An electric snowmobile that performs heat exchange with a simple structure is provided. The electric snowmobile includes a body frame, a driver's seat, an electric motor, a ski, a track mechanism, a battery, a cooling unit that cools fluid at least in accordance with outside air, a first heat exchange unit that performs heat exchange between the battery and the fluid, a second heat exchange unit that performs heat exchange between the electric motor and the fluid, a first flow path for delivering the fluid cooled in the cooling unit to the first heat exchange unit, a second flow path for delivering the fluid cooled in the cooling unit to the second heat exchange unit, and a third flow path for delivering the fluid heat-exchanged in the first heat exchange unit and the fluid heat-exchanged in the second heat exchange unit to the cooling unit.

A three-wheeled electric vehicle in accordance with EU vehicle classification L2e-U, which has two electric-motor-driven rear wheels, each of which is driven by one wheel-hub motor. A hydraulically actuatable rear-wheel disc-brake system is mounted on each rear wheel which brake system is also fitted with an integrated electromechanical parking brake, the activation of which shifts each rear wheel into a parking-brake mode in which wheel rotation is prevented. In a rear portion, the vehicle body forms a support structure on which an optionally present, exchangeable transport container can be supported and secured with the aid of a quick-release fastening system. The quick-release fastening system includes one or more connection device(s), wherein each connection device includes a bar that protrudes from a bottom wall of the transport container; and a locking device, which is permanently attached to the support structure, is fitted with a movable blocking element.

Systems and methods for facilitating an operation of an electric off-road vehicle are provided. A method includes determining an estimated battery consumption data for a planned trip along a route including an off-road trail with the electric off-road vehicle using past battery consumption data and communicating the estimated battery consumption data for the planned trip to an operator of the electric off-road vehicle. When the electric off-road vehicle is travelling along the off-road trail, the method includes receiving actual battery consumption data associated with the electric off-road vehicle, and revising the estimated battery consumption data for the planned trip based on the actual battery consumption data. The revised estimated battery consumption data is communicated to the operator of the electric off-road vehicle during the planned trip.

An electric bicycle includes a front wheel drivable by a front wheel electric motor that has a battery as a power supply; a rear wheel drivable by a rear wheel electric motor that has a battery as a power supply; pedal for inputting pedaling force of a driver to at least one of the front wheel or the rear wheel; at least one travel operator that inputs a desired travel state of the driver; a front wheel controller that controls a rotation of the front wheel electric motor in accordance with a situation of the front wheel and an input from the travel operator; and a rear wheel controller that controls a rotation of the rear wheel electric motor in accordance with a situation of the rear wheel and an input from the travel operator. Two electric motors, the front wheel electric motor and the rear wheel electric motor, are provided, at least one of the front wheel or the rear wheel is driven by the corresponding electric motor and a load of at least one of the front wheel electric motor or the rear wheel electric motor is reduced by the pedaling force of the driver.

A hybrid straddle vehicle includes: an internal combustion engine; an electric motor that generates power to be transmitted to a driving wheel; an inverter that controls electric power to be supplied to the electric motor; a first radiator that cools the internal combustion engine; and a second radiator that cools at least one cooling target selected from the group consisting of the electric motor and the inverter, at least a part of the second radiator overlapping the first radiator when viewed from a vehicle front side, the second radiator being located in front of the first radiator.

There is provided a balance bike including: a front wheel and a rear wheel; a head portion steerably holding the front wheel; a main frame including a front frame extending rearward from the head portion while being inclined downward and a rear frame extending rearward from a rear end of the front frame at an angle closer to a horizontal direction than a direction in which the front frame extends, the main frame connecting the head portion and the rear wheel; and a seat support portion fixed to a bent portion where the front frame and the rear frame are connected to each other, and supporting a seat slidably in an up-down direction.

A three wheeled electric cargo transporter is provided. The electric cargo transporter has a front wheel including an electric motor inside a hub of the front wheel. The electric cargo transporter also has a rear platform including a base and a pair of rear wheels. The electric cargo transporter further has an arm assembly including a pair of parallel arm bars, a lower crossbar, and an upper crossbar. The electric cargo transporter also has a trailing shaft connected to the base of the rear platform at a first end and connected to the lower crossbar of the arm assembly at an opposite second end.

A vehicle, in particular bicycle, with a frame, a handlebar connected to the frame rotatably about a steering axis, two front wheels and a rear wheel. In order to achieve a particularly pleasant driving behavior, the front wheels are rotatably mounted in front wheel hearings rigidly connected to the frame about front wheel axles, the rear wheel being mounted rotatably about a rear wheel axle in at least one rear wheel bearing, wherein at least one rear wheel bearing is rigidly connected to a swing arm which is pivotably connected to the frame about an articulation axis, the handlebar being coupled to the swing arm in this way that a movement of the handlebar about the steering axis causes an opposite movement of the swing arm about the articulation axis.

This invention refers to a vehicle specifically designed to be used as transportation during a golf game. It is an individual transportation vehicle that includes three main support structures: one front structure, one intermediate structure, and one rear structure, where a couple of tires are located, as well as a support mechanism to keep the vehicle standing, a leveling clamping mechanism for a bag for the golf clubs, and many accessories that allow the driver to safeguard and access to several useful elements during the game, such as the scorecard, the golf balls, the support tees, mobile devised and even drinks, all of them safeguarded in a cavity underneath the seat. The vehicle is designed to meet with the regulations that rule vehicles authorized to move within the terrain of a golf course.

A modular scooter with suspension and collapsible components is provided. The modular scooter having a plurality of wheels attached to the underside of a large planar deck with a plurality of selectively, collapsible, telescoping handle bar posts configured for multiple riders thereon. The modular scooter also including a collapsible seat post and seat combination, allowing a passenger, such as child to sit during the ride. A wishbone, tilting suspension allowing a driver to lean into turns is also provided. The present invention also having the ability to be linked and interlocked remotely to other similar scooters or trailers and to be converted into other forms of three-wheeled transport such as, but not limited to a wagon, delivery scooter, and the like.