mhurhangee/patent-ind-claim-en huggingface dataset:
Method for evaluating the reliability of a route in a cooperative network for the transmission of data packets between a source node and a destination node of the network, comprising a step of updating a database that is administered by the destination node and comprises records relating to nodes of the network, each record comprising an identification of one said node of the network and at least one item of information relating to this node comprising a confidence index associated with this node, said confidence index being updated during the updating step on the basis of data packets correctly forwarded to the destination node via at least one route comprising said node, said method comprising, upon reception (F1) by the destination node of each route request message indicating a route between said source node and the destination node: - a step (F6) of the destination node evaluating at least one parameter indicative of reliability on the basis of said items of information that are contained in the database administered by the destination node and relate to the network nodes through which the indicated route passes, - a step of the destination node associating said at least one parameter indicative of reliability with the indicated route, and - a step (F7) of the destination node sending the source node a response comprising said at least one parameter indicative of reliability that is associated with the indicated route. - a step (F6) of the destination node evaluating at least one parameter indicative of reliability on the basis of said items of information that are contained in the database administered by the destination node and relate to the network nodes through which the indicated route passes, - a step of the destination node associating said at least one parameter indicative of reliability with the indicated route, and - a step (F7) of the destination node sending the source node a response comprising said at least one parameter indicative of reliability that is associated with the indicated route.
A heat curable silicone rubber composition comprising: (A) 100 parts by mass of a mixture of a polyorganosiloxane obtained by polymerization by using an alkali metal hydroxide as a polymerization catalyst and by neutralization, and a curing agent, wherein the component (A) further contains a reinforcing silica, and (B) 100 to 1000 ppm relative to 100 parts by mass of the component (A) of an ionic substance containing an anion and a cation, and being a bis (trifluoromethanesulfonyl) imide anion as the anion. (A) 100 parts by mass of a mixture of a polyorganosiloxane obtained by polymerization by using an alkali metal hydroxide as a polymerization catalyst and by neutralization, and a curing agent, wherein the component (A) further contains a reinforcing silica, and (B) 100 to 1000 ppm relative to 100 parts by mass of the component (A) of an ionic substance containing an anion and a cation, and being a bis (trifluoromethanesulfonyl) imide anion as the anion.
A method performed by a source master base station in a wireless communication system, the method comprising: transmitting , to a target master base station, a handover request message including information associated with a secondary base station involved in a dual connectivity related to a user equipment, UE; receiving , from the target master base station, a handover response message including information on a radio resource control, RRC, container and information indicating that a bearer established at the secondary base station is kept; and transmitting , to the secondary base station, a release request message for requesting release of resources related to the UE, the release request message including the information indicating that a bearer established at the secondary base station is kept. transmitting , to a target master base station, a handover request message including information associated with a secondary base station involved in a dual connectivity related to a user equipment, UE; receiving , from the target master base station, a handover response message including information on a radio resource control, RRC, container and information indicating that a bearer established at the secondary base station is kept; and transmitting , to the secondary base station, a release request message for requesting release of resources related to the UE, the release request message including the information indicating that a bearer established at the secondary base station is kept.
Sliding element, in particular for a stretching device and/or conveyor chain, comprising graphite or electrographite, with the following features: - that the sliding element has pores, the open pore size being ≥ 7.5 vol%, and - in that the particle size of the graphite particles used as starting material for the sliding elements is between 3 μm and 15 μm, characterized by the following further features: - the graphite particles used as starting material for the production of the graphite particle are present in a particle size distribution in which, as median value d , the particle size is between 14 μm and 18 μm and the values d are between 2 μm and 4 μm and for d between 42 μm and 50 μm, and - the maximum particle size distribution, i.e. the average particle size to be obtained as an expected value of the graphite powder used as starting material for the production of the sliding elements and of the sliding element produced by pressing have a maximum particle size distribution of between 3 μm and 15 μm, and - the sliding element is impregnated with inorganic salts and/or inorganic salts are I ncorporated in the sliding element. - that the sliding element has pores, the open pore size being ≥ 7.5 vol%, and - in that the particle size of the graphite particles used as starting material for the sliding elements is between 3 μm and 15 μm, - the graphite particles used as starting material for the production of the graphite particle are present in a particle size distribution in which, as median value d , the particle size is between 14 μm and 18 μm and the values d are between 2 μm and 4 μm and for d between 42 μm and 50 μm, and - the maximum particle size distribution, i.e. the average particle size to be obtained as an expected value of the graphite powder used as starting material for the production of the sliding elements and of the sliding element produced by pressing have a maximum particle size distribution of between 3 μm and 15 μm, and - the sliding element is impregnated with inorganic salts and/or inorganic salts are I ncorporated in the sliding element.
