mhurhangee/ep-ind-claims huggingface dataset:
A method for using a support device - said support device comprising: - a flexible air-tight membrane defining an internal volume and comprising a connection valve suitable to allow, on command, introduction or extraction of air into/from said internal volume, - a compressible solid body housed in said internal volume and made of a material which, when said membrane is placed under vacuum, has a volume that decreases by at least 5%, - a vacuum pump, suitable to substantially produce the vacuum inside said membrane, - wherein said compressible solid body is exclusively used at volumes equal to or less than the volume of said compressible solid body at ambient pressure, - said method being characterized in that said device comprises a substantially rigid support portion, stiffer than the compressible solid body and sufficiently rigid, with respect to the pressures involved in the operation of the device, so as not to be substantially deformed in any configuration, - said rigid support portion being firmly attached to part of said compressible solid body. - said support device comprising: - a flexible air-tight membrane defining an internal volume and comprising a connection valve suitable to allow, on command, introduction or extraction of air into/from said internal volume, - a compressible solid body housed in said internal volume and made of a material which, when said membrane is placed under vacuum, has a volume that decreases by at least 5%, - a vacuum pump, suitable to substantially produce the vacuum inside said membrane, - a flexible air-tight membrane defining an internal volume and comprising a connection valve suitable to allow, on command, introduction or extraction of air into/from said internal volume, - a compressible solid body housed in said internal volume and made of a material which, when said membrane is placed under vacuum, has a volume that decreases by at least 5%, - a vacuum pump, suitable to substantially produce the vacuum inside said membrane, - wherein said compressible solid body is exclusively used at volumes equal to or less than the volume of said compressible solid body at ambient pressure, - said method being characterized in that said device comprises a substantially rigid support portion, stiffer than the compressible solid body and sufficiently rigid, with respect to the pressures involved in the operation of the device, so as not to be substantially deformed in any configuration, - said rigid support portion being firmly attached to part of said compressible solid body.
A method for making paper comprising: Preparing a pulp from a material comprising recycled paper; treating the pulp with a lipolytic enzyme, which is able to hydrolyze a polymer comprising vinyl acetate monomer; and making paper from the treated pulp; wherein the enzyme is selected from the group consisting of lipases and cutinases and has a hydrolytic activity higher than 0.2 units/ml at 35°C for 4 min with a 5% (w/v) polymer preparation comprising vinyl acetate as substrate in an emulsion consisting of 50 mM NaCl, 0.5 mM KH 2 PO 4, 9% (v/v) Glycerol and 0.1% (w/v) Gum Arabicum; wherein one unit of hydrolytic activity is defined as the release of 1 micro-mole of acetate measured by a pH-stat; wherein 200 μl of the enzyme solution of A 280 =0.15 is added to 15 ml of the substrate emulsion; and wherein the polymer is a PVAc homopolymer preparation and the reaction pH is 8, and the enzyme is desalted.
A film, comprising a layer comprising: (a) a first polyethylene, the first polyethylene having (i) a density of 0.900 to 0.925 g/cm 3, (ii) a melt index, I 2.16, of from 0.1 to 10.0 g/10 min, (iii) a melt index ratio, I 21.6 /I 2.16, of from 15 to 50, (iv) a weight average molecular weight (M w) of from 20,000 to 200,000; (v) a molecular weight distribution of from 2.0 to 5.0; and (vi) a z-average molecular weight (M z) to weight average molecular weight (M w) (M z /M w) ratio of from 1.7 to 3.5; and (b) from 5 to 20 wt% of a hydrocarbon resin, based on total weight of polymer in the layer, the hydrocarbon resin comprising an aliphatic hydrocarbon resin, a hydrogenated aliphatic hydrocarbon resin, an aromatic hydrocarbon resin, a hydrogenated aromatic hydrocarbon resin, a cycloaliphatic hydrocarbon resin, a hydrogenated cycloaliphatic hydrocarbon resin, a polyterpene resin, a terpene-phenol resin, a rosin ester resin, a rosin acid resin, or a combination thereof; wherein the film has at least one of the following properties: (i) an Elmendorf tear of at least 15% higher in the Machine Direction; (ii) an Elmendorf tear of at least 25% higher in the Transverse Direction measured in both MD and TD based on ASTM D1922-06a; (iii) a dart impact measured by a method following ASTM D1709 of at least 4% higher; (iv) a static coefficient of friction of at least 3% lower; and (v) a dynamic COF of at least 40% lower, COF determined following ASTM 1894, compared to that of a film free of the hydrocarbon resin but otherwise identical in terms of film formulation, thickness, and structure. (a) a first polyethylene, the first polyethylene having (i) a density of 0.900 to 0.925 g/cm 3, (ii) a melt index, I 2.16, of from 0.1 to 10.0 g/10 min, (iii) a melt index ratio, I 21.6 /I 2.16, of from 15 to 50, (iv) a weight average molecular weight (M w) of from 20,000 to 200,000; (v) a molecular weight distribution of from 2.0 to 5.0; and (vi) a z-average molecular weight (M z) to weight average molecular weight (M w) (M z /M w) ratio of from 1.7 to 3.5; and (b) from 5 to 20 wt% of a hydrocarbon resin, based on total weight of polymer in the layer, the hydrocarbon resin comprising an aliphatic hydrocarbon resin, a hydrogenated aliphatic hydrocarbon resin, an aromatic hydrocarbon resin, a hydrogenated aromatic hydrocarbon resin, a cycloaliphatic hydrocarbon resin, a hydrogenated cycloaliphatic hydrocarbon resin, a polyterpene resin, a terpene-phenol resin, a rosin ester resin, a rosin acid resin, or a combination thereof;
