mhurhangee/ep-ind-claims huggingface dataset:
A system for a neurostimulation device, comprising: a user input device (72, 74) configured for receiving an electrode morphology having at least one electrode; memory storing at least one basis electrode model; at least one processor configured for modeling the at least one electrode by recalling the at least one basis electrode model from the memory, the system characterized in that: the at least one processor is further configured for using the recalled at least one basis electrode model multiple times to construct a model of the at least one electrode, wherein each of the recalled basis electrode models is translated or rotated to construct the model of the at least one electrode, and wherein the basis electrode model is a three-dimensional finite element model with a sheath of encapsulation tissue surrounding the lead and a tissue medium of uniform conductivity surrounding the sheath. a user input device (72, 74) configured for receiving an electrode morphology having at least one electrode; memory storing at least one basis electrode model; at least one processor configured for modeling the at least one electrode by recalling the at least one basis electrode model from the memory, the system characterized in that: the at least one processor is further configured for using the recalled at least one basis electrode model multiple times to construct a model of the at least one electrode, wherein each of the recalled basis electrode models is translated or rotated to construct the model of the at least one electrode, and wherein the basis electrode model is a three-dimensional finite element model with a sheath of encapsulation tissue surrounding the lead and a tissue medium of uniform conductivity surrounding the sheath.
A mechanism for opening and closing the cover of a housing, the cover being adapted to be lifted by two opposite sides (13, 14) to allow access to the inside by either one or the other side, so that when one of the sides (13, 14) is lifted the other side (14, 13) remains fixed so that the cover pivots on one of a first or a second axes defined by the other side (14, 13) respectively, the mechanism comprising: - the cover, two end bearing surfaces (S1, S2) of two opposite ends (11, 12) being defined in the cover for leaning on two edges (B1, B2) adjacent the housing; - two guiding extensions (P1, P2) extending from the cover arranged adjacent the bearing surfaces (S1, S2) and adapted to be oriented towards the housing; - two guiding assemblies (G1, G2) arrangeable in the housing surfaces that are adjacent to the edges (B1, B2), so that the guiding assemblies (G1, G2) face the guiding extensions (P1, P2) when the cover leans on the two edges (B1, B2); characterized in that each guiding assembly (G1, G2) comprises at least a first groove (R1, R1') and a second groove (R2, R2'), both having a circular arc shape, and each guiding extension (P1, P2) comprises at least a first protrusion (W1, W2, U1, U2) that slides within the grooves (R1, R1', R2, R2'), wherein: - the center of the circle arc of the first groove (R1, R1') is located on the first axis; - the center of the circle arc of the second groove (R2, R2') is located on the second axis. - the cover, two end bearing surfaces (S1, S2) of two opposite ends (11, 12) being defined in the cover for leaning on two edges (B1, B2) adjacent the housing; - two guiding extensions (P1, P2) extending from the cover arranged adjacent the bearing surfaces (S1, S2) and adapted to be oriented towards the housing; - two guiding assemblies (G1, G2) arrangeable in the housing surfaces that are adjacent to the edges (B1, B2), so that the guiding assemblies (G1, G2) face the guiding extensions (P1, P2) when the cover leans on the two edges (B1, B2); - the center of the circle arc of the first groove (R1, R1') is located on the first axis; - the center of the circle arc of the second groove (R2, R2') is located on the second axis.
