mhurhangee/ep-ind-claims huggingface dataset:
A method of producing aromatic hydrocarbons, the method comprising: a step of supplying a raw material stream to a C6 separation column, wherein the raw material stream includes a C5 hydrocarbon to a C10 hydrocarbon, supplying an upper discharge stream from the C6 separation column to a first gasoline hydrogenation unit, and supplying a lower discharge stream from the C6 separation column to a C7 separation column; a step of supplying an upper discharge stream from the C7 separation column to the first gasoline hydrogenation unit and supplying a lower discharge stream from the C7 separation column to a C8 separation column; a step of separating benzene and toluene from a discharge stream from the first gasoline hydrogenation unit; a step of removing a lower discharge stream from the C8 separation column and supplying an upper discharge stream from the C8 separation column to a second extractive distillation column; and a step of separating styrene from a lower discharge stream from the second extractive distillation column and separating xylene from an upper discharge stream from the second extractive distillation column, wherein an overhead stream of the C8 separation column is condensed by heat exchange with one or more streams in the process in one or more heat exchangers and then supplied to the second extractive distillation column as the upper discharge stream from the C8 separation column. a step of supplying a raw material stream to a C6 separation column, wherein the raw material stream includes a C5 hydrocarbon to a C10 hydrocarbon, supplying an upper discharge stream from the C6 separation column to a first gasoline hydrogenation unit, and supplying a lower discharge stream from the C6 separation column to a C7 separation column; a step of supplying an upper discharge stream from the C7 separation column to the first gasoline hydrogenation unit and supplying a lower discharge stream from the C7 separation column to a C8 separation column; a step of separating benzene and toluene from a discharge stream from the first gasoline hydrogenation unit; a step of removing a lower discharge stream from the C8 separation column and supplying an upper discharge stream from the C8 separation column to a second extractive distillation column; and a step of separating styrene from a lower discharge stream from the second extractive distillation column and separating xylene from an upper discharge stream from the second extractive distillation column, wherein an overhead stream of the C8 separation column is condensed by heat exchange with one or more streams in the process in one or more heat exchangers and then supplied to the second extractive distillation column as the upper discharge stream from the C8 separation column.
A blood processing system comprising: a first separation device comprising a spinning membrane device; a second separation device, comprising a spinning membrane device, a linking line between the first and the second separation device (1010, 1020) for flowing a non-targeted component comprising cellular blood components from the first separation device to the second separation device, wherein the first separation device is adapted to receive blood from a blood source and separate a portion of a targeted component from the blood, and the second separation device is adapted to receive the non-targeted component remaining after separation by the first separation device and to separate an additional amount of the targeted component from the non-targeted component, wherein the second separation device is configured to be spun at a slower speed than a speed at which the first separation device is spun. a first separation device comprising a spinning membrane device; a second separation device, comprising a spinning membrane device, a linking line between the first and the second separation device (1010, 1020) for flowing a non-targeted component comprising cellular blood components from the first separation device to the second separation device, wherein the first separation device is adapted to receive blood from a blood source and separate a portion of a targeted component from the blood, and the second separation device is adapted to receive the non-targeted component remaining after separation by the first separation device and to separate an additional amount of the targeted component from the non-targeted component, wherein the second separation device is configured to be spun at a slower speed than a speed at which the first separation device is spun.
A device for managing a sample to be analyzed, wherein the sample is attached to magnetically amplifying material, the magnetically amplifying material having a relative magnetic permeability constant greater than one, the device comprising a dispensing element (103, 203) for dispensing the sample to a sample well and magnetizing equipment (102, 202, 302, 402, 502) for producing a magnetic field capable of interacting, when the sample is moving to the sample well, with the magnetically amplifying material attached to the sample, characterized in that the magnetizing equipment (102, 202) is arranged to produce the magnetic field on a route of the sample from the dispensing element to the sample well, and the device further comprises a sensor (106, 206) for detecting a change caused in the magnetic field by the magnetically amplifying material attached to the sample moving to the sample well so as to monitor whether the sample is correctly moved to the sample well.
