mhurhangee/patent-ind-claim-en huggingface dataset:
A joint structure of a high-voltage cable, comprising a cable core , the cable core being wrapped from interior to exterior sequentially by an inner insulating layer , a shielding layer and an outer insulating layer , a section of the inner insulating layer and of the outer insulating layer being stripped at an end of the cable core , and a length of the stripped section of the outer insulating layer being greater than a length of the stripped section of the inner insulating layer , wherein the end of the cable core is connected to an external terminal , a connection between the end of the cable core and the external terminal and an adjacent section of the inner insulating layer are wrapped by a heat-shrinkable tube, an axial spacing is provided between an end of the heat-shrinkable tube and the outer insulating layer , characterized in that the shielding layer within the spacing is wrapped by a copper foil, and the shielding layer is connectable externally to the cable connector via the copper foil; wherein the copper foil comprises an outer-layer copper foil and an inner-layer copper foil , a length of the outer-layer copper foil is greater than a length of the inner-layer copper foil , the shielding layer is folded within the axial spacing, and the folded section is located between the inner-layer copper foil and the outer-layer copper foil ; wherein the heat-shrinkable tube comprises an inner-layer heat-shrinkable tube and an outer-layer heat-shrinkable tube , and the outer-layer heat-shrinkable tube wraps the inner-layer heat-shrink tube and an adjacent section of the outer-layer copper foil ; and wherein an inner wall of the outer-layer heat-shrink tube is thinned at a section where the outer-layer copper foil is wrapped. the shielding layer within the spacing is wrapped by a copper foil, and the shielding layer is connectable externally to the cable connector via the copper foil; wherein the copper foil comprises an outer-layer copper foil and an inner-layer copper foil , a length of the outer-layer copper foil is greater than a length of the inner-layer copper foil , the shielding layer is folded within the axial spacing, and the folded section is located between the inner-layer copper foil and the outer-layer copper foil ; wherein the heat-shrinkable tube comprises an inner-layer heat-shrinkable tube and an outer-layer heat-shrinkable tube , and the outer-layer heat-shrinkable tube wraps the inner-layer heat-shrink tube and an adjacent section of the outer-layer copper foil ; and wherein an inner wall of the outer-layer heat-shrink tube is thinned at a section where the outer-layer copper foil is wrapped.
A method in a User Equipment (U2) for wireless communication, comprising: receiving a first signaling ; and transmitting a first radio signal ; wherein the first signaling is used for determining K Resource Elements (REs), K first-type complex numbers are respectively mapped onto the K REs, the K first-type complex numbers are used for generating the first radio signal, K first-type parameters respectively correspond to the K first-type complex numbers, the K first-type parameters are respectively complex numbers each of which is of modulus equal to 1, the K first-type parameters are related to a frequency-domain position of the K REs, the method characterised in that each of the K first-type parameters is related to a length of a cyclic prefix of an RE onto which a corresponding first-type complex number is mapped; the first radio signal carries a first bit block, the K first-type parameters and the first bit block are used for generating the K first-type complex numbers, the K first-type parameters are unrelated to bits in the first bit block, the K REs are distributed on more than one subcarrier in frequency domain, and the K REs are distributed on more than one multicarrier symbol in time domain. receiving a first signaling ; and transmitting a first radio signal ; wherein the first signaling is used for determining K Resource Elements (REs), K first-type complex numbers are respectively mapped onto the K REs, the K first-type complex numbers are used for generating the first radio signal, K first-type parameters respectively correspond to the K first-type complex numbers, the K first-type parameters are respectively complex numbers each of which is of modulus equal to 1, the K first-type parameters are related to a frequency-domain position of the K REs, the method characterised in that each of the K first-type parameters is related to a length of a cyclic prefix of an RE onto which a corresponding first-type complex number is mapped; the first radio signal carries a first bit block, the K first-type parameters and the first bit block are used for generating the K first-type complex numbers, the K first-type parameters are unrelated to bits in the first bit block, the K REs are distributed on more than one subcarrier in frequency domain, and the K REs are distributed on more than one multicarrier symbol in time domain.
