mhurhangee/ep-ind-claims huggingface dataset:
A mobile communication device adapted to retrieve content, wherein the content is divided into primary data items and supplemental data items, and wherein at least one of said supplemental data items is associated with at least one of the primary data items, the mobile communication device comprising: a processor; an output device in communication with the processor, wherein the output device comprises a display having a presentation area size; means for obtaining the presentation area size of the display; means for obtaining a first portion of content comprising a plurality of said primary data items from a further communication device located across a communications network, the means for obtaining the first portion of content comprising retrieval logic executable to generate a first content request and to transfer the first content request from the mobile communication device to the further communication device, wherein -the first content request identifies the first portion of content on the further communication device and requests that a size of the first portion of content be based on the presentation area size, wherein the first portion of content is retrieved in a foreground process and has a size according to the first content request; and means for storing the obtained first portion of content in a memory of the mobile communication device, wherein the retrieval logic is further executable to generate a second content request to retrieve at least one of said supplemental data items associated with at least one of the plurality of primary data items obtained in the first portion of content in a background process. a processor; an output device in communication with the processor, wherein the output device comprises a display having a presentation area size; means for obtaining the presentation area size of the display;
A method for estimating a relative blood volume of a mammalian subject, the relative blood volume being a unitless value indicating a percentage or ratio of the subject's blood volume at a particular time, in relation to a baseline blood volume of the subject, the method comprising: using an electronic apparatus, computing a blood volume index from hemodynamic data for the subject, the blood volume index defined in terms of a baseline electrical body impedance of the subject, a baseline heart rate of the subject, an electrical body impedance of the subject at a time of interest, and a heart rate of the subject at the time of interest; and using the blood volume index to generate an output indicative of an estimated relative blood volume of the subject using a formula or model that converts the blood volume index to the ratio or display value. computing a blood volume index from hemodynamic data for the subject, the blood volume index defined in terms of a baseline electrical body impedance of the subject, a baseline heart rate of the subject, an electrical body impedance of the subject at a time of interest, and a heart rate of the subject at the time of interest; and using the blood volume index to generate an output indicative of an estimated relative blood volume of the subject using a formula or model that converts the blood volume index to the ratio or display value.
A method for stabilizing cell free RNA within a drawn blood sample for analysis comprising drawing the blood sample into a blood collection tube comprising: a. from 0.5% to 20% by weight of a nuclease inhibitor selected from one or more of diethyl pyrocarbonate, ethanol, aurintricarboxylic acid, formamide, vanadyl-ribonucleoside complexes, maceloid, ethylenediamine tetraacetic acid (EDTA), proteinase K heparin, hydroxylamine-oxygen-cupric ion, bentonite, ammoniumsulfate, dithiothreitol, beta-mercaptoethanol, cysteine, dithiorythritol and tris (2-carboxyethyl) phosphine hydrochloride; b. from 20% to 30% by weight of a preservative agent, wherein the preservative agent is selected from diazolidinyl urea and/or imidazolidinyl urea. a. from 0.5% to 20% by weight of a nuclease inhibitor selected from one or more of diethyl pyrocarbonate, ethanol, aurintricarboxylic acid, formamide, vanadyl-ribonucleoside complexes, maceloid, ethylenediamine tetraacetic acid (EDTA), proteinase K heparin, hydroxylamine-oxygen-cupric ion, bentonite, ammoniumsulfate, dithiothreitol, beta-mercaptoethanol, cysteine, dithiorythritol and tris (2-carboxyethyl) phosphine hydrochloride; b. from 20% to 30% by weight of a preservative agent, wherein the preservative agent is selected from diazolidinyl urea and/or imidazolidinyl urea.
Electrical heating device, in particular for a motor-vehicle, with a housing (2, 4), which encloses a circulation chamber through which a medium can flow, into which heating ribs protrude, which each have a U-shaped recess, which open into a uniform connecting chamber, which is separated from the circulation chamber by a partition wall provided in the region of the open ends of the U-shaped recesses, and accommodates at least one PTC heating element, which abuts oppositely situated inner sides of the U-shaped recess in heat-conducting contact, characterized by a housing cover which bears a pump and forms a pump channel, which opens into an inlet opening of the pump, which is formed by a pump housing.
