mhurhangee/ep-ind-claims huggingface dataset:
A power generating apparatus of a renewable energy type which generates power from renewable energy, the apparatus comprising: a blade; a hub which rotates with the blade by the renewable energy received via the blade; a rotation shaft which is coupled to the hub; a pair of bearings (20,22) which support the rotation shaft rotatably, the pair of bearings (20,22) being provided separately from each other and including includes a front bearing arranged on a hub side and a rear bearing arranged farther from the hub than the front bearing; a nacelle which includes a nacelle base supporting bearing housings (21,23) of the pair of bearings (20,22) from below; and a connection frame which connects upper parts of the bearing housings (21,23) of the pair of bearings (20,22) provided separately from each other; and characterized in that: the nacelle base includes a horizontal plate part extending horizontally, a wall part installed on the horizontal plate part, and a rib extending along a direction perpendicular to an axial direction of the rotation shaft between a pair of inner surfaces of the wall part that face each other across the rotation shaft, a bearing housing of the front bearing is supported from below by a portion of the wall part on the hub side, and a bearing housing of the rear bearing is supported from below by the rib. a blade; a hub which rotates with the blade by the renewable energy received via the blade; a rotation shaft which is coupled to the hub; a pair of bearings (20,22) which support the rotation shaft rotatably, the pair of bearings (20,22) being provided separately from each other and including includes a front bearing arranged on a hub side and a rear bearing arranged farther from the hub than the front bearing; a nacelle which includes a nacelle base supporting bearing housings (21,23) of the pair of bearings (20,22) from below; and a connection frame which connects upper parts of the bearing housings (21,23) of the pair of bearings (20,22) provided separately from each other; the nacelle base includes a horizontal plate part extending horizontally, a wall part installed on the horizontal plate part, and a rib extending along a direction perpendicular to an axial direction of the rotation shaft between a pair of inner surfaces of the wall part that face each other across the rotation shaft, a bearing housing of the front bearing is supported from below by a portion of the wall part on the hub side, and a bearing housing of the rear bearing is supported from below by the rib.
A master device for establishing location information in real-time, the master device configured to: communicate via an auxiliary communication link with at least one monitor device; wirelessly communicate via a primary communication link with a portable device; communicate at least one of schedule information and connection parameters over said auxiliary communication link to said at least one monitor device to enable monitoring of communication over said primary communication link; receive, from said at least one monitor device via the auxiliary communication link, signal information relating to one or more signal characteristics determined by said at least one monitor device from said monitored communication; and determine said location information about said portable device relative to at least one of said master device and said at least one monitor device based on said received one or more signal characteristics, wherein the master device and the at least one monitor device are fixed position devices of a plurality of fixed position devices. communicate via an auxiliary communication link with at least one monitor device; wirelessly communicate via a primary communication link with a portable device; communicate at least one of schedule information and connection parameters over said auxiliary communication link to said at least one monitor device to enable monitoring of communication over said primary communication link; receive, from said at least one monitor device via the auxiliary communication link, signal information relating to one or more signal characteristics determined by said at least one monitor device from said monitored communication; and determine said location information about said portable device relative to at least one of said master device and said at least one monitor device based on said received one or more signal characteristics, wherein the master device and the at least one monitor device are fixed position devices of a plurality of fixed position devices.
A short message transfer method, comprising: receiving (405, 505) a status report message of a transfer service short message transmitted by a destination short message center; characterized in that the short message transfer method also comprises: querying (406,506) a transfer number corresponding to a destination number of the transfer service short message when the status report message indicates that the transfer service short message is delivered unsuccessfully; replacing (407, 507) the destination number of the transfer service short message with the transfer number, and transmitting (407, 507) the transfer service short message to a transfer short message center. receiving (405, 505) a status report message of a transfer service short message transmitted by a destination short message center; characterized in that the short message transfer method also comprises: querying (406,506) a transfer number corresponding to a destination number of the transfer service short message when the status report message indicates that the transfer service short message is delivered unsuccessfully; replacing (407, 507) the destination number of the transfer service short message with the transfer number, and transmitting (407, 507) the transfer service short message to a transfer short message center. querying (406,506) a transfer number corresponding to a destination number of the transfer service short message when the status report message indicates that the transfer service short message is delivered unsuccessfully; replacing (407, 507) the destination number of the transfer service short message with the transfer number, and transmitting (407, 507) the transfer service short message to a transfer short message center.
A method for detecting a Mycobacterium tuberculosis complex, comprising subjecting a Mycobacterium tuberculosis complex-specific protein to an immunological assay, wherein said protein is extracellularly secreted by subjecting a biological sample containing the Mycobacterium tuberculosis complex to a heat-treatment at 46°C to 48°C for at least 15 minutes.
