mhurhangee/ep-ind-claims huggingface dataset:
A microfluidic device for selective capture of target biological entities comprising, a) array of symmetric hydrofoil shaped pillars in which the geometric centers of the pillars form a rhombic lattice characterized by the side length of a rhombus in the lattice, which is the Euclidean distance between the geometric centers of two neighboring symmetric hydrofoil shaped pillars, and chord lines of the pillars are parallel to each other, b) a meandering microfluidic channel including said symmetric hydrofoil shaped pillars acting as obstacles, and c) a capture volume wherein boundaries of the capture volume including the surface of the symmetric hydrofoil shaped pillars is coated with at least one antibody suitable for the specific capture of the target biological entities characterized in that the capture volume is defined by Boolean subtraction of the array of symmetric hydrofoil shaped pillars from the meandering microfluidic channel. a) array of symmetric hydrofoil shaped pillars in which the geometric centers of the pillars form a rhombic lattice characterized by the side length of a rhombus in the lattice, which is the Euclidean distance between the geometric centers of two neighboring symmetric hydrofoil shaped pillars, and chord lines of the pillars are parallel to each other, b) a meandering microfluidic channel including said symmetric hydrofoil shaped pillars acting as obstacles, and c) a capture volume wherein boundaries of the capture volume including the surface of the symmetric hydrofoil shaped pillars is coated with at least one antibody suitable for the specific capture of the target biological entities characterized in that the capture volume is defined by Boolean subtraction of the array of symmetric hydrofoil shaped pillars from the meandering microfluidic channel.
An active energy ray-curable composition that can be cured to provide a molded product showing rubber elasticity, wherein the curable composition comprises the following components and as essential components: A vinyl polymer having at least one terminal group represented by the general formula: -OC C(R a)=CH 2 wherein R a represents a hydrogen atom or an organic group containing 1 to 20 carbon atoms per molecule; At least one acylphosphine oxide photopolymerization initiator represented by the general formula: R 1 R 2 P(=O)C(=O)R 3 wherein R 1 represents C 1-12 alkyl, benzyl, phenyl which may optionally be substituted, cyclohexyl, -COR 3, -OR 4 (R 4 representing C 1-8 alkyl, phenyl or benzyl or a group represented by the general formula: -A-(R 2)P(=O)C(=O)R 3 A representing C 1-18 alkylene, phenylene or biphenylene; R 2 represents C 1-12 alkyl, benzyl, phenyl which may optionally be substituted, cyclohexyl or -COR 3; and R 3 represents phenyl which may optionally be substituted, or a group represented by the general formula: -B-C (=O) P (=O) R 1 R 2 B representing C 1-12 alkylene, cyclohexylene or phenylene. A vinyl polymer having at least one terminal group represented by the general formula: -OC C(R a)=CH 2 wherein R a represents a hydrogen atom or an organic group containing 1 to 20 carbon atoms per molecule; At least one acylphosphine oxide photopolymerization initiator represented by the general formula: R 1 R 2 P(=O)C(=O)R 3 wherein R 1 represents C 1-12 alkyl, benzyl, phenyl which may optionally be substituted, cyclohexyl, -COR 3, -OR 4 (R 4 representing C 1-8 alkyl, phenyl or benzyl or a group represented by the general formula: -A-(R 2)P(=O)C(=O)R 3 A representing C 1-18 alkylene, phenylene or biphenylene; R 2 represents C 1-12 alkyl, benzyl, phenyl which may optionally be substituted, cyclohexyl or -COR 3; and R 3 represents phenyl which may optionally be substituted, or a group represented by the general formula: -B-C (=O) P (=O) R 1 R 2 B representing C 1-12 alkylene, cyclohexylene or phenylene.
A pump, in particular a vacuum pump, comprising a pump-active component having a coating, wherein the coating comprises an oxide layer having pores, which oxide layer is in particular formed by anodic oxidation in an acidic electrolyte, and a fluorine-free polymer-based and/or sol-gel-based sealing, and wherein the pores of the oxide layer are at least partly covered by the sealing and/or impregnated with the sealing and/or filled with the sealing. a pump-active component having a coating, wherein the coating comprises an oxide layer having pores, which oxide layer is in particular formed by anodic oxidation in an acidic electrolyte, and a fluorine-free polymer-based and/or sol-gel-based sealing, and wherein the pores of the oxide layer are at least partly covered by the sealing and/or impregnated with the sealing and/or filled with the sealing.
