mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting non binary error correcting code word symbols via a transmission channel, each code word symbol comprising p bits, which method comprises - a first modulation step associating with each code word symbol of p bits a sequence of at least 2 P chips from 2 P possible sequences, - a second modulation step to modulate the phase or amplitude of at least one carrier signal with the sequences associated with the code words and generate modulated symbols, and - a step of transmitting the modulated carrier signal via said transmission channel, wherein the first modulation step is a spread spectrum modulation of the cyclic code shift keying type using a basic pseudo-random sequence of at least 2 P chips, the possible 2 P sequences being obtained by circular shift of the basic pseudo-random sequence and characterised in that the modulated symbols generated during the second modulation step are of size equal to that of the sequences, and in that the method further comprises, after said second modulation step, a step of inserting a cyclic prefix into each symbol to be transmitted. - a first modulation step associating with each code word symbol of p bits a sequence of at least 2 P chips from 2 P possible sequences, - a second modulation step to modulate the phase or amplitude of at least one carrier signal with the sequences associated with the code words and generate modulated symbols, and - a step of transmitting the modulated carrier signal via said transmission channel, wherein the first modulation step is a spread spectrum modulation of the cyclic code shift keying type using a basic pseudo-random sequence of at least 2 P chips, the possible 2 P sequences being obtained by circular shift of the basic pseudo-random sequence and characterised in that the modulated symbols generated during the second modulation step are of size equal to that of the sequences, and in that the method further comprises, after said second modulation step, a step of inserting a cyclic prefix into each symbol to be transmitted.
An amplifier circuit, wherein: the amplifier circuit is configured to be connected to a transmitting and receiving unit and to perform amplification of a carrier signal received by the transmitting and receiving unit when the amplifier circuit is connected to the transmitting and receiving unit, the amplifier circuit comprising: an impedance matching circuit configured to perform impedance matching of the amplifier circuit when the amplifier circuit is connected to the transmitting and receiving unit; a superposition wave generating unit configured to generate a superposition wave; a driver configured to output an amplified carrier signal which is obtained by adding the superposition wave to the received carrier signal; and an amplitude detecting unit configured to detect whether the received carrier signal is a predetermined carrier signal superimposed with a predetermined communication signal, based on changes of an amplitude value of the received carrier signal, wherein, the amplifier circuit is configured to output the amplified carrier signal when the predetermined carrier signal is detected. the amplifier circuit is configured to be connected to a transmitting and receiving unit and to perform amplification of a carrier signal received by the transmitting and receiving unit when the amplifier circuit is connected to the transmitting and receiving unit, the amplifier circuit comprising: an impedance matching circuit configured to perform impedance matching of the amplifier circuit when the amplifier circuit is connected to the transmitting and receiving unit; a superposition wave generating unit configured to generate a superposition wave; a driver configured to output an amplified carrier signal which is obtained by adding the superposition wave to the received carrier signal; and an amplitude detecting unit configured to detect whether the received carrier signal is a predetermined carrier signal superimposed with a predetermined communication signal, based on changes of an amplitude value of the received carrier signal, an impedance matching circuit configured to perform impedance matching of the amplifier circuit when the amplifier circuit is connected to the transmitting and receiving unit; a superposition wave generating unit configured to generate a superposition wave; a driver configured to output an amplified carrier signal which is obtained by adding the superposition wave to the received carrier signal; and an amplitude detecting unit configured to detect whether the received carrier signal is a predetermined carrier signal superimposed with a predetermined communication signal, based on changes of an amplitude value of the received carrier signal, wherein, the amplifier circuit is configured to output the amplified carrier signal when the predetermined carrier signal is detected.
An ink cartridge for installing in a cartridge mounting portion of a recording apparatus, comprising: a body having a front side at which an ink supply portion is located for supplying ink stored in an ink chamber to an exterior of the ink chamber, and a rear side located to face the front side; a particular interface positioned substantially adjacent to the ink supply portion at the front side; and an engagement portion configured to be engaged with a locking section (108, 109) of a cartridge installation portion for retaining the body in an installed state, wherein the particular interface is configured to be biased by a biasing member (139, 839) in a specific direction, characterized in that the engagement portion comprises a latch lever and an urging member, the latch lever being configured to move between a first position in which the latch lever is in engagement with the locking section and a second position in which the latch lever is disengaged from the locking section, and the urging member being configured to urge the latch lever to the first position; and when the ink cartridge is not installed in the cartridge mounting portion, the latch lever is in the first position. a body having a front side at which an ink supply portion is located for supplying ink stored in an ink chamber to an exterior of the ink chamber, and a rear side located to face the front side; a particular interface positioned substantially adjacent to the ink supply portion at the front side; and an engagement portion configured to be engaged with a locking section (108, 109) of a cartridge installation portion for retaining the body in an installed state, wherein the particular interface is configured to be biased by a biasing member (139, 839) in a specific direction, characterized in that the engagement portion comprises a latch lever and an urging member, the latch lever being configured to move between a first position in which the latch lever is in engagement with the locking section and a second position in which the latch lever is disengaged from the locking section, and the urging member being configured to urge the latch lever to the first position; and when the ink cartridge is not installed in the cartridge mounting portion, the latch lever is in the first position.
