mhurhangee/patent-ind-claim-en huggingface dataset:
A sheet storing apparatus , comprising: an inlet section configured to take in sheets from outside of the apparatus into the apparatus; a storing unit configured to mount a storage bag in a storing area of the storage unit , the storage bag being for storing the sheets taken in into the apparatus; and a recognition unit configured to count the number of sheets to be stored in the storage bag mounted in the storing area of the storing unit , wherein the storing unit includes: a holding section configured to hold the storage bag mounted in the storing area of the storing unit ; a support section configured to support the sheets stored in the storage bag from below via the storage bag ; a pressing section configured to press the sheets stored in the storage bag ; and a drive section configured to move up and down the support section between an initial position and a final position and to move up and down the pressing section , characterized by further comprising a control section configured to control the drive section so that the drive section moves up and down the support section and moves up and down the pressing section based on the number of sheets counted by the recognition unit . an inlet section configured to take in sheets from outside of the apparatus into the apparatus; a storing unit configured to mount a storage bag in a storing area of the storage unit , the storage bag being for storing the sheets taken in into the apparatus; and a recognition unit configured to count the number of sheets to be stored in the storage bag mounted in the storing area of the storing unit , wherein the storing unit includes: a holding section configured to hold the storage bag mounted in the storing area of the storing unit ; a support section configured to support the sheets stored in the storage bag from below via the storage bag ; a pressing section configured to press the sheets stored in the storage bag ; and a drive section configured to move up and down the support section between an initial position and a final position and to move up and down the pressing section , characterized by further comprising a holding section configured to hold the storage bag mounted in the storing area of the storing unit ; a support section configured to support the sheets stored in the storage bag from below via the storage bag ; a pressing section configured to press the sheets stored in the storage bag ; and a drive section configured to move up and down the support section between an initial position and a final position and to move up and down the pressing section , characterized by further comprising a control section configured to control the drive section so that the drive section moves up and down the support section and moves up and down the pressing section based on the number of sheets counted by the recognition unit .
A method of evaluating powder for lamination shaping, wherein whether or not the powder is spread into a uniform powder layer on a table of a laminating and shaping apparatus in the lamination shaping is evaluated using an adhesive force of the powder calculated from a failure envelope obtained by a shear test of the powder, the shear test being conducted by a powder rheometer, the adhesive force is obtained as a shearing stress when a normal stress is zero on the failure envelope at the powder rheometer, wherein the powder is evaluated further using an apparent density of the powder, and wherein if the adhesive force is equal to or less than 0.450 kPa, and the apparent density of the powder measured according to JIS Z 2504 is equal to or more than 3.5 g/cm 3 , the powder is evaluated to be spread into a uniform powder layer in the lamination shaping. the adhesive force is obtained as a shearing stress when a normal stress is zero on the failure envelope at the powder rheometer, wherein the powder is evaluated further using an apparent density of the powder, and wherein if the adhesive force is equal to or less than 0.450 kPa, and the apparent density of the powder measured according to JIS Z 2504 is equal to or more than 3.5 g/cm 3 , the powder is evaluated to be spread into a uniform powder layer in the lamination shaping. the adhesive force is equal to or less than 0.450 kPa, and the apparent density of the powder measured according to JIS Z 2504 is equal to or more than 3.5 g/cm 3 , the powder is evaluated to be spread into a uniform powder layer in the lamination shaping.
