Mounting connection structure and graphite plate

Abstract

The utility model relates to a mounting and connecting structure and a graphite plate. The mounting and connecting structure comprises a splicing unit, a plurality of clamping units and a plurality of locking units. The graphite plate splicing device has the advantages that the splicing units are arranged on the graphite plates needing to be laid, and splicing reference can be provided for the adjacent graphite plate units. Installation personnel only need to align the graphite plate units with the splicing units for splicing, repeated measurement and position correction are not needed, the installation time is greatly shortened, compared with a traditional manual correction mode, the construction efficiency is improved, and the method is particularly suitable for large-area laying projects; and by utilizing the clamping design of the clamping units and the graphite plate units, the installation process is simpler. During installation, the clamping units and the graphite plate units are directly clamped, operation is easy and convenient, complex tools and skills are not needed, the installation difficulty is reduced, the requirement for professional skills of constructors is lowered, meanwhile, position deviation caused by improper installation is reduced, and the correction process is further simplified.

Description

Technical Field

[0001] This utility model relates to the technical field of graphite plate splicing, and in particular to an installation connection structure and a graphite plate. Background Technology

[0002] Graphite board is an industrial material. Made of graphite, it has a dark gray color. Its outstanding thermal insulation properties make it an ideal choice for industrial insulation, effectively preventing heat loss, maintaining a stable temperature field in high-temperature environments, and reducing energy consumption.

[0003] Currently, graphite boards are used as heating elements in underfloor heating systems. Graphite underfloor heating boards have advantages such as rapid heating, high thermal efficiency, energy saving, and environmental friendliness, providing a comfortable indoor heating environment. Currently, graphite boards are glued to the substrate surface during installation using adhesives. The position of the graphite boards needs to be corrected during installation to prevent gaps between adjacent boards, which could affect insulation performance. However, in actual construction, it is crucial to balance the quality of the graphite board positioning with construction efficiency. Frequent positioning increases construction time and cost; but neglecting the quality of positioning in pursuit of speed will compromise insulation performance. Therefore, finding a balance between these two factors places high demands on the organization and management capabilities of the construction team.

[0004] Currently, no effective solution has been proposed to address the problems of cumbersome graphite plate calibration and its impact on insulation performance in related technologies. Utility Model Content

[0005] The purpose of this utility model is to address the shortcomings of existing technologies by providing an installation connection structure and a graphite plate, thereby solving the problems of cumbersome graphite plate calibration and its impact on insulation performance in related technologies.

[0006] To achieve the above objectives, the technical solution adopted by this utility model is as follows:

[0007] In a first aspect, an installation connection structure is provided for splicing graphite plates, comprising:

[0008] A splicing unit, wherein the splicing unit is disposed at one corner of a corresponding graphite plate;

[0009] A plurality of snap-fit ​​units are movably disposed in the splicing unit and snap-fit ​​with corresponding graphite plates respectively, for snap-fitting graphite plates;

[0010] A plurality of locking units are provided, each of which is connected to a corresponding snap-fit ​​unit and a graphite plate, for limiting the movement of the snap-fit ​​unit.

[0011] In some embodiments, the splicing unit includes:

[0012] A splicing element, wherein the splicing element is disposed at one corner of a corresponding graphite plate;

[0013] The first docking element is disposed at the bottom end of the splicing element and is docked with the corresponding graphite plate;

[0014] A plurality of sliding groove elements are distributed on the top of the splicing element and are slidably connected to the corresponding snap-fit ​​unit respectively;

[0015] A plurality of limiting elements are respectively disposed on the inner side of the corresponding slide element and respectively connected to the corresponding snap-fit ​​unit for limiting and preventing the snap-fit ​​unit from disengaging from the slide element.

[0016] In some embodiments, the splicing unit further includes:

[0017] A plurality of first abutting elements are respectively disposed on the inner side of the corresponding sliding groove element and respectively located below the corresponding limiting element, and respectively abutting against the corresponding snap-fit ​​unit.

[0018] In some embodiments, the snap-fit ​​unit includes:

[0019] The first snap-fit ​​element is movably disposed in the splicing unit and snaps into the corresponding graphite plate for snapping into the graphite plate.

[0020] A through-slot element, which passes through the first snap-fit ​​element, is used for the locking unit to pass through.

[0021] In some embodiments, the snap-fit ​​unit further includes:

[0022] The second abutting element is disposed on the outside of the first snap-fit ​​element and abuts against the splicing unit.

[0023] In some embodiments, the locking unit includes:

[0024] A locking element is provided, which is connected to the corresponding snap-fit ​​unit and graphite plate respectively, and is used to restrict the movement of the snap-fit ​​unit.

[0025] In some embodiments, the locking unit further includes:

[0026] A first groove element is disposed at the top of the locking element for inserting a hex wrench.

[0027] Secondly, a graphite plate is provided, comprising:

[0028] The mounting connection structure as described in the first aspect;

[0029] A graphite plate unit is disposed at the bottom end of the splicing unit of the mounting connection structure, and is engaged with the corresponding snap-fit ​​unit of the mounting connection structure, and connected with the corresponding locking unit of the mounting connection structure.

[0030] In some embodiments, the graphite plate unit includes:

[0031] A graphite plate element is disposed at the bottom end of the splicing unit of the mounting connection structure and is connected to the locking unit of the corresponding mounting connection structure;

[0032] A plurality of second groove elements are distributed on the top of the graphite plate element for placing the splicing unit of the corresponding mounting connection structure;

[0033] A plurality of second docking elements are respectively disposed at the bottom end of the corresponding second groove element and respectively docked with the splicing unit of the corresponding mounting connection structure;

[0034] A plurality of second snap-fit ​​elements are respectively disposed at the bottom end of the corresponding second groove element and respectively snap-fit ​​with the snap-fit ​​unit of the corresponding mounting connection structure.

