mhurhangee/patent-ind-claim-en huggingface dataset:
OBD connector for the connection to the on-board diagnostics of a vehicle, comprising a container body associable with an electronic connection port (A) of an on-board diagnostic system of a vehicle, a plurality of electrical terminals supported by said container body and connectable to corresponding electrical terminals (B) of said connection port (A), at least a protruding element associated with said container body and engageable in correspondence of at least a respective locator element (C) onto said connection port (A), and blocking means of said protruding element in correspondence of said locator element (C), able to prevent undesired disconnections of the connector itself from the connection port (A), wherein said blocking means comprise at least a mobile element associated with said container body and operatively connected to said protruding element , said mobile element being positionable in a stop position, wherein said protruding element is pressed and/or blocked in correspondence of said locator element (C), characterized in that said mobile element has said protruding element and is associated sliding with said container body between a disengagement position, wherein said protruding element is substantially spaced away from said locator element (C), and said stop position, wherein said protruding element is arranged in correspondence of said locator element (C).
A bearing comprising: a generally cylindrical sidewall defining first and second axial ends and an aperture extending between the first and second axial ends , and a gap extending between the first and the second axial ends ; a flange extending radially from the generally cylindrical sidewall at a location proximate the first axial end ; and a feature extending radially from the generally cylindrical sidewall at a location disposed between the flange and the second axial end , wherein the generally cylindrical sidewall comprises a low friction material , and wherein the flange comprises an engagement feature circumferentially offset from the gap , wherein the engagement feature comprises a projecting element, a corrugation, a ridge, a dimple, or a tine projecting from the flange . a generally cylindrical sidewall defining first and second axial ends and an aperture extending between the first and second axial ends , and a gap extending between the first and the second axial ends ; a flange extending radially from the generally cylindrical sidewall at a location proximate the first axial end ; and a feature extending radially from the generally cylindrical sidewall at a location disposed between the flange and the second axial end , wherein the generally cylindrical sidewall comprises a low friction material , and wherein the flange comprises an engagement feature circumferentially offset from the gap , wherein the engagement feature comprises a projecting element, a corrugation, a ridge, a dimple, or a tine projecting from the flange .
A network device for handling packets of a flow in a network by means of forwarding tables, comprising: memory configured to store a plurality of first entries in a first forwarding table for matching by a first matching method in a software layer and a plurality of second entries in a second forwarding table for matching by a second matching method in a hardware layer; a processor configured to execute program instructions to: perform, in the software layer, matching by the first matching method using the first forwarding table ; decide a third entry based on one of the plurality of first entries of the first forwarding table matched by the first matching method; and move the third entry to the second forwarding table from the first forwarding table . memory configured to store a plurality of first entries in a first forwarding table for matching by a first matching method in a software layer and a plurality of second entries in a second forwarding table for matching by a second matching method in a hardware layer; a processor configured to execute program instructions to: perform, in the software layer, matching by the first matching method using the first forwarding table ; decide a third entry based on one of the plurality of first entries of the first forwarding table matched by the first matching method; and move the third entry to the second forwarding table from the first forwarding table . perform, in the software layer, matching by the first matching method using the first forwarding table ; decide a third entry based on one of the plurality of first entries of the first forwarding table matched by the first matching method; and move the third entry to the second forwarding table from the first forwarding table .
A system for determining the Q and J points of an electrocardiogram (ECG), said system comprising: at least one processor programmed to: receive beat-cycle waveforms for a selected beat from a plurality of ECG leads; determine signal quality of each of the plurality of ECG leads; combine, using a waveform length transform (WLT), the beat-cycle waveforms of ECG leads with signal quality meeting or exceeding a predetermined signal quality criteria, thereby providing a combined beat-cycle waveform; and, identify the Q and J points on the combined beat-cycle waveform. receive beat-cycle waveforms for a selected beat from a plurality of ECG leads; determine signal quality of each of the plurality of ECG leads; combine, using a waveform length transform (WLT), the beat-cycle waveforms of ECG leads with signal quality meeting or exceeding a predetermined signal quality criteria, thereby providing a combined beat-cycle waveform; and, identify the Q and J points on the combined beat-cycle waveform.
