mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining a stop period of a mobile device in geographical locations, according to geolocation data related to said mobile device, and for triggering an action accordingly, the method comprising the following steps adapted to be executed by said mobile device • during a first step (S100), determining a new predicted position ( m k − ) of the mobile device, according to a first position related to the mobile device and a filtered position obtained using a discrete-time Kalman Filter on the geolocation data, the first position being, either a current position of the mobile device if it is possible to obtain said current position from the geolocation data, or if a current position of the mobile device is not available from the geolocation data, an artificial position of the mobile device set according to a last received position (y p ) of the mobile device available from the geolocation data; • during a second step (S200), • determining (S220) a normalized prediction error (nPrERR k ) according to a difference between the new predicted position ( m k − ) and the first position; • if the normalized prediction error (nPrERR k ) is smaller than a prediction error threshold (TPrE), generating (S240, S250) a stop message to indicate that the stop period is starting ; • during a third step (S300), triggering an action on the mobile device, according to the stop message. • during a first step (S100), determining a new predicted position ( m k − ) of the mobile device, according to a first position related to the mobile device and a filtered position obtained using a discrete-time Kalman Filter on the geolocation data, the first position being, either a current position of the mobile device if it is possible to obtain said current position from the geolocation data, or if a current position of the mobile device is not available from the geolocation data, an artificial position of the mobile device set according to a last received position (y p ) of the mobile device available from the geolocation data; • during a second step (S200), • determining (S220) a normalized prediction error (nPrERR k ) according to a difference between the new predicted position ( m k − ) and the first position; • if the normalized prediction error (nPrERR k ) is smaller than a prediction error threshold (TPrE), generating (S240, S250) a stop message to indicate that the stop period is starting ; • determining (S220) a normalized prediction error (nPrERR k ) according to a difference between the new predicted position ( m k − ) and the first position; • if the normalized prediction error (nPrERR k ) is smaller than a prediction error threshold (TPrE), generating (S240, S250) a stop message to indicate that the stop period is starting ; • during a third step (S300), triggering an action on the mobile device, according to the stop message.
A method for operating an engine in an intermittent combustion mode in such a manner that a fired cylinder ratio of an engine , which corresponds to the number of fired cylinders during a cycle, divided by a sum of the number of fired cylinders and a number of skipped cylinders during the cycle, becomes equal to a target fired cylinder ratio greater than or less than 1/2, by repeating an intermittent firing pattern in which n cylinders are successively fired and then m cylinders are successively skipped, where n and m are variables of natural numbers, the fired cylinder ratio being set based on an operating state of the engine , the method comprising: operating the engine in the intermittent combustion mode, which is executed by repeating switching of the intermittent firing pattern, in such a manner that the intermittent firing pattern is switched a predetermined number of times from the first intermittent firing pattern and back to the first intermittent firing pattern, within the one cycle defined as a period in which the intermittent firing pattern is switched the predetermined number of times, one of n and m is maintained at a value equal to its respective value before switching the intermittent firing pattern, the other one of n and m not maintained at its respective value is changed by only 1 from its respective value before switching the intermittent firing pattern the fired cylinder ratio after one cycle of switching of the intermittent firing pattern equals the target fired cylinder ratio. operating the engine in the intermittent combustion mode, which is executed by repeating switching of the intermittent firing pattern, in such a manner that the intermittent firing pattern is switched a predetermined number of times from the first intermittent firing pattern and back to the first intermittent firing pattern, within the one cycle defined as a period in which the intermittent firing pattern is switched the predetermined number of times, one of n and m is maintained at a value equal to its respective value before switching the intermittent firing pattern, the other one of n and m not maintained at its respective value is changed by only 1 from its respective value before switching the intermittent firing pattern the fired cylinder ratio after one cycle of switching of the intermittent firing pattern equals the target fired cylinder ratio. one of n and m is maintained at a value equal to its respective value before switching the intermittent firing pattern, the other one of n and m not maintained at its respective value is changed by only 1 from its respective value before switching the intermittent firing pattern the fired cylinder ratio after one cycle of switching of the intermittent firing pattern equals the target fired cylinder ratio.
