mhurhangee/ep-ind-claims huggingface dataset:
Process for dewatering a slurry comprising microfibrillated cellulose by only subjecting the slurry to mechanical pressures, wherein the process comprises the following steps: - providing a slurry comprising microfibrillated cellulose and a liquid, - subjecting the slurry to a first mechanical pressure in order to dewater the slurry, - subjecting the slurry to a second mechanical pressure which second pressure is higher than the first pressure and wherein - the slurry is conducted between two wires before the slurry is subjected to the first mechanical pressure. - providing a slurry comprising microfibrillated cellulose and a liquid, - subjecting the slurry to a first mechanical pressure in order to dewater the slurry, - subjecting the slurry to a second mechanical pressure which second pressure is higher than the first pressure and wherein - the slurry is conducted between two wires before the slurry is subjected to the first mechanical pressure.
A method of producing a fiber comprising forming a fiber using pellets, and annealing the fiber at 150 to 220 °C, the pellets being formed of a resin powder of a cycloolefin polymer, the resin powder having a loose bulk density of 0.3 to 0.6 g/cc when measured using 100 cc of the resin powder, wherein the cycloolefin polymer is a hydrogenated cycloolefin ring-opening polymer that comprises a repeating unit derived from a norbornene-based monomer and has a melting point.
A filter device for filtering fine particulate matter comprising particles with an aerodynamic diameter of less than about 10μm from exhaust gas comprising: - an exhaust gas inlet; - an exhaust gas outlet; - an electrostatic precipitator device for removing the fine particle matter from the exhaust gas; and - an outfall sewer with a particle discharge valve, wherein, when the filter device is in use, the exhaust gas flowing from the exhaust gas inlet to the exhaust gas outlet passes the precipitator device along a first gas flow direction, which is substantially vertically downwards, wherein the electrostatic precipitator device is capable of at least partially removing fine particulate matter from the exhaust gas; wherein the outfall sewer is configured to collect the removed fine particulate matter, wherein the particle discharge valve is configured to automatically discharge the collected fine particulate matter, wherein the outfall sewer and/or the particle discharge valve is spaced apart from the electrostatic precipitator device along the first gas flow direction so that fine particulate matter is transportable by means of gravity and/or by means of dragging with the exhaust gas flow along the first gas flow direction from the precipitator device to the outfall sewer. - an exhaust gas inlet; - an exhaust gas outlet; - an electrostatic precipitator device for removing the fine particle matter from the exhaust gas; and - an outfall sewer with a particle discharge valve,
A method of managing power or temperature of a computing device including a system-on-chip, SoC by managing data flows for concurrent multimedia applications, the method comprising: identifying a lowest priority data flow among the concurrent multimedia applications in response to determining that one or more of a temperature exceeds a temperature threshold and a power consumption exceeds a power threshold; tracing a data flow path for a data flow associated with the identified lowest priority data flow, the traced data flow path identifying all hardware modules traversed by the lowest priority data flow that operate using a multimedia parameter; and reducing the multimedia parameter of the identified hardware modules along the traced data flow path for the data flow associated with the identified lowest priority data flow in order to manage the one or more of the temperature and the power consumption. identifying a lowest priority data flow among the concurrent multimedia applications in response to determining that one or more of a temperature exceeds a temperature threshold and a power consumption exceeds a power threshold; tracing a data flow path for a data flow associated with the identified lowest priority data flow, the traced data flow path identifying all hardware modules traversed by the lowest priority data flow that operate using a multimedia parameter; and reducing the multimedia parameter of the identified hardware modules along the traced data flow path for the data flow associated with the identified lowest priority data flow in order to manage the one or more of the temperature and the power consumption.
