mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an electrical converter interconnected via a filter with an electrical load or electrical power source, the method comprising the steps of: determining output signals (y) comprising currents and/or voltages measured in the filter; determining an estimated flux ( ψ i) from the output signals (y); determining a corrective flux ( ψ i, damp) from the output signals (y) based on a mathematical model of the filter and a quadratic cost function; determining control input signals (u) for the electrical converter based on a sum of the estimated flux ( ψ i) and the corrective flux ( ψ i,damp); controlling the converter with the control input signals (u); performing algorithmic filtering of at least one of the output signals (y) by applying a signal filter to the at least one output signal, which is designed for amplifying the at least one output signal at a resonance frequency of the filter, whereby the corrective flux ( ψ i, damp) is determined from the filtered output signals. determining output signals (y) comprising currents and/or voltages measured in the filter; determining an estimated flux ( ψ i) from the output signals (y); determining a corrective flux ( ψ i, damp) from the output signals (y) based on a mathematical model of the filter and a quadratic cost function; determining control input signals (u) for the electrical converter based on a sum of the estimated flux ( ψ i) and the corrective flux ( ψ i,damp); controlling the converter with the control input signals (u); performing algorithmic filtering of at least one of the output signals (y) by applying a signal filter to the at least one output signal, which is designed for amplifying the at least one output signal at a resonance frequency of the filter, whereby the corrective flux ( ψ i, damp) is determined from the filtered output signals.
A system (1300, 1310, 1320, 1330, 1340) comprising: a hardware processing unit; and a storage resource storing computer-readable instructions which, when executed by the hardware processing unit, cause the hardware processing unit to: receive input source code for an application; identify one or more data dependencies in the input source code; based at least on the one or more data dependencies, identify immutability points in the input source code where one or more particular data items cease to be modified by the input source code; convert, to one or more service modules, at least some of the input source code that operates on the one or more particular data items and occurs in the input source code after the immutability points to one or more service modules; and consistently with the one or more data dependencies, schedule service tasks that execute the one or more service modules at runtime. a hardware processing unit; and a storage resource storing computer-readable instructions which, when executed by the hardware processing unit, cause the hardware processing unit to: receive input source code for an application; identify one or more data dependencies in the input source code; based at least on the one or more data dependencies, identify immutability points in the input source code where one or more particular data items cease to be modified by the input source code; convert, to one or more service modules, at least some of the input source code that operates on the one or more particular data items and occurs in the input source code after the immutability points to one or more service modules; and consistently with the one or more data dependencies, schedule service tasks that execute the one or more service modules at runtime. receive input source code for an application; identify one or more data dependencies in the input source code; based at least on the one or more data dependencies, identify immutability points in the input source code where one or more particular data items cease to be modified by the input source code; convert, to one or more service modules, at least some of the input source code that operates on the one or more particular data items and occurs in the input source code after the immutability points to one or more service modules; and consistently with the one or more data dependencies, schedule service tasks that execute the one or more service modules at runtime.
Method for the analysis of isotope ratios, wherein at least one sample gas or at least one reference gas are supplied to at least one analytical device via at least one open split, the addition of a carrier gas also being possible, characterized in that the concentration of the sample gas or reference gas passing into the analytical device is controlled by the supply of the respective carrier gas, namely - by computer-controlled control by way of feedback on the basis of sensor data or - by automatic adaptation of the signal intensities of reference and sample by a computer-controlled control system. - by computer-controlled control by way of feedback on the basis of sensor data or - by automatic adaptation of the signal intensities of reference and sample by a computer-controlled control system.
