mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting data by allocating a transmit power by a user equipment, UE, in a wireless communication system, which supports a high speed packet service through an uplink channel, the method comprising: identifying a total transmit power for a plurality of channels including a first channel supporting a hybrid automatic repeat request, HARQ, and a second channel not supporting the HARQ; determining (622, 805) whether the total transmit power is greater than a maximum allowed transmit power; allocating a transmit power to each of the plurality of channels; and transmitting data (626, 815) with the allocated transmit power, wherein a transmit power of the first channel supporting the HARQ and a transmit power of the second channel not supporting the HARQ are allocated according to a priority order first considering whether the first channel and the second channel support retransmission and then considering whether the first channel and the second channel are control channels, if the total transmit power is greater than a maximum allowed transmit power. identifying a total transmit power for a plurality of channels including a first channel supporting a hybrid automatic repeat request, HARQ, and a second channel not supporting the HARQ; determining (622, 805) whether the total transmit power is greater than a maximum allowed transmit power; allocating a transmit power to each of the plurality of channels; and transmitting data (626, 815) with the allocated transmit power, wherein a transmit power of the first channel supporting the HARQ and a transmit power of the second channel not supporting the HARQ are allocated according to a priority order first considering whether the first channel and the second channel support retransmission and then considering whether the first channel and the second channel are control channels, if the total transmit power is greater than a maximum allowed transmit power.
A cabin air compressor of an aircraft environmental control system, the CAC comprising: a bearing cooling circuit defined in the CAC for directing a bearing cooling flow of air through the CAC, and a motor cooling circuit defined in the CAC for directing a motor cooling flow of air through the CAC; a CAC case defining a forward end and an aft end axially spaced apart axially from the forward end, wherein the forward end defines a compressor inlet; wherein a bearing cooling inlet channel is defined at the aft end of the CAC case and is configured to direct cooling air toward a bearing supported within the CAC case, characterized in that a supplemental cooling passage is defined by the CAC case, wherein the supplemental cooling passage is configured to direct a supplemental cooling medium through it; and wherein an aft portion of the supplemental cooling passage surrounds the bearing cooling inlet channel. a bearing cooling circuit defined in the CAC for directing a bearing cooling flow of air through the CAC, and a motor cooling circuit defined in the CAC for directing a motor cooling flow of air through the CAC; a CAC case defining a forward end and an aft end axially spaced apart axially from the forward end, wherein the forward end defines a compressor inlet; wherein a bearing cooling inlet channel is defined at the aft end of the CAC case and is configured to direct cooling air toward a bearing supported within the CAC case, characterized in that a supplemental cooling passage is defined by the CAC case, wherein the supplemental cooling passage is configured to direct a supplemental cooling medium through it; and wherein an aft portion of the supplemental cooling passage surrounds the bearing cooling inlet channel.
A battery system comprising: a first battery rack comprising a first battery module including a first battery, a first rack management unit which is configured to control charging and discharging of the first battery module, and a first rack protection circuit which is configured to interrupt current of the first battery module under control of the first rack management unit; and a second battery rack comprising a second battery module including a second battery, a second rack management unit which is configured to control charging and discharging of the second battery module, and a second rack protection circuit which is configured to interrupt current of the second battery module under control of the second rack management unit, and wherein the first and second rack protection circuits are controlled in parallel by the first and second rack management units; and characterised in the the battery system further comprising: a system management unit, wherein the system management unit is configured to apply a control signal to the first and second rack management units and to detect, based on generation of response signals to the control signal, whether the first and second rack management units are in an abnormal state. a first battery rack comprising a first battery module including a first battery, a first rack management unit which is configured to control charging and discharging of the first battery module, and a first rack protection circuit which is configured to interrupt current of the first battery module under control of the first rack management unit; and a second battery rack comprising a second battery module including a second battery, a second rack management unit which is configured to control charging and discharging of the second battery module, and a second rack protection circuit which is configured to interrupt current of the second battery module under control of the second rack management unit, and wherein the first and second rack protection circuits are controlled in parallel by the first and second rack management units; and
A method of counting and analyzing inclusions in an alloy by image analysis, the method comprising: a) preparing a sample of said alloy; b) determining inclusion detection thresholds by observation, with magnification, of at least one field of said sample; c) detecting inclusions of said sample as a function of the threshold defined in step b), and counting the inclusions; d) acquiring images of each of the inclusions detected in step c) and determining the size of each of the inclusions; e) determining the chemical composition of each of the detected inclusions by chemically analyzing each of them; the method being characterized by comprising: f) making a map of said sample from the images acquired in step d), the map showing the spatial distribution of the inclusions, in which each of said detected inclusions is represented by a graphics element, the size of said graphics element being proportional to the size of said inclusion, and the color of this graphics element being correlated to said chemical composition of the inclusion. a) preparing a sample of said alloy; b) determining inclusion detection thresholds by observation, with magnification, of at least one field of said sample; c) detecting inclusions of said sample as a function of the threshold defined in step b), and counting the inclusions; d) acquiring images of each of the inclusions detected in step c) and determining the size of each of the inclusions; e) determining the chemical composition of each of the detected inclusions by chemically analyzing each of them; f) making a map of said sample from the images acquired in step d), the map showing the spatial distribution of the inclusions, in which each of said detected inclusions is represented by a graphics element, the size of said graphics element being proportional to the size of said inclusion, and the color of this graphics element being correlated to said chemical composition of the inclusion.
