mhurhangee/ep-ind-claims huggingface dataset:
A method of recovering a useful signal received by a satellite which comprises a step of reception by the satellite of a composite signal comprising said useful signal and so-called collision signals (S2, S3, S4,...), all of these signals being received simultaneously by the satellite, interfering with each other, and respectively being transmitted by transmitters (E1, E2, E3, E4,...), characterized in that it comprises the following steps: - direct reception, by at least one station of a terrestrial network, of signals corresponding to at least a non-zero portion of said collision signals and referred to as collected collision signals (S2', S3',...), - for each collected collision signal (S2', S3',...), estimation, by a processing unit connected to the terrestrial network and to the satellite, of this collision signal received by the satellite as a function of: i. the collected collision signal (S2', S3',...) received directly by the terrestrial station, ii. the position of the transmitter (E2, E3,...) at the date of transmission of this collision signal, and iii. the position of the satellite during the reception of the composite signal, - removing the collected and estimated collision signals (Ŝ2,Ŝ3,...), from the composite signal, in order to allow the recovery of the useful signal. - direct reception, by at least one station of a terrestrial network, of signals corresponding to at least a non-zero portion of said collision signals and referred to as collected collision signals (S2', S3',...), - for each collected collision signal (S2', S3',...), estimation, by a processing unit connected to the terrestrial network and to the satellite, of this collision signal received by the satellite as a function of: i. the collected collision signal (S2', S3',...) received directly by the terrestrial station, ii. the position of the transmitter (E2, E3,...) at the date of transmission of this collision signal, and iii. the position of the satellite during the reception of the composite signal, i. the collected collision signal (S2', S3',...) received directly by the terrestrial station, ii. the position of the transmitter (E2, E3,...) at the date of transmission of this collision signal, and iii. the position of the satellite during the reception of the composite signal, - removing the collected and estimated collision signals (Ŝ2,Ŝ3,...), from the composite signal, in order to allow the recovery of the useful signal.
A particle comprising an energetic fuel additive and an ignition agent, wherein said ignition agent is deposited on at least one surface of said particle, wherein said ignition agent comprises a metal hydride, wherein said energetic fuel additive comprises one or more materials selected from the group consisting of: a metal oxide, a metal, a metalloid, and any combination thereof, wherein the ignition agent is in amount such that the mass ratio of the ignition agent to the energetic fuel additive ranges from 0.01 to 2, wherein said particle is in the form of a core shell structure, wherein said core comprises said energetic fuel additive and said shell comprises said ignition agent.
Beaker designed to be filled with a liquid injected by a filling system, comprising a wall delimiting a filling volume arranged between, on a first side, a bottom, and on the opposite side, an opening; a filling valve provided in the bottom and operable between a filling position, allowing the introduction of the liquid into the filling volume when the beaker cooperates with the filling system, and a sealed position allowing leak-free storage of the liquid introduced into the filling volume; said valve comprising a deformable element mounted in compression in the sealed position and capable of being deformed in the filling position when the pressure of the injected liquid is greater than a predetermined compression value of the deformable element; said valve comprising a connection element allowing the passage of liquid coming from the filling system into the filling volume; the deformable element being arranged to bear against a sealing ring of the connection element in the sealed position of the valve, and spaced from the sealing ring in the filling position of the valve, characterised in that the deformable element comprises a shutter cooperating with the connection element and held by a plurality of elastic arms fixed to the wall and working in flexion and/or compression between the wall and the shutter. a wall delimiting a filling volume arranged between, on a first side, a bottom, and on the opposite side, an opening; a filling valve provided in the bottom and operable between a filling position, allowing the introduction of the liquid into the filling volume when the beaker cooperates with the filling system, and a sealed position allowing leak-free storage of the liquid introduced into the filling volume; said valve comprising a deformable element mounted in compression in the sealed position and capable of being deformed in the filling position when the pressure of the injected liquid is greater than a predetermined compression value of the deformable element; said valve comprising a connection element allowing the passage of liquid coming from the filling system into the filling volume; the deformable element being arranged to bear against a sealing ring of the connection element in the sealed position of the valve, and spaced from the sealing ring in the filling position of the valve, characterised in that the deformable element comprises a shutter cooperating with the connection element and held by a plurality of elastic arms fixed to the wall and working in flexion and/or compression between the wall and the shutter.
