mhurhangee/patent-ind-claim-en huggingface dataset:
Detachable fastening system for two intersecting formwork beams , said two intersecting formwork beams forming between them a non-zero angle, and said system comprising: - an upper beam for supporting formwork panels, - a lower beam on which the upper beam rests and which forms a non-zero angle with the upper beam and - a connection device for connecting the upper beam to the lower beam , wherein said connection device comprises a resilient one-piece structure having two curved arms which connect zones intended to press on one of said upper and lower beams in support zones and zones intended to be fastened to the other beam of the upper and lower beam , the system having connection means between the device and said other beam, to which saic connection device is fastened, which connect the connection device to said other bearr such that it cannot be lost, thus allowing said other beam and the connection device to be handled together like a single part, the connection device having the ability to slide relative to said other beam to which it is fastened, wherein the system has, further to the connection device , friction-increasing means for increasing the friction comprising a protuberance the system being characterised by the protuberance being on a contact face between said upper beam and said lower beam , said protuberance being located on an upper surface of the lower beam comprising two parallel, toothed lines arranged longitudinally, preventing unwanted sliding between said lower beam and upper beam . - an upper beam for supporting formwork panels, - a lower beam on which the upper beam rests and which forms a non-zero angle with the upper beam and - a connection device for connecting the upper beam to the lower beam , wherein said connection device comprises a resilient one-piece structure having two curved arms which connect zones intended to press on one of said upper and lower beams in support zones and zones intended to be fastened to the other beam of the upper and lower beam , the system having connection means between the device and said other beam, to which saic connection device is fastened, which connect the connection device to said other bearr such that it cannot be lost, thus allowing said other beam and the connection device to be handled together like a single part, the connection device having the ability to slide relative to said other beam to which it is fastened, wherein the system has, further to the connection device , friction-increasing means for increasing the friction comprising a protuberance the system being characterised by the protuberance being on a contact face between said upper beam and said lower beam , said protuberance being located on an upper surface of the lower beam comprising two parallel, toothed lines arranged longitudinally, preventing unwanted sliding between said lower beam and upper beam .
A susceptor assembly for inductively heating an aerosol-forming substrate, the susceptor assembly comprising a multi-layer susceptor tube defining a cavity for receiving an induction coil inside the susceptor tube , wherein the multi-layer susceptor tube comprises an inner tubular layer which consists of a first electrically conductive material, and an outer tubular layer surrounding the inner tubular layer which consists of a second electrically conductive material, characterised in that an electrical resistivity of the first electrically conductive material is larger than an electrical resistivity of the second electrically conductive material.
A method for managing a cache intended to equip an electronic device comprising a processor and a main memory, characterised in that it includes the following steps: - generating a random value (R) for each cache access process , - transforming addresses (A) of the cache by means of said random value into corresponding addresses, called randomised addresses (Ar) intended to index the cache , - associating each random value corresponding to an access process, with an identifier (PID) of said access process thus forming, pairs of identifications having the function of dynamically partitioning the cache while listing the access to said cache, - storing each identification pair composed of a random value and a corresponding identifier in a history table , and - managing each cache access process depending on said pairs of identifications stored in said history table. - generating a random value (R) for each cache access process , - transforming addresses (A) of the cache by means of said random value into corresponding addresses, called randomised addresses (Ar) intended to index the cache , - associating each random value corresponding to an access process, with an identifier (PID) of said access process thus forming, pairs of identifications having the function of dynamically partitioning the cache while listing the access to said cache, - storing each identification pair composed of a random value and a corresponding identifier in a history table , and - managing each cache access process depending on said pairs of identifications stored in said history table.
A method for predicting a gas concentration, comprising: exposing a gas, under the same conditions X, - to a specimen A comprising a liquid containing a compound, and - to a specimen B comprising a liquid containing the compound in a concentration lower than that in the specimen A, measuring the concentrations (a) and (b) of the gas in the specimens A and B, respectively, obtained in step , and calculating a correction coefficient α based on the equation α = (a)/(b), exposing, under conditions Y, the gas to a specimen B' comprising a liquid containing the compound in the same concentration as the specimen B, measuring the concentration (b') of the gas in the specimen B' obtained in step , and predicting the concentration (a') of the gas in a specimen A' obtained when the gas is exposed to the specimen A' comprising a liquid containing the compound under the conditions Y, based on the equation (a') = α·(b'). exposing a gas, under the same conditions X, - to a specimen A comprising a liquid containing a compound, and - to a specimen B comprising a liquid containing the compound in a concentration lower than that in the specimen A, - to a specimen A comprising a liquid containing a compound, and - to a specimen B comprising a liquid containing the compound in a concentration lower than that in the specimen A, measuring the concentrations (a) and (b) of the gas in the specimens A and B, respectively, obtained in step , and calculating a correction coefficient α based on the equation α = (a)/(b), exposing, under conditions Y, the gas to a specimen B' comprising a liquid containing the compound in the same concentration as the specimen B, measuring the concentration (b') of the gas in the specimen B' obtained in step , and predicting the concentration (a') of the gas in a specimen A' obtained when the gas is exposed to the specimen A' comprising a liquid containing the compound under the conditions Y, based on the equation (a') = α·(b').
