mhurhangee/ep-ind-claims huggingface dataset:
A method for amplifying a target double-stranded nucleic acid comprising: (a) providing a system having: a clustered regularly interspaced short palindromic repeats (CRISPR) RNA (crRNA), and a CRISPR-associated (Cas) protein, wherein the crRNA contains a target-specific nucleotide region complementary to a region of a first strand of the target double-stranded nucleic acid; (b) contacting the target double-stranded nucleic acid with the system to form a complex; (c) hybridizing a primer to a second strand of the target double-stranded nucleic acid, the primer containing a sequence complementary to a region of the second strand of the target double-stranded nucleic acid, and (d) extending a nucleic acid complementary to the second strand of the target double-stranded nucleic acid from the primer using a polymerase. (a) providing a system having: a clustered regularly interspaced short palindromic repeats (CRISPR) RNA (crRNA), and a CRISPR-associated (Cas) protein, wherein the crRNA contains a target-specific nucleotide region complementary to a region of a first strand of the target double-stranded nucleic acid; a clustered regularly interspaced short palindromic repeats (CRISPR) RNA (crRNA), and a CRISPR-associated (Cas) protein, wherein the crRNA contains a target-specific nucleotide region complementary to a region of a first strand of the target double-stranded nucleic acid; (b) contacting the target double-stranded nucleic acid with the system to form a complex; (c) hybridizing a primer to a second strand of the target double-stranded nucleic acid, the primer containing a sequence complementary to a region of the second strand of the target double-stranded nucleic acid, and (d) extending a nucleic acid complementary to the second strand of the target double-stranded nucleic acid from the primer using a polymerase.
A method of maintaining an always-on application client connection, comprising: implementing a keep-alive application programming interface on a device (12, 14, 16, 18, 20, 22) hosting an always-on application client, the application programming interface comprising a filter description for defining application server messages that are not to be forwarded to the always-on application client; determining, in the device, keep-alive parameters via the keep-alive application programming interface; and instructing, by the device, a network element (600, 700, 800) via the keep-alive application programming interface to transmit keep-alive messages to an application server (610, 720) on behalf of the device, wherein the application server hosts an always-on application for the device. implementing a keep-alive application programming interface on a device (12, 14, 16, 18, 20, 22) hosting an always-on application client, the application programming interface comprising a filter description for defining application server messages that are not to be forwarded to the always-on application client; determining, in the device, keep-alive parameters via the keep-alive application programming interface; and instructing, by the device, a network element (600, 700, 800) via the keep-alive application programming interface to transmit keep-alive messages to an application server (610, 720) on behalf of the device, wherein the application server hosts an always-on application for the device.
A method for obtaining from genomic material genomic copy number information unaffected by amplification distortion, comprising: a) obtaining segments of the genomic material; b) tagging the segments with nucleic acid tags to generate unique tagged nucleic acid molecules, such that each of the unique tagged nucleic acid molecules comprises one segment of the genomic material from step (a) and a tag; c) subjecting the tagged nucleic acid molecules to amplification by polymerase chain reaction; d) generating tag associated sequence reads by sequencing the product of step (c); e) assigning each tagged nucleic acid molecule to a location on a genome associated with the genomic material by mapping the subsequence of each tag associated sequence read corresponding to a segment of the genomic material to a location on the genome; and f) counting the number of tagged nucleic acid molecules having a different tag that have been assigned to the same location on the genome, thereby obtaining genomic copy number information unaffected by amplification distortion. a) obtaining segments of the genomic material; b) tagging the segments with nucleic acid tags to generate unique tagged nucleic acid molecules, such that each of the unique tagged nucleic acid molecules comprises one segment of the genomic material from step (a) and a tag; c) subjecting the tagged nucleic acid molecules to amplification by polymerase chain reaction; d) generating tag associated sequence reads by sequencing the product of step (c); e) assigning each tagged nucleic acid molecule to a location on a genome associated with the genomic material by mapping the subsequence of each tag associated sequence read corresponding to a segment of the genomic material to a location on the genome; and f) counting the number of tagged nucleic acid molecules having a different tag that have been assigned to the same location on the genome,