A genetically modified rodent comprising in its germline an immunoglobulin light chain locus comprising two unrearranged human Vκ gene segments and one or more unrearranged human Jκ gene segment(s) operably linked to an immunoglobulin light chain constant region sequence, wherein the two unrearranged human Vκ gene segments are human Vκ1-39 and Vκ3-20 gene segments each comprising one or more substitutions of a non-histidine CDR3 codon with a histidine codon, wherein the human Vκ and Jκ gene segments are capable of rearranging and the human Vκ and Jκ gene segments encode a human light chain variable domain comprising one or more histidines, wherein the one or more histidines are derived from the one or more substitutions, wherein (i) the substitution is of one or more histidines of the human Vκ1-39 gene segment and the substitution is designed to express one or more histidines at a position selected from the group consisting of 105, 106, 108 and 111 of the human Vκ1-39 gene segment (according to IMGT numbering), and a combination thereof; and/or (ii) the substitution is of one or more histidines of the human Vκ3-20 gene segment and the substitution is designed to express one or more histidines at a position selected from the group consisting of 105, 106, 107 and 109 of the human Vκ3-20 gene segment (according to IMGT numbering), and a combination thereof, and wherein the rodent further comprises in its germline an immunoglobulin heavy chain locus that comprises an unrearranged immunoglobulin heavy chain variable region sequence comprising human V H, D H, and J H gene segments operably linked to an immunoglobulin heavy chain constant region sequence. wherein the two unrearranged human Vκ gene segments are human Vκ1-39 and Vκ3-20 gene segments each comprising one or more substitutions of a non-histidine CDR3 codon with a histidine codon, wherein the human Vκ and Jκ gene segments are capable of rearranging and the human Vκ and Jκ gene segments encode a human light chain variable domain comprising one or more histidines, wherein the one or more histidines are derived from the one or more substitutions, wherein (i) the substitution is of one or more histidines of the human Vκ1-39 gene segment and the substitution is designed to express one or more histidines at a position selected from the group consisting of 105, 106, 108 and 111 of the human Vκ1-39 gene segment (according to IMGT numbering), and a combination thereof; and/or (ii) the substitution is of one or more histidines of the human Vκ3-20 gene segment and the substitution is designed to express one or more histidines at a position selected from the group consisting of 105, 106, 107 and 109 of the human Vκ3-20 gene segment (according to IMGT numbering), and a combination thereof, and wherein the rodent further comprises in its germline an immunoglobulin heavy chain locus that comprises an unrearranged immunoglobulin heavy chain variable region sequence comprising human V H, D H, and J H gene segments operably linked to an immunoglobulin heavy chain constant region sequence.
Method of estimating individualized road condition information for a specific vehicle, the method comprising - receiving generic road condition information, which is indicative of at least one condition of a road segment; - receiving individualization information, which is representative of an estimating method to be performed on the generic road condition information to obtain individualized road condition information for the specific vehicle, - estimating individualized road condition information for the vehicle, wherein the estimating method is applied to the received generic road condition information to obtain individualized road condition information, characterized in that the method further comprises, after the estimating: - measuring, at the vehicle, individual road condition information indicative of the at least one condition of the road segment for the vehicle; - comparing the measured individual road condition information with the estimated individualized road condition information; and - updating the individualization information and/or the estimating method based on the comparison. - receiving generic road condition information, which is indicative of at least one condition of a road segment; - receiving individualization information, which is representative of an estimating method to be performed on the generic road condition information to obtain individualized road condition information for the specific vehicle, - estimating individualized road condition information for the vehicle, wherein the estimating method is applied to the received generic road condition information to obtain individualized road condition information, - measuring, at the vehicle, individual road condition information indicative of the at least one condition of the road segment for the vehicle; - comparing the measured individual road condition information with the estimated individualized road condition information; and - updating the individualization information and/or the estimating method based on the comparison.
