mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring a static and/or dynamic stability of a wind turbine having a tower, a nacelle which is supported by the tower, and a rotor which is mounted in or on the nacelle and has at least one rotor blade which can be adjusted about its longitudinal axis, the method comprising the steps of: exciting the wind turbine to oscillate in at least one direction; detecting a frequency (f m) of the excited oscillation; comparing the detected frequency with a predetermined frequency (f ref); and, generating an alarm signal when the detected frequency deviates from the predetermined frequency by more than a difference value (Δf) characterized in that, the tower is reproducibly excited to oscillate by adjusting the blade pitch angles of all the rotor blades at the same time. exciting the wind turbine to oscillate in at least one direction; detecting a frequency (f m) of the excited oscillation; comparing the detected frequency with a predetermined frequency (f ref); and, generating an alarm signal when the detected frequency deviates from the predetermined frequency by more than a difference value (Δf) characterized in that, the tower is reproducibly excited to oscillate by adjusting the blade pitch angles of all the rotor blades at the same time.
A panoptic visualization system for panoptic visualization of a three-dimensional representation of a represented system, the panoptic visualization system comprising: a visualization engine configured to receive a digital 3D model (104, 300) of the represented system and produce a plurality of electronic document components including two-dimensional images depicting elements of the represented system; and a data extractor coupled to the visualization engine and configured to generate 2D derivatives of the 3D model (104, 300), including for each of one or more document components, the data extractor being configured to: receive the document component including a 2D image depicting an element of the represented system, and extract from the 3D model (104, 300), information identifying a spatial, design or functional relationship between the respective element and one or more other elements of the represented system; and provide the extracted information in metadata associated with the document component, wherein the data extractor is configured to communicate the 2D derivatives to a document collection system (102, 200) for inclusion in a panoptic visualization document collection, the 2D derivatives including the document components and associated metadata. a visualization engine configured to receive a digital 3D model (104, 300) of the represented system and produce a plurality of electronic document components including two-dimensional images depicting elements of the represented system; and a data extractor coupled to the visualization engine and configured to generate 2D derivatives of the 3D model (104, 300), including for each of one or more document components, the data extractor being configured to: receive the document component including a 2D image depicting an element of the represented system, and extract from the 3D model (104, 300), information identifying a spatial, design or functional relationship between the respective element and one or more other elements of the represented system; and provide the extracted information in metadata associated with the document component, receive the document component including a 2D image depicting an element of the represented system, and extract from the 3D model (104, 300), information identifying a spatial, design or functional relationship between the respective element and one or more other elements of the represented system; and provide the extracted information in metadata associated with the document component, wherein the data extractor is configured to communicate the 2D derivatives to a document collection system (102, 200) for inclusion in a panoptic visualization document collection, the 2D derivatives including the document components and associated metadata.
An enhanced food comprising: a food or a beverage contacted with a substantially surfactant-free submicron dispersion of particles of edible hydrophobic agent(s) in an aqueous fluid, wherein the average particle size of the dispersion is 100 to 999 nm, and wherein the edible hydrophobic agent(s) of the dispersion comprise about 0.1% wt to about 70% wt of the dispersion, wherein 90% or more by volume of the edible hydrophobic agent particles by volume have a size within 200nm of the average particle size, wherein the dispersion readily dilutes in the aqueous fluid without upsetting the stability of the hydrophobic agent particles, and wherein the dispersion is substantially surfactant free such that any amount of amphiphilic compounds with CMC greater than 10 ∧ -8 mol/L present in the dispersion is not an amount sufficient to materially lower the surface tension of the aqueous-solvent fluid and any amphiphilic compounds present in the dispersion that have a CMC of 10 ∧ -8 mol/L or lower are present in an amount of 5 parts weight of other hydrophobic agents, or less. a food or a beverage contacted with a substantially surfactant-free submicron dispersion of particles of edible hydrophobic agent(s) in an aqueous fluid, wherein the average particle size of the dispersion is 100 to 999 nm, and wherein the edible hydrophobic agent(s) of the dispersion comprise about 0.1% wt to about 70% wt of the dispersion, wherein 90% or more by volume of the edible hydrophobic agent particles by volume have a size within 200nm of the average particle size, wherein the dispersion readily dilutes in the aqueous fluid without upsetting the stability of the hydrophobic agent particles, and wherein the dispersion is substantially surfactant free such that any amount of amphiphilic compounds with CMC greater than 10 ∧ -8 mol/L present in the dispersion is not an amount sufficient to materially lower the surface tension of the aqueous-solvent fluid and any amphiphilic compounds present in the dispersion that have a CMC of 10 ∧ -8 mol/L or lower are present in an amount of 5 parts weight of other hydrophobic agents, or less.
