mhurhangee/ep-ind-claims huggingface dataset:
Method for recovery of organic and inorganic phosphorus compounds from solid components of organic residues comprising the following steps: - separation of the organic residues into a first solid phase and a first liquid phase, by means of a mechanical separation process; - mixing of the first solid phase with a process water to form a solution; - conversion of the divalent ions contained in the solution into hard to dissolve chemical compounds; - enzymatic conversion of organic phosphorus compounds into inorganic phosphates in the solution; - separation of the solution into a second solid phase and a second liquid phase; - separation of the inorganic phosphates from the second liquid phase; - separation of ammonium salts from the second liquid phase; - separation of divalent ions contained in the first liquid phase in the form of salts - drying of the second solid phase; - mixing and pelletizing of the second solid phase with phosphate salts, ammonium salts and salts of the divalent ions that were recovered in the preceding deposition processes (38, 42, 46) and whereas the process water 20 is obtained from the second liquid phase. - separation of the organic residues into a first solid phase and a first liquid phase, by means of a mechanical separation process; - mixing of the first solid phase with a process water to form a solution; - conversion of the divalent ions contained in the solution into hard to dissolve chemical compounds; - enzymatic conversion of organic phosphorus compounds into inorganic phosphates in the solution; - separation of the solution into a second solid phase and a second liquid phase; - separation of the inorganic phosphates from the second liquid phase; - separation of ammonium salts from the second liquid phase; - separation of divalent ions contained in the first liquid phase in the form of salts - drying of the second solid phase; - mixing and pelletizing of the second solid phase with phosphate salts, ammonium salts and salts of the divalent ions that were recovered in the preceding deposition processes (38, 42, 46) and whereas the process water 20 is obtained from the second liquid phase.
A system comprising a compressor outlet, a sensor port, a sensor coupled to the sensor port, and a sensor supply tube assembly, wherein the compressor outlet includes a tubular body that is formed to define a main flowpath for compressed fluids, wherein the sensor port is transversely coupled to the compressor outlet and includes a tubular port body that is formed to define a sensor port flowpath, wherein the sensor port flowpath is oriented transversely with respect to the main flowpath and is disposed and configured to to direct a portion of fluid from the main flowpath, along the sensor port flowpath and to the sensor, wherein the sensor supply tube assembly is non-rotatably disposed within the compressor outlet and the sensor port, and the sensor supply tube assembly comprises: a first tube formed to direct main flowpath fluid from the compressor outlet and through a portion of the sensor port and comprising first and second ends (161, 162) disposed within the sensor port and within the compressor outlet, respectively, and a curved section interposed between the first and second ends (161, 162); and a second tube comprising a sleeve tightly fitted between the first end and the sensor port and a base having an exterior surface from which the sleeve extends and which is disposed and non-rotatably abuts with an interior surface of the compressor outlet, characterised in that the first tube has an acute J-shaped profile with a first, short leg including the second end facing in a downstream direction of the main flowpath and a second leg including the first end oriented to form an acute angle with the first leg, so as to provide the first tube with the acute J-shaped profile as aforesaid. a first tube formed to direct main flowpath fluid from the compressor outlet and through a portion of the sensor port and comprising first and second ends (161, 162) disposed within the sensor port and within the compressor outlet, respectively, and a curved section interposed between the first and second ends (161, 162); and a second tube comprising a sleeve tightly fitted between the first end and the sensor port and a base having an exterior surface from which the sleeve extends and which is disposed and non-rotatably abuts with an interior surface of the compressor outlet, characterised in that the first tube has an acute J-shaped profile with a first, short leg including the second end facing in a downstream direction of the main flowpath and a second leg including the first end oriented to form an acute angle with the first leg, so as to provide the first tube with the acute J-shaped profile as aforesaid.
