mhurhangee/ep-ind-claims huggingface dataset:
A system for performing discovery of digital information in a subject area, comprising: an information collection configured to designate each of topics in a subject area, training material for the topics, and a corpus comprising digital information; an index trainer configured to build candidate topic models, the index trainer comprising: a seed word selector configured to select seed words for each of the topics, and a pattern generator configured to generate patterns from the seed words for each topic as candidate topic models for that topic, and a model evaluator configured to evaluate the candidate topic models against the training material, the pattern generator further comprising a pattern tester configured to match the patterns in each candidate topic model to the training material to yield a set of matching articles and to rate the candidate topic model based at least on the number of matching articles correctly and incorrectly yielded by the candidate topic model relative to the training material, and an index builder configured to build an evergreen index comprising topic models for each of the topics by pairing each topic to the candidate topic model that was best rated; and an index extrapolator configured to organize the digital information from the corpus by the topics by matching the topic models into the evergreen index to the digital information and update the evergreen index upon occurrence of changes to the corpus. an information collection configured to designate each of topics in a subject area, training material for the topics, and a corpus comprising digital information; an index trainer configured to build candidate topic models, the index trainer comprising: a seed word selector configured to select seed words for each of the topics, and a pattern generator configured to generate patterns from the seed words for each topic as candidate topic models for that topic, and a seed word selector configured to select seed words for each of the topics, and a pattern generator configured to generate patterns from the seed words for each topic as candidate topic models for that topic, and a model evaluator configured to evaluate the candidate topic models against the training material, the pattern generator further comprising a pattern tester configured to match the patterns in each candidate topic model to the training material to yield a set of matching articles and to rate the candidate topic model based at least on the number of matching articles correctly and incorrectly yielded by the candidate topic model relative to the training material, and an index builder configured to build an evergreen index comprising topic models for each of the topics by pairing each topic to the candidate topic model that was best rated; and an index extrapolator configured to organize the digital information from the corpus by the topics by matching the topic models into the evergreen index to the digital information and update the evergreen index upon occurrence of changes to the corpus.
A fluid supply system adapted for metering two or more fluids in defined proportions and for supplying a resultant mixture, the fluid supply system comprising: a plurality of solvent supply lines (104 to 107), each fluidically connected with a fluid source (100 to 103) providing a respective fluid; a pumping unit comprising a reciprocating element adapted for intaking fluid supplied at an inlet of the pumping unit and for supplying the pressurized fluid at an outlet of the pumping unit, wherein the pumping unit is adapted for taking in fluids in defined proportions from selected solvent supply lines (104 to 107) and for supplying a pressurized mixture of the fluids at its outlet; a proportioning valve interposed between the solvent supply lines (104 to 107) and the inlet of the pumping unit, the proportioning valve adapted for modulating solvent composition by sequentially coupling selected ones of the solvent supply lines (104 to 107) with the inlet of the pumping unit in the course of the fluid intake phase of the pumping unit; characterized in that: a longitudinal mixing unit is adapted for mixing longitudinally subsequent sections of the fluids so as to modify their succession in flow direction, wherein the longitudinal mixing unit is placed between the proportioning valve and the pumping unit. a plurality of solvent supply lines (104 to 107), each fluidically connected with a fluid source (100 to 103) providing a respective fluid; a pumping unit comprising a reciprocating element adapted for intaking fluid supplied at an inlet of the pumping unit and for supplying the pressurized fluid at an outlet of the pumping unit, wherein the pumping unit is adapted for taking in fluids in defined proportions from selected solvent supply lines (104 to 107) and for supplying a pressurized mixture of the fluids at its outlet; a proportioning valve interposed between the solvent supply lines (104 to 107) and the inlet of the pumping unit, the proportioning valve adapted for modulating solvent composition by sequentially coupling selected ones of the solvent supply lines (104 to 107) with the inlet of the pumping unit in the course of the fluid intake phase of the pumping unit; characterized in that: a longitudinal mixing unit is adapted for mixing longitudinally subsequent sections of the fluids so as to modify their succession in flow direction, wherein the longitudinal mixing unit is placed between the proportioning valve and the pumping unit.
