mhurhangee/ep-ind-claims huggingface dataset:
A device comprising a combination near-field and far-field antenna and configured to be coupled to a conductive host surface, the device comprising: a first feed point configured to be coupled to a far-field transceiver; a second feed point configured to be coupled to a near-field transceiver; a first conductive antenna surface; a first filter having a first interface coupled to both the first feed point and the first conductive antenna surface, and having a second interface coupled to the second feed point; wherein the first filter is configured to attenuate far-field signals passing between the first conductive antenna surface and the far-field transceiver from being received by the near-field transceiver; wherein the first filter is configured to pass near-field signals between the near-field transceiver and the first conductive antenna surface; and wherein the first conductive antenna surface is either a planar spiral or non-planar helical structure, having a first end configured to be coupled to a set of electronic circuitry comprising the far-field transceiver, and having a second end un-coupled and terminating in free-space. a first feed point configured to be coupled to a far-field transceiver; a second feed point configured to be coupled to a near-field transceiver; a first conductive antenna surface; a first filter having a first interface coupled to both the first feed point and the first conductive antenna surface, and having a second interface coupled to the second feed point; wherein the first filter is configured to attenuate far-field signals passing between the first conductive antenna surface and the far-field transceiver from being received by the near-field transceiver; wherein the first filter is configured to pass near-field signals between the near-field transceiver and the first conductive antenna surface; and wherein the first conductive antenna surface is either a planar spiral or non-planar helical structure, having a first end configured to be coupled to a set of electronic circuitry comprising the far-field transceiver, and having a second end un-coupled and terminating in free-space.
A method for machining curved surfaces of a workpiece comprising: providing a lathe comprising a work table, a feeding device, a machine support, and a moving device, wherein the feeding device comprises a cutter; the machine support comprises a base, a pair of support bodies positioned substantially parallel on the base, a pair of first sliding rails positioned substantially parallel on a surface of each support body; the moving device comprises two cross beams, four sliding bases and four first driving mechanisms, wherein each cross beam is slidably positioned on the support bodies via a pair of sliding bases; each first driving mechanism comprises a first forcer and a first stator, and is configured to drive the cross beams to move along the first sliding rails; fixedly positioning the workpiece on the work table; rotating the work table with the workpiece; controlling the cutter of the feeding device to move backwards and forwards at high speed to machine the rotary workpiece circumferentially; and controlling the feeding device to move in a plane relative to the work table to machine curved surface of the workpiece. providing a lathe comprising a work table, a feeding device, a machine support, and a moving device, wherein the feeding device comprises a cutter; the machine support comprises a base, a pair of support bodies positioned substantially parallel on the base, a pair of first sliding rails positioned substantially parallel on a surface of each support body; the moving device comprises two cross beams, four sliding bases and four first driving mechanisms, wherein each cross beam is slidably positioned on the support bodies via a pair of sliding bases; each first driving mechanism comprises a first forcer and a first stator, and is configured to drive the cross beams to move along the first sliding rails; fixedly positioning the workpiece on the work table; rotating the work table with the workpiece; controlling the cutter of the feeding device to move backwards and forwards at high speed to machine the rotary workpiece circumferentially; and controlling the feeding device to move in a plane relative to the work table to machine curved surface of the workpiece.
A method including: determining a first quantity of data records in a set of data records received by an application having a module; for the module of the application, determining a second quantity of data records provided as output by the module during processing of the set of data records; and determining whether the first and second quantities of data records satisfy a rule indicative of a target relationship among a quantity of data records received by the application and a quantity of data records provided as output by the module of the application; and determining a latency associated with processing the set of data records by the application based on a time at which a particular data record was provided as output by the module of the application, the providing of the particular data record as output having caused the rule to be satisfied. determining a first quantity of data records in a set of data records received by an application having a module; for the module of the application, determining a second quantity of data records provided as output by the module during processing of the set of data records; and determining whether the first and second quantities of data records satisfy a rule indicative of a target relationship among a quantity of data records received by the application and a quantity of data records provided as output by the module of the application; and determining a latency associated with processing the set of data records by the application based on a time at which a particular data record was provided as output by the module of the application, the providing of the particular data record as output having caused the rule to be satisfied.
