mhurhangee/patent-ind-claim-en huggingface dataset:
A polymer electrolyte for a secondary battery, the polymer electrolyte comprising: a first polymer including a repeating unit represented by Formula 1; and a second polymer comprising at least one selected from the group consisting of polyethylene, polypropylene, polystyrene, poly(p-phenylene vinylene), poly(thienylene vinylene), poly(vinyl chloride), polyacrylonitrile, poly(vinyl acetate) and poly(methyl methacrylate), wherein the first polymer and the second polymer form a semi-interpenetrating polymer network (semi-IPN) structure: wherein, in Formula 1, R 1 is an alkylene group having 1 to 5 carbon atoms, and n is an integer of 10 to 10,000, determined as described in the description by GPC. a first polymer including a repeating unit represented by Formula 1; and a second polymer comprising at least one selected from the group consisting of polyethylene, polypropylene, polystyrene, poly(p-phenylene vinylene), poly(thienylene vinylene), poly(vinyl chloride), polyacrylonitrile, poly(vinyl acetate) and poly(methyl methacrylate), wherein the first polymer and the second polymer form a semi-interpenetrating polymer network (semi-IPN) structure: wherein, in Formula 1, R 1 is an alkylene group having 1 to 5 carbon atoms, and n is an integer of 10 to 10,000, determined as described in the description by GPC.
A malware analysis system comprising: a preliminary analysis unit configured to execute malware obtained as a candidate for an analyzing subject to obtain information related to communication transmitted from the malware in order to select malware to be analyzed by a main analysis; a determination unit configured to determine whether the malware is handled as an analyzing subject on which the main analysis is performed based on information obtained by the preliminary analysis unit and to register information related to the malware in a database; and a designation unit configured to designate an analyzing order in main analysis with respect to malware having been registered in the database by the determination unit and unanalyzed in the main analysis based on information obtained by the preliminary analysis unit when the malware is determined to be handled as an analyzing subject by the determination unit ; wherein when malware is executed in a closed environment that is an environment in which malware and an external communication network are disconnected from each other, the preliminary analysis unit is configured to obtain information related to presence of a direct designation of an IP address as a communication counterpart or presence of communication where a name resolution is successful, as information related to communication transmitted from the malware, when information obtained by the preliminary analysis unit includes any of a direct designation of an IP address or communication where a name resolution is successful, the determination unit is configured to determine that the malware is an analyzing subject, and the designation unit is configured to designate an analyzing order of the malware according to number of communication counterparts specified by the communication where a name resolution is successful.
A method comprising capturing (S100) a signaling on a transmission path (TX) conveying a signal to be transmitted via an antenna network and on a reception path (RX) conveying a signal being received via the antenna network , setting (S110) model parameters related to a distortion effect on the basis of the captured signaling, the distortion effect being caused by the signal to be transmitted on the signal being received due to passive intermodulation between the transmission path (TX) and the reception path (RX) occurring in the antenna network between an antenna and a receiver/transmitter; determining characteristics of a connection element including at least one of a duplexer or combiner prior to the antenna network; setting further model parameters based on distortions caused by the characteristics of the connection element ; generating (S120) a reference signal being related to a predetermined frequency spectrum part used by the signal being received by applying the model parameters and the further model parameters on a captured signaling on the transmission path (TX), and correcting (S130) the signal being received by using the generated reference signal. capturing (S100) a signaling on a transmission path (TX) conveying a signal to be transmitted via an antenna network and on a reception path (RX) conveying a signal being received via the antenna network , setting (S110) model parameters related to a distortion effect on the basis of the captured signaling, the distortion effect being caused by the signal to be transmitted on the signal being received due to passive intermodulation between the transmission path (TX) and the reception path (RX) occurring in the antenna network between an antenna and a receiver/transmitter; determining characteristics of a connection element including at least one of a duplexer or combiner prior to the antenna network; setting further model parameters based on distortions caused by the characteristics of the connection element ; generating (S120) a reference signal being related to a predetermined frequency spectrum part used by the signal being received by applying the model parameters and the further model parameters on a captured signaling on the transmission path (TX), and correcting (S130) the signal being received by using the generated reference signal.
Pumping and foaming device comprising a pumping and foaming unit rotatable around a shaft by driving means , the pumping and foaming unit comprising a pumping element whose rotation pumps both air and fluid and mixes them; the pumping and foaming unit further comprising a foaming element whose relative rotation in a foaming chamber drives the mixture of air and fluid coming from the pumping element under a certain level of shear stress which allows this mixture to be foamed, characterized in that the foaming element further comprises at least one propelling element on at least one of its surfaces intended to direct the fluid towards the foaming chamber where the fluid is subjected to shear stress.
