mhurhangee/ep-ind-claims huggingface dataset:
A composition for use in a method of evaluating and quantifying a bioluminescent signal detected in a live non-human animal comprising a bioluminescent protein; the composition being formulated for injection into a live non-human animal and consisting essentially of a bioluminescent substrate and a non-toxic fluorescent tracking dye in solution in a buffer, wherein the bioluminescent substrate and the fluorescent tracking dye emit light of different wavelengths, wherein the bioluminescent substrate is transformed to an excited state in the presence of an oxygenase, oxygen and ATP, and wherein the substrate and tracking dye distribute similarly in the live non-human animal; and the method comprising: administering by injection said composition to a plurality of live non-human animals; measuring the bioluminescent signal generated by reaction of the bioluminescent substrate and bioluminescent protein from each animal; measuring the signal of the tracking dye from each non-human animal; characterised in that the method further comprises: normalizing the bioluminescent signal to the signal of the tracking dye in each animal wherein normalizing comprises finding an average fluorescence signal and determining the deviation of the fluorescence signal in an individual animal from the average fluorescence signal, whereby if the deviation is greater than about 30% from the average, re-imaging the animal. administering by injection said composition to a plurality of live non-human animals; measuring the bioluminescent signal generated by reaction of the bioluminescent substrate and bioluminescent protein from each animal; measuring the signal of the tracking dye from each non-human animal; characterised in that the method further comprises: normalizing the bioluminescent signal to the signal of the tracking dye in each animal wherein normalizing comprises finding an average fluorescence signal and determining the deviation of the fluorescence signal in an individual animal from the average fluorescence signal, whereby if the deviation is greater than about 30% from the average, re-imaging the animal.
Process for the manufacture of the single-layer polymeric battery separator, said method comprising the steps of: providing a plurality of polymeric microfibers having a maximum length of 25 mm and a minimum size of 2 microns; providing a plurality of polymeric nanofibers having a maximum length of 25 mm and a maximum size of 700 nanometers; subjecting said plurality of microfibers and plurality of nanofibers simultaneously to a wetlaid nonwoven fabricating method such that said polymeric microfibers enmesh in a non-uniform pattern with interstices between said microfibers and said polymeric nanofibers become entangled with said microfibers and with said other nanofibers such that said nanofibers are introduced within said interstices between said microfibers as well as on the surface of the substrate formed from said plurality of polymeric microfibers; and subjecting said enmeshed structure to a supercalendering procedure, wherein said procedure entails contact with at least three separate calendering nips, and wherein each calendering nip applies a pressure of at least 87. 56 N/mm (500 lbs/inch) and wherein said. supercalendered enmeshed structure exhibits a maximum thickness of 25 microns and a maximum porosity of 45%. providing a plurality of polymeric microfibers having a maximum length of 25 mm and a minimum size of 2 microns; providing a plurality of polymeric nanofibers having a maximum length of 25 mm and a maximum size of 700 nanometers; subjecting said plurality of microfibers and plurality of nanofibers simultaneously to a wetlaid nonwoven fabricating method such that said polymeric microfibers enmesh in a non-uniform pattern with interstices between said microfibers and said polymeric nanofibers become entangled with said microfibers and with said other nanofibers such that said nanofibers are introduced within said interstices between said microfibers as well as on the surface of the substrate formed from said plurality of polymeric microfibers; and subjecting said enmeshed structure to a supercalendering procedure, wherein said procedure entails contact with at least three separate calendering nips, and wherein each calendering nip applies a pressure of at least 87. 56 N/mm (500 lbs/inch) and wherein said. supercalendered enmeshed structure exhibits a maximum thickness of 25 microns and a maximum porosity of 45%.
