mhurhangee/ep-ind-claims huggingface dataset:
A scroll structure for a radial turbine or a diagonal flow turbine configured such that a turbine rotor is rotationally driven by causing exhaust gas to flow from a spiral scroll portion formed in a turbine housing toward a rotor blade of the scroll portion in a radial direction, and act on the rotor blade, then flow out in an axial direction, wherein a concave portion as a heat radiation space is formed in a shroud portion formed between the scroll portion and a turbine chamber wall covering the rotor blade in a radial cross section of the radial turbine or the diagonal flow turbine, and the concave portion is formed in a circumferential direction, and characterized in that a radial cross-sectional shape of the scroll portion in which the exhaust gas flows in a direction orthogonal to a line joining a tongue portion separating a flow path, which leads to the scroll portion, from a rotor blade side flow path, which leads to the rotor blade, to an axis of the scroll portion is formed of an oblong rectangular cross-sectional shape in which a length in a radial direction is longer than a length in an axial direction. a turbine rotor is rotationally driven by causing exhaust gas to flow from a spiral scroll portion formed in a turbine housing toward a rotor blade of the scroll portion in a radial direction, and act on the rotor blade, then flow out in
Electromagnetic flowmeter designed to measure the flow velocity or the volume flow of media in a pipe, said flowmeter comprising: A measuring tube with a magnet system, said system being arranged on the measuring tube, wherein the interior lateral surface of the measuring tube features an insulating material, in contact with the medium; and at least a pair of hybrid electrodes, wherein the hybrid electrodes are arranged in the insulating material, wherein a hybrid electrode has at least a meter body, said body having a first material, and at least an electrode head which is in contact with the medium, said electrode head being connected to the meter body and featuring a surface facing away from the meter body, said surface having a second material, said material being metal; wherein the electrode head is connected to the meter body via a positive substance bond, at least in a marginal area, characterized in that the electrode head is made at least partially by the selective application of material, wherein a metal powder is transformed into a metal layer by means of a fusion procedure that bonds substances, wherein the hybrid electrode has at least a cavity, said cavity being arranged particularly between the meter body and the electrode head or in the electrode head, wherein the hybrid electrode has at least one opening to the at least one cavity, said opening being provided to rinse the cavity, wherein the opening is separated from the medium by the insulating material. A measuring tube with a magnet system, said system being arranged on the measuring tube, wherein the interior lateral surface of the measuring tube features an insulating material, in contact with the medium; and at least a pair of hybrid electrodes, wherein the hybrid electrodes are arranged in the insulating material, wherein a hybrid electrode has at least a meter body, said body having a first material, and at least an electrode head which is in contact with the medium, said electrode head being connected to the meter body and featuring a surface facing away from the meter body, said surface having a second material, said material being metal; wherein the electrode head is connected to the meter body via a positive substance bond, at least in a marginal area, characterized in that the electrode head is made at least partially by the selective application of material, wherein a metal powder is transformed into a metal layer by means of a fusion procedure that bonds substances, wherein the hybrid electrode has at least a cavity, said cavity being arranged particularly between the meter body and the electrode head or in the electrode head, wherein the hybrid electrode has at least one opening to the at least one cavity, said opening being provided to rinse the cavity, wherein the opening is separated from the medium by the insulating material.
Cylinder acting as a reservoir for refrigerant, intended to be fitted to a heat exchanger of an air conditioning circuit, said cylinder defining a first housing accommodating a desiccant and a second housing able to allow fluid communication with said circuit, characterized by the cylinder being configured so that said first and second housings remain isolated from one another until a first internal pressure threshold is reached and are placed in fluidic communication once said second housing is subjected to a second internal pressure threshold, higher than the first threshold.