A method for voice decoding, the method comprising: dequantizing voice parameter information extracted from at least one predetermined fixed low-frequency voice band and at least one selected high-frequency voice band that was selected during quantization of the voice parameter information; and performing an inverse transformation by applying different codebooks to the at least one predetermined fixed low-frequency voice band and the at least one selected high-frequency voice band on the basis of the dequantized voice parameter information, wherein a codebook for a voice band is selected based on a comparison between the energy of the voice band and an average energy, wherein if the energy of the at least one predetermined fixed low-frequency voice band is higher than the average energy, a codebook learned using the bands having high energy is selected for that voice band, and if the energy of the at least one predetermined fixed low-frequency voice band is lower than the average energy, a codebook learned using the bands having low energy ratio is selected for that voice band, and wherein if the energy of the at least one selected high-frequency voice band is higher than the average energy, a codebook learned using the bands having high energy is selected for that voice band, and if the energy of the at least one selected high-frequency voice band is lower than the average energy, a codebook learned using the bands having low energy ratio is selected for that voice band. dequantizing voice parameter information extracted from at least one predetermined fixed low-frequency voice band and at least one selected high-frequency voice band that was selected during quantization of the voice parameter information; and performing an inverse transformation by applying different codebooks to the at least one predetermined fixed low-frequency voice band and the at least one selected high-frequency voice band on the basis of the dequantized voice parameter information, wherein a codebook for a voice band is selected based on a comparison between the energy of the voice band and an average energy, wherein if the energy of the at least one predetermined fixed low-frequency voice band is higher than the average energy, a codebook learned using the bands having high energy is selected for that voice band, and if the energy of the at least one predetermined fixed low-frequency voice band is lower than the average energy, a codebook learned using the bands having low energy ratio is selected for that voice band, and wherein if the energy of the at least one selected high-frequency voice band is higher than the average energy, a codebook learned using the bands having high energy is selected for that voice band, and if the energy of the at least one selected high-frequency voice band is lower than the average energy, a codebook learned using the bands having low energy ratio is selected for that voice band.
Slatted frame connection device for connecting a first and a second longitudinal beam part (14, 16) of a slatted frame longitudinal beam at a connection point, wherein there is provided a longitudinal element which is to bridge the connection point and from which there protrude at least a first transverse member which is to engage into the first longitudinal beam part and at least a second transverse member which is to engage into the second longitudinal beam part, and there is provided a locking element with which the transverse members can be prevented from coming out of the associated longitudinal beam part (14, 16), wherein the locking element is designed with a bracket member which has a latching projection and is to engage over the longitudinal element, wherein the bracket member acts as a clip which can be fitted to the longitudinal element on installation of the locking element, and the clip is thus able to engage over the longitudinal element transverse to the direction of the transverse members. wherein there is provided a longitudinal element which is to bridge the connection point and from which there protrude at least a first transverse member which is to engage into the first longitudinal beam part and at least a second transverse member which is to engage into the second longitudinal beam part, and there is provided a locking element with which the transverse members can be prevented from coming out of the associated longitudinal beam part (14, 16), wherein the locking element is designed with a bracket member which has a latching projection and is to engage over the longitudinal element, wherein the bracket member acts as a clip which can be fitted to the longitudinal element on installation of the locking element, and the clip is thus able to engage over the longitudinal element transverse to the direction of the transverse members.
A machining cell for dry machining, having a work chamber which is delimited by means of an enclosure having a blowing-in device and an extraction device, characterised in that - the enclosure is closed in some regions by means of a workpiece table, - the blowing-in direction of the blowing-in device is oriented parallel to a workpiece clamping face of the workpiece table, - a chip conveyor with a conveying direction which is oriented normally to the blowing-in direction is arranged under the workpiece table, and - the extraction device has an extraction duct with an extraction direction which is oriented normally to the conveying direction of the chip conveyor and forms an angle between 20 degrees and 160 degrees with the blowing-in direction. - the enclosure is closed in some regions by means of a workpiece table, - the blowing-in direction of the blowing-in device is oriented parallel to a workpiece clamping face of the workpiece table, - a chip conveyor with a conveying direction which is oriented normally to the blowing-in direction is arranged under the workpiece table, and - the extraction device has an extraction duct with an extraction direction which is oriented normally to the conveying direction of the chip conveyor and forms an angle between 20 degrees and 160 degrees with the blowing-in direction.
