mhurhangee/ep-ind-claims huggingface dataset:
Burner for a gas turbine, having at least one air passage to which compressed air may be supplied and at least one fuel passage to which at least one fuel gas may be supplied, the two passages (26, 28) each comprising a main outlet opening (36, 38) leading into the combustion chamber of the gas turbine, the air passage and the fuel passage being connected fluidically together via at least one connection duct arranged upstream of the main outlet openings (36, 38), whereby the burner is configured such that, in at least one first operating state of the burner, when air passage is supplied with compressed air and fuel passage is supplied with fuel gas a portion of the fuel gas flowing in the fuel passage flows via at least one connection duct into the air passage and, for combustion thereof, may be introduced through the main outlet opening of the air passage into the interior of the combustion chamber and a remaining portion of the fuel gas may be introduced through the main outlet opening of the fuel passage into the interior of the combustion chamber, characterized in that at least one adjusting element is arranged in the region of the connection ducts, such that the fraction and/or the radial inflow profile and/or the division over the connection ducts of the fuel gas branched off from the fuel passage into the air passage is adjusted and/or adjustable by means of the at least one adjusting element, such that fluctuations in heat release are fed back to a lesser extent into the pressure fluctuations in the combustion chamber.
Device for hydraulic actuation of a motor vehicle friction clutch, comprising a manually activatable master cylinder, the actuation of which is sensed by a sensor and which has a master pressure chamber which in a rest setting is in fluid connection with a reservoir by way of a replenishing region, a slave arrangement, which has a slave pressure chamber and which comprises at least one slave cylinder operatively connected with the motor vehicle friction clutch, a pressure line for hydraulic connection of the master pressure chamber with the slave pressure chamber, a motor pump (32, M), which is hydraulically connected at the inlet side with the reservoir and the pump outlet of which is hydraulically connectible with the pressure line, an electrically actuable valve arrangement connected into the pressure line, and a control unit, with which the sensor, the motor pump (32, M) and the valve arrangement are electrically connected for manual and/or automatic actuation of the motor vehicle friction clutch, characterized in that the valve arrangement comprises in parallel connection an electrically actuable proportional valve and a first non-return valve blocking in the direction of the master pressure chamber, the motor pump (32, M) being hydraulically connected with the pressure line by way of a second non-return valve, which blocks in the direction of the motor pump (32, M), between the valve arrangement and the slave pressure chamber.
A method of a transmitting device with a configured or allocated source identity, wherein the source identity comprises a first part of the source identity and a second part of the source identity, the method comprising: the transmitting device generates a data packet for sidelink transmission, wherein the data packet includes the second part of the source identity; the transmitting device generates a control information associated with the data packet, wherein the control information includes the first part of the source identity; and the transmitting device transmits the control information and the data packet. the transmitting device generates a data packet for sidelink transmission, wherein the data packet includes the second part of the source identity; the transmitting device generates a control information associated with the data packet, wherein the control information includes the first part of the source identity; and the transmitting device transmits the control information and the data packet.
Combination comprising a compound of formula: wherein X1 and X2, identical or different, are chosen among a C 1 -C 7 alkyl group, a phenyl, a benzyl or X1 and X2 together with the nitrogen atom to which they are linked form an heterocycle, in particular a piperidine or a morpholine; or a pharmaceutical acceptable salt thereof; and a compound able to increase the H 2 O 2 level in cancer cells of a subject, for use for the treatment of cancer in a subject, wherein cancer cells of said subject: - have a H 2 O 2 level lower or equal to the H 2 O 2 level in normal cells originating from the same tissue of the same subject as the cancer cells, and - have a level of GSH below 0,5 nmol for 25 000 cells. - have a H 2 O 2 level lower or equal to the H 2 O 2 level in normal cells originating from the same tissue of the same subject as the cancer cells, and - have a level of GSH below 0,5 nmol for 25 000 cells.
