mhurhangee/ep-ind-claims huggingface dataset:
Heating apparatus, comprising - a pipe having an outer surface, said pipe being suitable for conducting a medium, - at least one injection-molded shaped body on the outer surface of the pipe, wherein the shaped body comprises a material with a positive temperature coefficient of electrical resistance and a Curie temperature which falls within a range of -30°C to 340°C, and is adapted to the outer surface of the pipe. - a pipe having an outer surface, said pipe being suitable for conducting a medium, - at least one injection-molded shaped body on the outer surface of the pipe, wherein the shaped body comprises a material with a positive temperature coefficient of electrical resistance and a Curie temperature which falls within a range of -30°C to 340°C, and is adapted to the outer surface of the pipe.
A measurement method for the left atrial wall thickness of the heart through a left atrial wall thickness measurement device, the method comprising the steps of: (a) extracting a plurality of pixels corresponding to the left atrial outline in an Nth, wherein N is a positive integer greater than or equal to 3, computed tomography image having Hounsfield numbers applied by pixel to calculate the two-dimensional normal vectors for the plurality of pixels extracted; (b) extracting a plurality of pixels corresponding to the left atrial outline from any one or more images of first, N-lth, N+1th, and Mth, wherein M is a positive integer greater than or equal to 5, CT images, using the coordinates of the plurality of pixels corresponding to the left atrial outline extracted in the Nth CT image, to calculate the two-dimensional normal vectors for the plurality of pixels extracted; (c) calculating the three-dimensional normal vectors for the plurality of pixels corresponding to the left atrial outline extracted in the Nth CT image and for the plurality of pixels corresponding to the left atrial outline extracted in any one or more images of the first, N-lth, N+lth, and Mth CT images, using the coordinates of the plurality of pixels and the calculated two-dimensional normal vectors; (d) correcting the Hounsfield numbers provided to the plurality of pixels corresponding to the directions of the three-dimensional normal vectors for the plurality of pixels through interpolation; and (e) calculating the left atrial wall thickness of the heart by applying full width at half maximum (FWHM) to the corrected Hounsfield numbers. (a) extracting a plurality of pixels corresponding to the left atrial outline in an Nth, wherein N is a positive integer greater than or equal to 3, computed tomography image having Hounsfield numbers applied by pixel to calculate the two-dimensional normal vectors for the plurality of pixels extracted; (b) extracting a plurality of pixels corresponding to the left atrial outline from any one or more images of first, N-lth, N+1th, and Mth, wherein M is a positive integer greater than or equal to 5, CT images, using the coordinates of the plurality of pixels corresponding to the left atrial outline extracted in the Nth CT image, to calculate the two-dimensional normal vectors for the plurality of pixels extracted; (c) calculating the three-dimensional normal vectors for the plurality of pixels corresponding to the left atrial outline extracted in the Nth CT image and for the plurality of pixels corresponding to the left atrial outline extracted in any one or more images of the first, N-lth, N+lth, and Mth CT images, using the coordinates of the plurality of pixels and the calculated two-dimensional normal vectors; (d) correcting the Hounsfield numbers provided to the plurality of pixels corresponding to the directions of the three-dimensional normal vectors for the plurality of pixels through interpolation; and (e) calculating the left atrial wall thickness of the heart by applying full width at half maximum (FWHM) to the corrected Hounsfield numbers.
A method for controlling an electrical converter having a balancing property such that a capacitor voltage of a capacitor of the electrical converter tends towards a balancing voltage, the method comprising: generating switching signals for the electrical converter based on pulse width modulation, wherein switching instants are determined by comparing a reference voltage signal with a carrier signal; determining a state of unbalance of at least one capacitor of the electrical converter, the state of unbalance ( v d) being based on a difference between an actual capacitor voltage and a desired reference voltage; determining, whether the state of unbalance ( v d) is outside a natural balancing region; in the case, the state of unbalance ( v d) is outside the natural balancing region, phase shifting of a regular carrier signal, such that the capacitor voltage of the capacitor tends more directly in the direction of the natural balancing region than during pulse width modulation with the regular carrier signal, wherein the phase shift for the phase shifting of the regular carrier signal is determined by minimizing a cost function based on the state of unbalance ( v d) and/or a DC link voltage of the electrical converter. generating switching signals for the electrical converter based on pulse width modulation, wherein switching instants are determined by comparing a reference voltage signal with a carrier signal; determining a state of unbalance of at least one capacitor of the electrical converter, the state of unbalance ( v d) being based on a difference between an actual capacitor voltage and a desired reference voltage; determining, whether the state of unbalance ( v d) is outside a natural balancing region; in the case, the state of unbalance ( v d) is outside the natural balancing region, phase shifting of a regular carrier signal, such that the capacitor voltage of the capacitor tends more directly in the direction of the natural balancing region than during pulse width modulation with the regular carrier signal, wherein the phase shift for the phase shifting of the regular carrier signal is determined by minimizing a cost function based on the state of unbalance ( v d) and/or a DC link voltage of the electrical converter.
