mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: obtaining one or more searches from a Peer-to-Peer network; determining if the one or more obtained searches match one or more criteria that is indicative of a suspicious individual; in response to determining that the one or more obtained searches match the one or more criteria: updating the one or more criteria to include variations of the one or more searches, the variations of the one or more obtained searches including punctuation, pluralization, and other variations of the one or more criteria; issuing one or more new searches to the Peer-to-Peer network based on the updated criteria, the one or more new searches being different from the one or more obtained searches; and determining resultant information associated with the one or more new searches; creating a list of the resultant information for analysis; and in response to determining that the one or more obtained searches do not match the one or more criteria, monitoring the Peer-to-Peer network for other searches. obtaining one or more searches from a Peer-to-Peer network; determining if the one or more obtained searches match one or more criteria that is indicative of a suspicious individual; in response to determining that the one or more obtained searches match the one or more criteria: updating the one or more criteria to include variations of the one or more searches, the variations of the one or more obtained searches including punctuation, pluralization, and other variations of the one or more criteria; issuing one or more new searches to the Peer-to-Peer network based on the updated criteria, the one or more new searches being different from the one or more obtained searches; and determining resultant information associated with the one or more new searches; creating a list of the resultant information for analysis; and updating the one or more criteria to include variations of the one or more searches, the variations of the one or more obtained searches including punctuation, pluralization, and other variations of the one or more criteria; issuing one or more new searches to the Peer-to-Peer network based on the updated criteria, the one or more new searches being different from the one or more obtained searches; and determining resultant information associated with the one or more new searches; creating a list of the resultant information for analysis; and in response to determining that the one or more obtained searches do not match the one or more criteria, monitoring the Peer-to-Peer network for other searches.
Method for determining the concentration of at least one fraction of a gas mixture consisting of at least two gases with known concentrations of the respective contents using an apparatus having a user interface, a hose which is connected to a gas source and supplies at least one of the gases to be mixed or a gas mixture, an oxygen hose which is connected to an oxygen source and supplies oxygen, having means for venting the exhaled air, having a regulator valve (15, 18) which regulates the volume flow and/or mass flow of at least one of the gases to be mixed, and having a control unit, in which the apparatus has at least one detection device for the volume flow and/or mass flow or the gas composition of at least one of the gases or gas mixtures to be mixed, and the control unit is designed to process the at least one detected volume flow value of the at least one gas or gas mixture to be mixed, and to control the volume flow value of at least one of the gases or gas mixtures to be mixed, and to meter, to the volume flow of a first gas flowing through a transport line, at least oxygen as a second gas at least temporarily in the region of a mixing point, and to detect by means of sensors the volume flows of the gases to be mixed, and to calculate the displaced volumes of the gases in the respective transport line, wherein the mixing concentration is calculated in the region of the mixing point using the calculated concentrations of the displaced volumes, characterized in that the distribution of the oxygen concentration in the gas mixture is calculated at at least two points along the transport line.
Method for configuring a first node of a network using a first autonomous system number in at least one session established with another node of the network and in accordance with a dynamic routing protocol implemented in the network, said method comprising the following steps implemented by the first node: - a step of receiving a configuration message comprising at least one item of information representative of at least one second autonomous system number intended to be used by the first node as a replacement for the first autonomous system number; - a step of configuring said first node with said at least one second autonomous system number; - a step of identifying at least one second node of the network having at least one session, in accordance with said dynamic routing protocol, active with the first node, in which the first node is associated with the first autonomous system number; and a step of sending, to said at least one second node, a control message (ACTION) requesting that said at least one second node replace said first autonomous system number associated with said first node with said at least one second autonomous system number such that, after said replacement, the first node is associated with a said second autonomous system number in said at least one active session. - a step of receiving a configuration message comprising at least one item of information representative of at least one second autonomous system number intended to be used by the first node as a replacement for the first autonomous system number; - a step of configuring said first node with said at least one second autonomous system number; - a step of identifying at least one second node of the network having at least one session, in accordance with said dynamic routing protocol, active with the first node, in which the first node is associated with the first autonomous system number; and a step of sending, to said at least one second node, a control message (ACTION) requesting that said at least one second node replace said first autonomous system number associated with said first node with said at least one second autonomous system number such that, after said replacement, the first node is associated with a said second autonomous system number in said at least one active session.
