mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a transgene, comprising the steps of: obtaining a primary T-cell comprising a chimeric antigen receptor (CAR), and a heterologous nucleic acid comprising a polynucleotide encoding the transgene that is operably linked to a polynucleotide encoding a RNA degradation element (RDE), wherein the RDE is an AU rich element, wherein the heterologous nucleic acid is transcribed to make a transcript encoding the transgene operably linked to the RDE; exposing the primary T-cell to a ligand for the CAR wherein binding of the ligand by the CAR activates the primary T-cell and thereby changes a metabolic state of the primary T-cell; and expressing the transgene wherein the amount of polypeptide made from the transgene is increased after the change in metabolic state of the primary T-cell, wherein the CAR is capable of binding to a ligand, selected from the group consisting of tumor-associated antigens, CD19, CD20, and CD22.
A display screen comprising a flexible display panel , and a flexible protective layer covering a light-emitting surface of the flexible display panel , wherein a side surface of the flexible protective layer facing away from the flexible display panel is a light-transmitting side surface , and an anti-reflection structure is disposed on the light-transmitting side surface ; characterized in that , the display screen further comprises a diffusion layer covering the light-emitting surface , wherein the diffusion layer is disposed between the flexible display panel and the flexible protective layers ; and the diffusion layer is an optical adhesive layer in which haze particles are provided, or the diffusion layer is a resin material layer in which a light diffusing agent is mixed. a flexible display panel , and a flexible protective layer covering a light-emitting surface of the flexible display panel , wherein a side surface of the flexible protective layer facing away from the flexible display panel is a light-transmitting side surface , and an anti-reflection structure is disposed on the light-transmitting side surface ; characterized in that , the display screen further comprises a diffusion layer covering the light-emitting surface , wherein the diffusion layer is disposed between the flexible display panel and the flexible protective layers ; and the diffusion layer is an optical adhesive layer in which haze particles are provided, or the diffusion layer is a resin material layer in which a light diffusing agent is mixed.
A preparation method of a particle structure of cathode material , characterized by comprising steps of: (a) providing a precursor configured to form a core , wherein the precursor comprises at least nickel, cobalt and manganese; (b) providing a metal salt and a lithium ion compound, wherein the metal salt comprises at least potassium, aluminum and sulfur; (c) mixing the metal salt, the lithium ion compound and the precursor to form a mixture; and (d) subjecting the mixture to a heat treatment step to form the particle structure of cathode material , wherein the particle structure of cathode material comprises the core , a first coating layer and a second coating layer , wherein the core comprises potassium, aluminum and a Li-M-O based material, wherein M comprises nickel, cobalt, and manganese, wherein the first coating layer is coated on the core , and the second coating layer is coated on the first coating layer , wherein the first coating layer comprises potassium and aluminum, and a potassium content of the first coating layer is higher than a potassium content of the core , wherein the second coating layer comprises sulfur. (a) providing a precursor configured to form a core , wherein the precursor comprises at least nickel, cobalt and manganese; (b) providing a metal salt and a lithium ion compound, wherein the metal salt comprises at least potassium, aluminum and sulfur; (c) mixing the metal salt, the lithium ion compound and the precursor to form a mixture; and (d) subjecting the mixture to a heat treatment step to form the particle structure of cathode material , wherein the particle structure of cathode material comprises the core , a first coating layer and a second coating layer , wherein the core comprises potassium, aluminum and a Li-M-O based material, wherein M comprises nickel, cobalt, and manganese, wherein the first coating layer is coated on the core , and the second coating layer is coated on the first coating layer , wherein the first coating layer comprises potassium and aluminum, and a potassium content of the first coating layer is higher than a potassium content of the core , wherein the second coating layer comprises sulfur.
A vaporizing assembly for an aerosol-generating system , the vaporizing assembly comprising a heating element, and a delivery device for delivering a liquid aerosol-forming substrate from a liquid storing portion to the heating element, wherein the heating element is spaced apart from the delivery device and is configured for heating the delivered liquid aerosol-forming substrate to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate, characterised in that the heating element is a sheet heating element which is fluid permeable and comprises a plurality of electrically conductive filaments, and wherein the delivery device is configured for spraying the liquid aerosol-forming substrate onto the sheet heating element as a spraying jet with a size and shape fitted to a geometry of the sheet heating element . a heating element, and a delivery device for delivering a liquid aerosol-forming substrate from a liquid storing portion to the heating element, wherein the heating element is spaced apart from the delivery device and is configured for heating the delivered liquid aerosol-forming substrate to a temperature sufficient to volatilize at least a part of the delivered liquid aerosol-forming substrate, characterised in that the heating element is a sheet heating element which is fluid permeable and comprises a plurality of electrically conductive filaments, and wherein the delivery device is configured for spraying the liquid aerosol-forming substrate onto the sheet heating element as a spraying jet with a size and shape fitted to a geometry of the sheet heating element .
