mhurhangee/patent-ind-claim-en huggingface dataset:
A method of image processing using image processor circuitry applying a trained statistical learning model, the method comprising: obtaining imaging data acquired at least in part using an imaging modality; applying at least one of a reconstruction or a segmentation to the imaging data to generate at least one reconstructed or segmented initial image; providing the initial image and an image randomness component to a generator applying a previously trained conditional generative statistical learning model, to generate posterior distribution simulated images for providing at least one indication of an image error associated with the initial image; and providing the indication of the image error associated with the initial image for displaying or further processing. obtaining imaging data acquired at least in part using an imaging modality; applying at least one of a reconstruction or a segmentation to the imaging data to generate at least one reconstructed or segmented initial image; providing the initial image and an image randomness component to a generator applying a previously trained conditional generative statistical learning model, to generate posterior distribution simulated images for providing at least one indication of an image error associated with the initial image; and providing the indication of the image error associated with the initial image for displaying or further processing.
An oral pharmaceutical composition for use in treating, preventing or alleviating inflammation of the esophagus or symptoms associated therewith, the composition comprising: a corticosteroid, maltodextrin, and a mixture of a carboxymethyl cellulose (CMC) and a microcrystalline cellulose (MCC). a corticosteroid, maltodextrin, and a mixture of a carboxymethyl cellulose (CMC) and a microcrystalline cellulose (MCC).
A method performed by a wireless device engaged in a streaming session via enhanced Multimedia Broadcast Multicast Service, eMBMS, in a communication network, the method comprising: - obtaining a Uniform Resource Locator, URL, of a streaming server providing data for the streaming session from a first network node providing the eMBMS; - detecting that a signal quality related to the eMBMS falls below a threshold; - providing the obtained URL to a second network node, when the wireless device about to leave an eMBMS coverage area, in order to induce the second network node to prepare for unicast of the streaming session via a target node; wherein the target node is associated with a different cell or an at least partly different coverage area than a cell or area in which the eMBMS is provided; - connecting to the target node for continuation of the streaming session; - indicating , to the second node, a signal quality related to at least one possible target node operable to provide unicast; and - obtaining from the second network node, in response to the indicating of signal quality, system information related to the target node, wherein the system information enables the wireless device to connect to the target network node, wherein the connection to the target node is based on the obtained system information. - obtaining a Uniform Resource Locator, URL, of a streaming server providing data for the streaming session from a first network node providing the eMBMS; - detecting that a signal quality related to the eMBMS falls below a threshold; - providing the obtained URL to a second network node, when the wireless device about to leave an eMBMS coverage area, in order to induce the second network node to prepare for unicast of the streaming session via a target node; wherein the target node is associated with a different cell or an at least partly different coverage area than a cell or area in which the eMBMS is provided; - connecting to the target node for continuation of the streaming session; - indicating , to the second node, a signal quality related to at least one possible target node operable to provide unicast; and - obtaining from the second network node, in response to the indicating of signal quality, system information related to the target node, wherein the system information enables the wireless device to connect to the target network node,
A PI3K inhibitor, alone or in combination with one or more other therapeutic agents, for use in treating or managing cancer or hematologic malignancy in a subject that is, or is identified as, relapsed or refractory to a prior treatment with the BTK inhibitor ibrutinib; wherein the PI3K inhibitor is Compound 292 having the following structure: or a pharmaceutically acceptable form thereof; and the cancer or hematologic malignancy is lymphoma or chronic lymphocytic leukaemia (CLL).
