mhurhangee/ep-ind-claims huggingface dataset:
An air flow meter comprising an arithmetic circuit that corrects an output, wherein the arithmetic circuit incorporates an air temperature and a sensor module temperature as adjustment factors for an output characteristic of the air flow meter, the output characteristic is corrected in accordance with a temperature difference between the air temperature and the sensor module temperature; characterized in that a correction amount (ΔY) is decreased in comparison to a correction amount (ΔY) indicated by a primary characteristic when an absolute value of the difference between the air temperature and the sensor module temperature is smaller than a threshold.
Membrane electrode unit having (i) two gas diffusion layers that are each in contact with a catalyst layer and being separated by a polymer electrolyte membrane, (ii) both surfaces of the polymer electrolyte membrane are in contact with said catalyst layer, said catalyst layers being in contact with said gas diffusion layers, (iii) the side surface of the polymer electrolyte membrane being surrounded by and in contact with the side surface of a polymer frame over the entire side surface of the polymer electrolyte membrane, (iv) the top surface of said polymer frame overlapping with the outer peripheral area of the two gas diffusion layers that are each in contact with a catalyst layer, (v) the thickness of the polymer frame and the polymer electrolyte membrane are equal, (vi) the polymer electrolyte membrane being operational above 100°C without any humidification and having a proton conductivity of at least 100 mS/cm measured at temperatures of 120°C without moistening, (vii) the polymer frame is made from polymers based on polysulphone, (viii) the polymer electrolyte membrane comprises an alkaline polymer with at least one nitrogen atom per polymer repeating unit and being doped with an acid. (i) two gas diffusion layers that are each in contact with a catalyst layer and being separated by a polymer electrolyte membrane, (ii) both surfaces of the polymer electrolyte membrane are in contact with said catalyst layer, said catalyst layers being in contact with said gas diffusion layers, (iii) the side surface of the polymer electrolyte membrane being surrounded by and in contact with the side surface of a polymer frame over the entire side surface of the polymer electrolyte membrane, (iv) the top surface of said polymer frame overlapping with the outer peripheral area of the two gas diffusion layers that are each in contact with a catalyst layer, (v) the thickness of the polymer frame and the polymer electrolyte membrane are equal, (vi) the polymer electrolyte membrane being operational above 100°C without any humidification and having a proton conductivity of at least 100 mS/cm measured at temperatures of 120°C without moistening, (vii) the polymer frame is made from polymers based on polysulphone, (viii) the polymer electrolyte membrane comprises an alkaline polymer with at least one nitrogen atom per polymer repeating unit and being doped with an acid.
Medical fluid bag, in particular dialysis fluid bag comprising at least one outlet nozzle which is closed off from the external surroundings via a switchable valve unit and which is encapsulated by a locking unit which is arranged on the outlet nozzle in a sterile-sealed manner, wherein the locking unit comprises a base part arranged on the outlet nozzle and a break-off cap, wherein the base part and the break-off cap are integrally connected via a connection serving as predetermined breaking point, and wherein the valve unit comprises on its inside a valve body which opens the valve unit when pressure is applied after removing the break-off cap for intended use of the fluid bag, characterized in that a valve actuating element is provided on the inside of the break-off cap of the locking unit, wherein the valve actuating element forcibly actuates the valve body after connection of the outlet nozzle with the locking unit and thus opens the valve unit such that a fluidic connection is present between the fluid bag and a cavity encapsulated from the break-off cap.
