WO2020052034A1

WO2020052034A1 - Modular mat tile, floor mat, and joining method

Info

Publication number: WO2020052034A1
Application number: PCT/CN2018/114216
Authority: WO
Inventors: 孙才
Original assignee: 广州喜马塑料科技有限公司
Priority date: 2018-09-14
Filing date: 2018-11-06
Publication date: 2020-03-19
Also published as: CN209031797U

Abstract

A modular mat tile (1000), a floor mat, and a joining method, pertaining to the technical field of floor mats. The modular mat tile (1000) comprises a soft panel (0100) and a support base (0200) being stacked and joined in a vertical direction. An upper surface (0111) of the soft panel (0100) forms an aesthetic surface of the modular mat tile. A lower surface of the support base (0200) forms an installation surface (0211) of the modular mat tile. The installation surface (0211) faces and is connected to a floor. A joining structure is provided between opposing ends of the soft panel (0100) and the support base (0200). The floor mat comprises at least two of the modular mat tiles (1000) connected together. The joining method is for joining the modular mat tiles (1000). The modular mat tile (1000) has a modular stacking and joining structure, such that a required height can be achieved by joining the tiles, thereby meeting different usage requirements.

Description

Building block type splicing mat, floor mat and splicing method

Cross-reference to related applications

This application claims priority from a Chinese patent application filed with the Chinese Patent Office on September 14, 2018 under the application number 201821510859.7 and entitled "Building Block Splicing Pad", the entire contents of which are incorporated herein by reference.

Technical field

The present application relates to the technical field of floor mats, and in particular, to a building block type splicing mat, a floor mat, and a splicing method.

Background technique

With the rapid development of society and economy, people's quality of life has greatly improved, and the pursuit of quality of life has become increasingly stronger. The differentiation of various home furnishing products is getting deeper and deeper to meet people's different use needs. Among them, the floor mat is a new product born to meet the needs of people's home use. It is laid on the ground to provide a comfortable place for people (especially children) to rest and play. Traditional floor mats are mostly simple, integrated single-layer structures with relatively single functions, which are difficult to meet the increasing needs for differentiated use.

Summary of the Invention

In order to solve at least one of the above technical problems, the present disclosure provides a building block type splicing mat, a floor mat and a splicing method, which has a building block type stacking and splicing structure, which can be spliced to obtain a required height and meet different usage needs.

The purpose of the present disclosure is achieved by the following technical solutions:

A building block type splicing pad includes a soft panel and a support base plate that are stacked and spliced up and down. The top surface of the soft panel forms the exterior surface of the building block type splicing pad, and the bottom surface of the support base plate forms the building block type splicing. The mounting surface of the pad is oppositely connected to the ground, and there is a building block type splicing structure between the soft panel and the opposite end of the support floor.

Optionally, at least one connection pad is provided between the soft panel and the support base plate, and the soft panel, the connection pad and the support base plate are sequentially stacked and spliced from top to bottom.

Optionally, a connection pad is provided between the soft panel and the support base plate, and a first plug-in portion is provided at an upper portion of the connection pad and a second plug-in portion is provided at a lower portion. The first plug-in portion is mated with the soft panel, and the second plug-in portion is mated with the support base plate.

Optionally, at least two of the connection pads are sequentially stacked from top to bottom between the soft panel and the support base plate. The upper portion of the connection pad is provided with a first plug-in portion, and the lower portion is provided with A second plug-in part, the first plug-in part of the connection pad is configured to be plugged with the soft panel, or the second plug-in part of the connection pad adjacent to the soft pad;

The second plug-in portion of the connection pad is configured to be plugged into the support base plate, or to be connected to the first plug-in portion of a connection pad adjacent to a lower portion thereof.

Optionally, a lower plug portion is provided at an upper portion of the support base plate, and a lower end plug portion is provided at a lower portion. The lower plug portion has the same structure as the first plug portion of the connection pad, and the lower end plug The connection portion has the same structure as the second insertion portion of the connection pad, and the lower insertion portion protrudes from the outside of the support base plate, and the lower end connection portion is recessed inside the support base plate.

Optionally, the support base plate includes a frame body and a cylindrical second plug-in boss, the second plug-in boss is fixedly connected to the frame body, and the second plug-in boss and the The axial direction of the frame body is consistent; the second plug-in boss forms the lower plug-in portion and the lower plug-in portion in order from top to bottom, and the hollow inner wall of the lower plug-in portion and the lower plug-in portion The outer walls match.