A wireless communication system comprising a base band unit, BBU, and at least one remote radio head, RRH,, wherein the BBU and the at least one RRH connect to each other through an optical link, wherein the BBU includes a scheduler, an encoding unit and a transmission unit,wherein the scheduler is configured to generate control information for a process of a physical layer in wireless communication between the at least one RRH and a terminal and simultaneously output the control information to the encoding unit and the transmission unit, and the control information includes information indicating a modulation scheme, a coding rate, radio resources and transmission power; wherein the encoding unit is configured to generate encoded data by performing encoding on data to be transmitted to the terminal on a basis of the control information and output the encoded data to the transmission unit; wherein the transmission unit is configured to acquire the control information from the scheduler and transmit the control information to the at least one RRH through the optical link before the encoding unit finishes generating the encoded data, and the transmission unit is further configured to acquire the encoded data from the encoding unit and transmit the encoded data to the at least one RRH through the optical link, and wherein the at least one RRH includes: a reception unit configured to receive the control information and the encoded data from the BBU; and a signal processing unit configured to start reading the control information received by the reception unit before the encoded data arrives at the at least one RRH, the signal processing unit being further configured to perform signal processing for transmitting the encoded data received by the reception unit to the terminal on a basis of the control information received by the reception unit) as soon as the signal processing unit completes reading the control information. a reception unit configured to receive the control information and the encoded data from the BBU; and a signal processing unit configured to start reading the control information received by the reception unit before the encoded data arrives at the at least one RRH, the signal processing unit being further configured to perform signal processing for transmitting the encoded data received by the reception unit to the terminal on a basis of the control information received by the reception unit) as soon as the signal processing unit completes reading the control information.
A method for inspecting a portion of a part having a surface of unknown shape, the method comprising: (a) electrically pulsing different respective groups of transducer elements (E1-E64) of an array (44; 44a) in accordance with respective focal laws of a first set of focal laws to emit a plurality of focused beams (B1-B20) in sequence, said focused beams being directed from different angles (A1-A20) toward a same target location on the surface; (b) after each respective group of transducers (E1-E64) is pulsed, receiving electrical signals from the respective group in accordance with respective focal laws of a second set of focal laws to form a respective return signal representing a respective echo returned to a respective group from the inspected part; (c) processing said return signals to derive respective values of a parameter characterizing said return signals; and (d) selecting one of said respective parameter values that satisfies a first condition, wherein said parameter is amplitude and said first condition is having the greatest amplitude. (a) electrically pulsing different respective groups of transducer elements (E1-E64) of an array (44; 44a) in accordance with respective focal laws of a first set of focal laws to emit a plurality of focused beams (B1-B20) in sequence, said focused beams being directed from different angles (A1-A20) toward a same target location on the surface; (b) after each respective group of transducers (E1-E64) is pulsed, receiving electrical signals from the respective group in accordance with respective focal laws of a second set of focal laws to form a respective return signal representing a respective echo returned to a respective group from the inspected part; (c) processing said return signals to derive respective values of a parameter characterizing said return signals; and (d) selecting one of said respective parameter values that satisfies a first condition,
An ink composition comprising a liquid carrier, a colourant, a siloxane surfactant and a metal conductivity salt, wherein the siloxane surfactant is present in an amount of at least 0.3% by weight of the ink composition and the siloxane surfactant comprises a polyether modified siloxane surfactant, wherein the ink composition in the absence of the metal conductivity salt has a conductivity of less than 500 μS/cm.
