mhurhangee/ep-ind-claims huggingface dataset:
Double pipe system, comprising an inner pipe conveying a heating medium, an insulating layer surrounding the inner pipe coaxially relative to the axis thereof, a pipe element surrounding the insulating layer coaxially relative to the axis and an encasing pipe surrounding the pipe element coaxially relative to the axis, wherein the pipe element arranged coaxially between the insulating layer and the encasing pipe is an intermediate pipe, wherein a first annular space in which the insulating layer is located is formed between the inner pipe and the intermediate pipe, wherein a second annular space is arranged between the intermediate pipe and the encasing pipe, wherein the first final annular space is sealed in relation to the second annular space by the intermediate pipe, and wherein there are provided supporting elements which permit movement of the inner pipe relative to the encasing pipe, wherein the intermediate pipe and the inner pipe are connected to one another at intervals along the longitudinal direction of the pipe by means of disk elements, characterized in that the supporting elements permit a movement of the inner pipe relative to the encasing pipe along the axis, in that the disk elements subdivide partial sections of the first annular space into separate sections that are sealed with respect to the second annular space and are sealed with respect to each other, in that pipe-constrictions of the intermediate pipe are formed between the sections of the first annular space in the longitudinal direction of the pipe, and in that the second annular space extends closer to the inner pipe in the pipe-constrictions of the intermediate pipe and the supporting elements are attached externally to the intermediate pipe in the regions of the pipe-constrictions for the purposes of supporting the encasing pipe with respect to the inner pipe, or in that the second annular space extends right up to the inner pipe in the pipe-constrictions of the intermediate pipe and the supporting elements are attached externally to the inner pipe in the regions of the pipe-constrictions for the purposes of supporting the encasing pipe with respect to the inner pipe.
Method for operating a starter of a vehicle, wherein a physical variable is measured, wherein a starter current of the starter is limited by means of a resistor depending on the measured physical variable, wherein, in the event of the starter current being limited, the limiting is ended by a timer after a predetermined time by way of a transistor that is connected electrically in parallel with the resistor bridging the resistor, wherein the timer is activated when the starter current reaches a threshold I T, characterized in that, after the limiting is ended, a switch is made to the limiting mode depending on whether the starter current I S has fallen below the threshold I T.
Supply device for operating at least one first electrosurgical instrument and/or a cryosurgical instrument and/or a water jet surgical instrument, comprising: - a control unit for controlling the at least one instrument, - a memory unit for storing configuration data that describe a state machine having a plurality of states (Z0-Z4), characterised in that the control unit is configured such that it reads the configuration data comprising at least one control table, translates the state machine into a control program and controls the at least one instrument according to the control program. - a control unit for controlling the at least one instrument, - a memory unit for storing configuration data that describe a state machine having a plurality of states (Z0-Z4),
An information transmission device comprising: an acoustic feature calculator that is configured to calculate an acoustic feature of a spoken voice; a speaker feature calculator that is configured to calculate a speaker feature from the acoustic feature using a deep neural network, DNN, the speaker feature being a feature unique to a speaker of the spoken voice; an analyzer that is configured to analyze condition information indicating a condition to be used in calculating the speaker feature, based on the spoken voice; and an information transmitter that is configured to transmit the speaker feature and the condition information to an information reception device that is configured to perform speaker recognition processing on the spoken voice, as information to be used by the information reception device to recognize the speaker of the spoken voice. an acoustic feature calculator that is configured to calculate an acoustic feature of a spoken voice; a speaker feature calculator that is configured to calculate a speaker feature from the acoustic feature using a deep neural network, DNN, the speaker feature being a feature unique to a speaker of the spoken voice; an analyzer that is configured to analyze condition information indicating a condition to be used in calculating the speaker feature, based on the spoken voice; and an information transmitter that is configured to transmit the speaker feature and the condition information to an information reception device that is configured to perform speaker recognition processing on the spoken voice, as information to be used by the information reception device to recognize the speaker of the spoken voice.
