mhurhangee/ep-ind-claims huggingface dataset:
A method of denaturing or deactivating a protein and/or a biological entity on a surface of an aspiration and dispense device comprising: generating an alternating electromagnetic field with a coil (100, 204, 306, 418); introducing the aspiration and dispense device (106, 214, 300, 606) into the electromagnetic field; detecting a presence of the aspiration and dispense device (106, 214, 300, 606) in the electromagnetic field based on a temperature change or a load change at the coil (100, 204, 306, 418); and inductively heating the aspiration and dispense device (106, 214, 300, 606) with the electromagnetic field to at least one of denature or deactivate at least one of a protein or a biological entity on a surface of the aspiration and dispense device (106, 214, 300, 606). generating an alternating electromagnetic field with a coil (100, 204, 306, 418); introducing the aspiration and dispense device (106, 214, 300, 606) into the electromagnetic field; detecting a presence of the aspiration and dispense device (106, 214, 300, 606) in the electromagnetic field based on a temperature change or a load change at the coil (100, 204, 306, 418); and inductively heating the aspiration and dispense device (106, 214, 300, 606) with the electromagnetic field to at least one of denature or deactivate at least one of a protein or a biological entity on a surface of the aspiration and dispense device (106, 214, 300, 606).
A pharmaceutical composition or a formulation comprising nano-sized vesicles; wherein the nano-sized vesicles comprise a bolaamphiphilic compound and a biologically active compound, wherein the biologically active compound is CPT-11, the composition or formulation being for delivering the biologically active compound into a brain, and wherein the bolaamphiphilic compound is GLH-20: wherein the biologically active compound is CPT-11, the composition or formulation being for delivering the biologically active compound into a brain, and wherein the bolaamphiphilic compound is GLH-20:
An imaging method in a Satellite-or-Aircraft-Borne, SAB, mobile bistatic Synthetic Aperture Radar, SAR), comprising: performing a two-dimensional Fourier transformation on a received echo signal to obtain a two-dimensional frequency domain echo signal; correcting a radial phase of each range gate in the two-dimensional frequency domain echo signal using a radial-variable-slant-range frequency domain filter function; performing an orientation scaling Fourier transformation on the two-dimensional frequency domain echo signal with the corrected radial phase to obtain a time domain echo signal; and using an orientation-variable-slant-range time domain filter function and performing each orientation correction on the time domain echo signal to obtain an image, wherein the correcting a radial phase in the two-dimensional frequency domain echo signal using a radial-variable-slant-range frequency domain filter function comprises: performing a consistent radial modulation on the two-dimensional frequency domain echo signal, and then correcting the radial phase of each range gate in the modulated two-dimensional frequency domain echo signal using the radial-variable-slant-range frequency domain filter function, wherein the performing each orientation correction on the time domain echo signal to obtain an image comprises: multiplying the orientation-variable-slant-range time domain filter function with the time domain echo signal to obtain a corrected image, wherein the orientation-variable-slant-range time domain filter function is a time domain filter function established according to a slant range varying with different orientations. performing a two-dimensional Fourier transformation on a received echo signal to obtain a two-dimensional frequency domain echo signal; correcting a radial phase of each range gate in the two-dimensional frequency domain echo signal using a radial-variable-slant-range frequency domain filter function; performing an orientation scaling Fourier transformation on the two-dimensional frequency domain echo signal with the corrected radial phase to obtain a time domain echo signal; and using an orientation-variable-slant-range time domain filter function and performing each orientation correction on the time domain echo signal to obtain an image, wherein the correcting a radial phase in the two-dimensional frequency domain echo signal using a radial-variable-slant-range frequency domain filter function comprises: performing a consistent radial modulation on the two-dimensional frequency domain echo signal, and then correcting the radial phase of each range gate in the modulated two-dimensional frequency domain echo signal using the radial-variable-slant-range frequency domain filter function, wherein the performing each orientation correction on the time domain echo signal to obtain an image comprises: multiplying the orientation-variable-slant-range time domain filter function with the time domain echo signal to obtain a corrected image, wherein the orientation-variable-slant-range time domain filter function is a time domain filter function established according to a slant range varying with different orientations.
