mhurhangee/patent-ind-claim-en huggingface dataset:
Method for simulating, implemented by a simulation device, a geological phenomenon of karstification which resulted in the formation of a geological region, comprising the following steps: a/ defining a gridded model of the geological region, b/ receiving an observation (K obs ) of a given parameter of permeability or porosity of the geological region measured at a well, c/ defining a zone of the model, called relevant zone, said relevant zone corresponding to a zone having a radius around said well, d/ simulating the geological phenomenon based on the model of the geological region defined in step a/, the simulation comprising No iterations of a stochastic displacement of a water particle in the model, the model evolving according to the displacement of these particles, the displacement being a function of a conduit diameter associated with an edge corresponding to this displacement, e/ after the N 0 iterations, estimating the value of the given parameter of permeability or porosity for the relevant zone of the model defined in step c/ using a pressure solver, and using the results of the simulation, f/ comparing the observation (K obs ) of the given parameter received in step b/ with the estimate (K̂) of said parameter obtained in step e/, and g/ based on the results of the comparison in step f/, modifying a simulation parameter to adjust the effects of the simulation for only a zone of the model. h/ obtain an image based on steps a/ to g/. a/ defining a gridded model of the geological region, b/ receiving an observation (K obs ) of a given parameter of permeability or porosity of the geological region measured at a well, c/ defining a zone of the model, called relevant zone, said relevant zone corresponding to a zone having a radius around said well, d/ simulating the geological phenomenon based on the model of the geological region defined in step a/, the simulation comprising No iterations of a stochastic displacement of a water particle in the model, the model evolving according to the displacement of these particles, the displacement being a function of a conduit diameter associated with an edge corresponding to this displacement, e/ after the N 0 iterations, estimating the value of the given parameter of permeability or porosity for the relevant zone of the model defined in step c/ using a pressure solver, and using the results of the simulation, f/ comparing the observation (K obs ) of the given parameter received in step b/ with the estimate (K̂) of said parameter obtained in step e/, and g/ based on the results of the comparison in step f/, modifying a simulation parameter to adjust the effects of the simulation for only a zone of the model. h/ obtain an image based on steps a/ to g/.
A process for producing an aqueous polymer solution comprising the steps of (a) providing a hydrated polymer that has been prepared by aqueous solution polymerisation of ethylenically unsaturated monomers, which hydrated polymer comprises at least 10% by weight active polymer; (b) cutting the hydrated polymer by subjecting the hydrated polymer to at least one cutting stage comprising at least one stream of aqueous liquid at a pressure of at least 150 bar to reduce the size of the hydrated polymer, (c) dissolving the hydrated polymer in an aqueous liquid so as to obtain an aqueous polymer solution. (a) providing a hydrated polymer that has been prepared by aqueous solution polymerisation of ethylenically unsaturated monomers, which hydrated polymer comprises at least 10% by weight active polymer; (b) cutting the hydrated polymer by subjecting the hydrated polymer to at least one cutting stage comprising at least one stream of aqueous liquid at a pressure of at least 150 bar to reduce the size of the hydrated polymer, (c) dissolving the hydrated polymer in an aqueous liquid so as to obtain an aqueous polymer solution.
A method of receiving a downlink signal by a user equipment, the method comprising: receiving (S3302), by the user equipment, first time offset information and second time offset information from a base station, each of the first time offset information and the second time offset information indicating a time offset between a transmission ending time of each signal-A and a transmission starting time of a channel-B related to each signal-A, wherein the first time offset information indicates a first length for the time offset, and the second time offset information indicates a second length for the time offset, and wherein the first length is shorter than the second length; selecting, by the user equipment, either the time offset with the first length or the time offset with the second length based on a minimum time gap that corresponds to a capability of the user equipment; monitoring (S3304), by the user equipment, a corresponding signal-A at a time position determined based on the selected time offset; and wherein the minimum time gap is a time length required for the user equipment to start monitoring of the channel-B, after the corresponding signal-A is detected in the monitoring (S3304). receiving (S3302), by the user equipment, first time offset information and second time offset information from a base station, each of the first time offset information and the second time offset information indicating a time offset between a transmission ending time of each signal-A and a transmission starting time of a channel-B related to each signal-A, wherein the first time offset information indicates a first length for the time offset, and the second time offset information indicates a second length for the time offset, and wherein the first length is shorter than the second length; selecting, by the user equipment, either the time offset with the first length or the time offset with the second length based on a minimum time gap that corresponds to a capability of the user equipment; monitoring (S3304), by the user equipment, a corresponding signal-A at a time position determined based on the selected time offset; and wherein the minimum time gap is a time length required for the user equipment to start monitoring of the channel-B, after the corresponding signal-A is detected in the monitoring (S3304).
