mhurhangee/ep-ind-claims huggingface dataset:
A method for dynamically adjusting a resource, comprising: adjusting a routing table according to a preset adjusting rule; buffering a session request message from a service requester; migrating, when the step of adjusting the routing table affects an online service session, the online service session from a source resource indicated by the routing table before the adjustment to a target resource indicated by the adjusted routing table, wherein the step of adjusting the routing table affects the online service session comprises a service resource for the online service session indicated by the adjusted routing table is different from that indicated by the routing table before the adjustment; sending the buffered session request message from the service requester to the target resource according to the adjusted routing table; and routing subsequently received request messages from the service requester according to the adjusted routing table. adjusting a routing table according to a preset adjusting rule; buffering a session request message from a service requester; migrating, when the step of adjusting the routing table affects an online service session, the online service session from a source resource indicated by the routing table before the adjustment to a target resource indicated by the adjusted routing table, wherein the step of adjusting the routing table affects the online service session comprises a service resource for the online service session indicated by the adjusted routing table is different from that indicated by the routing table before the adjustment; sending the buffered session request message from the service requester to the target resource according to the adjusted routing table; and routing subsequently received request messages from the service requester according to the adjusted routing table.
Balance with a weighing compartment surrounded by a draft shield and with a balance housing containing a weighing cell, and with a weighing-load carrier to support the weighing object, wherein the weighing-load carrier is configured as a level grate, wherein an L-shaped cantilever is connected to the weighing cell, the vertical portion of the L-shaped cantilever having projections extending towards the weighing compartment and standing out through passage openings of the rear wall of the weighing compartment forming a coupling arrangement for coupling the weighing-load carrier to support the weighing object; and wherein between the floor of the weighing compartment and the weighing-load carrier a fixedly installed or removable spill-collector pan with an uninterrupted surface is arranged.
A method of obtaining a three-dimensional, quantitative, molecular tomographic image of a target region within a patient or animal body, the method comprising administering a near-infrared fluorescent (NIRF) molecular probe to the patient or animal body, wherein the molecular probe selectively accumulates within a target region in the patient or animal body; directing near-infrared light from multiple points into the patient or animal body disposed within a chamber, thereby transilluminating the patient or animal body; detecting at multiple points an intrinsic signal of near-infrared light transmitted through the patient or animal body after said administration of the near-infrared fluorescent (NIRF) molecular probe to the patient or animal body; detecting fluorescent light emitted from the patient or animal body; and processing the detected intrinsic signal and the detected fluorescent light to provide a three-dimensional image that corresponds to the three-dimensional target region within the patient or animal body and to the quantity of molecular probe accumulated in the target region, wherein the processing comprises: generating a corrected fluorescent light measurement by subtracting a background signal and filter bleed-through signal from the detected fluorescent light; generating a corrected intrinsic signal measurement by subtracting a background ambient light signal from the detected intrinsic signal; and generating a self-calibrated fluorescence measurement by dividing the corrected fluorescent light measurement (M1-M3) by the corrected intrinsic signal measurement (M2-M4). generating a corrected fluorescent light measurement by subtracting a background signal and filter bleed-through signal from the detected fluorescent light; generating a corrected intrinsic signal measurement by subtracting a background ambient light signal from the detected intrinsic signal; and generating a self-calibrated fluorescence measurement by dividing the corrected fluorescent light measurement (M1-M3) by the corrected intrinsic signal measurement (M2-M4).
