mhurhangee/ep-ind-claims huggingface dataset:
A method for obtaining at least one calibration parameter for an antenna array, the antenna array comprising a first and a second radio module (3i-j, 4i-j), a first antenna and a second antenna respectively connected to the first and second radio modules, wherein the first and second radio modules (3i-j, 4i-j) each comprises a main transmitter (10i-j) and a selectively connectable calibration receiver (11i-j) or the first and second radio modules each comprises a main receiver (14i-j) and a selectively connectable calibration transmitter (15i-j), the method comprising: injecting a first calibration signal in the first radio module and measuring a first response to the first calibration signal in the first radio module, injecting a second calibration signal in the first radio module such that the calibration signal passes over mutual coupling of the antennas to the second radio module, and measuring a second response to the second calibration signal in the second radio module; injecting a third calibration signal in the second radio module and measuring a third response to the third calibration signal in the second radio module; injecting a fourth calibration signal in the second radio module such that the calibration signal passes over mutual coupling of the antennas to the first radio module and measuring a fourth response to the fourth calibration signal in the first radio module; calculating at least one numerical value using the first, second, third and fourth responses; calculating at least one calibration parameter based on the calculated numerical value; and applying the at least one calibration parameter to one of the first and second radio modules using a FIR, Finite Impulse Response, filter. injecting a first calibration signal in the first radio module and measuring a first response to the first calibration signal in the first radio module, injecting a second calibration signal in the first radio module such that the calibration signal passes over mutual coupling of the antennas to the second radio module, and measuring a second response to the second calibration signal in the second radio module; injecting a third calibration signal in the second radio module and measuring a third response to the third calibration signal in the second radio module; injecting a fourth calibration signal in the second radio module such that the calibration signal passes over mutual coupling of the antennas to the first radio module and measuring a fourth response to the fourth calibration signal in the first radio module; calculating at least one numerical value using the first, second, third and fourth responses; calculating at least one calibration parameter based on the calculated numerical value; and applying the at least one calibration parameter to one of the first and second radio modules using a FIR, Finite Impulse Response, filter.
A stand-by circuit comprising a first input for receiving a phase of a mains supply, a second input for receiving a stand-by signal, and an AC-DC converter, a bistable relay (3,30) connected between said first input and an input of said AC-DC converter, wherein said bistable relay disconnects said first input electrically from said input of said AC-DC converter when there is an active signal at said second input; a wake-up branch, wherein said bistable relay (3, 30) comprises a first switch and a second switch, said wake-up branch comprising said second switch, a first control branch, a third switch connected in series, said wake-up branch being operationally connected between said first input and the ground, said first switch being adapted to connect said first input electrically to an input of said AC-DC converter upon energization of said first control branch by the closing of said third switch, and to disconnect said first input from said input of said AC-DC converter upon energization of a second control branch, said second switch closing upon energization of said second control branch, said stand-by circuit further comprising a reset module adapted to energize said second control branch when there is an active stand-by signal at said second input; said stand-by circuit being characterized in that said reset module comprises an output terminal connected to a first terminal of said second control branch and an input terminal connected to said second input of said circuit, wherein an output of said converter is operationally connected to a second terminal of said second control branch.
