mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic polymer composition comprising (i) a vinyl halide polymer, and (ii) from 0.1 to 12 phr (parts solids per hundred weight parts solids of vinyl halide polymer) of a multi-stage acrylic copolymer having a first stage polymer and a second stage polymer, (A) the first stage polymer of from 25 to 78.5 wt.%, of, in copolymerized form, (a) at least one C 1 to C 6 alkyl methacrylate or C 1 to C 4 alkyl acrylate, from 0 to 75 wt.% of (b) one or more other polar vinyl monomers, and no more than 10 wt.% of (c) vinyl aromatic monomers, all monomer proportions, based on the total weight of monomers used to make the first stage polymer, the first stage polymer having a weight average molecular weight as measured by gel permeation chromatography (GPC) against polystyrene standards of from 1 x 10 6 to 10 x 10 6 g/mol and having a glass transition temperature as calculated by the Fox Equation (calculated Tg) of from 70 to 105 °C; and (B) a second stage polymer of, in copolymerized form, (d) at least one C 4 to C 18 alkyl acrylate or C 8 to C 18 alkyl methacrylate, from 0 to 75 wt.% total of (c) one or more vinyl aromatic monomers, and the remainder of (b) one or more polar vinyl monomers, all monomer proportions based on the total weight of monomers used to make the second stage polymer, the second stage polymer having a weight average molecular weight (Mw) as measured by GPC against polystyrene standards of from 1,000 to 100,000 g/mol, and having a calculated Tg of from -65 to 45°C, the solids weight ratio of the first stage polymer (A) to the second stage polymer (B) ranging from 1:3 to 7:1, wherein the multistage acrylic copolymer is substantially free of added acid group functional monomers and such monomers in copolymerized form.
A pharmaceutical formulation characterized in that it comprises: at least one active pharmaceutical ingredient (API) having low aqueous solubility or a pharmaceutically acceptable salt thereof in the form of particles of a size between 1 and 800 nm, wherein said particles are encapsulated within a large microparticle of a size between 1 and 100 μm formed by a matrix comprising at least an excipient, wherein the active pharmaceutical ingredient having low aqueous solubility is selected from the group of Biopharmaceutical Classification System classes II and IV, wherein the microparticles of a size between 1 and 100 μm encapsulating particles of a size between 1 and 800 nm are prepared by the process described in any of claims 10 to 12 and wherein each microparticle encapsulating the API or a pharmaceutically acceptable salt thereof comprises between 20-85% by weight of the API or a pharmaceutically acceptable salt thereof and between 15-80% by weight of one or more excipients and wherein the pharmaceutical formulation comprises: a) 10-85% by weight of microparticles encapsulating the API or a pharmaceutically acceptable salt thereof; b) 15-90% by weight of additional excipients. at least one active pharmaceutical ingredient (API) having low aqueous solubility or a pharmaceutically acceptable salt thereof in the form of particles of a size between 1 and 800 nm, wherein said particles are encapsulated within a large microparticle of a size between 1 and 100 μm formed by a matrix comprising at least an excipient, wherein the active pharmaceutical ingredient having low aqueous solubility is selected from the group of Biopharmaceutical Classification System classes II and IV, wherein the microparticles of a size between 1 and 100 μm encapsulating particles of a size between 1 and 800 nm are prepared by the process described in any of claims 10 to 12 and wherein each microparticle encapsulating the API or a pharmaceutically acceptable salt thereof comprises between 20-85% by weight of the API or a pharmaceutically acceptable salt thereof and between 15-80% by weight of one or more excipients and wherein the pharmaceutical formulation comprises: a) 10-85% by weight of microparticles encapsulating the API or a pharmaceutically acceptable salt thereof; b) 15-90% by weight of additional excipients. a) 10-85% by weight of microparticles encapsulating the API or a pharmaceutically acceptable salt thereof; b) 15-90% by weight of additional excipients.
An oral pouched product, comprising a fleece material in the form of a pouch and containing a composition positioned within the pouch, the fleece material comprising fibers and a releasable component, wherein the releasable component is embedded within the fleece material, wherein the releasable component comprises one or more active ingredients and one or more flavoring agents, wherein the one or more flavoring agents comprises one or more of: cinnamaldehyde, sabinene, limonene, gamma-terpinene, beta-farnesene, and citral, alone or in combination with a second flavoring agent comprising one or more aldehydes, ketones, esters, terpenes, terpenoids, trigeminal sensates, compounds having a carbon-carbon double bond, compounds having a carbon-oxygen double bond, ethyl vanillin, and combinations thereof.
