mhurhangee/ep-ind-claims huggingface dataset:
An antenna device comprising: a resin multilayer substrate in which a plurality of resin sheets (11 to 19) are laminated to one another; and a coil conductor (21, 22, 23, 24) formed on the resin multilayer substrate, characterized in that each of the plurality of resin sheets (11 to 19) includes a thermoplastic resin; the resin multilayer substrate includes a cavity formed inside the resin multilayer substrate; the coil conductor (21,22,23,24) is formed so as to constitute a coil wound around a periphery of the cavity, and the cavity includes a sintered magnetic substance arranged inside the cavity. a resin multilayer substrate in which a plurality of resin sheets (11 to 19) are laminated to one another; and a coil conductor (21, 22, 23, 24) formed on the resin multilayer substrate, characterized in that each of the plurality of resin sheets (11 to 19) includes a thermoplastic resin; the resin multilayer substrate includes a cavity formed inside the resin multilayer substrate; the coil conductor (21,22,23,24) is formed so as to constitute a coil wound around a periphery of the cavity, and the cavity includes a sintered magnetic substance arranged inside the cavity.
Hydraulic spindle with a cylinder which can be activated via a pump, wherein the pump is installed in a cavity of the cylinder, and the cylinder is a differential-type double rod cylinder, with an outer cylinder tube in which an inner cylinder tube is arranged, wherein the cavity with the pump is formed in the inner cylinder tube, wherein the cylinder tubes (2, 4) bound an annular space in which a piston is arranged in an axially displaceable manner, from which piston a hollow-cylindrical piston rod extends, the piston rod passing through a closure device of the cylinder and being closed on a side of the closure device that faces away from the piston in order to bound a first cylinder chamber, and wherein the piston on the piston-rod side bounds a second cylinder chamber, wherein an operative surface of the piston that bounds the second cylinder chamber and an operative surface of the piston rod that bounds the first cylinder chamber are approximately identical in size, and therefore the volumes of the cylinder chambers (28, 30) are equalized.
A server for providing a graphical user interface to a client over a communication network, the graphical user interface comprising a graphical user interface element, the graphical user interface element being formed by an element shape and an element text, the element shape being represented by element shape data, the element text being represented by element text data, the server comprising: an encoder being configured to encode the element shape data into video data; a detector being configured to detect a change associated with the graphical user interface element within the graphical user interface; charachterized by a communication interface being configured to separately transmit the video data and the element text data over the communication network, the element text data being transmitted upon detection of the change associated with the graphical user interface element for providing the graphical user interface to the client; and wherein the server comprises a text encoder being configured to encode the element text into plain text data and layout data, the layout data indicating a text size, a text font, or a text path of the element text within the graphical user interface element, the plain text data and the layout data forming the element text data. an encoder being configured to encode the element shape data into video data; a detector being configured to detect a change associated with the graphical user interface element within the graphical user interface; charachterized by a communication interface being configured to separately transmit the video data and the element text data over the communication network, the element text data being transmitted upon detection of the change associated with the graphical user interface element for providing the graphical user interface to the client; and wherein the server comprises a text encoder being configured to encode the element text into plain text data and layout data, the layout data indicating a text size, a text font, or a text path of the element text within the graphical user interface element, the plain text data and the layout data forming the element text data.
