mhurhangee/ep-ind-claims huggingface dataset:
A method of data extraction in a vector processor with aligned memory, the method characterized by: copying at least one data element to a source register of a permutation network; using a bit-mask to determine whether to select one or more data elements from the source register; in response to determining to select the one or more data elements, populating a destination register of the permutation network with the selected one or more data elements, wherein populating the destination register comprises filling a first set of the selected data elements into the destination register at positions higher than or equal to an offset position indicated by an offset pointer and in case of overflow filling a remaining set of the selected data elements into the destination register at positions lower than the offset position; and copying the selected one or more data elements from the destination register to the aligned memory according to an unaligned store pointer indicated by a predicated store operation wherein the unaligned store pointer indicates an offset to mask a partial store of the selected data elements in which data elements stored in the destination register at positions equal to or higher than the offset position indicated by the offset pointer are copied to locations higher than or equal to the position indicated by the store pointer. copying at least one data element to a source register of a permutation network; using a bit-mask to determine whether to select one or more data elements from the source register; in response to determining to select the one or more data elements, populating a destination register of the permutation network with the selected one or more data elements, wherein populating the destination register comprises filling a first set of the selected data elements into the destination register at positions higher than or equal to an offset position indicated by an offset pointer and in case of overflow filling a remaining set of the selected data elements into the destination register at positions lower than the offset position; and copying the selected one or more data elements from the destination register to the aligned memory according to an unaligned store pointer indicated by a predicated store operation wherein the unaligned store pointer indicates an offset to mask a partial store of the selected data elements in which data elements stored in the destination register at positions equal to or higher than the offset position indicated by the offset pointer are copied to locations higher than or equal to the position indicated by the store pointer.
An interfering ribonucleic acid that functions upon uptake by an insect pest species to down-regulate expression of a target gene in said insect pest, wherein the interfering RNA comprises at least one silencing element wherein said silencing element is a region of double-stranded RNA comprising annealed complementary strands, one strand of which comprises or consists of a sequence of at least 30 contiguous nucleotides that is at least 85% complementary to SEQ ID NO 389, or the complement thereof.
A thin-film heating device comprising: a base layer comprising a polymeric resistive layer in contact with a polymeric dielectric layer, the resistive layer comprising conductive filler, wherein the polymeric resistive layer has a sheet resistance in a range of from about 0.5 ohm/square to about 2 Megaohm/square; a bus bar layer adhered to the polymeric dielectric layer of the base layer, wherein the bus bar layer comprises a first patterned conductive material; and an electrode layer adhered to the polymeric resistive layer of the base layer, wherein the electrode layer comprises a second patterned conductive material and is electrically connected to the bus bar layer; the thin-film heating device being characterized in that the base layer further comprises an array of vias that provide paths for electrical connection between the electrode layer and the bus bar layer. a base layer comprising a polymeric resistive layer in contact with a polymeric dielectric layer, the resistive layer comprising conductive filler, wherein the polymeric resistive layer has a sheet resistance in a range of from about 0.5 ohm/square to about 2 Megaohm/square; a bus bar layer adhered to the polymeric dielectric layer of the base layer, wherein the bus bar layer comprises a first patterned conductive material; and an electrode layer adhered to the polymeric resistive layer of the base layer, wherein the electrode layer comprises a second patterned conductive material and is electrically connected to the bus bar layer; the thin-film heating device being characterized in that the base layer further comprises an array of vias that provide paths for electrical connection between the electrode layer and the bus bar layer.