Angle grinder dust hood, with a hood body to cover a circular grinding wheel and with a sealing element which can be positioned at least in sections in a first holding rail and second holding rail for the sealing at least in sections of the hood body in relation to a surface which is to be processed by means of the grinding wheel, and with a suction connection, by means of which material removed from the surface can be extracted by suction out of the hood body, the first holding rail running along a closed circumference of the hood body, characterized in that the sealing element is spring-mounted in the hood body, in the axial direction related to the axis of rotation of the grinding wheel, by at least one spring element, wherein the angle grinder dust hood comprises a hood segment which can be displaced in the circumferential direction of the hood body along the hood body, and which is provided to allow for the gradual coverage and clearance of a remaining part of the grinding wheel as needed, and wherein the circumference runs along a circle arc of the hood body and a chord of the hood segment, and wherein, in the hood segment, there is likewise a sealing element, in the axial direction related to the axis of rotation of the grinding wheel, which is spring-mounted by at least one spring element.
A method, comprising: inserting a multi-lane microfluidic cartridge into a receiving bay of an apparatus, wherein each lane of the multi-lane microfluidic cartridge comprises a PCR reaction zone configured to accept a polynucleotide containing sample, and wherein the apparatus comprises a plurality of sets of heaters, each set of heaters coupled to a PCR reaction zone in the multi-lane cartridge, each set of heaters comprising a plurality of heaters (1003, 1005, 1007, 1009) together configured to maintain a substantially uniform temperature throughout a PCR reaction zone; performing independent PCR reactions on polynucleotide-containing samples in the PCR reaction zones of the multi-lane cartridge, wherein performing the independent PCR reactions comprises independently controlling each heater (1003, 1005, 1007, 1009), using a processor of the apparatus, in order to cyclically heat each PCR reaction zone under thermal cycling conditions, maintaining a substantially uniform temperature throughout each PCR reaction zone during each phase of the thermal cycling; and detecting, using a detector of the apparatus, the presence of one or more amplified polynucleotides in the multi-lane cartridge. inserting a multi-lane microfluidic cartridge into a receiving bay of an apparatus, wherein each lane of the multi-lane microfluidic cartridge comprises a PCR reaction zone configured to accept a polynucleotide containing sample, and wherein the apparatus comprises a plurality of sets of heaters, each set of heaters coupled to a PCR reaction zone in the multi-lane cartridge, each set of heaters comprising a plurality of heaters (1003, 1005, 1007, 1009) together configured to maintain a substantially uniform temperature throughout a PCR reaction zone; performing independent PCR reactions on polynucleotide-containing samples in the PCR reaction zones of the multi-lane cartridge, wherein performing the independent PCR reactions comprises independently controlling each heater (1003, 1005, 1007, 1009), using a processor of the apparatus, in order to cyclically heat each PCR reaction zone under thermal cycling conditions, maintaining a substantially uniform temperature throughout each PCR reaction zone during each phase of the thermal cycling; and detecting, using a detector of the apparatus, the presence of one or more amplified polynucleotides in the multi-lane cartridge.
A method for operating an active load modulation transponder comprising an analog transmitter, the method comprising: establishing a radio-frequency link; receiving signal samples of the radio-frequency link; determining the offset of an initial phase of the radio-frequency link by: filtering noise from the signal samples; windowing the filtered signal samples into windows of signal samples; and calculating an offset value from phase differences between the windows of signal samples; and modifying a configuration profile based on the offset value; and trimming a clock offset based on the configuration profile; and configuring the analog transmitter to convert an encoded message to an analog signal using the trimmed clock offset before transmission. establishing a radio-frequency link; receiving signal samples of the radio-frequency link; determining the offset of an initial phase of the radio-frequency link by: filtering noise from the signal samples; windowing the filtered signal samples into windows of signal samples; and calculating an offset value from phase differences between the windows of signal samples; and filtering noise from the signal samples; windowing the filtered signal samples into windows of signal samples; and calculating an offset value from phase differences between the windows of signal samples; and modifying a configuration profile based on the offset value; and trimming a clock offset based on the configuration profile; and configuring the analog transmitter to convert an encoded message to an analog signal using the trimmed clock offset before transmission.
