mhurhangee/patent-ind-claim-en huggingface dataset:
A recombinant transketolase A protein comprising the sequence of SEQ ID NO:63 with a protease recognition sequence located between two amino acids of SEQ ID NO:63, wherein the protease recognition sequence is located after amino acid 635, 636, 637, 638, or 640 of the sequence of SEQ ID NO:63.
A pot comprising: a base , a plurality of walls connecting and extending away from the base , each of the plurality of walls interconnected with respect to one another, wherein the base and the plurality of walls define an internal space therein, the internal space adapted to receive soil therein, at least one placeholder provided within the internal space , the at least one placeholder removably coupled to the base or at least one of the plurality of walls , the at least one placeholder adapted to provide a pre-dug hole within the soil when being removed from the pot , the pre-dug hole adapted to receive at least one of a seed and a sapling therein, and the base or the at least one of the plurality of walls includes a tab extending therefrom, the tab adapted to removably couple the at least one placeholder thereon; characterized in that: at least one of the plurality of walls includes a protruding surface provided thereon, the protruding surface extending away from the internal space , the protruding surface adapted to provide an extended opening in to the internal space a base , a plurality of walls connecting and extending away from the base , each of the plurality of walls interconnected with respect to one another, wherein the base and the plurality of walls define an internal space therein, the internal space adapted to receive soil therein, at least one placeholder provided within the internal space , the at least one placeholder removably coupled to the base or at least one of the plurality of walls , the at least one placeholder adapted to provide a pre-dug hole within the soil when being removed from the pot , the pre-dug hole adapted to receive at least one of a seed and a sapling therein, and the base or the at least one of the plurality of walls includes a tab extending therefrom, the tab adapted to removably couple the at least one placeholder thereon; characterized in that: at least one of the plurality of walls includes a protruding surface provided thereon, the protruding surface extending away from the internal space , the protruding surface adapted to provide an extended opening in to the internal space
A method for calculating the trajectory of a store ejected from an aircraft , comprising the following steps: a) providing a camera at a known spatial and angular position of an aircraft from where images of an ejected store can be obtained, said camera providing a video signal formed by frames, and having intrinsic calibration parameters, b) providing a 3D store model at an initially known spatial and angular position of the store , c) selecting one frame of the video signal of the camera to obtain one real image , d) obtaining the contours of the real image to obtain a processed real image , e) generating, from the camera and store spatial and angular positions, the camera calibration parameters, the selected frame of the camera, and the 3D store model, one 3D synthetic image for each possible motion of the ejected store with respect to the same reference axes of camera and store positions, f) obtaining the store contour from each one of the 3D synthetic images to obtain processed 3D synthetic images , g) matching each one of the processed 3D synthetic images with the processed real image , h) selecting the best matching processed 3D synthetic image , i) obtaining and recording both the spatial and angular position of the selected processed 3D synthetic image to obtain one point of the store trajectory, j) updating the spatial and angular position of the store from the spatial and angular position of the store in the selected processed 3D synthetic image , k) selecting another frame of the camera to obtain another real image , and return to d) until an established stop condition is reached. a) providing a camera at a known spatial and angular position of an aircraft from where images of an ejected store can be obtained, said camera providing a video signal formed by frames, and having intrinsic calibration parameters, b) providing a 3D store model at an initially known spatial and angular position of the store , c) selecting one frame of the video signal of the camera to obtain one real image , d) obtaining the contours of the real image to obtain a processed real image , e) generating, from the camera and store spatial and angular positions, the camera calibration parameters, the selected frame of the camera, and the 3D store model, one 3D synthetic image for each possible motion of the ejected store with respect to the same reference axes of camera and store positions, f) obtaining the store contour from each one of the 3D synthetic images to obtain processed 3D synthetic images , g) matching each one of the processed 3D synthetic images with the processed real image , h) selecting the best matching processed 3D synthetic image , i) obtaining and recording both the spatial and angular position of the selected processed 3D synthetic image to obtain one point of the store trajectory, j) updating the spatial and angular position of the store from the spatial and angular position of the store in the selected processed 3D synthetic image , k) selecting another frame of the camera to obtain another real image , and return to d) until an established stop condition is reached.
