mhurhangee/patent-ind-claim-en huggingface dataset:
Filtering device with a filter element and with a filter housing for accommodating the filter element , wherein the filter element features a filter medium body designed as folded filter with a plurality of individual filter folds and featuring on the inflow side and at least on another side each an at least partially circumferential sealing compound strip , wherein at least one sealing compound strip is disposed in the peripheral area of the filter medium body and projects laterally beyond the exterior side of the filter medium body , wherein at least one sealing compound strip is the carrier of at least two retaining tabs which project beyond the sealing compound strip in the withdrawal direction of the filter element and are designed to grip the filter element , characterized in that a portion of the sealing compound strip extends transversely to the filter folds and the retaining tabs are disposed at a distance from the outer edge of the sealing compound strip at this portion and do not project with regard to the filter medium body and wherein the retaining tabs are made of the material of the sealing compound strip and designed in one piece with the sealing compound strip , and that recesses for accommodating the retaining tabs are realized in a housing component.
A method for wireless communication at a user equipment, UE, comprising: receiving , from a source base station, a conditional handover configuration that indicates one or more target base stations, one or more measurement thresholds for initiating a handover from the source base station to the one or more target base stations, and one or more timers associated with the handover to the one or more target base stations, wherein the one or more timers include at least a first conditional handover timer; determining , based at least in part on the conditional handover configuration, that a first measurement threshold for initiating the handover to a first target base station is satisfied; transmitting , based at least in part on the conditional handover configuration, a first random access request to the first target base station to initiate a first random access procedure for the handover to the first target base station; starting the first conditional handover timer for completing the first random access procedure responsive to the transmitting the first random access request; and determining a first conditional handover failure responsive to the first conditional handover timer expiring prior to completing the first random access procedure. receiving , from a source base station, a conditional handover configuration that indicates one or more target base stations, one or more measurement thresholds for initiating a handover from the source base station to the one or more target base stations, and one or more timers associated with the handover to the one or more target base stations, wherein the one or more timers include at least a first conditional handover timer; determining , based at least in part on the conditional handover configuration, that a first measurement threshold for initiating the handover to a first target base station is satisfied; transmitting , based at least in part on the conditional handover configuration, a first random access request to the first target base station to initiate a first random access procedure for the handover to the first target base station; starting the first conditional handover timer for completing the first random access procedure responsive to the transmitting the first random access request; and determining a first conditional handover failure responsive to the first conditional handover timer expiring prior to completing the first random access procedure.
An antenna structure for communication of radio-frequency, RF, waves, the antenna structure comprising: a base unit ; a first horizontal-polarization, HP, antenna unit including a plurality of first inverted-F antennas, IF As, configured to radiate RF waves with a horizontal polarization; a second HP antenna unit having a plurality of second IF As configured to radiate RF waves with the horizontal polarization, the second HP antenna unit positioned such that the first HP antenna unit and the second HP antenna unit are spaced apart from each other to form a first parallel-plate waveguide , and such that the second HP antenna unit and the base unit are spaced apart from each other to form a second parallel-plate waveguide ; a first vertical-polarization, VP, antenna unit located in the first parallel-plate waveguide, the first VP antenna unit having a plurality of first VP excitation elements configured to radiate the RF waves having vertical polarization; a second VP antenna unit located in the second parallel-plate waveguide, the second VP antenna unit having a plurality of second VP excitation elements configured to radiate the RF waves with the vertical polarization wherein the first VP antenna unit and the second VP antenna unit further comprise parasitic elements for controlling a radiation pattern of the RF waves by the first VP antenna unit and the second VP antenna unit; and wherein the parasitic elements are configured to be operated by VP switchable elements located in at least one of the first HP antenna unit and the second HP antenna unit. a base unit ; a first horizontal-polarization, HP, antenna unit including a plurality of first inverted-F antennas, IF As, configured to radiate RF waves with a horizontal polarization; a second HP antenna unit having a plurality of second IF As configured to radiate RF waves with the horizontal polarization, the second HP antenna unit positioned such that the first HP antenna unit and the second HP antenna unit are spaced apart from each other to form a first parallel-plate waveguide , and such that the second HP antenna unit and the base unit are spaced apart from each other to form a second parallel-plate waveguide ; a first vertical-polarization, VP, antenna unit located in the first parallel-plate waveguide, the first VP antenna unit having a plurality of first VP excitation elements configured to radiate the RF waves having vertical polarization; a second VP antenna unit located in the second parallel-plate waveguide, the second VP antenna unit having a plurality of second VP excitation elements configured to radiate the RF waves with the vertical polarization wherein the first VP antenna unit and the second VP antenna unit further comprise parasitic elements for controlling a radiation pattern of the RF waves by the first VP antenna unit and the second VP antenna unit; and wherein the parasitic elements are configured to be operated by VP switchable elements located in at least one of the first HP antenna unit and the second HP antenna unit.
