mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a handling device comprising: - a step of deposition of a single layer of an adhesive on a first surface of a first wafer; - a step of deposition of an antiadhesive layer on a first surface of a second wafer different from the first wafer; - a step of bringing into contact the first wafer and the second wafer, the bringing into contact taking place at the level of the single adhesive layer of the first wafer and the antiadhesive layer of the second wafer; - a step of separation of the first wafer and the second wafer; the first wafer, after the separation step, comprising the single adhesive layer and forming a handling device, said method being characterised in that the step of bringing into contact the first wafer and the second wafer is carried out at a temperature T C such that T C > T g + 100°C where T g is the glass transition temperature of the material composing the single adhesive layer of the first wafer. - a step of deposition of a single layer of an adhesive on a first surface of a first wafer; - a step of deposition of an antiadhesive layer on a first surface of a second wafer different from the first wafer; - a step of bringing into contact the first wafer and the second wafer, the bringing into contact taking place at the level of the single adhesive layer of the first wafer and the antiadhesive layer of the second wafer; - a step of separation of the first wafer and the second wafer;
Device for monitoring a relative movement between two elements (115, 120) that are mounted so as to be able to move with respect to one another, and the device comprises the following: - a transmitter and a sensor that are fastened to one another and are in a field connection with one another; - wherein the sensor is configured so as to contactlessly detect the transmitter on the basis of the field; - wherein the transmitter is configured for attachment to one of the elements (115, 120); and - wherein the sensor has a contact surface for the other element (115, 120) - in order to be removed from the transmitter by the other element (115, 120) when the elements (115, 120) are moved with respect to one another. - a transmitter and a sensor that are fastened to one another and are in a field connection with one another; - wherein the sensor is configured so as to contactlessly detect the transmitter on the basis of the field; - wherein the transmitter is configured for attachment to one of the elements (115, 120); and - wherein the sensor has a contact surface for the other element (115, 120) - in order to be removed from the transmitter by the other element (115, 120) when the elements (115, 120) are moved with respect to one another.
A method for formation of a Li-comprising layer on a substrate by atomic layer deposition comprising the following steps: a) providing a substrate in a reaction chamber wherein said reaction chamber is arranged for gas-to-surface reactions, b) pulsing a lithium precursor through said reaction chamber, c) reacting said lithium precursor with at least one surface of said substrate, d) purging of said reaction chamber d1) by sending a purge gas through said reaction chamber for the purging of the reaction chamber or d2) by evacuating said chamber, and e) repeating steps b) to d) a desired number of times in order for the formation of a thin film layer of a lithium comprising material upon said at least one surface of said substrate, wherein the lithium precursor is selected from among lithium 2,2,6,6-tetramethylheptane-3,5-dionate, lithium alkoxides, lithium alkyls, cyclic lithium compounds, lithium dicyclohexamide, and bimetallic or multimetallic compounds. a) providing a substrate in a reaction chamber wherein said reaction chamber is arranged for gas-to-surface reactions, b) pulsing a lithium precursor through said reaction chamber, c) reacting said lithium precursor with at least one surface of said substrate, d) purging of said reaction chamber d1) by sending a purge gas through said reaction chamber for the purging of the reaction chamber or d2) by evacuating said chamber, and d1) by sending a purge gas through said reaction chamber for the purging of the reaction chamber or d2) by evacuating said chamber, and e) repeating steps b) to d) a desired number of times in order for the formation of a thin film layer of a lithium comprising material upon said at least one surface of said substrate,
A method implemented in a user equipment, UE, the method comprising: receiving, from a network node, information indicating: a first number of beams to be measured by the UE, and a second number of cells in which the UE is required to measure the first number of beams; wherein the first number specifies a respective number of beams to be measured in each cell of the second number of cells; carrying out measurements based on the received information; and performing at least one operational task based on a result of the measurements. receiving, from a network node, information indicating: a first number of beams to be measured by the UE, and a second number of cells in which the UE is required to measure the first number of beams; wherein the first number specifies a respective number of beams to be measured in each cell of the second number of cells; a first number of beams to be measured by the UE, and a second number of cells in which the UE is required to measure the first number of beams; wherein the first number specifies a respective number of beams to be measured in each cell of the second number of cells; carrying out measurements based on the received information; and performing at least one operational task based on a result of the measurements.
