mhurhangee/ep-ind-claims huggingface dataset:
A spray nozzle, comprising: at least two spray fluid flow paths (4, 5) for flowing a spray fluid; at least two spray medium flow paths (6, 7) for flowing a spray medium, in each of which joins a relevant spray fluid flow path (4, 5) at a first joining part; at least two mixed fluid flow paths (9, 10), in each of which a mixed fluid of the spray fluid and the spray medium that have joined together at the first joining part flows, wherein the mixed fluid flow paths (9, 10) are oppositely disposed, so as to face each other, and have a second joining part in the vicinity of an outlet hole, at which the mixed fluids flowing oppositely collide with each other and join together; and from which the mixed fluids are jetted, and a groove formed at the outlet hole in a direction orthogonal to the flow direction of the mixed fluid flow paths (9, 10), the outlet hole being the crossing part of the groove and the mixed fluid flow paths (9, 10) wherein a bent part (13, 14) of each of the mixed fluid flow paths (9, 10), at which a direction of a flow of the mixed fluid is changed, is formed between the first joining part and the second joining part of the mixed fluid flow paths (9, 10). at least two spray fluid flow paths (4, 5) for flowing a spray fluid; at least two spray medium flow paths (6, 7) for flowing a spray medium, in each of which joins a relevant spray fluid flow path (4, 5) at a first joining part; at least two mixed fluid flow paths (9, 10), in each of which a mixed fluid of the spray fluid and the spray medium that have joined together at the first joining part flows, wherein the mixed fluid flow paths (9, 10) are oppositely disposed, so as to face each other, and have a second joining part in the vicinity of an outlet hole, at which the mixed fluids flowing oppositely collide with each other and join together; and from which the mixed fluids are jetted, and a groove formed at the outlet hole in a direction orthogonal to the flow direction of the mixed fluid flow paths (9, 10), the outlet hole being the crossing part of the groove and the mixed fluid flow paths (9, 10) wherein a bent part (13, 14) of each of the mixed fluid flow paths (9, 10), at which a direction of a flow of the mixed fluid is changed, is formed between the first joining part and the second joining part of the mixed fluid flow paths (9, 10).
A photovoltaic conversion element comprising: a one conductivity-type crystalline Si semiconductor substrate; an opposite conductivity-type semiconductor which is formed in the crystalline Si semiconductor to form a pn junction therebetween; an electrode provided on the opposite conductivity-type semiconductor; and a depletion region formed from the side of the one conductivity-type crystalline Si semiconductor to the side of the opposite conductivity-type semiconductor across the pn junction formed therebetween, an oxygen concentration higher than 2E17 [atoms/cm 3] at a depth of 10 μm from the pn-junction; wherein the depletion region has a first depletion region portion (5b1) located inside the crystalline Si semiconductor and under the electrode, wherein the first depletion region portion (5b1) has an oxygen concentration of 1E18 [atoms/cm 3] or less, and a second depletion region portion (5b2), located inside the one conductivity-type crystalline Si semiconductor and other than the first depletion region portion (5b1), wherein the second depletion region portion (5b2) has a higher oxygen concentration than the first depletion region portion (5b1), wherein the vertical oxygen concentration profile in the manufactured crystalline semiconductor device gradually decreases from the pn-junction to a minimum and gradually increases from that minimum to said value of the oxygen concentration at 10 μm. a one conductivity-type crystalline Si semiconductor substrate; an opposite conductivity-type semiconductor which is formed in the crystalline Si semiconductor to form a pn junction therebetween; an electrode provided on the opposite conductivity-type semiconductor; and a depletion region formed from the side of the one conductivity-type crystalline Si semiconductor to the side of the opposite conductivity-type semiconductor across the pn junction formed therebetween, an oxygen concentration higher than 2E17 [atoms/cm 3] at a depth of 10 μm from the pn-junction; wherein the depletion region has a first depletion region portion (5b1) located inside the crystalline Si semiconductor and under the electrode, wherein the first depletion region portion (5b1) has an oxygen concentration of 1E18 [atoms/cm 3] or less, and a second depletion region portion (5b2), located inside the one conductivity-type crystalline Si semiconductor and other than the first depletion region portion (5b1), wherein the second depletion region portion (5b2) has a higher oxygen concentration than the first depletion region portion (5b1), wherein the vertical oxygen concentration profile in the manufactured crystalline semiconductor device gradually decreases from the pn-junction to a minimum and gradually increases from that minimum to said value of the oxygen concentration at 10 μm.
