mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a supercritical closed loop thermodynamic power generation cycle system, the method comprising: delivering an exhaust stream from a high-pressure expander; splitting the exhaust stream from the high-pressure expander to a first exhaust stream and a second exhaust stream; directing the first exhaust stream to a first low-pressure expander, wherein the first low-pressure expander is coupled to a pressurization device through a turbocompressor shaft; directing the second exhaust stream to a second low-pressure expander, wherein the second low-pressure expander is coupled to the high-pressure expander and an electrical generator through a turbogenerator shaft; and delivering a pressurized fluid stream above a critical point of the fluid from the pressurization device and providing the pressurized fluid stream to the high-pressure expander, further comprising heating the exhaust stream before splitting the exhaust stream to the first exhaust stream and the second exhaust stream and heating the pressurized fluid stream with one or more heat exchangers and a heat source before supplying the pressurized fluid stream to the high-pressure expander, wherein splitting the exhaust stream from the high pressure expander comprises controling a flow ratio of the first exhaust stream to the second exhaust stream. delivering an exhaust stream from a high-pressure expander; splitting the exhaust stream from the high-pressure expander to a first exhaust stream and a second exhaust stream; directing the first exhaust stream to a first low-pressure expander, wherein the first low-pressure expander is coupled to a pressurization device through a turbocompressor shaft; directing the second exhaust stream to a second low-pressure expander, wherein the second low-pressure expander is coupled to the high-pressure expander and an electrical generator through a turbogenerator shaft; and delivering a pressurized fluid stream above a critical point of the fluid from the pressurization device and providing the pressurized fluid stream to the high-pressure expander, further comprising heating the exhaust stream before splitting the exhaust stream to the first exhaust stream and the second exhaust stream and heating the pressurized fluid stream with one or more heat exchangers and a heat source before supplying the pressurized fluid stream to the high-pressure expander, wherein splitting the exhaust stream from the high pressure expander comprises controling a flow ratio of the first exhaust stream to the second exhaust stream.
A process to significantly decrease the leaching times of primary and secondary crushed copper minerals with a particle size between 80% under 12 mm to 80% under 3 mm wherein it is used to leach copper sulphurated minerals having a primary and/or secondary copper mineralization as chalcopyrite, bornite and covellite, wherein the process comprises: a first agglomeration process in which the agglomeration solution is a combination of sea water, saline or another type of water, calcium chloride, sulphuric acid, with recirculated solution obtained from the resulting solution from leaching and washing; a second curing process in the pit after the prior agglomeration process in which the mix of sea water, saline or another type of water, calcium chloride, sulphuric acid and recirculated solution obtained from the resulting solution from leaching and washing is fed at temperatures higher than 30°C and lower than 60°C; a third leaching process in the pit containing recirculated solution after the prior curing process in which the recirculated solution for irrigation of the stack gets in at a temperature higher than 30°C and lower than 60°C; a fourth washing process with refinement solution after the prior leaching process in the pit, wherein the refinement solution for irrigation of the previously treated pit with recirculated solution and previously heated at temperatures higher than 30°C, after going through the solvent extraction process also enters the stack as refinement solution at a temperature higher than 30°C and lower than 60°C. a first agglomeration process in which the agglomeration solution is a combination of sea water, saline or another type of water, calcium chloride, sulphuric acid, with recirculated solution obtained from the resulting solution from leaching and washing; a second curing process in the pit after the prior agglomeration process in which the mix of sea water, saline or another type of water, calcium chloride, sulphuric acid and recirculated solution obtained from the resulting solution from leaching and washing is fed at temperatures higher than 30°C and lower than 60°C; a third leaching process in the pit containing recirculated solution after the prior curing process in which the recirculated solution for irrigation of the stack gets in at a temperature higher than 30°C and lower than 60°C; a fourth washing process with refinement solution after the prior leaching process in the pit, wherein the refinement solution for irrigation of the previously treated pit with recirculated solution and previously heated at temperatures higher than 30°C, after going through the solvent extraction process also enters the stack as refinement solution at a temperature higher than 30°C and lower than 60°C.