Method for producing a moulding tool of a vulcanization device for the moulding vulcanization of a vehicle tyre , wherein the moulding tool has a negative contrast structure on a moulding surface of the moulding tool , wherein the method comprises at least the following steps: a) providing the moulding tool having the moulding surface for the stamping of a surface of a vehicle tyre in a moulding manner in the course of the vulcanization of the tyre by means of the vulcanization device, b) creating a first surface structure of first depressions by means of a machining process, wherein the first surface structure extends at least over a surface region of the moulding surface, c) creating a second surface structure of second depressions by means of laser engraving, wherein the second structure extends at least over the surface region and wherein the first surface structure and the second surface structure together form the negative contrast structure in the surface region , characterized in that the second depressions have a surface which has a greater surface roughness than a surface of the first depressions . a) providing the moulding tool having the moulding surface for the stamping of a surface of a vehicle tyre in a moulding manner in the course of the vulcanization of the tyre by means of the vulcanization device, b) creating a first surface structure of first depressions by means of a machining process, wherein the first surface structure extends at least over a surface region of the moulding surface, c) creating a second surface structure of second depressions by means of laser engraving, wherein the second structure extends at least over the surface region and wherein the first surface structure and the second surface structure together form the negative contrast structure in the surface region ,
A composition for use in a method for treating meibomian gland dysfunction in a patient in need thereof, said method comprising topically administering to the eyelid margin of the patient a composition, wherein the composition comprises a therapeutically-effective amount of at least one keratolytic agent in an ophthalmically-acceptable carrier, wherein the keratolytic agent is selected from selenium disulfide in a concentration of 0.1% to 10%, or salicylic acid in a concentration of 0.1% to 30%; and wherein the meibomian gland dysfunction is characterized by a keratin obstruction of the terminal duct of the meibomian gland.
A method for femto node radio frequency channel selection, comprising: selecting between a first band of operating channels and a second band of operating channels for a femto node based on at least one band-selection criterion, wherein the first band includes a plurality of channels that are higher in frequency than a plurality of channels in the second band, and wherein the band-selection criterion is configured to select the first band to provide a smaller coverage area for the femto node and to select the second band to provide a larger coverage area for the femto node , wherein the at least one band-selection criterion comprises a location of the femto node in a building ; and configuring the femto node for operation according to one or more operating channels in the selected band; wherein the selecting comprises: determining the location of the femto node in the building ; and selecting between the first and second bands for the femto node based on the location of the femto node in the building; and wherein the second band is selected when the femto node is located near a window or side of the building , and wherein the first band is selected when the femto node is located deeper inside the building . selecting between a first band of operating channels and a second band of operating channels for a femto node based on at least one band-selection criterion, wherein the first band includes a plurality of channels that are higher in frequency than a plurality of channels in the second band, and wherein the band-selection criterion is configured to select the first band to provide a smaller coverage area for the femto node and to select the second band to provide a larger coverage area for the femto node , wherein the at least one band-selection criterion comprises a location of the femto node in a building ; and configuring the femto node for operation according to one or more operating channels in the selected band; wherein the selecting comprises: determining the location of the femto node in the building ; and selecting between the first and second bands for the femto node based on the location of the femto node in the building; and wherein the second band is selected when the femto node is located near a window or side of the building , and wherein the first band is selected when the femto node is located deeper inside the building . determining the location of the femto node in the building ; and selecting between the first and second bands for the femto node based on the location of the femto node in the building; and wherein the second band is selected when the femto node is located near a window or side of the building , and wherein the first band is selected when the femto node is located deeper inside the building .
A sodium electrochemical cell that supports a current density at the negative electrode of at least 500 μA/cm 2 , the electrochemical cell comprising (i) a negative electrode and (ii) a sodium-ion ionic liquid electrolyte having a sodium-ion concentration that is no less than 75% of its saturation limit in the electrolyte, wherein the negative electrode has a solid-electrolyte interphase (SEI) layer formed as a result of the electrochemical cell having undergone a polarisation cycle, and wherein the electrolyte comprises a phosphorous-based organic salt.
