mhurhangee/ep-ind-claims huggingface dataset:
A sample cell for a light scattering detector, comprising: a body defining a flowpath extending axially therethrough, the flowpath comprising an inner section interposed between a first outer section and a second outer section, wherein the first outer section is frustoconical, and a first end portion of the first outer section is in direct fluid communication with the inner section and has a cross-sectional area relatively less than a cross-sectional area at a second end portion thereof, wherein the second outer section is frustoconical, and a first end portion of the second outer section is in direct fluid communication with the inner section and has a cross-sectional area relatively less than a cross-sectional area at a second end portion thereof, and wherein the body further defines an inlet in direct fluid communication with the inner section and configured to direct a sample to the inner section of the flowpath, characterised in that: the inner section is cylindrical and has a length extending between the first and second outer sections of 4 mm or greater. a body defining a flowpath extending axially therethrough, the flowpath comprising an inner section interposed between a first outer section and a second outer section, wherein the first outer section is frustoconical, and a first end portion of the first outer section is in direct fluid communication with the inner section and has a cross-sectional area relatively less than a cross-sectional area at a second end portion thereof, wherein the second outer section is frustoconical, and a first end portion of the second outer section is in direct fluid communication with the inner section and has a cross-sectional area relatively less than a cross-sectional area at a second end portion thereof, and wherein the body further defines an inlet in direct fluid communication with the inner section and configured to direct a sample to the inner section of the flowpath, characterised in that: the inner section is cylindrical and has a length extending between the first and second outer sections of 4 mm or greater.
A communication apparatus comprising: a transmission modulator for impulse-modulating transmission data and generating subcarriers; a carrier control section for controlling the suboarriers for use in communication depending upon information amount, significance and communication propagation condition; and an antenna section for radiating the subcarrier signals, characterised in that the transmission modulator assigns a narrower band to the subcarrier having a lower center frequency and a broader band to the subcarrier having a higher center frequency. a transmission modulator for impulse-modulating transmission data and generating subcarriers; a carrier control section for controlling the suboarriers for use in communication depending upon information amount, significance and communication propagation condition; and an antenna section for radiating the subcarrier signals, characterised in that the transmission modulator assigns a narrower band to the subcarrier having a lower center frequency and a broader band to the subcarrier having a higher center frequency.
Process for preparing a copolymer having an agglomerating effect, obtained by i) polymerizing: 80 to 99.9% by weight of one or more hydrophobic C 1 - to C 12 - alkyl acrylates or C 1 - to C 12 - alkyl methacrylates, ii) adding at least one emulsifier, iii) adding and polymerizing: 0.1 to 20% by weight of one or more hydrophilic comonomers selected from the group consisting of acrylamide and methacrylamide, wherein and add up to 100% by weight, wherein the addition of is carried out after the addition of in step ii). i) polymerizing: 80 to 99.9% by weight of one or more hydrophobic C 1 - to C 12 - alkyl acrylates or C 1 - to C 12 - alkyl methacrylates, ii) adding at least one emulsifier, iii) adding and polymerizing: 0.1 to 20% by weight of one or more hydrophilic comonomers selected from the group consisting of acrylamide and methacrylamide, wherein and add up to 100% by weight,
A health parameter monitoring system comprising: a sensor patch adapted to be in contact with a human skin surface, the sensor patch comprising a plurality of sensors for measuring physiological or pathological parameters of a user, wherein the plurality of sensors are implemented as microneedles comprising accelerometers present at distal tips, for filtering signal noise present in captured data; a control unit, wherein the control unit is releasably receivable in a cradle of the sensor patch, and wherein the control unit is in electrical communication with the plurality of sensors when the control unit is in the cradle; a cap, wherein the cap is configured to releasably couple with the sensor patch to detain the control unit in the cradle, and wherein the cap includes a user interface that is configured to provide indications related to the functioning of the health parameter monitoring system; and a biometric interface, wherein the biometric interface is configured to detect a biometric characteristic of the user, of the health parameter monitoring system. a sensor patch adapted to be in contact with a human skin surface, the sensor patch comprising a plurality of sensors for measuring physiological or pathological parameters of a user, wherein the plurality of sensors are implemented as microneedles comprising accelerometers present at distal tips, for filtering signal noise present in captured data; a control unit, wherein the control unit is releasably receivable in a cradle of the sensor patch, and wherein the control unit is in electrical communication with the plurality of sensors when the control unit is in the cradle; a cap, wherein the cap is configured to releasably couple with the sensor patch to detain the control unit in the cradle, and wherein the cap includes a user interface that is configured to provide indications related to the functioning of the health parameter monitoring system; and a biometric interface, wherein the biometric interface is configured to detect a biometric characteristic of the user, of the health parameter monitoring system.