An audio processing system including a computer-based artificial intelligence (Al) system , the AI system comprising: an input interface configured to accept input data, wherein the input data include an audio signal that includes speech utterance; a memory configured to store a multi-dimensional neural network having a sequence of deep neural networks (DNN) including an inner DNN and an outer DNN , each DNN includes a sequence of layers (202-218), said sequences including corresponding layers (202-218) which are layers of different DNNs having identical parameters, said parameters being weight values, each DNN is configured to process the input data sequentially by the sequence of layers (202-218) along a first dimension of data propagation, the DNNs in the sequence of DNNs are arranged along a second dimension of data propagation starting from the inner DNN till the outer DNN , wherein the DNNs in the sequence of DNNs are connected such that an output of at least one intermediate layer (202-218) of a DNN is combined with an input to at least one earlier layer (202-218) of a subsequent DNN in the sequence of DNNs; a processor configured to submit the input data to the multi-dimensional neural network to produce an output of the outer DNN ; and an output interface configured to render at least a function of the output of the outer DNN , the function of the output including transcription of the audio signal, such that the audio processing system is an automatic speech recognition (ASR) system. an input interface configured to accept input data, wherein the input data include an audio signal that includes speech utterance; a memory configured to store a multi-dimensional neural network having a sequence of deep neural networks (DNN) including an inner DNN and an outer DNN , each DNN includes a sequence of layers (202-218), said sequences including corresponding layers (202-218) which are layers of different DNNs having identical parameters, said parameters being weight values, each DNN is configured to process the input data sequentially by the sequence of layers (202-218) along a first dimension of data propagation, the DNNs in the sequence of DNNs are arranged along a second dimension of data propagation starting from the inner DNN till the outer DNN , wherein the DNNs in the sequence of DNNs are connected such that an output of at least one intermediate layer (202-218) of a DNN is combined with an input to at least one earlier layer (202-218) of a subsequent DNN in the sequence of DNNs; a processor configured to submit the input data to the multi-dimensional neural network to produce an output of the outer DNN ; and an output interface configured to render at least a function of the output of the outer DNN , the function of the output including transcription of the audio signal, such that the audio processing system is an automatic speech recognition (ASR) system.
A galactoside O-acetyltransferase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein leucine, which is an amino acid corresponding to position 106 of SEQ ID NO: 3, is substituted with phenylalanine.
A motor drive comprising: a rectifier circuit portion arranged to receive an externally supplied AC voltage (V supply ) and to generate a DC bus voltage (V DC_Bus ) therefrom; an inverter circuit portion arranged to receive the DC bus voltage and to generate an AC output voltage (V out ) therefrom for supply to an external load ; a DC bus portion connected between said rectifier and inverter circuit portions, said DC bus portion comprising first and second conductors , wherein an inductor (L 1 ) is connected in series along the first conductor between said rectifier and inverter circuit portions, and wherein a DC link capacitor (C 1 ) is connected in parallel between the first and second conductors; characterized in that it further comprises a notch filter having a tuneable resonant frequency, wherein a voltage across the DC link capacitor is input to the notch filter, the notch filter being arranged to supply a filtered signal; and a controller arranged to vary the resonant frequency of the notch filter and to modulate a supply current provided by the inverter circuit portion with a probe current signal at the resonant frequency; wherein the controller is arranged to vary the resonant frequency to a plurality of values across an operational range, to measure an amplitude of the filtered signal, to determine which of the plurality of values of the resonant frequency has a maximal amplitude of the filtered signal associated therewith, and to determine a capacitance value of the DC link capacitor from said value of the resonant frequency associated with the maximal amplitude. a rectifier circuit portion arranged to receive an externally supplied AC voltage (V supply ) and to generate a DC bus voltage (V DC_Bus ) therefrom; an inverter circuit portion arranged to receive the DC bus voltage and to generate an AC output voltage (V out ) therefrom for supply to an external load ; a DC bus portion connected between said rectifier and inverter circuit portions, said DC bus portion comprising first and second conductors , wherein an inductor (L 1 ) is connected in series along the first conductor between said rectifier and inverter circuit portions, and wherein a DC link capacitor (C 1 ) is connected in parallel between the first and second conductors; characterized in that it further comprises a notch filter having a tuneable resonant frequency, wherein a voltage across the DC link capacitor is input to the notch filter, the notch filter being arranged to supply a filtered signal; and a controller arranged to vary the resonant frequency of the notch filter and to modulate a supply current provided by the inverter circuit portion with a probe current signal at the resonant frequency; wherein the controller is arranged to vary the resonant frequency to a plurality of values across an operational range, to measure an amplitude of the filtered signal, to determine which of the plurality of values of the resonant frequency has a maximal amplitude of the filtered signal associated therewith, and to determine a capacitance value of the DC link capacitor from said value of the resonant frequency associated with the maximal amplitude.
