mhurhangee/patent-ind-claim-en huggingface dataset:
A method of interfacing an event based processing system with a frame based processing system, comprising: receiving at a filter an event stream generated from an event sensor , wherein each event in the event stream is generated from a change in intensity of a detected pixel, and wherein each event is associated with a time stamp and pixel coordinates; removing, at the filter that receives the event stream generated from the event sensor, an event that is generated in a specific region of a sensor array of the event sensor, wherein the event is removed when a number of already received events generated in the specific region has exceeded a threshold; converting a plurality of events, received from the event stream output from the filter into a frame, wherein the plurality of events are aggregated for a specific time period into the frame, or a specific number of events of the plurality of events are aggregated into the frame; and inputting the frame into the frame based processing system . receiving at a filter an event stream generated from an event sensor , wherein each event in the event stream is generated from a change in intensity of a detected pixel, and wherein each event is associated with a time stamp and pixel coordinates; removing, at the filter that receives the event stream generated from the event sensor, an event that is generated in a specific region of a sensor array of the event sensor, wherein the event is removed when a number of already received events generated in the specific region has exceeded a threshold; converting a plurality of events, received from the event stream output from the filter into a frame, wherein the plurality of events are aggregated for a specific time period into the frame, or a specific number of events of the plurality of events are aggregated into the frame; and inputting the frame into the frame based processing system .
A fastener for assembling at least two structural elements, the fastener comprising an enlarged head and a cylindrical or tapering smooth shank exhibiting, prior to fitting, an outside diameter (D 1 ) greater than an inside diameter (D S ) of a destination aperture, a locking portion comprising a screw thread or annular grooves exhibiting an outside diameter always smaller than the inside diameter (D S ) of the destination aperture, and a transition portion between a distal end, with respect to the enlarged head , of said smooth shank and a proximal end, with respect to the enlarged head , of said locking portion, characterized in that said fastener comprises at least one sacrificial ring containing an oil-based lubricant, arranged on an exterior surface of the fastener, positioned on an exterior surface of the smooth shank and/or of the locking portion and/or of the transition portion , the lubricant comprising a synthetic or mineral oil containing at least 80 % by volume of oil, said sacrificial ring exhibiting, prior to the fitting of the fastener into the structure, an outside diameter greater than a maximum outside diameter of the locking portion and greater than a smallest diameter of the aperture with which the smooth shank will interfere after the fastener has been fitted, said sacrificial ring comprising a polymer resin forming a matrix encapsulating dispersant molecules and lubricant molecules.
A method of forming an optical coating , comprising the steps: providing a glass substrate ; depositing a buffer layer on the substrate via plasma enhanced chemical vapor deposition at a first plasma bias voltage ranging from 50 V to 90 V; and depositing at least one layer of an optical coating on the buffer layer via plasma enhanced chemical vapor deposition, the deposition of the optical coating carried out at a second plasma bias voltage ranging from 100 V to 140 V. providing a glass substrate ; depositing a buffer layer on the substrate via plasma enhanced chemical vapor deposition at a first plasma bias voltage ranging from 50 V to 90 V; and depositing at least one layer of an optical coating on the buffer layer via plasma enhanced chemical vapor deposition, the deposition of the optical coating carried out at a second plasma bias voltage ranging from 100 V to 140 V.
