mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: storing N digitized samples I(n) and Q(n) representing in-phase and quadrature (I-Q) components, respectively, of a down-converted signal from a receiver, the I-Q components being generated from a quadrature demodulator or modulator having I-Q imbalance; and computing phase and gain adjustment constants (10, 15, 20, 25) from the N digitized samples to compensate for the I-Q imbalance using a closed-form solution; wherein computing the phase and gain adjustment constants (10, 15, 20, 25) comprises: • computing in-phase average power P l,avg, quadrature average power P Q,avg and I-Q correlation R lQ from the N digitized samples I(n) and Q(n); • estimating a gain difference Δ g and a phase difference Δφ using the in-phase average power P l,avg, the quadrature average power P Q,avg, and the I-Q correlation R lQ characterized in that computing the phase and gain adjustment constants (10, 15, 20, 25) further comprises: • computing a matrix A = a 11 a 12 a 21 a 22 using the gain difference Δ g and the phase difference Δφ, the matrix A having components a 11, a 12, a 21 and a 22 being the phase and gain adjustment constants (10, 15, 20, 25), wherein computing the matrix A = a 11 a 12 a 21 a 22 comprises: computing a gain matrix G = 1 + Δ g 2 0 0 1 − Δ g 2; computing a gain matrix P = cos Δ φ 2 sin Δ φ 2 sin Δ φ 2 cos Δ φ 2; computing a product matrix M = GP; and computing the matrix A as inverse of the product matrix M, A-M -1. storing N digitized samples I(n) and Q(n) representing in-phase and quadrature (I-Q) components, respectively, of a down-converted signal from a receiver, the I-Q components being generated from a quadrature demodulator or modulator having I-Q imbalance; and computing phase and gain adjustment constants (10, 15, 20, 25) from the N digitized samples to compensate for the I-Q imbalance using a closed-form solution; • computing in-phase average power P l,avg, quadrature average power P Q,avg and I-Q correlation R lQ from the N digitized samples I(n) and Q(n); • estimating a gain difference Δ g and a phase difference Δφ using the in-phase average power P l,avg, the quadrature average power P Q,avg, and the I-Q correlation R lQ • computing a matrix A = a 11 a 12 a 21 a 22 using the gain difference Δ g and the phase difference Δφ, the matrix A having components a 11, a 12, a 21 and a 22 being the phase and gain adjustment constants (10, 15, 20, 25), wherein computing the matrix A = a 11 a 12 a 21 a 22 comprises: computing a gain matrix G = 1 + Δ g 2 0 0 1 − Δ g 2; computing a gain matrix P = cos Δ φ 2 sin Δ φ 2 sin Δ φ 2 cos Δ φ 2; computing a product matrix M = GP; and computing the matrix A as inverse of the product matrix M, A-M -1. computing a gain matrix G = 1 + Δ g 2 0 0 1 − Δ g 2; computing a gain matrix P = cos Δ φ 2 sin Δ φ 2 sin Δ φ 2 cos Δ φ 2; computing a product matrix M = GP; and computing the matrix A as inverse of the product matrix M, A-M -1.
