Rapidly-assembled house body

Abstract

The invention relates to a rapidly-assembled house body, and belongs to the field of buildings. A rapidly-assembled house comprises a base assembly used for being fixed to an external structure; the floor assembly is detachably arranged on the base assembly; the outer wall assembly is detachably arranged on the floor assembly, and the floor assembly and the outer wall assembly are matched to form a placement space; the inner wall assembly is detachably arranged on the floor assembly and / or the outer wall assembly; and the roof assembly is detachably arranged on the outer wall assembly and / or the inner wall assembly and located on the side away from the floor assembly, and the roof assembly covers the opening of the placement space. The detachable base assembly, the floor assembly, the outer wall assembly, the inner wall assembly and the roof assembly can be detached and stacked, the occupied space of a single house body is greatly reduced, and the loading efficiency of a transport tool is improved; and moreover, complex construction equipment and professional teams are not needed, all the assemblies are quickly spliced in a detachable connection mode, and the construction period is remarkably shortened.

Description

Technical Field

[0001] This invention relates to the field of construction, and in particular to a roof structure that can be assembled quickly. Background Technology

[0002] In existing technologies, the assembly of roof structures is quite complex, requiring specialized construction teams and sophisticated equipment. This significantly extends the construction period, preventing the structures from being quickly put into use, and is particularly difficult to meet the needs of emergency shelters and field operations where efficiency is critical. It also significantly increases labor and equipment costs, driving up the overall construction investment. Furthermore, complex assembly is prone to errors due to numerous construction steps, affecting the precision of component connections, reducing the structural stability and sealing of the roof, and increasing potential maintenance risks later on. Summary of the Invention

[0003] Therefore, it is necessary to provide a quick-assembly roof to address the problem of cumbersome roof assembly.

[0004] A quick-assembly roof assembly includes: a base assembly for fixing to an external structure; a floor assembly detachably mounted to the base assembly; an exterior wall assembly detachably mounted to the floor assembly and located on the side wall of the floor assembly, the floor assembly and the exterior wall assembly cooperating to form a mounting space; an interior wall assembly detachably mounted to the floor assembly and / or the exterior wall assembly, the interior wall assembly located within the mounting space; a roof assembly detachably mounted to the exterior wall assembly and / or the interior wall assembly and located on the side away from the floor assembly, the roof assembly covering the opening of the mounting space; load-bearing reinforcement components, the number of load-bearing reinforcement components being multiple, the multiple load-bearing reinforcement components being disposed on the exterior wall assembly, the interior wall assembly, and the roof assembly; and thermal insulation interlayer components, the number of thermal insulation interlayer components being multiple, the multiple thermal insulation interlayer components being disposed on the exterior wall assembly, the interior wall assembly, and the roof assembly and abutting against the multiple load-bearing reinforcement components.

[0005] The aforementioned discloses a rapidly assembled roof structure, whose detachable design allows it to be applied to multiple usage scenarios. During transportation, the detachable base, floor, exterior wall, interior wall, and roof components can be disassembled and stacked, significantly reducing the space occupied by a single roof unit, improving the loading efficiency of transport vehicles, and reducing the number of trips and logistics costs. This is particularly suitable for bulk delivery to remote areas, temporary shelters, and other scenarios with inconvenient transportation. In the installation phase, no complex construction equipment or professional technical teams are required. The components are quickly assembled through detachable connections, significantly shortening the construction cycle, reducing installation difficulty and labor costs. Ordinary personnel can complete the assembly and live in the resettlement space by following the instructions, effectively solving the problems of time-consuming and cumbersome construction of traditional roof structures. During use, the detachable feature gives the roof a high degree of flexibility, allowing it to be disassembled and reassembled at any time according to actual needs, achieving flexible optimization of the spatial layout. It can also be easily moved to new locations for reuse, adapting to various dynamic usage needs such as temporary offices, field operations, and emergency shelters. In terms of maintenance and upgrades, when a component is damaged or aged, it can be disassembled and replaced individually without the need for complete demolition and reconstruction, reducing maintenance costs and resource waste. Simultaneously, components can be replaced or added specifically according to functional upgrade needs, extending the overall lifespan of the building. Furthermore, the detachable design allows for the categorized disassembly and recycling of components after the building is scrapped, reducing construction waste and improving resource recycling rates. At the same time, multiple load-bearing reinforcements are installed in each wall and roof, significantly strengthening the structure's resistance to overturning and deformation, compensating for the structural weaknesses of detachable structures. Multiple insulation sandwich components are correspondingly installed in the interior and exterior walls and roof, fixed against the load-bearing reinforcements to ensure a tight and uniform insulation layer, improving the building's thermal insulation performance and reducing energy loss.

[0006] In one embodiment, the base assembly includes a base body and multiple base anchors. These anchors are spaced apart along the length of the base body and are used to fix the assembly to an external structure. The floor assembly is mounted on the base body and located on one side of it. By providing a stable load-bearing foundation for the floor assembly, the base body ensures that the floor assembly is laid flat and evenly stressed, improving the stability and reliability of the roof's bottom structure. The multiple anchors spaced apart along the length of the base body evenly distribute the roof's weight and firmly fix it to the external structure, significantly enhancing the roof's overall anti-overturning capability and installation stability. This adapts to installation scenarios with different geological conditions and effectively avoids safety hazards caused by insecure fixation in traditional bases. Simultaneously, the floor assembly is precisely positioned on one side of the base body. Combined with the overall structure of the base assembly, this not only simplifies the assembly process of the floor assembly and base assembly, reducing installation difficulty, but also ensures a tight seal and proper fit between the two.

[0007] In one embodiment, the floor assembly includes a floor body, base connectors, external wall connectors, and internal wall connectors. Multiple base connectors are inserted through the base assembly and the floor body, spaced apart along the length of the floor body. Multiple external wall connectors are sandwiched between the floor body and the external wall assembly. Multiple internal wall connectors are respectively sandwiched between multiple internal wall assemblies and the floor body. By utilizing multiple base connectors spaced apart along the length of the floor body, the base assembly and the floor body can be stably connected, achieving a secure and detachable connection. This ensures the flatness and load-bearing stability of the floor assembly during installation, facilitates subsequent disassembly and maintenance, and the multi-point spaced distribution evenly distributes stress, avoiding structural damage caused by localized stress concentration. Multiple exterior wall connection components are sandwiched between the floor main body and the exterior wall components. This not only simplifies the assembly process of the exterior wall components and floor components, eliminating the need for complex welding or casting processes and enabling rapid splicing and disassembly, but also improves the sealing and fit of the connection between the two, enhancing the wind and rain resistance of the roof. Multiple interior wall connection components are correspondingly sandwiched between each interior wall component and the floor main body, allowing for flexible assembly, disassembly, and positioning of the interior wall components. This enables convenient adjustments to the interior space layout according to usage needs, adapting to different functional scenarios, while also ensuring the stability of the interior wall component assembly and preventing shaking or shifting.

