mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for detecting a substance having - a device for moving a liquid, wherein the device has at least one first piezoacoustic resonator element (11, 52) having at least one piezoelectric layer and two electrodes (111, 112), which abut the piezoelectric layer, wherein the piezoelectric layer is arranged in a sandwich structure between the electrodes (111, 112) and the c-axis of the piezoelectric layer is at right angles to the layer plane of the piezoelectric layer, so that by applying a voltage to the piezoelectric layer by means of the electrodes (111, 112) a longitudinal volume oscillation of the piezoelectric layer, which is transmitted to the liquid in order to move it, is excited at resonant frequency, and - a device for detecting a substance, which has at least one second piezoacoustic resonance element having at least one piezoelectric layer and two electrodes, which abut the piezoelectric layer, wherein the piezoelectric layer is arranged in a sandwich structure between the electrodes, and the c-axis of the piezoelectric layer runs in the layer plane of the piezoelectric layer so that by applying a voltage to the piezoelectric layer by means of the electrodes, a shear mode volume oscillation of the piezoelectric layer is excited at resonant frequency and has a surface section, which is designed for the accumulation of the substance to be detected, wherein the resonance frequency of the piezoacoustic resonator element changes as a function of the mass of the accumulated substance to be detected, characterised in that at least the first and the second piezoacoustic resonator element are arranged in a stack construction one above the other. - a device for moving a liquid, wherein the device has at least one first piezoacoustic resonator element (11, 52) having at least one piezoelectric layer and two electrodes (111, 112), which abut the piezoelectric layer, wherein the piezoelectric layer is arranged in a sandwich structure between the electrodes (111, 112) and the c-axis of the piezoelectric layer is at right angles to the layer plane of the piezoelectric layer, so that by applying a voltage to the piezoelectric layer by means of the electrodes (111, 112) a longitudinal volume oscillation of the piezoelectric layer, which is transmitted to the liquid in order to move it, is excited at resonant frequency, and - a device for detecting a substance, which has at least one second piezoacoustic resonance element having at least one piezoelectric layer and two electrodes, which abut the piezoelectric layer, wherein the piezoelectric layer is arranged in a sandwich structure between the electrodes, and the c-axis of the piezoelectric layer runs in the layer plane of the piezoelectric layer so that by applying a voltage to the piezoelectric layer by means of the electrodes, a shear mode volume oscillation of the piezoelectric layer is excited at resonant frequency and has a surface section, which is designed for the accumulation of the substance to be detected, wherein the resonance frequency of the piezoacoustic resonator element changes as a function of the mass of the accumulated substance to be detected,
A carboxylic acid salt (carboxylate) or a mineral acid salt of (S,E)-N-(1-((5-(2-((4-cyanophenyl)amino)-4-(propylamino)pyrimidin-5-yl)pent-4-yn-1-yl)amino)-1-oxopropan-2-yl)-4-(dimethylamino)-N-methylbut-2-enamide, wherein the carboxylate is formate, acetate, lactate, benzoate, citrate, oxalate, fumarate, maleate, succinate, malate, tartrate, aspartate, trichloroacetate, trifluoroacetate, or pamoate and the mineral acid salt is hydrochloride, hydrobromide, hydroiodide, nitrate, phosphate, or sulfate.
A method for controlling the instantaneous power output from a wind power plant, the method comprising: determining a wind speed and a wind direction characterized by providing a data structure comprising at least one previously determined power output value of the wind power plant at said wind speed in said wind direction, determining an upper limit power output by means of the at least one previously determined power output value, and controlling the instantaneous power output based on said determined upper limit power output. determining a wind speed and a wind direction characterized by providing a data structure comprising at least one previously determined power output value of the wind power plant at said wind speed in said wind direction, determining an upper limit power output by means of the at least one previously determined power output value, and controlling the instantaneous power output based on said determined upper limit power output.
