mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing lithium metal phosphate having the following Formula I, the method comprising: providing a crystalline iron phosphate salt in a slurry phase or a cake phase, wherein the crystalline iron phosphate salt has a (meta)strengite structure; mixing a lithium raw material with the crystalline iron phosphate salt in the slurry phase or the cake phase to form a mixture, wherein the crystalline iron phosphate salt is in the state of not having been subjected to a drying process, and wherein the lithium raw material is selected from the group consisting of LiOH, Li 2 CO 3 and LiCI; and heat-treating the mixture: Formula I LiM 1-n Fe n PO 4 here, M is selected from the group consisting of Ni, Co, Mn, Cr, Zr, Nb, Cu, V, Ti, Zn, Al, Ga and Mg, and 0 < n ≤ 1. providing a crystalline iron phosphate salt in a slurry phase or a cake phase, wherein the crystalline iron phosphate salt has a (meta)strengite structure; mixing a lithium raw material with the crystalline iron phosphate salt in the slurry phase or the cake phase to form a mixture, wherein the crystalline iron phosphate salt is in the state of not having been subjected to a drying process, and wherein the lithium raw material is selected from the group consisting of LiOH, Li 2 CO 3 and LiCI; and heat-treating the mixture: Formula I LiM 1-n Fe n PO 4 here, M is selected from the group consisting of Ni, Co, Mn, Cr, Zr, Nb, Cu, V, Ti, Zn, Al, Ga and Mg, and 0 < n ≤ 1.
A method for changing the relative dampness of a printing material by means of a dampener, which comprises a plurality of dampening elements, which are arranged transversely to the transport direction (x) of the printing material and are directed to the printing material in order to dampen the latter in each case with a moisture quantity, wherein the dampening elements can be controlled individually, wherein at least two dampening elements are controlled in such a way that a different moisture quantity is applied to at least two areas transversely to the transport direction (x) of the printing material, and comprising a drying unit, characterized in that the drying unit comprises a plurality of drying elements, which are arranged transversely to the transport direction (x) of the printing material and are directed to the printing material in order to dry the latter in each case with a drying intensity, wherein the drying elements can be controlled individually, wherein at least two drying elements can be controlled in such a way that a different drying intensity is applied to at least two areas transversely to the transport direction (x) of the printing material.
A transducer comprising: an electromagnet including a conductive coil, wherein the conductive coil is configured to be driven by an electrical input signal to generate magnetic fields; a magnetic diaphragm that is configured to mechanically vibrate in response to the generated magnetic fields; and a pair of cantilevered flexible support arms formed from damping steel and configured to reduce vibration near a resonance frequency, wherein the cantilevered flexible support arms couple the magnetic diaphragm to a frame, wherein the magnetic diaphragm vibrates with respect to the frame when the electromagnet is driven by the electrical input signal, and wherein the pair of cantilevered flexible support arms are connected to opposing sides of the magnetic diaphragm, characterized in that the damping steel integrates a rubber and/or polymer layer within metallic layers. an electromagnet including a conductive coil, wherein the conductive coil is configured to be driven by an electrical input signal to generate magnetic fields; a magnetic diaphragm that is configured to mechanically vibrate in response to the generated magnetic fields; and a pair of cantilevered flexible support arms formed from damping steel and configured to reduce vibration near a resonance frequency, wherein the cantilevered flexible support arms couple the magnetic diaphragm to a frame, wherein the magnetic diaphragm vibrates with respect to the frame when the electromagnet is driven by the electrical input signal, and wherein the pair of cantilevered flexible support arms are connected to opposing sides of the magnetic diaphragm, characterized in that the damping steel integrates a rubber and/or polymer layer within metallic layers.
A cantilever umbrella assembly, comprising: a canopy; an upright pole including an upright guide surface; a runner coupled with the upright pole, the runner having a bearing coupled with the guide surface for guiding the runner along the upright pole; a clamp coupled with the runner for holding the runner at a selected elevation along the upright pole, the clamp being configured to apply pressure to the upright pole at positions along the upright pole; a transverse pole having an end coupled with the runner; a strut coupling an upper end of the upright pole with the transverse pole at a position along the length thereof; a deployable tension member with a second end disposed in the transverse pole and a first end coupled with the canopy; and a crank and a spool coupled with the second end of the tension member, the first end of the tension member being coupled with the canopy by means of a canopy frame member. a canopy; an upright pole including an upright guide surface; a runner coupled with the upright pole, the runner having a bearing coupled with the guide surface for guiding the runner along the upright pole; a clamp coupled with the runner for holding the runner at a selected elevation along the upright pole, the clamp being configured to apply pressure to the upright pole at positions along the upright pole; a transverse pole having an end coupled with the runner; a strut coupling an upper end of the upright pole with the transverse pole at a position along the length thereof; a deployable tension member with a second end disposed in the transverse pole and a first end coupled with the canopy; and a crank and a spool coupled with the second end of the tension member, the first end of the tension member being coupled with the canopy by means of a canopy frame member.