A composition for gene transfer, the composition comprising: (A) at least one lipid selected from the group consisting of sorbitan sesquioleate, sorbitan monolaurate, sorbitan monopalmitate, sorbitan monostearate, sorbitan trioleate, sorbitan monooleate, L-α-phosphatidylinositol, L-α-dioleoyl phosphatidylethanolamine, octadecylamine, hexadecylamine, DOTAP, and cardiolipin; (B) at least one protein selected from the group consisting of albumin, casein, gelatin, and sericin; and (C) at least one positively charged substance selected from the group consisting of protamine sulfate, polyarginine, polylysine, polyethyleneimine, and hexadimethrine bromide. (A) at least one lipid selected from the group consisting of sorbitan sesquioleate, sorbitan monolaurate, sorbitan monopalmitate, sorbitan monostearate, sorbitan trioleate, sorbitan monooleate, L-α-phosphatidylinositol, L-α-dioleoyl phosphatidylethanolamine, octadecylamine, hexadecylamine, DOTAP, and cardiolipin; (B) at least one protein selected from the group consisting of albumin, casein, gelatin, and sericin; and (C) at least one positively charged substance selected from the group consisting of protamine sulfate, polyarginine, polylysine, polyethyleneimine, and hexadimethrine bromide.
A chain comprising at least a plurality of link plates and a plurality of pins as chain components, the pins and mutually sliding chain components sliding against the pins being formed with a hardened surface layer containing one of Cr carbide, Ti carbide, V carbide, Nb carbide, Cr nitride, Ti nitride, V nitride, and Nb nitride on part or all of respective sliding surfaces, the chain components include bushings fitted on the pins, the mutually sliding chain components being the bushings, characterized in that the bushings have a concave inner circumferential surface such that the gap between the pin and the bushing increases toward the center in the longitudinal direction of the bushing. the pins and mutually sliding chain components sliding against the pins being formed with a hardened surface layer containing one of Cr carbide, Ti carbide, V carbide, Nb carbide, Cr nitride, Ti nitride, V nitride, and Nb nitride on part or all of respective sliding surfaces, the chain components include bushings fitted on the pins, the mutually sliding chain components being the bushings, characterized in that the bushings have a concave inner circumferential surface such that the gap between the pin and the bushing increases toward the center in the longitudinal direction of the bushing.
Fuel-air mixing device with an air inlet , a constriction , at least one opening in the region of the constriction for feeding in, in particular, gaseous fuel , the opening being of adjustable configuration, a locking device for locking the adjustable opening being provided, characterized in that the locking device has a fixing screw .
A multi-domain network comprising subnetworks with maintenance domains and Maintenance Entity Group, MEG, End Points, MEPs, of a Maintenance Entity Group, MEG, wherein the subnetworks are delimited by the MEPs , and the multi-domain network being characterized in that each of the MEPs is configured to avoid MEP level overlap by tunneling, to a peer MEP, Service Operation Administration Maintenance, SOAM, frames received on a passive Service Access Point, SAP, of the MEP by encapsulating the SOAM frames received by the MEP and to forward the encapsulated SOAM frames to the peer MEP of said MEP within the same Maintenance Entity Group, MEG.
