High-load-bearing anti-static floor

Abstract

The utility model belongs to the technical field of floors, and particularly discloses a high-load-bearing anti-static floor which comprises a floor body, and a reinforcing assembly is arranged in the floor body. The reinforcing assembly is used for reinforcing the structural strength of the floor body and comprises a supporting layer, the supporting layer is formed by welding metal rod pieces and arranged in a grid shape, a reinforcing fiber board is arranged at the bottom of the supporting layer, and a plurality of reinforcing I-shaped steel are arranged at the bottom of the reinforcing fiber board and evenly distributed in the horizontal direction of the floor body. Through the arrangement of the reinforcing assembly, the bearing performance of the floor can be remarkably improved, the floor can easily deal with large pressure and weight, and the floor is particularly suitable for places with high requirements for bearing. And secondly, the stability and durability of the floor are effectively enhanced, and the probability of damage and failure of the floor in the long-term use process is greatly reduced by uniformly dispersing pressure and preventing local deformation, so that the service life of the floor is prolonged.

Description

Technical Field

[0001] This application relates to the technical field of floors, and more specifically, to an anti-static floor with high load-bearing capacity. Background Art

[0002] In many fields of modern society, such as electronics factories, computer rooms, laboratories, data centers, etc., higher requirements are being placed on the performance of floors. As a special functional floor, anti-static floors play a key role in preventing static electricity accumulation and release, and protecting sensitive electronic devices and data.

[0003] However, with the continuous progress of technology and the increasing complexity of application scenarios, traditional anti-static floors are gradually showing deficiencies in load-bearing capacity. In some places where large equipment needs to be placed, heavy objects need to be stored, or frequent personnel movement and transportation activities are carried out, ordinary anti-static floors often struggle to meet the load-bearing requirements. For example, in large server computer rooms, the weight of server cabinets and other equipment is constantly increasing, posing a severe challenge to the load-bearing capacity of the floor. Traditional anti-static floors may deform, be damaged, or even collapse under long-term heavy pressure, not only affecting normal work operations but also potentially causing equipment damage and data loss. In view of this, it is necessary to propose an anti-static floor with high load-bearing capacity to solve the above problems. Utility Model Content

[0004] To solve the above problems, this application provides an anti-static floor with high load-bearing capacity.

[0005] The anti-static floor with high load-bearing capacity provided by this application adopts the following technical solutions:

[0006] An anti-static floor with high load-bearing capacity, including a floor main body, and a strengthening component is provided inside the floor main body;

[0007] The strengthening component is used to strengthen the structural strength of the floor main body, including a support layer, which is welded by metal rods and arranged in a grid shape. An enhanced fiber board is provided at the bottom of the support layer, and a plurality of strengthening I-beams are provided at the bottom of the enhanced fiber board. The plurality of strengthening I-beams are evenly distributed along the horizontal direction of the floor main body, and the plurality of strengthening I-beams are used to disperse the weight borne by the floor.

[0008] Through the above technical solutions, the strengthening component can significantly improve the load-bearing performance of the floor, enabling it to easily handle greater pressure and weight, especially suitable for places with high load-bearing requirements. Secondly, it effectively enhances the stability and durability of the floor. By evenly dispersing the pressure and preventing local deformation, the probability of damage and failure of the floor during long-term use is greatly reduced, thereby extending the service life of the floor.

[0009] Further, a reinforcing cavity is formed inside the floor main body, and the supporting layer, the reinforcing fiber board, and multiple reinforcing I-beams are all located inside the reinforcing cavity.

[0010] Further, the supporting layer is connected to the inner wall of the reinforcing cavity, and the supporting layer is connected to the reinforcing fiber board through an adhesive.

[0011] Further, an anti-static layer is provided on the top of the floor main body, and a disassembly component is provided between the floor main body and the anti-static layer.

[0012] Further, multiple groups of disassembly components are provided. Each group of disassembly components includes a connecting rod. The connecting rod is fixedly connected to the bottom of the anti-static layer. An installation ball is fixedly connected to the bottom of the connecting rod. Installation grooves are formed inside the floor main body, and two convex strips are provided inside each installation groove. The installation ball is located between the two convex strips.

[0013] Through the above technical solution, the disassembly component can realize the convenient installation and disassembly of the floor main body and the anti-static layer. When the anti-static layer is damaged or needs to be maintained, it can be disassembled and replaced separately, without the need to replace the entire floor with complex operations or professional tools, reducing the cost and maintenance difficulty.