A label system comprising a thin film label and a carrier film, wherein the label comprises an overprint layer, an indicia layer, and an adhesive layer, wherein the indicia layer is located between the overprint layer and the adhesive layer, wherein the overprint layer is formed from a UV-curable precursor material, wherein the UV-curable precursor material is neopentyl glycol propoxylate diacrylate, dipropylene glycol diacrylate, triglycerol diacrylate, hexanediol diacrylate, ethoxylated bisphenol A diacrylate, trimethoxylolpropane ethoxy triacrylate, ethoxylated trimethylolpropane triacrylate, or ethoxylated trimethylolpropane triacrylate, or a combination thereof, wherein the carrier film comprises a first side and a second side, wherein the overprint layer is in contact with the second side of the carrier film, wherein the second side of the carrier film does not contain a release coating or release layer, and wherein the adhesion between the overprint layer and the carrier film is sufficiently strong to require a delamination peel force of greater than 0.1 g/mm and up to 5 g/mm to separate the overprint layer from the carrier film, wherein the delamination peel force is measured by ASTM method D-3330. wherein the label comprises an overprint layer, an indicia layer, and an adhesive layer, wherein the indicia layer is located between the overprint layer and the adhesive layer, wherein the overprint layer is formed from a UV-curable precursor material, wherein the UV-curable precursor material is neopentyl glycol propoxylate diacrylate, dipropylene glycol diacrylate, triglycerol diacrylate, hexanediol diacrylate, ethoxylated bisphenol A diacrylate, trimethoxylolpropane ethoxy triacrylate, ethoxylated trimethylolpropane triacrylate, or ethoxylated trimethylolpropane triacrylate, or a combination thereof, wherein the carrier film comprises a first side and a second side, wherein the overprint layer is in contact with the second side of the carrier film, wherein the second side of the carrier film does not contain a release coating or release layer, and wherein the adhesion between the overprint layer and the carrier film is sufficiently strong to require a delamination peel force of greater than 0.1 g/mm and up to 5 g/mm to separate the overprint layer from the carrier film, wherein the delamination peel force is measured by ASTM method D-3330.
An apparatus of an evolved Node B, eNB, or a next generation Node B, gNB, comprising: one or more baseband processors to encode downlink control information, DCI, to be transmitted in a physical downlink control channel, PDCCH, to a user equipment, UE, to schedule an uplink subframe including information for a partial uplink subframe, and to decode the scheduled uplink subframe from a physical uplink shared channel, PUSCH, received from the UE; and a memory to store the information for the partial uplink subframe, characterised in that the DCI comprises format 0A/4A or format 0B/4B, wherein DCI format 0A/4A schedules a single subframe and indicates whether the partial uplink subframe is located at the start of the single subframe or located at the end of the single subframe and wherein DCI format 0B/4B schedules multiple consecutive subframes and indicates whether the partial subframe is located at the start of the multiple consecutive subframes or located at the end of the multiple consecutive subframes. one or more baseband processors to encode downlink control information, DCI, to be transmitted in a physical downlink control channel, PDCCH, to a user equipment, UE, to schedule an uplink subframe including information for a partial uplink subframe, and to decode the scheduled uplink subframe from a physical uplink shared channel, PUSCH, received from the UE; and a memory to store the information for the partial uplink subframe, characterised in that the DCI comprises format 0A/4A or format 0B/4B, wherein DCI format 0A/4A schedules a single subframe and indicates whether the partial uplink subframe is located at the start of the single subframe or located at the end of the single subframe and wherein DCI format 0B/4B schedules multiple consecutive subframes and indicates whether the partial subframe is located at the start of the multiple consecutive subframes or located at the end of the multiple consecutive subframes.
