WO2016134674A1

WO2016134674A1 - Passive ultra-low energy-consumption building and method for manufacturing enclosing structure substrate

Info

Publication number: WO2016134674A1
Application number: PCT/CN2016/074713
Authority: WO
Inventors: 杨怡; 王建智
Original assignee: 杨怡; 王建智
Priority date: 2015-02-27
Filing date: 2016-02-26
Publication date: 2016-09-01

Abstract

Disclosed are a passive ultra-low energy-consumption building and a method for manufacturing enclosing structure substrate. The building comprises a light steel earthquake-resistant structure and an ultra-low energy-consumption enclosing structure. The ultra-low energy-consumption enclosing structure comprises an enclosing structure substrate and a left junction component and a right junction component of the enclosing structure substrate. An upper and a lower concave and convex contact (3-3, 4-3) are arranged at two ends of the enclosing structure substrate. An upper enclosing structure substrate and a lower enclosing structure substrate are connected by the upper and lower concave and convex contacts (3-3, 4-3). A left enclosing structure substrate and a right enclosing structure substrate are connected by the left junction component and the right junction component. The ultra-low energy-consumption enclosing structure is fixed to the light steel earthquake-resistant structure by screws. The method for manufacturing enclosing structure substrate comprises: producing a hollow lining cavity polymer material layer (3-2, 4-2) and a nanometer fireproof inorganic material layer (3-1, 4-1) respectively; and combining the two layers to form an enclosing structure substrate. The building has low energy consumption, and is green and environmental protection.

Description

Passive ultra low energy green building and enclosure structure for use in recyclable materials

Technical field

The invention belongs to the field of green building adopting passive measures for energy-saving technology, and relates to a passive ultra-low-energy green building used for recyclable materials, in particular to a recyclable material, the weight of which is an overall proportion of the total weight of the building materials used, An ultra-low-energy green building that effectively reduces construction waste.

Background technique

In order to achieve the goal of energy efficiency improvement, all member states are actively promoting the development of ultra-low energy buildings (near zero energy buildings). The “Building Energy Efficiency 2010 Directive” (EPBD2010) has been issued, and member states will be from December 31, 2020. Since then, all new buildings are near zero-energy buildings; since December 31, 2018, new buildings used or owned by the government are zero-energy buildings. Europe's energy consumption limit regulations for ultra-low-energy buildings and building energy-saving standards are higher than China's current standards. On July 7, 2014, China and Germany formally signed a Sino-German Ecological Park Passive House Cooperation Project. The plan represents China's entry into a new phase of substantial development and is the goal and trend for future energy efficiency improvement. The establishment of a passive ultra-low-energy building standard system will become the goal of China's building energy-saving standard planning and expected establishment efforts, providing technical reserves for the gradual improvement of building energy-saving standards, driving the upgrading of intelligent ultra-low-energy industries, and combining information intelligence. The system, intelligent equipment, intelligent production, intelligent management, marching towards the general trend of Industry 4.0, and promoting the refined revolution of automated construction technology.

Summary of the invention

Building energy conservation has the distinction of “active energy saving” and “passive energy saving”. Existing conventional active energy-saving buildings adopt active measures for energy-saving equipment, which are often subject to external environmental weather factors and internal environmental equipment factors. The overall energy-saving contribution rate is not high or unstable, and the enclosure structure uses cement products or lightweight bricks. Such as traditional high-energy and high-pollution materials, it will be dismantled and formed a large amount of construction waste in the future, which is difficult to recycle and use. On-site construction pollution damages the environment, the construction period is unstable, and the quality is difficult to standardize. In order to overcome the above technical drawbacks, the present invention provides a passive ultra-low energy green building using recyclable materials, the core of which is to solve the problem: energy saving contribution rate of the overall building envelope structure, with little or no heating and air conditioning It can still maintain livable temperature and is less carbon-friendly than conventional active energy-saving buildings; it adopts recyclable composite materials, adjusts formulas according to different climate zones, and can be recycled using its own recycled materials. The overall building materials can be Recycling and recycling, reducing construction waste, in line with green building evaluation; on-site construction is simplified and pollution-free, the process is intelligent automation without labor Factory production, combined with network remote collaborative building design, large-scale personalized customization of the Internet of Things, in line with the requirements of energy conservation and environmental protection, the industrialization of passive green building intelligence in the industry 4.0.

