mhurhangee/patent-ind-claim-en huggingface dataset:
A power converter comprising: a converter configured to convert a first AC power to a DC power; a DC reactor configured to smooth a direct current; an inverter configured to convert said DC power supplied from said converter via said DC reactor to a second AC power which is supplied to a load ; an AC voltage detector configured to detect a first AC voltage input to said converter and a second AC voltage output from said inverter ; and a control circuit configured to control said converter and said inverter on the basis of a detection result from said AC voltage detector , wherein each of said first AC voltage and said second AC voltage is a three-phase AC voltage, the frequency of said second AC voltage is variable, said load is a synchronous motor , said power converter is a thyristor starter for starting said synchronous motor , and, each of said converter and said inverter includes a plurality of thyristors (21-26 or 31-36), and wherein said control circuit is configured to generate a plurality of control signals (φ21-φ26) for controlling said plurality of thyristors (21-26) included in said converter on the basis of said first AC voltage, and to determine a DC voltage output from said converter on the basis of said plurality of control signals (φ21-φ26) and said first AC voltage. a converter configured to convert a first AC power to a DC power; a DC reactor configured to smooth a direct current; an inverter configured to convert said DC power supplied from said converter via said DC reactor to a second AC power which is supplied to a load ; an AC voltage detector configured to detect a first AC voltage input to said converter and a second AC voltage output from said inverter ; and a control circuit configured to control said converter and said inverter on the basis of a detection result from said AC voltage detector , wherein each of said first AC voltage and said second AC voltage is a three-phase AC voltage, the frequency of said second AC voltage is variable, said load is a synchronous motor , said power converter is a thyristor starter for starting said synchronous motor , and, each of said converter and said inverter includes a plurality of thyristors (21-26 or 31-36), and wherein said control circuit is configured to generate a plurality of control signals (φ21-φ26) for controlling said plurality of thyristors (21-26) included in said converter on the basis of said first AC voltage, and to determine a DC voltage output from said converter on the basis of said plurality of control signals (φ21-φ26) and said first AC voltage.
A device for actuating a discharge valve of a WC flush tank , having at least one pushbutton (23, 25, 26; 81), upon manual press-actuation of which the discharge valve moves into an open position in which a volume of flushing water can flow out of the discharge fitting of the WC flush tank , wherein the device has at least one control valve , which can be actuated with the pushbutton (23, 25, 26; 81) and which is arranged in a control line connected to a water supply network, wherein upon manual press-actuation of the pushbutton (23, 25, 26; 81), a water volume flow (m), with which the discharge valve can be activated, can be adjusted by means of the control valve , wherein the control valve has a lift-adjustable control piston in a valve housing , which can be adjusted by means of at least one user-operated pushbutton (23, 25, 26; 81) and which is spring-tensioned into a closed position, in which a control piston valve plate is in sealing contact with a valve seat fixed to the housing and closes a flow path through the control valve , and which control piston is moved into its open position along a button travel path (h 1 , h 2 , h 3 ) against the spring-tensioning force when the pushbutton (23, 25, 26; 81) is press-actuated, in which position the flow path through the control valve is unblocked, and is reset to its closed position under the action of the spring-tensioning force when the pressure on the pushbutton (23, 25, 26; 81) is released, characterized in that the device furthermore has a vacuum unit and that the length of the button travel path (h 1 , h 2 , h 3 ) correlates with the length of a reset time interval, within which the control piston is reset to its closed position after the pressure on the pushbutton is released, wherein within the reset time interval the water volume flow (m) passes through the vacuum unit and a vacuum is generated.
An injection mould, wherein the injection mould comprises, a base plate used to place a packaged chip to be injection moulded, wherein the packaged chip comprises a substrate and at least one of the chips fixed on a front surface of the substrate by a flip chip process, and the substrate has a gas hole penetrating through the substrate ; two or more gas ducts that extend in at least two intersected directions and connect with one another are formed in the base plate ; two ends of each one of the gas ducts are open and connect to exterior of the injection mould; in a direction perpendicular to a surface of the base plate , the gas ducts that extend in at least two different directions are respectively located at different depths in the base plate ; and at least one of the gas ducts is buried into the base plate , the gas duct is provided with a gas outlet used to connect with the gas hole of the substrate , and the gas outlet is located at the intersection of the different gas ducts, so that the intersected gas ducts connect with one another. a base plate used to place a packaged chip to be injection moulded, wherein the packaged chip comprises a substrate and at least one of the chips fixed on a front surface of the substrate by a flip chip process, and the substrate has a gas hole penetrating through the substrate ; two or more gas ducts that extend in at least two intersected directions and connect with one another are formed in the base plate ; two ends of each one of the gas ducts are open and connect to exterior of the injection mould; in a direction perpendicular to a surface of the base plate , the gas ducts that extend in at least two different directions are respectively located at different depths in the base plate ; and at least one of the gas ducts is buried into the base plate , the gas duct is provided with a gas outlet used to connect with the gas hole of the substrate , and the gas outlet is located at the intersection of the different gas ducts, so that the intersected gas ducts connect with one another.
