mhurhangee/ep-ind-claims huggingface dataset:
A method for selectively blocking Voiceover4G services within a wireless communications network, comprising: - receiving, at a server, a request for access to Voiceover4G services from a device connected to a wireless communications network; - determining a location of the device from information contained within the request; - determining whether Voiceover4G services are provided at the location by the wireless communications network at the location of the device indicated within the request, wherein the step of determining whether Voiceover4G services are provided at the location further comprises the steps of: - finding the location included within the request within a table providing a list of locations, each of the list of locations including an indication of whether Voiceover4G services are provided at each of the locations indicated in the table; - determining whether Voiceover4G services are provided at the location responsive to the indication associated with the location in the table; - configuring the device to communicate over the wireless network using Voiceover4G services responsive to a determination that the Voiceover4G services are provided at the location of the device; and - configuring the device to communicate over the wireless network using circuit switched services responsive to a determination that the Voiceover4G services are not provided at the location of the device. - receiving, at a server, a request for access to Voiceover4G services from a device connected to a wireless communications network; - determining a location of the device from information contained within the request; - determining whether Voiceover4G services are provided at the location by the wireless communications network at the location of the device indicated within the request, wherein the step of determining whether Voiceover4G services are provided at the location further comprises the steps of: - finding the location included within the request within a table providing a list of locations, each of the list of locations including an indication of whether Voiceover4G services are provided at each of the locations indicated in the table; - determining whether Voiceover4G services are provided at the location responsive to the indication associated with the location in the table; - finding the location included within the request within a table providing a list of locations, each of the list of locations including an indication of whether Voiceover4G services are provided at each of the locations indicated in the table; - determining whether Voiceover4G services are provided at the location responsive to the indication associated with the location in the table; - configuring the device to communicate over the wireless network using Voiceover4G services responsive to a determination that the Voiceover4G services are provided at the location of the device; and - configuring the device to communicate over the wireless network using circuit switched services responsive to a determination that the Voiceover4G services are not provided at the location of the device.
An x-ray absorption fine structure measurement system, comprising: a high brightness x-ray source, comprising: at least one electron beam emitter; and at least one anode target comprising: a substrate comprising a first selected material; and at least one x-ray generating structure comprising a second material selected for its x-ray generation properties and comprising a plurality of discrete microstructures in which each of the plurality of discrete microstructures is in thermal contact with the substrate and in which at least one of the discrete microstructures has at least one dimension of less than 20 microns; an optical train to collect x-rays generated by the anode target and produce a collimated x-ray beam; an x-ray monochromator to select x-rays of a predetermined energy and a predetermined energy bandwidth from the collimated x-ray beam; a mount to hold an object to be investigated, the mount positioned such that the x-rays of predetermined energy and bandwidth will be transmitted through the object; and a detector to measure the x-rays transmitted through the object. a high brightness x-ray source, comprising: at least one electron beam emitter; and at least one anode target comprising: a substrate comprising a first selected material; and at least one x-ray generating structure comprising a second material selected for its x-ray generation properties and comprising a plurality of discrete microstructures in which each of the plurality of discrete microstructures is in thermal contact with the substrate and in which at least one of the discrete microstructures has at least one dimension of less than 20 microns; at least one electron beam emitter; and at least one anode target comprising: a substrate comprising a first selected material; and at least one x-ray generating structure comprising a second material selected for its x-ray generation properties and comprising a plurality of discrete microstructures in which each of the plurality of discrete microstructures is in thermal contact with the substrate and in which at least one of the discrete microstructures has at least one dimension of less than 20 microns; a substrate comprising a first selected material; and at least one x-ray generating structure comprising a second material selected for its x-ray generation properties and comprising a plurality of discrete microstructures in which each of the plurality of discrete microstructures is in thermal contact with the substrate and in which at least one of the discrete microstructures has at least one dimension of less than 20 microns; an optical train to collect x-rays generated by the anode target and produce a collimated x-ray beam; an x-ray monochromator to select x-rays of a predetermined energy and a predetermined energy bandwidth from the collimated x-ray beam; a mount to hold an object to be investigated, the mount positioned such that the x-rays of predetermined energy and bandwidth will be transmitted through the object; and a detector to measure the x-rays transmitted through the object.
