mhurhangee/patent-ind-claim-en huggingface dataset:
A monitoring system for monitoring health of a monitored system, the monitoring system comprising: a receiver module configured to receive a plurality of sensor data relating to the monitored system from the monitored system and to receive textual data relating to the monitored system along with an indication of a component of the monitored system to which the textual data relates; an associative memory configured to store the sensor data and the textual data and to establish associations between at least some of the sensor data and the textual data, wherein the associations are established on a temporal basis based upon a time associated with the sensor data and the textual data, and/or established based upon the component of the monitored system to which the textual data relates; a dynamic change identification module configured to identify an instance in which the sensor data changes by at least a predefined amount, in a time period less than a predetermined temporal threshold; and a correlation module configured to identify an instance in which textual data has a time value that is within a predefined period of time from a time at which the sensor data experienced the change so as to correlate the sensor data and the textual data. a receiver module configured to receive a plurality of sensor data relating to the monitored system from the monitored system and to receive textual data relating to the monitored system along with an indication of a component of the monitored system to which the textual data relates; an associative memory configured to store the sensor data and the textual data and to establish associations between at least some of the sensor data and the textual data, wherein the associations are established on a temporal basis based upon a time associated with the sensor data and the textual data, and/or established based upon the component of the monitored system to which the textual data relates; a dynamic change identification module configured to identify an instance in which the sensor data changes by at least a predefined amount, in a time period less than a predetermined temporal threshold; and a correlation module configured to identify an instance in which textual data has a time value that is within a predefined period of time from a time at which the sensor data experienced the change so as to correlate the sensor data and the textual data.
A polyarylene sulfide composition including a polyarylene sulfide and a crosslinked impact modifier, wherein the crosslinked impact modifier comprises the reaction product of an epoxy-functionality of an impact modifier and a non-polymeric crosslinking agent, wherein the polyarylene sulfide composition has a notched Charpy impact strength of greater than 3 kJ/m 2 at a temperature of 23°C as measured according to ISO Test No. 179-1 and a notched Charpy impact strength of greater than 8 kJ/m 2 at a temperature of -30°C as measured according to ISO Test No. 179-1.
A gas turbine engine , comprising: a nacelle having an inner wall providing a bypass duct of a gas turbine engine , and an outer wall ; an accessory gearbox being received between the inner wall and the outer wall of the nacelle ; and an accessory drive (D4,D5) of the accessory gearbox , the accessory drive (D4,D5) configured to rotate about an accessory drive axis (A T ) that is transverse to a central axis (A) of the gas turbine engine , characterized in that : the accessory drive axis (A T ) extends tangentially relative to the nacelle . a nacelle having an inner wall providing a bypass duct of a gas turbine engine , and an outer wall ; an accessory gearbox being received between the inner wall and the outer wall of the nacelle ; and an accessory drive (D4,D5) of the accessory gearbox , the accessory drive (D4,D5) configured to rotate about an accessory drive axis (A T ) that is transverse to a central axis (A) of the gas turbine engine , characterized in that : the accessory drive axis (A T ) extends tangentially relative to the nacelle .