Crystal composition (CC) comprising crystals (C), wherein the crystals (C) consist of (a) at least 95 % by weight of 4,4'-dichlorodiphenylsulfoxide, (b) 0 to 2 % by weight of impurities, and (c) 0 to 3 % by weight of an organic solvent (os), based on the total weight of the crystals (C) contained in the crystal composition (CC), wherein the crystal composition (CC) has a d10, 3 -value in the range of 100 to 400 μm, a d50, 3 -value in the range of 300 to 800 μm and a d90, 3 -value in the range of 700 to 1500 μm, wherein the d10, 3 -value is lower than the d50, 3 -value and the d50, 3 -value is lower than the d90, 3 -value. (a) at least 95 % by weight of 4,4'-dichlorodiphenylsulfoxide, (b) 0 to 2 % by weight of impurities, and (c) 0 to 3 % by weight of an organic solvent (os), based on the total weight of the crystals (C) contained in the crystal composition (CC), wherein the crystal composition (CC) has a d10, 3 -value in the range of 100 to 400 μm, a d50, 3 -value in the range of 300 to 800 μm and a d90, 3 -value in the range of 700 to 1500 μm, a d10, 3 -value in the range of 100 to 400 μm, a d50, 3 -value in the range of 300 to 800 μm and a d90, 3 -value in the range of 700 to 1500 μm, wherein the d10, 3 -value is lower than the d50, 3 -value and the d50, 3 -value is lower than the d90, 3 -value.
Flexographic printing press for printing a substrate web , comprising at least one printing unit and comprising at least one central cylinder , wherein a plurality of printing couples are arranged around the periphery of the at least one central cylinder , wherein the flexographic printing press has at least one roll winder , wherein the at least one flexographic printing press has at least one roll unwinder , and wherein the at least one roll unwinder and the at least one roll winder are respectively arranged on opposite sides of the at least one central cylinder , wherein the at least one central cylinder is arranged between the at least one roll unwinder and the at least one roll winder , characterized in that a horizontally aligned dryer unit having at least one guide element is arranged above the printing unit in a vertical direction (V), in that the at least one horizontally aligned dryer unit has at least two dryer sections , in that one dryer section is arranged separated from the next dryer section by at least one diverting means , and in that the shortest distance (A21) between the at least one roll unwinder and the at least one central cylinder is no greater than twice the diameter (d201) of the central cylinder , and the shortest distance (A52) between the at least one roll winder and the at least one central cylinder is no greater than twice the diameter (d201) of the central cylinder .
An electromagnetic noise path detecting system comprising a processing system which identifies whether a suspected noise path is an actual noise path or not, characterised in that : the system further comprises a noise modulator which is strongly enough coupled to the suspected noise path that it applies a modulation to an electromagnetic noise when present, the electromagnetic coupling between said noise modulator and a noise victim of said electromagnetic noise being low enough that a radiated noise by said noise modulator cannot be detected at said noise victim; said processing system determines an amount of said modulation on the electromagnetic noise detected at said noise victim to identify whether the suspected noise path is an actual noise path or not. the system further comprises a noise modulator which is strongly enough coupled to the suspected noise path that it applies a modulation to an electromagnetic noise when present, the electromagnetic coupling between said noise modulator and a noise victim of said electromagnetic noise being low enough that a radiated noise by said noise modulator cannot be detected at said noise victim; said processing system determines an amount of said modulation on the electromagnetic noise detected at said noise victim to identify whether the suspected noise path is an actual noise path or not.
