mhurhangee/ep-ind-claims huggingface dataset:
Method for decoding stereo loudspeaker signals l ( t) from a three-dimensional spatial higher-order Ambisonics audio signal a ( t), from azimuth angle values φ L and φ R of left and right loudspeakers, and from S sampling points on a circle, said method including the steps: - calculating, from the azimuth angle values φ L and φ R of the left and right loudspeakers, desired panning functions g L ( φ) and g R ( φ), and from the number S of virtual sampling points on a circle, a matrix G containing the values of the desired panning functions for all virtual sampling points, wherein G = g L φ 1 ⋯ g L φ S g R φ 1 ⋯ g R φ S and the g L ( φ 1) to g L (φ S), g R ( φ 1) to g R ( φ S), are the values of the desired panning functions at the S different sampling points; - determining the order N of said Ambisonics audio signal a ( t); - calculating (53, 54) from said number S and from said order N a mode matrix Ξ and the corresponding pseudo-inverse Ξ + of said mode matrix Ξ, wherein Ξ = y ∗ φ 1, y ∗ φ 2,..., y ∗ φ S and y ∗ φ = Y − N ∗ φ,..., Y 0 ∗ φ,..., Y N ∗ φ T is the complex conjugation of the circular harmonics vector y ( φ) = [ Y -N ( φ),..., Y 0 ( φ),..., Y N ( φ)] T of said Ambisonics audio signal a ( t) and Y m ( φ) are the circular harmonic functions; - calculating from said matrices G and Ξ + a decoding matrix D = G Ξ +; said method being characterized in that: - calculating the loudspeaker signals l ( t) = Da ( t), wherein a 3D-to-2D conversion of a ( t) is carried out for this calculating. - calculating, from the azimuth angle values φ L and φ R of the left and right loudspeakers, desired panning functions g L ( φ) and g R ( φ), and from the number S of virtual sampling points on a circle, a matrix G containing the values of the desired panning functions for all virtual sampling points, wherein G = g L φ 1 ⋯ g L φ S g R φ 1 ⋯ g R φ S and the g L ( φ 1) to g L (φ S), g R ( φ 1) to g R ( φ S), are the values of the desired panning functions at the S different sampling points; - determining the order N of said Ambisonics audio signal a ( t); - calculating (53, 54) from said number S and from said order N a mode matrix Ξ and the corresponding pseudo-inverse Ξ + of said mode matrix Ξ, wherein Ξ = y ∗ φ 1, y ∗ φ 2,..., y ∗ φ S and y ∗ φ = Y − N ∗ φ,..., Y 0 ∗ φ,..., Y N ∗ φ T is the complex conjugation of the circular harmonics vector y ( φ) = [ Y -N ( φ),..., Y 0 ( φ),..., Y N ( φ)] T of said Ambisonics audio signal a ( t) and Y m ( φ) are the circular harmonic functions; - calculating from said matrices G and Ξ + a decoding matrix D = G Ξ +; - calculating the loudspeaker signals l ( t) = Da ( t), wherein a 3D-to-2D conversion of a ( t) is carried out for this calculating.
A method in a user agent, UA, for determining if a SIP response message received from a Serving Call Session Control Function, S-CSCF, (120, 130) in an IP, Internet Protocol, Multimedia Subsystem, IMS, network can cause one or more actions to be performed, comprising: initiating, by the UA, a Session Initiation Protocol, SIP, REGISTER request via a Proxy Call Session Control Function, P-CSCF, and a trusted S-CSCF, wherein the UA is part of a user equipment, UE; receiving, via the P-CSCF and at the UA, a SIP 200 OK response message to the SIP REGISTER request, the SIP 200 OK response message having a Service-Route header field that includes an identifier associated with the trusted S-CSCF (120, 130); receiving, at the UA, from the trusted S-CSCF (120, 130) a SIP response message to a SIP request message from the UA, the SIP response message containing a Uniform Resource Identifier, URI; determining, at the UA, whether the URI matches the identifier associated with the trusted S-CSCF; when the URI matches the identifier associated with the trusted S-CSCF, the UA performing actions associated with receipt of the SIP response message containing the URI. initiating, by the UA, a Session Initiation Protocol, SIP, REGISTER request via a Proxy Call Session Control Function, P-CSCF, and a trusted S-CSCF, wherein the UA is part of a user equipment, UE; receiving, via the P-CSCF and at the UA, a SIP 200 OK response message to the SIP REGISTER request, the SIP 200 OK response message having a Service-Route header field that includes an identifier associated with the trusted S-CSCF (120, 130); receiving, at the UA, from the trusted S-CSCF (120, 130) a SIP response message to a SIP request message from the UA, the SIP response message containing a Uniform Resource Identifier, URI; determining, at the UA, whether the URI matches the identifier associated with the trusted S-CSCF; when the URI matches the identifier associated with the trusted S-CSCF, the UA performing actions associated with receipt of the SIP response message containing the URI.
