mhurhangee/ep-ind-claims huggingface dataset:
A power distribution system for distributing high frequency AC power from a current limited power source, the system comprising: a twisted pair of elongate conductors configured to be connected to the power source, the ends of the conductors furthest from the power source being connected to one another, wherein the conductors between adjacent turns of the twisted pair are moveable apart from one another to define an aperture therebetween, a power tapping element which is configured to be inserted at least partly through the aperture so that electrical power can be coupled inductively from the conductors to the power tapping element, wherein a further conductor is wound at least partly around the power tapping element, characterised in that the system further comprises: a synchronous rectification circuit connected to the further conductor to convert high frequency AC power in the further conductor to a DC regulated voltage to power a load (D2a), and a rectifier in the synchronous rectification circuit to controllably short circuit the rectification circuit to stop power being transmitted to the load. a twisted pair of elongate conductors configured to be connected to the power source, the ends of the conductors furthest from the power source being connected to one another, wherein the conductors between adjacent turns of the twisted pair are moveable apart from one another to define an aperture therebetween, a power tapping element which is configured to be inserted at least partly through the aperture so that electrical power can be coupled inductively from the conductors to the power tapping element, wherein a further conductor is wound at least partly around the power tapping element, characterised in that the system further comprises: a synchronous rectification circuit connected to the further conductor to convert high frequency AC power in the further conductor to a DC regulated voltage to power a load (D2a), and a rectifier in the synchronous rectification circuit to controllably short circuit the rectification circuit to stop power being transmitted to the load. a synchronous rectification circuit connected to the further conductor to convert high frequency AC power in the further conductor to a DC regulated voltage to power a load (D2a), and a rectifier in the synchronous rectification circuit to controllably short circuit the rectification circuit to stop power being transmitted to the load.
An electromagnetic device, comprising: an elongated core in which a magnetic flux is generable; a first channel formed through the elongated core; a second channel formed through the elongated core; an inner core member provided between the first channel and the second channel; a primary winding wound around the inner core member; and a plurality of secondary windings (120a-120n) wound around the inner core member, wherein an electric current flowing through the primary winding generates a magnetic field about the primary winding and the magnetic field is absorbed by the elongated core to generate the magnetic flux in the elongated core, the magnetic flux flowing in the elongated core causes an electric current to flow in each of the plurality of secondary windings; wherein the primary winding and each of the plurality of secondary windings are wound separately around the inner core member with the primary winding being wound first followed by each of the secondary windings; and characterised in that the elongated core comprises one of a one-piece structure and a laminated structure including a plurality of plates stacked on one another and with first and second elongated openings (112, 114) formed through each of the plates, wherein the openings of the plates are respectively aligned with one another to form the first and second channels (106, 108). an elongated core in which a magnetic flux is generable; a first channel formed through the elongated core; a second channel formed through the elongated core; an inner core member provided between the first channel and the second channel; a primary winding wound around the inner core member; and a plurality of secondary windings (120a-120n) wound around the inner core member, wherein an electric current flowing through the primary winding generates a magnetic field about the primary winding and the magnetic field is absorbed by the elongated core to generate the magnetic flux in the elongated core, the magnetic flux flowing in the elongated core causes an electric current to flow in each of the plurality of secondary windings; wherein the primary winding and each of the plurality of secondary windings are wound separately around the inner core member with the primary winding being wound first followed by each of the secondary windings; and characterised in that the elongated core comprises one of a one-piece structure and a laminated structure including a plurality of plates stacked on one another and with first and second elongated openings (112, 114) formed through each of the plates, wherein the openings of the plates are respectively aligned with one another to form the first and second channels (106, 108). a one-piece structure and a laminated structure including a plurality of plates stacked on one another and with first and second elongated openings (112, 114) formed through each of the plates, wherein the openings of the plates are respectively aligned with one another to form the first and second channels (106, 108).