A filter moving device comprising: a frame having a first end , a second and opposite end , and defining a height there between, the first end of the frame comprising an open end leading to an interior space within the frame, the open end having a size and the frame having a height such that the open end of the frame can be placed over a filter cartridge stack contained in a filter assembly ; a plurality of lifting elements located on the frame, the lifting elements being movable between an engaging position and a disengaging position, wherein, when in the engaging position, the lifting elements engage a filter cartridge stack located within the interior space of the frame, and wherein the lifting elements are attached to vertical rod members , the vertical rod members being pivotally attached to the frame for moving the lifting elements between the engaging position and the disengaging position; and a locking mechanism for locking the lifting elements in the engaging position. a frame having a first end , a second and opposite end , and defining a height there between, the first end of the frame comprising an open end leading to an interior space within the frame, the open end having a size and the frame having a height such that the open end of the frame can be placed over a filter cartridge stack contained in a filter assembly ; a plurality of lifting elements located on the frame, the lifting elements being movable between an engaging position and a disengaging position, wherein, when in the engaging position, the lifting elements engage a filter cartridge stack located within the interior space of the frame, and wherein the lifting elements are attached to vertical rod members , the vertical rod members being pivotally attached to the frame for moving the lifting elements between the engaging position and the disengaging position; and a locking mechanism for locking the lifting elements in the engaging position.
A bacteriophage ΦCJ25 (KCCM11463P) having a specific ability to kill avian pathogenic Escherichia coli.
A method of making a fiber-resin composition, the method comprising: (i) providing a reactive resin composition to an extruder, wherein the reactive resin composition comprises (i) monomers and (ii) oligomers capable of polymerizing into a thermoplastic resin matrix; (ii) combining the reactive resin composition with a plurality of reactive fibers that are also supplied to the extruder, wherein the plurality of reactive fibers are sized with at least one of a polymerization agent and a coupling agent; and (iii) extruding the fiber-resin composition from the extruder, wherein the monomers and oligomers polymerize to form a thermoplastic resin in contact with the plurality of fibers in the extruded fiber-resin composition, wherein the reactive resin composition comprises caprolactam monomers and cyclic butylene terephthalate (CBT) oligomers, and the thermoplastic resin matrix comprises polyamide-6 and polybutylene terephthalate (PBT). (i) providing a reactive resin composition to an extruder, wherein the reactive resin composition comprises (i) monomers and (ii) oligomers capable of polymerizing into a thermoplastic resin matrix; (ii) combining the reactive resin composition with a plurality of reactive fibers that are also supplied to the extruder, wherein the plurality of reactive fibers are sized with at least one of a polymerization agent and a coupling agent; and (iii) extruding the fiber-resin composition from the extruder, wherein the monomers and oligomers polymerize to form a thermoplastic resin in contact with the plurality of fibers in the extruded fiber-resin composition,
A polynucleotide encoding any one of the following amino acid sequences (A1) to (A3): (A1) an amino acid sequence comprising SEQ ID NO: 1, 3, or 5, (A2) an amino acid sequence i) having at least 95% sequence identity to an amino acid sequence comprising SEQ ID NO: 1, 3, or 5, and ii) having the ability to oxidize a 2-hydroxy-4-(methylthio)butyric acid derivative and convert the same into a corresponding 2-oxo-4-(methylthio)butyric acid derivative, or (A3) an amino acid sequence i) comprising SEQ ID NO: 1, 3, or 5 in which one to 20 amino acids are deleted, substituted, or added, and ii) having the ability to oxidize a 2-hydroxy-4-(methylthio)butyric acid derivative and convert the same into a corresponding 2-oxo-4-(methylthio)butyric acid derivative. (A1) an amino acid sequence comprising SEQ ID NO: 1, 3, or 5, (A2) an amino acid sequence i) having at least 95% sequence identity to an amino acid sequence comprising SEQ ID NO: 1, 3, or 5, and ii) having the ability to oxidize a 2-hydroxy-4-(methylthio)butyric acid derivative and convert the same into a corresponding 2-oxo-4-(methylthio)butyric acid derivative, or (A3) an amino acid sequence i) comprising SEQ ID NO: 1, 3, or 5 in which one to 20 amino acids are deleted, substituted, or added, and ii) having the ability to oxidize a 2-hydroxy-4-(methylthio)butyric acid derivative and convert the same into a corresponding 2-oxo-4-(methylthio)butyric acid derivative.