An overhead luggage compartment for aircraft, comprising a tray for accommodating pieces of luggage, which tray can be pivoted about an axis of rotation between a closed position and an open position, and comprising a housing, which encloses the tray in the closed position and has devices arranged thereon for fastening to a supporting structure of the aircraft, and a suspension device for a passenger service unit, and comprising a closure element for holding the tray in the closed position, wherein the housing is formed by two frame parts arranged laterally to the tray, which frame parts are connected to each other by means of cross-braces, characterized in that the fastening devices and the suspension device for the passenger service unit as well as at least one stop element for limiting the open position of the tray are arranged on the frame parts.
Plant for reducing the alcohol content in a beverage, - with a degasser, to which the alcoholic beverage is fed from a storage container connectable thereto, - with a rectifier which comprises a first column and a second column which are arranged one above the other in a common housing or which are arranged separately and spatially adjacent to one another, - with a line branching off from a bottom of the second column, in which line a pump is provided which conveys a reduced-alcohol beverage to a separator, from which the reduced-alcohol beverage is discharged from the plant via an outlet line or a collecting container, - with a condenser which is connected downstream of the rectifier, - with a line which discharges from the condenser and in which a pump is provided, through which a condensate discharged from the condenser is fed via a return line to the first column and/or is fed via a discharge line to an alcohol tank, characterized in that, - a controllable control valve to which the return line and the discharge line are connected is provided at the end of the line, and - that a measuring device for determining an alcohol content in the condensate is provided in the line upstream of the controllable control valve. - with a degasser, to which the alcoholic beverage is fed from a storage container connectable thereto, - with a rectifier which comprises a first column and a second column which are arranged one above the other in a common housing or which are arranged separately and spatially adjacent to one another, - with a line branching off from a bottom of the second column, in which line a pump is provided which conveys a reduced-alcohol beverage to a separator, from which the reduced-alcohol beverage is discharged from the plant via an outlet line or a collecting container, - with a condenser which is connected downstream of the rectifier, - with a line which discharges from the condenser and in which a pump is provided, through which a condensate discharged from the condenser is fed via a return line to the first column and/or is fed via a discharge line to an alcohol tank, - a controllable control valve to which the return line and the discharge line are connected is provided at the end of the line, and - that a measuring device for determining an alcohol content in the condensate is provided in the line upstream of the controllable control valve.
A radiotherapeutic apparatus comprising: a source of radiation whose output is collimated by a multi-leaf collimator; a patient support; and a computational means, the source being configured to rotate around the support and the support being configured to simultaneously translate along the axis of rotation, thereby to move the source helically relative to a patient on the support, wherein: each leaf of the multi-leaf collimator is movable to a continuously variable leaf position such that the collimated radiation output corresponds to a plurality of fan beams whose included beam angles are continuously variable; characterised in that the computational means is configured to calculate the continuously variable leaf positions of the leaves as a function of rotation angle of the source to achieve a specified dose distribution; and the multi-leaf collimator is orientated such that the direction of movement of each leaf is orthogonal to the axis of rotation.
A method for providing a superconducting device (14; 18; 20; 30; 40; 50; 60; 70; 80; 90) comprising at least one superconducting cable (10; 14; 70; 910a,b) of high temperature superconducting material, said method comprising: determining one or more regions of reduced critical current density in the superconducting device (14; 18; 20; 30; 40; 50; 60; 70; 80; 90); modifying the critical current density in the one or more regions of reduced critical current density, so as to increase the overall critical current or to decrease the overall AC losses of the superconducting device, said modifying comprising modifying the amount and/or distribution of the superconducting material in the one or more regions of reduced critical current density; wherein said method is characterized in that said modifying comprises locally varying the amount and/or distribution of the superconducting material along the length of the at least one superconducting cable (10; 14; 70; 910a,b). determining one or more regions of reduced critical current density in the superconducting device (14; 18; 20; 30; 40; 50; 60; 70; 80; 90); modifying the critical current density in the one or more regions of reduced critical current density, so as to increase the overall critical current or to decrease the overall AC losses of the superconducting device, said modifying comprising modifying the amount and/or distribution of the superconducting material in the one or more regions of reduced critical current density; wherein said method is characterized in that said modifying comprises locally varying the amount and/or distribution of the superconducting material along the length of the at least one superconducting cable (10; 14; 70; 910a,b).
