mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine, the wind turbine comprising: a rotor having a plurality of blades; and a controller, characterised in that: the controller (100 is arranged to control independently each of the plurality of blades and/or one or more components of each blade independently of other of the blades when the speed of wind acting on the blades is above a cut-out wind speed (Vmax) and the wind turbine is not producing power, in order to reduce mechanical load experienced by at least a part of the wind turbine. a rotor having a plurality of blades; and a controller, characterised in that: the controller (100 is arranged to control independently each of the plurality of blades and/or one or more components of each blade independently of other of the blades when the speed of wind acting on the blades is above a cut-out wind speed (Vmax) and the wind turbine is not producing power, in order to reduce mechanical load experienced by at least a part of the wind turbine. the controller (100 is arranged to control independently each of the plurality of blades and/or one or more components of each blade independently of other of the blades when the speed of wind acting on the blades is above a cut-out wind speed (Vmax) and the wind turbine is not producing power, in order to reduce mechanical load experienced by at least a part of the wind turbine.
An outer loop power controlling method for a high-speed physical downlink shared channel, HS-PDSCH, comprising: a high speed downlink packet access, HSDPA, scheduler classifying (200, 301, 401) all channel quality indicators, CQI, that might be reported by user equipment, and each type of CQIs being configured respectively with a corresponding high-speed downlink shared channel, HSDSCH, outer loop adjustment unit value K and an outer loop adjustment value ( swAdjCqi), the swAdjCqi corresponding to each type of CQIs being (201, 302, 402) initialized to be 0 respectively; and when said HSDPA scheduler receives an acknowledgement response, ACK, returned from said UE via a high-speed dedicated physical control channel, HSDPCCH, adjusting (202, 303, 403) the swAdjCqi corresponding to CQI on which a scheduling package corresponding to the ACK is based by J upward; when said HSDPA scheduler receives a negative acknowledgement response, NACK, returned by the UE via the HSDPCCH, adjusting (202, 303, 403) the swAdjCqi corresponding to CQI on which the scheduling package corresponding to the NACK is based by J*K downward, said HSDPA scheduler selecting (203, 304, 404) a size of a transport block used in a next scheduling according to the adjusted swAdjCqi, wherein J is an integer. a high speed downlink packet access, HSDPA, scheduler classifying (200, 301, 401) all channel quality indicators, CQI, that might be reported by user equipment, and each type of CQIs being configured respectively with a corresponding high-speed downlink shared channel, HSDSCH, outer loop adjustment unit value K and an outer loop adjustment value ( swAdjCqi), the swAdjCqi corresponding to each type of CQIs being (201, 302, 402) initialized to be 0 respectively; and when said HSDPA scheduler receives an acknowledgement response, ACK, returned from said UE via a high-speed dedicated physical control channel, HSDPCCH, adjusting (202, 303, 403) the swAdjCqi corresponding to CQI on which a scheduling package corresponding to the ACK is based by J upward; when said HSDPA scheduler receives a negative acknowledgement response, NACK, returned by the UE via the HSDPCCH, adjusting (202, 303, 403) the swAdjCqi corresponding to CQI on which the scheduling package corresponding to the NACK is based by J*K downward, said HSDPA scheduler selecting (203, 304, 404) a size of a transport block used in a next scheduling according to the adjusted swAdjCqi, wherein J is an integer.
A surgical suctioning device for removing viscous or semi-viscous material from an individual using suction provided by a vacuum source, the device comprising: a vacuum source; a tube having a distal opening, a proximal opening in pneumatic communication in use with the vacuum source, and a first stop at a first lengthwise position on an inner wall of the tube; an agitator rotatably disposed in the tube, the agitator having a helical blade, a first end, and a second end, and the first end is configured to engage the first stop such that the agitator is rotatable about the axis of the helical blade while being at a substantially fixed position along the length of the tube; characterized in that the agitator is configured to rotate by the flow of fluid through the tube caused by application of a vacuum, wherein the vacuum source is configured to apply the vacuum to rotate the agitator so as to break-up solid matter suctioned into the tube. a vacuum source; a tube having a distal opening, a proximal opening in pneumatic communication in use with the vacuum source, and a first stop at a first lengthwise position on an inner wall of the tube; an agitator rotatably disposed in the tube, the agitator having a helical blade, a first end, and a second end, and the first end is configured to engage the first stop such that the agitator is rotatable about the axis of the helical blade while being at a substantially fixed position along the length of the tube; characterized in that the agitator is configured to rotate by the flow of fluid through the tube caused by application of a vacuum, wherein the vacuum source is configured to apply the vacuum to rotate the agitator so as to break-up solid matter suctioned into the tube.
