mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for transmitting and receiving a data in Near Field Communications, NFC, the apparatus being adapted to: set up (110,120,130;511,512,513) a communication link between an initiator and a target that perform NFC; aggregate (200,201,600) a plurality of data packet units for transmission to form an aggregated frame; and transmit (300,301,700) the aggregated frame to a counterpart NFC device, wherein the aggregated frame comprises an identifier of a frame type indicating whether the plurality of data packet units included in the aggregated frame is aggregated, wherein the aggregated frame comprises a Destination Service Access Point, DSAP, field, a Source Service Access Point, SSAP, field, a control field including the identifier of the frame type, and a data information field including a data payload, wherein the data payload includes the plurality of aggregated data packet units, and a field for recording a plurality of sequence numbers associated with transmission of the plurality of data packet units and reception thereof is not included in the data information field independently of the data payload, and wherein the aggregating includes placing each of a plurality of length information fields respectively in front of each of the plurality of data packet units, the number of length information fields is the same as the number of data packet units, and each of the length information fields alternates with each of the packet data units. set up (110,120,130;511,512,513) a communication link between an initiator and a target that perform NFC; aggregate (200,201,600) a plurality of data packet units for transmission to form an aggregated frame; and transmit (300,301,700) the aggregated frame to a counterpart NFC device, wherein the aggregated frame comprises an identifier of a frame type indicating whether the plurality of data packet units included in the aggregated frame is aggregated, wherein the aggregated frame comprises a Destination Service Access Point, DSAP, field, a Source Service Access Point, SSAP, field, a control field including the identifier of the frame type, and a data information field including a data payload, wherein the data payload includes the plurality of aggregated data packet units, and a field for recording a plurality of sequence numbers associated with transmission of the plurality of data packet units and reception thereof is not included in the data information field independently of the data payload, and wherein the aggregating includes placing each of a plurality of length information fields respectively in front of each of the plurality of data packet units, the number of length information fields is the same as the number of data packet units, and each of the length information fields alternates with each of the packet data units.
A method of commissioning an energy storage system, comprising: connecting a first energy storage system to a power source; connecting the first energy storage system to a battery module; receiving, by the first energy storage system, power from the power source; energizing, by the first energy storage system via the power source, the battery module; articulating one or more battery contactors within the first energy storage system to selectively couple the battery module to the power source; processing a battery contactor status of the one or more battery contactors to detect a battery contactor error comprising a stuck battery contactor; in response to detecting the at least one stuck battery contactor, prompting, a user to manually correct the at least one stuck battery contactor; disengaging, by a battery-management system responsive to not detecting any battery contactor errors, the battery module at the first energy storage system; and determining a status of the energy storage system. connecting a first energy storage system to a power source; connecting the first energy storage system to a battery module; receiving, by the first energy storage system, power from the power source; energizing, by the first energy storage system via the power source, the battery module; articulating one or more battery contactors within the first energy storage system to selectively couple the battery module to the power source; processing a battery contactor status of the one or more battery contactors to detect a battery contactor error comprising a stuck battery contactor; in response to detecting the at least one stuck battery contactor, prompting, a user to manually correct the at least one stuck battery contactor; disengaging, by a battery-management system responsive to not detecting any battery contactor errors, the battery module at the first energy storage system; and determining a status of the energy storage system.
A method for preparing surface modified nano silicon dioxide from rice hulls, the method comprising: 1) pretreating rice hulls using a treating gas containing CO 2 to remove metal ions and dusts, and desiccating and grinding the rice hulls; 2) submerging the rice hulls into a dilute solution of phosphoric acid, boric acid, hydrochloric acid, formic acid, acetic acid, propionic acid, butyric acid, or a strong-acid-weak-base salt for between 4 and 8 hrs, controlling the immersion temperature not to exceed 10°C, leaching the resulting mixture, removing the filtrate, and desiccating the rice hulls; and 3) calcining the rice hulls in the absence of oxygen at a temperature of between 300 and 450°C, whereby obtaining a surface modified nano silicon dioxide. 1) pretreating rice hulls using a treating gas containing CO 2 to remove metal ions and dusts, and desiccating and grinding the rice hulls; 2) submerging the rice hulls into a dilute solution of phosphoric acid, boric acid, hydrochloric acid, formic acid, acetic acid, propionic acid, butyric acid, or a strong-acid-weak-base salt for between 4 and 8 hrs, controlling the immersion temperature not to exceed 10°C, leaching the resulting mixture, removing the filtrate, and desiccating the rice hulls; and 3) calcining the rice hulls in the absence of oxygen at a temperature of between 300 and 450°C, whereby obtaining a surface modified nano silicon dioxide.
