mhurhangee/ep-ind-claims huggingface dataset:
A catheter, comprising: an outer tubing housing; a plurality of splines configured to deploy from a linear configuration to an expanded configuration; flexible electronic circuitry extending along a length of the plurality of splines, wherein the flexible electronic circuitry is configured to conform to the shape of the splines as the splines are deployed; and a plurality of electrodes disposed along the length of the plurality of splines, and communicatively coupled to the flexible electronic circuitry, and wherein the electrodes are configured to conduct mapping or ablation, wherein the plurality of splines, the flexible electronic circuitry, and the electrodes are covered by an outer layer such that the outer layer is configured to prevent direct contact between the electrodes and myocardial tissue within a cardiac muscle during at least one of therapy and diagnostic procedure, and such that the outer layer is configured to structurally stiffen the deployed basket catheter. an outer tubing housing; a plurality of splines configured to deploy from a linear configuration to an expanded configuration; flexible electronic circuitry extending along a length of the plurality of splines, wherein the flexible electronic circuitry is configured to conform to the shape of the splines as the splines are deployed; and a plurality of electrodes disposed along the length of the plurality of splines, and communicatively coupled to the flexible electronic circuitry, and wherein the electrodes are configured to conduct mapping or ablation, wherein the plurality of splines, the flexible electronic circuitry, and the electrodes are covered by an outer layer such that the outer layer is configured to prevent direct contact between the electrodes and myocardial tissue within a cardiac muscle during at least one of therapy and diagnostic procedure, and such that the outer layer is configured to structurally stiffen the deployed basket catheter.
A delayed coking process comprising: (a) heating a petroleum resid feed in a first heating zone, to a temperature below coking temperatures but to a temperature wherein the resid is a pumpable liquid; (b) conducting said heated resid to a second heating zone wherein it is heated to coking temperatures; (c) conducting said heated resid from said second heating zone to a coking zone wherein vapor products are collected overhead and a substantially free-flowing shot coke product is formed; and (d) introducing into said resid from 300 to 3,000 wppm of at least one polymeric additive selected from polyoxyethylene, polyoxypropylene, polyoxyethylene polyoxypropylene copolymer, ethylene diamine tetra alkoxylated alcohol of polyoxyethylene alcohol, ethylene diamine tetra alkoxylated alcohol of polyoxypropylene alcohol, ethylene diamine tetra alkoxylated alcohol of polyoxypropylene-polyoxyethylene alcohols and mixtures thereof and having a molecular weight from 1,000 to 30,000, in an amount that is effective for the formation of substantially free-flowing shot coke, wherein said polymeric additive is introduced into said resid at a point upstream of the second heating zone, between said second heating zone and said coking zone, or both. (a) heating a petroleum resid feed in a first heating zone, to a temperature below coking temperatures but to a temperature wherein the resid is a pumpable liquid; (b) conducting said heated resid to a second heating zone wherein it is heated to coking temperatures; (c) conducting said heated resid from said second heating zone to a coking zone wherein vapor products are collected overhead and a substantially free-flowing shot coke product is formed; and (d) introducing into said resid from 300 to 3,000 wppm of at least one polymeric additive selected from polyoxyethylene, polyoxypropylene, polyoxyethylene polyoxypropylene copolymer, ethylene diamine tetra alkoxylated alcohol of polyoxyethylene alcohol, ethylene diamine tetra alkoxylated alcohol of polyoxypropylene alcohol, ethylene diamine tetra alkoxylated alcohol of polyoxypropylene-polyoxyethylene alcohols and mixtures thereof and having a molecular weight from 1,000 to 30,000, in an amount that is effective for the formation of substantially free-flowing shot coke, wherein said polymeric additive is introduced into said resid at a point upstream of the second heating zone, between said second heating zone and said coking zone, or both.