A treatment-target modification device configured to modify a treatment target being conveyed, the treatment-target modification device comprising: a hydrophilization unit configured to perform hydrophilization treatment on the treatment target, wherein the hydrophilization treatment is any one of corona treatment and plasma treatment, the corona treatment modifying the treatment target with corona discharge, the plasma treatment modifying the treatment target with plasma; characterized in that it further comprises a measurement unit configured to measure two-dimensional distribution of a reflectance spectrum of light reflected from the hydrophilization-treated treatment target before inkjet recording is performed on the hydrophilization-treated treatment target. a hydrophilization unit configured to perform hydrophilization treatment on the treatment target, wherein the hydrophilization treatment is any one of corona treatment and plasma treatment, the corona treatment modifying the treatment target with corona discharge, the plasma treatment modifying the treatment target with plasma; characterized in that it further comprises a measurement unit configured to measure two-dimensional distribution of a reflectance spectrum of light reflected from the hydrophilization-treated treatment target before inkjet recording is performed on the hydrophilization-treated treatment target.
A pressure compensator valve comprising: a compensator spool ; a first piston coupled to a distal end of, and axially-movable with, the compensator spool ; a second piston disposed in a cavity formed at a proximal end of the compensator spool , wherein the compensator spool is axially movable relative to the second piston ; a compensator spring applying a biasing force on the compensator spool a regulated flow passage configured to have fluid applying a first fluid force on the compensator spool in a proximal direction; a metered flow passage configured to have fluid applying a second fluid force on the compensator spool in a distal direction; a load-sense cavity configured to receive a load-sense signal applying a third fluid force on the first piston and the compensator spool coupled thereto in the proximal direction; and a compensator inlet cavity configured to receive inlet fluid from a source of fluid, the inlet fluid applying a fourth fluid force on the compensator spool in the distal direction, wherein an axial position of the compensator spool is based on a force equilibrium between the first fluid force, the second fluid force, the third fluid force, the fourth fluid force, and the biasing force of the compensator spring . a compensator spool ; a first piston coupled to a distal end of, and axially-movable with, the compensator spool ; a second piston disposed in a cavity formed at a proximal end of the compensator spool , wherein the compensator spool is axially movable relative to the second piston ; a compensator spring applying a biasing force on the compensator spool a regulated flow passage configured to have fluid applying a first fluid force on the compensator spool in a proximal direction; a metered flow passage configured to have fluid applying a second fluid force on the compensator spool in a distal direction; a load-sense cavity configured to receive a load-sense signal applying a third fluid force on the first piston and the compensator spool coupled thereto in the proximal direction; and a compensator inlet cavity configured to receive inlet fluid from a source of fluid, the inlet fluid applying a fourth fluid force on the compensator spool in the distal direction, wherein an axial position of the compensator spool is based on a force equilibrium between the first fluid force, the second fluid force, the third fluid force, the fourth fluid force, and the biasing force of the compensator spring .
A vehicle steering control device comprising a control device configured to: control a steering reaction force to be applied to a steering operation performed by a driver of a driver's vehicle; acquire information on a curved road ahead of the driver's vehicle in a traveling direction; and set a guide steering operation amount based on the information on the curved road; characterized in that the vehicle steering control device is further configured to: predict a time at which the driver starts an actual steering operation for driving the driver's vehicle along the curved road as a steering operation start time; and set, based on a difference between the guide steering operation amount and an actual amount of the steering operation, the steering reaction force at a time earlier by a predetermined period than the steering operation start time. control a steering reaction force to be applied to a steering operation performed by a driver of a driver's vehicle; acquire information on a curved road ahead of the driver's vehicle in a traveling direction; and set a guide steering operation amount based on the information on the curved road; characterized in that the vehicle steering control device is further configured to: predict a time at which the driver starts an actual steering operation for driving the driver's vehicle along the curved road as a steering operation start time; and set, based on a difference between the guide steering operation amount and an actual amount of the steering operation, the steering reaction force at a time earlier by a predetermined period than the steering operation start time. predict a time at which the driver starts an actual steering operation for driving the driver's vehicle along the curved road as a steering operation start time; and set, based on a difference between the guide steering operation amount and an actual amount of the steering operation, the steering reaction force at a time earlier by a predetermined period than the steering operation start time.