A computer-implemented method comprising: obtaining, by a computing system, a set of video frames of a given length at a first I resolution, wherein the length corresponds to a number of frames and the resolution corresponds to a width and height of each frame in pixels; processing, by the computing system, the set of video frames of the given length using a convolutional neural network to output one or more signals corresponding to the set of video frames, the convolutional neural network including (i) a set of two-dimensional convolutional layers, (ii) a set of three-dimensional convolutional layers, and (iii) a set of three-dimensional de-convolutional layers, wherein the three-dimensional convolutional layers reduce the set of video frames to a second resolution, and wherein the three-dimensional de-convolutional layers (422, 428, 434) upsample the set of video frames to the length and resolution of the video content provided to the convolutional neural network, and wherein the signals outputted from the two-dimensional convolutional layers are inputted to said three-dimensional convolutional layers, and the signals outputted by the three-dimensional convolutional layers are inputted to said three-dimensional deconvolutional layers; and obtaining, by the computing system, the one or more outputted signals corresponding to the set of video frames of the given length from the convolutional neural network, the outputted signals providing information corresponding to one or more voxels in the set of video frames, wherein each voxel is a pixel at a specific time. obtaining, by a computing system, a set of video frames of a given length at a first I resolution, wherein the length corresponds to a number of frames and the resolution corresponds to a width and height of each frame in pixels; processing, by the computing system, the set of video frames of the given length using a convolutional neural network to output one or more signals corresponding to the set of video frames, the convolutional neural network including (i) a set of two-dimensional convolutional layers, (ii) a set of three-dimensional convolutional layers, and (iii) a set of three-dimensional de-convolutional layers, wherein the three-dimensional convolutional layers reduce the set of video frames to a second resolution, and wherein the three-dimensional de-convolutional layers (422, 428, 434) upsample the set of video frames to the length and resolution of the video content provided to the convolutional neural network, and wherein the signals outputted from the two-dimensional convolutional layers are inputted to said three-dimensional convolutional layers, and the signals outputted by the three-dimensional convolutional layers are inputted to said three-dimensional deconvolutional layers; and obtaining, by the computing system, the one or more outputted signals corresponding to the set of video frames of the given length from the convolutional neural network, the outputted signals providing information corresponding to one or more voxels in the set of video frames, wherein each voxel is a pixel at a specific time.
A device, comprising: a network port to connect to a network; a first controller configured to send and receive a first communication across the network using the network port; a first storage for a controller record for the first controller, the controller record including at least a first congestion score, a first congestion timestamp, and an uncongested timestamp; a second storage for a device-wide record, the device-wide record including at least a second congestion score and a second congestion timestamp for the first controller and a third congestion score and a third congestion timestamp for a second controller, the device-wide record based at least in part on the controller record; and a throttle to limit a second communication of a second controller based at least in part on the device-wide record. a network port to connect to a network; a first controller configured to send and receive a first communication across the network using the network port; a first storage for a controller record for the first controller, the controller record including at least a first congestion score, a first congestion timestamp, and an uncongested timestamp; a second storage for a device-wide record, the device-wide record including at least a second congestion score and a second congestion timestamp for the first controller and a third congestion score and a third congestion timestamp for a second controller, the device-wide record based at least in part on the controller record; and a throttle to limit a second communication of a second controller based at least in part on the device-wide record.
