mhurhangee/patent-ind-claim-en huggingface dataset:
Method for adapting a speed limit of an industrial truck , wherein the industrial truck comprises an electronic controller which is configured to sense travelled speeds, and wherein the industrial truck is communicatively connected to a control system , wherein the method is characterized by : • acquiring a speed profile over a first time period by means of the electronic controller of the industrial truck ; • defining a limiting speed for the industrial truck for a second time period; • determining a first travel time of the industrial truck from the acquired speed profile for travelling a summed distance of the industrial truck in the first time period, which distance has been travelled along at speeds which are above the limiting speed, by means of the control system ; • determining a second travel time of the industrial truck for travelling the summed distance of the industrial truck with the limiting speed by means of the control system ; • determining a time difference from the first travel time and the second travel time by means of the control system ; and • transmitting a control signal from the control system to the industrial truck if the determined time difference is shorter than a stationary period of the industrial truck in the first time period, wherein the control signal is configured to define the limiting speed as a speed limit of the industrial truck for the second time period. • acquiring a speed profile over a first time period by means of the electronic controller of the industrial truck ; • defining a limiting speed for the industrial truck for a second time period; • determining a first travel time of the industrial truck from the acquired speed profile for travelling a summed distance of the industrial truck in the first time period, which distance has been travelled along at speeds which are above the limiting speed, by means of the control system ; • determining a second travel time of the industrial truck for travelling the summed distance of the industrial truck with the limiting speed by means of the control system ; • determining a time difference from the first travel time and the second travel time by means of the control system ; and • transmitting a control signal from the control system to the industrial truck if the determined time difference is shorter than a stationary period of the industrial truck in the first time period, wherein the control signal is configured to define the limiting speed as a speed limit of the industrial truck for the second time period.
An optical apparatus (100; 200; 300) comprising: an optical resonator (102; 202; 302) defining an optical resonator path (110; 210; 310) for an optical resonator beam (150; 250; 350); and an optical beam expander (104; 204; 304) for receiving and expanding an optical beam output from the optical resonator (102; 202; 302), the optical beam expander (104; 204; 304) defining an optical beam expander path (124; 224; 324) for a divergent optical beam expander beam (152; 252; 352), wherein the optical resonator path (110; 210; 310) and the optical beam expander path (124; 224; 324) are configured such that the optical resonator beam (150; 250; 350) and the divergent optical beam expander beam (152; 252; 352) at least partially intersect. an optical resonator (102; 202; 302) defining an optical resonator path (110; 210; 310) for an optical resonator beam (150; 250; 350); and an optical beam expander (104; 204; 304) for receiving and expanding an optical beam output from the optical resonator (102; 202; 302), the optical beam expander (104; 204; 304) defining an optical beam expander path (124; 224; 324) for a divergent optical beam expander beam (152; 252; 352), wherein the optical resonator path (110; 210; 310) and the optical beam expander path (124; 224; 324) are configured such that the optical resonator beam (150; 250; 350) and the divergent optical beam expander beam (152; 252; 352) at least partially intersect.
A lubricating oil composition for an automatic transmission of an automobile, comprising a base oil which contains: (A) a mineral oil satisfying following conditions to : kinetic viscosity at 100°C is in the range of 5 mm 2 /s or more to 8 mm 2 /s or less, viscosity index is 130 or more, and %C P by a ring analysis (n-d-M method) is 80 or more, and (B) one or more base oils selected from (b1) a mineral oil having a kinetic viscosity at 100°C in the range of 2.0 mm 2 /s or more to 4.0 mm 2 /s or less and a pour point of -30°C or lower and (b2) a synthetic oil being a poly(α-olefin) which is an oligomer of an α-olefin having 8 to 14 carbon atoms and having a kinetic viscosity at 100°C in the range of 1.5 mm 2 /s or more to 6.5 mm 2 /s or less and a pour point of -30°C or lower, wherein the pour point is determined in accordance with JIS K2269, wherein the lubricating oil composition has a kinetic viscosity at 100°C falling within the range of 5.58 mm 2 /s or more and 8 mm 2 /s or less, and wherein the base oil comprising the component (A) in the range of 40% or more by mass to 75% or less by mass and the component (B) in the range of 25% or more by mass to 60% or less by mass based on total amount of the base oil is used. (A) a mineral oil satisfying following