A method of producing cut-to-length flexible electrical cords, the method including: - providing a flexible strip having a plurality of electrically conductive lines extending along the strip, characterized in that the method includes: - arranging along said strip a plurality of electrical connectors including a plurality of tubular electrical conductors extending in a bridge-like manner between two subsequent portions of one of the conductive lines of said plurality, - separating a portion of a given length from said flexible strip by cutting at least one said connector in a transverse plane, thus cutting the plurality of tubular electrical conductors in the cut connector, whereby said portion separated from said flexible strip forms a flexible electrical cord having, at one end at least, a plurality of electrical connection holes or sockets exposed as a result of the cutting of said tubular conductors. - providing a flexible strip having a plurality of electrically conductive lines extending along the strip, - arranging along said strip a plurality of electrical connectors including a plurality of tubular electrical conductors extending in a bridge-like manner between two subsequent portions of one of the conductive lines of said plurality, - separating a portion of a given length from said flexible strip by cutting at least one said connector in a transverse plane, thus cutting the plurality of tubular electrical conductors in the cut connector, whereby said portion separated from said flexible strip forms a flexible electrical cord having, at one end at least, a plurality of electrical connection holes or sockets exposed as a result of the cutting of said tubular conductors.
A method for transferring a sheet of graphene to a metal contact bump, comprising the steps of: - Providing a substrate comprising one or more of said metal contact bumps on its surface, said bumps being surrounded by a passivation layer, - Placing a sheet of graphene on said substrate, said sheet covering said one or more bumps, - Aligning an imprinter device with respect to said substrate, the imprinter device comprising an imprinter substrate having a front surface that is provided with one or more cavities through the front surface, each cavity being provided with a rim portion, the number of cavities being at least the same as the number of bumps, wherein aligning means that the imprinter device is positioned so that each of said bumps is aligned with one of said cavities, - lowering the imprinter device with respect to the substrate so that each of the bumps becomes enclosed within a corresponding cavity, thereby arranging said sheet of graphene in contact with the top and side surfaces of said bump, - pushing down the imprinter device until said rim portion cuts through the graphene sheet, wherein said rim portion of each of said cavities is pushed into the surface of the passivation layer, imprinting said rim portion into said passivation layer, and thereby attaching said graphene sheet portions to said passivation layer - lifting up the imprinter device, leaving a graphene sheet portion attached to said substrate and covering each of the bumps, with unattached graphene sheet portions remaining on the substrate in between the bumps, - removing said unattached graphene sheet portions by a cleaning step. - Providing a substrate comprising one or more of said metal contact bumps on its surface, said bumps being surrounded by a passivation layer, - Placing a sheet of graphene on said substrate, said sheet covering said one or more bumps, - Aligning an imprinter device with respect to said substrate, the imprinter device comprising an imprinter substrate having a front surface that is provided with one or more cavities through the front surface, each cavity being provided with a rim portion, the number of cavities being at least the same as the number of bumps, wherein aligning means that the imprinter device is positioned so that each of said bumps is aligned with one of said cavities, - lowering the imprinter device with respect to the substrate so that each of the bumps becomes enclosed within a corresponding cavity, thereby arranging said sheet of graphene in contact with the top and side surfaces of said bump, - pushing down the imprinter device until said rim portion cuts through the graphene sheet, wherein said rim portion of each of said cavities is pushed into the surface of the passivation layer, imprinting said rim portion into said passivation layer, and thereby attaching said graphene sheet portions to said passivation layer - lifting up the imprinter device, leaving a graphene sheet portion attached to said substrate and covering each of the bumps, with unattached graphene sheet portions remaining on the substrate in between the bumps, - removing said unattached graphene sheet portions by a cleaning step.
A method of generating a pilot tone, for an optical telecommuications system, in which a digital data having a data rate is transmitted, the method comprising: modulating the digital data in digital domain with a pilot tone signal at a pilot tone frequency lower than the data rate, to provide a modulated digital signal; and converting the modulated digital signal to an analog signal. modulating the digital data in digital domain with a pilot tone signal at a pilot tone frequency lower than the data rate, to provide a modulated digital signal; and converting the modulated digital signal to an analog signal.
A method of backing up data using rolling baseline backups, in which instead of generating a full baseline backup, the rolling baseline is spread over multiple backups, each backup containing a partial baseline, wherein the partial baselines for said multiple backups can be combined to create a complete baseline, the method comprising: identifying first partial baseline data of a first storage system; identifying first changed data of the first storage system, wherein the first changed data comprises data that has changed since a previous point in time; writing first backup data to a second storage system, wherein the first backup data comprises the first partial baseline data and the first changed data; and after writing the first backup data to the second storage system, identifying second partial baseline data of the first storage system, wherein the second partial baseline data does not include the first partial baseline data; identifying second changed data of the first storage system, wherein the second changed data comprises data that has changed since writing the first backup data; and writing second backup data to the second storage system, wherein the second backup data comprises the second partial baseline data and the second changed data. identifying first partial baseline data of a first storage system; identifying first changed data of the first storage system, wherein the first changed data comprises data that has changed since a previous point in time; writing first backup data to a second storage system, wherein the first backup data comprises the first partial baseline data and the first changed data; and after writing the first backup data to the second storage system, identifying second partial baseline data of the first storage system, wherein the second partial baseline data does not include the first partial baseline data; identifying second changed data of the first storage system, wherein the second changed data comprises data that has changed since writing the first backup data; and writing second backup data to the second storage system, wherein the second backup data comprises the second partial baseline data and the second changed data. after writing the first backup data to the second storage system, identifying second partial baseline data of the first storage system, wherein the second partial baseline data does not include the first partial baseline data; identifying second changed data of the first storage system, wherein the second changed data comprises data that has changed since writing the first backup data; and writing second backup data to the second storage system, wherein the second backup data comprises the second partial baseline data and the second changed data.
