mhurhangee/ep-ind-claims huggingface dataset:
A prosthesis for implantation within a body lumen, the prosthesis comprising: a tubular graft of a graft material; a stent comprised of a plurality of crowns and a plurality of struts with each crown being formed between a pair of opposing struts, the stent being coupled to the graft material proximate to an end of the tubular graft so as to have a first set of crowns adjacent to the end of the tubular graft and a second set of crowns distant from the end of the tubular graft relative to the first set of crowns; a pair of stoppers coupled adjacent to each crown of the first set of crowns, wherein each stopper has a tubular configuration and is attached to a respective one of the pair of opposing struts that the crown is formed between; and at least one stitch (226, 228) made adjacent to each end of each stopper, wherein the stiches secure a longitudinal position of the graft material relative to each stopper characterised in that the strut it is attached to the graft such that the first set of crowns are covered by and free of direct attachment to the graft material of the tubular graft. a tubular graft of a graft material; a stent comprised of a plurality of crowns and a plurality of struts with each crown being formed between a pair of opposing struts, the stent being coupled to the graft material proximate to an end of the tubular graft so as to have a first set of crowns adjacent to the end of the tubular graft and a second set of crowns distant from the end of the tubular graft relative to the first set of crowns; a pair of stoppers coupled adjacent to each crown of the first set of crowns, wherein each stopper has a tubular configuration and is attached to a respective one of the pair of opposing struts that the crown is formed between; and at least one stitch (226, 228) made adjacent to each end of each stopper, wherein the stiches secure a longitudinal position of the graft material relative to each stopper characterised in that the strut it is attached to the graft such that the first set of crowns are covered by and free of direct attachment to the graft material of the tubular graft.
A method (200, 600, 640, 700, 800, 1000, 1100, 1200, 1300) comprising: receiving (202, 604, 704, 644, 804, 1004, 1104, 1204, 1304) sensor data; sorting (204, 608, 648, 708, 808, 1008, 1108, 1208, 1308) the sensor data into a gather representation that corresponds to a plurality of shots of an energy source; determining (205, 610, 648, 710, 812, 1012, 1110, 1212, 1310) a signal cone (508, 524, 536) based at least in part on an additional travel path between traces for different shots of the plurality of shots by the energy source; and processing (206, 612, 652, 720, 820, 1020, 1124, 1212, 1312) the sensor data in a processor-based machine to attenuate noise to generate (206, 612, 652, 720, 828, 1028, 1132, 1216, 1312) data representing a signal based at least in part on the determined signal cone and the gather representation; wherein said step of processing the sensor data comprises applying a filter outside of the signal cone to attenuate said noise; characterised in that: in said step of sorting the sensor data, it is determined that the noise is random or incoherent with respect to the signal in said gather and that the random nature of the noise causes more energy to be mapped outside the signal cone in said gather (520, 530) compared to other gathers. receiving (202, 604, 704, 644, 804, 1004, 1104, 1204, 1304) sensor data; sorting (204, 608, 648, 708, 808, 1008, 1108, 1208, 1308) the sensor data into a gather representation that corresponds to a plurality of shots of an energy source; determining (205, 610, 648, 710, 812, 1012, 1110, 1212, 1310) a signal cone (508, 524, 536) based at least in part on an additional travel path between traces for different shots of the plurality of shots by the energy source; and processing (206, 612, 652, 720, 820, 1020, 1124, 1212, 1312) the sensor data in a processor-based machine to attenuate noise to generate (206, 612, 652, 720, 828, 1028, 1132, 1216, 1312) data representing a signal based at least in part on the determined signal cone and the gather representation; wherein said step of processing the sensor data comprises applying a filter outside of the signal cone to attenuate said noise; characterised in that: in said step of sorting the sensor data, it is determined that the noise is random or incoherent with respect to the signal in said gather and that the random nature of the noise causes more energy to be mapped outside the signal cone in said gather (520, 530) compared to other gathers.
