placing its internal components inside the mounting bracket, and the external frame 1 is positioned by splicing the top block 301 and the bottom block 302 together;

[0079] S3, fixed installation: the side of the installation outer frame 1 is locked and limited by twisting and adjusting the side bolt 308 and the limit rotation block 309, and the limit rectangular strip 313 is inserted into the limit rectangular groove 311 to achieve the limit between the installation outer frame 1 and complete the installation of the thermal insulation structure;

[0080] S4, internal filling: After the installation of the thermal insulation structure is completed, the internal thermal insulation material needs to be filled. A proper amount of mixed heat transfer oil is added to the internal thermal insulation inner box 203 and the circulating heat transfer flat box 212 through the corresponding conduit, and the building foam agent is filled into the gap on the side of the installation outer frame 1 through the injection slot 316 to complete the pre-use commissioning of the thermal insulation structure;

[0081] S5. Inspection and acceptance: The inspectors shall test the mechanical strength of the installed insulation structure and the insulation effect of the installed insulation structure to complete the construction and installation of the insulation structure.

[0082] Working principle and use process of the present invention: In the process of using the thermal insulation structure of the present invention, the thermal insulation structure needs to be installed to a suitable position first. When the thermal insulation structure is spliced ​​by installing the outer frame 1, the splicing top blocks 301 and the splicing bottom blocks 302 at the top and bottom of the two longitudinally adjacent installation outer frames 1 are spliced, so that the splicing vertical blocks 303 and the splicing rectangular grooves 304 on the top surface of the splicing top block 301 and the splicing vertical blocks 303 and the splicing rectangular grooves 304 on the bottom surface of the splicing bottom block 302 are interlaced and engaged with each other to complete the vertical positioning of the installation outer frame 1, and then the fixing top bolt 306 is inserted and installed into the fixing card hole 305, and then the splicing top block 301 and the splicing bottom block 302 are fixedly installed by the fixing top bolt 306;

[0083] When the side surfaces of the installation outer frame 1 are tightly fitted, the edges of the joints of the installation outer frame 1 are sealed by the tight fit between the sealing strips 315, and then the adjusting side bolts 308 are turned by a wrench, so that the adjusting side bolts 308 can synchronously drive the limit rotating block 309 to swing during the rotation, and the limit rotating block 309 is clamped to the outer side of the laterally adjacent adjusting side bolts 308 through the clamping arc groove 310 during the swinging process, and then the mutual positioning between the installation outer frames 1 is realized through the mutual buckling between the laterally adjacent adjusting side bolts 308 and the limit rotating block 309;

[0084] Then, the limiting rectangular strip 313 is inserted into the limiting rectangular groove 311, so that the bottom of the limiting rectangular strip 313 and the limiting bottom block 307 are mutually engaged, and then the installation top bolt 314 is installed to the top of the limiting rectangular strip 313 through the installation top block 312, and the bottom surface of the installation top bolt 314 and the top surface of the limiting rectangular strip 313 are tightly fitted, and finally, the building filling foam is filled into the gap on the side of the installation outer frame 1 through the injection slot 316, thereby realizing the splicing installation of the thermal insulation structure;

[0085] During the use of the thermal insulation structure, each component is installed inside the installation outer frame 1 through the cooperation between the protective inner wall 201, the protective outer wall 202 and the heat-conducting inlaid outer plate 211. When the temperature inside the thermal insulation space is too high, the heat inside the thermal insulation space can be collected by the internal thermal insulation inner box 203, and the heat can be absorbed and stored by the heat-conducting oil inside the internal thermal insulation inner box 203. At the same time, the mixed inert gas inside the top-mounted air box 204 and the telescopic adjustment air bag 205 will also absorb heat and expand synchronously. When the internal thermal insulation inner box 203 When the overall temperature inside is high, since the expansion rate of the gas inside the telescopic regulating airbag 205 is much greater than the expansion rate of the heat transfer oil inside the internal heat-insulating inner box 203, the heat transfer oil on the side of the internal heat-insulating inner box 203 close to the heat-insulating inner plate 210 is squeezed into the internal heat-insulating inner box 203 through the expansion of the telescopic regulating airbag 205, reducing the contact area between the heat transfer oil inside the internal heat-insulating inner box 203 and the side of the internal heat-insulating inner box 203, so as to slow down the heat exchange efficiency between the heat transfer oil and the heat-insulating space, and temporarily store the heat inside the heat-insulating space through the heat transfer oil;

