mhurhangee/ep-ind-claims huggingface dataset:
A method for estimating a path-length difference between two paths followed by a signal transmitted by a spacecraft or aircraft, referred to as "target signal", to arrive respectively on a first receiving antenna and a second receiving antenna of a receiving base, said method comprising a step of measuring a phase difference, referred to as "useful phase difference", between signals corresponding to the target signal received respectively on the first receiving antenna and the second receiving antenna, and a step for estimating the path-length difference as a function of useful phase difference measurements, said method also comprising the steps of: - transmitting a signal, referred to as "calibration signal", to the receiving base, by means of a transmitting antenna, - measuring a phase difference, referred to as "calibration phase difference", between signals corresponding to the calibration signal received respectively on the first receiving antenna and the second receiving antenna, - compensating variations of the calibration phase difference measurements on the useful phase difference measurements, said step of measuring calibration phase difference comprising either the correlation of the signals received respectively on the first receiving antenna and the second receiving antenna with the transmitted calibration signal, or the analysis of said signals received respectively on the first receiving antenna and the second receiving antenna by means of an FFT or of a PLL. - transmitting a signal, referred to as "calibration signal", to the receiving base, by means of a transmitting antenna, - measuring a phase difference, referred to as "calibration phase difference", between signals corresponding to the calibration signal received respectively on the first receiving antenna and the second receiving antenna, - compensating variations of the calibration phase difference measurements on the useful phase difference measurements,
A multi-speed landing gear (30, 230), said landing gear (30, 230) comprising: a housing (32, 232) and a telescoping leg member connected with said housing (32, 232); a gear assembly (42, 242) configured to extend and retract said leg member, said gear assembly (42, 242) including a ring gear (46, 246) arranged to rotate about an axis that is transverse to the telescopic orientation of said leg member with said gear assembly (42, 242) configured to operate in a high speed setting and a low speed setting, characterized in that it further comprises an actuator (56, 353), said actuator (56, 353) being operative to selectively prevent or allow rotation of said ring gear (46,246) to enable said gear assembly (42, 242) to operate in the low speed setting or the high speed setting. a housing (32, 232) and a telescoping leg member connected with said housing (32, 232); a gear assembly (42, 242) configured to extend and retract said leg member, said gear assembly (42, 242) including a ring gear (46, 246) arranged to rotate about an axis that is transverse to the telescopic orientation of said leg member with said gear assembly (42, 242) configured to operate in a high speed setting and a low speed setting, characterized in that it further comprises an actuator (56, 353), said actuator (56, 353) being operative to selectively prevent or allow rotation of said ring gear (46,246) to enable said gear assembly (42, 242) to operate in the low speed setting or the high speed setting.
Recombinant human acid α-glucosidase produced in Chinese hamster ovary cell culture for use in a method of treatment of glycogen storage disease type II in a human, or a method of treatment of cardiomyopathy associated with glycogen storage disease type II in a human, wherein the human is CRIM-negative for endogenous acid α-glucosidase and wherein said recombinant human acid α-glucosidase is administered in conjunction with an immunosuppressive or immunotherapeutic regimen.
Process for preparing a compound of general formula or an enantiomer or salt thereof, wherein R 1 is a phenylcarbonylmethyl, benzyl, naphthylmethyl, pyridinylmethyl, pyrimidinylmethyl, quinolinylmethyl, isoquinolinylmethyl, quinazolinylmethyl, quinoxalinylmethyl, naphthyridinylmethyl or phenanthridinylmethyl group, in which the aromatic or heteroaromatic moiety is in each case mono- or disubstituted by R a, wherein the substituents may be the same or different, and R a is a hydrogen, fluorine, chlorine or bromine atom or a cyano, methyl, trifluoromethyl, ethyl, phenyl, methoxy, difluoromethoxy, trifluoro-methoxy or ethoxy group, or two R a groups, if they are bonded to adjacent carbon atoms, may also denote an -O-CH 2 -O- or -O-CH 2 -CH 2 -O- group, R 2 is a methyl, ethyl, propyl, isopropyl, cyclopropyl or phenyl group and R 3 is a 2-buten-1-yl, 3-methyl-2-buten-1-yl, 2-butyn-1-yl, 2-fluorobenzyl, 2-chlorobenzyl, 2-bromobenzyl, 2-iodobenzyl, 2-methylbenzyl, 2-(trifluoromethyl)benzyl or 2-cyanobenzyl group, comprising the following synthesis steps: a) reaction of a compound of general formula wherein X is a leaving group selected from the group of the halogens or the sulfonic acid esters and R 1 to R 3 are defined as mentioned above, with 3-(phthalimido)piperidine or an enantiomer thereof, b) deprotection of the compound of general formula thus obtained wherein R 1 to R 3 are defined as mentioned above and c) optionally transformation into a physiologically acceptable salt. R a is a hydrogen, fluorine, chlorine or bromine atom or a cyano, methyl, trifluoromethyl, ethyl, phenyl, methoxy, difluoromethoxy, trifluoro-methoxy or ethoxy group, or two R a groups, if they are bonded to adjacent carbon atoms, may also denote an -O-CH 2 -O- or -O-CH 2 -CH 2 -O- group, a) reaction of a compound of general formula wherein X is a leaving group selected from the group of the halogens or the sulfonic acid esters and R 1 to R 3 are defined as mentioned above, with 3-(phthalimido)piperidine or an enantiomer thereof, b) deprotection of the compound of general formula thus obtained wherein R 1 to R 3 are defined as mentioned above and c) optionally transformation into a physiologically acceptable salt.
