mhurhangee/ep-ind-claims huggingface dataset:
A device for presenting objects (2, 20, 21), comprising - a depositing surface for depositing at least one object (2, 20, 21), - a camera device for taking at least one image for depicting at least one object (2, 20, 21) deposited on the depositing surface, - a camera lens of the camera device, and - an autofocus unit of the camera device for adjusting the image sharpness of the at least one image, wherein the autofocus unit is formed to set a focus position of the camera lens in dependence on a control parameter, - a control and evaluation unit which is formed to determine a distance value (d1-d8, dm), which indicates a distance (d) between a region (R1-R8) of the at least one object (2, 20, 21) and the camera lens, with reference to a control parameter value (P1-P8, Pm) associated to a set focus position, characterized in that the control and evaluation unit is formed to compare a determined distance value (d1-d8, dm) with an expected distance for a plausibility check, in order to check in dependence on the comparison whether or not the at least one object (2, 20, 21) has correctly been deposited on the depositing surface. - a depositing surface for depositing at least one object (2, 20, 21), - a camera device for taking at least one image for depicting at least one object (2, 20, 21) deposited on the depositing surface, - a camera lens of the camera device, and - an autofocus unit of the camera device for adjusting the image sharpness of the at least one image, wherein the autofocus unit is formed to set a focus position of the camera lens in dependence on a control parameter, - a control and evaluation unit which is formed to determine a distance value (d1-d8, dm), which indicates a distance (d) between a region (R1-R8) of the at least one object (2, 20, 21) and the camera lens, with reference to a control parameter value (P1-P8, Pm) associated to a set focus position,
A medical device delivery system, comprising: an outer sheath; an inner catheter disposed within the outer sheath; an implant releasably coupled to the inner catheter; wherein the implant is configured to shift between a first elongated configuration and a second expanded configuration, the implant comprising a post and a buckle configured to lock the implant in the second expanded configuration, wherein the post and the buckle are attached to the implant; a push-pull rod for shifting the implant between the first configuration and the second, the push-pull rod being coupled to the inner catheter and configured to pull the post into engagement with the buckle; characterized in that a locking assembly is disposed about the push-pull rod, the locking assembly having an interior passageway with a non-circular cross-sectional shape, the interior passageway of the locking assembly being defined - within the buckle coupled to the implant, or - within a collar coupled to the inner catheter, or - within a guide coupled to the inner catheter, or - by a non-circular lumen formed within the inner catheter; wherein at least a portion of an outer surface of the push-pull rod has a non-circular cross-sectional shape; and wherein the interior passageway of the locking assembly with the non-circular cross-sectional shape corresponds to the non-circular cross-sectional shape of the push-pull rod, thereby reducing twisting of the push-pull rod. an outer sheath; an inner catheter disposed within the outer sheath; an implant releasably coupled to the inner catheter; wherein the implant is configured to shift between a first elongated configuration and a second expanded configuration, the implant comprising a post and a buckle configured to lock the implant in the second expanded configuration, wherein the post and the buckle are attached to the implant; a push-pull rod for shifting the implant between the first configuration and the second, the push-pull rod being coupled to the inner catheter and configured to pull the post into engagement with the buckle; characterized in that a locking assembly is disposed about the push-pull rod, the locking assembly having an interior passageway with a non-circular cross-sectional shape, the interior passageway of the locking assembly being defined - within the buckle coupled to the implant, or - within a collar coupled to the inner catheter, or - within a guide coupled to the inner catheter, or - by a non-circular lumen formed within the inner catheter; - within the buckle coupled to the implant, or - within a collar coupled to the inner catheter, or - within a guide coupled to the inner catheter, or - by a non-circular lumen formed within the inner catheter; wherein at least a portion of an outer surface of the push-pull rod has a non-circular cross-sectional shape; and wherein the interior passageway of the locking assembly with the non-circular cross-sectional shape corresponds to the non-circular cross-sectional shape of the push-pull rod, thereby reducing twisting of the push-pull rod.