[0086] When the temperature of the heat preservation space and the internal heat preservation inner box 203 drops, the telescopic regulating airbag 205 contracts and increases the contact area between the heat transfer oil and the inner wall of the internal heat preservation inner box 203, thereby improving the heat exchange efficiency between the heat transfer oil inside the internal heat preservation inner box 203 and the heat preservation space, thereby improving the heat preservation performance inside the heat preservation space;

[0087] And when auxiliary heating is required for the inside of the internal heat-insulating inner box 203, the heat-conducting oil can be heated by the electric heating inner tube 209 inside the bottom circulating liquid tank 206, and the high-temperature heat-conducting oil can be continuously passed through the liquid guide pipe port 207 to enter the inside of the internal heat-insulating inner box 203 by utilizing the characteristics of different temperatures and densities of the heat-conducting oil, so as to ensure that the temperature inside the internal heat-insulating inner box 203 is always maintained within a suitable range, and the heat-conducting oil flowing through the bottom circulating liquid tank 206 is filtered and guided by the isolation bottom frame 208, so as to prevent the solid impurities generated by the heat-conducting oil during continuous use from adhering to the inner wall of the internal heat-insulating inner box 203 and affecting its heat exchange performance, so as to ensure the normal use of the heat-insulating structure, and the two sides of the internal heat-insulating inner box 203 are protected by the heat-insulating inner plate 210 and the heat-conducting outer rubber plate 230;

[0088] At the same time, during the use of the heat preservation structure, it is necessary to collect and utilize the surrounding environmental heat. When the external light temperature is lower than the temperature inside the heat preservation space, the external light heat is collected by the heat absorption flat box 224, so that the overall temperature of the outer periphery of the heat-conducting inlaid outer plate 211 rises, and the heat-conducting oil inside the heat-absorbing flat box 224 is directed and guided by the low-temperature guide tube 223 and the heating guide tube 225, and the heat-conducting oil inside the heating guide tube 225 is driven to enter the heating guide vertical pipe 226 by the rotation of the low-temperature conveying auger 220 and the heating conveying auger 229, and the heat-conducting oil inside the heating guide vertical pipe 226 after absorbing heat is sequentially entered into the heating guide angle box 227 and the heating guide top pipe 228;

[0089] Then, the heat transfer oil is introduced into the circulating heat transfer flat box 212 through the corresponding guide flat tube 218, and the heat transfer oil in the circulating heat transfer flat box 212 can also enter the low-temperature guide bottom tube 219 through the corresponding guide flat tube 218, and is introduced into the low-temperature guide vertical pipe 222 through the low-temperature delivery auger 220 and the low-temperature guide box 221, and then the heat transfer oil in the low-temperature guide vertical pipe 222 is guided back to the heat absorption flat box 224 through the low-temperature guide capillary 223, thereby realizing the heat transfer oil circulation between the circulating heat transfer flat box 212 and the heat absorption flat box 224, and the heat transfer oil is auxiliary heated by the heat absorption flat box 224 during the heat transfer oil circulation process;

[0090] When the heat-conducting oil heated by external light heat flows through the circulating heat-conducting flat box 212, the heat-conducting oil inside the circulating heat-conducting flat box 212 can be diffused by the diffusion side box 213 to expand the flow path of the heat-conducting oil, and the outside of the diffusion side box 213 is insulated and protected by the filling side plate 214;

[0091] When the temperature inside the circulating heat-conducting flat box 212 is low, the heat expansion rate of the heat-conducting oil inside the circulating heat-conducting flat box 212 is low, and the hard buffer flat box 216 and the small amount of inert gas inside the internal compression airbag 217 can still support the shape of the internal compression airbag 217. The expanded internal compression airbag 217 reduces the contact area between the heat-conducting oil inside the circulating heat-conducting flat box 212 and the inner wall of the circulating heat-conducting flat box 212, and then the heat exchange process between the side of the circulating heat-conducting flat box 212 and the protective inner wall 201 is cut off by the internal compression airbag 217. At the same time, the circulating heat-conducting flat box 212 increases the overall temperature of the protective outer wall 202, and reduces the efficiency of heat diffusion from the inside of the protective inner wall 201 to the outside.