A method, comprising: in a vehicle engine harmonic modification system for a vehicle cabin , generating a non-zero target engine harmonic signal that is representative of a target engine harmonic sound level in the vehicle cabin and that comprises both magnitude and phase targets, wherein the vehicle engine harmonic modification system comprises a microphone that senses engine harmonic sounds in the vehicle cabin and an output transducer for producing an approximation of the target engine harmonic sound level at a location of the microphone, and using the target engine harmonic signal in an operation of the engine harmonic modification system so as to modify the level of engine harmonic sound in the vehicle cabin by subtracting the target engine harmonic signal from an output signal of the microphone in the electronic domain to create a target error signal and driving said target error signal to zero, so as to bring the engine harmonic sound level delivered by the output transducer in the vehicle cabin closer to the target engine harmonic sound level.
A package comprising: at least one sheet comprising a plurality of peelable cutout strips in the shape of a human nail, at least one of the cutout strips being different in size and/or shape than at least one other cutout strip; each of said at least one sheets having an identifier which uniquely identifies the sheet of nail strips for instructing a computer to print the image on a home printer within the area of the peelable cutout strips; characterized in that the peelable cutout strips are defined by a first nail-shaped cutout portion of an enamel layer and additional perforations or cuts are made in the enamel layer around the first cutout to define longer and/or wider strips than the first cutout portion. at least one sheet comprising a plurality of peelable cutout strips in the shape of a human nail, at least one of the cutout strips being different in size and/or shape than at least one other cutout strip; each of said at least one sheets having an identifier which uniquely identifies the sheet of nail strips for instructing a computer to print the image on a home printer within the area of the peelable cutout strips; characterized in that the peelable cutout strips are defined by a first nail-shaped cutout portion of an enamel layer and additional perforations or cuts are made in the enamel layer around the first cutout to define longer and/or wider strips than the first cutout portion.
A method for producing fluoroolefin substituted with an organic group, comprising reacting fluoroolefin with an organic Mg-compound in the presence of a catalyst comprising Ni or Pd, wherein at least one F-atom bonded to a sp 2 hybridized C-atom of the fluoroolefin is substituted with an organic group derived from the organic Mg-compound, and wherein the fluoroolefin is tetrafluoroethylene, hexafluoropropylene, or trifluoroethylene.
A method performed by a computer device for use in material processing of a two dimensional sheet like material, the method comprising: obtaining (101; 810) information related to a desired design of a three dimensional object, obtaining (102'; 820) information related to material characteristics of the two dimensional sheet like material, defining (102"; 830) a primary surface and a secondary surface of the desired design of the three dimensional object, and characterized by defining (102′′′; 840) a geometrical relationship between said primary surface and secondary surface, wherein the secondary surface (SS) is a reflection of the primary surface (PS) in a two dimensional plane, and wherein when said primary surface (PS) is concave said secondary surface (SS) is convex, or when said primary surface (PS) is convex said secondary surface (SS) is concave; and providing , or otherwise creating, a digital instruction for a fully developed spreading and subsequent folding of a two dimensional sheet into the obtained desired design of the three dimensional object, wherein said digital instruction is based on the defined primary and secondary surfaces, respectively, and said obtained material characteristics. obtaining (101; 810) information related to a desired design of a three dimensional object, obtaining (102'; 820) information related to material characteristics of the two dimensional sheet like material, defining (102"; 830) a primary surface and a secondary surface of the desired design of the three dimensional object, and characterized by defining (102′′′; 840) a geometrical relationship between said primary surface and secondary surface, wherein the secondary surface (SS) is a reflection of the primary surface (PS) in a two dimensional plane, and wherein when said primary surface (PS) is concave said secondary surface (SS) is convex, or when said primary surface (PS) is convex said secondary surface (SS) is concave; and the secondary surface (SS) is a reflection of the primary surface (PS) in a two dimensional plane, and wherein when said primary surface (PS) is concave said secondary surface (SS) is convex, or when said primary surface (PS) is convex said secondary surface (SS) is concave; and providing , or otherwise creating, a digital instruction for a fully developed spreading and subsequent folding of a two dimensional sheet into the obtained desired design of the three dimensional object, wherein said digital instruction is based on the defined primary and secondary surfaces, respectively, and said obtained material characteristics.
