mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a mobility node configured to track a mobility of a plurality of mobile entities in at least a section of a cellular network, in which a pool of mobility nodes serve a common section of the cellular network, wherein for each of the mobile entities a unique identifier is used in the cellular network to uniquely identify the corresponding mobile entity and a temporary identifier is used to identify the corresponding mobile entity in the at least one section of the cellular network, the method comprising for one of the mobility nodes of the pool: - receiving a message for one of the mobile entities in which the mobile entity is identified by an unknown temporary identifier, - determining where a storage unit storing information allowing a unique identifier to be determined based on a temporary identifier is located, wherein it is determined where the storage unit is located using a function, which, when applied to the unknown temporary identifier, determines at which of the mobility nodes of the pool the storage unit is located, - transmitting an identification request (S7, S42, S55) to the determined storage unit the identification request requesting the unique identifier for said one mobile entity to be identified based on the unknown temporary identifier, - receiving a response (S8, S43, S56) to the transmitted identification request, the response comprising information allowing the unique identifier related to the received unknown temporary identifier to be determined, - transmitting a reaction message reacting to the received message taking into account the unique identifier related to the unknown temporary identifier. - receiving a message for one of the mobile entities in which the mobile entity is identified by an unknown temporary identifier, - determining where a storage unit storing information allowing a unique identifier to be determined based on a temporary identifier is located, wherein it is determined where the storage unit is located using a function, which, when applied to the unknown temporary identifier, determines at which of the mobility nodes of the pool the storage unit is located, - transmitting an identification request (S7, S42, S55) to the determined storage unit the identification request requesting the unique identifier for said one mobile entity to be identified based on the unknown temporary identifier, - receiving a response (S8, S43, S56) to the transmitted identification request, the response comprising information allowing the unique identifier related to the received unknown temporary identifier to be determined, - transmitting a reaction message reacting to the received message taking into account the unique identifier related to the unknown temporary identifier.
Lattice structure for a tower of a wind power installation, comprising - at least three corner posts which are mutually inclined at an angle in relation to the vertical of the lattice structure, wherein the corner posts in the lower part of the lattice structure are further spaced apart from one another than in the upper part of the lattice structure, wherein each corner post is assembled from a plurality of longitudinal struts, - at least one cross strut which is disposed in a horizontal plane (E1, E2) of the lattice structure between two corner posts and is connected to the latter, and/or - at least one diagonal strut which is disposed between two horizontal planes (E1, E2) of the lattice structure between two corner posts and is connected to the latter, - at least three node elements which are disposed in at least one horizontal plane (E1, E2) of the lattice structure, in each case between the longitudinal struts forming the corner posts, and in each case function as a connecting element between two longitudinal struts, the at least one cross strut, and/or at least one diagonal strut, characterized in that the node element in the longitudinal extent on the ends thereof has in each case one flange (4, 5) with passage openings (4.1, 5.1), and the two longitudinal struts which at the ends thereof are to be connected to the node element have in each case one flange (20.1) with passage openings, wherein joining element by way of which the node element is mechanically connected to the longitudinal struts are received by way of or in the passage openings (4.1, 5.1), wherein the node element is manufactured from a plurality of parts (1, 2, 3), wherein one part is integrally manufactured in the form of a shell part and comprises at least one attachment element (1.1, 1.2, 1.3) which runs radially outwards, wherein the shell part comprises two longitudinal edges (1.4) by way of which at least one further part in the form of a shell part having two longitudinal edges (2.1) is connected in a materially integral manner, wherein the two shell parts (1, 2) in the connected state form a hollow section. - at least three corner posts which are mutually inclined at an angle in relation to the vertical of the lattice structure, wherein the corner posts in the lower part of the lattice structure are further spaced apart from one another than in the upper part of the lattice structure, wherein each corner post is assembled from a plurality of longitudinal struts, - at least one cross strut which is disposed in a horizontal plane (E1, E2) of the lattice structure between two corner posts and is connected to the latter, and/or - at least one diagonal strut which is disposed between two horizontal planes (E1, E2) of the lattice structure between two corner posts and is connected to the latter, - at least three node elements which are disposed in at least one horizontal plane (E1, E2) of the lattice structure, in each case between the longitudinal struts forming the corner posts, and in each case function as a connecting element between two longitudinal struts, the at least one cross strut, and/or at least one diagonal strut,
Lidar scanning device for use in a motor vehicle, wherein the lidar scanning device comprises the following: - a lidar sensor with a predetermined scanning field; - wherein the lidar sensor is configured for determining the distance of an object within the scanning field; - a pivoting device for changing an orientation of the scanning field of the lidar sensor depending on a driving situation of the motor vehicle, - wherein the scanning field is changed about a transverse axis of the motor vehicle and the scanning field is changed in the direction of the ground at a low driving speed and in the direction of the horizon at a high driving speed, - wherein the orientation of the lidar sensor extends in the direction of travel of the motor vehicle. - a lidar sensor with a predetermined scanning field; - wherein the lidar sensor is configured for determining the distance of an object within the scanning field; - a pivoting device for changing an orientation of the scanning field of the lidar sensor depending on a driving situation of the motor vehicle, - wherein the scanning field is changed about a transverse axis of the motor vehicle and the scanning field is changed in the direction of the ground at a low driving speed and in the direction of the horizon at a high driving speed, - wherein the orientation of the lidar sensor extends in the direction of travel of the motor vehicle.