A mobile terminal comprising: a display panel; a frame having a first side facing the display panel and a second side facing a printed circuit board and a battery; a back cover coupled to the frame and covering the battery; and a short range antenna disposed between the frame and the display panel and disposed to face the display panel, wherein the frame has a first depressed portion recessed from a portion of the first side of the frame and a second depressed portion within the first depressed portion and being recessed from the first depressed portion, wherein the short range antenna is disposed at the first side of the frame, the battery is disposed at the second side of the frame, and a location of the short range antenna is different from a mounting location of the battery in the frame, wherein the display panel is disposed at the first depressed portion and the short range antenna is disposed within the second depressed portion, and wherein at least part of the display, the short range antenna, the frame, the printed circuit board and back cover are stacked sequentially in a region where the second depressed portion of the frame is formed, and the short range antenna radiates a short-range communication signal toward the display panel. a display panel; a frame having a first side facing the display panel and a second side facing a printed circuit board and a battery; a back cover coupled to the frame and covering the battery; and a short range antenna disposed between the frame and the display panel and disposed to face the display panel, wherein the frame has a first depressed portion recessed from a portion of the first side of the frame and a second depressed portion within the first depressed portion and being recessed from the first depressed portion, wherein the short range antenna is disposed at the first side of the frame, the battery is disposed at the second side of the frame, and a location of the short range antenna is different from a mounting location of the battery in the frame, wherein the display panel is disposed at the first depressed portion and the short range antenna is disposed within the second depressed portion, and wherein at least part of the display, the short range antenna, the frame, the printed circuit board and back cover are stacked sequentially in a region where the second depressed portion of the frame is formed, and the short range antenna radiates a short-range communication signal toward the display panel.
An arrangement for carrying out dynamic magnetic field measurements in a MR imaging or MR spectroscopy apparatus, the arrangement comprising at least one magnetic field probe, said magnetic field probe comprising a MR active substance, means (8, 10) for pulsed MR excitation of said substance and means (8, 10) for receiving an MR signal generated by said substance; said arrangement further comprising a shield against external high-frequency electromagnetic field irradiation, said shield substantially surrounding the magnetic field probe, said shield having at least one RF contact to the RF ground of the field probe, characterized in that said shield is composed of conductive elements embedded in a dielectric material, said conductive elements being a) electrically conductive filaments (24, 26), said conductive filaments being present in a length-density of at least 500 mm/mm 3 and at most 10 12 mm/mm 3, with the length-density being defined as total length of all filaments present in a volume; and/or b) electrically conductive platelets, said conductive platelets being present in an area-density of at least 100 mm 2 /mm 3 and at most 10 9 mm 2 /mm 3, with the area-density being defined as total area of all platelets present in a volume. a) electrically conductive filaments (24, 26), said conductive filaments being present in a length-density of at least 500 mm/mm 3 and at most 10 12 mm/mm 3, with the length-density being defined as total length of all filaments present in a volume; and/or b) electrically conductive platelets, said conductive platelets being present in an area-density of at least 100 mm 2 /mm 3 and at most 10 9 mm 2 /mm 3, with the area-density being defined as total area of all platelets present in a volume.
Turbo charger component, in particular a turbine wheel for an internal combustion engine, wherein the turbo charger component comprises a polycrystalline nickel-based alloy of the following composition: Cr 10.0 to 15.0 wt.-%; Co 40 to 9.0 wt.-%; C 0.05 to 0.15 wt.-%; Al, Ti, Nb, and Ta in a total amount of 7.0 to 15.0 wt.%, with the proviso that the amount of Al is at least 3.7 wt.-%, the amount of the γ'-phase is greater than 40 % after aging the component at 1000°C for 300 hours; Mo and W in a total amount of 2.0 to 5.0 wt.-%, wherein Mo and W are present in the weight ratio of Mo:W = 0.7 to 1.8; optionally Re and Hf with the proviso that each element is present in an amount of less than 1 wt.-%; optionally other elements in a total amount of less than 3 wt.-% (impurities), in particular, independently from each other, Fe, Mn, P, S, and Si in amounts of less than 0.05 wt.-%; and Ni as balance; or wherein the turbo charger component comprises a polycrystalline nickel-based alloy of the following composition: Cr 10.0 to 15.0 wt.-%; Co 4.0 to 9.0 wt.-%; C 0.05 to 0.15 wt.-%; Al 40 to 5.5 wt.-%; Ta 1.2 to 2.4 wt.%; Nb 0.3 to 1.5wt.-%; Mo 1.3 to 2.3 wt.-%; W 0.9 to 2.1 wt.-%; Ti 2.4 to 3.5 wt.-%; optionally Re and Hf with the proviso that each element is present in an amount of less than 1 wt.-%; optionally other elements in a total amount of less than 3 wt.-% (impurities), in particular, independently from each other, Fe, Mn, P, S, and Si in amounts of less than 0.05 wt.-%; and Ni as balance.
