mhurhangee/ep-ind-claims huggingface dataset:
Regulating member for a timepiece movement, comprising: - a flywheel rotationally secured to an arbor extending in an axial direction; - a hairspring fixed to said arbor via a collet fixed to one end of said hairspring; wherein said collet comprises a receiving zone arranged to receive said arbor, this receiving zone being delimited at least partially by a positioning surface and at least by two holding surfaces, at least one of which is movable against a return force, the holding surfaces being arranged to clamp said arbor against said positioning surface, wherein said arbor comprises a portion of non-circular cross section, said holding surfaces and said positioning surface cooperating with said portion in order to clamp this latter, characterized in that said receiving zone comprises a first sub-zone shaped so as to allow the insertion of said arbor in said axial direction, and a second sub-zone adjacent to, and in communication with, said first sub-zone, said second sub-zone being arranged to clamp said portion, said holding surfaces and said portion being arranged so as to allow said arbor to be moved laterally in translation from said first sub-zone in order to enter into said second sub-zone. - a flywheel rotationally secured to an arbor extending in an axial direction; - a hairspring fixed to said arbor via a collet fixed to one end of said hairspring; wherein said collet comprises a receiving zone arranged to receive said arbor, this receiving zone being delimited at least partially by a positioning surface and at least by two holding surfaces, at least one of which is movable against a return force, the holding surfaces being arranged to clamp said arbor against said positioning surface,
A method for wireless communication performed by a mobile station, comprising: receiving, at the mobile station, a set of pilot symbols on a first a number of resource elements during a transmission time interval, TTI, from a base station; determining, at the mobile station, that the set of pilot symbols is corrupted; transmitting, from the mobile station to the base station, a request for retransmission of the set of pilot symbols; and receiving, at the mobile station from the base station, a retransmission of the set of pilot symbols on a second number of resource elements during a second TTI, wherein the first TTI and the second TTI comprise the same number of resource elements, and wherein the first number of resource elements is different than the second number of resource elements. receiving, at the mobile station, a set of pilot symbols on a first a number of resource elements during a transmission time interval, TTI, from a base station; determining, at the mobile station, that the set of pilot symbols is corrupted; transmitting, from the mobile station to the base station, a request for retransmission of the set of pilot symbols; and receiving, at the mobile station from the base station, a retransmission of the set of pilot symbols on a second number of resource elements during a second TTI, wherein the first TTI and the second TTI comprise the same number of resource elements, and wherein the first number of resource elements is different than the second number of resource elements.
A high-throughput method of assessing bactericidal activity of a sample comprising: (a) providing a sealed, non-gel fluid comprising an amount of a pathogen, a sample, a potentiator, and a metabolic indicator, wherein the pathogen, sample and potentiator have been incubated for a time period sufficient for the sample to kill a portion of the pathogen if the sample comprises bactericidal or opsonic activity; (b) measuring the metabolic indicator at three or more time points during a second incubation; and (c) assessing the bactericidal activity using the measurements at the three or more time points. (a) providing a sealed, non-gel fluid comprising an amount of a pathogen, a sample, a potentiator, and a metabolic indicator, wherein the pathogen, sample and potentiator have been incubated for a time period sufficient for the sample to kill a portion of the pathogen if the sample comprises bactericidal or opsonic activity; (b) measuring the metabolic indicator at three or more time points during a second incubation; and (c) assessing the bactericidal activity using the measurements at the three or more time points.
A digital signal receiver for receiving a required data stream from a digital signal carrying multiple data streams by modulation of respective frequency bands of sub-carriers of one or more Orthogonal Frequency Division Multiplexed, OFDM, symbols, each within a respective one of a group of frequency channels (200, 300), the frequency bands (330, 332, 350) occupying no more than a predetermined receiver bandwidth less than or equal to the channel width; the digital signal carrying channel information defining a centre frequency (240, 340) of each of the respective frequency channels (200, 300) and carrying at respective frequency positions within each frequency channel and repeated from time to time, multiple instances of identical band information defining receiver parameters including at least the frequency bands (330, 332, 350) corresponding to all of the groups of adjacent sub-carriers of the one or more OFDM symbols which are carrying data payloads of the data streams within that frequency channel, the instances of identical band information being arranged so that any portion of the frequency channel equal in extent to the predetermined receiver bandwidth includes at least one instance of the identical band information; in which the digital signal receiver is operable to receive the channel information, to detect the centre frequency (240, 340) of each of the respective frequency channels (200 300), to align its receiver bandwidth with one of the frequency channels (200 300) using the detected centre frequency (240, 340), so as to receive, from within that channel, an instance of the identical band information, and then in response to the received band information, to align its receiver bandwidth so as to encompass the frequency band (330, 332, 350) of the groups of sub-carriers carrying a data payload to recover a required data stream.
