mhurhangee/patent-ind-claim-en huggingface dataset:
Tank for a power device, in particular for an electric power transformer, comprising one or more walls delimiting the tank itself having one or more internal surfaces , and one or more magnetic shunt assemblies arranged on and coupled to said one or more tank walls internal surfaces , wherein the magnetic shunt assembly is configured for magnetic shielding of the power device, and comprises a plurality of joined ferromagnetic sheets and a plurality of bonding layers for bonding subsequent sheets (2' , 2") of said plurality of ferromagnetic sheets to form an integral assembly, wherein each ferromagnetic sheet is bonded to the adjacent ferromagnetic sheet by means of one of the bonding layers , characterized in that said bonding layers: are obtained from a thermosetting resin; or are formed from an adhesive system comprising an epoxy adhesive and a curing agent; or are formed from an adhesive system comprising an epoxy adhesive curable by heat; or are formed from an adhesive system comprising an acrylic adhesive and a curing agent. are obtained from a thermosetting resin; or are formed from an adhesive system comprising an epoxy adhesive and a curing agent; or are formed from an adhesive system comprising an epoxy adhesive curable by heat; or are formed from an adhesive system comprising an acrylic adhesive and a curing agent.
A method for controlling an apparatus being an elevator, an escalator or automatic doors, the method comprising detecting ( S1 ) whether a fault is present in the apparatus, characterized in that the fault is stored in a fault memory or fault recorder, the method further comprises: determining ( S2 ), when the fault is present, whether an automatic fault clearing may be carried out by determining whether the fault in the apparatus fulfills a certain condition, and if it is determined that the automatic fault clearing may be carried out, performing ( S3 ) the automatic fault clearing by automatically clearing one or more faults from the fault memory or fault recorder. detecting ( S1 ) whether a fault is present in the apparatus, characterized in that the fault is stored in a fault memory or fault recorder, the method further comprises: determining ( S2 ), when the fault is present, whether an automatic fault clearing may be carried out by determining whether the fault in the apparatus fulfills a certain condition, and if it is determined that the automatic fault clearing may be carried out, performing ( S3 ) the automatic fault clearing by automatically clearing one or more faults from the fault memory or fault recorder. determining ( S2 ), when the fault is present, whether an automatic fault clearing may be carried out by determining whether the fault in the apparatus fulfills a certain condition, and if it is determined that the automatic fault clearing may be carried out, performing ( S3 ) the automatic fault clearing by automatically clearing one or more faults from the fault memory or fault recorder.
Lighting assembly, including - at least two LED lighting elements arranged at a distance from each other, - a diffusor element extending over said LED lighting elements , said diffusor element comprising at least first diffusion portions arranged in front of said LED lighting elements and at least one second diffusion portion arranged in between said first diffusion portions , said first diffusion portions being disposed to cause a stronger optical diffusion than said second diffusion portions , and wherein the diffusor element is made from silicone, wherein said LED lighting elements and said diffusor element are at least partly surrounded by a flexible housing , and wherein electrical conductors are arranged between said LED lighting elements . - at least two LED lighting elements arranged at a distance from each other, - a diffusor element extending over said LED lighting elements , said diffusor element comprising at least first diffusion portions arranged in front of said LED lighting elements and at least one second diffusion portion arranged in between said first diffusion portions , said first diffusion portions being disposed to cause a stronger optical diffusion than said second diffusion portions , and wherein the diffusor element is made from silicone, wherein said LED lighting elements and said diffusor element are at least partly surrounded by a flexible housing , and wherein electrical conductors are arranged between said LED lighting elements .
