mhurhangee/ep-ind-claims huggingface dataset:
A pre-primary articular implant component for repairing a joint of a patient comprising: (a) an outer, joint-facing surface comprising a bearing surface portion; and (b) an inner, bone-facing surface, wherein either the joint-facing surface or the bone-facing surface, or both includes one or more implant features selected and/or designed from patient-specific data, wherein the patient-specific data includes measurements of one or more anatomical features of the joint of the patient, wherein the one or more implant features are further configured based on one or more normalized patient model or models, and wherein the bone-facing surface is designed to negatively match the patient's articular bone surface that is at least in part an uncut articular bone surface; characterized in that the bone-facing surface is further designed to negatively match one or more patient-engineered bone cuts that are selected and/or designed from patient-specific data to minimize the amount of bone resected in one or more corresponding predetermined resection cuts. (a) an outer, joint-facing surface comprising a bearing surface portion; and (b) an inner, bone-facing surface, wherein either the joint-facing surface or the bone-facing surface, or both includes one or more implant features selected and/or designed from patient-specific data, wherein the patient-specific data includes measurements of one or more anatomical features of the joint of the patient, wherein the one or more implant features are further configured based on one or more normalized patient model or models, and wherein the bone-facing surface is designed to negatively match the patient's articular bone surface that is at least in part an uncut articular bone surface; characterized in that the bone-facing surface is further designed to negatively match one or more patient-engineered bone cuts that are selected and/or designed from patient-specific data to minimize the amount of bone resected in one or more corresponding predetermined resection cuts.
A compound of formula I in which R 1 represents phenyl, methyl, ethyl, propyl, iso-propyl, cyclopropyl, cyclohexyl, X represents the group represents or a salt thereof, particularly a physiologically acceptable salt thereof. R 1 represents phenyl, methyl, ethyl, propyl, iso-propyl, cyclopropyl, cyclohexyl, X represents
A resonator fiber optic gyroscope (RFOG) comprising: a resonator including: a fiber coil (302, 402); and one or more coupling (304, 404) devices configured to direct a portion of light from a first end of the fiber coil (302, 402) into a second end of the fiber coil (302, 402) and a portion of light from the second end of the fiber coil (302, 402) into the first end of the fiber coil (302, 402); characterized in that: one or more light sources coupled to the resonator and configured to produce at least two light beams for input into the fiber coil (302, 402), the at least two light beams including a first light beam at a first frequency and a second light beam at a second frequency, the first and second frequencies locked to different resonance modes of the resonator; and resonance tracking electronics coupled to the resonator and configured to process output light from the resonator and generate a signal therefrom, the signal indicative of a rotation rate of the resonator; wherein the fiber coil (302, 402) has zero total accumulated chromatic dispersion at the first frequency and the second frequency of the first light beam and the second light beam. a fiber coil (302, 402); and one or more coupling (304, 404) devices configured to direct a portion of light from a first end of the fiber coil (302, 402) into a second end of the fiber coil (302, 402) and a portion of light from the second end of the fiber coil (302, 402) into the first end of the fiber coil (302, 402); one or more light sources coupled to the resonator and configured to produce at least two light beams for input into the fiber coil (302, 402), the at least two light beams including a first light beam at a first frequency and a second light beam at a second frequency, the first and second frequencies locked to different resonance modes of the resonator; and resonance tracking electronics coupled to the resonator and configured to process output light from the resonator and generate a signal therefrom, the signal indicative of a rotation rate of the resonator; wherein the fiber coil (302, 402) has zero total accumulated chromatic dispersion at the first frequency and the second frequency of the first light beam and the second light beam.
