mhurhangee/ep-ind-claims huggingface dataset:
Frame component for preferably agricultural devices and machines, in particular plough frame component for mounted ploughs, trailing ploughs and semi-mounted ploughs having a hollow-profile body having a top side, an underside and side faces, tools, tool carriers, brackets, support wheels and similar attachment elements being supportable on said hollow-profile body, wherein the hollow-profile body is formed by at least two individual components (2, 3, 4) adhesively bonded together, wherein the hollow-profile body is formed by an individual top component and an individual bottom component which are connected together via two intermediate components that are arranged in a manner spaced apart from one another and represent the side faces of the hollow-profile body, wherein the intermediate components are adhesively bonded to the individual bottom component and the individual top component, characterized in that the intermediate components are formed in a substantially U-shaped manner in cross section, having side limbs that face one another in the assembled state of the parts, wherein a pair of side limbs are adhesively bonded to the individual top component and a pair of mutually assigned limbs of the intermediate components are adhesively bonded to the individual bottom component.
A thermoelectric conversion element that comprises a thermoelectric conversion sheet possessing flexibility, wherein the thermoelectric conversion sheet comprises: a magnetic layer; an electricity-generating layer that is formed on the magnetic layer so as to contact with the magnetic layer, and that is formed of a material exhibiting spin orbit coupling; and characterized in that a first electrode and a second electrode formed directly on the electricity-generating layer so as to contact with the electricity-generating layer; and in that the first electrode and the second electrode extend in a longitudinal direction of the thermoelectric conversion sheet, and are separated from each other in a first direction substantially perpendicular to the longitudinal direction. a magnetic layer; an electricity-generating layer that is formed on the magnetic layer so as to contact with the magnetic layer, and that is formed of a material exhibiting spin orbit coupling; and characterized in that a first electrode and a second electrode formed directly on the electricity-generating layer so as to contact with the electricity-generating layer; and in that the first electrode and the second electrode extend in a longitudinal direction of the thermoelectric conversion sheet, and are separated from each other in a first direction substantially perpendicular to the longitudinal direction.
An activatable value or security product, containing a product material comprising color particles, wherein the value or security product can be permanently activated by electromagnetic radiation, in that a security feature formed by the color particles can be made optically perceptible, characterized in that the color particles are formed by porous particles without a shell surrounding them, and the pores of the color particles contain a liquid or solid colorant, or in that the color particles are formed by a core and a shell surrounding the core, and in that the core is formed by a porous material, the pores of which contain a liquid or solid colorant.
A pharmaceutical composition comprising an effective amount of a compound of Formula: or a pharmaceutically acceptable salt thereof, wherein R 1 is -H, -OH, -NH 2, -N(alkyl)(alkyl), hydrocarbyl, -O-hydrocarbyl, aryl, -O-aryl, aralkyl, -O-aralkyl, heteroaryl, -O-heteroaryl, heterocyclyl, -O-heterocyclyl, halo, -OCF 3,-C O(alkyl), -OC (alkyl), -C NH 2, -C NH(alkyl), -C N(alkyl)(alkyl),-NHC (alkyl), -N(alkyl)C (alkyl), -OC O(alkyl), -OC NH 2, -OC NH(alkyl),-OC N(alkyl)(alkyl), -CHNH, -CHN(alkyl), -SO 2 NH 2; and a pharmaceutically acceptable vehicle or carrier. R 1 is -H, -OH, -NH 2, -N(alkyl)(alkyl), hydrocarbyl, -O-hydrocarbyl, aryl, -O-aryl, aralkyl, -O-aralkyl, heteroaryl, -O-heteroaryl, heterocyclyl, -O-heterocyclyl, halo, -OCF 3,-C O(alkyl), -OC (alkyl), -C NH 2, -C NH(alkyl), -C N(alkyl)(alkyl),-NHC (alkyl), -N(alkyl)C (alkyl), -OC O(alkyl), -OC NH 2, -OC NH(alkyl),-OC N(alkyl)(alkyl), -CHNH, -CHN(alkyl), -SO 2 NH 2; and a pharmaceutically acceptable vehicle or carrier.
A device for measuring the radioactivity of a material during its transport by a conveyor, the device for measuring radioactivity comprising a gamma spectrometric device having at least one gamma spectrometry detector and provided so as to be positioned on the path of the conveyor in order to conduct spectrometric measurements on the material during its transport by the conveyor, these measurements being conducted by detecting photons emerging from the flow of transported material, and a processing unit for processing measurement signals provided by the gamma spectrometric device, the device for measuring radioactivity being configured for carrying out spectrometric measurments on the material during its transport by the conveyor, each spectrometric measurement being carried out over a spectrometry period, during which the photons are detected by associating with each detected photon an energy, in order to determine the population of photons versus their energy, and for carrying out, during a spectrometric measurement, several gamma counting measurements on the material during its transport by the conveyor, by means of the gamma spectrometric device, each gamma counting measurement being conducted over a counting period, at the end of which is determined the total number of detected photons during the counting period, independently of the energy of the photons.
