mhurhangee/patent-ind-claim-en huggingface dataset:
Method for transmitting data from a management entity in a communication system further comprising at least one data concentrator device to which smart electricity meters are attached via a first powerline communication network , each data concentrator device being connected to the management entity via a second communication network , the method being such that, in order to transmit data from the management entity to a said smart electricity meter , said smart electricity meter receives, coming from the management entity , via the first powerline communication network , a message indicating that a data transfer is pending with the management entity; said smart electricity meter comprising a wireless communication interface adapted to communicate via a third wireless local communication network with a residential gateway connected to the management entity via a fourth communication network , the method being such that said smart electricity meter obtains said data from the management entity via the third wireless local communication network . the method being such that, in order to transmit data from the management entity to a said smart electricity meter , said smart electricity meter receives, coming from the management entity , via the first powerline communication network , a message indicating that a data transfer is pending with the management entity; said smart electricity meter comprising a wireless communication interface adapted to communicate via a third wireless local communication network with a residential gateway connected to the management entity via a fourth communication network , the method being such that said smart electricity meter obtains said data from the management entity via the third wireless local communication network .
Apparatus (100; 200) for generating a first multitude of output signals (102a-d) based on at least one audio source signal , the apparatus comprising: a delay network comprising a second multitude of delay paths (106a-d) each delay path (106a-d) having a delay line (108a-d) and an attenuation filter (112a-d), the delay line (108a-d) being configured for receiving, delaying and combining the at least one audio source signal (104a-b, 104a", 104b") and a reverberated audio signal (114a-d) to obtain a combined signal , the attenuation filter (112a-d) being configured for filtering the combined signal to obtain an output signal (102a-d) of the first multitude of output signals; and a feedback processor configured for reverberating the first multitude of output signals (102a-d) to obtain a third multitude of reverberated audio signals (114a-d) comprising the reverberated audio signal for the delay line of each delay path; characterized in that the delay line (106a-d) of each delay path is further configured for receiving, delaying and combining at least the at least one audio source signal as a first audio source signal and a second audio source signal and the reverberated audio signal (114a-d), and the delay line (106a-d) of each delay path is configured for applying a first time delay to the first audio source signal and a second time delay to the second audio source signal , to obtain the combined signal . a delay network comprising a second multitude of delay paths (106a-d) each delay path (106a-d) having a delay line (108a-d) and an attenuation filter (112a-d), the delay line (108a-d) being configured for receiving, delaying and combining the at least one audio source signal (104a-b, 104a", 104b") and a reverberated audio signal (114a-d) to obtain a combined signal , the attenuation filter (112a-d) being configured for filtering the combined signal to obtain an output signal (102a-d) of the first multitude of output signals; and a feedback processor configured for reverberating the first multitude of output signals (102a-d) to obtain a third multitude of reverberated audio signals (114a-d) comprising the reverberated audio signal for the delay line of each delay path; characterized in that the delay line (106a-d) of each delay path is further configured for receiving, delaying and combining at least the at least one audio source signal as a first audio source signal and a second audio source signal and the reverberated audio signal (114a-d), and the delay line (106a-d) of each delay path is configured for applying a first time delay to the first audio source signal and a second time delay to the second audio source signal , to obtain the combined signal .
Energy store , in particular for a motor vehicle , comprising, a secondary cell with two complementary electrodes , a separator keeping them apart, a cell housing , which encloses the electrodes and the separator , and also an electrolyte , with which the cell housing is filled, wherein the cell housing contains hollow glass spheres , which are filled with a quantity of the electrolyte and/or an additive and which are in contact with the electrolyte held in the cell housing , characterized in that the glass of the hollow glass spheres is chosen such that it is dissolved by a chemical reaction with the electrolyte, wherein the glass used is a silicate glass, an aluminosilicate glass, a phosphorus silicate glass, a phosphate glass, a borate glass and/or a borosilicate glass. a secondary cell with two complementary electrodes , a separator keeping them apart, a cell housing , which encloses the electrodes and the separator , and also an electrolyte , with which the cell housing is filled, wherein the cell housing contains hollow glass spheres , which are filled with a quantity of the electrolyte and/or an additive and which are in contact with the electrolyte held in the cell housing , characterized in that the glass of the hollow glass spheres is chosen such that it is dissolved by a chemical reaction with the electrolyte, wherein the glass used is a silicate glass, an aluminosilicate glass, a phosphorus silicate glass, a phosphate glass, a borate glass and/or a borosilicate glass.