A motor vehicle comprising an internal combustion engine provided with a liquid cooling system with a primary radiator mounted in front of the engine, and a hydrogen generator accommodated in a trunk and operating on the basis of interaction between aluminum composites and water, wherein the motor vehicle comprises a closed system for regenerating water vapors in exhaust gases to autonomously supply the hydrogen generator with water by cooling the water vapors at the adiabatic expansion process to a temperature corresponding to the partial pressure of water vapor saturation, and then condensing the water vapors in exhaust gases as a result of heat removal, said system being connected to an exhaust manifold of the engine and consisting of an expander, a condenser in the form of a gas/air heat exchanger and a storage tank for collecting water condensate and discharging uncondensed gases; the storage tank being connected by means of conduits to the hydrogen generator; wherein the supply of water to the latter and circulation of water in order to intensify the hydrogen release process is performed by a pump mounted inside the storage tank, and drainage of water from the generator into the storage tank is performed though a filter mounted in the housing of the generator; wherein the hydrogen generator comprises individual quick change reactors made in the form of replaceable cartridges consisting of a cylindrical housing and a cover, with hydrogen-generating elements mounted inside the housing and made in the form of plates of aluminum composites, wherein the upper part of the housing has water supply holes under the cover, and the lower part of the housing comprises a mesh filter to collect reaction products for subsequent processing thereof, and has holes for draining water from the reactor, and the cover per se comprises hydrogen extraction holes, which are connected through conduits to a hydrogen supply manifold to supply hydrogen to the engine.
A cleaning section of an agricultural harvester, the cleaning section comprising: a sieve positioned in the harvester to receive crop material from a threshing section; a plurality of pressure sensors (76, 78 or 80, 82) coupled to said sieve, said pressure sensors (76, 78 or 80, 82) being configured to produce signals representative of a distributed load of the crop material on said sieve; and a sieve slope compensating system including a controller communicatively coupled to said pressure sensors (76, 78 or 80, 82) to cause said sieve slope compensating system to tilt and/or side shake said sieve dependent upon said signals; characterised in that said plurality of pressure sensors (76, 78 or 80, 82) includes a first pressure sensor, a second pressure sensor, a third pressure sensor and a fourth pressure sensor being respectively positioned proximate to each of four corners of said sieve, the first and second pressure sensors (76, 78) positioned closer to the end of the sieve where the crop material first contacts the sieve than the third and fourth sensors (80, 82); and wherein said controller is configured to give preference to the signals coming from the first and second pressure sensors (76, 78), with the signals from the third and fourth pressure sensors (80, 82) being used to evaluate the effectiveness of actions taken by the sieve slope compensating system. a sieve positioned in the harvester to receive crop material from a threshing section; a plurality of pressure sensors (76, 78 or 80, 82) coupled to said sieve, said pressure sensors (76, 78 or 80, 82) being configured to produce signals representative of a distributed load of the crop material on said sieve; and
A method for manufacturing a sulfoaluminous or belitic sulfoaluminous clinker from a raw mix formed by a mixture comprising Ca CO 3, Al 2 O 3, and/or Al 3, CaSO 4, SiO 2 Fe 2 O 3, all these compounds being present in anhydrous or hydrated form, individually or in combination, characterized in that it comprises the steps consisting in: - at least partially dehydrating and decarbonating the mixture through placement in a vertical kiln comprising a substantially vertical chamber wherein the mixture is heated, the chamber of the vertical kiln being supplied with hot gases the temperature of which is between 900 and 1150°C; - extracting the dehydrated and decarbonated mixture from the vertical kiln and conveying the mixture in a continuous kiln comprising a furnace and transporting means for transporting the mixture across the furnace; - heating the mixture from the vertical kiln at a temperature between 1000 and 1400°C by passing the mixture through the furnace via the transporting means such that a clinkerization of the mixture is obtained, the average passing time in the furnace being between 15 and 40 minutes. - at least partially dehydrating and decarbonating the mixture through placement in a vertical kiln comprising a substantially vertical chamber wherein the mixture is heated, the chamber of the vertical kiln being supplied with hot gases the temperature of which is between 900 and 1150°C; - extracting the dehydrated and decarbonated mixture from the vertical kiln and conveying the mixture in a continuous kiln comprising a furnace and transporting means for transporting the mixture across the furnace; - heating the mixture from the vertical kiln at a temperature between 1000 and 1400°C by passing the mixture through the furnace via the transporting means such that a clinkerization of the mixture is obtained, the average passing time in the furnace being between 15 and 40 minutes.