conditions to : kinetic viscosity at 100°C is in the range of 5 mm 2 /s or more to 8 mm 2 /s or less, viscosity index is 130 or more, and %C P by a ring analysis (n-d-M method) is 80 or more, and kinetic viscosity at 100°C is in the range of 5 mm 2 /s or more to 8 mm 2 /s or less, viscosity index is 130 or more, and %C P by a ring analysis (n-d-M method) is 80 or more, and (B) one or more base oils selected from (b1) a mineral oil having a kinetic viscosity at 100°C in the range of 2.0 mm 2 /s or more to 4.0 mm 2 /s or less and a pour point of -30°C or lower and (b2) a synthetic oil being a poly(α-olefin) which is an oligomer of an α-olefin having 8 to 14 carbon atoms and having a kinetic viscosity at 100°C in the range of 1.5 mm 2 /s or more to 6.5 mm 2 /s or less and a pour point of -30°C or lower, wherein the pour point is determined in accordance with JIS K2269, (b1) a mineral oil having a kinetic viscosity at 100°C in the range of 2.0 mm 2 /s or more to 4.0 mm 2 /s or less and a pour point of -30°C or lower and (b2) a synthetic oil being a poly(α-olefin) which is an oligomer of an α-olefin having 8 to 14 carbon atoms and having a kinetic viscosity at 100°C in the range of 1.5 mm 2 /s or more to 6.5 mm 2 /s or less and a pour point of -30°C or lower, wherein the pour point is determined in accordance with JIS K2269,
An inhibitor of ZIP12 activity or expression, for use in a method for preventing or treating pulmonary hypertension caused by hypoxic stress, wherein the inhibitor is an antisense oligonucleotide, siRNA, or dsRNA which specifically binds to a portion of an mRNA encoding ZIP12.
A pharmaceutical formulation comprising a deuterated form of tetrahydrocurcumin and a pharmaceutical vehicle.
Handgun comprising a fastening device for fastening a silencer to the handgun , the fastening device having a fastening rail for fastening the fastening device to a mounting rail of the handgun, characterized in that a support surface is formed at the rear end of the fastening rail , which surface lies at least in portions on the front end of the trigger guard of the handgun when the fastening device is fastened to the handgun, - the surface of the support surface facing the trigger guard having a convex curvature, and - the front end of the trigger guard being designed as an end-face countersupport surface which corresponds at least in portions to the convexly curved support surface . - the surface of the support surface facing the trigger guard having a convex curvature, and - the front end of the trigger guard being designed as an end-face countersupport surface which corresponds at least in portions to the convexly curved support surface .
A vehicle glazing comprising a pane of glazing material having a first surface and a second surface; an absorptive coating on the first surface of the pane, which coating absorbs radiation of wavelength greater than 400 nm and solar energy incident on the glazing, the absorbed solar energy being re-radiated by the absorptive coating over a different wavelength range from that of the incident solar energy, and which reduces the intensity of visible light transmitted, thereby providing the glazing with a privacy function as well as a solar control function, a low emissivity coating on the second surface of the pane, the second surface being the interior surface of said pane, wherein the low emissivity coating has an emissivity in the range from 0.01 to less than 0.3 (when used on 3 mm clear float glass), which low emissivity coating suppresses the re-radiated energy, thereby reducing the amount of heat transmitted through the glazing, and also reduces heat loss from the vehicle by reflecting far infrared radiation back into the vehicle, the vehicle glazing having a visible light transmission of 20% or less and a transmitted energy of 20% or less.
Tank for the transport of fuel, comprising: - at least a first container body defining at least a first containment volume of at least one work liquid, - at least a second container body defining at least a second containment volume of fuel and provided with at least one housing seat inside which said first container body is fitted in a removable manner; characterized by the fact that it comprises reinforcing means of said second container body provided with at least one reinforcing element positioned through inside said second containment volume and adapted to counteract the deformation of said second container body ; and characterized by the fact that said reinforcing element is made in a single body piece with said second container body . - at least a first container body defining at least a first containment volume of at least one work liquid, - at least a second container body defining at least a second containment volume of fuel and provided with at least one housing seat inside which said first container body is fitted in a removable manner; characterized by the fact that it comprises reinforcing means of said second container body provided with at least one reinforcing element positioned through inside said second containment volume and adapted to counteract the deformation of said second container body ; and characterized by the fact that said reinforcing element is made in a single body piece with said second container body .