A method of isolating cells or cellular contents in a microfluidic device that is bonded to an impregnating layer of a hydrophobic porous layer, comprising: flowing a sample including at least one of a cell or cellular contents into a sample passage of the microfluidic device and into a junction; flowing an oil into the junction through two oil phase passages (124, 128) to form microcapsules enclosing the at least one of the cell or cellular contents, the microcapsules and a volume of the oil forming a microcapsule-oil mixture in a mixture passageway; transforming the microcapsules into preserved microcapsules by conveying a polymerization agent from a polymerization agent reservoir through a polymerization agent supply passageway and into the mixture passageway; and extracting the preserved microcapsules from the microfluidic device, comprising flowing the preserved microcapsules onto the hydrophobic porous layer that is at least partially bounding an outlet of the microfluidic device; wherein the impregnating layer comprises a cured polymer material disposed on a surface of a porous material of the hydrophobic porous layer, the hydrophobic porous layer is disposed under the outlet and extends away from the outlet to an exposed position to a user, the polymerization agent mixes with the microcapsule-oil mixture in the mixture passageway and reacts with the contents of the microcapsule to form a hydrogel around the encapsulated cell or cellular contents, thereby forming the preserved microcapsules, and the oil is drawn into and retained in the hydrophobic porous layer such that the preserved microcapsules accumulate in the outlet. flowing a sample including at least one of a cell or cellular contents into a sample passage of the microfluidic device and into a junction; flowing an oil into the junction through two oil phase passages (124, 128) to form microcapsules enclosing the at least one of the cell or cellular contents, the microcapsules and a volume of the oil forming a microcapsule-oil mixture in a mixture passageway; transforming the microcapsules into preserved microcapsules by conveying a polymerization agent from a polymerization agent reservoir through a polymerization agent supply passageway and into the mixture passageway; and extracting the preserved microcapsules from the microfluidic device, comprising flowing the preserved microcapsules onto the hydrophobic porous layer that is at least partially bounding an outlet of the microfluidic device; wherein the impregnating layer comprises a cured polymer material disposed on a surface of a porous material of the hydrophobic porous layer, the hydrophobic porous layer is disposed under the outlet and extends away from the outlet to an exposed position to a user, the polymerization agent mixes with the microcapsule-oil mixture in the mixture passageway and reacts with the contents of the microcapsule to form a hydrogel around the encapsulated cell or cellular contents, thereby forming the preserved microcapsules, and the oil is drawn into and retained in the hydrophobic porous layer such that the preserved microcapsules accumulate in the outlet.
A resonant trap circuit comprising: a conductor line arranged to include a helical winding portion that includes a first helical winding segment and a second helical winding segment that are helically twisted together; and capacitor arranged to provide capacitance between the first helical winding segment and the second helical winding segment, wherein the helical winding portion includes an axis of symmetry that extends longitudinally within the helical winding portion equidistant from the first and second helical winding segments (308a, 308b). a conductor line arranged to include a helical winding portion that includes a first helical winding segment and a second helical winding segment that are helically twisted together; and capacitor arranged to provide capacitance between the first helical winding segment and the second helical winding segment, wherein the helical winding portion includes an axis of symmetry that extends longitudinally within the helical winding portion equidistant from the first and second helical winding segments (308a, 308b).
Nacelle for a two-flow turbine engine, said nacelle comprising: - a fixed structure in which there is arranged a duct in which a secondary flow flows, - a reverser door that is able to move in rotation about an axis of rotation, between a stowed position in which the reverser door is positioned outside the duct, and a deployed position in which the reverser door is positioned across the duct so as to leave free a window that is open between the duct and the outside, - an opening system that moves the reverser door from the stowed position to the deployed position and vice versa, and - a deployment aid system that comprises a spring element which is arranged so as to exert, against the reverser door, a force that tends to push said reverser door away from its stowed position, the nacelle being characterized in that the deployment aid system comprises a drum that is mounted so as to be able to move in rotation on the fixed structure; in that the deployment aid system comprises a finger that is fixed to the drum and that has a free end which, in the stowed position, presses against the reverser door; in that the deployment aid system comprises a lever that is fixed to the drum; and in that the spring element is a compression spring which, at a first end, presses against the fixed structure, and which, at a second end, presses against the lever. - a fixed structure in which there is arranged a duct in which a secondary flow flows, - a reverser door that is able to move in rotation about an axis of rotation, between a stowed position in which the reverser door is positioned outside the duct, and a deployed position in which the reverser door is positioned across the duct so as to leave free a window that is open between the duct and the outside, - an opening system that moves the reverser door from the stowed position to the deployed position and vice versa, and - a deployment aid system that comprises a spring element which is arranged so as to exert, against the reverser door, a force that tends to push said reverser door away from its stowed position,
A process for purifying a hydrogen containing feed with less than 1 mol% carbon dioxide comprising sending said hydrogen containing feed to a pressure swing adsorption unit, purging said pressure swing adsorption unit with a methane containing stream comprising greater than 80 mol% methane in the same flow direction as said hydrogen containing feed, recovering a product stream comprising more than 99 mol% hydrogen and a tail gas stream.
