mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a wind turbine, the method comprising: measuring a loading condition acting on the wind turbine; determining a first scaler factor based on the measured loading condition; determining a correction parameter for the wind turbine, the correction parameter being a function of at least two measured operating conditions and representative of a real-time operational state of the wind turbine; determining a second scaler factor based on the correction parameter; calculating an adjustment set point for the wind turbine based on a common function of the first scaler factor and the second scaler factor; and characterized by: controlling the wind turbine based on the adjustment set point by curtailing a de-rated power curve to increase up to and above a rated power curve whilst maintaining loading at less than design loads, and calculating the adjustment set point by multiplying the first scaler factor by the second scaler factor. measuring a loading condition acting on the wind turbine; determining a first scaler factor based on the measured loading condition; determining a correction parameter for the wind turbine, the correction parameter being a function of at least two measured operating conditions and representative of a real-time operational state of the wind turbine; determining a second scaler factor based on the correction parameter; calculating an adjustment set point for the wind turbine based on a common function of the first scaler factor and the second scaler factor; and characterized by: controlling the wind turbine based on the adjustment set point by curtailing a de-rated power curve to increase up to and above a rated power curve whilst maintaining loading at less than design loads, and calculating the adjustment set point by multiplying the first scaler factor by the second scaler factor. controlling the wind turbine based on the adjustment set point by curtailing a de-rated power curve to increase up to and above a rated power curve whilst maintaining loading at less than design loads, and calculating the adjustment set point by multiplying the first scaler factor by the second scaler factor.
A far side airbag device comprising an airbag suited to be disposed between a frame and an armrest, the frame being provided at a side portion at a vehicle width direction middle side of a seatback, and a proximal end of the armrest being connected to the frame, wherein, in a folded state of the airbag, the vertical direction portion of the airbag is overlapable with the armrest in the usage mode in side view with a portion of the airbag being folded in a bellows fold, and wherein, in an inflated and expanded state of the airbag, a vertical direction portion of the airbag is overlapable with the armrest in a usage mode of the armrest in side view, and the portion of the airbag that is folded in the bellows fold corresponding, in an inflated and expanded state, to a region of the airbag that serves as a lower portion in the vertical direction, characterized in that the bellows fold having fold lines forming angles with lines parallel to a horizontal line that gradually increase from an upper side to a lower side, and gas is supplied to the region that serves as the lower portion.
A transvenously implantable medical device (10; 200; 300; 400) comprising: an electrical lead (52; 220; 320; 420, 422) including one or more electrodes (98, 100, 102; 315) and including a lumen extending therethrough configured to accommodate a straightening member within the lumen in order to adapt the electrical lead for transvenous implantation, the electrical lead pre-biased to expand from a collapsed state to an expanded state to mechanically engage an internal wall of a blood vessel upon removal of the straightening member; and a control module (50; 210; 310; 410) secured to and in electrical communication with the electrical lead, the control module including a signal management component and a power component disposed in a housing adapted for implantation into the blood vessel, the control module adapted for at least one of stimulating and sensing a physiologic response using the one or more electrodes of the electrical lead, characterised in that the the control module also includes a lumen extending through the control module to accommodate the straightening member. an electrical lead (52; 220; 320; 420, 422) including one or more electrodes (98, 100, 102; 315) and including a lumen extending therethrough configured to accommodate a straightening member within the lumen in order to adapt the electrical lead for transvenous implantation, the electrical lead pre-biased to expand from a collapsed state to an expanded state to mechanically engage an internal wall of a blood vessel upon removal of the straightening member; and a control module (50; 210; 310; 410) secured to and in electrical communication with the electrical lead, the control module including a signal management component and a power component disposed in a housing adapted for implantation into the blood vessel, the control module adapted for at least one of stimulating and sensing a physiologic response using the one or more electrodes of the electrical lead, characterised in that the the control module also includes a lumen extending through the control module to accommodate the straightening member.
Packing system for filling egg trays, comprising feeding means for feeding eggs, as well as a plurality of spaced, adjacent partitions located directly above the feeding means and/or seen in the direction of feed located directly behind the feeding means, which partitions extend in the direction of feed and form the side walls of gates that lead to transport means for further transport of the eggs, and where each gate is bounded by two unique partitions i.e. a left hand partition and a right hand partition, so that two partitions are located between two adjacent gates of which one partition forms a boundary for the one gate and the other partition forms a boundary for the other gate, characterized in that the partitions can be displaced in a direction at right angles to the direction of feed and the packing system comprises adapting means for displacing the partitions, where the two partitions (9a, 9b) bounding a gate can be displaced towards each other and away from each other.
