mhurhangee/ep-ind-claims huggingface dataset:
A method of generating cognitive security intelligence for non-signature based detection and prevention of a malware in a computing system, the method comprising: monitoring, by a cognitive security device implemented in the computing system, instructions being executed by a processor of the computing system, wherein an OPCODE trapper in direct communication with the processor directly monitors the instructions being executed by the processor; determining, by the cognitive security device, a plurality of events triggered by the execution of the instructions and a plurality of activities performed by the execution of the instructions; correlating, by the cognitive security device, the plurality of events and the plurality of activities to determine a sequence of events and activities; mapping, by the cognitive security device, the sequence of events and activities with a topographical threat map to detect a pattern match corresponding to the malware, wherein the topographical threat map is event and activity behavior map of a plurality of categories of malwares, and is built based on a cognitive analysis of at least one of external knowledge, or historic knowledge; and upon detecting the pattern match corresponding to the malware, effecting, by the cognitive security device, a remedial measure to prevent the malware by constructing remedial instructions to be executed by the processor; wherein the malware is a ransomware having no pre-configured signature in the cognitive security device. monitoring, by a cognitive security device implemented in the computing system, instructions being executed by a processor of the computing system, wherein an OPCODE trapper in direct communication with the processor directly monitors the instructions being executed by the processor; determining, by the cognitive security device, a plurality of events triggered by the execution of the instructions and a plurality of activities performed by the execution of the instructions; correlating, by the cognitive security device, the plurality of events and the plurality of activities to determine a sequence of events and activities; mapping, by the cognitive security device, the sequence of events and activities with a topographical threat map to detect a pattern match corresponding to the malware, wherein the topographical threat map is event and activity behavior map of a plurality of categories of malwares, and is built based on a cognitive analysis of at least one of external knowledge, or historic knowledge; and upon detecting the pattern match corresponding to the malware, effecting, by the cognitive security device, a remedial measure to prevent the malware by constructing remedial instructions to be executed by the processor; wherein the malware is a ransomware having no pre-configured signature in the cognitive security device.
A tumor-suppressing antibody drug conjugate of the formula M-[L-D]n, or a pharmaceutically acceptable salt thereof, wherein: M comprises an anti-DLL3 antibody that specifically binds to an epitope within the DSL domain of a DLL3 protein set forth as SEQ ID NO: 3 or 4; L comprises an optional linker; D comprises a cytotoxic agent; and n is an integer from 1 to 20. M comprises an anti-DLL3 antibody that specifically binds to an epitope within the DSL domain of a DLL3 protein set forth as SEQ ID NO: 3 or 4; L comprises an optional linker; D comprises a cytotoxic agent; and n is an integer from 1 to 20.
A piston unit reciprocable along a slide hole created in a cylinder tube, the piston unit comprising: a piston body; a packing attached to an outer circumferential part of the piston body; a holding member attached to the outer circumferential part of the piston body and including a plurality of magnet holding portions disposed in a circumferential direction; a plurality of magnets held by the plurality of magnet holding portions at intervals in the circumferential direction; a first yoke with a ring shape disposed on one side of the plurality of magnets in an axial direction; and a second yoke with a ring shape disposed on another side of the plurality of magnets in the axial direction, characterized in that the second yoke includes: an adjoining portion adjoining the plurality of magnets; and an axial portion having a ring shape and protruding from an outer circumferential part of the adjoining portion in the axial direction to be away from the first yoke. a piston body; a packing attached to an outer circumferential part of the piston body; a holding member attached to the outer circumferential part of the piston body and including a plurality of magnet holding portions disposed in a circumferential direction; a plurality of magnets held by the plurality of magnet holding portions at intervals in the circumferential direction; a first yoke with a ring shape disposed on one side of the plurality of magnets in an axial direction; and a second yoke with a ring shape disposed on another side of the plurality of magnets in the axial direction, characterized in that the second yoke includes: an adjoining portion adjoining the plurality of magnets; and an axial portion having a ring shape and protruding from an outer circumferential part of the adjoining portion in the axial direction to be away from the first yoke. an adjoining portion adjoining the plurality of magnets; and an axial portion having a ring shape and protruding from an outer circumferential part of the adjoining portion in the axial direction to be away from the first yoke.
