mhurhangee/ep-ind-claims huggingface dataset:
A method for encapsulating multi-layer partitioned timed media data in a server, multi-layer partitioned timed media data comprising timed samples, each timed sample being encoded into a first layer and at least one second layer, at least one timed sample comprising at least one spatial subsample, each spatial subsample being encoded into the first layer or the at least one second layer, the method comprising: obtaining at least one spatial subsample from at least one of the timed samples; creating a track comprising the at least one obtained spatial subsample; and generating descriptive metadata associated with the created track, the descriptive metadata being organized into one main descriptive box per track, descriptive information about multi-layers being included into sub-boxes, wherein if the main descriptive box is related to a track resulting from the encapsulation of a spatial subsample being encoded into the at least one second layer, then at least one sub-box of said main descriptive box comprises a type parameter for signalling that the corresponding media data are multi-layer partitioned media data. obtaining at least one spatial subsample from at least one of the timed samples; creating a track comprising the at least one obtained spatial subsample; and generating descriptive metadata associated with the created track, the descriptive metadata being organized into one main descriptive box per track, descriptive information about multi-layers being included into sub-boxes, wherein if the main descriptive box is related to a track resulting from the encapsulation of a spatial subsample being encoded into the at least one second layer, then at least one sub-box of said main descriptive box comprises a type parameter for signalling that the corresponding media data are multi-layer partitioned media data.
A communication system for supporting communication between an end node of a vehicle and a remote correspondent node via a fixed network, the communication system comprising: a plurality of wireless access points of the fixed network, each wireless access point having a directional antenna arrangement for mm wave radio communication using directional beams; a plurality of wireless modems (111, 113, 701, 703) arranged to establish mm wave radio communication links to wireless access points of the plurality of wireless access points, the mm wave radio communication links supporting a data session between the end node and the remote correspondent node, the plurality of wireless modems (111, 113, 701, 703) being located on the vehicle and employing electronically steerable beamforming directional antennas for establishing the mm wave radio communication links; a link management controller located on the vehicle and arranged to perform link management for mm wave radio communication links between the plurality of wireless modems (111, 113, 701, 703) and the plurality of wireless access points; characterized in that a first access point of the plurality of wireless access points is arranged to transmit atmospheric water content data for an area to at least one of the plurality of wireless modems (111, 113, 701, 703); and the link management controller is arranged to perform the link management in response to the atmospheric water content data and to initialize a scanning for access points by at least a first wireless modem of the plurality of wireless modems (111, 113, 701, 703) dependent on the atmospheric water content data. a plurality of wireless access points of the fixed network, each wireless access point having a directional antenna arrangement for mm wave radio communication using directional beams; a plurality of wireless modems (111, 113, 701, 703) arranged to establish mm wave radio communication links to wireless access points of the plurality of wireless access points, the mm wave radio communication links supporting a data session between the end node and the remote correspondent node, the plurality of wireless modems (111, 113, 701, 703) being located on the vehicle and employing electronically steerable beamforming directional antennas for establishing the mm wave radio communication links; a link management controller located on the vehicle and arranged to perform link management for mm wave radio communication links between the plurality of wireless modems (111, 113, 701, 703) and the plurality of wireless access points; characterized in that a first access point of the plurality of wireless access points is arranged to transmit atmospheric water content data for an area to at least one of the plurality of wireless modems (111, 113, 701, 703); and the link management controller is arranged to perform the link management in response to the atmospheric water content data and to initialize a scanning for access points by at least a first wireless modem of the plurality of wireless modems (111, 113, 701, 703) dependent on the atmospheric water content data.
