mhurhangee/patent-ind-claim-en huggingface dataset:
A deflector comprising: an annular core; a first coil wound with a width of 30 degrees around the core; a second coil wound with a width of 30 degrees around the core; a third coil wound with a width of 30 degrees around the core; a fourth coil wound with a width of 30 degrees around the core; a fifth coil wound with a width of 30 degrees around the core; and a sixth coil wound with a width of 30 degrees around the core; wherein the first coil, the second coil, the third coil, the fourth coil, the fifth coil, and the sixth coil are arranged in this order and at regular angular intervals such that the angular intervals between successive ones of the first through sixth coils including the interval between the sixth and first coils are equal to each other; wherein the first, second, and third coils are equal in direction of energization; wherein the fourth, fifth, and sixth coils are equal in direction of energization; wherein the first and fourth coils are mutually opposite in direction of energization; wherein the first, third, fourth, and sixth coils are equal in electromotive force; wherein the second and fifth coils are equal in electromotive force; and wherein the second coil is twice the electromotive force of the first coil. an annular core; a first coil wound with a width of 30 degrees around the core; a second coil wound with a width of 30 degrees around the core; a third coil wound with a width of 30 degrees around the core; a fourth coil wound with a width of 30 degrees around the core; a fifth coil wound with a width of 30 degrees around the core; and a sixth coil wound with a width of 30 degrees around the core; wherein the first coil, the second coil, the third coil, the fourth coil, the fifth coil, and the sixth coil are arranged in this order and at regular angular intervals such that the angular intervals between successive ones of the first through sixth coils including the interval between the sixth and first coils are equal to each other; wherein the first, second, and third coils are equal in direction of energization; wherein the fourth, fifth, and sixth coils are equal in direction of energization; wherein the first and fourth coils are mutually opposite in direction of energization; wherein the first, third, fourth, and sixth coils are equal in electromotive force; wherein the second and fifth coils are equal in electromotive force; and wherein the second coil is twice the electromotive force of the first coil.
Device for electrical connection intended to connect a super-insulating mattress to a structural panel of a spacecraft, said connection device comprising: - a conductive sleeve having an axis (A-A) extending in a first direction (z), said sleeve comprising a support extending in the first direction (z), - a conductive pin suitable for being arranged in said sleeve , - an elastic element carried by said support , said elastic element being suitable for exerting a force on the pin in a direction substantially perpendicular to the first direction (z) characterized in that the support comprises a fastening device suitable for axially fastening the super-insulating mattress , said fastening device comprising: - a flange peripheral to the sleeve located on one end of the sleeve and extending in a plan perpendicular to the first direction (z), - a washer , the super-insulating mattress being intended to be interposed between the washer and the flange , and - a stop established on the free end of the sleeve , and in that said elastic element presses the pin against the sleeve . - a conductive sleeve having an axis (A-A) extending in a first direction (z), said sleeve comprising a support extending in the first direction (z), - a conductive pin suitable for being arranged in said sleeve , - an elastic element carried by said support , said elastic element being suitable for exerting a force on the pin in a direction substantially perpendicular to the first direction (z) characterized in that the support comprises a fastening device suitable for axially fastening the super-insulating mattress , said fastening device comprising: - a flange peripheral to the sleeve located on one end of the sleeve and extending in a plan perpendicular to the first direction (z), - a washer , the super-insulating mattress being intended to be interposed between the washer and the flange , and - a stop established on the free end of the sleeve , - a flange peripheral to the sleeve located on one end of the sleeve and extending in a plan perpendicular to the first direction (z), - a washer , the super-insulating mattress being intended to be interposed between the washer and the flange , and - a stop established on the free end of the sleeve , and in that said elastic element presses the pin against the sleeve .
