mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetron sputtering apparatus for coating a substrate, preferably with AlCr, AlTi, Ti, or ta-C based sputter targets for AlCrN, AlTiN, TiN or ta-C based thin film preparation, comprising: a treatment chamber to be evacuated and then to be supplied with a sputtering gas , such as Ar, preferably with an Ar partial pressure from 0.1Pa to 1Pa, Xe and/or N 2 , preferably with a N 2 partial pressure from 0.05Pa to 0.3Pa; substrate holding means for holding the substrate; a tubular cathode , an anode and a power supply for applying high voltage, preferably from 300V to 1000V, between the cathode and the anode; a tubular target forming the cathode or being supported by the cathode , facing the substrate and being subject to sputtering by plasma formed within the treatment chamber , a magnetic field generation device forming a magnetic field so as to confine electrons in the plasma at or near a surface of the target ; and moving means for moving the magnetic field generation device in an axial direction of the target , preferably by at least a distance greater than the axial length of the magnetic field generation device , preferably with a speed in the range from 0.1 to 2.0 m/s, more preferably in the range from 0.3 to 1.0 m/s, characterized in that said magnetic field generation device has a set of three aligned magnets , wherein a center magnet is oppositely poled to and magnetically stronger than the side magnets , thereby concentrating the magnetic field to a slim area at the center magnet for allowing there at or near the target surface the generation of peak power densities above 500 W/cm 2 . a treatment chamber to be evacuated and then to be supplied with a sputtering gas , such as Ar, preferably with an Ar partial pressure from 0.1Pa to 1Pa, Xe and/or N 2 , preferably with a N 2 partial pressure from 0.05Pa to 0.3Pa; substrate holding means for holding the substrate; a tubular cathode , an anode and a power supply for applying high voltage, preferably from 300V to 1000V, between the cathode and the anode; a tubular target forming the cathode or being supported by the cathode , facing the substrate and being subject to sputtering by plasma formed within the treatment chamber , a magnetic field generation device forming a magnetic field so as to confine electrons in the plasma at or near a surface of the target ; and moving means for moving the magnetic field generation device in an axial direction of the target , preferably by at least a distance greater than the axial length of the magnetic field generation device , preferably with a speed in the range from 0.1 to 2.0 m/s, more preferably in the range from 0.3 to 1.0 m/s, characterized in that said magnetic field generation device has a set of three aligned magnets , wherein a center magnet is oppositely poled to and magnetically stronger than the side magnets , thereby concentrating the magnetic field to a slim area at the center magnet for allowing there at or near the target surface the generation of peak power densities above 500 W/cm 2 .
A mobile station comprising: a receiving section configured to receive first resource information including a list about a resource number of a selected reference signal resource, the receiving section being further configured to receive second resource information about a reference signal indicated by the resource number included in the first resource information, and measurement window information that indicates an allocation of a measurement window; a measuring section configured to measure a reference signal to which precoding is applied, based on the first resource information, the second resource information and the measurement window information; and a transmitting section configured to transmit a measurement result, wherein the receiving section is further configured to receive information that indicates a temporary change in the first resource information and the second resource information. a receiving section configured to receive first resource information including a list about a resource number of a selected reference signal resource, the receiving section being further configured to receive second resource information about a reference signal indicated by the resource number included in the first resource information, and measurement window information that indicates an allocation of a measurement window; a measuring section configured to measure a reference signal to which precoding is applied, based on the first resource information, the second resource information and the measurement window information; and a transmitting section configured to transmit a measurement result, wherein the receiving section is further configured to receive information that indicates a temporary change in the first resource information and the second resource information.
