mhurhangee/patent-ind-claim-en huggingface dataset:
Pickling tool designed for pickling a surface of an element , said pickling tool comprising: - a supply conduit delimiting a supply channel designed to be in pneumatic communication with a source of compressed air laden with a powder of an abrasive product, - a removal conduit delimiting a removal channel designed to be in pneumatic communication with a suction source , and - a nozzle having an opening that communicates with the exterior and is designed to face the surface , wherein the nozzle is in pneumatic communication with the supply channel and the removal channel , wherein the supply conduit is an interior conduit and the removal conduit is an exterior conduit in which the interior conduit is accommodated, - a guide , characterized in that the guide traverses the opening and is secured to the supply conduit . - a supply conduit delimiting a supply channel designed to be in pneumatic communication with a source of compressed air laden with a powder of an abrasive product, - a removal conduit delimiting a removal channel designed to be in pneumatic communication with a suction source , and - a nozzle having an opening that communicates with the exterior and is designed to face the surface , wherein the nozzle is in pneumatic communication with the supply channel and the removal channel , wherein the supply conduit is an interior conduit and the removal conduit is an exterior conduit in which the interior conduit is accommodated, - a guide , characterized in that the guide traverses the opening and is secured to the supply conduit .
A computer-implemented method for modelling complex geological sequences, the method comprising: calculating a gross interval thickness over a predetermined depositional sequence range with three system tract intervals per sequence using a predetermined gross interval defined by two grids representing seismic horizons or well tops; the method being characterized in creating actual top surfaces using the gross interval thickness and the predetermined depositional sequence range by proportionally subdividing the gross interval thickness by the product of the predetermined depositional sequence range times three; identifying one or more maximum regression surface, MRS, shoreline facies positions for each of the actual top surfaces that is an MRS actual top surface using a paleographic map; calculating one or more lowstand system tracts, LST, termination positions against one or more respective sequence boundaries using the respective one or more MRS shoreline facies positions ; defining lateral zones within the gross interval thickness for each system tract interval using each respective LST termination position and MRS shoreline facies position ; creating conceptual geologic rules for each system tract interval as a function of each lateral zone using proportionality regarding the different system tracts; and creating new actual top surfaces for each system tract interval within the gross interval thickness using the conceptual geologic rules; and determining a well positioning. calculating a gross interval thickness over a predetermined depositional sequence range with three system tract intervals per sequence using a predetermined gross interval defined by two grids representing seismic horizons or well tops; the method being characterized in creating actual top surfaces using the gross interval thickness and the predetermined depositional sequence range by proportionally subdividing the gross interval thickness by the product of the predetermined depositional sequence range times three; identifying one or more maximum regression surface, MRS, shoreline facies positions for each of the actual top surfaces that is an MRS actual top surface using a paleographic map; calculating one or more lowstand system tracts, LST, termination positions against one or more respective sequence boundaries using the respective one or more MRS shoreline facies positions ; defining lateral zones within the gross interval thickness for each system tract interval using each respective LST termination position and MRS shoreline facies position ; creating conceptual geologic rules for each system tract interval as a function of each lateral zone using proportionality regarding the different system tracts; and creating new actual top surfaces for each system tract interval within the gross interval thickness using the conceptual geologic rules; and determining a well positioning.