An in vitro process for detecting hepatitis C virus (HCV) infection in a biological sample, comprising simultaneously detecting HCV capsid protein, and an antibody against said capsid protein, present in the biological sample, the process comprising a) contacting the biological sample with a capture antibody against said capsid protein, and a capture antigen capable of capturing the anti-capsid protein antibodies present in the sample; b) incubating the mixture under conditions permitting the formation of antigen-antibody complexes; c) revealing the antigen-antibody complexes formed, optionally using a labeled detection antibody capable of binding to the captured capsid protein and/or optionally also a labeled detection antigen capable of binding to the captured anti-capsid antibody; characterized in that said capture antigen is a peptide consisting of an antigenic fragment derived from the HCV capsid ranging at most from amino acid 1 to amino acid 44 of the sequence SED ID NO: 1, said antigenic fragment comprising, or consisting of, a sequence from amino acids 6 to 37 of the HCV capsid protein of sequence SED ID NO: 1, and having a point mutation of amino acid 34.
Nanocomposite organogel pNIPA-LAP-AHK containing nanoporous polymer matrix pNIPA-LAP with a structure based on poly(N-isopropylacrylamide) containing Laponite XLS (92.32 wt.% of Mg 5.34 Li 0.66 Si 8 O 20 (OH) 4 Na 0.66 , 7.68 wt.% Na 4 P 2 O 7 ) as a crosslinking agent, filled with a cleaning mixture for dissolving a wax-resin lining adhesive and removing it from the canvases of wax-resin lined paintings, containing an alcohol component, a hydrocarbon component and a ketone component forming together an AHK cleaning mixture (alcohol/hydrocarbon/ketone), which is chemically inert towards polymerised oils present in the painting and has physicochemical properties determined by Teas parameters: fd = 67÷69 (dispersion force), fp = 11÷19 (polar force) and fh = 15÷21 (hydrogen bonding forces), characteristic of the area common to waxes, natural resins and synthetic resins.
A titanium cast ingot for hot rolling, the titanium ingot being made of commercially pure titanium consisting of C: equal to or less than 0.1 mass%, H: equal to or less than 0.015 mass%, O: equal to or less than 0.4 mass%, N: equal to or less than 0.07 mass%, Fe: equal to or less than 0.5mass%, one or more β stabilizer elements selected from V, Mo, Fe, Cr, Mn, Ta, Nb, Ni, Co, Cu, and W, optionally an α stabilizer element typified by Al, optionally a neutral element selected from Sn and Zr, and the balance: Ti, the titanium cast ingot comprising: a portion from the surface layer of the as-cast Ti ingot to a depth of 1 mm or more having a fine acicular microstructure, wherein an average value of β stabilizer element concentration in a range of within 1 mm in depth is higher than β stabilizer element concentration in a base material by, in mass%, equal to or more than 0.08 mass% and equal to or less than 1.50 mass% measured with the method defined in the description, and wherein the total amount of an α stabilizer element and a neutral element in a range of within 1 mm in depth is 2.0 mass% or less with respect to the base material.
Process for preparing a curing agent for epoxy resins, characterized in that - an amine mixture comprising at least one parent amine of the formula (I) and at least one alkylated amine of the formula (II) H 2 N-A-NH 2 (I) X-NH-A-NH-Y (II) where A in both formulae is the same alkylene radical which has 2 to 15 carbon atoms and optionally has cyclic components and optionally secondary or tertiary amino groups, X is a hydrogen radical or is Y, Y is an alkyl or cycloalkyl or aralkyl radical which has 1 to 20 carbon atoms, optionally has heteroatoms and is free of active hydrogen, - is reacted with at least one glycidyl ether of the formula (III) where m is 1 or 2 or 3, and Z is an m-valent hydrocarbyl radical optionally containing ether oxygen and having a molecular weight in the range from 56 to 1'500 g/mol. - an amine mixture comprising at least one parent amine of the formula (I) and at least one alkylated amine of the formula (II) H 2 N-A-NH 2 (I) X-NH-A-NH-Y (II) where A in both formulae is the same alkylene radical which has 2 to 15 carbon atoms and optionally has cyclic components and optionally secondary or tertiary amino groups, X is a hydrogen radical or is Y, Y is an alkyl or cycloalkyl or aralkyl radical which has 1 to 20 carbon atoms, optionally has heteroatoms and is free of active hydrogen, A in both formulae is the same alkylene radical which has 2 to 15 carbon atoms and optionally has cyclic components and optionally secondary or tertiary amino groups, X is a hydrogen radical or is Y, Y is an alkyl or cycloalkyl or aralkyl radical which has 1 to 20 carbon atoms, optionally has heteroatoms and is free of active hydrogen, - is reacted with at least one glycidyl ether of the formula (III) where m is 1 or 2 or 3, and Z is an m-valent hydrocarbyl radical optionally containing ether oxygen and having a molecular weight in the range from 56 to 1'500 g/mol. m is 1 or 2 or 3, and Z is an m-valent hydrocarbyl radical optionally containing ether oxygen and having a molecular weight in the range from 56 to 1'500 g/mol.
