mhurhangee/ep-ind-claims huggingface dataset:
Method for welding a localized area of a rail or a switch gear, the method including the following steps: - positioning along at least one rail or one switch gear an electric arc welding automat, said automat including a frame and a welding torch supplied with core welding wire, said torch being provided with means (54, 56) of displacement in the direction of at least two dimensions with respect to the frame; - placing the torch into a position of reference (Po) with respect to the area to be welded; - in a reference system having at least two dimensions (X, Y), storing space coordinates of points forming at least two polygons defining at least two distinct working surfaces (42, 43, 44) inside the area to be welded; - starting a welding program inducing a displacement of the torch with respect to the frame, so as to intervene successively on all said distinct working surfaces, the method being characterized in that, during the welding operation, the displacement of the torch is such that: - the torch successively deposits a first weld seam (45, 47) onto each distinct working surface (42, 43, 44); - then the torch successively deposits another weld seam onto each said working surface not yet entirely covered; said last step being repeated as long as at least one of the working surfaces is not entirely covered. - positioning along at least one rail or one switch gear an electric arc welding automat, said automat including a frame and a welding torch supplied with core welding wire, said torch being provided with means (54, 56) of displacement in the direction of at least two dimensions with respect to the frame; - placing the torch into a position of reference (Po) with respect to the area to be welded; - in a reference system having at least two dimensions (X, Y), storing space coordinates of points forming at least two polygons defining at least two distinct working surfaces (42, 43, 44) inside the area to be welded; - starting a welding program inducing a displacement of the torch with respect to the frame, so as to intervene successively on all said distinct working surfaces, - the torch successively deposits a first weld seam (45, 47) onto each distinct working surface (42, 43, 44); - then the torch successively deposits another weld seam onto each said working surface not yet entirely covered;
An insulating thermally conductive resin composition, comprising: a matrix resin; insulators which are dispersed in the matrix resin and have electrical insulation; and a thermally conductive phase which has a higher thermal conductivity than the matrix resin, thermally connects the insulators, and is composed of an organic substance, wherein the organic substance constituting the thermally conductive phase has a thermal conductivity of not less than 0.3 W/(m·K), wherein the matrix resin has a phase-separated structure including: a first resin phase in which a first resin continues three-dimensionally; and a second resin phase different from the first resin phase and formed of a second resin, and the first resin phase is composed of one of thermosetting resin and thermoplastic resin while the second resin phase is composed of the other one of thermosetting resin and thermoplastic resin, and wherein the insulators and the thermally conductive phase are unevenly distributed in the first resin phase. a matrix resin; insulators which are dispersed in the matrix resin and have electrical insulation; and a thermally conductive phase which has a higher thermal conductivity than the matrix resin, thermally connects the insulators, and is composed of an organic substance, wherein the organic substance constituting the thermally conductive phase has a thermal conductivity of not less than 0.3 W/(m·K), wherein the matrix resin has a phase-separated structure including: a first resin phase in which a first resin continues three-dimensionally; and a second resin phase different from the first resin phase and formed of a second resin, and the first resin phase is composed of one of thermosetting resin and thermoplastic resin while the second resin phase is composed of the other one of thermosetting resin and thermoplastic resin, and wherein the insulators and the thermally conductive phase are unevenly distributed in the first resin phase.
A wearable article continuous in a longitudinal direction and a transverse direction, comprising a main body and an elastic belt comprising a front belt and a back belt, the main body being continuous with the front belt and the back belt, and the transverse edges of the front belt and the back belt are joined by a seam to form a waist opening and two leg openings, wherein each of the front belt and back belt are formed by an inner sheet, an outer sheet, and a plurality of elastic bodies sandwiched therebetween, wherein at least some of the elastic bodies run in the transverse direction substantially parallel to each other, wherein according to the Material Circumference Measurement and the Whole Article Force Measurement herein, the Belt Utilization is no less than 92%, and the Fit Circumference Force is greater than 2.0N; wherein the front belt and the back belt form a ring-like elastic belt, the center of the front belt is joined to a front waist panel of the main body, the center of the back belt is joined to a back waist panel of the main body, the front and back belt (84, 86) each having a left side panel and a right side panel where the main body does not overlap, wherein all of the elastic bodies sandwiched between the inner sheet and the outer sheet run in the transverse direction substantially parallel to each other, characterized in that the entirety of the length of the belt side edge of the front belt is seamed with a certain length of the belt side edge of the back belt to define a seam length LS; the front and back belts (84, 86) each divided into 4 zones extending in the transverse direction and defined by its location from the distal edge to the proximal edge relative to the percentage of the seam length LS wherein 0-25% is a waist zone, 25-50% is a distal tummy zone, 50-85% is a proximal tummy zone, and 85-100% is a leg zone, wherein the tensile stress of the front proximal tummy zone is higher than the tensile stress of any other zone, and no less than 200% of the tensile stress of the front distal tummy zone, and wherein each of the elastic bodies on the front proximal tummy zone are disposed at an elongation of from 150% to 250%.
