Archaistic roof tile decoration system
By optimizing the layout and welding fixation of the keel, combining the overlap design of the cylinder tiles and the plate tiles, and using aluminum alloy materials, the existing antique roof tiles have solved the problem of balance between structure, installation, waterproofing and aesthetics, and the roof is achieved with stable, convenient installation, excellent waterproofing and aesthetic effects.
Patent Information
- Application Number
- CN202421004849.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-05-10
- Publication Date
- 2025-03-14
- Estimated Expiration
- 2034-05-10
AI Technical Summary
When existing antique roof tiles are made of modern materials such as aluminum alloy, it is difficult to achieve the best balance between structural stability, installation convenience, waterproofing efficiency and appearance aesthetics, resulting in complex installation, high cost and insufficient waterproofing performance.
An antique roof tile decoration system was designed. By optimizing the layout and welding fixation of the main keel and the secondary keel, combining the clever overlap design of the cylinder tile and the plate tile, the installation process is simplified by self-tapping, and aluminum alloy material is used to replace traditional clay or stone.
It has achieved comprehensive improvements in the structural stability, installation convenience, waterproof performance and aesthetics of the roof, reduced maintenance costs and frequency, and adapted to the sustainable development needs of modern buildings.
Smart Images

Figure CN222614690U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of building engineering, in particular to an antique roof tile decoration system. Background Art
[0002] In the restoration of classical architecture and the emerging Chinese design trend, antique roof tiles are indispensable. As the highlight of architectural aesthetics, they bear the heavy responsibility of waterproofing and heat insulation of roofs. However, this field has long been limited by traditional materials. For example, clay and stone tiles can realistically reproduce the ancient charm, but due to their heavy weight, fragility, complicated installation and weathering characteristics under long-term exposure to the environment, maintenance costs have increased and eco-friendliness has decreased. In addition, their production process consumes a lot of energy, which is not conducive to environmental maintenance.
[0003] The evolution of building materials technology has led to changes. Lightweight and high-strength materials such as aluminum alloys have emerged and gradually penetrated into roof tile manufacturing. The application of these new materials significantly reduces the load on the roof, enhances durability, and facilitates industrial production and quick assembly. However, challenges also arise, that is, how to accurately capture and present the style and touch of ancient tiles when using modern materials such as aluminum alloys. This requires highly innovative design ideas and processing techniques to ensure that while recalling the ancient style, it meets the high standards of modern architecture for the comprehensive performance of the roof.
[0004] Although the development of aluminum alloy antique roof tiles has made some progress, the current solutions on the market still face several bottlenecks: the balance between structural stability, installation convenience, waterproof performance and appearance aesthetics has not yet reached the optimal level. Some designs are too complicated, resulting in longer installation cycles and increased costs; others may be too retro in appearance and ignore the structural firmness and waterproof effectiveness, highlighting the urgent need to seek a perfect fusion between respecting traditional aesthetics and meeting modern functional needs.
[0005] How to solve the above technical problems is the subject faced by the present utility model. Summary of the invention
[0006] In order to solve the shortcomings of the existing technology, the utility model provides a reasonably designed, safe and reliable antique roof tile decoration system, which realizes the perfect combination of tradition and modernity through technical innovations such as structural optimization, simplified installation, and aesthetic integration. It not only improves the practical function of the roof, but also meets the dual needs of traditional cultural inheritance and modern architectural aesthetics.
[0007] The technical solution adopted by the utility model to solve the technical problem is: an antique roof tile decoration system, comprising a plurality of main keels arranged on the roof and arranged parallel to the transverse purlins on the roof, a plurality of secondary keels are horizontally arranged on the main keels, and a group of tubular tiles is arranged on each of the secondary keels, and each group of tubular tiles includes a plurality of tubular tiles evenly arranged along the length direction of the secondary keels;
[0008] Several tubular tiles in each group of the tubular tiles are connected end to end in sequence, and the tubular tiles are provided with self-tapping threads connected to the secondary keel, a group of plate tiles is provided between two adjacent groups of the tubular tiles, and each group of plate tiles includes several plate tiles evenly arranged along the length direction of the secondary keel, and the plate tiles correspond to the tubular tiles one by one, and the two ends of the plate tiles are respectively connected to the tubular tiles.
