mhurhangee/ep-ind-claims huggingface dataset:
A method to manage communications, the method comprising: detecting a loss of a device to device, D2D, connection between a first wireless transmit/receive unit, WTRU, and a second WTRU; receiving a list of candidate fallback gateways via which the first WTRU may communicate with the second WTRU upon detection of loss of the D2D connection; determining a fallback gateway, GW, associated with a network based on the list of candidate fallback gateways; sending a communication to the fallback GW, wherein the communication comprises an indication related to the second WTRU; and receiving a response from the fallback GW. detecting a loss of a device to device, D2D, connection between a first wireless transmit/receive unit, WTRU, and a second WTRU; receiving a list of candidate fallback gateways via which the first WTRU may communicate with the second WTRU upon detection of loss of the D2D connection; determining a fallback gateway, GW, associated with a network based on the list of candidate fallback gateways; sending a communication to the fallback GW, wherein the communication comprises an indication related to the second WTRU; and receiving a response from the fallback GW.
A method of making an abrasive article, the method comprising steps: a) providing a porous abrasive member having first and second opposed major surfaces (112, 114), wherein openings extending through the porous abrasive member from the first major surface to the second major surface, wherein the porous abrasive member comprises abrasive particles (330, 420) secured to a porous substrate by at least one binder material; b) urging a malleable thermosetting melt-flowable composition through the openings in the porous abrasive member to form an abrasive article precursor, wherein the malleable melt-flowable composition comprises novolac phenolic resin and furfuryl alcohol; and c) heating the abrasive article precursor to form the abrasive article, wherein the abrasive article comprises first and second opposed major surfaces, and wherein both of the first and second major surfaces comprise a cross-linked reaction product of the malleable thermosetting melt-flowable composition. a) providing a porous abrasive member having first and second opposed major surfaces (112, 114), wherein openings extending through the porous abrasive member from the first major surface to the second major surface, wherein the porous abrasive member comprises abrasive particles (330, 420) secured to a porous substrate by at least one binder material; b) urging a malleable thermosetting melt-flowable composition through the openings in the porous abrasive member to form an abrasive article precursor, wherein the malleable melt-flowable composition comprises novolac phenolic resin and furfuryl alcohol; and c) heating the abrasive article precursor to form the abrasive article, wherein the abrasive article comprises first and second opposed major surfaces, and wherein both of the first and second major surfaces comprise a cross-linked reaction product of the malleable thermosetting melt-flowable composition.
At least one non-transitory machine-accessible storage medium including instructions that, when executed by processing circuitry, cause the processing circuitry to perform operations comprising: receiving an access request from a processor; processing the access request to determine an executable that caused the processor to issue the access request and an object address to which the access is directed; and granting the access request when permission data for the object address identifies the executable and denying the access request otherwise, wherein the permission data comprises an access grant to a first memory region by the executable, the permission data comprises an access grant to a second memory region by a second executable, and the permission data comprises an access grant to the second memory region by the executable; characterized in that the permission data denies access to the first memory region by executables other than the executable program, and wherein the permission data denies access to a third memory region by executables other than the second executable program. receiving an access request from a processor; processing the access request to determine an executable that caused the processor to issue the access request and an object address to which the access is directed; and granting the access request when permission data for the object address identifies the executable and denying the access request otherwise, wherein the permission data comprises an access grant to a first memory region by the executable, the permission data comprises an access grant to a second memory region by a second executable, and the permission data comprises an access grant to the second memory region by the executable; characterized in that the permission data denies access to the first memory region by executables other than the executable program, and wherein the permission data denies access to a third memory region by executables other than the second executable program.