A method for performing a scheduling operation by a centralized scheduler in a wireless communication system, the method comprising: receiving Channel State Information, CSI, about a channel between each of a plurality of Transmission Points, TPs, and each of a plurality of User Equipments, UEs, performing communication with each of the plurality of TPs from each of the plurality of TPs; performing a first scheduling operation for allocating wireless resources to each of the plurality of TPs based on the received CSI and at least one interfering TP which transmits an interference signal to at least one UE to perform a scheduling operation among the plurality of UEs; and transmitting first scheduling information indicating transmission power information on each of the plurality of TPs to each of the plurality of TPs, wherein the first scheduling information is used to control a transmission power for the at least one interfering TP, and is used to perform a second scheduling operation to select a UE to communicate with each of the plurality of TPs, wherein the first scheduling information is generated based on an Infinite Impulse Response, IIR, filtered blank pattern, the IIR filtered blank pattern being selected as a result of analysis of a development of a change in blank pattern based in a scheduling bit-map for a Transmit Time Interval, TTI, section or by randomly selecting one blank pattern among a plurality of blank patterns stored in a buffer. receiving Channel State Information, CSI, about a channel between each of a plurality of Transmission Points, TPs, and each of a plurality of User Equipments, UEs, performing communication with each of the plurality of TPs from each of the plurality of TPs; performing a first scheduling operation for allocating wireless resources to each of the plurality of TPs based on the received CSI and at least one interfering TP which transmits an interference signal to at least one UE to perform a scheduling operation among the plurality of UEs; and transmitting first scheduling information indicating transmission power information on each of the plurality of TPs to each of the plurality of TPs, wherein the first scheduling information is used to control a transmission power for the at least one interfering TP, and is used to perform a second scheduling operation to select a UE to communicate with each of the plurality of TPs, wherein the first scheduling information is generated based on an Infinite Impulse Response, IIR, filtered blank pattern, the IIR filtered blank pattern being selected as a result of analysis of a development of a change in blank pattern based in a scheduling bit-map for a Transmit Time Interval, TTI, section or by randomly selecting one blank pattern among a plurality of blank patterns stored in a buffer.
An automated feed ration preparing system for use in an animal feeding system, comprising - a feed storage having multiple feed storage locations for holding multiple feed types (4a,4b,4c) including at least one type of ensiled feed, - an automated feed loading system configured for loading quantities of feed in a feed container, - a feed container for receiving feed quantities from the feed loading system, and - a control system having at least one stored ration recipe prescribing quantities of at least two feed types and being arranged to control the feed loading system in accordance with the ration recipe to load predetermined quantities of at least two feed types into the feed container, characterized in that the feeding ration preparing system further includes a sieving device arranged to separate the at least one type of ensiled feed into two or more feed fractions, wherein the two or more feed fractions comprise a first feed fraction having a first feed energy content and a second feed fraction having a second feed energy content, wherein the first feed energy content is higher than the second feed energy content, and wherein the control system is arranged to control the feed loading system in accordance with the ration recipe to load a quantity of at least one of the feed fractions into the feed container. - a feed storage having multiple feed storage locations for holding multiple feed types (4a,4b,4c) including at least one type of ensiled feed, - an automated feed loading system configured for loading quantities of feed in a feed container, - a feed container for receiving feed quantities from the feed loading system, and - a control system having at least one stored ration recipe prescribing quantities of at least two feed types and being arranged to control the feed loading system in accordance with the ration recipe to load predetermined quantities of at least two feed types into the feed container, characterized in that the feeding ration preparing system further includes a sieving device arranged to separate the at least one type of ensiled feed into two or more feed fractions, wherein the two or more feed fractions comprise a first feed fraction having a first feed energy content and a second feed fraction having a second feed energy content, wherein the first feed energy content is higher than the second feed energy content, and wherein the control system is arranged to control the feed loading system in accordance with the ration recipe to load a quantity of at least one of the feed fractions into the feed container.
A compound represented by the formula: wherein R 1 is a 5-membered nitrogen-containing aromatic heterocyclic group optionally substituted by 1 to 3 substituents selected from an optionally substituted C 1-6 alkyl group, a halogen atom, an optionally substituted hydroxy group, an optionally substituted sulfanyl group, and an optionally substituted amino group; R 2 is a hydrogen atom or a substituent; R 3 is an optionally substituted C 1-6 alkyl group, a halogen atom, a cyano group, an acyl group, an optionally substituted hydroxy group, an optionally substituted sulfanyl group, an optionally substituted amino group, an optionally substituted carbocyclic group, or an optionally substituted heterocyclic group; R 4 is a hydrogen atom or a substituent; R 5 is an optionally substituted C 1-6 alkyl group, an optionally substituted hydroxy group, an optionally substituted amino group, an optionally substituted carbocyclic group, or an optionally substituted heterocyclic group; and Ring A is an optionally further substituted 5-membered aromatic heterocycle, or a salt thereof. R 1 is a 5-membered nitrogen-containing aromatic heterocyclic group optionally substituted by 1 to 3 substituents selected from an optionally substituted C 1-6 alkyl group, a halogen atom, an optionally substituted hydroxy group, an optionally substituted sulfanyl group, and an optionally substituted amino group; R 2 is a hydrogen atom or a substituent; R 3 is an optionally substituted C 1-6 alkyl group, a halogen atom, a cyano group, an acyl group, an optionally substituted hydroxy group, an optionally substituted sulfanyl group, an optionally substituted amino group, an optionally substituted carbocyclic group, or an optionally substituted heterocyclic group; R 4 is a hydrogen atom or a substituent; R 5 is an optionally substituted C 1-6 alkyl group, an optionally substituted hydroxy group, an optionally substituted amino group, an optionally substituted carbocyclic group, or an optionally substituted heterocyclic group; and Ring A is an optionally further substituted 5-membered aromatic heterocycle,
