mhurhangee/ep-ind-claims huggingface dataset:
A method for extraction of lanthanoid elements and actinoid elements comprising: an adsorption process wherein metal-dissolved solution containing a target metal that is selected from lanthanoid elements and actinoid elements is made to come into contact with nanostructures that carry metal-adsorbent compounds that are adsorbent to said target metal so that said target metal in said solution is adsorbed by said metal-adsorbent compounds; and a target metal separation process wherein said nanostructures that carry metal-adsorbent compounds that adsorbed said target metal during said adsorption process are made to come into contact with a back-extraction solution so that said target metal that is adsorbed by said metal-adsorbent compounds is transported to said back-extraction solution, wherein the nanostructures have a size of 1 μm or less and are nanorod structures, nanotube structures or porous structures and the porous structures include micropores, mesopores and macropores; and wherein said metal-adsorbent compounds are organic compounds with selective spectroscopic properties to said target metal, wherein said organic compounds are aromatic azo compounds or aromatic amine compounds. an adsorption process wherein metal-dissolved solution containing a target metal that is selected from lanthanoid elements and actinoid elements is made to come into contact with nanostructures that carry metal-adsorbent compounds that are adsorbent to said target metal so that said target metal in said solution is adsorbed by said metal-adsorbent compounds; and a target metal separation process wherein said nanostructures that carry metal-adsorbent compounds that adsorbed said target metal during said adsorption process are made to come into contact with a back-extraction solution so that said target metal that is adsorbed by said metal-adsorbent compounds is transported to said back-extraction solution, wherein the nanostructures have a size of 1 μm or less and are nanorod structures, nanotube structures or porous structures and the porous structures include micropores, mesopores and macropores; and wherein said metal-adsorbent compounds are organic compounds with selective spectroscopic properties to said target metal, wherein said organic compounds are aromatic azo compounds or aromatic amine compounds.
A method of combusting fuel with reduced emissions in a turbine engine, the engine having a combustion chamber defined by a liner wall, said liner wall having an inwardly facing hot side and an outwardly facing cold side, the combustion chamber further comprising a shroud circumscribing a portion of the liner wall, the shroud spaced from the cold side of the liner wall so as to define an annulus therebetween, the method comprising the steps of: a. introducing a fuel inside of said liner wall without premixing in a pressurized air stream prior to ignition; b. producing a flowing stream of combustion products by igniting the fuel and air, and flowing said combustion products adjacent said hot side in a downstream direction; c. introducing no additional pressurized air inside and adjacent said liner wall for film cooling said liner wall, for reducing CO; d. preventing the air adjacent said cold side within said annulus from contacting said hot side; and e. flowing air adjacent said cold side within said annulus in at least partially the downstream direction for reducing CO; characterised by the steps of f. flowing moisture adjacent said hot side and in the downstream direction for reducing NOx; and g. introducing air into a lean combustion zone of the combustion chamber transversely through apertures near an aft end of the shroud and aligned boss bores in the liner. a. introducing a fuel inside of said liner wall without premixing in a pressurized air stream prior to ignition; b. producing a flowing stream of combustion products by igniting the fuel and air, and flowing said combustion products adjacent said hot side in a downstream direction; c. introducing no additional pressurized air inside and adjacent said liner wall for film cooling said liner wall, for reducing CO; d. preventing the air adjacent said cold side within said annulus from contacting said hot side; and e. flowing air adjacent said cold side within said annulus in at least partially the downstream direction for reducing CO; characterised by the steps of f. flowing moisture adjacent said hot side and in the downstream direction for reducing NOx; and g. introducing air into a lean combustion zone of the combustion chamber transversely through apertures near an aft end of the shroud and aligned boss bores in the liner.