Method for detection of at least one target gas by means of laser spectroscopy by means of a laser or of a laser diode, whose emission wavelength is monochromic and can be tuned by variation of the operating temperature or of the operating current, wherein - first tuning of the laser or of the laser diode is carried out over a first tuning width in the wavelength range of one band of the at least one target gas, wherein at least two absorption lines of a reference gas and at least one absorption line of the at least one target gas are included, for calibration of the wavelength scale of the laser or of the laser diode relative to the varied operating temperature or to the varied operating current, - second tuning of the laser or of the laser diode is carried out over a second tuning width in the wavelength range of the band of the at least one target gas, wherein the second tuning width is narrower than the first tuning width, wherein at least one of the at least one absorption line or lines of the at least one target gas is included, for detection of the at least one target gas, wherein target gas and reference gas are different gases. - first tuning of the laser or of the laser diode is carried out over a first tuning width in the wavelength range of one band of the at least one target gas, wherein at least two absorption lines of a reference gas and at least one absorption line of the at least one target gas are included, for calibration of the wavelength scale of the laser or of the laser diode relative to the varied operating temperature or to the varied operating current, - second tuning of the laser or of the laser diode is carried out over a second tuning width in the wavelength range of the band of the at least one target gas, wherein the second tuning width is narrower than the first tuning width, wherein at least one of the at least one absorption line or lines of the at least one target gas is included, for detection of the at least one target gas,
A valve apparatus, comprising: a housing defining a flow path; a valve seat located within the housing around a periphery of the flow path; a carriage member located within the housing; a cutting arrangement mounted on the carriage member; and a valve member mounted on the carriage member via a connection assembly which permits relative movement between the valve member and the carriage member, wherein the carriage member is moveable from a first position towards a second position to drive the cutting arrangement across the flow path and to move the valve member into a position in which movement of the valve member relative to the carriage member permits the valve member to sealingly engage and disengage the valve seat to control flow along the flow path. a housing defining a flow path; a valve seat located within the housing around a periphery of the flow path; a carriage member located within the housing; a cutting arrangement mounted on the carriage member; and a valve member mounted on the carriage member via a connection assembly which permits relative movement between the valve member and the carriage member, wherein the carriage member is moveable from a first position towards a second position to drive the cutting arrangement across the flow path and to move the valve member into a position in which movement of the valve member relative to the carriage member permits the valve member to sealingly engage and disengage the valve seat to control flow along the flow path.
A system for exerting forces on a user, the system comprising: a user-mounted device including one or more airflow generating devices; one or more sensors configured to acquire sensor data; and a processor coupled to the one or more airflow generating devices and to the one or more sensors and configured to: determine, based on the sensor data, an orientation associated with the user-mounted device; compute a force to be exerted on the user via the one or more airflow generating devices based on a force direction associated with a force event and the orientation associated with the user-mounted device; generate a control signal for the one or more airflow generating devices based on the force that is computed; and determine that the user-mounted device has reached a target orientation associated with the force event, and, in response, generate a second control signal to stop the one or more airflow generating devices. a user-mounted device including one or more airflow generating devices; one or more sensors configured to acquire sensor data; and a processor coupled to the one or more airflow generating devices and to the one or more sensors and configured to: determine, based on the sensor data, an orientation associated with the user-mounted device; compute a force to be exerted on the user via the one or more airflow generating devices based on a force direction associated with a force event and the orientation associated with the user-mounted device; generate a control signal for the one or more airflow generating devices based on the force that is computed; and determine that the user-mounted device has reached a target orientation associated with the force event, and, in response, generate a second control signal to stop the one or more airflow generating devices. determine, based on the sensor data, an orientation associated with the user-mounted device; compute a force to be exerted on the user via the one or more airflow generating devices based on a force direction associated with a force event and the orientation associated with the user-mounted device; generate a control signal for the one or more airflow generating devices based on the force that is computed; and determine that the user-mounted device has reached a target orientation associated with the force event, and, in response, generate a second control signal to stop the one or more airflow generating devices.
