A container includes an outer box, and a polygonal liner located within the outer box. The polygonal liner has a plurality of vertical walls. A continuous length of wire is located within the polygonal liner and forms a plurality of layers. Each of the layers is comprised of a series of wire loops arrayed polygonally along the vertical walls of the polygonal liner.

A container includes an outer box, and a polygonal liner located within the outer box. The polygonal liner has a plurality of vertical walls. A continuous length of wire is located within the polygonal liner and forms a plurality of layers. Each of the layers is comprised of a series of wire loops arrayed polygonally along the vertical walls of the polygonal liner.

A method for laying multiple conductors in a container may be provided. The method may comprise receiving the multiple conductors at a monitoring station; receiving the multiple conductors at a drive; and receiving the multiple conductors at the container.

A container may be provided. The container may comprise a first surface and a second surface concentric with the first surface. The first surface and the second surface may define a volume. The volume may house a concentric length of multiple parallel conductors. The multiple parallel conductors may pass through a restricting mechanism to restrict the multiple parallel conductors to pass at the same rate and at the same length.

A tendon processing system includes at least one tub for supporting a tendon, and an indexing assembly for moving the tub to and between a plurality of processing locations. Each processing location is associated with at least one respective processing device.

A container may be provided. The container may comprise a first surface and a second surface concentric with the first surface. The first surface and the second surface may define a volume. The volume may house a concentric length of multiple parallel conductors. The multiple parallel conductors may pass through a restricting mechanism to restrict the multiple parallel conductors to pass at the same rate and at the same length.

An energy absorber has a textile element comprising two substrates connected to one another by breaking links and resistant links, the textile element being wound. A container receives the textile element. The container defines a first opening for a first end and a second opening for a second end of the textile element. The resistant link connects a portion of the two substrates and maintains the connection in response to a first stress applied between the first end and the second end. The breaking links break and absorb energy in response to a first stress between the first end and the second end of the textile element. The container is non-openable and defines an access hole opening out facing the centre of the textile element in wound state.

An energy absorber has a textile element comprising two substrates connected to one another by breaking links and resistant links, the textile element being wound. A container receives the textile element. The container defines a first opening for a first end and a second opening for a second end of the textile element. The resistant link connects a portion of the two substrates and maintains the connection in response to a first stress applied between the first end and the second end. The breaking links break and absorb energy in response to a first stress between the first end and the second end of the textile element. The container is non-openable and defines an access hole opening out facing the centre of the textile element in wound state.

A wire barrel packing system that ensures wire is loaded evenly within the barrel and methods of using the same are disclosed herein. The wire barrel backing system may comprise a turntable on which the barrel is placed and a capstan configured to pull the wire from a feeder and feed the wire into the barrel. The turntable may be configured to rotate the barrel as wire is fed into the barrel. The capstan may be configured to raise or lower vertically with respect to the barrel as wire is fed into the barrel. The capstan may also be configured to move horizontally, both inwardly and outwardly, to cause the wire to be laid evenly within the barrel in a helical manner.

A wire barrel packing system that ensures wire is loaded evenly within the barrel and methods of using the same are disclosed herein. The wire barrel backing system may comprise a turntable on which the barrel is placed and a capstan configured to pull the wire from a feeder and feed the wire into the barrel. The turntable may be configured to rotate the barrel as wire is fed into the barrel. The capstan may be configured to raise or lower vertically with respect to the barrel as wire is fed into the barrel. The capstan may also be configured to move horizontally, both inwardly and outwardly, to cause the wire to be laid evenly within the barrel in a helical manner.