Method to generate a code to be stored in a memory in order to be later executed by a microprocessor, comprising the steps of: - generating initial operation codes (opcodes) in abstract assembly language; - interpreting each abstract assembly language opcode using at least two different virtual machine engines (VM1, VM2) logics, producing disjoined sequences (S1, S2) of target assembly opcodes, each sequence (S1, S2) implementing the corresponding virtual machine logic needed to interpret one assembly language opcode; - randomly choosing one of the at least two sequences (S1, S2) of target assembly opcodes for each initial abstract assembly language opcode; - merging extremities of chosen sequences of target assembly opcodes in compliance with opcode boundaries within each interpreted target assembly opcode and with data flow, - storing the resulting code for subsequent execution, wherein code generation logics of the different virtual machines (VM1, VM2) use different patterns and different registers, wherein the step of randomly choosing one of the at least two sequences (S1, S2) of target assembly opcodes for each initial opcode is done for sets of contiguous initial opcodes, wherein the merging step is randomly performed. - generating initial operation codes (opcodes) in abstract assembly language; - interpreting each abstract assembly language opcode using at least two different virtual machine engines (VM1, VM2) logics, producing disjoined sequences (S1, S2) of target assembly opcodes, each sequence (S1, S2) implementing the corresponding virtual machine logic needed to interpret one assembly language opcode; - randomly choosing one of the at least two sequences (S1, S2) of target assembly opcodes for each initial abstract assembly language opcode; - merging extremities of chosen sequences of target assembly opcodes in compliance with opcode boundaries within each interpreted target assembly opcode and with data flow, - storing the resulting code for subsequent execution, wherein code generation logics of the different virtual machines (VM1, VM2) use different patterns and different registers, wherein the step of randomly choosing one of the at least two sequences (S1, S2) of target assembly opcodes for each initial opcode is done for sets of contiguous initial opcodes, wherein the merging step is randomly performed.
Buckling spring device having a first annular receiving device and having a second receiving device arranged spaced apart along a centre axis of the buckling spring device, between which a plurality of buckling rods are arranged concentrically about the centre axis, wherein each buckling rod is fixed at both its ends in an associated bearing device in the receiving devices (3, 4) and wherein, when an axial pressure load acts on the buckling spring device, the buckling rods buckle resiliently sideways, wherein, as a result of a configuration of the buckling rods and as a result of a configuration, dependent thereon, of the bearing devices in the receiving devices (3, 4), and the sideways deflection of the buckling rods on buckling takes place within an installation space required for the unloaded buckling spring device, the sideways deflection of each buckling rod takes place in a buckling direction which runs in an angle range between a centre direction directed radially inwards from centre axis of the buckling rod to the centre axis of the buckling spring device and a tangent direction directed tangentially to a point of an outer circumferential line of the receiving device (3, 4) that is closest to the centre axis of the buckling rod, characterised in that the buckling direction runs in an angle range between 20° and 70°, preferably between 30° and 50°, relative to the tangent direction.
A method of calculating the change in the immune repertoire of a patient, comprising the steps of: (a) quantifying CDR3 clonotypes of immune cells in a population or subpopulation of immune cells in a first sample and a second sample collected from the same patient; (b) calculating frequency data for the first sample and the second sample by identifying the frequency of each CDR3 clonotype; (c) normalizing the frequency data for the first sample and the second sample; (d) determining the absolute difference in the frequency of each CDR3 clonotype present in the first sample and the second sample; (e) determining at least 100 CDR3 clonotypes common to the first sample and the second sample with the largest frequency change; (f) determining an Impact Range parameter that is obtained by calculating the percentage of the patient's immune repertoire contributed by the at least 100 CDR3 clonotypes; and (g) determining a Delta Index parameter by calculating the total percentage of the CDR3 clonotypes within the Impact Range that exhibit a frequency difference between the first and second samples; wherein the first and second samples comprise white blood cells; wherein the Delta Index is calculated from two samples collected at different time periods, and wherein the Delta Index provides a measurement of the difference in the level of immune cell diversity in the two samples at the different time periods. (a) quantifying CDR3 clonotypes of immune cells in a population or subpopulation of immune cells in a first sample and a second sample collected from the same patient; (b) calculating frequency data for the first sample and the second sample by identifying the frequency of each CDR3 clonotype; (c) normalizing the frequency data for the first sample and the second sample; (d) determining the absolute difference in the frequency of each CDR3 clonotype present in the first sample and the second sample; (e) determining at least 100 CDR3 clonotypes common to the first sample and the second sample with the largest frequency change; (f) determining an Impact Range parameter that is obtained by calculating the percentage of the patient's immune repertoire contributed by the at least 100 CDR3 clonotypes; and (g) determining a Delta Index parameter by calculating the total percentage of the CDR3 clonotypes within the Impact Range that exhibit a frequency difference between the first and second samples; wherein the first and second samples comprise white blood cells; wherein the Delta Index is calculated from two samples collected at different time periods, and wherein the Delta Index provides a measurement of the difference in the level of immune cell diversity in the two samples at the different time periods.