Method to protect a data file (DF) to be used by a white-box cryptography software application (WBCA) installed in memory (MEM) of a device (D) to prevent the malevolent use of a digital copy of the data file (DF) by a white-box cryptography software application installed in memory of another device, said method comprising the steps of: - extracting (S1) a unique identifier (ID) for the device (D) from the environment (ENVT) of the device (D), - modifying (S2) data in the data file (DF) according to the unique identifier (ID), - the available white-box cryptography software application (WBCA) being such that it comprises a software security layer adapted to, when the WBC software application (WBCA) is executed (T1), retrieve (T3) the unique identifier (ID) from the environment (ENVT) of the device (D) in which it is installed and to use (T2) this unique identifier (ID) in combination with the stored data file (DF) in its execution (T4), modifying the access to provisioned data contained in data file (DF) of the WBC software application (WBCA) depending on the unique identifier (ID), wherein the modification is chosen among a key based random permutation of data in the data file (DF) based on the unique identifier (ID), a XOR operation with the unique identifier (ID), a Pseudo Random Number Generation seeded with the unique identifier (ID), an encryption mechanism keyed with the unique identifier (ID). - extracting (S1) a unique identifier (ID) for the device (D) from the environment (ENVT) of the device (D), - modifying (S2) data in the data file (DF) according to the unique identifier (ID), - the available white-box cryptography software application (WBCA) being such that it comprises a software security layer adapted to, when the WBC software application (WBCA) is executed (T1), retrieve (T3) the unique identifier (ID) from the environment (ENVT) of the device (D) in which it is installed and to use (T2) this unique identifier (ID) in combination with the stored data file (DF) in its execution (T4), modifying the access to provisioned data contained in data file (DF) of the WBC software application (WBCA) depending on the unique identifier (ID),
A communication control device that controls radio communication conducted by a terminal device according to a time-division duplex, TDD, scheme on a radio communication network , the communication control device comprising: a configuration section that configures, for each frame that includes a plurality of subframes, a link direction configuration expressing a link direction per subframe for the radio communication, and a signaling section that signals, to the terminal device, the link direction configuration, characterised in that the configuration section further configures a timing of control signaling in a second link direction which is associated with data transmission in a first link direction in the radio communication, and which is opposite to the first link direction, and the signaling section further signals separately, to the terminal device, the timing of control signaling configured by the configuration section. a configuration section that configures, for each frame that includes a plurality of subframes, a link direction configuration expressing a link direction per subframe for the radio communication, and a signaling section that signals, to the terminal device, the link direction configuration, characterised in that the configuration section further configures a timing of control signaling in a second link direction which is associated with data transmission in a first link direction in the radio communication, and which is opposite to the first link direction, and the signaling section further signals separately, to the terminal device, the timing of control signaling configured by the configuration section.
A method comprising: establishing a melt stream of a source material in an extruder ; dosing a composite material into the melt stream, the composite material including carbon reinforcing fibers comprising carbon reinforcing filaments pre-impregnated by a polymeric material , the composite material having at least 30% of the reinforcing filaments protected by the polymeric material such that the polymeric material surrounds each filament completely forming a barrier between it and an adjacent filament in the at least 30% of the filaments; forming a molding compound from the source and composite materials ; dispensing the molding compound from the extruder ; and using the molding compound to produce a part, wherein the composite material is in a form of pellets and/or flakes. establishing a melt stream of a source material in an extruder ; dosing a composite material into the melt stream, the composite material including carbon reinforcing fibers comprising carbon reinforcing filaments pre-impregnated by a polymeric material , the composite material having at least 30% of the reinforcing filaments protected by the polymeric material such that the polymeric material surrounds each filament completely forming a barrier between it and an adjacent filament in the at least 30% of the filaments; forming a molding compound from the source and composite materials ; dispensing the molding compound from the extruder ; and using the molding compound to produce a part, wherein the composite material is in a form of pellets and/or flakes.
A three-phase active harmonic filter , the filter comprising: a three-phase converter having inputs for connection to a three-phase AC source , the three-phase converter having three phase legs , wherein each phase leg of the three phase legs of the three-phase converter includes a first switching device operably connected to a first power supply rail and a second switching device operably connected to a second supply rail; a controller operably connected to the three-phase converter , the controller being configured to: determine an operational characteristic of the active harmonic filter and operable to control the first and second switching devices of each phase leg of the three phase legs with a first pulse width modulation strategy; characterised in that the three-phase active harmonic filter is configured to employ multiple pulse width modulation strategies, and the controller further being configured to: compare the operational characteristic on the active harmonic filter to a selected threshold; and employ a second pulse width modulation strategy if the operational characteristic exceeds a selected threshold. a three-phase converter having inputs for connection to a three-phase AC source , the three-phase converter having three phase legs , wherein each phase leg of the three phase legs of the three-phase converter includes a first switching device operably connected to a first power supply rail and a second switching device operably connected to a second supply rail; a controller operably connected to the three-phase converter , the controller being configured to: determine an operational characteristic of the active harmonic filter and operable to control the first and second switching devices of each phase leg of the three phase legs with a first pulse width modulation strategy; characterised in that the three-phase active harmonic filter is configured to employ multiple pulse width modulation strategies, and the controller further being configured to: compare the operational characteristic on the active harmonic filter to a selected threshold; and employ a second pulse width modulation strategy if the operational characteristic exceeds a selected threshold. determine an operational characteristic of the active harmonic filter and operable to control the first and second switching devices of each phase leg of the three phase legs with a first pulse width modulation strategy; characterised in that the three-phase active harmonic filter is configured to employ multiple pulse width modulation strategies, and the controller further being configured to: compare the operational characteristic on the active harmonic filter to a selected threshold; and employ a second pulse width modulation strategy if the operational characteristic exceeds a selected threshold. compare the operational characteristic on the active harmonic filter to a selected threshold; and employ a second pulse width modulation strategy if the operational characteristic exceeds a selected threshold.