A method of connecting a terminal portion of a prefabricated skirt to a casing of a thruster body in the vicinity of an end wall thereof, the skirt having a free portion extending from its terminal portion so as to surround said end wall, at least in part, the method comprising: positioning the terminal portion of the skirt with circumferential clearance (j) around the casing of the thruster body in the vicinity of said end wall; • keeping the skirt in position relative to the casing of the thruster body; • closing both ends of an annular space between the terminal portion of the skirt and the casing of the thruster body; • injecting elastomer into said annular space; and • curing the elastomer, characterized in that it also comprises positioning the skirt relative to the casing of the thruster body by means of a first annular tooling and a second annular tooling formed by removable rings, the first tooling engaging without clearance in the free portion of the skirt so as to position the skirt radially relative to the casing in such a manner as to ensure they have substantially the same axis, the second tooling forming an abutment for axially positioning the skirt relative to the casing, and in that the first tooling bearing against the end wall and the second tooling bearing against a shroud of the casing of the thruster in order to close both ends of the annular space. • keeping the skirt in position relative to the casing of the thruster body; • closing both ends of an annular space between the terminal portion of the skirt and the casing of the thruster body; • injecting elastomer into said annular space; and • curing the elastomer,
A thermally conductive sheet comprising a glass cloth filled with a thermally conductive resin composition, wherein one or both surfaces of the glass cloth has a coating of a cured, thermally conductive silicone composition thereon, wherein the thermally conductive silicone composition comprises a silicone component and thermally conductive filler in an amount of 1,200 to 2,000 parts by mass, relative to 100 parts by mass of the silicone component, the thermally conductive filler has an average particle size smaller than 15 μm, 0 to 3 mass % of particles having a particle size of 45 μm or larger and 0 to 0.01 mass % of particles having a particle size of 75 μm or larger, based on the amount of the thermally conductive filler and the cured, thermally conductive silicone composition has a hardness of 80 to 96, as determined by a type A durometer.
A transport section for feeding articles or article assemblies in a transport direction to a processing apparatus for the articles or article assemblies, the transport section comprising at least: - a transfer plate with a transport surface, on which transport surface the articles or article assemblies are slidably movable in the transport direction; - at least one drive means for the articles or article assemblies; - at least two outer guide elements arranged on the transfer plate and laterally delimiting the transport section; - and at least one inner guide element, which inner guide element at least partially engages through the transfer plate and has a planar upper side, which at least one inner guide element is designed such that it can move vertically, characterized in that the at least one inner guide element is arranged in a first working position in such a way that the planar upper side of the at least one inner guide element and the transport surface of the transfer plate are arranged within a plane and/or form part of the transport surface; and that the at least one inner guide element is arranged in a second working position at least partially above the transport surface of the transfer plate. - a transfer plate with a transport surface, on which transport surface the articles or article assemblies are slidably movable in the transport direction; - at least one drive means for the articles or article assemblies; - at least two outer guide elements arranged on the transfer plate and laterally delimiting the transport section; - and at least one inner guide element, which inner guide element at least partially engages through the transfer plate and has a planar upper side, which at least one inner guide element is designed such that it can move vertically, characterized in that the at least one inner guide element is arranged in a first working position in such a way that the planar upper side of the at least one inner guide element and the transport surface of the transfer plate are arranged within a plane and/or form part of the transport surface; and that the at least one inner guide element is arranged in a second working position at least partially above the transport surface of the transfer plate.