[0035] In some embodiments, the graphite plate unit further includes:

[0036] A plurality of connecting elements are respectively disposed at the bottom end of the corresponding second snap-fit ​​element, and are respectively connected to the locking unit of the corresponding mounting connection structure:

[0037] The present invention adopts the above technical solution and has the following technical effects compared with the prior art:

[0038] This utility model discloses an installation connection structure and graphite plate. By placing splicing units on the graphite plate to be laid, it provides a splicing reference for adjacent graphite plate units. Installers only need to align the graphite plate units with the splicing units for splicing, eliminating the need for repeated measurement and correction, greatly shortening installation time. Compared to traditional manual correction methods, it improves construction efficiency, especially suitable for large-area paving projects. The snap-fit ​​design of the snap-fit ​​units and graphite plate units simplifies the installation process. During installation, the snap-fit ​​units are directly snapped onto the graphite plate units, making the operation simple and requiring no complex tools or skills, reducing installation difficulty and lowering the professional skill requirements for construction personnel. It also reduces positional deviations caused by improper installation, further simplifying the correction process. The locking unit securely locks the snap-fit ​​units, ensuring a stable connection of the spliced ​​graphite plate units. This avoids the time-consuming steps of waiting for adhesive to cure in traditional installations, allowing for immediate progress on the next construction step after installation, improving overall installation speed and work efficiency. Attached Figure Description

[0039] Figure 1 This is a three-dimensional structural diagram of the installation and connection structure according to an embodiment of the present utility model;

[0040] Figure 2 This is an exploded view of the installation connection structure according to an embodiment of the present utility model;

[0041] Figure 3a This is a three-dimensional structural diagram of the splicing unit according to an embodiment of the present utility model;

[0042] Figure 3b This is a three-dimensional structural schematic diagram of the splicing unit according to another perspective of an embodiment of the present utility model;

[0043] Figure 4 This is a three-dimensional structural diagram of the snap-fit ​​unit according to an embodiment of the present utility model;

[0044] Figure 5 This is a three-dimensional structural schematic diagram of the locking unit according to an embodiment of the present utility model;

[0045] Figure 6 This is a schematic diagram of the structure of a graphite plate according to an embodiment of the present utility model;

[0046] Figure 7 This is a schematic diagram of the combination of graphite plate and mounting connection structure according to an embodiment of the present utility model;

[0047] Figure 8 This is a partial top view of the graphite plate and mounting connection structure assembly according to an embodiment of the present utility model.

[0048] Figure 9This is a partial enlarged schematic diagram of a graphite plate unit according to an embodiment of the present utility model.

[0049] The reference numerals in the attached drawings are as follows: 100, mounting connection structure; 110, splicing unit; 111, splicing element; 112, first mating element; 113, sliding groove element; 114, limiting element; 115, first abutting element;

[0050] 120. Snap-fit ​​unit; 121. First snap-fit ​​element; 122. Through slot element; 123. Second abutment element;

[0051] 130. Locking unit; 131. Locking element; 132. First groove element;

[0052] 200, Graphite plate unit; 201, Graphite plate element; 202, Second groove element; 203, Second mating element; 204, Second snap-fit ​​element; 205, Connecting element. Detailed Implementation

[0053] 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.

[0054] It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0055] The present invention will be further described below with reference to the accompanying drawings and specific embodiments, but this is not intended to limit the present invention.

[0056] Example 1

[0057] This embodiment relates to the installation and connection structure of this utility model.

[0058] like Figure 1 , Figure 2 As shown, an installation connection structure 100 for splicing graphite plates includes a splicing unit 110, a plurality of snap-fit ​​units 120, and a plurality of locking units 130. The splicing unit 110 is disposed at one corner of a corresponding graphite plate; the plurality of snap-fit ​​units 120 are movably disposed on the splicing unit 110 and snap-fit ​​with the corresponding graphite plates respectively, for snapping the graphite plates; the plurality of locking units 130 are respectively connected to the corresponding snap-fit ​​units 120 and the graphite plates, for restricting the movement of the snap-fit ​​units 120.

[0059] In some embodiments, a plurality of snap-fit ​​units 120 are arranged at equal intervals along the circumference of splicing unit 110.

[0060] The number of locking units 130 matches the number of latching units 120. Generally, the number of locking units 130 is equal to the number of latching units 120. That is, each latching unit 120 corresponds to one locking unit 130.

[0061] In some embodiments, a plurality of locking units 130 are arranged at equal intervals along the circumference of splicing unit 110.

[0062] like Figure 3a , Figure 3b As shown, the splicing unit 110 includes a splicing element 111, a first mating element 112, a plurality of sliding groove elements 113, and a plurality of limiting elements 114. The splicing element 111 is disposed at one corner of the corresponding graphite plate; the first mating element 112 is disposed at the bottom end of the splicing element 111 and is in contact with the corresponding graphite plate; the plurality of sliding groove elements 113 are distributed at the top end of the splicing element 111 and are slidably connected to the corresponding snap-fit ​​unit 120; the plurality of limiting elements 114 are respectively disposed inside the corresponding sliding groove elements 113 and are respectively limited and connected to the corresponding snap-fit ​​unit 120 to prevent the snap-fit ​​unit 120 from disengaging from the sliding groove element 113.

[0063] The cross-section of splicing element 111 is circular.

[0064] In some of these embodiments, the splicing element 111 is made of plastic.

[0065] In some of these embodiments, the splicing element 111 is a splicing panel.

[0066] The cross-section of the first docking element 112 is rectangular.

[0067] The dimensions of the first mating element 112 are matched with the dimensions of the splicing element 111. Generally, the side length of the first mating element 112 is smaller than the radial dimension of the splicing element 111, and the height of the first mating element 112 is equal to the axial dimension of the splicing element 111.

[0068] In some of these embodiments, the first docking element 112 is fixedly connected to the splicing element 111, including but not limited to integral molding.

