mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: acquiring an extended genomic dataset, which dataset includes data indicative of or relating to an extended portion of a genome; processing the extended genomic dataset in silico to discover at least one clinically significant feature of the dataset wherein the processing comprises at least one of performing a biomarker test using the acquired extended genomic dataset, the biomarker test being indicated in a clinical guideline or decision tree and identifying in the extended genomic dataset nucleotide variant information retrieved from one or more genomic databases; and generating a clinical result for use in aiding clinical decision making, based on the discovered at least one clinically significant feature of the dataset; wherein the processing and generating are performed by one or more computers; wherein the processing comprises performing a subset of biomarker tests of a clinical guideline or decision tree with later tests of the subset being chosen dynamically based on results of previously performed biomarker tests in accordance with paths of the clinical guideline or decision tree; and wherein the clinical result is generated based on the performed subset of biomarker tests of the clinical guideline or decision tree. acquiring an extended genomic dataset, which dataset includes data indicative of or relating to an extended portion of a genome; processing the extended genomic dataset in silico to discover at least one clinically significant feature of the dataset wherein the processing comprises at least one of performing a biomarker test using the acquired extended genomic dataset, the biomarker test being indicated in a clinical guideline or decision tree and identifying in the extended genomic dataset nucleotide variant information retrieved from one or more genomic databases; and generating a clinical result for use in aiding clinical decision making, based on the discovered at least one clinically significant feature of the dataset; wherein the processing and generating are performed by one or more computers; wherein the processing comprises performing a subset of biomarker tests of a clinical guideline or decision tree with later tests of the subset being chosen dynamically based on results of previously performed biomarker tests in accordance with paths of the clinical guideline or decision tree; and wherein the clinical result is generated based on the performed subset of biomarker tests of the clinical guideline or decision tree.
Apparatus for presenting a call to a called party, the apparatus comprising: means for receiving from a caller a plurality of directed call presentation indications associated with the call, wherein each directed call presentation indication has an associated intention for how the call should be handled and an order in a list of priority treatments; and means for presenting the call to the called party in dependence upon the received directed call presentation indications, wherein the apparatus is configured to handle the transfer of the call to voicemail dependent on the order of priority treatment of the plurality of directed call presentation indications and wherein the apparatus is configured to resolve any treatment conflicts based on the order of priority treatment. means for receiving from a caller a plurality of directed call presentation indications associated with the call, wherein each directed call presentation indication has an associated intention for how the call should be handled and an order in a list of priority treatments; and means for presenting the call to the called party in dependence upon the received directed call presentation indications, wherein the apparatus is configured to handle the transfer of the call to voicemail dependent on the order of priority treatment of the plurality of directed call presentation indications and wherein the apparatus is configured to resolve any treatment conflicts based on the order of priority treatment.
A polyamide resin comprising a polymer of an aliphatic diamine and a dicarboxylic acid, wherein the aliphatic diamine comprises a first aliphatic diamine monomer selected from at least one of C4, C6, C8 and C10 aliphatic diamines and a second aliphatic diamine monomer selected from at least one of C12, C14, C16 and C18 aliphatic diamines, wherein the second aliphatic diamine monomer is present in an amount of 2 mol% to 50 mol% in the total aliphatic diamine components, and wherein a mole ratio of the total mole of the first aliphatic diamine monomer and the second aliphatic diamine monomer to the total mole of the dicarboxylic acid monomer, (ai+a2)/, ranges from 0.90 to 1.30.
