mhurhangee/ep-ind-claims huggingface dataset:
A structural aluminum alloy plate comprising: 7.0% to 12.0% by mass of Zn; 1.5% to 4.5% by mass of Mg; 1.0% to 3.0% by mass of Cu; 0.05% to 0.30% by mass of Zr; 0.005% to 0.5% by mass of Ti, 0.5% or less by mass of Si; 0.5% or less by mass of Fe; 0.3% or less by mass of Mn; 0.3% or less by mass of Cr; and the balance being aluminum and inevitable impurities, wherein the structural aluminum alloy plate comprises a texture in which an orientation density of at least one crystal orientation of three crystal orientations, which are Brass orientation, S orientation, and Copper orientation, is 20 or more in random ratio, and orientation densities of all of five crystal orientations, which are Cube orientation, CR orientation, Goss orientation, RW orientation, and P orientation, are 10 or less in random ratio, and wherein the structural aluminum alloy plate comprises a tensile strength of 660 MPa or more and a 0.2% yield strength of 600 MPa or more in each of a 0-degree direction and a 90-degree direction relative to a longitudinal rolling direction; an elongation at break in each of the 0-degree direction and the 90-degree direction is 70% or more of an elongation at break in a 45-degree direction relative to the longitudinal rolling direction; a tensile strength in the 45-degree direction is 80% or more of the tensile strength in the 0-degree direction, and a 0.2% yield strength in the 45-degree direction is 80% or more of the 0.2% yield strength in the 0-degree direction; and the elongation at break in the 45-degree direction is 12% or more. 7.0% to 12.0% by mass of Zn; 1.5% to 4.5% by mass of Mg; 1.0% to 3.0% by mass of Cu; 0.05% to 0.30% by mass of Zr; 0.005% to 0.5% by mass of Ti, 0.5% or less by mass of Si; 0.5% or less by mass of Fe; 0.3% or less by mass of Mn; 0.3% or less by mass of Cr; and an orientation density of at least one crystal orientation of three crystal orientations, which are Brass orientation, S orientation, and Copper orientation, is 20 or more in random ratio, and orientation densities of all of five crystal orientations, which are Cube orientation, CR orientation, Goss orientation, RW orientation, and P orientation, are 10 or less in random ratio, and a tensile strength of 660 MPa or more and a 0.2% yield strength of 600 MPa or more in each of a 0-degree direction and a 90-degree direction relative to a longitudinal rolling direction; an elongation at break in each of the 0-degree direction and the 90-degree direction is 70% or more of an elongation at break in a 45-degree direction relative to the longitudinal rolling direction; a tensile strength in the 45-degree direction is 80% or more of the tensile strength in the 0-degree direction, and a 0.2% yield strength in the 45-degree direction is 80% or more of the 0.2% yield strength in the 0-degree direction; and the elongation at break in the 45-degree direction is 12% or more.
Polypeptide having one or more substitution at a position corresponding to position 339 or 376 of SEQ ID NO: 59, wherein the polypeptide is a member of the Major Facilitator Superfamily, which polypeptide is hexose permease polypeptide, wherein, when the substitution is at position corresponding to 376, the amino acid at that position is replaced by an amino acid that has a van der Waals volume of 80 to 138 Å 3 and a side chain hydrophobicity of 10 to 100 ΔtR, and when the substitution is at position corresponding to 339, the amino acid at that position is replaced by an amino acid that has a side chain hydrophobicity of -30 to 10 ΔtR and a van der Waals volume of 80 to 160 A 3.
An acoustic sensor assembly for non-invasively outputting a signal responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient, comprising: a frame defining an open cavity on an underside of the frame; a sensing element comprising a sensing layer, and configured to output a signal responsive to acoustic vibrations, the sensing element supported by the frame and the sensing layer extending across the open cavity; electronic components positioned on a top side of the frame and in electrical contact with the sensing element, said top side generally opposite said underside; and an acoustic coupler supported by the frame and positioned to apply pressure to the sensing element to bias the sensing element at a predetermined tension into said open cavity, the acoustic coupler configured to transmit acoustic vibrations to the sensing element through the acoustic coupler when the acoustic sensor assembly is attached to a medical patient, wherein the acoustic coupler comprises an inner protrusion disposed on an inside surface of the acoustic coupler, the inner protrusion extending into the open cavity. a frame defining an open cavity on an underside of the frame; a sensing element comprising a sensing layer, and configured to output a signal responsive to acoustic vibrations, the sensing element supported by the frame and the sensing layer extending across the open cavity; electronic components positioned on a top side of the frame and in electrical contact with the sensing element, said top side generally opposite said underside; and an acoustic coupler supported by the frame and positioned to apply pressure to the sensing element to bias the sensing element at a predetermined tension into said open cavity, the acoustic coupler configured to transmit acoustic vibrations to the sensing element through the acoustic coupler when the acoustic sensor assembly is attached to a medical patient, wherein the acoustic coupler comprises an inner protrusion disposed on an inside surface of the acoustic coupler, the inner protrusion extending into the open cavity.
