mhurhangee/ep-ind-claims huggingface dataset:
A system for the further treatment of hollow body preforms produced by injection molding, comprising i) a receiving plate having at least one receiving cavity for receiving a preform, ii) a post-treatment plate which has a) at least one impression pin provided for changing the internal contour of the preform by either coming into contact with the inside of the preform during the post-treatment or closing the preform and acting on the inside space with a fluid under pressure, whereby the preform is inflated, wherein the post-treatment plate is characterized in that b) at least one post-treatment element (7, 8) which is provided for passing into the interior of a preform received in the receiving cavity or coming into contact with the preform, and iii) a movement device with which the receiving plate can be reciprocated relative to the post-treatment plate between a first position in which the impression pin is positioned within the receiving cavity, a second position in which the post-treatment element (7, 8) is positioned within the receiving cavity or comes into contact with a preform received therein, and a third position in which neither the impression pin nor the post-treatment element (7, 8) is positioned within the receiving cavity or comes into contact with a preform received therein. i) a receiving plate having at least one receiving cavity for receiving a preform, ii) a post-treatment plate which has a) at least one impression pin provided for changing the internal contour of the preform by either coming into contact with the inside of the preform during the post-treatment or closing the preform and acting on the inside space with a fluid under pressure, whereby the preform is inflated, wherein the post-treatment plate is characterized in that b) at least one post-treatment element (7, 8) which is provided for passing into the interior of a preform received in the receiving cavity or coming into contact with the preform, and a) at least one impression pin provided for changing the internal contour of the preform by either coming into contact with the inside of the preform during the post-treatment or closing the preform and acting on the inside space with a fluid under pressure, whereby the preform is inflated, wherein the post-treatment plate is characterized in that b) at least one post-treatment element (7, 8) which is provided for passing into the interior of a preform received in the receiving cavity or coming into contact with the preform, and iii) a movement device with which the receiving plate can be reciprocated relative to the post-treatment plate between a first position in which the impression pin is positioned within the receiving cavity, a second position in which the post-treatment element (7, 8) is positioned within the receiving cavity or comes into contact with a preform received therein, and a third position in which neither the impression pin nor the post-treatment element (7, 8) is positioned within the receiving cavity or comes into contact with a preform received therein.
A method for blocking an optical lens component on a holding unit comprising a bottom part to be inserted and fixed in a lens machining tool and an upper part comprising an upper assembling surface and external side parts, said method comprising steps of: - providing the optical lens component with a layer consisting of a one-side adhesive tape arranged on a bottom surface of said optical lens component such as the adhesive tape side covers at least partially said bottom surface; - providing a thermoplastic material arranged on the upper assembling surface, wherein the thermoplastic material is heated to a temperature at which at least a part of the thermoplastic material flows under moderate pressure; - placing the optical lens component with the layer on the thermoplastic material when the thermoplastic material is soften or melted; - applying a first pushing force on the optical lens component, such as the soften or melted thermoplastic material spreads between said layer and the upper assembling surface and covers at least partially said external side parts, wherein when the thermoplastic material is hardened, said spread thermoplastic material forms a flange which is mechanically fastened to the holding unit and which is also adhesively fastened to said layer, wherein the external side parts of the holding unit and the flange are such that the hardened thermoplastic material is separated from the lens holding unit applying uniformly a pressure on the flange during the deblocking of an optical lens component from the lens holding unit. - providing the optical lens component with a layer consisting of a one-side adhesive tape arranged on a bottom surface of said optical lens component such as the adhesive tape side covers at least partially said bottom surface; - providing a thermoplastic material arranged on the upper assembling surface, wherein the thermoplastic material is heated to a temperature at which at least a part of the thermoplastic material flows under moderate pressure; - placing the optical lens component with the layer on the thermoplastic material when the thermoplastic material is soften or melted; - applying a first pushing force on the optical lens component, such as the soften or melted thermoplastic material spreads between said layer and the upper assembling surface and covers at least partially said external side parts, wherein when the thermoplastic material is hardened, said spread thermoplastic material forms a flange which is mechanically fastened to the holding unit and which is also adhesively fastened to said layer,
A wind turbine comprising: at least one pitchable wind turbine blade mounted to a hub, the blade having a root end, a tip end and a longitudinal axis extending between the root end and the tip end, and an aerofoil surface defined by a pressure side and a suction side; and a movable fin mounted at the tip end of the blade, wherein the fin is deployed into a first position in dependence on the pitch position of the blade and when the wind turbine is in a non-operational mode; characterised in that in the first position the fin extends in a direction substantially aligned with the longitudinal axis of the blade and is arranged in a plane which is substantially perpendicular to an edgewise axis of the blade at the tip end, such that the fin acts as an aerodynamic stabilizer to reduce the effects of edgewise vibrations on the blade. at least one pitchable wind turbine blade mounted to a hub, the blade having a root end, a tip end and a longitudinal axis extending between the root end and the tip end, and an aerofoil surface defined by a pressure side and a suction side; and a movable fin mounted at the tip end of the blade, wherein the fin is deployed into a first position in dependence on the pitch position of the blade and when the wind turbine is in a non-operational mode; characterised in that in the first position the fin extends in a direction substantially aligned with the longitudinal axis of the blade and is arranged in a plane which is substantially perpendicular to an edgewise axis of the blade at the tip end, such that the fin acts as an aerodynamic stabilizer to reduce the effects of edgewise vibrations on the blade.