A mounting system for a crane, with a cage movable along a tower of the crane, which may be removably connected to an upper part of the crane by connection elements, characterized by at least one fastening element for fastening which prevents accidental loosening of at least one connection element, the loosening of the at least one fastening element being exclusively possible using an unlocking means; wherein the connection elements each cooperate with a cage complementary connection element and with an upper part complementary connection element; and wherein the fastening element is realized in the form of a padlock passed in particular through a transverse bore of the connection element, said fastening element preventing accidental removal of the connection element from the aligned complementary connection elements (29, 30). the loosening of the at least one fastening element being exclusively possible using an unlocking means; wherein the connection elements each cooperate with a cage complementary connection element and with an upper part complementary connection element; and wherein the fastening element is realized in the form of a padlock passed in particular through a transverse bore of the connection element, said fastening element preventing accidental removal of the connection element from the aligned complementary connection elements (29, 30).
A method of ATP regeneration in a recombinase enzyme reaction comprising providing to the recombinase enzyme reaction: (i) phosphocreatine and creatine kinase, or (ii) phospho-phenyl-pyruvate and pyruvate kinase; (iii) pyrophosphatase which converts pyrophosphate to orthophosphate; (iv) sucrose and sucrose phosphorylase; and (v) optionally, myokinase; wherein AMP or ADP is enzymatically converted to ATP by (i) or (ii), and (iv) reacts with accumulated orthophosphate. (i) phosphocreatine and creatine kinase, or (ii) phospho-phenyl-pyruvate and pyruvate kinase; (iii) pyrophosphatase which converts pyrophosphate to orthophosphate; (iv) sucrose and sucrose phosphorylase; and (v) optionally, myokinase;
A sheet stacking apparatus comprising: - a sheet alignment mechanism configured for aligning a sheet in a predetermined reference position; - a gripper arrangement configured to grip the aligned sheet at at least two spaced-apart points of the sheet and to release the sheet on a stack; and - a holder configured to hold the sheet in position on the stack while the gripper arrangement releases the sheet, wherein the gripper arrangement is movable along a predetermined trajectory for moving the sheet from the reference position to a stacking position, characterized in that the gripper arrangement is adapted to be moved unidirectionally along a closed path. - a sheet alignment mechanism configured for aligning a sheet in a predetermined reference position; - a gripper arrangement configured to grip the aligned sheet at at least two spaced-apart points of the sheet and to release the sheet on a stack; and - a holder configured to hold the sheet in position on the stack while the gripper arrangement releases the sheet, wherein the gripper arrangement is movable along a predetermined trajectory for moving the sheet from the reference position to a stacking position, characterized in that the gripper arrangement is adapted to be moved unidirectionally along a closed path.
Process for preparing diaryl carbonate and gaseous hydrogen chloride from monohydroxyaromatics and phosgene in the melt in the presence of at least one catalyst and without addition of additional solvent, characterized in that the by-products have been removed from the gaseous hydrogen chloride formed by subjecting it to at least one distillation and at least one further purification measure selected from the group consisting of condensation and scrubbing.
A prepreg formed by impregnating sizing agent-coated carbon fibers coated with a sizing agent with a thermosetting resin composition, wherein the sizing agent contains an aliphatic epoxy compound and an aromatic compound at least containing an aromatic epoxy compound, wherein the sizing agent at least contains the aliphatic epoxy compound in an amount of 35 to 65% by mass and the aromatic compound in an amount of 35 to 60% by mass relative to a total amount of the sizing agent except a solvent, and wherein a mass ratio of the aliphatic epoxy compound and the aromatic epoxy compound is 52/48 to 80/20; the sizing agent-coated carbon fibers has an (a)/(b) ratio of 0.50 to 0.90 where (a) is a height (cps) of a component at a binding energy (284.6 eV) assigned to CHx, C-C, and C=C and (b) is a height (cps) of a component at a binding energy (286.1 eV) assigned to C-O in a C 1s core spectrum of a surface of the sizing agent applied onto the carbon fibers analyzed by X-ray photoelectron spectroscopy using Alkα 1,2 as an X-ray source at a photoelectron takeoff angle of 15°, the thermosetting resin composition contains a thermosetting resin, a latent curing agent, and at least one of the following and: thermoplastic resin particles or fibers and conductive particles or fibers; and conductive particles or fibers whose thermoplastic resin nucleus or core is covered with a conductive substance, when containing, the thermosetting resin composition contains the thermoplastic resin particles or fibers and the conductive particles or fibers in a mass ratio of 1:1 to 1,000, and the prepreg includes an interlayer formative layer containing and and/or on a surface of a layer formed of the carbon fibers. thermoplastic resin particles or fibers and conductive particles or fibers; and conductive particles or fibers whose thermoplastic resin nucleus or core is covered with a conductive substance,
A frictional power transmission belt comprising a frictional power transmission surface formed of a composite fibrous layer comprising a fibrous member, an isocyanate compound, and a resin component, wherein the fibrous member contains a cellulose-based fiber.
