Method and Equipment for Installing a Power Cable in a Deployment Site The present disclosure relates to a method for installing a single power cable span in a deployment site comprising a rail for supporting the single cable span by trolleys, the method comprising the steps of providing a conveyor belt outside of the deployment site, the conveyor belt having a plurality of locations set at a predetermined distance one from the other along a longitudinal movement direction of the conveyor belt and moving integrally with the latter; repeating the following steps until the single cable span reaches a predetermined position while the conveyor belt is moving, positioning a first part of a holder at one of the locations; while advancing the single cable span, laying a portion thereof on said first part of the holder positioned at the location moving with the conveyor belt; connecting a second part of the holder to the first one to lock the cable span portion in between; while the cable span portion locked by the holder is leaving the conveyor belt, removing the first part of the holder from the location moving with the conveyor belt. According to another aspect, the present disclosure relates to an equipment for the installation of a single power cable span in a deployment site.

A cable routing apparatus, for supporting an electric charging cable, includes a mounting plate and a pulley-bracket assembly, which is pivotally attachable to the mounting plate. The pulley-bracket assembly includes a pulley support member having a pulley support plate and at least one pulley support arm extending downwardly from the support plate. The pulley-bracket assembly further includes a pulley wheel for supporting part of the cable thereon, and a pulley axle extending through a central hub of the pulley wheel. A housing may be provided for covering the pulley-bracket member, and parts of the pulley support member may, optionally, be integrated into the housing. A kit including two of the described cable routing apparatus along with an intermediate pulley bracket and other components, as well as a method of installing the kit in a garage to provide a cable routing system are also described.

A method for electrification of a field chopper comprising the steps of: providing a cable drum and a winding drive on the field chopper, the cable drum and winding drive allowing at least one of the winding and unwinding of an energy supply line about the cable drum; providing a cable arm on the field chopper, the cable arm configured to adjust in at least one of an orientation and extension length to provide guided winding or unwinding of the energy supply line along a field surface; providing a pivotable ejection chute on the field chopper, the ejection chute extending beyond the cable arm and configured to transfer a chopped harvested material onto a transport vehicle driving alongside the field chopper; unwinding the energy supply line while along a first processing strip from the cable drum using the winding drive and cable arm; and winding the energy supply while along a second processing strip about the cable drum using the winding drive and the cable.

A cable feeding unit (108) of a cable management system (100) comprising one or more feeding sections (200A, 200B, 200C, 200D, 302), having a body (202), a first side structure (208) and a second side structure (210), an inlet opening (212, 314) and an outlet opening (214) of a cable (124, 230, 410); one or more pairs of sheave rollers (216, 218, 220) attached between the first side structure and the second side structure; a cable feeding passage (222) formed at least between a rim part of the first sheave roller and a rim part of the second sheave roller of the one or more pairs of sheave rollers; one or more drives (160, 226A, 226B) connected to at least one of the sheave rollers; and one or more transmission mechanisms (224A, 224B) connecting the one or more drives with at least the first or second sheave roller.

A seat assembly within an internal cabin of a vehicle includes an electrical interface housing that contains a first portion of a cable that is configured to provide one or both of electrical power or electrical signals to one or more electrical components. A cable reel rotatably coupled to a body of the electrical interface housing. The cable reel is configured to rotate about an axis. The first portion of the cable includes an adjustable coil that is coiled around the cable reel. The cable reel is rotatable in a first direction to deploy the first portion of the cable outwardly from the electrical interface housing and a second direction to retract the first portion of the cable inwardly into the electrical interface housing.

Bollard cord retractors include a bollard having at least one hollow cavity extending through at least a portion thereof, a force retractor positioned within the hollow cavity, the force retractor including at least one of a linear force retractor or a rotational force retractor; and a retraction line attached at a first end to the force retractor and attached at a second end to a charging cord of a charger

An apparatus for dispensing wire or cable, the apparatus including an enclosure with a top and a bottom portion and at least three side portions of a first height, a plurality of holes located in both the top and bottom portions of the enclosure, and a core of a second height located within the enclosure, wherein the core forms an area, wherein at least one of the plurality of holes has a first hole diameter and is located in the top and bottom of the enclosure and is located within the area formed by the core, and wherein the wire or cable is placed around the core.

An integrated latching mechanism includes a slider button. At least one curved elastic arm extends from the slider button and is configured such that in response to an external force urging the slider button in a first direction, the curved elastic arm is distorted such that upon removal of the external force, the curved elastic arm moves the slider button in a direction opposite to the first direction. A locking part is contiguous with the slider button and extends away from the slider button. In response to the external force urging the slider button in the first direction, the locking part moves in the first direction, and upon removal of the external force, the curved elastic arm moves the locking part in the direction opposite to the first direction. The at least one curved elastic arm, the slider button, and the locking part form a single piece of elastic material.

A system for managing charging, the charging management system is provided. The system comprises a charging cord management device, a charging cord connector, a device, a first charging cord, and a second charging cord. The charging cord management device is configured with the second charging cord. The charging cord management device is configured to control the second charging cord and the charging cord connector in a direction of the earth gravitational field from a first altitude to a second altitude without user interaction and wherein the first altitude is different from the second altitude. The charging cord connector is configured to be in contact with an apparatus with a height above ground level.

The invention relates to a rotary guide (1) for guiding at least one line (2) between two points (3, 4), which can be rotated relative to each other, without interruptions. Two receiving parts (12, 14) for receiving a respective sub-section of two sub-sections (29, 31), which are to be wound about the common rotational axis (X) in opposite directions, of a line section (2a), which can be received in the rotary guide (1), can be rotated relative to each other about a rotational axis (X). A deflecting unit (16) supports a deflecting region (18), in which the line section (2a) of the line (2) changes over between the opposite sub-sections (29, 31) in order to deflect the line (2) to be guided from one receiving part (12, 14) to the other receiving part (12, 14) in the event of a relative rotation. Each of the receiving parts (12, 14) has a spiral-shaped receiving groove (20, 22) with a plurality of windings (24, 26) for receiving a line section (2a), said windings running about the common rotational axis (X) from a starting radius (r.sub.a) to a final radius (r.sub.e), wherein the windings (24, 26) lie on a plane perpendicular to the common rotational axis (X). The deflecting unit (16) has an active surface (33) which extends or can be adjusted radially between the starting radius (r.sub.a) and the final radius (r.sub.e) and which interacts with the receiving grooves (20, 22) in order to transfer the line section (2a) from the receiving groove (20, 22) of the one receiving part (12, 14) to the receiving groove (20, 22) of the other receiving part (12, 14) in the event of a relative rotation.