An isolated monoclonal antibody that binds to and neutralizes a biological activity of a human interferon omega (IFN-ω) and at least three, four, five, six, seven, eight, nine, ten or eleven human interferon alpha (IFN-α) subtypes selected from the group consisting of IFN-αA, IFN-αB2, IFN-αC, IFN-αF, IFN-αG, IFN-αH2, IFN-αI, IFN-αJ1, IFN-αK, IFN-αWA and IFN-α4a, wherein the antibody comprises the HCDR1, the HCDR2, the HCDR3, the LCDR1, the LCDR2 and the LCDR3 sequences of SEQ ID NOs: a) 109, 113, 116, 77, 93 and 104, respectively; b) 109, 113, 116, 85, 93 and 96, respectively; c) 109, 113, 115, 79, 95 and 107, respectively; d) 109, 113, 116, 76, 93 and 103, respectively; e) 109, 113, 115, 85, 93 and 96, respectively; f) 109, 113, 115, 89, 95 and 100, respectively; g) 109, 113, 116, 86, 93 and 105, respectively; h) 109, 113, 115, 76, 93 and 103, respectively; i) 109, 113, 116, 80, 93 and 97, respectively; j) 109, 113, 116, 84, 93 and 97, respectively; k) 109, 113, 116, 90, 93 and 97, respectively; l) 109, 113, 116, 88, 93 and 102, respectively; m) 109, 113, 116, 87, 93 and 105, respectively; n) 109, 113, 116, 91, 93 and 106, respectively; o) 109, 113, 115, 80, 93 and 97, respectively; p) 109, 113, 116, 83, 93 and 101, respectively; q) 109, 113, 116, 82, 94 and 98, respectively; r) 109, 113, 115, 78, 95 and 100, respectively; s) 109, 111, 116, 81, 93 and 106, respectively; t) 109, 113, 116, 82, 94 and 99, respectively; u) 109, 113, 115, 81, 93 and 106, respectively; v) 109, 112, 116, 81, 93 and 106, respectively; or w) 109, 113, 116, 81, 93 and 106, respectively. a) 109, 113, 116, 77, 93 and 104, respectively; b) 109, 113, 116, 85, 93 and 96, respectively; c) 109, 113, 115, 79, 95 and 107, respectively; d) 109, 113, 116, 76, 93 and 103, respectively; e) 109, 113, 115, 85, 93 and 96, respectively; f) 109, 113, 115, 89, 95 and 100, respectively; g) 109, 113, 116, 86, 93 and 105, respectively; h) 109, 113, 115, 76, 93 and 103, respectively; i) 109, 113, 116, 80, 93 and 97, respectively; j) 109, 113, 116, 84, 93 and 97, respectively; k) 109, 113, 116, 90, 93 and 97, respectively; l) 109, 113, 116, 88, 93 and 102, respectively; m) 109, 113, 116, 87, 93 and 105, respectively; n) 109, 113, 116, 91, 93 and 106, respectively; o) 109, 113, 115, 80, 93 and 97, respectively; p) 109, 113, 116, 83, 93 and 101, respectively; q) 109, 113, 116, 82, 94 and 98, respectively; r) 109, 113, 115, 78, 95 and 100, respectively; s) 109, 111, 116, 81, 93 and 106, respectively; t) 109, 113, 116, 82, 94 and 99, respectively; u) 109, 113, 115, 81, 93 and 106, respectively; v) 109, 112, 116, 81, 93 and 106, respectively; or w) 109, 113, 116, 81, 93 and 106, respectively.
A network node of a communications system, the network node comprising: a transceiver configured to communicate with a user equipment node, UE; and a controller circuit connected to the transceiver to transmit and receive, and configured to repetitively transmit first uplink transmission power control, TPC, commands on a first fractional dedicated physical channel, F-DPCH, with a CELL_FACH configuration while repetitively transmitting second uplink TPC commands on a second F-DPCH and/or a Dedicated Physical Control CHannel with a CELL_DCH configuration, wherein the first and second uplink TPC commands control uplink transmission power from the UE to the network node. a transceiver configured to communicate with a user equipment node, UE; and a controller circuit connected to the transceiver to transmit and receive, and configured to repetitively transmit first uplink transmission power control, TPC, commands on a first fractional dedicated physical channel, F-DPCH, with a CELL_FACH configuration while repetitively transmitting second uplink TPC commands on a second F-DPCH and/or a Dedicated Physical Control CHannel with a CELL_DCH configuration, wherein the first and second uplink TPC commands control uplink transmission power from the UE to the network node.
