Systems useful for reinforcing a support mat over at least one seam formed between upper and lower panels of the mat include at least one extruder configured to apply weld-forming material over the seam(s) to form at least one weld atop the seam(s) and at least one electronic controller associated with the extruder.

Disclosed is a method for embedding an electronic device, for instance an RFID tag, into a mat, the mat having a bottom support intended to contact a floor, in use, and including a first material, a walkable layer arranged on top of the bottom support, including a second material. The electronic device is supported by a solid carrier. The bottom support and the walkable layer of the mat are fully assembled, so as the mat is already available for use to walk on, before embedding the electronic device; a material of the solid carrier and the first material of the bottom support of the mat are suitable to join if contacted each other and subject to a temperature and/or a pressure above predetermined thresholds, the pressure pushing the electronic device against the bottom support. Embedding the electronic device to the mat includes placing the solid carrier on a flat portion of the bottom support of the mat; applying the pressure and/or temperature to the solid carrier; ending application of pressure and/or temperature. The step of applying pressure and/or temperature is ended after the solid carrier is melted in the solid carrier and/or dissolved, and the electronic device remains embedded in the bottom support. Embedding is not reversible and the solid carrier is no longer detachable from the bottom substrate.

Examples of the present disclosure are related systems and methods for lead-ins for anti-fatigue floor mats. More particularly, embodiments disclose lead-ins with tapered ends with variable heights that transition from a floor level to a mat surface level to enable drop stitch-mats to be used in residential and commercial areas.

A mat unit includes a plurality of gaps defined by a first layer that are in open communication with gaps defined by a second layer so as to permit debris to fall entirely through both gaps to pass completely through the mat unit. The mat unit is part of an omnidirectional mat cleaning system that includes a first direction of travel above the mat unit extending through a door opening defined by a building structure. A different second direction of travel is above the mat unit extending through the door opening or another door opening defined by the building structure. The mat unit is installed on a floor adjacent the door opening. The mat unit cleans shoes regardless of the direction of travel traveled above the mat unit.

A construction mat section may be formed by combining together a molded bottom mat component and a molded top mat component. In some instances, one or both of the molded bottom mat component and the molded top mat component may include ribs that are molded into the molded bottom mat component and/or the molded top mat component. Reinforcing members may be secured to at least some of the ribs in order to improve weight bearing capacity of the construction mat section by making the construction mat section stiffer. Several construction mat sections may be joined together to provide a construction mat assembly.

A method of repairing a mat including: cutting an irregular section of the mat to an approximately perpendicular edge; applying a sealant to the perpendicular edge; conjoining a secondary piece to the perpendicular edge; clamping the secondary piece to the perpendicular edge temporarily; and fixing the secondary piece to the perpendicular edge; where the mat being configured to support the weight of people, vehicles and equipment thereupon and undergo movement relative to one or more other mats without disengaging from another, and the mats include at least four sides and an edge extending along each side, the first and second sides of each mat having a lower lip extending horizontally outwardly below the edge thereof and the third and fourth sides of each mat having an upper lip forming the edge thereof, the respective upper and lower lips of different mats being interconnectable with pins.

The mat of the present invention includes a main body integrally formed by a plastic material. The main body at least has a first surface and a second surface adjacent to the first face. The first face and the second face have different surface physical characteristics. The first surface and the second surface are shaped into a third surface and a fourth surface respectively. The third surface and the fourth surface have a substantially same surface physical characteristic. An angle between the third surface and the fourth surface outside the main body is a specific value.

A ground cover mat includes a slab that encases a core assembly. The slab is made of a rubber material and defines a lower major surface and an upper major surface of the ground cover mat. The core assembly comprises horizontally extending boards, which may be made of wood, disposed in horizontally spaced apart, side-by-side relation with each other. The core assembly further comprises a rebar mesh, which may be made of steel, that is disposed on top of and in contact with the boards.

Padding element for seats such as sofas, armchairs, chairs and armrests, wherein such seats have a support structure, or similar support structure for the human body or parts thereof, such as rest or anti-fatigue mats, anti-decubitus mattresses, shower mats, anti-impact mats, wherein the padding element is provided with a support surface for a user, wherein the padding element includes one film or covering, one gel layer adhering to part of the film or covering and one compact elastomeric layer having a surface for contact with the gel layer and with part of the film or covering and one surface for contact with the seat and/or with the support structure of the seat, wherein the compact elastomeric layer adheres to the gel layer and the film or covering; method for obtaining such padding element.

A mat unit is formed from at least two layers ultrasonically welded together. Each layer is individually formed from non-vinyl nontoxic thermoplastic elastomer (TPE) material. In ultrasonically joining the two layers together, there is no need to use additional materials, such as adhesive (i.e., chemical attachment) or stitched thread (i.e., mechanical attachment) to form the joint/weld point. Once formed from the two layers, the mat unit has four quadrants and a plurality of longitudinal ribs integrally formed in the first layer positioned in the first and third quadrants, and a plurality of transverse ribs integrally formed in the first layer positioned in the second and fourth quadrants. Additionally, there are a plurality of longitudinal ribs integrally formed in the second layer positioned in the second and fourth quadrants, and a plurality of transverse ribs integrally formed in the second layer positioned in the first and third quadrants.