mhurhangee/patent-ind-claim-en huggingface dataset:
A diagnostic system for measuring and analyzing startle response of a subject , wherein said diagnostic system comprises a stimuli delivery module , whereby auditory startle stimuli and prepulse stimuli are delivered to subject ; said diagnostic system comprises at least one sensor module , whereby the auditory startle response of subject are detected and recorded; said sensor module comprises at least two electrodes and one pupillary response measuring means; said diagnostic system comprises a diagnosis module whereby the features of the auditory startle response and prepulse inhibition of subject are extracted and analyzed; said sensor module is configured to detect the startle response of subject comprising pupillary response , post-auricular muscle response and intrinsic auricular muscle response ; said stimuli delivery module comprises a set of earphones whereby auditory startle stimuli is delivered to subject ; said stimuli delivery module comprising the set of earphones is configured to deliver auditory startle stimuli to subject unilaterally; and said sensor module comprising the pupillary response measuring means is configured to facilitate the measurement of ipsilateral and contralateral pupillary response to unilateral auditory startle stimuli . said diagnostic system comprises a stimuli delivery module , whereby auditory startle stimuli and prepulse stimuli are delivered to subject ; said diagnostic system comprises at least one sensor module , whereby the auditory startle response of subject are detected and recorded; said sensor module comprises at least two electrodes and one pupillary response measuring means; said diagnostic system comprises a diagnosis module whereby the features of the auditory startle response and prepulse inhibition of subject are extracted and analyzed; said sensor module is configured to detect the startle response of subject comprising pupillary response , post-auricular muscle response and intrinsic auricular muscle response ; said stimuli delivery module comprises a set of earphones whereby auditory startle stimuli is delivered to subject ; said stimuli delivery module comprising the set of earphones is configured to deliver auditory startle stimuli to subject unilaterally; and said sensor module comprising the pupillary response measuring means is configured to facilitate the measurement of ipsilateral and contralateral pupillary response to unilateral auditory startle stimuli .
A method for autonomous multidimensional segmentation of anatomical structures from three-dimensional, 3D, scan volumes, the method comprising the following steps: - receiving input data including the 3D scan volumes comprising a set of medical scan images comprising the anatomical structures; - automatically defining succeeding multidimensional regions of the input data; - autonomously processing , by means of a pre-trained segmentation convolutional neural network, CNN, , the defined multidimensional regions to determine weak segmentation results that define a 3D shape, location, and size of the anatomical structures; - automatically combining multiple weak segmentation results by determining voxels within the defined multidimensional regions that overlap and combining the weak segmentation results determined for the same voxel, to obtain raw strong segmentation results for the voxels with improved accuracy; - autonomously filtering the raw strong segmentation results with a predefined set of filters and parameters for enhancing the 3D shape, location, and size of the anatomical structures to obtain filtered strong segmentation results; and - autonomously identifying a plurality of classes of the anatomical structures from the filtered strong segmentation results; - receiving input data including the 3D scan volumes comprising a set of medical scan images comprising the anatomical structures; - automatically defining succeeding multidimensional regions of the input data; - autonomously processing , by means of a pre-trained segmentation convolutional neural network, CNN, , the defined multidimensional regions to determine weak segmentation results that define a 3D shape, location, and size of the anatomical structures; - automatically combining multiple weak segmentation results by determining voxels within the defined multidimensional regions that overlap and combining the weak segmentation results determined for the same voxel, to obtain raw strong segmentation results for the voxels with improved accuracy; - autonomously filtering the raw strong segmentation results with a predefined set of filters and parameters for enhancing the 3D shape, location, and size of the anatomical structures to obtain filtered strong segmentation results; and - autonomously identifying a plurality of classes of the anatomical structures from the filtered strong segmentation results;
An array of waterborne sound transducers comprising a plurality of waterborne sound transducers , wherein the waterborne sound transducers of the plurality of waterborne sound transducers comprise the following features: a plurality of transducer units arranged in two dimensions, wherein the transducer units each comprise a first and a second contact surface; wherein the first contact surfaces of the transducer units are each connected to a first electrode ; wherein the second contact surfaces of the transducer units are each connected to a second electrode ; wherein the transducer units are arranged such that an envelope of the first contact surfaces of the transducer units is cushion-shaped; wherein the cushion shape is an envelope curved in two dimensions to produce an elevation of the waterborne sound transducer in both dimensions; wherein the waterborne sound transducers of the plurality of waterborne sound transducers are arranged in a polygon to form the array; wherein the first contact surfaces are each turned outward and the second contact surfaces are each turned towards the center of the polygon to obtain, by the spatial arrangement of the transducer units relative to each other, a substantially constant sensitivity of the array of waterborne sound transducers over the complete azimuth. a plurality of transducer units arranged in two dimensions, wherein the transducer units each comprise a first and a second contact surface; wherein the first contact surfaces of the transducer units are each connected to a first electrode ; wherein the second contact surfaces of the transducer units are each connected to a second electrode ; wherein the transducer units are arranged such that an envelope of the first contact surfaces of the transducer units is cushion-shaped; wherein the cushion shape is an envelope curved in two dimensions to produce an elevation of the waterborne sound transducer in both dimensions; wherein the waterborne sound transducers of the plurality of waterborne sound transducers are arranged in a polygon to form the array; wherein the first contact surfaces are each turned outward and the second contact surfaces are each turned towards the center of the polygon to obtain, by the spatial arrangement of the transducer units relative to each other, a substantially constant sensitivity of the array of waterborne sound transducers over the complete azimuth.