A method of producing hydrocarbon fuels from polyolefin waste materials, wherein: - polyolefin waste materials are subjected to continuous depolymerisation in a tower flow reactor with a movable packing, which comprises a heating system for heating the lower half of a reaction chamber, where products of the depolymerisation are collected in a gaseous state through an outlet in the upper half of the reaction chamber; - and the obtained products of the depolymerisation are subjected to catalytic hydrogenation and isomerisation in an atmosphere of synthesis gas, under atmospheric pressure, resulting in a mixture of hydrocarbon fuels; characterised in that: - the cleansed, rinsed with nitrogen and ground polyolefin waste materials are mixed with heated elements constituting the packing of the reactor, for a time period necessary for plasticisation, and until the surface of the packing elements is coated with a thin layer of plasticised material, wherein the average temperature of the mixture is within the range of 240 to 260°C, and wherein in the depolymerisation process, which is carried out under atmospheric pressure, the obtained mixture is fed as a stream into the reaction chamber from the top of the chamber, whereas a synthesis gas is fed in a counter-current from the bottom, the gas comprises carbon monoxide and hydrogen (H 2), with the CO:H 2 molar ratio from 0.25 to 1.5: from 0.5 to 3, wherein in the depolymerisation process, the temperature of the lower half of the reaction chamber ranges from 400 to 440°C, while the temperature near the outlet for depolymerisation products is maintained in the range from 200 to 360°C. - polyolefin waste materials are subjected to continuous depolymerisation in a tower flow reactor with a movable packing, which comprises a heating system for heating the lower half of a reaction chamber, where products of the depolymerisation are collected in a gaseous state through an outlet in the upper half of the reaction chamber; - and the obtained products of the depolymerisation are subjected to catalytic hydrogenation and isomerisation in an atmosphere of synthesis gas, under atmospheric pressure, resulting in a mixture of hydrocarbon fuels; - the cleansed, rinsed with nitrogen and ground polyolefin waste materials are mixed with heated elements constituting the packing of the reactor, for a time period necessary for plasticisation, and until the surface of the packing elements is coated with a thin layer of plasticised material, wherein the average temperature of the mixture is within the range of 240 to 260°C, and wherein in the depolymerisation process, which is carried out under atmospheric pressure, the obtained mixture is fed as a stream into the reaction chamber from the top of the chamber, whereas a synthesis gas is fed in a counter-current from the bottom, the gas comprises carbon monoxide and hydrogen (H 2), with the CO:H 2 molar ratio from 0.25 to 1.5: from 0.5 to 3, wherein in the depolymerisation process, the temperature of the lower half of the reaction chamber ranges from 400 to 440°C, while the temperature near the outlet for depolymerisation products is maintained in the range from 200 to 360°C.
Drive belt provided with an endless carrier and with a number of transverse elements that are slideably provided on the carrier, which carrier includes at least one, predominantly ribbon-shaped metal band and which transverse elements are each provided with two main faces (38, 39), where between the transverse element extends in thickness direction, with at least one recess, wherein the carrier is located, with a first or base part that is located below the recess, a second or neck part at the height of the recess and with a third or head part that is located above the recess, in which drive belt both the endless carrier and a bearing surface of the base part of the transverse element that supports the carrier at the location of the recess are curved in the transverse direction of the drive belt, with the bearing surface being curved more than the carrier and in which drive belt a bottom surface of the head part of the transverse element, which bottom surface is located on the opposite side of the recess relative to the bearing surface, is concavely curved in transverse direction, characterized in that, a radius of concave curvature of the bottom surface of the head part is smaller than a radius of convex curvature of the bearing surface of the base part, whereby the head part of the transverse elements does not arrive in contact with the carrier in the middle thereof, but only beyond two thirds of a total width of the endless carrier as seen in the direction away from the neck part of the transverse element, at least at a radial inward translation or at a rotation about the virtual axis in the long and/or the transverse axis of the drive belt of the transverse element relative to the carrier.
