mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a moulded component made of fibre material by compressing and reshaping the fibre material present as a fibre fleece by means of a mould contour which predetermines the subsequent shape of the moulded component , wherein the compression and the reshaping of the fibre fleece are effected by means of a pressurised fluid by pressing the fibre fleece against the mould contour, wherein the fluid pressure is generated by evacuating the fibrous web as a vacuum , wherein a sealing layer that is fluid-tight over the entire surface and impenetrable to a fluid that acts under pressure from the side facing away from the fibrous web is provided, and wherein the sealing layer comprises at least comprises at least one connection piece for connecting a vacuum line , is mounted in a fluid-tight manner above the fibrous fleece , wherein the sealing layer prevents the fluid from penetrating into the fibrous fleece , characterised in that the sealing layer is designed as a vacuum membrane and at least the inner side of the sealing layer facing the fibrous fleece during shaping facing the fibrous web during the shaping process, at least in the area provided for contact with the fibrous web , comprises a spacer layer which is designed as a technical spacer textile by means of fine spacer fabrics, spacer knitted fabrics, ring fabrics or other three-dimensional plastic knitted fabrics and has sufficient pressure stability to enable the shaping process, and has a porosity which allows a uniform evacuation and an unimpeded discharge of a water vapour-air mixture arising in the reduced pressure via the at least one connection nozzle , wherein the spacer layer is deformable about two axes, wherein the fibrous fleece is heated for drying to a drying temperature and the vapour pressure falls below the vapour pressure of water at the drying temperature and wherein water vapour arising from evaporation of water from the fibrous fleece is removed from the surface of the fibrous fleece via the spacer layer , which the sealing layer has on its inside at least in the region facing the fibrous fleece .
A method for supporting differential charging for data usage in licensed and unlicensed frequency bands, the method comprising: receiving , at a base station that provides wireless connectivity on a primary carrier that is anchored in a licensed frequency band and on a secondary carrier in an unlicensed frequency band, a charging policy indicating data usage tariffs for the licensed frequency band and the unlicensed frequency band, wherein the primary carrier is configured to carry control data for the secondary carrier ; selectively allocating, at the base station , the secondary carrier in the unlicensed frequency band to user equipment for carrier aggregation with the primary carrier based on the data usage tariffs; characterized in that the method further comprises: handing over, at the base station , best effort data transmission from the primary carrier to the secondary carrier in response to the data usage tariff for the unlicensed frequency band being less than the data usage tariff for the licensed frequency band; and transmitting , by the base station , to a network charging system a message including charging parameters, collected by the base station , for data usage in the licensed frequency band and the unlicensed frequency band and a session identifier for a session involving the licensed frequency band and the unlicensed frequency band. receiving , at a base station that provides wireless connectivity on a primary carrier that is anchored in a licensed frequency band and on a secondary carrier in an unlicensed frequency band, a charging policy indicating data usage tariffs for the licensed frequency band and the unlicensed frequency band, wherein the primary carrier is configured to carry control data for the secondary carrier ; selectively allocating, at the base station , the secondary carrier in the unlicensed frequency band to user equipment for carrier aggregation with the primary carrier based on the data usage tariffs; characterized in that the method further comprises: handing over, at the base station , best effort data transmission from the primary carrier to the secondary carrier in response to the data usage tariff for the unlicensed frequency band being less than the data usage tariff for the licensed frequency band; and transmitting , by the base station , to a network charging system a message including charging parameters, collected by the base station , for data usage in the licensed frequency band and the unlicensed frequency band and a session identifier for a session involving the licensed frequency band and the unlicensed frequency band.
