mhurhangee/patent-ind-claim-en huggingface dataset:
A spacecraft (S) comprising at least one radiative fin , comprising : - an end fitting of heat conductive material, adapted to be mounted on the spacecraft (S), - a flexible radiative laminate , connected to the end fitting at one end and having an opposite free end , and comprising : o at least one pyrolytic graphite sheet , and o at least one heat emission layer in contact with the pyrolythic graphite sheet on at least part of the surface of the pyrolythic graphite sheet, and - a flexible rod , extending from the end fitting along at least part of a side of the flexible radiative laminate and being affixed to the latter, wherein the flexible rod is adapted to occupy a folded position and a deployed position and to exert, while in the folded position, a deployment torque adapted to bring the flexible rod back to the deployed position the spacecraft further comprising at least one solar array wing (G) and a deployment mechanism adapted to bring the solar array wing (G) from a stowed position to a deployed position, characterised in that the radiative fin is maintained, in the folded position, between the solar array wing (G) and a wall of the spacecraft by the solar array wing (G), and wherein the deployment of the solar array wing (G) allows the radiative laminate of the fin to reach to the deployed position. - an end fitting of heat conductive material, adapted to be mounted on the spacecraft (S), - a flexible radiative laminate , connected to the end fitting at one end and having an opposite free end , and comprising : o at least one pyrolytic graphite sheet , and o at least one heat emission layer in contact with the pyrolythic graphite sheet on at least part of the surface of the pyrolythic graphite sheet, and o at least one pyrolytic graphite sheet , and o at least one heat emission layer in contact with the pyrolythic graphite sheet on at least part of the surface of the pyrolythic graphite sheet, and - a flexible rod , extending from the end fitting along at least part of a side of the flexible radiative laminate and being affixed to the latter, wherein the flexible rod is adapted to occupy a folded position and a deployed position and to exert, while in the folded position, a deployment torque adapted to bring the flexible rod back to the deployed position
A process for producing hydrogen or syngas by methanol cracking, whereby methanol is catalytically decomposed into hydrogen and carbon monoxide in an endothermal reaction: CH 3 OH -> CO + 2H 2 said reaction taking place in a reactor with direct inductive heating in the reaction zone wherein the heating is obtained using induction heated catalyzed hardware in the shape of a ferromagnetic structure, which is coated with an oxide impregnated with the catalytically active phase.
A control device of a radiography system that comprises a mammography apparatus that includes a radiation source , a radiation detector , and a compression member , wherein the mammography apparatus is configured to compress a breast disposed between the radiation source and the radiation detector and capture a radiographic image of a breast in the compressed state using the radiation detector , and wherein the mammography apparatus is configured for performing continuous imaging in which a breast of a subject is irradiated with radiation emitted from the radiation source to capture a radiographic image in a compressed state in which the breast is compressed against an imaging table by the compression member and then an ultrasound image of the breast in the compressed state is captured using a hand-held ultrasonography apparatus ; the control device comprising: a specification unit configured to specify the position of the hand-held ultrasonography apparatus from an image captured by an imaging device, which is configured to capture an image of the surroundings of the mammography apparatus, or from user input information; and a control unit configured to, when said continuous imaging is performed, perform control to locate the radiation source during capture of the ultrasound image at a non-facing position in which the radiation axis (RC) of the radiation source is inclined with respect to the imaging table , wherein the control unit sets the position of the radiation source to a position opposite to the hand-held ultrasonography apparatus on the left and right sides of the subject, based on the position of the hand-held ultrasonography apparatus specified by the specification unit . a specification unit configured to specify the position of the hand-held ultrasonography apparatus from an image captured by an imaging device, which is configured to capture an image of the surroundings of the mammography apparatus, or from user input information; and a control unit configured to, when said continuous imaging is performed, perform control to locate the radiation source during capture of the ultrasound image at a non-facing position in which the radiation axis (RC) of the radiation source is inclined with respect to the imaging table , wherein the control unit sets the position of the radiation source to a position opposite to the hand-held ultrasonography apparatus on the left and right sides of the subject, based on the position of the hand-held ultrasonography apparatus specified by the specification unit .