A brewing device for producing a beverage from a single-serve cartridge in the form of a capsule or a pod; the brewing device comprises at least one perforating device to perforate the cartridge and including a plate and a plurality of perforators protruding from the plate; the plate is provided with holes for the flow of a liquid, and each perforator has the shape of a blunt tip delimited by a side surface and by a top surface forming, with the side surface, a cutting edge; the top surface is the resultant of the intersection between the relevant perforator with a virtual spherical surface, and the shape of the cutting edge is generically bilobed and formed by two convex portions separated by two symmetrical concave portions.
A process for the recovery of aromatic solvent, comprising: passing a hydrocarbon stream to a dehydrogenation unit to generate a first process stream comprising olefins; contacting the first process stream with a solvent stream in a contact cooler to generate a cooled olefins stream, and a second process stream comprising solvent and heavy hydrocarbons; passing the cooled olefins stream to a separation unit to generate a light stream comprising light gases, and a C4 stream, wherein the light gases comprise H 2, C1 to C3 hydrocarbons, and other non-condensable gases; passing the C4 stream to a selective hydrogenation unit to hydrogenate acetylenes and diolefins, and to generate a C4 stream with reduced acetylenes and diolefins; passing the C4 stream with reduced acetylenes and diolefins to a deethanizer to generate a light gas overhead stream and a C4 bottoms stream, wherein the C4 bottoms stream includes solvent that has been carried over from the contact cooler; passing the C4 bottoms stream to a heavies removal column to generate a heavies overhead stream comprising olefins, and a heavies bottoms stream comprising heavies and recovered solvent; and passing a portion of the heavies bottoms stream to the contact cooler. passing a hydrocarbon stream to a dehydrogenation unit to generate a first process stream comprising olefins; contacting the first process stream with a solvent stream in a contact cooler to generate a cooled olefins stream, and a second process stream comprising solvent and heavy hydrocarbons; passing the cooled olefins stream to a separation unit to generate a light stream comprising light gases, and a C4 stream, wherein the light gases comprise H 2, C1 to C3 hydrocarbons, and other non-condensable gases; passing the C4 stream to a selective hydrogenation unit to hydrogenate acetylenes and diolefins, and to generate a C4 stream with reduced acetylenes and diolefins; passing the C4 stream with reduced acetylenes and diolefins to a deethanizer to generate a light gas overhead stream and a C4 bottoms stream, wherein the C4 bottoms stream includes solvent that has been carried over from the contact cooler; passing the C4 bottoms stream to a heavies removal column to generate a heavies overhead stream comprising olefins, and a heavies bottoms stream comprising heavies and recovered solvent; and passing a portion of the heavies bottoms stream to the contact cooler.
A control device of a lock-up clutch, wherein as applied in a vehicle where a motive power source, an automatic transmission, a hydraulic power transmission device disposed between the motive power source and the automatic transmission, and a lock-up clutch directly connecting an input side and an output side of the hydraulic power transmission device are mounted, a deceleration lock-up control performing engagement control of the lock-up clutch during vehicle deceleration, and a lock-up smooth off control gradually disengaging the lock-up clutch upon completion of the deceleration lock-up control are executed, characterized in that a lock-up smooth off initial pressure learning control learning a disengagement initial pressure of the lock-up smooth off control, and a deceleration lock-up differential pressure learning control reflecting a learning value of a disengagement initial pressure of the lock-up smooth off control in a deceleration lock-up differential pressure during the deceleration lock-up control are executed, and in a case wherein the deceleration lock-up differential pressure learning control is entered, the disengagement initial pressure (PLUst) of the lock-up smooth off control is corrected. as applied in a vehicle where a motive power source, an automatic transmission, a hydraulic power transmission device disposed between the motive power source and the automatic transmission, and a lock-up clutch directly connecting an input side and an output side of the hydraulic power transmission device are mounted, a deceleration lock-up control performing engagement control of the lock-up clutch during vehicle deceleration, and a lock-up smooth off control gradually disengaging the lock-up clutch upon completion of the deceleration lock-up control are executed, a lock-up smooth off initial pressure learning control learning a disengagement initial pressure of the lock-up smooth off control, and a deceleration lock-up differential pressure learning control reflecting a learning value of a disengagement initial pressure of the lock-up smooth off control in a deceleration lock-up differential pressure during the deceleration lock-up control are executed, and in a case wherein the deceleration lock-up differential pressure learning control is entered, the disengagement initial pressure (PLUst) of the lock-up smooth off control is corrected.
