mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the three dimensional conductility distribution of a mass flow in a three dimensional target volume, the method comprising the steps of - collecting current or voltage values generated by supplying alternating voltage or alternating current to the target volume and measuring the current or the voltage, correspondingly, thereby induced in the target volume; - providing a state space model which defines the relationships between the electrical conductivity, the voltage, and the current in the target volume, and the evolution of the electrical conductivity as a function of time; - comparing the currents and/or the voltages according to the state space model with the supplied and the measured ones; - modifying as needed the state space model to decrease the differences between the calculated and the measured results until a predetermined consistency is achieved; and - determining the three dimensional conductivity distribution of the mass flow in the target volume according to the modified state space model, characterised in that - the collected current or voltage values are selected to consist of results of measurements performed substantially within one plane; and - the state space model is provided so as to comprise the time-dependent flow field of the mass flow within the target volume. - collecting current or voltage values generated by supplying alternating voltage or alternating current to the target volume and measuring the current or the voltage, correspondingly, thereby induced in the target volume; - providing a state space model which defines the relationships between the electrical conductivity, the voltage, and the current in the target volume, and the evolution of the electrical conductivity as a function of time; - comparing the currents and/or the voltages according to the state space model with the supplied and the measured ones; - modifying as needed the state space model to decrease the differences between the calculated and the measured results until a predetermined consistency is achieved; and - determining the three dimensional conductivity distribution of the mass flow in the target volume according to the modified state space model, characterised in that - the collected current or voltage values are selected to consist of results of measurements performed substantially within one plane; and - the state space model is provided so as to comprise the time-dependent flow field of the mass flow within the target volume.
A tunable laser comprising: a silicon photonic substrate (290, 390); the silicon photonic substrate including a gain region (220, 320) configured to emit light and including a waveguide; the silicon photonic substrate including a wavelength dependent optical filter (210, 310) configured to filter a wavelength of light received by the gain region; an output coupler (240, 330, 530) formed in the silicon photonic substrate to receive light from the gain region and to allow the light to exit the tunable laser, the output coupler further configured to produce optical feedback from the light in the waveguide; and a heating element configured to be adjusted based on optical feedback received from the output coupler in order to alter the wavelength of laser light passed to the gain region. a silicon photonic substrate (290, 390); the silicon photonic substrate including a gain region (220, 320) configured to emit light and including a waveguide; the silicon photonic substrate including a wavelength dependent optical filter (210, 310) configured to filter a wavelength of light received by the gain region; an output coupler (240, 330, 530) formed in the silicon photonic substrate to receive light from the gain region and to allow the light to exit the tunable laser, the output coupler further configured to produce optical feedback from the light in the waveguide; and a heating element configured to be adjusted based on optical feedback received from the output coupler in order to alter the wavelength of laser light passed to the gain region.
Method for repairing a rotor arrangement of a turbo machine, said rotor arrangement having a rotor having a groove extending in the peripheral direction thereof for receiving a ring section (18; 28), wherein a notch is present in the groove, said method having the following steps: - chamfering the notch in the groove; - incorporating a recess into the groove; and - inserting the ring section (18; 28) into the groove, wherein at least one engagement element (48; 49) formed on the ring section (18; 28) engages with the recess to form anti-twist projection in the peripheral direction. - chamfering the notch in the groove; - incorporating a recess into the groove; and - inserting the ring section (18; 28) into the groove, wherein at least one engagement element (48; 49) formed on the ring section (18; 28) engages with the recess to form anti-twist projection in the peripheral direction.
A method for video decoding in a decoder, comprising: decoding prediction information of a current block from a coded video bitstream, the prediction information being indicative of an inter prediction mode that performs inter prediction based on a motion vector predictor selected from a list of candidates and a motion vector difference; decoding precision information of the motion vector difference; deriving the motion vector predictor from a subset of the list of candidates when the precision information is indicative of a specific precision; and reconstructing a sample of the current block according to the motion vector predictor and the motion vector difference. decoding prediction information of a current block from a coded video bitstream, the prediction information being indicative of an inter prediction mode that performs inter prediction based on a motion vector predictor selected from a list of candidates and a motion vector difference; decoding precision information of the motion vector difference; deriving the motion vector predictor from a subset of the list of candidates when the precision information is indicative of a specific precision; and reconstructing a sample of the current block according to the motion vector predictor and the motion vector difference.