An electron microscope comprising: an optical system including an aberration correction device; means for receiving information on type and magnitude of an aberration to be introduced; and a control unit that controls the aberration correction device, the control unit arranged to perform: processing for acquiring the information on the type and the magnitude of the aberration to be introduced; and processing for displaying, on a display unit, an indicator for designating a direction of aberration in superposition on an aberration pattern representing a state of aberration, the electron microscope further comprising means for rotating said indicator, and the control unit further arranged to perform: processing for specifying the direction of aberration from the indicator that has been subjected to a rotation operation; and processing for controlling the aberration correction device to cause the aberration correction device to introduce an aberration of said type in the specified direction with said magnitude. an optical system including an aberration correction device; means for receiving information on type and magnitude of an aberration to be introduced; and a control unit that controls the aberration correction device, the control unit arranged to perform: processing for acquiring the information on the type and the magnitude of the aberration to be introduced; and processing for displaying, on a display unit, an indicator for designating a direction of aberration in superposition on an aberration pattern representing a state of aberration, processing for acquiring the information on the type and the magnitude of the aberration to be introduced; and processing for displaying, on a display unit, an indicator for designating a direction of aberration in superposition on an aberration pattern representing a state of aberration, the electron microscope further comprising means for rotating said indicator, and the control unit further arranged to perform: processing for specifying the direction of aberration from the indicator that has been subjected to a rotation operation; and processing for controlling the aberration correction device to cause the aberration correction device to introduce an aberration of said type in the specified direction with said magnitude. processing for specifying the direction of aberration from the indicator that has been subjected to a rotation operation; and processing for controlling the aberration correction device to cause the aberration correction device to introduce an aberration of said type in the specified direction with said magnitude.
Method for determining a coefficient of friction (μ) for contact between a tyre of a vehicle and a roadway, wherein the method comprises the following steps: processing sensor signals in order to generate processed sensor signals, wherein the sensor signals represent at least state data read in from at least one detection device (104, 106; 108) and able to be correlated with the coefficient of friction (μ), wherein the processed sensor signals represent at least one provisional coefficient of friction; and ascertaining the coefficient of friction (μ) using the processed sensor signals and a regression model, characterized in that a plurality of regression models are used in the ascertaining step, wherein a dedicated regression model from the plurality of regression models is used for each of a plurality of geographical regions (A, B, C, D, E, F, G, H, I, K, J, L, M, N, O, P). processing sensor signals in order to generate processed sensor signals, wherein the sensor signals represent at least state data read in from at least one detection device (104, 106; 108) and able to be correlated with the coefficient of friction (μ), wherein the processed sensor signals represent at least one provisional coefficient of friction; and ascertaining the coefficient of friction (μ) using the processed sensor signals and a regression model, characterized in that a plurality of regression models are used in the ascertaining step, wherein a dedicated regression model from the plurality of regression models is used for each of a plurality of geographical regions (A, B, C, D, E, F, G, H, I, K, J, L, M, N, O, P).
Drive unit for closing a leaf of a door or of a window, having an energy store for providing a closing force for closing the leaf, in particular a closing spring, having a damping device which counteracts the closing force and comprises an electric motor which can be operated as a generator and can be coupled to an actuating element of the drive unit, and having a control device for driving the electric motor, characterized in that the control device is designed to define a target trajectory which indicates a position of the leaf or a closing speed of the leaf as a function of time, and to drive the electric motor for damping the closing movement of the leaf based on the defined target trajectory, wherein the control device is designed to take into account, when defining the target trajectory, a permissibility range (33, 43, 53) which is determined by two boundary curves (35, 37), and the control device is designed to redefine the target trajectory before each closing process, wherein furthermore the boundary curves (35, 37) are determined depending on an ascertained starting position of the leaf to be closed, a maximum damping force of the damping device and an actuation reserve. the control device is designed to define a target trajectory which indicates a position of the leaf or a closing speed of the leaf as a function of time, and to drive the electric motor for damping the closing movement of the leaf based on the defined target trajectory, wherein the control device is designed to take into account, when defining the target trajectory, a permissibility range (33, 43, 53) which is determined by two boundary curves (35, 37), and the control device is designed to redefine the target trajectory before each closing process, wherein furthermore the boundary curves (35, 37) are determined depending on an ascertained starting position of the leaf to be closed, a maximum damping force of the damping device and an actuation reserve.
