mhurhangee/patent-ind-claim-en huggingface dataset:
A microwave ablation probe having a longitudinal axis and comprising: a probe body comprising a shielded portion and a radiation window that is at least partially transparent to microwave energy, wherein the shielded portion comprises a cannula; a coaxial cable disposed within the probe body; and an antenna comprising a radiating portion for emission of microwave energy at a distal portion of the probe body, wherein the radiating portion is aligned with the radiation window; wherein the probe body defines an irrigation path configured to carry cooling fluid to and from the distal portion of the probe body, wherein at least one wall defining the irrigation path comprises a heat exchange surface ; wherein the heat exchange surface has an average radius (r3), wherein a surface area of the heat exchange surface is larger than a surface area of a smooth surface with a radius equal to the average radius; wherein: a) the heat exchange surface is located on at least a portion of an inner surface of the cannula or on at least a portion of an outer surface of an outer conductor of the coaxial cable ; and b) the distance between the heat exchange surface and the longitudinal axis of the probe body varies around the circumference of the heat exchange surface, or the heat exchange surface includes corrugations, undulations, fins, or one or more ridges. a probe body comprising a shielded portion and a radiation window that is at least partially transparent to microwave energy, wherein the shielded portion comprises a cannula; a coaxial cable disposed within the probe body; and an antenna comprising a radiating portion for emission of microwave energy at a distal portion of the probe body, wherein the radiating portion is aligned with the radiation window; wherein the probe body defines an irrigation path configured to carry cooling fluid to and from the distal portion of the probe body, wherein at least one wall defining the irrigation path comprises a heat exchange surface ; wherein the heat exchange surface has an average radius (r3), wherein a surface area of the heat exchange surface is larger than a surface area of a smooth surface with a radius equal to the average radius; wherein: a) the heat exchange surface is located on at least a portion of an inner surface of the cannula or on at least a portion of an outer surface of an outer conductor of the coaxial cable ; and b) the distance between the heat exchange surface and the longitudinal axis of the probe body varies around the circumference of the heat exchange surface, or the heat exchange surface includes corrugations, undulations, fins, or one or more ridges. a) the heat exchange surface is located on at least a portion of an inner surface of the cannula or on at least a portion of an outer surface of an outer conductor of the coaxial cable ; and b) the distance between the heat exchange surface and the longitudinal axis of the probe body varies around the circumference of the heat exchange surface, or the heat exchange surface includes corrugations, undulations, fins, or one or more ridges.
A support frame for a pellicle which comprises: a frame member comprising aluminum or aluminum alloy, an anodized film on the surface of the frame member; and an inorganic coating layer formed directly on the outer surface of the anodized film to seal the outer surface, wherein the inorganic coating layer is formed by baking at a temperature of from 30°C to 200°C a coating agent having the molecular structure of: wherein R is a hydrocarbon group; and wherein the main chain of the inorganic coating layer is constituted by a -Si-O-Si-O-bond. a frame member comprising aluminum or aluminum alloy, an anodized film on the surface of the frame member; and an inorganic coating layer formed directly on the outer surface of the anodized film to seal the outer surface, wherein the inorganic coating layer is formed by baking at a temperature of from 30°C to 200°C a coating agent having the molecular structure of: wherein R is a hydrocarbon group; and wherein the main chain of the inorganic coating layer is constituted by a -Si-O-Si-O-bond.
A vacuum mold shuttle system for forming a hot glass sheet (G) comprising: a mold including a downwardly facing surface that defines a shape to which the glass sheet (G) is to be initially formed, a vacuum chamber, and openings that extend from the downwardly facing surface to the vacuum chamber; a mold support frame including at least one connection surface for mounting the mold thereon, and a mold conduit operably connected at a first location to the vacuum chamber and including an opening at a second location defining a first coupling port; a shuttle frame including a pair of generally parallel elongate beams, each of the beams including a support surface near one end of the beam for receiving and supporting the mold support frame thereon; a vacuum source mounted on the shuttle frame near an end of one of the beams opposite the end including the support surface for the mold support frame ; a shuttle conduit operably connected at a first location to the vacuum source and including an opening at a second location defining a second coupling port; and a connector for releasably connecting the first coupling port to the second coupling port to provide communication of the vacuum from the vacuum source through the shuttle conduit and through the mold conduit to the vacuum chamber for selectively drawing a vacuum at the downwardly facing surface of the mold. a mold including a downwardly facing surface that defines a shape to which the glass sheet (G) is to be initially formed, a vacuum chamber, and openings that extend from the downwardly facing surface to the vacuum chamber; a mold support frame including at least one connection surface for mounting the mold thereon, and a mold conduit operably connected at a first location to the vacuum chamber and including an opening at a second location defining a first coupling port; a shuttle frame including a pair of generally parallel elongate beams, each of the beams including a support surface near one end of the beam for receiving and supporting the mold support frame thereon; a vacuum source mounted on the shuttle frame near an end of one of the beams opposite the end including the support surface for the mold support frame ; a shuttle conduit operably connected at a first location to the vacuum source and including an opening at a second location defining a second coupling port; and a connector for releasably connecting the first coupling port to the second coupling port to provide communication of the vacuum from the vacuum source through the shuttle conduit and through the mold conduit to the vacuum chamber for selectively drawing a vacuum at the downwardly facing surface of the mold.
