mhurhangee/ep-ind-claims huggingface dataset:
A bearing arrangement for a rotor shaft of a wind turbine, in which the rotor shaft transfers a rotation of a hub provided with rotor blades to a generator, wherein the bearing arrangement comprises a hub-side rolling bearing and a generator-side rolling bearing, wherein the hub-side rolling bearing is formed as a radial roller bearing, characterized in that the generator-side rolling bearing is formed as a three-row roller rotary connection.
A system comprising: at least one processor; a memory connected to the at least one processor; a diagnostic tool comprising: at least one program module loaded into the memory, the at least one program module creating a diagnostic workflow file, the diagnostic workflow file comprising instructions for controlling future diagnostic operations of a debugger without user interaction with the debugger as the debugger executes, wherein said instructions in the diagnostic workflow file can be executed conditionally; and wherein said controlling of future diagnostic operations of the debugger without user interaction with the debugger includes providing a diagnostic workflow engine configured for performing debug operations on a running application as directed by the diagnostic workflow file using code injection, wherein the conditional diagnostic instructions are dynamically injected into a created snapshot runtime of the executed application. at least one processor; a memory connected to the at least one processor; a diagnostic tool comprising: at least one program module loaded into the memory, the at least one program module creating a diagnostic workflow file, the diagnostic workflow file comprising instructions for controlling future diagnostic operations of a debugger without user interaction with the debugger as the debugger executes, wherein said instructions in the diagnostic workflow file can be executed conditionally; and wherein said controlling of future diagnostic operations of the debugger without user interaction with the debugger includes providing a diagnostic workflow engine configured for performing debug operations on a running application as directed by the diagnostic workflow file using code injection, wherein the conditional diagnostic instructions are dynamically injected into a created snapshot runtime of the executed application. at least one program module loaded into the memory, the at least one program module creating a diagnostic workflow file, the diagnostic workflow file comprising instructions for controlling future diagnostic operations of a debugger without user interaction with the debugger as the debugger executes, wherein said instructions in the diagnostic workflow file can be executed conditionally; and wherein said controlling of future diagnostic operations of the debugger without user interaction with the debugger includes providing a diagnostic workflow engine configured for performing debug operations on a running application as directed by the diagnostic workflow file using code injection, wherein the conditional diagnostic instructions are dynamically injected into a created snapshot runtime of the executed application.
A rotary tool comprising: a housing including an end portion having external threads; a tool holder extending from said end portion, said tool holder including a fastening member configured for movement between an unclamped position and a clamped position in which the tool holder can engage a tool; and a wrench assembly including a body portion and a wrench member, said body portion including (i) internal threads configured to meshingly engage said external threads and (ii) an opening through which a portion of said tool holder extends when said internal threads are meshingly engaged to said external threads, and said wrench member including a wrench surface configured to engage said fastening member. a housing including an end portion having external threads; a tool holder extending from said end portion, said tool holder including a fastening member configured for movement between an unclamped position and a clamped position in which the tool holder can engage a tool; and a wrench assembly including a body portion and a wrench member, said body portion including (i) internal threads configured to meshingly engage said external threads and (ii) an opening through which a portion of said tool holder extends when said internal threads are meshingly engaged to said external threads, and said wrench member including a wrench surface configured to engage said fastening member. said body portion including (i) internal threads configured to meshingly engage said external threads and (ii) an opening through which a portion of said tool holder extends when said internal threads are meshingly engaged to said external threads, and said wrench member including a wrench surface configured to engage said fastening member.
A method of generating a color mapping representative of a color halftone processing pipeline comprising: generating a color chart comprising a plurality of test patches representing a sampling of an input color space of the color halftone processing pipeline; preparing a color separation for the color chart using the color halftone processing pipeline, the color separation comprising continuous tone data in a colorant space; applying a halftoning operation to the color separation using the color halftone processing pipeline to generate a halftone output comprising data indicative of colorant drop states per halftone pixel; for each of one or more selected test patches in the halftone output, determining one or more Neugebauer Primary area coverage (NPac) values for the selected test patch based on drop-state statistics for the selected test patch; and generating a color-space-to-NPac color mapping based on the determined NPac values for each of the one or more selected test patches. generating a color chart comprising a plurality of test patches representing a sampling of an input color space of the color halftone processing pipeline; preparing a color separation for the color chart using the color halftone processing pipeline, the color separation comprising continuous tone data in a colorant space; applying a halftoning operation to the color separation using the color halftone processing pipeline to generate a halftone output comprising data indicative of colorant drop states per halftone pixel; for each of one or more selected test patches in the halftone output, determining one or more Neugebauer Primary area coverage (NPac) values for the selected test patch based on drop-state statistics for the selected test patch; and generating a color-space-to-NPac color mapping based on the determined NPac values for each of the one or more selected test patches.