A notching apparatus for a secondary battery, comprising: a lower mechanism comprising a die on which an electrode provided with a coating portion coated with an electrode active material and a non-coating portion that is not coated with the electrode active material is disposed and a die holder to which the die is fixed; characterized by a stripper comprising a first stripper disposed above a coating portion disposed on the lower mechanism to press the coating portion while descending toward the coating portion and a pair of second strippers disposed above a non-coating portion disposed on the lower mechanism to press and fix the non-coating portion while descending toward the non-coating portion; an upper mechanism comprising a punch provided between the pair of second strippers and provided with a cutting blade cutting the non-coating portion disposed between the pair of second strippers and a punch holder fixing the punch to allow the punch to move in a direction of the lower mechanism ; and a pressing member pressing the non-coating portion disposed between the pair of second strippers to increase in tension force when the non-coating portion is cut by the punch . a lower mechanism comprising a die on which an electrode provided with a coating portion coated with an electrode active material and a non-coating portion that is not coated with the electrode active material is disposed and a die holder to which the die is fixed; characterized by a stripper comprising a first stripper disposed above a coating portion disposed on the lower mechanism to press the coating portion while descending toward the coating portion and a pair of second strippers disposed above a non-coating portion disposed on the lower mechanism to press and fix the non-coating portion while descending toward the non-coating portion; an upper mechanism comprising a punch provided between the pair of second strippers and provided with a cutting blade cutting the non-coating portion disposed between the pair of second strippers and a punch holder fixing the punch to allow the punch to move in a direction of the lower mechanism ; and a pressing member pressing the non-coating portion disposed between the pair of second strippers to increase in tension force when the non-coating portion is cut by the punch .
Vision compensating spectacles comprising means of support on a wearer's face and at least one optical subassembly mounted on the support means opposite at least one of the wearer's eyes, the optical subassembly comprising three optical elements mounted on the support means in series along an optical axis (X), including a first optical element of cylindrical power for a direction of gaze of the wearer along the optical axis (X), a second optical element of cylindrical power for said direction of gaze and a third optical element of variable spherical power for said direction of gaze, the first optical element and the second optical element being adjustable in rotation about the optical axis (X) independently of one another, a toothed wheel being mounted in rotation about the optical axis and being secured to a ring provided on the circumference of a casing which carries the third optical element and allowing control of said spherical power.
A freshening composition comprising: a plurality of particles; a polysaccharide system comprising a first polysaccharide and a second polysaccharide, wherein the first polysaccharide is xanthan gum present at a level of 40 wt. % to 60 wt. % by weight of the polysaccharide system, and wherein the second polysaccharide is konjac gum; wherein the total polysaccharide level of the composition is less than 0.08 wt. %, by weight, of the composition; and an aqueous carrier. a plurality of particles; a polysaccharide system comprising a first polysaccharide and a second polysaccharide, wherein the first polysaccharide is xanthan gum present at a level of 40 wt. % to 60 wt. % by weight of the polysaccharide system, and wherein the second polysaccharide is konjac gum; wherein the total polysaccharide level of the composition is less than 0.08 wt. %, by weight, of the composition; and an aqueous carrier.
A laminated glazing for a vehicle comprising - an array of heating wires; - a first busbar and a second busbar in electrical connection with the array of heating wires and arranged such that a voltage applied between the first busbar and the second busbar allows heating of the glazing ; and - a conductive track electrically connected to the second busbar to provide electrical power to the second busbar ; characterised by - the array of heating wires extends over the first busbar and a first section of the conductive track ; and - a tape comprising a polymer is positioned between the first section of the conductive track and the array of heating wires for electrically insulating the first section of the conductive track from the array of heating wires. - an array of heating wires; - a first busbar and a second busbar in electrical connection with the array of heating wires and arranged such that a voltage applied between the first busbar and the second busbar allows heating of the glazing ; and - a conductive track electrically connected to the second busbar to provide electrical power to the second busbar ; - the array of heating wires extends over the first busbar and a first section of the conductive track ; and - a tape comprising a polymer is positioned between the first section of the conductive track and the array of heating wires for electrically insulating the first section of the conductive track from the array of heating wires.
A method for producing hydroxypropyl methyl cellulose phthalate comprising: an esterification step of reacting hydroxypropyl methyl cellulose with a carboxybenzoylating agent in the presence of an aliphatic carboxylic acid in a kneader reactor equipped with two or more stirring blades rotating around their own axes and orbitally revolving, to obtain a reaction product solution containing hydroxypropyl methyl cellulose phthalate; a precipitation step of precipitating the hydroxypropyl methyl cellulose phthalate by mixing the reaction product solution with water to obtain a suspension of the precipitated hydroxypropyl methyl cellulose phthalate; and a washing and recovering step of washing the hydroxypropyl methyl cellulose phthalate in the suspension and recovering the washed hydroxypropyl methyl cellulose phthalate. an esterification step of reacting hydroxypropyl methyl cellulose with a carboxybenzoylating agent in the presence of an aliphatic carboxylic acid in a kneader reactor equipped with two or more stirring blades rotating around their own axes and orbitally revolving, to obtain a reaction product solution containing hydroxypropyl methyl cellulose phthalate; a precipitation step of precipitating the hydroxypropyl methyl cellulose phthalate by mixing the reaction product solution with water to obtain a suspension of the precipitated hydroxypropyl methyl cellulose phthalate; and a washing and recovering step of washing the hydroxypropyl methyl cellulose phthalate in the suspension and recovering the washed hydroxypropyl methyl cellulose phthalate.
