mhurhangee/ep-ind-claims huggingface dataset:
A method of establishing a secure channel for communication between a first computing device and a second computing device using an elliptic curve Diffie-Hellman protocol, wherein G is an elliptic curve generator point and the first computing device has a unique private key d c with a public key Q c = d c G certified by a party trusted by the second computing device, the method comprising: the first computing device generating a blinding factor r and sending a blinded public key R = r. Q c to the second computing device; the second computing device generating an ephemeral private key d t and a corresponding ephemeral public key Q t = d t G and sending Q t to the first computing device; wherein the first computing device generates K c = KDF (r d c. Q t) and the second computing device generates K t = KDF (d t. R), where KDF is a key derivation function used in both generation operations, to establish a secure channel between the first computing device and the second computing device; wherein G is a point in the elliptic curve group E, wherein E is a group of prime order but E* is the quadratic twist of E and is a group of order m = z. m' where m' is prime and z is an integer; wherein r. d c is chosen such that z is a factor of r. d c. the first computing device generating a blinding factor r and sending a blinded public key R = r. Q c to the second computing device; the second computing device generating an ephemeral private key d t and a corresponding ephemeral public key Q t = d t G and sending Q t to the first computing device; wherein the first computing device generates K c = KDF (r d c. Q t) and the second computing device generates K t = KDF (d t. R), where KDF is a key derivation function used in both generation operations, to establish a secure channel between the first computing device and the second computing device; wherein G is a point in the elliptic curve group E, wherein E is a group of prime order but E* is the quadratic twist of E and is a group of order m = z. m' where m' is prime and z is an integer; wherein r. d c is chosen such that z is a factor of r. d c.
An oral composition for use in the treatment of gastroesophageal reflux disease comprising the following ingredients: - tamarind extract - alginic acid or a salt thereof - a carbomer - physiologically-compatible alkali or alkaline earth metal carbonate and/or hydrogen carbonate, wherein said tamarind extract is a dried aqueous or water-alcohol extract from the plant seeds having a titrated polysaccharide xyloglucan content of at least 30% by weight. - tamarind extract - alginic acid or a salt thereof - a carbomer - physiologically-compatible alkali or alkaline earth metal carbonate and/or hydrogen carbonate,
A system for a deployable antenna assembly (112a, b, c) comprising: an extendable pillar (305, 942) configured to extend in an axial direction along a deployment axis of the deployable antenna assembly to deploy an antenna, the extendable pillar comprising: at least one extendable element (310a, b, c, 966, 1400, 1705, 1900) configured to convert between a stowed configuration and a deployed configuration, wherein the extendable element in a deployed configuration is longer in the axial direction than the extendable element in a stowed configuration; and a launcher (315, 958) configured to initiate conversion of the at least one extendable element (310a, b, c, 966, 1400, 1705, 1900) from the stowed configuration to the deployed configuration, thereby extending the extendable pillar and deploying the antenna, the launcher comprising a retaining device configured to retain each extendable element in the stowed configuration in which extension of the respective extendable element is constrained and the extendable element is operable to store potential energy that is releasable to extend the extendable element along the deployment axis, characterized in that the retaining device comprises ball bearings positioned to contact each extendable element, and the ball bearings are configured such that movement thereof initiates conversion of each extendable element from the stowed configuration to the deployed configuration. at least one extendable element (310a, b, c, 966, 1400, 1705, 1900) configured to convert between a stowed configuration and a deployed configuration, wherein the extendable element in a deployed configuration is longer in the axial direction than the extendable element in a stowed configuration; and a launcher (315, 958) configured to initiate conversion of the at least one extendable element (310a, b, c, 966, 1400, 1705, 1900) from the stowed configuration to the deployed configuration, thereby extending the extendable pillar and deploying the antenna, the launcher comprising a retaining device configured to retain each extendable element in the stowed configuration in which extension of the respective extendable element is constrained and the extendable element is operable to store potential energy that is releasable to extend the extendable element along the deployment axis, characterized in that the retaining device comprises ball bearings positioned to contact each extendable element, and the ball bearings are configured such that movement thereof initiates conversion of each extendable element from the stowed configuration to the deployed configuration.
A cathode current collector for a solid oxide fuel cell, wherein the cathode current collector is a porous metal foam having pores, wherein the metal foam is formed of one, two or more types of binary alloys consisting of CoNi, CoMn and CuMn, or one or two types of ternary alloys consisting of CoNiMn and CoCuMn, and characterized in that the metal foam has density of 200 g/m 2 to 1000 g/m 2.
Pharmaceutical composition in the form of an injectable aqueous solution comprising diclofenac and thiocolchicoside or a pharmaceutically acceptable salt thereof as the active ingredients and tert-butylhydroxyanisole as stabilizer.