A percussion primer composition comprising: 5 to 40 wt-%, based on the dry weight of the primer composition, of at least one moderately insensitive explosive component, wherein the at least one moderately insensitive explosive component is chosen from nitrocellulose, pentaerythritol tetranitrate ("PETN"), 2,4,6,8,10,12-hexanitro-2,4,6,8,10,12-hexaazatetracyclo[5.5.0.0. 5 ' 9 0 3,11 ]dodecane ("CL-20"), cyclo-1,3,5-trimethylene-2,4,6-trinitramine ("RDX"), cyclotetramethylene tetranitramine ("HMX"), 2,4,6-trinitrotoluene ("TNT"), nitroguanidine, styphnic acid, potassium dinitrobenzofuraxan ("KDNBF"), and mixtures thereof; 5 to 25 wt-%, based on the dry weight of the primer composition, of a plurality of fuel particles having an average particle size of 1.5 microns to 12 microns, substantially devoid of fuel particles having a particle size of 1,000 nanometers or less, wherein the plurality of fuel particles is chosen from aluminum, boron, molybdenum, titanium, tungsten, magnesium, melamine, zirconium, calcium silicide, or mixtures thereof; and 35 to 80 wt-%, bases on the dry weight of the primer composition, of an oxidizing agent, wherein the oxidizing agent is chosen from bismuth trioxide, bismuth subnitrate, bismuth tetroxide, bismuth sulfide, zinc peroxide, tin oxide, manganese dioxide, molybdenum trioxide, potassium nitrate, and combinations thereof; wherein the primary explosive is substantially devoid of a traditional primary explosive containing lead styphnate, metal azides, mercury fulminate, dinitrophenol, or mixtures thereof. 5 to 40 wt-%, based on the dry weight of the primer composition, of at least one moderately insensitive explosive component, wherein the at least one moderately insensitive explosive component is chosen from nitrocellulose, pentaerythritol tetranitrate ("PETN"), 2,4,6,8,10,12-hexanitro-2,4,6,8,10,12-hexaazatetracyclo[5.5.0.0. 5 ' 9 0 3,11 ]dodecane ("CL-20"), cyclo-1,3,5-trimethylene-2,4,6-trinitramine ("RDX"), cyclotetramethylene tetranitramine ("HMX"), 2,4,6-trinitrotoluene ("TNT"), nitroguanidine, styphnic acid, potassium dinitrobenzofuraxan ("KDNBF"), and mixtures thereof; 5 to 25 wt-%, based on the dry weight of the primer composition, of a plurality of fuel particles having an average particle size of 1.5 microns to 12 microns, substantially devoid of fuel particles having a particle size of 1,000 nanometers or less, wherein the plurality of fuel particles is chosen from aluminum, boron, molybdenum, titanium, tungsten, magnesium, melamine, zirconium, calcium silicide, or mixtures thereof; and 35 to 80 wt-%, bases on the dry weight of the primer composition, of an oxidizing agent, wherein the oxidizing agent is chosen from bismuth trioxide, bismuth subnitrate, bismuth tetroxide, bismuth sulfide, zinc peroxide, tin oxide, manganese dioxide, molybdenum trioxide, potassium nitrate, and combinations thereof;
Device for the cryogenic purification of a stream of gas and in particular of air, comprising a purification circuit comprising a first inlet of gas to be purified and a first set of filters arranged in series downstream of the first inlet , the first set of filters comprising an end heat exchanger operating to exchange heat with a cryogenic cold source , the purification circuit comprising, downstream of the end exchanger , a first outlet of purified gas, the device comprising at least one drive member intended to set the gas stream in motion in the purification circuit between the first inlet and the first outlet , characterized in that the purification circuit additionally comprises, between the end exchanger and the first outlet , a second set of filter(s) , and in that the at least one drive member is configured to set two successive volumes of gas to be purified in motion in opposite directions of circulation in the circuit , that is to say that a first volume of gas to be purified circulates from the first gas inlet to the first outlet and then a second volume of gas to be purified enters the circuit via the first gas outlet and exits purified via the first inlet .
A vehicle interior lighting system comprising: an illuminating unit to be provided in an interior of a vehicle; an imaging unit that captures a depth image including a distance to an object person in the interior; an estimating unit that estimates a three-dimensional human body model of the object person from the depth image captured by the imaging unit ; a predicting unit that predicts a movement intention of the object person in the interior based on the human body model estimated by the estimating unit ; and an operation controller that controls lighting of the illuminating unit according to the movement intention predicted by the predicting unit , wherein the illuminating unit has a plurality of lighting devices , the operation controller turns on the lighting devices near the object person whose movement intention is predicted by the predicting unit , and the predicting unit predicts an intention to start moving by perceiving a movement of the object person to rise from a seat and to direct an upper body toward an aisle of the interior and predicts an intention to continue moving by perceiving a movement of the object person to continue moving the upper body after predicting the intention to start moving and predicts a destination of the object person in the interior based on a current position and a moving direction of the human body model estimated by the estimating unit , and the operation controller turns on the lighting devices at the destination predicted by the predicting unit . an illuminating unit to be provided in an interior of a vehicle; an imaging unit that captures a depth image including a distance to an object person in the interior; an estimating unit that estimates a three-dimensional human body model of the object person from the depth image captured by the imaging unit ; a predicting unit that predicts a movement intention of the object person in the interior based on the human body model estimated by the estimating unit ; and an operation controller that controls lighting of the illuminating unit according to the movement intention predicted by the predicting unit , wherein the illuminating unit has a plurality of lighting devices , the operation controller turns on the lighting devices near the object person whose movement intention is predicted by the predicting unit , and the predicting unit predicts an intention to start moving by perceiving a movement of the object person to rise from a seat and to direct an upper body toward an aisle of the interior and predicts an intention to continue moving by perceiving a movement of the object person to continue moving the upper body after predicting the intention to start moving and predicts a destination of the object person in the interior based on a current position and a moving direction of the human body model estimated by the estimating unit , and the operation controller turns on the lighting devices at the destination predicted by the predicting unit .