An apparatus configured to convert sensing errors within a register file read path into sampling errors so that the errors are monitor-able from the register file read path, the apparatus comprising: at least one bitline (308a, 308b; LBL-0, LBL-1); and a register file circuit configured to operate with a decreased voltage guardband that compensates for an error in a signal provided in the at least one bitline (308a, 308b; LBL-0, LBL-1) during an access operation, the register file circuit being configured to operate with the decreased voltage guardband by detecting the error if the error occurs in response to the access operation, characterized in that the register file circuit includes: an edge-triggered clock-responsive device (328; 508); and a level-triggered clock-responsive device (330; 510), the register file circuit being configured to detect the error if an output of the edge-triggered clock-responsive device (328, 508) differs from an output of the level-triggered clock-responsive device (330, 510); and the register file circuit is further configured to repeat the access operation if the error is detected to react to the detected error while the voltage guardband is decreased. at least one bitline (308a, 308b; LBL-0, LBL-1); and a register file circuit configured to operate with a decreased voltage guardband that compensates for an error in a signal provided in the at least one bitline (308a, 308b; LBL-0, LBL-1) during an access operation, the register file circuit being configured to operate with the decreased voltage guardband by detecting the error if the error occurs in response to the access operation, characterized in that the register file circuit includes: an edge-triggered clock-responsive device (328; 508); and a level-triggered clock-responsive device (330; 510), the register file circuit being configured to detect the error if an output of the edge-triggered clock-responsive device (328, 508) differs from an output of the level-triggered clock-responsive device (330, 510); and an edge-triggered clock-responsive device (328; 508); and a level-triggered clock-responsive device (330; 510), the register file circuit being configured to detect the error if an output of the edge-triggered clock-responsive device (328, 508) differs from an output of the level-triggered clock-responsive device (330, 510); and the register file circuit is further configured to repeat the access operation if the error is detected to react to the detected error while the voltage guardband is decreased.
A grafted guar gum obtained by a method for grafting an unsaturated monomer selected from a vinyl monomer having a quaternary ammonium group to guar gum and depolymerizing the guar gum, said method comprising the steps of: a) mixing the unsaturated monomer and the guar gum; and b) irradiating the guar gum and monomer mixture of step a) with a dose of electron beams effective to graft the monomer to the guar gum and depolymerize the grafted guar gum to a pre-selected molecular weight of below 700,000 Daltons, as measured by gel permeation chromatography. a) mixing the unsaturated monomer and the guar gum; and b) irradiating the guar gum and monomer mixture of step a) with a dose of electron beams effective to graft the monomer to the guar gum and depolymerize the grafted guar gum to a pre-selected molecular weight of below 700,000 Daltons, as measured by gel permeation chromatography.
Insulating element for insulating a structural element (12, 14) in a vehicle, the insulating element comprising a carrier element having a first surface and a second surface; and an expandable material which is disposed on the carrier element; wherein the expandable material is disposed on a first part-region of the first surface of the carrier element, and a second part-region of the first surface is free of expandable material such that the first surface of the carrier element is completely covered with expanded material upon expansion of the expandable material, characterized in that the first part-region is composed of a plurality of non-contiguous elements, and in that a first element is disposed in a strip-shaped manner along the circumference of the first surface of the carrier element, and wherein one or a plurality of further elements are disposed in the internal region of the first surface of the carrier element.
Method for verifying data generated by an electronic device included in an item of equipment adapted to communicate with a server via a communication network, the electronic device comprising a computation unit, a one-time programmable memory and a volatile memory, the item of equipment comprising a rewritable nonvolatile memory and a communication bus allowing the electronic device to store data in the rewritable nonvolatile memory, characterized in that the method is implemented by the electronic device and comprises: creating a secure channel by encipherment between the item of equipment and the server; obtaining (22,23) a message authentication key code, termed the authentication key, of the server; loading data to be verified and a message authentication code corresponding to the said data of the rewritable nonvolatile memory into the volatile memory, the message authentication code having been obtained by the electronic device on the basis of the authentication key and of the said data prior to the storage of the said data and of the message authentication code in the rewritable nonvolatile memory, the electronic device having employed the authentication key solely at the moment of generation of the message authentication code; verifying the data to be verified by using the authentication key and the message authentication code and using the data when verification is positive. creating a secure channel by encipherment between the item of equipment and the server; obtaining (22,23) a message authentication key code, termed the authentication key, of the server; loading data to be verified and a message authentication code corresponding to the said data of the rewritable nonvolatile memory into the volatile memory, the message authentication code having been obtained by the electronic device on the basis of the authentication key and of the said data prior to the storage of the said data and of the message authentication code in the rewritable nonvolatile memory, the electronic device having employed the authentication key solely at the moment of generation of the message authentication code; verifying the data to be verified by using the authentication key and the message authentication code and using the data when verification is positive.
