mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented by a first radio access technology, RAT, network node , for spectrum sharing with a second RAT network node , the method comprising: determining whether an estimated power for first RAT transmission on at least one resource element, RE, in a spectrum shared by the first RAT network node and second RAT network node allows for an estimated mean power for the shared spectrum to meet a predefined criterion; and performing at least one action based at least in part on the determination whether the estimated mean power for the shared spectrum meets the predefined criterion, wherein: - the at least one action is configured to allow for a cell-specific reference signals, CRS, gain for a RE carrying CRS to be above a threshold; and - the at least one action includes reducing a power per resource element, RE, over a first plurality of REs associated with the first RAT network node ; and a power per RE over a second plurality of REs associated with the second RAT network node being reduced. determining whether an estimated power for first RAT transmission on at least one resource element, RE, in a spectrum shared by the first RAT network node and second RAT network node allows for an estimated mean power for the shared spectrum to meet a predefined criterion; and performing at least one action based at least in part on the determination whether the estimated mean power for the shared spectrum meets the predefined criterion, wherein: - the at least one action is configured to allow for a cell-specific reference signals, CRS, gain for a RE carrying CRS to be above a threshold; and - the at least one action includes reducing a power per resource element, RE, over a first plurality of REs associated with the first RAT network node ; and a power per RE over a second plurality of REs associated with the second RAT network node being reduced. - the at least one action is configured to allow for a cell-specific reference signals, CRS, gain for a RE carrying CRS to be above a threshold; and - the at least one action includes reducing a power per resource element, RE, over a first plurality of REs associated with the first RAT network node ; and a power per RE over a second plurality of REs associated with the second RAT network node being reduced.
A manufacturing apparatus of an absorbent body, comprising: a duct 1 to convey fibrillated fibers F via an air flow; a first drum 10 to allow the fibers F conveyed through the duct 1 to be accumulated on an outer peripheral face 10F by the suction force from the interior to convey a fiber body R F of the accumulated fibers F, the first drum 10 being a first pattern drum to define the shape of the fiber body R F ; a spraying device 3 to spray absorbent particles SA; a second drum 20 to convey an aggregate S obtained by collecting the sprayed particles SA on an outer peripheral face 20F by the suction force from the interior, the second drum 20 being a second pattern drum to control the distribution of the aggregate S; and a layering unit to layer the fiber body R F and the aggregate S to each other. a duct 1 to convey fibrillated fibers F via an air flow; a first drum 10 to allow the fibers F conveyed through the duct 1 to be accumulated on an outer peripheral face 10F by the suction force from the interior to convey a fiber body R F of the accumulated fibers F, the first drum 10 being a first pattern drum to define the shape of the fiber body R F ; a spraying device 3 to spray absorbent particles SA; a second drum 20 to convey an aggregate S obtained by collecting the sprayed particles SA on an outer peripheral face 20F by the suction force from the interior, the second drum 20 being a second pattern drum to control the distribution of the aggregate S; and a layering unit to layer the fiber body R F and the aggregate S to each other.
A method for assessing the performance impact of wind turbine upgrades, the method comprising: determining , with a computing device, a baseline power curve for a first wind turbine prior to the first wind turbine being upgraded, by plotting the first wind turbine's power output as a function of its measured local wind speed; determining a baseline wind speed transfer function for the first wind turbine prior to the first wind turbine being upgraded, the baseline wind speed transfer function relating a reference wind speed to a local wind speed for the first wind turbine; determining an upgraded wind speed transfer function for the first wind turbine after the first wind turbine is upgraded, the upgraded wind speed transfer function relating the reference wind speed to the local wind speed for the first wind turbine measured after the first wind turbine is upgraded; determining a corrected local wind speed for the first wind turbine based on a wind speed correction factor calculated as a function of the baseline and upgraded wind speed transfer functions; and determining an upgraded power curve for the first wind turbine based on the corrected local wind speed by plotting the first wind turbine's power output as a function of its corrected local wind speed. determining , with a computing device, a baseline power curve for a first wind turbine prior to the first wind turbine being upgraded, by plotting the first wind turbine's power output as a function of its measured local wind speed; determining a baseline wind speed transfer function for the first wind turbine prior to the first wind turbine being upgraded, the baseline wind speed transfer function relating a reference wind speed to a local wind speed for the first wind turbine; determining an upgraded wind speed transfer function for the first wind turbine after the first wind turbine is upgraded, the upgraded wind speed transfer function relating the reference wind speed to the local wind speed for the first wind turbine measured after the first wind turbine is upgraded; determining a corrected local wind speed for the first wind turbine based on a wind speed correction factor calculated as a function of the baseline and upgraded wind speed transfer functions; and determining an upgraded power curve for the first wind turbine based on the corrected local wind speed by plotting the first wind turbine's power output as a function of its corrected local wind speed.