A setting method of a monitoring system including: a light projecting and receiving unit having an emitting section (LPS) to emit a light flux, a scanning section to make the light flux scan within a monitoring space, and a light receiving section (RPS) to receive a light flux reflected from an object within the monitoring space, a processing section configured to measure a distance to the object by processing signals from the light projecting and receiving unit and to output a distance image with three-dimensional distance information for each measurement point of the distance image, a display device configured to display the distance image output from the processing section in a virtual space, and a user interface configured to perform input of attitude information in response to an operation of a user, the method is characterized by comprising: inputting the attitude information through the user interface so as to adjust an attitude or position of the distance image displayed on the display device; performing coordinate conversion for at least the distance image on the basis of the attitude information having been input; displaying the distance image after having been subjected to the coordinate conversion on the display device; and memorizing the attitude information, changed from an initial state by the adjustment, in a nonvolatile memory. a light projecting and receiving unit having an emitting section (LPS) to emit a light flux, a scanning section to make the light flux scan within a monitoring space, and a light receiving section (RPS) to receive a light flux reflected from an object within the monitoring space, a processing section configured to measure a distance to the object by processing signals from the light projecting and receiving unit and to output a distance image with three-dimensional distance information for each measurement point of the distance image, a display device configured to display the distance image output from the processing section in a virtual space, and a user interface configured to perform input of attitude information in response to an operation of a user, the method is characterized by comprising: inputting the attitude information through the user interface so as to adjust an attitude or position of the distance image displayed on the display device; performing coordinate conversion for at least the distance image on the basis of the attitude information having been input; displaying the distance image after having been subjected to the coordinate conversion on the display device; and memorizing the attitude information, changed from an initial state by the adjustment, in a nonvolatile memory. inputting the attitude information through the user interface so as to adjust an attitude or position of the distance image displayed on the display device; performing coordinate conversion for at least the distance image on the basis of the attitude information having been input; displaying the distance image after having been subjected to the coordinate conversion on the display device; and memorizing the attitude information, changed from an initial state by the adjustment, in a nonvolatile memory.
A computer-implemented method for monitoring the experience of an on-premises user of at least one software as a service application located on a cloud-based server and operated from a location of the on-premises user over the internet or of an on-premises application running on an on-premises server, the method comprising: an installation step comprising installing a diagnostic tool on a computer at the location of the user; a simulation step comprising the diagnostic tool exactly replicating at least one action possibly performed by said on-premises user of said software as a service application by performing end user simulation tests, combined with internet performance tests, said tests being operated from the location of the on-premises user and ran on a on-premises server or from the cloud location of the software as a service application in order to respectively test the on-premises application or the software as a service application from where the on-premises user is located; a collecting and storing step comprising collecting and storing the simulation results, and a communication step for transferring the simulation results to an Internet of things Hub. an installation step comprising installing a diagnostic tool on a computer at the location of the user; a simulation step comprising the diagnostic tool exactly replicating at least one action possibly performed by said on-premises user of said software as a service application by performing end user simulation tests, combined with internet performance tests, said tests being operated from the location of the on-premises user and ran on a on-premises server or from the cloud location of the software as a service application in order to respectively test the on-premises application or the software as a service application from where the on-premises user is located; a collecting and storing step comprising collecting and storing the simulation results, and a communication step for transferring the simulation results to an Internet of things Hub.