A method of generating a holographic reconstruction of an object using a display device, the display device including a light source, an optical system, a light modulator (SLM, HA), a position detection and tracking device, and a computer, the light source and the optical system being arranged to illuminate the light modulator (SLM, HA); the method comprising the steps of: detecting a position of an eye of an observer with the position detection and tracking device, arranging the display device such that a Fourier Transform of the light modulator (SLM, HA) is formed in a plane of the eye of the observer by arranging the optical system to image the light source into the observer plane, arranging the display device such that the eye of the observer is located within one diffraction order of said Fourier Transform, thereby defining an observer window, the computer calculating by wave propagation, the wavefronts generated by a real version of the object at the observer window, generating a hologram from the calculated wavefronts, and encoding the generated hologram on the light modulator (SLM, HA) such that, within the observer window, the wavefronts interfere in a way that leads to the reconstructed object being visible to the observer. detecting a position of an eye of an observer with the position detection and tracking device, arranging the display device such that a Fourier Transform of the light modulator (SLM, HA) is formed in a plane of the eye of the observer by arranging the optical system to image the light source into the observer plane, arranging the display device such that the eye of the observer is located within one diffraction order of said Fourier Transform, thereby defining an observer window, the computer calculating by wave propagation, the wavefronts generated by a real version of the object at the observer window, generating a hologram from the calculated wavefronts, and encoding the generated hologram on the light modulator (SLM, HA) such that, within the observer window, the wavefronts interfere in a way that leads to the reconstructed object being visible to the observer.
An integrated circuit apparatus, comprising: a first insulator, the first insulator being substantially planar and having a first top surface and a first bottom surface opposite the first top surface; a first conductor (211, 212, 213) disposed on the first insulator; a second insulator, the second insulator being substantially planar and having a second top surface and a second bottom surface opposite the second top surface; and a second conductor (221, 222, 223) disposed on the second insulator; a dielectric layer disposed between a first portion of the first conductor (211, 212, 213) and a first portion of the second conductor (221, 222, 223); wherein: a capacitor is formed by the first portion of the first conductor (211, 212, 213) disposed on the first insulator, the first portion of the second conductor (221, 222, 223) disposed on the second insulator, and the dielectric layer; and an inductor is formed by a second portion of the first conductor (211, 212, 213) disposed on the first insulator, a second portion of the second conductor (221, 222, 223) disposed on the second insulator, and at least one conductive coupling disposed between the second portion of the first conductor (211, 212, 213) and the second portion of the second conductor (221, 222, 223). a first insulator, the first insulator being substantially planar and having a first top surface and a first bottom surface opposite the first top surface; a first conductor (211, 212, 213) disposed on the first insulator; a second insulator, the second insulator being substantially planar and having a second top surface and a second bottom surface opposite the second top surface; and a second conductor (221, 222, 223) disposed on the second insulator; a dielectric layer disposed between a first portion of the first conductor (211, 212, 213) and a first portion of the second conductor (221, 222, 223); wherein: a capacitor is formed by the first portion of the first conductor (211, 212, 213) disposed on the first insulator, the first portion of the second conductor (221, 222, 223) disposed on the second insulator, and the dielectric layer; and an inductor is formed by a second portion of the first conductor (211, 212, 213) disposed on the first insulator, a second portion of the second conductor (221, 222, 223) disposed on the second insulator, and at least one conductive coupling disposed between the second portion of the first conductor (211, 212, 213) and the second portion of the second conductor (221, 222, 223). a capacitor is formed by the first portion of the first conductor (211, 212, 213) disposed on the first insulator, the first portion of the second conductor (221, 222, 223) disposed on the second insulator, and the dielectric layer; and an inductor is formed by a second portion of the first conductor (211, 212, 213) disposed on the first insulator, a second portion of the second conductor (221, 222, 223) disposed on the second insulator, and at least one conductive coupling disposed between the second portion of the first conductor (211, 212, 213) and the second portion of the second conductor (221, 222, 223).
A composition comprising a fructosamine-3-kinase and adenosine tri phosphate for use to treat age-related macular degeneration, diabetic retinopathy and/or diabetic macular edema in a human or an animal.
A method performed by a User Equipment, UE, for handling communication with a first Radio Access Network, RAN, node associated with a first Radio Access Technology, RAT, and a second RAN node associated with a second RAT, wherein the UE, the first RAN node and the second RAN node are operating in a wireless communication network, and wherein the UE is in inactive state in the first RAT when being registered through the first RAN node, the method comprising: - performing a registration through the second RAN node while retaining a stored inactive Access Stratum, AS, context related to the first RAN node, wherein a dual registration timer is used for retaining the stored inactive context, thereby having a dual registration to the first RAN node and the second RAN node; and - entering a state in the second RAT while remaining in the inactive state in the first RAT, wherein the UE is located on or close to a radio coverage border of the first RAT and the second RAT. - performing a registration through the second RAN node while retaining a stored inactive Access Stratum, AS, context related to the first RAN node, wherein a dual registration timer is used for retaining the stored inactive context, thereby having a dual registration to the first RAN node and the second RAN node; and - entering a state in the second RAT while remaining in the inactive state in the first RAT, wherein the UE is located on or close to a radio coverage border of the first RAT and the second RAT.