A product for oral delivery of nicotine containing a core comprising a powder of a) at least one free nicotine salt b) at least one pH adjusting agent c) at least one filler and a water insoluble pouch, wherein said pouch is permeable for saliva and therein dissolved parts of the powder, wherein said product upon contact with purified water gives a pH of at least 6. a) at least one free nicotine salt b) at least one pH adjusting agent c) at least one filler
A galley fire protection system, comprising: a galley for a vehicle used for public transportation, a galley power source, a plurality of devices (238 A-D) located within the galley, each of the devices (238 A-D) being coupled to the galley power source which is adapted to provide electrical power to the devices (238 A-D); at least one detector positioned in the galley; an alert device and a controller that receives signals from the at least one detector, wherein upon receipt of a signal from the detector indicating the presence of fire or smoke in the galley, the controller is configured to: determine which of the devices (238 A-D) within the galley are receiving the electrical power, the determining including interrogating the galley power source, wherein the interrogation includes measurement of current flow, impedance, or resistance to the devices (238 A-D); transmit a first signal to the alert device; and transmit a second signal to the galley power source such that power from the one or more devices (238 A-D) receiving the electrical power within the galley is removed, thereby extinguishing the source of the fire or the smoke. a galley for a vehicle used for public transportation, a galley power source, a plurality of devices (238 A-D) located within the galley, each of the devices (238 A-D) being coupled to the galley power source which is adapted to provide electrical power to the devices (238 A-D); at least one detector positioned in the galley; an alert device and a controller that receives signals from the at least one detector, wherein upon receipt of a signal from the detector indicating the presence of fire or smoke in the galley, the controller is configured to: determine which of the devices (238 A-D) within the galley are receiving the electrical power, the determining including interrogating the galley power source, wherein the interrogation includes measurement of current flow, impedance, or resistance to the devices (238 A-D); transmit a first signal to the alert device; and transmit a second signal to the galley power source such that power from the one or more devices (238 A-D) receiving the electrical power within the galley is removed, thereby extinguishing the source of the fire or the smoke. determine which of the devices (238 A-D) within the galley are receiving the electrical power, the determining including interrogating the galley power source, wherein the interrogation includes measurement of current flow, impedance, or resistance to the devices (238 A-D); transmit a first signal to the alert device; and transmit a second signal to the galley power source such that power from the one or more devices (238 A-D) receiving the electrical power within the galley is removed, thereby extinguishing the source of the fire or the smoke.
A method for transmitting a release notification message, the method comprising: receiving an error indication message from a first computer at a second computer, the error indication message including a destination identifier and an address associated with the first computer; determining whether, in response to receiving the error indication message, a first release notification message was transmitted to a control module in the second computer, the control module configured to release a bearer connection associated with the destination identifier; characterised in that: if it is determined that the first release notification message has been transmitted to the control module, then: stopping the transmission of subsequent release notification messages to the control module if subsequent received error indication messages include the destination identifier and the address. receiving an error indication message from a first computer at a second computer, the error indication message including a destination identifier and an address associated with the first computer; determining whether, in response to receiving the error indication message, a first release notification message was transmitted to a control module in the second computer, the control module configured to release a bearer connection associated with the destination identifier; characterised in that: if it is determined that the first release notification message has been transmitted to the control module, then: stopping the transmission of subsequent release notification messages to the control module if subsequent received error indication messages include the destination identifier and the address.
