Aluminum-based modularized reconfigurable integrated house system

Abstract

The invention relates to an aluminum-based modular reconfigurable integrated house system which comprises a base with the height capable of being slightly adjusted and multiple sets of standard unit structures, the base is arranged at the bottoms of the standard unit structures, the multiple sets of standard unit structures form an integrated house frame in a splicing mode, and house plate modules are arranged on the integrated house frame. The integrated house frame is connected with the house plate module to form the reconfigurable integrated house system. According to the reconfigurable integrated house system, the small-range unevenness of a site can be effectively compensated through the height adjusting capacity of the base, and the adaptability to complex terrains is improved; the size, the shape and the internal layout of the house can be quickly and flexibly adjusted, expanded, shrunk or recombined according to the change of requirements, so that mounting and splicing are facilitated, and the working efficiency is improved.

Description

Technical Field

[0001] The present application relates to the technical field of building houses, and in particular to an aluminum-based modular reconfigurable integrated house system. Background Art

[0002] At present, the integrated house system is a building system that integrates building structure, enclosure system, equipment pipelines, interior parts, etc. through standardized design, factory production, assembly construction, and information management. It has the characteristics of high efficiency, environmental protection, and mobility, and is widely used in many fields.

[0003] In the existing technology, the integrated house system is a house formed by connecting steel structures and wall panels. In addition to being used for temporary housing, steel structure integrated houses are currently used as a new type of building in various industries, such as office buildings, schools, kindergartens, hospitals, laboratories, resorts and villas in the tourism industry, hotels, residential buildings, industrial buildings, earthquake relief and military fields, etc.

[0004] Regarding the above-mentioned related technologies, since the integrated house system is connected by bolts and nuts through a steel structure, it is time-consuming and labor-intensive, and inconvenient to splice, thereby affecting the installation efficiency of the integrated house system. Summary of the Invention

[0005] In order to solve the problem that the integrated house system is connected by bolts and nuts through steel structures, which is time-consuming and labor-intensive, inconvenient to splice, and thus affects the installation efficiency of the integrated house system, the present application provides an aluminum-based modular reconfigurable integrated house system.

[0006] This application provides an aluminum-based modular reconfigurable integrated house system, which adopts the following technical solutions: The aluminum-based modular reconfigurable integrated house system includes a base with slightly adjustable height and multiple groups of standard unit structures. The base is arranged at the bottom of the standard unit structure. The multiple groups of standard unit structures are spliced ​​to form an integrated house frame. The integrated house frame is provided with a room panel module. The integrated house frame is connected with the room panel module to form a reconfigurable integrated house system.

[0007] By adopting the above technical solution, the height adjustment capability of the base can effectively compensate for small-scale unevenness of the site and improve adaptability to complex terrain. At the same time, the integrated house frame is connected with the house panel module to form a reconfigurable integrated house system, which enables the size, shape and internal layout of the house to be quickly and flexibly adjusted, expanded, reduced or recombined according to changes in demand (such as functional changes, space additions and subtractions, site adjustments), thereby facilitating installation and splicing and improving work efficiency.

[0008] Preferably, the standard unit structure includes a connecting piece and a plurality of aluminum alloy beams and columns, the connecting piece is connected to the aluminum alloy beams and columns through tenons and pins, the standard unit structure is formed by splicing the connecting piece and the aluminum alloy beams and columns, and the room panel module is installed on the aluminum alloy beams and columns.

[0009] By adopting the above technical solution, the connection between the tenon and the pin does not require complicated welding or bolt tightening processes. The connection can be completed on site only through "plugging + pin fixing". It is simple to operate, has low technical requirements for construction workers, and can greatly shorten the on-site installation time.

[0010] Preferably, the room panel module includes wall panels and connecting clips, the edges of the wall panels are connected to the connecting clips, and the room panel module is formed by splicing the connecting clips and multiple wall panels.

[0011] By adopting the above technical solution, when installing wall panels, workers only need to align the connecting clips on the edge of the wall panels on the room panel module and slide or clip them into the beams and columns to complete the initial fixation. This is several times or even dozens of times faster than traditional punching, screwing or welding methods, greatly improving the installation speed of wall panels, floor panels and roof panels.

