mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a first conductive plate configured at least to receive an input signal; a second conductive plate configured at least to output an output signal; and a memristor material positioned between the first conductive plate and the second conductive plate; characterized by further comprising a device, the device comprising the first conductive plate, the second conductive plate, the memristor material, a third conductive plate, a dielectric material, a first terminal electrically coupled to the first conductive plate, a second terminal electrically coupled to the second conductive plate, and a third terminal electrically coupled to the third conductive plate, wherein the dielectric material is positioned between the second conductive plate and the third conductive plate, wherein the device has memristor functionality and capacitor functionality, wherein the device is a bandpass filter. a first conductive plate configured at least to receive an input signal; a second conductive plate configured at least to output an output signal; and a memristor material positioned between the first conductive plate and the second conductive plate; characterized by further comprising a device, the device comprising the first conductive plate, the second conductive plate, the memristor material, a third conductive plate, a dielectric material, a first terminal electrically coupled to the first conductive plate, a second terminal electrically coupled to the second conductive plate, and a third terminal electrically coupled to the third conductive plate, wherein the dielectric material is positioned between the second conductive plate and the third conductive plate, wherein the device has memristor functionality and capacitor functionality, wherein the device is a bandpass filter.
A method of manufacturing an electronic device, comprising: forming a conductive pattern over a first insulating film, said first insulating film being formed over a substrate; forming a second insulating film to cover the first insulating film and the conductive pattern; forming a hole in the second insulating film over the conductive pattern; forming a metal film for supporting a catalyst over a bottom surface of the hole and an upper surface of the second insulating film; forming a catalyst surface over the metal film, the catalyst surface being made of at least one of catalyst particles and a catalyst film; growing carbon nanotubes on the catalyst surface; forming a buried insulating film in a clearance among the carbon nanotubes and over the second insulating film and in the hole, wherein the buried insulating film is formed by coating a coating area comprising the nanotubes, the second insulating film and in the hole with a spin on glass coating and then curing the spin on glass coating, and wherein the coating area is treated before forming the spin on glass coating by applying any one of oxygen plasma, ozone and ultraviolet ray treatment; and polishing the carbon nanotubes, the buried insulting film, the catalyst surface and the metal film to remove the carbon nanotubes, the buried insulting film, the catalyst surface and the metal film over an upper surface of the second insulating film and to leave the buried insulating film, the catalyst surface the carbon nanotubes and the metal film in the hole as a via. forming a conductive pattern over a first insulating film, said first insulating film being formed over a substrate; forming a second insulating film to cover the first insulating film and the conductive pattern; forming a hole in the second insulating film over the conductive pattern; forming a metal film for supporting a catalyst over a bottom surface of the hole and an upper surface of the second insulating film; forming a catalyst surface over the metal film, the catalyst surface being made of at least one of catalyst particles and a catalyst film; growing carbon nanotubes on the catalyst surface; forming a buried insulating film in a clearance among the carbon nanotubes and over the second insulating film and in the hole, wherein the buried insulating film is formed by coating a coating area comprising the nanotubes, the second insulating film and in the hole with a spin on glass coating and then curing the spin on glass coating, and wherein the coating area is treated before forming the spin on glass coating by applying any one of oxygen plasma, ozone and ultraviolet ray treatment; and polishing the carbon nanotubes, the buried insulting film, the catalyst surface and the metal film to remove the carbon nanotubes, the buried insulting film, the catalyst surface and the metal film over an upper surface of the second insulating film and to leave the buried insulating film, the catalyst surface the carbon nanotubes and the metal film in the hole as a via.
A method of inspecting an air data probe for physical degradation, the method comprising: providing an identification of the air data probe to be inspected; retrieving, based on the identification, 2. known physical dimension data of the air data probe and/or a known silhouette of the air data probe; generating the silhouette of the air data probe based on the retrieved physical dimension data and/or silhouette; simultaneously displaying, on a display, the silhouette and an image of the air data probe produced by a camera; causing the displayed image of the air data probe to conform to the silhouette on the display; capturing an image of the air data probe while the displayed image of the air data probe conforms to the silhouette on the display; analyzing the captured image to identify physical degradation of the air data probe, the analyzing comprising a comparison of the captured image of the air data probe to the retrieved physical dimension data of the air data probe to identify physical deformation of the air data probe and/or a comparison of the captured image data to threshold corrosion criteria to identify corrosion on a surface of the air data probe; generating, based on the identified physical degradation of the air data probe, a maintenance recommendation for the air data probe; and outputting the maintenance recommendation. providing an identification of the air data probe to be inspected; retrieving, based on the identification, 2. known physical dimension data of the air data probe and/or a known silhouette of the air data probe; generating the silhouette of the air data probe based on the retrieved physical dimension data and/or silhouette; simultaneously displaying, on a display, the silhouette and an image of the air data probe produced by a camera; causing the displayed image of the air data probe to conform to the silhouette on the display; capturing an image of the air data probe while the displayed image of the air data probe conforms to the silhouette on the display; analyzing the captured image to identify physical degradation of the air data probe, the analyzing comprising a comparison of the captured image of the air data probe to the retrieved physical dimension data of the air data probe to identify physical deformation of the air data probe and/or a comparison of the captured image data to threshold corrosion criteria to identify corrosion on a surface of the air data probe; generating, based on the identified physical degradation of the air data probe, a maintenance recommendation for the air data probe; and outputting the maintenance recommendation.
