An amount and type of precipitation, and a speed of a vehicle is determined. A component in the vehicle is actuated based on the amount and type of precipitation, and the speed of the vehicle.

A configurable windshield wiper system for a variable sweep angle and/or variable sweep speed. The system includes a bidirectional motor, a gearbox, the gearbox having and input shaft operably coupled to the motor and an output shaft; the gear box configured to ratiometrically step down the number of turns at its output shaft relative to its input shaft; a wiper arm for sweeping a surface of a windshield, the wiper arm operably coupled to an output of the gearbox; and a controller in operable communication with the motor, the controller configured to execute an algorithm to control the position and speed of the motor to achieve a configured sweep angle and configured sweep speed for the wiper arm.

A motor control apparatus that controls a brushless motor which operates a wiper arm so as to swing, the motor control apparatus including: a position detection part that detects a rotation position of a rotor; and a control part that performs a sine wave drive of the brushless motor at a time of a low output mode in which an output of the brushless motor is low and that, at a time of a high output mode in which an output is higher than an output at the time of the low output mode, allows a power distribution angle to be an angle that is larger than 120 degrees and distributes power to the brushless motor at a timing when a predetermined electric angle is advanced with reference to the rotation position of the rotor.

A windshield wiper system for an aircraft is provided and includes a motor, an output shaft, a wrap spring and crank rocker mechanism (WSCRM) to which the motor and the output shaft are coupled and a controller. By way of the WSCRM, first directional rotation input to the WSCRM from the motor via a two-stage gear reduction is converted such that the output shaft drives wiper blade oscillation through a first sweep angle and second directional rotation input to the WSCRM from the motor is converted such that the output shaft drives wiper blade oscillation through a second sweep angle. The controller is configured to control the motor such that the first directional rotation is continuously or non-continuously input during first or second flight conditions, respectively, and the second directional rotation is continuously input during third flight conditions.

Provided is a vehicle wiper device including (i) a first motor that includes a first output shaft, that rotates the first output shaft to rotate a wiper arm back and forth about a pivot point of the wiper arm, and that causes a wiper blade coupled to a leading end portion of the wiper arm to perform a back and forth wiping operation between an upper return position and a lower return position on a windshield, (ii) a second motor that changes a wiping range on the windshield by the wiper blade, (iii) a rotation angle detector that detects a rotation angle of the first output shaft, and (iv) a controller that controls the second motor according to a rotation angle of the first output shaft detected by the rotation angle detector in a state in which a broad field of view should be secured on a front passenger seat side.

A method to reduce refreezing of meltable snow includes configuring a wiper arm to wipe the meltable snow from an ambient-facing surface of a window positioned on a vehicle. The method also includes configuring a sensor coupled to the wiper arm to gather and transmit a parameter on the vehicle and environment. The method also includes configuring a processor to receive the parameter, determine refreezability of the meltable snow based on the parameter, and define an action to be performed by the wiper arm.

A vehicle includes a vehicle computing system (VCS) and a vehicle accessory system that may be a window wiper mechanism, a power lift gate, a door lock mechanism, a convertible mechanism or a sunroof mechanism. The VCS communicates with an activity tracking band worn on a wrist of a vehicle occupant. The activity tracking device detects motion of the wrist of the occupant, and is capable of exchanging that data with the VCS. The VCS generates at least one output signal based on data from the activity tracking device. For example, a controller may activate a window wiper mechanism based on signals indicative of a detected long wiping motion.

A system includes a dome, a wiper assembly, a position sensor and a control device. The wiper assembly includes a wiper blade configured to rotate around the dome. The position sensor may be configured to send a signal to a control device when a wiper blade passes the position sensor. The control device may include one or more processors configured to receive the signal from the position sensor and determine a location of the wiper blade relative to the dome based on the received signal.

A method, a device, and an apparatus are provided for controlling a windscreen wiper. The apparatus may be a vehicle. The method may include: acquiring environmental information at a vehicle location of the vehicle, the environmental information at the vehicle location of the vehicle including environmental temperature; determining whether the vehicle is in a service state or an out-of-service state; determining whether the environmental temperature is less than or equal to a preset temperature value according to the environmental temperature; and when the vehicle is in the out-of-service state and the environmental temperature is less than or equal to the preset temperature value, controlling the windscreen wiper of the vehicle to be raised in a direction away from a windscreen of the vehicle.

A windshield wiper system for an aircraft is provided and includes a motor, an output shaft, a wrap spring and crank rocker mechanism (WSCRM) to which the motor and the output shaft are coupled and a controller. By way of the WSCRM, first directional rotation input to the WSCRM from the motor via a two-stage gear reduction is converted such that the output shaft drives wiper blade oscillation through a first sweep angle and second directional rotation input to the WSCRM from the motor is converted such that the output shaft drives wiper blade oscillation through a second sweep angle. The controller is configured to control the motor such that the first directional rotation is continuously or non-continuously input during first or second flight conditions, respectively, and the second directional rotation is continuously input during third flight conditions.