mhurhangee/ep-ind-claims huggingface dataset:
A solar cell comprising: a semiconductor substrate; a conductive region disposed in or on the semiconductor substrate; and an electrode comprising a plurality of finger lines connected to the conductive region, and formed to extend in a first direction while being parallel, and 6 or more bus bar lines formed to extend in a second direction crossing the first direction, each of the bus bar lines having a width of 35 to 350μm at at least a portion thereof; and a plurality of pad sections, wherein each of the plurality of pad sections has a length in the second direction greater than a width of the plurality of finger lines and a width in the first direction greater than the width of the bus bar lines, wherein the plurality of pad sections includes first pad sections disposed at opposite ends of each of the bus bar lines in the second direction, and wherein a distance between outermost ones of the finger lines is greater than a distance between the first pad sections. a semiconductor substrate; a conductive region disposed in or on the semiconductor substrate; and an electrode comprising a plurality of finger lines connected to the conductive region, and formed to extend in a first direction while being parallel, and 6 or more bus bar lines formed to extend in a second direction crossing the first direction, each of the bus bar lines having a width of 35 to 350μm at at least a portion thereof; and a plurality of pad sections, wherein each of the plurality of pad sections has a length in the second direction greater than a width of the plurality of finger lines and a width in the first direction greater than the width of the bus bar lines, wherein the plurality of pad sections includes first pad sections disposed at opposite ends of each of the bus bar lines in the second direction, and wherein a distance between outermost ones of the finger lines is greater than a distance between the first pad sections.
A lipid composition comprising: i) ((5-((dimethylamino)methyl)-1,3-phenylene)bis(oxy))bis(octane-8,1-diyl) bis(decanoate) having the following formula: or a pharmaceutically acceptable salt thereof; and ii) a biologically active agent, wherein the biologically active agent is mRNA. i) ((5-((dimethylamino)methyl)-1,3-phenylene)bis(oxy))bis(octane-8,1-diyl) bis(decanoate) having the following formula: or a pharmaceutically acceptable salt thereof; and ii) a biologically active agent, wherein the biologically active agent is mRNA.
Use of alternan-oligosaccharide having a weight average degree of polymerization DPw, determined by GPC RI, of 8 or below as ingredient for acidic foodstuffs.
A process for the production of hydrogen starting from a hydrocarbon feed and steam, comprising: - a step for producing a synthesis gas in a unit for steam reforming the hydrocarbon feed in the presence of steam, with a fuel providing the heat necessary for the reaction, - a step for steam conversion of the synthesis gas obtained from the preceding step, producing a stream of hydrogen containing methane and carbon dioxide, - a step for capturing carbon dioxide present in the stream obtained from the steam conversion step in order to separate the carbon dioxide from the stream of hydrogen, - a step for capturing and recycling the impurities present in the stream of hydrogen, comprising at least two adsorbers, said capture and recycling step comprising at least the following phases in succession: - adsorption of the impurities on the first adsorber, - decompression and regeneration of the first adsorber, - adsorption of the impurities on the second adsorber, said decompression phase being carried out at a pressure in the range 0.2 MPa to 1.4 MPa, at a temperature in the range 20°C to 100°C, and at a rate in the range 0.05 MPa per minute to 2 MPa per minute, and said decompression phase producing a stream of hydrogen which is burned in the steam reforming unit. - a step for producing a synthesis gas in a unit for steam reforming the hydrocarbon feed in the presence of steam, with a fuel providing the heat necessary for the reaction, - a step for steam conversion of the synthesis gas obtained from the preceding step, producing a stream of hydrogen containing methane and carbon dioxide, - a step for capturing carbon dioxide present in the stream obtained from the steam conversion step in order to separate the carbon dioxide from the stream of hydrogen, - a step for capturing and recycling the impurities present in the stream of hydrogen, comprising at least two adsorbers, said capture and recycling step comprising at least the following phases in succession: - adsorption of the impurities on the first adsorber, - decompression and regeneration of the first adsorber, - adsorption of the impurities on the second adsorber, said decompression phase being carried out at a pressure in the range 0.2 MPa to 1.4 MPa, at a temperature in the range 20°C to 100°C, and at a rate in the range 0.05 MPa per minute to 2 MPa per minute, and said decompression phase producing a stream of hydrogen which is burned in the steam reforming unit.
