mhurhangee/patent-ind-claim-en huggingface dataset:
A hot-rolled steel sheet having excellent durability, comprising: by weight%, 0.05-0.14% of carbon (C), 0.1-1.0% of silicon (Si), 0.8-1.8% of manganese (Mn), 0.001-0.03% of phosphorous (P), 0.001-0.01% of sulfur (S), 0.1-0.5% of soluble aluminum (Sol.Al), 0.3-1.0% of chromium (Cr), 0.01-0.05% of titanium (Ti), 0.03-0.06% of niobium (Nb), 0.04-0.1% of vanadium (V), 0.001-0.01% of nitrogen (N), and a balance of Fe and inevitable impurities, wherein Mn and Si satisfy relational formula 1 as below, wherein a microstructure includes a hard phase including martensite and bainite phases mixed therein with a ferrite phase as a matrix structure, and wherein in a total fracture (area fraction) of a hard phase, a fraction of grains in which a martensite phase and a bainite phase are mixed in a single grain is 60% or higher, and relational formula 2 as below is satisfied. 4 < Mn / Si < 12 (where Mn and Si refer to weight contents of respective elements) SSG M + B / M + B + SSG M + B ≥ 0.6 (where M refers to a martensite phase, B refers to a bainite phase, and SSG M+B refers to a hard phase in which B and M phases are mixed in a single grain, a structure in which an M phase is present around a grain boundary, and a B phase is present in a central region. Also, each phase is represented by area fraction (%)). by weight%, 0.05-0.14% of carbon (C), 0.1-1.0% of silicon (Si), 0.8-1.8% of manganese (Mn), 0.001-0.03% of phosphorous (P), 0.001-0.01% of sulfur (S), 0.1-0.5% of soluble aluminum (Sol.Al), 0.3-1.0% of chromium (Cr), 0.01-0.05% of titanium (Ti), 0.03-0.06% of niobium (Nb), 0.04-0.1% of vanadium (V), 0.001-0.01% of nitrogen (N), and a balance of Fe and inevitable impurities, wherein Mn and Si satisfy relational formula 1 as below, wherein a microstructure includes a hard phase including martensite and bainite phases mixed therein with a ferrite phase as a matrix structure, and wherein in a total fracture (area fraction) of a hard phase, a fraction of grains in which a martensite phase and a bainite phase are mixed in a single grain is 60% or higher, and relational formula 2 as below is satisfied. 4 < Mn / Si < 12 (where Mn and Si refer to weight contents of respective elements) SSG M + B / M + B + SSG M + B ≥ 0.6 (where M refers to a martensite phase, B refers to a bainite phase, and SSG M+B refers to a hard phase in which B and M phases are mixed in a single grain, a structure in which an M phase is present around a grain boundary, and a B phase is present in a central region. Also, each phase is represented by area fraction (%)).
A Radiometer containing, sequentially connected, an aerial applicator contacting a biological object, a selector (2"), a circulator installed after the selector (2"), a receiver containing an amplifier with bandpass filters , an amplitude detector , a narrowband low-frequency amplifier and an synchronous detector , an integrator , a direct current amplifier , a reference voltage generator connected to the selector (2") and synchronous detector , a Peltier element connected to the receiver inlet, the first and second microwave loads installed on the Peltier element and having thermal contact with it, at least one temperature sensor made with the faculty of measuring the temperature of microwave loads , wherein the first microwave load is made with the faculty of connection to the selector (2"), the selector (2") is made with the faculty of connecting to the first shoulder of the circulator either the aerial applicator or the first microwave load , the second shoulder of the circulator is connected to the receiver , and the third shoulder of the circulator is connected to the second microwave load .
A method performed by a wireless device , the method comprising logging information related to a coverage enhancement, CE, level of a cell, the information comprising: an identifier of the CE level and/or CE level change in a cell, a carrier, and a received signal quality and/or a received signal strength measured by the wireless device; and transmitting the information related to the CE level to a network node in an Automatic Neighbor Relations, ANR, report. logging information related to a coverage enhancement, CE, level of a cell, the information comprising: an identifier of the CE level and/or CE level change in a cell, a carrier, and a received signal quality and/or a received signal strength measured by the wireless device; and an identifier of the CE level and/or CE level change in a cell, a carrier, and a received signal quality and/or a received signal strength measured by the wireless device; and transmitting the information related to the CE level to a network node in an Automatic Neighbor Relations, ANR, report.