A sensor module for insertion or integration into a lighting device , said sensor module comprising: a memory ; at least one sensor ; at least one output interface ; and at least one processor , characterized in that the memory is configured to store processing methods associated with different types of lighting devices; and in that the at least one processor is configured to: - obtain lighting device information when said sensor module is inserted or integrated into said lighting device , said lighting device information being indicative of a type of said lighting device , - store said lighting device information in said memory , - select, from said processing methods stored in said memory , a processing method in accordance with said type of said lighting device , - obtain sensor data from said at least one sensor , - apply said selected processing method to said sensor data to produce sensing results, and - output said sensing results via said at least one output interface . a memory ; at least one sensor ; at least one output interface ; and at least one processor , characterized in that the memory is configured to store processing methods associated with different types of lighting devices; and in that the at least one processor is configured to: - obtain lighting device information when said sensor module is inserted or integrated into said lighting device , said lighting device information being indicative of a type of said lighting device , - store said lighting device information in said memory , - select, from said processing methods stored in said memory , a processing method in accordance with said type of said lighting device , - obtain sensor data from said at least one sensor , - apply said selected processing method to said sensor data to produce sensing results, and - output said sensing results via said at least one output interface . - obtain lighting device information when said sensor module is inserted or integrated into said lighting device , said lighting device information being indicative of a type of said lighting device , - store said lighting device information in said memory , - select, from said processing methods stored in said memory , a processing method in accordance with said type of said lighting device , - obtain sensor data from said at least one sensor , - apply said selected processing method to said sensor data to produce sensing results, and - output said sensing results via said at least one output interface .
Process for synthesizing an alloy based on a block copolymer comprising at least one rigid polyamide block PA, comprising the following steps: - I- production of at least one polyamide block PA; - II- polycondensation of at least one soft block SB having a glass transition temperature Tg below 15°C, with said at least one polyamide block PA so as to obtain a block copolymer; and - III- recovery of said block copolymer alloy, step III comprising the following substeps: - III-1- adjustment of the viscosity of the copolymer alloy, - III-2- extrusion of the copolymer alloy, and - III-3- stoving of the alloy, and comprising the addition to the block copolymer, during step III, of 0.1% to 30% by weight of at least one organic salt in the molten state, relative to the total weight of alloy; such that the alloy obtained has improved antistatic properties and identical mechanical properties compared with the same copolymer produced without adding an organic salt, the organic salt being added to the block copolymer, during step III-3, by means of an impregnation liquid containing the organic salt pure or diluted in a solvent. - I- production of at least one polyamide block PA; - II- polycondensation of at least one soft block SB having a glass transition temperature Tg below 15°C, with said at least one polyamide block PA so as to obtain a block copolymer; and - III- recovery of said block copolymer alloy, - III-1- adjustment of the viscosity of the copolymer alloy, - III-2- extrusion of the copolymer alloy, and - III-3- stoving of the alloy,
A core-shell copolymer comprising: a core including a layer derived from an emulsifying initiator, and a core forming monomer-derived repeating unit, bound to the emulsifying initiator-derived layer, and a shell including a shell forming monomer-derived repeating unit, wherein the content of the emulsifying initiator-derived layer is 2% by weight to 20% by weight, the content of the core forming monomer-derived repeating unit is 40% by weight to 88% by weight, and the content of the shell forming monomer-derived repeating unit is 10% by weight to 40% by weight, based on the total content of the core-shell copolymer, wherein the emulsifying initiator comprises a surfactant part, an initiator part, and a vinyl monomer-derived repeating unit, the surfactant part including an organic acid-based monomer-derived repeating unit, and the initiator part including a peroxide-based monomer-derived repeating unit, wherein the content of the organic acid-based monomer-derived repeating unit is more than 2.5% by weight and less than 40% by weight, the content of the peroxide-based monomer-derived repeating unit is more than 2.5% by weight and less than 40% by weight, and the content of the vinyl monomer-derived repeating unit is more than 20% by weight and less than 95% by weight, based on the total content of the emulsifying initiator, and wherein the emulsifying initiator has a weight average molecular weight of 5,000 g/mol to 200,000 g/mol. a core including a layer derived from an emulsifying initiator, and a core forming monomer-derived repeating unit, bound to the emulsifying initiator-derived layer, and a shell including a shell forming monomer-derived repeating unit, wherein the content of the emulsifying initiator-derived layer is 2% by weight to 20% by weight, the content of the core forming monomer-derived repeating unit is 40% by weight to 88% by weight, and the content of the shell forming monomer-derived repeating unit is 10% by weight to 40% by weight, based on the total content of the core-shell copolymer, wherein the emulsifying initiator comprises a surfactant part, an initiator part, and a vinyl monomer-derived repeating unit, the surfactant part including an organic acid-based monomer-derived repeating unit, and the initiator part including a peroxide-based monomer-derived repeating unit, wherein the content of the organic acid-based monomer-derived repeating unit is more than 2.5% by weight and less than 40% by weight, the content of the peroxide-based monomer-derived repeating unit is more than 2.5% by weight and less than 40% by weight, and the content of the vinyl monomer-derived repeating unit is more than 20% by weight and less than 95% by weight, based on the total content of the emulsifying initiator, and wherein the emulsifying initiator has a weight average molecular weight of 5,000 g/mol to 200,000 g/mol.