[0012] Preferably, the surface of the aluminum alloy beam column is provided with a fixing groove, the fixing groove is used in conjunction with the connecting clamp, the fixing groove is in a convex shape, and is symmetrically distributed on the surface of the aluminum alloy beam column.

[0013] By adopting the above technical solution, when the fixing groove (narrow at the top and wide at the bottom) cooperates with the connecting clip, the narrow mouth of the fixing groove can limit its outward pullout after the clip is inserted, and the wide groove provides lateral support, forming an anti-slip effect similar to a "dovetail groove". The convex neck narrows and the bottom expands to form a natural slot. When the wall panel is inserted through the fixing clip and is subjected to gravity or vibration, the T-shaped connecting clip is mechanically locked in the expansion area, making the wall panel more stable and preventing it from falling off.

[0014] Preferably, both ends of the aluminum alloy beam column are provided with square holes for placing and passing electric wires, communication lines, water supply and drainage pipelines, etc.

[0015] By adopting the above technical solution, the pipelines are completely hidden inside the structural cavity, without the need for additional suspended ceilings, false walls or raised floors to accommodate the pipelines, maximizing the indoor net height and available space, and improving the sense of spatial transparency and living comfort.

[0016] Preferably, the standard unit structure can be quickly assembled and replicated in the form of replication, splicing, and fission, and can form rich and diverse architectural space forms.

[0017] By adopting the above technical solutions, the "replication, splicing, and fission" assembly scheme of the standard unit structure, through the three core mechanisms of standardized production, flexible combination, and derivative expansion, the construction process of integrated houses is transformed from "on-site construction" to "factory prefabrication + on-site assembly", which not only achieves a revolutionary breakthrough in construction efficiency and cost, but also through the free combination of spatial forms.

[0018] Preferably, the tenon on the connecting piece and the aluminum alloy beam column are both provided with a pin hole for inserting a pin.

[0019] By adopting the above technical solution, the cooperation between the pin hole and the pin nail is a "plug and connect" mechanical connection method, which does not require complex operations such as welding and bolt tightening. On-site construction workers can complete the assembly manually or with simple tools.

[0020] Preferably, the base includes a support seat and a bearing platform for frame support, the bottom of the bearing platform is connected to a threaded barrel, the surface of the threaded barrel is threadedly connected to the support seat, the bearing platform is arranged on the top of the support seat, the surface of the threaded barrel is provided with a buffer assembly, and the buffer assembly is located inside the support seat.

[0021] By adopting the above technical solution, the height of the support platform relative to the support base can be easily rotated and adjusted through the threaded connection between the threaded barrel and the support base, which plays a vital role in accurately leveling the aluminum alloy frame, compensating for uneven ground or adapting to different installation requirements. At the same time, the threaded connection of the threaded barrel provides precise height adjustment and main static support force, while the built-in buffer component is specifically responsible for dynamic vibration and impact isolation. The two work together to provide excellent dynamic protection performance for the aluminum alloy frame while ensuring stable support.

[0022] Preferably, the buffer assembly includes an annular ring and a spring, the inner surface of the annular ring is threadedly connected to the edge of the threaded barrel, the spring is sleeved on the threaded barrel, and the spring is located between the annular ring and the support seat.

[0023] By adopting the above technical solution, the axial position of the annular ring on the threaded barrel can be precisely adjusted by rotating it, which is equivalent to adjusting the initial compression of the spring. The user can flexibly adjust the initial state and response characteristics of the buffer system according to the actual load size and the required buffer stiffness to achieve the optimal working point.