An apparatus for exercising muscles, comprising a power arm which can be equipped at one end region with actuation elements and which can be pivoted with the other end region about a pivot axis which is arranged on a holding element , to which power arm the one end region of a compression spring element is articulated at a first articulation point , which first articulation point can be adjusted along the power arm , while the other end region of the compression spring element is articulated at a second articulation point to the holding element , wherein the one end region of the compression spring element is provided with a first joint surface which has a first curvature , characterized in that a series of second joint surfaces are arranged along the power arm over an adjustment zone , said second joint surfaces each having a second curvature which is configured in a complementary manner to the first curvature such that the one end region of the compression spring element having the first joint surface can be brought into operative connection with one of the second joint surfaces , and the power arm can be pressed via a further spring element which is configured as a tension spring against the one end region of the compression spring element in such a manner that the two joint surfaces in operative connection are held in contact, wherein the tension spring is fastened with a first end to the holding element and is fastened with a second end to the power arm in a region separated from the first articulation point .
A communication method, wherein the method is applied to a first terminal, and the method comprises: obtaining, from a base station that configures discontinuous reception of a second terminal, sidelink discontinuous reception-active time of the second terminal; determining one or more sidelink resources, wherein the one or more sidelink resources comprise at least a sidelink resource located in the sidelink discontinuous reception-active time of the second terminal; and sending data to the second terminal on a first sidelink resource in the one or more sidelink resources, wherein the first sidelink resource is located in the sidelink discontinuous reception-active time. obtaining, from a base station that configures discontinuous reception of a second terminal, sidelink discontinuous reception-active time of the second terminal; determining one or more sidelink resources, wherein the one or more sidelink resources comprise at least a sidelink resource located in the sidelink discontinuous reception-active time of the second terminal; and sending data to the second terminal on a first sidelink resource in the one or more sidelink resources, wherein the first sidelink resource is located in the sidelink discontinuous reception-active time.
A method performed by a user equipment for handling communications from one or more network nodes in a radio access network (RAN), the method comprising: receiving by the user equipment that is operating in a connected state, a radio resource control (RRC) release message from a network node; determining , based on an indication in the RRC release message, whether to suspend the user equipment to an inactive state or an idle state, the indication comprising a presence or absence of a suspend configuration field in the RRC release message, wherein the indication to suspend the user equipment to the inactive state includes the presence of the suspend configuration field in the RRC release message and the indication to suspend the user equipment to the idle state comprises the absence of the suspend configuration field in the RRC release message; and responsive to determining that the indication is to suspend to an inactive state, transitioning the user equipment to the inactive state; characterized in that , the method further comprising applying, by the user equipment , delta signaling corresponding to a suspend configuration indicated by the suspend configuration field, wherein applying delta signaling comprises:receiving changed suspend configuration information indicated by the suspend configuration field and accessing unchanged suspend configuration information from previously stored suspend configuration information on the user equipment . receiving by the user equipment that is operating in a connected state, a radio resource control (RRC) release message from a network node; determining , based on an indication in the RRC release message, whether to suspend the user equipment to an inactive state or an idle state, the indication comprising a presence or absence of a suspend configuration field in the RRC release message, wherein the indication to suspend the user equipment to the inactive state includes the presence of the suspend configuration field in the RRC release message and the indication to suspend the user equipment to the idle state comprises the absence of the suspend configuration field in the RRC release message; and responsive to determining that the indication is to suspend to an inactive state, transitioning the user equipment to the inactive state; characterized in that , the method further comprising applying, by the user equipment , delta signaling corresponding to a suspend configuration indicated by the suspend configuration field, wherein applying delta signaling comprises:receiving changed suspend configuration information indicated by the suspend configuration field and accessing unchanged suspend configuration information from previously stored suspend configuration information on the user equipment .
