mhurhangee/ep-ind-claims huggingface dataset:
A method for stimulating production of hydrocarbons from a sandstone formation, the method comprising the steps of: injecting a stimulation fluid into the sandstone formation, the stimulation fluid comprising a hydrofluoric acid generating precursor and an oxidizing agent, where one or both of the hydrofluoric acid generating precursor and the oxidizing agent comprise a degradable encapsulation; injecting an ammonium containing compound into the sandstone formation; injecting a nitrite containing compound into the sandstone formation; and maintaining the stimulation fluid, the ammonium containing compound, and the nitrite containing compound in the sandstone formation to: initiate reaction of the ammonium containing compound and the nitrite containing compound to generate heat and nitrogen gas, where upon generation of heat within the formation and degradation of the degradable encapsulation, the hydrofluoric acid generating precursor and the oxidizing agent react to form hydrofluoric acid in-situ; and dissolve silica and silicate minerals to stimulate the sandstone formation. injecting a stimulation fluid into the sandstone formation, the stimulation fluid comprising a hydrofluoric acid generating precursor and an oxidizing agent, where one or both of the hydrofluoric acid generating precursor and the oxidizing agent comprise a degradable encapsulation; injecting an ammonium containing compound into the sandstone formation; injecting a nitrite containing compound into the sandstone formation; and maintaining the stimulation fluid, the ammonium containing compound, and the nitrite containing compound in the sandstone formation to: initiate reaction of the ammonium containing compound and the nitrite containing compound to generate heat and nitrogen gas, where upon generation of heat within the formation and degradation of the degradable encapsulation, the hydrofluoric acid generating precursor and the oxidizing agent react to form hydrofluoric acid in-situ; and dissolve silica and silicate minerals to stimulate the sandstone formation. initiate reaction of the ammonium containing compound and the nitrite containing compound to generate heat and nitrogen gas, where upon generation of heat within the formation and degradation of the degradable encapsulation, the hydrofluoric acid generating precursor and the oxidizing agent react to form hydrofluoric acid in-situ; and dissolve silica and silicate minerals to stimulate the sandstone formation.
Iron complex of formula (Ia), wherein the variables have the following meaning: R 1A - R 2A independently of one another denote hydrogen or C 1 -C 20 -alkyl, R 3A R 5A, R 8A and R 10A independently of one another denote hydrogen or C 1 -C 22 -alkyl, R 15A independently of one another denote hydrogen or C 1 -C 20 -alkyl, R 17A and R 19A independently of one another denote hydrogen or C 1 -C 22 -alkyl, E 1A - E 3A denote carbon, u is 1, X A independently of one another denote fluorine, chlorine, bromine, iodine, BF 4 -, PF 6 - or bulky non-coordinating anions, s is 1 or 2, t is 0 to 4, and D 1A is a neutral donor, wherein R 7A and R 16A are chlorine or bromine and R 6A, R 9A, R 18A and R 20A are methyl, ethyl, n-propyl, iso-propyl, n-butyl, iso-butyl and/or tert.-butyl. R 1A - R 2A independently of one another denote hydrogen or C 1 -C 20 -alkyl, R 3A R 5A, R 8A and R 10A independently of one another denote hydrogen or C 1 -C 22 -alkyl, R 15A independently of one another denote hydrogen or C 1 -C 20 -alkyl, R 17A and R 19A independently of one another denote hydrogen or C 1 -C 22 -alkyl, E 1A - E 3A denote carbon, u is 1, X A independently of one another denote fluorine, chlorine, bromine, iodine, BF 4 -, PF 6 - or bulky non-coordinating anions, s is 1 or 2, t is 0 to 4, and D 1A is a neutral donor,
A machine implemented method for scrolling on a touch-sensitive display of a device comprising: receiving a user input, the user input being one or more input points applied to the touch sensitive display; creating an event object in response to the user input; determining whether the event object invokes a scroll or gesture operation by distinguishing between the user input consisting of a single input point that moves a distance across the touch sensitive display that is interpreted as the scroll operation, and the user input consisting of a plurality of input points applied to the touch-sensitive display that are interpreted as the gesture operation; and issuing at least one scroll or gesture call based on invoking the scroll or gesture operation, wherein the gesture operation is at least one of a scaling operation and a rotating operation. receiving a user input, the user input being one or more input points applied to the touch sensitive display; creating an event object in response to the user input; determining whether the event object invokes a scroll or gesture operation by distinguishing between the user input consisting of a single input point that moves a distance across the touch sensitive display that is interpreted as the scroll operation, and the user input consisting of a plurality of input points applied to the touch-sensitive display that are interpreted as the gesture operation; and issuing at least one scroll or gesture call based on invoking the scroll or gesture operation, wherein the gesture operation is at least one of a scaling operation and a rotating operation.