Bearing component, comprising: - a base body, and - an opening which is formed in the base body and on which an internal bearing surface is formed, - wherein the internal bearing face has a coating and - wherein the coating has elongate depressions which are provided in the coating and extend substantially in the longitudinal direction (X-X) of the opening, characterized in that, - the coating is a diamond coating, and - a width of the elongate depressions is less than an average width of the diamond crystals of the diamond coating. - a base body, and - an opening which is formed in the base body and on which an internal bearing surface is formed, - wherein the internal bearing face has a coating and - wherein the coating has elongate depressions which are provided in the coating and extend substantially in the longitudinal direction (X-X) of the opening, characterized in that, - the coating is a diamond coating, and - a width of the elongate depressions is less than an average width of the diamond crystals of the diamond coating.
A refrigerator comprising: an inner case having a storage compartment formed therein; an outer case coupled to an outside of the inner case and forming an exterior of the refrigerator; an insulating material filling a space between the inner case and the outer case; a screw fixing a component disposed in the storage compartment to the inner case; a screw fixing member coupled to an outer surface of the inner case and arranged to fix the screw fastened at an inside of the inner case; and a screw fastening portion disposed in the inner case and having a coupling groove so that the screw fixing member is inserted into and coupled to the coupling groove, characterized in that the screw fastening portion has a blocking layer that forms a bottom surface of the coupling groove and that blocks the storage compartment from the outside of the inner case and is penetrated by the screw when the screw is fastened to the screw fastening portion. an inner case having a storage compartment formed therein; an outer case coupled to an outside of the inner case and forming an exterior of the refrigerator; an insulating material filling a space between the inner case and the outer case; a screw fixing a component disposed in the storage compartment to the inner case; a screw fixing member coupled to an outer surface of the inner case and arranged to fix the screw fastened at an inside of the inner case; and a screw fastening portion disposed in the inner case and having a coupling groove so that the screw fixing member is inserted into and coupled to the coupling groove, characterized in that the screw fastening portion has a blocking layer that forms a bottom surface of the coupling groove and that blocks the storage compartment from the outside of the inner case and is penetrated by the screw when the screw is fastened to the screw fastening portion.
Method for providing at least one Rights Expression Language, REL token, wherein the at least one REL token is provided in a message by means of a Multipurpose Internet Mail Extension, MIME, protocol.
Method of determining the density of a liquefied gas, wherein a device comprising a buoyancy body and at least one measuring spring (30, 40) acting on the buoyancy body, the elastic deformation of which is a measure for the buoyancy force of the buoyancy body in a liquid, is used, the quotient of mass and volume of the buoyancy body being greater than the density to be determined and the buoyancy body being biased by spring force in the direction of the buoyancy force in an operational range of the measuring spring (30, 40), wherein the device comprises a magnet, which is adapted for sensing the elastic deformation of the measuring spring (30, 40) by means of a magnetostrictive position measuring system, wherein the buoyancy body is completely immersed in the liquefied gas and the buoyancy force of the buoyancy body is determined via the elastic deformation of the measuring spring (30, 40) by means of the magnetostrictive position measuring system.
