mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition for use in the treatment of Rheumatoid Arthritis in an active phase of the disease, resistant to conventional therapies, comprising as active principle a monoclonal antibody that recognizes the human leukocyte differentiation antigen CD6, wherein the monoclonal antibody that recognizes the human leukocyte differentiation antigen CD6 does not inhibit binding of CD6 to Activated Leukocyte Adhesion Molecule (ALCAM), wherein said monoclonal antibody is a humanized antibody T1h, and wherein said humanized antibody T1h is obtained by genetic engineering methods from the secreting hybridoma TOR-T1A with deposit No. ECACC 96112640 and wherein the humanized antibody T1h comprises a heavy chain having a variable region with the following sequence: Glu Val Gln Leu Val Glu Ser Gly Gly Gly Leu Val Lys Pro Gly Gly Ser Leu Lys Leu Ser Cys Ala Ala Ser Gly Phe Lys Phe Ser Arg Tyr Ala Met Ser Trp Val Arg Gin Ala Pro Gly Lys Arg Leu Glu Trp Val Ala Thr lie Ser Ser Gly Gly Ser Tyr lie Tyr Tyr Pro Asp Ser Val Lys Gly Arg Phe Thr lie Ser Arg Asp Asn Val Lys Asn Thr Leu Tyr Leu Gin Met Ser Ser Leu Arg Ser Glu Asp Thr Ala Met Tyr Tyr Cys Ala Arg Arg Asp Tyr Asp Leu Asp Tyr Phe Asp Ser Trp Gly Gln Gly Thr Leu Val Thr Val Ser Ser; and a light chain having a variable region with the following sequence: Asp Ile Gln Met Thr Gln Ser Pro Ser Ser Leu Ser Ala Ser Val Gly Asp Arg Val Thr Ile Thr Cys Lys Ala Ser Arg Asp Ile Arg Ser Tyr Leu Thr Trp Tyr Gln Gln Lys Pro Gly Lys Ala Pro Lys Thr Leu lie Tyr Tyr Ala Thr Ser Leu Ala Asp Gly Val Pro Ser Arg Phe Ser Gly Ser Gly Ser Gly Gin Asp Tyr Ser Leu Thr Ile Ser Ser Leu Glu Ser Asp Asp Thr Ala Thr Tyr Tyr Cys Leu Gln His Gly Glu Ser Pro Phe Thr Phe Gly Ser Gly Thr Lys Leu Glu lie Lys Arg Ala and wherein the composition is administered as a parenteral solution with a weekly frequency.
A gas purging device for installation in a metallurgical vessel, comprising the following features in its installed position: a) a lower, gas-tight base part , b) a gas line runs in the base part from a first end in the region of a first outer face of the base part to a second end in the region of a second outer face of the base part , c) the second end of the gas line is formed as a first portion of a coupling, d) a second portion of the coupling is located in the region of an outer connection face of a functional part , by means of which the functional part rests against the base part , e) a gas distribution device runs in the functional part from the second portion of the coupling, through the functional part , to at least one free surface of the functional part formed as a gas outlet face, wherein f) a gas channel leads from the coupling to a gas distribution chamber within the functional part and from said gas distribution chamber gas-permeable zones of the functional part lead to said free surface of the functional part , via which the gas flows from the functional part into a metal melt, g) the base part and functional part are each made of refractory ceramic materials. a) a lower, gas-tight base part , b) a gas line runs in the base part from a first end in the region of a first outer face of the base part to a second end in the region of a second outer face of the base part , c) the second end of the gas line is formed as a first portion of a coupling, d) a second portion of the coupling is located in the region of an outer connection face of a functional part , by means of which the functional part rests against the base part , e) a gas distribution device runs in the functional part from the second portion of the coupling, through the functional part , to at least one free surface of the functional part formed as a gas outlet face, wherein f) a gas channel leads from the coupling to a gas distribution chamber within the functional part and from said gas distribution chamber gas-permeable zones of the functional part lead to said free surface of the functional part , via which the gas flows from the functional part into a metal melt, g) the base part and functional part are each made of refractory ceramic materials.
