Abstract: A system and a method for automatic assessment of comparative negligence of vehicle(s) involved in an accident. The system receives one or more of a video input, an accelerometer data, a gyroscope data, a magnetometer data, a GPS data, a Lidar data, a Radar data, a radio navigation data and a vehicle state data for vehicle(s). The system automatically detects an occurrence of an accident and its timestamp. The system then detects an accident type of the accident, and a trajectory of the vehicle(s) based on the received data for the detected timestamp. A scenario of the accident is generated and compared with a parametrized accident guideline to generate a comparative negligence assessment for the vehicle(s) involved in the accident.

Abstract: A system and a method for automatic assessment of comparative negligence of vehicle(s) involved in an accident. The system receives one or more of a video input, an accelerometer data, a gyroscope data, a magnetometer data, a GPS data, a Lidar data, a Radar data, a radio navigation data and a vehicle state data for vehicle(s). The system automatically detects an occurrence of an accident and its timestamp. The system then detects an accident type of the accident, and a trajectory of the vehicle(s) based on the received data for the detected timestamp. A scenario of the accident is generated and compared with a parametrized accident guideline to generate a comparative negligence assessment for the vehicle(s) involved in the accident.

Abstract: A guidance system (10) is provided for interactive image capture for use with a device (12) having a camera (14) with a camera lens(s) 16. The system (10) includes a housing (20) configured to be mounted on the device (12), and a light source (22) mounted in the housing (20). The housing (20) and the light source (22) are configured to project a lighted boundary (24) onto a surface (26) in response to a control signal, with the boundary (24) defining a region of image capture (27) by the camera (14). The light source (22) is configured to selectively project the boundary (24) in a first color and to selectively project the boundary (24) in a second color, with the first and second colors providing feedback information to a user regarding the statue of image capture by the camera.

Abstract: A system receives a two-dimensional digital image of an aerial industrial plant area. Based on requirements of image processing, the image is zoomed in to different sub-images, that are referred to as first images. The system identifies circular tanks, vegetation areas, process areas, and buildings in the first image. The system formulates a second digital image by concatenating the first images. The system creates one or more polygons of the regions segmented in the second digital image. Each polygon encompasses a tank area, a vegetation area, a process area, or a building area in the second digital image, which is a concatenated image of the individual regions. The system displays the second digital image on a computer display device.

Abstract: A system receives a two-dimensional digital image of an aerial industrial plant area. Based on requirements of image processing, the image is zoomed in to different sub-images, that are referred to as first images. The system identifies circular tanks, vegetation areas, process areas, and buildings in the first image. The system formulates a second digital image by concatenating the first images. The system creates one or more polygons of the regions segmented in the second digital image. Each polygon encompasses a tank area, a vegetation area, a process area, or a building area in the second digital image, which is a concatenated image of the individual regions. The system displays the second digital image on a computer display device.

Abstract: A guidance system (10) is provided for interactive image capture for use with a device (12) having a camera (14) with a camera lens(s) 16. The system (10) includes a housing (20) configured to be mounted on the device (12), and a light source (22) mounted in the housing (20). The housing (20) and the light source (22) are configured to project a lighted boundary (24) onto a surface (26) in response to a control signal, with the boundary (24) defining a region of image capture (27) by the camera (14). The light source (22) is configured to selectively project the boundary (24) in a first color and to selectively project the boundary (24) in a second color, with the first and second colors providing feedback information to a user regarding the statue of image capture by the camera.