A method for preparing a tissue sample for 3D imaging, said method comprising treating said tissue sample with a solution, wherein the solution comprises a buffer solution with a pH below 9 and a detergent, and wherein said tissue sample has not been hydrogel embedded and/or has not been fixed with glutaraldehyde.
Self-wrapping safety device for the physical restraint of a person, comprising: a main body, provided with a first (10 a) and a second (10 b) end and configured to get in contact with a person, at least one self-wrapping strip, coupled to said main body, provided with a first (11 a) and a second (11 b) end, said main body and said at least one self-wrapping strip being configured to each other so as to be able to move both from a first position, in which said first (10 a) and second (10 b) end of said main body are arranged opposite to each other and coplanar and said first (11 a) and second (11 b) end of said at least one self-wrapping strip are arranged opposite to each other and coplanar, to a second position, in which said self-wrapping strip and said main body are arranged wrapped and rolled up on themselves or around said person, said self-wrapping safety device being characterized in that it comprises at least one pair of activation handles coupled to said at least one self-wrapping strip, configured to cause said at least one self-wrapping strip and therefore said main body moving from said first position to said second position. a main body, provided with a first (10 a) and a second (10 b) end and configured to get in contact with a person, at least one self-wrapping strip, coupled to said main body, provided with a first (11 a) and a second (11 b) end, said main body and said at least one self-wrapping strip being configured to each other so as to be able to move both from a first position, in which said first (10 a) and second (10 b) end of said main body are arranged opposite to each other and coplanar and said first (11 a) and second (11 b) end of said at least one self-wrapping strip are arranged opposite to each other and coplanar, to a second position, in which said self-wrapping strip and said main body are arranged wrapped and rolled up on themselves or around said person, said self-wrapping safety device being characterized in that it comprises at least one pair of activation handles coupled to said at least one self-wrapping strip, configured to cause said at least one self-wrapping strip and therefore said main body moving from said first position to said second position.
Use of a polymer or a polymer composite in LED-devices, CMOS-image sensors, LCD-displays, OLED-devices and optical applications, which polymer is obtained by hydrolysis and polymerization of one, two or three of the monomers A, B, C and D, wherein - A is a siloxane monomer having the formula (Ph-O-Ph) 2 Si 2 I, - B is a siloxane monomer having the formula PhOPh-Si 3 IIa, - C is a siloxane monomer having the formula PhOPhOPh-Si 3 IIb, and - D is 1,5-Dimethyl-1,1,5,5-tetramethoxy-3,3-bis(p-phenoxyphenyl)-trisiloxane, wherein each X is hydrolysable group independently selected from hydrogen and lower alkoxy optionally containing an alkoxy substituent, halo, hydroxyl or -OSiMe 3, wherein lower alkoxy stands for an alkoxy group having 1 to 6 carbon atoms, with the proviso that one monomer is D, and which polymer composite is made from the polymer in combination with metal, silicon oxide, metal oxide or diamond, in the shape of particles, flakes, nanoparticles or nanorods. which polymer is obtained by hydrolysis and polymerization of one, two or three of the monomers A, B, C and D, wherein - A is a siloxane monomer having the formula (Ph-O-Ph) 2 Si 2 I, - B is a siloxane monomer having the formula PhOPh-Si 3 IIa, - C is a siloxane monomer having the formula PhOPhOPh-Si 3 IIb, and - D is 1,5-Dimethyl-1,1,5,5-tetramethoxy-3,3-bis(p-phenoxyphenyl)-trisiloxane, - A is a siloxane monomer having the formula (Ph-O-Ph) 2 Si 2 I, - B is a siloxane monomer having the formula PhOPh-Si 3 IIa, - C is a siloxane monomer having the formula PhOPhOPh-Si 3 IIb, and - D is 1,5-Dimethyl-1,1,5,5-tetramethoxy-3,3-bis(p-phenoxyphenyl)-trisiloxane, wherein each X is hydrolysable group independently selected from hydrogen and lower alkoxy optionally containing an alkoxy substituent, halo, hydroxyl or -OSiMe 3, wherein lower alkoxy stands for an alkoxy group having 1 to 6 carbon atoms, with the proviso that one monomer is D, and which polymer composite is made from the polymer in combination with metal, silicon oxide, metal oxide or diamond, in the shape of particles, flakes, nanoparticles or nanorods.
