mhurhangee/patent-ind-claim-en huggingface dataset:
A communication system, comprising: one or more chargers each including a power transmission coil for transmitting power to a vehicle ; and a server capable of communicating with the one or more chargers, wherein the server: obtains first information corresponding to data from a first vehicle via a first charger included in the one or more chargers, during charging of the first vehicle by the first charger; and supplies second information corresponding to data based on the first information to a second vehicle via a second charger included in the one or more chargers, during charging of the second vehicle by the second charger; characterized by each of the one or more chargers further including: a first communication antenna (6201_5) for communicating with the vehicle, the first communication antenna being arranged inside the power transmission coil; and a second communication antenna (6201_1) for communicating with the vehicle, the second communication antenna being arranged outside the power transmission coil. one or more chargers each including a power transmission coil for transmitting power to a vehicle ; and a server capable of communicating with the one or more chargers, wherein the server: obtains first information corresponding to data from a first vehicle via a first charger included in the one or more chargers, during charging of the first vehicle by the first charger; and supplies second information corresponding to data based on the first information to a second vehicle via a second charger included in the one or more chargers, during charging of the second vehicle by the second charger; characterized by each of the one or more chargers further including: a first communication antenna (6201_5) for communicating with the vehicle, the first communication antenna being arranged inside the power transmission coil; and a second communication antenna (6201_1) for communicating with the vehicle, the second communication antenna being arranged outside the power transmission coil. obtains first information corresponding to data from a first vehicle via a first charger included in the one or more chargers, during charging of the first vehicle by the first charger; and supplies second information corresponding to data based on the first information to a second vehicle via a second charger included in the one or more chargers, during charging of the second vehicle by the second charger; characterized by each of the one or more chargers further including: a first communication antenna (6201_5) for communicating with the vehicle, the first communication antenna being arranged inside the power transmission coil; and a second communication antenna (6201_1) for communicating with the vehicle, the second communication antenna being arranged outside the power transmission coil. a first communication antenna (6201_5) for communicating with the vehicle, the first communication antenna being arranged inside the power transmission coil; and a second communication antenna (6201_1) for communicating with the vehicle, the second communication antenna being arranged outside the power transmission coil.
An otologic composition in aqueous solution comprising a mixture in aqueous solution comprising, or alternatively, consisting of an antibiotic, which is levofloxacin or a salt thereof or a hydrate thereof or a hemihydrate thereof and a corticosteroid, which is dexamethasone sodium phosphate selected from dexamethasone sodium phosphate ester or dexamethasone disodium phosphate ester dissolved in the aqueous solution, and optionally, one or more pharmaceutical grade additives and/or excipients; wherein said composition is devoid of surfactant and suspending substances; wherein said composition has a pH value comprised from 5.5 to 8.0; said composition being for use in a method for the treatment of otological bacterial infections.
A quantum computing device comprising a first chip having a first substrate , a first set of pads , and a set of Josephson junctions disposed on the first substrate; a second chip having a second substrate , a second set of pads disposed on the second substrate opposite the first set of pads, and a second layer formed on a subset of the second set of pads, the second layer configured to bond the first chip and the second chip, wherein the subset of the second set of pads corresponds to a subset of the set of Josephson junctions, each Josephson juniction of the subset corresponding to a qubit of a set of qubits satisfying a frequency collision separation threshold; and, an unusable Josephson junction in the set of Josephson junctions, the unusable Josephson junction being excluded from the subset. a first chip having a first substrate , a first set of pads , and a set of Josephson junctions disposed on the first substrate; a second chip having a second substrate , a second set of pads disposed on the second substrate opposite the first set of pads, and a second layer formed on a subset of the second set of pads, the second layer configured to bond the first chip and the second chip, wherein the subset of the second set of pads corresponds to a subset of the set of Josephson junctions, each Josephson juniction of the subset corresponding to a qubit of a set of qubits satisfying a frequency collision separation threshold; and, an unusable Josephson junction in the set of Josephson junctions, the unusable Josephson junction being excluded from the subset.
A product comprising an aerated frozen confection coated in a coating, the aerated frozen confection comprising a plurality of substantially flat faces, each substantially flat face having a radius of curvature substantially across the whole of the substantially flat face of greater than 50 mm, and wherein the substantially flat faces meet to form edges, wherein substantially all or all of the edges have a radius of curvature of from 5 mm to 20 mm, and at least 70%, of the total surface area of the aerated frozen confection is made up of the substantially flat faces.