A fastener cartridge assembly for a surgical instrument, the fastener cartridge assembly comprising: a. a tissue thickness compensator compressible to a strain level, the tissue thickness compensator comprising: i. a resilient compensation layer having a first pressure-compression curve; ii. a collapsible compensation layer adjacent said resilient compensation layer, said collapsible compensation layer having a second pressure-compression curve; and b. a fastener moveable between an initial position and a fired position, wherein said fastener is configured to compress at least a portion of said tissue thickness compensator when fastener is moved to said fired position, characterised in that a first slope of said second pressure-compression curve is greater than a first slope of said first pressure-compression curve at a low compression and a second slope of said second pressure-compression curve is less than a second slope of said first pressure-compression curve at a compression higher than said low compression. a. a tissue thickness compensator compressible to a strain level, the tissue thickness compensator comprising: i. a resilient compensation layer having a first pressure-compression curve; ii. a collapsible compensation layer adjacent said resilient compensation layer, said collapsible compensation layer having a second pressure-compression curve; and i. a resilient compensation layer having a first pressure-compression curve; ii. a collapsible compensation layer adjacent said resilient compensation layer, said collapsible compensation layer having a second pressure-compression curve; and b. a fastener moveable between an initial position and a fired position, wherein said fastener is configured to compress at least a portion of said tissue thickness compensator when fastener is moved to said fired position,
A method, comprising: receiving sensor data from an accelerometer , the sensor data including acceleration information of a vehicle including a first computing device ; detecting , by the first computing device , using at least the acceleration information, that a magnitude of acceleration of the first computing device exceeds a threshold magnitude of acceleration in a predetermined direction; in response to detecting that the magnitude of acceleration exceeds the threshold magnitude of acceleration in the predetermined direction, initiating a data connection between the first computing device and a second computing device ; receiving , by the first computing device , at least one of timing information or location information from the second computing device ; and terminating the data connection between the first computing device and the second computing device . receiving sensor data from an accelerometer , the sensor data including acceleration information of a vehicle including a first computing device ; detecting , by the first computing device , using at least the acceleration information, that a magnitude of acceleration of the first computing device exceeds a threshold magnitude of acceleration in a predetermined direction; in response to detecting that the magnitude of acceleration exceeds the threshold magnitude of acceleration in the predetermined direction, initiating a data connection between the first computing device and a second computing device ; receiving , by the first computing device , at least one of timing information or location information from the second computing device ; and terminating the data connection between the first computing device and the second computing device .
A cap system for enclosing a metallic fastener assembly extending through a structure of an aircraft, the cap system comprising: a nut member of the metallic fastener assembly , the nut member comprising a first securement mechanism positioned about a periphery of the nut member, wherein the first securement mechanism comprises threads which extend about the periphery of the nut member , wherein the threads which extend about the periphery of the nut member are interrupted; and an electrically insulating cap member comprising a sidewall having an inner surface which defines a cavity dimensioned to receive the nut member and defines a second securement mechanism complementary configured to engage the first securement mechanism positioned about the periphery of the nut member , and an end of the sidewall of the cap member defines an opening which provides the nut member to have access into the cavity . a nut member of the metallic fastener assembly , the nut member comprising a first securement mechanism positioned about a periphery of the nut member, wherein the first securement mechanism comprises threads which extend about the periphery of the nut member , wherein the threads which extend about the periphery of the nut member are interrupted; and an electrically insulating cap member comprising a sidewall having an inner surface which defines a cavity dimensioned to receive the nut member and defines a second securement mechanism complementary configured to engage the first securement mechanism positioned about the periphery of the nut member , and an end of the sidewall of the cap member defines an opening which provides the nut member to have access into the cavity . a sidewall having an inner surface which defines a cavity dimensioned to receive the nut member and defines a second securement mechanism complementary configured to engage the first securement mechanism positioned about the periphery of the nut member , and an end of the sidewall of the cap member defines an opening which provides the nut member to have access into the cavity .
