mhurhangee/patent-ind-claim-en huggingface dataset:
A flame-retardant resin composition comprising: a thermoplastic resin; a metal hydroxide; and a modified silicone being a polymer having a main skeleton having a siloxane bond and having, at an end thereof, a functional group having a carbon-carbon double bond, wherein: a content of the metal hydroxide is 85 to 190 parts by mass relative to 100 parts by mass of the thermoplastic resin, a content of the modified silicone is 0.05% to 5% by mass relative to the metal hydroxide, the thermoplastic resin is a mixture containing an ethylene-vinyl acetate copolymer and polyethylene in a range of 30:70 to 100:0, and the modified silicone has a molecular weight of 1000 to 3000. a thermoplastic resin; a metal hydroxide; and a modified silicone being a polymer having a main skeleton having a siloxane bond and having, at an end thereof, a functional group having a carbon-carbon double bond, wherein: a content of the metal hydroxide is 85 to 190 parts by mass relative to 100 parts by mass of the thermoplastic resin, a content of the modified silicone is 0.05% to 5% by mass relative to the metal hydroxide, the thermoplastic resin is a mixture containing an ethylene-vinyl acetate copolymer and polyethylene in a range of 30:70 to 100:0, and the modified silicone has a molecular weight of 1000 to 3000. a content of the metal hydroxide is 85 to 190 parts by mass relative to 100 parts by mass of the thermoplastic resin, a content of the modified silicone is 0.05% to 5% by mass relative to the metal hydroxide, the thermoplastic resin is a mixture containing an ethylene-vinyl acetate copolymer and polyethylene in a range of 30:70 to 100:0, and the modified silicone has a molecular weight of 1000 to 3000.
A method of preparing a porous ceramic, comprising the steps of: mixing amorphous silica, aluminum oxide and iron oxide uniformly to obtain a mixture, wherein the amount of the amorphous silica in the mixture is from 80% to 90% by mass; the amount of the aluminum oxide in the mixture is from 1% to 10% by mass; the amount of iron oxide in the mixture is from 1% to 10% by mass; sintering the mixture at a temperature of 1000°C to 1400°C for 0.5 hour to 3 hours to obtain a precursor having a loose structure, grinding the precursor to obtain precursor powder; mixing the precursor powder, sodium silicate, and porogen uniformly to obtain a premix; wherein the amount of the precursor powder in the premix is from 60% to 90% by mass; the amount of sodium silicate in the premix is from 0 to 20% by mass; the amount of porogen in the premix is from 10 to 40% by mass; mixing and extruding the premix with water to obtain a molded body; and heat preserving the molded body at a temperature of 200°C to 600°C for 1 hour to 6 hours, and sintering the molded body at a temperature of 700°C to 1200°C for 0.5 hour to 3 hours to obtain the porous ceramic. mixing amorphous silica, aluminum oxide and iron oxide uniformly to obtain a mixture, wherein the amount of the amorphous silica in the mixture is from 80% to 90% by mass; the amount of the aluminum oxide in the mixture is from 1% to 10% by mass; the amount of iron oxide in the mixture is from 1% to 10% by mass; sintering the mixture at a temperature of 1000°C to 1400°C for 0.5 hour to 3 hours to obtain a precursor having a loose structure, grinding the precursor to obtain precursor powder; mixing the precursor powder, sodium silicate, and porogen uniformly to obtain a premix; wherein the amount of the precursor powder in the premix is from 60% to 90% by mass; the amount of sodium silicate in the premix is from 0 to 20% by mass; the amount of porogen in the premix is from 10 to 40% by mass; mixing and extruding the premix with water to obtain a molded body; and heat preserving the molded body at a temperature of 200°C to 600°C for 1 hour to 6 hours, and sintering the molded body at a temperature of 700°C to 1200°C for 0.5 hour to 3 hours to obtain the porous ceramic.
Breast pump comprising a breast shield intended to be applied against the breast of a user mother, a tube for passage of the mother's milk connecting the breast shield to a reservoir collecting the expressed milk, and a pump intended to apply a negative pressure in the tube , characterised in that it comprises means for selecting and controlling the operating mode of said pump so that the latter can, as desired: - in at least a first operating mode, applying at least a first pumping, varying a negative pressure, according to first parameters, in the breast shield via the tube , enabling milk to be collected when the breast shield is applied to the breast of the user so as to aspirate milk from said breast shield to said collection reservoir ; - in a second operating mode, the end of the tube on the breast shield side being immersed in a rinsing liquid stored in a container : --applying a second pumping, varying the negative pressure, according to second parameters distinct from the first parameters, in said tube so as to aspirate said rinsing liquid in said tube towards said collection reservoir , during a period of time set between 10 and 50 seconds and enabling said tube to be cleaned, then -- automatically interrupting the pumping. - in at least a first operating mode, applying at least a first pumping, varying a negative pressure, according to first parameters, in the breast shield via the tube , enabling milk to be collected when the breast shield is applied to the breast of the user so as to aspirate milk from said breast shield to said collection reservoir ; - in a second operating mode, the end of the tube on the breast shield side being immersed in a rinsing liquid stored in a container : --applying a second pumping, varying the negative pressure, according to second parameters distinct from the first parameters, in said tube so as to aspirate said rinsing liquid in said tube towards said collection reservoir , during a period of time set between 10 and 50 seconds and enabling said tube to be cleaned, then -- automatically interrupting the pumping. --applying a second pumping, varying the negative pressure, according to second parameters distinct from the first parameters, in said tube so as to aspirate said rinsing liquid in said tube towards said collection reservoir , during a period of time set between 10 and 50 seconds and enabling said tube to be cleaned, then -- automatically interrupting the pumping.
