mhurhangee/patent-ind-claim-en huggingface dataset:
A stable composition comprising: (a) nanoparticles of 1-(3,5-dimethoxyphenyl)-4-[(6-fluoro-2-methoxyquinoxalin-3-yl)aminocarbonyl]piperazine or pharmaceutically acceptable salts thereof; and (b) at least one surface stabilizer comprising a block copolymer of polyethylene oxide and polypropylene oxide, wherein the nanoparticles have an effective median particle size (D50) of less than about 1,000 nm. (a) nanoparticles of 1-(3,5-dimethoxyphenyl)-4-[(6-fluoro-2-methoxyquinoxalin-3-yl)aminocarbonyl]piperazine or pharmaceutically acceptable salts thereof; and (b) at least one surface stabilizer comprising a block copolymer of polyethylene oxide and polypropylene oxide, wherein the nanoparticles have an effective median particle size (D50) of less than about 1,000 nm.
A buoyancy enhanced drillpipe module for drilling a borehole in ground and being immersed in debris laden drilling fluid , comprising: a pipe , a first and a second connection unit fixed to the respective ends of the pipe, the connection units each allowing a connection of the drillpipe module respectively with another drillpipe module , and a passage for drilling fluid , wherein at least in a part of the space between the first and second connection unit a buoyancy unit is provided, and wherein, for a drilling fluid having a density in the range of 1.0 to 1.1 kg/l and/or a debris laden drilling fluid having a density in the range of 1.1 to 1.5 kg/l, the buoyancy unit has a lower density than the drilling fluid characterized in that the drillpipe module is dimensioned such that a ratio between an absolute value of an effective weight force per unit length of the drillpipe module in debris laden drilling fluid , with drilling fluid in the passage , and a total cross sectional area of those elements of the drillpipe module that are due to transfer axial force is < 10,000 N/m 3 . a pipe , a first and a second connection unit fixed to the respective ends of the pipe, the connection units each allowing a connection of the drillpipe module respectively with another drillpipe module , and a passage for drilling fluid , wherein at least in a part of the space between the first and second connection unit a buoyancy unit is provided, and wherein, for a drilling fluid having a density in the range of 1.0 to 1.1 kg/l and/or a debris laden drilling fluid having a density in the range of 1.1 to 1.5 kg/l, the buoyancy unit has a lower density than the drilling fluid characterized in that the drillpipe module is dimensioned such that a ratio between an absolute value of an effective weight force per unit length of the drillpipe module in debris laden drilling fluid , with drilling fluid in the passage , and a total cross sectional area of those elements of the drillpipe module that are due to transfer axial force is < 10,000 N/m 3 .
A method for detecting a low voltage defect of a secondary battery, comprising: an assembling step of assembling a secondary battery by accommodating an electrode assembly, in which a positive electrode plate and a negative electrode plate are stacked with a separator being interposed therebetween, and an electrolytic solution in a battery case; a primary aging step of aging the assembled secondary battery at a temperature of 20°C to 40°C; a primary formation step of charging the aged secondary battery at a C-rate of 0.1C to 0.5C; a high-rate charging step of charging the secondary battery at a C-rate of 2C or above, after the primary formation step; and a detecting step of detecting a low voltage defect of the secondary battery, after the high-rate charging step. an assembling step of assembling a secondary battery by accommodating an electrode assembly, in which a positive electrode plate and a negative electrode plate are stacked with a separator being interposed therebetween, and an electrolytic solution in a battery case; a primary aging step of aging the assembled secondary battery at a temperature of 20°C to 40°C; a primary formation step of charging the aged secondary battery at a C-rate of 0.1C to 0.5C; a high-rate charging step of charging the secondary battery at a C-rate of 2C or above, after the primary formation step; and a detecting step of detecting a low voltage defect of the secondary battery, after the high-rate charging step.