A method for priming a print substrate for subsequently receiving a liquid electrophotographic ink, the method comprising: coating a surface of a print substrate with a first primer using an analogue printing technique; and digitally printing a second primer to the surface of the print substrate coated with the first primer, wherein the first primer comprises a first primer resin and a carrier solvent, the first primer resin comprising a carboxylic functional group, an amine functional group or a polyol functional group, and the carrier solvent being a polar carrier liquid, and wherein the second primer comprises a second primer resin, a solid polar compound and a non-polar liquid carrier, wherein the solid polar compound is selected from the group consisting of a cellulose microcrystalline powder, dextrin, maltose monohydrate, polyacrylic acid, polyvinyl alcohol, a styrene maleic anhydride copolymer, a bismaleimide oligomer, sucrose, sucrose octaacetate, sucrose benzoate, and combinations thereof, the second primer resin comprising a copolymer of alkylene monomers and acrylic acid or methacrylic acid monomers. coating a surface of a print substrate with a first primer using an analogue printing technique; and digitally printing a second primer to the surface of the print substrate coated with the first primer, wherein the first primer comprises a first primer resin and a carrier solvent, the first primer resin comprising a carboxylic functional group, an amine functional group or a polyol functional group, and the carrier solvent being a polar carrier liquid, and wherein the second primer comprises a second primer resin, a solid polar compound and a non-polar liquid carrier, wherein the solid polar compound is selected from the group consisting of a cellulose microcrystalline powder, dextrin, maltose monohydrate, polyacrylic acid, polyvinyl alcohol, a styrene maleic anhydride copolymer, a bismaleimide oligomer, sucrose, sucrose octaacetate, sucrose benzoate, and combinations thereof, the second primer resin comprising a copolymer of alkylene monomers and acrylic acid or methacrylic acid monomers. wherein the first primer comprises a first primer resin and a carrier solvent, the first primer resin comprising a carboxylic functional group, an amine functional group or a polyol functional group, and the carrier solvent being a polar carrier liquid, and wherein the second primer comprises a second primer resin, a solid polar compound and a non-polar liquid carrier, wherein the solid polar compound is selected from the group consisting of a cellulose microcrystalline powder, dextrin, maltose monohydrate, polyacrylic acid, polyvinyl alcohol, a styrene maleic anhydride copolymer, a bismaleimide oligomer, sucrose, sucrose octaacetate, sucrose benzoate, and combinations thereof, the second primer resin comprising a copolymer of alkylene monomers and acrylic acid or methacrylic acid monomers.
A chemical compound carrier for improving the biocompatibility of a therapeutic agent and for increasing the solubility of a hydrophobic or lipophilic agent in water, said carrier comprising a molecular structure represented by the formula: wherein: H is a lipophilic carrier void of steroid acids and fatty acids, and being selected from the group consisting of cholesterol, sterols having a single hydroxyl group including stanols, Vitamin D, cholecalciferols, ergocalciferol, Vitamin A, retinoids, carotenoids, tocopherols, and tocotrienols; Sugar is a carbohydrate selected from the group consisting of monosaccharides, disaccharides, and trisaccharides; PEG is a polyethylene glycol polymer; Backbone is a molecule having three or four available binding positions and being void of a drug moiety, said Backbone comprising at least one of glycerol, diamines, triamines, tetraamines, diaminoalcohols, aminoalcohols, aminodiols, aminotriols, amino acids having three available binding positions, triols, tetraols, triacids, tetraacids, halogen-containing diols, halogen-containing amines, carboxyl-containing diols and polyamines. H is a lipophilic carrier void of steroid acids and fatty acids, and being selected from the group consisting of cholesterol, sterols having a single hydroxyl group including stanols, Vitamin D, cholecalciferols, ergocalciferol, Vitamin A, retinoids, carotenoids, tocopherols, and tocotrienols; Sugar is a carbohydrate selected from the group consisting of monosaccharides, disaccharides, and trisaccharides; PEG is a polyethylene glycol polymer; Backbone is a molecule having three or four available binding positions and being void of a drug moiety, said Backbone comprising at least one of glycerol, diamines, triamines, tetraamines, diaminoalcohols, aminoalcohols, aminodiols, aminotriols, amino acids having three available binding positions, triols, tetraols, triacids, tetraacids, halogen-containing diols, halogen-containing amines, carboxyl-containing diols and polyamines.
A method for fabricating an object with a computer-controlled additive manufacturing apparatus, the method comprising the steps of: moving the apparatus and fabricating a plurality of first beads, each first bead defining a longitudinal axis, whereby at least a portion of some of the first beads extend longitudinally adjacently to each other, the first beads forming a first non-planar layer; and moving the apparatus and fabricating a plurality of second beads, each second bead defining a longitudinal axis, whereby at least a portion of some of the second beads extend longitudinally adjacently to each other, the second beads forming a second non-planar layer at least partially enclosing the first non-planar layer, and wherein the at least a portion of some of the second beads abut the at least a portion of some of the first beads, and the longitudinal axes of the second beads are arranged transverse to the longitudinal axes of the first beads. moving the apparatus and fabricating a plurality of first beads, each first bead defining a longitudinal axis, whereby at least a portion of some of the first beads extend longitudinally adjacently to each other, the first beads forming a first non-planar layer; and moving the apparatus and fabricating a plurality of second beads, each second bead defining a longitudinal axis, whereby at least a portion of some of the second beads extend longitudinally adjacently to each other, the second beads forming a second non-planar layer at least partially enclosing the first non-planar layer, and wherein the at least a portion of some of the second beads abut the at least a portion of some of the first beads, and the longitudinal axes of the second beads are arranged transverse to the longitudinal axes of the first beads.
