mhurhangee/ep-ind-claims huggingface dataset:
A method for a structure and stratigraphy preserving transformation of a geological model including a mesh of a plurality of cells, the method comprising: sealing a fault in a fault zone surrounding the fault in the geological model by unifying topological elements on opposite sides of the fault; wherein said unifying comprises the steps of: i) emptying the fault zone of cells interior to a boundary of the fault zone and ii) remeshing the fault zone surrounding the fault with new cells interior to the boundary; unsealing the fault by partitioning the mesh along the fault into one or more fault blocks (308, 309) and duplicating the topological elements on opposite sides of the fault; remeshing one or more cells adjacent to the unsealed fault so as to remove sliver cells in the one or more of fault blocks (308, 309); updating the geological model by remapping the one or more of fault blocks into the geological model; and storing the updated geological model wherein the fault comprises a dying fault of which at least one end of the fault does not extend to a boundary of the mesh or a sub-mesh, and wherein remeshing the one or more cells adjacent to the unsealed fault comprises opening the partitioned mesh along a continuous surface traversing opposite sides of the dying fault, simultaneously reshaping the one or more cells along both sides of the continuous surface dependently, and closing the partitioned mesh along the continuous surface. sealing a fault in a fault zone surrounding the fault in the geological model by unifying topological elements on opposite sides of the fault; wherein said unifying comprises the steps of: i) emptying the fault zone of cells interior to a boundary of the fault zone and ii) remeshing the fault zone surrounding the fault with new cells interior to the boundary; i) emptying the fault zone of cells interior to a boundary of the fault zone and ii) remeshing the fault zone surrounding the fault with new cells interior to the boundary; unsealing the fault by partitioning the mesh along the fault into one or more fault blocks (308, 309) and duplicating the topological elements on opposite sides of the fault; remeshing one or more cells adjacent to the unsealed fault so as to remove sliver cells in the one or more of fault blocks (308, 309); updating the geological model by remapping the one or more of fault blocks into the geological model; and storing the updated geological model
A method for forming a polymer thin film on a substrate, comprising the following subsequent steps: - providing a mixture comprising at least one polymer forming material; - applying a sequence of atmospheric plasma pulses to the mixture in order to form a polymer thin film on a surface portion of a substrate, which is contacted by said mixture, wherein each plasma pulse presents a duration t ON, comprised between one nanosecond and one microsecond, during which the plasma is discharged, and a duration t OFF, comprised between one microsecond and one second, during which the plasma is not discharged, and wherein the duty-cycle of a plasma pulse t ON /(t ON +t OFF) is lower than 1%. - providing a mixture comprising at least one polymer forming material; - applying a sequence of atmospheric plasma pulses to the mixture in order to form a polymer thin film on a surface portion of a substrate, which is contacted by said mixture, wherein each plasma pulse presents a duration t ON, comprised between one nanosecond and one microsecond, during which the plasma is discharged, and a duration t OFF, comprised between one microsecond and one second, during which the plasma is not discharged, and wherein the duty-cycle of a plasma pulse t ON /(t ON +t OFF) is lower than 1%.
A method of separating a mixture of a plurality of molecular analytes having different isoelectric points (pIs), comprising: placing a solution containing a mixture of a plurality of molecular analytes in a separation volume; generating a pH profile having a plurality of pH zones along an axis of said separation volume; trapping said plurality of molecular analytes in between at least two adjacent pH step zones of said pH profile in said separation volume containing said solution, each said pH step zone having a different substantially uniform pH; and injecting ions in a controlled manner along said axis of said separation volume to gradually change a pH in at least one of said two pH step zones so as to induce a sequential migration of said plurality of trapped molecular analytes in a plurality of separate groups of molecular analytes, each group having a different pI, separately along said axis. placing a solution containing a mixture of a plurality of molecular analytes in a separation volume; generating a pH profile having a plurality of pH zones along an axis of said separation volume; trapping said plurality of molecular analytes in between at least two adjacent pH step zones of said pH profile in said separation volume containing said solution, each said pH step zone having a different substantially uniform pH; and injecting ions in a controlled manner along said axis of said separation volume to gradually change a pH in at least one of said two pH step zones so as to induce a sequential migration of said plurality of trapped molecular analytes in a plurality of separate groups of molecular analytes, each group having a different pI, separately along said axis.
