TWM552780U - Tough anti-slip structure of smooth bottom surface of table mat - Google Patents

Description

The toughness of the smooth underside of the table mat

The toughness and anti-slip structure of the smooth bottom surface of the table mat provides a flat table mat made of polypropylene (PP) plasticized material, and has a tough and deformable adhesive layer for frictional friction on the smooth lower bottom surface thereof. , as a tough colloidal structure based on flat slip.

Whether it is a desk or a desk, the desktop is hard and unsuitable for writing or storage buffering. It is common on the tabletop, and a mat is placed on the table. The mat is usually made of PVC and PVC foam. The texture is soft and frictional, can be attached to the table top, does not cause sliding when used, and is also regulated as a material that can be applied as a table mat. Recently, a table mat made of polypropylene is used as a substrate. Polypropylene materials are decomposed and cost-effective, and are gradually applied for safer environmental maintenance. However, since the polypropylene mat is made of a tight molecular structure, the surface is smooth and easy to implement on a table top. Sliding away by external force.

The present invention provides a toughness and anti-slip structure for a smooth bottom surface of a table mat, and a flat table mat made of a polypropylene (PP) plasticized material, on the smooth bottom surface thereof, in a printed manner, The toughness colloidal structure is combined with the toughness and deformability to obtain the adhesive friction. The tough colloid is formed by cold-forming in the form of printing, and is bonded to the surface of the lower surface, and is arrayed or combined. By means of or staggered angular position, the web is distributed on the lower bottom surface so that any coordinate position of the lower bottom surface of the table mat can be evenly slipped, which is the main purpose.

The second object of the present invention is that the tough colloid is block-shaped and distributed in an array on the lower bottom surface of the table mat.

The third object of the present invention is that the tough colloid is made by printing, and the thickness of the tough colloid can be further increased by using a laminate printing method.

The fourth object of the present invention is that a layer of the same material as the tough colloid is interposed between the tough colloid and the lower surface of the table mat, and the joint between the tough colloid and the lower bottom is increased by the bottom of the mat.

The fifth object of the present invention is to implement a scattering micro-structure with optical scattering capability on the upper surface of the substrate layer, thereby preventing the reflected light from being visually impaired to the eye.

The sixth object of the present invention is that the tough colloid is block-shaped or line-shaped, and can be arranged in parallel in a line shape, and a pair of gaps are reserved between the opposite sides, and the line can also be distributed at most equiangular intersections. The opposite surfaces of the bottom surface are oriented at the edge of the table mat.

1‧‧‧Table mat

10‧‧‧ basal layer

11‧‧‧ upper surface

12‧‧‧ underside

110‧‧‧scatter microstructure

20‧‧‧Typical colloid

21‧‧‧

22‧‧‧Space area

23‧‧‧Long strip film

24‧‧‧ spacer gap

30‧‧‧Desktop

L‧‧‧Light source

B0‧‧‧ forward beam

BR‧‧·reflected beam

The first figure is a schematic diagram showing the distribution of the bottom structure of the creation table mat.

Figure 2 is a cross-sectional view of the creation of the table mat.

The third figure is a schematic diagram of the creation of the ductile colloids distributed in a matrix on the lower bottom surface.

Figure 4 is one of the structures of the tough colloid.

Figure 5 is the second structure of the creative ductile colloid.

Figure 6 is the third structure of the creation of ductile colloids.

Figure 7 is a schematic diagram showing the formation of a scattering microstructure on the upper surface of the creation.

Figure 8 is a schematic view showing the bonding of the toughness colloid to the lower bottom surface of the base layer via a base.

