mhurhangee/patent-ind-claim-en huggingface dataset:
Output unit of a pitch drive or an azimuth drive of a wind turbine , comprising - a shaft element which has a rotation axis and an outer circumferential face arranged coaxially relative to the rotation axis and which extends in an axial direction from a drive end to an output end for transmitting a drive torque to the output end, - a pinion which is arranged at the output end coaxially relative to the rotation axis or a pinion receiving member for receiving such a pinion in a rotationally secure manner, - wherein a cable channel extends from the outer circumferential face through the shaft element to the drive end or to the output end, - wherein at least one first strain gauge having at least one first measurement cable is arranged on the outer circumferential face, - wherein the at least one first measurement cable extends from the at least one first strain gauge through the cable channel to the drive end or to the output end. - a shaft element which has a rotation axis and an outer circumferential face arranged coaxially relative to the rotation axis and which extends in an axial direction from a drive end to an output end for transmitting a drive torque to the output end, - a pinion which is arranged at the output end coaxially relative to the rotation axis or a pinion receiving member for receiving such a pinion in a rotationally secure manner, - wherein a cable channel extends from the outer circumferential face through the shaft element to the drive end or to the output end, - wherein at least one first strain gauge having at least one first measurement cable is arranged on the outer circumferential face, - wherein the at least one first measurement cable extends from the at least one first strain gauge through the cable channel to the drive end or to the output end.
Process for cleaning a side of a semiconductor wafer, comprising in the order given: a first cleaning step for cleaning with ozonized water and subsequent rinsing step with purified water, a second cleaning step, which comprises a treatment step with ozonized water, which is followed by a treatment step with an HF-containing liquid, where the second cleaning step may be repeated multiply, a third cleaning step for cleaning with ozonized water and subsequent rinsing step with purified water, a drying step, wherein the side of the semiconductor wafer is dried, where a preliminary cleaning step with water is effected directly before the first cleaning step, so that the one side of the semiconductor wafer is still wet while the first cleaning step commences. a first cleaning step for cleaning with ozonized water and subsequent rinsing step with purified water, a second cleaning step, which comprises a treatment step with ozonized water, which is followed by a treatment step with an HF-containing liquid, where the second cleaning step may be repeated multiply, a third cleaning step for cleaning with ozonized water and subsequent rinsing step with purified water, a drying step, wherein the side of the semiconductor wafer is dried,
A method, comprising: computing a skin temperature at a location at an outer surface of a device housing of a computing system using a skin temperature model that models skin temperature based on heat generation estimates for each of a plurality of heat generating components of the computing system in conjunction with a thermal model of the device, wherein computing the skin temperature includes: estimating heat generated by each component of the plurality of components based on an activity metric associated with the component; and summing contributions of the estimates of heat generated by each component of the plurality of components to compute the skin temperature at the location; identifying an application type for an application executing on the device; determining an interactivity metric for the application based on the application type, the interactivity metric associated with an amount of user interactivity with the device; determining an interactivity adjustment factor based on the interactivity metric, where a magnitude of the interactivity adjustment factor is inversely related to the amount of user interactivity indicated by the interactivity metric; calculating a skin temperature threshold based on the interactivity adjustment factor and a default skin temperature threshold; and controlling a package power limit that limits the total power consumed by components of the computing system based on the skin temperature and the skin temperature threshold. estimating heat generated by each component of the plurality of components based on an activity metric associated with the component; and summing contributions of the estimates of heat generated by each component of the plurality of components to compute the skin temperature at the location; identifying an application type for an application executing on the device; determining an interactivity metric for the application based on the application type, the interactivity metric associated with an amount of user interactivity with the device; determining an interactivity adjustment factor based on the interactivity metric, where a magnitude of the interactivity adjustment factor is inversely related to the amount of user interactivity indicated by the interactivity metric; calculating a skin temperature threshold based on the interactivity adjustment factor and a default skin temperature threshold; and controlling a package power limit that limits the total power consumed by components of the computing system based on the skin temperature and the skin temperature threshold.