A method for manufacturing a solar cell, the method comprising: a layer forming operation of sequentially forming a tunnel layer, an intrinsic amorphous silicon layer, and a dopant layer on a back surface of a semiconductor substrate formed of a crystalline silicon material containing impurities of a first conductive type, the dopant layer being formed of a dielectric material containing impurities of a second conductive type opposite the first conductive type; a thermal processing operation of, after the layer forming operation, forming a front surface field region on a front surface of the semiconductor substrate and forming an emitter region through one successive thermal process, in which a temperature in a furnace is maintained or raised; and an electrode forming operation of, after the thermal processing operation, forming a first electrode connected to the front surface of the semiconductor substrate and forming a second electrode connected to the emitter region; characterized in that the forming of the emitter region includes: a recrystallization process for recrystallizing the intrinsic amorphous silicon layer into the intrinsic polycrystalline silicon layer; and an emitter region activating process for diffusing and activating the impurities of the second conductive type contained in the dopant layer into the recrystallized intrinsic polycrystalline silicon layer. a layer forming operation of sequentially forming a tunnel layer, an intrinsic amorphous silicon layer, and a dopant layer on a back surface of a semiconductor substrate formed of a crystalline silicon material containing impurities of a first conductive type, the dopant layer being formed of a dielectric material containing impurities of a second conductive type opposite the first conductive type; a thermal processing operation of, after the layer forming operation, forming a front surface field region on a front surface of the semiconductor substrate and forming an emitter region through one successive thermal process, in which a temperature in a furnace is maintained or raised; and an electrode forming operation of, after the thermal processing operation, forming a first electrode connected to the front surface of the semiconductor substrate and forming a second electrode connected to the emitter region; characterized in that the forming of the emitter region includes: a recrystallization process for recrystallizing the intrinsic amorphous silicon layer into the intrinsic polycrystalline silicon layer; and an emitter region activating process for diffusing and activating the impurities of the second conductive type contained in the dopant layer into the recrystallized intrinsic polycrystalline silicon layer. a recrystallization process for recrystallizing the intrinsic amorphous silicon layer into the intrinsic polycrystalline silicon layer; and an emitter region activating process for diffusing and activating the impurities of the second conductive type contained in the dopant layer into the recrystallized intrinsic polycrystalline silicon layer.
A method for manufacturing core-shell structure fine particles, comprising: mixing an aqueous dispersion of resin fine particles for core, and an aqueous dispersion of coloring agent fine particles, to prepare a mixed liquid, aggregating particles contained in the prepared mixed liquid to form an aggregate, heating the aggregate to a temperature equal to or higher than a glass transition point (Tg) of the resin fine particles for fusion to thereby manufacture the core particles B in which a surface of the aggregate is smoothened, obtaining an aqueous medium containing the core particles B, adding shell particles A to the aqueous medium containing the core particles B to thereby obtain an aqueous medium in which the shell particles A and the core particles B are dispersed; and adding metal salt into the aqueous medium in which the shell particles A and the core particles B are dispersed to thereby attach the shell particles A to the surface of each of the core particles B, the shell particles A and the core particles B satisfying the following relationships to; A zeta potential of the core particles B and a zeta potential of the shell particles A are the same polarity. |Zeta potential of the core particles B when adding the metal salt | < | Zeta potential of the shell particles A when adding the metal salt| (Median diameter based on a volume of the core particles B) > (Median diameter based on a volume of the shell particles A), wherein the zeta potential is measured according to the description. mixing an aqueous dispersion of resin fine particles for core, and an aqueous dispersion of coloring agent fine particles, to prepare a mixed liquid, aggregating particles contained in the prepared mixed liquid to form an aggregate, heating the aggregate to a temperature equal to or higher than a glass transition point (Tg) of the resin fine particles for fusion to thereby manufacture the core particles B in which a surface of the aggregate is smoothened, obtaining an aqueous medium containing the core particles B, adding shell particles A to the aqueous medium containing the core particles B to thereby obtain an aqueous medium in which the shell particles A and the core particles B are dispersed; and adding metal salt into the aqueous medium in which the shell particles A and the core particles B are dispersed to thereby attach the shell particles A to the surface of each of the core particles B, A zeta potential of the core particles B and a zeta potential of the shell particles A are the same polarity. |Zeta potential of the core particles B when adding the metal salt | < | Zeta potential of the shell particles A when adding the metal salt| (Median diameter based on a volume of the core particles B) > (Median diameter based on a volume of the shell particles A), wherein the zeta potential is measured according to the description.
A method of fabricating a book block for a book-like document of value or security document, - in which one or several inner pages and an end paper are brought together so as to form a stack, - in which several binding holes arranged along a folding edge are realised in the at least one inner page and in the end paper or in which the binding holes of the at least one inner page and the end paper are aligned with respect to each other, - in which several threads (32, 33) are supplied and passed through the binding holes, and - in which the at least one inner page and the end paper are joined together so as to form a book block, - characterised in that - a thread connection is created in which the at least two threads (32, 33) are interlaced with each other and are passed through at least two binding holes and are led out from said holes at a common, inner surface of the end paper, and - in which the threads (32, 33) are pre-fastened on the end paper. - in which one or several inner pages and an end paper are brought together so as to form a stack, - in which several binding holes arranged along a folding edge are realised in the at least one inner page and in the end paper or in which the binding holes of the at least one inner page and the end paper are aligned with respect to each other, - in which several threads (32, 33) are supplied and passed through the binding holes, and - in which the at least one inner page and the end paper are joined together so as to form a book block, - characterised in that - a thread connection is created in which the at least two threads (32, 33) are interlaced with each other and are passed through at least two binding holes and are led out from said holes at a common, inner surface of the end paper, and - in which the threads (32, 33) are pre-fastened on the end paper.
