Abstract: A method and system are disclosed for radiosurgical treatment of moving tissues of the heart, including acquiring at least one volume of the tissue and acquiring at least one ultrasound data set, image or volume of the tissue using an ultrasound transducer disposed at a position. A similarity measure is computed between the ultrasound image or volume and the acquired volume or a simulated ultrasound data set, image or volume. A robot is configured in response to the similarity measure and the position of the transducer, and a radiation beam is fired from the configured robot.

Abstract: A method and system are disclosed for radiosurgical treatment of moving tissues of the heart, including acquiring at least one volume of the tissue and acquiring at least one ultrasound data set, image or volume of the tissue using an ultrasound transducer disposed at a position. A similarity measure is computed between the ultrasound image or volume and the acquired volume or a simulated ultrasound data set, image or volume. A robot is configured in response to the similarity measure and the position of the transducer, and a radiation beam is fired from the configured robot.

Abstract: A method and system are disclosed for radiosurgical treatment of moving tissues of the heart, including acquiring at least one volume of the tissue and acquiring at least one ultrasound data set, image or volume of the tissue using an ultrasound transducer disposed at a position. A similarity measure is computed between the ultrasound image or volume and the acquired volume or a simulated ultrasound data set, image or volume. A robot is configured in response to the similarity measure and the position of the transducer, and a radiation beam is fired from the configured robot.

Abstract: A method for measuring skin thickness. The method includes at a first 3D point on an outer surface of a patient, exposing the first point to near infrared (NIR) energy from an NIR source. The method includes measuring reflected energy emanating near the first 3D point, or beam incident point. The method includes determining a pattern of the reflected energy based on a distance from a center of the reflected energy, wherein the center is approximated by the first 3D point. The method includes determining a skin thickness measurement based on the pattern.

Abstract: The present invention relates to a fire locator device (7) and a corresponding fire fighting system (1) comprising at least one housing (2) configured to be mounted at a certain height within or in proximity of an area of operation, in particular at a wall or a ceiling of a room (101) of a building (100), at least one sensor component (5a, 5b, 5c), wherein each sensor component (5a, 5b, 5c) of the at least one sensor component (5a, 5b, 5c) comprises a plurality of sensor elements (50) in a matrix arrangement sensitive at least to radiation, preferably to ultraviolet radiation or thermal radiation, in particular infrared radiation, a self-test component (52) for validating the operability of the at least one sensor component (5a, 5b, 5c), and a controller (9) configured to validate the operability of the at least one sensor component (5a, 5b, 5c) using the self-test component (52) and to receive sensor signals from the at least one sensor component (5a, 5b, 5c) for determining a location of a fire (F) within t

Abstract: The present invention relates to a method of operating a fire fighting system (1), the fire fighting system (1) comprising a fire locator device (7), and a plurality of stationary fire fighting devices (3a, 3b, 3c, 3d, 3e), each associated with and configured to distribute fire fighting agent within a respective zone (11a, 11b, 210a-e, 310a-h) of an area of operation, wherein the fire locator device (7) comprises at least one housing (2) configured to be mounted at or in proximity of a wall within or in proximity of the area of operation, a plurality of sensor components (5a, 5b, 5c), wherein each sensor component (5a, 5b, 5c) of the plurality of sensor components (5a, 5b, 5c) comprises a plurality of sensor elements (50) sensitive to radiation in a matrix arrangement, and a controller (9) configured to receive sensor signals from the plurality of sensor components (5a, 5b, 5c) for determining a location of a fire (F) within the area of operation, the method comprising associating each sensor element (50) of

Abstract: A method for measuring skin thickness. The method includes at a first 3D point on an outer surface of a patient, exposing the first point to near infrared (NIR) energy from an NIR source. The method includes measuring reflected energy emanating near the first 3D point, or beam incident point. The method includes determining a pattern of the reflected energy based on a distance from a center of the reflected energy, wherein the center is approximated by the first 3D point. The method includes determining a skin thickness measurement based on the pattern.

Abstract: A method for measuring skin thickness. The method includes at a first 3D point on an outer surface of a patient, exposing the first point to near infrared (NIR) energy from an NIR source. The method includes measuring reflected energy emanating near the first 3D point, or beam incident point. The method includes determining a pattern of the reflected energy based on a distance from a center of the reflected energy, wherein the center is approximated by the first 3D point. The method includes determining a skin thickness measurement based on the pattern.

Abstract: A method and system are disclosed for radiosurgical treatment of moving tissues of the heart, including acquiring at least one volume of the tissue and acquiring at least one ultrasound data set, image or volume of the tissue using an ultrasound transducer disposed at a position. A similarity measure is computed between the ultrasound image or volume and the acquired volume or a simulated ultrasound data set, image or volume. A robot is configured in response to the similarity measure and the position of the transducer, and a radiation beam is fired from the configured robot.

Abstract: A method for detecting the position of a transducer for monitoring the position and motion of one or more target structures for the preparation or during an operation, with creating at least one volume data set (CT or MRI) showing the target structure(s), possible contact surfaces for the positioning of the ultrasonic transducer and the tissue between contact surfaces and target structure(s), determining from the volume data set one or more contact surfaces on which the best reflection of the ultrasound is or are to be expected, and positioning the ultrasonic transducer which monitors the operation on the contact surface(s).

Abstract: A method for measuring skin thickness. The method includes at a first 3D point on an outer surface of a patient, exposing the first point to near infrared (NIR) energy from an NIR source. The method includes measuring reflected energy emanating near the first 3D point, or beam incident point. The method includes determining a pattern of the reflected energy based on a distance from a center of the reflected energy, wherein the center is approximated by the first 3D point. The method includes determining a skin thickness measurement based on the pattern.