A transportation refrigeration unit, TRU, and power system comprising: a compressor configured to compress a refrigerant, the compressor having a compressor motor configured to drive the compressor ; an evaporator heat exchanger operatively coupled to the compressor ; an evaporator fan configured to provide return airflow from a return air intake and flow the return airflow over the evaporator heat exchanger ; a return air temperature, RAT, sensor disposed in the return airflow and configured measure the temperature of the return airflow ; a TRU controller operably connected to the RAT sensor and configured to execute a process to determine an AC power requirement for the TRU based on at least the RAT; a generator power converter , the generator power converter configured to receive a generator three phase AC power provided by an AC generator and transmit a second DC power ; an energy storage system configured to receive the second DC power and provide a first a three phase AC power and receive a second three phase AC power ; and a power management system configured to receive the first three phase AC power and direct at least a portion of the first three phase AC power to the TRU based at least in part on the AC power requirement; wherein the generator power converter is operably connected to the TRU controller , the generator power converter including a voltage control function , a current control function , wherein at least the voltage control function is responsive at least in part to the AC power requirement. a compressor configured to compress a refrigerant, the compressor having a compressor motor configured to drive the compressor ; an evaporator heat exchanger operatively coupled to the compressor ; an evaporator fan configured to provide return airflow from a return air intake and flow the return airflow over the evaporator heat exchanger ; a return air temperature, RAT, sensor disposed in the return airflow and configured measure the temperature of the return airflow ; a TRU controller operably connected to the RAT sensor and configured to execute a process to determine an AC power requirement for the TRU based on at least the RAT; a generator power converter , the generator power converter configured to receive a generator three phase AC power provided by an AC generator and transmit a second DC power ; an energy storage system configured to receive the second DC power and provide a first a three phase AC power and receive a second three phase AC power ; and a power management system configured to receive the first three phase AC power and direct at least a portion of the first three phase AC power to the TRU based at least in part on the AC power requirement; wherein the generator power converter is operably connected to the TRU controller , the generator power converter including a voltage control function , a current control function , wherein at least the voltage control function is responsive at least in part to the AC power requirement.
Method for liquefying natural gas in combination with a method for producing synthetic gas, the liquefaction method comprising the following steps: - Step a): pre-treating a natural supply gas in order to remove the impurities likely to freeze during the liquefaction method; - Step b): extracting, from the gaseous current from step a), a hydrocarbon-enriched current having more than two carbon atoms; - Step c): liquefying the hydrocarbon-depleted gaseous current having more than two carbon atoms from step b); the step of producing synthetic gas comprising the following steps: - Step a'): desulfurising at a temperature greater than 350°C of a natural gas supply current; - Step b'): optional pre-reforming, at a temperature greater than 500°C in order to convert the hydrocarbon chains containing at least two carbon atoms of the gaseous current from step a') into methane; - Step c'): reforming consisting of making the gaseous current from step a') or b') react at a temperature greater than 800°C with steam to produce hydrogen, carbon dioxide and carbon monoxide; characterised in that the steam from the method for producing synthetic gas is used as a source of heat for the implementation of step a); and characterised in that step a) consists of a pre-treatment by adsorption by means of an adsorption system comprising between two and five containers of at least one adsorbent layer and at least one device for heating and/or cooling an adsorption and/or regeneration current circulating in said adsorption system, and characterised in that the steam from the method for producing synthetic gas is implemented to heat said regeneration current. - Step a): pre-treating a natural supply gas in order to remove the impurities likely to freeze during the liquefaction method; - Step b): extracting, from the gaseous current from step a), a hydrocarbon-enriched current having more than two carbon atoms; - Step c): liquefying the hydrocarbon-depleted gaseous current having more than two carbon atoms from step b); - Step a'): desulfurising at a temperature greater than 350°C of a natural gas supply current; - Step b'): optional pre-reforming, at a temperature greater than 500°C in order to convert the hydrocarbon chains containing at least two carbon atoms of the gaseous current from step a') into methane; - Step c'): reforming consisting of making the gaseous current from step a') or b') react at a temperature greater than 800°C with steam to produce hydrogen, carbon dioxide and carbon monoxide;
A ship speed control device , comprising: a calculator configured to calculate a throttle calculation value (Re) based on a difference between an actual ship speed (V) and a target ship speed (Vt); and a throttle command value setter configured to set a throttle command value (R) to a throttle upper limit (Rs) when the actual ship speed (V) is below a first threshold (THr) determined based on the given throttle upper limit (Rs) and the throttle calculation value (Re) is at or above the throttle upper limit (Rs), characterized in that the throttle command value setter restricts the throttle command value (R) using the throttle upper limit (Rs) when a ship speed setting (Vp), from which the target ship speed (Vt) is calculated and that is a final ship speed during an automatic ship speed control, is above the first threshold (THr) and is at or above a second threshold (THs) that is determined based on the throttle upper limit (Rs). a calculator configured to calculate a throttle calculation value (Re) based on a difference between an actual ship speed (V) and a target ship speed (Vt); and a throttle command value setter configured to set a throttle command value (R) to a throttle upper limit (Rs) when the actual ship speed (V) is below a first threshold (THr) determined based on the given throttle upper limit (Rs) and the throttle calculation value (Re) is at or above the throttle upper limit (Rs),
