mhurhangee/ep-ind-claims huggingface dataset:
A filter comprising: first means configured to receive a first signal, the first means comprising a splitter adapted to receive the first signal and split the first signal onto a first path and a second path; an output adder configured to generate an output signal; and second means configured to selectively modify the first signal on the second path, the second means including one or more delay modules and one or more phase shifters each responsive to one or more control signals from a controller, whereby the controller is adapted to modify the behaviour of the second means to shape a frequency response of the filter, and the one or more delay modules and the one or more phase shifters are coupled together, wherein, the modified first signal is combined with the first signal, so that the filter implements a controllable notch filter so as to suppress one or more frequency components of the first signal, yielding an output signal in response thereto, so that the filter exhibits a desired frequency response; characterized in that the one or more delay modules and the one or more phase shifters are coupled together such that a delayed first output signal is phase shifted and output to the output adder, the second means further includes one or more amplifiers in the second path, the one or more amplifiers being connected between the output of at least one of the phase shifters and the output adder, wherein one or more of the one or more amplifiers are responsive to one or more control signals from the controller. first means configured to receive a first signal, the first means comprising a splitter adapted to receive the first signal and split the first signal onto a first path and a second path; an output adder configured to generate an output signal; and second means configured to selectively modify the first signal on the second path, the second means including one or more delay modules and one or more phase shifters each responsive to one or more control signals from a controller, whereby the controller is adapted to modify the behaviour of the second means to shape a frequency response of the filter, and the one or more delay modules and the one or more phase shifters are coupled together, wherein, the modified first signal is combined with the first signal, so that the filter implements a controllable notch filter so as to suppress one or more frequency components of the first signal, yielding an output signal in response thereto, so that the filter exhibits a desired frequency response; characterized in that the one or more delay modules and the one or more phase shifters are coupled together such that a delayed first output signal is phase shifted and output to the output adder, the second means further includes one or more amplifiers in the second path, the one or more amplifiers being connected between the output of at least one of the phase shifters and the output adder, wherein one or more of the one or more amplifiers are responsive to one or more control signals from the controller.
Method for installing an application on a secure element, said method being implemented by the secure element on which is executed an execution environment manipulating a native language, characterized in that it comprises the steps of: - reception of implementation and installation parameters identifying a function or functions present in the application, - analysis of the implementation and installation parameters, - calculation of a memory size necessary for the installation of the application, the application containing modules corresponding to the function or functions identified by the implementation and installation parameters, at least one of the modules being shared with another application present on the secure element, - identification of the available memory size, - comparison of the necessary memory size and of the available memory size, - if the available memory size is greater than or equal to the necessary memory size: - creation of a file structure for the application and containing at least one of the modules corresponding to the function or functions identified by the implementation and installation parameters,- generation of the content of the at least one of the modules, method wherein the calculation step determines a necessary memory size by adding an elementary memory size for each of the modules and an additional memory size for a folder containing the modules, and wherein an elementary size for the shared module is reduced to a size of addressing means making it possible for the application to point to the shared module already installed for the other application. - reception of implementation and installation parameters identifying a function or functions present in the application, - analysis of the implementation and installation parameters, - calculation of a memory size necessary for the installation of the application, the application containing modules corresponding to the function or functions identified by the implementation and installation parameters, at least one of the modules being shared with another application present on the secure element, - identification of the available memory size, - comparison of the necessary memory size and of the available memory size, - if the available memory size is greater than or equal to the necessary memory size: - creation of a file structure for the application and containing at least one of the modules corresponding to the function or functions identified by the implementation and installation parameters,- generation of the content of the at least one of the modules, - creation of a file structure for the application and containing at least one of the modules corresponding to the function or functions identified by the implementation and installation parameters,- generation of the content of the at least one of the modules,
An ultraviolet-curable ink composition for an ink-jet recording method comprising at least a polymerizable compound, a photo-polymerization initiator, a polymerization accelerator and a fluorescent whitening agent, wherein the photo-polymerization initiator has an absorption wavelength band that overlaps with light-emission wavelength band of the fluorescent whitening agent, wherein the photo-polymerization initiator includes two or more compounds selected from the group consisting of bisacylphosphine oxides, monoacylphosphine oxides and α-amino ketones.