A gearbox comprising: a housing comprising a plurality of walls defining an internal chamber; characterized by an additively manufactured heat exchanger formed within the chamber on at least one of the plurality of walls, the heat exchanger comprising a plurality of heat exchange passageways (132, 134), wherein the plurality of heat exchange passageways (132, 134) comprise a plurality of first heat exchange passageways that are configured for receiving air, fuel, or oil, and a plurality of second heat exchange passageways that are configured for receiving air, fuel, or oil, wherein the first heat exchange passageways and the second heat exchange passageways are configured in a cross-flow, counter-flow, or parallel-flow arrangement. a housing comprising a plurality of walls defining an internal chamber; characterized by an additively manufactured heat exchanger formed within the chamber on at least one of the plurality of walls, the heat exchanger comprising a plurality of heat exchange passageways (132, 134), wherein the plurality of heat exchange passageways (132, 134) comprise a plurality of first heat exchange passageways that are configured for receiving air, fuel, or oil, and a plurality of second heat exchange passageways that are configured for receiving air, fuel, or oil, wherein the first heat exchange passageways and the second heat exchange passageways are configured in a cross-flow, counter-flow, or parallel-flow arrangement.
Cationic microparticle of a diameter comprised between 1 nm and 100 μm whose shell comprises: - one or more polymer(s) chosen among the polycaprolactone, the polylactic acid, the ethyl cellulose, the polymethyl methacrylate and a copolymer of acrylate and ammonium methacrylate; and - a stabilizing agent chosen among the hexadecyltrimethylammonium bromide, the benzethonium chloride, the polyvinyl alcohol and the amino-dextran; the stabilizing agent/polymer weight ratio being comprised between 0.001 and 0.5. - one or more polymer(s) chosen among the polycaprolactone, the polylactic acid, the ethyl cellulose, the polymethyl methacrylate and a copolymer of acrylate and ammonium methacrylate; and - a stabilizing agent chosen among the hexadecyltrimethylammonium bromide, the benzethonium chloride, the polyvinyl alcohol and the amino-dextran;
A method of obtaining location service, comprising: exchanging at least one message between a terminal and a location server (130a, 130b) once to establish an extended location session of a particular duration, including sending a first message from the terminal to the location server (130a, 130b) to initiate establishment of the extended location session, and receiving a second message sent by the location server (130a, 130b) to the terminal to acknowledge establishment of the extended location session, the first message comprising positioning capabilities of the terminal, and the second message comprising positioning capabilities of the location server (130a, 130b); and obtaining location service (130a, 130b) by the terminal a plurality of times from the location server as part of the extended location session at any time within the particular duration of the extended location session. exchanging at least one message between a terminal and a location server (130a, 130b) once to establish an extended location session of a particular duration, including sending a first message from the terminal to the location server (130a, 130b) to initiate establishment of the extended location session, and receiving a second message sent by the location server (130a, 130b) to the terminal to acknowledge establishment of the extended location session, the first message comprising positioning capabilities of the terminal, and the second message comprising positioning capabilities of the location server (130a, 130b); and obtaining location service (130a, 130b) by the terminal a plurality of times from the location server as part of the extended location session at any time within the particular duration of the extended location session.
