mhurhangee/patent-ind-claim-en huggingface dataset:
A method for enriching T cells and generating an engineered population of T cells, the method comprising: (a) performing a first selection, the first selection comprising enriching for either of CD57- or CD3+ T cells from a biological sample comprising primary human T cells, thereby generating an enriched T cell population; and (b) performing a second selection on the cells from the enriched T cell population, wherein: the first selection comprises enriching for CD57- T cells and the second selection comprises enriching for CD3+ T cells from the enriched population; or the first selection comprises enriching for CD3+ T cells and the second selection comprises removing CD57+ T cells from the enriched T cell population, wherein the method generates a depleted population that comprises fewer CD57+ T cells than the biological sample and is enriched for CD3+ T cells, and (c) introducing a heterologous polynucleotide encoding a recombinant receptor into a population of T cells obtained from the depleted population, thereby generating an engineered population of T cells. (a) performing a first selection, the first selection comprising enriching for either of CD57- or CD3+ T cells from a biological sample comprising primary human T cells, thereby generating an enriched T cell population; and (b) performing a second selection on the cells from the enriched T cell population, wherein: the first selection comprises enriching for CD57- T cells and the second selection comprises enriching for CD3+ T cells from the enriched population; or the first selection comprises enriching for CD3+ T cells and the second selection comprises removing CD57+ T cells from the enriched T cell population, wherein the method generates a depleted population that comprises fewer CD57+ T cells than the biological sample and is enriched for CD3+ T cells, and the first selection comprises enriching for CD57- T cells and the second selection comprises enriching for CD3+ T cells from the enriched population; or the first selection comprises enriching for CD3+ T cells and the second selection comprises removing CD57+ T cells from the enriched T cell population, wherein the method generates a depleted population that comprises fewer CD57+ T cells than the biological sample and is enriched for CD3+ T cells, and (c) introducing a heterologous polynucleotide encoding a recombinant receptor into a population of T cells obtained from the depleted population, thereby generating an engineered population of T cells.
A method for determining a position of an oil-water contact with respect to a resistivity logging tool, the method comprising: drilling a horizontal wellbore above the oil-water contact in a subterranean formation, wherein the oil-water contact is a bounding surface in the subterranean formation above which predominantly oil occurs and below which predominantly water occurs; deploying the resistivity logging tool in the wellbore such that the oil-water contact is within a depth of investigation of the resistivity logging tool; causing the resistivity logging tool to make resistivity measurements of the subterranean formation while deployed in the wellbore; using a computer processor to process a 1D inversion of the resistivity measurements made by the resistivity tool to generate a resistivity profile of the subterranean formation ; scanning the resistivity profile generated by the 1D inversion to obtain a vertical depth of the oil-water contact located below the resistivity logging tool ; repeating said processing the 1D inversion and said scanning the resistivity profile to obtain a plurality of vertical depths of the oil-water contact located below the resistivity logging tool; applying a local residual weighted average of the plurality of vertical depths to generate an initial estimation of the position of the oil-water contact ; inverting the initial estimation of the position of the oil-water contact to generate a resistivity of a water zone located below the oil-water contact and a modified position of the oil-water contact . drilling a horizontal wellbore above the oil-water contact in a subterranean formation, wherein the oil-water contact is a bounding surface in the subterranean formation above which predominantly oil occurs and below which predominantly water occurs; deploying the resistivity logging tool in the wellbore such that the oil-water contact is within a depth of investigation of the resistivity logging tool; causing the resistivity logging tool to make resistivity measurements of the subterranean formation while deployed in the wellbore; using a computer processor to process a 1D inversion of the resistivity measurements made by the resistivity tool to generate a resistivity profile of the subterranean formation ; scanning the resistivity profile generated by the 1D inversion to obtain a vertical depth of the oil-water contact located below the resistivity logging tool ; repeating said processing the 1D inversion and said scanning the resistivity profile to obtain a plurality of vertical depths of the oil-water contact located below the resistivity logging tool; applying a local residual weighted average of the plurality of vertical depths to generate an initial estimation of the position of the oil-water contact ; inverting the initial estimation of the position of the oil-water contact to generate a resistivity of a water zone located below the oil-water contact and a modified position of the oil-water contact .
