mhurhangee/patent-ind-claim-en huggingface dataset:
A communications method, comprising: receiving, by a mobility management network element , a first session request message from a terminal, wherein the first session request message carries user route selection policy, URSP, identification information; obtaining, by the mobility management network element , URSP policy information from a first policy control entity based on the URSP identification information; and sending, by the mobility management network element , a second session request message to a session management network element , wherein the second session request message carries the URSP policy information, and the URSP policy information is to be used to formulate a policy rule for the terminal by a second policy control entity . receiving, by a mobility management network element , a first session request message from a terminal, wherein the first session request message carries user route selection policy, URSP, identification information; obtaining, by the mobility management network element , URSP policy information from a first policy control entity based on the URSP identification information; and sending, by the mobility management network element , a second session request message to a session management network element , wherein the second session request message carries the URSP policy information, and the URSP policy information is to be used to formulate a policy rule for the terminal by a second policy control entity .
A method of controlling optical signal power levelling in an optical communication network node in a chain of a plurality of optical communication network nodes, wherein the optical communication network node is configured to apply an optical attenuation, α, to a pass-through optical signal, the method comprising: a. performing the following steps i. to iii. until an attenuation variation value, Δα, is greater than a preselected attenuation variation threshold value , Δα TH : i. measuring an optical signal power of an optical signal; ii. calculating a difference, ΔP, between the measured optical signal power and a target optical signal power; iii. calculating a value for the attenuation variation, Δα, to be applied to the optical attenuation taking account of ΔP; b. obtaining a current value of the optical attenuation, α n , and obtaining a new optical attenuation value, α n+1 , in dependence on the current value of the optical attenuation, a current value of the attenuation variation, Δα n , and at least an earlier value of the attenuation variation, Δα n-1 ; wherein the obtaining the new optical attenuation value, α n+1 , comprises obtaining the new value of the optical attenuation value, α n+1 , only if the earlier value of the attenuation variation, Δα n-1 , and the current value of the attenuation variation, Δα n are greater than the preselected attenuation variation threshold value, Δα TH ; and c. generating a control signal arranged to configure the node to apply the new optical attenuation value, α n+1 . a. performing the following steps i. to iii. until an attenuation variation value, Δα, is greater than a preselected attenuation variation threshold value , Δα TH : i. measuring an optical signal power of an optical signal; ii. calculating a difference, ΔP, between the measured optical signal power and a target optical signal power; iii. calculating a value for the attenuation variation, Δα, to be applied to the optical attenuation taking account of ΔP; i. measuring an optical signal power of an optical signal; ii. calculating a difference, ΔP, between the measured optical signal power and a target optical signal power; iii. calculating a value for the attenuation variation, Δα, to be applied to the optical attenuation taking account of ΔP; b. obtaining a current value of the optical attenuation, α n , and obtaining a new optical attenuation value, α n+1 , in dependence on the current value of the optical attenuation, a current value of the attenuation variation, Δα n , and at least an earlier value of the attenuation variation, Δα n-1 ; wherein the obtaining the new optical attenuation value, α n+1 , comprises obtaining the new value of the optical attenuation value, α n+1 , only if the earlier value of the attenuation variation, Δα n-1 , and the current value of the attenuation variation, Δα n are greater than the preselected attenuation variation threshold value, Δα TH ; and c. generating a control signal arranged to configure the node to apply the new optical attenuation value, α n+1 .
A non-annealed hot-rolled ferritic stainless steel sheet, the ferritic stainless steel comprising, in percent (%) by weight of the entire composition, C: more than 0 and 0.03% or less, Si: 0.1 to 0.5%, Mn: 1.5% or less, P: 0.04% or less, Cr: 10.5 to 14%, Ni: more than 0 and 1.5% or less, Ti: 0.01 to 0.5%, Cu: more than 0 and 1.0% or less, N: more than 0 and 0.015% or less, Al: 0.1% or less, the remainder of iron (Fe) and other inevitable impurities, and satisfying the following equation , and the average grain size of the cross-sectional microstructure in the direction perpendicular to the rolling direction measured as defined in the description is 60 μ m or less; wherein the fraction of grain boundary having a misorientation between grains of the microstructure of 15 to 180° measured as defined in the description is 55% or more, 1500 ≤ (1001.5*C + 950.6*Mn + 1350.5*Ni + 395.6*Cu - 0.7*Si - 1.0*Ti - 0.1*Cr - 1.0*P - 1.0*Al + 1020.5*N) ≤ 2200 wherein C, Mn, Ni, Cu, Si, Ti, Cr, P, Al and N mean the content in % by weight of each element. satisfying the following equation , and the average grain size of the cross-sectional microstructure in the direction perpendicular to the rolling direction measured as defined in the description is 60 μ m or less; wherein the fraction of grain boundary having a misorientation between grains of the microstructure of 15 to 180° measured as defined in the description is 55% or more, 1500 ≤ (1001.5*C + 950.6*Mn + 1350.5*Ni + 395.6*Cu - 0.7*Si - 1.0*Ti - 0.1*Cr - 1.0*P - 1.0*Al + 1020.5*N) ≤ 2200 wherein C, Mn, Ni, Cu, Si, Ti, Cr, P, Al and N mean the content in % by weight of each element.