[0008] In one embodiment, the exterior wall connection assembly includes a first exterior wall connector and a second exterior wall connector. The first exterior wall connector is sandwiched between the floor body and the sidewall of the exterior wall assembly, and the second exterior wall connector is sequentially inserted through the bottom of the floor body and the exterior wall assembly. By sandwiching the first exterior wall connector between the floor body and the sidewall of the exterior wall assembly, initial positioning and lateral restraint of both can be quickly achieved, avoiding displacement during assembly and laying the foundation for subsequent fixing. The second exterior wall connector is sequentially inserted through the bottom of the floor body and the exterior wall assembly, forming a longitudinal fastening, which, together with the first exterior wall connector, constitutes a three-dimensional restraint structure, significantly improving the stability and sealing of the connection between the exterior wall and the floor, and effectively enhancing the roof's wind load resistance and rainproofing capabilities. Moreover, both types of connectors meet the core requirement of detachability, allowing for disassembly and assembly without complex construction processes. This simplifies the assembly process, improves efficiency, and facilitates subsequent individual maintenance and replacement of the exterior wall assembly or overall disassembly and relocation of the roof.

[0009] In one embodiment, the interior wall connection assembly includes interior wall positioning components and interior wall fixing components. The interior wall positioning components are disposed on the floor body, and the interior wall assembly is disposed on the interior wall positioning components. Multiple interior wall fixing components are sandwiched between the interior wall assembly and the floor body, located on both sides of the interior wall assembly. By pre-setting the interior wall positioning components on the floor body, a precise assembly benchmark can be provided for the interior wall assembly, enabling rapid positioning and placement of the interior wall assembly, avoiding positional shifts during assembly, significantly reducing alignment difficulty, and improving assembly efficiency. Multiple interior wall fixing components are symmetrically sandwiched between the interior wall assembly and the floor body on both sides, forming a two-way clamping and fastening structure. This ensures the stability of the connection between the interior wall assembly and the floor body, effectively preventing shaking or tipping during use, and also meets the core requirement of detachability, allowing for disassembly and assembly without complex fastening processes. This structural design allows for flexible disassembly and adjustment of the interior wall assembly, enabling convenient changes to the interior space layout according to usage needs and adapting to different functional usage scenarios.

[0010] In one embodiment, the interior wall positioning component includes a positioning frame, a first locking member, and a second locking member. The positioning frame is disposed on the floor body. Multiple first locking members are sequentially inserted through the positioning frame and the floor body. Multiple second locking members are located on both sides of the positioning frame and sequentially inserted through the positioning frame and the interior wall assembly. By using the positioning frame as the core load-bearing structure on the floor body, a stable support and assembly reference surface are provided for the interior wall assembly, ensuring the flatness and standardization of the interior wall assembly placement, thus fundamentally improving the accuracy of interior wall assembly. Multiple first locking members sequentially insert through the positioning frame and the floor body, achieving a secure and detachable connection between the positioning frame and the floor body. The multi-point locking design evenly distributes the force, preventing displacement or loosening of the positioning frame during use and ensuring the stability of the positioning reference. Multiple second locking components are symmetrically distributed on both sides of the positioning frame and pass through the positioning frame and the inner wall component to form a two-way symmetrical locking structure. This structure can firmly fix the inner wall component to the positioning frame, effectively preventing the inner wall component from shifting or shaking to the left or right. The detachable design simplifies the assembly and disassembly process of the inner wall component, allowing the fixing and disassembly of the inner wall to be completed without complicated tools.

[0011] In one embodiment, the interior wall fastener includes a fixing frame and a third locking member. The fixing frame is clamped between the floor body and the interior wall component, and the third locking member is sequentially inserted through the fixing frame and the interior wall component. By clamping the fixing frame between the floor body and the interior wall component, the contact area between the two is increased, preventing deformation and damage to the bottom of the interior wall component due to excessive local pressure, and providing stable load-bearing support for the interior wall component. On the other hand, it can form a circumferential limit on the bottom of the wall, initially restricting the displacement tendency of the interior wall component, improving the regularity of the placement of the interior wall component, and laying the foundation for subsequent precise locking. Multiple third locking members are sequentially inserted through the fixing frame and the interior wall component to achieve a firm and detachable connection between the two. This locking method does not require complicated construction processes and can be completed with conventional tools. It not only ensures the stability of the connection between the interior wall component and the floor component, effectively preventing safety hazards such as shaking and tipping of the interior wall component during use, but also perfectly meets the core requirement of the roof being detachable, facilitating the individual disassembly, maintenance, replacement, or repositioning of the interior wall component.

[0012] In one embodiment, the exterior wall assembly includes multiple exterior wall fittings connected end-to-end. One end of each exterior wall fitting is detachable from the floor assembly. The multiple exterior wall fittings and the floor assembly cooperate to form the installation space. There are multiple interior wall assemblies, each detachable from the inner wall of the multiple exterior wall fittings. The roof assembly is detachable from the multiple exterior wall fittings and located at the end furthest from the floor assembly. Each exterior wall fitting includes an exterior wall body and an exterior wall corner piece. One end of the exterior wall body is detachable from the floor assembly. The multiple interior wall assemblies are detachable from the inner wall of the exterior wall body. The roof assembly is detachable from the exterior wall body and located at the end furthest from the floor assembly. One side of the exterior wall corner piece of one of the exterior wall fittings is detachable from the exterior wall body, and the other side is detachable from the exterior wall body of an adjacent exterior wall fitting. By employing a detachable connection method for multiple exterior wall components, the limitations of traditional integrated exterior wall construction are broken. Each component is of moderate size and controllable weight, facilitating individual transportation and storage, significantly reducing the risk of damage during transport and minimizing space occupancy, thus saving logistics costs. One end of the exterior wall component can be detachably connected to the floor assembly, and the top and roof components can be detachably fixed. The inner wall can also accommodate the disassembly and assembly of multiple interior wall components, creating a vertically integrated, interconnected, and modular detachable assembly system. No complex pouring or welding processes are required; precise splicing is all that's needed to adapt the wall to each component. This significantly shortens the construction cycle, reduces reliance on professional construction teams, and facilitates subsequent disassembly, relocation, and reuse of the entire building, meeting the needs of temporary construction and dynamic adjustments. The subdivided exterior wall body and corner components further optimize structural stability and assembly precision. As the core enclosing structure, the exterior wall body undertakes the core functions of spatial definition and component connection. Its multi-directional detachable connection characteristics ensure a close fit with floor components, roof components, and interior wall components. The exterior wall corner pieces specifically solve the connection problem between adjacent exterior wall bodies. Through the detachable connection design on both sides, precise docking and firm fixation at the corner are achieved, avoiding structural loosening caused by excessive splicing gaps. This strengthens the overall anti-overturning and wind load resistance of the wall. At the same time, damaged parts can be disassembled and replaced individually without the need for overall disassembly, reducing maintenance costs.

[0013] In one embodiment, the interior wall assembly includes an interior wall body and an interior wall connector. The interior wall body is detachable from the floor assembly, and the roof assembly is detachable from the interior wall body and located at the end away from the floor assembly. The interior wall connector is sandwiched between the interior wall body and the exterior wall assembly. By adopting a method where the interior wall body is detachably connected to the floor assembly and detachably connected to the roof assembly, a stable longitudinal support is constructed, and the placement space can be flexibly divided. Functional areas can be built as needed without the need for fixed pouring processes, significantly reducing the difficulty and cost of layout adjustments and adapting to diverse usage scenarios. Its bidirectional detachable feature allows the interior wall body to be disassembled and replaced individually, and subsequent maintenance or space optimization does not require the entire house to be demolished, improving convenience and extending the life of the house. The interior wall connector sandwiched between the interior wall body and the exterior wall assembly not only achieves precise positioning, ensuring a tight fit and uniform stress between the two, avoiding wall swaying and insufficient sealing, but also strengthens the linkage between the interior and exterior wall structures, improves the wind load resistance of the house, and compensates for the stability shortcomings of detachable structures.