The technical solution adopted by the present invention to solve the technical problem thereof is:

Passive ultra-low-energy green building for recyclable materials, including: building light steel seismic structure; ultra-low energy enclosure structure; left and right joint structure of enclosing structure substrate; automated production and recyclable material of enclosing structure substrate use.

The light steel seismic structure of the building is designed to combine the light steel structural parameters in the automated production, combined with the structural load and strength of the roof, wall and floor envelope structure, and is numbered. The structural plate is resistant to bending loads. It is easy to achieve high seismic standards, and it is made of anti-corrosion galvanized high-strength light steel. The whole building light steel structure uses recyclable materials, which is in line with green building evaluation.

Ultra-low-energy enclosure structure, integrated part of roofing, wall and floor system design uses ultra-low energy-encapsulation structure substrate with heat preservation, fire resistance, sound insulation, water resistance and frost resistance, with low heat transfer coefficient hollow The membrane cavity polymer material is matched with upper and lower concave and convex joints with high watertight airtightness, and a composite nano refractory inorganic material layer on both sides.

Wherein, the enclosing structure substrate can be designed as a single cavity layer enclosing structure substrate or a double cavity layer enclosing structure substrate according to requirements, and the system constitutes a green building carrier, which reduces the overall building thermal conductivity and can be used in a building, The inner and outer walls, roofs and floor panels of the factory buildings and various types of houses, in line with the building structure and energy-saving doors and windows, meet the requirements of environmental protection, consumption reduction, low carbon and energy saving.

The left and right joint structural parts of the enclosing structure substrate are designed with a low heat transfer coefficient plastic steel material as the inner lining, with a nano refractory inorganic material interlayer and an aluminum alloy structure retaining edge to form a high-strength, cold-proof bridge, fireproof and waterproof corner. Structural member, parallel structural member, edge sealing structural member.

Automated production of encased substrates and use of recyclable materials, using proprietary technology of recyclable composites, and the use of self-recycling materials to classify recycled recycled materials into formulation additives for temperature and pressure in automated production Speed, etc. can be input and adjusted, and the quality is easy to control. The nano refractory inorganic material and the hollow inner membrane cavity polymer material are automatically combined, and the inorganic and organic materials are combined into one, and the encapsulating structure substrate and the refractory waterproof composite substrate are formed, and the whole enclosing structure substrate is prepared. They are all used for recyclable materials, no construction waste, and meet the green building evaluation standards.

Passive ultra-low-energy green buildings for recyclable materials, integrated with recyclable materials for intelligent automated unmanned plant production, combined with global networked collaborative building design, IoT large-scale personalization and automated production.

The beneficial effects of the invention are:

1. The thermal performance index of the ultra-low energy enclosure structure greatly exceeds the current international and Chinese building energy efficiency standards, which makes the energy consumption lower than that of conventional ordinary buildings and saves nearly zero energy consumption.

2. The design of the light steel structure and the envelope structure of the earthquake-resistant building main body to reduce the damage to the residents' lives and property caused by earthquakes and hurricanes.

3. In line with environmental protection, consumption reduction, low carbon, energy-saving production requirements, the process is intelligent automatic automation unmanned factory production, combined with global network remote collaborative building design, Internet of things large-scale personalized customized automated production, forming passive ultra-low energy green building Intelligent industrialization, increase labor productivity, and align with the general trend of Industry 4.0.

4. In line with the requirements of environmental protection, consumption reduction, low carbon and energy saving, in addition to the foundation, the weight of the recyclable materials of the whole building accounts for 80% to 90% of the total weight of the building materials used. The civil engineering and renovation projects are integrated. The design and construction, no construction waste, the inner surface temperature and humidity of the roof, floor, exterior wall and exterior window have no condensation under the design conditions, which is in line with the green building evaluation standard.