A method of making a dispersion of nanoparticles, comprising: a. forming a reaction mixture comprising cerous ion, ethylenediaminedisuccinic acid, an oxidant, citric acid and water; and b. forming in the reaction mixture a dispersion of cerium oxide nanoparticles. a. forming a reaction mixture comprising cerous ion, ethylenediaminedisuccinic acid, an oxidant, citric acid and water; and b. forming in the reaction mixture a dispersion of cerium oxide nanoparticles.
A method for transmitting a random access, RA, preamble by a user equipment, UE, , the method comprising: establishing (S100, S200) connection with a first node and a second node; performing uplink, UL, transmissions in a group of cells to which the second node belongs; transmitting (S110, S210) the RA preamble to the second node until a number of RA preamble transmissions reaches a maximum number of RA preamble transmissions; upon that the number of RA preamble transmissions reaches the maximum number of RA preamble transmissions: stopping (S120, S240) the UL transmissions in the group of cells to which the second node belongs; and transmitting (S250), to the first node, an indication indicating that the number of RA preamble transmission has reached the maximum number of RA preamble transmissions. establishing (S100, S200) connection with a first node and a second node; performing uplink, UL, transmissions in a group of cells to which the second node belongs; transmitting (S110, S210) the RA preamble to the second node until a number of RA preamble transmissions reaches a maximum number of RA preamble transmissions; upon that the number of RA preamble transmissions reaches the maximum number of RA preamble transmissions: stopping (S120, S240) the UL transmissions in the group of cells to which the second node belongs; and transmitting (S250), to the first node, an indication indicating that the number of RA preamble transmission has reached the maximum number of RA preamble transmissions. stopping (S120, S240) the UL transmissions in the group of cells to which the second node belongs; and transmitting (S250), to the first node, an indication indicating that the number of RA preamble transmission has reached the maximum number of RA preamble transmissions.
A multimodal elastomer comprising a copolymer of ethylene and at least one α-olefin monomer, wherein the multimodal elastomer comprises: 20 to 90% by weight of a high molecular weight (HMW) fraction, wherein the HMW fraction has a number average molecular weight (Mn) of at least 50 kg/mol, when measured according to gel permeation chromatography (GPC), and wherein the HMW fraction comprises at least 35 % by weight ethylene and at least 30 % by weight α-olefin comonomer; a low molecular weight fraction (LMW) fraction, wherein the LMW fraction has an Mn of 4 to 25 kg/mol, and wherein the LMW fraction comprises at least 50 % by weight ethylene and at least 29 % by weight α-olefin comonomer, and wherein the ratio of the Mn of HMW fraction to the Mn of the LMW fraction is at least 5 to 1; wherein the multimodal elastomer has a density between 0.853 to 0.875 g/cc, a shear viscosity at 100 rad/s of less than 2,500 Pa-s, and a shear viscosity at 0.1 rad/s of less than 120,000 Pa-s. 20 to 90% by weight of a high molecular weight (HMW) fraction, wherein the HMW fraction has a number average molecular weight (Mn) of at least 50 kg/mol, when measured according to gel permeation chromatography (GPC), and wherein the HMW fraction comprises at least 35 % by weight ethylene and at least 30 % by weight α-olefin comonomer; a low molecular weight fraction (LMW) fraction, wherein the LMW fraction has an Mn of 4 to 25 kg/mol, and wherein the LMW fraction comprises at least 50 % by weight ethylene and at least 29 % by weight α-olefin comonomer, and wherein the ratio of the Mn of HMW fraction to the Mn of the LMW fraction is at least 5 to 1; wherein the multimodal elastomer has a density between 0.853 to 0.875 g/cc, a shear viscosity at 100 rad/s of less than 2,500 Pa-s, and a shear viscosity at 0.1 rad/s of less than 120,000 Pa-s.