Aerosol-generating device comprising: a device housing having a cavity for receiving aerosol-forming substrate ; a heating element extending into the cavity for heating aerosol-forming substrate received in the cavity; a movable cavity bottom , characterized by the position of the cavity bottom defining a length of the cavity; and a control adapted to move the cavity bottom to a selected position within the cavity, the selected position being a longitudinal position at the heating element, wherein the movable cavity bottom is a separate plate and comprises an opening for guiding the heating element in the opening. a device housing having a cavity for receiving aerosol-forming substrate ; a heating element extending into the cavity for heating aerosol-forming substrate received in the cavity; a movable cavity bottom , characterized by the position of the cavity bottom defining a length of the cavity; and a control adapted to move the cavity bottom to a selected position within the cavity, the selected position being a longitudinal position at the heating element, wherein the movable cavity bottom is a separate plate and comprises an opening for guiding the heating element in the opening.
A fuel injection valve control device configured to control a plurality of fuel injection devices, each comprising a valve body , a solenoid configured to open the valve, and a set spring for pressing the valve body toward a valve seat , wherein the fuel injection valve control device is adapted to apply a boosting voltage (Vboost) to the solenoid during a boosting voltage application time (Tp) and, after a prescribed gap time (T2) from stopping the boosting voltage application, applies a holding current (Ib), the fuel injection valve control device includes a gap time correction unit configured to correct the gap time (T2) such as to set a late holding current application time (t5C) for a fuel injection valve having a weak set spring and to set an early holding current application time (t5A) for a fuel injection valve having a strong set spring ; and the fuel injection valve control device includes a holding current correction unit which is adapted to set the holding current (Ih) to a small holding current value (IhC) for the fuel injection valve having the weak set spring and adapted to set the holding current (Ih) to a large holding current value (IhA) for the fuel injection valve having the strong set spring .
A method for using 2-butanol as the hydrogen source for a conversion reaction, the method comprising: dehydrogenating 2-butanol to yield 2-butanone; wherein hydrogen removed from the 2-butanol during the dehydrogenating is the hydrogen source for the conversion reaction; and wherein the conversion reaction comprises hydrogenation, hydrogenolysis, or hydrodeoxygenation.
A method implemented by a control system of an ego-vehicle , the method comprising: receiving sensor signal data comprising stationary and non-stationary detections from a surrounding environment of the ego-vehicle; determining at least one group of stationary detections which meet one or more lateral position selection criteria based on the lateral position of each stationary detection from a direction faced by the ego-vehicle; determining at least one group of stationary detections which meet one or more group regularity selection criteria based on the regularity of the differences in position between pairs of sequentially positioned stationary detections in the group in the direction faced by the ego vehicle; determining one or more groups of stationary detections which meet the lateral selection criteria and the group regularity selection criteria for being a group of stationary detections corresponding to at least one stationary object; and characterized by removing the stationary detections meeting both selection criteria and corresponding to at least one pre-determined type of stationary object from the sensor signal data output to one or more data processing components of the control system . receiving sensor signal data comprising stationary and non-stationary detections from a surrounding environment of the ego-vehicle; determining at least one group of stationary detections which meet one or more lateral position selection criteria based on the lateral position of each stationary detection from a direction faced by the ego-vehicle; determining at least one group of stationary detections which meet one or more group regularity selection criteria based on the regularity of the differences in position between pairs of sequentially positioned stationary detections in the group in the direction faced by the ego vehicle; determining one or more groups of stationary detections which meet the lateral selection criteria and the group regularity selection criteria for being a group of stationary detections corresponding to at least one stationary object; and characterized by removing the stationary detections meeting both selection criteria and corresponding to at least one pre-determined type of stationary object from the sensor signal data output to one or more data processing components of the control system .
