mhurhangee/ep-ind-claims huggingface dataset:
Thermoelectric generator comprising - a first electrical voltage source, which is formed from a first thermoelectric element, wherein the first electrical voltage source has a first voltage output, - a second electrical voltage source comprising a second voltage output, - a third voltage output, which is coupled to the first voltage output and the second voltage output, - a voltage transformer, which has a first voltage input, which is connected to the first voltage output, and has a second voltage input, which is connected to the second voltage output, wherein the voltage transformer is designed to output a voltage level at a voltage transformer output to the third voltage output wherein the voltage level is different from the first voltage input, and - a starting apparatus for starting the voltage transformer via a start signal, wherein the second electrical voltage source operates the starting apparatus via the second voltage output of said electrical voltage source. - a first electrical voltage source, which is formed from a first thermoelectric element, wherein the first electrical voltage source has a first voltage output, - a second electrical voltage source comprising a second voltage output, - a third voltage output, which is coupled to the first voltage output and the second voltage output, - a voltage transformer, which has a first voltage input, which is connected to the first voltage output, and has a second voltage input, which is connected to the second voltage output, wherein the voltage transformer is designed to output a voltage level at a voltage transformer output to the third voltage output wherein the voltage level is different from the first voltage input, and - a starting apparatus for starting the voltage transformer via a start signal, wherein the second electrical voltage source operates the starting apparatus via the second voltage output of said electrical voltage source.
Grade 2 sulphated hyaluronic acid having 2 to 60% molar of the carboxylic groups functionalized with dopamine conjugated either directly via an amide bond or via a spacer having an amino group for the formation of an amide bond with hyaluronic acid carboxylic groups and a carboxylic group for the formation of an amide bond with the dopamine amino group.
A bending machine, in particular a swivel bending machine, for bending a workpiece, comprising - at least one first bending tool holder (1, 11, 12), which is movably mounted for executing a working movement and/or for positioning a bending tool (13, 14), and - at least one welding device (3, 4), in particular a spot welding device, for welding a workpiece bent in the bending machine, wherein the at least one welding device (3, 4) is supported by the at least one first bending tool holder (1, 11, 12), and wherein the first bending tool holder(s) (11, 12) is/are drivable by at least one drive in order to perform the working movement(s) which cause(s) the bending operation, characterized in that the at least one first bending tool holder (11, 12), which carries a welding device (3, 4), is mounted so as to be movable transversely to the direction of its working movement along the bending line, and/or that the first bending tool holder (11, 12), which carries a welding device (3, 4), is carried by a further first bending tool holder and is mounted thereon so as to be movable, preferably by means of at least one guide rail. - at least one first bending tool holder (1, 11, 12), which is movably mounted for executing a working movement and/or for positioning a bending tool (13, 14), and - at least one welding device (3, 4), in particular a spot welding device, for welding a workpiece bent in the bending machine, wherein the at least one welding device (3, 4) is supported by the at least one first bending tool holder (1, 11, 12), and wherein the first bending tool holder(s) (11, 12) is/are drivable by at least one drive in order to perform the working movement(s) which cause(s) the bending operation, characterized in that the at least one first bending tool holder (11, 12), which carries a welding device (3, 4), is mounted so as to be movable transversely to the direction of its working movement along the bending line, and/or that the first bending tool holder (11, 12), which carries a welding device (3, 4), is carried by a further first bending tool holder and is mounted thereon so as to be movable, preferably by means of at least one guide rail.
