mhurhangee/ep-ind-claims huggingface dataset:
A method of classifying Uniform Resource Locators "URLs" based on content in corresponding websites, the method performed by a network device, the method comprising: extracting a plurality of website contents from a website associated with a URL based on Optical Character Recognition "OCR"; classifying each of the plurality of website contents into a plurality of webpage categories based on machine learning, wherein the plurality of website contents comprises at least one of images, textual description, inputs fields, buttons, audio, video, embedded documents, paragraphs, links, file paths, forms, Hyper Text Markup Language "HTML" geolocations, or HTML references; simulating user actions for the plurality of website contents, based on a webpage category associated with each of the plurality of website contents, wherein for simulating user actions, machine learning techniques are used to generate data feeds and parameters as per the webpage category associated with each of the plurality of website contents; building a mesh of the simulated user actions and associated results; and determining an access classification for the URL based on the mesh and the results of simulating the user actions and machine learning. extracting a plurality of website contents from a website associated with a URL based on Optical Character Recognition "OCR"; classifying each of the plurality of website contents into a plurality of webpage categories based on machine learning, wherein the plurality of website contents comprises at least one of images, textual description, inputs fields, buttons, audio, video, embedded documents, paragraphs, links, file paths, forms, Hyper Text Markup Language "HTML" geolocations, or HTML references; simulating user actions for the plurality of website contents, based on a webpage category associated with each of the plurality of website contents, wherein for simulating user actions, machine learning techniques are used to generate data feeds and parameters as per the webpage category associated with each of the plurality of website contents; building a mesh of the simulated user actions and associated results; and determining an access classification for the URL based on the mesh and the results of simulating the user actions and machine learning.
A rectifier circuit for rectifying a voltage (Va), comprising: a first transistor including a first node and a second node, the first node configured as a drain and source connected to a second terminal, the second node configured as a drain and source connected to a first terminal, the first terminal configured to receive the voltage (Va), the second terminal configured to output a rectified voltage (Vb); a second transistor including a source connected to the first node, and a gate and a drain connected to a gate of the first transistor; and a resistor connected to the gate of the first transistor and to the drain and the gate of the second transistor, wherein the gate of the second transistor is configured to receive a bias voltage so that the second transistor is placed in an on state, wherein a first back gate of the first transistor and a second back gate of the second transistor are connected to the first node, and wherein the second transistor is configured to be turned on when an input voltage higher than a voltage level at the first node is applied to a node, corresponding to the terminal of the resistor, which is not connected to the gate of the first transistor. a first transistor including a first node and a second node, the first node configured as a drain and source connected to a second terminal, the second node configured as a drain and source connected to a first terminal, the first terminal configured to receive the voltage (Va), the second terminal configured to output a rectified voltage (Vb); a second transistor including a source connected to the first node, and a gate and a drain connected to a gate of the first transistor; and a resistor connected to the gate of the first transistor and to the drain and the gate of the second transistor, wherein the gate of the second transistor is configured to receive a bias voltage so that the second transistor is placed in an on state, wherein a first back gate of the first transistor and a second back gate of the second transistor are connected to the first node, and wherein the second transistor is configured to be turned on when an input voltage higher than a voltage level at the first node is applied to a node, corresponding to the terminal of the resistor, which is not connected to the gate of the first transistor.
A user equipment comprising: at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the user equipment to obtain a conditional handover command, the conditional handover command indicating a multiple cell target for handover from a source cell and at least one performance margin, each of the at least one performance margin associated with a cell neighboring a first cell in the multiple cell target, determine whether to initiate a handover to the first cell based on the at least one performance margin, and transmit data to the first cell based on the determination of whether to initiate the handover, wherein the at least one performance margin is either a permitted signal offset for a first frequency or a permitted difference between a measured signal strength of the first cell and a measured signal strength of the cell neighboring the first cell. at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the user equipment to obtain a conditional handover command, the conditional handover command indicating a multiple cell target for handover from a source cell and at least one performance margin, each of the at least one performance margin associated with a cell neighboring a first cell in the multiple cell target, determine whether to initiate a handover to the first cell based on the at least one performance margin, and transmit data to the first cell based on the determination of whether to initiate the handover, obtain a conditional handover command, the conditional handover command indicating a multiple cell target for handover from a source cell and at least one performance margin, each of the at least one performance margin associated with a cell neighboring a first cell in the multiple cell target, determine whether to initiate a handover to the first cell based on the at least one performance margin, and transmit data to the first cell based on the determination of whether to initiate the handover, wherein the at least one performance margin is either a permitted signal offset for a first frequency or a permitted difference between a measured signal strength of the first cell and a measured signal strength of the cell neighboring the first cell.
