mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic valve, comprising: a valve body, provided at one end portion of a plunger rod, configured to open and close a flow path; an electromagnet configured to generate a magnetic attractive force acting between an upper end surface of a movable iron core and a lower end surface of a fixed iron core, the movable iron core configured to move the valve body in a valve opening direction; an intermediate member configured to form a preliminary stroke gap between the movable iron core and the valve body in a closed valve state; the electromagnetic valve characterized in further comprising: a stopper portion wherein the stopper portion is fixed to the valve body; wherein, in a closed valve state, the stopper portion and the intermediate member are disposed via a gap larger than the preliminary stroke gap (gl); wherein, the stopper portion is configured to collide with the intermediate member when the intermediate member moves in a direction in which the preliminary stroke gap is reduced and when the intermediate member is displaced by the gap, so as to again displace the intermediate member in a valve closing direction, to return to a closed valve initial state. a valve body, provided at one end portion of a plunger rod, configured to open and close a flow path; an electromagnet configured to generate a magnetic attractive force acting between an upper end surface of a movable iron core and a lower end surface of a fixed iron core, the movable iron core configured to move the valve body in a valve opening direction; an intermediate member configured to form a preliminary stroke gap between the movable iron core and the valve body in a closed valve state; the electromagnetic valve characterized in further comprising: a stopper portion wherein the stopper portion is fixed to the valve body; wherein, in a closed valve state, the stopper portion and the intermediate member are disposed via a gap larger than the preliminary stroke gap (gl); wherein, the stopper portion is configured to collide with the intermediate member when the intermediate member moves in a direction in which the preliminary stroke gap is reduced and when the intermediate member is displaced by the gap, so as to again displace the intermediate member in a valve closing direction, to return to a closed valve initial state. a stopper portion wherein the stopper portion is fixed to the valve body; wherein, in a closed valve state, the stopper portion and the intermediate member are disposed via a gap larger than the preliminary stroke gap (gl); wherein, the stopper portion is configured to collide with the intermediate member when the intermediate member moves in a direction in which the preliminary stroke gap is reduced and when the intermediate member is displaced by the gap, so as to again displace the intermediate member in a valve closing direction, to return to a closed valve initial state.
A device, comprising: a body having a proximal end, a distal end, and a wall having a width extending therebetween along a longitudinal axis of the body, the body defining a cavity portion and an instrument lumen; an inlet at the proximal end of the body, the inlet extending into and in fluid communication with the cavity portion, the inlet configured to accept a distal end of a delivery catheter; the instrument lumen extending through the body parallel to the longitudinal axis from an opening at the proximal end of the body to an opening at the distal end of the body, the instrument lumen configured to receive an instrument extending therethrough; one or more apertures along the wall of the body in fluid communication with the cavity portion, so that a fluid delivered from the catheter flows into the cavity portion through the inlet and out of the cavity portion through the one or more apertures, an expandable member about the fluid distribution device, characterized in that the device further comprises a coating extending from a distal end of the expandable member and partially toward a proximal end of the expandable member, the coating configured to substantially block fluids from advancing distally past the coating. a body having a proximal end, a distal end, and a wall having a width extending therebetween along a longitudinal axis of the body, the body defining a cavity portion and an instrument lumen; an inlet at the proximal end of the body, the inlet extending into and in fluid communication with the cavity portion, the inlet configured to accept a distal end of a delivery catheter; the instrument lumen extending through the body parallel to the longitudinal axis from an opening at the proximal end of the body to an opening at the distal end of the body, the instrument lumen configured to receive an instrument extending therethrough; one or more apertures along the wall of the body in fluid communication with the cavity portion, so that a fluid delivered from the catheter flows into the cavity portion through the inlet and out of the cavity portion through the one or more apertures, an expandable member about the fluid distribution device, characterized in that the device further comprises a coating extending from a distal end of the expandable member and partially toward a proximal end of the expandable member, the coating configured to substantially block fluids from advancing distally past the coating.
A metastin derivative, which is (i) 4-fluorobenzoyl-Phe-X-Arg-Trp-NH 2, wherein X is selected from the group consisting of (group), or a salt thereof. (i) 4-fluorobenzoyl-Phe-X-Arg-Trp-NH 2, wherein X is selected from the group consisting of (group), or a salt thereof.
