mhurhangee/patent-ind-claim-en huggingface dataset:
An improved holster for a gun (P) comprising a spent casings ejection port (P1), the holster comprising: a hollow shell extending along a longitudinal direction (X) between an end that delimits a handgun inlet opening, and a bottom end, said shell comprising two side walls substantially parallel with said longitudinal direction and mutually joined by a top wall and a lower wall , spaced from each other according to a height direction (Y); a locking element arranged inside said shell close to said top wall and comprising at least one first flap shaped to insert in said ejection port (P1) of the handgun, pivotally supported by the shell around a crosswise rotation axis between an engagement position in which said first flaps engages with said ejection port (P1) to lock the handgun inside the shell, and a disengagement position lifted towards said top wall in which said first flap does not interfere with the extraction movement of the handgun; first elastic means adapted to promote the rotation of said locking element from said disengagement position to said engagement position; a release lever configured as a first-class lever and in turn pivotally supported by one of said side walls around a rotation axis arranged in a crosswise direction (Z) which is substantially perpendicular to said side walls , providing a rear actuation end for actuation by the user, and a front end adapted to engage with said locking element , the release lever being pivotally movable between an inactive position, in which said front end does not interfere with said locking element and a release position in which said front end pushes said locking element to said disengagement position; wherein said release lever is configured such that said rear end projects in said longitudinal direction (X) beyond an end rim of the relative side wall that edges said inlet opening of the shell, and such that the same rear end is spaced in said inactive position both from said top wall and said lower wall .
Method for producing a PTFE-based coating on aluminium alloy moulds used for rubber vulcanization for tire production, wherein - the mould surface is degreased and decontaminated in a bath at a temperature of 50― 55 °C and a pH of 11.0 to 12.5 for 2-3 minutes, - rinsed in demineralized water at a temperature of 20―30 ° C, and wherein - the surface of the moulds is further coated in a bath containing up to 0.5% of hexafluorozirconium acid at a temperature of 25-30 °C and a pH of 4.8-5.2 for 1-2 minutes, followed by - rinsing in demineralized water at a temperature of 20―30 °C and - drying at a temperature of 110-115 °C for 20―25 minutes, characterized in that the PTFE-based coating comprises an aqueous-based polytetrafluoroethylene dispersion, ground TiO 2 particles in an amount of 0.5 to 50 % by volume and up to 5% of non-ionic surfactant, the mould is coated in a bath containing the PTFE-based coating composition at a temperature of 60-65 °C and a pH of 7.5-8.5 for 15-16 minutes, and it is dried without rinsing at temperature of 80-120 °C for 30-40 minutes to form a coating with a thickness of 20-25 μm. - the mould surface is degreased and decontaminated in a bath at a temperature of 50― 55 °C and a pH of 11.0 to 12.5 for 2-3 minutes, - rinsed in demineralized water at a temperature of 20―30 ° C, and wherein - the surface of the moulds is further coated in a bath containing up to 0.5% of hexafluorozirconium acid at a temperature of 25-30 °C and a pH of 4.8-5.2 for 1-2 minutes, followed by - rinsing in demineralized water at a temperature of 20―30 °C and - drying at a temperature of 110-115 °C for 20―25 minutes, characterized in that
An automated sample preparation and analysis system, comprising a sample preparation system including: a controller ; a reagent rack configured to hold a plurality of reagent containers ; a matrix interference removal station and optionally, one or more of a mixing station , and an incubation station; the controller configured to select a reagent to add to a sample in accordance with sample preparation information for a selected assay stored in a database , said database containing stored information pertaining to a plurality of unique assays, wherein said sample preparation and analysis system is characterized in that the matrix interference removal station is operable to separate one or more of residual proteins, phospholipids, salts, metabolites, carbohydrates, nucleic acids, and/or other substances that may otherwise interfere with subsequent processing or analysis of the desired analytes and prior to transferring the now prepared sample to the sample analysis system , in that said sample analysis system comprises a mass spectrometer , the mass spectrometer being dynamically reconfigurable in response to the selected assay to analyze the prepared sample in accordance with the selected assay; and in that a data communication link is configured to communicate data from the sample preparation system to the sample analysis system that reconfigures the mass spectrometer in accordance with the selected assay. a sample preparation system including: a controller ; a reagent rack configured to hold a plurality of reagent containers ; a matrix interference removal station and optionally, one or more of a mixing station , and an incubation station; the controller configured to select a reagent to add to a sample in accordance with sample preparation information for a selected assay stored in a database , said database containing stored information pertaining to a plurality of unique assays, wherein said sample preparation and analysis system is characterized in that the matrix interference removal station is operable to separate one or more of residual proteins, phospholipids, salts, metabolites, carbohydrates, nucleic acids, and/or other substances that may otherwise interfere with subsequent processing or analysis of the desired analytes and prior to transferring the now prepared sample to the sample analysis system , in that said sample analysis system comprises a mass spectrometer , the mass spectrometer being dynamically reconfigurable in response to the selected assay to analyze the prepared sample in accordance with the selected assay; and in that a data communication link is configured to communicate data from the sample preparation system to the sample analysis system that reconfigures the mass spectrometer in accordance with the selected assay.