A cutting tool, such as a pruning shear, provided with two blades (2, 4) with a sharp edge (2A, 4A), hinged in rotation about a common axis, each blade being extended by a handle (3, 5), so that the tool can be grasped with only one hand, including means for temporarily blocking (10; 12-17) the corresponding blades and handles, in at least one intermediate position between the maximum open position, and the closed position where the sharp edges (2A, 4A) of the blades (2, 4) are in contact or partially overlapped, said temporary blocking means including at least one blocking member mounted on a first one of the two blades or on a first handle, said movable blocking member is movable according to the rotation of the second blade, said blocking member is, on the one hand, provided at one of its ends, the one opposite to the handle, with a finger that cooperates with second abutment members (15; 16; 17), secured to the second blade or second handle and, on the other hand, provided at the other end, with a flexible finger and able to cooperate with first abutment members (12; 13; 14) provided on the first blade or handle, each first abutment member corresponding to one of the three blades/handles open positions, respectively maximum, intermediate and closed position, and said blocking member has a single degree of translation, on the one hand, transverse to the hinge axis of the blades/handles and, on the other hand, substantially in the longitudinal direction of the first blade/handle.
A method for capturing images of tissue samples, the method comprising: positioning a tissue sample within a selectable field of view, wherein the tissue sample is embedded in a substrate block (808,908); illuminating the substrate block (808,908) embedded tissue sample with a polarized light; capturing a first image of the substrate block embedded tissue sample from light reflected by the tissue sample positioned within the field of view; illuminating the substrate block embedded tissue sample with a non-polarized light; capturing a second image of the substrate block embedded tissue sample from light reflected by the tissue sample positioned within the field of view; characterized by processing the first and second images to create an overlay image comprising the second image overlaying the first image; identifying cut tissue in the substrate block embedded tissue sample, wherein the cut tissue is tissue present at a cut surface of the substrate block after slicing; identifying uncut tissue in the substrate block embedded tissue sample, wherein the uncut tissue is tissue present below the cut surface of the substrate block after slicing; identifying a boundary of the cut tissue with respect to the uncut tissue; and storing the overlay image in an archive. positioning a tissue sample within a selectable field of view, wherein the tissue sample is embedded in a substrate block (808,908); illuminating the substrate block (808,908) embedded tissue sample with a polarized light; capturing a first image of the substrate block embedded tissue sample from light reflected by the tissue sample positioned within the field of view; illuminating the substrate block embedded tissue sample with a non-polarized light; capturing a second image of the substrate block embedded tissue sample from light reflected by the tissue sample positioned within the field of view; characterized by processing the first and second images to create an overlay image comprising the second image overlaying the first image; identifying cut tissue in the substrate block embedded tissue sample, wherein the cut tissue is tissue present at a cut surface of the substrate block after slicing; identifying uncut tissue in the substrate block embedded tissue sample, wherein the uncut tissue is tissue present below the cut surface of the substrate block after slicing; identifying a boundary of the cut tissue with respect to the uncut tissue; and storing the overlay image in an archive.
A plant, seed, cell, or plant part thereof wherein the plant, seed, cell, or plant part thereof comprises an event characterized by a polynucleotide molecule having a nucleotide sequence selected from the group consisting of SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:7, and SEQ ID NO:8, wherein said plant, seed, cell, or plant part thereof is tolerant to glyphosate herbicide treatment, and wherein a representative sample of seed of the plant comprising the event has been deposited under ATCC Accession No. PTA-10955.
