mhurhangee/ep-ind-claims huggingface dataset:
A method of determining the amount of light scattered in an object in a machine vision system, comprising: - illuminating said object with incident light having a limited extension in at least one direction using a light source; and, - detecting light emanating from said object using an imaging sensor, wherein said emanated light is reflected light on the surface of said object and light scattered in said object, said detected light is resulting in at least one intensity distribution curve on said imaging sensor having a peak where said reflected light is detected on said imaging sensor, - measuring a width (w) of said at least one intensity distribution curve by determining a standard deviation of said intensity distribution curve, whereby said measured width indicates the amount of light scattered in said object, and wherein the method is characterized by further comprising - comparing said measured width (w) with a threshold value, whereby the amount of scattered light correspond to how much said measured width (w) exceeds said threshold value. - illuminating said object with incident light having a limited extension in at least one direction using a light source; and, - detecting light emanating from said object using an imaging sensor, wherein said emanated light is reflected light on the surface of said object and light scattered in said object, said detected light is resulting in at least one intensity distribution curve on said imaging sensor having a peak where said reflected light is detected on said imaging sensor, - measuring a width (w) of said at least one intensity distribution curve by determining a standard deviation of said intensity distribution curve, whereby said measured width indicates the amount of light scattered in said object, and wherein the method is characterized by further comprising - comparing said measured width (w) with a threshold value, whereby the amount of scattered light correspond to how much said measured width (w) exceeds said threshold value.
Tourbillon with seconds stop, wherein the tourbillon has a subframe and a cage bridge which is held at a distance from the subframe by means of pillars or attached arms and is designed so as to be rotatable about an axis of rotation in a direction of rotation, wherein a balance which can be stopped by manually controllable means is arranged in the interior of the tourbillon of cage-like design, and the means have at least one element which can be fed towards the balance and can be brought into contact with the balance while stopping the latter, characterized in that the at least one element is designed in such a way that, with application of a restoring force by a pillar or arm or a constituent part of the cage bridge of the tourbillon, said element is elastically deformable and/or deflectable in a direction tangential to the direction of rotation, wherein the restoring force is a deforming or deflecting force which, after the stopping of the balance has ended, brings the at least one element back into the non-deformed or non-deflected position.
Composition for production of a thermoplastic moulding compound, wherein the composition comprises or consists of the following constituents: A) 30% to 90% by weight of at least one polymer selected from the group consisting of aromatic polycarbonate and aromatic polyester carbonate, B) 5% to 65% by weight of rubber-modified vinyl (co)polymer prepared by the bulk polymerization method and which is free of epoxy groups, C) 0.5% to 10% by weight of a block or graft polymer containing structural elements deriving from styrene and at least one epoxy-containing vinyl monomer, D) 0% to 20% by weight of one or more further additives, wherein component C has a weight ratio of structural elements deriving from styrene to those deriving from epoxy-containing vinyl monomer of 100:1 to 1:1. A) 30% to 90% by weight of at least one polymer selected from the group consisting of aromatic polycarbonate and aromatic polyester carbonate, B) 5% to 65% by weight of rubber-modified vinyl (co)polymer prepared by the bulk polymerization method and which is free of epoxy groups, C) 0.5% to 10% by weight of a block or graft polymer containing structural elements deriving from styrene and at least one epoxy-containing vinyl monomer, D) 0% to 20% by weight of one or more further additives,
A nozzle element for a powder jet device intended for dental treatments, the nozzle element comprising a primary channel for guiding a powder-gas mixture along a flow direction, wherein the nozzle element comprises a first inlet region for loading a powder medium and a second inlet region for loading a gas medium, wherein the second inlet region is configured in such a way that during operation of the nozzle element, when the gas medium is introduced via the second inlet region in the primary channel, a negative pressure can be formed behind the first inlet region, as viewed in the flow direction, in order to suck in the powder medium, wherein the nozzle element comprises a gas inlet channel extending along the flow direction and providing the second inlet region, characterized in that the gas inlet channel has a length of between 1 and 15 mm.
A method of forming a cable including an elongate core and a records component, the method comprising: - incorporating the records component between layers of a flexible material, - wrapping the elongate core in the flexible material so that the records component is at least partially sandwiched by overlapping layers of the flexible material, and - covering the records component and the flexible material with a cable covering which urges the records component against the elongate core. - incorporating the records component between layers of a flexible material, - wrapping the elongate core in the flexible material so that the records component is at least partially sandwiched by overlapping layers of the flexible material, and - covering the records component and the flexible material with a cable covering which urges the records component against the elongate core.