A fiber compound resin composition comprising: a base thermoplastic resin having hydrophobicity; and a fibrous filler and a dispersant having hydrophobicity improving function contained in the base resin, wherein the fibrous filler comprises fibers with defibrated portions in end portions in a longitudinal direction and a non-defibrated portion in a central portion in the longitudinal direction, wherein the defibrated portions in the end portions have higher hydrophobicity than the non-defibrated portion in the central portion, wherein the defibrated portions of the defibrated filler have a median fiber diameter of 0.1 μm or higher and 2 μm or lower, and wherein the non-defibrated portion of the fibrous filler has a median fiber diameter of 5 μm or higher and 30 μm or lower, and wherein in a range of the content of the fibrous filler from 10 mass% or higher to 80 mass% or lower when a total amount of the base resin and the fibrous filler is 100 mass%, a value of a melt mass flow rate of the resin composition defined by JIS K 7210 (corresponding standards: ISO 1133-1, 1133-2) is 50 % or higher and less than 100 % relative to a value of the melt mass flow rate of the base resin. a base thermoplastic resin having hydrophobicity; and a fibrous filler and a dispersant having hydrophobicity improving function contained in the base resin, wherein the fibrous filler comprises fibers with defibrated portions in end portions in a longitudinal direction and a non-defibrated portion in a central portion in the longitudinal direction, wherein the defibrated portions in the end portions have higher hydrophobicity than the non-defibrated portion in the central portion, wherein the defibrated portions of the defibrated filler have a median fiber diameter of 0.1 μm or higher and 2 μm or lower, and wherein the non-defibrated portion of the fibrous filler has a median fiber diameter of 5 μm or higher and 30 μm or lower, and wherein in a range of the content of the fibrous filler from 10 mass% or higher to 80 mass% or lower when a total amount of the base resin and the fibrous filler is 100 mass%, a value of a melt mass flow rate of the resin composition defined by JIS K 7210 (corresponding standards: ISO 1133-1, 1133-2) is 50 % or higher and less than 100 % relative to a value of the melt mass flow rate of the base resin.
Sealing composite including a first extruded profile sealing which extends along a first sealing axis, a second extruded profile sealing which extends along a second sealing axis, and a sealing arrangement for sealing a corner region of a window against a body member of a motor vehicle, wherein the sealing arrangement defines a sealing plane as well as a first sealing axis and a second sealing axis which extends transversely to the first sealing axis, wherein the sealing arrangement includes a fastening portion for fastening to the body member, and a sealing portion which includes a sealing lip which can be deflected elastically in a direction transversely to the sealing plane when the corner region of the window comes into contact with the sealing lip, and which extends in an arcuate shape from the first sealing axis to the second sealing axis, wherein the sealing lip is formed over its entire arcuately shaped extension as a molded sealing lip which, in the area of at least one arc end of its arcuately shaped extension, is connected to the first extruded profile sealing, wherein the molded sealing lip is made of EPDM and wherein a sealing surface of the molded sealing lip and a sealing surface of a profile sealing lip of the first profile sealing are provided with a uniform coating, wherein the sealing portion comprises a sealing lip carrier which is aligned essentially parallel to the sealing plane and which extends arcuately along the arcuate shape, wherein the sealing lip carrier is connected to a fastening plate of the fastening portion, which extends essentially parallel to the sealing plane and which tapers essentially in the shape of a triangle, such that side edges of the fastening plate are aligned essentially parallel to the sealing axes and, respectively, characterized in that the side edges of the fastening plate taper into a plate edge, at which an integration portion is connected to the fastening plate. wherein the sealing lip is formed over its entire arcuately shaped extension as a molded sealing lip which, in the area of at least one arc end of its arcuately shaped extension, is connected to the first extruded profile sealing, wherein the molded sealing lip is made of EPDM and wherein a sealing surface of the molded sealing lip and a sealing surface of a profile sealing lip of the first profile sealing are provided with a uniform coating, wherein the sealing portion comprises a sealing lip carrier which is aligned essentially parallel to the sealing plane and which extends arcuately along the arcuate shape, wherein the sealing lip carrier is connected to a fastening plate of the fastening portion, which extends essentially parallel to the sealing plane and which tapers essentially in the shape of a triangle, such that side edges of the fastening plate are aligned essentially parallel to the sealing axes and, respectively, characterized in that the side edges of the fastening plate taper into a plate edge, at which an integration portion is connected to the fastening plate.