Optionally, a heat conduction flow path is provided in the soft panel, a lower surface of the top plate communicates with the heat conduction flow path, a through flow path is provided inside the connection pad, and a heat conduction is provided inside the support floor. The channel, the thermally conductive flow channel, the through flow channel and the thermally conductive channel communicate in sequence.

Optionally, the soft panel has an upper plug-in portion located below the top surface thereof, the support base plate has a lower plug-in portion located above the bottom surface thereof, and the upper plug-in portion cooperates with the lower plug-in portion Docking.

Optionally, the soft panel includes a top panel and a side panel surrounding the top panel, an upper surface of the top panel is the top surface, and a lower end surface of the side panel is attached to the support floor. The upper plug-in part is formed by the side enclosure board, or the upper plug-in part is disposed in an inner cavity formed by the side enclosure board and the top board together.

Optionally, the upper plug portion of the soft panel is formed by the side panel, the support bottom plate includes a frame body, a lower end surface of the frame body forms the mounting surface, and an upper portion of the frame body is formed In the lower plug-in portion, the lower plug-in portion is mated with the upper plug-in portion of the soft panel, and an outer wall of the side panel is consistent with an outer wall of the frame.

Optionally, a thermal conduction channel is provided in the soft panel, a lower surface of the top plate communicates with the thermal conduction channel, and the thermal conduction channel is opened at a position where the soft panel is different from the top surface. .

Optionally, the upper plug-in portion includes a cylindrical first plug-in boss, and an axial top end of the first plug-in boss is fixed to the bottom surface of the top panel of the soft panel. The hollow inner cavity inside the plug-in boss forms the heat conduction flow path; the first plug-in boss and the side enclosure are connected by radial reinforcing ribs.

Optionally, the supporting bottom plate includes a frame body, a lower end surface of the frame body forms the mounting surface, the lower plug-in portion includes a cylindrical second plug-in boss, and the second plug-in boss Fixed in the frame body, and the second plug-in boss is aligned with the axial direction of the frame body; the second plug-in boss is mated with the first plug-in boss of the soft panel; Then, the lower end surface of the side enclosure plate is in contact with the upper end surface of the frame body, and the outer side wall of the side enclosure plate is consistent with the outer side wall of the frame body.

Optionally, the cross sections of the first plug-in boss and the second plug-in boss are both annular.

Optionally, the cross sections of the first plug-in boss and the second plug-in boss are both polygonal.

Optionally, a sleeve is sleeved inside the second plug-in boss of the support bottom plate, and the outer wall of the sleeve and the inner wall of the second plug-in boss are fixed to each other through a connecting plate. The hollow inner cavity forms a heat conduction hole, the second plug-in boss is inserted into the first plug-in boss, and the heat conduction hole is in communication with the heat conduction flow channel.

Optionally, the bottom end of the second plug-in boss and / or the sleeve is located on the same plane as the bottom end of the frame.

The present disclosure also provides a floor mat including at least two of the aforementioned building block type splicing pads, and adjacent building block type splicing pads are connected and tiled.

The present disclosure also provides a splicing method configured to splice the aforementioned building block type splicing pad, and the splicing steps are as follows:

Align the lower plug-in portion of the support bottom plate with the upper plug-in portion of the soft panel, and insert it into the upper plug-in portion.

The beneficial effects of the building block type splicing pad of the present disclosure include:

The soft panel and the support floor are stacked up and down to form a building block type splicing structure. Among them, the soft panel provides a soft and elastic use surface, and the support floor provides reliable structural support. The soft panel supports and adjusts the overall splicing pad. Height, users can choose different height support floor to splicing at the bottom of the soft panel according to their actual needs, and together with the soft panel to form the required height of the stitching pad, and multiple splicing pads can be randomly spliced to get the required The structure shape can meet the different needs of users, especially the application requirements of children crawling and playing.

BRIEF DESCRIPTION OF THE DRAWINGS

In order to more clearly illustrate the technical solutions of the embodiments of the present disclosure, the drawings used in the embodiments will be briefly introduced below. It should be understood that the following drawings only show some embodiments of the present disclosure, and therefore are not It should be regarded as a limitation on the scope. For those of ordinary skill in the art, other related drawings can be obtained based on these drawings without paying creative work.