A disposable wearing article, comprising an absorber having a longitudinal direction, a widthwise direction perpendicular to the longitudinal direction, an inner direction for facing a wearer and an outer direction opposite the inner direction, the absorber having a crotch region that is adapted to be in contact with a crotch of the wearer, a front waistline region arranged anteriorly of the crotch region, and a back waistline region arranged posteriorly of the crotch region, wherein a central curving unit that allows the absorber to curve in a convex shape in the inner direction is formed at a center in the widthwise direction of the crotch region, a first curving unit that allows the absorber to curve in a convex shape in the outer direction is formed in the crotch region and outboard of the central curving unit in the widthwise direction, a second curving unit that allows the absorber to curve in a convex shape in the inner direction is formed in the crotch region and outboard of the first curving unit in the widthwise direction, a concave unit is formed in the absorber to be concaved inwardly in the widthwise direction, and at an outside in the longitudinal direction relative to the first curving unit, the second curving unit is arranged outboard of an inside edge in the widthwise direction of the concave unit in the widthwise direction, the central curving unit comprises a central aperture formed at a center in the widthwise direction of the absorber and a central elastic member arranged so as to be superimposed on the central aperture in a thickness direction, the first curving unit comprises a pair of first side slits formed outboard of the central aperture in the widthwise direction, and the second curving unit comprises a pair of second side slits formed outboard of the first side slit in the widthwise direction and a slit elastic member arranged so as to be superimposed on the second side slit in the thickness direction.
A method for detecting and compensating for inaccurate echo prediction, the method comprising: receiving (305, 605) a signal at a microphone (125, 225, 425) of an audio system (100, 200, 400), the signal including audio rendered using a spatial audio renderer across a multi-channel audio output of the audio system; receiving (310, 620) a signal from the spatial audio renderer that indicates a change in rendering of audio; and modifying (330, 640) echo suppression, by the audio system after the signal from the spatial audio renderer has been received, applied to the received signal in response to receiving the signal from the spatial audio renderer, the echo suppression attenuating pre-selected frequency bands of the received signal. receiving (305, 605) a signal at a microphone (125, 225, 425) of an audio system (100, 200, 400), the signal including audio rendered using a spatial audio renderer across a multi-channel audio output of the audio system; receiving (310, 620) a signal from the spatial audio renderer that indicates a change in rendering of audio; and modifying (330, 640) echo suppression, by the audio system after the signal from the spatial audio renderer has been received, applied to the received signal in response to receiving the signal from the spatial audio renderer, the echo suppression attenuating pre-selected frequency bands of the received signal.
An electrolyte solution comprising: (i) a solvent containing - 0.01-20 mass-% of a fluorine-containing compound of the formula Rf 1 OCOOR wherein Rf 1 is C 1-4 -fluoroalkyl, and R is non-fluorinated C 1-4 -alkyl; and - 20-80 mass-% of a fluorine-containing compound of the formula Rf 2 OCOORf 3 wherein Rf 2 and Rf 3 each independently are selected from C 1-4 -fluoroalkyl; (ii) an electrolyte salt; and (iii) 0.5-70 ppm of HF. (i) a solvent containing - 0.01-20 mass-% of a fluorine-containing compound of the formula Rf 1 OCOOR wherein Rf 1 is C 1-4 -fluoroalkyl, and R is non-fluorinated C 1-4 -alkyl; and - 20-80 mass-% of a fluorine-containing compound of the formula Rf 2 OCOORf 3 wherein Rf 2 and Rf 3 each independently are selected from C 1-4 -fluoroalkyl; - 0.01-20 mass-% of a fluorine-containing compound of the formula Rf 1 OCOOR wherein Rf 1 is C 1-4 -fluoroalkyl, and R is non-fluorinated C 1-4 -alkyl; and - 20-80 mass-% of a fluorine-containing compound of the formula Rf 2 OCOORf 3 wherein Rf 2 and Rf 3 each independently are selected from C 1-4 -fluoroalkyl; (ii) an electrolyte salt; and (iii) 0.5-70 ppm of HF.
