Abstract: A leaning vehicle, including a vehicle body, one steerable front wheel and two rear wheels, or two steerable front wheels and one or two rear wheels, a suspension mechanism, a steering mechanism, a steering controller, and an up-down direction acceleration detector attached to the vehicle body or the suspension mechanism. The two steerable front wheels or the two rear wheels are arranged side by side to form a left-right pair of wheels. The up-down direction acceleration detector detects an acceleration in an up-down direction of the leaning vehicle or the vehicle body, generated as one wheel in the left-right pair of wheels passes a bump or a pothole in a road. The steering controller so controls the one or two steerable front wheels that the one or two steerable front wheels are in a free-steering state, so as to swivel around a steering axis freely, based on the detected acceleration.

Abstract: A leaning vehicle including a vehicle body, front and rear wheels, a leaning mechanism that causes the vehicle body and the front and rear wheels to lean left or right when the leaning vehicle turns left or right, a lean actuator, a support stand, a detection device that detects a getting on intention input and or a getting off intention input, which respectively indicate that a rider of the leaning vehicle intends to get on and off the leaning vehicle, and a control device configured to control the lean actuator to thereby control a lean angle of the vehicle body while the vehicle body is in motion, based on a manipulation that the rider performs for turning in the left or right direction, and control the lean angle of the vehicle body while the leaning vehicle is not in motion, based on a detection result of the detection device.

Abstract: A leaning vehicle including a vehicle body, front and rear wheels, a leaning mechanism that causes the vehicle body and the front and rear wheels to lean left or right when the leaning vehicle turns left or right, a lean actuator, a support stand, a detection device that detects a getting on intention input and or a getting off intention input, which respectively indicate that a rider of the leaning vehicle intends to get on and off the leaning vehicle, and a control device configured to control the lean actuator to thereby control a lean angle of the vehicle body while the vehicle body is in motion, based on a manipulation that the rider performs for turning in the left or right direction, and control the lean angle of the vehicle body while the leaning vehicle is not in motion, based on a detection result of the detection device.

Abstract: A leaning vehicle, including a vehicle body, one steerable front wheel and two rear wheels, or two steerable front wheels and one or two rear wheels, a suspension mechanism, a steering mechanism, a steering controller, and an up-down direction acceleration detector attached to the vehicle body or the suspension mechanism. The two steerable front wheels or the two rear wheels are arranged side by side to form a left-right pair of wheels. The up-down direction acceleration detector detects an acceleration in an up-down direction of the leaning vehicle or the vehicle body, generated as one wheel in the left-right pair of wheels passes a bump or a pothole in a road. The steering controller so controls the one or two steerable front wheels that the one or two steerable front wheels are in a free-steering state, so as to swivel around a steering axis freely, based on the detected acceleration.

Abstract: A leaning vehicle including a vehicle body, a steerable front wheel set swivelable around an axis extending in an up-down direction, a rear wheel set, a turn operation input device that receives a turn operation and transmits the turn operation non-mechanically, a leaning device including a lean actuator that leans the vehicle body, the steerable front wheel set and the rear wheel set to a leftward or rightward direction, and a centripetal force generator including a centripetal force generation actuator, which outputs a controllable torque to thereby generate an additional centripetal force that acts on the steerable front wheel set and the rear wheel set during a turn of the leaning vehicle. The controller controls the torque while controlling the lean actuator in accordance with the received turn operation, to thereby control a leaning condition of the vehicle body during the turn and to control generation of the additional centripetal force.

Abstract: An example system includes a vehicle, a robot, and a controller. The vehicle may include an accelerator operator and a steering operator. The robot may include as accelerator actuator configured to operate the accelerator operator, and a steering actuator configured to operate-the steering operator. The controller is configured to: in response to an accelerator command, send a first signal to the accelerator actuator to operate the accelerator operator of the vehicle, and in response to a steering command, send a second, signal to the steering actuator to steer the vehicle.

Abstract: A vehicle includes a main body, a steerable wheel, a steering, a steering actuator, and an electronic controller. The main body includes a saddle. The steerable wheel is coupled to the main body via a suspension. The steering is turnably coupled to the main body to steer the steerable wheel. The steering actuator is configured to apply steering torque to the steerable wheel. The electronic controller is configured to control the steering torque using the steering actuator and configured to generate steering damper torque to the steerable wheel using the steering actuator upon determining a reduced contact of the steerable wheel with a traveling surface with respect to a first prescribed threshold.

Abstract: An example system includes a vehicle, a robot, and a controller. The vehicle may include an accelerator operator and a steering operator. The robot may include as accelerator actuator configured to operate the accelerator operator, and a steering actuator configured to operate-the steering operator. The controller is configured to: in response to an accelerator command, send a first signal to the accelerator actuator to operate the accelerator operator of the vehicle, and in response to a steering command, send a second, signal to the steering actuator to steer the vehicle.

Abstract: A foldable walking-assistant device with which the handle's height can be properly adjusted according to the user's height. The device itself can be used as a chair. Moreover, the device can be folded and unfolded easily by the one-touch manner. A left and right leg body each consist essentially of the horizontal leg whose longitudinal length can be adjustable, the handle pipe which is vertically placed on the horizontal leg and is adjustable as to the height of the device, and the rear pipe which is provided at the handle pipe. The leg body possesses the folding mechanism combined with the associated action of the cross bar. The hand brake is installed at the handle pipe.

Abstract: A wheelchair formed from a pair of handle pipes, seat pipes, front pipes, rear pipes and two pairs of front and rear cross pipes. The main body of the wheelchair can be folded simultaneously in a front-to-rear, a left-to-right, and up-and-down directions by pivoting the seat pipes toward the handle pipes. Steps are formed in a double-door fashion and are installed, movable in the front-rear direction so that the steps can be storable inside the wheelchair main body, when folded. Foldable and detachable arms are also mounted so as to be folded with the main body.