A method, in a wireless device configured for operation in a wireless communication network and further configured for device-to-device communication with one or more other wireless devices, the method comprising: receiving, from a coordinating node, first and second application codes at a time, and associated timing information, the associated timing information defining respective first and second validity intervals for the first and second application codes, such that the first and second validity intervals are at least partly non-overlapping; and, subsequent to receiving the first and second application codes and associated timing information, transmitting, during the first validity interval, one or more discovery messages that include or are based on the first application code, and transmitting, during the second validity interval, one or more discovery messages that include or are based on the second application code, characterized in that the associated timing information defines completely non-overlapping first and second validity intervals or characterized in that the first validity interval begins before the beginning of the second validity interval and ends before the end of the second validity interval and wherein the first and second validity intervals are defined such that the wireless device transmits discovery messages that include, or are based on, each of the first and second application codes during a transition phase in which the validity intervals for the two application codes overlap. receiving, from a coordinating node, first and second application codes at a time, and associated timing information, the associated timing information defining respective first and second validity intervals for the first and second application codes, such that the first and second validity intervals are at least partly non-overlapping; and, subsequent to receiving the first and second application codes and associated timing information, transmitting, during the first validity interval, one or more discovery messages that include or are based on the first application code, and transmitting, during the second validity interval, one or more discovery messages that include or are based on the second application code, characterized in that the associated timing information defines completely non-overlapping first and second validity intervals or characterized in that the first validity interval begins before the beginning of the second validity interval and ends before the end of the second validity interval and wherein the first and second validity intervals are defined such that the wireless device transmits discovery messages that include, or are based on, each of the first and second application codes during a transition phase in which the validity intervals for the two application codes overlap.
A method of making a paper substrate, comprising a) contacting a sizing solution with a plurality of cellulosic fibers in a size press, wherein the sizing solution has a solids content that is at least 15 wt% solids sizing agent and has a viscosity that is from 150 to 300 mPas (centipoise) using a Brookfield Viscometer, number 2 spindle, at 100 rpm and 65,6°C (150°F), the sizing agent load being from 0.25 to 10 gsm; and wherein the size press has an effective nip pressure of 45.7 to 171.3 N/cm (80 to 300 lbs per linear inch) and b) coating the paper substrate after said contacting step a). a) contacting a sizing solution with a plurality of cellulosic fibers in a size press, wherein the sizing solution has a solids content that is at least 15 wt% solids sizing agent and has a viscosity that is from 150 to 300 mPas (centipoise) using a Brookfield Viscometer, number 2 spindle, at 100 rpm and 65,6°C (150°F), the sizing agent load being from 0.25 to 10 gsm; and wherein the size press has an effective nip pressure of 45.7 to 171.3 N/cm (80 to 300 lbs per linear inch) and b) coating the paper substrate after said contacting step a).
A method of operating a turbine system, comprising: providing a low British thermal unit fuel stream; providing a flow of high BTU liquid fuel and mixing the flow of high BTU liquid fuel with the low BTU fuel stream in a mixer, thereby obtaining a mixed fuel; and injecting the mixed fuel into a combustor of the turbine system; the method further comprising controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer, wherein controlling comprises controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer and controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer during a start-up condition of the turbine system to a higher value than during a steady state condition of the turbine system so the the mixed fuel during the start-up condition of the turbine system has a higher heating value than during a steady state condition of the turbine system, wherein the mixed fuel comprises the low BTU fuel during start-up and during steady state condition. providing a low British thermal unit fuel stream; providing a flow of high BTU liquid fuel and mixing the flow of high BTU liquid fuel with the low BTU fuel stream in a mixer, thereby obtaining a mixed fuel; and injecting the mixed fuel into a combustor of the turbine system; the method further comprising controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer, wherein controlling comprises controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer and controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer during a start-up condition of the turbine system to a higher value than during a steady state condition of the turbine system so the the mixed fuel during the start-up condition of the turbine system has a higher heating value than during a steady state condition of the turbine system, wherein the mixed fuel comprises the low BTU fuel during start-up and during steady state condition.