A method of operating a front-end access server to facilitate scope-based certificate deployment in a multi-tenant cloud-based content service , the method comprising: receiving a request for authentication from an access system of a dedicated tenant , wherein the request includes metadata used to identify the dedicated tenant associated with the request; extracting the metadata from the request; processing the metadata to identify the dedicated tenant associated with the request; accessing a tenant-specific certificate corresponding to the dedicated tenant; providing the tenant-specific certificate to the dedicated tenant for validation by a third-party certificate authority ; receiving a request from the access system of the dedicated tenant, wherein fulfilling the request requires accessing a back-end service , but the request is handled up front; identifying a single, non-tenant-specific certificate corresponding to the back-end service, the single, non-tenant-specific certificate being managed by the multi-tenant cloud-based content service; and authenticating with the back-end service using the single, non-tenant-specific certificate. receiving a request for authentication from an access system of a dedicated tenant , wherein the request includes metadata used to identify the dedicated tenant associated with the request; extracting the metadata from the request; processing the metadata to identify the dedicated tenant associated with the request; accessing a tenant-specific certificate corresponding to the dedicated tenant; providing the tenant-specific certificate to the dedicated tenant for validation by a third-party certificate authority ; receiving a request from the access system of the dedicated tenant, wherein fulfilling the request requires accessing a back-end service , but the request is handled up front; identifying a single, non-tenant-specific certificate corresponding to the back-end service, the single, non-tenant-specific certificate being managed by the multi-tenant cloud-based content service; and authenticating with the back-end service using the single, non-tenant-specific certificate.
A coating composition comprising: an aqueous dispersion comprising: the melt-kneading product of (A) from 60 to 95 wt%, based upon the total weight of (A) and (B), of a base polymer which comprises an ethylene octene copolymer having a density in the range of 0.85 to 0.87 g/cm 3 as measured in accordance with ASTM D-1928 and a melt index in the range of 20 to 35 g/10 minutes as measured in accordance with ASTM D-1238 at 190°C and 2.16 kg; (B) from 5 to 40 wt%, based upon the total weight of (A) and (B), of a stabilizing agent which comprises at least one component selected from the group consisting of ethylene-acrylic acid copolymers, ethylene-methacrylic acid copolymers, maleic anhydride grafted polyolefins, and combinations thereof; (C) a neutralizing agent comprising N,N-dimethylethanolamine (DMEA); and (D) water; wherein the aqueous dispersion has a volume average particle size of less than about 5 μm. (A) from 60 to 95 wt%, based upon the total weight of (A) and (B), of a base polymer which comprises an ethylene octene copolymer having a density in the range of 0.85 to 0.87 g/cm 3 as measured in accordance with ASTM D-1928 and a melt index in the range of 20 to 35 g/10 minutes as measured in accordance with ASTM D-1238 at 190°C and 2.16 kg; (B) from 5 to 40 wt%, based upon the total weight of (A) and (B), of a stabilizing agent which comprises at least one component selected from the group consisting of ethylene-acrylic acid copolymers, ethylene-methacrylic acid copolymers, maleic anhydride grafted polyolefins, and combinations thereof; (C) a neutralizing agent comprising N,N-dimethylethanolamine (DMEA); and (D) water;
A hair care composition comprising: from 0.04 wt.% to 2 wt.% azelaic acid; from 0.04 wt.% to 1 wt.% oleic acid; wherein the weight ratio of oleic acid to azelaic acid is from 1:1 to 1:3 Oleic Azelaic; and an aqueous carrier. from 0.04 wt.% to 2 wt.% azelaic acid; from 0.04 wt.% to 1 wt.% oleic acid; wherein the weight ratio of oleic acid to azelaic acid is from 1:1 to 1:3 Oleic Azelaic; and an aqueous carrier.
An encoding method, comprising: performing (S101), by a transmit end, based on a cyclic redundancy check, CRC, polynomial, CRC encoding on A to-be-encoded information bits, to obtain a CRC-encoded bit sequence, wherein the CRC-encoded bit sequence comprises L CRC bits and the A to-be-encoded information bits, L and A are positive integers, L =11, and performing (S103), by the transmit end, polar encoding on the CRC-encoded bit sequence to obtain a polar-encoded bit sequence ; characterised in that the CRC polynomial is D^11+D^10+D^9+D^5+1. performing (S101), by a transmit end, based on a cyclic redundancy check, CRC, polynomial, CRC encoding on A to-be-encoded information bits, to obtain a CRC-encoded bit sequence, wherein the CRC-encoded bit sequence comprises L CRC bits and the A to-be-encoded information bits, L and A are positive integers, L =11, and performing (S103), by the transmit end, polar encoding on the CRC-encoded bit sequence to obtain a polar-encoded bit sequence ; characterised in that the CRC polynomial is D^11+D^10+D^9+D^5+1.