A gripping apparatus , for use in connecting to a pipe wherein the pipe defines an inside radius , comprising: a plurality of discrete gripping devices mounted in a body ; wherein the gripping apparatus further comprises: an outer surface on each the plurality of discrete gripping devices , wherein the outer surface has a transition surface reducing any sharp transition point and preventing marking of the pipe , wherein the transition surface is a swept chamfer, a swept arc, a compound leading edge curve, a gradient, or a beveled edge of the outer surface; and a plurality of actuation-retraction mechanisms connected to the body and one each individually connected to each of the plurality of discrete gripping devices . a plurality of discrete gripping devices mounted in a body ; wherein the gripping apparatus further comprises: an outer surface on each the plurality of discrete gripping devices , wherein the outer surface has a transition surface reducing any sharp transition point and preventing marking of the pipe , wherein the transition surface is a swept chamfer, a swept arc, a compound leading edge curve, a gradient, or a beveled edge of the outer surface; and a plurality of actuation-retraction mechanisms connected to the body and one each individually connected to each of the plurality of discrete gripping devices . an outer surface on each the plurality of discrete gripping devices , wherein the outer surface has a transition surface reducing any sharp transition point and preventing marking of the pipe , wherein the transition surface is a swept chamfer, a swept arc, a compound leading edge curve, a gradient, or a beveled edge of the outer surface; and a plurality of actuation-retraction mechanisms connected to the body and one each individually connected to each of the plurality of discrete gripping devices .
An operating device for an illuminant comprising input terminals (L, N) for being supplied with an AC voltage; output terminals (X1, X2); a driving circuitry for driving the illuminant , when connected to the output terminals (X1, X2), wherein bypass means are provided to bypass a current from one of the output terminals (X1, X2) to protective earth (PE) or a neutral terminal (N) of the input terminals (L, N), wherein the bypass means comprise at least one capacitor (C); and wherein the driving circuitry comprises a rectifier for rectifying the AC voltage to output a DC voltage; a converter for converting DC voltage output by the rectifier into a working voltage for the illuminant ; and a first capacitor (C1) connected between an output terminal (X3) of the rectifier and the protective earth (PE); characterized in that the driving circuitry comprises a second capacitor (C2) connected between the output terminal (X3) of the rectifier and the one of the output terminals (X1, X2) . input terminals (L, N) for being supplied with an AC voltage; output terminals (X1, X2); a driving circuitry for driving the illuminant , when connected to the output terminals (X1, X2), wherein bypass means are provided to bypass a current from one of the output terminals (X1, X2) to protective earth (PE) or a neutral terminal (N) of the input terminals (L, N), wherein the bypass means comprise at least one capacitor (C); and wherein the driving circuitry comprises a rectifier for rectifying the AC voltage to output a DC voltage; a converter for converting DC voltage output by the rectifier into a working voltage for the illuminant ; and a first capacitor (C1) connected between an output terminal (X3) of the rectifier and the protective earth (PE); characterized in that the driving circuitry comprises a second capacitor (C2) connected between the output terminal (X3) of the rectifier and the one of the output terminals (X1, X2) .
Dry, hydraulically hardening cement mixture, preferably a well cement mixture, comprising 95-100 ma.% of main constituents and 0-5 ma.% of secondary constituents, respectively based on the sum of main and secondary constituents, and, in addition to the main and secondary constituents, at least one setting regulator, wherein the cement mixture comprises a) Portland cement clinker as a main constituent in an amount of 70 to 85 ma.%, based on the sum of the main and secondary constituents, b) at least one pozzolan as a main or secondary constituent in a total amount of pozzolan of 5 to 25 ma.%, based on the sum of the main and secondary constituents, characterized in that the cement mixture comprises as a main or secondary constituent at least one mineral, hydraulically inactive additive component which comprises a true density ≥ 3.0 g/cm 3 , determined in accordance with DIN EN 196-6:2019-03, in a total amount of additive component of 5 to 15 ma.%, based on the sum of the main and secondary constituents. a) Portland cement clinker as a main constituent in an amount of 70 to 85 ma.%, based on the sum of the main and secondary constituents, b) at least one pozzolan as a main or secondary constituent in a total amount of pozzolan of 5 to 25 ma.%, based on the sum of the main and secondary constituents,
Fan unit for an extractor hood , which has a fan housing which has at least one fastening apparatus for fastening at least one fan to the fan housing , and which furthermore comprises at least one fan, wherein the fan housing consists of at least two housing parts , which comprise an upper part , which forms a circular segment or spiral segment and additionally the air outlet, and a lower part , which forms a circular segment or spiral segment of the interior, of the fan housing , characterised in that the fastening apparatus is formed in the region of the separating plane (T) of the at least two housing parts in at least one of the housing parts , that the fan is fastened in the fan housing to the at least one fastening apparatus , that the separating plane (T) lies in or parallel to the axis of rotation of the fan and that the fastening apparatus has a fastening geometry which, or the cross-section thereof, deviates from a rotation-symmetrical geometry along the height direction of the fan housing and that the fastening apparatus is a bulge in the rear wall (R) of the fan housing and the rear wall, after assembly of the fan housing, represents a closed wall.
