mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining a capacitance value of a super-capacitor of an electro-mechanical braking system of at least one vehicle, wherein said super-capacitor is arranged to store an amount of electrical energy sufficient to cause the electro-mechanical braking system to perform at least one emergency braking action; wherein said method includes the steps of: a) measuring a first voltage value at terminals of said super-capacitor ; b) if said first voltage value is greater than a predetermined minimum voltage value, performing a charge or discharge action of said super-capacitor for a measurement time period, wherein said charge or discharge action is arranged to make said terminals of said super-capacitor assume a second voltage value greater than or equal to said minimum voltage value; c) determining a voltage variation at the terminals of said super-capacitor during said measurement time period; d) determining a voltage variation rate on the basis of the voltage variation at the terminals of said super-capacitor determined in step c) and a duration of time of said measurement time period; e) measuring a current value flowing in one of said terminals of said super-capacitor, at a measurement instant of said measurement time period; f) calculating the capacitance value of said super-capacitor by means of the ratio between said current value measured at said measurement instant and said voltage variation rate. a) measuring a first voltage value at terminals of said super-capacitor ; b) if said first voltage value is greater than a predetermined minimum voltage value, performing a charge or discharge action of said super-capacitor for a measurement time period, wherein said charge or discharge action is arranged to make said terminals of said super-capacitor assume a second voltage value greater than or equal to said minimum voltage value; c) determining a voltage variation at the terminals of said super-capacitor during said measurement time period; d) determining a voltage variation rate on the basis of the voltage variation at the terminals of said super-capacitor determined in step c) and a duration of time of said measurement time period; e) measuring a current value flowing in one of said terminals of said super-capacitor, at a measurement instant of said measurement time period; f) calculating the capacitance value of said super-capacitor by means of the ratio between said current value measured at said measurement instant and said voltage variation rate.
An incubation system for automated cell culture and/or testing, the system comprising: a housing forming a chamber ; a rack defining storage positions to support an array of sample holders inside the chamber ; a detection robot to capture one or more images of cells contained by one or more wells of each sample holder while the sample holder remains at one of the storage positions of the rack , wherein the detection robot is movable along three orthogonal axes, to reach every well of each sample holder supported by the rack ; a fluid handling station configured to add fluid to, and/or remove fluid from, the one or more wells of each of the sample holders inside the housing ; at least one plate robot to move sample holders between the rack and the fluid handling station ; and a computer to control operation of the detection robot , the fluid handling station , and the at least one plate robot . a housing forming a chamber ; a rack defining storage positions to support an array of sample holders inside the chamber ; a detection robot to capture one or more images of cells contained by one or more wells of each sample holder while the sample holder remains at one of the storage positions of the rack , wherein the detection robot is movable along three orthogonal axes, to reach every well of each sample holder supported by the rack ; a fluid handling station configured to add fluid to, and/or remove fluid from, the one or more wells of each of the sample holders inside the housing ; at least one plate robot to move sample holders between the rack and the fluid handling station ; and a computer to control operation of the detection robot , the fluid handling station , and the at least one plate robot .
Anti-corrosive coating composition comprising surface-modified metal particles in quantities of 30 to 70 wt.%, based on the coating composition, wherein the metal particles are based on pure zinc and/or zinc alloys and have an inorganically based modification on their surface in the form of a coating, wherein the modification is formed by oxides of silicon, titanium and/or zirconium.