A lighting system, comprising: a light source for generating a light source output; an optical system for focusing the light source output to a beam control plane; a first lens system for pre-shaping the light source output after the beam control plane; a first reflector, wherein the first lens system is adapted to direct light to the first reflector; a second reflector for generating an output beam from the light reflected by the first reflector; characterized by a beam control system located at the beam control plane, wherein the beam control system includes a pixelated display device for providing pixelated modulation of the light passing through the display device, and wherein he first reflector and second reflector are selected from the group consisting of: the first reflector is a hyperbolic mirror and the second reflector is a parabolic mirror, the first reflector is a hyperbolic mirror and the second reflector is a hyperbolic mirror, the first reflector and second reflector are spherical mirrors and the first reflector is a planar mirror and the second reflector is a hyperbolic mirror. a light source for generating a light source output; an optical system for focusing the light source output to a beam control plane; a first lens system for pre-shaping the light source output after the beam control plane; a first reflector, wherein the first lens system is adapted to direct light to the first reflector; a second reflector for generating an output beam from the light reflected by the first reflector; characterized by a beam control system located at the beam control plane, wherein the beam control system includes a pixelated display device for providing pixelated modulation of the light passing through the display device, and wherein he first reflector and second reflector are selected from the group consisting of: the first reflector is a hyperbolic mirror and the second reflector is a parabolic mirror, the first reflector is a hyperbolic mirror and the second reflector is a hyperbolic mirror, the first reflector and second reflector are spherical mirrors and the first reflector is a planar mirror and the second reflector is a hyperbolic mirror.
An abnormality monitoring system based on a roaming system, comprising a monitoring host, a mobile device terminal, and a roaming device group, wherein the roaming device group comprises a cluster service host and several roaming hosts; any one of the roaming hosts directly communicates with the mobile device terminal, and indirectly communicates with the monitoring host by the cluster service host; and any one of the roaming hosts is configured to: receive real-time data uploaded by the mobile device termina; determine, through analysis, whether the real-time data is normal or abnorma and when determining that the real-time data is abnormal, send a solving policy to the mobile device terminal to process the abnormal real-time data by the mobile device terminal, wherein the solving policy is information comprising a suggestion for solving a data abnormality problem; or if a solving policy corresponding to the abnormal real-time data cannot be found, report the abnormal real-time data to the monitoring host, and after receiving a solving policy fed back by the monitoring host, send, to the mobile device terminal corresponding to the abnormal real-time data to process the abnormal real-time data by the mobile device terminal, the solving policy fed back by the monitoring host. any one of the roaming hosts directly communicates with the mobile device terminal, and indirectly communicates with the monitoring host by the cluster service host; and any one of the roaming hosts is configured to: receive real-time data uploaded by the mobile device termina; determine, through analysis, whether the real-time data is normal or abnorma and when determining that the real-time data is abnormal, send a solving policy to the mobile device terminal to process the abnormal real-time data by the mobile device terminal, wherein the solving policy is information comprising a suggestion for solving a data abnormality problem; or if a solving policy corresponding to the abnormal real-time data cannot be found, report the abnormal real-time data to the monitoring host, and after receiving a solving policy fed back by the monitoring host, send, to the mobile device terminal corresponding to the abnormal real-time data to process the abnormal real-time data by the mobile device terminal, the solving policy fed back by the monitoring host. receive real-time data uploaded by the mobile device termina; determine, through analysis, whether the real-time data is normal or abnorma and when determining that the real-time data is abnormal, send a solving policy to the mobile device terminal to process the abnormal real-time data by the mobile device terminal, wherein the solving policy is information comprising a suggestion for solving a data abnormality problem; or if a solving policy corresponding to the abnormal real-time data cannot be found, report the abnormal real-time data to the monitoring host, and after receiving a solving policy fed back by the monitoring host, send, to the mobile device terminal corresponding to the abnormal real-time data to process the abnormal real-time data by the mobile device terminal, the solving policy fed back by the monitoring host.
