Veoneer Sweden Patente

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A camera module (1) for a motor vehicle comprises a camera housing (2), a lens objective (4) comprises an opening (6) allowing light to enter the camera module (1), and one or more electronic components including an image sensor (7) adapted to sense light which is transmitted through the lens objective (4) towards the image sensor (7). An electromagnetic waveguide filter (8) is arranged around and/or within at least a portion of the lens objective (4). The electromagnetic waveguide filter (8) is adapted to electromagnetically shield the one or more electronic components from undesired electromagnetic radiation entering the camera housing (2) and/or to shield the camera surrounding (11) from undesired electromagnetic radiation leaving the camera housing (2).

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A lidar imaging apparatus (30) for a motor vehicle comprises an emitting section (23) adapted to emit a pulsed light beam (3) and to change the direction of the light beam (3) in two dimensions perpendicularly to the light beam (3), a receiving section (24) having a lens objective (11), a digital micromirror device (6) comprising a matrix of mirrors (7), a lidar detector (8) and a further photo detector (9), and an electronic processing unit (19). Each mirror (7) of the digital micromirror device (6) is controllable by said electronic processing unit (19) to change at least between a first position where light entering the lidar imaging apparatus (30) through said lens objective (11) is directed on said lidar detector (8), and a second position where light entering the lidar imaging apparatus (30) through said lens objective (11) is directed on said further photo detector (9). Said electronic processing unit (19) is adapted to determine the time-of-flight of a laser pulse from said emitting section (23) to said lidar detector (8), and to perform compressive sensing processing on the signal provided by said further photo detector (9) .

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A vision system and method for autonomous driving and/or driver assistance in a motor vehicle are presented, comprising an imaging apparatus (11) adapted to capture images (30) from a region surrounding the motor vehicle, a data processing device (14) comprising an object detector (31) adapted to detect and classify objects in the vehicle surrounding by processing images captured by said imaging apparatus (11), and a decision module (32) adapted to estimate a collision probability of a detected object with the motor vehicle, and to make an intervention decision (37) in case a detected object has a non-tolerable collision probability. A critical object classifier (35) is connected to the decision module (33) in a feedback loop (36). The decision module (33) is adapted to identify, among all detected objects, a sub-group of critical objects having a high potential of causing an intervention, and to feed information regarding identified critical objects to the critical object classifier (35). The critical object classifier (35) is adapted to verify the classification of the object detector (31), and to feed back a result of the verification to the decision module (33).

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At least one detector (2) for visible and/or IR radiation on board of a vehicle (100) is used to determine if an entity (200) is approaching the vehicle (100). If so, sensors (4) for vibration and/or acceleration are activated. Signals from these sensors (4) are used to determine if a contact between the entity (200) and the vehicle (100) has occurred. The contact may be classified based on these signals. The at least one detector (2) may include a camera (21). At least one camera (5, 21) on board of the vehicle may be used to record image data pertaining to a time-interval about the contact. A warning may be triggered if a contact between the entity (200) and the vehicle (100) is likely.

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The invention relates to camera module (1) for a vehicle (2). A printed circuit board (11) of the camera module (1) has a carrier (10) for at least one camera (14, 14₁, 14₂,..., 14_N). The carrier (10) is mounted directly to the printed circuit board (11). The printed circuit board (11) carries as well electronic components (18) and a connector (19).

A vision system for detecting free space in front of a motor vehicle comprises a mono imaging apparatus (11) adapted to capture images (30) from the surrounding of a motor vehicle, and an electronic processing device (14) adapted to perform image processing of images (30) captured by said mono imaging apparatus (11) in order to detect objects in the surrounding of a motor vehicle. The electronic processing device (14) is adapted to calculate a horizontal component of the optical flow (31), and to determine transitions (33, 35) between regions of essentially constant horizontal optical flow and regions of essentially non-constant horizontal optical flow.

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The invention relates to an electronic control unit (15) for a vehicle (16). The electronic control unit (15) is defined by a housing (2) comprising a cover (4), a base (5), a circuit board (3), a connector (14) and a back-up power supply (1), and means (6) for mounting the cover (4) to the base (5). A carrier (7) is provided for supporting the back-up power supply (1). The carrier (7) is arranged inside the housing (2) and mounted directly to the base (5).

The present disclosure relates to a vehicle detection system (1) comprising a control unit (2), an environment detection system (3) that is adapted to detect objects (4, 5, 6; 17, 18) outside a vehicle (7), and a driver attentiveness detection system (8) that is adapted to detect eye gaze direction of a driver (9). The control unit (2) is adapted to acquire data regarding detected objects (4, 5, 6; 17, 18) from the environment detection system (3), and to acquire eye gaze direction data from the driver attentiveness detection system (8). The eye gaze direction data comprising an eye gaze direction vector. The control unit (2) is adapted to estimate to which extent a detected object (4) is occupying a driver's field of view (10) by means of a combination of the acquired data.

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A lidar imaging apparatus (30) for a motor vehicle comprises an emitting section (23) adapted to emit a pulsed light beam (3) and to change the direction of the light beam (3) in two dimensions perpendicularly to the light beam (3), a receiving section (24) having a lens objective (11) and a lidar detector (8), and an electronic processing unit (19). Light entering the lidar imaging apparatus (30) through said lens objective (11) is directed on said lidar detector (8). The electronic processing unit (19) is adapted to determine the time-of-flight of a laser pulse from said emitting section (23) to said lidar detector (8). The receiving section (24) comprises a beam splitter (60) arranged in the light path from said lens objective (11) to said lidar detector (8), and a further photo detector (61). The beam splitter (60) is adapted to split off a part of the light beam from said lens objective (11) and to direct the split-off part of said light beam to said further photo detector (61).

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There is disclosed an electronic control unit (1) having a housing (2) containing a circuit board (5). The housing (2) comprises a base (3) and a cover (4) between which the circuit board (5) is located, and the unit being characterised in that the base (3) and the cover (4) are connected to one another via interference fit interengagement around at least a major part of a peripheral edge (20) of the cover (4).

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