mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a wind turbine , and - the wind turbine has an aerodynamic rotor with a rotor hub and with rotor blades of which the blade angle can be adjusted, and - the aerodynamic rotor can be adjusted in respect of its azimuth direction, and the method comprises the steps of - detecting a storm situation in which the prevailing wind is so strong that the wind turbine is moved to a coasting mode for self-protection purposes, - orienting the rotor in respect of its azimuth position into a low-loading orientation in relation to the wind, in which orientation the wind turbine is subjected to as little loading as possible by the wind from a main wind direction, - detecting at least one loading (L M ) which is caused by a gust of wind and acts on the rotor, and - adjusting at least one of the rotor blades in respect of its blade angle such that the at least one rotor blade is subjected to as little loading as possible by the causative gust of wind, characterized in that - the adjustment of the at least one rotor blade in respect of its blade angle is first performed, when the causative gust of wind has a wind speed which lies above an average wind speed of the prevailing wind at least by a predetermined wind speed difference, and - eliminating a safety check, which limits the adjustment of the at least one rotor blade such that each rotor blade can assume both greater and also smaller blade angles than the feathered position, depending on the gust of wind detected. - the wind turbine has an aerodynamic rotor with a rotor hub and with rotor blades of which the blade angle can be adjusted, and - the aerodynamic rotor can be adjusted in respect of its azimuth direction, and the method comprises the steps of - detecting a storm situation in which the prevailing wind is so strong that the wind turbine is moved to a coasting mode for self-protection purposes, - orienting the rotor in respect of its azimuth position into a low-loading orientation in relation to the wind, in which orientation the wind turbine is subjected to as little loading as possible by the wind from a main wind direction, - detecting at least one loading (L M ) which is caused by a gust of wind and acts on the rotor, and - adjusting at least one of the rotor blades in respect of its blade angle such that the at least one rotor blade is subjected to as little loading as possible by the causative gust of wind, characterized in that - the adjustment of the at least one rotor blade in respect of its blade angle is first performed, when the causative gust of wind has a wind speed which lies above an average wind speed of the prevailing wind at least by a predetermined wind speed difference, and - eliminating a safety check, which limits the adjustment of the at least one rotor blade such that each rotor blade can assume both greater and also smaller blade angles than the feathered position, depending on the gust of wind detected.
A transduction method, comprising incubating, in an internal cavity of a centrifugal chamber, an input composition comprising cells and viral particles containing a recombinant viral vector, wherein: the centrifugal chamber comprises: an end wall, a substantially rigid side wall extending from said end wall, and at least one opening, wherein at least a portion of said side wall surrounds said internal cavity and said at least one opening is capable of permitting intake of liquid into said internal cavity and expression of liquid from said cavity; and a movable member capable of moving within the chamber to vary the internal volume of the internal cavity, whereby the internal cavity is a cavity of variable volume defined by said end wall, said substantially rigid side wall, and said movable member; the centrifugal chamber is rotatable around an axis of rotation and is rotating around said axis of rotation during at least a portion of the incubation; and the method generates an output composition comprising a plurality of the cells transduced with the viral vector. the centrifugal chamber comprises: an end wall, a substantially rigid side wall extending from said end wall, and at least one opening, wherein at least a portion of said side wall surrounds said internal cavity and said at least one opening is capable of permitting intake of liquid into said internal cavity and expression of liquid from said cavity; and a movable member capable of moving within the chamber to vary the internal volume of the internal cavity, whereby the internal cavity is a cavity of variable volume defined by said end wall, said substantially rigid side wall, and said movable member; an end wall, a substantially rigid side wall extending from said end wall, and at least one opening, wherein at least a portion of said side wall surrounds said internal cavity and said at least one opening is capable of permitting intake of liquid into said internal cavity and expression of liquid from said cavity; and a movable member capable of moving within the chamber to vary the internal volume of the internal cavity, whereby the internal cavity is a cavity of variable volume defined by said end wall, said substantially rigid side wall, and said movable member; the centrifugal chamber is rotatable around an axis of rotation and is rotating around said axis of rotation during at least a portion of the incubation; and the method generates an output composition comprising a plurality of the cells transduced with the viral vector.
A data communication method, comprising: communicating, by a terminal , first semi-persistent scheduling, SPS, data on first time resource within a time unit, wherein the time unit is a time slot, the first time resource is not overlapped with a second time resource within the time unit, the second time resource is configured for the terminal to communicate second dynamic scheduling, DS, data, the first data is transmitted at a transmission time interval, TTI, smaller than or equal to a length of the time unit, and the second data is transmitted at a TTI smaller than or equal to the length of the time unit.