A method to obtain a first identifier ( X ' 1X ' 2... X ' k) for a current collection of assets associated with a computing environment, the method comprising: obtaining asset parameters (p' 1,p' 2,...,p' n), the asset parameters being associated with the current collection of assets; processing the asset parameters and a fingerprint in accordance with a pre-determined function to obtain code symbols (c' 1,c' 2,...,c' n) for the first identifier, the fingerprint being associated with the computing environment, the fingerprint being based on an original collection of assets of the computing environment and codeword symbols (c 1,c 2,...,c n) for a second identifier (X 1 X 2...X k); and applying an error-correction algorithm to the code symbols for the first identifier to obtain the first identifier. obtaining asset parameters (p' 1,p' 2,...,p' n), the asset parameters being associated with the current collection of assets; processing the asset parameters and a fingerprint in accordance with a pre-determined function to obtain code symbols (c' 1,c' 2,...,c' n) for the first identifier, the fingerprint being associated with the computing environment, the fingerprint being based on an original collection of assets of the computing environment and codeword symbols (c 1,c 2,...,c n) for a second identifier (X 1 X 2...X k); and applying an error-correction algorithm to the code symbols for the first identifier to obtain the first identifier.
An anisotropic conductive material comprising: a matrix material layer, wherein the matrix material is electrically insulating; and a plurality of particles in the matrix material layer, at least some of the particles having a capsule structure including a conductive core portion and an insulating shell portion, the conductive core portion including a conductive material, and the insulating shell portion comprises a polymer; characterised in that the insulating shell portion comprises a polymer having an elastic modulus less than 40 GN/m 2 and the conductive material is in a liquid state at a temperature greater than about 15 °C and less than or equal to about 110°C. a matrix material layer, wherein the matrix material is electrically insulating; and a plurality of particles in the matrix material layer, at least some of the particles having a capsule structure including a conductive core portion and an insulating shell portion, the conductive core portion including a conductive material, and the insulating shell portion comprises a polymer; characterised in that the insulating shell portion comprises a polymer having an elastic modulus less than 40 GN/m 2 and the conductive material is in a liquid state at a temperature greater than about 15 °C and less than or equal to about 110°C.
A method of debugging an applet executed by a simulator or client, wherein debugging codes are written into the applet, so that the applet is divided into a plurality of debugging modules by the debugging codes written to the applet, the method comprising: selecting, in a first thread of the simulator or client, at least one debugging module from the plurality of debugging modules as a target debugging module according to a first debugging instruction; running, in the first thread, the applet so that the target debugging module is interrupted in response to running to the target debugging module in the applet; a second thread of the simulator or client storing a received second debugging instruction in a shared memory of the simulator or client, and generating a wake-up instruction, and transmitting the wake-up instruction to the first thread so as to awaken the interrupted target debugging module, wherein the first thread and the second thread communicate through the shared memory; awakening the interrupted target debugging module according to the wake-up instruction; and acquiring the stored second debugging instruction, and debugging the awakened target debugging module according to the stored second debugging instruction. selecting, in a first thread of the simulator or client, at least one debugging module from the plurality of debugging modules as a target debugging module according to a first debugging instruction; running, in the first thread, the applet so that the target debugging module is interrupted in response to running to the target debugging module in the applet; a second thread of the simulator or client storing a received second debugging instruction in a shared memory of the simulator or client, and generating a wake-up instruction, and transmitting the wake-up instruction to the first thread so as to awaken the interrupted target debugging module, wherein the first thread and the second thread communicate through the shared memory; awakening the interrupted target debugging module according to the wake-up instruction; and acquiring the stored second debugging instruction, and debugging the awakened target debugging module according to the stored second debugging instruction.