An offshore transformer station (102, 202, 302, 402): - at least one transformer (104, 204, 304, 404.1, 404.2), - at least one transformer cooling unit (106, 206, 306, 406.1, 406.2) arranged on at least one side wall (116.3, 216.3, 416.3) of the transformer station (102, 202, 302, 402) or a roof (114, 214) of the transformer station (102, 202, 302, 402) and configured to cool the at least one transformer (104, 204, 304, 404.1, 404.2), characterized in that the transformer station (102, 202, 302, 402) further comprises: - at least one air deflecting unit (108, 208, 408.1, 408.2) arranged on at least one roof edge (120.1, 120.2, 220.1-220.4), at which a vertical wall meets a horizontal wall, of the transformer station (102, 202, 302, 402) and/or at least one air deflecting unit (108, 208, 408.1, 408.2) arranged on at least one side edge (226.1, 226.2), at which a first vertical wall meets a further vertical wall, of the transformer station (102, 202, 302, 402), - wherein the air deflecting unit (108, 208, 408.1, 408.2) is arranged such that an air movement is steerable in the direction of the transformer cooling unit (106, 206, 306, 406.1, 406.2). - at least one transformer (104, 204, 304, 404.1, 404.2), - at least one transformer cooling unit (106, 206, 306, 406.1, 406.2) arranged on at least one side wall (116.3, 216.3, 416.3) of the transformer station (102, 202, 302, 402) or a roof (114, 214) of the transformer station (102, 202, 302, 402) and configured to cool the at least one transformer (104, 204, 304, 404.1, 404.2), characterized in that the transformer station (102, 202, 302, 402) further comprises: - at least one air deflecting unit (108, 208, 408.1, 408.2) arranged on at least one roof edge (120.1, 120.2, 220.1-220.4), at which a vertical wall meets a horizontal wall, of the transformer station (102, 202, 302, 402) and/or at least one air deflecting unit (108, 208, 408.1, 408.2) arranged on at least one side edge (226.1, 226.2), at which a first vertical wall meets a further vertical wall, of the transformer station (102, 202, 302, 402), - wherein the air deflecting unit (108, 208, 408.1, 408.2) is arranged such that an air movement is steerable in the direction of the transformer cooling unit (106, 206, 306, 406.1, 406.2). - at least one air deflecting unit (108, 208, 408.1, 408.2) arranged on at least one roof edge (120.1, 120.2, 220.1-220.4), at which a vertical wall meets a horizontal wall, of the transformer station (102, 202, 302, 402) and/or at least one air deflecting unit (108, 208, 408.1, 408.2) arranged on at least one side edge (226.1, 226.2), at which a first vertical wall meets a further vertical wall, of the transformer station (102, 202, 302, 402), - wherein the air deflecting unit (108, 208, 408.1, 408.2) is arranged such that an air movement is steerable in the direction of the transformer cooling unit (106, 206, 306, 406.1, 406.2).
A pharmaceutical composition for use in preventing or treating bone diseases caused by hyperdifferentiation of osteoclasts, the pharmaceutical composition comprising a compound represented by Formula 1 below, or a pharmaceutically acceptable salt thereof: In Formula 1 above, R 1 is H or C1 to C3 alkoxy; R 2 and R 3 are each independently H, C1 to C3 alkyl, C1 to C3 acyl or halo; R 4 is phenyl, phenylthio, phenoxy or phenylamino; and R 5 is H or C1 to C3 alkyl wherein the bone disease is at least one selected from the group consisting of fracture, osteoporosis, rheumatoid arthritis, periodontitis, Paget's disease, osteomalacia, osteopenia, bone atrophy, osteoarthritis, and avascular femoral necrosis. R 1 is H or C1 to C3 alkoxy; R 2 and R 3 are each independently H, C1 to C3 alkyl, C1 to C3 acyl or halo; R 4 is phenyl, phenylthio, phenoxy or phenylamino; and R 5 is H or C1 to C3 alkyl
A process for removing scales and preventing scale formation on a steel material, characterized by contacting cooling water at a pH of -2 to 4 with a steel material at a temperature of 100 to 1,200°C in a water cooling step for the steel material wherein hydrochloric acid, sulfuric acid or nitric acid is added to the cooling water or oxidation potential water is partly or wholly used as the cooling water or by pickling a steel material at a temperature of 100 to 700°C with a pickling solution at a pH value of -2 to 4 comprising hydrochloric acid, sulfuric acid or nitric acid as an acid for pickling, wherein "oxidation potential water" means acidic water with pH = -2 to 4, containing hypochlorous acid formed at a positive electrode when water is electrolyzed.
