mhurhangee/ep-ind-claims huggingface dataset:
A device for detecting plaque on a surface of the oral cavity, said device comprising: a. a radiation source configured to direct incident radiation onto said surface of said oral cavity, b. optical collectors configured to collect reflected light and fluorescent emission, c. optical pathways configured to convey said collected reflected light and said collected fluorescent emission in said device, d. means (46,48) configured to convert an optical light signal of said reflected light and said fluorescent emission to an electrical signal, e. means configured to mathematically manipulate said electrical signal of said reflected light and said fluorescent emission to determine a compensated plaque value; and f. means configured to clean said surface of said oral cavity, characterised in that said plaque value is a compensated plaque value, wherein the compensated plaque value takes into account a distance between the optical collector and the surface of the oral cavity so that the determined compensated plaque value for said surface of said oral cavity is the same regardless of the distance between the optical collectors and the surface of the oral cavity and the distance between the radiation source and the surface of the oral cavity, wherein said means configured to clean is effective to clean teeth by sonification or pressurized water or any combination thereof with brushing. a. a radiation source configured to direct incident radiation onto said surface of said oral cavity, b. optical collectors configured to collect reflected light and fluorescent emission, c. optical pathways configured to convey said collected reflected light and said collected fluorescent emission in said device, d. means (46,48) configured to convert an optical light signal of said reflected light and said fluorescent emission to an electrical signal, e. means configured to mathematically manipulate said electrical signal of said reflected light and said fluorescent emission to determine a compensated plaque value; and f. means configured to clean said surface of said oral cavity, characterised in that said plaque value is a compensated plaque value, wherein the compensated plaque value takes into account a distance between the optical collector and the surface of the oral cavity so that the determined compensated plaque value for said surface of said oral cavity is the same regardless of the distance between the optical collectors and the surface of the oral cavity and the distance between the radiation source and the surface of the oral cavity, wherein said means configured to clean is effective to clean teeth by sonification or pressurized water or any combination thereof with brushing.
A method for determining whether a test compound is a bromodomain inhibiting compound comprising (a) contacting a cell which contains a fusion protein, wherein a plurality of fusion proteins are capable of forming foci, with the test compound; and (b) determining whether the test compound causes an increase in formation of fusion protein foci, wherein an increase in formation of foci indicates that the test compound is a bromodomain inhibiting compound, wherein each fusion protein comprises at least one bromodomain and a reporter module which is a fluorescent protein that is capable of multimerizing, and wherein the reporter module is EGFP, TurboGFP dsRed2, dsRed-Express2 or ZsGreen.
Method for transcoding a stream of video data in the H.264 format into a stream (120; 220) of video data in the H.265 format, the said method being implemented in the frequency domain without passing to the pixel domain by a transcoding device (100; 200; 500), the said method comprising the following steps: - performing a fusion of adjacent macro-blocks of the data stream in the H.264 format according to a predetermined criterion of frequency similarity of the discrete cosine transform DCT coefficients of the said macro-blocks after application of an inverse quantization operation; and - determining motion vectors in the H.265 format on the basis of motion vectors in the H.264 format by performing, for the macro-blocks resulting from the fusion of macro-blocks arising from the data stream in the H.264 format, a combination of the motion vectors of the said macro-blocks arising from the data stream in the H.264 format; characterized in that: to determine whether adjacent macro-blocks can be fused, the transcoding device obtains an information of sum of absolute differences between DCT coefficients, after inverse quantization, of the said adjacent macro-blocks, and compares the said information of sum of absolute differences with a first predefined threshold. - performing a fusion of adjacent macro-blocks of the data stream in the H.264 format according to a predetermined criterion of frequency similarity of the discrete cosine transform DCT coefficients of the said macro-blocks after application of an inverse quantization operation; and - determining motion vectors in the H.265 format on the basis of motion vectors in the H.264 format by performing, for the macro-blocks resulting from the fusion of macro-blocks arising from the data stream in the H.264 format, a combination of the motion vectors of the said macro-blocks arising from the data stream in the H.264 format; characterized in that: to determine whether adjacent macro-blocks can be fused, the transcoding device obtains an information of sum of absolute differences between DCT coefficients, after inverse quantization, of the said adjacent macro-blocks, and compares the said information of sum of absolute differences with a first predefined threshold.
