mhurhangee/ep-ind-claims huggingface dataset:
A bleed valve arrangement (50,70) for a gas turbine engine, the arrangement comprising an exit duct, an outlet and a plurality of pressure differential inducing elements (55,59) to attenuate the bleed flow in terms of noise, the pressure differential inducing elements in a path towards the outlet, the arrangement characterised in that a portion of the path is the exit duct which is convergent between the last pressure differential inducing element of the plurality of pressure differential inducing elements and the outlet thereby causing a further pressure differential.
Multifunctional smart bed comprising: - a frame comprising a plurality of sections that are movable independently of each other; - a plurality of feet, each comprising a force sensor coupled to the frame; - a mattress arranged on the frame and supported by it; - a plurality of environmental sensors comprising one or more microphones, designed to obtain a real sound around the multifunctional intelligent bed and to distort the real sound, thereby irreversibly generating a distorted sound that is not recognisable to a human, by means of an irreversible mathematical function implemented in the electronic circuits of the microphones by software or hardware, wherein the distorted sound comprises distinguishing features that enable the artificial intelligence classifier to distinguish between different sound categories; - a controller communicatively coupled and configured to receive and process input from the force sensors in each of the plurality of feet and from each of the plurality of environmental sensors; and - a plurality of actuators communicatively coupled to the controller, mechanically coupled to the frame, and configured to change at least one or more features of the multifunctional smart bed based on inputs from the controller. - a frame comprising a plurality of sections that are movable independently of each other; - a plurality of feet, each comprising a force sensor coupled to the frame; - a mattress arranged on the frame and supported by it; - a plurality of environmental sensors comprising one or more microphones, designed to obtain a real sound around the multifunctional intelligent bed and to distort the real sound, thereby irreversibly generating a distorted sound that is not recognisable to a human, by means of an irreversible mathematical function implemented in the electronic circuits of the microphones by software or hardware, wherein the distorted sound comprises distinguishing features that enable the artificial intelligence classifier to distinguish between different sound categories; - a controller communicatively coupled and configured to receive and process input from the force sensors in each of the plurality of feet and from each of the plurality of environmental sensors; and - a plurality of actuators communicatively coupled to the controller, mechanically coupled to the frame, and configured to change at least one or more features of the multifunctional smart bed based on inputs from the controller.
A muscle tonus measuring apparatus comprising: a detection unit configured to detect a joint torque of the joint of a subject and a joint angle of the same joint, where the joint is undergoing passive flexion and extension movement; and an arithmetic unit that is configured to perform arithmetic processing on an output signal from the detection unit, characterised in that the arithmetic unit is configured to divide a relationship between the joint torque and the joint angle in at least one of an extension phase and a flexion phase into two or more portions including a proximal-side portion and a distal-side portion according to a joint angle, and to obtain an elastic coefficient of the joint from the relationship between the joint torque and the joint angle in the distal-side portion and the proximal-side portion. a detection unit configured to detect a joint torque of the joint of a subject and a joint angle of the same joint, where the joint is undergoing passive flexion and extension movement; and an arithmetic unit that is configured to perform arithmetic processing on an output signal from the detection unit,
A method of laser-machining a workpiece, the method comprising: a carbon monoxide laser generating a beam of laser-radiation having a plurality of wavelength-components at discrete different wavelengths; and a single acousto-optic modulator, AOM, having a not-activated mode and an activated mode, wherein: in the not-activated mode, the single AOM transmitting the laser-radiation beam along a zero diffraction-order through the AOM to a beam-path through a plurality of optical elements, to reach and modify the workpiece; and in the activated mode, the single AOM diffracting less than 100% of the power of the laser-radiation beam out of the beam-path, and the small percentage transmitted in the zero diffraction-order being kept so that the power reaching the workpiece is sufficiently low that no modification of the workpiece results. a carbon monoxide laser generating a beam of laser-radiation having a plurality of wavelength-components at discrete different wavelengths; and a single acousto-optic modulator, AOM, having a not-activated mode and an activated mode, wherein: in the not-activated mode, the single AOM transmitting the laser-radiation beam along a zero diffraction-order through the AOM to a beam-path through a plurality of optical elements, to reach and modify the workpiece; and in the activated mode, the single AOM diffracting less than 100% of the power of the laser-radiation beam out of the beam-path, and the small percentage transmitted in the zero diffraction-order being kept so that the power reaching the workpiece is sufficiently low that no modification of the workpiece results. in the not-activated mode, the single AOM transmitting the laser-radiation beam along a zero diffraction-order through the AOM to a beam-path through a plurality of optical elements, to reach and modify the workpiece; and in the activated mode, the single AOM diffracting less than 100% of the power of the laser-radiation beam out of the beam-path, and the small percentage transmitted in the zero diffraction-order being kept so that the power reaching the workpiece is sufficiently low that no modification of the workpiece results.
