mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: configuring a macro cell group, in the following also referred to as MCG, by a user equipment (203; 320), in the following also referred to as UE, in a wireless network to be served by a first MAC entity (231; 328) of the UE (203; 320), wherein the MCG includes serving cells associating with a macro base station (201; 300); and configuring a secondary cell group, in the following also referred to as SCG, to be served by a second MAC entity (232; 329) of the UE (203; 320), wherein the SCG includes serving cells associating with a secondary base station (202; 310); characterized by: determining an amount of available data for transmission; and calculating a MCG buffer status value indicating a size of transmission data for the first MAC entity (231; 328) and a SCG buffer status value indicating a size of transmission data for the second MAC entity (232; 329) based on an allocation rule (411, 412; 500, 510, 520; 711, 712) and the determined amount of available data for transmission, wherein the allocation rule (411, 412; 500, 510, 520; 711, 712) is based on a configured split threshold for available data for transmission, and wherein the MCG buffer status value or the SCG buffer status value includes the size of all available data for transmission if the size of available data for transmission is smaller than the split threshold. configuring a macro cell group, in the following also referred to as MCG, by a user equipment (203; 320), in the following also referred to as UE, in a wireless network to be served by a first MAC entity (231; 328) of the UE (203; 320), wherein the MCG includes serving cells associating with a macro base station (201; 300); and configuring a secondary cell group, in the following also referred to as SCG, to be served by a second MAC entity (232; 329) of the UE (203; 320), wherein the SCG includes serving cells associating with a secondary base station (202; 310); determining an amount of available data for transmission; and calculating a MCG buffer status value indicating a size of transmission data for the first MAC entity (231; 328) and a SCG buffer status value indicating a size of transmission data for the second MAC entity (232; 329) based on an allocation rule (411, 412; 500, 510, 520; 711, 712) and the determined amount of available data for transmission, wherein the allocation rule (411, 412; 500, 510, 520; 711, 712) is based on a configured split threshold for available data for transmission, and wherein the MCG buffer status value or the SCG buffer status value includes the size of all available data for transmission if the size of available data for transmission is smaller than the split threshold.
A system for individually addressing each and every well or sets of wells in sub-zones of a well plate, comprising: at least one MicroFormulator (2205; 2801; 2802; 3010; 3020), each MicroFormulator comprising: a plurality of reservoirs (2002; 2211); at least one selector valve (2004; 2206; 2701; 2806; 2808) fluidically coupled to the plurality of reservoirs to select at least one reservoir; and at least one pump (2005; 2207; 2804; 2805) fluidically coupled to the at least one selector valve (2004; 2206; 2806, 2807; 2808; 2809) to withdraw fluid from the selected reservoir and deliver it to multiple output tubes (2201; 2204; 2702), wherein each of the output tubes is connectable to a well (2202; 2803) of the well plate (2210; 2810) for addressing the well with the fluid output from the respective output tube (2201; 2204; 2702), wherein the at least one selector valve comprises a first selector valve (2204; 2206; 2806; 2808) fluidically coupled to the plurality of reservoirs to select at least one reservoir, and a second selector valve (2807; 2809) fluidically coupled to the at least one pump (2804; 2805) for directing the fluid of the selected reservoir output from the at least one pump to one of the multiple output tubes (2201; 2204; 2702), wherein each output tube in turn is connectable to an individual well (2202; 2803) of the well plate (2210; 2810). a plurality of reservoirs (2002; 2211); at least one selector valve (2004; 2206; 2701; 2806; 2808) fluidically coupled to the plurality of reservoirs to select at least one reservoir; and at least one pump (2005; 2207; 2804; 2805) fluidically coupled to the at least one selector valve (2004; 2206; 2806, 2807; 2808; 2809) to withdraw fluid from the selected reservoir and deliver it to multiple output tubes (2201; 2204; 2702), wherein each of the output tubes is connectable to a well (2202; 2803) of the well plate (2210; 2810) for addressing the well with the fluid output from the respective output tube (2201; 2204; 2702), wherein the at least one selector valve comprises a first selector valve (2204; 2206; 2806; 2808) fluidically coupled to the plurality of reservoirs to select at least one reservoir, and a second selector valve (2807; 2809) fluidically coupled to the at least one pump (2804; 2805) for directing the fluid of the selected reservoir output from the at least one pump to one of the multiple output tubes (2201; 2204; 2702), wherein each output tube in turn is connectable to an individual well (2202; 2803) of the well plate (2210; 2810).