A vehicle control apparatus comprising: a determination portion configured to determine whether a vehicle is running by using a motor as a power source without using an engine or the vehicle is running by using both of the engine and the motor as the power source, on the basis of an operation status of the engine; a detection portion configured to detect a start-up request of the engine; a drive power calculation portion configured to calculate a drive power based on a requested drive power in a case where it is detected that the vehicle is running by using the motor as the power source without using the engine and the start-up request of the engine is detected, the vehicle control apparatus being characterized in that it further comprises an engine start-up control portion configured to drive a drive shaft (120, 121a, 121b) by outputting the calculated drive power by means of the motor at a start-up of the engine, the engine start-up control portion being configured to connect the engine and the motor after the output of the drive power is completed and to rotate the engine by cranking the engine by the motor and to cause the vehicle to run by using both of the engine and the motor as the power source. a determination portion configured to determine whether a vehicle is running by using a motor as a power source without using an engine or the vehicle is running by using both of the engine and the motor as the power source, on the basis of an operation status of the engine; a detection portion configured to detect a start-up request of the engine; a drive power calculation portion configured to calculate a drive power based on a requested drive power in a case where it is detected that the vehicle is running by using the motor as the power source without using the engine and the start-up request of the engine is detected, the vehicle control apparatus being characterized in that it further comprises an engine start-up control portion configured to drive a drive shaft (120, 121a, 121b) by outputting the calculated drive power by means of the motor at a start-up of the engine, the engine start-up control portion being configured to connect the engine and the motor after the output of the drive power is completed and to rotate the engine by cranking the engine by the motor and to cause the vehicle to run by using both of the engine and the motor as the power source.
An arrangement for mounting an impact sensor assembly to a vehicle comprising a first sensor housing and a second sensor housing each of which housings has a pressure sensor; a deformable tube connected to the first sensor housing and the second sensor housing via a tube connection; and a fascia of the vehicle, wherein the first sensor housing, the second sensor housing and the deformable tube of the impact sensor assembly are mounted behind the fascia of the vehicle, and between an energy absorbing material and a cross beam, the deformable tube of the impact sensor assembly is mounted, wherein the deformable tube, the energy absorbing material and the cross beam extend laterally from a vehicle centerline; characterized by a first electric device casing and/or a second electric device casing of a bumper assembly of the vehicle each of which defining a surface, wherein the first sensor housing is mounted to the surface of the first electric device casing and/or the second sensor housing is mounted to the surface of the second sensor housing; at least two mounting elements provided on the surface of the first electric device casing and/or the second electric device casing; and a distance element with damping properties surrounding each mounting element for isolating the first sensor housing and/or the second sensor housing from vibrations. a first sensor housing and a second sensor housing each of which housings has a pressure sensor; a deformable tube connected to the first sensor housing and the second sensor housing via a tube connection; and a fascia of the vehicle, wherein the first sensor housing, the second sensor housing and the deformable tube of the impact sensor assembly are mounted behind the fascia of the vehicle, and between an energy absorbing material and a cross beam, the deformable tube of the impact sensor assembly is mounted, wherein the deformable tube, the energy absorbing material and the cross beam extend laterally from a vehicle centerline; characterized by a first electric device casing and/or a second electric device casing of a bumper assembly of the vehicle each of which defining a surface, wherein the first sensor housing is mounted to the surface of the first electric device casing and/or the second sensor housing is mounted to the surface of the second sensor housing; at least two mounting elements provided on the surface of the first electric device casing and/or the second electric device casing; and a distance element with damping properties surrounding each mounting element for isolating the first sensor housing and/or the second sensor housing from vibrations.
A testing device comprising: a first interface device configured to enable communication with a first component of a vehicle; a second interface device configured to enable communication with a second component of the vehicle; test module storage configured to store one or more test modules; a user interface; and a test controller responsive to the user interface to select a test module from the test module storage and to cause the first interface device to communicate first test data to the first component of the vehicle and to cause the second interface device to communicate second test data to the second component of the vehicle to perform a cybersecurity vulnerability test associated with the selected test module, wherein transmission of the first test data and the second test data to the first component and the second component of the vehicle, respectively, occurs at least partially overlapping in time, and wherein an interplay between the first test data affecting operation of the first component and the second test data affecting operation of the second component indicates whether the first component and the second components are vulnerable to a multi-vector cybersecurity attack. a first interface device configured to enable communication with a first component of a vehicle; a second interface device configured to enable communication with a second component of the vehicle; test module storage configured to store one or more test modules; a user interface; and a test controller responsive to the user interface to select a test module from the test module storage and to cause the first interface device to communicate first test data to the first component of the vehicle and to cause the second interface device to communicate second test data to the second component of the vehicle to perform a cybersecurity vulnerability test associated with the selected test module, wherein transmission of the first test data and the second test data to the first component and the second component of the vehicle, respectively, occurs at least partially overlapping in time, and wherein an interplay between the first test data affecting operation of the first component and the second test data affecting operation of the second component indicates whether the first component and the second components are vulnerable to a multi-vector cybersecurity attack.