A communication method for wireless communication using a TDMA, Time Division Multiple Access, super-frame structure for scheduling uplink and downlink transmissions between a first communication node and a second communication node (3.k) that comprises a clock , which communication method is performed by the second communication node (3.k), wherein the communication method includes receiving a downlink transmission and transmitting an uplink response, said transmitting of uplink response is performed in an uplink frame (ULk) of the super-frame structure , characterized in that the uplink frame (ULk) comprises a field for time indicating data (T3.k), wherein the transmitting of the uplink response includes transmitting time stamps in the time indicating data field (T3.k), which time stamps indicate the time instance (T 3 0 ) of the receiving of the downlink transmission, and the time instance (T 3 1 ) of the transmitting of the uplink response, which time instances (T 3 0 , T 3 1 ) are determined by means of said clock of the communication node (3.k).
A wearable monitoring apparatus for monitoring at least one dielectric related property of a pulmonary tissue of an ambulatory user, comprising: at least one transceiver including at least one antenna configured for transmitting electromagnetic, EM, radiation to the pulmonary tissue and receiving reflected EM radiation therefrom in at least one transmission session; a processing unit configured for analyzing said reflected EM radiation for detecting a change in the dielectric related property of the pulmonary tissue by sensing a change over time of said reflected EM radiation; and a reporting unit configured for generating a report according to said change; characterized in that : said processing unit is configured for analyzing said reflected EM radiation by computing said change over time of said reflected EM radiation based on differential signals of the reflected EM radiation, wherein the differential signals are amplitude and/or phase of signal differences of: (i) EM radiation received during at least one breathing cycle for being used as a reference for monitoring the fluid content in the monitored pulmonary tissue, and/or (ii) EM radiation received during a systolic phase and EM radiation received during a diastolic phase of a heart beat cycle indicative of fluid content in the pulmonary tissue. at least one transceiver including at least one antenna configured for transmitting electromagnetic, EM, radiation to the pulmonary tissue and receiving reflected EM radiation therefrom in at least one transmission session; a processing unit configured for analyzing said reflected EM radiation for detecting a change in the dielectric related property of the pulmonary tissue by sensing a change over time of said reflected EM radiation; and a reporting unit configured for generating a report according to said change; characterized in that : said processing unit is configured for analyzing said reflected EM radiation by computing said change over time of said reflected EM radiation based on differential signals of the reflected EM radiation, wherein the differential signals are amplitude and/or phase of signal differences of: (i) EM radiation received during at least one breathing cycle for being used as a reference for monitoring the fluid content in the monitored pulmonary tissue, and/or (ii) EM radiation received during a systolic phase and EM radiation received during a diastolic phase of a heart beat cycle indicative of fluid content in the pulmonary tissue. (i) EM radiation received during at least one breathing cycle for being used as a reference for monitoring the fluid content in the monitored pulmonary tissue, and/or (ii) EM radiation received during a systolic phase and EM radiation received during a diastolic phase of a heart beat cycle indicative of fluid content in the pulmonary tissue.