Reflective optical element for EUV lithography, comprising a substrate and a reflective coating for reflecting radiation in the wavelength range of 5 nm to 20 nm, characterized in that a functional layer (60, 61), by means of which functional layer the concentration of hydrogen in atom% at the side of the substrate facing the reflective coating is reduced by at least a factor of 2, and a microstructured layer are arranged between the reflective coating and the substrate and a polishing layer is arranged on the functional layer or the microstructured layer and an adhesion promoter layer is arranged on the substrate, said adhesion promoter layer consisting of at least one ply and comprising one or more materials of the group consisting of ruthenium, chromium, platinum, iridium, copper, silver, gold, nickel, nickel-phosphorus, tantalum, titanium, zirconium, tungsten, molybdenum and niobium.
A braking system for a vehicle, comprising at least one pressure line (1, 3) constructed and arranged to carry compressed air from at least one source of pressurized medium being compressed air to a brake device (45, 47), a brake pedal for receiving brake commands from a driver of said vehicle and for operating a brake line, said brake line being connectable to said brake device (45, 47), and means (9, 19, 21) for quantitatively determining brake pressure demanded by said driver, wherein said means (9, 19, 21) for quantitatively determining said brake pressure demanded by said driver includes a pilot control valve having at least one measuring device characterized in that said pilot control valve includes first and second double check valves (7, 23) and wherein said at least one measuring device is first, second and third pressure sensors (9, 19, 21), said first double check valve being constructed and arranged to conduct said pressurized medium from at least one of (i) said second double check valve and a branch line to an outlet line, and (ii) said outlet line to an outlet, said second double check valve being constructed and arranged to conduct said pressurized medium from at least one of (i) said brake line and a second brake line to a connection of said first double check valve, said first pressure sensor being constructed and arranged to measure pressure in at least one of said brake line and said second brake line, said second pressure sensor being constructed and arranged to measure pressure in said branch line, and said third pressure sensor being constructed and arranged to measure pressure in said outlet line.
A human umbilical cord perivascular cell (HUCPVC) for use in the protection of a subject against exposure to a pathogenic microbe or toxin, wherein the HUCPVC has been genetically modified to express an antibody or antibody fragment or an enzyme in said HUCPVC, wherein said HUCPVC prevents or treats one or more diseases or disorders that result from exposure of said subject to said pathogenic microbe or toxin and thereby protects said subject from said pathogenic microbe or toxin.
A compound of the formula: or a pharmaceutically acceptable salt thereof, for use in treating or preventing cancer, wherein the compound is to be administered in combination with an immunotherapy.
