Abstract: A bicycle communication apparatus is provided that contributes to usability. The bicycle communication apparatus includes a base portion and a wireless communicator provided at the base portion. The wireless communicator is configured to transmit first information related to a motor that assists propulsion of a bicycle and second information related to a shifting device of the bicycle through wireless communication.

Abstract: A bicycle communication apparatus is provided that includes a housing, a control device, an input, a wireless communicator and a wired communicator. The control device is provided to the housing. The input is configured to communicate with the control device based on a user input. The wireless communicator is configured to receive information from a device remotely located from the control device, and communicate the information from the device to the control device. The wired communicator is configured to transmit a control signal to a bicycle component via an electrical cable in response to operation of the input. The control device is configured to control the bicycle component via the wired communicator based on the operation of the input and the information from the device.

Abstract: A bicycle battery unit is configured to supply power to a bicycle component. The bicycle battery unit includes a housing, a battery, a first electrical connector, a second electrical connector and a power line communication circuit. The battery is accommodated in the housing. The first electrical connector is provided to the housing so as to be at least partially exposed out of the housing being electrically connectable with the battery. The second electrical connector is provided to the housing so as to be at least partially exposed out of the housing separate from the first electrical connector. The power line communication circuit is electrically connected to the second electrical connector and configured to perform power line communication via the second electrical connector.

Abstract: A bicycle drive unit includes a motor, a second electronic controller and a communication circuit. The motor is configured to assist in propulsion of a bicycle. The second electronic controller controls the motor. The communication circuit is configured to communicate with an operation device that operates a bicycle electric component. The second electronic controller is operable in a third state, in which the motor is drivable, and a fourth state, which consumes less power than the third state and does not drive the motor. The second electronic controller is configured to switch an operation state from the fourth state to the third state upon the communication circuit receiving an input signal while the second electronic controller is operated in the fourth state.

Abstract: An impact absorbing structure for a vehicle according to the present invention includes: a resin frame member extending in a vehicle front-rear direction and having an opening portion in a surface thereof on one side in a vehicle width direction; and a strut member disposed in the opening portion of the frame member. The frame member includes a frame body having the opening portion, and a rib protruding at least either upward or downward from the frame body and extending in the vehicle front-rear direction. The strut member is disposed between a pair of opening edges for defining an upper edge and a lower edge of the opening portion and at a position abuttable against the paired opening edges, when the frame member is deformed by input of a load at a time of oblique collision from upward or oblique collision from downward.

Abstract: A human-powered vehicle control device includes an electronic controller that is configured to control an electric component of the human-powered vehicle in at least one control state selected from multiple control states that at least partially differ from each other. A number of the at least one control state is changeable. A human-powered vehicle control system includes the human-powered vehicle control device. Also, a method is carried out to set a control state of the human-powered vehicle control device.

Abstract: 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.

Abstract: An impact absorbing structure for a vehicle according to the present invention includes: a resin frame member extending in a vehicle front-rear direction and having an opening portion in a surface thereof on one side in a vehicle width direction; and a strut member disposed in the opening portion of the frame member. The frame member includes a frame body having the opening portion, and a rib protruding at least either upward or downward from the frame body and extending in the vehicle front-rear direction. The strut member is disposed between a pair of opening edges for defining an upper edge and a lower edge of the opening portion and at a position abuttable against the paired opening edges, when the frame member is deformed by input of a load at a time of oblique collision from upward or oblique collision from downward.

Abstract: A bicycle display is provided that allows the user to recognize the selected operation mode. The bicycle display includes a display screen configured to display an output state of a motor that assists in propelling of a bicycle. The display screen is configured to display an output state of the motor in a first color in a state where the motor is controlled in a first operating mode, and configured to display an output state of the motor in a second color which is different from the first color in a state where the motor is controlled in a second operating mode which is different from the first operating mode.

Abstract: A shock absorbing structure for a vehicle 1 is provided which includes a bumper beam 67 connecting together a pair of shock absorbing members 61, 61 made of a fiber-reinforced resin. The shock absorbing member 61 includes an upper wall portion 62a, a lower wall portion 62b, a side wall portion 62c having a recess 63, an upper flange portion 62d, and a lower flange portion 62e, and a vehicle-width-direction outer side is open. An outer edge portion 62o extends in a front-rear direction, an inner edge portion 62i extends in an inclined manner, and a width of each of the upper wall portion 62a and the lower wall portion 62b is wider on a rear side than a front side. Step portions 64 make an interval between the upper wall portion 62a and the lower wall portion 62b become narrower on a vehicle-width-direction inner side than the vehicle-width-direction outer side.

Abstract: A bicycle drive unit includes a motor, a second electronic controller and a communication circuit. The motor is configured to assist in propulsion of a bicycle. The second electronic controller controls the motor. The communication circuit is configured to communicate with an operation device that operates a bicycle electric component. The second electronic controller is operable in a third state, in which the motor is drivable, and a fourth state, which consumes less power than the third state and does not drive the motor. The second electronic controller is configured to switch an operation state from the fourth state to the third state upon the communication circuit receiving an input signal while the second electronic controller is operated in the fourth state.