An ozone generator, comprising: - an n-phase inverter , wherein n = 4 or more, adapted to convert a DC voltage to an n-phase AC voltage having a predetermined frequency, and outputting the n-phase AC voltage; - n electric inductors adapted to suppress each of multiphase AC currents output by the inverter ; - an n-phase transformer unit adapted to convert each of the AC voltages output by each of the n electric inductors to a high AC voltage corresponding to each phase with n electric inductors (2000-a) and n transformers (2000-b); - n high-voltage terminals adapted to output each of the plural high AC voltages respectively; - a low voltage terminal adapted to output a low voltage sharing a common potential with the plural high AC voltages; and - n ozone generator units located within a discharge chamber of the ozone generator and adjacently to each of high-voltage terminals respectively, connected with a corresponding high-voltage terminal and a low voltage terminal, and generating ozone by invoking an AC discharge corresponding to each phase, - wherein each of the ozone generator units are electrically divided with respect to the corresponding high-voltage terminal, and has a plurality of stacked flat-plate high-voltage electrodes connected to the corresponding high-voltage terminal respectively and a plurality of stacked flat-plate low-voltage electrode connected to the low voltage terminal, wherein the generator includes a time division device that is capable of equally dividing the time into phases corresponding to a designated phase count signal that is entered thereinto; and wherein, the inverter maintains each of width of phases according to number of phases corresponding to an equally-time-divided signal from the time division device. - an n-phase inverter , wherein n = 4 or more, adapted to convert a DC voltage to an n-phase AC voltage having a predetermined frequency, and outputting the n-phase AC voltage; - n electric inductors adapted to suppress each of multiphase AC currents output by the inverter ; - an n-phase transformer unit adapted to convert each of the AC voltages output by each of the n electric inductors to a high AC voltage corresponding to each phase with n electric inductors (2000-a) and n transformers (2000-b); - n high-voltage terminals adapted to output each of the plural high AC voltages respectively; - a low voltage terminal adapted to output a low voltage sharing a common potential with the plural high AC voltages; and - n ozone generator units located within a discharge chamber of the ozone generator and adjacently to each of high-voltage terminals respectively, connected with a corresponding high-voltage terminal and a low voltage terminal, and generating ozone by invoking an AC discharge corresponding to each phase, - wherein each of the ozone generator units are electrically divided with respect to the corresponding high-voltage terminal, and has a plurality of stacked flat-plate high-voltage electrodes connected to the corresponding high-voltage terminal respectively and a plurality of stacked flat-plate low-voltage electrode connected to the low voltage terminal,
Computer-implemented method for controlling a technical device with an optimal model, wherein the following steps are carried out: a) configure at least one device feature of the technical device in the form of a device model by way of a first edge service , b) generate at least one abstracted feature in the form of an abstract model by way of a second edge service , c) generate and configure a first relationship between the first edge service and the second edge service , which is determined by means of an automatic classification of the at least one device feature using the at least one abstracted feature , d) provide (130, 11-13) at least one respective application feature in the form of an application model from at least one IoT service provider (3-5) by way of the second edge service using a selection parameter on the basis of the abstract model, e) compare the abstracted model with the application model and select the model with the greatest match as the optimal model, f) control the technical device with the optimal model, wherein the selection parameter comprises a variable regarding the quality adherence QAD, which is described by the relationship: QAD = 0.5 1 ftotal ⋅ ∑ f ∈ F 1 − Σ q ∈ Q f r q , f − p q , m f Q f wherein F is the amount of all mapped features, Q f is the amount of quality features which are defined for a feature f , r q,f is the required, normalised value of the feature f for a quality attribute q , p q,m f is the normalised value of the quality attribute q, which m f provides, m f is a concrete cloud feature, which was adjusted to the feature f , and f total is a total number of the application functions. a) configure at least one device feature of the technical device in the form of a device model by way of a first edge service , b) generate at least one abstracted feature in the form of an abstract model by way of a second edge service , c) generate and configure a first relationship between the first edge service and the second edge service , which is determined by means of an automatic classification of the at least one device feature using the at least one abstracted feature , d) provide (130, 11-13) at least one respective application feature in the form of an application model from at least one IoT service provider (3-5) by way of the second edge service using a selection parameter on the basis of the abstract model, e) compare the abstracted model with the application model and select the model with the greatest match as the optimal model, f) control the technical device with the optimal model, F is the amount of all mapped features, Q f is the amount of quality features which are defined for a feature f , r q,f is the required, normalised value of the feature f for a quality attribute q , p q,m f is the normalised value of the quality attribute q, which m f provides, m f is a concrete cloud feature, which was adjusted to the feature f ,
An impeller (1; 201) for centrifugal pumps comprising: a first disk element ; and a second disk element ; wherein the first disk element is functionally arranged toward the inlet, and is coaxial to and faces the second disk element, which is functionally arranged toward the delivery; wherein said second disk element is connected rigidly to said first disk element by angularly spaced vanes and is centrally provided with a fastening means for fastening to a transmission shaft; said impeller (1; 201) further comprising openings formed in the substantially peripheral region of said second disk element , between pairs of adjacent vanes , substantially at the areas subjected to the greatest axial thrust, said openings are constituted by contoured slots , the radially peripheral side of each of said contoured slots having an arc-like profile , wherein said arc-like profile has a convexity facing said rotation axis ; wherein each of said contoured slots has a contoured profile opposite the arc-like profile , characterized in that the arched profile and the contoured profile of the contoured slots are joined by at least one tab with radial development. a first disk element ; and a second disk element ; wherein the first disk element is functionally arranged toward the inlet, and is coaxial to and faces the second disk element, which is functionally arranged toward the delivery; wherein said second disk element is connected rigidly to said first disk element by angularly spaced vanes and is centrally provided with a fastening means for fastening to a transmission shaft; said impeller (1; 201) further comprising openings formed in the substantially peripheral region of said second disk element , between pairs of adjacent vanes , substantially at the areas subjected to the greatest axial thrust, said openings are constituted by contoured slots , the radially peripheral side of each of said contoured slots having an arc-like profile , wherein said arc-like profile has a convexity facing said rotation axis ; wherein each of said contoured slots has a contoured profile opposite the arc-like profile , characterized in that the arched profile and the contoured profile of the contoured slots are joined by at least one tab with radial development.