Riluzole or a pharmaceutically acceptable salt, solvate, anomer, enantiomer, hydrate or prodrug thereof and a checkpoint inhibitor for use in a method of treating cancer in a patient, wherein prodrugs of riluzole are compounds having the following formula; or an enantiomer, diastereomer, hydrate, solvate, pharmaceutically acceptable salt or complex thereof; wherein R 23 is selected from the group consisting H, CH 3, CH 2 CH 3, CH 2 CH 2 CH 3, CH 2 CCH, CH(CH 3) 2, CH 2 CH(CH 3) 2, CH(CH 3)CH 2 CH 3, CH 2 OH, CH 2 OCH 2 Ph, CH 2 CH 2 OCH 2 Ph, CH CH 3, CH 2 Ph, CH 2 (cyclohexyl), CH 2 (4-OH-Ph), (CH 2) 4 NH 2, (CH 2) 3 NHC(NH 2)NH, CH 2 (3-indole), CH 2 (5-imidazole), CH 2 CO 2 H, CH 2 CH 2 CO 2 H, CH 2 CONH 2, and CH 2 CH 2 CONH 2.
A method of generating a control signal in a system having N radio terminals, wherein N ≥ 2, comprising the steps of: determining the locations of the N terminals characterised by: comparing the locations of the N terminals with M different specified locations, wherein 2 ≤ M ≤ N, to determine if any of said N terminals are located at any of said M different specified locations; and generating a control signal based on the comparison, wherein the terminals are movable, wherein M=N, each of the N mobile radio terminals has an assigned specified location, and the step of comparing comprises the step of comparing the location of each of the N mobile terminals with its assigned location, and wherein the step of generating a control signal based on the comparison comprises the step of generating a control signal if each of the N mobile terminals is located at its assigned location. determining the locations of the N terminals characterised by: comparing the locations of the N terminals with M different specified locations, wherein 2 ≤ M ≤ N, to determine if any of said N terminals are located at any of said M different specified locations; and generating a control signal based on the comparison, comparing the locations of the N terminals with M different specified locations, wherein 2 ≤ M ≤ N, to determine if any of said N terminals are located at any of said M different specified locations; and generating a control signal based on the comparison, wherein the terminals are movable, wherein M=N, each of the N mobile radio terminals has an assigned specified location, and the step of comparing comprises the step of comparing the location of each of the N mobile terminals with its assigned location, and wherein the step of generating a control signal based on the comparison comprises the step of generating a control signal if each of the N mobile terminals is located at its assigned location.
A method for encoding a user data signal, the method comprising: receiving (201, 301, 401, 501, 601, 701) in an encoder a user data signal; encoding (205, 205', 305, 305', 405, 405', 505, 505', 605, 605', 705, 705'), by the encoder, the user data signal at least to two separate payloads, so that a first payload provides a basic quality, which is supported by legacy user apparatuses, and a second payload provides a higher quality, which is not supported by the legacy user apparatuses; characterized by providing end-to-end encryption between an apparatus comprising the encoder and one or more recipients by encrypting (208, 208', 308, 308', 408, 408', 508, 508', 608, 608', 708, 708') the first payload by a first encryption unit in the encoder and the second payload by a second encryption unit in the encoder; forming, by the encoder, from the at least two encrypted separate payloads a user data set (206e-s, 207e-s, 310, 406e-s, 407e-sm 506e-s, 507e-s, 606, 607, 710) representing the received user data signal; and sending the user data set towards the one or more recipients. receiving (201, 301, 401, 501, 601, 701) in an encoder a user data signal; encoding (205, 205', 305, 305', 405, 405', 505, 505', 605, 605', 705, 705'), by the encoder, the user data signal at least to two separate payloads, so that a first payload provides a basic quality, which is supported by legacy user apparatuses, and a second payload provides a higher quality, which is not supported by the legacy user apparatuses; characterized by providing end-to-end encryption between an apparatus comprising the encoder and one or more recipients by encrypting (208, 208', 308, 308', 408, 408', 508, 508', 608, 608', 708, 708') the first payload by a first encryption unit in the encoder and the second payload by a second encryption unit in the encoder; forming, by the encoder, from the at least two encrypted separate payloads a user data set (206e-s, 207e-s, 310, 406e-s, 407e-sm 506e-s, 507e-s, 606, 607, 710) representing the received user data signal; and sending the user data set towards the one or more recipients.
