mhurhangee/ep-ind-claims huggingface dataset:
A method of mapping a space using a combination of radar scanning and optical imaging, comprising: providing a measurement vehicle having a radar system and an optical image acquisition system attached thereto; aligning a field of view of the radar system with a field of view of the optical image acquisition system; obtaining at least one radar scan of a space using the radar scanning system; obtaining at least one image of the space using the optical image acquisition system: storing the at least one radar scan and the at least one image; generating a three-dimensional view of the space based at least in part on the at least one radar scan and the at least one image; characterized by identifying an object in the space, wherein the object is a building; identifying an outline of the building using the at least one radar scan, wherein the outline is a footprint of the building and estimating a height of the building using dimensions in the at least one image and the radar distance to the building base in the at least one radar scan to estimate a shape of the building for placing an advertisement onto an outside surface of the building. providing a measurement vehicle having a radar system and an optical image acquisition system attached thereto; aligning a field of view of the radar system with a field of view of the optical image acquisition system; obtaining at least one radar scan of a space using the radar scanning system; obtaining at least one image of the space using the optical image acquisition system: storing the at least one radar scan and the at least one image; generating a three-dimensional view of the space based at least in part on the at least one radar scan and the at least one image; characterized by identifying an object in the space, wherein the object is a building; identifying an outline of the building using the at least one radar scan, wherein the outline is a footprint of the building and estimating a height of the building using dimensions in the at least one image and the radar distance to the building base in the at least one radar scan to estimate a shape of the building for placing an advertisement onto an outside surface of the building. storing the at least one radar scan and the at least one image; generating a three-dimensional view of the space based at least in part on the at least one radar scan and the at least one image; characterized by identifying an object in the space, wherein the object is a building; identifying an outline of the building using the at least one radar scan, wherein the outline is a footprint of the building and estimating a height of the building using dimensions in the at least one image and the radar distance to the building base in the at least one radar scan to estimate a shape of the building for placing an advertisement onto an outside surface of the building.
A method for determining the single nucleotide variants present in a lung squamous cell carcinoma, comprising generating a set of amplicons by performing a multiplex PCR amplification reaction on nucleic acids isolated from a plasma sample of blood from an individual suspected of having a lung squamous cell carcinoma wherein the multiplex PCR amplification reaction comprises combining a polymerase, nucleotide triphosphates, nucleic acid fragments from a nucleic acid library generated from the plasma sample, and a set of primers that each binds within 150 base pairs of the single nucleotide variant loci, or a set of primer pairs that each span a region of 160 base pairs or less comprising the single nucleotide variant loci, an annealing time of 15 minutes and a primer concentration of 10 nM, wherein the single nucleotide variant loci are known to be associated with lung squamous cell carcinoma and each amplicon of the set of amplicons spans at least one single nucleotide variant loci of a set of 25 to 1000 single nucleotide variant loci known to be associated with lung cancer; and determining the sequence of at least a segment of each amplicon of the set of amplicons, wherein the segment comprises a single nucleotide variant loci, thereby determining the single nucleotide variants present in the squamous cell carcinoma.
Method for etching a structure comprising at least one material to be etched, comprising: - choosing at least one chemical species capable of reacting with the material to be etched; - choosing at least one soluble compound that does not react with said material but which is able to release the aforementioned chemical species; - producing a solution containing said compound; - placing the structure in a position such that the surface of the material to be etched is in the presence of the solution; and - producing high-frequency ultrasound in the solution with at least one frequency capable of generating reactive cavitation bubbles, in the presence of said additional bubbles, such that the chemical species is generated and reacts with the material to be etched, while producing a soluble compound or a precipitate, in which method the structure is also in the presence of additional bubbles of a gas, different from the cavitation bubbles, the cavitation bubbles being found in contact with and mixing with the additional bubbles of gas. - choosing at least one chemical species capable of reacting with the material to be etched; - choosing at least one soluble compound that does not react with said material but which is able to release the aforementioned chemical species; - producing a solution containing said compound; - placing the structure in a position such that the surface of the material to be etched is in the presence of the solution; and - producing high-frequency ultrasound in the solution with at least one frequency capable of generating reactive cavitation bubbles, in the presence of said additional bubbles, such that the chemical species is generated and reacts with the material to be etched, while producing a soluble compound or a precipitate, in which method the structure is also in the presence of additional bubbles of a gas, different from the cavitation bubbles, the cavitation bubbles being found in contact with and mixing with the additional bubbles of gas.
