mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for expelling animals, comprising: a first body for being inserted into a ground, a second tubular body for filling with an expelling agent, the second tubular body having at least one hole in its circumferential surface, wherein the second body is insertable into the first body, wherein the first body and the second body have a positioning mechanism defining at least a first position and at least a second position of the first body relative to the second body when the second body is inserted into the first body, characterized in that, in the first position, the first body is arranged with respect to the second body such that the hole is closed, and, in the second position, the first body is radially rotated and/or axially displaced with respect to the second body compared to the first position such that the hole is opened. a first body for being inserted into a ground, a second tubular body for filling with an expelling agent, the second tubular body having at least one hole in its circumferential surface, wherein the second body is insertable into the first body, wherein the first body and the second body have a positioning mechanism defining at least a first position and at least a second position of the first body relative to the second body when the second body is inserted into the first body, characterized in that, in the first position, the first body is arranged with respect to the second body such that the hole is closed, and, in the second position, the first body is radially rotated and/or axially displaced with respect to the second body compared to the first position such that the hole is opened.
Method of reducing interference between a first signal of the carrier current type (Se) transmitted between modems (M CPL) in an electrical network (Re) and a second signal transmitted between modems in another network, the said signals (Se, S) being coded by the distribution of data over allocated carrier frequencies in the same reserved frequency band, the method comprising - a step of measurement, by each modem (M CPL) in the electrical network, of transmission characteristics of each carrier frequency that may be used for coding the first signal (Se), and - a step of optimisation of the distribution of the data of the first signal (Se) on carrier frequencies so as to minimise the transmission power level of carrier frequencies subject to the constraint of a transmission rate of the first signal (Se), characterised in that it comprises - a step of detection, by analysing the measured transmission characteristics, of at least one carrier frequency ( F 2, n), referred to as the second carrier frequency, that is allocated for coding the second signal and is common with at least one carrier frequency ( F 1, m), referred to as the first carrier frequency, that is allocated for coding the first signal (Se), and the measured transmission characteristics of which are degraded with respect to those of a previous measurement, and - optimisation of the distribution of the data of the first signal (Se) subject to the constraint of a transmission rate of the first signal (Se) is carried out so as to minimise the transmission power level of the first carrier frequencies ( F 1,m that are common with the second carrier frequencies ( F 2, n) thus detected. - a step of measurement, by each modem (M CPL) in the electrical network, of transmission characteristics of each carrier frequency that may be used for coding the first signal (Se), and - a step of optimisation of the distribution of the data of the first signal (Se) on carrier frequencies so as to minimise the transmission power level of carrier frequencies subject to the constraint of a transmission rate of the first signal (Se), characterised in that it comprises - a step of detection, by analysing the measured transmission characteristics, of at least one carrier frequency ( F 2, n), referred to as the second carrier frequency, that is allocated for coding the second signal and is common with at least one carrier frequency ( F 1, m), referred to as the first carrier frequency, that is allocated for coding the first signal (Se), and the measured transmission characteristics of which are degraded with respect to those of a previous measurement, and - optimisation of the distribution of the data of the first signal (Se) subject to the constraint of a transmission rate of the first signal (Se) is carried out so as to minimise the transmission power level of the first carrier frequencies ( F 1,m that are common with the second carrier frequencies ( F 2, n) thus detected.
