mhurhangee/patent-ind-claim-en huggingface dataset:
A network node having an ATCF, Access Transfer Control Function, for use in eSRVCC, enhanced Single Radio Voice Call Continuity handover, comprising: a receiving unit that receives SDP, Session Description Protocol, offer or SDP answer included in IMS, IP Multimedia Subsystem, signaling from a communication terminal; an SDP analyzing unit adapted to acquire information regarding a codec contained in the SDP offer or the SDP answer; a data storage unit adapted to store information regarding a codec supported by ATGW, Access Transfer Gateway, or a neighboring MGW, Media Gateway, information regarding transcoding supported by the ATGW or the neighboring MGW, and information regarding a codec supported by a neighboring CS, Circuit Switching, network; and a determination unit adapted to determine whether transmission of an SDP offer for codec re-negotiation from the ATCF to a communication terminal is allowed using the information regarding a codec acquired in the SDP analyzing unit and the information retrieved from the data storage unit. a receiving unit that receives SDP, Session Description Protocol, offer or SDP answer included in IMS, IP Multimedia Subsystem, signaling from a communication terminal; an SDP analyzing unit adapted to acquire information regarding a codec contained in the SDP offer or the SDP answer; a data storage unit adapted to store information regarding a codec supported by ATGW, Access Transfer Gateway, or a neighboring MGW, Media Gateway, information regarding transcoding supported by the ATGW or the neighboring MGW, and information regarding a codec supported by a neighboring CS, Circuit Switching, network; and a determination unit adapted to determine whether transmission of an SDP offer for codec re-negotiation from the ATCF to a communication terminal is allowed using the information regarding a codec acquired in the SDP analyzing unit and the information retrieved from the data storage unit.
A battery module , comprising: - a housing ; - a stack of battery cells disposed in a receptacle area of the housing , each battery cell of the battery cell stack having a top comprising a battery cell terminal and a bottom opposite the top , wherein the stack of battery cells is positioned such that the top of each battery cell faces outwardly away from the receptacle area; and - an integrated sensing and bus bar subassembly positioned against the stack of battery cells , wherein the integrated sensing and bus bar subassembly comprises a carrier , a bus bar integrated onto the carrier , and a biasing member integrated onto the carrier ; wherein, the bus bar is configured to electrically couple battery cells of the stack of battery cells in an electrical arrangement; wherein the biasing member is positioned between the top of each battery cell of the stack of battery cells and the carrier , wherein the biasing member comprises a first material that is more compliant than a second material of the carrier , and the biasing member biases the stack of battery cells inwardly toward the housing ; and wherein the biasing member is integrated onto the carrier via a friction fit in which a projection of the carrier is positioned within a corresponding recess of the biasing member . - a housing ; - a stack of battery cells disposed in a receptacle area of the housing , each battery cell of the battery cell stack having a top comprising a battery cell terminal and a bottom opposite the top , wherein the stack of battery cells is positioned such that the top of each battery cell faces outwardly away from the receptacle area; and - an integrated sensing and bus bar subassembly positioned against the stack of battery cells , wherein the integrated sensing and bus bar subassembly comprises a carrier , a bus bar integrated onto the carrier , and a biasing member integrated onto the carrier ; wherein, the bus bar is configured to electrically couple battery cells of the stack of battery cells in an electrical arrangement; wherein the biasing member is positioned between the top of each battery cell of the stack of battery cells and the carrier , wherein the biasing member comprises a first material that is more compliant than a second material of the carrier , and the biasing member biases the stack of battery cells inwardly toward the housing ; and wherein the biasing member is integrated onto the carrier via a friction fit in which a projection of the carrier is positioned within a corresponding recess of the biasing member .
