mhurhangee/ep-ind-claims huggingface dataset:
A method for repairing a gas turbine engine component, the method comprising: identifying a distorted feature of the component, wherein the distorted feature is located in a first portion of the component; identifying a second portion of the component that behaves as at least one of a heat sink or a stiffener; removing the second portion of the component from the first portion; and characterised by cold working the first portion of the component to repair the distorted feature; heat treating the first portion of the component with the second portion removed; and metallurgically joining the first portion of the component to the second portion of the component. identifying a distorted feature of the component, wherein the distorted feature is located in a first portion of the component; identifying a second portion of the component that behaves as at least one of a heat sink or a stiffener; removing the second portion of the component from the first portion; and characterised by cold working the first portion of the component to repair the distorted feature; heat treating the first portion of the component with the second portion removed; and metallurgically joining the first portion of the component to the second portion of the component.
A method for securing information in a mobile terminal, comprising: receiving information related to an application; receiving a request for executing a command issued by the application; determining whether the requested command or the application is authorized to access a system resource of a mobile terminal; blocking execution of the command in response to a determination that the execution of the command is unauthorized or issued by an unauthorized application; and executing the command in response to a determination that the execution of the command is authorized or issued by an authorized application; characterized in that said determining whether the requested command or the application is authorized comprises: determining whether the command or the application is on a foreground of a display of the mobile terminal; and blocking the execution of the requested command or the application in response to the command being determined not to be on the foreground of the display of the mobile terminal. receiving information related to an application; receiving a request for executing a command issued by the application; determining whether the requested command or the application is authorized to access a system resource of a mobile terminal; blocking execution of the command in response to a determination that the execution of the command is unauthorized or issued by an unauthorized application; and executing the command in response to a determination that the execution of the command is authorized or issued by an authorized application; determining whether the command or the application is on a foreground of a display of the mobile terminal; and blocking the execution of the requested command or the application in response to the command being determined not to be on the foreground of the display of the mobile terminal.
A control device comprising: a road surface brightness detection section that is configured to receive data obtained by capturing an area ahead of a vehicle to detect a brightness of a road surface for the area on the basis of the data, wherein at least one partition line (Lm) on the road surface is detected and the area is determined at least on the basis of the partition line (Lm), and is further configured to calculate the brigthness of the road surface for the area and the brightness of the partition lines (Lm); a road surface state detection section that is configured to detect a state of the road surface on the basis of evaluating the data with respect to road surface brightness and brightness contrast between the partition lines (Lm) and the area; a brightness range setting section that is configured to set a target brightness range in accordance with the state of the road surface; and a radiation light amount control section that is configured to output a control signal for adjusting a radiation light amount of a vehicular lamp such that the brightness of the road surface falls within the predetermined target brightness range, including a road surface brightness maintenance function for maintaining the brightness of the road surface within said predetermined range to reduce variations in adpatation brightness of the eyes of the driver. a road surface brightness detection section that is configured to receive data obtained by capturing an area ahead of a vehicle to detect a brightness of a road surface for the area on the basis of the data, wherein at least one partition line (Lm) on the road surface is detected and the area is determined at least on the basis of the partition line (Lm), and is further configured to calculate the brigthness of the road surface for the area and the brightness of the partition lines (Lm); a road surface state detection section that is configured to detect a state of the road surface on the basis of evaluating the data with respect to road surface brightness and brightness contrast between the partition lines (Lm) and the area; a brightness range setting section that is configured to set a target brightness range in accordance with the state of the road surface; and a radiation light amount control section that is configured to output a control signal for adjusting a radiation light amount of a vehicular lamp such that the brightness of the road surface falls within the predetermined target brightness range, including a road surface brightness maintenance function for maintaining the brightness of the road surface within said predetermined range to reduce variations in adpatation brightness of the eyes of the driver.