A method for disinfection of air which includes: creating a unipolar corona discharge zone between an ionizing portion of a first electrode and a non-ionizing second electrode by applying high DC voltage (22', 22") across the first and second electrodes; conveying an air flow through the corona discharge zone in order to convert water molecules in the air flow to hydrogen peroxide molecules owing to reaction of the water molecules with corona discharge ions; and generating an electric field between the non-ionizing portion of the first electrode and the second electrode across the air flow surrounding the corona discharge zone; characterized by: generating respective auxiliary electric fields (27', 27") between the second electrode and respective auxiliary electrodes (17', 17") disposed respectively upstream and downstream of the corona discharge zone so as generate respective DC electric fields (27', 27") surrounding the corona discharge zone, for preventing ions escaping from the corona discharge zone into the atmosphere and for impeding dust found in the air flow from settling onto the ionizing portion of the first electrode. creating a unipolar corona discharge zone between an ionizing portion of a first electrode and a non-ionizing second electrode by applying high DC voltage (22', 22") across the first and second electrodes; conveying an air flow through the corona discharge zone in order to convert water molecules in the air flow to hydrogen peroxide molecules owing to reaction of the water molecules with corona discharge ions; and generating an electric field between the non-ionizing portion of the first electrode and the second electrode across the air flow surrounding the corona discharge zone; characterized by: generating respective auxiliary electric fields (27', 27") between the second electrode and respective auxiliary electrodes (17', 17") disposed respectively upstream and downstream of the corona discharge zone so as generate respective DC electric fields (27', 27") surrounding the corona discharge zone, for preventing ions escaping from the corona discharge zone into the atmosphere and for impeding dust found in the air flow from settling onto the ionizing portion of the first electrode.
A composition for use in treating, preventing, or reducing the progression rate and/or severity of myelofibrosis or one or more complications of myelofibrosis in a patient, wherein the composition comprises: a) a Janus kinase inhibitor; and b) an ActRIIB antagonist, wherein the Janus kinase inhibitor and ActRIIB antagonist are administered in an effective amount, wherein the Janus kinase inhibitor is selected from the group consisting of: ruxolitinib, fedratinib, monoelotinib, pacritinib, lestaurtinib, AZD-1480, BMS-911543, NS-018, LY2784544, SEP-701, XL019, and AT-9283, and wherein the ActRIIB antagonist is an ActRIIB polypeptide comprising an amino acid sequence that is at least 90% identical to a sequence starting at a residue corresponding to any one of amino acids 20, 21, 22, 23, 24, 25, 26, 27, 28, or 29 of SEQ ID NO: 1 and ending at a residue corresponding to any one of amino acids 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, or 134 of SEQ ID NO: 1; and wherein the ActRIIB polypeptide comprises an acidic amino acid at the amino acid position corresponding to position 79 of SEQ ID NO: 1, and wherein the ActRIIB polypeptide inhibits GDF11 without inhibiting activin A.
A method for downloading write requests (Req TD) of applications software data into at least one memory of one or more computers (4, 4a, 4b), the write requests (Req TD) being transmitted to the computer(s) (4, 4a, 4b) in initial frames in a first local area network, then, after conversion into modified frames, in a second time-division multiplexing network having a plurality of communication channels, each channel being assigned to a computer (4, 4a, 4b), this second network being parameterised according to a repetitive communication cycle, this communication cycle including the sending of one modified frame per channel (4, 4a, 4b), characterized in that: - for the conversion, the initial frames are segmented into modified frames, each containing a number of bytes less than or equal to a maximum number (Vmax) permissible by the channel associated with the computer in the second network; - when, during the communication cycle, one or more free channels exist because the write requests intended for one or more computers are terminated, the free channels are reassigned to the remaining computer(s) in the course of downloading for sending additional modified frames, - in the remaining computer(s) (4, 4a, 4b) the write request (Req TD) intended for it/them is recomposed by grouping of the modified frames and memory write of software data. - for the conversion, the initial frames are segmented into modified frames, each containing a number of bytes less than or equal to a maximum number (Vmax) permissible by the channel associated with the computer in the second network; - when, during the communication cycle, one or more free channels exist because the write requests intended for one or more computers are terminated, the free channels are reassigned to the remaining computer(s) in the course of downloading for sending additional modified frames, - in the remaining computer(s) (4, 4a, 4b) the write request (Req TD) intended for it/them is recomposed by grouping of the modified frames and memory write of software data.