A system to determine the extent of applied cardiac tissue stimulation due to pacing, the system comprising: electrodes configured to be distributed on a patent's torso; a pacing device configured to stimulate the patent's cardiac tissue; a processing unit configured to: determine the number of electrodes that register an activation time that meet a predetermined criteria; calculate a percentage index by dividing the number of electrodes that registered activation times that meet the predetermined criteria by the total number of electrodes distributed on the patient's torso; and determine the extent of applied cardiac tissue stimulation due to pacing based on the percentage index. electrodes configured to be distributed on a patent's torso; a pacing device configured to stimulate the patent's cardiac tissue; a processing unit configured to: determine the number of electrodes that register an activation time that meet a predetermined criteria; calculate a percentage index by dividing the number of electrodes that registered activation times that meet the predetermined criteria by the total number of electrodes distributed on the patient's torso; and determine the extent of applied cardiac tissue stimulation due to pacing based on the percentage index. determine the number of electrodes that register an activation time that meet a predetermined criteria; calculate a percentage index by dividing the number of electrodes that registered activation times that meet the predetermined criteria by the total number of electrodes distributed on the patient's torso; and determine the extent of applied cardiac tissue stimulation due to pacing based on the percentage index.
A device for dispensing liquid or semi-liquid food products comprising a supporting member, mounted at the outlet of a processing cylinder, having a dispensing duct for the processed product; the dispensing duct having a product inlet port, in communication with the outlet of the processing cylinder, and a product dispensing port; the device further comprising a shutter, which is at least partly inserted in the dispensing duct and which is movable between a duct and dispensing port closed first position, and a duct and dispensing port open second position, and a shutter actuating lever connected to the supporting member, for moving the shutter from the closed first position to the open second position, and vice versa; the device being characterized in that it comprises means for rapid assembly/disassembly of the lever to/from the supporting member and in that the lever has a first pin and a second pin, aligned with each other, which are inserted in respective sockets (22,24) formed in the supporting member to allow the lever to be turned about its own axis, and a protrusion which extends from a first end and which fits into a socket formed in the shutter; the protrusion allowing the shutter to move from the closed first position to the open second position, and vice versa, when the lever is turned about the axis.
A method for fabricating an integrated circuit comprising: identifying, by a computing system, structures of the integrated circuit capable of being fabricated utilizing a lithographic mask described by mask layout data; utilizing, by the computing system, process windows for the identified structures to determine failure rates for the identified structures based, at least in part, on a distribution of manufacturing parameters during fabrication; determining, by the computing system, frequency of occurrences for the identified structures in the integrated circuit from the mask layout data; generating, by the computing system, a die yield metric for the integrated circuit based, at least in part, on the failure rates for the identified structures and frequency of occurrences for the identified structures in the integrated circuit; and setting, by the computing system, values for the manufacturing parameters for use during fabrication of the integrated circuit based, at least in part, on the die yield metric for the integrated circuit, wherein the set values for the manufacturing parameters are included in a failure presentation which is utilized to fabricate the integrated circuit. identifying, by a computing system, structures of the integrated circuit capable of being fabricated utilizing a lithographic mask described by mask layout data; utilizing, by the computing system, process windows for the identified structures to determine failure rates for the identified structures based, at least in part, on a distribution of manufacturing parameters during fabrication; determining, by the computing system, frequency of occurrences for the identified structures in the integrated circuit from the mask layout data; generating, by the computing system, a die yield metric for the integrated circuit based, at least in part, on the failure rates for the identified structures and frequency of occurrences for the identified structures in the integrated circuit; and setting, by the computing system, values for the manufacturing parameters for use during fabrication of the integrated circuit based, at least in part, on the die yield metric for the integrated circuit, wherein the set values for the manufacturing parameters are included in a failure presentation which is utilized to fabricate the integrated circuit.