[0009] Further, the cylindrical tile includes a cylindrical tile body, a stabilizing ring plate is arranged at the rear end of the cylindrical tile body, two rear end bases are symmetrically arranged on the stabilizing ring plate, a docking arc plate consistent with the curvature of the cylindrical tile body is arranged between the two rear end bases, a stabilizing plate connected to the docking arc plate is arranged on the rear end base, and a connecting threaded hole connected to the self-tapping screw is arranged on the rear end base;
[0010] When in use, the rear end base of one of the barrel tiles is located in the barrel tile body of the barrel tile that matches the rear end of the barrel tile.
[0011] Preferably, a lap groove is provided at the rear end of the tubular tile body, and a hooking folded edge cooperating with the lap groove is provided at the front end of the tubular tile body.
[0012] Furthermore, the tile includes a tile body, the top surface of which is arranged in a step shape, and connecting folded edges which overlap with the tubular tile body are arranged at both ends of the tile body; when in use, the connecting folded edges are in contact with the secondary keel, and the rear end base of the tubular tile is located above the connecting folded edges.
[0013] Preferably, a tile groove is provided at the rear end of the tile body, and an overlapping folded edge cooperating with the tile groove is provided at the front end of the tile body.
[0014] Preferably, staggered folds are provided at both ends of the tile body to cooperate with the connecting folds and to ensure smooth overlapping of the rear layers of the front and rear tiles.
[0015] Furthermore, the main keel is welded on the roof, and the secondary keel is welded on the secondary keel, and the secondary keel is welded in a direction perpendicular to the laying direction of the tiles, and the spacing between two adjacent secondary keels is consistent with the installation spacing of the tiles.
[0016] Furthermore, the main keel and the secondary keel are both made of galvanized steel pipes.
[0017] The utility model adopts aluminum alloy material to replace traditional clay, stone, etc., which significantly reduces the weight of the roof and reduces the burden on the building structure. At the same time, the corrosion resistance and weather resistance of aluminum alloy are extremely strong, which effectively prolongs the service life of roof tiles, reduces maintenance costs and frequency, and is more adapted to the sustainable development needs of modern buildings.
[0018] The utility model ensures the firmness and stability of the roof support system through the scientific layout and welding fixation of the main keel and the secondary keel. The clever overlap design of the barrel tile and the plate tile (the rear end base, the butt arc plate, and the hooking folding edge and the staggered folding edge of the plate tile) not only enhances the connection strength between the tiles, but also effectively improves the waterproof performance of the roof, prevents rainwater from penetrating, and ensures a dry and comfortable indoor environment.
[0019] The use of self-tapping screws in the utility model simplifies the installation process and can be quickly fixed without complicated tools, greatly improving construction efficiency, shortening construction period, and reducing labor costs. The standardized keel and tile design make the installation more standardized and easy to scale up, further saving the overall project cost.
[0020] While maintaining the appearance of antique roof tiles, the utility model not only reflects the charm of ancient buildings, but also incorporates modern aesthetic concepts through precise structural design, such as the eaves treatment of tiles and dripping shapes, thus improving the overall aesthetics of the building. Design details such as the inward folding edge also improve the wind resistance of the system, ensuring the safety of the roof under severe weather conditions.
[0021] The aluminum alloy material in the utility model has a high recycling rate, and is more energy-efficient than traditional materials such as clay and stone during production. The entire system design takes into account the efficient use of materials, reduces construction waste, and conforms to the development trend of green buildings. In addition, due to the clear system structure and the stable connection of each component, once individual damaged tiles need to be repaired or replaced, they can be quickly located and locally processed without large-scale disassembly, reducing the difficulty and cost of later maintenance. BRIEF DESCRIPTION OF THE DRAWINGS
[0022] Figure 1 It is the cross-section node intention of the utility model;
[0023] Figure 2 It is the longitudinal section node intention of the utility model;
[0024] Figure 3 It is a schematic diagram of the three-dimensional structure of the tubular tile of the utility model from the first viewing angle;
[0025] Figure 4It is a schematic diagram of the three-dimensional structure of the tubular tile of the utility model under the second viewing angle;
[0026] Figure 5 It is a schematic diagram of the three-dimensional structure of the tile of the utility model;
[0027] Among them, the accompanying drawings are marked as: 100, main keel; 200, secondary keel; 300, tubular tile; 310, tubular tile body; 320, stabilizing ring plate; 330, rear end base; 340, docking arc plate; 350, stabilizing plate; 360, overlapping groove; 370, hooking folded edge; 400, tile; 410, tile body; 420, connecting folded edge; 430, tile groove; 440, overlapping folded edge; 450, staggered folded edge; 500, self-tapping screw. Specific embodiments
[0029] See also Figures 1 to 5 As shown, an antique roof tile decoration system includes a plurality of main keels 100 arranged on the roof and arranged parallel to the transverse purlins on the roof, a plurality of secondary keels 200 are horizontally arranged on the main keels 100, and a group of tubular tiles 300 are arranged on each of the secondary keels 200, and each group of tubular tiles 300 includes a plurality of tubular tiles 300 evenly arranged along the length direction of the secondary keels 200;
[0030] Several tubular tiles 300 in each group of the tubular tiles 300 are connected end to end in sequence, and the tubular tiles 300 are provided with self-tapping screws 500 connected to the secondary keel 200, a group of plate tiles 400 is provided between two adjacent groups of the tubular tiles 300, and each group of plate tiles 400 includes several plate tiles 400 evenly arranged along the length direction of the secondary keel 200, and the plate tiles 400 correspond to the tubular tiles 300 one by one, and the two ends of the plate tiles 400 are respectively connected to the tubular tiles 300.