An optical apparatus comprising: a light source configured to emit light composed of a sequence of shots; and a steering device optically coupled to the light source and configured to steer the shots emitted by the light source in accordance with a predefined scan pattern such that at least one intermediate shot is emitted by the light source between a first shot directed by the steering device within an aperture defined by an eye safety regulation and a subsequent, second shot directed by the steering device within the same aperture, each intermediate shot being directed by the steering device outside the aperture., wherein an energy of each shot is determined based on an Accessible Emission Limit defined by the eye safety regulation as a defined amount of energy incident on the aperture during a predetermined time interval, and wherein the energy of each shot is: Es = AEL t × N + 1 T where Es is the energy of each shot, AEL is the defined amount of energy incident on the aperture during the predetermined time interval, t is the duration of the predetermined time interval, N is the number of intermediate shots, and T is the shot period. a light source configured to emit light composed of a sequence of shots; and a steering device optically coupled to the light source and configured to steer the shots emitted by the light source in accordance with a predefined scan pattern such that at least one intermediate shot is emitted by the light source between a first shot directed by the steering device within an aperture defined by an eye safety regulation and a subsequent, second shot directed by the steering device within the same aperture, each intermediate shot being directed by the steering device outside the aperture., wherein an energy of each shot is determined based on an Accessible Emission Limit defined by the eye safety regulation as a defined amount of energy incident on the aperture during a predetermined time interval, and wherein the energy of each shot is: Es = AEL t × N + 1 T where Es is the energy of each shot, AEL is the defined amount of energy incident on the aperture during the predetermined time interval, t is the duration of the predetermined time interval, N is the number of intermediate shots, and T is the shot period.
A rewinding machine for producing rolls of web material, comprising: a path for feeding the web material; a first winding roller and a second winding roller defining a nip across which the web material passes; downstream of said nip a third winding roller with movable axis, cooperating with the first winding roller and the second winding roller to form a winding cradle for said rolls; characterized by an auxiliary winding roller with movable axis which can be inserted between the first winding roller and the second winding roller downstream of the nip. a path for feeding the web material; a first winding roller and a second winding roller defining a nip across which the web material passes; downstream of said nip a third winding roller with movable axis, cooperating with the first winding roller and the second winding roller to form a winding cradle for said rolls; characterized by an auxiliary winding roller with movable axis which can be inserted between the first winding roller and the second winding roller downstream of the nip.
A method of preparing a shelf-stable processed grain product, said method comprising: a first heating of a processed grain product having an initial temperature and a water activity value of about 0.65 or less, the processed grain product further having an initial characteristic that is hard and brittle, whereby the processed grain product reaches a first elevated temperature that is higher than the initial temperature; a first cooling of the processed grain product whereby the processed grain product reaches a first reduced temperature that is less than the first elevated temperature; a second heating of the processed grain product whereby the processed grain product reaches a second elevated temperature that is greater than the first reduced temperature; a second cooling of the processed grain product whereby the processed grain product reaches a second reduced temperature that is less than the second elevated temperature; and a third heating of the processed grain product whereby the processed grain product reaches a third elevated temperature that is greater than the second reduced temperature, wherein each of said first heating, said second heating, and said third heating are performed substantially without addition of moisture to the processed grain product and wherein following said third heating of the processed grain product, the processed grain product has a water activity value of about 0.65 or less and a subsequent characteristic that is softer and more pliable compared to the initial characteristic of the processed grain product prior to said first heating thereof. a first heating of a processed grain product having an initial temperature and a water activity value of about 0.65 or less, the processed grain product further having an initial characteristic that is hard and brittle, whereby the processed grain product reaches a first elevated temperature that is higher than the initial temperature; a first cooling of the processed grain product whereby the processed grain product reaches a first reduced temperature that is less than the first elevated temperature; a second heating of the processed grain product whereby the processed grain product reaches a second elevated temperature that is greater than the first reduced temperature; a second cooling of the processed grain product whereby the processed grain product reaches a second reduced temperature that is less than the second elevated temperature; and a third heating of the processed grain product whereby the processed grain product reaches a third elevated temperature that is greater than the second reduced temperature, wherein each of said first heating, said second heating, and said third heating are performed substantially without addition of moisture to the processed grain product and wherein following said third heating of the processed grain product, the processed grain product has a water activity value of about 0.65 or less and a subsequent characteristic that is softer and more pliable compared to the initial characteristic of the processed grain product prior to said first heating thereof.
