mhurhangee/ep-ind-claims huggingface dataset:
Engine compartment component in co-molded layers for vehicles comprising: - a first layer of carbon fiber fabric consisting of a sheet of thickness of between 0.5 mm and 20 mm and a weight of between 100 g/m 2 and 1,000 g/m 2, adapted to be positioned inside a common mold for injection molding before the injection of - a second plastic layer, consisting of any one thermoplastic polymer, with a thickness of between 0.5 mm and 5 mm, adapted to be made by back-injection in said mold for injection molding containing said first layer of carbon fiber fabric, determining a co-molding process; said back-injection occurring at an inner side (1.2) of said first layer of carbon fiber fabric; said first layer of carbon fiber fabric being provided with a weft of the fibers adapted to allow the penetration of said second plastic layer, during the co-molding process, for a predetermined thickness starting from said inner side (1.2) of said first layer of carbon fiber fabric; characterised in that said first layer of carbon fiber fabric consists of a first portion (1.a), in the vicinity of said inner side (1.2), provided with a wider weave adapted to facilitate the penetration of the plastic polymer during said co-molding up to the desired thickness; said first layer of carbon fiber fabric also consists of a second portion (1.b), in the vicinity of the outer side (1.1), provided with a denser weave adapted to progressively slow down and finally block the penetration of the plastic polymer during said co-molding. - a first layer of carbon fiber fabric consisting of a sheet of thickness of between 0.5 mm and 20 mm and a weight of between 100 g/m 2 and 1,000 g/m 2, adapted to be positioned inside a common mold for injection molding before the injection of - a second plastic layer, consisting of any one thermoplastic polymer, with a thickness of between 0.5 mm and 5 mm, adapted to be made by back-injection in said mold for injection molding containing said first layer of carbon fiber fabric, determining a co-molding process; said back-injection occurring at an inner side (1.2) of said first layer of carbon fiber fabric;
A control method for a transistor of the IGBT type, the transistor comprising a gate, a collector and an emitter, and defining an on state in which a main current flows (I C) between the collector and the emitter and an off state in which the collector is electrically isolated from the emitter; the method including a phase for switching between the on state and the off state comprising generating a setpoint current, the intensity of which on the gate of the transistor assumes different setpoint values (I c1,...,I c6), at least some of the setpoint values (I c1,...,I c6) being chosen as a function of the sign of the temporal derivative (dlc/dt) of the main current (I c), each setpoint value (I c1,...,I c6) being chosen from a set of predetermined setpoint values (I c1,..,I c6).
A process for making a tissue paper web in which the tissue paper web is passed through an extended nip formed between an extended nip unit and a Yankee drying cylinder and in which the tissue paper web is carried on a felt through the extended nip in such a way that, in the extended nip, the tissue paper web contacts the outer surface of the Yankee drying cylinder and wherein the web and the felt are led over a suction roll prior to the extended nip in such a way that the felt contacts the suction roll and the tissue paper web is separated from the suction roll by the felt, the suction roll having a suction zone over which the felt and the tissue paper web pass together, and wherein a first hood is arranged opposite the suction roll and partially surrounds the suction roll, the first hood having an extension around the suction roll such the first hood covers the entire suction zone, and wherein moist hot air is fed from the first hood and sucked through the tissue paper web and the felt by the suction roll, the tissue paper web being directly exposed to the first hood such that the moist hot air reaches the tissue paper web without passing through a fabric before reaching the tissue paper web, wherein the Yankee drying cylinder is covered by a second hood which is a Yankee hood which has an air heating and distribution system, characterized in that hot exhaust air from the second hood is fed through a conduit to the first hood and used to supply the first hood with moist hot air having a temperature in the range of 130°C - 300 °C and a moisture content of 300 g water /kg dry air - 1000 g water/kg dry air at a rate of 90 - 130 m 3 /minute per square meter of the area of the suction zone of the suction roll which hot moist air is then sucked through the tissue paper web by the suction roll such that moisture condensates on the tissue paper web and thereby raises the temperature of the tissue paper web before the tissue paper web passes through the extended nip.