An audio streaming device for streaming an audio signal to at least one hearing assistive device , and comprising - at least one input transducer , - an electronic sensor device adapted for sensing gravitational forces acting on the audio streaming device , and - a transmitter adapted for streaming audio from the at least one input transducer to the at least one hearing assistive device , wherein the audio streaming device further comprises a microprocessor adapted for: - comparing an output signal from the electronic sensor device to a first threshold value, and - ceasing streaming by the transmitter of the audio stream from the at least one input transducer , when the output signal from the electronic sensor device exceeds the first threshold value; and wherein the transmitter is adapted for streaming audio as data packets, and characterized in that a shock protection unit is adapted to instruct the transmitter to discard the next data packet and use a replacement data packet from the shock protection unit instead, when the output signal from the electronic sensor device exceeds the first threshold value. - at least one input transducer , - an electronic sensor device adapted for sensing gravitational forces acting on the audio streaming device , and - a transmitter adapted for streaming audio from the at least one input transducer to the at least one hearing assistive device , wherein the audio streaming device further comprises a microprocessor adapted for: - comparing an output signal from the electronic sensor device to a first threshold value, and - ceasing streaming by the transmitter of the audio stream from the at least one input transducer , when the output signal from the electronic sensor device exceeds the first threshold value; and - comparing an output signal from the electronic sensor device to a first threshold value, and - ceasing streaming by the transmitter of the audio stream from the at least one input transducer , when the output signal from the electronic sensor device exceeds the first threshold value; and wherein the transmitter is adapted for streaming audio as data packets, and characterized in that a shock protection unit is adapted to instruct the transmitter to discard the next data packet and use a replacement data packet from the shock protection unit instead, when the output signal from the electronic sensor device exceeds the first threshold value.
A method for measuring fibroblast growth factor-23 (hereinafter, indicated as FGF-23) in a sample, which comprises the steps of: reacting in an aqueous medium, a sample and a first antibody or an antibody fragment thereof which binds to FGF-23 to produce Immunocomplex 1 consisting of FGF-23 and the first antibody or the antibody fragment thereof which binds to FGF-23; reacting in an aqueous medium, a second antibody or an antibody fragment thereof which binds to FGF-23 with Immunocomplex 1 produced in the aforementioned step to produce Immunocomplex 2 consisting of the first antibody or the antibody fragment thereof which binds to FGF-23, FGF-23, and the second antibody or the antibody fragment thereof which binds to FGF-23; and measuring Immunocomplex 2 produced in the aforementioned step ; wherein the reaction of step and/or step is carried out in an aqueous medium comprising at least one type of surfactant selected from the group consisting of polyoxyethylene alkyl ethers, polyoxyethylene-polyoxypropylene copolymers, and polyoxyethylene polycyclic phenyl ethers. reacting in an aqueous medium, a sample and a first antibody or an antibody fragment thereof which binds to FGF-23 to produce Immunocomplex 1 consisting of FGF-23 and the first antibody or the antibody fragment thereof which binds to FGF-23; reacting in an aqueous medium, a second antibody or an antibody fragment thereof which binds to FGF-23 with Immunocomplex 1 produced in the aforementioned step to produce Immunocomplex 2 consisting of the first antibody or the antibody fragment thereof which binds to FGF-23, FGF-23, and the second antibody or the antibody fragment thereof which binds to FGF-23; and measuring Immunocomplex 2 produced in the aforementioned step ;
A method for firing a green honeycomb body in a kiln, the method comprising: heating the green honeycomb body from a first temperature of 180°C to 220°C to a second temperature of 430°C to 470°C at a first heating rate from 20°C/hr to 45°C/hr and at a first oxygen level, wherein the first oxygen level is from 8 % by volume to 11 % by volume; and then heating the green honeycomb body from the second temperature to a third temperature of 580°C to 620°C at a second heating rate from 35°C/hr to 90°C/hr and at a second oxygen level, wherein the second heating rate is greater than the first heating rate, the second oxygen level is greater than the first oxygen level and is from 14% by volume to 20 % by volume, and oxygen is introduced into the kiln to increase an oxygen level of the kiln from the first oxygen level to the second oxygen level near a peak of organic volatile release from the green honeycomb body. heating the green honeycomb body from a first temperature of 180°C to 220°C to a second temperature of 430°C to 470°C at a first heating rate from 20°C/hr to 45°C/hr and at a first oxygen level, wherein the first oxygen level is from 8 % by volume to 11 % by volume; and then heating the green honeycomb body from the second temperature to a third temperature of 580°C to 620°C at a second heating rate from 35°C/hr to 90°C/hr and at a second oxygen level, wherein the second heating rate is greater than the first heating rate, the second oxygen level is greater than the first oxygen level and is from 14% by volume to 20 % by volume, and oxygen is introduced into the kiln to increase an oxygen level of the kiln from the first oxygen level to the second oxygen level near a peak of organic volatile release from the green honeycomb body.