A system for delivering a prosthetic heart valve, comprising: a valve component including: a prosthetic valve having an inflow end and an outflow end, and a non-expandable, non-collapsible orifice at the inflow end of the prosthetic valve ; and an expandable coupling stent extending from the inflow end of the prosthetic valve in a distal direction away from the outflow end of the prosthetic valve, the coupling stent having a contracted state for delivery to an implant position and an expanded state; a valve holder connected to the outflow end of the prosthetic valve ; a balloon catheter having a balloon ; and a handle configured to attach to a proximal end of the valve holder and having a lumen for passage of the catheter , the balloon extending distally through the handle , past the holder and through the valve component . a valve component including: a prosthetic valve having an inflow end and an outflow end, and a non-expandable, non-collapsible orifice at the inflow end of the prosthetic valve ; and an expandable coupling stent extending from the inflow end of the prosthetic valve in a distal direction away from the outflow end of the prosthetic valve, the coupling stent having a contracted state for delivery to an implant position and an expanded state; a prosthetic valve having an inflow end and an outflow end, and a non-expandable, non-collapsible orifice at the inflow end of the prosthetic valve ; and an expandable coupling stent extending from the inflow end of the prosthetic valve in a distal direction away from the outflow end of the prosthetic valve, the coupling stent having a contracted state for delivery to an implant position and an expanded state; a valve holder connected to the outflow end of the prosthetic valve ; a balloon catheter having a balloon ; and a handle configured to attach to a proximal end of the valve holder and having a lumen for passage of the catheter , the balloon extending distally through the handle , past the holder and through the valve component .
Use of an extract of Murraya koenigii being obtained by a solid/liquid extraction process, followed by a second solid/liquid separation step and finally by a third step to recover the liquid phase, characterized in that the solvent consists of a mixture of betaine, propanediol and water, in which the betaine:propanediol molar proportions are 1: strictly less than 1.5; or of a composition comprising said extract to combat skin aging.
A calorimeter cell for the measurement of nuclear heating in a nuclear reactor, comprising: - at least two sample holders , each sample holder comprising: - a body configured to contain a heat-sensitive sample along a longitudinal axis; and - means for removing heat from the body to the exterior of the sample holder comprising: • a peripheral structure located on the periphery of said body ; • a central structure of mechanical link configured to transfer heat radially, i.e. perpendicularly to the longitudinal axis, between the body and the peripheral structure , and being located radially between said body and said peripheral structure; - a single casing in which said sample holders are placed and encapsulated; - temperature-measuring means; the casing comprising unitary compartments each containing a sample holder so as to thermally insulate the sample holders from one another and further comprising linking parts connecting the compartments with one another, said linking parts comprising means for circulating a heat transfer fluid through said connecting parts. - at least two sample holders , each sample holder comprising: - a body configured to contain a heat-sensitive sample along a longitudinal axis; and - means for removing heat from the body to the exterior of the sample holder comprising: • a peripheral structure located on the periphery of said body ; • a central structure of mechanical link configured to transfer heat radially, i.e. perpendicularly to the longitudinal axis, between the body and the peripheral structure , and being located radially between said body and said peripheral structure; - a body configured to contain a heat-sensitive sample along a longitudinal axis; and - means for removing heat from the body to the exterior of the sample holder comprising: • a peripheral structure located on the periphery of said body ; • a central structure of mechanical link configured to transfer heat radially, i.e. perpendicularly to the longitudinal axis, between the body and the peripheral structure , and being located radially between said body and said peripheral structure; • a peripheral structure located on the periphery of said body ; • a central structure of mechanical link configured to transfer heat radially, i.e. perpendicularly to the longitudinal axis, between the body and the peripheral structure , and being located radially between said body and said peripheral structure; - a single casing in which said sample holders are placed and encapsulated; - temperature-measuring means;
