mhurhangee/ep-ind-claims huggingface dataset:
A method for calculating a warpage of a bonded SOI wafer that is fabricated by forming a thermal oxide film on one surface or both surfaces of one of a bond wafer and a base wafer that are formed of silicon single crystal wafers, bonding the bond wafer and the base wafer to each other through the thermal oxide film, then reducing a film thickness of the bond wafer, thereby fabricating an epitaxial growth SOI wafer constituted of a BOX layer on the base wafer and an SOI layer on the BOX layer, and thereafter growing an epitaxial layer on a surface of the SOI layer, the method comprising: assuming that the epitaxial growth SOI wafer is a silicon single crystal wafer having the same dopant concentration as the dopant concentration of the bond wafer; calculating a warpage A that occurs at the time of performing the epitaxial growth relative to the assumed silicon single crystal wafer; calculating a warpage B caused due to a thickness of the BOX layer of the epitaxial growth SOI wafer; determining a measured value of a warpage of the base wafer before bonding as a warpage C; and calculating a sum of the warpages (A+B+C) as the warpage of the bonded SOI wafer, wherein the SOI layer has a resistivity of 0.01 Ωcm or less and the epitaxial layer has a resistivity of 1 Qcm or more.
A visual output of data from a ground-penetrating radar, displayed on a visual display, said display exhibiting a visual output of data, the visual output comprising: a first exhibition region 106 including only data obtained from a higher frequency range antenna at a shallower depth range than a transition depth range; a second exhibition region including only data obtained from a lower frequency range antenna at a deeper depth range than said transition depth range; and a transition area comprising a merged continuous image of the transition depth range, said transition area produced from data from both said lower frequency antenna and said higher frequency antenna (105; 550) and exhibited between said first exhibition region and said second exhibition region. a first exhibition region 106 including only data obtained from a higher frequency range antenna at a shallower depth range than a transition depth range; a second exhibition region including only data obtained from a lower frequency range antenna at a deeper depth range than said transition depth range; and a transition area comprising a merged continuous image of the transition depth range, said transition area produced from data from both said lower frequency antenna and said higher frequency antenna (105; 550) and exhibited between said first exhibition region and said second exhibition region.
A method for maintaining pluripotent stem cells in feeder-free culture, comprising the steps of: releasing pluripotent stem cells as single cells from clusters of pluripotent stem cells by treatment with trypsin; and plating the single pluripotent stem cells on a tissue culture substrate; wherein the treatment with trypsin is for two to five minutes; and/or wherein cell viability is at least 98% after releasing the cells. releasing pluripotent stem cells as single cells from clusters of pluripotent stem cells by treatment with trypsin; and plating the single pluripotent stem cells on a tissue culture substrate;
Use of at least one oil-soluble compound B) which acts as a nucleator for paraffin crystallization and is selected from linear hydrocarbons having at least 20 carbon atoms for improving the response behavior in respect of lowering of pour point and CFPP value and improvement of paraffin dispersancy of mineral oil cold flow improvers C) in middle distillates which comprise at least one ashless nitrogen-containing detergent additive A) which is an oil-soluble amphiphilic compound which comprises at least one alkyl or alkenyl radical which is bonded to a polar group, where the alkyl or alkenyl radical comprises 10 to 500 carbon atoms and the polar group 2 or more nitrogen atoms, wherein the ashless nitrogen-containing detergent additive A) comprises a polar component which is derived from polyamines of the formula (R 9) 2 N-[A-N(R 9)] q -(R 9) in which each R 9 is independently hydrogen, an alkyl or hydroxyalkyl radical having up to 24 carbon atoms, a polyoxyalkylene radical -(A-O) r - or polyiminoalkylene radical -[A-N(R 9)] s -(R 9), but at least one R 9 is hydrogen, q is an integer from 1 to 19, A is an alkylene radical having 1 to 6 carbon atoms, and r and s are each independently integers from 1 to 50, and wherein the cold flow improvers C) employed are oil-soluble polar nitrogen compounds which are reaction products of compounds of the formula NR 6 R 7 R 8 in which R 6, R 7 and R 8 may be the same or different, and at least one of these groups is C 8 -C 36 -alkyl, C 6 -C 36 -cycloalkyl, C 8 -C 36 -alkenyl, especially C 12 -C 24 -alkyl, C 12 -C 24 -alkenyl or cyclohexyl, and the remaining groups are hydrogen, C 1 -C 36 -alkyl, C 2 -C 36 -alkenyl, cyclohexyl or a group of the formula -(A-O) x -E or -(CH 2) n -NYZ in which A is an ethyl or propyl group, x is from 1 to 50, E = H, C 1 -C 30 -alkyl, C 5 -C 12 -cycloalkyl or C 6 -C 30 -aryl, and n = 2, 3 or 4, and Y and Z are each independently H, C 1 -C 30 -alkyl or -(A-O) x, with compounds which contain at least one acyl group.