An article comprising: a substrate; and an environmental barrier coating disposed over the substrate, wherein the environmental barrier coating comprises at least one hermetic self-sealing layer formed from a mixture comprising an alkaline earth metal aluminosilicate in an amount of between 10 volume percent and 50 volume percent of the mixture and a rare-earth silicate in an amount of between 50 volume percent and 90 volume percent of the mixture, wherein the at least one hermetic self-sealing layer exhibits substantially no net remnant or residual expansion when subjected to high temperature heat treatment, wherein the expression substantially no net remnant or residual expansion refers to a range of -0.2% to + 0.2% expansion of a subject coating layer when measured on a freestanding body of the as-deposited subject coating layer via dilatometer when it is heated for the "first time" to a temperature in the range of 800°C to 1350°C, wherein the freestanding body is a freestanding body of mainly amorphous as-deposited air plasma sprayed coating material; and wherein the environmental barrier coating is an air plasma sprayed environmental barrier coating. a substrate; and an environmental barrier coating disposed over the substrate, wherein the environmental barrier coating comprises at least one hermetic self-sealing layer formed from a mixture comprising an alkaline earth metal aluminosilicate in an amount of between 10 volume percent and 50 volume percent of the mixture and a rare-earth silicate in an amount of between 50 volume percent and 90 volume percent of the mixture, wherein the at least one hermetic self-sealing layer exhibits substantially no net remnant or residual expansion when subjected to high temperature heat treatment, wherein the expression substantially no net remnant or residual expansion refers to a range of -0.2% to + 0.2% expansion of a subject coating layer when measured on a freestanding body of the as-deposited subject coating layer via dilatometer when it is heated for the "first time" to a temperature in the range of 800°C to 1350°C, wherein the freestanding body is a freestanding body of mainly amorphous as-deposited air plasma sprayed coating material; and wherein the environmental barrier coating is an air plasma sprayed environmental barrier coating.
A method of producing a non-human heterogeneous inseminate, comprising the steps of: a) obtaining a first amount of sperm of a first animal; b) obtaining a second amount of sperm of a second animal, said first animal and said second animal of the same species, wherein only said first amount of sperm of said first animal or only said second amount of sperm of said second animal comprises an amount of sex selected sperm; and c) combining said first amount of sperm of said first animal with said second amount of sperm of said second animal. a) obtaining a first amount of sperm of a first animal; b) obtaining a second amount of sperm of a second animal, said first animal and said second animal of the same species, wherein only said first amount of sperm of said first animal or only said second amount of sperm of said second animal comprises an amount of sex selected sperm; and c) combining said first amount of sperm of said first animal with said second amount of sperm of said second animal.
Housing contacting system of a control device, comprising the following: - a housing cover and a base element which together define an interior of the control device; and - a printed circuit board having a front side and a rear side, wherein a conductive surface layer is formed on the rear side and the printed circuit board is arranged in the interior, characterized by: - a spring element which is at least partially electrically conductive and is arranged between the conductive surface layer and the base element under spring prestress in order to implement rear-side contacting of the printed circuit board, wherein the spring element is firmly fixed on the base element at least in respect of lateral movement parallel to the printed circuit board and rests loosely on the rear side of the printed circuit board, and the printed circuit board on the rear side has a tin-plated surface i.e. surface layer. - a housing cover and a base element which together define an interior of the control device; and - a printed circuit board having a front side and a rear side, wherein a conductive surface layer is formed on the rear side and the printed circuit board is arranged in the interior, - a spring element which is at least partially electrically conductive and is arranged between the conductive surface layer and the base element under spring prestress in order to implement rear-side contacting of the printed circuit board, wherein the spring element is firmly fixed on the base element at least in respect of lateral movement parallel to the printed circuit board and rests loosely on the rear side of the printed circuit board, and the printed circuit board on the rear side has a tin-plated surface i.e. surface layer.
A method for manufacturing a valve body of a cavity valve with optimized shaft interior geometry, comprising the following steps: providing a bowl-shaped semi-finished product, wherein the semi-finished product has an annular wall, that surrounds a cylindrical cavity of the semi-finished product, and a base portion; forming a valve head from the base portion; lengthening the annular wall in an axial direction by forming, wherein a mandrel is inserted into the cylindrical cavity during the forming, wherein an outer surface of the mandrel has a structuring; reducing an outer diameter of the annular wall by rotary swaging without mandrel to obtain a valve stem of the finished valve body having predetermined outer diameter, wherein multiple mandrels of different diameters, having successively decreasing diameters, are used during lengthening of the annular wall and wherein at least the last used mandrel has an outer surface with structuring. providing a bowl-shaped semi-finished product, wherein the semi-finished product has an annular wall, that surrounds a cylindrical cavity of the semi-finished product, and a base portion; forming a valve head from the base portion; lengthening the annular wall in an axial direction by forming, wherein a mandrel is inserted into the cylindrical cavity during the forming, wherein an outer surface of the mandrel has a structuring; reducing an outer diameter of the annular wall by rotary swaging without mandrel to obtain a valve stem of the finished valve body having predetermined outer diameter, wherein multiple mandrels of different diameters, having successively decreasing diameters, are used during lengthening of the annular wall and wherein at least the last used mandrel has an outer surface with structuring.