A method for configuring a gap, comprising: transmitting, by a first base station (102-1), a first message to a user equipment to configure the gap, the first message comprising first time reference information and the first time reference information indicating a cell including, a primary cell of the first base station (102-1), a primary cell of a second base station (102-2), or a serving cell; and configuring, by using the first message, the user equipment to use a system frame number and a subframe of the cell for gap calculation. transmitting, by a first base station (102-1), a first message to a user equipment to configure the gap, the first message comprising first time reference information and the first time reference information indicating a cell including, a primary cell of the first base station (102-1), a primary cell of a second base station (102-2), or a serving cell; and configuring, by using the first message, the user equipment to use a system frame number and a subframe of the cell for gap calculation.
An actuator apparatus for a railway vehicle , the actuator apparatus comprising: an actuator disposed between a bogie including a wheel of the railway vehicle and a vehicle body of the railway vehicle mounted on the bogie , between the bogie and the wheel , or on a railway vehicle including a plurality of the vehicle bodies coupled with each other and between one of the vehicle bodies and another of the vehicle bodies , the actuator being configured to be able to control a force generated by power supplied from a power source comprising at least one of an overhead line and a generator of the railway vehicle via a battery ; a detector configured to detect a voltage of the battery ; and a control device configured to control the supply power to be supplied to the actuator according to a running state of the railway vehicle , characterized in that the control device is further configured to perform limit control of the supply power, such that the supply power is not set to zero, when a voltage detection value of the battery detected by the detector falls below a first threshold value due to passage through a section of the overhead line or a reduction in a voltage of the generator, and such that the supply power is set to be lower than the supply power that is employed when the voltage detection value does not fall below the first threshold value. an actuator disposed between a bogie including a wheel of the railway vehicle and a vehicle body of the railway vehicle mounted on the bogie , between the bogie and the wheel , or on a railway vehicle including a plurality of the vehicle bodies coupled with each other and between one of the vehicle bodies and another of the vehicle bodies , the actuator being configured to be able to control a force generated by power supplied from a power source comprising at least one of an overhead line and a generator of the railway vehicle via a battery ; a detector configured to detect a voltage of the battery ; and a control device configured to control the supply power to be supplied to the actuator according to a running state of the railway vehicle , characterized in that the control device is further configured to perform limit control of the supply power, such that the supply power is not set to zero, when a voltage detection value of the battery detected by the detector falls below a first threshold value due to passage through a section of the overhead line or a reduction in a voltage of the generator, and such that the supply power is set to be lower than the supply power that is employed when the voltage detection value does not fall below the first threshold value.
Temporary water retention assembly, comprising: - one or more water retaining tanks forming a temporary water reservoir and comprising water inlet and/or outlet means , - regulation means adapted to regulate the flow of water through the inlet and/or outlet means , the assembly further comprising: - a level sensor configured to measure the level of water retained in the or in one of the retaining tanks , and - communication means comprising: ∘ a first communication interface adapted to receive data from the level sensor , ∘ a second communication interface with a remote server , and ∘ data processing means configured to process data received by the first interface and so that the communication means transmit processed data to the remote server via the second communications interface , and at least one plate embedded in the or in one of the retaining tanks, or made of the same material with the tank or one of the retaining tanks , in such a way as to extend above the water reservoir, characterised in that the plate has at least one cell, in such a way that the level sensor extends at least partially in the cell or in such a way that the level sensor opens onto the cell. - one or more water retaining tanks forming a temporary water reservoir and comprising water inlet and/or outlet means , - regulation means adapted to regulate the flow of water through the inlet and/or outlet means , the assembly further comprising: - a level sensor configured to measure the level of water retained in the or in one of the retaining tanks , and - communication means comprising: ∘ a first communication interface adapted to receive data from the level sensor , ∘ a second communication interface with a remote server , and ∘ data processing means configured to process data received by the first interface and so that the communication means transmit processed data to the remote server via the second communications interface , and at least one plate embedded in the or in one of the retaining tanks, or made of the same material with the tank or one of the retaining tanks , in such a way as to extend above the water reservoir, ∘ a first communication interface adapted to receive data from the level sensor , ∘ a second communication interface with a remote server , and ∘ data processing means configured to process data received by the first interface and so that the communication means transmit processed data to the remote server via the second communications interface , and at least one plate embedded in the or in one of the retaining tanks, or made of the same material with the tank or one of the retaining tanks , in such a way as to extend above the water reservoir,
E-axle gearbox , suitable for driving a vehicle forwards and in reverse, having a housing , which is formed from housing halves situated next to each other along a separating joint , having a differential gearbox , wherein a collecting device for a lubricating medium is provided inside the housing , which collecting device can be filled with the lubricating medium in the two rotation directions of the E-axle gearbox , which are for forward travel and for reverse travel, when the E-axle gearbox drives a vehicle, wherein the collecting device has a flat or a tub-like bottom part , wherein the flat or tub-like bottom part is designed in a manner divided or interrupted by a web part and comprises a first part (50.1) and a second part (50.2), wherein the E-axle gearbox is configured to fill the first part (50.1) of the flat or tub-like bottom part via a first lubricating medium conveying path in the rotation direction of the E-axle gearbox for forward travel, and wherein the E-axle gearbox is configured to fill the second part (50.2) of the flat or tub-like bottom part via a second lubricating medium conveying path in the rotation direction of the E-axle gearbox for reverse travel, characterized in that the collecting device is incorporated in a pocket-like manner in one of the two housing halves of the housing .
