mhurhangee/patent-ind-claim-en huggingface dataset:
A system for intrastromal ophthalmic laser surgery causing a configurational change in a topology of a clear, transparent, resilient material, to alter the optical properties of the material, the system comprising: a computer , a laser unit and a diagnostic unit for determining a topology for the material, when a surface of the material is in a first configuration and is being influenced by biomechanical forces; characterized in that the computer is configured to define an operational volume inside the material, and to evaluate the topology to create a program for making incisions within the operational volume ; and the laser unit is configured to perform the program to weaken material in the operational volume for reconfiguring the topology to a second configuration in response to the biomechanical forces. a computer , a laser unit and a diagnostic unit for determining a topology for the material, when a surface of the material is in a first configuration and is being influenced by biomechanical forces; characterized in that the computer is configured to define an operational volume inside the material, and to evaluate the topology to create a program for making incisions within the operational volume ; and the laser unit is configured to perform the program to weaken material in the operational volume for reconfiguring the topology to a second configuration in response to the biomechanical forces.
Device for entry and exit of motorcycles with two or more wheels consisting of: a metal guiding rail , which guides a sliding clamp carriage that includes two bars that block the front wheel of the motorcycle to be loaded, and an engine which operates a pinion , characterized in that said pinion is equipped with a chain or belt which in turn is linked to a steel cable that runs outside the guiding rail , which is a bar acting as a supporting structure fitted with said clamp carriage that slides along it, and which also houses said chain or belt and said steel cable joined together; said chain or belt , attached to the back part to the clamp carriage by a linkage ; said guiding rail , with said engine fitted onto an end, and with a pulley fitted onto the opposite end; and where said engine , by means of said pinion , moves said chain or belt connected with said steel cable that runs inside said guiding rail , passes over said pulley and returns outside said guiding rail to be fixed onto the front part of said clamp carriage with a cable - clamp ; said two bars of the clamp carriage , being a fixed bar and a movable clamping bar constrained to said fixed bar , compressed by means of two knobs which screw onto a threaded bar .
An ophthalmologic apparatus comprising: a focusing lens provided in an optical path connecting a subject's eye (E) and an imaging means ; a diopter correction lens provided in the optical path to be insertable and removable; a position determination means configured to determine a position of the focusing lens on the optical path in a state where the diopter correction lens is inserted, based on an in-focus state where the diopter correction lens is not inserted; and a determination means configured to determine whether the diopter correction lens is to be inserted into the optical path based on the in-focus state where the diopter correction lens is not inserted, wherein the position determination means is configured to determine the position of the focusing lens on the optical path when the determination means determines that the diopter correction lens is to be inserted, characterized in that the determination means is configured to acquire an amount of driving of the focusing lens required for focusing based on the in-focus state where the diopter correction lens is not inserted, and to determine that the diopter correction lens is to be inserted into the optical path if the focusing lens is beyond a drivable range when driven by the amount of driving. a focusing lens provided in an optical path connecting a subject's eye (E) and an imaging means ; a diopter correction lens provided in the optical path to be insertable and removable; a position determination means configured to determine a position of the focusing lens on the optical path in a state where the diopter correction lens is inserted, based on an in-focus state where the diopter correction lens is not inserted; and a determination means configured to determine whether the diopter correction lens is to be inserted into the optical path based on the in-focus state where the diopter correction lens is not inserted, wherein the position determination means is configured to determine the position of the focusing lens on the optical path when the determination means determines that the diopter correction lens is to be inserted,
A compound for use in a method of treating a subject, the method comprising identifying a subject that has been exposed to radiation from a dirty bomb or accidental nuclear incident, and treating the subject by orally administering between 1 and 200 mg/kg of the compound to the subject, wherein the radiation results in gastrointestinal tract (GI) damage and the compound is a compound of Formula (I): wherein: n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are wherein upon administration of the compound, the compound reduces inflammation from the radiation in the subject, thereby treating the subject. n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl,
A method for image processing, the method comprising: obtaining a visible light image portion and an infrared image portion relating to the same scene ; determining a merged image portion relating to the same scene based on the visible light image portion and the infrared image portion , wherein the merged image portion comprises at least a first colored region and a second colorless region ; and determining color information for said second colorless region using a colorization algorithm , based on at least said first colored region , to obtain a final image portion relating to said same scene , wherein said colorization algorithm is an Al-based algorithm that further uses at least one reference image portion relating to said same scene for determining color information for said second colorless region , wherein said at least one reference image portion is extracted from an online image database by comparing metadata of said visible light image portion or said infrared image portion to respective metadata of said at least one reference image portion to identify reference image portions relating to said same scene . obtaining a visible light image portion and an infrared image portion relating to the same scene ; determining a merged image portion relating to the same scene based on the visible light image portion and the infrared image portion , wherein the merged image portion comprises at least a first colored region and a second colorless region ; and determining color information for said second colorless region using a colorization algorithm , based on at least said first colored region , to obtain a final image portion relating to said same scene , wherein said colorization algorithm is an Al-based algorithm that further uses at least one reference image portion relating to said same scene for determining color information for said second colorless region , wherein said at least one reference image portion is extracted from an online image database by comparing metadata of said visible light image portion or said infrared image portion to respective metadata of said at least one reference image portion to identify reference image portions relating to said same scene .