An aircraft pipe coupling comprising a first pipe end and a second pipe end, the first pipe end connected to the second pipe end with a fastener; and a locking collar, the locking collar comprising a first engagement portion and a second engagement portion, the first engagement portion located over and engaged with the fastener, and the second engagement portion located over and engaged with the second pipe end, wherein the locking collar is arranged to restrict the rotational movement of the fastener, the first pipe end, and second pipe end with respect to one another, and one of the first engagement portion and second engagement portion comprises a resiliently deformable engagement surface, characterised in that the second pipe end includes a protrusion in the form of a nut, wherein the nut is larger in outer diameter than the fastener, the second engagement portion being configured to engage with the nut, the locking collar further comprising a shoulder between the first engagement portion and the second engagement portion, the shoulder being arranged to abut against the nut to ensure that the locking collar is correctly located.
Bubble wrap defined by peripheral edges, the bubble wrap comprising a first planar surface and a second cellular surface which comprises a network of sealed bubbles containing trapped air and comprising at least two types of bubbles (2, 22, 23, 24, 25, 26, 27, 28) having separate geometries, the bubbles being separated from one another by a gap, the network of bubbles consisting of a series of lines of bubbles which are parallel and adjacent to one another, each line extending, within the network of bubbles, from a first peripheral edge to a second peripheral edge, the shapes of the two types of bubbles (2, 22, 23, 24, 25, 26, 21, 28) being complementary, the at least two types of bubbles (2, 22, 23, 24, 25, 26, 27, 28) being arranged alternately according to their complementary shape on the same line and/or on two lines adjacent to the network of bubbles and each bubble comprising an upper portion which is planar and extending in the same plane which is parallel to the planar surface of the bubble wrap.
Propeller blade bearing having a propeller hub, a propeller blade and a rolling element bearing between the propeller hub and the propeller blade, wherein - at least one bearing outer ring is secured in rotation with the propeller blade, - at least one bearing inner ring (15, 16, 17) is retained on the propeller hub, - a sleeve-shaped central section, connected to the propeller blade, is arranged radially inside the bearing inner ring (15, 16, 17), - between the bearing outer ring and the central section, there is formed a lubricant chamber which is closed in the radially outward direction in relation to the axis of rotation of the propeller hub. - at least one bearing outer ring is secured in rotation with the propeller blade, - at least one bearing inner ring (15, 16, 17) is retained on the propeller hub, - a sleeve-shaped central section, connected to the propeller blade, is arranged radially inside the bearing inner ring (15, 16, 17), - between the bearing outer ring and the central section, there is formed a lubricant chamber which is closed in the radially outward direction in relation to the axis of rotation of the propeller hub.
Impact shield for a child seat for a vehicle, in particular, a motor vehicle and/or a child sitting on a vehicle seat, in particular, a motor vehicle seat, wherein the impact shield can interact with a belt system to hold a child, wherein at least two belt section-holding devices are provided on the impact shield in such a way that at least two belt sections (24, 25) can be arranged next to one another, wherein the two belt sections have an offset to on another at least in sections transverse to their longitudinal extension, wherein the at least two adjacent belt sections (24,25) next to one another run horizontally at least in sections (24, 25) in the mounted state of the impact shield.
A heat-shrinkable tube having tearability, comprising at least a fluororesin as a base resin, characterized in that a thickness of an entanglement unit of a polymer observed on a cross-section in a longitudinal direction of the tube after being shrunk at 200°C by 35% or more is 1 μm to 9 μm, the thickness of the entanglement unit of the polymer being calculated by measuring the shape of the cross-section of the tube in the longitudinal direction by using a confocal microscope, the shape of the cross-section being indicated as a waveform, and the width of a mountain or valley defining the thickness of the entanglement unit of the polymer.
An isolated antibody that specifically binds to a conformational epitope present on a cyclic peptide, the conformational epitope having an amino acid sequence of at least GSNK or SNKG, wherein the K (Lysine) is solvent-exposed and wherein the antibody can specifically bind to amyloid beta (Aβ).
