TWM675069U - Multifunctional floor mat structure - Google Patents

Abstract

This invention is a multifunctional floor mat structure made of a material with shock-absorbing and sound-absorbing properties. It has a non-slip surface on the upper side and multiple ribs on the lower side to enhance the shock-absorbing and sound-absorbing properties. The periphery is provided with multiple interlocking structures so that the floor mats can be interlocked and connected with each other. The floor mat itself can independently provide excellent shock-absorbing and sound-absorbing effects, and can be assembled into modular units. Furthermore, the structure can be flexibly combined with various existing floor mats as the surface layer by simply stacking them on the anti-slip surface. This simple yet powerful design combines multiple functions of cushioning, vibration reduction, sound absorption, and stable support, while providing a high degree of matching flexibility and ease of manufacture. It is suitable for a variety of scenarios such as homes, offices, and gyms, demonstrating high practicality and market potential.

Description

Multifunctional floor mat structure

This invention relates to a floor mat structure, particularly a multifunctional floor mat structure that provides a comfortable user experience and excellent vibration and sound absorption effects.

As people's demands for a higher quality of life continue to rise, the functional requirements for floor mats are becoming increasingly diverse. Traditional floor mats primarily provide basic functions such as anti-slip and floor protection, failing to meet modern people's higher expectations for comfort and safety. Consequently, market demand is growing for multifunctional floor mats, which are expected to offer superior comfort and safety in addition to their basic functions.

However, existing multifunctional floor mat designs often compromise between different functions, making it difficult to simultaneously provide both soft cushioning, vibration reduction, and sound absorption, and strong support when stepped on. For example, while pursuing soft cushioning, vibration reduction, and sound absorption, a floor mat may sacrifice strong support when stepped on, resulting in deformation and lack of stability. Conversely, if strong support is overemphasized, the floor mat will lack sufficient vibration and sound absorption, failing to effectively reduce impact force and noise.

Therefore, designing a multifunctional floor mat structure that can provide excellent cushioning, vibration reduction, and sound absorption while ensuring stability and comfort when walking has become an urgent problem that needs to be solved in the industry.

The author conducted in-depth research on the above issues and, after numerous trials and refinements, finally launched this creation.

This invention provides a multifunctional floor mat structure made of a material with cushioning, vibration reduction, and sound absorption properties. The mat features a non-slip surface on its upper side and multiple ribs on its lower side. Furthermore, the mat's perimeter is equipped with multiple interlocking structures, which include interlocking recesses and interlocking protrusions. The shape of the interlocking recesses corresponds to the shape of the interlocking protrusions, allowing the mats to interlock and connect via the interlocking recesses and protrusions.

The primary purpose of this multifunctional floor mat structure lies in its inherent cushioning, vibration reduction, and sound absorption capabilities. Multiple ribs arranged on its underside and an interlocking structure around its perimeter enhance these capabilities, allowing the mat to independently provide stable support and modular expansion capabilities. Furthermore, the mat can be flexibly combined with various existing floor mats as a surface layer, achieving a simple structure and ease of manufacture. Suitable for a variety of locations, including homes, offices, and gyms, it possesses high practicality and market development potential.

10: Floor mat

11: Anti-slip surface

12: Raised ribs

13: Interlocking structure

131: Fitting notch

132: Fitting bump

20: Surface

21: Usage surface

22: Overlapping Surfaces

23: Interlocking structure

231: Fitting notch

232: Fitting bump

Figure 1 is a frontal perspective view of this work.

Figure 2 is a three-dimensional image of the reverse side of this work.

Figure 3 is a side view of this work.

Figure 4 is a plan view of the reverse side of this work.

Figure 5 is a three-dimensional diagram of this creation used in conjunction with the surface.

Figure 6 is a 3D exploded view of this creation when used with a surface.

Figure 7 is a cross-sectional view of this creation when used with a surface.

Figure 8 is a diagram showing the usage of this creation.

Figure 9 is a diagram showing another usage state of this creation.

Figure 10 is a three-dimensional image of this work used in conjunction with another surface layer.

Figure 11 is a 3D exploded view of this creation used with another surface.

Figure 12 is a cross-sectional view of this creation used in conjunction with another surface layer.

The following is a further description of the preferred embodiment of this invention with reference to the drawings, in the hope that those familiar with the relevant technology of this invention can implement it according to the description in this manual.

First, as shown in Figures 1 to 4, the invention has a multifunctional floor mat structure. The floor mat 10 is made of a material with cushioning, shock absorption and sound absorption properties. The materials that can be used are, but are not limited to, rubber, polyurethane (PU) foam, ethylene vinyl acetate copolymer (EVA) foam or other suitable polymer materials. The thickness of the floor mat 10 can be adjusted according to actual application requirements to enhance its shock absorption and sound absorption effects under external force impact, thereby improving the comfort of use. The upper side of the floor mat 10 is provided with a non-slip surface 11, and the lower side is arranged with a plurality of ribs 12. The plurality of ribs 12 In this embodiment, the grid pattern not only enhances the cushioning, shock absorption, and sound absorption properties of the mat 10, but also increases the friction between the mat and the ground, further enhancing the anti-slip effect. Furthermore, the periphery of the mat 10 is provided with a plurality of interlocking structures 13. These interlocking structures 13 include interlocking recesses 131 and interlocking protrusions 132. The shape of the interlocking recesses 131 corresponds to the shape of the interlocking protrusions 132, allowing multiple mats 10 to interlock and connect via the interlocking recesses 131 and interlocking protrusions 132, thus achieving modular splicing of the mat 10.

