mhurhangee/ep-ind-claims huggingface dataset:
A planar transformer comprising: a printed circuit board (32, 32a, 32b) having a plurality of conductive windings; and a common ferrite core passing through the printed circuit board (32, 32a, 32b) and linking the plurality of conductive windings, wherein the common ferrite core comprises a first E-core (12, 12a) joined to one of an I-core or a second E-core, defining a magnetic gap between the centre limb of the first E-core (12, 12a) and the I-core or second E-core; and a conductive non-continuous shield (28, 30, 28a, 30a) arranged to at least partially magnetically shield the conductive windings or the gaps therebetween from the common ferrite core, wherein the conductive non-continuous shield (28, 30, 28a, 30a) comprises at least one insulation break so as not to form a continuous conductive loop around the centre limb of the respective E-core (12, 12a, 12b). a printed circuit board (32, 32a, 32b) having a plurality of conductive windings; and a common ferrite core passing through the printed circuit board (32, 32a, 32b) and linking the plurality of conductive windings, wherein the common ferrite core comprises a first E-core (12, 12a) joined to one of an I-core or a second E-core, defining a magnetic gap between the centre limb of the first E-core (12, 12a) and the I-core or second E-core; and a conductive non-continuous shield (28, 30, 28a, 30a) arranged to at least partially magnetically shield the conductive windings or the gaps therebetween from the common ferrite core, wherein the conductive non-continuous shield (28, 30, 28a, 30a) comprises at least one insulation break so as not to form a continuous conductive loop around the centre limb of the respective E-core (12, 12a, 12b).
A method for producing an at least two-part structure, in particular a semifinished product for a superconducting wire, wherein a first structure and a second structure are separately produced, and the first structure and the second structure are then inserted into one another, wherein the first structure and the second structure respectively are produced in layers by selective laser melting or selective electron beam melting of a powder, characterized in that the first structure is produced with a plurality of axial recesses and the second structure is produced with a plurality of diametrically opposed axial extensions. wherein a first structure and a second structure are separately produced, and the first structure and the second structure are then inserted into one another, wherein the first structure and the second structure respectively are produced in layers by selective laser melting or selective electron beam melting of a powder, characterized in that the first structure is produced with a plurality of axial recesses and the second structure is produced with a plurality of diametrically opposed axial extensions.
A method for performing an additional sensing in a wireless communication system, the method performed by a user equipment, UE, and comprising: performing a sensing during a sensing duration, wherein the sensing is performed based on a first reference signal received power, RSRP, measurement, wherein a boundary of the sensing duration is specific to the UE in a time domain; selecting a first vehicle to X, V2X, resource based on a result of the first RSRP measurement after the sensing duration; the method being characterized by performing the additional sensing including up to the first V2X resource which is previously selected, wherein the additional sensing is performed based on a second RSRP measurement; selecting a second V2X resource based on a result of the second RSRP measurement, wherein each of the first V2X resource and the second V2X resource is defined based on a time unit; and performing the transmission of the V2X message based on the second V2X resource which is different from the first V2X resource. performing a sensing during a sensing duration, wherein the sensing is performed based on a first reference signal received power, RSRP, measurement, wherein a boundary of the sensing duration is specific to the UE in a time domain; selecting a first vehicle to X, V2X, resource based on a result of the first RSRP measurement after the sensing duration; the method being characterized by performing the additional sensing including up to the first V2X resource which is previously selected, wherein the additional sensing is performed based on a second RSRP measurement; selecting a second V2X resource based on a result of the second RSRP measurement, wherein each of the first V2X resource and the second V2X resource is defined based on a time unit; and performing the transmission of the V2X message based on the second V2X resource which is different from the first V2X resource.
A method in a communication system comprising a access network with Radio Network controllers, RNC, and radio base stations, RBS or Node B, consisting of main units, MU, which performs base band signal processing and one or more radio remote units, RRUs, which converts between baseband and radio frequencies and transmits and receives signals over one or more antennas, covering cells, and one or several User equipment, UE or Phones, moving closer and closer to another cell, which said network is made aware of and then it will initiate a handover process, during which the call will be transferred from one cell to another cell within said radio base station, RBS or Node B, or to a cell in another Radio base station, RBS or Node B, in said communication network, characterize d in that said handover process interacts with a memory containing a list of Softer handover, HO, groups, where each group consists of said radio remote units, RRUs, capable of doing softer handover with each other using the same Rake receiver.