A resin container, comprising: a container body including a storage portion configured to store liquid content and an outlet for the liquid content; and a lid configured to seal the container body by blocking the outlet, wherein the container body and the lid are made of a resin, the container body has a multilayer structure including a first layer being an innermost layer that comes into contact with the liquid content and a second layer that is in contact with the first layer from an outer side of the first layer, the first layer includes a cyclic olefin copolymer and a linear low-density polyethylene resin, with more of the cyclic olefin copolymer being included than the linear low-density polyethylene resin, and the second layer includes a low-density polyethylene resin, wherein a main monomer of the linear low-density polyethylene resin is an ethylene, a comonomer of the linear low-density polyethylene resin introduces a short chain branch in the molecular structure, characterised in that the short chain branch is introduced at a ratio of from 5 to 100 per 1000 units of structural units of the ethylene, wherein the comonomer is an α-olefin having 4 or more carbon atoms. a container body including a storage portion configured to store liquid content and an outlet for the liquid content; and a lid configured to seal the container body by blocking the outlet, wherein the container body and the lid are made of a resin, the container body has a multilayer structure including a first layer being an innermost layer that comes into contact with the liquid content and a second layer that is in contact with the first layer from an outer side of the first layer, the first layer includes a cyclic olefin copolymer and a linear low-density polyethylene resin, with more of the cyclic olefin copolymer being included than the linear low-density polyethylene resin, and the second layer includes a low-density polyethylene resin, wherein a main monomer of the linear low-density polyethylene resin is an ethylene, a comonomer of the linear low-density polyethylene resin introduces a short chain branch in the molecular structure, characterised in that the short chain branch is introduced at a ratio of from 5 to 100 per 1000 units of structural units of the ethylene, wherein the comonomer is an α-olefin having 4 or more carbon atoms.
A method, by a policy controller, for generating policy rules for data packet flows in a communications network, the policy controller having access to a policy database storing a service level agreement, the service level agreement containing a plurality of different service level identifiers, each service level identifier being associated with a set of conditions that govern the policy rules to be applied to the data packet flows in the communications network, the method comprising the steps of: - receiving an authorization request for a data packet flow, the authorization request comprising service information for a service and a service level identifier, - accessing the policy database and determining the set of conditions associated with the received service level identifier, and - generating, based on the determined set of conditions, a policy rule to be applied to the data packet flow. - receiving an authorization request for a data packet flow, the authorization request comprising service information for a service and a service level identifier, - accessing the policy database and determining the set of conditions associated with the received service level identifier, and - generating, based on the determined set of conditions, a policy rule to be applied to the data packet flow.
Mobile crane comprising a mobile undercarriage, an upper carriage rotatably mounted on the undercarriage, and a counterweight device that can be coupled to the upper carriage, which comprises a counterweight base plate and at least one connecting member extending substantially perpendicular to the counterweight base plate and connected thereto for lifting the counterweight device and coupling the counterweight device to the upper carriage, characterized in that the counterweight device comprises a carrier plate which can be connected above the counterweight base plate to the at least one connection element, wherein at least one pivot beam is mounted on the carrier plate such that it can pivot about a vertical axis, on which pivot beam at least one first counterweight element can be stacked.
A controller for controlling operation of an unmanned aerial vehicle (110, 910), said controller comprising: one or more user input components (650, 660, 670), wherein the one or more user input components are configured to be part of a vehicle (120, 920c); and a processor; wherein the processor is configured to receive a signal from the user input components and generate one or more commands to be transmitted to the UAV to control operation of the UAV, characterised in that: the one or more commands include a landing command to automatically land the UAV on the vehicle with aid of a marker provided on said vehicle, the marker comprising an identifier of the vehicle, wherein said marker is (a) detectable by the UAV and (b) differentiates the vehicle from one or more other vehicles (920a, 920b, 920d), and wherein the marker comprises a location of the vehicle. one or more user input components (650, 660, 670), wherein the one or more user input components are configured to be part of a vehicle (120, 920c); and a processor; wherein the processor is configured to receive a signal from the user input components and generate one or more commands to be transmitted to the UAV to control operation of the UAV, the one or more commands include a landing command to automatically land the UAV on the vehicle with aid of a marker provided on said vehicle, the marker comprising an identifier of the vehicle, wherein said marker is (a) detectable by the UAV and (b) differentiates the vehicle from one or more other vehicles (920a, 920b, 920d), and wherein the marker comprises a location of the vehicle.