mhurhangee/patent-ind-claim-en huggingface dataset:
A method for responding to a CLC, Co-located Coexistence, request from a mobile electronic device comprising a first radio module (101 or 103) and a second radio module , performed by a base station , comprising: receiving a CLC request from the mobile electronic device , which requests for a period of absence of traffics to the second radio module to prevent interference with an operation of the first radio module (101 or 103); and characterized by enhancing transmission reliability to transmit data to the second radio module in the requested period. receiving a CLC request from the mobile electronic device , which requests for a period of absence of traffics to the second radio module to prevent interference with an operation of the first radio module (101 or 103); and characterized by enhancing transmission reliability to transmit data to the second radio module in the requested period.
An interlayer film for a laminated glass, comprising a first layer that contains a polyvinyl acetal resin and a plasticizer, and a second layer that contains a polyvinyl acetal resin and a plasticizer and is laminated on one face of the first layer, wherein an amount of the plasticizer for each 100 parts by weight of the polyvinyl acetal resin in the first layer is 50 parts by weight or higher, the hydroxyl content of the polyvinyl acetal resin in the first layer is lower than the hydroxyl content of the polyvinyl acetal resin in the second layer, the difference between the hydroxyl content of the polyvinyl acetal resin in the first layer and the hydroxyl content of the polyvinyl acetal resin in the second layer is at most 9.2 mol%, and the polyvinyl acetal resin in the first layer has a degree of acetylation of at most 8 mol% in the case that the difference between the hydroxyl content of the polyvinyl acetal resin in the first layer and the hydroxyl content of the polyvinyl acetal resin in the second layer is more than 8.5 mol% and at most 9.2 mol%, and the interlayer film for a laminated glass satisfied as below: the amount of the plasticizer for each 100 parts by weight of the polyvinyl acetal resin in the first layer is larger than the amount of the plasticizer for each 100 parts by weight of the polyvinyl acetal resin in the second layer by 25 parts by weight or more, the hydroxyl content of the polyvinyl acetal resin in the first layer is 27 mol% or less, and the hydroxyl content of the polyvinyl acetal resin in the second layer is 27 mol% or more.
A method for preparing a ceramic solid electrolyte selected from Li 1+x Al x Ti 2-x (PO 4 ) 3 (LATP) and Li 1+x Al x Ge 2-x (PO 4 ) 3 (LAGP), comprising mixing raw materials of the ceramic solid electrolyte with a ball-mill using distilled water as a solvent, drying the distilled water, and then high temperature heat-treating, wherein drying comprises drying first the solvent by rotary concentrating or by spraying, and drying second the solvent in a dryer to completely remove the distilled water solvent, wherein the temperature of drying first the distilled water is 60°C to 100°C when the drying first is by rotary concentrating, the temperature of drying first the distilled water is 80°C to 300°C when the drying first is by spraying, and wherein in the high temperature heat-treating process, first, the ceramic particles are calcined, and second, the ceramic particles are fired, wherein the temperature of calcining the ceramic particles is 300°C to 500°C and the temperature of firing the ceramic particles is 900°C to 1200°C, wherein the mixing is carried out in the distilled water, wherein the raw materials are LiCl, Al(NO 3 ) 3 ·9H 2 O, NH 4 H 2 PO 4 and Ti(OC 4 H 9 ) 4 when the ceramic solid electrolyte is LATP, or the raw materials are LiCl, Al(NO 3 ) 3 ·9H 2 O, NH 4 H 2 PO 4 and GeO 2 when the ceramic solid electrolyte is LAGP, and wherein 0 < x < 2. wherein drying comprises drying first the solvent by rotary concentrating or by spraying, and drying second the solvent in a dryer to completely remove the distilled water solvent, wherein the temperature of drying first the distilled water is 60°C to 100°C when the drying first is by rotary concentrating, the temperature of drying first the distilled water is 80°C to 300°C when the drying first is by spraying, and wherein in the high temperature heat-treating process, first, the ceramic particles are calcined, and second, the ceramic particles are fired, wherein the temperature of calcining the ceramic particles is 300°C to 500°C and the temperature of firing the ceramic particles is 900°C to 1200°C, wherein the mixing is carried out in the distilled water, wherein the raw materials are LiCl, Al(NO 3 ) 3 ·9H 2 O, NH 4 H 2 PO 4 and Ti(OC 4 H 9 ) 4 