mhurhangee/patent-ind-claim-en huggingface dataset:
A decoder for determining an estimate of a vector of information symbols carried by optical signals propagating along a multi-core fiber in an optical fiber transmission channel according to two or more cores, said decoder being implemented in an optical receiver , said optical signals being encoded using a space-time coding scheme and/or being scrambled by at least one scrambling device arranged in said optical fiber transmission channel according to a predefined scrambling function, wherein the decoder comprises a processing unit configured to adaptively: - determine, in response to a temporal condition, one or more channel quality indicators from said optical signals; - determine a decoding algorithm according to a target quality of service metric and on said one or more channel quality indicators; - update said predefined scrambling function and/or said space-time coding scheme depending on said target quality of service metric and on said one or more channel quality indicators, the decoder further comprising a symbol estimation unit configured to determine an estimate of a vector of information symbols by applying said decoding algorithm to said optical signals. - determine, in response to a temporal condition, one or more channel quality indicators from said optical signals; - determine a decoding algorithm according to a target quality of service metric and on said one or more channel quality indicators; - update said predefined scrambling function and/or said space-time coding scheme depending on said target quality of service metric and on said one or more channel quality indicators,
A method of operating a user equipment, UE, device suitable for connection to a mobile communications network, the method comprising: receiving information from a plurality of base stations of the mobile communications network, the information received from a base station providing the UE device with an indication as to whether that base station supports resuming a radio resource control, RRC, connection; using the information to construct a ranking list of the plurality of base stations according to a suitability of the base stations for RRC connection resumption operation; and selecting from the ranking list a second base station to which a radio resource control connection resume message is sent for re-establishing an RRC connection previously released by a first base station. receiving information from a plurality of base stations of the mobile communications network, the information received from a base station providing the UE device with an indication as to whether that base station supports resuming a radio resource control, RRC, connection; using the information to construct a ranking list of the plurality of base stations according to a suitability of the base stations for RRC connection resumption operation; and selecting from the ranking list a second base station to which a radio resource control connection resume message is sent for re-establishing an RRC connection previously released by a first base station.
A method comprising: receiving , from a network application , an access request for a data resource stored in a first network database , the access request including a resource identifier and a user identifier , the resource identifier identifying the data resource , the user identifier identifying a user of the network application ; in response to receiving the access request, using the resource identifier included in the access request to access , from a second network database , a policy object linked to the data resource , the policy object including an effective policy for the data resource , the effective policy including at least one statement (510, 5 n 0) that (i) includes an operation (516, 5 n 6) performable with respect to the data resource based on satisfaction of one or more conditions (514, 5 n 4), (ii) is inherited from at least one parent data resource from which the data resource depends, and (iii) is stored in the policy object for the data resource ; evaluating , using a hardware processor , an access permission of the user with respect to the data resource based at least in part on whether the one or more conditions (514, 5 n 4) included in the at least one statement (510, 5 n 0) are satisfied; and communicating , to the network application , a response to the access request, the response to the access request including the access permission of the user with respect to the data resource . receiving , from a network application , an access request for a data resource stored in a first network database , the access request including a resource identifier and a user identifier , the resource identifier identifying the data resource , the user identifier identifying a user of the network application ; in response to receiving the access request, using the resource identifier included in the access request to access , from a second network database , a policy object linked to the data resource , the policy object including an effective policy for the data resource , the effective policy including at least one statement (510, 5 n 0) that (i) includes an operation (516, 5 n 6) performable with respect to the data resource based on satisfaction of one or more conditions (514, 5 n 4), (ii) is inherited from at least one parent data resource from which the data resource depends, and (iii) is stored in the policy object for the data resource ; evaluating , using a hardware processor , an access permission of the user with respect to the data resource based at least in part on whether the one or more conditions (514, 5 n 4) included in the at least one statement (510, 5 n 0) are satisfied; and communicating , to the network application , a response to the access request, the response to the access request including the access permission of the user with respect to the data resource .
