A swimming pool assembled by SMC swimming pool plates
Patent Information
- Application Number
- CN202522539896.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-11-29
- Publication Date
- 2026-10-27
- Estimated Expiration
- 2035-11-29
AI Technical Summary
[0004]针对现有SMC材质拼装泳池存在的强度不足、拼接稳定性差、转角连接不稳固、密封效果不佳等问题，本实用新型提供一种SMC材质的泳池板拼装泳池，通过优化泳池板的加强结构、拼接结构、转角连接结构及紧固密封结构，提升拼装泳池的整体强度、拼接稳固性与密封性能
本实用新型通过加强筋的网格及斜撑结构，提升了泳池板的抗变形强度；等腰梯形的拼接凸台与拼接凹槽提升了拼接贴合度与稳定性；L型转角连接柱与拼接结构适配，保证了转角处的连接稳固性；“丰”字型连接板配合锁紧螺栓组件增强了紧固效果，压缩的橡胶密封条则提升了拼接处的密封性能，有效解决了现有结构的不足。
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Figure CN224902836U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of swimming pool construction technology, specifically a swimming pool device formed by assembling modular swimming pool panels made of SMC (sheet molding compound) material. Background Technology
[0002] SMC (Sheet Molding Compound) pool panels are modular pool panels made of sheet molding compound (SMC) as the main structural component. They are assembled into pool facilities that can be quickly built. Their core function is to overcome the limitations of traditional concrete pools, such as long construction cycles, heavy weight, and poor site adaptability. With the lightweight, weather-resistant, and easy-to-mold properties of SMC material, pools can be flexibly arranged and quickly assembled and disassembled in different sites. They are widely used in scenarios such as family leisure and small commercial leisure venues where pool construction efficiency and site compatibility are required.
[0003] Existing SMC (Self-Made Injection Molding) pool panels typically employ a single-direction strip-shaped reinforcing rib structure. Joints are usually simple flat bonding or a single straight-line interlocking joint. Corner connections often rely on ordinary right-angle metal connectors secured with a single set of bolts, and sealing at the joints is usually achieved by applying sealant. However, this structure has significant shortcomings: the single strip-shaped reinforcing rib has limited support strength, making the panels prone to deformation under water pressure after the pool is filled; the simple splicing structure lacks proper fit, easily creating gaps that can loosen over time; ordinary right-angle connectors have poor compatibility with the pool panels, resulting in weak structural stability at corners; and the applied sealant is prone to cracking and peeling due to panel deformation and environmental aging, leading to low sealing reliability. Furthermore, the single-bolt tightening method cannot evenly distribute stress at the joints, further increasing the risk of loosening and making it difficult to guarantee the long-term safety and sealing of the pool. Utility Model Content
[0004] To address the problems of insufficient strength, poor splicing stability, unstable corner connections, and poor sealing performance in existing SMC material prefabricated swimming pools, this utility model provides a prefabricated swimming pool with SMC material panels. By optimizing the reinforcing structure, splicing structure, corner connection structure, and fastening and sealing structure of the pool panels, the overall strength, splicing stability, and sealing performance of the prefabricated swimming pool are improved.
[0005] To solve the above technical problems, the present utility model provides the following technical solution: the swimming pool comprises a plurality of SMC swimming pool plate bodies, splicing portions, corner connecting columns, fastening assemblies and sealing assemblies; reinforcing ribs are integrally formed on the side of each SMC swimming pool plate body facing away from the inner side of the swimming pool; the splicing portions are arranged at the splicing side edges of the SMC swimming pool plate bodies, at least one splicing side edge of each SMC swimming pool plate body is provided with a continuous splicing boss, and the opposite side edge is provided with a continuous splicing groove, the splicing boss is fittingly engaged with the splicing groove of the adjacent SMC swimming pool plate body; the corner connecting column is an L-shaped integrally formed structure, the clamping portions on its two vertical side walls are respectively correspondingly clamped with the splicing boss and the splicing groove of the adjacent swimming pool plate and fixed by the fastening assembly; an engagement groove is opened between the splicing boss and the splicing groove, the fastening assembly comprises a "丰"-shaped connecting plate corresponding to the engagement groove and a locking bolt assembly penetrating through the connecting plate, through mounting holes are opened at the corresponding positions of the splicing boss and the splicing groove, and the locking bolt assembly sequentially passes through the mounting holes of the adjacent plate bodies; the sealing assembly is a long strip-shaped rubber sealing strip, which is compressed between the engagement groove and the fastening assembly.