[0014] In one embodiment, the roof assembly includes a first roof panel, a second roof panel, and roof panel connectors. The first roof panel is detachably mounted to the exterior wall assembly and the interior wall assembly and located at the end away from the floor assembly. The second roof panel is detachably mounted to the exterior wall assembly and the interior wall assembly and located at the end away from the floor assembly. The first and second roof panels are staggered. There are multiple roof panel connectors. Some of the roof panel connectors are sandwiched between the first roof panel and the exterior wall assembly, some of the roof panel connectors are sandwiched between the first roof panel and the interior wall assembly, some of the roof panel connectors are sandwiched between the second roof panel and the interior wall assembly, and the remaining roof panel connectors are sandwiched between the second roof panel and the exterior wall assembly. The first and second roof panels cover the opening of the installation space. By staggering and detachably connecting the first and second roof panels to the top of the exterior and interior wall components, comprehensive coverage of the installation space openings is achieved. The staggered structure enhances the overall load-bearing capacity and water resistance of the roof, effectively avoiding the problems of leakage and uneven stress caused by single-panel splicing. Simultaneously, the modular design allows for controllable volume of individual roof panels, facilitating individual transportation, storage, and replacement, reducing logistics and maintenance costs. Multiple sets of roof panel connectors are distributed as needed, sandwiched between two roof panels and the interior and exterior wall components. This ensures precise positioning, a tight fit between the roof panel and the wall, and even stress distribution, strengthening the linkage between the roof and the overall building structure and improving wind load and overturning resistance. It also fully accommodates detachable requirements, with simple assembly and disassembly without damaging any components. The fully detachable design of the roof components eliminates the need for complex construction processes, allowing for rapid assembly and disassembly, facilitating the overall relocation and reuse of the building. Furthermore, if any roof panels or connectors are damaged later, they can be individually removed and replaced without disassembling the entire roof, significantly improving maintenance efficiency.

[0015] In one embodiment, the roof assembly further includes multiple drainage components. These drainage components are disposed on the first and second roof panels and located on one side of both panels, outside the installation space. By placing multiple drainage components on the first and second roof panels, offset to one side and located outside the installation space, rainwater can be quickly drained, preventing water accumulation and erosion of roof joints and the roof structure, significantly improving the roof's waterproofing performance and extending the component's lifespan. The drainage components are compatible with the modular roof design and can be disassembled and installed simultaneously with the roof panels without affecting the overall disassembly, relocation, and reuse of the roof. They can be individually inspected and replaced during subsequent maintenance without disassembling the entire roof, reducing maintenance costs.

[0016] In one embodiment, some of the load-bearing reinforcement components are disposed on one side wall of the exterior wall assembly and distributed circumferentially along the exterior wall assembly; some of the load-bearing reinforcement components are disposed on both side walls of the interior wall assembly and spaced apart along the length of the interior wall assembly; and the remaining load-bearing reinforcement components are disposed on one side wall of the roof assembly and spaced apart along the length of the roof assembly. By distributing multiple load-bearing reinforcement components as needed, some are disposed on the side walls circumferentially along the exterior wall assembly, strengthening the overall resistance to lateral displacement and overturning of the exterior wall and preventing deformation of the detachable wall structure during long-term use; some are spaced apart on both side walls along the length of the interior wall assembly, improving the load-bearing stability and spatial partition reliability of the interior wall; and the remaining are spaced apart on one side wall along the length of the roof assembly, enhancing the roof's load-bearing performance and adapting to the stress requirements of the staggered roof structure. The load-bearing reinforcement components adopt a component-fitting installation method, adapting to the detachable design, and can be disassembled and installed synchronously with the corresponding components without affecting the overall disassembly, relocation, and reuse of the roof structure.

[0017] In one embodiment, the load-bearing reinforcement member has through holes spaced apart along its length, and the insulation interlayer member passes through multiple through holes. By having multiple insulation interlayer members correspondingly positioned on the exterior wall assembly, interior wall assembly, and roof assembly, and abutting against the load-bearing reinforcement member while passing through the through holes, precise positioning and fixing are achieved. Furthermore, the support structure formed by the load-bearing reinforcement member ensures that the insulation layer is laid flat and tightly fitted, significantly improving the overall thermal insulation performance of the roof and reducing energy loss.

[0018] In one embodiment, the exterior wall assembly, the interior wall assembly, and the roof assembly all have attachment spaces located on their inner sidewalls, with the outer sidewall of the insulation sandwich component located within these attachment spaces. These attachment spaces provide a dedicated installation reference for the insulation sandwich component, precisely defining the placement of the insulation layer and preventing displacement or shifting during assembly and use. This ensures a tight fit between the insulation layer and each component, significantly improving the uniformity and reliability of the roof's thermal insulation and reducing energy loss.

[0019] In one embodiment, the exterior wall component has multiple first wiring spaces distributed circumferentially along the exterior wall component. The interior wall component has multiple second wiring spaces spaced at intervals along the length of the interior wall component. The roof component has multiple third wiring spaces. The multiple first wiring spaces are connected to the multiple third wiring spaces, and the multiple second wiring spaces are also connected to the multiple third wiring spaces. By distributing multiple first wiring spaces circumferentially along the exterior wall component, arranging multiple second wiring spaces spaced at intervals along the length of the interior wall component, and placing the third wiring spaces on the roof component and connecting them to the first two, a fully continuous and concealed wiring system is constructed. This system can systematically house water and electricity pipes, avoiding the problems of exposed pipes affecting aesthetics and being easily damaged, thus improving the cleanliness of the building and the protection of the pipes.

[0020] In one embodiment, the thickness of the floor body is 50mm-250mm. By limiting the thickness of the floor body to 50mm-250mm, both load-bearing practicality and scenario adaptability are achieved. The lower limit of 50mm meets the needs of temporary construction and light-duty use scenarios, facilitating component transportation and assembly; the upper limit of 250mm adapts to heavy-duty use and complex environment scenarios, improving the floor's impact resistance and wear resistance.

[0021] In one embodiment, the thickness of the exterior wall fittings is 50mm-250mm. By limiting the thickness of the exterior wall fittings to 50mm-250mm, both load-bearing practicality and scenario adaptability are achieved. The lower limit of 50mm meets the needs of scenarios such as temporary installation and light office space, facilitates the transportation and disassembly of the exterior wall fittings, and conforms to the core requirements of modular assembly. The upper limit of 250mm is suitable for scenarios such as field operations and harsh weather, improving the wind resistance, rainproofing, and thermal insulation performance of the exterior wall.

[0022] In one embodiment, the thickness of the inner wall body is 50mm-250mm. By limiting the thickness of the inner wall body to 50mm-250mm, this thickness range can give the inner wall body sufficient structural rigidity, which can effectively bear part of the load transmitted by the roof components, improve the longitudinal support capacity of the inner wall, and avoid wall swaying and deformation caused by insufficient thickness, thus ensuring the reliability of the interior space partition; at the same time, a reasonable thickness range can balance weight and practical performance.