An agricultural and horticultural fungicidal composition comprising: Drug I selected from the group consisting of a nitrogen-containing heterocyclic compound represented by the following formula, a nitrogen-containing heterocyclic compound represented by the following formula, a nitrogen-containing heterocyclic compound represented by the following formula, and salts thereof: and Drug II selected from: cyflufenamid, cymoxanil, proquinazid, metrafenone, quinoxyfen, diclomezine, isoprothiolane, bupirimate, hexythiazox, tebufenozide, thiodicarb, spinosad, etofenprox, fipronil, ethiprole, pymetrozine, buprofezin, chlorfenapyr, a compound represented by the following formula, a compound represented by the following formula or, and salts thereof: triflumizole, difenoconazole, and tebuconazole, thiophanate-methyl, metalaxyl, benthiavalicarb-isopropyl, fluopicolide, fluopyram, zoxamide, flutolanil, carboxin, thifluzamide, and boscalid, iprodione, fludioxonil, fosetyl, tolclofos-methyl, and chlorpyrifos, iminoctadine, ametoctradin, trifloxystrobin, azoxystrobin, kresoxim-methyl, orysastrobin, famoxadone, and pyribencarb, cyazofamid, cyprodinil, acetamiprid, imidacloprid, thiamethoxam, clothianidin, and dinotefuran, and manzeb, thiram, chlorothalonil, captan, folpet, and fluazinam. Drug I selected from the group consisting of a nitrogen-containing heterocyclic compound represented by the following formula, a nitrogen-containing heterocyclic compound represented by the following formula, a nitrogen-containing heterocyclic compound represented by the following formula, and salts thereof: and Drug II selected from: cyflufenamid, cymoxanil, proquinazid, metrafenone, quinoxyfen, diclomezine, isoprothiolane, bupirimate, hexythiazox, tebufenozide, thiodicarb, spinosad, etofenprox, fipronil, ethiprole, pymetrozine, buprofezin, chlorfenapyr, a compound represented by the following formula, a compound represented by the following formula or, and salts thereof: triflumizole, difenoconazole, and tebuconazole, thiophanate-methyl, metalaxyl, benthiavalicarb-isopropyl, fluopicolide, fluopyram, zoxamide, flutolanil, carboxin, thifluzamide, and boscalid, iprodione, fludioxonil, fosetyl, tolclofos-methyl, and chlorpyrifos, iminoctadine, ametoctradin, trifloxystrobin, azoxystrobin, kresoxim-methyl, orysastrobin, famoxadone, and pyribencarb, cyazofamid, cyprodinil, acetamiprid, imidacloprid, thiamethoxam, clothianidin, and dinotefuran, and manzeb, thiram, chlorothalonil, captan, folpet, and fluazinam.
An induction heating cooker comprising a parallel resonant circuit having an induction coil and a resonant capacitor connected in parallel to the induction coil, a power switch which drives the parallel resonant circuit, a collector, an emitter and a gate disposed on the power switch, a collector node whereto the collector is connected, a voltage measuring circuit that detects the resonant voltage (Vce) on the collector node, a control unit that changes the power switch to the closed and the open positions depending on the resonant voltage value (Vce), and a drive circuit that provides the power switch to be driven with the drive voltage (Vge), the induction heating cooker being characterized in that it further comprises a gate-emitter capacitor connected between the gate and emitter terminals of the power switch, providing the power switch to pass from the open position to the closed position by being charged with the drive voltage (Vge), and additional capacitor connected in parallel to the gate-emitter capacitor, the control unit according the drive current (Ige) value delivered from the drive circuit to the power switch to be changed by activating/deactivating the additional capacitor.
A circuit board assembly comprising: a circuit board comprising a mounting surface and an opposing soldering surface; and a connector comprising: contacts electrically connected to circuit patterns of the circuit board; and a housing for holding the contacts, wherein the housing comprises, in a portion overhanging toward the outer periphery side from the circuit board, a holding protrusion, which is used to hold the housing while one end of each of the contacts is soldered to the circuit pattern of the circuit board, to which a mating connector provided at one end of an external wiring harness is connected in order to connect a circuit pattern of the circuit board to the wiring harness, wherein the one end of each of the contacts is electrically connected to the circuit pattern of the circuit board, and the other end of each of the contacts is configured for being electrically connected to a mating contact of the mating connector; wherein in the portion overhanging toward the outer periphery side from the circuit board, the housing comprises a holding protrusion projecting toward the direction orthogonally intersecting the overhanging direction and along the surface of the circuit board; characterized in that the lower surface of the holding protrusion is provided so as to be located in almost the same plane as the soldering surface of the circuit board. a circuit board comprising a mounting surface and an opposing soldering surface; and a connector comprising: contacts electrically connected to circuit patterns of the circuit board; and a housing for holding the contacts, wherein the housing comprises, in a portion overhanging toward the outer periphery side from the circuit board, a holding protrusion, which is used to hold the housing while one end of each of the contacts is soldered to the circuit pattern of the circuit board, contacts electrically connected to circuit patterns of the circuit board; and a housing for holding the contacts, wherein the housing comprises, in a portion overhanging toward the outer periphery side from the circuit board, a holding protrusion, which is used to hold the housing while one end of each of the contacts is soldered to the circuit pattern of the circuit board, to which a mating connector provided at one end of an external wiring harness is connected in order to connect a circuit pattern of the circuit board to the wiring harness, wherein the one end of each of the contacts is electrically connected to the circuit pattern of the circuit board, and the other end of each of the contacts is configured for being electrically connected to a mating contact of the mating connector; wherein in the portion overhanging toward the outer periphery side from the circuit board, the housing comprises a holding protrusion projecting toward the direction orthogonally intersecting the overhanging direction and along the surface of the circuit board; characterized in that the lower surface of the holding protrusion is provided so as to be located in almost the same plane as the soldering surface of the circuit board.