A cable tray section of wire comprising wires extending in a direction designated longitudinal, called warp wires (2, 2'), which are disposed parallel to each other and further comprising transverse wires, called weft wires, disposed in a transverse plane to said longitudinal direction and connected to them to form a mesh, said cable tray section having a bottom disposed between two lateral walls, each weft wire comprising a rectilinear central part disposed between two rectilinear lateral parts, and each rectilinear lateral part of a weft wire being linked to the corresponding rectilinear central part by a linking part, characterized in that at least one linking part of a weft wire is a curved part, the weft wires having a convex side externally, in that this curved part bears a warp wire which is situated entirely between the planes defined by the internal faces of the lateral walls, in that the rectilinear central part and the linking parts of the weft wires define with the warp wires connected thereto the bottom of the cable tray section, and in that the warp wires at the location of the bottom of the cable tray section are connected to the weft wires such that the warp wires are located on the convex side of the weft wires.
A silicon-based lithium storage material, comprising a core comprising a first component, comprising Si with a valence of 0-4, with the proviso that 0≤C Si /C Si ≤1, where C Si is a molar amount of element silicon with a valence of 1-4, and C Si is a molar amount of element silicon with a valence of 0; and a second component, comprising a doping element R, where the doping element R is an element that accepts electrons, with the proviso that 0≤C R /C Si ≤1.5, where C R is a molar amount of the doping element R, and C Si is a molar amount of element silicon with a valence of 0-4; a first shell coating the core, wherein the first shell is a carbon-containing material that has a conductivity lager than 10 2 S/m; a second shell coating the first shell, wherein the second shell is a metal oxide that has a dielectric constant of 10-40, said metal oxide is selected from MgO, Al 2 O 3 and TiO 2, characterized in that, the first shell is a graphitized carbon coating; the second shell has a thickness of 5-20 nm; and Si with a valence of 0-4 and the doping element R are uniformly distributed. a core comprising a first component, comprising Si with a valence of 0-4, with the proviso that 0≤C Si /C Si ≤1, where C Si is a molar amount of element silicon with a valence of 1-4, and C Si is a molar amount of element silicon with a valence of 0; and a second component, comprising a doping element R, where the doping element R is an element that accepts electrons, with the proviso that 0≤C R /C Si ≤1.5, where C R is a molar amount of the doping element R, and C Si is a molar amount of element silicon with a valence of 0-4; a first component, comprising Si with a valence of 0-4, with the proviso that 0≤C Si /C Si ≤1, where C Si is a molar amount of element silicon with a valence of 1-4, and C Si is a molar amount of element silicon with a valence of 0; and a second component, comprising a doping element R, where the doping element R is an element that accepts electrons, with the proviso that 0≤C R /C Si ≤1.5, where C R is a molar amount of the doping element R, and C Si is a molar amount of element silicon with a valence of 0-4; a first shell coating the core, wherein the first shell is a carbon-containing material that has a conductivity lager than 10 2 S/m; a second shell coating the first shell, wherein the second shell is a metal oxide that has a dielectric constant of 10-40, said metal oxide is selected from MgO, Al 2 O 3 and TiO 2, characterized in that, the first shell is a graphitized carbon coating; the second shell has a thickness of 5-20 nm; and Si with a valence of 0-4 and the doping element R are uniformly distributed. the first shell is a graphitized carbon coating; the second shell has a thickness of 5-20 nm; and Si with a valence of 0-4 and the doping element R are uniformly distributed.
A circuitry for adaptively configuring a region of interest, ROI, within pixels of a sensor array, the ROI including one or more pixels to be read-out from the sensor array, the circuitry comprising: a rewritable ROI memory provided per pixel for storing a ROI indication for a pixel indicating that the pixel belongs to the region of interest of the sensor array; and a control means for writing the ROI indication into the rewritable ROI memory of the pixel. a rewritable ROI memory provided per pixel for storing a ROI indication for a pixel indicating that the pixel belongs to the region of interest of the sensor array; and a control means for writing the ROI indication into the rewritable ROI memory of the pixel.