A system for feeding diaphragm, characterized in that the system for feeding diaphragm comprises: a diaphragm separating device adapted to separate a single diaphragm from at least one stack of diaphragms ; wherein, the diaphragm separating device comprises: a diaphragm bin adapted to load at least one stack of diaphragms ; and at least one set of diaphragm sweeping mechanism adapted to sweep a top of at least one stack of diaphragms , in order to separate a single diaphragm from the top of at least one stack of diaphragms ; wherein, each set of diaphragm sweeping mechanism comprises: a support frame adapted to move reciprocally in a straight line; and a sweeping brush mounted on the support frame and adapted to move reciprocally along with the support frame , when the sweeping brush moves reciprocally along with the support frame , the sweeping brush sweeps the top of at least one stack of diaphragms , in order to separate the single diaphragm from the top of at least one stack of diaphragms ; and a visual device adapted to identify the separated single diaphragm and the position of the separated single diaphragm ; characterized in that a pair of sliding rails extending in a straight line is provided at both sides of the diaphragm bin , the support frame being slidably installed on the pair of sliding rails in order to move reciprocally along the pair of sliding rails . a diaphragm separating device adapted to separate a single diaphragm from at least one stack of diaphragms ; wherein, the diaphragm separating device comprises: a diaphragm bin adapted to load at least one stack of diaphragms ; and at least one set of diaphragm sweeping mechanism adapted to sweep a top of at least one stack of diaphragms , in order to separate a single diaphragm from the top of at least one stack of diaphragms ; a diaphragm bin adapted to load at least one stack of diaphragms ; and at least one set of diaphragm sweeping mechanism adapted to sweep a top of at least one stack of diaphragms , in order to separate a single diaphragm from the top of at least one stack of diaphragms ; wherein, each set of diaphragm sweeping mechanism comprises: a support frame adapted to move reciprocally in a straight line; and a sweeping brush mounted on the support frame and adapted to move reciprocally along with the support frame , a support frame adapted to move reciprocally in a straight line; and a sweeping brush mounted on the support frame and adapted to move reciprocally along with the support frame , when the sweeping brush moves reciprocally along with the support frame , the sweeping brush sweeps the top of at least one stack of diaphragms , in order to separate the single diaphragm from the top of at least one stack of diaphragms ; and a visual device adapted to identify the separated single diaphragm and the position of the separated single diaphragm ; characterized in that a pair of sliding rails extending in a straight line is provided at both sides of the diaphragm bin , the support frame being slidably installed on the pair of sliding rails in order to move reciprocally along the pair of sliding rails .
A nozzle assembly comprising: a stator member comprising a stator surface that defines a progressing cavity ; a rotor member in the progressing cavity , the rotor member comprising at least one rotor lobe engaged with the stator surface , wherein the progressing cavity has at least two stator cavities adapted for at least partially receiving the at least one lobe and defining an oscillatory movement of the rotor member in response to a flow of a motive fluid through the progressing cavity; a nozzle outlet or spray member associated with the rotor member and configured for movement with the oscillatory movement of the rotor member, the nozzle outlet or spray member having a spray inlet , an orifice , and a through portion extending between the spray inlet and the orifice; and a cap seating the nozzle outlet or spray member adjacent the stator and defining a port that remains fluidly coupled with the nozzle outlet during the movement of the spray member, wherein the rotor member , the nozzle outlet or spray member , and the cap cooperate to direct the motive fluid along a tapered surface of the nozzle assembly and deliver an oscillatory spray of the motive fluid therefrom. a stator member comprising a stator surface that defines a progressing cavity ; a rotor member in the progressing cavity , the rotor member comprising at least one rotor lobe engaged with the stator surface , wherein the progressing cavity has at least two stator cavities adapted for at least partially receiving the at least one lobe and defining an oscillatory movement of the rotor member in response to a flow of a motive fluid through the progressing cavity; a nozzle outlet or spray member associated with the rotor member and configured for movement with the oscillatory movement of the rotor member, the nozzle outlet or spray member having a spray inlet , an orifice , and a through portion extending between the spray inlet and the orifice; and a cap seating the nozzle outlet or spray member adjacent the stator and defining a port that remains fluidly coupled with the nozzle outlet during the movement of the spray member, wherein the rotor member , the nozzle outlet or spray member , and the cap cooperate to direct the motive fluid along a tapered surface of the nozzle assembly and deliver an oscillatory spray of the motive fluid therefrom.
A ceramic matrix composite (CMC) turbine blade comprising: a root region ; a narrowed neck region extending from the root region ; and a hub region extending from the narrowed neck region ; characterised in that at least one central CMC ply extending from the root region is interwoven with at least one insert extending toward the narrowed neck region from the hub region ; and wherein a plurality of insert CMC ply strips of the at least one insert are alternatingly interwoven above and below the at least one central CMC ply or wherein a plurality of central CMC ply strips of the at least one central CMC ply are alternatingly interwoven above and below the at least one insert. a root region ; a narrowed neck region extending from the root region ; and a hub region extending from the narrowed neck region ; characterised in that at least one central CMC ply extending from the root region is interwoven with at least one insert extending toward the narrowed neck region from the hub region ; and wherein a plurality of insert CMC ply strips of the at least one insert are alternatingly interwoven above and below the at least one central CMC ply or wherein a plurality of central CMC ply strips of the at least one central CMC ply are alternatingly interwoven above and below the at least one insert.