A gas turbine engine (100; 200), comprising; an engine core; a heat exchanger (320; 420) coupled to the engine core, wherein the heat exchanger (320; 420) comprises a heat exchanger base and a cooling tube (321; 421), the cooling tube (321; 421) is disposed inside the engine core, and the cooling tube (321; 421) comprises a tube entrance end (322; 422) coupled to the heat exchanger base, a tube exit end (326; 426) coupled to the heat exchanger base, and a tube body between the tube entrance end (322; 422) and the tube exit end (326; 426), the tube body encompassing a tube interior; wherein the engine core comprises a chamber comprising a chamber outboard surface (312; 412) and a chamber interior (308; 408), wherein the heat exchanger (320; 420) is coupled to the chamber outboard surface (312; 412), and the cooling tube (321; 421) is disposed within the chamber interior (308; 408); and a bypass airflow channel existing outside of the engine core, wherein the bypass airflow channel is configured to allow a bypass airflow; wherein the tube entrance end (322; 422) and the tube exit end (326; 426) are in fluid communication with the bypass airflow channel, and the cooling tube (321; 421) is configured to allow a cooling bypass airflow (332; 432) to enter the tube interior through the tube entrance end (322; 422) and exit the tube interior through the tube exit end (326; 426); wherein the chamber further comprises a chamber side surface (313; 413) coupled to the chamber outboard surface (312; 412); and characterised in that: the chamber side surface (313; 413) comprises a side surface inlet (315; 415) configured to allow a hot secondary airflow (336; 436) into the chamber interior (308; 408) and physically contact the cooling tubes to cool the hot secondary airflow (336; 436) via heat exchange with the cooling bypass airflow (332; 432) passing through the cooling tube (321; 421). an engine core; a heat exchanger (320; 420) coupled to the engine core, wherein the heat exchanger (320; 420) comprises a heat exchanger base and a cooling tube (321; 421), the cooling tube (321; 421) is disposed inside the engine core, and the cooling tube (321; 421) comprises a tube entrance end (322; 422) coupled to the heat exchanger base, a tube exit end (326; 426) coupled to the heat exchanger base, and a tube body between the tube entrance end (322; 422) and the tube exit end (326; 426), the tube body encompassing a tube interior; wherein the engine core comprises a chamber comprising a chamber outboard surface (312; 412) and a chamber interior (308; 408), wherein the heat exchanger (320; 420) is coupled to the chamber outboard surface (312; 412), and the cooling tube (321; 421) is disposed within the chamber interior (308; 408); and a bypass airflow channel existing outside of the engine core, wherein the bypass airflow channel is configured to allow a bypass airflow;
Ostomy bag assembly comprising an outer bag with a base plate coupling element attached to an edge of an outer bag main aperture, an inner bag with an inner bag main aperture, which in operation is aligned with the outer bag main aperture, the inner bag being provided with a liquid sealing and gas permeable barrier device designed to allow gas to escape the inner bag to inflate the outer bag so as to prevent pancaking of the outer bag, wherein the outer bag is provided with a three position filter device, wherein the three position filter device is arranged to have a first, second and third operational position each allowing a different amount of gas to be guided out from the outer bag, wherein the three position filter device comprises a shutter member in movable engagement with a filter body attached to the outer bag, and wherein the first, second and third positions form a linear or circular arrangement and the shutter member being linearly or rotationally moveable with respect to the filter body, respectively, so as to select between said first, second and third positions.
A drive system of a power transmission assembly for tandem axles with at least one attachment/detachment device comprising an actuator working in cooperation with a return element for axial movement of a fork that connects to a sleeve characterized by having a spline within its internal diameter for connecting to an intermediate sun gear, and tines on its lateral faces for providing interconnections with a transmission gear and the housing of a differential unit of said power transmission assembly.
An acoustic transducer comprising: a first acoustic module comprising a first vibrating plate, a first rod, a second rod, a first motor and a second motor, wherein the first rod connected to and driven by the first motor, the second rod is connected to and driven by the second motor and the first vibrating plate is connected to the first rod and the second rod; and a second acoustic module comprising a second vibrating plate, a third rod, a fourth rod, a third motor and a fourth motor, wherein the third rod connected to and driven by the third motor, the fourth rod is connected to and driven by the fourth motor and the second vibrating plate is connected to the third rod and the fourth rod, wherein the first rod and the third rod are coaxially arranged separate rods, the second rod and the fourth rod are coaxially arranged separate rods. a first acoustic module comprising a first vibrating plate, a first rod, a second rod, a first motor and a second motor, wherein the first rod connected to and driven by the first motor, the second rod is connected to and driven by the second motor and the first vibrating plate is connected to the first rod and the second rod; and a second acoustic module comprising a second vibrating plate, a third rod, a fourth rod, a third motor and a fourth motor, wherein the third rod connected to and driven by the third motor, the fourth rod is connected to and driven by the fourth motor and the second vibrating plate is connected to the third rod and the fourth rod, wherein the first rod and the third rod are coaxially arranged separate rods, the second rod and the fourth rod are coaxially arranged separate rods.