A method performed by a receiving user equipment for performing transmission/reception through a sidelink, SL, with a transmitting user equipment, a receiving user equipment being a terminal that receives a sidelink control channel, PSCCH, and a corresponding sidelink data channel, PSSCH, through a sidelink and a transmitting user equipment being a terminal transmitting the PSCCH and the corresponding PSSCH through the sidelink, the method comprising: distinguishing a type of coordination information for the transmitting user equipment, the type of the coordination information comprising i) a first type including information on a preferred resource set or a non-preferred resource set for the transmitting user equipment and ii) a second type including resource conflict information for the transmitting user equipment; determining whether a transmission trigger condition of the coordination information is satisfied according to the type of the coordination information; transmitting the coordination information when the transmission trigger condition is satisfied, the coordination information being transmitted through one of the PSSCH and the PSCCH in the case of the first type, and the coordination information being transmitted through a sidelink feedback channel, PSFCH, in the case of the second type; and receiving resource reallocation information for sidelink transmission configured based on the transmitted coordination information and a sensing result of the transmitting user equipment. distinguishing a type of coordination information for the transmitting user equipment, the type of the coordination information comprising i) a first type including information on a preferred resource set or a non-preferred resource set for the transmitting user equipment and ii) a second type including resource conflict information for the transmitting user equipment; determining whether a transmission trigger condition of the coordination information is satisfied according to the type of the coordination information; transmitting the coordination information when the transmission trigger condition is satisfied, the coordination information being transmitted through one of the PSSCH and the PSCCH in the case of the first type, and the coordination information being transmitted through a sidelink feedback channel, PSFCH, in the case of the second type; and receiving resource reallocation information for sidelink transmission configured based on the transmitted coordination information and a sensing result of the transmitting user equipment.
Reinforcement element for reinforcing the structure of a door of a vehicle, said reinforcement element extending along a main direction and comprising at least a main portion having a reinforcing cross-section extending in a plane substantially perpendicular to the main direction, the reinforcing cross-section comprising seven adjacent branches (42a, 42b, 42c, 42d, 42e, 42f, 42g), each extending in different directions, two successive branches forming a non-zero angle, at least two of said non-zero angles being of opposite signs, said adjacent branches comprising a first branch, a second branch, a third branch, a fourth branch, a fifth branch, a sixth branch and a seventh branch, said first branch forming with said second branch a first non-zero angle (α ab), said second branch forming with said third branch a second non-zero angle (α bc), the third branch forming with the fourth branch a third non-zero angle (α cd), the fourth branch forming with the fifth branch a fourth non-zero angle (α de), the fifth branch forming with the sixth branch a fifth non-zero angle (α ef) and the sixth branch forming with the seventh branch a sixth non-zero angle (α fg), the first non-zero angle (α ab) and the second non-zero angle (α bc) being of the same sign, said third and fourth non-zero angles (α cd, α de) being of a sign opposite to the sign of the first and second non-zero angles (α ab, α bc), and the fifth and sixth non-zero angles (α ef, α fg) being of the same sign as the first and second non-zero angles (α ab, α bc), the first branch and the second branch being joined together by a first arcuate junction, the second branch and the third branch being joined together by a second arcuate junction, the third branch and the fourth branch being joined together by a third arcuate junction, the fourth branch and the fifth branch being joined together by a fourth arcuate junction, the fifth branch and the sixth branch being joined together by a fifth arcuate junction, and the sixth branch and the seventh branch being joined together by a sixth arcuate junction, the first, second and third branches together forming a concave curve oriented towards a first direction, the third, fourth and fifth branches together forming a concave curve oriented towards a second direction opposite the first direction, the fifth, sixth and seventh branches together forming a concave curve oriented towards the first direction, the reinforcing cross-section further comprising two legs (44a, 44b) joined respectively to the first branch and to the seventh branch and forming with the first branch and the seventh branch respectively non-zero angles, characterized in that the radiuses of curvature of said first arcuate junction and said second arcuate junction are substantially comprised between 5 mm and d/2, wherein d is a distance between said first branch and said third branch, and in that the legs (44a, 44b) have a structure comprising martensite, bainite and optionally ferrite, the rest of the main portion having a structure consisting of martensite.