A method to prepare a composition comprising preconditioning a mixture of: (a) a precursor hydrosilane or organodisilane; and (b) a base comprising a potassium silanolate, rubidium hydroxide, a rubidium silanolate, cesium hydroxide, a cesium silanolate, a potassium amide, a graphitic potassium or a combination thereof; in the absence of a heteroaromatic, olefinic, or acetylenic substrate capable of C-H silylation; wherein the preconditioning comprises holding the mixture of combined hydrosilane and the base under conditions sufficient to produce the composition capable of initiating measurable silylation of 1-methyl indole at a temperature of 45°C or less with an induction period of less than 30, 25, 20, 15, 10, 5, or 1 minutes. (a) a precursor hydrosilane or organodisilane; and (b) a base comprising a potassium silanolate, rubidium hydroxide, a rubidium silanolate, cesium hydroxide, a cesium silanolate, a potassium amide, a graphitic potassium or a combination thereof;
Rolling train for producing a tube, comprising a pilger rolling mill for reducing the diameter of a hollow blank to form the tube, a first buffer for a plurality of tubes, wherein the first buffer has a device for bundling a plurality of tubes in a bundle, an annealing furnace for simultaneous annealing of a plurality of tubes, a second buffer for a plurality of tubes, wherein the second buffer for the tubes has a device for separating the plurality of tubes out of a bundle, and a straightening machine for straightening the separated tubes in succession, wherein the rolling train operates continuously, wherein the devices are disposed, in the transport direction of the tube, in the aforementioned sequence, and wherein an automated transport device (9a, 9b, 9c, 9d, 9e, 9f, 11, 12, 13) for the tube is provided between, respectively, the pilger rolling mill, the first buffer, the annealing furnace, the second buffer and the straightening machine.
A method for constructing a DNA molecule, wherein three DNA fragments O, P and Q are linked to a closed single-strand cyclic molecule; Said fragment O is a target double-strand DNA fragment with two cohesive ends which can not be self linked, Said fragments P and Q are DNA fragments with stem-loop structure having cohesive ends respectively, the cohesive ends of said fragments P and Q are matched with the two cohesive ends of said fragment O, and said fragments P and Q meet the requirement of i) or ii) as follows: i) the nucleotide sequence of fragment P or Q comprises at least one sequence e, said sequence e forms a recognition sequence R of restriction endonuclease with the complemented sequence thereof; ii) the nucleotide sequence of said fragment P comprises at least one sequence e, said sequence e forms a recognition sequence R of restriction endonuclease with the complemented sequence thereof; the nucleotide sequence of said fragment Q comprises at least one sequence f, said sequence f forms a recognition sequence S of restriction endonuclease with the complemented sequence thereof; said recognition sequence R and S are recognized by the different restriction endonucleases. i) the nucleotide sequence of fragment P or Q comprises at least one sequence e, said sequence e forms a recognition sequence R of restriction endonuclease with the complemented sequence thereof; ii) the nucleotide sequence of said fragment P comprises at least one sequence e, said sequence e forms a recognition sequence R of restriction endonuclease with the complemented sequence thereof; the nucleotide sequence of said fragment Q comprises at least one sequence f, said sequence f forms a recognition sequence S of restriction endonuclease with the complemented sequence thereof; said recognition sequence R and S are recognized by the different restriction endonucleases.
An insulation block for an insulating arrangement in a rebate area between a blind frame and a sash frame of a window, a door or the like, in particular of a residential roof window, characterised in that the insulation block is made up of at least two insulation block parts (21, 22), which each extend across its length, and has at least one air guideway (47, 48, 49), which is formed by at least one recess (41, 42, 43, 44, 45, 46) each in each of the insulation block parts (21, 22), and wherein each insulation block part (21, 22) has two longitudinal side edges (37, 38, 39, 40) located opposite one another, and the recess (41, 42, 43, 44, 45, 46) of the one insulation block part (21, 22) is open on the edge to one of its longitudinal side edges and the recess (41, 42, 43, 44, 45, 46) of the other insulation block part (21, 22) is open on the edge to that one of its longitudinal side edges (37, 38, 39, 40), which is located opposite to the mentioned longitudinal side edge (37, 38, 39, 40) of the one insulation block part (21, 22).