A method for producing a laminate, in particular a continuously pressed laminate, CPL, comprising the following steps: providing a finish foil, wherein the finish foil is provided with a decorative pattern and a three-dimensional structure, wherein the structure is synchronized with the decorative pattern, wherein the pattern imitates a wooden surface; providing a dry sheet; providing a support structure, wherein the support structure is provided with a phenolic resin and wherein the support structure is provided between the finish foil and the dry sheet; and pressing of the finish foil with the support structure in a CPL process, wherein the phenolic resin is a phenol-formaldehyde resin; wherein the resin content in the support structure is 70 to 99% by weight; wherein providing the support structure comprises impregnating the support structure with phenolic resin; wherein volatile matter after drying of the impregnate are in the range between 6.5% and 9.0%, wherein the pressing comprises compressing the finish foil with the support structure and the dry sheet in the CPL process, wherein the pressing is carried out against an embossing structure provided in the CPL process. providing a finish foil, wherein the finish foil is provided with a decorative pattern and a three-dimensional structure, wherein the structure is synchronized with the decorative pattern, wherein the pattern imitates a wooden surface; providing a dry sheet; providing a support structure, wherein the support structure is provided with a phenolic resin and wherein the support structure is provided between the finish foil and the dry sheet; and pressing of the finish foil with the support structure in a CPL process, wherein the phenolic resin is a phenol-formaldehyde resin; wherein the resin content in the support structure is 70 to 99% by weight; wherein providing the support structure comprises impregnating the support structure with phenolic resin; wherein volatile matter after drying of the impregnate are in the range between 6.5% and 9.0%, wherein the pressing comprises compressing the finish foil with the support structure and the dry sheet in the CPL process, wherein the pressing is carried out against an embossing structure provided in the CPL process.
A method of production of a high strength cold rolled steel sheet excellent in chemical convertibility comprising using; a continuous annealing furnace where a cooling method of a cooling zone including part or all of a temperature range of the steel sheet of 600 to 250°C following heating for recrystallization is one or more of gas cooling, effusion cooling, and cooling pipe cooling, to continuously anneal cold rolled steel sheet and produce high strength cold rolled steel sheet, wherein said high strength cold rolled steel sheet contains, by mass%, Si: 1.0 to 2.0% and/or Mn: 2.0 to 3.0%, characterized by; exposing the surface of the steel sheet in the steel sheet temperature range of 600 to 250°C to an iron-oxidizing atmosphere so as to make it oxidize, pickling the sheet at the annealing furnace outlet side to remove the Si or Mn or other oxide film together with the iron oxide film of the steel sheet, and then iron- or Ni-plating the sheet to 1 to 50 mg/m 2.
Wheat based milk composition which comprises a carbohydrate fraction, a lipid fraction and a wheat protein fraction, characterised in that the wheat protein fraction is composed of: • an enzyme modified wheat gluten having a solubility of at least 55% NSI at pH 7 and a degree of hydrolysis between 1 and 4%, • a chemically deamidated wheat gluten having a deamidation degree of at least 50%, a solubility of at least 85% NSI at pH 7, and a degree of hydrolysis lower than 0,5%, whereby the ratio of the enzyme modified wheat gluten over the deamidated wheat gluten is between 80/20 to 99/1, preferably between 90/10 and 96/4. • an enzyme modified wheat gluten having a solubility of at least 55% NSI at pH 7 and a degree of hydrolysis between 1 and 4%, • a chemically deamidated wheat gluten having a deamidation degree of at least 50%, a solubility of at least 85% NSI at pH 7, and a degree of hydrolysis lower than 0,5%, whereby the ratio of the enzyme modified wheat gluten over the deamidated wheat gluten is between 80/20 to 99/1, preferably between 90/10 and 96/4.