A packaging method for packaging an OLED device formed on a base substrate, comprising: separating a graphene thin film formed on a copper foil from the copper foil; and packaging the OLED device using the graphene thin film, wherein the method of separating a graphene thin film formed on a copper foil from the copper foil and packaging the OLED device using the graphene thin film comprises: step S10: adhering a surface of the copper foil on which no graphene thin film is formed to a fixing substrate by a double-sided adhesive; step S11: processing a viscous polymer into a fluid state and pouring the fluid state viscous polymer onto a surface of the copper foil on which the graphene thin film is formed; step S12: gluing the viscous polymer with an adhesive tape after curing the viscous polymer, and then stripping a composite film formed of the graphene thin film and the viscous polymer from the copper foil; step S13: forming a passivation layer on the OLED device, coating a transparent adhesive on the passivation layer, and adhering a surface of the graphene thin film of the composite film to the transparent adhesive before curing the transparent adhesive; and step S14: curing the transparent adhesive. step S10: adhering a surface of the copper foil on which no graphene thin film is formed to a fixing substrate by a double-sided adhesive; step S11: processing a viscous polymer into a fluid state and pouring the fluid state viscous polymer onto a surface of the copper foil on which the graphene thin film is formed; step S12: gluing the viscous polymer with an adhesive tape after curing the viscous polymer, and then stripping a composite film formed of the graphene thin film and the viscous polymer from the copper foil; step S13: forming a passivation layer on the OLED device, coating a transparent adhesive on the passivation layer, and adhering a surface of the graphene thin film of the composite film to the transparent adhesive before curing the transparent adhesive; and step S14: curing the transparent adhesive.
A slurry for treating a wellbore, comprising: a base fluid; from 1.4 g/dm 3 to 28 g/dm 3 (0.5 ppb to 10 ppb) of at least one synthetic fibrous structure; at least one weighting agent; and a plurality of calcium silicate particles. a base fluid; from 1.4 g/dm 3 to 28 g/dm 3 (0.5 ppb to 10 ppb) of at least one synthetic fibrous structure; at least one weighting agent; and a plurality of calcium silicate particles.
Alloy for braze welding, comprising 18% to 29% silver by weight, 12% to 30% zinc by weight, 0.2% to 5% manganese by weight, 0.001 % to 5% nickel by weight, 0.001% to 5% indium by weight, optionally 0.001% to 6% tin by weight, 0.001% to 4% iron by weight, 0.001% to 3% silicon by weight, 0.001% to 2% chromium by weight, 0.001% to 2% phosphorus by weight and optionally other elements in quantities lower than 1% by weight, wherein the remaining percentage required to reach 100% by weight is constituted by copper.
A method of cleaning a liquid fluid filter by means of a first cleaning process being a backwashing of the filter and a second cleaning process being a chemical cleaning process, wherein said first cleaning process is started after a predeterminded time period of operation of the filter or a predetermined amount of liquid filtered and wherein the method comprises the following steps: detecting a first transfilter pressure value between both sides of the filter at a first point in time and detecting a second transfilter pressure value between both sides of the filter at a second point in time, calculating a difference value (ΔTMP1, ΔTMP2) of the two detected transfilter pressure values, comparing said difference value (ΔTMP1, ΔTMP2) with a limit value XX, decreasing said predetermined time period or said predetermined amount of liquid to be filtered between two starts of said first cleaning process if said limit value XX is exceeded by said difference value (ΔTMP1, ΔTMP2), characterized by: carrying out said second cleaning process if the predetermined time period or said predetermined amount of liquid to be filtered between two first cleaning processes reaches a predetermined minimum. detecting a first transfilter pressure value between both sides of the filter at a first point in time and detecting a second transfilter pressure value between both sides of the filter at a second point in time, calculating a difference value (ΔTMP1, ΔTMP2) of the two detected transfilter pressure values, comparing said difference value (ΔTMP1, ΔTMP2) with a limit value XX, decreasing said predetermined time period or said predetermined amount of liquid to be filtered between two starts of said first cleaning process if said limit value XX is exceeded by said difference value (ΔTMP1, ΔTMP2), characterized by: carrying out said second cleaning process if the predetermined time period or said predetermined amount of liquid to be filtered between two first cleaning processes reaches a predetermined minimum. carrying out said second cleaning process if the predetermined time period or said predetermined amount of liquid to be filtered between two first cleaning processes reaches a predetermined minimum.
