mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a wind turbine, the wind turbine comprising a wind direction sensor , a number of pitch-adjustable rotor blades , a yawing system, and a control system for yawing the wind turbine rotor relative to the wind and for changing the pitch of the rotor blades, the method comprising: - measuring a wind direction parameter by the wind direction sensor, wherein the wind direction parameter is indicative of the wind direction relative to the wind turbine; - calibrating a relative wind direction derived from the wind direction parameter as a function of a predetermined offset parameter; - adjusting the calibrated relative wind direction as a function of a wind direction compensation parameter, wherein the wind direction compensation parameter depends on the calibrated relative wind direction; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction; and - controlling the wind turbine according to the control parameter. - measuring a wind direction parameter by the wind direction sensor, wherein the wind direction parameter is indicative of the wind direction relative to the wind turbine; - calibrating a relative wind direction derived from the wind direction parameter as a function of a predetermined offset parameter; - adjusting the calibrated relative wind direction as a function of a wind direction compensation parameter, wherein the wind direction compensation parameter depends on the calibrated relative wind direction; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction; and - controlling the wind turbine according to the control parameter.
A jig for constructing a mainframe of an airship structure, comprising: a first rail and a second rail that are configured to be parallel to each other, the first rail and the second rail each forming an arc; a plurality of first supporting structures affixed to the first rail , wherein the plurality of first supporting structures have non-uniform heights to support a curvature of the arc of the first rail ; and a plurality of second supporting structures affixed to the second rail , wherein the plurality of second supporting structures have non-uniform heights to support a curvature of the arc of the second rail ; wherein the first rail and the second rail are configured to interface with detachable wheels configured to be coupled to an outer surface of the mainframe and enable the mainframe to be rotated along its axis on the jig . a first rail and a second rail that are configured to be parallel to each other, the first rail and the second rail each forming an arc; a plurality of first supporting structures affixed to the first rail , wherein the plurality of first supporting structures have non-uniform heights to support a curvature of the arc of the first rail ; and a plurality of second supporting structures affixed to the second rail , wherein the plurality of second supporting structures have non-uniform heights to support a curvature of the arc of the second rail ; wherein the first rail and the second rail are configured to interface with detachable wheels configured to be coupled to an outer surface of the mainframe and enable the mainframe to be rotated along its axis on the jig .
A stranded wire conductor , obtainable by a process comprising steps of; - providing a plurality of copper-based element wires having a Ni-based plated layer on a surface thereof, the thickness of the Ni-based plated layer being 0.1 to 5.0 μm, a diameter of copper-based element wire being in a range of 0.13 to 0.15 mm, - providing a tension member for resisting tensile force comprising one of iron, stainless steel, or nickel, the outer diameter of the tension member being 0.20 to 0.30 mm, - twisting said plurality of copper-based element wires together on an outer circumference of the tension member , so that the tension member is disposed at a conductor center of the stranded wire conductor , - carrying out circular compression onto said plurality of copper-based element wires , - carrying out heat treatment on said plurality of copper-based element wires , wherein: the heat treatment temperature is set to be lower than the melting point of the Ni based plated layer, the heat treatment step is carried out after the circular compression step, the number of the copper-based element wires is seven or eight, the copper-based element wires and tension member have a circular cross-section, and the circular compression is performed in a radial direction of the stranded wire conductor . - providing a plurality of copper-based element wires having a Ni-based plated layer on a surface thereof, the thickness of the Ni-based plated layer being 0.1 to 5.0 μm, a diameter of copper-based element wire being in a range of 0.13 to 0.15 mm, - providing a tension member for resisting tensile force comprising one of iron, stainless steel, or nickel, the outer diameter of the tension member being 0.20 to 0.30 mm, - twisting said plurality of copper-based element wires together on an outer circumference of the tension member , so that the tension member is disposed at a conductor center of the stranded wire conductor , - carrying out circular compression onto said plurality of copper-based element wires , - carrying out heat treatment on said plurality of copper-based element wires , wherein: the heat treatment temperature is set to be lower than the melting point of the Ni based plated layer, the heat treatment step is carried out after the circular compression step, the number of the copper-based element wires is seven or eight, the copper-based element wires and tension member have a circular cross-section, and the circular compression is performed in a radial direction of the stranded wire conductor . the heat treatment temperature is set to be lower than the melting point of the Ni based plated layer, the heat treatment step is carried out after the circular compression step, the number of the copper-based element wires is seven or eight, the copper-based element wires and tension member have a circular cross-section, and the circular compression is performed in a radial direction of the stranded wire conductor .