A security device comprising: a colour shifting element that exhibits different colours dependent on the angle of incidence of light impinging upon the colour shifting element, and; an at least partially transparent light control layer covering at least a part of the colour shifting element and comprising a surface relief adapted to modify the angle of light incident upon the light control layer, characterised in that the light control layer comprises at least first and second functional regions (A, B) having different refractive indices such that light incident upon the first functional region impinges upon the colour shifting element at a first angle of incidence, and light incident upon the second functional region impinges upon the colour shifting element at a second, different, angle of incidence. a colour shifting element that exhibits different colours dependent on the angle of incidence of light impinging upon the colour shifting element, and; an at least partially transparent light control layer covering at least a part of the colour shifting element and comprising a surface relief adapted to modify the angle of light incident upon the light control layer, characterised in that the light control layer comprises at least first and second functional regions (A, B) having different refractive indices such that light incident upon the first functional region impinges upon the colour shifting element at a first angle of incidence, and light incident upon the second functional region impinges upon the colour shifting element at a second, different, angle of incidence.
Device for converting a direct current (Vin) comprising: - first means for converting to receive the direct current and to supply a pulsed primary voltage, and - means for transforming connected to the first means for converting to supply a secondary pulsed voltage, the device comprising means for superimposing and rectifying the primary and secondary voltages to supply a pulsed and rectified output voltage (Vout1), said means for superimposing and rectifying being connected to the first means for converting and to the output of the means for transforming, characterised in that said output voltage (Vout1) comprises pulses that have amplitudes substantially equal to the sum of the amplitudes of the pulses of the primary pulsed voltage and the secondary pulsed voltage. - first means for converting to receive the direct current and to supply a pulsed primary voltage, and - means for transforming connected to the first means for converting to supply a secondary pulsed voltage,
An aircraft system comprising: at least one support having an upright portion and at least one boom portion (112, 113); a capture line carried by and extending downwardly from the at least one boom portion, the capture line having an engagement portion positioned to releasably attach to an unmanned aircraft; and a flexible, resilient landing device positioned proximate to the at least one support, wherein the landing device includes a depression (1261a, 1261b) positioned to receive the unmanned aircraft, the depression configured to restrict lateral motion of the unmanned aircraft as it comes to rest. at least one support having an upright portion and at least one boom portion (112, 113); a capture line carried by and extending downwardly from the at least one boom portion, the capture line having an engagement portion positioned to releasably attach to an unmanned aircraft; and a flexible, resilient landing device positioned proximate to the at least one support, wherein the landing device includes a depression (1261a, 1261b) positioned to receive the unmanned aircraft, the depression configured to restrict lateral motion of the unmanned aircraft as it comes to rest.
An aerosol delivery device comprising: at least one housing enclosing a reservoir configured to retain an aerosol precursor composition; a heating element; a power source connected to an electrical load that includes the heating element, the power source comprising a rechargeable lithium-ion battery (LiB) and a linear regulator between the power source and load, the linear regulator being configured to maintain a constant voltage level at the electrical load; and a microprocessor configured to operate in an active mode in which the microprocessor is configured to direct power from the power source to the heating element and thereby control the heating element to activate and vaporize components of the aerosol precursor composition, wherein the power source further comprises: a rechargeable supercapacitor chargeable from the rechargeable LiB, and configured to provide power to the electrical load, the linear regulator being connected to the rechargeable supercapacitor, between the rechargeable supercapacitor and electrical load; and a resistor connected to the LiB, between the LiB and the linear regulator, and wherein the microprocessor being configured to direct power from the power source to the heating element includes being configured to direct power from the rechargeable supercapacitor to the heating element. at least one housing enclosing a reservoir configured to retain an aerosol precursor composition; a heating element; a power source connected to an electrical load that includes the heating element, the power source comprising a rechargeable lithium-ion battery (LiB) and a linear regulator between the power source and load, the linear regulator being configured to maintain a constant voltage level at the electrical load; and a microprocessor configured to operate in an active mode in which the microprocessor is configured to direct power from the power source to the heating element and thereby control the heating element to activate and vaporize components of the aerosol precursor composition, wherein the power source further comprises: a rechargeable supercapacitor chargeable from the rechargeable LiB, and configured to provide power to the electrical load, the linear regulator being connected to the rechargeable supercapacitor, between the rechargeable supercapacitor and electrical load; and a resistor connected to the LiB, between the LiB and the linear regulator, and a rechargeable supercapacitor chargeable from the rechargeable LiB, and configured to provide power to the electrical load, the linear regulator being connected to the rechargeable supercapacitor, between the rechargeable supercapacitor and electrical load; and a resistor connected to the LiB, between the LiB and the linear regulator, and wherein the microprocessor being configured to direct power from the power source to the heating element includes being configured to direct power from the rechargeable supercapacitor to the heating element.