A method for sequencing at least one long microvesicular RNA transcript from a biological sample comprising: (a) contacting the biological sample with a solid capture surface under conditions sufficient to retain extracellular vesicles comprising at least one long microvesicular RNA transcript from the biological sample on or in the capture surface; (b) contacting the capture surface with a lysis reagent while the extracellular vesicles are on or in the capture surface, thereby releasing the long microvesicular RNA transcripts from the capture surface and producing a homogenate; (c) extracting the at least one long microvesicular RNA transcripts from the homogenate; (d) reverse transcribing the extracted at least one long microvesicular RNA transcript into cDNA; (e) constructing a double-stranded DNA library from the reverse-transcribed cDNA; (f) selectively removing ribosomal DNA or RNA sequences from the double-stranded DNA library; (g) selectively enriching for nucleic acid sequences from the double-stranded DNA library; and (h) sequencing the selectively enriched nucleic acid sequences from the double-stranded DNA library, thereby sequencing the at least one long microvesicular RNA transcript. (a) contacting the biological sample with a solid capture surface under conditions sufficient to retain extracellular vesicles comprising at least one long microvesicular RNA transcript from the biological sample on or in the capture surface; (b) contacting the capture surface with a lysis reagent while the extracellular vesicles are on or in the capture surface, thereby releasing the long microvesicular RNA transcripts from the capture surface and producing a homogenate; (c) extracting the at least one long microvesicular RNA transcripts from the homogenate; (d) reverse transcribing the extracted at least one long microvesicular RNA transcript into cDNA; (e) constructing a double-stranded DNA library from the reverse-transcribed cDNA; (f) selectively removing ribosomal DNA or RNA sequences from the double-stranded DNA library; (g) selectively enriching for nucleic acid sequences from the double-stranded DNA library; and (h) sequencing the selectively enriched nucleic acid sequences from the double-stranded DNA library, thereby sequencing the at least one long microvesicular RNA transcript.
A device for waterproof surrounding the areas at the ends of at least two insulated electrical conductors, which are electrically connected to each other at their bared ends, which comprises a cap with an opening within which the conductors which are connected at their ends are positioned in mounting position, and which is closed waterproof in mounting position by a sealing plate which is placed in the opening, which has individual perforations, which are separated from each other for the passing through of insulated electrical conductors, characterized in - that the cap has exactly one opening, - that the perforations are closed by laminas in the initial status and - that within each perforation through which in mounting position an insulated conductor is passed through, the respective lamina, which is pierced by the conductor at its passing through through the perforation, abuts elastically to the insulated conductor. - that the cap has exactly one opening, - that the perforations are closed by laminas in the initial status and - that within each perforation through which in mounting position an insulated conductor is passed through, the respective lamina, which is pierced by the conductor at its passing through through the perforation, abuts elastically to the insulated conductor.
Method for identifying the type of lambda probes having at least two electrodes arranged on and/or in a solid electrolyte, of which electrodes at least one is separated by at least one diffusion barrier from a gas mixture, and of which at least one has a pumping current applied thereto, characterized in that the internal resistance of the lambda probe between the electrodes is determined at at least one predefined operating temperature of the probe, and in that, as at least one further variable characterizing the probe, the internal resistance between a further electrode and one of the two other electrodes is determined at at least one predefined operating temperature of the probe, and conclusions about the type of probe are drawn from the ratio of the internal resistances.
A device for loading and unloading as well as using a machine vice of a machine tool, the device comprising a positioning apparatus mounted so as to be displaceable along a longitudinal direction, a coupling unit moveable in conjunction with the positioning apparatus being disposed on one end of the positioning apparatus in the longitudinal direction for being detachably and mechanically coupled with a machine vice of the machine tool and for being used, in particular for opening and closing the machine vice, and a workpiece handling unit, in particular a multiaxial robot unit, being disposed on the positioning apparatus in the longitudinal direction behind the coupling unit so as to be moveable with the positioning apparatus.
A stator assembly for a stator of a gas turbine engine, comprising: a shroud defining a cavity; a plurality of vanes secured to the shroud, wherein each of the plurality of vanes has a tab portion located in the cavity of the shroud; and a rubber material disposed in the cavity of the shroud, the rubber material securing the tab portion of each of the plurality of vanes to the shroud; characterised in that the stator assembly further comprises a plurality of inserts located within the cavity, each of the plurality of inserts defining a cavity. a shroud defining a cavity; a plurality of vanes secured to the shroud, wherein each of the plurality of vanes has a tab portion located in the cavity of the shroud; and a rubber material disposed in the cavity of the shroud, the rubber material securing the tab portion of each of the plurality of vanes to the shroud; characterised in that the stator assembly further comprises a plurality of inserts located within the cavity, each of the plurality of inserts defining a cavity.