A writing implement comprising: - a tubular gripping body within which there is a recess for receiving an ink reservoir, - a writing nib, at one end of the tubular gripping body, able to be connected to an ink reservoir arranged in the recess, and - a timekeeping mechanism housed in the tubular gripping body, wherein said timekeeping mechanism housed in the tubular gripping body is a mechanical movement comprising an energy source, a balance and hairspring, an escapement mechanism intermittently transmitting the energy supplied by the energy source to the balance and hairspring, and a train arranged to drive a device for displaying time information, characterized in that said display device being visible on a circumferential portion of the tubular gripping body at a position between its two ends, the display device comprising display members mounted so as to be able to move along an annular path visible on at least part of the circumference about the tubular gripping body. - a tubular gripping body within which there is a recess for receiving an ink reservoir, - a writing nib, at one end of the tubular gripping body, able to be connected to an ink reservoir arranged in the recess, and - a timekeeping mechanism housed in the tubular gripping body,
Method for the loss-free processing of process values, which is integrated in a process control system of a technical installation or a technical process, wherein - the process values are recorded in the form of raw data using a recording unit, archivable data are generated from the recorded raw data after a physical unit and a measuring range have been assigned to the respective process value, the archivable data in a predefined tolerance band are selected using an archiving function, the selected data are stored in a raw data format in a history server, characterized in that - the selected data in the raw data format are continuously compressed via a time stamp directory, a measured value directory, bit-coded time indices and an item of run-length-coded status information with a time delay with respect to their storage in the history server using a coding module provided by the history server, - following a request from the process control system, the compressed data are read and decompressed using a decoding module provided by the history server by generating the time stamp directory and the measured value directory from the compressed data - value indices and time stamp indices are read from the history server and values and time stamps are generated, - following decoding of the run-length-coded status information, the data are restored in their raw data format, and - the decompressed data in their raw data format provided by the decoding module and further data, read in during the generation of the compressed file, in the raw data format are transmitted to a display module for further processing. - the process values are recorded in the form of raw data using a recording unit, archivable data are generated from the recorded raw data after a physical unit and a measuring range have been assigned to the respective process value, the archivable data in a predefined tolerance band are selected using an archiving function, the selected data are stored in a raw data format in a history server, characterized in that - the selected data in the raw data format are continuously compressed via a time stamp directory, a measured value directory, bit-coded time indices and an item of run-length-coded status information with a time delay with respect to their storage in the history server using a coding module provided by the history server, - following a request from the process control system, the compressed data are read and decompressed using a decoding module provided by the history server by generating the time stamp directory and the measured value directory from the compressed data - value indices and time stamp indices are read from the history server and values and time stamps are generated, - following decoding of the run-length-coded status information, the data are restored in their raw data format, and - the decompressed data in their raw data format provided by the decoding module and further data, read in during the generation of the compressed file, in the raw data format are transmitted to a display module for further processing.
An implantable device, comprising a substrate and a zinc-containing layer at least partially covering the substrate, wherein the zinc-containing layer contains a zinc compound, wherein a ratio of a mass of zinc elements in the zinc-containing layer to a surface area of the substrate is 0.1 to 200 μg/mm 2, and an average porosity of the zinc-containing layer is less than or equal to 30%, wherein a content of zinc elements in the zinc-containing layer is 1.4 wt% to 80 wt%, and wherein a thickness of the zinc-containing layer is 1 μm to 50 μm. wherein a content of zinc elements in the zinc-containing layer is 1.4 wt% to 80 wt%, and wherein a thickness of the zinc-containing layer is 1 μm to 50 μm.