[0031] Specifically, the core of the aluminum alloy antique roof tile decoration system lies in the design of its main keel 100 and secondary keel 200. The main keel 100 is parallel to the transverse purlins on the roof and serves as the installation base of the entire roof tile system. The secondary keel 200 is horizontally arranged on the main keel 100 to provide support for the barrel tile 300 and the plate tile 400 to ensure that the tiles are evenly distributed along the roof.
[0032] Among them, the tubular tile 300 and the plate tile 400 are the basic units constituting the roof tile decoration system. The tubular tile 300 is connected to the secondary keel 200 through the self-tapping screw 500 to form a continuous tubular tile 300 group, and the adjacent tubular tiles 300 are connected end to end, which enhances the overall stability. The plate tile 400 group is located between the adjacent tubular tile 300 groups, corresponding to and connected to the tubular tile 300 one by one, forming a complete roof tile decoration layer.
[0033] Furthermore, the cylindrical tile 300 includes a cylindrical tile body 310, a stabilizing ring plate 320 is provided at the rear end of the cylindrical tile body, two rear end bases 330 are symmetrically provided on the stabilizing ring plate 320, a docking arc plate 340 having the same curvature as the cylindrical tile body 310 is provided between the two rear end bases 330, a stabilizing plate 350 connected to the docking arc plate 340 is provided on the rear end base 330, and a connecting threaded hole connected to the self-tapping screw 500 is provided on the rear end base 330;
[0034] When in use, the rear end base 330 of one of the barrel tiles 300 is located in the barrel tile body 310 of the barrel tile 300 that matches the rear end of the barrel tile 300 .
[0035] Preferably, a lap groove 360 is provided at the rear end of the tubular tile body, and a hooking fold 370 cooperating with the lap groove 360 is provided at the front end of the tubular tile body.
[0036] Specifically, the design of the stabilizing ring plate 320 and the rear base 330 at the rear end of the barrel tile body 310, as well as the docking arc plate 340 with the same curvature as the barrel tile 300, together enhance the structural stability of the barrel tile 300. The connecting threaded hole on the rear base 330 is used to connect with the self-tapping screw 500 to ensure that the barrel tile 300 is firmly fixed on the secondary keel 200. The overlapping groove 360 and the hooking fold 370 design of the barrel tile 300 and the plate tile 400 realize the close overlap between the tiles, effectively prevent rainwater penetration, and enhance the waterproof performance of the roof.
[0037] Furthermore, the tile 400 includes a tile body 410, the top surface of which is arranged in a step shape, and connecting folded edges 420 which overlap with the tubular tile body 310 are arranged at both ends of the tile body 410; when in use, the connecting folded edges 420 are in contact with the secondary keel 200, and the rear end base 330 of the tubular tile is located above the connecting folded edges 420.
[0038] Preferably, a groove 430 of the tile 400 is provided at the rear end of the tile body 410 , and an overlapping folded edge 440 cooperating with the groove 430 of the tile 400 is provided at the front end of the tile body 410 .
[0039] Preferably, staggered folded edges 450 are provided at both ends of the tile body 410 to cooperate with the connecting folded edges 420 and to ensure that the front and rear tiles 400 overlap smoothly at the rear layer.
