mhurhangee/ep-ind-claims huggingface dataset:
A method for supporting acquisition of uplink synchronization in a wireless access system supporting Carrier Aggregation, CA, the method comprising: transmitting Random Access Channel, RACH, parameter information related to a first random access procedure for acquiring uplink synchronization with a Secondary Cell, SCell, to be added to the CA by a Primacy Cell, PCell; acquiring RACH information including resource allocation information and the RACH parameter information, wherein the resource allocation information indicates a resource area of the SCell in which the first random access procedure is to be performed, and wherein the RACH parameter information is needed for generating a RACH preamble to be used in the first random access procedure; and transmitting the RACH information through a Physical Downlink Control Channel, PDCCH, to a User Equipment, UE. transmitting Random Access Channel, RACH, parameter information related to a first random access procedure for acquiring uplink synchronization with a Secondary Cell, SCell, to be added to the CA by a Primacy Cell, PCell; acquiring RACH information including resource allocation information and the RACH parameter information, wherein the resource allocation information indicates a resource area of the SCell in which the first random access procedure is to be performed, and wherein the RACH parameter information is needed for generating a RACH preamble to be used in the first random access procedure; and transmitting the RACH information through a Physical Downlink Control Channel, PDCCH, to a User Equipment, UE.
A method of wireless communication, comprising: measuring a metric of self-interference for a beam pair, wherein the beam pair comprises a transmitter, TX, beam and a receiver, RX, beam both at a wireless node; and communicating, on the beam pair, in full duplex or half duplex based on the metric, wherein a duplex mode for the beam pair is determined based on the metric, on a rate comparison between full duplex and half duplex for the beam pair and further based on a latency constraint. measuring a metric of self-interference for a beam pair, wherein the beam pair comprises a transmitter, TX, beam and a receiver, RX, beam both at a wireless node; and communicating, on the beam pair, in full duplex or half duplex based on the metric, wherein a duplex mode for the beam pair is determined based on the metric, on a rate comparison between full duplex and half duplex for the beam pair and further based on a latency constraint.
A thermoplastic resin composition, comprising: 100 parts by weight of a thermoplastic resin which is at least one selected among a poly(phenylene ether ether ketone) resin, a polyphenylene sulfide resin, a polyamide resin, a polyester resin, a polycarbonate resin and a polystyrene resin; and 0.5 to 50 parts by weight of at least one cyclic poly(phenylene ether ketone) that is expressed by General Formula given below and has phenylene ketone shown by -Ph-CO- and phenylene ether shown by -Ph-O-as a repeating structural unit:, in which Ph in Formula represents a para-phenylene structure; o and p are respectively integral numbers of not less than 1; and m is an integral number of 2 to 40, and wherein the cyclic poly (phenylene ether ketone) has a melting point of not higher than 270°C. 100 parts by weight of a thermoplastic resin which is at least one selected among a poly(phenylene ether ether ketone) resin, a polyphenylene sulfide resin, a polyamide resin, a polyester resin, a polycarbonate resin and a polystyrene resin; and 0.5 to 50 parts by weight of at least one cyclic poly(phenylene ether ketone) that is expressed by General Formula given below and has phenylene ketone shown by -Ph-CO- and phenylene ether shown by -Ph-O-as a repeating structural unit:, in which Ph in Formula represents a para-phenylene structure; o and p are respectively integral numbers of not less than 1; and m is an integral number of 2 to 40, and wherein the cyclic poly (phenylene ether ketone) has a melting point of not higher than 270°C.
A V-ribbed belt comprising a compression rubber layer, a tension layer and core wires buried therebetween along the longitudinal direction of the belt, the V-ribbed belt having a tensile elastic modulus of 240 to 500 N/(mm %) measured according to the description, wherein the compression rubber layer is formed of a rubber composition containing a rubber component comprising an ethylene-α-olefin elastomer, wherein the core wire is a cord comprising: a core yarn comprising a high-elastic modulus fiber; and a plurality of sheath yarns each comprising a low-elastic modulus fiber and disposed around the core yarn, wherein the elastic modulus of the sheath fiber is 55 to 120 GPa measured in accordance with JIS L 1013, wherein the sheath yarns are twisted yarns that are primarily-twisted, wherein the cord is a secondarily-twisted cord and has a ratio of an average diameter of the sheath yarns to an average diameter of the core yarn of 0.2 to 0.4, and wherein the elastic modulus of the core fiber is 200 to 900 GPa measured in accordance with JIS L 1013. wherein the compression rubber layer is formed of a rubber composition containing a rubber component comprising an ethylene-α-olefin elastomer, wherein the core wire is a cord comprising: a core yarn comprising a high-elastic modulus fiber; and a plurality of sheath yarns each comprising a low-elastic modulus fiber and disposed around the core yarn, wherein the elastic modulus of the sheath fiber is 55 to 120 GPa measured in accordance with JIS L 1013, a core yarn comprising a high-elastic modulus fiber; and a plurality of sheath yarns each comprising a low-elastic modulus fiber and disposed around the core yarn, wherein the elastic modulus of the sheath fiber is 55 to 120 GPa measured in accordance with JIS L 1013, wherein the sheath yarns are twisted yarns that are primarily-twisted, wherein the cord is a secondarily-twisted cord and has a ratio of an average diameter of the sheath yarns to an average diameter of the core yarn of 0.2 to 0.4, and wherein the elastic modulus of the core fiber is 200 to 900 GPa measured in accordance with JIS L 1013.