A method performed by a base station in a wireless communication system, the method comprising: transmitting, to a user equipment, UE, information associated with an enhanced physical downlink control channel, wherein the enhanced physical downlink control channel is transmitted in a plurality of search spaces with respective timelines, wherein a first enhanced physical downlink control channel of a first search space among the plurality of search spaces is configured with a first timeline and is for scheduling uplink resource, and wherein a second enhanced physical downlink control channel of a second search space among the plurality of search spaces is configured with a second timeline different from the first timeline and is for scheduling downlink resource, and transmitting to the UE timeline configuration regarding a periodicity P of subframes and an offset n s0 of the subframes; and repeatedly transmitting, to the UE, downlink control information, DCI, in subframes with index n s located in a frame over the enhanced physical downlink control channel, wherein the frame includes D subframes and has a system frame number Z, and wherein the subframe index is determined based on (D · Z + n s - n s 0) modP = 0. transmitting, to a user equipment, UE, information associated with an enhanced physical downlink control channel, wherein the enhanced physical downlink control channel is transmitted in a plurality of search spaces with respective timelines, wherein a first enhanced physical downlink control channel of a first search space among the plurality of search spaces is configured with a first timeline and is for scheduling uplink resource, and wherein a second enhanced physical downlink control channel of a second search space among the plurality of search spaces is configured with a second timeline different from the first timeline and is for scheduling downlink resource, and transmitting to the UE timeline configuration regarding a periodicity P of subframes and an offset n s0 of the subframes; and repeatedly transmitting, to the UE, downlink control information, DCI, in subframes with index n s located in a frame over the enhanced physical downlink control channel, wherein the frame includes D subframes and has a system frame number Z, and wherein the subframe index is determined based on (D · Z + n s - n s 0) modP = 0.
Dendritic polymers of generation n consisting of: - a central core of valence m; - optionally generation chains branching around the core; - an intermediate chain at the end of each bond around the core or at the end of each generation chain, where appropriate; and - a terminal group at the end of each intermediate chain, wherein m represents an integer from 3 to 8; n represents an integer from 0 to 12, characterised in that the terminal group is consisting of the group of formula: wherein each of the radicals X, which may be identical or different, represents a radical -Me, -H and/or -M +, wherein M + is a cation, with the exception of the compounds of formula: CH 3 -CH 2 -C[CH 2 O-C(OSiMe 3)=CH-CH 2 -P(=O)- 2] 3 CH 3 -CH 2 -C[CH 2 O-C(OSi Me 3)=CH-CH 2 -P(=O)-(OSiMe 3) 2] 3 CH 3 -CH 2 -C[CH 2 O-C =CH-CH 2 -P(=O)- 2] 3. - a central core of valence m; - optionally generation chains branching around the core; - an intermediate chain at the end of each bond around the core or at the end of each generation chain, where appropriate; and - a terminal group at the end of each intermediate chain,
A steam network assembly for a plant comprising an ammonia-producing unit and a urea-producing unit, comprising a high-pressure steam line, two medium-pressure steam lines (2, 3) and a first and second turbine (10, 12) connected to the high-pressure steam line for supplying both with high-pressure steam; wherein the first turbine supplied with high-pressure steam by the high-pressure steam line is a condensing-type turbine with extraction into one of the two medium-pressure steam lines, and is configured to deliver power to a syngas compressor in the ammonia-producing unit of the plant; characterized in that the second turbine supplied with high-pressure steam by the high-pressure steam line is a counter-pressure type turbine with extraction connected to the two medium-pressure steam lines (2, 3) and is configured to deliver power to a carbon dioxide (CO 2) compressor in the urea-producing unit of the plant. wherein the first turbine supplied with high-pressure steam by the high-pressure steam line is a condensing-type turbine with extraction into one of the two medium-pressure steam lines, and is configured to deliver power to a syngas compressor in the ammonia-producing unit of the plant; characterized in that the second turbine supplied with high-pressure steam by the high-pressure steam line is a counter-pressure type turbine with extraction connected to the two medium-pressure steam lines (2, 3) and is configured to deliver power to a carbon dioxide (CO 2) compressor in the urea-producing unit of the plant.