A vertical growth tower comprising at least one stack of growth trays and a lift mechanism configured to mechanically transfer growth trays from the at least one stack of growth trays between a management position and a storage position, wherein the at least one stack of growth trays comprises a plurality of growth trays, characterised in that the lift mechanism comprises an irrigation system comprising a watering head configured to deliver water from a reservoir to a growth tray within the plurality of growth trays in a vertical growth tower , the watering head being mounted onto the lift mechanism of the vertical growth tower such that during use the watering head is lifted by the lift mechanism to a growth tray and water is delivered by the watering head to the growth tray.
A method of a user equipment, UE, in a wireless communication system associated with long term evolution, LTE, the method comprising: generating control information including hybrid automatic-repeat-request acknowledgement, HARQ-ACK, or rank indication, RI; based on identifying that two transport blocks, TBs, are transmitted in a physical uplink shared channel, PUSCH, for the control information, determining a number of a coded modulation symbols per layer for the control information based on a minimum number of the coded modulation symbols such that the number of the coded modulation symbols is at least the minimum number of the coded modulation symbols; and transmitting the control information based on the number of the coded modulation symbols wherein the minimum number of the coded modulation symbols is determined based on a number of one or more bits for the control information, and wherein, if the number of the one or more bits is greater than or equal to 3 and smaller than or equal to 11, the minimum number of the coded modulation symbols is determined based on a function of the number of the one or more bits, a first modulation order of one of the two TBs, and a second modulation order of another one of the two TBs generating control information including hybrid automatic-repeat-request acknowledgement, HARQ-ACK, or rank indication, RI; based on identifying that two transport blocks, TBs, are transmitted in a physical uplink shared channel, PUSCH, for the control information, determining a number of a coded modulation symbols per layer for the control information based on a minimum number of the coded modulation symbols such that the number of the coded modulation symbols is at least the minimum number of the coded modulation symbols; and transmitting the control information based on the number of the coded modulation symbols wherein the minimum number of the coded modulation symbols is determined based on a number of one or more bits for the control information, and wherein, if the number of the one or more bits is greater than or equal to 3 and smaller than or equal to 11, the minimum number of the coded modulation symbols is determined based on a function of the number of the one or more bits, a first modulation order of one of the two TBs, and a second modulation order of another one of the two TBs
Random laser coupling system comprising at least three spatially distanced random-lasing light-scattering centres and at least two laser-pumping stripes, wherein each laser-pumping stripe connects two of said light-scattering centres thereby configuring at least two random laser resonators with spatially localised feedback, and characterised in that one of the at least three light-scattering centres is connected to two of the laser-pumping stripes, so that the at least two random laser resonators share one of the light-scattering centres.
A rail comprising a chemical composition containing C: 0.70 mass% or more and 1.00 mass% or less, Si: 0.50 mass% or more and 1.60 mass% or less, Mn: 0.20 mass% or more and 1.00 mass% or less, P: 0.035 mass% or less, S: 0.012 mass% or less, and Cr: 0.40 mass% or more and 1.30 mass% or less, and optionally at least one selected from the group consisting of V: 0.30 mass% or less, Cu: 1.0 mass% or less, Ni: 1.0 mass% or less, Nb: 0.05 mass% or less, Mo: 0.5 mass% or less, A1: 0.07 mass% or less, W: 1.0 mass% or less, B: 0.005 mass% or less, Ti: less than 0.010 mass%, and Sb: 0.05 mass% or less, where a Ceq value defined by the following formula is in a range of 1.04 or more and 1.25 or less, Ceq = % C + % Si / 11 + % Mn / 7 + % Cr / 5.8 where [%M] is the content in mass% of the element M, the balance being Fe and inevitable impurities, wherein Vickers hardness of a region between a position where a