Abstract: The aspects of the present disclosure provide an autonomous vehicle interface for a vehicle and a method of enabling and employing an autonomous vehicle interface for a vehicle. The autonomous vehicle interface may be configured to seamlessly transition driving modes or the vehicle's mode of operation from user controlled to an autonomous controlled driving without the user physically activating the autonomous controlled driving. The autonomous vehicle interface may also be configured to consider active components and environmental conditions employed by the user in activating the autonomous control. The autonomous vehicle interface may further be configured to consider the user's operational state and/or the user's attentiveness to activate the autonomous vehicle mode.

Abstract: Various displays may benefit from suitable lenses. For example, certain vehicle displays may benefit from a curved, segmented, active-dimmable lens. According to certain embodiments, a system may include a segmented indium-tin-oxide layer. The system may also include a rigid lens disposed over the segmented indium-tin-oxide layer. The rigid lens may be curved.

Abstract: A display device is provided, such as for motor vehicles. The device comprises a display element that is backlit via a light source. A lightguide conducts light from the source. A pre-assembled back-lighting module serves to illuminate the display element, and facilitates manufacture and assembly of the device.

Abstract: A lens assembly, and a method for providing a lens assembly is disclosed herein. The lens assembly includes a first frame piece with a first edge on the direction in which a viewer of the electronic display would face, the first edge forming a first angle with a second edge; a second frame piece with a third edge on the direction in which a viewer of the electronic display would face, the third edge forming a second angle with a fourth edge; a lens with a first lens edge facing the viewer, a second lens edge and third lens edge connected to the first lens edge and forming a lens angle; a first adhesive layer placed between the second edge and the second lens edge to attach the first frame piece to the lens; and a second adhesive layer placed between the fourth edge and the third lens edge to attach the second frame piece to the lens.

Abstract: The Disclosure concerns a laser projection arrangement and a process for the generation of virtual images, the purpose of which is to present a solution which allows a representation of multiple virtual images in different distances or planes and different points of view and that can be manufactured economically. On the arrangement side, this purpose is solved when one of at least two picture generating units that generate virtual images that differ in their wavelength and/or their polarization is arranged and when a holographic optical element is arranged on or in the projection surface.

Abstract: A method for the contactless shifting of visual information includes detecting at least one viewing direction to detect visual information in a first display area, and a movement of a hand and/or a movement of a head of a user toward a second display area. After the detection of the visual information in the first display area, and after the detected motion indicating a shift, the visual information is shown in the second display area upon the completion of the pivoting movement or movements.

Abstract: A device to attach to a housing of an airbag is disclosed herein. The device includes a flap connected to an opening of the housing, wherein the flap comprises a rigid structure; and a hinge to connect the flap with the housing. The rigid structure comprises a zone of weakness that ruptures in response to an impact.

Abstract: A touch screen device includes a display screen having a touch surface, an input knob, and a microcontroller programmed to execute a method. The knob has a stationary member with conductive base pads facing the surface and a moveable member. The knob lacks a direct electrical connection to the surface. The microcontroller receives encoder signals as the moveable member moves with respect to the stationary member, with the signals being indicative of discrete touch events between the moveable member and the screen, e.g., via an intervening switch. The microcontroller processes the encoder signals to determine a direction of movement of the knob, and derives a true position of a center point of the knob using a position of each of the base pads. The microcontroller then controls an operation of the touch screen device.

Abstract: Disclosed herein are devices, methods and systems for implementing a dual image head-up display incorporating a single picture generating unit (PGU). The aspects disclosed herein obviate a blind wall construction and achieve the results created by systems employing two distinct PGUs. The aspects disclosed herein are also directed to an optimized backlighting system and construction for employment with the disclosed HUD systems.

Abstract: Disclosed herein are systems, methods, and devices for detecting a polarization of eyewear worn by a viewer gazing at an electronic display. The detection disclosed herein may be employed to control and adjust the electronic display to compensate for the effects of polarization. The systems disclosed herein incorporate an embodiment with two IR sources, and an embodiment employing a single IR source coupled with electro-optical devices.

Abstract: A method, system, and devices for implementing a selectively lighted instrument cluster are disclosed herein. The aspects employ a light house layer (or collection of light house layers) using a combination of light and dark materials to provide individually lit indicia on a cover layer (i.e. applique layer) of an instrument cluster. The combination of light and dark layers selectively applied prevents light leakage into other non-intended portions on the viewable surface of the instrument cluster.

Abstract: A TFT display screen device includes at least one active zone whose pixels are used for the display of an instrument cluster and the display of one or more warning or alarm), optionally icons inlaid in the instrument cluster. The screen also includes at least one dead zone not visible to the user. At least one dead zone is provided-with at least one light sensor and at least one control pixel which is activated when the single icon or at least one icon with which it is associated, is displayed in the active zone of the screen. The sensor is adapted to detect the activation of said at least one control pixel and to deliver a signal.

