mhurhangee/ep-ind-claims huggingface dataset:
A rotor blade with a leading edge and a trailing edge, wherein - the rotor blade is designed and configured for being exposed to a fluid flowing substantially from the leading edge to the trailing edge, - the rotor blade comprises at least three sensors designed for detecting flow characteristics of the fluid and providing respective sensor signals, wherein the sensors are arranged in a line with a non-uniform spacing to adjacent sensors, and - the rotor blade further comprises at least one actuator for producing an anti-noise signal based on a sensor signal, - the sensors and the actuator are arranged at the surface of the rotor blade, and - the actuator is arranged and prepared such that flow-induced edge noise of the rotor blade, which is generated by the fluid, is at least partly cancelled out by the anti-noise signal. - the rotor blade is designed and configured for being exposed to a fluid flowing substantially from the leading edge to the trailing edge, - the rotor blade comprises at least three sensors designed for detecting flow characteristics of the fluid and providing respective sensor signals, wherein the sensors are arranged in a line with a non-uniform spacing to adjacent sensors, and - the rotor blade further comprises at least one actuator for producing an anti-noise signal based on a sensor signal, - the sensors and the actuator are arranged at the surface of the rotor blade, and - the actuator is arranged and prepared such that flow-induced edge noise of the rotor blade, which is generated by the fluid, is at least partly cancelled out by the anti-noise signal.
A computer implemented method for managing resources in a partitioned computing system based on resource usage volatility, wherein the partitioned computing system is a logical partitioned system or a virtual machine under a hypervisor or an emulator and includes one or more partitions (416A-416D), comprising: computing a volatility of resource usage (204, 208, 212; 308) for each partition (416A-416D) based on computed, at predetermined time periods (X, X+Δ, X+2Δ,...), resource usage gains/losses (206, 210, 214) associated with each partition (416A-416D); determining a current resource usage (204, 208, 212; 308) of each partition (416A-416D); determining a risk of resource saturation by comparing the computed volatility of resource usage with the determined current resource usage (204, 208, 212; 308) of each partition (416A-416D); and managing resources in the partitioned computing system using the determined risk of resource saturation associated with each partition (416A-416D) by selecting a partition for moving in new resources, moving out resources or sharing resources in the partitioned computing system. computing a volatility of resource usage (204, 208, 212; 308) for each partition (416A-416D) based on computed, at predetermined time periods (X, X+Δ, X+2Δ,...), resource usage gains/losses (206, 210, 214) associated with each partition (416A-416D); determining a current resource usage (204, 208, 212; 308) of each partition (416A-416D); determining a risk of resource saturation by comparing the computed volatility of resource usage with the determined current resource usage (204, 208, 212; 308) of each partition (416A-416D); and managing resources in the partitioned computing system using the determined risk of resource saturation associated with each partition (416A-416D) by selecting a partition for moving in new resources, moving out resources or sharing resources in the partitioned computing system.
A large animal collision vehicle safety apparatus, comprising: - at least one sensor for detecting values of a first acceleration (A X) in a longitudinal direction of a host vehicle and means for generating a first determination signal (D 1) from the detected acceleration (A X) values in a longitudinal direction of the host vehicle; - at least one further sensor for detecting values of a second acceleration (A Z) in a vertical direction and means for generating a second determination signal (D 2) from the detected acceleration (A Z) values in a vertical direction, and/or at least one still further sensor for detecting values of an angular velocity about an axis extending in a lateral direction of the host vehicle and means for generating a third determination signal (D 3) from the detected angular velocity values about an axis extending in a lateral direction of the host vehicle; characterized in that the apparatus further comprises: - means for judging whether the vehicle has suffered a large animal collision through at least comparing the generated determination signals (D 1, D 2, D 3) with preset reference signals (D REF) based on specific combinations of values indicative of a large animal collision obtained through simulations and/or full scale trials performed for the specific host vehicle model; - means for triggering braking intervention of the host vehicle when the vehicle is judged to have suffered a large animal collision, wherein the means (13, 14, 15) for generating the first, second and third determination signals (D 1, D 2, D 3) are arranged to generate these as first and second velocity signals and an angle signal through integrating the first and second accelerations (A X, A Z) and the angular velocity signal with respect to time. - at least one sensor for detecting values of a first acceleration (A X) in a longitudinal direction of a host vehicle and means for generating a first determination signal (D 1) from the detected acceleration (A X) values in a longitudinal direction of the host vehicle; - at least one further sensor for detecting values of a second acceleration (A Z) in a vertical direction and means for generating a second determination signal (D 2) from the detected acceleration (A Z) values in a vertical direction, and/or at least one still further sensor for detecting values of an angular velocity about an axis extending in a lateral direction of the host vehicle and means for generating a third determination signal (D 3) from the detected angular velocity values about an axis extending in a lateral direction of the host vehicle; - means for judging whether the vehicle has suffered a large animal collision through at least comparing the generated determination signals (D 1, D 2, D 3) with preset reference signals (D REF) based on specific combinations of values indicative of a large animal collision obtained through simulations and/or full scale trials performed for the specific host vehicle model; - means for triggering braking intervention of the host vehicle when the vehicle is judged to have suffered a large animal collision,
Transport container for bottles, jars or the like, comprising a bottom from which corner columns extend which are interconnected by side walls (3, 4) forming end faces and longitudinal sides, and which is provided with a placement rim, a compartment being provided on the bottom, wherein the bottom is arranged at a distance from the placement rim, characterized in that two ribs extending diagonally along the bottom are provided on the underside of the bottom, the height of which ribs corresponds substantially to the distance of the bottom from the placement rim and which ribs cross in the middle of the bottom.
