mhurhangee/ep-ind-claims huggingface dataset:
Interface securing method between a user and a non certified application running on an electronic device and providing at least one view to be rendered on a screen, and a view comprising or associated to at least one interface control component, characterised in that it implements, when said application is running, the following steps: - analysis of the interface control components of said view, so as to detect at least one interface control component that may pose a security problem by inciting said user to provide sensitive information, called a suspicious component, said analysis step taking into account a predetermined set of rules to restrict the use of at least one of said interface control components and/or at least one combination of at least two of said interface control components; - if at least one suspicious component is detected, restriction or invalidation of the functions of at least one input control component of said electronic device, distinct from said at least one suspicious component and able to allow said information to be provided by said user to said non certified application, said restriction or invalidation step adapting said restriction or invalidation in function of said rule(s) that are not respected, and said restriction or invalidation step comprising a sub-step to prohibit the entry of information via a hard or virtual keyboard; - generation of the rendering of said view and reproduction of said view. - analysis of the interface control components of said view, so as to detect at least one interface control component that may pose a security problem by inciting said user to provide sensitive information, called a suspicious component, said analysis step taking into account a predetermined set of rules to restrict the use of at least one of said interface control components and/or at least one combination of at least two of said interface control components; - if at least one suspicious component is detected, restriction or invalidation of the functions of at least one input control component of said electronic device, distinct from said at least one suspicious component and able to allow said information to be provided by said user to said non certified application, said restriction or invalidation step adapting said restriction or invalidation in function of said rule(s) that are not respected, and said restriction or invalidation step comprising a sub-step to prohibit the entry of information via a hard or virtual keyboard; - generation of the rendering of said view and reproduction of said view.
A compound that binds to an intronic region of an mRNA encoding an sFLT1 protein, wherein the compound selectively inhibits expression of the sFLT1 protein in a cell or organism; said compound comprising a dsRNA having a sense strand and an antisense strand of at least 16 contiguous nucleotides, wherein a portion of the antisense strand is complementary to a portion of the sense strand, wherein the antisense strand is fully complementary to SEQ ID NO:1; the antisense strand comprises alternating 2'-methoxy-ribonucleotides and 2' -fluoro-ribonucleotides; the nucleotides at positions 2 and 14 from the 5' end of the antisense stand are not 2'-methoxy-ribonucleotides; the nucleotides of the antisense strand are connected via phosphodiester or phosphorothioate linkages; and the nucleotides at positions 1-6 from the 3' end, or positions 1-7 from the 3' end, of the antisense strand are connected to adjacent nucleotides via phosphorothioate linkages; wherein the sense strand is linked to a lipophilic molecule at the 3' end of the sense strand. wherein a portion of the antisense strand is complementary to a portion of the sense strand, wherein the antisense strand is fully complementary to SEQ ID NO:1; the antisense strand comprises alternating 2'-methoxy-ribonucleotides and 2' -fluoro-ribonucleotides; the nucleotides at positions 2 and 14 from the 5' end of the antisense stand are not 2'-methoxy-ribonucleotides; the nucleotides of the antisense strand are connected via phosphodiester or phosphorothioate linkages; and the nucleotides at positions 1-6 from the 3' end, or positions 1-7 from the 3' end, of the antisense strand are connected to adjacent nucleotides via phosphorothioate linkages; the antisense strand comprises alternating 2'-methoxy-ribonucleotides and 2' -fluoro-ribonucleotides; the nucleotides at positions 2 and 14 from the 5' end of the antisense stand are not 2'-methoxy-ribonucleotides; the nucleotides of the antisense strand are connected via phosphodiester or phosphorothioate linkages; and the nucleotides at positions 1-6 from the 3' end, or positions 1-7 from the 3' end, of the antisense strand are connected to adjacent nucleotides via phosphorothioate linkages; wherein the sense strand is linked to a lipophilic molecule at the 3' end of the sense strand.
