mhurhangee/ep-ind-claims huggingface dataset:
A computerized method comprising: receiving, by a user apparatus, identifying information from a first device in a discoverable mode over a local connection network, the local connection network using a short range wireless technology; causing, by the user apparatus, sending an inquiry to a database server over a communication network (102, 202), the inquiry comprising the identifying information of the first device and both a username and a password of a user of the user apparatus; receiving, by the user apparatus, in a response to the inquiry a code required for pairing to the first device; causing, by the user apparatus, sending the code received in the response to the first device during a two-way ad hoc connection pairing to the first device; comparing, by the first device, the received code with one or more codes for pairing in the memory of the first device; in response to the received code being the same as a code for pairing in the memory, establishing, by the first device, an ad hoc connection with the user apparatus; detecting, by the first device, that trusting devices have been determined for the code in the memory; causing establishing (12-8,12-8ʹ), by the first device, over the local connection network, a connection from the first device to each trusting device without any further user input; causing, by the first device, sending information on the trusting devices to the user apparatus for providing the user apparatus with an access to the trusting devices via the first device without any further user input. receiving, by a user apparatus, identifying information from a first device in a discoverable mode over a local connection network, the local connection network using a short range wireless technology; causing, by the user apparatus, sending an inquiry to a database server over a communication network (102, 202), the inquiry comprising the identifying information of the first device and both a username and a password of a user of the user apparatus; receiving, by the user apparatus, in a response to the inquiry a code required for pairing to the first device; causing, by the user apparatus, sending the code received in the response to the first device during a two-way ad hoc connection pairing to the first device; comparing, by the first device, the received code with one or more codes for pairing in the memory of the first device; in response to the received code being the same as a code for pairing in the memory, establishing, by the first device, an ad hoc connection with the user apparatus; detecting, by the first device, that trusting devices have been determined for the code in the memory; causing establishing (12-8,12-8ʹ), by the first device, over the local connection network, a connection from the first device to each trusting device without any further user input; causing, by the first device, sending information on the trusting devices to the user apparatus for providing the user apparatus with an access to the trusting devices via the first device without any further user input.
A consumable cartridge (100, 150) for use with a plasma arc cutting system, the cartridge comprising: a housing (105, 135); an arc constrictor (110, 160), which includes a nozzle; an arc emitter (115, 165), which includes an electrode, said arc emitter being disposed within the housing; and a connection mechanism for coupling the cartridge to a plasma arc torch; characterized in that the consumable cartridge further comprises an identification mechanism (120, 170) which is a radio frequency identification (RFID) tag that is configured to store information in the form of digital data, the information comprising an operating parameter for at least one of a cutting current, a pilot arc current, a plasma gas flow rate, or a shield gas flow rate. a housing (105, 135); an arc constrictor (110, 160), which includes a nozzle; an arc emitter (115, 165), which includes an electrode, said arc emitter being disposed within the housing; and a connection mechanism for coupling the cartridge to a plasma arc torch; characterized in that the consumable cartridge further comprises an identification mechanism (120, 170) which is a radio frequency identification (RFID) tag that is configured to store information in the form of digital data, the information comprising an operating parameter for at least one of a cutting current, a pilot arc current, a plasma gas flow rate, or a shield gas flow rate.
A carbon capture system (100;300;400) for processing a stream of flue gas, said system comprising: a multi-stage flue gas compressor comprising at least a first intercooler and an aftercooler; a multi-stage carbon dioxide compressor downstream from said flue gas compressor, said carbon dioxide compressor comprising at least a second intercooler and a turndown cooler; a carbon dioxide condenser downstream from said carbon dioxide compressor; a first coolant line (150;306;404) coupled in flow communication to said first intercooler, to said second intercooler, and to said carbon dioxide condenser, said first coolant line (150;306;404) removing heat from the flue gas stream using a first coolant stream (198;348;446); a second coolant line (164;308;406) coupled in flow communication to at least one of said aftercooler and said turndown cooler, said second coolant line (164;308;406) removing heat from the flue gas stream using a second coolant stream (212;370;468) formed from one of the first coolant streams (150;306;404) discharged from said first intercooler, said second intercooler, and said carbon dioxide condenser; and a carbon dioxide purification system between said flue gas compressor and said carbon dioxide compressor, said carbon dioxide purification system comprising a chilled water cooler, said chilled water cooler coupled in flow communication to said second coolant line such that the second coolant stream is channeled therethrough. a multi-stage flue gas compressor comprising at least a first intercooler and an aftercooler; a multi-stage carbon dioxide compressor downstream from said flue gas compressor, said carbon dioxide compressor comprising at least a second intercooler and a turndown cooler; a carbon dioxide condenser downstream from said carbon dioxide compressor; a first coolant line (150;306;404) coupled in flow communication to said first intercooler, to said second intercooler, and to said carbon dioxide condenser, said first coolant line (150;306;404) removing heat from the flue gas stream using a first coolant stream (198;348;446); a second coolant line (164;308;406) coupled in flow communication to at least one of said aftercooler and said turndown cooler, said second coolant line (164;308;406) removing heat from the flue gas stream using a second coolant stream (212;370;468) formed from one of the first coolant streams (150;306;404) discharged from said first intercooler, said second intercooler, and said carbon dioxide condenser; and a carbon dioxide purification system between said flue gas compressor and said carbon dioxide compressor, said carbon dioxide purification system comprising a chilled water cooler, said chilled water cooler coupled in flow communication to said second coolant line such that the second coolant stream is channeled therethrough.