An isolated compound being forsythoside A (compound A1) or a salt thereof; for use in a method for preventing and/or treating viral infection caused by influenza virus in a subject, wherein said method comprises administering, to a subject in need of such prevention and/or treatment, an effective amount of said compound, wherein said method is used to prevent and/or treat an infection caused by an oseltamivir-resistant H1N1 influenza virus.
An optical communication connector, comprising a ferrule having retractable alignment pins that are actuatable between an extended position and a retracted position, wherein in the extended position, distal ends of the alignment pins are extended a first displacement from a front face of the ferrule, thereby causing the connector to be in a male gender configuration, wherein in the retracted position, said distal ends of said alignment pins are retracted into alignment pin cavities in the ferrule by a distance greater than or equal to the first displacement, thereby causing the connector to be in a female gender configuration, the female gender configuration being such that extended alignment pins of a corresponding optical communication connector in the male gender configuration may fully engage with the alignment pin cavities. wherein in the extended position, distal ends of the alignment pins are extended a first displacement from a front face of the ferrule, thereby causing the connector to be in a male gender configuration, wherein in the retracted position, said distal ends of said alignment pins are retracted into alignment pin cavities in the ferrule by a distance greater than or equal to the first displacement, thereby causing the connector to be in a female gender configuration, the female gender configuration being such that extended alignment pins of a corresponding optical communication connector in the male gender configuration may fully engage with the alignment pin cavities.
Control valve for setting a process fluid stream of a processing plant, comprising: - a valve housing including an inlet, an outlet and an aperture extending between the inlet and the outlet along a longitudinal axis; - a valve cage to be mounted on the valve housing with a valve seat; - an annular-groove-shaped seal reception which is confined by the valve seat and the valve housing; and - a seal inserted into the seal reception; wherein both the valve seat as well as the valve housing each form a ledge (17, 23) protruding in a radial direction for realizing the annular-groove-shaped seal reception, wherein both ledges (17, 23) each confine the seal reception in one axial direction, wherein the seal is arranged in the seal reception in a normal operating condition or immediately after the assembly that a contact-freeness is present regarding at least one ledge (17, 23), wherein the seal reception is confined in the radial direction by a circumferential confinement inner wall of the valve seat and a circumferential confinement outer wall. - a valve housing including an inlet, an outlet and an aperture extending between the inlet and the outlet along a longitudinal axis; - a valve cage to be mounted on the valve housing with a valve seat; - an annular-groove-shaped seal reception which is confined by the valve seat and the valve housing; and - a seal inserted into the seal reception;
A method of manufacturing a woven textile, the method comprising: interlacing a plurality of warp yarns with a plurality of weft yarns wherein one or more of the warp yarns comprises one or more first threads, each of the first threads being a tape and one or more of the weft yarns comprises one or more second threads, each of the second threads being a tape; forming a selvedge (22, 24) as distinct bands of woven material by interlacing a first subset of the warp yarns with a first subset of the weft yarns and interlacing a second subset of the warp yarns with a second subset of the weft yarns, wherein the first subset of the warp yarns is not interlaced with the second subset of the weft yarns and the second subset of the warp yarns is not interlaced with the first subset of the weft yarns; and removing the selvedge by severing one or more of the weft yarns. interlacing a plurality of warp yarns with a plurality of weft yarns wherein one or more of the warp yarns comprises one or more first threads, each of the first threads being a tape and one or more of the weft yarns comprises one or more second threads, each of the second threads being a tape; forming a selvedge (22, 24) as distinct bands of woven material by interlacing a first subset of the warp yarns with a first subset of the weft yarns and interlacing a second subset of the warp yarns with a second subset of the weft yarns, wherein the first subset of the warp yarns is not interlaced with the second subset of the weft yarns and the second subset of the warp yarns is not interlaced with the first subset of the weft yarns; and removing the selvedge by severing one or more of the weft yarns.