A hydrogenated copolymer obtained by hydrogenating a copolymer comprising an aromatic vinyl monomer unit and a chain conjugated diene monomer unit, wherein an elution curve measured by gel permeation chromatography (GPC) of a sample containing the hydrogenated copolymer has at least two hydrogenated copolymer-derived peaks, and when, among the at least two hydrogenated copolymer-derived peaks, a hydrogenated copolymer-derived peak exhibiting a peak top with the earliest elution time is defined as a first peak and a hydrogenated copolymer-derived peak exhibiting a peak top with the second earliest elution time is defined as a second peak, the ratio of a standard polystyrene-equivalent molecular weight based on the elution time of the first peak (first peak molecular weight) to a standard polystyrene-equivalent molecular weight based on the elution time of the second peak (second peak molecular weight) (first peak molecular weight / second peak molecular weight) is 1.50 or more, the first peak molecular weight is 170,000 or less, the second peak molecular weight is 1,000 or more, the copolymer is a block copolymer comprising at least two polymer blocks [A] comprising an aromatic vinyl monomer unit as a main component and at least one polymer block [B] comprising a chain conjugated diene monomer unit as a main component, and when a mass fraction of a total aromatic vinyl monomer unit in the block copolymer is defined as wA and a mass fraction of a total chain conjugated diene monomer unit in the block copolymer is defined as wB, the ratio of wA to wB (wA:wB) is 40:60 to 60:40. the copolymer is a block copolymer comprising at least two polymer blocks [A] comprising an aromatic vinyl monomer unit as a main component and at least one polymer block [B] comprising a chain conjugated diene monomer unit as a main component, and when a mass fraction of a total aromatic vinyl monomer unit in the block copolymer is defined as wA and a mass fraction of a total chain conjugated diene monomer unit in the block copolymer is defined as wB, the ratio of wA to wB (wA:wB) is 40:60 to 60:40.
A node comprising: a base ; first and second sides protruding from the base to form a recess for receiving a panel ; first and second ports ; more than one adhesive regions disposed on a surface of each side adjacent the panel; and at least one channel coupled between the first and second ports and configured to fill the adhesive regions with an adhesive, the adhesive being cured to form a node-panel joint, wherein the channel runs serially from the first port to the second port through each adhesive region on the first and second sides by using channel portions , each channel portion comprising apertures arranged on opposing sides of each adhesive region as respective entry and exit areas for the adhesive. a base ; first and second sides protruding from the base to form a recess for receiving a panel ; first and second ports ; more than one adhesive regions disposed on a surface of each side adjacent the panel; and at least one channel coupled between the first and second ports and configured to fill the adhesive regions with an adhesive, the adhesive being cured to form a node-panel joint, wherein the channel runs serially from the first port to the second port through each adhesive region on the first and second sides by using channel portions , each channel portion comprising apertures arranged on opposing sides of each adhesive region as respective entry and exit areas for the adhesive.
A flame retardant material comprising: (a) a fabric substrate; (b) a coating on the substrate, wherein the coating is optionally corona-treated, the coating comprising a flame retardant polyolefin composition (X) comprising: (i) an ethylene based plastomer with a density in the range of 0.857 to 0.915 g/cm 3 and an MFR 2 (190°C; 2.16 kg) in the range 0.5 - 30 g/10 min, wherein the ethylene based plastomer is a copolymer of ethylene and at least one C 3 - C 10 alpha-olefin; (ii) a propylene based plastomer with a density in the range of 0.850 to 0.910 g/cm 3 and an MFR 2 (230 °C/2.16 kg) in the range 0.01 - 30 g/10 min, wherein the propylene based plastomer is a copolymer of propylene and ethylene or a C 4 - C 10 alpha-olefin; and (iii) a flame retardant (FR) comprising an ammonium polyphosphate; (c) an acrylic-modified polyethylene primer layer on top of the coating; and (d) a lacquer topcoat on top of the primer layer, wherein the lacquer topcoat comprises a polyurethane or a fluoropolymer. (a) a fabric substrate; (b) a coating on the substrate, wherein the coating is optionally corona-treated, the coating comprising a flame retardant polyolefin composition (X) comprising: (i) an ethylene based plastomer with a density in the range of 0.857 to 0.915 g/cm 3 and an MFR 2 (190°C; 2.16 kg) in the range 0.5 - 30 g/10 min, wherein the ethylene based plastomer is a copolymer of ethylene and at least one C 3 - C 10 alpha-olefin; (ii) a propylene based plastomer with a density in the range of 0.850 to 0.910 g/cm 3 and an MFR 2 (230 °C/2.16 kg) in the range 0.01 - 30 g/10 min, wherein the propylene based plastomer is a copolymer of propylene and ethylene or a C 4 - C 10 alpha-olefin; and (iii) a flame retardant (FR) comprising an ammonium polyphosphate; (i) an ethylene based plastomer with a density in the range of 0.857 to 0.915 g/cm 3 and an MFR 2 (190°C; 2.16 kg) in the range 0.5 - 30 g/10 min, wherein the ethylene based plastomer is a copolymer of ethylene and at least one C 3 - C 10 alpha-olefin; (ii) a propylene based plastomer with a density in the range of 0.850 to 0.910 g/cm 3 and an MFR 2 (230 °C/2.16 kg) in the range 0.01 - 30 g/10 min, wherein the propylene based plastomer is a copolymer of propylene and ethylene or a C 4 - C 10 alpha-olefin; and (iii) a flame retardant (FR) comprising an ammonium polyphosphate; (c) an acrylic-modified polyethylene primer layer on top of the coating; and (d) a lacquer topcoat on top of the primer layer, wherein the lacquer topcoat comprises a polyurethane or a fluoropolymer.
