The present disclosure relates to apparatus for controlling operation of a vehicle system. The apparatus includes a processor operable in an automatic mode to output a control signal to automate operation of the vehicle system. The processor is configured to receive a measurement signal from a sensor associated with the vehicle system. The processor outputs the control signal in dependence on a comparison of the measurement signal to a control function. A user override of the automated operation of the vehicle system is detected and the processor re-calibrates the control function in dependence on the detected user override. The present disclosure also relates to a vehicle and to a method of controlling operation of a vehicle system.

A vehicle cleaning system is provided including a foreign object detection section configured to detect a foreign object present on a windshield, a foreign object removal device configured to clean the windshield to remove the foreign object, an actuation notification section configured to notify a user of actuation of the foreign object removal device, and a control section that, when the foreign object detection section has detected the foreign object, controls the actuation notification section so as to notify of actuation of the foreign object removal device before controlling the foreign object removal device so as to clean the windshield.

Disclosed embodiments include airflow systems, vehicles, and controllers of airflow units. An illustrative airflow system of a vehicle includes an airflow inlet duct, an airflow intake duct, an air intake door, and an airflow unit. The airflow inlet duct is adapted to draw ambient air. The airflow intake duct is adapted to receive airflow from the airflow inlet duct. The air intake door is positioned therebetween. The airflow unit includes a controller configured to close the air intake door and seal off the air intake duct from the airflow inlet duct in response to receipt of at least one signal indicating at least one condition chosen from 1) a presence of water in the airflow inlet duct, 2) a hood of the vehicle being in an open condition, 3) a presence of rain received from a precipitation sensor, and 4) activation of a predetermined speed setting of a windshield wiper.

In a sensor arrangement for measurement of the temperature of a disk, it is provided that the sensor arrangement comprises a circuit carrier with a temperature sensor arranged thereon, wherein the circuit carrier and the temperature sensor are arranged in a housing and an electrical connection and a heat-conducting element are guided out from the housing, the heat-conducting element is configured as a rigid pin, the rigid pin has a thermal connection and a mechanical connection to the circuit carrier, the rigid pin is provided and configured to make a thermal contact with the disk.

A control device executes a process including a step of determining whether a first state is established, a step of acquiring an operating state of a wiper of a surrounding vehicle when the first state is determined to be established, a step of determining whether rainfall of which rainfall amount is equal to or more than a predetermined amount is predicted, and a step of executing elevating control when the rainfall of which rainfall amount is equal to or more than the predetermined amount is predicted.

A system includes a processor and a memory storing instructions executable by the processor to actuate a component upon determining that a hydrophobic coating of a surface is degraded based on a comparison of a characteristic of a liquid droplet with a threshold value.

An aircraft windshield wiper system includes a wiper arm, a wiper blade coupled to a first end of the wiper arm, and an output shaft coupled to a second end of the wiper arm. The wiper blade is configured to clean water, dirt, and other debris from the windshield of the aircraft. The output shaft is configured to rotate and cause the wiper arm with the coupled wiper blade to sweep across and clean the windshield. A sensor and a trigger are coupled to an actuator to ensure accurate sweep angle and parking position of the wiper arm and wiper blade.

A roof module for forming a vehicle roof on a motor vehicle. The roof module may have a panel component which at least partially forms a roof skin of the vehicle roof, the roof skin serving as an outer sealing surface of the roof module; at least one environment sensor configured to send and/or receive electromagnetic signals through a see-through area for detecting a vehicle environment; and at least one cleaning nozzle configured to clean the see-through area. At least one flow guide element is disposed on the panel component, the flow guide element being configured to focus headwind onto at least part of the see-through area.

A vehicle includes a wiper switch that manually operates a wiping mode of a windshield wiper. The vehicle control system includes a first controller configured to execute an automated driving of the vehicle, and a second controller configured to control the wiping mode of the windshield wiper based on a request from the first controller or operation information of the wiper switch. The first controller transmits an auto-wiper request to the second controller during execution of the automated driving. Here, the auto-wiper request is a request for executing an auto-wiper process for automatically switching the wiping mode of the windshield wiper according to an external environment. The second controller executes the auto-wiper process when the auto-wiper request is received from the first controller in a state where the wiper switch is operated to the wiper-off position.

A process (1) for de-icing a glazed surface (20) of a vehicle (2) is disclosed. A de-icing device (21) includes a wiper system (210) with at least one device for spraying a liquid (L, Lq), and is used to perform a method involving verification (E1) of a primary condition (C1) according to which the ignition (Cc) of the said vehicle (2) is activated, verification (E2) of a secondary condition (C2) according to which the exterior temperature (t) is below a temperature threshold (Th1), verification (E3) of a tertiary condition (C3) according to which a demisting function (fd) is activated; and when all of the conditions are fulfilled, then activation (E4) of the de-icing device (21) in order to start a de-icing cycle (Cy). The de-icing cycle (Cy) comprising spraying by the device for spraying of the liquid (L, Lq) onto the glazed surface (20).