A straddle-type electric vehicle, comprising a pair of left and right main frames, a seat rail extending rearward from a rear portion of each of the main frames, a pivot frame extending downward from a rear portion of each of the main frames, a swing arm supported by the pivot frame and by which a rear wheel is swingably supported, a battery arranged in a space between the main frames, a power unit arranged in the space and generates motive power based on electric power of the battery, and a wind guiding duct for guiding traveling wind to the space, the wind guiding duct provided relative to each of the main frames, the wind guiding duct being positioned more outward in a vehicle width direction than the main frames.

A saddle riding type electric vehicle includes a power unit which has a motor configured to drive a vehicle, a battery serving as a power source of the motor, and a control unit configured to control the motor; a vehicle body frame which supports the power unit, and has a head pipe configured to support a front wheel in a steerable manner, and a down frame extending downward from the head pipe; a first radiator and a second radiator disposed on both sides in a vehicle width direction across the down frame; and a pump which circulates cooling water between the first radiator, the second radiator and the power unit. The pump is disposed below one radiator of the first radiator and the second radiator.

Conveyance vehicles such as snow bikes and snowmobiles having an endless track system driven by a combustion engine are enhanced in performance with a torque assist system. The torque assist system includes an electric motor that is coupled to drive the track in parallel with the original internal combustion engine through either its own track drive, or through the drive system of the engine. The motor can be a spindle drive motor or hub motor. Torque assist is generated through a torque assist throttle input coupled to a motor controller. A battery temperature assist system diverts heated cooling fluid from the engine cooling system to heat the battery through its own heat exchanger. The controller is coupled to a processing device such as a smart phone that executes apps configured to provide parametric data to the controller and to receive parametric data from the controller through a user interface.

An electric vehicle includes a frame, a wheel coupled to the frame, and a battery assembly including a housing supported by the frame. The housing includes a top side and a bottom side opposite the top side. A drive assembly of the electric vehicle is at least partially enclosed within a drive housing unit. The drive assembly includes a motor configured to receive power from the battery assembly and a gear assembly configured to transmit torque from the motor to the wheel. The drive housing unit is positioned below the bottom side of the housing.

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.

The present invention relates to a motorcycle radiator protector device. The protector device is a two-layered device, having a front metal plate and a rear mesh plate. The front metal plate is visually exposed to users and the rear mesh plate is positioned in contact with the radiator. The metal front plate and the rear mesh plate work in conjunction to prevent debris from entering the radiator and causing damage. The front metal plate comprises a laser-cut design, allowing air to pass through the radiator and comprises a customized name for providing personalization. The front metal plate can be secured to the rear mesh plate through push buttons or screws with tabs, and the rear mesh plate is secured directly to the radiator through a plurality of bumper buttons.

The present invention relates to a motorcycle radiator protector device. The protector device is a two-layered device, having a front metal plate and a rear mesh plate. The front metal plate is visually exposed to users and the rear mesh plate is positioned in contact with the radiator. The metal front plate and the rear mesh plate work in conjunction to prevent debris from entering the radiator and causing damage. The front metal plate comprises a laser-cut design, allowing air to pass through the radiator and comprises a customized name for providing personalization. The front metal plate can be secured to the rear mesh plate through push buttons or screws with tabs, and the rear mesh plate is secured directly to the radiator through a plurality of bumper buttons.

A straddled vehicle having an engine unit. The engine unit includes an engine body having a cylinder axis tilting forward, a radiator including a radiator core, a turbocharger including a turbine wheel and a compressor wheel, and an intercooler including an intercooler core. In a side view, at least a part of the intercooler core, a part of the turbine wheel and a part of the radiator core are within an area enclosed by a first connecting line, a second connecting line, an engine-body front-surface and a wheel rear-surface. In an upward-downward or forward-backward direction of the cylinder axis, the intercooler-core upper end is more upward than the turbine-wheel upper end, the intercooler-core front end is more frontward than the turbine-wheel front end, the intercooler-core lower end is more upward than the radiator-core upper end, and the radiator-core rear end is more frontward than both the turbine-wheel rear end and the intercooler-core rear end.

A straddled vehicle having an engine unit. The engine unit includes an engine body having a cylinder axis tilting forward, a radiator including a radiator core, a turbocharger including a turbine wheel and a compressor wheel, and an intercooler including an intercooler core. In a side view, at least a part of the intercooler core, a part of the turbine wheel and a part of the radiator core are within an area enclosed by a first connecting line, a second connecting line, an engine-body front-surface and a wheel rear-surface. In an upward-downward or forward-backward direction of the cylinder axis, the intercooler-core upper end is more upward than the turbine-wheel upper end, the intercooler-core front end is more frontward than the turbine-wheel front end, the intercooler-core lower end is more upward than the radiator-core upper end, and the radiator-core rear end is more frontward than both the turbine-wheel rear end and the intercooler-core rear end.

An electric motorcycle in which a driving force is transmitted to a wheel by connection with less waste. The electric motorcycle is one in which a battery is disposed in a position behind a handle and in front of a seat. A driving motor is located below the seat, and a lower part of a swing arm is supported by an attachment section provided in a pivot plate, a drive shaft that transmits a driving force output from the driving motor to a wheel being supported by the swing arm.