A cartridge for an electronic vaping device, EVD , the cartridge comprising: a vaporizer assembly configured to form a raw vapor; and a flavor assembly removably coupled to the vaporizer assembly such that the flavor assembly is in flow communication with the vaporizer assembly , the flavor assembly enclosing a porous structure , the porous structure holding at least one flavorant, the flavor assembly being configured to form a flavored vapor based on elution of the at least one flavorant into the raw vapor, the elution being based on the raw vapor passing through the porous structure , wherein the flavor assembly includes a reservoir configured to hold the at least one flavorant, the reservoir comprising a tubular body having a hollow core extending longitudinally through the reservoir , wherein the porous structure includes a wicking material configured to draw the at least one flavorant from the reservoir , and wherein the porous structure extends transversely along an end of the reservoir so that the porous structure extends over one end of the hollow core . a vaporizer assembly configured to form a raw vapor; and a flavor assembly removably coupled to the vaporizer assembly such that the flavor assembly is in flow communication with the vaporizer assembly , the flavor assembly enclosing a porous structure , the porous structure holding at least one flavorant, the flavor assembly being configured to form a flavored vapor based on elution of the at least one flavorant into the raw vapor, the elution being based on the raw vapor passing through the porous structure , wherein the flavor assembly includes a reservoir configured to hold the at least one flavorant, the reservoir comprising a tubular body having a hollow core extending longitudinally through the reservoir , wherein the porous structure includes a wicking material configured to draw the at least one flavorant from the reservoir , and wherein the porous structure extends transversely along an end of the reservoir so that the porous structure extends over one end of the hollow core .
A composition comprising a first multilayer film comprising a plurality of oppositely charged polyelectrolyte layers and a lipopeptide TLR2, TLR1/2 and/or TLR6/2 ligand, wherein one of the polyelectrolyte layers in the multilayer film comprises a first antigenic polyelectrolyte, wherein the first antigenic polyelectrolyte comprises a Plasmodium falciparum circumsporozoite T1BT * epitope covalently linked to a first polyelectrolyte, wherein the first antigenic polyelectrolyte is a designed polypeptide that is at least 15 amino acid residues and no greater than 1,000 amino acid residues in length and has a magnitude of net charge per residue of greater than or equal to 0.2 at pH 7.0, wherein the polyelectrolytes in the multilayer film comprise a polycationic material or a polyanionic material having a molecular weight of greater than 1,000 and at least 5 charges per molecule, and wherein the first multilayer film is deposited on a core microparticle or core nanoparticle or is in the form of a hollow microcapsule or hollow nanocapsule.
An optical device comprising: • an emitting apparatus which is provided with a first aperture and which is suitable for emitting an excitation radiation through said first aperture , said excitation radiation comprising at least one light radiation having a wavelength included in a predefined spectral range, • an optical guide which extends longitudinally between a first end thereof and a second end thereof and which is internally provided with a core which is suitable for propagating radiation at a wavelength included in said predefined spectral range and defining an inlet aperture at said first end and an outlet aperture at said second end , said inlet aperture facing said first aperture so as to be passed through by at least a portion of said excitation radiation when it is emitted by said emitting apparatus , and said outlet aperture being intended to be directed towards an unknown sample when said optical device is in a first operating condition, wherein said optical guide comprises a reflective surface which at least partially delimits said core , said reflective surface being a regular optical surface with respect to radiation with a wavelength included in said predefined spectral range and being suitable for reflecting the portion of the excitation radiation which is projected into said core through the inlet aperture so as to propagate said excitation radiation out of said optical guide through said outlet aperture in order to illuminate the unknown sample , characterised in that said optical device comprises a gap which is arranged between said first aperture and said inlet aperture , said gap being suitable for receiving a reference sample so that the excitation radiation emitted by said emitting apparatus through said first aperture illuminates the reference sample when said optical device is in a second operating condition, in which said reference sample is received in said the gap . • an emitting apparatus which is provided with a first aperture and which is suitable for emitting an excitation radiation through said first aperture , said excitation radiation comprising at least one light radiation having a wavelength included in a predefined spectral range, • an optical guide which extends longitudinally between a first end thereof and a second end thereof and which is internally provided with a core which is suitable for propagating radiation at a wavelength included in said predefined spectral range and defining an inlet aperture at said first end and an outlet aperture at said second end , said inlet aperture facing said first aperture so as to be passed through by at least a portion of said excitation radiation when it is emitted by said emitting apparatus , and said outlet aperture being intended to be directed towards an unknown sample when said optical device is in a first operating condition,