Method for creating stressed channel structure transistors comprising steps consisting of: - forming a mask on a surface layer of a semiconductor-on-insulator type substrate comprising a support layer, an insulating layer separating the support layer from a surface layer, the surface layer being based on a semiconductor material (13, 14) stressed with a biaxial stress, the mask being formed from at least one block of elongated form arranged on a first zone of the surface layer, the first zone having a length (L 1) measured parallel to a first direction and a width measured parallel to a second direction, the first zone being capable of forming a transistor channel structure wherein a current is meant to pass in the first direction, the mask being configured such that one or several openings of elongated form and which extend parallel to the first direction are arranged on either side of the masking block and respectively reveal the second zones of the surface layer arranged on either side of the first zone, - execution of at least one ion implantation of the surface layer through the openings in the mask, so as to render the second zones amorphous and to induce relaxation of the first zone in the second direction, the method furthermore comprising a step consisting of transforming the second zones of the surface layer revealed by the openings of the mask into insulating zones. - forming a mask on a surface layer of a semiconductor-on-insulator type substrate comprising a support layer, an insulating layer separating the support layer from a surface layer, the surface layer being based on a semiconductor material (13, 14) stressed with a biaxial stress, the mask being formed from at least one block of elongated form arranged on a first zone of the surface layer, the first zone having a length (L 1) measured parallel to a first direction and a width measured parallel to a second direction, the first zone being capable of forming a transistor channel structure wherein a current is meant to pass in the first direction, the mask being configured such that one or several openings of elongated form and which extend parallel to the first direction are arranged on either side of the masking block and respectively reveal the second zones of the surface layer arranged on either side of the first zone, - execution of at least one ion implantation of the surface layer through the openings in the mask, so as to render the second zones amorphous and to induce relaxation of the first zone in the second direction,
A method for operating an active noise reduction system for a motor vehicle that has an engine, where there is an active noise reduction system input signal that is related to the vehicle engine operation, and where the active noise reduction system comprises one or more adaptive filters that output noise reduction signals that are used to drive one or more transducers with their outputs directed to reduce engine noise, a computer memory that stores relationships between the transducer voltage level and the resulting engine noise level cancelled as a function of transducer output frequency, and a computer memory that stores relationships between the engine load and the resulting sound pressure level as a function of an engine harmonic noise frequency, the method comprising: estimating the engine harmonic noise level from the input signal that is related to the vehicle engine operation; and limiting the output of the transducers based on the estimate of the engine harmonic noise level. estimating the engine harmonic noise level from the input signal that is related to the vehicle engine operation; and limiting the output of the transducers based on the estimate of the engine harmonic noise level.
X-ray detector having a converter element and a carrier element in a stack arrangement, wherein a. a light source is arranged on the carrier element, b. a light-directing unit is formed outside a projection of a planar extension of the converter element in the stacking direction, characterised in that the light-directing unit is arranged such that a quantity of light emitted by the light source is incident on a surface of the converter element facing away from the carrier element by way of a light path. a. a light source is arranged on the carrier element, b. a light-directing unit is formed outside a projection of a planar extension of the converter element in the stacking direction, characterised in that the light-directing unit is arranged such that a quantity of light emitted by the light source is incident on a surface of the converter element facing away from the carrier element by way of a light path.
A pitch controlled wind turbine comprising a tower, a nacelle mounted on the tower, a hub mounted rotatably on the nacelle, and at least three wind turbine blades, wherein each wind turbine blade extends between a root end connected to the hub, and a tip end, the wind turbine further comprising at least three blade connecting members, each blade connecting member extending between a connection point on one wind turbine blade and a connection point on a neighbouring wind turbine blade, where the connection point on a given wind turbine blade is arranged at a distance from the root end and at a distance from the tip end of the wind turbine blade, wherein the wind turbine blades each comprises an inboard blade part comprising the root end and an outboard blade part comprising the tip end, the inboard blade part and the outboard blade part being connected to each other at a split position, and wherein the split position is arranged between the root end and the connection point, and wherein the connection points of the wind turbine blades are arranged at a distance from the root end which is between 20% and 70% of the length of the wind turbine blades from the root end to the tip end, characterized in that the pitch controlled wind turbine further comprising at least three pre-tension members, each pre-tension member being connected to one of the blade connecting members and to a hub part, each pre-tension member thereby providing pre-tension in the blade connecting member to which it is connected. wherein the wind turbine blades each comprises an inboard blade part comprising the root end and an outboard blade part comprising the tip end, the inboard blade part and the outboard blade part being connected to each other at a split position, and wherein the split position is arranged between the root end and the connection point, and wherein the connection points of the wind turbine blades are arranged at a distance from the root end which is between 20% and 70% of the length of the wind turbine blades from the root end to the tip end, characterized in that the pitch controlled wind turbine further comprising at least three pre-tension members, each pre-tension member being connected to one of the blade connecting members and to a hub part, each pre-tension member thereby providing pre-tension in the blade connecting member to which it is connected.