A wind turbine comprising a drivetrain component comprising a rotating shaft with a radial seal, the radial seal comprising a stationary part and a rotating part, the stationary part comprising a ring with an inner edge and an outer edge, the inner edge being configured for contactlessly surrounding the shaft, the rotary part comprising a disc, coaxially connected to the shaft for rotation therewith and comprising a flange that wraps around the outer edge of the ring, characterized in that the radial seal further comprising an annular air lock gap for containing an amount of lubrication fluid and thereby closing off the air lock gap when the rotary part rotates at a rotational speed above a predetermined threshold speed, the annular air lock gap being formed by an inner surface of the flange, an outer part of the opposing parallel surface of the disc and the outer edge of the ring. the stationary part comprising a ring with an inner edge and an outer edge, the inner edge being configured for contactlessly surrounding the shaft, the rotary part comprising a disc, coaxially connected to the shaft for rotation therewith and comprising a flange that wraps around the outer edge of the ring, characterized in that the radial seal further comprising an annular air lock gap for containing an amount of lubrication fluid and thereby closing off the air lock gap when the rotary part rotates at a rotational speed above a predetermined threshold speed, the annular air lock gap being formed by an inner surface of the flange, an outer part of the opposing parallel surface of the disc and the outer edge of the ring.
A manufacturing method of a laminated core, comprising: - holding a laminated core body mounted on a cull plate between an upper die and a lower die which are provided in a resin filling device; - injecting a resin to a magnet-insert hole of the laminated core body from a resin reservoir part provided in the lower die through a resin injection path of the cull plate; then - ejecting the laminated core body and the cull plate from the resin filling device; then - separating the cull plate from the laminated core body; and then - ejecting the resin solidified in the resin injection path of the cull plate, wherein: - the cull plate includes at least one through hole (4; 12) which forms at least a part of the resin injection path extended from the resin reservoir part to an upper surface of the cull plate, - the at least one through hole (4; 12) of the cull plate include a tapered portion and a straight pipe portion being adjacent to the tapered portion, wherein the tapered portion has an inner diameter gradually decreasing toward the upper surface of the cull plate, and the straight pipe portion has a constant inner diameter in a height direction. - holding a laminated core body mounted on a cull plate between an upper die and a lower die which are provided in a resin filling device; - injecting a resin to a magnet-insert hole of the laminated core body from a resin reservoir part provided in the lower die through a resin injection path of the cull plate; then - ejecting the laminated core body and the cull plate from the resin filling device; then - separating the cull plate from the laminated core body; and then - ejecting the resin solidified in the resin injection path of the cull plate, - the cull plate includes at least one through hole (4; 12) which forms at least a part of the resin injection path extended from the resin reservoir part to an upper surface of the cull plate, - the at least one through hole (4; 12) of the cull plate include a tapered portion and a straight pipe portion being adjacent to the tapered portion, wherein the tapered portion has an inner diameter gradually decreasing toward the upper surface of the cull plate, and the straight pipe portion has a constant inner diameter in a height direction.
A nuclear reactor component inspecting apparatus for remotely inspecting at least one component in an annulus region of a reactor pressure vessel of a nuclear power plant, wherein the reactor pressure vessel includes a core shroud having an annular rim, the inspecting apparatus comprising: a traversing assembly, comprising: a partial track to be positioned on the annular rim of the core shroud in the reactor pressure vessel; and a clamping device structured to movably connect the partial track to the annular rim; a frame assembly, comprising: a frame; and wherein the frame assembly is movably connected to the partial track to allow the frame to move horizontally along the partial track; a first mounting assembly and a second mounting assembly comprising a movable mast assembly (124A, B) structured to deploy an inspection device (130A, B); remotely controlled motors, structured to move horizontally the partial track on the annular rim and to move horizontally the frame on the partial track; a remotely controlled track braking system structured to retain the partial track in a stationary position on the annular rim and to allow for horizontal movement of the frame assembly along the partial track; and a remotely controlled frame braking system structured to retain the frame assembly in a stationary position and to allow for horizontal movement of the partial track relative to the frame assembly. a traversing assembly, comprising: a partial track to be positioned on the annular rim of the core shroud in the reactor pressure vessel; and a clamping device structured to movably connect the partial track to the annular rim; a partial track to be positioned on the annular rim of the core shroud in the reactor pressure vessel; and a clamping device structured to movably connect the partial track to the annular rim; a frame assembly, comprising: a frame; and wherein the frame assembly is movably connected to the partial track to allow the frame to move horizontally along the partial track; a first mounting assembly and a second mounting assembly comprising a movable mast assembly (124A, B) structured to deploy an inspection device (130A, B); remotely controlled motors, structured to move horizontally the partial track on the annular rim and to move horizontally the frame on the partial track; a remotely controlled track braking system structured to retain the partial track in a stationary position on the annular rim and to allow for horizontal movement of the frame assembly along the partial track; and a remotely controlled frame braking system structured to retain the frame assembly in a stationary position and to allow for horizontal movement of the partial track relative to the frame assembly.
