mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a network entity capable of communicating with a network, comprising: deriving a baseline for network performance of at least one endpoint providing a service in the network, wherein the baseline is derived based on historical network performance metrics, and the baseline is dynamic; calculating a service network status of the network based on an application performance index; evaluating the service network status of the network by comparing current performance metrics of the at least one endpoint to the baseline for network performance, in order to determine whether the service network status is degraded; and determining, when the evaluated service network status is degraded, at least one node or at least one link that is causing the service network status to be degraded using a root cause analysis. deriving a baseline for network performance of at least one endpoint providing a service in the network, wherein the baseline is derived based on historical network performance metrics, and the baseline is dynamic; calculating a service network status of the network based on an application performance index; evaluating the service network status of the network by comparing current performance metrics of the at least one endpoint to the baseline for network performance, in order to determine whether the service network status is degraded; and determining, when the evaluated service network status is degraded, at least one node or at least one link that is causing the service network status to be degraded using a root cause analysis.
An electro-mechanical access control system for a building door, with a coupling element, with a counter-coupling element, wherein the coupling element in a coupled position is in operative connection with the counter-coupling element, and in an uncoupled position is out of operative connection with the counter-coupling element, and with a drive, in particular an electrical motor, which moves the coupling element between the coupled position and the uncoupled position, wherein the access control system includes at least one sensor (53, 54) for identifying at least one position of the coupling element and a control unit, which controls and/or regulates the drive depending on a signal of the sensor (53, 54) transmitted to the control unit, characterized in that the control unit stops the drive, if, after a predetermined time interval has elapsed, the control unit based on the signal of the sensor (53, 54) determines that the position (X, XI) of the coupling element to be reached was not reached.
A device for protecting a hazardous area of a plant controlled by a controller, having a sensor assembly by means of which two protective fields (11a, 11b) adapted to the hazardous area are monitored, the second protective field covering the first protective field in the input area of the hazardous area, the sensor assembly being assigned two safe outputs via which biological switching signals can be output, wherein a safe output is associated with each protective field (11a, 11b) in such a way that the switching states of the respective safe output indicate whether the associated protective field (11a, 11b) is free or whether an object is present therein, characterised in that a simultaneous change of the switching signals of the safe outputs into the switching state "free protective field" forms a trigger signal for an automatic start-up of the installation.
A system comprising: a laser source; an acousto-optic modulator, i.e. AOM, coupled to the laser source; an atom trap; at least one optical medium coupled between the AOM and the atom trap; at least one piezoelectric transducer coupled to the at least one optical medium; and a beam polarization controller coupled to the at least one piezoelectric transducer wherein the system provides polarization switching based on a strain optic effect in an optical material of the medium. a laser source; an acousto-optic modulator, i.e. AOM, coupled to the laser source; an atom trap; at least one optical medium coupled between the AOM and the atom trap; at least one piezoelectric transducer coupled to the at least one optical medium; and a beam polarization controller coupled to the at least one piezoelectric transducer wherein the system provides polarization switching based on a strain optic effect in an optical material of the medium.
A method of curing mated threaded parts comprising: (a) providing a composition comprising: (i) a moisture curable modified methylene diisocyanate polymer having a residual NCO content of 8% to 18% by weight of the polymer; (ii) a moisture cure catalyst; and (iii) a reinforcement filler; (b) applying the composition to a threaded part; (c) mating the threaded part with another threaded part; and (d) permitting the composition to moisture cure. (a) providing a composition comprising: (i) a moisture curable modified methylene diisocyanate polymer having a residual NCO content of 8% to 18% by weight of the polymer; (ii) a moisture cure catalyst; and (iii) a reinforcement filler; (i) a moisture curable modified methylene diisocyanate polymer having a residual NCO content of 8% to 18% by weight of the polymer; (ii) a moisture cure catalyst; and (iii) a reinforcement filler; (b) applying the composition to a threaded part; (c) mating the threaded part with another threaded part; and (d) permitting the composition to moisture cure.
A nonwoven web comprising multicomponent fibers, the multicomponent fibers having a longitudinal length, each multicomponent fiber having at least a first component and at least a second component, wherein the first component has a lower melting point or glass transition temperature than the second component, a portion of the multicomponent fibers are partially split, where at least one component of the multicomponent fiber has separated from the remaining components of the multicomponent fiber along a first section of the longitudinal length of the multicomponent fibers, along a second section of the longitudinal length of the multicomponent fibers the components of the multicomponent fibers remain together as a unitary fiber structure, and wherein part of the second section of the multicomponent fibers is thru-air bonded to part of a second section of an adjacent multicomponent fiber, and wherein a second portion of the multicomponent fibers are unsplit.
