mhurhangee/patent-ind-claim-en huggingface dataset:
A method for signaling a malfunction or imminent malfunction of a positioning device (PV) equipped with at least one GNSS receiver (GE1, GE2), which comprises the following method steps: - receiving one or more initial signals of a first GNSS satellite system and deriving a first time from the one or more initial signals; - receiving one or more secondary signals from a second GNSS satellite system and deriving a second time from the one or more secondary signals; - evaluating the first time and the second time; and - deciding that a signaling is triggered, depending on the result of the evaluation, wherein the first time is a system time of the first GNSS satellite system, the second time is a system time of the second GNSS satellite system or has been derived from such a system time of the second GNSS satellite system, and the evaluation of the first time and the second time comprises a comparison of the first time with the second time, characterized in that it is decided to trigger a signaling if the first time deviates from the second time by more than one threshold difference, wherein the time information contained in the user data is used directly as the first time. - receiving one or more initial signals of a first GNSS satellite system and deriving a first time from the one or more initial signals; - receiving one or more secondary signals from a second GNSS satellite system and deriving a second time from the one or more secondary signals; - evaluating the first time and the second time; and - deciding that a signaling is triggered, depending on the result of the evaluation, wherein
An apparatus for intravascular access device displacement detection, the intravascular access device for insertion into a blood vessel through the skin at an access site and to be attached thereto, the intravascular access device being connected to an external machine or infusion device, the apparatus comprising: electrodes for attachment to the skin at the access site and to be located at first and second sides respectively of said intravascular access device , the electrodes being connected to a power source , the power source providing a measurable micro-current, characterized by the electrodes allowing said measurable micro-current to flow therebetween through the patient's skin; the apparatus further characterized by an alert device associated with said electrodes and to issue an alert signal upon interruption of said micro-current flowing between said electrodes , said alert signal being configured to shut down a fluid supply of said external machine or infusion device to said intravascular access device ; and the apparatus further being characterized by a dongle holding said power source and said alert device . electrodes for attachment to the skin at the access site and to be located at first and second sides respectively of said intravascular access device , the electrodes being connected to a power source , the power source providing a measurable micro-current, characterized by the electrodes allowing said measurable micro-current to flow therebetween through the patient's skin; the apparatus further characterized by an alert device associated with said electrodes and to issue an alert signal upon interruption of said micro-current flowing between said electrodes , said alert signal being configured to shut down a fluid supply of said external machine or infusion device to said intravascular access device ; and the apparatus further being characterized by a dongle holding said power source and said alert device .
A display device comprising: a substrate comprising a display area (DA) and a non-display area (NDA), the substrate having a first portion (BHa) of a through hole (BH) penetrating in a thickness direction thereof in the display area (DA); an etching stopper (WST) on one surface of the substrate , the etching stopper (WST) having a second portion (BHb) of the through hole (BH) connected to one end of the first portion (BHa) of the through hole (BH); a display layer (DPL) on one surface of the etching stopper (WST), the display layer (DPL) comprising a connection line (CWL) on the second portion (BHb) of the through hole (BH); an insulating layer (200; MSK, AM) on another surface opposite to the one surface of the substrate , the insulating layer (200; MSK, AM) having a third portion (BHc) of the through hole (BH) connected to another end opposite to the one end of the first portion (BHa) of the through hole (BH); and a pad unit (PD1) on a surface of the insulating layer (200; MSK, AM) and connected to the connection line (CWL) through the through hole (BH), charcterised in that the insulating layer is disposed between the pad unit (PD1) and the substrate . a substrate comprising a display area (DA) and a non-display area (NDA), the substrate having a first portion (BHa) of a through hole (BH) penetrating in a thickness direction thereof in the display area (DA); an etching stopper (WST) on one surface of the substrate , the etching stopper (WST) having a second portion (BHb) of the through hole (BH) connected to one end of the first portion (BHa) of the through hole (BH); a display layer (DPL) on one surface of the etching stopper (WST), the display layer (DPL) comprising a connection line (CWL) on the second portion (BHb) of the through hole (BH); an insulating layer (200; MSK, AM) on another surface opposite to the one surface of the substrate , the insulating layer (200; MSK, AM) having a third portion (BHc) of the through hole (BH) connected to another end opposite to the one end of the first portion (BHa) of the through hole (BH); and a pad unit (PD1) on a surface of the insulating layer (200; MSK, AM) and connected to the connection line (CWL) through the through hole (BH), charcterised in that the insulating layer is disposed between the pad unit (PD1) and the substrate .
