mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: obtaining (516;702) field data for a field that was generated prior to an agricultural harvesting machine operating on the field, the field data representing an estimated yield map of the field; obtaining yield data, that is georeferenced to the field, based on a signal from a yield sensor on the agricultural harvesting machine , the yield sensor detecting an instantaneous aggregate yield as material passes the yield sensor within the harvesting machine ; applying a flow model to the yield data to generate an actual yield map, the flow model having a set of parameters that models material flow through a harvesting system of the agricultural harvesting machine to allocate the aggregate yield sensed by the yield sensor to the corresponding field locations from which the material was harvested, characterized by obtaining (556;682) an adjusted set of parameters of the flow model based on a correlation between the actual yield map and the estimated yield map by adjusting the parameters of the flow model until a threshold correlation is achieved between the actual yield map and the estimated yield map, by modifying (532;688) the actual yield map based on the adjusted set of parameters; and by generating a control signal based on the modified yield map. obtaining (516;702) field data for a field that was generated prior to an agricultural harvesting machine operating on the field, the field data representing an estimated yield map of the field; obtaining yield data, that is georeferenced to the field, based on a signal from a yield sensor on the agricultural harvesting machine , the yield sensor detecting an instantaneous aggregate yield as material passes the yield sensor within the harvesting machine ; applying a flow model to the yield data to generate an actual yield map, the flow model having a set of parameters that models material flow through a harvesting system of the agricultural harvesting machine to allocate the aggregate yield sensed by the yield sensor to the corresponding field locations from which the material was harvested, characterized by obtaining (556;682) an adjusted set of parameters of the flow model based on a correlation between the actual yield map and the estimated yield map by adjusting the parameters of the flow model until a threshold correlation is achieved between the actual yield map and the estimated yield map, by modifying (532;688) the actual yield map based on the adjusted set of parameters; and by generating a control signal based on the modified yield map.
A process for the preparation of crystalline miglustat of formula (I) comprising the steps of: reacting 2,3,4,6-tetra-O-benzyl-1-deoxynojirimycin hydrochloride of formula (V) with n-butyraldehyde and sodium cyanoborohydride in an organic solvent to prepare 2, 3, 4, 6-tetra-O-benzyl-N-butyl-1-deoxynojirimycin hydrochloride of formula (VI); reacting 2, 3, 4, 6-tetra-O-benzyl-N-butyl-1-deoxynojirimycin hydrochloride of formula (VI) with hydrogen in the presence of 10% Pd/C and HCI to produce miglustat hydrochloric salt of formula (III); dissolving miglustat hydrochloric salt of formula (III) in a first solvent and adding an organic base; optionally removing the first solvent, and adding a second solvent to crystalize miglustat of formula (I); wherein none of the steps to involves the use of any flash column chromatography or ion exchange column. reacting 2,3,4,6-tetra-O-benzyl-1-deoxynojirimycin hydrochloride of formula (V) with n-butyraldehyde and sodium cyanoborohydride in an organic solvent to prepare 2, 3, 4, 6-tetra-O-benzyl-N-butyl-1-deoxynojirimycin hydrochloride of formula (VI); reacting 2, 3, 4, 6-tetra-O-benzyl-N-butyl-1-deoxynojirimycin hydrochloride of formula (VI) with hydrogen in the presence of 10% Pd/C and HCI to produce miglustat hydrochloric salt of formula (III); dissolving miglustat hydrochloric salt of formula (III) in a first solvent and adding an organic base; optionally removing the first solvent, and adding a second solvent to crystalize miglustat of formula (I);
Slicing machine (10, 10.2, 10.3, 10.4) for elongate foodstuffs , - having at least one cutting knife for the elongate foodstuff , - having at least one motorized drive for the at least one cutting knife , - having a base frame to which the slicing machine (10, 10.2, 10.3, 10.4) is fastened in particular in a releasable manner, wherein at least parts of the slicing machine (10, 10.2, 10.4) are able to be moved out of the base frame at least to some extent, - having a receiving unit (40, 40.2, 40.4) for the foodstuff to be sliced, - characterized in that - the receiving unit (40, 40.2, 40.4) is able to be moved out of the base frame at least to some extent such that the slicing machine is transferable from a closed position into an open position, - the foodstuff to be sliced is introduced in the open position of the slicing machine, - the foodstuff is sliced in the closed position of the slicing machine. - having at least one cutting knife for the elongate foodstuff , - having at least one motorized drive for the at least one cutting knife , - having a base frame to which the slicing machine (10, 10.2, 10.3, 10.4) is fastened in particular in a releasable manner, wherein at least parts of the slicing machine (10, 10.2, 10.4) are able to be moved out of the base frame at least to some extent, - having a receiving unit (40, 40.2, 40.4) for the foodstuff to be sliced, - characterized in that - the receiving unit (40, 40.2, 40.4) is able to be moved out of the base frame at least to some extent such that the slicing machine is transferable from a closed position into an open position, - the foodstuff to be sliced is introduced in the open position of the slicing machine, - the foodstuff is sliced in the closed position of the slicing machine.
