mhurhangee/ep-ind-claims huggingface dataset:
An ink composition for an inkjet printed steel plate, comprising: a linear acrylate-based oligomer present in an amount of 11% to 50% by weight, based on the overall weight of the ink composition; a reactive acrylate-based monomer present in an amount of 19% to 75% by weight, based on the overall weight of the ink composition; an ultraviolet curable initiator present in an amount of 0.1% to 15% by weight, based on the overall weight of the ink composition; at least one selected from the group consisting of a dye and a pigment, present in an amount of 0.5% to 10% by weight, based on the overall weight of the ink composition; and at least one selected from the group consisting of an antioxidant, an antifoaming agent, and a dispersant, present in an amount of 0.1% to 10% by weight, based on the overall weight of the ink composition; and a linear acrylate-based monomer having an inorganic particle attached thereto, present in an amount of 0.1% to 15% by weight based on the overall weight of the ink composition. a linear acrylate-based oligomer present in an amount of 11% to 50% by weight, based on the overall weight of the ink composition; a reactive acrylate-based monomer present in an amount of 19% to 75% by weight, based on the overall weight of the ink composition; an ultraviolet curable initiator present in an amount of 0.1% to 15% by weight, based on the overall weight of the ink composition; at least one selected from the group consisting of a dye and a pigment, present in an amount of 0.5% to 10% by weight, based on the overall weight of the ink composition; and at least one selected from the group consisting of an antioxidant, an antifoaming agent, and a dispersant, present in an amount of 0.1% to 10% by weight, based on the overall weight of the ink composition; and a linear acrylate-based monomer having an inorganic particle attached thereto, present in an amount of 0.1% to 15% by weight based on the overall weight of the ink composition.
A method of wireless communication comprising: receiving, at a first cell, a message from a second neighboring cell sent to its neighboring cells, the message indicating that the second neighboring cell has a priority transmission scheduled using a first transmission time interval, TTI, the first TTI shorter in duration than a common TTI used by the first cell and the second neighboring cell; and limiting, based at least in part on the message, a communication parameter associated with communications between the first cell and a user equipment, UE, during the scheduled priority transmission. receiving, at a first cell, a message from a second neighboring cell sent to its neighboring cells, the message indicating that the second neighboring cell has a priority transmission scheduled using a first transmission time interval, TTI, the first TTI shorter in duration than a common TTI used by the first cell and the second neighboring cell; and limiting, based at least in part on the message, a communication parameter associated with communications between the first cell and a user equipment, UE, during the scheduled priority transmission.
A foldable child's chair, comprising: a) a frame that includes an upper section and a lower section, the upper section having first and second spaced apart upper frame rods (34, 35) and the lower section having first and second spaced apart lower frame rods (36, 37); b) first and second pivotal connections (16, 17) that join the upper section to the lower section, wherein the first pivotal connection joins the first upper frame rod to the first lower frame rod, and the second pivotal connection joins the second upper frame rod to the second lower frame rod, wherein the upper section is able to rotate into a folded position in which the upper and lower sections (12, 13) are generally aligned; c) a seat back that is attached to the upper section; d) a seat bottom that is attached to the lower section; e) the seat back including a first plurality of panels, and the seat bottom including a second plurality of panels, wherein the panels of the first plurality fold upon one or more other of said panels of said first plurality, and wherein the panels of the second plurality fold upon one or more other of said panels of said second plurality into a storage position; f) wherein in said storage position some of the panels (55-63; 65-73) abut the frame and the pivotal connections (16, 17) move toward one another; g) each seat back and seat bottom being expandable into an expanded position; and h) foldable and expandable locking members (80, 85) that enable the seat back and seat bottom to be held in the expanded position. a) a frame that includes an upper section and a lower section, the upper section having first and second spaced apart upper frame rods (34, 35) and the lower section having first and second spaced apart lower frame rods (36, 37); b) first and second pivotal connections (16, 17) that join the upper section to the lower section, wherein the first pivotal connection joins the first upper frame rod to the first lower frame rod, and the second pivotal connection joins the second upper frame rod to the second lower frame rod, wherein the upper section is able to rotate into a folded position in which the upper and lower sections (12, 13) are generally aligned; c) a seat back that is attached to the upper section; d) a seat bottom that is attached to the lower section; e) the seat back including a first plurality of panels, and the seat bottom including a second plurality of panels, wherein the panels of the first plurality fold upon one or more other of said panels of said first plurality, and wherein the panels of the second plurality fold upon one or more other of said panels of said second plurality into a storage position; f) wherein in said storage position some of the panels (55-63; 65-73) abut the frame and the pivotal connections (16, 17) move toward one another; g) each seat back and seat bottom being expandable into an expanded position; and h) foldable and expandable locking members (80, 85) that enable the seat back and seat bottom to be held in the expanded position.