A method for receiving an Automatic Identification System, AIS, compliant message incorporating forward error correction ,FEC, coding, the method comprising: receiving, by a receiver , a message incorporating a coded portion encoded using a FEC code and the coded portion is Run Length Limited and the overall message has a fixed length; and iteratively demodulating and decoding the received message by iterating between a soft demodulator and a soft decoder via an intermediate interleave/de-interleaver module until a termination criteria is fulfilled, or if a CRC data value is present in the coded portion of the message, then if the decoded sequence passes a CRC check using the decoded CRC data value, , wherein the soft demodulator is a soft joint NRZI/GMSK demodulator that performs GMSK demodulation and NRZI decoding on a joint trellis in which the NRZI trellis is merged into the GMSK trellis, and the soft demodulator uses one or more of a start flag in the message, an end flag in the message, or one or more additional training sequences within a data part of the message, as additional training sequences for acquisition, wherein the soft decoder performs Run Length Limited, RLL, decoding using a RLL decoder module followed by FEC decoding using a FEC decoder module wherein the RLL decoding is performed using a trellis representation of a RLL encoder. receiving, by a receiver , a message incorporating a coded portion encoded using a FEC code and the coded portion is Run Length Limited and the overall message has a fixed length; and iteratively demodulating and decoding the received message by iterating between a soft demodulator and a soft decoder via an intermediate interleave/de-interleaver module until a termination criteria is fulfilled, or if a CRC data value is present in the coded portion of the message, then if the decoded sequence passes a CRC check using the decoded CRC data value, , wherein the soft demodulator is a soft joint NRZI/GMSK demodulator that performs GMSK demodulation and NRZI decoding on a joint trellis in which the NRZI trellis is merged into the GMSK trellis, and the soft demodulator uses one or more of a start flag in the message, an end flag in the message, or one or more additional training sequences within a data part of the message, as additional training sequences for acquisition,
A fiber discfilter with a means of forming grooves on a surface of filter cloths, the fiber discfilter comprising: a filter unit configured such that a plurality of filter segments each having front and rear surfaces on which filter cloths each having a surface provided with bristles are installed is installed on an outer portion of a drum so that inflow water is filtered by being introduced into the filter segments while passing through the filter cloths ; a cleaning means configured to remove foreign substances captured in the filter cloths ; and a groove forming means disposed to be positioned at the periphery of the filter unit and having a plurality of protrusions configured to be inserted into the surface of the filter cloth and to form grooves in the surface of the filter cloth when being inserted into the surface of the filter cloth and the filter unit rotates, thereby exposing foreign substances captured in the deep part of the filter cloth , because during a process of filtering the inflow water foreign substances are uniformly captured on the surface of the filter cloth and in a deep part of the filter cloth , during a process of cleaning the filter cloth , such that the foreign substances captured in the deep part can be easily removed, wherein the groove forming means is configured separately from the cleaning means such that the protrusions are formed on a board fixedly installed on a support for fixing the cleaning means or fixedly installed on a separate structure. a filter unit configured such that a plurality of filter segments each having front and rear surfaces on which filter cloths each having a surface provided with bristles are installed is installed on an outer portion of a drum so that inflow water is filtered by being introduced into the filter segments while passing through the filter cloths ; a cleaning means configured to remove foreign substances captured in the filter cloths ; and a groove forming means disposed to be positioned at the periphery of the filter unit and having a plurality of protrusions configured to be inserted into the surface of the filter cloth and to form grooves in the surface of the filter cloth when being inserted into the surface of the filter cloth and the filter unit rotates, thereby exposing foreign substances captured in the deep part of the filter cloth , because during a process of filtering the inflow water foreign substances are uniformly captured on the surface of the filter cloth and in a deep part of the filter cloth , during a process of cleaning the filter cloth , such that the foreign substances captured in the deep part can be easily removed, wherein the groove forming means is configured separately from the cleaning means such that the protrusions are formed on a board fixedly installed on a support for fixing the cleaning means or fixedly installed on a separate structure.