A computer-implemented method for input understanding processing comprising: processing a received input to generate a set of alternatives for recognition of the received input; filtering the set of alternatives, wherein the filtering comprises ranking the set of alternatives and propagating a plurality of the ranked alternatives for additional processing; processing the propagated alternatives to generate an expanded set of alternatives as potential hypotheses based on the received input; filtering the expanded set of alternatives, wherein the filtering comprises ranking alternatives of the expanded set and propagating a plurality of the ranked alternatives of the expanded set for additional processing; evaluating the propagated alternatives of the expanded set based on application of knowledge data fetched from external resources; and generating a response to the received input, wherein the generating ranks the evaluated alternatives and selects the response from the ranked and evaluated alternatives, wherein the plurality of propagated and ranked alternatives from the set of alternatives is determined using a threshold that is set based on at least one selected from a group consisting of: a latency of an input processing component, a capacity of the input processing component, and processing of a set of ranking signals, the input processing component being a component that is to receive the propagated alternatives. processing a received input to generate a set of alternatives for recognition of the received input; filtering the set of alternatives, wherein the filtering comprises ranking the set of alternatives and propagating a plurality of the ranked alternatives for additional processing; processing the propagated alternatives to generate an expanded set of alternatives as potential hypotheses based on the received input; filtering the expanded set of alternatives, wherein the filtering comprises ranking alternatives of the expanded set and propagating a plurality of the ranked alternatives of the expanded set for additional processing; evaluating the propagated alternatives of the expanded set based on application of knowledge data fetched from external resources; and generating a response to the received input, wherein the generating ranks the evaluated alternatives and selects the response from the ranked and evaluated alternatives, wherein the plurality of propagated and ranked alternatives from the set of alternatives is determined using a threshold that is set based on at least one selected from a group consisting of: a latency of an input processing component, a capacity of the input processing component, and processing of a set of ranking signals, the input processing component being a component that is to receive the propagated alternatives.
A method for screening an individual for evaluation of risk of a CV event, the method comprising: providing a biomarker panel comprising N of the biomarker proteins listed in Table 1; detecting biomarker proteins, in a biological sample from an individual, to give biomarker values that correspond to the biomarkers in the biomarker panel in order to predict risk for a CV event, based on said biomarker values, and wherein N = 3 - 155, and wherein the biomarker panel includes PSA-ACT.
A method for protecting a well from thermal damage during injection of high temperature fluids, the method comprising: a) introducing a cooling fluid to an annulus between a high temperature fluid injection pipe and the wellbore wall and above an isolating packer uphole of a reservoir receiving the injection of high temperature fluids; b) allowing the cooling fluid to remain in the annulus for a residence time such that the cooling fluid becomes a heated cooling fluid; c) circulating the heated cooling fluid from the annulus; d) repeating steps a) to c); characterized in that the method further comprises: e) monitoring a pressure of the heated cooling fluid; f) monitoring flow including monitoring a return flow of the heated cooling fluid in comparison to an inflow of the cooling fluid into the well; and g) altering the method and identifying a packer failure if at least one of: the pressure exceeds a preselected level, and the return flow substantially varies from the inflow. a) introducing a cooling fluid to an annulus between a high temperature fluid injection pipe and the wellbore wall and above an isolating packer uphole of a reservoir receiving the injection of high temperature fluids; b) allowing the cooling fluid to remain in the annulus for a residence time such that the cooling fluid becomes a heated cooling fluid; c) circulating the heated cooling fluid from the annulus; d) repeating steps a) to c); e) monitoring a pressure of the heated cooling fluid; f) monitoring flow including monitoring a return flow of the heated cooling fluid in comparison to an inflow of the cooling fluid into the well; and g) altering the method and identifying a packer failure if at least one of: the pressure exceeds a preselected level, and the return flow substantially varies from the inflow. the pressure exceeds a preselected level, and the return flow substantially varies from the inflow.