A polymer comprising: a polyacrylate polymer obtained from a polymerization reaction wherein the polyacrylate polymer has a molecular weight of at least 500,000 and a polydispersity index of 1.25 or less. a polyacrylate polymer obtained from a polymerization reaction wherein the polyacrylate polymer has a molecular weight of at least 500,000 and a polydispersity index of 1.25 or less.
An integrated thermal system for a gas turbine engine having a fan section driving air along a bypass flow path, the integrated thermal system comprising an Air-Air PreCooler immediately downstream and adjacent to an Air-Oil Cooler, characterized in that: the integrated thermal system further comprises a scoop within the bypass flow path, a fan bypass flow duct, and a first pump in fluid communication with said Air-Oil Cooler, wherein fan bypass air is communicated from the scoop to the first pump through the fan bypass flow duct; and said first pump is operable to provide a 1.4:1 pressure ratio from the fan bypass flow path of the gas turbine engine to said Air-Oil Cooler. the integrated thermal system further comprises a scoop within the bypass flow path, a fan bypass flow duct, and a first pump in fluid communication with said Air-Oil Cooler, wherein fan bypass air is communicated from the scoop to the first pump through the fan bypass flow duct; and said first pump is operable to provide a 1.4:1 pressure ratio from the fan bypass flow path of the gas turbine engine to said Air-Oil Cooler.
Mixed beverage containing 90% to 99,9% by weight of a fermented liquid and 0,09% to 5% by weight of a flavouring composition, the flavouring composition being characterized by containing 10% to 40% by weight of a flavouring selected in the group composed of natural flavourings, artificial flavourings, flavourings identical to natural flavourings, smoky flavourings, extracts of flavourings and reaction flavourings and 60% to 90% by weight ethanol, propylene glycol, spirits or mixings of those, in each case relating to the flavouring composition.
A method for classifying application data, comprising: detecting initiation of an application; detecting an action performed relative to the application, wherein the application is configured to encrypt at least a portion of data associated with the detected action; capturing the data associated with the detected action before the application encrypts the at least portion of the data; analyzing the captured data; identifying a packet flow associated with the captured data; identifying the packet flow among a plurality of unidentified packet flows; and applying a network management policy to the identified packet flow based at least in part on the analyzing the captured data. detecting initiation of an application; detecting an action performed relative to the application, wherein the application is configured to encrypt at least a portion of data associated with the detected action; capturing the data associated with the detected action before the application encrypts the at least portion of the data; analyzing the captured data; identifying a packet flow associated with the captured data; identifying the packet flow among a plurality of unidentified packet flows; and applying a network management policy to the identified packet flow based at least in part on the analyzing the captured data.