A utility vehicle configured to run a working area (AR) to perform lawn mowing work with a work unit driven by an electric motor , including: an electronic control unit having a microprocessor and a memory , wherein the microprocessor is configured to function as: a work load determining unit (44a1) configured to determine whether load of the work unit in the work performed in accordance with an established work schedule is equal to or less than a predetermined value; and a work schedule adjusting unit (44a2) configured to adjust the established work schedule based on a result of the work load determining determined by the work load determining unit; characterized in that : the work schedule adjusting unit (44a2) is configured to adjust the established work schedule to reduce the work by a predetermined amount each time the load determining unit (44a1) determines that the work has finished in a predetermined time period, that the load is equal to or less than the predetermined value, and until reduced work has reached a prescribed amount, while maintains the established work schedule when the load determining unit (44a1) determines that the load is not equal to or less than the predetermined value. a work load determining unit (44a1) configured to determine whether load of the work unit in the work performed in accordance with an established work schedule is equal to or less than a predetermined value; and a work schedule adjusting unit (44a2) configured to adjust the established work schedule based on a result of the work load determining determined by the work load determining unit; characterized in that : the work schedule adjusting unit (44a2) is configured to adjust the established work schedule to reduce the work by a predetermined amount each time the load determining unit (44a1) determines that the work has finished in a predetermined time period, that the load is equal to or less than the predetermined value, and until reduced work has reached a prescribed amount, while maintains the established work schedule when the load determining unit (44a1) determines that the load is not equal to or less than the predetermined value.
An organic light-emitting display, OLED, panel, comprising: a substrate ; a first electrode layer disposed on the substrate and comprising a plurality of first electrodes ; a pixel definition layer disposed on a side of the first electrode layer facing away from the substrate and comprising a plurality of first openings , wherein each of the plurality of first openings exposes part of a respective one of the plurality of first electrodes ; a light-emitting layer disposed on a side of the plurality of first electrodes facing away from the substrate ; a second electrode layer disposed on a side of the light-emitting layer facing away from the substrate ; a conductive wall made of an elastic material and comprising peaks and valleys spaced apart from each other; a planarization layer disposed on a surface of the second electrode layer facing away from the substrate and comprising a plurality of second openings; wherein the conductive wall is disposed in the plurality of second openings; and a third electrode layer disposed on a side of the conductive wall facing away from the substrate and in contact with the peaks ; wherein each of the peaks has a height of H1, each of the valleys has a height of H2, and the planarization layer has a height of H3 , wherein H2<H3<H1 ; and a vertical projection of the conductive wall on the substrate and a vertical projection of the third electrode layer on the substrate each overlap a vertical projection of the pixel definition layer on the substrate . a substrate ; a first electrode layer disposed on the substrate and comprising a plurality of first electrodes ; a pixel definition layer disposed on a side of the first electrode layer facing away from the substrate and comprising a plurality of first openings , wherein each of the plurality of first openings exposes part of a respective one of the plurality of first electrodes ; a light-emitting layer disposed on a side of the plurality of first electrodes facing away from the substrate ; a second electrode layer disposed on a side of the light-emitting layer facing away from the substrate ; a conductive wall made of an elastic material and comprising peaks and valleys spaced apart from each other; a planarization layer disposed on a surface of the second electrode layer facing away from the substrate and comprising a plurality of second openings; wherein the conductive wall is disposed in the plurality of second openings; and a third electrode layer disposed on a side of the conductive wall facing away from the substrate and in contact with the peaks ; wherein each of the peaks has a height of H1, each of the valleys has a height of H2, and the planarization layer has a height of H3 , wherein H2<H3<H1 ; and a vertical projection of the conductive wall on the substrate and a vertical projection of the third electrode layer on the substrate each overlap a vertical projection of the pixel definition layer on the substrate .
