Abstract: A system and method including receiving a digital representation of a road that includes one or more lane representations; defining a factor graph including variable nodes and constraint nodes that encode lane boundary constraints for the lane map; translating the factor graph into a nonlinear optimization problem for altitudes of the lane map; generating a solution to the optimization problem; and generating a corrected lane map with an optimized altitude for the road based on the generated solution.

Abstract: Provided are systems and methods for detecting a vehicle with sensors that are not calibrated properly and calibrating such sensor in real-time. In one example, a method may include iteratively capturing sensor data of a road while the vehicle is travelling on the road;, monitoring a calibration of the sensors of the vehicle based on the sensor data, determining that the sensors of the vehicle are not calibrated properly based on the monitoring, generating a calibration target of an object on the road based on the sensor data, and adjusting a calibration parameter of the one or more sensors of the vehicle based on the generated calibration target.

Abstract: Provided are systems and methods for detecting a vehicle with sensors that are not calibrated properly and calibrating such sensor in real-time. In one example, a method may include iteratively capturing sensor data of a road while the vehicle is travelling on the road; monitoring a calibration of the sensors of the vehicle based on the sensor data, determining that the sensors of the vehicle are not calibrated properly based on the monitoring, generating a calibration target of an object on the road based on the sensor data, and adjusting a calibration parameter of the one or more sensors of the vehicle based on the generated calibration target.

Abstract: A system and method including receiving a digital representation of a road that includes one or more lane representations; defining a factor graph including variable nodes and constraint nodes that encode lane boundary constraints for the lane map; translating the factor graph into a nonlinear optimization problem for altitudes of the lane map; generating a solution to the optimization problem; and generating a corrected lane map with an optimized altitude for the road based on the generated solution.

Abstract: Provided are systems and methods for detecting a vehicle with sensors that are not calibrated properly and calibrating such sensor in real-time. In one example, a method may include iteratively capturing sensor data of a road while the vehicle is travelling on the road; monitoring a calibration of the sensors of the vehicle based on the sensor data, determining that the sensors of the vehicle are not calibrated properly based on the monitoring, generating a calibration target of an object on the road based on the sensor data, and adjusting a calibration parameter of the one or more sensors of the vehicle based on the generated calibration target.

Abstract: A robotic system includes a robot and a processor configured to autonomously generate a master plan for movement of an end effector of the robot for operating on an operating surface of a workpiece in a physical environment. The master plan is based on a computer aided design (CAD) model of the workpiece and defines movement paths of the end effector based on a reach distance of a robotic arm of the robot at each of a plurality of working waypoints defined in the master plan and corresponding to fiducial markers on the workpiece. The processor registers the robot to the workpiece, iteratively adjusts an approximate workpiece position in a world map until matching an actual workpiece position in the physical environment, and constructs and executes a robotic arm trajectory causing the end effector to operate on the operating surface along the movement paths defined in the master plan.

Abstract: A robotic system includes a robot and a processor configured to autonomously generate a master plan for movement of an end effector of the robot for operating on an operating surface of a workpiece in a physical environment. The master plan is based on a computer aided design (CAD) model of the workpiece and defines movement paths of the end effector based on a reach distance of a robotic arm of the robot at each of a plurality of working waypoints defined in the master plan and corresponding to fiducial markers on the workpiece. The processor registers the robot to the workpiece, iteratively adjusts an approximate workpiece position in a world map until matching an actual workpiece position in the physical environment, and constructs and executes a robotic arm trajectory causing the end effector to operate on the operating surface along the movement paths defined in the master plan.