A method for repeatedly transmitting information, applied to a terminal device, the method comprising: transmitting, by the terminal device, K uplink transmission channels in continuous time domain resources of at least two continuous slots to a network device; wherein each of the K uplink transmission channels is used for transmitting target data, K is an integer greater than or equal to 2, and the uplink transmission channel is a Physical Uplink Shared Channel, PUSCH; wherein the method comprises: when remaining time domain resources of a slot of the at least two slots cannot transmit an n-th uplink transmission channel of the K uplink transmission channels, transmitting an incomplete n-th uplink transmission channel in the remaining time domain resources, wherein n is an integer greater than or equal to 1 and less than or equal to K, and a quantity of actual transmitted uplink transmission channels is greater than K, wherein the transmitting the incomplete n-th uplink transmission channel in the remaining time domain resources comprises: transmitting the incomplete n-th uplink transmission channel in the remaining time domain resources when the remaining time domain resources is less than time domain resources used for the n-th uplink transmission channel and the remaining time domain resources meet a second agreed condition, wherein the second agreed condition is that a quantity of time domain symbols of the remaining time domain resources is greater than a preset threshold. when remaining time domain resources of a slot of the at least two slots cannot transmit an n-th uplink transmission channel of the K uplink transmission channels, transmitting an incomplete n-th uplink transmission channel in the remaining time domain resources, wherein n is an integer greater than or equal to 1 and less than or equal to K, and a quantity of actual transmitted uplink transmission channels is greater than K, wherein the transmitting the incomplete n-th uplink transmission channel in the remaining time domain resources comprises: transmitting the incomplete n-th uplink transmission channel in the remaining time domain resources when the remaining time domain resources is less than time domain resources used for the n-th uplink transmission channel and the remaining time domain resources meet a second agreed condition, wherein the second agreed condition is that a quantity of time domain symbols of the remaining time domain resources is greater than a preset threshold. transmitting the incomplete n-th uplink transmission channel in the remaining time domain resources when the remaining time domain resources is less than time domain resources used for the n-th uplink transmission channel and the remaining time domain resources meet a second agreed condition, wherein the second agreed condition is that a quantity of time domain symbols of the remaining time domain resources is greater than a preset threshold.
Handling unit, in particular a linear, gripping or pivoting unit, comprising a moving component and a fixing mechanism for fixing the component, the fixing mechanism having a holding element which acts against the component to fix the component, characterized in that a reversible magnet and a polarization coil are provided, the reversible magnet being a bistable magnet which can change between a first pole configuration and a second pole configuration by activating the polarization coil, the reversible magnet being arranged such that, in the first pole configuration, a magnetic field is designed so that the holding element undergoes a force which pushes the holding element against the component to fix the component, and being arranged such that, in the second pole configuration, the magnetic field is designed so that the holding element releases the component, a control unit being provided, which has a charging and storage unit (56, 60) for charging storage elements with electrical energy, the stored energy being used to energize the polarization coil and thus to reverse the polarity of the reversible magnet.
A flow member comprising: a gas conduit for conveying a gas containing moisture, a sensing conduit (208,210) for allowing a sensing component (118,120) outside the gas conduit to sense a property of the gas; a number of walls (214,216,218,232,234) disposed internal the gas conduit and extending longitudinally with respect thereto, wherein the sensing conduit (208,210) passes through an outer wall of the gas conduit and terminates at a distal end portion (209,211) inside the gas conduit, the distal end portion (209,211) being configured to reduce an amount of moisture contained in the gas entering into the sensing conduit (208,210) by being spaced a distance from the outer wall of the gas conduit; characterized in that the number of walls (214,216,218,232,234) are contoured in such a way that in right side up and upside down orientations gravity will force moisture to flow away from the distal end portion (209, 211); and wherein a first wall of the number of walls has formed therein a port (220,222) disposed at the distal end portion (209,211). a gas conduit for conveying a gas containing moisture, a sensing conduit (208,210) for allowing a sensing component (118,120) outside the gas conduit to sense a property of the gas; a number of walls (214,216,218,232,234) disposed internal the gas conduit and extending longitudinally with respect thereto, wherein the sensing conduit (208,210) passes through an outer wall of the gas conduit and terminates at a distal end portion (209,211) inside the gas conduit, the distal end portion (209,211) being configured to reduce an amount of moisture contained in the gas entering into the sensing conduit (208,210) by being spaced a distance from the outer wall of the gas conduit; characterized in that the number of walls (214,216,218,232,234) are contoured in such a way that in right side up and upside down orientations gravity will force moisture to flow away from the distal end portion (209, 211); and wherein a first wall of the number of walls has formed therein a port (220,222) disposed at the distal end portion (209,211).
Radiation-curable inkjet ink composition comprising a radiation curable component, the radiation-curable inkjet ink composition further comprising a gelling agent, the gelling agent being an ester compound, the ester compound consisting essentially of a condensation product of a first reactant and a second reactant, wherein the first reactant is a compound A comprising at least 3 first functional groups, wherein the first functional groups are hydroxyl functional groups and wherein the second reactant comprises at least one compound B, wherein the at least one compound B comprises a second functional group, the second functional group being a carboxylic acid functional group,, wherein the compound B is a compound according to formula I; formula I: R-C OH; wherein R is an alkyl group, an aryl group or an alkylarylgroup, wherein R is a group having 5-30 carbon atoms. and wherein the ester compound is present in an amount of 0.3 wt% - 3.0 wt% based on the total weight of the radiation-curable inkjet ink composition.
