Aluminum alloy frame with polygonal structure for spherical glass house

Abstract

The utility model discloses an aluminum alloy frame for a spherical glass house with a polygonal structure, which belongs to the field of glass houses and comprises a bottom surrounding component, the bottom surrounding component is of an irregular pentagonal structure and is in a circular array, the top of the bottom surrounding component is in bolted connection with a circle of No.2 hexagonal component, and the No.2 hexagonal component is in bolted connection with the bottom surrounding component. A door frame assembly component is arranged on the front face of the bottom surrounding component, and a plurality of first hexagonal components are arranged on the top, close to the door frame assembly component, of the second hexagonal component. According to the aluminum alloy frame for the spherical glass house with the polygonal structure, the weight of the frame can be reduced, the maintenance cost of the frame in the using process can be reduced, the service life of the frame is prolonged, aluminum alloy extrusion profiles are adopted, new sections are designed, the part machining difficulty is reduced, the production efficiency is improved, and the bending deformation of materials is reduced; a proper surface treatment mode can be selected for the aluminum sphere structure according to the use environment, and the attractiveness of the product can be improved.

Description

Technical Field

[0001] This utility model belongs to the field of glass room technology, specifically relating to an aluminum alloy frame for a polygonal spherical glass room. Background Technology

[0002] As people's living standards improve, their leisure and entertainment options have become more diverse, with outdoor camping and dining being among them. To prevent damage from wind, rain, sunlight, snow, and insects, people typically use tents. In contrast, spherical glass houses offer more effective shelter from wind and rain, have good sealing properties, and are suitable for extreme climates. They can be used in hotels, guesthouses, campsites, and trendy restaurants.

[0003] In existing technical solutions, spherical glass houses are mostly triangular structures with frames made of steel, aluminum alloy, or wood, fixed together with bolts. Some use a membrane structure, where a pressure difference is created by inflating the space with a blower to form a spherical shape. Others involve producing transparent rigid panels with a certain curvature and then bolting them together on-site to form a sphere. Still others consist of several polygonal panels (made of tough, rigid materials) connected in a fish-scale pattern without a frame by bolts. These solutions have the following drawbacks: triangular spherical glass houses use more materials, increasing production and transportation costs; and if the frame is made of steel, it will... Even with paint treatment, the coating is prone to peeling off during long-term use, leading to rust. This increases maintenance costs and significantly shortens the lifespan of the frame. Furthermore, the high density of steel increases the labor intensity during installation. While a soft membrane structure is used, inflated by a blower, this method has poor environmental adaptability and requires inflation equipment and power. A frameless design consisting of several polygonal plates (made of a tough, rigid material) connected in a fish-scale pattern with bolts also suffers from poor environmental adaptability due to the lack of a frame structure. Therefore, this invention provides an aluminum alloy frame for a polygonal spherical glass room. Summary of the Invention

[0004] The purpose of this invention is to provide an aluminum alloy frame for a polygonal spherical glass room to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, this utility model provides the following technical solution: an aluminum alloy frame for a polygonal spherical glass room, comprising a base component, wherein the base component is an irregular pentagonal structure, the base component is arranged in a circular pattern, a ring of No. 2 hexagonal components is bolted to the top of the base component, a door frame assembly is provided on the front of the base component, multiple No. 1 hexagonal components are provided near the top of the No. 2 hexagonal components near the top of the door frame assembly, the No. 1 hexagonal components, the No. 2 hexagonal components and the base component form a hemispherical skeleton, a No. 1 trapezoidal component and a No. 2 trapezoidal component are provided between the No. 1 hexagonal component and the door frame assembly, a No. 1 pentagonal component is provided on the contact surface of the No. 1 trapezoidal component with the No. 1 hexagonal component and the No. 2 hexagonal component, the top of the door frame assembly is provided with a quadrilateral component, the top of the quadrilateral component is provided with a No. 2 pentagonal component, and both sides of the No. 2 pentagonal component are connected to the No. 1 hexagonal components.

[0006] In a preferred embodiment, the first pentagonal component is a regular pentagonal deformable structure, and the components of the first pentagonal component are all made of trapezoidal multi-cavity profiles with an included angle of 80 degrees by welding. The components of the first hexagonal component are made of two kinds of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees by welding.

[0007] In a preferred embodiment, the second hexagonal component is a regular hexagonal deformable structure, and the components of the second hexagonal component are assembled by welding trapezoidal multi-cavity profiles with an included angle of 78.4 degrees. The bottom enclosure component is an irregular pentagonal structure, and the components of the bottom enclosure component are assembled by welding two types of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees.