A terminal comprising a processor and a transceiver , wherein under a condition that a Physical Uplink Control Channel, PUCCH, and a Physical Uplink Shared Channel, PUSCH, in a configured grant resource fully or partially overlap, when a first Uplink Control Information, UCI, with a first priority is to be transmitted on the PUCCH, the processor is configured to determine that the first UCI needs to be multiplexed in the PUSCH and the transceiver is configured to multiplex the first UCI in the PUSCH , characterized in that : when a second UCI with a second priority is to be transmitted on the PUCCH, the processor is configured to trigger the transceiver to drop off the second UCI, wherein the first priority is higher than the second priority. wherein under a condition that a Physical Uplink Control Channel, PUCCH, and a Physical Uplink Shared Channel, PUSCH, in a configured grant resource fully or partially overlap, when a first Uplink Control Information, UCI, with a first priority is to be transmitted on the PUCCH, the processor is configured to determine that the first UCI needs to be multiplexed in the PUSCH and the transceiver is configured to multiplex the first UCI in the PUSCH , characterized in that : when a second UCI with a second priority is to be transmitted on the PUCCH, the processor is configured to trigger the transceiver to drop off the second UCI, wherein the first priority is higher than the second priority. when a second UCI with a second priority is to be transmitted on the PUCCH, the processor is configured to trigger the transceiver to drop off the second UCI, wherein the first priority is higher than the second priority.
A natural gas recovery system for a liquefied natural gas supply system configured to be mounted on a vehicle, the supply system comprising a first tank , intended to store liquefied natural gas, a liquid phase and a gaseous phase of said natural gas coexisting in the first tank, the recovery system of natural gas comprising a second tank intended to store compressed natural gas, a compressor (CP), adapted to compress in said second tank an excess of gaseous phase of said first tank., wherein said compressor has an inlet operatively connected with said first tank and an outlet operatively connected with said second tank and wherein the system further comprises, on both the first and second tank, respective openings towards the injection device of the natural gas supply system fuelling the combustion engine of the vehicle, the system being characterized in comprising an expansion chamber (EX) operatively connected with said first tank and wherein said compressor has an inlet operatively connected with said expansion chamber (EX) and an outlet operatively connected with said second tank .
A kit for a chemical or biological assay, comprising: (i) a substrate ; (ii) a boundary wall , wherein the boundary wall comprises a substrate holder lock and a separation well lock ; (iii) a separation well structure configured to reversibly and removably couple to the substrate to form a plurality of wells when coupled, wherein the separation well structure comprises a plurality of walls defining a plurality of openings and a separation well clip configured to couple the separation well structure to the boundary wall, wherein the separation well lock interfaces with the separation well clip of the separation well structure; (iv) a concentrating well structure located between the substrate and the separation well structure; and (v) a substrate holder configured to couple the substrate to the boundary wall to form a holding cavity when coupled, wherein the substrate holder comprises a boundary wall clip configured to couple the substrate holder to the boundary wall, wherein the substrate holder lock interfaces with the boundary wall clip of the substrate holder, and wherein the separation well structure is coupled within the holding cavity . (i) a substrate ; (ii) a boundary wall , wherein the boundary wall comprises a substrate holder lock and a separation well lock ; (iii) a separation well structure configured to reversibly and removably couple to the substrate to form a plurality of wells when coupled, wherein the separation well structure comprises a plurality of walls defining a plurality of openings and a separation well clip configured to couple the separation well structure to the boundary wall, wherein the separation well lock interfaces with the separation well clip of the separation well structure; (iv) a concentrating well structure located between the substrate and the separation well structure; and (v) a substrate holder configured to couple the substrate to the boundary wall to form a holding cavity when coupled, wherein the substrate holder comprises a boundary wall clip configured to couple the substrate holder to the boundary wall, wherein the substrate holder lock interfaces with the boundary wall clip of the substrate holder, and wherein the separation well structure is coupled within the holding cavity .
A method of modifying a target region in the genome of a cell, the method comprising: (a) contacting a cell with: a nucleic-acid-guided nuclease comprising an amino acid sequence at least 90% identical to SEQ ID NO: 7; an engineered guide nucleic acid capable of complexing with the nucleic acid-guided nuclease; and an editing sequence encoding a nucleic acid complementary to said target region having a change in sequence relative to the target region; and (b) allowing the nuclease, guide nucleic acid, and editing sequence to create a genome edit in the target region of the genome of the cell; wherein the method is not a method for modifying the germ line genetic identity of human beings. (a) contacting a cell with: a nucleic-acid-guided nuclease comprising an amino acid sequence at least 90% identical to SEQ ID NO: 7; an engineered guide nucleic acid capable of complexing with the nucleic acid-guided nuclease; and an editing sequence encoding a nucleic acid complementary to said target region having a change in sequence relative to the target region; and a nucleic-acid-guided nuclease comprising an amino acid sequence at least 90% identical to SEQ ID NO: 7; an engineered guide nucleic acid capable of complexing with the nucleic acid-guided nuclease; and an editing sequence encoding a nucleic acid complementary to said target region having a change in sequence relative to the target region; and (b) allowing the nuclease, guide nucleic acid, and editing sequence to create a genome edit in the target region of the genome of the cell;
A terminal device comprising a processor configured to execute a process including: a, extracting a plurality of character strings, in units of rows, from a character area included in image data; b, displaying in a first display screen a first character string forming a single row, the single row being designated by a user from among the plurality of character strings extracted in units of rows; c, displaying in a second display screen an enlarged view of a portion of the first character string at a position in the first character string and in the vicinity of the position, the position being designated by the user in the first display screen using a drag button ; d, determining whether a subsequent row following the designated row exists, when said designation of the position in the first display screen is released by the user; and e, in response to a determination that the subsequent row following the designated row exists, displaying in the second display screen an enlarged view of a second character string at the beginning of the subsequent row and in the vicinity of the beginning of the subsequent row. a, extracting a plurality of character strings, in units of rows, from a character area included in image data; b, displaying in a first display screen a first character string forming a single row, the single row being designated by a user from among the plurality of character strings extracted in units of rows; c, displaying in a second display screen an enlarged view of a portion of the first character string at a position in the first character string and in the vicinity of the position, the position being designated by the user in the first display screen using a drag button ; d, determining whether a subsequent row following the designated row exists, when said designation of the position in the first display screen is released by the user; and e, in response to a determination that the subsequent row following the designated row exists, displaying in the second display screen an enlarged view of a second character string at the beginning of the subsequent row and in the vicinity of the beginning of the subsequent row.