An article having fluorescent coloration, comprising: an underlayer fluorescent colored film having at least one first fluorescent dye within an underlayer acrylic resin polymer matrix; an overlayer fluorescent colored film having at least one second fluorescent dye within an overlayer polymer matrix, said overlayer polymer matrix having been formed from a polycarbonate or an acrylic resin; said overlayer fluorescent colored film overlies said underlayer fluorescent colored film; and said first fluorescent dye and said second fluorescent dye are different from each other, the article has a selected fluorescent coloration different from the coloration of either said underlayer fluorescent colored film or said overlayer fluorescent colored film, wherein said first fluorescent dye of the underlayer is a fluorescent dye that comprises a perylene imide dye, and wherein said second fluorescent dye of the overlayer is a fluorescent dye that comprises a benzothiazine or a benzoxanthene dye. an underlayer fluorescent colored film having at least one first fluorescent dye within an underlayer acrylic resin polymer matrix; an overlayer fluorescent colored film having at least one second fluorescent dye within an overlayer polymer matrix, said overlayer polymer matrix having been formed from a polycarbonate or an acrylic resin; said overlayer fluorescent colored film overlies said underlayer fluorescent colored film; and said first fluorescent dye and said second fluorescent dye are different from each other, the article has a selected fluorescent coloration different from the coloration of either said underlayer fluorescent colored film or said overlayer fluorescent colored film, wherein said first fluorescent dye of the underlayer is a fluorescent dye that comprises a perylene imide dye, and wherein said second fluorescent dye of the overlayer is a fluorescent dye that comprises a benzothiazine or a benzoxanthene dye.
A method for estimating a load acting on a tire mounted on a vehicle, the method comprising: a step (S 11) of detecting an acceleration waveform in a tire radial direction of each tire from an output of each of acceleration sensors (101~112) disposed on an inner surface side of a tire tread of each tire of the vehicle; a step of calculating a total vehicle weight; a step of differentiating the acceleration waveform in the tire radial direction of each tire to obtain a differential acceleration waveform; a step of calculating a ground contact time (Tc) and a rotation time (Tr) of the tire from the differential acceleration waveform; a step of calculating, for each tire, a ground contact time ratio (CTRk) which is a ratio between the ground contact time (Tc) and the rotation time (Tr); and a step of estimating a load (wk) acting on a target tire (Tk), which is a target for estimation of the load, from the calculated ground contact time ratio (CTRk) of each tire, a maximum load capability of the target tire (Tk), the calculated total vehicle weight, and an inclination obtained in advance by approximating a maximum load capability ratio (Mk [%]) with a linear function of the ground contact time ratio (CTRk), wherein the maximum load capability ratio (Mk [%]) of the target tire (Tk) is a value obtained by normalizing the load (wk) acting on the target tire (Tk) with the maximum load capability of the target tire (Tk). a step (S 11) of detecting an acceleration waveform in a tire radial direction of each tire from an output of each of acceleration sensors (101~112) disposed on an inner surface side of a tire tread of each tire of the vehicle; a step of calculating a total vehicle weight; a step of differentiating the acceleration waveform in the tire radial direction of each tire to obtain a differential acceleration waveform; a step of calculating a ground contact time (Tc) and a rotation time (Tr) of the tire from the differential acceleration waveform; a step of calculating, for each tire, a ground contact time ratio (CTRk) which is a ratio between the ground contact time (Tc) and the rotation time (Tr); and a step of estimating a load (wk) acting on a target tire (Tk), which is a target for estimation of the load, from the calculated ground contact time ratio (CTRk) of each tire, a maximum load capability of the target tire (Tk), the calculated total vehicle weight, and an inclination obtained in advance by approximating a maximum load capability ratio (Mk [%]) with a linear function of the ground contact time ratio (CTRk), wherein the maximum load capability ratio (Mk [%]) of the target tire (Tk) is a value obtained by normalizing the load (wk) acting on the target tire (Tk) with the maximum load capability of the target tire (Tk).
An isolated non-natural albumin binding domain comprising an amino acid sequence at least 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99% or 100% identical to the amino acid sequence of SEQ ID NO: 21.