Lamp, comprising - a lighting means for producing a light, - a light-guiding element , wherein the lamp is designed such that the light is coupled into the light-guiding element via a narrow side of said light-guiding element and subsequently emitted via a light emission surface area of the light-guiding element , wherein the light-guiding element is formed such that it comprises an axis (A) and, viewed in a cross-section normal to the axis ( A ), extends along a profile line ( I ) which in a first approximation is C-shaped and comprises at least one curvature ( k ), further comprising - a housing for holding the light-guiding element and the lighting means , wherein the lamp is designed such that, viewed counter to a surface normal ( N ) of the light emission surface area , the housing is disposed behind the light emission surface area , characterized in that the light-guiding element is formed such that the profile line comprises a first straight section ( g1 ), wherein the light emission surface area of the light-guiding element is configured in the region of the first straight section ( g1 ) , and that the light-guiding element comprises a first decoupling structure on a side opposite the light emission surface area and a second decoupling structure along the at least one curvature ( k ), wherein the second decoupling structure is configured to have a weaker effect than the first decoupling structure. - a lighting means for producing a light, - a light-guiding element , wherein the lamp is designed such that the light is coupled into the light-guiding element via a narrow side of said light-guiding element and subsequently emitted via a light emission surface area of the light-guiding element , wherein the light-guiding element is formed such that it comprises an axis (A) and, viewed in a cross-section normal to the axis ( A ), extends along a profile line ( I ) which in a first approximation is C-shaped and comprises at least one curvature ( k ), further comprising - a housing for holding the light-guiding element and the lighting means
Electronic circuit comprising a humidity detection device , the humidity detection device comprising - an electrically conductive detection structure arranged in an environment of an electrically conductive first reference structure of the electronic circuit , wherein the first reference structure is connected to a first reference potential terminal of the electronic circuit ; - a voltage sensor comprising a first sensor terminal , which is connected to the detection structure , and comprising a second sensor terminal , which is connectable to an electrically conductive second reference structure of the electronic circuit , which is connected to a second reference potential terminal of the circuit , wherein the voltage sensor is configured to generate a sensor signal depending on an electric voltage between the first sensor terminal and the second sensor terminal ; - a switching device , which is configured to selectively disconnect the second sensor terminal from the second reference structure and connect it thereto, and - an evaluation unit configured to detect depending on the sensor signal humidity which electrically couples the first reference structure to the detection structure . - an electrically conductive detection structure arranged in an environment of an electrically conductive first reference structure of the electronic circuit , wherein the first reference structure is connected to a first reference potential terminal of the electronic circuit ; - a voltage sensor comprising a first sensor terminal , which is connected to the detection structure , and comprising a second sensor terminal , which is connectable to an electrically conductive second reference structure of the electronic circuit , which is connected to a second reference potential terminal of the circuit , wherein the voltage sensor is configured to generate a sensor signal depending on an electric voltage between the first sensor terminal and the second sensor terminal ; - a switching device , which is configured to selectively disconnect the second sensor terminal from the second reference structure and connect it thereto, and - an evaluation unit configured to detect depending on the sensor signal humidity which electrically couples the first reference structure to the detection structure .
A method comprising: allocating a set of control resource blocks by a base station in a beamforming OFDM network , wherein the set of control resource blocks comprises periodically allocated time-frequency resource blocks associated with a set of beamforming weights to form a control beam; partitioning each resource block into a pilot part and a data part, wherein each resource block comprises M pilot structures and each pilot structure comprises L OFDM symbols, wherein pilot symbols are inserted once every K subcarriers for R times in each of the L OFDM symbols to form the pilot part while data symbols are inserted in the remaining resource elements to form the data part, and wherein M, L, K, and R are positive integers, and wherein each pilot symbol in each of the M pilot structures has a signature sequence s m with an offset v m with respect to the 0-th subcarrier, wherein m is a repetition index for the M pilot structures, and wherein each signature sequence s m is generated from circular delay-Doppler shifts of a base sequence; and transmitting the pilot symbols and the data symbols via the control beam to a plurality of user equipments, UEs . allocating a set of control resource blocks by a base station in a beamforming OFDM network , wherein the set of control resource blocks comprises periodically allocated time-frequency resource blocks associated with a set of beamforming weights to form a control beam; partitioning each resource block into a pilot part and a data part, wherein each resource block comprises M pilot structures and each pilot structure comprises L OFDM symbols, wherein pilot symbols are inserted once every K subcarriers for R times in each of the L OFDM symbols to form the pilot part while data symbols are inserted in the remaining resource elements to form the data part, and wherein M, L, K, and R are positive integers, and wherein each pilot symbol in each of the M pilot structures has a signature sequence s m with an offset v m with respect to the 0-th subcarrier, wherein m is a repetition index for the M pilot structures, and wherein each signature sequence s m is generated from circular delay-Doppler shifts of a base sequence; and transmitting the pilot symbols and the data symbols via the control beam to a plurality of user equipments, UEs .