A fluid ejection device, comprising: a plurality of nozzles; a plurality of ejection chambers (106, 106-n), comprising a respective ejection chamber of the plurality of ejection chambers fluidically coupled to a respective nozzle of the plurality of nozzles; a plurality of inlet passages (110, 110-n) which are fluidically coupled to the ejection chambers and input fluid to the ejection chambers at a first pressure; a plurality of outlet passages which are fluidically coupled to the ejection chambers and to output fluid from the ejection chambers at a second pressure that is less than the first pressure such that fluid circulates through the ejection chambers based on the pressure difference between the first pressure and the second pressure; at least one micropump (108, 108a, 108b) fluidically coupled to ejection chambers to pump fluid through the ejection chambers, the fluid ejection device being characterized by: an input regulator to generate the first pressure in the fluid at the inlet passages (110, 110-n); and an output regulator to generate the second pressure in the fluid at the outlet passages (112, 112-n). a plurality of nozzles; a plurality of ejection chambers (106, 106-n), comprising a respective ejection chamber of the plurality of ejection chambers fluidically coupled to a respective nozzle of the plurality of nozzles; a plurality of inlet passages (110, 110-n) which are fluidically coupled to the ejection chambers and input fluid to the ejection chambers at a first pressure; a plurality of outlet passages which are fluidically coupled to the ejection chambers and to output fluid from the ejection chambers at a second pressure that is less than the first pressure such that fluid circulates through the ejection chambers based on the pressure difference between the first pressure and the second pressure; at least one micropump (108, 108a, 108b) fluidically coupled to ejection chambers to pump fluid through the ejection chambers, the fluid ejection device being characterized by: an input regulator to generate the first pressure in the fluid at the inlet passages (110, 110-n); and an output regulator to generate the second pressure in the fluid at the outlet passages (112, 112-n). an input regulator to generate the first pressure in the fluid at the inlet passages (110, 110-n); and an output regulator to generate the second pressure in the fluid at the outlet passages (112, 112-n).
A method for obtaining a whey permeate feed, characterised in that it comprises the following phases: a) the process starts with the homogeneous milling of the grain or grains used to obtain this feed, with a particle size that preferably does not exceed 1.5 mm; b) the grain flour is introduced into a first endless worm, a conditioner, onto which saturated steam is injected in order to form a prepared pre-mixture at a temperature that ranges between 60 °C and 85 °C; c) the prepared pre-mixture is introduced into a second endless worm homogeniser, onto which a first percentage of the liquid whey permeate, which ranges between 20% and 40%, at a temperature between 57 °C and 62 °C, is added, this being the phase in which the flour is mixed with the liquid whey permeate at the temperature indicated; d) the mixture of grain flour, steam and a part of the whey permeate is introduced into the extruder, through which it travels at high speed, and where the remaining amount of the whey permeate used in the process is added in this part of the process, also at a temperature between 57°C and 62°C, at the same time that heat is applied to the mixture until it reaches a temperature between 95-150°C and internal pressures of 25-40 bars. e) the resulting product, which passes through holes drilled in a metal matrix of the extruder, are cut by a series of blades that give the final product its sliced or biscuit shape. a) the process starts with the homogeneous milling of the grain or grains used to obtain this feed, with a particle size that preferably does not exceed 1.5 mm; b) the grain flour is introduced into a first endless worm, a conditioner, onto which saturated steam is injected in order to form a prepared pre-mixture at a temperature that ranges between 60 °C and 85 °C; c) the prepared pre-mixture is introduced into a second endless worm homogeniser, onto which a first percentage of the liquid whey permeate, which ranges between 20% and 40%, at a temperature between 57 °C and 62 °C, is added, this being the phase in which the flour is mixed with the liquid whey permeate at the temperature indicated; d) the mixture of grain flour, steam and a part of the whey permeate is introduced into the extruder, through which it travels at high speed, and where the remaining amount of the whey permeate used in the process is added in this part of the process, also at a temperature between 57°C and 62°C, at the same time that heat is applied to the mixture until it reaches a temperature between 95-150°C and internal pressures of 25-40 bars. e) the resulting product, which passes through holes drilled in a metal matrix of the extruder, are cut by a series of blades that give the final product its sliced or biscuit shape.