mhurhangee/patent-ind-claim-en huggingface dataset:
A network node configured to communicate with a wireless device , WD, the network node configured to configure at least one periodic signal of the WD based at least on at least one parameter, the at least one parameter corresponding to a time division duplex, TDD, pattern, wherein the at least one parameter includes an indication of transmission opportunities in the TDD pattern for the WD , wherein the at least one parameter includes a first parameter representing a periodicity in terms of transmission opportunities and a second parameter representing an offset in terms of transmission opportunities, wherein the transmission opportunities are indicated using contiguous integers, and wherein the indication of the transmission opportunities for the WD is one of a bitmap and a variable-length vector that indicates the transmission opportunities. wherein the at least one parameter includes an indication of transmission opportunities in the TDD pattern for the WD , wherein the at least one parameter includes a first parameter representing a periodicity in terms of transmission opportunities and a second parameter representing an offset in terms of transmission opportunities, wherein the transmission opportunities are indicated using contiguous integers, and wherein the indication of the transmission opportunities for the WD is one of a bitmap and a variable-length vector that indicates the transmission opportunities.
A method of supplying a thermoplastic polymer film with a longitudinal orientation by stretching in solid state by use of stretching rollers characterised in that at least one stretching roller is a smooth roller having a diameter which is 40 mm or less and in that such stretching roller is supported by several short support rollers , which are assembled along its length, and the axes of which are mutually displaced so as to nest the said stretching roller.
The use of phenolic agent comprising at least one of o-allylphenol and o,o'-diallylbisphenol and being present in an amount of 0.5-8 wt % based on the weight of the composition in an epoxy adhesive composition comprising an epoxy resin, a gelling agent, and a hardener, wherein the composition comprises the gelling agent in an amount of 2-6 wt% of the composition, the hardener in an amount of 1-10 wt% of the composition, a toughener in an amount of 6-20 wt% of the composition, and a rubber component in an amount of 1-15 wt% of the composition, and wherein :- the gelling agent comprises at least one of a polyesterdiol, a polyamide, a fatty acid amide, and a polyvinyl butyral, the hardener comprises dicyandiamide, the toughener comprises at least one of a capped polyurethane, and a rubber modified epoxy resin, and the rubber component comprises at least one of a liquid rubber, a core-shell rubber and a polyamine-epoxy adduct; to provide a pre-gelled epoxy adhesive with improved wash-out resistance.
An integrated-circuit device comprising a processor , non-volatile memory for storing executable code, non-volatile memory control logic , and memory protection logic , wherein the memory protection logic is configured to: detect a memory read request by the processor; determine whether the read request is for an address in a protected region of the memory; and determine whether the processor issued the read request while executing code stored in the protected region of the memory; characterised in that the memory protection logic is further configured to: determine whether the processor issued the read request while executing code stored in the protected region of memory by determining whether the address of an instruction-fetch operation, immediately preceding the memory read request, was within the protected region; determine the state of a binary read protection flag for the protected region of the memory, the read protection flag being stored in a protection-configuration region of the non-volatile memory; and deny read requests for addresses in the protected region if the binary read protection flag for the protected region is set, unless at least one of one or more access conditions is met, wherein one of said access conditions is that the processor issued the read requests while executing code stored in the protected region, wherein the non-volatile memory control logic is arranged to prevent writing to any portion of the protection-configuration region unless that portion is in an erased state and to allow the protection configuration region to be erased only if a protected region of the non-volatile memory is in an erased state. detect a memory read request by the processor; determine whether the read request is for an address in a protected region of the memory; and determine whether the processor issued the read request while executing code stored in the protected region of the memory; determine whether the processor issued the read request while executing code stored in the protected region of memory by determining whether the address of an instruction-fetch operation, immediately preceding the memory read request, was within the protected region; determine the state of a binary read protection flag for the protected region of the memory, the read protection flag being stored in a protection-configuration region of the non-volatile memory; and deny read requests for addresses in the protected region if the binary read protection flag for the protected region is set, unless at least one of one or more access conditions is met, wherein one of said access conditions is that the processor issued the read requests while executing code stored in the protected region,
A method for a network node , the method comprising: generating (S134) at least one port indication in one of a rank-nested and a non-rank-nested manner; and signalling (S136) the at least one port indication in the one of the rank-nested and the non-rank-nested manner, wherein in the rank-nested manner, the at least one port indication includes a list of port indices in which a first port index in the list indicates a port for a rank 1 channel state information, CSI, measurement, first two port indices in the list indicates ports for a rank 2 CSI measurement, one or more first k, k=1,2,...,8, port indices in the list indicates one or more ports for a rank k CSI measurement, and wherein in the non-rank-nested manner, the at least one port indication includes a plurality of port indications, each one of the plurality of port indications for each associated rank. generating (S134) at least one port indication in one of a rank-nested and a non-rank-nested manner; and signalling (S136) the at least one port indication in the one of the rank-nested and the non-rank-nested manner, wherein in the rank-nested manner, the at least one port indication includes a list of port indices in which a first port index in the list indicates a port for a rank 1 channel state information, CSI, measurement, first two port indices in the list indicates ports for a rank 2 CSI measurement, one or more first k, k=1,2,...,8, port indices in the list indicates one or more ports for a rank k CSI measurement, and wherein in the non-rank-nested manner, the at least one port indication includes a plurality of port indications, each one of the plurality of port indications for each associated rank.
