An electric power assist device (50) includes a first to a third pedal force estimating computation unit (152, 154, 156) that estimate the pedal force of the bicycle according to variances between values of a first to a third state quantity detected by the first to third pedal force estimating computation units at two mutually different crank angle positions, a motor drive control unit (164) configured to control a drive of an electric motor according to a selected one of the pedal forces estimated by the first, the second and the third state quantity detecting units, and a failure diagnosis unit (158) configured to diagnose failures of the first, the second and the third state quantity detecting units by evaluating the variances in the values of first, the second and the third state quantities.

An electric pedelec bottom bracket drive includes a drive unit, a drive controller, and an ambient temperature detector. The drive unit includes a drive unit housing, a drive motor arranged therein, and a housing temperature sensor which measures a housing temperature. The drive controller supplies electrical drive energy to the drive motor and includes a housing temperature control module which is connected to the housing temperature sensor and which controls an electrical drive energy to not exceed a housing limit temperature. The ambient temperature detector is arranged to detect an air temperature outside of the drive unit housing and is connected to the housing temperature control module. The housing temperature control module limits a maximum electrical drive energy as a function of the air temperature when the housing temperature measured by the housing temperature sensor is above a control intervention limit temperature which is below the housing limit temperature.

Steering is used to augment the CMG-based balance control of a two-wheeled vehicle, e.g., a bicycle, electric bicycle (“ebike”), scooter, electric scooter, moped, or motorcycle. A control architecture enables a two wheeled vehicle with simultaneously or alternating mechatronic attitude control systems to balance autonomously at rest or while dynamically driven with mechatronic command.

A control system of an electric bicycle includes is provided, including: a driving motor, a database and a control module. The driving motor includes a transmission module and at least one first sensor configured to sense at least one dynamic parameter of the transmission module. The database stores a plurality of riding mode information which respectively include a plurality of simulation parameters. The control module includes a setting unit, a computing unit and a control unit. The setting unit is configured to input at least one setting parameter, and the computing unit calculates a simulated moment of inertia and a calculation result data related to the simulated moment of inertia. The computing unit outputs at least one control signal according to the calculation result data, and the control unit receives the at least one control signal and controls a driving state of the driving motor accordingly.

A control device including an electronic controller for controlling a human-powered vehicle. The electronic controller is configured to control an adjusting device that is configured to adjust a seat height of the human-powered vehicle upon determining the human-powered vehicle is being stopped while traveling uphill.

A control device is provided to a human-powered vehicle. The control device includes an electronic controller. The electronic controller is configured to control an air pressure of a tire provided to the human-powered vehicle, based on at least one of a roughness of a road surface on which the human-powered vehicle is traveling or will travel, a slope state related to an advancing direction of the human-powered vehicle, a wet state of a road surface, a traveling state of the human-powered vehicle, and a state of a component mounted on the human-powered vehicle.

A lighting system for a vehicle having a housing, a plurality of elements generating an intensity of light and a controller. The controller selectively changing the intensity of at least one of the plurality of elements based on a sensed condition.

There is described a device for adjusting a tilt of a bicycle seat. An angle of a seat coupling relative to a seat post coupling is determined. An angle of the seat post coupling relative to a reference position, such as a horizon, is determined. For example, the angle of the seat post coupling relative to the reference position may be determined based on a current geographic position of the bicycle. Based on the determined angles, the tilt of the bicycle seat is adjusted by actuating a seat tilt driver, such as a motor.

A bicycle controller includes an electronic control unit controlling output of a motor that assists in propelling of a bicycle based on a manual driving force input to the bicycle. The electronic control unit further configured to control the motor in any one of operation modes including first, second and another operation modes, which control the output of the motor based on the manual driving force. The other operation mode excludes the first and second operation modes. In the first operation mode, the upper limit of output torque of the motor is a first value. In the second operation mode, the upper limit of output torque of the motor is a second value, which is 1.5 times or more than the first value. In the other operation mode, the upper limit of the output torque of the motor is the first value or less, or the second value or greater.

Provided is an inverted pendulum vehicle including a display unit for providing a guide on an operation for putting the vehicle body into the tilted position from the upright position or into the upright position from the tilted position according to a state of the vehicle. In particular, the display unit indicates a direction in which the vehicle body is required to be moved when placing the vehicle body from the tilted position to the upright position and from the upright position to the tilted position.