A method performed by a first base station, wherein the first base station is acting as a Master Node in Dual Connectivity, wherein a second base station is acting as a Secondary Node in Dual Connectivity, and, wherein the first base station and the second base station are acting in New Radio, NR, Evolved Universal Terrestrial Radio Access, E-UTRA, NR Dual Connectivity, NE-DC, wherein there exist a first band combination list and a second band combination list which are visible in the first and second base station, and wherein the first band combination list and the second band combination list each contain supported band combinations, wherein the first band combination list comprises a list of band combinations supported by a wireless device for NE-DC and for E-UTRA NR Dual Connectivity, EN-DC, and wherein the second band combination list comprises a list of band combinations supported by the wireless device for NE-DC only, the method comprising: - transmitting signalling to the second base station, the signalling being configured to indicate band combinations allowed to be used by the second base station, characterized in that the indicated band combinations comprise band combinations from the first band combination list and the second band combination list. - transmitting signalling to the second base station, the signalling being configured to indicate band combinations allowed to be used by the second base station,
A cleaning article having a longitudinal axis, a transverse axis perpendicular thereto, two spaced apart longitudinal edges, two spaced apart transverse edges and comprising: a nonwoven carrier sheet, a plurality of discretely spaced tufts of tow fibers joined to said carrier sheet, said tufts being disposed in spaced apart rows, characterized by being spaced apart from adjacent rows by a space, each said space having a width, wherein said widths of said at least some said spaces are unequal, wherein the cleaning article has two longitudinal edges parallel to said longitudinal axis and further comprising strips intercepting each said longitudinal axis. a nonwoven carrier sheet, a plurality of discretely spaced tufts of tow fibers joined to said carrier sheet, said tufts being disposed in spaced apart rows, characterized by being spaced apart from adjacent rows by a space, each said space having a width, wherein said widths of said at least some said spaces are unequal, wherein the cleaning article has two longitudinal edges parallel to said longitudinal axis and further comprising strips intercepting each said longitudinal axis.
A nucleic acid vector comprising a promoter operably linked to: a) a polylinker sequence; b) a non- Zea mays egg cell heterologous coding sequence; or c) a combination of a) and b); wherein said promoter comprises a polynucleotide sequence that has at least 95% sequence identity with SEQ ID NO:1, wherein heterologous coding sequence means any coding sequence other than one that naturally encodes a Zea mays egg cell gene, or any homolog of an expressed Zea mays egg cell protein. a) a polylinker sequence; b) a non- Zea mays egg cell heterologous coding sequence; or c) a combination of a) and b); wherein said promoter comprises a polynucleotide sequence that has at least 95% sequence identity with SEQ ID NO:1, wherein heterologous coding sequence means any coding sequence other than one that naturally encodes a Zea mays egg cell gene, or any homolog of an expressed Zea mays egg cell protein.
Car parking device with a frame on which at least one movable, in particular raisable or lowerable platform is provided and the car parking device is equipped with a chain which is at least partially part of at least one chain deflection system, wherein the chain deflection system consists of at least one chain piece (2, 2a, 2c) and a deflection piece (3, 3a, 3b), wherein the deflection piece (3, 3a, 3b) has a curved surface and the chain piece (2, 2a, 2c), in the case of use, rests at least partially on the curved surface, as a result of which the pulling or pushing direction (21, 22) of the chain piece (2, 2a, 2c) is deflected, and wherein the respective deflection piece (3, 3a, 3b) is arranged on the frame or on the platform, and the deflection piece (3, 3a, 3b) is arranged to have a rotational degree of freedom of less than 360°, characterised in that the deflection piece (3, 3a, 3b) is designed as a plate-shaped disc, wherein the curved surface of the deflection piece (3, 3a, 3b) is convexly curved, wherein the chain piece (2, 2a, 2c) is designed as a roller chain piece and the chain rollers of this roller chain piece contact the convexly curved surface of the deflection piece (3, 3a, 3b) and roll on the convexly curved surface when the chain piece (2, 2a, 2c) moves.
A method for ligating at least two oligonucleotides to produce a ligated oligonucleotide and amplifying the ligated oligonucleotide, wherein ligation and amplification occur in a single reaction mixture, the method comprising the steps of, in combination: a) contacting a target protein or analyte with at least a first and second probe, each probe having binding specificity for the protein or analyte, and being adjoined to at least one type of oligonucleotide; b) ligating the oligonucleotides on the first and second probes to one another using (i) a ligase selected from the group consisting of the ligase of SEQ ID NO.: 77, the ligase of SEQ ID NO.: 78, the ligase of SEQ ID NO.: 79, the ligase of SEQ ID NO.: 80, the ligase of SEQ ID NO.: 81, the ligase of SEQ ID NO.: 82, and combinations thereof, and (ii) a splint oligonucleotide, wherein said splint oligonucleotide comprises a 3' end of four to nine bases in length and a 5' end of four to nine bases in length, to produce a target nucleic acid and amplifying the target nucleic acid; and, c) detecting the amplified target nucleic acid. a) contacting a target protein or analyte with at least a first and second probe, each probe having binding specificity for the protein or analyte, and being adjoined to at least one type of oligonucleotide; b) ligating the oligonucleotides on the first and second probes to one another using (i) a ligase selected from the group consisting of the ligase of SEQ ID NO.: 77, the ligase of SEQ ID NO.: 78, the ligase of SEQ ID NO.: 79, the ligase of SEQ ID NO.: 80, the ligase of SEQ ID NO.: 81, the ligase of SEQ ID NO.: 82, and combinations thereof, and (ii) a splint oligonucleotide, wherein said splint oligonucleotide comprises a 3' end of four to nine bases in length and a 5' end of four to nine bases in length, to produce a target nucleic acid and amplifying the target nucleic acid; and, (i) a ligase selected from the group consisting of the ligase of SEQ ID NO.: 77, the ligase of SEQ ID NO.: 78, the ligase of SEQ ID NO.: 79, the ligase of SEQ ID NO.: 80, the ligase of SEQ ID NO.: 81, the ligase of SEQ ID NO.: 82, and combinations thereof, and (ii) a splint oligonucleotide, wherein said splint oligonucleotide comprises a 3' end of four to nine bases in length and a 5' end of four to nine bases in length, c) detecting the amplified target nucleic acid.
