mhurhangee/ep-ind-claims huggingface dataset:
A method for performing UE performance test to verify that one or more UE under test fulfils certain performance requirements in an OFDMA system, in which test all or part of available downlink radio resources in a cell are used for transmission, comprising the step of splitting (302, 402, 502) said resources used for transmission into contiguous unities (101, 102, 103, 201, 202, 203) in the frequency domain such that one or more of said unities consists of resources allocated to one or more UE under test; and at least one of said unities consists of resources allocated to virtual UEs.
A use of a copper alloy powder in a powder bed fusion method or a directed energy deposition method for additive manufacturing, the copper alloy powder containing: more than 1.00 mass% and not more than 2.80 mass% of chromium; optionally, an additive element, optionally, an incidental impurity element, and a balance of copper, wherein the total amount of the additive element and the incidental impurity element is less than 0.30 mass%, and wherein the additive element is selected from the group consisting of nickel, zinc, tin, silver, beryllium, zirconium, aluminum, silicon, cobalt, titanium, magnesium, and tellurium. more than 1.00 mass% and not more than 2.80 mass% of chromium; optionally, an additive element, optionally, an incidental impurity element, and a balance of copper, wherein the total amount of the additive element and the incidental impurity element is less than 0.30 mass%, and wherein the additive element is selected from the group consisting of nickel, zinc, tin, silver, beryllium, zirconium, aluminum, silicon, cobalt, titanium, magnesium, and tellurium.
Method of increasing stain resistance of a surface of a layer formed by a paint composition comprising a binder and filler particles, said filler particles being spaced apart in the layer, wherein particles of precipitated calcium carbonate having a particle size in the range of 30 to 60 nm, as assessed and determined from SEM images, are incorporated into the composition, before the composition is formed into the layer, in a sufficient amount to fill at least a portion of the spaces between the filler particles of the surface, wherein said precipitated calcium carbonate particles are incorporated in an amount of 0.5 to 10 % by weight of the dry matter of the composition.
A portable liquid oxygen delivery system comprising: a liquid oxygen storage device; a pneumatic type oxygen conserving device arranged to deliver a bolus dose of oxygen gas to a patient within half a second of the beginning of inhalation by the patient and to inhibit the delivery of oxygen in other portions of the respiratory cycle; a supply line communicating the liquid oxygen storage device and the oxygen conserving device; and an accumulator device; characterized in that the accumulator device is arranged in the supply line to admit and accumulate the oxygen gas under the pressure in the supply line and to deliver accumulated oxygen gas on demand from the oxygen conserving device to maintain at least a predetermined minimum pressure in the supply line to enable the oxygen conserving device to deliver a full bolus dose of oxygen to the patient, wherein the portable liquid oxygen delivery system apart from the accumulator device has a collective gaseous oxygen volume and the accumulator device is enabled to actuate and reduce the collective gaseous oxygen volume. a liquid oxygen storage device; a pneumatic type oxygen conserving device arranged to deliver a bolus dose of oxygen gas to a patient within half a second of the beginning of inhalation by the patient and to inhibit the delivery of oxygen in other portions of the respiratory cycle; a supply line communicating the liquid oxygen storage device and the oxygen conserving device; and an accumulator device; characterized in that the accumulator device is arranged in the supply line to admit and accumulate the oxygen gas under the pressure in the supply line and to deliver accumulated oxygen gas on demand from the oxygen conserving device to maintain at least a predetermined minimum pressure in the supply line to enable the oxygen conserving device to deliver a full bolus dose of oxygen to the patient, wherein the portable liquid oxygen delivery system apart from the accumulator device has a collective gaseous oxygen volume and the accumulator device is enabled to actuate and reduce the collective gaseous oxygen volume.
An oral film preparation obtainable by spreading a solution containing a high potency drug and a film-forming polymer and drying the solution, wherein the high potency drug is nalfurafine hydrochloride, wherein the film-forming polymer is a mixture of hydroxypropyl cellulose and hydroxypropyl methyl cellulose, and wherein the preparation further comprises polyethylene glycol as a plasticizer.