[0024] In summary, this application includes at least one of the following beneficial technical effects: 1. The height adjustment capability of the base can effectively compensate for minor unevenness of the site and improve adaptability to complex terrain. At the same time, the integrated house frame is connected with the floor module to form a reconfigurable integrated house system. The size, shape and internal layout of the house can be quickly and flexibly adjusted, expanded, reduced or reassembled according to changes in needs (such as functional changes, space additions and subtractions, site adjustments), thereby facilitating installation and splicing, and improving work efficiency. 2. The tenon-pin connection method does not require complex welding or bolt tightening processes. On-site connection can be completed by simply "plugging in and fixing with the pin". It is simple to operate, has low technical requirements for construction workers, and can significantly shorten on-site installation time. 3. Through the threaded connection between the threaded barrel and the support base, the height of the load-bearing platform relative to the support base can be easily adjusted by rotation. This is crucial for accurately leveling the aluminum alloy frame, compensating for uneven ground, or adapting to different installation requirements. At the same time, the threaded connection of the threaded barrel provides precise height adjustment and primary static support, while the built-in buffer component is specifically responsible for dynamic vibration and shock isolation. The two work together to ensure stable support while providing excellent dynamic protection performance for the aluminum alloy frame. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is the main structural stereogram of the aluminum-based modular reconfigurable integrated house system; Figure 2 It is a right-side perspective view of the aluminum-based modular reconfigurable integrated house system; Figure 3 It is a structural stereogram of the standard unit structure; Figure 4 It is a cutaway perspective view of a standard unit structure; Figure 5 It is a partially cutaway stereoscopic diagram of a reconfigurable integrated house system; Figure 6 It is a top-down and cutaway perspective view of the reconfigurable integrated house system; Figure 7 It is a partial structural stereogram of the reconfigurable integrated house system; Figure 8 It is a three-dimensional diagram of the base structure; Figure 9 It is a cutaway perspective view of the base.

[0026] Figure numerals: 100, base; 110, support seat; 120, bearing platform; 130, threaded cylinder; 140, buffer assembly; 141, annular ring; 142, spring; 200, standard unit structure; 210, connector; 220, aluminum alloy beam column; 230, fixing groove; 240, square hole; 250, pin hole; 300, integrated house frame; 400, room panel module; 410, wall panel; 420, connecting clip; 500, reconfigurable integrated house system. DETAILED DESCRIPTION

[0027] The following is combined with Figure 1 -Attached Figure 9 This application is described in further detail.

[0028] The embodiments of the present application disclose an aluminum-based modular reconfigurable integrated house system.

[0029] Reference Figure 1 and Figure 2 An aluminum-based modular reconfigurable integrated house system includes a base 100 with slightly adjustable height and multiple sets of standard unit structures 200. The base 100 is installed and connected to the bottom of the standard unit structure 200. The multiple sets of standard unit structures 200 are spliced ​​and fixed to form an integrated house frame 300. The integrated house frame 300 is snap-connected with a room panel module 400. The integrated house frame 300 is connected to the room panel module 400 to form a reconfigurable integrated house system 500.

[0030] Through the above solution, the height adjustment capability of the base 100 can effectively compensate for small-scale unevenness of the site and improve adaptability to complex terrain. At the same time, the integrated house frame 300 is connected with the house panel module 400 to form a reconfigurable integrated house system 500, which can enable the size, shape and internal layout of the house to be quickly and flexibly adjusted, expanded, reduced or recombined according to changes in needs (such as functional changes, space additions and subtractions, site adjustments), thereby facilitating installation and splicing, and improving work efficiency.

[0031] refer to Figure 2 The standard unit structure 200 can be quickly assembled and replicated in the form of replication, splicing, and fission, and can form a rich variety of architectural space forms. Through the "replication, splicing, and fission" assembly scheme of the standard unit structure 200, it is possible to achieve houses with the three core mechanisms of standardized production, flexible combination, and derivative expansion, and transform the construction process of integrated houses from "on-site construction" to "factory prefabrication + on-site assembly", which not only achieves a revolutionary breakthrough in construction efficiency and cost, but also achieves the free combination of spatial forms.

[0032] refer to Figure 3 ,and Figure 4The standard unit structure 200 includes a connector 210 and a plurality of aluminum alloy beams and columns 220. The connector 210 is fixedly connected to the aluminum alloy beams and columns 220 through tenons and pins. The standard unit structure 200 is formed by splicing the connector 210 and the aluminum alloy beams and columns 220. The room panel module 400 is installed on the aluminum alloy beams and columns 220.

[0033] Through the above solution, the connection between the tenon and the pin does not require complicated welding or bolt tightening processes. The connection can be completed on site only through "plugging + pin fixing". It is simple to operate, has low technical requirements for construction workers, and can greatly shorten the on-site installation time.