A monitoring device having a safety sensor which is designed to monitor a protective field in such a way that it generates a switching signal as a function of object detections in the protective field, a signal of a protective field violation being generated as a switching signal when an object is present, an external unit being provided which generates a control signal with an inactive and active signal state, characterised in that monitoring means are provided by means of which it is monitored as a muting condition of the safety sensor whether the signal beginnings and/or signal ends of the signal of the protective field violation and of the active control signal lie within a predetermined time window (Z1), and in that the parameters determining the time window (Z1) are determined in an adjustment process.
System for protecting a sensor for a force measurement comprising: - a force measurement sensor , designed to measure at least one tractive force or one compressive force exerted along a longitudinal axis (X) of the sensor, said sensor being designed to be made integral with a moveable part of a fluid reservoir, and - a pre-strained elastic element arranged to bias the force sensor in a direction opposite to said exerted force, said elastic element being deformable in the direction of the exerted force so as to protect the sensor from at least one compressive or tractive force greater than a threshold. - a force measurement sensor , designed to measure at least one tractive force or one compressive force exerted along a longitudinal axis (X) of the sensor, said sensor being designed to be made integral with a moveable part of a fluid reservoir, and - a pre-strained elastic element arranged to bias the force sensor in a direction opposite to said exerted force, said elastic element being deformable in the direction of the exerted force so as to protect the sensor from at least one compressive or tractive force greater than a threshold.
A method for processing a lost frame, comprising: determining a synthesized high frequency band signal of a current lost frame; determining recovery information that corresponds to the current lost frame, wherein the recovery information comprises at least one of the following: a coding mode before frame loss, a frame class of a last frame received before the frame loss, and a quantity of continuously lost frames, wherein the quantity of continuously lost frames is a quantity of frames that are continuously lost until the current lost frame; determining a global gain gradient of the current lost frame according to the recovery information; determining a global gain of the current lost frame according to the global gain gradient and a global gain of each frame in previous M frames of the current lost frame, wherein M is a positive integer; and adjusting the synthesized high frequency band signal of the current lost frame according to the global gain of the current lost frame and a subframe gain of the current lost frame, to obtain a high frequency band signal of the current lost frame. determining a synthesized high frequency band signal of a current lost frame; determining recovery information that corresponds to the current lost frame, wherein the recovery information comprises at least one of the following: a coding mode before frame loss, a frame class of a last frame received before the frame loss, and a quantity of continuously lost frames, wherein the quantity of continuously lost frames is a quantity of frames that are continuously lost until the current lost frame; determining a global gain gradient of the current lost frame according to the recovery information; determining a global gain of the current lost frame according to the global gain gradient and a global gain of each frame in previous M frames of the current lost frame, wherein M is a positive integer; and adjusting the synthesized high frequency band signal of the current lost frame according to the global gain of the current lost frame and a subframe gain of the current lost frame, to obtain a high frequency band signal of the current lost frame.
Conveyor device (1; 201; 301) for an automated production line comprising: - at least one conveyor track (2; 102; 202; 302) along a course of the production line, - at least one component carrier carriage (3; 103; 203; 303) for transporting components or component assemblies, in particular car bodies, on the production line, - wherein the production line includes transfer portions and workstations (4; 304) and these are run through by the conveyor track (2; 102; 202; 302) along the course of the production line, characterized in that - the conveyor track (2; 102; 202; 302) is configured as a monorail , in a preferred manner a monorail (7; 207; 307) which extends along a central longitudinal axis (L3) of the component carrier carriage (3; 103; 203; 303) and - the conveyor track (2; 102; 202; 302) comprises a plurality of rollers (11; 111; 211) which are driven at least in part by means of drives (13; 213) and - that the component carrier carriage (3; 103; 203; 303) includes at least one friction surface (22; 122), by means of which the component carrier carriage (3; 103; 203; 303) is drivable by the rollers (11; 111; 211) of the conveyor track (2; 102; 202; 302), in particular is movable dynamically along the conveyor track (2; 102; 202; 302). - at least one conveyor track (2; 102; 202; 302) along a course of the production line, - at least one component carrier carriage (3; 103; 203; 303) for transporting components or component assemblies, in particular car bodies, on the production line, - wherein the production line includes transfer portions and workstations (4; 304) and these are run through by the conveyor track (2; 102; 202; 302) along the course of the production line, - the conveyor track (2; 102; 202; 302) is configured as a monorail , in a preferred manner a monorail (7; 207; 307) which extends along a central longitudinal axis (L3) of the component carrier carriage (3; 103; 203; 303) and - the conveyor track (2; 102; 202; 302) comprises a plurality of rollers (11; 111; 211) which are driven at least in part by means of drives (13; 213) and - that the component carrier carriage (3; 103; 203; 303) includes at least one friction surface (22; 122), by means of which the component carrier carriage (3; 103; 203; 303) is drivable by the rollers (11; 111; 211) of the conveyor track (2; 102; 202; 302), in particular is movable dynamically along the conveyor track (2; 102; 202; 302).