FIG. 1 is a first perspective exploded view of a soft panel and a supporting base plate in a building block type splicing pad according to an embodiment of the present disclosure; FIG.

2 is a second perspective exploded view of a soft panel and a supporting base plate in a building block type splicing pad according to an embodiment of the present disclosure;

3 is a schematic isometric sectional view of a building block type splicing pad according to an embodiment of the present disclosure;

FIG. 4 is an exploded view of a floor mat provided in the embodiment of the present disclosure when two building-block type splicing mats are included; FIG.

FIG. 5 is a schematic structural view of a front view when a connection pad is connected between a soft panel and a support floor in a building block type splicing pad according to an embodiment of the present disclosure; FIG.

6 is an exploded view of the building block type splicing pad in FIG. 2;

FIG. 7 is an exploded schematic diagram when two supporting bottom plates are connected to the building block type splicing pad according to the embodiment of the present disclosure.

Explanation of main component symbols:

1000-block type splicing pad, 0100-soft panel, 0110-top panel, 0111-top surface, 0120-side panel, 0130-upper connector, 0140-heat conducting channel, 0150-radial stiffener on the top, 0200- Support base plate, 0210-frame body, 0211-mounting surface, 0220-lower plug part, 0230-thermal conduction channel, 0240-lower radial reinforcement, 0250-lower end plug, 0300-connecting pad, 0310-first plug Connector, 0320-second connector, 0330-through flow channel.

detailed description

In order to facilitate understanding of the present disclosure, a more comprehensive description of the building block type splicing pad will be given below with reference to the related drawings. A preferred embodiment of a building block type splicing pad is shown in the drawings. However, the building block type splicing pad can be implemented in many different forms and is not limited to the embodiments described herein. Rather, the purpose of providing these embodiments is to make the disclosure of the building block type splicing pad more thorough and comprehensive.

It should be noted that when an element is referred to as being “fixed to” another element, it may be directly on the other element or there may be a centered element. When an element is considered to be "connected" to another element, it can be directly connected to the other element or intervening elements may also be present. In contrast, when an element is referred to as being "directly on" another element, there are no intervening elements present. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only.

Unless defined otherwise, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this disclosure belongs. The terminology used in the description of the building block type splicing pad herein is only for the purpose of describing specific embodiments, and is not intended to limit the present disclosure. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

1 to 3, this embodiment discloses a building block type splicing pad 1000. The building block type splicing pad 1000 includes a soft panel 0100 and a supporting base plate 0200 stacked and spliced up and down, with a building block type splicing structure therebetween. In the building block type splicing pad 1000 for splicing, the top surface 0111 of the soft panel 0100 forms the appearance surface of the building block type splicing pad 1000, and the bottom surface of the support base plate 0200 forms the installation surface 0211 of the building block type splicing pad 1000.

This embodiment further provides a floor mat including at least two of the above-mentioned building block type splicing pads 1000, and adjacent building block type splicing pads 1000 are connected in contact and arranged in a tiled manner.

In the building block type splicing structure, the user selects the supporting floor 0200 of different heights according to the actual needs and splices at the bottom of the soft panel 0100. Together with the soft panel 0100, it is spliced to the required height. Tiled between 1000, you can splice pedestrian-shaped floor mats. At the same time, the soft panel 0100 has a soft property, is good in touch and suitable for use by users (especially children), and provides a cushioning effect to effectively protect the user from stumbling and collision damage.

Among them, the appearance surface is used to directly contact the user's body, to provide a soft load to the user; the installation surface 0211 is relatively closely connected to the ground, and is used to realize the smooth arrangement of the building block type stitching pad 1000 on the ground. The soft panel 0100 and the opposite end of the supporting bottom plate 0200 have a plug-in structure, and a quick plug-in connection is achieved by means of a building block connection. It can be understood that the lower end of the soft panel 0100 and the upper end of the support floor 0200 should be well fitted to ensure the reliability of the splicing structure.

Additionally, the soft panel 0100 is made of elastic materials, such as soft plastic, silicone, and rubber. Exemplarily, the soft panel 0100 is made of materials such as TPU (Thermoplastic polyurethanes) and TPE (Thermoplastic Elastomer), and has both an elastic and soft touch and reliable structural toughness.