Measuring roller for determining a property of a strip-type product, in particular a metal strip, guided over the measuring roller, comprising - a measuring roller body having a circumferential surface , - at least one recess in the measuring roller body , - a force sensor which is arranged in the recess , wherein a coating layer is applied over the recess characterized in that the coating layer is generated by extreme high speed laser application (EHLA). - a measuring roller body having a circumferential surface , - at least one recess in the measuring roller body , - a force sensor which is arranged in the recess ,
A method for producing a polyamide medium for purifying a protein-containing solution, comprising: a step of treating a polyamide medium before a treatment with an acidic or alkaline aqueous solution, with (i) an acidic or (ii) alkaline aqueous solution; wherein in the case of (i) treatment with an acidic aqueous solution: the pH of the acidic aqueous solution is 5 or less and the method of treating the polyamide medium with an acidic aqueous solution is selected from immersion and liquid passage, wherein in the case of immersion in an acidic aqueous solution the immersion time is 5 minutes or more to 70 hours or less and the immersion temperature is 4°C or more to 100°C or less, and in the case of liquid passage of an acidic aqueous solution the liquid passage time is 5 minutes or more to 70 hours or less and the liquid passage temperature is 4°C or more to 100°C or less; and in the case of (ii) treatment with an alkaline aqueous solution, the following treatment conditions apply: the alkaline aqueous solution has a pH of 10 or more under conditions of 4°C or more and 100°C or less and 5 minutes or more and 70 hours or less; wherein the polyamide medium is a porous body in the form of a membrane. the pH of the acidic aqueous solution is 5 or less and the method of treating the polyamide medium with an acidic aqueous solution is selected from immersion and liquid passage, wherein in the case of immersion in an acidic aqueous solution the immersion time is 5 minutes or more to 70 hours or less and the immersion temperature is 4°C or more to 100°C or less, and in the case of liquid passage of an acidic aqueous solution the liquid passage time is 5 minutes or more to 70 hours or less and the liquid passage temperature is 4°C or more to 100°C or less; and in the case of (ii) treatment with an alkaline aqueous solution, the following treatment conditions apply: the alkaline aqueous solution has a pH of 10 or more under conditions of 4°C or more and 100°C or less and 5 minutes or more and 70 hours or less; wherein the polyamide medium is a porous body in the form of a membrane.
A method of analyzing a liquid sample containing particles of solid matter, the method comprising the steps of: providing a sample from a stream of liquid ; adding a dye to said sample to stain the particles contained therein; conducting the sample to a first flow chamber in the form of a disintegration channel (23; 31) having means for causing said sample to be divided into a plurality of particle populations (42a - 42c) according to their size or mass; applying a liquid flow through said disintegration channel (23; 31) to cause the particle populations to flow into a second flow chamber (24; 33); measuring by optical measurement said particle populations in the second chamber to produce at least one measurement signal representative of the amount and/or properties of the particles; whereby the flow velocity in the disintegration channel is increased step by step according to a velocity profile, allowing smaller or lighter particle populations to first enter said second flow chamber having an essentially laminar flow, and other particle populations to enter later in an ascending order of size and weight, until all particle populations have entered said second flow chamber, the method further comprising processing said measurement signal for each of said measured particle populations (42a - 42c) to extract key variables of each of said measured particle populations; and presenting said key variables as an analysis of said particle populations or the whole sample in terms of a count and size of particles and/or their hydrophobicity. providing a sample from a stream of liquid ; adding a dye to said sample to stain the particles contained therein; conducting the sample to a first flow chamber in the form of a disintegration channel (23; 31) having means for causing said sample to be divided into a plurality of particle populations (42a - 42c) according to their size or mass; applying a liquid flow through said disintegration channel (23; 31) to cause the particle populations to flow into a second flow chamber (24; 33); measuring by optical measurement said particle populations in the second chamber to produce at least one measurement signal representative of the amount and/or properties of the particles; whereby the flow velocity in the disintegration channel is increased step by step according to a velocity profile, allowing smaller or lighter particle populations to first enter said second flow chamber having an essentially laminar flow, and other particle populations to enter later in an ascending order of size and weight, until all particle populations have entered said second flow chamber, the method further comprising processing said measurement signal for each of said measured particle populations (42a - 42c) to extract key variables of each of said measured particle populations; and presenting said key variables as an analysis of said particle populations or the whole sample in terms of a count and size of particles and/or their hydrophobicity.