[0034] refer to Figure 4 The tenon on the connector 210 and the aluminum alloy beam column 220 are both provided with a pin hole 250 for inserting a pin; the pin hole 250 can be matched with the pin to form a "plug and connect" mechanical connection method, without the need for complex operations such as welding and bolt tightening. On-site construction personnel can complete the assembly manually or with simple tools.

[0035] refer to Figure 5 and Figure 6 The room panel module 400 includes a wall panel 410 and a connecting clamp 420 . The edges of the wall panel 410 are fixedly connected to the connecting clamp 420 . The room panel module 400 is formed by splicing the connecting clamp 420 and multiple wall panels 410 .

[0036] Through the above solution, when installing the wall panel 410, workers only need to align the connecting clips 420 on the edge of the wall panel 410 on the room panel module 400 and slide or clip them into the beams and columns to complete the initial fixation. This is several times or even dozens of times faster than traditional punching, screwing or welding methods, greatly improving the installation speed of the wall panel 410, floor slabs, and roof panels.

[0037] refer to Figure 7 A fixing groove 230 is provided on the surface of the aluminum alloy beam column 220 . The fixing groove 230 is used in conjunction with the connecting clamp 420 . The fixing groove 230 is convex in shape and is symmetrically distributed on the surface of the aluminum alloy beam column 220 .

[0038] Through the above scheme, when the fixing groove 230 (narrow at the top and wide at the bottom) cooperates with the connecting clip 420, the narrow mouth of the fixing groove 230 can limit its outward pullout after the clip is inserted, and the wide groove provides lateral support, forming an anti-slip effect similar to a "dovetail groove". The convex neck narrows and the bottom expands to form a natural slot. After the wall panel 410 is inserted through the fixing clip and is subjected to gravity or vibration, the T-shaped connecting clip 420 is mechanically locked in the expansion area, making the wall panel 410 more stable and preventing the wall panel 410 from detaching.

[0039] refer to Figure 7Both ends of the aluminum alloy beam column 220 are provided with square holes 240 for placing and passing electrical wires, communication lines, water supply and drainage pipelines, etc.; the pipelines can be completely hidden inside the structural cavity, without the need for additional ceilings, false walls or raised floors to accommodate the pipelines, maximizing the indoor net height and available space, and improving the sense of spatial transparency and living comfort.

[0040] refer to Figure 8 and Figure 9 The base 100 includes a support seat 110 and a bearing platform 120 for frame support. The bottom of the bearing platform 120 is fixedly connected with a threaded cylinder 130. The surface of the threaded cylinder 130 is threadedly connected to the inner wall of the support seat 110. The bearing platform 120 is located at the top of the support seat 110. The surface of the threaded cylinder 130 is provided with a buffer component 140. The buffer component 140 is located inside the support seat 110.

[0041] Through the above solution, through the threaded connection between the threaded barrel 130 and the support base 110, the height of the support platform 120 relative to the support base 110 can be easily rotated and adjusted, which plays a vital role in accurately leveling the aluminum alloy frame, compensating for uneven ground or adapting to different installation requirements. At the same time, the threaded connection of the threaded barrel 130 provides precise height adjustment and main static support force, while the built-in buffer component 140 is specifically responsible for dynamic vibration and impact isolation. The two work together to provide excellent dynamic protection performance for the aluminum alloy frame while ensuring stable support.

[0042] refer to Figure 9 The buffer assembly 140 includes an annular ring 141 and a spring 142. The inner surface of the annular ring 141 is threadedly connected to the surface of the threaded barrel 130. The spring 142 is sleeved on the threaded barrel 130 and is located between the annular ring 141 and the support seat 110.

[0043] Through the above scheme, the axial position of the annular ring 141 on the threaded barrel 130 can be precisely adjusted by rotating the annular ring 141, which is equivalent to adjusting the initial compression amount of the spring 142. The user can flexibly adjust the initial state and response characteristics of the buffer system according to the actual load size and the required buffer stiffness to achieve the optimal working point.