5. Passive ultra-low-energy green building has excellent performance index, which is suitable for testing in ultra-low energy-contained structural system with a thickness of only 16.5-20cm, which is suitable for use in mild climate regions, and is required by China [National Building Materials Testing] Center] Certification: The heat transfer coefficient K value is 0.28~0.3w/(m2·k), the bending failure load (plate weight multiplication) is 427～514kg/m2 (11.5～13.2), the sound insulation is 55～57dB, anti- The freezing property reaches -30 °C ~ -40 °C, and the content of non-radioactive harmful substances in building materials conforms to the current national standards. In China [National Fireproof Building Materials Quality Supervision and Inspection Center] certification: safety and fire protection requirements meet the national standard level (fire prevention aging 4 to 5 hours). Certified by China [Taiwan Certification Foundation Storm and Storm Laboratory]: Pufu wind class is (±6000Pa), anti-hurricane exceeds 17 standard (±3670Pa, 374kgw/m2, wind speed 61m/s).

DRAWINGS

Figure 1 is a schematic view of the seismic structure of the building light steel.

Figure 2 is a schematic diagram of an ultra-low energy enclosure structure.

Figure 3 is a schematic view of a substrate of a double cavity layer envelope structure.

Figure 4 is a schematic view of a substrate of a single cavity layer envelope structure.

Figure 5 is a schematic view of a corner structural member.

Figure 6 is a schematic view of the parallel connection structure.

Figure 7 is a schematic view of the edge sealing structure.

Figure 8 is a schematic view of the roof structure.

Figure 9 is a schematic view of the floor structure.

Figure 10 is a schematic view of a double-chamber wall structure.

Figure 11 is a schematic view showing the structure of a single cavity wall.

Figure 12 is a flow chart showing the automated production of the envelope substrate and the use of recyclable materials.

In the picture: 2-1 ultra-low energy enclosure structure roof, 2-2 ultra-low energy enclosure structure wall, 2-3 ultra low energy enclosure structure floor, 3-1 double cavity layer nano refractory inorganic Material layer, 3-2 double cavity layer hollow Inner membrane cavity polymer material layer, 3-3 double cavity layer upper and lower concave and convex joints, 4-1 single cavity layer nano refractory inorganic material layer, 4-2 single layer hollow inner membrane cavity polymer material layer, 4-3 single cavity layer Upper and lower concave and convex joints, 5-1 corner envelope structure substrate, 5-2 corner nano refractory inorganic material interlayer, 5-3 corner engineering steel lining, 5-4 corner aluminum alloy structure retaining edge, 6-1 parallel enclosure Structural substrate, 6-2 is connected with nano refractory inorganic material interlayer, 6-3 is connected with aluminum alloy structure retaining edge, 6-4 is connected with engineering steel lining, 7-1 edge sealing structure substrate, 7-2 Edge-sealing engineering steel lining, 7-3 edged aluminum alloy structure retaining edge, 7-4 edged nano refractory inorganic material sandwich, 8-1 facing tile, 8-2 facing tile structure, 8-3 roof waterproofing Layer, 8-4 roof envelope structure substrate, 8-5 roof ceiling structure base material, 8-6 roof galvanized high-strength light steel material, 9-1 floor slab surface material, 9-2 floor surface protection structure Substrate, 9-3 floor waterproof layer, 9-4 floor galvanized high-strength light steel material, 9-5 floor ceiling structure substrate. 10-1 double cavity wall enclosing structure substrate, 10-2 double cavity wall galvanized high strength light steel material, 11-1 single cavity wall enclosing structure substrate, 11-2 single cavity The wall is coated with aluminum-zinc high-strength light steel.

detailed description

The specific embodiments of the present invention are further described below in conjunction with the accompanying drawings.

As shown in FIG. 1 and FIG. 2, the design process of the passive ultra-low energy green building used in the recyclable material of the present invention is combined with the global network collaborative design of the ground, the large-scale personalized customization of the Internet of Things, and the computer aided design software. The plan for the intelligent dismantling plan is drawn, including: a. Green building design (in accordance with the “Green Building Evaluation Standard” issued by the Ministry of Housing and Urban-Rural Development of China or the “Green Building Evaluation System” established and implemented by the US Green Building Association); .Design of ultra-low energy seismic enclosure structure (roof system, wall system, floor system); c. analysis and dismantling of materials; d. combination of light steel structure design and enclosure structure; e. interior design decoration and Environmental protection; f. Energy-saving door and window design; g. System hardware connector design; h. Construction standard operating procedures; i. Passive energy-saving implementation design, with little or no air conditioning equipment: including traditional air-conditioning system , ground source heat pump air conditioning system, energy-saving fresh air heat exchange system, far-infrared geothermal system, solar photovoltaic system.