A piece of luggage or a wallet, comprising - at least one outer surface (12, 14, 16), wherein an additional outer layer is arranged on said outer surface (12, 14, 16), said additional outer layer having at least one three-dimensional elevation formed therein by means of a thermoforming process and protruding from said outer surface (12, 14, 16), characterized in that on said outer surface (12, 14, 16) at least one protrusion which is adapted to the shape of said at least one three-dimensional elevation is arranged, wherein said outer layer is arranged on said outer surface (12, 14, 16) such that said at least one three-dimensional protrusion arranged on said outer surface (12, 14, 16) is arranged beneath said at least one elevation of said outer layer. - at least one outer surface (12, 14, 16),
A method for determining a forwarding port in a Named Data Networking, comprising: determining an interest table item corresponding to a first request content in a pending interest table, wherein the interest table item is configured to store each port information of each of at least one received interest packet respectively corresponding to the first request content, wherein the port information at least comprising a port number of a port from which an interest packet is forwarded; creating a request queue corresponding to the first request content according to the port information stored in the interest table item; characterized in that, the method further comprising, determining a maximum round-trip time, RTT, corresponding to the first request content, the maximum RTT depending on an importance of the first request content, and constructing a reward function according to the maximum RTT; constructing an optimization problem with a target of maximizing a value of the reward function according to the reward function, the request queue and the maximum RTT; and performing a calculation on the optimization problem according to a Lyapunov function to obtain a Lyapunov drift, and determining a forwarding port corresponding to the first request content according to the Lyapunov drift. determining an interest table item corresponding to a first request content in a pending interest table, wherein the interest table item is configured to store each port information of each of at least one received interest packet respectively corresponding to the first request content, wherein the port information at least comprising a port number of a port from which an interest packet is forwarded; creating a request queue corresponding to the first request content according to the port information stored in the interest table item; characterized in that, the method further comprising, determining a maximum round-trip time, RTT, corresponding to the first request content, the maximum RTT depending on an importance of the first request content, and constructing a reward function according to the maximum RTT; constructing an optimization problem with a target of maximizing a value of the reward function according to the reward function, the request queue and the maximum RTT; and performing a calculation on the optimization problem according to a Lyapunov function to obtain a Lyapunov drift, and determining a forwarding port corresponding to the first request content according to the Lyapunov drift.
A method for predicting progression of prostate cancer in an individual, the method comprising: (a) receiving expression levels of a collection of signature genes from a biological sample taken from said individual, wherein said collection of signature genes comprises at least two genes selected from the group consisting of: NKX2-1, UPK1A, ADRA2C, ABCC11, MMP11, CPVL, ZYG11A, CLEC4F, OAS2, PGC, UPK3B, PCBP3, ABLIM1, EDARADD, GPR81, MYBPC1, F10, KCNA3, GLDC, KCNQ2, RAPGEF1, TUBB2B, MB, DUOXA1, C2orf43, DUOX1, PCA3 and NPR3; or at least one gene selected from the group consisting of: NKX2-1, UPK1A, ABCC11, MMP11, CPVL, ZYG11A, CLEC4F, OAS2, PGC, UPK3B, PCBP3, EDARADD, GPR81, MYBPC1, KCNA3, GLDC, KCNQ2, RAPGEF1, TUBB2B, MB, DUOXA1, C2orf43, DUOX1, and NPR3; (b) applying the expression levels to a predictive model relating expression levels of said collection of signature genes with prostate cancer progression; and (c) evaluating an output of said predictive model to predict progression of prostate cancer in said individual. (a) receiving expression levels of a collection of signature genes from a biological sample taken from said individual, wherein said collection of signature genes comprises at least two genes selected from the group consisting of: NKX2-1, UPK1A, ADRA2C, ABCC11, MMP11, CPVL, ZYG11A, CLEC4F, OAS2, PGC, UPK3B, PCBP3, ABLIM1, EDARADD, GPR81, MYBPC1, F10, KCNA3, GLDC, KCNQ2, RAPGEF1, TUBB2B, MB, DUOXA1, C2orf43, DUOX1, PCA3 and NPR3; or at least one gene selected from the group consisting of: NKX2-1, UPK1A, ABCC11, MMP11, CPVL, ZYG11A, CLEC4F, OAS2, PGC, UPK3B, PCBP3, EDARADD, GPR81, MYBPC1, KCNA3, GLDC, KCNQ2, RAPGEF1, TUBB2B, MB, DUOXA1, C2orf43, DUOX1, and NPR3; at least two genes selected from the group consisting of: NKX2-1, UPK1A, ADRA2C, ABCC11, MMP11, CPVL, ZYG11A, CLEC4F, OAS2, PGC, UPK3B, PCBP3, ABLIM1, EDARADD, GPR81, MYBPC1, F10, KCNA3, GLDC, KCNQ2, RAPGEF1, TUBB2B, MB, DUOXA1, C2orf43, DUOX1, PCA3 and NPR3; or at least one gene selected from the group consisting of: NKX2-1, UPK1A, ABCC11, MMP11, CPVL, ZYG11A, CLEC4F, OAS2, PGC, UPK3B, PCBP3, EDARADD, GPR81, MYBPC1, KCNA3, GLDC, KCNQ2, RAPGEF1, TUBB2B, MB, DUOXA1, C2orf43, DUOX1, and NPR3; (b) applying the expression levels to a predictive model relating expression levels of said collection of signature genes with prostate cancer progression; and (c) evaluating an output of said predictive model to predict progression of prostate cancer in said individual.