Abstract: An impact absorbing structure for a vehicle according to the present invention includes a frame member formed of a resin material. The frame member includes a closed cross sectional portion extending in a vehicle front-rear direction, and a rib protruding at least either upward or downward from the closed cross sectional portion and extending in the vehicle front-rear direction.

Abstract: A bicycle drive system includes a bicycle drive unit and a bicycle battery unit. A first power supply path supplies power from the battery unit to the drive unit. A second power supply path supplies smaller power from the battery unit to the drive unit than the first power supply path. In a case where the drive unit and the battery unit are connected by the first power supply path and the second power supply path, the bicycle drive system is configured to be switched between a first state, in which the battery unit stops supplying power to the drive unit via the first power supply path and supplies power to the drive unit via the second power supply path, and a second state, in which the battery unit supplies power to the drive unit via at least the first power supply path.

Abstract: An impact absorbing member structure of a vehicle includes: a pair of left and right rear side frames; a pair of left and right crash cans containing a plurality of first carbon fibers arranged so as to continuously extend in a forward/rearward direction; and a bumper reinforcement attached to tip end portions of the pair of rear side frames through the pair of crash cans. Each of the crash cans is formed as an open-section member including: a side wall portion extending in the forward/rearward direction; and a tip end wall portion continuous with the side wall portion and including an attaching portion to which the bumper reinforcement is attached.

Abstract: A bicycle display device is configured to show an image on a display that is appropriate to a bicycle component, which is communicable with the bicycle display device. The bicycle display device is configured to be mounted on a bicycle. The bicycle display device includes a communication unit, a display and an electronic controller. The communication unit is communicably connected to a bicycle component that is mounted on the bicycle and configured to be actuated in multiple actuation modes. The display is configured to show an image related to the actuation modes of the bicycle component, which is one of different types of bicycle components. The electronic controller changes the image shown on the display in accordance with the type of the bicycle component communicably connected to the communication unit.

Abstract: A bicycle display is provided that allows the user to recognize the selected operation mode. The bicycle display includes a display screen configured to display an output state of a motor that assists in propelling of a bicycle. The display screen is configured to display an output state of the motor in a first color in a state where the motor is controlled in a first operating mode, and configured to display an output state of the motor in a second color which is different from the first color in a state where the motor is controlled in a second operating mode which is different from the first operating mode.

Abstract: An airbag 20 of an airbag device 10 includes a center deployable portion 22 that is configured to be deployed obliquely rearward toward a center in a vehicle width direction of a vehicle 1 when expanded and deployed upon receiving supply of gas. The center deployable portion 22 has a head receiving surface 22a which receives the head 3a of an occupant 3 moving obliquely forward to come into contact with the head receiving surface 22a. A patch cloth 30 is coupled, at both ends thereof in the vehicle width direction, to the head receiving surface 22a, while having a portion which is slack with respect to the airbag 20.

Abstract: A bicycle display is provided that allows the user to recognize the selected operation mode. The bicycle display includes a display screen configured to display information corresponding to a first operation mode and a second operation mode of a bicycle component that is selectable between at least the first operation mode and the second operation mode in accordance with operation of an operation unit. The display screen includes a switching region switched between a first display state, which shows the switching region in a first color in a state where the first operation mode is selected, and a second display state, which shows the switching region in a second color in a state where the second operation mode is selected.

Abstract: An impact absorbing structure includes an impact absorbing member made of CFRP, and the impact absorbing member includes a pair of left and right side wall portions and upper and lower coupling wall portions each coupling the side wall portions. Each of the pair of side wall portions includes a plurality of curved portions. Each of the curved portions is formed such that a leftward/rightward direction depth thereof decreases toward a front side. Each of the pair of side wall portions includes: a plurality of first carbon fibers arranged to extend in a forward/rearward direction and constituting most of reinforced fibers contained in the side wall portion; and a plurality of second carbon fibers arranged to extend in a direction intersecting with the first carbon fibers. The plurality of second carbon fibers are arranged at both thickness direction end vicinity parts of each of the side wall portions.

Abstract: A first projection portion projecting outward, in a vehicle width direction, from a front side frame is provided. A front end of the first projection portion is located at the same position, in the vehicle longitudinal direction, as a connection portion of a crash can to the front side frame or located in back of the connection portion. An outward side face of the first projection portion is configured to slant rearward and inward in a plan view. The first projection portion and a power unit are arranged to overlap each other in the vehicle longitudinal direction. Accordingly, an impact transmitted to a vehicle-compartment side in a small overlap collision can be reduced, restraining repair costs of the crash can broken in a low-speed collision as well as maintaining appropriate design flexibility of a vehicle-body front portion.