A device (100, 200) comprising: an acquiring unit (151, 161, 241) configured to acquire received quality information indicating received quality of a reference signal in a terminal device; and a control unit (153, 163, 243) configured to perform cell selection for the terminal device based on the received quality information, wherein, when a predetermined condition related to use of weight sets for beamforming by a base station is satisfied, the control unit is configured to not perform the selection based on the received quality information, said weight sets for beamforming corresponding to sets of weight coefficients, and each set of said sets is for multiple antenna elements which are included in the base station. an acquiring unit (151, 161, 241) configured to acquire received quality information indicating received quality of a reference signal in a terminal device; and a control unit (153, 163, 243) configured to perform cell selection for the terminal device based on the received quality information, wherein, when a predetermined condition related to use of weight sets for beamforming by a base station is satisfied, the control unit is configured to not perform the selection based on the received quality information, said weight sets for beamforming corresponding to sets of weight coefficients, and each set of said sets is for multiple antenna elements which are included in the base station.
Method for obtaining a finished or semi-finished zirconia-based article, the article having a metallic external appearance and non-zero surface electrical conductivity, characterized in that the method includes the steps consisting in: - taking at least one zirconia article, pre-shaped in its finished or semi-finished form; - placing said article inside a chamber in which a gaseous mixture is arranged, this gaseous mixture including at least a first hydrogen and carbon based gas compound in a first concentration and a second hydrogen and nitrogen based gas compound in a second concentration; - heating the gaseous mixture until the molecules of the first and second compounds dissociate and keeping said article in the reactive atmosphere thereby created to obtain diffusion of the carbon and nitrogen atoms in the external surface of said article and to form stoichiometric carbonitride (ZrC x -N y) at the surface, and - prior to the step of heating the process gases contained in the chamber, a reduction step consisting in placing said article inside a chamber into which dihydrogen is injected and in heating the dihydrogen allowing diffusion towards the surface and release of the oxygen contained in said zirconia article. - taking at least one zirconia article, pre-shaped in its finished or semi-finished form; - placing said article inside a chamber in which a gaseous mixture is arranged, this gaseous mixture including at least a first hydrogen and carbon based gas compound in a first concentration and a second hydrogen and nitrogen based gas compound in a second concentration; - heating the gaseous mixture until the molecules of the first and second compounds dissociate and keeping said article in the reactive atmosphere thereby created to obtain diffusion of the carbon and nitrogen atoms in the external surface of said article and to form stoichiometric carbonitride (ZrC x -N y) at the surface, and - prior to the step of heating the process gases contained in the chamber, a reduction step consisting in placing said article inside a chamber into which dihydrogen is injected and in heating the dihydrogen allowing diffusion towards the surface and release of the oxygen contained in said zirconia article.
A functional fluid comprising a. a major amount of an oil of lubricating viscosity, b. from 0.05 wt.% to 1 wt.% glycerol; and c. a C 14 -C 18 diol. a. a major amount of an oil of lubricating viscosity, b. from 0.05 wt.% to 1 wt.% glycerol; and c. a C 14 -C 18 diol.
A device, comprising: a microphone sensor coupled to a substrate; an acoustic port in the substrate that exposes a portion of the microphone sensor; characterized by a temperature sensor that overlays a portion of the port, wherein the temperature sensor is formed on an application specific integrated circuit that is embedded into the substrate, and wherein a portion of the application specific integrated circuit comprising the temperature sensor extends into the acoustic port. a microphone sensor coupled to a substrate; an acoustic port in the substrate that exposes a portion of the microphone sensor; characterized by a temperature sensor that overlays a portion of the port, wherein the temperature sensor is formed on an application specific integrated circuit that is embedded into the substrate, and wherein a portion of the application specific integrated circuit comprising the temperature sensor extends into the acoustic port.