A combustor section of a gas turbine engine, comprising: a combustor; a diffuser case disposed about the combustor; a heat shield having an annular shape and a groove formed circumferentially along an inner surface of the heat shield; and a support lock having a tab extending radially outward from a distal surface of the support lock, wherein the groove in the heat shield is configured to retain the tab of the support lock; characterised in that the heat shield is configured to couple to the diffuser case and is disposed between the combustor and the diffuser case. a combustor; a diffuser case disposed about the combustor; a heat shield having an annular shape and a groove formed circumferentially along an inner surface of the heat shield; and a support lock having a tab extending radially outward from a distal surface of the support lock, wherein the groove in the heat shield is configured to retain the tab of the support lock; characterised in that the heat shield is configured to couple to the diffuser case and is disposed between the combustor and the diffuser case.
Method for controlling a converter having at least two phase modules which have a first and a second valve arm (T1,..., T6), which each have at least three two-pole subsystems, which are connected in series, in the event of failure of at least one subsystem of a valve arm (T1,..., T6), wherein the phase modules each form a bridge arm of the converter, wherein the first valve arm (T1, T3, T5) and the second valve arm (T2, T4, T6) are in each case arranged in a series circuit, wherein, on the DC voltage side, the phase modules are electrically conductively connected to a positive and a negative DC voltage busbar, wherein the two-pole subsystems have a storage capacitor and exactly two semiconductor switches (1, 3) which can be turned off, wherein a junction point between the first and second valve arms (T1, T3, T5,; T2, T4, T6) of the respective phase module forms a connection (L1, L2, L3) on the AC voltage side of the phase module 100, wherein the valve arm (T1,..., T6) with the faulty subsystem is determined, and wherein one subsystem of a valve arm (T1,..., T6) which corresponds to the faulty valve arm (T1,..., T6) in each sound phase module is in each case controlled such that its terminal voltages (U X21) are in each case zero, characterized in that one subsystem of a valve arm (T1,..., T6) which corresponds to the faulty valve arm (T1,..., T6) in the faulty phase module is controlled such that its output voltage (U X21) is equal to zero, and such that one subsystem of a valve arm (T1,..., T6) which corresponds to this valve arm (T1,..., T6) in each sound phase module is in each case controlled such that its terminal voltages (U X21) are equal to zero.
A modulating burner system comprises: a) a thermostat, a blower, a burner, b) a speed control responsive to inputs received from the thermostat, the speed control modulating the blower which provides combustion air and a vacuum proportional to the speed of the blower; c) a gas amplifying valve in communication with the vacuum via a vacuum conduit, the gas amplifying valve providing modulated combustion gas responsive to the vacuum; d) wherein modulated combustion air and combustion gas communicated to the burner for continuously variable firing rates proportional to the blower speed, characterized in that, the vacuum conduit in communication with a first damper for smoothing out vacuum spikes and fluctuations in a dampered vacuum portion of the vacuum conduit, which terminates at a first port of the amplifying valve, wherein the first damper including a diaphragm for smoothing out vacuum spikes and fluctuations. a) a thermostat, a blower, a burner, b) a speed control responsive to inputs received from the thermostat, the speed control modulating the blower which provides combustion air and a vacuum proportional to the speed of the blower; c) a gas amplifying valve in communication with the vacuum via a vacuum conduit, the gas amplifying valve providing modulated combustion gas responsive to the vacuum; d) wherein modulated combustion air and combustion gas communicated to the burner for continuously variable firing rates proportional to the blower speed,
A method for recording photometric data in a study site, comprising: - during displacement in the site of a data-recording system comprising at least one illuminance sensor and a geopositioning system, the acquisition of illuminance and position data by means of said data-recording system, and processing of measured data to produce information on the illuminance in the study site, the method being characterized in that the illuminance data and the position data are acquired, during the displacement in the site, at frequencies equal to respective sampling frequencies of the illuminance sensor and of the geopositioning system, and in that the data processing comprises - interpolation of the data acquired at the lowest sampling frequency among these sampling frequencies to obtain data interpolated at the highest sampling frequency among the sampling frequencies, and - matching of the data acquired by the illuminance sensor and of the data acquired by the geopositioning system to produce a cartography of the illuminance of the site, wherein processing further comprises, prior to interpolation: - an analysis step of the position data for detecting stop phases of the displacement of the data-recording system during acquisition of the measurements, and deleting the position and illuminance data corresponding to the