A dispensing head for a dispensing device for the metered dispensing of liquid preparations , comprising a through channel , which has an inlet opening arranged on the inner side and an outer dispensing opening for liquid preparations, wherein the inlet opening is configured such that it connects an inner space to an outer environment via the through channel , and a valve , comprising a valve body , which is arranged on the side of the inner space above the inlet opening , and the inlet opening is configured to be reversibly closable in a sealing manner from an inner space for the liquid preparation , characterized in that the valve body has at least one sealing lip which is formed on a side of the valve body facing the inlet opening and wherein the sealing lip is configured such that it seals the inner space from the inlet opening when the valve body closes the inlet opening , wherein the valve comprises a frame which has at least one fastening element to which the valve body is fixed, wherein the frame is secured to the dispensing head , wherein preferably the valve body , the frame and the at least one fastening element are configured in one piece, and the valve is configured such that the valve body , in the event that the pressure on the valve body is increased, closes the inlet opening of the through channel . a through channel , which has an inlet opening arranged on the inner side and an outer dispensing opening for liquid preparations, wherein the inlet opening is configured such that it connects an inner space to an outer environment via the through channel , and a valve , comprising a valve body , which is arranged on the side of the inner space above the inlet opening , and the inlet opening is configured to be reversibly closable in a sealing manner from an inner space for the liquid preparation , characterized in that the valve body has at least one sealing lip which is formed on a side of the valve body facing the inlet opening and wherein the sealing lip is configured such that it seals the inner space from the inlet opening when the valve body closes the inlet opening , wherein the valve comprises a frame which has at least one fastening element to which the valve body is fixed, wherein the frame is secured to the dispensing head , wherein preferably the valve body , the frame and the at least one fastening element are configured in one piece, and the valve is configured such that the valve body , in the event that the pressure on the valve body is increased, closes the inlet opening of the through channel .
Device for filling pressurized gas tanks, in particular hydrogen tanks for vehicles, comprising a fluid transfer circuit comprising an upstream end provided with a plurality of pressurized fluid sources and a downstream end comprising at least two distribution terminals each intended to be connected to separate tanks to be filled, each source comprising a first fluid outlet connected to a first respective outlet valve , each first outlet valve being connected to each of the at least two distribution terminals via parallel transfer ducts , each of the transfer ducts comprising at least one respective isolation valve , each of the distribution terminals being fluidly connected to each first outlet valve of a source via a first direct fluid path passing through a single transfer duct and via at least one second indirect alternative fluid path successively passing through a plurality of transfer ducts , the device comprising an electronic controller comprising a data storage and processing component, with at least some of the valves of the circuit being valves of the controlled type and connected to the electronic controller , the electronic controller being configured to control the opening or the closing of said valves, characterized in that the electronic controller is configured to ensure a transfer of fluid between one of the sources and a distribution terminal along the first direct fluid path passing through a single transfer duct or along the second indirect path successively passing through a plurality of transfer ducts according to an operating state of at least one of said valves.
A catheter , comprising: a shaft having a distal end for insertion into a clotted blood vessel of a brain of a patient; a sealing balloon , which is fitted at a proximal section of the distal end, and is configured to proximally seal a portion of the clotted blood vessel; a bifurcation sealing element , which is fitted at the distal end, distally to the sealing balloon, and is configured to seal a bifurcation located at the proximally sealed portion of the clotted blood vessel; and a camera , which is fitted at a distal edge of the distal end and is configured to visually image a clot that clots the blood vessel. a shaft having a distal end for insertion into a clotted blood vessel of a brain of a patient; a sealing balloon , which is fitted at a proximal section of the distal end, and is configured to proximally seal a portion of the clotted blood vessel; a bifurcation sealing element , which is fitted at the distal end, distally to the sealing balloon, and is configured to seal a bifurcation located at the proximally sealed portion of the clotted blood vessel; and a camera , which is fitted at a distal edge of the distal end and is configured to visually image a clot that clots the blood vessel.