A Laser Induced Breakdown Spectroscopy (LIBS) system comprising a laser source configured to emit a pulsed laser beam ; a cylindrical tubular container for retaining a sample pellet of a consolidated granular material, the container configured with opposing open ends ; a sample station configured to hold the tubular container orientated to present an exposed surface of the retained sample pellet towards the pulsed laser beam ; the sample station comprising an actuator having a piston configured to pass through one of the opposing open ends and moveable along a movement axis (M) between the open ends for coupling linear movement along the movement axis (M) to the sample pellet retained in the container and thereby present a portion (P) of an outer surface of the sample pellet previously constrained through contact with an inner surface of the tubular container as the exposed surface ; and focussing optics configured to focus the laser beam onto the exposed surface ; characterised in that the sample station further comprises a rotary drive mechanically connected to the cylindrical tubular container to impart a rotational motion thereto, the rotary drive and the actuator being configured to act in concert to present a plurality of spiral portions (P') of the outer surface as the exposed surface .
A method for data reception, performed by a receiver device, characterized by comprising the following steps: receiving (S210) a target Radio Link Control, RLC, Protocol Data Unit, PDU, from a sender device, the target RLC PDU comprising a header and a data domain, the header comprising only a fixed portion, and a length of the fixed portion being an integral multiple of 8 bits; when the fixed portion does not comprise a Sequence Number, SN, field, determining that the data domain of the target RLC PDU comprises only a complete RLC Service Data Unit, SDU, directly re-assembling (S220) the target RLC PDU into the complete RLC SDU, and delivering the RLC SDU to a higher layer; when the fixed portion comprises the SN field, determining that the data domain of the target RLC PDU comprises a cut segment of the complete RLC SDU, assembling (S220) the complete RLC SDU according to a value of the SN field, re-assembling, into the complete RLC SDU, the target RLC PDU with a previously received RLC PDU in which a previous SN field comprises the same value as the value of the SN field, and delivering the RLC SDU to the higher layer, wherein a length of the SN field in the target RLC PDU is independent of a transmission requirement for data carried in the cut segment of the complete RLC SDU. receiving (S210) a target Radio Link Control, RLC, Protocol Data Unit, PDU, from a sender device, the target RLC PDU comprising a header and a data domain, the header comprising only a fixed portion, and a length of the fixed portion being an integral multiple of 8 bits; when the fixed portion does not comprise a Sequence Number, SN, field, determining that the data domain of the target RLC PDU comprises only a complete RLC Service Data Unit, SDU, directly re-assembling (S220) the target RLC PDU into the complete RLC SDU, and delivering the RLC SDU to a higher layer; when the fixed portion comprises the SN field, determining that the data domain of the target RLC PDU comprises a cut segment of the complete RLC SDU, assembling (S220) the complete RLC SDU according to a value of the SN field, re-assembling, into the complete RLC SDU, the target RLC PDU with a previously received RLC PDU in which a previous SN field comprises the same value as the value of the SN field, and delivering the RLC SDU to the higher layer, wherein a length of the SN field in the target RLC PDU is independent of a transmission requirement for data carried in the cut segment of the complete RLC SDU.