Method for preserving over time the initial fermentable potential of biomass from byproducts of human activity, comprising a solid phase with water forming a liquid phase, used as an organic substrate in the production of metabolites by fermentation, said potential being represented by the biochemical methane potential of the biomass, consisting of steps that allow: a) determining the moisture content of the biomass collected, characterized in that it comprises at least the following steps: - b) comparing the determined moisture content to a predetermined moisture content that lies between 8% and 12%, - c) bringing, by thermal dehydration or heating at 60°C, the determined moisture content to a value corresponding to a predetermined moisture content when the determined moisture content is higher than a predetermined moisture content, - d) storing only the biomass that has a moisture content, as determined in step a) or obtained as a result of step c), corresponding to the predetermined moisture content. a) determining the moisture content of the biomass collected, characterized in that it comprises at least the following steps: - b) comparing the determined moisture content to a predetermined moisture content that lies between 8% and 12%, - c) bringing, by thermal dehydration or heating at 60°C, the determined moisture content to a value corresponding to a predetermined moisture content when the determined moisture content is higher than a predetermined moisture content, - d) storing only the biomass that has a moisture content, as determined in step a) or obtained as a result of step c), corresponding to the predetermined moisture content. - b) comparing the determined moisture content to a predetermined moisture content that lies between 8% and 12%, - c) bringing, by thermal dehydration or heating at 60°C, the determined moisture content to a value corresponding to a predetermined moisture content when the determined moisture content is higher than a predetermined moisture content, - d) storing only the biomass that has a moisture content, as determined in step a) or obtained as a result of step c), corresponding to the predetermined moisture content.
Method for drying a component provided with a paint application by means of supplied warm air, wherein the warm air is supplied in particular with a low momentum, at a predefined horizontal distance from the component in the base or fastening or standing region of the component, and in order to achieve and sustain an, in particular surface-related homogenous surface temperature of the component, which in particular is higher than the ambient or room air temperature in the paint shop, is guided by means of thermal flow effects substantially vertically along the component and/or over and along the surface of the component, and wherein at least one air source arranged at a horizontal and/or vertical distance (AQH, AQV) from the component, running approximately parallel to the ground and/or running approximately horizontally is used as air outflow source, and that a pipe section (17A, 17B, 17C, 17D, 17E, 17F) and/or a hose section (17A, 17B, 17C, 17D, 17E, 17F), which is arranged at a distance (AQH, AQV, ABL), measured between the central longitudinal axis of the pipe or hose section and the surface of the component of ≦1 m, in particular of 0.5 and less is used as air outflow source..
Sheeting door for the temporary sealing of a passage, with a sheet element (32; 62) made of a flexible sheet material, which includes at least one bottom edge (36; 66) and at least two side edges (33, 34; 63, 64), wherein the side edges (33, 34; 63, 64) adjoin the bottom edge (36; 66), together with an opening slit (37; 72) formed in the sheet element (32; 62), starting from the bottom edge (36; 66) and delimited by opposite slit edges (38, 39), which is equipped on at least one slit edge (38, 39) with sealing means (40; 54) for fixing the other slit edge (38, 39) and which includes several slit sections (42, 43, 44, 45; 55, 56, 57, 58; 73), wherein a first slit section (42; 55) starting from the bottom edge (36; 66) passes through a strip-shaped sill area extending along the bottom edge (36; 66) and that an adjoining second slit section (43; 56) runs along an upper sill edge of the sill area, that an adjoining third slit section (44; 57) runs at least substantially parallel to the first slit section (42; 55) in the direction of the top edge (35; 65) of the sheet element (32; 62), and that an adjoining fourth slit section (45; 58) runs at least substantially parallel and in the opposite direction to the second slit section (43; 56).