An internal combustion engine comprising an oil mist separator for a crankcase ventilation system, the oil mist separator being designed as an impactor, - with a nozzle device having at least one nozzle, - with an impact wall located opposite to the at least one nozzle and coated with a separation material, - wherein in the region of the at least one nozzle, a distance (d) between said nozzle and the separation material is reduced compared to the surrounding region, characterized in that the separation material in the region of the opposing nozzle projects towards the same and thereby reduces the distance (d) of a nozzle outlet to the separation material in this region compared to a surrounding region. - with a nozzle device having at least one nozzle, - with an impact wall located opposite to the at least one nozzle and coated with a separation material, - wherein in the region of the at least one nozzle, a distance (d) between said nozzle and the separation material is reduced compared to the surrounding region, characterized in that the separation material in the region of the opposing nozzle projects towards the same and thereby reduces the distance (d) of a nozzle outlet to the separation material in this region compared to a surrounding region.
A method using multiple sampling frequencies, applied to a touch device, comprising: determining which of first and second sampling frequencies is provided to a receiver for use in sampling touch inputs of a user from a touch panel of the touch device; sampling the touch inputs from the touch panel in first and second successive time frames using first and second different sampling frequencies, respectively; and detecting noise that interferes with the first sampling frequency used in the first time frame; the method being characterized in further comprising: while continuing to sample touch inputs from the touch panel using only the second sampling frequency, changing the first sampling frequency to a first candidate sampling frequency that is not interfered with by the detected noise; and sampling touch inputs from the touch panel in the first and second successive time frames using the first candidate and second sampling frequencies, respectively. determining which of first and second sampling frequencies is provided to a receiver for use in sampling touch inputs of a user from a touch panel of the touch device; sampling the touch inputs from the touch panel in first and second successive time frames using first and second different sampling frequencies, respectively; and detecting noise that interferes with the first sampling frequency used in the first time frame; the method being characterized in further comprising: while continuing to sample touch inputs from the touch panel using only the second sampling frequency, changing the first sampling frequency to a first candidate sampling frequency that is not interfered with by the detected noise; and while continuing to sample touch inputs from the touch panel using only the second sampling frequency, changing the first sampling frequency to a first candidate sampling frequency that is not interfered with by the detected noise; and sampling touch inputs from the touch panel in the first and second successive time frames using the first candidate and second sampling frequencies, respectively.
A method for purifying N-substituted maleimide, comprising: 1) performing a primary purification by introducing an N-substituted maleimide solution into a first distillation column and removing an organic solvent by distilling; and 2) performing a secondary purification by introducing, into an evaporation apparatus, an N-substituted maleimide residue from which the organic solvent is removed, and removing impurities which have higher boiling points than the N-substituted maleimides; wherein an operating pressure of the evaporation apparatus in the secondary purification is from 666.612 to 1333.22 Pa (5 to 10 torr). 1) performing a primary purification by introducing an N-substituted maleimide solution into a first distillation column and removing an organic solvent by distilling; and 2) performing a secondary purification by introducing, into an evaporation apparatus, an N-substituted maleimide residue from which the organic solvent is removed, and removing impurities which have higher boiling points than the N-substituted maleimides;
Air conditioning system, particularly for a motor vehicle with an air duct housing in which a plurality of air channels is formed, which have at least two supplying air channels comprising a hot air passage and a cold air duct, and at least three secondary air ducts comprising a ventilation channel, a footwell duct and a defrost duct, wherein a first combined mixing and distribution flap is provided for the regulation of the air temperature and air distribution of a vehicle interior air to be supplied, wherein for the separate control of the air temperature and air distribution in the left and right interior of the motor vehicle, a second combined mixing and distribution flap is provided in addition, wherein the first combined mixing and distribution flap and the second combined mixing and distribution flap are each formed substantially cylindrical as a drum flap, wherein between the first combined mixing and distribution flap and the second combined mixing and distribution flap a partition is provided, and the first combined mixing and distribution flap and the second combined mixing and distribution flap are arranged coaxially to each other, wherein a drive module for driving the mixing and distribution flaps (1, 15) is provided which is arranged centrally between the first combined mixing and distribution flap and the second combined mixing and distribution flap.