A method, comprising: performing, by a plurality of computers: maintaining data in multiple physical data blocks of a data storage system on behalf of one or more clients, wherein each physical data block is associated with a unique identifier; performing a backup operation to store a respective copy of data stored in a given physical data block in a key-value storage system that is distinct from the data storage system; subsequent to storing the respective copy of the data stored in the given physical data block, restoring the data stored in the given physical data block from the key-value storage system to the data storage system while accepting and servicing queries directed to the data maintained on behalf of the one or more clients, wherein said accepting and servicing queries is performed prior to restoring all of the data stored in the multiple physical data blocks, and wherein said servicing comprises: streaming at least some of the respective copy of data in the key-value storage system using the unique identifier associated with the given physical data block as a key in the key-value storage system. maintaining data in multiple physical data blocks of a data storage system on behalf of one or more clients, wherein each physical data block is associated with a unique identifier; performing a backup operation to store a respective copy of data stored in a given physical data block in a key-value storage system that is distinct from the data storage system; subsequent to storing the respective copy of the data stored in the given physical data block, restoring the data stored in the given physical data block from the key-value storage system to the data storage system while accepting and servicing queries directed to the data maintained on behalf of the one or more clients, wherein said accepting and servicing queries is performed prior to restoring all of the data stored in the multiple physical data blocks, and wherein said servicing comprises: streaming at least some of the respective copy of data in the key-value storage system using the unique identifier associated with the given physical data block as a key in the key-value storage system. wherein said accepting and servicing queries is performed prior to restoring all of the data stored in the multiple physical data blocks, and wherein said servicing comprises: streaming at least some of the respective copy of data in the key-value storage system using the unique identifier associated with the given physical data block as a key in the key-value storage system.
Operating method for an induction machine that has a stator and a rotor, wherein a stator winding is arranged in the stator, - wherein a control device controls a converter so that the converter connects the stator winding to a power-supply network so that a stator current flows within the stator winding, - wherein the stator current has a field-forming current component and a torque-forming current component, - wherein the control device controls the converter in such a way that, during load periods, a torque acts between the stator and the rotor, which at least temporarily lies above a predetermined limit torque and its maximum is several times the predetermined limit torque, - wherein the load periods are separated from each other by periods of rest, - wherein the control device controls the converter during the periods of rest in such a way that a torque acts between the stator and the rotor, which is permanently under the predetermined limit torque, - wherein the control device controls the converter at least at the beginning of the periods of rest in such a way that the field-forming current component has a nominal value, - wherein the control device controls the converter during the load periods in such a way that the field-forming current component has a lower value than the nominal value, - wherein the time of the beginning of the respectively next load period is known to the control device in advance and - wherein the control device increases the field-forming current component to a final value above the nominal value at the end of the respective period of rest. - wherein a control device controls a converter so that the converter connects the stator winding to a power-supply network so that a stator current flows within the stator winding, - wherein the stator current has a field-forming current component and a torque-forming current component, - wherein the control device controls the converter in such a way that, during load periods, a torque acts between the stator and the rotor, which at least temporarily lies above a predetermined limit torque and its maximum is several times the predetermined limit torque, - wherein the load periods are separated from each other by periods of rest, - wherein the control device controls the converter during the periods of rest in such a way that a torque acts between the stator and the rotor, which is permanently under the predetermined limit torque, - wherein the control device controls the converter at least at the beginning of the periods of rest in such a way that the field-forming current component has a nominal value, - wherein the control device controls the converter during the load periods in such a way that the field-forming current component has a lower value than the nominal value, - wherein the time of the beginning of the respectively next load period is known to the control device in advance and - wherein the control device increases the field-forming current component to a final value above the nominal value at the end of the respective period of rest.
A transformer comprising: a core having a central arm and first and second outer arms (306, 308) on opposite sides of the of the central arm; a first primary winding (310, 312, W1) surrounding the central arm; a secondary winding (318, 320) surrounding the central arm; a primary winding casing (330, 332) surrounding the primary winding (310, 312); a secondary winding casing (338, 340) surrounding the secondary winding (318, 320); at least two spacers including a first spacer and a second spacer wherein: the first spacer (414a, 414b) is configured and arranged to space the primary winding casing (330, 332) away from a bottom of the core and the outer arms (306, 308); and the second spacer (418a, 418b) is configured and arranged to space the secondary winding casing (338, 340) away from the primary winding casing (330, 332) and the outer arms (306, 308), characterized in that the primary and secondary windings (310, 312, 318, 320) are formed on a printed circuit board. a core having a central arm and first and second outer arms (306, 308) on opposite sides of the of the central arm; a first primary winding (310, 312, W1) surrounding the central arm; a secondary winding (318, 320) surrounding the central arm; a primary winding casing (330, 332) surrounding the primary winding (310, 312); a secondary winding casing (338, 340) surrounding the secondary winding (318, 320); at least two spacers including a first spacer and a second spacer wherein: the first spacer (414a, 414b) is configured and arranged to space the primary winding casing (330, 332) away from a bottom of the core and the outer arms (306, 308); and the second spacer (418a, 418b) is configured and arranged to space the secondary winding casing (338, 340) away from the primary winding casing (330, 332) and the outer arms (306, 308), the first spacer (414a, 414b) is configured and arranged to space the primary winding casing (330, 332) away from a bottom of the core and the outer arms (306, 308); and the second spacer (418a, 418b) is configured and arranged to space the secondary winding casing (338, 340) away from the primary winding casing (330, 332) and the outer arms (306, 308),
A fluid test strip, comprising: a micro-sensor formed on a substrate surface, wherein the micro-sensor comprises at least one micro-cantilever; a reagent deposition site formed on the substrate surface, operable to control the size and location of a reagent deposition; wherein the reagent deposition site comprises a central island portion, annularly surrounded by a moat; and wherein the reagent deposition site is formed adjacent to and separate from the micro-cantilever. a micro-sensor formed on a substrate surface, wherein the micro-sensor comprises at least one micro-cantilever; a reagent deposition site formed on the substrate surface, operable to control the size and location of a reagent deposition; wherein the reagent deposition site comprises a central island portion, annularly surrounded by a moat; and wherein the reagent deposition site is formed adjacent to and separate from the micro-cantilever.
