mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing carbon nanotube paste, comprising the steps of; (i) dispersing CNT powder in a solvent (step S310); (ii) adding an organic binder to the solution in which the CNT powder is dispersed (step S320); and (iii) performing a milling process to adjust viscosity of the dispersion solution to which the organic binder is added (step S330), wherein nano-sized metal particles are added in step (i) or (iii); the nano-sized metal particles have a size of several or several tens of nanometers; and the CNT powder and the metal particles constitute the CNT paste with a weight percentage of 1:2; such that the metal particles are capable of being melted at a low temperature at which the CNT powder does not deteriorate. (i) dispersing CNT powder in a solvent (step S310); (ii) adding an organic binder to the solution in which the CNT powder is dispersed (step S320); and (iii) performing a milling process to adjust viscosity of the dispersion solution to which the organic binder is added (step S330), wherein nano-sized metal particles are added in step (i) or (iii); the nano-sized metal particles have a size of several or several tens of nanometers; and the CNT powder and the metal particles constitute the CNT paste with a weight percentage of 1:2; such that the metal particles are capable of being melted at a low temperature at which the CNT powder does not deteriorate.
A sensor holder device for supporting a sensor wire, the sensor holder device comprising: a rigid body; a set of legs (128, 128a, 128b) attached to the rigid body and extending from one side of the rigid body; a sensor guiding structure attached to the rigid body and extending from the one side of the rigid body, the sensor guiding structure defining a guiding hole or a guiding opening configured for guiding the sensor wire, wherein the rigid body comprises a groove that extends from the sensor guiding structure and is sized to accommodate the sensor wire; and an electrical trace electrically coupling the groove and a distal end of a first leg of the set of legs (128, 128a, 128b). a rigid body; a set of legs (128, 128a, 128b) attached to the rigid body and extending from one side of the rigid body; a sensor guiding structure attached to the rigid body and extending from the one side of the rigid body, the sensor guiding structure defining a guiding hole or a guiding opening configured for guiding the sensor wire, wherein the rigid body comprises a groove that extends from the sensor guiding structure and is sized to accommodate the sensor wire; and an electrical trace electrically coupling the groove and a distal end of a first leg of the set of legs (128, 128a, 128b).
Use of a composition for forming a protective film for immersion exposure comprising a water-insoluble and alkali-soluble resin comprising a repeating unit derived from a monomer, the monomer having: (i) an acid dissociation constant pKa of 8 or more, and (ii) an acid group selected from a phenolic hydroxyl group, a sulfonamide group, -COCH 2 CO- and a fluoro-alcohol group. (i) an acid dissociation constant pKa of 8 or more, and (ii) an acid group selected from a phenolic hydroxyl group, a sulfonamide group, -COCH 2 CO- and a fluoro-alcohol group.
A method of forming a memory structure, comprising: providing a layered semiconductor substrate having a contact region, a source select gate, SGS, layer on the contact region, and a tiered stack of semiconductor layers on the SGS layer; forming a drain select gate, SGD, layer on the tiered stack of the semiconductor layers; forming a nitride isolation layer on the SGD layer; forming an oxide isolation layer on the nitride isolation layer; etching a pillar trench from the oxide isolation layer into the contact region of the semiconductor substrate; forming a central pillar in the pillar trench from the contact region at least into the nitride isolation layer; forming a plug recess by etching sidewalls of the oxide isolation around the pillar trench to expose a portion of a top surface of the nitride isolation layer; forming a T-plug in the plug recess by filling the plug recess with a plug material; and forming an electrical contact on the T-plug such that the T-plug provides a barrier against electrical shorting from the electrical contact to the SGD layer; said method characterised by wherein forming the T-plug further comprises: forming the T-plug in the plug recess and across a top surface of the oxide isolation layer; and removing a portion of the T-plug to expose the top surface of the oxide isolation layer. providing a layered semiconductor substrate having a contact region, a source select gate, SGS, layer on the contact region, and a tiered stack of semiconductor layers on the SGS layer; forming a drain select gate, SGD, layer on the tiered stack of the semiconductor layers; forming a nitride isolation layer on the SGD layer; forming an oxide isolation layer on the nitride isolation layer; etching a pillar trench from the oxide isolation layer into the contact region of the semiconductor substrate; forming a central pillar in the pillar trench from the contact region at least into the nitride isolation layer; forming a plug recess by etching sidewalls of the oxide isolation around the pillar trench to expose a portion of a top surface of the nitride isolation layer; forming a T-plug in the plug recess by filling the plug recess with a plug material; and forming an electrical contact on the T-plug such that the T-plug provides a barrier against electrical shorting from the electrical contact to the SGD layer; said method characterised by wherein forming the T-plug further comprises: forming the T-plug in the plug recess and across a top surface of the oxide isolation layer; and removing a portion of the T-plug to expose the top surface of the oxide isolation layer. forming the T-plug in the plug recess and across a top surface of the oxide isolation layer; and removing a portion of the T-plug to expose the top surface of the oxide isolation layer.