A method of measuring GlycA, that is, an NMR biomarker derived from a measure of composite NMR signals from carbohydrate portions of acute phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties, comprising: electronically obtaining a composite NMR spectrum of a fitting region of a blood plasma or serum biosample of a subject; electronically deconvolving the composite NMR spectrum using a defined deconvolution model with high density lipoprotein (HDL) components, low density lipoprotein (LDL) components, very low density (VLDL)/chylomicron components, a protein signal component for protein having a density greater than 1.21 g/L, and a plurality of curve fit functions associated with at least a GlycA peak region; and electronically generating a measure of GlycA using the curve fit functions, wherein the GlycA NMR biomarker is derived from NMR signals of the protons of N-acetylglucosamine and/or N-acetylgalactosamine methyl groups, and wherein the GlycA peak region is centered at 2.00 ppm and the fitting region extends from 1.845 ppm to 2.080 ppm with the biosample at 47 °C ± 0.2 °C in an NMR flow probe of an NMR spectrometer. electronically obtaining a composite NMR spectrum of a fitting region of a blood plasma or serum biosample of a subject; electronically deconvolving the composite NMR spectrum using a defined deconvolution model with high density lipoprotein (HDL) components, low density lipoprotein (LDL) components, very low density (VLDL)/chylomicron components, a protein signal component for protein having a density greater than 1.21 g/L, and a plurality of curve fit functions associated with at least a GlycA peak region; and electronically generating a measure of GlycA using the curve fit functions, wherein the GlycA NMR biomarker is derived from NMR signals of the protons of N-acetylglucosamine and/or N-acetylgalactosamine methyl groups, and wherein the GlycA peak region is centered at 2.00 ppm and the fitting region extends from 1.845 ppm to 2.080 ppm with the biosample at 47 °C ± 0.2 °C in an NMR flow probe of an NMR spectrometer.
A nozzle head for subjecting a surface of a substrate to alternate surface reactions of at least two precursors (A, B) according to principles of atomic layer deposition, the nozzle head comprising: - an output face via which gas is supplied towards the surface of the substrate and discharged from the surface of the substrate ; - at least one gas supply nozzle arranged to supply gas towards the surface of the substrate ; and - at least one discharge nozzle arranged to discharge gas from the surface of the substrate via the output face , the nozzle head comprises on the output face in the following order: a first zone end nozzle , a gas supply nozzle and a second zone end nozzle , repeated one or more times on the output face , the first zone end nozzle is a discharge nozzle or a purge gas nozzle , the second zone end nozzle is a discharge nozzle, the gas supply nozzle is a precursor nozzle , and the first zone end nozzle is arranged at a first distance (L Y ) from the gas supply nozzle and the second zone end nozzle is arranged at a second distance (L X ) from the gas supply nozzle , characterized in that , and that the second distance (L X ) is at least 1,5 times greater than the first distance (L Y ). - an output face via which gas is supplied towards the surface of the substrate and discharged from the surface of the substrate ; - at least one gas supply nozzle arranged to supply gas towards the surface of the substrate ; and - at least one discharge nozzle arranged to discharge gas from the surface of the substrate via the output face , the nozzle head comprises on the output face in the following order: a first zone end nozzle , a gas supply nozzle and a second zone end nozzle , repeated one or more times on the output face , the first zone end nozzle is a discharge nozzle or a purge gas nozzle , the second zone end nozzle is a discharge nozzle, the gas supply nozzle is a precursor nozzle , and the first zone end nozzle is arranged at a first distance (L Y ) from the gas supply nozzle and the second zone end nozzle is arranged at a second distance (L X ) from the gas supply nozzle , characterized in that , and that the second distance (L X ) is at least 1,5 times greater than the first distance (L Y ). the nozzle head comprises on the output face in the following order: a first zone end nozzle , a gas supply nozzle and a second zone end nozzle , repeated one or more times on the output face , the first zone end nozzle is a discharge nozzle or a purge gas nozzle , the second zone end nozzle is a discharge nozzle, the gas supply nozzle is a precursor nozzle , and the first zone end nozzle is arranged at a first distance (L Y ) from the gas supply nozzle and the second zone end nozzle is arranged at a second distance (L X ) from the gas supply nozzle , characterized in that , and that the second distance (L X ) is at least 1,5 times greater than the first distance (L Y ).