A method for printing on a paper by means of a digital printing facility which has multiple ink application units for applying printing ink of different colours to the paper , wherein the method involves guiding the paper to be printed on past the ink application units in a feed direction, wherein the digital printing facility comprises a device that is configured and able to prevent or reduce a build-up of condensation on the ink application units , and wherein the build-up on condensation on the ink application units is prevented or reduced by this device , the device comprising a temperature control device and an electrical control unit, the temperature control device being configured to influence a temperature of the ink application units and the electrical control unit being configured to control the temperature control device in such a way that the ink application units are at different temperatures, characterised in that the temperatures of the ink application units increase in the feed direction and the temperatures of two adjacent ink application units differ by at least 0.5°C and at most 1.5°C, wherein the temperatures of the first ink application unit in the feed direction and the last ink application unit in the feed direction differ by at most 10°C.
A method for edge computing-based application relocation, performed by a MEC host platform, comprising: predicting a target edge computing host for application relocation (S101); making a preparation on the target edge computing host in response to the target edge computing host meeting a preset condition (S102) comprising: a distance threshold between a terminal and the target edge computing host, and/or a time threshold for the terminal to reach the target edge computing host; initiating a real application relocation request to the target edge computing host, and performing application relocation at the target edge computing host (S103); and releasing the preparation of the target edge computing host in response to a distance between the terminal and the target edge computing host not being reduced below the distance threshold within a preset period of time, and re-predicting the target edge computing host; wherein the preparation comprises: creating an application instance on the target edge computing host, or transmitting an application context information to the target edge computing host. predicting a target edge computing host for application relocation (S101); making a preparation on the target edge computing host in response to the target edge computing host meeting a preset condition (S102) comprising: a distance threshold between a terminal and the target edge computing host, and/or a time threshold for the terminal to reach the target edge computing host; a distance threshold between a terminal and the target edge computing host, and/or a time threshold for the terminal to reach the target edge computing host; initiating a real application relocation request to the target edge computing host, and performing application relocation at the target edge computing host (S103); and releasing the preparation of the target edge computing host in response to a distance between the terminal and the target edge computing host not being reduced below the distance threshold within a preset period of time, and re-predicting the target edge computing host; wherein the preparation comprises: creating an application instance on the target edge computing host, or transmitting an application context information to the target edge computing host.
A glass tube manufacturing apparatus for manufacturing glass tubing using a non-axisymmetric flow path, comprising: a glass delivery tank with molten glass, the glass delivery tank having a bottom opening ; a bell having an upper portion with an outer diameter located at the bottom opening ; a heating apparatus at least partially disposed around the bell , the heating apparatus including a heating portion and a muffle portion located below the heating portion ; and a lower extended muffle structure that is connected to the muffle portion and extends downwardly from the muffle portion , the lower extended muffle structure extending along and around the glass tubing as the glass tubing transitions from a vertical orientation to a non-vertical orientation to manage convective airflow therethrough. a glass delivery tank with molten glass, the glass delivery tank having a bottom opening ; a bell having an upper portion with an outer diameter located at the bottom opening ; a heating apparatus at least partially disposed around the bell , the heating apparatus including a heating portion and a muffle portion located below the heating portion ; and a lower extended muffle structure that is connected to the muffle portion and extends downwardly from the muffle portion , the lower extended muffle structure extending along and around the glass tubing as the glass tubing transitions from a vertical orientation to a non-vertical orientation to manage convective airflow therethrough.
