A cushioning mat comprises a plurality of cushioning bumps arranged in a plurality of rows, the bumps of each row alternating with substantially flat bottom portions. Each bump comprises a top wall and a side wall which extends from a mat base identified by the bottom portions. The top wall and the side wall define an inner bump cavity. The bumps of adjacent rows are staggered with each other. In at least a portion of the side wall a vent opening is made which places in communication the inner cavity of the bump with the outside of the bump.

A resin foamed body 1 is a resin foamed body made of flexible resin, the resin foamed body entirely includes a skeleton part 2, the skeleton part includes a plurality of bone parts 2B and a plurality of connection parts 2J connecting end parts of a plurality of bone parts, and an average value AV(A0/A1) of a ratio A0/A1 of cross-sectional area A0 of a bone change part of each bone part at an edge 2B22 on a bone constant part side relative to cross-sectional area A1 of the bone change part at an edge 2B21 on the connection part side satisfies
0.15?AV(A0/A1)<0.5.

The present disclosure relates to a method for manufacturing a seat cushion comprising: providing a cushion comprising a 3D entanglement of continuous thermoplastic fibers, arranged irregularly or randomly forming loops heat-sealed together and hot-pressing of the 3D entanglement of fibers into one or more local 3D entanglement areas so as to obtain one or more densified, stiffened local areas of the cushion, the local area(s) being configured to serve as a fastening area. The present disclosure also relates to a cushion obtained according to the manufacturing method, and a seat comprising such a cushion and a cap attached to the densified, stiffened local area(s).

A method for manufacturing a vehicle seat element comprising the following steps: a. providing an armature of the seat element, b. providing a net and a frame, at least one portion of the net being surrounded by the frame and fastened to the frame, c. fastening the frame and/or the net to the armature, d. providing a padding comprising a 3D tangling of continuous thermoplastic fibers arranged irregularly forming loops welded together, and e. fastening the padding onto the net and/or onto the frame.

The present invention is a composite material which can transfer heat very fast, for many applications such as car seat, wheelchair, stroller, apparel, medical care and therapeutic heating items. The present invention is a heating element to produce heat by applying a power supply, the heating element comprises of an interconnected mesh of a conductive filament deposits by a 3D printer on a non-woven fabric filler which acts as a thermal bed on the 3D printer to form a first layer, wherein the interconnected mesh of a conductive filament comprises of a combination of a plurality of parallel or series conductors with a plurality of connection nodes, and a double-sided adhesive lining to connect the first layer to a covering layer.

The invention concerns a mold for forming an element for covering a lining of a seat member for a motor vehicle, comprising: a matrix (62) provided with ribs (624) for defining style extension lines (36); and a punch (64) provided with ribs (642), to either side of a line of the ribs (624) of the matrix (62).

This invention is a mattress core that is manufactured as a single unit. It is made up of individual cones that have different configurations resulting in different densities at different portions of the mattress. There are three main ways to accomplishing this goal: columns of different sizes and shapes, columns with different hole diameters, and columns with different density foam used to create them. A key advantage of this invention is that it is a single mattress made from a single mold and does not require multiple parts to be put together.

A seat includes one or more cushions secured to a shell. The cushions include a 3D printed lattice of repeating cells. The cells may include nodes interconnected by branches. The nodes may be arranged in a cubic, parallelepiped, diamond, or other arrangement. The branches may extend directly between nodes or may be bent. The branches may extend from each node to an adjacent node that is closest to its point of attachment to the each node or the branches may be curved or bent to secure to a different adjacent node. The 3D printed lattice may include 3D printed barbs formed thereon that engage receptacles in the seat shell. The 3D printed lattice may be printed with a groove that engages a fastening structure on a cover or a separate fastening element. The cover may be a perforated sheet of material or fabric.

A fiber cushion body comprises a first portion in which fibers have a preferential orientation along a first direction and at least a second portion having a fiber orientation and/or density different from the first portion. The fiber cushion body is processed using laser radiation to form a laser cut or laser weld.

A mold that: makes it possible to manufacture a molded foam body wherein a reinforcing member extends to a portion of the outer face of the molded body main body that corresponds to a parting line in the inner face of the cavity of the mold; and prevents molding problems stemming from the reinforcing member getting into the aforementioned parting line. Also: a method for manufacturing a molded foam body using the aforementioned mold; and a molded foam body manufactured thereby. The aforementioned mold (1) is provided with a seal member (7) that seals the space between mating faces (2a, 3a) of mold parts (2, 3) when the mold is fastened, and said seal member (7) is designed so as to be able to seal the space between the mating faces (2a, 3a) even if the reinforcing member (22) gets in between the mating faces (2a, 3a) on the cavity (4) side of the seal member (7).