Blockout device for the formwork of a concrete structure fixed on at least one of the two metal formwork panels, consisting of a flexible and inflatable bag, provided with at least one valve, the bag comprising a first chamber and a second chamber fitting into each other, characterized in that the chambers are made of a fibrous and dense material, the first chamber is internally made of a flexible material and resistant to a pressure greater than or equal to a pressure necessary to resist the impact due to the projection of the concrete onto one of the faces of the bag during the filling of the formwork and to a pressure necessary to resist the force due to the mass of concrete supported by the different parts of the bag, and the second chamber is externally made of a material that is resistant to friction with damaging external elements, and in that the device is equipped with magnetic means for fixing it to at least one of the two metal formwork panels fixed between the first chamber and the second chamber. consisting of a flexible and inflatable bag, provided with at least one valve, the bag comprising a first chamber and a second chamber fitting into each other, characterized in that the chambers are made of a fibrous and dense material, the first chamber is internally made of a flexible material and resistant to a pressure greater than or equal to a pressure necessary to resist the impact due to the projection of the concrete onto one of the faces of the bag during the filling of the formwork and to a pressure necessary to resist the force due to the mass of concrete supported by the different parts of the bag, and the second chamber is externally made of a material that is resistant to friction with damaging external elements, and in that the device is equipped with magnetic means for fixing it to at least one of the two metal formwork panels fixed between the first chamber and the second chamber.
Method for generating process steam by burning dried lignite in a steam generator, comprising the drying of moist lignite in a fluidized bed dryer with internal heat exchanger units through which a heating medium flows, wherein at least some of the water is driven out of the lignite and removed from the dryer as vapours, dust is removed from the vapours in a dedusting device and the dried lignite is cooled in at least one cooler arranged downstream of the fluidized bed dryer, and wherein the lignite dust accumulating in the dedusting device is brought into direct contact with the dried and cooled lignite, characterized in that the lignite dust is layered with the dried and cooled lignite, wherein the cooled lignite is employed as cooling medium in a cooler for the lignite dust, the layering is carried out during transport of the cooled lignite and a mixing operation is carried out during transport of the layered material streams.
A method for detecting an obstruction in a respiratory conduit comprising: detecting with a sound sensor a measure of sound of a flow generator within a respiratory conduit; and analyzing the measure of sound from the sound sensor with a processor, wherein analyzing comprises comparing the measure of sound with previously stored data samples representing a template; and indicating with the processor a presence or absence of obstruction in the respiratory conduit based on the analyzing. detecting with a sound sensor a measure of sound of a flow generator within a respiratory conduit; and analyzing the measure of sound from the sound sensor with a processor, wherein analyzing comprises comparing the measure of sound with previously stored data samples representing a template; and indicating with the processor a presence or absence of obstruction in the respiratory conduit based on the analyzing.
A method comprising: extracting audio features of a first audio track; extracting audio features of at least one further audio track; determining a divergence measure between a statistical distribution of extracted audio features of the first audio track and a statistical distribution of extracted audio features of the at least one further audio track by: quantising parameters of the statistical distribution of extracted audio features of the first audio track; quantising parameters of the statistical distribution of extracted audio features of the at least one further audio track; and reading the divergence measure from a look up table by using the quantised parameters associated with the statistical distribution of extracted audio features of the first audio track and the quantised parameters associated with the statistical distribution of extracted audio features of the at least one further audio track as inputs to the look up table determining a divergence measure threshold value from the divergence measure between the statistical distribution of extracted audio features of the first audio track and the statistical distribution of extracted audio features of the at least one further audio track; and comparing the divergence measure with the divergence measure threshold value. extracting audio features of a first audio track; extracting audio features of at least one further audio track; determining a divergence measure between a statistical distribution of extracted audio features of the first audio track and a statistical distribution of extracted audio features of the at least one further audio track by: quantising parameters of the statistical distribution of extracted audio features of the first audio track; quantising parameters of the statistical distribution of extracted audio features of the at least one further audio track; and reading the divergence measure from a look up table by using the quantised parameters associated with the statistical distribution of extracted audio features of the first audio track and the quantised parameters associated with the statistical distribution of extracted audio features of the at least one further audio track as inputs to the look up table determining a divergence measure threshold value from the divergence measure between the statistical distribution of extracted audio features of the first audio track and the statistical distribution of extracted audio features of the at least one further audio track; and comparing the divergence measure with the divergence measure threshold value.