A thermoelectric material, which comprises: a compound represented by a chemical formula Mg 2 Si 1-x Sn x (0<x<1) wherein at least one of the Si site and the Sn site of the compound is replaced with at least one of Sb and Bi, and an added Fe, wherein an additive amount of the Fe is 5000 ppm or more and 50000 ppm or less. a compound represented by a chemical formula Mg 2 Si 1-x Sn x (0<x<1) wherein at least one of the Si site and the Sn site of the compound is replaced with at least one of Sb and Bi, and an added Fe, wherein an additive amount of the Fe is 5000 ppm or more and 50000 ppm or less.
A method for integrating aluminoxane production into catalyst production, comprising: reacting a hydrocarbyl aluminum compound and water in a recycled solvent to produce at least a reaction mixture comprising an aluminoxane, a remainder of the hydrocarbyl aluminum compound, and the recycled solvent; combining at least a portion of the reaction mixture with a catalyst component to produce at least a catalyst composition; separating the catalyst composition from the recycled solvent in the reaction mixture; and recycling at least a portion of the separated solvent for producing additional aluminoxane, the separated solvent comprising at least a portion of the remainder of the hydrocarbyl aluminum compound. reacting a hydrocarbyl aluminum compound and water in a recycled solvent to produce at least a reaction mixture comprising an aluminoxane, a remainder of the hydrocarbyl aluminum compound, and the recycled solvent; combining at least a portion of the reaction mixture with a catalyst component to produce at least a catalyst composition; separating the catalyst composition from the recycled solvent in the reaction mixture; and recycling at least a portion of the separated solvent for producing additional aluminoxane, the separated solvent comprising at least a portion of the remainder of the hydrocarbyl aluminum compound.
Method for cultivating a crop, in particular a plant crop or seed crop, the method comprising of arranging a crop or a precursor thereof on a carrier and then further cultivating the crop; wherein the carrier comprises a displaceable conveyor arranged for the purpose of holding the crop or precursor thereof at a distance above a water supply, characterized in that the carrier comprises a conveyor belt, and that the method also comprises of harvesting the crop by severing the upper part of the crop by transporting the crop along a cutting installation using the conveyor belt; further being characterized by - separating the severed parts of the crop from the remaining part of the crop and the substrate or the web, and discharging the separated severed parts via a first discharge conveyor belt; and/or - severing the part of the crop below the substrate or the web and discharging the severed part on a second discharge conveyor belt; and/or - pressing the substrate with the remaining part of the crop therein out of the conveyor belt. - separating the severed parts of the crop from the remaining part of the crop and the substrate or the web, and discharging the separated severed parts via a first discharge conveyor belt; and/or - severing the part of the crop below the substrate or the web and discharging the severed part on a second discharge conveyor belt; and/or - pressing the substrate with the remaining part of the crop therein out of the conveyor belt.
Sensor, having - a circuit carrier, - a number of attachment inductances (20, 21, 22, 23), and - at least one printed circuit board inductance, which is coupled to the attachment inductances (20, 21, 22, 23), - wherein the attachment inductances (20, 21, 22, 23) are applied to the circuit carrier using SMD technology - wherein the printed circuit board inductance is implemented underneath the attachment inductances (20, 21, 22, 23) in the circuit carrier, - wherein the printed circuit board inductance is a reference inductance and the attachment inductances (20, 21, 22, 23) are respective measurement inductances; or - wherein at least one of the attachment inductances (20, 21, 22, 23) is a reference inductance and the printed circuit board inductance is a measurement inductance, having - a capacitance, which is interconnected with the reference inductance to form a parallel resonant circuit, and - an electronic control unit (μC), - wherein the electronic control unit (μC) is connected directly to the parallel resonant circuit and is configured to excite the parallel resonant circuit into oscillation at an excitation frequency that is derived from a clock of the electronic control unit, and - wherein the electronic control unit (μC) is connected directly to each of the measurement inductances and is configured to measure a value, which indicates at least one measurement variable, at the respective measurement inductance. - a circuit carrier, - a number of attachment inductances (20, 21, 22, 23), and - at least one printed circuit board inductance, which is coupled to the attachment inductances (20, 21, 22, 23), - wherein the attachment inductances (20, 21, 22, 23) are applied to the circuit carrier using SMD technology - wherein the printed circuit board inductance is implemented underneath the attachment inductances (20, 21, 22, 23) in the circuit carrier, - wherein the printed circuit board inductance is a reference inductance and the attachment inductances (20, 21, 22, 23) are respective measurement inductances; or - wherein at least one of the attachment inductances (20, 21, 22, 23) is a reference inductance and the printed circuit board inductance is a measurement inductance, having - a capacitance, which is interconnected with the reference inductance to form a parallel resonant circuit, and - an electronic control unit (μC), - wherein the electronic control unit (μC) is connected directly to the parallel resonant circuit and is configured to excite the parallel resonant circuit into oscillation at an excitation frequency that is derived from a clock of the electronic control unit, and - wherein the electronic control unit (μC) is connected directly to each of the measurement inductances and is configured to measure a value, which indicates at least one measurement variable, at the respective measurement inductance.