[0023] In one embodiment, the thickness of both the first roof panel and the second roof panel is 50mm-250mm. By limiting the thickness of the first and second roof panels to 50mm-250mm, this thickness range provides the roof panels with sufficient structural rigidity. This effectively supports external loads such as rain and snow accumulation, resists wind impact, prevents roof panels from denting or deforming, and ensures the overall sealing and protective performance of the roof. It also provides a stable foundation for the staggered splicing of roof components and the installation of drainage components, enhancing the connection stability between the roof and the interior and exterior wall components. Attached Figure Description

[0024] Figure 1 First perspective view of the roof structure for rapid assembly; Figure 2 A second perspective view of the roof structure for rapid assembly; Figure 3 A 3D view of the base assembly; Figure 4 for Figure 3 A magnified view of a portion of region A; Figure 5 for Figure 3 The first enlarged view of region B; Figure 6 for Figure 3 The second enlarged view of region B; Figure 7 A 3D view of the exterior wall components and interior wall components; Figure 8 for Figure 7 A magnified view of a portion of region C; Figure 9 A 3D view of the exterior wall components; Figure 10 for Figure 9 A magnified view of a portion of region D; Figure 11 A 3D view of the interior wall components; Figure 12 for Figure 11 A magnified view of a portion of region E; Figure 13 A third perspective view of the roof structure for rapid assembly; Figure 14 for Figure 13 A magnified view of a portion of region F; Figure 15 A 3D view of the roof components; Figure 16 for Figure 15 A magnified view of a portion of region G; Figure 17 A 3D view of the load-bearing reinforcement component.

[0025] The correspondence between the reference numerals and the component names is as follows: 1. Base assembly; 11. Base body; 12. Base anchor; 2 Floor assembly, 21 Floor body, 22 Base connector, 23 Exterior wall connection assembly, 231 First exterior wall connector, 232 Second exterior wall connector, 24 Interior wall connection assembly, 241 Interior wall positioning component, 2411 Positioning bracket, 2412 First locking component, 2413 Second locking component, 242 Interior wall fixing component, 2421 Fixing bracket, 2422 Third locking component; 3 Exterior wall components, 31 Exterior wall fittings, 311 Exterior wall body, 312 Exterior wall corner fittings, 301 Installation space, 302 First wiring space; 4 Interior wall components, 41 Interior wall body, 42 Interior wall connectors, 401 Second wiring space; 5 Roofing components, 51 First roof panel, 52 Second roof panel, 53 Roof panel connector, 54 Drainage components, 501 Third wiring space; 6 load-bearing reinforcement parts, 601 through holes; 7. Thermal insulation sandwich structure; 1001 Attachment Space. Detailed Implementation

[0026] To better understand the above-mentioned objectives, features, and advantages of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0027] Many specific details are set forth in the following description in order to provide a full understanding of the invention. However, the invention may also be practiced in other ways different from those described herein, and therefore the scope of protection of the invention is not limited to the specific embodiments disclosed below.

[0028] The following describes some embodiments of the rapidly assembled roof according to the present invention with reference to the accompanying drawings. Example

[0029] like Figures 1 to 17As shown, this embodiment discloses a quick-assembly roof, including: a base assembly 1 for fixing to an external structure; a floor assembly 2 detachably mounted to the base assembly 1; an exterior wall assembly 3 detachably mounted to the floor assembly 2 and located on the side wall of the floor assembly 2, the floor assembly 2 and the exterior wall assembly 3 forming a mounting space 301; an interior wall assembly 4 detachably mounted to the floor assembly 2 and / or the exterior wall assembly 3, the interior wall assembly 4 located in the mounting space 301; and a roof assembly 5. The roof component 5 is detachable from the exterior wall component 3 and / or the interior wall component 4 and is located on the side away from the floor component 2. The roof component 5 covers the opening of the installation space 301. There are multiple load-bearing reinforcement components 6, which are installed on the exterior wall component 3, the interior wall component 4 and the roof component 5. There are multiple thermal insulation interlayer components 7, which are installed on the exterior wall component 3, the interior wall component 4 and the roof component 5 and abut against the multiple load-bearing reinforcement components 6.

[0030] This application discloses a rapidly assembled roof structure, which, thanks to the detachable design of its components, can be applied to multiple usage scenarios. During transportation, the detachable base component 1, floor component 2, exterior wall component 3, interior wall component 4, and roof component 5 can be disassembled and stacked, significantly reducing the space occupied by a single roof structure, improving the loading efficiency of transportation vehicles, and reducing the number of trips and logistics costs. This is particularly suitable for bulk delivery to remote areas, temporary shelters, and other scenarios where transportation is inconvenient. During installation, no complex construction equipment or professional technical teams are required. The components are quickly assembled through detachable connections, significantly shortening the construction cycle, reducing installation difficulty and labor costs. Ordinary personnel can complete the assembly and reside in the shelter space 301 by following the instructions, effectively solving the problems of time-consuming and cumbersome construction of traditional roof structures. During use, the detachable feature gives the roof structure a high degree of flexibility, allowing it to be disassembled and reassembled at any time according to actual needs, achieving flexible optimization of the spatial layout. It can also be easily moved to a new location for reuse, adapting to various dynamic usage needs such as temporary offices, field operations, and emergency shelters. In terms of maintenance and upgrades, when a component is damaged or aged, it can be disassembled and replaced individually without the need for complete demolition and reconstruction, reducing maintenance costs and resource waste. Simultaneously, components can be replaced or added specifically according to functional upgrade needs, extending the overall lifespan of the building. Furthermore, the detachable design allows for the categorized disassembly and recycling of components after the building is scrapped, reducing construction waste and improving resource recycling rates. Meanwhile, multiple load-bearing reinforcement components 6 are installed on each wall and roof, significantly strengthening the structure's resistance to overturning and deformation, compensating for the structural instability shortcomings of detachable structures. Multiple insulation sandwich components 7 are correspondingly installed on the inner and outer walls and roof, fixed against the load-bearing reinforcement components to ensure a tight and uniform insulation layer, improving the building's thermal insulation performance and reducing energy loss.

[0031] like Figure 1 and Figure 3 As shown, in addition to the features of the above embodiments, this embodiment further defines: the base assembly 1 includes a base body 11 and base anchors 12, and there are multiple base anchors 12, which are spaced apart along the length of the base body 11. These multiple base anchors 12 are used to fix the base assembly 2 to the external structure. The floor assembly 2 is disposed on the base body 11 and located on one side of the base body 11. By providing a stable load-bearing foundation for the floor assembly 2 with the base body 11, the floor assembly 2 is ensured to be laid flat and subjected to uniform force, thus improving the stability and reliability of the roof's bottom structure. The multiple base anchors 12 spaced apart along the length of the base body 11 can evenly distribute the weight of the roof at multiple points and firmly fix it to the external structure, significantly enhancing the overall anti-overturning ability and installation firmness of the roof, adapting to installation scenarios with different geological conditions, and effectively avoiding safety hazards caused by the insecure fixing of traditional bases. Simultaneously, the floor assembly 2 is precisely positioned on one side of the base body 11, which, in conjunction with the overall structure of the base assembly 1, not only simplifies the assembly process of the floor assembly 2 and the base assembly 1, reducing installation difficulty, but also ensures the sealing and fit of the connection between the two.