A computer-implemented method comprising: collecting, by one or more processors, diagnostic data relating to operation of a patient respiratory pressure therapy device, wherein the diagnostic data identifies a presence of a fault in connection with the patient respiratory pressure therapy device; determining, by the one or more processors, that a triggering event has occurred for which the diagnostic data is to be transmitted over a network, wherein the triggering event is based on a determination that a patient has stopped using the patient respiratory pressure therapy device for a predetermined period of time; transmitting, by the one or more processors, the diagnostic data over the network to one or more computing devices, wherein at least a first portion of the diagnostic data is configured so that the presence of the fault is identifiable by a computing device; receiving, by the one or more processors, service data that addresses an identified fault from the one or more computing devices; and performing, by the one or more processors, one or more operations in accordance with the service data that has been received. collecting, by one or more processors, diagnostic data relating to operation of a patient respiratory pressure therapy device, wherein the diagnostic data identifies a presence of a fault in connection with the patient respiratory pressure therapy device; determining, by the one or more processors, that a triggering event has occurred for which the diagnostic data is to be transmitted over a network, wherein the triggering event is based on a determination that a patient has stopped using the patient respiratory pressure therapy device for a predetermined period of time; transmitting, by the one or more processors, the diagnostic data over the network to one or more computing devices, wherein at least a first portion of the diagnostic data is configured so that the presence of the fault is identifiable by a computing device; receiving, by the one or more processors, service data that addresses an identified fault from the one or more computing devices; and performing, by the one or more processors, one or more operations in accordance with the service data that has been received.
An electrode catalyst comprising: tungsten carbide comprising amorphous carbon in the range of about 0.1 parts by weight or less based on the 100 parts by total weight of the tungsten carbide, and a metal catalyst comprising palladium (Pd) or palladium alloy. tungsten carbide comprising amorphous carbon in the range of about 0.1 parts by weight or less based on the 100 parts by total weight of the tungsten carbide, and a metal catalyst comprising palladium (Pd) or palladium alloy.
A cutting insert, comprising opposing top and bottom ends (22, 24) and at least first and second side surfaces (26A, 26B) extending therebetween, a first insert corner comprising a corner cutting edge formed at an intersection of the first and second side surfaces (26A, 26B) and the top end, a land extending along the intersection, a chip evacuation surface, a chip deflecting surface extending between the land and the chip evacuation surface, wherein the land, the chip evacuation surface and the chip deflecting surface are all disposed at the top end; and a chip-control arrangement at the first insert corner; the chip-control arrangement comprising a first projection which is elongated and disposed on the top end adjacent to the intersection; wherein the first projection comprises first and second extremities (78, 80) and a middle portion therebetween; characterised in that the first projection is spaced-apart from the land; and each of the first and second extremities (78, 80) is respectively closer to the first side surface than the middle portion; and the first and second extremities (78, 80) are generally perpendicular to the middle portion and extend in a direction towards the first side surface therefrom. opposing top and bottom ends (22, 24) and at least first and second side surfaces (26A, 26B) extending therebetween, a first insert corner comprising a corner cutting edge formed at an intersection of the first and second side surfaces (26A, 26B) and the top end, a land extending along the intersection, a chip evacuation surface, a chip deflecting surface extending between the land and the chip evacuation surface, wherein the land, the chip evacuation surface and the chip deflecting surface are all disposed at the top end; and a chip-control arrangement at the first insert corner; the chip-control arrangement comprising a first projection which is elongated and disposed on the top end adjacent to the intersection; wherein the first projection comprises first and second extremities (78, 80) and a middle portion therebetween; characterised in that the first projection is spaced-apart from the land; and each of the first and second extremities (78, 80) is respectively closer to the first side surface than the middle portion; and the first and second extremities (78, 80) are generally perpendicular to the middle portion and extend in a direction towards the first side surface therefrom. the chip-control arrangement comprising a first projection which is elongated and disposed on the top end adjacent to the intersection; wherein the first projection comprises first and second extremities (78, 80) and a middle portion therebetween; characterised in that the first projection is spaced-apart from the land; and each of the first and second extremities (78, 80) is respectively closer to the first side surface than the middle portion; and the first and second extremities (78, 80) are generally perpendicular to the middle portion and extend in a direction towards the first side surface therefrom.
