mhurhangee/ep-ind-claims huggingface dataset:
An information processing method using a computer, the information processing method comprising: obtaining a first information item regarding first monitoring performed by a first monitor on a first vehicle, the first monitoring being allocated to the first monitor; characterized in that, the information processing method further comprises the steps of: obtaining a second information item regarding second monitoring on a second vehicle, the second monitoring being not allocated to any monitor; said first and second information items comprising corresponding sensing results from the first and second vehicles, respectively, comparing the first information item with the second information item; generating presentation information indicating the second monitoring on the second vehicle in accordance with a result of the comparing; and presenting the generated presentation information via a presentation device. obtaining a first information item regarding first monitoring performed by a first monitor on a first vehicle, the first monitoring being allocated to the first monitor; characterized in that, the information processing method further comprises the steps of: obtaining a second information item regarding second monitoring on a second vehicle, the second monitoring being not allocated to any monitor; said first and second information items comprising corresponding sensing results from the first and second vehicles, respectively, comparing the first information item with the second information item; generating presentation information indicating the second monitoring on the second vehicle in accordance with a result of the comparing; and presenting the generated presentation information via a presentation device. obtaining a second information item regarding second monitoring on a second vehicle, the second monitoring being not allocated to any monitor; said first and second information items comprising corresponding sensing results from the first and second vehicles, respectively, comparing the first information item with the second information item; generating presentation information indicating the second monitoring on the second vehicle in accordance with a result of the comparing; and presenting the generated presentation information via a presentation device.
A process for forming an electrochromic material for use in an electrochromic device, the process comprising the steps of: a) providing a transparent conductive substrate; b) coating the substrate with a solution of one or more metal precursors, wherein the metal precursor is a metal chloride, a bromide, a metal 2-ethylhexanoate, a metal acetylacetonate, or a metal nitrate that is converted to a metal oxide upon exposure to UV radiation and/or ozone; c) exposing the coated substrate to UV radiation and/or ozone in an aerobic atmosphere without requiring a vacuum to convert the one or more metal precursors to the metal oxide film on the conductive substrate, and d) annealing the metal oxide film; thereby forming the electrochromic material; wherein the electrochromic device comprises: a first electrode comprising the electrochromic material, a counter electrode, and an ion-conductor layer for conducting ions between said first electrode and the counter electrode. a) providing a transparent conductive substrate; b) coating the substrate with a solution of one or more metal precursors, wherein the metal precursor is a metal chloride, a bromide, a metal 2-ethylhexanoate, a metal acetylacetonate, or a metal nitrate that is converted to a metal oxide upon exposure to UV radiation and/or ozone; c) exposing the coated substrate to UV radiation and/or ozone in an aerobic atmosphere without requiring a vacuum to convert the one or more metal precursors to the metal oxide film on the conductive substrate, and d) annealing the metal oxide film; thereby forming the electrochromic material; wherein the electrochromic device comprises: a first electrode comprising the electrochromic material, a counter electrode, and an ion-conductor layer for conducting ions between said first electrode and the counter electrode. a first electrode comprising the electrochromic material, a counter electrode, and an ion-conductor layer for conducting ions between said first electrode and the counter electrode.
An arrangement comprising - a moving metal strip, - a cavity (14, 15) which is delimited on one side by the metal strip, - a sealing system (101...108) between the metal strip and at least one delimiting wall (11, 12) of the cavity (14, 15) which is arranged in the peripheral region of the metal strip and is oriented parallel to the movement direction thereof, wherein the sealing system (101...108) comprises - an elongate, inflatable, flexible body (3, 4), - a holder (5, 6) in which the aforementioned inflatable body (3, 4) is embedded and - an elongate body (70...74, 80) made of Teflon which is arranged on a side of the inflatable flexible body (3, 4) facing away from the holder (5, 6) and which is in contact with the metal strip on a side facing away from the inflatable body (3, 4) with a sealing face (9, 10), characterized by - sealing lips (18, 19) between the metal strip and at least one delimiting wall (11, 12) of the cavity made of rubber or silicone which are oriented transversely to a movement direction of the metal strip. - a moving metal strip, - a cavity (14, 15) which is delimited on one side by the metal strip, - a sealing system (101...108) between the metal strip and at least one delimiting wall (11, 12) of the cavity (14, 15) which is arranged in the peripheral region of the metal strip and is oriented parallel to the movement direction thereof, wherein the sealing system (101...108) comprises - an elongate, inflatable, flexible body (3, 4), - a holder (5, 6) in which the aforementioned inflatable body (3, 4) is embedded and - an elongate body (70...74, 80) made of Teflon which is arranged on a side of the inflatable flexible body (3, 4) facing away from the holder (5, 6) and which is in contact with the metal strip on a side facing away from the inflatable body (3, 4) with a sealing face (9, 10), - sealing lips (18, 19) between the metal strip and at least one delimiting wall (11, 12) of the cavity made of rubber or silicone which are oriented transversely to a movement direction of the metal strip.