A method for controlling a human-robot collaboration (MRK) system , wherein the MRK system comprises at least one manipulator having an end effector , and wherein the method comprises the following steps: operating the end effector in a first operating mode, wherein the end effector is operated at reduced power (351; 451; 551) in the first operating mode; monitoring whether a desired object is manipulated when the end effector is operated in the first operating mode; and increasing the power (352; 451; 551) with which the end effector is operated in order to use the end effector in a second operating mode if the monitoring has revealed that a desired object is being manipulated. operating the end effector in a first operating mode, wherein the end effector is operated at reduced power (351; 451; 551) in the first operating mode; monitoring whether a desired object is manipulated when the end effector is operated in the first operating mode; and increasing the power (352; 451; 551) with which the end effector is operated in order to use the end effector in a second operating mode if the monitoring has revealed that a desired object is being manipulated.
Busbar for connecting cell terminals of at least two battery cells of a battery module , the busbar comprising: a first contact portion configured to connect to a first cell terminal ; a second contact portion configured to connect to a second cell terminal and spaced apart from the first contact portion in a first direction; an arced portion configured to connect the first contact portion and the second contact portion , wherein the contact portions extend in a first plane and wherein the arced portion extend in a second plane essentially perpendicular to the first plane, wherein a first bent portion extends from the first contact portion into the second plane and connects the first contact portion and the arced portion and a second bent portion extends from the second contact portion in the second plane and connects the second contact portion and the arced portion , wherein the arced portion comprises a first section extending from the first bent portion in a second direction essentially perpendicular from the first direction, a second section extending from the second bent portion in the second direction, and a third section connecting the first section and the second section and extending in the first direction, and wherein the arched portion extends over the first contact portion and over the second contact portion in the second direction. a first contact portion configured to connect to a first cell terminal ; a second contact portion configured to connect to a second cell terminal and spaced apart from the first contact portion in a first direction; an arced portion configured to connect the first contact portion and the second contact portion , wherein the contact portions extend in a first plane and wherein the arced portion extend in a second plane essentially perpendicular to the first plane, wherein a first bent portion extends from the first contact portion into the second plane and connects the first contact portion and the arced portion and a second bent portion extends from the second contact portion in the second plane and connects the second contact portion and the arced portion , wherein the arced portion comprises a first section extending from the first bent portion in a second direction essentially perpendicular from the first direction, a second section extending from the second bent portion in the second direction, and a third section connecting the first section and the second section and extending in the first direction, and wherein the arched portion extends over the first contact portion and over the second contact portion in the second direction.
An oil and aqueous phase separator device, comprising: - a basket comprising a frame having an upper edge defining an upper opening in the basket , the frame comprising a plurality of supporting arms and fitting means for linking to other phase separator devices; - a lid that closes the upper opening of the basket ; - an hydrophobic mesh linked to the basket and supported by the plurality of supporting arms ; - a plurality of floats connected to the frame of the basket ; - a housing for an additional float formed on the upper edge of the frame of the basket ; - a discharging means linked to the basket . - a basket comprising a frame having an upper edge defining an upper opening in the basket , the frame comprising a plurality of supporting arms and fitting means for linking to other phase separator devices; - a lid that closes the upper opening of the basket ; - an hydrophobic mesh linked to the basket and supported by the plurality of supporting arms ; - a plurality of floats connected to the frame of the basket ; - a housing for an additional float formed on the upper edge of the frame of the basket ; - a discharging means linked to the basket .
A circumferential surgical retraction device comprising: a first, outer ring being made of flexible material; a second, inner ring being made of flexible material; a cylindrical sleeve coupled to the first and second rings ; a first biasing member associated with the first, outer ring , the first biasing member biasing the first ring radially outwardly; and a second biasing member associated with the second, inner ring , the second biasing member biasing the second ring radially outwardly, wherein the first and second biasing members place the cylindrical sleeve in tension to retract an incision, the first biasing member includes a spring-like core embedded within the flexible material of the first, outer ring , the second biasing member includes a spring-like core embedded within the flexible material of the second, inner ring , and the cylindrical sleeve comprises bellows arranged to transition the cylindrical sleeve between a first, axially compressed state and a second, axially extended state, the cylindrical sleeve being in the second axially extended state with the first, outer ring and the second, inner ring radially biased outwardly. a first, outer ring being made of flexible material; a second, inner ring being made of flexible material; a cylindrical sleeve coupled to the first and second rings ; a first biasing member associated with the first, outer ring , the first biasing member biasing the first ring radially outwardly; and a second biasing member associated with the second, inner ring , the second biasing member biasing the second ring radially outwardly, wherein the first and second biasing members place the cylindrical sleeve in tension to retract an incision, the first biasing member includes a spring-like core embedded within the flexible material of the first, outer ring , the second biasing member includes a spring-like core embedded within the flexible material of the second, inner ring , and the cylindrical sleeve comprises bellows arranged to transition the cylindrical sleeve between a first, axially compressed state and a second, axially extended state, the cylindrical sleeve being in the second axially extended state with the first, outer ring and the second, inner ring radially biased outwardly.