A nozzle cleaner (23, 24) which cleans a nozzle of a dispensing mechanism having a liquid level detection function, comprising: a cleaning tank (13, 14, 206) which stores a cleaning solution; a first conductive member; and a first voltage control unit which controls a potential applied to the first conductive member, wherein the first voltage control unit applies a second potential, higher than a first potential applied to the nozzle in cleaning the nozzle, to the first conductive member, characterised in that the first conductive member is disposed to be immersed in the cleaning solution stored in the cleaning tank (13, 14, 206) in cleaning the nozzle, and the nozzle cleaner further comprises: an ultrasonic generation mechanism including a second conductive member, which is disposed to have at least a part of the second conductive member immersed in the cleaning solution stored in the cleaning tank (13, 14, 206) in cleaning the nozzle, and generates ultrasonic vibration in the cleaning solution stored in the cleaning tank; and a second voltage control unit which controls a potential applied to the second conductive member, wherein the second voltage control unit applies a potential equal to the first potential, or a third potential higher than the first potential to the second conductive member. a cleaning tank (13, 14, 206) which stores a cleaning solution; a first conductive member; and a first voltage control unit which controls a potential applied to the first conductive member, wherein the first voltage control unit applies a second potential, higher than a first potential applied to the nozzle in cleaning the nozzle, to the first conductive member, characterised in that the first conductive member is disposed to be immersed in the cleaning solution stored in the cleaning tank (13, 14, 206) in cleaning the nozzle, and the nozzle cleaner further comprises: an ultrasonic generation mechanism including a second conductive member, which is disposed to have at least a part of the second conductive member immersed in the cleaning solution stored in the cleaning tank (13, 14, 206) in cleaning the nozzle, and generates ultrasonic vibration in the cleaning solution stored in the cleaning tank; and a second voltage control unit which controls a potential applied to the second conductive member, wherein the second voltage control unit applies a potential equal to the first potential, or a third potential higher than the first potential to the second conductive member. an ultrasonic generation mechanism including a second conductive member, which is disposed to have at least a part of the second conductive member immersed in the cleaning solution stored in the cleaning tank (13, 14, 206) in cleaning the nozzle, and generates ultrasonic vibration in the cleaning solution stored in the cleaning tank; and a second voltage control unit which controls a potential applied to the second conductive member, wherein the second voltage control unit applies a potential equal to the first potential, or a third potential higher than the first potential to the second conductive member.
A prosthetic valve comprising: a radially expandable frame comprising an atrial flange, a ventricular skirt, an annular region, and a ventricular anchor tab, wherein the atrial flange is disposed on one end of the expandable frame and the ventricular skirt is disposed on an opposite end of the expandable frame, wherein the annular region is disposed between the atrial flange and the ventricular skirt, wherein the anchor tab is coupled to the ventricular skirt; and a constraining element coupled to the expandable frame, the constraining element configured to apply a hoop force to the expandable frame thereby controlling an amount of expansion or an amount of collapse of the expandable frame, wherein the constraining element is an adjustable constraining element configured to apply an adjustable hoop force to the expandable frame, wherein the adjustable constraining element comprises a lasso disposed around a perimeter of the atrial flange, wherein the expandable frame comprises a plurality of eyelets coupled to the perimeter of the atrial flange, and wherein the lasso is slidably disposed through the plurality of eyelets. a radially expandable frame comprising an atrial flange, a ventricular skirt, an annular region, and a ventricular anchor tab, wherein the atrial flange is disposed on one end of the expandable frame and the ventricular skirt is disposed on an opposite end of the expandable frame, wherein the annular region is disposed between the atrial flange and the ventricular skirt, wherein the anchor tab is coupled to the ventricular skirt; and a constraining element coupled to the expandable frame, the constraining element configured to apply a hoop force to the expandable frame thereby controlling an amount of expansion or an amount of collapse of the expandable frame, wherein the constraining element is an adjustable constraining element configured to apply an adjustable hoop force to the expandable frame, wherein the adjustable constraining element comprises a lasso disposed around a perimeter of the atrial flange, wherein the expandable frame comprises a plurality of eyelets coupled to the perimeter of the atrial flange, and wherein the lasso is slidably disposed through the plurality of eyelets.