A method for detecting inrush and saturation in a current transformer with an intelligent electronic device (IED), wherein the IED is coupled to the current transformer and the current transformer is connected for measurement of current in a circuit having an electrical equipment protected by the IED, the method steps being performed in the IED, the method comprising: acquiring a current signal from the current transformer and converting the current signal into sampled values ; computing an estimated sampled value of the current signal at a first time instance using the sampled values of the current signal ; determining an error by obtaining difference between the estimated sampled value of the current signal at the first time instance and a sampled value of current signal at the first time instance from the sampled values ; comparing the error to a first threshold value to identify a deviation in the sampled value of the current signal and a second time instance corresponding to an inception of the deviation ; applying wavelet filtering on the sampled values occurring after the second time instance to obtain one or more frequency contents occurring in the sampled value occurring after the inception of deviation ; comparing the one or more obtained frequency contents with a second threshold to detect an inrush condition at a third time instance ; computing rate of change in the sampled values occurring between the inception of deviation and the detected inrush condition ; and detecting a saturation in the current transformer on exceeding a predefined third threshold value by the computed rate of change in the sampled values . acquiring a current signal from the current transformer and converting the current signal into sampled values ; computing an estimated sampled value of the current signal at a first time instance using the sampled values of the current signal ; determining an error by obtaining difference between the estimated sampled value of the current signal at the first time instance and a sampled value of current signal at the first time instance from the sampled values ; comparing the error to a first threshold value to identify a deviation in the sampled value of the current signal and a second time instance corresponding to an inception of the deviation ; applying wavelet filtering on the sampled values occurring after the second time instance to obtain one or more frequency contents occurring in the sampled value occurring after the inception of deviation ; comparing the one or more obtained frequency contents with a second threshold to detect an inrush condition at a third time instance ; computing rate of change in the sampled values occurring between the inception of deviation and the detected inrush condition ; and detecting a saturation in the current transformer on exceeding a predefined third threshold value by the computed rate of change in the sampled values .
A method for the preparation of a compound of formula (I) wherein R 1 is CHF 2 , and Q is selected from chloro, bromo and fluoro, comprising each of the steps: reacting a compound of formula (II) wherein R 2 is selected from hydrogen, C 1-6 -alkyl and arylalkyl, and R 21 is COCH 3 ; with a compound of formula (III) in the presence of an acid catalyst in the form of a clay or a zeolite, to form a compound of formula (IV) wherein R 2 and R 21 are as defined above; reacting the compound of formula (IV) wherein R 2 and R 21 are as defined above with an aliphatic or aromatic thiol in the presence of a metal hydroxide in a suitable solvent to obtain a compound of formula (VI) wherein R 21 is as defined above; reacting the compound of formula (VI), wherein R 21 is as defined above, by addition of a solution of the compound of formula (VI) and sodium chlorodifluoro acetate in DMF to a pre-heated mixture of DMF, water and potassium carbonate over an extended period of time to obtain the compound of formula (IX), wherein R 1 and R 21 are as defined above; reacting the compound of formula (IX) with a pyridine compound of formula (X) wherein Q is as defined above and Qx is selected from chloro, bromo, fluoro and iodo, to form a compound of formula (XI); wherein R 1 and Q are as defined above; and oxidating the resulting compound of formula (XI) to prepare the compound of formula (I) wherein R 1 and Q are as defined above. reacting a compound of formula (II) wherein R 2 is selected from hydrogen, C 1-6 -alkyl and arylalkyl, and R 21 is COCH 3 ; with a compound of formula (III) in the presence of an acid catalyst in the form of a clay or a zeolite, to form a compound of formula (IV) wherein R 2 and R 21 are as defined above; reacting the compound of formula (IV) wherein R 2 and R 21 are as defined above with an aliphatic or aromatic thiol in the presence of a metal hydroxide in a suitable solvent to obtain a compound of formula (VI) wherein R 21 is as defined above; reacting the compound of formula (VI), wherein R 21 is as defined above, by addition of a solution of the compound of formula (VI) and sodium chlorodifluoro acetate in DMF to a pre-heated mixture of DMF, water and potassium carbonate over an extended period of time to obtain the compound of formula (IX), wherein R 1 and R 21 are as defined above; reacting the compound of formula (IX) with a pyridine compound of formula (X) wherein Q is as defined above and Qx is selected from chloro, bromo, fluoro and iodo, to form a compound of formula (XI); wherein R 1 and Q are as defined above; and oxidating the resulting compound of formula (XI) to prepare the compound of formula (I) wherein R 1 and Q are as defined above.