A bi-functional boiler having an outer jacket with two heat exchangers insider thereof, one serving the heating of boiler water, the other the heating of domestic water with the heated boiler water, wherein in between the said exchangers there is a partition which separates a boiler water heating space (A) from a domestic water heating space (B), where both spaces (A, B) are interconnected via an overflow slot , characterised in that each of the said spaces (A, B) is connected via a conduit with a circulation pump so that the domestic water heating space (B) is connected with the inlet of the circulation pump , and the boiler water heating space (A) is connected with the outlet of the circulation pump .
A method involving a phased array antenna system for wirelessly transmitting information carried by a source signal stream from a MIMO base station, wherein the source signal stream includes a plurality of individual radio frequency, RF, transmit signal streams, said method comprising: down-converting the plurality of RF transmit signal streams to generate a plurality of down-converted transmit signal streams; mapping the plurality of down-converted transmit signal streams to a plurality of individual beam signal streams, wherein for at least one of the beam signal streams of the plurality of beam signal streams mapping involves combining multiple down-converted transmit signal streams of the plurality of down-converted transmit signal streams to produce said at least one of the beam signal streams; using a phased array antenna system to generate a plurality of transmit beams ; and sending each beam signal stream of the plurality of beam signal streams over a different transmit beam of the plurality of transmit beams (Tb1, Tb2, Tb3, Tb4). down-converting the plurality of RF transmit signal streams to generate a plurality of down-converted transmit signal streams; mapping the plurality of down-converted transmit signal streams to a plurality of individual beam signal streams, wherein for at least one of the beam signal streams of the plurality of beam signal streams mapping involves combining multiple down-converted transmit signal streams of the plurality of down-converted transmit signal streams to produce said at least one of the beam signal streams; using a phased array antenna system to generate a plurality of transmit beams ; and sending each beam signal stream of the plurality of beam signal streams over a different transmit beam of the plurality of transmit beams (Tb1, Tb2, Tb3, Tb4).
A method of supporting registration of a control module ( 101 / 104 ) with a vehicle to enable a remote computing system to wirelessly communicate instructions to the vehicle via the control module, the method comprising: positioning the control module within the vehicle, the control module having a unique identifier and configured to receive, through a wireless network, information configured to trigger the transmittal by the control module of a command over a controller area network (CAN) bus within the vehicle, the unique identifier being associated in a remote computing system with an installer, the vehicle comprising at least one on-board diagnostic (OBD) unit and a locking and unlocking device configured to be triggered by a lock command or an unlock command transmitted over the CAN bus; electronically connecting the control module to the OBD unit; electronically connecting the control module to the CAN bus; a mobile computing device receiving a first identifier via a wireless data capture technique distinct from cellular communication ( 502 / 507 ) , the first identifier corresponding to the unique identifier of the control module; the mobile computing device receiving a second identifier via a wireless data capture technique distinct from cellular communication ( 503 / 508 ), the second identifier uniquely identifying the vehicle; the mobile computing device sending the first identifier and the second identifier to the remote computing system for association of the first identifier with the second identifier to register the control module with the vehicle within the remote computing system . positioning the control module within the vehicle, the control module having a unique identifier and configured to receive, through a wireless network, information configured to trigger the transmittal by the control module of a command over a controller area network (CAN) bus within the vehicle, the unique identifier being associated in a remote computing system with an installer, the vehicle comprising at least one on-board diagnostic (OBD) unit and a locking and unlocking device configured to be triggered by a lock command or an unlock command transmitted over the CAN bus; electronically connecting the control module to the OBD unit; electronically connecting the control module to the CAN bus; a mobile computing device receiving a first identifier via a wireless data capture technique distinct from cellular communication ( 502 / 507 ) , the first identifier corresponding to the unique identifier of the control module; the mobile computing device receiving a second identifier via a wireless data capture technique distinct from cellular communication ( 503 / 508 ), the second identifier uniquely identifying the vehicle; the mobile computing device sending the first identifier and the second identifier to the remote computing system for association of the first identifier with the second identifier to register the control module with the vehicle within the remote computing system .
