mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a rotor blade, the method comprising: positioning one or more first dry skin layers in a first mold of the rotor blade; placing a wedge-shaped core material (154, 254) atop the one or more first dry skins in the first mold at a trailing edge end of the rotor blade, the wedge-shaped core material (154, 254) comprising a mounting surface (156, 256); infusing the one or more first dry skin layers and the wedge-shaped core material (154, 254) together via a resin material atop the first mold to form a first shell member of the rotor blade; applying an adhesive, at least, onto the mounting surface (156, 256) of the wedge-shaped core material (154, 254); placing a second mold with a second shell member of the rotor blade arranged therein atop the first mold containing the first shell member to form the rotor blade such that a portion of the second shell member rests atop the mounting surface (156, 256) of the wedge-shaped core material (154, 254); and, securing the first and second shell members (38, 40) together via, at least, the adhesive applied between the second shell member and the mounting surface (156, 256), wherein the wedge-shaped core material (154, 254) supports the trailing edge end of the rotor blade. positioning one or more first dry skin layers in a first mold of the rotor blade; placing a wedge-shaped core material (154, 254) atop the one or more first dry skins in the first mold at a trailing edge end of the rotor blade, the wedge-shaped core material (154, 254) comprising a mounting surface (156, 256); infusing the one or more first dry skin layers and the wedge-shaped core material (154, 254) together via a resin material atop the first mold to form a first shell member of the rotor blade; applying an adhesive, at least, onto the mounting surface (156, 256) of the wedge-shaped core material (154, 254); placing a second mold with a second shell member of the rotor blade arranged therein atop the first mold containing the first shell member to form the rotor blade such that a portion of the second shell member rests atop the mounting surface (156, 256) of the wedge-shaped core material (154, 254); and, securing the first and second shell members (38, 40) together via, at least, the adhesive applied between the second shell member and the mounting surface (156, 256), wherein the wedge-shaped core material (154, 254) supports the trailing edge end of the rotor blade.
A method of forming a composite laminate structure (904, 908A-B), the method comprising: mixing a polymer resin including a polyurethane and an epoxy, wherein the epoxy is less than 40 % by volume vv t% of the polymer resin and has a higher viscosity than the polyurethane; heating to and maintaining the polymer resin at an application temperature between an ambient temperature and a curing temperature of a component of the polymer resin, wherein the application temperature is between 40 °C and 85°C, wherein the polymer resin has a viscosity of 300 centipoise or less at the application temperature prior to application; applying the polymer resin onto a fiber sheet; positioning the fiber sheet on a core including a plurality of cells at least partially defined by corresponding cell walls, the fiber sheet extending across at least some of the plurality of cells; wherein the fiber sheet includes the applied polymer resin thereon; and after positioning, curing the polymer resin applied to the fiber sheet. mixing a polymer resin including a polyurethane and an epoxy, wherein the epoxy is less than 40 % by volume vv t% of the polymer resin and has a higher viscosity than the polyurethane; heating to and maintaining the polymer resin at an application temperature between an ambient temperature and a curing temperature of a component of the polymer resin, wherein the application temperature is between 40 °C and 85°C, wherein the polymer resin has a viscosity of 300 centipoise or less at the application temperature prior to application; applying the polymer resin onto a fiber sheet; positioning the fiber sheet on a core including a plurality of cells at least partially defined by corresponding cell walls, the fiber sheet extending across at least some of the plurality of cells; wherein the fiber sheet includes the applied polymer resin thereon; and after positioning, curing the polymer resin applied to the fiber sheet.
A cryoengine for a cryogenic medical system, the cryoengine comprising: a dewar that can be filled with liquid cryogen to create a cryogen reservoir; a pressurization system having a first vessel positioned in the dewar and being fluidly connected by a line having a control valve to a second vessel positioned outside the dewar, wherein a heater is arranged internal to the first vessel; a fill valve; a cryogenic flow actuator positioned in the dewar, wherein activation of the cryogenic flow actuator creates a flow of liquid cryogen from the cryogen reservoir, through the fill valve, into the first vessel; a vent valve connected to the first vessel; and one or more cryolines (516, 518) for connecting the cryoengine to one or more cryoinstruments and supplying cryogen to the one or more cryoinstruments; wherein the first vessel includes a thermocouple that protrudes through the first vessel to measure a liquid cryogen level in the first vessel. a dewar that can be filled with liquid cryogen to create a cryogen reservoir; a pressurization system having a first vessel positioned in the dewar and being fluidly connected by a line having a control valve to a second vessel positioned outside the dewar, wherein a heater is arranged internal to the first vessel; a fill valve; a cryogenic flow actuator positioned in the dewar, wherein activation of the cryogenic flow actuator creates a flow of liquid cryogen from the cryogen reservoir, through the fill valve, into the first vessel; a vent valve connected to the first vessel; and one or more cryolines (516, 518) for connecting the cryoengine to one or more cryoinstruments and supplying cryogen to the one or more cryoinstruments; wherein the first vessel includes a thermocouple that protrudes through the first vessel to measure a liquid cryogen level in the first vessel.