A system comprising a first image capturing device and a second image capturing device , wherein the first image capturing device comprises: first image capturing circuitry configured to capture a first image of an object in response to detection of a shutter operation; and transmission circuitry configured to automatically transmit a trigger signal (TG) and at least one piece of additional information related to the first image capturing device to the second image capturing device in response to the detection of the shutter operation; and the second image capturing device comprises : second image capturing circuitry ; reception circuitry configured to receive the trigger signal and the at least one piece of additional information related to the first image capturing device from the first image capturing device; and control circuitry configured to control second image capturing circuitry to capture a second image of a scene in response to receiving the trigger signal, the second image capturing device being directed or facing such that the captured scene includes the object, and to record the second image in association with the at least one piece of additional information related to the first image capturing device. first image capturing circuitry configured to capture a first image of an object in response to detection of a shutter operation; and transmission circuitry configured to automatically transmit a trigger signal (TG) and at least one piece of additional information related to the first image capturing device to the second image capturing device in response to the detection of the shutter operation; and the second image capturing device comprises : second image capturing circuitry ; reception circuitry configured to receive the trigger signal and the at least one piece of additional information related to the first image capturing device from the first image capturing device; and control circuitry configured to control second image capturing circuitry to capture a second image of a scene in response to receiving the trigger signal, the second image capturing device being directed or facing such that the captured scene includes the object, and to record the second image in association with the at least one piece of additional information related to the first image capturing device. second image capturing circuitry ; reception circuitry configured to receive the trigger signal and the at least one piece of additional information related to the first image capturing device from the first image capturing device; and control circuitry configured to control second image capturing circuitry to capture a second image of a scene in response to receiving the trigger signal, the second image capturing device being directed or facing such that the captured scene includes the object, and to record the second image in association with the at least one piece of additional information related to the first image capturing device.
A white light source for emitting a white light, comprising: a light emitting diode having a light emission peak wavelength of 350 to 490 nm; and a phosphor that emits visible light upon excitation by a light emitted from the light emitting diode; wherein a maximum peak intensity of the light emission spectrum of the white light source is within a range of 491 to 780 nm; wherein, with respect to the light emission spectrum of the white light source and a light emission spectrum of black-body radiation having a same color temperature as that of the white light source, in a case where both light emission spectrums are compared in a case in which visual luminances are made identical, a maximum light emission intensity of a light emission spectrum of a violet to blue region (380 to 490 nm) of the white light source is an intensity that is less than or equal to 1.5 times a light emission intensity of the black-body radiation spectrum of a same wavelength as a wavelength that exhibits the maximum light emission intensity; and wherein, with respect to an arbitrary local maximum value of light-emission intensity between 350 and 780 nm of a light emission spectrum of the white light source, a ratio of a local minimum value of light-emission intensity that is closest on a long wavelength side to the local maximum value is such that, when the local maximum value is taken as 1, the local minimum value is 0.5 or more.
An implant delivery apparatus for treating an ocular disorder, comprising: a trocar comprising a distal end configured to create openings in eye tissue; at least two implants loaded within said implant delivery apparatus , each of said implants comprising an inner lumen through which at least a portion of said trocar extends; a collet having a distal end spaced from said distal end of said trocar and having loaded therein said implants for delivery into eye tissue; an energy source operably coupled to said collet and configured to release energy such that said distal end of said collet advances a respective one of said implants along said trocar and into eye tissue during an implant delivery cycle; and a metering device configured to transfer energy to said implants for delivery at selected locations of said eye tissue. a trocar comprising a distal end configured to create openings in eye tissue; at least two implants loaded within said implant delivery apparatus , each of said implants comprising an inner lumen through which at least a portion of said trocar extends; a collet having a distal end spaced from said distal end of said trocar and having loaded therein said implants for delivery into eye tissue; an energy source operably coupled to said collet and configured to release energy such that said distal end of said collet advances a respective one of said implants along said trocar and into eye tissue during an implant delivery cycle; and a metering device configured to transfer energy to said implants for delivery at selected locations of said eye tissue.