It is added that the properties of the supporting base plate 0200 are determined according to the actual use environment and may have soft or rigid properties. It can be understood that the hardness of the support base plate 0200 is greater than that of the soft panel 0100 to provide reliable support for the soft panel 0100 and isolate the impact between the soft panel 0100 and the ground. Exemplarily, the supporting base plate 0200 is made of hard plastic (such as PVC, PC, etc.) to ensure reliable supporting strength.

In addition, the support bottom plate 0200 directly contacts the ground, thereby reducing the wear caused by the direct contact of the soft panel 0100 with the ground during use, and prolonging the service life of the soft panel 0100.

Exemplarily, the soft panel 0100 has an upper plug portion 0130 below its top surface 0111, the support base plate 0200 has a lower plug portion 0220 above its bottom surface, and the upper plug portion 0130 is mated with the lower plug portion 0220 Connected, so as to achieve the building block type rapid splicing of the soft panel 0100 and the support floor 0200.

There are many ways to realize the upper plug-in part 0130 and the lower plug-in part 0220, for example, one of which is a shaft and a hole is a shaft hole fit, a snap-type splicing, and the like. Exemplarily, one of the upper plug portion 0130 and the lower plug portion 0220 is a plug hole, and the other is a plug connector. The plug connector and the plug hole can be mated with a transition fit or an interference fit. The plug-in structure has the advantages of simple structure and fast disassembly.

The soft panel 0100 can adopt various structural forms. For example, the soft panel 0100 includes a top plate 0110 and a side wall 0120 surrounding the top plate 0110. The upper surface of the top plate 0110 is the top surface 0111, and the side wall 0120 The lower end surface is connected to the support bottom plate 0200 in a close manner, and the upper plug portion 0130 is formed by the side panel 0120. The support bottom plate 0200 includes a frame 0210. The lower end surface of the frame 0210 forms a mounting surface 0211. The upper portion of the frame 0210 forms a lower plug. The part 0220 and the lower plug-in part 0220 are mated with the upper plug-in part of the soft panel 0100, and the outer wall of the side panel 0120 is consistent with the outer wall of the frame 0210. The side panel 0120 and the top panel 0110 closed at the upper end of the side panel 0120 together form a hollow soft panel 0100. The upper surface of the top panel 0110 is the aforementioned top surface 0111 (the appearance surface of the building block type stitching pad 1000); You only need to align and fit the upper end of the supporting baseplate 0200 frame 0210 with the lower end of the soft panel 0100 side enclosure 0120, so that the soft panel 0100 is well supported by the supporting baseboard 0200. In addition, the splicing is completed Later, the outer side wall of the soft panel 0100 is consistent with the outer side wall of the support bottom plate 0200, and the two can form a whole in the shape, thereby reducing the convex edges on the shape of the building block type stitching pad 1000, and enhancing the building block type stitching pad 1000. Smoothness in shape.

Specifically, the upper end surface of the supporting bottom plate 0200 frame 0210 and the lower end surface of the soft panel 0100 side enclosure plate 0120 may be provided with a limiting structure capable of cooperating with the limiting position. For example, the upper end surface of the frame 0210 is provided with a plug. Slot, the lower end of the side panel 0100 is provided with a plug connector, which is matched with the plug slot. After the support baseplate 0200 and the soft panel 0100 are spliced, the structure of the restricted position is limited to improve the Location accuracy reduces the chance of a relatively cheap situation happening between the two.

Wherein, the upper plug-in portion 0130 may be self-acting by the diameter of the upper side panel 0120, or may be an independent structure provided in the inner cavity of the side panel 0120. When the upper plug portion 0130 is independently provided in the inner cavity of the side panel 0120, one end of the upper plug portion 0130 may be connected to the lower surface of the top plate 0110 to be fixed, or may be connected with the side panel 0120 through a radial rib. 0150 to achieve the connection, but also a combination of the two. The upper radial stiffener 0150 radiates outward from the center, while ensuring the structural strength of the soft panel 0100, it can effectively save manufacturing materials and reduce the weight of the soft panel 0100.

Exemplarily, the soft panel 0100 has a thermal conduction channel 0140, which is configured to realize timely heat dissipation and gas circulation, thereby ensuring the constant temperature and ventilation of the soft panel 0100, so that the user has a good experience. In particular, during the use of children, the thermally conductive runners 0140 can effectively avoid the occurrence of children's boils due to local heating and dryness.