A method performed by one or more data processing apparatus using one or more components of an audio to spikes conversion pipeline, the method comprising: obtaining audio data ; generating frequency domain audio signals that represent the audio data by converting the audio data into a frequency domain; mapping the frequency domain audio signals into a set of Mel-frequency bands to obtain Mel-scale frequency audio signals; performing a log transformation on the Mel-scale frequency audio signals to obtain log-Mel signals; generating spike input comprising a series of spikes for input to a spiking neural network, SNN, model by converting the log-Mel signals to the series of spikes, wherein converting the log-Mel signals to spike input comprises: determining a step-wise difference between the log-Mel signals of two adjacent time steps; determining that the step-wise difference satisfies a threshold in either a positive or negative direction; and the method further comprising generating a spike of a corresponding polarity; and providing the spike input as an input to the SNN model. obtaining audio data ; generating frequency domain audio signals that represent the audio data by converting the audio data into a frequency domain; mapping the frequency domain audio signals into a set of Mel-frequency bands to obtain Mel-scale frequency audio signals; performing a log transformation on the Mel-scale frequency audio signals to obtain log-Mel signals; generating spike input comprising a series of spikes for input to a spiking neural network, SNN, model by converting the log-Mel signals to the series of spikes, wherein converting the log-Mel signals to spike input comprises: determining a step-wise difference between the log-Mel signals of two adjacent time steps; determining that the step-wise difference satisfies a threshold in either a positive or negative direction; and the method further comprising generating a spike of a corresponding polarity; and determining a step-wise difference between the log-Mel signals of two adjacent time steps; determining that the step-wise difference satisfies a threshold in either a positive or negative direction; and the method further comprising generating a spike of a corresponding polarity; and providing the spike input as an input to the SNN model.
Reference oscillator arrangement having a first reference oscillator for generating a first output signal and a second reference oscillator for generating a second output signal , and the reference oscillator arrangement having a phase-locked loop for controlling the frequency of the second reference oscillator to the frequency of the first reference oscillator and/or for controlling the phase of the second reference oscillator to the phase of the first reference oscillator , the reference oscillator arrangement having a control input for an external calibration signal and being configured to match the frequency and/or phase of the first reference oscillator to the external calibration signal , characterized in that the reference oscillator arrangement has a control device which is designed to couple the calibration signal to the phase-locked loop so that the phase-locked loop synchronizes the second reference oscillator with the calibration signal . the reference oscillator arrangement having a control input for an external calibration signal and being configured to match the frequency and/or phase of the first reference oscillator to the external calibration signal , characterized in that the reference oscillator arrangement has a control device which is designed to couple the calibration signal to the phase-locked loop so that the phase-locked loop synchronizes the second reference oscillator with the calibration signal .
An active ingredient-containing product suitable for the release of an active ingredient, said active ingredient-containing product comprising an outer water-permeable pouch chamber containing a first active ingredient-containing composition ; wherein said pouch chamber is interconnected to another pouch chamber containing a second composition different from said first composition , thereby resulting in at least two interconnected pouch chambers each comprising a different composition , wherein a separation section separates one pouch chamber from another, and wherein each pouch chamber has a length of from about 1 mm to about 40 mm and a width of no greater than about 10 mm.
Gemcitabine-[phenyl-benzoxy-L-alaninyl)]-phosphate, or a pharmaceutically acceptable salt or solvate thereof for use in treating cancer in combination with platinum-based anticancer agent selected from cisplatin, picoplatin, lipoplatin and triplatin.
An arc fault detection device for detecting an arc fault in an electric line , the arc fault detection device comprising: a first terminal and a second terminal for connecting the arc fault detection device to a conductor of the electric line ; a sensor adapted for generating a sensor signal from a current through the electric line ; and a controller adapted for detecting the arc fault from the sensor signal ; a circuit breaker adapted for interrupting the electric line ; wherein the sensor comprises an inductor connected to the first terminal and the second terminal and a capacitor connected in parallel with the inductor ; wherein the inductor and the capacitor form a resonant circuit with a resonance frequency ( f 0 ), the resonance frequency ( f 0 ) determining an impedance behavior of the resonant circuit ; wherein the inductor and a capacitance of the capacitor are chosen such that the impedance behavior of the resonant circuit corresponds to a desired impedance behavior (400a, 400b, 400c, 400d; 500a) over a relevant frequency range of the current through the electric line ; wherein the inductor is a magnetic actuator adapted for operating the circuit breaker (120. a first terminal and a second terminal for connecting the arc fault detection device to a conductor of the electric line ; a sensor adapted for generating a sensor signal from a current through the electric line ; and a controller adapted for detecting the arc fault from the sensor signal ; a circuit breaker adapted for interrupting the electric line ; wherein the sensor comprises an inductor connected to the first terminal and the second terminal and a capacitor connected in parallel with the inductor ; wherein the inductor and the capacitor form a resonant circuit with a resonance frequency ( f 0 ), the resonance frequency ( f 0 ) determining an impedance behavior of the resonant circuit ; wherein the inductor and a capacitance of the capacitor are chosen such that the impedance behavior of the resonant circuit corresponds to a desired impedance behavior (400a, 400b, 400c, 400d; 500a) over a relevant frequency range of the current through the electric line ; wherein the inductor is a magnetic actuator adapted for operating the circuit breaker (120.