A tightening device for a wind turbine configured to fasten and/or tighten a plurality of fastening means to a fastening target object, wherein the fastening means are arranged in a fastening means circle, wherein the tightening device comprises - a center bearing unit for allowing the rotation of the tightening device about a center axis, - a torque unit for applying torque on the fastening means to fasten and/or tighten the fastening means to the fastening target object, - a first arm extending in a radial direction from the center bearing unit and supporting the torque unit, and - a rotational movement unit which generates the rotational movement of the tightening device around the center axis, characterized in that the rotational movement unit comprises a rotating means such as a sphere or a friction wheel arranged at a support, wherein the rotating means rotates on a rotational movement unit rail to accurately control the rotation and position of the tightening device. - a center bearing unit for allowing the rotation of the tightening device about a center axis, - a torque unit for applying torque on the fastening means to fasten and/or tighten the fastening means to the fastening target object, - a first arm extending in a radial direction from the center bearing unit and supporting the torque unit, and - a rotational movement unit which generates the rotational movement of the tightening device around the center axis,
An exhaust gas cleaning apparatus for an internal combustion engine mounted on a vehicle, comprising: an exhaust passage that is connected to the internal combustion engine; a filter that is provided in the exhaust passage and collects particulate matter in exhaust gas; an NO x reducing catalyst provided downstream of the filter in the exhaust passage; a dosing valve that is provided downstream of the filter and upstream of the NO x reducing catalyst in the exhaust passage and injects urea solution into the exhaust passage; and a controller that is adapted to perform a filter regeneration process in which the filter is heated to remove the particulate matter collected in the filter, in response to a request for the filter regeneration process, characterized in that the filter regeneration process includes a first filter regeneration process that is performed during an idle operation of the internal combustion engine and a second filter regeneration process that is performed with the vehicle traveling, and when the first filter regeneration process has been performed for a predetermined number of times without being intervened by the second filter regeneration process, the controller is adapted to suspend the first filter regeneration process even when a request for the filter regeneration process is made. an exhaust passage that is connected to the internal combustion engine; a filter that is provided in the exhaust passage and collects particulate matter in exhaust gas; an NO x reducing catalyst provided downstream of the filter in the exhaust passage; a dosing valve that is provided downstream of the filter and upstream of the NO x reducing catalyst in the exhaust passage and injects urea solution into the exhaust passage; and a controller that is adapted to perform a filter regeneration process in which the filter is heated to remove the particulate matter collected in the filter, in response to a request for the filter regeneration process, characterized in that the filter regeneration process includes a first filter regeneration process that is performed during an idle operation of the internal combustion engine and a second filter regeneration process that is performed with the vehicle traveling, and when the first filter regeneration process has been performed for a predetermined number of times without being intervened by the second filter regeneration process, the controller is adapted to suspend the first filter regeneration process even when a request for the filter regeneration process is made.
A method for gesture-based human-machine interaction, comprising: capturing images from user's video streams; positioning coordinates of three or more predetermined color blocks in the foreground; and simulating movements of a mouse according to the coordinates of the first color block, and simulating click actions of the mouse according to the coordinates of the other color blocks, characterized in that the step of capturing images from user's video streams comprises, capturing user's video stream through a camera, and capturing continuous images from the video stream, or capturing discrete images from the video stream by every predetermined interval, wherein the step of positioning coordinates of three or more predetermined color blocks in the foreground comprises, setting up a background model, for generating a mask picture, and removing the background of the images by the mask picture; obtaining predetermined first color block template, second color block template and third color block template, and generating a histogram corresponding to each color block according to the images; calculating a probability distribution diagram of each color block according to the corresponding histogram; tracing a centroid of each color block in the probability distribution diagram, to determine the coordinates of the three color blocks. capturing images from user's video streams; positioning coordinates of three or more predetermined color blocks in the foreground; and simulating movements of a mouse according to the coordinates of the first color block, and simulating click actions of the mouse according to the coordinates of the other color blocks, characterized in that the step of capturing images from user's video streams comprises, capturing user's video stream through a camera, and capturing continuous images from the video stream, or capturing discrete images from the video stream by every predetermined interval, wherein the step of positioning coordinates of three or more predetermined color blocks in the foreground comprises, setting up a background model, for generating a mask picture, and removing the background of the images by the mask picture; obtaining predetermined first color block template, second color block template and third color block template, and generating a histogram corresponding to each color block according to the images; calculating a probability distribution diagram of each color block according to the corresponding histogram; tracing a centroid of each color block in the probability distribution diagram, to determine the coordinates of the three color blocks.