A computer-implemented method to automatically generate one or more source code statements by a system for automatic source code generation, the method comprising a plurality of sets of computer program instructions, that when executed by a processor, cause the processor to perform operations comprising: receiving, from a developer, a selection of a profile (204; 300), wherein the profile includes one or more variable code elements, one or more methods and one or more rules (112; 302, 304, 306, 308; 410), wherein a variable code element represents an element in a grammar of a programming language, wherein the rule includes one or more regular expressions and logical statements, wherein individual methods of the one or more methods include programmable instructions that generate the source code statements using values of the variable code elements that are defined by a developer in a natural language text string (208; 402, 406), and wherein the source code statements are patterned after an existing code base of a software application; obtaining (130; 206), from the developer, the natural language text string (208; 402, 406) describing the source code statements to be generated; determining one or more variable code elements in the text string by matching a syntax of the text string to the rules; and applying, the methods associated with the profile to generate the source code statements using the values of the determined one or more variable code elements, wherein each logical statement is used to invoke one or more of the methods to generate the source code statements. receiving, from a developer, a selection of a profile (204; 300), wherein the profile includes one or more variable code elements, one or more methods and one or more rules (112; 302, 304, 306, 308; 410), wherein a variable code element represents an element in a grammar of a programming language, wherein the rule includes one or more regular expressions and logical statements, wherein individual methods of the one or more methods include programmable instructions that generate the source code statements using values of the variable code elements that are defined by a developer in a natural language text string (208; 402, 406), and wherein the source code statements are patterned after an existing code base of a software application; obtaining (130; 206), from the developer, the natural language text string (208; 402, 406) describing the source code statements to be generated; determining one or more variable code elements in the text string by matching a syntax of the text string to the rules; and applying, the methods associated with the profile to generate the source code statements using the values of the determined one or more variable code elements, wherein each logical statement is used to invoke one or more of the methods to generate the source code statements.
A liquid cleaning and/or cleansing composition comprising non-spherical abrasive cleaning particles, wherein said abrasive cleaning particles have been reduced from an open-cell foam via grinding or milling, wherein said foam has a density from 5 kg/m 3 to 150 kg/m 3, wherein said foam has a cell size from 40 micrometers to 700 micrometers, and wherein the foam strut aspect ratio L/T is from 1.5 to 10; L being the strut length, which is the distance between the geometrical centers of two interconnecting knots; and T being the strut thickness, which is the projected strut thickness at the middle of the strut length; wherein: said composition comprises abrasive cleaning particles from 0.1% to 20% by weight of the composition, and said abrasive particles have a mean particle size as expressed by the area-equivalent diameter from 100 to 350 μm according to ISO 9276-6:2008 section 7; said abrasive cleaning particles have a HV Vickers hardness from 3 to 50 kg/mm 2, wherein said HV Vickers hardness is measured according to method disclosed herein. said composition comprises abrasive cleaning particles from 0.1% to 20% by weight of the composition, and said abrasive particles have a mean particle size as expressed by the area-equivalent diameter from 100 to 350 μm according to ISO 9276-6:2008 section 7; said abrasive cleaning particles have a HV Vickers hardness from 3 to 50 kg/mm 2, wherein said HV Vickers hardness is measured according to method disclosed herein.