A method of wireless communication performed by an apparatus, comprising: assigning resources for Demodulation Reference signals, DMRS, corresponding to each of two or more data streams, wherein the resources assigned to each of the data streams are staggered in frequency and span two or more Orthogonal Frequency Division Multiplexing, OFDM, symbols; transmitting the DMRS using the assigned resources; and further comprising for each data stream, using a different code sequence in two or more of the OFDM symbols to transmit DMRS corresponding to the data stream. assigning resources for Demodulation Reference signals, DMRS, corresponding to each of two or more data streams, wherein the resources assigned to each of the data streams are staggered in frequency and span two or more Orthogonal Frequency Division Multiplexing, OFDM, symbols; transmitting the DMRS using the assigned resources; and further comprising for each data stream, using a different code sequence in two or more of the OFDM symbols to transmit DMRS corresponding to the data stream.
A flexible fuel tank comprising, from the inside to the outside of said tank: - a single-layer or multilayer liner having properties of sealing with respect to the liquid, impermeability to the vapor of said fuel, and dissipation of electrostatic charges, said liner including an inner face intended to be in contact with the fuel and an outer face; - an intermediate layer in contact with the outer face of the liner, for example a coating layer; - a textile reinforcing layer in contact with the intermediate layer, characterized in that the liner has a total thickness smaller than 150 microns, the liner has, at its outer face, an impermeability with respect to the fuel vapors below 6 g/m 2 /24 h, the inner face of the liner has a surface electric resistivity lower than 10 8 ohm/square. - a single-layer or multilayer liner having properties of sealing with respect to the liquid, impermeability to the vapor of said fuel, and dissipation of electrostatic charges, said liner including an inner face intended to be in contact with the fuel and an outer face; - an intermediate layer in contact with the outer face of the liner, for example a coating layer; - a textile reinforcing layer in contact with the intermediate layer, characterized in that the liner has a total thickness smaller than 150 microns, the liner has, at its outer face, an impermeability with respect to the fuel vapors below 6 g/m 2 /24 h,
A circuit switched fallback, CSFB, method, wherein the method is applied to a network device on a first network, and the method comprises: determining (101, 205, 305, 407, 508), by the network device, that a serving cell handover process of a user equipment, UE, is ended, wherein in the serving cell handover process of the UE a service cell of the UE is handed over on the first network; determining (102, 204, 304, 401, 501), by the network device, that before the serving cell handover process of the UE is ended, it has been determined that the UE needs to be moved to a second network, wherein the second network is a network that supports a circuit switched service; and after determining that the serving cell handover process of the UE is ended, moving (103, 207, 307, 408, 510), by the network device, the UE to the second network. determining (101, 205, 305, 407, 508), by the network device, that a serving cell handover process of a user equipment, UE, is ended, wherein in the serving cell handover process of the UE a service cell of the UE is handed over on the first network; determining (102, 204, 304, 401, 501), by the network device, that before the serving cell handover process of the UE is ended, it has been determined that the UE needs to be moved to a second network, wherein the second network is a network that supports a circuit switched service; and after determining that the serving cell handover process of the UE is ended, moving (103, 207, 307, 408, 510), by the network device, the UE to the second network.
A sealing apparatus (10, 18) comprising: a first cover plate; a second cover plate spaced apart from the first cover plate; and a sealing element disposed between the first cover plate and the second cover plate and including at least two diaphragm members (24a, 24b, 24c, 24d, 68, 92, 93), characterised in that: a first diaphragm member (24a, 68) has a first stiffness and a second diaphragm member (24b, 92) has a second stiffness that is different than the first stiffness, wherein successive stiffness of diaphragm members (24a, 24b, 24c, 24d) increases or decreases from diaphragm to diaphragm. a first cover plate; a second cover plate spaced apart from the first cover plate; and a sealing element disposed between the first cover plate and the second cover plate and including at least two diaphragm members (24a, 24b, 24c, 24d, 68, 92, 93), characterised in that: a first diaphragm member (24a, 68) has a first stiffness and a second diaphragm member (24b, 92) has a second stiffness that is different than the first stiffness, wherein successive stiffness of diaphragm members (24a, 24b, 24c, 24d) increases or decreases from diaphragm to diaphragm. a first diaphragm member (24a, 68) has a first stiffness and a second diaphragm member (24b, 92) has a second stiffness that is different than the first stiffness, wherein successive stiffness of diaphragm members (24a, 24b, 24c, 24d) increases or decreases from diaphragm to diaphragm.