A spark plug (101 - 105) comprising: a cylindrical metallic shell having a ground electrode at a forward end of the cylindrical metallic shell ; a cylindrical insulator held in the metallic shell ; a center electrode disposed in the insulator , the center electrode generating spark discharge in a gap between the ground electrode and the center electrode ; a resistor element (51 - 55) disposed in the insulator and having a forward end located rearward of a rear end of the center electrode ; a forward-end-side electrically conductive seal layer disposed in the insulator to be located between the center electrode and the resistor element ; a rear-end-side electrically conductive seal layer disposed in the insulator to be located rearward of the resistor element , wherein the forward end of the resistor element is located forward of a rear end (A) of the metallic shell , and a rear end of the resistor element is located rearward of the rear end (A) of the metallic shell ; and the resistor element (52 - 55) has a portion located rearward of the rear end (A) of the metallic shell , at least part of the portion being a ferromagnetic portion ; characterized in that the ferromagnetic portion of the resistor element forms a first layer containing metal oxide, a non-ferromagnetic portion of the resistor element other than the ferromagnetic portion forms a second layer containing carbon, and the first layer and the second layer are separated by an electrically conductive glass seal layer . a cylindrical metallic shell having a ground electrode at a forward end of the cylindrical metallic shell ; a cylindrical insulator held in the metallic shell ; a center electrode disposed in the insulator , the center electrode generating spark discharge in a gap between the ground electrode and the center electrode ; a resistor element (51 - 55) disposed in the insulator and having a forward end located rearward of a rear end of the center electrode ; a forward-end-side electrically conductive seal layer disposed in the insulator to be located between the center electrode and the resistor element ; a rear-end-side electrically conductive seal layer disposed in the insulator to be located rearward of the resistor element , wherein the forward end of the resistor element is located forward of a rear end (A) of the metallic shell , and a rear end of the resistor element is located rearward of the rear end (A) of the metallic shell ; and the resistor element (52 - 55) has a portion located rearward of the rear end (A) of the metallic shell , at least part of the portion being a ferromagnetic portion ; characterized in that the ferromagnetic portion of the resistor element forms a first layer containing metal oxide, a non-ferromagnetic portion of the resistor element other than the ferromagnetic portion forms a second layer containing carbon, and the first layer and the second layer are separated by an electrically conductive glass seal layer .
A downhole liner delivery tool comprising: a housing configured to couple to a tubular work string , the housing comprising a flow path; a detachable nose assembly releasably coupled to a downhole end of the housing and fluidly coupled to the flow path, the detachable nose assembly comprising one or more retractable grips positioned at an external surface of the detachable nose assembly and configured to secure the nose assembly to a wellbore; a flexible wellbore liner comprising a first end coupled to the detachable nose assembly and a second end coupled within the housing , the flexible wellbore liner stored within the flow path of the housing; a seat formed in the flow path and configured to receive a member dropped in a wellbore from a terranean surface, the receipt of the member by the seat configured to increase a fluid pressure of a fluid resin pumped through the flow path, wherein the flow path couples the fluid pressure to a body of the detachable nose assembly to expand the one or more retractable grips to engage a wellbore wall and detach the detachable nose assembly from the housing. a housing configured to couple to a tubular work string , the housing comprising a flow path; a detachable nose assembly releasably coupled to a downhole end of the housing and fluidly coupled to the flow path, the detachable nose assembly comprising one or more retractable grips positioned at an external surface of the detachable nose assembly and configured to secure the nose assembly to a wellbore; a flexible wellbore liner comprising a first end coupled to the detachable nose assembly and a second end coupled within the housing , the flexible wellbore liner stored within the flow path of the housing; a seat formed in the flow path and configured to receive a member dropped in a wellbore from a terranean surface, the receipt of the member by the seat configured to increase a fluid pressure of a fluid resin pumped through the flow path, wherein the flow path couples the fluid pressure to a body of the detachable nose assembly to expand the one or more retractable grips to engage a wellbore wall and detach the detachable nose assembly from the housing.
A stator of an electric motor, comprising: a ring-shaped stator core ; a plurality of tooth sections being radially extended from the stator core ; an even number of slots , each of which is formed between the tooth sections ; an insulator covering the tooth sections ; and a plurality of motor coils being wound on the tooth sections with the insulator and formed in the slots , wherein the insulator is formed into a ring shape and has guide projections , each of which corresponds to each of the tooth sections so as to guide a magnet wire , the guide projections respectively have guide sections , each of which includes a base end part and a front end part , in each of the guide sections , a radial thickness of a thin part , called thin part, located in the base end part is thinner than a radial thickness of a part , called thick part, located in the front end part which is thicker, and a groove is formed in the base end part and formed by a thickness difference between the thin part and the thick part ; the guide sections are respectively formed in the side faces of the guide projections in which a crossover wire is extended in the circumferential direction, and a retainer projection for retaining the crossover wire is radially outwardly projected from an upper end of the thick part . a ring-shaped stator core ; a plurality of tooth sections being radially extended from the stator core ; an even number of slots , each of which is formed between the tooth sections ; an insulator covering the tooth sections ; and a plurality of motor coils being wound on the tooth sections with the insulator and formed in the slots , wherein the insulator is formed into a ring shape and has guide projections , each of which corresponds to each of the tooth sections so as to guide a magnet wire , the guide projections respectively have guide sections , each of which includes a base end part and a front end part , in each of the guide sections , a radial thickness of a thin part , called thin part, located in the base end part is thinner than a radial thickness of a part , called thick part, located in the front end part which is thicker, and a groove is formed in the base end part and formed by a thickness difference between the thin part and the thick part ; the guide sections are respectively formed in the side faces of the guide projections in which a crossover wire is extended in the circumferential direction, and a retainer projection for retaining the crossover wire is radially outwardly projected from an upper end of the thick part .