Lubricant holder for vertical conveying of lubricant by means of a crankshaft of a coolant compressor , comprising a sleeve element having a clear cross-section delimited by an inside wall , which clear cross-section extends along a longitudinal axis of the sleeve element , from an upper end to a lower end of the sleeve element , the lubricant holder furthermore comprising an inner element that has a mantle surface that extends along a longitudinal axis of the inner element , from a lower end to an upper end , wherein in an operating state of the lubricant holder - the inner element is arranged within the clear cross-section of the sleeve element with its mantle surface , at least in certain areas, - viewed in the direction from the lower end to the upper end of the sleeve element , the lower end of the mantle surface is disposed in front of its upper end , and - the inner element and the sleeve element can be rotated relative to one another about the longitudinal axis of the sleeve element and/or the longitudinal axis of the inner element , wherein the clear cross-section narrows from the lower end to the upper end of the sleeve element , at least in a holding segment intended for holding the inner element , wherein the inner element narrows in the region of the mantle surface , from the lower end to the upper end of the mantle surface , and wherein the inside wall and/or the mantle surface has/have at least one groove that runs in spiral shape, characterised in that the at least one groove has a varying angle of inclination, which preferably increases from the lower end to the upper end of the mantle surface . - the inner element is arranged within the clear cross-section of the sleeve element with its mantle surface , at least in certain areas, - viewed in the direction from the lower end to the upper end of the sleeve element , the lower end of the mantle surface is disposed in front of its upper end , and - the inner element and the sleeve element can be rotated relative to one another about the longitudinal axis of the sleeve element and/or the longitudinal axis of the inner element , wherein the clear cross-section narrows from the lower end to the upper end of the sleeve element , at least in a holding segment intended for holding the inner element , wherein the inner element narrows in the region of the mantle surface , from the lower end to the upper end of the mantle surface , and wherein the inside wall and/or the mantle surface has/have at least one groove that runs in spiral shape, characterised in that the at least one groove has a varying angle of inclination, which preferably increases from the lower end to the upper end of the mantle surface .
A control system for controlling a plant , the control system comprising a feedback loop including an integrator ; a signal generator ; and a scaling unit , wherein the control system is arranged such that: the feedback loop comprises an input suitable for connection to an output of the plant ; the integrator integrates a signal received from the input to generate a state signal x̂ ; and the signal generator generates a periodic base perturbation signal with an initial amplitude; characterised in that : the scaling unit generates a scaling factor having a first value if the variance of the state signal var ( x̂ ) is zero, or a second value if the variance of the state signal is non-zero, wherein the second value is proportional to e − 1 var x ^ ; wherein the scaling unit is arranged to multiply the initial amplitude of the periodic base perturbation signal by the scaling factor to produce a state dependent perturbation signal , which is provided at an output of the control system suitable for connection to an input of the plant . the feedback loop comprises an input suitable for connection to an output of the plant ; the integrator integrates a signal received from the input to generate a state signal x̂ ; and the signal generator generates a periodic base perturbation signal with an initial amplitude; characterised in that : the scaling unit generates a scaling factor having a first value if the variance of the state signal var ( x̂ ) is zero, or a second value if the variance of the state signal is non-zero, wherein the second value is proportional to e − 1 var x ^ ; wherein the scaling unit is arranged to multiply the initial amplitude of the periodic base perturbation signal by the scaling factor to produce a state dependent perturbation signal , which is provided at an output of the control system suitable for connection to an input of the plant . the scaling unit generates a scaling factor having a first value if the variance of the state signal var ( x̂ ) is zero, or a second value if the variance of the state signal is non-zero, wherein the second value is proportional to e − 1 var x ^ ; wherein the scaling unit is arranged to multiply the initial amplitude of the periodic base perturbation signal by the scaling factor to produce a state dependent perturbation signal , which is provided at an output of the control system suitable for connection to an input of the plant .
A miniature circuit breaker, comprising a circuit breaker housing , a button mechanism , and an indicating apparatus, the circuit breaker housing comprising an indicating hole arranged in one side thereof, the button mechanism being in sliding fit with the circuit breaker housing , the indicating apparatus being in driving fit with the button mechanism ; characterized in that the circuit breaker housing comprises at least one wire insertion hole and at least one wire removal hole which are arranged in one side thereof, the wire insertion hole is matched with the wire removal hole for use; the button mechanism , the wire removal hole , and the wire insertion hole are located at a same end of the circuit breaker housing ; the wire removal hole is used as the indicating hole, and when the button mechanism is pressed to switch on the miniature circuit breaker, the button mechanism drives the indicating apparatus to shield the indicating hole.
Use of a compound represented by formula (I): wherein R 1 to R 4 each independently represents a hydrogen atom, a halogen, an amino group, a hydroxyl group, a carboxyl group, or a hydrocarbon group having 1 to 4 carbons which may contain substituent(s); and X - represents an anionic chemical species, as constituent having catalase inhibitory action in a catalase inhibitor.