A method for manufacturing a semiconductor sheet assembly, wherein a semiconductor sheet is rectangular, characterized by comprising steps of: S1: positioning the semiconductor sheet, and determining a first region to be grooved and a defect position in the first region, wherein the first region is a region within a predetermined range along a splitting line of the semiconductor sheet, the splitting line is one of lines splitting the semiconductor sheet in equal parts; S2: cutting and grooving the semiconductor sheet along the defect position in the first region and an edge point, the edge point is an intersection point of the splitting line and an edge of the semiconductor sheet, and a connecting line of the defect position and the intersection point is perpendicular to the edge of the semiconductor sheet; and S3: splitting the semiconductor sheet that is cut and grooved; wherein the step S2 includes: performing discontinuous laser dotting and grooving on the semiconductor sheet along the defect position in the first region. S1: positioning the semiconductor sheet, and determining a first region to be grooved and a defect position in the first region, wherein the first region is a region within a predetermined range along a splitting line of the semiconductor sheet, the splitting line is one of lines splitting the semiconductor sheet in equal parts; S2: cutting and grooving the semiconductor sheet along the defect position in the first region and an edge point, the edge point is an intersection point of the splitting line and an edge of the semiconductor sheet, and a connecting line of the defect position and the intersection point is perpendicular to the edge of the semiconductor sheet; and S3: splitting the semiconductor sheet that is cut and grooved;
A method comprising: registering a private key and a public key associated with at least one of a tenant key identifier for a tenant or an application key identifier for a first application of the tenant, validating data in addresses of a group of storage blocks using the private key and the public key, and associating the addresses of the group of storage blocks to the at least one of the tenant key identifier or the application key identifier; generating a map by mapping the group of storage blocks to the tenant comprising associating the addresses of the group of storage blocks with the tenant key identifier or the application key identifier, the group of storage blocks and a signature, wherein the signature is to validate the group of storage blocks; determining if a data access request for a first storage block is received, the data access request from a software stack; if a data access request is determined to be received performing a signature validation for the data access request based on the map of the group of storage blocks to the tenant; if a data access request is determined not to be received determining if a migration request is received; and if a migration request is determined to be received migrating data of the group of storage blocks and corresponding meta-data from a first storage device to a second storage device, the meta-data including attestation data of the group of storage blocks. registering a private key and a public key associated with at least one of a tenant key identifier for a tenant or an application key identifier for a first application of the tenant, validating data in addresses of a group of storage blocks using the private key and the public key, and associating the addresses of the group of storage blocks to the at least one of the tenant key identifier or the application key identifier; generating a map by mapping the group of storage blocks to the tenant comprising associating the addresses of the group of storage blocks with the tenant key identifier or the application key identifier, the group of storage blocks and a signature, wherein the signature is to validate the group of storage blocks; determining if a data access request for a first storage block is received, the data access request from a software stack; if a data access request is determined to be received performing a signature validation for the data access request based on the map of the group of storage blocks to the tenant; if a data access request is determined not to be received determining if a migration request is received; and if a migration request is determined to be received migrating data of the group of storage blocks and corresponding meta-data from a first storage device to a second storage device, the meta-data including attestation data of the group of storage blocks.
A drug delivery device comprising: a housing including: a lower body, the lower body defining a lower body channel, an upper body, the upper body defining an upper body channel, and a ring member , the ring member extending upward from an annular step surface of the lower body toward a housing upper end; and a drug cartridge defining a depot channel , the ring member including indicia indicating a characteristic of one or more drug depots in the drug cartridge; wherein the drug cartridge comprises a first plate having the depot channel , the depot channel capable of storing the one or more drug depots , characterized in that the first plate is in one piece with a funnel body comprising alignment ridges mating with alignment grooves in piers of the housing to align the drug cartridge with the housing . a housing including: a lower body, the lower body defining a lower body channel, an upper body, the upper body defining an upper body channel, and a ring member , the ring member extending upward from an annular step surface of the lower body toward a housing upper end; and a lower body, the lower body defining a lower body channel, an upper body, the upper body defining an upper body channel, and a ring member , the ring member extending upward from an annular step surface of the lower body toward a housing upper end; and a drug cartridge defining a depot channel , the ring member including indicia indicating a characteristic of one or more drug depots in the drug cartridge;