A method of creating a delivery session for multiple broadcast multicast service centers, the method comprising: providing a first create delivery session message for a first broadcast multicast service center (BMSC1); receiving a service key identification and a key domain identification from the first broadcast multicast service center (BMSC1); and providing a second create delivery session message for a second broadcast multicast service center (BMSC2), wherein the second create delivery session message includes the service key identification and the key domain identification from the first broadcast multicast service center (BMSC1) and wherein the second create delivery session message includes a duplicate indication. providing a first create delivery session message for a first broadcast multicast service center (BMSC1); receiving a service key identification and a key domain identification from the first broadcast multicast service center (BMSC1); and providing a second create delivery session message for a second broadcast multicast service center (BMSC2), wherein the second create delivery session message includes the service key identification and the key domain identification from the first broadcast multicast service center (BMSC1) and wherein the second create delivery session message includes a duplicate indication.
A combination of N -(2-((6-(3-(2,6-dichloro-3,5-dimethoxyphenyl)-1-methylureido)pyrimidin-4-yl)amino)-5-(4-ethylpiperazin-1-yl)phenyl)acrylamide or a pharmaceutically acceptable salt thereof and an EGFR inhibitor or a pharmaceutically acceptable salt thereof for use in a method of treating hepatocellular carcinoma in a patient in need thereof.
A self-righting tip cap comprising: a cap body comprising a generally oblate spheroid external geometry with a first end and a second end at opposite sides of the cap body; and a base surface at the first end defining a generally planar rim surrounding the base surface; characterized by: at least one clip extending from the cap body towards the second end, an interior face thereof comprising an indent, in the form of a thread, protruding therefrom along a helical path. a cap body comprising a generally oblate spheroid external geometry with a first end and a second end at opposite sides of the cap body; and a base surface at the first end defining a generally planar rim surrounding the base surface; characterized by: at least one clip extending from the cap body towards the second end, an interior face thereof comprising an indent, in the form of a thread, protruding therefrom along a helical path.
A pollution control device (10; 40; 200) comprising: a first metal housing (11; 44; 240); a pollution control element (20; 42; 230) inside the first metal housing (11; 44; 240); a multilayer mounting mat (30; 50; 250) disposed between the pollution control element (20; 42; 230) and the metal housing (11; 44; 240) so as to protect said pollution control element (20; 42; 230) from road shock and vibration, to compensate for thermal expansion differences between the metal housing (11; 44; 240) and the pollution control clement (20; 42; 230), and to prevent exhaust gases from passing between the pollution control element (20; 42; 230) and the metal housing (11; 44; 240), the mat (30; 50; 250) comprising: a non-intumescent, nonwoven layer having a first major surface and a second major surface opposite the first major surface, the non-intumescent layer comprising at least one of glass fibers and ceramic fibers; a first intumescent layer facing the first major surface of the non-intumescent layer, wherein the first intumescent layer is a first outer layer of the multilayer mat; and a second intumescent layer facing the second major surface of the non-intumescent layer, wherein the second intumescent layer is a second outer layer of the multilayer mat. a first metal housing (11; 44; 240); a pollution control element (20; 42; 230) inside the first metal housing (11; 44; 240); a multilayer mounting mat (30; 50; 250) disposed between the pollution control element (20; 42; 230) and the metal housing (11; 44; 240) so as to protect said pollution control element (20; 42; 230) from road shock and vibration, to compensate for thermal expansion differences between the metal housing (11; 44; 240) and the pollution control clement (20; 42; 230), and to prevent exhaust gases from passing between the pollution control element (20; 42; 230) and the metal housing (11; 44; 240), the mat (30; 50; 250) comprising: a non-intumescent, nonwoven layer having a first major surface and a second major surface opposite the first major surface, the non-intumescent layer comprising at least one of glass fibers and ceramic fibers; a first intumescent layer facing the first major surface of the non-intumescent layer, wherein the first intumescent layer is a first outer layer of the multilayer mat; and a second intumescent layer facing the second major surface of the non-intumescent layer, wherein the second intumescent layer is a second outer layer of the multilayer mat. a non-intumescent, nonwoven layer having a first major surface and a second major surface opposite the first major surface, the non-intumescent layer comprising at least one of glass fibers and ceramic fibers; a first intumescent layer facing the first major surface of the non-intumescent layer, wherein the first intumescent layer is a first outer layer of the multilayer mat; and a second intumescent layer facing the second major surface of the non-intumescent layer, wherein the second intumescent layer is a second outer layer of the multilayer mat.
