mhurhangee/patent-ind-claim-en huggingface dataset:
A method, wherein each step is performed by a distributed logic circuit instantiated by a set of logic circuits on a set of nodes of an interconnect fabric, for conducting a multicast transmission on the interconnect fabric, the method comprising: allocating a collection of resources to support a set of paths through the interconnect fabric, on behalf of a source node from which the multicast transmission will originate, and on a set of various nodes in the set of nodes of the interconnect fabric; aggregating a set of responses from the set of various nodes on the set of paths at a branch node on the set of paths, wherein the set of responses include responses generated in response to the set of various nodes being allocated for the multicast transmission, wherein the set of various nodes are on the set of paths and are downstream of the branch node, and wherein the set of responses include an indicator of a resource contention, wherein a path of the set of paths is a set of nodes required to support multicast transmission through the interconnect fabric; generating, at the branch node and in response to the indicator of the resource contention, a deallocate message; transmitting , from the branch node and in response to the indicator of the resource contention, the deallocate message downstream and the indicator of the resource contention upstream; deallocating , in response to the deallocate message, the collection of resources on the set of various nodes for a hold period; and reallocating resources for the multicast transmission after the hold period. allocating a collection of resources to support a set of paths through the interconnect fabric, on behalf of a source node from which the multicast transmission will originate, and on a set of various nodes in the set of nodes of the interconnect fabric; aggregating a set of responses from the set of various nodes on the set of paths at a branch node on the set of paths, wherein the set of responses include responses generated in response to the set of various nodes being allocated for the multicast transmission, wherein the set of various nodes are on the set of paths and are downstream of the branch node, and wherein the set of responses include an indicator of a resource contention, wherein a path of the set of paths is a set of nodes required to support multicast transmission through the interconnect fabric; generating, at the branch node and in response to the indicator of the resource contention, a deallocate message; transmitting , from the branch node and in response to the indicator of the resource contention, the deallocate message downstream and the indicator of the resource contention upstream; deallocating , in response to the deallocate message, the collection of resources on the set of various nodes for a hold period; and reallocating resources for the multicast transmission after the hold period.
A method for controlling a data duplication function, comprising: receiving, by a terminal, medium access control-control element, MAC CE, sent by a base station, the MAC CE supporting a long-term evolution, LTE, network protocol; and controlling, by the terminal based on the MAC CE under the LTE network protocol, the data duplication function of a packet data convergence protocol, PDCP, entity of the terminal to be in an activated state or to be in an inactivated state, the PDCP entity supporting a new radio, NR, network protocol. receiving, by a terminal, medium access control-control element, MAC CE, sent by a base station, the MAC CE supporting a long-term evolution, LTE, network protocol; and controlling, by the terminal based on the MAC CE under the LTE network protocol, the data duplication function of a packet data convergence protocol, PDCP, entity of the terminal to be in an activated state or to be in an inactivated state, the PDCP entity supporting a new radio, NR, network protocol.
A modified polyolefin resin, which is obtainable by graft modifying a propylene-based random copolymer having a melting point of 50 to 130°C as determined by differential scanning calorimetry (DSC), the copolymer being obtainable by polymerization in the presence of a metallocene catalyst, with an unsaturated carboxylic acid and/or its derivative and with a (meth)acrylic acid ester, and which has a weight average molecular weight of 15,000 to 200,000 as determined by gel permeation chromatography (GPC), a graft weight of the unsaturated carboxylic acid and/or its derivative being in the range of 0.1 to 20% by weight, a graft weight of the (meth)acrylic acid ester being in the range of 0.1 to 30% by weight.
A column for supporting electrical accessories and/or for routing power conductors or cables, the column extending along a longitudinal axis (X) and including an elongate frame defining at least one conduit, and a presser device for pressing the frame between two walls, the presser device comprising a telescopic pole ; said presser device includes a first cam surface that is secured to said frame , a second cam surface that is associated with said pole , said first and second cam surfaces being annular, characterized in that the telescopic pole is housed, at least in part, in said frame , with a portion that projects in line with said frame , and said presser device includes a locking ring with an inside face carrying two splines that are parallel to the longitudinal axis (X) of the column with opposite ends that are adapted to press against the first and second cam surfaces respectively, so as to move the pole relative to the frame when said locking ring is turned about the longitudinal axis (X) of the column .