[0032] like Figure 1 , Figure 4 and Figure 5As shown, in addition to the features of the above embodiments, this embodiment further defines: the floor assembly 2 includes a floor body 21, a base connector 22, an external wall connector 23, and an internal wall connector 24. There are multiple base connectors 22, which are inserted through the base assembly 1 and the floor body 21 and spaced apart along the length of the floor body 21. There are multiple external wall connectors 23, which are sandwiched between the floor body 21 and the external wall assembly 3. There are multiple internal wall connectors 24, and multiple internal wall assemblies 4, which are respectively sandwiched between the internal wall assemblies 4 and the floor body 21. By utilizing multiple base connectors 22 spaced apart along the length of the floor body 21, the base assembly 1 and the floor body 21 can be stably inserted, achieving a firm and detachable connection between the two. This ensures the flatness and load-bearing stability of the floor assembly 2 during installation, facilitates subsequent disassembly and maintenance, and the multi-point spaced distribution evenly distributes the force, avoiding structural damage caused by localized stress concentration. Multiple exterior wall connecting components 23 are sandwiched between the floor main body 21 and the exterior wall component 3. This not only simplifies the assembly process of the exterior wall component 3 and the floor component 2, eliminating the need for complex welding or casting processes and enabling rapid splicing and disassembly, but also improves the sealing and fit of the connection between the two, enhancing the wind and rain resistance of the roof. Multiple interior wall connecting components 24 are correspondingly sandwiched between each interior wall component 4 and the floor main body 21, allowing the interior wall component 4 to be flexibly installed, disassembled, and positioned. This not only allows for convenient adjustment of the interior space layout according to usage needs, adapting to different functional usage scenarios, but also ensures the stability of the interior wall component 4 assembly, preventing shaking and displacement.

[0033] like Figure 1 and Figure 4 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the external wall connection component 23 includes a first external wall connector 231 and a second external wall connector 232. The first external wall connector 231 is sandwiched between the side walls of the floor body 21 and the external wall component 3, and the second external wall connector 232 is sequentially inserted through the bottom of the floor body 21 and the external wall component 3. By sandwiching the first external wall connector 231 between the side walls of the floor body 21 and the external wall component 3, the initial positioning and lateral limitation of the two can be quickly achieved, avoiding displacement during assembly and laying the foundation for subsequent fixing; the second external wall connector 232 is sequentially inserted through the bottom of the floor body 21 and the external wall component 3 to form a longitudinal fastening, and together with the first external wall connector 231, it constitutes a three-dimensional limiting structure, which greatly improves the stability and sealing of the connection between the external wall and the floor, and effectively enhances the roof's wind resistance and rainproofing capabilities. Both types of connectors meet the core requirement of being detachable, and can be assembled and disassembled without complicated construction processes. This simplifies the assembly process, improves efficiency, and facilitates the individual maintenance, replacement, or overall disassembly and relocation of the exterior wall component 3.

[0034] like Figure 1 , Figure 5 and Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the inner wall connection component 24 includes an inner wall positioning component 241 and an inner wall fixing component 242. The inner wall positioning component 241 is disposed on the floor body 21, and the inner wall component 4 is disposed on the inner wall positioning component 241. Multiple inner wall fixing components 242 are sandwiched between the inner wall component 4 and the floor body 21 and located on both sides of the inner wall component 4. By pre-setting the inner wall positioning component 241 on the floor body 21, a precise assembly reference can be provided for the inner wall component 4, enabling rapid positioning and placement of the inner wall component 4, avoiding positional shifts during assembly, significantly reducing alignment difficulty, and improving the assembly efficiency of the inner wall component 4. Multiple interior wall fasteners 242 are symmetrically clamped between the interior wall assembly 4 and the floor body 21 on both sides, forming a two-way clamping and fastening structure. This ensures the stability of the connection between the interior wall assembly 4 and the floor body 21, effectively preventing the interior wall assembly 4 from shaking or tipping over during use. It also meets the core requirement of being detachable, allowing for assembly and disassembly without complex fastening processes. This structural design allows the interior wall assembly 4 to be flexibly disassembled and adjusted, enabling convenient changes to the interior space layout according to usage needs and adapting to different functional scenarios.

[0035] like Figure 1 , Figure 5 and Figure 6As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the interior wall positioning component 241 includes a positioning frame 2411, a first locking component 2412, and a second locking component 2413. The positioning frame 2411 is disposed on the floor body 21. Multiple first locking components 2412 are sequentially inserted through the positioning frame 2411 and the floor body 21. Multiple second locking components 2413 are located on both sides of the positioning frame 2411 and sequentially inserted through the positioning frame 2411 and the interior wall component 4. By using the positioning frame 2411 as the core load-bearing structure on the floor body 21, a stable support and assembly reference surface are provided for the interior wall component 4, ensuring the flatness and standardization of the interior wall component 4 placement, thereby fundamentally improving the accuracy of interior wall assembly. Multiple first locking components 2412 are sequentially inserted through the positioning frame 2411 and the floor body 21 to achieve a firm and detachable connection between the positioning frame 2411 and the floor body 21. The multi-point locking design can evenly distribute the force, preventing displacement or loosening of the positioning frame 2411 during use and ensuring the stability of the positioning reference. Multiple second locking components 2413 are symmetrically distributed on both sides of the positioning frame 2411 and are inserted through the positioning frame 2411 and the inner wall component 4 to form a two-way symmetrical locking structure. This structure can firmly fix the inner wall component 4 to the positioning frame 2411, effectively preventing the inner wall component 4 from shifting or shaking to the left or right. The detachable design also simplifies the assembly and disassembly process of the inner wall component 4, allowing the fixing and disassembly of the inner wall to be completed without complicated tools.

[0036] like Figure 1 , Figure 5 and Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the inner wall fastener 242 includes a fixing frame 2421 and a third locking member 2422. The fixing frame 2421 is clamped between the floor body 21 and the inner wall component 4, and the third locking member 2422 is sequentially inserted through the fixing frame 2421 and the inner wall component 4. By clamping the fixing frame 2421 between the floor body 21 and the inner wall component 4, on the one hand, the contact area between the two can be increased, avoiding deformation and damage to the bottom of the inner wall component 4 due to excessive local pressure, and providing stable load-bearing support for the inner wall component 4; on the other hand, it can form a circumferential limit on the bottom of the wall, initially restricting the displacement trend of the inner wall component 4, improving the regularity of the placement of the inner wall component 4, and laying the foundation for subsequent precise locking. Multiple third locking components 2422 are sequentially inserted through the fixing bracket 2421 and the inner wall component 4 to achieve a firm and detachable connection between the two. This locking method does not require complicated construction processes and can be completed with conventional tools. It not only ensures the stability of the connection between the inner wall component 4 and the floor component 2 and effectively prevents safety hazards such as shaking and tipping of the inner wall component 4 during use, but also perfectly meets the core requirement of the detachable structure of the building, making it easy to disassemble, maintain, replace or reposition the inner wall component 4 individually.