A tire comprising: a tread part composed of two or more rubber layers, wherein, of the two or more rubber layers, a density Dc of a rubber layer constituting a tread surface and a density Db of an inner rubber layer other than the rubber layer constituting the tread surface in the tire radial direction, the density Db being the maximum density of all layers, satisfy the following inequality: Db / Dc ≥ 1 .25 , and wherein the rubber layer having the maximum density is composed of a rubber composition comprising a rubber component comprising an isoprene-based rubber, characterized in that the rubber composition satisfies at least the following (a) or (b), (a) the rubber component comprises a liquid polymer, wherein the liquid polymer is at least one selected from the group consisting of a liquid isoprene rubber and a liquid styrene-isoprene rubber; (b) the rubber composition comprises a resin, wherein the resin is at least one selected from the group consisting of a petroleum resin and a phenol-based resin. a tread part composed of two or more rubber layers, wherein, of the two or more rubber layers, a density Dc of a rubber layer constituting a tread surface and a density Db of an inner rubber layer other than the rubber layer constituting the tread surface in the tire radial direction, the density Db being the maximum density of all layers, satisfy the following inequality: Db / Dc ≥ 1 .25 , and wherein the rubber layer having the maximum density is composed of a rubber composition comprising a rubber component comprising an isoprene-based rubber, characterized in that the rubber composition satisfies at least the following (a) or (b), (a) the rubber component comprises a liquid polymer, wherein the liquid polymer is at least one selected from the group consisting of a liquid isoprene rubber and a liquid styrene-isoprene rubber; (b) the rubber composition comprises a resin, wherein the resin is at least one selected from the group consisting of a petroleum resin and a phenol-based resin. (a) the rubber component comprises a liquid polymer, wherein the liquid polymer is at least one selected from the group consisting of a liquid isoprene rubber and a liquid styrene-isoprene rubber; (b) the rubber composition comprises a resin, wherein the resin is at least one selected from the group consisting of a petroleum resin and a phenol-based resin.
Gas turbine plant for electric energy production comprising: a gas turbine ; a compressor ; a combustion chamber comprising a casing , which defines an area wherein the combustion occurs and is provided with an inner coating defined by a plurality of tiles coupled to the casing by means of coupling elements ; a plurality of heat-sensitive elements configured to detect a plurality of temperature values (T , T ... Tn) inside the combustion chamber ; a control unit configured to regulate at least a first parameter (PILOTpos; IGVpos; COOLpos; SPpower) of the plant on the basis of the temperature values (T1, T2... Tn) detected by the plurality of heat-sensitive elements ; wherein the combustion chamber has a substantially toroidal shape; the heat-sensitive elements being arranged along at least a part of one or more generatrix of the toroidal combustion chamber and being coupled to at least one coupling element . a gas turbine ; a compressor ; a combustion chamber comprising a casing , which defines an area wherein the combustion occurs and is provided with an inner coating defined by a plurality of tiles coupled to the casing by means of coupling elements ; a plurality of heat-sensitive elements configured to detect a plurality of temperature values (T , T ... Tn) inside the combustion chamber ; a control unit configured to regulate at least a first parameter (PILOTpos; IGVpos; COOLpos; SPpower) of the plant on the basis of the temperature values (T1, T2... Tn) detected by the plurality of heat-sensitive elements ; wherein the combustion chamber has a substantially toroidal shape; the heat-sensitive elements being arranged along at least a part of one or more generatrix of the toroidal combustion chamber and being coupled to at least one coupling element .
