A motor vehicle has a control device which is arranged in a cockpit module and has a cable harness, which includes at least one data and/or power cable, for connecting the control device to an on-board electrical system of the motor vehicle. The control device has at least one connection for making electrical contact with the cable harness. An improved utilization of the available installation space in the cockpit region and a shortening of the requisite length of the cable harness is obtained by the connection of the control device being arranged on a side of the control device which faces an interior of the motor vehicle.

The GPS-based vehicular speed limiting system comprises an on board diagnostic (OBD) interface unit and a GPS unit. The OBD interface unit plugs into the OBD-2 (or equivalent) connector inside the passenger compartment of a vehicle and communicates with one or more vehicle computers. The GPS unit receives signals from GPS satellites to determine the current vehicle location, which it may then display in map form utilizing map data stored in memory within the GPS. If the OBD interface unit determines that the vehicle is traveling faster than the posted speed limit, as determined by information stored in the map data and communicated to the OBD interface unit over the wireless link, the OBD interface unit may command the vehicle computers to limit the speed of the vehicle. Unplugging the OBD interface unit may result in a notification being sent to a smartphone.

Various implementations include an occupant monitoring system (OMS) for monitoring at least one occupant in a vehicle. The OMS includes a mounting bracket coupled to a rotatable portion of a steering wheel assembly, a housing coupled to the mounting bracket, at least one imaging unit disposed within the housing, and at least one lens disposed adjacent the housing and imaging unit and facing an expected position of at least one vehicle occupant and configured for allowing light to pass through to the imaging unit. The mounting bracket extends upwardly from the steering wheel assembly adjacent a central portion thereof. The housing has a back surface that is disposed adjacent a back cover of the steering wheel assembly. The imaging unit has a field of view inside of the vehicle and is configured to capture an image signal corresponding to an imaging area within the field of view.

A vehicle includes an interior cabin and a plurality of modular docking stations fixedly disposed in the interior cabin. Each modular docking station is configured to removably receive one or more modular components. The one or more modular components interchangeably connect to the plurality of modular docking stations to enable relocation of each modular component of the one or more modular components in a desired modular docking station of the plurality of docking stations.

The operating device for a vehicle comprises a capacitively operating touch panel having an upper face with a touch sensitive surface, and an operating unit having a movable operating element which can be grasped manually and has an electrically conductive surface and a plate shaped holding element, provided with an upper face and a lower face facing away from the upper face, on which the operating element is movably arranged and which for its part is arranged on the touch-sensitive surface of the upper face of the touch panel. The operating element comprises at least one wiper, electrically connected to the electrically conductive surface of the operating element, sliding along a sensing path of the upper face of the holding element when the operating element is moved. The holding element comprises alternately successively arranged first sections and second sections along the sensing path. The upper and lower face of the holding element are connected to each other in an electrically conductive manner in each of the first sections and are electrically insulated from each other in each of the second sections.

A user interface system for a vehicle includes: at least one display unit provided in the vehicle; a detachable interface apparatus configured to be detachably attached to any one of the at least one display unit provided in the vehicle; at least one processor; and a computer-readable medium having stored thereon instructions that, when executed by the at least one processor, cause the at least one processor to perform operations that include: in a state in which the detachable interface apparatus is attached to a selected display unit among the at least one display unit of the vehicle, determining a first user menu corresponding to the selected display unit; and displaying, on the selected display unit or on the detachable interface apparatus, the first user menu corresponding to the selected display unit.

The invention relates to a system comprising several touch-sensitive control elements that are arranged next to each other. It is provided that the control elements are able to communicate with each other via a voltage-controlled peer-to-peer line and determine when a particular control element should actively respond to touches or is deactivated.

A panel intended for the cockpit of a vehicle is conductive so that a large number of electrical and electronic devices can be installed inside the cockpit. The panel has a structure consisting of a plurality of layers of substantially equal shape and size, superimposed and firmly coupled to one another. One of the layers consists of a flexible printed circuit board that extends substantially over the entire surface of the panel, or at least over a substantial portion thereof, and that is provided with electrical connectors arranged at positions where the electrical and electronic devices associated with the dashboard are to be subsequently installed. Wired connections of electrical and electronic devices associated with the dashboard are eliminated. This entails a considerable simplification when making electrical connections to these electrical and electronic devices, as well as in the case of subsequent maintenance and/or repair work.

The GPS-based vehicular speed limiting system comprises an on board diagnostic (OBD) interface unit and a GPS unit. The OBD interface unit plugs into the OBD-2 (or equivalent) connector inside the passenger compartment of a vehicle and communicates with one or more vehicle computers. The GPS unit receives signals from GPS satellites to determine the current vehicle location, which it may then display in map form utilizing map data stored in memory within the GPS. If the OBD interface unit determines that the vehicle is traveling faster than the posted speed limit, as determined by information stored in the map data and communicated to the OBD interface unit over the wireless link, the OBD interface unit may command the vehicle computers to limit the speed of the vehicle. Unplugging the OBD interface unit may result in a notification being sent to a smartphone

Method and apparatus are disclosed for a traction and stability control system. An example vehicle includes wheel speed sensors on wheels of the vehicle and a traction control module. The example traction control module determines, based on measurements of the wheel speed sensors or a transmission control module, whether the vehicle is likely stuck. Additionally, when the vehicle is likely stuck and an indication to disable the a traction control system has been received, the example traction control module disables the traction control system.