[0006] Compared with the prior art, the one or more technical solutions provided in the embodiments of the present application at least have the following technical effects or advantages: According to the present utility model, the grid and diagonal bracing structure of the reinforcing ribs improves the deformation resistance strength of the swimming pool plate; the isosceles trapezoidal splicing boss and splicing groove improve the splicing fit degree and stability; the L-shaped corner connecting column is adapted to the splicing structure, ensuring the connection stability at the corner; the "丰"-shaped connecting plate matched with the locking bolt assembly enhances the fastening effect, and the compressed rubber sealing strip improves the sealing performance at the splicing position, effectively solving the deficiencies of the existing structure.
[0007] Other advantages, objects and features of the present utility model will be set forth to some extent in the following specification, and to some extent, will be apparent to those skilled in the art based on the investigation and study of the following text, or can be learned from the practice of the present utility model. Brief Description of the Drawings
[0008] Figure 1 is a partial schematic view of the splicing state of the SMC swimming pool plate assembled swimming pool according to the present utility model; Figure 2 is an exploded schematic view of the swimming pool plate body of the SMC swimming pool plate assembled swimming pool according to the present utility model; Figure 3 is a mounting schematic view of the fastening assembly and the splicing boss portion of the SMC swimming pool plate assembled swimming pool according to the present utility model; Figure 4 is a schematic view of the splicing groove portion and the engagement groove of the SMC swimming pool plate assembled swimming pool according to the present utility model; Figure 5This is a schematic diagram showing the fitting state of the splicing groove and splicing boss of a pool panel made of SMC material according to this utility model. Figure 6 This is a three-dimensional schematic diagram of the corner connecting column of a swimming pool assembled with SMC material swimming pool panels according to this utility model.
[0009] As shown in the figure: 1. SMC pool panel body; 2. Splicing section; 3. Corner connecting column; 4. Fastening assembly; 5. Sealing assembly; 6. Reinforcing rib; 7. Splicing boss; 8. Splicing groove; 9. Fitting groove; 10. Connecting plate; 11. Locking bolt assembly. Detailed Implementation
[0010] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.
[0011] It should be noted that the terms "vertical," "horizontal," "up," "down," "left," "right," and similar expressions used in this article are for illustrative purposes only and do not represent the only possible implementation.
[0012] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains; the terminology used herein in the description of this invention is for the purpose of describing particular embodiments only and is not intended to limit the invention; the term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.
[0013] like Figure 1As shown, several SMC pool panel bodies 1 are assembled by splicing parts 2. The side of the SMC pool panel body 1 facing away from the inner side of the pool is integrally formed with reinforcing ribs 6. The reinforcing ribs 6 include longitudinal ribs extending along the height direction of the SMC pool panel body 1 and transverse ribs extending along the length direction of the splicing side. The longitudinal ribs and transverse ribs are perpendicular to each other to form several rectangular grid structures, and each rectangular grid structure is integrally formed with a set of diagonal bracing ribs connecting opposite vertices. The continuous splicing boss 7 on the splicing side of each SMC pool panel body 1 is adapted to fit into the continuous splicing groove 8 on the opposite side of the adjacent SMC pool panel body 1. The corner connecting column 3 has an L-shaped structure, and its two mutually perpendicular side walls are respectively engaged with the splicing boss 7 and splicing groove 8 of the two adjacent SMC pool panel bodies 1 through snap-fit grooves and snap-fit platforms, and are fixed through fastening components 4. The key to implementation is ensuring that the splicing boss 7 and the sidewalls and end faces of the splicing groove 8 are completely fitted during splicing, and that the snap-fit part of the corner connecting column 3 is precisely aligned with the splicing structure of the pool panel. The innovation lies in designing the reinforcing rib 6 as a composite structure of "grid + diagonal brace," while simultaneously ensuring a compatible snap-fit between the corner connecting column 3 and the main splicing structure of the pool panel. From a beneficial perspective, the longitudinal and transverse ribs of the reinforcing rib 6 work synergistically with the diagonal brace ribs to distribute the water pressure on the pool panel to multiple triangular support units, significantly improving its resistance to deformation and solving the problem of insufficient strength in traditional single flat panel structures. The compatible snap-fit between the corner connecting column 3 and the splicing boss 7 and splicing groove 8 ensures more even stress distribution at the corners, avoiding the loosening problem caused by poor compatibility between traditional corner bracket connectors and the panel body, thus guaranteeing the stability of the overall splicing structure.
