mhurhangee/patent-ind-claim-en huggingface dataset:
A dynamic orthosis including: - a foot sole , - a shoe in which the foot sole is mounted, - a leg cuff , - a connecting structure offset to the back of the patient's leg and foot and connecting the leg cuff and the shoe together to enable said shoe to pivot around the patient's ankle joint, the connecting structure including an actuator , an axial extension of said actuator and a hinging system mounted between an end of the axial extension and the shoe, characterised in that the hinging system includes: ▪ an insert integral with the shoe , ▪ a first removable rotating element , fitted with an anchoring head adapted to be inserted into the insert , and ▪ a second rotating element mounted at the end of the axial extension , the first and second rotating elements being assembled to allow rotational motion of the axial extension relative to the insert. - a foot sole , - a shoe in which the foot sole is mounted, - a leg cuff , - a connecting structure offset to the back of the patient's leg and foot and connecting the leg cuff and the shoe together to enable said shoe to pivot around the patient's ankle joint, the connecting structure including an actuator , an axial extension of said actuator and a hinging system mounted between an end of the axial extension and the shoe, characterised in that the hinging system includes: ▪ an insert integral with the shoe , ▪ a first removable rotating element , fitted with an anchoring head adapted to be inserted into the insert , and ▪ a second rotating element mounted at the end of the axial extension , the first and second rotating elements being assembled to allow rotational motion of the axial extension relative to the insert. ▪ an insert integral with the shoe , ▪ a first removable rotating element , fitted with an anchoring head adapted to be inserted into the insert , and ▪ a second rotating element mounted at the end of the axial extension , the first and second rotating elements being assembled to allow rotational motion of the axial extension relative to the insert.
A foamable, liquid cleaning composition comprising: i. 0.5 to 5 wt.% C 8-18 alkoxylated anionic surfactant having 1 to 30 moles of alkylene oxide, preferably has 1 to 20 moles of ethylene oxide, more preferably 1 to 10 moles of ethylene oxide; ii. 5 to 20 wt.% nonionic surfactants; iii. 0.1 to 10 wt.% water miscible glycol ether solvent; iv. 0.1 to 10 wt.% water immiscible fatty acid ester solvent selected from the group consisting of methyl laurate, ethyl laurate, ethyl octanoate or mixtures thereof; v. 0.5 to 10% of sequestrant selected from the group consisting of citric, adipic, succinic, maleic, glutaric acids, mixtures thereof or salts thereof; and vi. water; wherein the composition has a viscosity of less than 100 mPa.s at 25°C and 20 s -1 , wherein ratio of the sum of alkoxylated surfactant and nonionic surfactant to the solvent is in a weight ratio ranging from 0.93:1 to 20:1, and wherein the pH of the composition ranges from 2.0 to 4.5, preferably from 2.5 to 4.0. i. 0.5 to 5 wt.% C 8-18 alkoxylated anionic surfactant having 1 to 30 moles of alkylene oxide, preferably has 1 to 20 moles of ethylene oxide, more preferably 1 to 10 moles of ethylene oxide; ii. 5 to 20 wt.% nonionic surfactants; iii. 0.1 to 10 wt.% water miscible glycol ether solvent; iv. 0.1 to 10 wt.% water immiscible fatty acid ester solvent selected from the group consisting of methyl laurate, ethyl laurate, ethyl octanoate or mixtures thereof; v. 0.5 to 10% of sequestrant selected from the group consisting of citric, adipic, succinic, maleic, glutaric acids, mixtures thereof or salts thereof; and vi. water;
Support of a flood protection wall , wherein the support serves, on opposed sides, for the mounting of dam beams of the flood protection wall that can be stacked above one another, and the support has oppositely arranged U-shaped receptacles for ends of the dam beams , wherein the support is of multipart design, wherein one support part has a U-shaped receptacle and a further support part has another U-shaped receptacle , and the connection of the respective support part (5 or 6) to form the support occurs in that region of this support part (5 or 6) which faces the other support part (6 or 5), and the two support parts are arranged bearing against one another, wherein the support furthermore has at least one mechanical connection means , and wherein the respective support part (5 or 6) has, on its side facing the other support part (6 or 5) at least one receptacle for the at least one mechanical connection means , for the purpose of connecting these two support parts by interaction of the connection means with the two support parts , characterized in that the respective receptacle for the connection means is designed as an undercut groove which extends in the longitudinal direction of the support part (5 or 6), and the connection means is designed as a bar , wherein the bar is plugged into adjacently arranged grooves (23, 23; 24, 24) of the two support parts .