A system for generating hydrogen from water comprising: (a) a structural material to support: either a primary reactant in solid state selected from: alkali metals, alkaline earth metals, alkali-alkaline earth metal alloys, hydrides of alkali metals or hydrides of alkaline earth metals; or potassium and sodium alloys; or 5/95 Li/Na alloy; and a boost reactant in solid state selected from: silicon, tin, iron, zinc, manganese, aluminium, iron, berylium, magnesium or alloy between them; (b) a moderator material which is a material that slows the speed of the process for generating hydrogen, which is in contact with the structural material (c) a diffuser material wherein the water is diffused before reacting with the primary reactant and wherein the hydrogen obtained is permeated. (a) a structural material to support: either a primary reactant in solid state selected from: alkali metals, alkaline earth metals, alkali-alkaline earth metal alloys, hydrides of alkali metals or hydrides of alkaline earth metals; or potassium and sodium alloys; or 5/95 Li/Na alloy; and a boost reactant in solid state selected from: silicon, tin, iron, zinc, manganese, aluminium, iron, berylium, magnesium or alloy between them; either a primary reactant in solid state selected from: alkali metals, alkaline earth metals, alkali-alkaline earth metal alloys, hydrides of alkali metals or hydrides of alkaline earth metals; or potassium and sodium alloys; or 5/95 Li/Na alloy; and a boost reactant in solid state selected from: silicon, tin, iron, zinc, manganese, aluminium, iron, berylium, magnesium or alloy between them; (b) a moderator material which is a material that slows the speed of the process for generating hydrogen, which is in contact with the structural material (c) a diffuser material wherein the water is diffused before reacting with the primary reactant and wherein the hydrogen obtained is permeated.
A method of fabricating a bioresorbable stent scaffold comprising: providing a tube made of a bioresorbable polymer; exposing the tube to a solvent for a period of time, wherein the solvent is absorbed into the bioresorbable polymer which increases a crystallinity of the bioresorbable polymer; and fabricating a scaffold having a pattern of interconnected struts from the exposed tube; wherein the solvent is methyl alcohol. providing a tube made of a bioresorbable polymer; exposing the tube to a solvent for a period of time, wherein the solvent is absorbed into the bioresorbable polymer which increases a crystallinity of the bioresorbable polymer; and fabricating a scaffold having a pattern of interconnected struts from the exposed tube;
Method for correcting measurements made by a sensor (Ca) of a magnetic field of a magnet (Ai) disposed on a shaft (Ar) of a motor (Mo) for controlling the motor, the motor (Mo) being a brushless DC motor comprising a rotor (Ro) and a stator, the magnetic-field sensor (Ca) making it possible to obtain values of angles during the rotation of the motor, a stator turn being divided into sectors, each sector comprising a plurality of combinations of stator coil commands, each command corresponding to a defined angular range, characterised in that the method comprises the steps, performed by a controller (Co) of the motor, of: - setting the rotor in rotation by creating a rotating field in the stator without knowing the position of the rotor, - obtaining values of so-called standardised angles from the magnetic-field sensor, the values of standardised angles being obtained during a complete turn of the rotor, - calculating linearisation corrections of the standardised angles obtained, - obtaining, for each sector, an angular position of the rotor for a given combination of the sector, - determining an angular mean from the angular positions obtained to obtain an angular difference between the magnetic-field sensor and the magnet disposed on said motor shaft, - setting the rotor in rotation using the angular difference between the magnetic-field sensor and the magnet disposed on said motor shaft, - varying the angular difference and, for each variation, measuring the current consumed by the motor, - selecting the variation that corresponds to the minimum current consumed by the motor as the value of the angular difference. - setting the rotor in rotation by creating a rotating field in the stator without knowing the position of the rotor, - obtaining values of so-called standardised angles from the magnetic-field sensor, the values of standardised angles being obtained during a complete turn of the rotor, - calculating linearisation corrections of the standardised angles obtained, - obtaining, for each sector, an angular position of the rotor for a given combination of the sector, - determining an angular mean from the angular positions obtained to obtain an angular difference between the magnetic-field sensor and the magnet disposed on said motor shaft, - setting the rotor in rotation using the angular difference between the magnetic-field sensor and the magnet disposed on said motor shaft, - varying the angular difference and, for each variation, measuring the current consumed by the motor, - selecting the variation that corresponds to the minimum current consumed by the motor as the value of the angular difference.