A control apparatus for an internal combustion engine, comprising: an in-cylinder pressure sensor that outputs a signal corresponding to an in-cylinder pressure of the internal combustion engine; first parameter acquisition means that acquires a first parameter which is acquired based on an output of the in-cylinder pressure sensor and which is affected by an output sensitivity of the sensor; the control apparatus being characterized by further comprising: second parameter acquisition means that acquires a second parameter which has a correlation with the first parameter and which is not affected by the output sensitivity, and that calculates two indicators based on in-cylinder pressures obtained at different crank angles in an identical cycle and calculates the second parameter based on a ratio between the indicators; and abnormality detection means that detects an abnormality of the output sensitivity of the in-cylinder pressure sensor based on a relationship between the first parameter and the second parameter. an in-cylinder pressure sensor that outputs a signal corresponding to an in-cylinder pressure of the internal combustion engine; first parameter acquisition means that acquires a first parameter which is acquired based on an output of the in-cylinder pressure sensor and which is affected by an output sensitivity of the sensor; the control apparatus being characterized by further comprising: second parameter acquisition means that acquires a second parameter which has a correlation with the first parameter and which is not affected by the output sensitivity, and that calculates two indicators based on in-cylinder pressures obtained at different crank angles in an identical cycle and calculates the second parameter based on a ratio between the indicators; and abnormality detection means that detects an abnormality of the output sensitivity of the in-cylinder pressure sensor based on a relationship between the first parameter and the second parameter. second parameter acquisition means that acquires a second parameter which has a correlation with the first parameter and which is not affected by the output sensitivity, and that calculates two indicators based on in-cylinder pressures obtained at different crank angles in an identical cycle and calculates the second parameter based on a ratio between the indicators; and abnormality detection means that detects an abnormality of the output sensitivity of the in-cylinder pressure sensor based on a relationship between the first parameter and the second parameter.
A method for controlling an uplink transmit power in inter-base station carrier aggregation, comprising: acquiring, by a first base station, a maximum uplink transmit power that is allocated by a user equipment UE to the first base station, characterised in that the maximum uplink transmit power is determined according to a status of an uplink resource that is scheduled by a second base station for the UE; and configuring, by the first base station, an uplink transmit power for the UE according to the maximum uplink transmit power, wherein the first base station is a secondary base station, and the second base station is a master base station. acquiring, by a first base station, a maximum uplink transmit power that is allocated by a user equipment UE to the first base station, characterised in that the maximum uplink transmit power is determined according to a status of an uplink resource that is scheduled by a second base station for the UE; and configuring, by the first base station, an uplink transmit power for the UE according to the maximum uplink transmit power, wherein the first base station is a secondary base station, and the second base station is a master base station.
A method for reporting a service indication message, comprising: acquiring, by a base station, in one scenario, a broadcast/multicast service, MBMS, interest indication reported by a user equipment, wherein the MBMS interest indication comprises an MBMS frequency selected by the user equipment, or an MBMS frequency and an MBMS service identifier that are selected by the user equipment; and performing (102, 204), by the base station, an MBMS handover on the user equipment according to the MBMS interest indication, wherein the MBMS handover is to hand over the user equipment to a cell in which the MBMS frequency is located, characterized in that the scenario comprises: when the user equipment receives modified MBMS auxiliary information, wherein the modified MBMS auxiliary information comprises a changed range of MBMS frequencies supported by the base station. acquiring, by a base station, in one scenario, a broadcast/multicast service, MBMS, interest indication reported by a user equipment, wherein the MBMS interest indication comprises an MBMS frequency selected by the user equipment, or an MBMS frequency and an MBMS service identifier that are selected by the user equipment; and performing (102, 204), by the base station, an MBMS handover on the user equipment according to the MBMS interest indication, wherein the MBMS handover is to hand over the user equipment to a cell in which the MBMS frequency is located, characterized in that the scenario comprises: when the user equipment receives modified MBMS auxiliary information, wherein the modified MBMS auxiliary information comprises a changed range of MBMS frequencies supported by the base station.
