Abstract: A support (1) is for an energy supply chain (2). The support (1) is divided in a longitudinal direction (L) into a plurality of sections (5), wherein the sections (5) each have at least one tooth (6) at their ends, and wherein in each case two adjacent section (5) are interlocked with one another via the teeth (6).

Abstract: A line-guiding device includes links connected to one another in an articulated manner and which form a loop consisting of an upper strand, a deflection region, and a lower strand. Adjacent links can pivot relative to one another about a pivot axis. The pivot axes are located closer to a loop inner side than to a loop outer side at least in some of the links. Each link has two side flaps opposite one another. Side flaps of adjacent links form at least one running surface on the loop inner side. At least some of the links have a roller projecting from the running surface. The upper strand and the lower strand can abut over the running surface such that the upper strand and the lower strand can move by means of the rollers. The running surface in at least some of the links is interrupted by recesses.

Abstract: Line-guiding device links connect to form a loop consisting of an upper strand, a deflection region, and a lower strand. Adjacent links pivot about a pivot axis. The pivot axes are located closer to an inner side than to an outer side at least in some of the links. Each link has two side flaps opposite one another. Side flaps of adjacent links form at least one running surface on the inner side. At least some links have a roller projecting from the running surface. The upper strand and the lower strand can move via the rollers. The running surface is interrupted at least at some of the transitions between links such that part of the running surface formed by a first link has a recess and part of the running surface formed by a second link has a pin which engages in the recess, forming a gap.

Abstract: A support (1) is for an energy supply chain (2). The support (1) is divided in a longitudinal direction (L) into a plurality of sections (5), wherein the sections (5) each have at least one tooth (6) at their ends, and wherein in each case two adjacent section (5) are interlocked with one another via the teeth (6).

Abstract: Line-guiding device links connect to form a loop consisting of an upper strand, a deflection region, and a lower strand. Adjacent links pivot about a pivot axis. The pivot axes are located closer to an inner side than to an outer side at least in some of the links. Each link has two side flaps opposite one another. Side flaps of adjacent links form at least one running surface on the inner side. At least some links have a roller projecting from the running surface. The upper strand and the lower strand can move via the rollers. The running surface is interrupted at least at some of the transitions between links such that part of the running surface formed by a first link has a recess and part of the running surface formed by a second link has a pin which engages in the recess, forming a gap.

Abstract: A line-guiding device includes links connected to one another in an articulated manner and which form a loop consisting of an upper strand, a deflection region, and a lower strand. Adjacent links can pivot relative to one another about a pivot axis. The pivot axes are located closer to a loop inner side than to a loop outer side at least in some of the links. Each link has two side flaps opposite one another. Side flaps of adjacent links form at least one running surface on the loop inner side. At least some of the links have a roller projecting from the running surface. The upper strand and the lower strand can abut over the running surface such that the upper strand and the lower strand can move by means of the rollers. The running surface in at least some of the links is interrupted by recesses.

Abstract: Component of a chain element of an energy-conducting chain, wherein the component has a cavity which is produced by means of a fluid internal pressure injection molding method, or is formed from a micro-cellular foam.

Abstract: A component for a line routing system including at least one line routing device having at least one section of the surface of the component that is flocked. The component of line routing device is at least one of a chain link, a chain link plate of a chain link, a transverse web of a chain link, a cover of a chain link, a dividing web of a chain link, a guide element, a housing, a line, and a hose.

Abstract: An element is provided for a cable carrier device which is constructed and arranged to carry cabling components such as cables, lines, hoses and the like between a first connection point and a second connection point. The element is formed from a material including at least one plastic and a filler. The filler includes three-dimensional geometrical carbon-based structures having nanometer-scale dimensions. In some arrangements, the carbon-based structures are carbon nanotubes formed of carbon atoms. Accordingly, the element is capable of dissipating electrostatic charges of the cable carrier device. Thus, the corresponding cable carrier device is suitable for working environments that are to be protected from electrostatic effects.

Abstract: A component for a line routing system including at least one line routing device having at least one section of the surface of the component that is flocked. The component of line routing device is at least one of a chain link, a chain link plate of a chain link, a transverse web of a chain link, a cover of a chain link, a dividing web of a chain link, a guide element, a housing, a line, and a hose.

Abstract: Component of a chain element of an energy-conducting chain, wherein the component has a cavity which is produced by means of a fluid internal pressure injection molding method, or is formed from a micro-cellular foam.

Abstract: An element is provided for a cable carrier device which is constructed and arranged to carry cabling components such as cables, lines, hoses and the like between a first connection point and a second connection point. The element is formed from a material including at least one plastic and a filler. The filler includes three-dimensional geometrical carbon-based structures having nanometer-scale dimensions. In some arrangements, the carbon-based structures are carbon nanotubes formed of carbon atoms. Accordingly, the element is capable of dissipating electrostatic charges of the cable carrier device. Thus, the corresponding cable carrier device is suitable for working environments that are to be protected from electrostatic effects.