mhurhangee/patent-ind-claim-en huggingface dataset:
Method for well testing under full field production, wherein well flow from multiple wells (200a-d) are during full field production run through a production system comprising a production slug suppression and gas removal unit and a separator system comprising multiple interconnected inclined tubular separators (11a-e) for separating gas, oil and water from the well flow, wherein the method comprises the steps of: - isolating well flow from one of the multiple wells (200a-d) and isolating at least one of the inclined tubular separators (11a-e) from the remaining inclined tubular separators (11a-e) and dedicating the at least one isolated inclined tubular separator (11a-e) for testing, - running the well flow from the isolated well (200a-d) through a dedicated test slug suppression and gas removal unit and the at least one isolated and dedicated inclined tubular separator (11a-e) for a test period and running well flow from the other wells (200a-d) through the production slug suppression and gas removal unit and remaining inclined tubular separators (11a-e), - measuring produced gas, oil and water volumes (m 3 /h) for the isolated well (220a-d), - adding the respective produced gas, oil and water for the isolated well (220a-d) from the dedicated test slug suppression and gas removal unit and the at least one isolated and dedicated inclined tubular separator (11a-e) to the respective produced gas, oil and water for the other wells (200a-d) from the production slug suppression and gas removal unit and the remaining inclined tubular separators (11a-e), and - removing the isolation of the isolated well (200a-d) and at least one isolated and dedicated inclined tubular separator (11a-e) when the test period is ended. - isolating well flow from one of the multiple wells (200a-d) and isolating at least one of the inclined tubular separators (11a-e) from the remaining inclined tubular separators (11a-e) and dedicating the at least one isolated inclined tubular separator (11a-e) for testing, - running the well flow from the isolated well (200a-d) through a dedicated test slug suppression and gas removal unit and the at least one isolated and dedicated inclined tubular separator (11a-e) for a test period and running well flow from the other wells (200a-d) through the production slug suppression and gas removal unit and remaining inclined tubular separators (11a-e), - measuring produced gas, oil and water volumes (m 3 /h) for the isolated well (220a-d), - adding the respective produced gas, oil and water for the isolated well (220a-d) from the dedicated test slug suppression and gas removal unit and the at least one isolated and dedicated inclined tubular separator (11a-e) to the respective produced gas, oil and water for the other wells (200a-d) from the production slug suppression and gas removal unit and the remaining inclined tubular separators (11a-e), and - removing the isolation of the isolated well (200a-d) and at least one isolated and dedicated inclined tubular separator (11a-e) when the test period is ended.
A semiconductor package , comprising: a substrate ; an electronic component disposed on and electrically connected with the substrate ; a dielectric layer having a dielectric upper surface ; a transmitting antenna and a receiving antenna formed adjacent to the substrate, the transmitting antenna being configured to transmit a wireless signal; and a FSS, Frequency Selective Surface, antenna formed adjacent to the dielectric upper surface of the dielectric layer; wherein the FSS antenna is separated from the substrate by the dielectric layer in a wireless signal emitting direction, a shielding wall embedded in the dielectric layer and extending between a dielectric lower surface of the dielectric layer and the dielectric upper surface of the dielectric layer, wherein the dielectric layer comprises a dielectric portion surrounding a resonant cavity within which the electronic component is disposed, and wherein the FSS antenna is separated from the substrate by the dielectric portion in the wireless signal emitting direction, and the electronic component is exposed in the resonant cavity . a substrate ; an electronic component disposed on and electrically connected with the substrate ; a dielectric layer having a dielectric upper surface ; a transmitting antenna and a receiving antenna formed adjacent to the substrate, the transmitting antenna being configured to transmit a wireless signal; and a FSS, Frequency Selective Surface, antenna formed adjacent to the dielectric upper surface of the dielectric layer; wherein the FSS antenna is separated from the substrate by the dielectric layer in a wireless signal emitting direction, a shielding wall embedded in the dielectric layer and extending between a dielectric lower surface of the dielectric layer and the dielectric upper surface of the dielectric layer, wherein the dielectric layer comprises a dielectric portion surrounding a resonant cavity within which the electronic component is disposed, and wherein the FSS antenna is separated from the substrate by the dielectric portion in the wireless signal emitting direction, and the electronic component is exposed in the resonant cavity .
