Abstract:
The system is characterised in that, the vehicle comprising a head-up-type display (34), said system comprises a gesture recognition device (26) that can supply data representative of a gesture made by the driver of the vehicle, and a control module (28) for processing the data, the control module (28) being designed so as to be able to control the display of at least one visual feedback (30, 32) on the display, upon reception of said data representative of the gesture made by the driver.
Abstract:
The present invention relates to a method for making the remotely operated control of a movement vehicle (2) secure using a mobile terminal (4), comprising the following steps: triggering the remotely operated control of a movement (M) of the motor (2) by a user (7) using the mobile terminal (4); verifying that the user (7) is within sight of the motor vehicle (2) by means of the mobile terminal (4); if the verification is positive and shows the user (7) is in sight of the motor vehicle (2), said remotely operated control of a movement (M) of the motor vehicle (2) is performed, and if not said control is inhibited.
Abstract:
The invention relates to a device (1) for detecting the position of the face (2) of a person, in particular of a motor vehicle driver, wherein said device includes: a thermal sensor (4) configured for determining the heat generated from a target area (6) likely to be occupied by a person, in the form of a dot (10) matrix (8), each dot (10) in said matrix (8) representing the heat generated by a portion of said target area (6), processing means for analyzing a value acquired through a physical quantity for the dots (10) of said matrix (8) in order to detect at least one piece of adjustment information (12) that is representative of the position of said face (2) within said target area (6). The invention also relates to a corresponding detection method and display, in particular a head-up display, provided with said device.
Abstract:
The invention relates to a display device (1) comprising: —a cover glass (10); —a back-lighting device (20), which is designed to generate a source light beam; —a modulator (12), which is securely fastened to the cover glass and located between said cover glass and the back-lighting device so as to receive the source light beam and to transmit a modulated light beam through the cover glass; and —at least one mechanical actuator (30); according to the invention, said mechanical actuator is placed so as to be able to move the cover glass with respect to the back-lighting device.
Abstract:
A roof antenna module to be mounted on a vehicle roof of a motor vehicle is disclosed. The module includes an antenna unit and a control device. The control device includes a housing. The housing bounds a receptacle for electronic components of the control device. The antenna unit is arranged on a top side of the housing which is intentionally provided to face an internal side of the vehicle roof in the assembled state of the roof antenna module with the vehicle roof. At least on the top side, a flow channel of the roof antenna module for a cooling airflow is formed, which is separate from the receptacle.
Abstract:
A device for observing a passenger compartment of a vehicle is disclosed. The observing device includes a camera configured to acquire images of the passenger compartment, a primary luminous module, and a secondary luminous module. The primary luminous module has a primary illumination field configured to illuminate at least one passenger area. The secondary luminous module has a secondary illumination field narrower than the primary illumination field of the primary luminous module and configured to illuminate a primary driver are of the vehicle.
Abstract:
An automotive mixed-reality gaming system for a vehicle includes vehicle sensors that collect vehicle data associated with movements and a position of the vehicle along a roadway, detection sensors that collect environmental data associated with an external environment of the vehicle, and a processing unit including a processor and a memory. The processing unit receives data from the vehicle sensors and the detection sensors, converts the environmental data to a game-centric coordinate system stored in the memory, and generates an interactive gameplay application including a mixed-reality environment and a virtual avatar based on the game-centric coordinate system. Further, the processing unit transmits the application to mobile devices, receives user input from the mobile devices, and controls the activity of the avatar and settings of the gameplay based on the vehicle data and user input. The avatar traverses the mixed-reality environment at a rate proportional to the vehicle.
Abstract:
An image-generating device is disclosed. The image-generating device includes a light source configured to emit a light beam, a reflector configured to reflect the light beam toward an array of elements with variable transmittance, and a protective cover for the array of elements with variable transmittance attached to the array of elements with variable transmittance. The device includes a main housing configured to be attached to a support of the light source. The light source and the reflector are clamped between the support and the main housing attached to the support. The array of elements with variably transmittance are clamped between the main housing and the protective cover attached to the main housing.
Abstract:
The present invention relates to a method for determining occupancy inside a motor vehicle using a presence sensor. The method includes periodically determining the occupancy and determining a value representative of a quantity of vibration of the vehicle. The method also includes suspending the periodic determination of the occupancy. The suspension is triggered on the basis of the value representative of the quantity of vibration.
Abstract:
An image capture device including a housing enclosing an electronic circuit board including an image sensor attached to the face thereof is disclosed. The housing includes a front portion facing the first face and a rear portion facing a second face opposite the first face. The front portion includes a front electromagnetic shield including an aperture facing the image sensor and an infrared transparent material overmoulded onto the front electromagnetic shield and mechanically obstructing the aperture.