A superconducting cable line comprising: a plurality of superconducting cables (1a, 1b, 1c), each of the superconducting cables (1a, 1b, 1c) including a cable core having a superconducting conductor layer, and a thermal insulation pipe housing the cable core and having an inner pipe to be filled with refrigerant and an outer pipe disposed outside the inner pipe; and a plurality of magnetic shield members (3A, 3B, 3C) in a plate shape disposed between an adjacent pairs of the superconducting cables, each of the superconducting cables (1a, 1b, 1c) being configured to generate an external magnetic field, a pair (3A, 3B) of the magnetic shield members (3A, 3B, 3C) being configured to shield the superconducting cable disposed between the pair (3A, 3B) of the magnetic shield members (3A, 3B, 3C) from the magnetic field, each of the magnetic shield member (3A, 3B, 3C) having a ferromagnetic layer made of a ferromagnetic material, and the magnetic shield members being electromagnetically independent of each other. a plurality of superconducting cables (1a, 1b, 1c), each of the superconducting cables (1a, 1b, 1c) including a cable core having a superconducting conductor layer, and a thermal insulation pipe housing the cable core and having an inner pipe to be filled with refrigerant and an outer pipe disposed outside the inner pipe; and a cable core having a superconducting conductor layer, and a thermal insulation pipe housing the cable core and having an inner pipe to be filled with refrigerant and an outer pipe disposed outside the inner pipe; and a plurality of magnetic shield members (3A, 3B, 3C) in a plate shape disposed between an adjacent pairs of the superconducting cables, each of the superconducting cables (1a, 1b, 1c) being configured to generate an external magnetic field, a pair (3A, 3B) of the magnetic shield members (3A, 3B, 3C) being configured to shield the superconducting cable disposed between the pair (3A, 3B) of the magnetic shield members (3A, 3B, 3C) from the magnetic field, each of the magnetic shield member (3A, 3B, 3C) having a ferromagnetic layer made of a ferromagnetic material, and the magnetic shield members being electromagnetically independent of each other.
A pharmaceutical composition in the form of a solid oral dosage form having Brivaracetam as active ingredient and, as excipient within the core of the pharmaceutical form, 5% to 90% per weight of at least one matrix agent, with respect to the total weight of the core of the pharmaceutical form, the matrix agent being chosen among: - hydrophobic matrix agent, which is a non-polymer material having a melting point greater than 40° C, chosen among: hydrogenated palm oil, hydrogenated castor oil, hydrogenated cottonseed oil, stearic acid, palmitic acid, cetyl alcohol, glyceryl behenate, hydrogenated soybean oil, lauroyl macrogolglycerides, stearyl macrogolglycerides, glyceryl palmitostearate, glycerol esters of fatty acids, and mixtures thereof; or - inert matrix agent, which is a polymer material chosen among: polymethacrylic acid derivatives, such as ethyl acrylate methyl methacrylate copolymer. - hydrophobic matrix agent, which is a non-polymer material having a melting point greater than 40° C, chosen among: hydrogenated palm oil, hydrogenated castor oil, hydrogenated cottonseed oil, stearic acid, palmitic acid, cetyl alcohol, glyceryl behenate, hydrogenated soybean oil, lauroyl macrogolglycerides, stearyl macrogolglycerides, glyceryl palmitostearate, glycerol esters of fatty acids, and mixtures thereof; or hydrogenated palm oil, hydrogenated castor oil, hydrogenated cottonseed oil, stearic acid, palmitic acid, cetyl alcohol, glyceryl behenate, hydrogenated soybean oil, lauroyl macrogolglycerides, stearyl macrogolglycerides, glyceryl palmitostearate, glycerol esters of fatty acids, and mixtures thereof; - inert matrix agent, which is a polymer material chosen among: polymethacrylic acid derivatives, such as ethyl acrylate methyl methacrylate copolymer.