depth from a surface of a rail head is 1 mm and a position where the depth is 25 mm is 370 HV or more and less than 520 HV, where the Vickers hardness is measured at a load of 98 N and a pitch of 0.5 mm in the depth direction; a Ceq(max) is 1.40 or less, where the Ceq(max) is determined by the following formula using a maximum content of each component of C, Si, Mn, and Cr, which are obtained by subjecting the region to line analysis with EPMA; and a pearlite area ratio in the region is 95 % or more, Ceq max = % C max + % Si max / 11 + % Mn max / 7 + % Cr max / 5.8 where [%M(max)] is the maximum content of the element M obtained by line analysis with EPMA. C: 0.70 mass% or more and 1.00 mass% or less, Si: 0.50 mass% or more and 1.60 mass% or less, Mn: 0.20 mass% or more and 1.00 mass% or less, P: 0.035 mass% or less, S: 0.012 mass% or less, and Cr: 0.40 mass% or more and 1.30 mass% or less, and optionally at least one selected from the group consisting of V: 0.30 mass% or less, Cu: 1.0 mass% or less, Ni: 1.0 mass% or less, Nb: 0.05 mass% or less, Mo: 0.5 mass% or less, A1: 0.07 mass% or less, W: 1.0 mass% or less, B: 0.005 mass% or less, Ti: less than 0.010 mass%, and Sb: 0.05 mass% or less, where a Ceq value defined by the following formula is in a range of 1.04 or more and 1.25 or less, Ceq = % C + % Si / 11 + % Mn / 7 + % Cr / 5.8 where [%M] is the content in mass% of the element M, the balance being Fe and inevitable impurities, wherein Vickers hardness of a region between a position where a depth from a surface of a rail head is 1 mm and a position where the depth is 25 mm is 370 HV or more and less than 520 HV, where the Vickers hardness is measured at a load of 98 N and a pitch of 0.5 mm in the depth direction; a Ceq(max) is 1.40 or less, where the Ceq(max) is determined by the following formula using a maximum content of each component of C, Si, Mn, and Cr, which are obtained by subjecting the region to line analysis with EPMA; and a pearlite area ratio in the region is 95 % or more, Ceq max = % C max + % Si max / 11 + % Mn max / 7 + % Cr max / 5.8 where [%M(max)] is the maximum content of the element M obtained by line analysis with EPMA.
A method for evaluating the quality of miRNA derived from a body fluid sample, the method comprising: a measuring step of using miRNA-containing RNA samples prepared from a body fluid sample and a standard body fluid sample to measure the abundance(s) of one or more reference miRNAs selected from miRNAs consisting of the base sequences of SEQ ID NOs:1 to 2 in each of the body fluid sample and the standard body fluid sample; a comparing step of comparing a measured value(s) of the abundance(s) of the one or more reference miRNAs in the body fluid sample or a representative value thereof with a measured value(s) of the abundance(s) of the one or more reference miRNAs in the standard body fluid sample or a representative value thereof, to obtain a difference(s) or a ratio(s) of the measured value(s) of the abundance(s) of the one or more reference miRNAs or the representative value thereof between the body fluid sample and the standard body fluid sample; and an indication step of indicating the quality of the miRNA derived from the body fluid sample based on the difference(s) or the ratio(s) of the measured value(s) of the abundance(s) of the one or more reference miRNAs or the representative value thereof obtained in the comparing step. a measuring step of using miRNA-containing RNA samples prepared from a body fluid sample and a standard body fluid sample to measure the abundance(s) of one or more reference miRNAs selected from miRNAs consisting of the base sequences of SEQ ID NOs:1 to 2 in each of the body fluid sample and the standard body fluid sample; a comparing step of comparing a measured value(s) of the abundance(s) of the one or more reference miRNAs in the body fluid sample or a representative value thereof with a measured value(s) of the abundance(s) of the one or more reference miRNAs in the standard body fluid sample or a representative value thereof, to obtain a difference(s) or a ratio(s) of the measured value(s) of the abundance(s) of the one or more reference miRNAs or the representative value thereof between the body fluid sample and the standard body fluid sample; and an indication step of indicating the quality of the miRNA derived from the body fluid sample based on the difference(s) or the ratio(s) of the measured value(s) of the abundance(s) of the one or more reference miRNAs or the representative value thereof obtained in the comparing step.