A communication device for use within a distributed antenna system, the communication device comprising: analog-to-digital converters configured to use a common sample rate to convert downlink radio frequency signals to digital downlink signals; and re-sampling devices configured to output re-sampled digital downlink signals by re-sampling the digital downlink signals at resample rates based on at least one factor, wherein the resample rates are less than the common sample rate , the re-sampled digital downlink signals having a smaller bandwidth than the digital downlink signals. analog-to-digital converters configured to use a common sample rate to convert downlink radio frequency signals to digital downlink signals; and re-sampling devices configured to output re-sampled digital downlink signals by re-sampling the digital downlink signals at resample rates based on at least one factor, wherein the resample rates are less than the common sample rate , the re-sampled digital downlink signals having a smaller bandwidth than the digital downlink signals.
A neuromodulation system comprising: an external device for programming an implantable medical device, IMD, wherein the IMD comprises a plurality of electrodes implantable in a patient's spinal column, and wherein the external device comprises a non-transitory computer readable medium comprising instructions, which when executed by the external device configure the external device to: cause the IMD to apply a plurality of candidate waveforms to the patient's spinal cord, wherein each waveform comprises a plurality of sequential pulses, wherein each pulse comprises a first phase having a first polarity and a second phase having a second polarity opposite of the first polarity, wherein the first and second phases are separated by an inter-phase interval, IPI, wherein each of the candidate waveforms has a different IPI; select one of the candidate waveforms for treating the patient based on a determination of effectiveness of each of the candidate waveforms; and programming the IMD with the selected candidate waveform; wherein the determination of effectiveness is based on one or more of patient feedback and an electrospinogram, ESG. an external device for programming an implantable medical device, IMD, wherein the IMD comprises a plurality of electrodes implantable in a patient's spinal column, and wherein the external device comprises a non-transitory computer readable medium comprising instructions, which when executed by the external device configure the external device to: cause the IMD to apply a plurality of candidate waveforms to the patient's spinal cord, wherein each waveform comprises a plurality of sequential pulses, wherein each pulse comprises a first phase having a first polarity and a second phase having a second polarity opposite of the first polarity, wherein the first and second phases are separated by an inter-phase interval, IPI, wherein each of the candidate waveforms has a different IPI; select one of the candidate waveforms for treating the patient based on a determination of effectiveness of each of the candidate waveforms; and programming the IMD with the selected candidate waveform; wherein the determination of effectiveness is based on one or more of patient feedback and an electrospinogram, ESG. cause the IMD to apply a plurality of candidate waveforms to the patient's spinal cord, wherein each waveform comprises a plurality of sequential pulses, wherein each pulse comprises a first phase having a first polarity and a second phase having a second polarity opposite of the first polarity, wherein the first and second phases are separated by an inter-phase interval, IPI, wherein each of the candidate waveforms has a different IPI; select one of the candidate waveforms for treating the patient based on a determination of effectiveness of each of the candidate waveforms; and programming the IMD with the selected candidate waveform; wherein the determination of effectiveness is based on one or more of patient feedback and an electrospinogram, ESG.
A multilayer UV filter particle, comprising: an odd number of alternating layers of high and low refractive index materials, wherein each layer has a refractive index that differs from that of adjacent layers by at least 0.2, the total number of layers is at least 9, and the particle does not contain a substrate. an odd number of alternating layers of high and low refractive index materials, wherein each layer has a refractive index that differs from that of adjacent layers by at least 0.2, the total number of layers is at least 9, and the particle does not contain a substrate.
A method of forming a ceramic-polymer composite powder, the method comprising: mixing a solvent, particles of a ceramic that is selected from the group of ceramics consisting of: Al 2 O 3 , ZrO 2 , and combinations of Al 2 O 3 and ZrO 2 , and a semi-crystalline polymer selected from the group of semi-crystalline polymers consisting of: polyphenylene sulfide (PPS), polyaryl ether ketone (PAEK), polybutylene terephthalate (PBT), polypropylene (PP), polyethylene (PE), semi-crystalline polyimide (SC PI), and semi-crystalline polyamide (SC Polyamide); dissolving at least partially the semi-crystalline polymer in the solvent by superheating the mixture to a first temperature above the normal boiling point of the solvent and while maintaining the mixture at or above a first pressure at which the solvent remains substantially liquid; agitating the superheated mixture for a period of minutes while maintaining the mixture at or above the first temperature and at or above the first pressure; cooling the mixture to or below a second temperature below the normal boiling point of the solvent to cause the semi-crystalline polymer to precipitate on the particles of the ceramic and thereby form a plurality of core-shell particles each comprising a core and a shell around the core, where the core comprises a particle of the ceramic and the shell comprises the semi-crystalline polymer. mixing a solvent, particles of a ceramic that is selected from the group of ceramics consisting of: Al 2 O 3 , ZrO 2 , and combinations of Al 2 O 3 and ZrO 2 , and a semi-crystalline polymer selected from the group of semi-crystalline polymers consisting of: polyphenylene sulfide (PPS), polyaryl ether ketone (PAEK), polybutylene terephthalate (PBT), polypropylene (PP), polyethylene (PE), semi-crystalline polyimide (SC PI), and semi-crystalline polyamide (SC Polyamide); dissolving at least partially the semi-crystalline polymer in the solvent by superheating the mixture to a first temperature above the normal boiling point of the solvent and while maintaining the mixture at or above a first pressure at which the solvent remains substantially liquid; agitating the superheated mixture for a period of minutes while maintaining the mixture at or above the first temperature and at or above the first pressure; cooling the mixture to or below a second temperature below the normal boiling point of the solvent to cause the semi-crystalline polymer to precipitate on the particles of the ceramic and thereby form a plurality of core-shell particles each comprising a core and a shell around the core, where the core comprises a particle of the ceramic and the shell comprises the semi-crystalline polymer.