[0069] In some of these embodiments, the first docking element 112 is made of plastic.

[0070] In some of these embodiments, the first docking element 112 is a docking plate.

[0071] The cross-section of the sliding element 113 is arc-shaped.

[0072] The dimensions of the sliding element 113 are matched with the dimensions of the splicing element 111. Generally, the radial dimension of the sliding element 113 is smaller than the radial dimension of the splicing element 111, and the axial dimension of the sliding element 113 is smaller than the axial dimension of the splicing element 111.

[0073] The number of sliding elements 113 matches the number of snap-fit ​​units 120. Generally, the number of sliding elements 113 is equal to the number of snap-fit ​​units 120.

[0074] In some of the embodiments, a plurality of groove elements 113 are arranged at equal intervals along the circumference of splicing element 111.

[0075] In some of these embodiments, the chute element 113 is a chute.

[0076] The cross-section of the limiting element 114 is arc-shaped.

[0077] The dimensions of the limiting element 114 are matched with the dimensions of the sliding element 113. Generally, the distance between the outer edge surface and the inner edge surface of the limiting element 114 is greater than the distance between the outer edge surface and the inner edge surface of the sliding element 113, and the axial dimension of the limiting element 114 is smaller than the axial dimension of the sliding element 113.

[0078] The dimensions of the limiting element 114 are matched with the dimensions of the splicing element 111. Generally, the radial dimension of the limiting element 114 is smaller than the radial dimension of the splicing element 111.

[0079] The number of limiting elements 114 matches the number of sliding elements 113. Generally, the number of limiting elements 114 is equal to the number of sliding elements 113. That is, one limiting element 114 is provided for each sliding element 113.

[0080] In some of these embodiments, a plurality of limiting elements 114 are arranged at equal intervals along the circumference of the splicing element 111.

[0081] In some of these embodiments, the limiting element 114 is a limiting groove.

[0082] Furthermore, the splicing unit 110 also includes a plurality of first abutting elements 115. The plurality of first abutting elements 115 are respectively disposed inside the corresponding sliding groove element 113, and are respectively located below the corresponding limiting element 114, and respectively abut against the corresponding snap-fit ​​unit 120.

[0083] The cross-section of the first abutting element 115 is arc-shaped.

[0084] The dimensions of the first abutment element 115 are matched with the dimensions of the groove element 113. Generally, the radial dimension of the inner edge surface of the first abutment element 115 is equal to the radial dimension of the outer edge surface of the groove element 113, and the axial dimension of the first abutment element 115 is smaller than the axial dimension of the groove element 113.

[0085] The dimensions of the first abutting element 115 are matched with the dimensions of the splicing element 111. Generally, the radial dimension of the outer edge of the first abutting element 115 is smaller than the radial dimension of the splicing element 111.

[0086] The number of first abutment elements 115 matches the number of slide elements 113. Generally, the number of first abutment elements 115 is equal to the number of slide elements 113. That is, each slide element 113 is provided with one first abutment element 115.

[0087] In some embodiments, a plurality of first abutting elements 115 are arranged at equal intervals along the circumference of splicing elements 111.

[0088] In some of these embodiments, the first abutting element 115 is an abutting groove.

[0089] like Figure 4 As shown, the snap-fit ​​unit 120 includes a first snap-fit ​​element 121 and a through slot element 122. The first snap-fit ​​element 121 is movably disposed in the splicing unit 110 and snaps against the corresponding graphite plate for snapping the graphite plate; the through slot element 122 passes through the first snap-fit ​​element 121 for the locking unit 130 to pass through.

[0090] Specifically, the first snap-fit ​​element 121 is slidably disposed on the inner side of the corresponding slide groove element 113 and the inner side of the corresponding limiting element 114.

[0091] In some embodiments, the first snap-fit ​​element 121 includes a sliding plate, a limiting plate, a first snap-fit ​​plate, and a second snap-fit ​​plate. The sliding plate has a through-groove element 122 and is slidably connected to a sliding groove element 113. The limiting plate is located at the bottom end of the sliding plate, has a through-groove element 122, and is slidably connected to a limiting element 114. The first snap-fit ​​plate is located at the bottom end of the limiting plate, has a through-groove element 122, is slidably connected to the sliding groove element 113, and snaps into a corresponding graphite plate. The second snap-fit ​​plate is located at the bottom end of the first snap-fit ​​plate, has a through-groove element 122, and snaps into a corresponding graphite plate.

[0092] The dimensions of the sliding plate are matched with the dimensions of the slide element 113. Generally, the radial dimension (length) of the sliding plate is smaller than the radial dimension (length) of the slide element 113, the distance between the outer edge surface and the inner edge surface of the sliding plate (e.g., width) is equal to the distance between the outer edge surface and the inner edge surface of the slide element 113 (e.g., width), and the axial dimension (e.g., height) of the sliding plate is smaller than the axial dimension (e.g., height) of the slide element 113.

[0093] The dimensions of the limiting plate match the dimensions of the limiting element 114. Generally, the radial dimension (length) of the limiting plate is smaller than the radial dimension (length) of the limiting element 114, the distance between the outer edge and the inner edge of the limiting plate (e.g., width) is equal to the distance between the outer edge and the inner edge of the limiting element 114 (e.g., width), and the axial dimension (e.g., height) of the limiting plate is equal to the axial dimension (e.g., height) of the limiting element 114.

[0094] The dimensions of the limiting plate are matched with the dimensions of the sliding plate. Generally, the radial dimension (length) of the limiting plate is equal to the radial dimension (length) of the sliding plate, and the distance (e.g., width) between the outer edge and inner edge of the limiting plate is greater than the distance (e.g., width) between the outer edge and inner edge of the sliding plate.

