Abstract: A motorcycle conversion kit for a three wheeled motorcycle wherein the conversion kit of the present invention is operable to transition the motorcycle so as to traverse across a snowy terrain. The conversion kit of the present invention includes a pair of ski assemblies that are operably secured to the front rotor assembly of the motorcycle. The ski assemblies include rotor movement inhibitors. A swing arm assembly is operably coupled to the frame and includes a front portion and a rear portion. The rear portion has rotatably mounted thereto a snow belt drive wheel. The show belt drive wheel is superposed a snow belt of a snow belt assembly wherein the snow belt assembly is secured to the frame of the motorcycle. The kit further includes a fuel cell bracket assembly having support members mounted on opposing sides of the frame and having a compartment rearward of the motorcycle.

Abstract: A motorcycle conversion kit for a three wheeled motorcycle wherein the conversion kit of the present invention is operable to transition the motorcycle so as to traverse across a snowy terrain. The conversion kit of the present invention includes a pair of ski assemblies that are operably secured to the front rotor assembly of the motorcycle. The ski assemblies include rotor movement inhibitors. A swing arm assembly is operably coupled to the frame and includes a front portion and a rear portion. The rear portion has rotatably mounted thereto a snow belt drive wheel. The show belt drive wheel is superposed a snow belt of a snow belt assembly wherein the snow belt assembly is secured to the frame of the motorcycle. The kit further includes a fuel cell bracket assembly having support members mounted on opposing sides of the frame and having a compartment rearward of the motorcycle.

Abstract: A method of robotic assembly, for manufacturing plastic components from parts mounted upon a plastic shell, using an integrated system of material handling and robots following a programmed series of operations. The robot cells carry out the following steps: (a) scanning the pallet and identifying that the pallet is locked in the docked position of the cell; (b) scanning an assembly area of the shell and communicating location and planarity data to the robot of the cell; (c) selecting a plastic part from a part supply device with the robot; (d) welding the part to the assembly surface of the plastic shell using the robot to perform a spin or fusion welding process. (e) determining the performance status of the foregoing cell steps and identifying the status as: good; scrap or rework. Good status results in conveyance of the loaded pallet for processing at any succeeding cell, but rework and scrap status result in conveyance of the loaded pallet to the unload station without processing at any succeeding cell.

Abstract: A method of robotic assembly, for manufacturing plastic components from parts mounted upon a plastic shell, using an integrated system of material handling and robots following a programmed series of operations. The robot cells carry out the following steps: (a) scanning the pallet and identifying that the pallet is locked in the docked position of the cell; (b) scanning an assembly area of the shell and communicating location and planarity data to the robot of the cell; (c) selecting a plastic part from a part supply device with the robot; (d) welding the part to the assembly surface of the plastic shell using the robot to perform a spin or fusion welding process. The spin welding process includes: engaging a mounting surface of the part with the assembly surface of the shell; rotating the part until the mounting and assembly surfaces are heated; and applying pressure to the part sufficient to fuse the mounting and assembly surfaces together.