Paper machine clothing comprising a substrate with an upper side, a lower side, two lateral edges and an usable region between the two lateral edges, wherein the usable region comprises a plurality of through-channels each extending along a central axis through the substrate and connecting the upper side with the lower side, wherein the through-channels are non-cylindrical with a cross sectional area becoming smaller when going in a thickness direction of the substrate from the upper side to a middle region of the substrate between the upper side and the lower side, and wherein an upper rim of at least one of the plurality of through-channels directly contacts an upper rim of at least one other neighboring through-channel of the plurality of through-channels, characterized in that the upper rims of both neighboring through-channels have at least one common local maximum, wherein a sectional plane being parallel to the thickness direction of the substrate, comprising the at least one common local maximum and comprising or intersecting the central axis of at least one of the two neighboring through-channels defines an intersecting line with a sidewall of the at least one of the two neighboring through-channels, and wherein the intersecting line comprises a first portion that is convexly shaped, a second portion that is concavely shaped and a third portion that is again convexly shaped when going in the thickness direction of the substrate from the at least one common local maximum toward the middle region of the substrate. and wherein an upper rim of at least one of the plurality of through-channels directly contacts an upper rim of at least one other neighboring through-channel of the plurality of through-channels, characterized in that the upper rims of both neighboring through-channels have at least one common local maximum, wherein a sectional plane being parallel to the thickness direction of the substrate, comprising the at least one common local maximum and comprising or intersecting the central axis of at least one of the two neighboring through-channels defines an intersecting line with a sidewall of the at least one of the two neighboring through-channels, and wherein the intersecting line comprises a first portion that is convexly shaped, a second portion that is concavely shaped and a third portion that is again convexly shaped when going in the thickness direction of the substrate from the at least one common local maximum toward the middle region of the substrate.
A solid catalyst component for the polymerization of olefins comprising Mg, Ti and an electron donor of formula where independently, Z is selected from C, Si, Ge, O, N, S or P with the proviso that the atoms O, S, and N are not directly linked to either the ester oxygen or the carbamic nitrogen of the formula, the R 2 groups, equal to or different from each other, are hydrogen or a C 1 -C 20 hydrocarbon radicals, optionally containing a heteroatom selected from halogen, P, S, N, O and Si, which can be fused together to form one or more cycles, m is a number satisfying the valences of Z and n is an integer ranging from 1 to 10, R 1 and R 4 are selected from C 1 -C 15 hydrocarbon groups, optionally containing a heteroatom selected from halogen, P, S, N, O; and R 3 group, is hydrogen or R 4 groups.
A method of controlling rotor moments in a rotor moment control system for a rotary wing aircraft configured to analyze rotor moments and reduce rotary wing aircraft transients during a transition from a proportional ground control mode and a model following controls or flight mode, the method comprising: receiving, in a flight control computer, a rotor moment reference value based on pilot inceptor inputs; sensing rotor moment which includes receiving signals from at least one sensor (70, 71, 72) mounted to one of a rotor shaft, a rotor hub arm, and along a span of a rotor blade; receiving, in the FCC, a rotary wing aircraft condition parameter; and establishing, through the FCC, a rotor blade pitch angle for one or more of a plurality of rotor blades that counteracts external forces acting upon the rotary wing aircraft when transitioning from the proportional ground control mode to the model following controls or flight mode. receiving, in a flight control computer, a rotor moment reference value based on pilot inceptor inputs; sensing rotor moment which includes receiving signals from at least one sensor (70, 71, 72) mounted to one of a rotor shaft, a rotor hub arm, and along a span of a rotor blade; receiving, in the FCC, a rotary wing aircraft condition parameter; and establishing, through the FCC, a rotor blade pitch angle for one or more of a plurality of rotor blades that counteracts external forces acting upon the rotary wing aircraft when transitioning from the proportional ground control mode to the model following controls or flight mode.