A system comprising: a spacecraft including payload equipment, bus equipment and a secondary structure arrangement, the secondary structure arrangement including or coupled with a plurality of mounting hardpoints, each of the payload equipment and the bus equipment being coupled with the secondary structure arrangement; and an exoskeletal launch support structure that provides a primary load path between a launch vehicle upper stage and the secondary structure arrangement; wherein the spacecraft (210, 430, 440), in use, is configured to structurally interface with the launch vehicle upper stage only by way of the exoskeletal launch support structure (220, 420); the spacecraft is configured to deploy from the launch vehicle upper stage by separating from the exoskeletal launch support structure (220, 420); and the primary load path is the only load path between the secondary structure arrangement and the launch vehicle upper stage, the exoskeletal launch support structure (220, 420) includes a first 3-D truss structure including at least four coupling nodes and at least six strut elements, attached together by a plurality of joints, each strut element disposed between and attached with a respective pair of the plurality of coupling nodes; characterised in that the exoskeletal launch support structure (220, 420) interfaces with the secondary structure arrangement by way of detachable couplings with the plurality of mounting hardpoints. a spacecraft including payload equipment, bus equipment and a secondary structure arrangement, the secondary structure arrangement including or coupled with a plurality of mounting hardpoints, each of the payload equipment and the bus equipment being coupled with the secondary structure arrangement; and an exoskeletal launch support structure that provides a primary load path between a launch vehicle upper stage and the secondary structure arrangement; wherein the spacecraft (210, 430, 440), in use, is configured to structurally interface with the launch vehicle upper stage only by way of the exoskeletal launch support structure (220, 420); the spacecraft is configured to deploy from the launch vehicle upper stage by separating from the exoskeletal launch support structure (220, 420); and the primary load path is the only load path between the secondary structure arrangement and the launch vehicle upper stage, the exoskeletal launch support structure (220, 420) includes a first 3-D truss structure including at least four coupling nodes and at least six strut elements, attached together by a plurality of joints, each strut element disposed between and attached with a respective pair of the plurality of coupling nodes; characterised in that the exoskeletal launch support structure (220, 420) interfaces with the secondary structure arrangement by way of detachable couplings with the plurality of mounting hardpoints.
A delivery device for delivering an implantable leadless pacing device, the delivery device comprising: an outer tubular member including a lumen extending from a proximal end to a distal end thereof; an inner tubular member including a lumen extending from a proximal end to a distal end thereof, the inner tubular member slidably disposed within the lumen of the outer tubular member; a distal holding section extending distally of a distal end of the inner tubular member, the distal holding section defining a cavity therein for receiving an implantable leadless pacing device; a handle assembly including at least a first hub portion affixed adjacent to the proximal end of the outer tubular member and intermediate second hub portion affixed adjacent to the proximal end of the inner tubular member; and a first locking mechanism disposed within the handle assembly; wherein the first locking mechanism is configured to releasably couple the first hub portion and the second hub portion. an outer tubular member including a lumen extending from a proximal end to a distal end thereof; an inner tubular member including a lumen extending from a proximal end to a distal end thereof, the inner tubular member slidably disposed within the lumen of the outer tubular member; a distal holding section extending distally of a distal end of the inner tubular member, the distal holding section defining a cavity therein for receiving an implantable leadless pacing device; a handle assembly including at least a first hub portion affixed adjacent to the proximal end of the outer tubular member and intermediate second hub portion affixed adjacent to the proximal end of the inner tubular member; and a first locking mechanism disposed within the handle assembly; wherein the first locking mechanism is configured to releasably couple the first hub portion and the second hub portion.
A pressure resistant thermoplastic container for containing a carbonated beverage pressurized up to one hundred pounds per square inch (seven bar or 690 kPa) therein, comprising: a sidewall comprising a grip portion; and a plurality of indentations formed in the sidewall; one or more of the plurality of indentations comprising one or more reinforcements (260; 370, 380, 390; 430; 530) formed therein; characterised in that the plurality of indentations comprises a plurality of elongated channels (200; 460; 510) and comprises a first column (250; 365; 420; 520) on a first side of one of the one or more reinforcements and a second column (270; 375; 440; 540) on a second side of the one of the one or more reinforcements, and in that the channels extend vertically up and down the grip portion. a sidewall comprising a grip portion; and a plurality of indentations formed in the sidewall; one or more of the plurality of indentations comprising one or more reinforcements (260; 370, 380, 390; 430; 530) formed therein; characterised in that the plurality of indentations comprises a plurality of elongated channels (200; 460; 510) and comprises a first column (250; 365; 420; 520) on a first side of one of the one or more reinforcements and a second column (270; 375; 440; 540) on a second side of the one of the one or more reinforcements, and in that the channels extend vertically up and down the grip portion.