A dish washing appliance comprising: a dishwasher tub comprising one or more rails having geared teeth ; a dishwasher rack having at least one elongated shaft and one or more torsion springs connected thereto, wherein the dishwasher rack is positionable between a stowed position in the dishwasher tub and a deployed position, wherein the deployed position is different from the stowed position; wherein the at least one elongated shaft includes one or more geared wheels rotationally fixed to the at least one shaft , wherein the one or more geared wheels and the at least one shaft rotationally translate together along the geared teeth of the one or more rails between the stowed position and the deployed position; and wherein the one or more torsion springs are secured to the at least one shaft and wherein translating the dishwasher rack from the stowed position towards the deployed position rotates the at least one shaft and correspondingly increases the spring force of the one or more torsion springs urging the dishwasher rack to return towards the stowed position. a dishwasher tub comprising one or more rails having geared teeth ; a dishwasher rack having at least one elongated shaft and one or more torsion springs connected thereto, wherein the dishwasher rack is positionable between a stowed position in the dishwasher tub and a deployed position, wherein the deployed position is different from the stowed position; wherein the at least one elongated shaft includes one or more geared wheels rotationally fixed to the at least one shaft , wherein the one or more geared wheels and the at least one shaft rotationally translate together along the geared teeth of the one or more rails between the stowed position and the deployed position; and wherein the one or more torsion springs are secured to the at least one shaft and wherein translating the dishwasher rack from the stowed position towards the deployed position rotates the at least one shaft and correspondingly increases the spring force of the one or more torsion springs urging the dishwasher rack to return towards the stowed position.
A decision support system for an industrial plant , the decision support system being configured to: obtain a causal graph modeling causal assumptions relating to conditional dependence between variables in the industrial plant ; obtain observational data relating to operation of the industrial plant ; and perform causal inference using the causal graph and the observational data to estimate at least one causal effect relevant for making decisions when operating the industrial plant , characterized in that performing the causal inference comprises: identifying the causal effect based on an input query; estimating the causal effect; validating the causal effect ; and presenting the causal effect , wherein estimating the causal effect comprises using conditional probabilistic formulae to estimate the strength of the causal relationship between two of the variables, wherein validating the causal effect comprises performing data subset validation by reestimating the strength of the causal relationship using only a subset of the observational data and/or performing placebo treatment by reestimating the strength of the causal relationship using observational data in which data including a variable is replaced with data in which the same variable is not present. obtain a causal graph modeling causal assumptions relating to conditional dependence between variables in the industrial plant ; obtain observational data relating to operation of the industrial plant ; and perform causal inference using the causal graph and the observational data to estimate at least one causal effect relevant for making decisions when operating the industrial plant , characterized in that performing the causal inference comprises: identifying the causal effect based on an input query; estimating the causal effect; validating the causal effect ; and presenting the causal effect , wherein estimating the causal effect comprises using conditional probabilistic formulae to estimate the strength of the causal relationship between two of the variables, wherein validating the causal effect comprises performing data subset validation by reestimating the strength of the causal relationship using only a subset of the observational data and/or performing placebo treatment by reestimating the strength of the causal relationship using observational data in which data including a variable is replaced with data in which the same variable is not present.
