Non-slip mat, non-slip mat set and counter top type appliance
Through the anti-slip network and stress-bearing convex design of silicone molding, the anti-slip problem of pad products on wet and uneven surfaces is solved, and efficient anti-slip and durability is achieved.
Patent Information
- Application Number
- CN202421959533.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-06-19
- Publication Date
- 2025-07-25
- Estimated Expiration
- 2035-06-19
AI Technical Summary
The existing pad products have shortcomings in anti-slip performance, especially on high humidity or uneven surfaces with poor anti-slip effect and limited service life.
An anti-slip network formed by silicone is used to form a network structure with connecting nodes and connecting rods, and a stressed projection is provided on the side away from the base layer to enhance friction and roughness of the contact surface, and a tensile skeleton is equipped to improve durability.
It significantly improves the anti-slip effect on humid environments and uneven surfaces, extends service life, is easy to operate and durable.
Smart Images
Figure CN223144019U_ABST
Abstract
Description
Technical Field
[0001] The utility model belongs to the technical field of anti-slip mats, and particularly relates to an anti-slip mat, an anti-slip mat set and a tableware appliance. Background Art
[0002] With the improvement of people's living quality and the growth of diversified demands, various functional mat products have been widely used in daily life, such as yoga mats, carpets, table mats, mouse pads, etc. These mat products not only need to meet the basic usage functions, but also need to have good anti-slip performance to ensure the safety and comfortable experience of users.
[0003] However, there are still some deficiencies in the anti-slip performance and other aspects of the existing mat products. For example, some products only rely on simple textures to increase the friction with the contact surface, and the anti-slip effect is limited. Especially under the influence of high humidity, grease or sweat, the anti-slip performance often drops significantly, and it is difficult to be competent for application scenarios such as yoga, bathrooms, kitchens, etc. for a long time. In addition, the adaptability of some products to uneven surfaces is limited, and the stress distribution is uneven after arrangement, affecting the service life. Summary of the Utility Model
[0004] Aiming at the deficiencies of the existing technology, the utility model provides an anti-slip mat, an anti-slip mat set and a tableware appliance.
[0005] The anti-slip mat provided by the utility model includes a base layer and an anti-slip network combined together; the anti-slip network is a silicone molding body, which has a plurality of connecting nodes distributed on the surface and connecting rods connecting between the connecting nodes, and the connecting nodes and the connecting rods are connected to each other to form an integral network structure; on the anti-slip network and on the side far away from the base layer, there are also force-bearing convex parts, and the force-bearing convex parts are integrally formed on the connecting nodes.
[0006] As a preferred scheme, the connecting nodes are distributed in a rectangular array, and the connecting rods are connected between two adjacent connecting nodes to jointly form a network structure of vertical and horizontal interweaving.
[0007] As a preferred scheme, the connecting nodes are distributed in a hexagonal shape, and the connecting rods are connected between two adjacent connecting nodes to jointly form a honeycomb network structure.
[0008] As a further optimization scheme, there is a concave area on the surface of the force-bearing convex part.
[0009] As a further optimization scheme, a tensile skeleton is also wrapped in the anti-slip network; the tensile skeleton has a network structure matching the anti-slip network and is embedded in the anti-slip network when the anti-slip network is molded.
[0010] The present utility model also provides an anti-slip mat set, which includes an independent base layer and an anti-slip network; the base layer is a rigid plate-shaped entity; the anti-slip network is a silicone molded body, having a plurality of connection nodes distributed on the surface and connecting rods connected between the connection nodes, and the connection nodes and the connecting rods are connected to each other to form an integral network structure; on at least one side of the anti-slip network, there are also force-bearing convex parts, and the force-bearing convex parts are integrally formed on the connection nodes.
[0011] As a further optimized solution, on one side of the anti-slip network, the connection nodes and the connecting rods form a flat support surface; on the other side of the anti-slip network, the force-bearing convex parts are integrally formed on the connection nodes.