[0092] When the temperature outside the insulation space is high, the temperature of the heat-conducting oil inside the circulating heat-conducting flat box 212 can be heated to a temperature higher than the temperature inside the insulation space through the heat-absorbing flat box 224. At this time, the heat-conducting oil inside the circulating heat-conducting flat box 212 will expand and squeeze the small amount of inert gas inside the internal compression airbag 217 into the hard buffer flat box 216, so that the bag walls on both sides of the internal compression airbag 217 can fit tightly together, so that the heat inside the circulating heat-conducting flat box 212 can penetrate the isolation elastic plate 215 and the internal compression airbag 217 to transfer to the side of the protective inner wall 201, and transfer the heat to the internal insulation inner box 203 through the heat-conducting outer rubber plate 230 to assist in heating the heat-conducting oil inside the internal insulation inner box 203, thereby making full use of the heat outside the insulation space to improve the overall insulation performance of the insulation structure.

[0093] Finally, it should be noted that the above description is only a preferred example of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An ultra-low energy consumption assembled thermal insulation structure integrated system, comprising an installation outer frame (1), characterized in that: The installation outer frame (1) is internally provided with a multi-layer gas-liquid circulation heat conduction insulation mechanism (2), which is used to collect and store the temperature inside the insulation space, diffuse the stored heat in the opposite direction when the temperature inside the insulation space drops, and simultaneously collect and transfer the heat outside the insulation space, so as to adjust the temperature inside the insulation structure; The multi-layer gas-liquid circulation heat conduction and heat insulation mechanism (2) comprises a protective inner wall (201); A protective inner wall (201) is installed in the installation outer frame (1) in an embedded installation manner, and a protective outer wall (202) is fixedly installed on one side of the protective inner wall (201) at a position corresponding to the interior of the protective inner wall (201); An internal heat-insulating inner box (203) is embedded and installed inside the protective inner wall (201); a top-mounted air box (204) is fixedly connected to the middle of the top end of the internal heat-insulating inner box (203) at a position corresponding to the inside of the protective inner wall (201); and a telescopic adjustment air bag (205) is fixedly connected to the bottom end of the top-mounted air box (204) at a position corresponding to the inside of the internal heat-insulating inner box (203); A bottom circulating liquid tank (206) is fixedly installed in the middle of the bottom end of the internal heat-insulating inner box (203); a top end of the bottom circulating liquid tank (206) is evenly and evenly fixedly connected with a liquid guide pipe opening (207) at a position corresponding to the bottom of the inner side of the internal heat-insulating inner box (203); an isolation base frame (208) is embedded and installed in the middle of the inner side of the bottom circulating liquid tank (206); an electric heating inner tube (209) is inserted and installed in the inner side of the bottom circulating liquid tank (206) corresponding to the inner side of the isolation base frame (208); and the electric heating inner tube (209) is powered by an external power supply; The internal heat-insulating inner box (203) and the bottom circulating liquid tank (206) are both filled with heat-conducting oil, and the top inclined surface of the isolation bottom frame (208) is evenly provided with liquid-conducting holes; A heat-conducting outer rubber plate (230) is embedded and installed on a side of the protective inner wall (201) close to the protective outer wall (202), and a heat-insulating inner plate (210) is embedded and installed at a position corresponding to the outer side of the internal heat-insulating inner box (203) in the protective inner wall (201); A heat-conducting inlaid outer plate (211) is embedded and installed at a position inside the outer frame (1) corresponding to the outer side of the protective outer wall (202), and a circulating heat-conducting flat box (212) is embedded and installed at the middle part of the inner side of the protective outer wall (202).

2. The ultra-low energy consumption assembled thermal insulation structure integrated system according to claim 1, characterized in that: The outer sides of the protective inner wall (201) and the protective outer wall (202) are tightly slidably fitted with the inner side of the mounting outer frame (1), and the connection between the protective inner wall (201) and the protective outer wall (202) is tightly fitted.