Mercaptosilane-carbon black blend, comprising at least 20 wt.% of mercaptosilane of the general formula I based on the mercaptosilane-carbon black blend, wherein R 1 is an alkyl polyether group -O-(R 5 -O) m -R 6, with R 5, identical or different at each occurrence, being a branched or unbranched, saturated or unsaturated, aliphatic divalent C1-C30 hydrocarbon group, m being on average 1 to 30, and R 6 consisting of at least 1 C atom and being an unsubstituted or substituted, branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, R 2 is identical or different at each occurrence and is an R 1, C1-C12 alkyl or R 7 O group, with R 7 being H, methyl, ethyl, propyl, C9-C30 branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group or (R 8) 3 Si group, with R 8 being C1-C30 branched or unbranched alkyl or alkenyl group, R 3 is a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic divalent C1-C30 hydrocarbon group, and R 4 is H, CN or (C=O)-R 9, with R 9 being a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic monovalent C1-C30 hydrocarbon group, and carbon black, characterized in that the mercaptosilane-carbon black blend has an iron content of < 9 ppm and comprises a mixture of mercaptosilanes of the general formula I and/or and/or hydrolysis and/or condensation products of the aforementioned compounds. wherein R 1 is an alkyl polyether group -O-(R 5 -O) m -R 6, with R 5, identical or different at each occurrence, being a branched or unbranched, saturated or unsaturated, aliphatic divalent C1-C30 hydrocarbon group, m being on average 1 to 30, and R 6 consisting of at least 1 C atom and being an unsubstituted or substituted, branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, R 2 is identical or different at each occurrence and is an R 1, C1-C12 alkyl or R 7 O group, with R 7 being H, methyl, ethyl, propyl, C9-C30 branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group or (R 8) 3 Si group, with R 8 being C1-C30 branched or unbranched alkyl or alkenyl group, R 3 is a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic divalent C1-C30 hydrocarbon group, and R 4 is H, CN or (C=O)-R 9, with R 9 being a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic monovalent C1-C30 hydrocarbon group, and carbon black, characterized in that the mercaptosilane-carbon black blend has an iron content of < 9 ppm and comprises a mixture of mercaptosilanes of the general formula I and/or and/or hydrolysis and/or condensation products of the aforementioned compounds.
A time-of-flight sensor, comprising: a sensor array comprising a plurality of pixels arranged to detect a first disparity location on the sensor array of a first reflection signal received from a first object with respect to a second disparity location on the sensor array of a second reflection signal received from a second object, the first object being at a first range from the sensor array, the second object being at a second range from the sensor array, and the second range being greater than the first range; a first gated time-to-digital converter circuit configured to generate first timestamp information relating to detection of the first reflection signal, the first gated TDC circuit being gated to generate the first timestamp information based on the first disparity location; and a second gated TDC circuit configured to generate second timestamp information relating to detection of the second reflection signal, the second gated TDC circuit being gated to generate the second timestamp information based on the second disparity location. a sensor array comprising a plurality of pixels arranged to detect a first disparity location on the sensor array of a first reflection signal received from a first object with respect to a second disparity location on the sensor array of a second reflection signal received from a second object, the first object being at a first range from the sensor array, the second object being at a second range from the sensor array, and the second range being greater than the first range; a first gated time-to-digital converter circuit configured to generate first timestamp information relating to detection of the first reflection signal, the first gated TDC circuit being gated to generate the first timestamp information based on the first disparity location; and a second gated TDC circuit configured to generate second timestamp information relating to detection of the second reflection signal, the second gated TDC circuit being gated to generate the second timestamp information based on the second disparity location.
