A control device of a gear transmission-equipped vehicle includes a power controller that starts power reduction control when it is determined that a start condition is satisfied, the power reduction control being control of reducing power transmitted from a driving source to a gear transmission. The start condition includes: a condition that a detection value of a gear position sensor that detects a current gear position of the gear transmission falls within a transition region between engagement regions corresponding to respective gear positions; and a condition that a speed difference obtained by subtracting a rotational speed of an output shaft of the gear transmission from a rotational speed of an input shaft of the gear transmission is a threshold or more.

A straddle type vehicle includes a body cover having a side cover including a front member which covers a side of an engine, an upper member which covers a side of an area above the front member and of an area above and behind the front member and forward of a seat, and a rear member which covers an area below a side of the seat. The side cover is fastened to a body frame through a front fastening portion, a rear fastening portion, and an intermediate fastening portion positioned between the front and rear fastening portions. A shroud is arranged at a front portion of the side cover. The shroud includes an inner shroud supported by the body frame, and an outer shroud supported by the side cover. In such straddle type vehicle, the shroud can be fastened to a body frame through less number of fastening points.

A method is described for determining a position of a two-wheeled vehicle. The single-track vehicle has a vehicle path yaw rate when driving along curves and a yaw rate according to the inclined orientation which differs from the vehicle path yaw rate. An inclined orientation of the single-track vehicle and a speed of the single-track vehicle are measured. The vehicle path yaw rate of the single-track vehicle is determined from the measured inclined orientation and the measured speed. A device for carrying out the method is also described.

A vehicle rim is provided having a rim body and at least one capacitor. The rim body has a hub region, a rim bed and a connection region that connects the hub region to the rim bed. The rim body forms at least a part of a housing of the capacitor.

The oven for the transport of food, installable in particular on motorcycles or the like, comprises a container securable to a motorcycle and having an inner chamber for the housing of food, an heating heat exchanger associated with the container and adapted to heat the air in the inner chamber, in which the heating heat exchanger has an inlet duct connectable to a scavenging system of the exhaust gases of the motorcycle and an outlet duct of the exhaust gases, and a dehumidifying heat exchanger associated with the container and adapted to dehumidify the air in the inner chamber, in which the dehumidifying heat exchanger comprises a cooling portion adapted to be hit by an air flow external to the container during the transit of the motorcycle, and a dehumidification portion positioned internally to the container and adapted to condense the water vapor present in the inner chamber.

The present invention provides a wheel hub for a vehicle, including: a) a wheel axle defining an axis of rotation for the wheel; b) a hub body rotatably coupled to the axle for rotation about the axis of rotation, the hub body defining an internal cavity; and, c) a braking assembly, including: i) at least one first annular plate disposed within the internal cavity about the axle, the at least one first annular plate rotatably fixed with respect to the hub body so as to rotate therewith about the axis of rotation; ii) at least one second annular plate disposed within the internal cavity about the axle and adjacent to the at least one first annular plate, the at least one second annular plate rotatably fixed with respect to the axle, and at least one of the first and second annular plates being slidably movable within at least part of the internal cavity; and, iii) an actuator disposed within the internal cavity and configured in use, to cause an axial load to be applied to the slidably movable plate to thereby cause the at least one first and second annular plates to frictionally engage thereby applying a braking load between the hub body and wheel axle so as to brake the wheel of the vehicle.

A fuel tank assembly for a motorcycle. The fuel tank assembly includes a fuel tank defining a fuel containment volume. The fuel tank has an upper wall. A fuel cap is operable to selectively open and close the fuel containment volume. A motorcycle accessory is attachable to the fuel tank via a connection structure including first and second connection portions that are complementary and inter-engageable together to positively define a fully-secured state. The first connection portion is secured to an exterior surface of the upper wall of the fuel tank, and the second connection portion is secured to the motorcycle accessory. The connection structure defines a finite position and rotational orientation of the motorcycle accessory upon relative rotation of the motorcycle accessory with respect to the fuel tank to the fully secured state.

There is provided a shift device for a straddle-type vehicle that is configured to cause a transmission device to perform a shift change in accordance with rotation of a shift shaft. The shift device includes: a shift lever provided with an operation portion that is configured to receive a shift operation; a shift sensor provided on the shift shaft so as to be integrally rotatable with the shift shaft; and a shift rod that couples the shift lever and the shift sensor. The shift sensor is configured to detect the shift operation on the shift lever in accordance with a movement of the shift rod. The operation portion and the shift sensor are positioned at the same side in a manner of sandwiching the shift rod in a vehicle side view.

An assembling method of an electric vehicle comprises the steps of: assembling a vehicle body including a frame, wheels and an electric motor; conducting a vehicle body test including confirmation of a state of driving power transmission from the electric motor to the wheels by connecting an electric power supply unit installed in a vehicle body test place to the electric motor of the vehicle body and supplying electric power from the electric power supply unit to the electric motor; detaching the electric power supply unit from the electric motor and transporting the vehicle body which has passed the vehicle body test from the vehicle body test place to a mounting place, in a state in which a battery is not mounted to the vehicle body; and mounting the battery to the transported vehicle body in the mounting place.

A two-wheeled vehicle includes a frame having a front frame portion, a mid-frame portion, and a rear frame portion. The mid-frame portion is coupled to the rear frame portion and the front frame portion. The vehicle further includes a plurality of ground-engaging members for supporting the frame. The front frame portion is removably coupled to the mid-frame portion with a plurality of frame members extending between the front frame portion and the mid-frame portion.