A non-oriented electrical steel sheet having a chemical composition consisting of C: not more than 0.010 mass%, Si: 1.0-7.0 mass%, Mn: 0.001-3.0 mass%, sol. Al: 0.0001-3.5 mass%, P: 0.01-0.2 mass%, S: not more than 0.010 mass%, N: not more than 0.010 mass%, optionally one or two selected from Sn and Sb in an amount of 0.01-0.1 mass% for each, one or more selected from Ca, REM and Mg in an amount of 0.001-0.05 mass% for each, one or more selected from Ni, Cu and Cr in an amount of 0.01-0.5 mass% for each, and the remainder being Fe and inevitable impurities, wherein a ratio (P 120 /Fe 700) of a peak-peak height P 120 of P near to an electronic energy of 120 eV to a peak-peak height Fe 700 of Fe near to an electronic energy of 700 eV in an Auger differential spectrum obtained by analyzing a broken surface of a grain boundary through Auger electron spectroscopy is not less than 0.1 and a sheet thickness is 0.10-0.50 mm.
Method for manufacturing structured press elements, wherein the method comprises at least the following steps: - the step of providing an element of metal; - the step of providing a mask on a surface of the element for shielding portions of said surface; - the step of treating non-shielded portions of said surface of the element; - the step of removing said mask; characterized in that the method comprises the step of pretreating said surface before said mask is applied, in which said surface of the element is subjected to an ultrasonic treatment. - the step of providing an element of metal; - the step of providing a mask on a surface of the element for shielding portions of said surface; - the step of treating non-shielded portions of said surface of the element; - the step of removing said mask;
Controlling device for an information display system for displaying an operating condition of a hybrid vehicle, comprising: an input interface that is designed to receive at least one first operating signal comprising information about an operating condition of an internal combustion engine of the hybrid vehicle, and a second operating signal comprising information about an operating condition of an electric motor of the hybrid vehicle; and a processor that is designed to generate a display signal, such that a display device produces a rendering of a circular or annular display area within which the information about the operating condition of the internal combustion engine in a first segment of the circular or annular display area; the controlling device is characterized in that the information about the operating condition of the electric motor is displayed in a second segment of the circular or annular display area; wherein the processor is designed to generate the display signal such that a rotational speed of the internal combustion engine is displayed in the first segment and a charging power of a battery of the electric motor is displayed in a first sector of the second segment, and in that an output interface is designed to provide the display signal to the display device. an input interface that is designed to receive at least one first operating signal comprising information about an operating condition of an internal combustion engine of the hybrid vehicle, and a second operating signal comprising information about an operating condition of an electric motor of the hybrid vehicle; and a processor that is designed to generate a display signal, such that a display device produces a rendering of a circular or annular display area within which the information about the operating condition of the internal combustion engine in a first segment of the circular or annular display area; the controlling device is characterized in that the information about the operating condition of the electric motor is displayed in a second segment of the circular or annular display area; wherein the processor is designed to generate the display signal such that a rotational speed of the internal combustion engine is displayed in the first segment and a charging power of a battery of the electric motor is displayed in a first sector of the second segment, and in that an output interface is designed to provide the display signal to the display device.
A method for providing spatially selectable communications using divided and delayed data streams, wherein the method is performed by a sending device, the method comprising: receiving a data stream into the sending device from a data source, wherein the sending device includes a plurality of transmitters; receiving an indication of a target point for the data stream and a target volume around the target point; dividing the data stream into a plurality of data substreams, wherein each data substream is sent by a different one of the plurality of transmitters; determining a corresponding transmitter delay for each transmitter used to send one of the plurality of data substreams, wherein the transmitter delay linearly depends upon a distance between the target point and the corresponding transmitter used to transmit the one of the plurality of data substreams; determining, based on the target volume, a data interval spacing to apply between each data substream at transmission, wherein the applied data interval spacing and the transmitter delays prevent reconstruction of the plurality of data substreams back into the data stream in all areas in space except within the target volume; and sending, from the plurality of transmitters, the corresponding plurality of data substreams using corresponding transmitter delays and with the data interval spacing between each data substream. receiving a data stream into the sending device from a data source, wherein the sending device includes a plurality of transmitters; receiving an indication of a target point for the data stream and a target volume around the target point; dividing the data stream into a plurality of data substreams, wherein each data substream is sent by a different one of the plurality of transmitters; determining a corresponding transmitter delay for each transmitter used to send one of the plurality of data substreams, wherein the transmitter delay linearly depends upon a distance between the target point and the corresponding transmitter used to transmit the one of the plurality of data substreams; determining, based on the target volume, a data interval spacing to apply between each data substream at transmission, wherein the applied data interval spacing and the transmitter delays prevent reconstruction of the plurality of data substreams back into the data stream in all areas in space except within the target volume; and sending, from the plurality of transmitters, the corresponding plurality of data substreams using corresponding transmitter delays and with the data interval spacing between each data substream.