A data transfer device that controls data transfer performed through a bus capable of separately processing a request and a response, the data transfer device comprising: a plurality of access control units (230a-230d) that issue the request in order to produce a data transfer process according to the request; and an arbitration unit that performs arbitration between the requests issued by the plurality of access control units so as to determine a request to be accepted among those requests and to accept that request, wherein the arbitration unit sets an arbitration prohibited period in which only a request issued by a designated access control unit among the plurality of access control units can be accepted and an arbitration enabled period in which a request from any of the plurality of access control units can be accepted, characterized in that: the arbitration prohibited period and the arbitration enabled period are alternately repeated. a plurality of access control units (230a-230d) that issue the request in order to produce a data transfer process according to the request; and an arbitration unit that performs arbitration between the requests issued by the plurality of access control units so as to determine a request to be accepted among those requests and to accept that request, wherein the arbitration unit sets an arbitration prohibited period in which only a request issued by a designated access control unit among the plurality of access control units can be accepted and an arbitration enabled period in which a request from any of the plurality of access control units can be accepted, the arbitration prohibited period and the arbitration enabled period are alternately repeated.
Supporting element for inclined planes, comprising: • a lower portion having a lower surface suited to rest on the ground, and an upper surface non parallel to said lower surface and suited to be coupled with the upper portion, • an upper portion having a lower surface suited to be coupled with the upper surface of the lower portion, and an upper surface suited to serve as a supporting surface and non parallel to said lower surface, • a rotation and union element suited to connect said upper portion to said lower portion and suited to be the rotation axis of said two portions (A, B) characterized in that said lower portion has, on its upper surface, a circular wall or projection that is orthogonal to said upper surface and concentric with said rotation and union element, and wherein said upper portion has, on its lower surface, a circular recess or groove that is concentric with said rotation and union element and complementary to said circular wall or projection of said lower portion, and wherein the upper surface of said lower portion is provided with teeth or projections distributed on a circumference that is concentric with said rotation and union element, and wherein the lower surface of said upper portion is provided with teeth or projections distributed on a circumference that is concentric with said rotation and union element and complementary to said teeth or projections of said lower portion. • a lower portion having a lower surface suited to rest on the ground, and an upper surface non parallel to said lower surface and suited to be coupled with the upper portion, • an upper portion having a lower surface suited to be coupled with the upper surface of the lower portion, and an upper surface suited to serve as a supporting surface and non parallel to said lower surface, • a rotation and union element suited to connect said upper portion to said lower portion and suited to be the rotation axis of said two portions (A, B)
A method of executing a smart contract, comprising: starting, by a blockchain node when the blockchain node deployed the smart contract, to turn a bytecode of the smart contract into a machine code through Just-In-Time, JIT, compilation and store the machine code; reporting, by the blockchain node when the blockchain node is to reach a consensus on a transaction invoking the smart contract deployed, a compilation progress of the JIT compilation against the smart contract deployed to other blockchain nodes in a blockchain network; obtaining, by the blockchain node, a compilation progress reported by the other blockchain nodes; determining, by the blockchain node, a number of blockchain nodes in the blockchain network storing the machine code corresponding to the bytecode of the smart contract according to the compilation progress of the blockchain node and the compilation progress reported by the other blockchain nodes; and when the blockchain node is to execute the smart contract deployed, the machine code of the smart contract is stored locally, and the determined number of blockchain nodes storing the machine code of the smart contract in the blockchain network is greater than or equal to a predetermined number, executing, by the blockchain node, the machine code. starting, by a blockchain node when the blockchain node deployed the smart contract, to turn a bytecode of the smart contract into a machine code through Just-In-Time, JIT, compilation and store the machine code; reporting, by the blockchain node when the blockchain node is to reach a consensus on a transaction invoking the smart contract deployed, a compilation progress of the JIT compilation against the smart contract deployed to other blockchain nodes in a blockchain network; obtaining, by the blockchain node, a compilation progress reported by the other blockchain nodes; determining, by the blockchain node, a number of blockchain nodes in the blockchain network storing the machine code corresponding to the bytecode of the smart contract according to the compilation progress of the blockchain node and the compilation progress reported by the other blockchain nodes; and when the blockchain node is to execute the smart contract deployed, the machine code of the smart contract is stored locally, and the determined number of blockchain nodes storing the machine code of the smart contract in the blockchain network is greater than or equal to a predetermined number, executing, by the blockchain node, the machine code.