Nanoparticle of the core shell type, wherein said core consists of a metal or alloy having soft magnetic properties; and said shell contains one or more graphene layers which are functionalized by one or more of the groups according to formula: wherein n is an integer between 1 and 5; m is an integer between 0 and 20; Z represents a spacer selected from the group of alkyl, alkenyl, alkyloxy, peptides, amino acids, saccarides; FG represents independent from each other OH, OR, NO 2, NH 2, NHR, NR 2, COH, COR, COOH, COOR, SO 2, SOR, SO 2 R, halogen, P OH, P OR, P 2 OH, P 2 OR R represents C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 3 -C 10 cyclo-alkyl, C 4 -C 10 aryl, or a 5-membered heterocycle containing at least one atom selected from the group of N,O,S or a 6-membered heterocycle containing at least one atom selected from the group of N,O,S or a metal chelating group selected from the group consisting of polycarboxylic acids, polyamides, polyamides, aminoacids, polyaminocarboxylates, polyamines, polysulfides; and its salts; and said nanoparticle has a saturation magnetization of at least 80 A m 2 / kg, and said nanoparticle contains 0.1-30 wt% of groups according to formula. n is an integer between 1 and 5; m is an integer between 0 and 20; Z represents a spacer selected from the group of alkyl, alkenyl, alkyloxy, peptides, amino acids, saccarides; FG represents independent from each other OH, OR, NO 2, NH 2, NHR, NR 2, COH, COR, COOH, COOR, SO 2, SOR, SO 2 R, halogen, P OH, P OR, P 2 OH, P 2 OR R represents C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 3 -C 10 cyclo-alkyl, C 4 -C 10 aryl, or a 5-membered heterocycle containing at least one atom selected from the group of N,O,S or a 6-membered heterocycle containing at least one atom selected from the group of N,O,S or a metal chelating group selected from the group consisting of polycarboxylic acids, polyamides, polyamides, aminoacids, polyaminocarboxylates, polyamines, polysulfides;
An optical device, comprising: a light-transmitting substrate having at least two parallel major surfaces (70, 72), edges and an output aperture; a coupling-in reflecting surface which is inclined at an angle α sur1 to the major surfaces (70, 72) of the substrate for coupling light waves into the substrate to effect total internal reflection, and at least one flat coupling-out reflecting surface having at least one active side located between the two major surfaces (70, 72) of the light-transmitting substrate for coupling light waves out of the substrate, wherein the one flat coupling-out reflecting surface is parallel to said coupling-in reflecting surface, characterized in that the light waves coupled inside the substrate are plane light waves, reflected at least twice by the active side of the flat coupling-out reflecting surface before being coupled out from the substrate through the output aperture and are reflected by internal reflection from one of the major surfaces between the first and second reflectance from the flat coupling-out reflecting surface; different light rays from the same input plane light wave coupled inside the substrate, are reflected by the same side of the flat coupling-out reflecting surface a different number of reflections, before being coupled out from the substrate through the output aperture a light-transmitting substrate having at least two parallel major surfaces (70, 72), edges and an output aperture; a coupling-in reflecting surface which is inclined at an angle α sur1 to the major surfaces (70, 72) of the substrate for coupling light waves into the substrate to effect total internal reflection, and at least one flat coupling-out reflecting surface having at least one active side located between the two major surfaces (70, 72) of the light-transmitting substrate for coupling light waves out of the substrate, wherein the one flat coupling-out reflecting surface is parallel to said coupling-in reflecting surface, characterized in that the light waves coupled inside the substrate are plane light waves, reflected at least twice by the active side of the flat coupling-out reflecting surface before being coupled out from the substrate through the output aperture and are reflected by internal reflection from one of the major surfaces between the first and second reflectance from the flat coupling-out reflecting surface; different light rays from the same input plane light wave coupled inside the substrate, are reflected by the same side of the flat coupling-out reflecting surface a different number of reflections, before being coupled out from the substrate through the output aperture
An apparatus comprising: an assembly of components; a radio frequency identification tag; and a switch (60, 70) configured to prevent operation of the radio frequency identification tag automatically when a battery is assembled with the assembly of components, wherein the switch (60, 70) is configured to be actuated by the assembly of the battery with the assembly of components. an assembly of components; a radio frequency identification tag; and a switch (60, 70) configured to prevent operation of the radio frequency identification tag automatically when a battery is assembled with the assembly of components, wherein the switch (60, 70) is configured to be actuated by the assembly of the battery with the assembly of components.
