A motorized, voice-activated ‘smart’ mobile workstation incorporating casters, a base support member, a work surface with height-adjustment feature, a power source for recharging electronic devices held on the mobile workstation, a power cord which plugs into an electrical wall outlet for recharging of mobile workstation, and a battery which extends the operation of the mobile workstation while the mobile workstation is not plugged into an electrical wall outlet. The mobile workstation further includes a motor which gives the mobile workstation rotational energy, smart technology which comprises a computerized ‘brain’ which helps humans communicate with the mobile workstation by giving simple voice commands, which control the directional and elevational movement of the mobile workstation. A remote control apparatus powers on and off the mobile workstation and is also an alternative means for controlling the directional and elevational movement of the mobile workstation. Further included are sensors which include collision avoidance capabilities.

A motorized cart assembly includes a cart that has a basket, a collapsible frame and a plurality of wheels. The basket has a height that is greater than a width of the basket to accommodate tent poles and a tent. The frame includes a pole support for insertably receiving a respective one of the tent poles to vertically orient the respective tent pole. A drive unit is coupled to the cart and the drive unit is in mechanical communication with respective ones of the wheels. The drive unit rotates the respective wheels when the drive unit is turned on thereby facilitating the cart to be self propelled. The drive unit is in wireless communication with a personal electronic device for remotely controlling the drive unit.

A transportable machine including an elongated frame having a top end and a bottom end, a handle disposed on the top end of the frame, a base disposed on the bottom end of the frame, where the base and the frame together define a space configured to receive and support a load, and a wheel disposed on the bottom end of the frame. A track is coupled to the frame, where the track includes a roller and an endless belt configured to rotate about the roller. A motor is coupled to the roller, where the motor is operable to drive the endless belt, and a power supply provides power to the motor.

The present invention comprises of a motorized folding all-terrain wagon that can fit in an automobile. The preferred embodiment having the front wheels controlled by a steering linkage attached to the handle. Large treaded wheels powered by electric motor(s) with drive assemblies, motor controller, battery, control buttons, switches and/or control panel. Optional embodiment is to have a braking system.

In this moving body, a walking assist device (1) is provided with: a plurality of drive wheels (50) capable of rotating about a plurality of rotational axes (51) disposed on a circumference centered on the same axis line (C); and a huh case (60) for supporting the plurality of rotational axes (51) so as to be able to revolve around the axis line (C). A first motor (10) is connected to the plurality of drive wheels (50) in a power transmissible manner so as to allow the plurality of drive wheels (50) to rotate, and a second motor (20) is connected to the huh case (60) in a power transmissible manner so as to allow the plurality of drive wheels (50) to revolve.

A trolley assembly includes a trolley housing defining an internal cavity. The assembly includes at least one ultra-violet (UV) illumination system contained within the internal cavity in a stowed position. The UV illumination system configured and adapted to extend outward from the internal cavity in a deployed position. The trolley assembly includes a battery in electrical communication with the at least one UV illumination system.

The present invention is a general-purpose electronic cart, particularly a rechargeable motorized personal shopping and utility cart that can move in a forward, backward or lateral sense and includes a collapsible container and a control console.

A cart includes: a body; wheels; a drive unit, driving each of the wheels; a handle, receiving a user's operation; an input detection sensor, detecting a load and/or moment applied to the handle; a rotation number sensor, detecting number of rotations of each of the wheels; and a control device, setting a target propulsive force to be output as a propulsive force from each of the wheels based on the load and/or moment, and controlling the drive unit to output the target propulsive force as the propulsive force. If the number of rotations of the wheel located on a side close to a turning center exceeds a predetermined threshold during turning, the control device sets the target propulsive force of the wheel located on a side away from the turning center to be less than the target propulsive force set based on the load and/or moment.

A load handling device is disclosed for lifting and moving storage containers stacked in a grid framework structure having first and second sets of parallel rails or tracks. The load handling device includes a body mounted on first and second sets of wheels arranged to engage with the tracks. The wheels have spokes connecting a rim to a hub, and wherein the wheel is at least partially resiliently deformable, wherein the wheel rim and wheel hub are made from a rigid material relative to the spoke material, and wherein the wheel includes two or more layers.

A handcart may include a drive wheel; a prime mover configured to rotate the drive wheel; a grip portion configured to be gripped by a user; and a visibly noticeable portion that is clearly noticeable from behind the user when the user stands behind the handcart, gripping the grip portion.