A computer-implemented method for characterising a fault in a transmission line network, the method comprising the steps of: - obtaining a first measured time reflectogram R m from a signal previously injected into the cable network, - obtaining a second time reflectogram R s corresponding to the transmission line network in the absence of faults, - determining the time difference R ref between the first measured time reflectogram R m and the second time reflectogram R s, - identifying, in said time difference R ref, an amplitude peak characterising the presence of a fault and its time abscissa indicating the position of the fault, - simulating a plurality of time reflectogram hypotheses each corresponding to said cable network comprising a fault at said identified position, each hypothesis being associated with a different value of at least one parameter characteristic of the fault, - selecting the time reflectogram hypothesis closest to said time difference R ref, - characterising the fault from the at least one characteristic parameter associated with the selected hypothesis. - obtaining a first measured time reflectogram R m from a signal previously injected into the cable network, - obtaining a second time reflectogram R s corresponding to the transmission line network in the absence of faults, - determining the time difference R ref between the first measured time reflectogram R m and the second time reflectogram R s, - identifying, in said time difference R ref, an amplitude peak characterising the presence of a fault and its time abscissa indicating the position of the fault, - simulating a plurality of time reflectogram hypotheses each corresponding to said cable network comprising a fault at said identified position, each hypothesis being associated with a different value of at least one parameter characteristic of the fault, - selecting the time reflectogram hypothesis closest to said time difference R ref, - characterising the fault from the at least one characteristic parameter associated with the selected hypothesis.
A grain-oriented electrical steel sheet comprising: a steel substrate; a forsterite film on a surface of the steel substrate; and a Cr-depleted layer at a boundary between the steel substrate and the forsterite film, the Cr-depleted layer having a Cr concentration that is 0.70 times to 0.90 times the Cr concentration of the steel substrate, wherein the steel substrate contains Cr: 0.02 mass% or more and 0.20 mass% or less. a steel substrate; a forsterite film on a surface of the steel substrate; and a Cr-depleted layer at a boundary between the steel substrate and the forsterite film, the Cr-depleted layer having a Cr concentration that is 0.70 times to 0.90 times the Cr concentration of the steel substrate, wherein the steel substrate contains Cr: 0.02 mass% or more and 0.20 mass% or less.
An electrical applicator device (10, 102, 610, 810, 1210), the device comprising: a braided or woven body having a distal end and a proximal end; an inner deployment member (16, 816, 916, 1216) extending within the braided or woven body and coupled to a distal attachment site of the braided or woven body, wherein the inner deployment member is configured to be movable to invert a distal end region (34, 834) of the braided or woven body to form a funnel shape (32, 55) having a distal-facing outer region; a first electrode (30, 1030, 1330) formed at least partially around the distal-facing outer region of the inverted funnel shape; and a second electrode (40, 1030', 1340) configured to contact tissue to be ablated and positioned at least partially within an opening of the funnel shape when the braided or woven body is inverted. a braided or woven body having a distal end and a proximal end; an inner deployment member (16, 816, 916, 1216) extending within the braided or woven body and coupled to a distal attachment site of the braided or woven body, wherein the inner deployment member is configured to be movable to invert a distal end region (34, 834) of the braided or woven body to form a funnel shape (32, 55) having a distal-facing outer region; a first electrode (30, 1030, 1330) formed at least partially around the distal-facing outer region of the inverted funnel shape; and a second electrode (40, 1030', 1340) configured to contact tissue to be ablated and positioned at least partially within an opening of the funnel shape when the braided or woven body is inverted.