A motor comprising: a rotor including: a core; and a rotary shaft fixed to the core and penetrating an axial center of the core; a bearing including: an inner ring having an upper end surface in a direction toward a location of the core; an outer ring; and balls between the inner ring and the outer ring; a pressurizing spring, inserted onto the rotary shaft and located between the core and the bearing, for applying a bias force in an axial direction of the rotary shaft; and a yoke including a bearing holding part to hold the bearing, and rotatably holding the rotor via the bearing, wherein the outer ring is pressed to fit into the bearing holding part; the inner ring is fitted onto the rotary shaft with a gap therebetween, the upper end surface of the inner ring being in contact with the pressurizing spring; characterised in that the pressurizing spring applies the bias forces (Fb, Fc) of different strengths onto a contact surface of the upper end surface being in contact with the pressurizing spring, along a circumferential direction with the axial direction as a center. a rotor including: a core; and a rotary shaft fixed to the core and penetrating an axial center of the core; a core; and a rotary shaft fixed to the core and penetrating an axial center of the core; a bearing including: an inner ring having an upper end surface in a direction toward a location of the core; an outer ring; and balls between the inner ring and the outer ring; an inner ring having an upper end surface in a direction toward a location of the core; an outer ring; and balls between the inner ring and the outer ring; a pressurizing spring, inserted onto the rotary shaft and located between the core and the bearing, for applying a bias force in an axial direction of the rotary shaft; and a yoke including a bearing holding part to hold the bearing, and rotatably holding the rotor via the bearing, wherein the outer ring is pressed to fit into the bearing holding part; the inner ring is fitted onto the rotary shaft with a gap therebetween, the upper end surface of the inner ring being in contact with the pressurizing spring; characterised in that the pressurizing spring applies the bias forces (Fb, Fc) of different strengths onto a contact surface of the upper end surface being in contact with the pressurizing spring, along a circumferential direction with the axial direction as a center.
A method of growing at least three plants simultaneously in mineral wool growth substrate, the method comprising positioning the plants for growth in mineral wool growth substrate so that the roots of each plant are positioned in a growth region, and irrigating the plants with irrigation water over a period of at least three days, wherein the growth substrate comprises binder and wetting agent; characterised in that during the irrigation period at least one water content parameter as measured in the growth regions surrounding the plant roots varies over the set of all growth regions by not more than 45%, and the wetting agent comprises ionic surfactant.
A device for managing transmission of data words between a data source entity and a data destination entity, the device comprising: ▪ a write interface for receiving data words from the data source entity; ▪ a read interface for forwarding data words to the data destination entity; ▪ a buffer memory adapted for temporarily storing data words to be transmitted from the write interface to the read interface, characterised in that the data words are stored in an order in which they are received from the write interface; wherein data words in the buffer memory are addressable for reading at least a part of an addressed data word for making a decision to process the addressed data word, in such a way that this data word remains stored in the buffer memory after reading. ▪ a write interface for receiving data words from the data source entity; ▪ a read interface for forwarding data words to the data destination entity; ▪ a buffer memory adapted for temporarily storing data words to be transmitted from the write interface to the read interface, characterised in that the data words are stored in an order in which they are received from the write interface;
Process for drying a natural rubber, which comprises the following steps: a) providing a wet natural rubber coagulum, b) compressing the coagulum at a temperature ranging from 185°C to 210°C, c) subjecting the compressed coagulum to a flash adiabatic expansion at a differential pressure of at least 100 bar, d) where appropriate, subjecting the coagulum resulting from step c) to convective drying or to one or more repetitions of the sequence of steps b) and c). a) providing a wet natural rubber coagulum, b) compressing the coagulum at a temperature ranging from 185°C to 210°C, c) subjecting the compressed coagulum to a flash adiabatic expansion at a differential pressure of at least 100 bar, d) where appropriate, subjecting the coagulum resulting from step c) to convective drying or to one or more repetitions of the sequence of steps b) and c).