A modular screening panel in which the apertures in the screening surface extend through the surface characterised in that the shape of the aperture parallel the plane of the panel surface varies with the depth of the aperture so that as the surface wears the visible shape of the aperture changes.
An electrical connector for motor vehicles, the connector comprising a body having at least one receiving portion for an electrical conductor end to be connected to a corresponding electrical conductor end, wherein it comprises a lid for covering the electrical conductor receiving portion, with the lid capable of being positioned in: - at least one operating position in which the lid is closed to the body; - at least one non-operating position in which the lid is open such that at least one electrical conductor is capable of being accessed and released and - a lid intermediate position in which the lid protrudes from the body and in which the lid retains the at least one electrical conductor in the body said lid being capable of being flexed when said connector is passed through a small opening such as a vehicle hollow shaft; wherein the lid includes an inner retaining portion protruding inwards from the lid into the body for retaining the at least one electrical conductor fitted in the body in at least said lid operating position and said lid intermediate position, and wherein the lid further includes at least one flange adapted to be coupled to a coupling portion of the connector body in order to retain the lid in said operating and intermediate positions, characterized in that the coupling portion comprises a body provided with at least two selective coupling projections projecting outwards into at least one corresponding hollow portion formed in the flange for allowing the lid to be arranged either in the intermediate position or the operating position. - at least one operating position in which the lid is closed to the body; - at least one non-operating position in which the lid is open such that at least one electrical conductor is capable of being accessed and released and - a lid intermediate position in which the lid protrudes from the body and in which the lid retains the at least one electrical conductor in the body said lid being capable of being flexed when said connector is passed through a small opening such as a vehicle hollow shaft;
A silane modified copolymer that is the reaction product of an aminosilane and an isocyanate functional copolymer, wherein the isocyanate functional copolymer is the reaction product of: a polyether polyol having a molecular weight greater than 6000, wherein the molecular weight is defined and measured as indicated in the specification; an amine based diol containing secondary hydroxyl groups and having a number average molecular weight of less than 3000, measured as indicated in the specification; and, a cycloaliphatic diisocyanate. a polyether polyol having a molecular weight greater than 6000, wherein the molecular weight is defined and measured as indicated in the specification; an amine based diol containing secondary hydroxyl groups and having a number average molecular weight of less than 3000, measured as indicated in the specification; and, a cycloaliphatic diisocyanate.
A hearing device configured to be placed in the ear canal of a user, the hearing device comprising a forward path adapted for processing an input sound and providing an output sound representative of the input sound, the hearing device comprising an assembly comprising first and second modules adapted for being in mechanical contact with each other when the hearing device is operationally assembled to form a functional unit, wherein the first module comprises a power supply unit, and the second module comprises an input unit, a signal processing unit and an output unit in operational connection, wherein the first and second modules are configured to provide that • the first and second modules are reversibly attachable to and detachable from each other; and • the first and second modules are electrically connected to provide that units of the second module are energized by the power supply unit of the first module, when the first and second modules are operationally assembled, wherein said first module comprises a through-going elongate opening adapted to receive said second module such that said opening of the first module fully accommodates the second module in a removable and circumventing manner. the first module comprises a power supply unit, and the second module comprises an input unit, a signal processing unit and an output unit in operational connection, wherein the first and second modules are configured to provide that • the first and second modules are reversibly attachable to and detachable from each other; and • the first and second modules are electrically connected to provide that units of the second module are energized by the power supply unit of the first module, when the first and second modules are operationally assembled, • the first and second modules are reversibly attachable to and detachable from each other; and • the first and second modules are electrically connected to provide that units of the second module are energized by the power supply unit of the first module, when the first and second modules are operationally assembled, wherein said first module comprises a through-going elongate opening adapted to receive said second module such that said opening of the first module fully accommodates the second module in a removable and circumventing manner.