A method (700, 800) comprising: obtaining a plurality of images (710, 810), wherein a set of at least two images of the plurality of images describes a common scene, wherein the set of at least two images comprises a source image having a first depth-of field and a target image having a second depth-of field, wherein the second depth-of field is less than the first depth-of field; determining, using an artificial neural network, a depth map for the common scene based on the source image (720, 820); said method being characterized in that it further comprises the steps of: generating, based on the determined depth map for the common scene, a predicted image based on the source image (730, 830) such that the predicted image has a depth-of-field corresponding to the second depth-of field; determining a difference between the predicted image and the target image (740, 840); updating the artificial neural network based on the determined difference (750, 850); obtaining an image of a scene of interest; and using the updated artificial neural network to generate a depth map for the scene of interest based on the image of the scene of interest. obtaining a plurality of images (710, 810), wherein a set of at least two images of the plurality of images describes a common scene, wherein the set of at least two images comprises a source image having a first depth-of field and a target image having a second depth-of field, wherein the second depth-of field is less than the first depth-of field; determining, using an artificial neural network, a depth map for the common scene based on the source image (720, 820); said method being characterized in that it further comprises the steps of: generating, based on the determined depth map for the common scene, a predicted image based on the source image (730, 830) such that the predicted image has a depth-of-field corresponding to the second depth-of field; determining a difference between the predicted image and the target image (740, 840); updating the artificial neural network based on the determined difference (750, 850); obtaining an image of a scene of interest; and using the updated artificial neural network to generate a depth map for the scene of interest based on the image of the scene of interest. generating, based on the determined depth map for the common scene, a predicted image based on the source image (730, 830) such that the predicted image has a depth-of-field corresponding to the second depth-of field; determining a difference between the predicted image and the target image (740, 840); updating the artificial neural network based on the determined difference (750, 850); obtaining an image of a scene of interest; and using the updated artificial neural network to generate a depth map for the scene of interest based on the image of the scene of interest.
A method for removing NO X from a retrofitted electric utility power plant flue gas stream comprising: (a) subjecting a combustion flue gas stream containing NO X to a selective catalytic reduction operation or selective non-catalytic reduction operation by injecting ammonia or an ammonia-forming compound into the flue gas stream as an agent for reducing the NO X, wherein an excess of ammonia is introduced to yield a flue gas stream containing unreacted residual ammonia and a reduced concentration of NO X; and (b) thereafter injecting hydrogen peroxide into the flue gas stream containing unreacted residual ammonia, in an amount sufficient to react with the residual ammonia present in the flue gas stream, to yield a flue gas stream having a reduced concentration of residual ammonia, and wherein the combustion flue gas stream temperature during the hydrogen peroxide injection operation is between 121 °C (250°F) to 427 °C (800°F); and (c) contacting the ammonia-depleted flue gas stream with an alkali reagent in an amount sufficient to remove NO X present in the gas stream, yielding a flue gas stream with reduced concentrations of ammonia and NO X. (a) subjecting a combustion flue gas stream containing NO X to a selective catalytic reduction operation or selective non-catalytic reduction operation by injecting ammonia or an ammonia-forming compound into the flue gas stream as an agent for reducing the NO X, wherein an excess of ammonia is introduced to yield a flue gas stream containing unreacted residual ammonia and a reduced concentration of NO X; and (b) thereafter injecting hydrogen peroxide into the flue gas stream containing unreacted residual ammonia, in an amount sufficient to react with the residual ammonia present in the flue gas stream, to yield a flue gas stream having a reduced concentration of residual ammonia, and wherein the combustion flue gas stream temperature during the hydrogen peroxide injection operation is between 121 °C (250°F) to 427 °C (800°F); and (c) contacting the ammonia-depleted flue gas stream with an alkali reagent in an amount sufficient to remove NO X present in the gas stream, yielding a flue gas stream with reduced concentrations of ammonia and NO X.
Arrangement for the utilization of waste heat comprising a waste heat exchanger, at least two turbines (6, 6', 6"), at least two recuperators (11, 11'), at least two cooler units (8, 9, 8', 9', 8", 9"), and at least two pumps and/or compressors (10, 10', 10") as components, characterized in that all components are arranged in a single fluid cycle, wherein the single fluid cycle comprises at least two open sub-cycles in series respectively with one turbine (6, 6', 6"), one recuperator (11, 11'), one cooler unit (8, 9, 8', 9', 8", 9"), and one pump or compressor (10, 10', 10"), wherein one or every sub-cycle comprises a bypass connecting the inflow of a sub-cycle with the inflow of the waste heat exchanger for optimal adjustment of mass flow within the sub-cyle.
A device for guiding a sliding window (28, 38) in a glazed door (2,3) with a flush window of a motor vehicle, comprising a panel (20, 30) extended by a frame (21, 31), this frame and this panel together delimiting an opening (27, 37) inside which said window (28, 38) slides, this guiding device comprising a guide rail intended to be inserted and retained in one of the uprights (23, 32) of the frame (21, 31) of the door and at least one guide shoe intended to be attached to the inner face of said sliding window (28, 38), said guide rail taking the form of a profile made of a flexible and elastically deformable elastomer material, provided with a cylindrical longitudinal recess opening onto a longitudinal slot, which extends the entire length of said rail, said guide shoe comprising at least one guiding head engaged in said longitudinal recess through said slot, said guide shoe being rigid, characterized in that the guiding head comprises at least three, preferably four, flat rigid parts extending radially from said guiding head and from an axis named "axis of the shoe head", while being evenly distributed about the latter and in that said guide rail on the one hand surrounds said guiding head, so that the free ends of each flat part of the guiding head are constantly bearing against the inner wall of said longitudinal recess, so as to hold said guide shoe while permitting its axial sliding in said guide rail and on the other hand allows the mounting of the rail on any curved part of said door frame.