A system, comprising: a multi-lead memristor, comprising: a first lead; a second lead; a third lead, the second lead positioned between the first lead and the third lead; at least one first memristor material positioned between the first lead and the second lead; and at least one second memristor material positioned between the second lead and the third lead, and further comprising a controller, wherein the controller is further configured to use a direct current field applied to the first lead and the second lead to set oxygen vacancies of the at least one first memristor material toward the second lead; and use a direct current field applied to the second lead and the third lead to set oxygen vacancies of the at least one second memristor material toward the third lead, and characterized in that the oxygen vacancies of the at least one first memristor material are controlled to be in phase with the oxygen vacancies of the at least one second memristor material. a first lead; a second lead; a third lead, the second lead positioned between the first lead and the third lead; at least one first memristor material positioned between the first lead and the second lead; and
An aqueous slurry composition for the production of a coating on a substrate, comprising: a binder comprising an aqueous solution of lithium doped potassium silicate, the binder characterized by an absence of chromium; and an aluminum or aluminum alloy powder incorporated into the binder, wherein the aluminum or the aluminum alloy powder and the binder are contained as a one-part composition, the aluminum or the aluminum alloy powder and the binder contained in a predetermined weight ratio; wherein the aluminum or aluminum alloy powder in the slurry is between 35-45 weight percent (wt%) based on the total weight of the slurry and the silicate to aluminum is contained in a ratio of 0.22:1 to 0.37:1 by weight. a binder comprising an aqueous solution of lithium doped potassium silicate, the binder characterized by an absence of chromium; and an aluminum or aluminum alloy powder incorporated into the binder, wherein the aluminum or the aluminum alloy powder and the binder are contained as a one-part composition, the aluminum or the aluminum alloy powder and the binder contained in a predetermined weight ratio;
A method for the real-time dynamic priority scheduling of an application executed on a number p of processors, at least equal to 1, said application being made up of a plurality m of software tasks executing at least one processing operation on a plurality N of successive data frames, each of said tasks i being at least defined, for each of said frames j, by an execution time C i j, an execution deadline D i j and a guard time P i j with respect to the next frame j+1, said guard time P i j being greater than or equal to said deadline D i j, said method being characterised in that it comprises at least the following steps: ∘ computing, for each task i, the ratios C i j D i j between the execution time C i j of each frame j and the corresponding deadline D i j; ∘ finding, for each task i, the maximum max C i j D i j of said ratios over all of said frames j; ∘ comparing the sum ∑ i = 0 m − 1 max 0 ≤ j ≤ N − 1 C i j D i j over all of said tasks i of said maximums to the number p of processors operating in parallel, over which the total computation load of said real-time application is distributed; ∘ if said sum ∑ i = 0 m − 1 max 0 ≤ j ≤ N − 1 C i j D i j is less than or equal to the number p of processors, then deducing the feasibility of the real-time execution of all of said software tasks distributed over said processors and associating a dynamic execution priority with the task i as a function of its execution deadline D i j so that, at a given instant, the task with the highest priority is the task for which the deadline D i j is temporally closest; ∘ if said sum ∑ i = 0 m − 1 max 0 ≤ j ≤ N − 1 C i j D i j is strictly greater than the number p of processors, rejecting the task i and/or redefining its execution time C i j and execution deadline D i j parameters so as to meet the inequality ∑ i = 0 m − 1 max 0 ≤ j ≤ N − 1 C i j D i j ≤ p. ∘ computing, for each task i, the ratios C i j D i j between the execution time C i j of each frame j and the corresponding deadline D i j; ∘ finding, for each task i, the maximum max C i j D i j of said ratios over all of said frames j; ∘ comparing the sum ∑ i = 0 m − 1 max 0 ≤ j ≤ N − 1 C i j D i j over all of said tasks i of said maximums to the number p of processors operating in parallel, over which the total computation load of said real-time application is distributed; ∘ if said sum ∑ i = 0 m − 1 max 0 ≤ j ≤ N − 1 C i j D i j is less than or equal to the number p of processors, then deducing the feasibility of the real-time execution of all of said software tasks distributed over said processors and associating a dynamic execution priority with the task i as a function of its execution deadline D i j so that, at a given instant, the task with the highest priority is the task for which the deadline D i j is temporally closest; ∘ if said sum ∑ i = 0 m − 1 max 0 ≤ j ≤ N − 1 C i j D i j is strictly greater than the number p of processors, rejecting the task i and/or redefining its execution time C i j and execution deadline D i j parameters so as to meet the inequality ∑ i = 0 m − 1 max 0 ≤ j ≤ N − 1 C i j D i j ≤ p.