A method for wireless communications by a user equipment, UE, comprising: determining an association between a plurality of semi-persistent resource allocations and a plurality of identifiers; receiving a single instance of downlink control information, DCI, signaling indicating activation or deactivation of multiple semi-persistent resource allocations of the plurality of semi-persistent resource allocations; determining identifiers of the multiple semi-persistent resource allocations based on the association; the method being characterized by : sending an acknowledgment of the activation or deactivation, wherein the acknowledgment indicates the identifiers of the multiple semi-persistent resource allocations. determining an association between a plurality of semi-persistent resource allocations and a plurality of identifiers; receiving a single instance of downlink control information, DCI, signaling indicating activation or deactivation of multiple semi-persistent resource allocations of the plurality of semi-persistent resource allocations; determining identifiers of the multiple semi-persistent resource allocations based on the association; the method being characterized by : sending an acknowledgment of the activation or deactivation, wherein the acknowledgment indicates the identifiers of the multiple semi-persistent resource allocations.
A global translation estimation module comprising: means for receiving an input signal (102, 202. 302, 404) having at least a current frame and a reference frame; means for phase correlating the current frame and the reference frame; and means for computing at least one affine parameter for estimating a global translation motion between the current frame and the reference frame based on the phase correlation; wherein means for phase correlating the current frame and the reference frame comprises: means for decimating respective ones of the current and reference frames by a decimation factor; and means for Fourier transforming the decimated current and reference frames; characterised in that means for phase correlating the current frame and the reference frame further comprises: means for subtracting phases correlating to the transformed current frame from phases correlating to the transformed reference frame to generate a phase difference array; and means for inverse Fourier transforming an exponential of the phase difference array to generate a correlation surface. means for receiving an input signal (102, 202. 302, 404) having at least a current frame and a reference frame; means for phase correlating the current frame and the reference frame; and means for computing at least one affine parameter for estimating a global translation motion between the current frame and the reference frame based on the phase correlation; wherein means for phase correlating the current frame and the reference frame comprises: means for decimating respective ones of the current and reference frames by a decimation factor; and means for Fourier transforming the decimated current and reference frames; means for decimating respective ones of the current and reference frames by a decimation factor; and means for Fourier transforming the decimated current and reference frames; characterised in that means for phase correlating the current frame and the reference frame further comprises: means for subtracting phases correlating to the transformed current frame from phases correlating to the transformed reference frame to generate a phase difference array; and means for inverse Fourier transforming an exponential of the phase difference array to generate a correlation surface. means for subtracting phases correlating to the transformed current frame from phases correlating to the transformed reference frame to generate a phase difference array; and means for inverse Fourier transforming an exponential of the phase difference array to generate a correlation surface.
Vacuum cleaner nozzle comprising a soleplate provided with a lower face and a suction cavity opening onto the lower face , at least one brush (13.1, 13.2, 13.3) and a coupling sleeve configured to fludically communicate with the suction cavity , said vacuum cleaner nozzle comprising a brush actuation mechanism comprising a lever configured to occupy at least one first lever position and a second lever position, the brush actuation mechanism being configured to, when the lever is displaced in the first lever position, lower the at least one brush (13.1, 13.2, 13.3) and position it in a lowered position wherein the at least one brush is protruding from the lower face , and being configured to, when the lever is displaced in the second level position, raise the at least one brush (13.1, 13.2, 13.3) and position it in a raised position wherein the at least one brush is retraced from the lower face , said brush actuation mechanism also comprising a lever indexing system configured to maintain the lever in at least the first and the second lever positions, characterised in that the brush actuation mechanism also comprises, in addition to the lever indexing system , a locking device configured to lock the at least one brush (13.1, 13.2, 13.3) in the lowered position.