An aluminate fluorescent material having a composition containing a first element that contains one or more elements selected from Ba and Sr, and a second element that contains Mg and Mn, wherein: in the composition of the aluminate fluorescent material, when the molar ratio of Al is taken as 10, the total molar ratio of the first element is a value of a parameter a, the total molar ratio of the second element is a value of a parameter b, the molar ratio of Sr is a product of a value of a parameter m and the value of the parameter a, the molar ratio of Mn is a product of a value of a parameter n and the value of the parameter b, the value of the parameters a and b satisfy the following requirement, the value of the parameter m satisfies the following requirement, and the value of the parameter n satisfies the following requirement: 0.5 < b < a ≤ 0.5 b + 0.5 < 1.0 0 ≤ m ≤ 1.0 and 0.4 ≤ n ≤ 0.7 in the composition of the aluminate fluorescent material, when the molar ratio of Al is taken as 10, the total molar ratio of the first element is a value of a parameter a, the total molar ratio of the second element is a value of a parameter b, the molar ratio of Sr is a product of a value of a parameter m and the value of the parameter a, the molar ratio of Mn is a product of a value of a parameter n and the value of the parameter b, the value of the parameters a and b satisfy the following requirement, the value of the parameter m satisfies the following requirement, and the value of the parameter n satisfies the following requirement: 0.5 < b < a ≤ 0.5 b + 0.5 < 1.0 0 ≤ m ≤ 1.0 and 0.4 ≤ n ≤ 0.7
A force sensor for measuring magnitude of a contact force exerted by a surface of a vessel wall or an organ on a distal portion of a catheter, the force sensor comprising an elastic tube (210, 310, 410, 510) and at least one strain gauge (220, 430), the elastic tube (210, 310, 410, 510) having a hollow portion formed in a wall thereof, the strain gauge (220, 430) having no overlap with the hollow portion, wherein the hollow portion comprises at least one arcuate first through-slot, each first through-slot having opposing ends between which one strain gauge (220, 430) is arranged or a plurality of strain gauges (220, 430) are arranged side-by-side.
An annular barrier system connected with a well head via a well tubular structure, comprising: - a first annular barrier and a second annular barrier to be expanded in an annulus between the well tubular structure and an inside wall of a casing or a borehole downhole for providing zone isolation between a first zone and a second zone, each annular barrier comprising: - a tubular part extending in a longitudinal direction for mounting as part of the well tubular structure; - an expandable sleeve surrounding the tubular part and defining a space; - an opening for letting fluid into the space to expand the sleeve; and - a first connection part and a second connection part connecting the expandable sleeve with the tubular part, and wherein the first connection part is arranged nearest to the well head, the system further comprising a flow line fluidly connecting the well head with the opening for supplying fluid to the opening for expanding the expandable sleeve, and the second connection part of the first annular barrier having a second opening and the second opening of the second connection part being fluidly connected with an opening arranged in the first connection part of the second annular barrier via a second flow line part for expanding the expandable sleeve of the second annular barrier, characterised in that a second valve is arranged in the second opening, the second valve being a two-way valve which, at a predetermined pressure, disconnects communication to the second annular barrier and opens fluid communication to an annular space between the annular barriers in their expanded condition to pressurise the annular space. - a first annular barrier and a second annular barrier to be expanded in an annulus between the well tubular structure and an inside wall of a casing or a borehole downhole for providing zone isolation between a first zone and a second zone, each annular barrier comprising: - a tubular part extending in a longitudinal direction for mounting as part of the well tubular structure; - an expandable sleeve surrounding the tubular part and defining a space; - an opening for letting fluid into the space to expand the sleeve; and - a first connection part and a second connection part connecting the expandable sleeve with the tubular part, and wherein the first connection part is arranged nearest to the well head, - a tubular part extending in a longitudinal direction for mounting as part of the well tubular structure; - an expandable sleeve surrounding the tubular part and defining a space; - an opening for letting fluid into the space to expand the sleeve; and - a first connection part and a second connection part connecting the expandable sleeve with the tubular part, and wherein the first connection part is arranged nearest to the well head,
An interior permanent magnet synchronous motor having a stator with a cylindrical core with stator coils installed in the stator core, said motor further having an internal rotor rotatably disposed inside the stator and having embedded arc-shaped permanent magnets wherein the stator core comprises stator teeth having flange portions extending in opposite circumferential directions along an air gap between said stator and rotor, the rotor comprises rotor cavities on outer circumferential portions facing said air gap between said stator and rotor and, the stator teeth comprise stator cavities in the middle of said two flange portions of each stator tooth facing said air gap between said stator and rotor characterized in that; the rotor cavities are positioned at equal distance from closest parts of two neighboring arc-shaped permanent magnets on opposite sides, the stator and rotor cavities (6, 5) are arranged such that the stator cavity is associated with a first length in the form of a first radius of curvature of an elliptic cross-section stator cavity and the rotor cavity is associated with a second length in the form of a second radius of curvature of an elliptic cross-section rotor cavity wherein said first radius of curvature is greater than said second radius of curvature.