Method of laser deposition welding, wherein a filler material, in particular a powdery filler material, is applied to at least one area of a surface of a workpiece , wherein the filler material is at least partially melted by means of a laser beam and/or an area of the workpiece surface is melted by means of a laser beam in such a manner that after solidification, a firmly bonded material deposition of the filler material on the workpiece surface is obtained, wherein the laser beam is directed onto the workpiece surface by means of a laser processing device , wherein the laser processing device comprises a laser nozzle that defines a working area within which the laser beam hits the workpiece surface, wherein the point of impact of the laser beam on the workpiece surface is changed by a scanning movement, in which the laser nozzle and the workpiece surface move relative to one another and wherein an additional movement is superimposed on the scanning movement through which the point of impact of the laser beam on the workpiece surface is changed within the working area of the laser nozzle , wherein the additional movement is generated by a movement of at least one laser mirror of a scanner optics , and characterized in that the speed of the mirror movement for generating the additional movement is almost constant and the additional movement extends within the rectangular working area in a circumferential manner along the edge of the working area on a closed, elliptical or rectangular continuous path in a periodically repeating pattern and the laser power in the outer edge areas of the rectangular working area is reduced in dependence on the positioning speed of the point of impact along the movement path of the additional movement in order to prevent burning-in or burning of the filler material or of the workpiece surface. wherein the additional movement is generated by a movement of at least one laser mirror of a scanner optics , and characterized in that the speed of the mirror movement for generating the additional movement is almost constant and the additional movement extends within the rectangular working area in a circumferential manner along the edge of the working area on a closed, elliptical or rectangular continuous path in a periodically repeating pattern and the laser power in the outer edge areas of the rectangular working area is reduced in dependence on the positioning speed of the point of impact along the movement path of the additional movement in order to prevent burning-in or burning of the filler material or of the workpiece surface.
A device , comprising: one or more processors to: implement a first policy to adjust one or more factors of an automatic bandwidth adjustment policy associated with a label-switched path of a plurality of label-switched paths (240-1, ..., 240-M), the first policy causing the device to: receive information that identifies network traffic behavior associated with the label-switched path of the plurality of label-switched paths, the network traffic behavior being associated with a plurality of first values associated with network traffic of the label-switched path; determine values of the one or more factors of the automatic bandwidth adjustment policy based on the network traffic behavior, the one or more factors being associated with a plurality of second values, and the plurality of second values being determined based on the plurality of first values; and implement the automatic bandwidth adjustment policy in association with the label-switched path, of the plurality of label-switched paths, implementing the automatic bandwidth adjustment policy causing a bandwidth reservation of the label-switched path to be adjusted based on the automatic bandwidth adjustment policy, the automatic bandwidth adjustment policy being implemented for fewer than all of the plurality of label-switched paths. receive information that identifies network traffic behavior associated with the label-switched path of the plurality of label-switched paths, the network traffic behavior being associated with a plurality of first values associated with network traffic of the label-switched path; determine values of the one or more factors of the automatic bandwidth adjustment policy based on the network traffic behavior, the one or more factors being associated with a plurality of second values, and the plurality of second values being determined based on the plurality of first values; and the one or more factors being associated with a plurality of second values, and the plurality of second values being determined based on the plurality of first values; and implement the automatic bandwidth adjustment policy in association with the label-switched path, of the plurality of label-switched paths, implementing the automatic bandwidth adjustment policy causing a bandwidth reservation of the label-switched path to be adjusted based on the automatic bandwidth adjustment policy, the automatic bandwidth adjustment policy being implemented for fewer than all of the plurality of label-switched paths. implementing the automatic bandwidth adjustment policy causing a bandwidth reservation of the label-switched path to be adjusted based on the automatic bandwidth adjustment policy, the automatic bandwidth adjustment policy being implemented for fewer than all of the plurality of label-switched paths.