A method for manufacturing a superconducting device, the method comprising acts of: forming at least one trough in at least a first substrate , covering at least a portion of the first substrate with a superconducting material ; covering at least a portion of a second substrate with the superconducting material ; bonding the first substrate and the second substrate to form at least one enclosure comprising the at least one trough and the superconducting material, wherein the at least one enclosure is configured to form at least one resonant cavity, characterised in that the method further comprises forming channels in at least one wiring layer substrate; covering at least a portion of the channels with the superconducting material to form a wiring layer; and bonding the at least one wiring substrate to the first substrate and/or the second substrate. forming at least one trough in at least a first substrate , covering at least a portion of the first substrate with a superconducting material ; covering at least a portion of a second substrate with the superconducting material ; bonding the first substrate and the second substrate to form at least one enclosure comprising the at least one trough and the superconducting material, wherein the at least one enclosure is configured to form at least one resonant cavity, characterised in that the method further comprises forming channels in at least one wiring layer substrate; covering at least a portion of the channels with the superconducting material to form a wiring layer; and bonding the at least one wiring substrate to the first substrate and/or the second substrate.
A nucleic acid carrier, comprising CpG-ODN-RNA conjugate and a porous silica particle carrying the same inside pores thereof, wherein the porous silica particle has an average pore diameter of 7 to 30 nm. wherein the RNA is indoleamine 2,3-dioxygenase (IDO) siRNA, wherein the IDO siRNA comprises siRNA of SEQ ID NOs: 1 and 2; siRNA of SEQ ID NOs: 3 and 4; siRNA of SEQ ID NOs: 5 and 6; siRNA of SEQ ID NOs: 7 and 8; siRNA of SEQ ID NOs: 9 and 10; or siRNA of SEQ ID NOs: 11 and 12. wherein the RNA is indoleamine 2,3-dioxygenase (IDO) siRNA, wherein the IDO siRNA comprises siRNA of SEQ ID NOs: 1 and 2; siRNA of SEQ ID NOs: 3 and 4; siRNA of SEQ ID NOs: 5 and 6; siRNA of SEQ ID NOs: 7 and 8; siRNA of SEQ ID NOs: 9 and 10; or siRNA of SEQ ID NOs: 11 and 12.
A computer-implemented method for performing image registration comprising: receiving a color region of interest, ROI , from a source image and a color image portion from a target image ; converting the color ROI and the color image portion to a foreground likelihood ROI and a foreground likelihood image portion , the foreground likelihood ROI and image portion comprising a likelihood each pixel comprises a foreground pixel; applying a plurality of first iterations to converge a plurality of homography parameters to map the foreground likelihood ROI to a target region of the foreground likelihood image portion , wherein the first iterations allow variation in translation parameters of the homography parameters and block variation in rotation parameters and perspective parameters of the homography parameters ; applying a plurality of second iterations, subsequent to the first iterations, to converge the homography parameters , wherein the second iterations allow variation in the translation parameters, the rotation parameters, and the perspective parameters; and outputting resultant homography parameters based on the first and second iterations. receiving a color region of interest, ROI , from a source image and a color image portion from a target image ; converting the color ROI and the color image portion to a foreground likelihood ROI and a foreground likelihood image portion , the foreground likelihood ROI and image portion comprising a likelihood each pixel comprises a foreground pixel; applying a plurality of first iterations to converge a plurality of homography parameters to map the foreground likelihood ROI to a target region of the foreground likelihood image portion , wherein the first iterations allow variation in translation parameters of the homography parameters and block variation in rotation parameters and perspective parameters of the homography parameters ; applying a plurality of second iterations, subsequent to the first iterations, to converge the homography parameters , wherein the second iterations allow variation in the translation parameters, the rotation parameters, and the perspective parameters; and outputting resultant homography parameters based on the first and second iterations.