Method for operating a hearing aid for a user, - wherein a neuronal signal of the user is measured and a listening effort of the user is established therefrom, characterized - in that both an intensity of the listening effort and a hearing direction are established exclusively from the neuronal signal, - in that the intensity and the hearing direction form a hearing vector, - in that a mode of operation of the hearing aid is adapted or set depending on the hearing direction, for the purposes of reducing the intensity of the listening effort. - wherein a neuronal signal of the user is measured and a listening effort of the user is established therefrom, characterized - in that both an intensity of the listening effort and a hearing direction are established exclusively from the neuronal signal, - in that the intensity and the hearing direction form a hearing vector, - in that a mode of operation of the hearing aid is adapted or set depending on the hearing direction, for the purposes of reducing the intensity of the listening effort.
A method of forming a particle, the method comprising: promoting a seed particle in the aqueous suspension to form the dispersed phase, the seed particle including a hydrophobic seed polymer including a styrenic polymer, the promoted seed particle forming a disperse phase within a suspension; mixing hydrophilic monomer having a hydrophobic protection group with suspension, the hydrophilic monomer residing in the disperse phase, the hydrophilic monomer is a radically polymerizable vinyl-based monomer including an acrylate, an acrylamide, a vinyl alcohol, a vinyl acetate, acrylamido-methyl-propanesulfonic acid, or a combination thereof; polymerizing a plurality of mer units of the hydrophilic monomer having a hydrophobic protection group, thereby forming a polymeric particle including a plurality of the hydrophobic protection groups; converting the polymeric particle to a hydrophilic particle; and extracting the seed polymer after converting the polymeric particle. promoting a seed particle in the aqueous suspension to form the dispersed phase, the seed particle including a hydrophobic seed polymer including a styrenic polymer, the promoted seed particle forming a disperse phase within a suspension; mixing hydrophilic monomer having a hydrophobic protection group with suspension, the hydrophilic monomer residing in the disperse phase, the hydrophilic monomer is a radically polymerizable vinyl-based monomer including an acrylate, an acrylamide, a vinyl alcohol, a vinyl acetate, acrylamido-methyl-propanesulfonic acid, or a combination thereof; polymerizing a plurality of mer units of the hydrophilic monomer having a hydrophobic protection group, thereby forming a polymeric particle including a plurality of the hydrophobic protection groups; converting the polymeric particle to a hydrophilic particle; and extracting the seed polymer after converting the polymeric particle.
A method to warp an image, comprising: acquiring a plurality of input pixels associated with a source image; passing each of the input pixels to a warping function and receiving a mapping to a destination pixel in a destination image comprising a scaling factor for each of the input pixels in each of an x and y direction; comparing and combining the scaling factors for the successive input pixels to determine a weighting matrix for each of the input pixels mapped to a destination lattice of a subset of pixels in the destination image; and mapping each of the input pixels to the destination lattice using the respective weighting matrix. acquiring a plurality of input pixels associated with a source image; passing each of the input pixels to a warping function and receiving a mapping to a destination pixel in a destination image comprising a scaling factor for each of the input pixels in each of an x and y direction; comparing and combining the scaling factors for the successive input pixels to determine a weighting matrix for each of the input pixels mapped to a destination lattice of a subset of pixels in the destination image; and mapping each of the input pixels to the destination lattice using the respective weighting matrix.
