A knitting machine part comprises a plurality of tool guides, each for one knitting tool. Each tool guide has a hardened region. The majority of the hardened regions are formed to be integral without seams or joints which transition integrally into adjacent, non-hardened regions. At least one hardened region of the knitting machine part is formed by a non-integral region, in that a hardened, separate component is arranged there, which forms the non-integral hardened region. The component can be designed as an insert part and inserted in a receptacle recess. The integral regions are preferably formed by induction hardening of a knitting machine part which is not yet hardened, wherein a separate hardened component can be arranged in each insufficiently hardened region in order to provide a hardened, non-integral region.

A knitting machine part comprises a plurality of tool guides, each for one knitting tool. Each tool guide has a hardened region. The majority of the hardened regions are formed to be integral without seams or joints which transition integrally into adjacent, non-hardened regions. At least one hardened region of the knitting machine part is formed by a non-integral region, in that a hardened, separate component is arranged there, which forms the non-integral hardened region. The component can be designed as an insert part and inserted in a receptacle recess. The integral regions are preferably formed by induction hardening of a knitting machine part which is not yet hardened, wherein a separate hardened component can be arranged in each insufficiently hardened region in order to provide a hardened, non-integral region.

A method for manufacturing a knitted fabric embodying a basic knit, into which at least one functional yarn filament, such as an electrically conductive yarn filament, is incorporated as a vertical yarn filament (F3). The basic knit is formed from a first and a second yarn (F1, F2) using a plaiting technique. The vertical yarn filament (F3) is incorporated by a third yarn carrier (FF3) positioned, on a third yarn carrier rail located between respective yarn carrier rails for the first and the second yarn carriers (FF1, FF2), at a location at which the vertical yarn filament (F3) is to be incorporated. During formation of a sequence of stitch rows (MR1-MR7) using the first and second yarns (F1, F2), the first yarn (F1) is guided over the vertical yarn filament (F3) on a front side of the knitted fabric and the second yarn (F2) is guided over the vertical yarn filament (F3) on a back side of the knitted fabric.

A method for manufacturing a knitted fabric embodying a basic knit, into which at least one functional yarn filament, such as an electrically conductive yarn filament, is incorporated as a vertical yarn filament (F3). The basic knit is formed from a first and a second yarn (F1, F2) using a plaiting technique. The vertical yarn filament (F3) is incorporated by a third yarn carrier (FF3) positioned, on a third yarn carrier rail located between respective yarn carrier rails for the first and the second yarn carriers (FF1, FF2), at a location at which the vertical yarn filament (F3) is to be incorporated. During formation of a sequence of stitch rows (MR1-MR7) using the first and second yarns (F1, F2), the first yarn (F1) is guided over the vertical yarn filament (F3) on a front side of the knitted fabric and the second yarn (F2) is guided over the vertical yarn filament (F3) on a back side of the knitted fabric.

A textile machine tool part (11) that is used in textile processing in a textile machine and a method for producing same are disclosed. The textile machine tool part (11) has a tool core (16) made of a core material and is coated, at least in part, with a wear-resistant coating. The wear-resistant coating (17) is applied to a core surface (18) that has a first microstructure (19). The first microstructure (19) is preferably created using electrochemical etching in the core surface (18). The wear-resistant coating (17) applied thereto is preferably applied directly to at least a section of the core surface (18) having the first microstructure (19) using electrochemical deposition and has a layer thickness of a maximum of 20 μm.

A textile machine tool part (11) that is used in textile processing in a textile machine and a method for producing same are disclosed. The textile machine tool part (11) has a tool core (16) made of a core material and is coated, at least in part, with a wear-resistant coating. The wear-resistant coating (17) is applied to a core surface (18) that has a first microstructure (19). The first microstructure (19) is preferably created using electrochemical etching in the core surface (18). The wear-resistant coating (17) applied thereto is preferably applied directly to at least a section of the core surface (18) having the first microstructure (19) using electrochemical deposition and has a layer thickness of a maximum of 20 μm.

A needle bed and needle combination for a flat knitting machine includes a needle bed, a plurality of parallel sinkers provided at a front end of the needle bed, knitting needles and stitch elements provided in needle grooves, and a needle selection unit. Two knitting needles are arranged in parallel in the needle groove between every two adjacent sinkers, and are separately configured to make a knit stitch, a tuck stitch and a loop transfer stitch. The stitch element includes a control stitch element and elastic stitch elements. The control stitch element, the elastic stitch elements and the needle selection unit form the needle selection mechanism. Two elastic stitch elements are connected to the two knitting needles, respectively. The control stitch element is located above and engaged with the two elastic stitch elements. The needle selection unit is provided above the two elastic stitch elements.

A needle bed and needle combination for a flat knitting machine includes a needle bed, a plurality of parallel sinkers provided at a front end of the needle bed, knitting needles and stitch elements provided in needle grooves, and a needle selection unit. Two knitting needles are arranged in parallel in the needle groove between every two adjacent sinkers, and are separately configured to make a knit stitch, a tuck stitch and a loop transfer stitch. The stitch element includes a control stitch element and elastic stitch elements. The control stitch element, the elastic stitch elements and the needle selection unit form the needle selection mechanism. Two elastic stitch elements are connected to the two knitting needles, respectively. The control stitch element is located above and engaged with the two elastic stitch elements. The needle selection unit is provided above the two elastic stitch elements.

A fabric article (100) comprising a continuous body of knitted fabric (100). The continuous body of fabric (100) comprises: a base component (101) comprising a plurality of courses of nonconductive yarn and a sensing component (107) comprising a first conductive region (109). The first conductive region (109) comprises at least one course of conductive yarn. The fabric article 100) is manufactured using a knitting machine comprising first and second needle beds. One or both of the first and second needle beds are used to knit the base component (101). The first needle bed is used to knit the first conductive region (109). A second conductive region (111) may be knit using the second needle bed. A conductive pathway (113) connecting the first conductive region (109) to the second conductive region (111) may be knit using the first or second needle bed.

A fabric article (100) comprising a continuous body of knitted fabric (100). The continuous body of fabric (100) comprises: a base component (101) comprising a plurality of courses of nonconductive yarn and a sensing component (107) comprising a first conductive region (109). The first conductive region (109) comprises at least one course of conductive yarn. The fabric article 100) is manufactured using a knitting machine comprising first and second needle beds. One or both of the first and second needle beds are used to knit the base component (101). The first needle bed is used to knit the first conductive region (109). A second conductive region (111) may be knit using the second needle bed. A conductive pathway (113) connecting the first conductive region (109) to the second conductive region (111) may be knit using the first or second needle bed.