An antimicrobial composition comprising: i. 0.001 to 5% by weight of thymol, ii. 0.001 to 5% by weight of one or more antimicrobial alcohols, and iii. a carrier; wherein the one or more antimicrobial alcohols are selected from the group consisting of isocyclogeraniol, floralol, and dihydrofloralol. i. 0.001 to 5% by weight of thymol, ii. 0.001 to 5% by weight of one or more antimicrobial alcohols, and iii. a carrier;
A method performed by detection equipment for detecting a false cell in a wireless communication network, the method comprising: obtaining a test dataset that comprises one or more test datapoints, with each test datapoint indicating a combination of values detected for a cell characteristic; and testing for the presence of a false cell that is using the same cell identity as a genuine cell, based on an extent to which the test dataset differs from a training dataset according to a model trained using the training dataset, wherein said testing comprises testing for the presence of a false cell that is using a non-reference cell identity based on an extent to which, across different reference values detected for the cell characteristic in association with a reference cell identity, a test distribution for the non-reference cell identity differs from a false-cell-free distribution for the non-reference cell identity; wherein the false-cell-free distribution for the non-reference cell identity comprises a distribution of values detected for the cell characteristic in association with the non-reference cell identity, detected across false-cell-free datapoints of the training dataset, and detected across the different reference values; and wherein the test distribution for the non-reference cell identity comprises a distribution of values detected for the cell characteristic in association with the non-reference cell identity, detected across test datapoints of the test dataset, and detected across the different reference values. obtaining a test dataset that comprises one or more test datapoints, with each test datapoint indicating a combination of values detected for a cell characteristic; and testing for the presence of a false cell that is using the same cell identity as a genuine cell, based on an extent to which the test dataset differs from a training dataset according to a model trained using the training dataset, wherein said testing comprises testing for the presence of a false cell that is using a non-reference cell identity based on an extent to which, across different reference values detected for the cell characteristic in association with a reference cell identity, a test distribution for the non-reference cell identity differs from a false-cell-free distribution for the non-reference cell identity; wherein the false-cell-free distribution for the non-reference cell identity comprises a distribution of values detected for the cell characteristic in association with the non-reference cell identity, detected across false-cell-free datapoints of the training dataset, and detected across the different reference values; and wherein the test distribution for the non-reference cell identity comprises a distribution of values detected for the cell characteristic in association with the non-reference cell identity, detected across test datapoints of the test dataset, and detected across the different reference values.
A method of determining the thickness of a thin film based on low-coherence interferometric measurements, comprising: providing a scanning interferometry signal produced by a low-coherence scanning interferometer for a first location of a test object, wherein the test object comprises a thin film; providing a model function of the scanning interferometry signal produced by the scanning interferometer, wherein the model function is parametrized by one or more parameter values; fitting the model function to the scanning interferometry signal for each of a series of shifts in scan position between the model function and the scanning interferometry signal by varying the parameter values, wherein the fitting comprises, for the first location, determining a first shift of the series of shifts of scan position which corresponds to a first optimal fit and determining a second shift of the series of shifts of scan position which corresponds to a second optimal fit; and determining information about the test object at the first location based on the fitting, wherein the determining information comprises determining a thickness of the thin film based on the first and second shifts in scan position for the first location. providing a scanning interferometry signal produced by a low-coherence scanning interferometer for a first location of a test object, wherein the test object comprises a thin film; providing a model function of the scanning interferometry signal produced by the scanning interferometer, wherein the model function is parametrized by one or more parameter values; fitting the model function to the scanning interferometry signal for each of a series of shifts in scan position between the model function and the scanning interferometry signal by varying the parameter values, wherein the fitting comprises, for the first location, determining a first shift of the series of shifts of scan position which corresponds to a first optimal fit and determining a second shift of the series of shifts of scan position which corresponds to a second optimal fit; and determining information about the test object at the first location based on the fitting, wherein the determining information comprises determining a thickness of the thin film based on the first and second shifts in scan position for the first location.
A method for teleconference, wherein the method comprises: receiving, by processing circuitry of a first device and from a second device, a first media stream that carries a first audio, and a second media stream that carries a second audio; sending, by the processing circuitry to the second device, customization parameters for customizing a first audio weight and a second audio weight based on the customization parameters, wherein the first audio weight and the second audio weight being different values, and the customization parameters indicate an increase of the first audio weight or the second audio weight; receiving, by the processing circuitry from the second device, the first audio weight and the second audio weight; weighting, by the processing circuitry, the first audio based on the first audio weight; weighting, by the processing circuitry, the second audio based on the second audio weight; and generating, by the processing circuitry of the first device, a mixed audio by combining the weighted first audio and the weighted second audio. receiving, by processing circuitry of a first device and from a second device, a first media stream that carries a first audio, and a second media stream that carries a second audio; sending, by the processing circuitry to the second device, customization parameters for customizing a first audio weight and a second audio weight based on the customization parameters, wherein the first audio weight and the second audio weight being different values, and the customization parameters indicate an increase of the first audio weight or the second audio weight; receiving, by the processing circuitry from the second device, the first audio weight and the second audio weight; weighting, by the processing circuitry, the first audio based on the first audio weight; weighting, by the processing circuitry, the second audio based on the second audio weight; and generating, by the processing circuitry of the first device, a mixed audio by combining the weighted first audio and the weighted second audio.