A data receiver, wherein the data receiver is configured to receive a signal from a data transmitter, wherein the signal comprises at least two pilot sequences (144_1-144_n) which are distributed in time according to a pilot pattern, wherein at least one second pilot sequence (144_2) of the at least two pilot sequences (144_1-144_n) comprises a temporally varying frequency shift relative to a first pilot sequence (144_1) of the at least two pilot sequences (144_1-144_n), wherein the data receiver comprises a detector with a correlator which is configured to detect the at least two pilot sequences (144_1-144_n) based on a correlation pattern, wherein the correlation pattern corresponds to the pilot pattern and describes a distribution of the at least two pilot sequences (144_1-144_n) in time and frequency, wherein the correlation pattern is provided with a temporally varying frequency shift in order to reduce an influence of the temporally varying frequency shift of the at least one second pilot sequence (144_2) relative to the first pilot sequence (144_1). wherein the data receiver is configured to receive a signal from a data transmitter, wherein the signal comprises at least two pilot sequences (144_1-144_n) which are distributed in time according to a pilot pattern, wherein at least one second pilot sequence (144_2) of the at least two pilot sequences (144_1-144_n) comprises a temporally varying frequency shift relative to a first pilot sequence (144_1) of the at least two pilot sequences (144_1-144_n), wherein the data receiver comprises a detector with a correlator which is configured to detect the at least two pilot sequences (144_1-144_n) based on a correlation pattern, wherein the correlation pattern corresponds to the pilot pattern and describes a distribution of the at least two pilot sequences (144_1-144_n) in time and frequency, wherein the correlation pattern is provided with a temporally varying frequency shift in order to reduce an influence of the temporally varying frequency shift of the at least one second pilot sequence (144_2) relative to the first pilot sequence (144_1).
A method of monitoring a computed tomography system, wherein the CT system comprises a gantry configured to rotate, said gantry comprising: at least one gantry bearing frame member; and a gantry bearing coupled to said gantry bearing frame; and a diagnostic system including at least one radiation detector element, the diagnostic system coupled to the gantry, said method comprising: receiving, by the diagnostic system, an electrical signal from the at least one radiation detector element the electrical signal having a magnitude dependent on intensity of x-rays detected by the radiation detector; identifying, with the diagnostic system, a first frequency in the electrical signal; comparing, with the diagnostic system, the first frequency in the electrical signal to a first reference frequency stored in a memory device, the first reference frequency at least partially indicative of a first mechanical status of the gantry; determining, with the diagnostic system, that the first frequency in the electrical signal is substantially similar to the first reference frequency; and in response to determining that the first frequency is substantially similar to the first reference frequency, determining, with the diagnostic system, that the CT system has the first mechanical status. receiving, by the diagnostic system, an electrical signal from the at least one radiation detector element the electrical signal having a magnitude dependent on intensity of x-rays detected by the radiation detector; identifying, with the diagnostic system, a first frequency in the electrical signal; comparing, with the diagnostic system, the first frequency in the electrical signal to a first reference frequency stored in a memory device, the first reference frequency at least partially indicative of a first mechanical status of the gantry; determining, with the diagnostic system, that the first frequency in the electrical signal is substantially similar to the first reference frequency; and in response to determining that the first frequency is substantially similar to the first reference frequency, determining, with the diagnostic system, that the CT system has the first mechanical status.
Device for producing pressed bodies from biological material, comprising a receiving chamber for receiving the biological material, wherein the receiving chamber has at least one perforated wall with a plurality of openings, and at least one ram which is arranged in the receiving chamber and is movable with respect to the receiving chamber, wherein the ram has a plurality of pressing pins for pressing the material through the openings, characterized in that a further movable wall of the receiving chamber is arranged for pre-pressing the biological material, wherein the receiving chamber comprises an opening means for closing the top of the receiving chamber, and also a movable side wall which is movable perpendicular to the pressing direction and thus serves for pre-compressing the biological material.