Vehicle seating system, in particular for aircraft, with seat components such as a backrest and a seat part, which is delimited at least on one side by a console forming an armrest, an arm-like operating part being implemented as a rigid bracket and extending in such a way that it at least partially projects above the plane of the head of a seat user and comprising functional elements which at least partially serve for increased comfort and/or are, in a context of operation, in particular flight operation, suitable therefor, characterised in that the arm-like operating part forms an extension of the console and extends forward, proceeding from the region of the backrest, above the console in a prolongation of said console.
A cartridge detachably attachable to an apparatus body of an image forming apparatus, the cartridge comprising: a toner cartridge that accommodates toner; a process cartridge that has an attachment portion to which the toner cartridge is detachably attached; a restriction member provided on the toner cartridge, the restriction member being movable between (i) a restriction position at which relative movement between the toner cartridge attached to the attachment portion of the process cartridge and the process cartridge is restricted by an engagement of the restriction member and the process cartridge, and (ii) a non-restriction position at which the relative movement is not restricted; and a driving transmission unit for transmitting a driving force from the apparatus body to the toner cartridge by engaging with the apparatus body, wherein the restriction member has a driving force reception portion that is capable of receiving the driving force from the driving transmission unit by engaging with the driving transmission unit, and wherein the restriction member moves from the restriction position to the non-restriction position when the driving force reception portion receives the driving force from the driving transmission unit. a toner cartridge that accommodates toner; a process cartridge that has an attachment portion to which the toner cartridge is detachably attached; a restriction member provided on the toner cartridge, the restriction member being movable between (i) a restriction position at which relative movement between the toner cartridge attached to the attachment portion of the process cartridge and the process cartridge is restricted by an engagement of the restriction member and the process cartridge, and (ii) a non-restriction position at which the relative movement is not restricted; and a driving transmission unit for transmitting a driving force from the apparatus body to the toner cartridge by engaging with the apparatus body, wherein the restriction member has a driving force reception portion that is capable of receiving the driving force from the driving transmission unit by engaging with the driving transmission unit, and wherein the restriction member moves from the restriction position to the non-restriction position when the driving force reception portion receives the driving force from the driving transmission unit.
A method of preparing a polypyrrole polymer, comprising: mixing pyrrole with a solution comprising at least one ketone or aldehyde compound to form an intermediate product; and mixing the intermediate product with at least one oxidizing reagent to form the polypyrrole polymer. mixing pyrrole with a solution comprising at least one ketone or aldehyde compound to form an intermediate product; and mixing the intermediate product with at least one oxidizing reagent to form the polypyrrole polymer.
An evaluation method for an oxide semiconductor thin film including; a first step comprising; irradiating both excitation light and microwave radiation to a specimen on which an oxide semiconductor thin film is formed, measuring the maximum intensity of reflected wave of the microwave radiation, which varies with the irradiation of the excitation light, from the oxide semiconductor thin film, then stopping the irradiation of the excitation light, and thereafter measuring a variation in the reflectance with time of the microwave radiation reflected by the oxide semiconductor thin film after the stopping, and a second step comprising; calculating, from the variation in the reflectance, a parameter that corresponds to slow attenuation observed about 1 μs after the stopping, and evaluating the stress stability of the oxide semiconductor thin film.