A platform , comprising: a substrate ; a first Integrated Circuit, IC, mounted to the substrate ; a photonic integrated circuit mounted to the substrate ; a second IC mounted to the photonic integrated circuit , the photonic integrated circuit being mounted between the second IC and the substrate ; a first frame lid mounted to the substrate and defining a cavity with the substrate that encapsulates the first IC, the photonic integrated circuit , and the second IC , the first frame lid comprising: a first roof disposed in a first plane parallel to the substrate , the first roof defining a port providing access to the second IC through the first roof ; a foot disposed in a second plane parallel to the first plane and connected to the substrate ; a wall , connecting the first roof to the foot ; and an opening in the wall arranged to allow an optical fiber to pass through the wall to connect to the photonic integrated circuit ; the platform further comprising a second frame lid mounted to the first roof via a thermal isolator and extending through the port to be in thermal contact with the second IC . a substrate ; a first Integrated Circuit, IC, mounted to the substrate ; a photonic integrated circuit mounted to the substrate ; a second IC mounted to the photonic integrated circuit , the photonic integrated circuit being mounted between the second IC and the substrate ; a first frame lid mounted to the substrate and defining a cavity with the substrate that encapsulates the first IC, the photonic integrated circuit , and the second IC , the first frame lid comprising: a first roof disposed in a first plane parallel to the substrate , the first roof defining a port providing access to the second IC through the first roof ; a foot disposed in a second plane parallel to the first plane and connected to the substrate ; a wall , connecting the first roof to the foot ; and an opening in the wall arranged to allow an optical fiber to pass through the wall to connect to the photonic integrated circuit ; a first roof disposed in a first plane parallel to the substrate , the first roof defining a port providing access to the second IC through the first roof ; a foot disposed in a second plane parallel to the first plane and connected to the substrate ; a wall , connecting the first roof to the foot ; and an opening in the wall arranged to allow an optical fiber to pass through the wall to connect to the photonic integrated circuit ;
A plated steel sheet having ultra-high strength of a tensile strength of 1300 MPa or more and a yield strength ratio of 0.75 or more, being characterized in that an amount of hydrogen in the plated steel sheet is 0.000015 wt% or less, wherein the plated steel sheet comprises 0.12 wt% to 0.2 wt% of carbon (C), 0.5 wt% or less of silicon (Si) (excluding 0 wt%), 2.6 wt% to 4.0 wt% of manganese (Mn), 0.03 wt% or less of phosphorus (P) (excluding 0 wt%), 0.015 wt% or less of sulfur (S) (excluding 0 wt%), 0.1 wt% or less of aluminum (Al) (excluding 0 wt%), 1 wt% or less of chromium (Cr) (excluding 0 wt%), 48/14*[N] to 0.1 wt% of titanium (Ti), 0.1 wt% or less of niobium (Nb) (excluding 0 wt%), 0.005 wt% or less of boron (B) (excluding 0 wt%), 0.01 wt% or less of nitrogen (N) (excluding 0wt%), iron (Fe) as a remainder thereof, and other inevitably contained impurities; and has a microstructure obtained by plating and heat-treating a steel sheet comprised of 90% or more of tempered martensite and 10% or less of ferrite and bainite in a volume fraction.
A method of determining whether a subject has neurobehavioral phenotype mapping data indicative of a neurobehavioral phenotype, wherein the neurobehavioral phenotype mapping data includes neuroimaging data, said method comprising: a. obtaining or having obtained samples of neurobehavioral phenotype mapping data from the subject, wherein each sample (i) includes data corresponding to a subcortical structure of the subject, and (ii) is mapped to a volumetric voxel of the subject in contrast to a surface grayordinate; b. defining a genotype topography of a first brain area for a gene based on gene expression mapping data; c. defining a neurophenotype topography of a second brain area for the neurobehavioral phenotype based on neurobehavioral phenotype mapping data; d. aligning the genotype topography of the first brain area and the neurophenotype topography of the second brain area to establish an alignment, optionally in form of a numerical score; e. performing or having performed a comparison of the samples with the aligned genotype topography and neurophenotype topography to determine if the subject has the neurobehavioral phenotype. a. obtaining or having obtained samples of neurobehavioral phenotype mapping data from the subject, wherein each sample (i) includes data corresponding to a subcortical structure of the subject, and (ii) is mapped to a volumetric voxel of the subject in contrast to a surface grayordinate; b. defining a genotype topography of a first brain area for a gene based on gene expression mapping data; c. defining a neurophenotype topography of a second brain area for the neurobehavioral phenotype based on neurobehavioral phenotype mapping data; d. aligning the genotype topography of the first brain area and the neurophenotype topography of the second brain area to establish an alignment, optionally in form of a numerical score; e. performing or having performed a comparison of the samples with the aligned genotype topography and neurophenotype topography to determine if the subject has the neurobehavioral phenotype.