A device for facilitating the interchangeability of electrical pool appliances (90, 100, 120, 130 or 140) for use in an above ground pool, the above ground pool has a pool wall separating a wet side from a dry side, the device comprises: a housing adapted for location proximate the pool wall, a portion of the housing extends into the dry side and a portion extends into the wet side, the portion of the housing extending into the dry side is adapted to receive an electrical power supply for powering electrical pool appliances, the housing includes a means for transmitting electrical power from the dry side to the wet side; the portion of the housing on the wet side defines a receptacle which is adapted to be releasably connected to one of a plurality of pool appliances (90, 100, 120, 130 or 140) that require electrical power; and a structural means (62, 64, 66) for fixing the housing to the pool wall, characterized in that the receptacle is adapted to exchange pool appliances (90, 100, 120, 130 or 140) underwater and the housing is adapted to transmit electrical power from a power head through the pool wall so as to provide an electrical connection with a pool appliance upon connection to the receptacle.
A cable with a hollow core which is suited for transporting fluids for subsea operations at big sea depths and in corrosive environments, the cable comprising: - the hollow core made of a tube-shaped non-metallic material; - a first inner armouring layer wounded helically onto the core, and at least a second armouring layer wounded onto the first inner armouring layer, where each armouring layer is laid counter-helically on each other for providing radial reinforcement of the core, and wherein wires of the second armouring layer have a different diameter than wires of the first armouring layer; third armouring layer wounded counter helically onto the second armouring layer, and said third armouring layer comprises insulated conductors mixed with stranded wires; - an outer protective non-corrosive sheath covering said armouring layers (30, 40, 50). - the hollow core made of a tube-shaped non-metallic material; - a first inner armouring layer wounded helically onto the core, and at least a second armouring layer wounded onto the first inner armouring layer, where each armouring layer is laid counter-helically on each other for providing radial reinforcement of the core, and wherein wires of the second armouring layer have a different diameter than wires of the first armouring layer; third armouring layer wounded counter helically onto the second armouring layer, and said third armouring layer comprises insulated conductors mixed with stranded wires; - an outer protective non-corrosive sheath covering said armouring layers (30, 40, 50).
A device for detecting that a fuel tank cap of a vehicle's fuel tank having a tank neck is opened, which consists of at least one radio beacon and at least one base station, in which the radio beacon is arranged inside the fuel tank within a shield insert, which has a grid-like cylindrical metallic structure, in the tank neck and the detection that the fuel tank cap is opened takes place by interrupting the shield between beacon and base station, which consists of fuel tank wall and fuel tank cap and the decrease in the path attenuation accompanying it, which is detected by the base station by means of an apparatus for measuring the received signal strength.
An automated welding system comprising: a mounting platform configured to receive an object; a welding tool; an imaging device configured to acquire at least one image associated with the object; and a controller configured to: receive the at least one acquired image; analyze a plurality of pixels in the at least one acquired image; characterized in that the controller is further configured to: compare a pattern defined by the plurality of pixels in the at least one acquired image to predefined patterns of pixels stored in a database; determine whether the plurality of pixels in the at least one acquired image match at least one of the predefined patterns of pixels stored in the database; designate areas of the plurality of pixels in the at least one acquired image that match at least one of the predefined patterns of pixels as an area to be excluded from welding and areas of the plurality of pixels that do not match at least one of the predefined patterns of pixels as an area to be welded; and generate, based upon the designation, control instructions for controlling at least one of said mounting platform and said welding tool to weld the area to be welded. a mounting platform configured to receive an object; a welding tool; an imaging device configured to acquire at least one image associated with the object; and a controller configured to: receive the at least one acquired image; analyze a plurality of pixels in the at least one acquired image; receive the at least one acquired image; analyze a plurality of pixels in the at least one acquired image; characterized in that the controller is further configured to: compare a pattern defined by the plurality of pixels in the at least one acquired image to predefined patterns of pixels stored in a database; determine whether the plurality of pixels in the at least one acquired image match at least one of the predefined patterns of pixels stored in the database; designate areas of the plurality of pixels in the at least one acquired image that match at least one of the predefined patterns of pixels as an area to be excluded from welding and areas of the plurality of pixels that do not match at least one of the predefined patterns of pixels as an area to be welded; and generate, based upon the designation, control instructions for controlling at least one of said mounting platform and said welding tool to weld the area to be welded. compare a pattern defined by the plurality of pixels in the at least one acquired image to predefined patterns of pixels stored in a database; determine whether the plurality of pixels in the at least one acquired image match at least one of the predefined patterns of pixels stored in the database; designate areas of the plurality of pixels in the at least one acquired image that match at least one of the predefined patterns of pixels as an area to be excluded from welding and areas of the plurality of pixels that do not match at least one of the predefined patterns of pixels as an area to be welded; and generate, based upon the designation, control instructions for controlling at least one of said mounting platform and said welding tool to weld the area to be welded.