Orthodontic wire bending device comprising: - a wire guiding unit comprising a convoying system for driving the wire (w) and an exit for delivering the wire (w), the wire guiding unit being configured to guide the wire in a first direction along a longitudinal axis through the exit, and - a wire bending unit fed by the wire delivered by the exit, comprising at least one wire bending member (31, 32), the at least one wire bending member (31, 32) being able to turn around a center of rotation in a first plane including the longitudinal axis, such that, when the wire comes out of the exit, a rotation of the at least one bending members (31, 32) around the center of rotation results in the bending of the wire (w) proximate to the exit, wherein the exit of the wire guiding unit is located, along the first direction, beyond the center of rotation, and wherein the wire bending unit comprises one bending member (31, 32) capable of a translation along a direction perpendicular to the first plane. - a wire guiding unit comprising a convoying system for driving the wire (w) and an exit for delivering the wire (w), the wire guiding unit being configured to guide the wire in a first direction along a longitudinal axis through the exit, and - a wire bending unit fed by the wire delivered by the exit, comprising at least one wire bending member (31, 32), the at least one wire bending member (31, 32) being able to turn around a center of rotation in a first plane including the longitudinal axis, such that, when the wire comes out of the exit, a rotation of the at least one bending members (31, 32) around the center of rotation results in the bending of the wire (w) proximate to the exit, wherein the exit of the wire guiding unit is located, along the first direction, beyond the center of rotation, and wherein the wire bending unit comprises one bending member (31, 32) capable of a translation along a direction perpendicular to the first plane.
A method for producing a ceramic honeycomb structure having a pore volume, comprising the steps of: mixing and blending ceramic material powder with a pore-forming material composed of microcapsules A to form a moldable material, extrusion-molding the moldable material to form a ceramic honeycomb article, and drying and sintering the resultant molded honeycomb article to form a honeycomb structure A, mixing and blending ceramic material powder with a pore-forming material composed of microcapsules B to form a second moldable material, extrusion-molding the second moldable material to form a second ceramic honeycomb article, and drying and sintering the resultant second molded honeycomb article to form a honeycomb structure B, wherein said pore-forming material consists essentially of foamed resin microcapsules constituted by a resin shell containing a gas, and wherein said microcapsules A are added to produce said honeycomb structure A in an amount M1 (% by mass) and said microcapsules B are added to produce said honeycomb structure B in an amount M2 (% by mass), wherein said honeycomb structure B has the same pore volume as said honeycomb structure A, wherein said microcapsules A have a packed bulk density Q1 (g/cm 3) and said microcapsules B have a packed bulk density Q2 (g/cm 3), wherein M ⁢ 2 > M ⁢ 1, when Q ⁢ 1 > Q ⁢ 2, and M ⁢ 2 < M ⁢ 1, when Q ⁢ 1 < Q ⁢ 2. mixing and blending ceramic material powder with a pore-forming material composed of microcapsules A to form a moldable material, extrusion-molding the moldable material to form a ceramic honeycomb article, and drying and sintering the resultant molded honeycomb article to form a honeycomb structure A, mixing and blending ceramic material powder with a pore-forming material composed of microcapsules B to form a second moldable material, extrusion-molding the second moldable material to form a second ceramic honeycomb article, and drying and sintering the resultant second molded honeycomb article to form a honeycomb structure B, wherein said pore-forming material consists essentially of foamed resin microcapsules constituted by a resin shell containing a gas, and wherein said microcapsules A are added to produce said honeycomb structure A in an amount M1 (% by mass) and said microcapsules B are added to produce said honeycomb structure B in an amount M2 (% by mass), wherein said honeycomb structure B has the same pore volume as said honeycomb structure A, wherein said microcapsules A have a packed bulk density Q1 (g/cm 3) and said microcapsules B have a packed bulk density Q2 (g/cm 3), wherein M ⁢ 2 > M ⁢ 1, when Q ⁢ 1 > Q ⁢ 2, and M ⁢ 2 < M ⁢ 1, when Q ⁢ 1 < Q ⁢ 2.