[0008] In a preferred embodiment, the first trapezoidal component is an isosceles trapezoidal structure, approximately half of the first hexagonal component. The components of the first trapezoidal component are assembled by welding together two types of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, as well as square tube profiles. The second trapezoidal component is an approximately right-angled trapezoidal structure, equivalent to half of the base component. The components of the second trapezoidal component are assembled by welding together two types of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, as well as square tube profiles.

[0009] In a preferred embodiment, the quadrilateral component is a rectangular structure, and the quadrilateral component is used to connect the second pentagonal component and the door frame assembly component. The components of the quadrilateral component are made of two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, which are welded together.

[0010] In a preferred embodiment, the second pentagonal component is a symmetrical structure. The second pentagonal component is used as a connecting structure for the transition from the spherical structure to the door frame assembly. The components of the second pentagonal component are made of two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, which are welded together.

[0011] In a preferred embodiment, the door frame assembly includes a first door frame assembly component and a mirror door frame assembly component connected to the spherical structure. The bottoms of the first door frame assembly component and the mirror door frame assembly component are connected by a sill beam, and the tops of the first door frame assembly component and the mirror door frame assembly component are connected by a second door frame assembly component.

[0012] Compared with the prior art, the beneficial effects of this utility model are:

[0013] The polygonal spherical glass room uses an aluminum alloy frame, which not only reduces the weight of the frame itself, but also reduces maintenance costs during use and extends its service life. It uses aluminum alloy extruded profiles and a new cross-section design to reduce the difficulty of parts processing, improve production efficiency, and reduce the amount of material bending deformation. In addition, the aluminum spherical structure can be customized with appropriate surface treatment methods according to the usage environment, which can improve the aesthetics of the product. Attached Figure Description

[0014] Fig. 1 This is a front view of the present invention;

[0015] Fig. 2 This is a front view of the door frame assembly.

[0016] In the diagram: 1. Pentagonal component No. 1; 2. Hexagonal component No. 1; 3. Hexagonal component No. 2; 4. Bottom enclosure component; 5. Trapezoidal component No. 1; 6. Trapezoidal component No. 2; 7. Pentagonal component No. 2; 8. Quadrilateral component; 9. Door frame assembly component; 9A. Door frame assembly component No. 1; 9B. Mirror door frame assembly component; 9C. Door frame assembly component No. 2; 9D. Threshold beam. Detailed Implementation

[0017] The present invention will be further described below with reference to the embodiments.

[0018] The following embodiments are used to illustrate the present invention, but should not be used to limit the scope of protection of the present invention. The conditions in the embodiments can be further adjusted according to specific conditions, and simple improvements to the method of the present invention under the premise of the concept of the present invention are all within the scope of protection claimed by the present invention.