A method of preparing a sequencing library, comprising: (a) providing a first transposome, the first transposome comprising a first transposon and a first transposase enzyme having a first tagmentation profile; (b) combining a target nucleic acid with the first transposase enzyme under conditions suitable for tagmentation, thereby generating a first tagmented nucleic acid; (c) substantially separating the first tagmented nucleic acid from reaction buffer used in step (b); (d) combining the first tagmented nucleic acid with a second transposome under conditions suitable for tagmentation, the second transposome comprising a second transposon and a second transposase enzyme having a second tagmentation profile, thereby generating a second tagmented nucleic acid; (e) amplifying the second tagmented nucleic acid, thereby generating a sequencing library. (a) providing a first transposome, the first transposome comprising a first transposon and a first transposase enzyme having a first tagmentation profile; (b) combining a target nucleic acid with the first transposase enzyme under conditions suitable for tagmentation, thereby generating a first tagmented nucleic acid; (c) substantially separating the first tagmented nucleic acid from reaction buffer used in step (b); (d) combining the first tagmented nucleic acid with a second transposome under conditions suitable for tagmentation, the second transposome comprising a second transposon and a second transposase enzyme having a second tagmentation profile, thereby generating a second tagmented nucleic acid; (e) amplifying the second tagmented nucleic acid, thereby generating a sequencing library.
A method for wireless communication, comprising: identifying a plurality of shortened transmission time intervals, TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640), to be used for priority communications to or from a vehicle having a first traffic priority level, the plurality of shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) each having a duration that is less than that of other TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) used in other communications to or from the vehicle having a second traffic priority level which is less than the first traffic priority level; performing a listen-before-talk, LBT, procedure in order to reserve the plurality of shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) for the priority communications; characterized by: further reserving, via performing a request-to-send/clear-to-send, RTS/CTS, exchange, at least one instance of the plurality of shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) for the priority communications with one or more UEs, wherein the RTS/CTS exchange is performed for only a portion of the plurality of shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640), wherein shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) other than the portion are available for other communications having the second traffic priority level. identifying a plurality of shortened transmission time intervals, TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640), to be used for priority communications to or from a vehicle having a first traffic priority level, the plurality of shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) each having a duration that is less than that of other TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) used in other communications to or from the vehicle having a second traffic priority level which is less than the first traffic priority level; performing a listen-before-talk, LBT, procedure in order to reserve the plurality of shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) for the priority communications; characterized by: further reserving, via performing a request-to-send/clear-to-send, RTS/CTS, exchange, at least one instance of the plurality of shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) for the priority communications with one or more UEs, wherein the RTS/CTS exchange is performed for only a portion of the plurality of shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640), wherein shortened TTIs (205, 230, 235, 305, 310, 615, 620, 635, 640) other than the portion are available for other communications having the second traffic priority level.
An electronic device comprising: a housing; a first camera positioned at a first portion of the housing; a second camera positioned at a second portion of the housing; a processor electrically coupled to the first camera and the second camera; and a memory storing instructions that, when executed, cause the processor to: determine, when the first camera and the second camera are operated, whether an illuminance value received by the second camera is less than an illuminance value threshold, and execute a shutter function associated with the first camera to photograph a picture or record a video, when the illuminance value is less than the illuminance value threshold. a housing; a first camera positioned at a first portion of the housing; a second camera positioned at a second portion of the housing; a processor electrically coupled to the first camera and the second camera; and a memory storing instructions that, when executed, cause the processor to: determine, when the first camera and the second camera are operated, whether an illuminance value received by the second camera is less than an illuminance value threshold, and execute a shutter function associated with the first camera to photograph a picture or record a video, when the illuminance value is less than the illuminance value threshold.