A method of obtaining an abrasive product, the method comprising - providing a substrate (101, 201, 301) having a first surface (101a, 201a, 301a) and a second surface (101b, 201b, 301b, 501b), - providing abrasives (102, 202, 302) on the first surface (101a, 201a, 301a) of the substrate, - providing loops (103, 203, 303) on the second surface (101b, 201b, 301b, 501b) of the substrate, characterised by - providing a melted and/or burnt area (104, 404, 504) on the second surface (101b, 201b, 301b, 501b) of the substrate by melting and/or burning the loops, and - cutting the substrate (101, 201, 301) in order to provide the abrasive product. - providing a substrate (101, 201, 301) having a first surface (101a, 201a, 301a) and a second surface (101b, 201b, 301b, 501b), - providing abrasives (102, 202, 302) on the first surface (101a, 201a, 301a) of the substrate, - providing loops (103, 203, 303) on the second surface (101b, 201b, 301b, 501b) of the substrate, characterised by - providing a melted and/or burnt area (104, 404, 504) on the second surface (101b, 201b, 301b, 501b) of the substrate by melting and/or burning the loops, and - cutting the substrate (101, 201, 301) in order to provide the abrasive product.
A polypeptide which: (a) has asparaginase activity; (b) has at least 80% identity to amino acids 80 to 378 of SEQ ID NO: 1; and (c) comprises at least one of the following substitutions: 70K, 323R, 327V, 349Q, 351A and/or 353I; wherein each position corresponds to a position of amino acids 1-378 of SEQ ID NO: 1. (a) has asparaginase activity; (b) has at least 80% identity to amino acids 80 to 378 of SEQ ID NO: 1; and (c) comprises at least one of the following substitutions: 70K, 323R, 327V, 349Q, 351A and/or 353I; wherein each position corresponds to a position of amino acids 1-378 of SEQ ID NO: 1.
A terminal (100, 200), comprising: a touchscreen; wherein the touchscreen comprises: a basal layer, a first conductive layer, and a touch layer; and the touchscreen further comprises: an antenna layer, wherein the antenna layer is configured to dispose a frequency modulation FM antenna; characterized in that the touchscreen further comprises a second conductive layer and a separation layer, wherein the separation layer is configured to separate the antenna layer from the first conductive layer or the second conductive layer; and the antenna layer and the separation layer are disposed between the basal layer and the first conductive layer or disposed between the second conductive layer and the touch layer
A method of refueling of a tank of a vehicle with a hydrogen gas from a hydrogen refueling station, wherein the refueling includes: - connecting a hydrogen source with the vehicle tank by means of a hose, the flow of hydrogen gas in the hose being controlled by a controller controlling a valve, - initiating the refueling by determining the pressure of the vehicle tank, - opening the valve and monitoring the temperature and pressure of the hydrogen gas in the vehicle tank, - based on the monitored temperature and the monitored pressure establishing an estimated state of charge during the refueling, - a state of charge of 100% related to the vehicle tank being referred to as a tank rated density, - terminating the refueling of the vehicle tank by closing of the valve when the estimated state of charge reaches an upper state of charge (USOC), the upper state of charge (USOC) being above the tank rated density, the upper state of charge (USOC) being determined on the basis of a pre-estimated correction of state of charge (CSOC), the pre-estimated correction of state of charge (CSOC) designating a decrease of the estimated state of charge in the vehicle tank after the closing of the valve, - disconnecting the hose between the vehicle tank and the hydrogen source. - connecting a hydrogen source with the vehicle tank by means of a hose, the flow of hydrogen gas in the hose being controlled by a controller controlling a valve, - initiating the refueling by determining the pressure of the vehicle tank, - opening the valve and monitoring the temperature and pressure of the hydrogen gas in the vehicle tank, - based on the monitored temperature and the monitored pressure establishing an estimated state of charge during the refueling, - a state of charge of 100% related to the vehicle tank being referred to as a tank rated density, - terminating the refueling of the vehicle tank by closing of the valve when the estimated state of charge reaches an upper state of charge (USOC), the upper state of charge (USOC) being above the tank rated density, the upper state of charge (USOC) being determined on the basis of a pre-estimated correction of state of charge (CSOC), the pre-estimated correction of state of charge (CSOC) designating a decrease of the estimated state of charge in the vehicle tank after the closing of the valve, - disconnecting the hose between the vehicle tank and the hydrogen source.
