An electric wire accommodation device includes an accommodation device body, an electric wire reel being a reel around which an electric wire is wound and configured to be accommodated inside the accommodation device body, in which the electric wire is configured to be pulled out to outside of the accommodation device body and to be intermittently reeled out by a reel-out mechanism provided outside the accommodation device body, and an electric wire gripping member attached on a pull-out route in the accommodation device body along which the electric wire is pulled out and configured to grip the electric wire with a gripping force smaller than a reel-out force applied by the reel-out mechanism.

An electric wire supply apparatus and an electric wire processing apparatus capable of efficiently performing electric wire replacement are provided. An electric wire supply apparatus includes: an electric wire holding arm configured to detachably hold one electric wire; a holding frame configured to arrange a plurality of the electric wire holding arms side by side and individually hold each of the electric wire holding arms such that each of the electric wire holding arms is movable between a standby posture in a standing state and a tilted electric wire supply posture; and a movement mechanism configured to, when an electric wire to be supplied is selected, move the holding frame such that a supply arm for holding the electric wire is positioned at a predetermined supply position and move the supply arm to the electric wire supply posture at the supply position.

A twist application device, including a feeder (1) for feeding conductor ends (2a . . . 2c) of at least two conductors (3a . . . 3c), and a rotatably mounted twist application head (4) for twisting the conductors (3a . . . 3c). The twist application device also includes a controller (7), connected with a drive (8) for first clamping jaws (5a . . . 5f) of the feeder (1), and is equipped for control of the latter. The distance (a) between clamped conductor ends (2a . . . 2c) is set at an adjustable value before the transfer of the conductor ends (2a . . . 2c) from the feed device (1) into the twist application head (4). A method of twisting at least two conductors (3a . . . 3c), in which the referred-to distance (a) is set at an adjustable value before clamping of the conductor ends (2a . . . 2c) in the second jaws (6a, 6b) of the twist application head (4).

A twist application device, including a feeder (1) for feeding conductor ends (2a . . . 2c) of at least two conductors (3a . . . 3c), and a rotatably mounted twist application head (4) for twisting the said conductors (3a . . . 3c). The twist application device also includes a controller (7), connected with a drive (8) for first clamping jaws (5a . . . 5f) of the feeder (1), and is equipped for control of the latter. The distance (a) between clamped conductor ends (2a . . . 2c) is set at an adjustable value before the transfer of the conductor ends (2a . . . 2c) from the feed device (1) into the twist application head (4). A method of twisting at least two conductors (3a . . . 3c), in which the referred-to distance (a) is set at an adjustable value before clamping of the conductor ends (2a . . . 2c) in the second jaws (6a, 6b) of the twist application head (4). In alternative aspect, a feed device (1) for feeding conductor ends (2a . . . 2c) of conductors (3a . . . 3c) into a further processing device (4). The feed device (1) has first clamping jaws (5a . . . 5f), and the further processing device (4) has second clamping jaws (6a, 6b) for accepting and clamping the conductor ends (2a . . . 2c). The first jaws (5a . . . 5f) in a clamping position can be relatively moved so that distance (a) between ends (2a . . . 2c) may be altered. An intermediate space, located between first jaws (5a . . . 5f), extends, in a direction of movement (A) for altering the distance between clamped ends (2a . . . 2c), at least twice as far as in a clamping direction (B). Also a method, in which a variable position of the first jaws (5a . . . 5f) is adjusted in accordance with a selected distance (a) between the ends (2a . . . 2c) before clamping of the ends (2a . . . 2c), and the first jaws (5a . . . 5f) are moved into a prescribed position before the clamping of the ends (2a . . . 2c) in the second jaws (6a, 6b) of the further processin

The present invention is a bulk wire distribution cart configured to dispense bulk conductor wires and a single ground wire efficiently, safely and without slack or wire damage, directly from the cart to the electrical conduit.

A wire harness manufacturing system includes a display unit, a wire cutting machine that draws an electric wire from a wire feed reel and cuts the electric wire to a predetermined length, a control unit that directs the display unit to display a wire laying image and wire work identification information for identifying a work regarding each electric wire, the wire laying image including a plurality of wire images showing the plurality of electric wire in the laid state and the wire work identification information being displayed in the vicinity of the corresponding wire image, and a memory unit that stores the wire laying image and work instruction information so as to correspond to the wire work identification information, the work instruction information including cut length of the electric wire. The control unit sends the cut length information to the wire cutting machine.

The present invention is a bulk wire distribution cart configured to dispense bulk conductor wires and a single ground wire efficiently, safely and without slack or wire damage, directly from the cart to the electrical conduit.

A twist application device, including a feeder (1) for feeding conductor ends (2a . . . 2c) of at least two conductors (3a . . . 3c), and a rotatably mounted twist application head (4) for twisting the conductors (3a . . . 3c). The twist application device also includes a controller (7), connected with a drive (8) for first clamping jaws (5a . . . 5f) of the feeder (1), and is equipped for control of the latter. The distance (a) between clamped conductor ends (2a . . . 2c) is set at an adjustable value before the transfer of the conductor ends (2a . . . 2c) from the feed device (1) into the twist application head (4). A method of twisting at least two conductors (3a . . . 3c), in which the referred-to distance (a) is set at an adjustable value before clamping of the conductor ends (2a . . . 2c) in the second jaws (6a, 6b) of the twist application head (4).

A conductor transportation device for cables has a pivoting conductor conveyor. A first drive moves the conductor conveyor about a pivotal axis. The conductor conveyor has a conveyance (30a) such as, a conveyor belt running around a drive roller and a roller, together with a pressure application. A second drive is present for the. The axes of rotation of rollers (30b, c, e, f) for the conveyance and pressure application are parallel to one another and also to the pivotal axis of the conductor conveyor. A drive axis of the drive is coincident with one of the axes of rotation of the rollers. One of the axes of rotation of the rollers is coincident with the pivotal axis for the conductor conveyor. The actuation paths of the pivotal axis and the conveyor roller or the driven roller are spaced apart.

A cable guide apparatus including a guide apparatus, a slide movably guided in the guide apparatus, a deflection roller connected to the slide, a first tension weight, a cable pull apparatus which connects the first tension weight to the slide guided in the guide apparatus, wherein the connection cable has a free end and a fixed end connected to a connection apparatus and extends over the deflection roller, a second tension weight and a second guide apparatus in which the tension weights are each movably guided, such that the connection cable extending over the deflection roller is preloaded in a first displacement region of the free end by a force generated by the weight force of the first tension weight and is preloaded in a second displacement region of the free end by a force generated by a total of the weight forces of the tension weights.