Honing tool having a tubular tool body which is fastened with an end section in a tool shank and has on the opposite end section a cutting region with at least one honing-stick accommodating opening which is continuous from the interior of the tool body to the outside and is intended for accommodating a honing stick, the dimensions of the honing-stick accommodating opening and of the honing stick being matched to one another in such a way that the honing stick is accommodated in a radially movable manner, and essentially free of play in the circumferential direction of the tool body, between boundary surfaces of the honing-stick accommodating opening, a play-compensating device which is effective between the honing stick and the honing-stick accommodating opening and has at least one elastically deformable supporting element being provided, which is supported with a pressure force, in the fitted state of the honing stick, on the one hand on a side surface of the honing stick and on the other hand on a boundary surface, opposite the side surface, of the honing-stick accommodating opening, characterized in that the honing stick has a recess on a side surface in a guide section intended for interaction with the honing-stick accommodating opening, and arranged in the recess is an elastically deformable supporting element which projects beyond the side surface of the honing stick in the relieved state and which, in the fitted state of the honing stick, is partly deformed and is supported with a pressure force on a boundary surface, opposite the side surface, of the honing-stick accommodating opening.
A combination product for use as a medicament, said combination product comprising a) a class 2 CRISPR/Cas endonuclease, or a nucleic acid comprising a nucleotide sequence encoding the class 2 CRISPR/Cas endonuclease; and b) first and second CRISPR/Cas guide RNAs corresponding to the class 2 CRISPR/Cas endonuclease, or one or more nucleic acids comprising nucleotide sequences encoding the first and second CRISPR/Cas guide RNAs, wherein the first CRISPR/Cas guide RNA comprises a guide sequence that hybridizes to a target sequence within intron 44 of a dystrophin gene, and the second CRISPR/Cas guide RNA comprises a guide sequence that hybridizes to a target sequence within intron 55 of the dystrophin gene, wherein, when introduced into a cell comprising the dystrophin gene, said combination product results in a modified dystrophin gene that encodes an in-frame transcript with exon 44 joined with exon 56 and has an intron therebetween of about 1 kb, said intron comprises about 500 bp of the intron next to each of the flanking exons 44 and 56. a) a class 2 CRISPR/Cas endonuclease, or a nucleic acid comprising a nucleotide sequence encoding the class 2 CRISPR/Cas endonuclease; and b) first and second CRISPR/Cas guide RNAs corresponding to the class 2 CRISPR/Cas endonuclease, or one or more nucleic acids comprising nucleotide sequences encoding the first and second CRISPR/Cas guide RNAs, wherein the first CRISPR/Cas guide RNA comprises a guide sequence that hybridizes to a target sequence within intron 44 of a dystrophin gene, and the second CRISPR/Cas guide RNA comprises a guide sequence that hybridizes to a target sequence within intron 55 of the dystrophin gene, wherein, when introduced into a cell comprising the dystrophin gene, said combination product results in a modified dystrophin gene that encodes an in-frame transcript with exon 44 joined with exon 56 and has an intron therebetween of about 1 kb, said intron comprises about 500 bp of the intron next to each of the flanking exons 44 and 56.
A work block limit encroachment unit, deployed at about a boundary limit of a work block on a railroad, comprising: one or more transceivers configured to wirelessly communicate with a collision avoidance unit located in a rail vehicle that is moving towards the work block; and a processor configured to determine, based on the communication with the collision avoidance unit, a distance between the work block limit encroachment 10 unit and the rail vehicle, characterised in that the work block encroachment unit further comprises a magnet mounting arrangement configured to magnetically couple to a running rail (102, 104). one or more transceivers configured to wirelessly communicate with a collision avoidance unit located in a rail vehicle that is moving towards the work block; and a processor configured to determine, based on the communication with the collision avoidance unit, a distance between the work block limit encroachment 10 unit and the rail vehicle, characterised in that the work block encroachment unit further comprises a magnet mounting arrangement configured to magnetically couple to a running rail (102, 104).