A coil component formed by laminating a plurality of substrates (31-39) each of which includes a pattern-wiring forming a coil, wherein for the substrate (31-39), there are arranged a plurality of through-holes ; wherein the pattern-wiring is provided with a loop-shaped portion surrounding the circumference of a center hole which penetrates the substrate (31-39) and is provided with a pair of end portions (315b1,b2, 325b1,b2, 335b1,b2, 345b1,b2, 355b1,b2, 365b1,b2, 375b1,b2, 385b1,b2, 395b1,b2) which extend from the loop-shaped portion toward an intersecting-direction intersecting with an arrangement direction of the through-holes and concurrently, which are formed apart from each other with a predetermined insulation-distance; wherein in an x, y, z orthogonal coordinate system the intersecting-direction is either the x-direction or the y-direction, and the arrangement direction is the z-direction; wherein two neighboring through-holes of the plurality of through-holes penetrate the substrate (31-39) in a state that at least a part of each of those openings superimpose each of the pair of end portions and is connected electrically with each of the end portions; and characterized in that the opening of one of the through-holes at one of the pair of end portions is provided at a biased position with respect to the center of the one of the end portions (315b1,b2, 325b1,b2, 335b1,b2, 345b1,b2, 355b1,b2, 365b1,b2, 375b1,b2, 385b1,b2, 395b1,b2) in the intersecting-direction such that a distance between the center of the one of the pair of end portions and the other of the pair of the end portions (315b1,b2, 325b1,b2, 335b1,b2, 345b1,b2, 355b1,b2, 365b1,b2, 375b1,b2, 385b1,b2, 395b1,b2) is greater than a distance between the center of the opening of the one through-hole and the center of the other through-hole.
A seat belt buckle presenter assembly comprising: a guide track , the guide track being anchored to a vehicle seat frame at a first and second end; a buckle presenter assembly secured to and mounted onto the guide track and movable along the guide track from a stowed position at the first end to an extended position toward the second end, characterized in that the first end of the guide track is anchored and pivotable about a bolt secured to a seat frame and the second end of the guide track has a front anchor with a slot for receiving the guide track , the front anchor being secured to a seat frame. a guide track , the guide track being anchored to a vehicle seat frame at a first and second end; a buckle presenter assembly secured to and mounted onto the guide track and movable along the guide track from a stowed position at the first end to an extended position toward the second end, characterized in that the first end of the guide track is anchored and pivotable about a bolt secured to a seat frame and the second end of the guide track has a front anchor with a slot for receiving the guide track , the front anchor being secured to a seat frame.
A seal for a telecommunications enclosure , the seal comprising: a first body made of a first material, the first body defining a port , the port defining a port axis , the first body further including a first axial face , an opposite second axial face , and a peripheral surface , the peripheral surface surrounding the first body between the first axial face and the second axial face , the peripheral surface further surrounding the port ; and a second body made of a second material, the second body being disposed on at least the peripheral surface of the first body , wherein the second material is softer than the first material of the first body , characterised in that the first body is pre-formed and the second body is over-molded so as to surround the first body . a first body made of a first material, the first body defining a port , the port defining a port axis , the first body further including a first axial face , an opposite second axial face , and a peripheral surface , the peripheral surface surrounding the first body between the first axial face and the second axial face , the peripheral surface further surrounding the port ; and a second body made of a second material, the second body being disposed on at least the peripheral surface of the first body , wherein the second material is softer than the first material of the first body , characterised in that the first body is pre-formed and the second body is over-molded so as to surround the first body .