A light emitting device comprising: a substrate having a first surface and a second surface that are opposed to each other; a semiconductor stacked body that is provided on the first surface of the substrate, the semiconductor stacked body having a plurality of light emitting regions (L1, L2, L3) each of which allows a laser beam to be emitted; a first electrically conductive layer that is provided on a front surface of the semiconductor stacked body, the front surface being opposite to the substrate; a second electrically conductive layer that is provided on the second surface of the substrate, the second electrically conductive layer being provided to allow a predetermined voltage to be applied to the semiconductor stacked body in each of a plurality of the light emitting regions; a through wiring line that electrically couples the first electrically conductive layer and the second electrically conductive layer; and a plurality of electrodes that is provided on the front surface of the semiconductor stacked body, the front surface being opposite to the substrate, the plurality of electrodes being provided to allow predetermined voltages to be applied to the semiconductor stacked body in a plurality of the respective light emitting regions. a substrate having a first surface and a second surface that are opposed to each other; a semiconductor stacked body that is provided on the first surface of the substrate, the semiconductor stacked body having a plurality of light emitting regions (L1, L2, L3) each of which allows a laser beam to be emitted; a first electrically conductive layer that is provided on a front surface of the semiconductor stacked body, the front surface being opposite to the substrate; a second electrically conductive layer that is provided on the second surface of the substrate, the second electrically conductive layer being provided to allow a predetermined voltage to be applied to the semiconductor stacked body in each of a plurality of the light emitting regions; a through wiring line that electrically couples the first electrically conductive layer and the second electrically conductive layer; and a plurality of electrodes that is provided on the front surface of the semiconductor stacked body, the front surface being opposite to the substrate, the plurality of electrodes being provided to allow predetermined voltages to be applied to the semiconductor stacked body in a plurality of the respective light emitting regions.
An EMUS transducer system for producing or detecting linearly polarized transverse waves with a variably predeterminable polarization direction within a test specimen containing at least ferromagnetic material fractions with a test specimen surface, comprising a magnetization unit which has at least three, preferably four, magnetization bodies (1a, 1b, 1c, 1d) spatially separated from one another which are positionable on the test specimen surface and each introduce magnetic field lines with a predeterminable magnetic flux into the test specimens and which are provided and set up to be locatable on the surface of the test specimen and to produce a magnetic field oriented parallel to the test specimen surface within the test specimen and also with at least one HF coil arrangement, characterized in that the at least one HF coil arrangement is arranged on the test specimen surface and produces or detects a HF field overlapping the magnetic field oriented parallel to the test specimen surface within the test specimen for producing or detecting linearly polarized transverse waves with a sound propagation direction oriented perpendicularly to the test specimen surface and that means are provided through which the magnetic flux of the magnetic field lines to be introduced into the test specimen which emanate from at least one magnetization body (1a, 1b, 1c, 1d) can be varied in such a manner that the spatial direction of the magnetic field formed parallel to the test specimen surface within the test specimen can be changed in a predeterminable manner.
Method for producing a lead-free calcinate for the production of a lead-free ceramic material having piezoelectric properties, comprising the following method steps: A) mixing and grinding the raw materials in a first method step in an aqueous suspending agent, the water content of which is > 80%, in order to obtain a suspension with isotropic distribution, B) fixing the isotropic distribution of the suspension by freezing the suspension, C) removing the suspending agent by means of sublimation, D) converting the fixed distribution into a piezoelectric ceramic material by means of calcination and/or mixed oxide methods to form the calcinate E) removing the calcinate. A) mixing and grinding the raw materials in a first method step in an aqueous suspending agent, the water content of which is > 80%, in order to obtain a suspension with isotropic distribution, B) fixing the isotropic distribution of the suspension by freezing the suspension, C) removing the suspending agent by means of sublimation, D) converting the fixed distribution into a piezoelectric ceramic material by means of calcination and/or mixed oxide methods to form the calcinate E) removing the calcinate.
A composition comprising a first agent that is capable of providing a primary activation signal to a T cell and a second agent that is capable of activating ICOS on said T cell, wherein the second agent is anti-ICOS antibody, and further comprising a Th17 polarizing agent, wherein the polarizing agent is selected from the group consisting of IL-1β, IL-6, IL-23, neutralizing anti-IFNy antibody, and neutralizing anti-IL-4 antibody.
A combination comprising a sink, a worktop and at least one holding element that is on the worktop side, wherein the sink includes at least one sink bowl which is provided on its upper edge with a bowl flange and at least one holding element that is on the sink side and which, in the mounted condition of the sink, cooperates with the holding element that is on the worktop side in order to retain the sink on the worktop, wherein the holding element on the sink side is connected to the bowl flange, characterised in that a cover which is fixed to the sink bowl at least partly covers the bowl flange and, during mounting of the sink on the worktop, is pulled towards an upper side of the worktop.