A stand (100, 200, 300, 400,) configured to hold a cleaner having a cleaner body configured to receive a battery,comprising: a first charging terminal (121, 221, 313) configured to be electrically connected to the cleaner body when the cleaner body is held by the stand; a first seating portion (101, 201, 315) on which the cleaner body is to be seated to be electrically connected to the first charging terminal; a second charging terminal (131, 231, 314) configured to be electrically connected to the battery when the battery is separated from the cleaner body and held by the stand; a second seating portion (102, 202, 316) on which the battery is to be seated to be electrically connected to the second charging terminal; characterized by a battery guide (111, 211, 311) configured to guide the battery when attached to the cleaner body to guide the cleaner body to be connected to the first charging terminal, and configured to guide the battery to be connected to the second charging terminal when the battery is separated from the cleaner body. a first charging terminal (121, 221, 313) configured to be electrically connected to the cleaner body when the cleaner body is held by the stand; a first seating portion (101, 201, 315) on which the cleaner body is to be seated to be electrically connected to the first charging terminal; a second charging terminal (131, 231, 314) configured to be electrically connected to the battery when the battery is separated from the cleaner body and held by the stand; a second seating portion (102, 202, 316) on which the battery is to be seated to be electrically connected to the second charging terminal; characterized by a battery guide (111, 211, 311) configured to guide the battery when attached to the cleaner body to guide the cleaner body to be connected to the first charging terminal, and configured to guide the battery to be connected to the second charging terminal when the battery is separated from the cleaner body.
Ferritic stainless steel having a chemical composition consisting of, by mass%, C: 0.015% or less, Si: 0.4% or more and 1.0% or less, Mn: 1.0% or less, P: 0.040% or less, S: 0.010% or less, Cr: 12% or more and less than 16%, N: 0.015% or less, Nb: 0.3% or more and 0.65% or less, Ti: 0.15% or less, Mo: 0.1% or less, W: 0.1% or less, Cu: 1.0% or more and 2.5 % or less and Al: 0.2% or more and 1.0% or less, while the relationship Si ≥ Al is satisfied, and optionally B: 0.003% or less, REM: 0.080% or less, Zr: 0.50% or less, V: 0.50% or less, Co: 0.5% or less, Ni: 0.5% or less, O: 0.010% or less, Sn: 0.005% or less, Mg: 0.005% or less and Ca: 0.005% or less, and the balance being Fe and inevitable impurities.
Apparatus for localizing a mobile terminal in a spatial region, comprising - a camera unit, which is configured to produce a still image of the spatial region; - a detector, which is configured for detecting a landmark (202; 204) arranged in the spatial region and imaged in a still image that was produced by the camera unit, wherein the landmark (202; 204) has a number of optoelectronically detectable symbols (202-1; 204-1); - a comparator, which is configured to assign spatial data from a database to the still image of the detected landmark; and - a computer, which is configured to calculate, based on the still image and on the spatial data assigned thereto, a position of the mobile terminal within the spatial region, wherein the comparator is additionally configured to assign orientation data from the database to the still image of the detected landmark (202; 204), characterized in that - the orientation data contain information relating to a spatial direction in which a side of the detected landmark (202; 204) that is imaged in the still image faces; and - the computer is additionally configured to calculate the position of the mobile terminal based on the orientation data assigned to the still image. - a camera unit, which is configured to produce a still image of the spatial region; - a detector, which is configured for detecting a landmark (202; 204) arranged in the spatial region and imaged in a still image that was produced by the camera unit, wherein the landmark (202; 204) has a number of optoelectronically detectable symbols (202-1; 204-1); - a comparator, which is configured to assign spatial data from a database to the still image of the detected landmark; and - a computer, which is configured to calculate, based on the still image and on the spatial data assigned thereto, a position of the mobile terminal within the spatial region, wherein the comparator is additionally configured to assign orientation data from the database to the still image of the detected landmark (202; 204), - the orientation data contain information relating to a spatial direction in which a side of the detected landmark (202; 204) that is imaged in the still image faces; and - the computer is additionally configured to calculate the position of the mobile terminal based on the orientation data assigned to the still image.
Biodetector comprising a functionalised surface for isolating molecules or cells from the human body, wherein the biodetector is configured to remove a fluid from the human body and to absorb it into an interior of the biodetector, wherein the functionalised surface faces the interior of the biodetector, wherein the biodetector comprises a line portion and a storage device in the form of a syringe having a variable volume, wherein the interior of the storage device can communicate with the interior of the line portion, wherein the functionalised surface is located on an inner wall of the line portion, wherein the line portion has at least one change in cross section, and the functionalised surface is provided on said change in cross section, wherein the interior of the storage device can be filled with the fluid removed from the human body by increasing the storage volume.