Circulation compound system with a device for energy coupling and at least two heat exchangers (LWT ZU1, LWT 2) in a flow volume of supply air and at least one heat exchanger (LWT AB1) in a flow volume of exhaust air of an air treatment system, characterized by providing a facility for creating of heat carrier circuits (WK1, WK2) in the circulation compound system in that way that the flow of the heat carrier for the heat exchangers (LWT ZU1, LWT 2, LWT AB1) can be configured variably, so that either all heat exchangers (LWT ZU1, LWT 2, LWT AB1) are switched as a circulation compound system or at least one supply air heat exchanger (LWT ZU1) and at least an exhaust heat exchanger (LWT AB1) are switched as a circuit compound system to be trained in a heat carrier circuit and at least a further supply air heat exchanger (LWT 2) is arranged and can be operated for additional heating or cooling the air in the volume flow in the supply air with a separate heat carrier circuit.
Composition including more than 90% by weight of Norbixin obtained by purification from a Bixa orellana seed extract, for use for the photoprotection of retinal pigment epithelium cells in mammals by administering said composition to said mammal, per day, in a quantity between 0.48 mg/kg of body weight and 48 mg/kg of body weight.
A device designed to ensure isolation in case of a thermal rupture assuming the form of a construction equipment element, comprising an isolating material to be positioned in an essentially longitudinal direction between two building parts, and framework bars (4, 6) that cross through the isolating material, the device comprising a profile assuming the form of a box or a cage (1, 3) that is open or closed and that defines an inner space in which said isolating material is arranged, characterized in that said box or said cage has, at least in cross-section, an essentially rectangular and completely closed perimeter and essentially has the shape of a rectangular rhomb.
Slab production plant for the production of stone and concrete slabs, wherein the slab production plant has at least two work stations for producing the slabs and a conveying device which transports the slabs in a conveying direction, a checking station for checking the slabs and a sorting device for sorting the slabs, wherein at least one robot device is provided for sorting slabs (8, 9), characterised in that the checking station has a checking device for marking a slab (8, 9) and an image recording device for generating position signals which can be transmitted to the robot device, wherein the checking device is designed as a checking rod and/or the checking device has at least one first actuating device for transmitting a first signal which can trigger an image recording by the image recording device, wherein the checking device has an actuating region on which the actuating device(s) is/are arranged and a front end which is suitable and intended for digitally capturing a position of a slab (8, 9) on a support.
A threshing and separating system for an agricultural harvester, comprising: a rotor defining a rotor axis; and a rotor cage at least partially enclosing said rotor, said rotor cage including a first flat wall, a second flat wall connected to and angled with respect to said first flat wall, and a curved wall connected to said second flat wall; characterized in that: said curved wall defines a radius relative to the rotor axis which is adjacent to a second wall end of said second flat wall; and at least one vane (210, 220) is connected to one of said first flat wall and said second flat wall. a rotor defining a rotor axis; and a rotor cage at least partially enclosing said rotor, said rotor cage including a first flat wall, a second flat wall connected to and angled with respect to said first flat wall, and a curved wall connected to said second flat wall;
Painting facility comprising a painting chamber in which a painting device is arranged, wherein the painting device comprises a painting robot and a workpiece holder, wherein the painting device comprises a movable casing and the workpiece holder comprises a frame and a workpiece mount, wherein • the casing is designed in such a manner that it can easily be removed out of the painting chamber, characterized in that • the casing is arranged in the painting chamber in a movable manner in such a way that once the workpiece holder has been inserted into the painting chamber, the casing can be put over the essential components of the workpiece holder and, after the painting process, the casing can then release the workpiece holder, and • the casing can be arranged or placed in a position which allows that during the painting process the casing can be placed between the frame and the workpiece mount and thereby the casing can encase the workpiece mount, and • the casing can be removed before and after the painting process or can be displaced from the position between the frame and the workpiece mount in such a manner that the casing cannot encase the workpiece mount. • the casing is designed in such a manner that it can easily be removed out of the painting chamber, characterized in that • the casing is arranged in the painting chamber in a movable manner in such a way that once the workpiece holder has been inserted into the painting chamber, the casing can be put over the essential components of the workpiece holder and, after the painting process, the casing can then release the workpiece holder, and • the casing can be arranged or placed in a position which allows that during the painting process the casing can be placed between the frame and the workpiece mount and thereby the casing can encase the workpiece mount, and • the casing can be removed before and after the painting process or can be displaced from the position between the frame and the workpiece mount in such a manner that the casing cannot encase the workpiece mount.