A mixed-halide perovskite of the formula (I) [A][B][X] 3 (I) wherein: [A] is at least one cation, comprising at least one organic cation of the formula (R 5 R 6 N=CH-NR 7 R 8 ) + , wherein: (i) R 5 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; (ii) R 6 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; (iii) R 7 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; and (iv) Rs is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl: [B] is at least one divalent metal cation; and [X] is two or more different halide anions. [A] is at least one cation, comprising at least one organic cation of the formula (R 5 R 6 N=CH-NR 7 R 8 ) + , wherein: (i) R 5 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; (ii) R 6 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; (iii) R 7 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; and (iv) Rs is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl: (i) R 5 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; (ii) R 6 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; (iii) R 7 is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl; and (iv) Rs is hydrogen, unsubstituted or substituted C 1 -C 20 alkyl, or unsubstituted or substituted aryl: [B] is at least one divalent metal cation; and [X] is two or more different halide anions.
Gemcitabine and TPCS 2a and optionally another cytotoxic agent, preferably cisplatin, for use in treating a cholangiocarcinoma in a human patient, wherein i) said TPCS 2a is to be systemically administered to said patient to a dose of 0.05 to 0.5 mg/kg; and ii) after 3-5 days, said gemcitabine is to be systemically administered to said patient to a dose of 500-1500 mg/m 2 and said cholangiocarcinoma is to be irradiated with light with a wavelength of 640-665nm using an optical fiber placed within 3cm of said cholangiocarcinoma to provide a light dose of 10 to 60 J/cm; and optionally iii) after 1-40 days (preferably after 7-21 days) gemcitabine and/or another cytotoxic agent, preferably cisplatin, is to be systemically administered to said patient. i) said TPCS 2a is to be systemically administered to said patient to a dose of 0.05 to 0.5 mg/kg; and ii) after 3-5 days, said gemcitabine is to be systemically administered to said patient to a dose of 500-1500 mg/m 2 and said cholangiocarcinoma is to be irradiated with light with a wavelength of 640-665nm using an optical fiber placed within 3cm of said cholangiocarcinoma to provide a light dose of 10 to 60 J/cm; and optionally iii) after 1-40 days (preferably after 7-21 days) gemcitabine and/or another cytotoxic agent, preferably cisplatin, is to be systemically administered to said patient.
A method for a cyber threat defense system , comprising: comparing input data monitoring a network entity to at least one machine-learning model trained on a normal benign behavior of the network entity using a normal behavior benchmark describing parameters corresponding to a normal pattern of activity for that network entity to spot behavior on the network deviating from a normal benign behavior of that network entity, where the network entity is at least one of a user and a device associated with a network; identifying whether the network entity is in a breach state of the normal behavior benchmark; identifying whether the breach state and a chain of relevant behavioral parameters deviating from the normal benign behavior of that network entity correspond to a cyber threat; and sending an inoculation notice having an inoculation pattern describing the breach state and the chain of relevant behavioral parameters to a target device to warn of a potential cyber threat, where an inoculation module uses a communication module to send the inoculation notice to the target device, on another network protected by an affiliated cyber threat defense system, via at least one output port, where the inoculation module uses incident data describing the breach state by a user or device, acting as the network entity, to warn other computing devices of potential cyber threats, and where the inoculation module anonymizes the inoculation pattern to remove any personally identifiable information for the network entity from the inoculation pattern. comparing input data monitoring a network entity to at least one machine-learning model trained on a normal benign behavior of the network entity using a normal behavior benchmark describing parameters corresponding to a normal pattern of activity for that network entity to spot behavior on the network deviating from a normal benign behavior of that network entity, where the network entity is at least one of a user and a device associated with a network; identifying whether the network entity is in a breach state of the normal behavior benchmark; identifying whether the breach state and a chain of relevant behavioral parameters deviating from the normal benign behavior of that network entity correspond to a cyber threat; and sending an inoculation notice having an inoculation pattern describing the breach state and the chain of relevant behavioral parameters to a target device to warn of a potential cyber threat, where an inoculation module uses a communication module to send the inoculation notice to the target device, on another network protected by an affiliated cyber threat defense system, via at least one output port, where the inoculation module uses incident data describing the breach state by a user or device, acting as the network entity, to warn other computing devices of potential cyber threats, and where the inoculation module anonymizes the inoculation pattern to remove any personally identifiable information for the network entity from the inoculation pattern.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein each of X, Y, and Z is independently hydrogen or deuterium. or a pharmaceutically acceptable salt thereof, wherein each of X, Y, and Z is independently hydrogen or deuterium.