[0044] The implementation principle of the embodiment of the present application is as follows: during implementation, the connecting piece 210 is inserted into the aluminum alloy beam column 220 through the tenon and then the pin is inserted into the pin hole 250, so that the connecting piece 210 is connected and fixed to the aluminum alloy beam column 220, so that multiple connecting pieces 210 and the aluminum alloy beam column 220 are spliced ​​into a standard unit structure 200, and then the standard unit structure 200 is also connected through the tenon and the pin on the connecting piece 210, and then spliced ​​into an integrated house frame 300, and then the wall panel 410 is fixed to the connecting clip 420, so that the connecting clip 420 is stuck in the fixing groove 230 on the aluminum alloy beam column 220, and the connecting clip 420 is fixed, so that the wall panel 410 is installed on the integrated house frame 300, forming a reconfigurable integrated house system 500, which is convenient for users to install. At the same time, according to changing the number of standard unit structures 200, reconfigurable integrated house systems 500 with different structures can be spliced.

[0045] The above are all preferred embodiments of the present application, and are not intended to limit the scope of protection of the present application. Therefore, any equivalent changes made based on the structure, shape, and principle of the present application should be included in the scope of protection of the present application.

Claims

1. An aluminum-based modular reconfigurable integrated housing system, characterized in that: The invention comprises a base (100) with slightly adjustable height and a plurality of standard unit structures (200), wherein the base (100) is arranged at the bottom of the standard unit structure (200), the plurality of standard unit structures (200) are connected to form an integrated house frame (300), a house panel module (400) is arranged on the integrated house frame (300), and the integrated house frame (300) is connected with the house panel module (400) to form a reconfigurable integrated house system (500).

2. The aluminum-based modular reconfigurable integrated house system according to claim 1 is characterized in that: The standard unit structure (200) comprises a connecting piece (210) and a plurality of aluminum alloy beams (220), wherein the connecting piece (210) is connected to the aluminum alloy beams (220) by means of a tenon and a latch, and the standard unit structure (200) is formed by splicing the connecting piece (210) and the aluminum alloy beams (220), and the room panel module (400) is mounted on the aluminum alloy beams (220).

3. The aluminum-based modular reconfigurable integrated house system according to claim 2 is characterized in that: The room panel module (400) comprises a wall panel (410) and a connecting clamp (420), the edges of the wall panel (410) are connected to the connecting clamp (420), and the room panel module (400) is formed by splicing the connecting clamp (420) and a plurality of wall panels (410).

4. The aluminum-based modular reconfigurable integrated house system according to claim 2 is characterized in that: The surface of the aluminum alloy beam column (220) is provided with a fixing groove (230), the fixing groove (230) is used in conjunction with the connecting clamp (420), and the fixing groove (230) is convex in shape and symmetrically distributed on the surface of the aluminum alloy beam column (220).

5. The aluminum-based modular reconfigurable integrated house system according to claim 2 is characterized in that: Both ends of the aluminum alloy beam column (220) are provided with square holes (240) for placing and passing electric wires, communication wires, water supply and drainage pipelines, etc.

6. The aluminum-based modular reconfigurable integrated house system according to claim 2 is characterized in that: The standard unit structure (200) can be quickly assembled and replicated in the form of replication, splicing, and fission, and can form rich and diverse architectural space forms.

7. The aluminum-based modular reconfigurable integrated house system according to claim 2 is characterized in that: The tenon on the connecting piece (210) and the aluminum alloy beam column (220) are both provided with a pin hole (250) for inserting a pin.

8. The aluminum-based modular reconfigurable integrated house system according to claim 1 is characterized in that: The base (100) includes a support seat (110) and a bearing platform (120) for frame support, the bottom of the bearing platform (120) is connected to a threaded barrel (130), the surface of the threaded barrel (130) is threadedly connected to the support seat (110), the bearing platform (120) is arranged on the top of the support seat (110), the surface of the threaded barrel (130) is provided with a buffer component (140), and the buffer component (140) is located inside the support seat (110).

9. The aluminum-based modular reconfigurable integrated house system according to claim 1 is characterized in that: The buffer assembly (140) comprises an annular ring (141) and a spring (142). The inner surface of the annular ring (141) is threadedly connected to the edge of the threaded barrel (130). The spring (142) is sleeved on the threaded barrel (130). The spring (142) is located between the annular ring (141) and the support seat (110).

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