A process of bauxite treatment comprising: receiving bauxite; measuring the proportion of one or more target substance(s) within the chemical composition of the received bauxite, the target substance(s) being a substance(s) selected from: arsenic (As), mercury (Hg), molybdenum (Mo), chromium (Cr), lead (Pb), cadmium (Cd), selenium (Se), chloride (Cl -); processing the received bauxite according to a Bayer process of bauxite treatment and therefrom producing a bauxite residue; treating the bauxite residue by: mixing a quantity of the bauxite residue with a quantity of a glass material to form a mixture; compressing the mixture to form a green body; sintering the green body; and, cooling the sintered green body thereby to produce the solid product; wherein the quantity of a glass material, and/or the sintering temperature, and/or the sintering period of time are determined according to the measured proportion of the one or more target substances within the chemical composition of the received bauxite. receiving bauxite; measuring the proportion of one or more target substance(s) within the chemical composition of the received bauxite, the target substance(s) being a substance(s) selected from: arsenic (As), mercury (Hg), molybdenum (Mo), chromium (Cr), lead (Pb), cadmium (Cd), selenium (Se), chloride (Cl -); processing the received bauxite according to a Bayer process of bauxite treatment and therefrom producing a bauxite residue; treating the bauxite residue by: mixing a quantity of the bauxite residue with a quantity of a glass material to form a mixture; compressing the mixture to form a green body; sintering the green body; and, cooling the sintered green body thereby to produce the solid product; mixing a quantity of the bauxite residue with a quantity of a glass material to form a mixture; compressing the mixture to form a green body; sintering the green body; and, cooling the sintered green body thereby to produce the solid product; wherein the quantity of a glass material, and/or the sintering temperature, and/or the sintering period of time are determined according to the measured proportion of the one or more target substances within the chemical composition of the received bauxite.
Photosensitive particle which has a carrier element to which a material adheres by means of an adhesive, wherein the material contains light-active dye molecules.
An electrical system comprising: - a predetermined set of control modules intended to be used in a same home automation installation, wherein each control module is configured to ensure control of an electric load, - a portable packaging, adapted for packaging and transport of the predetermined set of control modules, said packaging being such that the number of control modules of said predetermined set can be greater than or equal to 2, preferably greater than or equal to 6, said packaging delimiting at least one support wall in which a plurality of positioning cutouts are formed, where the number of positioning cutouts of said plurality is greater than or equal to the number of control modules of said predetermined set, each positioning cutout being configured so as to allow a force fitting of one of the control modules by at least partial insertion of this control module in the positioning cutout, said force fitting conferring a relative blocking of the control module with respect to the packaging and a holding of the control module in a blocked position, - a pairing bank adapted to carry out a pairing of one of the control modules of the predetermined set with another control module of the predetermined set and/or with a remote radio frequency transmitter intended to be used in the same home automation system as the control modules of the predetermined set, wherein the packaging comprises first fastening elements configured to cooperate with second fastening elements secured to a casing of the pairing bank in such a way that when the first fastening elements and the second fastening elements cooperate with each other, the packaging is temporarily fastened to the casing of the pairing bank. - a predetermined set of control modules intended to be used in a same home automation installation, wherein each control module is configured to ensure control of an electric load, - a portable packaging, adapted for packaging and transport of the predetermined set of control modules, said packaging being such that the number of control modules of said predetermined set can be greater than or equal to 2, preferably greater than or equal to 6, said packaging delimiting at least one support wall in which a plurality of positioning cutouts are formed, where the number of positioning cutouts of said plurality is greater than or equal to the number of control modules of said predetermined set, each positioning cutout being configured so as to allow a force fitting of one of the control modules by at least partial insertion of this control module in the positioning cutout, said force fitting conferring a relative blocking of the control module with respect to the packaging and a holding of the control module in a blocked position, - a pairing bank adapted to carry out a pairing of one of the control modules of the predetermined set with another control module of the predetermined set and/or with a remote radio frequency transmitter intended to be used in the same home automation system as the control modules of the predetermined set,