A resistance system for an exercise apparatus having a frame and a flywheel (5; 14; 620), the resistance system comprising: a resistance apparatus (4; 32; 604) comprising an actuator (1; 732) configured to selectively position the resistance apparatus relative to the flywheel, wherein a distance between the resistance apparatus to the flywheel corresponds to resistance applied to the flywheel; control components configured to control operation of the resistance system in response to automated instructions; and a computing device (750; 1050) configured to output media for an exercise class to a user, the exercise class comprising one or more target resistance ranges corresponding to one or more segments of the exercise class, the media including at least one automated instruction to control operation of the resistance system; wherein the computing device is further configured to selectively implement auto-follow logic configured to determine a target resistance value for a current segment of the exercise class based at least in part on the corresponding target resistance range and a relative position of the user within a preceding target resistance range and instruct the control components to adjust the resistance system to the target resistance value. a resistance apparatus (4; 32; 604) comprising an actuator (1; 732) configured to selectively position the resistance apparatus relative to the flywheel, wherein a distance between the resistance apparatus to the flywheel corresponds to resistance applied to the flywheel; control components configured to control operation of the resistance system in response to automated instructions; and a computing device (750; 1050) configured to output media for an exercise class to a user, the exercise class comprising one or more target resistance ranges corresponding to one or more segments of the exercise class, the media including at least one automated instruction to control operation of the resistance system; wherein the computing device is further configured to selectively implement auto-follow logic configured to determine a target resistance value for a current segment of the exercise class based at least in part on the corresponding target resistance range and a relative position of the user within a preceding target resistance range and instruct the control components to adjust the resistance system to the target resistance value.
A flux, comprising: 5.0 wt% to 25.0 wt% of an acrylic resin; 2.0 wt% to 15.0 wt% of tris(2-carboxyethyl) isocyanurate; 5.0 wt% to 25.0 wt% of any one of a dimer acid, a trimer acid, a hydrogenated dimer acid obtained by adding hydrogen to a dimer acid, and a hydrogenated trimer acid obtained by adding hydrogen to a trimer acid or two or more kinds of a dimer acid, a trimer acid, a hydrogenated dimer acid obtained by adding hydrogen to a dimer acid, and a hydrogenated trimer acid obtained by adding hydrogen to a trimer acid; a solvent; 0 wt% to 30.0 wt% of rosin, preferably wherein when a content of rosin is higher than 0 wt%, a ratio of the acrylic resin to the rosin is 0.5 to 9.0; 0 wt% to 10.0 wt% of another organic acid; 0 wt% to 10.0 wt% of a thixotropic agent; 0 wt% to 10.0 wt% of a hindered phenolic metal deactivator; 0 wt% to 5.0 wt% of a nitrogen compound-based metal deactivator; 0 wt% to 5.0 wt% of an amine; 0 wt% to 5.0 wt% of an organic halogen compound; 0 wt% to 5.0 wt% of an amine hydrohalide; and 0 wt% to 10 wt% of another resin. 5.0 wt% to 25.0 wt% of an acrylic resin; 2.0 wt% to 15.0 wt% of tris(2-carboxyethyl) isocyanurate; 5.0 wt% to 25.0 wt% of any one of a dimer acid, a trimer acid, a hydrogenated dimer acid obtained by adding hydrogen to a dimer acid, and a hydrogenated trimer acid obtained by adding hydrogen to a trimer acid or two or more kinds of a dimer acid, a trimer acid, a hydrogenated dimer acid obtained by adding hydrogen to a dimer acid, and a hydrogenated trimer acid obtained by adding hydrogen to a trimer acid; a solvent; 0 wt% to 30.0 wt% of rosin, preferably wherein when a content of rosin is higher than 0 wt%, a ratio of the acrylic resin to the rosin is 0.5 to 9.0; 0 wt% to 10.0 wt% of another organic acid; 0 wt% to 10.0 wt% of a thixotropic agent; 0 wt% to 10.0 wt% of a hindered phenolic metal deactivator; 0 wt% to 5.0 wt% of a nitrogen compound-based metal deactivator; 0 wt% to 5.0 wt% of an amine; 0 wt% to 5.0 wt% of an organic halogen compound; 0 wt% to 5.0 wt% of an amine hydrohalide; and 0 wt% to 10 wt% of another resin.