A machine tool comprising: a bed including a bottom surface; and legs arranged at three positions of the bottom surface, wherein the bed includes two oblique sides , characterized in that the two oblique sides are arranged such that the bottom surface has a triangular shape. a bed including a bottom surface; and legs arranged at three positions of the bottom surface, wherein the bed includes two oblique sides , characterized in that the two oblique sides are arranged such that the bottom surface has a triangular shape.
Method for producing a motor vehicle part provided with a cover , this method being characterised in that it comprises the following steps: (a) Supplying a part moulded in the shape of a shell, having a first side and a second side opposite said first side , (c) Removing, using cutting equipment, a portion of said part so as to create an opening therein such that the edge of said first side at this opening has a sharp angle, this portion forming said cover adapted to block this opening in the closed position, this cover having a first side whose edge has a sharp angle, (d) Integrating on said second side of the part and on said second side of the cover displacement means for displacing said cover relative to said part between said closed position and an open position. (a) Supplying a part moulded in the shape of a shell, having a first side and a second side opposite said first side , (c) Removing, using cutting equipment, a portion of said part so as to create an opening therein such that the edge of said first side at this opening has a sharp angle, this portion forming said cover adapted to block this opening in the closed position, this cover having a first side whose edge has a sharp angle, (d) Integrating on said second side of the part and on said second side of the cover displacement means for displacing said cover relative to said part between said closed position and an open position.
A device for providing an implantable lead with wireless energy, the device comprising: a housing configured for implantation in a patient's body; and one or more non-inductive antennas substantially enclosed within the housing and configured to receive electromagnetic energy radiated from a source located outside or inside of the patient's body; characterized in that the device further comprises: electronic circuitry coupled to each of the one or more non-inductive antennas and configured to extract electric power from the radiated electromagnetic energy as received by the one or more non-inductive antennas and condition the radiated electromagnetic energy as received by the one or more non-inductive antennas into excitation waveforms; and one or more connection pads substantially enclosed within the housing , wherein the connection pads are configured to couple with one or more electrodes in the implantable lead and form an electric connection over which the connection pads provide the excitation waveforms from the electronic circuit to the electrodes in the implantable lead , wherein the implantable lead is separate from the device . a housing configured for implantation in a patient's body; and one or more non-inductive antennas substantially enclosed within the housing and configured to receive electromagnetic energy radiated from a source located outside or inside of the patient's body; electronic circuitry coupled to each of the one or more non-inductive antennas and configured to extract electric power from the radiated electromagnetic energy as received by the one or more non-inductive antennas and condition the radiated electromagnetic energy as received by the one or more non-inductive antennas into excitation waveforms; and one or more connection pads substantially enclosed within the housing , wherein the connection pads are configured to couple with one or more electrodes in the implantable lead and form an electric connection over which the connection pads provide the excitation waveforms from the electronic circuit to the electrodes in the implantable lead , wherein the implantable lead is separate from the device .
An imaging system for printing on a recordable medium comprising: a thermal printhead mounted on a platform and capable of printing on the recordable medium; and a power receiver coil located in a power receiving coil housing which is mounted on the platform and capable of receiving wireless power for enabling printing on the recordable medium. a thermal printhead mounted on a platform and capable of printing on the recordable medium; and a power receiver coil located in a power receiving coil housing which is mounted on the platform and capable of receiving wireless power for enabling printing on the recordable medium.