A method for implementing a partitioning during the execution of software applications on a platform comprising a multicore processor having several distinct cores, the implementing method being carried out by an electronic implementing device and comprising the following step: - switching between the execution of a current set of software application(s) on a plurality of cores and the execution of a subsequent set of software application(s) on the plurality of cores, carried out in a synchronous manner on said plurality of cores, the step of synchronous multicore switching including all of the actions among a first group of actions consisting of: + waiting, synchronized over the plurality of cores, for uninterruptible process(es) of the current set of software application(s) to finish running; + purging all memory resource(s) associated with the current set of software application(s) , the step of synchronous multicore switching further including all of the actions among a second group of actions consisting of: + resetting input(s)-output(s) associated with the subsequent set of software application(s) ; + saving the context of the current set of software application(s) ; and + restoring the context of the subsequent set of software application(s) . the implementing method being carried out by an electronic implementing device and comprising the following step: - switching between the execution of a current set of software application(s) on a plurality of cores and the execution of a subsequent set of software application(s) on the plurality of cores, carried out in a synchronous manner on said plurality of cores, - switching between the execution of a current set of software application(s) on a plurality of cores and the execution of a subsequent set of software application(s) on the plurality of cores, carried out in a synchronous manner on said plurality of cores, the step of synchronous multicore switching including all of the actions among a first group of actions consisting of: + waiting, synchronized over the plurality of cores, for uninterruptible process(es) of the current set of software application(s) to finish running; + purging all memory resource(s) associated with the current set of software application(s) , + waiting, synchronized over the plurality of cores, for uninterruptible process(es) of the current set of software application(s) to finish running; + purging all memory resource(s) associated with the current set of software application(s) , the step of synchronous multicore switching further including all of the actions among a second group of actions consisting of: + resetting input(s)-output(s) associated with the subsequent set of software application(s) ; + saving the context of the current set of software application(s) ; and + restoring the context of the subsequent set of software application(s) . + resetting input(s)-output(s) associated with the subsequent set of software application(s) ; + saving the context of the current set of software application(s) ; and + restoring the context of the subsequent set of software application(s) .
A pipe-in-pipe assembly , comprising: a bundled infill structure occupying an annulus between inner and outer pipes of the assembly , the infill structure being formed of a plurality of elongate elements laid along the inner pipe ; wherein the elongate elements of the infill structure comprise a mixture of reinforcing elements and insulating elements , the reinforcing elements having greater mechanical resistance than the insulating elements to radial compression whereas the insulating elements provide greater thermal insulation than the reinforcing elements ; and pluralities of the reinforcing elements are positioned together within the infill structure to form reinforcing formations that are embedded between insulating regions of the infill structure defined by pluralities of the insulating elements , wherein the reinforcing formations are spacer formations that are angularly spaced around the inner pipe and that extend radially from the inner pipe toward the outer pipe . a bundled infill structure occupying an annulus between inner and outer pipes of the assembly , the infill structure being formed of a plurality of elongate elements laid along the inner pipe ; wherein the elongate elements of the infill structure comprise a mixture of reinforcing elements and insulating elements , the reinforcing elements having greater mechanical resistance than the insulating elements to radial compression whereas the insulating elements provide greater thermal insulation than the reinforcing elements ; and pluralities of the reinforcing elements are positioned together within the infill structure to form reinforcing formations that are embedded between insulating regions of the infill structure defined by pluralities of the insulating elements , wherein the reinforcing formations are spacer formations that are angularly spaced around the inner pipe and that extend radially from the inner pipe toward the outer pipe .
Method for setting up in an operating position a volumetric dosage pump arranged for filling up containers, the pump (1; 91) comprising a body (3; 93) with a piston (4; 94) slidingly mounted therein and switching valve (5; 95) rotably mounted within the body , the piston and the switching valve extending outside the body (3; 93), said method comprising the following steps: - one holds, the piston (4; 94) and the switching valve (5; 95) fast together with the body (3; 93) of the pump (1; 91), - one hooks up either one of the body (3; 93), the piston (4; 94) and the switching valve (5; 95) to a pivot (P), and - one rotates the pump (1; 91) around the pivot (P) to fasten the others of the body (3; 93), the piston (4; 94) and the switching valve (5; 95) on an operating support of a driving machine. - one holds, the piston (4; 94) and the switching valve (5; 95) fast together with the body (3; 93) of the pump (1; 91), - one hooks up either one of the body (3; 93), the piston (4; 94) and the switching valve (5; 95) to a pivot (P), and - one rotates the pump (1; 91) around the pivot (P) to fasten the others of the body (3; 93), the piston (4; 94) and the switching valve (5; 95) on an operating support of a driving machine.
