Abstract: In variants, the method can include: sampling a set of sensor measurements; determining a world representation from the set of sensor measurements; determining a set of buffer volumes; determining position set volumes based on a set of control instructions; evaluating collisions between the position set volume and the set of buffer volumes; and determining a set of final control instructions based on the collision evaluation.

Abstract: In variants, the method can include: sampling a set of sensor measurements; determining a world representation from the set of sensor measurements; determining a set of buffer volumes; determining position set volumes based on a set of control instructions; evaluating collisions between the position set volume and the set of buffer volumes; and determining a set of final control instructions based on the collision evaluation.

Abstract: Methods, apparatus, systems, and computer-readable media for assigning a real-time clock domain timestamp to sensor frames from a sensor component that operates in a non-real-time time-domain. In some implementations, a real-time component receives capture instances that each indicate capturing of a corresponding sensor data frame by the sensor component. In response to a capture output instance, the real-time component or an additional real-time component assigns a real-time timestamp to the capture output instance, where the real-time timestamp is based on the real-time clock domain. Separately, a non-real-time component receives the corresponding sensor data frames captured by the sensor component, along with corresponding metadata. For each sensor data frame, it is determined whether there is a real-time timestamp that corresponds to the data frame and, if so, the real-time timestamp is assigned to the sensor data frame.

Abstract: An example method includes determining a plurality of frequency ranges corresponding to a plurality of types of errors, where the plurality of frequency ranges are associated with sounds occurring during operation of a robotic device. The method also includes detecting, based on sensor data from at least one audio sensor of the robotic device, a sound during a given operation of the robotic device. The method also includes determining that a frequency of the detected sound is within a particular frequency range of the plurality of frequency ranges. Based on the frequency being within the particular frequency range, the method also includes determining a type of error of the plurality of types of errors corresponding to the particular frequency range. The method also includes providing an output signal indicating an error of the determined type.

Abstract: An example method includes determining an expected sound profile corresponding to a given task for a robotic device. The method further includes detecting a sound profile during execution of the given task by the robotic device. The method also includes determining one or more differences in amplitude for at least one frequency range between the detected sound profile and the expected sound profile corresponding to the given task for the robotic device. In response to determining the one or more differences in amplitude for the at least one frequency range between the detected sound profile and the expected sound profile, the method additionally includes identifying at least one component of the robotic device associated with the detected sound profile during execution of the given task. The method further includes adjusting control data for the at least one component of the robotic device.

Abstract: Methods, apparatus, systems, and computer-readable media for assigning a real-time clock domain timestamp to sensor frames from a sensor component that operates in a non-real-time time-domain. In some implementations, a real-time component receives capture instances that each indicate capturing of a corresponding sensor data frame by the sensor component. In response to a capture output instance, the real-time component or an additional real-time component assigns a real-time timestamp to the capture output instance, where the real-time timestamp is based on the real-time clock domain. Separately, a non-real-time component receives the corresponding sensor data frames captured by the sensor component, along with corresponding metadata. For each sensor data frame, it is determined whether there is a real-time timestamp that corresponds to the data frame and, if so, the real-time timestamp is assigned to the sensor data frame.

Abstract: An example method includes receiving, from a sensor, an image of an environment, where the environment includes a robotic device. The method also includes determining, based on the received image of the environment, a pose of the robotic device relative to the sensor. The method further includes determining, based on the pose of the robotic device relative to the sensor, respective positions of a plurality of trajectory points for the robotic device relative to the sensor. The method additionally includes providing for display of the image of the environment and an overlaid plurality of virtual trajectory points corresponding to the plurality of trajectory points, where the plurality of virtual trajectory points are positioned in the image based on the determined respective positions of the plurality of trajectory points for the robotic device relative to the sensor.

Abstract: An example method includes determining an expected sound profile corresponding to a given task for a robotic device. The method further includes detecting a sound profile during execution of the given task by the robotic device. The method also includes determining one or more differences in amplitude for at least one frequency range between the detected sound profile and the expected sound profile corresponding to the given task for the robotic device. In response to determining the one or more differences in amplitude for the at least one frequency range between the detected sound profile and the expected sound profile, the method additionally includes identifying at least one component of the robotic device associated with the detected sound profile during execution of the given task. The method further includes adjusting control data for the at least one component of the robotic device.

Abstract: An example method includes determining an expected sound profile corresponding to a given task for a robotic device. The method further includes detecting a sound profile during execution of the given task by the robotic device. The method also includes determining one or more differences in amplitude for at least one frequency range between the detected sound profile and the expected sound profile corresponding to the given task for the robotic device. In response to determining the one or more differences in amplitude for the at least one frequency range between the detected sound profile and the expected sound profile, the method additionally includes identifying at least one component of the robotic device associated with the detected sound profile during execution of the given task. The method further includes adjusting control data for the at least one component of the robotic device.

Abstract: The invention relates to an EphA2 inhibitor for the use thereof in the treatment of solid cancer treated with a TrkA inhibitor, and a TrkA inhibitor for the use thereof in the treatment of solid cancer treated with an EpbA2 inhibitor. The invention also relates to a method for the prognosis of survival of a patient who has a solid cancer, comprising a step of detecting the expression of TrkA and EphA2 in a biological sample of the patient, the co-expression of TrkA and EphA2 being associated with a poor prognosis of survival of the patient.

Abstract: A method of adjusting operating parameters of a robot to move an effector tool along a given path in an optimum cycle time including a step of modifying operating parameter values to cause the cycle time to approach a optimal value wherein the parameters are modified so as to approach an extremum of a compromise function including at least first and second terms, the first term being a function of a cycle time and the second term being a function of at least one of temperature and degree of wear of an actuator.

Abstract: This method of adjusting the operating parameters of a robot to move an effector tool along a given path in an optimum cycle time comprises a step (140) of modifying the operating parameter values to cause the cycle time to approach its optimum value. During this step, the values of the operating parameters are modified so as to approach an extremum of a compromise function, the compromise function comprising at least first and second terms, the first term being a function of the cycle time and the second term being a function of the temperature and/or the degree of wear.