A power tool comprising: a handle housing that defines a handle; a motor received in said handle housing; a transmission received in said handle housing, said transmission including a one-way clutch, said one-way clutch includes an anvil; an output spindle; the power tool characterized by said anvil having a top portion and a bottom portion that extends from said top portion, said anvil defining an aperture, into which anvil aperture there is received an end of said output spindle and which anvil top portion includes a first wall opposite a second wall and a third wall opposite a fourth wall, said third and said fourth walls (968, 970) having a convex shape defining a base and an apex, said apex being closer to a centre of said aperture formed in said anvil and the first wall and second wall have opposed D-shapes; wherein said bottom portion of the anvil has a polygonal shape, wherein an aperture formed in an output gear associated with said transmission has a complementary polygonal shape to that of the bottom portion of the anvil and which aperture receives said bottom portion of said anvil in said aperture defined by said gear; said anvil including a groove formed in a face of said top portion from which said bottom portion extends, said groove generally encircling said bottom portion; and a circular seat member that is received by said groove and disposed between said anvil and said gear. a handle housing that defines a handle; a motor received in said handle housing; a transmission received in said handle housing, said transmission including a one-way clutch, said one-way clutch includes an anvil; an output spindle; the power tool characterized by said anvil having a top portion and a bottom portion that extends from said top portion, said anvil defining an aperture, into which anvil aperture there is received an end of said output spindle and which anvil top portion includes a first wall opposite a second wall and a third wall opposite a fourth wall, said third and said fourth walls (968, 970) having a convex shape defining a base and an apex, said apex being closer to a centre of said aperture formed in said anvil and the first wall and second wall have opposed D-shapes; wherein said bottom portion of the anvil has a polygonal shape, wherein an aperture formed in an output gear associated with said transmission has a complementary polygonal shape to that of the bottom portion of the anvil and which aperture receives said bottom portion of said anvil in said aperture defined by said gear; said anvil including a groove formed in a face of said top portion from which said bottom portion extends, said groove generally encircling said bottom portion; and a circular seat member that is received by said groove and disposed between said anvil and said gear.
A method for estimating the fractured volume in a reservoir domain (Ω) by injecting a high pressure fluid, said domain comprising a borehole with at least one injection point for generating fractures in the domain (Ω) by injecting a high pressure fluid, the method comprising: a) generating, via a computer system, a geomechanical model of the reservoir domain (Ω) employing information from said reservoir; b) generating, via a computer system, a fluid flow model for the fluid stored in the reservoir and for the injection fluid; c) generating, via a computer system, a first numerical mesh discretizing the geomechanical model, said discretization allowing to represent induced fractures in said domain (Ω); d) generating, via a computer system, a second numerical mesh discretizing the fluid model; e) populating, via a computer system, the first numerical mesh with mechanical properties and the second numerical mesh with fluid properties; f) estimating the initial stress in the geomechanical model and defining the initial conditions for the geomechanical model with said stresses, and the initial conditions for the fluid flow model, via a computer system; g) simulating, via a computer system, for a predetermined period of time the geomechanical model and the fluid model, both models (210, 220) being coupled wherein the boundary conditions take into account the injection of high pressure fluid conditions by means of the at least one injection point; h) determining, via a computer system, the numerical mesh (211, 221) regions where the stimulated fracture exist; i) computing, via a computer system, the fractured volume measuring the volume of said numerical mesh (211, 221) regions where the stimulated fracture exist. a) generating, via a computer system, a geomechanical model of the reservoir domain (Ω) employing information from said reservoir; b) generating, via a computer system, a fluid flow model for the fluid stored in the reservoir and for the injection fluid; c) generating, via a computer system, a first numerical mesh discretizing the geomechanical model, said discretization allowing to represent induced fractures in said domain (Ω); d) generating, via a computer system, a second numerical mesh discretizing the fluid model; e) populating, via a computer system, the first numerical mesh with mechanical properties and the second numerical mesh with fluid properties; f) estimating the initial stress in the geomechanical model and defining the initial conditions for the geomechanical model with said stresses, and the initial conditions for the fluid flow model, via a computer system; g) simulating, via a computer system, for a predetermined period of time the geomechanical model and the fluid model, both models (210, 220) being coupled wherein the boundary conditions take into account the injection of high pressure fluid conditions by means of the at least one injection point; h) determining, via a computer system, the numerical mesh (211, 221) regions where the stimulated fracture exist; i) computing, via a computer system, the fractured volume measuring the volume of said numerical mesh (211, 221) regions where the stimulated fracture exist.
A method comprising the steps of: determining, in a base station manager, that a backhaul connection (104a, 104b) of a first base station (102a, 102b) is congested if M is greater than (D - B) / T, where: D is a periodic data cap on the backhaul connection (104a, 104b); B is a total amount of data consumed over the backhaul connection (104a, 104b) during a current time period; M is a traffic load on the backhaul connection (104a, 104b); and T is an amount of time remaining in the current time period; and in response to a determination that the backhaul connection (104a, 104b) is congested, performing, by the base station manager, a configuration of a value of one or more cellular communication parameters utilized by the first base station (102a, 102b). determining, in a base station manager, that a backhaul connection (104a, 104b) of a first base station (102a, 102b) is congested if M is greater than (D - B) / T, where: D is a periodic data cap on the backhaul connection (104a, 104b); B is a total amount of data consumed over the backhaul connection (104a, 104b) during a current time period; M is a traffic load on the backhaul connection (104a, 104b); and T is an amount of time remaining in the current time period; and D is a periodic data cap on the backhaul connection (104a, 104b); B is a total amount of data consumed over the backhaul connection (104a, 104b) during a current time period; M is a traffic load on the backhaul connection (104a, 104b); and T is an amount of time remaining in the current time period; and in response to a determination that the backhaul connection (104a, 104b) is congested, performing, by the base station manager, a configuration of a value of one or more cellular communication parameters utilized by the first base station (102a, 102b).