when the ceramic solid electrolyte is LATP, or the raw materials are LiCl, Al(NO 3 ) 3 ·9H 2 O, NH 4 H 2 PO 4 and GeO 2 when the ceramic solid electrolyte is LAGP, and wherein 0 < x < 2. wherein in the high temperature heat-treating process, first, the ceramic particles are calcined, and second, the ceramic particles are fired, wherein the temperature of calcining the ceramic particles is 300°C to 500°C and the temperature of firing the ceramic particles is 900°C to 1200°C, wherein the mixing is carried out in the distilled water, wherein the raw materials are LiCl, Al(NO 3 ) 3 ·9H 2 O, NH 4 H 2 PO 4 and Ti(OC 4 H 9 ) 4 when the ceramic solid electrolyte is LATP, or the raw materials are LiCl, Al(NO 3 ) 3 ·9H 2 O, NH 4 H 2 PO 4 and GeO 2 when the ceramic solid electrolyte is LAGP, and wherein 0 < x < 2.
A thermal barrier coating member , at least one of which is configured to be mounted on an inner wall surface of a cylinder liner accommodating a piston slidably along an axial direction, the inner wall surface facing a combustion chamber of an engine, the thermal barrier coating member comprising: a base layer configured to be detachably fitted into a recess formed in the inner wall surface of the cylinder liner ; and a thermal barrier coating layer formed on an opposite side of the base layer from the inner wall surface of the cylinder liner , wherein the thermal barrier coating layer is configured to be disposed above a piston ring which is positioned at an uppermost position in the axial direction of the cylinder liner when the piston reaches top dead center; wherein the base layer includes: a coated portion on which the thermal barrier coating layer is formed; and an exposed portion on which the thermal barrier coating layer is not formed, and wherein at least a part of the exposed portion has a protrusion which protrudes to the opposite side from the inner wall surface with respect to the coated portion ; wherein the protrusion includes a lower protrusion formed at a lower end portion of the base layer in the axial direction, and wherein the coated portion is disposed above the lower protrusion in the axial direction; wherein the thermal barrier coating layer has one surface formed on the inside surface of the base layer and the other surface disposed on the opposite side from the one surface , and characterized in that the lower protrusion is disposed radially inward of the other surface of the thermal barrier coating layer a base layer configured to be detachably fitted into a recess formed in the inner wall surface of the cylinder liner ; and a thermal barrier coating layer formed on an opposite side of the base layer from the inner wall surface of the cylinder liner , wherein the thermal barrier coating layer is configured to be disposed above a piston ring which is positioned at an uppermost position in the axial direction of the cylinder liner when the piston reaches top dead center; wherein the base layer includes: a coated portion on which the thermal barrier coating layer is formed; and an exposed portion on which the thermal barrier coating layer is not formed, and a coated portion on which the thermal barrier coating layer is formed; and an exposed portion on which the thermal barrier coating layer is not formed, and wherein at least a part of the exposed portion has a protrusion which protrudes to the opposite side from the inner wall surface with respect to the coated portion ; wherein the protrusion includes a lower protrusion formed at a lower end portion of the base layer in the axial direction, and wherein the coated portion is disposed above the lower protrusion in the axial direction; wherein the thermal barrier coating layer has one surface formed on the inside surface of the base layer and the other surface disposed on the opposite side from the one surface , and characterized in that the lower protrusion is disposed radially inward of the other surface of the thermal barrier coating layer
A computer-implemented method for mining pedestrian probe data from mix-mode probe data comprising: a. receiving a probe trajectory including a vehicle mode of travel, a pedestrian mode of travel, or a combination thereof; b. splitting the probe trajectory into two chunks; c. processing the probe trajectory to determine at least one speed value and at least one sinuosity value for each chunk; d. determining a pedestrian probe detection metric, PDM, for each chunk based on the at least one speed value and the at least one sinuosity value of each chunk, the PDM describing how pedestrian heavy each chunk is; e. calculating a homogeneity ratio between the PDMs of each chunk; f. unless the homogeneity ratio exceeds a homogeneity criterion or a threshold minimum number of probes