Compensator for damping or tensioning or compensating length of a supple pulling means , which is deflectable via a first deflecting rotation body (10; 110) which is rotatable around a main axis , wherein a first swivelling rotation body is supported via a bridge and is rotatable around a first axis of rotation , wherein the pulling means is deflectable via the first swivelling rotation body , characterised in that the first axis of rotation is perpendicular to the main axis , wherein during a rest state (6; 8a) of the compensator the first axis of rotation rests relative to the main axis , and wherein in an operation state of the compensator the bridge swivels, together with the first axis of rotation and the first swivelling rotation body , around the main axis and thereby is tensioned via at least one elastic and / or active controlled device or actor.
Bearing apparatus for an electromechanical brake booster of a motor vehicle, it being possible for the bearing apparatus to be arranged on a spindle of the electromechanical brake booster in such a way that the spindle can be adjusted in a linear manner by means of operation of an electric motor of the electromechanical brake booster , as a result of which the bearing apparatus can be adjusted together with the spindle , and a first plain bearing being inserted or being capable of being inserted into a first receiving opening of the bearing apparatus , and a second plain bearing being inserted or being capable of being inserted into a second receiving opening of the bearing apparatus , in such a way that the bearing apparatus can be arranged additionally via the first plain bearing which is inserted into the first receiving opening on a first carrying element of the electromechanical brake booster , and it being possible for the said bearing apparatus to be arranged via the second plain bearing which is inserted into the second receiving opening on a second carrying element of the electromechanical brake booster , with the result that the bearing apparatus which is adjusted together with the spindle can be guided between the two carrying elements , it optionally being possible, in the case of floating mounting of the second plain bearing in the second receiving opening , for the first plain bearing to be fixed in the first receiving opening or, in the case of floating mounting of the first plain bearing in the first receiving opening , for the second plain bearing to be fixed in the second receiving opening , and, if the first plain bearing is fixed on a first fastening means , it being possible for the bearing apparatus to be arranged between the two carrying elements which are spaced apart by a first spacing, and, if the second plain bearing is fixed on a second fastening means , it being possible for the bearing apparatus to be arranged between the two carrying elements which are spaced apart by a second spacing.
A lens drive device, comprising a lens support , a coil winded at a periphery of the lens support , an upper cover arranged above the lens support , and a lower cover arranged below the lens support , a screening can is covered outside the lens support ; wherein driving magnets are respectively provided on opposite two inner sidewalls of the screening can , a PCB board is provided on a sidewall at another side of the screening can ; a Hall chip is provided on the PCB board ; a Hall magnet back gasket and a Hall magnet are provided at corresponding positions of the lens support ; spatially, the Hall magnet and the Hall chip are spaced to each other and are configured oppositely; and the PCB board , the Hall chip on the PCB board and the Hall magnet form a lens position detection unit, characterized in that a number of the driving magnets are two; two elongated driving magnets are respectively provided on two different inner circumferential sidewalls of the screening can ; and the two elongated driving magnets are opposite to each other, the PCB board and the two elongated driving magnets are respectively provided on different inner circumferential sidewalls of the screening can , an opened notch portion is provided at an upper corner of an outer circumference of the lens support , and into the opened notch portion is accommodated the Hall magnet back gasket and the Hall magnet sequentially from inside to outside, the Hall magnet back gasket is made of a stainless steel high-magnetism material.