A stretchable layered sheet including a thermoplastic and stretchable film (F) layered on at least one sheet of non-woven fabric (NW), the non-woven fabric (NW) including thermoplastic fibers and being air-permeable, the stretchable layered sheet comprising: a plurality of attachment portions at which the non-woven fabric (NW) and the film (F) are thermally bonded together, wherein each one of the attachment portions includes at least one thermal bonding area (α) where the non-woven fabric (NW) and the film (F) are thermally bonded together; at least one boundary line that defines the thermal bonding area (α); a first vent that is defined by a first opening (H1) of the film (F) appearing in a stretched state of the film (F) along the boundary line , the first vent exerting air permeability; and a second vent that is defined by a second opening (H2) where a part of the film (F) is absent, the second opening (H2) being adjacent to the thermal bonding area (α) and being delimited by the boundary line , wherein the second vent exerts air permeability both in the stretched state and in a non-stretched state wherein each one of the attachment portions includes a pair of the thermal bonding areas, the pair of the thermal bonding areas being adjacent to each other; and the second vent is formed between the pair of the thermal bonding areas. a plurality of attachment portions at which the non-woven fabric (NW) and the film (F) are thermally bonded together, wherein each one of the attachment portions includes at least one thermal bonding area (α) where the non-woven fabric (NW) and the film (F) are thermally bonded together; at least one boundary line that defines the thermal bonding area (α); a first vent that is defined by a first opening (H1) of the film (F) appearing in a stretched state of the film (F) along the boundary line , the first vent exerting air permeability; and a second vent that is defined by a second opening (H2) where a part of the film (F) is absent, the second opening (H2) being adjacent to the thermal bonding area (α) and being delimited by the boundary line , wherein the second vent exerts air permeability both in the stretched state and in a non-stretched state wherein each one of the attachment portions includes a pair of the thermal bonding areas, the pair of the thermal bonding areas being adjacent to each other; and the second vent is formed between the pair of the thermal bonding areas.
A method for operating a wind power installation which is connected to a network connection point of an electrical supply network and is intended to produce and feed electrical energy into the electrical supply network, wherein the electrical supply network has a network nominal frequency (f NENN ) and is operated at a network frequency (f N ), and the wind power installation , which comprises an electrical generator with a generator nominal power, can be regulated on the basis of the network frequency (f N ), comprising the steps of: - using the electrical generator to produce an electrical generator power for feeding into the electrical supply network, - feeding the electrical generator power or a part of it into the electrical supply network as electrical feed-in power (P EIN ) on the basis of the network frequency (f N ), wherein - in a first supporting stage, the electrical generator power (P GEN ) is reduced on the basis of the network frequency (f N ) in order to accordingly reduce the electrical feed-in power (P EIN ), and - in a second supporting stage, the electrical feed-in power (P EIN ) is reduced such that the electrical feed-in power (P EIN ) is less than the electrical generator power (P GEN ). characterized in that - according to the second supporting stage, the electrical feed-in power (P EIN ) is reduced if the network frequency (f N ) changes with a frequency gradient (df N /dt) which exceeds a predetermined limiting gradient. - using the electrical generator to produce an electrical generator power for feeding into the electrical supply network, - feeding the electrical generator power or a part of it into the electrical supply network as electrical feed-in power (P EIN ) on the basis of the network frequency (f N ), wherein - in a first supporting stage, the electrical generator power (P GEN ) is reduced on the basis of the network frequency (f N ) in order to accordingly reduce the electrical feed-in power (P EIN ), and - in a second supporting stage, the electrical feed-in power (P EIN ) is reduced such that the electrical feed-in power (P EIN ) is less than the electrical generator power (P GEN ). characterized in that - in a first supporting stage, the electrical generator power (P GEN ) is reduced on the basis of the network frequency (f N ) in order to accordingly reduce the electrical feed-in power (P EIN ), and - in a second supporting stage, the electrical feed-in power (P EIN ) is reduced such that the electrical feed-in power (P EIN ) is less than the electrical generator power (P GEN ). - according to the second supporting stage, the electrical feed-in power (P EIN ) is reduced if the network frequency (f N ) changes with a frequency gradient (df N /dt) which exceeds a predetermined limiting gradient.
An isolated strain of Lactobacillus salivarius deposited at the "Colección Española de Cultivos Tipo (CECT)" under the accession number CECT 9145.