[0037] like Figure 2 and Figure 7 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the exterior wall component 3 includes exterior wall fittings 31, the number of exterior wall fittings 31 is multiple, the multiple exterior wall fittings 31 are connected end to end in sequence, one end of the multiple exterior wall fittings 31 can be detached from the floor component 2, the multiple exterior wall fittings 31 and the floor component 2 cooperate to form a placement space 301, the number of interior wall components 4 is multiple, the interior wall components 4 can be detached from the inner sidewall of the multiple exterior wall fittings 31, and the roof component 5 can be detached from the multiple exterior wall fittings 31. It is located at the end furthest from the floor component 2; the exterior wall fitting 31 includes an exterior wall body 311 and an exterior wall corner piece 312. One end of the exterior wall body 311 can be detached from the floor component 2, multiple interior wall components 4 can be detached from the inner side wall of the exterior wall body 311, and the roof component 5 can be detached from the exterior wall body 311 and located at the end furthest from the floor component 2. One side of the exterior wall corner piece 312 of one of the exterior wall fittings 31 can be detached from the exterior wall body 311, and the other side can be detached from the exterior wall body 311 of the adjacent exterior wall fitting 31. By adopting a detachable connection method for multiple exterior wall fittings 31, the limitations of traditional integrated exterior wall construction are broken. The size and weight of each fitting are moderate, making it easy to transport and store separately, greatly reducing the risk of damage and space occupation during transportation, and saving logistics costs. The exterior wall fitting 31 is detachably connected to the floor component 2 at one end and detachably fixed to the roof component 5 at the top. The inner wall can also accommodate the assembly and disassembly of multiple interior wall components 4, creating a vertically integrated, interconnected, and modular assembly system. The entire process requires no complex pouring or welding; precise splicing is all that's needed to adapt the wall to each component. This significantly shortens the construction period, reduces reliance on professional construction teams, and facilitates subsequent disassembly, relocation, and reuse of the entire building structure, meeting the needs of temporary construction and dynamic adjustments. The subdivided exterior wall body 311 and exterior wall corner component 312 further optimize structural stability and assembly precision. As the core enclosing structure, the exterior wall body 311 undertakes the core functions of spatial definition and component connection. Its multi-directional detachable connection characteristics ensure a tight fit with the floor component 2, roof component 5, and interior wall component 4. The exterior wall corner piece 312 specifically solves the connection problem between adjacent exterior wall bodies 311. Through the detachable connection design on both sides, it achieves precise docking and firm fixation at the corner, avoids structural loosening caused by excessive splicing gaps, strengthens the overall anti-overturning and wind load resistance of the wall, and allows damaged parts to be disassembled and replaced individually without the need for overall disassembly, reducing maintenance costs.

[0038] like Figure 7 and Figure 8As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the interior wall component 4 includes an interior wall body 41 and an interior wall connector 42. The interior wall body 41 is detachably installed on the floor component 2, and the roof component 5 is detachably installed on the interior wall body 41 and located at the end away from the floor component 2. The interior wall connector 42 is sandwiched between the interior wall body 41 and the exterior wall component 3. By adopting a method in which the interior wall body 41 is detachably connected to the floor component 2 and detachably connected to the roof component 5, a stable longitudinal support is constructed, and the placement space can be flexibly divided. Functional areas can be built as needed without the need for fixed pouring processes, greatly reducing the difficulty and cost of layout adjustment and adapting to diverse usage scenarios. Its bidirectional detachable feature allows the interior wall body 41 to be disassembled and replaced individually. Subsequent maintenance or space optimization does not require the entire building to be demolished, improving convenience and extending the building's lifespan. The inner wall connector sandwiched between the inner wall body 41 and the outer wall component 3 not only achieves precise positioning, ensuring that the two fit tightly and are evenly stressed, thus avoiding wall shaking and insufficient sealing, but also strengthens the linkage between the inner and outer wall structures, improves the roof's wind load resistance, and makes up for the instability of the detachable structure.

[0039] like Figure 1 , Figure 13 and Figure 14As shown, in addition to the features of the above embodiments, this embodiment further defines: the roof assembly 5 includes a first roof panel 51, a second roof panel 52, and roof panel connectors 53. The first roof panel 51 is detachably mounted on the exterior wall assembly 3 and the interior wall assembly 4 and is located at the end away from the floor assembly 2. The second roof panel 52 is detachably mounted on the exterior wall assembly 3 and the interior wall assembly 4 and is located at the end away from the floor assembly 2. The first roof panel 51 and the second roof panel 52 are staggered. There are multiple roof panel connectors 53. Some roof panel connectors 53 are sandwiched between the first roof panel 51 and the exterior wall assembly 3. Some roof panel connectors 53 are sandwiched between the first roof panel 51 and the interior wall assembly 4. Some roof panel connectors 53 are sandwiched between the second roof panel 52 and the interior wall assembly 4. The remaining roof panel connectors 53 are sandwiched between the second roof panel 52 and the exterior wall assembly 3. The first roof panel 51 and the second roof panel 52 cover the opening of the installation space 301. By staggering and detachably connecting the first roof panel 51 and the second roof panel 52 to the top of the outer wall component 3 and the inner wall component 4, the system achieves full coverage of the opening in the installation space 301. The staggered structure also enhances the overall load-bearing capacity and impermeability of the roof, effectively avoiding the problems of leakage and uneven stress caused by splicing single panels. Simultaneously, the modular design allows for controllable volume of individual roof panels, facilitating individual transportation, storage, and replacement, reducing logistics and maintenance costs. Multiple sets of roof panel connectors 53 are distributed as needed, sandwiched between the two roof panels and the inner and outer wall components. This ensures precise positioning, a tight fit between the roof panel and the wall, and uniform stress distribution, strengthening the linkage between the roof and the overall building structure and improving wind load and overturning resistance. It also fully accommodates detachable requirements, making assembly and disassembly simple and without damaging any components. The fully detachable design of the roof component 5 eliminates the need for complex construction processes, allowing for rapid assembly and disassembly, facilitating the overall relocation and reuse of the building. Furthermore, if any roof panel or connector is damaged, it can be individually removed and replaced without disassembling the entire roof, significantly improving maintenance efficiency.

[0040] like Figure 1 , Figure 13 and Figure 14As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the roof assembly 5 also includes drainage components 54, and there are multiple drainage components 54. These multiple drainage components 54 are disposed on the first roof panel 51 and the second roof panel 52 and located on one side of the first roof panel 51 and the second roof panel 52, and are located outside the installation space 301. By disposing of multiple drainage components 54 on the first roof panel 51 and the second roof panel 52 and offset to one side, while being located outside the installation space 301, rainwater can be quickly drained, preventing water accumulation from eroding the roof joints and the roof structure, significantly improving the roof's waterproof performance and extending the component's service life. The drainage components 54 are compatible with the modular roof design and can be disassembled and installed synchronously with the roof panels, without affecting the overall disassembly, relocation, and reuse of the roof. They can be individually inspected and replaced during subsequent maintenance without disassembling the entire roof, reducing maintenance costs.