Electrical rail mount device for mounting on a rail, comprising - at least one input terminal configured to receive an input line, - fixing means configured to fix the input line to the input terminal to establish an electrical connection, - a lockable cover reversibly movable from an open state into a closed state, whereas the cover is configured to cover the fixing means in the closed state, such that the fixing means can only be accessed by moving the cover from the closed state into the open state, - an electrical element arranged in the cover and configured to provide an electrical function to an active electronic element of the electrical rail mount device , wherein an electrical connection is provided between the electrical element and the active electronic element, wherein the electrical rail mount device comprises an electricity meter for measuring power consumption, and wherein - the at least one input terminal is provided as a power terminal configured to receive a power line, and the fixing means is configured to fix the power line to the power terminal to establish an electrical connection, and wherein the electrical element is provided as an auxiliary port configured to receive an auxiliary line, whereas the auxiliary port is configured to allow a communication of an external source with a smart meter gateway comprised by the electricity meter via the auxiliary line, the cover further comprising auxiliary fixing means for fixing the auxiliary line to the auxiliary port positioned such that they are accessible in the closed state of the cover , wherein the cover has a box-like shape, wherein the electrical active parts of the at least one auxiliary port are arranged inside a volume defined by the box-like shaped cover . - at least one input terminal configured to receive an input line, - fixing means configured to fix the input line to the input terminal to establish an electrical connection, - a lockable cover reversibly movable from an open state into a closed state, whereas the cover is configured to cover the fixing means in the closed state, such that the fixing means can only be accessed by moving the cover from the closed state into the open state, - an electrical element arranged in the cover and configured to provide an electrical function to an active electronic element of the electrical rail mount device , wherein an electrical connection is provided between the electrical element and the active electronic element, wherein the electrical rail mount device comprises an electricity meter for measuring power consumption, and wherein - the at least one input terminal is provided as a power terminal configured to receive a power line, and the fixing means is configured to fix the power line to the power terminal to establish an electrical connection, and
A method for the destruction of a non-combustible target gas, the method including: a) compressing at a first pressure a mixture of air and target gas to produce a compressed target gas mixture, wherein the target gas concentration in the mixture of air and target gas is kept below about 40 g/m 3 ; b) destroying the target gas by combusting the compressed target gas mixture with fuel in a forced-induction internal combustion engine at a combustion pressure greater than the first pressure, to thermally decompose the target gas and produce an oxidised exhaust gas, the combustion occurring while maintaining a load on the engine with a load bank (C); and c) processing the oxidised exhaust gas to produce a vent gas for venting to atmosphere where the vent gas includes substantially no target gas. a) compressing at a first pressure a mixture of air and target gas to produce a compressed target gas mixture, wherein the target gas concentration in the mixture of air and target gas is kept below about 40 g/m 3 ; b) destroying the target gas by combusting the compressed target gas mixture with fuel in a forced-induction internal combustion engine at a combustion pressure greater than the first pressure, to thermally decompose the target gas and produce an oxidised exhaust gas, the combustion occurring while maintaining a load on the engine with a load bank (C); and c) processing the oxidised exhaust gas to produce a vent gas for venting to atmosphere where the vent gas includes substantially no target gas.
A non-aqueous patch comprising 0.5 to 7 mass% lidocaine, and a dissolving agent composed of isostearic acid and a polyalcohol which are contained in a base, wherein the amount of lidocaine in the plaster is 0.1 to 1 mg/cm 2 .
A Saccharomyces cerevisiae MEX67 nucleic acid for increasing alcohol tolerance and/or alcohol accumulation in yeast, said nucleic acid is SEQ ID No. 1 with a G456A mutation.
A compound which is defined by formula (III): wherein X 5 is substituted or unsubstituted linear or branched C 1 -C 12 alkyl, C 2 -C 12 alkenyl, or C 2 -C 12 alkynyl, substituted or unsubstituted mono- or bi-cycloaryl or heteroaryl, substituted or unsubstituted cycloalkyl or heterocycloalkyl, alkylphenyl, substituted benzyl, thiophenyl, sulfonobenzyl, methylsulfonobenzyl, or substituted or unsubstituted alkynyloxy; for use in a method of enhancing viral infection, growth, spread and/or productivity in gene therapy, vaccine or oncolytic therapy. wherein X 5 is substituted or unsubstituted linear or branched C 1 -C 12 alkyl, C 2 -C 12 alkenyl, or C 2 -C 12 alkynyl, substituted or unsubstituted mono- or bi-cycloaryl or heteroaryl, substituted or unsubstituted cycloalkyl or heterocycloalkyl, alkylphenyl, substituted benzyl, thiophenyl, sulfonobenzyl, methylsulfonobenzyl, or substituted or unsubstituted alkynyloxy; for use in a method of enhancing viral infection, growth, spread and/or productivity in gene therapy, vaccine or oncolytic therapy.
