mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying a tumor antigen comprising: co-culturing tumor material isolated from a subject with peripheral blood mononuclear cells (PBMCs) in the presence of an IL-21 composition and antigen presenting cells (APCs); isolating a CD8+ T cell population from the culture, wherein the number of tumor antigen specific T cells produced is more than 20 to 30 times greater than the number of tumor antigen specific T cells produced in the absence of IL-21; cloning individual CD8+ T cells from the CD8+ T cell population; and identifying the antigen by characterizing the T cell clones for antigen-specificity. co-culturing tumor material isolated from a subject with peripheral blood mononuclear cells (PBMCs) in the presence of an IL-21 composition and antigen presenting cells (APCs); isolating a CD8+ T cell population from the culture, wherein the number of tumor antigen specific T cells produced is more than 20 to 30 times greater than the number of tumor antigen specific T cells produced in the absence of IL-21; cloning individual CD8+ T cells from the CD8+ T cell population; and identifying the antigen by characterizing the T cell clones for antigen-specificity.
An illumination unit comprising: a plurality of semiconductor light sources (LD1, LD2)adapted to emit lights with different spectra from each other in accordance with inputted driving signals; a target light quantity setting unit adapted to set a target light quantity for a total outgoing light quantity which is obtained by summing up quantities of the lights emitted from the semiconductor light sources; a light quantity ratio setting unit adapted to set an outgoing light quantity ratio among the semiconductor light sources; and a driving signal generating unit adapted to generate the driving signals by use of common pulse modulation control corresponding to the target light quantity while keeping the set amplitude values; and an amplitude value setting unit adapted to set amplitude values of driving signals for the semiconductor light sources, respectively, based on the set outgoing light ratio. a plurality of semiconductor light sources (LD1, LD2)adapted to emit lights with different spectra from each other in accordance with inputted driving signals; a target light quantity setting unit adapted to set a target light quantity for a total outgoing light quantity which is obtained by summing up quantities of the lights emitted from the semiconductor light sources; a light quantity ratio setting unit adapted to set an outgoing light quantity ratio among the semiconductor light sources; and a driving signal generating unit adapted to generate the driving signals by use of common pulse modulation control corresponding to the target light quantity while keeping the set amplitude values; and an amplitude value setting unit adapted to set amplitude values of driving signals for the semiconductor light sources, respectively, based on the set outgoing light ratio.
A method of preparing a (meth)acrylonitrile-based polymer for preparing a carbon fiber, comprising: adding a reaction solution comprising a (meth)acrylonitrile-based monomer selected from the group consisting of acrylonitrile and methacrylonitrile and optionally one or more co-monomers selected from the group consisting of a carboxylic acid-based monomer and a (meth)acrylate-based monomer, wherein the carboxylic acid-based monomer is selected from the group consisting of acrylic acid, methacrylic acid, ethacrylic acid, itaconic acid, crotonic acid, citraconic acid, maleic acid and mesaconic acid, and wherein the (meth)acrylate-based monomer is selected from the group consisting of methyl acrylate, ethyl acrylate, propyl acrylate, methyl methacrylate, ethyl methacrylate and propyl methacrylate, and a reaction solvent to a reactor to perform solution polymerization, wherein the reaction solution includes the reaction solvent at 250 to 500 parts by weight with respect to 100 parts by weight of the (meth)acrylonitrile-based monomer; performing solution polymerization under a condition in which a power consumption of the reactor is 1 to 5 kW/m 3 when the reaction solution in the reactor has a viscosity of 0.1 poise or more and 250 poise or less; and performing solution polymerization under a condition in which a power consumption of the reactor is 8 to 13 kW/m 3 when the reaction solution in the reactor has a viscosity of more than 250 poise and 450 poise or less, wherein the viscosity is measured as disclosed in the specification. adding a reaction solution comprising a (meth)acrylonitrile-based monomer selected from the group consisting of acrylonitrile and methacrylonitrile and optionally one or more co-monomers selected from the group consisting of a carboxylic acid-based monomer and a (meth)acrylate-based monomer, wherein the carboxylic acid-based monomer is selected from the group consisting of acrylic acid, methacrylic acid, ethacrylic acid, itaconic acid, crotonic acid, citraconic acid, maleic acid and mesaconic acid, and wherein the (meth)acrylate-based monomer is selected from the group consisting of methyl acrylate, ethyl acrylate, propyl acrylate, methyl methacrylate, ethyl methacrylate and propyl methacrylate, and a reaction solvent to a reactor to perform solution polymerization, wherein the reaction solution includes the reaction solvent at 250 to 500 parts by weight with respect to 100 parts by weight of the (meth)acrylonitrile-based monomer; performing solution polymerization under a condition in which a power consumption of the reactor is 1 to 5 kW/m 3 when the reaction solution in the reactor has a viscosity of 0.1 poise or more and 250 poise or less; and performing solution polymerization under a condition in which a power consumption of the reactor is 8 to 13 kW/m 3 when the reaction solution in the reactor has a viscosity of more than 250 poise and 450 poise or less, wherein the viscosity is measured as disclosed in the specification.