A lead coupler for coupling multiple elongated neurological stimulation leads (11, 12) together to form a lead assembly for delivering electrical impulses to subcutaneous tissue for treatment, said lead coupler including: a set of interconnected lead retainer collars, one for each lead (11, 12), the lead retainer collars dimensioned and contoured for respectively receiving and retaining the leads (11, 12) with an elastic constraint in a predetermined side by side array, characterized in that the set of interconnected lead retainers are interconnected with a releasable snap fit connection which engages between lead retainer collars. a set of interconnected lead retainer collars, one for each lead (11, 12), the lead retainer collars dimensioned and contoured for respectively receiving and retaining the leads (11, 12) with an elastic constraint in a predetermined side by side array, characterized in that the set of interconnected lead retainers are interconnected with a releasable snap fit connection which engages between lead retainer collars.
A surface-emitting laser element comprising: a lower DBR formed on a substrate; an active layer formed on the lower DBR; a wavelength-adjusting layer formed above the active layer an upper DBR formed on the wavelength adjusting layer; a plurality of surface-emitting lasers (11, 12, 13, 14) configured to emit respective laser beams; a contact layer formed between the active layer and the wavelength-adjusting layer; and an electrode connected to the contact layer; wherein the thickness of the wavelength-adjusting layer in a first part thereof corresponding to at least one of the plurality of surface-emitting lasers differs from the thickness of a second part thereof corresponding to at least one other of the surface-emitting lasers, so that at least two of the plurality of surface-emitting lasers emit respective laser beams of different wavelengths; characterised in that the wavelength-adjusting layer comprises one of a first film having alternately layered GaInP and GaAsP and a second film having alternately layered GaInP and GaAs, the thickness of the first and second parts of the wavelength-adjusting layer being determined by the number of alternating layers of a corresponding one of the first and second films. a lower DBR formed on a substrate; an active layer formed on the lower DBR; a wavelength-adjusting layer formed above the active layer an upper DBR formed on the wavelength adjusting layer; a plurality of surface-emitting lasers (11, 12, 13, 14) configured to emit respective laser beams; a contact layer formed between the active layer and the wavelength-adjusting layer; and an electrode connected to the contact layer; wherein the thickness of the wavelength-adjusting layer in a first part thereof corresponding to at least one of the plurality of surface-emitting lasers differs from the thickness of a second part thereof corresponding to at least one other of the surface-emitting lasers, so that at least two of the plurality of surface-emitting lasers emit respective laser beams of different wavelengths; characterised in that the wavelength-adjusting layer comprises one of a first film having alternately layered GaInP and GaAsP and a second film having alternately layered GaInP and GaAs, the thickness of the first and second parts of the wavelength-adjusting layer being determined by the number of alternating layers of a corresponding one of the first and second films.
A method of preparing a rubber composition for a tire comprising initiating kneading of a rubber component and a compound represented by the following formula before kneading the rubber component and a silane coupling agent having a mercapto group: wherein each of R 1 to R 4 independently represents a straight-chain or branched chain alkyl group having 1 to 18 carbon atoms or a cycloalkyl group having 5 to 12 carbon atoms.