A method performed by an electronic device, the method comprising: receiving , from a profile server, profile package information including a plurality of data which are segmented from an unprotected profile package and are encrypted based on a key, wherein the unprotected profile package consists of a plurality of profile elements and each of the plurality of profile elements is to be processed in an embedded universal integrated circuit card, eUICC, independently from other profile element; obtaining at least one data unit from the profile package information; and delivering the at least one data unit to the eUICC associated with the electronic device, wherein a profile corresponding to the unprotected profile package includes at least one of an application, or a file system. receiving , from a profile server, profile package information including a plurality of data which are segmented from an unprotected profile package and are encrypted based on a key, wherein the unprotected profile package consists of a plurality of profile elements and each of the plurality of profile elements is to be processed in an embedded universal integrated circuit card, eUICC, independently from other profile element; obtaining at least one data unit from the profile package information; and delivering the at least one data unit to the eUICC associated with the electronic device, wherein a profile corresponding to the unprotected profile package includes at least one of an application, or a file system.
Method of detecting subcooled liquid precipitation, - wherein a temperature of an object having a precipitation impingement surface is measured, and - wherein it is determined whether precipitation onto the precipitation impingement surface occurs, characterized in that , in case of an increase in the temperature below 0°C because of occurring precipitation, a subcooled liquid precipitation warning is output. - wherein a temperature of an object having a precipitation impingement surface is measured, and - wherein it is determined whether precipitation onto the precipitation impingement surface occurs, characterized in that , in case of an increase in the temperature below 0°C because of occurring precipitation, a subcooled liquid precipitation warning is output.
A catalyst composition useful for the dehydrogenation of hydrocarbon compounds comprising: components (A) - (G), wherein: (A) is a catalyst substrate; (B) is platinum at a level of 0.2 wt.% to 2wt.% based on the weight of the catalyst composition; (C) is at least one of germanium, tin, lead, gallium, indium, and titanium, the total amount of component (C) being at a level of 0.2 wt.% to 5 wt.% based on the weight of the catalyst composition; (D) is phosphorus at a level of 1 wt.% to 3 wt.% based on the weight of the catalyst composition; (E) is at least one of magnesium, calcium, strontium, barium, radium, and a lanthanide, the total amount of component (E) being at a level of 0.1 wt.% to 5 wt.% based on the weight of the catalyst composition; (F) is chloride at a level of 0.1 wt.% to 2 wt.% based on the weight of the catalyst composition; and (G) is manganese. (A) is a catalyst substrate; (B) is platinum at a level of 0.2 wt.% to 2wt.% based on the weight of the catalyst composition; (C) is at least one of germanium, tin, lead, gallium, indium, and titanium, the total amount of component (C) being at a level of 0.2 wt.% to 5 wt.% based on the weight of the catalyst composition; (D) is phosphorus at a level of 1 wt.% to 3 wt.% based on the weight of the catalyst composition; (E) is at least one of magnesium, calcium, strontium, barium, radium, and a lanthanide, the total amount of component (E) being at a level of 0.1 wt.% to 5 wt.% based on the weight of the catalyst composition; (F) is chloride at a level of 0.1 wt.% to 2 wt.% based on the weight of the catalyst composition; and (G) is manganese.
A heat-storage device, comprising a container having an interior space , which has a storage space in which a heat-storage medium for storing thermal energy is disposed, the container having a first opening via which a gas stream is conducted into the interior space and a second opening via which the gas stream is conducted from the interior space , the heat-storage device having a heater space in which an electric heating system is disposed through which the gas stream flows, the heater space being connected to the storage space for the heat-storage medium via an open volume of the interior space , characterized in that the open volume is disposed above the heater space connected to the heating system and above the storage space filled by the heat-storage medium and forms a gas distribution space, a maintenance opening being provided which is closed by means of a detachable wall element .