A method for service-centric mobility-based traffic steering, characterized by comprising: receiving, by a service-centric traffic steering, SCTS, entity, data that comprises quality of service, QoS, or quality of experience, QoE, QoS/E, data, wherein the quality of service, QoS, or quality of experience, QoE, QoS/E, data is associated with at least one user equipment, UE and wherein the data further comprises mobility pattern prediction data; determining, by the service-centric traffic steering, SCTS, entity, at least one handover, HO, trigger point for at least one handover, HO, trigger parameter for at least one kind of service associated with the at least one user equipment, UE, based on the quality of service, QoS, or quality of experience, QoE, QoS/E, data; and providing, by the service-centric traffic steering, SCTS, entity, the at least one handover, HO, trigger point for the at least one handover, HO, trigger parameter wherein determining the at least one handover trigger point comprises utilizing at least one machine learning decision engine to determine the at least one handover trigger point, and wherein the at least one machine learning decision engine considers at least one context in at least one cell for at least one service, wherein the machine learning engine is configured to account for different contexts in different cells and/or for different services, and may select handover settings for a UE under different cell and/or service contexts, where a context includes a mobility profile and a packet size. receiving, by a service-centric traffic steering, SCTS, entity, data that comprises quality of service, QoS, or quality of experience, QoE, QoS/E, data, wherein the quality of service, QoS, or quality of experience, QoE, QoS/E, data is associated with at least one user equipment, UE and wherein the data further comprises mobility pattern prediction data; determining, by the service-centric traffic steering, SCTS, entity, at least one handover, HO, trigger point for at least one handover, HO, trigger parameter for at least one kind of service associated with the at least one user equipment, UE, based on the quality of service, QoS, or quality of experience, QoE, QoS/E, data; and providing, by the service-centric traffic steering, SCTS, entity, the at least one handover, HO, trigger point for the at least one handover, HO, trigger parameter wherein determining the at least one handover trigger point comprises utilizing at least one machine learning decision engine to determine the at least one handover trigger point, and wherein the at least one machine learning decision engine considers at least one context in at least one cell for at least one service, wherein the machine learning engine is configured to account for different contexts in different cells and/or for different services, and may select handover settings for a UE under different cell and/or service contexts, where a context includes a mobility profile and a packet size.
An agricultural or horticultural chemical containing a plurality of active ingredients, the agricultural or horticultural chemical comprising: as one of active ingredients, an azole derivative represented by general formula below; and, as another one of the active ingredients, a compound having a ubiquinol reductase inhibitory capacity: wherein, R 1 represents an alkyl group having from 1 to 6 carbons, R 2 represents a hydrogen atom, an alkyl group having from 1 to 3 carbons, an alkenyl group having from 2 to 3 carbons or an alkynyl group having from 2 to 3 carbons, A represents a nitrogen atom or a methine group, Y 1 represents a halogen atom, and n represents either 0 or 1; wherein the compound having a ubiquinol reductase inhibitory capacity is at least any one of pyraclostrobin, azoxystrobin, kresoxim-methyl, trifloxystrobin, fluoxastrobin, picoxystrobin, and dimoxystrobin.
Aligning device for aligning a guide rail of an elevator system, the guide rail being held on a shaft wall of an elevator shaft and being displaceable in at least two horizontal directions (49, 53) aligned transversely to one another before a final securing process, the aligning device comprising: a detection device, which is configured to detect, in an automated manner, a position deviation of the guide rail from a target position, characterized in that the aligning device also has a hammer mill, which is configured to hammer the guide rail in an automated manner depending on the detected position deviation by exerting pulse-like strikes in one of the horizontal directions (49, 53) toward the target position.
A method for monitoring the position and assessing the correct position P i of a slide, particularly a work slide of a wedge drive tool in a press, in particular without a position sensor, while actuating the slide bed of the wedge drive tool from an end position (X E) back to the starting position (X A) of the slide using a spring, preferably a gas pressure spring which is arranged in the wedge drive tool, when opening the press from a lower press position to an upper press position, wherein the position of the slide is indirectly detected in that at least the restoring force of the spring is detected and evaluated, characterized by the following steps: a) Detecting the restoring force F m (t) of the spring at at least one point in time t, which is either at or after the beginning of the respective opening process of the press in which the slide, actuated by the spring, is to move along the path x from its end position (X E) back to its starting position (X A); b) Determining by means of an electronic evaluation unit, whether the restoring force F m (t) is equal to, greater or smaller than a specified target restoring force Fs (x), which the restoring force at the location x of the slide should correspond to; and c) Determining the respective condition value at the point in time t, which represents a permissible or impermissible actual position P i of the wedge drive tool at position x between the potential positions X A and X E - starting position and end position -, where Z x t = { P i impermissible, Fm x < Fs x P i permissible, Fm x ≥ Fs x d) Generating an action for stopping the press if the condition value P i is found to be impermissible. a) Detecting the restoring force F m (t) of the spring at at least one point in time t, which is either at or after the beginning of the respective opening process of the press in which the slide, actuated by the spring, is to move along the path x from its end position (X E) back to its starting position (X A); b) Determining by means of an electronic evaluation unit, whether the restoring force F m (t) is equal to, greater or smaller than a specified target restoring force Fs (x), which the restoring force at the location x of the slide should correspond to; and c) Determining the respective condition value at the point in time t, which represents a permissible or impermissible actual position P i of the wedge drive tool at position x between the potential positions X A and X E - starting position and end position -, where Z x t = { P i impermissible, Fm x < Fs x P i permissible, Fm x ≥ Fs x d) Generating an action for stopping the press if the condition value P i is found to be impermissible.