A device for display of an indication of the time or derived from the time comprising: - a first display mobile unit including a first toothing , a second toothing and a first disk carrying digits intended to indicate the units of the indication of the time or derived from the time, - a second display mobile unit including a third toothing , a fourth toothing and a second disk carrying digits intended to indicate the tens of the indication of the time or derived from the time, and - a mechanism for driving the first and second mobile units, the mechanism including: ▪ a first command mobile unit including a fifth toothing adapted to cooperate by obstacle, in particular by meshing, with the first toothing and the third toothing, and ▪ a second command mobile unit including a sixth toothing adapted to cooperate by obstacle, in particular by meshing, with the second toothing and the fourth toothing. - a first display mobile unit including a first toothing , a second toothing and a first disk carrying digits intended to indicate the units of the indication of the time or derived from the time, - a second display mobile unit including a third toothing , a fourth toothing and a second disk carrying digits intended to indicate the tens of the indication of the time or derived from the time, and - a mechanism for driving the first and second mobile units, the mechanism including: ▪ a first command mobile unit including a fifth toothing adapted to cooperate by obstacle, in particular by meshing, with the first toothing and the third toothing, and ▪ a second command mobile unit including a sixth toothing adapted to cooperate by obstacle, in particular by meshing, with the second toothing and the fourth toothing. ▪ a first command mobile unit including a fifth toothing adapted to cooperate by obstacle, in particular by meshing, with the first toothing and the third toothing, and ▪ a second command mobile unit including a sixth toothing adapted to cooperate by obstacle, in particular by meshing, with the second toothing and the fourth toothing.
A compound 4,4,4-trifluoro-N-[ -2-[[ -5-(2-hydroxyethyl)-6-oxo-7H-pyrido[2,3-d] benzazepin-7-yl]amino]-1-methyl-2-oxo-ethyl]butanamide, or a pharmaceutically acceptable salt or hydrate thereof for use in a method of treating ovarian cancer wherein the method comprises administering 4,4,4-trifluoro-N-[ -2-[[ -5-(2-hydroxyethyl)-6-oxo-7H-pyrido[2,3-d] benzazepin-7-yl]amino]-1-methyl-2-oxoethyl]butanamide, or a pharmaceutically acceptable salt or hydrate thereof in combination with 8-[5-(1-hydroxy-1-methylethyl)pyridin-3-yl]-1-[ -2-methoxypropyl]-3-methyl-1,3-dihydro-2H-imidazo[4,5-c]quinolin-2-one, or a pharmaceutically acceptable salt thereof.
A control device of a hybrid vehicle , the hybrid vehicle including an engine , an engine starter to start the engine , a low-voltage battery to supply the engine starter with electric power, and a high-voltage system with a first motor generator , the hybrid vehicle being configured to travel using the engine and the first motor generator as driving sources, the control device comprising: a start control unit to perform an initial system-start process of initially starting a system of the hybrid vehicle , characterized in that : in the initial system-start process, the start control unit : determines whether to be impossible to complete a start of the engine after starting the travelling, based on a voltage of the low-voltage battery ; performs an HEV start process of starting the engine to thereafter start the high-voltage system., if it determines to be impossible to complete the start of the engine after starting the travelling; and otherwise performs an EV start process of starting the high-voltage system without starting the engine . a start control unit to perform an initial system-start process of initially starting a system of the hybrid vehicle , characterized in that : in the initial system-start process, the start control unit : determines whether to be impossible to complete a start of the engine after starting the travelling, based on a voltage of the low-voltage battery ; performs an HEV start process of starting the engine to thereafter start the high-voltage system., if it determines to be impossible to complete the start of the engine after starting the travelling; and otherwise performs an EV start process of starting the high-voltage system without starting the engine . determines whether to be impossible to complete a start of the engine after starting the travelling, based on a voltage of the low-voltage battery ; performs an HEV start process of starting the engine to thereafter start the high-voltage system., if it determines to be impossible to complete the start of the engine after starting the travelling; and otherwise performs an EV start process of starting the high-voltage system without starting the engine .
Method for assessing the welding current intensity (a1) applied in the electric resistance seam welding of overlap seams of successive container bodies (1-11) of a production series, characterized in that during production a first series of successive container bodies (1-5) is welded with a predetermined, substantially constant, welding current intensity (a1) by means of a control of the resistance welding machine, in that after this series of container bodies (1-5) at least one individual container body from the production series is welded by the controller with a welding current intensity which decreases or increases during the seam welding (30; 31, 32) and that during this welding the electrical energy is determined several times and/or the temperature of the welding seam is determined several times, and that on the basis of the determined electrical energy values and/or the determined temperature values it is determined, based on the limit values for electric energy and/or the limit values for temperature, from which welding current intensity the welding of the individual container body has been performed too cold and from which welding current intensity the welding has been performed too hot and that on the basis of this determination a preferred range for the welding current intensity is determined within these limits.