A TLR9 agonist for use in a method of treating, inhibiting, or attenuating a microbial infection comprising administering an effective amount of a TLR9 agonist and a TLR2/6 agonist to an individual that has or is at risk of developing or acquiring a microbial infection; wherein said TLR2/6 agonist is a synthetic diacylated lipopolypeptide.
A liquid seasoning containing edible plant ingredients and satisfying the requirements to below. The content of an edible-plant-ingredient fraction A, which remains on a sieve with an opening of 2.50 centimeters, is 10 mass % or higher. The content of an edible-plant-ingredient fraction B, which passes through a sieve with an opening of 2.50 centimeters and remains on a sieve with an opening of 75 micrometers, is 10 mass % or higher and 80 mass % or lower. The hexanal content in the ingredient fraction A in terms of oil-and-fat mass basis is 1 ppb or higher and 15000 ppb or lower. The dimethyl disulfide (DMDS) content in the ingredient fraction B in terms of wet mass basis is 0.01 ppb or higher and 1000 ppb or lower. The mass ratio of the hexanal content in the ingredient fraction A in terms of oil-and-fat mass basis to the hexanal content in the ingredient fraction B in terms of oil-and-fat mass basis is higher than 1.0. The content of an edible-plant-ingredient fraction A, which remains on a sieve with an opening of 2.50 centimeters, is 10 mass % or higher. The content of an edible-plant-ingredient fraction B, which passes through a sieve with an opening of 2.50 centimeters and remains on a sieve with an opening of 75 micrometers, is 10 mass % or higher and 80 mass % or lower. The hexanal content in the ingredient fraction A in terms of oil-and-fat mass basis is 1 ppb or higher and 15000 ppb or lower. The dimethyl disulfide (DMDS) content in the ingredient fraction B in terms of wet mass basis is 0.01 ppb or higher and 1000 ppb or lower. The mass ratio of the hexanal content in the ingredient fraction A in terms of oil-and-fat mass basis to the hexanal content in the ingredient fraction B in terms of oil-and-fat mass basis is higher than 1.0.
Polyisocyanate mixture comprising at least one polyisocyanate based on 1,5-diisocyanatopentane and at least one organic solvent, the organic solvent being inert toward isocyanate groups, and the polyisocyanate mixture having a solids content of ≥ 35 and ≤ 65 wt%.
Use of a silicon nitride powder for a mold release material for a mold for casting a polycrystalline silicon ingot, which consists essentially of primary particles of granular crystals monodispersed in the silicon nitride powder, and aggregated silicon nitride particles, wherein a percentage of primary particles of granular crystals monodispersed in the silicon nitride powder are not less than 95% in terms of an area ratio of silicon nitride particules, calculated from analysis of a scanning electron microscope image of the powder, and wherein a specific surface area value of the silicon nitride powder is between 0.5 and 13 m 2 /g.
Mould for processing thermoformable panels or workpieces, comprising at least one first and one second half-moulds (2, 3), between which a workpiece can be placed, inserts (20-22, 30-32, 40) arranged in at least one of the half-moulds (2, 3) in an area of contact with the workpiece, means (20a-22a, 30a-32a, 40a) for circulating a thermal conditioning fluid in the inserts (20-22, 30-32, 40), characterized in that the mould comprises a compensation layer to be interposed between the workpiece and a surface of the mould and of the inserts (20-22, 30-32, 40), wherein the compensation layer is adapted to prevent the formation of marks and/or impressions of the inserts (20-22, 30-32, 40) on the surface of the workpiece, by compensating for, or absorbing, any discontinuities due to gaps between the inserts (20-22, 30-32, 40) or between the inserts (20-22, 30-32, 40) and the rest of the mould.
