mhurhangee/patent-ind-claim-en huggingface dataset:
A method of separating a mixture comprising at least two separable liquid phases, comprising: providing a mixture comprising at least two separable liquid phases to a separator ; electrically coupling a power circuit to an electrode immersed within the mixture in a grounded vessel inside the separator; applying a time-varying voltage to the electrode ; detecting a phase angle in the power circuit by a sensor coupled to the power circuit and to a controller , wherein the phase angle represents a phase shift between the current flowing in the power circuit and the time-varying voltage at the electrode ; and adjusting, by the controller , a characteristic of the time-varying voltage to minimize the detected phase angle. providing a mixture comprising at least two separable liquid phases to a separator ; electrically coupling a power circuit to an electrode immersed within the mixture in a grounded vessel inside the separator; applying a time-varying voltage to the electrode ; detecting a phase angle in the power circuit by a sensor coupled to the power circuit and to a controller , wherein the phase angle represents a phase shift between the current flowing in the power circuit and the time-varying voltage at the electrode ; and adjusting, by the controller , a characteristic of the time-varying voltage to minimize the detected phase angle.
An energy storage system, comprising a plurality of sets of battery packs or a plurality of battery packs , a converter , and a controller , wherein the battery packs are connected to a grid through the converter , at least one user equipment is connected to the grid , and the user equipment comprises at least one of electrical equipment and power supply equipment; the controller communicates with the user equipment and is configured to obtain information about the user equipment ; and the controller is connected to the converter and the battery packs and is configured to control the converter and the battery packs based on the information about the user equipment , to provide electric energy to the electrical equipment or receive electric energy from the power supply equipment, characterized in that the controller is configured to: obtain actual user scheduling powers of all user equipments based on the information about the user equipment ; and control the converter to output a power corresponding to a sum of the actual user scheduling powers of all the user equipments to the grid. the battery packs are connected to a grid through the converter , at least one user equipment is connected to the grid , and the user equipment comprises at least one of electrical equipment and power supply equipment; the controller communicates with the user equipment and is configured to obtain information about the user equipment ; and the controller is connected to the converter and the battery packs and is configured to control the converter and the battery packs based on the information about the user equipment , to provide electric energy to the electrical equipment or receive electric energy from the power supply equipment, characterized in that the controller is configured to: obtain actual user scheduling powers of all user equipments based on the information about the user equipment ; and control the converter to output a power corresponding to a sum of the actual user scheduling powers of all the user equipments to the grid. obtain actual user scheduling powers of all user equipments based on the information about the user equipment ; and control the converter to output a power corresponding to a sum of the actual user scheduling powers of all the user equipments to the grid.
A receiving communications device comprising a receiver configured to receive signals from one or more other communications devices within sidelink communications resources of a plurality of resource pool instances of a sidelink interface, each of the resource pool instances being arranged in time in accordance with a resource pool periodicity, and a controller configured in combination with the receiver to switch at a first periodic rate between a primary active operating mode and a primary reduced power operating mode in accordance with a primary discontinuous reception, DRX, operation (S152), to monitor for signals transmitted by the other communications devices to the receiving communications device in one or more of the resource pool instances during the primary active operating mode (S153), and to stop monitoring for signals transmitted by the other communications devices to the receiving communications device in one or more of the resource pool instances during the primary reduced power operating mode (S154), wherein the first periodic rate is dependent on the resource pool periodicity; wherein each of the resource pool instances is associated with an index value, and wherein the receiving communications device is configured to switch between the primary reduced power operating mode and the primary active operating mode at the start of a resource pool instance when a result of a function of the index value of the resource pool instance and a period defined by the first periodic rate is equal to a specified value. a receiver configured to receive signals from one or more other communications devices within sidelink communications resources of a plurality of resource pool instances of a sidelink interface, each of the resource pool instances being arranged in time in accordance with a resource pool periodicity, and a controller configured in combination with the receiver to switch at a first periodic rate between a primary active operating mode and a primary reduced power operating mode in accordance with a primary discontinuous reception, DRX, operation (S152), to monitor for signals transmitted by the other communications devices to the receiving communications device in one or more of the resource pool instances during the primary active operating mode (S153), and to stop monitoring for signals transmitted by the other communications devices to the receiving communications device in one or more of the resource pool instances during the primary reduced power operating mode (S154), wherein the first periodic rate is dependent on the resource pool periodicity; wherein each of the resource pool instances is associated with an index value, and wherein the receiving communications device is configured to switch between the primary reduced power operating mode and the primary active operating mode at the start of a resource pool instance when a result of a function of the index value of the resource pool instance and a period defined by the first periodic rate is equal to a specified value.