An ice maker, comprising: a cooling unit performing cooling; and at least one ice making member connected to the cooling unit and being in direct or indirect contact with water to allow ice I to be produced thereon, wherein an amount of heat transferred between the ice making member and the water being in direct or indirect contact with the ice making member varies according to portions of the ice making member, such that ice is produced in various forms thereon, characterized in that the ice making member comprises a heat transfer control member having a heat transfer rate lower than that of the ice making member, a lower portion of the heat transfer control member is spaced apart from the lower portion of the ice making member by a predetermined distance, and the heat transfer control member is provided with a through-hole through which the ice making member penetrates. a cooling unit performing cooling; and at least one ice making member connected to the cooling unit and being in direct or indirect contact with water to allow ice I to be produced thereon, wherein an amount of heat transferred between the ice making member and the water being in direct or indirect contact with the ice making member varies according to portions of the ice making member, such that ice is produced in various forms thereon, characterized in that the ice making member comprises a heat transfer control member having a heat transfer rate lower than that of the ice making member, a lower portion of the heat transfer control member is spaced apart from the lower portion of the ice making member by a predetermined distance, and the heat transfer control member is provided with a through-hole through which the ice making member penetrates.
A bio-inoculant composition comprising a consortia of microorganisms of Bacillus sp. IOC-EP-1, Pseudomonas putida IOC- EP2, Bacillus subtilis IOC-EP-3 and Pseudomonas putida IOC-EP4 in equal proportions which improves efficiency of the activated sludge process in effluent treatment plant of a hydrocarbon processing industry in terms of reduction of hydrocarbons, sulphides, phenols and benzo (alpha) pyrene content when dosed at concentration of 10 2 cfu/ml in the aeration tank inlet.
A process for the production of high density polyethylene having a density in the range between 945 and 965 kg/m 3 by polymerisation of ethylene in the presence of a supported silylchromate based catalyst and a reducing agent comprising the reaction mixture of an alkyl aluminum compound and a nitrogen containing compound characterized in that the alkyl aluminum compound is an organo aluminum compound having the formula AlR 3, in which R is a hydrocarbon radical containing 1-10 carbon atom and the nitrogen containing compound is a cycloalkylamine having the general formula R-NH 2, wherein R is cycloalkyl radical having from 3 to 8 carbon atoms, wherein the catalyst system is prepared by the reaction of the reducing agent with a porous support and then by a reaction with a silylchromate.
A method of chemically-mechanically polishing a substrate, which method comprises: (i) providing a substrate comprising at least one layer of aluminum, (ii) providing a polishing pad, (iii) providing a polishing composition comprising: (a) α-alumina particles coated with a copolymer comprising a combination of at least one sulfonate monomer and at least one carboxylate monomer, (b) a complexing agent for aluminum comprising an organic carboxylic acid, and (c) water, (iv) contacting a surface of the substrate with the polishing pad and the polishing composition, and (v) abrading at least a portion of the surface of the substrate to remove at least some aluminum from the surface of the substrate and to polish the surface of the substrate, wherein the polishing composition has a pH of 1 to 6, wherein the abrasive is colloidally stable in the polishing composition, and wherein the polishing composition further comprises a surfactant; wherein the surfactant is an alkyldiphenyloxide disulfonate surfactant. (i) providing a substrate comprising at least one layer of aluminum, (ii) providing a polishing pad, (iii) providing a polishing composition comprising: (a) α-alumina particles coated with a copolymer comprising a combination of at least one sulfonate monomer and at least one carboxylate monomer, (b) a complexing agent for aluminum comprising an organic carboxylic acid, and (c) water, (a) α-alumina particles coated with a copolymer comprising a combination of at least one sulfonate monomer and at least one carboxylate monomer, (b) a complexing agent for aluminum comprising an organic carboxylic acid, and (c) water, (iv) contacting a surface of the substrate with the polishing pad and the polishing composition, and (v) abrading at least a portion of the surface of the substrate to remove at least some aluminum from the surface of the substrate and to polish the surface of the substrate,