A medical fluid flow control system comprising: an interface including a first pump area, the first pump area of the interface including a pneumatic actuator port and a gasket seal port; and a membrane gasket including a second pump area for mating with the first pump area, the second pump area including a blind section which covers the pneumatic actuator port when the gasket is mated with the interface, the second pump area further including an aperture, the aperture sized and positioned to seal around the gasket seal port, allowing a negative pressure to be applied through the gasket seal port to a flexible sheet of a pumping cassette. an interface including a first pump area, the first pump area of the interface including a pneumatic actuator port and a gasket seal port; and a membrane gasket including a second pump area for mating with the first pump area, the second pump area including a blind section which covers the pneumatic actuator port when the gasket is mated with the interface, the second pump area further including an aperture, the aperture sized and positioned to seal around the gasket seal port, allowing a negative pressure to be applied through the gasket seal port to a flexible sheet of a pumping cassette.
A method for determining an analyte concentration in a sample, comprising: applying an input signal to a sample including an analyte; generating an output signal responsive to a concentration of the analyte in the sample and the input signal and providing an uncompensated output value; determining a compensated value of the uncompensated output value in response to a conversion function, a primary function, a residual function, and a segmented signal processing function; and determining the analyte concentration in the sample with the compensated value. applying an input signal to a sample including an analyte; generating an output signal responsive to a concentration of the analyte in the sample and the input signal and providing an uncompensated output value; determining a compensated value of the uncompensated output value in response to a conversion function, a primary function, a residual function, and a segmented signal processing function; and determining the analyte concentration in the sample with the compensated value.
Tilling implement to be moved in a feed direction, comprising a plurality of spiked harrow teeth angled in the feed direction, articulated such that they are tilted downwards on a chassis, being arranged in a plurality of lines and/or rows on the chassis, the teeth being held in position by a spring system with variable pre-tensioning, characterised in that means (7; 71; 75) are provided for adjusting the pre-tensioning of each tooth independently of the pre-tensioning of the other teeth.
A method for manufacturing a shaped container with a curl adapted to receive an aerosol valve or a crown closure from a slug in an impact extrusion process using recycled scrap materials, comprising: providing scrap material of a 3XXX series aluminum alloy selected from the group consisting of a 3104, a 3003, a 3013, a 3103, and a 3105 aluminum alloy; providing an aluminum comprising one of an 1050 aluminum alloy or an 1070 aluminum alloy; melting said aluminum comprising the 1050 aluminum alloy or the 1070 aluminum alloy with said 3XXX series aluminum alloy in a furnace to form a new recycled aluminum alloy; casting said new recycled aluminum alloy in a casting machine to form an aluminum alloy slab with a pre-determined thickness of between 19.05 mm and 38.10 mm; hot rolling said aluminum alloy slab to reduce the pre-determined thickness and create a hot rolled strip; quenching said hot rolled strip in an aqueous solution to reduce the temperature of said hot rolled strip and form an alloy strip; cold rolling said alloy strip to further reduce the pre-determined thickness to between 3 mm and 14 mm; punching said alloy strip to form recycled aluminum alloy slugs, wherein the thick-ness of the recycled aluminum alloy slugs is between 3 mm and 14 mm; annealing said recycled aluminum alloy slugs by heating said recycled aluminum alloy slugs to a predetermined temperature and subsequently cooling; finishing said recycled aluminum alloy slugs by roughening an outer surface to form a finished slug with a high surface area; and forming the shaped container adapted to receive the aerosol valve or the crown closure from the finished slug using the impact extrusion process. providing scrap material of a 3XXX series aluminum alloy selected from the group consisting of a 3104, a 3003, a 3013, a 3103, and a 3105 aluminum alloy; providing an aluminum comprising one of an 1050 aluminum alloy or an 1070 aluminum alloy; melting said aluminum comprising the 1050 aluminum alloy or the 1070 aluminum alloy with said 3XXX series aluminum alloy in a furnace to form a new recycled aluminum alloy; casting said new recycled aluminum alloy in a casting machine to form an aluminum alloy slab with a pre-determined thickness of between 19.05 mm and 38.10 mm; hot rolling said aluminum alloy slab to reduce the pre-determined thickness and create a hot rolled strip; quenching said hot rolled strip in an aqueous solution to reduce the temperature of said hot rolled strip and form an alloy strip; cold rolling said alloy strip to further reduce the pre-determined thickness to between 3 mm and 14 mm; punching said alloy strip to form recycled aluminum alloy slugs, wherein the thick-ness of the recycled aluminum alloy slugs is between 3 mm and 14 mm; annealing said recycled aluminum alloy slugs by heating said recycled aluminum alloy slugs to a predetermined temperature and subsequently cooling; finishing said recycled aluminum alloy slugs by roughening an outer surface to form a finished slug with a high surface area; and forming the shaped container adapted to receive the aerosol valve or the crown closure from the finished slug using the impact extrusion process.