A method for seed treatment, the method comprising: providing seeds in a seed treatment apparatus with a perforated rotating drum treater, an integrated drying systems, and a nozzle and pump system to apply liquid seed treatment: - contacting the seeds with a liquid seed treatment, thereby producing wetted seeds; - drying the wetted seeds; wherein contacting the seeds with the liquid seed treatment and drying the wetted seeds occur simultaneously, wherein the drying of the wetted seeds occurs through injection of ambient air, dehumidified air, heated air, or a combination thereof, wherein the injection of air occurs at a rate of from about 0.283 cubic meters per minute to about 566 cubic meters per minute, wherein when the seed is corn seed over 887 mL of liquid seed treatment is applied per 45 kg of seed, wherein when the seed is soybean seed over 237 mL of liquid seed treatment is applied per 45 kg of seed, wherein when the seed is cotton seed at least 1331 mL of liquid seed treatment is applied per 45 kg of seed, wherein the liquid seed treatment is in the form of a slurry comprising an aqueous phase and a dispersed solid phase, wherein the total cycle time for conducting the above steps is about 10 minutes or less and wherein the seed treatment throughput of the method is at least about 4,000 kg seed per hour, wherein at least about 95% of the seeds are fully coated with the liquid seed treatment. providing seeds in a seed treatment apparatus with a perforated rotating drum treater, an integrated drying systems, and a nozzle and pump system to apply liquid seed treatment: - contacting the seeds with a liquid seed treatment, thereby producing wetted seeds; - drying the wetted seeds; - contacting the seeds with a liquid seed treatment, thereby producing wetted seeds; - drying the wetted seeds; wherein contacting the seeds with the liquid seed treatment and drying the wetted seeds occur simultaneously, wherein the drying of the wetted seeds occurs through injection of ambient air, dehumidified air, heated air, or a combination thereof, wherein the injection of air occurs at a rate of from about 0.283 cubic meters per minute to about 566 cubic meters per minute, wherein when the seed is corn seed over 887 mL of liquid seed treatment is applied per 45 kg of seed, wherein when the seed is soybean seed over 237 mL of liquid seed treatment is applied per 45 kg of seed, wherein when the seed is cotton seed at least 1331 mL of liquid seed treatment is applied per 45 kg of seed, wherein the liquid seed treatment is in the form of a slurry comprising an aqueous phase and a dispersed solid phase, wherein the total cycle time for conducting the above steps is about 10 minutes or less and wherein the seed treatment throughput of the method is at least about 4,000 kg seed per hour, wherein at least about 95% of the seeds are fully coated with the liquid seed treatment.
A stylus tool for forming a part , the stylus tool comprising: a shank configured to be coupled to a collet for positioning of the stylus tool ; a head extending between a base at the shank and a tip , the head having a forming surface between the base and the tip , the forming surface being axisymmetric and defined by rotating a curved profile around an axis of the shank , the curved profile having a curvature changing linearly with a curve length of the curved profile of the forming surface , wherein the head includes a flat surface at the tip , the curved profile extending between the flat surface and the base . a shank configured to be coupled to a collet for positioning of the stylus tool ; a head extending between a base at the shank and a tip , the head having a forming surface between the base and the tip , the forming surface being axisymmetric and defined by rotating a curved profile around an axis of the shank , the curved profile having a curvature changing linearly with a curve length of the curved profile of the forming surface , wherein the head includes a flat surface at the tip , the curved profile extending between the flat surface and the base .
A methacrylic resin having a methacrylic acid ester monomer-derived structural unit and a structural unit (X) comprising a cyclic structure in a main chain thereof, the methacrylic resin having a glass transition temperature (Tg) of higher than 120 °C and 160 °C or lower, a fluorescence emission intensity at a wavelength of 514 nm in terms of a concentration of a solution of fluorescein in ethanol being 30 × 10 -10 mol/L or less when a solution containing 2.0 mass% of the methacrylic resin in chloroform is spectroscopically analyzed using an excitation wavelength of 436 nm and a slit width of 2 nm; wherein the structural unit (X) comprises at least one structural unit selected from the group consisting of an N-substituted maleimide monomer-derived structural unit or a glutarimide-based structural unit; wherein glass transition temperature (Tg) is determined in accordance with JIS-K7121 as described in the specification; and wherein the fluorescence emission intensity is determined in accordance with the protocol described in the specification. the methacrylic resin having a glass transition temperature (Tg) of higher than 120 °C and 160 °C or lower, a fluorescence emission intensity at a wavelength of 514 nm in terms of a concentration of a solution of fluorescein in ethanol being 30 × 10 -10 mol/L or less when a solution containing 2.0 mass% of the methacrylic resin in chloroform is spectroscopically analyzed using an excitation wavelength of 436 nm and a slit width of 2 nm; wherein the structural unit (X) comprises at least one structural unit selected from the group consisting of an N-substituted maleimide monomer-derived structural unit or a glutarimide-based structural unit; wherein glass transition temperature (Tg) is determined in accordance with JIS-K7121 as described in the specification; and wherein the fluorescence emission intensity is determined in accordance with the protocol described in the specification.