An electric heating device, in particular for a motor vehicle, with at least one heating element and with a housing with a first housing side wherein the at least one heating element is arranged in a first plane and the first housing side is arranged in a second plane which intersects the first plane substantially vertically and adjacent to the at least one heating element, further with at least one circuit board which is arranged substantially parallel to the first plane and with a first circuit board side and a second circuit board side opposite to the first circuit board side, wherein the second circuit board side has a partial section, characterised in that the first housing side has at least one window-like opening, wherein the housing has a housing underside which is arranged substantially parallel to the first plane, wherein at least one opening is formed on the housing underside and the partial section is arranged in the region of the at least one opening, so that the partial section is substantially exposed.
A neural stimulator comprising: a sensory detection device that in use detects sensory information; an electrode array that in use is configured to stimulate electrically excitable cells; and a processing circuit in data communication with the sensory detection device and the electrode array, wherein the processing circuit is configured to cause the electrode array to apply a stimulating signal to the electrically excitable cells dependent on the detected sensory information and to repeat the application of the stimulating signal with a progressively increasing signal strength by increasing a total electric charge applied to the cells per application to maintain responsiveness of the cells to the repeated stimulating signal; wherein the electrically excitable cells are retinal cells and wherein the sensory detection device is an image processing device. a sensory detection device that in use detects sensory information; an electrode array that in use is configured to stimulate electrically excitable cells; and a processing circuit in data communication with the sensory detection device and the electrode array, wherein the processing circuit is configured to cause the electrode array to apply a stimulating signal to the electrically excitable cells dependent on the detected sensory information and to repeat the application of the stimulating signal with a progressively increasing signal strength by increasing a total electric charge applied to the cells per application to maintain responsiveness of the cells to the repeated stimulating signal; wherein the electrically excitable cells are retinal cells and wherein the sensory detection device is an image processing device.
A method for producing a sulfide-based solid electrolyte, the method comprising: a solution making step 1 for mixing Li 2 S and P 2 S 5 with each other in an organic solvent so that the Li 2 S/P 2 S 5 molar ratio becomes from 0.7 to 1.5 to prepare an LiP-S homogeneous solution; a solution making step 2 for preparing an Li-Si-S homogeneous solution, which contains at least a lithium element (Li), a silicon element (Si) and a sulfur element in an organic solvent; a solution mixing step for mixing the Li-P-S homogeneous solution and the Li-Si-S homogeneous solution with each other to prepare a homogeneous mixed solution; a slurry forming step for mixing the homogeneous mixed solution and Li 2 S with each other to prepare a slurry; a drying step for removing the organic solvent from the slurry to obtain a precursor; and a heat treatment step for heating the precursor at 200 to 700°C to obtain a sulfide-based solid electrolyte. a solution making step 1 for mixing Li 2 S and P 2 S 5 with each other in an organic solvent so that the Li 2 S/P 2 S 5 molar ratio becomes from 0.7 to 1.5 to prepare an LiP-S homogeneous solution; a solution making step 2 for preparing an Li-Si-S homogeneous solution, which contains at least a lithium element (Li), a silicon element (Si) and a sulfur element in an organic solvent; a solution mixing step for mixing the Li-P-S homogeneous solution and the Li-Si-S homogeneous solution with each other to prepare a homogeneous mixed solution; a slurry forming step for mixing the homogeneous mixed solution and Li 2 S with each other to prepare a slurry; a drying step for removing the organic solvent from the slurry to obtain a precursor; and a heat treatment step for heating the precursor at 200 to 700°C to obtain a sulfide-based solid electrolyte.