The invention provides a passive ultra-low energy green building for use in a recyclable material, the building comprising an ultra low energy enclosure structure and an architectural light steel seismic structure, the ultra low energy enclosure structure comprising a enclosure substrate and a enclosure The left and right joint structural members of the structural substrate are used as recyclable materials, and are composed of a hollow inner membrane cavity polymer material layer and a nano refractory inorganic material layer, and the two ends of the enclosing structure substrate are provided Concave-convex contact, the upper and lower enveloping structure substrates are connected by upper and lower bump contacts. The left and right enclosure structure substrates are connected by the left and right joint structural members of the enclosure structure to form an ultra-low energy enclosure structure, and the ultra-low energy enclosure structure is fixed to the building light steel seismic structure by screws.

As shown in Figure 1, the construction of light steel seismic structure is based on automatic production standards and meets the requirements of international or Chinese regulations. It is designed as a light-steel structure for earthquake-resistant buildings. The computer-aided design software intelligently plans to draw drawings, and the factory automatic production line machining. The parameters of the seismic light-proof structure of the building in the automatic production, combined with the strength and load parameters of the roof, wall and floor of the ultra-low energy enclosure structure, are made and numbered, and the bending failure load of the structural plate meets the high seismic resistance according to requirements. Standard, high corrosion-resistant plating 55% aluminum-zinc high-strength light steel material, the overall structure and materials can be recycled materials.

As shown in Fig. 2, Fig. 3 and Fig. 4, the roof 2-1, the wall 2-2 and the floor 2-3 of the ultra-low energy enclosure structure can be recycled and recycled using zero brick and zero cement. For organic materials, such as polymer engineering plastics, or inorganic materials, such as fire-resistant mineral powder, the reasonable thermal performance can be adjusted according to different climate zones, and the structural foundation can be adjusted according to different load requirements of roof, wall and floor. Material thickness strength, main energy-saving performance planning and design greatly exceeds the current international and Chinese standards, especially for thermal performance heat transfer coefficient, safety fire protection requirements, in line with anti-hurricane, Beaufort wind class, bending damage load, sound insulation, anti-freeze, construction There are no requirements for radioactive and hazardous substances in the material. The design uses a dual cavity encapsulation substrate or a single cavity encapsulation substrate.

As shown in FIG. 3, the double-cavity layer enveloping structure substrate comprises a double-cavity layer, a double-cavity layer, a hollow cavity layer, a polymer material layer 3-2, and a double-cavity layer upper and lower double-cavity layer upper and lower bump contacts. 3-3 and a double-cavity nano-refractory inorganic material layer 3-1 compounded on both sides of the double-cavity layer.

As shown in FIG. 4, the single-cavity layer encapsulating structure substrate comprises a single cavity layer, a single cavity layer in a single cavity layer, a hollow inner film cavity polymer material layer 4-2, and a single cavity layer upper and lower single cavity layer upper and lower bump contacts. 4-3 and a single-cavity nano-refractory inorganic material layer 4-1 composited on both sides of the single-cavity layer.

The production of ultra-low energy enveloping structure substrate is produced by intelligent automatic unmanned factory. With its own special program software, intelligent disassembly planning and design of networked automation equipment, production and processing of the envelope structure substrate and joint structure parts, respectively In the roof, wall and floor systems, the production of intelligent industrialization is formed. The production content mainly includes the following:

a. As shown in FIG. 5, FIG. 6 and FIG. 7, the left and right joint structural members of the enclosure structure are implemented for the structural strength, cold bridge, heat preservation, fire resistance and waterproof of the structural members, and the left and right joints of the enclosing structure substrate. The structural member comprises a corner structural member, a parallel structural member and an edge sealing structural member. The corner structural member includes a corner enclosing structure substrate 5-1, a corner engineering plastic steel lining 5-3, a corner nano inorganic refractory interlayer 5-2 And corner aluminum alloy structure retaining edge 5-4. The inner part of the corner aluminum alloy structure retaining edge 5-4 is compounded with a corner engineering steel lining 5-3, and the outer corner of the corner aluminum alloy structure retaining edge 5-4 is composited with a corner nano inorganic refractory interlayer 5-2, two corner enclosures The structural substrate 5-1 is mounted perpendicularly to each other by the corner aluminum alloy structural bead 5-4 to form a corner of the envelope structure. The parallel structural member comprises a parallel enclosing structure substrate 6-1, a nano inorganic refractory interlayer 6-2, a parallel aluminum alloy structural edge 6-3 and a parallel engineering steel lining 6-4. The aluminum alloy structure retaining edge 6-3 is combined with the nano inorganic refractory interlayer 6-2 and the parallel engineering steel lining 6-4, and the two parallel enclosing structure substrate 6-1 is connected by the aluminum alloy The structural edge 6-3 is connected in parallel. The edge sealing structural member comprises an edge sealing enclosing structure substrate 7-1, an edge sealing engineering steel inner liner 7-2, an edge sealing aluminum alloy structural retaining edge 7-3 and an edge sealing nano inorganic refractory interlayer 7-4. Edge-sealing aluminum alloy structure retaining edge 7-3 composite with edge-sealing engineering steel lining 7-2 and edge-sealing nano-inorganic refractory interlayer 7-4, edge-sealing structure substrate 7-1 end through edge-sealing aluminum The alloy structure retaining edge 7-3 is sealed. b. As shown in Fig. 8, the roof structure is composed of a roofing structure substrate 8-4, a roofing galvanized high-strength light steel material 8-6, a roofing ceiling structure substrate 8-5, a roofing waterproofing layer 8-3, The veneer tile structure 8-2 and the veneer tile 8-1 are composed. The roofing ceiling structure substrate 8-5 is sequentially installed with roofing galvanized high-strength light steel material 8-6, roofing envelope structure substrate 8-4, roofing waterproof layer 8-3, facing tile structure strip 8-2 And facing tile 8-1.

c. As shown in Figure 9, the floor structure consists of the floor covering structure base material 9-2, the floor slab surface material 9-1, the floor waterproof layer 9-3, and the floor galvanized high-strength light steel material 9 -4. Floor ceiling structure substrate 9-5. Floor-to-ceiling structure base material 9-5 is sequentially installed with floor galvanized high-strength light steel material 9-4, floor waterproof layer 9-3, floor envelope structure substrate 9-2 and floor slab surface material 9-1.

d. As shown in Fig. 10 and Fig. 11, the wall structure can be adjusted according to different climate zones using a double cavity wall structure or a single cavity wall structure. The double-cavity wall structure is composed of a double-cavity wall enclosing structure substrate 10-1 and a double-cavity wall surface galvanized high-strength light disposed between the double-cavity wall enclosing structure substrate 10-1 Steel material 10-2 composition. The single-cavity wall structure is made of a single-cavity wall enclosing structure substrate 11-1 and a single-cavity wall surface galvanized high-strength light disposed between the single-cavity wall enclosing structure substrate 11-1 Steel material 11-2 composition.

The invention provides a method for manufacturing a protective structure substrate, which is prepared by mixing materials of an unused envelope substrate with materials of the recovered envelope substrate, and the manufacturing method comprises:

The material of the unused organic enclosure substrate and the material of the recovered organic enclosure substrate are mixed at a weight ratio of 65%:35%, and the automatic extrusion device is controlled by computer software to form a hollow endoluminal cavity. Polymer material layer;

The material of the unused inorganic enclosure substrate and the material of the recovered inorganic enclosure substrate are mixed at a weight ratio of 75%:25%, and the automatic styling equipment is controlled by computer software to form a nano refractory inorganic material layer. ;and

The hollow inner membrane cavity polymer material layer and the nano refractory inorganic material layer are combined to form a sheath structure substrate.

The above unused materials are new materials and the recycled materials are old materials.