A mineral wool insulation panel having a height of at least 160 cm and a width of at least 60cm comprising an upper band located towards an upper edge of the panel, a lower band located towards the lower edge of the panel and a central band positioned between the upper and lower bands, each of the bands extending substantially across the width of the panel, characterized in that the mineral wool panel is a single piece mineral wool insulation panel and in that the density of the mineral wool at the central band is different from the density at the upper band and/or the lower band and in which the density of the mineral wool insulation at each of the upper and lower bands is within the range 100 to 300 kg/m 3.
A tube coupling to receive and hold a tube, the coupling comprising a coupling body having a throughway open at one end to receive an end portion of tube, an annular step in the throughway facing the open end to provide an end stop for a tube, an annular seal located in the coupling body adjacent to the annular step, an end cap engaging the coupling body for axial movement between forward and retracted positions on the body, the end cap having an opening for the end portion of the tube to extend therethrough, a collet in the end cap to allow insertion of the tube into the collet and having a plurality of legs with outer surfaces that engage with a tapered surface in the end cap which urges the legs inwardly to resist withdrawal of the tube, the seal being arranged to be compressed axially in response to forward movement of the end cap to cause the tube end to be pressed into sealing engagement with the seal; characterised by a biasing member which provides a biasing force to urge the legs axially onto the tapered surface when the end cap is in the retracted position.
A non-invasive method for identifying a cancer-patient disposed to respond favorably to a therapeutic antibody, which method comprises: (a) directing excitation light of at least one predetermined wavelength onto a predetermined region of said patient, (b) receiving emission light emitted from said predetermined region from a fluorescently labeled antibody with a wavelength distinguishable from to the predetermined wavelength of (a), wherein said cancer-patient is one who had received said therapeutic antibody in a fluorescently labeled form prior to the identification; and wherein the method further comprises detecting, ex vivo, the fluorescently labeled antibody and thereby a subset of tumor cells in a tissue sample obtained from said patient by direct or indirect immunohistochemistry, wherein said patient is one who had received the fluorescently labeled antibody prior to the removal of said tissue sample, thereby identifying a cancer-patient whose tumor cells are labeled by said antibody, said patient being disposed to respond favorably to said therapeutic antibody. (a) directing excitation light of at least one predetermined wavelength onto a predetermined region of said patient, (b) receiving emission light emitted from said predetermined region from a fluorescently labeled antibody with a wavelength distinguishable from to the predetermined wavelength of (a),
A method of producing a powdered hydrophilic modified polyrotaxane, comprising: a hydrophilic modification step of preparing a solution of a hydrophilic modified polyrotaxane by modifying all or part of hydroxy groups on a cyclodextrin of a polyrotaxane with hydrophilic modifying groups, the polyrotaxane containing the cyclodextrin, a polyethylene glycol included in the cavities of the cyclodextrin molecules in a skewered manner, and a capping group that is placed at each end of the polyethylene glycol and prevents dissociation of the cyclodextrin molecules from the polyethylene glycol; and a drying step of spraying the prepared solution of the hydrophilic modified polyrotaxane and drying the solution of the hydrophilic modified polyrotaxane in a heated gas stream. a hydrophilic modification step of preparing a solution of a hydrophilic modified polyrotaxane by modifying all or part of hydroxy groups on a cyclodextrin of a polyrotaxane with hydrophilic modifying groups, the polyrotaxane containing the cyclodextrin, a polyethylene glycol included in the cavities of the cyclodextrin molecules in a skewered manner, and a capping group that is placed at each end of the polyethylene glycol and prevents dissociation of the cyclodextrin molecules from the polyethylene glycol; and a drying step of spraying the prepared solution of the hydrophilic modified polyrotaxane and drying the solution of the hydrophilic modified polyrotaxane in a heated gas stream.