A motor, comprising: a stator, on which a magnet wire is wound, including mag mate terminals connected with the magnet wire; and a rotor rotated by electromagnetic interaction with the stator, wherein each of the mag mate terminals includes a first metal connection part and a second metal connection part, the first metal connection part being connected to the magnet wire made of a metal of a different kind than the first metal connection part, and the second metal connection part being connected to a power connector configured to supply power to the stator and made of a metal of a same kind as the second metal connection part, characterized in that the first metal connection part and the second metal connection part are formed integrally, wherein a lower portion of the first metal connection part and a lower portion of the second metal connection part are connected such that current flows between the first metal connection part and the second metal connection part. a stator, on which a magnet wire is wound, including mag mate terminals connected with the magnet wire; and a rotor rotated by electromagnetic interaction with the stator, wherein each of the mag mate terminals includes a first metal connection part and a second metal connection part, the first metal connection part being connected to the magnet wire made of a metal of a different kind than the first metal connection part, and the second metal connection part being connected to a power connector configured to supply power to the stator and made of a metal of a same kind as the second metal connection part, characterized in that the first metal connection part and the second metal connection part are formed integrally, wherein a lower portion of the first metal connection part and a lower portion of the second metal connection part are connected such that current flows between the first metal connection part and the second metal connection part.
A process for making an elastic composite structure, which process comprises: A) providing at least one relatively inelastic substrate which is a nonwoven substrate; B) providing a polyurethane material selected form the group consisting of a film and one or more filaments comprising as the soft segment base of said polyurethane material a polyglycol comprising a poly(tetramethylene-co- ethylene ether)glycol comprising constituent units derived by copolymerizing tetrahydrofuran and ethylene oxide, wherein the portion of the units derived from ethylene oxide comprises from 37 mole % to 70 mole % of said poly(tetramethylene-co-ethylene ether)glycol; C) elongating in at least one direction said polyurethane material to a draft of from 5.0 to 5.4; D) applying to at least one surface of said at least one relatively inelastic substrate and/or to at least one surface of said elongated polyurethane material a hot melt adhesive having a temperature of from 127 °C (260 °F) to 177 °C (350 °F); E) contacting the adhesive-containing surfaces of said at least one relatively inelastic substrate and/or said polyurethane material with each other under conditions sufficient to adhesively bond said elongated polyurethane material to said at least one relatively inelastic substrate; and F) after adhesively bonding said elongated polyurethane material to said at least one relatively inelastic substrate, allowing said polyurethane material to relax, to thereby provide said elastic composite structure. A) providing at least one relatively inelastic substrate which is a nonwoven substrate; B) providing a polyurethane material selected form the group consisting of a film and one or more filaments comprising as the soft segment base of said polyurethane material a polyglycol comprising a poly(tetramethylene-co- ethylene ether)glycol comprising constituent units derived by copolymerizing tetrahydrofuran and ethylene oxide, wherein the portion of the units derived from ethylene oxide comprises from 37 mole % to 70 mole % of said poly(tetramethylene-co-ethylene ether)glycol; C) elongating in at least one direction said polyurethane material to a draft of from 5.0 to 5.4; D) applying to at least one surface of said at least one relatively inelastic substrate and/or to at least one surface of said elongated polyurethane material a hot melt adhesive having a temperature of from 127 °C (260 °F) to 177 °C (350 °F); E) contacting the adhesive-containing surfaces of said at least one relatively inelastic substrate and/or said polyurethane material with each other under conditions sufficient to adhesively bond said elongated polyurethane material to said at least one relatively inelastic substrate; and F) after adhesively bonding said elongated polyurethane material to said at least one relatively inelastic substrate, allowing said polyurethane material to relax, to thereby provide said elastic composite structure.
A method comprising: exchanging fabric packets selectively over a plurality of virtual channels between a plurality of processing elements interconnected as a fabric, each processing element comprising a compute engine and a fabric router, the processing elements comprising a sending processing element and a receiving processing element; performing dataflow-based and instruction-based processing in each compute engine in accordance with a virtual channel specifier (1324, 1344) of each fabric packet the compute engine receives, each respective virtual channel specifier identifying one of the plurality of virtual channels and a respective one of a plurality of communication pathways enabled by the fabric; sending a first fabric packet of the fabric packets from the sending processing element; routing the first fabric packet to the receiving processing element via one or more of the fabric routers in accordance with the first fabric packet virtual channel specifier; and in the receiving processing element, picking and processing the first fabric packet, the picking in accordance with the virtual channel specifier of the first fabric packet and respective block/unblock state comprised in the receiving processing element and maintained for each of the plurality of virtual channels. exchanging fabric packets selectively over a plurality of virtual channels between a plurality of processing elements interconnected as a fabric, each processing element comprising a compute engine and a fabric router, the processing elements comprising a sending processing element and a receiving processing element; performing dataflow-based and instruction-based processing in each compute engine in accordance with a virtual channel specifier (1324, 1344) of each fabric packet the compute engine receives, each respective virtual channel specifier identifying one of the plurality of virtual channels and a respective one of a plurality of communication pathways enabled by the fabric; sending a first fabric packet of the fabric packets from the sending processing element; routing the first fabric packet to the receiving processing element via one or more of the fabric routers in accordance with the first fabric packet virtual channel specifier; and in the receiving processing element, picking and processing the first fabric packet, the picking in accordance with the virtual channel specifier of the first fabric packet and respective block/unblock state comprised in the receiving processing element and maintained for each of the plurality of virtual channels.