Composite material comprising a) a hydrophilic matrix; b) cavities, with the cavities comprising at least one kind of nanoparticles, characterized in that at least one of the cavities can be converted, by action of temperature on the composite material, from a first state into a second state, with the first state differing from the second state in the arrangement of the nanoparticles within the at least one cavity, and the nanoparticles are present in agglomerated form in one of the two states, with the cavities comprising at least one kind of nanoparticles and at least one non-polar solvent, with the at least one kind of nanoparticles having a lipophilic surface modification, with the nanoparticles being in dispersion in the solvent. a) a hydrophilic matrix; b) cavities, with the cavities comprising at least one kind of nanoparticles, characterized in that the nanoparticles are present in agglomerated form in one of the two states, with the cavities comprising at least one kind of nanoparticles and at least one non-polar solvent, with the at least one kind of nanoparticles having a lipophilic surface modification, with the nanoparticles being in dispersion in the solvent.
A method for producing 7-methyl-3-methylene-7-octenal of Formula : the method comprising: a step of hydrolyzing a 7-methyl-3-methylene-7-octenal acetal compound of General Formula : wherein R 1 and R 2 , which may be the same or different, are each an alkyl group having 1 to 6 carbon atoms, or are bonded to each other to form a divalent alkylene group having 2 to 12 carbon atoms, to obtain the 7-methyl-3-methylene-7-octenal .
A lighting apparatus using an organic light-emitting diode, comprising: a substrate divided into a lighting area (EA) and first and second contact areas (CA1, CA2), the first and second contact areas located outside the lighting area; a first electrode on the substrate; a passivation layer on the first electrode, leaving exposed part of the first electrode; an organic emissive layer and a second electrode on the exposed part of the first electrode and the passivation layer, wherein the organic light-emitting diode is formed by the first electrode and the second electrode positioned on the substrate and the organic emissive layer situated between the first and second electrodes ; a trench (T) separating the second electrode and the organic emissive layer in the lighting area from the second electrode and the organic emissive layer in the first and second contact areas; a metal film attached over the substrate in the lighting area and the second contact area; a first contact electrode provided in the first contact area (CA1) and configured as an extension of the first electrode to the first contact area (CA1); and a second contact electrode provided in the second contact area (CA2) and made of the metal film ; wherein the metal film is attached over the substrate with an adhesive , and the adhesive contains conductive particles , and the metal film is electrically connected to the second electrode by the conductive particles. a substrate divided into a lighting area (EA) and first and second contact areas (CA1, CA2), the first and second contact areas located outside the lighting area; a first electrode on the substrate; a passivation layer on the first electrode, leaving exposed part of the first electrode; an organic emissive layer and a second electrode on the exposed part of the first electrode and the passivation layer, wherein the organic light-emitting diode is formed by the first electrode and the second electrode positioned on the substrate and the organic emissive layer situated between the first and second electrodes ; a trench (T) separating the second electrode and the organic emissive layer in the lighting area from the second electrode and the organic emissive layer in the first and second contact areas; a metal film attached over the substrate in the lighting area and the second contact area; a first contact electrode provided in the first contact area (CA1) and configured as an extension of the first electrode to the first contact area (CA1); and a second contact electrode provided in the second contact area (CA2) and made of the metal film ; wherein the metal film is attached over the substrate with an adhesive , and the adhesive contains conductive particles , and the metal film is electrically connected to the second electrode by the conductive particles.