Construction system for housings (1, 1a), in particular for electrical devices, wherein two housing profile sections (4, 4a) are connected via a corner connector in each of a plurality of housing corners, wherein each corner connector has two angle legs which are in each case inserted axially in the profile longitudinal direction into profile groovers of the housing profile sections (4, 4a) in such a way that they positively hold the housing profile sections (4, 4a) in the profile transverse direction, characterized in that in each housing corner the housing profile sections (4, 4a) are mitre-cut at the ends and bear against one another by correspondingly oblique end faces while outwardly covering the corner connector, wherein the corner connectors are connected to absorb tensile forces acting in each case between the housing corners in the respective profile longitudinal directions and/or diagonally.
A method of determining a B cell response to an antigen from an infectious pathogen in a subject, comprising: determining in vitro an antigen presenting index by comparing uptake of an antigen from a first pathogen to uptake of an antigen from a second, reference, pathogen by antigen presenting cells (APCs) from the subject, in a biological sample comprising APCs obtained from the subject, wherein the antigen presenting index is a measure of the uptake of the antigen from the first pathogen in the APCs of the sample expressed as a ratio with uptake of the antigen from the second, reference, pathogen in the APCs of the subject, wherein uptake is the binding or internalization of antigen by the APC, wherein the antigen presenting index of greater than one indicates increased likelihood of infection with the first pathogen and a decreased likelihood of infection with the second pathogen, wherein the antigen presenting index of less than one indicates a decreased likelihood of infection with the first pathogen and a increased likelihood of infection with the second pathogen, wherein the APCs are B-cells. determining in vitro an antigen presenting index by comparing uptake of an antigen from a first pathogen to uptake of an antigen from a second, reference, pathogen by antigen presenting cells (APCs) from the subject, in a biological sample comprising APCs obtained from the subject, wherein the antigen presenting index is a measure of the uptake of the antigen from the first pathogen in the APCs of the sample expressed as a ratio with uptake of the antigen from the second, reference, pathogen in the APCs of the subject, wherein uptake is the binding or internalization of antigen by the APC, wherein the antigen presenting index of greater than one indicates increased likelihood of infection with the first pathogen and a decreased likelihood of infection with the second pathogen, wherein the antigen presenting index of less than one indicates a decreased likelihood of infection with the first pathogen and a increased likelihood of infection with the second pathogen, wherein the APCs are B-cells.
An electronic smoking article comprising: a hollow shell; an aerosol precursor composition; a reservoir housing (344; 444; 544; 644; 744a, 744b; 844) within the hollow shell, the reservoir housing (344; 444; 544; 644; 744a, 744b; 844) comprising an aperture (346a; 346b), wherein the reservoir housing (344; 444; 544; 644; 744a, 744b; 844) is impermeable to the aerosol precursor composition and wherein the aerosol precursor composition is within the reservoir housing (344; 444; 544; 644; 744a, 744b; 844); a liquid transport element (336; 436; 736) having an end within the reservoir housing (344; 444; 544; 644; 744a, 744b; 844), and the liquid transport element (336; 436; 736) extending through the aperture and having a portion that is exposed within the hollow shell; and a heating element (334; 434; 734) in heating communication with the portion of the liquid transport element (336; 436; 736) that is exposed within the hollow shell; wherein the end of the liquid transport element (336; 436; 736) that is within the reservoir housing (344; 444; 544; 644; 744a, 744b; 844) is in contact with the aerosol precursor composition. a hollow shell; an aerosol precursor composition; a reservoir housing (344; 444; 544; 644; 744a, 744b; 844) within the hollow shell, the reservoir housing (344; 444; 544; 644; 744a, 744b; 844) comprising an aperture (346a; 346b), wherein the reservoir housing (344; 444; 544; 644; 744a, 744b; 844) is impermeable to the aerosol precursor composition and wherein the aerosol precursor composition is within the reservoir housing (344; 444; 544; 644; 744a, 744b; 844); a liquid transport element (336; 436; 736) having an end within the reservoir housing (344; 444; 544; 644; 744a, 744b; 844), and the liquid transport element (336; 436; 736) extending through the aperture and having a portion that is exposed within the hollow shell; and a heating element (334; 434; 734) in heating communication with the portion of the liquid transport element (336; 436; 736) that is exposed within the hollow shell; wherein the end of the liquid transport element (336; 436; 736) that is within the reservoir housing (344; 444; 544; 644; 744a, 744b; 844) is in contact with the aerosol precursor composition.