An agent for dying keratin fibers, containing, in a cosmetically acceptable carrier, at least one oxidation dye precursor and at least one alkanolamine characterized in that the agent contains at least one zwitterionic surfactant of the formula, where R represents a saturated or unsaturated C 10 -C 20 alkyl chain, and R1 and R2 each represent, independently of one another, a C 1 -C 4 alkyl group or a C 2 -C 4 hydroxyalkyl group, and at least one non-ionic surfactant, the agent containing, as the non-ionic surfactant, at least one alkyl polyglucoside and/or alkenyl polyglucoside. R represents a saturated or unsaturated C 10 -C 20 alkyl chain, and R1 and R2 each represent, independently of one another, a C 1 -C 4 alkyl group or a C 2 -C 4 hydroxyalkyl group, and
A container (5; 405) for holding an article, the container comprising: a lamination layer (8; 408) at least partially secured to a base layer; a bottom wall (133; 533) and a side wall (137; 537) cooperating to at least partially define a cavity of the container with the lamination layer at least partially comprising an interior surface (12; 412) of the container adjacent the cavity, the side wall (137; 537) comprises an end region (25; 425), at least a portion of the end region is curved, and a plurality of pleats (31; 431) are formed in at least the end region (25; 425) of the side wall (137; 537); a plurality of score lines (30, 33, 35, 37; 430, 433, 437) extending in the container for at least partially reducing buckling of the lamination layer (8; 408) into the cavity of the container, the plurality of score lines (30, 33, 35, 37; 430, 433, 437) being formed in the lamination layer (8; 408) and forming grooves in the interior surface of the container (5; 405) wherein the lamination layer (8; 408) is compressed into the grooves, the plurality of score lines (30, 33, 35, 37; 430, 433, 437) extending transversely with respect to at least one of the plurality of pleats (31; 431) in the end region (25; 425), and a bottom corner (135; 535) connecting the bottom wall (133; 533) and the side wall (137; 537), wherein the plurality of score lines (30, 33, 35, 37; 430, 433, 437) extend in at least the bottom corner (135; 535). a lamination layer (8; 408) at least partially secured to a base layer; a bottom wall (133; 533) and a side wall (137; 537) cooperating to at least partially define a cavity of the container with the lamination layer at least partially comprising an interior surface (12; 412) of the container adjacent the cavity, the side wall (137; 537) comprises an end region (25; 425), at least a portion of the end region is curved, and a plurality of pleats (31; 431) are formed in at least the end region (25; 425) of the side wall (137; 537); a plurality of score lines (30, 33, 35, 37; 430, 433, 437) extending in the container for at least partially reducing buckling of the lamination layer (8; 408) into the cavity of the container, the plurality of score lines (30, 33, 35, 37; 430, 433, 437) being formed in the lamination layer (8; 408) and forming grooves in the interior surface of the container (5; 405) wherein the lamination layer (8; 408) is compressed into the grooves, the plurality of score lines (30, 33, 35, 37; 430, 433, 437) extending transversely with respect to at least one of the plurality of pleats (31; 431) in the end region (25; 425), and a bottom corner (135; 535) connecting the bottom wall (133; 533) and the side wall (137; 537), wherein the plurality of score lines (30, 33, 35, 37; 430, 433, 437) extend in at least the bottom corner (135; 535).
Process for the preparation of a diene polymer or a random vinyl arene-diene copolymer comprising anionically (co)polymerising at least one conjugated diene monomer, optionally in the presence of at least one vinyl arene, in the presence of at least one hydrocarbon solvent, at least one lithium-based initiator and at least one organic compound containing at least one nitroxide group having general formula or: wherein: - R 1, R 2, R 3 and R 4, mutually identical or different, represent a hydrogen atom; or are selected from C 1 -C 20, preferably C 1 -C 8, linear or branched alkyl groups optionally containing heteroatoms such as oxygen, nitrogen or sulfur, optionally substituted cycloalkyl groups, optionally substituted C 1 -C 20, preferably C 1 -C 8, linear or branched alkoxy groups, optionally substituted aryl groups; - x is an integer ranging from 0 to 7, preferably ranging from 4 to 5; - y is an integer ranging from 1 to 3, preferably ranging from 1 to 2. - R 1, R 2, R 3 and R 4, mutually identical or different, represent a hydrogen atom; or are selected from C 1 -C 20, preferably C 1 -C 8, linear or branched alkyl groups optionally containing heteroatoms such as oxygen, nitrogen or sulfur, optionally substituted cycloalkyl groups, optionally substituted C 1 -C 20, preferably C 1 -C 8, linear or branched alkoxy groups, optionally substituted aryl groups; - x is an integer ranging from 0 to 7, preferably ranging from 4 to 5; - y is an integer ranging from 1 to 3, preferably ranging from 1 to 2.