A device comprising: an energy beam applicator configured for activating delivery, at a site to be protected within an object, of a substance, wherein the substance is designed for protecting against an undesirable side effect of another substance at the site, wherein the another substance comprises at least one of delivered, being delivered, and to be delivered, at another site within the object; delivery of one of the two substances being activatable at a relative high activation threshold, corresponding to a relative high value of an energy-beam level for use in activating delivery, and delivery of the other of the substances being activatable at a relative low activation threshold, corresponding to a relative lower value of said energy-beam level, and a controller configured for detecting whether a current value of the energy-beam level for use in activating delivery exceeds a substance-activation-energy-distinguishing threshold between the substance and the another substance, the substance-activation-energy-distinguishing threshold corresponding to a value of said energy-beam level lying a pre-set amount below the high activation threshold, wherein responsive to said detecting that said threshold is exceeded, said controller intervening (S360) by at least automatically changing an acoustic pressure setting of the current energy-beam level for the energy beam applicator to prevent activating delivery of the another substance by exceeding the threshold. an energy beam applicator configured for activating delivery, at a site to be protected within an object, of a substance, wherein the substance is designed for protecting against an undesirable side effect of another substance at the site, wherein the another substance comprises at least one of delivered, being delivered, and to be delivered, at another site within the object; delivery of one of the two substances being activatable at a relative high activation threshold, corresponding to a relative high value of an energy-beam level for use in activating delivery, and delivery of the other of the substances being activatable at a relative low activation threshold, corresponding to a relative lower value of said energy-beam level, and a controller configured for detecting whether a current value of the energy-beam level for use in activating delivery exceeds a substance-activation-energy-distinguishing threshold between the substance and the another substance, the substance-activation-energy-distinguishing threshold corresponding to a value of said energy-beam level lying a pre-set amount below the high activation threshold, wherein responsive to said detecting that said threshold is exceeded, said controller intervening (S360) by at least automatically changing an acoustic pressure setting of the current energy-beam level for the energy beam applicator to prevent activating delivery of the another substance by exceeding the threshold.
A resonator , comprising: a resonant cavity casing that has a resonant cavity and an open end , a cover that covers the open end and is connected to the resonant cavity casing, a resonance tube located inside the resonant cavity, and a tuning rod disposed inside the resonance tube, wherein the resonator further comprises a dielectric material that is filled in the resonant cavity and whose dielectric constant is greater than 1, the dielectric material is filled in a capacitance area formed between the top of the resonance tube and the cover, the tuning rod is rotatable relative to the dielectric material, and the shapes of face-to-face surfaces of the tuning rod and the dielectric material are non-circular, so that an overlapping of the tuning rod and the dielectric material is changed to adjust a frequency when the tuning rod is rotated relative to the dielectric material, wherein an upper surface of the filled dielectric material is in contact with a lower surface of the cover.
A self-supporting refractory checker brick module of a checker brick pack for a glass furnace regenerator comprising: multiple preformed refractory checker bricks wherein the checker bricks are stacked in multiple off-set courses to form a honeycomb structure thereof, wherein the checker bricks in the module are bonded to one another by a bonding agent, and wherein the module comprises at least one side edge formed of off-set longitudinally split checker bricks which are bisected lengthwise at a substantially vertical plane so as to form respective exposed edges, wherein, when assembled as part of the checker brick pack, the exposed edges are aligned with similar exposed edges of split checker bricks of an adjacent checker brick module of the checker brick pack, and wherein each course comprises two or three checker bricks in each of length and width dimensions thereof exclusive of the longitudinally split checker bricks. multiple preformed refractory checker bricks wherein the checker bricks are stacked in multiple off-set courses to form a honeycomb structure thereof, wherein the checker bricks in the module are bonded to one another by a bonding agent, and wherein the module comprises at least one side edge formed of off-set longitudinally split checker bricks which are bisected lengthwise at a substantially vertical plane so as to form respective exposed edges, wherein, when assembled as part of the checker brick pack, the exposed edges are aligned with similar exposed edges of split checker bricks of an adjacent checker brick module of the checker brick pack, and wherein each course comprises two or three checker bricks in each of length and width dimensions thereof exclusive of the longitudinally split checker bricks.
A surgical stapling instrument comprising: an anvil jaw assembly ; a staple jaw assembly including a knife and a shuttle ; a drive member configured to releasably engage and translate the knife and the shuttle in a distal direction through a staple firing stroke; and a locking assembly including: a locking member pivotable between a first position permitting distal translation of the drive member, and a second position preventing distal translation of the drive member; and a switch movable from a proximal position to a distal position, wherein when the switch is in the proximal position the switch releasably maintains the locking member in the first position, and wherein when the switch is in the distal position the switch disengages from the locking member thereby allowing the locking member to move to the second position, characterized in that the knife is configured to cut through a center portion of the switch. an anvil jaw assembly ; a staple jaw assembly including a knife and a shuttle ; a drive member configured to releasably engage and translate the knife and the shuttle in a distal direction through a staple firing stroke; and a locking assembly including: a locking member pivotable between a first position permitting distal translation of the drive member, and a second position preventing distal translation of the drive member; and a switch movable from a proximal position to a distal position, wherein when the switch is in the proximal position the switch releasably maintains the locking member in the first position, and wherein when the switch is in the distal position the switch disengages from the locking member thereby allowing the locking member to move to the second position, characterized in that the knife is configured to cut through a center portion of the switch.