A pharmaceutical composition comprising: i) a glucokinase activator, or a pharmaceutically acceptable salt thereof, ii) an anti-diabetic drug selected from the group consisting of a GLP-1 analog, or a pharmaceutically acceptable salt thereof; and iii) at least one pharmaceutically acceptable carrier, excipient, diluent or mixture thereof, wherein the glucokinase activator is {2-[3-cyclohexyl-3-(trans-4-propoxy-cyclohexyl)-ureido]-thiazol-5-ylsulfanyl}-acetic acid. i) a glucokinase activator, or a pharmaceutically acceptable salt thereof, ii) an anti-diabetic drug selected from the group consisting of a GLP-1 analog, or a pharmaceutically acceptable salt thereof; and iii) at least one pharmaceutically acceptable carrier, excipient, diluent or mixture thereof,
A valve for use in an inflation/deflation system, particularly for use in a central tire inflation/deflation system, comprising: a valve body having a first inlet/outlet port fluidly connectable to a second inlet/outlet port; a valve member within the valve body for fluidly disconnecting the first inlet/outlet port and the second inlet/outlet port, the valve member being moveable from a first position to a second position; and a damper operably connected to the valve member to dampen movement of the valve member from the second position to the first position; wherein in a first state the first inlet/outlet port is fluidly disconnected from the second inlet/outlet port by the valve member; wherein the valve would transition to a second state when a fluid pressure at the first inlet/outlet port is at or above a prescribed pressure threshold, when in the second state the first inlet/outlet port would be fluidly disconnected from the second inlet/outlet port; and wherein the valve would transition to a third state from the second state when the fluid pressure is below the prescribed pressure threshold while the valve is in the second state, when in the third state the first inlet/outlet port would be fluidly connected to the second inlet/outlet port while the damper will dampen movement of the valve member from the second position to the first position to maintain the valve in the third state for a prescribed period of time. a valve body having a first inlet/outlet port fluidly connectable to a second inlet/outlet port; a valve member within the valve body for fluidly disconnecting the first inlet/outlet port and the second inlet/outlet port, the valve member being moveable from a first position to a second position; and a damper operably connected to the valve member to dampen movement of the valve member from the second position to the first position; wherein in a first state the first inlet/outlet port is fluidly disconnected from the second inlet/outlet port by the valve member; wherein the valve would transition to a second state when a fluid pressure at the first inlet/outlet port is at or above a prescribed pressure threshold, when in the second state the first inlet/outlet port would be fluidly disconnected from the second inlet/outlet port; and wherein the valve would transition to a third state from the second state when the fluid pressure is below the prescribed pressure threshold while the valve is in the second state, when in the third state the first inlet/outlet port would be fluidly connected to the second inlet/outlet port while the damper will dampen movement of the valve member from the second position to the first position to maintain the valve in the third state for a prescribed period of time.
A cultured cartilage tissue material to be used for cartilage regeneration comprising chondrocytes, wherein the cultured cartilage tissue material is a mixed body of the chondrocytes in a concentration of 1 × 10 7 to 1 × 10 9 cells/cm 3, and a bioabsorbable polymer; a thickness of the thinnest part of the cultured cartilage tissue material is 2.2 to 100 mm; a volume ratio between the chondrocytes and the bioabsorbable polymer is 7:3 to 9.5:0.5; a production amount of glycosaminoglycan is 0.001 to 0.2 ng per unit cell; a content ratio between type I collagen and type II collagen is 10:90 to 1:99; and a content of type II collagen is 0.01 to 0.65 mg per 1 mg of dry weight of tissue. wherein the cultured cartilage tissue material is a mixed body of the chondrocytes in a concentration of 1 × 10 7 to 1 × 10 9 cells/cm 3, and a bioabsorbable polymer; a thickness of the thinnest part of the cultured cartilage tissue material is 2.2 to 100 mm; a volume ratio between the chondrocytes and the bioabsorbable polymer is 7:3 to 9.5:0.5; a production amount of glycosaminoglycan is 0.001 to 0.2 ng per unit cell; a content ratio between type I collagen and type II collagen is 10:90 to 1:99; and a content of type II collagen is 0.01 to 0.65 mg per 1 mg of dry weight of tissue.