A method for determining the relative position in space of at least two magnetic field sources in relation to at least one magnetic field sensor , at least one of the magnetic field sources being a solenoid, the method comprising the steps of: a) acquiring measurements of the magnetic field generated by said magnetic field sources by means of said at least one magnetic field sensor ; b) computing, by means of at least one processor, a solution of the expression of the magnetic field generated by the magnetic field sources by modelling each said magnetic field source by an element chosen from among a superposition of solenoids and a superposition of charged planes, then by estimating the value of a complete elliptic integral linked to said model by an iterative Bulirsch algorithm using a Landen transformation; c) computing at least one element chosen from among the position and the orientation of each said magnetic field source by using at least one method chosen from among: - a minimisation of the cost between said measurements of said at least one magnetic field sensor and said solutions computed in step b); - a Bayesian filtering, at successive instants, of each said measurement of each said at least one magnetic field sensor , said filtering being a function of each said solution computed in step b), the method further comprising the command of a periodic emission of the intensity of the magnetic field of said solenoid at a different frequency from at least one other of said magnetic field sources . a) acquiring measurements of the magnetic field generated by said magnetic field sources by means of said at least one magnetic field sensor ; b) computing, by means of at least one processor, a solution of the expression of the magnetic field generated by the magnetic field sources by modelling each said magnetic field source by an element chosen from among a superposition of solenoids and a superposition of charged planes, then by estimating the value of a complete elliptic integral linked to said model by an iterative Bulirsch algorithm using a Landen transformation; c) computing at least one element chosen from among the position and the orientation of each said magnetic field source by using at least one method chosen from among: - a minimisation of the cost between said measurements of said at least one magnetic field sensor and said solutions computed in step b); - a Bayesian filtering, at successive instants, of each said measurement of each said at least one magnetic field sensor , said filtering being a function of each said solution computed in step b), the method further comprising the command of a periodic emission of the intensity of the magnetic field of said solenoid at a different frequency from at least one other of said magnetic field sources . - a minimisation of the cost between said measurements of said at least one magnetic field sensor and said solutions computed in step b); - a Bayesian filtering, at successive instants, of each said measurement of each said at least one magnetic field sensor , said filtering being a function of each said solution computed in step b),
A free-solution analytical method comprising: interrogating an interaction product of a first non-immobilized analyte and a second non-immobilized analyte, within a fluid sample in a refractive index sensor, with light, wherein at least one of the analytes was added to the fluid sample in a concentration of less than about 1.0 × 10 -6 M; and detecting the light after interrogation with the fluid sample, characterized in that the detected light is not backscattered; and in that the detecting is performed by an apparatus selected from a RI detector based on the angle of deviation method of measurement, a RI detector based on the Fresnel method of RI measurement, a Christiansen effect detector, an interferometer detector, and a differential refractometer detector. interrogating an interaction product of a first non-immobilized analyte and a second non-immobilized analyte, within a fluid sample in a refractive index sensor, with light, wherein at least one of the analytes was added to the fluid sample in a concentration of less than about 1.0 × 10 -6 M; and detecting the light after interrogation with the fluid sample, characterized in that the detected light is not backscattered; and in that the detecting is performed by an apparatus selected from a RI detector based on the angle of deviation method of measurement, a RI detector based on the Fresnel method of RI measurement, a Christiansen effect detector, an interferometer detector, and a differential refractometer detector.
