mhurhangee/ep-ind-claims huggingface dataset:
A method for cooling a rolling ingot made of an aluminium alloy with typical dimensions of 250 to 800 mm in thickness, 1000 to 2000 mm in width and 2000 to 8000 mm in length, after the heat treatment for the metallurgical homogenisation of said ingot at a temperature typically comprised between 450 to 600°C depending on the alloys and before hot-rolling thereof, the cooling representing a value of between 30 and 150°C, characterised in that the cooling is carried out at a speed of between 150 and 500°C/h, with a thermal difference of less than 40°C over the entire ingot cooled from its homogenisation temperature and wherein the cooling homogeneity across the width of the ingot is controlled by: a) the control of the sprinkling width in the transverse direction of the ingot, by the number of activated nozzles or the use of screens, b) a spraying method favouring the lateral evacuation of the cooling liquid sprayed on the upper face. a) the control of the sprinkling width in the transverse direction of the ingot, by the number of activated nozzles or the use of screens, b) a spraying method favouring the lateral evacuation of the cooling liquid sprayed on the upper face.
A method for monitoring the performance of a location-based service in a mobile telecommunications network including nodes (104, 105, 108, 109, 110) providing both positioning and location-based service information relating to a subscriber, comprising: performing passive monitoring of the location-based service by a monitoring device connected to interfaces (106, 107, 112, 114) of the network; capturing both location-based service and positioning related information by the monitoring device; processing the captured information in the monitoring device; calculating by the monitoring device key performance indicators and/or measures of service usage information relating to the combination of positioning information and location-based service response time. performing passive monitoring of the location-based service by a monitoring device connected to interfaces (106, 107, 112, 114) of the network; capturing both location-based service and positioning related information by the monitoring device; processing the captured information in the monitoring device; calculating by the monitoring device key performance indicators and/or measures of service usage information relating to the combination of positioning information and location-based service response time.
A structural composite fan exit guide vane segment comprising: a monolithic component having an inner diameter shroud; an outer diameter shroud; and a plurality of fan exit guide vanes (252,254) connecting said inner diameter shroud and said outer diameter shroud. a monolithic component having an inner diameter shroud; an outer diameter shroud; and a plurality of fan exit guide vanes (252,254) connecting said inner diameter shroud and said outer diameter shroud.
Process for the production of a housing for an electrochemical element, comprising the following steps: a) molding of a metallic housing structure, b) applying an insulation foil (2, 3) by adhesive bonding to at least one external area (S, B) of the housing structure, and c) applying another insulation foil by adhesive bonding to the insulation foil previously applied by adhesive bonding, wherein the insulation foil (2, 3) used in step b) or c) comprises a layer system made of at least one base layer and of at least one adhesive layer, characterized in that the at least one base layer and/or the at least one adhesive layer comprises at least one additive configured to increase thermal conductivity. a) molding of a metallic housing structure, b) applying an insulation foil (2, 3) by adhesive bonding to at least one external area (S, B) of the housing structure, and c) applying another insulation foil by adhesive bonding to the insulation foil previously applied by adhesive bonding,
Organic electroluminescent device comprising cathode, anode and at least one emitting layer comprising a sterically shielded fluorescent compound, wherein the emitting layer or a layer adjoining the emitting layer contains a luminescent organic compound having a gap between the lowest triplet state T 1 and the first excited singlet state S 1 of ≤ 0.30 eV (TADF compound), where the peak emission wavelength of the sterically shielded fluorescent compound is greater than or equal to the peak emission wavelength of the TADF compound; where the peak emission wavelength is determined by dissolving the material in toluene in a concentration of 0.5 mg/100 ml and exciting the solution with a wavelength of 350 nm at room temperature in a fluorescence spectrometer, where the peak emission wavelength is the wavelength at which the emission spectrum obtained reaches its maximum value, characterized in that the sterically shielded fluorescent compound has a shielding parameter S ≤ 0.6, where the shielding parameter is determined as defined in 6) in the general description of the determination of the relevant parameters.