A process for the preparation of optically pure -(+)-10,1 1-dihydro-10-hydroxy-5H-dibenz[b,f]azepine-5-carboxamide or esters thereof at position 10, comprising the steps of: a) reacting 10,11-dihydro-10-oxo-5H-dibenz[b,f]azepine-5-carboxamide with boronate ester of formula III in presence of sodium borohydride to obtain -(+)-10,11-dihydro-10-hydroxy-5H-dibenz[b,f]azepine-5-carboxamide; b) optionally, converting compound obtained after steps 'a' into their esters of formula; wherein, R 1 is CONH 2 R 3 is alkyl, halogenalkyl, aralkyl, cycloalkyl, cycloalkylalkyl, alkoxy, aryl or pyridyl; the term alkyl means carbon chain, straight or branched, containing from 1 to 18 carbon atoms; the term halogen represents fluorine, chlorine, bromine or iodine; the term cycloalkyl represents an alicyclic saturated group with 3 to 6 carbon atoms; and the term aryl represents unsubstituted phenyl group or phenyl substituted by alkoxy, halogen, nitro; a) reacting 10,11-dihydro-10-oxo-5H-dibenz[b,f]azepine-5-carboxamide with boronate ester of formula III in presence of sodium borohydride to obtain -(+)-10,11-dihydro-10-hydroxy-5H-dibenz[b,f]azepine-5-carboxamide; b) optionally, converting compound obtained after steps 'a' into their esters of formula; wherein, R 1 is CONH 2 R 3 is alkyl, halogenalkyl, aralkyl, cycloalkyl, cycloalkylalkyl, alkoxy, aryl or pyridyl; the term alkyl means carbon chain, straight or branched, containing from 1 to 18 carbon atoms; the term halogen represents fluorine, chlorine, bromine or iodine; the term cycloalkyl represents an alicyclic saturated group with 3 to 6 carbon atoms; and the term aryl represents unsubstituted phenyl group or phenyl substituted by alkoxy, halogen, nitro; R 1 is CONH 2 R 3 is alkyl, halogenalkyl, aralkyl, cycloalkyl, cycloalkylalkyl, alkoxy, aryl or pyridyl; the term alkyl means carbon chain, straight or branched, containing from 1 to 18 carbon atoms; the term halogen represents fluorine, chlorine, bromine or iodine; the term cycloalkyl represents an alicyclic saturated group with 3 to 6 carbon atoms; and the term aryl represents unsubstituted phenyl group or phenyl substituted by alkoxy, halogen, nitro;
Method for operating an electromagnetic flowmeter, the magnetic-inductive flow meter having a measuring tube for conducting a flowable medium, at least two measuring electrodes for detecting a flow-rate-dependent measuring voltage induced in the medium, and a magnetic-field-generating device for generating a magnetic field passing through the measuring tube, the magnetic field generating device having a coil; comprising the steps of: - applying a control voltage to the coil to generate a temporal coil current change; - determining the temporal coil current change in a switchover range, wherein a coil current change is present in the changeover region until a setpoint coil current I Soll is reached, wherein the changeover region comprises a time range ( γ), wherein the temporal coil current change is determined in the time range ( γ), wherein the time range ( γ) is immediately followed by a time range ( δ) in which the coil current change has an opposite sign to the coil current change in the time range ( γ); - measuring a coil voltage present at the coil; and - determining an inductance of the coil by means of the coil current change over time and the coil voltage in the time range ( γ). the magnetic-inductive flow meter having a measuring tube for conducting a flowable medium, at least two measuring electrodes for detecting a flow-rate-dependent measuring voltage induced in the medium, and a magnetic-field-generating device for generating a magnetic field passing through the measuring tube, the magnetic field generating device having a coil; comprising the steps of: - applying a control voltage to the coil to generate a temporal coil current change; - determining the temporal coil current change in a switchover range, - applying a control voltage to the coil to generate a temporal coil current change; - determining the temporal coil current change in a switchover range, wherein a coil current change is present in the changeover region until a setpoint coil current I Soll is reached, wherein the changeover region comprises a time range ( γ), wherein the temporal coil current change is determined in the time range ( γ), wherein the time range ( γ) is immediately followed by a time range ( δ) in which the coil current change has an opposite sign to the coil current change in the time range ( γ); - measuring a coil voltage present at the coil; and - determining an inductance of the coil by means of the coil current change over time and the coil voltage in the time range ( γ). - measuring a coil voltage present at the coil; and - determining an inductance of the coil by means of the coil current change over time and the coil voltage in the time range ( γ).