An apparatus for sealing a secondary battery, which is configured to seal a pouch, the apparatus comprising: a support block configured to support a bottom surface of a one-side sealing part (12b-1) of the pouch; and a sealing member comprising a sealing roller that is configured to move in a longitudinal direction of the one-side sealing part (12b-1) in a state of pressing a top surface of the one-side sealing part (12b-1) supported on the support block to seal the one-side sealing part (12b-1) supported on the support block, characterized by a straightening member comprising at least a plurality of straightening rollers and a straightening block and being configured to flatten a surface of the one-side sealing part (12b-1) on which the sealing roller passes, wherein each of the sealing roller and the support block have a set temperature to thermally fuse the one-side sealing part (12b-1). a support block configured to support a bottom surface of a one-side sealing part (12b-1) of the pouch; and a sealing member comprising a sealing roller that is configured to move in a longitudinal direction of the one-side sealing part (12b-1) in a state of pressing a top surface of the one-side sealing part (12b-1) supported on the support block to seal the one-side sealing part (12b-1) supported on the support block, characterized by a straightening member comprising at least a plurality of straightening rollers and a straightening block and being configured to flatten a surface of the one-side sealing part (12b-1) on which the sealing roller passes, wherein each of the sealing roller and the support block have a set temperature to thermally fuse the one-side sealing part (12b-1).
A system comprising: a blade track or blade shroud comprising: a substrate, and an abradable layer formed over the substrate, wherein the abradable layer comprises: between 2 mol. % and 40 mol. % ytterbia, between 0.5 mol. % and 20 mol. % samaria, between 0.5 mol. % and 20 mol. % of at least one of lutetia, scandia, ceria, gadolinia, neodymia, or europia, and a balance of at least one of zirconia or hafnia, wherein the abradable layer is free from yttria, and wherein the abradable layer comprises a porosity between 25 vol. % and 50 vol. %; and a gas turbine blade comprising a blade tip, wherein the blade track or blade shroud and the gas turbine blade are configured so the blade tip contacts a portion of the abradable layer during rotation of the gas turbine blade, and wherein the abradable layer is configured to be abraded by the contact by the blade tip. a blade track or blade shroud comprising: a substrate, and an abradable layer formed over the substrate, wherein the abradable layer comprises: between 2 mol. % and 40 mol. % ytterbia, between 0.5 mol. % and 20 mol. % samaria, between 0.5 mol. % and 20 mol. % of at least one of lutetia, scandia, ceria, gadolinia, neodymia, or europia, and a balance of at least one of zirconia or hafnia, wherein the abradable layer is free from yttria, and wherein the abradable layer comprises a porosity between 25 vol. % and 50 vol. %; and a substrate, and an abradable layer formed over the substrate, wherein the abradable layer comprises: between 2 mol. % and 40 mol. % ytterbia, between 0.5 mol. % and 20 mol. % samaria, between 0.5 mol. % and 20 mol. % of at least one of lutetia, scandia, ceria, gadolinia, neodymia, or europia, and a balance of at least one of zirconia or hafnia, wherein the abradable layer is free from yttria, and wherein the abradable layer comprises a porosity between 25 vol. % and 50 vol. %; and between 2 mol. % and 40 mol. % ytterbia, between 0.5 mol. % and 20 mol. % samaria, between 0.5 mol. % and 20 mol. % of at least one of lutetia, scandia, ceria, gadolinia, neodymia, or europia, and a balance of at least one of zirconia or hafnia, wherein the abradable layer is free from yttria, and wherein the abradable layer comprises a porosity between 25 vol. % and 50 vol. %; and a gas turbine blade comprising a blade tip, wherein the blade track or blade shroud and the gas turbine blade are configured so the blade tip contacts a portion of the abradable layer during rotation of the gas turbine blade, and wherein the abradable layer is configured to be abraded by the contact by the blade tip.