An ultrasonic drive system of a surgical instrument for driving an end effector, the ultrasonic drive system comprising: an ultrasonic transducer coupled to a waveguide, the waveguide coupled to the end effector; a generator coupled to the ultrasonic transducer to generate at least one time varying electrical signal at a resonant frequency of the ultrasonic transducer; and a processor, wherein the processor is operative to: monitor the resonant frequency of the at least one electrical signal by receiving frequency samples of the at least one time varying signal; calculate a frequency slope between frequency samples of the at least one time varying electrical signal, where the frequency slope is the change in resonant frequency over time; compare the frequency slope to a threshold frequency slope; and trigger a first response of the generator when the frequency slope crosses the threshold frequency slope. an ultrasonic transducer coupled to a waveguide, the waveguide coupled to the end effector; a generator coupled to the ultrasonic transducer to generate at least one time varying electrical signal at a resonant frequency of the ultrasonic transducer; and a processor, wherein the processor is operative to: monitor the resonant frequency of the at least one electrical signal by receiving frequency samples of the at least one time varying signal; calculate a frequency slope between frequency samples of the at least one time varying electrical signal, where the frequency slope is the change in resonant frequency over time; compare the frequency slope to a threshold frequency slope; and trigger a first response of the generator when the frequency slope crosses the threshold frequency slope. monitor the resonant frequency of the at least one electrical signal by receiving frequency samples of the at least one time varying signal; calculate a frequency slope between frequency samples of the at least one time varying electrical signal, where the frequency slope is the change in resonant frequency over time; compare the frequency slope to a threshold frequency slope; and trigger a first response of the generator when the frequency slope crosses the threshold frequency slope.
Calibration system for calibrating a number of transceivers (150, 250, 260, 261, 350, 450, 550), each comprising an in-phase signal path (153, 155) and a quadrature signal path (154, 156) in receive direction and/or in transmit direction, the calibration system comprising: a calibration signal generator (101, 501) that is configured to generate a predefined calibration signal (102, 302, 333) for every one of the transceivers (150, 250, 260, 261, 350, 450, 550), a calibration transceiver (103, 203, 503) that is coupled to the calibration signal generator (101, 501) and to the transceivers (150, 250, 260, 261, 350, 450, 550) and that is configured to supply the generated predefined calibration signals (102, 302, 333) each to the respective transceiver (150, 250, 260, 261, 350, 450, 550) during operation of the transceivers (150, 250, 260, 261, 350, 450, 550), and/or that is configured to receive the predefined calibration signals (102, 302, 333) after they travel through each one of the transceivers (150, 250, 260, 261, 350, 450, 550) during operation of the transceivers (150, 250, 260, 261, 350, 450, 550), and a calibration unit that is configured to calibrate the in-phase signal paths (153, 155) and the quadrature signal paths (154, 156) of the transceivers (150, 250, 260, 261, 350, 450, 550) during operation of the transceivers (150, 250, 260, 261, 350, 450, 550) based on the calibration signals (102, 302, 333) as they are received by the transceivers (150, 250, 260, 261, 350, 450, 550) or based on the calibration signals (102, 302, 333) as they are received by the calibration transceiver (103, 203, 503). a calibration signal generator (101, 501) that is configured to generate a predefined calibration signal (102, 302, 333) for every one of the transceivers (150, 250, 260, 261, 350, 450, 550), a calibration transceiver (103, 203, 503) that is coupled to the calibration signal generator (101, 501) and to the transceivers (150, 250, 260, 261, 350, 450, 550) and that is configured to supply the generated predefined calibration signals (102, 302, 333) each to the respective transceiver (150, 250, 260, 261, 350, 450, 550) during operation of the transceivers (150, 250, 260, 261, 350, 450, 550), and/or that is configured to receive the predefined calibration signals (102, 302, 333) after they travel through each one of the transceivers (150, 250, 260, 261, 350, 450, 550) during operation of the transceivers (150, 250, 260, 261, 350, 450, 550), and a calibration unit that is configured to calibrate the in-phase signal paths (153, 155) and the quadrature signal paths (154, 156) of the transceivers (150, 250, 260, 261, 350, 450, 550) during operation of the transceivers (150, 250, 260, 261, 350, 450, 550) based on the calibration signals (102, 302, 333) as they are received by the transceivers (150, 250, 260, 261, 350, 450, 550) or based on the calibration signals (102, 302, 333) as they are received by the calibration transceiver (103, 203, 503).