A method of generating a homogenous population of mammalian protein-induced pluripotent stem cells (piPSCs), comprising: culturing mammalian somatic cells in the presence of a combination of QQ-reagent modified reprogramming proteins comprising QQ-reagent modified Sox2 and QQ-reagent modified Oct4, wherein the QQ reagent comprises polyethylenimine (PEI) and DOTAP/DOPE repeating reprogramming cycles of the foregoing culturing step to create reprogrammed piPSCs; wherein the cultured mammalian cells are passaged in a whole dish; and passaging the cultured mammalian cells in a whole dish under a feeder-free condition, with the proviso that colony picking is not performed, to generate a homogenous population of mammalian protein induced pluripotent stem cells. culturing mammalian somatic cells in the presence of a combination of QQ-reagent modified reprogramming proteins comprising QQ-reagent modified Sox2 and QQ-reagent modified Oct4, wherein the QQ reagent comprises polyethylenimine (PEI) and DOTAP/DOPE repeating reprogramming cycles of the foregoing culturing step to create reprogrammed piPSCs; wherein the cultured mammalian cells are passaged in a whole dish; and passaging the cultured mammalian cells in a whole dish under a feeder-free condition, with the proviso that colony picking is not performed, to generate a homogenous population of mammalian protein induced pluripotent stem cells.
A method for managing power storage and discharge from a storage array including a first group of power storage units and a second group of power storage units, the method comprising: monitoring operational characteristics of members of the first group of power storage units and members of the second group of power storage units; monitoring demand characteristics of power demand on the storage array, wherein the first group of power storage units is activated to supply power for a first component of the power demand and the second group of power storage units is activated to supply power for a second component of the power demand; and while the members of the first group of power storage units and the members of the second group of power storage units remain installed and available to respond to the power demand on the storage array: reassigning a given member of the first group of power storage units to be a new member of the second group of power storage units in response to at least one of a change in the operational characteristics or a change in the demand characteristics, the method being characterised in further comprising segmenting the power demand into a fast discharge component and a slow discharge component; and wherein the first group of power storage units are designated for handling the fast discharge component and the second group of power storage units are designated for handling the slow discharge component. monitoring operational characteristics of members of the first group of power storage units and members of the second group of power storage units; monitoring demand characteristics of power demand on the storage array, wherein the first group of power storage units is activated to supply power for a first component of the power demand and the second group of power storage units is activated to supply power for a second component of the power demand; and while the members of the first group of power storage units and the members of the second group of power storage units remain installed and available to respond to the power demand on the storage array: reassigning a given member of the first group of power storage units to be a new member of the second group of power storage units in response to at least one of a change in the operational characteristics or a change in the demand characteristics, the method being characterised in further comprising segmenting the power demand into a fast discharge component and a slow discharge component; and reassigning a given member of the first group of power storage units to be a new member of the second group of power storage units in response to at least one of a change in the operational characteristics or a change in the demand characteristics, the method being characterised in further comprising segmenting the power demand into a fast discharge component and a slow discharge component; and wherein the first group of power storage units are designated for handling the fast discharge component and the second group of power storage units are designated for handling the slow discharge component.
Process for making up an area of human keratin materials (P) using a makeup device comprising a deformable substrate bearing a transfer surface intended to come into contact with the keratin materials and configured to receive a coat of cosmetic ink , the process comprising the following steps: a. depositing at least one cosmetic ink onto the transfer surface by means of at least one digital printer, b. placing the transfer surface in contact with the area (P) to be made up by mechanical action, especially by exerting a pressure on a surface opposite the transfer surface , c. moving the transfer surface away from the area of the human keratin materials after the ink has been transferred, in which process, the substrate is plated on the support of the device , at least during step b) of placing the transfer surface in contact with the area (P) to be made up, and between the printing step a) and step b) of placing the transfer surface in contact with the area (P) to be made up, the substrate is plated onto an imprint of the support via the action of deformation means. a. depositing at least one cosmetic ink onto the transfer surface by means of at least one digital printer, b. placing the transfer surface in contact with the area (P) to be made up by mechanical action, especially by exerting a pressure on a surface opposite the transfer surface , c. moving the transfer surface away from the area of the human keratin materials after the ink has been transferred,