A capacitive touch switch (100, 300) comprising: a substrate having a first surface and a second surface; a capacitive electrode disposed on the substrate; an insulating panel secured to a portion of the first surface of the substrate, the insulating panel having an icon disposed thereon in proximity to the capacitive electrode, characterized in that the substrate includes a channel which extends between the first and second surfaces and which defines a flexible section of the substrate; the flexible section having a first surface on the same side as the first surface of the substrate; the capacitive electrode is disposed on the flexible section of the substrate; and wherein the capacitive touch switch (100,300) further comprises a light source coupled to the first surface of the flexible section of the substrate, wherein the substrate comprises a printed circuit board, and wherein one or more light sources coupled to the first surface of the flexible section of the substrate cause the flexible section to be deflected away from the insulating panel when a first face of the insulating panel is urged into contact with the one or more light sources, or wherein one or more spacers coupled to the first surface of the flexible section of the substrate cause the flexible section to be deflected away from the insulating panel when a first face of the insulating panel is urged into contact with the one or more spacers. a substrate having a first surface and a second surface; a capacitive electrode disposed on the substrate; an insulating panel secured to a portion of the first surface of the substrate, the insulating panel having an icon disposed thereon in proximity to the capacitive electrode, characterized in that the substrate includes a channel which extends between the first and second surfaces and which defines a flexible section of the substrate; the flexible section having a first surface on the same side as the first surface of the substrate; the capacitive electrode is disposed on the flexible section of the substrate; and wherein the capacitive touch switch (100,300) further comprises a light source coupled to the first surface of the flexible section of the substrate, wherein the substrate comprises a printed circuit board, and wherein one or more light sources coupled to the first surface of the flexible section of the substrate cause the flexible section to be deflected away from the insulating panel when a first face of the insulating panel is urged into contact with the one or more light sources, or wherein one or more spacers coupled to the first surface of the flexible section of the substrate cause the flexible section to be deflected away from the insulating panel when a first face of the insulating panel is urged into contact with the one or more spacers.
Memory element composed of a MOS transistor having a drain, a source, and a body region covered with an insulated gate, wherein the body region is divided in its thickness into two distinct channel regions (13, 14) which are separated by an insulating layer portion extending parallel to the plane of the gate, the channel region closest to the gate having a thickness of from 5 to 50 nm, preferably from 5 to 20 nm.
A cooling module, comprising: one or more pumps; one or more pipes; one or more heat exchangers, wherein the one or more pumps is/are configured to move at least one liquid via the one or more pipes to at least one or more heat exchangers to remove heat from liquid coolant in at least one rack (112, 222, 232, 302), the at least one rack (112, 222, 232, 302) comprising servers comprising heat generating components; the cooling module further comprises: an enclosure comprising a top, wherein at least one of the pumps is at least partially housed in the enclosure, wherein at least a portion of the top of the enclosure is configured to serve as a floor for service personnel standing on the portion to access at least one of the racks (112, 222, 232, 302), wherein at least a portion of the top of the enclosure is coolant-permeable such that spilled liquid coolant can pass through the top of the enclosure into the enclosure, wherein at least a portion of the top of the enclosure comprises pervious concrete. one or more pumps; one or more pipes; one or more heat exchangers, wherein the one or more pumps is/are configured to move at least one liquid via the one or more pipes to at least one or more heat exchangers to remove heat from liquid coolant in at least one rack (112, 222, 232, 302), the at least one rack (112, 222, 232, 302) comprising servers comprising heat generating components; the cooling module further comprises: an enclosure comprising a top, wherein at least one of the pumps is at least partially housed in the enclosure, wherein at least a portion of the top of the enclosure is configured to serve as a floor for service personnel standing on the portion to access at least one of the racks (112, 222, 232, 302), wherein at least a portion of the top of the enclosure is coolant-permeable such that spilled liquid coolant can pass through the top of the enclosure into the enclosure, wherein at least a portion of the top of the enclosure comprises pervious concrete. an enclosure comprising a top, wherein at least one of the pumps is at least partially housed in the enclosure, wherein at least a portion of the top of the enclosure is configured to serve as a floor for service personnel standing on the portion to access at least one of the racks (112, 222, 232, 302), wherein at least a portion of the top of the enclosure is coolant-permeable such that spilled liquid coolant can pass through the top of the enclosure into the enclosure, wherein at least a portion of the top of the enclosure comprises pervious concrete.