A method for inband telemetry for a virtual transponder which is a transponder partitioned into multiple transponders, the method comprising: transmitting, by a payload antenna on a vehicle , a hosted payload signal which is a signal provided by at least a portion of the payload used by at least one hosted user to a hosted receiving antenna used by the at least one hosted user ; and transmitting, by the payload antenna, a hosted telemetry signal which is a telemetry signal related to the configuration of at least one portion of the payload used by the at least one hosted user to the hosted receiving antenna, characterized in that the hosted telemetry signal and the hosted payload signal are transmitted on a same hosted frequency band. transmitting, by a payload antenna on a vehicle , a hosted payload signal which is a signal provided by at least a portion of the payload used by at least one hosted user to a hosted receiving antenna used by the at least one hosted user ; and transmitting, by the payload antenna, a hosted telemetry signal which is a telemetry signal related to the configuration of at least one portion of the payload used by the at least one hosted user to the hosted receiving antenna, characterized in that the hosted telemetry signal and the hosted payload signal are transmitted on a same hosted frequency band.
A method of manufacturing a nanofluid, the method comprising exposing a mixture, contained in a container, of a base fluid and precursor mixture, to gamma radiation, wherein in exposing the mixture to gamma radiation, the container, and thereby the mixture, is rotated relative to gamma radiation beam rays thus substantially uniformly irradiating the mixture and preventing agglomeration of nanoparticles formed during radiolysis of the precursor, wherein the container, and thereby the mixture, is rotated such that the rotational axis of the container is substantially perpendicular to the direction of travel of the gamma radiation beam rays to allow all sides of the container, and thereby the mixture, to be exposed to gamma radiation during rotation thereof.
A method of implementing three-layer communication, applied to a system comprising a controlling bridge and a port extender , wherein the method comprising: creating , by the controlling bridge, a first Virtual Management Ethernet, VME, port with a first Media Access Control, MAC, address, and allocating a first Internet Protocol, IP, address belonging to a management virtual private network to the first VME port; creating , by the port extender, a second VME port with a second MAC address; requesting , by the port extender, an IP address of the second VME port from the controlling bridge; allocating , by the controlling bridge, a second IP address belonging to the management virtual private network to the second VME port, and notifying the port extender of the second IP address and the first IP address; acquiring , by the controlling bridge, the second MAC address of the second VME port to send a management packet to the second VME port and receive a management packet from the second VME port through three-layer communication; and acquiring , by the port extender, the first MAC address of the first VME port to send a management packet to the first VME port and receive a management packet from the first VME port through three-layer communication. creating , by the controlling bridge, a first Virtual Management Ethernet, VME, port with a first Media Access Control, MAC, address, and allocating a first Internet Protocol, IP, address belonging to a management virtual private network to the first VME port; creating , by the port extender, a second VME port with a second MAC address; requesting , by the port extender, an IP address of the second VME port from the controlling bridge; allocating , by the controlling bridge, a second IP address belonging to the management virtual private network to the second VME port, and notifying the port extender of the second IP address and the first IP address; acquiring , by the controlling bridge, the second MAC address of the second VME port to send a management packet to the second VME port and receive a management packet from the second VME port through three-layer communication; and acquiring , by the port extender, the first MAC address of the first VME port to send a management packet to the first VME port and receive a management packet from the first VME port through three-layer communication.
A cured or uncured structural composite material comprising a structural component; a resin component; and an interlayer comprising at least two types of nonwoven material in one or more nonwoven layers wherein a first type of nonwoven material comprises a core portion of the interlayer and wherein a second type of nonwoven material comprises outer portions of the interlayer on either side of a core portion; wherein the structural component is in a form of a plurality of layers of textile that comprises structural fibers; wherein the interlayer comprising at least two types of nonwoven material in one or more nonwoven layers is positioned between a pair of adjacent layers of the textile; and wherein upon curing the interlayer comprises a resin interpenetration gradient between the nonwoven material in the core and outer portions in the z direction in the structural composite material, wherein the nonwoven material comprises at least one thermoplastic elastomer or a blend thereof; and at least one thermoplastic polymer or copolymer and/or a blend thereof, wherein the resin component is a thermosetting composition, and wherein: - either the interlayer comprises at least three layers of nonwoven material; wherein the core portion comprises a layer of the first type of nonwoven material; wherein the outer portions are outer layers of the second type of nonwoven material; and wherein the core layer is positioned between the outer layers such that a resin interpenetrated gradient in the z direction due to the use of different compositions is formed upon curing, - or the interlayer comprises one layer of nonwoven material having a compositional gradient; and wherein the compositional gradient progressively varies from the core portion to the outer portions of the interlayer such that a resin interpenetrated gradient in the z direction is formed upon curing. - either the interlayer comprises at least three layers of nonwoven material; wherein the core portion comprises a layer of the first type of nonwoven material; wherein the outer portions are outer layers of the second type of nonwoven material; and wherein the core layer is positioned between the outer layers such that a resin interpenetrated gradient in the z direction due to the use of different compositions is formed upon curing, - or the interlayer comprises one layer of nonwoven material having a compositional gradient; and wherein the compositional gradient progressively varies from the core portion to the outer portions of the interlayer such that a resin interpenetrated gradient in the z direction is formed upon curing.