A hard surface cleaning composition comprising: (a) an acidic component; (b) a surfactant selected from the group consisting of nonionic surfactants, anionic surfactants, cationic surfactants; amphoteric surfactants, zwitterionic surfactants, and mixtures thereof; and (c) a surface modifying polymer; (d) an aqueous carrier characterized in that the composition further comprises: (e) a malodor control component comprising an effective amount of two or more volatile aldehydes for neutralizing a malodor, wherein said two or more volatile aldehydes are selected from the group consisting of 2-ethoxy benzylaldehyde, 2-isopropyl-5-methyl-2-hexenal, 5-methylfuran-2-carbaldehyde (5-methyl furfural), -3-Phenylprop-2-enal (cinnamic aldehyde), -4,8-dimethyldeca-4,9-dienal (floral superTM), 3-(3-isopropylphenyl)butyraldehyde (florhydral), 2-methoxybenzaldehyde (o-anisaldehyde), 3-(7,7-dimethyl-4-bicyclo[3.1.1]hept-3-enyl)propanal (pino acetaldehyde), trans-4-decenal, and mixtures thereof; and wherein said two or more volatile aldehydes are present in an amount from 0.015% to 1%, by weight of said hard surface cleaning composition; and wherein the composition has a pH of above 2.0, as is measured at 25°C. (a) an acidic component; (b) a surfactant selected from the group consisting of nonionic surfactants, anionic surfactants, cationic surfactants; amphoteric surfactants, zwitterionic surfactants, and mixtures thereof; and (c) a surface modifying polymer; (d) an aqueous carrier characterized in that the composition further comprises: (e) a malodor control component comprising an effective amount of two or more volatile aldehydes for neutralizing a malodor, wherein said two or more volatile aldehydes are selected from the group consisting of 2-ethoxy benzylaldehyde, 2-isopropyl-5-methyl-2-hexenal, 5-methylfuran-2-carbaldehyde (5-methyl furfural), -3-Phenylprop-2-enal (cinnamic aldehyde), -4,8-dimethyldeca-4,9-dienal (floral superTM), 3-(3-isopropylphenyl)butyraldehyde (florhydral), 2-methoxybenzaldehyde (o-anisaldehyde), 3-(7,7-dimethyl-4-bicyclo[3.1.1]hept-3-enyl)propanal (pino acetaldehyde), trans-4-decenal, and mixtures thereof; and
A product cartridge for a radionuclide comprising: a product vial having a permeable cap and surrounded by a radiation shield; and a filling cartridge having a separate radiation shield, the filling cartridge is supported adjacent the permeable cap by coupling the radiation shield of the filling cartridge to the radiation shield of the product vial, the filling cartridge is moveable within the radiation shield of the filling cartridge to engage and pierce the permeable cap during filling of the product vial, the filling cartridge includes an aperture on an end opposite the product vial that receives a radionuclide, a scavenger adapted to remove heavy metals from the radionuclide and a filter adapted to filter biological contaminants when the radionuclide flows from the aperture through the filling cartridge and into the product vial. a product vial having a permeable cap and surrounded by a radiation shield; and a filling cartridge having a separate radiation shield, the filling cartridge is supported adjacent the permeable cap by coupling the radiation shield of the filling cartridge to the radiation shield of the product vial, the filling cartridge is moveable within the radiation shield of the filling cartridge to engage and pierce the permeable cap during filling of the product vial, the filling cartridge includes an aperture on an end opposite the product vial that receives a radionuclide, a scavenger adapted to remove heavy metals from the radionuclide and a filter adapted to filter biological contaminants when the radionuclide flows from the aperture through the filling cartridge and into the product vial.