Method of manufacturing a layered stack from a p + substrate, a p - layer, an n - layer and a third layer, wherein - the p + substrate has a doping substance concentration of 5∗10 18 - 5∗10 20 cm -3 and a layer thickness of 50 - 900 μm and comprises a GaAs compound or consists of a GaAs compound, - the p - layer has a doping substance concentration of 10 14 - 10 16 cm -3 and a layer thickness of 0.01 -1 μm and comprises a GaAs compound or consists of a GaAs compound, - the n- layer has a doping substance concentration of 10 14 - 10 16 cm -3, and a layer thickness of 10 - 200 μm and comprises a GaAs compound or consists of a GaAs compound, - a first part stack and a second part stack are produced and an upper side of the first part stack is connected by material couple with an upper side of the second part stack by wafer bonding so as to produce the layered stack, - the first part stack comprises at least the p + substrate, - the second part stack comprises at least the n - layer, - the p - layer is produced by epitaxy or implantation on an upper side of the p + substrate or by epitaxy on the n - layer and the p - layer forms the upper side of the first part stack or of the second part stack, - the third layer is produced before or after the wafer bonding and - in a first alternative the n - layer is produced, after the wafer bonding, by grinding off a n - substrate at least partly forming the second part stack or in a second alternative, the n - layer is formed, before the wafer bonding, on an n + substrate. - the p + substrate has a doping substance concentration of 5∗10 18 - 5∗10 20 cm -3 and a layer thickness of 50 - 900 μm and comprises a GaAs compound or consists of a GaAs compound, - the p - layer has a doping substance concentration of 10 14 - 10 16 cm -3 and a layer thickness of 0.01 -1 μm and comprises a GaAs compound or consists of a GaAs compound, - the n- layer has a doping substance concentration of 10 14 - 10 16 cm -3, and a layer thickness of 10 - 200 μm and comprises a GaAs compound or consists of a GaAs compound, - a first part stack and a second part stack are produced and an upper side of the first part stack is connected by material couple with an upper side of the second part stack by wafer bonding so as to produce the layered stack, - the first part stack comprises at least the p + substrate, - the second part stack comprises at least the n - layer, - the p - layer is produced by epitaxy or implantation on an upper side of the p + substrate or by epitaxy on the n - layer and the p - layer forms the upper side of the first part stack or of the second part stack, - the third layer is produced before or after the wafer bonding and - in a first alternative the n - layer is produced, after the wafer bonding, by grinding off a n - substrate at least partly forming the second part stack or in a second alternative, the n - layer is formed, before the wafer bonding, on an n + substrate.
A power module, comprising: a base plane; a switch chip assembled on the base plane; and characterised in that the power module comprises: a voltage clamping circuit comprising a charging loop, wherein the charging loop is assembled on the base plane and connected in parallel with the switch chip for clamping a voltage of the switch chip, and the charging loop comprises a capacitor assembled on the base plane, wherein the capacitor of the charging loop on the base plane is located within a first circle, defined with a center point of the switch chip as a center of the first circle, and with a product of: (i) a maximum of: a length, and a width, of the switch chip, and (ii) a first coefficient (n), as a radius of the first circle, and wherein the first coefficient is 2. a base plane; a switch chip assembled on the base plane; and characterised in that the power module comprises: a voltage clamping circuit comprising a charging loop, wherein the charging loop is assembled on the base plane and connected in parallel with the switch chip for clamping a voltage of the switch chip, and the charging loop comprises a capacitor assembled on the base plane, wherein the capacitor of the charging loop on the base plane is located within a first circle, defined with a center point of the switch chip as a center of the first circle, and with a product of: (i) a maximum of: a length, and a width, of the switch chip, and (ii) a first coefficient (n), as a radius of the first circle, and wherein the first coefficient is 2. a voltage clamping circuit comprising a charging loop, wherein the charging loop is assembled on the base plane and connected in parallel with the switch chip for clamping a voltage of the switch chip, and the charging loop comprises a capacitor assembled on the base plane, wherein the capacitor of the charging loop on the base plane is located within a first circle, defined with a center point of the switch chip as a center of the first circle, and with a product of: (i) a maximum of: a length, and a width, of the switch chip, and (ii) a first coefficient (n), as a radius of the first circle, and wherein the first coefficient is 2.