A process for producing aldehydes wherein an olefinic compound, carbon monoxide, and hydrogen are reacted in the presence of a solubilized rhodium-phosphorous complex, the process comprising: (a) receiving a vaporized aldehyde product stream downstream from a hydroformylation reactor, the vaporized aldehyde product stream comprising aldehydes, phosphorous ligand, and aldehyde condensation by-products; (b) contacting the vaporized aldehyde product stream with a partial condenser so as to condense the phosphorous ligand and the by-products, wherein up to 10 weight percent of the vaporized stream is condensed; and wherein the partial condenser comprises a heat exchange device; (c) removing the condensed phosphorous ligand and the condensed by-products from the liquid condensation stream using a refining column; and (d) further processing the vaporized aldehydes from the separate refining column. (a) receiving a vaporized aldehyde product stream downstream from a hydroformylation reactor, the vaporized aldehyde product stream comprising aldehydes, phosphorous ligand, and aldehyde condensation by-products; (b) contacting the vaporized aldehyde product stream with a partial condenser so as to condense the phosphorous ligand and the by-products, wherein up to 10 weight percent of the vaporized stream is condensed; and wherein the partial condenser comprises a heat exchange device; (c) removing the condensed phosphorous ligand and the condensed by-products from the liquid condensation stream using a refining column; and (d) further processing the vaporized aldehydes from the separate refining column.
A filtration assembly for filtering nanoparticles, including: - a filter having pores that are capable of retaining within them nanoparticles that are likely to be present in an air flow intended to pass through the filter, - a filter support including two parts, these being: • a lower base-forming part including a peripheral bearing surface on which the filter can rest; • an upper ring-shaped part capable of being mounted around the bearing surface of the base, the mounting of the ring around the bearing surface of the base making it possible to tension the filter in a direction radial to the mounting direction, the mounting clearance between the ring and the bearing surface of the base being dimensioned such as to maintain the filter resting on the bearing surface under mechanical stress by pinching, in a direction radial to the mounting direction, the bearing surface of the base protruding from the ring, such that after assembly of the ring with the base, the bearing surface is raised relative to the ring. - a filter having pores that are capable of retaining within them nanoparticles that are likely to be present in an air flow intended to pass through the filter, - a filter support including two parts, these being: • a lower base-forming part including a peripheral bearing surface on which the filter can rest; • an upper ring-shaped part capable of being mounted around the bearing surface of the base, the mounting of the ring around the bearing surface of the base making it possible to tension the filter in a direction radial to the mounting direction, the mounting clearance between the ring and the bearing surface of the base being dimensioned such as to maintain the filter resting on the bearing surface under mechanical stress by pinching, in a direction radial to the mounting direction, the bearing surface of the base protruding from the ring, such that after assembly of the ring with the base, the bearing surface is raised relative to the ring. • a lower base-forming part including a peripheral bearing surface on which the filter can rest; • an upper ring-shaped part capable of being mounted around the bearing surface of the base, the mounting of the ring around the bearing surface of the base making it possible to tension the filter in a direction radial to the mounting direction, the mounting clearance between the ring and the bearing surface of the base being dimensioned such as to maintain the filter resting on the bearing surface under mechanical stress by pinching, in a direction radial to the mounting direction, the bearing surface of the base protruding from the ring, such that after assembly of the ring with the base, the bearing surface is raised relative to the ring.
A sectional door comprising horizontal panels mutually articulated and slidable along lateral guides between a position for opening and a position for closing a doorway, a horizontal shaft extending above the doorway and on which there are wound helical springs for the balancing of the sectional door, a drive carrier connected at the centre-line of the upper panel of the door and mobile along a transversal horizontal guide extending above behind the doorway, and an operating system comprising a gear motor for displacing the drive carrier along said horizontal guide through a flexible transmission, wherein said gear motor is housed in a box (13; 13A) installed in proximity of the end of said guide adjacent to said horizontal shaft, wherein said box (13; 13A) of the gear motor has a flattened configuration suitable to be positioned substantially at the same level as said horizontal shaft, wherein said gear motor comprises an electric motor, disposed horizontally, configured to actuate, by means of a worm screw, a vertical axis helical wheel on which there is fitted a grooved output shaft which controls the movement of said drive carrier along said guide, characterized in that said box is formed with projections provided with bushings that can be traversed by said horizontal shaft, wherein said bushings are suitable to be opened by removing respective lower blocks.