System for the measurement of a dimension of a workpiece moved along a straight movement path, comprising a device for measuring the dimension of the workpiece, wherein the device comprises a centring element and two sensing members associated therewith, wherein the centring element is arranged and configured such that it defines a longitudinal direction running parallel or substantially parallel to the movement path, wherein the longitudinal direction runs transversely, in particular perpendicularly, to the direction of gravity, wherein the two sensing members are movably mounted and, as a result of a contact with the workpiece, are movable apart from each other, wherein the centring element is mounted movably in a direction parallel to or substantially parallel to the direction of gravity and as a result of a contact with the workpiece is movable contrary to the direction of gravity, wherein the centring element has a centring recess, which defines a run-in region and a measurement region, wherein the centring element has a run-out region and wherein the measurement region is arranged or configured between the run-in region and the run-out region, wherein the centring recess has a constant cross-section along the measurement region, characterised in that the centring element has a run-in end and a run-out end and in that the centring recess has, along the run-in region, a cross-section tapering starting from the run-in end towards the measurement region, in that the centring recess has, along the run-out region, a cross-section tapering starting from the run-out end towards the measurement region, in that measurement region groove side faces of the centring recess in the measurement region define measurement region groove side face planes, which intersect along a line of intersection, which runs parallel or substantially parallel to the longitudinal direction, in that run-in region groove side faces of the centring recess in the run-in region define run-in region groove side face planes, which intersect along a run-in line of intersection, which run-in line of intersection defines a run-in angle with the longitudinal direction, and in that run-out region groove side faces of the centring recess in the run-out region define run-out region groove side face planes, which intersect along a run-out line of intersection, which run-out line of intersection defines a run-out angle with the longitudinal direction.
An information processing apparatus (13, 14), comprising: an operation unit (28, 56) configured to receive an operation input according to an operation of a user; and characterized in: a phrase acquiring unit (25, 52) configured to acquire a predetermined number of phrases, as candidates for a phrase to be sent in a message, in the case where the operation unit determines to attach a picture to the message on the basis of the operation input, from a plurality of phrases classified within one or more categories respectively corresponding to a picture chosen as a candidate for an image to be attached to the message or, in the case where the message is a reply message to a received message and a picture is attached to the received message, from a plurality of phrases classified within one or more categories respectively corresponding to a picture attached to the received message, among a plurality of categories into which the phrases are classified; and an option creating unit (26, 53) configured to create options for prompting a selection of the phrase to be sent from the predetermined number of phrases acquired by the phrase acquiring unit, and to exhibit the options at a predetermined timing. a phrase acquiring unit (25, 52) configured to acquire a predetermined number of phrases, as candidates for a phrase to be sent in a message, in the case where the operation unit determines to attach a picture to the message on the basis of the operation input, from a plurality of phrases classified within one or more categories respectively corresponding to a picture chosen as a candidate for an image to be attached to the message or, in the case where the message is a reply message to a received message and a picture is attached to the received message, from a plurality of phrases classified within one or more categories respectively corresponding to a picture attached to the received message, among a plurality of categories into which the phrases are classified; and an option creating unit (26, 53) configured to create options for prompting a selection of the phrase to be sent from the predetermined number of phrases acquired by the phrase acquiring unit, and to exhibit the options at a predetermined timing.
A glass-wiping device comprising a suction apparatus, a running unit, a cleaning unit, a driver unit and a controller unit, in which the running unit and the cleaning unit are respectively arranged at the bottom of the glass-wiping device, the controller unit is connected with the driver unit; under the control by the controller unit, the driver unit controls the running unit to run; the glass-wiping device sucks on a glass surface by the suction apparatus; the suction apparatus comprises a suction cup unit, characterized in that, the suction cup unit includes an inner suction cup and an outer suction cup, the inner suction cup being arranged inside the outer suction cup, a cavity inside the inner suction cup forms an inner negative pressure chamber by vacuum-pumping, and a cavity between the inner suction cup and the outer suction cups forms an outer negative pressure chamber by vacuum-pumping, the glass-wiping device also comprises a vacuum detection unit which is respectively connected to the controller unit and the outer negative pressure chamber.