A method (200; 700) of selecting a set of radio resources of a cellular telecommunications network for radio resource aggregation in a communication between the telecommunications network and a User Equipment, UE, the method comprising the following steps performed by the UE: monitoring (202; 110) a time offset relative to a primary radio resource for each of at least two secondary radio resources, the primary radio resource and the at least two secondary radio resources being provided by the telecommunications network for radio resource aggregation; and if a spread of the monitored time offsets exceeds a threshold, selecting (204; 150; 190) out of the at least two secondary radio resources a set of radio resources so that the time offsets monitored for the selected secondary radio resources fall within a time window (612; 614) having a width equal to or less than the threshold. monitoring (202; 110) a time offset relative to a primary radio resource for each of at least two secondary radio resources, the primary radio resource and the at least two secondary radio resources being provided by the telecommunications network for radio resource aggregation; and if a spread of the monitored time offsets exceeds a threshold, selecting (204; 150; 190) out of the at least two secondary radio resources a set of radio resources so that the time offsets monitored for the selected secondary radio resources fall within a time window (612; 614) having a width equal to or less than the threshold.
An instrument shielding device for shielding an instrument, the instrument shielding device (54,92,245,303) comprising an elongated shielding sleeve (55,95,317) extending between a first end (56,96,318) and a second end (57,97,319) and defining an elongated instrument accommodating lumen (59,101,320) extending therethrough from the first end (56,96,318) to the second end (57,97,319) for accommodating the instrument therein, and a sleeve storing housing (60,93,315) defining a storage chamber (61,94,328) for storing the shielding sleeve in a stored state, one of the first and second ends of the shielding sleeve being sealably secured to the sleeve storing housing, a first coupling element (52,98) adapted to couple the first end (56,96,318) of the shielding sleeve to one of a face mask and a trocar, and a second coupling element (62,118) adapted to couple the second end of the shielding sleeve to the instrument, characterised in that the sleeve storing housing comprises a tubular member (75,109,334) extending through the storage chamber, and defining with the sleeve storing housing the storage chamber (61,94,328) of annular shape extending around the tubular member (75,109,334) for accommodating the shielding sleeve in the stored state with the tubular member extending into the instrument accommodating lumen (59,101,320) of the shielding sleeve, and the tubular member (75,109,334) defining an instrument accommodating bore (76,110,335) extending through the sleeve storing housing (60,93,315) for accommodating the instrument therethrough.
A microporous crystalline AlPO-78 material that has an empirical composition in an as-synthesized form and on an anhydrous basis expressed by an empirical formula: R + r M m 2+ EP x Si y O z where M is at least one framework divalent cation and is selected from the group consisting of alkaline earth and transition metals, wherein M is a cation selected from the group consisting of beryllium, magnesium, cobalt, manganese, zinc, iron, nickel and mixtures thereof, R is an organoammonium cation prepared from a reaction of an aqueous mixture of a cyclic secondary amine and an organic dihalide, wherein the cyclic secondary amine is piperidine, and wherein the organic dihalide is 1,4-dibromobutane, "r" is the mole ratio of R to E and varies from 0.1 to 2.0, "m" is the mole ratio of M to E and varies from 0 to 1.0, "x" is a mole ratio of P to E and varies from 0.5 to 2.0, a ratio of silicon to E is represented by "y" which varies from 0 to 1.0, E is a trivalent element which is tetrahedrally coordinated, is present in the