Sensor system with a sensor device comprising - a through-flow cell having a liquid supply opening and a liquid discharge opening , which through-flow cell is configured to allow a liquid (5-1, 5-2) to flow through it, - a detector device which is configured to measure a property of the liquid in the cell and to generate an associated detector signal, - a sensor control which is configured to analyse the detector signal, wherein the sensor control is configured to detect a liquid transition between two different liquids in the through-flow cell characterized in that the sensor control is configured to detect said liquid transition when a change in the detector signal is greater than a predetermined threshold value, wherein the sensor control is configured to generate an alarm signal if the sensor control detects such a liquid transition. - a through-flow cell having a liquid supply opening and a liquid discharge opening , which through-flow cell is configured to allow a liquid (5-1, 5-2) to flow through it, - a detector device which is configured to measure a property of the liquid in the cell and to generate an associated detector signal, - a sensor control which is configured to analyse the detector signal, wherein the sensor control is configured to detect a liquid transition between two different liquids in the through-flow cell characterized in that the sensor control is configured to detect said liquid transition when a change in the detector signal is greater than a predetermined threshold value, wherein the sensor control is configured to generate an alarm signal if the sensor control detects such a liquid transition.
Starter contact switch comprising a casing extending along an axis (X) and delimiting at least one interior space , at least one coil housed in this interior space , at least one fixed core through which there passes a shaft capable of translational movement in the direction of the axis (X) and at least one cavity comprising an electrical connection zone, said cavity being separated from the interior space by the fixed core , the starter contact switch comprising at least one sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone, wherein: - the contact switch comprises an integration housing for the sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone is formed on the fixed core , - the sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone is secured to the integration housing formed in the fixed core , this sealing device being in sliding contact with the mobile shaft , - characterized in that the sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone is held in position in an integration housing via a thrust washer , - in that the sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone comprises a seal and a sealing ring , - in that the sealing ring is positioned between the seal and the fixed core . - the contact switch comprises an integration housing for the sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone is formed on the fixed core , - the sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone is secured to the integration housing formed in the fixed core , this sealing device being in sliding contact with the mobile shaft , - characterized in that the sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone is held in position in an integration housing via a thrust washer , - in that the sealing device providing sealing between the interior space of the starter contact switch and the cavity comprising the connection zone comprises a seal and a sealing ring , - in that the sealing ring is positioned between the seal and the fixed core .
A system for controlling a redundant connection in a flat network architecture, comprising: at least two field devices ; a primary control device connected to a primary switch by a first port of the primary switch; a secondary control device connected to a secondary switch by a first port of the secondary switch; wherein the primary control device and switch , secondary control device and switch , and the at least two field devices are connected in a daisy chain loop topology; wherein an Ethernet port of the primary switch and an Ethernet port of the secondary switch are respectively connected to at least two different Ethernet ports of a control room switch , with the primary switch connected to the control room switch via a first port of the control room switch and a second port of the primary switch, and the secondary switch connected to the control room switch via a second port of the control room switch and a second port of the secondary switch; and wherein the secondary control device is configured to: operate in standby mode for the primary control device ; detect failure of the primary control device ; initiate failover ; enable the Ethernet port of the secondary switch . at least two field devices ; a primary control device connected to a primary switch by a first port of the primary switch; a secondary control device connected to a secondary switch by a first port of the secondary switch; wherein the primary control device and switch , secondary control device and switch , and the at least two field devices are connected in a daisy chain loop topology; wherein an Ethernet port of the primary switch and an Ethernet port of the secondary switch are respectively connected to at least two different Ethernet ports of a control room switch , with the primary switch connected to the control room switch via a first port of the control room switch and a second port of the primary switch, and the secondary switch connected to the control room switch via a second port of the control room switch and a second port of the secondary switch; and wherein the secondary control device is configured to: operate in standby mode for the primary control device ; detect failure of the primary control device ; initiate failover ; enable the Ethernet port of the secondary switch . operate in standby mode for the primary control device ; detect failure of the primary control device ; initiate failover ; enable the Ethernet port of the secondary switch .