A compound represented by formula Ia: wherein: R 1 is OR 11, or NR 5 R 5'; R 2 is H; R 5 is H, C 1 -C 6 alkyl, OH, C(=O)R 6, OC(=O)R 6 or OC(=O)OR 6; R 5 is H or C 1 -C 6 alkyl; R 6 is C 1 -C 22 alkyl or C 3 -C 7 cycloalkyl; R 11 is H or C 1 -C 6 alkyl; R 13 is H, phenyl, pyridyl, benzyl, indolyl or naphthyl wherein the phenyl, pyridyl, benzyl, indolyl and naphthyl is optionally substituted with 1, 2 or 3 R 22; R 15 is H, C 1 -C 6 alkyl, C 3 -C 7 cycloalkyl, C 3 -C 7 cycloalkylC 1 -C 3 alkyl, phenyl, benzyl or indolyl; R 16 is H, C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 3 -C 7 cycloalkyl, C 3 -C 7 cycloalkylC 1 -C 3 alkyl, benzyl, or phenyl, any of which is optionally substituted with 1, 2 or 3 groups, each independently selected from halo, OR 18 and N(R 18) 2; each R 18 is independently H, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl or C 3 -C 7 cycloalkyl; each R 22 is independently selected from halo, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 1 -C 6 haloalkyl, C 1 -C 6 alkoxy, C 1 -C 6 haloalkoxy, phenyl, hydroxyC 1 -C 6 alkyl, C 3 -C 6 cycloalkyl, C 1 -C 6 alkylcarbonyl, C 3 -C 6 cycloalkylcarbonyl, carboxyC 1 -C 6 alkyl, hydroxy, amino CN, and NO 2, or any two R 22 groups attached to adjacent ring carbon atoms can combine to form -O-(CR 23 R 23') 1-6 -O-; R 23 and R 23' are independently H or C 1 -C 3 alkyl; or a pharmaceutically acceptable salt and/or solvate thereof. R 1 is OR 11, or NR 5 R 5'; R 2 is H; R 5 is H, C 1 -C 6 alkyl, OH, C(=O)R 6, OC(=O)R 6 or OC(=O)OR 6; R 5 is H or C 1 -C 6 alkyl; R 6 is C 1 -C 22 alkyl or C 3 -C 7 cycloalkyl; R 11 is H or C 1 -C 6 alkyl; R 13 is H, phenyl, pyridyl, benzyl, indolyl or naphthyl wherein the phenyl, pyridyl, benzyl, indolyl and naphthyl is optionally substituted with 1, 2 or 3 R 22; R 15 is H, C 1 -C 6 alkyl, C 3 -C 7 cycloalkyl, C 3 -C 7 cycloalkylC 1 -C 3 alkyl, phenyl, benzyl or indolyl; R 16 is H, C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 3 -C 7 cycloalkyl, C 3 -C 7 cycloalkylC 1 -C 3 alkyl, benzyl, or phenyl, any of which is optionally substituted with 1, 2 or 3 groups, each independently selected from halo, OR 18 and N(R 18) 2; each R 18 is independently H, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl or C 3 -C 7 cycloalkyl; each R 22 is independently selected from halo, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 1 -C 6 haloalkyl, C 1 -C 6 alkoxy, C 1 -C 6 haloalkoxy, phenyl, hydroxyC 1 -C 6 alkyl, C 3 -C 6 cycloalkyl, C 1 -C 6 alkylcarbonyl, C 3 -C 6 cycloalkylcarbonyl, carboxyC 1 -C 6 alkyl, hydroxy, amino CN, and NO 2, or any two R 22 groups attached to adjacent ring carbon atoms can combine to form -O-(CR 23 R 23') 1-6 -O-; R 23 and R 23' are independently H or C 1 -C 3 alkyl; or a pharmaceutically acceptable salt and/or solvate thereof.