[0095] The dimensions of the first snap-fit ​​plate are matched with the dimensions of the slide element 113. Generally, the radial dimension (length) of the first snap-fit ​​plate is smaller than the radial dimension (length) of the slide element 113, the distance (e.g., width) between the outer edge and inner edge of the first snap-fit ​​plate is equal to the distance (e.g., width) between the outer edge and inner edge of the slide element 113, and the axial dimension (e.g., height) of the first snap-fit ​​plate is smaller than the axial dimension (e.g., height) of the slide element 113.

[0096] The dimensions of the first snap-fit ​​plate are matched with the dimensions of the limiting plate. Generally, the radial dimension (length) of the first snap-fit ​​plate is equal to the radial dimension (length) of the limiting plate, the distance (e.g., width) between the outer edge and inner edge of the first snap-fit ​​plate is less than the distance (e.g., width) between the outer edge and inner edge of the limiting plate, and the axial dimension (e.g., height) of the first snap-fit ​​plate is greater than the axial dimension (e.g., height) of the limiting plate.

[0097] The dimensions of the first snap-fit ​​plate are matched with the dimensions of the sliding plate. Generally, the radial dimension (length) of the first snap-fit ​​plate is equal to the radial dimension (length) of the sliding plate, the distance between the outer edge and the inner edge of the first snap-fit ​​plate (e.g., width) is equal to the distance between the outer edge and the inner edge of the sliding plate (e.g., width), and the axial dimension (e.g., height) of the first snap-fit ​​plate is greater than the axial dimension (e.g., height) of the sliding plate.

[0098] The dimensions of the second snap-fit ​​plate are matched with those of the first snap-fit ​​plate. Generally, the radial dimension (length) of the second snap-fit ​​plate is equal to the radial dimension (length) of the first snap-fit ​​plate, the distance between the outer edge and the inner edge of the second snap-fit ​​plate (e.g., width) is greater than the distance between the outer edge and the inner edge of the first snap-fit ​​plate (e.g., width), and the axial dimension (e.g., height) of the second snap-fit ​​plate is less than the axial dimension (e.g., height) of the first snap-fit ​​plate.

[0099] In some of these embodiments, the first snap-fit ​​element 121 is made of plastic.

[0100] In some embodiments, the through-slot element 122 includes a first through-slot and a second through-slot. The first through-slot passes through the sliding plate; the second through-slot passes through the limiting plate, the first snap-fit ​​plate, and the second snap-fit ​​plate, and communicates with the first through-slot.

[0101] The dimensions of the first through slot are matched with the dimensions of the first snap-fit ​​element 121. Generally, the radial dimension of the first through slot is smaller than the radial dimension (length) of the sliding plate and the distance (width) between the outer edge and inner edge of the sliding plate, and the axial dimension (such as depth) of the first through slot is equal to the axial dimension (height) of the sliding plate.

[0102] The dimensions of the second through slot are matched with the dimensions of the first snap-fit ​​element 121. Generally, the radial dimension of the second through slot is smaller than the radial dimension (length) of the limiting plate (first snap-fit ​​plate, second snap-fit ​​plate) and the distance (width) between the outer edge and inner edge of the limiting plate (first snap-fit ​​plate, second snap-fit ​​plate), and the axial dimension (e.g., depth) of the second through slot is larger than the axial dimension (height) of the limiting plate (first snap-fit ​​plate, second snap-fit ​​plate).

[0103] The dimensions of the second through groove match those of the first through groove. Generally, the radial dimension of the second through groove is larger than that of the first through groove, and the axial dimension of the second through groove is larger than that of the first through groove.

[0104] Wherein, the axial dimension of the second through groove is equal to the sum of the axial dimensions of the limiting plate, the first snap-fit ​​plate, and the second snap-fit ​​plate; the sum of the axial dimensions of the second through groove and the first through groove is equal to the sum of the axial dimensions of the sliding plate, the limiting plate, the first snap-fit ​​plate, and the second snap-fit ​​plate.

[0105] Furthermore, the snap-fit ​​unit 120 also includes a second abutting element 123. The second abutting element 123 is disposed outside the first snap-fit ​​element 121 and abuts against the splicing unit 110.

[0106] Specifically, the second abutting element 123 is disposed on the outside of the first snap-fit ​​plate and abuts against the first abutting element 115.

[0107] The cross-section of the second abutment element 123 is arc-shaped.

[0108] The dimensions of the second abutment element 123 are matched with the dimensions of the first snap-fit ​​element 121. Generally, the radial dimension of the inner edge surface of the second abutment element 123 is equal to the radial dimension of the outer edge surface of the first snap-fit ​​plate, and the axial dimension of the second abutment element 123 is smaller than the axial dimension of the first snap-fit ​​plate.

[0109] The dimensions of the second abutment element 123 are matched with the dimensions of the first abutment element 115. Generally, the radial dimension of the second abutment element 123 is equal to the radial dimension of the first abutment element 115, and the axial dimension of the second abutment element 123 is equal to the axial dimension of the first abutment element 115.

[0110] In some embodiments, the second abutting element 123 is fixedly connected to the first snap-fit ​​element 121, including but not limited to integral molding.

[0111] In some of these embodiments, the second abutment element 123 is made of plastic.

[0112] In some of these embodiments, the second abutting element 123 is an abutting plate.

[0113] like Figure 5 As shown, the locking unit 130 includes a locking element 131. The locking element 131 is connected to the corresponding snap-fit ​​unit 120 and the graphite plate, respectively, and is used to restrict the movement of the snap-fit ​​unit 120.

[0114] Specifically, the locking element 131 passes through the through slot element 122 and is threadedly connected to the graphite plate.

[0115] More specifically, the locking element 131 passes through the first through slot and the second through slot respectively.

[0116] In some embodiments, the locking element 131 includes a limiting block and a threaded rod. The limiting block is disposed in a first through groove; the threaded rod is disposed at the bottom end of the limiting plate and passes through a second through groove to be threadedly connected to the graphite plate.

