Abstract: An electronic device comprises a wireless transmitter and an operation device. The operation device comprises a base, a brake lever, operation portions and an electronic controller. The base is to be removably attached to a handlebar. The operation portions includes first, second and third operation portions. The first operation portion is arranged on the base. The second and third operation portions are arranged adjacent to the brake lever and are disposed between the brake lever and the handlebar. At least one of the operation portions includes a lever. At least one of the operation portions includes a button. The electronic controller is configured to transmit an operation signal to the wireless transmitter upon operation of any of the operation portions to control at least one bicycle component that is any one of a shifting device, a brake device, an adjustable seatpost, a suspension and a drive unit.

Abstract: A bicycle disc brake caliper comprises a caliper body. The caliper body includes a first body portion, a second body portion, a mounting surface, a first receiving hole, a first cylinder bore, and a second cylinder bore. The mounting surface includes a first surface and a second surface spaced apart from the first surface. The first receiving hole is provided on the first surface. The first receiving hole is configured to be threadedly engaged with a first fastener to mount the bicycle disc brake caliper to a bicycle body. The first receiving hole includes a first threaded hole having a first center axis. The first cylinder bore is provided on the first body portion. The first cylinder bore has a first cylinder center axis non-parallel to the first center axis. The second cylinder bore is provided on the first body portion.

Abstract: A bicycle disc brake caliper comprises a caliper body. The caliper body includes a first body portion, a second body portion, a mounting surface, a first receiving hole, a first cylinder bore, and a second cylinder bore. The mounting surface includes a first surface and a second surface spaced apart from the first surface. The first receiving hole is provided on the first surface. The first receiving hole is configured to be threadedly engaged with a first fastener to mount the bicycle disc brake caliper to a bicycle body. The first receiving hole includes a first threaded hole having a first center axis. The first cylinder bore is provided on the first body portion. The first cylinder bore has a first cylinder center axis non-parallel to the first center axis. The second cylinder bore is provided on the first body portion.

Abstract: A bicycle disc brake caliper comprises a caliper body. The caliper body includes a slot in which a brake pad is arranged. The caliper body includes a first body portion, a second body portion, a mounting surface, a first receiving hole, a cylinder bore, and a second cylinder bore. The second body portion is coupled to the first body portion so as to provide a slot therebetween. The mounting surface is configured to face a pipe portion of a bicycle body in a mounted state where the bicycle disc brake caliper is mounted to the bicycle body. The first receiving hole is provided on the mounting surface. The first receiving hole is configured to be threadedly engaged with a fastener to mount the bicycle disc brake caliper to the bicycle body. The first cylinder bore is provided on the first body portion. The second cylinder bore is provided on the first body portion.

Abstract: An electronic device comprises a wireless transmitter and an operation device. The operation device comprises a base, a brake lever, operation portions and an electronic controller. The base is to be removably attached to a handlebar. The operation portions includes first, second and third operation portions. The first operation portion is arranged on the base. The second and third operation portions are arranged adjacent to the brake lever and are disposed between the brake lever and the handlebar. At least one of the operation portions includes a lever. At least one of the operation portions includes a button. The electronic controller is configured to transmit an operation signal to the wireless transmitter upon operation of any of the operation portions to control at least one bicycle component that is any one of a shifting device, a brake device, an adjustable seatpost, a suspension and a drive unit.

Abstract: A bicycle suspension tube comprises a tubular body, a wheel attachment part, and a caliper attachment part. The wheel attachment part is provided on the tubular body. The wheel attachment part includes an attachment hole having a rotational center axis. The caliper attachment part is provided on the tubular body. The caliper attachment part includes a first through hole having a first longitudinal axis non-parallel to the rotational center axis.

Abstract: An electronic device controls at least one bicycle component in correspondence with operation of an operation device. The electronic device includes a receiver, a memory, a first wireless transmitter, a memory and an electronic controller. The receiver receives operation information corresponding to the operation of the operation device. The memory stores an actuation command of the bicycle component in correspondence with the operation information. The electronic controller receives the operation information and transmits the actuation command corresponding to the received operation information from the first wireless transmitter. The memory is configured to allow the actuation command stored in correspondence with the operation information to be changed.

Abstract: A bicycle suspension control apparatus includes a user operating device and a controller. The controller is operatively coupled to the user operating device to selectively control a pair of bicycle suspensions between a plurality of operating states. The controller selectively changes the operating states of both of the suspensions to different ones of the operating states in response to a single operation of the user operating device. The controller includes a receiving part, a storage part and a control part. The receiving part receives combination information indicating at least one combination of the operating states from among combinations of the operating states of the suspensions. The storage part stores the combination information received by the receiving part. The control part controls the suspensions based on the combination information stored in the storage part when the user operating device is operated.