[0014] like Figure 2As shown, a plurality of SMC swimming pool panel bodies 1 are of independent modular structure. At least one splicing side edge of each SMC swimming pool panel body 1 is provided with a continuous long-strip-shaped splicing boss 7 along the length direction, and the other splicing side edge opposite to said splicing side edge is provided with a continuous long-strip-shaped splicing groove 8. The cross section of the splicing boss 7 is an isosceles trapezoid with the width gradually decreasing in the direction away from the SMC swimming pool panel body 1, and the cross section of the splicing groove 8 is an isosceles trapezoidal groove adapted to the splicing boss 7. A side of each SMC swimming pool panel body 1 facing away from the inner side of the swimming pool is integrally formed with reinforcing ribs 6, and the longitudinal ribs and transverse ribs of the reinforcing ribs 6 enclose to form a rectangular grid structure, wherein diagonal bracing ribs in the grid connect the diagonal vertices to form triangular support units. The key point of implementation is to ensure that the dimensional accuracy of the splicing bosses 7 and splicing grooves 8 of each SMC swimming pool panel body 1 is consistent, and there are no defects such as bubbles or material shortage when the reinforcing ribs 6 are integrally formed with the panel body. The innovation is reflected in the adoption of standardized and modular swimming pool panel design, while the reinforcing ribs 6 and the panel body are integrally formed and optimized into a composite support structure. In terms of beneficial effects, the modular design facilitates mass production, transportation and on-site assembly of the swimming pool panels, and reduces the construction difficulty; the integrally formed structure of the reinforcing ribs 6 and the panel body avoids strength loss caused by subsequent welding or bonding, and the triangular support units further improve the bending resistance of the panel body, solving the problems that the strength of traditional swimming pool panels depends on thickness, resulting in material waste and poor deformation resistance effect.
[0015] As Figure 3 shown, the splicing boss 7 is provided with a plurality of fitting grooves 9 at intervals along the height direction of the SMC swimming pool panel body 1. The fitting grooves 9 are opened along the thickness direction of the SMC swimming pool panel body 1, and through mounting holes are opened at positions corresponding to the fitting grooves 9. The sealing assembly 5 is a long-strip-shaped rubber sealing strip adapted to the shape of the fitting groove 9, which is placed in the fitting groove 9, and the thickness of the rubber sealing strip is greater than the difference between the depth of the fitting groove 9 and the thickness of the connecting plate 10. The fastening assembly 4 includes a Chinese character "丰"-shaped connecting plate 10 and a locking bolt assembly 11. The connecting plate 10 is attached to the outer side of the splicing boss 7. The locking bolt assembly 11 sequentially passes through the mounting hole of the splicing groove 8, the sealing assembly 5, and the mounting hole of the splicing boss 7 of the adjacent SMC swimming pool panel body 1, and then is screwed and fixed with the connecting plate 10. The key point of implementation is to ensure coaxiality when installing the locking bolt assembly 11, and the sealing assembly 5 needs to completely cover the inner wall of the fitting groove 9. The innovation lies in the corresponding matching of the Chinese character "丰"-shaped connecting plate 10 and the fitting groove 9, and the sealing assembly 5 is pre-placed in the fitting groove 9. In terms of beneficial effects, compared with the traditional flat connecting plate, the Chinese character "丰"-shaped connecting plate 10 increases the contact area with the splicing boss 7, so that the locking force is more evenly dispersed, and panel damage caused by local stress concentration is avoided; the fitting groove 9 provides a precise installation space for the sealing assembly 5 and the fastening assembly 4, ensuring that the sealing assembly 5 does not shift during the fastening process, and solving the problems of water leakage and loose connection caused by uneven stress of the traditional fastening structure and easy misalignment of the sealing member.
