mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the automatic and instantaneous preparation of single flat breads by a machine that comprises the steps of a. receiving a down-falling dough portion on a baking plate , b. squeezing the dough portion between two baking plates and baking it, c. releasing the finished flat bread into a recipient compartment , characterized in that before step a), at the push of a button, a single dough portion contained in a hermetically closed capsule of capsules that are being fed individually or conveyed to the apparatus in a chain or row is being opened and emptied by the machine automatically and then released for its free down-falling onto the baking plate thereby preventing the dough portion from touching any other part than the inner sides of the capsules and inner side of the sealing foil and thereafter the baking plates , and when the baking is completed, the plates open and eject or release the fresh made flat bread into a recipient while the material of the opened capsules is removed or transported to a waste recipient automatically. a. receiving a down-falling dough portion on a baking plate , b. squeezing the dough portion between two baking plates and baking it, c. releasing the finished flat bread into a recipient compartment ,
A method for producing zeolite, zeolite-like or zeotype encapsulated metal nanoparticles, the method comprises the steps of: 1) Adding one or more metal precursors to a silica or alumina source; 2) Reducing the one or more metal precursors to form metal nanoparticles on the surface of the silica or alumina source; 3) Passing a gaseous hydrocarbon, alkyl alcohol or alkyl ether over the silica or alumina source with the supported metal nanoparticles to form a carbon template coated zeolite, zeolite-like or zeotype precursor composition comprising carbon coated metal nanoparticles; 4a) Adding a structure directing agent to the carbon template coated zeolite, zeolite-like or zeotype precursor composition so that the silica or alumina is dissolved in an aqueous alkaline media creating a supersaturated solution from which a zeolite, zeolite-like or zeotype gel composition is formed around the carbon template; 4b) Crystallising the zeolite, zeolite-like or zeotype gel composition by subjecting said composition to a hydrothermal treatment; 5) Removing the carbon template and structure directing agent and isolating the resulting zeolite, zeolite-like or zeotype encapsulated metal nanoparticles and wherein step 1 is performed at a temperature of from 50°C to 150°C. 1) Adding one or more metal precursors to a silica or alumina source; 2) Reducing the one or more metal precursors to form metal nanoparticles on the surface of the silica or alumina source; 3) Passing a gaseous hydrocarbon, alkyl alcohol or alkyl ether over the silica or alumina source with the supported metal nanoparticles to form a carbon template coated zeolite, zeolite-like or zeotype precursor composition comprising carbon coated metal nanoparticles; 4a) Adding a structure directing agent to the carbon template coated zeolite, zeolite-like or zeotype precursor composition so that the silica or alumina is dissolved in an aqueous alkaline media creating a supersaturated solution from which a zeolite, zeolite-like or zeotype gel composition is formed around the carbon template; 4b) Crystallising the zeolite, zeolite-like or zeotype gel composition by subjecting said composition to a hydrothermal treatment; 5) Removing the carbon template and structure directing agent and isolating the resulting zeolite, zeolite-like or zeotype encapsulated metal nanoparticles and wherein step 1 is performed at a temperature of from 50°C to 150°C.
Single-phase, self-powered recloser for installation in voltage networks and comprising: a vacuum ampoule having a fixed terminal and a mobile terminal , a conductive bar connected to the mobile terminal and to an output terminal via a flexible cord , an enclosure in form of a polymeric bottle , wherein the fixed terminal and the output terminal are mounted on the polymeric bottle , an air core measurement transformer (Rogowski) for monitoring the current circulating between the fixed terminal and the output terminal , a bistable electromagnetic actuator for mechanically opening and closing internal contacts of the vacuum ampoule based on a current measured by the measurement transformer , ultracapacitors adapted to store energy coming from photovoltaic cells (15a-15d), a power transformer and an induction coil to feed electronic circuits , and further ultracapacitors adapted to store the energy coming from the photovoltaic cells (15a-15d), the power transformer and the induction coil to operate the bistable electromagnetic actuator . a vacuum ampoule having a fixed terminal and a mobile terminal , a conductive bar connected to the mobile terminal and to an output terminal via a flexible cord , an enclosure in form of a polymeric bottle , wherein the fixed terminal and the output terminal are mounted on the polymeric bottle , an air core measurement transformer (Rogowski) for monitoring the current circulating between the fixed terminal and the output terminal , a bistable electromagnetic actuator for mechanically opening and closing internal contacts of the vacuum ampoule based on a current measured by the measurement transformer , ultracapacitors adapted to store energy coming from photovoltaic cells (15a-15d), a power transformer and an induction coil to feed electronic circuits , and further ultracapacitors adapted to store the energy coming from the photovoltaic cells (15a-15d), the power transformer and the induction coil to operate the bistable electromagnetic actuator .