[0041] like Figure 2 , Figure 7 , Figure 8 , Figure 9 , Figure 10 and Figure 11 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: some load-bearing reinforcement members 6 are arranged on one side wall of the exterior wall component 3 and distributed circumferentially along the exterior wall component 3; some load-bearing reinforcement members 6 are arranged on both side walls of the interior wall component 4 and spaced apart along the length of the interior wall component 4; and the remaining load-bearing reinforcement members 6 are arranged on one side wall of the roof component 5 and spaced apart along the length of the roof component 5. By distributing multiple load-bearing reinforcement members 6 as needed, some are arranged on the side walls circumferentially along the exterior wall component 3 to strengthen the overall resistance to lateral displacement and overturning of the exterior wall, avoiding deformation of the detachable wall during long-term use; some are spaced apart on both side walls along the length of the interior wall component 4 to improve the load-bearing stability and spatial partition reliability of the interior wall; and the remaining are spaced apart on one side wall along the length of the roof component 5 to enhance the load-bearing performance of the roof and adapt to the stress requirements of the roof's staggered structure. The load-bearing reinforcement members 6 adopt a component-fitting installation method, adapting to the detachable design, and can be disassembled and installed synchronously with the corresponding components without affecting the overall disassembly, relocation, and reuse of the roof.

[0042] like Figure 17 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the load-bearing reinforcement 6 is provided with through holes 601, which are spaced apart along the length of the load-bearing reinforcement 6, and the thermal insulation sandwich components 7 pass through multiple through holes 601. Multiple thermal insulation sandwich components 7 are correspondingly provided on the exterior wall component 3, the interior wall component 4, and the roof component 5, and abut against the load-bearing reinforcement 6 and pass through the through holes 601. This achieves precise positioning and fixation, and with the support structure formed by the load-bearing reinforcement 6, ensures that the insulation layer is laid flat and tightly fitted, significantly improving the overall thermal insulation performance of the roof and reducing energy loss.

[0043] like Figure 9 , Figure 10 , Figure 11 , Figure 12 , Figure 15 and Figure 16 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the exterior wall component 3, the interior wall component 4, and the roof component 5 are all provided with attachment spaces 1001. The attachment spaces 1001 are located on the inner sidewalls of the exterior wall component 3, the interior wall component 4, and the roof component 5, and the outer sidewall of the insulation interlayer component 7 is located at the attachment spaces 1001. The attachment spaces 1001 provide a dedicated installation reference for the insulation interlayer component 7, which can precisely define the layout position of the insulation layer, preventing displacement or shifting during assembly and use, ensuring a tight fit between the insulation layer and each component, significantly improving the uniformity and reliability of the roof's thermal insulation, and reducing energy loss.

[0044] like Figure 9 , Figure 11 and Figure 14 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the exterior wall component 3 is provided with a first wiring space 302, and the number of first wiring spaces 302 is multiple, which are distributed around the perimeter of the exterior wall component 3; the interior wall component 4 is provided with a second wiring space 401, and the number of second wiring spaces 401 is multiple, which are spaced apart along the length of the interior wall component 4; the roof component 5 is provided with a third wiring space 501, and the number of third wiring spaces 501 is multiple; the multiple first wiring spaces 302 are connected to the third wiring spaces 501, and the multiple second wiring spaces 401 are connected to the third wiring spaces 501. By distributing the multiple first wiring spaces 302 around the perimeter of the exterior wall component 3, arranging the second wiring spaces 401 spaced apart along the length of the interior wall component 4, and placing the third wiring spaces 501 on the roof component 5 and connecting them to the former two, a fully connected and concealed wiring system is constructed, which can orderly accommodate water and electricity pipes, avoid the problems of exposed pipes affecting aesthetics and being easily damaged, and improve the cleanliness of the building and the protection of the pipes.

[0045] like Figure 4 As shown, in addition to the features of the above embodiments, this embodiment further defines the thickness of the floor body 21 as 50mm-250mm. By limiting the thickness of the floor body 21 to 50mm-250mm, both load-bearing practicality and scene adaptability are achieved. The lower limit of 50mm meets the needs of temporary construction and light-duty use scenarios, facilitating component transportation and assembly; the upper limit of 250mm adapts to heavy-duty use and complex environment scenarios, improving the floor's impact resistance and wear resistance.

[0046] like Figure 7As shown, in addition to the features of the above embodiments, this embodiment further limits the thickness of the exterior wall fitting 31 to 50mm-250mm. By limiting the thickness of the exterior wall fitting 31 to 50mm-250mm, both load-bearing practicality and scenario adaptability are achieved. The lower limit of 50mm meets the needs of scenarios such as temporary installation and light office space, facilitates the transportation and disassembly of the exterior wall fitting, and conforms to the core requirements of modular assembly. The upper limit of 250mm is suitable for scenarios such as field operations and harsh weather, improving the wind resistance, rainproof, and thermal insulation performance of the exterior wall.

[0047] like Figure 11 As shown, in addition to the features of the above embodiments, this embodiment further specifies that the thickness of the inner wall body 41 is 50mm-250mm. By limiting the thickness of the inner wall body 31 to 50mm-250mm, this thickness range can give the inner wall body 41 sufficient structural rigidity, which can effectively bear part of the load transmitted by the roof component 5, improve the longitudinal support capacity of the inner wall, and avoid wall shaking and deformation caused by insufficient thickness, thus ensuring the reliability of the interior space partition; at the same time, a reasonable thickness range can balance weight and practical performance.

[0048] like Figure 13 As shown, in addition to the features of the above embodiments, this embodiment further specifies that the thickness of the first roof panel 51 and the second roof panel 52 is both 50mm-250mm. By limiting the thickness of the first roof panel 51 and the second roof panel 52 to 50mm-250mm, this thickness range can give the roof panels sufficient structural rigidity, which can effectively bear external loads such as rain and snow accumulation, resist wind impact, avoid roof panel dents and deformation, ensure the overall sealing and protection performance of the roof, and provide a stable foundation for the staggered splicing of roof components and the installation of drainage components, thereby strengthening the connection stability between the roof and the inner and outer wall components.

[0049] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0050] The embodiments described above are merely illustrative of several implementations of the present invention, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the invention patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of the present invention, and these all fall within the protection scope of the present invention. Therefore, the protection scope of this invention patent should be determined by the appended claims.

Claims

1. A rapidly assembled roof structure, characterized in that, The aforementioned rapid-assembly roof includes: A base assembly (1) is used to fix it to an external structure; Floor assembly (2), which is detachable from the base assembly (1); The exterior wall assembly (3) is detachable from the floor assembly (2) and located on the side wall of the floor assembly (2). The floor assembly (2) and the exterior wall assembly (3) cooperate to form a placement space (301). Interior wall assembly (4), which is detachable from the floor assembly (2) and / or the exterior wall assembly (3), and the interior wall assembly (4) is located in the installation space (301); A roof assembly (5) is detachable from the exterior wall assembly (3) and / or the interior wall assembly (4) and located on the side away from the floor assembly (2), the roof assembly (5) covering the opening of the installation space (301); Load-bearing reinforcement components (6), the number of load-bearing reinforcement components (6) is multiple, and multiple load-bearing reinforcement components (6) are disposed on the outer wall component (3), the inner wall component (4) and the roof component (5); The number of thermal insulation interlayer components (7) is multiple, and the multiple thermal insulation interlayer components (7) are disposed on the outer wall assembly (3), the inner wall assembly (4) and the roof assembly (5) and abut against the multiple load-bearing reinforcement components (6).