A determination system for determining a sleep stage of a subject, wherein the determination system comprises: - a cardiorespiratory signal providing unit for providing a cardiorespiratory signal of the subject, - an actigraphy data providing unit for providing actigraphy data of the subject, - a first sleep stage determination unit for determining the sleep stage of the subject based on the cardiorespiratory signal of the subject, - wherein the first sleep stage determination unit is configured to determine a sleep onset latency of the subject, characterized in that the system further comprises - a second sleep stage determination unit for determining the sleep stage of the subject based on the actigraphy data of the subject, and - a determination control unit for determining one out of the first sleep stage determination unit and the second sleep stage determination unit for determining the sleep stage of the subject, wherein the determination control unit is configured to determine the sleep stage of the subject using the first sleep stage determination unit up to the sleep onset latency and to determine the sleep stage of the subject using the second sleep stage determination unit after the sleep onset latency. - a cardiorespiratory signal providing unit for providing a cardiorespiratory signal of the subject, - an actigraphy data providing unit for providing actigraphy data of the subject, - a first sleep stage determination unit for determining the sleep stage of the subject based on the cardiorespiratory signal of the subject, - wherein the first sleep stage determination unit is configured to determine a sleep onset latency of the subject, characterized in that the system further comprises - a second sleep stage determination unit for determining the sleep stage of the subject based on the actigraphy data of the subject, and - a determination control unit for determining one out of the first sleep stage determination unit and the second sleep stage determination unit for determining the sleep stage of the subject,
A device for detecting at least one degradation of a contact surface of at least one recharging point of a system for supplying electrical power to a vehicle, in particular a rail vehicle, capable of travelling on a track, in particular a railway track, the power supply system comprising at least one energy storage element carried by the vehicle, at least one recharging point arranged close to the track, a power supply infrastructure for the or each recharging point, capable of supplying the or each recharging point with a charging current, at least one collection member (P 1, P 2) carried by the vehicle by the vehicle and connected to said at least one energy storage element, said at least one collection member (P 1, P 2) and said at least one recharging point being suitable for cooperating to transmit the charge current, during a charging operation, to said at least one energy storage element, the detection device being suitable for being carried on board the vehicle, and characterised in that it is located in front of each collection member in the direction of travel of the vehicle, characterized in that it comprises: - at least one image sensor configured to capture images of said contact surface; - an image processing module configured to detect, by processing the image(s) obtained by said at least one sensor, the presence or absence of at least one degradation of said contact surface. the power supply system comprising at least one energy storage element carried by the vehicle, at least one recharging point arranged close to the track, a power supply infrastructure for the or each recharging point, capable of supplying the or each recharging point with a charging current, at least one collection member (P 1, P 2) carried by the vehicle by the vehicle and connected to said at least one energy storage element, said at least one collection member (P 1, P 2) and said at least one recharging point being suitable for cooperating to transmit the charge current, during a charging operation, to said at least one energy storage element, the detection device being suitable for being carried on board the vehicle, and characterised in that it is located in front of each collection member in the direction of travel of the vehicle, characterized in that it comprises: - at least one image sensor configured to capture images of said contact surface; - an image processing module configured to detect, by processing the image(s) obtained by said at least one sensor, the presence or absence of at least one degradation of said contact surface. - at least one image sensor configured to capture images of said contact surface; - an image processing module configured to detect, by processing the image(s) obtained by said at least one sensor, the presence or absence of at least one degradation of said contact surface.
Cooling assembly for cooling a fuel cell in a fuel cell system, the assembly comprising at least two fluidically connected cooling circuits (16, 17), in which a liquid cooling medium flows, wherein the first cooling circuit comprises a first coolant pump, a fuel cell heat exchanger, a heating device and an intercooler in heat-exchanging contact with compressed supply air flowing to the fuel cell, and wherein the second cooling circuit comprises a cooling heat exchanger for cooling the liquid cooling medium, characterised in that at least one further coolant pump is provided.
A material processing apparatus comprising a body and a second feed conveyor that is movable between a deployed state and a transport state, wherein the feed conveyor comprises a feed end, a discharge end and conveying means configured to carry material from said feed end to said discharge end, and wherein said discharge end is pivotably coupled to said body and, in said deployed state, said second feed conveyor extends from said body with said feed end being spaced apart from said body by said conveying means and, in said transport state, said second feed conveyor is folded with respect to the body, wherein the second feed conveyor is pivotably movable between said deployed state and said transport state by the pivotabe coupling of said discharge end, characterised in that said body includes a main feed conveyor configured to feed material to the apparatus and wherein, in the deployed state, said discharge end of said second feed conveyor is pivotably coupled to said body and is positioned over said main feed conveyor in order to discharge material onto said main feed conveyor.
A soldering nozzle device having a soldering nozzle for simultaneous selective wave soldering of at least two rows of soldering points, said rows being arranged so as to be spaced apart, in a soldering installation, the soldering nozzle device comprising a strip assembly connectable to the soldering nozzle, which comprises at least two solder-wettable separating strips (6, 7), the at least two separating strips (6, 7) being oriented exactly parallel both to one another and to the soldering point rows and are connected fixedly as a group of separating strips (6, 7) to form a strip assembly, characterized in that the separating strips (6, 7), during the soldering process, can be moved in close proximity to the soldering point rows such that in the course of soldering excess solder is transferred from the soldering points to the separating strips (6, 7) of the strip assemblies and can thus be diverted from the soldering points in order to thus avoid undesired solder beads or solder bridges on a circuit board which is to be soldered, and in that the depth of the separating strips (6, 7), for generating a surface tension for suctioning off excess solder from the soldering points, along the solder influx direction, amounts to at least a multiple of the thickness of the separating strips (6, 7).