A process for the production of dialkyl succinate from a feedstock comprising maleic anhydride, said process comprising the steps of: (a) providing the feed in the liquid phase to a reactor operated at a temperature of at least 150°C; (b) contacting said feed with hydrogen at a pressure of at least 300 psig (2070 kPa) in the presence of an acid tolerant catalyst and an alkanol wherein at least some of the carbon carbon double bonds of the maleic anhydride are hydrogenated to form succinic acid and that the heat generated promotes esterification to dialkyl succinate in situ; and (c) recovering a stream comprising dialkyl succinate from the reactor. (a) providing the feed in the liquid phase to a reactor operated at a temperature of at least 150°C; (b) contacting said feed with hydrogen at a pressure of at least 300 psig (2070 kPa) in the presence of an acid tolerant catalyst and an alkanol wherein at least some of the carbon carbon double bonds of the maleic anhydride are hydrogenated to form succinic acid and that the heat generated promotes esterification to dialkyl succinate in situ; and (c) recovering a stream comprising dialkyl succinate from the reactor.
Method for purifying an immunoglobulin from a sample comprising the immunoglobulin and at least one impurity, the method comprising the following steps in the following order: (a) exposing the sample to anion exchange chromatography and obtaining the immunoglobulin, which is not bound to the anion exchange chromatography resin, in the flow-through; (b) exposing the flow-through obtained in step (a) either to Protein A affinity chromatography, wherein the immunoglobulin is bound to the Protein A affinity chromatography resin, and obtaining the immunoglobulin in the eluate by eluting the protein from the Protein A affinity chromatography resin, or to Mixed Mode chromatography, wherein the immunoglobulin is bound to the Mixed Mode chromatography resin, and obtaining the immunoglobulin in the eluate by eluting the protein from the Mixed Mode chromatography resin; (c) incubating the eluate obtained in step (b) at low pH of 2.5 to 4.5 for a defined time; wherein the method results in a cumulative log 10 reduction factor for steps (a) and (c) of at least 10 with respect to enveloped viruses, wherein the sample is harvested cell culture fluid, cell culture supernatant or pretreated cell culture supernatant. (a) exposing the sample to anion exchange chromatography and obtaining the immunoglobulin, which is not bound to the anion exchange chromatography resin, in the flow-through; (b) exposing the flow-through obtained in step (a) either to Protein A affinity chromatography, wherein the immunoglobulin is bound to the Protein A affinity chromatography resin, and obtaining the immunoglobulin in the eluate by eluting the protein from the Protein A affinity chromatography resin, or to Mixed Mode chromatography, wherein the immunoglobulin is bound to the Mixed Mode chromatography resin, and obtaining the immunoglobulin in the eluate by eluting the protein from the Mixed Mode chromatography resin; (c) incubating the eluate obtained in step (b) at low pH of 2.5 to 4.5 for a defined time;
A self-contained diesel engine clutch assembly in a unitary package, comprising: a shaft (30, 72); an endplate (22, 80) and a pressure plate (24, 82) received on an end of said shaft (30, 72) and rotatable therewith; a friction stator (16, 86); first and second separator rotors (12, 84) between said endplate (22, 80) and pressure plate (24, 82) and sandwiching said stator (16, 86); a plurality of drive pins (14, 90) passing through outer circumferential areas of said first and second rotors (12, 84) for engagement with an engine flywheel bolt pattern; a housing (92, 98) retaining said shaft (30, 72), endplate (22, 80), pressure plate (24, 82), stator (16, 86) and rotors (12, 84), and further retaining an oil pump in association with an oil pan, said oil pump providing lubricant to shaft support bearings (102, 104); an electric motor in operative connection with a hydraulic pump assembly; characterized in that the diesel engine clutch assembly also comprises a controller regulating said motor with pulse width modulation to regulate pressure control to said pressure plate (24, 82) through said hydraulic pump assembly; and a radio frequency identification tag in communication with said controller, said controller regulating operation of the clutch assembly as a function of said radiofrequency identification tag. a shaft (30, 72); an endplate (22, 80) and a pressure plate (24, 82) received on an end of said shaft (30, 72) and rotatable therewith; a friction stator (16, 86); first and second separator rotors (12, 84) between said endplate (22, 80) and pressure plate (24, 82) and sandwiching said stator (16, 86); a plurality of drive pins (14, 90) passing through outer circumferential areas of said first and second rotors (12, 84) for engagement with an engine flywheel bolt pattern; a housing (92, 98) retaining said shaft (30, 72), endplate (22, 80), pressure plate (24, 82), stator (16, 86) and rotors (12, 84), and further retaining an oil pump in association with an oil pan, said oil pump providing lubricant to shaft support bearings (102, 104); an electric motor in operative connection with a hydraulic pump assembly; characterized in that the diesel engine clutch assembly also comprises a controller regulating said motor with pulse width modulation to regulate pressure control to said pressure plate (24, 82) through said hydraulic pump assembly; and a radio frequency identification tag in communication with said controller, said controller regulating operation of the clutch assembly as a function of said radiofrequency identification tag.