A method for managing data packets (IP PDU tx , PDCP PDU tx , RLC PDU tx , MAC PDU tx ) transmitted by a first user equipment to be received by a second user equipment , wherein the first user equipment is arranged for communicating with the second user equipment in a direct mode by directly connecting to the second user equipment or in an infrastructure mode by connecting to the second user equipment through a radio transceiver station of a radio network, the first user equipment being configured for: generating data packets (IP PDU tx ) at an Internet Protocol layer of the protocol stack to be transmitted; forwarding each data packet (IP PDU tx ) to a lower protocol layer of the protocol stack in order to be sent to the second user equipment in direct mode or in infrastructure mode, characterized by comprising: providing at least one buffer protocol entity below the Internet Protocol layer , wherein the at least one buffer protocol entity is provided at a sublayer provided between the Internet Protocol layer and the Packet Data Convergence Protocol layer of the protocol stack, wherein the at least one buffer protocol entity is arranged for: storing a copy of each data packet (IP PDU tx ) forwarded from the Internet Protocol layer to the lower protocol layer; removing the copy of a data packet (IP PDU tx ) stored in the buffer protocol entity upon acknowledge of the receipt of the corresponding data packet at the second user equipment, and in case the first user equipment switches from communicating with the second user equipment in the direct mode to the infrastructure mode or, vice versa, from the infrastructure mode to the direct mode: forwarding the copy of each data packet (IP PDU tx ) comprised in the buffer protocol entity to the lower protocol layer of the protocol stack in order to be sent to the second user equipment in infrastructure mode or in direct mode, respectively. generating data packets (IP PDU tx ) at an Internet Protocol layer of the protocol stack to be transmitted; forwarding each data packet (IP PDU tx ) to a lower protocol layer of the protocol stack in order to be sent to the second user equipment in direct mode or in infrastructure mode, storing a copy of each data packet (IP PDU tx ) forwarded from the Internet Protocol layer to the lower protocol layer; removing the copy of a data packet (IP PDU tx ) stored in the buffer protocol entity upon acknowledge of the receipt of the corresponding data packet at the second user equipment, and in case the first user equipment switches from communicating with the second user equipment in the direct mode to the infrastructure mode or, vice versa, from the infrastructure mode to the direct mode: forwarding the copy of each data packet (IP PDU tx ) comprised in the buffer protocol entity to the lower protocol layer of the protocol stack in order to be sent to the second user equipment in infrastructure mode or in direct mode, respectively.
A touch input device capable of detecting a touch pressure, the touch input device comprising: a display panel configured to bend upon touch pressure; and a pressure sensing unit which is disposed under the display panel , wherein the pressure sensing unit comprises one central pressure sensor for detecting the pressure based on a change of capacitance in response to bending of the display panel and a plurality of non-central pressure sensors for detecting the pressure based on a change of capacitance in response to bending of the display panel , wherein the central pressure sensor and the plurality of non-central pressure sensors form a plurality of channels configured to be connected to a pressure sensor controller , characterized in that an area of each of the non-central pressure sensors is less than that of the central pressure sensor . a display panel configured to bend upon touch pressure; and a pressure sensing unit which is disposed under the display panel , wherein the pressure sensing unit comprises one central pressure sensor for detecting the pressure based on a change of capacitance in response to bending of the display panel and a plurality of non-central pressure sensors for detecting the pressure based on a change of capacitance in response to bending of the display panel , wherein the central pressure sensor and the plurality of non-central pressure sensors form a plurality of channels configured to be connected to a pressure sensor controller , characterized in that an area of each of the non-central pressure sensors is less than that of the central pressure sensor . wherein the pressure sensing unit comprises one central pressure sensor for detecting the pressure based on a change of capacitance in response to bending of the display panel and a plurality of non-central pressure sensors for detecting the pressure based on a change of capacitance in response to bending of the display panel , wherein the central pressure sensor and the plurality of non-central pressure sensors form a plurality of channels configured to be connected to a pressure sensor controller , characterized in that an area of each of the non-central pressure sensors is less than that of the central pressure sensor .
An oil pressure system for a wheel loader, comprising: a) a pair of oil pressure pumps configured to discharge hydraulic oil; b) a plurality of working devices including boom cylinders driven by a pressure of the hydraulic oil; and c) a control valve means configured to control a flow of the hydraulic oil through a predetermined oil pressure line from the pair of oil pressure pumps to the plurality of working devices, characterized in that d) the control valve means further includes a confluent circuit for making the hydraulic oils discharged from the pair of oil pressure pumps be confluent, wherein e) the hydraulic oils discharged from the pair of oil pressure pumps are supplied together to the boom cylinders through the confluent circuit when the boom is raised to a maximum height during loading work of the wheel loader, and wherein f) the pair of oil pressure pumps are set to have cutoff pressures having different sizes, so that impact generated when the boom approaches the maximum g) the different cutoff pressures set in the pair of oil pressure pumps are a maximum cutoff pressure corresponding to a pressure when the boom approaches a maximum height, and a predetermined cutoff pressure corresponding to a pressure when the boom approaches a predetermined height close to the maximum height, respectively. a) a pair of oil pressure pumps configured to discharge hydraulic oil; b) a plurality of working devices including boom cylinders driven by a pressure of the hydraulic oil; and c) a control valve means configured to control a flow of the hydraulic oil through a predetermined oil pressure line from the pair of oil pressure pumps to the plurality of working devices, characterized in that d) the control valve means further includes a confluent circuit for making the hydraulic oils discharged from the pair of oil pressure pumps be confluent, wherein e) the hydraulic oils discharged from the pair of oil pressure pumps are supplied together to the boom cylinders through the confluent circuit when the boom is raised to a maximum height during loading work of the wheel loader, and wherein f) the pair of oil pressure pumps are set to have cutoff pressures having different sizes, so that impact generated when the boom approaches the maximum g) the different cutoff pressures set in the pair of oil pressure pumps are a maximum cutoff pressure corresponding to a pressure when the boom approaches a maximum height, and a predetermined cutoff pressure corresponding to a pressure when the boom approaches a predetermined height close to the maximum height, respectively.