[0012] As a further optimized solution, there is a recessed area on the surface of the force-bearing convex part.
[0013] As a further optimized solution, the base layer is a glass plate, a ceramic plate, a quartz stone plate, a marble plate, a granite plate or an artificial stone plate.
[0014] The present utility model also provides a tableware appliance, which includes a tabletop and the above-mentioned anti-slip mat set arranged on the tabletop. The anti-slip network is laid flat on the tabletop, and the base layer is placed on the anti-slip network and presses the anti-slip network under the action of gravity.
[0015] Beneficial effects
[0016] The anti-slip mat provided by the present utility model is applicable to various scenarios, such as yoga mats, carpets, table mats, mouse pads, etc. The anti-slip network is made of silicone material, with its good elasticity, flexibility and durability, and the network structure formed by the connection nodes and connecting rods distributed on the surface, which enhances the friction with the contact surface and effectively prevents sliding. The design of the force-bearing convex parts and the recessed area further increases the roughness of the contact surface, generating mechanical occlusion and local negative pressure adsorption effects, especially significantly improving the anti-slip effect in humid environments and under dynamic loads.
[0017] The anti-slip mat set provided by the present utility model is applicable to tabletops such as dining tables, stoves, bars, display counters, conference tables, etc. The base layer adopts a rigid plate-shaped entity such as a glass plate, a marble plate, etc. The anti-slip network also has a network structure formed by silicone material, connection nodes distributed on the surface and connecting rods, as well as structures such as force-bearing convex parts and recessed areas, achieving an efficient anti-slip effect. The cooperation between the heavy base layer and the force-bearing convex parts with good elasticity and deformability can compensate for the microscopic unevenness of the tabletop, make the contact surface under the base layer flatter, and the pressure distribution more uniform, avoiding stress concentration and cracking of the base layer, and at the same time playing a buffering role and improving the durability of the base layer. In addition, the anti-slip mat set is composed of an independent base layer and an anti-slip network. During installation, only need to lay the anti-slip network flat on the tabletop and then place the base layer, which is simple to operate and easy to replace. Description of the drawings
[0018] Figure 1 Schematic structural diagram of an anti-slip mat
[0019] Figure 2 Explosion schematic diagram of an anti-slip mat
[0020] Figure 3 Partial enlarged view of an anti-slip network
[0021] Figure 4 Cross-sectional view of an anti-slip network
[0022] Figure 5 Simplified schematic diagram of an anti-slip network with hexagonal cells
[0023] Figure 6 Schematic structural diagram of a tensile skeleton
[0024] Figure 7 Schematic structural diagram of an anti-slip mat set
[0025] Figure 8 Partial schematic diagram of an anti-slip network
[0026] Figure 9 Schematic structural diagram of a desk with an anti-slip mat set laid on it
[0027] In the figure: 1. Anti-slip network; 2. Matrix layer; 11. Connecting rod member; 12. Connection node; 13. Force-bearing convex part; 14. Support surface; 19. Tensile skeleton; 131. Concave area Specific implementation mode
[0028] The following further clarifies the present utility model through embodiments, aiming to more clearly illustrate the technical solutions of the present utility model and should not be construed as a limitation
[0029] Embodiment 1
[0030] As Figure 1 And Figure 2 shown, an anti-slip mat can be used as a yoga mat, carpet, table mat, mouse mat, etc. The anti-slip mat includes a matrix layer 2 and an anti-slip network 1 combined together by means of pasting, injection molding, sewing, etc.; the anti-slip network 1 is made of silica gel material, and the matrix layer 2 can have different selections according to different usage scenarios of the anti-slip mat
[0031] When used as a yoga mat, the substrate layer 2 can be made of environmentally friendly and non-toxic EVA (ethylene-vinyl acetate copolymer) foam, TPE (thermoplastic elastomer), or natural rubber, which have good resilience and cushioning properties. These materials can provide sufficient support and resilience, absorb the impact generated during yoga movements, and better protect the joints. The substrate layer 2 can also adopt a multi-layer composite structure, such as including a high-density foam core layer in the middle and two softer foaming layers on the upper and lower sides, to obtain better comfort.