A method for detecting the presence of an impediment on a lens of an image capture device to the passage of light through the lens thereof, the method comprising: scanning image data of at least similar portions of at least two image frames of dissimilar images by scanning image data of respective ones of a plurality of predefined areas at predefined locations in each of the at least two images frames, the dissimilar images being captured by the image capture device to detect respective areas in the at least two image frames, the method being characterized by the image data of each predefined area of each image frame of the at least two image frames is high pass filtered for determining the high spatial frequency content of the predefined areas thereof in order to detect if the image data of any of the predefined areas thereof is indicative of an area of substantially constant luminance with low or no high spatial frequency content wherein identifying the locations in the image frame of the detected predefined areas, the identified locations to be stored for comparison with the next captured image frame and determining the presence of an impediment on the lens in response to locations of the areas, the image data of which are indicative of an area of substantially constant luminance in the at least two image frames substantially coinciding. scanning image data of at least similar portions of at least two image frames of dissimilar images by scanning image data of respective ones of a plurality of predefined areas at predefined locations in each of the at least two images frames, the dissimilar images being captured by the image capture device to detect respective areas in the at least two image frames, the method being characterized by the image data of each predefined area of each image frame of the at least two image frames is high pass filtered for determining the high spatial frequency content of the predefined areas thereof in order to detect if the image data of any of the predefined areas thereof is indicative of an area of substantially constant luminance with low or no high spatial frequency content wherein identifying the locations in the image frame of the detected predefined areas, the identified locations to be stored for comparison with the next captured image frame and determining the presence of an impediment on the lens in response to locations of the areas, the image data of which are indicative of an area of substantially constant luminance in the at least two image frames substantially coinciding.
A bio-compatible anchor comprising: a) a collet having a central longitudinal axis, a sidewall, a first end, a second end, and a length between the first end and the second end, the sidewall defining a plurality of ridges and valleys extending in a direction that is parallel in at least one plane to the central longitudinal axis; and b) a retaining collar having a passage configured to receive at least the first end of the collet; c) where the collet is configured to be inserted into the passage of the retaining collar to compress the sidewall along the length of the collet toward the central longitudinal axis to provide a pressure to a surgical cable which, in use, is disposed in the collet, the pressure being substantially equal at contact regions disposed at substantially equiangular intervals around the circumference of the surgical cable, characterised in that the pressure is substantially uniform along a majority of the length of the collet. a) a collet having a central longitudinal axis, a sidewall, a first end, a second end, and a length between the first end and the second end, the sidewall defining a plurality of ridges and valleys extending in a direction that is parallel in at least one plane to the central longitudinal axis; and b) a retaining collar having a passage configured to receive at least the first end of the collet; c) where the collet is configured to be inserted into the passage of the retaining collar to compress the sidewall along the length of the collet toward the central longitudinal axis to provide a pressure to a surgical cable which, in use, is disposed in the collet,
A biocompatible adhesive system comprising: a) a hydrogel comprising a first polymer network and a second polymer network, wherein said first polymer network comprises covalent crosslinks and said second polymer network comprises ionic crosslinks; b) a high density primary amine polymer; and c) a coupling agent, wherein the coupling agent includes a first carboxyl activating agent, wherein the high density primary amine polymer comprises at least one primary amine per monomer unit and/or is selected from the group consisting of chitosan, gelatin, collagen, polyallylamine, polylysine and polyethylenimine. a) a hydrogel comprising a first polymer network and a second polymer network, wherein said first polymer network comprises covalent crosslinks and said second polymer network comprises ionic crosslinks; b) a high density primary amine polymer; and c) a coupling agent, wherein the coupling agent includes a first carboxyl activating agent,
A wipe that comprises a fibrous material incorporating or coated with an oil-in-water emulsion; wherein the fibrous material has been treated with the oil-in-water emulsion, said oil-in-water emulsion having an oil phase and an aqueous phase, wherein the oil phase comprises an antimicrobial botanical oil and the aqueous phase comprises a water-dispersible biopolymer, wherein the biopolymer at least partially encapsulates the botanical oil.
A safety unit for a home carbonation machine, the unit comprising: a valve to release gas from a sealed state at a first pressure; and a backup element set to rupture at a second higher pressure when said valve malfunctions; wherein said valve comprises a valve carrier, a spring nut, a spring and a backup element housing which moves to vent said gas via an outlet during carbonation; wherein said backup element housing has a conduit to direct said gas to said backup element; wherein said backup element is a burst disk; wherein pressure of the entering gas pushes housing downwards, and the downward force of the housing against the spring nut (30 causes in turn said spring to compress thus lowering the housing and opening a sealing area, and wherein the failure of the sealing area to open allows for a pressure build up within valve and, when disc ruptures, a new path is created via conduit allowing gas to be released via a hollow area through ruptured burst disc, via safety outlet and into the atmosphere, characterized in that, the valve comprises a valve body nut wherein in its static state, the valve is closed, the spring is uncompressed and the spring nut holds the housing in place so that the valve body nut rests on a base area of the housing ensuring that the sealing area is totally sealed. a valve to release gas from a sealed state at a first pressure; and a backup element set to rupture at a second higher pressure when said valve malfunctions; wherein said valve comprises a valve carrier, a spring nut, a spring and a backup element housing which moves to vent said gas via an outlet during carbonation; wherein said backup element housing has a conduit to direct said gas to said backup element; wherein said backup element is a burst disk; wherein pressure of the entering gas pushes housing downwards, and the downward force of the housing against the spring nut (30 causes in turn said spring to compress thus lowering the housing and opening a sealing area, and wherein the failure of the sealing area to open allows for a pressure build up within valve and, when disc ruptures, a new path is created via conduit allowing gas to be released via a hollow area through ruptured burst disc, via safety outlet and into the atmosphere, characterized in that, the valve comprises a valve body nut wherein in its static state, the valve is closed, the spring is uncompressed and the spring nut holds the housing in place so that the valve body nut rests on a base area of the housing ensuring that the sealing area is totally sealed.