A method, comprising: determining or modifying by a server session parameters to be associated with a periodic assistance data delivery session, the periodic assistance data being for assisted navigation systems; initiating, based on the determined session parameters, or continuing, based on the modified session parameters, the periodic assistance data delivery session to provide periodic assistance data to a device; and indicating the determined or modified session parameters by the server to the device. determining or modifying by a server session parameters to be associated with a periodic assistance data delivery session, the periodic assistance data being for assisted navigation systems; initiating, based on the determined session parameters, or continuing, based on the modified session parameters, the periodic assistance data delivery session to provide periodic assistance data to a device; and indicating the determined or modified session parameters by the server to the device.
A printing layer comprising a plurality of layers, wherein the printing layer comprises a first layer having a blend of at least one high absorption capacity material and at least one low absorption capacity material, and a second layer having a blend of at least one high absorption capacity material and at least one low absorption capacity material, wherein the at least one high absorption capacity material is selected from the group consisting of poly(methyl methacrylate), modified poly(methyl methacrylate), polystyrene, polyethylene terephthalate glycol-modified, impact modified polystyrene, styrene acrylic copolymer, styrene-olefin copolymer, styrene-acrylic-olefin copolymer, acrylonitrile butadiene styrene polymer, styrene acrylonitrile polymer, and copolyester polymer, the at least one low absorption capacity material comprises an olefin polymer, and wherein a morphological gradient is present between at least two adjacent layers within the printing layer.
An air cell (C1 to C9) comprising: a plurality of electrode structures each including a filling chamber for an electrolyte liquid interposed between an air electrode and a metal negative electrode; an electrode housing portion individually housing the plural electrode structures; and a liquid supply unit which supplies the electrolyte liquid to the plural electrode structures, wherein the plurality of electrode structures are arranged in series in the electrode housing portion, the electrode housing portion includes a plurality of liquid injection holes to inject the electrolyte liquid into the filling chambers of the respective electrode structures and a plurality of liquid junction prevention portions (51 to 58) each dividing a space between the plurality of liquid injection holes adjacent to each other, the liquid supply unit includes a storage tank for the electrolyte liquid and a liquid injection device controlling the electrolyte liquid in the storage tank to flow into the plurality of liquid injection holes, the liquid injection device including a switching valve and being located at a position vertically separate from the liquid junction prevention portions (51 to 58), and the liquid injection device and the liquid injection holes are separated from each other and there is no interposition between the liquid injection device and the liquid injection holes. a plurality of electrode structures each including a filling chamber for an electrolyte liquid interposed between an air electrode and a metal negative electrode; an electrode housing portion individually housing the plural electrode structures; and a liquid supply unit which supplies the electrolyte liquid to the plural electrode structures, wherein the plurality of electrode structures are arranged in series in the electrode housing portion, the electrode housing portion includes a plurality of liquid injection holes to inject the electrolyte liquid into the filling chambers of the respective electrode structures and a plurality of liquid junction prevention portions (51 to 58) each dividing a space between the plurality of liquid injection holes adjacent to each other, the liquid supply unit includes a storage tank for the electrolyte liquid and a liquid injection device controlling the electrolyte liquid in the storage tank to flow into the plurality of liquid injection holes, the liquid injection device including a switching valve and being located at a position vertically separate from the liquid junction prevention portions (51 to 58), and the liquid injection device and the liquid injection holes are separated from each other and there is no interposition between the liquid injection device and the liquid injection holes.