A system for current measurement and ground fault detection, comprising: a plurality of phase current measurement coils configured to detect phase currents associated with at least one portion of a multi-phase system; a plurality of shunt resistors , wherein each of the phase current measurement coils is connected in parallel with a respective one of the shunt resistors a plurality of phase current measurement circuits connected to the phase current measurement coils and configured to measure the phase currents detected by the phase current measurement coils; wherein each of the phase current measurement circuits is configured to measure a phase current detected by a respective one of the phase current measurement coils by detecting a voltage drop across the respective one of the shunt resistors, wherein each of the phase current measurement circuits includes: a differential amplifier configured to detect the voltage drop across the respective one of the shunt resistors; and an active rectifier and a low pass filter in series with the differential amplifier; and a ground fault detection circuit connected to the phase current measurement coils and configured to measure a summation of the phase currents detected by the phase current measurement coils, wherein the shunt resistors are connected in series with one another, and the ground fault detection circuit is configured to measure the summation of the phase currents by detecting a voltage drop across the shunt resistors. a plurality of phase current measurement coils configured to detect phase currents associated with at least one portion of a multi-phase system; a plurality of shunt resistors , wherein each of the phase current measurement coils is connected in parallel with a respective one of the shunt resistors a plurality of phase current measurement circuits connected to the phase current measurement coils and configured to measure the phase currents detected by the phase current measurement coils; wherein each of the phase current measurement circuits is configured to measure a phase current detected by a respective one of the phase current measurement coils by detecting a voltage drop across the respective one of the shunt resistors, wherein each of the phase current measurement circuits includes: a differential amplifier configured to detect the voltage drop across the respective one of the shunt resistors; and an active rectifier and a low pass filter in series with the differential amplifier; and a differential amplifier configured to detect the voltage drop across the respective one of the shunt resistors; and an active rectifier and a low pass filter in series with the differential amplifier; and a ground fault detection circuit connected to the phase current measurement coils and configured to measure a summation of the phase currents detected by the phase current measurement coils, wherein the shunt resistors are connected in series with one another, and the ground fault detection circuit is configured to measure the summation of the phase currents by detecting a voltage drop across the shunt resistors.
An expansion tool comprising: a working element configured to expand an end of a tube, the working element including a plurality of jaws movable between a closed position and an expanded position; a first mandrel including a first contact surface ; and a second mandrel coupled to the first mandrel, the second mandrel including a second contact surface ; characterized in that the first mandrel and the second mandrel are movable together relative to the jaws in a first direction along an axis from a retracted position toward an extended position and in a second direction along the axis opposite the first direction from the extended position toward the retracted position, and the first contact surface and the second contact surface are engageable with the jaws to move the jaws from the closed position toward the expanded position in response to movement of the first mandrel and the second mandrel from the retracted position toward the extended position. a working element configured to expand an end of a tube, the working element including a plurality of jaws movable between a closed position and an expanded position; a first mandrel including a first contact surface ; and a second mandrel coupled to the first mandrel, the second mandrel including a second contact surface ; characterized in that the first mandrel and the second mandrel are movable together relative to the jaws in a first direction along an axis from a retracted position toward an extended position and in a second direction along the axis opposite the first direction from the extended position toward the retracted position, and the first contact surface and the second contact surface are engageable with the jaws to move the jaws from the closed position toward the expanded position in response to movement of the first mandrel and the second mandrel from the retracted position toward the extended position.