An object inspection apparatus, comprising: a terahertz wave supplying unit for generating a terahertz wave and moving a path of the terahertz wave according to time so that the terahertz wave is supplied to an object to be inspected; a focusing lens located between the terahertz wave supplying unit and the object to be inspected so that the terahertz wave supplied by the terahertz wave supplying unit is focused; a terahertz wave detecting unit for collecting and detecting a terahertz wave incident to the object to be inspected; characterised in that the focusing lens is part of a plurality of focusing lenses arranged in a rotating plate having a plate shape and including the plurality of the focusing lenses with different distances from the center thereof, the plurality of focusing lenses being arranged in a spiral pattern the rotating plate rotating in the circumferential direction so that different focusing lenses are successively located at a path of the terahertz wave according to the path movement of the terahertz wave. a terahertz wave supplying unit for generating a terahertz wave and moving a path of the terahertz wave according to time so that the terahertz wave is supplied to an object to be inspected; a focusing lens located between the terahertz wave supplying unit and the object to be inspected so that the terahertz wave supplied by the terahertz wave supplying unit is focused; a terahertz wave detecting unit for collecting and detecting a terahertz wave incident to the object to be inspected; characterised in that the focusing lens is part of a plurality of focusing lenses arranged in a rotating plate having a plate shape and including the plurality of the focusing lenses with different distances from the center thereof, the plurality of focusing lenses being arranged in a spiral pattern the rotating plate rotating in the circumferential direction so that different focusing lenses are successively located at a path of the terahertz wave according to the path movement of the terahertz wave.
A hydraulic system for a work machine, comprising: a hydraulic pump; a hydraulic actuator driven by hydraulic fluid delivered from the hydraulic pump; a flow/direction control valve of center bypass type that controls a flow of the hydraulic fluid supplied from the hydraulic pump to the hydraulic actuator; a reserve flow/direction control valve of the center bypass type arranged at a position in a center bypass line extending through the flow/direction control valve and on a downstream side of the flow/direction control valve, the reserve flow/direction control valve controlling the flow of the hydraulic fluid supplied from the hydraulic pump to an option hydraulic actuator when the option hydraulic actuator is used; characterized in that the hydraulic system further comprises a switching control device (17, 16, 16A, 18, 18A, 21, 24, 25, 26) that makes the reserve flow/direction control valve operate as a valve for controlling the flow of the hydraulic fluid supplied to the option hydraulic actuator when the option hydraulic actuator is operated, while making the reserve flow/direction control valve operate as a center bypass cut valve when the option hydraulic actuator is not operated. a hydraulic pump; a hydraulic actuator driven by hydraulic fluid delivered from the hydraulic pump; a flow/direction control valve of center bypass type that controls a flow of the hydraulic fluid supplied from the hydraulic pump to the hydraulic actuator; a reserve flow/direction control valve of the center bypass type arranged at a position in a center bypass line extending through the flow/direction control valve and on a downstream side of the flow/direction control valve, the reserve flow/direction control valve controlling the flow of the hydraulic fluid supplied from the hydraulic pump to an option hydraulic actuator when the option hydraulic actuator is used; characterized in that the hydraulic system further comprises a switching control device (17, 16, 16A, 18, 18A, 21, 24, 25, 26) that makes the reserve flow/direction control valve operate as a valve for controlling the flow of the hydraulic fluid supplied to the option hydraulic actuator when the option hydraulic actuator is operated, while making the reserve flow/direction control valve operate as a center bypass cut valve when the option hydraulic actuator is not operated.
A tubular component for oil exploration, comprising an electromagnetic half-coupler which can be coupled to a half-coupler of another tubular component so as to allow data transmission wherein an end portion of the tubular component comprises a housing accommodating said half-coupler, said half-coupler comprising a coupling element and an annular armature for the coupling element, the coupling element comprising an annular body formed at least in part from a material with a high magnetic permeability and an electrical conductor having turns, the armature comprising a first portion and a separate second portion which are arranged to accommodate said coupling element, the armature being at least partially surrounded by an isolating and impervious material in order to protect the half-coupler against infiltration.