A deterioration-state calculation method for calculating a deterioration state of a battery by using a processor for managing a state of the battery , comprising: detecting current of the battery and voltage of the battery by using a sensor ; calculating a state of charge of the battery corresponding to an open-circuit voltage detected by the sensor ; calculating a first deterioration state of the battery for each predetermined period based on an elapsed time from the start time of using the battery and an amount of charge-discharge of the battery ; characterized by further comprising: calculating a second deterioration state of the battery based on a change amount in the state of charge of the battery and a change amount of current of the battery ; executing calculation step for calculating the second deterioration state for a plurality of times within the predetermined period; calculating reliability of calculation of the second deterioration state for each of a plurality of the second deterioration states based on the detected value; calculating a correction value of the deterioration state based on the second deterioration state with the reliability of the predetermined reliability or higher; and calculating the deterioration state by correcting the first deterioration state by the correction value, wherein the deterioration state of the battery is the state of health (SOH) of the battery . detecting current of the battery and voltage of the battery by using a sensor ; calculating a state of charge of the battery corresponding to an open-circuit voltage detected by the sensor ; calculating a first deterioration state of the battery for each predetermined period based on an elapsed time from the start time of using the battery and an amount of charge-discharge of the battery ; characterized by further comprising: calculating a second deterioration state of the battery based on a change amount in the state of charge of the battery and a change amount of current of the battery ; executing calculation step for calculating the second deterioration state for a plurality of times within the predetermined period; calculating reliability of calculation of the second deterioration state for each of a plurality of the second deterioration states based on the detected value; calculating a correction value of the deterioration state based on the second deterioration state with the reliability of the predetermined reliability or higher; and calculating the deterioration state by correcting the first deterioration state by the correction value, wherein the deterioration state of the battery is the state of health (SOH) of the battery .
An oral care implement comprising: a handle ; a head coupled to the handle , the head comprising a base portion comprising a basin cavity , the basin cavity comprising a basin floor and a basin sidewall and having an open top end ; an aperture in at least one of the basin floor or the basin sidewall that defines a passageway from an outer surface of the head into the basin cavity ; an applicator comprising an anchor portion and a delivery portion , the anchor portion disposed in the basin cavity and the delivery portion extending through the aperture so that a portion of the delivery portion is exposed on the outer surface of the head , the applicator is formed of a single block of a first capillary material and loaded with an oral care material; and a cleaning element assembly comprising a head plate and a plurality of tooth cleaning elements mounted to the head plate , the cleaning element assembly coupled to the base portion of the head to enclose the open top end of the basin cavity , wherein the anchor portion comprises an annular flange that extends from and circumscribes the delivery portion . a handle ; a head coupled to the handle , the head comprising a base portion comprising a basin cavity , the basin cavity comprising a basin floor and a basin sidewall and having an open top end ; an aperture in at least one of the basin floor or the basin sidewall that defines a passageway from an outer surface of the head into the basin cavity ; an applicator comprising an anchor portion and a delivery portion , the anchor portion disposed in the basin cavity and the delivery portion extending through the aperture so that a portion of the delivery portion is exposed on the outer surface of the head , the applicator is formed of a single block of a first capillary material and loaded with an oral care material; and a cleaning element assembly comprising a head plate and a plurality of tooth cleaning elements mounted to the head plate , the cleaning element assembly coupled to the base portion of the head to enclose the open top end of the basin cavity , wherein the anchor portion comprises an annular flange that extends from and circumscribes the delivery portion .
An RF generator circuit comprising: a power supply ; an active device configured to output a signal; a dual inductor including a pair of windings wound on a toroidal core; a capacitor electrically coupled with one of the windings of the dual inductor ; and a feedback device configured to provide feedback from the dual inductor to the active device ; wherein the power supply and the active device are electrically coupled with the capacitor and the one of the windings of the dual inductor ; and wherein the dual inductor is configured to provide a voltage step up of the signal of the active device . a power supply ; an active device configured to output a signal; a dual inductor including a pair of windings wound on a toroidal core; a capacitor electrically coupled with one of the windings of the dual inductor ; and a feedback device configured to provide feedback from the dual inductor to the active device ; wherein the power supply and the active device are electrically coupled with the capacitor and the one of the windings of the dual inductor ; and wherein the dual inductor is configured to provide a voltage step up of the signal of the active device .