Method for operation of a wind energy installation having an electrical generator, which can be driven by a rotor, for emission of electrical power to an electrical load, specifically an electrical grid, even in the event of a short circuit in the grid, wherein the power which is emitted from the generator to the load is regulated as a function of a current which is emitted to the load, characterized in that, when the current emitted from the generator to the load exceeds a predeterminable maximum value (I(max)), a control device of the wind energy installation is used to adjust the power that is produced by the overall wind energy installation and/or its generator such that the current which is fed in does not exceed the predetermined maximum value (I(max)), wherein, in the event of a short circuit in the grid, this is preferably effected by the wind energy installation feeding considerably less power into the grid than before, but using the power which is thus not fed into the grid in some other way outside the grid, for example for a dump load (resistance) or for feeding the power that is not emitted into the grid to capacitors or other buffer stores.
A biosensor device arranged to perform in situ monitoring of deep-water sea-floor coral polyp activity, which biosensor device comprises a time-lapse-camera system having a plurality of high resolution cameras and a lighting system, characterised in that a plurality of coral nubbins with a plurality of polyps are prepared and fixed to a platform of the biosensor device with a distance to each other such that there is no overlap on a picture frame thereof, and wherein the cameras and the lighting system are arranged to continuously take coral-silhouette-pictures (CSP:s) of the plurality of nubbins in the picture frame, so as to perform in situ measurements of the coral silhouettes of each coral nubbin in an analytical system, typically including an expert analytical unit, and arranged to perform in situ processing of coral data including at least the coral silhouette, wherein the expert analytical unit is arranged to give each coral nubbin a unique identification ID, and its total coral silhouette area thereof to be recorded automatically with shooting time.
A method for preparing trialkoxysilane comprising: (a) pulverizing silicon (Si), having a linear dimension of 20mm to 20cm prior to pulverizing, into fine particles having a size of 30 - 100 μm in a solvent environment, wherein the solvent is directly used in a later synthesis process of alkoxysilane; (b) continuously synthesizing trialkoxysilane by continuously feeding a suspension of silicon and anhydrous alcohol in an amount consumed in a reaction in a synthesis process of trialkoxysilane to a reactor, wherein the amount of consumed suspension is calculated from an amount of synthesized trialkoxysilane using following Equation 1, so that an amount of silicon fed to a reactor as a suspension component, and an amount of silicon after a reaction is completed in a reaction process are maintained the same, thereby feeding a suspension so that a reaction proceeds consistently and stably, mSi = k 1 ⋅ mTES + k 2 ⋅ mTEOS wherein, mTES is mass of triethoxysilane, mTEOS is mass of tetraethoxysilane obtained per unit time as a result of a direct reaction, and k1 and k2 are molar ratios of silicon consumed in synthesis processes of triethoxysilane and tetraethoxysilane, respectively; and (c) removing impurities accumulated in a reactor in a manner of continuously bleeding a solvent using a ceramic membrane filter, having a pore size of 1 to 10 μm from a reactor, wherein a solvent is supplemented by continuously feeding an amount of bled solvent as a suspension component to a reactor, wherein the trialkoxysilane is represented by following Chemical Formula 1: [Chemical Formula 1] SiH 3 wherein R is ethyl. (a) pulverizing silicon (Si), having a linear dimension of 20mm to 20cm prior to pulverizing, into fine particles having a size of 30 - 100 μm in a solvent environment, wherein the solvent is directly used in a later synthesis process of alkoxysilane; (b) continuously synthesizing trialkoxysilane by continuously feeding a suspension of silicon and anhydrous alcohol in an amount consumed in a reaction in a synthesis process of trialkoxysilane to a reactor, wherein the amount of consumed suspension is calculated from an amount of synthesized trialkoxysilane using following Equation 1, so that an amount of silicon fed to a reactor as a suspension component, and an amount of silicon after a reaction is completed in a reaction process are maintained the same, thereby feeding a suspension so that a reaction proceeds consistently and stably, mSi = k 1 ⋅ mTES + k 2 ⋅ mTEOS wherein, mTES is mass of triethoxysilane, mTEOS is mass of tetraethoxysilane obtained per unit time as a result of a direct reaction, and k1 and k2 are molar ratios of silicon consumed in synthesis processes of triethoxysilane and tetraethoxysilane, respectively; and (c) removing impurities accumulated in a reactor in a manner of continuously bleeding a solvent using a ceramic membrane filter, having a pore size of 1 to 10 μm from a reactor, wherein a solvent is supplemented by continuously feeding an amount of bled solvent as a suspension component to a reactor, wherein the trialkoxysilane is represented by following Chemical Formula 1: [Chemical Formula 1] SiH 3