Process for producing alkoxyphenol from hydroxyphenol, characterized in that it comprises a reaction for O-alkylation of at least one hydroxyphenol to give at least one alkoxyphenol, said reaction being carried out using an O-alkylating agent, an aqueous solvent comprising a Bröensted base, and an organic solvent, with a base/O-alkylating agent ratio of between 0.5 and 1.5 in moles of base per mole of O-alkylating agent, an O-alkylating agent/hydroxyphenol ratio of between 0.5 and 2 mol of O-alkylating agent per mole of hydroxyphenol, and an organic solvent/hydroxyphenol ratio of less than 150 ml of organic solvent per mole of hydroxyphenol, said alkoxyphenol being chosen from methoxyphenol, ethoxyphenol, propoxyphenol, isopropoxyphenol and tert-butoxyphenol; the O-alkylating agent being respectively chosen from O-methylating, O-ethylating, O-propylating, O-isopropylating and O-tert-butylating agents.
A powder inhaler device comprising: a body that is provided with a dispenser orifice; a plurality of predosed reservoirs each containing a dose of powder for dispensing; and reservoir-opening means (30; 50; 18) for opening a reservoir on each actuation; the device further comprising a dispersion chamber including an inlet connected during inhalation to an open reservoir and receiving the flow of air and of powder from said open reservoir via a delivery channel, and an outlet connected to said dispenser orifice via a dispenser channel, said dispersion chamber including at least one ball that is movable along a ball path in said dispersion chamber, said dispersion chamber including at least one air inlet that is approximately tangential to said ball path, said device being characterized in that said delivery and dispenser channels (60 and 80) extend in a same direction that is substantially perpendicular to said ball path and to said at least one tangential air inlet.
A training system for training an autonomous vehicle with the aid of at least one traffic scenario, comprising: a memory; a radar scenario simulator; at least two antennas (33a, 33b); an optical scenario simulator; and a screen; and wherein the memory is configured to store the at least one traffic scenario and to simultaneously provide the at least one traffic scenario to the radar scenario simulator and the optical scenario simulator, wherein the radar scenario simulator is configured to provide a radar representation of the at least one traffic scenario by receiving a first number of radar signals from at least one radar sensor of the autonomous vehicle via the at least two antennas (33a, 33b), by simulating the at least one traffic scenario by manipulating the first number of radar signals according to the at least one traffic scenario and generating a second number of manipulated radar signals, and by transmitting the second number of manipulated radar signals to the at least one radar sensor of the autonomous vehicle via the at least two antennas (33a, 33b), and wherein the optical scenario simulator is configured to simultaneously provide an optical representation of the at least one traffic scenario on the screen, whereby the screen is located between the radar sensor and the at least two antennas (33a, 33b), wherein the screen is transparent with respect to the first and the second number of radar signals. a memory; a radar scenario simulator; at least two antennas (33a, 33b); an optical scenario simulator; and a screen; and wherein the memory is configured to store the at least one traffic scenario and to simultaneously provide the at least one traffic scenario to the radar scenario simulator and the optical scenario simulator, wherein the radar scenario simulator is configured to provide a radar representation of the at least one traffic scenario by receiving a first number of radar signals from at least one radar sensor of the autonomous vehicle via the at least two antennas (33a, 33b), by simulating the at least one traffic scenario by manipulating the first number of radar signals according to the at least one traffic scenario and generating a second number of manipulated radar signals, and by transmitting the second number of manipulated radar signals to the at least one radar sensor of the autonomous vehicle via the at least two antennas (33a, 33b), and wherein the optical scenario simulator is configured to simultaneously provide an optical representation of the at least one traffic scenario on the screen, whereby the screen is located between the radar sensor and the at least two antennas (33a, 33b), wherein the screen is transparent with respect to the first and the second number of radar signals.