[0117] The dimensions of the limiting block match the dimensions of the through slot element 122. Generally, the radial dimension of the limiting block is equal to the radial dimension of the first through slot, and the axial dimension of the limiting block is equal to the axial dimension of the first through slot.

[0118] The dimensions of the threaded rod are matched with the dimensions of the through slot element 122. Generally, the radial dimension of the threaded rod is equal to the radial dimension of the second through slot, and the axial dimension of the threaded rod is greater than the axial dimension of the second through slot.

[0119] The dimensions of the threaded rod are matched with the dimensions of the limiting block. Generally, the radial dimension of the threaded rod is larger than the radial dimension of the limiting block, and the axial dimension of the threaded rod is larger than the axial dimension of the limiting block.

[0120] In some of these embodiments, the locking element 131 is made of metal.

[0121] Furthermore, the locking unit 130 also includes a first recessed element 132. The first recessed element 132 is disposed at the top of the locking element 131 for inserting a hex wrench.

[0122] Specifically, the first groove element 132 is disposed at the top of the limiting block.

[0123] The cross-section of the first groove element 132 is a regular hexagon.

[0124] The dimensions of the first groove element 132 are matched with the dimensions of the locking element 131. Generally, the radial dimension of the first groove element 132 is smaller than the radial dimension of the limiting block, and the axial dimension of the first groove element 132 is smaller than the axial dimension of the limiting block.

[0125] In some of these embodiments, the first groove element 132 is a first groove.

[0126] The method of using this utility model is as follows (taking the splicing of 4 graphite plates as an example):

[0127] (I) Adjustment Operation

[0128] Slide the corresponding first snap-fit ​​element 121 so that it moves along the circumference of the corresponding slide groove element 113 until it moves to one end of the corresponding slide groove element 113 (abutting against one end of the corresponding slide groove element 113), so that when the splicing element 111 is subsequently installed onto the first graphite plate, the corresponding first snap-fit ​​element 121 does not abut against the first graphite plate.

[0129] (II) Installation of splicing components 111

[0130] Place the splicing element 111 at one corner of the first graphite plate, and make the first mating element 112 mate with the first graphite plate, so that the corresponding sliding groove element 113 is connected to the first graphite plate.

[0131] Slide the corresponding first snap-fit ​​element 121 so that it moves along the circumference of the corresponding slide groove element 113 until it moves to the other end of the corresponding slide groove element 113 (abutting against the other end of the corresponding slide groove element 113), so that when the second graphite plate is installed later, the corresponding first snap-fit ​​element 121 will not abut against the second graphite plate.

[0132] During the process, the corresponding first snap-fit ​​element 121 slides into the first graphite plate, thereby snapping the corresponding first snap-fit ​​element 121 into the first graphite plate.

[0133] (III) Assembling the second graphite plate

[0134] Place the second graphite plate at the designated position, so that the end or side of the second graphite plate is attached to the first graphite plate, so that one corner of the second graphite plate is in the splicing element 111, so that the second graphite plate is connected to the first docking element 112, and so that the second graphite plate is connected to the corresponding sliding groove element 113.

[0135] Slide the corresponding first snap-fit ​​element 121 so that it moves along the circumference of the corresponding slide groove element 113 until the corresponding second abutting element 123 abuts against the corresponding first abutting element 115.

[0136] During the process, the corresponding first snap-fit ​​element 121 slides into the second graphite plate, so that the corresponding first snap-fit ​​element 121 is between the first graphite plate and the second graphite plate, thereby snapping the corresponding first snap-fit ​​element 121 with the first graphite plate and the second graphite plate respectively.

[0137] The corresponding locking element 131 is threaded through the corresponding through slot element 122 and connected to the first or second graphite plate until it is tightened.

[0138] (iv) Assembling the third and fourth graphite plates.

[0139] The usage methods are basically the same as those in (I) and (III), so they will not be repeated here.

[0140] The advantages of this invention are as follows: By placing the splicing unit on the graphite plate to be laid, it provides a splicing reference for adjacent graphite plates. Installers only need to align the graphite plates with the splicing unit for splicing, eliminating the need for repeated measurements and adjustments, greatly shortening installation time. Compared to traditional manual adjustments, it improves construction efficiency, especially suitable for large-area paving projects. The snap-fit ​​design between the snap-fit ​​unit and the graphite plate simplifies the installation process. During installation, the snap-fit ​​unit is directly snapped onto the graphite plate, a simple operation requiring no complex tools or skills, reducing installation difficulty and lowering the skill requirements for construction personnel. It also reduces positional deviations caused by improper installation, further simplifying the adjustment process. The locking unit securely holds the snap-fit ​​unit in place, ensuring a stable connection of the spliced ​​graphite plates. This avoids the time-consuming steps of waiting for adhesive to cure in traditional installations, allowing for immediate progress on the next stage of construction after installation, thus increasing overall installation speed and work efficiency.

[0141] Example 2

[0142] This embodiment relates to the graphite plate of this utility model.

[0143] like Figure 6 , Figure 7 , Figure 8 As shown, a graphite plate includes an installation connection structure 100 as described in Embodiment 1 and a graphite plate unit 200. The graphite plate unit 200 is disposed at the bottom end of the splicing unit 110 of the installation connection structure 100, and is engaged with the corresponding snap-fit ​​unit 120 of the installation connection structure 100, and connected to the corresponding locking unit 130 of the installation connection structure 100.