-A method for determining a resonance frequency of a mechanical system comprising an electric motor coupled to a mechanical load , said method comprising: starting (S100) the motor by providing a supply voltage using a motor controller ; once the electric motor is running at a predefined target rotational speed, applying (S102) a first excitation signal comprising a voltage pulse superimposed to the supply voltage; measuring (S104) a mechanical response of the mechanical system by measuring stator currents of the motor using a measurement system coupled to the motor, said measurement system comprising one or more current sensors coupled to input terminals of the stator of the motor ; analyzing (S106, S108) the measured response, to determine at least one resonance frequency of the mechanical system based on the measured stator currents, wherein determining (S106) the resonance frequency of the mechanical system comprises: calculating, from the measured stator currents, corresponding stator current values (I d , I q ) expressed in the synchronous frame of the motor; characterized in that determining (S106) the resonance frequency of the mechanical system comprises: calculating phase difference values between the calculated corresponding stator current values (I d , I q ); identifying oscillations in the calculated phase difference values; determining the resonance frequency based on the identified oscillations. starting (S100) the motor by providing a supply voltage using a motor controller ; once the electric motor is running at a predefined target rotational speed, applying (S102) a first excitation signal comprising a voltage pulse superimposed to the supply voltage; measuring (S104) a mechanical response of the mechanical system by measuring stator currents of the motor using a measurement system coupled to the motor, said measurement system comprising one or more current sensors coupled to input terminals of the stator of the motor ; analyzing (S106, S108) the measured response, to determine at least one resonance frequency of the mechanical system based on the measured stator currents, wherein determining (S106) the resonance frequency of the mechanical system comprises: calculating, from the measured stator currents, corresponding stator current values (I d , I q ) expressed in the synchronous frame of the motor; characterized in that determining (S106) the resonance frequency of the mechanical system comprises: calculating phase difference values between the calculated corresponding stator current values (I d , I q ); identifying oscillations in the calculated phase difference values; determining the resonance frequency based on the identified oscillations. calculating phase difference values between the calculated corresponding stator current values (I d , I q ); identifying oscillations in the calculated phase difference values; determining the resonance frequency based on the identified oscillations.
A method for estimating at least one combustion characteristic of a fuel gas belonging to a family of fuel gases, said at least one characteristic being the Wobbe index or the higher heating value, the method comprising: a measurement (E01) of at least two flow properties of said fuel gas, the flow properties of the fuel gas being properties measured in a flow member and chosen from the group comprising the flow rate, the temperature, and the pressure, a measurement (E02) of the dihydrogen rate X H 2 contained in said fuel gas, the method being characterized in that said at least one characteristic Ξ GN/H2 is estimated (E03) by means of the following empirical affine law: Ξ GN / H 2 = α + β ⋅ Y + γ ⋅ X H 2 with α, β and γ predetermined coefficients for the family of fuel gases, and Y a variable representative of physical properties of said fuel gas developed from said measured values of said at least two flow properties of said fuel gas, Y being a variable representative of physical properties of the fuel gas such as viscosity, specific heat capacity or density, and expressible as a function of the measured values of the flow properties of the fuel gas. a measurement (E01) of at least two flow properties of said fuel gas, the flow properties of the fuel gas being properties measured in a flow member and chosen from the group comprising the flow rate, the temperature, and the pressure, a measurement (E02) of the dihydrogen rate X H 2 contained in said fuel gas, the method being characterized in that said at least one characteristic Ξ GN/H2 is estimated (E03) by means of the following empirical affine law: Ξ GN / H 2 = α + β ⋅ Y + γ ⋅ X H 2 with α, β and γ predetermined coefficients for the family of fuel gases, and Y a variable representative of physical properties of said fuel gas developed from said measured values of said at least two flow properties of said fuel gas, Y being a variable representative of physical properties of the fuel gas such as viscosity, specific heat capacity or density, and expressible as a function of the measured values of the flow properties of the fuel gas.
A sealing element for sealing a fluidic connection between a coupling element and a tubular element and thereby providing a sealed flow path through the tubular element and between the coupling element and the tubular element in a longitudinal direction , the sealing element being formed as a single piece and comprising: a recess extending in the longitudinal direction , the recess being adapted for receiving the tubular element ; a transverse wall defining an extent of the recess in the longitudinal direction , the transverse wall having a through hole , said through hole in the wall providing for a sealed flow path between the coupling element and the tubular element in the longitudinal direction; ; a compression surface being spaced from the transverse wall , the sealing element being characterized in that the sealing element is being formed as a single piece, and in that the compression surface has a conical shape with a diameter decreasing in a direction from the transverse wall towards the recess of the sealing element . a recess extending in the longitudinal direction , the recess being adapted for receiving the tubular element ; a transverse wall defining an extent of the recess in the longitudinal direction , the transverse wall having a through hole , said through hole in the wall providing for a sealed flow path between the coupling element and the tubular element in the longitudinal direction; ; a compression surface being spaced from the transverse wall , the sealing element being characterized in that the sealing element is being formed as a single piece, and in that the compression surface has a conical shape with a diameter decreasing in a direction from the transverse wall towards the recess of the sealing element .