An integrated circuit for controlling a terminal, the integrated circuit comprising: a codec mode request reception circuitry configured to receive a codec mode request from a base station, the codec mode request including a codec mode that is determined by the base station in accordance with condition of a radio network with which the terminal is to connect; a mode switching notification circuitry configured to notify an encoder of switching to the codec mode included in the received codec mode request; and characterized by a capability notification circuitry configured to notify the base station of capability information indicating that the terminal supports mode switching using the codec mode request from the base station, wherein the codec mode request reception circuitry is configured to receive the codec mode request from the base station when the capability notification circuitry notifies the base station of the capability information indicating that the terminal supports mode switching using the codec mode request from the base station. a codec mode request reception circuitry configured to receive a codec mode request from a base station, the codec mode request including a codec mode that is determined by the base station in accordance with condition of a radio network with which the terminal is to connect; a mode switching notification circuitry configured to notify an encoder of switching to the codec mode included in the received codec mode request; and characterized by a capability notification circuitry configured to notify the base station of capability information indicating that the terminal supports mode switching using the codec mode request from the base station, wherein the codec mode request reception circuitry is configured to receive the codec mode request from the base station when the capability notification circuitry notifies the base station of the capability information indicating that the terminal supports mode switching using the codec mode request from the base station.
A method of purifying highly unsaturated fatty acid derivatives from a mixture comprising highly unsaturated fatty acid derivatives, comprising a step selected from the group consisting of the following to: (a) providing the mixture having a peroxide value of 1 or smaller, wherein the POV of the mixture is managed by a POV reducing agent, and (b) contacting the mixture with an aqueous solution of silver salt; (a) providing the mixture having a POV of 1 or smaller, wherein the POV of the mixture is managed by a POV reducing agent, and (b) mixing the mixture with an aqueous solution of silver salt; (a) decreasing a POV of the mixture to 1 or smaller by contacting the mixture with a POV reducing agent, and (b) contacting the mixture with an aqueous solution of silver salt; and (a) decreasing a POV of the mixture to 1 or smaller by contacting the mixture with a POV reducing agent, and (b) mixing the mixture with an aqueous solution of silver salt. (a) providing the mixture having a peroxide value of 1 or smaller, wherein the POV of the mixture is managed by a POV reducing agent, and (b) contacting the mixture with an aqueous solution of silver salt; (a) providing the mixture having a POV of 1 or smaller, wherein the POV of the mixture is managed by a POV reducing agent, and (b) mixing the mixture with an aqueous solution of silver salt; (a) decreasing a POV of the mixture to 1 or smaller by contacting the mixture with a POV reducing agent, and (b) contacting the mixture with an aqueous solution of silver salt; and (a) decreasing a POV of the mixture to 1 or smaller by contacting the mixture with a POV reducing agent, and (b) mixing the mixture with an aqueous solution of silver salt.
A process for mineral oil production from deposits with a deposit temperature T L of at least 70°C, said deposit comprising, as well as oil, deposit water with a salinity of 20 000 ppm to 350 000 ppm, and said oil having a viscosity η oil (measured at T L) of at least 3 mPa*s' by injecting an aqueous formulation comprising at least one glucan with a β-1,3-glycosidically bonded main chain, and side groups β-1,6-glycosidically bonded thereto and having a weight-average molecular weight M w of 1.5*10 6 to 25*10 6 g/mol into a mineral oil deposit through at least one injection borehole, and withdrawing crude oil from the deposit through at least one production borehole, wherein the process comprises at least the following process steps: providing a concentrate of the glucan in water with a concentration of more than 3g/l to 30 g/l, preparing the aqueous formulation by diluting the concentrate provided in step on site with water to a glucan concentration of 0.05 g/l to 3 g/l, with the proviso that the concentration is selected such that the viscosity η F (measured at 7 s -1 and T L) of the aqueous formulation is at least 3 mPa*s, the viscosity η F being selected in comparison to the viscosity η oil (measured at T L) such that η F ≤ η oil, and injecting the aqueous formulation into the mineral oil formation and withdrawing crude oil through at least one production borehole. providing a concentrate of the glucan in water with a concentration of more than 3g/l to 30 g/l, preparing the aqueous formulation by diluting the concentrate provided in step on site with water to a glucan concentration of 0.05 g/l to 3 g/l, with the proviso that the concentration is selected such that the viscosity η F (measured at 7 s -1 and T L) of the aqueous formulation is at least 3 mPa*s, the viscosity η F being selected in comparison to the viscosity η oil (measured at T L) such that η F ≤ η oil, and injecting the aqueous formulation into the mineral oil formation and withdrawing crude oil through at least one production borehole.
