mhurhangee/ep-ind-claims huggingface dataset:
Blade for a rotor of an aircraft having a rotary wing designed to rotate about an axis of rotation, the said blade extending on the one hand along a blade axis between a blade start capable of being connected to a hub of the said rotor and a blade tip situated at a free end of the said blade, and on the other hand along a transverse axis perpendicular to the said blade axis between a leading edge and a trailing edge, the said blade comprising a profiled part situated between the said blade start and the said blade tip, the said profiled part consisting of a succession of aerodynamic profiles, each aerodynamic profile being situated in a transverse plane substantially perpendicular to the said blade axis and demarcating a section of the said blade, the said blade tip being located at a distance equal to a rotor radius R of the said axis of rotation, a maximum distance between the said leading edge and the said trailing edge in the said transverse plane forming a chord c for the said aerodynamic profile of the said sections of the said blade, a mean chord c being a mean value of the said chord c on the said profiled part, a first forward direction being defined from the said trailing edge to the said leading edge and a second rearward direction being defined from the said leading edge to the said trailing edge, the said blade presenting a combination of the laws of variation of chords and pitch, the said pitch being the angle between the said leading edge and the said blade axis, the said chord increasing between the start of the said profiled part and a first section S1 situated at a first distance from the said axis of rotation between 0.6 R and 0.9 R, the said chord increasing beyond the said first section S1, and the said pitch being directed in the forward direction of the said blade between the said start of the said profiled part and a second section S2 situated at a second distance from the said axis of rotation between 0.5 R and 0.8 R, the said leading edge forming a first forward pitch angle α 1 strictly greater than 0° and less than 10° with the said blade axis, the said pitch being directed in the forward direction of the said blade between the said second section S2 and a third section S3 situated at a third distance from the said axis of rotation between 0.6 R and 0.95 R, the said leading edge forming a second front pitch angle α 2 between 1° and 15° with the said blade axis, the said pitch being directed to the rear of the said blade between the said third section S3 and the said blade tip, the said leading edge forming a third rear pitch angle α 3 of between -35° and -15° with the said blade axis, characterised in that the said first forward pitch angle α 1 is equal to 4°, the said second forward pitch angle α 2 is equal to 8°, and the said third rear pitch angle α 3 is equal to -23°.
A modular system comprising: a plurality of containers, including an extraction container, a privacy scanning container and an analytics container; a non-transitory memory storing instructions; and a processor configured to execute the instructions to cause the system to: receive user information from a plurality of sources; transfer the user information to the extraction container; scan and decrypt the user information in the extraction container for privacy data; transfer the privacy data to the privacy scanning container; determine, based on the privacy data in the privacy scanning container, a type of data associated with the privacy data; classify the privacy data in the privacy scanning container based in part on the type of data and content of the data, wherein the classification includes a machine learning model; contain the privacy data in the analytics container based on the classification; and retrieve the privacy data contained in the analytics container; and report the privacy data in the analytics container. a plurality of containers, including an extraction container, a privacy scanning container and an analytics container; a non-transitory memory storing instructions; and a processor configured to execute the instructions to cause the system to: receive user information from a plurality of sources; transfer the user information to the extraction container; scan and decrypt the user information in the extraction container for privacy data; transfer the privacy data to the privacy scanning container; determine, based on the privacy data in the privacy scanning container, a type of data associated with the privacy data; classify the privacy data in the privacy scanning container based in part on the type of data and content of the data, wherein the classification includes a machine learning model; contain the privacy data in the analytics container based on the classification; and retrieve the privacy data contained in the analytics container; and report the privacy data in the analytics container. receive user information from a plurality of sources; transfer the user information to the extraction container; scan and decrypt the user information in the extraction container for privacy data; transfer the privacy data to the privacy scanning container; determine, based on the privacy data in the privacy scanning container, a type of data associated with the privacy data; classify the privacy data in the privacy scanning container based in part on the type of data and content of the data, wherein the classification includes a machine learning model; contain the privacy data in the analytics container based on the classification; and retrieve the privacy data contained in the analytics container; and report the privacy data in the analytics container.