A display unit that forms a virtual image of an image by projecting the image to a light transmissive display member, the display unit comprising: a housing including an opening through which projected light is output; a display device that is accommodated in the housing and displays the image; and a projection optical system that is accommodated in the housing and projects the image displayed on the display device to the display member, wherein the projection optical system includes a first reflecting member disposed on a display device side and a second reflecting member disposed on an opening side in an optical path extending from the display device to the opening, wherein a reflection surface of the first reflecting member that reflects the image displayed on the display device has a convex shape, a reflection surface of the second reflecting member that projects the image to the display member has a concave shape of a free-form surface, and the first reflecting member and the second reflecting member are disposed so as to satisfy a relation of 0.2 < D12/Lv < 1.3, where Lv is the length in a longitudinal direction of the virtual image of the image, said longitudinal direction being a direction perpendicular to the display surface of the display, and D12 is an interval between the first reflecting member and the second reflecting member in a center optical path. a housing including an opening through which projected light is output; a display device that is accommodated in the housing and displays the image; and a projection optical system that is accommodated in the housing and projects the image displayed on the display device to the display member, wherein the projection optical system includes a first reflecting member disposed on a display device side and a second reflecting member disposed on an opening side in an optical path extending from the display device to the opening, wherein a reflection surface of the first reflecting member that reflects the image displayed on the display device has a convex shape, a reflection surface of the second reflecting member that projects the image to the display member has a concave shape of a free-form surface, and the first reflecting member and the second reflecting member are disposed so as to satisfy a relation of 0.2 < D12/Lv < 1.3, where Lv is the length in a longitudinal direction of the virtual image of the image, said longitudinal direction being a direction perpendicular to the display surface of the display, and D12 is an interval between the first reflecting member and the second reflecting member in a center optical path.
A bonded body comprising: a ceramic member made of ceramics; and a Cu member (12; 112; 212; 312) which is made of Cu or a Cu alloy and bonded to the ceramic member through a Cu-P-Sn-based brazing filler material and a Ti material (25; 325), wherein the Ti material (25; 325) has a thickness of 0.1 μm to 5 μm and a purity of 99.4 % or greater, and the Cu-P-Sn-based brazing filler material has a melting point of 710°C or less and comprises one of a Cu-P-Sn brazing filler material, a CuP-Sn-Ni-based brazing filler material, a Cu-P-Sn-Zn-based brazing filler material, a Cu-P-Sn-Mn-based brazing filler material, and a Cu-P-Sn-Cr-based brazing filler material, and wherein a Cu-Sn layer (14; 114), which is positioned close to the ceramic member and in which Sn forms a solid solution with Cu, and an intermetallic compound layer (17; 117; 317) which is positioned between the Cu member (12; 112; 212; 312) and the Cu-Sn layer (14; 114) and contains P and Ti, are formed at a bonded interface between the ceramic member and the Cu member (12; 112; 212; 312), wherein the intermetallic compound layer (17; 117; 317) is formed in a range of 0.1 μm to 100 μm from an interface between the ceramic member and the Cu-Sn layer (14; 114). a ceramic member made of ceramics; and a Cu member (12; 112; 212; 312) which is made of Cu or a Cu alloy and bonded to the ceramic member through a Cu-P-Sn-based brazing filler material and a Ti material (25; 325), wherein the Ti material (25; 325) has a thickness of 0.1 μm to 5 μm and a purity of 99.4 % or greater, and the Cu-P-Sn-based brazing filler material has a melting point of 710°C or less and comprises one of a Cu-P-Sn brazing filler material, a CuP-Sn-Ni-based brazing filler material, a Cu-P-Sn-Zn-based brazing filler material, a Cu-P-Sn-Mn-based brazing filler material, and a Cu-P-Sn-Cr-based brazing filler material, and
A hand dishwashing detergent composition comprising anionic surfactant and from 2% to 15% by weight of the composition of amine oxide surfactant comprising a) from 10% to 45% by weight of the amine oxide of low-cut amine oxide of formula R1R2R3AO wherein R1 and R2 are selected from hydrogen, C1-C4 alkyls and mixtures thereof and wherein R3 is selected from C10 alkyls and mixtures thereof; and b) from 55% to 90% by weight of the amine oxide of mid-cut amine oxide of formula R4R5R6AO wherein R4 and R5 are selected from hydrogen, C1-C4 alkyls and mixtures thereof and wherein R6 is selected from C12-C16 alkyls and mixtures thereof and wherein the weight ratio of the anionic surfactant to the amine oxide surfactant is from 1:1 to 10:1. a) from 10% to 45% by weight of the amine oxide of low-cut amine oxide of formula R1R2R3AO wherein R1 and R2 are selected from hydrogen, C1-C4 alkyls and mixtures thereof and wherein R3 is selected from C10 alkyls and mixtures thereof; and b) from 55% to 90% by weight of the amine oxide of mid-cut amine oxide of formula R4R5R6AO wherein R4 and R5 are selected from hydrogen, C1-C4 alkyls and mixtures thereof and wherein R6 is selected from C12-C16 alkyls and mixtures thereof and wherein the weight ratio of the anionic surfactant to the amine oxide surfactant is from 1:1 to 10:1.