An immunogenic composition comprising a N. meningitidis X polysaccharide-protein conjugate and additional saccharide conjugate(s) comprising a N. meningitidis capsular saccharide derived from serogroups A, C, W135 and Y, wherein the composition comprises (a) a conjugate of (i) the capsular saccharide of serogroup A N. meningitidis and (ii)tetanus toxoid; (b) a conjugate of (i) capsular saccharide of serogroup C N. meningitidis and (ii) CRM197; (c) a conjugate of (i) capsular saccharide of serogroup Y N. meningitidis and (ii) CRM197;(d) a conjugate of (i) capsular saccharide of serogroup W135 N. meningitidis and (ii) CRM197; and (d) a conjugate of (i) capsular saccharide of serogroup X N. meningitidis and (ii) tetanus toxoid, wherein each of the N. meningitidis saccharides is conjugated to the carrier protein via a hetero or homo-bifunctional linker with cyanylation conjugation chemistry, wherein said cyanylation reagent is selected from a group of 1-cyano- 4-pyrrolidinopyridinium tetrafluoroborate (CPPT), 1-cyano-imidazole (1-CI), 1-cyanobenzotriazole (1-CBT), or 2-cyanopyridazine-3 one (2-CPO).
A method of forming on a glass substrate source and drain electrodes (2, 3) for a TFT, the method comprising: forming a relatively hydrophobic polyimide layer on the relatively hydrophilic glass substrate, and patterning the polyimide layer to remove the polyimide layer from places in which the source and drain electrodes are to be formed and retain the polyimide layer in a channel region between the places in which the source and drain electrodes are to be formed, and depositing conductive polymer ink droplets by ink-jet printing to form the source and drain electrodes, wherein the conductive polymer ink is confined by the relatively hydrophobic polyimide layer in the channel region to the relatively hydrophilic substrate areas in which the source and drain electrodes are formed. forming a relatively hydrophobic polyimide layer on the relatively hydrophilic glass substrate, and patterning the polyimide layer to remove the polyimide layer from places in which the source and drain electrodes are to be formed and retain the polyimide layer in a channel region between the places in which the source and drain electrodes are to be formed, and depositing conductive polymer ink droplets by ink-jet printing to form the source and drain electrodes, wherein the conductive polymer ink is confined by the relatively hydrophobic polyimide layer in the channel region to the relatively hydrophilic substrate areas in which the source and drain electrodes are formed.
A semi-automatic depilatory tweezers comprising an open fork with two branches (3, 4) joined by an end area, the branches (3, 4) being flexible and the points thereof comprising opposite, facing surfaces (30, 40) of mutual contact for trapping the hair during hair removal when the fork closes, the branches (3, 4) comprising intermediate support areas (31, 41) for pressing with the fingers to cause the fork to close; wherein at least one of the branches (3, 4) of the fork comprises a magnetic section with a magnetic field sufficiently intense to generate magnetic attraction between both branches (3, 4) of the fork, to reduce the manual closing force of the fork when the branches (3, 4) approach one another and facilitate the removal of the hair, characterized in that the magnetic sections comprise permanent magnets.
An injectable pharmaceutical composition comprising a compound of formula:, wherein R1 represents polyethylene glycol having repeating units -(CH2-CH2-O)n-, wherein the PEG moiety is PEG-1000 having n=21-25, PEG-2000 having n=43-48, PEG-3000 having n=65-71, or PEG-5000, having n=112-117.
Support fitting for a movable leaf of a window or a door, wherein the support fitting can be arranged between a leaf and a fixed frame of the window or door, and wherein the support fitting has a spring element, wherein the support fitting has a support arm, wherein the support arm has booms (52a, 52b) which extend in an elongate manner, are angled relative to one another and are pivotable about a common center of rotation, wherein the booms (52a, 52b) are rigidly fixable to one another, or the support arm is formed in one piece, wherein a first end of the support arm is connected to a first end of the spring element, wherein the support fitting has a first rail, which can be connected to the leaf or fixed frame, wherein the support arm is connected to the first rail via the rotary spindle and the region of a second end of the spring element is arranged on the first rail, in particular pivotably, wherein the support fitting has a second rail, which can be arranged on the fixed frame or on the leaf, wherein the support arm in the region of a second end is pivotably arranged on the second rail and wherein the support fitting has two spreader arms (30a, 30b) between the first rail and the second rail, wherein the support arm is arranged between the spreader arms (30a, 30b), wherein the support arm is rotatably mountable by 180° perpendicularly to the rotary spindle which extends through the center of rotation, so that both a right-opening support fitting and also a left-opening support fitting can be achieved with the same components of the support fitting.