A method used for a Hypertext Transfer Protocol, HTTP, network, comprising: receiving, by a broadband network gateway, BNG, a first HTTP request sent by a user equipment (101, 102); adding, by the BNG, an identifier of the BNG to the first HTTP request, to obtain a second HTTP request; sending, by the BNG, the second HTTP request to an applications server; receiving, by the BNG, a third HTTP request sent by the application server, wherein the third HTTP request is sent by the application server after the application server receives the second HTTP request, and the third HTTP request comprises location information of an image for creating a virtual machine; and obtaining, by the BNG, the image according to the location information, and creating, by the BNG, the virtual machine in the BNG according to the image. receiving, by a broadband network gateway, BNG, a first HTTP request sent by a user equipment (101, 102); adding, by the BNG, an identifier of the BNG to the first HTTP request, to obtain a second HTTP request; sending, by the BNG, the second HTTP request to an applications server; receiving, by the BNG, a third HTTP request sent by the application server, wherein the third HTTP request is sent by the application server after the application server receives the second HTTP request, and the third HTTP request comprises location information of an image for creating a virtual machine; and obtaining, by the BNG, the image according to the location information, and creating, by the BNG, the virtual machine in the BNG according to the image.
A television apparatus comprising: a display screen; a jog switch formed to project from a side surface or a rear surface of the television apparatus, the jog switch configured to be movable in a plurality of directions and pushable according to a user input; a control unit configured: to control the display screen to display a television broadcast channel selected via the jog switch; to control the display screen to display a first user interface, UI, in response to receiving a user input moving the jog switch in a first direction among the plurality of directions, and to change the television broadcast channel being displayed in accordance with a user input on the jog switch while the first UI is displayed, wherein the control unit is configured to control power of the television apparatus to be on, in response to receiving a user input pushing the jog switch while the power of the television apparatus is off. a display screen; a jog switch formed to project from a side surface or a rear surface of the television apparatus, the jog switch configured to be movable in a plurality of directions and pushable according to a user input; a control unit configured: to control the display screen to display a television broadcast channel selected via the jog switch; to control the display screen to display a first user interface, UI, in response to receiving a user input moving the jog switch in a first direction among the plurality of directions, and to change the television broadcast channel being displayed in accordance with a user input on the jog switch while the first UI is displayed, to control the display screen to display a television broadcast channel selected via the jog switch; to control the display screen to display a first user interface, UI, in response to receiving a user input moving the jog switch in a first direction among the plurality of directions, and to change the television broadcast channel being displayed in accordance with a user input on the jog switch while the first UI is displayed, wherein the control unit is configured to control power of the television apparatus to be on, in response to receiving a user input pushing the jog switch while the power of the television apparatus is off.
A matrix material for Matrix-Assisted Laser Desorption /Ionization (MALDI) mass spectrometry, comprising: an adduct-reducing additive comprising a free radical scavenger, wherein said adduct-reducing additive comprises ascorbic acid or a salt, tautomer or analog thereof, wherein the analog of ascorbic acid comprises the formula: wherein: R 1 and R 2 independently are OH, halogen, R 3, OR 3, azido, cyano, CH 2 R 3, CHR 3 R 4, SR 3 or NR 3 R 4; and R 3 and R 4 independently are H, alkyl, acetylene or cyano, or an optionally substituted aryl carbocyclic ring, aryl heterocyclic ring, non-aryl carbocyclic ring or non-aryl heterocyclic ring; and one or more compounds selected from among 3-hydroxypicolinic acid (3-HPA), di-ammoniumcitrate, 2,5-dihydroxybenzoic acid, Alpha-cyano-4-hydroxycinnamic acid (CHCA), 2,4,6-trihydroxyacetophenone (THAP), T-2-(3-(4-t-Butyl-phenyl)-2-methyl-2-propenylidene)malononitrile (DCTB), dithranol, sinapic acid, trans-3-indoleacrylic acid and 2-(4-hydroxyphenylazo)benzoic acid (HABA). an adduct-reducing additive comprising a free radical scavenger, wherein said adduct-reducing additive comprises ascorbic acid or a salt, tautomer or analog thereof, wherein the analog of ascorbic acid comprises the formula: wherein: R 1 and R 2 independently are OH, halogen, R 3, OR 3, azido, cyano, CH 2 R 3, CHR 3 R 4, SR 3 or NR 3 R 4; and R 3 and R 4 independently are H, alkyl, acetylene or cyano, or an optionally substituted aryl carbocyclic ring, aryl heterocyclic ring, non-aryl carbocyclic ring or non-aryl heterocyclic ring; and R 1 and R 2 independently are OH, halogen, R 3, OR 3, azido, cyano, CH 2 R 3, CHR 3 R 4, SR 3 or NR 3 R 4; and R 3 and R 4 independently are H, alkyl, acetylene or cyano, or an optionally substituted aryl carbocyclic ring, aryl heterocyclic ring, non-aryl carbocyclic ring or non-aryl heterocyclic ring; and one or more compounds selected from among 3-hydroxypicolinic acid (3-HPA), di-ammoniumcitrate, 2,5-dihydroxybenzoic acid, Alpha-cyano-4-hydroxycinnamic acid (CHCA), 2,4,6-trihydroxyacetophenone (THAP), T-2-(3-(4-t-Butyl-phenyl)-2-methyl-2-propenylidene)malononitrile (DCTB), dithranol, sinapic acid, trans-3-indoleacrylic acid and 2-(4-hydroxyphenylazo)benzoic acid (HABA).