A method for inhibiting scale in aqueous systems, comprising adding to such aqueous systems a depolymerized carboxyalkyl derivatized polygalactomannan comprising a degree of substitution of from about 0.5 to about 3 carboxylic groups per sugar unit for use as a scale inhibitor.
A method for use in an Electronic Article Surveillance apparatus, comprising: generating a detection zone having a first perimeter; generating a deactivation zone having a second perimeter, with said second perimeter being less than said first perimeter to form an expanded zone between said first and second perimeters (304A, 302A); wherein said second perimeter fits within said first perimeter, and wherein said deactivation zone and said detection zone are overlapping to form said expanded zone between said second perimeter and said first perimeter; detecting an electronic article surveillance marker within said detection zone, said electronic article surveillance marker producing an active signal in response to an interrogation signal when in an active state, and an inactive signal in response to said interrogation signal when in an inactive state; determining a state for said electronic article surveillance marker; and generating a notification signal in accordance with said determination, wherein said state is an active state, and said generating comprises generating a first notification signal to indicate that said electronic article surveillance marker is within said detection zone in an active state, or wherein said state is an inactive state, and said generating comprises generating a second notification signal to indicate that said electronic article surveillance marker is within said detection zone in an inactive state. generating a detection zone having a first perimeter; generating a deactivation zone having a second perimeter, with said second perimeter being less than said first perimeter to form an expanded zone between said first and second perimeters (304A, 302A); wherein said second perimeter fits within said first perimeter, and wherein said deactivation zone and said detection zone are overlapping to form said expanded zone between said second perimeter and said first perimeter; detecting an electronic article surveillance marker within said detection zone, said electronic article surveillance marker producing an active signal in response to an interrogation signal when in an active state, and an inactive signal in response to said interrogation signal when in an inactive state; determining a state for said electronic article surveillance marker; and generating a notification signal in accordance with said determination, wherein said state is an active state, and said generating comprises generating a first notification signal to indicate that said electronic article surveillance marker is within said detection zone in an active state, or
A processor implemented computer-implemented method for rapid application development comprising the steps of: (a) using a declarative textual language as an internal representation of an application, wherein the declarative textual language is strongly typed, the declarative textual language including base types and base classes, object types and visual object types, the declarative textual language allowing new types to be statically declared based on the base classes; (b) displaying in a graphical user interface of an application development editor a list or other arrangement of variations based on or applying to conditions in the application, each variation being associated with one or more changes in properties or events in the application, each variation being supported internally by the declarative textual language with states; (c) enabling a user to select a specific variation; (d) an engine reading the declarative textual language internal representation of the application, which is simulated to create run time behaviour, to display, in the graphical user interface, the user interface implications or consequences of that selection; and in which the operations of the method are executed by a processor. (a) using a declarative textual language as an internal representation of an application, wherein the declarative textual language is strongly typed, the declarative textual language including base types and base classes, object types and visual object types, the declarative textual language allowing new types to be statically declared based on the base classes; (b) displaying in a graphical user interface of an application development editor a list or other arrangement of variations based on or applying to conditions in the application, each variation being associated with one or more changes in properties or events in the application, each variation being supported internally by the declarative textual language with states; (c) enabling a user to select a specific variation; (d) an engine reading the declarative textual language internal representation of the application, which is simulated to create run time behaviour, to display, in the graphical user interface, the user interface implications or consequences of that selection;
A composite embedded-pole shaped in form when conductive parts are inserted into a solid insulating material, said composite embedded-pole including a 3-position disconnector earthing switch and components of a vacuum interrupter, wherein: the 3-position disconnector earthing switch and the components of the vacuum interrupter are set in parallel in a same insulating cylinder, which has upper and lower cavities; the 3-position disconnector earthing switch is in the upper cavity, and the vacuum interrupter is in the lower cavity; right ends of the two cavities are both open and connect with a same sealing cap; there is an outlet block on the left end of the upper cavity, a pair of spacing-set static conductive blocks in the middle, i.e. the left static conductive block and the right static conductive block, bonding with a conductive board inserted in the walls of the upper cavity; the right end is equipped with a earthing block; the upper cavity is also equipped with a rotary lead screw for location with its right end stretching out of the sealing cap; the lead screw, spirally connects with a moving contact set, which is located in the upper cavity; the moving contact set has directional linear motion with the outlet block, the static conductive blocks (3; 4) and the earthing block and while rotating along with the lead screw, axial motion makes it reach 3 positions: moving contact set bonding with the outlet block reaches a disconnecting closing position with the left static conductive block; moving contact set bonding with two static conductive blocks (3; 4), reaches a disconnecting opening position; moving contact set bonding with the right static conductive block, reaches a earthing closing position with earthing block; the lower cavity has an insulating pull rod; a lower end of the left static conductive block inserts into the left end of the lower cavity, and fixedly bonds with a static contact of the vacuum interrupter; the outer end of moving contact of the vacuum interrupter fixedly connects with the left end of the insulating pull rod in a threaded manner, with one end of flexible coupling locked and fastened in the joint of thread, and the other end fastened with the lower outlet rod by bolt; the right end of the insulating pull rod stretches out of the sealing cap.