The gripper jaw assembly comprising at least two adjacent pairs of jaws for use in preform transfer grippers (TGs), each jaw comprising an end to be attached to the gripper and a free end, where each first jaw of the at least two adjacent pairs of jaws comprises at least one recess made in the portion of interaction of each first jaw with a preform, and each second jaw of the at least two adjacent pairs of jaws comprises at least one recess made in the portion of each second jaw interacting with the preform characterized in that at least one recess (1.111, 1.111', 1.111", 1.111′′′, 1.111ʺʺ, 1.111′′′ʺ) of the first jaw (1.1, 1.1', 1.1", 1.1 ′′′, 1.1ʺʺ, 1.1′′′ʺ) of one pair of jaws interacts with at least one recess (1.211, 1.211', 1.211", 1.211 ′′′, 1.211 ʺʺ, 1.211′′′ʺ) of the second jaw (1.2, 1.2', 1.2", 1.2′′′, 1.2ʺʺ, 1.2′′′ʺ) of adjacent pair of jaws and at least one recess (1.211, 1.211', 1.211", 1.211 ′′′, 1.211 ʺʺ, 1.211′′′ʺ) of the second jaw (1.2, 1.2', 1.2", 1.2 ′′′, 1.2ʺʺ, 1.2′′′ʺ) of one pair of jaws interacts with at least one recess (1.111, 1.111', 1.111", 1.111′′′, 1.111ʺʺ, 1.111′′′ʺ) of the first jaw (1.1, 1.1', 1.1", 1.1′′′, 1.1 ʺʺ, 1.1′′′ʺ) of adjacent pair of jaws so that when two adjacent pairs are in open state, the first jaw (1.1, 1.1', 1.1", 1.1 ′′′, 1.1 ʺʺ, 1.1′′′ ʺ) of one pair of jaws at least partially overlaps with the second jaw (1.2, 1.2', 1.2", 1.2"', 1.2ʺʺ, 1.2 ′′′ʺ) of another adjacent pair of jaws and the second jaw (1.2, 1.2', 1.2", 1.2′′′, 1.2ʺʺ, 1.2 ʺʺ′) of one pair of jaws at least partially overlaps with the first jaw (1.1, 1.1', 1.1", 1.1 ′′′, 1.1 ʺʺ) of another adjacent pair of jaws when both said jaws pass each other.
A fuel injection device comprising: a fuel injection valve for injecting fuel; a pressure sensor provided to the fuel injection valve and configured to output a detection signal correspondingly to pressure of the fuel; and a storage unit storing individual difference information, which indicates an output characteristic of the detection signal, the output characteristic being obtained by an examination, which is performed before a shipment of the fuel injection valve, the examination consisting in measuring the characteristics for each injector resulting from test-injection, wherein a test pressure is actually applied to the pressure sensor in the examination, characterized in that a change in detection signal is attributed to a change in test pressure, and the individual difference information stored in the storage unit indicates a relationship between the change in test pressure and the change in detection signal. a fuel injection valve for injecting fuel; a pressure sensor provided to the fuel injection valve and configured to output a detection signal correspondingly to pressure of the fuel; and a storage unit storing individual difference information, which indicates an output characteristic of the detection signal, the output characteristic being obtained by an examination, which is performed before a shipment of the fuel injection valve, the examination consisting in measuring the characteristics for each injector resulting from test-injection, wherein a test pressure is actually applied to the pressure sensor in the examination, characterized in that a change in detection signal is attributed to a change in test pressure, and the individual difference information stored in the storage unit indicates a relationship between the change in test pressure and the change in detection signal.
An alternate reactor pressure vessel, RPV, energy removal system, comprising: a steam extraction line, fluidly connected to a RPV and a heat sink, the heat sink being located outside of primary containment; characterised in that: the system further comprises a first and a second manually operated containment isolation valve in the steam extraction line, the first containment isolation valve being located within the primary containment, the second containment isolation valve being located outside of the primary containment; at least one pressurized gas source connected to the first and second containment isolation valves via a pressure control line, the at least one pressurized gas source being configured to produce pressurized gas to manually open and close the first and second containment isolation valves. a steam extraction line, fluidly connected to a RPV and a heat sink, the heat sink being located outside of primary containment; characterised in that: the system further comprises a first and a second manually operated containment isolation valve in the steam extraction line, the first containment isolation valve being located within the primary containment, the second containment isolation valve being located outside of the primary containment; at least one pressurized gas source connected to the first and second containment isolation valves via a pressure control line, the at least one pressurized gas source being configured to produce pressurized gas to manually open and close the first and second containment isolation valves. the system further comprises a first and a second manually operated containment isolation valve in the steam extraction line, the first containment isolation valve being located within the primary containment, the second containment isolation valve being located outside of the primary containment; at least one pressurized gas source connected to the first and second containment isolation valves via a pressure control line, the at least one pressurized gas source being configured to produce pressurized gas to manually open and close the first and second containment isolation valves.