An electronic device comprising a printed circuit board (15; 115), having at least one hole (20; 120), and a contact pin (1; 100) in the hole (20; 120), the contact pin (1; 100) comprising a terminal (2; 102) and a mechanical coupling portion (3; 103), extending along an axis; wherein the mechanical coupling portion (3; 103) comprises two elastic elements (6, 7; 106, 107), forming a fork along the axis; characterized in that the mechanical coupling portion (3; 103) has a length (L; L') less than a thickness (T; T') of the printed circuit board, the contact pin (1; 100) is a metal lamina and the elastic elements (6, 7; 106, 107) are provided with respective hooking elements (9, 10; 109, 110); wherein the elastic elements (6, 7; 106, 107) are shaped so that, following the insertion of the mechanical coupling portion (3; 103) in an opening defined by the hole (20; 120) having a width less than a maximum distance between respective outer edges (6a, 7a) of the elastic elements (6, 7; 106, 107), respective free ends (6b, 7b) of the elastic elements (6, 7; 106, 107) are rotated towards each other and the hooking elements (9, 10; 109, 110) are turned outwards to prevent the extraction of the mechanical coupling portion (3; 103) from the opening; wherein the elastic elements (6, 7; 106, 107) have respective contact sections (6c, 7c) and respective guide sections (6d, 7d), and wherein the guide sections (6d, 7d) are shaped so as to facilitate the rotation of the elastic elements (6, 7; 106, 107) towards each other following the introduction of the mechanical coupling portion (3; 103) in an opening having a width less than the distance between the outer edges (6a, 78); and wherein the hooking elements (9, 10; 109, 110) are defined by sharp edges transverse to the outer edges (6a, 7a) of the elastic elements (6, 7; 106, 107) in the contact sections (6c, 7c), at the ends of the outer edges (6a, 7a) opposite to the free ends (6b, 7b).
A method of monitoring the covering of a mold surface of a mold using an auxiliary process agent in a casting process, wherein the casting process comprises a process step of applying the auxiliary process agent to the mold surface of the mold and at least one process step of filling the mold with a material, characterized in that at least one infrared image of the mold surface is recorded after the application of the auxiliary process agent and/or before the filling of the mold in a spectral range of a characteristic absorption band of the auxiliary process agent, with the covering of the mold surface with the auxiliary process agent being determined with reference to the contribution of the infrared absorption of the auxiliary process agent to the infrared image, and with the fact being utilized that the contribution of the infrared absorption of the auxiliary process agent generates a contrast in the infrared image between zones of the mold surface with an applied auxiliary process agent and such zones at which the auxiliary process agent layer is not present or is too thin.
A system for stimulating the neural activity of a nerve supplying the spleen, wherein the nerve is associated with a neurovascular bundle, preferably a splenic arterial nerve, the system comprising: at least one electrode for being in signaling contact with the nerve; and at least one controller electrically coupled to the at least one electrode, the at least one controller configured to control the operation of the at least one electrode to apply an electrical signal to the nerve, wherein the charge density per phase applied to the nerve by the electrical signal is between 5 μC to 1100 μC per cm 2 per phase. at least one electrode for being in signaling contact with the nerve; and at least one controller electrically coupled to the at least one electrode, the at least one controller configured to control the operation of the at least one electrode to apply an electrical signal to the nerve, wherein the charge density per phase applied to the nerve by the electrical signal is between 5 μC to 1100 μC per cm 2 per phase.
