A sanitizing device is disclosed that has a channel extending through the device. The sanitizing device has a coupler for attaching it to a sewer cleaning machine for running its cable and/or cover tube through the channel. A set of ultraviolet LEDs illuminate the channel and disinfect the cable or cover tube running through the sanitizing device. Also, a system including a power transmission device and the sanitizing device is disclosed.

This application relates to electric winders, particularly, to an intelligent electric winder and a control method therefor. The intelligent electric winder includes a support, a control unit and a winder body, where the winder body includes a casing, a winding reel, a drive structure, and a cable. The drive structure is electrically connected to the control unit. The control unit includes: a socket and a host; the host is arranged inside the casing, and the socket is arranged outside the casing; a start/stop button is provided on a surface of the socket, and the socket is connected to a free end of the cable. Through the intelligent electric winder and a control method therefor, the winding reel is controlled to start or stop winding by sending a wireless control signal, so that the intelligent electric winder is controlled to wind or unwind cables through the wireless communication.

This application relates to electric winders, particularly, to an intelligent electric winder and a control method therefor. The intelligent electric winder includes a support, a control unit and a winder body, where the winder body includes a casing, a winding reel, a drive structure, and a cable. The drive structure is electrically connected to the control unit. The control unit includes: a socket and a host; the host is arranged inside the casing, and the socket is arranged outside the casing; a start/stop button is provided on a surface of the socket, and the socket is connected to a free end of the cable. Through the intelligent electric winder and a control method therefor, the winding reel is controlled to start or stop winding by sending a wireless control signal, so that the intelligent electric winder is controlled to wind or unwind cables through the wireless communication.

The system includes an electronic device connected to a cord that can be unreeled and reeled in by a cord reel, and a management apparatus that can communicate with the electronic device. In the system, the cord-reel-use detector is disposed in the electronic device, and detects use of the cord reel. The memory is disposed in the electronic device and/or the management apparatus, and stores an amount of use of the cord reel. The controller is disposed in the electronic device and/or the management apparatus, and determines the use of the cord reel on the basis of the detection made by the cord-reel-use detector. The controller changes the amount of use of the cord reel in response to the electronic device having been replaced with another electronic device or in response to the cord reel having been replaced with another cord reel.

The system includes an electronic device connected to a cord that can be unreeled and reeled in by a cord reel, and a management apparatus that can communicate with the electronic device. In the system, the cord-reel-use detector is disposed in the electronic device, and detects use of the cord reel. The memory is disposed in the electronic device and/or the management apparatus, and stores an amount of use of the cord reel. The controller is disposed in the electronic device and/or the management apparatus, and determines the use of the cord reel on the basis of the detection made by the cord-reel-use detector. The controller changes the amount of use of the cord reel in response to the electronic device having been replaced with another electronic device or in response to the cord reel having been replaced with another cord reel.

Provided is a cable take-up device for a flexible flat cable routed for a slide seat slidably supported so as to be movable forward and backward along a fixed rail fixed to the vehicle cabin floor. The cable take-up device includes: a take-up housing part that takes up a housed portion in a drawable manner and houses it inside with a front end portion fixed to a rail front end portion and a rear end portion fixed to the slide seat; a take-up force generation part that generates a take-up force in a direction of take-up of the housed portion through drawing of the cable routing body; and a slit that applies the take-up force of the take-up force generation part to the housed portion.

Provided is a cable take-up device for a flexible flat cable routed for a slide seat slidably supported so as to be movable forward and backward along a fixed rail fixed to the vehicle cabin floor. The cable take-up device includes: a take-up housing part that takes up a housed portion in a drawable manner and houses it inside with a front end portion fixed to a rail front end portion and a rear end portion fixed to the slide seat; a take-up force generation part that generates a take-up force in a direction of take-up of the housed portion through drawing of the cable routing body; and a slit that applies the take-up force of the take-up force generation part to the housed portion.

An electric vehicle charging station that is configured to be mounted in alternate locations on a residential structure and provide standardization of electrical coupling to all types of electric vehicles. The present invention includes a base cabinet having a plurality of walls and a bottom integrally formed to create an interior volume. A cable reel is rotatably mounted within the interior volume of the base cabinet wherein the cable reel further includes an axle. The axle is configured with an electrical coupling that is configured to couple to an end of an electrical cord suitable for charging an electric vehicle. A controller is electrically coupled to the axle and is further electrically coupled to a power source within the residential structure. The base cabinet is provided with an access port and a plurality of roller adjacent thereto for improved cable retraction or deployment.

An electric vehicle charging station that is configured to be mounted in alternate locations on a residential structure and provide standardization of electrical coupling to all types of electric vehicles. The present invention includes a base cabinet having a plurality of walls and a bottom integrally formed to create an interior volume. A cable reel is rotatably mounted within the interior volume of the base cabinet wherein the cable reel further includes an axle. The axle is configured with an electrical coupling that is configured to couple to an end of an electrical cord suitable for charging an electric vehicle. A controller is electrically coupled to the axle and is further electrically coupled to a power source within the residential structure. The base cabinet is provided with an access port and a plurality of roller adjacent thereto for improved cable retraction or deployment.

Systems and apparatuses are provided in which outlets are coupled to a power distribution unit (PDU) or PDU module in various configurations. The outlets may be coupled to a recessed surface within a PDU housing. The outlets and recessed surface may be formed as part of a single mold. The outlets may be coupled to a printed circuit board that is at least partially disposed within the PDU housing. The outlets may extend away from the recessed surface or printed circuit board towards or beyond a front face of the PDU housing.