Battery module , comprising a plurality of aligned battery cells , each of the battery cells comprising an electrode assembly accommodated in a battery case , a cap assembly placed on the battery case , a gas exhaust vent in the cap assembly , and cell terminals protruding over the cap assembly ; a plurality of busbars disposed on top of the cap assemblies , each of the busbars being configured for electrically connecting at least two battery cells via their cell terminals and the plurality of busbars being configured for conducting the current of the battery module ; a plurality of inlays each being positively molded to at least one busbar and having at most the height of the at least one busbar ; and a top cover disposed on top of the busbars and covering the cap assemblies of the battery cells , the cell terminals , the busbars , and the plurality of inlays , wherein the plurality of busbars and the plurality of inlays form a continuous support surface extending along the plurality of battery cells in an alignment direction of the plurality of battery cells and facing towards the top cover for supporting the top cover . a plurality of aligned battery cells , each of the battery cells comprising an electrode assembly accommodated in a battery case , a cap assembly placed on the battery case , a gas exhaust vent in the cap assembly , and cell terminals protruding over the cap assembly ; a plurality of busbars disposed on top of the cap assemblies , each of the busbars being configured for electrically connecting at least two battery cells via their cell terminals and the plurality of busbars being configured for conducting the current of the battery module ; a plurality of inlays each being positively molded to at least one busbar and having at most the height of the at least one busbar ; and a top cover disposed on top of the busbars and covering the cap assemblies of the battery cells , the cell terminals , the busbars , and the plurality of inlays , wherein the plurality of busbars and the plurality of inlays form a continuous support surface extending along the plurality of battery cells in an alignment direction of the plurality of battery cells and facing towards the top cover for supporting the top cover .
An image signal processing driving method, characterized in that the image signal processing driving method is applicable to an image signal processing module comprising a plurality of ISP cores or an ISP core supporting time division multiplexing, wherein the image signal processing module is equipped with a driver architecture , the driver architecture comprises an interface layer , a connection layer and a driver layer , and the driver layer is connected to the ISP cores or the ISP core; the method comprising: receiving, by the interface layer , an image signal processing (ISP) instruction sent by an upper application, wherein the ISP instruction carries initial control parameters and image size parameters; determining, by the connection layer , a processing mode of image signals according to the image size parameters, and determining target control parameters according to the initial control parameters for different processing modes, wherein the processing mode comprises a single-core mode or a multi-core mode; and sending, by the driver layer , the target control parameters to a target ISP core, so as to drive the target ISP core to perform image signal processing according to the target control parameters. receiving, by the interface layer , an image signal processing (ISP) instruction sent by an upper application, wherein the ISP instruction carries initial control parameters and image size parameters; determining, by the connection layer , a processing mode of image signals according to the image size parameters, and determining target control parameters according to the initial control parameters for different processing modes, wherein the processing mode comprises a single-core mode or a multi-core mode; and sending, by the driver layer , the target control parameters to a target ISP core, so as to drive the target ISP core to perform image signal processing according to the target control parameters.
A sensing device adapted to protect an Integrated Circuit from perturbation attacks, wherein the sensing device comprises a sensing unit configured to detect a perturbation attack, said sensing unit comprising a set of digital sensors comprising at least two sensors , the sensors being arranged in parallel, each digital sensor providing a digitized bit output having a binary value, in response to input data, the sensing unit being configured to deliver at least one binary vector comprising a multi-bit value, said multi-bit value comprising at least two bit outputs provided by said set of digital sensors, the sensing device further comprising an analysis unit , the analysis unit being configured to receive at least one binary vector provided by said sensing unit , the analysis unit being configured to detect a perturbation attack from said at least one binary vector, wherein each sensor of the sensing unit is implemented in the form of a digital circuit comprising an input memory block for storing input data, a first data path for propagating the input data and forming a first delay chain, and a second data path for propagating the input data and forming a second delay chain, the input memory block and the first data path further comprising combinatorial cells configured to determine the bit output of said sensor using the input data , wherein the sensing device further comprises an output memory configured to store the bit outputs delivered by said sensors , the output memory comprising an output memory element associated with each sensor for storing the bit output delivered by said sensor , wherein the i - th component of a binary vector is the bit output O i delivered by the i - th sensor (300 - i ) or an output bit derived from the one or more output bits delivered by the sensors , wherein the input memory block comprises an input memory element for storing an input data generated using a stimuli generator, the first data path being configured to propagate data from the input memory element to a buffer element which buffers the data propagated through the first data path , the second data path forming a delay chain in echelon for propagating a value bit from the buffer element to the corresponding sensor output memory element , said combinatorial gates comprising an inverter gate in the input memory block , and buffers in the first data path to amplify and/or delay a data path, the memory element of the input memory block being configured to change the sensor state at each clock cycle, using a sampling of the inverse value provided by the inverter gate , wherein the analysis unit is configured to determine, in response to the detection of a perturbation attack, a quantity Q representing a quantitative estimation of the detected perturbation attack and/or a classification of the detected perturbation attack from said at least one binary vector.
