mhurhangee/ep-ind-claims huggingface dataset:
A clad steel plate comprising: a steel plate of a base metal; and a steel plate of a cladding material joined to either or both of two main surfaces of the steel plate of the base metal by hot rolling, wherein the cladding material consists of a duplex stainless steel, the duplex stainless steel contains, by mass%: C: 0.03% or less; Si: 0.05% to 1.0%; Mn: 0.5% to 7.0%; P: 0.05% or less; S: 0.010% or less; Ni: 0.1% to 5.0%; Cr: 18.0% to 25.0%; N: 0.05% to 0.30%; and Al: 0.001% to 0.05%, optionally further contains one or more selected from: Mo: 1.5% or less; Cu: 2.0% or less; W: 1.0% or less; and Co: 2.0% or less, and/or optionally further contains one or more selected from: B: 0.0050% or less; Ca: 0.0050% or less; Mg: 0.0030% or less; and REM: 0.10% or less, with a remainder being Fe and inevitable impurities, and a chromium nitride precipitation temperature TN, which is an index regarding precipitation of chromium nitrides during the hot rolling and determined in accordance with the description, is in a range of 800°C to 970°C. a steel plate of a base metal; and a steel plate of a cladding material joined to either or both of two main surfaces of the steel plate of the base metal by hot rolling, wherein the cladding material consists of a duplex stainless steel, the duplex stainless steel contains, by mass%: C: 0.03% or less; Si: 0.05% to 1.0%; Mn: 0.5% to 7.0%; P: 0.05% or less; S: 0.010% or less; Ni: 0.1% to 5.0%; Cr: 18.0% to 25.0%; N: 0.05% to 0.30%; and Al: 0.001% to 0.05%, C: 0.03% or less; Si: 0.05% to 1.0%; Mn: 0.5% to 7.0%; P: 0.05% or less; S: 0.010% or less; Ni: 0.1% to 5.0%; Cr: 18.0% to 25.0%; N: 0.05% to 0.30%; and Al: 0.001% to 0.05%, optionally further contains one or more selected from: Mo: 1.5% or less; Cu: 2.0% or less; W: 1.0% or less; and Co: 2.0% or less, and/or Mo: 1.5% or less; Cu: 2.0% or less; W: 1.0% or less; and Co: 2.0% or less, and/or optionally further contains one or more selected from: B: 0.0050% or less; Ca: 0.0050% or less; Mg: 0.0030% or less; and REM: 0.10% or less, B: 0.0050% or less; Ca: 0.0050% or less; Mg: 0.0030% or less; and REM: 0.10% or less, with a remainder being Fe and inevitable impurities, and a chromium nitride precipitation temperature TN, which is an index regarding precipitation of chromium nitrides during the hot rolling and determined in accordance with the description, is in a range of 800°C to 970°C.
A compound selected from: 2-amino-2-[4-(3-benzyloxyphenylthio)-2-chlorophenyl]ethyl-propane-1,3-diol or a pharmaceutically acceptable salt, hydrate, or solvate, thereof, and its corresponding phosphate derivatives: Phosphoric acid mono-{ -2-amino-4-[4-(3-benzyloxy-phenylsulfanyl)-2-chloro-phenyl]-2-hydroxymethyl-butyl}ester, or a pharmaceutically acceptable salt, hydrate, or solvate, thereof, or phosphoric acid mono-{ -2-amino-4-[4-(3-benzyloxy-phenylsulfanyl)-2-chloro-phenyl]-2-hydroxymethyl-butyl}ester or a pharmaceutically acceptable salt, hydrate, or solvate thereof, for use in a method of therapeutic treatment or prevention of a condition treatable by the compound, optionally of an autoimmune condition, wherein said compound is administered at a dosage lower than the standard daily dosage of said compound during the initial period of treatment and then is increased, optionally stepwise, up to the standard daily dosage of said compound, and wherein said standard daily dosage is in the range from about 25 to about 0.1 mg.