A method for producing electrolytic aluminum foil, comprising steps of: depositing an aluminum film on a surface of a cathode in an electrolytic cell supplied with an electrolytic solution and comprising the cathode; and peeling the deposited aluminum film from the surface of the cathode to provide aluminum foil, wherein the cathode has surface roughness of an arithmetic average roughness (Ra) of 0.10 to 0.40 μm and a ten-point average roughness (Rz) of 0.20 to 0.70 μm. depositing an aluminum film on a surface of a cathode in an electrolytic cell supplied with an electrolytic solution and comprising the cathode; and peeling the deposited aluminum film from the surface of the cathode to provide aluminum foil, wherein the cathode has surface roughness of an arithmetic average roughness (Ra) of 0.10 to 0.40 μm and a ten-point average roughness (Rz) of 0.20 to 0.70 μm.
Device (120,130) comprising safe hardware and/or software components (121, 125, 129, 131) adapted for functionally safe data processing and/or transmission for performing a method for monitoring data processing and transmission in a safety chain of a safety system (100, 200), and characterized in that the safe hardware and/or software components are adapted for, - receiving functionally safe data transmitted by a further device of the safety system and a first actual characteristic value with respect to a safety -relevant characterizing attribute of the data processing and/or transmission; - determining a second actual characteristic value with regard to the safety-relevant characterizing attribute; - processing the first actual characteristic value and the second actual characteristic value into a third actual characteristic value with regard to the safety-relevant characterizing attribute; - determining a nominal characteristic value for the safety-relevant characterizing attribute; - comparing the third actual characteristic value with the nominal characteristic value of the safety-relevant characterizing attribute; and - depending on the comparison result -- further processing and/or further transmitting the functionally safe data if the result of the comparison is positive, or -- triggering a predetermined safety reaction if the result of the comparison is negative. - receiving functionally safe data transmitted by a further device of the safety system and a first actual characteristic value with respect to a safety -relevant characterizing attribute of the data processing and/or transmission; - determining a second actual characteristic value with regard to the safety-relevant characterizing attribute; - processing the first actual characteristic value and the second actual characteristic value into a third actual characteristic value with regard to the safety-relevant characterizing attribute; - determining a nominal characteristic value for the safety-relevant characterizing attribute; - comparing the third actual characteristic value with the nominal characteristic value of the safety-relevant characterizing attribute; and - depending on the comparison result -- further processing and/or further transmitting the functionally safe data if the result of the comparison is positive, or -- triggering a predetermined safety reaction if the result of the comparison is negative. -- further processing and/or further transmitting the functionally safe data if the result of the comparison is positive, or -- triggering a predetermined safety reaction if the result of the comparison is negative.
A fluid injection system comprising: a mixing chamber locatable in an exhaust gas conduit upstream of a selective catalytic reduction device, the chamber providing a flow path for exhaust gas and a space for receiving an injected fluid; an injector having a plurality of capillary tubes arranged in a bundle, each capillary tube having an inlet at a first end and an outlet at a second end, wherein each inlet is configured to receive a fluid for injection into the chamber, and wherein the injector is mounted on the chamber with the tube outlets in fluid communication with the space in the chamber; a base plate disposed in the chamber spaced from and aligned with the outlets of the bundled capillary tubes; a voltage supply connected to the tubes and to the base plate wherein the voltage supply provides a charge to the tubes and to the base plate to create an electric field to the fluid in the tubes; and a supply tank for providing the fluid to the inlets of the capillary tubes characterized in that the system further comprises: a valve disposed on a wall of the mixing chamber for at least priming of the tubes, wherein the valve is connected to a pressure modifying device (260, 265), wherein the valve is arranged to regulate flow of air into the mixing chamber, and wherein the system is configured so that priming of the tubes is achieved by opening the valve and adjusting a pressure in the mixing chamber to a level that is lower than a pressure in the supply tank. a mixing chamber locatable in an exhaust gas conduit upstream of a selective catalytic reduction device, the chamber providing a flow path for exhaust gas and a space for receiving an injected fluid; an injector having a plurality of capillary tubes arranged in a bundle, each capillary tube having an inlet at a first end and an outlet at a second end, wherein each inlet is configured to receive a fluid for injection into the chamber, and wherein the injector is mounted on the chamber with the tube outlets in fluid communication with the space in the chamber; a base plate disposed in the chamber spaced from and aligned with the outlets of the bundled capillary tubes; a voltage supply connected to the tubes and to the base plate wherein the voltage supply provides a charge to the tubes and to the base plate to create an electric field to the fluid in the tubes; and a supply tank for providing the fluid to the inlets of the capillary tubes characterized in
An aqueous composition comprising an aqueous phase and a cold water soluble starch material, characterized in that the aqueous phase comprises at least a viscosity inhibitor and a hydrocolloid; and in that the starch material is dispersed throughout the aqueous phase.
