A chalk reel is provided that includes a handgrip on housing supporting a chalk line extending from a nozzle of the housing that extends from the chalk reel to mark a straight line. The chalk reel may further include a rotatable handle that rotates to extend or retract (pay out) the chalk line. A hook is secured to the end of the chalk line to facilitate extension of the chalk line and prevent retraction of the chalk line end into the housing nozzle. The chalk reel may further include a transmission system with gearing and a selector to lock the gearing at locations around the handle rotation. The chalk reel may also include a large removable cap to facilitate refilling the chalk or other marking material.

A winding unit for an electric vehicle charging cable includes a rotationally symmetrical reel unit, a rotationally symmetrical internal body, and a rotationally symmetrical round outlet plate. The winding unit has a first winding region, onto which a cable can be wound, and a second winding region in a radial peripheral region of the reel unit. The second winding region is adjacent to the first winding region so that a cable in the second winding region can be wound from a region close to the first winding region alongside one another in the direction of the round outlet plate opposite to a winding direction in the first winding region. The second winding region extends over a radial portion of the internal body. The round outlet plate is rotatable a predetermined number of revolutions together with the reel unit and in order to then be blocked, so that a cable is pushed out of the outlet opening.

A cable reel assembly (10) for storing a cable (18) to be dispensed, the cable reel assembly (10) comprising a cylindrical rotatable reel (12) for storing a cable in a spiral configuration, and a cable restraining means (14) for restraining the movement of the cable (18) away from rotatable reel (12) during unwinding of the cable (18).

A power cord handling device and a method to adjust a power cord extending from a device are provided. A frame assembly may include a base supporting a device receiving area to receive a device. A wheel assembly may be adapted to facilitate coiling of a power cord extending from the device when the device is disposed in the device receiving area. The wheel assembly may include a protrusion member. The protrusion member may include one or more slots. A controller may be configured to control a wheel assembly motor. Guide arms may be adapted to receive one or more second portions of the power cord extending from the device and to guide the power cord during a power cord handling operation. The controller may be configured to cause the wheel assembly to perform a power cord handling operation.

A winding assembly for a protective device of a motor vehicle, and a method for producing such a winding assembly. Such a winding assembly includes a form-stable winding shaft and a flexible winding web held on the winding shaft such that it can be wound up and unwound. The winding shaft is formed by a form-stabilized wound-up first portion of a flexible sheet-form material and the flexible winding web is formed by a second portion of the flexible sheet-form material adjoining the first portion, whereby the winding shaft and the winding web are in continuous one-piece form.

A winding assembly for a protective device of a motor vehicle, and a method for producing such a winding assembly. Such a winding assembly includes a form-stable winding shaft and a flexible winding web held on the winding shaft such that it can be wound up and unwound. The winding shaft is formed by a form-stabilized wound-up first portion of a flexible sheet-form material and the flexible winding web is formed by a second portion of the flexible sheet-form material adjoining the first portion, whereby the winding shaft and the winding web are in continuous one-piece form.

A line sensor deployment and recovery apparatus and system with integrated level-wind. In one embodiment, a line deployment and recovery apparatus with an integrated level-wind, comprising a reel, having an external surface with helical grooves, wherein the grooves facilitate a line; a motor configured to axially rotate the reel; a level-wind shuttle, further comprising: a fairlead configured to selectively feed the line into the helical grooves, or deploy the line from the helical grooves; a shuttle finger configured to align the shuttle with the helical grooves and receive a driving force from the reel's rotations to drive the shuttle; and a shuttle track, oriented parallel to the drum and fixed in a offset position form the helical grooves at an operable track height, configured to facilitate linear traversal of the shuttle along the reel.

A retractor for a belt for retaining objects in space environments that has an outer housing containing a spool for the belt is associated with a centrifugally activated braking mechanism that allows the belt to unwind normally when the belt is pulled to extract the belt from the belt retractor. During a rewinding phase, the centrifugally activated braking mechanism automatically limits a rewinding speed of the belt on the spool.

A charging apparatus for a handheld electronic device includes a housing configured to removably attach to the handheld electronic device. The housing includes at least one electronic logic board, and an accessory station configured to store and charge at least one accessory item of the handheld electronic device. The electronic logic board includes a coil configured to wirelessly provide or accept power to and from the handheld electronic device. A software installed on the electronic logic board is configured to control a power transfer between at least two of the following: the accessory item, the accessory station, the housing, and the handheld electronic device. The housing includes a magnetic material configured to removably attach to a corresponding magnetic material of the handheld electronic device.

An article of footwear, method, and motorized lacing system includes a motor, including a motor shaft, a spool, coupled to the motor shaft, configured to spool and unspool the lace based on the turning of the motor shaft, a processor circuit, and a three-dimensional encoder. The three-dimensional encoder defines a major axis and has a surface having a tabs extending from a drum, an optical sensor, positioned within optical range of the cylindrical encoder, configured to output a signal to the processor circuit indicative of a detected one of the tabs, and a beam break, positioned between the three-dimensional encoder and the optical sensor, forming a pair of slits. The optical sensor is positioned to view the tabs through the pair of slits, wherein the processor circuit is configured to operate the motor based, at least in part, on the signal as received from the optical sensor.