A terminal device , comprising: a first screen ; a first middle frame , wherein at least a part of the first screen is located on one side of the first middle frame and is stacked with the first middle frame; and a vibration motor , wherein the vibration motor is located on a side that is of the first middle frame and that is away from at least the part of the first screen, the vibration motor comprises a housing , one end of the housing is opened to form an opening , the opening faces the first middle frame, and an edge of the housing at the opening is fastened to the first middle frame; the housing comprises a top wall and a side frame , the side frame is disposed around a circumference of the top wall, and an end that is of the side frame and that is away from the top wall surrounds the opening; the vibration motor further comprises a mass block ; and the mass block is disposed in the housing, and the mass block can reciprocally vibrate relative to the housing on a plane parallel to a plane on which the opening is located; the vibration motor further comprises a drive assembly , and the drive assembly comprises a magnet assembly and a coil ; and the magnet assembly is fastened to the mass block, the coil is located between the mass block and the top wall, the coil is fastened to the top wall, the magnet assembly cooperates with the coil to generate a Lorentz force, and the Lorentz force is used to drive the mass block to reciprocally vibrate relative to the housing on the plane parallel to the plane on which the opening is located. a first screen ; a first middle frame , wherein at least a part of the first screen is located on one side of the first middle frame and is stacked with the first middle frame; and a vibration motor , wherein the vibration motor is located on a side that is of the first middle frame and that is away from at least the part of the first screen, the vibration motor comprises a housing , one end of the housing is opened to form an opening , the opening faces the first middle frame, and an edge of the housing at the opening is fastened to the first middle frame; the housing comprises a top wall and a side frame , the side frame is disposed around a circumference of the top wall, and an end that is of the side frame and that is away from the top wall surrounds the opening; the vibration motor further comprises a mass block ; and the mass block is disposed in the housing, and the mass block can reciprocally vibrate relative to the housing on a plane parallel to a plane on which the opening is located; the vibration motor further comprises a drive assembly , and the drive assembly comprises a magnet assembly and a coil ; and the magnet assembly is fastened to the mass block, the coil is located between the mass block and the top wall, the coil is fastened to the top wall, the magnet assembly cooperates with the coil to generate a Lorentz force, and the Lorentz force is used to drive the mass block to reciprocally vibrate relative to the housing on the plane parallel to the plane on which the opening is located.
A method of curing an uncured composite structure that includes a structural layer , which includes an uncured structural resin with a structural resin viscosity, a structural resin gel point temperature, and a structural resin gel time, and a surface layer , which includes an uncured surface resin with a surface resin viscosity that is greater than the structural resin viscosity, a surface resin gel point temperature that is less than the structural resin gel point temperature, and a surface resin gel time that is less than the structural resin gel time, the method comprising: initially heating , for an initial heating time, the uncured composite structure to an initial temperature to generate a partially cured composite structure, wherein the initially heating is sufficient to gel the uncured surface resin but insufficient to gel the uncured structural resin ; and subsequently heating , for a subsequent heating time, the partially cured composite structure to a final cure temperature, which is greater than the initial temperature, to generate a cured composite structure , wherein a combination of the initially heating and the subsequently heating is sufficient to fully cure both the uncured surface resin and the uncured structural resin . initially heating , for an initial heating time, the uncured composite structure to an initial temperature to generate a partially cured composite structure, wherein the initially heating is sufficient to gel the uncured surface resin but insufficient to gel the uncured structural resin ; and subsequently heating , for a subsequent heating time, the partially cured composite structure to a final cure temperature, which is greater than the initial temperature, to generate a cured composite structure , wherein a combination of the initially heating and the subsequently heating is sufficient to fully cure both the uncured surface resin and the uncured structural resin .
A target network node in a mobile communication system , the target network node comprising: a receiver configured to receive a handover request message from a source network node , wherein the handover request message includes association information indicative of association among a plurality of bearers and information indicative of whether each of the plurality of bearers is to be mandatory setup by the target network node ; a processor configured to: check whether bearers, associated with each other based on the association information , are capable of being set up to determine acceptance or rejection of handover, and generate a handover message indicative of the determined acceptance or rejection of handover; and a transmitter configured to transmit the handover message to the source network node . a receiver configured to receive a handover request message from a source network node , wherein the handover request message includes association information indicative of association among a plurality of bearers and information indicative of whether each of the plurality of bearers is to be mandatory setup by the target network node ; a processor configured to: check whether bearers, associated with each other based on the association information , are capable of being set up to determine acceptance or rejection of handover, and generate a handover message indicative of the determined acceptance or rejection of handover; and check whether bearers, associated with each other based on the association information , are capable of being set up to determine acceptance or rejection of handover, and generate a handover message indicative of the determined acceptance or rejection of handover; and a transmitter configured to transmit the handover message to the source network node .