Heat-resistant alloy for production of aerosol cans from a material having the following contents of alloying additions in percent by weight: according to the standards EN 573-3 EN AW 1050A Si ≤ 0.25; Fe ≤ 0.40; Cu ≤ 0.05; Mn ≤ 0.05; Mg ≤ 0.05; Zn ≤ 0.07; Ti ≤ 0,05; or with more specific compositions - Si = 0.05÷0.09; Fe = 0.15÷0.27; Cu ≤ 0.005; Mn ≤ 0.005; Mg ≤ 0.005; Zn ≤ 0.015; Ti = 0.01÷0.03; characterized in that each composition contains added Zr in the amount ranging between 0.10 and 0.15% by weight, the sum of the contained amounts of all the secondary elements being ≤ 0,10% by weight and Al content is remainder. according to the standards EN 573-3 EN AW 1050A Si ≤ 0.25; Fe ≤ 0.40; Cu ≤ 0.05; Mn ≤ 0.05; Mg ≤ 0.05; Zn ≤ 0.07; Ti ≤ 0,05; or with more specific compositions - Si = 0.05÷0.09; Fe = 0.15÷0.27; Cu ≤ 0.005; Mn ≤ 0.005; Mg ≤ 0.005; Zn ≤ 0.015; Ti = 0.01÷0.03; - Si = 0.05÷0.09; Fe = 0.15÷0.27; Cu ≤ 0.005; Mn ≤ 0.005; Mg ≤ 0.005; Zn ≤ 0.015; Ti = 0.01÷0.03; characterized in that each composition contains added Zr in the amount ranging between 0.10 and 0.15% by weight, the sum of the contained amounts of all the secondary elements being ≤ 0,10% by weight and Al content is remainder.
A data processor configured to arrange data and a set of data resource descriptors in a cache memory, wherein the set of data resource descriptors comprises data resource descriptors of different types and different sizes, wherein the cache memory is linewise accessible by a data processing device, the data processor being configured to: determine a combined resource descriptor size and a cache line size such that one of those sizes is an integer multiple of the other one of those sizes; receive the data resource descriptors; define a plurality of non-overlapping storage areas in the cache memory, each storage area being aligned to either (i) a line of the cache or (ii) a location offset from a line of the cache by an integer multiple of the determined combined resource descriptor size; form a series of groups of data resource descriptors, each group being of a size less than or equal to the combined resource descriptor size; and store each group of data resource descriptors in a respective one of the plurality of the defined non-overlapping storage areas. determine a combined resource descriptor size and a cache line size such that one of those sizes is an integer multiple of the other one of those sizes; receive the data resource descriptors; define a plurality of non-overlapping storage areas in the cache memory, each storage area being aligned to either (i) a line of the cache or (ii) a location offset from a line of the cache by an integer multiple of the determined combined resource descriptor size; form a series of groups of data resource descriptors, each group being of a size less than or equal to the combined resource descriptor size; and store each group of data resource descriptors in a respective one of the plurality of the defined non-overlapping storage areas.
A backrest for a vehicle seat of a motor vehicle, especially a cabriolet, with a device integrated in the backrest for supplying an airflow, especially a warm airflow, to the shoulder, neck and/or head regions of a seated person, comprising an air duct in which a blower and a heating element (11, 12, 13) are incorporated and the exit opening of which is arranged in the region of the upper part of the backrest, wherein the air duct on the entry side is divided into at least two arms (5, 6) and a blower is arranged in each arm (5, 6), wherein the blowers in the entry regions of the arms (5, 6) are arranged in air intake openings (9, 10) flush with the contour of the air duct, characterised in that the blowers are designed as radial blowers.