A steering wheel for an automotive vehicle comprising a steering wheel axis (A), a hub for fastening the steering wheel on a steering shaft rotatable about the steering wheel axis (A), and a steering wheel rim including a steering wheel skeleton as well as a skeleton cover , being connected to the hub via a spoke and surrounding the hub at least partially in the circumferential direction, wherein the steering wheel skeleton and the skeleton cover are partially surrounded by a foam coating and protrude from the foam coating at a foamed edge , wherein the foam coating is adjacent to a skeleton projection of the steering wheel skeleton and to a cover projection of the skeleton cover in the area of the foamed edge , characterized in that the skeleton projection and the cover projection are directly adjacent to each other and together form a substantially circumferentially closed wall projection for contacting a foaming mold .
A method for sequencing a polynucleotide strand by sequencing by synthesis, the method comprising the steps of: a) providing in a reaction a polynucleotide strand to be sequenced, a primer, and a polymerase enzyme; b) providing to the reaction nucleotides in a predetermined order, wherein the predetermined order is selected to correlate with a predicted sequence for the polynucleotide strand; c) monitoring the reaction to detect incorporation of a nucleotide into a synthesised polynucleotide strand; wherein, in the event that nucleotide incorporation is detected, proceeding to provide the next nucleotide in the predetermined order, and wherein in the event that nucleotide incorporation is not detected, the predicted sequence for the polynucleotide strand is revised to select a new predetermined order of nucleotides, wherein the new predetermined order is selected to correlate with the revised predicted sequence. a) providing in a reaction a polynucleotide strand to be sequenced, a primer, and a polymerase enzyme; b) providing to the reaction nucleotides in a predetermined order, wherein the predetermined order is selected to correlate with a predicted sequence for the polynucleotide strand; c) monitoring the reaction to detect incorporation of a nucleotide into a synthesised polynucleotide strand;
A radiation monitor comprising: a radiation sensing unit which includes phosphors which emit a photon with respect to an incident radiation; and a photon sending unit, configured as an optical fiber, which is configured to send the photon emitted from the phosphors of the radiation sensing unit , wherein the phosphors form a multilayer structure including a first phosphor and a second phosphor , and a photon absorbing layer configured to absorb a photon emitted from the phosphor is provided between the first phosphor and the second phosphor; characterized by an optical filter which attenuates the number of photons sent from the photon sending unit ; and a photodetector which is configured to convert the photon sent from the optical filter into an electric pulse signal, wherein the optical filter is connected to the photon sending unit and the photodetector , wherein the number of radiation sensing units and the number of photon sending units are plural, and are configured to measure radiation dose rates at a plurality of different positions; a light selection unit which is configured to select any one of light sent from a first optical fiber of the photon sending unit and light sent from a second optical fiber of the photon sending unit as light to be acquired by the photodetector as an electric pulse signal; and a control unit which is configured to control the light selection unit , wherein the optical filter is connected to the light selection unit and the photodetector . a radiation sensing unit which includes phosphors which emit a photon with respect to an incident radiation; and a photon sending unit, configured as an optical fiber, which is configured to send the photon emitted from the phosphors of the radiation sensing unit , wherein the phosphors form a multilayer structure including a first phosphor and a second phosphor , and a photon absorbing layer configured to absorb a photon emitted from the phosphor is provided between the first phosphor and the second phosphor; characterized by an optical filter which attenuates the number of photons sent from the photon sending unit ; and a photodetector which is configured to convert the photon sent from the optical filter into an electric pulse signal, wherein the optical filter is connected to the photon sending unit and the photodetector , wherein the number of radiation sensing units and the number of photon sending units are plural, and are configured to measure radiation dose rates at a plurality of different positions; a light selection unit which is configured to select any one of light sent from a first optical fiber of the photon sending unit and light sent from a second optical fiber of the photon sending unit as light to be acquired by the photodetector as an electric pulse signal; and a control unit which is configured to control the light selection unit , wherein the optical filter is connected to the light selection unit and the photodetector .