A process for treating wastewater to simultaneously remove both particulate and dissolved organic matter, nitrogen, and phosphorus with energy recovery, the process comprising: a) - providing an ammonia-containing stream in a pretreatment tank that comprises anaerobic microorganisms, and produces excess sludge, biogas, and a pretreated stream, wherein the pretreated stream has 45% to 70% less carbon than the ammonia-containing stream, and wherein the biogas comprises at least methane and carbon dioxide; b) - flowing the pretreated stream and a returned portion of activated sludge from step e) the sludge containing a microbial mass including phosphorus accumulating organisms in addition to residual oxygen, nitrates and nitrites, first to an anoxic tank operating under anoxic conditions; c) - mixing the pretreated stream and the returned portion of activated sludge in the anoxic tank to form a mixed liquor, to initiate phosphorus release and fermentation of particulate organic matter and dissolved organic matter; d) - transferring the mixed liquor to an aerated tank to effectuate nitrification, denitrification, phosphorus release, and phosphorus uptake in the aerated tank by treating the mixed liquor in the aerated tank with a concentration of dissolved oxygen of less than 1.0 mg/l of the mixed liquor under microaerophilic conditions, and e) - transferring the mixed liquor to a membrane tank that separates treated effluent from activated sludge containing microorganisms, wherein a portion of the activated sludge is returned to the anoxic tank as the returned portion of activated sludge and wherein the pretreatment tank is an upflow anaerobic sludge blanket (UASB) reactor. a) - providing an ammonia-containing stream in a pretreatment tank that comprises anaerobic microorganisms, and produces excess sludge, biogas, and a pretreated stream, wherein the pretreated stream has 45% to 70% less carbon than the ammonia-containing stream, and wherein the biogas comprises at least methane and carbon dioxide; b) - flowing the pretreated stream and a returned portion of activated sludge from step e) the sludge containing a microbial mass including phosphorus accumulating organisms in addition to residual oxygen, nitrates and nitrites, first to an anoxic tank operating under anoxic conditions; c) - mixing the pretreated stream and the returned portion of activated sludge in the anoxic tank to form a mixed liquor, to initiate phosphorus release and fermentation of particulate organic matter and dissolved organic matter; d) - transferring the mixed liquor to an aerated tank to effectuate nitrification, denitrification, phosphorus release, and phosphorus uptake in the aerated tank by treating the mixed liquor in the aerated tank with a concentration of dissolved oxygen of less than 1.0 mg/l of the mixed liquor under microaerophilic conditions, and e) - transferring the mixed liquor to a membrane tank that separates treated effluent from activated sludge containing microorganisms, wherein a portion of the activated sludge is returned to the anoxic tank as the returned portion of activated sludge and
A detector device, comprising: a substrate; a source region and a drain region laterally spaced apart on the substrate; a channel region extending laterally between the source and drain regions; a nanopore which passes vertically through the channel region, and which connects fluid chambers (56,58) on opposite vertical sides of the nanopore; first drive means for providing a voltage bias between the fluid chambers; second drive means distinct from the first drive means and for providing a voltage V SD between source and drain; and a current sensor for sensing a charge flow between the source and drain regions. a substrate; a source region and a drain region laterally spaced apart on the substrate; a channel region extending laterally between the source and drain regions; a nanopore which passes vertically through the channel region, and which connects fluid chambers (56,58) on opposite vertical sides of the nanopore; first drive means for providing a voltage bias between the fluid chambers; second drive means distinct from the first drive means and for providing a voltage V SD between source and drain; and a current sensor for sensing a charge flow between the source and drain regions.
An absorbent article comprising: a liquid permeable topsheet, a liquid impermeable backsheet, and an absorbent core positioned between said topsheet and backsheet, wherein the absorbent core comprises at least a top layer and a bottom layer wherein the bottom layer is positioned between the top layer and the backsheet, and wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material therein, characterized in that the at least top layer and a bottom layer are directly stacked one on top of the other to form a contact zone (Zc) where the top layer directly adjoins to the bottom layer, and in that the top layer comprises one or more first superabsorbent polymer grades and the bottom layer comprises one or more second superabsorbent polymer grades, wherein the first superabsorbent polymer grades have an AUL that is greater than the AUL of second superabsorbent polymer grades, and wherein the first superabsorbent polymer grades have an AUL, as measured according to the test method herein, of greater than 15 g/g, and wherein the second superabsorbent polymer grades have an AUL of less than 15 g/g, and wherein the at least a top layer and a bottom layer each comprise an absorbent material, said absorbent material comprising a mixture, or blend, of cellulose fibers and superabsorbent polymers. a liquid permeable topsheet, a liquid impermeable backsheet, and an absorbent core positioned between said topsheet and backsheet, wherein the absorbent core comprises at least a top layer and a bottom layer wherein the bottom layer is positioned between the top layer and the backsheet, and wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material therein, characterized in that the at least top layer and a bottom layer are directly stacked one on top of the other to form a contact zone (Zc) where the top layer directly adjoins to the bottom layer, and in that the top layer comprises one or more first superabsorbent polymer grades and the bottom layer comprises one or more second superabsorbent polymer grades, wherein the first superabsorbent polymer grades have an AUL that is greater than the AUL of second superabsorbent polymer grades, and wherein the first superabsorbent polymer grades have an AUL, as measured according to the test method herein, of greater than 15 g/g, and wherein the second superabsorbent polymer grades have an AUL of less than 15 g/g, and wherein the at least a top layer and a bottom layer each comprise an absorbent material, said absorbent material comprising a mixture, or blend, of cellulose fibers and superabsorbent polymers.