A container for collecting and storing blood plasma, the container comprising: a bottle having a neck, the neck having a disc-shaped neck track, the track including a first key; means for permitting fluid communication into and out of an interior of the bottle; and a cap attachable to the neck and having an internal cap track sized and positioned to cooperate with the neck track and configured to permit the cap to rotate about the neck track, the cap defining a slot sized and positioned to interlock with the first key at a first rotational position of the cap where the means for permitting fluid communication is accessible from outside the cap, the cap further defining a second key sized and positioned to interlock with the first key at a second rotational position of the cap where the means for permitting fluid communication is inaccessible from outside the cap. a bottle having a neck, the neck having a disc-shaped neck track, the track including a first key; means for permitting fluid communication into and out of an interior of the bottle; and a cap attachable to the neck and having an internal cap track sized and positioned to cooperate with the neck track and configured to permit the cap to rotate about the neck track, the cap defining a slot sized and positioned to interlock with the first key at a first rotational position of the cap where the means for permitting fluid communication is accessible from outside the cap, the cap further defining a second key sized and positioned to interlock with the first key at a second rotational position of the cap where the means for permitting fluid communication is inaccessible from outside the cap.
Pump assembly for the synchronous pressurization of two fluid columns, which comprises two internal-gear pumps arranged together in a housing and driven via a common drive shaft, the pinions of which pumps are situated in the associated pump chamber and are in meshing engagement with the ring gear of said pumps, characterized in that the two pinions (17, 17') of the internal-gear pumps (11, 12) mesh in one of two toothed rings (19, 19') of a common ring gear which is formed and arranged as a partition between the pump chambers of the two internal-gear pumps (11, 12).
An emulsified savoury food concentrate comprising: a) 12-60 wt.% water; b) 10-70 wt.% edible oil, said oil being selected from triglycerides, diglycerides and combinations thereof; c) 12-40 wt.% of non-chemically modified, non-gelatinised starch; d) 0.3-1.0 mol alkalimetal cation per 100 grams of water, said alkalimetal cation being selected from Na +, K + and combinations thereof; e) 0.6-20% of phospholipids by weight of oil, said phospholipids being selected from the group of phosphatidylcholine, lysophosphatidylcholine, phosphatidylethanolamine, lysophosphatidylethanolamine, phosphatidylinositol, lysophosphatidylinositol and combinations thereof; wherein ( +) / ( +) < 5; wherein water and oil together represent at least 40 wt.% of the food concentrate and wherein water and oil are present in a weight ratio of 80:20 to 20:80. a) 12-60 wt.% water; b) 10-70 wt.% edible oil, said oil being selected from triglycerides, diglycerides and combinations thereof; c) 12-40 wt.% of non-chemically modified, non-gelatinised starch; d) 0.3-1.0 mol alkalimetal cation per 100 grams of water, said alkalimetal cation being selected from Na +, K + and combinations thereof; e) 0.6-20% of phospholipids by weight of oil, said phospholipids being selected from the group of phosphatidylcholine, lysophosphatidylcholine, phosphatidylethanolamine, lysophosphatidylethanolamine, phosphatidylinositol, lysophosphatidylinositol and combinations thereof; wherein ( +) / ( +) < 5;
A method of manufacturing a magnetic element, the method comprising: etching a via through a first portion of a first dielectric layer; depositing a first conductive material in the first via and on a second portion of the first dielectric layer which is adjacent to the via; etching a first portion of the first conductive material wherein, after etching the first portion of the first conductive material, a second portion of the first conductive material remains in the via and on the second portion of the first dielectric layer; after etching the first portion of the first conductive material, depositing a second conductive material over the second portion of the first conductive material which is (i) in the via and (ii) on the second portion of the first dielectric layer; depositing a first electrically conductive electrode material on the second conductive material and over the second portion of the first conductive material and the first dielectric layer; polishing an exposed surface of the first electrically conductive electrode material to provide a polished first surface; and forming a magnetic tunnel junction on the polished first surface, the magnetic tunnel junction aligned with, and in electrical contact with, the