A method of reducing carbonyl sulfide waste product in a manufacturing process that produces waste metal halides and carbonyl sulfide as waste products, said method comprising: (a) separating said waste products into a first stream containing said waste metal halides and a second stream containing said carbonyl sulfide; (b) combining said first stream with a liquid such that said waste metal halides are dissolved in said liquid to produce a metal halide solution; (c) hydrolyzing said second stream so that at least a portion of said carbonyl sulfide is converted into hydrogen sulfide and carbon dioxide; and (d) contacting said hydrogen sulfide with a first portion of said metal halide solution under sulfidation conditions to produce a sulfidation stream containing metal sulfide. (a) separating said waste products into a first stream containing said waste metal halides and a second stream containing said carbonyl sulfide; (b) combining said first stream with a liquid such that said waste metal halides are dissolved in said liquid to produce a metal halide solution; (c) hydrolyzing said second stream so that at least a portion of said carbonyl sulfide is converted into hydrogen sulfide and carbon dioxide; and (d) contacting said hydrogen sulfide with a first portion of said metal halide solution under sulfidation conditions to produce a sulfidation stream containing metal sulfide.
An attachment method in an ad hoc mobile network based on wireless cellular technology, of the type including a plurality of nodes (i), each node including an access point module and at least one relay terminal module, a relay terminal module of one node being able to discover the access point module of neighboring nodes and initiate an attachment process with an access point module of a selected neighboring node, a relay terminal module of one node being attached at most to an access point module of a neighboring node, characterized in that it includes the following steps: - at each node (i), acquiring a geographic position of the node and sending, via a service radiocommunication infrastructure, the acquired geographical position to a processing unit; - at the processing unit, computing an optimal topology of the network by modifying the possible attachments between nodes considered to be neighboring based on their relative geographic position, selecting, from the optimal topology, for each node (i), the neighboring node (j) to which the considered node must connect, and sending to each node an identifier of the selected neighboring node; and - at each node, commanding the relay terminal module of the node (i) to initiate an attachment process to the access point module of the selected neighboring node (j) indicated by the processing unit. - at each node (i), acquiring a geographic position of the node and sending, via a service radiocommunication infrastructure, the acquired geographical position to a processing unit; - at the processing unit, computing an optimal topology of the network by modifying the possible attachments between nodes considered to be neighboring based on their relative geographic position, selecting, from the optimal topology, for each node (i), the neighboring node (j) to which the considered node must connect, and sending to each node an identifier of the selected neighboring node; and - at each node, commanding the relay terminal module of the node (i) to initiate an attachment process to the access point module of the selected neighboring node (j) indicated by the processing unit.
Rolling bearing comprising an exterior member and an interior member delimiting between them a rolling space in which rolling bodies are disposed so as to allow the relative rotation of said interior member with respect to said exterior member, said interior member comprising a ring having a raceway and an interior wall which is associated around an exterior bearing surface of a hub of said interior member, said bearing surface comprising a groove in which an annular member is arranged by having an interior segment axially immobilised in said groove and an exterior segment that projects from said groove to form an axial abutment of the association of the ring on the hub, the interior member being equipped with an encoder having a track capable of generating a signal representative of its rotation, said encoder comprising a reinforcement for rotatably securing to the interior member, said bearing being characterised in that the securing reinforcement has a stop section that is interposed between the interior ring and the exterior segment of the ring, said interior ring being in axial abutment on said exterior segment by means of said stop section.
An aqueous dispersion comprising a microcapsule and water, the microcapsule comprising: a shell having a three-dimensional cross-linked structure comprising at least one neutralized acid group and at least one bond selected from a urethane bond or a urea bond, in which a degree of neutralization of the acid group included in the three-dimensional cross-linked structure is from 50% to 100%; and a core, at least one of the shell or the core comprising a polymerizable group, and the acid group is neutralized by an alkali metal salt. a shell having a three-dimensional cross-linked structure comprising at least one neutralized acid group and at least one bond selected from a urethane bond or a urea bond, in which a degree of neutralization of the acid group included in the three-dimensional cross-linked structure is from 50% to 100%; and a core, at least one of the shell or the core comprising a polymerizable group, and the acid group is neutralized by an alkali metal salt.