A method of providing verified, decontaminated soil comprising: anaerobically digesting a heavy metal contaminated soil by contacting the contaminated soil with a bioremediation mixture for a first predetermined time, wherein the bioremediation mixture includes a bacterium, a fungus, a nitrogen source and a carbon source, planting at least one test crop in at least a portion of the anaerobically digested soil and allowing for crop maturation for a second predetermined time, testing at least a portion of the mature crop for a level of heavy metal contamination, and verifying that the anaerobically digested soil is decontaminated if the level of heavy metal contamination is zero or below a predetermined threshold. anaerobically digesting a heavy metal contaminated soil by contacting the contaminated soil with a bioremediation mixture for a first predetermined time, wherein the bioremediation mixture includes a bacterium, a fungus, a nitrogen source and a carbon source, planting at least one test crop in at least a portion of the anaerobically digested soil and allowing for crop maturation for a second predetermined time, testing at least a portion of the mature crop for a level of heavy metal contamination, and verifying that the anaerobically digested soil is decontaminated if the level of heavy metal contamination is zero or below a predetermined threshold.
A relay comprising, an input sampling module for coupling to a source to be monitored, the sampling module configured to detect a first value of a parameter of the source to be monitored; characterized by a processing module configured to set a working condition based on the detected first value, wherein the parameter in particular comprises one or more selected from a group consisting three phase voltage, single phase voltage, single phase current, phase angle, phase frequency, power, temperature, resistance, digital signals, wherein the processing module is configured to monitor a working range, the working range being generated based on applying a threshold level to the set working condition; and the processing module is capable of instructing a trigger module for transmitting a trigger signal from the relay if a detected second value of the parameter is outside the working range.
A method of detecting a receiver (106, 214, 2311, 2521) by a transmitter, wherein the transmitter is intended to transmit power inductively to the receiver (106, 214, 2311, 2521), the transmitter comprising a first transmission coil (218, 704, 810, 1504) as a first electrode (204, 704, 810, 904, 1504) and a second electrode (206, 702, 812, 906, 1506), the first electrode (204, 704, 810, 904, 1504) and the second electrode (206, 702, 812, 906, 1506) forming a capacitor (202, 802), characterized in that the method comprises the steps of: - applying a voltage to any one of the electrodes (204, 206, 702, 704, 810, 812, 904, 906, 1504, 1506), - detecting a capacitance change of the capacitor (202, 802). - applying a voltage to any one of the electrodes (204, 206, 702, 704, 810, 812, 904, 906, 1504, 1506), - detecting a capacitance change of the capacitor (202, 802).
A method for providing an exercise goal using an exercise data device capable of executing an exercise application, said method comprising: receiving, at the exercise data device, input indicating a selected exercise goal; obtaining exercise goal data relating to said selected exercise goal; obtaining a current performance measurement related to exercise performance of a user of said exercise data device, said current performance measurement comprising a current distance and a current time measurement; calculating a current progress indicator using said current performance measurement and said exercise goal data; and providing said current progress indicator to said user; wherein said exercise goal data comprises at least one check point, each at least one check point comprising a check point time and a check point distance; the selected exercise goal depends on a current performance class of the user, and said exercise goal data is calculated by the exercise data device using said current performance class as an input; wherein available exercise goals for selection depend on the current performance class of the user; the method further comprising using the exercise goal data to define check points for the selected exercise goal, and calculating a current target position using an interpolation between at least two check points of the selected exercise goal to provide a profile of the current target position over time. receiving, at the exercise data device, input indicating a selected exercise goal; obtaining exercise goal data relating to said selected exercise goal; obtaining a current performance measurement related to exercise performance of a user of said exercise data device, said current performance measurement comprising a current distance and a current time measurement; calculating a current progress indicator using said current performance measurement and said exercise goal data; and providing said current progress indicator to said user; wherein said exercise goal data comprises at least one check point, each at least one check point comprising a check point time and a check point distance; the selected exercise goal depends on a current performance class of the user, and said exercise goal data is calculated by the exercise data device using said current performance class as an input; wherein available exercise goals for selection depend on the current performance class of the user; the method further comprising using the exercise goal data to define check points for the selected exercise goal, and calculating a current target position using an interpolation between at least two check points of the selected exercise goal to provide a profile of the current target position over time.