An optical element comprising a main substrate fabricated from light transmitting material, whereof the front surface and rear surface are parallel to a set direction for reflecting image display light in alternation multiple times, and having at least one main beam splitter surface formed diagonally to said set direction inside said main substrate, the optical element being further characterized in that it comprises a secondary substrate fabricated from light transmitting material, whereof the front surface and rear surface are parallel to said set direction whereby a gap is provided between the front surface and the rear surface, and a secondary beam splitter surface having a transmittance of 20% or greater to 80% or less is arranged between the front surface of the secondary substrate and the rear surface of said main substrate or between the rear surface of the secondary substrate and the front surface of said main substrate, whereby the secondary beam splitter surface is arranged to reflect a predetermined fraction of the luminous flux of the image display light to advance into the main substrate, and to transmit a predetermined fraction of the luminous flux of the image display light to advance into the secondary substrate such that in accordance with said gap an offset occurs between the optical path of the image display light advancing inside the main substrate and the optical path of the image display light advancing inside the secondary substrate across said gap to suppress an occurrence of regions where luminous flux of image display light propagating through the inside of the main substrate is not present. and having at least one main beam splitter surface formed diagonally to said set direction inside said main substrate, the optical element being further characterized in that it comprises a secondary substrate fabricated from light transmitting material, whereof the front surface and rear surface are parallel to said set direction whereby a gap is provided between the front surface and the rear surface, and a secondary beam splitter surface having a transmittance of 20% or greater to 80% or less is arranged between the front surface of the secondary substrate and the rear surface of said main substrate or between the rear surface of the secondary substrate and the front surface of said main substrate, whereby the secondary beam splitter surface is arranged to reflect a predetermined fraction of the luminous flux of the image display light to advance into the main substrate, and to transmit a predetermined fraction of the luminous flux of the image display light to advance into the secondary substrate such that in accordance with said gap an offset occurs between the optical path of the image display light advancing inside the main substrate and the optical path of the image display light advancing inside the secondary substrate across said gap to suppress an occurrence of regions where luminous flux of image display light propagating through the inside of the main substrate is not present.
A user equipment, UE, for reporting information, comprising: an operations unit configured to determine a time division duplex, TDD, uplink-downlink, UL-DL, configuration of each serving cell for TDD carrier aggregation of multiple serving cells with different TDD UL-DL configurations, the operations unit configured to determine a reference UL-DL configuration for each serving cell based on at least the TDD UL-DL configuration of a primary cell, PCell, the operations unit configured to determine a downlink association set of each serving cell based on the reference UL-DL configuration for each serving cell; and a transmitting unit configured to report acknowledgement/negative acknowledgement, ACK/NACK, information based on the downlink association set of each serving cell, wherein the multiple serving cells are the PCell and one or more secondary cells, SCells, upon detection of a physical downlink shared channel, PDSCH, transmission in one or a plurality of downlink subframes, the ACK/NACK information is transmitted in an uplink subframe, and the downlink association set contains one or a plurality of associations such that the one or the plurality of downlink subframes are associated with the uplink subframe. an operations unit configured to determine a time division duplex, TDD, uplink-downlink, UL-DL, configuration of each serving cell for TDD carrier aggregation of multiple serving cells with different TDD UL-DL configurations, the operations unit configured to determine a reference UL-DL configuration for each serving cell based on at least the TDD UL-DL configuration of a primary cell, PCell, the operations unit configured to determine a downlink association set of each serving cell based on the reference UL-DL configuration for each serving cell; and a transmitting unit configured to report acknowledgement/negative acknowledgement, ACK/NACK, information based on the downlink association set of each serving cell, wherein the multiple serving cells are the PCell and one or more secondary cells, SCells, upon detection of a physical downlink shared channel, PDSCH, transmission in one or a plurality of downlink subframes, the ACK/NACK information is transmitted in an uplink subframe, and the downlink association set contains one or a plurality of associations such that the one or the plurality of downlink subframes are associated with the uplink subframe.
A void-containing heat-shrinkable polyester film comprising a structure having three or more layers including at least one polyester resin layer containing voids and at least two layers sandwiching the void-containing layer, wherein the void-containing heat-shrinkable polyester film satisfies the following requirements to: heat shrinkage in a main shrinkage direction is 30% or more and 85% or less when being treated in hot water at a treatment temperature of 90°C for a treatment time of 10 seconds; gloss on both sides of the film measured at an angle of 60 degrees is 40% or more and 150% or less; a thickness difference between both outermost layers of the film is 2 μm or less; thicknesses of both outermost layers of the film are 3 μm or more and 12 μm or less; a density difference between both outermost layers of the film is 0.005 g/cm 3 or less; a difference in the number of moles of an amorphous component between both outermost layers of the film is 1 mol% or less; and light transmittance is 40% or less. heat shrinkage in a main shrinkage direction is 30% or more and 85% or less when being treated in hot water at a treatment temperature of 90°C for a treatment time of 10 seconds; gloss on both sides of the film measured at an angle of 60 degrees is 40% or more and 150% or less; a thickness difference between both outermost layers of the film is 2 μm or less; thicknesses of both outermost layers of the film are 3 μm or more and 12 μm or less; a density difference between both outermost layers of the film is 0.005 g/cm 3 or less; a difference in the number of moles of an amorphous component between both outermost layers of the film is 1 mol% or less; and light transmittance is 40% or less.