A chemically toughened sheet-like glass article having a thickness between at least 0.4 mm and at most 3 mm, produced by a two-stage ion exchange of a lithium aluminosilicate glass; wherein a first ion exchange is performed over a duration of 1.5 hours to 4 hours at a temperature between 380 °C and at most 395 °C, and with a composition of the exchange bath between at least 40 wt% and at most less than 70 wt% of potassium salt, in particular KNO 3, and at most 60 wt% to at least more than 30 wt% of NaNO 3; and a second ion exchange is performed over a duration of 2.5 hours to 5 hours at a temperature between 360 °C and 390 °C, and with a composition of the exchange bath between 90 wt% and 95 wt% of KNO 3, and 10 wt% to 5 wt% of NaNO 3. produced by a two-stage ion exchange of a lithium aluminosilicate glass; wherein a first ion exchange is performed over a duration of 1.5 hours to 4 hours at a temperature between 380 °C and at most 395 °C, and with a composition of the exchange bath between at least 40 wt% and at most less than 70 wt% of potassium salt, in particular KNO 3, and at most 60 wt% to at least more than 30 wt% of NaNO 3; and a second ion exchange is performed over a duration of 2.5 hours to 5 hours at a temperature between 360 °C and 390 °C, and with a composition of the exchange bath between 90 wt% and 95 wt% of KNO 3, and 10 wt% to 5 wt% of NaNO 3.
A cooling system for a fuel system of a turbine engine, comprising: at least one fuel nozzle extending into a combustor chamber formed at least in part by a combustor housing, wherein the at least one fuel nozzle includes at least one fuel exhaust orifice with an opening in an outer surface of the at least one fuel nozzle, wherein the at least one fuel nozzle is at its bottom formed by the combustor housing in communication with a fuel source and in communication with a steam source thereby forming a combined fuel and steam nozzle; and at least one cooling system housing positioned around the at least one fuel nozzle on the combustor housing, wherein the at least one cooling system housing forms a cooling chamber defined at least partially by an inner surface of the at least one cooling system housing and the outer surface of the at least one fuel nozzle, wherein the cooling chamber conveys cooling air arranged to surround the fuel nozzle and thus cool the fuel nozzle during combustor operation, regardless of whether the fuel nozzle is in use, wherein a distal end of the at least one cooling system housing terminates closer to the combustor housing than a distal end of the at least one fuel nozzle, wherein at least one centering strut extends radially inward from the inner surface of the at least one cooling system housing for maintaining a position of the at least one cooling system housing around the fuel nozzle, wherein that the at least one fuel nozzle is an axial stage nozzle positioned within a secondary combustion zone. at least one fuel nozzle extending into a combustor chamber formed at least in part by a combustor housing, wherein the at least one fuel nozzle includes at least one fuel exhaust orifice with an opening in an outer surface of the at least one fuel nozzle, wherein the at least one fuel nozzle is at its bottom formed by the combustor housing in communication with a fuel source and in communication with a steam source thereby forming a combined fuel and steam nozzle; and at least one cooling system housing positioned around the at least one fuel nozzle on the combustor housing, wherein the at least one cooling system housing forms a cooling chamber defined at least partially by an inner surface of the at least one cooling system housing and the outer surface of the at least one fuel nozzle, wherein the cooling chamber conveys cooling air arranged to surround the fuel nozzle and thus cool the fuel nozzle during combustor operation, regardless of whether the fuel nozzle is in use, wherein a distal end of the at least one cooling system housing terminates closer to the combustor housing than a distal end of the at least one fuel nozzle, wherein at least one centering strut extends radially inward from the inner surface of the at least one cooling system housing for maintaining a position of the at least one cooling system housing around the fuel nozzle, wherein that the at least one fuel nozzle is an axial stage nozzle positioned within a secondary combustion zone.
Guide assembly for sliding doors (4, 5), in particular for furniture, comprising a guide rail along which at least two sliding doors (4, 5) are movably held, wherein each sliding door (4, 5) is movable via at least one guide part (8, 9) of the guide assembly on the guide rail, and the two sliding doors (4, 5) are coupled to a control cable of the guide assembly via the guide parts (8, 9), wherein the control cable is movably held substantially parallel to the guide rail via at least two deflecting rollers (11, 12) arranged on opposite sides, whereby for fixing the control cable on one of the guide parts (8, 9) a holder (30, 30') is provided which is fixable to the guide part (8, 9) and is provided at the at least one fastening means (31, 31', 31") for the control cable, which is movably fixed to the holder (30, 30') and is supported at least on a stop of the holder (30, 30'), characterized in that the fastening means (31, 31') is pivotably mounted on the holder (30, 30') whereby through the stop and an undercut at the holder (30, 30') an interlocking safety is provided against pivoting through the force of the control cable.