An image capture control apparatus comprising: tracking means for tracking a tracking target for which autofocus is performed, in a live view image captured by image capturing means; object detection means for detecting a specific object from the live view image; touch detection means capable of detecting a touch operation on a touch panel; display control means for, in response to the touch detection means detecting a movement operation of moving a touch position, carrying out control to display an indicator, in display means of an electronic view finder which is different from the touch panel, at a position that is based on a movement amount of the movement operation; and control means for, in response to a predetermined amount of time elapsing after the touch for making the movement operation has been released, carrying out control such that a tracking target determined on the basis of the position of the indicator is tracked by the tracking means, wherein in case a method of designating the position of the tracking target is set to relative position designation, in which the position of the indicator is moved according to the direction and movement amount of the movement operation regardless of where the touch position is in the touch panel, the control means carries out control so that if a touch is near the specific object, tracking is started immediately, without waiting for the predetermined amount of time to elapse, in response to the touch being released, and if the touch is not near the specific object, the tracking is carried out after the predetermined amount of time has elapsed. tracking means for tracking a tracking target for which autofocus is performed, in a live view image captured by image capturing means; object detection means for detecting a specific object from the live view image; touch detection means capable of detecting a touch operation on a touch panel; display control means for, in response to the touch detection means detecting a movement operation of moving a touch position, carrying out control to display an indicator, in display means of an electronic view finder which is different from the touch panel, at a position that is based on a movement amount of the movement operation; and control means for, in response to a predetermined amount of time elapsing after the touch for making the movement operation has been released, carrying out control such that a tracking target determined on the basis of the position of the indicator is tracked by the tracking means, wherein in case a method of designating the position of the tracking target is set to relative position designation, in which the position of the indicator is moved according to the direction and movement amount of the movement operation regardless of where the touch position is in the touch panel, the control means carries out control so that if a touch is near the specific object, tracking is started immediately, without waiting for the predetermined amount of time to elapse, in response to the touch being released, and if the touch is not near the specific object, the tracking is carried out after the predetermined amount of time has elapsed.
A composition comprising a pesticide which is emamectin benzoate and a photo-protecting agent, wherein each emamectin benzoate particle is coated with the photo-protecting agent, the mean diameter of the emamectin benzoate particles is from 1 to 10μm, the weight of the photo-protecting agent is from 0.1 to 20% of the total weight of the emamectin benzoate particles plus the photo-protecting agent, and wherein the photo-protecting agent is ethylenebis(oxyethylene)bis-(3-(5-tert-butyl-4-hydroxy-m-tolyl)-propionate).
Process for manufacturing a composite part, characterized in that it comprises the following steps: i) subjecting a first layer comprising a first reinforcement impregnated with a first photopolymerizable composition and at least one second layer comprising a second reinforcement impregnated with a second photopolymerizable composition to a first source of light radiation having at least 80 % by number of emitted rays with wavelengths in the range of [λ1 nm - 20 nm; λ1 nm + 20 nm]; ii) applying a second source of light radiation to said first layer arranged in a mould, at least 80 % by number of the rays emitted by the second source of light radiation having wavelengths in the range of [λ2 nm - 20 nm; λ2 nm + 20 nm], λ2 < λ1; iii) arranging said at least one second layer on said first layer, then applying said second source of light radiation to the second layer superimposed over the first layer; iv) releasing the composite part obtained from the mould; and in that first photopolymerizable composition comprises at least one first resin having at least one reactive group and at least two photo-initiators A1, B1, and the second photopolymerizable composition comprises at least one second resin having at least one reactive group and at least two photo-initiators A2, B2, the photo-initiators A1 and A2 absorbing the first light radiation source, and optionally the second light radiation source, and the photo-initiators B1 and B2 absorbing the second light radiation source, the photo-initiators A1,B1 and A2,B2 generating reactive species capable of reacting with the reactive group of the first resin and second resin respectively, to initiate the polymerization reaction of said resin; the first photopolymerizable composition is the same as the second polymerizable composition