A housing for a computer system , the housing comprising: an upper portion configured to hold an input device of the computer system ; a lower portion comprising a foot of the housing for the computer system ; a pressure drop reducing mechanism configured to increase an airflow between the upper portion and the lower portion by moving the lower portion away from the upper portion , wherein the pressure drop reducing mechanism is coupled to a display housing for the computer system , wherein the pressure drop reducing mechanism is configured to increase the airflow when the display housing is folded away from the upper portion of the housing; and a blower , wherein the pressure drop reducing mechanism is further configured to tilt the blower within the housing when moving the lower portion away from the upper portion , wherein the blower is tilted relative to both the upper portion and the lower portion . an upper portion configured to hold an input device of the computer system ; a lower portion comprising a foot of the housing for the computer system ; a pressure drop reducing mechanism configured to increase an airflow between the upper portion and the lower portion by moving the lower portion away from the upper portion , wherein the pressure drop reducing mechanism is coupled to a display housing for the computer system , wherein the pressure drop reducing mechanism is configured to increase the airflow when the display housing is folded away from the upper portion of the housing; and a blower , wherein the pressure drop reducing mechanism is further configured to tilt the blower within the housing when moving the lower portion away from the upper portion , wherein the blower is tilted relative to both the upper portion and the lower portion .
A composition comprising from about 0.2 to about 15 weight percent of one or more free acid forms of phosphate ester surfactants selected from the group consisting of one or both of: wherein R is selected from the group consisting of one or more of ethoxylated hydrocarbons, alkylated hydrocarbons, fluorinated hydrocarbons, and ethoxylated and fluorinated hydrocarbons; from about 2 to about 25 weight percent of an alcohol selected from the group consisting of one or more of straight chain and branched alkyl alcohols, monohydric and polyhydric aromatic alcohols and monohydric and polyhydric heteroaromatic alcohols; and from about 25 to about 97.8 weight percent of one or more halogenated hydrocarbon solvents. wherein R is selected from the group consisting of one or more of ethoxylated hydrocarbons, alkylated hydrocarbons, fluorinated hydrocarbons, and ethoxylated and fluorinated hydrocarbons; from about 2 to about 25 weight percent of an alcohol selected from the group consisting of one or more of straight chain and branched alkyl alcohols, monohydric and polyhydric aromatic alcohols and monohydric and polyhydric heteroaromatic alcohols; and from about 25 to about 97.8 weight percent of one or more halogenated hydrocarbon solvents.
System providing access to an application distributed over a network of nodes (N1 N2, N3 ... N50) deployed on a communication architecture (A) by an application client (C) connected to said communication architecture (A), each node having a plurality of characteristics and an identifier, the system providing access comprising a client of the service ALTO, Application-Layer Traffic Optimization, (C ALTO ) adapted to provide the interface between the application client (C) and a server ALTO (S) part of said system providing access, the client (CALTO) being configured to receive at least one query comprising the identifiers of a set of nodes determined by the application client (C) and a set of characteristics and to transmit a query comprising a parameter indicating that it wishes as a response a vector on a set of characteristics, the set of characteristics and the identifiers of the set of nodes to the server (S), the server (S) having a topological view of said network within said communication architecture (A) and means for providing as a response to the query of said client (CALTO) information concerning the set of characteristics on the set of nodes as a function of said topological view.
A method for a computing device , the method comprising: receiving a set of voice recordings comprising at least first and second voice recordings, wherein each voice recording in the set was detected via a respective networked microphone device, NMD, ; determining that two or more particular NMDs of the set of NMDs are acoustically coupled; identifying , from among the set of voice recordings, a subset of voice recordings from which to determine a given voice command, including identifying voice recordings detected via the two or more particular NMDs as part of the subset of voice recordings; and causing the identified subset of voice recordings to be analyzed to determine the given voice command. receiving a set of voice recordings comprising at least first and second voice recordings, wherein each voice recording in the set was detected via a respective networked microphone device, NMD, ; determining that two or more particular NMDs of the set of NMDs are acoustically coupled; identifying , from among the set of voice recordings, a subset of voice recordings from which to determine a given voice command, including identifying voice recordings detected via the two or more particular NMDs as part of the subset of voice recordings; and causing the identified subset of voice recordings to be analyzed to determine the given voice command.