A nanofluidic analysis device for trapping a macromolecule so that the macromolecule is at equilibrium or moves with a low velocity, comprising: at least one fluid transport nanochannel having a width or depth or width and depth between 1nm and 500nm; at least one transverse fluid nanochannel, wherein two shallow segments of the at least one transverse fluid nanochannel are positioned on opposing sides of the at least one fluid transport nanochannel at an intersection that resides a distance between end portions of the at least one fluid transport nanochannel to define a first segment (20s 1) and second segment (20s 2) of a respective fluid transport nanochannel; first and second electrodes (251, 252) in communication with respective outlets of the at least one transverse fluid nanochannel; an electrode in communication with an entry end outlet of the at least one fluid transport nanochannel; an electrode in communication with an egress end outlet of the at least one fluid transport nanochannel; and characterized in that the device further comprises a circuit configured with a power source to control operation of the electrodes to controllably inject, trap and transport macromolecules, wherein, the first and second segments (20s 1, 20s 2) of the at least one fluid transport nanochannel can have field strengths that differ by a factor of 50X-1000X as a result of (a) a resistance of each fluidic pathway engineered by relative nanochannel widths, depths, and lengths and (b) voltages applied at each nanochannel outlet (20m, 30m) to thereby trap a macromolecule so that the macromolecule is at equilibrium or moves with a low velocity. at least one fluid transport nanochannel having a width or depth or width and depth between 1nm and 500nm; at least one transverse fluid nanochannel, wherein two shallow segments of the at least one transverse fluid nanochannel are positioned on opposing sides of the at least one fluid transport nanochannel at an intersection that resides a distance between end portions of the at least one fluid transport nanochannel to define a first segment (20s 1) and second segment (20s 2) of a respective fluid transport nanochannel; first and second electrodes (251, 252) in communication with respective outlets of the at least one transverse fluid nanochannel; an electrode in communication with an entry end outlet of the at least one fluid transport nanochannel; an electrode in communication with an egress end outlet of the at least one fluid transport nanochannel; and characterized in that the device further comprises a circuit configured with a power source to control operation of the electrodes to controllably inject, trap and transport macromolecules, wherein, the first and second segments (20s 1, 20s 2) of the at least one fluid transport nanochannel can have field strengths that differ by a factor of 50X-1000X as a result of (a) a resistance of each fluidic pathway engineered by relative nanochannel widths, depths, and lengths and (b) voltages applied at each nanochannel outlet (20m, 30m) to thereby trap a macromolecule so that the macromolecule is at equilibrium or moves with a low velocity.
A method of operating a communications device to receive data from a wireless communications network, the method comprising detecting from one or more control channels of a wireless access interface one or more encoded data units of a plurality of encoded data units into which an error correction encoded control information has been divided in accordance with an incremental redundancy scheme, and decoding the error correction encoded control information by combining the one or more detected encoded data units in accordance with an arrangement of encoded bits of the error correction encoded control information in each of the plurality of encoded data units, each of the plurality of encoded data units comprising a different set of the encoded bits according to a different redundancy version number of the incremental redundancy scheme, wherein the combining the one or more detected encoded data units includes identifying each of the one or more encoded data units from physical resources of the one or more control channels on which the one or more encoded data units are detected to determine the redundancy version of each encoded data unit, the different physical resources identifying the redundancy version number of the incremental redundancy scheme; identifying the arrangement of encoded bits of the error correction encoded control information in each of the one or more encoded data units based on the determined redundancy version, and combining the encoded bits from the one or more encoded data units in accordance with the incremental redundancy scheme. detecting from one or more control channels of a wireless access interface one or more encoded data units of a plurality of encoded data units into which an error correction encoded control information has been divided in accordance with an incremental redundancy scheme, and decoding the error correction encoded control information by combining the one or more detected encoded data units in accordance with an arrangement of encoded bits of the error correction encoded control information in each of the plurality of encoded data units, each of the plurality of encoded data units comprising a different set of the encoded bits according to a different redundancy version number of the incremental redundancy scheme, wherein the combining the one or more detected encoded data units includes identifying each of the one or more encoded data units from physical resources of the one or more control channels on which the one or more encoded data units are detected to determine the redundancy version of each encoded data unit, the different physical resources identifying the redundancy version number of the incremental redundancy scheme; identifying the arrangement of encoded bits of the error correction encoded control information in each of the one or more encoded data units based on the determined redundancy version, and combining the encoded bits from the one or more encoded data units in accordance with the incremental redundancy scheme.
A method of treating a paraffin embedded biological specimen, comprising: floating at least one paraffin embedded biological specimen onto at least one microscope slide with a flotation liquid; positioning the microscope slide with the paraffin embedded biological specimen floated thereon onto a slide support element; and rotating the slide support element at a rate and for a time period sufficient to cause the microscope slide and the paraffin embedded biological specimen to turn in a way that causes substantially all of the floatation liquid disposed between the microscope slide and the paraffin embedded biological specimen to be drawn from between the microscope slide and the paraffin embedded biological specimen. floating at least one paraffin embedded biological specimen onto at least one microscope slide with a flotation liquid; positioning the microscope slide with the paraffin embedded biological specimen floated thereon onto a slide support element; and rotating the slide support element at a rate and for a time period sufficient to cause the microscope slide and the paraffin embedded biological specimen to turn in a way that causes substantially all of the floatation liquid disposed between the microscope slide and the paraffin embedded biological specimen to be drawn from between the microscope slide and the paraffin embedded biological specimen.