A gantry for a radiation therapy system, the gantry comprising: at least one first dipole magnet (260; 460) operable to bend a beam received from a cyclotron (230; 430) by a first degree amount; a second dipole magnet (225; 425); the gantry being characterised by further comprising: a plurality of quadrupole magnets (255; 455) configured to condition the beam asymmetrically to produce an asymmetric beam, wherein a configuration of the plurality of quadrupole magnets (255; 455) is determined using a dispersion function of the second dipole magnet (225; 425), and wherein the plurality of quadrupole magnets (255; 455) are positioned in-line between the at least one first dipole magnet (230; 430) and the second dipole magnet (225; 425); wherein the second dipole magnet (225; 425) is operable to receive the asymmetric beam and bend the asymmetric beam by a second degree amount, and wherein the second dipole magnet (225; 425) is further operable to disperse the asymmetric proton beam to produce a symmetric beam shape at a point of interest. at least one first dipole magnet (260; 460) operable to bend a beam received from a cyclotron (230; 430) by a first degree amount; a second dipole magnet (225; 425); a plurality of quadrupole magnets (255; 455) configured to condition the beam asymmetrically to produce an asymmetric beam, wherein a configuration of the plurality of quadrupole magnets (255; 455) is determined using a dispersion function of the second dipole magnet (225; 425), and wherein the plurality of quadrupole magnets (255; 455) are positioned in-line between the at least one first dipole magnet (230; 430) and the second dipole magnet (225; 425); wherein the second dipole magnet (225; 425) is operable to receive the asymmetric beam and bend the asymmetric beam by a second degree amount, and wherein the second dipole magnet (225; 425) is further operable to disperse the asymmetric proton beam to produce a symmetric beam shape at a point of interest.
A facility for producing aluminium by electrolysis comprising a system for characterising a geometry of a moving load suspended by means of a rod , the system comprising: - at least one geometry sensor having a field of vision wherein the load is able to travel, the field of vision of the geometry sensor being able to encompass a portion of the load at a given instant so as to provide a geometry image of the portion at the given instant; - a system configured to determine the swing (Θ) of the rod and/or of the load at the given instant; - a corrector configured to correct at the given instant, the geometry image of the load portion corrected by the corresponding swing (Θ), so as to define the geometry image of the portion in a reference frame, independent of the swing (Θ); - a system configured to reconstruct the geometry of at least one part of the load in the reference frame, based on the image of the corrected geometry of at least two portions of the load at two given instants, the facility comprising a load conveying assembly on an overhead conveyor comprising a connection device such that the load can be suspended from said connection device by a rod . - at least one geometry sensor having a field of vision wherein the load is able to travel, the field of vision of the geometry sensor being able to encompass a portion of the load at a given instant so as to provide a geometry image of the portion at the given instant; - a system configured to determine the swing (Θ) of the rod and/or of the load at the given instant; - a corrector configured to correct at the given instant, the geometry image of the load portion corrected by the corresponding swing (Θ), so as to define the geometry image of the portion in a reference frame, independent of the swing (Θ); - a system configured to reconstruct the geometry of at least one part of the load in the reference frame, based on the image of the corrected geometry of at least two portions of the load at two given instants,