An oncolytic poxvirus defective in the J2R locus comprising a nucleotide sequence encoding a cytidine deaminase (CDAse) polypeptide, preferably selected from the group consisting of CDA, CDD, EC 3.5.4.5, APOBEC, AID and cytidine deaminase-like proteins.
An automated peritoneal dialysis ("APD") machine comprising: at least one pump; a logic implementer storing a plurality of therapy prescriptions by which to operate the at least one pump, including prescriptions that specify different amounts of ultrafiltration ("UF"), each therapy prescription pre-approved for a particular patient; and an input device operating with the logic implementer to allow the patient to select one of the therapy prescriptions for a particular therapy. at least one pump; a logic implementer storing a plurality of therapy prescriptions by which to operate the at least one pump, including prescriptions that specify different amounts of ultrafiltration ("UF"), each therapy prescription pre-approved for a particular patient; and an input device operating with the logic implementer to allow the patient to select one of the therapy prescriptions for a particular therapy.
An autonomous robot system for bounded areas, the system comprising: a navigation beacon (150, 202, 203, 304) with a gateway beacon emitter arranged to transmit a gateway marking emission (208, 316) with the navigation beacon disposed within a gateway between a first bounded area and an adjacent second bounded area; and an autonomous coverage robot (100, 212, 302) comprising: a beacon emission sensor (104, 106) responsive to the gateway marking emission (208, 316); and a drive system (130, 132) configured to maneuver the robot about the first bounded area in a cleaning mode in which the robot is redirected in response to detecting the gateway marking emission (208, 316); characterized in that the drive system (130, 132) is also configured to maneuver the robot through the gateway across the gateway marking emission (208, 316) into the second bounded area in a migration mode, wherein the robot is non-responsive to the gateway marking emission while in the migration mode. a navigation beacon (150, 202, 203, 304) with a gateway beacon emitter arranged to transmit a gateway marking emission (208, 316) with the navigation beacon disposed within a gateway between a first bounded area and an adjacent second bounded area; and an autonomous coverage robot (100, 212, 302) comprising: a beacon emission sensor (104, 106) responsive to the gateway marking emission (208, 316); and a drive system (130, 132) configured to maneuver the robot about the first bounded area in a cleaning mode in which the robot is redirected in response to detecting the gateway marking emission (208, 316); characterized in that the drive system (130, 132) is also configured to maneuver the robot through the gateway across the gateway marking emission (208, 316) into the second bounded area in a migration mode, wherein the robot is non-responsive to the gateway marking emission while in the migration mode. a beacon emission sensor (104, 106) responsive to the gateway marking emission (208, 316); and a drive system (130, 132) configured to maneuver the robot about the first bounded area in a cleaning mode in which the robot is redirected in response to detecting the gateway marking emission (208, 316); characterized in that the drive system (130, 132) is also configured to maneuver the robot through the gateway across the gateway marking emission (208, 316) into the second bounded area in a migration mode, wherein the robot is non-responsive to the gateway marking emission while in the migration mode.
Heating cost allocator intended to be fixed on a heating element and having, in a housing, an electronic card connected to a first temperature sensor intended for the measurement of the external temperature and disposed close to said housing and to a second temperature sensor intended for the measurement of the temperature of the said heating element, said electronic card comprising at least one flexible branch produced in one piece with this card, formed by cutting out from said card, bearing said first temperature sensor intended for measurement of the external temperature and characterised in that the branch is bent in order to place this first temperature sensor close to said housing.
A method for preparing a lithium iron phosphate nanopowder, comprising the steps of: (a) preparing a non-aqueous mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a non-aqueous triethanolamine solvent; (b) putting the non-aqueous mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 10 to 100 bar, wherein Step (b) is performed at a temperature range of 150 to 335°C (a) preparing a non-aqueous mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a non-aqueous triethanolamine solvent; (b) putting the non-aqueous mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 10 to 100 bar,
A burner for a second combustion chamber of a gas turbine plant with sequential combustion having a first and a second combustion chamber, with a burner wall which laterally delimits a mixing space of the burner, a lance in the mixing space for introducing gaseous fuel into the burner having a shaft, and one base, which extends transversely with respect to a main flow direction of the burner and which is fastened to the burner wall, the shaft having a longitudinal mid-axis oriented parallel to the main flow direction, and having at least one nozzle for introducing gaseous fuel into the burner with a main injection direction towards a burner wall, wherein an introduction device is provided on the burner wall, for introduction of a diverting fluid into the burner and that the main introduction direction of the introduction device is towards the longitudinal mid-axis of the shaft for diverting the gaseous fuel injected by the at least one nozzle and counteracting an impingement of the fuel flow onto the burner wall.