Wind park comprising one or more wind power installations, wherein the wind park has an acoustic monitoring device having a microphone arrangement, wherein the microphone arrangement records sound signals or noises from the environment of the wind park and said sound signals are processed in a signal processing device connected to the microphone arrangement, wherein there is provided a switching device for switching on a flight lighting arrangement of at least one wind power installation of the wind park and the switching device is coupled to and controlled by the signal processing device so that the signal processing device causes the switching device to switch on the flight lighting arrangement if a sound signal of a flying object, for example an aircraft or a helicopter, is detected by means of the acoustic monitoring device, and/or a predetermined sound signal (for example sine sound) is superposed and/or falsified by the noises of the flying object.
Method for connecting the abutment point of two ends (3; 8) of at least one body seal element (4; 9), wherein, firstly, the ends (3; 8) are arranged spaced apart from one another and a bonding agent is applied to at least one end , wherein, afterwards, the bonding agent is heated and the ends (3; 8) are simultaneously or subsequently brought into mutual contact, whereby the ends (3; 8) are connected in a materially bonded manner at the abutment point by the heated bonding agent , characterized in that the bonding agent is shapeless, and is applied to the at least one end via an intermediate carrier , which is electrostatically charged in order to hold the bonding agent .
A sleeve for securing a vial, the sleeve comprising: a cylindrical body sized to receive a vial , the cylindrical body including a longitudinal axis, a first end, and a second end; a deformable member disposed near the first end of the cylindrical body and arranged to deform from a first configuration to a second configuration, characterised in that the deformable member includes a finger, a tip, and a bent knuckle portion connecting the finger and the tip, the finger extending upward from the first end of the cylindrical body, and wherein the deformable member is displaced outwardly relative to the longitudinal axis of the cylindrical body in the second configuration. a cylindrical body sized to receive a vial , the cylindrical body including a longitudinal axis, a first end, and a second end; a deformable member disposed near the first end of the cylindrical body and arranged to deform from a first configuration to a second configuration, characterised in that the deformable member includes a finger, a tip, and a bent knuckle portion connecting the finger and the tip, the finger extending upward from the first end of the cylindrical body, and wherein the deformable member is displaced outwardly relative to the longitudinal axis of the cylindrical body in the second configuration.
A suspension system for suspending an intra-ocular lens in the lens capsule of an eye, said suspension system comprising a support element, said support element comprising a surface for bearing against the inner surface of a lens capsule to thereby transmit ciliary force to said intra-ocular lens, and a collapsible cavity formed in said support element having at least one opening communicating the interior of said cavity with the adjacent space in the interior of the lens capsule to allow fluid to flow from the interior of the lens capsule into and out of said collapsible cavity, said collapsible cavity having walls lining said cavity, wherein said support element in the vicinity of said collapsible cavity is sufficiently elastic to permit said cavity to be deformed under compression from said ciliary force and to return to a rest configuration after said ciliary force is reduced and wherein the flow of fluid into and out of said collapsible cavity is regulated by a flap valve action of at least one of said walls lining said collapsible cavity, whereby compression of said cavity causes the distance separating said walls to be reduced to a greater extent in the vicinity of said opening than in a location in said cavity spaced from said opening to thereby restrict the flow of fluid back into said cavity after said ciliary force is reduced.