An apparatus of transmitter for hybrid beamforming in a wireless environment, the apparatus comprising: a baseband precoder; a plurality of radio frequency, RF, chains operatively coupled the baseband precoder; phase shifter sets respectively comprising a plurality of phase shifters, each of the phase shifter sets operatively coupled each of the plurality of RF chains; and antenna sets respectively comprising a plurality of antennas, each of the plurality antennas operatively coupled to each of the plurality of phase shifters; wherein the baseband precoder is configured to generate data streams by applying beamforming weights to a plurality of data signals, wherein each of the plurality of RF chains is configured to generate a plurality of signals for each of the data streams, and wherein each of the plurality of signals is transmitted by each of the plurality antennas via each of the plurality of phase shifters. a baseband precoder; a plurality of radio frequency, RF, chains operatively coupled the baseband precoder; phase shifter sets respectively comprising a plurality of phase shifters, each of the phase shifter sets operatively coupled each of the plurality of RF chains; and antenna sets respectively comprising a plurality of antennas, each of the plurality antennas operatively coupled to each of the plurality of phase shifters; wherein the baseband precoder is configured to generate data streams by applying beamforming weights to a plurality of data signals, wherein each of the plurality of RF chains is configured to generate a plurality of signals for each of the data streams, and wherein each of the plurality of signals is transmitted by each of the plurality antennas via each of the plurality of phase shifters.
A molding, comprising a mixed oxide, wherein the mixed oxide comprises oxygen, lanthanum, aluminum, and cobalt, wherein in the mixed oxide, the weight ratio of cobalt relative to aluminum, calculated as elements, is at least 0.17:1, and wherein from 17.5 to 20 weight-% of the mixed oxide consist of lanthanum, calculated as element.
An implantable stimulation device, comprising: a coil; at least one electrode for providing stimulation pulses to a patient's tissue; telemetry circuitry configured to communicate with an external device; compliance voltage generation circuitry configured to produce from a battery voltage a first voltage at the at least one electrode; and arbitration logic, wherein the arbitration logic is configured to grant the telemetry circuitry access to the coil to enable communication with an external device during at least a portion of an inter-pulse period between successive stimulation pulses, wherein the arbitration logic is configured to enable the telemetry circuitry during at least the portion of the inter-pulse period, but not during a portion of the inter-pulse period when the compliance voltage generation circuitry has access to the coil. a coil; at least one electrode for providing stimulation pulses to a patient's tissue; telemetry circuitry configured to communicate with an external device; compliance voltage generation circuitry configured to produce from a battery voltage a first voltage at the at least one electrode; and arbitration logic, wherein the arbitration logic is configured to grant the telemetry circuitry access to the coil to enable communication with an external device during at least a portion of an inter-pulse period between successive stimulation pulses, wherein the arbitration logic is configured to enable the telemetry circuitry during at least the portion of the inter-pulse period, but not during a portion of the inter-pulse period when the compliance voltage generation circuitry has access to the coil.
Method for operating an automatic door system using an analysis unit, wherein the door system comprises at least one door, at least one drive unit for actuating the at least one door, a camera and a control unit for controlling the drive unit, wherein the analysis unit comprises a measure module and an adaption module, and wherein the method comprises the following steps: - capturing at least one recording by the camera, wherein the recording includes at least the area in front of the door, - transmitting the recording to the analysis unit, - recognizing at least one object by the analysis unit, - determining a measure based on the at least one recognized object and an expected behavior of the object using the measure module, - controlling the drive unit according to the determined measure, characterized in that the method further comprises the following steps: - continuing to capture the recording after the measure has been determined, - recognizing the actual behavior of the object in the recording after the drive unit has been controlled according to the determined measure, - determining a deviation of the actual behavior of the object from an expected behavior of the object, and - adapting the measure module based on the deviation by the adaption module. - capturing at least one recording by the camera, wherein the recording includes at least the area in front of the door, - transmitting the recording to the analysis unit, - recognizing at least one object by the analysis unit, - determining a measure based on the at least one recognized object and an expected behavior of the object using the measure module, - controlling the drive unit according to the determined measure, - continuing to capture the recording after the measure has been determined, - recognizing the actual behavior of the object in the recording after the drive unit has been controlled according to the determined measure, - determining a deviation of the actual behavior of the object from an expected behavior of the object, and - adapting the measure module based on the deviation by the adaption module.