A method performed by a station, the method comprising: receiving, at the station, a beacon frame that includes a first set of enhanced distributed channel access, EDCA, parameters and a second set of EDCA parameters, wherein the first set of EDCA parameters is included in a first EDCA parameter set information element, IE, of the beacon frame and wherein the second set of EDCA parameters is included in a second EDCA parameter set information element, IE, of the beacon frame, wherein the second set of EDCA parameters includes delta values to be used in conjunction with the first set of EDCA parameters to update EDCA parameters; and selecting, either the first set of EDCA parameters or the second set of EDCA parameters to apply to communication of data, based on one or more characteristics of the station, wherein the one or more characteristics include whether the station is a sensor device or a non-sensor device. receiving, at the station, a beacon frame that includes a first set of enhanced distributed channel access, EDCA, parameters and a second set of EDCA parameters, wherein the first set of EDCA parameters is included in a first EDCA parameter set information element, IE, of the beacon frame and wherein the second set of EDCA parameters is included in a second EDCA parameter set information element, IE, of the beacon frame, wherein the second set of EDCA parameters includes delta values to be used in conjunction with the first set of EDCA parameters to update EDCA parameters; and selecting, either the first set of EDCA parameters or the second set of EDCA parameters to apply to communication of data, based on one or more characteristics of the station, wherein the one or more characteristics include whether the station is a sensor device or a non-sensor device.
A seal device for a door leaf or window casement, wherein the seal device has a rectilinear housing rail and a sealing strip (2, 2', 2", 3, 3') held therein, and wherein the sealing strip (2, 2', 2", 3, 3') has a seal profile which provides sealing downwardly with respect to the ground, characterized in that the seal profile is closed on at least one end side, wherein the seal profile provides end-side sealing with respect to a vertical side face at least on this side.
A synergistic fungicidal mixture comprising a fungicidally effective amount of a compound of Formula I-V and at least one fungicide selected from the group consisting of prothioconazole and prochloraz.
A modular base station, comprising: an outer enclosure configured to interface with an external environment; an inner enclosure comprising circuitry (76,78) configured to perform network operations, wherein the inner enclosure is sealed from the external environment and enclosed; by the outer enclosure; and one or more antennas enclosed by the outer enclosure and external to the inner enclosure, wherein the one or more antennas are communicatively coupled to the circuitry (76,78) of the inner enclosure and enable wireless communications. an outer enclosure configured to interface with an external environment; an inner enclosure comprising circuitry (76,78) configured to perform network operations, wherein the inner enclosure is sealed from the external environment and enclosed; by the outer enclosure; and one or more antennas enclosed by the outer enclosure and external to the inner enclosure, wherein the one or more antennas are communicatively coupled to the circuitry (76,78) of the inner enclosure and enable wireless communications.
An apparatus for investigating a subsurface volume, the apparatus comprising an enclosure configured to be conveyed along a wellbore formed through the subsurface volume; an acoustic transducer disposed in the enclosure and generating acoustical signals; an electronics assembly disposed in the enclosure and controlling the acoustic transducer, the apparatus characterized by: - a lens disposed in the enclosure and next to the acoustic transducer, the lens being positioned to receive the generated acoustical signals from the acoustic transducer, the lens being formed of a plurality of cells, each cell formed as a column oriented transverse to a direction of travel of the acoustical signals, each cell having a hub, a plurality of spokes radiating from the hub, wherein each spoke includes a plurality of fingers circumferentially distributed around the hub, wherein the hub, spokes, and fingers are oriented to cause the acoustic waves to travel at a different speed in each of three orthogonal directions, and wherein the lens is further positioned to direct the acoustic waves into the subsurface volume. - a lens disposed in the enclosure and next to the acoustic transducer, the lens being positioned to receive the generated acoustical signals from the acoustic transducer, the lens being formed of a plurality of cells, each cell formed as a column oriented transverse to a direction of travel of the acoustical signals, each cell having a hub, a plurality of spokes radiating from the hub, wherein each spoke includes a plurality of fingers circumferentially distributed around the hub, wherein the hub, spokes, and fingers are oriented to cause the acoustic waves to travel at a different speed in each of three orthogonal directions, and wherein the lens is further positioned to direct the acoustic waves into the subsurface volume.
An abrasive article comprising ceramic shaped abrasive particles retained in a binder, wherein the ceramic shaped abrasive particles have four major sides (81a, 82a 83a, 84a) joined by six common edges (91a, 92a, 93a, 94a, 95a, 96a), wherein each one of the four major sides contacts three other of the four major sides, and wherein the six common edges have lengths within +/-20 percent of a nominal length. wherein the ceramic shaped abrasive particles have four major sides (81a, 82a 83a, 84a) joined by six common edges (91a, 92a, 93a, 94a, 95a, 96a), wherein each one of the four major sides contacts three other of the four major sides, and wherein the six common edges have lengths within +/-20 percent of a nominal length.