Device for checking the calibration of catching instruments measuring rainfall intensity, characterized in that it comprises a plurality of containers (2a, 2b, 2c) having a predetermined internal volume (V1, V2, V3), the volume of at least two of said containers being different from each other, said containers being intended to contain respective amounts of a liquid, wherein each container (2a, 2b, 2c) is provided with a single exhaust nozzle (3a, 3b, 3c) intended to put the internal volume (V1, V2, V3) of said container (2a, 2b, 2c) in fluid communication with an outer environment such to allow said liquid discharged from said nozzle (3a, 3b, 3c) to flow out by gravity in a substantially horizontal direction, each one of said containers (2a, 2b, 2c) further comprising air intake means (4a, 4b, 4c) intended to put the internal volume (V1, V2, V3) in fluid communication with the outer environment in order to define a compensation of the air pressure inside the container, such to make piezometric head constant at the height of said nozzle (3a, 3b, 3c) independently of the change of the liquid level in said container (2a, 2b, 2c) during its emptying along an open intake inner tube of the intake means having an end section that introduces a flow of air at atmospheric pressure in the container that creates bubbles in the liquid to reach the upper portion of the internal volume (V1, V2, V3) not occupied by the liquid, so as to provide a constant output flow rate from said nozzle (3a, 3b, 3c) and to obtain a contemporaneous check of the dynamic and volumetric calibration of said catching instruments.
An apparatus, comprising: a module (70A, 70B) extending into an interior cavity of a housing assembly through an opening of a plurality of openings (76A, 76B) formed in a base section of the housing assembly, the module (70A, 70B) including a component grid; and a mechanical sealing element disposed along a surface of the module (70A, 70B) to provide a seal between the module (70A, 70B) and the base section defining the opening, wherein the plurality of openings (76A, 76B) are separated by a framing element extending across the interior cavity, wherein the mechanical sealing element comprises a gasket in abutment with a ridge, the ridge extending from the surface of the module (70A, 70B). a module (70A, 70B) extending into an interior cavity of a housing assembly through an opening of a plurality of openings (76A, 76B) formed in a base section of the housing assembly, the module (70A, 70B) including a component grid; and a mechanical sealing element disposed along a surface of the module (70A, 70B) to provide a seal between the module (70A, 70B) and the base section defining the opening, wherein the plurality of openings (76A, 76B) are separated by a framing element extending across the interior cavity, wherein the mechanical sealing element comprises a gasket in abutment with a ridge, the ridge extending from the surface of the module (70A, 70B).
An elevator taking user management system, comprising: a detection apparatus, for detecting the number of persons in an elevator waiting area; a processing module, electrically connected to the detection apparatus and a target floor transport system of the elevator, wherein the processing module is used for receiving a signal at least indicating the detected number of persons sent by the detection apparatus, and acquiring the number of persons who have input target floors from the target floor transport system, and the processing module compares the detected number of persons with the number of persons who have input target floors at the floor where the detection apparatus is located, and when the detected number of persons is greater than the number of persons who have input target floors, sends a reminding signal; and an output apparatus, electrically connected to the processing module, for receiving the reminding signal and presenting the reminding signal in the elevator waiting area, so as to remind those who do not input target floors to input the target floors. a detection apparatus, for detecting the number of persons in an elevator waiting area; a processing module, electrically connected to the detection apparatus and a target floor transport system of the elevator, wherein the processing module is used for receiving a signal at least indicating the detected number of persons sent by the detection apparatus, and acquiring the number of persons who have input target floors from the target floor transport system, and the processing module compares the detected number of persons with the number of persons who have input target floors at the floor where the detection apparatus is located, and when the detected number of persons is greater than the number of persons who have input target floors, sends a reminding signal; and an output apparatus, electrically connected to the processing module, for receiving the reminding signal and presenting the reminding signal in the elevator waiting area, so as to remind those who do not input target floors to input the target floors.