A speaker comprising: a yoke configured to form a magnetic circuit; a first magnet provided in a fixed manner; a voice coil provided in a gap through which a first magnetic flux of the magnetic circuit is configured to pass; a diaphragm connected to the voice coil and configured to vibrate with the voice coil; a second magnet provided on a diaphragm unit (104, 105, 102) including the voice coil and the diaphragm; and a magnetic sensor provided at a position through which both of the first magnetic flux generated by the first magnet and a second magnetic flux generated by the second magnet pass, wherein a direction of the first magnetic flux is different from a direction of the second magnetic flux, wherein the magnetic sensor is configured to detect a change in a direction of a composite magnetic flux constituted by the first magnetic flux and the second magnetic flux within a plane that crosses a vibration direction of the diaphragm unit (104, 105, 102). a yoke configured to form a magnetic circuit; a first magnet provided in a fixed manner; a voice coil provided in a gap through which a first magnetic flux of the magnetic circuit is configured to pass; a diaphragm connected to the voice coil and configured to vibrate with the voice coil; a second magnet provided on a diaphragm unit (104, 105, 102) including the voice coil and the diaphragm; and a magnetic sensor provided at a position through which both of the first magnetic flux generated by the first magnet and a second magnetic flux generated by the second magnet pass, wherein a direction of the first magnetic flux is different from a direction of the second magnetic flux, wherein the magnetic sensor is configured to detect a change in a direction of a composite magnetic flux constituted by the first magnetic flux and the second magnetic flux within a plane that crosses a vibration direction of the diaphragm unit (104, 105, 102).
A liquid chromatographic system (200, 300, 400) comprising a liquid chromatography pump (50, 51, 52) comprising at least one pump head (20, 30) comprising a primary pump head (20', 30') and a secondary pump head (20", 30"), each comprising a syringe-like cylinder body (21', 21", 31', 31") having an inner wall surface (22', 22", 32', 32") and a plunger (23', 23", 33', 33") translatable through the cylinder body (21', 21", 31', 31") leaving an interspace (24', 24", 34', 34") between the inner wall surface (22', 22", 32', 32") and the plunger (23', 23", 33', 33") when the plunger (23', 23", 33', 33") is translated through the cylinder body (21', 21", 31', 31"), an upstream inlet valve (25', 25", 35', 35") for letting liquid (10', 10", 11', 11") into the cylinder body (21', 21", 31', 31") and a downstream outlet valve (26', 26", 36', 36") for letting liquid (10', 10", 11', 11") out of the cylinder body (21', 21", 31', 31"), the downstream outlet valve (26', 36') of the primary pump head (20', 30') being connected to the upstream inlet valve (25", 35") of the secondary pump head (20", 30"), characterized in that the LC system (200, 300, 400) further comprises at least one liquid-exchange pump (60, 61, 62, 63, 64) connected either to the upstream inlet valve (25', 35') of the primary pump head (20', 30') or to the downstream outlet valve (26", 36") of the secondary pump head (20", 30"), for exchanging a liquid (10', 11') present in the cylinder bodies (21', 21", 31', 31") of the primary and secondary pump heads (20', 30', 20", 30") with another liquid (10", 11") by purging through the interspaces (24', 24", 34', 34") left between the inner wall surfaces (22', 22", 32', 32") of the cylinder bodies (21', 21", 31', 31") and the plungers (23', 23", 33', 33"), respectively.
Step mechanism by means of which a step for a vehicle is pivoted out and in, having a step, having a fitting device for fitting the step in a pivotable manner on the vehicle, and having a movement-transmitting pivot lever, which is connected to the step and by means of which the step is pivoted out and in, wherein the step is fastened on the fitting device such that it can be pivoted about a pivot axis, wherein the step mechanism has an operating lever, which is attached to the pivot lever in a pivotable manner via a first point of attachment, wherein the operating lever has a second point of attachment, which is spaced apart from the first point of attachment and is intended for fastening the operating lever in a pivotable manner on an element which is stationary in relation to the pivot axis, characterized in that, between the points of attachment (28, 29), the operating lever is formed by way of a folding element, and in that, in a pivoted-in position of the step, the operating lever is arranged in a folded state in a blocking-action folding position, in which the operating lever blocks an unintended pivoting-out action of the step.