Method of tagging the positon of a terminal (NFC, RFID) with respect to a transponder equipped with a circuit exhibiting a load impedance, said terminal being able to receive signals from the transponder comprising: - a step of receiving by the terminal a first signal (INFC) relating to the load impedance with the transponder; - a step of obtaining a second signal on the basis of the first signal (INFC); characterized in that it furthermore comprises: - a step of determining a variation in distance (DDIST) between the terminal and the transponder, calculated according to the following steps: - a first step of measuring an indication of positioning of the terminal in respect of the transponder, at a first instant, based on the analysis of the second signal at said first instant; - a second step of measuring an indication of the positioning of the terminal in respect of the transponder, at a second instant, based on the analysis of the second signal at the said second instant; - a step of evaluating a variation in distance (DDIST) on the basis of the first measurement and of the second measurement; - a step of restoring a third signal dependent on the variation in distance evaluated, able to signify to a user of the terminal that the transponder is approaching or receding. - a step of receiving by the terminal a first signal (INFC) relating to the load impedance with the transponder; - a step of obtaining a second signal on the basis of the first signal (INFC); - a step of determining a variation in distance (DDIST) between the terminal and the transponder, calculated according to the following steps: - a first step of measuring an indication of positioning of the terminal in respect of the transponder, at a first instant, based on the analysis of the second signal at said first instant; - a second step of measuring an indication of the positioning of the terminal in respect of the transponder, at a second instant, based on the analysis of the second signal at the said second instant; - a step of evaluating a variation in distance (DDIST) on the basis of the first measurement and of the second measurement; - a step of restoring a third signal dependent on the variation in distance evaluated, able to signify to a user of the terminal that the transponder is approaching or receding.
A dental cleaning appliance comprising: a fluid delivery system comprising a fluid inlet, a pump for drawing a working fluid through the fluid inlet, a hydraulic accumulator (108; 190) for receiving working fluid from the pump, a nozzle having a fluid outlet, and a valve located between the accumulator (108; 190) and the nozzle, the valve having an open position for enabling the accumulator (108; 190) to deliver a burst of working fluid to the nozzle and a closed position for enabling the accumulator (108; 190) to be replenished under the action of the pump; and a control circuit for actuating the pump and for controlling the position of the valve. a fluid delivery system comprising a fluid inlet, a pump for drawing a working fluid through the fluid inlet, a hydraulic accumulator (108; 190) for receiving working fluid from the pump, a nozzle having a fluid outlet, and a valve located between the accumulator (108; 190) and the nozzle, the valve having an open position for enabling the accumulator (108; 190) to deliver a burst of working fluid to the nozzle and a closed position for enabling the accumulator (108; 190) to be replenished under the action of the pump; and a control circuit for actuating the pump and for controlling the position of the valve.
Drone for combating a target using a shaped HPEM pulse, - wherein the drone is configured for a flight along a direction of gravity, - comprising a landing gear, which is configured for carrying the rest of the drone in an intended landing state, - comprising an HPEM source for emitting the unshaped HPEM pulse, - wherein at least in a working state of the drone: - the drone contains a horn, which is connected, in radiation terms, downstream of the HPEM source and which is configured to guide the unshaped HPEM pulse that has been emitted from the HPEM source into the horn and to emit it again in a beam direction as a shaped HPEM pulse, characterized in that - at least part of the horn is formed by at least part of the landing gear. - wherein the drone is configured for a flight along a direction of gravity, - comprising a landing gear, which is configured for carrying the rest of the drone in an intended landing state, - comprising an HPEM source for emitting the unshaped HPEM pulse, - wherein at least in a working state of the drone: - the drone contains a horn, which is connected, in radiation terms, downstream of the HPEM source and which is configured to guide the unshaped HPEM pulse that has been emitted from the HPEM source into the horn and to emit it again in a beam direction as a shaped HPEM pulse, characterized in that - at least part of the horn is formed by at least part of the landing gear.