A controller circuit for controlling operating characteristics of an AC fast charger including a first traction inverter, a second traction inverter, and a AC/DC converter front end circuit, the first and second traction inverters coupled to one another across an electric motor (EM), the first traction inverter coupled to a first energy storage device (battery 1) and the second traction inverter coupled to a second energy storage device (battery 2), the controller circuit comprising: one or more signal generators configured for provisioning gating signals that, when applied to one or more switching gates of the first traction inverter and the second traction inverter, shape power characteristics of power delivered to the first energy storage device and the second energy storage device from a power source (Vac), and the gating signals, when applied to the AC/DC converter front end circuit, control a direction of power flow between an AC source and the traction inverters and a power factor of the power flowing into the AC/DC converter front-end from the AC source; wherein the AC/DC converter front end is an on-board rectifier connected across a differential connection of the first traction inverter and of the second traction inverter such that the first energy storage device (battery 1) and the second energy storage device (battery 2) are indirectly series connected through the first traction inverter and the second traction inverter. one or more signal generators configured for provisioning gating signals that, when applied to one or more switching gates of the first traction inverter and the second traction inverter, shape power characteristics of power delivered to the first energy storage device and the second energy storage device from a power source (Vac), and the gating signals, when applied to the AC/DC converter front end circuit, control a direction of power flow between an AC source and the traction inverters and a power factor of the power flowing into the AC/DC converter front-end from the AC source; wherein the AC/DC converter front end is an on-board rectifier connected across a differential connection of the first traction inverter and of the second traction inverter such that the first energy storage device (battery 1) and the second energy storage device (battery 2) are indirectly series connected through the first traction inverter and the second traction inverter.
A cosmetic product comprising: a low viscosity cosmetic composition; a receiving member in which the low viscosity cosmetic composition is received; and a reticulated structure which covers an opening of the receiving member, wherein the reticulated structure has a thickness of from 0.4 mm to 3.0 mm and wherein the reticulated structure has elasticity; wherein the low viscosity cosmetic composition has viscosity of from 1,000 cPs to 7,000 cPs, and wherein the low viscosity cosmetic composition is received in the receiving member without an impregnating material. a low viscosity cosmetic composition; a receiving member in which the low viscosity cosmetic composition is received; and a reticulated structure which covers an opening of the receiving member, wherein the reticulated structure has a thickness of from 0.4 mm to 3.0 mm and wherein the reticulated structure has elasticity; wherein the low viscosity cosmetic composition has viscosity of from 1,000 cPs to 7,000 cPs, and wherein the low viscosity cosmetic composition is received in the receiving member without an impregnating material.
A system , comprising: a capsule ; a drum of the capsule comprising a wall defining a chamber; an additional drum of the capsule , wherein the drum is disposed within the additional drum ; and, a drive system configured to: drive rotation of the drum about a central axis of the drum and relative to the additional drum ; and, drive forward or rearward movement of the capsule along a track , wherein the central axis of the drum is parallel to a direction of travel of the forward and rearward movement of the capsule along the track . a capsule ; a drum of the capsule comprising a wall defining a chamber; an additional drum of the capsule , wherein the drum is disposed within the additional drum ; and, a drive system configured to: drive rotation of the drum about a central axis of the drum and relative to the additional drum ; and, drive forward or rearward movement of the capsule along a track ,
A compressor comprising: a fixed scroll forming a compression chamber together with an orbiting scroll and including a discharge port through which a refrigerant compressed in the compression chamber is discharged; and a valve unit including a discharge valve configured to open and close the discharge port by moving upward and downward and first and second guide pins , the second guide pin being provided at a side opposite to the discharge port in a radial direction of the discharge port, configured to guide the discharge valve . wherein the discharge valve includes first and second through holes allowing the first and second guide pins respectively to pass therethrough, and characterised in that the first and second through holes have different diameters so that edges of the first and second through holes include a first point and a second point that come into contact with the first and second guide pins when the discharge valve obliquely moves upward and downward with respect to a horizontal direction of the discharge valve . a fixed scroll forming a compression chamber together with an orbiting scroll and including a discharge port through which a refrigerant compressed in the compression chamber is discharged; and a valve unit including a discharge valve configured to open and close the discharge port by moving upward and downward and first and second guide pins , the second guide pin being provided at a side opposite to the discharge port in a radial direction of the discharge port, configured to guide the discharge valve . wherein the discharge valve includes first and second through holes allowing the first and second guide pins respectively to pass therethrough, and characterised in that the first and second through holes have different diameters so that edges of the first and second through holes include a first point and a second point that come into contact with the first and second guide pins when the discharge valve obliquely moves upward and downward with respect to a horizontal direction of the discharge valve .