A method comprising: using at least one computer hardware processor to perform: obtaining sequencing data about at least one biological sample of a subject; accessing, in at least one database, biomarker information indicating a distribution of values for each biomarker, across a respective group of people, in at least a reference subset of the plurality of biomarkers, each of the plurality of biomarkers being associated with at least one candidate therapy, wherein a biomarker associated with a candidate therapy is associated with a positive therapeutic response or non-positive therapeutic response to the candidate therapy; determining, using the sequencing data and the biomarker information, a normalized score for each biomarker in at least a subject subset of the plurality of biomarkers to obtain a set of normalized biomarkers for the subject, wherein determining a normalized score for a biomarker comprises: determining a z-score for the biomarker based on a distribution of values for the biomarker, and determining a normalized score for the biomarker as a "high" or "low" normalized biomarker value using a predefined mathematical function where the normalized biomarker value ranges from -1 to 1 depending on Z-score; identifying the subject as a member of one or more cohorts based on the set of normalized biomarker scores for the subject, wherein each of the one or more cohorts is associated with a positive or negative outcome of the at least one candidate therapy; and outputting an indication of the one or more cohorts in which the subject is a member. obtaining sequencing data about at least one biological sample of a subject; accessing, in at least one database, biomarker information indicating a distribution of values for each biomarker, across a respective group of people, in at least a reference subset of the plurality of biomarkers, each of the plurality of biomarkers being associated with at least one candidate therapy, wherein a biomarker associated with a candidate therapy is associated with a positive therapeutic response or non-positive therapeutic response to the candidate therapy; determining, using the sequencing data and the biomarker information, a normalized score for each biomarker in at least a subject subset of the plurality of biomarkers to obtain a set of normalized biomarkers for the subject, wherein determining a normalized score for a biomarker comprises: determining a z-score for the biomarker based on a distribution of values for the biomarker, and determining a normalized score for the biomarker as a "high" or "low" normalized biomarker value using a predefined mathematical function where the normalized biomarker value ranges from -1 to 1 depending on Z-score; identifying the subject as a member of one or more cohorts based on the set of normalized biomarker scores for the subject, wherein each of the one or more cohorts is associated with a positive or negative outcome of the at least one candidate therapy; and outputting an indication of the one or more cohorts in which the subject is a member.
A docking station comprising: a first frame arranged to receive a first head block assembly; and a second frame moveably coupled to the first frame by an engagement assembly, wherein the engagement assembly is arranged to selectively move the second frame from a retracted position to an extended position so as to allow the second frame to receive a second head block assembly engageable by the docking station, such that in the extended position, the docking station is arranged to accommodate the first and second head block assemblies (90, 95) side by side. a first frame arranged to receive a first head block assembly; and a second frame moveably coupled to the first frame by an engagement assembly, wherein the engagement assembly is arranged to selectively move the second frame from a retracted position to an extended position so as to allow the second frame to receive a second head block assembly engageable by the docking station, such that in the extended position, the docking station is arranged to accommodate the first and second head block assemblies (90, 95) side by side.
Moulding element for a mould for vulcanizing a tyre tread, the said moulding element comprising a base able to mould part of the tread surface of the tread and a bar able to mould a groove in the tread, the said bar comprising two lateral faces extending along the length of the bar and protruding from the said base, and an upper face connecting the said lateral faces, the said moulding element comprising a contact edge formed by the base and the bar, the said contact edge being intended to come into contact with another moulding element to form all or part of the vulcanizing mould, characterized in that the said moulding element comprises at least one recess in the bar, the said recess opening onto one of the lateral faces of the bar and onto the contact edge of the moulding element, the said recess not opening onto the upper face of this bar.
Retractable thruster system for moving a thruster on a vessel between an extended position, in which the thruster is extended below a hull's bottom, and at least one retracted position, in which the thruster is located above the hull's bottom, the system comprising a canister to which a thruster is mountable, wherein the canister is configured to be movable in a trunk in a vessel's hull structure between said extended position and said at least one retracted position, the system comprising a lifting system arranged to move the canister in the trunk between said extended position and said at least one retracted position, characterized in that the canister is arranged to provide frictional contact between at least one canister contact surface on said canister and at least one corresponding trunk contact surface on the trunk when the thruster is in said extended position in order to transfer thrust load from the thruster in operation onto the vessel's hull structure, wherein a shape of the at least one canister contact surface corresponds to a shape of the said corresponding trunk contact surface, such that the frictional forces which are built up between the canister contact surface and said corresponding trunk contact surface, when the thruster is in the extended position, provide fixation of the canister in the trunk, wherein the system further comprises a pressure unit arranged to increase the pressure of the canister onto said at least one trunk contact surface.