A method of igniting liquid fuel in a turbomachine combustor , the method comprising: initiating a flow of gaseous fuel from a gaseous fuel supply to a gaseous fuel nozzle ; initiating a flow of liquid fuel from a liquid fuel supply to a liquid fuel cartridge , wherein the step of initiating the flow of liquid fuel occurs with or after the step of initiating the flow of gaseous fuel; after initiating both the flow of gaseous fuel and the flow of liquid fuel , igniting the flow of gaseous fuel and the flow of liquid fuel with an igniter ; and terminating the flow of gaseous fuel from the gaseous fuel supply to the gaseous fuel nozzle . initiating a flow of gaseous fuel from a gaseous fuel supply to a gaseous fuel nozzle ; initiating a flow of liquid fuel from a liquid fuel supply to a liquid fuel cartridge , wherein the step of initiating the flow of liquid fuel occurs with or after the step of initiating the flow of gaseous fuel; after initiating both the flow of gaseous fuel and the flow of liquid fuel , igniting the flow of gaseous fuel and the flow of liquid fuel with an igniter ; and terminating the flow of gaseous fuel from the gaseous fuel supply to the gaseous fuel nozzle .
Step of a walkway on unpaved ground comprising a support module, wherein the support module comprises a support part made of sheet metal and stakes , wherein the support part of the step forms the essentially vertical surface and its directly adjoining upper area, and whereby each stake penetrates an area of the support part and is inserted into the substrate , wherein the support part is a gutter profile made of sheet metal, in which a profile groove is delimited by a middle base surface and two lateral flank surfaces , wherein one of the flank surfaces has openings for the stakes , wherein the base surface of the support part constitutes the essentially vertical surface of the step, wherein the flank surface that features the openings connects beneath this base surface characterised in that at both flank surfaces of the support part , at the side facing away from the base surface , an edging surface is connected that is aligned at an angle opposite the flank surfaces , and that the stakes protrude into the height range of the upper edging surface and that the edging surface with its interior is in contact with the stakes .
A square or rectangular tile comprising, in order: a light-transmissive front layer ; at least one front electrode; an electro-optic layer capable of changing the color of the tile ; and a plurality of rear electrodes, the exposed surface of the front layer being textured to provide a plurality of facets having a plurality of inclinations to the plane of the tile , characterized in that the plurality of rear electrodes provides at least one electrode located within each facet of the front layer, and the arrangement of the facets is such that, when the tile is surrounded by other tiles having the same facet pattern, at least some of the lines dividing adj acent facets continue unbroken across the joins between adjacent tiles so that two facets (128A/B, 130A/B, 132A/B, 134A/B, 136A/B, 138A/B, 140A/B, 142A/B, 144A/B, 146A/B and 148AB), one on each adjacent edge, form in effect a compound facet, the tiles being arranged to be driven such that the two rear electrodes of the facets forming the compound facet always remain at the same potential relative to their respective front electrodes, so that the two parts of the compound facet appear as a single facet, thus visually breaking up the straight line between the adjacent tiles. a light-transmissive front layer ; at least one front electrode; an electro-optic layer capable of changing the color of the tile ; and a plurality of rear electrodes, the exposed surface of the front layer being textured to provide a plurality of facets having a plurality of inclinations to the plane of the tile , characterized in that the plurality of rear electrodes provides at least one electrode located within each facet of the front layer, and the arrangement of the facets is such that, when the tile is surrounded by other tiles having the same facet pattern, at least some of the lines dividing adj acent facets continue unbroken across the joins between adjacent tiles so that two facets (128A/B, 130A/B, 132A/B, 134A/B, 136A/B, 138A/B, 140A/B, 142A/B, 144A/B, 146A/B and 148AB), one on each adjacent edge, form in effect a compound facet, the tiles being arranged to be driven such that the two rear electrodes of the facets forming the compound facet always remain at the same potential relative to their respective front electrodes, so that the two parts of the compound facet appear as a single facet, thus visually breaking up the straight line between the adjacent tiles.