framework, and is aluminum, and "z" is a mole ratio of O to E and is given by an equation: z = 2 • m + r + 3 + 5 • x + 4 • y / 2 and is characterized by a following x-ray diffraction pattern, having at least the d-spacings and relative intensities set forth in Table 1: TABLE 1 2-Theta d(Å) Intensity 7.88-7.98 11.21-11.07 m-s 8.15-8.50 10.84-10.39 m-s 8.82-9.05 10.01-9.76 s 9.67-9.96 9.14-8.87 s-vs 10.58-10.81 8.35-8.17 m 10.92-11.71 8.09-7.55 m-s 13.21-13.67 6.69-6.47 s 14.10-14.54 6.27-6.08 s-vs 15.48-16.02 5.72-5.53 m 16.05-16.24 5.52-5.45 s 16.44-16.81 5.39-5.28 m 16.87-17.01 5.25-5.21 m-s 17.19-17.43 5.15-5.08 s 17.78-18.46 4.98-4.80 s-vs 18.73-19.22 4.73-4.61 vw-w 19.48-19.86 4.55-4.47 w-m 20.47-20.96 4.33-4.23 s 21.00-21.45 4.23-4.14 m-s 21.52-21.73 4.12-4.08 m-s 21.88-22.10 4.06-4.02 s 22.15-22.42 4.01-3.96 m-s 22.52-22.95 3.94-3.87 w-m 23.14-23.52 3.84-3.78 w-m 23.58-23.71 3.77-3.75 s 23.75-24.01 3.74-3.70 w-m 24.75-24.93 3.59-3.57 w-m 25.01-25.47 3.56-3.49 vs 26.15-26.31 3.40-3.38 w-m 26.37-26.54 3.38-3.35 m 26.78-27.02 3.33-3.30 w-m 27.11-27.40 3.29-3.25 m 28.39-28.86 3.14-3.09 w-m 29.22-29.65 3.05-3.01 m 30.60-30.95 2.92-2.89 w-m 31.62-31.93 2.83-2.80 w-m 31.97-32.28 2.80-2.77 w-s 32.44-32.89 2.76-2.72 w-m 33.19-33.40 2.70-2.68 vw-w 33.51-33.82 2.67-2.65 w-m 34.72-35.08 2.58-2.55 vw-w
A portable electronic device comprising: a front cover that forms a front face of the electronic device; a rear cover that forms a rear face of the electronic device; a bezel (220; 310) that surrounds a space formed by the front cover and the rear cover; a display device that is embedded in the space and includes a screen region that is exposed through the front cover; a printed circuit board, PCB, within the space; a metal structure that is positioned within the space, and includes a first face facing the front cover and a second face facing the rear cover; a non-metal structure that is positioned within the space to partially overlap with the metal structure, and includes a first surface facing the front cover and a second surface facing the rear cover; and a metal filler extending from the first surface to the second surface of the non-metal structure through a portion of the non-metal structure, wherein the metal filler is formed of a metallic material that is equal to that of the metal structure, and includes a first end portion adjacent to the first surface and a second end portion adjacent to the second surface, at least one of the first end portion and the second end portion is aligned to be coplanar with a portion of the first surface and a portion of the second surface, respectively; the non-metal structure is adapted to electrically insulate the metal structure from the PCB. a front cover that forms a front face of the electronic device; a rear cover that forms a rear face of the electronic device; a bezel (220; 310) that surrounds a space formed by the front cover and the rear cover; a display device that is embedded in the space and includes a screen region that is exposed through the front cover; a printed circuit board, PCB, within the space; a metal structure that is positioned within the space, and includes a first face facing the front cover and a second face facing the rear cover; a non-metal structure that is positioned within the space to partially overlap with the metal structure, and includes a first surface facing the front cover and a second surface facing the rear cover; and a metal filler extending from the first surface to the second surface of the non-metal structure through a portion of the non-metal structure, wherein the metal filler is formed of a metallic material that is equal to that of the metal structure, and includes a first end portion adjacent to the first surface and a second end portion adjacent to the second surface, at least one of the first end portion and the second end portion is aligned to be coplanar with a portion of the first surface and a portion of the second surface, respectively; the non-metal structure is adapted to electrically insulate the metal structure from the PCB.