or differs therefrom through the resin, the reactive group or the photo-initiators A1,B1; A2,B2, the first reinforcement being the same as or differing from the second reinforcement. i) subjecting a first layer comprising a first reinforcement impregnated with a first photopolymerizable composition and at least one second layer comprising a second reinforcement impregnated with a second photopolymerizable composition to a first source of light radiation having at least 80 % by number of emitted rays with wavelengths in the range of [λ1 nm - 20 nm; λ1 nm + 20 nm]; ii) applying a second source of light radiation to said first layer arranged in a mould, at least 80 % by number of the rays emitted by the second source of light radiation having wavelengths in the range of [λ2 nm - 20 nm; λ2 nm + 20 nm], λ2 < λ1; iii) arranging said at least one second layer on said first layer, then applying said second source of light radiation to the second layer superimposed over the first layer; iv) releasing the composite part obtained from the mould;
A fuel cell stack which comprises a membrane electrode assembly with a peripheral frame, a pair of separators (2, 2) that hold the peripheral frame and the membrane electrode assembly in between and an insulation structure that electrically insulates the separators (2, 2) in an outer periphery of a fuel cell of the fuel cell stack, and is formed by stacking a plurality of sets of the membrane electrode assembly and the pair of separators (2, 2), wherein the fuel cell stack is characterized in that the insulation structure comprises: a coupling member disposed on at least a part of an outer periphery of the fuel cell stack; and a projection formed on the coupling member in an area surrounded by the pair of separators (2, 2) and the peripheral frame, the insulating structure is formed independent of the peripheral frame and the separators (2, 2). a coupling member disposed on at least a part of an outer periphery of the fuel cell stack; and a projection formed on the coupling member in an area surrounded by the pair of separators (2, 2) and the peripheral frame,
Method for storing electrical energy in electrochemical energy stores having different battery technologies and that are connected to an electrical energy supply grid via a respective power electronics system in order to exchange electrical energy with the electrical energy supply grid, characterized in that electrochemical energy stores (2.1 - 2.N; 21.1 - 21.M; 211.M, 212.M) in each case having identical battery technologies and power electronics systems (3.1; 4.1 - 4.N; 31.1 - 31.M; 31.N, 32.N) connected to the electrochemical energy stores (2.1 - 2.N; 21.1 - 21.M; 211.M, 212.M) and each having identical topologies are combined to form abstract AC batteries (1.1 - 1.N) that behave identically independently of the battery technology of the electrochemical energy stores (2.1 - 2.N; 21.1 - 21.M; 211.M, 212.M) and the topology of the power electronics systems (3.1; 4.1 - 4.N; 31.1 - 31.M; 31.N, 32.N) with respect to the electrical energy supply grid and have an AC battery management unit (5.1 - 5.N) that is connected to battery management systems (20.1 - 20.N) of electrochemical energy stores (2.1 - 2.N; 21.1 - 21.M; 211.M, 212.M) that are combined into groups and to regulation devices (40.1 - 40.N) of the power electronics systems (3.1; 4.1 - 4.N; 31.1 - 31.M; 31.N, 32.N), wherein the AC battery management units (5.1 - 5.N) of the AC batteries (1.1 - 1.N) record data characterizing the battery technology of the electrochemical energy stores (2.1 - 2.N; 21.1 - 21.M; 211.M, 212.M) and the topology of the power electronics systems (3.1; 4.1 - 4.N; 31.1 - 31.M; 31.N, 32.N) and transfer amounts relevant to the electrical energy supply grid, such as currently available and maximum providable power and currently absorbable and outputtable energy and output them, via communication interfaces, to a battery plant management system of the electrical energy supply grid that distributes and optimizes the use and the tasks of the various AC batteries.
A method of treating a very high salinity high temperature hydrocarbon containing formation, comprising: (a) providing a hydrocarbon recovery composition to at least a portion of a hydrocarbon containing formation, wherein the formation has a brine salinity of above 13 wt% and a temperature of above 70°C and wherein the composition comprises a C 15-18 internal olefin sulfonate, wherein said C 15-18 internal olefin sulfonate means a mixture of internal olefin sulfonates wherein the mixture has an average carbon number of from 16 to 17 and at least 50% by weight of the internal olefin sulfonates in the mixture contain from 15 to 18 carbon atoms; and (b) allowing the composition to interact with hydrocarbons in the hydrocarbon containing formation. (a) providing a hydrocarbon recovery composition to at least a portion of a hydrocarbon containing formation, wherein the formation has a brine salinity of above 13 wt% and a temperature of above 70°C and wherein the composition comprises a C 15-18 internal olefin sulfonate, wherein said C 15-18 internal olefin sulfonate means a mixture of internal olefin sulfonates wherein the mixture has an average carbon number of from 16 to 17 and at least 50% by weight of the internal olefin sulfonates in the mixture contain from 15 to 18 carbon atoms; and (b) allowing the composition to interact with hydrocarbons in the hydrocarbon containing formation.