A compound having Formula I: wherein: R 1, R 2, R 3 and R 4 are the same or different and are selected from the group consisting of H, D, and alkyl, where R 1 and R 2 groups or R 3 and R 4 groups may be joined together to form a 5- or 6-membered aliphatic ring; R 5 and R 6 are the same or different and are selected from the group consisting of D, silyl groups, and aromatic groups selected from m-phenyl, o-phenyl, p-phenyl, m-carbazolyl, and p-carbazolyl wherein the aromatic groups are further substituted with D or silyl groups; R 7 is the same or different at each occurrence and is selected from the group consisting of D, alkyl groups, silyl groups, phenyl, and biphenyl, or two adjacent R 7 groups can join together to form a naphthyl or fluorenyl group; a and b are the same or different and are an integer from 1-3; c and d are the same or different and are an integer from 1-5; f, g, h, and i, are the same or different at each occurrence and are an integer from 0-4; and e and j are the same or different at each occurrence and are an integer from 0-5. R 1, R 2, R 3 and R 4 are the same or different and are selected from the group consisting of H, D, and alkyl, where R 1 and R 2 groups or R 3 and R 4 groups may be joined together to form a 5- or 6-membered aliphatic ring; R 5 and R 6 are the same or different and are selected from the group consisting of D, silyl groups, and aromatic groups selected from m-phenyl, o-phenyl, p-phenyl, m-carbazolyl, and p-carbazolyl wherein the aromatic groups are further substituted with D or silyl groups; R 7 is the same or different at each occurrence and is selected from the group consisting of D, alkyl groups, silyl groups, phenyl, and biphenyl, or two adjacent R 7 groups can join together to form a naphthyl or fluorenyl group; a and b are the same or different and are an integer from 1-3; c and d are the same or different and are an integer from 1-5; f, g, h, and i, are the same or different at each occurrence and are an integer from 0-4; and e and j are the same or different at each occurrence and are an integer from 0-5.
Use of acrylic acid or acrylic acid anhydride for hydrophilizing surfaces of a body, the use comprising: - pre-coating by PECVD the surfaces using a high frequency plasma, wherein the pre-coating by PECVD takes less than 10 minutes; and then - follow-up coating the pre-coated surfaces of the body, characterized in that the pre-coating uses a high frequency plasma generated from a gas mixture composed of an inert gas and a first gas formed of biocompatible, polymerizable, carboxy group-containing monomers, and in that the follow-up coating is made by CVD without plasma action using a second gas substantially consisting of the acrylic acid or acrylic acid anhydride monomers. - pre-coating by PECVD the surfaces using a high frequency plasma, wherein the pre-coating by PECVD takes less than 10 minutes; and then - follow-up coating the pre-coated surfaces of the body, characterized in that the pre-coating uses a high frequency plasma generated from a gas mixture composed of an inert gas and a first gas formed of biocompatible, polymerizable, carboxy group-containing monomers, and in that the follow-up coating is made by CVD without plasma action using a second gas substantially consisting of the acrylic acid or acrylic acid anhydride monomers.
Device for cleaning a melt of a hot dip coating system, wherein the device comprises a cleaning unit for separating off solid particles from the melt, a supply line which leads to the cleaning unit and can be brought into operative connection with a dip bath of the hot dip coating system, and a return line, which leads from the cleaning unit to the dip bath, for the melt cleaned by means of the cleaning unit, characterized in that the cleaning unit comprises a hydrocyclone, in that an end of the supply line, which end faces away from the cleaning unit, is arranged in a lower region of the dip bath, in that the device comprises an emptying unit for transporting away the solid particles separated off by the cleaning unit, and in that the device comprises a pump unit for conveying the melt through the supply line to the cleaning unit, wherein the pump unit comprises an electromagnetic pump and wherein the emptying unit comprises a molding unit arranged below the underflow opening, having at least one mold for molding pigs from the separated-off solid particles.