A composition to be used for attaching a dental facing on a dental support structure comprising a. 10 wt.-% to 55 wt.-% water, b. 40 wt.-% to 85 wt.-% of a glass and/or glass ceramic material, comprising: 55 wt.-% to 75 wt.-% of silicon oxide, 8 wt.-% to 22 wt.-% of aluminum oxide, 0 wt.-% to 8 wt.-% of boron oxide, 3 wt.-% to 12 wt.-% of potassium oxide, 4 wt.-% to 12 wt.-% of sodium oxide, 0 wt.-% to 2 wt.-% of cerium oxide, 0 wt.-% to 2 wt.-% of tin oxide, 0 wt.-% to 3 wt.-% of zinc oxide, 0 wt.-% to 4 wt.-% of phosphor oxide, 0 wt.-% to 3 wt.-% of calcium oxide, 0 wt.-% to 3 wt.-% of lithium oxide, and 0 wt.-% to 1 wt.-% of fluoride, 0 wt.-% to 3 wt.% of lanthanum oxide or lanthanide oxide, c. 0.01 wt.-% to 4 wt.-% of a rheological modifier with a molecular weight above 500,000, comprising a substance selected from xanthan gum, polyethylene oxide, and mixtures or combinations thereof, d. 0 wt.-% to 10 wt.-% of polyethylene glycol, e. 0 wt.-% to 4 wt.-% of a thickening agent, wt.-% with respect to the weight of the whole composition, wherein the glass and/or glass ceramic material is not able to undergo a cement reaction with a cross-linkable polyacid. a. 10 wt.-% to 55 wt.-% water, b. 40 wt.-% to 85 wt.-% of a glass and/or glass ceramic material, comprising: 55 wt.-% to 75 wt.-% of silicon oxide, 8 wt.-% to 22 wt.-% of aluminum oxide, 0 wt.-% to 8 wt.-% of boron oxide, 3 wt.-% to 12 wt.-% of potassium oxide, 4 wt.-% to 12 wt.-% of sodium oxide, 0 wt.-% to 2 wt.-% of cerium oxide, 0 wt.-% to 2 wt.-% of tin oxide, 0 wt.-% to 3 wt.-% of zinc oxide, 0 wt.-% to 4 wt.-% of phosphor oxide, 0 wt.-% to 3 wt.-% of calcium oxide, 0 wt.-% to 3 wt.-% of lithium oxide, and 0 wt.-% to 1 wt.-% of fluoride, 0 wt.-% to 3 wt.% of lanthanum oxide or lanthanide oxide, c. 0.01 wt.-% to 4 wt.-% of a rheological modifier with a molecular weight above 500,000, comprising a substance selected from xanthan gum, polyethylene oxide, and mixtures or combinations thereof, d. 0 wt.-% to 10 wt.-% of polyethylene glycol, e. 0 wt.-% to 4 wt.-% of a thickening agent,
Method for operating an adiabatic compressed-air storage power plant comprising: - at least one turbomachine for compressing compressed air, - at least one turbomachine for decompressing compressed air, - at least one pressure store for intermediately storing compressed compressed air that communicates at least temporarily, but not simultaneously, with at least one turbomachine for compressing compressed air and with at least one turbomachine for decompressing compressed air, - at least one heat store, and - a bypass, by means of which, during the decompression, a first part of the compressed air removed from the compressed-air store can be directed past the heat store and subsequently mixed with a second part of the compressed air removed from the compressed-air store that has been heated by means of heat from the heat store, to form mixed compressed air, - which mixed compressed air is subsequently fed to at least one turbomachine for decompression, characterized in that - the heat store is provided for removing and storing heat occurring during the compression of the compressed air and giving it off again during the decompression of the compressed air, - during the decompression of the compressed air, a first part of the compressed air removed from the compressed-air store that is variable over time is conducted through the bypass past the heat store and is mixed with a second part of the compressed air removed from the compressed-air store that has been heated by means of heat removed from the heat store, to form mixed compressed air of a constant turbomachine inlet temperature. - at least one turbomachine for compressing compressed air, - at least one turbomachine for decompressing compressed air, - at least one pressure store for intermediately storing compressed compressed air that communicates at least temporarily, but not simultaneously, with at least one turbomachine for compressing compressed air and with at least one turbomachine for decompressing compressed air, - at least one heat store, and - a bypass, by means of which, during the decompression, a first part of the compressed air removed from the compressed-air store can be directed past the heat store and subsequently mixed with a second part of the compressed air removed from the compressed-air store that has been heated by means of heat from the heat store, to form mixed compressed air, - which mixed compressed air is subsequently fed to at least one turbomachine for decompression, characterized in that - the heat store is provided for removing and storing heat occurring during the compression of the compressed air and giving it off again during the decompression of the compressed air, - during the decompression of the compressed air, a first part of the compressed air removed from the compressed-air store that is variable over time is conducted through the bypass past the heat store and is mixed with a second part of the compressed air removed from the compressed-air store that has been heated by means of heat removed from the heat store, to form mixed compressed air of a constant turbomachine inlet temperature.