[0032] When used as a carpet, the substrate layer 2 can be made of wear-resistant and pressure-resistant PVC (polyvinyl chloride) or nylon fabric, which can better withstand frequent trampling in daily life. The substrate layer 2 can be a flat and dense sheet to ensure large-area contact with the ground and evenly distribute pressure, or it can be made with surface textures, waves, etc. to enhance the texture of the carpet.
[0033] When used as a table mat, the substrate layer 2 can be made of hard plastics (such as PP, PC, etc.), leather, or fabric materials. Hard plastics are more economical and wear-resistant, while leather or fabric bring a comfortable and warm touch, and can be selected according to different needs.
[0034] When used as a mouse pad, the substrate layer 2 can be made of a combination of rubber and fabric, and the rubber and fabric together provide a good touch and wrist support.
[0035] As described above, the anti-slip network 1 is a silicone molded body. Silicone has good elasticity, flexibility, and durability, and has strong friction with various surfaces. As Figure 3 and Figure 4 shown, the anti-slip network 1 has a plurality of connection nodes 12 distributed on the surface and connecting rods 11 connected between the connection nodes 12. The connection nodes 12 and the connecting rods 11 are connected to each other to form an overall network structure. The anti-slip network 1 constructs an overall network structure through a plurality of connection nodes 12 and connecting rods 11 distributed on the surface, which is beneficial to dispersing pressure, enhancing the friction at local contact points, and reducing the sliding between the anti-slip mat and the contact surface. In addition, this network structure also overcomes the defect that silicone materials are not easy to breathe, and helps to improve the moisture and sweat discharge performance of the anti-slip mat.
[0036] On the anti-slip network 1 and on the side away from the substrate layer 2, there are also force-bearing protrusions 13, and the force-bearing protrusions 13 are integrally formed on the connection nodes 12. The force-bearing protrusions 13 increase the roughness of the contact surface, enhance the mechanical interlocking between the anti-slip mat and the contact surface, and especially help to maintain stability and prevent the anti-slip mat from moving or slipping under inclined or dynamic load conditions.
[0037] Preferably, there is also a recessed area 131 on the surface of the force-bearing protrusions 13, as Figure 3 and Figure 4As shown, when the anti-slip mat comes into contact with the contact surface and is pressed, the air in the concave area 131 is discharged, forming a local negative pressure. This negative pressure effect generates an additional adsorption force between the anti-slip mat and the contact surface, enhancing the tight fit between the two and reducing the possibility of sliding. Especially when used as a bathroom mat in wet scenarios such as this, this additional adsorption effect is particularly obvious, significantly improving the anti-slip effect.
[0038] In the anti-slip network 1, the connecting nodes 12 are preferably distributed in a rectangular array, and the connecting rods 11 are connected between two adjacent connecting nodes 12, jointly forming a network structure of vertical and horizontal intersections, as Figure 2 shown. In this network structure, the connecting nodes 12 and the connecting rods 11 are arranged regularly, widely applicable, with uniform force distribution, high material utilization rate, simple mold design, and low production cost.
[0039] The connecting nodes 12 being distributed in a hexagon as Figure 5 shown is also a preferred distribution method. The connecting rods 11 are connected between two adjacent connecting nodes 12, jointly forming a honeycomb network structure. This anti-slip network 1 with a hexagonal honeycomb network structure has good ductility in all directions in the plane, so it can have a high degree of fit on uneven surfaces.
[0040] In addition, the basic unit constituting the anti-slip network 1 can also be a rhombus, a triangle, or a combination of multiple shapes, etc.
