mhurhangee/patent-ind-claim-en huggingface dataset:
Method of performing a cluster assay comprising the steps of: a) providing a suspension of superparamagnetic particles in a fluid to be analyzed, wherein the superparamagnetic particles are coated with a bioactive agent; b) allowing the particles to form clusters due to an analyte present within the fluid; c) applying an at least partially rotating magnetic field (B) having a field amplitude which varies over time so that the magnetic field selectively couples to bound clusters to selectively actuate clusters of superparamagnetic particles within the background of other magnetic particles, wherein the selective actuation causes only clusters up to a predetermined size to be rotated by the rotating magnetic field, and d) detecting the selectively actuated clusters. a) providing a suspension of superparamagnetic particles in a fluid to be analyzed, wherein the superparamagnetic particles are coated with a bioactive agent; b) allowing the particles to form clusters due to an analyte present within the fluid; c) applying an at least partially rotating magnetic field (B) having a field amplitude which varies over time so that the magnetic field selectively couples to bound clusters to selectively actuate clusters of superparamagnetic particles within the background of other magnetic particles, wherein the selective actuation causes only clusters up to a predetermined size to be rotated by the rotating magnetic field, and d) detecting the selectively actuated clusters.
A switching power supply circuit configured to control the conversion of an input voltage (V IN ) to an output voltage (V OUT ), comprising: a switch control circuit configured to provide transistor switching signals to set the output voltage (V OUT ) based on a feedback voltage provided via a feedback loop; an input pin configured to receive an input pin voltage; and a detection circuit configured to detect whether the input pin voltage has been adjusted using an external resistance network (R top , R bot ) or whether the input pin voltage is the output voltage (V OUT ) of the power supply, the detection circuit further configured to set the feedback voltage to a default output voltage if no input pin voltage adjustment is detected, wherein the detection circuit includes an internal resistance network (R topint , R botint ) specifying the default output voltage, and wherein the feedback voltage is set to the default output voltage by connecting the internal resistance network (R topint , R botint ) to the feedback loop. a switch control circuit configured to provide transistor switching signals to set the output voltage (V OUT ) based on a feedback voltage provided via a feedback loop; an input pin configured to receive an input pin voltage; and a detection circuit configured to detect whether the input pin voltage has been adjusted using an external resistance network (R top , R bot ) or whether the input pin voltage is the output voltage (V OUT ) of the power supply, the detection circuit further configured to set the feedback voltage to a default output voltage if no input pin voltage adjustment is detected, wherein the detection circuit includes an internal resistance network (R topint , R botint ) specifying the default output voltage, and wherein the feedback voltage is set to the default output voltage by connecting the internal resistance network (R topint , R botint ) to the feedback loop.
Articulated lorry comprising a tractor having a driver cab and a semi-trailer which can be connected to the tractor and has a structure, a wind deflecting device being provided between the driver cab and the semi-trailer, by means of which device a gap between the driver cab of the tractor of the articulated lorry and the semi-trailer of the articulated lorry can be covered at least in regions, the semi-trailer having, in the front region thereof facing the driver cab of the semi-trailer, the two longitudinal sides thereof substantially projecting semi-trailer wind deflecting elements which are overlapped by a wind deflecting element of the driver cab, characterised in that the front region of the semi-trailer , in the region thereof that is at least central and comprises the longitudinal axis of the semi-trailer , has a circular-segment-arc-shaped, curved cross-sectional shape in the pivot region of the semi-trailer.
Tank device for storing a gaseous medium, in particular hydrogen, having a valve device and a tank , wherein the valve device has a valve housing with a longitudinal axis , in which valve housing is formed an inner chamber , in which inner chamber a pilot valve element movable along the longitudinal axis is arranged, which pilot valve element interacts with a valve seat in order to open and close an outlet opening and thus forms a pilot valve , wherein the valve device comprises a magnet coil , wherein the valve seat is formed downstream of the valve housing and of the outlet opening , and the cylindrical outlet opening opens into a cylindrical passage , wherein a diameter D of the passage is larger than a diameter d of the outlet opening , characterized in that a sealing body is arranged on the pilot valve element , which sealing body has a hemispherical point, wherein the sealing body is produced from a plastic.
