An operating device for a human-powered vehicle comprises a base member, an operating member, an electric switch, and a controller. The operating member is movably coupled to the base member. The electric switch is configured to receive a user input in response to a movement of the operating member to operate an additional device. The controller is configured to change a mode of the controller at least between a first mode in which the controller is configured to be under first power consumption and a second mode in which the controller is configured to be under second power consumption different from the first power consumption.

A control device for a first communicator of a human-powered vehicle configured to establish one of a wireless communication and a wired communication with a second communicator comprises a power supply controller. The power supply controller is configured to control a power supplying state of at least one of a first electric power source and a second electric power source to supply electric power to the first communicator based on at least one of a power-source state of at least one of the first electric power source and the second electric power source and a communication state between the first communicator and the second communicator.

A controlling device includes a storage device configured to store predetermined information about durability of a component of a man-powered vehicle, and a controller configured to control an indicator based on the predetermined information.

A controlling device includes a storage device configured to store predetermined information about durability of a component of a man-powered vehicle, and a controller configured to control an indicator based on the predetermined information.

A driver assistance system 1 for a motorcycle is provided with: a driving force output device 82 that generates a backup output for reversing a drive wheel and backing up a vehicle body; a brake lever 810 squeezably operable by a rider; a ACC main switch 43 and an ACC lever 44 operable by the rider; and a back out assistance controller 64 that controls the driving force output device 82 on the basis of the operation of the lever 810, the switch 43, and the lever 44. The back out assistance controller 64, after causing the driving force output device 82 to generate the backup output when triggered by receiving an operation of turning the lever 44 to a “SET/−” side, continues to cause the backup output to be generated until the lever 810 is operated, or until the switch 43 or lever 44 is turned off.

A driver assistance system 1 for a motorcycle is provided with: a driving force output device 82 that generates a backup output for reversing a drive wheel and backing up a vehicle body; a brake lever 810 squeezably operable by a rider; a ACC main switch 43 and an ACC lever 44 operable by the rider; and a back out assistance controller 64 that controls the driving force output device 82 on the basis of the operation of the lever 810, the switch 43, and the lever 44. The back out assistance controller 64, after causing the driving force output device 82 to generate the backup output when triggered by receiving an operation of turning the lever 44 to a “SET/−” side, continues to cause the backup output to be generated until the lever 810 is operated, or until the switch 43 or lever 44 is turned off.

A rotary knob that rotates in a pushed state includes an extending portion extending in a rotation direction of the rotary knob, and the extending portion includes a cutout portion cut out so as to prevent a first switch that detects that the rotary knob is pushed in from being pressed in a case where the rotary knob is in an intermediate range in which the rotary knob is in a pushed state.

A rotary knob that rotates in a pushed state includes an extending portion extending in a rotation direction of the rotary knob, and the extending portion includes a cutout portion cut out so as to prevent a first switch that detects that the rotary knob is pushed in from being pressed in a case where the rotary knob is in an intermediate range in which the rotary knob is in a pushed state.

A wireless control system for a bicycle may include a base part attachable to a bicycle and a movable part. The control system may also include an electric motor disposed on the electromechanical component and a control unit disposed on the electromechanical component for operating the electric motor to operate the electromechanical component, the control unit including a wireless receiver. The control system includes a wake sensor connected to the control unit, the wake sensor configured to communicate a wake signal to the control unit.

A wireless control system for a bicycle may include a base part attachable to a bicycle and a movable part. The control system may also include an electric motor disposed on the electromechanical component and a control unit disposed on the electromechanical component for operating the electric motor to operate the electromechanical component, the control unit including a wireless receiver. The control system includes a wake sensor connected to the control unit, the wake sensor configured to communicate a wake signal to the control unit.