A method for processing weather data onboard a vehicle, the method comprising: receiving, at a vehicle and from a base station, a request for weather data, wherein the request comprises an indication of a specified location in space for the weather data; said method being characterized in further comprising; determining two or more parameters, wherein a first parameter of the two or more parameters comprises a distance between the vehicle and the specified location in space; calculating a confidence level based on the two or more parameters, wherein the confidence level indicates an estimated accuracy for the weather data obtained from the vehicle; determining whether the confidence level exceeds a threshold level; and determining whether to transmit the weather data to the base station based on whether the confidence level exceeds the threshold level. receiving, at a vehicle and from a base station, a request for weather data, wherein the request comprises an indication of a specified location in space for the weather data; said method being characterized in further comprising; determining two or more parameters, wherein a first parameter of the two or more parameters comprises a distance between the vehicle and the specified location in space; calculating a confidence level based on the two or more parameters, wherein the confidence level indicates an estimated accuracy for the weather data obtained from the vehicle; determining whether the confidence level exceeds a threshold level; and determining whether to transmit the weather data to the base station based on whether the confidence level exceeds the threshold level.
A decoding method for decoding a block of an image comprising: - determining a split mode for said block in a set of split modes, wherein said set of split modes comprises at least one split mode for asymmetrically splitting said block into at least two sub-blocks; - splitting said block into at least two sub-blocks responsive to said split mode; - decoding each of the at least two sub-blocks, wherein determining said split mode comprises: - decoding a first syntax element (btSplitOrientation) specifying whether said block is split vertically or horizontally; - decoding a second syntax element (horAsymmetricSplitFlag, verAsymmetricSplitFlag) specifying whether said block is split symmetrically or asymmetrically, wherein decoding said second syntax element comprises determining a context for decoding said second syntax element, wherein said context is function of information representative of at least one neighboring block of said block; and context-based arithmetic decoding said second syntax element responsive to said determined context; and - decoding a split mode syntax element specifying a position of the asymmetric split (vertical_asymmetric_type /horizontal_asymmetric type) in the case where said second syntax element specifies that said block is split asymmetrically. - determining a split mode for said block in a set of split modes, wherein said set of split modes comprises at least one split mode for asymmetrically splitting said block into at least two sub-blocks; - splitting said block into at least two sub-blocks responsive to said split mode; - decoding each of the at least two sub-blocks, wherein determining said split mode comprises: - decoding a first syntax element (btSplitOrientation) specifying whether said block is split vertically or horizontally; - decoding a second syntax element (horAsymmetricSplitFlag, verAsymmetricSplitFlag) specifying whether said block is split symmetrically or asymmetrically, wherein decoding said second syntax element comprises determining a context for decoding said second syntax element, wherein said context is function of information representative of at least one neighboring block of said block; and context-based arithmetic decoding said second syntax element responsive to said determined context; and - decoding a split mode syntax element specifying a position of the asymmetric split (vertical_asymmetric_type /horizontal_asymmetric type) in the case where said second syntax element specifies that said block is split asymmetrically.
A glass-ceramic of the lithium aluminosilicate type, containing a beta-quartz solid solution as the predominant crystalline phase and having for a thickness of 4 mm: an integrated optical transmission, T v, in the visible range, between 0.8 and 2%, an optical transmission at 625 nm of more than 3.5%, an optical transmission at 950 nm between 50 and 70%, and an optical transmission at 1,600 nm between 65 and 75%, wherein its composition, expressed as percentages by weight of oxides, contains: SiO 2 60 - 72 Al 2 O 3 18 - 23 Li 2 O 2.5 - 4.5 MgO 0 - 3 ZnO 1 - 3 TiO 2 1.5 - 4 ZrO 2 0 - 2.5 BaO 0 - 5 SrO 0 - 5 with BaO + SrO 0 - 5 CaO 0 - 2 Na 2 O 0 - 1.5 K 2 O 0 - 1.5 P 2 O 5 0 - 5 B 2 O 3 0 - 2 SnO 2 0.3 - 0.6 V 2 O 5 0.025 - 0.060 Cr 2 O 3 0.01 - 0.04 Fe 2 O 3 0.05 - 0.15 and As 2 O 3 +Sb 2 O 3 < 0.1. an integrated optical transmission, T v, in the visible range, between 0.8 and 2%, an optical transmission at 625 nm of more than 3.5%, an optical transmission at 950 nm between 50 and 70%, and an optical transmission at 1,600 nm between 65 and 75%,
A unit for non-invasive stimulation of visual cortex cells in severe visual impairment comprising an image sensor and means for stimulating visual cortex cells, wherein the means for stimulating comprises a control processor, and wherein the image sensor comprises a video chip connected to the control processor to convert an image signal to signals capable of stimulating a brain at a frequency of 5 to 100 GHz, to which a first transmitting sensor for the stimulation, a second transmitting sensor of the position stabilisation and a receiving sensor of a the- position stabilisation feedback are connected via a position stabilisation unit, wherein said sensors are connected to a carrier of active/passive sensors via transmitting active/passive sensors of the position stabilisation feedback, wherein a communication module is connected to the control processor.