[0144] like Figure 9 As shown, the graphite plate unit 200 includes a graphite plate element 201, a plurality of second groove elements 202, a plurality of second mating elements 203, and a plurality of second snap-fit ​​elements 204. The graphite plate element 201 is disposed at the bottom end of the splicing unit 110 of the mounting connection structure 100 and connected to the locking unit 130 of the corresponding mounting connection structure 100. The plurality of second groove elements 202 are distributed at the top end of the graphite plate element 201 and are used to place the splicing unit 110 of the corresponding mounting connection structure 100. The plurality of second mating elements 203 are respectively disposed at the bottom end of the corresponding second groove elements 202 and are respectively mated to the splicing unit 110 of the corresponding mounting connection structure 100. The plurality of second snap-fit ​​elements 204 are respectively disposed at the bottom end of the corresponding second groove elements 202 and are respectively snap-fitted to the snap-fit ​​unit 120 of the corresponding mounting connection structure 100.

[0145] Specifically, the graphite plate element 201 is disposed at the bottom end of the splicing element 111; the second groove element 202 is connected to the corresponding splicing element 111; the second mating element 203 is connected to the corresponding first mating element 112; the second snap-fit ​​element 204 is snap-fitted to the corresponding first snap-fit ​​element 121 and is connected to the corresponding sliding groove element 113.

[0146] More specifically, the second snap-fit ​​element 204 snaps into the corresponding first snap-fit ​​plate and the second snap-fit ​​plate respectively.

[0147] The graphite plate element 201 has a rectangular cross-section.

[0148] In some of these embodiments, the graphite plate element 201 is made of graphite material.

[0149] In some of these embodiments, the graphite plate element 201 is a graphite plate.

[0150] The cross-section of the second groove element 202 is fan-shaped.

[0151] The dimensions of the second groove element 202 are matched with the dimensions of the graphite plate element 201. Generally, the radial dimension of the second groove element 202 is smaller than the length and width of the graphite plate element 201, and the axial dimension (depth) of the second groove element 202 is smaller than the height (thickness) of the graphite plate element 201.

[0152] The dimensions of the second groove element 202 are matched with the dimensions of the splicing element 111. Generally, the radial dimension of the second groove element 202 is smaller than the radial dimension of the splicing element 111, and the axial dimension (depth) of the second groove element 202 is equal to the axial dimension of the splicing element 111.

[0153] The radius of the second groove element 202 is equal to half the diameter of the splicing element 111.

[0154] In some embodiments, a plurality of second groove elements 202 are distributed at the four corners of the graphite plate element 201.

[0155] In some embodiments, a second groove element 202 is provided at each of the four corners of the graphite plate element 201.

[0156] In some of these embodiments, the second groove element 202 is a second groove.

[0157] The cross-section of the second docking element 203 is rectangular.

[0158] The dimensions of the second mating element 203 are matched with the dimensions of the second groove element 202. Generally, the side length of the second mating element 203 is smaller than the radial dimension of the second groove element 202, and the height (depth) of the second mating element 203 is equal to the axial dimension (depth) of the second groove element 202.

[0159] The dimensions of the second docking element 203 are matched with the dimensions of the first docking element 112. Generally, the side length of the second docking element 203 is smaller than the side length of the first docking element 112, and the height (depth) of the second docking element 203 is equal to the height of the first docking element 112.

[0160] The sum of the height (depth) of the second docking element 203 and the axial dimension (depth) of the second groove element 202 is less than the height (thickness) of the graphite plate element 201; the side length of the second docking element 203 is equal to half the side length of the first docking element 112.

[0161] The number of second mating elements 203 matches the number of second groove elements 202. Generally, the number of second mating elements 203 is equal to the number of second groove elements 202.

[0162] In some embodiments, a plurality of second docking elements 203 are distributed at the four corners of the graphite plate element 201.

[0163] In some embodiments, a second docking element 203 is provided at each of the four corners of the graphite plate element 201.

[0164] In some of these embodiments, the second docking element 203 is a docking groove.

[0165] The second snap-fit ​​element 204 has a convex cross-section. Specifically, the second snap-fit ​​element 204 includes a first snap-fit ​​groove and a second snap-fit ​​groove. The first snap-fit ​​groove is disposed at the bottom end of the corresponding second recessed element 202 and is connected to the corresponding sliding groove element 113, and is snap-fitted with the corresponding first snap-fit ​​plate; the second snap-fit ​​groove is disposed at the bottom end of the first snap-fit ​​groove and is snap-fitted with the corresponding second snap-fit ​​plate.

[0166] The dimensions of the first snap-fit ​​groove match the dimensions of the second groove element 202. Generally, the radial dimension of the outer edge of the first snap-fit ​​groove is smaller than the radial dimension of the outer edge of the second groove element 202, the distance between the outer edge and the inner edge of the first snap-fit ​​groove is smaller than the radius of the second groove element 202, and the axial dimension (depth) of the first snap-fit ​​groove is smaller than the axial dimension (depth) of the second groove element 202.

[0167] The dimensions of the first snap-fit ​​slot are matched with the dimensions of the first snap-fit ​​element 121. Generally, the distance between the outer edge and the inner edge of the first snap-fit ​​slot is equal to the distance between the outer edge and the inner edge of the first snap-fit ​​plate, and the axial dimension (depth) of the first snap-fit ​​slot is smaller than the axial dimension of the first snap-fit ​​plate.

[0168] The dimensions of the first card slot are matched with the dimensions of the sliding element 113. Generally, the distance between the outer edge surface and the inner edge surface of the first card slot is equal to the distance between the outer edge surface and the inner edge surface of the sliding element 113.

[0169] The dimensions of the second snap-fit ​​groove match the dimensions of the second recessed element 202. Generally, the radial dimension of the outer edge of the second snap-fit ​​groove is smaller than the radial dimension of the outer edge of the second recessed element 202, the distance between the outer edge and the inner edge of the second snap-fit ​​groove is smaller than the radius of the second recessed element 202, and the axial dimension (depth) of the second snap-fit ​​groove is smaller than the axial dimension (depth) of the second recessed element 202.