An apparatus for cryopreserving cells, the apparatus comprising: a multiwell plate comprising a biocompatible substrate, wherein the multiwell plate further comprises an interior and an exterior; a mechanical ice nucleating device disposed in the interior of the multiwell plate for initiating ice crystal formation; and a separable cover for the multiwell plate, wherein the mechanical ice nucleating device comprises a plurality of three-dimensional protrusions which project from a surface of the cover into the interior of the multiwell plate, or a separable insert for the multiwell plate, wherein the mechanical ice nucleating device comprises a plurality of three-dimensional protrusions which project from a surface of the insert into the interior of the multiwell plate. a multiwell plate comprising a biocompatible substrate, wherein the multiwell plate further comprises an interior and an exterior; a mechanical ice nucleating device disposed in the interior of the multiwell plate for initiating ice crystal formation; and a separable cover for the multiwell plate, wherein the mechanical ice nucleating device comprises a plurality of three-dimensional protrusions which project from a surface of the cover into the interior of the multiwell plate, or a separable insert for the multiwell plate, wherein the mechanical ice nucleating device comprises a plurality of three-dimensional protrusions which project from a surface of the insert into the interior of the multiwell plate.
A high foaming liquid detergent composition comprising: • 5 to 17.5wt.% of one or more anionic surfactants selected from non-alkoxylated non-soap anionic surfactant and alkoxylated anionic surfactant in a weight ratio of 2:1 to 5:1, said non-alkoxylated non-soap anionic surfactant being selected from linear alkylbenzene sulphonate, alpha-olefin sulphonate, methyl ester sulphonate, primary alcohol sulphate and combinations thereof; • 0 to 0.5 wt.% of one or more nonionic surfactants; • 2 to 4 wt.% of polyethylene glycol having a molecular weight of 4,000 g/mol (Da) to 6,000 g/mol (Da); • at least 50 wt.% water; wherein the liquid detergent composition has a pH of 7.0 to 7.5, viscosity at 25°C and 20 s -1 in the range of 5 to 100 mPa.s (cP), wherein the liquid detergent composition forms a foam volume of at least 100ml, and wherein the liquid laundry composition has stable viscosity between a temperature range of 10 and 40 °C.. • 5 to 17.5wt.% of one or more anionic surfactants selected from non-alkoxylated non-soap anionic surfactant and alkoxylated anionic surfactant in a weight ratio of 2:1 to 5:1, said non-alkoxylated non-soap anionic surfactant being selected from linear alkylbenzene sulphonate, alpha-olefin sulphonate, methyl ester sulphonate, primary alcohol sulphate and combinations thereof; • 0 to 0.5 wt.% of one or more nonionic surfactants; • 2 to 4 wt.% of polyethylene glycol having a molecular weight of 4,000 g/mol (Da) to 6,000 g/mol (Da); • at least 50 wt.% water;
Brushless electric motor for an electric handheld power tool , wherein the electric motor has an end plate and a Hall board which is arranged on the end plate , wherein the Hall board is axially fixed to the end plate by means of an elastic O-ring , and wherein the end plate has a central bearing for receiving a rotor axis , characterized in that at least one radially outwardly projecting supporting collar , against which the O-ring is supported, is formed on the central bearing .