A positive electrode active material, comprising bulk particles and an element M 1 -containing oxide coating layer applied on an exterior surface of the bulk particle, wherein the bulk particle comprises a nickel-containing lithium composite oxide; bulk phases of the bulk particles are uniformly doped with element M 2 ; and a surface layer of the bulk particle is an exterior doped layer doped with element M 3 , wherein element M 1 and element M 3 each are independently selected from one or more of Mg, Al, Ca, Ce, Ti, Zr, Zn, Y, and B, wherein element M 1 and element M 3 are the same; and element M 2 comprises one or more of Si, Ti, Cr, Mo, V, Ge, Se, Zr, Nb, Ru, Rh, Pd, Sb, Te, Ce, and W; wherein the nickel-containing lithium composite oxide is a compound represented by formula 1, Li 1+ a [Ni x Co y Mn z M 2 b M 3 d ]O 2- p X p formula 1 in the formula 1, X is selected from one or more of F, N, P, and S, 0.5≤x<1, 0<y<0.3; 0<z<0.3, -0.2< a <0.2, 0<b<0.2, 0< d <0.2, 0≤ p< 0.2, x + y + z + b + d =1 . bulk phases of the bulk particles are uniformly doped with element M 2 ; and a surface layer of the bulk particle is an exterior doped layer doped with element M 3 , wherein element M 1 and element M 3 each are independently selected from one or more of Mg, Al, Ca, Ce, Ti, Zr, Zn, Y, and B, wherein element M 1 and element M 3 are the same; and element M 2 comprises one or more of Si, Ti, Cr, Mo, V, Ge, Se, Zr, Nb, Ru, Rh, Pd, Sb, Te, Ce, and W; wherein the nickel-containing lithium composite oxide is a compound represented by formula 1, Li 1+ a [Ni x Co y Mn z M 2 b M 3 d ]O 2- p X p formula 1 in the formula 1, X is selected from one or more of F, N, P, and S, 0.5≤x<1, 0<y<0.3; 0<z<0.3, -0.2< a <0.2, 0<b<0.2, 0< d <0.2, 0≤ p< 0.2, x + y + z + b + d =1 .
A method for supporting X2 handover between a source home enhanced nodeB, HeNB, and a target HeNB by an HeNB gateway, GW, , the method characterized by comprising: transmitting , to the source HeNB , an identifier of a mobile management entity, MME, serving a user equipment, UE, ; receiving , from the target HeNB , a path switch request message including the identifier of the MME ; and transmitting the path switch request message to the MME based on the identifier of the MME . transmitting , to the source HeNB , an identifier of a mobile management entity, MME, serving a user equipment, UE, ; receiving , from the target HeNB , a path switch request message including the identifier of the MME ; and transmitting the path switch request message to the MME based on the identifier of the MME .
A method for preparing shiitake mushrooms with an increased vitamin D2 content comprising: a first step of aging shiitake mushrooms, wherein the first step is to store the shiitake mushrooms at 5°C for 1 day; a second step of aging the aged shiitake mushrooms, wherein the second step is to store the aged shiitake mushrooms at 15°C for 3 days; a third step of chopping the aged shiitake mushrooms; a fourth step of irradiating the chopped shiitake mushrooms with UV-B; a fifth step of thermally treating the shiitake mushroom pieces irradiated with UV-B; and a sixth step of crushing the thermally treated shiitake mushroom pieces, wherein the chopped shiitake mushrooms have lengths of 3 mm or less in width, length and height, respectively, and the thermally treatment is performed at 60°C for 24 hours. a first step of aging shiitake mushrooms, wherein the first step is to store the shiitake mushrooms at 5°C for 1 day; a second step of aging the aged shiitake mushrooms, wherein the second step is to store the aged shiitake mushrooms at 15°C for 3 days; a third step of chopping the aged shiitake mushrooms; a fourth step of irradiating the chopped shiitake mushrooms with UV-B; a fifth step of thermally treating the shiitake mushroom pieces irradiated with UV-B; and a sixth step of crushing the thermally treated shiitake mushroom pieces, wherein the chopped shiitake mushrooms have lengths of 3 mm or less in width, length and height, respectively, and the thermally treatment is performed at 60°C for 24 hours.
A method, to allocate subscriber traffic, comprising: configuring a first instantiation of a first network function to provide a first type of security; configuring a second instantiation of the first network function to provide a second type of security that is different than the first type of security; and allocating at least some of the subscriber traffic to the first instantiation, based on security needs of a subscriber and the first type of security and the second type of security. configuring a first instantiation of a first network function to provide a first type of security; configuring a second instantiation of the first network function to provide a second type of security that is different than the first type of security; and allocating at least some of the subscriber traffic to the first instantiation, based on security needs of a subscriber and the first type of security and the second type of security.