As shown in Figure 12, the automated production of the envelope structure and the use of recyclable materials, the implementation is: combined with global network collaborative design of the site, large-scale personalized customization of the Internet of Things, intelligent automated automated unmanned factory production, nano The refractory inorganic material and the hollow inner membrane cavity polymer material are automatically combined, and the inorganic and organic materials are combined into one. The formula is adjusted according to different use ranges, and the outdoor use considers the cold zone, temperate zone and tropical climate zone formula, and the indoor use considerations Dry zone, hot flash zone formula; the first reaction of the process is added to the main composite material, the proportion is 65% to 75%, and the second reaction can be used to recycle the organic and inorganic materials, and the crushing and granulation, the proportion is 25%. ~35%, adding formula additives, temperature, pressure, speed can be input and adjusted under automatic production, quality is easy to control, automatic extrusion equipment makes hollow endoluminal cavity polymer material molding, through nano refractory inorganic material shaping equipment, and then automated Combined, enter the constant temperature room curing area, make the envelope structure substrate and fireproof and waterproof The substrate and the integral encapsulation substrate are all recyclable materials.

Claims

Passive ultra-low-energy green building for recyclable materials, characterized in that the building comprises an ultra-low energy enclosure structure and an architectural light steel seismic structure, and the ultra-low energy enclosure structure comprises a support structure substrate and a retaining structure The left and right joint structural members of the substrate are used as a recyclable material, and are composed of a hollow inner membrane cavity polymer material layer and a nano refractory inorganic material layer, and both ends of the enclosing structure substrate are provided with upper and lower bumps. The joints of the upper and lower enclosures are connected by upper and lower bump joints, and the left and right enclosure substrates are connected by the left and right joints of the enclosure structure to form an ultra-low energy enclosure structure, and the ultra-low energy enclosure structure is passed. The screws are fixed on the seismic structure of the building light steel.
The passive ultra-low energy green building used in the recyclable material according to claim 1, characterized in that: the building light steel seismic structure and the roof of the ultra low energy enclosure structure (2-1), wall surface (2 -2) Combined with the floor (2-3), the building light steel seismic structure and the envelope structure substrate are integrated.
A passive ultra low energy green building for use in a recyclable material according to claim 1, characterized in that: the roof (2-1), the wall surface (2-2) and the floor of the ultra low energy enclosure (2-3) Made of materials that can be recycled and recycled, the material of the ultra-low energy enclosure structure can adjust the thermal performance according to different climate zones. The thickness and strength of the enclosure structure can be based on the roof (2-1). The wall surface (2-2) and the floor surface (2-3) are adjusted according to different load requirements, and the enclosure structure substrate comprises a double cavity layer enclosing structure substrate and a single cavity layer enclosing structure substrate.
The passive ultra low energy green building used in the recyclable material according to claim 3, wherein the double cavity layer encapsulating substrate comprises a double cavity layer and a double cavity layer hollow inner membrane in the double cavity layer. The cavity polymer material layer (3-2), the double cavity layer upper and lower bump contacts (3-3) above and below the double cavity layer, and the double cavity layer nano refractory inorganic material layer (3-1) composited on both sides of the double cavity layer.
The passive ultra-low energy green building used in the recyclable material according to claim 3, wherein the single cavity layer encapsulation substrate comprises a single cavity layer and a single cavity layer hollow inner membrane in a single cavity layer. The cavity polymer material (4-2), the single cavity layer upper and lower bump contacts (4-3) above and below the single cavity layer, and the single cavity layer nano refractory inorganic material layer (4-1) compounded on both sides of the single cavity layer.
A passive ultra low energy green building for use in a recyclable material according to claim 3, wherein said ultra low energy containment structure comprises:

Roof structure, from roofing structure substrate (8-4), roofing galvanized high-strength light steel (8-6), roofing ceiling structure (8-5), roofing waterproofing layer (8-3) Veneered tile structure (8-2) and facing tile (8-1), roofing structure base material (8-5) is installed with roofing galvanized high-strength light steel material (8-6), roofing structure base (8-4), roofing waterproofing layer (8-3), facing tile structure strip (8-2) and facing tile (8-1);

Floor structure, floor covering structure base material (9-2), floor slab surface material (9-1), floor waterproof layer (9-3), floor galvanized high-strength light steel material (9 -4), the floor ceiling structure substrate (9-5) is composed, and the floor ceiling structure substrate (9-5) is sequentially installed with the floor galvanized high-strength light steel material (9-4) and the floor surface. Waterproof layer (9-3), floor enclosing structure substrate (9-2) and floor veneer (9-1);

Double-cavity wall structure, double-cavity wall aluminized by double-cavity wall enclosing structure substrate (10-1) disposed between double-cavity wall enclosing structure substrate (10-1) Zinc high strength light steel material (10-2); and