An excavator comprising: a carriage; a structure rotatably mounted on the carriage; a boom pivotally mounted on the structure; an arm rotatably mounted on a tip end of the boom; a bucket mounted on a tip end of the arm; a camera that captures an area in a vicinity of the excavator; and a controller, characterized in that the controller is configured to perform a slope finishing support control by operating at least one of the boom, the arm, and the bucket so as to press a predetermined portion of the bucket against a target forming surface, and by moving the predetermined portion of the bucket along the target forming surface, while restricting a lowering operation of the boom so that at least one of the bucket pressing force and the bucket lowering speed do not become relatively large. a carriage; a structure rotatably mounted on the carriage; a boom pivotally mounted on the structure; an arm rotatably mounted on a tip end of the boom; a bucket mounted on a tip end of the arm; a camera that captures an area in a vicinity of the excavator; and a controller, characterized in that the controller is configured to perform a slope finishing support control by operating at least one of the boom, the arm, and the bucket so as to press a predetermined portion of the bucket against a target forming surface, and by moving the predetermined portion of the bucket along the target forming surface, while restricting a lowering operation of the boom so that at least one of the bucket pressing force and the bucket lowering speed do not become relatively large.
Fluid flow arrangement (1, 15), comprising a fluid pumping device, a fluid working machine fluidly connected to said fluid pumping device, an electronic controlling device, at least one fluid returning fluid line, fluidly connecting a first fluid port and/or a second fluid port of a fluid working machine to a low pressure fluid receiving device (2, 6), at least one controllable fluid throttling device (21, 22) that is arranged in said at least one fluid returning fluid line, and a re-circulating loop, fluidly connecting the first fluid port and the second fluid port of said fluid working machine, where said first and said second fluid port are at times at a different pressure level, wherein the re-circulating loop comprises the controllable fluid throttling device (21, 22) and a switchable fluid conduit device (23, 24), wherein in a motoring mode, in which the fluid pumping device actively propels the fluid working machine, the controllable fluid throttling device (21, 22) in the fluid returning line is actuated so that it generates essentially no fluid flow resistance, wherein said fluid flow arrangement (1, 15) is an open hydraulic fluid flow circuit, and characterized in that said electronic controlling device generates at times a control signal for said at least one controllable fluid throttling device (21, 22) in a way to generate a defined decelerating force for said fluid working machine, wherein the speed of the fluid working machine is controlled by outputting an appropriate control signal to control the pressure at the outlet port of the fluid working machine, while the fluid working machine is driven, at least in part, by the fluid pumping device.
An automated process performed by a processor of a security device operating within a television receiver, the process comprising the steps: A) receiving an electronic control message that comprises a cryptographic key and a conditional delay instruction referencing at least two bits of an identifier associated with the security device; B) decrypting the electronic control message to extract the cryptographic key and the conditional delay instruction; C) executing the conditional delay instruction to determine which test value of a plurality of test values the at least two bits of the identifier associated with the security device match; and D) selectively delaying delivery (206, 208) of the extracted cryptographic key to the television receiver by a delay period based on which test value the at least two bits of the identifier associated with the security device match, wherein each of the plurality of test values is associated with a different delay period; wherein the selective delaying at step D) of the extracted cryptographic key to the television receiver intentionally creates visible glitches in television programming rendered by the television receiver; and wherein steps A) to D) are repeated, and wherein each time an electronic control message comprising a conditional delay instruction is received at step A), the at least two bits of the identifier referenced by the conditional delay instruction are different, until a determination of the identifier associated with the security device is enabled based on the visible glitches. A) receiving an electronic control message that comprises a cryptographic key and a conditional delay instruction referencing at least two bits of an identifier associated with the security device; B) decrypting the electronic control message to extract the cryptographic key and the conditional delay instruction; C) executing the conditional delay instruction to determine which test value of a plurality of test values the at least two bits of the identifier associated with the security device match; and D) selectively delaying delivery (206, 208) of the extracted cryptographic key to the television receiver by a delay period based on which test value the at least two bits of the identifier associated with the security device match, wherein each of the plurality of test values is associated with a different delay period; wherein the selective delaying at step D) of the extracted cryptographic key to the television receiver intentionally creates visible glitches in television programming rendered by the television receiver; and wherein steps A) to D) are repeated, and wherein each time an electronic control message comprising a conditional delay instruction is received at step A), the at least two bits of the identifier referenced by the conditional delay instruction are different, until a determination of the identifier associated with the security device is enabled based on the visible glitches.