An apparatus for driving a motor driven power steering (MDPS) device, comprising: a first calculation unit configured to calculate a damping force gain based on an MDPS output current; a second calculation unit configured to calculate a damping force using vehicle speed and steering angle speed; and a damping force calculation unit configured to calculate a final damping force using the damping force gain calculated through the first calculation unit and the damping force calculated through the second calculation unit, wherein the first calculation unit is configured to calculate the damping force gain using the MDPS output current and a fed-back previous final damping force, and the damping force calculation unit is configured to calculate the final damping force using the damping force gain calculated through the first calculation unit and a limited value based on the damping force calculated through the second calculation unit. a first calculation unit configured to calculate a damping force gain based on an MDPS output current; a second calculation unit configured to calculate a damping force using vehicle speed and steering angle speed; and a damping force calculation unit configured to calculate a final damping force using the damping force gain calculated through the first calculation unit and the damping force calculated through the second calculation unit, wherein the first calculation unit is configured to calculate the damping force gain using the MDPS output current and a fed-back previous final damping force, and the damping force calculation unit is configured to calculate the final damping force using the damping force gain calculated through the first calculation unit and a limited value based on the damping force calculated through the second calculation unit.
Mechanical device for synchronizing the closure of a double leaf (L1, L2) swing door comprising at least one first component, which can be rotated or moved between a first opening position and a second closing position, arranged to be rendered integral in movement or rotation or kinematically connected with a first leaf or male leaf of a door, at least one second component, which can be rotated or moved between a third opening position and a fourth closing position arranged to be rendered integral in movement or rotation or kinematically connected with a second leaf or female leaf of a door, said device further comprises locking or stop means, operatively associated with said second component, arranged to prevent rotation or displacement of said first component until said second position if said at least one second component has not reached said fourth position or a determined intermediate position between said third and said fourth position, wherein said locking or stop means comprises at least one abutment or interference component movable between at least one hindrance operative position hindering the advancement of said first component towards said second closing position, wherein said abutment or interference component is arranged to interfere with the rotation or displacement towards said second position of said first component, and consequently with the closing or advancement of a respective first leaf or male leaf, and at least one enabling operative position, wherein said abutment or interference component does not interfere with or does not block or does not stop the rotation or displacement of said first component towards said second position, and consequently, in use, the closure of a first leaf or male leaf, wherein said first component comprises or defines at least one abutment portion configured to impact said abutment or interference component, if the latter is in said hindrance operative position, thereby blocking the rotation or displacement of said first component, and consequently the closing or advancement of a corresponding first leaf or male leaf, characterised in that said abutment portion comprises at least one projecting section (3a1) and at least one hollow section (3a2), which delimit an engagement seat for said abutment or interference component, when the latter is in said hindrance operative position.
A vehicle control system (300, 350) for controlling a vehicle, comprising: a servo-assisted control unit; a mechanical linkage that is coupled to the servo-assisted control unit; an inceptor adapted for controlling the servo-assisted control unit via the mechanical linkage; a first force generating device that is mechanically connected to the inceptor and provided for generating a first force that acts in operation on the inceptor; a second force generating device (360, 365) that is mechanically connected to the inceptor in parallel to the first force generating device and provided for generating a second force that acts in operation on the inceptor; a hands-on/off detection management unit that is connected to the inceptor, configurable to operate in manned operation mode or in unmanned operation mode, and generates a control signal based on detecting a manual or automatic operation of the vehicle; and a decoupling device that is operable on the basis of the control signal and coupled between the second force generating device (360, 365) and the inceptor, wherein the decoupling device mechanically decouples the second force generating device (360, 365) from the inceptor. a servo-assisted control unit; a mechanical linkage that is coupled to the servo-assisted control unit; an inceptor adapted for controlling the servo-assisted control unit via the mechanical linkage; a first force generating device that is mechanically connected to the inceptor and provided for generating a first force that acts in operation on the inceptor; a second force generating device (360, 365) that is mechanically connected to the inceptor in parallel to the first force generating device and provided for generating a second force that acts in operation on the inceptor; a hands-on/off detection management unit that is connected to the inceptor, configurable to operate in manned operation mode or in unmanned operation mode, and generates a control signal based on detecting a manual or automatic operation of the vehicle; and a decoupling device that is operable on the basis of the control signal and coupled between the second force generating device (360, 365) and the inceptor, wherein the decoupling device mechanically decouples the second force generating device (360, 365) from the inceptor.