A method of processing a positioning reference signal, the method comprising: transmitting, to a narrow-band, NB, user equipment, UE, one or more configuration parameters comprising NB positioning reference signal, PRS, configuration information and PRS configuration information, wherein the NB PRS configuration information comprises: information of an NB PRS reference cell that generates an NB PRS for the NB UE; and a number of cell-specific reference signal, CRS, antenna ports; and based on the one or more configuration parameters: transmitting, to the NB UE, the NB PRS for the NB UE; transmitting, in a first frequency band and to the NB UE, a PRS for a UE, the UE being assigned to use the first frequency band available for the NB UE and a second frequency band unavailable for the NB UE; and receiving, from the NB UE, a reference signal time difference, RSTD, measurement, wherein the RSTD measurement is based on the NB PRS and the PRS. transmitting, to a narrow-band, NB, user equipment, UE, one or more configuration parameters comprising NB positioning reference signal, PRS, configuration information and PRS configuration information, wherein the NB PRS configuration information comprises: information of an NB PRS reference cell that generates an NB PRS for the NB UE; and a number of cell-specific reference signal, CRS, antenna ports; and information of an NB PRS reference cell that generates an NB PRS for the NB UE; and a number of cell-specific reference signal, CRS, antenna ports; and based on the one or more configuration parameters: transmitting, to the NB UE, the NB PRS for the NB UE; transmitting, in a first frequency band and to the NB UE, a PRS for a UE, the UE being assigned to use the first frequency band available for the NB UE and a second frequency band unavailable for the NB UE; and receiving, from the NB UE, a reference signal time difference, RSTD, measurement, wherein the RSTD measurement is based on the NB PRS and the PRS. transmitting, to the NB UE, the NB PRS for the NB UE; transmitting, in a first frequency band and to the NB UE, a PRS for a UE, the UE being assigned to use the first frequency band available for the NB UE and a second frequency band unavailable for the NB UE; and receiving, from the NB UE, a reference signal time difference, RSTD, measurement, wherein the RSTD measurement is based on the NB PRS and the PRS.
Fibre composite laying method for producing a fibre composite scrim for forming a fibre composite component, comprising the steps of: supplying a fibre composite band in a supply region of a laying head; unrolling the supplied fibre composite band using a laying roller; pressing the unrolled fibre composite band onto a laying surface in a laying region using the laying roller; pressing the supplied fibre composite band onto the laying roller in a pressing region using a pressing means, the pressing region being arranged between the supply region and the laying region; and cutting the fibre composite band to length between the supply region and the pressing region using a cutting means; characterized in that the pressing is carried out using a contact pressure and the fibre composite laying method further comprises the step of monitoring (M4a) the contact pressure. supplying a fibre composite band in a supply region of a laying head; unrolling the supplied fibre composite band using a laying roller; pressing the unrolled fibre composite band onto a laying surface in a laying region using the laying roller; pressing the supplied fibre composite band onto the laying roller in a pressing region using a pressing means, the pressing region being arranged between the supply region and the laying region; and cutting the fibre composite band to length between the supply region and the pressing region using a cutting means; characterized in that the pressing is carried out using a contact pressure and the fibre composite laying method further comprises the step of monitoring (M4a) the contact pressure.
Power generating apparatus comprising: an electrical cable 18 a first arrangement comprising a first buoyancy vessel configured to float at a surface of a body of water, the first arrangement comprising at least one energy conversion apparatus operable to be driven by the environment; a second arrangement permanently moored to the bed of the body of water, the power generating apparatus being characterised by the second arrangement comprising; a second buoyancy vessel configured to be neutrally buoyant at a location in the body of water spaced apart from the bed of the body of water; and the first and second arrangements being configured for releasable attachment to each other and such that electricity is conveyed through the electrical cable in dependence upon operation of the energy conversion apparatus when the first and second arrangements (14,16) are attached to each other.