[0014] Further, each installation ball is made of a flexible material, and splicing components are provided at both ends of the floor main body.

[0015] Through the above technical solution, the installation ball is made of a flexible material and has certain elasticity and deformability. When the installation ball needs to be placed between the two convex strips, an appropriate external force can be applied to the installation ball to make it deform to a certain extent. Since there is a certain gap between the convex strips, although this gap may be slightly smaller than the original size of the installation ball, through external force extrusion, the flexible installation ball can be compressed so that it can enter the space between the convex strips. Once the installation ball enters between the convex strips, the convex strips will play a limiting role on the installation ball to prevent it from easily coming out. At this time, the installation ball will recover part of its shape and closely cooperate with the convex strips to achieve the effect of stably installing the anti-static layer on the floor main body.

[0016] Further, the splicing component includes insertion blocks. The number of insertion blocks is set to be multiple. Two of the insertion blocks are fixedly connected to one end of the floor main body, and the other multiple insertion blocks are fixedly connected to the other end of the floor main body. Grooves are formed at both the upper and lower ends of each insertion block.

[0017] Further, the splicing component further includes slots. Each slot corresponds to the position of the insertion block. Protrusions are provided inside each slot, and each insertion block respectively matches the corresponding slot.

[0018] Through the above technical solutions, the splicing components do not require complex tools and cumbersome steps, and can quickly complete the assembly of the floor. Moreover, the snap-fit design of the grooves and protrusions increases the friction and bite force at the splicing joints, making the floor less likely to loosen or shift during use, ensuring the overall stability of the floor.

[0019] In summary, the present application includes at least one of the following beneficial technical effects:

[0020] (1) Through the arrangement of the strengthening components in the present utility model, the load-bearing performance of the floor can be significantly improved, enabling it to easily withstand large pressures and weights, especially suitable for places with high load-bearing requirements. Secondly, the stability and durability of the floor are effectively enhanced. By evenly distributing the pressure and preventing local deformation, the probability of damage and failure of the floor during long-term use is greatly reduced, thereby extending the service life of the floor;

[0021] (2) Through the split components in the present utility model, the convenient installation and disassembly of the floor main body and the anti-static layer can be realized. When the anti-static layer is damaged or needs to be maintained, it can be disassembled and replaced separately without the need to replace the entire floor with complex operations or professional tools, reducing the cost and maintenance difficulty;

[0022] (3) Through the arrangement of the splicing components in the present utility model, the assembly of the floor can be quickly completed without complex tools and cumbersome steps. Moreover, the snap-fit design of the grooves and protrusions increases the friction and bite force at the splicing joints, making the floor less likely to loosen or shift during use, ensuring the overall stability of the floor. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 is a schematic diagram of the overall structure of the present utility model;

[0024] Figure 2 is a bottom view of the present utility model;

[0025] Figure 3 is a schematic diagram of the internal structure of the strengthening cavity of the present utility model;

[0026] Figure 4 is a schematic diagram of the connection structure of the support layer, the reinforcing fiber board and the reinforcing I-beam of the present utility model;

[0027] Figure 5 is a schematic diagram of the connection structure of the mounting ball and the rib of the present utility model.

[0028] Description of the reference numerals: 1, floor main body; 2, anti-static layer; 3, insertion block; 4, slot; 5, strengthening cavity; 6, support layer; 7, reinforcing fiber board; 8, reinforcing I-beam; 9, connecting rod; 10, mounting ball; 11, mounting groove; 12, rib. Detailed implementation manners

[0029] Next, the technical solutions in the embodiments of the present application will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present application; obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present application.

[0030] Referring to Figures 1 - 5 , an anti-static floor with high load-bearing capacity, including a floor main body 1, and a strengthening component is provided inside the floor main body 1;

[0031] The strengthening component is used to strengthen the structural strength of the floor main body 1, including a support layer 6, the support layer 6 is welded by metal rods and is arranged in a grid shape, a reinforcing fiber board 7 is provided at the bottom of the support layer 6, and a plurality of reinforcing I-beams 8 are provided at the bottom of the reinforcing fiber board 7. The plurality of reinforcing I-beams 8 are evenly distributed along the horizontal direction of the floor main body 1, and the plurality of reinforcing I-beams 8 are used to disperse the weight borne by the floor.