in each chunk is reached, splitting each chunk into two further chunks and repeating steps c-f with each of the further chunks; and g. ranking each chunk of the probe trajectory among a plurality of probe trajectories based on the pedestrian probe detection metric. a. receiving a probe trajectory including a vehicle mode of travel, a pedestrian mode of travel, or a combination thereof; b. splitting the probe trajectory into two chunks; c. processing the probe trajectory to determine at least one speed value and at least one sinuosity value for each chunk; d. determining a pedestrian probe detection metric, PDM, for each chunk based on the at least one speed value and the at least one sinuosity value of each chunk, the PDM describing how pedestrian heavy each chunk is; e. calculating a homogeneity ratio between the PDMs of each chunk; f. unless the homogeneity ratio exceeds a homogeneity criterion or a threshold minimum number of probes in each chunk is reached, splitting each chunk into two further chunks and repeating steps c-f with each of the further chunks; and g. ranking each chunk of the probe trajectory among a plurality of probe trajectories based on the pedestrian probe detection metric.
A method for manufacturing an organic semiconductor thin film , comprising: supplying a raw material solution, in which an organic semiconductor material is dissolved in a solvent, to a substrate ; evaporating the solvent so that crystals of the organic semiconductor material are precipitated; and forming an organic semiconductor thin film on the substrate , wherein the method uses an edge forming member having a contact face on one side, the edge forming member is located opposite the substrate so that a plane of the contact face intersects a surface of the substrate at a predetermined angle, the substrate and the edge forming member are moved relative to each other in a direction parallel to the surface of the substrate so as to separate the edge forming member from the droplet , and while the raw material solution is supplied, the solvent contained in the droplet is evaporated to form the semiconductor thin film on the substrate after the contact face has been moved, and characterised in that : the raw material solution is supplied to the substrate and formed into a droplet that comes into contact with the contact face , and, in the precipitation process, a supply rate of the raw material solution and a speed of the relative movement are adjusted in accordance with a vapor rate of the solvent, so that a change in size of the droplet in the direction of the relative movement is maintained within a predetermined range in which an effect of defining a direction of growth of the crystals is obtained via an attachment of the droplet to the contact face . supplying a raw material solution, in which an organic semiconductor material is dissolved in a solvent, to a substrate ; evaporating the solvent so that crystals of the organic semiconductor material are precipitated; and forming an organic semiconductor thin film on the substrate , wherein the method uses an edge forming member having a contact face on one side, the edge forming member is located opposite the substrate so that a plane of the contact face intersects a surface of the substrate at a predetermined angle, the substrate and the edge forming member are moved relative to each other in a direction parallel to the surface of the substrate so as to separate the edge forming member from the droplet , and while the raw material solution is supplied, the solvent contained in the droplet is evaporated to form the semiconductor thin film on the substrate after the contact face has been moved, and characterised in that : the raw material solution is supplied to the substrate and formed into a droplet that comes into contact with the contact face , and, in the precipitation process, a supply rate of the raw material solution and a speed of the relative movement are adjusted in accordance with a vapor rate of the solvent, so that a change in size of the droplet in the direction of the relative movement is maintained within a predetermined range in which an effect of defining a direction of growth of the crystals is obtained via an attachment of the droplet to the contact face .
A method for the three-dimensional additive construction of a moulded body , wherein a starting material is solidified successively in layers in a construction process, the layers (3.n) formed in the process each having a predetermined cross-sectional geometry, characterised in that liquid or pasty water glass (W) is used as the starting material and the solidification of the layers (3.n) is effected by solvent removal via the introduction of an energy radiation (4.1).