A thermostatic valve comprising an end cover, a valve body, and a valve core located in a valve cavity of the valve body, wherein the thermostatic valve has a first outlet, a second outlet, and a first inlet which is in communication with the valve cavity, the valve body is further provided with a first valve port configured to communicate the valve cavity with the second outlet, and during a movement of the valve core, the valve core is configured to open or close the first valve port; wherein a return spring and a memory spring are further provided in the valve cavity, the memory spring is made of a memory alloy; the return spring is configured to provide a return force to allow the valve core to open the first valve port; the memory spring has one end in contact with one end of the valve core, and another end in contact with the end cover, and when a temperature rises to a specified value, the memory spring is configured to generate an elastic force to drive the valve core to move against the return force to close the first valve port; and the first inlet is provided in a side wall of the valve body, the thermostatic valve being characterized in that it is further provided with a second valve port, the second valve port is provided in a side cavity wall of the valve cavity, and when the temperature is less than the specified value, the memory spring is in a compressed and tight state and in correspondence to the position of the second valve port, to block the second valve port, wherein the second valve port is for communicating the valve cavity with the first outlet. a return spring and a memory spring are further provided in the valve cavity, the memory spring is made of a memory alloy; the return spring is configured to provide a return force to allow the valve core to open the first valve port; the memory spring has one end in contact with one end of the valve core, and another end in contact with the end cover, and when a temperature rises to a specified value, the memory spring is configured to generate an elastic force to drive the valve core to move against the return force to close the first valve port; and the first inlet is provided in a side wall of the valve body, the thermostatic valve being characterized in that it is further provided with a second valve port, the second valve port is provided in a side cavity wall of the valve cavity, and when the temperature is less than the specified value, the memory spring is in a compressed and tight state and in correspondence to the position of the second valve port, to block the second valve port, wherein the second valve port is for communicating the valve cavity with the first outlet.
A method for detecting a profile surface of a rod-shaped or tubular workpiece, in which a lighting device is directed on a profile surface of an end face of the workpiece and in which an image capturing device is associated with said end face of the workpiece and radiation emitted from said lighting device impinges on the profile surface of the end face of the workpiece at a given angle of incidence (α 1), characterised in that an annular lighting device is positioned coaxially with respect to the longitudinal axis of the workpiece so as to illuminate the entire profile surface of the end face of the workpiece, and an image of radiation reflected directly at the profile surface of the end face of the workpiece is captured by the image capturing device, and based on said image a shape of a contour line (62, 63) bordering said profile surface is evaluated.
A process for fermentation of syngas, the process comprising: introducing the syngas into a reactor vessel that includes a fermentation medium; providing a nitrogen feed rate to the reactor vessel of 100 mg or more nitrogen/gram of cells produced, wherein the nitrogen is provided by ammonium hydroxide; and fermenting the syngas, wherein the process is effective for providing an average conductivity of 16 mS/cm or less and an STY (space time yield) of 10 g ethanol/(L·day) or more. introducing the syngas into a reactor vessel that includes a fermentation medium; providing a nitrogen feed rate to the reactor vessel of 100 mg or more nitrogen/gram of cells produced, wherein the nitrogen is provided by ammonium hydroxide; and fermenting the syngas, wherein the process is effective for providing an average conductivity of 16 mS/cm or less and an STY (space time yield) of 10 g ethanol/(L·day) or more.
An OCT imaging method performed by an OCT system including a radiation emitter, a radiation receiver, an interferometer, and a controller adapted to control the emitter and to process received radiation data according to Fourier Domain OCT to provide an output image of an object, and the method comprising the steps of the controller: a. forming a conventional 3D Fourier Domain OCT image from axial Fourier spectra, a. determining a spectrum of axial spatial frequencies along a depth direction from each axial Fourier spectrum; b. calculating from each determined spectrum of step (a) local axial spectra of spatial frequencies or of periods along the depth direction for individual volume element of the 3D OCT image; c. translating the local axial spectra of step (b) into the Fourier Domain OCT image domain; d. mapping said translated local axial spectra into the volume elements of the 3D OCT image to provide a sensitivity on a scale smaller by at least one order of magnitude than that of the volume elements; and e. calculating information parameters on the structure of the object from the translated and mapped local spectra of steps (c) and (d). a. forming a conventional 3D Fourier Domain OCT image from axial Fourier spectra, a. determining a spectrum of axial spatial frequencies along a depth direction from each axial Fourier spectrum; b. calculating from each determined spectrum of step (a) local axial spectra of spatial frequencies or of periods along the depth direction for individual volume element of the 3D OCT image; c. translating the local axial spectra of step (b) into the Fourier Domain OCT image domain; d. mapping said translated local axial spectra into the volume elements of the 3D OCT image to provide a sensitivity on a scale smaller by at least one order of magnitude than that of the volume elements; and e. calculating information parameters on the structure of the object from the translated and mapped local spectra of steps (c) and (d).
