A wheel and tire assembly positioning system for automatically identifying characteristics of a wheel is presented, the wheel and tire assembly positioning system comprising a mechanical mechanism for transporting a wheel and tire assembly, and a control module connected to a mechanical mechanism actuator managing the transport of the wheel and tire assembly, a profile sensor adapted to sense a profile of an interior portion of the wheel to identify the characteristics of the wheel and tire assembly, and a sensor adapted to identify a wheel reference location.

A wheel and tire assembly positioning system for automatically identifying characteristics of a wheel is presented, the wheel and tire assembly positioning system comprising a mechanical mechanism for transporting a wheel and tire assembly, and a control module connected to a mechanical mechanism actuator managing the transport of the wheel and tire assembly, a profile sensor adapted to sense a profile of an interior portion of the wheel to identify the characteristics of the wheel and tire assembly, and a sensor adapted to identify a wheel reference location.

A cable reel of the present disclosure can include two flanges and a central drum being independently rotatable from one another. The drum, which can be configured to receive a cable, can be mounted on an axle. The two flanges can be rotationally mounted on the axle at opposing distal ends of the axle. Bearings in the flanges can allow for a full rotation of the flanges about the axle.

A strap length adjusting apparatus includes first and second stationary plates and a middle plate disposed between them. The middle plate can rotate relative to the first and second stationary plates. A biasing device is linked to first and second coupling members between the middle plate and the first plate. The biasing device can either couple the middle plate to the first plate or decouple the middle plate from the first plate. When the first and middle plates are decoupled from each other, the middle plate can rotate with respect to the first plate, and a strap partially wound about a rod that extends from the middle plate, can wind about the rod either clockwise or counterclockwise so as to continuously change a length of the strap that extends away from the rod.

A reel assembly for deploying a cable, hose or umbilical connection may include an electronic control unit that may operate to control the reel assembly. A sheave that redirects the direction of the cable, hose or umbilical connection may include sensors that may measure various parameters, such as a measured line tension and/or a length of cable, hose or umbilical connection that has been deployed, and transmit the measured data to the electronic control unit. The electronic control unit may, based on received sensor data, automatically direct the operation of the reel assembly. Optionally, the sensor data and/or user control inputs and system status information may be logged. The system also may use this data to control the system, such as by activating an alarm when a certain alarm limit is exceeded by the data, adjusting parameters of the drive, and the like.

A foldable wire caddy includes a first mounting support, a second mounting support, and a primary mounting bar. The wire reels are positioned along a structural body of the primary mounting bar which is then positioned in between the first mounting support and the second mounting support. A locking screw and a screw-receiving channel of a locking mechanism are used to secure the primary mounting bar in a functional position with the first mounting support and the second mounting support. A carrying handle which is removably and rotatably mounted onto the primary mounting bar allows the foldable wire caddy to be transported from one location to another.

A reel has a spool member on which the linear material is spooled, an electric motor that rotates the spool member, and a controller that controls the operation of the motor. The controller monitors an unwound length of the linear material based on sensed rotation of the spool member by one or more sensors. The controller causes the electric motor to wind the linear material around the spool member, for example, upon detection of a pulling force on the linear material over a pull distance within a predetermined range, but, for example, does not trigger the winding of the linear material if the pull distance is greater than the predetermined range. The controller can cause the electric motor to stop winding of the linear material upon detection of a force on the linear material that holds the linear material in place.

A dock mountable floatation mat storage assembly includes a first mount and a second mount each attached to dock. Each of the first and second mounts includes a base that has an inward portion, an outward portion and a central portion positioned between the inward and outward portions. The inward portion has an aperture extending therethrough. A riser has a top end and a bottom end. The bottom end is attached to the outward portion of the base and extends upwardly away therefrom. A fastener extends through the aperture and through the dock such that the fastener releasably secures the base to the dock. A spindle is positioned on and extends between the top ends of the first and second mounts. The spindle is rotatable relative to the first and second mounts and engages a floating mat such that the floating mat is rolled upon and storable on the spindle.

The cover delivery device (e.g., for use in selectably covering a watercraft) can include a first mobile support assembly, a second mobile support assembly, a drive shaft, and a cover carrier mechanism. The first mobile support assembly is mounted to and configured for movement along a first rail. The second mobile support assembly is mounted to and configured for movement along a second rail, which is generally parallel to the first rail. The drive shaft extends between and is rotatably mounted to the first mobile support assembly and the second mobile support assembly. The cover carrier mechanism extends between and is rotatably mounted to the first mobile support assembly and the second mobile support assembly. The cover carrier mechanism is configured for selectably deploying a cover carried thereby, with the cover carrier mechanism being configured to respectively roll and unroll the cover relative thereto.

A storage system includes a protective housing member configured to mate with a handheld electronic device. The protective housing member includes at least one accessory station. The accessory station is configured to form between a surface of the protective housing member and a surface of at least one accessory item of the handheld electronic device. The protective housing member includes at least s wireless transmitter and/or an IC chip. The wireless transmitter is configured to facilitate a wireless connection between wireless components of the handheld electronic device and the protective housing member.