Recombinant bacteria, comprising a) at least one nucleic acid sequence functionally coupled to a prokaryotic, chloride-inducible promoter and encoding for at least one heterologous factor, said heterologous factor is independently a heterologous polypeptide, or a complex thereof, and b) at least one prokaryotic regulator gene, which controls activity of said chloride-inducible promoter, wherein said heterologous polypeptide comprises at least one eukaryotic polypeptide, at least one fragment thereof or a combination thereof, and wherein said heterologous polypeptide is selected from the group consisting of growth factors, cytokines, chemokines, enzymes, polypeptide hormones, neuropeptides, antibodies, cell surface receptors, soluble receptors, receptor ligands, intrabodies, co-factors, transcription factors, adhesion molecules, tumor antigens, precursors thereof, biologically active fragments thereof and combinations thereof from an eukaryotic species. a) at least one nucleic acid sequence functionally coupled to a prokaryotic, chloride-inducible promoter and encoding for at least one heterologous factor, said heterologous factor is independently a heterologous polypeptide, or a complex thereof, and b) at least one prokaryotic regulator gene, which controls activity of said chloride-inducible promoter, wherein said heterologous polypeptide comprises at least one eukaryotic polypeptide, at least one fragment thereof or a combination thereof, and wherein said heterologous polypeptide is selected from the group consisting of growth factors, cytokines, chemokines, enzymes, polypeptide hormones, neuropeptides, antibodies, cell surface receptors, soluble receptors, receptor ligands, intrabodies, co-factors, transcription factors, adhesion molecules, tumor antigens, precursors thereof, biologically active fragments thereof and combinations thereof from an eukaryotic species.
A modular medical system, comprising: a bedside patient monitor operable to measure a first set of patient parameters; a portable patient monitor operable to measure a second set of patient parameters; and a monitor docking station operable to dock the portable patient monitor to the bedside patient monitor, wherein the bedside patient monitor is configured to measure the first set of patient parameters and the portable patient monitor is configured to measure the second set of patient parameters responsive to the portable patient monitor being docked to the bedside patient monitor and coupled to a patient, and characterised by further comprising: a therapy applicator operable to conditionally deliver an electrical therapy to the patient; and a therapy docking station operable to dock the portable patient monitor to the therapy applicator, wherein the therapy applicator is configured to conditionally deliver the electrical therapy to the patient responsive to the portable patient monitor being docked to the therapy applicator and coupled to the patient, and in that at least one of the monitor docking station and therapy docking station is operable to power the portable patient monitor. a bedside patient monitor operable to measure a first set of patient parameters; a portable patient monitor operable to measure a second set of patient parameters; and a monitor docking station operable to dock the portable patient monitor to the bedside patient monitor, wherein the bedside patient monitor is configured to measure the first set of patient parameters and the portable patient monitor is configured to measure the second set of patient parameters responsive to the portable patient monitor being docked to the bedside patient monitor and coupled to a patient, and characterised by further comprising: a therapy applicator operable to conditionally deliver an electrical therapy to the patient; and a therapy docking station operable to dock the portable patient monitor to the therapy applicator, wherein the therapy applicator is configured to conditionally deliver the electrical therapy to the patient responsive to the portable patient monitor being docked to the therapy applicator and coupled to the patient, and in that at least one of the monitor docking station and therapy docking station is operable to power the portable patient monitor. a therapy applicator operable to conditionally deliver an electrical therapy to the patient; and a therapy docking station operable to dock the portable patient monitor to the therapy applicator, wherein the therapy applicator is configured to conditionally deliver the electrical therapy to the patient responsive to the portable patient monitor being docked to the therapy applicator and coupled to the patient, and in that at least one of the monitor docking station and therapy docking station is operable to power the portable patient monitor.
A catheter device for transvascular delivery of a medical device to a cardiac valve region of a patient, said catheter device comprising an elongate sheath with a lumen and a distal end for positioning at a heart valve, and a second channel that extends parallel on the outer portion or the inner portion of said elongate sheath, an expandable embolic protection unit, such as a filter, passing through the second channel wherein at least a portion of said expandable embolic protection unit is arranged to extend from an orifice of said second channel, wherein said embolic protection unit is non-tubular, extending substantially planar in said expanded state for covering ostia of the side branch vessels in the aortic arch, wherein said embolic protection unit is arranged to stabilize said distal end of said sheath when said embolic protection unit is expanded out of said second channel and it is in opposition against the surrounding vessel wall.
A method comprising: sending, by a session management function, SMF, to a network repository function, NRF, a discovery request for at least one user plane function, UPF, that supports a layer 2 tunneling protocol, L2TP, tunnel; receiving, by the SMF from the NRF, a discovery response comprising an identity of a UPF that supports the L2TP tunnel; selecting, by the SMF and based on the UPF supporting the L2TP tunnel, the UPF; and sending, by the SMF to the UPF, a session request message comprising tunnel information of the L2TP tunnel. sending, by a session management function, SMF, to a network repository function, NRF, a discovery request for at least one user plane function, UPF, that supports a layer 2 tunneling protocol, L2TP, tunnel; receiving, by the SMF from the NRF, a discovery response comprising an identity of a UPF that supports the L2TP tunnel; selecting, by the SMF and based on the UPF supporting the L2TP tunnel, the UPF; and sending, by the SMF to the UPF, a session request message comprising tunnel information of the L2TP tunnel.