An image capturing apparatus comprising: a display unit comprising a display panel, the display unit configured to display an image including at least one subject; a detection unit comprising detection circuitry, the detection unit configured to detect an input for setting a part of the displayed image a region of interest; and characterized by : a controller configured to: - detect at least one candidate region within the region of interest based on the input; and - upon determining that two or more candidate regions having the highest priority are detected, set one of the detected candidate regions as an auto-focus (AF) region based on which candidate region is closest to a path of the AF region set in previous frames for the image. a display unit comprising a display panel, the display unit configured to display an image including at least one subject; a detection unit comprising detection circuitry, the detection unit configured to detect an input for setting a part of the displayed image a region of interest; and characterized by : a controller configured to: - detect at least one candidate region within the region of interest based on the input; and - upon determining that two or more candidate regions having the highest priority are detected, set one of the detected candidate regions as an auto-focus (AF) region based on which candidate region is closest to a path of the AF region set in previous frames for the image. a controller configured to: - detect at least one candidate region within the region of interest based on the input; and - upon determining that two or more candidate regions having the highest priority are detected, set one of the detected candidate regions as an auto-focus (AF) region based on which candidate region is closest to a path of the AF region set in previous frames for the image. - detect at least one candidate region within the region of interest based on the input; and - upon determining that two or more candidate regions having the highest priority are detected, set one of the detected candidate regions as an auto-focus (AF) region based on which candidate region is closest to a path of the AF region set in previous frames for the image.
A hearing aid having a housing adapted to be positioned at an ear of a person, the housing comprising: a directional microphone system having adaptable directionality, and a processor for adapting the adaptable directionality of the directional microphone system, characterized in that the housing further comprises a remote object detection unit, the remote object detection unit configured to transmit an electromagnetic signal having a carrier frequency within the 1 to 100 GHz frequency range, where the remote object detection unit scans in an angle of α degrees divided into a number of subsections, and the subsections are scanned according to a scheme, and the remote object detection unit configured to detect a remote object by detecting the transmitted signal that is reflected from the remote object in the subsection, the processor being adapted to direct the directionality of the directional microphone system based on the detection of the remote object. a directional microphone system having adaptable directionality, and a processor for adapting the adaptable directionality of the directional microphone system, characterized in that the housing further comprises a remote object detection unit, the remote object detection unit configured to transmit an electromagnetic signal having a carrier frequency within the 1 to 100 GHz frequency range, where the remote object detection unit scans in an angle of α degrees divided into a number of subsections, and the subsections are scanned according to a scheme, and the remote object detection unit configured to detect a remote object by detecting the transmitted signal that is reflected from the remote object in the subsection, the processor being adapted to direct the directionality of the directional microphone system based on the detection of the remote object.
A continuous rotary heat-sealing machine , particularly for joining heat-sealable films, papers or ribbons, which comprises a frame provided with at least one first pair of rotating shafts and at least one second pair of rotating shafts , and at least one pair of tracks , each one mounted on a shaft of said first pair of rotating shafts and on a shaft of said second pair of rotating shafts , said tracks being arranged substantially in contact with each other, rotating in opposite directions, and being adapted to create a pressure plane , wherein said tracks comprise sectors which are mutually joined by way of a chain of bearings , said sectors having, on the upper surface, a slider which is fixed to a support , said sliders comprising a recess adapted to accommodate an item or product to be packaged and sealed within said heat-sealable films or ribbons, characterized in that heating elements are provided to heat the tracks that create said pressure plane , at least one guiding axle being provided, adapted to control at least one track of said pair of tracks on rotation, said guiding axle comprising, at its opposite end with respect to the frame of the continuous rotary heat-sealing machine , an electrical contact made up of a fixed part and a rotating part , the fixed part being locked on said guiding axle and the rotating part rotating as a consequence of the rotation of the track , the electricity needed to heat said heating elements being supplied through said guiding axle .