A voice disorder treatment tool comprising: a plurality of clamping sections each provided with a front surface piece configured to be disposed on a front surface of incised thyroid cartilage and a rear surface piece configured to be disposed on a rear surface of the thyroid cartilage, and configured to fit to cut ends of the incised thyroid cartilage facing each other; and a bridging section that connects the plurality of clamping sections; the front surface piece comprising a bending region deformable about a virtual line extending in a width direction (y) of the front surface piece; the bending region comprising a hole that is configured to allow a suture thread to be inserted therethrough; characterised by: the bending region having a reinforcing structure; and wherein the reinforcing structure is configured by forming the hole into a long hole extending in a direction that intersects in the width direction. a plurality of clamping sections each provided with a front surface piece configured to be disposed on a front surface of incised thyroid cartilage and a rear surface piece configured to be disposed on a rear surface of the thyroid cartilage, and configured to fit to cut ends of the incised thyroid cartilage facing each other; and a bridging section that connects the plurality of clamping sections; the front surface piece comprising a bending region deformable about a virtual line extending in a width direction (y) of the front surface piece; the bending region comprising a hole that is configured to allow a suture thread to be inserted therethrough; characterised by: the bending region having a reinforcing structure; and wherein the reinforcing structure is configured by forming the hole into a long hole extending in a direction that intersects in the width direction. the bending region having a reinforcing structure; and wherein the reinforcing structure is configured by forming the hole into a long hole extending in a direction that intersects in the width direction.
A purging agent for use in purging a resin to be purged which comprises an ethylene/vinyl ester copolymer saponification resin, the purging agent comprising a hydrocarbon-based resin and at least one metal salt selected from the group consisting of alkali metal salts and salts of alkaline earth metals, the content of the metal salt being higher than 1% by weight but not higher than 20% by weight in terms of metal amount based on the hydrocarbon-based resin, and the purging agent having a shear viscosity ratio as determined with the following equation of 12-16. Shear viscosity ratio = η X / η Y [In the equation, η is shear viscosity (Pa·s) at a temperature of 230°C and a shear rate of 12.2 sec -1, and η is shear viscosity (Pa·s) at a temperature of 230°C and a shear rate of 1,824 sec -1.]
A population of human cardiovascular progenitor cells, wherein the progenitor cells are progenitors of cardiomyocytes, endothelial cells, and vascular smooth muscle cells, and wherein the progenitor cells express KDR, do not express C-KIT, and do not express VE-CADHERIN.
Thermal image analyser for determining the stomatal conductance of a plant, comprising: - a thermal imaging device, configured to capture a thermal image of at least a portion of the plant that is in an imaging region of the thermal imaging device, and - a processor device, configured to analyse the captured thermal image and to determine the stomatal conductance of the plant on the basis of the captured thermal image, characterized in that, the thermal image analyser further comprises: - a reference object, which comprises a reference surface and a thermal sensor, wherein the thermal sensor is connected to the reference surface and configured to emit a temperature sensor signal that is representative for a surface temperature of the reference surface, wherein the reference object is adapted to be positioned, such that at least a portion of the reference surface is located in the imaging region of the thermal imaging device, wherein the temperature sensor signal is adapted to be transmitted to the processor device, wherein the processor device is configured to compensate the stomatal conductance on the basis of the captured thermal image and the temperature sensor signal, and wherein the reference object comprises a cap, which is formed by a spheroid wall and wherein the reference surface is formed by a spherical outer surface of the spheroid wall. - a thermal imaging device, configured to capture a thermal image of at least a portion of the plant that is in an imaging region of the thermal imaging device, and - a processor device, configured to analyse the captured thermal image and to determine the stomatal conductance of the plant on the basis of the captured thermal image, the thermal image analyser further comprises: - a reference object, which comprises a reference surface and a thermal sensor, wherein the thermal sensor is connected to the reference surface and configured to emit a temperature sensor signal that is representative for a surface temperature of the reference surface, - a reference object, which comprises a reference surface and a thermal sensor, wherein the thermal sensor is connected to the reference surface and configured to emit a temperature sensor signal that is representative for a surface temperature of the reference surface, wherein the reference object is adapted to be positioned, such that at least a portion of the reference surface is located in the imaging region of the thermal imaging device, wherein the temperature sensor signal is adapted to be transmitted to the processor device, wherein the processor device is configured to compensate the stomatal conductance on the basis of the captured thermal image and the temperature sensor signal, and wherein the reference object comprises a cap, which is formed by a spheroid wall and wherein the reference surface is formed by a spherical outer surface of the spheroid wall.