Detection method of somatic genetic anomalies potentially present in a solid tissue sample, potentially cancerous, taken from a subject, wherein said detection method comprises the following steps: (a) shearing of the genomic DNA extracted from said solid tissue sample, to obtain sheared genomic DNA; (b) preparing a library by hybridization capture from the sheared genomic DNA obtained at step (a), by the implementation of a combination of at least 51 capture probes having at least 110 nucleotides in length and at least 75% sequence homology with respectively SEQ ID NO:1 to SEQ ID NO:51, the combination of said at least 51 capture probes being able to hybridize on fragments from the following target regions: ALK, BRAF, EGFR, EIF1AY, ERBB2, ERBB4, KDR, KIT, KRAS, MAP2K1, MET, NRAS, PDGFRA, SLC28A1, TP53; (c) sequencing of sheared genomic DNA contained in the library issued at step (b), and (d) analyzing of the sequences of said sheared genomic DNA obtained at step (c), for detecting somatic genetic anomalies in said tissue sample. (a) shearing of the genomic DNA extracted from said solid tissue sample, to obtain sheared genomic DNA; (b) preparing a library by hybridization capture from the sheared genomic DNA obtained at step (a), by the implementation of a combination of at least 51 capture probes having at least 110 nucleotides in length and at least 75% sequence homology with respectively SEQ ID NO:1 to SEQ ID NO:51, the combination of said at least 51 capture probes being able to hybridize on fragments from the following target regions: ALK, BRAF, EGFR, EIF1AY, ERBB2, ERBB4, KDR, KIT, KRAS, MAP2K1, MET, NRAS, PDGFRA, SLC28A1, TP53; (c) sequencing of sheared genomic DNA contained in the library issued at step (b), and (d) analyzing of the sequences of said sheared genomic DNA obtained at step (c), for detecting somatic genetic anomalies in said tissue sample.
Glutaryl histamine or a pharmaceutically acceptable salt thereof for use in the prevention or treatment of diseases caused by (+)RNA-containing viruses belonging to the Enterovirus genus or the Flavivirus genus.
Frame for a landing door of an elevator defining an opening, comprising: two lateral jambs (2, 3) substantially parallel; a crossbar; a sill; first fixing means for fixing the crossbar to upper ends (2a, 3a) of said lateral jambs (2, 3); second fixing means for fixing the sill to lower ends (2b, 3b) of said lateral jambs (2, 3), said second fixing means comprising at least one support bracket for supporting the sill that is fixed at the lower end (2b, 3b) of each of the lateral jambs (2, 3) at a pre-established height that is adjustable with respect to the ground or floor, characterised in that it comprises a reinforcement plate for each of the two ends (4a, 4b) of said crossbar, said first fixing means being operatively active on each reinforcement plate to fix it to the corresponding end (4a, 4b) of the crossbar and to the upper end (2a, 3a) of the corresponding lateral jamb (2, 3). two lateral jambs (2, 3) substantially parallel; a crossbar; a sill; first fixing means for fixing the crossbar to upper ends (2a, 3a) of said lateral jambs (2, 3); second fixing means for fixing the sill to lower ends (2b, 3b) of said lateral jambs (2, 3), said second fixing means comprising at least one support bracket for supporting the sill that is fixed at the lower end (2b, 3b) of each of the lateral jambs (2, 3) at a pre-established height that is adjustable with respect to the ground or floor, characterised in that it comprises a reinforcement plate for each of the two ends (4a, 4b) of said crossbar, said first fixing means being operatively active on each reinforcement plate to fix it to the corresponding end (4a, 4b) of the crossbar and to the upper end (2a, 3a) of the corresponding lateral jamb (2, 3).
An in vitro composition comprising mammalian cells for use in detecting antibodies, wherein the composition comprises mammalian cells that are modified by disruption of the gene encoding lens epithelium-derived growth factor (LEDGF) protein such that they do not comprise LEDGF protein (LEDGF- cells), wherein the LEDGF- cells are immobilized on a solid substrate and are killed and permeabilized; and wherein the composition further comprises mammalian cells that comprise the LEDGF protein (LEDGF+ cells), wherein the LEDGF+ cells are immobilized on the solid substrate and are killed and permeabilized.