A method for fabricating a bioprosthetic heart valve; the method comprising: providing: a sheet of biological tissue; a sheet of a biocompatible material, and a stent, the stent having an upstream edge and a downstream edge as well as an inner surface and an outer surface, wherein the downstream edge of the stent is scalloped, the scalloped edge defining a plurality of posts with concave sections therebetween; attaching the biological tissue to the biocompatible material along a suture line; folding the biocompatible material to form a tubular structure with the attached biological tissue located on the inner surface of the tubular structure, the biological tissue forming the leaflets of the heart valve; securing the stent around the outer surface of the tubular structure such that the tubular structure extends in an upstream direction beyond the upstream edge of the stent and in a downstream direction beyond the downstream edge of the stent; cutting a region of the biocompatible material located in between each of the concave portions to form a flap of biocompatible material at the inner surface of each post of the stent; folding the biocompatible material at the cut region away from the biological tissue and around the downstream edge of the stent and securing it to the outer surface of the stent; and folding and attaching the biocompatible material at the upstream end of the tubular structure around the upstream edge of the stent so that the inner and outer surfaces of the stent are covered with no more than a single layer of the biocompatible material. providing: a sheet of biological tissue; a sheet of a biocompatible material, and a stent, the stent having an upstream edge and a downstream edge as well as an inner surface and an outer surface, wherein the downstream edge of the stent is scalloped, the scalloped edge defining a plurality of posts with concave sections therebetween; attaching the biological tissue to the biocompatible material along a suture line; folding the biocompatible material to form a tubular structure with the attached biological tissue located on the inner surface of the tubular structure, the biological tissue forming the leaflets of the heart valve; securing the stent around the outer surface of the tubular structure such that the tubular structure extends in an upstream direction beyond the upstream edge of the stent and in a downstream direction beyond the downstream edge of the stent; cutting a region of the biocompatible material located in between each of the concave portions to form a flap of biocompatible material at the inner surface of each post of the stent; folding the biocompatible material at the cut region away from the biological tissue and around the downstream edge of the stent and securing it to the outer surface of the stent; and folding and attaching the biocompatible material at the upstream end of the tubular structure around the upstream edge of the stent so that the inner and outer surfaces of the stent are covered with no more than a single layer of the biocompatible material.
A flexible display panel, comprising: a flexible display structure ; and a film-like structure on at least one side of the flexible display structure , wherein the film-like structure comprises: a first flexible layer , a second flexible layer , a filler sealed between the first flexible layer and the second flexible layer , and a heater configured to heat the filler ; wherein a hardness of the filler varies with a temperature of the filler ; wherein the filler comprises a thermal characteristic material, said thermal characteristic material being in a solid state in a case that the temperature is within a first threshold interval, and said thermal characteristic material being in a liquid state in a case that the temperature is within a second threshold interval; characterized in that the filler further comprises a flexible porous layer, wherein the flexible porous layer comprises at least one porous structure; and wherein the thermal characteristic material is filled in the at least one porous structure. a flexible display structure ; and a film-like structure on at least one side of the flexible display structure , wherein the film-like structure comprises: a first flexible layer , a second flexible layer , a filler sealed between the first flexible layer and the second flexible layer , and a heater configured to heat the filler ; wherein a hardness of the filler varies with a temperature of the filler ; wherein the filler comprises a thermal characteristic material, said thermal characteristic material being in a solid state in a case that the temperature is within a first threshold interval, and said thermal characteristic material being in a liquid state in a case that the temperature is within a second threshold interval; characterized in that the filler further comprises a flexible porous layer, wherein the flexible porous layer comprises at least one porous structure; and wherein the thermal characteristic material is filled in the at least one porous structure.
A pharmaceutical composition for use as a medicament, said pharmaceutical composition comprising at least two different bacterial delivery vehicles into which the same payload is packaged, wherein the payload comprises: - a nucleic acid sequence of interest under the control of a promoter; and - at least two orthogonal bacterial virus packaging sites that allow packaging into said at least two different bacterial delivery vehicles, wherein the bacterial delivery vehicles are capable of targeting at least two different bacterial strains and of introducing the payload into the at least two different bacterial strains, said bacterial strains being Escherichia coli bacterial strains, wherein said bacteria are present in a mammal organism, and wherein the at least two orthogonal bacterial virus packaging sites are at least one cos site and at least one pac site, at least one cos site and at least one concatemer junction site, at least one pac site and at least one concatemer junction site, or at least one cos site, at least one pac site and at least one concatemer junction site. - a nucleic acid sequence of interest under the control of a promoter; and - at least two orthogonal bacterial virus packaging sites that allow packaging into said at least two different bacterial delivery vehicles, wherein the bacterial delivery vehicles are capable of targeting at least two different bacterial strains and of introducing the payload into the at least two different bacterial strains, said bacterial strains being Escherichia coli bacterial strains, wherein said bacteria are present in a mammal organism, and wherein the at least two orthogonal bacterial virus packaging sites are at least one cos site and at least one pac site, at least one cos site and at least one concatemer junction site, at least one pac site and at least one concatemer junction site, or at least one cos site, at least one pac site and at least one concatemer junction site.