A method for improving the operational efficiency of a battery pack (100; 150) comprising at least two nickel metal hydride, NiMH, battery modules (10, 10', 10"), wherein each battery module comprises at least one battery cell, wherein each battery module (10, 10', 10") has a casing encompassing the at least one battery cell and enclosing a gas space, wherein the gas spaces of the battery modules (10, 10', 10") are connected to each other to form a common gas space , wherein each battery cell comprises a first electrode, a second electrode, a porous separator, and an aqueous alkaline electrolyte arranged between the first electrode and the second electrode, wherein the porous separator, the first electrode and the second electrode are configured to allow exchange of hydrogen and oxygen by allowing gas to migrate between the electrodes, and wherein at least one of the casings comprises a gas inlet for adding a gas or a liquid to the common gas space; characterized in that the method comprises the steps of - obtaining data on the battery modules (10, 10', 10"), wherein the data relates to the number of battery cells per battery module (10, 10', 10") and the number of battery modules (10, 10', 10"), temperature of each battery module, and the energy capacity of the battery modules (10, 10', 10"), - obtaining an internal resistance (R i1 , R i2 , R i3 ) for at least two of the battery modules (10, 10', 10"), - determining , in case the difference in internal resistance between any of the battery modules exceeds a predetermined first resistance threshold (R t1 ), based on the internal resistance and the data on the battery module, a filling amount of oxygen to be filled into the battery module (10, 10', 10") in order to reduce the difference in internal resistance between any two battery modules to a level below the first resistance threshold (R t1 ), and - initiating filling of the battery pack based on the determined filling amount of oxygen. - obtaining data on the battery modules (10, 10', 10"), wherein the data relates to the number of battery cells per battery module (10, 10', 10") and the number of battery modules (10, 10', 10"), temperature of each battery module, and the energy capacity of the battery modules (10, 10', 10"), - obtaining an internal resistance (R i1 , R i2 , R i3 ) for at least two of the battery modules (10, 10', 10"), - determining , in case the difference in internal resistance between any of the battery modules exceeds a predetermined first resistance threshold (R t1 ), based on the internal resistance and the data on the battery module, a filling amount of oxygen to be filled into the battery module (10, 10', 10") in order to reduce the difference in internal resistance between any two battery modules to a level below the first resistance threshold (R t1 ), and - initiating filling of the battery pack based on the determined filling amount of oxygen.
An implant comprising a body and a bone fixation system, wherein the body comprises an interior surface and an exterior surface , and wherein the bone fixation system comprises one or more blades and one or more strike plates ; wherein each of the blades comprises a blade region and a support region , wherein the support region comprises an outer surface , an inner surface , two ends and one or more attachment regions for attaching to the one or more strike plates, wherein each end of the support region contains an end protrusion (102a-102d), wherein the interior surface of the body contains tracks (118a-118d) that align with each end protrusion, and wherein each end protrusion has a suitable size and shape to fit in one of the tracks in sliding relation thereto, characterized in that each of the tracks (118a-118d) has a cross section in a shape that corresponds with the shape of the cross section of the end protrusion (102a-102d). wherein the body comprises an interior surface and an exterior surface , and wherein the bone fixation system comprises one or more blades and one or more strike plates ; wherein each of the blades comprises a blade region and a support region , wherein the support region comprises an outer surface , an inner surface , two ends and one or more attachment regions for attaching to the one or more strike plates, wherein each end of the support region contains an end protrusion (102a-102d), wherein the interior surface of the body contains tracks (118a-118d) that align with each end protrusion, and wherein each end protrusion has a suitable size and shape to fit in one of the tracks in sliding relation thereto, characterized in that each of the tracks (118a-118d) has a cross section in a shape that corresponds with the shape of the cross section of the end protrusion (102a-102d).
An intervertebral fusion device comprising: a) an intervertebral fusion cage comprising an anterior wall having an anterior face having a recess therein, a posterior wall , a pair of side walls connecting the anterior and posterior walls, an upper surface , a lower surface , and a through hole extending from the upper surface to the lower surface, the cage having an anterior end , b) a staple comprising a first crossbar (33; 35) and first and second tynes extending therefrom, wherein the first crossbar of the staple is disposed in the recess in the anterior face of the anterior wall, wherein the first tyne extends above the upper surface of the cage and the second tyne extends below the lower surface of the cage, wherein the anterior face of the cage is the anterior end of the device, and wherein the recess in the anterior wall extends from the upper surface to the lower surface of the cage, so that the staple is fully seated in the anterior wall, thereby providing a zero profile device. a) an intervertebral fusion cage comprising an anterior wall having an anterior face having a recess therein, a posterior wall , a pair of side walls connecting the anterior and posterior walls, an upper surface , a lower surface , and a through hole extending from the upper surface to the lower surface, the cage having an anterior end , b) a staple comprising a first crossbar (33; 35) and first and second tynes extending therefrom,