A security system , comprising: a camera capable of monitoring real time gestures; a memory operable to store data; a device having a locked state and an unlocked state; an output; and a processor communicatively coupled to the camera , the memory , the device , and the output; the processor operable to execute one or more modules in the memory to: (a) actuate the output to provide a first prompt; (b) use the camera to detect a first gesture; (c) store the first detected gesture in the memory ; (d) compare the first detected gesture to a first predetermined gesture associated with the first prompt; (e) select a second prompt; (f) only after determining that the first detected gesture is within a predetermined threshold of the first predetermined gesture, actuate the output to provide the second prompt; (g) use the camera to detect a second gesture; (h) store the second detected gesture in the memory 114; (i) compare the second detected gesture to a second predetermined gesture associated with the second prompt; and (j) only after determining that the second detected gesture is within a predetermined threshold of the second predetermined gesture, cause the device to change from the locked state to the unlocked state; wherein at least one of the first prompt and the second prompt is a purposefully deceptive prompt, and wherein the processor initiates a lockout step upon an intuitive response being detected after the purposefully deceptive prompt. a camera capable of monitoring real time gestures; a memory operable to store data; a device having a locked state and an unlocked state; an output; and a processor communicatively coupled to the camera , the memory , the device , and the output; the processor operable to execute one or more modules in the memory to: (a) actuate the output to provide a first prompt; (b) use the camera to detect a first gesture; (c) store the first detected gesture in the memory ; (d) compare the first detected gesture to a first predetermined gesture associated with the first prompt; (e) select a second prompt; (f) only after determining that the first detected gesture is within a predetermined threshold of the first predetermined gesture, actuate the output to provide the second prompt; (g) use the camera to detect a second gesture; (h) store the second detected gesture in the memory 114; (i) compare the second detected gesture to a second predetermined gesture associated with the second prompt; and (j) only after determining that the second detected gesture is within a predetermined threshold of the second predetermined gesture, cause the device to change from the locked state to the unlocked state; wherein at least one of the first prompt and the second prompt is a purposefully deceptive prompt, and wherein the processor initiates a lockout step upon an intuitive response being detected after the purposefully deceptive prompt.
A method for joining first and second metal portions of a rotor for use in an aircraft engine to repair said rotor , comprising: welding together the first and second portions such that a weld nugget joins the first and second metal portions; and characterized by : compressively stressing the weld nugget throughout its volume; and heat treating the compressively stressed weld nugget to recrystallize metal therein. compressively stressing the weld nugget throughout its volume; and heat treating the compressively stressed weld nugget to recrystallize metal therein.
A method for the production of a film comprising microfibrillated cellulose, wherein the method comprises the steps of: - providing a suspension comprising microfibrillated cellulose wherein the suspension comprises between 70 weight-% to 100 weight% of microfibrillated cellulose based on the total dry weight of the film, - applying the suspension on a substrate to form a fibrous web, wherein the web has a first and a second side, - conducting the web to a contact drying equipment wherein the first side of said web is in direct contact with the contact drying equipment at a temperature above 100°C whereby the web is at least partly dried forming a film which film has a grammage between 10-40 gsm and an Oxygen Transmission Rate (OTR) value (23°C, 50% RH) below 100 cc/m 2 *day*atm according to ASTM D-3985. - providing a suspension comprising microfibrillated cellulose wherein the suspension comprises between 70 weight-% to 100 weight% of microfibrillated cellulose based on the total dry weight of the film, - applying the suspension on a substrate to form a fibrous web, wherein the web has a first and a second side, - conducting the web to a contact drying equipment wherein the first side of said web is in direct contact with the contact drying equipment at a temperature above 100°C whereby the web is at least partly dried forming a film which film has a grammage between 10-40 gsm and an Oxygen Transmission Rate (OTR) value (23°C, 50% RH) below 100 cc/m 2 *day*atm according to ASTM D-3985.
Device for the automatic preparation of a food product, which preparation comprises the mixing of solid ingredients, said device being configured to make the prepared food product available to a user in a refreshment receptacle and comprising a mixture receptacle , a mixing device to mix the ingredients in the mixture receptacle and a drive device (1, 1a, 2-7, 16-19) being configured to tilt the mixture receptacle automatically from an upright position (A) into a first pouring position (C) after the ingredients have been mixed, in order to allow the mixed ingredients to drop from the mixture receptacle into the refreshment receptacle , wherein the mixture receptacle is rotatable about a rotary shaft which is movable along a first guide track by the drive device, wherein the mixture receptacle comprises a guide element which is configured to be moved along a second guide track , wherein a movement of the rotary shaft according to the first guide track causes a movement of the guide element along the second guide track and moves the mixture receptacle from the upright position (A) into the first pouring position (C).