A control device for controlling a robot, the robot including a movable unit (120, 130) and a force detecting unit for detecting a force applied to the movable unit (120, 130), the control device comprising a controller for selectively controlling the movable unit (120, 130) in a first control mode in which the movable unit (120, 130) continuously moves according to a force detected by the force detecting unit based on predetermined force control parameter or in a second control mode in which the movable unit (120, 130) moves by a predetermined movement amount (ΔL) according to the force detected by the force detecting unit, in teaching of the robot, characterized in that the controller is configured to select the first control mode or the second control mode according to a temporal change in the force detected by the force detecting unit, wherein the temporal change in force relates to a length of a time during which a magnitude of the force detected by the force detection unit is equal to or more than a force threshold (Fth), and the controller is configured so that in the second control mode, the controller moves the movable unit (120, 130) by a first movement amount (ΔL1) when the magnitude of the force is equal to or more than a first value of the force threshold (Fth) and is less than a second value of the force threshold (Fth), which is larger than the first value, and moves the movable unit (120, 130) by a second movement amount (ΔL2) larger than the first movement amount (ΔL1) when the magnitude of the force is equal to or more than the second value of the force threshold (Fth). the control device comprising a controller for selectively controlling the movable unit (120, 130) in a first control mode in which the movable unit (120, 130) continuously moves according to a force detected by the force detecting unit based on predetermined force control parameter or in a second control mode in which the movable unit (120, 130) moves by a predetermined movement amount (ΔL) according to the force detected by the force detecting unit, in teaching of the robot, characterized in that the controller is configured to select the first control mode or the second control mode according to a temporal change in the force detected by the force detecting unit, wherein the temporal change in force relates to a length of a time during which a magnitude of the force detected by the force detection unit is equal to or more than a force threshold (Fth), and the controller is configured so that in the second control mode, the controller moves the movable unit (120, 130) by a first movement amount (ΔL1) when the magnitude of the force is equal to or more than a first value of the force threshold (Fth) and is less than a second value of the force threshold (Fth), which is larger than the first value, and moves the movable unit (120, 130) by a second movement amount (ΔL2) larger than the first movement amount (ΔL1) when the magnitude of the force is equal to or more than the second value of the force threshold (Fth).
A multifunctional anti-theft device which is stationary or battery-operated, watertight or water-proofed equipped with a microprocessor/chip, can be flexibly attached to or integrated into one or more mobile or movable goods and objects, consisting of two parts (12, 16) and designed in such a way, in that, when the object or the movable goods and thus the first part of the anti-theft device is moved, triggers an alarm and can be sent to a second part which is separate and independent from the first part and is able to receive a signal from the first part, characterized in that the first part of the anti-theft device is equipped with a sensor with which the exact movement of the first part is recorded, wherein certain, predetermined or individual movements of at least the first part can be used for selecting alarm settings, for menu guidance or alarm control of the first and second part of the multifunctional anti-theft device, in order to trigger selectively, single or combined distance -, space - and/or movement-alarm (action).
Use of a metal-hydride metal composite in a neutron shield: the metal-hydride metal composite comprising: a metal matrix; and a plurality of metal-hydride particles dispersed within the metal matrix; wherein, a fraction of metal-hydride in the metal-hydride metal composite is at least 1 mol % and a volume fraction of metal-hydride in the metal-hydride metal composite, at temperatures below the dissolution temperature of the metal-hydride particles, is no higher than a ratio of a solid solubility limit of hydrogen in the metal matrix and a molar fraction of hydrogen in the metal-hydride, said solid solubility limit being defined at 1273K and 500MPa, whereby, in the event of dissolution, hydrogen released by the metal-hydride particles is dissolved into solid solution of the metal matrix. a metal matrix; and a plurality of metal-hydride particles dispersed within the metal matrix; wherein, a fraction of metal-hydride in the metal-hydride metal composite is at least 1 mol % and a volume fraction of metal-hydride in the metal-hydride metal composite, at temperatures below the dissolution temperature of the metal-hydride particles, is no higher than a ratio of a solid solubility limit of hydrogen in the metal matrix and a molar fraction of hydrogen in the metal-hydride, said solid solubility limit being defined at 1273K and 500MPa, whereby, in the event of dissolution, hydrogen released by the metal-hydride particles is dissolved into solid solution of the metal matrix.
A combination of at least one type of a CIP2A silencing agent selected from the group consisting of an siRNA molecule, DsiRNA molecule, artificial miRNA precursor, shRNA molecule, antisense oligonucleotide, and ribozyme; and at least one type of a compound selected from the group consisting of PKC-412, PARP inhibitor III, indol-3-carbinol, cisplatin, rapamycin, TGX-221, NU-7441, S31-201, and gemcitabine, for use as a medicament in the treatment of a hyperproliferative disorder comprising cells with impaired p53 function.