[0032] The support layer 6 is welded by metal rods into a grid shape, and this structure can evenly disperse the pressure from above the floor. When the pressure acts on the floor main body 1, the grid-shaped support layer 6 can quickly transfer the pressure to each part, avoiding local concentrated stress, thereby effectively reducing the stress concentration phenomenon.

[0033] The reinforcing fiber board 7 is located at the bottom of the support layer 6 and has high tensile strength and toughness. It can further enhance the structural stability of the support layer 6 and prevent the support layer 6 from deforming or being damaged under long-term stress.

[0034] The plurality of reinforcing I-beams 8 evenly distributed along the horizontal direction of the floor main body 1 mainly play the role of dispersing the weight. When the floor main body 1 bears a large vertical pressure, the reinforcing I-beams 8 can evenly transfer the weight to each support point of the floor, reducing the burden on a single support point, thereby improving the overall load-bearing capacity of the floor.

[0035] Through the setting of the strengthening component, the load-bearing performance of the floor can be significantly improved, enabling it to easily handle large pressures and weights, especially suitable for places with high load-bearing requirements. Secondly, the stability and durability of the floor are effectively enhanced. By evenly dispersing the pressure and preventing local deformation, the probability of damage and failure of the floor during long-term use is greatly reduced, thereby extending the service life of the floor. Finally, the safety of use is significantly improved, and dangerous situations such as collapse or rupture caused by insufficient load-bearing capacity of the floor can be effectively avoided, providing a reliable and solid guarantee for personnel and equipment.

[0036] Referring toFigures 3 - 4 , a reinforcing cavity 5 is formed inside the floor main body 1. The support layer 6, the reinforced fiber board 7 and multiple reinforcing I-beams 8 are all located inside the reinforcing cavity 5. The support layer 6 is connected to the inner wall of the reinforcing cavity 5, and the support layer 6 is connected to the reinforced fiber board 7 through an adhesive.

[0037] Refer to Figure 5 , an anti-static layer 2 is provided on the top of the floor main body 1. A disassembly component is provided between the floor main body 1 and the anti-static layer 2. There are multiple groups of disassembly components. Each group of disassembly components includes a connecting rod 9. The connecting rod 9 is fixedly connected to the bottom of the anti-static layer 2. An installation ball 10 is fixedly connected to the bottom of the connecting rod 9. Installation grooves 11 are formed inside the floor main body 1. Two convex strips 12 are provided inside each installation groove 11. The installation ball 10 is located between the two convex strips 12. Each installation ball 10 is made of a flexible material. Splicing components are provided at both ends of the floor main body 1.

[0038] Through the disassembly component, the convenient installation and disassembly of the floor main body 1 and the anti-static layer 2 can be realized. Specifically, the installation ball 10 at the bottom of the connecting rod 9 is made of a flexible material and can be squeezed into the installation groove 11 and located between the two convex strips 12. The convex strips 12 play a limiting role on the installation ball 10 to prevent it from easily coming out, so as to stably install the anti-static layer 2 on the floor main body 1. When disassembling, the installation ball 10 is pulled out between the convex strips 12 to disassemble the anti-static layer 2.

[0039] When the anti-static layer 2 is damaged or needs to be maintained, it can be disassembled and replaced separately without using complex operations or professional tools to replace the entire floor, reducing the cost and maintenance difficulty.

[0040] Refer to Figures 1 - 2 , the splicing component includes insertion blocks 3. The number of insertion blocks 3 is set to be multiple. Two of the insertion blocks 3 are fixedly connected to one end of the floor main body 1, and the other multiple insertion blocks 3 are fixedly connected to the other end of the floor main body 1. Grooves are formed at the upper and lower ends of each insertion block 3. The splicing component further includes slots 4. The position of each slot 4 corresponds to that of the insertion block 3. Protrusions are provided inside each slot 4. Each insertion block 3 matches the corresponding slot 4.

[0041] When multiple floor main bodies 1 are spliced, the insertion blocks 3 at one end of the floor main body 1 are inserted into the slots 4 at the corresponding positions of the adjacent floor main body 1. The grooves at the upper and lower ends of the insertion blocks 3 are engaged with the protrusions inside the slots 4, so as to achieve a firm connection and ensure the fixed splicing position of the floor in the horizontal direction.