A vehicle lamp comprising: a light source including a plurality of light emitting elements or light emitting surfaces , wherein the plurality of light emitting elements or light emitting surfaces are disposed in parallel at least in a first direction (Y); a projection lens disposed in front of the light source and which projects light (L) emitted from the light source ; and a light distribution adjusting element that adjusts light distribution of the light (L) emitted from the light source , wherein the light distribution adjusting element has a front surface and a rear surface which are perpendicular to an optical axis (Ax) of the light (L) emitted from the light source and which are opposite to each other, wherein a first prism surface is formed on one of the front surface or the rear surface, wherein the first prism surface includes a plurality of inclined surfaces and a plurality of flat surfaces that form a plurality of prisms , wherein the plurality of flat surfaces are parallel to a surface perpendicular to the optical axis (Ax), wherein the plurality of flat surfaces is disposed at an apex section or a bottom section of the plurality of inclined surfaces , wherein the plurality of prisms have different angles (α, β, γ) of inclined surfaces , wherein the plurality of flat surfaces and the plurality of inclined surfaces are formed to extend in a direction which crosses with the first direction (Y). a light source including a plurality of light emitting elements or light emitting surfaces , wherein the plurality of light emitting elements or light emitting surfaces are disposed in parallel at least in a first direction (Y); a projection lens disposed in front of the light source and which projects light (L) emitted from the light source ; and a light distribution adjusting element that adjusts light distribution of the light (L) emitted from the light source , wherein the light distribution adjusting element has a front surface and a rear surface which are perpendicular to an optical axis (Ax) of the light (L) emitted from the light source and which are opposite to each other, wherein a first prism surface is formed on one of the front surface or the rear surface, wherein the first prism surface includes a plurality of inclined surfaces and a plurality of flat surfaces that form a plurality of prisms , wherein the plurality of flat surfaces are parallel to a surface perpendicular to the optical axis (Ax), wherein the plurality of flat surfaces is disposed at an apex section or a bottom section of the plurality of inclined surfaces , wherein the plurality of prisms have different angles (α, β, γ) of inclined surfaces , wherein the plurality of flat surfaces and the plurality of inclined surfaces are formed to extend in a direction which crosses with the first direction (Y).
A process for manufacturing a nanocellular single crystal nickel based material, comprising the steps of: providing a first solution containing a nickel precursor and deionized water; providing a second solution containing a structure controlling polymer/surfactant and an alcohol; mixing said first and second solutions into a solution containing a reducing agent to form a third solution; and processing said third solution to create the nanocellular single crystal nickel based material; characterized in that said processing step comprises stirring said third solution at a temperature in the range of 100°C to 130°C for a time period in the range of 5.0 minutes to 15 minutes; and wherein the reducing agent is hydrazine. providing a first solution containing a nickel precursor and deionized water; providing a second solution containing a structure controlling polymer/surfactant and an alcohol; mixing said first and second solutions into a solution containing a reducing agent to form a third solution; and processing said third solution to create the nanocellular single crystal nickel based material; characterized in that said processing step comprises stirring said third solution at a temperature in the range of 100°C to 130°C for a time period in the range of 5.0 minutes to 15 minutes; and wherein the reducing agent is hydrazine. stirring said third solution at a temperature in the range of 100°C to 130°C for a time period in the range of 5.0 minutes to 15 minutes; and wherein the reducing agent is hydrazine.