A computer-implemented method of refining an earth model of a reservoir formation integrating reservoir related data, the method comprising: (i) selecting , by computer system, cells in a mesh to be refined in a determined direction within a three-dimensional space representing the reservoir formation, the selecting by: determining a location of a fracture within the earth model; identifying cells in a near-fracture region, based on the location of the fracture; determining a target size of edges of the identified near-fracture cells; determining whether edges of the near-fracture cells in the determined direction are longer than the target size times a scalar variable; and identifying the near-fracture cells having edges in the determined direction which are determined to be longer than the target size times the scalar variable; (ii) anisotropically refining the near-fracture cells having edges in the determined direction which are determined to be longer than the target size times the scalar variable ; and (iii) resolving a fracture network within the earth model using the refined cells ; thereby to generate a refined earth model for use in reservoir simulation for well planning and placement, the refined earth model having an improved mesh resolution in the near-fracture region. (i) selecting , by computer system, cells in a mesh to be refined in a determined direction within a three-dimensional space representing the reservoir formation, the selecting by: determining a location of a fracture within the earth model; identifying cells in a near-fracture region, based on the location of the fracture; determining a target size of edges of the identified near-fracture cells; determining whether edges of the near-fracture cells in the determined direction are longer than the target size times a scalar variable; and identifying the near-fracture cells having edges in the determined direction which are determined to be longer than the target size times the scalar variable; determining a location of a fracture within the earth model; identifying cells in a near-fracture region, based on the location of the fracture; determining a target size of edges of the identified near-fracture cells; determining whether edges of the near-fracture cells in the determined direction are longer than the target size times a scalar variable; and identifying the near-fracture cells having edges in the determined direction which are determined to be longer than the target size times the scalar variable; (ii) anisotropically refining the near-fracture cells having edges in the determined direction which are determined to be longer than the target size times the scalar variable ; and (iii) resolving a fracture network within the earth model using the refined cells ;
A method for purifying total mRNA from total RNA with SLFN13, comprising the following steps of: extracting total RNA: extracting complete total RNA from a sample by using a traditional TRIzol-chloroform method; performing enzyme digestion on tRNA and rRNA: taking purification of 10 μg total RNA as an example, adding 1 μl of 50 μM SLFN13 into 10 μl total RNA of 1 μg/μl, then adding 2 μl 10 × enzyme digestion buffer comprising 400 mM of Tris-HCl (pH 8.0), 200 mM of KCl, 40 mM of MgCl 2 and 20 mM of DTT, adding 7 μl of ddH 2 O to obtain 20 μl of an enzyme digestion system; and incubating the enzyme digestion system at room temperature for 30 min; and after the enzyme digestion, directly heating at 70°C for 15 min to inactivate SLFN13, so as to obtain purified total mRNA. extracting total RNA: extracting complete total RNA from a sample by using a traditional TRIzol-chloroform method; performing enzyme digestion on tRNA and rRNA: taking purification of 10 μg total RNA as an example, adding 1 μl of 50 μM SLFN13 into 10 μl total RNA of 1 μg/μl, then adding 2 μl 10 × enzyme digestion buffer comprising 400 mM of Tris-HCl (pH 8.0), 200 mM of KCl, 40 mM of MgCl 2 and 20 mM of DTT, adding 7 μl of ddH 2 O to obtain 20 μl of an enzyme digestion system; and incubating the enzyme digestion system at room temperature for 30 min; and after the enzyme digestion, directly heating at 70°C for 15 min to inactivate SLFN13, so as to obtain purified total mRNA.