A method for using a ceramic filter that is used to separate a target permeable substance from a mixed fluid and that includes a pillar-shaped porous body having a circumferential surface, and having a plurality of through channels extending through the porous body from a first end face to a second end face and formed in rows, and a separation membrane disposed on each of inner wall surfaces of at least part of the plurality of through channels, wherein some of the plurality of through channels are water collecting cells whose open ends in the first end face and the second end face are plugged by plugging members, further wherein water collecting slits is disposed to open in the circumferential surface of the porous body so that the water collecting cells communicate with an external space, and wherein the water collecting cells are arranged to form at least one row in end faces of the porous body, the method for using the ceramic filter comprising: disposing through channel division means along a row in which the water collecting cells are arranged in at least one of the end faces of the porous body in a state where the through channel division means is in contact with the row, and dividing the plurality of through channels into a plurality of zones including an outward path and a return path by use of the through channel division means so that the mixed fluid undergoes, at least once, a passing process of passing through the outward path in which the mixed fluid flows from the first end face to the second end face of the ceramic filter, returning and then passing through the return path in which the mixed fluid flows from the second end face to the first end face, and collecting the target permeable substance after the target permeable substance permeates the separation membrane. disposing through channel division means along a row in which the water collecting cells are arranged in at least one of the end faces of the porous body in a state where the through channel division means is in contact with the row, and dividing the plurality of through channels into a plurality of zones including an outward path and a return path by use of the through channel division means so that the mixed fluid undergoes, at least once, a passing process of passing through the outward path in which the mixed fluid flows from the first end face to the second end face of the ceramic filter, returning and then passing through the return path in which the mixed fluid flows from the second end face to the first end face, and collecting the target permeable substance after the target permeable substance permeates the separation membrane.
A system for determining the capacitance between opposing electrodes of a dielectric elastomer actuator (DEA, 10), comprising: a DEA monitoring circuit to obtain feedback information regarding the electrical behaviour of the DEA; characterized in that the system comprises computation means adapted to calculate the capacitance of the DEA as the difference between the total instantaneous current through the DEA and the product of the voltage difference across the DEA and an error term, said difference being divided by the first derivative of the voltage difference across the DEA with respect to time. a DEA monitoring circuit to obtain feedback information regarding the electrical behaviour of the DEA; characterized in that the system comprises computation means adapted to calculate the capacitance of the DEA as the difference between the total instantaneous current through the DEA and the product of the voltage difference across the DEA and an error term, said difference being divided by the first derivative of the voltage difference across the DEA with respect to time.
An optical connector comprising: a lens that collects an entering light signal to a light transmission path or a light detection unit; a housing that retains a plurality of the lenses and the light transmission path or the light detection unit and that is configured to be coupled to a transmission side optical connector of the light signal; and an attachment portion (316L, 316R) provided in an array direction of the plurality of lenses, for attaching the housing to the transmission side optical connector in an attachable and detachable manner, wherein, in the plurality of lenses, an entrance range of the light signal that is collectable to the light transmission path or the light detection unit is expanded in a direction orthogonal to the array direction of the lenses, wherein the plurality of lenses have an ellipsoidal shape with a short axis in the array direction of the lenses and a long axis in a direction orthogonal to the array direction; a plurality of lens groups including the plurality of arrayed lenses are provided adjacent to each other; the lens groups are arranged as layers; and the attachment portion is provided in the array direction of the plurality of lenses at a center position of the layers. a lens that collects an entering light signal to a light transmission path or a light detection unit; a housing that retains a plurality of the lenses and the light transmission path or the light detection unit and that is configured to be coupled to a transmission side optical connector of the light signal; and an attachment portion (316L, 316R) provided in an array direction of the plurality of lenses, for attaching the housing to the transmission side optical connector in an attachable and detachable manner, wherein, in the plurality of lenses, an entrance range of the light signal that is collectable to the light transmission path or the light detection unit is expanded in a direction orthogonal to the array direction of the lenses, wherein the plurality of lenses have an ellipsoidal shape with a short axis in the array direction of the lenses and a long axis in a direction orthogonal to the array direction; a plurality of lens groups including the plurality of arrayed lenses are provided adjacent to each other; the lens groups are arranged as layers; and the attachment portion is provided in the array direction of the plurality of lenses at a center position of the layers.