A process for manufacturing a purified aromatic carboxylic acid comprising: oxidizing a substituted aromatic compound in a reaction zone to form a crude aromatic carboxylic acid and a gaseous stream; heating the crude aromatic carboxylic acid in a pre-heating zone; contacting the crude aromatic carboxylic acid with hydrogen in the presence of a catalyst in a hydrogenation reactor to form a purified aromatic carboxylic acid; crystalizing the purified aromatic carboxylic acid in a crystallization zone to form a slurry stream comprising solid purified aromatic carboxylic acid and a vapor stream, wherein the vapor stream comprises steam and hydrogen; recovering a purified carboxylic acid product from the slurry; directing at least a portion of the vapor stream to the pre-heating zone in order to heat the crude aromatic carboxylic acid; venting at least a portion of the vapor stream from the pre-heating zone to an off-gas treatment zone, the off-gas treatment zone configured to treat at least a portion of the gaseous stream formed by the oxidation of the substituted aromatic compound; and recovering energy from the vapor stream in the off-gas treatment zone. oxidizing a substituted aromatic compound in a reaction zone to form a crude aromatic carboxylic acid and a gaseous stream; heating the crude aromatic carboxylic acid in a pre-heating zone; contacting the crude aromatic carboxylic acid with hydrogen in the presence of a catalyst in a hydrogenation reactor to form a purified aromatic carboxylic acid; crystalizing the purified aromatic carboxylic acid in a crystallization zone to form a slurry stream comprising solid purified aromatic carboxylic acid and a vapor stream, wherein the vapor stream comprises steam and hydrogen; recovering a purified carboxylic acid product from the slurry; directing at least a portion of the vapor stream to the pre-heating zone in order to heat the crude aromatic carboxylic acid; venting at least a portion of the vapor stream from the pre-heating zone to an off-gas treatment zone, the off-gas treatment zone configured to treat at least a portion of the gaseous stream formed by the oxidation of the substituted aromatic compound; and recovering energy from the vapor stream in the off-gas treatment zone.
Non-therapeutic use of a composition comprising more than 90 % hesperidin for increasing the aerobic and/or anaerobic performance in a healthy subject during exercise.
A method for chilling down a cryogenic fluid supply circuit comprising the following steps: acquiring (E1) a state value (T° c ) of the cryogenic fluid supply circuit at a current time (t c ), computing (E2), by a computer applying an artificial neural network, a corresponding opening time (t cmd,i ) of each valve (VAO, VMRO, VPO) out of one or more valves of the cryogenic fluid supply circuit to reach, from the state value (T° c ) of the cryogenic fluid supply circuit at the current time (t c ), a state of the cryogenic fluid supply circuit meeting one or more predetermined chilldown criteria at a predetermined time (t fin ) in the future, and opening (E4) each valve (VAO, VMRO, VPO) at the corresponding time (t cmd,i ) to chill down the cryogenic fluid supply circuit . acquiring (E1) a state value (T° c ) of the cryogenic fluid supply circuit at a current time (t c ), computing (E2), by a computer applying an artificial neural network, a corresponding opening time (t cmd,i ) of each valve (VAO, VMRO, VPO) out of one or more valves of the cryogenic fluid supply circuit to reach, from the state value (T° c ) of the cryogenic fluid supply circuit at the current time (t c ), a state of the cryogenic fluid supply circuit meeting one or more predetermined chilldown criteria at a predetermined time (t fin ) in the future, and opening (E4) each valve (VAO, VMRO, VPO) at the corresponding time (t cmd,i ) to chill down the cryogenic fluid supply circuit .
A negative pressure wound therapy system comprising: a wound dressing configured to be placed over a wound, the wound dressing configured to absorb fluid; a source of negative pressure disposed on or within the wound dressing, the source of negative pressure configured to aspirate fluid from the wound; a vent configured to allow gas aspirated by the source of negative pressure to flow outside the system; a pressure sensor at least partially disposed on or within the wound dressing proximal to the vent; and a controller disposed on or within the wound dressing, characterized in that the controller is configured to: in response to a determination that pressure measured by the pressure sensor satisfies a threshold indicative of blockage in the vent, provide an indication that the vent is blocked. a wound dressing configured to be placed over a wound, the wound dressing configured to absorb fluid; a source of negative pressure disposed on or within the wound dressing, the source of negative pressure configured to aspirate fluid from the wound; a vent configured to allow gas aspirated by the source of negative pressure to flow outside the system; a pressure sensor at least partially disposed on or within the wound dressing proximal to the vent; and a controller disposed on or within the wound dressing, characterized in that the controller is configured to: in response to a determination that pressure measured by the pressure sensor satisfies a threshold indicative of blockage in the vent, provide an indication that the vent is blocked.