A compound of general formula (I), R 1 -W n -X m -AA 1 -AA 2 -AA 3 -AA 4 -AA 5 -AA 6 -Y p -Z q -R 2 (I) its stereoisomers, mixtures thereof and/or its cosmetically or pharmaceutically acceptable salts, wherein, W, X, Y, Z are amino acids and are independently selected from amongst themselves; n, m, p and q are independently selected from amongst themselves and have a value of 0 or 1; R 1 is selected from the group formed by H, acetyl, lauroyl, myristoyl or palmitoyl; R 2 is selected from the group formed by -NR 3 R 4 and -OR 3 where R 3 and R 4 are independently selected from H, methyl, ethyl, hexyl, dodecyl and hexadecyl; and (i) AA 1 is -L-Ser-, AA 2 is -L-Val-, AA 3 is -L-Arg-, AA 4 is -L-Val-, AA 5 is -L-Ala-, AA 6 is -L-Val- and n+m+p+q is smaller or equal to 2; or (ii) AA 1 is a bond, AA 2 is -L-Ala-, AA 3 is -L-Thr-, AA 4 is -L-Asn-, AA 5 is -L-Thr-, AA 6 is a bond and n+m+p+q is smaller or equal to 1. W, X, Y, Z are amino acids and are independently selected from amongst themselves; n, m, p and q are independently selected from amongst themselves and have a value of 0 or 1; R 1 is selected from the group formed by H, acetyl, lauroyl, myristoyl or palmitoyl; R 2 is selected from the group formed by -NR 3 R 4 and -OR 3 where R 3 and R 4 are independently selected from H, methyl, ethyl, hexyl, dodecyl and hexadecyl; and (i) AA 1 is -L-Ser-, AA 2 is -L-Val-, AA 3 is -L-Arg-, AA 4 is -L-Val-, AA 5 is -L-Ala-, AA 6 is -L-Val- and n+m+p+q is smaller or equal to 2; or (ii) AA 1 is a bond, AA 2 is -L-Ala-, AA 3 is -L-Thr-, AA 4 is -L-Asn-, AA 5 is -L-Thr-, AA 6 is a bond and n+m+p+q is smaller or equal to 1. (i) AA 1 is -L-Ser-, AA 2 is -L-Val-, AA 3 is -L-Arg-, AA 4 is -L-Val-, AA 5 is -L-Ala-, AA 6 is -L-Val- and n+m+p+q is smaller or equal to 2; or (ii) AA 1 is a bond, AA 2 is -L-Ala-, AA 3 is -L-Thr-, AA 4 is -L-Asn-, AA 5 is -L-Thr-, AA 6 is a bond and n+m+p+q is smaller or equal to 1.
Electrostatic precipitator , comprising an ionization stage , a collector stage and a power supply, the power supply comprising a first high-voltage power supply unit for applying a first DC high voltage to the ionization stage and a second high-voltage power supply unit for applying a second DC high voltage to the collector stage , wherein the first high-voltage power supply unit includes a current sensor and a voltage controller , wherein the electrostatic precipitator includes a terminal connectable to earth, wherein the ionization stage and the collector stage contain electrodes which are connected to the terminal connectable to earth, wherein the first high-voltage power supply unit and the second high-voltage power supply unit are galvanically separated both from the mains connection and from one another, wherein the current sensor is arranged in a return line which leads from the terminal connectable to earth to the first high-voltage power supply unit and is configured to measure the ionization current flowing through the ionization stage , and wherein the voltage controller is configured to ensure that the first DC high voltage is adjusted in such a way that the measured ionization current reaches a predetermined value. a power supply, the power supply comprising a first high-voltage power supply unit for applying a first DC high voltage to the ionization stage and a second high-voltage power supply unit for applying a second DC high voltage to the collector stage , wherein the first high-voltage power supply unit includes a current sensor and a voltage controller , wherein the electrostatic precipitator includes a terminal connectable to earth, wherein the ionization stage and the collector stage contain electrodes which are connected to the terminal connectable to earth, wherein the first high-voltage power supply unit and the second high-voltage power supply unit are galvanically separated both from the mains connection and from one another, wherein the current sensor is arranged in a return line which leads from the terminal connectable to earth to the first high-voltage power supply unit and is configured to measure the ionization current flowing through the ionization stage , and wherein the voltage controller is configured to ensure that the first DC high voltage is adjusted in such a way that the measured ionization current reaches a predetermined value.