A method for modifying nanofibrillar cellulose composition, comprising - preparing fibrous dispersion of ionically charged nanofibrillar cellulose, characterized by - applying heat treatment at a temperature of at least 90°C to the fibrous dispersion until the viscosity of the nanofibrillar cellulose starts to decrease. - preparing fibrous dispersion of ionically charged nanofibrillar cellulose, characterized by - applying heat treatment at a temperature of at least 90°C to the fibrous dispersion until the viscosity of the nanofibrillar cellulose starts to decrease.
A dispensing machine assembly comprising one or more modules or subassemblies, at least one of said modules being provided with a readable memory device, or tag, having a read-only memory portion and a writeable memory portion, said machine comprising a controller device, including a tag reader, for interacting with said memory device, wherein said tag contains a re-writable memory portion containing initial data concerning an amount of consumables, said data being progressively altered by said controller device in said tag re-writable memory portion with the module use, wherein use of said module is denied after all data have been altered.
An epicyclic gear train comprising a driving pinion, which is rotatable around a central axis, driving a plurality of planetary gears, each planetary gear being attached to a planetary holder and rotating around a planetary axis, and having at least one gear portion (39, 41), meshing with at least one ring gear (9; 8, 10), the planetary holder or said at least one ring gear (9; 8, 10) being stationary, the at least one ring gear (9; 8, 10) or the planetary holder thereby being made to rotate about the central axis of the epicyclic gear train, wherein each planetary gear is attached to the planetary holder via a planetary connector which is rotatable around an axis which is offset from the planetary axis, such that turning said planetary connector alters the distance between the central axis and the planetary axis by means of an eccentric connection, characterised by each of said planetary connectors being rotatingly pre-tensioned to apply a pressure on the planetary axis away from the central axis, and each of said planetary connectors being attached to the planetary holder by means of a set of bearings.
A calibration device of a fluid replacement pump in a hemodialysis system comprising a dialysate chamber (21, 22) divided into a supply chamber (21a, 22a) and a recovery chamber (21b, 22b) by a diaphragm, a dialysate supply passage connecting the supply chamber (21a, 22a) and a dialyzer, a dialysate recovery passage connecting the dialyzer and the recovery chamber (21b, 22b), a dialysate pump provided in the dialysate recovery passage, a blood circuit connected to the dialyzer, a fluid replacement passage connected to the dialysate supply passage and the blood circuit, the fluid replacement pump provided in the fluid replacement passage, and control means for controlling the dialysate pump and the fluid replacement pump, characterized in that the control means executes: a first operation of operating the dialysate pump at a predetermined set flow rate to obtain total discharge time until dialysate supplied to fill the supply chamber runs out, a second operation of operating the fluid replacement pump at a predetermined set flow rate only for predetermined time, to discharge a part of the dialysate supplied to fill the supply chamber (21a, 22a), a third operation of operating the dialysate pump at the same set flow rate as in the first operation, to obtain remaining discharge time until residual dialysate remaining in the supply chamber (21a, 22a) runs out after the end of the second operation, and a fluid replacement pump calibrating operation of calculating a substantial flow rate of the fluid replacement pump from the total discharge time and the remaining discharge time, and adjusting setting of the fluid replacement pump to eliminate a difference in a case where there is the difference between the set flow rate and the substantial flow rate in the fluid replacement pump. a first operation of operating the dialysate pump at a predetermined set flow rate to obtain total discharge time until dialysate supplied to fill the supply chamber runs out, a second operation of operating the fluid replacement pump at a predetermined set flow rate only for predetermined time, to discharge a part of the dialysate supplied to fill the supply chamber (21a, 22a), a third operation of operating the dialysate pump at the same set flow rate as in the first operation, to obtain remaining discharge time until residual dialysate remaining in the supply chamber (21a, 22a) runs out after the end of the second operation, and a fluid replacement pump calibrating operation of calculating a substantial flow rate of the fluid replacement pump from the total discharge time and the remaining discharge time, and adjusting setting of the fluid replacement pump to eliminate a difference in a case where there is the difference between the set flow rate and the substantial flow rate in the fluid replacement pump.