Method of manufacturing a rear axle support of a motor vehicle consisting of a first support part and two further support parts, characterised in that the first support part is bent, punched, embossed and finished in a first manufacturing station and the two further support parts in a second manufacturing station in respectively a single clamping, wherein the first support part and the two further support parts are manufactured alternately.
A food packaging material comprising a polyolefin and vitamin E, characterized in that it further comprises a Quebracho wood extract comprising condensed tannins, and in that the content of condensed tannins in the material for packaging food is at least 0.1% by weight relative to the weight of the food packaging material.
A method for determining a property of at least one particle in a medium, comprising: providing a sample of the medium containing said at least one particle; emitting, with a light source, a coherent light beam to irradiate the sample, wherein a first part of the light beam is scattered by the at least one particle to create a scattered light beam; recording, with a camera, an interference image of the scattered light beam and a second part of the light beam that has not been scattered by the at least one particle; computing (S 1), with a processor, for each one of a plurality of positions which are three-dimensionally distributed within the sample, an electric field (E 1) of the first part of the light beam at that position from the interference image; generating (S 2), with the processor, a representation of the sample covering said positions and comprising, for each of said positions, a phase value (ξ), determined from the computed electric field (E 1) and from an estimated electric field (E 2) of the second part of the light beam both at that position, and an intensity value, determined from the intensity (I 1) of the first part of the light beam and from the determined phase value (ξ) both at that position; and determining (S 3), with the processor, said property using the representation. providing a sample of the medium containing said at least one particle; emitting, with a light source, a coherent light beam to irradiate the sample, wherein a first part of the light beam is scattered by the at least one particle to create a scattered light beam; recording, with a camera, an interference image of the scattered light beam and a second part of the light beam that has not been scattered by the at least one particle; computing (S 1), with a processor, for each one of a plurality of positions which are three-dimensionally distributed within the sample, an electric field (E 1) of the first part of the light beam at that position from the interference image; generating (S 2), with the processor, a representation of the sample covering said positions and comprising, for each of said positions, a phase value (ξ), determined from the computed electric field (E 1) and from an estimated electric field (E 2) of the second part of the light beam both at that position, and an intensity value, determined from the intensity (I 1) of the first part of the light beam and from the determined phase value (ξ) both at that position; and determining (S 3), with the processor, said property using the representation.
A method for data transmission, the method comprising: receiving, by a first terminal, data sent by a second terminal; and sending, by the first terminal, a physical sidelink feedback channel to the second terminal, the physical sidelink feedback channel comprising feedback information, the feedback information corresponding to the data sent by the second terminal and comprising Acknowledgement, ACK, information or Negative Acknowledgement, NACK, information, wherein the physical sidelink feedback channel is used to send only the feedback information, the method being characterized in that the physical sidelink feedback channel and the data received from the second terminal by the first terminal are positioned in a same subframe, and in that the physical sidelink feedback channel occupies last 4 time domain symbols of 14 time-domain symbols of the subframe. receiving, by a first terminal, data sent by a second terminal; and sending, by the first terminal, a physical sidelink feedback channel to the second terminal, the physical sidelink feedback channel comprising feedback information, the feedback information corresponding to the data sent by the second terminal and comprising Acknowledgement, ACK, information or Negative Acknowledgement, NACK, information, wherein the physical sidelink feedback channel is used to send only the feedback information, the method being characterized in that the physical sidelink feedback channel and the data received from the second terminal by the first terminal are positioned in a same subframe, and in that the physical sidelink feedback channel occupies last 4 time domain symbols of 14 time-domain symbols of the subframe.