A vehicle comprising: a power reception device that is configured to receive power for running a vehicle in a non-contact manner using electromagnetic field resonance; and a power transmission device that is configured to transmit power supplied to an electric device inside the vehicle in a non-contact manner using electromagnetic field resonance, further comprising: driving devices (172, 174) that are configured to drive the vehicle; a main battery that is configured to supply power to the driving devices; and an auxiliary battery that is separately provided from the main battery, wherein a voltage of the auxiliary battery is lower than a voltage of the main battery, and wherein the power transmission device is configured to receive power from the auxiliary battery to transmit power to the electric device, wherein a frequency of an electromagnetic field used by the power reception device to receive power is set to be different from a frequency of an electromagnetic field used by the power transmission device to transmit power, and further comprising: a control unit that is configured to set an operational state of the vehicle to a runnable state in which the vehicle can be started by setting a shift range to a drive range and depressing an accelerator pedal or to a non-runnable state in which the vehicle cannot be started even with the accelerator pedal being depressed, according to an operation by an occupant, wherein the control unit is configured to permit, in the runnable state, charging of the main battery with power received by the power reception device and to permit power supply from the auxiliary battery via the power transmission device to the electric device, and to permit, in the non-runnable, charging of the main battery with power received by the power reception device, and to prohibit power supply from the auxiliary battery via the power transmission device to the electric device, wherein power received by the power reception device in a non-contact manner from an external power transmission device provided outside the vehicle is higher than power transmitted by the power transmission device to the electric device in a non-contact manner. a power reception device that is configured to receive power for running a vehicle in a non-contact manner using electromagnetic field resonance; and a power transmission device that is configured to transmit power supplied to an electric device inside the vehicle in a non-contact manner using electromagnetic field resonance, driving devices (172, 174) that are configured to drive the vehicle; a main battery that is configured to supply power to the driving devices; and an auxiliary battery that is separately provided from the main battery, wherein a voltage of the auxiliary battery is lower than a voltage of the main battery, and wherein the power transmission device is configured to receive power from the auxiliary battery to transmit power to the electric device, wherein a frequency of an electromagnetic field used by the power reception device to receive power is set to be different from a frequency of an electromagnetic field used by the power transmission device to transmit power,
A polyurethane having an optical transmittance of > 83% comprising the one step reaction product of: a) a stoichiometric excess of aliphatic polyisocyanate, whereby the index is between >100 and 120; b) a primary amine-terminated polyether with an amine functionality of about 2 and a molecular weight of equal to or greater than 400; c) a polyol having an average nominal hydroxyl functionality greater than or equal to 2 and an average hydroxyl equivalent weight of from about 300 to about 2000, d) an aromatic diamine; e) optionally, a cross linking agent with isocyanate reactive groups, having a functionality of equal or greater than about 3, and a molecular weight of less than 400 wherein the relative amount of stoichiometric equivalents of the polyol to the primary amine terminated polyether is between 0.49 and 4.99 wherein the ratio in stoichiometric equivalents of components a to b is between 9 and 24 and the ratio of stoichiometric equivalents of component a to components b, c and e is between 2.7 and 4.5. a) a stoichiometric excess of aliphatic polyisocyanate, whereby the index is between >100 and 120; b) a primary amine-terminated polyether with an amine functionality of about 2 and a molecular weight of equal to or greater than 400; c) a polyol having an average nominal hydroxyl functionality greater than or equal to 2 and an average hydroxyl equivalent weight of from about 300 to about 2000, d) an aromatic diamine; e) optionally, a cross linking agent with isocyanate reactive groups, having a functionality of equal or greater than about 3, and a molecular weight of less than 400
A detachable aerodynamic missile control system for controlling a missile during launch, the missile having a forward portion, an aft portion, a longitudinal center portion therebetween, comprising: a grid fin interstage assembly including a housing configured to be coupled to the aft portion of the missile, the housing having a longitudinal axis, a plurality of grid fins disposed on an exterior of the housing and movable between a stowed position and a deployed position extending transversely to the longitudinal axis the grid fins providing increased drag and lift to allow pitch -over when deployed, and an articulation control system configured to control an orientation of the grid fins and to link with a control system of the missile; and a coupler configured to couple the housing to the missile at the aft portion and to release the housing and grid fin interstage assembly from the aft portion to dispose of the grid fin assembly at high subsonic speeds. a grid fin interstage assembly including a housing configured to be coupled to the aft portion of the missile, the housing having a longitudinal axis, a plurality of grid fins disposed on an exterior of the housing and movable between a stowed position and a deployed position extending transversely to the longitudinal axis the grid fins providing increased drag and lift to allow pitch -over when deployed, and an articulation control system configured to control an orientation of the grid fins and to link with a control system of the missile; and a coupler configured to couple the housing to the missile at the aft portion and to release the housing and grid fin interstage assembly from the aft portion to dispose of the grid fin assembly at high subsonic speeds.