An edible pet chew comprising an expanded pre-gelatinized cereal flour matrix and having a substantially smooth exterior surface such that it is substantially free from undulations, blisters and bumps, and a density not greater than 1.0 Kg/L; and wherein the chew has a caloric density of 1.5-2.7 Kcal/cm 3 .
A method of printing onto a base which is an article of footwear or an article of apparel , the method comprising: receiving the base on a platform; detecting a first depth of a first cavity on the base with a sensing device ; detecting a second depth of a second cavity on the base that is greater than the first depth of the first cavity; receiving an image file of a structure to be formed on the base; wherein the image file includes a predetermined thickness of a layer; generating a modified image file using the first depth and the second depth, wherein the modified image file includes a first adjusted thickness for a first portion of the layer corresponding to the first cavity and a second adjusted thickness for a second portion of the layer corresponding to and being less than the second depth of the second cavity; inkjet printing a base layer directly onto the base using the modified image file, wherein a print material for printing the base layer is ink, a thermoplastic material, an acrylic resin, a polyurethane, a thermoplastic polyurethane, silicone or any other curable substance, wherein the base layer includes a first adjusted portion printed within the first cavity, wherein the first adjusted portion has the first adjusted thickness, wherein the base layer includes a non-adjusted portion printed onto the base, wherein the non-adjusted portion has the predetermined thickness, and wherein the base layer includes a second adjusted portion printed within the second cavity, wherein the second adjusted portion has the second adjusted thickness. receiving the base on a platform; detecting a first depth of a first cavity on the base with a sensing device ; detecting a second depth of a second cavity on the base that is greater than the first depth of the first cavity; receiving an image file of a structure to be formed on the base; wherein the image file includes a predetermined thickness of a layer; generating a modified image file using the first depth and the second depth, wherein the modified image file includes a first adjusted thickness for a first portion of the layer corresponding to the first cavity and a second adjusted thickness for a second portion of the layer corresponding to and being less than the second depth of the second cavity; inkjet printing a base layer directly onto the base using the modified image file, wherein a print material for printing the base layer is ink, a thermoplastic material, an acrylic resin, a polyurethane, a thermoplastic polyurethane, silicone or any other curable substance, wherein the base layer includes a first adjusted portion printed within the first cavity, wherein the first adjusted portion has the first adjusted thickness, wherein the base layer includes a non-adjusted portion printed onto the base, wherein the non-adjusted portion has the predetermined thickness, and wherein the base layer includes a second adjusted portion printed within the second cavity, wherein the second adjusted portion has the second adjusted thickness.
A method for preparing a thermal interface material, the method comprising: • growing carbon nanotubes on two surfaces of a zirconium foil to form a carbon nanotube array on each of the two surfaces of the zirconium foil, wherein the two surfaces comprise zirconium oxide (step 401), and • placing, in an H 2 atmosphere for annealing reduction processing, the zirconium foil with the carbon nanotube array grown on the two surfaces, • performing the annealing reduction processing, wherein in the process of the annealing reduction processing in the H 2 atmosphere, an H 2 flow rate is 5 to 100 SCCM, atmospheric pressure is 0.005 to 0.5 MPa, annealing processing temperature is 350°C to 650°C, and a duration of the annealing processing is 5 to 30 min, thereby performing a reduction reaction on the two surfaces of the zirconium foil after the carbon nanotube array is formed on each of the two surfaces of the zirconium foil to obtain the thermal interface material, wherein the two surfaces of the zirconium foil in the thermal interface material comprise, after the annealing reduction processing, on an interface between the zirconium foil and each carbon nanotube of the carbon nanotube array zirconium and on the remaining parts of the two surfaces exposed zirconium (step 402). • growing carbon nanotubes on two surfaces of a zirconium foil to form a carbon nanotube array on each of the two surfaces of the zirconium foil, wherein the two surfaces comprise zirconium oxide (step 401), and • placing, in an H 2 atmosphere for annealing reduction processing, the zirconium foil with the carbon nanotube array grown on the two surfaces, • performing the annealing reduction processing, wherein in the process of the annealing reduction processing in the H 2 atmosphere, an H 2 flow rate is 5 to 100 SCCM, atmospheric pressure is 0.005 to 0.5 MPa, annealing processing temperature is 350°C to 650°C, and a duration of the annealing processing is 5 to 30 min, thereby performing a reduction reaction on the two surfaces of the zirconium foil after the carbon nanotube array is formed on each of the two surfaces of the zirconium foil to obtain the thermal interface material, wherein the two surfaces of the zirconium foil in the thermal interface material comprise, after the annealing reduction processing, on an interface between the zirconium foil and each carbon nanotube of the carbon nanotube array zirconium and on the remaining parts of the two surfaces exposed zirconium (step 402).