A mobile terminal comprising: a flexible display unit, which includes a deformation area deformable to a folded state and an unfolded state by an external force; a body portion supporting one area of the flexible display unit on a front surface and including first and second bodies detached from each other; a deformation support unit supporting the display unit, having a first living hinge unit corresponding to the deformation area; and a folding unit (100, 200) built in the body portion, configured to guide deformation of the display unit by the external force, wherein the folding unit is formed between the first and second bodies and includes a second living hinge unit arranged to correspond to the first living hinge unit, characterized in that the folding unit includes: a first connecting unit formed at one end of the second living hinge unit and fixed to the second body; and a second connecting unit formed at the other end of the second living hinge unit having a guide hole formed slidably in the first body along a first direction which is a length direction of the body portion, and wherein the second body includes a guide protrusion inserted into the guide hole and the guide protrusion is configured to move along the guide hole. a flexible display unit, which includes a deformation area deformable to a folded state and an unfolded state by an external force; a body portion supporting one area of the flexible display unit on a front surface and including first and second bodies detached from each other; a deformation support unit supporting the display unit, having a first living hinge unit corresponding to the deformation area; and a folding unit (100, 200) built in the body portion, configured to guide deformation of the display unit by the external force, wherein the folding unit is formed between the first and second bodies and includes a second living hinge unit arranged to correspond to the first living hinge unit, characterized in that the folding unit includes: a first connecting unit formed at one end of the second living hinge unit and fixed to the second body; and a second connecting unit formed at the other end of the second living hinge unit having a guide hole formed slidably in the first body along a first direction which is a length direction of the body portion, and a first connecting unit formed at one end of the second living hinge unit and fixed to the second body; and a second connecting unit formed at the other end of the second living hinge unit having a guide hole formed slidably in the first body along a first direction which is a length direction of the body portion, and wherein the second body includes a guide protrusion inserted into the guide hole and the guide protrusion is configured to move along the guide hole.
A compound having a formula selected from at least one of or wherein each of R 1 - R 10 and R 12 is independently H or a linear or branched hydrocarbon, optionally containing one or more heteroatoms; R 1 and R 2, R 2 and R 3, R 3 and R 4, R 4 and R 5, R 7 and R 8, R 8 and R 9, R 9 and R 10 or R 6 and R 12 are substituents capable of forming an aliphatic chain or ring, or an aromatic ring; R 11 is a linear or branched hydrocarbon, optionally containing one or more heteroatoms; R 13 is NR 14 R 15 where R 14 and R 15 are the same or different and are independently a hydrocarbon, optionally containing one or more heteroatoms, optionally containing a tetraalkylammonium group, or R 14 and R 15 in combination complete a five, six, or seven membered saturated ring, optionally containing one or more heteroatoms optionally containing a quaternary ammonium group; X is selected from the group consisting of O, S, Se, NR 16 where R 16 is H or a hydrocarbon optionally containing one or more heteroatoms, and CR 17 R 18 where R 17 and R 18 are the same or different and are independently a hydrocarbon optionally containing one or more heteroatoms, or in combination complete a five, six, or seven membered saturated ring, optionally containing one or more heteroatoms; n is an integer from 0 to 3; and anion - is a counterion and wherein the compound is not each of R 1 - R 10 and R 12 is independently H or a linear or branched hydrocarbon, optionally containing one or more heteroatoms; R 1 and R 2, R 2 and R 3, R 3 and R 4, R 4 and R 5, R 7 and R 8, R 8 and R 9, R 9 and R 10 or R 6 and R 12 are substituents capable of forming an aliphatic chain or ring, or an aromatic ring; R 11 is a linear or branched hydrocarbon, optionally containing one or more heteroatoms; R 13 is NR 14 R 15 where R 14 and R 15 are the same or different and are independently a hydrocarbon, optionally containing one or more heteroatoms, optionally containing a tetraalkylammonium group, or R 14 and R 15 in combination complete a five, six, or seven membered saturated ring, optionally containing one or more heteroatoms optionally containing a quaternary ammonium group; X is selected from the group consisting of O, S, Se, NR 16 where R 16 is H or a hydrocarbon optionally containing one or more heteroatoms, and CR 17 R 18 where R 17 and R 18 are the same or different and are independently a hydrocarbon optionally containing one or more heteroatoms, or in combination complete a five, six, or seven membered saturated ring, optionally containing one or more heteroatoms; are the same or different and are independently a hydrocarbon optionally containing one or more heteroatoms, or in combination complete a five, six, or seven membered saturated ring, optionally containing one or more heteroatoms; n is an integer from 0 to 3; and anion - is a counterion and wherein the compound is not