Food preparation device (100; 100'; 100") comprising: - a driver (20; 20'; 20") mobile in rotation about a first rotation axis (1; 1'; 1"), - at least one spiral cutting tool (10; 10'; 10"), comprising a supporting wall (12; 12'; 12") extending about a second rotation axis (11; 11'; 11"), at least one cutting blade (13; 13") extending to the second rotation axis (11; 11'; 11"), with a passage (14; 14") adjacent to said at least one cutting blade (13; 13"), - a body (30; 30'; 30") arranged to receive said at least one cutting tool (10; 10'; 10") so that it can be moved in a working space (32; 32'; 32") arranged in said body (30; 30'; 30"), - at least one driver portion (20a; 20a'; 20a") driven by the driver (20; 20'; 20") and arranged to mesh with said at least one cutting tool (10; 10'; 10"), in order to drive in rotation said at least one cutting tool (10; 10'; 10") about the second rotation axis (11; 11'; 11"), characterised in that the second rotation axis (11; 11'; 11") is inclined with respect to the first rotation axis (1; 1'; 1"). - a driver (20; 20'; 20") mobile in rotation about a first rotation axis (1; 1'; 1"), - at least one spiral cutting tool (10; 10'; 10"), comprising a supporting wall (12; 12'; 12") extending about a second rotation axis (11; 11'; 11"), at least one cutting blade (13; 13") extending to the second rotation axis (11; 11'; 11"), with a passage (14; 14") adjacent to said at least one cutting blade (13; 13"), - a body (30; 30'; 30") arranged to receive said at least one cutting tool (10; 10'; 10") so that it can be moved in a working space (32; 32'; 32") arranged in said body (30; 30'; 30"), - at least one driver portion (20a; 20a'; 20a") driven by the driver (20; 20'; 20") and arranged to mesh with said at least one cutting tool (10; 10'; 10"), in order to drive in rotation said at least one cutting tool (10; 10'; 10") about the second rotation axis (11; 11'; 11"), characterised in that the second rotation axis (11; 11'; 11") is inclined with respect to the first rotation axis (1; 1'; 1").
A protection arrangement (10; 100; 200; 300; 400; 500; 600; 800; 900) for a switching device (22; 122), comprising: a thyristor having main current-carrying terminals which in use are connected in reverse parallel with a switching device (22; 122) to be protected, whereby during normal operation of the switching device (22; 122) a reverse voltage is applied to the thyristor; and characterized in that the protection arrangement further comprises: a trigger circuit operatively connected with a gate control terminal of the thyristor, the trigger circuit being configured to apply a voltage to the gate control terminal of the thyristor when the reverse voltage applied to the thyristor reaches a safety threshold voltage (V 2) whereby the thyristor fails and presents an irreversible short-circuit across the main current-carrying terminals of the switching device (22; 122). a thyristor having main current-carrying terminals which in use are connected in reverse parallel with a switching device (22; 122) to be protected, whereby during normal operation of the switching device (22; 122) a reverse voltage is applied to the thyristor; and characterized in that the protection arrangement further comprises: a trigger circuit operatively connected with a gate control terminal of the thyristor, the trigger circuit being configured to apply a voltage to the gate control terminal of the thyristor when the reverse voltage applied to the thyristor reaches a safety threshold voltage (V 2) whereby the thyristor fails and presents an irreversible short-circuit across the main current-carrying terminals of the switching device (22; 122).
Asymmetric bonding means for fixation of two different bonding partners, comprising a first adhesive layer and a second adhesive layer arranged opposite to the first adhesive layer, the first adhesive layer comprises at least one reactive adhesive, the reactive adhesive being embodied as a latently reactive adhesive, comprising at least one polyurethane and a melting point of at least 35°C and at most 70°C and exhibiting thermoplastic properties in an un-cured state, wherein the first adhesive layer has no tacky surfaces in a cured state of the reactive adhesive, and wherein the second adhesive layer comprises at least one thermoplastic adhesive, the thermoplastic adhesive comprising at least one copolyester elastomer and a melting point of at least 90°C.
A moving robot comprising: a body; a traveler configured to move the body; a boundary signal detector configured to detect a boundary signal generated in a boundary of a traveling area and a docking position signal generated in a docking device; a sensor configured to sense an acceleration of the body; and a controller configured to define the traveling area based on the boundary signal, characterized in that: a position correction of the moving robot is required when a preset time elapses from a traveling start of the moving robot, and when the position correction of the moving robot is required while the moving robot travels the traveling area, the controller is configured to reset a position of a moving robot based on a position of the docking device after the moving robot moves to the docking device, wherein the position is reset, thereby reducing the accumulation of positional errors between a position of the moving robot on a map and an actual position of the moving robot. a body; a traveler configured to move the body; a boundary signal detector configured to detect a boundary signal generated in a boundary of a traveling area and a docking position signal generated in a docking device; a sensor configured to sense an acceleration of the body; and a controller configured to define the traveling area based on the boundary signal, characterized in that: a position correction of the moving robot is required when a preset time elapses from a traveling start of the moving robot, and when the position correction of the moving robot is required while the moving robot travels the traveling area, the controller is configured to reset a position of a moving robot based on a position of the docking device after the moving robot moves to the docking device, wherein the position is reset, thereby reducing the accumulation of positional errors between a position of the moving robot on a map and an actual position of the moving robot.