A sensor configured to find a hidden element behind a surface, the sensor comprising: a housing comprising a top section and a bottom section that is configured to pass over a surface when in use, wherein the bottom section comprises a radiant indicator in a front portion of the bottom section; circuitry coupled to the housing, wherein the circuitry comprises a light chamber having a light surface, a light source and an opening , wherein the circuitry is configured to illuminate the radiant indicator by activating the light source a display positioned in the housing and coupled to the circuitry ; and characterized in that the sensor further comprises: a lens assembly coupled to the housing, wherein the lens assembly comprises a lens configured to optically connect the first beam to the radiant indicator , and wherein the lens assembly is insertable into the bottom section ; wherein the top section includes an opaque material, and the front of the bottom section is translucent and has a backing, positioned at its bottom side, to reflect light from the light source; wherein the light chamber is configured to reflect light from the light surface to the opening in the light chamber to form a first beam; and wherein the radiant indicator is positioned to receive the first beam. a housing comprising a top section and a bottom section that is configured to pass over a surface when in use, wherein the bottom section comprises a radiant indicator in a front portion of the bottom section; circuitry coupled to the housing, wherein the circuitry comprises a light chamber having a light surface, a light source and an opening , wherein the circuitry is configured to illuminate the radiant indicator by activating the light source a display positioned in the housing and coupled to the circuitry ; and characterized in that the sensor further comprises: a lens assembly coupled to the housing, wherein the lens assembly comprises a lens configured to optically connect the first beam to the radiant indicator , and wherein the lens assembly is insertable into the bottom section ; wherein the top section includes an opaque material, and the front of the bottom section is translucent and has a backing, positioned at its bottom side, to reflect light from the light source; wherein the light chamber is configured to reflect light from the light surface to the opening in the light chamber to form a first beam; and wherein the radiant indicator is positioned to receive the first beam.
Tank comprising an outer enclosure , an inner enclosure positioned in the outer enclosure , first and second connection systems connecting the outer and inner enclosures , a first wall (42.1) connected to the outer enclosure , a second wall (42.2) connected to the inner enclosure , and at least one duct passing through the first and second walls (42.1, 42.2), each of the first and second walls (42.1, 42.2) having at least one attachment zone connected to the inner or outer enclosure and, for each duct , an orifice (50.1, 50.2) through which the duct passes, and a connection zone (52.1, 52.2) surrounding the orifice (50.1, 50.2) and comprising a connection (54.1, 54.2) connecting the duct and the first or second wall (42.1, 42.2); characterized in that at least one wall of the first and second walls (42.1, 42.2) comprises at least one deformable zone interposed between the attachment zone and the connection zone (52.1, 52.2), the deformable zone being configured to allow the connection zone (52.1, 52.2) to move with respect to the attachment zone .
Window cleaning system for a vehicle, comprising - a window cleaning device for cleaning a window , in particular the windscreen, - a position input device for inputting a position (A) on the window , and - a control device connected to the window cleaning device and to the position input device for signalling purposes, wherein the window cleaning device can be controlled by the control device in order specifically to clean a position (A), detected by the position input device , on the window , characterized in that the at least one window wiper is provided with two or more cleaning liquid nozzles , wherein the cleaning liquid nozzles can be activated independently of one another in order to discharge cleaning liquid, wherein, during a wiping movement of the window wiper , specifically the cleaning liquid nozzle or the cleaning liquid nozzles which sweeps or sweep closest over the position (A), detected by the position input device , on the window are activated for discharging cleaning liquid. - a window cleaning device for cleaning a window , in particular the windscreen, - a position input device for inputting a position (A) on the window , and - a control device connected to the window cleaning device and to the position input device for signalling purposes, the at least one window wiper is provided with two or more cleaning liquid nozzles , wherein the cleaning liquid nozzles can be activated independently of one another in order to discharge cleaning liquid, wherein, during a wiping movement of the window wiper , specifically the cleaning liquid nozzle or the cleaning liquid nozzles which sweeps or sweep closest over the position (A), detected by the position input device , on the window are activated for discharging cleaning liquid.