Device for scrubbing a metal wire, including: - means for feeding and running the wire, - at least two pairs of rotary brushes (21, 22) having a radius r, the axes of each pair being substantially mutually parallel and perpendicular to the direction in which the wire runs, - application means (223, 224, 225, 226, 227, 228), suitable for contacting the brushes with the wire via the circumferences thereof in order to exert a given pressure on the said wire while the device is operating, characterised in that means (31, 32) of adjusting the tension of the wire, composed of transport rollers (31, 32), around each of which the wire can be wound several times and which are driven in rotation by motors associated with means of controlling the torque and speed, are provided directly upstream and downstream of the assembly of brushes. - means for feeding and running the wire, - at least two pairs of rotary brushes (21, 22) having a radius r, the axes of each pair being substantially mutually parallel and perpendicular to the direction in which the wire runs, - application means (223, 224, 225, 226, 227, 228), suitable for contacting the brushes with the wire via the circumferences thereof in order to exert a given pressure on the said wire while the device is operating,
Audio signal processing device for generating a plurality of output signals for a plurality of loudspeakers (62, 120, 130, 156) from an input audio signal, comprising: - a driving function determining unit (11, 153a, 153b) adapted to determine driving functions of the plurality of loudspeakers (62, 120, 130, 156) for generating a virtual left binaural signal source (121, 131, 141) and a virtual right binaural signal source (122, 132, 142) based upon a position and a directivity of the virtual left binaural signal source (121, 131, 141), a position and a directivity of the virtual right binaural signal source (122, 132, 142) and positions of the plurality of loudspeakers (62, 120, 130, 156), and - a filtering unit (12, 154a, 154b, 176a, 176b, 195a, 195b) adapted to filter a left binaural signal and a right binaural signal using the driving functions of the plurality of loudspeakers (62, 120, 130, 156) resulting in the plurality of output signals, wherein the left binaural signal and the right binaural signal constitute the input audio signal or are derived therefrom, characterized in that the driving function determining unit (11, 153a, 153b) comprises: - a sound field computation unit (50, 174a, 174b) adapted to calculate a left soundfield for the virtual left binaural signal source (121, 131, 141) and a right soundfield for the virtual right binaural signal source (122, 132, 142) as a combination of multipole sources, which correspond to the plurality of loudspeakers (62, 120, 130, 156), and - a time reversal unit (51, 175a, 175b) adapted to obtain the loudspeaker driving functions by performing a time reversal calculation for each multipole source. - a driving function determining unit (11, 153a, 153b) adapted to determine driving functions of the plurality of loudspeakers (62, 120, 130, 156) for generating a virtual left binaural signal source (121, 131, 141) and a virtual right binaural signal source (122, 132, 142) based upon a position and a directivity of the virtual left binaural signal source (121, 131, 141), a position and a directivity of the virtual right binaural signal source (122, 132, 142) and positions of the plurality of loudspeakers (62, 120, 130, 156), and - a filtering unit (12, 154a, 154b, 176a, 176b, 195a, 195b) adapted to filter a left binaural signal and a right binaural signal using the driving functions of the plurality of loudspeakers (62, 120, 130, 156) resulting in the plurality of output signals, wherein the left binaural signal and the right binaural signal constitute the input audio signal or are derived therefrom, - a sound field computation unit (50, 174a, 174b) adapted to calculate a left soundfield for the virtual left binaural signal source (121, 131, 141) and a right soundfield for the virtual right binaural signal source (122, 132, 142) as a combination of multipole sources, which correspond to the plurality of loudspeakers (62, 120, 130, 156), and - a time reversal unit (51, 175a, 175b) adapted to obtain the loudspeaker driving functions by performing a time reversal calculation for each multipole source.