A method of modifying a male fastener of a fastening system, the method comprising: feeding a web comprising a base substrate and a male fastening material to a modifying member having an outer surface, the male fastening material comprising a plurality of male fasteners having a first, unmodified profile; applying a force to the web to facilitate contact between at least some of the plurality of male fasteners and the outer surface of the modifying member; and modifying the profile of at least some of the plurality of male fasteners of the male fastening material by causing the plurality of male fasteners to slip along the outer surface of the modifying member. the method characterized by further comprising: cutting a discrete segment from the web slipping on the outer surface of the modifying member using a knife roll, wherein the modifying member is an anvil roll; and transporting the discrete segment via a vacuum pressure applied to the outer surface of the anvil roll by a vacuum source. feeding a web comprising a base substrate and a male fastening material to a modifying member having an outer surface, the male fastening material comprising a plurality of male fasteners having a first, unmodified profile; applying a force to the web to facilitate contact between at least some of the plurality of male fasteners and the outer surface of the modifying member; and modifying the profile of at least some of the plurality of male fasteners of the male fastening material by causing the plurality of male fasteners to slip along the outer surface of the modifying member. the method characterized by further comprising: cutting a discrete segment from the web slipping on the outer surface of the modifying member using a knife roll, wherein the modifying member is an anvil roll; and transporting the discrete segment via a vacuum pressure applied to the outer surface of the anvil roll by a vacuum source. cutting a discrete segment from the web slipping on the outer surface of the modifying member using a knife roll, wherein the modifying member is an anvil roll; and transporting the discrete segment via a vacuum pressure applied to the outer surface of the anvil roll by a vacuum source.
A phase-change memory cell, comprising: a chalcogenide-based phase-change memory layer (110, 310); a first electrode layer (112, 312); a first interface layer (111, 311) between the chalcogenide-based phase-change memory layer and the first electrode layer and in contact with each of the chalcogenide-based phase-change memory layer and the first electrode layer; a second electrode layer (108, 308); a second interface layer (109, 309) between the chalcogenide-based phase-change memory layer and the second electrode layer and in contact with each of the chalcogenide-based phase-change memory layer and the second electrode layer; a switching device layer (106, 306) comprising an ovonic threshold switch; a third electrode layer (104, 304); a third interface layer (107, 307) between the switching device layer and the second electrode layer and in contact with each of the switching device layer and the second electrode layer; and a fourth interface layer (105, 305) between the switching device and the third electrode layer and in contact with each of the switching device layer and the third electrode layer; characterised in that the first and second interface layers comprise a tungsten boride and/or a molybdenum boride to provide a reduced resistance between the chalcogenide-based phase-change memory layer and the respective electrode layer. a chalcogenide-based phase-change memory layer (110, 310); a first electrode layer (112, 312); a first interface layer (111, 311) between the chalcogenide-based phase-change memory layer and the first electrode layer and in contact with each of the chalcogenide-based phase-change memory layer and the first electrode layer; a second electrode layer (108, 308); a second interface layer (109, 309) between the chalcogenide-based phase-change memory layer and the second electrode layer and in contact with each of the chalcogenide-based phase-change memory layer and the second electrode layer; a switching device layer (106, 306) comprising an ovonic threshold switch; a third electrode layer (104, 304); a third interface layer (107, 307) between the switching device layer and the second electrode layer and in contact with each of the switching device layer and the second electrode layer; and a fourth interface layer (105, 305) between the switching device and the third electrode layer and in contact with each of the switching device layer and the third electrode layer;
A method for providing location information of a mobile user entity to a presence server of a cellular network, comprising the steps of: - determining by which network control node the mobile user entity is served, - identifying a geographical position of said network control node, - determining a time zone in which said mobile user entity is located based on said geographical position, and - transmitting a time zone information to the presence server, characterized in that the geographical position of said network control node is identified by determining the country in which the network control node is located. - determining by which network control node the mobile user entity is served, - identifying a geographical position of said network control node, - determining a time zone in which said mobile user entity is located based on said geographical position, and - transmitting a time zone information to the presence server,
Computer-implemented method for operating a terminal with high availability in a network, comprising a first edge device (A, 21) which operates the terminal using a model, at least one second edge device (B-D) and a monitoring device having a store in the cloud, wherein the store is used to store at least one identifier for a failure backup device of the first edge device (A, 21), which identifier relates to the at least one second edge device (B-D), and also the model for operating the terminal (IOT, 31-33) and information relating to the communication configuration between the first and the at least one second edge device (A-D), the monitoring device and the terminal (IOT, 31-33), and the first edge device (A, 21) periodically sends a signal about its correct operation in the network, and the signal is received by the monitoring device, and if a missing or erroneous signal is detected, an associated defective device is recognised, and the model and the communication configuration of the defective device is transmitted from the store to a backup device, wherein the backup device is determined by the identifier associated with the missing or erroneous signal, and the backup device operates the terminal device (IOT, 31-33) using the received model and the communication configuration. wherein the store is used to store at least one identifier for a failure backup device of the first edge device (A, 21), which identifier relates to the at least one second edge device (B-D), and also the model for operating the terminal (IOT, 31-33) and information relating to the communication configuration between the first and the at least one second edge device (A-D), the monitoring device and the terminal (IOT, 31-33), and the first edge device (A, 21) periodically sends a signal about its correct operation in the network, and the signal is received by the monitoring device, and if a missing or erroneous signal is detected, an associated defective device is recognised, and the model and the communication configuration of the defective device is transmitted from the store to a backup device, wherein the backup device is determined by the identifier associated with the missing or erroneous signal, and the backup device operates the terminal device (IOT, 31-33) using the received model and the communication configuration.