A method (110; 210) of controlling a vehicle climate system having a plurality of zones, wherein the plurality of zones includes a primary zone for a driver of the vehicle and one or more secondary zones (2Z1, 2Z2, 2Z3) for one or more passengers of the vehicle, the method comprising: determining (112; 212) whether one or more of the plurality of zones is occupied by a person, wherein said determining (112; 212) comprises determining if one or more of the secondary zones (2Z1, 2Z2, 2Z3) is occupied by a person; receiving (114; 214b) data indicative of a target temperature of one or more of the occupied zones; receiving data indicative of a target temperature in the primary zone; determining (116; 216) when one or more of the occupied zones becomes unoccupied; and adjusting (118; 218b) the target temperature of one or more of the unoccupied zones to an adjusted target temperature, wherein the adjusted target temperature is a function of the target temperature in the primary zone, wherein the adjusted target temperature is either substantially equal to the target temperature in the primary zone plus or minus a predetermined constant or substantially equal to the target temperature in the primary zone multiplied by a predetermined factor, the method being characterised by determining (111; 211d) whether an auto-sync function has been activated, and only adjusting the target temperature of one or more of the unoccupied zones to the adjusted target temperature if the auto-sync function is activated. determining (112; 212) whether one or more of the plurality of zones is occupied by a person, wherein said determining (112; 212) comprises determining if one or more of the secondary zones (2Z1, 2Z2, 2Z3) is occupied by a person; receiving (114; 214b) data indicative of a target temperature of one or more of the occupied zones; receiving data indicative of a target temperature in the primary zone; determining (116; 216) when one or more of the occupied zones becomes unoccupied; and adjusting (118; 218b) the target temperature of one or more of the unoccupied zones to an adjusted target temperature, wherein the adjusted target temperature is a function of the target temperature in the primary zone, wherein the adjusted target temperature is either substantially equal to the target temperature in the primary zone plus or minus a predetermined constant or substantially equal to the target temperature in the primary zone multiplied by a predetermined factor, the method being characterised by determining (111; 211d) whether an auto-sync function has been activated, and only adjusting the target temperature of one or more of the unoccupied zones to the adjusted target temperature if the auto-sync function is activated.
A radar device comprising: a plurality of transmission radars (1-1 to 1-N TX, 1'-1 to 1'-N Tx) for each transmitting transmission radio-frequency signals by performing phase modulation on pulse signals having a same transmission frequency throughout the pulse signals of each transmission radar and using respective amounts of phase modulation, the transmission radio-frequency signals being the phase-modulated pulse signals, and the amounts of phase modulation varying between hit numbers; a reception radar (4-1, 4'-1 to 4'-N Rx) for receiving, as a reception radio-frequency signal, each of the transmission radio-frequency signals having been transmitted from each of the plurality of transmission radars, and then reflected by a target; and a signal processor for detecting a candidate for the target on a basis of the reception radio-frequency signal received by the reception radar, characterized in that the respective amounts of the phase modulation satisfy the formula Δφ n Tx h = 2 π p n Tx H h p n Tx ∈ 0,1, ⋯, floor H N Tx where Δφ(n TX,h) is amounts of the phase modulation; H is a number of hits; H = floor T obs T pri; T obs is an observation time of the radar device; T pri is a pulse repetition interval; the number of hits -being -the number of pulses radiated by the plurality of transmission radars into the air; h denotes the hit number; h=0,1,...,H-1; N TX is a number of transmission radars; n TX denotes the respective transmission radar (1-1 to 1-N TX, 1'-1 to 1' -N Tx); and n TX =1,2,...,N TX. a plurality of transmission radars (1-1 to 1-N TX, 1'-1 to 1'-N Tx) for each transmitting transmission radio-frequency signals by performing phase modulation on pulse signals having a same transmission frequency throughout the pulse signals of each transmission radar and using respective amounts of phase modulation, the transmission radio-frequency signals being the phase-modulated pulse signals, and the amounts of phase modulation varying between hit numbers; a reception radar (4-1, 4'-1 to 4'-N Rx) for receiving, as a reception radio-frequency signal, each of the transmission radio-frequency signals having been transmitted from each of the plurality of transmission radars, and then reflected by a target; and a signal processor for detecting a candidate for the target on a basis of the reception radio-frequency signal received by the reception radar, characterized in that the respective amounts of the phase modulation satisfy the formula Δφ n Tx h = 2 π p n Tx H h p n Tx ∈ 0,1, ⋯, floor H N Tx where Δφ(n TX,h) is amounts of the phase modulation; H is a number of hits; H = floor T obs T pri; T obs is an observation time of the radar device; T pri is a pulse repetition interval; the number of hits -being -the number of pulses radiated by the plurality of transmission radars into the air; h denotes the hit number; h=0,1,...,H-1; N TX is a number of transmission radars; n TX denotes the respective transmission radar (1-1 to 1-N TX, 1'-1 to 1' -N Tx); and n TX =1,2,...,N TX.