A method performed by a terminal for transmitting uplink data in a wireless communication system, the method comprising: receiving, from a base station, random access channel, RACH, configuration information for a supplementary uplink in system information; determining whether to perform a random access, RA, procedure on the supplementary uplink based on the RACH configuration information; transmitting, to the base station, an RA preamble on the supplementary uplink in case that the RA procedure is determined to be performed on the supplementary uplink; receiving, from the base station, downlink control information for scheduling of uplink data transmission in a cell, the downlink control information including an indicator indicating whether the scheduling of the uplink data transmission is associated with a non-supplementary uplink or the supplementary uplink in the cell; and transmitting, to the base station, the uplink data on the supplementary uplink in case that the indicator indicates that the scheduling of the uplink data transmission is associated with the supplementary uplink in the cell. receiving, from a base station, random access channel, RACH, configuration information for a supplementary uplink in system information; determining whether to perform a random access, RA, procedure on the supplementary uplink based on the RACH configuration information; transmitting, to the base station, an RA preamble on the supplementary uplink in case that the RA procedure is determined to be performed on the supplementary uplink; receiving, from the base station, downlink control information for scheduling of uplink data transmission in a cell, the downlink control information including an indicator indicating whether the scheduling of the uplink data transmission is associated with a non-supplementary uplink or the supplementary uplink in the cell; and transmitting, to the base station, the uplink data on the supplementary uplink in case that the indicator indicates that the scheduling of the uplink data transmission is associated with the supplementary uplink in the cell.
A cargo bike transport carrier, comprising a bottom element, two mutually opposite side walls, a rear wall, and a front wall, wherein the cargo bike transport carrier comprises at least two plastic parts, wherein the first plastic part comprises at least one side wall and the second plastic part comprises at least the second side wall, characterized in that on the inside of the side walls reinforcing ribs (58, 60) are provided. a bottom element, two mutually opposite side walls, a rear wall, and a front wall, wherein the cargo bike transport carrier comprises at least two plastic parts, wherein the first plastic part comprises at least one side wall and the second plastic part comprises at least the second side wall, characterized in that on the inside of the side walls reinforcing ribs (58, 60) are provided.
An imaging apparatus comprising: imaging means for imaging an object and outputting a video signal; generation means for generating a plurality of types of capture assist marks (SD, CE, SF) to be synthesized with the video signal output from the imaging means; synthesis means for synthesizing a capture assist mark generated by the generation means with the video signal from the imaging means; acceptance means for accepting instruction input from users about selecting any of the capture assist marks; and control means for controlling the generation means and the synthesis means based on the instruction input accepted through the acceptance means and controlling a capture assist mark corresponding to the instruction input so as to be synthesized with the video signal; characterized in that the apparatus comprises: a plurality of interfaces (81i-84i) for converting the video signal to video signals with different formats; and a plurality of output terminal units each for outputting a respective one of the video signals with different formats; and the control means is further configured to control the generation means and the synthesis means to select which of the capture assist marks are synthesized with the video signal according to which of the plurality of output terminal units is an output destination for the video signal. imaging means for imaging an object and outputting a video signal; generation means for generating a plurality of types of capture assist marks (SD, CE, SF) to be synthesized with the video signal output from the imaging means; synthesis means for synthesizing a capture assist mark generated by the generation means with the video signal from the imaging means; acceptance means for accepting instruction input from users about selecting any of the capture assist marks; and control means for controlling the generation means and the synthesis means based on the instruction input accepted through the acceptance means and controlling a capture assist mark corresponding to the instruction input so as to be synthesized with the video signal; a plurality of interfaces (81i-84i) for converting the video signal to video signals with different formats; and a plurality of output terminal units each for outputting a respective one of the video signals with different formats; and the control means is further configured to control the generation means and the synthesis means to select which of the capture assist marks are synthesized with the video signal according to which of the plurality of output terminal units is an output destination for the video signal.
A heat radiation material comprising: a plurality of linear structures of carbon atoms; a filling layer formed of a thermoplastic resin and disposed between the plurality of linear structures; and a coating film formed on at least one ends of the plurality of linear structures, the coating film is formed of a material having a higher thermal conductivity than the thermoplastic resin characterized in that the coating film has a thickness of 25nm to 1000nm. a plurality of linear structures of carbon atoms; a filling layer formed of a thermoplastic resin and disposed between the plurality of linear structures; and a coating film formed on at least one ends of the plurality of linear structures, the coating film is formed of a material having a higher thermal conductivity than the thermoplastic resin characterized in that the coating film has a thickness of 25nm to 1000nm.