A method for controlling a yaw offset (θ) of a plurality of wind turbines , the method comprises - providing a decision function arranged for providing an activation parameter (Px) for a specific wind turbine of the plurality of wind turbines dependent on two or more variables , where the two or more variables comprise: - a wind direction variable (Wx) indicative of the wind direction of the specific wind turbine, and - a wind variation variable (ΔWx) defining at least a wind variation range where yaw offset control is disabled and a wind variation range where yaw offset control is enabled, - enabling or disabling the yaw offset control of the specific wind turbine based on the activation parameter, wherein the enabled yaw offset control provides a yaw offset (θ) relative to a default yaw setting, and wherein the wind variation variable is determined from the most recent measurements obtained in a period of time prior to the enabling or disabling the yaw offset control. - providing a decision function arranged for providing an activation parameter (Px) for a specific wind turbine of the plurality of wind turbines dependent on two or more variables , where the two or more variables comprise: - a wind direction variable (Wx) indicative of the wind direction of the specific wind turbine, and - a wind variation variable (ΔWx) defining at least a wind variation range where yaw offset control is disabled and a wind variation range where yaw offset control is enabled, - a wind direction variable (Wx) indicative of the wind direction of the specific wind turbine, and - a wind variation variable (ΔWx) defining at least a wind variation range where yaw offset control is disabled and a wind variation range where yaw offset control is enabled, - enabling or disabling the yaw offset control of the specific wind turbine based on the activation parameter, wherein the enabled yaw offset control provides a yaw offset (θ) relative to a default yaw setting, and wherein the wind variation variable is determined from the most recent measurements obtained in a period of time prior to the enabling or disabling the yaw offset control.
An ultraviolet flame detector , characterized in that the ultraviolet flame detector comprises: - a cylindrical housing having an opening at a top end of the housing , - a window structure arranged to cover the opening of the housing , - a photocathode arranged to a bottom end of the housing so that the photocathode is facing inside the housing , and - an anode wire arranged between the window structure and the photocathode , wherein the anode wire is configured to travel transversally across the housing , wherein the ultraviolet flame detector is filled with a gas. - a cylindrical housing having an opening at a top end of the housing , - a window structure arranged to cover the opening of the housing , - a photocathode arranged to a bottom end of the housing so that the photocathode is facing inside the housing , and - an anode wire arranged between the window structure and the photocathode , wherein the anode wire is configured to travel transversally across the housing ,
A system for providing treatment to a tissue site, the system comprising: a tissue interface configured to transport fluid to and from the tissue site; a cover configured to provide a sealed space that includes the tissue interface ; a negative-pressure source fluidly coupled to the tissue interface and configured to provide negative pressure; a hyperoxic fluid source fluidly coupled to the tissue interface and configured to provide a hyperoxic fluid; and a controller configured to control the negative pressure and the hyperoxic fluid so as to maintain the sealed space at a negative pressure while the hyperoxic fluid is provided to the sealed space , wherein the controller is configured to provide: a first therapy interval where the sealed space is maintained within a first range of negative pressure, wherein the first range is from -75 mmHg to -200 mmHg; and a second therapy interval where the sealed space is maintained within a second range of negative pressure, wherein the second range is from -5 mmHg to -60 mmHg. a tissue interface configured to transport fluid to and from the tissue site; a cover configured to provide a sealed space that includes the tissue interface ; a negative-pressure source fluidly coupled to the tissue interface and configured to provide negative pressure; a hyperoxic fluid source fluidly coupled to the tissue interface and configured to provide a hyperoxic fluid; and a controller configured to control the negative pressure and the hyperoxic fluid so as to maintain the sealed space at a negative pressure while the hyperoxic fluid is provided to the sealed space , wherein the controller is configured to provide: a first therapy interval where the sealed space is maintained within a first range of negative pressure, wherein the first range is from -75 mmHg to -200 mmHg; and a second therapy interval where the sealed space is maintained within a second range of negative pressure, wherein the second range is from -5 mmHg to -60 mmHg. a first therapy interval where the sealed space is maintained within a first range of negative pressure, wherein the first range is from -75 mmHg to -200 mmHg; and a second therapy interval where the sealed space is maintained within a second range of negative pressure, wherein the second range is from -5 mmHg to -60 mmHg.
