mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring the voltage of at least one conductor (12 1, 12 2, 12 3) of an electric power cable comprising the steps of: arranging an enclosure of a conductive material around a portion of the cable and at least one electric field sensor (30 1, 30 2, 30 3, 30 4) between the enclosure and the cable; taking the enclosure to a constant potential and measuring the electric field with the sensor; and characterized by the following step: determining said voltage based on the comparison of the measured electric field with simulated electric fields for a plurality of configurations of point electric charges (P 1,1, P 1,2, P' 1,1, P' 1,2). arranging an enclosure of a conductive material around a portion of the cable and at least one electric field sensor (30 1, 30 2, 30 3, 30 4) between the enclosure and the cable; taking the enclosure to a constant potential and measuring the electric field with the sensor; and characterized by the following step: determining said voltage based on the comparison of the measured electric field with simulated electric fields for a plurality of configurations of point electric charges (P 1,1, P 1,2, P' 1,1, P' 1,2).
A method of a first device for performing sidelink transmission to a second device, comprising: the first device is configured with a first resource pool for sidelink transmission; the first device is configured with only a first number of consecutive symbols in each slot for sidelink such that each slot in the first resource pool comprises only one subset of consecutive symbols for sidelink, wherein the first number of consecutive symbols in each slot for sidelink is less than all Orthogonal Frequency Division Multiplexing, in the following also referred to as OFDM, symbols in each slot; the first device performs a resource selection, for sidelink transmission, among a plurality of slots in the first resource pool, wherein said resource selection comprises that the first device selects a first sidelink transmission resource in a first slot of the first resource pool and a second sidelink transmission resource in a third slot of the first resource pool, wherein the first sidelink transmission resource contains symbols among the first number of consecutive symbols in the first slot and/or the second sidelink transmission resource contains symbols among the first number of consecutive symbols in the third slot; and the first device performs sidelink transmission of a Transport Block, in the following also referred to as TB, on the first sidelink transmission resource and performs sidelink transmission of the TB on the second sidelink transmission resource, characterized in that the subset of consecutive symbols for sidelink of each slot in the first resource pool comprises the same first number of consecutive symbols. the first device is configured with a first resource pool for sidelink transmission; the first device is configured with only a first number of consecutive symbols in each slot for sidelink such that each slot in the first resource pool comprises only one subset of consecutive symbols for sidelink, wherein the first number of consecutive symbols in each slot for sidelink is less than all Orthogonal Frequency Division Multiplexing, in the following also referred to as OFDM, symbols in each slot; the first device performs a resource selection, for sidelink transmission, among a plurality of slots in the first resource pool, wherein said resource selection comprises that the first device selects a first sidelink transmission resource in a first slot of the first resource pool and a second sidelink transmission resource in a third slot of the first resource pool, wherein the first sidelink transmission resource contains symbols among the first number of consecutive symbols in the first slot and/or the second sidelink transmission resource contains symbols among the first number of consecutive symbols in the third slot; and the first device performs sidelink transmission of a Transport Block, in the following also referred to as TB, on the first sidelink transmission resource and performs sidelink transmission of the TB on the second sidelink transmission resource, characterized in that the subset of consecutive symbols for sidelink of each slot in the first resource pool comprises the same first number of consecutive symbols.
Bogie (10; 110) adapted to travel in a longitudinal direction, comprising: - a chassis having at least one cross-member extending in a transverse direction substantially perpendicular to the longitudinal direction, - a first axle and a second axle, and - at least a first motor for driving the first axle, the first motor having a housing, a rotor, a stator, a shaft driven by the rotor, and at least one internal fan driven by the shaft, characterised in that the bogie (10; 110) further comprises a heat exchanger forming a separate part fixed to the cross-member, the cross-member bearing at least 80% of the weight of the heat exchanger, or a heat exchanger formed by internal structures of the cross-member, the heat exchanger (35; 135) having at least a first air inlet connected to an air outlet of the housing, and at least a first air outlet connected to an air inlet of the housing, the heat exchanger (35; 135) and the housing defining at least in part an air circuit for cooling the first motor, the heat exchanger (35; 135) being intended to receive heat carried by air coming from the first motor and to dissipate that heat into the atmosphere, and the air circuit having: - a first transverse passage (F2A) situated radially between the rotor and the stator, and - a second transverse passage (F3A) situated radially between the stator and the housing. - a chassis having at least one cross-member extending in a transverse direction substantially perpendicular to the longitudinal direction, - a first axle and a second axle, and - at least a first motor for driving the first axle, the first motor having a housing, a rotor, a stator, a shaft driven by the rotor, and at least one internal fan driven by the shaft, - a first transverse passage (F2A) situated radially between the rotor and the stator, and - a second transverse passage (F3A) situated radially between the stator and the housing.