A prosthesis deployment system, comprising: a tip body segment coupled to an end of an inner cannula; a tubular segment extending away from the tip body segment, the tubular segment defining a lumen between an internal axial end of the tip body segment and an edge of the tubular segment; an enlarged body slidably disposed within the lumen of the tubular segment, the enlarged body coupled to an end of a concentric cannula that is coaxially disposed about the inner cannula; and a positioning member at least partially disposed within the lumen of the tubular segment, having a first member end coupled to one of the enlarged body or the tip body segment, the positioning member deployable when the enlarged body is at a position corresponding to the edge of the tubular segment. a tip body segment coupled to an end of an inner cannula; a tubular segment extending away from the tip body segment, the tubular segment defining a lumen between an internal axial end of the tip body segment and an edge of the tubular segment; an enlarged body slidably disposed within the lumen of the tubular segment, the enlarged body coupled to an end of a concentric cannula that is coaxially disposed about the inner cannula; and a positioning member at least partially disposed within the lumen of the tubular segment, having a first member end coupled to one of the enlarged body or the tip body segment, the positioning member deployable when the enlarged body is at a position corresponding to the edge of the tubular segment.
A device for verifying challenge-response pairs, comprising: - a coherent light source; - a challenge creating means for creating an optical challenge to be sent to a PUF, wherein the number of photons in the challenge is less than the number of parameters needed to fully describe the setting of the challenge creating means; - a response verifying means for verifying an optical response from a PUF by wavefront shaping; - a focussing means for focussing light from the wavefront shaping onto a detector for detection - the detector for reading out the result of the verification carried out by the response verifying means. - a coherent light source; - a challenge creating means for creating an optical challenge to be sent to a PUF, wherein the number of photons in the challenge is less than the number of parameters needed to fully describe the setting of the challenge creating means; - a response verifying means for verifying an optical response from a PUF by wavefront shaping; - a focussing means for focussing light from the wavefront shaping onto a detector for detection - the detector for reading out the result of the verification carried out by the response verifying means.
A spark plug comprising: a center electrode; a substantially cylindrical insulator provided on a periphery of the center electrode; a grounding electrode arranged such that one end thereof faces the center electrode through a spark discharge gap, wherein the insulator comprises a dense alumina-based sintered body having an average crystal particle diameter of 1.50 μm or more, and wherein the alumina-based sintered body contains: - the Al component in an amount of 92.5 mass% to 97.0 mass% when a whole mass of the alumina-based sintered body is defined as 100 mass%; - an Si component; - a Group 2 element, 2A, component containing Mg and Ba as essential components and further containing at least one other element excluding Mg and Ba in Group 2 elements in a periodic table based on a recommendation of IUPAC 1990; and - a rare earth element, RE, component, characterized in that a ratio of a content S in mass% in terms of oxide, of the Si component to a total content S+A of the content S and a content A in mass% in terms of oxide of the Group 2 element, 2A, component is 0.60 or more. a center electrode; a substantially cylindrical insulator provided on a periphery of the center electrode; a grounding electrode arranged such that one end thereof faces the center electrode through a spark discharge gap, wherein the insulator comprises a dense alumina-based sintered body having an average crystal particle diameter of 1.50 μm or more, and wherein the alumina-based sintered body contains: - the Al component in an amount of 92.5 mass% to 97.0 mass% when a whole mass of the alumina-based sintered body is defined as 100 mass%; - an Si component; - a Group 2 element, 2A, component containing Mg and Ba as essential components and further containing at least one other element excluding Mg and Ba in Group 2 elements in a periodic table based on a recommendation of IUPAC 1990; and - a rare earth element, RE, component, - the Al component in an amount of 92.5 mass% to 97.0 mass% when a whole mass of the alumina-based sintered body is defined as 100 mass%; - an Si component; - a Group 2 element, 2A, component containing Mg and Ba as essential components and further containing at least one other element excluding Mg and Ba in Group 2 elements in a periodic table based on a recommendation of IUPAC 1990; and - a rare earth element, RE, component, characterized in that a ratio of a content S in mass% in terms of oxide, of the Si component to a total content S+A of the content S and a content A in mass% in terms of oxide of the Group 2 element, 2A, component is 0.60 or more.