A method for producing wood sheets for lamps, which comprises: - sanding the wood sheet to a thickness comprised between 0.6 and 0.8 mm, - applying, preferably on both faces of the wood sheet, a matte polyester film that is between 70 and 80 micrometres thick, - characterized in that thermopressing the polyester film to the wood sheet by applying a temperature between 80oC and 110oC, and wherein the passage of the wood sheet through the thermopressing rollers is performed at a speed between 40 and 60 linear centimetres per minute, - cold pressing the wood sheet covered with the plastic material film by means of rollers to prevent the formation of creases and air bubbles of the plastic material on the surface of the wood sheet, - sanding the edges and corners of the wood sheet to eliminate excess remnants of the plastic material film. - sanding the wood sheet to a thickness comprised between 0.6 and 0.8 mm, - applying, preferably on both faces of the wood sheet, a matte polyester film that is between 70 and 80 micrometres thick, - characterized in that thermopressing the polyester film to the wood sheet by applying a temperature between 80oC and 110oC, and wherein the passage of the wood sheet through the thermopressing rollers is performed at a speed between 40 and 60 linear centimetres per minute, - cold pressing the wood sheet covered with the plastic material film by means of rollers to prevent the formation of creases and air bubbles of the plastic material on the surface of the wood sheet, - sanding the edges and corners of the wood sheet to eliminate excess remnants of the plastic material film.
A service ceiling for conducting supply lines in a space of a building, in particular in a laboratory, with an intrinsically rigid supporting frame made of profiled carriers (4, 4a, 4b) which is fastened in the region of the ceiling of the space, and also with at least one incoming-air duct (10, 20) for supplying fresh air and lines for supplying sanitary media, characterised in that the incoming-air duct comprises an elongate hollow body received detachably on the supporting frame on the underside thereof and made of a dimensionally stable, intrinsically elastic material, which is provided over its length with a multiplicity of air exit openings via which incoming air conducted in the interior of the hollow body emerges into the space, in that the hollow body consists at least in portions of a transparent material, and a light source is arranged in the interior of the hollow body, and in that the hollow body comprises a first and a second lateral longitudinal portion (30a, 30b) which in order to fasten the hollow body to the supporting frame can be inserted by brief deformation of the hollow body in each case into an associated groove-like receiving portion (32a, 32b) extending parallel to the hollow body and is held in said portion by the intrinsic elasticity of the material.
A non-oriented electrical steel sheet, consisting of, by weight, 1.0% to 4.0% of Si, 0.001% to 0.01% of Al, 0.002% to 0.009% of S, 0.01% to 0.3% of Mn, 0.001% to 0.004% of N, more than 0% and 0.004% or less of C, more than 0% and 0.003% or less of Ti, 0.005% to 0.07% of Cu, 0.05% to 0.2% of either or both of Sn and P, and a balance amount of Fe and impurities, and satisfying Equation 1, wherein at least one of Ni and Cr is further included in an amount of 0.01 wt% to 0.1 wt% alone or as a mixture optionally, or wherein 0.005 wt% to 0.06 wt% of Sb is further included optionally, or wherein 0.001 wt% to 0.015 wt% of Mo is further included optionally, or wherein at least one of Bi, Pb, Mg, As, Nb and V is further included in each amount of 0.0005 wt% to 0.005 wt% optionally, wherein the number of an inclusion including N compositely with S is larger than the number of an inclusion including N alone of inclusions including N in the steel sheet, wherein the components of an inclusion are measured by the method described in the description. log Mn + Cu × S Al + Ti × N ≥ 0.85 (In Equation 1, [Mn], [Cu],, [Al], [Ti], and denote each content (wt%) of Mn, Cu, S, Al, Ti, and N.)