A refrigerant based system for regulating a medium temperature of an enclosed space comprising, an exterior unit that includes: at least one compressor ; an interior unit that connects to said exterior unit by a pair of circulation pipes , and that includes: a heat exchanger ; a heat exchanger temperature sensor adapted for measuring a heat exchanger temperature; a microprocessor for controlling said compressor ; a medium temperature sensor adapted for measuring said medium temperature; and a computer-readable storage medium encoded with computer-readable instruction for causing said microprocessor to: measure, by said medium temperature sensor , said medium temperature; and measure, by said heat exchanger temperature sensor , said heat exchanger temperature; characterized in that said computer-readable storage medium is encoded with said computer-readable instructions that cause said microprocessor to: compare continuously a newly measured heat exchanger temperature with a previously measured heat exchanger temperature; determine said previously measured heat exchanger temperature as a minimum heat exchanger temperature if said newly measured heat exchanger temperature is higher or equal to said previously measured heat exchanger temperature; turn off said compressor if: said medium temperature reaches a first predetermined value; said compressor operates for a predetermined period of operation time; said heat exchanger temperature reaches a value below a compressor control temperature; and said minimum heat exchanger temperature is determined. a heat exchanger ; a heat exchanger temperature sensor adapted for measuring a heat exchanger temperature; a microprocessor for controlling said compressor ; a medium temperature sensor adapted for measuring said medium temperature; and a computer-readable storage medium encoded with computer-readable instruction for causing said microprocessor to: measure, by said medium temperature sensor , said medium temperature; and measure, by said heat exchanger temperature sensor , said heat exchanger temperature; measure, by said medium temperature sensor , said medium temperature; and measure, by said heat exchanger temperature sensor , said heat exchanger temperature; compare continuously a newly measured heat exchanger temperature with a previously measured heat exchanger temperature; determine said previously measured heat exchanger temperature as a minimum heat exchanger temperature if said newly measured heat exchanger temperature is higher or equal to said previously measured heat exchanger temperature; turn off said compressor if: said medium temperature reaches a first predetermined value; said compressor operates for a predetermined period of operation time; said heat exchanger temperature reaches a value below a compressor control temperature; and said minimum heat exchanger temperature is determined. said medium temperature reaches a first predetermined value; said compressor operates for a predetermined period of operation time; said heat exchanger temperature reaches a value below a compressor control temperature; and said minimum heat exchanger temperature is determined.
Vehicle, comprising: - a drive motor arranged in an engine compartment , - a fuel-operated vehicle heating device arranged in the engine compartment , - a fuel tank , - a fuel line leading from the fuel tank to the vehicle heating device (20, wherein the engine compartment is arranged in a front area of the vehicle and the fuel tank is arranged in a rear area of the vehicle , characterized by a cooling air line arrangement enveloping the fuel line in at least some areas for providing a cooling air flow channel for the cooling air flowing around the fuel line , wherein an inlet opening area of the cooling air line arrangement is arranged in an area of higher air pressure at the vehicle , wherein the inlet opening area is arranged close to a vehicle front end area or/and open in the direction towards the vehicle front end area and wherein an outlet opening area of the cooling air line arrangement is arranged in an area of lower air pressure at the vehicle , wherein the outlet opening area is arranged in the area of an underbody or/and in a vehicle rear area or/and open in the direction towards the underbody or/and towards a vehicle rear end area . - a drive motor arranged in an engine compartment , - a fuel-operated vehicle heating device arranged in the engine compartment , - a fuel tank , - a fuel line leading from the fuel tank to the vehicle heating device (20, wherein the engine compartment is arranged in a front area of the vehicle and the fuel tank is arranged in a rear area of the vehicle , characterized by a cooling air line arrangement enveloping the fuel line in at least some areas for providing a cooling air flow channel for the cooling air flowing around the fuel line , wherein an inlet opening area of the cooling air line arrangement is arranged in an area of higher air pressure at the vehicle , wherein the inlet opening area is arranged close to a vehicle front end area or/and open in the direction towards the vehicle front end area and wherein an outlet opening area of the cooling air line arrangement is arranged in an area of lower air pressure at the vehicle , wherein the outlet opening area is arranged in the area of an underbody or/and in a vehicle rear area or/and open in the direction towards the underbody or/and towards a vehicle rear end area .