Paralytic shellfish poison for use in a method of topical treatment of itching in a human being or another mammal, wherein the PSP is saxitoxin or a tricyclic 3,4-propinoperhydropurine represented by the following formula, wherein R 1 and R 5 are independently selected from the group consisting of -H and -OH; R 2 and R 3 are independently selected from the group consisting of -H, -OSO 3 - and -SO 3; and R 4 is selected from the group consisting of -H, -OH, -OC(=O)NH 2, -OC(=O)NHSO 3 - and -OC(=O)CH 3, or wherein the PSP is a salt of saxitoxin or the tricyclic 3,4-propinoperhydropurine.
Method of picking up a sample container from a sample carrier by means of a gripping device having a first gripping portion and a second gripping portion, wherein the first gripping portion is configured in such a way that it grasps the sample container from a first side, the first gripping portion having a first holder for the sample container and a first tool for moving the sample container along a travel path, wherein the second gripping portion is configured in such a way that it grasps the sample container from a second side located opposite the first side, the second gripping portion having a second holder for the sample container, wherein the first side is an upper side of the sample container and the second side is an underside of the sample container, wherein the method comprises the following steps: - positioning the first gripping portion on the first side of the sample container and positioning the second gripping portion on the second side of the sample container in such a way that the first gripping portion is located opposite the second gripping portion along the travel path, - bringing the first tool into engagement with the sample container, - moving the sample container along the travel path in the direction from the first side to the second side, - picking up the sample container in the second holder, - re-positioning the first gripping portion and the second gripping portion in a lateral direction running orthogonally with respect to the travel path in such a way that the first gripping portion on the first side of the sample container is located opposite the second gripping portion along the travel path, the sample container being arranged in a free region not occupied by the sample carrier, - moving the sample container along the travel path in the opposite direction from the second side to the first side, - bringing the sample container into engagement with the first holder provided in the first gripping portion. - positioning the first gripping portion on the first side of the sample container and positioning the second gripping portion on the second side of the sample container in such a way that the first gripping portion is located opposite the second gripping portion along the travel path, - bringing the first tool into engagement with the sample container, - moving the sample container along the travel path in the direction from the first side to the second side, - picking up the sample container in the second holder, - re-positioning the first gripping portion and the second gripping portion in a lateral direction running orthogonally with respect to the travel path in such a way that the first gripping portion on the first side of the sample container is located opposite the second gripping portion along the travel path, the sample container being arranged in a free region not occupied by the sample carrier, - moving the sample container along the travel path in the opposite direction from the second side to the first side, - bringing the sample container into engagement with the first holder provided in the first gripping portion.
Combined evaporator and mixer for evaporating a liquid, particularly water, and mixing with a gas, particularly natural gas, comprising a housing for receiving individual mixing-evaporation modules and having heating gas openings at two of its ends for allowing hot gas to pass through the mixing-evaporation modules, at least one individual mixing-evaporation module having exhaust gas openings at two of its ends, the mixing-evaporation module comprising at least one mixing-evaporation stack, the mixing-evaporation stack having at least two individual heat transfer cells comprising a first heat transfer cell and a last heat transfer cell, wherein the at least two individual heat transfer cells comprise a plurality of heat transfer tubes, each heat transfer tube having a tube inlet and a tube outlet, the tube inlets being connected to an inlet manifold and the tube outlets being connected to an outlet manifold, and wherein the heat transfer tubes are laterally adjacently arranged in at least one heat transfer tube row, wherein the at least two heat transfer cells are arranged one beside the other in at least two laterally adjacent heat transfer cell rows, and the manifolds (52, 53) of adjacently arranged heat transfer cells are connected to one another through at least one connecting channel piece in a manner so as to form a series arrangement of heat transfer cells forming a mixing-evaporation stack, wherein the mixing-evaporation stack further comprises at least one liquid inlet to the first heat transfer cell, for introducing the liquid to be evaporated into the mixing-evaporation stack, as well as at least one mixing gas inlet for introducing a gas to be mixed with the evaporated liquid into the mixing-evaporation stack, and at least one mixed gas outlet from the last heat transfer cell for the gaseous fluid mixture to leave the mixing-evaporation stack, the at least one mixing gas inlet being connected to the mixing-evaporation stack at a location between the heat transfer tube outlets of the first heat transfer cell and the heat transfer tube inlets of the last heat transfer cell of each mixing-evaporation stack.