[0040] Specifically, the step layer on the curved surface of the tile body 410 increases the structural strength of the tile 400, and the connecting folded edges 420 at both ends of the tile 400 overlap with the cylindrical tile body 310 to ensure the stability of the installation. The tile groove 430 at the rear end of the tile 400 and the hooking folded edge 370 at the front end further enhance the waterproof performance of the tile 400.
[0041] Furthermore, the main keel 100 is welded on the roof, and the secondary keel 200 is welded on the secondary keel 200 , and the secondary keel 200 is welded along a direction perpendicular to the laying direction of the tile 400 , and the spacing between two adjacent secondary keels 200 is consistent with the installation spacing of the tile 400 .
[0042] Specifically, the secondary keels 200 are welded on the primary keels 100 in a direction perpendicular to the laying direction of the tiles 400 , and the spacing between them is consistent with the installation spacing of the tiles 400 , thereby ensuring the uniformity and integrity of the roof tile decoration system.
[0043] Furthermore, the main keel 100 and the secondary keel 200 are both made of galvanized steel pipes.
[0044] Specifically, the main keel 100 and the secondary keel 200 are made of galvanized steel pipes, which not only have high strength and corrosion resistance, but are also easy to weld and form, thus providing a solid foundation for the roof tile decoration system.
[0045] According to the above content, the operation steps of the technical solution are as follows:
[0046] The first step is the positioning of the roof tile system and the installation of the keel:
[0047] According to the shape and design requirements of the roof and the length of the roof tiles, accurate positioning is performed; the main keel 100 made of galvanized steel pipe is welded to ensure that it is parallel to the horizontal purlins on the roof; the secondary keel 200 is welded on the main keel 100 perpendicular to the laying direction of the roof tiles, and the spacing of the secondary keels 200 is consistent with the installation spacing of the roof tiles;
[0048] The second step is the preliminary laying of aluminum alloy tubular tiles 300 and plate tiles 400:
[0049] The laying starts from the lower part of the roof. First, the connecting folds 420 on both sides of a group of tubular tiles 300 are laid on the secondary keel 200. Then, the connecting folds 420 on both ends of the next group of tiles 400 are also laid on the adjacent secondary keel 200, and the hooking folds 370 of the next group of tiles 400 are hooked to the grooves 430 of the tiles 400 of the previous group of tiles 400, so that the front and rear tiles 400 are buckled. At the same time, the two ends of the previous group of tiles 400 are provided with staggered folds 450 to ensure that the surface of the front and rear tiles 400 is smooth and has no protrusions after overlapping.
[0050] The third step is to fix and connect the barrel tile 300:
[0051] The rear end base 330 of the tubular tile 300 is stacked above the connection fold 420 of the previous set of two side tiles 400. A self-tapping screw 500 is driven into the connection threaded hole on the upper part of the rear end base 330, and the self-tapping screw 500 is passed through the connection fold 420 of the two layers of tiles 400 below to be firmly connected to the secondary keel 200.
[0052] Step 4: Continue to lay and fix the barrel tile 300 and the plate tile 400:
[0053] According to the second step, continue to lay a new set of tiles 400 backwards. The front end hook folding edge 370 of the next set of tubular tiles 300 is laid on the overlapping groove 360 of the previous set of tubular tiles 300 to make the front and rear tubular tiles 300 buckle. Self-tapping screws 500 are applied again at the rear end base 330 of the new tubular tile 300 group, and the rear end base 330 and the folding edge of the lower tile 400 are fixed to the secondary keel 200.
[0054] Step 5: Repeat the installation until the roof construction is completed:
[0055] Repeat steps 2 to 4, and cycle through the above steps until the entire roof is laid. It is worth noting that the front end of the tubular tile 300 has inverted folds on both sides of the hook fold 370, which can be buckled with the two ends of the overlap groove 360 of the previous tubular tile 300 to increase wind resistance. The outermost layer of tubular tiles 300 and plate tiles 400 of the eaves can be specially designed into tile ridges and drip shapes.