Reactor-heat exchanger module with at least two fluid circuits, comprising a stack which extends along a longitudinal axis, characterized in that the stack comprises the following elements assembled together by hot isostatic pressing: - at least one element each forming a layer of one of the two fluid circuits, called heat-transfer circuit, inside which a heat-transfer fluid is intended to circulate, said element of the heat-transfer circuit comprising channels at least partially delimited by grooves produced in at least one plate; - at least one element each forming a layer of the other of the two fluid circuits, called reagent circuit, inside which at least two reagents are intended to circulate, said element of the reagent circuit comprising channels at least partially delimited by grooves produced in at least one plate, at least some of the reagent channels being at least partially filled with a conversion catalyst comprising a metal active phase dispersed over an oxide-based support, the metal active phase being a transition metal or a mixture of transition metals, in which module the dimensions of the reagent circuit channels, the number of them per layer and the number of layers of the reagent circuit channels are adapted to make a pure stream of reagents flow under stoichiometric conditions, between 1500 and 3000 Nm 3 /h/m 2. - at least one element each forming a layer of one of the two fluid circuits, called heat-transfer circuit, inside which a heat-transfer fluid is intended to circulate, said element of the heat-transfer circuit comprising channels at least partially delimited by grooves produced in at least one plate; - at least one element each forming a layer of the other of the two fluid circuits, called reagent circuit, inside which at least two reagents are intended to circulate, said element of the reagent circuit comprising channels at least partially delimited by grooves produced in at least one plate, at least some of the reagent channels being at least partially filled with a conversion catalyst comprising a metal active phase dispersed over an oxide-based support, the metal active phase being a transition metal or a mixture of transition metals, in which module the dimensions of the reagent circuit channels, the number of them per layer and the number of layers of the reagent circuit channels are adapted to make a pure stream of reagents flow under stoichiometric conditions, between 1500 and 3000 Nm 3 /h/m 2.
A method for protecting a target pump interior, comprising: providing a target pump inlet with an inlet manifold and a target pump outlet with an exhaust line by attaching the inlet manifold to the target pump inlet and attaching the exhaust line to the target pump outlet the target pump itself thus forming a reaction chamber; coating the target pump interior by exposing the target pump interior to sequential self-saturating surface reactions by sequential inlet of reactive gases via the inlet manifold into the target pump interior and outlet of reaction residue via the exhaust line, while the target pump is kept running; detaching the inlet manifold from the target pump inlet and detaching the exhaust line from the target pump outlet; and wherein the inlet manifold comprises one or more in-feed lines (41, 42, 43) with their controlling elements (51, 52, 53, 61, 62, 63) controlled by a computer-implemented control system, characterized by providing a required processing temperature by keeping the target pump running without using other heating means. providing a target pump inlet with an inlet manifold and a target pump outlet with an exhaust line by attaching the inlet manifold to the target pump inlet and attaching the exhaust line to the target pump outlet the target pump itself thus forming a reaction chamber; coating the target pump interior by exposing the target pump interior to sequential self-saturating surface reactions by sequential inlet of reactive gases via the inlet manifold into the target pump interior and outlet of reaction residue via the exhaust line, while the target pump is kept running; detaching the inlet manifold from the target pump inlet and detaching the exhaust line from the target pump outlet; and wherein the inlet manifold comprises one or more in-feed lines (41, 42, 43) with their controlling elements (51, 52, 53, 61, 62, 63) controlled by a computer-implemented control system, characterized by providing a required processing temperature by keeping the target pump running without using other heating means.
A dispenser for dispensing a hand treatment product on to a hand, the dispenser comprising: an applicator, the applicator comprising at least one roller to apply the hand treatment product; a treatment product storage reservoir in fluid communication with the applicator, the storage reservoir being manufactured from a resiliently deformable material wherein pressure applied by a user to the reservoir feeds hand treatment product to the applicator; and wherein the dispenser comprises restraining means for restraining the dispenser to a user, wherein, in use, when a hand is moved across the applicator treatment product is applied to the hand, wherein the restraining means is a clip suitable for clipping the dispenser to the user. an applicator, the applicator comprising at least one roller to apply the hand treatment product; a treatment product storage reservoir in fluid communication with the applicator, the storage reservoir being manufactured from a resiliently deformable material wherein pressure applied by a user to the reservoir feeds hand treatment product to the applicator; and wherein the dispenser comprises restraining means for restraining the dispenser to a user, wherein, in use, when a hand is moved across the applicator treatment product is applied to the hand, wherein the restraining means is a clip suitable for clipping the dispenser to the user.