Dispenser for dispensing liquids, said dispenser having - a liquid storage unit, - a dispensing head with a perforated plate component (10; 110) which has at least 25 dispensing openings (18; 118) in a dispensing opening region (16; 116), - a pre-chamber which is connected upstream of the dispensing openings (18; 118) of the perforated plate component (10; 110) and from which the dispensing openings (18; 118) are supplied, and - a connecting channel (204; 304; 404) which connects the liquid storage unit to the pre-chamber, characterized in that - the dispensing opening region (16; 116) is fastened on the dispensing head in an edge region and - the dispensing opening region (16; 116) is pressed into a curved form by means of a curvature body (230; 330; 430; 530; 630a-i) which is arranged in the pre-chamber and acts with force upon the dispensing opening region, in which curved form liquid can be dispensed from the pre-chamber through the dispensing openings (18; 118) of the dispensing opening region (16; 116) curved in such a manner. - a liquid storage unit, - a dispensing head with a perforated plate component (10; 110) which has at least 25 dispensing openings (18; 118) in a dispensing opening region (16; 116), - a pre-chamber which is connected upstream of the dispensing openings (18; 118) of the perforated plate component (10; 110) and from which the dispensing openings (18; 118) are supplied, and - a connecting channel (204; 304; 404) which connects the liquid storage unit to the pre-chamber, characterized in that - the dispensing opening region (16; 116) is fastened on the dispensing head in an edge region and - the dispensing opening region (16; 116) is pressed into a curved form by means of a curvature body (230; 330; 430; 530; 630a-i) which is arranged in the pre-chamber and acts with force upon the dispensing opening region, in which curved form liquid can be dispensed from the pre-chamber through the dispensing openings (18; 118) of the dispensing opening region (16; 116) curved in such a manner.
An ablation device, comprising: a first indentation and a second indentation, each extending into an outer surface of the ablation device, each indentation including: a first surface forming a first plane (710a, 710b) extending into the outer surface of the ablation device at a first approach angle θ 1, wherein the approach angle is the angle subtended by the first plane relative to the outer surface of the ablation device; a second surface forming a second plane; and a third surface forming a third plane, wherein the first, the second, and the third planes are substantially perpendicular to each other; and wherein the first plane of the the second indentation extends into the outer surface of the ablation device at a second approach angle θ 2, different from the first approach angle θ 1 of the first plane of the first indentation. a first indentation and a second indentation, each extending into an outer surface of the ablation device, each indentation including: a first surface forming a first plane (710a, 710b) extending into the outer surface of the ablation device at a first approach angle θ 1, wherein the approach angle is the angle subtended by the first plane relative to the outer surface of the ablation device; a second surface forming a second plane; and a third surface forming a third plane, wherein the first, the second, and the third planes are substantially perpendicular to each other; and a first surface forming a first plane (710a, 710b) extending into the outer surface of the ablation device at a first approach angle θ 1, wherein the approach angle is the angle subtended by the first plane relative to the outer surface of the ablation device; a second surface forming a second plane; and a third surface forming a third plane, wherein the first, the second, and the third planes are substantially perpendicular to each other; and wherein the first plane of the the second indentation extends into the outer surface of the ablation device at a second approach angle θ 2, different from the first approach angle θ 1 of the first plane of the first indentation.
A device for chipping wood, comprising a plurality of rotor discs disposed on a rotor axle of a rotor, wherein at least one knife holder with a knife detachably fixed thereto is provided on each of the rotor discs, and wherein the rotor discs are disposed on the rotor axle in a spaced-apart relationship via interposed spacers and are fastened to one another, characterized in that a detachably fixed spacer is each provided between two rotor discs detachably fixed to the rotor axle, that each of the spacers is designed as a substantially tube-shaped element comprising fastening flanges disposed in its two end regions and extending over a tube diameter, and that at least the rotor discs are fixed to the rotor axle by clamping elements.