[0019] Please see Figs. 1-2This utility model provides an aluminum alloy frame for a polygonal spherical glass room, including a base component 4. The base component 4 has an irregular pentagonal structure and is arranged in a circular pattern. A ring of No. 2 hexagonal components 3 is bolted to the top of the base component 4. A door frame assembly component 9 is provided on the front of the base component 4. Multiple No. 1 hexagonal components 2 are provided near the top of the No. 2 hexagonal components 3 on the door frame assembly component 9. The No. 1 hexagonal components 2, No. 2 hexagonal components 3, and base component 4 form a hemispherical skeleton. No. 1 trapezoidal components 5 and No. 2 trapezoidal components 6 are provided between the No. 1 hexagonal components 2 and the door frame assembly component 9. No. 1 pentagonal components are provided on the contact surfaces of the No. 1 trapezoidal components 5 with the No. 1 hexagonal components 2 and No. 2 hexagonal components 3. 1. The top of the door frame assembly component 9 is provided with a quadrilateral component 8, and the top of the quadrilateral component 8 is provided with a second pentagonal component 7. Both sides of the second pentagonal component 7 are connected to the first hexagonal component 2. The first pentagonal component 1 is a regular pentagonal structure. The components of the first pentagonal component 1 are all made of trapezoidal multi-cavity profiles with an included angle of 80 degrees, welded together. The components of the first hexagonal component 2 are made of two kinds of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, welded together. The second hexagonal component 3 is a regular hexagonal structure. The components of the second hexagonal component 3 are made of trapezoidal multi-cavity profiles with an included angle of 78.4 degrees, welded together. The bottom enclosure component 4 is an irregular pentagonal structure. The components of the bottom enclosure component 4 are made of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, welded together. Two types of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees are welded together. Trapezoidal component 5 is an isosceles trapezoidal structure, approximately half of hexagonal component 2. The components of trapezoidal component 5 are assembled from two types of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, as well as square tubular profiles, all welded together. Trapezoidal component 6 is an approximately right-angled trapezoidal structure, equivalent to half of the base component 4. The components of trapezoidal component 6 are assembled from two types of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, as well as square tubular profiles, all welded together. Quadrilateral component 8 is a rectangular structure and is used to connect pentagonal component 7 and the door frame assembly component 9. The components of quadrilateral component 8 are made from two types of trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees. Two trapezoidal multi-cavity profiles with an included angle of 78.4 degrees are welded together. Pentagonal component 7 is a symmetrical structure and serves as the connecting structure for the transition from the spherical structure to the door frame assembly component 9. The components of pentagonal component 7 are assembled from two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, welded together. The door frame assembly component 9 includes door frame assembly component 9A (first door frame assembly) and mirror door frame assembly component 9B, which are connected to the spherical structure. The bottoms of door frame assembly component 9A and mirror door frame assembly component 9B are connected by a threshold beam 9D, and the tops of door frame assembly component 9A and mirror door frame assembly component 9B are connected by door frame assembly component 9C (second door frame assembly). First, all the required polygonal components are prepared according to the design drawings.The structure includes a base frame component 4 (an irregular pentagonal structure), hexagonal component 3 (number two), hexagonal component 2 (number one), trapezoidal component 5 (number one), trapezoidal component 6 (number two), pentagonal component 1 (number one), quadrilateral component 8, pentagonal component 7 (number two), and door frame assembly component 9 (including door frame assembly component 9A (number one), mirrored door frame assembly component 9B (number two), door frame assembly component 9C (number two), and threshold beam 9D). The base frame components 4 are arranged in a circular array and bolted together to form the bottom frame of the spherical glass house. At the top of the base frame components 4, a ring of hexagonal components 3 (number two) is bolted to the design positions, laying the foundation for the subsequent hemispherical skeleton construction. At the top of the hexagonal components 3 (number two), multiple hexagonal components 2 (number one) are installed according to design requirements. Simultaneously, a... Trapezoidal component 5 and trapezoidal component 6 are connected to ensure that hexagonal component 2, hexagonal component 3, and base component 4 form a stable hemispherical frame. On the front of the hemispherical frame, the door frame assembly component 9 is installed, including door frame assembly component 9A, mirror door frame assembly component 9B, door frame assembly component 9C, and sill beam 9D, ensuring a secure connection between the door frame and the hemispherical frame. At the top of the door frame assembly component 9, a quadrilateral component 8 is installed, and a pentagonal component 7 is connected above it. The two sides of the pentagonal component 7 are connected to hexagonal component 2, forming a complete spherical structure. After all components are installed, a comprehensive inspection is conducted to ensure that each connection point is secure and reliable, and necessary adjustments are made as needed.

[0020] The use of polygonal components reduces the amount of frame material used, thereby lowering material, production, and transportation costs. The clever combination of polygonal components makes the overall frame structure more stable, able to withstand greater wind force and other external pressures, improving the safety performance of the spherical glass house. The lightweight and high-strength aluminum alloy frame makes installation and disassembly simpler and faster, reducing construction difficulty and costs. Aluminum alloy has excellent corrosion resistance, maintaining structural integrity for extended periods in harsh environments, reducing maintenance costs and shortening service life. The polygonal component design makes the spherical glass house more aesthetically pleasing, meeting modern aesthetic requirements and enhancing the overall quality of the building. Aluminum alloy is easily recyclable, meeting environmental protection requirements. Simultaneously, the spherical glass house design also provides excellent thermal insulation, reducing energy consumption.