A method of manufacturing a pearlitic rail, the method comprising: hot rolling a billet having a composition consisting of, in % by mass: 0.70% to 0.90% of C; 0.1% to 1.5% of Si; 0.01% to 1.5% of Mn; 0.001% to 0.035% of P; 0.0005% to 0.030% of S; 0.1% to 2.0% of Cr, optionally at least one of: not more than 0.15% of V; not more than 0.030% of Nb; not more than 1.0% of Cu; not more than 1.0% of Ni; and not more than 0.5% of Mo, optionally one or both of: not more than 0.010% of Ca; and not more than 0.1% of REM, and the remainder of the composition consisting of Fe and inevitable impurities, so as to achieve a finishing rolling temperature of not lower than 900°C to form a rail material; and cooling the rail material in an accelerated manner at a cooling rate of 2°C/s to 30°C/s from a temperature of 770°C to 500°C, reheating the resultant or subjecting the resultant to secondary heating to a temperature within a range of 530°C to 580°C, holding the resultant at a temperature range for 20 s to 100 s, and cooling the resultant in an accelerated manner at a cooling rate of 2°C/s to 10°C/s to a temperature within a range of not higher than 450°C. hot rolling a billet having a composition consisting of, in % by mass: 0.70% to 0.90% of C; 0.1% to 1.5% of Si; 0.01% to 1.5% of Mn; 0.001% to 0.035% of P; 0.0005% to 0.030% of S; 0.1% to 2.0% of Cr, optionally at least one of: not more than 0.15% of V; not more than 0.030% of Nb; not more than 1.0% of Cu; not more than 1.0% of Ni; and not more than 0.5% of Mo, optionally one or both of: not more than 0.010% of Ca; and not more than 0.1% of REM, and the remainder of the composition consisting of Fe and inevitable impurities, so as to achieve a finishing rolling temperature of not lower than 900°C to form a rail material; and cooling the rail material in an accelerated manner at a cooling rate of 2°C/s to 30°C/s from a temperature of 770°C to 500°C, reheating the resultant or subjecting the resultant to secondary heating to a temperature within a range of 530°C to 580°C, holding the resultant at a temperature range for 20 s to 100 s, and cooling the resultant in an accelerated manner at a cooling rate of 2°C/s to 10°C/s to a temperature within a range of not higher than 450°C.
A method for spine position detection, comprising: Obtaining a 2D geometrical configuration of a current vertebra body selected from a plurality of vertebra bodies visible in an image on a sagittal plane defined by a horizontal component of an initial point (P x, P y, P z), the initial point having horizontal, vertical and axial components in a three-dimensional Cartesian coordinate system, a geometrical template being applied to the current vertebra body and the 2D geometrical configuration of the current vertebra body being adjusted by a predetermined correlation evaluation; characterized in that the method further comprises: searching adjacent edge points of a next vertebra body corresponding to a number of edge points of the current vertebra body by identifying the gradient values along the direction substantially perpendicular to the edge of the current vertebra body based on the adjusted 2D geometrical configuration of the current vertebra body; calculating the height of an intervertebral disc located between the current vertebra body and the next vertebra body based on an average of the distances between the edge points of the current vertebra body and the corresponding adjacent edge points of the next vertebra body; determining a 2D geometrical configuration of the next vertebra body based on the height of the intervertebral disc and the adjusted 2D geometrical configuration of the current vertebra body. searching adjacent edge points of a next vertebra body corresponding to a number of edge points of the current vertebra body by identifying the gradient values along the direction substantially perpendicular to the edge of the current vertebra body based on the adjusted 2D geometrical configuration of the current vertebra body; calculating the height of an intervertebral disc located between the current vertebra body and the next vertebra body based on an average of the distances between the edge points of the current vertebra body and the corresponding adjacent edge points of the next vertebra body; determining a 2D geometrical configuration of the next vertebra body based on the height of the intervertebral disc and the adjusted 2D geometrical configuration of the current vertebra body.
An airfoil comprising an airfoil tip vortex mitigation device, said airfoil tip vortex mitigation device providing a passive fluidic injection source and comprising: an intake port which is a slot extending in a chordwise direction and disposed in a first surface of the airfoil, the first surface being the top surface of the airfoil; an exit port in fluid communication with the intake port and disposed in a second surface of the airfoil where air pressure is less than at the first surface when the airfoil is producing lift; and a channel connecting the intake port and the exit port; the channel and exit port being positioned and configured to passively direct diverted air in such a way as to weaken an airfoil tip vortex generated by the airfoil when the airfoil is producing lift; wherein: the exit port is a slot extending in a chordwise direction and provided at and along an edge of a tip of the airfoil; and the channel is configured to inject air through the exit port into a core region of the tip vortex. an intake port which is a slot extending in a chordwise direction and disposed in a first surface of the airfoil, the first surface being the top surface of the airfoil; an exit port in fluid communication with the intake port and disposed in a second surface of the airfoil where air pressure is less than at the first surface when the airfoil is producing lift; and a channel connecting the intake port and the exit port; the channel and exit port being positioned and configured to passively direct diverted air in such a way as to weaken an airfoil tip vortex generated by the airfoil when the airfoil is producing lift; wherein: the exit port is a slot extending in a chordwise direction and provided at and along an edge of a tip of the airfoil; and the channel is configured to inject air through the exit port into a core region of the tip vortex. the exit port is a slot extending in a chordwise direction and provided at and along an edge of a tip of the airfoil; and the channel is configured to inject air through the exit port into a core region of the tip vortex.