A method of anchoring a connector in a first object the connector comprising a thermoplastic material in a solid state, the method comprising: - providing the first object and the connector; - bringing the connector into contact with the first object from a distal side thereof; - causing mechanical vibration energy to impinge on the first object from a proximal end face thereof, the proximal end face being opposite the distal side, while the object and the connector are pressed against each other, until a proximally facing portion of connector is at least partially flowable forming a flow portion of the thermoplastic material, and causing the flow portion to flow into structures of the first object; and - letting the flow portion re-solidify to cause a positive-fit connection between the first object and the connector; wherein the step of causing mechanical vibration energy to impinge on the first object comprises causing a vibrating tool to be lie against the first object, and characterized in that the vibrating tool during the step of causing mechanical vibration energy to impinge on the first object is stationary. - providing the first object and the connector; - bringing the connector into contact with the first object from a distal side thereof; - causing mechanical vibration energy to impinge on the first object from a proximal end face thereof, the proximal end face being opposite the distal side, while the object and the connector are pressed against each other, until a proximally facing portion of connector is at least partially flowable forming a flow portion of the thermoplastic material, and causing the flow portion to flow into structures of the first object; and - letting the flow portion re-solidify to cause a positive-fit connection between the first object and the connector;
A heating assembly for an electronic cigarette, comprising a porous body configured for adsorbing e-liquid and at least one heating element configured for heating and atomizing the e-liquid adsorbed into the porous body, wherein the at least one heating element comprises an elongated sheet heating portion, wherein the sheet heating portion comprises a heating net, and at least partial section of the heating net is at least partially embedded in the porous body, and the porous body comprises an atomizing surface corresponding to the at least partial section; characterized in that a width direction of the at least partial section follows along a movement direction of the e-liquid and/or smoke in the porous body wherein the width direction of the at least partial section is perpendicular to a plane where the atomizing surface is located and, when the heating assembly is mounted in the electronic cigarette, the movement directions of the e-liquid and the smoke in the porous body are both perpendicular to a plane where the atomizing surface is located.
Gas turbine, which comprises an annular combustor (15, 25) which is outwardly delimited by an outer shell which can be split in a parting plane, and which is enclosed by a plenum, which combustor on the outlet side discharges a hot gas flow to a subsequent turbine, wherein the rotor of the turbine is encompassed by a turbine vane carrier which carries stator vanes, and wherein the combustor (15, 25) is mechanically connected to the turbine vane carrier via sealing segments (35, 35') which form a ring and which are movably mounted on their inner edge by a foot section on the outer shell and on their inner edge are movably mounted by a head section on the turbine vane carrier, in such a way that the combustor (15, 25) or the outer shell have an expansion space relative to the turbine vane carrier independently of each other in the axial direction and in the radial direction, wherein the sealing segments (35, 35') are mounted by the head section in a locating space on the turbine vane carrier) in such a way that they are radially movable by the head in the locating space and are pivotable around the head and the locating space is formed between the turbine vane carrier and a holding plate which is fastened on the turbine vane carrier, wherein the outer shell at the turbine-side end has a flange, and the flange on the outer side is provided with an encompassing groove, characterized in that the sealing segments (35, 35') are pivotably mounted in the groove by the foot section, in that bridges which overlap the parting plane are arranged in the groove of the flange for mechanical stabilization of the welded outer shell, and in that the sealing segments which are adjacent to the parting plane have a corresponding recess for adapting to the bridges.