A method of correcting for the effects of intensity fluctuations of incident light within an absorption spectroscopy system, comprising the steps of: controlling a light source to emit a wavelength modulated beam of light ; applying at least one modulation burst signal to perform one or more of modulating the wavelength modulated beam or modulating a separate beam synchronised with the wavelength modulated beam; detecting the modulated beam(s) of light after transmission through a sample medium; and processing the detected beam(s) to obtain at least one detected burst signal and to measure absorption effects of one or more measurands; characterised in that the at least one modulation burst signal is a tapering signal modulation and a smooth window function is employed to shape the burst signal, such that sudden signal transitions are avoided, and wherein the processing includes comparing the at least one detected burst signal with the applied at least one modulation burst signal to determine intensity fluctuations of the incident light that are separate from absorption effects of the measurand(s), and wherein the processing includes correcting for the effects of the determined intensity fluctuations for increased accuracy of measurement of the absorption effects of the measurand(s). controlling a light source to emit a wavelength modulated beam of light ; applying at least one modulation burst signal to perform one or more of modulating the wavelength modulated beam or modulating a separate beam synchronised with the wavelength modulated beam; detecting the modulated beam(s) of light after transmission through a sample medium; and processing the detected beam(s) to obtain at least one detected burst signal and to measure absorption effects of one or more measurands; characterised in that the at least one modulation burst signal is a tapering signal modulation and a smooth window function is employed to shape the burst signal, such that sudden signal transitions are avoided, and wherein the processing includes comparing the at least one detected burst signal with the applied at least one modulation burst signal to determine intensity fluctuations of the incident light that are separate from absorption effects of the measurand(s), and wherein the processing includes correcting for the effects of the determined intensity fluctuations for increased accuracy of measurement of the absorption effects of the measurand(s).
A wing , comprising: a wing-like member that has an end surface at a wing tip (IB); and a vortex generation portion that generates, from a fluid flowing in a wing chord direction of the wing-like member, a vortex and is provided in a region adjacent to the wing tip on an upper surface of the wing-like member so that the vortex generated at the vortex generation portion joins a wing tip vortex generated at the wing tip , wherein the vortex generation portion comprises at least one protruding member that forms a predetermined angle to a direction in which the fluid flows so as to come close to the wing tip from a leading-edge of the wing-like member toward a trailing-edge of the wing-like member, the vortex generated at the vortex generation portion has the same direction of rotation as that of the wing tip vortex generated at the wing tip (IB), and none of the protruding members is arranged such that the orientation of rotation of the vortex is opposite to that of the wing tip vortex. a wing-like member that has an end surface at a wing tip (IB); and a vortex generation portion that generates, from a fluid flowing in a wing chord direction of the wing-like member, a vortex and is provided in a region adjacent to the wing tip on an upper surface of the wing-like member so that the vortex generated at the vortex generation portion joins a wing tip vortex generated at the wing tip , wherein the vortex generation portion comprises at least one protruding member that forms a predetermined angle to a direction in which the fluid flows so as to come close to the wing tip from a leading-edge of the wing-like member toward a trailing-edge of the wing-like member, the vortex generated at the vortex generation portion has the same direction of rotation as that of the wing tip vortex generated at the wing tip (IB), and none of the protruding members is arranged such that the orientation of rotation of the vortex is opposite to that of the wing tip vortex.
Installation for the production of nuclear fuel powder comprising - a conversion installation for the conversion of uranium hexafluoride (UF 6 ) into uranium dioxide (UF 6 ), the conversion installation comprising: - a hydrolysis reactor for the conversion of UF 6 into uranium oxyfluoride powder (UO 2 F 2 ) by reaction between gaseous UF 6 and dry water vapor injected into the reactor ; and - a pyrohydrolysis furnace for converting the UO 2 F 2 powder into UO 2 powder by reacting the UO 2 F 2 powder with dry water vapor and gaseous hydrogen (H 2 ) circulating in the furnace ; and - a packaging unit for the UO 2 powder, the packaging unit comprising a filling station of a container with UO 2 powder, the filling station comprising a containment chamber , a filling duct supplied with UO 2 powder from the furnace and having an outlet opening into the containment chamber ; characterized in that the filling station comprises a suction system comprising a suction ring disposed at the outlet of the filling duct for sucking an annular air flow (A) around a stream (P) of UO 2 powder falling from the outlet of the filling duct into the container . - a conversion installation for the conversion of uranium hexafluoride (UF 6 ) into uranium dioxide (UF 6 ), the conversion installation comprising: - a hydrolysis reactor for the conversion of UF 6 into uranium oxyfluoride powder (UO 2 F 2 ) by reaction between gaseous UF 6 and dry water vapor injected into the reactor ; and - a pyrohydrolysis furnace for converting the UO 2 F 2 powder into UO 2 powder by reacting the UO 2 F 2 powder with dry water vapor and gaseous hydrogen (H 2 ) circulating in the furnace ; and - a hydrolysis reactor for the conversion of UF 6 into uranium oxyfluoride powder (UO 2 F 2 ) by reaction between gaseous UF 6 and dry water vapor injected into the reactor ; and - a pyrohydrolysis furnace for converting the UO 2 F 2 powder into UO 2 powder by reacting the UO 2 F 2 powder with dry water vapor and gaseous hydrogen (H 2 ) circulating in the furnace ; and - a packaging unit for the UO 2 powder, the packaging unit comprising a filling station of a container with UO 2 powder, the filling station comprising a containment chamber , a filling duct supplied with UO 2 powder from the furnace and having an outlet opening into the containment chamber ;