A marker (10, 20, 52a-52d) for a medical instrument, the marker comprising: an inner ring consisting of one or more of copper, brass, gold, silver, or titanium; and a central opening, wherein a diameter of the central opening is 0.50 mm to 3.00 mm; characterized in that the marker comprises an outer coating consisting of one or more of nickel or iron oxide, wherein a thickness of the outer coating is 1 μm to 30 μm. an inner ring consisting of one or more of copper, brass, gold, silver, or titanium; and a central opening, wherein a diameter of the central opening is 0.50 mm to 3.00 mm;
A method for making a high tensile strength galvanized steel sheet with excellent formability, comprising steps of subjecting a slab having an elemental composition consisting of, in terms of % by mass, 0.05 to 0.3% of C, 0.01 to 2.5% of Si, 0.5 to 3.5% of Mn, 0.003 to 0.100% of P, 0.02% or less of S, 0.010 to 1.5% of Al, 0.007% or less of N, and optionally one or more of 0.005 to 2.00% of Cr, 0.005 to 2.00% of Mo, 0.005 to 2.00% of V, 0.005 to 2.00% of Ni, 0.005 to 2.00% of Cu, 0.01 to 0.20% of Ti, 0.01 to 0.20% of Nb, 0.0002 to 0.005% of B, 0.001 to 0.005% of Ca and 0.001 to 0.005% of REM, the remainder being Fe and unavoidable impurities, to hot rolling and cold rolling thereby making a cold rolled steel sheet, subjecting the cold rolled steel sheet to annealing including steps of heating and maintaining the steel sheet in a temperature range from 750 to 950°C for 10 seconds or more, cooling the steel sheet from 750°C to a temperature range from (Ms point -100°C) to (Ms point -200°C) at an average cooling rate of 10°C/s or more, and reheating and maintaining the steel sheet in a temperature range from 350 to 600°C for 1 to 600 seconds, and then subjecting the annealed steel sheet to galvanizing treatment.
A floor care nozzle comprising a nozzle housing, characterized in that the nozzle housing comprises at least one container that is provided with a mass (m) that is movable in the container with a vertical motion component, whereby the mass (m) is contained within the nozzle housing.
A process for the manufacture of an auto-oxidatively cross-linking hybrid polymer comprising the step of reacting in a mini-emulsion process, in the presence of a radical initiator and a surfactant, one or more ethylenically unsaturated monomers to form an addition polymer (also referred to as the vinyl polymer) in the presence of a modified auto-oxidatively crosslinkable polymer which is an alkyd resin comprising unsaturated fatty acids which has been modified with terminal unsaturated groups of the formula -C =CH2 wherein R1 can be hydrogen, alkyl or aryl, prepared by reacting A) carboxylic acid or -anhydride or B) hydroxyl reactive groups on the AOC alkyd polymer with a compound comprising the terminal unsaturated group and respectively A1) epoxy or A2) hydroxyl reactive groups or B1) carboxylic acid or -ester or B2) isocyanate reactive groups and wherein the modified AOC alkyd polymer is a hydrophobic alkyd polymer including acid groups that are carboxyl groups and having an acid value from 5 to 25 mg KOH/g and an oil length of the resin between 40 and 95%.
An animal feed composition comprising: a coated or encapsulated plant extract consisting of a vasodilator; and an ingredient selected from the group consisting of feed matter, a mineral, a vitamin, an amino acid, an antibiotic, and combinations of any thereof; wherein the animal feed composition is for consumption by a mammal and wherein the vasodilator is selected from the group consisting of capsaicin, dihydrocapsaicin, capsaicinoids, capsicum, macerated hot peppers, ground hot peppers, a capsicum containing plant material, and combinations of any thereof. a coated or encapsulated plant extract consisting of a vasodilator; and an ingredient selected from the group consisting of feed matter, a mineral, a vitamin, an amino acid, an antibiotic, and combinations of any thereof; wherein the animal feed composition is for consumption by a mammal and wherein the vasodilator is selected from the group consisting of capsaicin, dihydrocapsaicin, capsaicinoids, capsicum, macerated hot peppers, ground hot peppers, a capsicum containing plant material, and combinations of any thereof.