Method for measuring the frequency and the amplitude of the oscillations of a mechanical oscillator of a horological movement, comprising the steps consisting in performing optical or acoustic measurements to identify instants sensibly associated with a zero elongation of the mechanical oscillator, and deducing therefrom a measured value of the frequency of the oscillations of the mechanical oscillator, selecting a reference point of the mechanical oscillator, controlling a camera, of standard type, to perform the acquisition of images of the mechanical oscillator including said reference point, at an acquisition frequency whose value is adjusted to be a multiple of said measured value, so that at least some of said images are associated with instants at which said reference point is situated in positions sensibly corresponding to the minimum and/or maximum elongations of the mechanical oscillator, and deducing therefrom the value of the amplitude of the oscillations of the mechanical oscillator.
A wireless device comprising: a transceiver configured at least to receive radio signals on at least a first carrier frequency, wherein said transceiver is further configured to receive information regarding a first measurement pattern associated with the first carrier frequency, the first measurement pattern being a sequence of subframes of a first type and subframes of a second type; wherein said transceiver is further configured to receive a neighbour cell list associated with the first measurement pattern, said neighbour cell list indicating one or more first cells; and characterised by a processor configured to determine a second measurement pattern, the determination being based on the first measurement pattern and a pre-determined rule, which pre-determined rule relates the first measurement pattern to the second measurement pattern, wherein the processor is further configured, when the first measurement pattern is configured for the wireless device, to perform measurements on a plurality of cells during a time period, wherein the plurality of cells comprises the one or more first cells, wherein the one or more first cells are measured according to the first measurement pattern, and wherein the plurality of cells comprises one or more second cells, wherein the one or more second cells are measured in subframes which are not indicated for measurement by the first measurement pattern; and wherein the processor is further configured to report the measurement results for the plurality of cells. a transceiver configured at least to receive radio signals on at least a first carrier frequency, wherein said transceiver is further configured to receive information regarding a first measurement pattern associated with the first carrier frequency, the first measurement pattern being a sequence of subframes of a first type and subframes of a second type; wherein said transceiver is further configured to receive a neighbour cell list associated with the first measurement pattern, said neighbour cell list indicating one or more first cells; and characterised by a processor configured to determine a second measurement pattern, the determination being based on the first measurement pattern and a pre-determined rule, which pre-determined rule relates the first measurement pattern to the second measurement pattern, wherein the processor is further configured, when the first measurement pattern is configured for the wireless device, to perform measurements on a plurality of cells during a time period, wherein the plurality of cells comprises the one or more first cells, wherein the one or more first cells are measured according to the first measurement pattern, and wherein the plurality of cells comprises one or more second cells, wherein the one or more second cells are measured in subframes which are not indicated for measurement by the first measurement pattern; and wherein the processor is further configured to report the measurement results for the plurality of cells.
A nickel-base superalloy for single crystal casting, consisting of: 5.60% to 5.80% aluminum by weight; 9.4% to 9.9% cobalt by weight; 4.9% to 5.5% chromium by weight; 0.08% to 0.35% hafnium by weight; 0.50% to 0.70% molybdenum by weight; 1.4% to 1.6% rhenium by weight; 8.1 % to 8.5% tantalum by weight; 0.60% to 0.80% titanium by weight; 7.6 to 8.0% tungsten by weight; and optionally 5 to 80 ppm total lanthanum and yttrium by weight; 0.02% to 0.05% carbon by weight; or 40 to 100 ppm boron by weight, the balance being nickel and minor amounts of incidental impurity elements, the total amount of incidental impurity elements being about 1% or less. 5.60% to 5.80% aluminum by weight; 9.4% to 9.9% cobalt by weight; 4.9% to 5.5% chromium by weight; 0.08% to 0.35% hafnium by weight; 0.50% to 0.70% molybdenum by weight; 1.4% to 1.6% rhenium by weight; 8.1 % to 8.5% tantalum by weight; 0.60% to 0.80% titanium by weight; 7.6 to 8.0% tungsten by weight; and optionally 5 to 80 ppm total lanthanum and yttrium by weight; 0.02% to 0.05% carbon by weight; or 40 to 100 ppm boron by weight, the balance being nickel and minor amounts of incidental impurity elements, the total amount of incidental impurity elements being about 1% or less.