A kit for detecting at least one KANSARL fusion transcript from a biological sample from a subject, comprising at least one of the following components: (a) at least one probe, wherein each of the at least one probe comprises a sequence that hybridizes specifically to a junction of the at least one KANSARL fusion transcript, said junction comprising a nucleotide sequence as set forth in SEQ ID NO: 886,551; (b) at least one pair of probes, wherein each of the at least one pair of probes comprises: a firstprobe comprising a sequence that hybridizes specifically to KANSL1; and a second probe comprising a sequence that hybridizes specifically to ARL17A, each of the at least one pair of probes comprises a pair of nucleotide sequences selected from one of SEQ ID NO: 886566 and SEQ ID NO: 886567; SEQ ID NO: 886568 and SEQ ID NO:886569; or (c) at least one pair of amplification primers, wherein each of the at least one pair of amplification primers are configured to specifically amplify the at least one KANSARL fusion transcript, each of the at least one pair of amplification primers comprises a pair of nucleotide sequences selected from one of SEQ ID NO: 886566 and SEQ ID NO: 886567; SEQ ID NO: 886568 and SEQ ID NO: 886569. (a) at least one probe, wherein each of the at least one probe comprises a sequence that hybridizes specifically to a junction of the at least one KANSARL fusion transcript, said junction comprising a nucleotide sequence as set forth in SEQ ID NO: 886,551; (b) at least one pair of probes, wherein each of the at least one pair of probes comprises: a firstprobe comprising a sequence that hybridizes specifically to KANSL1; and a second probe comprising a sequence that hybridizes specifically to ARL17A, each of the at least one pair of probes comprises a pair of nucleotide sequences selected from one of SEQ ID NO: 886566 and SEQ ID NO: 886567; SEQ ID NO: 886568 and SEQ ID NO:886569; or (c) at least one pair of amplification primers, wherein each of the at least one pair of amplification primers are configured to specifically amplify the at least one KANSARL fusion transcript, each of the at least one pair of amplification primers comprises a pair of nucleotide sequences selected from one of SEQ ID NO: 886566 and SEQ ID NO: 886567; SEQ ID NO: 886568 and SEQ ID NO: 886569.
A fluid injector for injecting an injection fluid into a hot flow, comprising: a flow structure defining an injection flow channel and configured to extend at least partially into a flow path to introduce the injection fluid into the hot flow in the flow path, wherein the flow structure includes heat resistance features to protect the flow structure and the fluid from heat of the hot flow wherein the flow structure includes a base , a stem extending from the base , and an injector head at a distal end of the stem ; wherein the heat resistance features include active cooling; wherein the flow structure defines a cooling channel enclosed therein and configured to circulate a cooling fluid from an inlet on the base , through the stem , to the injector head , and back through the stem to an outlet on the base ; wherein the cooling channel includes at least one tortuous path in the injector head to wind at least partially around the injector head in at least one direction; and characterized in that : the heat resistance features include an insulating structure, and wherein the insulating structure defines a heat shield gap within at least a portion of the stem and the injector head . a flow structure defining an injection flow channel and configured to extend at least partially into a flow path to introduce the injection fluid into the hot flow in the flow path, wherein the flow structure includes heat resistance features to protect the flow structure and the fluid from heat of the hot flow wherein the flow structure includes a base , a stem extending from the base , and an injector head at a distal end of the stem ; wherein the heat resistance features include active cooling; wherein the flow structure defines a cooling channel enclosed therein and configured to circulate a cooling fluid from an inlet on the base , through the stem , to the injector head , and back through the stem to an outlet on the base ; wherein the cooling channel includes at least one tortuous path in the injector head to wind at least partially around the injector head in at least one direction; and
Polyclonal IgG for use in a method of treating a toxin-induced demyelinating peripheral neuropathy by promoting myelination of a peripheral nerve cell by a Schwann cell, the method comprising administering a therapeutically effective amount of the polyclonal IgG to a mammal diagnosed with said neuropathy.