A three-dimensional data encoding method, comprising: generating encoded data by encoding third point cloud data that is a combination of first point cloud data and second point cloud data; and generating a bitstream including the encoded data and control information, wherein the encoded data includes a piece of geometry information and pieces of attribute information of each of three-dimensional points included in the third point cloud data, one of the pieces of attribute information includes first information indicating whether a corresponding one of the three-dimensional points belongs to the first point cloud data or the second point cloud data, and the control information includes second information indicating, among the pieces of attribute information, a piece of attribute information including the first information. generating encoded data by encoding third point cloud data that is a combination of first point cloud data and second point cloud data; and generating a bitstream including the encoded data and control information, wherein the encoded data includes a piece of geometry information and pieces of attribute information of each of three-dimensional points included in the third point cloud data, one of the pieces of attribute information includes first information indicating whether a corresponding one of the three-dimensional points belongs to the first point cloud data or the second point cloud data, and the control information includes second information indicating, among the pieces of attribute information, a piece of attribute information including the first information.
A monoclonal anti-human CD52 antibody or an antigen-binding portion thereof, wherein the light chain of said antibody comprises a CDR1 amino acid sequence of SEQ ID NO: 31, a CDR2 amino acid sequence of SEQ ID NO: 36 and a CDR3 amino acid sequence of SEQ ID NO: 44 and the heavy chain of said antibody comprises a CDR1 amino acid sequence of SEQ ID NO: 53, a CDR2 amino acid sequence of SEQ ID NO: 63 and a CDR3 amino acid sequence of SEQ ID NO: 71.
An integrated starter for starting an engine on an aircraft comprising: an air turbine starter comprising one or more starter sensors configured to determine a vibration and/or sound of a rotating portion of the air turbine starter ; a starter air valve integrated with the air turbine starter ; and a controller configured to control the starter air valve and further configured to determine an irregular movement of the rotating portion of the air turbine starter based on the measured vibration and/or sound and to create a notification to indicate a problem with the integrated starter , wherein the starter air valve is movable between a first position and at least a second position to regulate the flow of fluid into the air turbine starter ; wherein an output torque of the air turbine starter is dependent at least in part on the flow of fluid into the air turbine starter . an air turbine starter comprising one or more starter sensors configured to determine a vibration and/or sound of a rotating portion of the air turbine starter ; a starter air valve integrated with the air turbine starter ; and a controller configured to control the starter air valve and further configured to determine an irregular movement of the rotating portion of the air turbine starter based on the measured vibration and/or sound and to create a notification to indicate a problem with the integrated starter , wherein the starter air valve is movable between a first position and at least a second position to regulate the flow of fluid into the air turbine starter ; wherein an output torque of the air turbine starter is dependent at least in part on the flow of fluid into the air turbine starter .
Headlight of a vehicle with an additional light module , in particular a cornering light module, turning light module or fog light module that can be accommodated in the housing of the headlight, comprising a light source and a reflector via which the light generated by the light source can be emitted in an essentially horizontal direction of propagation , where a base body is provided for to which at least the light source and the reflector are mounted and where the base body is mounted so as to be held by means of a axis of rotation and by means of an adjusting unit for adjusting the additional light module around the axis of rotation in the housing of the headlight, where the adjusting unit for tilting the base body is formed around the axis of rotation , and where an adjusting plane is spanned out by the axis of rotation and an attachment point formed between the base body and the adjusting unit , where - the adjusting unit comprises an adjusting screw and where - the adjusting unit comprises an elastic element that is arranged between the base body and the housing , and - screwing the adjusting screw into a threaded hole in the base body increases the squeezing force exerted on the elastic element and an attachment point between the adjusting unit and the base body is lowered and - screwing the adjusting screw out of the threaded hole in the base body brings about an elastic relaxation of the elastic element , which causes the attachment point of the base body to the adjusting unit to rise, characterized in that the direction of propagation of the light runs essentially parallel over the adjusting plane and in that - the base body with the light source and the reflector features a centroid lying in the adjusting plane . - the adjusting unit comprises an adjusting screw and where - the adjusting unit comprises an elastic element that is arranged between the base body and the housing , and - screwing the adjusting screw into a threaded hole in the base body increases the squeezing force exerted on the elastic element and an attachment point between the adjusting unit and the base body is lowered and - screwing the adjusting screw out of the threaded hole in the base body brings about an elastic relaxation of the elastic element , which causes the attachment point of the base body to the adjusting unit to rise, characterized in that the direction of propagation of the light runs essentially parallel over the adjusting plane and in that - the base body with the light source and the reflector features a centroid lying in the adjusting plane .