A method of transmitting a preamble for interference measurement by a transmitting user equipment, UE, in a wireless communication system supporting full duplex radio, FDR, the method comprising: configuring first guard time and second guard time at both ends of the preamble, wherein the first guard time is a prescribed time set before the preamble, and the second guard time is a prescribed time set after the preamble; mapping the preamble with the first guard time and the second guard time to a measurement subframe for measuring interference between UEs, wherein a sum of a time interval for the preamble and a time interval corresponding to the first guard time and the second guard time corresponds to a unit length of a symbol; and transmitting the preamble to a receiving UE through the measurement subframe, wherein at least one of the first guard time and second guard time is configured as a zero-power transmission interval and a remaining guard time is set as a cyclic prefix, and wherein the zero-power transmission interval is configured by a zero-padding scheme on a frequency axis of the preamble. configuring first guard time and second guard time at both ends of the preamble, wherein the first guard time is a prescribed time set before the preamble, and the second guard time is a prescribed time set after the preamble; mapping the preamble with the first guard time and the second guard time to a measurement subframe for measuring interference between UEs, wherein a sum of a time interval for the preamble and a time interval corresponding to the first guard time and the second guard time corresponds to a unit length of a symbol; and transmitting the preamble to a receiving UE through the measurement subframe, wherein at least one of the first guard time and second guard time is configured as a zero-power transmission interval and a remaining guard time is set as a cyclic prefix, and wherein the zero-power transmission interval is configured by a zero-padding scheme on a frequency axis of the preamble.
Three-dimensional printer for manufacturing a component by additive layers, which printer comprises: • a construction surface , • a feed means arranged to supply a powder flow to the construction surface and comprising a first feed pipe leading to the construction surface , • a means for transmitting an energy beam to the construction surface , • a movement means for generating a relative movement of the construction surface and the feed means, characterised in that said printer further comprises an electrostatic charge detector (7; 71, 72) arranged to measure a characteristic of an electrostatic charge of said powder flow. • a construction surface , • a feed means arranged to supply a powder flow to the construction surface and comprising a first feed pipe leading to the construction surface , • a means for transmitting an energy beam to the construction surface , • a movement means for generating a relative movement of the construction surface and the feed means, characterised in that said printer further comprises an electrostatic charge detector (7; 71, 72) arranged to measure a characteristic of an electrostatic charge of said powder flow.
A mounting system including a decorative cap member and a cylinder lock with a mounting structure , in which a protrusion portion protruding from a door panel , of the cylinder lock fixed to the door panel of a vehicle, is covered with the decorative cap member, wherein the decorative cap member includes a water guide channel guiding infiltrated water from a gap between a key insertion opening exposing a key insertion section of the cylinder lock, and a surface of the cylinder lock, to a water ejection opening which is opened on a peripheral wall, characterized in that a water guide groove which guides water that is retained at a peripheral edge of the key insertion opening, is formed on a peripheral edge rear surface of the key insertion opening of the decorative cap member.
An information processing terminal comprising: a display ; an identifier configured to identify a model of an I/O device based on data of an image obtained by capturing the I/O device ; an arrangement data generator configured to read identified model arrangement data corresponding to an identified model of the I/O device identified by the identifier from a memory that stores arrangement data indicating positions of input/output terminals for each model of I/O devices; an obtainer configured to obtain an audio processing parameter corresponding to each of the plurality of input/output terminals ; and a display processor configured to display on the display: an image of a panel of the I/O device including the input/output terminals, and the audio processing parameter at the position in the image of the panel of each of the input/output terminals indicated by the identified model arrangement data. a display ; an identifier configured to identify a model of an I/O device based on data of an image obtained by capturing the I/O device ; an arrangement data generator configured to read identified model arrangement data corresponding to an identified model of the I/O device identified by the identifier from a memory that stores arrangement data indicating positions of input/output terminals for each model of I/O devices; an obtainer configured to obtain an audio processing parameter corresponding to each of the plurality of input/output terminals ; and a display processor configured to display on the display: an image of a panel of the I/O device including the input/output terminals, and the audio processing parameter at the position in the image of the panel of each of the input/output terminals indicated by the identified model arrangement data. an image of a panel of the I/O device including the input/output terminals, and the audio processing parameter at the position in the image of the panel of each of the input/output terminals indicated by the identified model arrangement data.