A method comprising: at one or more network nodes comprising an Access and Mobility Management Function , AMF, for managing communications associated with a User Equipment , LTE, operative in a Next Generation, NG, Radio Access Network , RAN, NG-RAN, and for communicating signaling messages with the NG-RAN according to an NG Application Protocol, NGAP, receiving a registration request message which includes a Subscription Concealed Identity, SUCI, associated with the UE; identifying , from a set of AMF servers of the AMF, an initial AMF server to which to forward the registration request message for processing; allocating a first AMF-UE-NGAP-ID for NGAP messaging associated with the UE, which includes at least embedding in the first AMF-UE-NGAP-ID a hash result of a hash performed on an initial server ID of the initial AMF server; receiving a Subscription Permanent Identity, SUPI, associated with the UE from an authentication procedure performed for the UE based on the SUCI; identifying , from the set of AMF servers of the AMF, an anchor AMF server for the UE based on a hash result of a hash performed on the SUPI of the UE; and allocating a second AMF-UE-NGAP-ID for NGAP messages associated with the LTE, which includes at least embedding in the second AMF-LTE-NGAP-ID a hash result of a hash performed on an anchor server ID of the anchor AMF server. receiving a registration request message which includes a Subscription Concealed Identity, SUCI, associated with the UE; identifying , from a set of AMF servers of the AMF, an initial AMF server to which to forward the registration request message for processing; allocating a first AMF-UE-NGAP-ID for NGAP messaging associated with the UE, which includes at least embedding in the first AMF-UE-NGAP-ID a hash result of a hash performed on an initial server ID of the initial AMF server; receiving a Subscription Permanent Identity, SUPI, associated with the UE from an authentication procedure performed for the UE based on the SUCI; identifying , from the set of AMF servers of the AMF, an anchor AMF server for the UE based on a hash result of a hash performed on the SUPI of the UE; and allocating a second AMF-UE-NGAP-ID for NGAP messages associated with the LTE, which includes at least embedding in the second AMF-LTE-NGAP-ID a hash result of a hash performed on an anchor server ID of the anchor AMF server.
A door handle structure of a vehicle, comprising: a hinge arm having a lever to be gripped by a user and a rotational support axis to rotate the lever so as to be projected from a door panel ; and a driving unit to transmit a drive force to the hinge arm , wherein said lever is configured to be rotatable among a storage position where the lever is flush with the door panel , a gripping position where the lever is projected from the door panel by driving of said driving unit so that the user is able to grip the lever , and an open position where the lever is further projected from said gripping position, characterized in that said driving unit is fixed to said hinge arm in an opposite area, which is opposite, relative to said rotational support axis, to an area of the hinge arm where said lever is arranged, and said area of the hinge arm where the lever is arranged and said driving unit are provided to face each other relative to said rotational support axis when the lever takes the storage position. a hinge arm having a lever to be gripped by a user and a rotational support axis to rotate the lever so as to be projected from a door panel ; and a driving unit to transmit a drive force to the hinge arm , wherein said lever is configured to be rotatable among a storage position where the lever is flush with the door panel , a gripping position where the lever is projected from the door panel by driving of said driving unit so that the user is able to grip the lever , and an open position where the lever is further projected from said gripping position, characterized in that said driving unit is fixed to said hinge arm in an opposite area, which is opposite, relative to said rotational support axis, to an area of the hinge arm where said lever is arranged, and said area of the hinge arm where the lever is arranged and said driving unit are provided to face each other relative to said rotational support axis when the lever takes the storage position.
An in-vitro diagnostic system comprising - at least two detectors comprising a first detector and a second detector for detecting at least two respective parameters of a test sample , - a Quality Control (QC) material for performing a QC procedure with respect to the first detector and the second detector , the QC material comprising at least one first QC substance and at least one second QC substance , wherein the at least one first QC substance is required for performing the QC procedure with respect to the first detector and the at least one second QC substance is required for performing the QC procedure with respect to the second detector and wherein the at least one first QC substance is interferable with the performance and/or lifetime of the second detector , wherein - the first detector comprises an optical unit for optically detecting at least one analyte of interest, - the second detector is based on an amperometric, potentiometric or conductometric measurement principle, - the at least one first QC substance is a dye or a mixture of dyes that optically simulate one or more analytes of interest, - the at least one second QC substance is any one or more of a gas, an electrolyte or a metabolite, and - the at least one first QC substance is entrapped by carrier particles that prevent the at least one first QC substance to interfere with the at least one second QC substance or with the performance and/or lifetime of the at least one detector , wherein the carrier particles are silica or polymeric particles. - at least two detectors comprising a first detector and a second detector for detecting at least two respective parameters of a test sample , - a Quality Control (QC) material for performing a QC procedure with respect to the first detector and the second detector , the QC material comprising at least one first QC substance and at least one second QC substance , wherein the at least one first QC substance is required for performing the QC procedure with respect to the first detector and the at least one second QC substance is required for performing the QC procedure with respect to the second detector and wherein the at least one first QC substance is interferable with the performance and/or lifetime of the second detector , wherein - the first detector comprises an optical unit for optically detecting at least one analyte of interest, - the second detector is based on an amperometric, potentiometric or conductometric measurement principle, - the at least one first QC substance is a dye or a mixture of dyes that optically simulate one or more analytes of interest, - the at least one second QC substance is any one or more of a gas, an electrolyte or a metabolite, and - the at least one first QC substance is entrapped by carrier particles that prevent the at least one first QC substance to interfere with the at least one second QC substance or with the performance and/or lifetime of the at least one detector , wherein the carrier particles are silica or polymeric particles.