A method comprising: directing an ion beam to a region of a sample to liberate charged particles from the region of the sample, wherein the directed ion beam is pulsed at a first repetition rate; deflecting a first subset of the liberated charged particles from a first path to a second path different from the first path in response to a gate signal synchronized with the repetition rate of the pulsed ion beam; and detecting the first subset of the liberated charged particles in a time-of-flight mass spectrometer to determine information about the sample, wherein the gate signal sets a common reference time for the TOF mass spectrometer for the first subset of charged particles liberated by each pulse of the ion beam. directing an ion beam to a region of a sample to liberate charged particles from the region of the sample, wherein the directed ion beam is pulsed at a first repetition rate; deflecting a first subset of the liberated charged particles from a first path to a second path different from the first path in response to a gate signal synchronized with the repetition rate of the pulsed ion beam; and detecting the first subset of the liberated charged particles in a time-of-flight mass spectrometer to determine information about the sample, wherein the gate signal sets a common reference time for the TOF mass spectrometer for the first subset of charged particles liberated by each pulse of the ion beam.
A gender neutral reusable diaper, comprising: an inner layer comprising an absorbent material; an outer layer formed of a substantially liquid-impervious material; at least one fluid-absorbing insert for use in absorbing fluids; a forward waist portion defined by at least part of the inner layer; a rearward waist portion defined by at least part of the inner layer; and a crotch portion disposed generally between the forward waist portion and the rearward waist portion; wherein the inner layer is disposed generally between the outer layer and the at least one fluid-absorbing insert; wherein the at least one fluid-absorbing insert has a first end and a second end opposite the first end, the first end is fastened to the inner layer at a first location adjacent the forward waist portion and the second end is fastened to the inner layer at a second location adjacent the rearward waist portion; wherein the at least one fluid-absorbing insert includes two individual and separate layers (56, 58) having free ends that are overlapped and stitched to the inner layer; and wherein the at least one fluid-absorbing insert includes a portion between the first and second ends that is adjustable relative to the inner layer between the first location and the second location for selectively changing an overlapped region of the at least one fluid-absorbing insert to accommodate use by a male and/or a female, where the layers of the at least one fluid-absorbing insert are folded, bulked, or gathered over themselves to provide the overlapped region. an inner layer comprising an absorbent material; an outer layer formed of a substantially liquid-impervious material; at least one fluid-absorbing insert for use in absorbing fluids; a forward waist portion defined by at least part of the inner layer; a rearward waist portion defined by at least part of the inner layer; and a crotch portion disposed generally between the forward waist portion and the rearward waist portion; wherein the inner layer is disposed generally between the outer layer and the at least one fluid-absorbing insert; wherein the at least one fluid-absorbing insert has a first end and a second end opposite the first end, the first end is fastened to the inner layer at a first location adjacent the forward waist portion and the second end is fastened to the inner layer at a second location adjacent the rearward waist portion; wherein the at least one fluid-absorbing insert includes two individual and separate layers (56, 58) having free ends that are overlapped and stitched to the inner layer; and wherein the at least one fluid-absorbing insert includes a portion between the first and second ends that is adjustable relative to the inner layer between the first location and the second location for selectively changing an overlapped region of the at least one fluid-absorbing insert to accommodate use by a male and/or a female, where the layers of the at least one fluid-absorbing insert are folded, bulked, or gathered over themselves to provide the overlapped region.
Lighting system component comprising a polymer composition comprising: (a) a (meth)acrylic polymer; and (b) 5.0-90.0 wt% of a copolymer prepared using styrene and maleic anhydride with regard to the total weight of (a) and (b), the total of (a) and (b) being 100 wt%, wherein the polymer composition is prepared by melt mixing of a mixture comprising (a) and (b) in a melt extruder, wherein the melt extruder comprises: (i) an inlet for feeding the mixture; (ii) a barrel comprising one or more extruder screw(s) each comprising a tip; (iii) one or more opening(s) for removing the obtained polymer composition from the extruder; and (iv) a volume of space in the area between the tip(s) of the extruder screw(s) and the opening(s) for removing the obtained polymer composition wherein during the melt mixing the temperature of the polymer composition in the volume of space (iv) is ≥ 235°C and ≤ 255°C; wherein the component is one or more of a light guide, a lens or a cover. (a) a (meth)acrylic polymer; and (b) 5.0-90.0 wt% of a copolymer prepared using styrene and maleic anhydride with regard to the total weight of (a) and (b), the total of (a) and (b) being 100 wt%, wherein the polymer composition is prepared by melt mixing of a mixture comprising (a) and (b) in a melt extruder, wherein the melt extruder comprises: (i) an inlet for feeding the mixture; (ii) a barrel comprising one or more extruder screw(s) each comprising a tip; (iii) one or more opening(s) for removing the obtained polymer composition from the extruder; and (iv) a volume of space in the area between the tip(s) of the extruder screw(s) and the opening(s) for removing the obtained polymer composition wherein during the melt mixing the temperature of the polymer composition in the volume of space (iv) is ≥ 235°C and ≤ 255°C; wherein the component is one or more of a light guide, a lens or a cover. (i) an inlet for feeding the mixture; (ii) a barrel comprising one or more extruder screw(s) each comprising a tip; (iii) one or more opening(s) for removing the obtained polymer composition from the extruder; and (iv) a volume of space in the area between the tip(s) of the extruder screw(s) and the opening(s) for removing the obtained polymer composition