A dishwasher comprising: a cabinet having an opening; a tub provided in the cabinet for receiving objects to be washed; a spray arm (711, 713) for spraying wash water to the objects; a sump for storing wash water; a pump for supplying the wash water stored in the sump to the spray arm (711, 713); a door for opening and closing the opening; and a first steam nozzle provided in the tub at the door; characterized in that the dishwasher further comprises: a docking unit provided at the door and connected to the first steam nozzle for supplying steam to the first steam nozzle; and a docking connector provided at the tub and is connected to a steam source for supplying steam to the docking unit, wherein when the door is opened, the docking unit is disconnected from the docking connector, and when the door is closed, the docking unit is connected to the docking connector to define a closed path along which steam flows. a cabinet having an opening; a tub provided in the cabinet for receiving objects to be washed; a spray arm (711, 713) for spraying wash water to the objects; a sump for storing wash water; a pump for supplying the wash water stored in the sump to the spray arm (711, 713); a door for opening and closing the opening; and a first steam nozzle provided in the tub at the door; characterized in that the dishwasher further comprises: a docking unit provided at the door and connected to the first steam nozzle for supplying steam to the first steam nozzle; and a docking connector provided at the tub and is connected to a steam source for supplying steam to the docking unit, wherein when the door is opened, the docking unit is disconnected from the docking connector, and when the door is closed, the docking unit is connected to the docking connector to define a closed path along which steam flows. a docking unit provided at the door and connected to the first steam nozzle for supplying steam to the first steam nozzle; and a docking connector provided at the tub and is connected to a steam source for supplying steam to the docking unit, wherein when the door is opened, the docking unit is disconnected from the docking connector, and when the door is closed, the docking unit is connected to the docking connector to define a closed path along which steam flows.
An agricultural vehicle, preferably a tractor, having a vehicle cab, wherein the vehicle comprises: (i) a primary air conditioning loop, comprising: a compressor to compress a refrigerant from a low pressure to a high pressure, a condenser to condense the refrigerant coming from the compressor, an expansion valve to expand the refrigerant coming from the condenser from high pressure to low pressure, and an evaporator receiving the low pressure refrigerant to provide cold air to the vehicle cab; and (ii) a secondary cooling circuit, characterized in that: the secondary cooling circuit configured to cool a portion of the primary air conditioning loop, the secondary cooling circuit comprising: a fluid tank for storage of a cooling fluid, and a cooling element arranged to cool fluid stored in the fluid tank; wherein the cooling element comprises a thermoelectric cooling element (i) a primary air conditioning loop, comprising: a compressor to compress a refrigerant from a low pressure to a high pressure, a condenser to condense the refrigerant coming from the compressor, an expansion valve to expand the refrigerant coming from the condenser from high pressure to low pressure, and an evaporator receiving the low pressure refrigerant to provide cold air to the vehicle cab; and a compressor to compress a refrigerant from a low pressure to a high pressure, a condenser to condense the refrigerant coming from the compressor, an expansion valve to expand the refrigerant coming from the condenser from high pressure to low pressure, and an evaporator receiving the low pressure refrigerant to provide cold air to the vehicle cab; (ii) a secondary cooling circuit, characterized in that: the secondary cooling circuit configured to cool a portion of the primary air conditioning loop, the secondary cooling circuit comprising: a fluid tank for storage of a cooling fluid, and a cooling element arranged to cool fluid stored in the fluid tank; wherein the cooling element comprises a thermoelectric cooling element a fluid tank for storage of a cooling fluid, and a cooling element arranged to cool fluid stored in the fluid tank; wherein the cooling element comprises a thermoelectric cooling element
A pot spinning method comprising the steps of: forming a cake by rotating a pot having an opening and a winding yarn that has been drawn out to a predetermined thickness around an inner wall of the pot; disposing a bobbin inside the pot through the opening; discharging, to the outside of the pot, a portion of the yarn present in a region of the inner wall of the pot that is closer to the opening side than an end of the cake on the opening side by blowing compressed air onto the region; and rewinding the yarn forming the cake onto the bobbin from the inner wall of the pot using the portion of the yarn discharged to the outside of the pot as a rewinding start point. forming a cake by rotating a pot having an opening and a winding yarn that has been drawn out to a predetermined thickness around an inner wall of the pot; disposing a bobbin inside the pot through the opening; discharging, to the outside of the pot, a portion of the yarn present in a region of the inner wall of the pot that is closer to the opening side than an end of the cake on the opening side by blowing compressed air onto the region; and rewinding the yarn forming the cake onto the bobbin from the inner wall of the pot using the portion of the yarn discharged to the outside of the pot as a rewinding start point.