Bis-thienobenzothienothiophene compound having the general formula: where R is selected from hydrogen, C 1 -C 20 alkyl group, linear or branched, or cycloalkyl group, where said alkyl and cycloalkyl groups are optionally substituted.
Method for preparing a flour tortilla comprising - providing a flour tortilla dough in a portion sufficient to prepare the tortilla; - applying a fatty substance to at least part of the surface of the dough portion; thereafter - forming the dough into a tortilla shape; and thereafter - baking the dough. - providing a flour tortilla dough in a portion sufficient to prepare the tortilla; - applying a fatty substance to at least part of the surface of the dough portion; thereafter - forming the dough into a tortilla shape; and thereafter - baking the dough.
A pneumatic pressure detector for a fire alarm system comprising: a housing having an internal surface defining an interior volume; at least one alarm switch located within the interior volume of the housing and comprising a first deformable diaphragm responsive to an increase in pressure of a gas disposed in a sensor tube to indicate an overheat condition; and at least one integrity switch located within the interior volume of the housing and comprising a second deformable diaphragm disposed in contact with an electrical contact during pressurization of the gas within a predetermined pressure range and in an electrically open condition when the pressure of the gas is less than the predetermined range, characterized by further comprising: a mica sleeve located within the interior volume of the housing and disposed along at least a portion of the internal surface of the housing to insulate the alarm switch and the integrity switch; and a potting material disposed in the interior volume of the housing to encapsulate and insulate the alarm switch and the integrity switch, the potting material disposed at a further interior region than the mica sleeve and insulated by the mica sleeve. a housing having an internal surface defining an interior volume; at least one alarm switch located within the interior volume of the housing and comprising a first deformable diaphragm responsive to an increase in pressure of a gas disposed in a sensor tube to indicate an overheat condition; and at least one integrity switch located within the interior volume of the housing and comprising a second deformable diaphragm disposed in contact with an electrical contact during pressurization of the gas within a predetermined pressure range and in an electrically open condition when the pressure of the gas is less than the predetermined range, characterized by further comprising: a mica sleeve located within the interior volume of the housing and disposed along at least a portion of the internal surface of the housing to insulate the alarm switch and the integrity switch; and a potting material disposed in the interior volume of the housing to encapsulate and insulate the alarm switch and the integrity switch, the potting material disposed at a further interior region than the mica sleeve and insulated by the mica sleeve. a mica sleeve located within the interior volume of the housing and disposed along at least a portion of the internal surface of the housing to insulate the alarm switch and the integrity switch; and a potting material disposed in the interior volume of the housing to encapsulate and insulate the alarm switch and the integrity switch, the potting material disposed at a further interior region than the mica sleeve and insulated by the mica sleeve.
A computer-implemented method for imaging an anatomic region, comprising: acquiring a plurality of localizer or scout images using an imaging system; providing the plurality of localizer or scout images to a localizer artificial neural network trained to select a subset of the localizer or scout images for detection and visualization of an anatomic landmark-of-interest based on the image contents of the subset of localizer or scout images, wherein the localizer artificial neural network is trained to select a respective localizer or scout image based at least partly on whether it depicts the anatomic landmark-of-interest; processing the subset of localizer or scout images or an image construct generated from the localizer or scout images using a scan plane artificial neural network trained to determine one or more image scan planes or image scan plane parameters that contain regions of the anatomic landmark-of-interest, wherein the image construct generated from localizer or scout images comprises the localizer or scout images combined in a three-dimensional localizer volume parameterized to serve as input to the scan plane artificial neural network; and acquiring one or more diagnostic images using the one or more image scan planes or image scan plane parameters. acquiring a plurality of localizer or scout images using an imaging system; providing the plurality of localizer or scout images to a localizer artificial neural network trained to select a subset of the localizer or scout images for detection and visualization of an anatomic landmark-of-interest based on the image contents of the subset of localizer or scout images, wherein the localizer artificial neural network is trained to select a respective localizer or scout image based at least partly on whether it depicts the anatomic landmark-of-interest; processing the subset of localizer or scout images or an image construct generated from the localizer or scout images using a scan plane artificial neural network trained to determine one or more image scan planes or image scan plane parameters that contain regions of the anatomic landmark-of-interest, wherein the image construct generated from localizer or scout images comprises the localizer or scout images combined in a three-dimensional localizer volume parameterized to serve as input to the scan plane artificial neural network; and acquiring one or more diagnostic images using the one or more image scan planes or image scan plane parameters.