A method of manipulating a tool within the secondary side of a steam generator having a tube sheet with a tube bundle having a plurality of heat exchange tubes extending from the tube sheet in rows with an annulus extending around the heat exchange tubes on a periphery of the tube bundle, between the tubes and a shell which surrounds the tube bundle, comprising the steps of: inserting a robotic vehicle for transporting the tool , through the shell and into the annulus with the robotic vehicle sized to ride in the annulus, positioning the robotic vehicle so that the tool is aligned in a lane between two rows of heat exchanger tubes ; extending a wand of the tool a substantial distance into the lane ; operating the tool while the wand is in an extended position within the lane by applying a vacuum to the tube sheet through at least one vacuum nozzle on the wand to vacuum loose aqueous sludge within the vicinity of as the tool as the tool and nozzle are transported across the tube sheet; wherein the tool is a reel delivery system having said wand suspended therefrom and a reel, the wand having a capable bend radius and length to be contained in the reel delivery system wherein the extending step includes the step of rotating the reel to advance the wand into and through the tube lane . inserting a robotic vehicle for transporting the tool , through the shell and into the annulus with the robotic vehicle sized to ride in the annulus, positioning the robotic vehicle so that the tool is aligned in a lane between two rows of heat exchanger tubes ; extending a wand of the tool a substantial distance into the lane ; operating the tool while the wand is in an extended position within the lane by applying a vacuum to the tube sheet through at least one vacuum nozzle on the wand to vacuum loose aqueous sludge within the vicinity of as the tool as the tool and nozzle are transported across the tube sheet; wherein the tool is a reel delivery system having said wand suspended therefrom and a reel, the wand having a capable bend radius and length to be contained in the reel delivery system wherein the extending step includes the step of rotating the reel to advance the wand into and through the tube lane .
A lighting device configured to emit light along an output direction, said device comprising: a base on which two or more light emitting diode (LED) chips are asymmetrically distributed with respect to a central axis of said lighting device, wherein said two or more LED chips are arranged to emit light in said output direction; and a light transmissive dielectric material embedding said two or more LED chips, said light transmissive dielectric material including luminescent material; wherein a first chip of said two or more LED chips is placed closest to the central axis; wherein said first chip is arranged so that - the central axis and said first chip coincide at a corner of said first chip, or - the central axis and the chip do not coincide and the distance between the central axis and a corner of said first chip closest to the central axis is not larger than 1/10 of the size of the base; and wherein said base has a rectangular shape or a square shape, wherein a second chip of said two or more LED chips is arranged at an edge of said base so that a longest side of said second chip is adjacent to the edge of said base, and wherein an axis along which said second chip has its longest extension is aligned with an axis along which said base has its longest extension. a base on which two or more light emitting diode (LED) chips are asymmetrically distributed with respect to a central axis of said lighting device, wherein said two or more LED chips are arranged to emit light in said output direction; and a light transmissive dielectric material embedding said two or more LED chips, said light transmissive dielectric material including luminescent material; wherein a first chip of said two or more LED chips is placed closest to the central axis; - the central axis and said first chip coincide at a corner of said first chip, or - the central axis and the chip do not coincide and the distance between the central axis and a corner of said first chip closest to the central axis is not larger than 1/10 of the size of the base; and
An unmanned aerial vehicle (UAV) frame, comprising: a body bearing plate configured to mount a first element and a second element; a transfer chamber body mounted to the body bearing plate , defining a connection cavity with an open end, and provided with a through hole in communication with the connection cavity , wherein the first element and the second element are located outside the transfer chamber body , the through hole is configured to pass through a connection line of the first element and a connection line of the second element, and the connection cavity is configured to receive a connection interface of the connection line of the first element and a connection interface of the connection line of the second element; and a transfer chamber cover sealedly covering the open end of the transfer chamber body ; characterized in that : the body bearing plate comprises a first bearing plate and a second bearing plate arranged opposite each other, the transfer chamber body is located between the first bearing plate and the second bearing plate , the first bearing plate is provided with a first matching hole , and the open end of the connection cavity is opposite the first matching hole . a body bearing plate configured to mount a first element and a second element; a transfer chamber body mounted to the body bearing plate , defining a connection cavity with an open end, and provided with a through hole in communication with the connection cavity , wherein the first element and the second element are located outside the transfer chamber body , the through hole is configured to pass through a connection line of the first element and a connection line of the second element, and the connection cavity is configured to receive a connection interface of the connection line of the first element and a connection interface of the connection line of the second element; and a transfer chamber cover sealedly covering the open end of the transfer chamber body ; characterized in that : the body bearing plate comprises a first bearing plate and a second bearing plate arranged opposite each other, the transfer chamber body is located between the first bearing plate and the second bearing plate , the first bearing plate is provided with a first matching hole , and the open end of the connection cavity is opposite the first matching hole .