Chewing gum composition comprising crystalline allulose particles and optionally an aqueous allulose syrup, wherein said allulose particles have a mean particle size larger than 45 μm and of less than 250 μm and wherein at least 90% by weight, of the allulose particles pass through a sieve with apertures of at most 250 μm.
A dry powder formulation for use in a dry powder inhaler (DPI) to be administered by inhalation, said formulation comprising: a) a fraction of fine particles consisting of a mixture of 90 to 99.5 percent by weight of micronized particles of a physiologically acceptable excipient and 0.5 to 10 percent by weight of magnesium stearate, wherein at least 90% of all said particles have a volume diameter lower than 15 micron, and the volume median diameter of said particles is comprised between 3 and 7 micron, and no more than 10% of said particles have a diameter lower than 1.8 micron; b) a fraction of coarse particles consisting of a physiologically acceptable excipient having a mass median diameter equal to or higher than 100 micron, wherein the ratio between the fine particles a) and the coarse particles b) being between 1:99 and 30:70 percent by weight; c) micronized particles of glycopyrronium bromide, beclometasone dipropionate, and formoterol fumarate dihydrate as active ingredients; wherein at least 90% of the micronized particles of each active ingredient have a volume diameter equal to or lower than 6 micron, and the formulation delivers a therapeutically effective dose of all three active ingredients comprised between 100 and 500 microg; wherein said formulation is obtainable by a process comprising the steps of i) co-mixing in a high-energy apparatus for a period of less than 30 minutes the excipient particles and magnesium stearate; and ii) mixing the fraction of fine particles a), the fraction of coarse lactose particles b) and all the micronized active ingredients; and whereby, upon delivery from the inhaler, the formulation delivers a fraction of active particles equal to or higher than 30% having a particle size equal to or less than 2.0 micron. a) a fraction of fine particles consisting of a mixture of 90 to 99.5 percent by weight of micronized particles of a physiologically acceptable excipient and 0.5 to 10 percent by weight of magnesium stearate, wherein at least 90% of all said particles have a volume diameter lower than 15 micron, and the volume median diameter of said particles is comprised between 3 and 7 micron, and no more than 10% of said particles have a diameter lower than 1.8 micron; b) a fraction of coarse particles consisting of a physiologically acceptable excipient having a mass median diameter equal to or higher than 100 micron, wherein the ratio between the fine particles a) and the coarse particles b) being between 1:99 and 30:70 percent by weight; c) micronized particles of glycopyrronium bromide, beclometasone dipropionate, and formoterol fumarate dihydrate as active ingredients; wherein at least 90% of the micronized particles of each active ingredient have a volume diameter equal to or lower than 6 micron, and the formulation delivers a therapeutically effective dose of all three active ingredients comprised between 100 and 500 microg;
A method of reducing tracking interruptions between a tracking device and a localizer of a navigation system , the navigation system further comprising a virtual boundary generator and a collision detector, said method comprising the steps of: detecting the tracking device within a field-of-view of the localizer ; generating, by the virtual boundary generator, a virtual line-of-sight boundary based on a line-of-sight relationship between the tracking device and the localizer ; updating, by the virtual boundary generator, the virtual line-of-sight boundary to account for relative movement between the tracking device and the localizer ; evaluating, by the collision detector, relative movement between a virtual object and the virtual line-of-sight boundary, wherein the virtual object is associated with a physical object in the field-of-view of the localizer ; and detecting, by the collision detector, a collision between the virtual object and the virtual line-of-sight boundary to enable a response that prevents the physical object from obstructing the line-of-sight between the tracking device and the localizer . detecting the tracking device within a field-of-view of the localizer ; generating, by the virtual boundary generator, a virtual line-of-sight boundary based on a line-of-sight relationship between the tracking device and the localizer ; updating, by the virtual boundary generator, the virtual line-of-sight boundary to account for relative movement between the tracking device and the localizer ; evaluating, by the collision detector, relative movement between a virtual object and the virtual line-of-sight boundary, wherein the virtual object is associated with a physical object in the field-of-view of the localizer ; and detecting, by the collision detector, a collision between the virtual object and the virtual line-of-sight boundary to enable a response that prevents the physical object from obstructing the line-of-sight between the tracking device and the localizer .