Method for identifying a blade malposition of a rotor blade of a wind power installation having one rotor and at least three rotor blades which in terms of the blade angles thereof are individually adjustable, wherein - for each rotor blade an actual angle is detected as the actual value of the blade angle; and - the blade malposition is identified as a function of - a blade angle deviation of the rotor blade and - a rotational progress of the rotor, wherein - the blade angle deviation describes a deviation of the actual angle from a reference angle; and - the rotational progress is representative of an angle about which the rotor has rotated onward after a start criterion. - for each rotor blade an actual angle is detected as the actual value of the blade angle; and - the blade malposition is identified as a function of - a blade angle deviation of the rotor blade and - a rotational progress of the rotor, wherein - a blade angle deviation of the rotor blade and - a rotational progress of the rotor, - the blade angle deviation describes a deviation of the actual angle from a reference angle; and - the rotational progress is representative of an angle about which the rotor has rotated onward after a start criterion.
A combination of a thin-walled first pipe section and a thin-walled second pipe section configured to be connected to each other to form a pipe using a screw thread connection, each thin-walled pipe section comprising a middle part , a first end and a second end , wherein the screw thread connection is formed by: an inner screw thread arranged at an inner surface provided at a first end of the first pipe section , and an outer screw thread arranged at an outer surface provided at a second end of the second pipe section , characterized in that the inner screw thread and the outer screw thread are designed to have a negative play with respect to each other, such that screwing the inner screw thread and the outer screw thread in each other leads to stresses above the yield point of the material, and, as a result, in plastic deformation of the inner screw thread, the outer screw thread and the inner surface and the outer surface , wherein the deformation is absorbed in the first end of the first pipe section and the second end of the second pipe section, wherein the screw thread connection is intended to be plastically deformed during screwing the inner screw thread and the outer screw thread in each other to obtain an increased wall thickness at the screw thread connection of at least 5 % with respect to the wall thickness in a middle part of the first pipe section and the second pipe section . an inner screw thread arranged at an inner surface provided at a first end of the first pipe section , and an outer screw thread arranged at an outer surface provided at a second end of the second pipe section , characterized in that the inner screw thread and the outer screw thread are designed to have a negative play with respect to each other, such that screwing the inner screw thread and the outer screw thread in each other leads to stresses above the yield point of the material, and, as a result, in plastic deformation of the inner screw thread, the outer screw thread and the inner surface and the outer surface , wherein the deformation is absorbed in the first end of the first pipe section and the second end of the second pipe section, wherein the screw thread connection is intended to be plastically deformed during screwing the inner screw thread and the outer screw thread in each other to obtain an increased wall thickness at the screw thread connection of at least 5 % with respect to the wall thickness in a middle part of the first pipe section and the second pipe section .
A method for producing an aerogel blanket, the method comprising the steps of: 1) mixing a silica precursor, water, and alcohol to prepare a silica sol; 2) adding an additive represented by Formula 1 below to the silica sol; 3) mixing a basic catalyst with the silica sol mixed with the additive and then impregnating a blanket substrate; 4) performing a gelation reaction of the silica sol in a state in which the silica sol is impregnated into the blanket substrate; 5) thereafter, performing surface modifying and drying; and wherein the additive is a plate type powder; [Formula 1] M(OH) x ·M y O z ·SiO 2 (wherein M is at least one metal element selected from the group consisting of Mg, Ca and Al, and x, y and z are positive integers of 3 or less). 1) mixing a silica precursor, water, and alcohol to prepare a silica sol; 2) adding an additive represented by Formula 1 below to the silica sol; 3) mixing a basic catalyst with the silica sol mixed with the additive and then impregnating a blanket substrate; 4) performing a gelation reaction of the silica sol in a state in which the silica sol is impregnated into the blanket substrate; 5) thereafter, performing surface modifying and drying; and
A mobile terminal comprising: a flexible display; a first body configured to support a first region of the flexible display; a second body configured to support a second region of the flexible display; and a hinge rotatably coupling the first body with the second body , wherein the flexible display attached on one surface of the first body is changed from an unfolded state, in which the flexible display is configured to be flat, to a folded state, in which the flexible display is exposed on the outside of the mobile terminal, by a rotation of the first body relative to the second body , characterized in that the first body comprises a receiving space formed to be recessed on one side of the first body , wherein the receiving space is sized to receive the second body and the second region of the flexible display when the flexible display is in the folded state. a flexible display; a first body configured to support a first region of the flexible display; a second body configured to support a second region of the flexible display; and a hinge rotatably coupling the first body with the second body , wherein the flexible display attached on one surface of the first body is changed from an unfolded state, in which the flexible display is configured to be flat, to a folded state, in which the flexible display is exposed on the outside of the mobile terminal, by a rotation of the first body relative to the second body , characterized in that the first body comprises a receiving space formed to be recessed on one side of the first body , wherein the receiving space is sized to receive the second body and the second region of the flexible display when the flexible display is in the folded state.