Sensor system (100, 200, 300) for a steering wheel (10, 20) of a motor vehicle having at least one capacitive sensor device, at least one heating device and having at least one control device, wherein the capacitive sensor device has at least one electrically conductive sensor structure and is designed to detect a presence of a human hand in a gripping region of a steering wheel (10, 20), wherein the sensor system (100, 200, 300) is in a form such that the presence of a human hand in a detection region of the sensor structure causes a respective detectable change, associated with the sensor structure, in a capacitive coupling of the sensor structure to the surroundings and/or a reference electrode as compared with a reference state without the presence of a hand in the detection region of the sensor structure, wherein the heating device has at least one electrically conductive heating structure for heating the steering wheel (10, 20), and wherein the control device is designed to actuate the sensor device and/or to actuate the heating device, wherein the sensor system (100, 200, 300) is designed to actuate the sensor device and the heating device in a manner coordinated to one another, in particular coordinated to one another in terms of timing, characterized in that the sensor device and the heating device are actuatable in a manner coordinated to one another such that an interfering capacitive coupling of the sensor device to the heating device and/or, in a functionally compliant installed state of the sensor system (100, 200, 300) in a steering wheel (10, 20), to components of the steering wheel (10, 20), is reduced, in particular avoided, during the detection of a change in the capacitive coupling of the sensor structure to the surroundings and/or a reference electrode, wherein at least one heating structure is able to be switched off at all poles during the detection of a change in the capacitive coupling of the sensor structure to the surroundings and/or a reference electrode.
An LED light flux setting system (200, 650, 700, 750, 800, 850) comprising: a rectangular pulse generator system operatively configured to generate a generator output signal, the generator output signal formed as a base rectangular waveform (352, 354) gated by a modulating rectangular waveform (451, 502, 505, 551), the base rectangular waveform (352, 354) having a first frequency and a first duty cycle, and the modulating rectangular waveform (451, 502, 505, 551) having a second frequency less than the first frequency and a second duty cycle; a low-pass filter having a cutoff frequency and an order, the low-pass filter coupled to the rectangular pulse generator system and configured to receive a filter input signal representative of the generator output signal and being configured to produce a filter output signal (353, 355, 453, 503, 506, 552, 601) representative of the filter input signal with frequencies above the cutoff frequency being attenuated compared to frequencies below the cutoff frequency, wherein the cutoff frequency is between the first frequency and the second frequency; a voltage-controlled current source coupled to the low-pass filter and responsive to a control voltage signal representative of the filter output signal (353, 355, 453, 503, 506, 552, 601) for generating an LED drive signal having a current level representative of a voltage level of the control voltage signal; and at least one LED configured to conduct the LED drive signal, the at least one LED producing a light flux determined by the current level of the LED drive signal. a rectangular pulse generator system operatively configured to generate a generator output signal, the generator output signal formed as a base rectangular waveform (352, 354) gated by a modulating rectangular waveform (451, 502, 505, 551), the base rectangular waveform (352, 354) having a first frequency and a first duty cycle, and the modulating rectangular waveform (451, 502, 505, 551) having a second frequency less than the first frequency and a second duty cycle; a low-pass filter having a cutoff frequency and an order, the low-pass filter coupled to the rectangular pulse generator system and configured to receive a filter input signal representative of the generator output signal and being configured to produce a filter output signal (353, 355, 453, 503, 506, 552, 601) representative of the filter input signal with frequencies above the cutoff frequency being attenuated compared to frequencies below the cutoff frequency, wherein the cutoff frequency is between the first frequency and the second frequency; a voltage-controlled current source coupled to the low-pass filter and responsive to a control voltage signal representative of the filter output signal (353, 355, 453, 503, 506, 552, 601) for generating an LED drive signal having a current level representative of a voltage level of the control voltage signal; and at least one LED configured to conduct the LED drive signal, the at least one LED producing a light flux determined by the current level of the LED drive signal.
A geostationary anchoring and riser arrangement in a vessel comprising a body, which in a wet vessel area is rotatably mounted about a vertical axis by means of axial and radial, segmented annular bearings (31, 32) to the vessel, which body has a top side and a bottom side, guides (19, 20) for risers between the top side and the bottom side, is provided with an overlying fluid manifold connected to the risers, and is anchored to the seabed by a number of mooring cables, characterised by a dynamic primary seal between the body and the vessel, above the said axial/radial bearing (31, 32), and by a secondary seal between the body and the vessel, under the said bearing (31, 32).
