mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining the depth profile of a field of view comprising the steps of a. projecting by means of a projector at least one light pattern onto the field of view, the projection occurring in a time window of less than 10μsec, preferably less than 1μsec ; b. imaging the projected pattern by means of a camera sensor and optics, synchronised with the projection of the pattern during at least one observation window within said time window, said camera sensor comprising a matrix of pixels , each comprising a photodetector, said pixels being in a false status when no light is detected by the corresponding photodetector, and in a true status when light is detected by the corresponding photodetector thereby obtaining a first binary matrix of pixels representing the field of view; c. separating the projected pattern from an ambient light noise on the binary matrix of pixels by considering only pixels in the true status having at least one neighbour pixel also in the true status on the matrix of pixel obtained in one observation or a combination of the at least two observations within said time window thereby obtaining a second binary matrix of pixels representing the projected pattern; d. based on triangulation between the projector position, the camera position and the second binary matrix of pixel calculate the depth profile corresponding to the projected pattern; e. scan the projected pattern by repeating steps a to d on the entire field of view for determining the depth profile on the entire field of view; wherein each isolated elements of the pattern is extending in the binary representation on at least two contiguous pixels. a. projecting by means of a projector at least one light pattern onto the field of view, the projection occurring in a time window of less than 10μsec, preferably less than 1μsec ; b. imaging the projected pattern by means of a camera sensor and optics, synchronised with the projection of the pattern during at least one observation window within said time window, said camera sensor comprising a matrix of pixels , each comprising a photodetector, said pixels being in a false status when no light is detected by the corresponding photodetector, and in a true status when light is detected by the corresponding photodetector thereby obtaining a first binary matrix of pixels representing the field of view; c. separating the projected pattern from an ambient light noise on the binary matrix of pixels by considering only pixels in the true status having at least one neighbour pixel also in the true status on the matrix of pixel obtained in one observation or a combination of the at least two observations within said time window thereby obtaining a second binary matrix of pixels representing the projected pattern; d. based on triangulation between the projector position, the camera position and the second binary matrix of pixel calculate the depth profile corresponding to the projected pattern; e. scan the projected pattern by repeating steps a to d on the entire field of view for determining the depth profile on the entire field of view;
An electromagnetic device , comprising: a permeable magnetic core having a plurality of legs ; a former surrounding a leg of the plurality of legs , wherein the former is thermally conductive at a rate equal to or higher than 0.5 W/mK; and at least one winding including a coil having a plurality of turns, configured to conduct an electrical current there through wound on the former ; wherein the permeable magnetic core forms at least one thermal heat path and the former is configured to provide at least one additional thermal heat path between the at least one winding and the permeable magnetic core for heat generated in the at least one winding during operation; and wherein the at least one winding comprises a primary winding and a secondary winding wound on the former ; characterized in that the primary winding is spaced from the secondary winding with a layer of thermally conductive material configured to provide a further additional heat path . a permeable magnetic core having a plurality of legs ; a former surrounding a leg of the plurality of legs , wherein the former is thermally conductive at a rate equal to or higher than 0.5 W/mK; and at least one winding including a coil having a plurality of turns, configured to conduct an electrical current there through wound on the former ; wherein the permeable magnetic core forms at least one thermal heat path and the former is configured to provide at least one additional thermal heat path between the at least one winding and the permeable magnetic core for heat generated in the at least one winding during operation; and wherein the at least one winding comprises a primary winding and a secondary winding wound on the former ; characterized in that the primary winding is spaced from the secondary winding with a layer of thermally conductive material configured to provide a further additional heat path .