A scraper for a conveyor belt, comprising: a base; and a tapering scraper tip extending from the base, having a curved inner surface and a curved outer surface, the inner surface of the tapering scraper tip terminating in a non-linear scraping edge; and characterized in that the scraping edge comprises two obliquely-extending portions (140a, 140b) that intersect at an obtuse angle to define a channel for channeling debris towards the curved outer surface. a base; and a tapering scraper tip extending from the base, having a curved inner surface and a curved outer surface, the inner surface of the tapering scraper tip terminating in a non-linear scraping edge; and characterized in that the scraping edge comprises two obliquely-extending portions (140a, 140b) that intersect at an obtuse angle to define a channel for channeling debris towards the curved outer surface.
A method for removing oxide from a metallic substrate, comprising: providing a stream of boron trifluoride; with the presence of boron trifluoride heating the metallic substrate at a first temperature; and with the presence of boron trifluoride heating the metallic substrate at a second temperature different from the first temperature, and characterized in that the first temperature is in a range of 300°C to 700°C, and the second temperature is in a range of 750°C to 1150°C, and the method further compring the step of washing the metallic substrate with acids and/or ultrasonic waves to expose the treated surface. providing a stream of boron trifluoride; with the presence of boron trifluoride heating the metallic substrate at a first temperature; and with the presence of boron trifluoride heating the metallic substrate at a second temperature different from the first temperature, and characterized in that the first temperature is in a range of 300°C to 700°C, and the second temperature is in a range of 750°C to 1150°C, and the method further compring the step of washing the metallic substrate with acids and/or ultrasonic waves to expose the treated surface.
An automated nucleic acid amplification method which comprises the following steps: (a) providing an electrowetting-based device; (b) providing at least two droplets on said electrowetting-based device, wherein each droplet comprises primers that anneal to a target nucleic acid; and a target nucleic acid; (c) amplifying the target nucleic acid in each said droplet in parallel; (d) quantitating the amplified target nucleic acid in at least one droplet; and (e) after a desired amount of the target nucleic acid has been obtained, recovering at least one droplet and using said at least one droplet for further analyzing or processing of said at least one droplet, characterized in that the analyzing or processing is selected from a group consisting of nucleic acid sequencing, next generation sequencing, whole-genome shotgun sequencing, whole exome sequencing, targeted sequencing, amplicon sequencing, mate pair sequencing, RIP-seq/CLIP-seq, ChIP-seq, RNA-seq, transcriptome sequencing, and methyl-seq. (a) providing an electrowetting-based device; (b) providing at least two droplets on said electrowetting-based device, wherein each droplet comprises primers that anneal to a target nucleic acid; and a target nucleic acid; (c) amplifying the target nucleic acid in each said droplet in parallel; (d) quantitating the amplified target nucleic acid in at least one droplet; and (e) after a desired amount of the target nucleic acid has been obtained, recovering at least one droplet and using said at least one droplet for further analyzing or processing of said at least one droplet,