A method for using electrical distortion energy and/or strain energy from an AC mains (L1, L2, L3) serving in particular to supply energy, wherein the distortion and/or strain energy is loaded into an energy store and/or buffered there, and the energy store is discharged, wherein the buffered energy is fed into one or more electrical energy systems, for example back into the AC mains (L1, L2, L3) and/or into an electrical appliance, characterised in that the energy buffered in the energy store is discharged, accompanied by conversion into active energy, with the following steps: - one or more measurement signals or items of measurement data from one or more electrical voltages (UNetz) of the AC mains are received in a control and regulation system, - in the course of evaluation and processing thereof by the control and/or regulation system, the measurement signal(s) or item(s) of measurement data are disassembled into at least one first signal component which contains signal portions corresponding exclusively or substantially to the basic oscillation and/or fundamental frequency in the AC mains (L1, L2, L3), and a second signal component containing the remaining signal portions, - circuit breakers of an inverter are actuated by means of the control and/or regulation system such that the energy store is loaded with a current from the AC mains (L1, L2, L3) which is proportional or directly proportional to the second signal component, - and the circuit breakers of the inverter are actuated by means of the control and/or regulation system such that the energy store is discharged with a current which is proportional or directly proportional to the first signal component. - one or more measurement signals or items of measurement data from one or more electrical voltages (UNetz) of the AC mains are received in a control and regulation system, - in the course of evaluation and processing thereof by the control and/or regulation system, the measurement signal(s) or item(s) of measurement data are disassembled into at least one first signal component which contains signal portions corresponding exclusively or substantially to the basic oscillation and/or fundamental frequency in the AC mains (L1, L2, L3), and a second signal component containing the remaining signal portions, - circuit breakers of an inverter are actuated by means of the control and/or regulation system such that the energy store is loaded with a current from the AC mains (L1, L2, L3) which is proportional or directly proportional to the second signal component, - and the circuit breakers of the inverter are actuated by means of the control and/or regulation system such that the energy store is discharged with a current which is proportional or directly proportional to the first signal component.
Compound represented by the general formula for use in the treatment and/or prevention of a disease accompanying fibrosis, an immunological or inflammatory disease, a central or peripheral nervous system disease, an urologic disease, or a cancer-related disease: wherein A represents, a phenyl ring, a thiophene ring, or an isothiazole ring; R 1 is the same or different, and represents a halogen atom, or a C 1 -C 3 alkyl group; R 2 represents a hydrogen atom, or a C 1 -C 6 alkyl group; p represents an integer of 0 to 5; V represents CR 3 wherein R 3 represents a hydrogen atom, an amino group, a nitro group, or a C 1 -C 3 alkoxy group, or V represents a nitrogen atom; X represents a halogen atom, or a pharmacologically acceptable salt thereof. A represents, a phenyl ring, a thiophene ring, or an isothiazole ring; R 1 is the same or different, and represents a halogen atom, or a C 1 -C 3 alkyl group; R 2 represents a hydrogen atom, or a C 1 -C 6 alkyl group; p represents an integer of 0 to 5; V represents CR 3 wherein R 3 represents a hydrogen atom, an amino group, a nitro group, or a C 1 -C 3 alkoxy group, or V represents a nitrogen atom; X represents a halogen atom,
A method for monitoring the health of a fuel system, comprising: capturing, by a processor and via a fuel temperature sensor, a fuel temperature data; calculating, by the processor, a volumetric fuel flow; calculating, by the processor and via a fuel filter pressure sensor, a fuel filter differential pressure; and characterised by determining, by the processor, a fuel quality rating based on the amount of catalysts, contaminants, and dissolved oxygen in the fuel; and by calculating, by the processor, a fuel lacquer index providing an estimated value of the amount that a fuel system component is blocked or clogged by fuel lacquering particulate, wherein the fuel lacquer index is calculated by comparing the fuel temperature data, the fuel quality rating, the volumetric fuel flow, and the fuel filter differential pressure to a fuel lacquer index model comprising prior measurements and known resulting fuel lacquering; and by generating, by the processor, a warning based on the fuel lacquer index reaching a defined threshold. capturing, by a processor and via a fuel temperature sensor, a fuel temperature data; calculating, by the processor, a volumetric fuel flow; calculating, by the processor and via a fuel filter pressure sensor, a fuel filter differential pressure; and characterised by determining, by the processor, a fuel quality rating based on the amount of catalysts, contaminants, and dissolved oxygen in the fuel; and by calculating, by the processor, a fuel lacquer index providing an estimated value of the amount that a fuel system component is blocked or clogged by fuel lacquering particulate, wherein the fuel lacquer index is calculated by comparing the fuel temperature data, the fuel quality rating, the volumetric fuel flow, and the fuel filter differential pressure to a fuel lacquer index model comprising prior measurements and known resulting fuel lacquering; and by generating, by the processor, a warning based on the fuel lacquer index reaching a defined threshold.