A high-density paper having a grammage measured according to ISO 536:2012 of 30-75 g/m 2, a density measured according to ISO 534:2011 above 1000 kg/m 3 and a tear index measured in the machine direction according to ISO 1924-3:2005 of at least 4.1 mNm 2 /g, such as at least 4.4 mNm 2 /g and wherein the high-density paper is impregnated on each side with 0.3-4.0 g/m 2, such as 0.5-3.0 g/m 2, of a polymer selected from the group consisting of polyvinyl alcohol (PVOH), ethylene vinyl alcohol (EVOH), carboxymethylated cellulose, nanocrystalline cellulose and carboxy methyl starch.
Compressed air nail gun, comprising • a working piston which is connected to a driving ram for driving in a fastening means and to which compressed air is applied when a drive-in process is triggered, and • a trigger device which has a manually actuatable trigger, a placing sensor and a force transmission element which interacts with the trigger and the placing sensor such that it can actuate a control valve and trigger a drive-in process when the trigger and the placing sensor are actuated together, wherein • the compressed air nail gun is designed to continuously drive in fastening means in the case of continuous actuation of the trigger and the placing sensor in an automatic operation, • the placing sensor has an adjustment path between a fully actuated, first position and a fully non-actuated, second position, and characterised in that • the trigger device is designed such that the force transmission element does not actuate the control valve when the placing sensor is moved from the second position to the first position when the trigger is actuated. • a working piston which is connected to a driving ram for driving in a fastening means and to which compressed air is applied when a drive-in process is triggered, and • a trigger device which has a manually actuatable trigger, a placing sensor and a force transmission element which interacts with the trigger and the placing sensor such that it can actuate a control valve and trigger a drive-in process when the trigger and the placing sensor are actuated together, wherein • the compressed air nail gun is designed to continuously drive in fastening means in the case of continuous actuation of the trigger and the placing sensor in an automatic operation, • the placing sensor has an adjustment path between a fully actuated, first position and a fully non-actuated, second position, and characterised in that • the trigger device is designed such that the force transmission element does not actuate the control valve when the placing sensor is moved from the second position to the first position when the trigger is actuated.
A method of processing a current instruction comprising: receiving, for metadata processing, the current instruction; and performing metadata processing for the current instruction in a metadata processing domain isolated from a code execution domain including the current instruction, said current instruction referencing a first memory location having a first metadata tag used in the metadata processing, said metadata processing for the current instruction including: performing processing to retrieve the first metadata tag from memory; prior to receiving the first metadata tag for the first memory location from the memory, determining a predicted value of the first metadata tag of the first memory location; determining, using the predicted value of the first metadata tag of the first memory location, a first result metadata tag for a result operand of the current instruction; receiving, from the memory, the first metadata tag; determining whether the first metadata tag matches the predicted value of the first metadata tag; and responsive to determining that the first metadata tag matches the predicted value of the first metadata tag, using the first result metadata tag as a final result metadata tag for the result operand. receiving, for metadata processing, the current instruction; and performing metadata processing for the current instruction in a metadata processing domain isolated from a code execution domain including the current instruction, said current instruction referencing a first memory location having a first metadata tag used in the metadata processing, said metadata processing for the current instruction including: performing processing to retrieve the first metadata tag from memory; prior to receiving the first metadata tag for the first memory location from the memory, determining a predicted value of the first metadata tag of the first memory location; determining, using the predicted value of the first metadata tag of the first memory location, a first result metadata tag for a result operand of the current instruction; receiving, from the memory, the first metadata tag; determining whether the first metadata tag matches the predicted value of the first metadata tag; and responsive to determining that the first metadata tag matches the predicted value of the first metadata tag, using the first result metadata tag as a final result metadata tag for the result operand. performing processing to retrieve the first metadata tag from memory; prior to receiving the first metadata tag for the first memory location from the memory, determining a predicted value of the first metadata tag of the first memory location; determining, using the predicted value of the first metadata tag of the first memory location, a first result metadata tag for a result operand of the current instruction; receiving, from the memory, the first metadata tag; determining whether the first metadata tag matches the predicted value of the first metadata tag; and responsive to determining that the first metadata tag matches the predicted value of the first metadata tag, using the first result metadata tag as a final result metadata tag for the result operand.