An instrument for measuring thermal diffusivity of solid materials, the instrument comprising: a. a furnace for creating a thermally stable environment; b. an LED array light source capable of raising the temperature of at least one sample by an emitted light pulse from it; c. a sample holder for holding at least two samples radially displaced from each other; d. the LED array light source for illuminating a first side (A) of the at least one sample; e. a temperature rise detector for reading a temperature change of a second side (B) of the at least one sample and recording a thermogram after a light pulse to the first side is deposited; f. a computer for calculating the thermal diffusivity from the thermogram; g. sample placements having the at least two radially displaced samples each part of a row of axially displaced samples, wherein the furnace for creating the thermally stable environment further comprises programming to provide a plurality of pulses according to proportional-integral-derivative (PID) control principles to heat said sample to a desired temperature first, and reach a thermally stable condition before the measurement pulse is issued. a. a furnace for creating a thermally stable environment; b. an LED array light source capable of raising the temperature of at least one sample by an emitted light pulse from it; c. a sample holder for holding at least two samples radially displaced from each other; d. the LED array light source for illuminating a first side (A) of the at least one sample; e. a temperature rise detector for reading a temperature change of a second side (B) of the at least one sample and recording a thermogram after a light pulse to the first side is deposited; f. a computer for calculating the thermal diffusivity from the thermogram; g. sample placements having the at least two radially displaced samples each part of a row of axially displaced samples,
A computer-implemented method for determining a treatment plan for delivering radiotherapy to a patient via a radiation machine, the method comprising: providing a beam model for use in the radiation machine; determining, for the radiation machine, a gantry angle-indexed dose, GAID, variation representing a plurality of radiation doses at different gantry angles; and determining a radiation treatment plan for the patient using the beam model and the determined GAID variation, wherein determining the GAID variation includes: delivering a constant radiation beam to a phantom at different gantry angles; and calculating a dose at each of one or more locations in the phantom corresponding to each of the different gantry angles. providing a beam model for use in the radiation machine; determining, for the radiation machine, a gantry angle-indexed dose, GAID, variation representing a plurality of radiation doses at different gantry angles; and determining a radiation treatment plan for the patient using the beam model and the determined GAID variation, wherein determining the GAID variation includes: delivering a constant radiation beam to a phantom at different gantry angles; and calculating a dose at each of one or more locations in the phantom corresponding to each of the different gantry angles. delivering a constant radiation beam to a phantom at different gantry angles; and calculating a dose at each of one or more locations in the phantom corresponding to each of the different gantry angles.
A reinforced electrospun fibrous membrane, characterized in that , the reinforced electrospun fibrous membrane comprises an electrospun fibrous membrane body and a plurality of parallel reinforcing thread sets fixed to the electrospun fibrous membrane body via through holes thereon, wherein each of the reinforcing thread sets comprises a starting end and a terminal end, both being connected to an edge of the electrospun fibrous membrane body; each of the reinforcing thread sets comprises at least one reinforcing fibrous thread comprising a main thread and an auxiliary thread respectively arranged at both sides of the electrospun fibrous membrane body and configured to interlace each other at the through hole; wherein the auxiliary thread has a twist of 10 to 100.
A method of preparing a smokeless tobacco product comprising: melt-blowing or centrifugal force spinning a plurality of polymeric fibers to create an polymer deposition zone; passing a body comprising smokeless tobacco through the polymer deposition zone; and applying an electrostatic charge to the body with one or more holding devices pushed into the body. melt-blowing or centrifugal force spinning a plurality of polymeric fibers to create an polymer deposition zone; passing a body comprising smokeless tobacco through the polymer deposition zone; and applying an electrostatic charge to the body with one or more holding devices pushed into the body.
A fence for surrounding the surface of a rectangular court, having a rectangular playing area for playing tennis, said fence consisting of a wire mesh supported by fence posts surrounding the four sides of the surface of the court, said fence posts extending vertically over a height of at least three meters, said fence posts comprising posts aligned in parallel with the lateral boundary of the playing area, on each side of the court, forming lateral fences , each of said lateral fences bearing at least one lighting strip , extending horizontally along one side of said court, said strip comprising a succession of light sources distributed along its length, characterized in that each of said light sources projects a light beam with a scattering angle of less than 20°, said light beam being oriented perpendicularly to the longitudinal direction of the strip . said fence posts comprising posts aligned in parallel with the lateral boundary of the playing area, on each side of the court, forming lateral fences , each of said lateral fences bearing at least one lighting strip , extending horizontally along one side of said court, said strip comprising a succession of light sources distributed along its length, characterized in that each of said light sources projects a light beam with a scattering angle of less than 20°, said light beam being oriented perpendicularly to the longitudinal direction of the strip .