A computer-implemented method comprising: receiving information that defines a three-dimensional subterranean structure; splitting fracture surfaces of the three-dimensional subterranean structure into portions based on an angle criterion, wherein each portion is approximated by a plane, with adjacent parts of the fracture being represented by adjacent planes and disposed at different angles with respect to a locus or loci and wherein the splitting generates line segments representing the curve of a fracture surface in the plane and each segment comprising end points; based at least in part on the end points, generating a set of convex hulls for the portions; generating a discrete fracture network, DFN, based at least in part on the set of convex hulls; and positioning wells based on the discrete fracture network, DFN. receiving information that defines a three-dimensional subterranean structure; splitting fracture surfaces of the three-dimensional subterranean structure into portions based on an angle criterion, wherein each portion is approximated by a plane, with adjacent parts of the fracture being represented by adjacent planes and disposed at different angles with respect to a locus or loci and wherein the splitting generates line segments representing the curve of a fracture surface in the plane and each segment comprising end points; based at least in part on the end points, generating a set of convex hulls for the portions; generating a discrete fracture network, DFN, based at least in part on the set of convex hulls; and positioning wells based on the discrete fracture network, DFN.
A stent formed of a shape memory material, said stent including: an elongated tubular body, at least one crown is connected to a respective longitudinal end of said body, said crown including a plurality of leaves (22 1, 22 2, 22 3, 22 4), each leaf (22 1, 22 2, 22 3, 22 4) having a longitudinally extending outer arrowhead-shaped frame (24 1, 24 2, 24 3, 24 4) which is separate from and unconnected to the outer frame of any of the other leaves, each outer frame (24 1, 24 2, 24 3, 24 4) further having a first end connected to said end of said body and a second free end, characterized in that said stent material of said at least one crown is trained to exhibit 2-way shape memory properties such that when the stent is cooled in a predetermined temperature range, said free ends of said leaves (22 1, 22 2, 22 3, 22 4) move radially inwardly. an elongated tubular body, at least one crown is connected to a respective longitudinal end of said body, said crown including a plurality of leaves (22 1, 22 2, 22 3, 22 4), each leaf (22 1, 22 2, 22 3, 22 4) having a longitudinally extending outer arrowhead-shaped frame (24 1, 24 2, 24 3, 24 4) which is separate from and unconnected to the outer frame of any of the other leaves, each outer frame (24 1, 24 2, 24 3, 24 4) further having a first end connected to said end of said body and a second free end, characterized in that said stent material of said at least one crown is trained to exhibit 2-way shape memory properties such that when the stent is cooled in a predetermined temperature range, said free ends of said leaves (22 1, 22 2, 22 3, 22 4) move radially inwardly.
Sealing system for a shower floor of a sanitary space, comprising a watertight flexible layer, such as a sealing membrane, the flexible layer comprising an insert part for a watertight connection to an outlet opening arranged in the shower floor, characterized in that the insert part is a rubber ring which is arranged on the watertight flexible layer and which can be placed in a groove arranged in the outlet opening.