A method for producing a white-box implementation of a cryptographic function using garbled circuits, comprising: producing, by a first party, a logic circuit implementing the cryptographic function f using a plurality of logic gates and a plurality of wires; garbling the produced logic circuit, by the first party, including garbling the plurality of logic gates and assigning two garbled values for each of the plurality of wires; providing to a second party the garbled logic circuit and a first garbled circuit input value; evaluating the garbled logic circuit by the second party to produce a garbled output that the second party maps to a real output value of the cryptographic function; wherein the producing of a white-box implementation of the cryptographic function using garbled circuits comprises allowing external encodings on the garbled input and garbled output values, so that garbled input values correspond to an external input encoding based on an external input encoding function F , and garbled output values are subjected to an external output encoding function G so as to have an external encoding on top of them, and using the external encodings in replacing the cryptographic function f by a composition f' = G ∘ f ∘ F -1 , wherein F is an external input encoding function, G is an output encoding function, and the input encoding function F and the output encoding function G are not made available on a platform that computes f' . producing, by a first party, a logic circuit implementing the cryptographic function f using a plurality of logic gates and a plurality of wires; garbling the produced logic circuit, by the first party, including garbling the plurality of logic gates and assigning two garbled values for each of the plurality of wires; providing to a second party the garbled logic circuit and a first garbled circuit input value; evaluating the garbled logic circuit by the second party to produce a garbled output that the second party maps to a real output value of the cryptographic function; wherein the producing of a white-box implementation of the cryptographic function using garbled circuits comprises allowing external encodings on the garbled input and garbled output values, so that garbled input values correspond to an external input encoding based on an external input encoding function F , and garbled output values are subjected to an external output encoding function G so as to have an external encoding on top of them, and using the external encodings in replacing the cryptographic function f by a composition f' = G ∘ f ∘ F -1 , wherein F is an external input encoding function, G is an output encoding function, and the input encoding function F and the output encoding function G are not made available on a platform that computes f' .
A method of printing authentication indicators by applying an at least amplitude-modulated halftone print in a detection zone to an object, wherein the printed area of the detection zone comprises adjoining halftone cells , in which halftone cells a respective halftone dot is printed from a matrix of printable halftone elements , wherein individual tone values of the halftone printing each correspond to a halftone plane of a halftone mountain for a halftone dot , wherein the associated halftone plane of the halftone mountain is modified in the detection zone in a predetermined manner for a plurality of tone values of halftone dots to be printed, that a predetermined matrix image of the halftone elements to be printed is assigned to it while the tone value of the print remains constant.
A dental alginate impression material, comprising: a base material paste comprising: an alginic acid salt (A); and water (B); and a curing agent paste comprising: a gelling reaction agent (C); a poorly water-soluble organic solvent (D)having a solubility of 5 g or less in 100 g of water at a temperature of 20°C; and a trehalose as a humectant (E), wherein the amount of trehalose as the humectant (E) falls within the range of 1 part by mass to 20 parts by mass with respect to 1 part by mass of the alginic acid salt (A). a base material paste comprising: an alginic acid salt (A); and water (B); and a curing agent paste comprising: a gelling reaction agent (C); a poorly water-soluble organic solvent (D)having a solubility of 5 g or less in 100 g of water at a temperature of 20°C; and a trehalose as a humectant (E), an alginic acid salt (A); and water (B); and a curing agent paste comprising: a gelling reaction agent (C); a poorly water-soluble organic solvent (D)having a solubility of 5 g or less in 100 g of water at a temperature of 20°C; and a trehalose as a humectant (E), a gelling reaction agent (C); a poorly water-soluble organic solvent (D)having a solubility of 5 g or less in 100 g of water at a temperature of 20°C; and a trehalose as a humectant (E), wherein the amount of trehalose as the humectant (E) falls within the range of 1 part by mass to 20 parts by mass with respect to 1 part by mass of the alginic acid salt (A).
A cellobiohydrolase variant, comprising a substitution at a position corresponding to position 243 of the polypeptide of SEQ ID NO: 1, wherein the variant has cellobiohydrolase activity and wherein the variant has at least 85%, at least 90%, at least 95%, at least 96%, at least 97%, at least 98%, or at least 99%, but less than 100%, sequence identity to SEQ ID NO: 1, and wherein the variant comprises the substitution L243V.
A ceramic reflector for at least one IR lamp; comprising at least one elongated concave reflector body ; wherein each of the at least one elongated concave reflector bodies comprises an elongated bottom section and two elongated upstanding walls ; wherein each of the elongated concave reflector bodies is provided for containing at least one IR lamp and for reflecting the IR light from the at least one IR lamp; wherein each elongated concave reflector body has in each cross section at both of its upstanding walls a wall height, wherein the wall height is the vertical distance between the deepest level of the bottom section of the reflector body and the highest level of the upstanding wall ; characterized in that at one or at both longitudinal ends of at least one reflector body, the wall height is at both upstanding walls larger than in the middle section of the elongated concave reflector body.
A rail vehicle having a plurality of rail car bodies , wherein a first and a second rail car body are supported on the bolster of a Jacobs bogie ; wherein the rail car bodies are connected to one another by a spherical joint device , wherein the joint device is arranged on the bolster , and wherein the joint device has at least two spherical joint bearings , characterized in that the at least two spherical joint bearings are arranged spaced apart from one another and above one another in the direction of the vertical axis of the rail vehicle.