A solar photovoltaic-thermal system comprising: a solar cell assembly comprising a plurality of photovoltaic components, a light reflecting plate disposed below the solar cell assembly, a light collection cavity located below the solar cell assembly, and a heat exchanger, wherein at least a part of an irradiation area of the solar cell assembly is not covered by the photovoltaic components so that light can penetrate the layer of the solar cell assembly and reach the light collection cavity, characterized in that the solar cell assembly comprises a transparent glass front cover, a transparent encapsulating material and a transparent glass back sheet, wherein the plurality of photovoltaic components is encapsulated by the transparent encapsulating material; wherein the transparent glass back sheet is a physically tempered glass or a chemically tempered glass; the light collection cavity is formed by a space enclosed by a plurality of light reflecting members located below the transparent glass back sheet, the light reflecting plate disposed below the solar cell assembly and the transparent glass back sheet; the space between the transparent glass back sheet and the light reflecting plate is subdivided by the plurality of light reflecting members into a plurality of light collection cavities, which accommodate a respective heat exchanger; and the surface of the transparent glass back sheet facing the light collection cavity is covered with a selectively reflecting layer, which reflects long-waveband light. a solar cell assembly comprising a plurality of photovoltaic components, a light reflecting plate disposed below the solar cell assembly, a light collection cavity located below the solar cell assembly, and a heat exchanger, wherein at least a part of an irradiation area of the solar cell assembly is not covered by the photovoltaic components so that light can penetrate the layer of the solar cell assembly and reach the light collection cavity, characterized in that the solar cell assembly comprises a transparent glass front cover, a transparent encapsulating material and a transparent glass back sheet, wherein the plurality of photovoltaic components is encapsulated by the transparent encapsulating material; wherein the transparent glass back sheet is a physically tempered glass or a chemically tempered glass; the light collection cavity is formed by a space enclosed by a plurality of light reflecting members located below the transparent glass back sheet, the light reflecting plate disposed below the solar cell assembly and the transparent glass back sheet; the space between the transparent glass back sheet and the light reflecting plate is subdivided by the plurality of light reflecting members into a plurality of light collection cavities, which accommodate a respective heat exchanger; and the surface of the transparent glass back sheet facing the light collection cavity is covered with a selectively reflecting layer, which reflects long-waveband light.
A light emitting device comprising at least two circuits connected in parallel with each other, wherein the circuits each include a plurality of light emitting elements (101a -101d) and at least one limiter between a first node and a second node and the light emitting elements (101a -101d) and the limiter are respectively connected in series, wherein each of the light emitting elements (101a -101d) includes a light emitting layer between a pair of electrodes (131, 132), wherein the limiter comprises a transistor, characterised in that the light emitting layer of the light emitting element of the circuits is continuous to the light emitting layer of an adjacent one of the light emitting elements of the circuits.
A method for cultivating Sphagnum that has been applied to a surface of a field having a water table, wherein the method is carried out for at least 1 month and comprising controllably irrigating the Sphagnum, wherein the controllably irrigating comprises applying water to a surface of the Sphagnum and/or to the surface of the field; wherein the controllably irrigating does not saturate with water a portion of the field between the surface of the field and the water table, the portion having a height of at least 20 cm; and wherein the controllably irrigating comprises using spray irrigation and/or drip irrigation. wherein the controllably irrigating does not saturate with water a portion of the field between the surface of the field and the water table, the portion having a height of at least 20 cm; and wherein the controllably irrigating comprises using spray irrigation and/or drip irrigation.
Transportation device for the distribution of various piece goods (3, 4) to a plurality of processing sites from at least one source having a plurality of conveyors, with a circular conveyor having a source portion and a destination portion, wherein the source portion is arranged in front of the one source and the destination portion is arranged in front of the processing sites, with longitudinal conveyors which are guided to the processing sites via the destination portion of the circular conveyor, wherein the longitudinal conveyors and the destination portion of the circular conveyor form intersections at which piece goods (3, 4) are simultaneously movable away from the intersection and towards the intersection, and with an additional conveyor (8, 108, 208) arranged inside the circular conveyor, wherein the additional conveyor has a source portion guided parallel to the source portion of the circular conveyor, characterised in that the source portions (9, 10) of the circular conveyor and of the additional conveyor (8, 108, 208) are interconnected by longitudinal conveyors (16, 17), the longitudinal conveyors (16, 17) respectively forming with the source portions (9, 10) intersections (20, 21) at which the piece goods (3, 4) are simultaneously movable away from the intersection (20, 21) and towards the intersection (20, 21), in that the source has at least one pallet high-bay storage and one small parts storage, and in that the pallet high-bay storage and the small parts storage are arranged next to one another upstream of the source portions (9, 10) of the circular conveyor and of the additional conveyor (8, 108, 208), in that the small parts storage is connected to a closed curved path in an upper plane, and in that the curved path is guided vertically into the longitudinal conveyors between the source portions (9, 10) of the circular conveyor and of the additional conveyor (108, 208) for the sorted transfer of the piece goods (3, 4) to the source portions (9, 10), and/or in that the pallet high-bay storage has longitudinal rack conveyors which are guided in a plane above the source portions (9, 10), and in that vertical floor conveyors are respectively guided vertically into the longitudinal conveyors between the source portions (9, 10) of the circular conveyor and of the additional conveyor for the sorted transfer of the piece goods (3, 4) to the source portions (9, 10).