Abstract: A system and method for highly automated driving of a vehicle to detect and classify pedestrians and traffic signs and other vehicles are provided. The system includes an on-vehicle camera for receiving image data. A location determining module is also on the vehicle to determine a location of the vehicle and a vehicle memory unit on the vehicle storing at least one particularized convolutional neural networks to process the image data. A vehicle processor is communicatively coupled to the vehicle memory unit and the camera and the location determining module and is configured to collect vehicle location data with the location determining module. The vehicle processor is also configured to process the image data using the at least one particularized convolutional neural network based the vehicle location data and environmental conditions around the vehicle to detect and classify pedestrians and traffic signs and other vehicles.

Abstract: A head-up display device for displaying a virtual image superimposed over a field of view to a viewer is provided. The head-up display device includes a picture generating unit having an illumination source, such as a laser, to generate a real image following a first light beam. A windshield of a vehicle engages the first light beam, either at an inclined angle or perpendicular, to reflect the first light beam away from the viewer as reflected images. A combiner disposed on the windshield including a holographic optical element steers the first light beam toward the viewer as a third light beam to present the virtual image within the field of view of the viewer. Mirrors may direct and magnify first light beam onto the combiner. A method for displaying a virtual image superimposed over a field of view to a viewer using a head-up display device is also provided.

Abstract: A user interface and method for inputting and outputting information in a vehicle provides a user interface with a three-dimensional operating element. A laser projection unit generates at least one virtual three-dimensional operating element. A means for gesture recognition as a means for detection of an input are arranged in the interior of a vehicle. At least one virtual three-dimensional operating element is projected in the visual range of a driver by means of a laser projection arrangement. A gesture of the driver is detected by a gesture recognition means. A position of a hand of the driver is detected by means of the gesture recognition that coincides with an area of the virtual operating element. A signal for controlling a vehicle system or a function of a vehicle system is generated by the central control and evaluation unit and is output to the corresponding vehicle system.

Abstract: A user interface and a method for the inputting and outputting of information in the vehicle includes an image generation unit which generates a projected image. A means for gesture recognition is arranged as a means for detecting an input, and that a means for view detection and following is arranged such that the recognition of the viewing direction and an association of the viewing direction of the driver with an area in the vehicle is carried out. Information about this area is generated in the viewing direction in the form of a projected image and is displayed floating over the area. Recognition of gestures of the driver is carried out. Upon a coincidence of a position of a hand of the driver, detected by the gesture recognition, with the projected image or a component of the projected image, a signal is generated by the central control unit and outputted.

Abstract: A vehicle may include a display for producing a hologram. The display may include a backlight unit for showing visual content. The display may include an instrument cluster. The instrument cluster may include one or more gauges, such as one or more graphical gauges, analog gauges, or hybrid gauges. The visual content may be in addition to and separate from the hologram. The display may include an illumination frame positioned in front of the backlight unit. The illumination frame may include one or more light elements. The display may include a holographic layer positioned in front of the backlight unit. The holographic layer may include a plurality of holographic layers. The one or more light elements may be configured to emit light through the holographic layer to produce the hologram.

Abstract: A display device for displaying images conveying depth information comprises a first display unit for representing first image information on a first screen. The first display unit comprises the first screen with a holographic optical element, HOE, provided thereon, and a first light source for providing light for illuminating the first screen. The display device further comprises a second display unit for representing second image information. The second display unit comprises a second light source for providing light with a plurality of predetermined discrete wavelengths for creating the second image information, and a second screen which is provided in parallel or oriented at an acute angle relative to the first screen in order to project the second image information onto the first screen and thereby generate a virtual image corresponding to the second image information behind the first screen.

Abstract: Systems and methods for integrating audio content presented via an audio playback device with additional digital content are provided herein. The system includes a content retriever configured to retrieve the audio content from a terrestrial radio station, and retrieve the additional digital content from an Internet streaming channel, the terrestrial radio station and the Internet streaming channel being associated with an audio program; and being configured to output the additional digital content. Further included herein is a method for delaying a delivery of additional audio content.

Abstract: A deployment system for a device of a vehicle is described. The deployment system includes a non-transitory computer readable medium to store instructions of the deployment system and a processor configured to execute the instructions. The processor is configured to deploy the device using a parameter, determine a Mean Square Error (MSE), and run a Statistical Process Control (SPC) test on the MSE. The processor is further configured to determine that no special event is present and process a new parameter using the parameter and the SPC test results. An evolutionary operation (EVOP) algorithm is also used to calculate the new parameter.