Active stabilizing apparatus for priority damping of rolling movements of a ship , with at least one positioning device with an output pin and with a stabilizing surface which is fastened to the output pin in the region of its root , wherein the stabilizing surface has a leading edge and a trailing edge and the stabilizing surface is arranged under water , wherein, by means of the positioning device , the stabilizing surface is pivotable about a pivot axis (S) through a pivoting angle (β) and at the same time is rotatable about an axis of rotation (D), wherein, in the region of the root of the stabilizing surface , provision is made at the leading-edge side of a first cutout and at the trailing-edge side of a second cutout within the stabilizing surface , characterized in that , in the region of the first cutout , there is arranged a flow-edge-side non-co-rotating flow-impingement body which adjoins, without a gap, a first hull-side narrow side of the stabilizing surface and which is situated at least partially outside the hull , according to the pivoting angle (β), and in that the trailing-edge side second cutout inter alia avoids a collision of the stabilizing surface with a hull of the ship during pivoting of the stabilizing surface . in the region of the first cutout , there is arranged a flow-edge-side non-co-rotating flow-impingement body which adjoins, without a gap, a first hull-side narrow side of the stabilizing surface and which is situated at least partially outside the hull , according to the pivoting angle (β), and in that the trailing-edge side second cutout inter alia avoids a collision of the stabilizing surface with a hull of the ship during pivoting of the stabilizing surface .
A method for preparing a modified conjugated diene-based polymer, the method comprising: a step of performing polymerization reaction of a conjugated diene-based monomer using a catalyst composition comprising a neodymium compound represented by the following Formula 3 in a polymerization solvent to prepare a conjugated diene-based polymer having an activated organometal part, a modification step of reacting the conjugated diene-based polymer having an activated organometal part with a modifier represented by the following Formula 2-6 or 2-7: in Formula 3, R a is a linear or branched alkyl group of 6 to 8 carbon atoms, and R b and R c are each independently an alkyl group of 2 to 6 carbon atoms. a step of performing polymerization reaction of a conjugated diene-based monomer using a catalyst composition comprising a neodymium compound represented by the following Formula 3 in a polymerization solvent to prepare a conjugated diene-based polymer having an activated organometal part, a modification step of reacting the conjugated diene-based polymer having an activated organometal part with a modifier represented by the following Formula 2-6 or 2-7: in Formula 3, R a is a linear or branched alkyl group of 6 to 8 carbon atoms, and R b and R c are each independently an alkyl group of 2 to 6 carbon atoms.
A system, comprising: a virtualization coordinator , and a plurality of service platforms ; wherein the virtualization coordinator is configured to: generate a first interface record , wherein the first interface record comprises a) a first subnet identifier of a first subnet, and b) a first Internet Protocol "IP" address within the first subnet; and initiate, in response to one or more programmatic requests, one or more configuration operations to enable network traffic directed at the first IP address to be received at a particular resource instance which is resident at least in part at a particular service platform, wherein the one or more configuration operations are initiated prior to a completion of an activation of the particular resource instance resident at least in part at the particular service platform; and wherein the particular resource instance resident at least in part at the particular service platform is configured to, after the particular resource instance has been activated, receive network traffic directed at the first IP address. a virtualization coordinator , and a plurality of service platforms ; wherein the virtualization coordinator is configured to: generate a first interface record , wherein the first interface record comprises a) a first subnet identifier of a first subnet, and b) a first Internet Protocol "IP" address within the first subnet; and initiate, in response to one or more programmatic requests, one or more configuration operations to enable network traffic directed at the first IP address to be received at a particular resource instance which is resident at least in part at a particular service platform, wherein the one or more configuration operations are initiated prior to a completion of an activation of the particular resource instance resident at least in part at the particular service platform; and generate a first interface record , wherein the first interface record comprises a) a first subnet identifier of a first subnet, and b) a first Internet Protocol "IP" address within the first subnet; and initiate, in response to one or more programmatic requests, one or more configuration operations to enable network traffic directed at the first IP address to be received at a particular resource instance which is resident at least in part at a particular service platform, wherein the one or more configuration operations are initiated prior to a completion of an activation of the particular resource instance resident at least in part at the particular service platform; and wherein the particular resource instance resident at least in part at the particular service platform is configured to, after the particular resource instance has been activated, receive network traffic directed at the first IP address.