Method for operating modulating, fuel-operated heating systems with a network connection, characterised in that a weather service sends a storm warning to a central data capturing system in the network, or in that individual heating systems, when put out without previously disconnecting the fuel supply, send first information to a central data capturing system in the network, in that the central data capturing system in the network, in the case of corresponding weather information or more information to put out a plurality of heating systems without previously disconnecting the fuel supply, sends second information to a plurality of heating systems in the network and in that heating systems in the network after receiving this second information restrict the modulation range, in that the minimum load is lifted.
A quick release connector for a power tool accessory having a center aperture, said connector comprising: a body having a first end adapted to be attached to a shaft of a power tool and a second end; said second end including a connector head adapted to be moved axially into and to fit within said center aperture of said accessory for transferring motion from said power tool to said accessory; characterized in that said connector includes an ejector for pushing said accessory off of said connector head. a body having a first end adapted to be attached to a shaft of a power tool and a second end; said second end including a connector head adapted to be moved axially into and to fit within said center aperture of said accessory for transferring motion from said power tool to said accessory; characterized in that said connector includes an ejector for pushing said accessory off of said connector head.
An electrostatic charge image developing carrier, comprising: a magnetic particle; and a coating resin layer coating the magnetic particle and containing inorganic particles, wherein a weight average molecular weight of the resin contained in the coating resin layer is less than 300,000, wherein the weight average molecular weight of the resin is measured as described in the description, and wherein an area ratio of the inorganic particles that is a ratio of a total area of the inorganic particles to an area of the coating resin layer in a cut surface of the coating resin layer along a thickness direction of the coating resin layer is 10% or more and 50% or less, wherein the area ratio of the inorganic particles is measured according to the description, and calculating the area ratio of the inorganic particles is calculated by an equation: the area ratio of the inorganic particles = a total area of the inorganic particles/the area of the coating resin layer × 100. a magnetic particle; and a coating resin layer coating the magnetic particle and containing inorganic particles, wherein a weight average molecular weight of the resin contained in the coating resin layer is less than 300,000, wherein the weight average molecular weight of the resin is measured as described in the description, and wherein an area ratio of the inorganic particles that is a ratio of a total area of the inorganic particles to an area of the coating resin layer in a cut surface of the coating resin layer along a thickness direction of the coating resin layer is 10% or more and 50% or less, wherein the area ratio of the inorganic particles is measured according to the description, and calculating the area ratio of the inorganic particles is calculated by an equation: the area ratio of the inorganic particles = a total area of the inorganic particles/the area of the coating resin layer × 100.