A system for delivering to a subject at least one pre-determined amount of THC, the system comprising: a memory which stores a scheduled regimen for delivery of THC to said subject; and an inhaler device for delivering said THC to said subject, said inhaler device comprising a controller which carries out delivery of said THC; said system characterized by : a decision module which decides, according to said scheduled regimen, if a delivery should take place; said scheduled regimen defining a maximal amount of THC to be delivered, said amount being 1 mg or less; said decision module configured with a setting for a time period over which said amount is delivered, said time period being two hours or longer, taking into account that said maximal amount of THC is sufficient to reduce at least one treated symptom without return of the symptom to a pre-inhalation degree for said time period of at least two hours or longer. a memory which stores a scheduled regimen for delivery of THC to said subject; and an inhaler device for delivering said THC to said subject, said inhaler device comprising a controller which carries out delivery of said THC; said system characterized by : a decision module which decides, according to said scheduled regimen, if a delivery should take place; said scheduled regimen defining a maximal amount of THC to be delivered, said amount being 1 mg or less; said decision module configured with a setting for a time period over which said amount is delivered, said time period being two hours or longer, taking into account that said maximal amount of THC is sufficient to reduce at least one treated symptom without return of the symptom to a pre-inhalation degree for said time period of at least two hours or longer.
A hydrogel product comprising hyaluronic acid as the swellable polymer, wherein the hyaluronic acid is covalently crosslinked via crosslinks essentially consisting of trehalose.
A combustion burner (21;21A) comprising: a fuel nozzle (61;101) for ejecting a fuel gas being a mixture of fuel and air; a combustion air nozzle (62;102) for ejecting air from an outer side of the fuel nozzle (61;101); a first member (71;111) arranged inside the fuel nozzle (61;101) and comprising a first inclined surface (82a,82b;122a,122b) inclined with respect to a fuel gas flow which is a flow of the fuel gas in operation and a first inclination end edge, the first inclined surface (82a,82b;122a,122b) ending inclination at the first inclination end edge; and second members (72;112) arranged downstream of the first inclination end edge in a direction of the fuel gas flow and each comprising a second inclined surface (84a;124a) inclined toward the first member (71;111) with respect to the fuel gas flow and a second inclination end edge, the second inclined surface (84a;124a) ending inclination at the second inclination end edge, wherein the second members (72;112) are disposed on both sides of the first member (71;111) in a vicinity of an opening of the fuel nozzle (61;101) at predetermined intervals from inner wall surfaces (61a;101a) of the fuel nozzle (61;101). a fuel nozzle (61;101) for ejecting a fuel gas being a mixture of fuel and air; a combustion air nozzle (62;102) for ejecting air from an outer side of the fuel nozzle (61;101); a first member (71;111) arranged inside the fuel nozzle (61;101) and comprising a first inclined surface (82a,82b;122a,122b) inclined with respect to a fuel gas flow which is a flow of the fuel gas in operation and a first inclination end edge, the first inclined surface (82a,82b;122a,122b) ending inclination at the first inclination end edge; and second members (72;112) arranged downstream of the first inclination end edge in a direction of the fuel gas flow and each comprising a second inclined surface (84a;124a) inclined toward the first member (71;111) with respect to the fuel gas flow and a second inclination end edge, the second inclined surface (84a;124a) ending inclination at the second inclination end edge, wherein the second members (72;112) are disposed on both sides of the first member (71;111) in a vicinity of an opening of the fuel nozzle (61;101) at predetermined intervals from inner wall surfaces (61a;101a) of the fuel nozzle (61;101).