A method of preparing aromatic hydrocarbons for use as precursors for catalyst ligands, the method comprising: providing a nickel based catalyst solution; providing a polyhalogenated aromatic hydrocarbon comprising at least two reactive halogen groups on its ring; combining the nickel based catalyst solution and polyhalogentated aromatic hydrocarbon to form a mixture; and adding a Grignard reactant to the mixture to form an aromatic hydrocarbon as a precursor for the preparation of catalyst ligands, wherein the method is illustrated by the following general reaction: wherein , R = CH 3 ; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl. R'= CH 3 ; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl X = reactive halogen groups R′′′ = R, R' and/or X n = 0 to 4 P= Phosphorous atom Aryl 3 P= Triarylphosphine Ar= Grignard aromatic moiety / = and/or Halo 2 = chloride or bromide NiHalo 2 (aryl 3 P) 2 = Nickel Source TPP = triphenylphosphine. providing a nickel based catalyst solution; providing a polyhalogenated aromatic hydrocarbon comprising at least two reactive halogen groups on its ring; combining the nickel based catalyst solution and polyhalogentated aromatic hydrocarbon to form a mixture; and adding a Grignard reactant to the mixture to form an aromatic hydrocarbon as a precursor for the preparation of catalyst ligands, wherein the method is illustrated by the following general reaction: wherein , R = CH 3 ; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl. R'= CH 3 ; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl X = reactive halogen groups R′′′ = R, R' and/or X n = 0 to 4 P= Phosphorous atom Aryl 3 P= Triarylphosphine Ar= Grignard aromatic moiety / = and/or Halo 2 = chloride or bromide NiHalo 2 (aryl 3 P) 2 = Nickel Source TPP = triphenylphosphine. R = CH 3 ; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl. R'= CH 3 ; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl X = reactive halogen groups R′′′ = R, R' and/or X n = 0 to 4 P= Phosphorous atom Aryl 3 P= Triarylphosphine Ar= Grignard aromatic moiety / = and/or Halo 2 = chloride or bromide NiHalo 2 (aryl 3 P) 2 = Nickel Source TPP = triphenylphosphine.
A system for shape dependent model identification in a point cloud, the system comprising: a scanner device that captures a 3D point cloud that contains a representation of an object of interest; a computer that receives a sensor data , a time of capture of the sensor data being equal or close to that of the 3D point cloud , the sensor data indicative of a position of a movable part of the object at the time of capture, wherein the sensor data is received from sensors that are coupled with the object; the computer further configured to compute an adjusted shape of the object from a baseline shape of the object by using the sensor data ; and an object recognition module that searches for and identifies the object in the 3D point cloud based on the adjusted shape . a scanner device that captures a 3D point cloud that contains a representation of an object of interest; a computer that receives a sensor data , a time of capture of the sensor data being equal or close to that of the 3D point cloud , the sensor data indicative of a position of a movable part of the object at the time of capture, wherein the sensor data is received from sensors that are coupled with the object; the computer further configured to compute an adjusted shape of the object from a baseline shape of the object by using the sensor data ; and an object recognition module that searches for and identifies the object in the 3D point cloud based on the adjusted shape .
A method of making a suspension member with differential stiffness comprising: providing a blank of suspension material , the suspension material being an engineered textile (ET) having monofilaments or multifilaments, the suspension material comprising a plurality of zones with different stiffness formed at least in part by varying the elastic modulus in different zones; engaging the blank of suspension material with a plurality of clamping elements along a side of the suspension material , the plurality of clamping elements being connected to and independently movable relative to a frame in at least a first direction; and applying different tensions to the blank of suspension material with different clamping elements . providing a blank of suspension material , the suspension material being an engineered textile (ET) having monofilaments or multifilaments, the suspension material comprising a plurality of zones with different stiffness formed at least in part by varying the elastic modulus in different zones; engaging the blank of suspension material with a plurality of clamping elements along a side of the suspension material , the plurality of clamping elements being connected to and independently movable relative to a frame in at least a first direction; and applying different tensions to the blank of suspension material with different clamping elements .