A vacuum cleaner, comprising: a main body; and a suction unit provided in the main body, wherein the suction unit comprises: an impeller disposed to suck air by rotating about an axis thereof; and a diffuser (300, 400, 500, 600, 700) disposed to guide air discharged from the impeller, wherein the diffuser (300, 400, 500, 600, 700) comprises: an inner casing; an outer casing disposed to be spaced apart from an outer circumference of the inner casing to form a path through which the air discharged from the impeller flows; a plurality of vanes (421, 521, 621, 721) disposed at the inner casing to guide the air discharged from the impeller to the path, wherein the plurality of vanes (421, 521, 621, 721) protrude toward the outer casing to cross at least a part of the path and are disposed so that an end of each of the plurality of vanes (421, 521, 621, 721) is connected to the outer casing; and a plurality of guides (422, 522, 622) disposed on the path and provided to connect the inner casing and the outer casing, wherein the plurality of guides (422, 522, 622) are integrally formed with the plurality of vanes (421, 521, 621, 721) and located below the plurality of vanes (421, 521, 621, 721) in the axial direction of the impeller, and characterized in that the plurality of vanes (421, 521, 621, 721) is discontinuously disposed above the plurality of guides (422, 522, 622) to have a substantially square wave shaped appearance. a main body; and a suction unit provided in the main body, wherein the suction unit comprises: an impeller disposed to suck air by rotating about an axis thereof; and a diffuser (300, 400, 500, 600, 700) disposed to guide air discharged from the impeller, an impeller disposed to suck air by rotating about an axis thereof; and a diffuser (300, 400, 500, 600, 700) disposed to guide air discharged from the impeller, an inner casing; an outer casing disposed to be spaced apart from an outer circumference of the inner casing to form a path through which the air discharged from the impeller flows; a plurality of vanes (421, 521, 621, 721) disposed at the inner casing to guide the air discharged from the impeller to the path, wherein the plurality of vanes (421, 521, 621, 721) protrude toward the outer casing to cross at least a part of the path and are disposed so that an end of each of the plurality of vanes (421, 521, 621, 721) is connected to the outer casing; and a plurality of guides (422, 522, 622) disposed on the path and provided to connect the inner casing and the outer casing, wherein the plurality of guides (422, 522, 622) are integrally formed with the plurality of vanes (421, 521, 621, 721) and located below the plurality of vanes (421, 521, 621, 721) in the axial direction of the impeller, and characterized in that the plurality of vanes (421, 521, 621, 721) is discontinuously disposed above the plurality of guides (422, 522, 622) to have a substantially square wave shaped appearance.
A reactor for the enzymatic maceration of biogenic constituents of a particle sample with at least one reaction chamber, which is configured as a vertical cylinder with an upper face side and a lower face side, at least one filter arrangement (05, 06), a pump connection and a fluid connection, characterized in that at the upper face side of the reaction chamber an upper filter arrangement is arranged with an upper filter disc between two seals, and on the lower face side of the reaction chamber a lower filter arrangement is arranged with a lower filter disc between two seals, and that on the upper filter arrangement a detachable head plate with the pump connection is arranged, and on the lower filter arrangement a detachable base plate with the fluid connection is arranged, wherein pump connection and fluid connection are able to be closed and are configured both for a filling and also for an emptying of the cylindrical reaction chamber.
A lifting device capable of being actuated by a flowable medium, with a main carrier which forms a first cavity, with a first lifting element which is arranged at least locally inside this first cavity and which is movable in two mutually opposed directions of movement (R1, R2) with respect to this cavity, with a first supply opening,, in order to supply the flowable medium to the first cavity, wherein the first lifting element is moved in the first direction of movement by a supply of the flowable medium into the first cavity, wherein the main carrier has a second cavity which is arranged in a manner fixed in terms of movement with respect to the first cavity, and a second lifting element which is arranged at least locally inside this second cavity and which is movable in the two mutually opposed directions of movement (R1, R2) with respect to this cavity, with a second supply opening in order to supply the flowable medium to the second cavity, characterized in that the second lifting element is moved in the second direction of movement by a supply of the flowable medium into the first cavity.