An energy storage system comprising: an energy storage device; a bidirectional inverter configured to control a flow of power into or out of the energy storage device via a plurality of phases; and a controller configured to control the bidirectional inverter based on a load condition on one or more of the plurality of phases, wherein the controller is configured to control the bidirectional inverter to store power generated by a generator set in the energy storage device and transmit power from the energy storage device to a load driven by the generator set in response to detecting a load imbalance between the plurality of phases; and wherein the controller is further configured to: detect the load imbalance upstream of a local power grid on a first phase of the plurality of phases, characterized in being configured to transmit a signal to a transfer switch configured to disconnect the first phase of the local power grid from a power grid upstream of the local power grid in response to receiving the signal while maintaining connections of at least one other phase of the plurality of phases, and provide power on the first phase using power from the energy storage device or one or more second phases of the plurality of phases. an energy storage device; a bidirectional inverter configured to control a flow of power into or out of the energy storage device via a plurality of phases; and a controller configured to control the bidirectional inverter based on a load condition on one or more of the plurality of phases, wherein the controller is configured to control the bidirectional inverter to store power generated by a generator set in the energy storage device and transmit power from the energy storage device to a load driven by the generator set in response to detecting a load imbalance between the plurality of phases; and wherein the controller is further configured to: detect the load imbalance upstream of a local power grid on a first phase of the plurality of phases, characterized in being configured to transmit a signal to a transfer switch configured to disconnect the first phase of the local power grid from a power grid upstream of the local power grid in response to receiving the signal while maintaining connections of at least one other phase of the plurality of phases, and provide power on the first phase using power from the energy storage device or one or more second phases of the plurality of phases. detect the load imbalance upstream of a local power grid on a first phase of the plurality of phases, characterized in being configured to transmit a signal to a transfer switch configured to disconnect the first phase of the local power grid from a power grid upstream of the local power grid in response to receiving the signal while maintaining connections of at least one other phase of the plurality of phases, and provide power on the first phase using power from the energy storage device or one or more second phases of the plurality of phases.
Military utility vehicle having all wheel drive and only one steerable axle having wheels (1, 2), having a steering system having a steering circuit that is formed from a steering gear that acts via transmission elements (5, 6) upon one of the wheels when a steering element is actuated, wherein a further steering circuit is provided by means of integrating an auxiliary element that acts upon the other wheel in such a manner that said auxiliary element supports the wheel movement of the first steering circuit, as a result of which a steering system is provided that actuates both sides.
A mobile communication system comprising: a mobile station; a first Mobility Management Entity, MME, or a first Serving GPRS Support Node, SGSN; a second MME or a second SGSN; and a Mobile Switching Center / Visited Location Register, MSC/VLR (301,..., 30n); wherein said mobile station is configured to obtain, from said MSC/VLR (301,..., 30n) via said first MME or the first SGSN, a Network Resource Identifier, NRI, indicating said MSC/VLR (301,..., 30n); wherein said mobile station is configured to transmit a Tracking area update request message or a Routing area update request message including said NRI to said second MME or said second SGSN, respectively; and wherein said second MME or said second SGSN is configured to select, based on said NRI, said MSC/VLR (301,..., 30n) in order to make a request for location registration to said MSC/VLR (301,..., 30n). a mobile station; a first Mobility Management Entity, MME, or a first Serving GPRS Support Node, SGSN; a second MME or a second SGSN; and a Mobile Switching Center / Visited Location Register, MSC/VLR (301,..., 30n); wherein said mobile station is configured to obtain, from said MSC/VLR (301,..., 30n) via said first MME or the first SGSN, a Network Resource Identifier, NRI, indicating said MSC/VLR (301,..., 30n); wherein said mobile station is configured to transmit a Tracking area update request message or a Routing area update request message including said NRI to said second MME or said second SGSN, respectively; and wherein said second MME or said second SGSN is configured to select, based on said NRI, said MSC/VLR (301,..., 30n) in order to make a request for location registration to said MSC/VLR (301,..., 30n).