A method for encoding a set of elements of an XML file or of a fragment of an XML file, wherein each element comprises a data structure of a type and at least one attribute value, the method comprising: receiving said XML file or said fragment of an XML file; selecting a current element of said XML file or said fragment of an XML file for encoding; determining whether the current element has the same data structure type as a previously encoded element, wherein the current element and the previously encoded element are of occurrence node type; in the affirmative of the determining, providing a flag with an indication value indicating that the current element has the same data structure type as the previously encoded element and encoding the at least one attribute value of the current element and the flag, in the negative of the determining, providing the flag with another indication value indicating that the current element has a different data structure type as the previously encoded element and encoding the data structure of the current element using an XML schema corresponding to the current element, the at least one attribute value of the current element and the flag. receiving said XML file or said fragment of an XML file; selecting a current element of said XML file or said fragment of an XML file for encoding; determining whether the current element has the same data structure type as a previously encoded element, wherein the current element and the previously encoded element are of occurrence node type; in the affirmative of the determining, providing a flag with an indication value indicating that the current element has the same data structure type as the previously encoded element and encoding the at least one attribute value of the current element and the flag, in the negative of the determining, providing the flag with another indication value indicating that the current element has a different data structure type as the previously encoded element and encoding the data structure of the current element using an XML schema corresponding to the current element, the at least one attribute value of the current element and the flag.
Suspended ceiling having a grid of beams (21, 22) roll-formed of sheet metal into an inverted T cross section having a vertical web, horizontal flanges (26, 27) extending opposite from one another at the bottom of the web, and at least one bulb at the top of the web, wherein the grid (a) is suspended from a structural support above the suspended ceiling by hang elements; (b) forms a support for panels resting on the flanges (26, 27) of the grid beams (21, 22); and (c) is balanced; characterized by a system for supporting a load that hangs below such suspended ceiling, having upper threaded hang rods above and lower threaded load rods below the grid that connect to the beams (21, 22) of the grid with clips (40, 41, 42) at locations on the grid that enable the load to pass vertically through the webs of the beams (21, 22), whereby the suspended ceiling remains balanced, level, and intact. (a) is suspended from a structural support above the suspended ceiling by hang elements; (b) forms a support for panels resting on the flanges (26, 27) of the grid beams (21, 22); and (c) is balanced;
A polypropylene composition comprising (a) 50 wt% to 76 wt% of homopolypropylene; (b) 12 wt% to 25 wt% random copolymer polypropylene having 2 mol% to 10 mol% ethylene derived units; and (c) 12 wt% to 25 wt% propylene-ethylene copolymer having 10 wt% to 25 wt% ethylene derived units. (a) 50 wt% to 76 wt% of homopolypropylene; (b) 12 wt% to 25 wt% random copolymer polypropylene having 2 mol% to 10 mol% ethylene derived units; and (c) 12 wt% to 25 wt% propylene-ethylene copolymer having 10 wt% to 25 wt% ethylene derived units.
A vehicle mechanism for handling vehicle electronic control unit malfunction, comprising: a first set of vehicle backup ECUs for operating in a backup vehicle driving mode comprising read-only firmware and disconnected from an interface with communication networks outside the vehicle, the vehicle backup ECUs providing at least basic driving related features of the vehicle including transmission and engine controllers to provide control of the vehicle; and a controller that switches from a standard vehicle driving mode operating according to a second set of standard vehicle ECUs to a backup vehicle driving mode in response to a trigger indicative of malfunction of at least one ECU of the second set of standard vehicle ECUs. a first set of vehicle backup ECUs for operating in a backup vehicle driving mode comprising read-only firmware and disconnected from an interface with communication networks outside the vehicle, the vehicle backup ECUs providing at least basic driving related features of the vehicle including transmission and engine controllers to provide control of the vehicle; and a controller that switches from a standard vehicle driving mode operating according to a second set of standard vehicle ECUs to a backup vehicle driving mode in response to a trigger indicative of malfunction of at least one ECU of the second set of standard vehicle ECUs.