A method for processing an audio signal, the method comprising: using linear predictive filtering for removing (S102, S104, S300-S308, S400-S402) a discontinuity (106a, 106b) between a filtered past frame and a filtered current frame of the audio signal, wherein the method comprises filtering the current frame of the audio signal and removing the discontinuity by modifying a beginning portion of the filtered current frame by a signal obtained by linear predictive filtering a predefined signal with initial states of the linear predictive filter defined on the basis of a last part of the unfiltered past frame filtered using the set of filter parameters for filtering the current frame, wherein the linear predictive filter is defined as A z = 1 ∑ m = 0 M a m z − m, wherein M is the linear predictive filter order, and wherein a m indicates the filter coefficients, with a 0 = 1. using linear predictive filtering for removing (S102, S104, S300-S308, S400-S402) a discontinuity (106a, 106b) between a filtered past frame and a filtered current frame of the audio signal, wherein the method comprises filtering the current frame of the audio signal and removing the discontinuity by modifying a beginning portion of the filtered current frame by a signal obtained by linear predictive filtering a predefined signal with initial states of the linear predictive filter defined on the basis of a last part of the unfiltered past frame filtered using the set of filter parameters for filtering the current frame, wherein the linear predictive filter is defined as A z = 1 ∑ m = 0 M a m z − m, wherein M is the linear predictive filter order, and wherein a m indicates the filter coefficients, with a 0 = 1.
A system for heating an exterior of an aircraft, the system comprising: an aircraft skin having a bulk conductive medium, and two or more coupling strips spaced apart from one another and attached to the aircraft skin, each of the coupling strips comprising a multi-layer structure extending along a surface of the aircraft skin that forms, in combination with the aircraft skin, an electrical transmission line, the multi-layer structure comprising: a first dielectric layer over the aircraft skin, a conductive layer over the first dielectric layer, a second dielectric layer over the conductive layer, and a conductive shielding layer over the second dielectric layer; and a power control system coupled to the conductive layer of each of the coupling strips and to the aircraft skin, the power control system configured to heat the surface of the aircraft skin by providing high frequency electrical current to the coupling strips, thereby, generating skin effect electrical currents within the bulk medium of the aircraft skin. an aircraft skin having a bulk conductive medium, and two or more coupling strips spaced apart from one another and attached to the aircraft skin, each of the coupling strips comprising a multi-layer structure extending along a surface of the aircraft skin that forms, in combination with the aircraft skin, an electrical transmission line, the multi-layer structure comprising: a first dielectric layer over the aircraft skin, a conductive layer over the first dielectric layer, a second dielectric layer over the conductive layer, and a conductive shielding layer over the second dielectric layer; and a power control system coupled to the conductive layer of each of the coupling strips and to the aircraft skin, the power control system configured to heat the surface of the aircraft skin by providing high frequency electrical current to the coupling strips, thereby, generating skin effect electrical currents within the bulk medium of the aircraft skin.
Holder for a wiper arm, comprising: a body, having two opposite sidewalls (111, 112) extending in the longitudinal direction of the wiper arm, the bottom of the body being provided with a dovetail slot configured to match a protrusion of an adapter; characterized in that the holder further comprises a fixing pin, arranged between the two opposite sidewalls (111, 112) of the body; and a first locking pin and a second locking pin, arranged in the two opposite sidewalls (111, 112) of the body respectively, the first locking pin and the second locking pin being equidistant from the fixing pin, wherein two notches arranged side by side are provided in each of the two opposite sidewalls (111, 112) of the body of the holder. a body, having two opposite sidewalls (111, 112) extending in the longitudinal direction of the wiper arm, the bottom of the body being provided with a dovetail slot configured to match a protrusion of an adapter; characterized in that the holder further comprises a fixing pin, arranged between the two opposite sidewalls (111, 112) of the body; and a first locking pin and a second locking pin, arranged in the two opposite sidewalls (111, 112) of the body respectively, the first locking pin and the second locking pin being equidistant from the fixing pin, wherein two notches arranged side by side are provided in each of the two opposite sidewalls (111, 112) of the body of the holder.