A method implemented by a kernel-level security agent of a computing device , the method comprising: observing events associated with activity on the computing device ; sending the events , over a computer network, to a remote security system; receiving , over the computer network and from the remote security system , an instruction to contain the computing device ; executing instructions to load a user-mode component in user mode of the computing device ; providing a firewall policy to the user-mode component ; using the user-mode component to invoke an application programming interface, API, to implement the firewall policy ; and implementing the firewall policy in kernel mode of the computing device based at least in part on the API invoked using the user-mode component , wherein the firewall policy , upon enforcement, denies outgoing data packets from, and incoming data packets to, the computing device that would have been allowed prior to the implementing of the firewall policy . observing events associated with activity on the computing device ; sending the events , over a computer network, to a remote security system; receiving , over the computer network and from the remote security system , an instruction to contain the computing device ; executing instructions to load a user-mode component in user mode of the computing device ; providing a firewall policy to the user-mode component ; using the user-mode component to invoke an application programming interface, API, to implement the firewall policy ; and implementing the firewall policy in kernel mode of the computing device based at least in part on the API invoked using the user-mode component , wherein the firewall policy , upon enforcement, denies outgoing data packets from, and incoming data packets to, the computing device that would have been allowed prior to the implementing of the firewall policy .
Computer-implemented method for generating a three-dimensional representation of scenery , comprising the steps of: • recording the scenery using a multiplicity of cameras and storing the recorded textures as two-dimensional images in a texture memory , wherein the texture is described by a regular coordinate grid , and • providing a virtual grid , wherein the virtual grid comprises a plurality of nodes which span an irregular grid , and the virtual grid forms a virtual three-dimensional projection area, • rendering the three-dimensional representation by projecting the textures determined by each camera onto the virtual grid, wherein the uniformly arranged texture coordinates of the textures are mapped to nodes of the virtual grid , wherein the textures are projected onto the virtual grid by distorting the texture , • wherein the textures are subdivided into individual cells by the regular coordinate grid , wherein precisely one cell in the irregular virtual grid is assigned to each cell in the regular coordinate grid , and • wherein that part of the texture which is defined by a cell in the coordinate grid is distorted in such a manner that it assumes the form of the corresponding cell in the virtual grid . • recording the scenery using a multiplicity of cameras and storing the recorded textures as two-dimensional images in a texture memory , wherein the texture is described by a regular coordinate grid , and • providing a virtual grid , wherein the virtual grid comprises a plurality of nodes which span an irregular grid , and the virtual grid forms a virtual three-dimensional projection area, • rendering the three-dimensional representation by projecting the textures determined by each camera onto the virtual grid, wherein the uniformly arranged texture coordinates of the textures are mapped to nodes of the virtual grid , wherein the textures are projected onto the virtual grid by distorting the texture , • wherein the textures are subdivided into individual cells by the regular coordinate grid , wherein precisely one cell in the irregular virtual grid is assigned to each cell in the regular coordinate grid , and • wherein that part of the texture which is defined by a cell in the coordinate grid is distorted in such a manner that it assumes the form of the corresponding cell in the virtual grid .
A crash detection device configured to be mounted on a flying object and configured to detect a crash of the flying object , the crash detection device comprising: a detection part configured to detect a flying state of the flying object ; and a calculation section configured to determine whether the flying state of the flying object is abnormal or normal based on data on the flying state of the flying object acquired by the detection part , characterized in that the calculation section is configured to acquire the data from the detection part at a sampling frequency of 1 kHz or more, the calculation section is configured to determine whether the data is a data signal indicating that the flying state of the flying object is an abnormal data signal or a noise, said data signal having a half width wider than the noise, and the calculation section is configured to determine that the flying state of the flying object is abnormal when the data is determined to be the data indicating that the flying state of the flying object is abnormal. a detection part configured to detect a flying state of the flying object ; and a calculation section configured to determine whether the flying state of the flying object is abnormal or normal based on data on the flying state of the flying object acquired by the detection part , characterized in that the calculation section is configured to acquire the data from the detection part at a sampling frequency of 1 kHz or more, the calculation section is configured to determine whether the data is a data signal indicating that the flying state of the flying object is an abnormal data signal or a noise, said data signal having a half width wider than the noise, and the calculation section is configured to determine that the flying state of the flying object is abnormal when the data is determined to be the data indicating that the flying state of the flying object is abnormal.