A fuel tank inerting system for an aircraft comprising: a catalytic heat exchanger comprising a first flow path and a second flow path for heat exchange with the first flow path; and a refrigerant circuit comprising at least the second flow path so that during use refrigerant in the refrigerant circuit is in heat exchange with the first flow path and cools the catalysed reaction therein; wherein the refrigerant circuit comprises a heat sink arranged to cool refrigerant in the refrigerant circuit during use; the fuel tank inerting system comprising a fuel tank, wherein the heat sink is arranged to heat the fuel tank during use. a catalytic heat exchanger comprising a first flow path and a second flow path for heat exchange with the first flow path; and a refrigerant circuit comprising at least the second flow path so that during use refrigerant in the refrigerant circuit is in heat exchange with the first flow path and cools the catalysed reaction therein; wherein the refrigerant circuit comprises a heat sink arranged to cool refrigerant in the refrigerant circuit during use; the fuel tank inerting system comprising a fuel tank, wherein the heat sink is arranged to heat the fuel tank during use.
An apparatus for producing a plasma having a three dimensional shape comprising: a chamber filled with a gas; a first energy source operable to provide energy to ionize the gas in the chamber to form a plasma; a plurality of sensors operable to measure one or more properties of the plasma; and a plurality of acoustic sources capable of producing acoustic waves , wherein the acoustic waves produced by each of the plurality of acoustic sources interact to create a standing wave pattern forming a three dimensional shape in the plasma; and a second energy source capable of applying non-ionizing electromagnetic radiation to the plasma, wherein the non-ionizing electromagnetic radiation is guided by the three dimensional shape. a chamber filled with a gas; a first energy source operable to provide energy to ionize the gas in the chamber to form a plasma; a plurality of sensors operable to measure one or more properties of the plasma; and a plurality of acoustic sources capable of producing acoustic waves , wherein the acoustic waves produced by each of the plurality of acoustic sources interact to create a standing wave pattern forming a three dimensional shape in the plasma; and a second energy source capable of applying non-ionizing electromagnetic radiation to the plasma, wherein the non-ionizing electromagnetic radiation is guided by the three dimensional shape.
An air filter element having a tubular shape defining an inner space , said filter element having a first end and a second end located opposite to said first end in relation to a longitudinal direction of said filter element , a first outlet located in said first end and in communication with said inner space and a second outlet located in said second end and in communication with said inner space , wherein the first outlet has a first centre axis and the second outlet has a second centre axis , wherein said first centre axis and said second centre axis are parallel to one another, wherein the first centre axis and said second centre axis are arranged at an offset position in relation to one another in a direction perpendicular to the extension of the first and second centre axes, wherein a cross-sectional area of the second outlet is smaller than a cross-sectional area of the first outlet .
A pH-switchable carrier composition comprising: a plurality of bioactive glass particles, said glass particles comprising, expressed in terms of weight percent on the oxide basis: from 30 % to 70 % B 2 O 3 , from 5 % to 25 % CaO from 1 % to 10 % P 2 O 5 ; from 0 % to 5 % SiO 2 ; from 0 % to 15 % Al 2 O 3 ; from 0 % to 10 % MgO; from 0 % to 10 % ZrO 2 ; from 0 % to 5 % F; and from 0 % to 20 % R 2 O, wherein R 2 O comprises from 0 % to 20 % K 2 O and from 0 % to 10 % Na 2 O; wherein each of the bioactive glass particles is optionally at least partially coated with a surface modifier; wherein the bioactive glass particles, with or without, the surface modifier can bind to a nucleic acid compound upon contact at pH in the range of 7 to 11, and exhibit controlled release of the nucleic acid compound at pH in the range of 5 to 6. from 30 % to 70 % B 2 O 3 , from 5 % to 25 % CaO from 1 % to 10 % P 2 O 5 ; from 0 % to 5 % SiO 2 ; from 0 % to 15 % Al 2 O 3 ; from 0 % to 10 % MgO; from 0 % to 10 % ZrO 2 ; from 0 % to 5 % F; and from 0 % to 20 % R 2 O, wherein R 2 O comprises from 0 % to 20 % K 2 O and from 0 % to 10 % Na 2 O; wherein each of the bioactive glass particles is optionally at least partially coated with a surface modifier; wherein the bioactive glass particles, with or without, the surface modifier can bind to a nucleic acid compound upon contact at pH in the range of 7 to 11, and exhibit controlled release of the nucleic acid compound at pH in the range of 5 to 6.