A cooling system for an electric vehicle, comprising: a first cooling-medium circulation passage through which a first cooling medium circulates to travel to heat exchange target objects mounted in a vehicle that is electrically driven; an electric compressor disposed in the first cooling-medium circulation passage to compress the first cooling medium; and a heat exchange unit that achieves heat exchange between the first cooling medium and outside air, characterised in that the electric compressor is disposed at a position outside a primary outflow path through which the outside air, having undergone heat exchange at the heat exchange unit, flows from the heat exchange unit to the outside of the vehicle, further comprising: a second cooling-medium circulation passage , different from the first cooling-medium circulation passage , through which a second cooling medium, different from the first cooling medium, circulates to travel to electric drive devices including a motor and an inverter power source , wherein: the first cooling-medium circulation passage in a first assembly configured to be preassembled prior to installation in the electric vehicle, which includes at least the heat exchange unit, and the second cooling-medium circulation passage in a second assembly configured to be preassembled prior to installation in the electric vehicle, which includes at least some of the heat exchange target objects, are connected via a coupling so as to allow the first cooling-medium circulation passage in the first assembly and the second cooling-medium circulation passage in the second assembly, extending frontward and rearward relative to the coupling, to be connected with each other or disconnected from each other via the coupling. a first cooling-medium circulation passage through which a first cooling medium circulates to travel to heat exchange target objects mounted in a vehicle that is electrically driven; an electric compressor disposed in the first cooling-medium circulation passage to compress the first cooling medium; and a heat exchange unit that achieves heat exchange between the first cooling medium and outside air, characterised in that the electric compressor is disposed at a position outside a primary outflow path through which the outside air, having undergone heat exchange at the heat exchange unit, flows from the heat exchange unit to the outside of the vehicle, further comprising: a second cooling-medium circulation passage , different from the first cooling-medium circulation passage , through which a second cooling medium, different from the first cooling medium, circulates to travel to electric drive devices including a motor and an inverter power source ,
A mounting apparatus , comprising: a body portion configured to be at least partially positioned between a first airfoil and a second airfoil of a turbine system ; an adjustable, first retention component formed on a first side of the body portion , the adjustable, first retention component configured to contact a portion of a suction side of the first airfoil of the turbine system ; and a second retention component formed on a second side of the body portion , opposite the first side , the second retention component configured to contact a portion of a pressure side of the second airfoil of the turbine system , characterized in that the adjustable, first retention component includes a first inflatable pouch positioned on the first side of the body portion , the first inflatable pouch configured to contact and substantially contour to the portion of the suction side of the first airfoil in an inflated state of the first inflatable pouch and to contact and be oriented substantially planar with the first side of the body portion in a deflated state of the first inflatable pouch , and in that the second retention component includes a curved portion formed integral with the second side of the body portion , the curved portion configured to contact the portion of the pressure side of the second airfoil of the turbine system in the inflated state and the deflated state of the first inflatable pouch . a body portion configured to be at least partially positioned between a first airfoil and a second airfoil of a turbine system ; an adjustable, first retention component formed on a first side of the body portion , the adjustable, first retention component configured to contact a portion of a suction side of the first airfoil of the turbine system ; and a second retention component formed on a second side of the body portion , opposite the first side , the second retention component configured to contact a portion of a pressure side of the second airfoil of the turbine system , characterized in that the adjustable, first retention component includes a first inflatable pouch positioned on the first side of the body portion , the first inflatable pouch configured to contact and substantially contour to the portion of the suction side of the first airfoil in an inflated state of the first inflatable pouch and to contact and be oriented substantially planar with the first side of the body portion in a deflated state of the first inflatable pouch , and in that the second retention component includes a curved portion formed integral with the second side of the body portion , the curved portion configured to contact the portion of the pressure side of the second airfoil of the turbine system in the inflated state and the deflated state of the first inflatable pouch .
A centrifugal pump including a pump shaft , a pump casing enclosing at least one pump stage with an impeller mounted on an internal part of the pump shaft and fixed to the pump shaft for rotation with the pump shaft, a flow measuring device adapted to measure a delivery flow through the centrifugal pump by means of a turbine wheel arranged in the pump casing rotationally about the pump shaft and rotationally in relation to the pump shaft, the turbine wheel being exposed to the delivery flow through the centrifugal pump, the turbine wheel including at least one permanent magnet , the flow measuring device including at least one magnetic flux sensor , the flow measuring device being adapted to measure the delivery flow on the basis of at least a first measurement signal generated by the at least one magnetic flux sensor as a result of the rotation of the turbine wheel , and the at least one magnetic flux sensor being arranged in a sensor housing mounted in an opening formed in an outer wall of the pump casing , characterised in that a rotatable disc is mounted on the pump shaft and fixed to the pump shaft for rotation with the pump shaft, in that the rotatable disc includes at least one permanent magnet , and in that the flow measuring device is adapted to include in the measurement of the delivery flow a second measurement signal generated by the at least one magnetic flux sensor as a result of the rotation of the rotatable disc .