An ex vivo method of engineering a T cell suitable for an allogenic immunotherapy treatment of pre-malignant or malignant cancer condition characterized by CD123-expressing cells, said method comprising: (a) Providing a T cell, (b) Inactivating at least one gene expressing one or more components of TCR, in particular TCRalpha or TCRbeta genes, in said cell; (c) Introducing into said T cell at least one polynucleotide encoding a CD123 specific chimeric antigen receptor (CAR) to be expressed at the surface of said cell; wherein said CD123 specific CAR has a polypeptide structure comprising an extra cellular ligand binding-domain comprising a heavy chain variable region (VH) and a light chain variable region (VL) from a monoclonal anti-CD123 antibody, a FcγRIIIa, CD8α or IgG1 hinge, a CD8α transmembrane domain and a cytoplasmic domain including a CD3 zeta signaling domain and a co-stimulatory domain from 4-1BB, wherein said VH comprises the CDR sequences of SEQ ID NO: 67, 68 and 69 and said VL comprises the CDR sequences of SEQ ID NO: 70, 71 and 72. (a) Providing a T cell, (b) Inactivating at least one gene expressing one or more components of TCR, in particular TCRalpha or TCRbeta genes, in said cell; (c) Introducing into said T cell at least one polynucleotide encoding a CD123 specific chimeric antigen receptor (CAR) to be expressed at the surface of said cell;
A computer-implemented method for avoiding obstacles within a subterranean formation , the method comprising: receiving surface mapping data from one or more satellite images of an area of interest corresponding to the subterranean formation; receiving surface topography data of the area of interest from one or more light detection and ranging , LIDAR, systems; receiving an airborne gravity data set of the area of interest; receiving a seismic data set of the area of interest; identifying a potential surface pad location using at least one of the surface mapping data, the surface topography data, the airborne gravity data set, or the seismic data set, the potential surface pad location including a surface hole for each of one or more wellbores ; generating a resistivity survey for the potential surface pad location, the resistivity survey including at least one long line extending through the surface hole for each of the one or more wellbores and at least one short line extending through the surface hole of one of the one or more wellbores , each short line intersecting the long line at the surface hole of one of the one or more wellbores ; and determining whether one or more subsurface karst features are present within the subterranean formation disposed relative to at least one of the potential surface pad location or the one or more wellbores using the resistivity survey. receiving surface mapping data from one or more satellite images of an area of interest corresponding to the subterranean formation; receiving surface topography data of the area of interest from one or more light detection and ranging , LIDAR, systems; receiving an airborne gravity data set of the area of interest; receiving a seismic data set of the area of interest; identifying a potential surface pad location using at least one of the surface mapping data, the surface topography data, the airborne gravity data set, or the seismic data set, the potential surface pad location including a surface hole for each of one or more wellbores ; generating a resistivity survey for the potential surface pad location, the resistivity survey including at least one long line extending through the surface hole for each of the one or more wellbores and at least one short line extending through the surface hole of one of the one or more wellbores , each short line intersecting the long line at the surface hole of one of the one or more wellbores ; and determining whether one or more subsurface karst features are present within the subterranean formation disposed relative to at least one of the potential surface pad location or the one or more wellbores using the resistivity survey.
A wind park control system for a wind park comprising a plurality of wind turbines and an Energy Storage System connected to one another by means of a low voltage power network , wherein the low voltage power network is coupled to the grid and wherein the plurality of wind turbines each respectively comprise a drive train and gear box connected between a rotor of the wind turbine and a generator of the wind turbine, the wind park control system comprising: a controller one or more environmental sensors located in at least a first wind turbine, arranged to determine one or more operating parameters of the wind turbine drive train or gear box, one or more power sensors located in at least the first wind turbine or on the low voltage power network arranged to determine a power mismatch indication between the generator rotor angle and the low voltage power network and output the power mismatch indication to the controller; wherein the controller is adapted to receive said one or more determined operating parameters and said power mismatch indication, to determine a gearbox or drive train health metric based on said one or more determined operating parameters, and determine a power command for the Energy Storage System and wind turbines based on said power mismatch indication and said gearbox or drive train health metric. a controller one or more environmental sensors located in at least a first wind turbine, arranged to determine one or more operating parameters of the wind turbine drive train or gear box, one or more power sensors located in at least the first wind turbine or on the low voltage power network arranged to determine a power mismatch indication between the generator rotor angle and the low voltage power network and output the power mismatch indication to the controller; wherein the controller is adapted to receive said one or more determined operating parameters and said power mismatch indication, to determine a gearbox or drive train health metric based on said one or more determined operating parameters, and determine a power command for the Energy Storage System and wind turbines based on said power mismatch indication and said gearbox or drive train health metric.