An injection nozzle for use in injecting lubricating oil into cylinders in large engines and adapted with mounting means for fastening in a cylinder wall, with a nozzle rod extending through the cylinder wall and with at least one nozzle outlet at the inner end of the nozzle rod, the nozzle rod including a valve with a cylindrical valve seat boring in which is provided a displaceable valve body having a cylindrical sealing surface (3a, 3b) which interacts with the cylindrical valve seat boring of the nozzle rod, the valve body having an enlarged head at its outer end with a contact face for a spring disposed around the valve body for establishing a spring-loaded closing of the valve, the nozzle rod including a passage for pressurised oil for supplying pressurised oil to a pressure chamber in which the pressurised oil can exert a force on the valve body so that it is displaced against the action of the spring for opening the valve and establishing an overpressure injection of oil through the nozzle outlet until the oil pressure drops such that the spring establishes an efficient closing of the valve, characterised in that the valve body is formed by a cylindrical rod which has a turned recess in the cylindrical sealing face (3a, 3b) of the valve body, that the turned recess is arranged at the inner end of the valve body, with parts of the cylindrical sealing face (3a, 3b) of the valve body at each their side of the turned recess, for being connected with the nozzle outlet at the forward displacement of the valve body against the action of the spring, that the pressure chamber of the nozzle rod is formed by a pressure chamber boring with greater diameter than the valve seat boring for forming a pressure chamber in which the spring is located, and that the pressure chamber via a pressurised oil supply duct (20a, 62, 67) is connected with the turned recess in the valve body.
A method for preparing a copolymer comprising: 1) combining starting materials comprising A) a silane grafted polyolefin comprising units of formulae where each R is independently selected from a monovalent hydrocarbon group of 1 to 18 carbon atoms or a monovalent halogenated hydrocarbon group of 1 to 18 carbon atoms, each R 1 is independently a divalent hydrocarbon group of 2 to 50 carbon atoms, each R 5 is independently selected from R or OR, and each R 15 is independently H, a monovalent hydrocarbon group of 1 to 18 carbon atoms or a monovalent halogenated hydrocarbon group of 1 to 18 carbon atoms, subscript m ≥ 1, and subscript n ≥ 1; B) a polyorganosiloxane of formula where R 6 is H; and each R 7 is independently selected from R and R 6; C) a Lewis acid catalyst; and D) a solvent; thereby preparing a reaction product comprising a graft copolymer. 1) combining starting materials comprising A) a silane grafted polyolefin comprising units of formulae where each R is independently selected from a monovalent hydrocarbon group of 1 to 18 carbon atoms or a monovalent halogenated hydrocarbon group of 1 to 18 carbon atoms, each R 1 is independently a divalent hydrocarbon group of 2 to 50 carbon atoms, each R 5 is independently selected from R or OR, and each R 15 is independently H, a monovalent hydrocarbon group of 1 to 18 carbon atoms or a monovalent halogenated hydrocarbon group of 1 to 18 carbon atoms, subscript m ≥ 1, and subscript n ≥ 1; B) a polyorganosiloxane of formula where R 6 is H; and each R 7 is independently selected from R and R 6; C) a Lewis acid catalyst; and D) a solvent; thereby preparing a reaction product comprising a graft copolymer. A) a silane grafted polyolefin comprising units of formulae where each R is independently selected from a monovalent hydrocarbon group of 1 to 18 carbon atoms or a monovalent halogenated hydrocarbon group of 1 to 18 carbon atoms, each R 1 is independently a divalent hydrocarbon group of 2 to 50 carbon atoms, each R 5 is independently selected from R or OR, and each R 15 is independently H, a monovalent hydrocarbon group of 1 to 18 carbon atoms or a monovalent halogenated hydrocarbon group of 1 to 18 carbon atoms, subscript m ≥ 1, and subscript n ≥ 1; B) a polyorganosiloxane of formula where R 6 is H; and each R 7 is independently selected from R and R 6; C) a Lewis acid catalyst; and D) a solvent; thereby preparing a reaction product comprising a graft copolymer.
A traffic aggregation unit comprising: a first interface to a first LAN access device for a first LAN; a second interface to a first WAN backhaul; a third interface to a second WAN backhaul; and wherein the traffic aggregation unit is arranged to form a logically bonded WAN interface comprising the first WAN backhaul connection and the second WAN backhaul connection, to provide the first LAN with WAN connectivity, wherein the first WAN backhaul and the second WAN backhaul are physically and logically distinct. a first interface to a first LAN access device for a first LAN; a second interface to a first WAN backhaul; a third interface to a second WAN backhaul; and wherein the traffic aggregation unit is arranged to form a logically bonded WAN interface comprising the first WAN backhaul connection and the second WAN backhaul connection, to provide the first LAN with WAN connectivity, wherein the first WAN backhaul and the second WAN backhaul are physically and logically distinct.