A ceramic material mold (3; 3') for use in molding a turbine engine blade from a molten metal, the blade comprising a root, an inner platform, an airfoil, and an outer platform, and the mold comprising: - a cavity having the shape of the blade; and - an auxiliary grain duct (5, 5') comprising a first segment (51; 51') and a second segment (52; 52') extending the first segment, said first segment opening out at one end into a first portion of the cavity forming the root of the blade, and at another end into a second portion of the cavity forming a lip of the inner platform of the blade, said second segment (52; 52') opening out at one end into said second portion of the cavity, and at another end into a third portion of the cavity forming a lip of the outer platform of the blade; wherein the first segment of the auxiliary grain duct extends from a wall of the first portion of the cavity in a direction that forms an angle (α) lying in the range 54° to 62° with said wall; wherein the second segment of the auxiliary grain duct extends from the second portion of the cavity in a direction forming an angle (β) lying in the range 110° to 115° with said second portion; and wherein the second segment of the auxiliary grain duct extends from the third portion of the cavity in a direction forming an angle (γ) lying in the range 110° to 115° with said third portion. - a cavity having the shape of the blade; and - an auxiliary grain duct (5, 5') comprising a first segment (51; 51') and a second segment (52; 52') extending the first segment, said first segment opening out at one end into a first portion of the cavity forming the root of the blade, and at another end into a second portion of the cavity forming a lip of the inner platform of the blade, said second segment (52; 52') opening out at one end into said second portion of the cavity, and at another end into a third portion of the cavity forming a lip of the outer platform of the blade; wherein the first segment of the auxiliary grain duct extends from a wall of the first portion of the cavity in a direction that forms an angle (α) lying in the range 54° to 62° with said wall; wherein the second segment of the auxiliary grain duct extends from the second portion of the cavity in a direction forming an angle (β) lying in the range 110° to 115° with said second portion; and wherein the second segment of the auxiliary grain duct extends from the third portion of the cavity in a direction forming an angle (γ) lying in the range 110° to 115° with said third portion. wherein the first segment of the auxiliary grain duct extends from a wall of the first portion of the cavity in a direction that forms an angle (α) lying in the range 54° to 62° with said wall; wherein the second segment of the auxiliary grain duct extends from the second portion of the cavity in a direction forming an angle (β) lying in the range 110° to 115° with said second portion; and wherein the second segment of the auxiliary grain duct extends from the third portion of the cavity in a direction forming an angle (γ) lying in the range 110° to 115° with said third portion.
Apparatus, comprising: vehicle stabilizing means for stabilizing a vehicle in response to an explosion; force channelling means for channelling a force, generated by the vehicle stabilizing means above a base of the vehicle, towards the base of the vehicle; and force distributing means for distributing the force in a plurality of different directions across the base of the vehicle, in order to mitigate damage to the base. vehicle stabilizing means for stabilizing a vehicle in response to an explosion; force channelling means for channelling a force, generated by the vehicle stabilizing means above a base of the vehicle, towards the base of the vehicle; and force distributing means for distributing the force in a plurality of different directions across the base of the vehicle, in order to mitigate damage to the base.