A shower head for preventing bacteria formation in the shower head comprising: a plurality of outlet nozzles each comprising a valve; and disinfectant means, wherein each of the valves is adapted to open when pressurized water flows into the shower head and to close when there is no pressurized water inflow such that residual water is held inside the shower head and such that air is prevented from entering the shower head, characterized in that the disinfectant means includes a chamber and wherein the chamber includes: an inner aperture; a door (126, 190); and a disinfectant material inside the chamber; wherein the door closes the aperture when pressurized water flows through the shower head and opens the aperture when there is no pressurized water inflow to expose the residual water to the disinfectant material. a plurality of outlet nozzles each comprising a valve; and disinfectant means, wherein each of the valves is adapted to open when pressurized water flows into the shower head and to close when there is no pressurized water inflow such that residual water is held inside the shower head and such that air is prevented from entering the shower head, characterized in that the disinfectant means includes a chamber and wherein the chamber includes: an inner aperture; a door (126, 190); and a disinfectant material inside the chamber; wherein the door closes the aperture when pressurized water flows through the shower head and opens the aperture when there is no pressurized water inflow to expose the residual water to the disinfectant material.
A method for purifying antibody drug conjugate monomers from aggregates in an ADC preparation, said method comprising the steps of: (i) loading an ADC preparation onto a hydroxyapatite resin column, (ii) washing said hydroxyapatite resin column with a low concentration of sodium phosphate buffer; and (iii) eluting said ADC preparation through said column with a gradually increasing concentration of said sodium phosphate buffer, wherein the concentration of sodium phosphate in the sodium phosphate buffer of step (iii) gradually increases from a concentration of about 5 to 35 mM to about 130 to 150mM, whereby purified ADC monomers are separated from said aggregates.
A method of producing a replication defective HIV vector comprising transfecting a producer cell with the following: i) an HIV genome comprising a nucleotide of interest, a packaging signal, and RRE; ii) a nucleotide sequence coding for HIV gag and pol proteins; and iii) a nucleotide sequence coding for an env protein; characterised in that the nucleotide sequence coding for the HIV gag and pol proteins is codon optimised for expression in the producer cell with the exception of the sequence encompassing the frameshift site and wherein (ii) does not comprise RRE; wherein the producer cell expresses rev and wherein the HIV vector is a self-inactivating vector. i) an HIV genome comprising a nucleotide of interest, a packaging signal, and RRE; ii) a nucleotide sequence coding for HIV gag and pol proteins; and iii) a nucleotide sequence coding for an env protein;
A water-containing agriculture actives delivery composition having a pH of from 1.9 to 12.8 and comprising ion crosslinked polyvinyl alcohol microcapsules, wherein the ion for cross-linking is selected from the group consisting of persulfate ions, wherein said microcapsules contain an agriculture active component as a core material, wherein said microcapsules disintegrate when dried to release the core agriculture active component.
A method for recording a blockchain ledger data, a blockchain network comprising a plurality of evidence-capturing nodes used for capturing network evidence, and the method comprising: by each of the evidence-capturing nodes, capturing network evidence from a target evidence source, and calculating an evidence hash of the captured network evidence; sending the calculated evidence hash to other evidence-capturing nodes, and receiving evidence hashes sent by other evidence-capturing nodes; gathering identical evidence hashes in all the obtained evidence hashes into the same group, and dividing different evidence hashes in all the obtained evidence hashes into different groups; counting a count number of evidence hashes in each of the groups, and determining an evidence hash in a group with a largest count number as a trusted evidence hash; and constructing a ledger data based on the trusted evidence hash as determined and recording the ledger data. by each of the evidence-capturing nodes, capturing network evidence from a target evidence source, and calculating an evidence hash of the captured network evidence; sending the calculated evidence hash to other evidence-capturing nodes, and receiving evidence hashes sent by other evidence-capturing nodes; gathering identical evidence hashes in all the obtained evidence hashes into the same group, and dividing different evidence hashes in all the obtained evidence hashes into different groups; counting a count number of evidence hashes in each of the groups, and determining an evidence hash in a group with a largest count number as a trusted evidence hash; and constructing a ledger data based on the trusted evidence hash as determined and recording the ledger data.