An investment casting apparatus comprising: a furnace having an opening; a mold support; a multi-axis actuator configured to retract the mold support from the opening with multiple-axis motion; and a controller operably connected with the multi-axis actuator and configured to control the operation of the multi-axis actuator; characterised in that: the multi-axis actuator includes a plurality of prismatic actuators. a furnace having an opening; a mold support; a multi-axis actuator configured to retract the mold support from the opening with multiple-axis motion; and a controller operably connected with the multi-axis actuator and configured to control the operation of the multi-axis actuator;
Agricultural combine comprising a residue spreading system adapted for spreading residue (5, 13) onto a field, wherein the residue spreading system comprises a seed container and a seed dispensing system (15, 16, 17) characterized in that the seed dispensing system (15, 16, 17) is adapted to dispense seeds from the seed container into the residue so that, in operation, the residue spreading system spreads the dispensed seeds onto the field together with the residue.
A system, comprising: a gas turbine system comprising a compressor component; an airflow generation system for attachment to a rotatable shaft of the gas turbine system, the airflow generation system and the compressor component drawing in an excess flow of air (72, 206) through an air intake section; a mixing area for receiving an exhaust gas stream produced by the gas turbine system; an air extraction system for extracting at least a portion of the excess flow of air generated by the airflow generation system and the compressor component to provide bypass air, and for diverting the bypass air into the mixing area to reduce a temperature of the exhaust gas stream; an exhaust processing system; and an air diversion system for diverting a portion of the bypass air to the exhaust processing system; wherein the exhaust processing system comprises a selective catalytic reduction system for processing the reduced temperature exhaust gas stream. a gas turbine system comprising a compressor component; an airflow generation system for attachment to a rotatable shaft of the gas turbine system, the airflow generation system and the compressor component drawing in an excess flow of air (72, 206) through an air intake section; a mixing area for receiving an exhaust gas stream produced by the gas turbine system; an air extraction system for extracting at least a portion of the excess flow of air generated by the airflow generation system and the compressor component to provide bypass air, and for diverting the bypass air into the mixing area to reduce a temperature of the exhaust gas stream; an exhaust processing system; and an air diversion system for diverting a portion of the bypass air to the exhaust processing system; wherein the exhaust processing system comprises a selective catalytic reduction system for processing the reduced temperature exhaust gas stream.
A method for controlling brakes using a brake control system comprising, a set of pilot controls including an auto-brake control and a manual brake control, a brake control unit comprising a brake control executive and a switch logic, the BKX in electronic communication with the switch logic, a deceleration control in electronic communication with the BCU, and an antiskid control in electronic communication with the BCU, the method comprising: receiving, by the DK, a deceleration command from an auto-brake control; receiving, by the DK, a wheel speed value associated with one or more wheels; receiving, by the DK, a wheel acceleration value associated with the one of more wheels; generating, by the DK, a DK desired pressure value for each of the one or more wheels, the DK desired pressure value based upon the deceleration command, wheel speed value, and the wheel acceleration value; receiving, by the BKX, an ASK desired pressure value from the ASK; sending, via the switch logic, at least one of the DK desired pressure value from the DK to the BKX or a pilot desired pressure value from the manual brake control to the BKX; and controlling, by the brake control system, a braking force for the one or more wheels based upon the DK desired pressure value. receiving, by the DK, a deceleration command from an auto-brake control; receiving, by the DK, a wheel speed value associated with one or more wheels; receiving, by the DK, a wheel acceleration value associated with the one of more wheels; generating, by the DK, a DK desired pressure value for each of the one or more wheels, the DK desired pressure value based upon the deceleration command, wheel speed value, and the wheel acceleration value; receiving, by the BKX, an ASK desired pressure value from the ASK; sending, via the switch logic, at least one of the DK desired pressure value from the DK to the BKX or a pilot desired pressure value from the manual brake control to the BKX; and controlling, by the brake control system, a braking force for the one or more wheels based upon the DK desired pressure value.