A method for making a modified kraft pulp comprising: digesting a softwood cellulose pulp to a kappa number of from about 17 to about 21; oxygen delignifying the cellulose pulp to a kappa number of less than 8; bleaching the cellulosic kraft pulp using a multi-stage bleaching process; and oxidizing the kraft pulp during at least one stage of the multi-stage bleaching process with a peroxide and a catalyst under acidic condition, wherein the multi-stage bleaching process comprises at least one bleaching stage following the oxidation stage; characterized in that : the softwood cellulose pulp is southern pine fiber; the catalyst is iron present in an amount of from 25 ppm to 100 ppm; and the peroxide is hydrogen peroxide present in an amount of from 0.1% to 0.5%. digesting a softwood cellulose pulp to a kappa number of from about 17 to about 21; oxygen delignifying the cellulose pulp to a kappa number of less than 8; bleaching the cellulosic kraft pulp using a multi-stage bleaching process; and oxidizing the kraft pulp during at least one stage of the multi-stage bleaching process with a peroxide and a catalyst under acidic condition, wherein the multi-stage bleaching process comprises at least one bleaching stage following the oxidation stage; characterized in that : the softwood cellulose pulp is southern pine fiber; the catalyst is iron present in an amount of from 25 ppm to 100 ppm; and the peroxide is hydrogen peroxide present in an amount of from 0.1% to 0.5%. the softwood cellulose pulp is southern pine fiber; the catalyst is iron present in an amount of from 25 ppm to 100 ppm; and the peroxide is hydrogen peroxide present in an amount of from 0.1% to 0.5%.
A method of capturing light field image data using a plurality of active focal planes in a camera module comprising an imager array and an optic array of lens stacks wherein each active focal plane is separately controlled, wherein each active focal plane comprises a plurality of rows of pixels that also form a plurality of columns of pixels and each pixel is configured to capture image data, and wherein an image is formed on each active focal plane by a separate lens stack in said optic array of lens stacks, where the method comprises: capturing a set of pixel values from at least one row of each active focal plane of a plurality of active focal planes; generating lines of image data by interleaving the sets of pixels (702; 706, 708; 714, 176, 718) from the plurality of active focal planes following a timing order of capturing the sets of pixel values from the imager array, wherein sets of corresponding captured pixel values of different active focal planes are adjacent to each other within the generated lines of image data; generating additional data , where said additional data includes information for deinterleaving the pixels within the lines of image data to construct a plurality of images from the generated lines of image data; and transmitting , from the camera module, said generated lines of image data together with said additional data. capturing a set of pixel values from at least one row of each active focal plane of a plurality of active focal planes; generating lines of image data by interleaving the sets of pixels (702; 706, 708; 714, 176, 718) from the plurality of active focal planes following a timing order of capturing the sets of pixel values from the imager array, wherein sets of corresponding captured pixel values of different active focal planes are adjacent to each other within the generated lines of image data; generating additional data , where said additional data includes information for deinterleaving the pixels within the lines of image data to construct a plurality of images from the generated lines of image data; and transmitting , from the camera module, said generated lines of image data together with said additional data.
Gripper weaving loom with a device for the removal of wrong wefts from the gripper path, the device comprising one or more compressed-air flows controlled in opening and closing by at least one valve , said compressed air flows being arranged on said loom in an area comprised between the weft presenting levers (F) and the edge of the fabric being formed characterised in that said compressed-air flows are oriented so as to form an air jet apt to move the wrong weft vertically away from a carrying gripper guide (G).
A method for producing a Na-based positive electrode composite material for a battery using sodium ions as electrochemical vector, wherein said method comprises at least one step of mixing a powder of Na 3 P with a powder of at least one positive-electrode active material capable of inserting sodium ions reversibly, said step of mixing being carried out in a dry atmosphere and without any external source of heating.
A rare-earth sulfide colorant of the chemical formula below: RE 2-2x S 3-3x •2y[REPO 4 ] wherein RE is selected from one or more of La, Ce, Pr, Nd, and Sm, and the ratio of y to x is 0.001 to 0.65.