A device for controlling a dialysate flow, comprising a dialyzer with a blood chamber for perfusion with blood and a dialysis chamber separated from the blood chamber by a semi-permeable membrane for perfusion with a dialysate, means to generate the dialysate flow through the dialysis chamber, a unit configured for the determination of a change of a control factor, wherein the control factor is a measure for the exchange of substances over the dialyzer, and wherein the determination of the change of the control factor is based on a modulation of the values of a property of the dialysate, wherein the values are determined before and after the dialyzer, a control facility for controlling the dialysate flow through the dialysis chamber of the dialyzer and means for continuously modulating a property of the dialysate before the dialyzer, wherein the control facility is configured to control the dialysate flow through the dialysis chamber, if a change of the value of the control factor caused by a variation of a property of the dialysate or of the blood or by a change of the dialysate flow does not lie within a limit range, wherein the control facility instructs the means for generating the dialysate flow to increase the dialysate flow if the change of the value of the control factor exceeds the limit range, and to reduce the dialysate flow, if the change of the value of the control factor falls below the limit range.
A modified antibody comprising a cysteine-containing motif at the C-terminus of a heavy chain of a parent antibody, with a representative structure by the following formula 1: Xa-[(M Cys) n -Xb n] n Formula wherein (M Cys) n represents a metal ion binding motif that contains a cysteine residue; Xa and Xb n each independently represents a peptide comprising 0 to 20 amino acid residues other than cysteine; and n is an integer ranging from 1 to 20; and the metal ion binding motif that contains a cysteine residue is a motif containing Cys-Gly-His or His-Gly-Cys. wherein (M Cys) n represents a metal ion binding motif that contains a cysteine residue; Xa and Xb n each independently represents a peptide comprising 0 to 20 amino acid residues other than cysteine; and n is an integer ranging from 1 to 20; and the metal ion binding motif that contains a cysteine residue is a motif containing Cys-Gly-His or His-Gly-Cys.
A method of controlling a display device, the method comprising: receiving a first selection input of a user selecting an object included in a main display region; receiving a motion input of the user moving the object to a sub-display region; displaying icons in the sub-display region, wherein an icon included among the displayed icons indicates a shortcut information of the object; receiving a second selection input of the user selecting a merge button; generating a document including at least a portion of each of a plurality of objects corresponding to each of the displayed icons in the sub-display region in response to the second selection input of the user; and displaying the document in the main display region. receiving a first selection input of a user selecting an object included in a main display region; receiving a motion input of the user moving the object to a sub-display region; displaying icons in the sub-display region, wherein an icon included among the displayed icons indicates a shortcut information of the object; receiving a second selection input of the user selecting a merge button; generating a document including at least a portion of each of a plurality of objects corresponding to each of the displayed icons in the sub-display region in response to the second selection input of the user; and displaying the document in the main display region.
A method in a computing platform comprising: creating a shared object including a plurality of virtual functions, compiling one or more of said virtual functions by a first compiler and a second compiler, the first compiler associated with a first processor and the second compiler associated with a second processor, wherein the first and the second processors have different instruction set architectures,storing the shared object in a shared virtual memory, and allocating the virtual functions either to a first portion or a second portion in the shared virtual memory, generating a first virtual function table including addresses of the virtual functions in the first portion and a second virtual function table including addresses of the virtual functions in the second portion; and sharing at least one of the plurality of virtual functions between the first processor and the second processor, wherein the first virtual function table is used when the object is used by the first processor, and the second virtual function table is used when the object is used by the second processor. creating a shared object including a plurality of virtual functions, compiling one or more of said virtual functions by a first compiler and a second compiler, the first compiler associated with a first processor and the second compiler associated with a second processor, wherein the first and the second processors have different instruction set architectures,storing the shared object in a shared virtual memory, and allocating the virtual functions either to a first portion or a second portion in the shared virtual memory, generating a first virtual function table including addresses of the virtual functions in the first portion and a second virtual function table including addresses of the virtual functions in the second portion; and sharing at least one of the plurality of virtual functions between the first processor and the second processor, wherein the first virtual function table is used when the object is used by the first processor, and the second virtual function table is used when the object is used by the second processor.