A method for operating a trapping ion mobility spectrometer, said trapping ion mobility spectrometer comprising an ion source, an RF ion trap and a trapping ion mobility separator, comprising the steps: (a) accumulating ions from the ion source in the RF ion trap; (b) transferring at least a subset of the accumulated ions into the trapping ion mobility separator, in which the transferred ions are radially confined by an RF field and pushed by a gas flow against a rising edge of a first axial electric DC field barrier such that the transferred ions are spatially separated along the rising edge according to ion mobility; and (c) acquiring an ion mobility spectrum of the transferred ions by decreasing the height of the first electric DC field barrier while ions from the ion source are further accumulated in the RF ion trap, wherein, during steps (a) and (c), the accumulated ions are pushed by the gas flow in the axial direction against a rising edge of a second electric DC field barrier in the RF ion trap and wherein the height of the second DC field barrier is adjusted such that ions are trapped along the rising edge of the second DC field barrier and spatially separated according to ion mobility. (a) accumulating ions from the ion source in the RF ion trap; (b) transferring at least a subset of the accumulated ions into the trapping ion mobility separator, in which the transferred ions are radially confined by an RF field and pushed by a gas flow against a rising edge of a first axial electric DC field barrier such that the transferred ions are spatially separated along the rising edge according to ion mobility; and (c) acquiring an ion mobility spectrum of the transferred ions by decreasing the height of the first electric DC field barrier while ions from the ion source are further accumulated in the RF ion trap,
A method, comprising: a processor device executing program code in one or more threads, the processor device detecting a call of a function in one of the threads; the processor device executing the function in a further thread; and the processor device performing a selection between saving a state of the processor device when starting execution of the function in the further thread and not saving the state of the processor device when starting execution of the function in the further thread, said selection depending on comparison of a depth of the function to a depth of a further function currently executed by the processor device, the depth of a given function being defined a parameter which reflects a level of nesting of subordinate functions which are called within the given function. a processor device executing program code in one or more threads, the processor device detecting a call of a function in one of the threads; the processor device executing the function in a further thread; and the processor device performing a selection between saving a state of the processor device when starting execution of the function in the further thread and not saving the state of the processor device when starting execution of the function in the further thread, said selection depending on comparison of a depth of the function to a depth of a further function currently executed by the processor device, the depth of a given function being defined a parameter which reflects a level of nesting of subordinate functions which are called within the given function.
A folding type seat comprising: a seat frame composed of a seat cushion frame and a seat back frame; a body supporting bracket supporting a body section, forming a reclining mechanism, and fixed to the seat cushion frame; and a passive section supporting bracket supporting a passive section, forming the reclining mechanism, and fixed to the seat cushion frame; and at least one of the body supporting bracket and the passive section supporting bracket including an impact absorbing section provided in a position below the reclining mechanism for absorbing impact energy applied to the seat frame in a fore and aft direction of a vehicle, characterized by the body supporting bracket and the passive section supporting bracket being located inward of external surfaces of the seat cushion and the seat back by predetermined spacing distances, wherein the impact absorbing section includes a bend section (23,25) provided on the at least one of the body supporting bracket and the passive section supporting bracket and curved in a nearly L-shape configuration when viewed from the side; and wherein the bend section (23,25) is caused to deform in a way to extend in deployment in response to the load imparted to the seat frame in the fore and aft direction of the vehicle. a seat frame composed of a seat cushion frame and a seat back frame; a body supporting bracket supporting a body section, forming a reclining mechanism, and fixed to the seat cushion frame; and a passive section supporting bracket supporting a passive section, forming the reclining mechanism, and fixed to the seat cushion frame; and at least one of the body supporting bracket and the passive section supporting bracket including an impact absorbing section provided in a position below the reclining mechanism for absorbing impact energy applied to the seat frame in a fore and aft direction of a vehicle, characterized by the body supporting bracket and the passive section supporting bracket being located inward of external surfaces of the seat cushion and the seat back by predetermined spacing distances, wherein the impact absorbing section includes a bend section (23,25) provided on the at least one of the body supporting bracket and the passive section supporting bracket and curved in a nearly L-shape configuration when viewed from the side; and wherein the bend section (23,25) is caused to deform in a way to extend in deployment in response to the load imparted to the seat frame in the fore and aft direction of the vehicle.