An integrated circuit comprising: a substrate carrying plurality of circuit elements; a plurality of sensing electrodes over said substrate, each sensing electrode being electrically connected to at least one of said circuit elements; and a plurality of wells for receiving a sample, each sensing electrode defining the bottom of one of said wells, wherein each sensing electrode comprises at least one portion extending upwardly into said well and laterally separated from sidewalls of said well. a substrate carrying plurality of circuit elements; a plurality of sensing electrodes over said substrate, each sensing electrode being electrically connected to at least one of said circuit elements; and a plurality of wells for receiving a sample, each sensing electrode defining the bottom of one of said wells, wherein each sensing electrode comprises at least one portion extending upwardly into said well and laterally separated from sidewalls of said well.
A method of authentication of an accessory (502, 506, 508, 510) by a media player (500"), the method comprising: receiving, by the accessory, an authentication request from the media player (500"), the authentication request initiating an authentication operation transmitting, by the accessory, an authentication information to the media player (500"), in response to the authentication request, the authentication information being usable by the media player (500") in the authentication operation; allowing the accessory, by the media player, to access an application of the media player during the authentication operation; and transmitting, by the accessory, an authentication signature to the media player (500") for validation, wherein the authentication operation completes upon validation of the authentication signature, wherein if the authentication operation fails, the media player prevents the accessory (502, 506, 508, 510) from any further access to the application of the media player (500"). receiving, by the accessory, an authentication request from the media player (500"), the authentication request initiating an authentication operation transmitting, by the accessory, an authentication information to the media player (500"), in response to the authentication request, the authentication information being usable by the media player (500") in the authentication operation; allowing the accessory, by the media player, to access an application of the media player during the authentication operation; and transmitting, by the accessory, an authentication signature to the media player (500") for validation, wherein the authentication operation completes upon validation of the authentication signature, wherein if the authentication operation fails, the media player prevents the accessory (502, 506, 508, 510) from any further access to the application of the media player (500").
A material comprising a polymer matrix functionalized with a carbon-containing species covalently coupled with the polymer matrix, wherein the polymer matrix comprises 3-methacryloxypropyltrimethoxylsilane (MPTMS) and polydimethylsiloxane (PDMS), and wherein: the carbon-containing species is covalently bonded to the polymer matrix via the MPTMS; and/or PDMS chains are covalently attached to the carbon-containing species; and the carbon-containing species comprises one or more of graphene, graphene nanoplatelets, exfoliated graphene nanoplatelets, graphene oxide, carbon nanotubes, multi-walled carbon nanotubes, and/or single-walled carbon nanotubes. the carbon-containing species is covalently bonded to the polymer matrix via the MPTMS; and/or PDMS chains are covalently attached to the carbon-containing species; and the carbon-containing species comprises one or more of graphene, graphene nanoplatelets, exfoliated graphene nanoplatelets, graphene oxide, carbon nanotubes, multi-walled carbon nanotubes, and/or single-walled carbon nanotubes.
A method for driving a vehicle having a propulsion system comprising a combustion engine with an output shaft, a gearbox with an input shaft, an electric machine comprising a stator and a rotor, a planetary gear comprising three components in the form of a sun gear, a ring gear and a planet wheel carrier, the output shaft of the combustion engine being connected to a first of said components of the planetary gear so that a rotation of this shaft results in a rotation of this component, the input shaft of the gearbox being connected to a second of said components of the planetary gear so that a rotation of this shaft results in a rotation of this component and the rotor of the electric machine being connected to a third of said components of the planetary gear so that a rotation of the rotor results in a rotation of this component, said propulsion system further comprising a locking means transferable between a locking position in which two of said components are interlocked so that the three components rotate with the same rotational speed and a releasing position in which the components are allowed to rotate with different rotational speeds, said method being started when the vehicle is driven with the locking means in the locking position, characterised in that it comprises the following steps: a) deciding that the locking means shall be transferred to the releasing position, b) controlling the electric machine to apply a first torque corresponding to the product of on one hand the propulsion system torque requested and on the other the transmission ratio of the planetary gear and at the same time controlling the combustion engine to apply a second torque corresponding to the product of on one hand the propulsion system torque requested and on the other (1-the transmission ratio of the planetary gear), and c) transferring the locking means to the releasing position when both said first and second torques have been obtained and by that torque balance exists in the planetary gear. a) deciding that the locking means shall be transferred to the releasing position, b) controlling the electric machine to apply a first torque corresponding to the product of on one hand the propulsion system torque requested and on the other the transmission ratio of the planetary gear and at the same time controlling the combustion engine to apply a second torque corresponding to the product of on one hand the propulsion system torque requested and on the other (1-the transmission ratio of the planetary gear), and c) transferring the locking means to the releasing position when both said first and second torques have been obtained and by that torque balance exists in the planetary gear.