An outdoor unit comprising an outdoor heat exchanger for evaporating a refrigerant according to a heating operation mode of an air conditioner, the outdoor unit comprising: a storage tank disposed on a side of the outdoor heat exchanger , the storage tank storing a defrosting liquid reacting with frosts generated on the outdoor heat exchanger ; a nozzle part for supplying the defrosting liquid from the storage tank to the outdoor heat exchanger ; a timer for integrating a time elapsing from a reference time to decide a supply time of the defrosting liquid supplied from the storage tank ; a controller determining whether the defrosting liquid supplied from the storage tank is supplied or adjusting a supply amount of defrosting liquid on the basis of the time integrated by the timer ; and a defrosting liquid tray for collecting the defrosting liquid passing through the outdoor heat exchanger , characterized in that the outdoor unit further comprises: a concentration sensor disposed in the defrosting liquid tray to detect a concentration of the collected defrosting liquid; and a supplement liquid tank for selectively supplying a supplement liquid into the storage tank on the basis of the concentration detected by the concentration sensor . a storage tank disposed on a side of the outdoor heat exchanger , the storage tank storing a defrosting liquid reacting with frosts generated on the outdoor heat exchanger ; a nozzle part for supplying the defrosting liquid from the storage tank to the outdoor heat exchanger ; a timer for integrating a time elapsing from a reference time to decide a supply time of the defrosting liquid supplied from the storage tank ; a controller determining whether the defrosting liquid supplied from the storage tank is supplied or adjusting a supply amount of defrosting liquid on the basis of the time integrated by the timer ; and a defrosting liquid tray for collecting the defrosting liquid passing through the outdoor heat exchanger , characterized in that the outdoor unit further comprises: a concentration sensor disposed in the defrosting liquid tray to detect a concentration of the collected defrosting liquid; and a supplement liquid tank for selectively supplying a supplement liquid into the storage tank on the basis of the concentration detected by the concentration sensor . a concentration sensor disposed in the defrosting liquid tray to detect a concentration of the collected defrosting liquid; and a supplement liquid tank for selectively supplying a supplement liquid into the storage tank on the basis of the concentration detected by the concentration sensor .
Pile intended to be driven into the ground to serve to support an object, said pile having a conical shape including a first end terminating in a point and a second end that is opposite said first end and terminates in a rear wall , and in that it includes an the orifice fintended to receive an end-piece adapted to support an object, the orifice . being situated at the centre of that rear wall , said pile comprising at least two lugs each having a slope intended to favour driving of the pile into the ground and an abutment intended to prevent the withdrawal of the pile in a direction that is opposite to that of said driving in, Characterised in that each lug is delimited by three triangular faces of which one face extends in a plane that is perpendicular to a longitudinal and central axis of the pile and that constitutes the abutment and second and third surfaces of which arise on the pile and are joined at the level of a crust line the slope of which is greater than that of said pile and in that the rear face featuring an annual groove .
An NMR measurement apparatus comprising: an acquisition unit arranged to acquire, from a nucleus of interest in a solvent included in a sample solution, an NMR spectrum including a characteristic portion intrinsic to the nucleus of interest; an analyzer arranged to analyze the characteristic portion, to thereby identify splitting information for a particular nucleus-of-interest signal included in the characteristic portion; and an identifier arranged to identify the solvent based on the splitting information, characterized in that the analyzer is arranged to identify a number of splits and a splitting interval as the splitting information, and the identifier is arranged to identify the solvent based on the number of splits and the splitting interval. an acquisition unit arranged to acquire, from a nucleus of interest in a solvent included in a sample solution, an NMR spectrum including a characteristic portion intrinsic to the nucleus of interest; an analyzer arranged to analyze the characteristic portion, to thereby identify splitting information for a particular nucleus-of-interest signal included in the characteristic portion; and an identifier arranged to identify the solvent based on the splitting information, characterized in that the analyzer is arranged to identify a number of splits and a splitting interval as the splitting information, and the identifier is arranged to identify the solvent based on the number of splits and the splitting interval.