Method of operating a user equipment in a radio access network, the user equipment being configured with a set of bandwidth parts, the user equipment being operable for communicating utilising an activated bandwidth part of the set of bandwidth parts; wherein the set of bandwidth parts comprises a first bandwidth part and a second bandwidth part, the first bandwidth part of the set being associated to a first set of characteristics, the second bandwidth part of the set being associated to a second set of characteristics; wherein further the first set of characteristics and the second set of characteristics comprise at least one characteristic different between the first set and the second set of characteristics; wherein the user equipment further operates with a common search space for control signaling, the common search space being included in the first bandwidth part and the second bandwidth part; the method comprising receiving control signaling in the common search space based on the first set of characteristics while the second bandwidth part is activated. wherein the set of bandwidth parts comprises a first bandwidth part and a second bandwidth part, the first bandwidth part of the set being associated to a first set of characteristics, the second bandwidth part of the set being associated to a second set of characteristics; wherein further the first set of characteristics and the second set of characteristics comprise at least one characteristic different between the first set and the second set of characteristics; wherein the user equipment further operates with a common search space for control signaling, the common search space being included in the first bandwidth part and the second bandwidth part; the method comprising receiving control signaling in the common search space based on the first set of characteristics while the second bandwidth part is activated.
A stove guard arrangement, comprising - sensors (102, 103) for detecting events on a stove and for providing detection data, and - a programmable processing component for analysing the detection data and for providing exceptional situation data in response to the detection data indicating an exceptional situation defined in the programming of the processing component; characterized in that - the stove guard arrangement comprises a receiver connected to the processing component and arranged to receive radio-frequency interference and to provide corresponding reception data, - the processing component is arranged to recognize regular changes in said reception data and to derive, on the basis of the recognized regular changes, a conclusion that the stove is an induction stove. - sensors (102, 103) for detecting events on a stove and for providing detection data, and - a programmable processing component for analysing the detection data and for providing exceptional situation data in response to the detection data indicating an exceptional situation defined in the programming of the processing component; characterized in that - the stove guard arrangement comprises a receiver connected to the processing component and arranged to receive radio-frequency interference and to provide corresponding reception data, - the processing component is arranged to recognize regular changes in said reception data and to derive, on the basis of the recognized regular changes, a conclusion that the stove is an induction stove.
A process for producing an impregnated-yarn cloth, characterized by comprising: immersing fiber bundles (2, 2) in a thermoplastic resin stored in a molten state in a resin tank, while or after mutually twisting said fiber bundles (2, 2) at a rate of 20 twists/m or more and 50 twists/m or less, to form an impregnated yarn, forming a plurality of such impregnated yarns; and mutually knitting or weaving the thus-formed impregnated yarns to obtain the impregnated-yarn cloth. immersing fiber bundles (2, 2) in a thermoplastic resin stored in a molten state in a resin tank, while or after mutually twisting said fiber bundles (2, 2) at a rate of 20 twists/m or more and 50 twists/m or less, to form an impregnated yarn, forming a plurality of such impregnated yarns; and mutually knitting or weaving the thus-formed impregnated yarns to obtain the impregnated-yarn cloth.
A speech processing system (100, 200) comprising: an input that receives an input speech signal (101, 201) that comprises clean speech and acoustic interference; a first neural network circuit (102, 216) configured to suppress the acoustic interference in the input speech signal (101, 201) and output a representation of an estimate of a clean speech signal; and a second neural network circuit (103, 217) configured to receive the representation of the estimated clean speech signal and restore at least one speech component of the clean speech in the input speech signal (101, 201) and output a reconstructed speech signal (104, 215); characterised in that the first neural network circuit (102, 216) comprises a recurrent neural network, RNN, topology and the first neural network circuit (102, 216) comprises at least one long short-term memory, LSTM, layer; and the second neural network circuit (103, 217) comprises an encoder (610, 710) - decoder (620, 720) topology that includes at least one bottleneck layer (664, 764), and the bottleneck layer comprises at least one convolutional LSTM bottleneck layer. an input that receives an input speech signal (101, 201) that comprises clean speech and acoustic interference; a first neural network circuit (102, 216) configured to suppress the acoustic interference in the input speech signal (101, 201) and output a representation of an estimate of a clean speech signal; and a second neural network circuit (103, 217) configured to receive the representation of the estimated clean speech signal and restore at least one speech component of the clean speech in the input speech signal (101, 201) and output a reconstructed speech signal (104, 215); characterised in that the first neural network circuit (102, 216) comprises a recurrent neural network, RNN, topology and the first neural network circuit (102, 216) comprises at least one long short-term memory, LSTM, layer; and the second neural network circuit (103, 217) comprises an encoder (610, 710) - decoder (620, 720) topology that includes at least one bottleneck layer (664, 764), and the bottleneck layer comprises at least one convolutional LSTM bottleneck layer.