Method for configuring parameters for managing a data flow, implemented by a communication device forming an interface between a first and a second communication network, the method comprising: - a first step (E2, F2, F17) of receiving a first packet of the data flow from the first communication network destined for the second communication network, said packet comprising, in the header, a first value of a parameter for managing the data flow, - a second step (E7, F6, F21) of receiving a second packet of the data flow from the second network destined for the first network, said packet comprising, in the header, a second value of the parameter for managing the data flow, characterized in that the method furthermore comprises: - a step (E7, F8, F25) of storing, in a table, flow identification information and at least the second value of the parameter for managing the data flow, this value being intended to be applied, by the communication device, to all of the packets belonging to the data flow destined for the second communication network. - a first step (E2, F2, F17) of receiving a first packet of the data flow from the first communication network destined for the second communication network, said packet comprising, in the header, a first value of a parameter for managing the data flow, - a second step (E7, F6, F21) of receiving a second packet of the data flow from the second network destined for the first network, said packet comprising, in the header, a second value of the parameter for managing the data flow, - a step (E7, F8, F25) of storing, in a table, flow identification information and at least the second value of the parameter for managing the data flow,
Use of a lubricating composition comprising a base oil and at least one alkyl methacrylate polymer, for reducing particle emissions from an engine, the alkyl methacrylate polymer being a comb polymer whose the pendant chains comprise at least 50 carbon atoms and is chosen from copolymers of at least one polyolefin and at least one poly(alkyl)methacrylate; copolymers of at least one polyolefin and at least one poly(alkyl)acrylate.
A composition for ex vivo modification of a glycan on the surface of a viable cell, the composition consisting of: a purified α(1,3)-fucosyltransferase polypeptide and, a buffered, physiologically acceptable solution free of glycerol and divalent metal co-factors, wherein the α(1,3)-fucosyltransferase polypeptide is α(1,3)-fucosyltransferase VI or α(1,3)-fucosyltransferase VII. a purified α(1,3)-fucosyltransferase polypeptide and, a buffered, physiologically acceptable solution free of glycerol and divalent metal co-factors, wherein the α(1,3)-fucosyltransferase polypeptide is α(1,3)-fucosyltransferase VI or α(1,3)-fucosyltransferase VII.
A component of a plasma-wetted system coated with a coating for decreasing the reactivity of a plasma wetted surface system component, the coating comprising: aluminum oxynitride having a composition of about: aluminum in an amount of between 25% to 60%; oxygen in an amount of between 20% to 40%; nitrogen in an amount of between 20% to 40%; wherein the coating is 4 - 5μm thick. aluminum in an amount of between 25% to 60%; oxygen in an amount of between 20% to 40%; nitrogen in an amount of between 20% to 40%;
A puller assembly mountable to a shield around a needle of a syringe, the shield projecting in an axial direction through an opening in a housing of a device holding the syringe, the puller assembly comprising: a grip component having a tubular body defining an interior hollow for axially receiving the shield during assembly of the grip component to the shield to form a subassembly, said tubular body including opposite angular ends (38, 39) defining a slit that extends between a first axial end and a second axial end of said tubular body to allow said tubular body to be forcibly shifted from a neutral first arrangement to a radially expanded second arrangement by increasing the angular span of the slit, said interior hollow having a smaller size in said first arrangement and a larger size in said second arrangement, said tubular body including a radial inner face with at least one radial inward projection for directly engaging the shield in said subassembly; and a cap grippable by a user and including a body having a surface defining a cavity into which the grip component is insertable during assembly of the cap to said subassembly, wherein the cap is configured to hold the inserted grip component and the body surface is configured to limit radial expansion of the inserted grip component and thereby cause the at least one radial inward projection to be kept in direct engagement with the shield so that when the cap is removed from the housing it will remove the shield from around the needle. a grip component having a tubular body defining an interior hollow for axially receiving the shield during assembly of the grip component to the shield to form a subassembly, said tubular body including opposite angular ends (38, 39) defining a slit that extends between a first axial end and a second axial end of said tubular body to allow said tubular body to be forcibly shifted from a neutral first arrangement to a radially expanded second arrangement by increasing the angular span of the slit, said interior hollow having a smaller size in said first arrangement and a larger size in said second arrangement, said tubular body including a radial inner face with at least one radial inward projection for directly engaging the shield in said subassembly; and a cap grippable by a user and including a body having a surface defining a cavity into which the grip component is insertable during assembly of the cap to said subassembly, wherein the cap is configured to hold the inserted grip component and the body surface is configured to limit radial expansion of the inserted grip component and thereby cause the at least one radial inward projection to be kept in direct engagement with the shield so that when the cap is removed from the housing it will remove the shield from around the needle.