Photovoltaic concentrator module (101, 201), comprising a pressure-tight housing (108, 208, 212); at least one lens (102, 202); and at least one photovoltaic cell (103, 203); further comprising a distance adjustment means (111, 211), configured to adjust the distance between the at least one lens (102, 202) and the at least one photovoltaic cell (103, 203); characterized in that the distance adjustment means (111, 211) is configured to actively adjust the distance by varying pressure by opening or closing at least one valve (109, 209) in order to increase or decrease the pressure inside the pressure-tight housing (108, 208, 212).
A handheld vision tester for vision self-testing by a user, comprising: a display configured to present different shapes, either statically or dynamically, to said user for said vision self-testing at a viewing distance of eyes of said user from said display; a control configured to allow said user to: input responses to said displayed different shapes; trigger operations of said handheld vision tester; and control said handheld vision tester, characterized in that said handheld vision tester further comprises: a camera configured to take an image and, from the image, make appropriate measurements of said viewing distance, thereby configured to ensure eyes of said user are within an acceptable distance to said display, wherein the handheld vision tester is configured to compensate for differences in desired viewing distances for different self-tests by adjusting an aspect of the test image presented in the display and/or scaling the user's resultant test score. a display configured to present different shapes, either statically or dynamically, to said user for said vision self-testing at a viewing distance of eyes of said user from said display; a control configured to allow said user to: input responses to said displayed different shapes; trigger operations of said handheld vision tester; and control said handheld vision tester, input responses to said displayed different shapes; trigger operations of said handheld vision tester; and control said handheld vision tester, characterized in that said handheld vision tester further comprises: a camera configured to take an image and, from the image, make appropriate measurements of said viewing distance, thereby configured to ensure eyes of said user are within an acceptable distance to said display, wherein the handheld vision tester is configured to compensate for differences in desired viewing distances for different self-tests by adjusting an aspect of the test image presented in the display and/or scaling the user's resultant test score. a camera configured to take an image and, from the image, make appropriate measurements of said viewing distance, thereby configured to ensure eyes of said user are within an acceptable distance to said display, wherein the handheld vision tester is configured to compensate for differences in desired viewing distances for different self-tests by adjusting an aspect of the test image presented in the display and/or scaling the user's resultant test score.
Method for estimating the influence of speckle on a quality of a radiometric calibration of an imaging spectrometer, wherein the spectrometer comprises a telescope arrangement, a detector with a plurality of detector pixels and a dispersive element which causes a dispersion k, and wherein light, in particular sunlight, is coupled into the spectrometer through a diffuser for the calibration, comprising the step: calculating a numerical contrast value C detector as C Detektor = 1 M where M represents a total degree of freedom for influencing variables that affect the contrast that can be measured by the detector, where M is composed of several individual degrees of freedom, which comprise an individual degree of freedom M polarization, an individual degree of freedom M spectral and an individual degree of freedom M pixel, where M polarization depends on a polarization of the light entering the spectrometer, where M spectral depends on a spectral resolution λ res of the spectrometer and a correlation between spectrally different monochromatic intensity distributions, where M Pixel depends on a single area A Detector of a detector pixel and a correlation area A Speckle of a speckle, and wherein the calculation is performed for an intensity distribution obtained as a superposition of monochromatic intensities describable by monochromatic fields which are circular complex Gaussian variables. where M represents a total degree of freedom for influencing variables that affect the contrast that can be measured by the detector, where M is composed of several individual degrees of freedom, which comprise an individual degree of freedom M polarization, an individual degree of freedom M spectral and an individual degree of freedom M pixel, where M polarization depends on a polarization of the light entering the spectrometer, where M spectral depends on a spectral resolution λ res of the spectrometer and a correlation between spectrally different monochromatic intensity distributions, where M Pixel depends on a single area A Detector of a detector pixel and a correlation area A Speckle of a speckle, and wherein the calculation is performed for an intensity distribution obtained as a superposition of monochromatic intensities describable by monochromatic fields which are circular complex Gaussian variables.