A method for verifying an authenticity of a fluid, comprising: receiving a first series of images of a first fluid, the first fluid comprising a first set of microbeads; determining a first set of fluid characteristics (400, 500, 600, 700) of the first fluid from the first series of images; receiving a second series of images of a second fluid, the second fluid comprising a second set of microbeads; determining a second set of fluid characteristics (400, 500, 600, 700) of the second fluid from the second series of images, wherein the first set of fluid characteristics includes color space characteristics of the first fluid and the second set of fluid characteristics of the second fluid includes color space characteristics of the second fluid; determining that a match is found between the first set of fluid characteristics and the second set of fluid characteristics; and identifying the second fluid based upon determining that the first set of fluid characteristics matches the second set of fluid characteristics, wherein the first set of fluid characteristics of the first fluid further includes a viscosity of the first fluid and the second set of fluid characteristics of the second fluid further includes a viscosity of the second fluid; and wherein determining the viscosity of the first fluid based upon a Brownian motion pattern of the first set of microbeads detected from the first series of images; and determining the viscosity of the second fluid based upon a Brownian motion pattern of the second set of microbeads detected from the second series of images. receiving a first series of images of a first fluid, the first fluid comprising a first set of microbeads; determining a first set of fluid characteristics (400, 500, 600, 700) of the first fluid from the first series of images; receiving a second series of images of a second fluid, the second fluid comprising a second set of microbeads; determining a second set of fluid characteristics (400, 500, 600, 700) of the second fluid from the second series of images, wherein the first set of fluid characteristics includes color space characteristics of the first fluid and the second set of fluid characteristics of the second fluid includes color space characteristics of the second fluid; determining that a match is found between the first set of fluid characteristics and the second set of fluid characteristics; and identifying the second fluid based upon determining that the first set of fluid characteristics matches the second set of fluid characteristics, wherein the first set of fluid characteristics of the first fluid further includes a viscosity of the first fluid and the second set of fluid characteristics of the second fluid further includes a viscosity of the second fluid; and wherein determining the viscosity of the first fluid based upon a Brownian motion pattern of the first set of microbeads detected from the first series of images; and determining the viscosity of the second fluid based upon a Brownian motion pattern of the second set of microbeads detected from the second series of images.
A vibration isolator, comprising a base on which a load to be isolated is anti-vibration mounted by means of a coil spring that is effective in a vertical direction, the vibration isolator being adjustable in height by an adjusting element; characterized in that, in a horizontal direction the coil spring is rigidly connected to the base or to the load to be isolated, and in that the vibration isolator comprises a further component for providing horizontal vibration isolation through which the coil spring is coupled with the base or the load to be isolated.
A supply system for an inkjet printer for ceramic substrates comprising at least two print heads, each of which is provided with at least one respective ejection nozzle; the supply system comprises a supply element, which is adapted to contain ink and to which the ejection nozzles are fluidically connected; a plurality of first connection ducts, each of which is arranged between the supply element and one of said nozzles; a collection manifold, which is fluidically connected to said nozzles; a plurality of second connection ducts, each of which is arranged between one of said nozzles and the collection manifold; and a suction assembly for reducing the pressure inside the supply element; the collection manifold having a first and a second end (10, 11), which are fluidically connected to respective different positions of the supply element; the supply system comprising, furthermore, a conveying device (in particular, a pump), which is adapted to convey the ink from the second end through the supply element; also a third connection duct to fluidically connect the first end and the supply element; and also a fourth connection duct to connect the second end and the supply element.
A method of data transmission between Bluetooth True Wireless Stereo devices, comprising: establishing a real connection between a first device and a Bluetooth device; and establishing a virtual connection between a second device and the Bluetooth device (S101; S201); switching the first device to a state of receiving a first auxiliary frame, after the first device and the second device receiving a data package from the Bluetooth device at an N-th Bluetooth link time slot (S102; S202); and characterized by transmitting a second auxiliary frame to the second device from the first device at an (N+1)-th Bluetooth link time slot (S103; S204). establishing a real connection between a first device and a Bluetooth device; and establishing a virtual connection between a second device and the Bluetooth device (S101; S201); switching the first device to a state of receiving a first auxiliary frame, after the first device and the second device receiving a data package from the Bluetooth device at an N-th Bluetooth link time slot (S102; S202); and characterized by transmitting a second auxiliary frame to the second device from the first device at an (N+1)-th Bluetooth link time slot (S103; S204).