A device for fracturing calcifications in heart valves comprising: a stabilizer assembly (80, 90) and an impactor assembly assembled on and deployed by a delivery system, wherein said delivery system is operable to cause relative motion between said impactor assembly and said stabilizer assembly (80, 90) with sufficient energy so as to fracture a calcification located in tissue which is sandwiched between said stabilizer assembly (80, 90) and said impactor assembly, wherein said impactor assembly comprises impaction struts and structural struts distanced and tilted relative to each other for self-positioning with respect to a valve structure, characterised in that said stabilizer assembly comprises multiple layers (92, 94), movable with respect to each other, such that moving one layer with respect to the other changes the shape of said stabilizer.
Coupling body for the plug-in connection of a pipeline, in particular of a plastic pipeline, comprising a sleeve nut with a screw shank, an externally threaded portion being formed at the front region of the screw shank, as seen in the screw-in direction, and the externally threaded portion being adjoined, counter to the screw-in direction, by an actuating portion, and wherein an inner through-passage opening runs in the axial direction through the sleeve nut, wherein the through-passage opening has extending in it an abutment shoulder, which is directed radially inwards in relation to the longitudinal axis (X-X) and on which an annular retaining element, in particular a toothed disc or a toothed ring, is arranged, and, in a circumferential groove which is open at the periphery in relation to the through-passage opening and has a base and two sides (21, 22) terminating in the base, an annular sealing element is arranged behind the retaining element, as seen in the screw-in direction, and the through-passage opening is closed in a non-releasable manner at one end by a closure element with a plug-through opening, characterized in that, in the region of extent of the annular retaining element and of the sealing element, a material-weakening point is designed in the form of a predetermined breaking point in the wall of the sleeve nut such that the actuating portion is subdivided into two sub-portions (8a, 8b), and the sleeve nut can be broken apart by virtue of the sub-portions (8a, 8b) being rotated in opposite directions.
A method of applying a new thermal barrier coating on a component of a gas turbine engine, the component having an outer surface and an inner surface and a plurality of first cooling holes, the plurality of first cooling holes extending between the outer surface and the inner surface of the component, the method comprising the steps of: exposing the outer surface of the component by removing an existing coating from the outer surface of the component; filling the first plurality of cooling holes with a polyimide; curing the polyimide to block the plurality of first cooling holes; and applying a thermal barrier coating over the outer surface of the component and characterized by said thermal barrier coating completely covering the plurality of first cooling holes blocked with the cured polyimide. exposing the outer surface of the component by removing an existing coating from the outer surface of the component; filling the first plurality of cooling holes with a polyimide; curing the polyimide to block the plurality of first cooling holes; and applying a thermal barrier coating over the outer surface of the component and characterized by said thermal barrier coating completely covering the plurality of first cooling holes blocked with the cured polyimide.
A therapetucially effective amount of an aromatic-cationic peptide comprising D-Arg-2',6'-Dmt-Lys-Phe-NH 2, or a pharmaceutically acceptable salt thereof, for use in treating, preventing, or ameloriating left ventricular remodeling in a mammalian subject who has suffered a myocardial infarction.