A method for differentiating tissue excitation in magnetic resonance imaging, comprising applying during an image acquisition sequence of an MRI system first and second radio-frequency excitation pulses, where the first and second pulses are off-resonance to protons in a tissue component to be excited by having a central frequency, f, offset from a central resonance frequency of protons in the tissue component to be excited, f e, by a predetermined frequency offset, Δf, in a direction away from a central resonance frequency of protons in a tissue component to be suppressed, f s, where the first and second pulses have the same RF excitation angle, a, and respective phases, φ 1 and φ 2, and wherein: • a phase shift between the pulses is related to the frequency offset, Δf, and a pulse duration of the first pulse, τ 1, by: φ 1 = φ 0; φ 2 = φ 0 + r 2 π Δ f ⊤ 1 with r being a number in the interval [0,9; 1,1] and wherein the case Δφ = φ 2 -φ 1 = π is disclaimed in that values of Δf and τ 1 are selected so that Δφ ≠ π, wherein the first and second pulses have the same pulse duration, τ = τ 1, resulting in a pulse sequence having a passband including f e in a frequency response profile for protons in the tissue component to be excited and a stopband including f s in a frequency response profile for protons in the tissue component to be suppressed; and • any interpulse delay, t, between the end of the first pulse and the beginning of the second pulse is smaller than a time for 90° phase evolution between protons in the respective tissue components: t < 1 / 4 δB 0 γ, where δ is the chemical shift between protons in tissue to be excited and suppressed, δ = (f s - f e)/f e, Bo is the magnetic field strength, and γ is the gyromagnetic ratio of the nucleus. • a phase shift between the pulses is related to the frequency offset, Δf, and a pulse duration of the first pulse, τ 1, by: φ 1 = φ 0; φ 2 = φ 0 + r 2 π Δ f ⊤ 1 with r being a number in the interval [0,9; 1,1] and wherein the case Δφ = φ 2 -φ 1 = π is disclaimed in that values of Δf and τ 1 are selected so that Δφ ≠ π, wherein the first and second pulses have the same pulse duration, τ = τ 1, resulting in a pulse sequence having a passband including f e in a frequency response profile for protons in the tissue component to be excited and a stopband including f s in a frequency response profile for protons in the tissue component to be suppressed; and • any interpulse delay, t, between the end of the first pulse and the beginning of the second pulse is smaller than a time for 90° phase evolution between protons in the respective tissue components: t < 1 / 4 δB 0 γ, where δ is the chemical shift between protons in tissue to be excited and suppressed, δ = (f s - f e)/f e, Bo is the magnetic field strength, and γ is the gyromagnetic ratio of the nucleus.
Method for loading of a load with a crane system, wherein by means of a camera system (9, 10, 11, 12) of the crane system, at least one image data stream is generated, characterised in that the at least one image data stream is analysed by a computer unit of the crane system on the basis of an artificial neural network; by means of the computer unit, on the basis of the analysis, a first marker (14, 18) is recognised in a first single image of the at least one image data stream and a second marker (15, 19) is recognised in a second single image of the at least one image data stream; by means of the computer unit a position of the first marker (14, 18) and a position of the second marker (15, 19) are determined; and the load is loaded automatically by a lifting device of the crane system dependent upon the positions of the markers (14, 15, 18, 19). the at least one image data stream is analysed by a computer unit of the crane system on the basis of an artificial neural network; by means of the computer unit, on the basis of the analysis, a first marker (14, 18) is recognised in a first single image of the at least one image data stream and a second marker (15, 19) is recognised in a second single image of the at least one image data stream; by means of the computer unit a position of the first marker (14, 18) and a position of the second marker (15, 19) are determined; and the load is loaded automatically by a lifting device of the crane system dependent upon the positions of the markers (14, 15, 18, 19).