An electrochemical energy storage, in particular a lithium ion cell, comprising an anode, a cathode, a separator, and at least one additive, characterized in that the additive contains at least one silicon- and alkaline earth metal-containing compound V1 which in contact with a fluorine-containing compound V2 in the energy storage forms at least one compound V3 selected from the group consisting of silicon- and fluorine-containing, lithium-free compounds V3a, alkaline earth metal- and fluorine-containing, lithium-free compounds V3b, silicon-, alkaline earth metal- and fluorine-containing, lithium-free compounds V3c and combinations thereof, wherein the additive V1 is a glass powder comprising the following glass composition constituents (in % by weight): SiO 2 15 - 75 BaO 0 - 80 ZrO 2 0 - 15 Li 2 O 0 - 25 P 2 O 5 0 - 20 Al 2 O 3 0 - 10 CaO 0 - 30 MgO 0 - 30 MgO + BaO + CaO ≥ 20 NiO 0 - 10 PbO 0 - 10 ZnO 0 - 10 F 0 - 5, wherein the molar ratio of alkaline earth metal oxide to silicon dioxide is in the range from 0.65 to ≤ 1.0.
Fuel distributor comprising a hydraulic compartment comprising, on the one hand, at least one pumping unit connected to at least one fuel distribution line comprising a meter for measuring the fuel flow rate and a flexible hose equipped with a nozzle and, on the other hand, at least one additive injection device comprising an additive tank and at least one injection unit intended to draw up a regulated quantity of additive from the additive tank as far as the fuel distribution line, this injection unit comprising a lift pump driven by a motor, characterized in that the additive injection device comprises a flameproof casing in which the motor is housed, the lift pump being mounted on the outside of the flameproof casing and being driven by the motor via a drive shaft that passes through a wall of the flameproof casing, the lift pump and the motor being separated by this wall of the flameproof casing.
Method for producing a component (01, 11) starting from a base plane, which extends in an X direction and a Y direction and defines a vertical Z direction, having the following steps: - providing a model of the finished part (02, 12); - determining a straightforward partial section (03, 13), which (03, 13) can be produced, starting from the base plane, without a support structure (05, 15); and - determining a difficult partial section (04, 14), which (04, 14) is spaced apart from the base plane and cannot be produced without a support structure (05, 15); and - determining a support structure (05, 15), which (05, 15) is connected to the straightforward partial section (03, 13) via a first partial attachment (21, 31) and to the difficult partial section (04, 14) via a second partial attachment (22, 32); - producing the component (01, 11) in a powder-bed manufacturing process in which local melting of a powdered material is accomplished by means of at least one beam, thereby defining a specific melting point extent depending on the position, characterized in that the first partial attachment (21, 31) is formed by no bridge element or by at least one bridge element having a width of at most 2 mm and by a multiplicity of connection points having an equivalent diameter, resulting from the determination of the smallest cross section of the respective connection point as connection of the support structure to the straightforward partial section of the finished part, of at most 1 mm, wherein the cross-sectional area of the connection points in total corresponds to at least 5 times the cross-sectional area of the one or more bridge elements in total, wherein the equivalent diameter is smaller than the specific melting point extent, and wherein the beam centre point is always at a spacing from the finished part during the creation of the connection points. - providing a model of the finished part (02, 12); - determining a straightforward partial section (03, 13), which (03, 13) can be produced, starting from the base plane, without a support structure (05, 15); and - determining a difficult partial section (04, 14), which (04, 14) is spaced apart from the base plane and cannot be produced without a support structure (05, 15); and - determining a support structure (05, 15), which (05, 15) is connected to the straightforward partial section (03, 13) via a first partial attachment (21, 31) and to the difficult partial section (04, 14) via a second partial attachment (22, 32); - producing the component (01, 11) in a powder-bed manufacturing process in which local melting of a powdered material is accomplished by means of at least one beam, thereby defining a specific melting point extent depending on the position,
A fusion protein selectively binding collagen and having ectonucleotidase activity, which comprises an amino acid sequence of the extracellular domain of glycoprotein VI fused via a first linker sequence to the N-terminus of an amino acid sequence of an Fc region, whereby the C-terminus of the Fc region is linked via a second linker sequence to an amino acid sequence of the extracellular domain of a CD39 protein, the fusion protein comprising (a) an amino acid sequence of the extracellular domain of human glycoprotein VI at least 90% identical to SEQ ID NO: 2; (b) an amino acid sequence of an Fc region at least 90% identical to SEQ ID NO: 3; (c) an amino acid sequence of a CD39 protein at least 90% identical to SEQ ID NO: 4; and/or (d) an amino acid sequence of the second linker at least 90% identical to SEQ ID NO: 5. (a) an amino acid sequence of the extracellular domain of human glycoprotein VI at least 90% identical to SEQ ID NO: 2; (b) an amino acid sequence of an Fc region at least 90% identical to SEQ ID NO: 3; (c) an amino acid sequence of a CD39 protein at least 90% identical to SEQ ID NO: 4; and/or (d) an amino acid sequence of the second linker at least 90% identical to SEQ ID NO: 5.