A rotary compressor comprising: an airtight container accommodating therein a compression mechanism section configured to compress a working fluid, and filled with refrigerating machine oil configured to lubricate the compression mechanism section; and a connecting pipe (26a, 26b) connected to the airtight container and including an opening end part opened to the outside of the airtight container, characterized in that the rotary compressor further comprises a sealing stopper detachably fitted on the opening end part of the connecting pipe (26a, 26b) and tightly sealing up the opening end part, and the sealing stopper includes a cylindrical peripheral wall part to be brazed to the connecting pipe (26a, 26b) in a state where the peripheral wall part surrounds an outer circumferential surface of the opening end part of the connecting pipe (26a, 26b), and an end wall part provided in such a manner as to be continuous with the peripheral wall part and opposed to an apical surface of the opening end part. an airtight container accommodating therein a compression mechanism section configured to compress a working fluid, and filled with refrigerating machine oil configured to lubricate the compression mechanism section; and a connecting pipe (26a, 26b) connected to the airtight container and including an opening end part opened to the outside of the airtight container, characterized in that the rotary compressor further comprises a sealing stopper detachably fitted on the opening end part of the connecting pipe (26a, 26b) and tightly sealing up the opening end part, and the sealing stopper includes a cylindrical peripheral wall part to be brazed to the connecting pipe (26a, 26b) in a state where the peripheral wall part surrounds an outer circumferential surface of the opening end part of the connecting pipe (26a, 26b), and an end wall part provided in such a manner as to be continuous with the peripheral wall part and opposed to an apical surface of the opening end part.
Electrical machine for submerged applications, which electrical machine includes an external stator consisting of a complete laminated core and winding for providing a multiple-phase AC output voltage, an internal rotor consisting of rotor back iron and permanent magnets, a stator and rotor support structure, and fastening means arranged to fix the stator to the stator and rotor support structure, wherein - the stator, including both laminated core and windings, is separately encapsulated in composites or a polymer, - the fastening means arranged to fix the stator to the stator and rotor support structure comprising a plurality of threaded pins arranged radially outward from the windings at equidistant places around the stator, each traversing the laminated core and the encapsulated material in axial direction and traversing a pair of nuts, disposed in the encapsulating material, the treaded pins protruding at both axial sides from the encapsulated material, and - the rotor is separately either encapsulated in composites or a polymer, or the magnets of the rotor are fixed on the back iron and covered by a protective casing made of stainless steel, or the magnets have corrosion-proof surface and are additionally protected by special paint, wherein a gap between the stator and the rotor is open to surrounding fluid. an internal rotor consisting of rotor back iron and permanent magnets, a stator and rotor support structure, and fastening means arranged to fix the stator to the stator and rotor support structure, - the stator, including both laminated core and windings, is separately encapsulated in composites or a polymer, - the fastening means arranged to fix the stator to the stator and rotor support structure comprising a plurality of threaded pins arranged radially outward from the windings at equidistant places around the stator, each traversing the laminated core and the encapsulated material in axial direction and traversing a pair of nuts, disposed in the encapsulating material, the treaded pins protruding at both axial sides from the encapsulated material, and - the rotor is separately either encapsulated in composites or a polymer, or the magnets of the rotor are fixed on the back iron and covered by a protective casing made of stainless steel, or the magnets have corrosion-proof surface and are additionally protected by special paint, wherein a gap between the stator and the rotor is open to surrounding fluid.
Door locking device having a movable mechanical bolt and a first handle, which is connected to the bolt, on an outside of a door and with which the mechanical bolt can be moved on a mounting plate, and having a receiving part with a guide for the bolt on a frame of the door, with a second handle on the inside of the door, with which the mechanical bolt can be moved, where the mechanical bolt can be moved via a wire rope through the second handle, the second handle being a pull handle, characterized in that an oblong hole is arranged in the mounting plate, a movable slide, which can be moved in guide rails of the oblong hole, being arranged in the oblong hole, the movable slide being connected to the pull handle via the wire rope, the mechanical bolt being movable by the slide, the mounting plate having a first magnet and the movable slide being ferromagnetic or having a second magnet, so that the slide is held on the first magnet by magnetic forces.