Electromechanical watch comprising: - an analogue display (AD), - an electromechanical motor formed by a stator, comprising a magnetic circuit and a coil (B1) through which this magnetic circuit passes, and by a rotor provided with a permanent magnet coupled to the magnetic circuit, this magnetic circuit defining at least one minimum energy position for the rotor, this rotor being mechanically coupled to the analogue display, - a power supply circuit (CA1, CA2) for supplying the electromechanical motor, this power supply circuit being connected to a first electrical terminal (M1) and a second electrical terminal (M2) of this electromechanical motor, - an electronic circuit for controlling the electromechanical motor, this electronic control circuit (CEC) being arranged so that, in a stepping functioning mode of the electromechanical motor, the power supply circuit generates, on command, drive pulses having between them non-zero intervals of time, and - a voltage detection circuit (CD1, CD2) arranged so as to be able to detect a voltage induced in said coil (B1) during said intervals of time and in particular to detect, on the basis of this induced voltage, whether a step is made by the rotor during these intervals of time; characterised in that said coil is a first coil (B1) and the stator of the electromechanical motor further comprises a second coil (B2) through which said magnetic circuit passes; and in that the electromechanical watch comprises at least one switch (T1, T2, T3) that is controlled by the electronic control circuit (CEC), in the stepping functioning mode of the electromechanical motor, so as to connect, during each of said intervals of time, any one of the first and second coils to said voltage detection circuit and to short-circuit the other of these first and second coils. - an analogue display (AD), - an electromechanical motor formed by a stator, comprising a magnetic circuit and a coil (B1) through which this magnetic circuit passes, and by a rotor provided with a permanent magnet coupled to the magnetic circuit, this magnetic circuit defining at least one minimum energy position for the rotor, this rotor being mechanically coupled to the analogue display, - a power supply circuit (CA1, CA2) for supplying the electromechanical motor, this power supply circuit being connected to a first electrical terminal (M1) and a second electrical terminal (M2) of this electromechanical motor, - an electronic circuit for controlling the electromechanical motor, this electronic control circuit (CEC) being arranged so that, in a stepping functioning mode of the electromechanical motor, the power supply circuit generates, on command, drive pulses having between them non-zero intervals of time, and - a voltage detection circuit (CD1, CD2) arranged so as to be able to detect a voltage induced in said coil (B1) during said intervals of time and in particular to detect, on the basis of this induced voltage, whether a step is made by the rotor during these intervals of time;
A method performed by a portable electronic device for locating tire sensors on a vehicle , the portable electronic device comprising a camera and Radio Frequency Identification, RFID, circuitry , wherein the method comprise: determining the tire location (A-L) of each tire on the vehicle using image recognition on image data from the camera ; detecting one or more tire sensors of each tire via the RFID circuitry as the portable electronic device sequentially guides a user of the portable electronic device via a user interface to motion the portable electronic device in proximity of each tire at each determined tire location (A-L); and identifying each of the one or more detected tire sensors on the vehicle . determining the tire location (A-L) of each tire on the vehicle using image recognition on image data from the camera ; detecting one or more tire sensors of each tire via the RFID circuitry as the portable electronic device sequentially guides a user of the portable electronic device via a user interface to motion the portable electronic device in proximity of each tire at each determined tire location (A-L); and identifying each of the one or more detected tire sensors on the vehicle .
A computer-implemented method for facilitating efficient name encryption, the method comprising: determining , by a client computing device, an index for a name of an interest, wherein the name is a hierarchically structured variable length identifier that includes contiguous name components ordered from a most general level to a most specific level, wherein the index indicates a minimum number of the contiguous name components beginning from the most general level that represent a minimum routable prefix needed to route the interest to a content producing device that can satisfy the interest; encrypting one or more name components of the interest name beginning with the name component immediately following the minimum routable prefix; and transmitting the interest based on the encrypted name, thereby facilitating efficient name encryption in a content centric network. determining , by a client computing device, an index for a name of an interest, wherein the name is a hierarchically structured variable length identifier that includes contiguous name components ordered from a most general level to a most specific level, wherein the index indicates a minimum number of the contiguous name components beginning from the most general level that represent a minimum routable prefix needed to route the interest to a content producing device that can satisfy the interest; encrypting one or more name components of the interest name beginning with the name component immediately following the minimum routable prefix; and transmitting the interest based on the encrypted name, thereby facilitating efficient name encryption in a content centric network.