An apparatus (100, 200) comprising: input nodes (111 0, 111 1, 111 2, 111 3, 112 0, 112 1, 112 2, 112 3, 212 0, 212 1, 212 2, 212 3) to receive input signals (IN1, IN2, IN1 0, IN1 1, IN1 2, IN1 3, IN2 0, IN2 1, IN2 2, IN2 3); output nodes to provide output signals (OUT1 0, OUT1 1, OUT1 2, OUT1 3, OUT2 0, OUT2 1, OUT2 2, and OUT2 3); a first stage including a first pair of input transistors (431a, 431b), the first pair of input transistors (431a, 431b) including gates coupled to the input nodes (111 0, 111 1, 111 2, 111 3, 112 0, 112 1, 112 2, 112 3, 212 0, 212 1, 212 2, 212 3); a second stage including a second pair of input transistors (441a, 441b), the second pair of input transistors (441a, 441b) including gates coupled to the input nodes (111 0, 111 1, 111 2, 111 3, 112 0, 112 1, 112 2, 112 3, 212 0, 212 1, 212 2, 212 3); and a third stage including inverters (401, 402) coupled to the output nodes, the inverters (401, 402) coupled to the first and second stages (430, 440) at same nodes to switch the output signals (OUT1 0, OUT1 1, OUT1 2, OUT1 3, OUT2 0, OUT2 1, OUT2 2, and OUT2 3) between different voltages based on the input signals (IN1, IN2, IN1 0, IN1 1, IN1 2, IN1 3, IN2 0, IN2 1, IN2 2, IN2 3), wherein the second stage is arranged to receive a signal to deactivate the second stage during operation of the first and second stages (430, 440). input nodes (111 0, 111 1, 111 2, 111 3, 112 0, 112 1, 112 2, 112 3, 212 0, 212 1, 212 2, 212 3) to receive input signals (IN1, IN2, IN1 0, IN1 1, IN1 2, IN1 3, IN2 0, IN2 1, IN2 2, IN2 3); output nodes to provide output signals (OUT1 0, OUT1 1, OUT1 2, OUT1 3, OUT2 0, OUT2 1, OUT2 2, and OUT2 3); a first stage including a first pair of input transistors (431a, 431b), the first pair of input transistors (431a, 431b) including gates coupled to the input nodes (111 0, 111 1, 111 2, 111 3, 112 0, 112 1, 112 2, 112 3, 212 0, 212 1, 212 2, 212 3); a second stage including a second pair of input transistors (441a, 441b), the second pair of input transistors (441a, 441b) including gates coupled to the input nodes (111 0, 111 1, 111 2, 111 3, 112 0, 112 1, 112 2, 112 3, 212 0, 212 1, 212 2, 212 3); and a third stage including inverters (401, 402) coupled to the output nodes, the inverters (401, 402) coupled to the first and second stages (430, 440) at same nodes to switch the output signals (OUT1 0, OUT1 1, OUT1 2, OUT1 3, OUT2 0, OUT2 1, OUT2 2, and OUT2 3) between different voltages based on the input signals (IN1, IN2, IN1 0, IN1 1, IN1 2, IN1 3, IN2 0, IN2 1, IN2 2, IN2 3), wherein the second stage is arranged to receive a signal to deactivate the second stage during operation of the first and second stages (430, 440).