A planter row unit tippable about a horizontal axis between a transport position and a working position, the row unit having a seed meter , wherein the seed meter is configured to transition to an orientation in which it is angled relative to the direction of gravity when the row unit is in the transport position, the seed meter comprising: a seed disc rotatable within a housing in a direction of rotation, wherein the housing comprises a seed pool area (P) on a seed side of the seed disc; a first brush disposed in said seed meter on said seed side; and, a second brush disposed in said seed meter on said seed side; characterized in that the second brush is generally vertical when the row unit is in the working position and the first brush is an upper brush located above and angled relative to the second brush, said seed meter further comprises a flap pivotably attached to a lower end of said first brush , wherein when said planter row unit is in the transport position, said flap pivots under gravity and contacts said second brush , and wherein when said planter row unit is in the working position, said flap pivots under gravity away from said second brush , the arrangement configured such that said flap , said first brush , and said second brush cooperate with said seed disc to prevent seeds from said seed pool area passing through an exit (E) in said seed meter when said planter row unit is in said transport position and that when said planter row unit is in the working position, seeds are allowed to fall vertically from an upper portion of the meter and pass between the brushes back to the seed pool area (P). a seed disc rotatable within a housing in a direction of rotation, wherein the housing comprises a seed pool area (P) on a seed side of the seed disc; a first brush disposed in said seed meter on said seed side; and, a second brush disposed in said seed meter on said seed side; characterized in that the second brush is generally vertical when the row unit is in the working position and the first brush is an upper brush located above and angled relative to the second brush, said seed meter further comprises a flap pivotably attached to a lower end of said first brush , wherein when said planter row unit is in the transport position, said flap pivots under gravity and contacts said second brush , and wherein when said planter row unit is in the working position, said flap pivots under gravity away from said second brush , the arrangement configured such that said flap , said first brush , and said second brush cooperate with said seed disc to prevent seeds from said seed pool area passing through an exit (E) in said seed meter when said planter row unit is in said transport position and that when said planter row unit is in the working position, seeds are allowed to fall vertically from an upper portion of the meter and pass between the brushes back to the seed pool area (P).
Processing system comprising a first processing cell and a second processing cell for processing a component as well as a handling unit and a scanning unit , characterised in that the first and second processing cells are each provided with an identification element (100, 100'; 200, 200'), which identification elements (100, 100'; 200, 200') can be scanned by means of a scanning unit of the handling unit , wherein the identification elements (100, 100'; 200, 200') comprise a marking element (100a, 100a'; 200a, 200a') which defines a local coordinate system and an information carrier element (100b, 100b'; 200b, 200b') which contains information on the first or second processing cell and/or a processing unit and/or provides a link for this purpose. characterised in that the first and second processing cells are each provided with an identification element (100, 100'; 200, 200'), which identification elements (100, 100'; 200, 200') can be scanned by means of a scanning unit of the handling unit , wherein the identification elements (100, 100'; 200, 200') comprise a marking element (100a, 100a'; 200a, 200a') which defines a local coordinate system and an information carrier element (100b, 100b'; 200b, 200b') which contains information on the first or second processing cell and/or a processing unit and/or provides a link for this purpose.
A photographing method, comprising: obtaining a first image and a second image that are output by a fixed-focus camera, wherein a focus distance of the fixed-focus camera is less than a preset distance, resolution of the first image is N times resolution of the second image, N is an integer greater than 1, and the first image and the second image comprise a same photographing scene, wherein the second image is obtained in a binning mode; and performing image fusion processing on foreground of the first image and background of the second image to obtain a photographed image wherein the foreground of the first image includes a predetermined target located inside a depth of field of the fixed-focus camera. obtaining a first image and a second image that are output by a fixed-focus camera, wherein a focus distance of the fixed-focus camera is less than a preset distance, resolution of the first image is N times resolution of the second image, N is an integer greater than 1, and the first image and the second image comprise a same photographing scene, wherein the second image is obtained in a binning mode; and performing image fusion processing on foreground of the first image and background of the second image to obtain a photographed image wherein the foreground of the first image includes a predetermined target located inside a depth of field of the fixed-focus camera.
An apparatus, comprising: a power management integrated circuit, PMIC, semiconductor chip comprising logic circuitry implementing a PMIC/PMIC interface comprising a downstream signal line and an upstream signal line, characterized in that the downstream signal line is adapted to communicate any of multiple states that a downstream PMIC semiconductor chip is to implement with one of multiple voltage levels, where different ones of the multiple voltage levels correspond to different ones of the multiple states, and the upstream signal line is adapted to communicate whether or not the downstream PMIC semiconductor chip is ready to receive a next one of the multiple voltage levels.