A steel cord (100, 200) comprising strands (102, 202) and monofilaments (104, 204) made of steel wherein said strands comprise strand filaments (106, 206) made of steel twisted together with a strand lay length and direction, wherein said strands and said monofilaments are twisted together with a cord lay and direction, said strands forming the outer layer of said steel cord characterised in that said monofilaments fill the valleys between adjacent strands on the radial outer side of said outer layer of said steel cord and wherein said monofilaments have a monofilament tensile strength, said monofilament tensile strength being lower than the tensile strength of the strand filaments closest to said monofilaments.
A water dispersion for ink-jet printing which is produced by a process comprising the following steps I and II; Step I: dispersing a mixture containing a water-insoluble polymer, carbon black (a) having an acid group content of from 0 to 200 μmol/g, carbon black (b) having an acid group content of more than 200 μmol/g but not more than 1000 μmol/g, an organic solvent and water, in which a difference between acid group contents of the carbon blacks (a) and (b) is from 100 to 1000 μmol/g, to obtain a dispersion; and Step II: removing the organic solvent from the dispersion obtained in the step I to obtain a water dispersion. Step I: dispersing a mixture containing a water-insoluble polymer, carbon black (a) having an acid group content of from 0 to 200 μmol/g, carbon black (b) having an acid group content of more than 200 μmol/g but not more than 1000 μmol/g, an organic solvent and water, in which a difference between acid group contents of the carbon blacks (a) and (b) is from 100 to 1000 μmol/g, to obtain a dispersion; and Step II: removing the organic solvent from the dispersion obtained in the step I to obtain a water dispersion.
A compound of the Formula IV or VI: or or a pharmaceutically acceptable salt thereof, wherein: R 1 is -SCH 3 or chloro; Xis CH; R a is hydrogen, (C 1 -C 4)alkyl, or halo(C 1 -C 4)alkyl; R b is (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, or 4-7 membered heterocyclyl, wherein said heterocyclyl is optionally substituted with 1 to 3 groups selected from halo, (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, (C 1 -C 4)alkoxy, and halo(C 1 -C 4)alkoxy; or R a and R b together with the nitrogen atom to which they are attached form a 4-7 membered heterocyclyl optionally substituted with 1 to 3 groups selected from halo, (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, and -OR c; R c is (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, or (C 3 -C 7)cycloalkyl; R 6 is halo(C 1 -C 4)alkyl. R 1 is -SCH 3 or chloro; Xis CH; R a is hydrogen, (C 1 -C 4)alkyl, or halo(C 1 -C 4)alkyl; R b is (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, or 4-7 membered heterocyclyl, wherein said heterocyclyl is optionally substituted with 1 to 3 groups selected from halo, (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, (C 1 -C 4)alkoxy, and halo(C 1 -C 4)alkoxy; or R a and R b together with the nitrogen atom to which they are attached form a 4-7 membered heterocyclyl optionally substituted with 1 to 3 groups selected from halo, (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, and -OR c; R c is (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, or (C 3 -C 7)cycloalkyl; R 6 is halo(C 1 -C 4)alkyl.
A system, comprising: a polymerization catalyst tank containing a polymerization catalyst and a solvent; an agitator disposed inside the polymerization catalyst tank and configured to dissolve at least a portion or all of the polymerization catalyst and the solvent to generate a polymerization catalyst solution; a heating system coupled to the polymerization catalyst tank and configured to maintain a temperature of the polymerization catalyst solution above a threshold; a precontactor configured to receive feed streams comprising an activator and the polymerization catalyst solution from the polymerization catalyst tank to generate a catalyst complex, the precontactor containing the activator and the polymerization catalyst solution; a transfer line configured to transfer the polymerization catalyst solution from the polymerization catalyst tank to the precontactor; a reactor, and a transfer line configured to transfer the catalyst complex from an outlet of the precontactor to the reactor. a polymerization catalyst tank containing a polymerization catalyst and a solvent; an agitator disposed inside the polymerization catalyst tank and configured to dissolve at least a portion or all of the polymerization catalyst and the solvent to generate a polymerization catalyst solution; a heating system coupled to the polymerization catalyst tank and configured to maintain a temperature of the polymerization catalyst solution above a threshold; a precontactor configured to receive feed streams comprising an activator and the polymerization catalyst solution from the polymerization catalyst tank to generate a catalyst complex, the precontactor containing the activator and the polymerization catalyst solution; a transfer line configured to transfer the polymerization catalyst solution from the polymerization catalyst tank to the precontactor; a reactor, and a transfer line configured to transfer the catalyst complex from an outlet of the precontactor to the reactor.