An industrial process transmitter comprising: a housing comprising a sensor housing and a transmitter housing that is displaced from the sensor housing along a central axis; sensor circuitry contained in the sensor housing and configured to sense a process parameter and generate a sensor output that is indicative of the sensed process parameter; transmitter circuitry contained in the transmitter housing and configured to communicate the sensed process parameter to an external unit; and a radiation shield substantially surrounding the sensor housing containing the sensor circuitry, the radiation shield configured to shield the sensor circuitry from gamma radiation. a housing comprising a sensor housing and a transmitter housing that is displaced from the sensor housing along a central axis; sensor circuitry contained in the sensor housing and configured to sense a process parameter and generate a sensor output that is indicative of the sensed process parameter; transmitter circuitry contained in the transmitter housing and configured to communicate the sensed process parameter to an external unit; and a radiation shield substantially surrounding the sensor housing containing the sensor circuitry, the radiation shield configured to shield the sensor circuitry from gamma radiation.
A method of operating a wireless communication device, comprising: identifying a physical uplink control channel, PUCCH, format for transmission of uplink control information, UCI, in unlicensed spectrum, wherein the PUCCH format is short PUCCH, wherein the short PUCCH occupies less than 1 subframe in the time domain, spans an entire system bandwidth in the frequency domain with interlacing on a resource block level and comprises at least one demodulation reference signal, DMRS, symbol and at least one control-data symbol in the time domain; and transmitting the UCI to a radio access node in accordance with the identified PUCCH format. identifying a physical uplink control channel, PUCCH, format for transmission of uplink control information, UCI, in unlicensed spectrum, wherein the PUCCH format is short PUCCH, wherein the short PUCCH occupies less than 1 subframe in the time domain, spans an entire system bandwidth in the frequency domain with interlacing on a resource block level and comprises at least one demodulation reference signal, DMRS, symbol and at least one control-data symbol in the time domain; and transmitting the UCI to a radio access node in accordance with the identified PUCCH format.
A method for determining the genotype of a Dirofilaria immitis nematode, the method comprising: a) contacting a Dirofilaria immitis nucleic acid molecule with at least one oligonucleotide having a length of at least 15 nucleotides of SEQ ID NO: 118 or a reverse complement thereof; wherein the at least one oligonucleotide includes the polymorphic site of position 151 of SEQ ID NO:118; wherein the at least one oligonucleotide further includes a detectable label; and b) detecting an alternative nucleotide at position 151 of SEQ ID NO: 118 in the Dirofilaria immitis nematode nucleic acid molecule. a) contacting a Dirofilaria immitis nucleic acid molecule with at least one oligonucleotide having a length of at least 15 nucleotides of SEQ ID NO: 118 or a reverse complement thereof; wherein the at least one oligonucleotide includes the polymorphic site of position 151 of SEQ ID NO:118; wherein the at least one oligonucleotide further includes a detectable label; and wherein the at least one oligonucleotide includes the polymorphic site of position 151 of SEQ ID NO:118; wherein the at least one oligonucleotide further includes a detectable label; and b) detecting an alternative nucleotide at position 151 of SEQ ID NO: 118 in the Dirofilaria immitis nematode nucleic acid molecule.
A microphone compatibility device working as a voltage-dependent current shunt, comprising: a sensor that detects a voltage along a conductive path between a microphone and an electronic device of a first or second type; and a voltage regulator that draws an additional current for satisfying a microphone detection current draw requirement of the first type of electronic device, and that prevents an additional current draw for the second type of electronic device having a lower microphone detection current draw requirement than the microphone detection current draw requirement of the first type of electronic device. a sensor that detects a voltage along a conductive path between a microphone and an electronic device of a first or second type; and a voltage regulator that draws an additional current for satisfying a microphone detection current draw requirement of the first type of electronic device, and that prevents an additional current draw for the second type of electronic device having a lower microphone detection current draw requirement than the microphone detection current draw requirement of the first type of electronic device.
A process for preparing C 4 -oxygenates, which comprises reaction of ethene with ethanol to form 2-butanol under conditions under which ethanol is present in the supercritical state wherein the reaction of ethene with ethanol takes place at a temperature in the range from 280°C to 300°C and at a pressure in the range from 25 MPa to 30 MPa.