A vehicular seat element comprising a first major surface, a second major surface and a foam core element disposed therebetween, the first major surface configured to be in contact with an occupant of the vehicle and the second major surface configured to be in contact with a support surface of the vehicle, the first major surface comprising a rate sensitive foam element adhered to the foam core element, the foam core element and the rate sensitive foam element being different.
An atomizer for an electronic vaporizer , comprising: a first heating element for heating a fluid to produce a vapor, the first heating element having a first controllable power output to generate a correspondingly controllable quantity of the vapor; a wicking material , for conveying the fluid from a container to the first heating element ; a second heating element for heating the vapor, not associated with a further wicking material but delivered via an airstream from the first heating element , to generate an output vapor, the second heating element having a second controllable power output to generate a correspondingly controllable temperature of the output vapor. a first heating element for heating a fluid to produce a vapor, the first heating element having a first controllable power output to generate a correspondingly controllable quantity of the vapor; a wicking material , for conveying the fluid from a container to the first heating element ; a second heating element for heating the vapor, not associated with a further wicking material but delivered via an airstream from the first heating element , to generate an output vapor, the second heating element having a second controllable power output to generate a correspondingly controllable temperature of the output vapor.
A radio terminal supporting Carrier Aggregation using a primary cell and at least one secondary cell operated in a non-licensed frequency, the radio terminal comprising: a receiver configured to receive (S902), in the primary cell, a Radio Resource Control, RRC, Connection Reconfiguration message, the RRC Connection Reconfiguration message including a first measurement configuration which includes a measurement duration in which a Received Signal Strength Indicator, RSSI, measurement is to be performed on the non-licensed frequency; at least one processor configured to measure (S903) the RSSI on the non-licensed frequency within the measurement duration in which the RSSI measurement is to be performed; and a transmitter configured to transmit (S904), in the primary cell, a measurement report including a value of the RSSI. a receiver configured to receive (S902), in the primary cell, a Radio Resource Control, RRC, Connection Reconfiguration message, the RRC Connection Reconfiguration message including a first measurement configuration which includes a measurement duration in which a Received Signal Strength Indicator, RSSI, measurement is to be performed on the non-licensed frequency; at least one processor configured to measure (S903) the RSSI on the non-licensed frequency within the measurement duration in which the RSSI measurement is to be performed; and a transmitter configured to transmit (S904), in the primary cell, a measurement report including a value of the RSSI.
Burner assembly for a boiler for steam generation; the burner assembly (4; 400) extending along a longitudinal axis (A) and comprising: • an air duct centred along the axis (A), into which, in use, air flows in a forward direction (D); the air duct being provided with an outlet discharging into a combustion chamber of the boiler unit ; • a plurality of fuel conduits (90; 90a, 90b, 90c) into which, in use, at least one fuel flows in the forward direction (D); • a plurality of fuel injection nozzles arranged around the air duct ; each fuel injection nozzle being connected to an end portion of a respective fuel conduit (90; 90a, 90b, 90c) for discharging, in use, fuel into the combustion chamber ; • the outlet of the air duct being arranged downstream of the fuel injection nozzles along the forward direction (D); characterised in that • the end portion of at least one fuel conduit (90; 90a, 90b, 90c) is rotatable about its extension axis (B) to allow an adjustment of the injection direction. • an air duct centred along the axis (A), into which, in use, air flows in a forward direction (D); the air duct being provided with an outlet discharging into a combustion chamber of the boiler unit ; • a plurality of fuel conduits (90; 90a, 90b, 90c) into which, in use, at least one fuel flows in the forward direction (D); • a plurality of fuel injection nozzles arranged around the air duct ; each fuel injection nozzle being connected to an end portion of a respective fuel conduit (90; 90a, 90b, 90c) for discharging, in use, fuel into the combustion chamber ; • the outlet of the air duct being arranged downstream of the fuel injection nozzles along the forward direction (D); characterised in that • the end portion of at least one fuel conduit (90; 90a, 90b, 90c) is rotatable about its extension axis (B) to allow an adjustment of the injection direction.