Method of guaranteed reception and of processing of an "event" in the form of a digital signal in an avionics system comprising a plurality of electronic computers linked together by a data bus, each computer comprising data processing electronics (EdT), characterized in that each electronic computer comprises one and the same software layer, which, on receipt of an event, carries out the following steps: - at a first instant, sending to each of the other electronic computers of a first signal attesting the reception of said event by said electronic computer, one and only one of the electronic computers sending a stamp representative of said first instant; - at a second instant termed "TimeOut ACK", if said electronic computer has not received at least one of the first signals emanating from one of the other electronic computers, sending of a second so-called failure signal (FAIL) to each of the other electronic computers attesting the absence of reception of said first signal; - at a third instant termed "TimeOut GARANTEED", if a second so-called failure signal has been received by said electronic computer, absence of taking into account of the event by said electronic computer and if no failure signal has been received by said electronic computer, taking into account of the event, according to the temporal order defined by the stamp, by the data processing electronics of said electronic computer. - at a first instant, sending to each of the other electronic computers of a first signal attesting the reception of said event by said electronic computer, one and only one of the electronic computers sending a stamp representative of said first instant; - at a second instant termed "TimeOut ACK", if said electronic computer has not received at least one of the first signals emanating from one of the other electronic computers, sending of a second so-called failure signal (FAIL) to each of the other electronic computers attesting the absence of reception of said first signal; - at a third instant termed "TimeOut GARANTEED", if a second so-called failure signal has been received by said electronic computer, absence of taking into account of the event by said electronic computer and if no failure signal has been received by said electronic computer, taking into account of the event, according to the temporal order defined by the stamp, by the data processing electronics of said electronic computer.
An electrically operated coffee machine having a brewing chamber fillable with ground coffee, having a pressing means which can be introduced into the brewing chamber in order to compress the ground coffee and then can be guided out of the brewing chamber again to remove the load from the compressed ground coffee (coffee cake, KK), having a supply means to feed water under pressure into the brewing chamber, in the brewing chamber at the moment of the incipient load removal from the coffee cake through the beginning of the guiding out of the pressing means from the brewing chamber, a pressure (p) being able to be applied to the coffee cake, characterised by a microprocessor-based control unit to actuate the pressing means and the supply means.
A discharger for discharging a predetermined amount of fluid comprising - a housing defining a longitudinal first axis (A 1) and having a proximal end and a distal end, - a discharge section having a discharge passage for the fluid extending between an inlet opening and an outlet opening of the discharge section, - a carriage cooperating with the proximal end region of the housing such that the carriage is moveable relative to the housing along the first axis (A 1), the carriage comprising a receiving space for the fluid protected from the environment by a breakable seal, and - a piercing tip for piercing the seal, the piercing tip - having a flow channel for establishing a flow connection for the fluid from the receiving space to the inlet opening of the discharge section, - being formed integrally with the housing or being formed as a unitary separate piece linked to the housing and/or the discharge section, - defining a centrally extending longitudinal second axis (A 2) and - having a shell surface, characterized in that the shell surface of the piercing tip has an essentially convexly curved, dome-shaped configuration. - a housing defining a longitudinal first axis (A 1) and having a proximal end and a distal end, - a discharge section having a discharge passage for the fluid extending between an inlet opening and an outlet opening of the discharge section, - a carriage cooperating with the proximal end region of the housing such that the carriage is moveable relative to the housing along the first axis (A 1), the carriage comprising a receiving space for the fluid protected from the environment by a breakable seal, and - a piercing tip for piercing the seal, the piercing tip - having a flow channel for establishing a flow connection for the fluid from the receiving space to the inlet opening of the discharge section, - being formed integrally with the housing or being formed as a unitary separate piece linked to the housing and/or the discharge section, - defining a centrally extending longitudinal second axis (A 2) and - having a shell surface, characterized in that the shell surface of the piercing tip has an essentially convexly curved, dome-shaped configuration. - having a flow channel for establishing a flow connection for the fluid from the receiving space to the inlet opening of the discharge section, - being formed integrally with the housing or being formed as a unitary separate piece linked to the housing and/or the discharge section, - defining a centrally extending longitudinal second axis (A 2) and - having a shell surface,
A mechanical assembly with tensegrity structure, wherein • at least two foldable/unfoldable modules with tensegrity structure each comprise a plurality of bars and a plurality of nodes on which the bars are hinged; • nodes of the same module are distributed, when said module is deployed, according to two parallel planes and linked in pairs by a tension link member perpendicular to said planes, each module including at least one assembly edge node located in one of the two planes and without opposite node in said module in the other plane, this node being adapted to be positioned in line with an assembly edge node of another adjacent module and to be linked thereto by a tension or compression link member perpendicular to the planes of the nodes of these two modules, and wherein nodes (40, 40a; 140) of the upper plane of the modules include hooking members suitable for fastening, on several assembly edge nodes positioned along the same assembly edge and alternately belonging to either of the two adjacent modules, decking members or support members intended to support said decking members, characterized in that it includes a set of stands intended to be placed under nodes of the upper plane of the modules. • at least two foldable/unfoldable modules with tensegrity structure each comprise a plurality of bars and a plurality of nodes on which the bars are hinged; • nodes of the same module are distributed, when said module is deployed, according to two parallel planes and linked in pairs by a tension link member perpendicular to said planes, each module including at least one assembly edge node located in one of the two planes and without opposite node in said module in the other plane, this node being adapted to be positioned in line with an assembly edge node of another adjacent module and to be linked thereto by a tension or compression link member perpendicular to the planes of the nodes of these two modules, and wherein nodes (40, 40a; 140) of the upper plane of the modules include hooking members suitable for fastening, on several assembly edge nodes positioned along the same assembly edge and alternately belonging to either of the two adjacent modules, decking members or support members intended to support said decking members, characterized in that it includes a set of stands intended to be placed under nodes of the upper plane of the modules.