Device for analyzing particles, comprising • a glass capillary tube as a measuring cell, comprising a hollow channel for receiving or conducting a measurement sample containing the particles, said hollow channel having a hollow-channel longitudinal axis and a hollow-channel inner wall, • a light source for generating a light beam and an optical apparatus for coupling the light beam into the hollow channel at a coupling site for the purpose of illuminating the measurement sample, the light beam having an angle of incidence Φ with respect to the hollow-channel longitudinal axis of less than 2° when entering the hollow channel, and • a detector for detecting scattered light emerging from the hollow channel, characterized in that • the hollow channel has an internal diameter D H in the range from 10 μm to 60 μm, and • the light beam has a radial light intensity distribution having a minimum beam diameter D L, wherein the following applies to the diameter ratio D L /D H: 0.05 < D L /D H < 2.00. • a glass capillary tube as a measuring cell, comprising a hollow channel for receiving or conducting a measurement sample containing the particles, said hollow channel having a hollow-channel longitudinal axis and a hollow-channel inner wall, • a light source for generating a light beam and an optical apparatus for coupling the light beam into the hollow channel at a coupling site for the purpose of illuminating the measurement sample, the light beam having an angle of incidence Φ with respect to the hollow-channel longitudinal axis of less than 2° when entering the hollow channel, and • a detector for detecting scattered light emerging from the hollow channel, characterized in that • the hollow channel has an internal diameter D H in the range from 10 μm to 60 μm, and • the light beam has a radial light intensity distribution having a minimum beam diameter D L, wherein the following applies to the diameter ratio D L /D H: 0.05 < D L /D H < 2.00.
Compressor assembly for a compressor of a gas turbine, the compressor assembly comprising: - a compressor outer casing comprising at least one blow-off opening; - a vane carrier (30, 40) defining a bleed duct; the compressor assembly being arranged such that the outer casing and the vane carrier (30, 40) define a cavity for gathering a flow of fluid, said cavity being adapted to receive the fluid through said bleed duct and to feed the fluid externally through said blow-off opening, the compressor assembly comprises a separator element located in said cavity such to divide said cavity in two sub-cavities (61, 62); the first sub-cavity being in fluidly connection with said bleed duct and with said blow-off opening; the second sub-cavity being sealed by said vane carrier (30, 40), said compressor outer casing and said separator element; said separator element extending along a radial direction R of the compressor. - a compressor outer casing comprising at least one blow-off opening; - a vane carrier (30, 40) defining a bleed duct; the compressor assembly being arranged such that the outer casing and the vane carrier (30, 40) define a cavity for gathering a flow of fluid, said cavity being adapted to receive the fluid through said bleed duct and to feed the fluid externally through said blow-off opening,
Assembly consisting of a handle and its strap for a ski stick or walking stick, the handle of longitudinal axis (X, X') comprises a front part and a rear part, whereas the strap is fixed to said rear part of the handle by fastening means, characterised in that the fastening means are pivotable about a transverse axis (T, T') relative to the longitudinal axis (X, X') along an entire rotation so that the strap can pivot about a transverse axis (T, T') relative to the longitudinal axis (X, X') along an entire rotation, the transverse axis (T, T') being directed from the front towards the rear of the handle.
A method for separating electrical measurement signals, the method comprising: obtaining electrical measurement signals acquired from a plurality of transducers coupled to a surface of an object; wherein the transducers deliver electrical current continuously or in modulation such that excitations are applied across a temporal frequency range to the surface of the object to generate an electromagnetic field and surface potentials within the object to determine electrical impedance; constructing a system matrix to define one or more relationships between the electrical measurement signals; characterised in that the method further comprises: decomposing the system matrix to separate the electrical measurement signals; and identifying at least one of physiological parameters or non-physiological parameters using the separated electrical measurement signals. obtaining electrical measurement signals acquired from a plurality of transducers coupled to a surface of an object; wherein the transducers deliver electrical current continuously or in modulation such that excitations are applied across a temporal frequency range to the surface of the object to generate an electromagnetic field and surface potentials within the object to determine electrical impedance; constructing a system matrix to define one or more relationships between the electrical measurement signals; characterised in that the method further comprises: decomposing the system matrix to separate the electrical measurement signals; and identifying at least one of physiological parameters or non-physiological parameters using the separated electrical measurement signals. decomposing the system matrix to separate the electrical measurement signals; and identifying at least one of physiological parameters or non-physiological parameters using the separated electrical measurement signals.