The lower surface of the top plate 0110 (that is, the back of the top surface 0111) is in communication with the heat conduction channel 0140. The heat conduction channel 0140 is opened at a position where the soft panel 0100 is different from the top surface 0111 (for example, the wall surface of the side panel, Lower surface of panel 0100, etc.), so that the thermal conduction channel 0140 communicates with the outside, which can quickly dissipate heat and ensure temperature balance, and does not damage the top surface 0111 of the soft panel 0100, and does not affect the appearance and appearance of the soft panel 0100. strength.

Wherein, the heat conduction channel 0140 can be independently provided in the inner cavity of the upper side panel 0120 to achieve independent heat conduction. Exemplarily, the upper plug-in portion 0130 includes a cylindrical first plug-in boss, and the axial top end of the first plug-in boss is fixed to the bottom surface of the soft panel 0100 top plate 0110, and the inside of the first plug-in boss. The hollow inner cavity forms a thermal conduction channel 0140; the first plug boss and the side enclosure plate 0120 are connected by upper radial ribs 0150; the support base plate 0200 includes a frame 0210, and a lower end surface of the frame 0210 forms a mounting surface 0211, The lower plug-in part 0220 includes a cylindrical second plug-in boss, the second plug-in boss is fixed in the frame 0210, and the second plug-in boss is aligned with the axial direction of the frame 0210; the second plug-in The boss is mated with the first plug-in boss of the soft panel 0100. The lower end surface of the side panel 0120 is in contact with the upper end surface of the frame 0210, and the outer wall of the side panel 0120 and the outer wall of the frame 0210. Consistent. Here is a specific form of the mating of the upper plug portion 0130 and the lower plug portion 0220. One of the first plug boss and the second plug boss is provided as a plug connector, and the other is used as a plug connector. The plug slot is described below as an example of the second plug boss of the plug portion 0220 protruding from the support base plate 0200. When splicing, the second plug boss of the support base 0200 protruding outward cooperates with the insertion of the soft panel 0100. Inside the first plug-in boss, at this time, the heat conduction channel 0140 inside the first plug-in boss communicates with the hollow inner cavity inside the second plug-in boss, and communicates with the outside through the inner cavity to connect the soft panel The 0100 top plate 0110 conducts heat to the outside and dissipates it.

Specifically, as shown in FIG. 3, in this embodiment, the cross sections of the first plug-in boss and the second plug-in boss may be annular. When the circular first plug-in boss is mated with the circular second plug-in boss, the first plug-in boss can be inserted into the second plug-in boss at any angle, and then the soft panel 0100 is rotated. The angle between the quality panel 0100 and the support floor 0200 is adjusted to improve the convenience of plugging and connecting between the two.

As shown in FIG. 2, the cross sections of the first plug-in boss and the second plug-in boss may be polygonal. When the first plug-in boss and the second plug-in boss are mated, the sides on both sides need to be aligned. After the splicing is completed, the two are restricted by the multilateral sidewall, and the relative rotation between the two cannot occur. Therefore, the stability after splicing between the soft panel 0100 and the supporting base plate 0200 is improved, and the deformation caused by the relative rotation between the two is reduced.

Please refer to FIG. 4. As an example, on the same soft panel 0100, the number of the upper plug-in portion 0130, the heat conduction channel 0140, and the upper radial stiffener 0150 may be one to a plurality, depending on actual needs. Exemplarily, there are multiple unit structures in the inner cavity of the same upper plug-in portion 0130, and each unit structure has an upper plug-in portion 0130, a thermal conduction channel 0140, and an upper radial stiffener 0150, respectively. Area expansion.

Please refer to FIGS. 1-3 in combination. Exemplarily, a sleeve is sleeved inside the second plug boss of the supporting bottom plate 0200. The outer wall of the sleeve and the inner wall of the second plug boss are fixedly connected by a connecting plate. The hollow inner cavity forms a heat conduction hole, the second plug-in boss is inserted inside the first plug-in boss, and the heat conduction hole is in communication with the heat conduction flow channel. The support bottom plate 0200 is provided with a heat conduction hole 0230, and the heat conduction hole 0230 penetrates the support bottom plate 0200 to realize gas flow and heat dissipation. Among them, the thermal conduction channel 0230 and the thermal conduction channel 0140 are kept in communication, so that the soft panel 0100 and the supporting bottom plate 0200 form an integrated breathable constant temperature system. Exemplarily, the heat conduction hole 0230 penetrates the support floor 0200 in the vertical direction. In addition, the sleeve is disposed inside the second plug-in boss, and the lower end face of the sleeve and the second plug-in boss is on the same plane as the lower end face of the frame 0210, and the support bottom plate 0200 is placed on the ground to face the soft panel When the 0100 is supported, the lower end surface of the frame body, the second plug boss and the sleeve abuts against the ground, and together supports the soft panel 0100, thereby improving the support strength and support stability of the support floor 0200.