The creation is a toughness and slip-proof structure of a smooth bottom surface of a table mat. In order to provide a flat table mat made of a plasticized material of polypropylene, the surface of the sheet is smooth due to the high molecular density of the material, and the creation is at the table. The smooth bottom surface of the mat is combined with a tough colloid which is tough and deformable to obtain a frictional friction. The mat is used as a table mat to obtain a flat slip-proof basis on the table top. The tough colloid is a cold-formed rubber compound which is coated with a fluid. Printing and cold forming, and facing the surface of the lower bottom surface, and distributed in an array or a comprehensive arrangement on the lower bottom surface, so that the lower bottom surface of the table mat can be evenly slipped, and the tough colloid The texture is a plasticized material that can be linked or bonded to the base layer.

The main material of the tough colloid is an aqueous rubber compound, which is formed by cold curing. It is in a fluid state before forming, which is good for printing. The basic combination method is to apply the tough colloidal fluid material to the coating. The method is combined with the lower bottom surface of the base layer to form a granular, or sheet-like, or block-like toughness which can be cold-curely formed. When combined, it has the ability of toughness deformation when it is contacted with the table top, so that it can be deformed and rubbed and rubbed. Sliding basis.

For a detailed structure implementation of this creation, please refer to the following description:

First, as shown in FIG. 1 , the table mat 1 is placed on the table top 30. The lower bottom surface 12 of the table mat 1 is provided with a plurality of tough colloids 20, and the tough colloid 20 forms friction with the table top 30. The upper surface 11 of the table mat 1 is provided with a writing pen pressure buffer. The table mat 1 is formed by using polypropylene (PP) as a base material, and the microbubbles are further mixed in the process to form a foamed shape, and the bubbles are formed. There is a stress that can absorb the deformation, so that the web of the body of the table mat 1 is bendable, and under the same volume, the weight is reduced, and the air bubble can absorb the gravity of the writing pressure.

Referring to FIG. 2 again, the table mat 1 is made of a base material layer 10 made of polypropylene material. The forming surface is smooth, and a plurality of tough colloids 20 are formed on the lower bottom surface 12, and the tough colloid 20 is in contact. The equal surface area is combined with the lower bottom surface 12 of the table mat 1 , and the upper surface 11 of the base layer 10 is made of the same material as the base layer 10 or other materials.

Referring to FIG. 3 again, the lower bottom surface 12 of the table mat 1 is distributed in an array with a plurality of ductile colloids 20. The area of the ductile colloid 20 is any geometric shape, and the ductile colloids 20 are opposed to each other. A blank lower bottom surface 12 is left.

Referring to FIG. 4 again, a plurality of tough colloids 20 are arranged in a matrix on the lower surface of the underside 12 of the table mat 1 , and each of the tough colloids 20 is separated by a space portion 22 , and the tough colloid 20 can be a plurality of strips of film. 23 is formed by merging, and a pair of gaps 24 are reserved between the mergings. By the presence of the pair of gaps 24, the dust can be accommodated and the deformation stress between each of the strips of film 23 can be absorbed, so that each The strip film 23 can be independently and more flexibly deformed to increase friction.

Referring to FIG. 5 again, the tough colloid 20 may be in the form of a line, which is distributed in a straight line on the surface of the lower bottom surface 12, and the distribution is parallel or distributed in parallel, and the spacers 24 are relatively spaced apart and arranged by the spacers 24 . The transformation angle transformation can form the friction vector of different axes and achieve a 360 degree slip.

Referring to FIG. 6 again, the lower bottom surface 12 of the table mat 1 is formed with a line-shaped ductile colloid 20 at an oblique angle according to the side line thereof, and the tough colloids 20 at different angles intersect each other, and each staggered toughness A pair of gaps 24 are formed between the colloids 20, and the staggered manner can be used to assist the surface toughness tension of the table mat 1 to relatively thin the overall thickness, and also to achieve multi-axis plane friction by the angle, thereby forming 360 Plane anti-slip effect.