A telecommunication system for providing a facility for communicating internet packet data with a mobile communications user equipment, the internet packet data carrying payload data including a plurality of different data types, the system including a packet radio network comprising a gateway support node operable to provide an interface for communicating the data packets between the user equipment and a packet data telecommunications network via the packet radio network and a service support node operable to communicate the data packets between the gateway support node and the mobile user equipment using a radio network controller, the radio network controller being operable to provide a radio access bearer for communicating the data packets with the user equipment, whereby at least one of the gateway support node and the user equipment are operable to parse the payload data in each data packet to determine a number of the plurality of different data types and a number of data symbols in each of the different data types, to generate a radio access bearer sub-flow indicator providing an indication of the number of different types of data in the payload and the number of symbols in each different data type, to form a transport frame for each internet data packet by generating a service data unit from the payload data and an internet protocol header of the internet data packet, and combining the service data unit with the sub-flow indicator, the payload data including the plurality of different data types, the transport frame being used to communicate each internet data packet including the plurality of different data types between the gateway support node and the radio network controller via the service support node, and the internet data packets are communicated between the radio network controller and the user equipment by detecting the sub-flow indicator, and in accordance with the sub-flow indicator arranging for the data from each of the different data fields to be communicated via a different radio access bearer providing different quality of service parameters appropriate for the different data type.
A cementing method that comprises: monitoring one or more parameters of a cement slurry at various positions along a borehole during at least some portion of a curing process, wherein said one or more parameters includes acoustic activity produced by curing of the cement slurry; determining from said one or more parameters a span over which the cement slurry extends and whether said span includes any gaps; and adjusting the cement slurry in response to said determining, wherein adjusting the cement slurry comprises at least one of: (i) employing one or more vibrators or sound sources to maintain non-gel properties as the cement slurry is pumped; (ii) supplying agitation energy to the cement slurry if gaps are detected; and (iii) increasing pressure on the cement slurry if detected gaps are attributable to formation fluid influx. monitoring one or more parameters of a cement slurry at various positions along a borehole during at least some portion of a curing process, wherein said one or more parameters includes acoustic activity produced by curing of the cement slurry; determining from said one or more parameters a span over which the cement slurry extends and whether said span includes any gaps; and adjusting the cement slurry in response to said determining, wherein adjusting the cement slurry comprises at least one of: (i) employing one or more vibrators or sound sources to maintain non-gel properties as the cement slurry is pumped; (ii) supplying agitation energy to the cement slurry if gaps are detected; and (iii) increasing pressure on the cement slurry if detected gaps are attributable to formation fluid influx. (i) employing one or more vibrators or sound sources to maintain non-gel properties as the cement slurry is pumped; (ii) supplying agitation energy to the cement slurry if gaps are detected; and (iii) increasing pressure on the cement slurry if detected gaps are attributable to formation fluid influx.