A coiled tubing service rig comprising: A. a mast having a long axis; and B. a base structure for the mast , the mast pivotally mounted to the base structure , wherein the mast is able to pivot from a position substantially parallel to ground to substantially perpendicular to ground; C. a coiled tubing injector , while operatively mounted to the mast , is able to (i) travel longitudinally along the mast from a position near to the base structure when the mast is perpendicular to the ground to a position away from the base structure when the mast is perpendicular to the ground, and (ii) rotate from a position substantially parallel to the long axis to a position substantially perpendicular to the long axis; and D. a pipe comprising at least one lubricator , the pipe further having one end being connected to the coiled tubing injector and another end not connected to the coiled tubing injector , characterized in that , while the coiled tubing injector is operatively mounted to the mast and when the pipe is in a parallel position with respect to the ground, a coiled tubing is capable of being passed through the coiled tubing injector in a horizontal position, through the lubricator and out the end of the lubricator oriented away from the coiled tubing injector . A. a mast having a long axis; and B. a base structure for the mast , the mast pivotally mounted to the base structure , wherein the mast is able to pivot from a position substantially parallel to ground to substantially perpendicular to ground; C. a coiled tubing injector , while operatively mounted to the mast , is able to (i) travel longitudinally along the mast from a position near to the base structure when the mast is perpendicular to the ground to a position away from the base structure when the mast is perpendicular to the ground, and (ii) rotate from a position substantially parallel to the long axis to a position substantially perpendicular to the long axis; and (i) travel longitudinally along the mast from a position near to the base structure when the mast is perpendicular to the ground to a position away from the base structure when the mast is perpendicular to the ground, and (ii) rotate from a position substantially parallel to the long axis to a position substantially perpendicular to the long axis; and D. a pipe comprising at least one lubricator , the pipe further having one end being connected to the coiled tubing injector and another end not connected to the coiled tubing injector ,
A heat exchanger for use in a gas turbine engine comprising: a central body including an inlet manifold (126; 202) and at least two outlet manifolds (128; 204), and a plurality of tubes for communicating air between holes in an outer periphery of said inlet manifold (126; 202) and holes in an outer periphery of said at least two outlet manifolds (128; 204); and passages for cooling air to pass across said tubes , wherein said inlet manifold (126; 202) is positioned centrally between said at least two outlet manifolds (128; 204), characterised in that : said central body is formed of super alloy nickel material including at least 50 percent by weight of gamma-prime; said tubes each pass through a plurality of plates on opposed sides of said central body and said tubes extend to both sides of said inlet manifold (126; 202) and include an elbow that returns into another tube portion that extends toward the at least two outlet manifolds (128; 204); and said heat exchanger extends between two opposed ends and is configured such that air to be cooled passes into said inlet manifold (126; 202) at both said opposed ends, and passes from said at least two outlet manifolds (128; 204) at both said opposed ends. a central body including an inlet manifold (126; 202) and at least two outlet manifolds (128; 204), and a plurality of tubes for communicating air between holes in an outer periphery of said inlet manifold (126; 202) and holes in an outer periphery of said at least two outlet manifolds (128; 204); and passages for cooling air to pass across said tubes , wherein said inlet manifold (126; 202) is positioned centrally between said at least two outlet manifolds (128; 204), characterised in that : said central body is formed of super alloy nickel material including at least 50 percent by weight of gamma-prime; said tubes each pass through a plurality of plates on opposed sides of said central body and said tubes extend to both sides of said inlet manifold (126; 202) and include an elbow that returns into another tube portion that extends toward the at least two outlet manifolds (128; 204); and said heat exchanger extends between two opposed ends and is configured such that air to be cooled passes into said inlet manifold (126; 202) at both said opposed ends, and passes from said at least two outlet manifolds (128; 204) at both said opposed ends.