A gel composition for use in animal feeding comprising - a powder composition comprising - at least one gelling agent in an amount of 0,1 to 20 wt.% based on the total amount of the powder composition; - at least one carrier in an amount of 30 to 70 wt.% based on the total amount of the powder composition, wherein the at least one carrier is a saccharide, wherein the saccharide is selected from the group of maltodextrin, inulin, dextrose, lactose or mixtures thereof; and - a prebiotic additive, wherein the prebiotic additive is an aquatic photosynthesizing organism, wherein the amount of the prebiotic additive is between 1 to 50 wt.% based on the total amount of the powder composition, and wherein the prebiotic additive is green; and - water, wherein the powder composition is suspended in the water to form the gel composition; wherein the gel composition has a viscosity of 30 - 250 mPa ' s, measured as set forth in the Experimental Section; wherein the colour of the gel composition is green, and wherein the gel composition has at least two absorption maxima in the range of 600 to 700 nm determined via photometric measurement; and wherein the amount of the prebiotic additive is between 0,1 to 15 wt.% based on the total amount of the gel composition. - a powder composition comprising - at least one gelling agent in an amount of 0,1 to 20 wt.% based on the total amount of the powder composition; - at least one carrier in an amount of 30 to 70 wt.% based on the total amount of the powder composition, wherein the at least one carrier is a saccharide, wherein the saccharide is selected from the group of maltodextrin, inulin, dextrose, lactose or mixtures thereof; and - a prebiotic additive, wherein the prebiotic additive is an aquatic photosynthesizing organism, wherein the amount of the prebiotic additive is between 1 to 50 wt.% based on the total amount of the powder composition, and wherein the prebiotic additive is green; and - at least one gelling agent in an amount of 0,1 to 20 wt.% based on the total amount of the powder composition; - at least one carrier in an amount of 30 to 70 wt.% based on the total amount of the powder composition, wherein the at least one carrier is a saccharide, wherein the saccharide is selected from the group of maltodextrin, inulin, dextrose, lactose or mixtures thereof; and - a prebiotic additive, wherein the prebiotic additive is an aquatic photosynthesizing organism, wherein the amount of the prebiotic additive is between 1 to 50 wt.% based on the total amount of the powder composition, and wherein the prebiotic additive is green; and - water, wherein the powder composition is suspended in the water to form the gel composition; wherein the gel composition has a viscosity of 30 - 250 mPa ' s, measured as set forth in the Experimental Section; wherein the colour of the gel composition is green, and wherein the gel composition has at least two absorption maxima in the range of 600 to 700 nm determined via photometric measurement; and wherein the amount of the prebiotic additive is between 0,1 to 15 wt.% based on the total amount of the gel composition.
A liquid composition for imparting alcohol-repellency to a semiconductor substrate material, comprising: 0.01-15% by mass of a surfactant having a substituent represented by Formula: where n is an integer of 3-20, and an anionic hydrophilic group; and 0.0001-20% by mass of a compound having a weight-average molecular weight of 200-500000 and 4-30 mmol of an amino group per gram, selected from the group consisting of polyethylenimine and a compound having a substituent represented by Formula or: where R 1 and R 2 are each independently hydrogen or a C1-6 alkyl, alkenyl, alkynyl or aryl group, where R 3 and R 4 are each independently hydrogen or a C1-6 alkyl, alkenyl, alkynyl or aryl group, and X - represents a fluoride ion, a chloride ion, a bromide ion, an iodide ion, a fluoroborate ion, a phosphate ion, an acetate ion, a trifluoroacetate ion, a sulfate ion, a hydrogen sulfate ion, a methane sulfate ion, a hydroxide ion, a perchlorate ion or a nitrate ion. 0.01-15% by mass of a surfactant having a substituent represented by Formula: where n is an integer of 3-20, and an anionic hydrophilic group; and 0.0001-20% by mass of a compound having a weight-average molecular weight of 200-500000 and 4-30 mmol of an amino group per gram, selected from the group consisting of polyethylenimine and a compound having a substituent represented by Formula or: where R 1 and R 2 are each independently hydrogen or a C1-6 alkyl, alkenyl, alkynyl or aryl group, where R 3 and R 4 are each independently hydrogen or a C1-6 alkyl, alkenyl, alkynyl or aryl group, and X - represents a fluoride ion, a chloride ion, a bromide ion, an iodide ion, a fluoroborate ion, a phosphate ion, an acetate ion, a trifluoroacetate ion, a sulfate ion, a hydrogen sulfate ion, a methane sulfate ion, a hydroxide ion, a perchlorate ion or a nitrate ion.