A metal wire feeding system, comprising: a cabinet a wire feeding device comprising a first motorized grooved roller, a first passive grooved roller, and a first motor attached to the first motorized grooved roller, wherein the first motorized grooved roller and the first passive grooved roller form a channel therebetween; and being characterised by further comprising: a positionally adjustable wire supply spool; a combination of at least three slack wire guides, wherein a first slack wire guide is positioned downstream of the wire feeding device and in line therewith, a second slack wire guide positioned to the right of and below the first slack wire guide, and a third slack wire guide positioned to the left of and below the first slack wire guide, the first slack wire guide, the second slack wire guide and the third slack wire guide together forming a loop pathway from the first wire guide to the second wire guide to the third wire guide and then back to the first wire guide so as to form a loop of slack wire; a slack wire pulling device comprising a second motorized grooved roller, a second passive grooved roller, and a second motor attached to the second motorized grooved roller, wherein the second motorized grooved roller and the second passive grooved roller form a channel therebetween; and a cabinet exit guide, and wherein the cabinet comprises an entry wire position detector containing an aperture. a cabinet a wire feeding device comprising a first motorized grooved roller, a first passive grooved roller, and a first motor attached to the first motorized grooved roller, wherein the first motorized grooved roller and the first passive grooved roller form a channel therebetween; a positionally adjustable wire supply spool; a combination of at least three slack wire guides, wherein a first slack wire guide is positioned downstream of the wire feeding device and in line therewith, a second slack wire guide positioned to the right of and below the first slack wire guide, and a third slack wire guide positioned to the left of and below the first slack wire guide, the first slack wire guide, the second slack wire guide and the third slack wire guide together forming a loop pathway from the first wire guide to the second wire guide to the third wire guide and then back to the first wire guide so as to form a loop of slack wire; a slack wire pulling device comprising a second motorized grooved roller, a second passive grooved roller, and a second motor attached to the second motorized grooved roller, wherein the second motorized grooved roller and the second passive grooved roller form a channel therebetween; and a cabinet exit guide, and
Apparatus for producing a three-dimensional object by sequentially forming layers of material one on top of the other responsive to data defining said three-dimensional object , said apparatus comprising: at least one printing head controllable to dispense a photopolymer material in liquid form; a lamp controllable to provide radiation that polymerizes said photopolymer material; and a controller adapted to control said at least one printing head to dispense said photopolymer material and sequentially form said layers of material and said lamp to irradiate and polymerize the dispensed photopolymer material; characterized in that said lamp comprises an array of LEDs controllable to provide the radiation that polymerizes the photopolymer material. at least one printing head controllable to dispense a photopolymer material in liquid form; a lamp controllable to provide radiation that polymerizes said photopolymer material; and a controller adapted to control said at least one printing head to dispense said photopolymer material and sequentially form said layers of material and said lamp to irradiate and polymerize the dispensed photopolymer material; characterized in that said lamp comprises an array of LEDs controllable to provide the radiation that polymerizes the photopolymer material.
A cartridge , comprising: an electrical connection assembly configured to electrically couple to an electrosurgical unit ; a first port configured to fluidly couple to a fluid source; a second port configured to fluidly and electrically couple to a surgical instrument ; a pumping mechanism disposed between the first and second ports and configured to draw fluid from the fluid source and pump the fluid to the surgical instrument; a valve disposed between the first and second ports and configured to selectively obstruct the flow of fluid therethrough; and a fluid flow sensor disposed between the first and second ports and configured to sense fluid flow therethrough, the fluid flow sensor configured to electrically communicate with the electrosurgical unit to communicate the sensed fluid flow rate to the electrosurgical unit. an electrical connection assembly configured to electrically couple to an electrosurgical unit ; a first port configured to fluidly couple to a fluid source; a second port configured to fluidly and electrically couple to a surgical instrument ; a pumping mechanism disposed between the first and second ports and configured to draw fluid from the fluid source and pump the fluid to the surgical instrument; a valve disposed between the first and second ports and configured to selectively obstruct the flow of fluid therethrough; and a fluid flow sensor disposed between the first and second ports and configured to sense fluid flow therethrough, the fluid flow sensor configured to electrically communicate with the electrosurgical unit to communicate the sensed fluid flow rate to the electrosurgical unit.
Thin film transistors comprising: a bottom gate electrode on a substrate ; a semiconductor layer overlapping with the bottom gate electrode , wherein the semiconductor layer comprises a N-type semiconductor layer and a P-type semiconductor layer , and the N-type semiconductor layer is overlapped partly with the P-type semiconductor layer ; a first source electrode and a first drain electrode respectively connected to the P-type semiconductor layer ; a second source electrode and a second drain electrode respectively connected to a portion of the N-type semiconductor layer which is not overlapped with the P-type semiconductor layer ; and a top gate electrode above the semiconductor layer. a bottom gate electrode on a substrate ; a semiconductor layer overlapping with the bottom gate electrode , wherein the semiconductor layer comprises a N-type semiconductor layer and a P-type semiconductor layer , and the N-type semiconductor layer is overlapped partly with the P-type semiconductor layer ; a first source electrode and a first drain electrode respectively connected to the P-type semiconductor layer ; a second source electrode and a second drain electrode respectively connected to a portion of the N-type semiconductor layer which is not overlapped with the P-type semiconductor layer ; and a top gate electrode above the semiconductor layer.