A device for decoding a coded audio bitstream, the device comprising: a memory configured to store a coded audio bitstream; and one or more processors electrically coupled to the memory, the one or more processors configured to: obtain, from the coded audio bitstream, an object-based representation of an audio signal of an audio object, the audio signal corresponding to a time interval; obtain, from the coded audio bitstream, a representation of a spatial vector for the audio object, wherein the spatial vector is defined in a Higher-Order Ambisonics, HOA, domain and is based on a first plurality of loudspeaker locations; and generate, based on the audio signal of the audio object and the spatial vector, a plurality of audio signals, wherein each respective audio signal of the plurality of audio signals corresponds to a respective loudspeaker in a plurality of local loudspeakers at the second plurality of loudspeaker locations different from the first plurality of loudspeaker locations. a memory configured to store a coded audio bitstream; and one or more processors electrically coupled to the memory, the one or more processors configured to: obtain, from the coded audio bitstream, an object-based representation of an audio signal of an audio object, the audio signal corresponding to a time interval; obtain, from the coded audio bitstream, a representation of a spatial vector for the audio object, wherein the spatial vector is defined in a Higher-Order Ambisonics, HOA, domain and is based on a first plurality of loudspeaker locations; and generate, based on the audio signal of the audio object and the spatial vector, a plurality of audio signals, wherein each respective audio signal of the plurality of audio signals corresponds to a respective loudspeaker in a plurality of local loudspeakers at the second plurality of loudspeaker locations different from the first plurality of loudspeaker locations. obtain, from the coded audio bitstream, an object-based representation of an audio signal of an audio object, the audio signal corresponding to a time interval; obtain, from the coded audio bitstream, a representation of a spatial vector for the audio object, wherein the spatial vector is defined in a Higher-Order Ambisonics, HOA, domain and is based on a first plurality of loudspeaker locations; and generate, based on the audio signal of the audio object and the spatial vector, a plurality of audio signals, wherein each respective audio signal of the plurality of audio signals corresponds to a respective loudspeaker in a plurality of local loudspeakers at the second plurality of loudspeaker locations different from the first plurality of loudspeaker locations.
A tethered helium kite gas replenishment device including a multi-purpose gas replenishment capsule (B) equipped with a clamp (F), a guiding element and a shock-absorbing device (E), characterized in that the capsule (B) is mobile; the tethered helium kite gas replenishment device further comprises a docking connector consisting of a socket-type end (C) adapted to be mounted on a kite (A) and a plug-type end (D) mounted on the capsule (B) or vice versa, and the plug-type end (D) comprises an actuator for moving a wedge ring ; whereas the socket-type end (C) is made up of a body , a closing poppet and a pressure spring , while the plug-type end (D) is equipped with the wedge ring and consists of a housing equipped with a pivotally mounted lever , configured to press against the housing by a movement of the wedge ring , and a plug end poppet supported by a second spring , wherein the plug end poppet has an undercut which, in combination with a channel made in the plug end housing , forms a sliding shut-off valve controlling a gas supply to the actuator .
A method for treating a starting material, characterized in that - a starting material is crushed and/or ground , - the starting material that contains at least organic material is mixed and agglomerated in a mixing stage in the presence of heat to form homogeneous and agglomerated mixture material such that the temperature of the material rises under the effect of friction during the agglomeration, - the mixture material is fed to a pressing stage in the form of granular agglomerates, and - the mixture material is mechanically pressed in the pressing stage , where the temperature of the mixture material rises due to the pressing, and a predetermined product is formed in the pressing stage by means of a press device which comprises a shape-giving tool for giving the shape of the product. - a starting material is crushed and/or ground , - the starting material that contains at least organic material is mixed and agglomerated in a mixing stage in the presence of heat to form homogeneous and agglomerated mixture material such that the temperature of the material rises under the effect of friction during the agglomeration, - the mixture material is fed to a pressing stage in the form of granular agglomerates, and - the mixture material is mechanically pressed in the pressing stage , where the temperature of the mixture material rises due to the pressing, and a predetermined product is formed in the pressing stage by means of a press device which comprises a shape-giving tool for giving the shape of the product.