When in use, the floor mat 10 can be laid directly on the ground for independent use. In this case, the floor mat 10 can provide shock absorption and sound absorption effects, while also protecting the floor.

Alternatively, as shown in Figures 5 through 9, the floor mat 10 can be optionally configured with a surface layer 20. This surface layer 20 can be made from a variety of existing floor mat products to provide the user with the desired surface texture, wear resistance, or appearance. When used, the surface layer 20 has a user surface 21 on its upper side and a stacking surface 22 on its lower side. This stacking surface 22 is stacked on the non-slip surface 11 of the floor mat 10, making the overall structure stable and resistant to displacement. For example, the surface layer 20 can be a plastic floor mat, and its periphery can optionally be provided with a plurality of interlocking structures 23. The interlocking structures 23 include interlocking recesses 231 and interlocking protrusions 232. The shape of the interlocking recesses 231 corresponds to the shape of the interlocking protrusions 232, allowing multiple surface layers 20 to interlock and connect via the interlocking recesses 231 and interlocking protrusions 232, thus achieving the modular splicing function of the surface layer 20.

With this design, whether mat 10 is used alone or in conjunction with surface layer 20, the soft material of mat 10 effectively absorbs and disperses impact from above, achieving shock absorption and sound absorption, thereby enhancing user comfort and protecting the floor. When layered with surface layer 20, the harder surface layer 20 provides stable support, facilitating user application and movement, and allowing items to be placed securely.

Furthermore, as shown in Figures 10 to 12 , another embodiment of the multifunctional floor mat structure of this invention is shown. This other embodiment differs from the aforementioned embodiment in that the surface layer 20 is a wooden floor, the usable surface 21 is a smooth surface with a wood grain pattern, and the surface layer 20 is superimposed on the floor mat 10 via the stacking surface 22.

The structure of the above-described specific embodiment provides the following benefits: This invention has a multifunctional floor mat structure, and the floor mat 10 itself can provide excellent shock absorption and sound absorption effects, effectively absorbing impact force, reducing vibration and noise. At the same time, the modular splicing capability of the floor mat 10 also greatly enhances its application flexibility. Users can use the floor mat 10 directly according to their needs, or flexibly combine it with various existing floor mat products as the surface layer 20. The multiple ribs 12 on the underside of the mat 10 not only enhance its shock-absorbing and sound-absorbing properties, but also provide adequate support and anti-slip properties. Therefore, this innovative mat not only effectively absorbs vibration and noise from the ground but also provides sufficient support, making it suitable for a variety of locations, including homes, offices, and gyms. Furthermore, its overall structure is simple and easy to manufacture, combining functionality and practicality, demonstrating high market potential.

10: Floor mat

12: Raised ribs

13: Interlocking structure

131: Fitting notch

132: Fitting bump

Claims (5)

A multifunctional floor mat structure is provided. The floor mat (10) is made of a material with cushioning, shock absorption and sound absorption properties. The upper side of the floor mat (10) is provided with a non-slip surface (11), and the lower side is provided with a plurality of ribs (12). In addition, the periphery of the floor mat (10) is provided with a plurality of interlocking structures (13). The interlocking structures (13) include a fitting notch (131) and a fitting protrusion (132). The shape of the fitting notch (131) corresponds to the shape of the fitting protrusion (132), so that the floor mat (10) can be interlocked and connected with each other through the fitting notch (131) and the fitting protrusion (132). The multifunctional floor mat structure as described in claim 1, wherein the floor mat (10) can be optionally configured with a surface layer (20), and the surface layer (20) can be various types of existing floor mat products. The upper side of the surface layer (20) is provided with a use surface (21), and the lower side is provided with a stacking surface (22), and the stacking surface (22) is stacked on the anti-slip surface (11) of the floor mat (10). The multifunctional floor mat structure as described in claim 1, wherein the material having cushioning, vibration reduction and sound absorption properties is rubber, polyurethane (PU) foam or ethylene vinyl acetate copolymer (EVA) foam. A multifunctional floor mat structure as described in claim 1, wherein the plurality of ribs (12) are in a grid shape. A multifunctional floor mat structure as described in claim 2, wherein a plurality of interlocking structures (23) are provided around the surface layer (20), and the interlocking structures (23) include an interlocking recess (231) and an interlocking protrusion (232), and the shape of the interlocking recess (231) corresponds to the shape of the interlocking protrusion (232), so that a plurality of the surface layers (20) can be interlocked and connected with each other through the interlocking recess (231) and the interlocking protrusion (232).