A method of controlling a fluid level around a transmission gear of a vehicle including the steps of (a) providing a set of predetermined operating conditions, each predetermined operating condition having a corresponding predetermined fluid level requirement, (b) operating the vehicle at an actual operating condition, (c) determining a predetermined operating condition equivalent to the actual operating condition, (d) arranging the fluid level around the transmission gear to be equivalent to the predetermined fluid level requirement corresponding to said predetermined operating condition, characterised in that a first predetermined operating condition of said set of predetermined operating conditions being at least defined by a first fluid quality, a second predetermined operating condition of said set of predetermined operating conditions being at least defined by a second fluid quality which is different from the first fluid quality, said first predetermined operating condition having a first predetermined fluid level requirement (A), said second predetermined operating condition having a second predetermined fluid level requirement (B) which is different from said first predetermined fluid level requirement (A). (a) providing a set of predetermined operating conditions, each predetermined operating condition having a corresponding predetermined fluid level requirement, (b) operating the vehicle at an actual operating condition, (c) determining a predetermined operating condition equivalent to the actual operating condition, (d) arranging the fluid level around the transmission gear to be equivalent to the predetermined fluid level requirement corresponding to said predetermined operating condition,
A chorionic gonadotropin carboxy terminal peptide (CTP)-modified coagulation factor consisting of a coagulation factor and three CTPs attached to the carboxy terminus of said coagulation factor, and wherein said CTP-modified coagulation factor is: a. a CTP-modified Factor IX (FIX) polypeptide consisting of the amino acid sequence of SEQ ID NO: 31 or amino acids 47-545 of SEQ ID NO: 31, b. a CTP-modified Factor VII (FVII) polypeptide consisting of the amino acid sequence of SEQ ID NO: 25 or amino acids 39-528 of SEQ ID NO: 25, or c. a CTP-modified activated Factor VII (FVIIa) polypeptide consisting of the amino acid sequence of amino acids 39-528 of SEQ ID NO: 25; for use in reducing excessive bleeding or bruising in a subject. a. a CTP-modified Factor IX (FIX) polypeptide consisting of the amino acid sequence of SEQ ID NO: 31 or amino acids 47-545 of SEQ ID NO: 31, b. a CTP-modified Factor VII (FVII) polypeptide consisting of the amino acid sequence of SEQ ID NO: 25 or amino acids 39-528 of SEQ ID NO: 25, or c. a CTP-modified activated Factor VII (FVIIa) polypeptide consisting of the amino acid sequence of amino acids 39-528 of SEQ ID NO: 25;
A modifier, wherein the modifier is selected from compounds represented by Formulae 1-1 to 1-4:
A live, attenuated coronavirus comprising a variant replicase gene encoding polyproteins comprising a mutation in nsp-14, wherein the variant replicase gene encodes a protein comprising an amino acid mutation of Val to Leu at the position corresponding to position 393 of SEQ ID NO: 7.
A system for representing a geographical area comprising a relief, the representation system comprising a support and a plurality of elements movable in translation with respect to the support according to an elevation direction (Z), each movable element comprising a head presenting at least one display face forming part of the relief, each movable element being movable between a rest position, in which each movable element is positioned at a same predetermined height relative to the support according to the elevation direction (Z), and a plurality of projecting positions, characterized in that the representation system further comprises at least one actuator and a positioning device configured to position the actuator relative to the movable elements in a positioning plane perpendicular to the elevation direction (Z), the actuator being configured to successively displace at least some of the movable elements among the plurality of movable elements according to the elevation direction (Z), and in that the support comprises a grid configured to support the head of each movable element in the rest position, preferably each movable element further comprising a rod extending from the head and through the grid . characterized in that the representation system further comprises at least one actuator and a positioning device configured to position the actuator relative to the movable elements in a positioning plane perpendicular to the elevation direction (Z), the actuator being configured to successively displace at least some of the movable elements among the plurality of movable elements according to the elevation direction (Z), and in that the support comprises a grid configured to support the head of each movable element in the rest position, preferably each movable element further comprising a rod extending from the head and through the grid .