A method for mixing a liquid with a gas by using a gas-liquid contactor with a housing in which a plurality of hollow fibers is arranged and a space surrounding the hollow fibers is formed, the method including the following steps: a) introducing a liquid to be mixed with gas into the space surrounding the hollow fibers of the gas-liquid contactor , b) introducing a gas into the hollow fibers of the gas-liquid contactor , c) allowing the liquid to be mixed with gas and the gas to flow in the gas-liquid contactor , and d) obtaining a liquid mixed with gas, wherein the liquid to be mixed with gas and the gas countercurrently flow through the gas-liquid contactor , and wherein the gas-liquid contactor includes a fluid distribution device with a first side and a second side and a plurality of apertures which extend from the first side to the second side and through which the liquid to be mixed with gas flows, the fluid distribution device furthermore including: a) an interior space which is delimited by the first side and by the second side and which is designed fluid-tight with respect to the apertures ; b) a plurality of openings which connect the interior space with the second side ; and c) a fluid port through which the gas is introduced into the interior space or discharged from the interior space, wherein the fluid distribution device is arranged such that the apertures of the fluid distribution device are in flow connection with the space surrounding the hollow fibers and that the openings of the fluid distribution device are in flow connection with an inner region of the hollow fibers , characterized in that the apertures of the fluid distribution device have a diameter which is greater than a diameter of the openings . a) introducing a liquid to be mixed with gas into the space surrounding the hollow fibers of the gas-liquid contactor , b) introducing a gas into the hollow fibers of the gas-liquid contactor , c) allowing the liquid to be mixed with gas and the gas to flow in the gas-liquid contactor , and d) obtaining a liquid mixed with gas,
An aqueous architectural composition comprising a substantially acrylic emulsion polymer wherein the acrylic monomers forming the polymer have a Tg of less than -10 °C and higher than -50°C, wherein the acrylic emulsion polymer comprises at least one cross-linkable moiety; at least one additive of solid polyutherane (PU) spheres having a mean weight diameter of less than 40 microns and a Tg of less than 0°C, wherein the solid PU spheres make up 10% to 20% by weight of the composition, wherein the substantially acrylic emulsion polymer forms a film; and at least a stoichiometric amount of a cross-linking agent in the aqueous phase of the composition to cross-link with the at least one cross-linkable moiety. a substantially acrylic emulsion polymer wherein the acrylic monomers forming the polymer have a Tg of less than -10 °C and higher than -50°C, wherein the acrylic emulsion polymer comprises at least one cross-linkable moiety; at least one additive of solid polyutherane (PU) spheres having a mean weight diameter of less than 40 microns and a Tg of less than 0°C, wherein the solid PU spheres make up 10% to 20% by weight of the composition, wherein the substantially acrylic emulsion polymer forms a film; and at least a stoichiometric amount of a cross-linking agent in the aqueous phase of the composition to cross-link with the at least one cross-linkable moiety.
A compression-ignited (diesel) engine lubricating oil composition having a sulfated ash content of no greater than 1.0 mass %, a sulfur content of no greater than 0.4 mass %, and a phosphorus content of no greater than 0.12 mass %; and a TBN of from 7 to 15, said lubricating oil composition comprising, or made by admixing: (a) a major amount of oil of lubricating viscosity; (b) a minor amount of an overbased magnesium detergent providing said lubricating oil composition with at least 1200 ppm of magnesium, wherein said overbased magnesium detergent is one or more overbased magnesium detergents having, or having on average, a TBN of from 300 to 450 as measured by ASTM D2896; (c) at least 0.5 mass % of an ashless antioxidant mixture of sulfur-free phenolic antioxidants and aminic antioxidants; and (d) at least one nitrogen-containing dispersant, in an amount providing said lubricating oil composition with at least 0.08 mass% of nitrogen; wherein all overbased metal detergent in said lubricating oil composition is overbased magnesium detergent. (a) a major amount of oil of lubricating viscosity; (b) a minor amount of an overbased magnesium detergent providing said lubricating oil composition with at least 1200 ppm of magnesium, wherein said overbased magnesium detergent is one or more overbased magnesium detergents having, or having on average, a TBN of from 300 to 450 as measured by ASTM D2896; (c) at least 0.5 mass % of an ashless antioxidant mixture of sulfur-free phenolic antioxidants and aminic antioxidants; and (d) at least one nitrogen-containing dispersant, in an amount providing said lubricating oil composition with at least 0.08 mass% of nitrogen;
An image analysis method for tumor classification, the method comprising: - receiving , by an image analysis system , at least one digital image of a tissue sample of a patient; - analyzing , by the image analysis system, the at least one received image for identifying tumor cells in a region of the at least one received image; - analyzing , by the image analysis system, the at least one received image for identifying FAP+ areas in said region, each FAP+ area being a pixel blob representing one or more cells expressing the fibroblast activation protein - "FAP"; - analyzing , by the image analysis system, the at least one received image for identifying distances (d) between the identified tumor cells and their respective nearest FAP+ area; - computing , by the image analysis system, a proximity measure as a function of the identified distances; - processing the proximity measure by a classifier for generating a classification result, the classification result indicating if the tumor of the patient can effectively be treated by a drug or drug-component that binds to the FAP protein; and - outputting , by the image analysis system, the classification result. - receiving , by an image analysis system , at least one digital image of a tissue sample of a patient; - analyzing , by the image analysis system, the at least one received image for identifying tumor cells in a region of the at least one received image; - analyzing , by the image analysis system, the at least one received image for identifying FAP+ areas in said region, each FAP+ area being a pixel blob representing one or more cells expressing the fibroblast activation protein - "FAP"; - analyzing , by the image analysis system, the at least one received image for identifying distances (d) between the identified tumor cells and their respective nearest FAP+ area; - computing , by the image analysis system, a proximity measure as a function of the identified distances; - processing the proximity measure by a classifier for generating a classification result, the classification result indicating if the tumor of the patient can effectively be treated by a drug or drug-component that binds to the FAP protein; and - outputting , by the image analysis system, the classification result.