Oil-filled electric transformer comprising at least one tank for at least said oil and at least said transformer, provided with at least one opening wherein it is at least partially inserted a liquid level indicator comprising: - a hollow body open at a first end for the liquid entry and at a second end for the inspection of the liquid level; - at least one closure element of said second end of said hollow body at least partially transparent and stably coupled to said hollow body ; characterized by : - said hollow body being coupled to said opening of said tank , - irreversible gripping means for the coupling between said closure element and said hollow body , said second end of said hollow body being shaped to accommodate said closure element so that said level indicator has a substantially smooth outer surface at the merging area of said closure element with said hollow body . - a hollow body open at a first end for the liquid entry and at a second end for the inspection of the liquid level; - at least one closure element of said second end of said hollow body at least partially transparent and stably coupled to said hollow body ; - said hollow body being coupled to said opening of said tank , - irreversible gripping means for the coupling between said closure element and said hollow body ,
A device for open load diagnosis of a signal line in a system in which a logic state is represented by a band of voltages lying between first and second voltage limits, the device configured to cause the signal line to reach a first, stable voltage lying in the band, to apply a second, different voltage to the signal line lying in the band and without leaving the band, to perform a time constant dependent measurement so as to determine a value of a parameter which is or depends on resistance of a load between the signal line and a reference line, to compare the value of the parameter with a reference value of the parameter and, in dependence on comparison, to signal the result.
A light emitting device comprising: a first conductive semiconductor layer ; an active layer comprising a well layer (Q) and a barrier layer on the first conductive semiconductor layer; and a second conductive semiconductor layer on the active layer, wherein the well layer (Q) comprises: a first well layer (Q1) closest to the first conductive semiconductor layer and having a first energy bandgap; a third well layer (Q3a) closest to the second conductive semiconductor layer and having a third energy bandgap; and a second well layer (Q2) interposed between the first and third well layers and having a second energy bandgap, and wherein the first conductive semiconductor layer is a n-type semiconductor layer and the second conductive semiconductor layer is a p-type semiconductor layer, wheiren the third well layer is disposed adjacent to the p-type semiconductor layer, characterized in that the third energy bandgap of the third well layer (Q3a) is greater than the second energy bandgap of the second well layer (Q2) wherein a thickness of the third well layer (Q3a) is thicker than a thickness of the second well layer (Q2) a first conductive semiconductor layer ; an active layer comprising a well layer (Q) and a barrier layer on the first conductive semiconductor layer; and a second conductive semiconductor layer on the active layer, wherein the well layer (Q) comprises: a first well layer (Q1) closest to the first conductive semiconductor layer and having a first energy bandgap; a third well layer (Q3a) closest to the second conductive semiconductor layer and having a third energy bandgap; and a second well layer (Q2) interposed between the first and third well layers and having a second energy bandgap, and wherein the first conductive semiconductor layer is a n-type semiconductor layer and the second conductive semiconductor layer is a p-type semiconductor layer, wheiren the third well layer is disposed adjacent to the p-type semiconductor layer, characterized in that the third energy bandgap of the third well layer (Q3a) is greater than the second energy bandgap of the second well layer (Q2) wherein a thickness of the third well layer (Q3a) is thicker than a thickness of the second well layer (Q2) a first well layer (Q1) closest to the first conductive semiconductor layer and having a first energy bandgap; a third well layer (Q3a) closest to the second conductive semiconductor layer and having a third energy bandgap; and a second well layer (Q2) interposed between the first and third well layers and having a second energy bandgap, and wherein the first conductive semiconductor layer is a n-type semiconductor layer and the second conductive semiconductor layer is a p-type semiconductor layer, wheiren the third well layer is disposed adjacent to the p-type semiconductor layer, characterized in that the third energy bandgap of the third well layer (Q3a) is greater than the second energy bandgap of the second well layer (Q2) wherein a thickness of the third well layer (Q3a) is thicker than a thickness of the second well layer (Q2)