A laser arrangement comprising a laser array and an optical device for providing a defined illumination pattern in a defined field-of-view, wherein the optical device comprises a multitude of localized optical structures, wherein each localized optical structure is associated with at least one laser, and wherein each localized optical structure is arranged to redirect laser light emitted by at least one laser comprised by the laser array such that the laser light emitted by each laser appears to be emitted from at least one apparent position (130-1a, 130-1b) of the laser array, wherein the optical device is arranged such that the apparent positions (130-1a, 130-1b) are distributed in an irregular pattern, characterized in that the localized optical structures are arranged such that the laser light emitted by at least one of the lasers appears to be emitted from at least two apparent positions of the laser array.
Hairstyling device comprising a blower module for generating an air flow, a blower head, an electronic module, which electronic module is housed within said blower head, and a bypass channel designed to capture a portion of the air flow generated by the blower module in order to cool said electronic module, the hairstyling device comprising a handle, which extends between a first end and a second opposite end, said blower head being connected to the handle at said second end, said blower module being arranged within said handle or being assembled to the handle at said first end, characterized in that said bypass channel extends at least partially into said handle.
A sensor device comprising: a first detector circuit configured to detect a first stimulus, wherein the first detector circuit comprises a resistive change polymer, a capacitive shift polymer, a dielectric change polymer, a graphene based sensor, or a metal-oxide type detector; a sacrificial sensor circuit comprising a second detector circuit and a second membrane filter, wherein the second detector circuit has the same components as the first detector circuit and is configured to be isolated from the first stimulus using said second membrane filter that isolates the sacrificial sensor circuit from exposure to the first stimuli exposed to the first detector circuit, and wherein the sacrificial sensor circuit is configured as a reference measurement used to determine a drift in performance of the first detector circuit; a near field communication circuit comprising: an NFC power receiver configured to receive power from a mobile device using an NFC standard protocol and to provide operating power for the sensor device; and an NFC data transceiver configured to transmit data to the mobile device using the NFC standard protocol, the data corresponding to the first stimulus; and a sensor package configured to house the first detector circuit, the second detector circuit and the NFC circuit. a first detector circuit configured to detect a first stimulus, wherein the first detector circuit comprises a resistive change polymer, a capacitive shift polymer, a dielectric change polymer, a graphene based sensor, or a metal-oxide type detector; a sacrificial sensor circuit comprising a second detector circuit and a second membrane filter, wherein the second detector circuit has the same components as the first detector circuit and is configured to be isolated from the first stimulus using said second membrane filter that isolates the sacrificial sensor circuit from exposure to the first stimuli exposed to the first detector circuit, and wherein the sacrificial sensor circuit is configured as a reference measurement used to determine a drift in performance of the first detector circuit; a near field communication circuit comprising: an NFC power receiver configured to receive power from a mobile device using an NFC standard protocol and to provide operating power for the sensor device; and an NFC data transceiver configured to transmit data to the mobile device using the NFC standard protocol, the data corresponding to the first stimulus; and an NFC power receiver configured to receive power from a mobile device using an NFC standard protocol and to provide operating power for the sensor device; and an NFC data transceiver configured to transmit data to the mobile device using the NFC standard protocol, the data corresponding to the first stimulus; and a sensor package configured to house the first detector circuit, the second detector circuit and the NFC circuit.
A wind turbine, comprising: a tower; a nacelle disposed adjacent a top of the tower and including a nacelle roof; a rotor including a hub and at least one wind turbine blade, the rotor operatively coupled to a generator housed within the nacelle; and a heliplatform including a support structure extending from the nacelle, characterised in that it further comprises a cooler including a spoiler and at least one cooler panel projecting above the nacelle roof, the cooler being operable to remove heat from an interior of the nacelle; and in that the heliplatform is at least partially integrated with the cooler. a tower; a nacelle disposed adjacent a top of the tower and including a nacelle roof; a rotor including a hub and at least one wind turbine blade, the rotor operatively coupled to a generator housed within the nacelle;