A handling film comprising: a polyhydroxyamino ether thermoplastic; a monofunctional epoxy; a carboxylated nitrile butadiene elastomer; wherein the monofunctional epoxy reacts with an amine of the polyhydroxyamino ether thermoplastic substantially limiting reaction between the carboxylated nitrile butadiene elastomer and polyhydroxyamino ether thermoplastic. a polyhydroxyamino ether thermoplastic; a monofunctional epoxy; a carboxylated nitrile butadiene elastomer; wherein the monofunctional epoxy reacts with an amine of the polyhydroxyamino ether thermoplastic substantially limiting reaction between the carboxylated nitrile butadiene elastomer and polyhydroxyamino ether thermoplastic.
A suction control valve assembly for use in a suction catheter system, the suction control valve assembly comprising: a housing having an interior cavity; a tubular segment comprising a pathway extending therethrough, and an access opening to the pathway, the tubular segment disposed within the interior cavity of the housing and having a first conduit segment and a second conduit segment , where the access opening is arranged between a valve end of the first conduit segment and a valve end of the second conduit segment, and the valve end of the first conduit segment defines a valve seat proximal to the access opening; an elastomeric valve member being coupled to and enclosing the access opening of the pathway, the elastomeric valve member comprising a valve plug configured to sealably engage against the valve seat; and a pivotable actuator comprising a lever coupled to the elastomeric valve member, wherein the actuator is moveable along an arcuate path away from the access opening to elastically deform the elastomeric valve member from a first position, where the pathway is occluded by the valve plug engaged against the valve seat, toward a second position, where the pathway is not occluded by the valve plug . a housing having an interior cavity; a tubular segment comprising a pathway extending therethrough, and an access opening to the pathway, the tubular segment disposed within the interior cavity of the housing and having a first conduit segment and a second conduit segment , where the access opening is arranged between a valve end of the first conduit segment and a valve end of the second conduit segment, and the valve end of the first conduit segment defines a valve seat proximal to the access opening; an elastomeric valve member being coupled to and enclosing the access opening of the pathway, the elastomeric valve member comprising a valve plug configured to sealably engage against the valve seat; and a pivotable actuator comprising a lever coupled to the elastomeric valve member, wherein the actuator is moveable along an arcuate path away from the access opening to elastically deform the elastomeric valve member from a first position, where the pathway is occluded by the valve plug engaged against the valve seat, toward a second position, where the pathway is not occluded by the valve plug .
A Powerline Communications, PLC, device comprising: a processing module ; memory coupled to the processing module; a PLC interface coupled to the processing module, wherein the processing module, the PLC interface, and the memory are operable to: transmit a plurality of PLC queries, two of the plurality of PLC queries complying with differing and incompatible PLC communication standards ; receive a plurality of responses from a plurality of other PLC devices , two responses received from two responding respective PLC devices complying with two differing and incompatible PLC communication standards ; determine frequency domain and/or time domain allocations for each of the two PLC devices based upon the two responses; and direct each of the two PLC devices to transmit communications of the differing and incompatible PLC communication standards with its corresponding frequency domain and/or time domain allocation to avoid PLC communication conflicts. a processing module ; memory coupled to the processing module; a PLC interface coupled to the processing module, wherein the processing module, the PLC interface, and the memory are operable to: transmit a plurality of PLC queries, two of the plurality of PLC queries complying with differing and incompatible PLC communication standards ; receive a plurality of responses from a plurality of other PLC devices , two responses received from two responding respective PLC devices complying with two differing and incompatible PLC communication standards ; determine frequency domain and/or time domain allocations for each of the two PLC devices based upon the two responses; and direct each of the two PLC devices to transmit communications of the differing and incompatible PLC communication standards with its corresponding frequency domain and/or time domain allocation to avoid PLC communication conflicts. transmit a plurality of PLC queries, two of the plurality of PLC queries complying with differing and incompatible PLC communication standards ; receive a plurality of responses from a plurality of other PLC devices , two responses received from two responding respective PLC devices complying with two differing and incompatible PLC communication standards ; determine frequency domain and/or time domain allocations for each of the two PLC devices based upon the two responses; and direct each of the two PLC devices to transmit communications of the differing and incompatible PLC communication standards with its corresponding frequency domain and/or time domain allocation to avoid PLC communication conflicts.