A quadrupole rod set mass filter, mass analyser or ion trap comprising: a first pair of rod electrodes; a second pair of rod electrodes; and an energy filter; wherein said first pair of rod electrodes has a physical property which differs from a physical property of said second pair of rod electrodes, wherein said first and second pairs of rod electrodes have a first upstream portion and a second downstream portion, wherein said first and second pairs of rod electrodes have a substantially constant cross-sectional diameter or profile in said first upstream portion; characterised in that said physical property comprises axial length, and said first pair of rod electrodes has a first axial length and said second pair of rod electrodes has a second different axial length such that one of the first and second pair of rod electrodes extends further in the exit region of the rods than the other of the first and second pair of rod electrodes; or said first pair of rod electrodes comprise one or more partial or complete first voids located adjacent an exit region of said quadrupole rod set mass filter, mass analyser or ion trap, and said second pair of rod electrodes does not comprise any partial or complete voids adjacent an exit region of said quadrupole rod set mass filter, mass analyser or ion trap. a first pair of rod electrodes; a second pair of rod electrodes; and an energy filter; wherein said first pair of rod electrodes has a physical property which differs from a physical property of said second pair of rod electrodes, wherein said first and second pairs of rod electrodes have a first upstream portion and a second downstream portion, wherein said first and second pairs of rod electrodes have a substantially constant cross-sectional diameter or profile in said first upstream portion; characterised in that said physical property comprises axial length, and said first pair of rod electrodes has a first axial length and said second pair of rod electrodes has a second different axial length such that one of the first and second pair of rod electrodes extends further in the exit region of the rods than the other of the first and second pair of rod electrodes; or said first pair of rod electrodes comprise one or more partial or complete first voids located adjacent an exit region of said quadrupole rod set mass filter, mass analyser or ion trap, and said second pair of rod electrodes does not comprise any partial or complete voids adjacent an exit region of said quadrupole rod set mass filter, mass analyser or ion trap.
A method of operating a fire suppression system having a pneumatically driven pump connected to a conduit that is connected to a nozzle, the conduit and the nozzle establishing a discharge path, the method comprising the steps of: driving the pump with pressurized gas from a gas source to cause the pump to deliver a pressurized fire suppression fluid from a source to the nozzle, wherein the fire suppression fluid is water; providing gas from the gas source to the discharge path to achieve a bubbly fluid mixture of liquid and gas bubbles in the discharge path; and achieving a desired effervescent discharge of the fire suppression fluid from the nozzle as gas bubbles of the bubbly fluid mixture of liquid and gas bubbles burst upon exiting the nozzle, thereby causing the fire suppression fluid to break up into droplets establishing a mist discharge from the nozzle. driving the pump with pressurized gas from a gas source to cause the pump to deliver a pressurized fire suppression fluid from a source to the nozzle, wherein the fire suppression fluid is water; providing gas from the gas source to the discharge path to achieve a bubbly fluid mixture of liquid and gas bubbles in the discharge path; and achieving a desired effervescent discharge of the fire suppression fluid from the nozzle as gas bubbles of the bubbly fluid mixture of liquid and gas bubbles burst upon exiting the nozzle, thereby causing the fire suppression fluid to break up into droplets establishing a mist discharge from the nozzle.
High-speed railway vehicle, delimited by an outer shell, the railway vehicle comprising: - a forming device for forming a plasma at a front end of the outer shell, - an electrostatic device for generating an electric field in the vicinity of a guide surface of the outer shell, characterised in that the railway vehicle comprises: - a magnetostatic device for generating a magnetic field in the vicinity of the guide surface, the electrostatic device and the magnetostatic device being configured to cooperate and guide a flow of the plasma along the guide surface in an aggregate movement which is substantially opposed to a direction of travel (X-X') of the railway vehicle. - a forming device for forming a plasma at a front end of the outer shell, - an electrostatic device for generating an electric field in the vicinity of a guide surface of the outer shell, - a magnetostatic device for generating a magnetic field in the vicinity of the guide surface, the electrostatic device and the magnetostatic device being configured to cooperate and guide a flow of the plasma along the guide surface in an aggregate movement which is substantially opposed to a direction of travel (X-X') of the railway vehicle.