A light-emitting device, comprising: at least one first semiconductor layer of one conductivity type; a plurality of first active layers laminated on the at least one first semiconductor layer, the plurality of first active layers being aligned in a first direction; a plurality of second active layers, each being arranged adjacent to corresponding one of the plurality of first active layers in a second direction which is perpendicular to the first direction; a plurality of second semiconductor layers of another conductivity type, the plurality of second semiconductor layers being laminated on the plurality of first active layers; and a plurality of electrodes (9,10) connected to the at least one first semiconductor layer and the plurality of second semiconductor layers, the plurality of electrodes comprising at least one first electrode disposed on the at least one first semiconductor layer so as to lie between the plurality of first active layers, and a plurality of second electrodes disposed on the plurality of second semiconductor layers, some electrodes (10a, 10b) of the plurality of electrodes being opposed to each other, with the plurality of first active layers lying in between, the other electrodes of the plurality of electrodes being located in a region between the some electrodes of the plurality of electrodes, characterised in that a distance between the plurality of first active layers is longer than a distance between each of the plurality of first active layers and a corresponding one of the plurality of second active layers. at least one first semiconductor layer of one conductivity type; a plurality of first active layers laminated on the at least one first semiconductor layer, the plurality of first active layers being aligned in a first direction; a plurality of second active layers, each being arranged adjacent to corresponding one of the plurality of first active layers in a second direction which is perpendicular to the first direction; a plurality of second semiconductor layers of another conductivity type, the plurality of second semiconductor layers being laminated on the plurality of first active layers; and a plurality of electrodes (9,10) connected to the at least one first semiconductor layer and the plurality of second semiconductor layers, the plurality of electrodes comprising at least one first electrode disposed on the at least one first semiconductor layer so as to lie between the plurality of first active layers, and a plurality of second electrodes disposed on the plurality of second semiconductor layers, some electrodes (10a, 10b) of the plurality of electrodes being opposed to each other, with the plurality of first active layers lying in between, the other electrodes of the plurality of electrodes being located in a region between the some electrodes of the plurality of electrodes, characterised in that a distance between the plurality of first active layers is longer than a distance between each of the plurality of first active layers and a corresponding one of the plurality of second active layers.
Solenoid valve comprising a valve seat and a valve seal that is provided by an armature guided within a tube and having a solenoid coil and a counter core operatively connected to it, wherein the counter core is configured, to attract the armature together with the valve seal against a force applied by a return spring when the solenoid coil is energized, and comprising an end position sensor with a housing, characterized by a control board that provides a sensor element and evaluation electronics and a magnetic field transmission means arranged within the housing and spaced in a defined manner from the control board, which magnetic field transmission means has an interface for arrangement on the counter core and is configured upon energization of the solenoid coil to be magnetized by the magnetic field of the counter core, wherein the sensor element is configured to detect the magnetic field of the magnetic field transmission means and to detect the position of the solenoid valve depending on the strength of the magnetic field emitted by the magnetic field transmission means, wherein, furthermore, the volume space provided by the housing is filled with a potting compound having the control board embedded therein.