[0016] As Figure 4 As shown, the splicing groove 8 is a continuous isosceles trapezoidal groove structure along the length of the splicing side of the SMC pool panel body 1, and its sidewall is adapted to the sidewall of the splicing boss 7. The splicing groove 8 has several fitting grooves 9 along the thickness direction of the SMC pool panel body 1. These fitting grooves 9 extend through the height direction of the pool panel body 1, and each fitting groove 9 has a corresponding through mounting hole adapted to the locking bolt assembly 11. The diameter of the mounting hole is clearance-fitted with the bolt diameter of the locking bolt assembly 11. Key implementation points are that the isosceles trapezoidal slope of the splicing groove 8 is consistent with that of the splicing boss 7, and the depth and width of the fitting grooves 9 must be adapted to the thickness of the sealing assembly 5 and the connecting plate 10. The innovation lies in the isosceles trapezoidal structure design of the splicing groove 8 and the coordinated layout of the through fitting grooves 9 and the mounting holes. In terms of beneficial effects, the isosceles trapezoidal splicing groove 8 forms a "wedge" fit when the splicing boss 7 is engaged, improving the tightness of the fit after splicing and reducing gaps; the through-type fitting groove 9 facilitates the installation of fastening components 4 from any position along the height of the pool board, adapting to the assembly needs of pools of different heights and solving the problems of poor fit and limited installation position of fastening components in traditional splicing structures.
[0017] like Figure 5 As shown, the splicing boss 7 is fitted into the splicing groove 8 of the adjacent SMC pool panel body 1. The isosceles trapezoidal protrusion of the cross-section of the splicing boss 7 perfectly matches the isosceles trapezoidal groove of the splicing groove 8. The side walls and end faces of both are tightly fitted without any obvious gaps. The fitting groove 9 on the splicing boss 7 and the fitting groove 9 on the splicing groove 8 are completely aligned after fitting, forming a continuous installation groove. The sealing component 5 is placed in the aligned fitting groove 9, with its two sides contacting the walls of the fitting groove 9 of the splicing boss 7 and the splicing groove 8, respectively. The key point of implementation is that the splicing boss 7 and the splicing groove 8 need to be slowly aligned during the fitting process to ensure that the end faces are flush and the side walls are fitted. The innovation lies in achieving full contact surface fitting of the splicing boss 7 and the splicing groove 8, while making the fitting groove 9 form a unified installation space. In terms of beneficial effects, the full contact surface bonding greatly increases the sealing area at the splice. Combined with the compression sealing of the subsequent sealing component 5, it provides double protection for the waterproof performance of the splice and solves the problem of large gaps and easy leakage in traditional single protrusion-groove splicing. The aligned fitting groove 9 provides a coaxial installation reference for the fastening component 4, ensuring that the locking bolt component 11 is subjected to balanced force and further improving the splicing stability.
[0018] like Figure 6As shown, the corner connecting column 3 is an L-shaped integrally formed structure, which is made of SMC material by synchronous molding with the SMC pool plate body 1; its two mutually perpendicular side walls are respectively a first connecting wall and a second connecting wall, the inner side of the first connecting wall is provided with a clamping groove adapted to the splicing boss 7, and the cross section of the clamping groove is an isosceles trapezoid, which is consistent with the outer shape of the splicing boss 7; the outer side of the second connecting wall is provided with a clamping platform adapted to the splicing groove 8, and the cross section of the clamping platform is an isosceles trapezoid, which is adapted to the inner shape of the splicing groove 8; positions corresponding to the embedding grooves 9 on the first connecting wall and the second connecting wall are both provided with through mounting holes for passing through the locking bolt assembly 11.
[0019] To make the application scenarios of the utility model and the actual function of each structure clearer, the linkage installation details with the prior art devices and the use state of each structure are described below in combination with different use situations: Scenario 1: Construction of a small rectangular swimming pool in a home courtyard The home courtyard site is usually a regular rectangle with a limited area, which requires rapid assembly and convenient later maintenance. During construction, the existing laser leveler is first used to level the courtyard ground, and then the existing HDPE waterproof cushion layer is laid. A number of SMC pool plate bodies 1 are arranged according to the designed size, and the reinforcing ribs 6 of each SMC pool plate body 1 facing away from the inner side of the pool are in direct contact with the waterproof cushion layer. Its "grid + diagonal brace" structure can disperse the self-weight of the plate body, avoiding the ground depression problem caused by local compression of traditional flat pool plates. Adjacent pool plates are butted through the splicing part 2: the splicing boss 7 (isosceles trapezoidal protrusion) on one side is aligned with the splicing groove 8 (isosceles trapezoidal groove) on the other side and pushed slowly until the side walls and end faces of the two are completely attached to form preliminary positioning; at this time, the embedding grooves 9 on the splicing boss 7 and the splicing groove 8 are precisely aligned, the long strip-shaped rubber sealing strip (sealing assembly 5) is embedded into the aligned embedding grooves 9, then the "丰"-shaped connecting plate 10 (fastening assembly 4) is attached to the outer side of the splicing boss 7, the existing electric screwdriver is used to drive the locking bolt assembly 11 to sequentially pass through the mounting hole of the splicing groove 8, the sealing assembly 5, the mounting hole of the splicing boss 7 and the connecting plate 10, and finally the lock nut is tightened to complete the straight section splicing. The L-shaped corner connecting column 3 is used at the corner, the clamping groove of its first connecting wall is clamped with the splicing boss 7 of the pool plate on one side, and the clamping platform of its second connecting wall is clamped with the splicing groove 8 of the pool plate on the other side, and the above fastening steps are repeated to realize a stable corner connection. The whole process does not need the formwork supporting and curing procedures of traditional concrete pouring, and can be completed with the help of existing basic tools. The construction period is shortened by 40% compared with the traditional assembled swimming pool, and the reinforcing ribs 6 improve the overall water pressure deformation resistance of the swimming pool, which is suitable for long-term use at home.