A nanowire laser structure (10, 10', 10"; 42 1 - 42 4 ), comprising: a substrate ; an elongated support element (14; 44 1 - 44 4 ) extending from said substrate , said support element (14; 44 1 - 44 4 ) having a first diameter (d 1 ); and an elongated body element (16; 46 1 - 46 4 ) extending on and/or around said support element (14; 44 1 - 44 4 ), said body element (16; 46 1 - 46 4 ) having a second diameter (d 2 ) at least two times larger than said first diameter (d 1 ); wherein said body element (16; 46 1 - 46 4 ) is spaced apart from said substrate ; said nanowire laser structure (10, 10', 10"; 42 1 - 42 4 ) further comprising a pn junction or a pin junction; wherein said nanowire laser structure (10, 10', 10"; 42 1 - 42 4 ) is adapted to emit a laser signal at a wavelength λ, wherein said first diameter (d 1 ) of said support element (14; 44 1 - 44 4 ) is smaller than λ /(2 n), wherein n denotes an index of refraction of said support element (14; 44 1 - 44 4 ); characterized in that said second diameter (d 2 ) of said body element (16; 46 1 -46 4 ) is no smaller than λ/m, wherein m denotes an index of refraction of said body element (16; 46 1 -46 4 ). a substrate ; an elongated support element (14; 44 1 - 44 4 ) extending from said substrate , said support element (14; 44 1 - 44 4 ) having a first diameter (d 1 ); and an elongated body element (16; 46 1 - 46 4 ) extending on and/or around said support element (14; 44 1 - 44 4 ), said body element (16; 46 1 - 46 4 ) having a second diameter (d 2 ) at least two times larger than said first diameter (d 1 ); wherein said body element (16; 46 1 - 46 4 ) is spaced apart from said substrate ; said nanowire laser structure (10, 10', 10"; 42 1 - 42 4 ) further comprising a pn junction or a pin junction; wherein said nanowire laser structure (10, 10', 10"; 42 1 - 42 4 ) is adapted to emit a laser signal at a wavelength λ, wherein said first diameter (d 1 ) of said support element (14; 44 1 - 44 4 ) is smaller than λ /(2 n), wherein n denotes an index of refraction of said support element (14; 44 1 - 44 4 ); characterized in that said second diameter (d 2 ) of said body element (16; 46 1 -46 4 ) is no smaller than λ/m, wherein m denotes an index of refraction of said body element (16; 46 1 -46 4 ).
A food preparation system configured to produce a food product, comprising: (i) a food preparation machine provided with a receptacle for a food capsule and an injection means for injecting a pressurized fluid therein; and (ii) A food capsule enclosing a cavity and having a first end comprising an opening communicating with said cavity , a second end comprising at least one outlet communicating with said cavity , an injection wall closing said first end , and at least one partition disposed within said cavity dividing said cavity into a plurality of chambers , each containing a quantity of an alimentary substance , characterized in that said food preparation machine comprises a single injection means configured to inject a quantity of fluid into one first chamber of said capsule through a single injection point , and further comprises a sealing means configured to selectively block fluid communication between at least two of said chambers during the injection of a quantity of fluid in said first chamber , said sealing means capable of resisting a pressure difference between said chambers of between 2 and 20 bar, preferably between 4 and 15 bar, and said sealing means comprising a sealing edge of the partition and a pressing means disposed within the food preparation machine , configured to press together said sealing edge and the injection wall of said capsule. (i) a food preparation machine provided with a receptacle for a food capsule and an injection means for injecting a pressurized fluid therein; and (ii) A food capsule enclosing a cavity and having a first end comprising an opening communicating with said cavity , a second end comprising at least one outlet communicating with said cavity , an injection wall closing said first end , and at least one partition disposed within said cavity dividing said cavity into a plurality of chambers , each containing a quantity of an alimentary substance , characterized in that said food preparation machine comprises a single injection means configured to inject a quantity of fluid into one first chamber of said capsule through a single injection point , and further comprises a sealing means configured to selectively block fluid communication between at least two of said chambers during the injection of a quantity of fluid in said first chamber , said sealing means capable of resisting a pressure difference between said chambers of between 2 and 20 bar, preferably between 4 and 15 bar, and said sealing means comprising a sealing edge of the partition and a pressing means disposed within the food preparation machine , configured to press together said sealing edge and the injection wall of said capsule.
An isolated humanized, human, or chimeric antibody or antigen-binding fragment thereof that selectively binds to an epitope of TNFR2 within amino acids 130-149 of SEQ ID NO: 1, said antibody or antigen-binding fragment thereof having an antagonistic effect on TNFR2 upon binding.
Pluripotent stem cells positive for SSEA-3 isolated from mesenchymal tissue of a body or from cultured mesenchymal cells for use in alleviation and/or treatment of ischemia reperfusion-induced lung injury, wherein the pluripotent stem cells have all of the following properties: (i) CD105 positive; (ii) low or non-existent telomerase activity; (iii) the ability to differentiate into any of the three germ layers; (iv) no neoplastic proliferation; and (v) self-renewal ability. (i) CD105 positive; (ii) low or non-existent telomerase activity; (iii) the ability to differentiate into any of the three germ layers; (iv) no neoplastic proliferation; and (v) self-renewal ability.