A rock cutting device including: a boom including a boom end, and a cutter head pivotably coupled to the boom end, the cutter head including a cutting bit and a first member having a first mass, the cutting bit coupled to the first member and having a cutting edge, characterized by the rock cutting device including a coupling member and a resilient member supporting the cutter head on the boom end to facilitate oscillation of the cutter head relative to the boom, and the cutter head including a second member rotatable about an axis and including a second mass eccentrically positioned with respect to the axis, rotation of the second member inducing the first member and the cutting bit to oscillate on the resilient member. a boom including a boom end, and a cutter head pivotably coupled to the boom end, the cutter head including a cutting bit and a first member having a first mass, the cutting bit coupled to the first member and having a cutting edge, characterized by the rock cutting device including a coupling member and a resilient member supporting the cutter head on the boom end to facilitate oscillation of the cutter head relative to the boom, and the cutter head including a second member rotatable about an axis and including a second mass eccentrically positioned with respect to the axis, rotation of the second member inducing the first member and the cutting bit to oscillate on the resilient member.
Method for regulating combustion in a heating device by means of an ionisation signal measured in a flame region of the heating device operated with combustion air and fuel gas, which ionisation signal is derived from an ion current flowing from an ionisation electrode (7, 8) to a counter electrode through the flame region, wherein the ratio (lambda value) of combustion air to fuel gas during combustion in the heating device is determined by way of calibrating data from the ionisation signal and is regulated by adjusting the supply of combustion gas and/or the supply of combustion air, characterised by the following steps: 1.1 a fan for supplying combustion air is brought to a predeterminable speed, 1.2 a fuel gas valve is brought to a position associated with this speed by means of a predeterminable characteristic, 1.3 the fuel gas valve is held in this position, 1.4 the speed is reduced by a predeterminable amount, 1.5 afterwards the speed is increased continuously or stepwise and the respective ionisation signal is measured, 1.6 a minimum of the ionisation signal is detected and stored with the corresponding fan speed, 1.7 the fan speed is increased further until a predeterminable threshold value of the ionisation signal relative to the minimum is reached, 1.8 the fan speed is then reduced to the minimum associated fan speed and held there for a preset time period (t) or is used to regulate the ionisation signal to the current constant value, 1.9 after the time period (t) has elapsed the steps from 1.4 are repeated. 1.1 a fan for supplying combustion air is brought to a predeterminable speed, 1.2 a fuel gas valve is brought to a position associated with this speed by means of a predeterminable characteristic, 1.3 the fuel gas valve is held in this position, 1.4 the speed is reduced by a predeterminable amount, 1.5 afterwards the speed is increased continuously or stepwise and the respective ionisation signal is measured, 1.6 a minimum of the ionisation signal is detected and stored with the corresponding fan speed, 1.7 the fan speed is increased further until a predeterminable threshold value of the ionisation signal relative to the minimum is reached, 1.8 the fan speed is then reduced to the minimum associated fan speed and held there for a preset time period (t) or is used to regulate the ionisation signal to the current constant value, 1.9 after the time period (t) has elapsed the steps from 1.4 are repeated.
Solenoid valve having an actuator body, in which a magnet coil is arranged which interacts with a magnet core, and which interacts with an armature that can be moved relative to the magnet core between two end positions and is acted upon by the spring force of an armature spring in a movement direction pointing away from the magnet core, and wherein the magnet core and the armature have stopping surfaces (18a, 18b) which are interrupted by a recess that receives the armature spring, wherein the magnet core has a rounded configuration which reduces a stress on the edges in the region of the stopping surfaces (18a, 18b), characterized in that the rounded configuration of the magnet core is a toroidal configuration in the region of at least its stopping surface.