A method of building a decision tree for packet classification, comprising: generating a first type decision tree by performing tree building for a classification rule set based on a non-template dimension of the classification rule set, wherein the template dimension represents at least one dimension corresponding to a classification rule in the classification rule set, and the non-template dimension represents an instantiated dimension other than the template dimension corresponding to the classification rule in the classification rule set; generating a second type decision tree by performing tree building for each leaf node in the first type decision tree based on a template dimension of the classification rule set; and associating a plurality of leaf nodes that are Same Pattern Sub Ruleset, SPSR, to each other in the first type decision tree with a same second type decision tree, wherein the plurality of leaf nodes that are SPSR to each other indicate that classification rule sets respectively included in the plurality of leaf nodes are SPSR to each other, and wherein in case of different non-template dimensions, classification rules in the classification rule set are divided into different classification rule subsets, such that each classification rule subset is of a same non-template dimension, and the classification rule subsets are SPSR to each other. generating a first type decision tree by performing tree building for a classification rule set based on a non-template dimension of the classification rule set, wherein the template dimension represents at least one dimension corresponding to a classification rule in the classification rule set, and the non-template dimension represents an instantiated dimension other than the template dimension corresponding to the classification rule in the classification rule set; generating a second type decision tree by performing tree building for each leaf node in the first type decision tree based on a template dimension of the classification rule set; and associating a plurality of leaf nodes that are Same Pattern Sub Ruleset, SPSR, to each other in the first type decision tree with a same second type decision tree, wherein the plurality of leaf nodes that are SPSR to each other indicate that classification rule sets respectively included in the plurality of leaf nodes are SPSR to each other, and wherein in case of different non-template dimensions, classification rules in the classification rule set are divided into different classification rule subsets, such that each classification rule subset is of a same non-template dimension, and the classification rule subsets are SPSR to each other.
Drawing installation for producing profiled metal sections, comprising at least one regulating circuit which acts by way of at least one regulator on at least one quality-relevant parameter of the drawing installation, at least one process control in which at least one guide variable of the regulating circuit, which is referred to a specific drawing material in the form of an intermediate product and/or end product and is in the form of a settable operating point of the drawing plant or individual parts of the drawing plant, is processed, characterised by at least one quality sensor for preferably continuous detection of at least one quality feature of an intermediate product or an end product of a drawing material, wherein the quality sensor is selected from a group of quality sensors comprising a sensor for detecting the rectilinearity of the drawing material, a sensor for detecting the diameter and/or at least one thickness of the drawing material, a sensor for detecting the length of the drawing material, a sensor for detecting the surface property of the drawing material, a sensor for detecting the roundness of the drawing material and a sensor for checking the bevelled ends of the drawing material.
A method for authenticating a mobility management entity, MME, for outbound roaming subscribers, the method comprising: maintaining a Diameter authentication information request/update location request, AIR/ULR, mapping database at a Diameter edge agent, DEA; receiving, at the DEA, a Diameter authentication information request, AIR, message; determining, by the DEA, that the Diameter AIR message includes a visited public land mobile network identifier, VPLMN ID, not of record in the AIR/ULR mapping database at the DEA; recording the VPLMN ID in the Diameter AIR/ULR mapping database at the DEA; receiving, at the DEA, a first Diameter ULR message and reading a VPLMN ID in the first Diameter ULR message; determining that the VPLMN ID read from the first Diameter ULR message does not match the VPLMN ID recorded for a subscriber in the Diameter AIR/ULR mapping database at the DEA; and in response to determining that the VPLMN ID does not match the VPLMN ID recorded for the subscriber in the Diameter AIR/ULR mapping database at the DEA, rejecting the first Diameter ULR message. maintaining a Diameter authentication information request/update location request, AIR/ULR, mapping database at a Diameter edge agent, DEA; receiving, at the DEA, a Diameter authentication information request, AIR, message; determining, by the DEA, that the Diameter AIR message includes a visited public land mobile network identifier, VPLMN ID, not of record in the AIR/ULR mapping database at the DEA; recording the VPLMN ID in the Diameter AIR/ULR mapping database at the DEA; receiving, at the DEA, a first Diameter ULR message and reading a VPLMN ID in the first Diameter ULR message; determining that the VPLMN ID read from the first Diameter ULR message does not match the VPLMN ID recorded for a subscriber in the Diameter AIR/ULR mapping database at the DEA; and in response to determining that the VPLMN ID does not match the VPLMN ID recorded for the subscriber in the Diameter AIR/ULR mapping database at the DEA, rejecting the first Diameter ULR message.