A synchronization control method of a first terminal for transmission and reception of data in a wireless cooperative communication system, the synchronization control method comprising: transmitting, to a second terminal and a third terminal, a first request frame and a second request frame that include information regarding points in time when a first response frame and a second response frame are transmitted, respectively; receiving the first response frame and the second response frame from the second terminal and the third terminal; estimating a first propagation delay time between the first terminal and the second terminal, and a second propagation delay time between the first terminal and the third terminal, based on times at which the first response frame and the second response frame are received; and transmitting, to the second terminal, a third request frame including information on a delay time difference between the first propagation delay time and the second propagation delay time, wherein the first terminal is a destination station, and wherein the second terminal or the third terminal is a relay station or a source station. transmitting, to a second terminal and a third terminal, a first request frame and a second request frame that include information regarding points in time when a first response frame and a second response frame are transmitted, respectively; receiving the first response frame and the second response frame from the second terminal and the third terminal; estimating a first propagation delay time between the first terminal and the second terminal, and a second propagation delay time between the first terminal and the third terminal, based on times at which the first response frame and the second response frame are received; and transmitting, to the second terminal, a third request frame including information on a delay time difference between the first propagation delay time and the second propagation delay time, wherein the first terminal is a destination station, and wherein the second terminal or the third terminal is a relay station or a source station.
A method (700, 800) performed at a network node for entering into an energy saving mode comprising: receiving (710, 810) a request message from an anchor node operating in an anchor mode for serving an increased cell area, requesting entry of said network node into said energy saving mode; sending (715, 815) an acknowledgement message in response to said request message; entering (730, 830) said energy saving mode, wherein entering said energy saving mode comprises putting said network node into an energy saving mode state, said energy saving mode state being one of: reception off and transmission on state; reception on and transmission off state; or reception off and transmission off state; and sending, after said entering (730, 830), a control message indicating said energy saving mode state to said anchor node. receiving (710, 810) a request message from an anchor node operating in an anchor mode for serving an increased cell area, requesting entry of said network node into said energy saving mode; sending (715, 815) an acknowledgement message in response to said request message; entering (730, 830) said energy saving mode, wherein entering said energy saving mode comprises putting said network node into an energy saving mode state, said energy saving mode state being one of: reception off and transmission on state; reception on and transmission off state; or reception off and transmission off state; and sending, after said entering (730, 830), a control message indicating said energy saving mode state to said anchor node.
An ex vivo method of decellularizing a mammalian organ or a mammalian vascularized tissue, comprising: providing a mammalian organ having an extracellular matrix and a substantially closed vasculature bed, and cells embedded in the extracellular matrix, or providing a mammalian vascularized tissue having an extracellular matrix and vascular tree, and cells embedded in the extracellular matrix; cannulating said organ or tissue at one or more vessels, and/or ducts, thereby producing a cannulated organ or tissue; and perfusing the vasculature of said cannulated organ or vascularized tissue with a first cellular disruption medium via said one or more cannulations. providing a mammalian organ having an extracellular matrix and a substantially closed vasculature bed, and cells embedded in the extracellular matrix, or providing a mammalian vascularized tissue having an extracellular matrix and vascular tree, and cells embedded in the extracellular matrix; cannulating said organ or tissue at one or more vessels, and/or ducts, thereby producing a cannulated organ or tissue; and perfusing the vasculature of said cannulated organ or vascularized tissue with a first cellular disruption medium via said one or more cannulations.