A lighting system comprising: a carrier that comprises an upper surface, a light emitting diode source positioned in the carrier and below the upper surface of the carrier, and an optic comprising an exterior surface and an interior surface, wherein the interior surface defines a cavity, wherein a lower periphery of the interior surface is curved such that the interior surface flares radially outward at the lower periphery, and a light transmitting dome disposed on a light emitting diode source, wherein the carrier comprises a well in which the light emitting diode source is disposed, and wherein the optic is mounted in the well. a carrier that comprises an upper surface, a light emitting diode source positioned in the carrier and below the upper surface of the carrier, and an optic comprising an exterior surface and an interior surface, wherein the interior surface defines a cavity, wherein a lower periphery of the interior surface is curved such that the interior surface flares radially outward at the lower periphery, and a light transmitting dome disposed on a light emitting diode source, wherein the carrier comprises a well in which the light emitting diode source is disposed, and wherein the optic is mounted in the well.
Seating device for a chair or a sofa having: a seat system, said seat system containing a cushion which has an envelope and a chamber, the chamber being filled with a gel, the envelope being impervious to gel, a foam core being arranged in the chamber, and the foam core having a toothed or wavy structure on at least one side; a seat support wherein the seat system is arranged on said seat support and is thus cushioned; wherein the seating device offers a person seated on the seating device the ability to be tilted in all directions. a seat system, said seat system containing a cushion which has an envelope and a chamber, the chamber being filled with a gel, the envelope being impervious to gel, a foam core being arranged in the chamber, and the foam core having a toothed or wavy structure on at least one side; a seat support wherein the seat system is arranged on said seat support and is thus cushioned; wherein the seating device offers a person seated on the seating device the ability to be tilted in all directions.
A combine harvester comprising: a header for harvesting crop material on the ground; a ground speed sensor configured to detect a ground speed of the combine; a ground height sensor configured to detect a contour of the ground located directly beneath the header; a forward looking sensor configured to detect a contour of the ground forward of the header; and wherein the combine harvester further comprises a controller configured to receive signals from the ground speed sensor, the ground height sensor and the forward looking sensor, characterized in that the controller is further configured to calculate a header height output as a function of (i) an output of the ground speed sensor, which represents a ground speed of the combine, (ii) an output of the ground height sensor, which represents the contour of the ground located directly beneath the header, and (iii) an output of the forward looking sensor, which represents the contour of the ground that is forward of the header, said controller being further configured to weight the outputs of the ground speed sensor and the forward looking sensor as a function of the speed of the combine harvester in calculating the header height output. a header for harvesting crop material on the ground; a ground speed sensor configured to detect a ground speed of the combine; a ground height sensor configured to detect a contour of the ground located directly beneath the header; a forward looking sensor configured to detect a contour of the ground forward of the header; and wherein the combine harvester further comprises a controller configured to receive signals from the ground speed sensor, the ground height sensor and the forward looking sensor, characterized in that the controller is further configured to calculate a header height output as a function of (i) an output of the ground speed sensor, which represents a ground speed of the combine, (ii) an output of the ground height sensor, which represents the contour of the ground located directly beneath the header, and (iii) an output of the forward looking sensor, which represents the contour of the ground that is forward of the header, said controller being further configured to weight the outputs of the ground speed sensor and the forward looking sensor as a function of the speed of the combine harvester in calculating the header height output.
A harvesting system comprising: an articulated header defined by at least a first section and a second section, the first section and second section being capable of independent pivoting movement relative to one another; and a suspension system having an engageable first mode and an engageable second mode, each of the first section and second section being capable of pivoting movement in the first mode; wherein in the first mode, the suspension system is configured to restrict pivoting movement of the first section and second section by a first degree in response to the first section and second section being subject to a first force; characterized in that each of the first section and second section are capable of pivoting movement also in the second mode, and that in the second mode, the suspension system is configured to restrict pivoting movement of the first section and second section by a second degree that is different than the first degree in response to the first section and second section being subject to a second force that is substantially the same as the first force. an articulated header defined by at least a first section and a second section, the first section and second section being capable of independent pivoting movement relative to one another; and a suspension system having an engageable first mode and an engageable second mode, each of the first section and second section being capable of pivoting movement in the first mode; wherein in the first mode, the suspension system is configured to restrict pivoting movement of the first section and second section by a first degree in response to the first section and second section being subject to a first force; characterized in that each of the first section and second section are capable of pivoting movement also in the second mode, and that in the second mode, the suspension system is configured to restrict pivoting movement of the first section and second section by a second degree that is different than the first degree in response to the first section and second section being subject to a second force that is substantially the same as the first force.