An assembly comprising: a vessel having an open end , a closed end , and an interior cavity ; a cap disposed over the open end of the vessel , wherein the cap comprises a first bore extending through the cap ; a first port adapted to engage with the first bore ; a dip tube having an end coupled to the cap and an opposite end extending a majority of the length of the interior cavity of the vessel , the dip tube adapted to selectively withdraw an isolated component in the vessel , the dip tube adapted to engage with the first port via the first bore such that the height of the tube relative to the closed end of the vessel is adjustable, wherein the assembly is adapted to maintain an aseptic interior cavity when the dip tube withdraws the isolated component in the vessel , wherein the assembly comprises a dynamic mechanism configured to allow the height of the tube to be adjusted while withdrawing the isolated component and maintaining an aseptic interior cavity , wherein the dip tube comprises threading, and the first bore comprises threading, and wherein the threading on the dip tube is adapted to engage with the threading on the first bore . a vessel having an open end , a closed end , and an interior cavity ; a cap disposed over the open end of the vessel , wherein the cap comprises a first bore extending through the cap ; a first port adapted to engage with the first bore ; a dip tube having an end coupled to the cap and an opposite end extending a majority of the length of the interior cavity of the vessel , the dip tube adapted to selectively withdraw an isolated component in the vessel , the dip tube adapted to engage with the first port via the first bore such that the height of the tube relative to the closed end of the vessel is adjustable, wherein the assembly is adapted to maintain an aseptic interior cavity when the dip tube withdraws the isolated component in the vessel , wherein the assembly comprises a dynamic mechanism configured to allow the height of the tube to be adjusted while withdrawing the isolated component and maintaining an aseptic interior cavity , wherein the dip tube comprises threading, and the first bore comprises threading, and wherein the threading on the dip tube is adapted to engage with the threading on the first bore .
A method for treating solid organic material that is organic solid waste, the method comprising the steps of providing phagotrophic algae, providing solid organic material, combining the algae and the solid organic material without going through an intermediate microorganism vessel, allowing the algae to grow by engulfing or uptaking the solid organic material, forming an algal product, and collecting the algal product selected from the group consisting of algal biomass, dry algal cells, algal proteins, algal lipids, and algal carbohydrates, the method further comprising the step of pretreating the solid organic material before the step of combining the algae and the solid organic material, wherein the pretreating step is selected from the group consisting of disinfecting and sterilizing any organisms and spores that exist in the solid organic material, digesting at least a portion of the solid organic material by aerobic digestion, and digesting at least a portion of the solid organic material by anaerobic digestion, subjecting the solid organic material to sound energy such that a sonication step is performed, addition of a carbon source, mixing, crushing, milling, heating, steaming, ultra-sonication, and homogenizing, treatment with an acid, ozonization, and bleaching, and combinations thereof. providing phagotrophic algae, providing solid organic material, combining the algae and the solid organic material without going through an intermediate microorganism vessel, allowing the algae to grow by engulfing or uptaking the solid organic material, forming an algal product, and collecting the algal product selected from the group consisting of algal biomass, dry algal cells, algal proteins, algal lipids, and algal carbohydrates, the method further comprising the step of pretreating the solid organic material before the step of combining the algae and the solid organic material, wherein the pretreating step is selected from the group consisting of disinfecting and sterilizing any organisms and spores that exist in the solid organic material, digesting at least a portion of the solid organic material by aerobic digestion, and digesting at least a portion of the solid organic material by anaerobic digestion, subjecting the solid organic material to sound energy such that a sonication step is performed, addition of a carbon source, mixing, crushing, milling, heating, steaming, ultra-sonication, and homogenizing, treatment with an acid, ozonization, and bleaching, and combinations thereof.
A separating drum for separating different kinds of parts, in the form of injection moulded and moulded parts, with a separating base frame having a cylindrical basic shape and rotatable about a longitudinal axis, wherein the separating drum has two connection regions on its end faces, which are connected to a central drum region via rings , wherein the central drum region is formed of strip-shaped wall sections , which each has an elongate opening , extending over almost the entire central drum region , and with interchangeable segments which can be reversibly fastened to the separating base frame , wherein openings for separating the parts are formed exclusively by the interchangeable segments , wherein the interchangeable segments each have fastening contours , which correspond with counter contours on the side of the separating base frames , and wherein each interchangeable element rests on a respective strip-shaped wall section on an outer side of the separating base frame and is reversibly fastened there without the use of tools.