An electronic device housing comprising: a flexible structure comprising a plurality of oblong connection elements flexibly coupled to one another in series and having a first end oblong connection element and a second end oblong connection element ; a first housing body coupled to the first end oblong connection element ; and a second housing body coupled to the second end oblong connection element , wherein the first housing body is movable in an arc relative to the second housing body , wherein the electronic device housing further comprises a retractable flexible strap having a first end coupled to the first housing body and a second end coupled to the second housing body , wherein the flexible structure further comprises a spring element coupled to the first region of the flexible strap to provide tension to the flexible strap and the plurality of oblong connection elements , wherein the tension causes each of the plurality of oblong connection elements to rotate about corresponding longitudinal axes toward a corresponding lowest potential resting position such that the orientation of the cross-sectional axes of each of the oblong connection elements can rotate relative to one another to expand and to contract the length of the series of the oblong connection elements . a flexible structure comprising a plurality of oblong connection elements flexibly coupled to one another in series and having a first end oblong connection element and a second end oblong connection element ; a first housing body coupled to the first end oblong connection element ; and a second housing body coupled to the second end oblong connection element , wherein the first housing body is movable in an arc relative to the second housing body , wherein the electronic device housing further comprises a retractable flexible strap having a first end coupled to the first housing body and a second end coupled to the second housing body , wherein the flexible structure further comprises a spring element coupled to the first region of the flexible strap to provide tension to the flexible strap and the plurality of oblong connection elements , wherein the tension causes each of the plurality of oblong connection elements to rotate about corresponding longitudinal axes toward a corresponding lowest potential resting position such that the orientation of the cross-sectional axes of each of the oblong connection elements can rotate relative to one another to expand and to contract the length of the series of the oblong connection elements .
A contact bridge arrangement for an electrical switching element such as a contactor or a relay, with a contact bridge , with an actuating member , on which the contact bridge is held in a moveable manner along an actuating direction (B), and with at least one spring element , which is inserted between a spring base on the actuating member and the contact bridge , and with at least one stop , against which the contact bridge is pressed by the at least one spring element , characterised in that the at least one stop and the spring base are located on the side of the at least one spring element which faces away from the contact bridge .
An air fryer having a basket with a detachable cover plate, comprising a cooking cavity located inside the air fryer, and a basket and a hot air device provided inside the cooking cavity, wherein the basket is of an upper opening structure, the hot air device is located above the basket, wherein the basket comprises a basket body and a handle provided at a side of the basket body , a top portion of the basket body being of an opening structure, wherein a cover plate matched with an opening is provided at the opening of the basket, and the cover plate is detachably installed at the opening of the basket, wherein when the cover plate is installed on an upper opening of the basket, an interior of the basket is hermetically isolated by the cover plate from the hot air device , and when the cover plate is detached from an upper opening of the basket, the interior of the basket is in communication with the hot air device , characterized in that when the cover plate is installed on the basket, an interior of the basket is hermetically isolated by the cover plate from the hot air device , a gas outlet pipe in communication with an inner cavity of the basket is provided at an edge of the cover plate , and a first air outlet making the gas outlet pipe be in communication with outside is provided on the air fryer, and a sealing gasket is provided at a joint between the first air outlet and the gas outlet pipe , wherein when the cover plate is not installed on the basket, the sealing gasket blocks the first air outlet ; and when the cover plate is installed on the basket, the sealing gasket is open, and the inner cavity of the basket is in communication with the outside through the gas outlet pipe and the first air outlet .
An indexable cutting insert , comprising a body having a first surface , a second surface , and an intermediate surface , the intermediate surface comprising a generally cylindrical main surface and a plurality of recess surfaces , each recess surface extending radially inwardly from the main surface, the main surface and each recess surface extending between the first surface and the second surface , the main surface and each recess surface intersecting along at least two edges, a cutting edge being defined by each intersection between the main surface and each recess surface , wherein the main surface defines a relief surface, characterized in that the cutting insertcomprises a hole for a clamping screw, wherein a first portion of each recess surface generally adjacent to the main surface extends radially inwardly from the main surface along a plane intersecting a central axis of the cutting insert , and a second portion of each recess surface disposed radially inward from the first portion deviates from the plane inwardly generally toward a center (C) of a recess defined by each recess surface , a third portion of each recess surface disposed radially inwardly from the second portion extends generally away from the center (C) of the recess , and wherein a fourth portion of each recess surface disposed radially inwardly from the third portion is planar.
An inkjet head comprising constituent members bonded to each other by an adhesive containing at least an epoxy resin as a main agent, a microencapsulated imidazole-based curing agent as a curing agent, and an alcohol that is configured to dissolve the microcapsules at a temperature of 100°C or lower, wherein a residue of the microcapsules dissolved by the alcohol is configured to be dispersed in the cured epoxy resin.