A automated, integrated learning and labeling and classification system with closed, self-sustaining pattern recognition , labeling and classification operation, wherein unclassified data sets are selected and converted into an assembly of graphic and text data forming compound data sets to be classified, wherein, by means of generated feature vectors of training data sets , a machine learning classifier is trained for improving the classification operation of the automated system generically during training with respect to a measure of the classification performance in the case of applying the automated labeling and classification system to unlabeled and unclassified data sets , and wherein unclassified data sets are classified by applying the machine learning classifier of the system to the compound data set of the unclassified data sets wherein training data sets are generated by means of the automated, system , wherein for each data set of selected test data sets a feature vector is generated by means of a labeling module of the automated learning, labeling and classification system comprising a plurality of labeled features associated with the different selected test data sets , characterized in that a two-dimensional confusion matrix is generated based on the feature vector of the test data sets by means of the system , wherein the first dimension comprises pre-processed labeled features of the feature vectors of the test data sets and the second dimension comprises classified and verified features of the feature vectors of the test data sets by applying the machine learning classifier to the test data sets , and in case an inconsistently or wrongly classified test data set and/or feature of a test data set is detected, the system assigns the inconsistently or wrongly classified test data set and/or feature of the test data set to the training data sets , the system generates additional training data sets based on the confusion matrix, which are added to the training data sets for filling in the gaps in the training data sets and improving the measurable performance of the system .
A rubber composition containing a rubber component, 0.05 - 6.0 parts by mass of benzoic acid zinc and/or t-butyl benzoic acid zinc and 0.5 - 140 parts by mass of wet synthetic silica and/or aluminum hydroxide with respect to 100 parts by mass of the rubber component, wherein the benzoic acid zinc and/or t-butyl benzoic acid zinc is contained as a molten mixture with fatty acid zinc, and the molten mixture has a melting point of 150°C or less, and wherein the fatty acid zinc includes zinc oleate.
A hand-held hot melt glue gun comprising a melt chamber , a needle and a nozzle movable with respect to said needle operative to open or close a discharge port in fluid communication with said melt chamber , a closure element that urges said needle and nozzle toward relative positions where said discharge port is closed, an opening element for moving said nozzle with respect to said needle to relative positions where said discharge port is open, and a trigger mechanism for advancing solid glue into said melt chamber and for operating said opening element , wherein said trigger mechanism provides a time delay between opening of said discharge port and advancement of said glue into said melt chamber .
Expanded beads of thermoplastic polyurethane that are spherical expanded beads obtained through expansion of thermoplastic polyurethane beads, wherein the bead mass of the expanded beads is from 3 to 12 mg, and the ratio of the long diameter to the short diameter of the expanded bead (long diameter/short diameter) is 1.5 or less; the apparent density of the expanded beads, measured in the manner as defined in the specification, is from 80 to 300 kg/m 3 ; the average cell diameter Da of the expanded beads, determined in the manner as defined in the specification, is from 110 to 300 μm; the variation coefficient of the cell diameter of the expanded beads, determined as defined in the specification, is 30% or less; the average cell diameter Ds of the cells positioning on the outermost surface side of the expanded beads, calculated in the manner as defined in the specification, is from 100 to 300 μm; the ratio of the average cell diameter Da to the average cell diameter Ds (Da/Ds) is more than 1.0 and 2.0 or less; and the closed cell ratio of the expanded beads, determined using an air comparison pycnometer on the basis of ASTM D2856-70, is 80% or more.
Conductor rail arrangement with a metal trough extending in a longitudinal direction (L) and with current guide profiles which also extend in the longitudinal direction (L) and which have a plurality of grooves which extend parallel to one another in the longitudinal direction (L) and are bounded laterally by webs and in the groove base by a base connecting the webs , electrical conductors being accommodated in the grooves and the current-carrying profiles being installed in the metal trough , characterized in that the current-carrying profiles are connected to the metal trough within a central region (MB) of 30 % to 70 % of their length by form fit , wherein the form fit prevents the current guiding profiles from being displaced to and fro in the longitudinal direction relative to the metal trough in the middle region (MB) of the current guiding profiles , and in that the current guiding profiles are movable relative to the metal trough in the direction of longitudinal extension (L) in their regions adjoining the central region (MB), wherein only one fixing with a form fit is present in the central region (MB) of the current guiding profiles , wherein the form fit for fixing is axially central, i.e. approximately half the width of the current guiding profiles .