Abstract: A bicycle disc brake caliper comprises a caliper body. The caliper body includes a slot in which a brake pad is arranged. The caliper body includes a first body portion, a second body portion, a mounting surface, a first receiving hole, a cylinder bore, and a second cylinder bore. The second body portion is coupled to the first body portion so as to provide a slot therebetween. The mounting surface is configured to face a pipe portion of a bicycle body in a mounted state where the bicycle disc brake caliper is mounted to the bicycle body. The first receiving hole is provided on the mounting surface. The first receiving hole is configured to be threadedly engaged with a fastener to mount the bicycle disc brake caliper to the bicycle body. The first cylinder bore is provided on the first body portion. The second cylinder bore is provided on the first body portion.

Abstract: A bicycle disc brake caliper comprises a caliper body. The caliper body includes a slot in which a brake pad is arranged. The caliper body includes a first body portion, a second body portion, a mounting surface, a first receiving hole, a cylinder bore, and a second cylinder bore. The second body portion is coupled to the first body portion so as to provide a slot therebetween. The mounting surface is configured to face a pipe portion of a bicycle body in a mounted state where the bicycle disc brake caliper is mounted to the bicycle body. The first receiving hole is provided on the mounting surface. The first receiving hole is configured to be threadedly engaged with a fastener to mount the bicycle disc brake caliper to the bicycle body. The first cylinder bore is provided on the first body portion. The second cylinder bore is provided on the first body portion.

Abstract: A bicycle suspension tube comprises a tubular body, a wheel attachment part, and a caliper attachment part. The wheel attachment part is provided on the tubular body. The wheel attachment part includes an attachment hole having a rotational center axis. The caliper attachment part is provided on the tubular body. The caliper attachment part includes a first through hole having a first longitudinal axis non-parallel to the rotational center axis.

Abstract: A bicycle disc brake caliper comprises a caliper body. The caliper body includes a slot in which a brake pad is arranged. The caliper body includes a first body portion, a second body portion, a mounting surface, a first receiving hole, a cylinder bore, and a second cylinder bore. The second body portion is coupled to the first body portion so as to provide a slot therebetween. The mounting surface is configured to face a pipe portion of a bicycle body in a mounted state where the bicycle disc brake caliper is mounted to the bicycle body. The first receiving hole is provided on the mounting surface. The first receiving hole is configured to be threadedly engaged with a fastener to mount the bicycle disc brake caliper to the bicycle body. The first cylinder bore is provided on the first body portion. The second cylinder bore is provided on the first body portion.

Abstract: A bicycle control system is basically provided with a first power supply, a plurality of electric drive devices and an operating apparatus. The electric drive devices are electrically coupled to the first power supply to receive electric power supplied from the first power supply. The operating apparatus wirelessly operates the electric drive devices by wireless signals.

Abstract: An electronic device controls at least one bicycle component in correspondence with operation of an operation device. The electronic device includes a receiver, a memory, a first wireless transmitter, a memory and an electronic controller. The receiver receives operation information corresponding to the operation of the operation device. The memory stores an actuation command of the bicycle component in correspondence with the operation information. The electronic controller receives the operation information and transmits the actuation command corresponding to the received operation information from the first wireless transmitter. The memory is configured to allow the actuation command stored in correspondence with the operation information to be changed.

Abstract: A bicycle hydraulic hose cap comprises a hose attachment to be detachably attached to an end of a hydraulic hose, and a reservoir including a fluid chamber having a variable internal volume. The fluid chamber is connected to a fluid passageway of the hydraulic hose in an attachment state where the hose attachment is attached to the end of the hydraulic hose.

Abstract: A bicycle hydraulic hose cap comprises a hose attachment to be detachably attached to an end of a hydraulic hose, and a reservoir including a fluid chamber having a variable internal volume. The fluid chamber is connected to a fluid passageway of the hydraulic hose in an attachment state where the hose attachment is attached to the end of the hydraulic hose.

Abstract: A bicycle transmission apparatus comprises a controller configured to control at least one transmission device in accordance with a transmission route in response to a shift signal. The controller is configured to adjust the transmission route based on bicycle information relating to a running condition of a bicycle.

Abstract: A bicycle control apparatus is basically provided with a first gear changing device, a second gear changing device, a power supply sensor and a gear shift controller. The first gear changing device has a plurality of first shifting positions. The second gear changing device has a plurality of second shifting positions. The power supply sensor detects a power level of a power supply that is configured to supply power to at least one of the first and second gear changing device. The gear shift controller is programmed to cooperatively control the first and second gear changing devices, the gear shift controller being further programmed to individually control the first and second gear changing devices when the power level detected by the power supply sensor is lower than a first power level.

Abstract: A bicycle transmission apparatus comprises a controller configured to control at least one transmission device in accordance with a transmission route in response to a shift signal. The controller is configured to adjust the transmission route based on bicycle information relating to a running condition of a bicycle.

Abstract: A bicycle control apparatus is basically provided with a first gear changing device, a second gear changing device, a power supply sensor and a gear shift controller. The first gear changing device has a plurality of first shifting positions. The second gear changing device has a plurality of second shifting positions. The power supply sensor detects a power level of a power supply that is configured to supply power to at least one of the first and second gear changing device. The gear shift controller is programmed to cooperatively control the first and second gear changing devices, the gear shift controller being further programmed to individually control the first and second gear changing devices when the power level detected by the power supply sensor is lower than a first power level.