A battery module comprising: a bus bar comprising first and second portions electrically connected respectively to different battery packs and a bypass bent portion formed between the first and second portions of the bus bar; and a bus bar cover covering the bus bar to insulate the bus bar, wherein the bus bar cover comprises first and second portions covering the first and second portions of the bus bar and a hinge portion providing pivotable connection between the first and second portions; wherein the bypass bent portion protrudes away from and in an opposite direction with respect to the hinge portion. a bus bar comprising first and second portions electrically connected respectively to different battery packs and a bypass bent portion formed between the first and second portions of the bus bar; and a bus bar cover covering the bus bar to insulate the bus bar, wherein the bus bar cover comprises first and second portions covering the first and second portions of the bus bar and a hinge portion providing pivotable connection between the first and second portions; wherein the bypass bent portion protrudes away from and in an opposite direction with respect to the hinge portion.
A method of providing process measurements to a process controller of an industrial process, comprising receiving communication from a remote measurement device measuring at least one process parameter in a process, said communication carrying measured values (ymes) of said at least one process parameter, inputting said received process measurement values (ymes) to a process controller, if the communication from the remote measurement device fails, inputting estimated process measurement values (yest) to the process controller instead of said received process measurement values (ymes), characterized by said estimated process measurement values (yest) being generated based at least on the last received process measurement value (ymes) and a setpoint signal (yset) of the process controller.
A liquid pumping device, comprising a first component, a second component, and a third component (8, 81, 82), wherein the second component is configured to move relative to the first component in a certain manner, and at least a part of the contact surface of the first component and the second component is in liquid tightness sliding fit; wherein a medium inlet (12, 121, 122) and a medium outlet (13, 131, 132), not in communication with each other, are provided in the contact surface of the first component in liquid tightness sliding fit with the second component; wherein at least one cave is provided in the contact surface of the second component in liquid tightness sliding fit with the first component; further wherein the at least one cave is configured to move in a certain path in the range of the contact surface in liquid tightness sliding fit, along with the movement of the second component; wherein the movement path of the cave passes respectively the medium inlet and the medium outlet on the first component and the third component whereby when the cave passes the third component, the third component is configured to at least partially enter the cave and to fill the cave perpendicularly to the direction of movement of the cave; wherein the third component is arranged on the side of the medium outlet in the forward movement direction of the cave, and when the cave moves forward passing the third component, a part of the third component is configured to enter the cave and to extrude the medium in the cave to the medium outlet; and wherein the movement of the second component is a rotational movement, characterized in that the contact surface of the first component and the second component in liquid tightness sliding fit is a plane perpendicular to the rotation axis of the second component. characterized in that the contact surface of the first component and the second component in liquid tightness sliding fit is a plane perpendicular to the rotation axis of the second component.
A method of delidding an integrated circuit, IC, package, comprising: directing a laser beam along a cut line of an integrated circuit package, the cut line defining a removable portion; cutting along the cut line; and removing the removable portion after the directing; wherein the integrated circuit package includes a body portion and a lid, the lid defining a hermetically sealed cavity therein, and wherein the lid includes a side wall extending from the body portion to a top surface of the lid, and wherein the removable portion includes the top surface of the lid. directing a laser beam along a cut line of an integrated circuit package, the cut line defining a removable portion; cutting along the cut line; and removing the removable portion after the directing; wherein the integrated circuit package includes a body portion and a lid, the lid defining a hermetically sealed cavity therein, and wherein the lid includes a side wall extending from the body portion to a top surface of the lid, and wherein the removable portion includes the top surface of the lid.