An information management system comprising a control device, the control device comprising: an audio signal acquisition means configured to acquire an audio signal representing a sound for reproduction; a related information acquisition means configured to acquire a piece of related information in the form of a character string representing spoken content of the sound for reproduction, wherein the related information acquisition means generates the piece of related information indicative of a translation of the sound for reproduction by machine translation of a character string indicative of a spoken content of the sound for reproduction; an association management means configured to associate the piece of related information acquired by the related information acquisition means for the sound for reproduction with a piece of identification information that is notified to a terminal device upon emission of the sound for reproduction corresponding to the audio signal; and an information providing means configured to receive from the terminal device an information request including the piece of identification information notified to the terminal device and language information indicative of a language specified in the terminal device, the language information being generated from a language setting in the terminal device, and to transmit to the terminal device the piece of related information associated by the association management means with the piece of identification information in the language indicated by the language information. an audio signal acquisition means configured to acquire an audio signal representing a sound for reproduction; a related information acquisition means configured to acquire a piece of related information in the form of a character string representing spoken content of the sound for reproduction, wherein the related information acquisition means generates the piece of related information indicative of a translation of the sound for reproduction by machine translation of a character string indicative of a spoken content of the sound for reproduction; an association management means configured to associate the piece of related information acquired by the related information acquisition means for the sound for reproduction with a piece of identification information that is notified to a terminal device upon emission of the sound for reproduction corresponding to the audio signal; and an information providing means configured to receive from the terminal device an information request including the piece of identification information notified to the terminal device and language information indicative of a language specified in the terminal device, the language information being generated from a language setting in the terminal device, and to transmit to the terminal device the piece of related information associated by the association management means with the piece of identification information in the language indicated by the language information.
Equipment for manufacturing metal injection parts, comprising a vibration table, a high-pressure injection equipment and a device for obtaining semi-solid sludges, characterized in that the device for obtaining semi-solid sludges comprises a crucible (1, 2) comprising at least one fixed part which is fixed to the vibration table, and at least one moveable part which can be attached to the fixed part through fixing means.
Energy storage device which contains an energy store, wherein energy storage cells (1-i) of the energy store are each connected at their poles (2-i, 3-i) to a printed circuit board (7, 8) via an electrically and thermally conductive flat contact element (4-i, 5-i) made from an elastic material, which printed circuit board is provided to separate an electric current, flowing from the respective energy storage cell (1-i) via the contact element (2-i, 3-i), from a heat flow (Q • s) received via the contact element (2-i, 3-i), wherein the flat contact element (4-i, 5-i) consisting of elastic material draws its elastic deformation from the change in a longitudinal extension in a direction perpendicular to the contact surfaces of the poles (2-i, 3-i), wherein the printed circuit boards (7, 8) each comprise an electrically conductive and heat-conducting first layer (7-1, 8-1) which lies against the contact element (4-i, 5-i), wherein the first layer (7-1, 8-1) of the printed circuit board (7, 8) laterally discharges an electric current flowing via the contact element (4-i, 5-i) and transfers a heat flow (Q • s) flowing via the flat contact element (4-i, 5-i) to a second heat-conducting layer (7-2, 8-2) of the printed circuit board (7, 8) which outputs the heat flow (Q • s) received from the first layer (7-1, 8-1) of the printed circuit board (7, 8) to a surrounding area or to a cooling medium, and wherein the second layer (7-2, 8-2) of the printed circuit board (7, 8) is electrically conductive and is separated from the electrically conductive first layer (7-1, 8-1) of the printed circuit board (7, 8) by an electrically insulating intermediate layer (7-3, 8-3) of the printed circuit board (7, 8), wherein the electrically insulating intermediate layer (7-3, 8-3) of the printed circuit board (7, 8) consists of a thermally conductive material, wherein the flat contact element (4-i, 5-i) respectively provided at both poles (2-i, 3-i) of the electric energy storage cell (1-i) is provided between the respective pole (2-i, 3-i) of the electric energy storage cell (1-i) and the respective printed circuit board (7, 8), wherein the elastic material of the flat contact elements (4-i, 5-i) is an elastic contacting material which consists of a mixture of elastomer and metal particles or of a conductive elastomer and electrically and thermally connects two electric conductors without these electric conductors touching each other, wherein the surface of the respective pole (2-i, 3-i) or of an electric conductor is completely or partially protected against contact with moisture.