Wearable protection device comprising at least one inflatable element, a gas generator and a coupling device for coupling the gas generator to the inflatable element, wherein the coupling device includes a coupling element associated with the gas generator and a coupling counter-element associated with the inflatable member, wherein the wearable protection device comprises a support device defining a receiving seat for receiving the gas generator with respective coupling element, and the inflatable element includes at least one primary portion of the inflatable element and a secondary portion of the inflatable element connected as one piece with the primary portion, the secondary portion of the inflatable element being provided with said coupling counter-element, the wearable protection device being characterized in that, the support device is at least partially superimposed on the primary portion of the inflatable element to form a multilayer structure and the secondary portion protrudes with respect to said support device, said secondary portion of the inflatable element being in a folded or overturned condition, or a folding or overturning condition, towards the support device, the folding or overturning condition corresponding to a housing condition of said coupling counter-element in said receiving seat.
Composition for delivery of at least one active principle at the implantation site of an implant device, the composition including: - said at least one active principle, and - at least a first excipient combined with said at least one active principle, wherein said at least first excipient is selected among fatty acids with a linear or branched, saturated chain, including a number of carbon atoms between 14 and 36, wherein said composition further includes at least a second excipient different from said at least first excipient and combined with said at least one active principle, wherein said at least second excipient is selected among fatty acids with a linear or branched, saturated chain, including a number of carbon atoms between 14 and 36, wherein said at least first excipient is selected from stearic acid and behenic acid and wherein said at least second excipient is selected from palmitic acid and myristic acid. - said at least one active principle, and - at least a first excipient combined with said at least one active principle, wherein said at least first excipient is selected among fatty acids with a linear or branched, saturated chain, including a number of carbon atoms between 14 and 36,
A data processing apparatus configured to: encrypt storage target data to generate encrypted data, the data processing apparatus comprising: an index bit sequence generation unit configured to perform a predetermined calculation for a keyword to generate a bit sequence to be used as an index in searching for the encrypted data to be stored in a data storage apparatus as an index bit sequence, associating the index bit sequence with the encrypted data, wherein the data processing apparatus is configured to extract the keyword from the storage target data and generate an encrypted tag based on the keyword and a random number; an index bit sequence encryption unit configured to encrypt a plurality of bit values in the index bit sequence; and a transmission unit configured to transmit to the data storage apparatus, the encrypted index bit sequence, the encrypted tag and the encrypted data, the encrypted index bit sequence being the index bit sequence after the plurality of bit values is encrypted by the index bit sequence encryption unit, characterized in that the index bit sequence encryption unit is configured to encrypt the plurality of bit values in the index bit sequence using an index key of a common key scheme; and the data processing apparatus is configured to generate the encrypted tag by encrypting the extracted keyword using the random number and an encryption key. an index bit sequence generation unit configured to perform a predetermined calculation for a keyword to generate a bit sequence to be used as an index in searching for the encrypted data to be stored in a data storage apparatus as an index bit sequence, associating the index bit sequence with the encrypted data, wherein the data processing apparatus is configured to extract the keyword from the storage target data and generate an encrypted tag based on the keyword and a random number; an index bit sequence encryption unit configured to encrypt a plurality of bit values in the index bit sequence; and a transmission unit configured to transmit to the data storage apparatus, the encrypted index bit sequence, the encrypted tag and the encrypted data, the encrypted index bit sequence being the index bit sequence after the plurality of bit values is encrypted by the index bit sequence encryption unit, characterized in that the index bit sequence encryption unit is configured to encrypt the plurality of bit values in the index bit sequence using an index key of a common key scheme; and the data processing apparatus is configured to generate the encrypted tag by encrypting the extracted keyword using the random number and an encryption key.