A heterophasic polyolefin composition comprising: - 55 to 95 wt.-% based on the total weight of the heterophasic polyolefin composition of a propylene butene random copolymer having an MFR 2 (230 °C) of 0.3 to 100.0 g/10 min and a butene content of 1.5 to 8.0 wt.-%, wherein the propylene butene random copolymer is obtained by a process using a single site catalyst; and - 5 to 45 wt.-% based on the total weight of the heterophasic polyolefin composition of a copolymer of ethylene having a density in the range of 910 to 935 kg/m 3 and an MFR 2 (190 °C) of 0.5 to 10 g/10 min, wherein the copolymer of ethylene is obtained by a process using a single site catalyst; wherein the heterophasic polyolefin composition has a xylene soluble content of less than 5.0 wt.-%. - 55 to 95 wt.-% based on the total weight of the heterophasic polyolefin composition of a propylene butene random copolymer having an MFR 2 (230 °C) of 0.3 to 100.0 g/10 min and a butene content of 1.5 to 8.0 wt.-%, wherein the propylene butene random copolymer is obtained by a process using a single site catalyst; and - 5 to 45 wt.-% based on the total weight of the heterophasic polyolefin composition of a copolymer of ethylene having a density in the range of 910 to 935 kg/m 3 and an MFR 2 (190 °C) of 0.5 to 10 g/10 min, wherein the copolymer of ethylene is obtained by a process using a single site catalyst;
A communication method, comprising: receiving, by an access and mobility management function, AMF, entity, a first message from a first access network device, wherein the first message comprises information for indicating to hand over a voice service of a terminal from a packet switched, PS, domain to a circuit switched, CS, domain, the first message further comprises identification information of a target device, and the target device is a second access network device in a 3G network; and sending, by the AMF entity, through a mobility management entity, MME, a handover request message to a mobile switching center, MSC, entity, wherein the handover request message includes handover information indicating that the information for indicating to hand over a voice service of a terminal from a PS domain to a CS domain is from a new radio, NR, node. receiving, by an access and mobility management function, AMF, entity, a first message from a first access network device, wherein the first message comprises information for indicating to hand over a voice service of a terminal from a packet switched, PS, domain to a circuit switched, CS, domain, the first message further comprises identification information of a target device, and the target device is a second access network device in a 3G network; and sending, by the AMF entity, through a mobility management entity, MME, a handover request message to a mobile switching center, MSC, entity, wherein the handover request message includes handover information indicating that the information for indicating to hand over a voice service of a terminal from a PS domain to a CS domain is from a new radio, NR, node.
A gas turbine engine comprising: a staged combustor having a primary fuel injector operably connected to a primary fuel line and a secondary fuel injector operably connected to a secondary fuel line, and wherein the primary fuel injector comprises a main fuel injector, and the secondary fuel injector comprises a pilot fuel injector; a turbine (22, 23, 24, 26) having cooling passages; primary and secondary air lines (112, 114) configured to provide engine cooling air to the cooling passages of the turbine (22, 23, 24, 26); a fuel air heat exchanger (102, 104) comprising the primary fuel line and the secondary fuel line, the primary fuel line being in thermal contact with the primary air line such that the fuel air heat exchanger (102, 104) is configured to exchange heat from air in the primary air line to fuel in the primary fuel line; a primary valve configured to moderate air flow rate through the primary air line; and a controller configured to control the valve to moderate primary air line airflow rate to maintain fuel temperature in the primary fuel line below a critical temperature.
Wine-making process comprising: - a first step of arranging "Acacia Verek" raw gum arabic; - a second step of arranging a wine to be bottled; - a step of dissolving said raw gum arabic in water in order to obtain raw gum arabic in solution with a concentration of gum arabic comprised between 5 and 50%; - a step of filtering said raw gum arabic in solution by means of a tangential filter provided with synthetic membrane with nominal porosity of about 2 μm in order to obtain filtered gum arabic in solution with a concentration of gum arabic comprised between 5 and 40%; - a step of admixing said filtered gum arabic in solution in said wine to be bottled in order to obtain a wine to be bottled admixed with gum arabic; - a step of microfiltrating said wine to be bottled admixed with gum Arabic; wherein said wine-making process also comprises a step of pulverizing said raw gum arabic, before said dissolution step. - a first step of arranging "Acacia Verek" raw gum arabic; - a second step of arranging a wine to be bottled; - a step of dissolving said raw gum arabic in water in order to obtain raw gum arabic in solution with a concentration of gum arabic comprised between 5 and 50%; - a step of filtering said raw gum arabic in solution by means of a tangential filter provided with synthetic membrane with nominal porosity of about 2 μm in order to obtain filtered gum arabic in solution with a concentration of gum arabic comprised between 5 and 40%; - a step of admixing said filtered gum arabic in solution in said wine to be bottled in order to obtain a wine to be bottled admixed with gum arabic; - a step of microfiltrating said wine to be bottled admixed with gum Arabic;