A production method of a power module, wherein the power module comprises: a power chip, a connection substrate and a metal substrate, the power chip is disposed above the connection substrate and the metal substrate is disposed under the connection substrate, and the production method comprises: a first step: providing the connection substrate, a second bonding material and the metal substrate; a second step: stacking the connection substrate, the second bonding material and the metal substrate together in sequence, and heating them to 180°C ∼ 350°C to obtain the connection substrate connected with the metal substrate, wherein the second bonding material is in contact with an upper surface of the metal substrate; a third step: cooling the connection substrate, the second bonding material and the metal substrate to a first temperature, wherein a coefficient of thermal expansion of the connection substrate is smaller than a coefficient of thermal expansion of the metal substrate and the upper surface and a lower surface of the metal substrate are bendingly deformed toward the connection substrate during the cooling, the upper surface of the metal substrate is formed as a curved surface protruding toward the connection substrate, and the first temperature ∈ [-10°C, 40°C]; a fourth step: processing the lower surface of the metal substrate into a plane. a first step: providing the connection substrate, a second bonding material and the metal substrate; a second step: stacking the connection substrate, the second bonding material and the metal substrate together in sequence, and heating them to 180°C ∼ 350°C to obtain the connection substrate connected with the metal substrate, wherein the second bonding material is in contact with an upper surface of the metal substrate; a third step: cooling the connection substrate, the second bonding material and the metal substrate to a first temperature, wherein a coefficient of thermal expansion of the connection substrate is smaller than a coefficient of thermal expansion of the metal substrate and the upper surface and a lower surface of the metal substrate are bendingly deformed toward the connection substrate during the cooling, the upper surface of the metal substrate is formed as a curved surface protruding toward the connection substrate, and the first temperature ∈ [-10°C, 40°C]; a fourth step: processing the lower surface of the metal substrate into a plane.
A method for preparing a cathode active material precursor for a secondary battery, the method comprising: moving a co-precipitation filtrate generated after a co-precipitation reaction to a co-precipitation filtrate storage tank; removing a metal hydroxide by passing the co-precipitation filtrate through a filter; reacting the co-precipitation filtrate from which the metal hydroxide is removed with sulfuric acid or nitric acid to produce an ammonium sulfate or an ammonium nitrate while removing ammonia from the co-precipitation filtrate from which the metal hydroxide is removed; cooling and crystallizing the co-precipitation filtrate from which the metal hydroxide and ammonia are removed to precipitate a sodium sulfate; filtering the precipitated sodium sulfate to separate the precipitated sodium sulfate from the co-precipitation filtrate from which the metal hydroxide and ammonia are removed; drying the sodium sulfate separated from the co-precipitation filtrate and moving the co-precipitation filtrate separated from the sodium sulfate to a circulation concentration tank; and heating the co-precipitation filtrate stored in the circulation concentration tank to a predetermined temperature for recycling and performing N 2 purging or bubbling. moving a co-precipitation filtrate generated after a co-precipitation reaction to a co-precipitation filtrate storage tank; removing a metal hydroxide by passing the co-precipitation filtrate through a filter; reacting the co-precipitation filtrate from which the metal hydroxide is removed with sulfuric acid or nitric acid to produce an ammonium sulfate or an ammonium nitrate while removing ammonia from the co-precipitation filtrate from which the metal hydroxide is removed; cooling and crystallizing the co-precipitation filtrate from which the metal hydroxide and ammonia are removed to precipitate a sodium sulfate; filtering the precipitated sodium sulfate to separate the precipitated sodium sulfate from the co-precipitation filtrate from which the metal hydroxide and ammonia are removed; drying the sodium sulfate separated from the co-precipitation filtrate and moving the co-precipitation filtrate separated from the sodium sulfate to a circulation concentration tank; and heating the co-precipitation filtrate stored in the circulation concentration tank to a predetermined temperature for recycling and performing N 2 purging or bubbling.
A process comprising: contacting a mixture comprising at least one fluoroolefin and at least one R f C≡CX impurity with at least one zeolite to reduce the concentration of said at least one R f C≡CX impurity in said mixture; wherein: (a) R f is a straight-chain perfluorinated alkyl group, and X is H, F, CI, Br or I; and (b) said at least one zeolite is selected from the group consisting of zeolites having pore opening of at least 4 Angstroms and no more than 5 Angstroms, zeolites having pore opening of at least 5 Angstroms and Sanderson electronegativity of no more than 2.6, and mixtures thereof; provided that said at least one zeolite is not zeolite 4A. (a) R f is a straight-chain perfluorinated alkyl group, and X is H, F, CI, Br or I; and (b) said at least one zeolite is selected from the group consisting of zeolites having pore opening of at least 4 Angstroms and no more than 5 Angstroms, zeolites having pore opening of at least 5 Angstroms and Sanderson electronegativity of no more than 2.6, and mixtures thereof;