A compound represented by Formula (I), a stereoisomer thereof, or a pharmaceutically acceptable salt thereof: wherein, R 1 is selected from the group consisting of -NR 7 R 8 , -NH-methylene-NR 9 R 10 , -NH-ethylene-NR 9 R 10 , -NH-propylene-NR 9 R 10 , -NHCO-methylene-NR 9 R 10 , -NHCO-ethylene-NR 9 R 10 , -NHCO-propylene-NR 9 R 10 , -NH-methylene-CO-NR 9 R 10 , -NH-ethylene-CO-NR 9 R 10 , -NH-propylene-CO-NR 9 R 10 , -NHCO-methylene-COO-methyl, -NHCO-methylene-COO-ethyl, -NHCO-methylene-COO-propyl, -NHCO-ethylene-COO-methyl, -NHCO-ethylene-COO-ethyl, -NHCO-ethylene-COO-propyl, -NHCO-propylene-COO-methyl, -NHCO-propylene-COO-ethyl, -NHCO-propylene-COO-propyl, -NH-cyclopropylene-CO-NR 9 R 10 , -NH-cyclobutylene-CO-NR 9 R 10 , -NH-cyclopentylene-CO-NR 9 R 10 , -NH-vinylene-CONR 9 R 10 , -NH-propenylene-CONR 9 R 10 , -NH-allylene-CONR 9 R 10 , -NH-methylene-cyano, -NH-ethylene-cyano, -NH-propylene-cyano, and -NHCO-NH-R 11 ; and R 2 is H; R 7 and R 8 are each independently selected from the group consisting of H, C 1∼6 alkyl, C 1∼6 alkylacyl, and C 1∼6 alkylsulfonyl; R 9 and R 10 are each independently selected from the group consisting of H, hydroxyl, methyl, ethyl, and propyl; or R 9 and R 10 together with N atom to which they attach form piperidinyl, morpholinyl or piperazinyl; R 11 is a heteroaryl selected from the group consisting of: R3 is selected from the group consisting of H and halo; R4 is selected from the group consisting of cyano; and R 5 and R 6 are each independently selected from the group consisting of H, hydroxyl, and halo. R 1 is selected from the group consisting of -NR 7 R 8 , -NH-methylene-NR 9 R 10 , -NH-ethylene-NR 9 R 10 , -NH-propylene-NR 9 R 10 , -NHCO-methylene-NR 9 R 10 , -NHCO-ethylene-NR 9 R 10 , -NHCO-propylene-NR 9 R 10 , -NH-methylene-CO-NR 9 R 10 , -NH-ethylene-CO-NR 9 R 10 , -NH-propylene-CO-NR 9 R 10 , -NHCO-methylene-COO-methyl, -NHCO-methylene-COO-ethyl, -NHCO-methylene-COO-propyl, -NHCO-ethylene-COO-methyl, -NHCO-ethylene-COO-ethyl, -NHCO-ethylene-COO-propyl, -NHCO-propylene-COO-methyl, -NHCO-propylene-COO-ethyl, -NHCO-propylene-COO-propyl, -NH-cyclopropylene-CO-NR 9 R 10 , -NH-cyclobutylene-CO-NR 9 R 10 , -NH-cyclopentylene-CO-NR 9 R 10 , -NH-vinylene-CONR 9 R 10 , -NH-propenylene-CONR 9 R 10 , -NH-allylene-CONR 9 R 10 , -NH-methylene-cyano, -NH-ethylene-cyano, -NH-propylene-cyano, and -NHCO-NH-R 11 ; and R 2 is H; R 7 and R 8 are each independently selected from the group consisting of H, C 1∼6 alkyl, C 1∼6 alkylacyl, and C 1∼6 alkylsulfonyl; R 9 and R 10 are each independently selected from the group consisting of H, hydroxyl, methyl, ethyl, and propyl; or R 9 and R 10 together with N atom to which they attach form piperidinyl, morpholinyl or piperazinyl; R 11 is a heteroaryl selected from the group consisting of: R3 is selected from the group consisting of H and halo; R4 is selected from the group consisting of cyano; and R 5 and R 6 are each independently selected from the group consisting of H, hydroxyl, and halo.