A method for removing an electromagnetic module (25, 35) from an electrical machine having a rotor and a stator, the electrical machine comprising a plurality of electromagnetic modules (25, 35, 135) having an electromagnetic material (81, 82, 181), the electromagnetic material (81, 82, 181) being one of a permanent magnet and a stator winding (81, 181), the electromagnetic modules (25, 35, 135) comprising: a base and a support extending from the base and supporting the electromagnetic material (81, 82, 181), the base comprising: a bottom surface; a first side surface comprising an axially extending groove defining a cooling channel with an axially extending groove of a first side surface of an adjacent electromagnetic module; the method comprising: inserting a rod in the cooling channel formed by the groove of the electromagnetic module to be removed and the groove of an adjacent electromagnetic module; releasing the electromagnetic module to be removed from a structure of the electrical machine; and sliding the electromagnetic module to be removed along the rod. a base and a support extending from the base and supporting the electromagnetic material (81, 82, 181), the base comprising: a bottom surface; a first side surface comprising an axially extending groove defining a cooling channel with an axially extending groove of a first side a bottom surface; a first side surface comprising an axially extending groove defining a cooling channel with an axially extending groove of a first side surface of an adjacent electromagnetic module; inserting a rod in the cooling channel formed by the groove of the electromagnetic module releasing the electromagnetic module to be removed from a structure of the electrical machine; and sliding the electromagnetic module to be removed along the rod.
A processor comprising: a core comprising: a fetch circuit to fetch a first instruction, a second instruction, and a third instruction, a decoder circuit coupled to the fetch circuit to decode the first instruction into a first set of at least one micro-operation, and an execution circuit to execute micro-operations; a cache (234, 236) having a section to store context information from the core when the core is transitioned to a power state that shuts off voltage to the core and unused for storing the context information at runtime; and a microcode sequencer of the core coupled to the fetch circuit and comprising a patch memory and a read-only memory that stores a plurality of micro-operations, wherein the microcode sequencer sends, to the execution circuit, a second set of at least one micro-operation from the plurality of micro-operations stored in the read-only memory for the second instruction received from the fetch circuit; characterized in that the microcode sequencer causes, for the third instruction received from the fetch circuit, a third set of at least one micro-operation to be loaded into the patch memory from the section of the cache (234, 236), and sends, to the execution circuit, the third set of at least one micro-operation from the patch memory. a fetch circuit to fetch a first instruction, a second instruction, and a third instruction, a decoder circuit coupled to the fetch circuit to decode the first instruction into a first set of at least one micro-operation, and an execution circuit to execute micro-operations; a cache (234, 236) having a section to store context information from the core when the core is transitioned to a power state that shuts off voltage to the core and unused for storing the context information at runtime; and a microcode sequencer of the core coupled to the fetch circuit and comprising a patch memory and a read-only memory that stores a plurality of micro-operations, wherein the microcode sequencer sends, to the execution circuit, a second set of at least one micro-operation from the plurality of micro-operations stored in the read-only memory for the second instruction received from the fetch circuit; characterized in that the microcode sequencer causes, for the third instruction received from the fetch circuit, a third set of at least one micro-operation to be loaded into the patch memory from the section of the cache (234, 236), and sends, to the execution circuit, the third set of at least one micro-operation from the patch memory.
An image processing apparatus for detecting an object comprising: an extracting unit configured to obtain a n th frame parallax image having pixel values corresponding to a distance of an object in a plurality of captured images obtained by capturing the object with a stereo camera on a road surface, so as to extract pixel values from the n th frame parallax image; a first generating unit configured to generate vertical direction distribution data indicating a frequency distribution of distance values in a vertical direction of the n th frame parallax image based on the extracted pixel values; a calculating unit configured to calculate a height of the road surface in the n th frame parallax image based on the generated vertical direction distribution data of the n th frame parallax image; and a second generating unit (141, 142) configured to generate horizontal direction distribution data indicating a frequency distribution of distance values in a horizontal direction of the n th frame parallax image based on the extracted pixel values and the calculated height of the road surface corresponding to the (n-1) th frame, wherein the first generating unit is further configured to generate vertical direction distribution data corresponding to the n th frame simultaneously with the generation of the horizontal direction data corresponding to the n th frame. an extracting unit configured to obtain a n th frame parallax image having pixel values corresponding to a distance of an object in a plurality of captured images obtained by capturing the object with a stereo camera on a road surface, so as to extract pixel values from the n th frame parallax image; a first generating unit configured to generate vertical direction distribution data indicating a frequency distribution of distance values in a vertical direction of the n th frame parallax image based on the extracted pixel values; a calculating unit configured to calculate a height of the road surface in the n th frame parallax image based on the generated vertical direction distribution data of the n th frame parallax image; and a second generating unit (141, 142) configured to generate horizontal direction distribution data indicating a frequency distribution of distance values in a horizontal direction of the n th frame parallax image based on the extracted pixel values and the calculated height of the road surface corresponding to the (n-1) th frame, wherein the first generating unit is further configured to generate vertical direction distribution data corresponding to the n th frame simultaneously with the generation of the horizontal direction data corresponding to the n th frame.