A synchronization method for call supplementary service configuration, comprising: receiving, by a terminal, an entered supplementary service configuration instruction, and obtaining, by the terminal, a configuration parameter corresponding to the supplementary service configuration instruction; uploading, by the terminal, the configuration parameter to a mobile switching center by using a circuit switched domain, so that the mobile switching center stores the configuration parameter as call supplementary service configuration of the circuit switched domain into a home location register; receiving, by the terminal, configuration feedback information returned by the home location register; and determining, by the terminal, according to the configuration feedback information, whether configuration succeeds, and storing, by the terminal, the configuration parameter as on-terminal call supplementary service configuration if the configuration succeeds. receiving, by a terminal, an entered supplementary service configuration instruction, and obtaining, by the terminal, a configuration parameter corresponding to the supplementary service configuration instruction; uploading, by the terminal, the configuration parameter to a mobile switching center by using a circuit switched domain, so that the mobile switching center stores the configuration parameter as call supplementary service configuration of the circuit switched domain into a home location register; receiving, by the terminal, configuration feedback information returned by the home location register; and determining, by the terminal, according to the configuration feedback information, whether configuration succeeds, and storing, by the terminal, the configuration parameter as on-terminal call supplementary service configuration if the configuration succeeds.
A method of characterizing glycosylation of a protein or a peptide comprising the steps of: providing a plurality of O-glycosylated proteins and/or peptides; mixing the plurality of O-glycosylated proteins and/or peptides with a plurality of proteases and a digestion buffer, wherein the plurality of proteases cleaves the protein and/or the peptide with serine, threonine, tyrosine or hydroxylysine in an in-solution proteolytic digestion process to produce an O-glycan amino acid complex; and tagging the O-glycan amino acid complex with a tagging reagent to produce a labeled O-glycan amino acid complex; detecting the labeled O-glycan amino acid complex; and characterizing glycosylation of the protein and/or the peptide through a LC, MS or LC/MS analysis through the detection of the labeled O-glycan amino acid complex. providing a plurality of O-glycosylated proteins and/or peptides; mixing the plurality of O-glycosylated proteins and/or peptides with a plurality of proteases and a digestion buffer, wherein the plurality of proteases cleaves the protein and/or the peptide with serine, threonine, tyrosine or hydroxylysine in an in-solution proteolytic digestion process to produce an O-glycan amino acid complex; and tagging the O-glycan amino acid complex with a tagging reagent to produce a labeled O-glycan amino acid complex; detecting the labeled O-glycan amino acid complex; and characterizing glycosylation of the protein and/or the peptide through a LC, MS or LC/MS analysis through the detection of the labeled O-glycan amino acid complex.
A method of vertically assembling a generator of a wind turbine, which method comprises the steps of - providing a horizontal assembly support (10, 10') for supporting components (2, 3, 4, 5) of the generator such that a rotational axis of a component (2, 4, 5) is essentially vertical during assembly, which assembly support (10, 10') comprises an essentially horizontal upper surface of an assembly table (10, 10') comprising an access opening shaped according to an opening of the rotor part and a number of essentially vertical supporting columns, and wherein the assembly support (10, 10') is realised to allow access to an interior of a generator component (2, 3) during the assembly procedure; - arranging a rotor part on the horizontal assembly support (10, 10'); - arranging a stator part in the rotor part, wherein the step of arranging the stator part in the rotor part comprises the step of lowering the stator part into the rotor part; and - joining the stator part to the rotor part. - providing a horizontal assembly support (10, 10') for supporting components (2, 3, 4, 5) of the generator such that a rotational axis of a component (2, 4, 5) is essentially vertical during assembly, which assembly support (10, 10') comprises an essentially horizontal upper surface of an assembly table (10, 10') comprising an access opening shaped according to an opening of the rotor part and a number of essentially vertical supporting columns, and wherein the assembly support (10, 10') is realised to allow access to an interior of a generator component (2, 3) during the assembly procedure; - arranging a rotor part on the horizontal assembly support (10, 10'); - arranging a stator part in the rotor part, wherein the step of arranging the stator part in the rotor part comprises the step of lowering the stator part into the rotor part; and - joining the stator part to the rotor part.