A method for extracting rare earth metals from phosphogypsum comprising successive steps of recrystallization of phosphogypsum and dissolution of REM, wherein recrystallization of hemihydrate or anhydrite of calcium sulphate into dihydrate of calcium sulphate is carried out in the presence of soluble calcium salt at concentration of 0.075-3.75 M (in terms of Ca 2+) at subacidic conditions (pH>1), and dissolution is carried out with strong acid (pK a <0) at concentration of 0.2-8.0 M (in terms of H +).
A method comprising: - obtaining intensity information (210, 212) representative of a spectral image resulting from soiling (204, 302) of a textile (202, 304); - determining at least one output variable, which is dependent on the composition of the soiling (204, 302), on the basis of the intensity information (210, 212); and - outputting or triggering the output of the at least one output variable, the at least one output variable comprising at least one parameter of a cleaning strategy for the textile to remove the soiling from the textile; - carrying out the cleaning strategy by means of a cleaning device, characterized in that the intensity information is obtained during a cleaning process, the cleaning process being carried out dynamically by the cleaning device adapting to the determined at least one output variable during the cleaning process. - obtaining intensity information (210, 212) representative of a spectral image resulting from soiling (204, 302) of a textile (202, 304); - determining at least one output variable, which is dependent on the composition of the soiling (204, 302), on the basis of the intensity information (210, 212); and - outputting or triggering the output of the at least one output variable, the at least one output variable comprising at least one parameter of a cleaning strategy for the textile to remove the soiling from the textile; - carrying out the cleaning strategy by means of a cleaning device,
An LED device comprising a top current spreading layer, a top cladding layer below the top current spreading layer, an active layer below the top cladding layer, and a bottom cladding layer below the active layer,wherein the bottom cladding layer includes a bottom surface; sidewalls span the top current spreading layer, the top cladding layer, the active layer, and the bottom cladding layer, wherein the bottom surface of the bottom cladding layer extends between the sidewalls; the LED device further comprising a bottom current spreading layer pillar (118, 190) below the bottom cladding layer and in direct contact with the bottom cladding layer, wherein the bottom current spreading layer pillar is centrally located at and protrudes from the bottom cladding layer to confine current that flows into the active layer to an interior portion of the LED device and away from the sidewalls, and the bottom surface of the bottom cladding layer is wider than a maximum width of the bottom current spreading layer pillar (118, 190), and the bottom current spreading layer pillar is doped with a first dopant type selected from the group consisting of n-type and p-type, and the top current spreading layer is doped with a second dopant type different from the first dopant type, wherein the second dopant type is selected from the group consisting of n-type and p-type; and the active layer of the LED device has a maximum width of 100 μm or less, and the bottom current spreading layer pillar (118, 190) has a maximum width of 10 μm or less. the bottom cladding layer includes a bottom surface; sidewalls span the top current spreading layer, the top cladding layer, the active layer, and the bottom cladding layer, wherein the bottom surface of the bottom cladding layer extends between the sidewalls; the LED device further comprising a bottom current spreading layer pillar (118, 190) below the bottom cladding layer and in direct contact with the bottom cladding layer, wherein the bottom current spreading layer pillar is centrally located at and protrudes from the bottom cladding layer to confine current that flows into the active layer to an interior portion of the LED device and away from the sidewalls, and the bottom surface of the bottom cladding layer is wider than a maximum width of the bottom current spreading layer pillar (118, 190), and the bottom current spreading layer pillar is doped with a first dopant type selected from the group consisting of n-type and p-type, and the top current spreading layer is doped with a second dopant type different from the first dopant type, wherein the second dopant type is selected from the group consisting of n-type and p-type; and the active layer of the LED device has a maximum width of 100 μm or less, and the bottom current spreading layer pillar (118, 190) has a maximum width of 10 μm or less.