A vibration damping system for a motor vehicle transmission, comprising: - a support member capable of being driven rotationally around an axis X and having a plurality of outer raceways; and - a plurality of pendulum flyweights distributed circumferentially around the axis X and each having two inner raceways (14, 15) that are radially internal with respect to the outer raceways; - each of the pendulum flyweights being mounted oscillatingly with respect to the support member by means of two rolling bodies (12, 13) that interact respectively with one and the other of the two inner raceways (14, 15) of said pendulum flyweight and each interact with one of the outer raceways of the support member in order to guide the oscillating movement of said pendulum flyweight with respect to said support member, - said damping system being characterized in that the outer raceways are juxtaposed one after another continuously around the axis X so that each rolling body (12, 13) is capable of passing freely from a first outer raceway to a second outer raceway, adjacent to said first outer raceway, when the pendulum flyweights are acted upon by vibrations having an amplitude such that each rolling body (12, 13) of said pendulum flyweights is displaced beyond an end of said first outer raceway. - a support member capable of being driven rotationally around an axis X and having a plurality of outer raceways; and - a plurality of pendulum flyweights distributed circumferentially around the axis X and each having two inner raceways (14, 15) that are radially internal with respect to the outer raceways; - each of the pendulum flyweights being mounted oscillatingly with respect to the support member by means of two rolling bodies (12, 13) that interact respectively with one and the other of the two inner raceways (14, 15) of said pendulum flyweight and each interact with one of the outer raceways of the support member in order to guide the oscillating movement of said pendulum flyweight with respect to said support member, - said damping system being characterized in that the outer raceways are juxtaposed one after another continuously around the axis X so that each rolling body (12, 13) is capable of passing freely from a first outer raceway to a second outer raceway, adjacent to said first outer raceway, when the pendulum flyweights are acted upon by vibrations having an amplitude such that each rolling body (12, 13) of said pendulum flyweights is displaced beyond an end of said first outer raceway.
Method for increasing strength properties of paper, board or the like, comprising - obtaining a fibre stock, - adding to the fibre stock a strength agent comprising a first component, which is mechanically refined cellulosic fibres having a refining level of >70 °SR, and a second component, which is a synthetic cationic polymer which is a copolymer of methacrylamide or acrylamide and at least one cationic monomer, and has a charge density of 0.1 - 2.5 meq/g, determined at pH 2.7, and an average molecular weight of > 300 000 g/mol, whereby the first and second component are mixed together to form the strength agent before the strength agent is added to the fibre stock or the first and second component are added to the fibre stock separately but simultaneously. - obtaining a fibre stock, - adding to the fibre stock a strength agent comprising a first component, which is mechanically refined cellulosic fibres having a refining level of >70 °SR, and a second component, which is a synthetic cationic polymer which is a copolymer of methacrylamide or acrylamide and at least one cationic monomer, and has a charge density of 0.1 - 2.5 meq/g, determined at pH 2.7, and an average molecular weight of > 300 000 g/mol,
A method for three dimensional crystallographic grain orientation mapping, the method comprising: illuminating a rotating polycrystalline sample with a broadband x-ray beam derived from a laboratory x-ray source; detecting, on one or more x-ray detectors, diffracted beams from the sample; and processing data from said diffracted beams with the sample in different rotation positions to generate three dimensional reconstructions of grain orientation, position, and/or 3-D volume. illuminating a rotating polycrystalline sample with a broadband x-ray beam derived from a laboratory x-ray source; detecting, on one or more x-ray detectors, diffracted beams from the sample; and processing data from said diffracted beams with the sample in different rotation positions to generate three dimensional reconstructions of grain orientation, position, and/or 3-D volume.
A gas turbine engine comprising: a turbine blade cascade formed by annularly arranging turbine blades around a turbine axis; and a cooling air supply unit to supply cooling air to the turbine blades, characterized by: a flow path surface formed so as to be positioned in an upstream side of the turbine blade cascade and so as to be connected to a base surface in which the turbine blades are provided, the flow path surface including: depression portions depressed relative to the base surface, each depression portion including at least an area overlapping with a front end (7b1) of each of the turbine blades, when viewed from a direction of the turbine axis; and protrusion portions protruding relative to the base surface, each protrusion portion being at least part of each area positioned between front ends (7b1) of the turbine blades, when viewed from the direction of the turbine axis; wherein at least a half of the turbine blade, which is a portion from a middle position between a front end and a back end of the turbine blade to the back end of the turbine blade, in the chord length direction of the turbine blade is provided on the base surface. a turbine blade cascade formed by annularly arranging turbine blades around a turbine axis; and a cooling air supply unit to supply cooling air to the turbine blades, a flow path surface formed so as to be positioned in an upstream side of the turbine blade cascade and so as to be connected to a base surface in which the turbine blades are provided, the flow path surface including: depression portions depressed relative to the base surface, each depression portion including at least an area overlapping with a front end (7b1) of each of the turbine blades, when viewed from a direction of the turbine axis; and protrusion portions protruding relative to the base surface, each protrusion portion being at least part of each area positioned between front ends (7b1) of the turbine blades, when viewed from the direction of the turbine axis; wherein depression portions depressed relative to the base surface, each depression portion including at least an area overlapping with a front end (7b1) of each of the turbine blades, when viewed from a direction of the turbine axis; and protrusion portions protruding relative to the base surface, each protrusion portion being at least part of each area positioned between front ends (7b1) of the turbine blades, when viewed from the direction of the turbine axis; wherein at least a half of the turbine blade, which is a portion from a middle position between a front end and a back end of the turbine blade to the back end of the turbine blade, in the chord length direction of the turbine blade is provided on the base surface.