[0170] The dimensions of the second locking slot match those of the first locking slot. Generally, the distance between the outer edge and inner edge of the second locking slot is greater than the distance between the outer edge and inner edge of the first locking slot, and the axial dimension (depth) of the second locking slot is equal to the axial dimension (depth) of the first locking slot.

[0171] The dimensions of the second snap-fit ​​slot match the dimensions of the first snap-fit ​​element 121. Generally, the distance between the outer edge and the inner edge of the second snap-fit ​​slot is equal to the distance between the outer edge and the inner edge of the second snap-fit ​​plate, and the axial dimension (depth) of the second snap-fit ​​slot is equal to the axial dimension of the second snap-fit ​​plate.

[0172] The sum of the axial dimension (depth) of the second snap-fit ​​groove, the axial dimension (depth) of the first snap-fit ​​groove, and the axial dimension (depth) of the slide element 113 is equal to the sum of the axial dimension (thickness) of the sliding plate, the axial dimension (thickness) of the limiting plate, the axial dimension (thickness) of the first snap-fit ​​plate, and the axial dimension (thickness) of the second snap-fit ​​plate.

[0173] The number of second snap-fit ​​elements 204 matches the number of second recessed elements 202. Generally, the number of second snap-fit ​​elements 204 is equal to the number of second recessed elements 202.

[0174] In some embodiments, a plurality of second snap-fit ​​elements 204 are distributed at the four corners of the graphite plate element 201.

[0175] In some embodiments, a second snap-fit ​​element 204 is provided at each of the four corners of the graphite plate element 201.

[0176] Furthermore, the graphite plate unit 200 also includes a plurality of connecting elements 205. The plurality of connecting elements 205 are respectively disposed at the bottom end of the corresponding second snap-fit ​​element 204 and are respectively connected to the locking unit 130 of the corresponding mounting connection structure 100.

[0177] Specifically, the connecting element 205 is disposed at the bottom end of the corresponding second snap-fit ​​groove, and is connected to the corresponding through groove element 122, and is threadedly connected to the corresponding locking element 131.

[0178] More specifically, the connecting element 205 is connected to the corresponding second through slot and threadedly connected to the corresponding threaded rod.

[0179] The cross-section of the connecting element 205 is circular.

[0180] The dimensions of the connecting element 205 are matched with the dimensions of the second snap-fit ​​element 204. Generally, the radial dimension of the connecting element 205 is smaller than the distance between the outer edge and the inner edge of the second snap-fit ​​groove, and the axial dimension (depth) of the connecting element 205 is larger than the axial dimension (depth) of the second snap-fit ​​groove.

[0181] The dimensions of the connecting element 205 match the dimensions of the through slot element 122. Generally, the radial dimension of the connecting element 205 is equal to the radial dimension of the second through slot.

[0182] The dimensions of the connecting element 205 are matched with the dimensions of the locking element 131. Generally, the radial dimension of the connecting element 205 is equal to the radial dimension of the threaded rod; the axial dimension (depth) of the connecting element 205 is less than the axial dimension of the threaded rod.

[0183] The sum of the axial dimension (depth) of the connecting element 205, the axial dimension (depth) of the second snap-fit ​​groove, the axial dimension (depth) of the first snap-fit ​​groove, and the axial dimension (depth) of the second groove element 202 is less than the height (thickness) of the graphite plate element 201.

[0184] The number of connecting elements 205 matches the number of second snap-fit ​​elements 204. Generally, the number of connecting elements 205 is equal to the number of second snap-fit ​​elements 204.

[0185] In some of these embodiments, the connecting element 205 is a threaded hole.

[0186] The method of using this utility model is as follows (taking the splicing of 4 graphite plate components 201 as an example):

[0187] (I) Adjustment Operation

[0188] Slide the corresponding first snap-fit ​​element 121 so that it moves along the circumference of the corresponding slide groove element 113 until it moves to one end of the corresponding slide groove element 113 (abutting against one end of the corresponding slide groove element 113), so that when the splicing element 111 is subsequently installed to the first graphite plate element 201, the corresponding first snap-fit ​​element 121 will not abut against the first graphite plate element 201.

[0189] (II) Installation of splicing components 111

[0190] Place the splicing element 111 at one corner of the first graphite plate element 201, and position the splicing element 111 in the corresponding second groove element 202, so that the first mating element 112 is in contact with the corresponding second mating element 203, and the corresponding sliding groove element 113 is connected to the corresponding second snap-fit ​​element 204.

[0191] Slide the corresponding first snap-fit ​​element 121 so that it moves along the circumference of the corresponding slide groove element 113 until it moves to the other end of the corresponding slide groove element 113 (abutting against the other end of the corresponding slide groove element 113), so that when the second graphite plate element 201 is installed later, the corresponding first snap-fit ​​element 121 does not abut against the second graphite plate element 201.

[0192] During the process, the corresponding first snap-fit ​​element 121 slides into the second snap-fit ​​element 204 provided in the first graphite plate element 201, thereby snapping the corresponding first snap-fit ​​element 121 into the first graphite plate element 201.

[0193] (III) Assembling the second graphite plate component 201

[0194] The second graphite plate element 201 is placed at a designated position, so that the end or side of the second graphite plate element 201 is attached to the first graphite plate element 201, the corresponding second groove element 202 of the second graphite plate element 201 is placed in the splicing element 111, the corresponding second mating element 203 of the second graphite plate element 201 is connected to the first mating element 112, and the corresponding second snap-fit ​​element 204 of the second graphite plate element 201 is connected to the corresponding sliding groove element 113.

[0195] Slide the corresponding first snap-fit ​​element 121 so that it moves along the circumference of the corresponding slide groove element 113 until the corresponding second abutting element 123 abuts against the corresponding first abutting element 115.