A method of processing a substrate (250a,250b), comprising: transferring the substrate to an epitaxial deposition chamber; depositing an epitaxial layer on the surface of the substrate, the epitaxial layer being doped with arsenic; transferring the substrate comprising the epitaxial layer into a transfer chamber, wherein the transfer chamber has an ultraviolet lamp module (280,300,400) disposed adjacent to a top ceiling of the transfer chamber; flowing an oxygen-containing gas into the transfer chamber through a gas line of the transfer chamber; flowing a non-reactive gas into the transfer chamber through the gas line of the transfer chamber; activating the UV lamp module to: oxidize an arsenic-containing species on a surface of the substrate to form arsenic oxides that serve as a barrier layer for preventing outgassing of arsenic on the surface of the substrate; and convert the loosely bonded arsenic-containing species to high vapor pressure byproducts; ceasing the flow of the oxygen-containing gas and the non-reactive gas into the transfer chamber; pumping the high vapor pressure byproducts out of the transfer chamber; and deactivating the UV lamp module. transferring the substrate to an epitaxial deposition chamber; depositing an epitaxial layer on the surface of the substrate, the epitaxial layer being doped with arsenic; transferring the substrate comprising the epitaxial layer into a transfer chamber, wherein the transfer chamber has an ultraviolet lamp module (280,300,400) disposed adjacent to a top ceiling of the transfer chamber; flowing an oxygen-containing gas into the transfer chamber through a gas line of the transfer chamber; flowing a non-reactive gas into the transfer chamber through the gas line of the transfer chamber; activating the UV lamp module to: oxidize an arsenic-containing species on a surface of the substrate to form arsenic oxides that serve as a barrier layer for preventing outgassing of arsenic on the surface of the substrate; and convert the loosely bonded arsenic-containing species to high vapor pressure byproducts; oxidize an arsenic-containing species on a surface of the substrate to form arsenic oxides that serve as a barrier layer for preventing outgassing of arsenic on the surface of the substrate; and convert the loosely bonded arsenic-containing species to high vapor pressure byproducts; ceasing the flow of the oxygen-containing gas and the non-reactive gas into the transfer chamber; pumping the high vapor pressure byproducts out of the transfer chamber; and deactivating the UV lamp module.
Sintered solid composite material combining - a mineral pigment in the form of discrete particles each comprising a coloured core and a coating surrounding the core, said coating being adapted for allowing light to pass; and - a matrix based on metal oxide or metalloid oxide, said matrix being adapted for allowing light to pass, wherein the coating of the pigment particles is adapted for avoiding interactions between the coloured cores during sintering. - a mineral pigment in the form of discrete particles each comprising a coloured core and a coating surrounding the core, said coating being adapted for allowing light to pass; and - a matrix based on metal oxide or metalloid oxide, said matrix being adapted for allowing light to pass,
A method for generating an image of the surface of biological tissue, using a processor, comprising: a) receiving a first pixelated image, acquired using an image acquirer (16,38,38a), of an area of interest of the surface that includes at least one blood-containing tissue, the first image being acquired at a first wavelength range of light that includes predominantly light having wavelengths of between 400 nm and 620nm; b) receiving a second pixelated image of said area of interest, acquired using said image acquirer at a second wavelength range of light that includes predominantly light having wavelengths of between 620 nm and 800 nm; c) generating a third, monochromatic, pixelated image by processing only said first image and said second image by: for each desired location i of said area of interest, identifying a corresponding pixel P1(i) in said first image and a corresponding pixel P2(i) in said second image; and calculating a pixel P3(i) in said third image corresponding to said location i, by dividing pixels of the first and second images P1(i) by P2(i) or P2(i) by P1(i); and d) transmitting the third image for display on a display component. a) receiving a first pixelated image, acquired using an image acquirer (16,38,38a), of an area of interest of the surface that includes at least one blood-containing tissue, the first image being acquired at a first wavelength range of light that includes predominantly light having wavelengths of between 400 nm and 620nm; b) receiving a second pixelated image of said area of interest, acquired using said image acquirer at a second wavelength range of light that includes predominantly light having wavelengths of between 620 nm and 800 nm; c) generating a third, monochromatic, pixelated image by processing only said first image and said second image by: for each desired location i of said area of interest, identifying a corresponding pixel P1(i) in said first image and a corresponding pixel P2(i) in said second image; and calculating a pixel P3(i) in said third image corresponding to said location i, by dividing pixels of the first and second images P1(i) by P2(i) or P2(i) by P1(i); and for each desired location i of said area of interest, identifying a corresponding pixel P1(i) in said first image and a corresponding pixel P2(i) in said second image; and calculating a pixel P3(i) in said third image corresponding to said location i, by dividing pixels of the first and second images P1(i) by P2(i) or P2(i) by P1(i); and d) transmitting the third image for display on a display component.