A method of sensing temperature comprising: producing a magnetic field signal having a frequency spectrum, wherein the magnetic field signal is responsive to a magnetic field; producing a temperature signal; modulating the temperature signal to a frequency outside the frequency spectrum of the magnetic field signal resulting in a first modulated signal; combining the magnetic field signal with the first modulated signal to produce a combined signal; and extracting data representing the temperature signal from the combined signal, by: modulating the combined signal to shift the data representing the temperature signal to a baseband frequency, resulting in a second modulated signal; and applying a filter to the second modulated signal to separate the data representing the temperature signal from the second modulated signal. producing a magnetic field signal having a frequency spectrum, wherein the magnetic field signal is responsive to a magnetic field; producing a temperature signal; modulating the temperature signal to a frequency outside the frequency spectrum of the magnetic field signal resulting in a first modulated signal; combining the magnetic field signal with the first modulated signal to produce a combined signal; and extracting data representing the temperature signal from the combined signal, by: modulating the combined signal to shift the data representing the temperature signal to a baseband frequency, resulting in a second modulated signal; and applying a filter to the second modulated signal to separate the data representing the temperature signal from the second modulated signal. modulating the combined signal to shift the data representing the temperature signal to a baseband frequency, resulting in a second modulated signal; and applying a filter to the second modulated signal to separate the data representing the temperature signal from the second modulated signal.
A headset comprising an acoustic device (2, 2A, 2B) comprising: a pinna replica of a listener using the acoustic device, wherein an inner surface of the pinna replica faces an exterior so that exterior sounds can be received by the pinna replica; a microphone unit configured for receiving the exterior sounds, the microphone unit being configured to emit a first electric signal comprising information on the received exterior sounds, wherein the microphone unit is arranged at or near a concha part of the pinna replica; and a processing unit for processing the first electric signal, and a speaker unit configured to generate sound based on the first electric signal, characterized in that the headset is a hearing protection headset and comprises a foamy supra-aural ear cup at least partially enclosing the pinna replica and resting against the listener's head when in use. a pinna replica of a listener using the acoustic device, wherein an inner surface of the pinna replica faces an exterior so that exterior sounds can be received by the pinna replica; a microphone unit configured for receiving the exterior sounds, the microphone unit being configured to emit a first electric signal comprising information on the received exterior sounds, wherein the microphone unit is arranged at or near a concha part of the pinna replica; and a processing unit for processing the first electric signal, and a speaker unit configured to generate sound based on the first electric signal, characterized in that the headset is a hearing protection headset and comprises a foamy supra-aural ear cup at least partially enclosing the pinna replica and resting against the listener's head when in use.
An inhibitor of N-methyl-D-aspartate type of glutamate receptor (NMDAR) for use in the treatment of an Autism Spectrum Disorder in a subject in need thereof, wherein the inhibitor of NMDAR is NitroSynapsin: wherein each R 1 is -CH 2 CH 3 and R 2 is -ONO 2, or a pharmaceutically acceptable salt thereof.
A method for producing a nanoparticle-in-oil dispersion in which fine particles having an average particle diameter of the fine particles of 30 to 500 nm measured using a dynamic light scattering photometer made up of a solid component, an aqueous liquid component or a mixture thereof are dispersed in an oil phase, the method comprising: a step of preparing a W/O emulsion-type precursor in which an aqueous phase in the form of droplets of an aqueous solution containing a water-soluble substance dissolved therein is dispersed in an oil phase containing an oil and a surfactant, wherein the concentration of surfactant is within the range of 5 to 50 wt% in 100 wt% of the oil phase; and a step of obtaining a nanoparticle-in-oil dispersion in which the fine particles are dispersed in the oil phase by boiling the aqueous phase of the W/O emulsion-type precursor to perform particle size reduction and dewatering with boiling of the aqueous phase of the W/O emulsion-type precursor. a step of preparing a W/O emulsion-type precursor in which an aqueous phase in the form of droplets of an aqueous solution containing a water-soluble substance dissolved therein is dispersed in an oil phase containing an oil and a surfactant, wherein the concentration of surfactant is within the range of 5 to 50 wt% in 100 wt% of the oil phase; and a step of obtaining a nanoparticle-in-oil dispersion in which the fine particles are dispersed in the oil phase by boiling the aqueous phase of the W/O emulsion-type precursor to perform particle size reduction and dewatering with boiling of the aqueous phase of the W/O emulsion-type precursor.
A cycling suit including at least a trousers portion forming a pair of trousers, wherein said trousers portion is made at least partially of a first material and characterized in that an end section of each leg portion (4, 5) of the trousers portion is made of a second material other than said first material, and said second material being a water-barrier material.