Wherein, the lower plug-in part 0220 and the lower side board 0210 can be connected by a lower radial reinforcing rib 0240. The lower radial stiffener 0240 radiates outward from the center, while ensuring the structural strength of the supporting baseplate 0200, it can effectively save materials and reduce the weight of the soft panel 0100.

Please refer to FIG. 4. As an example, the number of the lower insertion part 0220, the heat conducting hole 0230, and the lower radial stiffener 0240 on the same supporting base plate 0200 may be one to a plurality, depending on actual needs. Exemplarily, there are multiple unit structures in the inner cavity of the same lower side panel 0210, and each unit structure has a lower plug-in portion 0220, a heat conduction channel 0230, and a lower radial stiffener 0240, respectively, to achieve the area expansion of the support base plate 0200. . Please refer to FIGS. 1-5 in combination. By way of example, at least one connection pad 0300 may be provided between the soft panel 0100 and the support bottom plate 0200. The soft panel 0100, the connection pad 0300, and the support bottom plate 0200 are sequentially stacked and spliced. Actually, it is necessary to increase or decrease the number of connection pads 0300 to realize the rapid change of the height and load-bearing capacity of the building block type stitching pad 1000.

In other words, in different numbers of building block hierarchies, the building block type splicing pad 1000 has different heights and different bearing capacities, so as to meet different use needs (such as different ground environments, different user ages, etc.).

Exemplarily, a connection pad 0300 may be provided between the soft panel 0100 and the support base plate 0200. The upper portion of the connection pad 0300 is provided with a first plug portion 0310, and the lower portion is provided with a second plug portion 0320. The plug-in portion 0310 is mated with the upper plug-in portion 0130 of the flexible panel, and the second plug-in portion 0320 is mated with the lower plug-in portion 0220 of the support base plate.

In addition, in this embodiment, at least two connection pads 0300 can be sequentially stacked from top to bottom between the soft panel 0100 and the support bottom plate 0200. The upper portion of the connection pad 0300 is provided with a first plug-in portion 0310 and the lower portion is provided. There is a second plug portion 0320, and the first plug portion 0310 of the connection pad 0300 is configured to be mated with the upper plug portion 0130 of the soft panel 0100, or the second plug of the connection pad 0300 adjacent thereto. The connection part 0320 is connected; the second connection part 0320 of the connection pad 0300 is configured to be inserted into the lower connection part 0220 of the support base plate 0200, or the first connection part 0310 of the connection pad 0300 adjacent thereto. Pick up.

In other words, when the connection pad 0300 is directly spliced with the soft panel 0100, the first plug portion 0310 of the connection pad 0300 is plugged with the upper plug portion 0130 of the soft panel 0100; when the two connection pads 0300 are spliced up and down At this time, the second plug portion 0320 of the connection pad 0300 located above is connected to the first plug portion 0310 of the connection pad 0300 located below; when the connection pad 0300 is directly spliced with the support base plate 0200, the connection pad is connected The second plugging portion 0320 of 0300 is plugged into the lower plugging portion 0220 of the support base plate 0200. The user can select an appropriate number of connection pads 0300 to connect between the soft panel 0100 and the support floor 0200 according to the actual needs, so as to adjust the height and support strength of the building block type stitching pad 1000.

Exemplarily, when the soft panel 0100 has a heat conduction channel 0140 and the support base plate 0200 has a heat conduction hole 0230, the connection pad 0300 has a through flow channel 0330. The through flow channel 0330 penetrates the upper and lower ends of the connection pad 0300. After the soft panel 0100, the connection pad 0300, and the support bottom plate 0200 are spliced from top to bottom, the thermal conduction channel 0140 and the connection pad 0300 in the soft panel 0100 are sequentially spliced. The internal through-flow channel 0330 and the heat conduction hole 0230 inside the support bottom plate 0200 communicate in sequence, thereby achieving fluid circulation and heat dissipation, and completing the heat dissipation of the soft panel 0100 top plate 0110.