An electron cyclotron resonance ion generator device (1, 100, 200, 300) including: - a vacuum sealed chamber (2, 102) for containing a plasma, said chamber (2, 102) being of axial symmetry along a longitudinal axis (AA'), - means (3, 4, 5, 6, 101, 104, 105, 106) for generating a magnetic field in said chamber (2, 102), said magnetic field having a revolution symmetry relative to said longitudinal axis (AA'), - means for propagating a high frequency wave inside said chamber (2, 102), said device (1, 100, 200, 300) being characterised in that said chamber (2, 102) includes: - a first ionisation stage (7, 107, 207, 307) located at one end of said chamber (2, 102), said first stage including an ionisation zone (10, 110) in which ions are generated, said magnetic field being substantially parallel to said longitudinal axis (AA') in said ionisation zone (10, 110), - a second stage (8, 108) for magnetically confining said ions generated in said ionisation zone (10, 110), said second stage (8, 108) using a first high frequency wave propagating in said chamber (2, 102) from said means for propagating a high frequency wave, said magnetic field being substantially parallel to said longitudinal axis (AA') between said ionisation zone (10, 110) and said second confinement stage (8, 108) such that the ions generated in said ionisation zone (10, 110) migrate to said second confinement stage (8, 108) and in that said first and second stages (7, 107, 207, 307, 8, 108) include a same continuous plasma. - a vacuum sealed chamber (2, 102) for containing a plasma, said chamber (2, 102) being of axial symmetry along a longitudinal axis (AA'), - means (3, 4, 5, 6, 101, 104, 105, 106) for generating a magnetic field in said chamber (2, 102), said magnetic field having a revolution symmetry relative to said longitudinal axis (AA'), - means for propagating a high frequency wave inside said chamber (2, 102), - a first ionisation stage (7, 107, 207, 307) located at one end of said chamber (2, 102), said first stage including an ionisation zone (10, 110) in which ions are generated, said magnetic field being substantially parallel to said longitudinal axis (AA') in said ionisation zone (10, 110), - a second stage (8, 108) for magnetically confining said ions generated in said ionisation zone (10, 110), said second stage (8, 108) using a first high frequency wave propagating in said chamber (2, 102) from said means for propagating a high frequency wave,
A method of forming a multi-layered enamel, comprising: forming an interface layer on a surface of a substrate, the interface layer being formed by depositing and firing an interface material comprising a solids portion and a vehicle, the solid portion including glass frit, pigment, and an expansion modifier selected from the group consisting of zinc silicates, magnesium silicates, barium silicates, strontium silicates, barium or strontium aluminum silicates, lithium alumino silicates, zirconium silicates, barium magnesium silicates, barium titanium silicates, cordierite, zirconia, zircon, alumina, silica, titania and mixtures thereof, forming an opaque layer over the interface layer, the opaque layer being formed by depositing and firing an opaque material comprising a solids portion and a vehicle, the solid portion including glass frit from about 5 wt% to about 60 wt%, pigment from about 40 wt% to about 95 wt%, and an expansion modifier from about 0 wt% to about 15 wt%, and forming a durable layer over the opaque layer, the durable layer being formed by depositing and firing a durable material comprising a solids portion and a vehicle, the solid portion including glass frit from about 60 wt% to about 98 wt%, and pigment from about 2 wt% to about 40 wt%, wherein the durable layer defines an exposed surface of the multi-layer enamel. forming an interface layer on a surface of a substrate, the interface layer being formed by depositing and firing an interface material comprising a solids portion and a vehicle, the solid portion including glass frit, pigment, and an expansion modifier selected from the group consisting of zinc silicates, magnesium silicates, barium silicates, strontium silicates, barium or strontium aluminum silicates, lithium alumino silicates, zirconium silicates, barium magnesium silicates, barium titanium silicates, cordierite, zirconia, zircon, alumina, silica, titania and mixtures thereof, forming an opaque layer over the interface layer, the opaque layer being formed by depositing and firing an opaque material comprising a solids portion and a vehicle, the solid portion including glass frit from about 5 wt% to about 60 wt%, pigment from about 40 wt% to about 95 wt%, and an expansion modifier from about 0 wt% to about 15 wt%, and forming a durable layer over the opaque layer, the durable layer being formed by depositing and firing a durable material comprising a solids portion and a vehicle, the solid portion including glass frit from about 60 wt% to about 98 wt%, and pigment from about 2 wt% to about 40 wt%, wherein the durable layer defines an exposed surface of the multi-layer enamel.