A method for operating an inkjet print head (4a-4d) for generating a droplet of a liquid, wherein the inkjet print head comprises a number of ejection units, each ejection unit comprising a piezo-electric actuator (44-46) having a signal electrode, a common electrode and a piezo-electric layer interposed between the signal electrode and the common electrode, the method comprising a) providing a non-jetting pulse signal on a common electrode, the non-jetting pulse signal being adapted to generate a pressure wave in the liquid in the corresponding ejection unit without expelling a droplet of the liquid; and b) providing a jetting pulse signal on a signal electrode, the jetting pulse signal being adapted to generate a pressure wave in the liquid in the corresponding ejection unit such that a droplet of the liquid is expelled; and wherein the method comprises repeating step a) at a predetermined frequency for vibrating a meniscus of the liquid, independent of the step b); and wherein the jetting pulse signal is applied on an ejection unit simultaneously with part of the non-jetting pulse signal such that a resulting pulse over the corresponding piezo-electric layer is a superposition of the non-jetting pulse signal and the jetting pulse signal for ejecting the droplet. a) providing a non-jetting pulse signal on a common electrode, the non-jetting pulse signal being adapted to generate a pressure wave in the liquid in the corresponding ejection unit without expelling a droplet of the liquid; and b) providing a jetting pulse signal on a signal electrode, the jetting pulse signal being adapted to generate a pressure wave in the liquid in the corresponding ejection unit such that a droplet of the liquid is expelled; and wherein the method comprises repeating step a) at a predetermined frequency for vibrating a meniscus of the liquid, independent of the step b); and wherein the jetting pulse signal is applied on an ejection unit simultaneously with part of the non-jetting pulse signal such that a resulting pulse over the corresponding piezo-electric layer is a superposition of the non-jetting pulse signal and the jetting pulse signal for ejecting the droplet.
An electrolytic solution, characterized in that , the electrolytic solution comprises an additive, wherein the additive comprises a multi-cyano compound, the multi-cyano compound is at least one of compounds represented by Formula I-2a: wherein R 21 and R 22 are each independently selected from the group consisting of a substituted or unsubstituted C 1 -C 8 alkyl, a substituted or unsubstituted C 2 -C 8 alkenyl, a substituted or unsubstituted C 2 -C 12 alkynyl, a substituted or unsubstituted C 2 -C 8 cyano-containing group, a substituted or unsubstituted C 2 -C 8 carbalkoxy, a substituted or unsubstituted C 7 -C 16 aromatic ester group, a substituted or unsubstituted C 2 -C 8 alkylcarbonyl, a substituted or unsubstituted C 7 -C 16 arylcarbonyl, a substituted or unsubstituted C 1 -C 8 alkylsulfonyl, a substituted or unsubstituted C 6 -C 16 arylsulfonyl, and a substituted or unsubstituted C 1 -C 8 alkyl thiophosphate group; at least one of R 21 and R 22 is a substituted or unsubstituted C 7 -C 16 aromatic ester group, a substituted or unsubstituted C 2 -C 8 alkylcarbonyl, a substituted or unsubstituted C 7 -C 16 arylcarbonyl, a substituted or unsubstituted C 1 -C 8 alkylsulfonyl, a substituted or unsubstituted C 6 -C 16 arylsulfonyl, or a substituted or unsubstituted C 1 -C 8 alkyl thiophosphate group; and the substituent, if present, is selected from the group consisting of halogen, cyano, C 1 -C 6 alkyl, and combinations thereof. wherein R 21 and R 22 are each independently selected from the group consisting of a substituted or unsubstituted C 1 -C 8 alkyl, a substituted or unsubstituted C 2 -C 8 alkenyl, a substituted or unsubstituted C 2 -C 12 alkynyl, a substituted or unsubstituted C 2 -C 8 cyano-containing group, a substituted or unsubstituted C 2 -C 8 carbalkoxy, a substituted or unsubstituted C 7 -C 16 aromatic ester group, a substituted or unsubstituted C 2 -C 8 alkylcarbonyl, a substituted or unsubstituted C 7 -C 16 arylcarbonyl, a substituted or unsubstituted C 1 -C 8 alkylsulfonyl, a substituted or unsubstituted C 6 -C 16 arylsulfonyl, and a substituted or unsubstituted C 1 -C 8 alkyl thiophosphate group; at least one of R 21 and R 22 is a substituted or unsubstituted C 7 -C 16 aromatic ester group, a substituted or unsubstituted C 2 -C 8 alkylcarbonyl, a substituted or unsubstituted C 7 -C 16 arylcarbonyl, a substituted or unsubstituted C 1 -C 8 alkylsulfonyl, a substituted or unsubstituted C 6 -C 16 arylsulfonyl, or a substituted or unsubstituted C 1 -C 8 alkyl thiophosphate group; and the substituent, if present, is selected from the group consisting of halogen, cyano, C 1 -C 6 alkyl, and combinations thereof.