A method of binding an anesthetic agent comprising: contacting a gas comprising an anesthetic agent with a non-covalent organic framework comprising a compound of: wherein said compound forms a porous supramolecular structure; and adsorbing said anesthetic agent within the pores of a compound of Formula 1, wherein said framework has a weight adsorption capacity of 50% to 75% for said anesthetic agent.
A sponge-based variable-stiffness support structure for a natural orifice surgical instrument , configured to support the natural orifice surgical instrument , wherein the sponge-based variable-stiffness support structure for natural orifice surgical instrument comprises: a variable-stiffness sponge pipeline designed to be connected to the natural orifice surgical instrument ; a hydrophobic breathable film attached to an outer wall of the variable-stiffness sponge pipeline , and configured to isolate the variable-stiffness sponge pipeline from body fluid in the natural orifice; and a gas delivery assembly connected with the variable-stiffness sponge pipeline and configured to inject high-pressure air and water vapor into a variable-stiffness sponge pipe of the variable-stiffness sponge pipeline ; wherein the variable-stiffness sponge pipeline has a stiffness inversely proportional to content of the water vapor. a variable-stiffness sponge pipeline designed to be connected to the natural orifice surgical instrument ; a hydrophobic breathable film attached to an outer wall of the variable-stiffness sponge pipeline , and configured to isolate the variable-stiffness sponge pipeline from body fluid in the natural orifice; and a gas delivery assembly connected with the variable-stiffness sponge pipeline and configured to inject high-pressure air and water vapor into a variable-stiffness sponge pipe of the variable-stiffness sponge pipeline ; wherein the variable-stiffness sponge pipeline has a stiffness inversely proportional to content of the water vapor.
Dough processing method using a plurality of dough piece molds configured to receive at least one dough piece, each of the dough piece molds having at least one machine-readable identification label containing identification data , which include mold type data and unambiguous individualization data for the respective dough piece mold , the dough piece molds being used in a dough processing installation, comprising the following automated steps: - preparing dough pieces to be fermented and baked, - preparing the dough piece molds to be filled, - filling the dough piece molds with in each case at least one prepared dough piece, - fermenting the dough pieces in the dough piece molds in the dough processing installation, - baking the dough pieces in the dough piece molds in the dough processing machine, - removing the baked dough pieces from the dough piece molds , - transferring the dough piece molds to a refilling preparation of the dough piece molds , - wherein starting from and including the step of preparing the dough piece molds to be filled up to the refilling preparation of the dough piece molds , the following identifications are each carried out once: -- mold type identification of the dough piece mold , -- individual identification of the dough piece mold , - wherein the identifications are used to control processing stations of the dough processing installation, with - an imaging monitoring of the dough piece molds immediately after filling the dough piece molds and prior to fermenting the dough pieces and/or - an imaging monitoring of the dough piece molds immediately prior to fermenting the dough pieces and/or - an imaging monitoring of the dough piece molds immediately after removing the dough pieces. - preparing dough pieces to be fermented and baked, - preparing the dough piece molds to be filled, - filling the dough piece molds with in each case at least one prepared dough piece, - fermenting the dough pieces in the dough piece molds in the dough processing installation, - baking the dough pieces in the dough piece molds in the dough processing machine, - removing the baked dough pieces from the dough piece molds , - transferring the dough piece molds to a refilling preparation of the dough piece molds , - wherein starting from and including the step of preparing the dough piece molds to be filled up to the refilling preparation of the dough piece molds , the following identifications are each carried out once: -- mold type identification of the dough piece mold , -- individual identification of the dough piece mold , -- mold type identification of the dough piece mold , -- individual identification of the dough piece mold , - wherein the identifications are used to control processing stations of the dough processing installation, with - an imaging monitoring of the dough piece molds immediately after filling the dough piece molds and prior to fermenting the dough pieces and/or - an imaging monitoring of the dough piece molds immediately prior to fermenting the dough pieces and/or - an imaging monitoring of the dough piece molds immediately after removing the dough pieces.