An underwater storage tank for a working liquid comprising a flexible multilayer tank containing said working liquid, said flexible multilayer tank being externally in contact with sea water characterized in that said flexible multilayer tank comprises at least one internal electrical insulating layer in contact with said working fluid, at least one external electrical insulating layer in contact with sea water, at least one intermediate electric conductive layer sealed between said at least one internal electrical insulating layer and said at least one external electrical insulating layer, at least one first electrical connection means connected to said intermediate conductive layer, said first electrical connection means being connectable to an electrical grounded measurement instrument to assess the physical integrity of said flexible multilayer tank. said flexible multilayer tank comprises at least one internal electrical insulating layer in contact with said working fluid, at least one external electrical insulating layer in contact with sea water, at least one intermediate electric conductive layer sealed between said at least one internal electrical insulating layer and said at least one external electrical insulating layer, at least one first electrical connection means connected to said intermediate conductive layer, said first electrical connection means being connectable to an electrical grounded measurement instrument to assess the physical integrity of said flexible multilayer tank.
A Medium Voltage Circuit Breaker comprising an electronic protection and control unit characterized in that said electronic protection and control unit comprises: - a base, fixed to the circuit breaker, comprising a main body having fixing means for fixing to the circuit breaker, a first side of said main body comprising a confined space including connections to the CB and internal accessories thereof, a second side of said main body comprising a plurality of first power and/or signal connection means; - a removable unit comprising a casing, a first part of said casing hosting one or more Intelligent Electronic Devices, a second part of said casing being removably coupled to said base and comprising a plurality of second power and/or signal connection means connected to said first power and/or signal connection means; said electronic protection and control unit further comprising: - a first cover associated with the first part of the casing of said removable unit; - a second cover associated with the first side of the main body of said base; said second cover comprising a seat for accommodating a ground fault secondary current transformer. - a base, fixed to the circuit breaker, comprising a main body having fixing means for fixing to the circuit breaker, a first side of said main body comprising a confined space including connections to the CB and internal accessories thereof, a second side of said main body comprising a plurality of first power and/or signal connection means; - a removable unit comprising a casing, a first part of said casing hosting one or more Intelligent Electronic Devices, a second part of said casing being removably coupled to said base and comprising a plurality of second power and/or signal connection means connected to said first power and/or signal connection means; said electronic protection and control unit further comprising: - a first cover associated with the first part of the casing of said removable unit; - a second cover associated with the first side of the main body of said base;
A transmission device of a transmission system in which there are a plurality of traffic between relay stations, connected to a network constituted of a plurality of relay stations (10-1, 10-2, 10-3, 10-4), comprising: a transmission section which transmits a signal to the network; and a bandwidth control section which selects a lowest transmission bandwidth among transmission bandwidths between the relay stations for every priority, and controls a transmission bandwidth of the transmission section for every priority based on a selected transmission bandwidth for every priority. a transmission section which transmits a signal to the network; and a bandwidth control section which selects a lowest transmission bandwidth among transmission bandwidths between the relay stations for every priority, and controls a transmission bandwidth of the transmission section for every priority based on a selected transmission bandwidth for every priority.
A cell separation system comprising: a cartridge having a polygonal shape in cross section and comprising an injection part, a separation chip separating a flow channel of a sample injected through the injection part and being located downstream of the injection part to separate cancer cells, and a discharge part; and a base plate coupled to the cartridge through its upper surface and comprising a magnetic chip for cancer cell capture, wherein the separation chip of the cartridge is separably coupled to the magnetic chip of the base plate, liquid sensors, and valves, and characterized in that: the discharge part, the liquid sensors, and the valves are provided downstream of the separation chip and the liquid sensors and the valves are located on an upper surface of the base plate to come into contact with discharge channels formed on a lower surface of the cartridge and serve to previously detect the inflow of air bubbles during discharge and adjust the flow of substances, wherein the channels of the discharge part of the cartridge are in contact with the liquid sensors and the valves when the cartridge is coupled to the base plate, wherein the separation chip comprises a top plate having holes (220, 220a, 220b, 220c, 220d, 220e) into which pipes are insertable, each hole (220, 220a, 220b, 220c, 220d, 220e) comprising a first portion having a larger diameter and a second portion having a smaller diameter, wherein the separation chip comprises a second member coupled to the top plate through a tape applied to the upper surface thereof and a first member located under the second member and coupled to the lower surface of the second member through a tape applied to the lower surface of the second member; portions of the second member are cut-off to form channels in the second member; the holes (220, 220a, 220b, 220c, 220d, 220e) are formed so as to penetrate through the upper and lower surfaces of the top plate and to be in communication with the channels; and the pipes are inserted into the first portions of the holes (220, 220a, 220b, 220c, 220d, 220e) at acute angles to the upper surface of the top plate. wherein the separation chip comprises a top plate having holes (220, 220a, 220b, 220c, 220d, 220e) into which pipes are insertable, each hole (220, 220a, 220b, 220c, 220d, 220e) comprising a first portion having a larger diameter and a second portion having a smaller diameter, wherein the separation chip comprises a second member coupled to the top plate through a tape applied to the upper surface thereof and a first member located under the second member and coupled to the lower surface of the second member through a tape applied to the lower surface of the second member; portions of the second member are cut-off to form channels in the second member; the holes (220, 220a, 220b, 220c, 220d, 220e) are formed so as to penetrate through the upper and lower surfaces of the top plate and to be in communication with the channels; and the pipes are inserted into the first portions of the holes (220, 220a, 220b, 220c, 220d, 220e) at acute angles to the upper surface of the top plate.