Powder particles, comprising large particles to be a main component of a sintering body, and thermoplastic resin particles having a smaller particle size than the large particles and loaded on surfaces of the large particles, wherein the thermoplastic resin particles are scattered on the surfaces of the large particles in an amount within a predetermined volume ratio range with respect to the large particles, and loaded on the large particles in a manner to form resin pools in contact point peripheral areas of adjoining ones of the large particles when the thermoplastic resin particles are melted, wherein the thermoplastic resin particles are within a volume ratio range of from 2% to 5% with respect to the large particles, or wherein the number of the thermoplastic resin particles loaded on a surface of each of the large particles is not less than 4 and not more than 120, wherein small particles having easy sinterability or a function as an auxiliary sintering additive and a smaller particle size than the large particles are attached on the surfaces of the large particles, wherein the small particles have an average particle size of not more than 150 nm, and wherein the large particles have an average particles size of not less than 500 nm and not more than 5 μm. wherein the thermoplastic resin particles are within a volume ratio range of from 2% to 5% with respect to the large particles, or wherein the number of the thermoplastic resin particles loaded on a surface of each of the large particles is not less than 4 and not more than 120, wherein small particles having easy sinterability or a function as an auxiliary sintering additive and a smaller particle size than the large particles are attached on the surfaces of the large particles, wherein the small particles have an average particle size of not more than 150 nm, and wherein the large particles have an average particles size of not less than 500 nm and not more than 5 μm.
A method to control a biogas collection plant comprising a collection manifold and a plurality of collection units, each of which is connected to a respective capturing well and comprises a respective feeding pipe connected to the collection manifold and a respective regulation valve to adjust the biogas flow rate in the feeding pipe itself; the method being characterised in that it comprises: - carrying out a first periodic cycle of measurements of parameters (Pa, P, Q, CH4, 02) of the biogas in the collection units by means of a group of sensors shared by all collection units, the first periodic cycle of measurements being divided into a plurality of time intervals (ΔTi), the parameters (Pa, P, Q, CH4, 02) of a respective collection unit being measured in each one of them; - carrying out a second periodic cycle of measurements of a sub-set of the parameters (Q, P) of the biogas of the collection units by means of a sub-set of the group of sensors, the second cycle of measurements being simultaneous with and having a smaller periodicity than the first cycle of measurements; - in each time interval (ΔTi), adjusting the opening of the regulation valve of the relative collection unit as a function of the processing of the measured values of the parameters (Pa, P, Q, CH4, 02) obtained in the time interval (ΔTi); and - detecting possible faults in the collection units as a function of the processing of the relative measured values of the sub-set of parameters (Q, P) obtained in the second cycle of measurements. - carrying out a first periodic cycle of measurements of parameters (Pa, P, Q, CH4, 02) of the biogas in the collection units by means of a group of sensors shared by all collection units, the first periodic cycle of measurements being divided into a plurality of time intervals (ΔTi), the parameters (Pa, P, Q, CH4, 02) of a respective collection unit being measured in each one of them; - carrying out a second periodic cycle of measurements of a sub-set of the parameters (Q, P) of the biogas of the collection units by means of a sub-set of the group of sensors, the second cycle of measurements being simultaneous with and having a smaller periodicity than the first cycle of measurements; - in each time interval (ΔTi), adjusting the opening of the regulation valve of the relative collection unit as a function of the processing of the measured values of the parameters (Pa, P, Q, CH4, 02) obtained in the time interval (ΔTi); and - detecting possible faults in the collection units as a function of the processing of the relative measured values of the sub-set of parameters (Q, P) obtained in the second cycle of measurements.