A method for temperature regulation in a motor vehicle headlight, which in its headlight interior has a number of LED light sources for generating one or more light functions, characterised in that the power supply actually supplied to the headlight interior is determined in an ongoing manner during operation of the headlight, the power output actually possible from the headlight interior is also determined in an ongoing manner, a power balance is formed from the determined supplied power supply and the possible power output, and a decision is made on the basis of the power balance as to whether and which heat regulation measures are to be carried out for the headlight interior, wherein in order to determine the power supply, a set of power supply parameters relevant for the power supply of the headlight is measured, wherein the set of parameters following power supply parameters comprises: power output of the light sources, temperature in the engine compartment of the motor vehicle, solar radiation, and wherein a set of power output parameters relevant for the power output of the headlight is measured, wherein the set of parameters following the power output parameters comprises: vehicle speed, engine compartment temperature of the motor vehicle, external temperature, solar radiation, and wherein the power supply supplied to the headlight interior is determined on the basis of the set of power supply parameters and the power output that can be output from the headlight interior is determined on the basis of the set of power output parameters.
Article support assembly for movement by a conveyor along a path of conveyance, including: a trolley for engagement by the conveyor; a shackle configured to support an article, and rotatable with respect to the trolley; a turning block associated with the shackle, rotation of the turning block with respect to the trolley causing corresponding rotation of the shackle relative to the trolley; and yieldable indexing means (123, 127, 129, 131) operatively arranged between the trolley and the turning block to define at least a first and a second incremental rotational position for the shackle, characterised by the fact that the yieldable indexing means are biased into engagement by magnetic forces. a trolley for engagement by the conveyor; a shackle configured to support an article, and rotatable with respect to the trolley; a turning block associated with the shackle, rotation of the turning block with respect to the trolley causing corresponding rotation of the shackle relative to the trolley; and yieldable indexing means (123, 127, 129, 131) operatively arranged between the trolley and the turning block to define at least a first and a second incremental rotational position for the shackle, characterised by the fact that the yieldable indexing means are biased into engagement by magnetic forces.
A method of disposing nuclear waste, the method comprising the steps of: i)blending a waste stream, which includes a radioactive waste with a liquid to produce a dense fluid with a density greater than the density of a rock formation so as to cause an absolute tendency for the fluid to travel downward:- ii)pumping the dense fluid into a tubing string of an injection boring in the said rock formation; and iii) the dense fluid after step (ii) exiting a perforation in a casing of the injection boring which is located at a predetermined depth to allow the said dense fluid to vertically fracture the surrounding rock strata and continuing to propagate the fracture vertically downward until the said dense fluid is immobilized. i)blending a waste stream, which includes a radioactive waste with a liquid to produce a dense fluid with a density greater than the density of a rock formation so as to cause an absolute tendency for the fluid to travel downward:- ii)pumping the dense fluid into a tubing string of an injection boring in the said rock formation; and iii) the dense fluid after step (ii) exiting a perforation in a casing of the injection boring which is located at a predetermined depth to allow the said dense fluid to vertically fracture the surrounding rock strata and continuing to propagate the fracture vertically downward until the said dense fluid is immobilized.
Device for cutting a part from a block along a given trajectory, comprising a guide forming said trajectory which has at least one inflection point and a flexible or articulated support for at least one cutting element extending about a longitudinal plane and mounted slidably in the guide, said cutting element comprising a cutting edge projecting in a normal direction relative to said longitudinal plane, characterised in that the block is made of metallic or composite material of which the Rockwell hardness is greater than 30, the support comprises a lateral blank, in that the trajectory defined by the guide extends in a plane parallel to said lateral blank and in that the lateral blank is provided with at least one cutting insert forming the cutting element, said cutting edge being arranged so as to project in order to carry out cutting in a normal direction relative to said blank.
A cell-free in vitro method of remodeling a granulocyte colony stimulating factor (G-CSF) peptide, said G-CSF peptide having the formula:}-AA-(X 1) u wherein AA is Thr133 of said G-CSF peptide; X 1 is a glycosyl residue covalently linked to said AA, selected from monosaccharyl and oligosaccharyl residues; and u is 1; said method comprising contacting said peptide with at least one glycosyltransferase and at least one glycosyl donor comprising poly(ethylene)glycol having a molecular weight of 20 kDa covalently linked thereto under conditions suitable to transfer said at least one glycosyl donor to a truncated glycan, thereby remodeling said G-CSF peptide. wherein AA is Thr133 of said G-CSF peptide; X 1 is a glycosyl residue covalently linked to said AA, selected from monosaccharyl and oligosaccharyl residues; and u is 1; said method comprising contacting said peptide with at least one glycosyltransferase and at least one glycosyl donor comprising poly(ethylene)glycol having a molecular weight of 20 kDa covalently linked thereto under conditions suitable to transfer said at least one glycosyl donor to a truncated glycan, thereby remodeling said G-CSF peptide.