Method for signal transmission between at least two transceiver units (8.1, 8.2) in a military vehicle via a prescribed number of interconnects of a slip ring arranged between a vehicle hull and a turret rotatably connected to the vehicle hull, characterized by the following steps: a) signals are routed from the first transceiver unit (8.1) via a particular number of first feed conductors (5.1) to a first conversion unit (6.1) for the purpose of converting the signals; b) the first conversion unit (6.1) converts the signals such that they can be routed via a particular number of first connecting conductors (7.1), the number of first connecting conductors (7.1) being smaller than the number of first feed conductors (5.1); c) the signals are routed from the first conversion unit (6.1) via the first connecting conductors (7.1) to the interconnects of the slip ring; d) the signals from the interconnects of the slip ring are routed via a particular number of second connecting conductors (7.2) to a second conversion unit (6.2); e) the second conversion unit (6.2) converts the signals such that they are routable via a particular number of second feed conductors (5.2), the number of second feed conductors (5.2) being larger than the number of second connecting conductors (7.2); f) the signals are routed from the second conversion unit (6.2) via the second feed conductors (5.2) to the second transceiver unit (8.2). a) signals are routed from the first transceiver unit (8.1) via a particular number of first feed conductors (5.1) to a first conversion unit (6.1) for the purpose of converting the signals; b) the first conversion unit (6.1) converts the signals such that they can be routed via a particular number of first connecting conductors (7.1), the number of first connecting conductors (7.1) being smaller than the number of first feed conductors (5.1); c) the signals are routed from the first conversion unit (6.1) via the first connecting conductors (7.1) to the interconnects of the slip ring; d) the signals from the interconnects of the slip ring are routed via a particular number of second connecting conductors (7.2) to a second conversion unit (6.2); e) the second conversion unit (6.2) converts the signals such that they are routable via a particular number of second feed conductors (5.2), the number of second feed conductors (5.2) being larger than the number of second connecting conductors (7.2); f) the signals are routed from the second conversion unit (6.2) via the second feed conductors (5.2) to the second transceiver unit (8.2).
Method for processing a signal from a flow meter for measuring a gas flow in an internal combustion engine, characterized in that the signal is processed according to a first logic when the engine is operating in a first intake mode and in that the signal is processed according to a second logic when the engine is operating in a second intake mode, the first intake mode being characterized by the activation of high-pressure EGR valve and/or the second intake mode being characterized by the activation of a low-pressure EGR valve.
Method for the continuous manufacturing of an LED strip, comprising a device having at least one extruder for producing a transparent plastic melt and having an extrusion tool, at least one LED functional strip equipped with a plurality of light-emitting diodes being passed therethrough, wherein the LED functional strip is embedded in the transparent plastic melt made of thermoplastic material in the extrusion tool, forming the LED strip, characterized in that the extrusion tool comprises at least one upper melt duct and one lower melt duct which discharge into a shaping nozzle duct, the LED functional strip being passed therethrough, wherein a supply duct for the LED functional strip is arranged upstream of the nozzle duct, said supply duct widening counter to the direction of transport, wherein the melt is introduced into the extrusion tool with the proviso that in the supply duct which widens counter to the direction of transport, the LED functional strip being supplied through said supply duct, a melt bead is formed counter to the direction of transport, the LED functional strip travelling into said melt bead, wherein the supply duct widens to a maximum height which is greater than the height (h) of the shaping nozzle duct, wherein the maximum height of the supply duct is at least 50% greater than the height (h) of the nozzle duct.