A mechanism for fixing together first and second parts and comprising: first and second guides provided respectively in or attached to the first and second parts; and first and second magnetic components coupled respectively to the first and second guides (3,4) such that the first magnetic component is rotatable with the first guide and with the first part and the second magnetic component cannot rotate relative to the second guide, the magnetic components being moveable axially and rotationally with respect to each other and having magnetic poles oriented such that rotation of said first magnetic component without relative axial movement of the first and second guides causes relative axial movement of the magnetic components (1,2) between a locking position in which one of the magnetic components straddles the two guides (3,4) and an unlocking position in which it does not straddle the two guides, wherein one of the magnetic components (1,2) is fixed axially to the guide (3,4) to which it is coupled and the other of the magnetic components (1,2) is able to move axially with respect to the guide (3,4) to which it is coupled. first and second guides provided respectively in or attached to the first and second parts; and first and second magnetic components coupled respectively to the first and second guides (3,4) such that the first magnetic component is rotatable with the first guide and with the first part and the second magnetic component cannot rotate relative to the second guide, the magnetic components being moveable axially and rotationally with respect to each other and having magnetic poles oriented such that rotation of said first magnetic component without relative axial movement of the first and second guides causes relative axial movement of the magnetic components (1,2) between a locking position in which one of the magnetic components straddles the two guides (3,4) and an unlocking position in which it does not straddle the two guides,
A process for producing nanoparticles of a substance, comprising: in a first chamber, dispersing a substance in a fluid and bringing the fluid into a supercritical state at a selected pressure and temperature to form a dispersion of the substance and the fluid in the supercritical state; passing the dispersion from the first chamber through a cooling device or into a cooling zone in a second chamber, wherein the cooling device or cooling zone configured to reduce temperature of the dispersion below a temperature at which the fluid forms solid particles such that nanoparticles of the substance are formed, wherein the second chamber comprises a surface configured to receive the solid particles of the fluid and the nanoparticles of the substance; allowing at least one of pressure to decrease and temperature to increase in the second chamber such that the solid particles of the fluid are transformed into a gaseous state, removing the fluid in the gaseous state and allowing the nanoparticles to remain on the surface; wherein the surface configured to receive solid particles of the fluid and nanoparticles of the substance is further configured to transport the nanoparticles to a nanoparticle collection zone as the fluid in the gaseous state is removed, and collecting the nanoparticles of the substance from the surface. in a first chamber, dispersing a substance in a fluid and bringing the fluid into a supercritical state at a selected pressure and temperature to form a dispersion of the substance and the fluid in the supercritical state; passing the dispersion from the first chamber through a cooling device or into a cooling zone in a second chamber, wherein the cooling device or cooling zone configured to reduce temperature of the dispersion below a temperature at which the fluid forms solid particles such that nanoparticles of the substance are formed, wherein the second chamber comprises a surface configured to receive the solid particles of the fluid and the nanoparticles of the substance; allowing at least one of pressure to decrease and temperature to increase in the second chamber such that the solid particles of the fluid are transformed into a gaseous state, removing the fluid in the gaseous state and allowing the nanoparticles to remain on the surface; wherein the surface configured to receive solid particles of the fluid and nanoparticles of the substance is further configured to transport the nanoparticles to a nanoparticle collection zone as the fluid in the gaseous state is removed, and collecting the nanoparticles of the substance from the surface.