A method performed by a base station, comprising: determining radio timer information corresponding to data transmission of part of a data stream from the base station to a user equipment, characterized in that the radio timer information comprises one or more of: a minimum time that the user equipment will be powered and consume energy in a dedicated state, a time that the user equipment will still be powered even if there is no activity seen towards the user equipment, a time that the user equipment could be parked immediately to an intermediate state, and a time interval in which the content server and the user equipment should exchange all data; and sending the radio timer information toward a content server serving and adapting the data stream for data transmission by the base station to the user equipment. determining radio timer information corresponding to data transmission of part of a data stream from the base station to a user equipment, characterized in that the radio timer information comprises one or more of: a minimum time that the user equipment will be powered and consume energy in a dedicated state, a time that the user equipment will still be powered even if there is no activity seen towards the user equipment, a time that the user equipment could be parked immediately to an intermediate state, and a time interval in which the content server and the user equipment should exchange all data; and sending the radio timer information toward a content server serving and adapting the data stream for data transmission by the base station to the user equipment.
Method for controlling a light distribution of a headlamp of an ego vehicle , comprising the following steps: - generating sensor data from external vehicles in the vicinity by means of a sensor apparatus ; - predicting a path of at least one of the vehicles based on the sensor data acquired by the sensor apparatus ; - adjusting the light distribution of the headlamp depending on the at least one predicted path , wherein it is checked whether an entry event of one of the external vehicles into a region of the light distribution is imminent, in which region a glare criterion is fulfilled by the light distribution , and the light distribution of the headlamp is adjusted in such a way that the fulfilment of the glare criterion is prevented in the region, characterised in that manoeuvre probabilities of the external vehicles and the ego vehicle are calculated, and the path of at least one of the vehicles is predicted taking into account the calculated manoeuvre probabilities of the vehicles , and to adjust the light distribution of the headlamp , the light distribution is aligned along the predicted path of the ego vehicle . - generating sensor data from external vehicles in the vicinity by means of a sensor apparatus ; - predicting a path of at least one of the vehicles based on the sensor data acquired by the sensor apparatus ; - adjusting the light distribution of the headlamp depending on the at least one predicted path , wherein it is checked whether an entry event of one of the external vehicles into a region of the light distribution is imminent, in which region a glare criterion is fulfilled by the light distribution , and the light distribution of the headlamp is adjusted in such a way that the fulfilment of the glare criterion is prevented in the region, manoeuvre probabilities of the external vehicles and the ego vehicle are calculated, and the path of at least one of the vehicles is predicted taking into account the calculated manoeuvre probabilities of the vehicles , and to adjust the light distribution of the headlamp , the light distribution is aligned along the predicted path of the ego vehicle .
Position measuring device, having a basic body , a first housing part (10.1) extending in a longitudinal direction (X) and connected to the basic body , and a second housing part (10.2) extending in the longitudinal direction (X) and connected to the basic body , wherein a hollow profile is formed by at least the first housing part (10.1) and the second housing part (10.2), wherein the position measuring device has a scale arranged within the hollow profile and a scanning unit for scanning the scale , wherein the basic body and the scale are directly connected to each other, wherein the position measuring device has a driver for carrying the scanning unit , wherein the scanning unit comprises a cable (14.1), wherein the driver is designed in such a manner that the cable (14.1) can be guided through at least part of the driver , characterized in that the driver has a cutout (16.4') provided in a longitudinal section (L) of the driver , in that the driver has a closure element (16.4) corresponding to the cutout (16.4') and connected releasably to a complementary part (C) of the driver , in that the driver has a first inner contour (17.1), in that the closure element (16.4) has a second inner contour (17.2) opposite the first inner contour (17.1), in that an opening for the receiving and guiding through of the cable (14.1) is formed by the first inner contour (17.1) and the second inner contour (17.2), and in that the opening extends through the longitudinal section (L) of the driver . a basic body , a first housing part (10.1) extending in a longitudinal direction (X) and connected to the basic body , and a second housing part (10.2) extending in the longitudinal direction (X) and connected to the basic body , wherein a hollow profile is formed by at least the first housing part (10.1) and the second housing part (10.2), wherein the position measuring device has a scale arranged within the hollow profile and a scanning unit for scanning the scale , wherein the basic body and the scale are directly connected to each other, wherein the position measuring device has a driver for carrying the scanning unit , wherein the scanning unit comprises a cable (14.1), wherein the driver is designed in such a manner that the cable (14.1) can be guided through at least part of the driver , characterized in that the driver has a cutout (16.4') provided in a longitudinal section (L) of the driver , in that the driver has a closure element (16.4) corresponding to the cutout (16.4') and connected releasably to a complementary part (C) of the driver , in that the driver has a first inner contour (17.1), in that the closure element (16.4) has a second inner contour (17.2) opposite the first inner contour (17.1), in that an opening for the receiving and guiding through of the cable (14.1) is formed by the first inner contour (17.1) and the second inner contour (17.2), and in that the opening extends through the longitudinal section (L) of the driver .