Referring to FIG. 7 again, the table mat 1 is based on a base layer 10, and the upper surface 11 can be implemented as a scattering microstructure 110. The bottom tough colloid 20 and the table top 30 are static friction. When a light source L of a fixed angle is used, the forward beam B0 emitted by the light source L acts on any surface of the scattering microstructure 110. Since any surface of the scattering microstructure 110 is an irregular three-dimensional concave and convex shape, the forward beam B0 arrives. At any point, a different reflected beam BR is generated, thus forming a scattering effect. The structural dimension of the scattering microstructure 110 is visually a matte matte surface, and the uneven height difference is even within the size of the nanometer, and the maximum drop can be The specification is within the diameter range of the writing nib, and the surface of the irregular shape can fully act on B0 to achieve the scattering effect, avoiding the light energy reflection of the light source L, and the color of the surface of the scattering microstructure 110 can absorb white light or visible light. The wavelength color is directly premised on absorbing the forward beam B0, so that the occurrence of the reflected beam BR can be reduced.

Referring to FIG. 8 again, the table mat 1 is based on the base layer 10, and in its smooth lower bottom surface 12, indirectly a bottom 21 is combined with a tough colloid 20, and the bottom 21 and the tough colloid 20 are made of the same material. , each of them can form a high degree of joint strength between molecules, and the bottom 21 is uniformly distributed on the lower bottom surface 12 The same area, the combined state is a comprehensive combination, through the indirectness of the sole 21, the formed tough colloid 20 can be completed and settled in the structural position. This embodiment can first apply the sole 21 to the lower bottom surface 12. After the table, the bonded tough colloid 20 is further coated, or the mat 21 and the tough colloid 20 are bonded to the upper surface of the lower bottom surface 12 in synchronization with the molding operation.

1‧‧‧Table mat

11‧‧‧ upper surface

12‧‧‧ underside

20‧‧‧Typical colloid

30‧‧‧Desktop

Claims (10)

The toughness and anti-slip structure of the smooth bottom surface of the table mat provides a flat-shaped table mat made of a plasticized plastic material of polypropylene, and has a tough and deformable surface to be bonded to the smooth bottom surface thereof as a flat surface. The toughness-based colloidal structure comprises: a base layer formed of a plasticized plastic material having a smooth lower bottom surface; and a plurality of ductile colloids capable of being combined with the texture of the lower bottom surface are distributed on the surface of the lower surface. Each of the ductile colloids respectively joins the opposing surfaces of the lower bottom surface in a facing manner. The toughness and anti-slip structure of the smooth bottom surface of the table mat as claimed in claim 1, wherein the ductile colloid is in an array and is printed on the opposite surface of the lower bottom surface. The toughness and anti-slip structure of the smooth bottom surface of the table mat as described in claim 2, wherein the tough colloid is formed by stacking and printing. The toughness and anti-slip structure of the smooth bottom surface of the table mat according to claim 1, wherein the tough colloid has an area shape of a geometric shape. The toughness and anti-slip structure of the smooth bottom surface of the table mat according to the first aspect of the invention, wherein the tough colloids are line-shaped and are arranged in parallel at opposite surfaces of the lower bottom surface. The toughness and anti-slip structure of the smooth bottom surface of the table mat according to the first aspect of the patent application, wherein the ductile colloid is in the form of a line, and is distributed at an angle on the opposite surface of the lower bottom surface. The toughness and anti-slip structure of the smooth bottom surface of the table mat according to the first aspect of the patent application, wherein the tough colloid is formed by two or more strip-shaped films side by side, and a pair of gaps are formed between the phases. The toughness and anti-slip structure of the smooth bottom surface of the table mat according to the first aspect of the patent application, wherein the surface of the lower bottom surface is fully integrated with a sole, and the bottom surface of the mat is distributed with a tough colloid. The toughness and anti-slip structure of the smooth bottom surface of the table mat as described in claim 8 wherein the material of the sole is the same as that of the tough colloid, and is fully integrated on the web of the lower bottom surface. The toughness and slip-stop structure of the smooth bottom surface of the table mat as described in claim 1 of the patent application, wherein The upper surface of the bottom layer is fully implemented with a scattering microstructure.