[0042] Through the setting of the splicing components, the assembly of the floor can be quickly completed without complex tools and cumbersome steps. Moreover, the snap-fit design of the grooves and bumps increases the friction and bite force at the splicing points, making it difficult for the floor to become loose or displaced during use, and ensuring the overall stability of the floor.

[0043] Working principle: When multiple floor bodies 1 are spliced, the insertion block 3 at one end of the floor body 1 is inserted into the slot 4 at the corresponding position of the adjacent floor body 1. The grooves at the upper and lower ends of the insertion block 3 are engaged with the bumps inside the slot 4, thus achieving a firm connection and ensuring the fixed splicing position of the floor in the horizontal direction. After splicing, the support layer 6 can evenly disperse the pressure from above the floor. When the pressure acts on the floor body 1, the grid-shaped support layer 6 can quickly transfer the pressure to each part, avoiding local concentrated stress, and thus effectively reducing the stress concentration phenomenon. Because the reinforced fiberboard 7 is located at the bottom of the support layer 6, it has high tensile strength and toughness. It can further enhance the structural stability of the support layer 6 and prevent the support layer 6 from deforming or being damaged under long-term stress. The reinforced I-beam 8 mainly plays the role of dispersing the weight. When the floor body 1 bears a large vertical pressure, the reinforced I-beam 8 can evenly transfer the weight to each support point of the floor, reducing the burden on a single support point, and thus improving the overall load-bearing capacity of the floor.

[0044] The above are all preferred embodiments of this application. The protection scope of this application is not limited accordingly. Therefore, all equivalent changes made according to the structure, shape, and principle of this application shall be covered within the protection scope of this application.

Claims

1. A high load-bearing antistatic floor, characterized in that: include: A floor main body (1), wherein a reinforcement component is provided inside the floor main body (1); The reinforcement component is used to strengthen the structural strength of the floor body (1), comprising a support layer (6), the support layer (6) being welded from metal rods and arranged in a grid shape, a reinforcing fiberboard (7) being provided at the bottom of the support layer (6), a plurality of reinforcing I-beams (8) being provided at the bottom of the reinforcing fiberboard (7), the plurality of reinforcing I-beams (8) being evenly distributed along the horizontal direction of the floor body (1), and the plurality of reinforcing I-beams (8) being used to disperse the weight borne by the floor.

2. A high load-bearing antistatic floor according to claim 1, characterized in that: A reinforcement cavity (5) is provided inside the floor body (1), and the support layer (6), the reinforced fiberboard (7) and the plurality of reinforced I-beams (8) are all located inside the reinforcement cavity (5).

3. A high load-bearing antistatic floor according to claim 1, characterized in that: The support layer (6) is connected to the inner wall of the reinforcement cavity (5), and the support layer (6) is connected to the reinforced fiberboard (7) via an adhesive.

4. The high load-bearing antistatic floor according to claim 1, characterized in that: An antistatic layer (2) is provided on the top of the floor main body (1), and a split component is provided between the floor main body (1) and the antistatic layer (2).

5. A high load-bearing antistatic floor according to claim 4, characterized in that: The split components are provided in a plurality of groups, each group of the split components comprising a connecting rod (9), the connecting rod (9) being fixedly connected to the bottom of the antistatic layer (2), the bottom of the connecting rod (9) being fixedly connected to a mounting ball (10), a mounting groove (11) being provided inside the floor body (1), two convex strips (12) being provided inside the mounting groove (11), and the mounting ball (10) being located between the two convex strips (12).

6. A high load-bearing antistatic floor according to claim 5, characterized in that: Each of the installation balls (10) is made of a flexible material, and both ends of the floor body (1) are provided with splicing components.

7. A high load-bearing antistatic floor according to claim 6, characterized in that: The splicing assembly comprises an insert block (3), wherein the number of the insert blocks (3) is set to be multiple, wherein two of the insert blocks (3) are fixedly connected to one end of the floor body (1), and another plurality of the insert blocks (3) are fixedly connected to the other end of the floor body (1), and each of the insert blocks (3) is provided with grooves at both upper and lower ends.

8. The high load-bearing antistatic floor according to claim 7, characterized in that: The splicing assembly further comprises slots (4), each of the slots (4) corresponding to the position of the insert block (3), each of the slots (4) being provided with a protrusion inside, and each of the insert blocks (3) matching with the corresponding slot (4).

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