A method for producing a porous polymer film, comprising the steps of: irradiating a polymer film with an ion beam of accelerated ions so as to form a polymer film that has collided with the ions in the beam; and chemically etching the formed polymer film so as to form openings and/or through holes corresponding to tracks of the colliding ions left in the polymer film, wherein in the step, the polymer film is placed in an atmosphere with a pressure of 100 Pa or more, and the polymer film placed in the atmosphere is irradiated with the ion beam that has passed through a beam line maintained at a lower pressure than the pressure of the atmosphere and through a pressure barrier sheet disposed at an end of the beam line to separate the beam line from the atmosphere, wherein the pressure in the beam line is 10 -5 to 10 -3 Pa, wherein the pressure barrier sheet is a titanium sheet having a thickness of 10 to 50 μm or an aluminum sheet having a thickness of 13 to 53 μm. irradiating a polymer film with an ion beam of accelerated ions so as to form a polymer film that has collided with the ions in the beam; and chemically etching the formed polymer film so as to form openings and/or through holes corresponding to tracks of the colliding ions left in the polymer film, wherein in the step, the polymer film is placed in an atmosphere with a pressure of 100 Pa or more, and the polymer film placed in the atmosphere is irradiated with the ion beam that has passed through a beam line maintained at a lower pressure than the pressure of the atmosphere and through a pressure barrier sheet disposed at an end of the beam line to separate the beam line from the atmosphere, wherein the pressure in the beam line is 10 -5 to 10 -3 Pa, wherein the pressure barrier sheet is a titanium sheet having a thickness of 10 to 50 μm or an aluminum sheet having a thickness of 13 to 53 μm.
A sensor comprising: a conductive region in electrical communication with at least two electrodes, the conductive region including a conductive material including single-walled carbon nanotubes and an alkene-interacting metal complex, characterised by the alkene-interacting metal complex including a metal macrocycle complex capable of forming a stable complex by reaction with an alkene, wherein the metal macrocycle complex is a cobalt porphyrin.
A control method for fuel cell system capable of executing an idle stop operation to selectively stop power generation of a fuel cell according to a required output of a load and intermittently supply cathode gas to the fuel cell during an operation stop, comprising the steps of: setting an upper limit value and a lower limit value of an output voltage of the fuel cell during the idle stop operation; intermittently supplying the cathode gas with the output voltage of the fuel cell set at a value between the upper limit value and the lower limit value; detecting a wet/dry state of the fuel cell; setting a wet/dry appropriate range in which the wet/dry state of the fuel cell during the idle stop operation is appropriate; determining whether or not the detected wet/dry state of the fuel cell is within the set wet/dry appropriate range; and resetting the output voltage of the fuel cell through increasing at least one of the upper limit value or the lower limit value of the output voltage of the fuel cell if the detected wet/dry state of the fuel cell is determined to deviate to the wet side from the set wet/dry appropriate range; the cathode gas being intermittently supplied with the output voltage of the fuel cell set at a value between the upper limit value and the lower limit value of the output voltage after the resetting, in the cathode gas supplying step, if the output voltage of the fuel cell is reset. setting an upper limit value and a lower limit value of an output voltage of the fuel cell during the idle stop operation; intermittently supplying the cathode gas with the output voltage of the fuel cell set at a value between the upper limit value and the lower limit value; detecting a wet/dry state of the fuel cell; setting a wet/dry appropriate range in which the wet/dry state of the fuel cell during the idle stop operation is appropriate; determining whether or not the detected wet/dry state of the fuel cell is within the set wet/dry appropriate range; and resetting the output voltage of the fuel cell through increasing at least one of the upper limit value or the lower limit value of the output voltage of the fuel cell if the detected wet/dry state of the fuel cell is determined to deviate to the wet side from the set wet/dry appropriate range; the cathode gas being intermittently supplied with the output voltage of the fuel cell set at a value between the upper limit value and the lower limit value of the output voltage after the resetting, in the cathode gas supplying step, if the output voltage of the fuel cell is reset.