A central unit (710;1010;1210,1220), comprising: a central controller configured to gather information about a data rate requested by a terminal located within a cell associated with a first radio access unit; an amount of interference caused by at least one other radio access unit, as measured by the terminal; a requested QoS; and a status of a channel between the terminal and the first radio access unit, as measured by the terminal; and to merge at least two cells among a plurality of cells of radio access units, or to separate at least one cell among the plurality of the cells of the radio access units, based on the gathered information to generate a virtual cell; first processing modules configured to perform signal processing in a radio resource control layer, a media access control layer, and a physical layer for the virtual cell; and a switch configured to connect the first processing modules to the respective radio access units based on whether the plurality of cells of the radio access units are merged or separated, wherein each of the radio access units (720;1021,2022,1023;1121,1122;1231,1232,1233,1241) comprises a second processing module, and each second processing module is configured to transmit and receive a radio frequency signal using at least one antenna. a central controller configured to gather information about a data rate requested by a terminal located within a cell associated with a first radio access unit; an amount of interference caused by at least one other radio access unit, as measured by the terminal; a requested QoS; and a status of a channel between the terminal and the first radio access unit, as measured by the terminal; and to merge at least two cells among a plurality of cells of radio access units, or to separate at least one cell among the plurality of the cells of the radio access units, based on the gathered information to generate a virtual cell; gather information about a data rate requested by a terminal located within a cell associated with a first radio access unit; an amount of interference caused by at least one other radio access unit, as measured by the terminal; a requested QoS; and a status of a channel between the terminal and the first radio access unit, as measured by the terminal; and to merge at least two cells among a plurality of cells of radio access units, or to separate at least one cell among the plurality of the cells of the radio access units, based on the gathered information to generate a virtual cell; first processing modules configured to perform signal processing in a radio resource control layer, a media access control layer, and a physical layer for the virtual cell; and a switch configured to connect the first processing modules to the respective radio access units based on whether the plurality of cells of the radio access units are merged or separated, wherein each of the radio access units (720;1021,2022,1023;1121,1122;1231,1232,1233,1241) comprises a second processing module, and each second processing module is configured to transmit and receive a radio frequency signal using at least one antenna.
WIND TURBINE CONTROL METHOD, wherein the wind turbine is of the type comprising a rotor, a generator, a frequency converter, a control unit and means for connecting to a wind farm, said method comprising the steps: - calculation of a voltage error (ΔV) based on a reference value of local reference voltage (V REF) and a measured local voltage (V MED) - calculation of at least one initial reference value of reactive power (Q T, Q C, Q S) to be generated based on the voltage error (ΔV), characterized in that it is operational throughout the voltage range and further comprises the following steps: - limitation of the initial reference value of reactive power (Q T, Q C, Q S) by applying limits (Q _MAX, Q _MIN, Q C_MAX, Q C_MIN, Q S_MAX, Q S_MIN) calculated on the basis of the local voltage measured (V MED), thus obtaining at least one final reference value of reactive power (Q _REF, Q C_REF, Q s_REF); - calculation of a maximum limit of active power (P _MAX) depending on the final reference value of reactive power (Q _REF, Q s_REF) and the apparent power available at that time; - calculation of a correction term of a blade pitch angle (Δβ) according to the difference between the maximum limit of active power (P _MAX) which can be discharged to the grid and an indicative value of the mechanical power available (P _MEC); and - application of the correction term of the blade pitch angle (Δβ) to the wind turbine. - calculation of a voltage error (ΔV) based on a reference value of local reference voltage (V REF) and a measured local voltage (V MED) - calculation of at least one initial reference value of reactive power (Q T, Q C, Q S) to be generated based on the voltage error (ΔV), characterized in that it is operational throughout the voltage range and further comprises the following steps: - limitation of the initial reference value of reactive power (Q T, Q C, Q S) by applying limits (Q _MAX, Q _MIN, Q C_MAX, Q C_MIN, Q S_MAX, Q S_MIN) calculated on the basis of the local voltage measured (V MED), thus obtaining at least one final reference value of reactive power (Q _REF, Q C_REF, Q s_REF); - calculation of a maximum limit of active power (P _MAX) depending on the final reference value of reactive power (Q _REF, Q s_REF) and the apparent power available at that time; - calculation of a correction term of a blade pitch angle (Δβ) according to the difference between the maximum limit of active power (P _MAX) which can be discharged to the grid and an indicative value of the mechanical power available (P _MEC); and - application of the correction term of the blade pitch angle (Δβ) to the wind turbine.