A method for data transmission, performed by a sender, the method comprising: grouping data into M code block groups, CBGs, wherein the data comprises N code blocks, a difference between numbers of code blocks in any two CBGs is less than or equal to a preset value, N and M are positive integers, N is greater than or equal to M, and M is greater than or equal to 2; mapping the M CBGs to at least one transmission unit; and transmitting the M CBGs on the at least one transmission unit, characterized in that the M CBGs comprise a first CBG and a second CBG, and a value of a parameter of information amount of the first CBG is greater than a value of a parameter of information amount of the second CBG; and the at least one transmission unit comprises a physical resource carrying the first CBG and a physical resource carrying the second CBG, and the physical resource carrying the first CBG is before the physical resource carrying the second CBG in time domain. grouping data into M code block groups, CBGs, wherein the data comprises N code blocks, a difference between numbers of code blocks in any two CBGs is less than or equal to a preset value, N and M are positive integers, N is greater than or equal to M, and M is greater than or equal to 2; mapping the M CBGs to at least one transmission unit; and transmitting the M CBGs on the at least one transmission unit, characterized in that the M CBGs comprise a first CBG and a second CBG, and a value of a parameter of information amount of the first CBG is greater than a value of a parameter of information amount of the second CBG; and the at least one transmission unit comprises a physical resource carrying the first CBG and a physical resource carrying the second CBG, and the physical resource carrying the first CBG is before the physical resource carrying the second CBG in time domain.
A tip cap designed to be sealingly mounted on a distally projecting tip of an injection device having a passageway extending therethrough, the tip cap having an axis and comprising: - a closed distal end portion having a substantially transverse proximal surface; - a substantially cylindrical peripheral skirt extending in the proximal direction from the proximal surface of the distal end portion, said peripheral skirt having an inner surface designed to cooperate with the outer surface of the injection device tip; - a nipple protruding from the proximal surface of the distal end portion in the proximal direction, said nipple having a dome-shaped proximal portion and being designed to engage the injection device tip; an inner cavity thus being formed in the tip cap, the bottom of said cavity being a part of the proximal surface of the distal end portion and having a substantially annular shape which is connected to the peripheral skirt inner surface by an outer fillet and to the nipple by an inner fillet; characterized in that: - the outer fillet has a radius of curvature ranging from 0,4 to 0,6 mm; - the inner fillet has a radius of curvature ranging from 0,25 to 0,35 mm; - the nipple base width, substantially in the plane of the proximal surface of the distal end portion, ranges from 1,4 to 1,6 mm; - the dome-shaped proximal portion of the nipple has a radius of curvature ranging from 0,55 to 0,70 mm. - a closed distal end portion having a substantially transverse proximal surface; - a substantially cylindrical peripheral skirt extending in the proximal direction from the proximal surface of the distal end portion, said peripheral skirt having an inner surface designed to cooperate with the outer surface of the injection device tip; - a nipple protruding from the proximal surface of the distal end portion in the proximal direction, said nipple having a dome-shaped proximal portion and being designed to engage the injection device tip; - the outer fillet has a radius of curvature ranging from 0,4 to 0,6 mm; - the inner fillet has a radius of curvature ranging from 0,25 to 0,35 mm; - the nipple base width, substantially in the plane of the proximal surface of the distal end portion, ranges from 1,4 to 1,6 mm; - the dome-shaped proximal portion of the nipple has a radius of curvature ranging from 0,55 to 0,70 mm.
A semiconductor device, comprising: a gate trench extending into a Si substrate, the gate trench including a gate electrode and a gate dielectric separating the gate electrode from the Si substrate; a body region in the Si substrate adjacent the gate trench, the body region including a channel region which extends along a sidewall of the gate trench; a source region in the Si substrate above the body region; and a contact trench extending into the Si substrate and filled with an electrically conductive material which contacts the source region and a highly doped body contact region at a bottom of the contact trench; characterized in that the semiconductor device additionally comprises a diffusion barrier structure extending along at least part of the channel region and disposed between the channel region and the highly doped body contact region, the diffusion barrier structure comprising alternating layers of Si and oxygen-doped Si; wherein the channel region, the gate electrode and the gate dielectric extend deeper into the Si substrate than the diffusion barrier structure. a gate trench extending into a Si substrate, the gate trench including a gate electrode and a gate dielectric separating the gate electrode from the Si substrate; a body region in the Si substrate adjacent the gate trench, the body region including a channel region which extends along a sidewall of the gate trench; a source region in the Si substrate above the body region; and a contact trench extending into the Si substrate and filled with an electrically conductive material which contacts the source region and a highly doped body contact region at a bottom of the contact trench; characterized in that the semiconductor device additionally comprises a diffusion barrier structure extending along at least part of the channel region and disposed between the channel region and the highly doped body contact region, the diffusion barrier structure comprising alternating layers of Si and oxygen-doped Si; wherein the channel region, the gate electrode and the gate dielectric extend deeper into the Si substrate than the diffusion barrier structure.