A method performed by a network node using beamforming for scheduling transmissions between the network node and one or more wireless devices in the same physical layer resources, the network node being operable in a wireless communication system, the method comprising: - selecting a beam for a transmission between the network node and a first one of the wireless devices, - determining if a portion of physical layer resources remains available after allocating portions of physical layer resources to a first set of one or more wireless devices within transmission range of the selected beam; - if at least a portion of physical layer resources remains available, adjusting the selected beam such that a second set of one or more additional wireless devices not within transmission range of the initially selected beam are within transmission range of the adjusted beam, - if no portion of physical layer resources remains available after allocating portions of physical layer resources to the first and second sets of wireless devices and if there are enough physical layer resources for transmission between the network node and the first and second sets of wireless devices using the adjusted beam: scheduling transmission(s) between the network node and the first and second sets of wireless devices using the adjusted beam - after adjusting the selected beam or further adjusting any previously adjusted beam, updating a Modulation and Coding Scheme, MCS, for the set(s) of wireless devices within transmission range of the previously selected beam. - selecting a beam for a transmission between the network node and a first one of the wireless devices, - determining if a portion of physical layer resources remains available after allocating portions of physical layer resources to a first set of one or more wireless devices within transmission range of the selected beam; - if at least a portion of physical layer resources remains available, adjusting the selected beam such that a second set of one or more additional wireless devices not within transmission range of the initially selected beam are within transmission range of the adjusted beam, - if no portion of physical layer resources remains available after allocating portions of physical layer resources to the first and second sets of wireless devices and if there are enough physical layer resources for transmission between the network node and the first and second sets of wireless devices using the adjusted beam: scheduling transmission(s) between the network node and the first and second sets of wireless devices using the adjusted beam - after adjusting the selected beam or further adjusting any previously adjusted beam, updating a Modulation and Coding Scheme, MCS, for the set(s) of wireless devices within transmission range of the previously selected beam.
An apparatus for identifying a position of an abnormality having occurred in a secondary battery system including a plurality of modules each formed by accommodating one or more blocks in a casing, the blocks each being formed by connecting two or more secondary battery cells, the apparatus comprising: a voltage measurement unit configured to detect voltage of the secondary battery cells of each block in accordance with a predetermined monitoring cycle, and output the detected voltages as respective block voltage for each block; an information acquisition unit configured to receive the respective block voltages for each block, determine, for each block voltage, whether a difference (ΔV) between the respective block voltage and a corresponding block voltage with a first order lag (Vr) exceeds a predetermined voltage threshold value (Vth), and acquire information about a module among the modules that accommodates the block of which the difference has been determined as exceeding the voltage threshold value (Vth); a notification reception unit configured to receive a notification of an abnormality having occurred in the secondary battery cells; and a module identification unit configured to identify, at the time of receiving a notification of an abnormality having occurred in the secondary battery cells by the notification reception unit, a module corresponding to the information about the module, as a module having the abnormality. a voltage measurement unit configured to detect voltage of the secondary battery cells of each block in accordance with a predetermined monitoring cycle, and output the detected voltages as respective block voltage for each block; an information acquisition unit configured to receive the respective block voltages for each block, determine, for each block voltage, whether a difference (ΔV) between the respective block voltage and a corresponding block voltage with a first order lag (Vr) exceeds a predetermined voltage threshold value (Vth), and acquire information about a module among the modules that accommodates the block of which the difference has been determined as exceeding the voltage threshold value (Vth); receive the respective block voltages for each block, determine, for each block voltage, whether a difference (ΔV) between the respective block voltage and a corresponding block voltage with a first order lag (Vr) exceeds a predetermined voltage threshold value (Vth), and acquire information about a module among the modules that accommodates the block of which the difference has been determined as exceeding the voltage threshold value (Vth); a notification reception unit configured to receive a notification of an abnormality having occurred in the secondary battery cells; and a module identification unit configured to identify, at the time of receiving a notification of an abnormality having occurred in the secondary battery cells by the notification reception unit, a module corresponding to the information about the module, as a module having the abnormality.
A process for improving the stability of an aqueous suspension of silicate shell microcapsules comprising adding a colloidal silicate sequestering agent to an aqueous suspension of silicate shell microcapsules and colloidal silicate particles; wherein the colloidal silicate sequestering agent is an organofunctional silane selected from cetrimoniumpropyltrimethoxysilane chloride or a silicone polyether.