An induction heating device comprising: a case ; a cover plate coupled to an upper end of the case ; a working coil (WC) provided inside the case in order to heat the object to be heated; a base plate provided below the working coil (WC); a light guide provided on the base plate in order to be provided around the working coil (WC) and configured to indicate output intensity of the working coil (WC) and whether the working coil (WC) is driven through a light-emitting surface ; and a light-emitting element disposed below the light guide and configured to emit light to the light guide , wherein the light guide includes a light-guiding portion having a length of an upper surface in a first direction longer than a length of a lower surface in the first direction, characterised in that the lower surface is formed in a parabolic shape and the upper surface includes the light-emitting surface , and a light-guiding support provided on the base plate in order to surround the light-guiding portion and configured to totally reflect light emitted from the light-emitting element and guided through the light-guiding portion inwardly. a case ; a cover plate coupled to an upper end of the case ; a working coil (WC) provided inside the case in order to heat the object to be heated; a base plate provided below the working coil (WC); a light guide provided on the base plate in order to be provided around the working coil (WC) and configured to indicate output intensity of the working coil (WC) and whether the working coil (WC) is driven through a light-emitting surface ; and a light-emitting element disposed below the light guide and configured to emit light to the light guide , wherein the light guide includes a light-guiding portion having a length of an upper surface in a first direction longer than a length of a lower surface in the first direction, characterised in that the lower surface is formed in a parabolic shape and the upper surface includes the light-emitting surface , and a light-guiding support provided on the base plate in order to surround the light-guiding portion and configured to totally reflect light emitted from the light-emitting element and guided through the light-guiding portion inwardly.
A method for operating a materials handling vehicle comprising: monitoring, by a controller , a first vehicle drive parameter corresponding to a first direction of travel of the vehicle during a first manual operation of the vehicle by an operator; concurrently monitoring, by the controller , a second vehicle drive parameter corresponding to a second direction different from the first direction of travel during the first manual operation of the vehicle by an operator; receiving, by the controller after the first manual operation of the vehicle , a request to implement a first semi-automated driving operation; and based on the first and second monitored vehicle drive parameters during the first manual operation, controlling, by the controller , implementation of the first semi-automated driving operation. monitoring, by a controller , a first vehicle drive parameter corresponding to a first direction of travel of the vehicle during a first manual operation of the vehicle by an operator; concurrently monitoring, by the controller , a second vehicle drive parameter corresponding to a second direction different from the first direction of travel during the first manual operation of the vehicle by an operator; receiving, by the controller after the first manual operation of the vehicle , a request to implement a first semi-automated driving operation; and based on the first and second monitored vehicle drive parameters during the first manual operation, controlling, by the controller , implementation of the first semi-automated driving operation.
A prism apparatus for a camera apparatus, the prism apparatus comprising: a first prism (PSMa) configured to reflect input light toward a first reflected direction; a first actuator (ACTa) configured to change an angle (θm) of the first prism (PSMa) about a first rotation axis (Axma) to change the first reflected direction based on a first control signal (Saca); a second prism (PSMb) configured to reflect the light reflected from the first prism (PSMa) toward a second reflected direction; and a second actuator (ACTb) configured to change an angle (θm) of the second prism (PSMb) about a second rotation axis (Axmb) to change the second reflected direction based on a second control signal (Sacb). characterized in that the prism apparatus further comprises: a first hall sensor (HSa) configured to sense an angle change of the first prism (PSMa) based on a first magnetic field; and a second hall sensor (HSb) configured to sense an angle change of the second prism (PSMb) based on a second magnetic field. a first prism (PSMa) configured to reflect input light toward a first reflected direction; a first actuator (ACTa) configured to change an angle (θm) of the first prism (PSMa) about a first rotation axis (Axma) to change the first reflected direction based on a first control signal (Saca); a second prism (PSMb) configured to reflect the light reflected from the first prism (PSMa) toward a second reflected direction; and a second actuator (ACTb) configured to change an angle (θm) of the second prism (PSMb) about a second rotation axis (Axmb) to change the second reflected direction based on a second control signal (Sacb). characterized in that the prism apparatus further comprises: a first hall sensor (HSa) configured to sense an angle change of the first prism (PSMa) based on a first magnetic field; and a second hall sensor (HSb) configured to sense an angle change of the second prism (PSMb) based on a second magnetic field. a first hall sensor (HSa) configured to sense an angle change of the first prism (PSMa) based on a first magnetic field; and a second hall sensor (HSb) configured to sense an angle change of the second prism (PSMb) based on a second magnetic field.
A method for quality control of a packaging system, said method comprising receiving a record of packaging identification data , said record of packaging identification data being related to said package being assessed, storing said packaging identification data, identifying and receiving a record of machine data using said record of packaging identification data , said record of machine data being related to a machine set up used when producing said package, determining a first packaging quality parameter to be checked based on said record of machine data , receiving a first record of packaging quality parameter data related to said first packaging quality parameter for said package, determining a second packaging quality parameter based on said first record, requesting a second record of packaging quality parameter data related to said second packaging quality parameter, and receiving said second record.