An electrolysis device comprising: an electrolysis cell formed in a manner that a membrane-electrode assembly (2,21) is compressed from both sides so as to adhere an anode (4,17), a cathode (5,19), and a solid polymer electrolyte separation membrane (3,16) formed from a cation exchange membrane to each other, the membrane-electrode assembly (2,21) being configured by the solid polymer electrolyte separation membrane (3,16) formed from the cation exchange membrane, and the anode (4,17) and the cathode (5,19) which are respectively adhered to both surfaces of the solid polymer electrolyte separation membrane (3,16); means for supplying raw water consisting of unpurified water containing alkaline earth metal, to at least one of the anode (4,17) and the cathode (5,19); and means for mixing an anolyte generated on the anode (4,17) with a catholyte generated on the cathode (5,19), wherein a porous conductive metallic material which has flexibility and in which multiple fine voids are provided selected from a group consisting of a metal foam, a metallic fiber cloth, and a fibrous metal molded body is used as the cathode (5,19), wherein the fine void in the cathode (5,19) prevent localized deposition of the scale which is mainly formed of hydroxide of the alkaline earth metal at a contact interface between the cathode (5,19) and the solid polymer electrolyte separation membrane (3,16), and wherein the solid polymer electrolyte separation membrane (3,16) and the anode (4,17) have a plurality of through holes (6,20,7). an electrolysis cell formed in a manner that a membrane-electrode assembly (2,21) is compressed from both sides so as to adhere an anode (4,17), a cathode (5,19), and a solid polymer electrolyte separation membrane (3,16) formed from a cation exchange membrane to each other, the membrane-electrode assembly (2,21) being configured by the solid polymer electrolyte separation membrane (3,16) formed from the cation exchange membrane, and the anode (4,17) and the cathode (5,19) which are respectively adhered to both surfaces of the solid polymer electrolyte separation membrane (3,16); means for supplying raw water consisting of unpurified water containing alkaline earth metal, to at least one of the anode (4,17) and the cathode (5,19); and means for mixing an anolyte generated on the anode (4,17) with a catholyte generated on the cathode (5,19), wherein a porous conductive metallic material which has flexibility and in which multiple fine voids are provided selected from a group consisting of a metal foam, a metallic fiber cloth, and a fibrous metal molded body is used as the cathode (5,19), wherein the fine void in the cathode (5,19) prevent localized deposition of the scale which is mainly formed of hydroxide of the alkaline earth metal at a contact interface between the cathode (5,19) and the solid polymer electrolyte separation membrane (3,16), and wherein the solid polymer electrolyte separation membrane (3,16) and the anode (4,17) have a plurality of through holes (6,20,7).
An adhesive tape comprising an adhesive layer formed of an easily dismantlable adhesive composition comprising: an acrylic polymer; and either an acid catalyst or an acid generator, wherein the acrylic polymer is an acrylic block polymer having: a poly(meth)acrylate chain formed of a carboxyl precursor group-containing (meth)acrylate monomer (a); and a poly(meth)acrylate chain comprising, as monomer components, a (meth)acrylate (b) having an alkyl group having 1 to 14 carbon atoms, the (meth)acrylate (b) not being the carboxyl precursor group-containing (meth)acrylate monomer (a), and a polar group-containing monomer (c). an acrylic polymer; and either an acid catalyst or an acid generator, wherein the acrylic polymer is an acrylic block polymer having: a poly(meth)acrylate chain formed of a carboxyl precursor group-containing (meth)acrylate monomer (a); and a poly(meth)acrylate chain comprising, as monomer components, a (meth)acrylate (b) having an alkyl group having 1 to 14 carbon atoms, the (meth)acrylate (b) not being the carboxyl precursor group-containing (meth)acrylate monomer (a), and a polar group-containing monomer (c). a poly(meth)acrylate chain formed of a carboxyl precursor group-containing (meth)acrylate monomer (a); and a poly(meth)acrylate chain comprising, as monomer components, a (meth)acrylate (b) having an alkyl group having 1 to 14 carbon atoms, the (meth)acrylate (b) not being the carboxyl precursor group-containing (meth)acrylate monomer (a), and a polar group-containing monomer (c).
A concentrated solution comprising two triazole compounds and a water-miscible solvent where the two triazole compounds are selected from cyproconazole, propiconazole and difenoconazole; the total concentration of the two triazole compounds is from 0.5 to 600g/l; and the ratio of the total weight of the two triazole compounds to the total weight of any water-immiscible solvent is greater than 2 to 1.
A plasticizer composition, comprising: two or more isophthalates of the same carbon number type, in which alkyl groups bonded to two ester groups have the same carbon number; one or more isophthalates of a different carbon number type, in which alkyl groups bonded to two ester groups have different carbon numbers; wherein the different carbon number type comprises both a higher alkyl and a lower alkyl, the carbon number of the higher alkyl is 8 to 10, and the carbon number of the lower alkyl is selected from 5 to 7, and a difference of the carbon number between the higher alkyl and the lower alkyl is 3 or less. two or more isophthalates of the same carbon number type, in which alkyl groups bonded to two ester groups have the same carbon number; one or more isophthalates of a different carbon number type, in which alkyl groups bonded to two ester groups have different carbon numbers; wherein the different carbon number type comprises both a higher alkyl and a lower alkyl, the carbon number of the higher alkyl is 8 to 10, and the carbon number of the lower alkyl is selected from 5 to 7, and a difference of the carbon number between the higher alkyl and the lower alkyl is 3 or less.