A high melt strength acrylic formulation comprising: a) an acrylic matrix comprising one or more acrylic polymers; b) 5 to 15 weight percent based on the overall formulation of a very high molecular weight acrylic process aid containing at least 50 weight percent of methyl methacrylate monomer units, and optionally comonomers up to 50 weight percent, wherein said very high molecular weight acrylic process aid has a weight average molecular weight of 10 million g/mol (Daltons) or greater, as measured by GPC. a) an acrylic matrix comprising one or more acrylic polymers; b) 5 to 15 weight percent based on the overall formulation of a very high molecular weight acrylic process aid containing at least 50 weight percent of methyl methacrylate monomer units, and optionally comonomers up to 50 weight percent, wherein said very high molecular weight acrylic process aid has a weight average molecular weight of 10 million g/mol (Daltons) or greater, as measured by GPC.
A crib wall structure comprising: a. a plurality of tiers of stretchers , and headers arranged for containing an in-fill material to form a crib wall ; b. the stretchers , comprising elongate members aligned generally along the length of the wall and the headers comprising elongate members aligned generally perpendicular to the stretchers , , the stretchers , and headers being initially separate members connected together to form the crib wall structure ; c. the headers being arranged in a plurality of columns spaced apart along the length of the wall, each adjacent pair of columns of headers defining a section of the wall , and each header having a front end at a front face of the wall and an opposite rear end; d. the stretchers , comprising front end stretchers , each front end stretcher spanning lengthways to interconnect front end regions of associated headers in adjacent columns in a tier; each front end stretcher having a generally upwardly directed portion and at least one rearward directed portion , the wall structure further comprising spacer blocks positioned between at least some of the headers, characterised in that an upper surface of each of the spacer blocks is arranged to engage with and support a lower surface of the at least one rearward directed portion of a respective front end stretcher , whereby each of the spacer blocks are arranged to support the respective front end stretcher and sit on a respective header in the tier below. a. a plurality of tiers of stretchers , and headers arranged for containing an in-fill material to form a crib wall ; b. the stretchers , comprising elongate members aligned generally along the length of the wall and the headers comprising elongate members aligned generally perpendicular to the stretchers , , the stretchers , and headers being initially separate members connected together to form the crib wall structure ; c. the headers being arranged in a plurality of columns spaced apart along the length of the wall, each adjacent pair of columns of headers defining a section of the wall , and each header having a front end at a front face of the wall and an opposite rear end; d. the stretchers , comprising front end stretchers , each front end stretcher spanning lengthways to interconnect front end regions of associated headers in adjacent columns in a tier;
A cationic electrodeposition coating composition comprising: an emulsion particle (A) containing a Michael addition reaction donor component and an emulsion particle (B) containing a Michael addition reaction acceptor component, wherein a Michael addition reaction catalyst (C) is contained in the emulsion particle (A) or the emulsion particle (B) or is contained in the cationic electrodeposition coating composition by being microencapsulated. an emulsion particle (A) containing a Michael addition reaction donor component and an emulsion particle (B) containing a Michael addition reaction acceptor component, wherein a Michael addition reaction catalyst (C) is contained in the emulsion particle (A) or the emulsion particle (B) or is contained in the cationic electrodeposition coating composition by being microencapsulated.
An electrically or electromagnetically operated valve , comprising - a movable structural group with a magnetic armature , which is movable along an axis between a first and a second position, wherein in the first position at least one passage through the valve is at least partially open, which passage is closed in the second position, and - a valve sleeve which surrounds the magnetic armature and in which the magnetic armature is movable between the first and the second position, wherein the magnetic armature defines in the valve sleeve a first volume on a first axial side of the magnetic armature and a second volume on a second axial side of the magnetic armature opposing the first axial side, and a throttling element elastic in the radial direction, which is arranged between the first volume and the second volume such that upon axial movement of the movable structural group it throttles a fluid stream between the first volume and the second volume , characterized in that the movable structural group comprises a plunger which extends in the axial direction from the second axial side of the magnetic armature and through a bore in a stationary part of the valve , wherein in the bore there is arranged a seal which seals the second volume . - a movable structural group with a magnetic armature , which is movable along an axis between a first and a second position, wherein in the first position at least one passage through the valve is at least partially open, which passage is closed in the second position, and - a valve sleeve which surrounds the magnetic armature and in which the magnetic armature is movable between the first and the second position,