[0056] Through this series of steps, the support frame composed of the primary and secondary keels 200 is first fixed on the roof. Then, the barrel tile 300 group and the plate tile 400 group are laid on the secondary keel 200 in sequence, and their hooking folding edges 370, overlapping grooves 360, connecting folding edges 420, staggered folding edges 450 and other structures are used to interlock and block each other to achieve a firm connection of the decorative layer. The self-tapping screw 500 on the rear end base 330 of the barrel tile 300 anchors the entire decorative layer on the secondary keel 200. Finally, the decorative layer presents the three-dimensional effect and simple beauty of the traditional tile roof.
[0057] Technical features not described in the present invention can be achieved through or by adopting existing technologies, and will not be elaborated here. Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples. Changes, modifications, additions or substitutions made by ordinary technicians in this technical field within the essential scope of the present invention should also fall within the scope of protection of the present invention.
Claims
1. An antique roof tile decoration system, characterized by: It comprises a plurality of main keels (100) arranged on a roof and arranged parallel to transverse purlins located on the roof, a plurality of secondary keels (200) being arranged horizontally on the main keels (100), and a group of tubular tiles (300) being arranged on each of the secondary keels (200), and each group of tubular tiles (300) comprising a plurality of tubular tiles (300) being evenly arranged along the length direction of the secondary keels (200); A plurality of tubular tiles (300) in each group of tubular tiles (300) are connected end to end in sequence, and a self-tapping screw (500) connected to the secondary keel (200) is provided on the tubular tile (300), a group of plate tiles (400) is provided between two adjacent groups of tubular tiles (300), and each group of plate tiles (400) includes a plurality of plate tiles (400) evenly arranged along the length direction of the secondary keel (200), and the plate tiles (400) correspond to the tubular tiles (300) one by one, and the two ends of the plate tiles (400) are respectively connected to the tubular tiles (300).
2. The antique roof tile decoration system according to claim 1, characterized in that: The cylindrical tile (300) comprises a cylindrical tile body (310), a stabilizing ring plate (320) is arranged at the rear end of the cylindrical tile body, two rear end bases (330) are symmetrically arranged on the stabilizing ring plate (320), a docking arc plate (340) having the same curvature as the cylindrical tile body (310) is arranged between the two rear end bases (330), a stabilizing plate (350) connected to the docking arc plate (340) is arranged on the rear end base (330), and a connecting threaded hole connected to the self-tapping screw (500) is arranged on the rear end base (330); When in use, the rear end base (330) of one of the cylindrical tiles (300) is located in the cylindrical tile body (310) of the cylindrical tile (300) that matches the rear end of the cylindrical tile (300).
3. The antique roof tile decoration system according to claim 2, characterized in that: A lap groove (360) is provided at the rear end of the tubular tile body, and a hooking folding edge (370) that cooperates with the lap groove (360) is provided at the front end of the tubular tile body.
4. The antique roof tile decoration system according to claim 2, characterized in that: The plate tile (400) comprises a plate tile body (410), the top surface of which is arranged in a step-like shape, and connecting folded edges (420) which overlap and cooperate with the tubular tile body (310) are arranged at both ends of the plate tile body (410); when in use, the connecting folded edges (420) are in contact with the secondary keel (200), and the rear end base (330) of the tubular tile is located above the connecting folded edges (420).
5. The antique roof tile decoration system according to claim 4, characterized in that: A tile (400) groove (430) is provided at the rear end of the tile body (410), and an overlapping folded edge (440) cooperating with the tile (400) groove (430) is provided at the front end of the tile body (410).
6. The antique roof tile decoration system according to claim 4, characterized in that: Both ends of the tile body (410) are provided with staggered folded edges (450) that cooperate with the connecting folded edges (420) and are used to ensure that the front and rear tiles (400) overlap smoothly with the rear layer.
7. The antique roof tile decoration system according to claim 1, characterized in that: The outermost layer of tubular tiles (300) of the eaves is provided with a tile head for accommodating a rear end base (330) and facilitating the closing of the eaves, and the front end surface of the outermost layer of plate tiles (400) of the eaves is provided with a drip tile piece for facilitating the closing of the eaves.
8. The antique roof tile decoration system according to claim 1, characterized in that: The main keel (100) is welded on the roof, and the secondary keel (200) is welded on the secondary keel (200), and the secondary keel (200) is welded in a direction perpendicular to the laying direction of the tile (400), and the spacing between two adjacent secondary keels (200) is consistent with the installation spacing of the tile (400).
9. The antique roof tile decoration system according to claim 1, characterized in that: The main keel (100) and the secondary keel (200) are both made of galvanized steel pipes.