A transducer structure for a surface acoustic wave device, formed on an acoustic wave propagating substrate (210, 310, 410, 502, 610), said transducer structure being adapted to coupling to an electrical load and/or source, comprising: a pair of inter-digitated comb electrodes (402, 404, 602, 604) formed on said substrate (410, 502, 610), wherein said pair of inter-digitated comb electrodes (402, 404, 602, 604) comprises neighbouring electrode means (406, 408, 606, 608) belonging to different comb electrodes (402, 404, 602, 604) and having a pitch p being defined as the edge-to-edge electrode means distance between two neighbouring electrode means (406, 408, 606, 608), the pitch p satisfying the Bragg condition given by p = λ / 2, λ being the operating acoustic wavelength of said transducer, and wherein the electrode means (406, 408, 606, 608) all have the same geometry; wherein said pair of inter-digitated comb electrodes (402, 404, 602, 604) comprises at least two regions ( 416, 614) in which two or more neighbouring electrode means (406, 408, 606, 608) belong to the same comb electrode (402, 404, 602, 604) while having an edge-to-edge distance to each other corresponding to the pitch p and having the same geometry; and characterized in that the number of neighbouring electrode means (406, 408, 606, 608) belonging to the same comb electrode (402, 404, 602, 604) is different amongst at least two regions (416, 614) of the at least two or more regions in which two or more neighbouring electrode means (406, 408, 606, 608) belong to the same comb electrode (402, 404, 602, 604). a pair of inter-digitated comb electrodes (402, 404, 602, 604) formed on said substrate (410, 502, 610), wherein said pair of inter-digitated comb electrodes (402, 404, 602, 604) comprises neighbouring electrode means (406, 408, 606, 608) belonging to different comb electrodes (402, 404, 602, 604) and having a pitch p being defined as the edge-to-edge electrode means distance between two neighbouring electrode means (406, 408, 606, 608), the pitch p satisfying the Bragg condition given by p = λ / 2, λ being the operating acoustic wavelength of said transducer, and wherein the electrode means (406, 408, 606, 608) all have the same geometry; wherein said pair of inter-digitated comb electrodes (402, 404, 602, 604) comprises at least two regions ( 416, 614) in which two or more neighbouring electrode means (406, 408, 606, 608) belong to the same comb electrode (402, 404, 602, 604) while having an edge-to-edge distance to each other corresponding to the pitch p and having the same geometry; and characterized in that the number of neighbouring electrode means (406, 408, 606, 608) belonging to the same comb electrode (402, 404, 602, 604) is different amongst at least two regions (416, 614) of the at least two or more regions in which two or more neighbouring electrode means (406, 408, 606, 608) belong to the same comb electrode (402, 404, 602, 604).
Refrigeration appliance, in particular household refrigeration appliance, having an evaporation tray and a live cable which can be placed in an air space above the evaporation tray, wherein a support grid extends above a water level of the evaporation tray, characterised in that the support grid has an open-edged recess in which a compressor is arranged.
A device for converting kinetic energy into electrical energy, comprising: a pendulum which includes a pendulum rod and a pendulum weight and is suspended in oscillating fashion on a shaft, wherein the pendulum is suspended in a tiltable frame, the tilt axis of which is located below an oscillation path of the pendulum and parallel to the pendulum axis, and wherein a push rod of a hydraulic or pneumatic drive cylinder supplied with energy for the pendulum drive is connected to the frame, and the drive cylinder is pivotably connected to the elements of the device that convert the electrical energy, characterised in that the device comprises a generator connected to the shaft and configured to convert the rotational energy of the pendulum into electrical energy, wherein there are furthermore means by which the pendulum is rigidly connected to the shaft when it oscillates in a predetermined direction.
Method for preparing a dough product, comprising subjecting a dough to a heat-treatment, wherein the dough has been prepared by mixing water, non-pelletized flour and one or more pellets comprising 40-99 wt.% pelletized flour, 1-60 wt.% active ingredient, 0-5 wt.% yeast extract and 0-10 wt.% other ingredients, wherein the active ingredient is a flavour compound, which flavour compound is a salt.