A method for managing tow end placement, the method comprising: detecting a start time at which movement of a tow is initiated for a layup process; and/or detecting a stop time at which movement of a tow is halted for a layup process; wherein detecting the start time comprises: determining a start latency between the start time and a start command time at which a start command to begin movement of the tow is received; determining whether the start latency is within a desired range; and adjusting a start timing offset used by a control system that controls tow layup in response to a determination that the start latency is not within the desired range, wherein detecting the stop time comprises: determining a stop latency between the stop time and a stop command time at which a stop command to halt movement of the tow is received, wherein adjusting the start timing offset comprises measuring a position of a first tow end of a test tow on a tuning surface. detecting a start time at which movement of a tow is initiated for a layup process; and/or detecting a stop time at which movement of a tow is halted for a layup process; wherein detecting the start time comprises: determining a start latency between the start time and a start command time at which a start command to begin movement of the tow is received; determining whether the start latency is within a desired range; and adjusting a start timing offset used by a control system that controls tow layup in response to a determination that the start latency is not within the desired range, wherein detecting the stop time comprises: determining a stop latency between the stop time and a stop command time at which a stop command to halt movement of the tow is received, wherein adjusting the start timing offset comprises measuring a position of a first tow end of a test tow on a tuning surface. determining a start latency between the start time and a start command time at which a start command to begin movement of the tow is received; determining whether the start latency is within a desired range; and adjusting a start timing offset used by a control system that controls tow layup in response to a determination that the start latency is not within the desired range, wherein detecting the stop time comprises: determining a stop latency between the stop time and a stop command time at which a stop command to halt movement of the tow is received, wherein adjusting the start timing offset comprises measuring a position of a first tow end of a test tow on a tuning surface. determining a stop latency between the stop time and a stop command time at which a stop command to halt movement of the tow is received, wherein adjusting the start timing offset comprises measuring a position of a first tow end of a test tow on a tuning surface.
A method of determining an input by an apparatus, the method comprising: displaying a predetermined valid area on a screen of the apparatus authenticating an external device, when the external device approaches within a predetermined range; determining an area contacted by the external device and determining whether the determined area is valid based on a result of comparing the determined area and the predetermined valid area; and displaying a predetermined indication to the predetermined valid area related to the determined area, when the determined area is valid. displaying a predetermined valid area on a screen of the apparatus authenticating an external device, when the external device approaches within a predetermined range; determining an area contacted by the external device and determining whether the determined area is valid based on a result of comparing the determined area and the predetermined valid area; and displaying a predetermined indication to the predetermined valid area related to the determined area, when the determined area is valid.
A wavelength converting material comprising one of: La 2.48 Ca 0.5 Si 6 O 3.5 N 8.5 □:Ce 0.02, La 1.8 Ca 1.17 Si 6 O 7.17 N 5.83:Ce 0.03, La 2.47 Ca 0.5 Si 6 O 3.5 N 8.5 □:Ce 0.03, La 1.792 Ca 1.17 Si 6 O 7.17 N 5.83:Ce 0.038, La 2.48 Ca 0.5 Si 5 AlO 4.5 N 8.5 □:Ce 0.02, and La 1.48 Ca 1.5 Si 5 AlO 3.5 N 8.5 □:Ce 0.02, wherein: the material comprises a crystal lattice; □ comprises a vacancy on the crystal lattice; and at least one of the vacancies □ is occupied by an O atom. the material comprises a crystal lattice; □ comprises a vacancy on the crystal lattice; and at least one of the vacancies □ is occupied by an O atom.