A method of determining unknown concentrations (Ck, Cca, Cna) of constituents (K,Ca,Na) in a composition (X) based on a measurement of the composition (X) by Laser Induced Breakdown Spectroscopy (LIBS), the method comprising - receiving a LIBS spectrum (Sx) comprising resonance peaks (Rk,Rca,Rna) corresponding to the constituents (K,Ca,Na) in the composition (X), the resonance peaks comprising spectral amplitudes (Pk,Pca,Dna,Pna) indicative of the unknown concentrations (Ck, Cca, Cna) of the constituents (K,Ca,Na); - determining a first spectral amplitude (Pk,Pca,Dna) in the LIBS spectrum (Sx) corresponding to the unknown concentration (Ck,Cca,Cna) of a first constituent (K,Ca,Na) to be determined; - determining a second spectral amplitude (Pna) corresponding to a maximum value of a self-reversed resonance peak (Rna) of the first or another one of the constituents (Na) in the LIBS spectrum (Sx), wherein the maximum value of the self-reversed resonance peak (Rna) is limited by self-absorption reduction during the LIBS measurement; - calculating an amplitude ratio (Pk/Pna, Pca/Pna, Dna/Pna) between the first spectral amplitude (Pk,Pca,Dna) and the second spectral amplitude (Pna); - accessing calibration data to match the calculated amplitude ratio (Pk/Pna, Pca/Pna, Dna/Pna) with a predetermined calibration amplitude ratio (Pk'/Pna' Pca'/Pna', Dna'/Pna') as function of a known concentration (Ck',Cca',Cna') of the first constituent (K,Ca,Na); and - using the known concentration (Ck',Cca',Cna') of the matched calibration amplitude ratio to calculate the unknown concentration (Ck,Cca,Cna) of the first constituent (K,Ca,Na) in the composition (X). - receiving a LIBS spectrum (Sx) comprising resonance peaks (Rk,Rca,Rna) corresponding to the constituents (K,Ca,Na) in the composition (X), the resonance peaks comprising spectral amplitudes (Pk,Pca,Dna,Pna) indicative of the unknown concentrations (Ck, Cca, Cna) of the constituents (K,Ca,Na); - determining a first spectral amplitude (Pk,Pca,Dna) in the LIBS spectrum (Sx) corresponding to the unknown concentration (Ck,Cca,Cna) of a first constituent (K,Ca,Na) to be determined; - determining a second spectral amplitude (Pna) corresponding to a maximum value of a self-reversed resonance peak (Rna) of the first or another one of the constituents (Na) in the LIBS spectrum (Sx), wherein the maximum value of the self-reversed resonance peak (Rna) is limited by self-absorption reduction during the LIBS measurement; - calculating an amplitude ratio (Pk/Pna, Pca/Pna, Dna/Pna) between the first spectral amplitude (Pk,Pca,Dna) and the second spectral amplitude (Pna); - accessing calibration data to match the calculated amplitude ratio (Pk/Pna, Pca/Pna, Dna/Pna) with a predetermined calibration amplitude ratio (Pk'/Pna' Pca'/Pna', Dna'/Pna') as function of a known concentration (Ck',Cca',Cna') of the first constituent (K,Ca,Na); and - using the known concentration (Ck',Cca',Cna') of the matched calibration amplitude ratio to calculate the unknown concentration (Ck,Cca,Cna) of the first constituent (K,Ca,Na) in the composition (X).