[0020] Scenario 2: Construction of a temporary special-shaped swimming pool for commercial activities Commercial events (such as exhibitions and music festivals) often require the temporary erection of special-shaped swimming pools (such as L-shaped and arc-shaped combinations), which requires the device to feature flexible assembly and quick disassembly and assembly. Before construction, existing site measuring tools are used to determine the special-shaped contour, and the standard SMC swimming pool plate body 1 of the present utility model is used in cooperation with the customized corner connecting column 3. For the arc transition section, the arc fine adjustment is performed on the splicing side edge of part of the SMC swimming pool plate body 1 by using existing cutting equipment (ensuring that the isosceles trapezoidal structures of the splicing boss 7 and the splicing groove 8 remain unchanged). During splicing, the splicing boss 7 can still achieve sidewall fitting with the splicing groove 8 of the adjacent plate body, solving the problem that traditional straight-edge swimming pool plates cannot flexibly adapt to special-shaped contours. In addition to the standard L-shape, the corner connecting column 3 can be customized to non-right-angle structures such as 135° and 45° according to the special-shaped angle, and its clamping groove and clamping table still maintain adaptability to the splicing boss 7 and the splicing groove 8, ensuring consistent force transmission at corners of different angles. The "丰"-shaped connecting plate 10 of the fastening assembly 4 can adapt to the tiny gap after arc splicing through existing adjusting gaskets to ensure uniform locking force; the rubber sealing strip of the sealing assembly 5, due to its elasticity, can be compressed following the tiny deformation generated by arc splicing to maintain the sealing effect. After the event, the locking bolt assembly 11 is loosened using an existing wrench, so that the swimming pool plate body 1 and the corner connecting column 3 can be disassembled in sequence. All components can be folded for storage, reducing transportation costs by 30% compared with traditional temporary swimming pools. Moreover, due to the corrosion resistance of the SMC material, the components can be reused in different event sites after simple cleaning.
[0021] Scenario 3: Multi-level swimming pool erection for outdoor homestays To enhance the experience, outdoor guesthouses often design multi-level (such as tiered) swimming pools, requiring the pool structure to have certain load-bearing and anti-slip properties. During construction, a tiered support platform is first poured using the existing concrete foundation. Then, the SMC pool slab body 1 of this invention is laid on the support platform. Reinforcing ribs 6 are fixed to the surface of the support platform using existing expansion bolts. The composite support structure formed by its longitudinal, transverse, and diagonal ribs evenly transfers the water pressure and human load from the upper pool to the support platform, avoiding the breakage problem caused by concentrated loads in traditional pool slabs. At the joints between multiple levels, an extended corner connecting column 3 is used, its height adapted to the level height. One side engages with the splicing groove 8 of the upper pool slab, and the other side engages with the splicing protrusion 7 of the lower pool slab. These are locked together by fastening components 4, forming an integrated connection between the upper and lower pool levels and the corner column, solving the problems of easy leakage and loose structure at the joints of traditional multi-level pools. The sealing component 5 at the joint uses existing aging-resistant rubber material, which can maintain its compression under outdoor temperature changes, preventing rainwater from seeping into the support platform; the inner side of the SMC pool panel 1 can be covered with existing anti-slip stickers, which work synergistically with the wear-resistant properties of the SMC material to improve the anti-slip effect. In the entire multi-level pool construction, the modular structure of this device allows each level to be assembled independently, making it easy to adjust the level height and size according to the design requirements of the guesthouse. If additional levels are needed later, only the corresponding pool panels and corner connecting columns need to be added, making it more scalable than traditional monolithic cast-in-place pools.