first conductive material. etching a via through a first portion of a first dielectric layer; depositing a first conductive material in the first via and on a second portion of the first dielectric layer which is adjacent to the via; etching a first portion of the first conductive material wherein, after etching the first portion of the first conductive material, a second portion of the first conductive material remains in the via and on the second portion of the first dielectric layer; after etching the first portion of the first conductive material, depositing a second conductive material over the second portion of the first conductive material which is (i) in the via and (ii) on the second portion of the first dielectric layer; depositing a first electrically conductive electrode material on the second conductive material and over the second portion of the first conductive material and the first dielectric layer; polishing an exposed surface of the first electrically conductive electrode material to provide a polished first surface; and forming a magnetic tunnel junction on the polished first surface, the magnetic tunnel junction aligned with, and in electrical contact with, the first conductive material.
A pulling device for generating a pulling movement in a clamping device, comprising: a pull-acting hydraulic working cylinder having a pull piston displaceable along a longitudinal axis; a pull rod connected to the pull piston; a push-acting hydraulic pump cylinder having a pump piston displaceable therein; and a fluidic connection between the pump cylinder and the working cylinder so that a hydraulic fluid is interchangeable between the pump cylinder and the working cylinder, wherein the pump cylinder and the working cylinder are arranged coaxially to each other in a housing of the pulling device, characterized in that a movement of the pump piston in a pushing direction along the longitudinal axis causes the hydraulic fluid to flow from the pump cylinder into the working cylinder and there causes a pulling movement of the pull piston and the pull rod connected thereto in a pulling direction along the longitudinal axis, the pulling direction being opposite to the pushing direction. a pull-acting hydraulic working cylinder having a pull piston displaceable along a longitudinal axis; a pull rod connected to the pull piston; a push-acting hydraulic pump cylinder having a pump piston displaceable therein; and a fluidic connection between the pump cylinder and the working cylinder so that a hydraulic fluid is interchangeable between the pump cylinder and the working cylinder, wherein the pump cylinder and the working cylinder are arranged coaxially to each other in a housing of the pulling device, characterized in that a movement of the pump piston in a pushing direction along the longitudinal axis causes the hydraulic fluid to flow from the pump cylinder into the working cylinder and there causes a pulling movement of the pull piston and the pull rod connected thereto in a pulling direction along the longitudinal axis, the pulling direction being opposite to the pushing direction.
A robot cleaner comprising: a main body; a light transmitting unit that emits light; an image sensor that senses light reflected or scattered by an obstacle from the light emitted from the light transmitting unit; characterized by a base supporting the light transmitting unit and the image sensor and rotatably and vertically movably disposed in the main body; a rotation drive unit that rotates the base; and an elevation drive unit that allows the base to retract and protract from the main body. a main body; a light transmitting unit that emits light; an image sensor that senses light reflected or scattered by an obstacle from the light emitted from the light transmitting unit; characterized by a base supporting the light transmitting unit and the image sensor and rotatably and vertically movably disposed in the main body; a rotation drive unit that rotates the base; and an elevation drive unit that allows the base to retract and protract from the main body.
A process for producing a thermally conductive adhesive composition, the process comprising: depositing an electrically-insulating coating on carbon-based particles; and mixing the coated carbon-based particles with a binder; wherein the electrically-insulating coating is a ceramic or diamond-like carbon and wherein the electrical resistance of the carbon particles after coating determined by the method provided in the description is at least about 1 x 10 5 ohms*cm. depositing an electrically-insulating coating on carbon-based particles; and mixing the coated carbon-based particles with a binder; wherein the electrically-insulating coating is a ceramic or diamond-like carbon and wherein the electrical resistance of the carbon particles after coating determined by the method provided in the description is at least about 1 x 10 5 ohms*cm.