A location pad , comprising: multiple field-generators (36A-36D), which are configured to generate respective magnetic fields in a region-of-interest of a patient organ, for measuring a position of a medical instrument in the region-of-interest; and a frame , which is configured to fix the multiple field-generators at respective positions surrounding the region-of-interest, characterised in that the frame is transparent to an X-ray radiation, and by the frame comprising at least one moveable fixing device wherein each fixing device is configured to fix at least one of the multiple field-generators to the frame, wherein the at least one fixing device is movable on the surface of the frame so as to set the size and shape of the region-of-interest. multiple field-generators (36A-36D), which are configured to generate respective magnetic fields in a region-of-interest of a patient organ, for measuring a position of a medical instrument in the region-of-interest; and a frame , which is configured to fix the multiple field-generators at respective positions surrounding the region-of-interest, characterised in that the frame is transparent to an X-ray radiation, and by the frame comprising at least one moveable fixing device wherein each fixing device is configured to fix at least one of the multiple field-generators to the frame, wherein the at least one fixing device is movable on the surface of the frame so as to set the size and shape of the region-of-interest.
A method of preparing in vitro or ex vivo a cell culture comprising keratinocytes and melanocytes or a cellular model of depigmenting disorder comprising a step of exposing simultaneously or sequentially a population of cells comprising keratinocytes and melanocytes to IFNγ and TNFα.
Endoscope with an elongate shaft , a spring element, an elastically resilient latching element with an abutment for the spring element, and with a system tube which extends inside the shaft and in which an image carrier is arranged, wherein the system tube is held in an axial direction of the shaft by means of at least said resilient latching element, characterized in that the resilient latching element, the abutment and the spring element are configured in such a way that the system tube is loaded by the spring element in a distal direction against a limit stop.
A method for the pyrometallurgical processing of a sulphide material containing copper, the sulphide containing relatively high quantities of silica and relatively low quantities of iron, wherein the process comprises feeding the sulphide material to a TSL furnace operated under such conditions that the sulphide material forms blister copper and a slag having a CaO/SiO2 ratio of between 0.30 and 0.55 by weight and an SiO 2 /Fe ratio of between 1.8 and 2.8 by weight.
A flight area management method for an uncrewed aerial vehicle, wherein the method comprises: obtaining, by an access and mobility management function AMF, flight area exception information of the uncrewed aerial vehicle, wherein the flight area exception information indicates that the uncrewed aerial vehicle is not located in a normal flight area; and sending, by the AMF, a flight area exception notification message to an uncrewed aerial system traffic management UTM, wherein the flight area exception notification message is used to indicate that the uncrewed aerial vehicle is not located in the normal flight area, wherein the method further comprises: sending, by the AMF, the flight area exception notification message of the uncrewed aerial vehicle to a session management function SMF, wherein the flight area exception notification message of the uncrewed aerial vehicle is used to notify that the uncrewed aerial vehicle is not located in the normal flight area and indicate the SMF to determine the UTM as a controller of the uncrewed aerial vehicle in a context of a session corresponding to both the uncrewed aerial vehicle and the controller of the uncrewed aerial vehicle. obtaining, by an access and mobility management function AMF, flight area exception information of the uncrewed aerial vehicle, wherein the flight area exception information indicates that the uncrewed aerial vehicle is not located in a normal flight area; and sending, by the AMF, a flight area exception notification message to an uncrewed aerial system traffic management UTM, wherein the flight area exception notification message is used to indicate that the uncrewed aerial vehicle is not located in the normal flight area, wherein the method further comprises: sending, by the AMF, the flight area exception notification message of the uncrewed aerial vehicle to a session management function SMF, wherein the flight area exception notification message of the uncrewed aerial vehicle is used to notify that the uncrewed aerial vehicle is not located in the normal flight area and indicate the SMF to determine the UTM as a controller of the uncrewed aerial vehicle in a context of a session corresponding to both the uncrewed aerial vehicle and the controller of the uncrewed aerial vehicle.