A composite structure comprising a support layer, a cured embossing lacquer layer and a functional layer in this order, wherein the cured embossing lacquer layer has a region comprising an embossed recess which is free from the functional layer and has a depth of 1 to 200 μm and which is completely covered with the functional layer outside the recess, wherein the ratio of the depth of the recess to the average roughness Ra of the region outside the recess is at least 20.
Braking device for roller skates, skateboards, or the like having a roller support, in which a roller is mounted axially movable between a first freely rotatable position and a second braked position, with an actuatable brake unit supported relative to the roller support, characterized in that the brake actuation force of the brake unit is produced from the torque of the roller using a coupling unit that is open in the first position and closed in the second position and that has a downstream transmission unit.
A dual cure organopolysiloxane composition, comprising: a first organopolysiloxane having at least two mercapto functional groups, wherein the first organopolysiloxane does not comprise terminal mercapto groups; and a second organopolysiloxane have at least one alkenyl group and one trialkoxysilyl group. a first organopolysiloxane having at least two mercapto functional groups, wherein the first organopolysiloxane does not comprise terminal mercapto groups; and a second organopolysiloxane have at least one alkenyl group and one trialkoxysilyl group.
A compound of formula wherein R 1 is H or halogen; R 2 is H or halogen; R 3 is H or halogen; with the proviso that not more than one of R 1, R 2 and R 3 is halogen; A is selected from the group consisting of: R 4 is selected from the group consisting of: pyrrolidinyl, piperidinyl, piperazinyl, tetrahydropyranyl, oxazolidinyl, C 3 - 8 -cycloalkyl, phenyl, pyridinyl, pyrazinyl, pyridazinyl, pyrimidinyl, [1,3,5]triazinyl, triazolyl, thiazolyl, imidazo[1,2-a]pyridin-2-yl, oxazolyl and oxadiazolyl, wherein each R 4 is optionally substituted with one or more groups independently of each other selected from the group consisting of halogen, OH, CO 2 H, CN, CF 3, C 1-3 -alkyl, C 1-3 -alkyl-O-, (R N) 2 N-, C 1-3 -alkyl-C(=O)-, C 1-4 -alkyl-O-C(=O)-, (R N) 2 N-C(=O)-, (R N) 2 N-C 1-3 -alkyl-, C 3-6 -cycloalkyl-C 1-3 -alkyl-O-, C 1-3 -alkyl-SO 2 -, (R N) 2 N-SO 2 - and C 1-3 -alkyl-C(=O)-(R N)N-C 1-3 -alkyl-; and wherein a -CH 2 - group of the pyrrolidinyl, oxazolidinyl, piperidinyl or piperazinyl group of R 4 is optionally replaced with a -C(=O)- group; R N is H or C 1-4 -alkyl; R 5 is CN or OH; or, R 4 and R 5 groups together with the carbon atom, to which they are attached, may form the following group: wherein each of the above-mentioned alkyl and -O-alkyl groups may be linear or branched and are optionally substituted by one or more F; or a pharmaceutically acceptable salt thereof. R 1 is H or halogen; R 2 is H or halogen; R 3 is H or halogen; R N is H or C 1-4 -alkyl; R 5 is CN or OH;
A triple-drum forming machine for manufacturing a tire, wherein the triple-drum forming machine comprises a tire body drum, a belted layer drum and a forming drum, which are arranged on the same horizontal axis; wherein the tire body drum is carried by a tire body drum drive unit; the belted layer drum and the forming drum are carried by a same forming drum drive unit; further comprising a tire body transfer ring component for conveying a prepared tire body component to the forming drum is arranged between the tire body drum and the forming drum; a belted layer transfer ring for conveying a prepared belted layer-tread component to the forming drum is arranged between the tire body drum and the belted layer drum; the triple-drum forming machine is characterized in that: a portal frame for conveying material is arranged above the vertical directions of the tire body drum, the belted layer drum and the forming drum; wherein the transverse central line of the portal frame overlaps with the axial center lines of the tire body drum, the belted layer drum and the forming drum; the tops of the tire body transfer ring component and the belted layer transfer ring are respectively