A die, comprising: (a) an entrance section comprising at least one inlet; (b) an orientation section, the inlet being in fluid communication with the orientation section, the orientation section comprising a plurality of orientation channels having a channel inlet and a channel outlet; (c) a merging region, the merging region defining a receiving volume in fluid communication with the outlets of the plurality of orientation channels of the orientation section, the merging region being configured to merge together at least some fluid flows originating from the outlets of the orientation channels of the orientation section; and (d) an exit region in fluid communication with the merging region, the exit region comprising at least one outlet, characterised in that at least some of the plurality of orientation channels independently have an elongation ratio of between 2 and 45, the elongation ratio being defined as a ratio of a cross-sectional area of the channel inlet to a cross-sectional area of the channel outlet, and in that the orientation channels include a hyperbolic-shaped region and a linearly-tapered region. (a) an entrance section comprising at least one inlet; (b) an orientation section, the inlet being in fluid communication with the orientation section, the orientation section comprising a plurality of orientation channels having a channel inlet and a channel outlet; (c) a merging region, the merging region defining a receiving volume in fluid communication with the outlets of the plurality of orientation channels of the orientation section, the merging region being configured to merge together at least some fluid flows originating from the outlets of the orientation channels of the orientation section; and (d) an exit region in fluid communication with the merging region, the exit region comprising at least one outlet, characterised in that at least some of the plurality of orientation channels independently have an elongation ratio of between 2 and 45, the elongation ratio being defined as a ratio of a cross-sectional area of the channel inlet to a cross-sectional area of the channel outlet, and in that the orientation channels include a hyperbolic-shaped region and a linearly-tapered region.
A sliding-pivoting mechanism of a shelf of a piece of furniture or of a domestic appliance for pulling out and raising the shelf from a body of the piece of furniture or of the domestic appliance, comprising - at least two pivoting arms (51, 52) of a pivoting mechanism, which are pivotably fastened by means of a first end to at least one of the side walls of the furniture body parallel to the plane of the side walls and are arranged parallel to each other at a distance from each other, - wherein a guide rail of a sliding mechanism is pivotably fastened to respective second ends of the pivoting arms (51, 52) parallel to the plane of the side walls in such a way that the guide rail can be pivoted from a bottom position within the furniture body to a lifted upper position at least partly outside of the body, - at least one running rail which is linearly displaceable in the guide rail and on which the shelf is fastened, characterized in that - the sliding-pivoting mechanism comprises a lever unit (7, 7', 7") which supports a lifting and lowering of the pivoting mechanism. - at least two pivoting arms (51, 52) of a pivoting mechanism, which are pivotably fastened by means of a first end to at least one of the side walls of the furniture body parallel to the plane of the side walls and are arranged parallel to each other at a distance from each other, - wherein a guide rail of a sliding mechanism is pivotably fastened to respective second ends of the pivoting arms (51, 52) parallel to the plane of the side walls in such a way that the guide rail can be pivoted from a bottom position within the furniture body to a lifted upper position at least partly outside of the body, - at least one running rail which is linearly displaceable in the guide rail and on which the shelf is fastened, - the sliding-pivoting mechanism comprises a lever unit (7, 7', 7") which supports a lifting and lowering of the pivoting mechanism.
A method for sharing codec information in a contents output system, comprising: sharing, when a media server, a media renderer for outputting contents, and a control point, a control point being a terminal including a remote controller, a keyboard, or other input device of a portable terminal, are connected, codec information provided by the media server and the codec information of contents playable by the media renderer; and providing, at the media server, the contents to the media renderer according to the shared codec information, characterized in that sharing comprises: storing, at the media server when the codec information of the contents playable by the media renderer is received, the codec information in a database; comparing, at the media server when a content request is received from the media renderer, the codec information of the requested content with the stored codec information; and converting, when the codec information of the requested content does not match with the stored codec information, the requested content according to the stored codec information. sharing, when a media server, a media renderer for outputting contents, and a control point, a control point being a terminal including a remote controller, a keyboard, or other input device of a portable terminal, are connected, codec information provided by the media server and the codec information of contents playable by the media renderer; and providing, at the media server, the contents to the media renderer according to the shared codec information, characterized in that sharing comprises: storing, at the media server when the codec information of the contents playable by the media renderer is received, the codec information in a database; comparing, at the media server when a content request is received from the media renderer, the codec information of the requested content with the stored codec information; and converting, when the codec information of the requested content does not match with the stored codec information, the requested content according to the stored codec information. storing, at the media server when the codec information of the contents playable by the media renderer is received, the codec information in a database; comparing, at the media server when a content request is received from the media renderer, the codec information of the requested content with the stored codec information; and converting, when the codec information of the requested content does not match with the stored codec information, the requested content according to the stored codec information.