A rubber composition based on at least: - an elastomer matrix comprising at least one first diene elastomer bearing at least one SiOR 1 function, R 1 being a hydrogen atom or a hydrocarbon radical, the SiOR 1 function not located at the chain ends of the first diene elastomer; - a reinforcing filler comprising a reinforcing inorganic filler; and - a plasticizing agent comprising a liquid plasticizer comprising a liquid diene polymer bearing at least one function wherein the amount of the reinforcing inorganic filler is more than 110 phr; wherein the liquid diene polymer is a diene polymer; wherein the liquid diene polymer is liquid at 20°C; and wherein the liquid diene polymer has a number average molar mass of less than 6000 g/mol. - an elastomer matrix comprising at least one first diene elastomer bearing at least one SiOR 1 function, R 1 being a hydrogen atom or a hydrocarbon radical, the SiOR 1 function not located at the chain ends of the first diene elastomer; - a reinforcing filler comprising a reinforcing inorganic filler; and - a plasticizing agent comprising a liquid plasticizer comprising a liquid diene polymer bearing at least one function wherein the amount of the reinforcing inorganic filler is more than 110 phr; wherein the liquid diene polymer is a diene polymer; wherein the liquid diene polymer is liquid at 20°C; and wherein the liquid diene polymer has a number average molar mass of less than 6000 g/mol.
A method for decoding a video signal, the method performed by an apparatus and comprising: determining an intra prediction mode for a current block of the video signal; based on the intra prediction mode for the current block being intra planar prediction mode, predicting a video data sample included in the current block by processing a bi-linear interpolation of a first reference sample, a second reference sample, a third reference sample, and a fourth reference sample, the first reference sample being a reconstructed neighboring left sample of the current block and being on a same y-coordinate line as the video data sample, the second reference sample being a reconstructed neighboring top sample of the current block and being on a same x-coordinate line as the video data sample, the third reference sample being a reconstructed reference sample taken from a neighboring top-right block of the current block, and the fourth reference sample being a reconstructed reference sample taken from a neighboring bottom-left block of the current block; and reconstructing the video data sample based on the predicted video data sample, wherein the same third and fourth reference samples are used in the bi-linear interpolation process for each of a plurality of video data samples to be predicted within the current block, and wherein a right bottom video data sample of the current block is predicted based on an average of the third reference sample and the fourth reference sample . determining an intra prediction mode for a current block of the video signal; based on the intra prediction mode for the current block being intra planar prediction mode, predicting a video data sample included in the current block by processing a bi-linear interpolation of a first reference sample, a second reference sample, a third reference sample, and a fourth reference sample, the first reference sample being a reconstructed neighboring left sample of the current block and being on a same y-coordinate line as the video data sample, the second reference sample being a reconstructed neighboring top sample of the current block and being on a same x-coordinate line as the video data sample, the third reference sample being a reconstructed reference sample taken from a neighboring top-right block of the current block, and the fourth reference sample being a reconstructed reference sample taken from a neighboring bottom-left block of the current block; and reconstructing the video data sample based on the predicted video data sample, wherein the same third and fourth reference samples are used in the bi-linear interpolation process for each of a plurality of video data samples to be predicted within the current block, and wherein a right bottom video data sample of the current block is predicted based on an average of the third reference sample and the fourth reference sample .
An information processing device comprising: a management unit configured to hold individual parameters in association with identification information of respective low power wide area, LPWA, transmitters , the individual parameters being transmission parameters that are not common among the transmitters and used by the transmitters to transmit data; and a communication unit configured to receive, from an LPWA receiver that has received the identification information transmitted from a predetermined transmitter using a common parameter that is a transmission parameter that is common among the transmitters and used by the transmitters to transmit the identification information, the identification information through a network, and to transmit, to the receiver , the individual parameter associated with the identification information received by the receiver through the network, wherein the common parameter is configured to be used in the receiver for receiving the identification information transmitted from the transmitter , and the transmitted individual parameter is configured to be used in the receiver for receiving data transmitted from the transmitter . a management unit configured to hold individual parameters in association with identification information of respective low power wide area, LPWA, transmitters , the individual parameters being transmission parameters that are not common among the transmitters and used by the transmitters to transmit data; and a communication unit configured to receive, from an LPWA receiver that has received the identification information transmitted from a predetermined transmitter using a common parameter that is a transmission parameter that is common among the transmitters and used by the transmitters to transmit the identification information, the identification information through a network, and to transmit, to the receiver , the individual parameter associated with the identification information received by the receiver through the network, wherein the common parameter is configured to be used in the receiver for receiving the identification information transmitted from the transmitter , and the transmitted individual parameter is configured to be used in the receiver for receiving data transmitted from the transmitter .