Plant of the Compositae family exhibiting a reversible genic male sterility trait, characterised in that the genic male sterility is caused by a reduction or complete absence of endogenous jasmonic acid production, resulting from interference with a target gene involved in endogenous jasmonic acid production, wherein the target gene is 12-oxo-phytodienoic acid-10,11-reductase, and wherein the plant is a plant of the species Lactuca sativa and the target gene comprises a change from C to T at position 887 of SEQ ID No. 1, or wherein the plant is a plant of the species Cichorium endivia and the target gene comprises a change from C to A at position 273 of SEQ ID No. 2.
Motor vehicle comprising a number-plate holder for holding a number plate on a motor vehicle, wherein the number-plate holder comprises a retaining plate which is formed in one piece and comprises a first receiving means for holding the number plate, wherein the number-plate holder comprises a one-piece frame and the retaining plate comprises a second receiving means, to which the one-piece frame can be fastened in an interchangeable manner, such that the one-piece frame surrounds the entire retaining plate and the one-piece frame comprises a connection means that is opposite the second receiving means, wherein the one-piece frame is fastened to the retaining plate by means of the connection element and the second receiving means in a form-fitting manner and so as to be free of an additional connection element, characterised in that the one-piece frame can be detached from the retaining plate again without using a tool.
Green liquor clarification arrangement comprising at least one filter unit for filtering a flowing green liquor suspension containing solids wherein the suspension is brought into contact with said at least one filter unit, said filter unit comprising one or several filter elements, each comprising one or several filter bodies having filter channels within the filter bodies with a filtering layer, wherein a part of the suspension is forced to pass through the filtering layer from a first / inner surface to a second / outer surface of the filtering layer forming a filtrate while the solids substantially remains in a residual part of the suspension forming a slurry characterized in that said filter channels have a converging cross-sectional area to facilitate constant flow rate through the filter channels such that the Reynolds Number can be maintained within the entire length of the filter channels during the flow of the green liquor suspension, in that the filtering layer is made of a membrane material with pores, and said pores having a pore size of 0.1 - 10 micrometer, and in that the arrangement further comprises - a tank (41, 43) for green liquor suspension to be filtered arranged upstream of and connected to said at least one filter unit; - a pump (62, 620) for pumping the suspension to be filtered from said tank (41, 43) via a conduit (20, 200) to an inlet (13, 130) of said filter unit via another conduit (30, 300); - conduits (22, 24) and a valve (50, 500) arranged to recirculate a partial flow of the slurry from an outlet (14, 140) of the filter unit to said tank (41, 43); and - another valve (51, 510) for passing another partial flow of said slurry from said outlet (14, 140) of the filter unit. - a tank (41, 43) for green liquor suspension to be filtered arranged upstream of and connected to said at least one filter unit; - a pump (62, 620) for pumping the suspension to be filtered from said tank (41, 43) via a conduit (20, 200) to an inlet (13, 130) of said filter unit via another conduit (30, 300); - conduits (22, 24) and a valve (50, 500) arranged to recirculate a partial flow of the slurry from an outlet (14, 140) of the filter unit to said tank (41, 43); and - another valve (51, 510) for passing another partial flow of said slurry from said outlet (14, 140) of the filter unit.
A method for machining a workpiece using a cutting tool attached to a spindle, the method comprising: (a) defining an initial tool path of the cutting tool relative to a workpiece using part definition data; (b) causing the cutting tool to cut along the defined initial tool path relative to the workpiece; (c) receiving sensor data representing machining process conditions during said cutting along the defined initial tool path; (d) processing the sensor data to determine a value of a machining process force parameter; and (e) causing the cutting tool to cut along a modified tool path relative to the workpiece, wherein operations (b) through (e) are performed by a computer system; and causing the cutting tool to cut along a modified tool path relative to the workpiece changes the radial cutting depth during machining of the workpiece and ensures that values of the machining process force parameter does not exceed a machining process force constraint (a) defining an initial tool path of the cutting tool relative to a workpiece using part definition data; (b) causing the cutting tool to cut along the defined initial tool path relative to the workpiece; (c) receiving sensor data representing machining process conditions during said cutting along the defined initial tool path; (d) processing the sensor data to determine a value of a machining process force parameter; and (e) causing the cutting tool to cut along a modified tool path relative to the workpiece,