Hybrid process for producing high-purity para-xylene from a feedstock of aromatic hydrocarbon isomer fractions having 8 carbon atoms, in a liquid phase, comprising: a) a liquid chromatography separation step via simulated countercurrent adsorption of para-xylene using a zeolitic adsorbent and a desorption solvent, said adsorbent comprising: - at least one majority zeolite of faujasite type having a lattice parameter «a» higher than 25.100 Å, - barium such that the content of barium oxide BaO is comprised between 30 % and 41 % by weight, limits included, relative to the total weight of the adsorbent, to obtain a stream of purified para-xylene; b) a crystallization step of the para-xylene from the purified stream of para-xylene obtained at the separation step, at a temperature between 0 and -25 °C, followed by washing of the crystals with a washing solvent, to obtain high-purity para-xylene, wherein the desorption solvent at the separation step and the washing solvent at the crystallization step is toluene, wherein the adsorbent comprises an LSX zeolite or a mixture of zeolites of faujasite type, this mixture being a X-type zeolite and LSX zeolite, the LSX zeolite being in majority. a) a liquid chromatography separation step via simulated countercurrent adsorption of para-xylene using a zeolitic adsorbent and a desorption solvent, said adsorbent comprising: - at least one majority zeolite of faujasite type having a lattice parameter «a» higher than 25.100 Å, - barium such that the content of barium oxide BaO is comprised between 30 % and 41 % by weight, limits included, relative to the total weight of the adsorbent, to obtain a stream of purified para-xylene; - at least one majority zeolite of faujasite type having a lattice parameter «a» higher than 25.100 Å, - barium such that the content of barium oxide BaO is comprised between 30 % and 41 % by weight, limits included, relative to the total weight of the adsorbent, b) a crystallization step of the para-xylene from the purified stream of para-xylene obtained at the separation step, at a temperature between 0 and -25 °C, followed by washing of the crystals with a washing solvent, to obtain high-purity para-xylene, wherein the desorption solvent at the separation step and the washing solvent at the crystallization step is toluene, wherein the adsorbent comprises an LSX zeolite or a mixture of zeolites of faujasite type, this mixture being a X-type zeolite and LSX zeolite, the LSX zeolite being in majority.
Process for producing an adhesive tape having a carrier comprising a film applied on at least one side of which is an adhesive, the film being a monoaxially drawn film of polypropylene, including at least 80 wt% of polypropylene which beforehand has been processed at least once, preferably extruded at least once, the film having a draw ratio on drawing in the longitudinal direction of 1:4 to 1:10, comprising the steps of: • melting polypropylene consisting to an extent of at least 80 wt% of polypropylene which beforehand has been processed, preferably extruded, at least once • extruding the polypropylene melt to form a film • monoaxially drawing the film with a draw ratio in the longitudinal direction of 1:4 to 1:10 • coating the film with a pressure-sensitive adhesive. • melting polypropylene consisting to an extent of at least 80 wt% of polypropylene which beforehand has been processed, preferably extruded, at least once • extruding the polypropylene melt to form a film • monoaxially drawing the film with a draw ratio in the longitudinal direction of 1:4 to 1:10 • coating the film with a pressure-sensitive adhesive.