An automobile undercarriage part comprising: a welded joint in which a first steel sheet and a second steel sheet are overlapped and a fillet weld is formed between an end surface of the first steel sheet and a surface of the second steel sheet, wherein a chemical composition of a weld metal that forms the welded joint contains, with respect to a total mass of the weld metal, by mass%: C: 0.02% to 0.20%; Si: more than 0% to less than 0.10%; Mn: 0.3% to 2.0%; Al: 0.002% to 0.30%; Ti: 0.005% to 0.30%; P: more than 0% to 0.015%; S: more than 0% to 0.030%; Cu: 0% to 0.50%; Cr: 0% to 1.5%; Nb: 0% to 0.3%; V: 0% to 0.3%; Mo: 0% to 1.0%; Ni: 0% to 2.5%; B: 0% to 0.005%; and a remainder consisting of iron and impurities, and the following formula and formula are satisfied, Al + Ti > 0.05 7 × Mn − 112 × Ti − 30 × Al ≤ 4.0 where [Al], [Ti], and [Mn] mean an amount of each component by mass% with respect to the total mass of the weld metal, the upper limit of Al + Ti is 0.60%, and the chemical composition of the weld metal is measured as described in the description. a welded joint in which a first steel sheet and a second steel sheet are overlapped and a fillet weld is formed between an end surface of the first steel sheet and a surface of the second steel sheet, wherein a chemical composition of a weld metal that forms the welded joint contains, with respect to a total mass of the weld metal, by mass%: C: 0.02% to 0.20%; Si: more than 0% to less than 0.10%; Mn: 0.3% to 2.0%; Al: 0.002% to 0.30%; Ti: 0.005% to 0.30%; P: more than 0% to 0.015%; S: more than 0% to 0.030%; Cu: 0% to 0.50%; Cr: 0% to 1.5%; Nb: 0% to 0.3%; V: 0% to 0.3%; Mo: 0% to 1.0%; Ni: 0% to 2.5%; B: 0% to 0.005%; and a remainder consisting of iron and impurities, and the following formula and formula are satisfied, Al + Ti > 0.05 7 × Mn − 112 × Ti − 30 × Al ≤ 4.0 where [Al], [Ti], and [Mn] mean an amount of each component by mass% with respect to the total mass of the weld metal, the upper limit of Al + Ti is 0.60%, and the chemical composition of the weld metal is measured as described in the description. C: 0.02% to 0.20%; Si: more than 0% to less than 0.10%; Mn: 0.3% to 2.0%; Al: 0.002% to 0.30%; Ti: 0.005% to 0.30%; P: more than 0% to 0.015%; S: more than 0% to 0.030%; Cu: 0% to 0.50%; Cr: 0% to 1.5%; Nb: 0% to 0.3%; V: 0% to 0.3%; Mo: 0% to 1.0%; Ni: 0% to 2.5%; B: 0% to 0.005%; and a remainder consisting of iron and impurities, and the following formula and formula are satisfied, Al + Ti > 0.05 7 × Mn − 112 × Ti − 30 × Al ≤ 4.0 where [Al], [Ti], and [Mn] mean an amount of each component by mass% with respect to the total mass of the weld metal, the upper limit of Al + Ti is 0.60%, and the chemical composition of the weld metal is measured as described in the description. where [Al], [Ti], and [Mn] mean an amount of each component by mass% with respect to the total mass of the weld metal, the upper limit of Al + Ti is 0.60%, and the chemical composition of the weld metal is measured as described in the description.