2. The rapidly assembled roof structure according to claim 1, characterized in that, The base assembly (1) includes a base body (11) and base anchors (12). There are multiple base anchors (12), which are spaced apart along the length of the base body (11). The multiple base anchors (12) are used to fix to the external structure. The floor assembly (2) is disposed on the base body (11) and located on one side of the base body (11).

3. The rapidly assembled roof structure according to claim 1, characterized in that, The floor assembly (2) includes a floor body (21), a base connector (22), an external wall connector (23), and an internal wall connector (24). There are multiple base connectors (22), which are inserted through the base assembly (1) and the floor body (21) and are spaced apart along the length of the floor body (21). There are multiple external wall connectors (23), which are sandwiched between the floor body (21) and the external wall assembly (3). There are multiple internal wall connectors (24), which are sandwiched between the internal wall assembly (4) and the floor body (21).

4. The rapidly assembled roof structure according to claim 3, characterized in that, The external wall connection assembly (23) includes a first external wall connector (231) and a second external wall connector (232). The first external wall connector (231) is sandwiched between the floor body (21) and the side wall of the external wall assembly (3), and the second external wall connector (232) is sequentially inserted through the bottom of the floor body (21) and the external wall assembly (3).

5. The rapidly assembled roof structure according to claim 3, characterized in that, The inner wall connection assembly (24) includes an inner wall positioning component (241) and an inner wall fixing component (242). The inner wall positioning component (241) is disposed on the floor body (21). The inner wall assembly (4) is disposed on the inner wall positioning component (241). There are multiple inner wall fixing components (242), which are sandwiched between the inner wall assembly (4) and the floor body (21) and located on both sides of the inner wall assembly (4).

6. The rapidly assembled roof structure according to claim 5, characterized in that, The inner wall positioning component (241) includes a positioning frame (2411), a first locking component (2412), and a second locking component (2413). The positioning frame (2411) is disposed on the floor body (21). There are multiple first locking components (2412), which are sequentially inserted through the positioning frame (2411) and the floor body (21). There are multiple second locking components (2413), which are located on both sides of the positioning frame (2411) and are sequentially inserted through the positioning frame (2411) and the inner wall component (4). The and / or interior wall fastener (242) includes a fixing frame (2421) and a third locking member (2422), the fixing frame (2421) being sandwiched between the floor body (21) and the interior wall assembly (4), and the third locking member (2422) being sequentially inserted through the fixing frame (2421) and the interior wall assembly (4).

7. The rapidly assembled roof structure according to claim 1, characterized in that, The exterior wall assembly (3) includes exterior wall fittings (31), and there are multiple exterior wall fittings (31). The multiple exterior wall fittings (31) are connected end to end in sequence. One end of the multiple exterior wall fittings (31) can be detached from the floor assembly (2). The multiple exterior wall fittings (31) and the floor assembly (2) cooperate to form the installation space (301). There are multiple interior wall assemblies (4), and the multiple interior wall assemblies (4) can be detached from the inner sidewall of the multiple exterior wall fittings (31). The roof assembly (5) can be detached from the multiple exterior wall fittings (31) and is located at the end away from the floor assembly (2). The exterior wall fitting (31) includes an exterior wall body (311) and an exterior wall corner piece (312). One end of the exterior wall body (311) is detachable from the floor assembly (2). The interior wall assembly (4) is detachable from the inner wall of the exterior wall body (311). The roof assembly (5) is detachable from the exterior wall body (311) and located at the end away from the floor assembly (2). One side of the exterior wall corner piece (312) of one of the exterior wall fittings (31) is detachable from the exterior wall body (311) and the other side is detachable from the exterior wall body (311) of the adjacent exterior wall fitting (31). And / or the interior wall assembly (4) includes an interior wall body (41) and an interior wall connector (42), the interior wall body (41) being detachable from the floor assembly (2), the roof assembly (5) being detachable from the interior wall body (41) and located at one end away from the floor assembly (2), and the interior wall connector (42) being sandwiched between the interior wall body (41) and the exterior wall assembly (3).

8. The rapidly assembled roof structure according to claim 1, characterized in that, The roof assembly (5) includes a first roof panel (51), a second roof panel (52), and roof panel connectors (53). The first roof panel (51) is detachably mounted on the exterior wall assembly (3) and the interior wall assembly (4) and is located at the end away from the floor assembly (2). The second roof panel (52) is detachably mounted on the exterior wall assembly (3) and the interior wall assembly (4) and is located at the end away from the floor assembly (2). The first roof panel (51) and the second roof panel (52) are staggered. There are multiple roof panel connectors (53). The connector (53) is sandwiched between the first roof panel (51) and the exterior wall assembly (3), some of the roof panel connectors (53) are sandwiched between the first roof panel (51) and the interior wall assembly (4), some of the roof panel connectors (53) are sandwiched between the second roof panel (52) and the interior wall assembly (4), and the remaining roof panel connectors (53) are sandwiched between the second roof panel (52) and the exterior wall assembly (3). The first roof panel (51) and the second roof panel (52) cover the opening of the installation space (301).

9. The rapidly assembled roof structure according to claim 8, characterized in that, The roof assembly (5) further includes a drainage assembly (54), and there are multiple drainage assemblies (54). The multiple drainage assemblies (54) are disposed on the first roof panel (51) and the second roof panel (52) and located on one side of the first roof panel (51) and the second roof panel (52). The multiple drainage assemblies (54) are located outside the installation space (301).

10. The rapidly assembled roof structure according to claim 1, characterized in that, Some of the load-bearing reinforcement members (6) are disposed on one side wall of the outer wall assembly (3) and distributed circumferentially along the outer wall assembly (3); some of the load-bearing reinforcement members (6) are disposed on both side walls of the inner wall assembly (4) and distributed at intervals along the length direction of the inner wall assembly (4); the remaining load-bearing reinforcement members (6) are disposed on one side wall of the roof assembly (5) and distributed at intervals along the length direction of the roof assembly (5). And / or the load-bearing reinforcement (6) is provided with through holes (601), the through holes (601) are distributed at intervals along the length direction of the load-bearing reinforcement (6), and the thermal insulation interlayer member (7) passes through a plurality of the through holes (601). And / or the exterior wall assembly (3), the interior wall assembly (4) and the roof assembly (5) are each provided with an attachment space (1001), the attachment space (1001) is located on the inner sidewall of the exterior wall assembly (3), the interior wall assembly (4) and the roof assembly (5), and the outer sidewall of the thermal insulation interlayer member (7) is located at the attachment space (1001); And / or the exterior wall assembly (3) is provided with a first wiring space (302), the number of the first wiring spaces (302) is multiple, the multiple first wiring spaces (302) are distributed around the perimeter of the exterior wall assembly (3), the interior wall assembly (4) is provided with a second wiring space (401), the number of the second wiring spaces (401) is multiple, the multiple second wiring spaces (401) are distributed at intervals along the length direction of the interior wall assembly (4), the roof assembly (5) is provided with a third wiring space (501), the number of the third wiring spaces (501) is multiple, the multiple first wiring spaces (302) are connected to the third wiring space (501), and the multiple second wiring spaces (401) are connected to the third wiring space (501).

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