A method performed by an apparatus included in a network, said method comprising: obtaining connection quality information comprising data indicative of a connection quality between said apparatus and each of one or more base stations, each having a backhaul connection; performing an initial selection operation to select an initial base station from said one or more base stations in the network; obtaining identification values corresponding to each of said one or more base stations; transmitting a request for characteristic data to said initial base station, said request comprising said identification values; receiving said characteristic data indicative of a characteristic of said backhaul connection of each of said one or more base stations; performing a subsequent selection operation to select a preferred base station in dependence on said characteristic data; and connecting said apparatus to said preferred base station. obtaining connection quality information comprising data indicative of a connection quality between said apparatus and each of one or more base stations, each having a backhaul connection; performing an initial selection operation to select an initial base station from said one or more base stations in the network; obtaining identification values corresponding to each of said one or more base stations; transmitting a request for characteristic data to said initial base station, said request comprising said identification values; receiving said characteristic data indicative of a characteristic of said backhaul connection of each of said one or more base stations; performing a subsequent selection operation to select a preferred base station in dependence on said characteristic data; and connecting said apparatus to said preferred base station.
A hermetic terminal to be hermetically fixed to an aluminum electrolytic capacitor , comprising: a base which has a through hole, is to be attached to a case of the aluminum electrolytic capacitor , and is made of a composite material having electrical conductivity; at least one lead which is inserted into the through hole of the base , and is made of a composite material having electrical conductivity; and an insulating glass which hermetically seals a gap between the base and the lead , wherein surfaces of portions of the base and the lead which come into contact with an electrolytic solution within the case are composed of a metal material having corrosion resistance to the electrolytic solution, and the base has a base material made of an iron-based metal material, and a surface material made of aluminum which covers at least one surface of the base material , wherein the lead has an outer lead made of an iron-based metal material, and an inner lead made of aluminum which is butt-joined to one end of the outer lead ; characterized in that , a joint between the outer lead and the inner lead is located within the through hole of the base and closer to the inner side of the hermetic terminal , the inner side being the side of the hermetic terminal in contact with the electrolytic solution. a base which has a through hole, is to be attached to a case of the aluminum electrolytic capacitor , and is made of a composite material having electrical conductivity; at least one lead which is inserted into the through hole of the base , and is made of a composite material having electrical conductivity; and an insulating glass which hermetically seals a gap between the base and the lead , wherein surfaces of portions of the base and the lead which come into contact with an electrolytic solution within the case are composed of a metal material having corrosion resistance to the electrolytic solution, and the base has a base material made of an iron-based metal material, and a surface material made of aluminum which covers at least one surface of the base material , wherein the lead has an outer lead made of an iron-based metal material, and an inner lead made of aluminum which is butt-joined to one end of the outer lead ; characterized in that , a joint between the outer lead and the inner lead is located within the through hole of the base and closer to the inner side of the hermetic terminal , the inner side being the side of the hermetic terminal in contact with the electrolytic solution.
A semiconductor chip having a layer sequence , which is intended to produce a soldered connection and comprises a solder layer and an oxidation prevention layer , which follows the solder layer as seen from the semiconductor chip , wherein a barrier layer is included between the solder layer and the oxidation prevention layer , wherein the barrier layer reduces diffusion of a material that is a constituent of the solder layer through the oxidation prevention layer , characterised in that - the barrier layer has a thickness and the thickness is at most 50 nm. - the barrier layer has a thickness and the thickness is at most 50 nm.
A process for manufacturing a polyether by polymerizing at least one alkylene oxide in a tubular reactor having an inlet end and an outlet end, wherein an initiator composition containing at least one initiator compound and an alkylene oxide polymerization catalyst is continuously introduced into said inlet end and the polyether is continuously removed from the outlet end, wherein the tubular reactor includes at least one monomer feed section wherein at least one alkylene oxide is continuously introduced under polymerization conditions through multiple alkylene oxide ports arranged along the length of said monomer feed section to form a reaction mixture, the process being further characterized in that the concentration of unreacted alkylene oxide is maintained in the range 0.1 to 12 weight percent at each point along the length of the monomer feed section; wherein the rate of addition of the alkylene oxide per unit length of the monomer feed section increases along the length of the monomer feed section in a downstream direction.