Single-cavity wall structure, single-cavity wall aluminized between single-cavity wall enclosing structure substrate (11-1) and single-cavity wall enclosing structure substrate (11-1) Zinc high strength light steel material (11-2).
The passive ultra-low-energy green building used in the recyclable material according to claim 1, wherein: the left and right joint structural members of the enclosure structure comprise:

Corner structural members, including corner enclosing structure substrate (5-1), corner engineering plastic steel lining (5-3), corner nano inorganic refractory interlayer (5-2) and corner aluminum alloy structure retaining edge (5-4 The inside of the corner aluminum alloy structure retaining edge (5-4) is compounded with a corner engineering steel lining (5-3), and the corner aluminum alloy structure retaining edge (5-4) is externally laminated with a corner nano inorganic refractory interlayer ( 5-2), the two corner envelope structure substrates (5-1) are vertically mounted to each other by the corner aluminum alloy structure retaining edge (5-4) to form a corner of the enclosure structure;

Connected structural parts, including the enclosing structure substrate (6-1), and the nano inorganic refractory interlayer (6-2), and the aluminum alloy structure retaining edge (6-3) and the parallel engineering steel Lining (6-4); combined with aluminum alloy structure retaining edge (6-3) composite with parallel nano inorganic refractory interlayer (6-2) and parallel engineering steel lining (6-4), two parallel The enclosing structure substrate (6-1) is connected by abutting the aluminum alloy structure retaining edge (6-3); and

Edge-sealing structural parts, including edge-sealing structure base material (7-1), edge-sealing engineering steel lining (7-2), edge-sealing aluminum alloy structure edge protection (7-3) and edge-sealing nano-inorganic refractory Interlayer (7-4); edge-sealing aluminum alloy structural edge protection (7-3) composite with edge-sealing engineering steel lining (7-2) and edge-sealing nano-inorganic refractory interlayer (7-4), edge-sealing enclosure The end of the structural substrate (7-1) is protected by an edged aluminum alloy structure Bound (7-3).
A method for manufacturing a substrate for a containment structure, which comprises mixing a material of an unused envelope substrate with a material of the recovered envelope substrate, and the manufacturing method comprises:

The material of the unused organic enclosure substrate and the material of the recovered organic enclosure substrate are mixed at a weight ratio of 65%:35%, and the automatic extrusion device is controlled by computer software to form a hollow endoluminal cavity. Polymer material layer;

The material of the unused inorganic enclosure substrate and the material of the recovered inorganic enclosure substrate are mixed at a weight ratio of 75%:25%, and the automatic styling equipment is controlled by computer software to form a nano refractory inorganic material layer. ;and

The hollow inner membrane cavity polymer material layer and the nano refractory inorganic material layer are combined to form a sheath structure substrate.
The method for manufacturing a protective structure substrate according to claim 8, wherein the adjustment of the formulation of the raw material is performed according to the use of different climatic zones before the first reaction;

The enclosure substrate comprises a double-cavity encapsulation substrate and a single-chamber encapsulation substrate, and the double-cavity encapsulation substrate comprises a double-cavity hollow endoluminal polymer layer (3-2) and The nano refractory inorganic material layer (3-1), the two-cavity hollow inner membrane cavity polymer material layer (3-2) is automatically combined on both sides via a nano refractory inorganic material sizing device and a nano refractory inorganic material layer (3-1) And then enter the constant temperature room curing area to form a double-cavity layer of the protective structure substrate; the single-chamber layer of the protective structure substrate comprises a single-cavity hollow endoluminal cavity polymer material layer (4-2) and a nano-refractory inorganic material layer ( 4-1), the two sides of the single-cavity hollow inner membrane cavity polymer material layer (4-2) are automatically combined with the nano refractory inorganic material layer (4-1) through the nano refractory inorganic material sizing device, and then enter the constant temperature room curing The zone forms a single cavity layer encapsulating substrate.
The method for manufacturing a protective structure substrate according to claim 9, wherein the adjustment of the formulation of the raw material according to the use of different climatic zones comprises: considering the cold zone, the temperate zone and the tropical climate zone for outdoor use, and considering the dry zone for indoor use and Hot flash area.