[0022] Although the present invention has been disclosed above with reference to preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make various modifications and alterations without departing from the spirit and scope of the present invention. Therefore, the scope of protection of the present invention should be determined by the claims.
Claims
1. A pool assembled from SMC material pool panels, characterized in that, It includes several SMC pool panels (1), splicing parts (2), corner connecting columns (3), fastening components (4) and sealing components (5); The SMC pool panel body (1) has a reinforcing rib (6) integrally formed on the side facing away from the inside of the pool. The splicing part (2) is provided on the splicing side of the SMC pool panel body (1). Each SMC pool panel body (1) has at least one splicing side with a continuous splicing protrusion (7) and another splicing side opposite to the splicing side with a continuous splicing groove (8). The splicing protrusion (7) is adapted to the splicing groove (8) of the adjacent SMC pool panel body (1) and can be fitted and connected. The two ends of the corner connecting column (3) are respectively engaged with the splicing boss (7) and the splicing groove (8) and are fixedly connected by the fastening assembly (4); The splicing boss (7) and splicing groove (8) are provided with a plurality of fitting grooves (9) along the height direction of the SMC pool board body (1). The fastening component (4) and the fitting groove (9) are engaged accordingly. The sealing component (5) is located between the fitting groove (9) and the fastening component (4).
2. The SMC material pool panel assembly pool according to claim 1, characterized in that: The reinforcing rib (6) includes longitudinal ribs and transverse ribs that are perpendicular to each other. The longitudinal ribs extend along the height direction of the SMC pool board body (1), and the transverse ribs extend along the length direction of the spliced side of the pool board. The two together form a number of rectangular grid structures. The rectangular grid structures are integrally formed with diagonal bracing ribs, and the diagonal bracing ribs connect a set of diagonal vertices of the rectangular grid structures.
3. The SMC material pool panel assembly pool according to claim 1, characterized in that: The splicing boss (7) is a continuous long strip protrusion along the length direction of the splicing side of the SMC pool panel body (1), and its cross-section is an isosceles trapezoid. The width of the splicing boss (7) gradually decreases in the direction away from the SMC pool panel body (1). The cross-section of the splicing groove (8) is an isosceles trapezoidal groove that matches the splicing boss (7). When the splicing boss (7) is fitted into the splicing groove (8) of the adjacent SMC pool panel body (1), the side walls and end faces of both are completely fitted.
4. A pool assembled with SMC material pool panels according to claim 1, characterized in that: The corner connecting column (3) is an L-shaped integral structure with two mutually perpendicular side walls respectively provided with snap-fit parts: one side wall is provided with a snap-fit groove adapted to the splicing boss (7), and the other side wall is provided with a snap-fit platform adapted to the splicing groove (8); the corner connecting column (3) is engaged with the splicing boss (7) of one SMC pool board body (1) through the snap-fit groove, and at the same time engaged with the splicing groove (8) of another SMC pool board body (1) through the snap-fit platform.
5. A pool assembled with SMC material pool panels according to claim 1, characterized in that: The fitting groove (9) is uniformly opened along the thickness direction of the SMC pool panel body (1) and penetrates the SMC pool panel body (1) along the height direction of the SMC pool panel body (1).
6. A pool assembled with SMC material pool panels according to claim 1, characterized in that: The fastening assembly (4) comprises a "Chinese character feng" shaped connection plate (10) corresponding to the fitting groove (9), and a locking bolt assembly (11) penetrating through the connection plate (10). The positions of the splicing boss (7) and the splicing groove (8) corresponding to the fitting groove (9) are both provided with through mounting holes corresponding to the locking bolt assembly (11). The locking bolt assembly (11) sequentially passes through the mounting hole of the splicing groove (8) of the adjacent SMC swimming pool plate body (1), the sealing assembly (5), and the mounting hole of the splicing boss (7) for installation.
7. A pool assembled with SMC material pool panels according to claim 6, characterized in that: The sealing assembly (5) is a long rubber sealing strip adapted to the shape of the fitting groove (9), and the thickness of the rubber sealing strip is greater than the difference between the depth of the fitting groove (9) and the thickness of the connection plate (10). When the fastening assembly (4) is locked, the rubber sealing strip is compressed between the fitting groove (9) and the fastening assembly (4), and its two sides are in close contact with the wall surfaces of the splicing boss (7) and the splicing groove (8) respectively.