Mixture comprising, per 100 parts by weight of +: 10 to 90 parts by weight of at least one non-nanostructured olefinic thermoplastic polymer; 90 to 10 parts by weight of a formulation of at least one elastomer which has unsaturated double bonds and is capable of reacting with a crosslinking or vulcanizing agent, said formulation including a system for crosslinking or vulcanizing said elastomer or elastomers, at least one plasticizer, and the additives customary in elastomer formulations; up to 100 parts by weight, relative to +, of at least one graft copolymer having polyamide blocks, said copolymer being composed of a polyolefin backbone and of on average at least 1.3 polyamide grafts on said backbone, and having a nanostructured organization, in which said grafts have a number-average molar mass of less than 5000 g/mol and are attached to the backbone by the residues of an unsaturated monomer having a function which is capable of reacting with an amino-terminal polyamide; and the residues of said unsaturated monomer being attached to the backbone by grafting or copolymerization from its double bond, it being possible for and in the mixture to have already being combined together by the dynamic vulcanizing or crosslinking process, to give a vulcanized or crosslinked thermoplastic composition. 10 to 90 parts by weight of at least one non-nanostructured olefinic thermoplastic polymer; 90 to 10 parts by weight of a formulation of at least one elastomer which has unsaturated double bonds and is capable of reacting with a crosslinking or vulcanizing agent, said formulation including a system for crosslinking or vulcanizing said elastomer or elastomers, at least one plasticizer, and the additives customary in elastomer formulations; up to 100 parts by weight, relative to +, of at least one graft copolymer having polyamide blocks, said copolymer being composed of a polyolefin backbone and of on average at least 1.3 polyamide grafts on said backbone, and having a nanostructured organization, in which said grafts have a number-average molar mass of less than 5000 g/mol and are attached to the backbone by the residues of an unsaturated monomer having a function which is capable of reacting with an amino-terminal polyamide; and the residues of said unsaturated monomer being attached to the backbone by grafting or copolymerization from its double bond,
Liquefier for a heat pump, comprising: a liquefier space formed to hold liquefied working fluid; a compressor motor (411, 431) with a stationary motor part (411, 431), a motor shaft (412, 432), and a compressor wheel (413, 433) connected to the motor shaft (412, 432); a motor fixture for holding the stationary motor part (411, 431), wherein the motor fixture is formed to hold the stationary motor part so that it is in contact with liquefied working fluid, when liquefied working fluid is filled in the liquefier space, wherein the motor fixture is formed as a pipe having an interior region, wherein the stationary motor part (411, 431) is held within the interior region of the pipe by at least two mounting fins located within the interior region of the pipe, wherein the interior region of the pipe is at least partially filled with liquefied working fluid, when liquefied working fluid is filled in the liquefier space, and wherein the pipe is mounted within the liquefier by suspensions; and wherein the compressor wheel (413, 433) extends into a region (414, 434) in which a channel for gaseous working fluid to be compressed passes. a liquefier space formed to hold liquefied working fluid; a compressor motor (411, 431) with a stationary motor part (411, 431), a motor shaft (412, 432), and a compressor wheel (413, 433) connected to the motor shaft (412, 432); a motor fixture for holding the stationary motor part (411, 431), wherein the motor fixture is formed to hold the stationary motor part so that it is in contact with liquefied working fluid, when liquefied working fluid is filled in the liquefier space, wherein the motor fixture is formed as a pipe having an interior region, wherein the stationary motor part (411, 431) is held within the interior region of the pipe by at least two mounting fins located within the interior region of the pipe, wherein the interior region of the pipe is at least partially filled with liquefied working fluid, when liquefied working fluid is filled in the liquefier space, and wherein the pipe is mounted within the liquefier by suspensions; and wherein the compressor wheel (413, 433) extends into a region (414, 434) in which a channel for gaseous working fluid to be compressed passes.