A power information collecting apparatus which is configured to collect, for each of a plurality of devices, power information including a power consumption level, said power information collecting apparatus comprising: - a communication unit that collects the power information for each of the devices; - a memory that holds the power information collected by said communication unit; - a calculating unit that calculates a power change rate for each of the devices, using the power information held by said memory, the power change rate indicating a degree of increase and decrease in the power consumption level; characterized in that the power information collecting apparatus comprises a controller that is configured to control said communication unit to set a higher frequency of collecting the power information of the device having a larger influence on the total power consumption level than the collection frequencies of the other devices, wherein the collecting rate is set higher for individual devices having a higher power change rate than for individual devices having a lower power change rate. - a communication unit that collects the power information for each of the devices; - a memory that holds the power information collected by said communication unit; - a calculating unit that calculates a power change rate for each of the devices, using the power information held by said memory, the power change rate indicating a degree of increase and decrease in the power consumption level;
An OpenFlow node, comprising: a first means for receiving a packet including a header containing an array of a plurality of OpenFlow processing operations to be performed by individual OpenFlow nodes on a forwarding route of a data forwarding network; a second means for executing an OpenFlow processing operation corresponding to the OpenFlow node based on the header; and a third means for: requesting from an OpenFlow control server, in the case that the OpenFlow node cannot identify any OpenFlow processing operations corresponding to the OpenFlow node and the packet, the creation of an array of a plurality of OpenFlow processing operations corresponding to the packet; in response to the request, receiving from the OpenFlow control server instructions to append a header containing the requested array of a plurality of OpenFlow processing operations to the packet and outputting the packet, and subsequently executing the instructions. a first means for receiving a packet including a header containing an array of a plurality of OpenFlow processing operations to be performed by individual OpenFlow nodes on a forwarding route of a data forwarding network; a second means for executing an OpenFlow processing operation corresponding to the OpenFlow node based on the header; and a third means for: requesting from an OpenFlow control server, in the case that the OpenFlow node cannot identify any OpenFlow processing operations corresponding to the OpenFlow node and the packet, the creation of an array of a plurality of OpenFlow processing operations corresponding to the packet; in response to the request, receiving from the OpenFlow control server instructions to append a header containing the requested array of a plurality of OpenFlow processing operations to the packet and outputting the packet, and subsequently executing the instructions. requesting from an OpenFlow control server, in the case that the OpenFlow node cannot identify any OpenFlow processing operations corresponding to the OpenFlow node and the packet, the creation of an array of a plurality of OpenFlow processing operations corresponding to the packet; in response to the request, receiving from the OpenFlow control server instructions to append a header containing the requested array of a plurality of OpenFlow processing operations to the packet and outputting the packet, and subsequently executing the instructions.
A method of maintaining a radio coverage area of a wireless communication network, wherein a plurality of mobile robots provide the radio coverage area, each mobile robot comprising a radio base station of the wireless communication network, the method comprising: • each mobile robot of plurality of mobile robots, upon receiving instruction from a maintenance base, moving to a geographical position to deploy as part of a daisy chain loop of mobile robots; and • upon receiving further instruction from the maintenance base, each mobile robot moving to a further geographical position as part of a circular shift operation performed by the mobile robots deployed to the daisy chain loop to maintain the radio coverage area and, wherein one of the mobile robots deployed to the daisy chain loop returns to the maintenance base. • each mobile robot of plurality of mobile robots, upon receiving instruction from a maintenance base, moving to a geographical position to deploy as part of a daisy chain loop of mobile robots; and • upon receiving further instruction from the maintenance base, each mobile robot moving to a further geographical position as part of a circular shift operation performed by the mobile robots deployed to the daisy chain loop to maintain the radio coverage area and, wherein one of the mobile robots deployed to the daisy chain loop returns to the maintenance base.
Padding device, in particular support for sitting or lying, comprising - a pad core body having a top side, a bottom side and encircling side regions, wherein the pad core body consists of three-dimensional structural material comprising intermingled monofilaments composed of hydrophobic plastic, wherein - the pad core body is completely surrounded by an envelope, - the envelope comprises, on the top side, an air-impermeable and water-impermeable upper woven fabric layer composed of plastic, and, - at least in the side regions, there is an air-permeable and water-permeable layer (22.1, 22.2) with continuous apertures composed of plastic, in particular a net layer (22.1), wherein - the bottom side comprises an air-impermeable and water-impermeable lower woven fabric layer composed of plastic, - characterized in that - the entire envelope comprises the air-permeable and water-permeable layer (22.1, 22.2) with apertures, in particular the net layer (22.1, 22.2), wherein the upper and the lower woven fabric layer (26, 28) are respectively arranged on the top side and bottom side of the envelope, and - the upper and lower woven fabric layers (26, 28) comprise a downwardly and, respectively, upwardly pointing protrusion in the side region. - a pad core body having a top side, a bottom side and encircling side regions, wherein the pad core body consists of three-dimensional structural material comprising intermingled monofilaments composed of hydrophobic plastic, - the pad core body is completely surrounded by an envelope, - the envelope comprises, on the top side, an air-impermeable and water-impermeable upper woven fabric layer composed of plastic, and, - at least in the side regions, there is an air-permeable and water-permeable layer (22.1, 22.2) with continuous apertures composed of plastic, in particular a net layer (22.1), - the bottom side comprises an air-impermeable and water-impermeable lower woven fabric layer composed of plastic, - characterized in that - the entire envelope comprises the air-permeable and water-permeable layer (22.1, 22.2) with apertures, in particular the net layer (22.1, 22.2), wherein the upper and the lower woven fabric layer (26, 28) are respectively arranged on the top side and bottom side of the envelope, and - the upper and lower woven fabric layers (26, 28) comprise a downwardly and, respectively, upwardly pointing protrusion in the side region.
