Computer implemented method, system and computer program product for simulating the behavior of a knitted fabric at yarn level. The method comprises: retrieving structural information of a knitted fabric; representing each stitch with four contact nodes (4) at the end of the two stitch contacts (5) between pair of loops (2), each contact node (4) being described by a 3D position coordinate (x) and two sliding coordinates (u, v) representing the arc lengths of the two yarns in contact; measuring forces on each contact node (4) based on a force model including wrapping forces to capture the interaction of yarns at stitches; calculating the movement of each contact node (4) at a plurality of time steps using equations of motion derived using the Lagrange-Euler equations, and numerically integrated over time, wherein the equations of motion account for the mass density distributed uniformly along yarns, as well as the measured forces and boundary conditions.

A knitted component may include a course of a first yarn type and a course of a second yarn type, a first surface at least partially formed by the course of the first yarn type, and a cavity formed within the knitted component that is recessed relative to the first surface. A first float formed by the course of the second yarn type may extend across the cavity and may be exposed, and the course of the second yarn type may include a stitch that is knitted into the knitted component adjacent the float.

This invention relates to a fabric consisting of at least a first yarn containing cellulosic fibers modified by a cationic modifier and a second yarn containing cellulosic fibers not modified by a cationic modifier, and to the use of this fabric in order to obtain a denim appearance.

A task is to provide a multilayer structured cloth and a fiber product which are excellent in lightweight properties for bulkiness, impressive soft texture, high cushioning properties, low draping properties, and sweat absorbing and quick drying properties, and the task is achieved by a multilayer structured cloth including front and back ground structure portions, a connecting yarn which connects the front and back ground structure portions to each other, and an insert yarn, wherein at least one of the front and back ground structure portions contains a crimped fiber or a spun yarn.

In one aspect of the disclosure, a knitted component for use in an article of footwear may include a first layer with a multi-bed first area having a first surface and an opposite facing second surface. The knitted component may include a second layer with a second area overlapping the first area. The second area may have a first surface and an opposite facing second surface. The knitted component may include a plurality of interlayer knit stitches interlooping at least one yarn of the first layer with at least one yarn of the second layer at an interface between the second surfaces of the first and second areas. The interior surfaces of the first area and the second area may define at least part of a freely separable area between the first and second areas.

The subject matter of this disclosure includes knit textiles, such as knitted components, that have one or more amounts of thermal resistance. In addition, this disclosure describes a knit textile panel having varied amounts of thermal properties among different zones or regions of the knit textile panel.

A knit fabric is created using on a flatbed knitting machine to create a whole garment having an inner surface and an outer surface. The knit fabric includes a support matrix comprised of base yarns with reflective yarns supported on the support matrix. The knit fabric comprises a jacquard knit structure formed from the base yarns and the reflective yarns, wherein elongate loops of the reflective yarns are outwardly exposed from the outer surface of the knit fabric. The inner surface of the knit fabric includes outwardly exposed floats of the reflective yarns.

A substrate is mountable on a lacrosse stick head to form a pocket. The head has a throat attached to a shaft, a ball stop attached to the throat, a scoop distal to the throat, and sidewalls extending between the ball stop and the scoop. The substrate includes a top portion and a bottom portion. The top portion is positioned proximate to the scoop and the bottom portion is positioned between the top and the ball stop. The top and bottom portions include yarn knit to form the substrate. A method of making the substrate includes casting the yarn onto a needle, knitting the top and bottom portions, casting the yarn off the needle, tying off the yarn and attaching the substrate to the head.

A knit garment having a knit technical wire is disclosed herein. The knit technical wire has two interwoven knit layers, such that they form an exterior or outward surface and an interior or body-facing surface. In between the exterior and interior surfaces and are at least one strand of yarn. The yarn may be a TPU yarn. The knit technical wire is used instead of a conventional underwire. The garment may be a woman's bra or dress that may conventionally be made with an underwire.

A fabric having particularly good translucent properties with regard to UVA and UVB radiation, in particular for use in garments for the sport and leisure sector, with the transparency being reduced at the same time. The fabric comprises a first yarn made of cellulose-based fiber or regenerated fiber, and a second yarn made of polymer fiber. The proportion by weight of the first and second yarns is at least 80% by weight. The wale density is in the range from 10 to 30 per cm and the course density is in the range from 15 to 33 per cm. The second yarn has a fineness in the range from 45 to 300 dtex and the first yarn has a fineness in the range from 150 to 300 dtex. The grammage of the fabric is between 70 and 150 g/m{circumflex over ( )}2.