A backlight unit comprising: a light source module 150, 760, 860, 960, 1320) comprising a first connection pin and a second connection pin electrically connected to the first connection pin; a power converter (120, 720, 820, 920, 1312) arranged to apply a driving voltage (VLED) to the light source module; an input connector (110, 710, 810, 910) arranged to receive a first enable signal from an external device and to apply said first enable signal to a first signal line; a light source module connector (140, 750, 850, 950, 1314) adapted to be electrically connectible to the light source module, said light source module connector being arranged to output the first enable signal from the first signal line to the light source module, to receive a second enable signal from said light source module, and to apply said second enable signal to a second signal line; and a driving circuit (130, 730, 830, 930, 1313) arranged to control (CTRLV) a generation of the driving voltage from the power converter in response to the second enable signal, wherein, when the light source module connector is electrically connected to the first connection pin and the second connection pin of said light source module, said light source module connector is arranged to transmit the first enable signal to the first connection pin of the light source module from said first signal line and to receive the resulting second enable signal from the second connection pin of the light source module, said second enable signal being transmitted to the driving circuit via said second signal line. a light source module 150, 760, 860, 960, 1320) comprising a first connection pin and a second connection pin electrically connected to the first connection pin; a power converter (120, 720, 820, 920, 1312) arranged to apply a driving voltage (VLED) to the light source module; an input connector (110, 710, 810, 910) arranged to receive a first enable signal from an external device and to apply said first enable signal to a first signal line; a light source module connector (140, 750, 850, 950, 1314) adapted to be electrically connectible to the light source module, said light source module connector being arranged to output the first enable signal from the first signal line to the light source module, to receive a second enable signal from said light source module, and to apply said second enable signal to a second signal line; and a driving circuit (130, 730, 830, 930, 1313) arranged to control (CTRLV) a generation of the driving voltage from the power converter in response to the second enable signal, wherein, when the light source module connector is electrically connected to the first connection pin and the second connection pin of said light source module, said light source module connector is arranged to transmit the first enable signal to the first connection pin of the light source module from said first signal line and to receive the resulting second enable signal from the second connection pin of the light source module, said second enable signal being transmitted to the driving circuit via said second signal line.
A control apparatus for a gas turbine system which includes a compressor to compress air; an air suction unit to suction external air and deliver the suctioned air to the compressor to be compressed; an anti-icing unit to prevent moisture contained in the suctioned air from freezing in the air suction unit; a combustor to produce high-temperature, high-pressure combustion gas by combusting the compressed air and fuel; a supply to supply the compressed air from the compressor to the combustor and the anti-icing unit; a turbine including a rotor rotated by the combustion gas produced by the combustor; and a power generator driven by the rotation of the rotor, wherein the compressor and the turbine are coaxially connected to each other and the rotational speed of the rotor is proportional to a system frequency, the control apparatus comprising: a sensing unit configured to measure a rotor speed of the turbine, expressed in revolutions per minute; and being characterised in that it has a compressed air distribution unit configured to adjust a distribution ratio of the compressed air supplied to the combustor to the compressed air supplied to the anti-icing unit, based on the measured rotor speed; wherein, when the measured rotor speed drops below a rated rotor speed, the distribution ratio is adjusted by raising a percentage of the compressed air supplied to the combustor and lowering a percentage of the compressed air supplied to the anti-icing unit, and wherein the rated rotor speed is the rotor speed occurring when the system frequency is equal to a rated frequency. a sensing unit configured to measure a rotor speed of the turbine, expressed in revolutions per minute; and being characterised in that it has a compressed air distribution unit configured to adjust a distribution ratio of the compressed air supplied to the combustor to the compressed air supplied to the anti-icing unit, based on the measured rotor speed; wherein, when the measured rotor speed drops below a rated rotor speed, the distribution ratio is adjusted by raising a percentage of the compressed air supplied to the combustor and lowering a percentage of the compressed air supplied to the anti-icing unit, and wherein the rated rotor speed is the rotor speed occurring when the system frequency is equal to a rated frequency.