A batch for producing a refractory product comprising the following components: 1.1 A base component of at least one refractory ceramic raw material; and 1.2 at least one synthetic raw material with the following features: 1.2.1 The synthetic raw material consists of bodies, the bodies having the following features: 1.2.1.1 The bodies consist of grains of at least one refractory ceramic raw material sintered together, 1.2.1.2. the bodies having a proportion of clay minerals of less than 10 % by mass relative to the total mass of the bodies; 1.2.2. the bodies have a ratio of (thickness):(width):(length) of :(≥ 1 and ≤ length):(≥ 3) 1.1 A base component of at least one refractory ceramic raw material; and 1.2 at least one synthetic raw material with the following features: 1.2.1 The synthetic raw material consists of bodies, the bodies having the following features: 1.2.1.1 The bodies consist of grains of at least one refractory ceramic raw material sintered together, 1.2.1.2. the bodies having a proportion of clay minerals of less than 10 % by mass relative to the total mass of the bodies; 1.2.2. the bodies have a ratio of (thickness):(width):(length) of :(≥ 1 and ≤ length):(≥ 3) 1.2.1 The synthetic raw material consists of bodies, the bodies having the following features: 1.2.1.1 The bodies consist of grains of at least one refractory ceramic raw material sintered together, 1.2.1.2. the bodies having a proportion of clay minerals of less than 10 % by mass relative to the total mass of the bodies; 1.2.1.1 The bodies consist of grains of at least one refractory ceramic raw material sintered together, 1.2.1.2. the bodies having a proportion of clay minerals of less than 10 % by mass relative to the total mass of the bodies; 1.2.2. the bodies have a ratio of (thickness):(width):(length) of :(≥ 1 and ≤ length):(≥ 3)
Management method of lubrication of an internal combustion engine in a vehicle provided with a Stop & Start system, the method comprising: - an engine stop and a following engine start, caused by said Stop & Start system; - a step of automatically foreseeing the forthcoming engine start of said Stop & Start system, and - a consequent electric oil pump activation before said engine start, such that a lubricating oil circuit is efficient just before engine start triggering; wherein a drive assist system (ADAS) is implemented, capable to interact with at least said internal combustion engine, wherein said step of automatically foreseeing said forthcoming engine start is carried out by said drive assist system (ADAS). - an engine stop and a following engine start, caused by said Stop & Start system; - a step of automatically foreseeing the forthcoming engine start of said Stop & Start system, and - a consequent electric oil pump activation before said engine start, such that a lubricating oil circuit is efficient just before engine start triggering;
A monolithic rib plate , comprising: multiple first screw orifices located substantially along a first line (A) and connected by first bridges ; multiple second screw orifices located laterally on one side of the first line (A) and connected by second bridges , wherein two closest neighboring second screw orifices are directly connected by one second bridge ; and third bridges , each connecting one of the second screw orifices with one of the first screw orifices ; wherein each second screw orifice has a center point and wherein a second line (B) extends through the center points of two neighboring second screw orifices ; characterized in that the one second bridge has a smaller cross-section than the first bridges and is offset relative to the second line (B) in a direction away from the first line (A). multiple first screw orifices located substantially along a first line (A) and connected by first bridges ; multiple second screw orifices located laterally on one side of the first line (A) and connected by second bridges , wherein two closest neighboring second screw orifices are directly connected by one second bridge ; and third bridges , each connecting one of the second screw orifices with one of the first screw orifices ; wherein each second screw orifice has a center point and wherein a second line (B) extends through the center points of two neighboring second screw orifices ; characterized in that the one second bridge has a smaller cross-section than the first bridges and is offset relative to the second line (B) in a direction away from the first line (A).
A rule-learning engine system , comprising: a computer comprising a processor and a memory having computer-executable instructions stored thereupon which, when executed by the processor, cause the computer to: for a plurality of code files and a plurality of configuration files, train a correlated change model to identify correlated changes across the code files and the configuration files using a machine learning algorithm and a refinement algorithm, wherein the machine learning algorithm discovers change rules using a support parameter and a confidence parameter and the refinement algorithm refines the change rules discovered by the machine learning algorithm; store the correlated change model comprising the change rules; receive information regarding a change to a particular file; and use the trained correlated change model comprising a plurality of change rules to provide a suggestion to change an additional file to a user; wherein the refinement algorithm utilizes a differential syntax analysis utilizing a parse tree for a particular file before a change and a parse tree for the particular file after the change for each of a plurality of files. for a plurality of code files and a plurality of configuration files, train a correlated change model to identify correlated changes across the code files and the configuration files using a machine learning algorithm and a refinement algorithm, wherein the machine learning algorithm discovers change rules using a support parameter and a confidence parameter and the refinement algorithm refines the change rules discovered by the machine learning algorithm; store the correlated change model comprising the change rules; receive information regarding a change to a particular file; and use the trained correlated change model comprising a plurality of change rules to provide a suggestion to change an additional file to a user; wherein the refinement algorithm utilizes a differential syntax analysis utilizing a parse tree for a particular file before a change and a parse tree for the particular file after the change for each of a plurality of files.
A vacuum plate for handling a sheet material article , the vacuum plate comprising a first wall , a plurality of vacuum holes in the first wall each of said holes being defined by a bore extending through the first wall between opposite first and second sides of the first wall, and at least one air outlet for connection to a source of vacuum pressure for applying a vacuum pressure to said bore from the second side of the first wall whereby the first wall provides, in use, a vacuum surface for pulling and holding said article to the vacuum surface when said vacuum pressure is applied to said bore, characterised in that said bore comprises: - a flared entrance terminating at the vacuum surface for admitting air pulled through said bore by said applied vacuum pressure; and - opposite said entrance , an exit for said air pulled through said bore , said exit being surrounded by a rim that extends above a surrounding surface of the second side of the first wall . - a flared entrance terminating at the vacuum surface for admitting air pulled through said bore by said applied vacuum pressure; and - opposite said entrance , an exit for said air pulled through said bore , said exit being surrounded by a rim that extends above a surrounding surface of the second side of the first wall .