A method for controlling wind turbines in a cluster of wind turbines, where each wind turbine is controlled individually and where each wind turbine is configured to deliver power to the same utility grid having a rated frequency, the method comprising the steps of: - providing at a first point in time, t1, a first reduction by which delivery from a first wind turbine in the cluster of wind turbines is reduced from a present power level to a first reduced power level, the first reduction being provided in response to an initial frequency of the utility grid exceeding a first threshold value; and - continuing delivering power from the first wind turbine at the first reduced power level while the initial frequency exceeds the first threshold value, - providing, at a second point in time, t2, a second reduction by which delivery from a second wind turbine in the cluster of wind turbines is reduced from a present power level to a second reduced power level, wherein t2 is later than t1, and the second reduction is thereby shifted in time relative to the first reduction, wherein the second reduction is provided in response to the frequency of the utility grid exceeding a second threshold value, and wherein the first and second threshold values are different, wherein at least one of the first and second reduction reduces to a power level independent on the frequency of the utility grid, wherein the first and second first reduced power level is a technical minimum power for the wind turbine. - providing at a first point in time, t1, a first reduction by which delivery from a first wind turbine in the cluster of wind turbines is reduced from a present power level to a first reduced power level, the first reduction being provided in response to an initial frequency of the utility grid exceeding a first threshold value; and - continuing delivering power from the first wind turbine at the first reduced power level while the initial frequency exceeds the first threshold value, - providing, at a second point in time, t2, a second reduction by which delivery from a second wind turbine in the cluster of wind turbines is reduced from a present power level to a second reduced power level, wherein t2 is later than t1, and the second reduction is thereby shifted in time relative to the first reduction, wherein the second reduction is provided in response to the frequency of the utility grid exceeding a second threshold value, and wherein the first and second threshold values are different, wherein at least one of the first and second reduction reduces to a power level independent on the frequency of the utility grid, wherein the first and second first reduced power level is a technical minimum power for the wind turbine.
A method of managing memory backup in a computing device having a baseboard management controller , a main processor , and a memory controller operatively coupled to a hybrid memory device by a data bus , the hybrid memory device having a volatile memory module , a non-volatile memory module , and a module controller operatively coupled to the volatile memory module and the non-volatile memory module , the method comprising: monitoring , with the baseboard management controller , for a system error in the computing device ; and in response to a system error being detected, with the baseboard management controller , controlling actions of a switch on the data bus between the memory controller and the hybrid memory device and between the baseboard management controller and the hybrid memory device to disengage the memory controller from communicating with and controlling the hybrid memory device and engage the baseboard management controller to the hybrid memory device ; and subsequent to the memory controller being disengaged from communicating with and controlling the hybrid memory device , with the baseboard management controller , causing the module controller of the hybrid memory device to copy data from the volatile memory module to the non-volatile memory module and persistently store in the nonvolatile memory module of the hybrid memory device the copied data from the volatile memory module , without operating the main processor or the memory controller . monitoring , with the baseboard management controller , for a system error in the computing device ; and in response to a system error being detected, with the baseboard management controller , controlling actions of a switch on the data bus between the memory controller and the hybrid memory device and between the baseboard management controller and the hybrid memory device to disengage the memory controller from communicating with and controlling the hybrid memory device and engage the baseboard management controller to the hybrid memory device ; and subsequent to the memory controller being disengaged from communicating with and controlling the hybrid memory device , with the baseboard management controller , causing the module controller of the hybrid memory device to copy data from the volatile memory module to the non-volatile memory module and persistently store in the nonvolatile memory module of the hybrid memory device the copied data from the volatile memory module , without operating the main processor or the memory controller .
A method of constructing a gas turbine system, the method comprising: placing a foundation interface of a gas turbine mannequin on a foundation ; aligning the gas turbine mannequin with a load ; aligning the gas turbine mannequin with an exhaust structure ; connecting the gas turbine mannequin to the load and the exhaust structure ; removing the gas turbine mannequin ; and installing a gas turbine . placing a foundation interface of a gas turbine mannequin on a foundation ; aligning the gas turbine mannequin with a load ; aligning the gas turbine mannequin with an exhaust structure ; connecting the gas turbine mannequin to the load and the exhaust structure ; removing the gas turbine mannequin ; and installing a gas turbine .
A foamed cementitious composition, the composition comprising: calcium aluminate; a nitrogen gas-generating compound, wherein the nitrogen gas-generating compound is azodicarbonamide, wherein the azodicarbonamide is 1% to 10% by weight of the calcium aluminate; an amine activator, wherein the amine activator is an ethyleneamine, and wherein the weight ratio of the azodicarbonamide to the amine activator is 5:1 to 1:5; and a foam surfactant. calcium aluminate; a nitrogen gas-generating compound, wherein the nitrogen gas-generating compound is azodicarbonamide, wherein the azodicarbonamide is 1% to 10% by weight of the calcium aluminate; an amine activator, wherein the amine activator is an ethyleneamine, and wherein the weight ratio of the azodicarbonamide to the amine activator is 5:1 to 1:5; and a foam surfactant.