A method for identifying the presence or absence of a genetic mutation in a genomic region of interest comprising a target nucleotide sequence, comprising the steps of: a) providing a sample of cross-linked DNA; b) fragmenting the crosslinked DNA; c) ligating the fragmented crosslinked DNA; d) reversing the crosslinking; e) optionally fragmenting the DNA of step d), preferably with a restriction enzyme; f) optionally, ligating the fragmented DNA of step d) or e) to at least one adaptor; g) capturing the ligated DNA fragments of step d) or e) comprising the target nucleotide sequence using a capture probe to separate (amplified) ligated DNA fragments comprising the target nucleotide sequence from (amplified) ligated DNA fragments not comprising the target nucleotide sequence; optionally amplifying the ligated DNA fragments of step d) or e) comprising the target nucleotide sequence using at least one primer which hybridises to the target nucleotide sequence before or after the capture step, or amplifying the ligated DNA fragments of step f) using at least one oligonucleotide primer which hybridises to the target nucleotide sequence and at least one oligonucleotide primer which hybridises to the at least one adaptor before or after the capture step; h) determining at least part of the sequence of the (amplified) ligated DNA fragments of step g) comprising the target nucleotide sequence using high throughput sequencing; i) aligning the determined sequences of the (amplified) ligated DNA fragments to a reference sequence; j) identifying the presence or absence of a genetic mutation in the determined sequences. a) providing a sample of cross-linked DNA; b) fragmenting the crosslinked DNA; c) ligating the fragmented crosslinked DNA; d) reversing the crosslinking; e) optionally fragmenting the DNA of step d), preferably with a restriction enzyme; f) optionally, ligating the fragmented DNA of step d) or e) to at least one adaptor; g) capturing the ligated DNA fragments of step d) or e) comprising the target nucleotide sequence using a capture probe to separate (amplified) ligated DNA fragments comprising the target nucleotide sequence from (amplified) ligated DNA fragments not comprising the target nucleotide sequence; optionally amplifying the ligated DNA fragments of step d) or e) comprising the target nucleotide sequence using at least one primer which hybridises to the target nucleotide sequence before or after the capture step, or amplifying the ligated DNA fragments of step f) using at least one oligonucleotide primer which hybridises to the target nucleotide sequence and at least one oligonucleotide primer which hybridises to the at least one adaptor before or after the capture step; h) determining at least part of the sequence of the (amplified) ligated DNA fragments of step g) comprising the target nucleotide sequence using high throughput sequencing; i) aligning the determined sequences of the (amplified) ligated DNA fragments to a reference sequence; j) identifying the presence or absence of a genetic mutation in the determined sequences.
A method for continuous production of 2,3-butanediol, by hydrogenation of 3-hydroxybutanone with hydrogen in the presence of a heterogeneous hydrogenation catalyst filled in one or more fixed-bed flow tubular reactor systems comprising one or more tubes, wherein the inner diameter of each tube is from 1 mm to 6 mm; wherein the method comprising feeding 3-hydroxybutanone and hydrogen into the fixed-bed flow tubular reactor system.