Device for cooling an electrical energy storage unit, the device comprising at least one tube exchanger , the device being characterized in that it also comprises a plate exchanger , the tube exchanger and the plate exchanger being in fluid communication such as to form a circuit for circulation of a cooling fluid.
A pulsed high power rock crushing tool , said tool comprising a generator and a primary pair of electrodes , said generator comprising a high voltage source electrically connected, on the one hand, to a ground (M) and, on the other hand, in series with at least one two-position switch , said switch being electrically connected to a first electrode of the primary pair of electrodes , the second electrode of the primary pair of electrodes being placed facing the first electrode by being spaced by a socalled "inter-electrode" distance (D1), the tool being characterised in that it comprises at least one energy recovery module (30-1, 30-2, 30-3) comprising at least one capacitor (C1, C2, C3) and a secondary pair of electrodes (30-1A, 30-1B; 30-2A, 30-2B; 30-3A, 30-3B), the at least one capacitor (C1) of the first energy recovery module (30-1) being electrically connected, on the one hand, to the second electrode of the primary pair of electrodes and, on the other hand, to the ground (M), the secondary pair of electrodes (30-1A, 30-1B) of the first energy recovery module (30-1) comprising a first electrode (30-1A), electrically connected to the midpoint (M1) located between the second electrode of the primary pair of electrodes and the at least one capacitor (C1), and a second electrode (30-1B), placed facing the first electrode (30-1A) of the secondary pair of electrodes (30-1A, 30-1B) by being spaced by a second inter-electrode distance (D2) and electrically connected to the ground (M).
A continuous coil surface treatment process suitable for both a coil of a 5XXX aluminum alloy sheet and of a 6XXX aluminum alloy sheet having a surface comprising the successive steps of: a) optionally cleaning the surface of the aluminum alloy sheet; b) etching the surface of the optionally cleaned aluminum alloy sheet with a fluorine-free acidic solution; c) rinsing the surface of the etched aluminum alloy sheet with deionized water; d) applying to the surface of the etched aluminum alloy sheet a conversion solution comprising titanium and zirconium, with a zirconium to titanium weight ratio of from 3.0 to 5.0 preferably from 3.2 to 4.0; e) optionally rinsing the surface of the converted aluminum alloy sheet with deionized water; and, f) drying the surface of the aluminum alloy sheet. a) optionally cleaning the surface of the aluminum alloy sheet; b) etching the surface of the optionally cleaned aluminum alloy sheet with a fluorine-free acidic solution; c) rinsing the surface of the etched aluminum alloy sheet with deionized water; d) applying to the surface of the etched aluminum alloy sheet a conversion solution comprising titanium and zirconium, with a zirconium to titanium weight ratio of from 3.0 to 5.0 preferably from 3.2 to 4.0; e) optionally rinsing the surface of the converted aluminum alloy sheet with deionized water; and, f) drying the surface of the aluminum alloy sheet.