A method for producing a modified polyvinyl acetal and comprising the steps of: step of bringing polyvinyl alcohol into contact with hydrogen peroxide in a basic solution for reduction in a degree of polymerization, thereby preparing a modified polyvinyl alcohol, and step of reacting the modified polyvinyl alcohol prepared in the step with aldehyde in a system acidified by an acid catalyst for acetalization of the modified polyvinyl alcohol, wherein the basic solution has a hydrogen peroxide concentration of not higher than 0.5 mol/L at the time of the contact of the polyvinyl alcohol and the hydrogen peroxide in the step, and wherein the modified polyvinyl acetal is a modified polyvinyl acetal obtainable by acetalization of a modified polyvinyl alcohol comprising at least one functional group selected from the group consisting of hydroxyl, aldehyde, carboxyl, and lactone ring groups at a molecular end, and having a degree of saponification of 99.95 mol% or higher and a 1,2-glycol bond content of 1.4 mol% or lower. step of bringing polyvinyl alcohol into contact with hydrogen peroxide in a basic solution for reduction in a degree of polymerization, thereby preparing a modified polyvinyl alcohol, and step of reacting the modified polyvinyl alcohol prepared in the step with aldehyde in a system acidified by an acid catalyst for acetalization of the modified polyvinyl alcohol,
Ophthalmological apparatus for working on eye tissue, comprising a laser source that is configured to produce a pulsed laser beam; a focusing optical unit that is configured to focus the pulsed laser beam into the eye tissue; a scanner system that is configured to steer the pulsed laser beam onto work target points in the eye tissue; and a circuit that is configured to control the scanner system in such a way that the scanner system steers the pulsed laser beam onto work target points in an area (21o, 21u) to be cut in a cornea, in work trajectories that extend next to one another, in order, initially, to produce cut trajectories, separated by remaining tissue bridges, of a tissue cut to be undertaken in the area (21o, 21u) and thereafter steers the pulsed laser beam onto work target points in the remaining tissue bridges between the cut trajectories in the area (21o, 21u) in order to complete the tissue cut, characterized in that the ophthalmological apparatus comprises a measurement system that is configured to optically capture structures in the eye tissue; and in that the circuit is configured to control the measurement system in such a way that the measurement system captures the produced cut trajectories and positions the work target points in the remaining tissue bridges on the basis of the captured cut trajectories.
"Grand date" display device arranged to be actuated by a date mechanism for a timepiece and comprising tens indication means arranged to selectively display four distinct indications, and units indication means arranged to selectively display the numerals from 1 to 9 and zero; characterized in that the units indication means comprise: - a first upper plate and a first lower plate at least partially superposed in a display area, the first upper plate being arranged to rotate in steps about an axis and bearing, a series formed of the following regularly angularly spaced eight characters: seven characters respectively formed by the numerals 1, 2, 3, 4, 5, 6 and 7 and an incomplete or absent eighth character, the eighth character being associated with at least a first opening (A8E, A8G) revealing the lower plate, the first lower platebeing arranged to rotate in steps about an axis and comprising, regularly angularly spaced characters or pieces of characters (P8, P9, P0), arranged to be visible when superposed in the display area, on said at least one first opening of the first upper plate, the first upper plate and the first lower plate being arranged to be driven to display in succession in the display area, first of all a complete first cycle formed of the sequence of numerals 1, 2, 3, 4, 5, 6, 7 displayed by the first upper plate, and then the sequence of numerals 8, 9, 0 each formed by superposing one of said characters or pieces of characters (P8, P9, P0) of the first lower plate on said at least one first opening (A8E, A8G) associated with the eighth character of the first upper plate, then a second complete cycle identical to the first complete cycle, and then another third irregular cycle formed of the sequences of numerals 1, 2, 3, 4, 5, 6, 7, completed, according to the length of the current month, first by all or part of said series of