A wound dressing comprising a non-woven mat of gel forming fibres having an open structure reinforced with fibres of limited absorbency blended or entangled with the gel forming fibres during the formation of the mat or present as a thread or yarn stitchbonded on the mat, for use in the treatment of wounds, wherein the mat has a needle punch density of less than 60 per cm 2 ; and wherein the wound dressing comprises silver at a concentration in the dry wound dressing between about 0.1 weight% and about 20 weight%.
A method of controlling a pest, the method comprising the following steps: providing a treatment enclosure containing pests or an article infested with pests or their eggs, the treatment enclosure having a volume of between 10 L and 1200 L; providing a substrate impregnated with a pesticidal composition ; and releasing pesticidal vapors of the pesticidal composition from the substrate within the treatment enclosure for a treatment period, characterized in that the pesticidal composition is applied at a concentration in the range of 0.01% to 0.2% vol/vol relative to the volume of the treatment enclosure in which it is applied; wherein the pesticidal composition comprises neem oil and acetophenone. providing a treatment enclosure containing pests or an article infested with pests or their eggs, the treatment enclosure having a volume of between 10 L and 1200 L; providing a substrate impregnated with a pesticidal composition ; and releasing pesticidal vapors of the pesticidal composition from the substrate within the treatment enclosure for a treatment period, characterized in that the pesticidal composition is applied at a concentration in the range of 0.01% to 0.2% vol/vol relative to the volume of the treatment enclosure in which it is applied; wherein the pesticidal composition comprises neem oil and acetophenone.
An electrochemical cell involving the production or consumption of at least one gas, comprising an anodic compartment , a cathodic compartment and a barrier compartment positioned between the cathodic and anodic compartment, wherein the barrier compartment comprises an ion permeable reinforced separator wherein the ion permeable reinforced separator comprises a first and a second ion permeable separator element (S1, S2) and a hollow by-pass channel integrated in the ion permeable reinforced separator contiguous with said ion permeable separator elements, wherein the first ion permeable separator element (S1) is positioned adjacent said cathodic (C) compartment and the second ion permeable separator element (S2) positioned adjacent said anodic (A) compartment and at a distance from the first ion permeable separator element to provide a hollow bypass channel between the first and second ion permeable separator elements for containing electrolyte, wherein said first and second separator elements (S1, S2) each comprises an elongated porous web, a binder and a metal oxide or hydroxide dispersed therein and subjected to phase inversion, wherein a resistance to flow of electrolyte through the bypass channel is at least a factor of ten lower than that through the separator elements (S1, S2), wherein each separator element (S1, S2) is liquid permeable and has a bubble point of at least 1 bar and a back-wash resistance of at least 1 bar, and wherein the bubble point is determined using ASTM E128 method.
An antigenic molecule, photosensitizing agent, checkpoint inhibitor and a TLR3 ligand for use in prophylaxis or therapy, wherein the antigenic molecule is a peptide, the photosensitizing agent is selected from a sulfonated tetraphenylporphine, a sulfonated tetraphenylchlorin and a sulfonated tetraphenylbacteriochlorin, the checkpoint inhibitor is an antibody selected from anti-CTLA4 and/or anti-PD-1, and the TLR3 ligand is a double stranded RNA molecule. the antigenic molecule is a peptide, the photosensitizing agent is selected from a sulfonated tetraphenylporphine, a sulfonated tetraphenylchlorin and a sulfonated tetraphenylbacteriochlorin, the checkpoint inhibitor is an antibody selected from anti-CTLA4 and/or anti-PD-1, and the TLR3 ligand is a double stranded RNA molecule.
An interdental cleaning tool comprising: a base that has a shaft shaped to be capable of being inserted between teeth, wherein the base is formed from a composite material that contains a synthetic resin, and a reinforcement containing glass, and characterized in that the composite material further contains a copolymer having, as structural units, a polyolefin and an anhydride of an unsaturated carboxylic acid . a base that has a shaft shaped to be capable of being inserted between teeth, wherein the base is formed from a composite material that contains a synthetic resin, and a reinforcement containing glass, and characterized in that the composite material further contains a copolymer having, as structural units, a polyolefin and an anhydride of an unsaturated carboxylic acid .
Device provided with a bearing-in-bearing with an inner ring , an intermediate ring and an outer ring , whereby between the inner ring and the intermediate ring and between the intermediate ring and the outer ring inner roller elements , outer roller elements are respectively provided, whereby the bearing-in-bearing with its inner ring and outer ring is provided between two components in the device that are rotatable in relation to each other, a shaft and a housing , of which one component (11 or 12) is or can be connected to a drive, wherein the device is provided with a transmission between the intermediate ring and the driven component (11 or 12) in order to drive the intermediate ring , whereby this transmission is a contactless transmission, whereby either the inner ring or the outer ring is a driven bearing ring, which is driven via said driven component (11 respectively 12) the device being characterized in that in order to drive the intermediate ring in a contactless manner, the transmission comprises one or more permanent magnets which rotate along with the driven bearing ring.