Device for the removal of coverings laid on flat surfaces, with a drive unit having a pair of drive wheels and a first drive motor for driving the drive wheels; and with a motor-driven striking mechanism having a cutting blade and a second drive motor, the cutting blade being connected to the second drive motor by a connecting rod, characterised in that the drive unit and the striking mechanism have a hinge joint which is configured so that the drive unit and the striking mechanism are supported rotationally relative to one another around an axis of rotation of the hinge joint parallel to a longitudinal axis of the device.
A method of purifying a desired protein from a preparation comprising the desired protein, wherein the desired protein is an IgG antibody, the method comprising: contacting the preparation with a nonionic organic polymer in an amount sufficient to cause the desired protein to precipitate or adsorb on a nonionic hydrophilic surface, wherein the concentration of the nonionic organic polymer is from 12% to 18%, and the nonionic polymer is polyethylene glycol having an average polymer size of 6000 Daltons; adjusting a salt concentration before or during the contacting step, wherein the salt is a neutral salt, the adjusting step providing a sufficient salt concentration to produce a conductivity in a range of 50 to 150 mS/cm; and retaining the precipitated desired antibody on a porous membrane, thereby allowing soluble contaminants to pass through the membrane. contacting the preparation with a nonionic organic polymer in an amount sufficient to cause the desired protein to precipitate or adsorb on a nonionic hydrophilic surface, wherein the concentration of the nonionic organic polymer is from 12% to 18%, and the nonionic polymer is polyethylene glycol having an average polymer size of 6000 Daltons; adjusting a salt concentration before or during the contacting step, wherein the salt is a neutral salt, the adjusting step providing a sufficient salt concentration to produce a conductivity in a range of 50 to 150 mS/cm; and retaining the precipitated desired antibody on a porous membrane, thereby allowing soluble contaminants to pass through the membrane.
A stretchable laminate, comprising: a non-woven fabric layer; and an elastomer layer, wherein the non-woven fabric layer is a long-fiber hydroentangled non-woven fabric, wherein the elastomer layer is in the form of a film, wherein the non-woven fabric layer and the elastomer layer are bonded to each other, wherein the elastomer layer includes an intermediate layer and surface layers arranged on both sides of the intermediate layer, and wherein the intermediate layer contains a styrene-based elastomer. a non-woven fabric layer; and an elastomer layer, wherein the non-woven fabric layer is a long-fiber hydroentangled non-woven fabric, wherein the elastomer layer is in the form of a film, wherein the non-woven fabric layer and the elastomer layer are bonded to each other, wherein the elastomer layer includes an intermediate layer and surface layers arranged on both sides of the intermediate layer, and wherein the intermediate layer contains a styrene-based elastomer.
Inner liner for tyre having a rubber composition comprising: - an elastomeric matrix comprising at least 50 phr of one or more butyl rubbers, - from 5 to 30 phr of carbon black, - from 0 to less than 10 phr of a plasticizing agent, - at least 5 phr of one or more additional fillers selected from reinforcing fillers other than carbon black, graphite-and inert fillers, said inert fillers is (are) selected from chalk, clay, bentonite, talc, kaolin, glass microbeads, glass flakes, and a mixture of these compounds, the total content of reinforcing fillers and of graphite in the rubber composition varying from 5 to 50 phr, the content of the inert filler(s) in the rubber composition varies from 1 to 60 phr. - an elastomeric matrix comprising at least 50 phr of one or more butyl rubbers, - from 5 to 30 phr of carbon black, - from 0 to less than 10 phr of a plasticizing agent, - at least 5 phr of one or more additional fillers selected from reinforcing fillers other than carbon black, graphite-and inert fillers, said inert fillers is (are) selected from chalk, clay, bentonite, talc, kaolin, glass microbeads, glass flakes, and a mixture of these compounds, the total content of reinforcing fillers and of graphite in the rubber composition varying from 5 to 50 phr, the content of the inert filler(s) in the rubber composition varies from 1 to 60 phr.