A pantograph measurement method based on image processing, including the steps of: obtaining a video image of a marker installed on a pantograph from a line sensor installed on a roof of a vehicle and generating a space-time image from the obtained video image, wherein the marker has a stripe pattern in which a first region less capable of reflecting light and a second region more capable of reflecting light are alternately arranged in parallel to each other; searching for the marker by collating the space-time image with a search pattern corresponding to a height, wherein the search pattern corresponds to the stripe pattern of the marker; recording a portion matching the search pattern or a portion approximate to the search pattern by a certain degree or more as a pantograph position; and measuring a height and acceleration from the recorded pantograph position, characterized in that the marker includes at least two of the second regions of different stripe widths. obtaining a video image of a marker installed on a pantograph from a line sensor installed on a roof of a vehicle and generating a space-time image from the obtained video image, wherein the marker has a stripe pattern in which a first region less capable of reflecting light and a second region more capable of reflecting light are alternately arranged in parallel to each other; searching for the marker by collating the space-time image with a search pattern corresponding to a height, wherein the search pattern corresponds to the stripe pattern of the marker; recording a portion matching the search pattern or a portion approximate to the search pattern by a certain degree or more as a pantograph position; and measuring a height and acceleration from the recorded pantograph position, characterized in that the marker includes at least two of the second regions of different stripe widths.
A gas turbine combustor that mixes and combusts combustion air introduced from a compressor and gaseous fuel, and supplies produced combustion gas to a gas turbine, the gas turbine combustor comprising: an inner tube to produce combustion gas by combusting the combustion air and the gaseous fuel; an outer tube enclosing the inner tube; an end cover located upstream of the outer tube; and a burner secured to the end cover and installed in the inner tube, the burner including: a plurality of gaseous fuel nozzles to inject gaseous fuel; a first manifold to distribute gaseous fuel to the plurality of gaseous fuel nozzles; a burner flange to secure the burner to the end cover; and a burner body to connect the first manifold and the burner flange, wherein gaseous fuel passages (15, 18, 22, 23) are provided to flow gaseous fuel through the end cover, the burner flange, and the burner body, the gas turbine combustor being characterized in that: an annular second manifold is provided in the burner flange, the annular second manifold having a single inlet for fuel inflow and a single outlet for fuel outflow that are disposed at opposite circumferential positions within the burner, and the gaseous fuel passages (15, 18, 22, 23) include a first gaseous fuel passage provided in the burner body to make the annular second manifold communicate with the first manifold. an inner tube to produce combustion gas by combusting the combustion air and the gaseous fuel; an outer tube enclosing the inner tube; an end cover located upstream of the outer tube; and a burner secured to the end cover and installed in the inner tube, a plurality of gaseous fuel nozzles to inject gaseous fuel; a first manifold to distribute gaseous fuel to the plurality of gaseous fuel nozzles; a burner flange to secure the burner to the end cover; and a burner body to connect the first manifold and the burner flange, an annular second manifold is provided in the burner flange, the annular second manifold having a single inlet for fuel inflow and a single outlet for fuel outflow that are disposed at opposite circumferential positions within the burner, and the gaseous fuel passages (15, 18, 22, 23) include a first gaseous fuel passage provided in the burner body to make the annular second manifold communicate with the first manifold.
A fixed scroll compressor body (110, 270) comprising: a scroll compressor body casting, the casting comprising: a central body portion having a plate-like base (116, 216) with a spiral scroll rib (114, 214) projecting axially from the plate-like base (116, 216), wherein the spiral scroll rib (114, 214) includes a volume between the spiraled ribs (114, 214) for the compressing of refrigerant, and wherein the spiral scroll rib (114, 214) spirals from a central region of the plate-like base (116, 216) to an outer wall of the central body portion; characterized in that the casting further comprises a first inward-protruding portion that protrudes from the outer wall into the volume wherein a radially-extending distance, that the first inward-protruding portion protrudes into the volume, is greater than a radially-extending thickness of the first inward-protruding portion such that removal of the first inward-protruding portion is configured to result in a first intake opening in the outer wall, the first intake opening providing a path for a flow of refrigerant into the volume.