A wristwatch comprising a rotating part (1, 1bis) mounted on a case having two pairs of horns (4, 5; 6, 7), each horn having a housing (14, 15, 16, 17) receiving one end (10, 11, 12, 13) of a bar (8, 9) of a strap strand, characterized in that each pair of horns (4, 5; 6, 7) comprises at least one horn (4, 7) pierced with a bore extending from the face of the case located on the dial side to a bar end housing (14, 17) and in that the wristwatch also includes: - an annular cam (18, 18bis) fixed to the rotating part (1, 1bis), - at least two rods (19, 20), one occupying a horn bore of a pair of horns (6, 7), the other occupying a horn bore of the other pair of horns (4, 5), each rod (19, 20) being adapted to connect the annular cam (18, 18bis) to the bar end housing (17, 14) of the horn (7, 4) in which this rod (19, 20) is located. - an annular cam (18, 18bis) fixed to the rotating part (1, 1bis), - at least two rods (19, 20), one occupying a horn bore of a pair of horns (6, 7), the other occupying a horn bore of the other pair of horns (4, 5), each rod (19, 20) being adapted to connect the annular cam (18, 18bis) to the bar end housing (17, 14) of the horn (7, 4) in which this rod (19, 20) is located.
A method of making cocrystals with at least a first substance and a second substance which are able to form cocrystals, wherein the first substance is an active pharmaceutical ingredient or a pharmaceutically acceptable derivative, such as a salt, of an API, which method comprises the steps of: a) feeding a molten mixture of the at least first substance and second substance into an atomizer; b) atomizing the molten mixture to droplets; c) solidifying the droplets to particles; and d) collecting the said particles. a) feeding a molten mixture of the at least first substance and second substance into an atomizer; b) atomizing the molten mixture to droplets; c) solidifying the droplets to particles; and d) collecting the said particles.
An external fixation frame for correcting a bone deformity, comprising: a top fixation ring; a bottom fixation ring; a half ring; a medial adjustable length strut coupling a medial portion of the top fixation ring to a medial portion of the bottom fixation ring; a lateral adjustable length strut coupling a lateral portion of the top fixation ring to a lateral portion of the bottom fixation ring; an anterior strut coupling an anterior portion of the top fixation ring to the half ring; a pair of hinges each including a connecting portion coupled to the bottom fixation ring and extending toward the top fixation ring, the pair of hinges hingedly coupling the half ring to the bottom fixation ring the half ring being coupled between the top and bottom fixation rings (101, 102); and wherein the anterior strut is an anterior adjustable length strut. a top fixation ring; a bottom fixation ring; a half ring; a medial adjustable length strut coupling a medial portion of the top fixation ring to a medial portion of the bottom fixation ring; a lateral adjustable length strut coupling a lateral portion of the top fixation ring to a lateral portion of the bottom fixation ring; an anterior strut coupling an anterior portion of the top fixation ring to the half ring; a pair of hinges each including a connecting portion coupled to the bottom fixation ring and extending toward the top fixation ring, the pair of hinges hingedly coupling the half ring to the bottom fixation ring the half ring being coupled between the top and bottom fixation rings (101, 102); and wherein the anterior strut is an anterior adjustable length strut.
An isolated nucleic acid molecule comprising or consisting essentially of exons 20-29 and a portion but not all of intron 19 of an Anaplastic Lymphoma Kinase gene, wherein the nucleic acid molecule does not comprise exons 1-19 of the ALK gene, either individually or in any combination, wherein the nucleic acid molecule is about 2300-2600 bp in length.