A combination of a crude whole cell H5 protein of clade 1 H5N1 expressed in insect-cells by a baculovirus-based expression system and an inactivated Newcastle disease virus for use in a method of treating or preventing infections with clade 2 H5N1 virus, and wherein said H5 protein of clade 1 H5N1 comprises or consists of a polypeptide sequence having at least 98% sequence identity with the polypeptide sequence of SEQ ID NO:1, wherein said H5 protein of clade 1 H5N1 has the amino acid 223N and the modification 328K+, wherein numbering of the amino acid positions of the H5 protein of clade 1 H5N1 refers to the amino acid position as given in SEQ ID NO:2, and wherein the modification 328K+ means that at amino acid position 328 of H5 protein of clade 1 H5N1 a second Lysine (K+) is inserted.
A communications device comprising: a wireless radio frequency, RF, transceiver; and a controller coupled to said wireless RF transceiver and configured to determine a plurality of received signal characteristics and perform a spectral estimation operation associated with a frequency spectrum thereon, wherein the plurality of received signal characteristics comprises a plurality of received sample values, average the sample values via a windowing operation and a Fast Fourier Transform operation; determine a channel selection method characteristic associated with a channel in the frequency spectrum comprising a plurality of channels, wherein said channel selection method characteristic comprises at least an Automatic Link Establishment, ALE, state characteristic, wherein said ALE state characteristic comprises a communication mode of the communication device comprising at least one of ongoing communication mode, handshake mode, passively scanning mode, dwelling mode, transmitting mode or receiving mode; generate a plurality of statistical values for each channel based upon the plurality of received signal characteristics, ALE state characteristic and signal strength characteristics and select a portion of the frequency spectrum for a signal to be transmitted by said wireless RF transceiver based upon the spectral estimation operation, the plurality of statistical values, and the channel selection method characteristic. a wireless radio frequency, RF, transceiver; and a controller coupled to said wireless RF transceiver and configured to determine a plurality of received signal characteristics and perform a spectral estimation operation associated with a frequency spectrum thereon, wherein the plurality of received signal characteristics comprises a plurality of received sample values, average the sample values via a windowing operation and a Fast Fourier Transform operation; determine a channel selection method characteristic associated with a channel in the frequency spectrum comprising a plurality of channels, wherein said channel selection method characteristic comprises at least an Automatic Link Establishment, ALE, state characteristic, wherein said ALE state characteristic comprises a communication mode of the communication device comprising at least one of ongoing communication mode, handshake mode, passively scanning mode, dwelling mode, transmitting mode or receiving mode; generate a plurality of statistical values for each channel based upon the plurality of received signal characteristics, ALE state characteristic and signal strength characteristics and select a portion of the frequency spectrum for a signal to be transmitted by said wireless RF transceiver based upon the spectral estimation operation, the plurality of statistical values, and the channel selection method characteristic.
A control method of a shape measuring apparatus, comprising: dividing a curve (L_PCC) indicating a movement path of a probe into a plurality of sections; selecting a measurement target section from the plurality of sections sequentially from a starting point side of the curve indicating the movement path of the probe; calculating an estimated maximum curvature of the measurement target section and setting a first equivalent radius as the curvature radius corresponding to the estimated maximum curvature; calculating a second equivalent radius according to an angle between a first straight line connecting a starting point to an ending point of the measurement target section and a second straight line connecting a starting point to an ending point of a section next to the measurement target section; wherein each angle value has an associated data dependence limited speed and the second equivalent radius is calculated according to a predetermined function of the data dependence limiting speed; selecting a smaller value from among the first equivalent radius and the second equivalent radius as an effective radius; and calculating a maximum speed (VBi) of probe movement using the effective radius for the measured target section, wherein the maximum speed (VBi) increases with increasing effective radius for the measurement target section. dividing a curve (L_PCC) indicating a movement path of a probe into a plurality of sections; selecting a measurement target section from the plurality of sections sequentially from a starting point side of the curve indicating the movement path of the probe; calculating an estimated maximum curvature of the measurement target section and setting a first equivalent radius as the curvature radius corresponding to the estimated maximum curvature; calculating a second equivalent radius according to an angle between a first straight line connecting a starting point to an ending point of the measurement target section and a second straight line connecting a starting point to an ending point of a section next to the measurement target section; wherein each angle value has an associated data dependence limited speed and the second equivalent radius is calculated according to a predetermined function of the data dependence limiting speed; selecting a smaller value from among the first equivalent radius and the second equivalent radius as an effective radius; and calculating a maximum speed (VBi) of probe movement using the effective radius for the measured target section, wherein the maximum speed (VBi) increases with increasing effective radius for the measurement target section.