A device for clamping electronic devices on installation masts for such electronic devices , such as TV signal amplifiers, comprising: at least one magnet able to be fixed to a rear portion of an electronic device to be clamped on an installation mast made of ferromagnetic material of a cylindrical configuration by means of the magnet , the at least one magnet is configured to form a concave channel with respect to the mast in the clamping position of the electronic device on the installation mast , wherein the at least one magnet is able to be fixed to the electronic device by being housed in a socket in the form of a guide, characterized in that in the clamping position, the at least one magnet is left with edges that correspond to the concave portion on the sides thereof protruding from the socket . at least one magnet able to be fixed to a rear portion of an electronic device to be clamped on an installation mast made of ferromagnetic material of a cylindrical configuration by means of the magnet , the at least one magnet is configured to form a concave channel with respect to the mast in the clamping position of the electronic device on the installation mast , wherein the at least one magnet is able to be fixed to the electronic device by being housed in a socket in the form of a guide, characterized in that in the clamping position, the at least one magnet is left with edges that correspond to the concave portion on the sides thereof protruding from the socket .
A method of manufacturing a metal vessel , said method comprising: providing a preform being formed of a work hardened metal, the preform having an open portion , a closed end portion , and a body portion ; preheating the body portion of the preform in a manner that limits heat being applied to the open portion and closed end portion of the preform; inserting the preheated preform into a mold that includes multiple segments ; applying a pre-pressure by delivering a fluid into the inside of the preform at a first pressure level prior to closing the multiple segments of the mold; closing the multiple segments of the mold; blow molding the preform by increasing the applied pressure using a step function to a second pressure level after the mold is closed, the increase of the pressure from the first pressure level to the second pressure level to occur in less than about 0.2 seconds to cause the preform to take a shape defined by the mold; and removing the molded preform from the mold. providing a preform being formed of a work hardened metal, the preform having an open portion , a closed end portion , and a body portion ; preheating the body portion of the preform in a manner that limits heat being applied to the open portion and closed end portion of the preform; inserting the preheated preform into a mold that includes multiple segments ; applying a pre-pressure by delivering a fluid into the inside of the preform at a first pressure level prior to closing the multiple segments of the mold; closing the multiple segments of the mold; blow molding the preform by increasing the applied pressure using a step function to a second pressure level after the mold is closed, the increase of the pressure from the first pressure level to the second pressure level to occur in less than about 0.2 seconds to cause the preform to take a shape defined by the mold; and removing the molded preform from the mold.
Method of adjusting the ink viscosity in an inkjet printer which comprises a fluid circuit , a print head connected to the fluid circuit through an umbilical , the fluid circuit comprising at least one reservoir called the main reservoir, and a pump located downstream from the reservoir to pump ink from this reservoir and send it to said print head , an anti-pulse device being located downstream from the pump, along the direction of circulation of ink towards the print head, an ink pressure sensor being located downstream from this anti-pulse device , this method comprising at least: - the formation of an inkjet, the jet having a velocity equal to or close to a predetermined velocity called the nominal velocity, - a measurement of the ink viscosity while the ink jet is flowing at this nominal velocity, using at least one pressure measurement obtained from the ink pressure sensor , - the addition of a quantity of solvent into the ink contained in the reservoir , when the viscosity is not equal to a given reference value. - the formation of an inkjet, the jet having a velocity equal to or close to a predetermined velocity called the nominal velocity, - a measurement of the ink viscosity while the ink jet is flowing at this nominal velocity, using at least one pressure measurement obtained from the ink pressure sensor , - the addition of a quantity of solvent into the ink contained in the reservoir , when the viscosity is not equal to a given reference value.
A rim driven permanent magnet thruster comprising: a stator; and a rotor assembly rotatably mounted within the stator; the rotor assembly having an impeller , and a drive body including one or more permanent magnets ; wherein the stator includes one or more electromagnets for electromagnetic interaction with the one or more permanent magnets to cause rotation of the rotor assembly ; and wherein the drive body includes an axially extending tube, arranged coaxially with the impeller ; and wherein the one or more electromagnets are arranged on the stator generally circumferentially around, and radially outwards of, the one or more magnetic elements; characterised in that the drive body is detachably coupled to the impeller to be located axially upstream of the impeller , and the impeller is configured to provide at least one of an axial and a radial bearing surface . a stator; and a rotor assembly rotatably mounted within the stator; the rotor assembly having an impeller , and a drive body including one or more permanent magnets ; wherein the stator includes one or more electromagnets for electromagnetic interaction with the one or more permanent magnets to cause rotation of the rotor assembly ; and wherein the drive body includes an axially extending tube, arranged coaxially with the impeller ; and wherein the one or more electromagnets are arranged on the stator generally circumferentially around, and radially outwards of, the one or more magnetic elements; characterised in that the drive body is detachably coupled to the impeller to be located axially upstream of the impeller , and the impeller is configured to provide at least one of an axial and a radial bearing surface .