Grinding disc comprising - a grinding layer - which is formed from grinding grains bound by means of a binding agent , - which has a grinding layer diameter D S , - which forms a first outer side and a second outer side , - a first reinforcing fabric - which is embedded in the grinding layer on the first outer side , - which has a first fabric diameter D A1 , wherein: D A1 ≥ 0.8·D S , - a second reinforcing fabric - which is embedded in the grinding layer on the second outer side , - which has a second fabric diameter D A2 , wherein: D A2 ≥ 0.8·D S , characterized in that at least one fabric (W 1 to W 4 ) is arranged on at least one of the reinforcing fabrics , and in that the at least one fabric (W 1 to W 4 ) has a respective diameter D i , wherein: D i < D A1 and D i < D A2 . - a grinding layer - which is formed from grinding grains bound by means of a binding agent , - which has a grinding layer diameter D S , - which forms a first outer side and a second outer side , - which is formed from grinding grains bound by means of a binding agent , - which has a grinding layer diameter D S , - which forms a first outer side and a second outer side , - a first reinforcing fabric - which is embedded in the grinding layer on the first outer side , - which has a first fabric diameter D A1 , wherein: D A1 ≥ 0.8·D S , - which is embedded in the grinding layer on the first outer side , - which has a first fabric diameter D A1 , wherein: D A1 ≥ 0.8·D S , - a second reinforcing fabric - which is embedded in the grinding layer on the second outer side , - which has a second fabric diameter D A2 , wherein: D A2 ≥ 0.8·D S , characterized in that at least one fabric (W 1 to W 4 ) is arranged on at least one of the reinforcing fabrics , and in that the at least one fabric (W 1 to W 4 ) has a respective diameter D i , wherein: D i < D A1 and D i < D A2 . - which is embedded in the grinding layer on the second outer side , - which has a second fabric diameter D A2 , wherein: D A2 ≥ 0.8·D S , characterized in that at least one fabric (W 1 to W 4 ) is arranged on at least one of the reinforcing fabrics , and in that the at least one fabric (W 1 to W 4 ) has a respective diameter D i , wherein: D i < D A1 and D i < D A2 .
A method for obtaining epigenetic information of an individual, comprising steps of i) constructing a library of cell-free DNAs in a body fluid sample isolated from the individual, which comprises: 1) directly treating the body fluid sample by an enzyme, such that the cell-free DNAs in the body fluid sample are fragmented under the enzyme, and 2) amplifying the fragmented DNAs obtained in step 1) to obtain the library of cell-free DNAs in the body fluid sample, ii) sequencing and analyzing the library of cell-free DNAs in the body fluid sample obtained in step i) to obtain epigenetic information of the individual, wherein analyzing the library of cell-free DNAs in the body fluid sample obtained in step i) comprises: filtering the fragmented DNAs of the sequencing data based on a size of the fragmented DNAs, wherein the fragmented DNAs above 60 bp are screened and further analyzed to obtain epigenetic information of the individual. i) constructing a library of cell-free DNAs in a body fluid sample isolated from the individual, which comprises: 1) directly treating the body fluid sample by an enzyme, such that the cell-free DNAs in the body fluid sample are fragmented under the enzyme, and 2) amplifying the fragmented DNAs obtained in step 1) to obtain the library of cell-free DNAs in the body fluid sample, 1) directly treating the body fluid sample by an enzyme, such that the cell-free DNAs in the body fluid sample are fragmented under the enzyme, and 2) amplifying the fragmented DNAs obtained in step 1) to obtain the library of cell-free DNAs in the body fluid sample, ii) sequencing and analyzing the library of cell-free DNAs in the body fluid sample obtained in step i) to obtain epigenetic information of the individual, wherein analyzing the library of cell-free DNAs in the body fluid sample obtained in step i) comprises: filtering the fragmented DNAs of the sequencing data based on a size of the fragmented DNAs, wherein the fragmented DNAs above 60 bp are screened and further analyzed to obtain epigenetic information of the individual.