connected to the portal frame in a sliding manner; and the portal frame comprises a horizontally arranged truss and a plurality of groups of vertically arranged upright posts; the horizontally arranged truss is connected with the vertically arranged upright posts. a tire, wherein the triple-drum forming machine comprises a tire body drum, a belted layer drum and a forming drum, which are arranged on the same horizontal axis; wherein the tire body drum is carried by a tire body drum drive unit; the belted layer drum and the forming drum are carried by a same forming drum drive unit; further comprising a tire body transfer ring component for conveying a prepared tire body component to the forming drum is arranged between the tire body drum and the forming drum; a belted layer transfer ring for conveying a prepared belted layer-tread component to the forming drum is arranged between the tire body drum and the belted layer drum; the triple-drum forming machine is characterized in that: a portal frame for conveying material is arranged above the vertical directions of the tire body drum, the belted layer drum and the forming drum; wherein the transverse central line of the portal frame overlaps with the axial center lines of the tire body drum, the belted layer drum and the forming drum; the tops of the tire body transfer ring component and the belted layer transfer ring are respectively connected to the portal frame in a sliding manner; and the portal frame comprises a horizontally arranged truss and a plurality of groups of vertically arranged upright posts; the horizontally arranged truss is connected with the vertically arranged upright posts.
A process for the synthesis of methanol comprising the steps of: (i) passing a first synthesis gas mixture comprising a make-up gas and a first loop recycle gas stream through a first synthesis reactor containing a cooled methanol synthesis catalyst to form a first product gas stream, (ii) recovering methanol from the first product gas stream thereby forming a first methanol-depleted gas mixture, (iii) combining the first methanol-depleted gas mixture with a second loop recycle gas stream to form a second synthesis gas mixture, (iv) passing the second synthesis gas mixture through a second synthesis reactor containing a cooled methanol synthesis catalyst to form a second product gas stream, (v) recovering methanol from the second product gas stream thereby forming a second methanol-depleted gas mixture, and (vi) forming the first and second loop recycle gas streams from the second methanol-depleted gas mixture, wherein the first synthesis reactor has a higher heat transfer per cubic metre of catalyst than the second synthesis reactor and the recycle ratio of the first loop recycle gas stream to form the first synthesis gas mixture is in the range 0.1 to 1:1, and the recycle ratio of the second loop recycle gas stream to form the second synthesis gas mixture is in the range 1.1:1 to 6:1. (i) passing a first synthesis gas mixture comprising a make-up gas and a first loop recycle gas stream through a first synthesis reactor containing a cooled methanol synthesis catalyst to form a first product gas stream, (ii) recovering methanol from the first product gas stream thereby forming a first methanol-depleted gas mixture, (iii) combining the first methanol-depleted gas mixture with a second loop recycle gas stream to form a second synthesis gas mixture, (iv) passing the second synthesis gas mixture through a second synthesis reactor containing a cooled methanol synthesis catalyst to form a second product gas stream, (v) recovering methanol from the second product gas stream thereby forming a second methanol-depleted gas mixture, and (vi) forming the first and second loop recycle gas streams from the second methanol-depleted gas mixture,
A method of producing a lanthanum carbonate compound comprising reacting a soluble salt of lanthanum chloride with ammonium carbonate in a solvent at a reaction temperature from between 75 degrees C to 90 degrees C at a pH of from 6.0 to 7.5 and precipitating the reaction product, wherein the reaction product is lanthanum carbonate hydroxide which includes about 0.5% by weight or less of sodium.