Please refer to FIG. 6 and FIG. 7. Exemplarily, a lower mating portion 0220 is provided at an upper portion of the support base plate 0200, a lower mating portion 0250 is provided at a lower portion, and the lower mating portion 0220 and the first mating portion of the connection pad 0300 are provided. 0310 has the same structure, and the lower plug portion 0250 has the same structure as the second plug portion 0320 of the connection pad 0300. The lower plug portion 0220 protrudes from the outside of the support base plate 0200, and the lower plug portion 0250 is recessed into the support base plate 0200. internal. Specifically, the support bottom plate 0200 includes a frame body 0210 and a cylindrical second plug-in boss, the second plug-in boss is fixed in the frame 0210, and the second plug-in boss is aligned with the axial direction of the frame 0210. ; The second plug-in boss forms a lower plug-in part 0220 and a lower plug-in part 0250 in order from top to bottom, and the hollow inner wall of the lower plug-in part 0250 matches the outer wall of the lower plug-in part 0220. The supporting base plate 0200 and the connecting pad plate 0300 have the same structure, simplifying the components of the building block type splicing pad 1000 into two component structures (that is, the soft panel 0100 and the supporting base plate 0200), thereby reducing the number of required molds and manufacturing costs. , While increasing the convenience of splicing and storage.

The essence of the same structure is that, as shown in FIG. 7, the building block type stitching pad 1000 includes a soft panel 0100 and a plurality of supporting base plates 0200. Among them, the supporting base plate 0200 lower plug portion 0220 protrudes from the outside of the supporting base plate 0200 to achieve continuous fast plugging; the supporting base plate 0200 lower end plug portion 0250 is recessed inside the supporting base plate 0200 to ensure that the supporting base plate 0200 The bottom surface is flat, thereby ensuring that the plug-in function is synchronized with the floor-mounting function of the support base plate 0200 at the bottom.

In all examples shown and described herein, any specific value should be construed as exemplary only, and not as a limitation, so other examples of the exemplary embodiments may have different values.

It should be noted that similar reference numerals and letters indicate similar items in the following drawings, so once an item is defined in one drawing, it need not be further defined and explained in subsequent drawings.

The above-mentioned embodiments only express several implementation manners of the present disclosure, and their descriptions are more specific and detailed, but cannot be understood as limiting the scope of the present disclosure. It should be noted that, for those of ordinary skill in the art, without departing from the concept of the present disclosure, several modifications and improvements can be made, which all belong to the protection scope of the present disclosure. Therefore, the protection scope of the present disclosure shall be subject to the appended claims.

Industrial applicability

The building block type splicing mat, floor mat and splicing method provided in this embodiment can obtain splicing mats of different heights by selecting support floors of different heights to be spliced under the soft panel, and meet different needs of users.

Claims

A building block type splicing pad, characterized in that it comprises a soft panel and a support base plate which are stacked and spliced up and down. The top surface of the soft panel forms the appearance surface of the building block type splicing pad. The installation surface of the building block type splicing pad is connected opposite to the ground, and a building block type splicing structure is provided between the soft panel and the opposite end of the supporting base plate.
The building block type splicing pad according to claim 1, wherein at least one connection pad is provided between the soft panel and the support floor, and the soft panel, the connection pad and the The support floor is stacked and spliced in order from top to bottom.
The building block type splicing pad according to claim 2, wherein the connection pad is provided between the soft panel and the support base plate, and a first plug is provided on an upper portion of the connection pad. A second plug-in part is provided at the lower part and the lower part. The first plug-in part is mated with the soft panel, and the second plug-in part is mated with the support base plate.
The building block type splicing pad according to claim 2, wherein at least two of the connection pads are sequentially stacked from the top to the bottom between the soft panel and the support base plate, The upper part is provided with a first plug-in part and the lower part is provided with a second plug-in part. The first plug-in part of the connection pad is configured to be inserted into the soft panel or a connection pad adjacent to the soft pad. The second plug-in part is plugged;