A grommet comprising: a water stop portion that has an annular shape and is inserted to a through hole formed in an attachment panel for stopping water; and a closing portion that is arranged to project toward a radially inner side of the water stop portion to close the annular shape of the water stop portion , wherein the water stop portion includes: a first contact portion that is capable of coming into contact with a first side surface of a circumference edge portion of the through hole in an axial direction (X), and is formed in an annular shape; a second contact portion that is provide on a radially outer side of the first contact portion , is capable of coming into contact with the first side surface , and is formed in an annular shape; a groove portion formed in an annular shape between the first contact portion and the second contact portion ; and a recess/protrusion portion that is formed on a circumferential wall inside the groove portion , characterized in that the water stop portion further includes a third contact portion that is capable of coming into contact with a second side surface of the circumference edge portion of the through hole in the axial direction (X), is formed in an annular shape, and faces the first contact portion in the axial direction (X). a water stop portion that has an annular shape and is inserted to a through hole formed in an attachment panel for stopping water; and a closing portion that is arranged to project toward a radially inner side of the water stop portion to close the annular shape of the water stop portion , wherein the water stop portion includes: a first contact portion that is capable of coming into contact with a first side surface of a circumference edge portion of the through hole in an axial direction (X), and is formed in an annular shape; a second contact portion that is provide on a radially outer side of the first contact portion , is capable of coming into contact with the first side surface , and is formed in an annular shape; a groove portion formed in an annular shape between the first contact portion and the second contact portion ; and a recess/protrusion portion that is formed on a circumferential wall inside the groove portion , a first contact portion that is capable of coming into contact with a first side surface of a circumference edge portion of the through hole in an axial direction (X), and is formed in an annular shape; a second contact portion that is provide on a radially outer side of the first contact portion , is capable of coming into contact with the first side surface , and is formed in an annular shape; a groove portion formed in an annular shape between the first contact portion and the second contact portion ; and a recess/protrusion portion that is formed on a circumferential wall inside the groove portion ,
A flexible display apparatus, comprising: a flexible base layer defined with a first area, a second area and a first bend allowance section between the first area and the second area of the flexible base layer; an array of organic-light emitting diode (OLED) elements and an array of pixel circuits disposed in the first area of the flexible base layer, the array of pixel circuits being configured to control emission of the array of OLED elements; and a gate-in-panel (GIP) circuit in the second area of the flexible base layer, wherein the GIP circuit has at least one thin-film transistor comprising a semiconductor layer of a first type and the array of pixel circuits has at least one thin-film transistor comprising a semiconductor layer of a second type, the first type being different from the second type, and wherein one of the semiconductor layer of the first type and the semiconductor layer of the second type is an oxide semiconductor layer and the other one of the semiconductor layer of the first type and the semiconductor layer of the second type is a low-temperature-poly-silicon (LTPS) semiconductor layer, and wherein the oxide semiconductor layer is patterned as lines in the first bend allowance section, the lines extending between the first area and the second area. a flexible base layer defined with a first area, a second area and a first bend allowance section between the first area and the second area of the flexible base layer; an array of organic-light emitting diode (OLED) elements and an array of pixel circuits disposed in the first area of the flexible base layer, the array of pixel circuits being configured to control emission of the array of OLED elements; and a gate-in-panel (GIP) circuit in the second area of the flexible base layer, wherein the GIP circuit has at least one thin-film transistor comprising a semiconductor layer of a first type and the array of pixel circuits has at least one thin-film transistor comprising a semiconductor layer of a second type, the first type being different from the second type, and wherein one of the semiconductor layer of the first type and the semiconductor layer of the second type is an oxide semiconductor layer and the other one of the semiconductor layer of the first type and the semiconductor layer of the second type is a low-temperature-poly-silicon (LTPS) semiconductor layer, and wherein the oxide semiconductor layer is patterned as lines in the first bend allowance section, the lines extending between the first area and the second area.
A method for logging into a computing device , wherein - a computing device is logged into by entering a combination of a valid user name and a password at a login prompt being provided by the computing device ; - the computing device is logged into by entering a combination of at least one valid user name and a device-dependent password referred to as a backlock access password and being associated with and determined by the computing device at the login prompt , characterized in that - the computing device generates the backlock access password when the user name having been entered at the login prompt is a valid user name and the password having been entered at the login prompt is not a user password being associated with the valid user name. - a computing device is logged into by entering a combination of a valid user name and a password at a login prompt being provided by the computing device ; - the computing device is logged into by entering a combination of at least one valid user name and a device-dependent password referred to as a backlock access password and being associated with and determined by the computing device at the login prompt , characterized in that - the computing device generates the backlock access password when the user name having been entered at the login prompt is a valid user name and the password having been entered at the login prompt is not a user password being associated with the valid user name.