A force transfer member suitable for a spa structure, the force transfer member comprising: a first half and a second half , the first half and second half being configured to slidably mate together such that the length of the force transfer member can be selectively adjusted; wherein the first half has a foot of rectangular cross-section extending from a lower end thereof, and a step ; wherein the second half has a rectangular receptacle formed at an upper end thereof, an upper stepped edge and an angled surface , wherein the upper stepped edge forms into the angled surface ; and wherein, when the first half and second half are mated together, the angled surface continues into the step , the rectangular receptacle being located above said upper stepped edge and the foot being located below the angled surface . a first half and a second half , the first half and second half being configured to slidably mate together such that the length of the force transfer member can be selectively adjusted; wherein the first half has a foot of rectangular cross-section extending from a lower end thereof, and a step ; wherein the second half has a rectangular receptacle formed at an upper end thereof, an upper stepped edge and an angled surface , wherein the upper stepped edge forms into the angled surface ; and wherein, when the first half and second half are mated together, the angled surface continues into the step , the rectangular receptacle being located above said upper stepped edge and the foot being located below the angled surface .
A first dose and a second dose of a composition for use in reducing an infusion-related response (IRR), or a hypersensitivity reaction, or both in a subject, wherein said composition comprises a lipid-nucleic acid particle formulation and a nucleic acid molecule, wherein said first and second doses are to be administered in an amount sufficient to reduce an infusion-related response (IRR), or a hypersensitivity reaction, or both in the subject; wherein said first and second doses are to be administered intravenously; and wherein one, two or all of (a) to (c) of the following conditions is met: (a) the amount of said composition to be administered in said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the amount of said composition administered in said second dose; (b) the amount of said composition to be administered in said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the total amount of said composition administered; or (c) the rate of administration, e.g., in mg/min or mL/min, of said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the rate of administration of said second dose. (a) the amount of said composition to be administered in said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the amount of said composition administered in said second dose; (b) the amount of said composition to be administered in said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the total amount of said composition administered; or (c) the rate of administration, e.g., in mg/min or mL/min, of said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the rate of administration of said second dose.
A mobile work machine having an inclination sensor system , comprising: an MEMS inclination sensor configured to output a first inclination signal starting from an inclination present at the inclination sensor; a further inclination sensor of a different type, configured to output a second inclination signal starting from the inclination present at the further inclination sensor, the further inclination sensor comprising a thermodynamic inclination sensor; and a fusion device configured to determine or calculate a corrected inclination based on the first and second inclination signals , and output the same as a corrected inclination signal ; wherein the work machine is a lifting platform or a crane, and wherein at least the MEMS inclination sensor and the further inclination sensor are arranged in a common housing of the inclination sensor system . an MEMS inclination sensor configured to output a first inclination signal starting from an inclination present at the inclination sensor; a further inclination sensor of a different type, configured to output a second inclination signal starting from the inclination present at the further inclination sensor, the further inclination sensor comprising a thermodynamic inclination sensor; and a fusion device configured to determine or calculate a corrected inclination based on the first and second inclination signals , and output the same as a corrected inclination signal ; wherein the work machine is a lifting platform or a crane, and wherein at least the MEMS inclination sensor and the further inclination sensor are arranged in a common housing of the inclination sensor system .
A wire-plate antenna comprising a ground plane , at least one capacitive roof , a feed probe connected to the capacitive roof and intended to be linked to a generator, and at least one electrically conductive short-circuit wire linking the capacitive roof and the ground plane , said wire-plate antenna being characterized in that the capacitive roof comprises at least one slit consisting of an opening passing through the entire thickness of the capacitive roof so as to emerge on each of the two opposing faces of the capacitive roof and configured such that the point of connection (M1) between the capacitive roof and the feed probe and the point of connection (M2) between the capacitive roof and the electrically conductive short-circuit wire are arranged on either side of the slit , in that the ground plane , the capacitive roof , the feed probe , said at least one electrically conductive short-circuit element and said at least one slit are parameterized such that the wire-plate antenna exhibits a first resonance mode of wire-plate type and a second slit resonance mode respectively at first (f3, f9) and second (f4, f10) distinct resonance frequencies, said first and second resonance frequencies being adapted such that the wire-plate antenna exhibits a single and continuous operating frequency bandwidth, in that the wire-plate antenna comprises no discrete component placed at the level of the slit and in that the slit is closed at its ends.