A temperature monitoring device having a detector and a tunable wavelength light source and a control system adapted to generate a substantially periodic control waveform applied to a control input of the tunable wavelength light source wherein the tunable wavelength light source is connected to an optical fibre interferometer , having an arm that comprises a measuring optical fibre , wherein the optical fibre interferometer is connected to the detector having an output connected to a signal processing module adapted to identify temperature changes in a function along optical fibre length, wherein the tunable wavelength light source coherence length is longer than 0.5 m, and a period of the periodic waveform is shorter than or equal to 20 s, and a wavelength tuning range of the tunable wavelength light source is higher than 3 pm, characterized in that the measuring optical fibre is adapted to be placed and to endure in a proximity of exoenergetic devices in a running vehicle, and is adapted to provide Rayleigh scattered signal back to the interferometer , wherein the measuring optical fibre has a component that is configured to reduce a reflection from the end of measuring optical fibre by at least 20 dB. a control system adapted to generate a substantially periodic control waveform applied to a control input of the tunable wavelength light source wherein the tunable wavelength light source is connected to an optical fibre interferometer , having an arm that comprises a measuring optical fibre , wherein the optical fibre interferometer is connected to the detector having an output connected to a signal processing module adapted to identify temperature changes in a function along optical fibre length, wherein the tunable wavelength light source coherence length is longer than 0.5 m, and a period of the periodic waveform is shorter than or equal to 20 s, and a wavelength tuning range of the tunable wavelength light source is higher than 3 pm, characterized in that the measuring optical fibre is adapted to be placed and to endure in a proximity of exoenergetic devices in a running vehicle, and is adapted to provide Rayleigh scattered signal back to the interferometer , wherein the measuring optical fibre has a component that is configured to reduce a reflection from the end of measuring optical fibre by at least 20 dB.
A cross member and pivot plate for linking a carriage body of a rail vehicle on the bogie thereof, wherein the upper side of the cross member is connectable to the carriage body , and a pivot plate with pivot pins is secured on the underside of the cross member using fastening means, said pivot pin is flexibly mounted in a pivot pin socket on the bogie for transmitting tensile and braking forces, wherein the pivot plate has, on its upper side facing away from the pivot pin , an attachment running coaxially to the longitudinal axis of the pivot pin and the cross member has, on its underside facing the pivot plate , a recess complementary to the attachment , into which the pivot plate with the attachment is insertable axially, characterised in that fastening means are provided for tensioning the pivot plate against the cross member in an axially parallel position about the longitudinal axis of the pivot pin and are anchored with their one end in the end face of the attachment .
Method for controlling longitudinal positioning of a foil web as used in a printing process during which transfer portions of a layer of the foil are transferred to a substrate to be printed in a printing area of a printing press , the foil web running on a number of rotatable shafts and bars arranged upstream and downstream of the printing area , and the foil web being provided with reference marks, the method comprising: applying a visual inspection unit and a controlling arrangement , the visual inspection unit being in communication with the controlling arrangement , visually inspecting the reference marks of the foil web at a position upstream of the printing area by means of the visual inspection unit , and operating the controlling arrangement to receive and process information from the visual inspection unit about the longitudinal positions of the reference marks by comparing the information to a reference, characterized by operating the controlling arrangement to temporarily adjust motion of at least one of the rotatable shafts and bars in case the longitudinal positions of the reference marks deviate from reference longitudinal positions, during a time that the foil web is allowed to run free in the printing area of the printing press , for adjusting positioning of the foil web in a longitudinal direction during that time. applying a visual inspection unit and a controlling arrangement , the visual inspection unit being in communication with the controlling arrangement , visually inspecting the reference marks of the foil web at a position upstream of the printing area by means of the visual inspection unit , and operating the controlling arrangement to receive and process information from the visual inspection unit about the longitudinal positions of the reference marks by comparing the information to a reference, characterized by operating the controlling arrangement to temporarily adjust motion of at least one of the rotatable shafts and bars in case the longitudinal positions of the reference marks deviate from reference longitudinal positions, during a time that the foil web is allowed to run free in the printing area of the printing press , for adjusting positioning of the foil web in a longitudinal direction during that time.