An oral composition comprising the following ingredients (A), (B), (C), and (D): (A) 0.01 mass% or more and 2.5 mass% or less of one or more oil-soluble medicinal ingredients selected from the group consisting of glycyrrhetinic acid, tocopherol, and a tocopherol derivative selected from tocopherol acetate, tocopherol succinate and tocopherol nicotinate; (B) 4 mass% or more and 30 mass% or less of a higher alcohol having 12 or more and 22 or less carbon atoms comprising (b1) cetanol and (b2) stearyl alcohol; (C) 0.1 mass% or more and 10 mass% or less of a surfactant comprising one or more selected from the group consisting of (c1) a nonionic surfactant selected from the group consisting of sorbitan fatty acid ester and polyoxyethylene sorbitan fatty acid ester, and (c2) an anionic surfactant being a fatty acid having 12 or more and 22 or less carbon atoms or a salt thereof; and (D) water wherein a mass ratio of the content of (E) an oil agent other than ingredients (A), (B), and (C) and a flavoring agent to the content of ingredient (B), ((E)/(B)), is less than 1; and the content of an abrasive powder (F) comprising a polyvalent metal is 5 mass% or less. (A) 0.01 mass% or more and 2.5 mass% or less of one or more oil-soluble medicinal ingredients selected from the group consisting of glycyrrhetinic acid, tocopherol, and a tocopherol derivative selected from tocopherol acetate, tocopherol succinate and tocopherol nicotinate; (B) 4 mass% or more and 30 mass% or less of a higher alcohol having 12 or more and 22 or less carbon atoms comprising (b1) cetanol and (b2) stearyl alcohol; (C) 0.1 mass% or more and 10 mass% or less of a surfactant comprising one or more selected from the group consisting of (c1) a nonionic surfactant selected from the group consisting of sorbitan fatty acid ester and polyoxyethylene sorbitan fatty acid ester, and (c2) an anionic surfactant being a fatty acid having 12 or more and 22 or less carbon atoms or a salt thereof; and (D) water
A method of producing a plurality of agglomerates for inclusion in an electrically responsive composite material , comprising the steps of: obtaining a plurality of electrically conductive or semi-conductive particles ; mixing said plurality of electrically conductive or semi-conductive particles in a centrifugal mixer , said mixing step comprising operating said centrifugal mixer at a Froude number of between 220 and 1100; and adhering said plurality of electrically conductive or semi-conductive particles by adding a granulation binder and mixing said granulation binder with said plurality of electrically conductive or semi-conductive particles to form a plurality of agglomerates; characterised in that : each said step of obtaining, mixing and adhering said electrically conductive or semi-conductive particles pre-forms said plurality of agglomerates prior to introduction of said plurality of agglomerates into said electrically responsive composite material. obtaining a plurality of electrically conductive or semi-conductive particles ; mixing said plurality of electrically conductive or semi-conductive particles in a centrifugal mixer , said mixing step comprising operating said centrifugal mixer at a Froude number of between 220 and 1100; and adhering said plurality of electrically conductive or semi-conductive particles by adding a granulation binder and mixing said granulation binder with said plurality of electrically conductive or semi-conductive particles to form a plurality of agglomerates; characterised in that : each said step of obtaining, mixing and adhering said electrically conductive or semi-conductive particles pre-forms said plurality of agglomerates prior to introduction of said plurality of agglomerates into said electrically responsive composite material.
A rotary compressor comprising a rotary compression mechanism driven via a crankshaft coupled with a drive source, the compression mechanism comprising: a cylinder main body forming a cylinder chamber ; bearings installed respectively on upper and lower surfaces of the cylinder main body and supporting the crankshaft; and a rotor which is fitted to an eccentric part of the crankshaft and which rotates inside the cylinder chamber , the rotary compressor being characterized in that at least the cylinder main body and the bearings are integrally assembled by fastening a bolt penetrating in the axial direction of the crankshaft , the cylinder main body comprising a bolt hole having a peripheral side, and a deformation absorbing part (20;20A;20L,20R;30) being provided at the peripheral side of the bolt hole of the cylinder main body so as to penetrate the cylinder main body in the axial direction of the crankshaft , said deformation absorbing part being either positioned on a radial extension line passing through the centers of the cylinder chamber and the bolt hole, or on each side of the bolt hole so as to extend in the circumferential direction of the cylinder main body.
A method of network performance monitoring implemented by a network node , the method comprising: receiving a per subscriber, time dependent location model and a per subscriber, time dependent activity model for each of a plurality of subscribers located in one or more geographic areas of the network; determining , based on the location models and activity models, a subset of representative subscribers that includes a representative sample of subscribers in each of the one or more geographic areas; generating and sending control signals to one or more network nodes to capture user plane traffic and events for the subset of representative subscribers; computing network performance metrics for the one or more geographic areas based on the captured user plane traffic and events for the subset of representative subscribers; and detecting service quality degradation in one of the one or more geographic areas based on the network performance metrics. receiving a per subscriber, time dependent location model and a per subscriber, time dependent activity model for each of a plurality of subscribers located in one or more geographic areas of the network; determining , based on the location models and activity models, a subset of representative subscribers that includes a representative sample of subscribers in each of the one or more geographic areas; generating and sending control signals to one or more network nodes to capture user plane traffic and events for the subset of representative subscribers; computing network performance metrics for the one or more geographic areas based on the captured user plane traffic and events for the subset of representative subscribers; and detecting service quality degradation in one of the one or more geographic areas based on the network performance metrics.