The second plug-in portion of the connection pad is configured to be plugged into the support base plate, or to be connected to the first plug-in portion of a connection pad adjacent to a lower portion thereof.
The building block type splicing pad according to claim 3 or 4, characterized in that the upper part of the support bottom plate is provided with a lower plug-in part, and the lower part is provided with a lower end plug-in part, and the lower plug-in part and the connection pad The structure of the first plug-in portion of the board is the same, the structure of the lower plug-in portion is the same as that of the second plug-in portion of the connection pad, and the lower plug-in portion protrudes from the outside of the support base plate, the The lower end plug-in portion is recessed inside the support base plate.
The building block type splicing pad according to claim 5, wherein the supporting bottom plate comprises a frame body and a cylindrical second plug-in boss, and the second plug-in boss is fixed in the frame body, In addition, the second plug-in boss is consistent with the axial direction of the frame body; the second plug-in boss forms the lower plug-in portion and the lower plug-in portion in order from top to bottom, and the lower plug-in portion The hollow inner wall of the part matches the outer wall of the lower plug-in part.
The building block type splicing pad according to any one of claims 2 to 6, wherein a heat conducting flow path is provided in the soft panel, and a lower surface of the top plate communicates with the heat conducting flow path, and A through-flow channel is provided inside the connection pad, and a heat-conducting hole is provided inside the support base plate, and the heat-conducting flow channel, the through-flow channel and the heat-conducting channel are communicated in sequence.
The building block type splicing pad according to claim 1, wherein the soft panel has an upper plug-in portion located below a top surface thereof, the support base plate has a lower plug-in portion located above a bottom surface thereof, and The upper plug-in portion is mated with the lower plug-in portion.
The building block type splicing pad according to claim 8, wherein the soft panel comprises a top panel and a side panel surrounding the top panel, and an upper surface of the top panel is the top surface, and The lower end surface of the side enclosure board is closely connected with the support floor, and the upper plug-in part is formed by the side enclosure board, or the upper plug-in part is provided in a joint formation of the side enclosure board and the top board. Inside the lumen.
The building block type splicing pad according to claim 9, wherein the upper plug portion of the soft panel is formed by the side panel, the support bottom plate includes a frame body, and a lower end surface of the frame body is formed On the mounting surface, the lower plug portion is formed on the upper portion of the frame body, the lower plug portion is mated with the upper plug portion of the flexible panel, and the outer side wall of the side panel is The outer walls of the frame are consistent.
The building block type splicing pad according to claim 9, wherein a heat conduction flow path is provided in the soft panel, a lower surface of the top plate communicates with the heat conduction flow path, and the heat conduction flow path is opened at the place The soft panel is different from the position of the top surface.
The building block type splicing pad according to claim 11, wherein the upper plug-in portion comprises a cylindrical first plug-in boss, and an axial top end of the first plug-in boss is fixed to the axial direction. The hollow inner cavity inside the first plug-in boss forms the heat-conducting flow channel on the bottom surface of the top panel of the soft panel; the first plug-in boss and the side enclosure are connected by upper radial ribs. .
The building block type splicing pad according to claim 12, wherein the support base plate includes a frame body, a lower end surface of the frame body forms the mounting surface, and the lower insertion portion includes a cylindrical second insertion hole The second plug-in boss is fixed to the frame body, and the second plug-in boss is aligned with the axial direction of the frame body; the second plug-in boss is in contact with the frame body; The first plug-in boss of the soft panel is mated, and the lower end surface of the side enclosure plate is in contact with the upper end surface of the frame, and the outer side wall of the side enclosure plate and the outer side wall of the frame Consistent.
The building block type splicing pad according to claim 13, wherein the cross sections of the first plug-in boss and the second plug-in boss are both annular.
The building block type splicing pad according to claim 13, wherein the cross sections of the first plug-in boss and the second plug-in boss are both polygonal.
The building block type splicing pad according to claim 8, wherein a sleeve is sleeved inside the second plug-in boss of the support base plate, and an outer wall of the sleeve and the second plug-in boss are The inner wall is fixedly connected by a connecting plate, the hollow inner cavity of the sleeve forms a heat conduction hole, the second plug boss is inserted inside the first plug boss, and the heat conduction hole and the heat conduction flow path Connected.
The building block type splicing pad according to claim 16, wherein the bottom end of the second plug-in boss and / or the sleeve is located on the same plane as the bottom end of the frame.
A floor mat, comprising at least two building block type splicing pads according to any one of claims 1-17, and adjacent building block type splicing pads are connected and tiled.
A splicing method, characterized in that it is configured to splice the building block type splicing pad according to any one of claims 8-17, and the splicing steps are as follows:

Align the lower plug-in portion of the support bottom plate with the upper plug-in portion of the soft panel, and insert it into the upper plug-in portion.