A blood purification apparatus comprising: a dialysate introduction line that is connectable to a blood purification means capable of purifying blood of a patient, circulated extracorporeally, and that allows dialysate to be introduced into the blood purification means; a dialysate discharge line that is connectable to the blood purification means, and that allows the dialysate introduced through the dialysate introduction line to be discharged from the blood purification means; a coupling means that allows free switching between a connected state which causes the dialysate introduction line and the dialysate discharge line to form a closed circuit, and an opened state which causes the closed circuit to be opened to form an opened portion; and a control means that, when the connected state is switched to the opened state by the coupling means, allows a liquid spill prevention operation to be performed, in which external air is introduced through the opened portion, wherein an air detection means, by which air introduced through the opened portion is detectable, is provided in a vicinity of the coupling means, and the control means stops the liquid spill prevention operation when air is detected by the air detection means. a dialysate introduction line that is connectable to a blood purification means capable of purifying blood of a patient, circulated extracorporeally, and that allows dialysate to be introduced into the blood purification means; a dialysate discharge line that is connectable to the blood purification means, and that allows the dialysate introduced through the dialysate introduction line to be discharged from the blood purification means; a coupling means that allows free switching between a connected state which causes the dialysate introduction line and the dialysate discharge line to form a closed circuit, and an opened state which causes the closed circuit to be opened to form an opened portion; and a control means that, when the connected state is switched to the opened state by the coupling means, allows a liquid spill prevention operation to be performed, in which external air is introduced through the opened portion, wherein an air detection means, by which air introduced through the opened portion is detectable, is provided in a vicinity of the coupling means, and the control means stops the liquid spill prevention operation when air is detected by the air detection means.
A method for decoding a multi-view video, the method comprising: determining motion prediction schemes performed for a current block to be decoded and a co-located block corresponding to the current block, the motion prediction schemes are determined to be one of a long-term prediction, a short-term prediction and an inter-view prediction, wherein the co-located block is located in correspondence with a position of the current block in a picture different from a current picture including the current block; and generating a motion vector of the current block using a motion vector of the co-located block according to the determined motion prediction schemes, and wherein when the inter-view prediction is performed for one of the current block and the co-located block and then the long-term prediction or the short-term prediction is performed for the other block, the motion vector of the current block is generated using a predetermined vector or the motion vector of the co-located block, wherein the co-located block includes a temporal co-located block. determining motion prediction schemes performed for a current block to be decoded and a co-located block corresponding to the current block, the motion prediction schemes are determined to be one of a long-term prediction, a short-term prediction and an inter-view prediction, wherein the co-located block is located in correspondence with a position of the current block in a picture different from a current picture including the current block; and generating a motion vector of the current block using a motion vector of the co-located block according to the determined motion prediction schemes, and wherein when the inter-view prediction is performed for one of the current block and the co-located block and then the long-term prediction or the short-term prediction is performed for the other block, the motion vector of the current block is generated using a predetermined vector or the motion vector of the co-located block, wherein the co-located block includes a temporal co-located block.
Nonaggregated carbon-coated silicon particles having average particle diameters d 50 of 1 to 15 μm, containing ≤ 10% by weight of carbon and ≥ 90% by weight of silicon, based in each case on the total weight of the carbon-coated silicon particles, wherein the nonaggregated carbon-coated silicon particles have a degree of aggregation of ≤ 40%, determined by means of sieve analysis.
A method in a wireless device (105, 200, 300, 400, 600) for performing power control of physical channels in a wireless communication system, comprising: determining (503, 703) transmission powers for transmissions (123a-d, 133a-b) on physical channels (121, 131) having different transmission time interval lengths (125, 135) according to respective closed power control loops, wherein the closed power control loops specify the transmission powers for the physical channels based on at least one parameter whose value is commonly updated for the closed power control loops.
A method for executing an operation by a circuit, the method comprising executing a first operation to process an input data, the circuit generating during the execution of the first operation a first signal (PT1, PT2), characterized in that it comprises executing a second operation receiving the input data and configured to add to the first signal, between first and second instants (t1, t2) during the execution of the first operation, a continuous second signal (DP1, DP2, PP1, PP2), the combination of the first and second signal forming a resultant signal in which the second signal is indistinctly measurable with the first signal from outside of the circuit, the second signal and the resultant signal varying as a function of the input data.