An apparatus for encoding video data for an image that is divisible into macroblocks of size 16X16 and in which a plurality of macroblocks are assignable as super macroblocks, a super macroblock being a pair of vertically adjacent macroblocks of the image, said apparatus including: - a motion activity detector; - an encoder for assigning the super macroblock for encoding in one of a frame mode or a field mode responsive to application of the video data of the image to the motion activity detector. - a motion activity detector; - an encoder for assigning the super macroblock for encoding in one of a frame mode or a field mode responsive to application of the video data of the image to the motion activity detector.
A mode converter, comprising: a substrate comprising a silicon dioxide, SiO 2, material disposed on top of the substrate; a silicon waveguide comprising a first adiabatic tapering (406, 408, 410) and enclosed in the silicon dioxide material; and a low-index waveguide (404, 416) disposed on top of the substrate and adjacent to the first adiabatic tapering; wherein the low-index waveguide comprises a second adiabatic tapering, and wherein the first adiabatic tapering is adjacent to the second adiabatic tapering, and a gap between the first adiabatic tapering of the silicon waveguide and the second adiabatic tapering of the low-index waveguide is constant. a substrate comprising a silicon dioxide, SiO 2, material disposed on top of the substrate; a silicon waveguide comprising a first adiabatic tapering (406, 408, 410) and enclosed in the silicon dioxide material; and a low-index waveguide (404, 416) disposed on top of the substrate and adjacent to the first adiabatic tapering; wherein the low-index waveguide comprises a second adiabatic tapering, and wherein the first adiabatic tapering is adjacent to the second adiabatic tapering, and a gap between the first adiabatic tapering of the silicon waveguide and the second adiabatic tapering of the low-index waveguide is constant.
A decoding method, the method comprising: obtaining, by a decoding device, a polar encoded code word to be decoded, the polar encoded code word obtained by polar encoding a first-level encoded code word, and the first-level encoded code word comprises a plurality of information bits and a plurality of check bits, each check bit is positioned at a next position of an S th information bit corresponding to the check bit and before the (S+1)th information bit in the first-level encoded code word for a value of S less than a quantity of the plurality of information bits or positioned after the plurality of information bits for a value of S equal to the quantity of the plurality of information bits, and S is a number of first S information bits in the first-level encoded code word related to the check bit and is a non-zero integer; and polar decoding the polar encoded code word based on outputting M survivor paths according to L survivor paths output last time, wherein L is an integer not smaller than 1 and not greater than a first integer, M is an integer not smaller than 1 and not greater than the first integer. obtaining, by a decoding device, a polar encoded code word to be decoded, the polar encoded code word obtained by polar encoding a first-level encoded code word, and the first-level encoded code word comprises a plurality of information bits and a plurality of check bits, each check bit is positioned at a next position of an S th information bit corresponding to the check bit and before the (S+1)th information bit in the first-level encoded code word for a value of S less than a quantity of the plurality of information bits or positioned after the plurality of information bits for a value of S equal to the quantity of the plurality of information bits, and S is a number of first S information bits in the first-level encoded code word related to the check bit and is a non-zero integer; and polar decoding the polar encoded code word based on outputting M survivor paths according to L survivor paths output last time, wherein L is an integer not smaller than 1 and not greater than a first integer, M is an integer not smaller than 1 and not greater than the first integer.