A system for recycling planar objects (102, 102a-e) having a first major surface and an opposing, second major surface, the planar objects (102, 102a-e) comprising compressed mineral fiber material, the system comprising: a conveyor arranged to sequentially covey the planar objects (102, 102a-e) one by one through a number of stations along a conveyor direction (CD), the number of stations at least comprising: a thickness measurement station arranged to determine a property related to thickness and associated to each of the planar objects (102, 102a-e) being conveyed through the thickness measurement station , a sound measurement station arranged to determine a property related to sound absorption and associated to each of the planar objects (102, 102a-e) being conveyed through the sound measurement station , the sound measurement station comprising, a sound reflecting surface arranged to back the first major surface of each planar object (102, 102a-e) being conveyed through the sound measurement station , a sound emitter arranged to emit sound towards the sound reflecting surface , a sound receiver arranged to receive sound reflected from the sound reflecting surface , and a converter arranged to determine the property related to sound absorption based on the emitted sound and the reflected sound, and a sorting station arranged to sort the planar objects (102, 102a-e) based on their respective determined properties in to a plurality of fractions (116a-d, 116w). a thickness measurement station arranged to determine a property related to thickness and associated to each of the planar objects (102, 102a-e) being conveyed through the thickness measurement station , a sound measurement station arranged to determine a property related to sound absorption and associated to each of the planar objects (102, 102a-e) being conveyed through the sound measurement station , the sound measurement station comprising, a sound reflecting surface arranged to back the first major surface of each planar object (102, 102a-e) being conveyed through the sound measurement station , a sound emitter arranged to emit sound towards the sound reflecting surface , a sound receiver arranged to receive sound reflected from the sound reflecting surface , and a converter arranged to determine the property related to sound absorption based on the emitted sound and the reflected sound, and a sound reflecting surface arranged to back the first major surface of each planar object (102, 102a-e) being conveyed through the sound measurement station , a sound emitter arranged to emit sound towards the sound reflecting surface , a sound receiver arranged to receive sound reflected from the sound reflecting surface , and a converter arranged to determine the property related to sound absorption based on the emitted sound and the reflected sound, and a sorting station arranged to sort the planar objects (102, 102a-e) based on their respective determined properties in to a plurality of fractions (116a-d, 116w).
A U-bend with an inlet opening and an outlet opening , and with a connecting portion through which the inlet opening is connected to the outlet opening and which comprises a descending forward segment that is connected to the inlet opening through a forward passage , and an ascending rearward segment that is connected to the outlet opening through a rearward passage , and a connecting passage connecting the forward segment to the rearward segment and being situated below the forward passage and the rearward passage , characterised in that it has a filling opening that opens into an upper region of the connecting portion .
A computer-implemented method of effecting a video conference communication event between a first user and one or more second users via a communication network , the method comprising implementing on a computer connected to the network: receiving, via the network, a plurality of video streams, each carrying a respective moving image of at least one respective user; causing the respective moving image of a first of the video streams to be displayed at a user device of the first user for a first time interval; identifying in the respective moving image of a second of the video streams that is not displayed at the user device in the first time interval, a human feature of the respective user; detecting a movement of the identified human feature during the first time interval that matches one of a plurality of expected movements; and in response to the detected movement, causing the respective moving image of at least the second video stream to be displayed at the user device for a second time interval; characterized in that the computer determines the duration of the second time interval based on which of the plurality of expected movements the movement of the identified human feature is detected as matching. receiving, via the network, a plurality of video streams, each carrying a respective moving image of at least one respective user; causing the respective moving image of a first of the video streams to be displayed at a user device of the first user for a first time interval; identifying in the respective moving image of a second of the video streams that is not displayed at the user device in the first time interval, a human feature of the respective user; detecting a movement of the identified human feature during the first time interval that matches one of a plurality of expected movements; and in response to the detected movement, causing the respective moving image of at least the second video stream to be displayed at the user device for a second time interval; characterized in that the computer determines the duration of the second time interval based on which of the plurality of expected movements the movement of the identified human feature is detected as matching.
Feedstock for metal injection molding, comprising; a) an iron based powder, having an median particle size of 25-45 μm, and 99% of the particles less than 120 μm, wherein the iron-based powder comprises, by weight percent; 15-17%Cr; 3-5% Ni; 3-5%,Cu; 0.15-0.45% Nb; <1.0% Mn; <1.0% Si; less than 0.08% C, balanced with Fe; and b) 30-65% by volume of the feedstock of a binder. a) an iron based powder, having an median particle size of 25-45 μm, and 99% of the particles less than 120 μm, wherein the iron-based powder comprises, by weight percent; 15-17%Cr; 3-5% Ni; 3-5%,Cu; 0.15-0.45% Nb; <1.0% Mn; <1.0% Si; less than 0.08% C, balanced with Fe; and b) 30-65% by volume of the feedstock of a binder.