Process to produce a composition containing 5'-ribonucleotides comprising: a) subjecting a microorganism to autolysis under conditions at which at least 50% of the RNA remains in a form degradable into 5'-ribonucleotides; b) subjecting the autolysate to solid/liquid separation and recovering the RNA-containing cell wall fraction and wherein at least 55% of the RNA remains associated with the cell wall fraction; and c) converting the RNA in the recovered RNA-containing cell wall fraction into 5'-ribonucleotides, whereby the solid/liquid separation in step b) is done at a pH of lower than 3.5 and higher than 1.0. a) subjecting a microorganism to autolysis under conditions at which at least 50% of the RNA remains in a form degradable into 5'-ribonucleotides; b) subjecting the autolysate to solid/liquid separation and recovering the RNA-containing cell wall fraction and wherein at least 55% of the RNA remains associated with the cell wall fraction; and c) converting the RNA in the recovered RNA-containing cell wall fraction into 5'-ribonucleotides,
A sowing element for pneumatic seed drills comprising a selector disc for isolating the seed, the selector disc being rotatable about an axis, a conduit for transporting the seed with an initial portion which is proximal to a position for removing the seed from the selector disc and an intermediate portion which extends in continuation of the initial portion, wherein the conduit, at least in the initial portion and in the intermediate portion, is rectilinear and coaxial and has an axis and wherein an angle between a plane which is perpendicular to the axis of the conduit in the rectilinear initial portion and rectilinear intermediate portion of the conduit and a plane perpendicular to the rotation axis of the selector disc is less than 90°, characterised in that the axis of the conduit is located inside a plane which is perpendicular to the sowing ground and parallel with the sowing advance direction.
An etching method, comprising: forming trenches in a to-be-etched structure; forming a dielectric layer (11; 204) in the trenches; etching the dielectric layer (11; 204) in the trenches by an etching process; and controlling at least an etching temperature of the etching process by continuously varying said temperature while a polymer is formed on side surface of the to-be-etched structure, wherein during the etching process of the dielectric layer (11; 204), the polymer undergoes: a deposition stage, having a deposition rate of the polymer greater than an etch rate of the polymer; and a removal stage, having the deposition rate less than the etch rate, wherein the material of the to-be etched structure is silicon nitride or silicon oxynitride and the material of the dielectric layer (11; 204) is silicon oxide and an etching gas for etching the dielectric layer (11; 204) includes one or more gases selected form CF 4, C 3 F 8 and C 4 F 8, and wherein a relationship between an etching temperature T and an etching time t is: T = T 0 + T 1 sin 2 π t / t 0, wherein T 0 is an equilibrium temperature, T 1 is a maximum value of the etching temperature deviating from the equilibrium temperature T 0, and t 0 is a duration of an etching circle, the equilibrium temperature being the temperature at which the deposition rate of the polymer and the etch rate of said polymer are equal, the deposition stage and the removal stage forming an etching circle. forming trenches in a to-be-etched structure; forming a dielectric layer (11; 204) in the trenches; etching the dielectric layer (11; 204) in the trenches by an etching process; and controlling at least an etching temperature of the etching process by continuously varying said temperature while a polymer is formed on side surface of the to-be-etched structure, wherein during the etching process of the dielectric layer (11; 204), the polymer undergoes: a deposition stage, having a deposition rate of the polymer greater than an etch rate of the polymer; and a removal stage, having the deposition rate less than the etch rate, wherein the material of the to-be etched structure is silicon nitride or silicon oxynitride and the material of the dielectric layer (11; 204) is silicon oxide and an etching gas for etching the dielectric layer (11; 204) includes one or more gases selected form CF 4, C 3 F 8 and C 4 F 8, and wherein a relationship between an etching temperature T and an etching time t is: T = T 0 + T 1 sin 2 π t / t 0, a deposition stage, having a deposition rate of the polymer greater than an etch rate of the polymer; and a removal stage, having the deposition rate less than the etch rate, wherein T 0 is an equilibrium temperature, T 1 is a maximum value of the etching temperature deviating from the equilibrium temperature T 0, and t 0 is a duration of an etching circle, the equilibrium temperature being the temperature at which the deposition rate of the polymer and the etch rate of said polymer are equal, the deposition stage and the removal stage forming an etching circle.
A hydroxyapatite comprising calcium ions and phosphate ions in a crystal lattice, characterized in that it is doped with Fe 2+ ions and Fe 3+ ions, which partially substitute said calcium ions in said crystal lattice in a quantitative ratio Fe 3+ /Fe 2+ of 1 to 4, has magnetism of 0.05 to 5 A*m 2 *kg -1 (emu/g), measured by applying a magnetic field of 34 (10 3 /4π)A*m -1 (Oe), due to the presence of magnetic nano-domains in the lattice of hydroxyapatite, and comprises an amount of secondary magnetic phases below 3 vol%.