A process for converting a heavy hydrocarbonaceous feedstock to lower boiling products, which process is performed in a fluid coking process unit comprised of a fluid coking reactor and a heater, said fluid coking reactor containing a coking zone, a scrubbing zone located above said coking zone for collecting vapor phase products, and a stripping zone, located below the coking zone, for stripping hydrocarbons from solid particles passing downwardly through the stripping zone, which process comprises: (a) introducing the heavy hydrocarbonaceous feedstock having a Conradson carbon content of at least 5 wt.% and a basic material containing an alkali metal, an alkaline-earth metal or a combination thereof, into said coking zone containing a fluidized bed of solid particles and maintained at effective coking temperatures and pressures, wherein there is produced a vapor phase product, including normally liquid hydrocarbons, and where coke is deposited on said solid particles; (b) passing said vapor phase product to said scrubbing zone; (c) passing said solid particles from said coking zone, with coke deposited thereon, downwardly through said coking zone, past said stripping zone, thereby stripping hydrocarbons from the solid particles with a stripping agent, wherein the stripped solid particles exit said fluid coking reactor and are passed into the heater which contains a fluidized bed of solid particles and which is operated at a temperature greater than that of the coking zone; and (d) recycling at least a portion of the solid particles from the heater to the coking zone; wherein the fluid coking unit comprises no gasifier and the transfer of the coke particles from the heater to the coking zone is carried out through a line from the stripping zone to the heater and a through a recycling line from the heater to the coking zone, characterised in that the basic material is selected from Na and K hydroxides, carbonates, acetates, cresylates and alkyl and aryl carboxylates in an amount of from 250 to 3000 wppm. (a) introducing the heavy hydrocarbonaceous feedstock having a Conradson carbon content of at least 5 wt.% and a basic material containing an alkali metal, an alkaline-earth metal or a combination thereof, into said coking zone containing a fluidized bed of solid particles and maintained at effective coking temperatures and pressures, wherein there is produced a vapor phase product, including normally liquid hydrocarbons, and where coke is deposited on said solid particles; (b) passing said vapor phase product to said scrubbing zone; (c) passing said solid particles from said coking zone, with coke deposited thereon, downwardly through said coking zone, past said stripping zone, thereby stripping hydrocarbons from the solid particles with a stripping agent, wherein the stripped solid particles exit said fluid coking reactor and are passed into the heater which contains a fluidized bed of solid particles and which is operated at a temperature greater than that of the coking zone; and (d) recycling at least a portion of the solid particles from the heater to the coking zone;
A process comprising: heating a polyamic acid fiber to a temperature in the range of a first temperature and a second temperature for a period of time in the range of 5 seconds to 30 seconds at a rate in the range of 60 °C/minute to 250 °C/second, or from 250 °C/minute to 250 °C/second to form a polyimide fiber, wherein the first temperature is the imidization temperature of the polyamic acid and the second temperature is the decomposition temperature of the polyimide, and wherein the polyamic acid fiber comprises a plurality of polyamic acid nanofibers, the nanofibers having a number average diameter less than 1000 nm. heating a polyamic acid fiber to a temperature in the range of a first temperature and a second temperature for a period of time in the range of 5 seconds to 30 seconds at a rate in the range of 60 °C/minute to 250 °C/second, or from 250 °C/minute to 250 °C/second to form a polyimide fiber, wherein the first temperature is the imidization temperature of the polyamic acid and the second temperature is the decomposition temperature of the polyimide, and wherein the polyamic acid fiber comprises a plurality of polyamic acid nanofibers, the nanofibers having a number average diameter less than 1000 nm.
A method performed by an autonomous vehicle; the method comprising: (a) using one or more systems onboard the autonomous vehicle to evaluate capabilities of the autonomous vehicle with respect to the performance of a task, the evaluating capabilities comprising: providing a first model, the first model corresponding to the task; providing a further model, the further model corresponding to the autonomous vehicle; providing a plurality of mappings from one model to another model; determining whether there exists a transformation trace either (i) from the first model to the further model, or (ii) from the further model to the first model, wherein each transformation trace comprises one or more of the specified mappings; and evaluating the capabilities of the autonomous vehicle with respect to the task, the evaluation outcome being dependent upon the existence of the transformation trace; (b) inputting data corresponding to the result of step (a) into other systems of the autonomous vehicle; and (c) the autonomous vehicle performing a particular action depending on the result. (a) using one or more systems onboard the autonomous vehicle to evaluate capabilities of the autonomous vehicle with respect to the performance of a task, the evaluating capabilities comprising: providing a first model, the first model corresponding to the task; providing a further model, the further model corresponding to the autonomous vehicle; providing a plurality of mappings from one model to another model; determining whether there exists a transformation trace either (i) from the first model to the further model, or (ii) from the further model to the first model, wherein each transformation trace comprises one or more of the specified mappings; and evaluating the capabilities of the autonomous vehicle with respect to the task, the evaluation outcome being dependent upon the existence of the transformation trace; providing a first model, the first model corresponding to the task; providing a further model, the further model corresponding to the autonomous vehicle; providing a plurality of mappings from one model to another model; determining whether there exists a transformation trace either (i) from the first model to the further model, or (ii) from the further model to the first model, wherein each transformation trace comprises one or more of the specified mappings; and evaluating the capabilities of the autonomous vehicle with respect to the task, the evaluation outcome being dependent upon the existence of the transformation trace; (b) inputting data corresponding to the result of step (a) into other systems of the autonomous vehicle; and (c) the autonomous vehicle performing a particular action depending on the result.