A wiring structure of a grip heater includes an accelerator grip, a grip pulley, an accelerator position sensor configured to detect an amount of rotation of the grip pulley, and a grip heater, an engaging section that is configured to engage the grip pulley with the accelerator position sensor and transmit the amount of rotation of the grip pulley to the accelerator position sensor is installed at the grip pulley and the accelerator position sensor, a feeder cable is connected to the grip heater, and the feeder cable is wound on an outer circumference of the engaging section.

A wiring structure of a grip heater includes an accelerator grip, a grip pulley, an accelerator position sensor configured to detect an amount of rotation of the grip pulley, and a grip heater, an engaging section that is configured to engage the grip pulley with the accelerator position sensor and transmit the amount of rotation of the grip pulley to the accelerator position sensor is installed at the grip pulley and the accelerator position sensor, a feeder cable is connected to the grip heater, and the feeder cable is wound on an outer circumference of the engaging section.

Provided is a traveling apparatus including a front wheel supporting member configured to rotatably support a front wheel; a rear wheel supporting member configured to rotatably support a rear wheel; a driving unit configured to drive at least one of the front wheel and rear wheel; an adjusting mechanism configured to adjust a wheel base length between the front wheel and the rear wheel by a user changing relative positions of the front wheel supporting member and the rear wheel supporting member; a control unit configured to control the driving unit based on a target speed associated with the wheel base length; and a failure detection unit configured to detect a failure in the traveling apparatus. When the failure detection unit detects the failure, the control unit stops the control based on the target speed associated with the wheel base length and performs control to extend the wheel base length.

Provided is a traveling apparatus including a front wheel supporting member configured to rotatably support a front wheel; a rear wheel supporting member configured to rotatably support a rear wheel; a driving unit configured to drive at least one of the front wheel and rear wheel; an adjusting mechanism configured to adjust a wheel base length between the front wheel and the rear wheel by a user changing relative positions of the front wheel supporting member and the rear wheel supporting member; a control unit configured to control the driving unit based on a target speed associated with the wheel base length; and a failure detection unit configured to detect a failure in the traveling apparatus. When the failure detection unit detects the failure, the control unit stops the control based on the target speed associated with the wheel base length and performs control to extend the wheel base length.

A throttle tube including a radial bearing on a cable side of the throttle tube. On the cable side of the throttle tube, a bearing is used to support the throttle tube on the handle bar to avoid the undesirable friction feeling that would otherwise resulting due to the rubbing of the throttle tube against the supporting handle bar. The bearing on the cable side is located inline with the cable cam housing and the cable itself.

A throttle tube including a radial bearing on a cable side of the throttle tube. On the cable side of the throttle tube, a bearing is used to support the throttle tube on the handle bar to avoid the undesirable friction feeling that would otherwise resulting due to the rubbing of the throttle tube against the supporting handle bar. The bearing on the cable side is located inline with the cable cam housing and the cable itself.

A saddled vehicle configured to be driven by a driver sitting on a saddle seat and steering with a handlebar can include a grasping grip to be grasped by a driver and a throttle grip for an accelerator operation respectively, two brakes for braking a front wheel and a rear wheel of the vehicle, each having a different braking operation target, and a cruise control for performing automatic propulsion control of the vehicle wherein the control by the cruise control is performed by changing a control degree in accordance with operation conditions of the first brake and the second brake.

A saddled vehicle configured to be driven by a driver sitting on a saddle seat and steering with a handlebar can include a grasping grip to be grasped by a driver and a throttle grip for an accelerator operation respectively, two brakes for braking a front wheel and a rear wheel of the vehicle, each having a different braking operation target, and a cruise control for performing automatic propulsion control of the vehicle wherein the control by the cruise control is performed by changing a control degree in accordance with operation conditions of the first brake and the second brake.

Provided is a horse-riding bicycle in which a horse-riding effect is obtained by performing both normal driving and horse-riding driving (swinging driving), a user is allowed to simply switch a driving mode between a normal driving mode and a horse-riding driving mode, and a horse-riding driving structure is improved to have a simple structure so that a reduction in costs is achieved and, further, a switching operation between the normal driving mode and the horse-riding driving mode is smoothly performed.

Provided is a horse-riding bicycle in which a horse-riding effect is obtained by performing both normal driving and horse-riding driving (swinging driving), a user is allowed to simply switch a driving mode between a normal driving mode and a horse-riding driving mode, and a horse-riding driving structure is improved to have a simple structure so that a reduction in costs is achieved and, further, a switching operation between the normal driving mode and the horse-riding driving mode is smoothly performed.