Quality evaluation method for characterising resistance-welded welding components, in particular in conductive capacitor discharge welding installations, by evaluating at least one welding parameter (P1, Pn) from the group: welding current, welding voltage, welding force, resistance, deposition/melting path, welding time; wherein a detected curve of the welding parameter to be evaluated is provided as a curve of the respective welding parameter; characterized by evaluating the curve by reading out at least one characteristic variable (Kl, Kn) of the respective curve as a function of time and optionally also as a function of at least one further of the welding parameters, wherein at least the amount of the welding current and a change in slope and/or change in gradient of the welding current curve as well as the time of the respective welding current and the change in slope are evaluated as characteristic variables; comparing the characteristic variables with at least one setpoint value (V1, Vn) for the respective characteristic variable, wherein at least the slope and/or a gradient of the respective curve is evaluated as characteristic variable (K1, Kn), wherein the setpoint value is defined on the basis of the detected course or gradient of the welding parameter to be evaluated; and evaluating the quality of the welding component based on the comparison of the characteristic values, in particular with regard to the amount of a deviation of the characteristic values from the setpoint value. characterized by evaluating the curve by reading out at least one characteristic variable (Kl, Kn) of the respective curve as a function of time and optionally also as a function of at least one further of the welding parameters, wherein at least the amount of the welding current and a change in slope and/or change in gradient of the welding current curve as well as the time of the respective welding current and the change in slope are evaluated as characteristic variables; comparing the characteristic variables with at least one setpoint value (V1, Vn) for the respective characteristic variable, wherein at least the slope and/or a gradient of the respective curve is evaluated as characteristic variable (K1, Kn), wherein the setpoint value is defined on the basis of the detected course or gradient of the welding parameter to be evaluated; and evaluating the quality of the welding component based on the comparison of the characteristic values, in particular with regard to the amount of a deviation of the characteristic values from the setpoint value.
A container comprising a base, a first pair of opposed walls and a second pair of opposed walls defining, in use, the fillable space of the container, the upper, in use, edge of the first pair of opposed walls and the second pair of opposed walls defining the mouth of the container, and wherein the container further comprises a pair of stacking members which are movable between a stacking position in which the stacking members are positioned to support the base of another container stacked thereon and a filling position in which the stacking members are substantially removed from the fillable space of the container, wherein the container further comprises means for moving the stacking members between the stacking position and the filling position, substantially along the mouth of the container, and wherein the stacking member comprises a stacking bar, characterised in that the stacking member comprises at least a pair of foldable legs connected to the stacking bar.
A compound of the formula, wherein R 1 is halogen; R 2 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 3 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 4 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 5 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 6 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 7 is selected from carboxy, C 1-6 alkoxycarbonyl, carboxycarbonylamino, C 3-7 cycloalkylsulfonylaminocarbonyl and C 1-6 alkoxycarbonylcarbonylamino; R 8 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 9 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 10 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl, C 1-6 alkoxy and haloC 1-6 alkoxy; G 1 is selected from C 1-6 alkyl and C 3-7 cycloalkyl; G 2 is selected from C 1-6 alkyl and C 3-7 cycloalkyl; m is selected from 0 and 1; or a pharmaceutically acceptable salt thereof. R 1 is halogen; R 2 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 3 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 4 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 5 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 6 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 7 is selected from carboxy, C 1-6 alkoxycarbonyl, carboxycarbonylamino, C 3-7 cycloalkylsulfonylaminocarbonyl and C 1-6 alkoxycarbonylcarbonylamino; R 8 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 9 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl and C 1-6 alkoxy; R 10 is selected from H, OH, halogen, C 1-6 alkyl, haloC 1-6 alkyl, C 1-6 alkoxy and haloC 1-6 alkoxy; G 1 is selected from C 1-6 alkyl and C 3-7 cycloalkyl; G 2 is selected from C 1-6 alkyl and C 3-7 cycloalkyl; m is selected from 0 and 1;