A method for producing a condensation polymerization reaction polymer, comprising a guide polymerization step in which a molten prepolymer is supplied to the top edge of a wire guide in a polymerization reactor for production of a condensation polymerization reaction polymer, and is allowed to drop while contacting the wire guide in conducting polymerization of the molten prepolymer and to obtain the condensation polymerization reaction polymer, the wire guide comprising a vertical wire group consisting of a plurality of vertical wires extending in the vertical direction, which are mutually spaced in alignment at an arrangement pitch L1 (mm), wherein: in the guide polymerization step, the molten prepolymer supplied from the top edge of the wire guide aggregates so that a molten prepolymer mass is formed on the vertical wire, and a molten prepolymer mass is formed wherein, the width of the molten prepolymer mass measured in an alignment direction of the vertical wires at a position 200 mm below the top edge being represented as L2 (mm), the width L2 (mm) of the molten prepolymer mass satisfies the relationship with L1 (mm) as defined by inequality L 1 < L 2 wherein the wire guide comprises a plurality of anchoring wires that link the plurality of vertical wires of the vertical wire group and anchor the positional relationship between the vertical wires, and an arrangement pitch L5 (mm) of the anchoring wires is at least 1.5-fold of L1, and L1 is 3-20 mm. in the guide polymerization step, the molten prepolymer supplied from the top edge of the wire guide aggregates so that a molten prepolymer mass is formed on the vertical wire, and a molten prepolymer mass is formed wherein, the width of the molten prepolymer mass measured in an alignment direction of the vertical wires at a position 200 mm below the top edge being represented as L2 (mm), the width L2 (mm) of the molten prepolymer mass satisfies the relationship with L1 (mm) as defined by inequality L 1 < L 2 wherein the wire guide comprises a plurality of anchoring wires that link the plurality of vertical wires of the vertical wire group and anchor the positional relationship between the vertical wires, and an arrangement pitch L5 (mm) of the anchoring wires is at least 1.5-fold of L1, and L1 is 3-20 mm.
Method for machining and/or repairing a metal workpiece comprising at least one already finished or almost finished workpiece sub-surface and at least one machining surface that is to be further machined by means of an electrochemical machining method and is adjacent to the at least one already finished or almost finished workpiece surface, the method comprising the following steps: a) applying a metal or electrically conductive layer to at least one region of the at least one already finished or almost finished workpiece sub-surface, which region is adjacent to the machining surface, the layer containing a metal or a metal alloy or another electrically conductive material and having a similar or the same electrochemical removal behavior or targeted different removal behavior as the metal workpiece; and b) electrochemically or precisely electrochemically machining the machining surface and the layer, characterized in that the layer is completely or almost completely removed. a) applying a metal or electrically conductive layer to at least one region of the at least one already finished or almost finished workpiece sub-surface, which region is adjacent to the machining surface, the layer containing a metal or a metal alloy or another electrically conductive material and having a similar or the same electrochemical removal behavior or targeted different removal behavior as the metal workpiece; and b) electrochemically or precisely electrochemically machining the machining surface and the layer, characterized in that the layer is completely or almost completely removed.
A wind turbine nacelle mounted cooling system configured to be mounted on a first face of a nacelle of a wind turbine, the nacelle being rotably connected with a tower so that the nacelle is positioned in relation to a wind direction, the first face having a longitudinal extension substantially corresponding to the wind direction, the cooling system comprising: a projected wind area when in operation extending substantially in a perpendicular direction from the first face, the projected wind area is defined by at least a first cooling module having a first cooling area, characterised in that at least a part of the first cooling area is arranged with an angle (β) different from 90 degrees in relation to the longitudinal extension of the first face of the nacelle, and in that the first face has a transverse extension (t) being perpendicular to the longitudinal extension, the cooling system comprises a second cooling module having a second cooling area, the first cooling module and the second cooling module being arranged adjacent to each other in the transverse extension (t), where the first cooling area and the second cooling area define a V when seen from above. a projected wind area when in operation extending substantially in a perpendicular direction from the first face, the projected wind area is defined by at least a first cooling module having a first cooling area, characterised in that at least a part of the first cooling area is arranged with an angle (β) different from 90 degrees in relation to the longitudinal extension of the first face of the nacelle, and in that the first face has a transverse extension (t) being perpendicular to the longitudinal extension, the cooling system comprises a second cooling module having a second cooling area, the first cooling module and the second cooling module being arranged adjacent to each other in the transverse extension (t), where the first cooling area and the second cooling area define a V when seen from above.