A refrigerator comprising: a main body including a storage compartment ; a door rotatably coupled to the main body to open and close the storage compartment ; a dispenser provided on a front surface of the door ; a case mounted on a rear surface of the door and accommodating a water tank to store water supplied to the dispenser , wherein the water tank is disposed in a longitudinal direction along one side of the dispenser ; and a filter including a filter body , characterized in that the filter includes a filter handle configured to allow the filter body to be inserted through a case hole of an inner side surface of the door into the case so as to be disposed in a transverse direction in the case , and to allow the filter body to be withdrawn from the case in the transverse direction through the case hole provided on the inner side surface of the door . a main body including a storage compartment ; a door rotatably coupled to the main body to open and close the storage compartment ; a dispenser provided on a front surface of the door ; a case mounted on a rear surface of the door and accommodating a water tank to store water supplied to the dispenser , wherein the water tank is disposed in a longitudinal direction along one side of the dispenser ; and a filter including a filter body , characterized in that the filter includes a filter handle configured to allow the filter body to be inserted through a case hole of an inner side surface of the door into the case so as to be disposed in a transverse direction in the case , and to allow the filter body to be withdrawn from the case in the transverse direction through the case hole provided on the inner side surface of the door .
A natural fiber insulation comprising an outer layer and opposite the outer layer , an inner layer with at least one natural fiber insulation panel and at least one sealing segment , wherein the outer layer is connected to the natural fiber insulation panel and to the sealing segment , wherein the natural fiber insulation panel comprises a first insulating material with at least one natural fiber material, wherein the sealing segment comprises a second insulating material which is moisture-resistant, characterized in that the second insulating material comprises one or more moisture-resistant materials selected from the group consisting of EPS, XPS, mineral wool, glass wool, foam glass, and coconut fiber, and the outer layer comprises, in particular consists of, one or more dry construction panels . wherein the outer layer is connected to the natural fiber insulation panel and to the sealing segment , wherein the natural fiber insulation panel comprises a first insulating material with at least one natural fiber material, wherein the sealing segment comprises a second insulating material which is moisture-resistant, characterized in that the second insulating material comprises one or more moisture-resistant materials selected from the group consisting of EPS, XPS, mineral wool, glass wool, foam glass, and coconut fiber, and the outer layer comprises, in particular consists of, one or more dry construction panels .
Sintered concrete having the following mean chemical composition, in mass percentages on the basis of the oxides and for a total of 100%: ZrO 2 : 55% to 70% SiO 2 : 25% to 40% P 2 O 5 : 0.2% to 9.0% Al 2 O 3 : 0.5% to 7.0% CaO: > 0.2% CaO + MgO + B 2 O 3 + Fe 2 O 3 : 0.2% to 10.0% MgO + B 2 O 3 + Fe 2 O 3 : ≤ 7.5% B 2 O 3 + MgO: ≤ 4.5% ZrO 2 + SiO 2 + P 2 O 5 + Al 2 O 3 + CaO + MgO + B 2 O 3 + Fe 2 O 3 : ≥ 95.0% and containing more than 70% of zirconia, as a mass percentage on the basis of the mass of the crystalline phases, a sintered concrete being a product which results from the sintering of a hardened concrete consisting of an assembly of coarse grains between 150 μm and 25 mm in size bound together by a matrix. ZrO 2 : 55% to 70% SiO 2 : 25% to 40% P 2 O 5 : 0.2% to 9.0% Al 2 O 3 : 0.5% to 7.0% CaO: > 0.2% CaO + MgO + B 2 O 3 + Fe 2 O 3 : 0.2% to 10.0% MgO + B 2 O 3 + Fe 2 O 3 : ≤ 7.5% B 2 O 3 + MgO: ≤ 4.5% ZrO 2 + SiO 2 + P 2 O 5 + Al 2 O 3 + CaO + MgO + B 2 O 3 + Fe 2 O 3 : ≥ 95.0% and containing more than 70% of zirconia, as a mass percentage on the basis of the mass of the crystalline phases, a sintered concrete being a product which results from the sintering of a hardened concrete consisting of an assembly of coarse grains between 150 μm and 25 mm in size bound together by a matrix.