[0041] Preferably, a tensile skeleton 19 is also wrapped inside the anti-slip network 1; the tensile skeleton 19 has a network structure matching that of the anti-slip network 1 and is embedded in the anti-slip network 1 when the anti-slip network 1 is formed. As an internal strengthening component of the anti-slip network 1, the main function of the tensile skeleton 19 is to improve the overall strength and durability of the anti-slip mat, especially to effectively prevent the anti-slip mat from being damaged due to excessive force when facing a large tensile force. Figure 6 Shown is the tensile skeleton 19 applicable to the anti-slip network 1 with a rectangular network structure. Anti-slip networks 1 with other different shapes and structures can be correspondingly provided with matching tensile skeletons 19.
[0042] The tensile skeleton 19 can be selected from wire meshes, fiber-reinforced mesh materials, woven mesh cloth, etc. Stainless steel wires, aluminum alloy wires, etc. are woven into a mesh-like skeleton, which has extremely high tensile strength and good toughness, and can significantly improve the tensile performance of the anti-slip mat. High-performance fibers such as carbon fiber, glass fiber, and aramid fiber and the formed mesh materials have the characteristics of light weight, high strength, and high modulus, can significantly improve the tensile strength and impact resistance of the anti-slip mat, and at the same time can maintain good flexibility. Mesh cloth woven from fibers such as cotton and linen has excellent flexibility and a large surface roughness, and has good bonding when coated in the anti-slip network 1.
[0043] Example 2
[0044] As shown Figure 7 A non-slip mat set, including a substrate layer 2 and a non-slip network 1 that are independent of each other; the substrate layer 2 is a rigid plate-shaped entity, such as a glass plate, a ceramic plate, a quartz stone plate, a marble plate, a granite plate or an artificial stone plate, etc. Such materials have excellent physical properties, such as high strength, wear resistance, beauty and generosity, etc., and are widely applicable to table tops, stove tops, bar tops, display counter tops, conference table tops, etc. In addition, these materials have a relatively large weight, which can provide a relatively large downward pressure to ensure that the table top remains stable during use and is not easily displaced. This non-slip mat set can be used for the protection and decoration of various table tops. When in use, the non-slip network 1 is laid flat on table tops such as dining tables and bars, and then a substrate layer 2 for protection and decoration, such as a glass plate or a marble plate, is placed on it.
[0045] The non-slip network 1 is a silicone molded body, having a plurality of connection nodes 12 distributed on the surface and connecting rods 11 connected between the connection nodes 12. The connection nodes 12 and the connecting rods 11 are connected to each other to form an integral network structure; on one side or both sides of the non-slip network 1, there are also force-receiving convex parts 13, and the force-receiving convex parts 13 are integrally formed on the connection nodes 12. The non-slip network 1 constructs an integral network structure through a plurality of connection nodes 12 and connecting rods 11 distributed on the surface, which is beneficial to dispersing pressure, enhancing the friction force at local contact points, and inhibiting sliding.
[0046] Due to its good elasticity and deformability, the force-receiving convex part 13 can undergo adaptive deformation when subjected to pressure. When the non-slip network 1 is laid on an uneven table top, the force-receiving convex part 13 can conform to the slight undulations of the table top and compensate for the microscopic unevenness of the table top through its own deformation, making the contact surface under the substrate layer 2 flatter. After the force-receiving convex part 13 compensates for the unevenness of the table top, the contact and extrusion between the substrate layer 2 and the non-slip network 1 are more uniform, and the upward pressure can be more evenly distributed on each contact point, rather than concentrated on a few local contact points, avoiding the problem of stress concentration and cracking of the substrate layer 2 caused by excessive local pressure. When being compressed, the force-receiving convex part 13 can not only compensate for the unevenness of the table top, but also play a certain buffering role, reducing the instantaneous pressure peak of the external force acting on the substrate layer 2 and improving the durability of the substrate layer 2.
[0047] Taking the example that one side of the non-slip network 1 has a force-receiving convex part 13, as shown in Figure 3 and Figure 8 shown, on one side of the non-slip network 1, the connection nodes 12 and the connecting rods 11 form a flat support surface 14; on the other side of the non-slip network 1, the force-receiving convex part 13 is integrally formed on the connection nodes 12. Preferably, a recessed area 131 is provided on the surface of the force-receiving convex part 13, which can generate additional adsorption force after being squeezed by a smooth contact surface.