A method for monitoring at least one electrolyser element performance, comprising: a) characterization of each of said at least one electrolyser element by fitting a current-voltage curve; b) comparing each of said at least one electrolyser element characterization with a limit threshold or a reference aging model; and c) drawing a conclusion that the electrolyser element is faulty or prematurely aging when said characterization deviates from said predefined reference, characterized in that said fitting is made in operation zones (11, 12, 13) of the electrolyser element selected from the group consisting of start-up zones, shutdown zones and load change zones. a) characterization of each of said at least one electrolyser element by fitting a current-voltage curve; b) comparing each of said at least one electrolyser element characterization with a limit threshold or a reference aging model; and c) drawing a conclusion that the electrolyser element is faulty or prematurely aging when said characterization deviates from said predefined reference,
A method of acid attack of a phosphate source comprising calcium for the production of a purified phosphate compound comprising the steps of a) an acid attack using sulphuric acid of said phosphate source for a predetermined period of time between 20 and 180 minutes with formation of a first suspension containing a first solid material and a first liquid phase in which the first solid material is in suspension, said first solid material comprising at least calcium sulphate and impurities, said first liquid phase comprising phosphoric acid and dissolved monocalcium phosphate, said attack being carried out under inlet conditions in which the sulphate molar ratio from the sulphuric acid and optionally the phosphate source with calcium is between 0.6 and 0.8, and the content of P 2 O 5 is lower than 6%, b) a first filtration of said first slurry with a separation of said first solid material from said first liquid phase c) recovering from said first liquid phase of a purified phosphate compound. a) an acid attack using sulphuric acid of said phosphate source for a predetermined period of time between 20 and 180 minutes with formation of a first suspension containing a first solid material and a first liquid phase in which the first solid material is in suspension, said first solid material comprising at least calcium sulphate and impurities, said first liquid phase comprising phosphoric acid and dissolved monocalcium phosphate, said attack being carried out under inlet conditions in which the sulphate molar ratio from the sulphuric acid and optionally the phosphate source with calcium is between 0.6 and 0.8, and the content of P 2 O 5 is lower than 6%, b) a first filtration of said first slurry with a separation of said first solid material from said first liquid phase c) recovering from said first liquid phase of a purified phosphate compound.
A method for operation of at least one node (304, 306; 400) in a communication network comprising: adjusting, with a controller (310; 410) in a first node (304; 400), an impedance of a variable impedance circuit in the first node (304; 400) to a first impedance level that the controller (310; 410) in the first node (304; 400) determines randomly, the variable impedance circuit in the first node (304; 400) being connected to an output of a transceiver in the first node (304; 400) and to a shared communication medium; and transmitting, with the transceiver in the first node (304; 400), a first data bit through the shared communication medium with the variable impedance circuit producing the first impedance level; characterized in that the first data bit is transmitted to produce a collision; the shared communication medium is a Controller Area Network bus or an I 2 C bus; and the first data bit is a cryptographic key bit. adjusting, with a controller (310; 410) in a first node (304; 400), an impedance of a variable impedance circuit in the first node (304; 400) to a first impedance level that the controller (310; 410) in the first node (304; 400) determines randomly, the variable impedance circuit in the first node (304; 400) being connected to an output of a transceiver in the first node (304; 400) and to a shared communication medium; and transmitting, with the transceiver in the first node (304; 400), a first data bit through the shared communication medium with the variable impedance circuit producing the first impedance level; characterized in that the first data bit is transmitted to produce a collision; the shared communication medium is a Controller Area Network bus or an I 2 C bus; and the first data bit is a cryptographic key bit.