Bragg grating temperature sensor comprising an optical fiber (20, 40) including a core (21, 41), an optical cladding (22, 42) surrounding the core and a Bragg grating (24, 44) incorporated in the core and extending along a segment of the optical fibre called sensitive segment, the temperature sensor being characterised in that the core (21, 41) includes a core gap (25, 45) extending along a segment of the optical fibre called core gap segment, the core gap segment being located in the vicinity of the sensitive segment, and in that the optical cladding (22, 42) includes a cladding gap (26, 46) extending along a segment of the optical fibre called cladding gap segment, the cladding gap segment including the sensitive segment.
A composition comprising a mixture of symbiotic microorganisms, water and shives, characterized by the fact that said mixture of symbiotic microorganisms is intentionally added to the composition and comprises lactic acid bacteria, photosynthetic bacteria, yeasts, fungi or actinomycetes, wherein the composition further comprises calcium hydroxide (air lime), magnesium oxide and/or lime putty (air lime as paste) and/or semihydrated dolomitic lime (calcium magnesium dihydroxide oxide).
A computer-enabled method comprising: receiving input from a movement sensor based on a movement of an electronic device; in response to the received movement sensor input: performing a relevance algorithm to select a first plurality (204-206; 302-304) of icons as a subset of a larger plurality of icons available for display; and displaying the first plurality (204-206; 302-304) of icons on a touch-sensitive display; wherein: each icon is an image that is used to represent and launch a respective application; and in order to select the first plurality of icons from the larger plurality of icons, the relevance algorithm uses as input user health information represented by input received from a biometric sensor. receiving input from a movement sensor based on a movement of an electronic device; in response to the received movement sensor input: performing a relevance algorithm to select a first plurality (204-206; 302-304) of icons as a subset of a larger plurality of icons available for display; and displaying the first plurality (204-206; 302-304) of icons on a touch-sensitive display; performing a relevance algorithm to select a first plurality (204-206; 302-304) of icons as a subset of a larger plurality of icons available for display; and displaying the first plurality (204-206; 302-304) of icons on a touch-sensitive display; wherein: each icon is an image that is used to represent and launch a respective application; and in order to select the first plurality of icons from the larger plurality of icons, the relevance algorithm uses as input user health information represented by input received from a biometric sensor. each icon is an image that is used to represent and launch a respective application; and in order to select the first plurality of icons from the larger plurality of icons, the relevance algorithm uses as input user health information represented by input received from a biometric sensor.
A gel-spinning process for manufacturing a multifilament yarn containing n filaments characterized in that the process contains the steps of: a) providing a solution of ultra-high molecular weight polyethylene (UHMWPE) in a suitable solvent containing between 3 wt% and 12 wt% UHMWPE polymer, wherein the UHMWPE polymer has an elongational stress, ES, measured according to ISO 11542-2A, of at least 0.4 N/mm 2, b) passing the solution of step a) with a reduced throughput through a spinning plate containing n spin-holes to form the filaments of said yarn; and c) drawing the filaments in at least one drawing step before, during or after removing the solvent to obtain a multifilament yarn with a tenacity (Ten) as expressed in cN/dtex according to Formula 1: Ten cN / dtex = f × n − 0.05 × dpf − 0.15 wherein Ten is at least 39 cN/dtex, n is at least 25, f is a factor of at least 58 and dpf is the dtex per filament. a) providing a solution of ultra-high molecular weight polyethylene (UHMWPE) in a suitable solvent containing between 3 wt% and 12 wt% UHMWPE polymer, wherein the UHMWPE polymer has an elongational stress, ES, measured according to ISO 11542-2A, of at least 0.4 N/mm 2, b) passing the solution of step a) with a reduced throughput through a spinning plate containing n spin-holes to form the filaments of said yarn; and c) drawing the filaments in at least one drawing step before, during or after removing the solvent to obtain a multifilament yarn with a tenacity (Ten) as expressed in cN/dtex according to Formula 1: Ten cN / dtex = f × n − 0.05 × dpf − 0.15 wherein Ten is at least 39 cN/dtex, n is at least 25, f is a factor of at least 58 and dpf is the dtex per filament.