A surgical instrument assembly comprising: a modular motor drive unit which comprises an output drive assembly with at least one output drive element (10A, 10B; 100; 1000), an instrument shaft which can be releasably connected to the drive unit and which has an input drive assembly with at least one input drive element (20A, 20B; 200; 2000), wherein the output drive assembly and the input drive assembly can be coupled to one another by means of a mechanical interface, and a film-like sterile barrier, which is provided so as to envelope the drive unit and so as to be disposed between the drive unit and the instrument shaft, characterised in that, in the area of the mechanical interface, the film-like sterile barrier comprises a non-contact seal (3.5) that can be displaced translationally. a modular motor drive unit which comprises an output drive assembly with at least one output drive element (10A, 10B; 100; 1000), an instrument shaft which can be releasably connected to the drive unit and which has an input drive assembly with at least one input drive element (20A, 20B; 200; 2000), wherein the output drive assembly and the input drive assembly can be coupled to one another by means of a mechanical interface, and a film-like sterile barrier, which is provided so as to envelope the drive unit and so as to be disposed between the drive unit and the instrument shaft, characterised in that, in the area of the mechanical interface, the film-like sterile barrier comprises a non-contact seal (3.5) that can be displaced translationally. a film-like sterile barrier, which is provided so as to envelope the drive unit and so as to be disposed between the drive unit and the instrument shaft, characterised in that, in the area of the mechanical interface, the film-like sterile barrier comprises a non-contact seal (3.5) that can be displaced translationally.
A method of generating electrical power, comprising the steps of: turning turbine blades (310, 710) of at least one turbine (300, 700) via respective motion of seawater through a swept area associated with the turbine blades (310, 710); and generating electrical power responsive to turning of the turbine blades (310, 710); characterised in that the turbine blades (310, 710) are secured to a region of an outer sheath or to an end fitting of a subsea pipe or umbilical, and in that each of the blades (310, 710) has a first and a further end and the turbine comprises a first rotatable blade support (320, 720) connected to all of the first ends of the blades (310, 710) and a further rotatable blade support connected to all the further ends of the blades (310, 710); and each blade support (320, 330, 720) is located with respect to the pipe or umbilical via a ring connector (340, 350, 740) and a bearing element (745, 750) between the ring connector (340, 350, 740) and the blade support (320, 330, 720). turning turbine blades (310, 710) of at least one turbine (300, 700) via respective motion of seawater through a swept area associated with the turbine blades (310, 710); and generating electrical power responsive to turning of the turbine blades (310, 710); characterised in that the turbine blades (310, 710) are secured to a region of an outer sheath or to an end fitting of a subsea pipe or umbilical, and in that each of the blades (310, 710) has a first and a further end and the turbine comprises a first rotatable blade support (320, 720) connected to all of the first ends of the blades (310, 710) and a further rotatable blade support connected to all the further ends of the blades (310, 710); and each blade support (320, 330, 720) is located with respect to the pipe or umbilical via a ring connector (340, 350, 740) and a bearing element (745, 750) between the ring connector (340, 350, 740) and the blade support (320, 330, 720).
Method for fixing insulation boards to a building, the insulation boards being arranged on the building, in particular adhesively bonded on, disc-like fixing elements being introduced into the insulation boards and, as a result, being set at a desired setting depth, in particular exterior depressions being formed in the insulation boards by the setting, the insulation boards being drilled through to the building and the fixing elements being set coaxially relative to the bore holes produced, and wherein the fixing elements are introduced into the insulation boards whilst being rotated and only after the setting are dowelled to the building by dowels being introduced through the already introduced fixing elements into an associated bore hole in the associated building and being expanded by means of an expanding element, and wherein the fixing elements grind or mill the insulation material of the insulation boards as a result of the rotation.
An electronic appliance comprising a housing containing a transmission circuit for transmitting radio frequency signals and an external connection for connecting to an external antenna, the transmission circuit being connected to the external connection by a coupler comprising at least one pair of first and second conductive tracks (8.1, 8.2) extending on opposite sides of a dielectric with main faces that are in register with each other at least in part in order to establish transverse wave electromagnetic coupling between them, the first conductive track connecting a first pole of the transmission circuit to a second pole of the transmission circuit, the second conductive track connecting a first pole of the external connection to a second pole of the external connection, the appliance being characterized in that at least one of the second poles (12, 22) is offset relative to the opposite conductive track (8.1, 8.2) that is opposite said pole so that it does not extend in register with said opposite conductive track, and in that a free edge of said at least one of the second poles (12, 22) is at the limit of overlap with said opposite conductive track (8.1, 8.2) that is opposite said pole.