An inkjet recording device having a recording head configured to eject ink droplets and configured to make a record on a recording medium by ejecting the ink droplets from the recording head, the inkjet recording device comprising: a movement unit configured to move the recording medium or a placement part configured to place the recording medium thereon; a detection unit configured to continuously detect movement of the recording medium or the placement part; and a control unit configured to control the movement unit and the detection unit, characterised in that the detection unit includes a gripping unit having a gripping part configured to grip the recording medium or the placement part and a detection part configured to continuously detect movement of the gripping unit, wherein the gripping unit is configured to move in conjunction with the movement of the recording medium or the placement part by gripping the recording medium or the placement part by the gripping part, and wherein the control unit is configured to control the movement of the movement unit on the basis of a detection result by the detection part when the gripping unit is moved. a movement unit configured to move the recording medium or a placement part configured to place the recording medium thereon; a detection unit configured to continuously detect movement of the recording medium or the placement part; and a control unit configured to control the movement unit and the detection unit, characterised in that the detection unit includes a gripping unit having a gripping part configured to grip the recording medium or the placement part and a detection part configured to continuously detect movement of the gripping unit, wherein the gripping unit is configured to move in conjunction with the movement of the recording medium or the placement part by gripping the recording medium or the placement part by the gripping part, and wherein the control unit is configured to control the movement of the movement unit on the basis of a detection result by the detection part when the gripping unit is moved.
A magnetic tunnel junction element including a ferromagnetic layer with at least two interfaces that produce interfacial perpendicular anisotropy which dominates a shape anisotropy field of the FL such that a magnetization direction is oriented out of the plane of the FL, comprising: (a) a tunnel barrier layer; (b) the ferromagnetic layer that has a first interface with said tunnel barrier layer and a second interface with a perpendicular Hk enhancing layer formed on a surface of the ferromagnetic layer that is opposite a surface adjoining the tunnel barrier layer, the ferromagnetic layer comprises a glassing agent made of Mo or W and having a first concentration that inhibits crystallization and maintains an amorphous character in a middle portion thereof, and a second concentration less than the first concentration in portions and of the ferromagnetic layer proximate to the first and second interfaces; and (c) the perpendicular Hk enhancing layer, characterized in that the tunnel barrier layer and the perpendicular Hk enhancing layer are made of MgO and the ferromagnetic layer is one of CoFe, CoFeB, CoB, FeB or CoFeBNi. (a) a tunnel barrier layer; (b) the ferromagnetic layer that has a first interface with said tunnel barrier layer and a second interface with a perpendicular Hk enhancing layer formed on a surface of the ferromagnetic layer that is opposite a surface adjoining the tunnel barrier layer, the ferromagnetic layer comprises a glassing agent made of Mo or W and having a first concentration that inhibits crystallization and maintains an amorphous character in a middle portion thereof, and a second concentration less than the first concentration in portions and of the ferromagnetic layer proximate to the first and second interfaces; and (c) the perpendicular Hk enhancing layer,
A compound of formula or a salt thereof: wherein R 1 is pyridine or pyrimidine each of which is substituted one or two times with a group selected from F, haloC 1 -C 3 alkyl and haloC 1 -C 3 alkoxy; R 2 is selected from hydrogen and C 1 -C 4 alkyl; R 3 is C 1 -C 6 alkyl; and R 4 is selected from F, haloC 1 -C 4 alkyl and haloC 1 -C 6 alkoxy: R 1 is pyridine or pyrimidine each of which is substituted one or two times with a group selected from F, haloC 1 -C 3 alkyl and haloC 1 -C 3 alkoxy; R 2 is selected from hydrogen and C 1 -C 4 alkyl; R 3 is C 1 -C 6 alkyl; and R 4 is selected from F, haloC 1 -C 4 alkyl and haloC 1 -C 6 alkoxy:
Telechelic polymer of formula Z 1 -POLY-Z 2 in which the term "POLY" denotes a polymer chain comprising units of a 1,3-diene, ethylene units and cyclic units, 1,2-cyclohexane units of formula, Z 1 and Z 2 denoting a group containing a function, Z 1 and Z 2 being identical, which polymer has a macrostructure defined by a dispersity of less than 1.5 or by a number-average molar mass of greater than 10 000 g/mol. Z 1 and Z 2 denoting a group containing a function, Z 1 and Z 2 being identical, which polymer has a macrostructure defined by a dispersity of less than 1.5 or by a number-average molar mass of greater than 10 000 g/mol.