A method performed by a computing device with a video encoder or image encoder (220, 300, 500), comprising: encoding data for a current block of sample values of a picture, the picture being partitioned into a plurality of blocks, including: determining a hash value for the current block using a locality-sensitive hash function, which is a hash function that maps similar blocks to the same hash value, the hash value for the current block being determined using the sample values of the current block; identifying a candidate block list among multiple candidate blocks based at least in part on the hash value for the current block, wherein identifying a candidate block list includes using the hash value for the current block to identify candidate blocks that have the same hash values and to filter out non-matching blocks that have different hash values among the multiple candidate blocks; determining a matching block from the identified candidate block list using sample-wise block matching; and outputting the encoded data, wherein the encoded data includes the hash value for the matching block to represent the current block and the index value for the matching block within the candidate block list. encoding data for a current block of sample values of a picture, the picture being partitioned into a plurality of blocks, including: determining a hash value for the current block using a locality-sensitive hash function, which is a hash function that maps similar blocks to the same hash value, the hash value for the current block being determined using the sample values of the current block; identifying a candidate block list among multiple candidate blocks based at least in part on the hash value for the current block, wherein identifying a candidate block list includes using the hash value for the current block to identify candidate blocks that have the same hash values and to filter out non-matching blocks that have different hash values among the multiple candidate blocks; determining a matching block from the identified candidate block list using sample-wise block matching; and determining a hash value for the current block using a locality-sensitive hash function, which is a hash function that maps similar blocks to the same hash value, the hash value for the current block being determined using the sample values of the current block; identifying a candidate block list among multiple candidate blocks based at least in part on the hash value for the current block, wherein identifying a candidate block list includes using the hash value for the current block to identify candidate blocks that have the same hash values and to filter out non-matching blocks that have different hash values among the multiple candidate blocks; determining a matching block from the identified candidate block list using sample-wise block matching; and outputting the encoded data, wherein the encoded data includes the hash value for the matching block to represent the current block and the index value for the matching block within the candidate block list.
A catheter for delivering a therapeutic element, comprising: a flexible tubing defining a lumen, the flexible tubing having a proximal end and a distal end; a cylindrical heating element disposed at the distal end of the flexible tubing, said cylindrical heating element defining a channel therethrough, the cylindrical heating element including electrical conductors (104, 106) extending along the flexible tubing in a longitudinal direction, the cylindrical heating element being configured to have a layer of adhesive on an inner surface thereof to retain a therapeutic element in the distal end of the flexible tubing; and a spring disposed in the flexible tubing and proximal to the cylindrical heating element, the spring having a proximal end and a distal end, the proximal end fixed within the flexible tubing and the distal end configured for longitudinal movement within the flexible tubing, the distal end extending through the channel defined by the cylindrical heating element in an uncompressed condition, wherein the spring is configured to apply a force on a therapeutic element retained in the distal end of the flexible tubing, and wherein the cylindrical heating element is configured to be heated up by passing a current through the electrical conductors (104, 106) to soften the adhesive until the force of the spring overcomes the bonding force of the adhesive and the spring ejects the therapeutic element from the distal end of the flexible tubing. a flexible tubing defining a lumen, the flexible tubing having a proximal end and a distal end; a cylindrical heating element disposed at the distal end of the flexible tubing, said cylindrical heating element defining a channel therethrough, the cylindrical heating element including electrical conductors (104, 106) extending along the flexible tubing in a longitudinal direction, the cylindrical heating element being configured to have a layer of adhesive on an inner surface thereof to retain a therapeutic element in the distal end of the flexible tubing; and a spring disposed in the flexible tubing and proximal to the cylindrical heating element, the spring having a proximal end and a distal end, the proximal end fixed within the flexible tubing and the distal end configured for longitudinal movement within the flexible tubing, the distal end extending through the channel defined by the cylindrical heating element in an uncompressed condition, wherein the spring is configured to apply a force on a therapeutic element retained in the distal end of the flexible tubing, and wherein the cylindrical heating element is configured to be heated up by passing a current through the electrical conductors (104, 106) to soften the adhesive until the force of the spring overcomes the bonding force of the adhesive and the spring ejects the therapeutic element from the distal end of the flexible tubing.