stop phases, and - a detection step of aberrant points by analysis, from the position data, of the transversal speed of the system relative to its speed in its direction of progression during its displacement. - during displacement in the site of a data-recording system comprising at least one illuminance sensor and a geopositioning system, the acquisition of illuminance and position data by means of said data-recording system, and - interpolation of the data acquired at the lowest sampling frequency among these sampling frequencies to obtain data interpolated at the highest sampling frequency among the sampling frequencies, and - matching of the data acquired by the illuminance sensor and of the data acquired by the geopositioning system to produce a cartography of the illuminance of the site, - an analysis step of the position data for detecting stop phases of the displacement of the data-recording system during acquisition of the measurements, and deleting the position and illuminance data corresponding to the stop phases, and - a detection step of aberrant points by analysis, from the position data, of the transversal speed of the system relative to its speed in its direction of progression during its displacement.
A method for localising a cause of anomalous water flow in a water distribution network, comprising: installing a temperature logging apparatus at an upstream end (304, 802, 876) and a downstream end (306, 854, 878) of at least one section of water main (302, 604, 704, 806, 860) of the water distribution network; and determining, with the temperature logging apparatus, the temperature of the ground surrounding the water main at the upstream end and the downstream end of each section of water main and storing ground temperature data for each section of water main; characterised by directly or indirectly measuring, with the temperature logging apparatus the temperature of water in the section of water main at the upstream end and the downstream end of each section of water main and storing measured water temperature data for each section of water main; and processing the measured water temperature data and the determined ground temperature data to determine whether each section of water main includes a cause of anomalous water flow. installing a temperature logging apparatus at an upstream end (304, 802, 876) and a downstream end (306, 854, 878) of at least one section of water main (302, 604, 704, 806, 860) of the water distribution network; and determining, with the temperature logging apparatus, the temperature of the ground surrounding the water main at the upstream end and the downstream end of each section of water main and storing ground temperature data for each section of water main; directly or indirectly measuring, with the temperature logging apparatus the temperature of water in the section of water main at the upstream end and the downstream end of each section of water main and storing measured water temperature data for each section of water main; and processing the measured water temperature data and the determined ground temperature data to determine whether each section of water main includes a cause of anomalous water flow.
Method for estimating a colored vignetting defect of an image-capturing system, said defect producing, for any at least one first image captured by the image-capturing system and representing any scene, a variation within the colorimetry field of the first image, the mean variation of amplitude in the colorimetry field of the first image produced by the colored vignetting defect being an order of magnitude lower than a mean variation within the colorimetry field introduced by the scene, the method comprising: - calculating, in at least certain points of the field, in at least a first portion of the field of the first image, a measurement μ(l) relative to the colorimetry of the first image for which the defect produces a variation in the field of the image; - obtaining, in at least a second portion of the field of the first image, an estimated magnitude (v) of the colored vignetting defect, based on the calculated measurements (μ(l)), the magnitude (v) having a variation of the same order of magnitude as the variation within the colorimetry field of the first image produced by the colored vignetting defect; and - determining, from the obtained magnitude (v), at least one correction parameter (c) of said defect for at least one second image (I') captured by the image-capturing system with a lighting condition which is identical or similar to that of the first image, the second image being different from the first image. - calculating, in at least certain points of the field, in at least a first portion of the field of the first image, a measurement μ(l) relative to the colorimetry of the first image for which the defect produces a variation in the field of the image; - obtaining, in at least a second portion of the field of the first image, an estimated magnitude (v) of the colored vignetting defect, based on the calculated measurements (μ(l)), the magnitude (v) having a variation of the same order of magnitude as the variation within the colorimetry field of the first image produced by the colored vignetting defect; and - determining, from the obtained magnitude (v), at least one correction parameter (c) of said defect for at least one second image (I') captured by the image-capturing system with a lighting condition which is identical or similar to that of the first image, the second image being different from the first image.