User equipment, UE, (150; 400) comprising: a processor; and a transceiver; wherein the processor is arranged to: receive a request to send a small data payload to the UE (150; 400) from the transceiver; instruct the transceiver to send a Radio Resource Control, RRC, Connection Request message to an evolved Node B, eNB; receive an RRC Connection Setup message from the eNB from the transceiver, wherein the RRC Connection Setup message comprises the small data payload; instruct the transceiver to send an RRC Connection Setup Complete message to the eNB, characterized in that, if the UE does not have any uplink data to convey to the eNB, the RRC Connection Setup Complete message comprises an RRC release indicator to indicate the UE's intention to release a connection with the eNB; and receive an RRC Connection Release message from the eNB from the transceiver, as an affirmative response to the RRC release indicator. a processor; and a transceiver; wherein the processor is arranged to: receive a request to send a small data payload to the UE (150; 400) from the transceiver; instruct the transceiver to send a Radio Resource Control, RRC, Connection Request message to an evolved Node B, eNB; receive an RRC Connection Setup message from the eNB from the transceiver, wherein the RRC Connection Setup message comprises the small data payload; instruct the transceiver to send an RRC Connection Setup Complete message to the eNB, receive a request to send a small data payload to the UE (150; 400) from the transceiver; instruct the transceiver to send a Radio Resource Control, RRC, Connection Request message to an evolved Node B, eNB; receive an RRC Connection Setup message from the eNB from the transceiver, wherein the RRC Connection Setup message comprises the small data payload; instruct the transceiver to send an RRC Connection Setup Complete message to the eNB, characterized in that, if the UE does not have any uplink data to convey to the eNB, the RRC Connection Setup Complete message comprises an RRC release indicator to indicate the UE's intention to release a connection with the eNB; and receive an RRC Connection Release message from the eNB from the transceiver, as an affirmative response to the RRC release indicator.
A separating element (100; 102; 104) for separating oil aerosol particles from raw gas, wherein the separating element (100; 102; 104) features - at least one filter medium, in particular at least one coalescence filter medium folded several times, for example in a zigzag shape, - at least one cuboid-shaped frame for accommodating the filter medium, and - at least one grip element designed for handling the combination of filter medium and frame, said grip element being disposed on a front side of the frame facing the user in the position of use of the separating element (100; 102; 104), characterized in that the grip element is at least one long, narrow, closed grip band, which is both disposed on the front side of the frame and also disposed around the filter medium in such a way that, when handling the combination of filter medium and frame, the grip band supports the weight of the filter medium. - at least one filter medium, in particular at least one coalescence filter medium folded several times, for example in a zigzag shape, - at least one cuboid-shaped frame for accommodating the filter medium, and - at least one grip element designed for handling the combination of filter medium and frame, said grip element being disposed on a front side of the frame facing the user in the position of use of the separating element (100; 102; 104),
A therapeutic composition, comprising an isolated aminoacyl-tRNA synthetase (AARS) polypeptide of 140 to 300 amino acids in length and comprising an amino acid sequence that is at least 90%, 95%, 98%, or 100% identical to SEQ ID NO:45, 12, 19, or 43, wherein the polypeptide has an extracellular signaling activity and has a solubility of at least 5 mg/mL, and wherein the composition has a purity of at least 95% on a protein basis and less than 10 EU endotoxin / mg protein.
A circuit for detecting a shifted frequency, comprising: a path selection unit for measuring a delay profile of a spread signal that has passed through a plurality of paths, and searching and selecting an optimum path from among said plurality of paths wherein the optimum path is selected based on an estimated value of an averaged delay profile and has a highest level of the received signal; a plurality of finger processing units for reverse spreading the spread signal of each path, which is allocated by said path selection unit, by a spread code replica, obtaining a channel estimated value including at least a phase variation component with respect to said path by using a given pilot symbol that is included in the signal after the reverse spread, and carrying out coherent detection by using said channel estimated value; a phase difference measuring unit for measuring a phase difference wherein the phase difference is determined by the difference between phase variation components obtained from different pilot symbols within a given time slot or between successive time slots by each of said finger processing units; a path timing difference measuring unit for measuring a periodical path timing difference from the averaged delay profile information and a reference clock; a frequency error detecting unit for detecting a frequency error of said signal by using said path timing difference and said phase difference; and a Doppler frequency detecting unit for detecting a Doppler frequency on the basis of said frequency error. a path selection unit for measuring a delay profile of a spread signal that has passed through a plurality of paths, and searching and selecting an optimum path from among said plurality of paths wherein the optimum path is selected based on an estimated value of an averaged delay profile and has a highest level of the received signal; a plurality of finger processing units for reverse spreading the spread signal of each path, which is allocated by said path selection unit, by a spread code replica, obtaining a channel estimated value including at least a phase variation component with respect to said path by using a given pilot symbol that is included in the signal after the reverse spread, and carrying out coherent detection by using said channel estimated value; a phase difference measuring unit for measuring a phase difference wherein the phase difference is determined by the difference between phase variation components obtained from different pilot symbols within a given time slot or between successive time slots by each of said finger processing units; a path timing difference measuring unit for measuring a periodical path timing difference from the averaged delay profile information and a reference clock; a frequency error detecting unit for detecting a frequency error of said signal by using said path timing difference and said phase difference; and a Doppler frequency detecting unit for detecting a Doppler frequency on the basis of said frequency error.