numerals 8, 9, 0, then finally, if necessary, the numeral 1 displayed by the first upper plate. - a first upper plate and a first lower plate at least partially superposed in a display area, the first upper plate being arranged to rotate in steps about an axis and bearing, a series formed of the following regularly angularly spaced eight characters: seven characters respectively formed by the numerals 1, 2, 3, 4, 5, 6 and 7 and an incomplete or absent eighth character, the eighth character being associated with at least a first opening (A8E, A8G) revealing the lower plate, the first lower platebeing arranged to rotate in steps about an axis and comprising, regularly angularly spaced characters or pieces of characters (P8, P9, P0), arranged to be visible when superposed in the display area, on said at least one first opening of the first upper plate,
A method for detecting the presence of DNA mutations in the KRAS, BRAF, CTNNB1, and APC genes, the method comprising: (a) isolating DNA from a sample; (b) amplifying the isolated DNA by polymerase chain reaction using primer pairs specific for the loci of one or more DNA mutations in each of the KRAS, BRAF, CTNNB1, and APC genes, wherein the isolated DNA is amplified in the presence of at least four blocking nucleic acids, wherein each of said at least four blocking nucleic acids hybridizes with a wild-type DNA locus corresponding with one of the DNA mutations in the KRAS, BRAF, CTNNB1, or APC genes and prevents amplification of the wild-type DNA locus, wherein optionally the KRAS, BRAF, CTNNB1, and APC genes are human genes; (c) hybridizing the amplified DNA with at least four probes, said at least four probes comprising one or more probes specific for a DNA mutation in each of the KRAS, BRAF, CTNNB1, and APC genes, wherein each of said at least four probes is coupled to a microcarrier, and wherein each of the microcarriers comprises an identifier corresponding to the probe coupled thereto; (d) detecting presence or absence of hybridization of the amplified DNA with said at least four probes, wherein hybridization between the amplified DNA and one of the probes indicates the presence of the DNA mutation corresponding to the probe; (e) detecting the identifiers of the microcarriers; and (f) correlating the detected identifiers of the microcarriers with the detected presence or absence of hybridization of the amplified DNA to the corresponding probes of the microcarriers. (a) isolating DNA from a sample; (b) amplifying the isolated DNA by polymerase chain reaction using primer pairs specific for the loci of one or more DNA mutations in each of the KRAS, BRAF, CTNNB1, and APC genes, wherein the isolated DNA is amplified in the presence of at least four blocking nucleic acids, wherein each of said at least four blocking nucleic acids hybridizes with a wild-type DNA locus corresponding with one of the DNA mutations in the KRAS, BRAF, CTNNB1, or APC genes and prevents amplification of the wild-type DNA locus, wherein optionally the KRAS, BRAF, CTNNB1, and APC genes are human genes; (c) hybridizing the amplified DNA with at least four probes, said at least four probes comprising one or more probes specific for a DNA mutation in each of the KRAS, BRAF, CTNNB1, and APC genes, wherein each of said at least four probes is coupled to a microcarrier, and wherein each of the microcarriers comprises an identifier corresponding to the probe coupled thereto; (d) detecting presence or absence of hybridization of the amplified DNA with said at least four probes, wherein hybridization between the amplified DNA and one of the probes indicates the presence of the DNA mutation corresponding to the probe; (e) detecting the identifiers of the microcarriers; and (f) correlating the detected identifiers of the microcarriers with the detected presence or absence of hybridization of the amplified DNA to the corresponding probes of the microcarriers.
A method of increasing the productivity, in particular cell-specific productivity, of recombinant factor VIII (rFVIII) produced in a eukaryotic cell suspension during culturing of said eukaryotic cell suspension in a culturing medium containing not more than 500 μM CaCl 2, at least a non-ionic detergent and other nutrient components needed for the cells to grow and produce rFVIII, characterized in that the said eukaryotic cell suspension is a suspension of human cells and is cultured under conditions inducing a shear stress by mechanical means directly to the human cells being cultured in said eukaryotic cell suspension by adding a power density of 30 W/m 3 to 1250 W/m 3.