[0048] Example 3
[0049] For furniture of table type, such as tea tables, dining tables, office desks, etc., there is usually a tabletop above. This embodiment provides a new furniture of table type. The anti-slip mat set provided in Embodiment 2 is laid on the tabletop. Specifically, the anti-slip network 1 is laid flat on the tabletop, and the base layer 2 is placed on the anti-slip network 1. Under the action of gravity, the base layer 2 presses the anti-slip network 1 tightly.
[0050] Take Figure 9 the office desk shown as an example. The anti-slip network 1 and the base layer 2 are placed above the desktop.
[0051] The above embodiments are exemplary. The purpose is to illustrate the technical concept and features of the present utility model so that those skilled in this field can understand the content of the present utility model and implement it accordingly. It should not be used to limit the protection scope of the present utility model. Any equivalent changes or modifications made according to the spirit of the present utility model should be covered within the protection scope of the present utility model.
Claims
1. A non-slip mat, characterized in that: Comprising a combined matrix layer (2) and an anti-slip network (1); the anti-slip network (1) is a silicone molded body, having a plurality of connection nodes (12) distributed on the surface and connecting rods (11) connected between the connection nodes (12), and the connection nodes (12) and the connecting rods (11) are connected to each other to form an integral network structure; on the anti-slip network (1) and on the side away from the matrix layer (2), there is also a force-bearing convex part (13), and the force-bearing convex part (13) is integrally formed on the connection node (12).
2. The anti-slip mat according to claim 1, characterized in that: The connection nodes (12) are distributed in a rectangular array, and the connecting rods (11) are connected between two adjacent connection nodes (12) to jointly form a network structure of vertical and horizontal interweaving.
3. The anti-slip mat according to claim 1, characterized in that: The connection nodes (12) are distributed in a hexagonal shape, and the connecting rods (11) are connected between two adjacent connection nodes (12) to jointly form a honeycomb network structure.
4. The anti-slip mat according to claim 1, characterized in that: A recessed area (131) is provided on the surface of the force-bearing convex part (13).
5. The anti-slip mat according to claim 1, characterized in that: An anti-tensile skeleton (19) is further wrapped inside the anti-slip network (1); the anti-tensile skeleton (19) has a network structure matching the anti-slip network (1) and is embedded in the anti-slip network (1) when the anti-slip network (1) is molded.
6. A non-slip mat set, characterized in that: Comprising an independent matrix layer (2) and an anti-slip network (1); the matrix layer (2) is a rigid plate-shaped entity; the anti-slip network (1) is a silicone molded body, having a plurality of connection nodes (12) distributed on the surface and connecting rods (11) connected between the connection nodes (12), and the connection nodes (12) and the connecting rods (11) are connected to each other to form an integral network structure; on at least one side of the anti-slip network (1), there is also a force-bearing convex part (13), and the force-bearing convex part (13) is integrally formed on the connection node (12).
7. The anti-slip mat set according to claim 6, characterized in that: On one side of the anti-slip network (1), the connection nodes (12) and the connecting rods (11) form a flat support surface (14); on the other side of the anti-slip network (1), the force-bearing convex part (13) is integrally formed on the connection node (12).
8. The anti-slip mat set according to claim 7, characterized in that: A recessed area (131) is provided on the surface of the force-bearing convex part (13).
9. The anti-slip mat set according to claim 6, wherein: The matrix layer (2) is a glass plate, a ceramic plate, a quartz stone plate, a marble plate, a granite plate or an artificial stone plate.
10. A countertop appliance, characterized in that: Comprising a tabletop and the anti-slip mat set according to any one of claims 6 to 8 provided on the tabletop, the anti-slip network (1) is laid flat on the tabletop, and the matrix layer (2) is placed on the anti-slip network (1) and presses the anti-slip network (1) under the action of gravity.