[0196] During the process, the corresponding first snap-fit ​​element 121 slides into the second snap-fit ​​element 204 of the second graphite plate element 201, so that the corresponding first snap-fit ​​element 121 is between the first graphite plate element 201 and the second graphite plate element 201, thereby snapping the corresponding first snap-fit ​​element 121 into the second snap-fit ​​element 204 of the first graphite plate element 201 and the second snap-fit ​​element 204 of the second graphite plate element 201 respectively.

[0197] The corresponding locking element 131 is threaded through the corresponding through slot element 122 and connected to the connecting element 205 of the first graphite plate element 201 or the connecting element 205 of the second graphite plate element 201 until it is tightened.

[0198] (iv) Assembling the third and fourth graphite plates.

[0199] The usage methods are basically the same as those in (I) and (III), so they will not be repeated here.

[0200] The advantages of this invention are as follows: By placing the splicing unit on the graphite plate to be laid, it provides a splicing reference for adjacent graphite plate units. Installers only need to align the graphite plate units with the splicing unit for splicing, eliminating the need for repeated measurement and correction, greatly shortening installation time and improving construction efficiency compared to traditional manual correction methods, especially suitable for large-area paving projects. The snap-fit ​​design between the snap-fit ​​unit and the graphite plate unit simplifies the installation process. During installation, the snap-fit ​​unit is directly snapped onto the graphite plate unit, making operation simple and requiring no complex tools or skills, reducing installation difficulty and lowering the professional skill requirements for construction personnel. It also reduces positional deviations caused by improper installation, further simplifying the correction process. The locking unit securely locks the snap-fit ​​unit, ensuring a stable connection of the spliced ​​graphite plate units. This avoids the time-consuming steps of waiting for adhesive to cure in traditional installations, allowing for immediate progress on the next construction step after installation, improving overall installation speed and work efficiency.

[0201] The above description is only a preferred embodiment of the present utility model and does not limit the implementation method and protection scope of the present utility model. Those skilled in the art should realize that all solutions obtained by equivalent substitutions and obvious changes made based on the description and illustrations of the present utility model should be included within the protection scope of the present utility model.

Claims

1. An installation and connection structure for splicing graphite plates, characterized in that, include: A splicing unit (110) is disposed at one corner of a corresponding graphite plate; A plurality of snap-fit ​​units (120) are movably disposed on the splicing unit (110) and snap-fit ​​with the corresponding graphite plates respectively, for snap-fitting the graphite plates; A plurality of locking units (130) are connected to the corresponding snap-fit ​​unit (120) and graphite plate respectively, for limiting the movement of the snap-fit ​​unit (120).

2. The installation connection structure according to claim 1, characterized in that, The splicing unit (110) includes: A splicing element (111) is disposed at one corner of a corresponding graphite plate; The first docking element (112) is disposed at the bottom end of the splicing element (111) and is connected to the corresponding graphite plate. A plurality of sliding groove elements (113) are distributed on the top of the splicing element (111) and are slidably connected to the corresponding snap-fit ​​unit (120); A plurality of limiting elements (114) are respectively disposed on the inner side of the corresponding sliding groove element (113) and respectively connected to the corresponding snap-fit ​​unit (120) for limiting connection, so as to prevent the snap-fit ​​unit (120) from disengaging from the sliding groove element (113).

3. The installation connection structure according to claim 2, characterized in that, The splicing unit (110) also includes: A plurality of first abutting elements (115) are respectively disposed on the inner side of the corresponding sliding groove element (113) and respectively located below the corresponding limiting element (114), and respectively abutting against the corresponding snap-fit ​​unit (120).

4. The installation connection structure according to claim 1, characterized in that, The snap-fit ​​unit (120) includes: The first snap-fit ​​element (121) is movably disposed in the splicing unit (110) and snaps with the corresponding graphite plate for snapping the graphite plate. A through-slot element (122) passes through the first snap-fit ​​element (121) for the locking unit (130) to pass through.

5. The installation connection structure according to claim 4, characterized in that, The snap-fit ​​unit (120) further includes: The second abutting element (123) is disposed on the outside of the first snap-fit ​​element (121) and abuts against the splicing unit (110).

6. The installation connection structure according to claim 1, characterized in that, The locking unit (130) includes: A locking element (131) is connected to the corresponding snap-fit ​​unit (120) and graphite plate respectively, and is used to restrict the movement of the snap-fit ​​unit (120).

7. The installation connection structure according to claim 6, characterized in that, The locking unit (130) further includes: A first groove element (132) is disposed at the top of the locking element (131) for inserting a hex wrench.

8. A graphite plate, characterized in that, include: The mounting connection structure (100) as described in any one of claims 1 to 7; A graphite plate unit (200) is disposed at the bottom end of the splicing unit (110) of the mounting connection structure (100), and is engaged with the snap-fit ​​unit (120) of the corresponding mounting connection structure (100), and connected with the locking unit (130) of the corresponding mounting connection structure (100).

9. The graphite plate according to claim 8, characterized in that, The graphite plate unit (200) includes: A graphite plate element (201) is disposed at the bottom end of the splicing unit (110) of the mounting connection structure (100) and connected to the locking unit (130) of the corresponding mounting connection structure (100). A plurality of second groove elements (202) are distributed on the top of the graphite plate element (201) for placing the splicing unit (110) of the corresponding mounting connection structure (100); A plurality of second docking elements (203) are respectively disposed at the bottom end of the corresponding second groove element (202) and respectively docking with the splicing unit (110) of the corresponding mounting connection structure (100); A plurality of second snap-fit ​​elements (204) are respectively disposed at the bottom end of the corresponding second groove element (202) and respectively snap-fit ​​with the snap-fit ​​unit (120) of the corresponding mounting connection structure (100).

10. The graphite plate according to claim 9, characterized in that, The graphite plate unit (200) also includes: A plurality of connecting elements (205) are respectively disposed at the bottom end of the corresponding second snap-fit ​​element (204) and respectively connected to the locking unit (130) of the corresponding mounting connection structure (100).

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