An elevator comprising: at least one elevator car , an electric linear motor comprising at least one stator beam arranged in fixed manner with respect to and to extend along an elevator shaft of the elevator for moving the elevator car , and a movable maintenance robot system for providing maintenance and/or rescue operation to an elevator car of the elevator , wherein the movable maintenance robot system comprises: - a coupling interface for coupling a movable maintenance robot of the movable maintenance robot system with the elevator car to provide the maintenance and/or the rescue operation, wherein the coupling interface comprises a first part and a second part , wherein the first part is arranged to the movable maintenance robot and configured for coupling with the second part , the second part being coupled to the elevator car , and - the movable maintenance robot comprising at least one motor portion , wherein the at least one motor portion is configured for moving along at least one first motor portion is arranged in fixed manner with respect to and to extend along the elevator shaft , characterized in that the at least one first motor portion is a designated first motor portion and the movable maintenance robot is configured so that it can pass the elevator car along the designated first motor portion. at least one elevator car , an electric linear motor comprising at least one stator beam arranged in fixed manner with respect to and to extend along an elevator shaft of the elevator for moving the elevator car , and a movable maintenance robot system for providing maintenance and/or rescue operation to an elevator car of the elevator , wherein the movable maintenance robot system comprises: - a coupling interface for coupling a movable maintenance robot of the movable maintenance robot system with the elevator car to provide the maintenance and/or the rescue operation, wherein the coupling interface comprises a first part and a second part , wherein the first part is arranged to the movable maintenance robot and configured for coupling with the second part , the second part being coupled to the elevator car , and - the movable maintenance robot comprising at least one motor portion , wherein the at least one motor portion is configured for moving along at least one first motor portion is arranged in fixed manner with respect to and to extend along the elevator shaft , - a coupling interface for coupling a movable maintenance robot of the movable maintenance robot system with the elevator car to provide the maintenance and/or the rescue operation, wherein the coupling interface comprises a first part and a second part , wherein the first part is arranged to the movable maintenance robot and configured for coupling with the second part , the second part being coupled to the elevator car , and - the movable maintenance robot comprising at least one motor portion , wherein the at least one motor portion is configured for moving along at least one first motor portion is arranged in fixed manner with respect to and to extend along the elevator shaft ,
A mirror assembly comprising: a housing portion comprising a base portion and a shaft portion , the shaft portion comprising a first portion and a second portion, the first portion constrained against movement with respect to the second portion; a support portion coupled to the housing portion ; a mirror head coupled to the support portion via a swivel joint , the mirror head comprising a first mirror on a first side of the mirror head and a second mirror on a second side (103") of the mirror head, the second mirror having a different magnification than the first mirror , the mirror head rotatable relative to the base portion about an axis formed by swivel joint ; a light source (130a', 130a", 130b', 130b"); a light path having a length and is positioned around at least a portion of a periphery of the first mirror; a proximity sensor configured to detect an object within a sensing region of the proximity sensor; and an electronic processor configured to activate the one or more light sources when the proximity sensor detects the object within the sensing region; wherein the support portion is positioned around at least a portion of a periphery of the mirror head and the support portion is rotatable around a hinge with respect to the base portion ; and wherein the mirror head is rotatable about an axis of the swivel joint relative to the support portion a housing portion comprising a base portion and a shaft portion , the shaft portion comprising a first portion and a second portion, the first portion constrained against movement with respect to the second portion; a support portion coupled to the housing portion ; a mirror head coupled to the support portion via a swivel joint , the mirror head comprising a first mirror on a first side of the mirror head and a second mirror on a second side (103") of the mirror head, the second mirror having a different magnification than the first mirror , the mirror head rotatable relative to the base portion about an axis formed by swivel joint ; a light source (130a', 130a", 130b', 130b"); a light path having a length and is positioned around at least a portion of a periphery of the first mirror; a proximity sensor configured to detect an object within a sensing region of the proximity sensor; and an electronic processor configured to activate the one or more light sources when the proximity sensor detects the object within the sensing region; wherein the support portion is positioned around at least a portion of a periphery of the mirror head and the support portion is rotatable around a hinge with respect to the base portion ; and wherein the mirror head is rotatable about an axis of the swivel joint relative to the support portion