A touch substrate comprising: a first touch electrode connected to a first touch signal line; a second touch signal line connected to a second touch electrode, wherein the second touch signal line is not connected to the first touch electrode, and the second touch signal line has a first portion which overlaps with the first touch electrode; and a first shield electrode positioned between the first touch electrode and the second touch signal line, and configured to electrically shield the first touch electrode from the overlapping second touch signal line, wherein the first shield electrode is connected to the first touch electrode through a via,; and the touch substrate further comprises a substrate, wherein a pixel electrode layer comprising a pixel electrode and the first shield electrode; wherein the second touch signal line, the pixel electrode, the first touch electrode are sequentially arranged on the substrate along a direction away from the substrate, and the first shield electrode is disposed spaced apart from the pixel electrode.
A magnetic field sensor for measuring movement of a target, the magnetic field sensor comprising: a substrate having a first and second surfaces; a means for generating a magnetic field disposed proximate to the first surface, wherein the means for generating includes at least two poles; and a first sensing means having a first plurality of magnetic field sensing means configured to generate a first magnetic field signal indicative of a position of the target and a second plurality of magnetic field sensing means configured to generate a second magnetic field signal indicative of the position of the target, wherein the first and second plurality of magnetic field sensing means do not share magnetic field sensing means, wherein a first pair of magnetic field sensing means of the first plurality of magnetic field sensing means are spaced a first distance from each other and a second pair of magnetic field sensing means of the second plurality of magnetic field sensing means are spaced a second, different distance from each other; wherein an axis of sensitivity of the first and second pluralities of magnetic field sensing means is rotated at a predetermined angle with respect to an axis of rotation of the target, and wherein the first sensing means is configured to generate an output signal based on the first magnetic field signal and the second magnetic field signal, the output signal corresponding to the position of the target and a change in a property of the magnetic field generated by the means for generating. a substrate having a first and second surfaces; a means for generating a magnetic field disposed proximate to the first surface, wherein the means for generating includes at least two poles; and a first sensing means having a first plurality of magnetic field sensing means configured to generate a first magnetic field signal indicative of a position of the target and a second plurality of magnetic field sensing means configured to generate a second magnetic field signal indicative of the position of the target, wherein the first and second plurality of magnetic field sensing means do not share magnetic field sensing means, wherein a first pair of magnetic field sensing means of the first plurality of magnetic field sensing means are spaced a first distance from each other and a second pair of magnetic field sensing means of the second plurality of magnetic field sensing means are spaced a second, different distance from each other; wherein an axis of sensitivity of the first and second pluralities of magnetic field sensing means is rotated at a predetermined angle with respect to an axis of rotation of the target, and wherein the first sensing means is configured to generate an output signal based on the first magnetic field signal and the second magnetic field signal, the output signal corresponding to the position of the target and a change in a property of the magnetic field generated by the means for generating.
Refrigeration and/or freezer device with a cooled inner space, and a wall at least partially surrounding the inner space, wherein a vacuum insulation body is located between the inner space and the wall, the vacuum insulating body comprising: a vacuum-tight covering, which surrounds an evacuated region in which a core material is arranged, wherein the covering comprises an outer region and inner region at least partially surrounded by the outer region, wherein the inner region and the outer region are formed by a common film bag, und the inner region is formed by inverting the film bag, wherein the film bag is a film contour bag that has one or more recesses.
A reproducing device, comprising: an acquiring unit that acquires content to be currently reproduced and acquires reproduction management information in which a first flag indicating whether or not encoded data of a first HDR video which is mandatory when a video of a luminance range wider than a standard luminance range is included in the content is included in the content and a second flag indicating whether or not encoded data of a second HDR video that is optionally included in the content is included in the content are described; and a reproducing unit that reproduces the encoded data of the first HDR video when the first flag indicates that the encoded data of the first HDR video is included in the content, and a display serving as an output destination supports display of the first HDR video and reproduces the encoded data of the second HDR video when the first flag indicates that the encoded data of the first HDR video is included in the content, the second flag indicates that the encoded data of the second HDR video is included in the content, and the display supports display of the second HDR video. an acquiring unit that acquires content to be currently reproduced and acquires reproduction management information in which a first flag indicating whether or not encoded data of a first HDR video which is mandatory when a video of a luminance range wider than a standard luminance range is included in the content is included in the content and a second flag indicating whether or not encoded data of a second HDR video that is optionally included in the content is included in the content are described; and a reproducing unit that reproduces the encoded data of the first HDR video when the first flag indicates that the encoded data of the first HDR video is included in the content, and a display serving as an output destination supports display of the first HDR video and reproduces the encoded data of the second HDR video when the first flag indicates that the encoded data of the first HDR video is included in the content, the second flag indicates that the encoded data of the second HDR video is included in the content, and the display supports display of the second HDR video.