A topically or orally applied BRaf inhibitor for use in treating or preventing a cutaneous condition induced by treatment of a subject in need thereof with an Epidermal Growth factor receptor (EGFR) inhibitor and/or a Phosphoinositide-3 Kinase (PI3K) inhibitor.
Aircraft for pilot training, said aircraft comprising notably a fuselage extending along a longitudinal axis (D) of the aircraft, said fuselage having a front end forming an aircraft nose and a rear end, said aircraft comprising a cockpit , a wing assembly , a landing gear , at least one turboprop engine , and a tail assembly , the aircraft further comprising two canard foreplanes symmetrically arranged with respect to the longitudinal axis (D), fixed to the fuselage in the front part of the aircraft, on either side of the nose and substantially upstream of the cockpit , said tail assembly comprising two elements forming a V-shape, symmetrically arranged with respect to said longitudinal axis (D) of the aircraft, and said at least one turboprop engine being located above the fuselage upstream of said tail assembly and in a symmetry plane containing said longitudinal axis (D) of the aircraft, between the two elements forming a V of said tail assembly .
A photo-acoustic gas sensor comprising: - a cell forming an acoustic resonator, comprising a gas inlet duct, a gas outlet duct and at least one aperture called the laser inlet ; - at least one electrically pumped laser source ; - at least one electro-acoustic transducer ; and - a supply circuit that generates a pulsed electric current, called the generation electric current , that pumps the one or more laser sources and configured to cause the one or more laser sources to operate in pulsed mode, the repetition frequency of the laser pulses being at least 10 times, preferably 100 times, more preferably 1000 times higher than the resonant frequency of the cell, characterised in that the supply circuit is configured to further generate a current, called the base current , that takes non-zero values between laser pulses with an intensity lower than the intensity of the generation current during the laser pulses , the intensity of the base current being modulated so that the one or more laser sources emit, into the cell, light radiation having a wavelength that varies periodically about a central wavelength so as to take, at regular intervals, a value specifically suited for excitation of a gas to be detected, whereby an interaction between the light radiation and the gas to be detected contained in the cell induces the generation of acoustic waves at a resonant frequency of the cell, the electro-acoustic transducer being arranged so as to be in contact with the acoustic waves generated in the cell. - a cell forming an acoustic resonator, comprising a gas inlet duct, a gas outlet duct and at least one aperture called the laser inlet ; - at least one electrically pumped laser source ; - at least one electro-acoustic transducer ; and - a supply circuit that generates a pulsed electric current, called the generation electric current , that pumps the one or more laser sources and configured to cause the one or more laser sources to operate in pulsed mode, the repetition frequency of the laser pulses being at least 10 times, preferably 100 times, more preferably 1000 times higher than the resonant frequency of the cell,
A specimen treatment reagent for causing a nucleic acid in a specimen containing a component crosslinked by an S-S bond to be released and adsorbed by a carrier containing silica, which comprises: 0.5% by weight or more and 15% by weight or less of at least one thiol reductant selected from N-acetyl-L-cysteine, L-cysteine ethyl ester, L-cysteine methyl ester, N-ethyl-L-cysteine, N-methyl-L-cysteine, and salts of these compounds, more than 2.0% by weight and 20% by weight or less of at least one alkaline substance selected from sodium hydroxide, potassium hydroxide, barium hydroxide, and calcium hydroxide, and 20% by weight or more and 80% by weight or less of ethanol. 0.5% by weight or more and 15% by weight or less of at least one thiol reductant selected from N-acetyl-L-cysteine, L-cysteine ethyl ester, L-cysteine methyl ester, N-ethyl-L-cysteine, N-methyl-L-cysteine, and salts of these compounds, more than 2.0% by weight and 20% by weight or less of at least one alkaline substance selected from sodium hydroxide, potassium hydroxide, barium hydroxide, and calcium hydroxide, and 20% by weight or more and 80% by weight or less of ethanol.