A nucleotide sequence which is optimized for expression in a mammalian cell culture system, preferably for expression in a COS cell, a BHK cell, a NSO cell, a CHO cell, a Sp2/0 or a human cell culture system, more preferably for expression in a PER.C6 cell or a HEK293 cell culture system comprising (i) a nucleotide sequence according to SEQ ID NO. 4 or 7, or a part thereof which comprises nucleotides 60 to 1932 of SEQ ID NO. 4, nucleotides 60 to 1887 of SEQ ID NO. 4 or nucleotides 60-2598 of SEQ ID NO. 7, or a nucleotide sequence which has a sequence which is at least 90% identical to SEQ ID NO. 4 or 7 and which encodes a fibrinogen alpha chain, or (ii) a nucleotide sequence according to SEQ ID NO. 5, or the part thereof which comprises nucleotides 93 to 1473 of SEQ ID NO. 5, or a nucleotide sequence which has a sequence which is at least 90% identical to SEQ ID NO. 5 and which encodes a fibrinogen beta chain or (iii) a nucleotide sequence according to SEQ ID NO. 6 or 12, or a part thereof which comprises nucleotides 81 to 1311 of SEQ ID NO. 6 or nucleotides 81 to 1359 of SEQ ID NO.12, or a nucleotide sequence which has a sequence which is at least 90% identical to SEQ ID NO. 6 or 12 and which encodes a fibrinogen gamma chain. (i) a nucleotide sequence according to SEQ ID NO. 4 or 7, or a part thereof which comprises nucleotides 60 to 1932 of SEQ ID NO. 4, nucleotides 60 to 1887 of SEQ ID NO. 4 or nucleotides 60-2598 of SEQ ID NO. 7, or a nucleotide sequence which has a sequence which is at least 90% identical to SEQ ID NO. 4 or 7 and which encodes a fibrinogen alpha chain, or (ii) a nucleotide sequence according to SEQ ID NO. 5, or the part thereof which comprises nucleotides 93 to 1473 of SEQ ID NO. 5, or a nucleotide sequence which has a sequence which is at least 90% identical to SEQ ID NO. 5 and which encodes a fibrinogen beta chain or (iii) a nucleotide sequence according to SEQ ID NO. 6 or 12, or a part thereof which comprises nucleotides 81 to 1311 of SEQ ID NO. 6 or nucleotides 81 to 1359 of SEQ ID NO.12, or a nucleotide sequence which has a sequence which is at least 90% identical to SEQ ID NO. 6 or 12 and which encodes a fibrinogen gamma chain.
An electronic apparatus comprising: a dial plate having light transparency; a module including an antenna for receiving circularly polarized waves which is disposed below the dial plate, the antenna having a radiation electrode; and a solar panel disposed between the dial plate and the module, wherein the solar panel includes: a common substrate; a plurality of solar cells disposed on the common substrate; and an inactive segment disposed on the common substrate at a place corresponding to the place of the radiation electrode, characterized in that the inactive segment includes: a non-conductive area formed of a non-conductive material, disposed over and along an outer edge of the radiation electrode and comprising an outer frame disposed outside an outline corresponding to an outer edge of the radiation electrode and an inner frame disposed inside the outline; and an unconnected solar cell located inside the non-conductive area wherein the non-conductive material fills the space between the solar cells and the unconnected solar cell. a dial plate having light transparency; a module including an antenna for receiving circularly polarized waves which is disposed below the dial plate, the antenna having a radiation electrode; and a solar panel disposed between the dial plate and the module, wherein the solar panel includes: a common substrate; a plurality of solar cells disposed on the common substrate; and an inactive segment disposed on the common substrate at a place corresponding to the place of the radiation electrode, a common substrate; a plurality of solar cells disposed on the common substrate; and an inactive segment disposed on the common substrate at a place corresponding to the place of the radiation electrode, characterized in that the inactive segment includes: a non-conductive area formed of a non-conductive material, disposed over and along an outer edge of the radiation electrode and comprising an outer frame disposed outside an outline corresponding to an outer edge of the radiation electrode and an inner frame disposed inside the outline; and an unconnected solar cell located inside the non-conductive area wherein the non-conductive material fills the space between the solar cells and the unconnected solar cell. a non-conductive area formed of a non-conductive material, disposed over and along an outer edge of the radiation electrode and comprising an outer frame disposed outside an outline corresponding to an outer edge of the radiation electrode and an inner frame disposed inside the outline; and an unconnected solar cell located inside the non-conductive area wherein the non-conductive material fills the space between the solar cells and the unconnected solar cell.