Valve top for a fitting having a mixed water outlet and a separate hot water outlet and being operable by means of a boiler in an unpressurised system, having a head piece centrally penetrated by a spindle, via which a disc control is operable which comprises a control disc, which is rotatably arranged relative to a non-rotatably arranged inlet disc, characterised in that the inlet disc has two cold water inlet bores (42, 44), two cold water outlet bores (43, 45) and one hot water inlet bore, wherein the control disc has a recess, which can be brought into at least partial coverage with a first cold water inlet bore and the hot water inlet bore for adjusting the mixed water, wherein the control disc is provided with a connecting channel, which is arranged in a manner that in one position of the control disc with a partial coverage of the recess with the hot water inlet bore, the first cold water outlet bore is connected to a cold water inlet and in a further position of the control disc without coverage of the recess with an outlet bore, the second cold water outlet bore is connected to a cold water inlet.
Cookware comprising an inner cooking surface of an uncoated bare metal and a sidewall extending upwardly from the cooking surface to a rim, wherein the inner surface of the sidewall is coated with a non-stick coating.
System for compacting rubbish, comprising: - a frame having a front wall, - a carrier intended to be moved in a forward-backward direction relative to the frame, - an upper scoop pivotably mounted on the carrier about a first right-left axis, referred to as axis A1, and having an upper milling face to mill the rubbish, and - a lower scoop pivotably mounted on the upper scoop about a second right-left axis, referred to as axis A2, and having a lower milling face to mill the rubbish, said upper scoop and lower scoop being intended to take on a downwardly deployed position wherein their milling faces (210, 211) are opposite the front wall, said carrier being intended to be moved in the forward direction when the upper scoop and lower scoop are in the deployed position, in such a way as to compact the rubbish between said milling faces (210, 211) and the front wall, characterised in that, in the deployed position, the projection of the upper milling face in the plane perpendicular to the forward-backward direction, referred to as the transverse plane, has a surface area greater than or equal to the projection of the lower milling face in the transverse plane. - a frame having a front wall, - a carrier intended to be moved in a forward-backward direction relative to the frame, - an upper scoop pivotably mounted on the carrier about a first right-left axis, referred to as axis A1, and having an upper milling face to mill the rubbish, and - a lower scoop pivotably mounted on the upper scoop about a second right-left axis, referred to as axis A2, and having a lower milling face to mill the rubbish,
A bacterium of the genus Corynebacterium having the ability to excrete an L-amino acid selected from proteinogenic L-amino acids and L-ornithine, wherein within the chromosome of said bacterium a polynucleotide encoding a polypeptide, which is at least 90 % identical to the amino acid sequence of SEQ ID NO:8 and which confers upon Escherichia coli a resistance to at least one antibiotic, selected from erythromycin, tetracycline, puromycin and bleomycin, is modified by deleting at least the part of the nucleotide sequence coding for said polypeptide which corresponds to the amino acids of positions 149 to 251, 41 to 344, or 14 to 435 of the amino acid sequence according to SEQ ID NO:8 or by deleting at least the complete nucleotide sequence coding for said polypeptide.
A transcutaneous irradiation module, comprising an optical light guide (1, 1a, 30) for diffusing a light radiation through a surface, said optical light guide comprising a base (3, 31) comprising or being configured to hold a plurality of diffusing rods (2, 2a; 35a, 35b, 35c), whose each rod has the lower diffusing end (7, 7a; 38a, 38b, 38c) protruding from said base and being intended to be applied on or near said surface, the upper collecting end (6, 6a; 37a, 37b, 37c) of each diffusing rod being intended to be located in the vicinity of and facing an electrically powered light source (36a,36b,36c), the diffusing rod (2,2a; 35a,35b,35c) comprising a material capable of transmitting light from its collecting end (6,6a; 37a,37b,37c) to its upper end (6,6a; 37a,37b,37c), the module comprising an annular housing (4, 4a; 42), comprising a plurality of light sources (36a, 36b, 36c) located opposite and close to the collecting end (37a, 37b, 37c) of the plurality of diffusing rods (2, 2a; 35a, 35b, 35c),, each diffusing rode being associated to a light source of the plurality of light sources (36a, 36b, 36c); the optical guide (1, 1a, 30) being mounted in the annular housing (4, 4a, 42); the plurality of light sources (36a, 36b, 36c) comprising a light emitting diode emitting in the red spectrum, a light emitting diode emitting in the infrared spectrum and an infrared laser diode.