A composite positive active material including an over-lithiated lithium transition metal oxide represented by Formula 1 or Formula 3: [Formula 1] xLi 2-y M" y MO 3 -(1-x)LiM'O 2 [Formula 3] xLi 2-y M" y MO 3 -x'LiM'O 2 -x"Li 1+d M'" 2-d O 4 wherein: M is at least one metal that has an average oxidation number of +4 and that is selected from a Period 4 transition metal and a Period 5 transition metal; M' is at least one metal that has an average oxidation number of +3 and that is selected from a Period 4 transition metal and a Period 5 transition metal; and M" is different from M and is at least one metal cation selected from Period 2 to 7 elements, and 0<x<1 and 0<y≤1 wherein: x+x'+x"=1; 0<x'<1, 0<x"<1; and 0≤d≤0.33; and M'" is at least one metal that has an average oxidation number of a combination of +3 and +4 and that is selected from a Period 4 transition metal and a Period 5 transition metal; wherein the composite positive active material comprises a Li 2-y M" y MO 3 phase including a Li ion layer, and wherein M" is included in the Li ion layer. M is at least one metal that has an average oxidation number of +4 and that is selected from a Period 4 transition metal and a Period 5 transition metal; M' is at least one metal that has an average oxidation number of +3 and that is selected from a Period 4 transition metal and a Period 5 transition metal; and M" is different from M and is at least one metal cation selected from Period 2 to 7 elements, and 0<x<1 and 0<y≤1 wherein: x+x'+x"=1; 0<x'<1, 0<x"<1; and 0≤d≤0.33; and x+x'+x"=1; 0<x'<1, 0<x"<1; and 0≤d≤0.33; and M'" is at least one metal that has an average oxidation number of a combination of +3 and +4 and that is selected from a Period 4 transition metal and a Period 5 transition metal; wherein the composite positive active material comprises a Li 2-y M" y MO 3 phase including a Li ion layer, and wherein M" is included in the Li ion layer.
An interlock control system comprising: a client electronic device configured to administer an alertness test to a user, wherein the client electronic device is configured to: render a plurality of objects for use within the alertness test being administered to the user, wherein the plurality of objects includes at least one rotating object, render a disrupter configured to distract the user, solicit a response from the user concerning whether at least a pair of objects of the plurality of objects within the alertness test match, receive the response from the user, and determine a result for the user based, at least in part, upon the response received from the user; and an interlock controller, coupled to and configured to be actuated by the client electronic device, wherein the interlock controller is configured to allow the user to gain access to a piece of restricted equipment. a client electronic device configured to administer an alertness test to a user, wherein the client electronic device is configured to: render a plurality of objects for use within the alertness test being administered to the user, wherein the plurality of objects includes at least one rotating object, render a disrupter configured to distract the user, solicit a response from the user concerning whether at least a pair of objects of the plurality of objects within the alertness test match, receive the response from the user, and determine a result for the user based, at least in part, upon the response received from the user; and render a plurality of objects for use within the alertness test being administered to the user, wherein the plurality of objects includes at least one rotating object, render a disrupter configured to distract the user, solicit a response from the user concerning whether at least a pair of objects of the plurality of objects within the alertness test match, receive the response from the user, and determine a result for the user based, at least in part, upon the response received from the user; and an interlock controller, coupled to and configured to be actuated by the client electronic device, wherein the interlock controller is configured to allow the user to gain access to a piece of restricted equipment.
A thermal interface material sheet to be disposed between a heat generating electrical component and a cooling device, the thermal interface material sheet comprising at least one thin film sensor and electrical conductors connected to the at least one thin film sensor for measuring a property related to the heat generating electrical component, characterized in that the at least one thin film sensor is physical vapour deposition grown sensor.
Polyazoles with an inherent viscosity, for a 1 % by weight polymer solution in N,N-dimethylacetamide, of more than 1.1 dL/g and a solubility in N,N-dimethylacetamide of at least 80 % by weight under atmospheric pressure.
Procedure for the realization of composite materials made of carbon fiber comprising: - a step of arrangement of carbon fibers in at least one carbonaceous matrix to form a treatable composite; - a step of heating of said treatable composite able to transform said treatable composite into a finished composite, said step of heating being at least partially induced by electromagnetic microwaves generated by at least one source of electromagnetic waves and able to increase the temperature of said treatable composite; characterized in that said carbon fibers are preformed and in that said carbonaceous matrix is a carbon-phenolic composite material. - a step of arrangement of carbon fibers in at least one carbonaceous matrix to form a treatable composite; - a step of heating of said treatable composite able to transform said treatable composite into a finished composite, said step of heating being at least partially induced by electromagnetic microwaves generated by at least one source of electromagnetic waves and able to increase the temperature of said treatable composite;