A ball comprising a plurality of adjacent skin layers with water absorption, the skin layers have a surface portion, a peripheral wall portion extending downward from a peripheral edge of the surface portion, and a water absorbent outer skin adhered to the surface portion and the peripheral wall portion; and each of the skin layers is adhered or stitched to another skin layer of each adjacent skin layer; characterized in that the skin layers each have an extending portion extending from the peripheral wall portion toward the center. each of the skin layers is adhered or stitched to another skin layer of each adjacent skin layer;
A method for providing Non-Orthogonal Multiple Access (NOMA) in a wireless communication network, the method comprising: dynamically creating, by a base station, a plurality of user equipment groups within a network coverage area based on a modulation coding scheme for each user equipment, wherein each of the plurality of user equipment groups comprises a plurality of user equipment; determining, by the base station, an appropriate codeword for each of the plurality of user equipment groups wherein determining the appropriate codeword comprises correlating, for each of the plurality of user equipment groups, a codeword for each user equipment with a codeword for each of the other user equipment in a corresponding user equipment group and determining the appropriate codeword is based on at least one of a received signal power for each of the plurality of user equipment groups, and a signal to interference noise ratio (SINR) of each of the plurality of user equipment groups; and assigning, by the base station, the appropriate codeword to each of the plurality of user equipment groups. dynamically creating, by a base station, a plurality of user equipment groups within a network coverage area based on a modulation coding scheme for each user equipment, wherein each of the plurality of user equipment groups comprises a plurality of user equipment; determining, by the base station, an appropriate codeword for each of the plurality of user equipment groups wherein determining the appropriate codeword comprises correlating, for each of the plurality of user equipment groups, a codeword for each user equipment with a codeword for each of the other user equipment in a corresponding user equipment group and determining the appropriate codeword is based on at least one of a received signal power for each of the plurality of user equipment groups, and a signal to interference noise ratio (SINR) of each of the plurality of user equipment groups; and assigning, by the base station, the appropriate codeword to each of the plurality of user equipment groups.
Method for starting a hydroelectric turbine in a pumping mode, said turbine being provided with a runner mechanically coupled to a shaft line and a variable speed electric motor connected to a grid, a distributor comprising guide vanes to control a flow of water to said runner, the method comprising: a) a step of operating the variable speed motor at least partly at fixed speed, said guide vanes being only partially opened, said method further comprises, after step a), a step of operating the turbine in a power control mode, said method being characterised in that it also comprises defining or calculating: - data of a plurality of hydraulic characteristics (C 1, C 2, C i) of the turbine for an operation without cavitation; - data of an operation range of the electric motor, giving the speed of the motor as a function of its power the fixed speed of step a) being defined as the speed at which a hydraulic characteristic (C 1, C 2, C i) has an intersection with the operation range of the electric motor. a) a step of operating the variable speed motor at least partly at fixed speed, said guide vanes being only partially opened, said method further comprises, after step a), a step of operating the turbine in a power control mode, said method being characterised in that it also comprises defining or calculating: - data of a plurality of hydraulic characteristics (C 1, C 2, C i) of the turbine for an operation without cavitation; - data of an operation range of the electric motor, giving the speed of the motor as a function of its power the fixed speed of step a) being defined as the speed at which a hydraulic characteristic (C 1, C 2, C i) has an intersection with the operation range of the electric motor. said method further comprises, after step a), a step of operating the turbine in a power control mode, said method being characterised in that it also comprises defining or calculating: - data of a plurality of hydraulic characteristics (C 1, C 2, C i) of the turbine for an operation without cavitation; - data of an operation range of the electric motor, giving the speed of the motor as a function of its power the fixed speed of step a) being defined as the speed at which a hydraulic characteristic (C 1, C 2, C i) has an intersection with the operation range of the electric motor. - data of a plurality of hydraulic characteristics (C 1, C 2, C i) of the turbine for an operation without cavitation; - data of an operation range of the electric motor, giving the speed of the motor as a function of its power the fixed speed of step a) being defined as the speed at which a hydraulic characteristic (C 1, C 2, C i) has an intersection with the operation range of the electric motor.
A convertible service and recycling cart for food and beverage service and waste collection, comprising: a base; a first sidewall and a second sidewall each coupled to the base; a top support coupled to the first sidewall and the second sidewall; at least one opening defined in the top support; a lid removably coupled to the top support; and at least one container comprising a flange coupled to a first end of the at least one container, the at least one container being removably coupled to the at least one opening in the top support; at least one locking ring removably coupled to the flange of the container; wherein the flange and the at least one locking ring are configured to secure at least one bag with an open end of the at least one bag therebetween when the at least one bag is disposed in the at least one container. a base; a first sidewall and a second sidewall each coupled to the base; a top support coupled to the first sidewall and the second sidewall; at least one opening defined in the top support; a lid removably coupled to the top support; and at least one container comprising a flange coupled to a first end of the at least one container, the at least one container being removably coupled to the at least one opening in the top support; at least one locking ring removably coupled to the flange of the container; wherein the flange and the at least one locking ring are configured to secure at least one bag with an open end of the at least one bag therebetween when the at least one bag is disposed in the at least one container.