[0021] The working principle and usage process of this utility model are as follows: First, prepare all the required polygonal components according to the design drawings, including the base component 4 (irregular pentagonal structure), hexagonal component 3 (number two), hexagonal component 2 (number one), trapezoidal component 5 (number one), trapezoidal component 6 (number two), pentagonal component 1 (number one), quadrilateral component 8, pentagonal component 7 (number two), and door frame assembly component 9 (including door frame assembly component 9A (number one), mirror door frame assembly component 9B (number two), door frame assembly component 9C (number two), and threshold beam 9D). Arrange the base components 4 in a circular arrangement and fix them together with bolts to form the bottom frame of the spherical glass room. On the top of the base components 4, bolt a ring of hexagonal components 3 according to the design position to lay the foundation for the subsequent construction of the hemispherical skeleton. On the top of the hexagonal components 3, according to the design... Multiple hexagonal components 2 (number 1) are required to be installed, with trapezoidal components 5 (number 1) and 6 (number 2) used for transitional connection to ensure that hexagonal components 2 (number 1), 3 (number 2), and the base component 4 can form a stable hemispherical frame. On the front of the hemispherical frame, the door frame assembly component 9 is installed, including door frame assembly component 9A (number 1), mirror door frame assembly component 9B (number 2), door frame assembly component 9C (number 2), and sill beam 9D, ensuring a firm connection between the door frame and the hemispherical frame. On the top of the door frame assembly component 9, a quadrilateral component 8 is installed, and a pentagonal component 7 (number 2) is connected above it. The two sides of the pentagonal component 7 are connected to the hexagonal components 2 (number 1) to form a complete spherical structure. After the installation of all components is completed, a comprehensive inspection is carried out to ensure that each connection point is firm and reliable, and necessary adjustments are made as needed.

[0022] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An aluminum alloy frame for a polygonal spherical glass room, comprising a base component (4), characterized in that: The bottom enclosure component (4) is an irregular pentagonal structure. The bottom enclosure component (4) is arranged in a circular pattern. A ring of No. 2 hexagonal components (3) is bolted to the top of the bottom enclosure component (4). A door frame assembly component (9) is provided on the front of the bottom enclosure component (4). Multiple No. 1 hexagonal components (2) are provided near the top of the No. 2 hexagonal components (3) near the top of the door frame assembly component (9). The No. 1 hexagonal components (2), the No. 2 hexagonal components (3) and the bottom enclosure component (4) form a hemispherical skeleton. A trapezoidal component (5) and a trapezoidal component (6) are provided between the hexagonal component (2) and the door frame assembly (9). A pentagonal component (1) is provided on the contact surface between the trapezoidal component (5) and the hexagonal component (2) and the hexagonal component (3). A quadrilateral component (8) is provided on the top of the door frame assembly (9). A pentagonal component (7) is provided on the top of the quadrilateral component (8). Both sides of the pentagonal component (7) are connected to the hexagonal component (2).

2. The aluminum alloy frame for a polygonal spherical glass room according to claim 1, characterized in that: The first pentagonal component (1) is a regular pentagonal deformation structure. The components of the first pentagonal component (1) are all made of trapezoidal multi-cavity profiles with an included angle of 80 degrees by welding. The components of the first hexagonal component (2) are made of two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees by welding.

3. The aluminum alloy frame for a polygonal spherical glass room according to claim 1, characterized in that: The second hexagonal component (3) is a regular hexagonal deformable structure. The components of the second hexagonal component (3) are made of trapezoidal multi-cavity profiles with an included angle of 78.4 degrees, which are welded together. The bottom component (4) is an irregular pentagonal structure. The components of the bottom component (4) are made of two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, which are welded together.

4. The aluminum alloy frame for a polygonal spherical glass room according to claim 1, characterized in that: The first trapezoidal component (5) is an isosceles trapezoidal structure, approximately half of the first hexagonal component (2). The components of the first trapezoidal component (5) are made of two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, as well as square tube profiles, which are welded together. The second trapezoidal component (6) is an approximately right-angled trapezoidal structure, equivalent to half of the bottom component (4). The components of the second trapezoidal component (6) are made of two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, as well as square tube profiles, which are welded together.

5. The aluminum alloy frame for a polygonal spherical glass room according to claim 1, characterized in that: The quadrilateral component (8) is a rectangular structure, and the quadrilateral component (8) is used to connect the second pentagonal component (7) and the door frame assembly component (9). The components of the quadrilateral component (8) are made of two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, which are welded together.

6. The aluminum alloy frame for a polygonal spherical glass room according to claim 1, characterized in that: The second pentagonal component (7) is a symmetrical structure. The second pentagonal component (7) is used as a connecting structure for the transition from the spherical structure to the door frame assembly component (9). The components of the second pentagonal component (7) are made of two trapezoidal multi-cavity profiles with included angles of 80 degrees and 78.4 degrees, which are welded together.

7. The aluminum alloy frame for a polygonal spherical glass room according to claim 1, characterized in that: The door frame assembly component (9) includes a first door frame assembly component (9A) and a mirror door frame assembly component (9B) connected to the spherical structure. The bottoms of the first door frame assembly component (9A) and the mirror door frame assembly component (9B) are connected by a threshold beam (9D), and the tops of the first door frame assembly component (9A) and the mirror door frame assembly component (9B) are connected by a second door frame assembly component (9C).

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