A vehicle speed control apparatus of an industrial vehicle, comprising: an engine supplying power for traveling and load handling; a torque converter through which power of the engine is transmitted via a transmission to drive wheels ; a controller that receives detection signals from an engine speed sensor and a vehicle speed sensor and that determines a target engine speed (No) by PI control based on a deviation (Vd) between a target vehicle speed (Vo) and an actual vehicle speed (V); and an engine ECU which controls the engine so that the actual engine speed (N) becomes the target engine speed (No), characterized in that the controller controls an upper limit of the target engine speed (No) according to an actual engine speed (N) so that the target engine speed (No) becomes a sum of the actual engine speed (N) and a value α, wherein the value α is 5 to 10% of the actual engine speed (N). an engine supplying power for traveling and load handling; a torque converter through which power of the engine is transmitted via a transmission to drive wheels ; a controller that receives detection signals from an engine speed sensor and a vehicle speed sensor and that determines a target engine speed (No) by PI control based on a deviation (Vd) between a target vehicle speed (Vo) and an actual vehicle speed (V); and an engine ECU which controls the engine so that the actual engine speed (N) becomes the target engine speed (No), characterized in that the controller controls an upper limit of the target engine speed (No) according to an actual engine speed (N) so that the target engine speed (No) becomes a sum of the actual engine speed (N) and a value α, wherein the value α is 5 to 10% of the actual engine speed (N).
A composite nonwoven sheet material comprising pulp fibers, a reinforcement material, and microfibers, wherein the sheet material comprises: one pulp-enriched first outer layer including at least 50 wt. % of pulp fibers in the outermost 5% of the thickness of the sheet material, one microfiber-enriched second outer layer including at least 60 wt.% of microfibers in the outermost 5% of the thickness of the sheet material, and wherein the reinforcement material comprises spun-laid filaments and is interposed as a layer between the pulp-enriched first outer layer and the microfiber-enriched second outer layer, wherein the pulp fibers and the microfibers penetrate the reinforcement material, wherein the composite nonwoven sheet material has bulk pores having a maximum pore volume distribution at a pore radius between 5 and 30 μm and which has surface pores having a maximum pore volume distribution at a pore radius between 25 and 40 μm, wherein the pore volume distribution is determined with test method F, wherein the composite nonwoven sheet material is a hydroentangled fibrous web comprising the reinforcement material layer having a first side and a second side, the reinforcement material being interposed between pulp fibers applied on the first side of the reinforcement material and microfibers or splittable fibers for providing the microfibers applied on the second side of the reinforcement material, and wherein the composite nonwoven sheet material has a liquid absorbance capacity ranging between 5.5 and 8 g liquid/g composite nonwoven sheet material. one pulp-enriched first outer layer including at least 50 wt. % of pulp fibers in the outermost 5% of the thickness of the sheet material, one microfiber-enriched second outer layer including at least 60 wt.% of microfibers in the outermost 5% of the thickness of the sheet material, and wherein the reinforcement material comprises spun-laid filaments and is interposed as a layer between the pulp-enriched first outer layer and the microfiber-enriched second outer layer, wherein the pulp fibers and the microfibers penetrate the reinforcement material, wherein the composite nonwoven sheet material has bulk pores having a maximum pore volume distribution at a pore radius between 5 and 30 μm and which has surface pores having a maximum pore volume distribution at a pore radius between 25 and 40 μm, wherein the pore volume distribution is determined with test method F, wherein the composite nonwoven sheet material is a hydroentangled fibrous web comprising the reinforcement material layer having a first side and a second side, the reinforcement material being interposed between pulp fibers applied on the first side of the reinforcement material and microfibers or splittable fibers for providing the microfibers applied on the second side of the reinforcement material, and wherein the composite nonwoven sheet material has a liquid absorbance capacity ranging between 5.5 and 8 g liquid/g composite nonwoven sheet material.
An intraocular lens manufacturing apparatus, comprising an outer mold constructed of a first material and comprising a first outer mold portion and a second outer mold portion, the first outer mold portion and the second outer mold portion defining a cavity when secured together; an inner mold constructed of a second material, the inner mold configured to be inserted into the cavity such that a space between the inner mold and the outer mold defines the shape of the intraocular lens, the inner mold being compressed and intentionally deformed within the cavity when the first outer mold portion and the second outer mold portion are secured together; one or more ports in the outer mold, the one or more ports facilitating introduction of a lens-forming material into the space between the inner mold and the outer mold, and wherein the cavity and outer mold are arranged according to one or more of the following: (i) wherein the cavity comprises an at least partially patterned inner surface, and (ii) wherein the inner mold comprises an at least partially patterned outer surface. (i) wherein the cavity comprises an at least partially patterned inner surface, and (ii) wherein the inner mold comprises an at least partially patterned outer surface.