A data transmission method , comprising: a) receiving (S104), by a receiving device, a first packet sent by a sending device, wherein the first packet comprises first compressed data and a first check value, the first compressed data is obtained by the sending device by compressing (S101) first data using a first compression mode, the first check value is obtained by the sending device by processing a second CRC check value using a first CRC check algorithm, and the second check value is obtained by the sending device by processing the first compressed data using a second CRC check algorithm; b) obtaining (S201), by the receiving device, a first CRC check code by processing the first packet using a third CRC check algorithm, wherein the second CRC check algorithm and the third CRC check algorithm comprise a same CRC generator polynomial; c) determining (S205), by the receiving device according to the obtained first check code and a correspondence between the first check code and the first compression mode, that the first compression mode is a compression mode used when the sending device compresses the first data, wherein the correspondence is established in advance by the receiving and the sending device; and d) obtaining (S106), by the receiving device, the first data by decompressing, using a first decompression mode, the first compressed data comprised in the first packet, wherein the first decompression mode is a decompression mode corresponding to the first compression mode. a) receiving (S104), by a receiving device, a first packet sent by a sending device, wherein the first packet comprises first compressed data and a first check value, the first compressed data is obtained by the sending device by compressing (S101) first data using a first compression mode, the first check value is obtained by the sending device by processing a second CRC check value using a first CRC check algorithm, and the second check value is obtained by the sending device by processing the first compressed data using a second CRC check algorithm; b) obtaining (S201), by the receiving device, a first CRC check code by processing the first packet using a third CRC check algorithm, wherein the second CRC check algorithm and the third CRC check algorithm comprise a same CRC generator polynomial; c) determining (S205), by the receiving device according to the obtained first check code and a correspondence between the first check code and the first compression mode, that the first compression mode is a compression mode used when the sending device compresses the first data, wherein the correspondence is established in advance by the receiving and the sending device; and d) obtaining (S106), by the receiving device, the first data by decompressing, using a first decompression mode, the first compressed data comprised in the first packet, wherein the first decompression mode is a decompression mode corresponding to the first compression mode.
A method for determining the amount of fetal nucleic acid in a sample comprising: a) contacting nucleic acid present in a sample from a pregnant female, which sample comprises differentially methylated fetal nucleic acid and maternal nucleic acid, with an a methyl-CpG binding protein (MBD) or fragment thereof being capable of specifically binding methylated nucleotides; thereby producing bound nucleic acid; b) isolating the bound nucleic acid of (a) by contact with solutions of increasing salt concentration, thereby enriching the hypermethylated fetal nucleic acid; and c) determining the amount of fetal nucleic acid by analyzing the amount of fetal nucleic acid of (b) at a plurality of loci selected from loci of SEQ ID NOs:1-59. a) contacting nucleic acid present in a sample from a pregnant female, which sample comprises differentially methylated fetal nucleic acid and maternal nucleic acid, with an a methyl-CpG binding protein (MBD) or fragment thereof being capable of specifically binding methylated nucleotides; thereby producing bound nucleic acid; b) isolating the bound nucleic acid of (a) by contact with solutions of increasing salt concentration, thereby enriching the hypermethylated fetal nucleic acid; and c) determining the amount of fetal nucleic acid by analyzing the amount of fetal nucleic acid of (b) at a plurality of loci selected from loci of SEQ ID NOs:1-59.