Security element for increasing protection against forgery for security documents such as banknotes, valuable papers, identity cards, credit cards, debit cards or the like, wherein the security element consists of a substrate with an exposable layer arranged thereon, wherein the exposable layer has a volume hologram, wherein adjacent to the exposable layer an embossing layer is arranged on the substrate, a non-diffractive embossing structure being introduced into the surface of said embossing layer facing away from the substrate, wherein at least partly a coating is applied to the surface of the exposable layer facing away from the substrate and to the embossing structure, wherein the coating overlaps the exposable layer and the embossing structure and has optically recognizable information in the form of a pattern, an alphanumeric character or a graphical image representation, and wherein the coating has at least one cutout over the exposable layer.
A method for producing an antibody or antigen-binding fragment thereof having a C-terminal lysine content of 20% to 70%, and a sialic acid content of 1% to 20%, the method comprising: culturing a zinc-responsive host cell transfected with DNA encoding the antibody in a culture medium comprising 0.5 μM to 6.5 μM zinc; and controlling the concentration of zinc in the culture medium, thereby producing the antibody or antigen-binding fragment thereof. culturing a zinc-responsive host cell transfected with DNA encoding the antibody in a culture medium comprising 0.5 μM to 6.5 μM zinc; and controlling the concentration of zinc in the culture medium, thereby producing the antibody or antigen-binding fragment thereof.
Method of operation of a variable speed wind turbine having control means for its regulation tracking a power vs. generator speed curve comprising a nominal zone where the power is kept constant at a nominal value, a first sub-nominal zone where the generator speed is kept constant at its coupling value, a second sub-nominal zone where both generator speed and power are allowed to increase/decrease in line with wind speed and a third sub-nominal zone between the second sub-nominal zone and the nominal zone, the third sub-nominal zone comprises a first vertical segment at a generator speed n r2 higher than the generator nominal speed n r1 and a second vertical segment at the generator nominal speed n r1 connecting with the nominal zone, characterized in that said first vertical segment and said second vertical segment are connected by an upper horizontal path (C-D) at a first point and a second point and a lower horizontal path (E-F) at a third point and a fourth point, said first vertical segment and said second vertical segment are being followed in function of the wind speed changes for optimizing the energy production, the first vertical segment has an upper point and said second vertical segment has a lower point at two power predetermined values P 1 and P 2 defining the horizontal paths such (C-D; E-F) to be followed between them and such that P2 is lower than said power predetermined value P1.
A process for the preparation of finely divided suspensions by melt emulsification, comprising at least one substance with a melting temperature above room temperature, comprising the following steps: (a) passing at least one preemulsion, comprising one continuous phase and one disperse phase, to a rotor-stator machine, a rotor-rotor machine or to a continuous and/or disperse phase, the preemulsion comprising the at least one substance with a melting temperature above room temperature; (b) emulsifying the at least one preemulsion with mechanical shear and/or elongation and/or turbulence at a temperature which is at most 10 K above the melting temperature of the at least one substance with a melting temperature above room temperature, or at a temperature which is at most 10 K below and at most 10 K above the glass transition temperature or the melting temperature, if the substance with a melting temperature above room temperature is a polymer, for producing a finely divided emulsion; (c) cooling the finely divided emulsion to produce a finely divided suspension; wherein the disperse phase fraction in step (b) is in the range from 85% to 99.5% and the disperse phase fraction of the finely divided emulsion obtained in step (b) is in the range from 85% to 99.5%. (a) passing at least one preemulsion, comprising one continuous phase and one disperse phase, to a rotor-stator machine, a rotor-rotor machine or to a continuous and/or disperse phase, the preemulsion comprising the at least one substance with a melting temperature above room temperature; (b) emulsifying the at least one preemulsion with mechanical shear and/or elongation and/or turbulence at a temperature which is at most 10 K above the melting temperature of the at least one substance with a melting temperature above room temperature, or at a temperature which is at most 10 K below and at most 10 K above the glass transition temperature or the melting temperature, if the substance with a melting temperature above room temperature is a polymer, for producing a finely divided emulsion; (c) cooling the finely divided emulsion to produce a finely divided suspension;