A system comprising: a control device adapted to turn on and control power dissipation in a light-emitting diode; a clocking device adapted to produce a clock signal, wherein a frequency of the clock signal is determined according to at least one of a measured current and measured temperature of a light emitting diode; a counter adapted to record a number of cycles in the clock signal produced while the LED is turned on; and a monitoring device adapted to monitor the remaining operational life of the LED based on the recorded number of cycles. a control device adapted to turn on and control power dissipation in a light-emitting diode; a clocking device adapted to produce a clock signal, wherein a frequency of the clock signal is determined according to at least one of a measured current and measured temperature of a light emitting diode; a counter adapted to record a number of cycles in the clock signal produced while the LED is turned on; and a monitoring device adapted to monitor the remaining operational life of the LED based on the recorded number of cycles.
A method for operating a rolling mill device including a pair of mill rolls disposed on opposite sides of a metal plate, the method comprising: a detection step of detecting a plate end position in a plate width direction of the metal plate at a position on an exit side of the pair of mill rolls while rolling the metal plate by the pair of mill rolls in a state where an exit-side tension applied to the metal plate is zero; detecting in the detection step that the plate end position is deviated from a reference position to one side in the plate width direction and performing a first tilting step of a roll tilting control of the pair of mill rolls so that an outgoing direction of the metal plate from the mill rolls is along a conveying direction of the metal plate in the rolling mill device; and a second tilting step of performing a roll tilting control of the pair of mill rolls after the first tilting step so that the outgoing direction of the metal plate from the mill rolls is displaced to the other side in the plate width direction with respect to the conveying direction, and then the outgoing direction of the metal plate returns to the conveying direction. a detection step of detecting a plate end position in a plate width direction of the metal plate at a position on an exit side of the pair of mill rolls while rolling the metal plate by the pair of mill rolls in a state where an exit-side tension applied to the metal plate is zero; detecting in the detection step that the plate end position is deviated from a reference position to one side in the plate width direction and performing a first tilting step of a roll tilting control of the pair of mill rolls so that an outgoing direction of the metal plate from the mill rolls is along a conveying direction of the metal plate in the rolling mill device; and a second tilting step of performing a roll tilting control of the pair of mill rolls after the first tilting step so that the outgoing direction of the metal plate from the mill rolls is displaced to the other side in the plate width direction with respect to the conveying direction, and then the outgoing direction of the metal plate returns to the conveying direction.
A centrifugal pump apparatus adapted to pump a liquid, and comprising: a pump housing defining a pumping chamber, the pump housing having a spindle extending into the pumping chamber and defining a longitudinal axis; a rotor configured to rotate about the spindle, the rotor including an impeller comprising at least one blade; drive magnets disposed in said rotor and a back iron and drive windings disposed in said pump housing; a passive axial magnetic bearing disposed in said pump apparatus reducing an axial load imposed on said rotor by interaction between said drive magnets and said back iron; a rotor portion of said passive axial magnetic bearing disposed within a non-bladed portion of the rotor; and a spindle portion of said passive axial magnetic bearing disposed within the spindle, wherein the spindle and rotor portions of the passive axial magnetic bearing are configured to attract each other, wherein at least one of the rotor and spindle portions of the magnetic bearing comprises a first and a second magnet, wherein the first and second magnets are arranged proximate each other with their respective magnetic vectors parallel to said longitudinal axis; wherein at least one of the pump housing, the spindle and the rotor has surface geometry suitable for supporting at least one hydrodynamic bearing; and wherein said passive axial magnetic bearing and said at least one hydrodynamic bearing constitute the sole bearings for levitating said rotor during rotation of said rotor. a pump housing defining a pumping chamber, the pump housing having a spindle extending into the pumping chamber and defining a longitudinal axis; a rotor configured to rotate about the spindle, the rotor including an impeller comprising at least one blade; drive magnets disposed in said rotor and a back iron and drive windings disposed in said pump housing; a passive axial magnetic bearing disposed in said pump apparatus reducing an axial load imposed on said rotor by interaction between said drive magnets and said back iron; a rotor portion of said passive axial magnetic bearing disposed within a non-bladed portion of the rotor; and a spindle portion of said passive axial magnetic bearing disposed within the spindle, wherein the spindle and rotor portions of the passive axial magnetic bearing are configured to attract each other, wherein at least one of the rotor and spindle portions of the magnetic bearing comprises a first and a second magnet, wherein the first and second magnets are arranged proximate each other with their respective magnetic vectors parallel to said longitudinal axis; wherein at least one of the pump housing, the spindle and the rotor has surface geometry suitable for supporting at least one hydrodynamic bearing; and wherein said passive axial magnetic bearing and said at least one hydrodynamic bearing constitute the sole bearings for levitating said rotor during rotation of said rotor.