An electric generator system having a turbine in connection with a generator and a compressor for converting energy fed to the turbine into electric energy with the generator and for using the energy fed to the turbine to compress air with the compressor, a combustion chamber arranged to receive compressed air via a first input valve from the compressor and fuel via a second input valve from a fuel tank to initiate a combustion process, the stream of combustion products and compressed air created in the combustion chamber being expelled via an output valve, the input valves (101, 102) and the output valve being controlled for running a combustion process cycle in the combustion chamber, a control system for controlling the input valves (101, 102) and the output valve in a time dependent manner for running an intermittent combustion process cycle comprising a compression phase and an expansion phase in the combustion chamber, characterized in that the system further comprises a steam tank for accumulating steam, a heat exchanger for capturing thermal energy of the steam, a condenser for condensing the steam into water, a water tank for accumulating the water, and means for pumping the water from the water tank to the heat exchanger for vaporizing the water into steam which is arranged to flow into the steam tank, a heat recovery unit and an ejector, the heat recovery unit being connected thermally to the combustion chamber so that the combustion chamber heats up the recovery unit in which the heat is conveyed to steam flowing through the heat recovery unit, the steam that has been heated in the heat recovery unit being directed to the ejector, the ejector receiving as a first input the steam from the heat recovery unit and as a second input the stream of combustion products and compressed air from the combustion chamber, whereby the steam from the heat recovery unit is superheated by the stream of combustion products and compressed air in the ejector causing rapid expansion of the steam and the mixture of superheated steam and the stream of combustion products and compressed air are directed from the ejector to the turbine in order to rotate a rotor of the turbine.
A wireless power receiver wirelessly receiving power from a wireless power transmitter, the wireless power receiver comprising: a receiving unit receiving the power from the wireless power transmitter using resonance; and a rectifying unit rectifying the power received therein from the receiving unit to supply the power to a load side, characterized in that the rectifying unit changes an output impedance of the wireless power receiver, wherein the rectifying unit comprises: a bridge diode comprising four diodes connected to each other; and a switch changing a flow of current input from the receiving unit to the bridge diode, and wherein the bridge diode changes the output impedance according as the flow of current is changed. a receiving unit receiving the power from the wireless power transmitter using resonance; and a rectifying unit rectifying the power received therein from the receiving unit to supply the power to a load side, characterized in that the rectifying unit changes an output impedance of the wireless power receiver, wherein the rectifying unit comprises: a bridge diode comprising four diodes connected to each other; and a switch changing a flow of current input from the receiving unit to the bridge diode, and a bridge diode comprising four diodes connected to each other; and a switch changing a flow of current input from the receiving unit to the bridge diode, and wherein the bridge diode changes the output impedance according as the flow of current is changed.
A high hardness amorphous composite, consisting of: a basic alloy component, consisting of 45-60 mole% Zr, 5-10 mole% Hf, 5-15 mole% Al, 8-22 mole% Ni and 6-14 mole% Cu; a hard additive being ZrC or WC nanometer powder with addition amount at 12-26 wt% of the basic alloy component, particle diameter of the ZrC or WC nanometer powder being 10-100 nm; and a bonding additive being any one or two selected from groups of Re, W or Mo with addition amount at 4-8 wt% of the basic alloy component; optionally further comprising B or Si with addition amount at 0.5-2 wt% of the basic alloy component; and optionally further comprising Nd with addition amount at 0.5-2 wt% of the basic alloy component. a basic alloy component, consisting of 45-60 mole% Zr, 5-10 mole% Hf, 5-15 mole% Al, 8-22 mole% Ni and 6-14 mole% Cu; a hard additive being ZrC or WC nanometer powder with addition amount at 12-26 wt% of the basic alloy component, particle diameter of the ZrC or WC nanometer powder being 10-100 nm; and a bonding additive being any one or two selected from groups of Re, W or Mo with addition amount at 4-8 wt% of the basic alloy component; optionally further comprising B or Si with addition amount at 0.5-2 wt% of the basic alloy component; and optionally further comprising Nd with addition amount at 0.5-2 wt% of the basic alloy component.
A method of controlling a first wind power installation (2, 100) including - detecting an internal fault signal (F INT) which is produced in the first wind power installation and which indicates a disturbance in the first wind power installation, - receiving at least one external fault signal (F EX) which is produced outside the first wind power installation and which indicates a disturbance in another wind power installation, and - evaluating the internal fault signal (F INT) in dependence on the at least one external fault signal (F EX), wherein upon evaluation of the internal fault signal (F INT) it is assumed that a disturbance is not present if the internal fault signal (F INT) indicates a disturbance and the at least one external or at least one of the external fault signals (F EX) respectively indicates a similar disturbance in the respective external wind power installation. - detecting an internal fault signal (F INT) which is produced in the first wind power installation and which indicates a disturbance in the first wind power installation, - receiving at least one external fault signal (F EX) which is produced outside the first wind power installation and which indicates a disturbance in another wind power installation, and - evaluating the internal fault signal (F INT) in dependence on the at least one external fault signal (F EX), wherein