A method, comprising: coupling a metering device to a home area network HAN, in communication with an advanced metering infrastructure, AMI, network; configuring an AMI network interface card, NIC, to provide a data link between the AMI network and one or more HAN devices; receiving, by at least one processor of the metering device configured to access at least one memory, an instruction for a HAN gateway module; sending the instruction to a transmission agent for routing to the HAN gateway module; and transmitting, by the transmission agent, the instruction to the HAN gateway module; transmitting the instruction, by the HAN gateway module, to the one or more HAN devices of the home area network using one or more manufacturer procedures of the one or more HAN devices; wherein the instruction is in a format accepted by the Smart Energy Profile 2.0 standard, and wherein the HAN gateway module, the transmission agent, and the AMI NIC are integrated within the metering device. coupling a metering device to a home area network HAN, in communication with an advanced metering infrastructure, AMI, network; configuring an AMI network interface card, NIC, to provide a data link between the AMI network and one or more HAN devices; receiving, by at least one processor of the metering device configured to access at least one memory, an instruction for a HAN gateway module; sending the instruction to a transmission agent for routing to the HAN gateway module; and transmitting, by the transmission agent, the instruction to the HAN gateway module; transmitting the instruction, by the HAN gateway module, to the one or more HAN devices of the home area network using one or more manufacturer procedures of the one or more HAN devices; wherein the instruction is in a format accepted by the Smart Energy Profile 2.0 standard, and wherein the HAN gateway module, the transmission agent, and the AMI NIC are integrated within the metering device.
An assembly for rotational equipment, comprising: a first component; a static structure comprising a static structure fluid passage; a guide rail mounted to the static structure, the guide rail comprising a guide rail fluid passage and a nozzle; and a second component mated with and configured to translate along the guide rail, wherein the first component comprises either a bearing, a seal land or a compartment wall for housing at least a bearing, characterised in that: the guide rail fluid passage fluidly couples the static structure fluid passage to a nozzle orifice of the nozzle, and the nozzle configured to direct fluid onto the first component through the nozzle orifice. a first component; a static structure comprising a static structure fluid passage; a guide rail mounted to the static structure, the guide rail comprising a guide rail fluid passage and a nozzle; and a second component mated with and configured to translate along the guide rail, wherein the first component comprises either a bearing, a seal land or a compartment wall for housing at least a bearing, characterised in that: the guide rail fluid passage fluidly couples the static structure fluid passage to a nozzle orifice of the nozzle, and the nozzle configured to direct fluid onto the first component through the nozzle orifice.
Method for short-circuit detection by saturation detection in power semiconductor switches, comprising the following steps: - providing a reference voltage (U ref) depending on a supply voltage (U VDD) of a power semiconductor switch, with the result that the reference voltage (U ref) follows changes in the supply voltage (U VDD); - generating a differential voltage (U diff) which corresponds to a difference between a voltage drop (U Δ) across a load path of the power semiconductor switch and the provided reference voltage (U ref); - comparing the generated differential voltage (U diff) with a predetermined limit voltage (U lim), wherein a short-circuit current is detected in the load path of the power semiconductor switch when the differential voltage (U diff) exceeds the limit voltage (U lim); and - opening the power semiconductor switch when a short-circuit current has been detected in the load path of the power semiconductor switch, characterized in that the reference voltage (U ref) is provided between a Zener diode (13.1), which is electrically connected to the supply current source for the power semiconductor switch, and a parallel circuit comprising a first resistor (13.2) and a first capacitor (13.3), which is electrically connected to ground. - providing a reference voltage (U ref) depending on a supply voltage (U VDD) of a power semiconductor switch, with the result that the reference voltage (U ref) follows changes in the supply voltage (U VDD); - generating a differential voltage (U diff) which corresponds to a difference between a voltage drop (U Δ) across a load path of the power semiconductor switch and the provided reference voltage (U ref); - comparing the generated differential voltage (U diff) with a predetermined limit voltage (U lim), wherein a short-circuit current is detected in the load path of the power semiconductor switch when the differential voltage (U diff) exceeds the limit voltage (U lim); and - opening the power semiconductor switch when a short-circuit current has been detected in the load path of the power semiconductor switch,
A method performed by a mobile device, said method comprising: - receiving GNSS reference data representing a plurality of GNSS signals observed by a reference receiver at a reference position which is known - receiving GNSS navigation data; - determining, at least partially based on said GNSS reference data and said GNSS navigation data, a position estimate of said reference position; - determining, at least partially based on said reference position and said position estimate of said reference position, whether or not said GNSS navigation data are potentially manipulated. - receiving GNSS reference data representing a plurality of GNSS signals observed by a reference receiver at a reference position which is known - receiving GNSS navigation data; - determining, at least partially based on said GNSS reference data and said GNSS navigation data, a position estimate of said reference position; - determining, at least partially based on said reference position and said position estimate of said reference position, whether or not said GNSS navigation data are potentially manipulated.