A method for acquiring headcount, comprising: acquiring data frames from a surveillance video, setting object models in the data frames, and extracting a foreground image from the data frames, wherein the foreground image comprises moving objects extracted from the data frames; matching the moving objects in the foreground image with the object models, acquiring the headcount in corresponding data frames according to a result of the matching, extracting characteristics of the matched moving objects, and tracking the corresponding moving objects based on the characteristics; and acquiring the actual headcount for a predetermined time segment of the surveillance video based on a result of the tracking and the acquired headcount for each of the data frames, wherein the result of the tracking comprises: an indication of whether some or all of the data frames includes a same moving object or not; wherein the object models are a set of matched characteristics of persons, each corresponding to a shape of persons in a different state. acquiring data frames from a surveillance video, setting object models in the data frames, and extracting a foreground image from the data frames, wherein the foreground image comprises moving objects extracted from the data frames; matching the moving objects in the foreground image with the object models, acquiring the headcount in corresponding data frames according to a result of the matching, extracting characteristics of the matched moving objects, and tracking the corresponding moving objects based on the characteristics; and acquiring the actual headcount for a predetermined time segment of the surveillance video based on a result of the tracking and the acquired headcount for each of the data frames, wherein the result of the tracking comprises: an indication of whether some or all of the data frames includes a same moving object or not;
Seat for agricultural vehicles, comprising: - a seating surface adapted to receive a user; - a backrest adaptable according to the user needs, said backrest comprising a shoulder portion and a lower lumbar portion; - a support structure configured to connect said seating surface to said backrest; wherein said lumbar portion is movable along said support structure, said shoulder portion remaining at a fixed height with respect to said support structure, said lumbar portion comprising a lumbar support adjustable at least in depth along a transverse direction, perpendicular to a lying plane of said backrest; characterized in that said backrest comprises inflatable lateral elements for containment having a variable geometry, wherein said lateral elements are placed in the lumbar portion. - a seating surface adapted to receive a user; - a backrest adaptable according to the user needs, said backrest comprising a shoulder portion and a lower lumbar portion; - a support structure configured to connect said seating surface to said backrest;
An absorbable iron-based alloy stent, comprising an iron-based alloy substrate and a degradable polyester in contact with the surface of the substrate, wherein the degradable polyester has a weight average molecular weight in the range of 20,000 to 1,000,000 and a polydispersity index more than or equal to 1.2 and less than or equal to 30, or more than 1.0 and less than 1.2, or more than 30 and less than or equal to 50, and wherein the surface of the iron-based alloy substrate is coated with degradable polyester in the form of a coating layer, characterized in that when a wall thickness of the iron-based alloy substrate is more than or equal to 30 μm and less than 50 μm, a thickness of the degradable polyester coating layer is more than or equal to 3 μm and less than 5 μm, or more than or equal to 5 μm and less than 10 μm, or more than or equal to 10 μm and less than 15 μm, or more than or equal to 15 μm and less than or equal to 20 μm; or when the wall thickness of the iron-based alloy substrate is more than or equal to 50 μm and less than 100 μm, the thickness of the degradable polyester coating layer is more than or equal to 5 μm and less than 10 μm, or more than or equal to 10 μm and less than 15 μm, or more than or equal to15 μm and less than 20 μm, or more than or equal to 20 μm and less than or equal to 25 μm; or when the wall thickness of the iron-based alloy substrate is more than or equal to 100 μm and less than 200 μm, the thickness of the degradable polyester coating layer is more than or equal to 10 μm and less than 15 μm, or more than or equal to 15 μm and less than 20 μm, or more than or equal to 20 μm and less than 25 μm, or more than or equal to 25 μm and less than or equal to 35 μm; or when the wall thickness of the iron-based alloy substrate is more than or equal to 200 μm and less than or equal to 300 μm, and the thickness of the degradable polyester coating layer is more than or equal to 10 μm and less than 15 μm, or more than or equal to 15 μm and less than 20 μm, or more than or equal to 20 μm and less than 25 μm, or more than or equal to 25 μm or less than 35 μm, or more than or equal to 35 μm and less than or equal to 45 μm.