3. The ultra-low energy consumption assembled thermal insulation structure integrated system according to claim 1, characterized in that: The cross-sectional shape of the telescopic regulating airbag (205) is an isosceles trapezoid; the interior of the telescopic regulating airbag (205) and the top-mounted air box (204) are both filled with a mixed inert gas; the side surface of the telescopic regulating airbag (205) is tightly fitted to the inner wall of the internal heat-insulating inner box (203), and the internal heat-insulating inner box (203) can be expanded laterally.

4. The ultra-low energy consumption assembled thermal insulation structure integrated system according to claim 1, characterized in that: The middle parts of both sides of the circulating heat-conducting flat box (212) are evenly and evenly fixedly connected with diffusion side boxes (213), and the side surfaces of the protective outer wall (202) are embedded with filling side plates (214) at positions corresponding to the outer sides of the diffusion side boxes (213); An isolation elastic plate (215) is fixedly connected to one side of the circulating heat-conducting flat box (212) close to the protective inner wall (201), and hard buffer flat boxes (216) are fixedly connected to the top and bottom positions of one side of the circulating heat-conducting flat box (212) corresponding to the isolation elastic plate (215), and an internal compression air bag (217) is fixedly connected between the two hard buffer flat boxes (216).

5. The ultra-low energy consumption assembled thermal insulation structure integrated system according to claim 4, characterized in that: The middle of the top and bottom of the circulating heat-conducting flat box (212) are both fixedly connected with a guide flat tube (218); the bottom of the guide flat tube (218) located at the bottom of the circulating heat-conducting flat box (212) is fixedly connected with a low-temperature guide bottom tube (219); the interior of the low-temperature guide bottom tube (219) is fixedly connected with a low-temperature conveying auger (220) via a motor; and one end of the low-temperature guide bottom tube (219) is fixedly connected with a low-temperature guide box (221) at a position corresponding to the bottom of the protective outer wall (202); A low-temperature flow guide vertical pipe (222) is fixedly connected to the top of the low-temperature flow guide box (221) at a position corresponding to the inside of the heat-conducting inlaid outer plate (211); low-temperature flow guide thin tubes (223) are evenly and equidistantly fixedly connected to the side of the low-temperature flow guide vertical pipe (222) at a position corresponding to the inside of the heat-conducting inlaid outer plate (211); a heat-absorbing flat box (224) is fixedly connected to one side of the low-temperature flow guide thin tube (223) via a flat tube; and a heating flow guide thin tube (225) is fixedly connected to the back of the heat-absorbing flat box (224) at a position corresponding to the inside of the heat-conducting inlaid outer plate (211) via a flat tube; The ends of the plurality of heating guide tubes (225) are fixedly connected to a heating guide vertical pipe (226) at a position corresponding to the inside of a heat-conducting inlaid outer plate (211); the top of the heating guide vertical pipe (226) is fixedly connected to a heating guide angle box (227) at a position corresponding to the top of the protective outer wall (202); a heating guide top pipe (228) is fixedly connected to the middle of one end of the heating guide angle box (227); and the end of the heating guide top pipe (228) is connected to a heating conveying auger (229) via a motor.

6. The ultra-low energy consumption assembled thermal insulation structure integrated system according to claim 5, characterized in that: The sides of the heat-insulating inner plate (210) and the heat-conducting outer rubber plate (230) are flush with the sides of the protective inner wall (201); the outer sides of the filling side plates (214) are flush with the sides of the circulating heat-conducting flat box (212); and the circulating heat-conducting flat box (212) and the diffusion side box (213) are filled with mixed heat-conducting oil; The internal compression airbag (217) and the hard buffer flat box (216) are filled with a mixed inert gas, and the internal compression airbag (217) is made of a heat-conducting material.

7. The ultra-low energy consumption assembled thermal insulation structure integrated system according to claim 6, characterized in that: The low-temperature flow guide vertical pipe (222), the low-temperature flow guide thin pipe (223), the heating flow guide thin pipe (225), and the heating flow guide vertical pipe (226) are all embedded in the gap between the protective outer wall (202) and the heat-conducting inlaid outer plate (211), and the low-temperature flow guide thin pipe (223) and the heating flow guide thin pipe (225) are arranged in a staggered manner.