Composite system for the encapsulation of electronic arrangements, comprising at least a) an adhesive tape comprising at least one pressure-sensitive adhesive for direct application on a substrate; and b) at least one release liner superposed directly on the pressure-sensitive adhesive, where the surface roughness of the release liner surface facing toward the pressure-sensitive adhesive, determined as arithmetic mean S a in accordance with ISO/FDIS 25178-2:2011 of the magnitudes of at least 10 000 profile height values for an area of at least 200 μm × 200 μm, is smaller than 70 nm and the pressure-sensitive adhesive has a volume permeation WVTR (MOCON), measured as specified in the description, of < 10 g/(m 2 *d). a) an adhesive tape comprising at least one pressure-sensitive adhesive for direct application on a substrate; and b) at least one release liner superposed directly on the pressure-sensitive adhesive, where the surface roughness of the release liner surface facing toward the pressure-sensitive adhesive, determined as arithmetic mean S a in accordance with ISO/FDIS 25178-2:2011 of the magnitudes of at least 10 000 profile height values for an area of at least 200 μm × 200 μm, is smaller than 70 nm and the pressure-sensitive adhesive has a volume permeation WVTR (MOCON), measured as specified in the description, of < 10 g/(m 2 *d).
Air-conditioned chair, which is designed to be heatable or coolable, wherein at least one ventilation module (3, 6) having at least one ventilator is arranged within a seat shell or a back shell, wherein the ventilator draws in air and releases an air stream via at least one ventilation channel to a person sitting on the chair, characterised in that the ventilation module (3, 6) is designed as a textile mat and the ventilator is integrated into the ventilation module and with the latter forms a unit, wherein the ventilator is firmly connected to the ventilation module (3, 6), wherein the ventilation module (3, 6) is arranged between a cushion (1, 4) and the shell (22, 23).
A gas exhaust diffuser for a circuit breaker, comprising a first casing extending longitudinally along a principal axis with an open end to allow gas to enter and a closed end, and a second casing coaxial to the first casing, extending along the principal axis, with at least one outlet to allow gas to escape, the closed end of the first casing being arranged in the second casing and the first casing having at least two radial openings near its closed end to provide a fluid communication between the first and second casing (10,20), wherein a plurality of incurved elements are positioned radially in the second casing at the at least one radial opening to create a rotation of an entering exhaust flow in a plane perpendicular to the principal axis, thereby generating a substantially helicoidally-shaped exhaust flow path in the second casing.
A pressure vessel, comprising: a non-conductive polymeric pressure vessel liner (100, 300); and a boss (305, 450); wherein: the non-conductive liner is contiguous to an inner surface (210, 310) of the boss, separating the inner surface of the boss from a compressed fluid contained in the pressure vessel; the non-conductive liner is also contiguous to a proximal end surface (232, 460) of the boss, physically and electrically separating the end surface from galvanic corrosion-inducing contact with materials external to the pressure vessel; the pressure vessel being characterized in that: the boss is a one-piece composite boss comprising an electrically conductive fibrous or filamentous material, wherein the electrically conductive fibrous or filamentous material comprises carbon fibers or filaments. a non-conductive polymeric pressure vessel liner (100, 300); and a boss (305, 450); wherein: the non-conductive liner is contiguous to an inner surface (210, 310) of the boss, separating the inner surface of the boss from a compressed fluid contained in the pressure vessel; the non-conductive liner is also contiguous to a proximal end surface (232, 460) of the boss, physically and electrically separating the end surface from galvanic corrosion-inducing contact with materials external to the pressure vessel; the non-conductive liner is contiguous to an inner surface (210, 310) of the boss, separating the inner surface of the boss from a compressed fluid contained in the pressure vessel; the non-conductive liner is also contiguous to a proximal end surface (232, 460) of the boss, physically and electrically separating the end surface from galvanic corrosion-inducing contact with materials external to the pressure vessel; the pressure vessel being characterized in that: the boss is a one-piece composite boss comprising an electrically conductive fibrous or filamentous material, wherein the electrically conductive fibrous or filamentous material comprises carbon fibers or filaments. the boss is a one-piece composite boss comprising an electrically conductive fibrous or filamentous material, wherein the electrically conductive fibrous or filamentous material comprises carbon fibers or filaments.
An immunomodulating complex being a fusion protein comprising: (a) a mutant subunit of the ADP-ribosylating A1-subunit of the cholera toxin, (b) a peptide capable of binding to a specific cellular receptor wherein said peptide is a dimer of a Staphylococcus aureus Protein A D-subunit, and (c) one or more epitopes associated with an autoimmune or allergic disease, wherein, in the mutant CTA1 subunit, the amino acids corresponding to the amino acid 7, arginine, and amino acid 187, cysteine, in the native CTA1 have been replaced with lysine at amino acid 7 and alanine at amino acid 187. (a) a mutant subunit of the ADP-ribosylating A1-subunit of the cholera toxin, (b) a peptide capable of binding to a specific cellular receptor wherein said peptide is a dimer of a Staphylococcus aureus Protein A D-subunit, and (c) one or more epitopes associated with an autoimmune or allergic disease,