A method of illumination compensation, IC, in a three-dimensional, 3D, or multi-view decoding system, the method comprising: receiving coded data associated with a current coding unit (CU) of a texture picture in a dependent view from a bitstream; reconstructing the current coding unit (CU) to generate a reconstructed current coding unit; parsing an illumination compensation flag for the current coding unit (CU) from the bitstream only when the illumination compensation is enabled, and the current coding unit (CU) is processed by one 2Nx2N prediction unit, wherein the illumination compensation flag is not parsed for the current coding unit (CU) when the current coding unit (CU) is processed by multiple prediction units with other sizes; and applying the illumination compensation to the reconstructed current coding unit (CU) according to the illumination compensation flag when the illumination compensation is enabled; characterized in that if the illumination compensation flag incorporated in the bitstream corresponds to the case that the current coding unit is coded by said one 2Nx2N prediction unit in non-Merge mode, then the illumination compensation flag for another case in which the current coding unit (CU) is processed by one prediction unit in Merge mode depends on a selected merging candidate (MV IV ; M b' ). receiving coded data associated with a current coding unit (CU) of a texture picture in a dependent view from a bitstream; reconstructing the current coding unit (CU) to generate a reconstructed current coding unit; parsing an illumination compensation flag for the current coding unit (CU) from the bitstream only when the illumination compensation is enabled, and the current coding unit (CU) is processed by one 2Nx2N prediction unit, wherein the illumination compensation flag is not parsed for the current coding unit (CU) when the current coding unit (CU) is processed by multiple prediction units with other sizes; and applying the illumination compensation to the reconstructed current coding unit (CU) according to the illumination compensation flag when the illumination compensation is enabled; characterized in that if the illumination compensation flag incorporated in the bitstream corresponds to the case that the current coding unit is coded by said one 2Nx2N prediction unit in non-Merge mode, then the illumination compensation flag for another case in which the current coding unit (CU) is processed by one prediction unit in Merge mode depends on a selected merging candidate (MV IV ; M b' ).
Method for producing a fibre composite component , said method comprising: producing a filling body for a preform of the fibre composite component from a plastics material, wherein the preform comprises a textile material ; cross-linking the plastics material of the filling body by irradiating the filling body with radiation such that the plastics material molecules of the plastics material are connected to one another; inserting the filling body into the preform of the fibre composite component ; and connecting the filling body to the preform so as to form the fibre composite component . producing a filling body for a preform of the fibre composite component from a plastics material, wherein the preform comprises a textile material ; cross-linking the plastics material of the filling body by irradiating the filling body with radiation such that the plastics material molecules of the plastics material are connected to one another; inserting the filling body into the preform of the fibre composite component ; and connecting the filling body to the preform so as to form the fibre composite component .
A beer brewing pack comprising: a pack body having a mounting part to be mounted in a fermentation tank assembly , the pack body having an outer hollow part protruding therefrom; a flexible container coupled to a lower portion of the pack body ; and a main flow path body ; characterized in that an inner hollow part inserted and accommodated in the outer hollow part is formed in the main flow path body , in that the main flow path body has a handle part located at an upper portion of the outer hollow part , in that the inner hollow part is separably inserted into the pack body to be in surface contact with the outer hollow part , and in that the handle part is formed at an upper portion of the inner hollow part . a pack body having a mounting part to be mounted in a fermentation tank assembly , the pack body having an outer hollow part protruding therefrom; a flexible container coupled to a lower portion of the pack body ; and a main flow path body ; characterized in that an inner hollow part inserted and accommodated in the outer hollow part is formed in the main flow path body , in that the main flow path body has a handle part located at an upper portion of the outer hollow part , in that the inner hollow part is separably inserted into the pack body to be in surface contact with the outer hollow part , and in that the handle part is formed at an upper portion of the inner hollow part .
A microwave shielding plate , comprising one or more conductive layer, each of the conductive layers being provided with a conductor therein, both ends of the conductor being provided with wiring points, and a shielding section covering the conductive layer being formed when the conductor is coupled into a conductive loop, wherein the microwave shielding plate comprises an electrical performance detector coupled with the conductor, wherein the electrical performance detector determines whether the microwave shielding plate is damaged by detecting changes in electrical performance parameters in the conductive loop, characterized in that microwave leakage is detected in time by detecting the change of the electrical performance parameters, thereby objectively reflecting whether the microwave shielding plate loses efficacy or not and accurately monitoring the microwave leakage. wherein the microwave shielding plate comprises an electrical performance detector coupled with the conductor, wherein the electrical performance detector determines whether the microwave shielding plate is damaged by detecting changes in electrical performance parameters in the conductive loop, characterized in that microwave leakage is detected in time by detecting the change of the electrical performance parameters, thereby objectively reflecting whether the microwave shielding plate loses efficacy or not and accurately monitoring the microwave leakage.