A method for storing energy in lye by desorption of water vapour from poor lye and absorption of water vapour into rich lye, wherein lye cycles are combined with primary and secondary aqueous heat carrier circuits (1.4, 2.2), such that - on the one hand, the heat required for the desorption is recuperatively transferred (1.1) from a primary heat carrier circuit (1.4) to the lye (1.1) and the dissipated heat is replaced in the heat carrier circuit by recuperative heat supply and/or in that the water vapour (1.24) resulting from the desorption of the lye is compressed (1.10) and incorporated into the heat carrier circuit by condensation (1.5) or the vapour from the desorption is condensed for the purpose of evaporating an external heat pump working medium, and - on the other hand, the heat generated during absorption is transferred from the lye to a secondary aqueous heat carrier circuit (2.2) and water bound into the heat carrier is removed from it by flash evaporation (2.3) via saturated vapour, wherein the technical work required for the compression (1.10) of the desorption vapour (1.24) is provided by conversion of electrical energy and the technical work capacity of the saturated vapour from the flash evaporation (2.3) produced during absorption is utilized for electrical energy production via an expansion machine (7, 8), the vapour required for the absorption is taken from a first expansion machine, fed to the absorption process stage and incorporated into the lye, and the vapour extracted after the expansion machine is dried by recuperative heat transfer (7.1) before it is fed to the absorption. - on the one hand, the heat required for the desorption is recuperatively transferred (1.1) from a primary heat carrier circuit (1.4) to the lye (1.1) and the dissipated heat is replaced in the heat carrier circuit by recuperative heat supply and/or in that the water vapour (1.24) resulting from the desorption of the lye is compressed (1.10) and incorporated into the heat carrier circuit by condensation (1.5) or the vapour from the desorption is condensed for the purpose of evaporating an external heat pump working medium, and - on the other hand, the heat generated during absorption is transferred from the lye to a secondary aqueous heat carrier circuit (2.2) and water bound into the heat carrier is removed from it by flash evaporation (2.3) via saturated vapour,
A system for supporting a single logical Internet Protocol, IP, subnet across multiple independent layer 2 subnets in a high performance computing environment, comprising: a computer, the computer comprising one or more microprocessors; a logical device, the logical device being addressed by a layer 3 address, wherein the logical device comprises a plurality of network adapters (AP1-APn); and a plurality of switches including at least a first, a second and a third switch, each of the switches comprising a plurality of ports (SP1-1 - SP3-4); a first discrete layer 2 subnet connected to the first switch and the second switch; a second discrete later 2 subnet connected to the third switch, wherein the second discrete layer 2 subnet is independent of the first discrete layer 2 subnet; wherein each of the first, second and third switches is connected to a separate physical port of a network adapter of the plurality of network adapters; wherein the first and second switches are interconnected via one or more control links; wherein a mapping function is provided at the logical device; wherein the logical device is configured to receive a packet, the packet comprising a source address and a plurality of destination addresses (DIP1, DMAC1); wherein the logical device is configured to update at least one of the plurality of destination addresses based on lookups of the plurality of destination addresses in the mapping function; and wherein the logical device is configured to forward the received packet comprising the updated destination address to one of the first and the second discrete layer 2 subnets based on load balancing. a computer, the computer comprising one or more microprocessors; a logical device, the logical device being addressed by a layer 3 address, wherein the logical device comprises a plurality of network adapters (AP1-APn); and a plurality of switches including at least a first, a second and a third switch, each of the switches comprising a plurality of ports (SP1-1 - SP3-4); a first discrete layer 2 subnet connected to the first switch and the second switch; a second discrete later 2 subnet connected to the third switch, wherein the second discrete layer 2 subnet is independent of the first discrete layer 2 subnet; wherein each of the first, second and third switches is connected to a separate physical port of a network adapter of the plurality of network adapters; wherein the first and second switches are interconnected via one or more control links; wherein a mapping function is provided at the logical device; wherein the logical device is configured to receive a packet, the packet comprising a source address and a plurality of destination addresses (DIP1, DMAC1); wherein the logical device is configured to update at least one of the plurality of destination addresses based on lookups of the plurality of destination addresses in the mapping function; and wherein the logical device is configured to forward the received packet comprising the updated destination address to one of the first and the second discrete layer 2 subnets based on load balancing.
A method of manufacturing an arrangement for transferring energy from a primary unit conductor arrangement (18; 28) of an inductive power transfer system by a magnetic or an electromagnetic field to a secondary unit conductor arrangement in which the field induces an electric voltage, wherein the method comprises the steps: • arranging a conductor arrangement as the primary unit conductor arrangement (18; 28) in a first layer of the arrangement and • providing a second layer (21; 23), so that the second layer (21; 23) is located on a back side of the first layer opposite to a front side of the first layer on which the magnetic or electromagnetic field is transferred during operation wherein the second layer (21; 23) is made of a curable constituent material, comprising magnetic and/or magnetizable particles dispersed within the constituent material and wherein the magnetic and/or magnetizable particles are moved with respect to their positions and/or orientations within the constituent material before the constituent material is hard and the movement is caused by a magnetic field produced by the primary unit conductor arrangement (18; 28) and the constituent material with the magnetic and/or magnetizable particles is formed as a constructional element for supporting vehicles to which the energy is to be transferred wirelessly. • arranging a conductor arrangement as the primary unit conductor arrangement (18; 28) in a first layer of the arrangement and • providing a second layer (21; 23), so that the second layer (21; 23) is located on a back side of the first layer opposite to a front side of the first layer on which the magnetic or electromagnetic field is transferred during operation wherein the second layer (21; 23) is made of a curable constituent material, comprising magnetic and/or magnetizable particles dispersed within the constituent material and wherein the magnetic and/or magnetizable particles are moved with respect to their positions and/or orientations within the constituent material before the constituent material is hard and the movement is caused by a magnetic field produced by the primary unit conductor arrangement (18; 28) and the constituent material with the magnetic and/or magnetizable particles is formed as a constructional element for supporting vehicles to which the energy is to be transferred wirelessly.