A method for the production of an ovarian cancer or cancer precursor cell culture, said method comprising the steps: (a) cultivating ovarian cancer or cancer precursor cells in a suitable cell culture medium which comprises at least one BMP compound, such as BMP2, and (b) optionally obtaining a cell culture from the cultivation step (a), wherein the cell culture is an organoid culture, and wherein the culture medium is free of Noggin. (a) cultivating ovarian cancer or cancer precursor cells in a suitable cell culture medium which comprises at least one BMP compound, such as BMP2, and (b) optionally obtaining a cell culture from the cultivation step (a),
A support jack comprising a support foot and a force measuring element , wherein the support jack has an outer tube and an inner tube movably mounted therein, and the support foot is pivotably secured to the inner tube by means of a foot receiving element , wherein the force measuring element is attached to the foot receiving element , characterized in that, a force is determined by means of the force measuring element as a function of the deformation of the foot receiving element .
Method for aquatic seismic prospecting, of the type using : - at least one submerged mobile seismic source able to create a disturbance transmitted through the aquatic medium in the form of waves able to be reflected on the bottom of the water and the different geological layers; - at least one cable of substantially zero buoyancy, provided with a plurality of sensors, able to collect said reflected waves; in which seismic data are acquired by triggering said seismic source with one or more repeats thus creating one or more disturbances and picking up said reflected waves using said sensors; - drones equipped with propulsion means; characterized in that : - during the acquisition of seismic data, said at least one cable is positioned in a measurement station in a stationary or pseudo-stationary manner, either relative to the aquatic medium, or relative to the bottom of the water; by keeping said at least one cable under tension with the aid of the drones attached to its respective two ends at a substantially constant depth greater than 5 m, the drones exerting a force in opposite directions to tension the cable; - the measurement operation is stopped; - on the one hand the cable, and on the other hand the seismic source are moved to another measurement station, and so on. - at least one submerged mobile seismic source able to create a disturbance transmitted through the aquatic medium in the form of waves able to be reflected on the bottom of the water and the different geological layers; - at least one cable of substantially zero buoyancy, provided with a plurality of sensors, able to collect said reflected waves; in which seismic data are acquired by triggering said seismic source with one or more repeats thus creating one or more disturbances and picking up said reflected waves using said sensors; - drones equipped with propulsion means; - during the acquisition of seismic data, said at least one cable is positioned in a measurement station in a stationary or pseudo-stationary manner, either relative to the aquatic medium, or relative to the bottom of the water; by keeping said at least one cable under tension with the aid of the drones attached to its respective two ends at a substantially constant depth greater than 5 m, the drones exerting a force in opposite directions to tension the cable; - the measurement operation is stopped; - on the one hand the cable, and on the other hand the seismic source are moved to another measurement station, and so on.
An information processing apparatus comprising: a light emission control part configured to control a light emitting part such that measurement data of a transient response of chlorophyll fluorescence of a plant is obtained, the light emitting part configured to emit a light beam to the plant; and a calculating part configured to calculate a quantum yield of photosynthesis of the plant by applying a calculation algorithm to the measurement data; wherein the calculation algorithm includes an algorithm to calculate the quantum yield of the photosynthesis from the measurement data, using a transient model that represents an electron transfer system of a photochemical reaction in the photosynthesis of the plant; characterized in that the light emission control part is configured to control the light emitting part to emit a measurement light beam with a light emission intensity to cause an intensity of the chlorophyll fluorescence to not substantially vary, followed by a first growing light beam with a higher light emission intensity than the measurement light beam to cause an intensity of the chlorophyll fluorescence to immediately increase and then to not substantially vary, followed by a second growing light beam with a higher light emission intensity than the first growing light beam to cause an intensity of the chlorophyll fluorescence to immediately increase. a light emission control part configured to control a light emitting part such that measurement data of a transient response of chlorophyll fluorescence of a plant is obtained, the light emitting part configured to emit a light beam to the plant; and a calculating part configured to calculate a quantum yield of photosynthesis of the plant by applying a calculation algorithm to the measurement data; wherein the calculation algorithm includes an algorithm to calculate the quantum yield of the photosynthesis from the measurement data, using a transient model that represents an electron transfer system of a photochemical reaction in the photosynthesis of the plant; characterized in that the light emission control part is configured to control the light emitting part to emit a measurement light beam with a light emission intensity to cause an intensity of the chlorophyll fluorescence to not substantially vary, followed by a first growing light beam with a higher light emission intensity than the measurement light beam to cause an intensity of the chlorophyll fluorescence to immediately increase and then to not substantially vary, followed by a second growing light beam with a higher light emission intensity than the first growing light beam to cause an intensity of the chlorophyll fluorescence to immediately increase.