8. The ultra-low energy consumption assembled thermal insulation structure integrated system according to claim 5, characterized in that: An external splicing installation mechanism (3) is arranged outside the installation outer frame (1), and the external splicing installation mechanism (3) is used to splice and position each insulation structure, and to fix and install the insulation structure after the splicing and positioning, so as to realize assembly between the insulation structures; The external splicing installation mechanism (3) comprises a splicing top block (301); A splicing top block (301) is fixedly installed in the middle of the top end of the mounting outer frame (1), and a splicing bottom block (302) is fixedly installed in the middle of the bottom end of the mounting outer frame (1). Splicing vertical blocks (303) are evenly and evenly fixedly connected in the middle of the concave sides of the splicing top block (301) and the splicing bottom block (302), and splicing rectangular grooves (304) are evenly opened in the middle of the convex side of the splicing bottom block (302). The splicing top block (301) and the splicing bottom block (302) are arranged in an interlaced manner, and the splicing vertical blocks (303) on the outside of the splicing top block (301) and the splicing bottom block (302) are respectively correspondingly engaged with the splicing rectangular grooves (304); The sides of the splicing top block (301), the splicing bottom block (302) and the splicing vertical block (303) are all provided with fixing holes (305), and the fixing holes (305) are provided with fixing top bolts (306) inserted through threads. A limit bottom block (307) is fixedly installed at the bottom of the side of the mounting outer frame (1), and an adjustment side bolt (308) is fixedly installed in the middle of both sides of the limit bottom block (307), and one end of the outer side of the adjustment side bolt (308) is fixedly sleeved with a limit rotating block (309), and a clamping arc groove (310) is penetrated at the bottom of the end of the limit rotating block (309), and a limit rectangular groove (311) is penetrated at the middle of one side of the top of the limit rotating block (309). The side of the mounting outer frame (1) corresponds to the limit A mounting top block (312) is fixedly connected at the top position of the position transfer block (309), a limiting rectangular strip (313) is inserted and installed inside the limiting rectangular groove (311), a mounting top bolt (314) is installed through a thread at the middle of the top surface of the mounting top block (312) corresponding to the top position of the limiting rectangular strip (313), sealing strips (315) are embedded and bonded to the edges of the four side surfaces of the mounting outer frame (1), and a glue injection slot (316) is opened through the top of both sides of one side of the mounting outer frame (1); The limit rotation blocks (309) on both sides of the mounting outer frame (1) are arranged in an interlaced manner, and the engaging arc grooves (310) and the adjacent adjustment side bolts (308) are engaged with each other, and the sealing strips (315) on the sides of two adjacent mounting outer frames (1) are tightly fitted.

9. An ultra-low energy consumption assembled thermal insulation structure construction process, used for the ultra-low energy consumption assembled thermal insulation structure integrated system according to claim 8, characterized in that: The steps include: S1. Building a support: Building a corresponding installation support at a suitable location according to the installation requirements of the thermal insulation structure, transporting the required thermal insulation structure to the vicinity of the installed installation support, and inspecting the internal structures of the installation outer frame (1); S2, splicing and positioning: placing the internal components of the mounting outer frame (1) into the mounting bracket, and positioning the mounting outer frame (1) by splicing the top block (301) and the bottom block (302) together; S3, fixed installation: locking and limiting the side of the installation outer frame (1) by twisting and adjusting the side bolt (308) and the limiting rotating block (309), and inserting the limiting rectangular strip (313) into the limiting rectangular groove (311) to achieve limiting between the installation outer frame (1), thereby completing the installation of the thermal insulation structure; S4, internal filling: after the installation of the thermal insulation structure is completed, the internal thermal insulation material needs to be filled, and an appropriate amount of mixed heat transfer oil is added to the internal thermal insulation inner box (203) and the circulating heat transfer flat box (212) through the corresponding conduit, and the building foam agent is filled into the side gap of the installation outer frame (1) through the glue injection slot (316) to complete the pre-use commissioning of the thermal insulation structure; S5. Inspection and acceptance: The inspectors shall test the mechanical strength of the installed insulation structure and the insulation effect of the installed insulation structure to complete the construction and installation of the insulation structure.

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