A multi-energy CT imaging system, comprising: a stage for carrying an object to be inspected; a voltage-regulatable X-ray generation device for emitting X-rays for irradiating said object to be inspected; a detector for receiving X-rays emitted from said X-ray generation device and penetrating said object to be inspected, and for outputting detection data; a rack having said X-ray generation device and said detector mounted thereon; and a data processing and control device for controlling said stage, said X-ray generation device, said detector and said rack, processing detected data from said detector, and during one rotation of scan of said X-ray generation device, for evenly dividing the circular track of said X-ray generation device into angle intervals of a predetermined number according to a predetermined number of energies and setting a different high voltage of said X-ray generation device for each angle interval, and when said rack rotates from the current angle interval into a next angle interval, for controlling said X-ray generation device according to an instruction from said data processing and control device to switch said X-ray generation device to a voltage set in the next angle interval, characterized in that the data processing and control device is further configured to obtain line integral data in each of the angle intervals, reconstruct an a priori image using complete line integral data covering all of the angle intervals, and reconstruct attenuation coefficient images for each of the angle intervals based on the a priori image. a stage for carrying an object to be inspected; a voltage-regulatable X-ray generation device for emitting X-rays for irradiating said object to be inspected; a detector for receiving X-rays emitted from said X-ray generation device and penetrating said object to be inspected, and for outputting detection data; a rack having said X-ray generation device and said detector mounted thereon; and a data processing and control device for controlling said stage, said X-ray generation device, said detector and said rack, processing detected data from said detector, and during one rotation of scan of said X-ray generation device, for evenly dividing the circular track of said X-ray generation device into angle intervals of a predetermined number according to a predetermined number of energies and setting a different high voltage of said X-ray generation device for each angle interval, and when said rack rotates from the current angle interval into a next angle interval, for controlling said X-ray generation device according to an instruction from said data processing and control device to switch said X-ray generation device to a voltage set in the next angle interval, characterized in that the data processing and control device is further configured to obtain line integral data in each of the angle intervals, reconstruct an a priori image using complete line integral data covering all of the angle intervals, and reconstruct attenuation coefficient images for each of the angle intervals based on the a priori image.
A robot comprising: a drive system adapted to maneuver the robot about an environment; a ranging device adapted to detect a plurality of connected devices located in the environment; and a controller configured to determine, using data from the ranging device, locations of the plurality of connected devices (120; 122; 124; 126; 127; 128; 140; 142; 144; 502; 504; 506; 702; 704; 706), and characterized in that the controller is further configured to: transmit data to cause a remote user device to present a visual representation of the environment and visual indications indicative of the locations of the plurality of connected devices (30a; 34a-34f; 40a) in the environment, and to determine distances between pairs of individual connected devices in the environment. a drive system adapted to maneuver the robot about an environment; a ranging device adapted to detect a plurality of connected devices located in the environment; and a controller configured to determine, using data from the ranging device, locations of the plurality of connected devices (120; 122; 124; 126; 127; 128; 140; 142; 144; 502; 504; 506; 702; 704; 706), and characterized in that the controller is further configured to: transmit data to cause a remote user device to present a visual representation of the environment and visual indications indicative of the locations of the plurality of connected devices (30a; 34a-34f; 40a) in the environment, and to determine distances between pairs of individual connected devices in the environment.