A shower head, preferably for a sanitary shower device, comprising - a base body , - a jet disk , and - a jet disk holding device for holding the jet disk on the base body, - wherein the jet disk holding device has first, centrical holding means for fixing a centrical zone of the jet disk to the base body in an associated holding position, and second, peripheral holding means for fixing a peripheral zone of the jet disk to the base body in an associated holding position, wherein the first and the second holding means are embodied in a bayonet holding means and configured so as to be put into their respective holding position in a common installation operation, and - wherein the jet disk holding device has a securing lock which secures against removal of the jet disk from the base body and comprises a locking pin seat in the jet disk and a locking pin which is retained on the base body and can be received in the locking pin seat for securing against removal. - a base body , - a jet disk , and - a jet disk holding device for holding the jet disk on the base body, - wherein the jet disk holding device has first, centrical holding means for fixing a centrical zone of the jet disk to the base body in an associated holding position, and second, peripheral holding means for fixing a peripheral zone of the jet disk to the base body in an associated holding position, wherein the first and the second holding means are embodied in a bayonet holding means and configured so as to be put into their respective holding position in a common installation operation, and - wherein the jet disk holding device has a securing lock which secures against removal of the jet disk from the base body and comprises a locking pin seat in the jet disk and a locking pin which is retained on the base body and can be received in the locking pin seat for securing against removal.
Method for preparing a liquid nutritional composition with a viscosity of less than 200 mPas.s measured at 20°C on a viscometer, stable to heat treatments, comprising between 2 and 9 g of whey proteins per 100 mL of composition, and having a pH of between 2 and 4.5, the preparation method comprising the following steps: - preparation of a matrix comprising at least 10% water, by weight, relative to the composition total weight, - addition of delta-gluconolactone to the matrix - hydrolysis of the delta-gluconolactone for 30 min to 4 h, - addition of a strong food acid before, at the same time as or after the addition or hydrolysis of the delta-gluconolactone, - addition of whey proteins to the matrix after hydrolysis of the delta-gluconolactone when the pH has reached a value below 2, - heat treatment, - packaging. - preparation of a matrix comprising at least 10% water, by weight, relative to the composition total weight, - addition of delta-gluconolactone to the matrix - hydrolysis of the delta-gluconolactone for 30 min to 4 h, - addition of a strong food acid before, at the same time as or after the addition or hydrolysis of the delta-gluconolactone, - addition of whey proteins to the matrix after hydrolysis of the delta-gluconolactone when the pH has reached a value below 2, - heat treatment, - packaging.
An aerosol generating device comprising: a heater configured to heat an aerosol generating material; characterized by a controller configured to: measure a resistance value of the heater by using at least one electrical characteristic associated with the heater , select a power profile from among a plurality of power profiles based on the measured resistance value of the heater , and control power supplied to the heater according to the selected power profile. a heater configured to heat an aerosol generating material; characterized by a controller configured to: measure a resistance value of the heater by using at least one electrical characteristic associated with the heater , select a power profile from among a plurality of power profiles based on the measured resistance value of the heater , and control power supplied to the heater according to the selected power profile. measure a resistance value of the heater by using at least one electrical characteristic associated with the heater , select a power profile from among a plurality of power profiles based on the measured resistance value of the heater , and control power supplied to the heater according to the selected power profile.
A tampon with an absorbent tampon core formed from at least one card sliver consisting predominantly of viscose and/or cotton and having no thermoplastic constituents, and at least one enveloping non-woven provided around the tampon core and having thermoplastic fibers and viscose and/or cotton fibers , characterized in that viscose and/or cotton fibers are unmodified viscose and/or cotton fibers and the proportion of viscose and/or cotton fibers in the enveloping non-woven is at least 3% by weight and less than 10% by weight.
A polysiloxane vinylic crosslinker, comprising: a polysiloxane segment comprising dimethylsiloxane units and aryl-containing siloxane unit having one methyl substituent and one organic substituent having up to 45 carbon atoms and at least one aryl moiety which is linked to Si atom through a linker having at least 2 carbon atoms; and ethylenically-unsaturated groups. a polysiloxane segment comprising dimethylsiloxane units and aryl-containing siloxane unit having one methyl substituent and one organic substituent having up to 45 carbon atoms and at least one aryl moiety which is linked to Si atom through a linker having at least 2 carbon atoms; and ethylenically-unsaturated groups.
Rubber patch for mounting an active electronic component comprising a base with a substantially planar connecting face and intended to be fixed to an internal surface of a tire and an opposed bearing face serving as a support for the active electronic component , characterized in that it comprises a passive tag for identifying the corresponding tire, provided with a memory for storing a unique identification data item of this tire, the passive tag being integrated into the patch between the connecting face and the bearing face in a manner such that, when the rubber patch and the active electronic component are mounted in an operating position, there is no contact therebetween.
An anti-Bridging Integrator-1 antibody or fragment thereof for use in a method of treatment of inflammatory bowel disease, wherein the treatment comprises the administration of said antibody to a subject in need thereof, and wherein said anti-Bridging Integrator-1 antibody or fragment thereof is immunologically specific for the Myc-binding domain of Bridging Integrator-1. wherein the treatment comprises the administration of said antibody to a subject in need thereof, and wherein said anti-Bridging Integrator-1 antibody or fragment thereof is immunologically specific for the Myc-binding domain of Bridging Integrator-1.