A compound of formula for use in treating diseases or disorders that would benefit from modification of Electron Transfer Chain, wherein A and B are independently OR 1 and C and D are independently OH; wherein R 1 is independently C 1 to C 10 lower straight or branched chain acyclic or cyclic alkyl, or taken together with the oxygen to which it is attached is selected from the group consisting of hydroxybutanoate, dichloroacetate, phenyl butanoate, phenyl propionate, and 2-propylpentanoate, or wherein B is OR 1 and A, C and D are independently OH; wherein R 1 is independently C 1 to C 10 lower straight or branched chain acyclic or cyclic alkyl, or taken together with the oxygen to which it is attached is selected from the group consisting of hydroxybutanoate, dichloroacetate, phenyl butanoate, phenyl propionate, 2-propylpentanoate, L-glutamate, n-octanoate, n-heptanoate, and n-decanoate. wherein A and B are independently OR 1 and C and D are independently OH; wherein R 1 is independently C 1 to C 10 lower straight or branched chain acyclic or cyclic alkyl, or taken together with the oxygen to which it is attached is selected from the group consisting of hydroxybutanoate, dichloroacetate, phenyl butanoate, phenyl propionate, and 2-propylpentanoate, or wherein B is OR 1 and A, C and D are independently OH; wherein R 1 is independently C 1 to C 10 lower straight or branched chain acyclic or cyclic alkyl, or taken together with the oxygen to which it is attached is selected from the group consisting of hydroxybutanoate, dichloroacetate, phenyl butanoate, phenyl propionate, 2-propylpentanoate, L-glutamate, n-octanoate, n-heptanoate, and n-decanoate.
A method of treating an animal carcass comprising providing an animal carcass in a containment (31, 41) with one or more acoustic wave applicators operatively coupled to the containment, characterized in that the one or more acoustic wave applicators are acoustic pressure shock wave devices applicators (32, 33, 45) that each have a reflector adjacent a shock wave generating device in a cavity containing liquid and covered by a membrane, wherein the reflector is selected from the group consisting of an ellipsoidal reflector, parabolic reflector, spherical reflector and segmental reflector, applying, at an angle of from 20° to 70° relative to the surface of the carcass, shock waves having a compressive phase producing high compressive pressure and a tensile phase producing cavitation bubbles that collapse from the one or more acoustic pressure shock wave applicators (32, 33, 45) to the carcass sufficient to reduce contaminants on the carcass, and processing the carcass following application of shock waves into meat for consumption. providing an animal carcass in a containment (31, 41) with one or more acoustic wave applicators operatively coupled to the containment, characterized in that the one or more acoustic wave applicators are acoustic pressure shock wave devices applicators (32, 33, 45) that each have a reflector adjacent a shock wave generating device in a cavity containing liquid and covered by a membrane, wherein the reflector is selected from the group consisting of an ellipsoidal reflector, parabolic reflector, spherical reflector and segmental reflector, applying, at an angle of from 20° to 70° relative to the surface of the carcass, shock waves having a compressive phase producing high compressive pressure and a tensile phase producing cavitation bubbles that collapse from the one or more acoustic pressure shock wave applicators (32, 33, 45) to the carcass sufficient to reduce contaminants on the carcass, and processing the carcass following application of shock waves into meat for consumption.