A food composition for use in preventing or alleviating menopausal symptoms, comprising: a Puerariae Flos extract; and an extract of one or more selected from the group consisting of Citri Fructus Aurantii and Citri Pericarpium. a Puerariae Flos extract; and an extract of one or more selected from the group consisting of Citri Fructus Aurantii and Citri Pericarpium.
A system for augmenting a glenoid with an augment in preparation for implantation of a glenoid implant including a central peg and a peripheral peg, the system comprising: an augment guide block, the augment guide block including: a body having a guide slot angularly extending from a first surface to a second opposing surface at an angle α which is neither parallel nor perpendicular relative to each of the first surface and second surface, a plurality of alignment members (48, 50) extending from the second surface of the body that are configured to removably couple the body to the glenoid at locations that correspond to locations where the central peg and peripheral peg will couple the glenoid implant to the glenoid, and a boss formed on the first surface; a handle configured to mate with the boss, and operable to orient the augment guide block relative to the glenoid; and an augmenting device configured to be received within the slot, and operable to augment the glenoid at the angle α, wherein the angle α corresponds to the angle at which the glenoid is shapeable to correspond to a surface of the augment for the glenoid implant. an augment guide block, the augment guide block including: a body having a guide slot angularly extending from a first surface to a second opposing surface at an angle α which is neither parallel nor perpendicular relative to each of the first surface and second surface, a plurality of alignment members (48, 50) extending from the second surface of the body that are configured to removably couple the body to the glenoid at locations that correspond to locations where the central peg and peripheral peg will couple the glenoid implant to the glenoid, and a boss formed on the first surface; a body having a guide slot angularly extending from a first surface to a second opposing surface at an angle α which is neither parallel nor perpendicular relative to each of the first surface and second surface, a plurality of alignment members (48, 50) extending from the second surface of the body that are configured to removably couple the body to the glenoid at locations that correspond to locations where the central peg and peripheral peg will couple the glenoid implant to the glenoid, and a boss formed on the first surface; a handle configured to mate with the boss, and operable to orient the augment guide block relative to the glenoid; and an augmenting device configured to be received within the slot, and operable to augment the glenoid at the angle α, wherein the angle α corresponds to the angle at which the glenoid is shapeable to correspond to a surface of the augment for the glenoid implant.
A process for the preparation of raltegravir potassium amorphous form, which comprises: a. stirring raltegravir potassium in water; b. removing the water from the solution obtained in step (a) to obtain a solid; c. slurrying the solid obtained in step (b) with an organic solvent; and d. isolating raltegravir potassium amorphous form, wherein the organic solvent used in step (c) is a solvent or a mixture of solvents and selected from the group consisting of a heptane, hexane, diethyl ether, cyclohexane, n-hexanol, n-octanol, 3-ethyl-3-pentanol, polyethylene glycol, isopropyl acetate, n-butyl acetate, glycerol triacetate, acetone, methyl isobutyl ketone, 2,4-dimethylpentanone, alpha-tetralone, methyl t-butyl ether, 2,2,4,4-tetramethyltetrahydrofuran, toluene, tetralin, nitrobenzene, p-xylene, sulfolane and decalin. a. stirring raltegravir potassium in water; b. removing the water from the solution obtained in step (a) to obtain a solid; c. slurrying the solid obtained in step (b) with an organic solvent; and d. isolating raltegravir potassium amorphous form,
A composition characterized in that it comprises one or more eukaryotic microalgae and one or more soluble indigestible fibers of which at least one is a branched maltodextrin.