mhurhangee/ep-ind-claims huggingface dataset:
A method of verifying data entered by a computer user browsing web content over a computer network, comprising: the computer user using a browser to access a first web page from a requesting server provided by a requesting party; the computer user selecting a control presented by the first web page to request a further web page where the computer user is able to enter data that requires verification by a third party; the requester server redirecting the computer user's browser to a verifying server provided by a verifying party; the verifying server providing to the computer user's browser a second web page to fulfil the request for the further web page, wherein the second web page is presented as a foreground, lightbox window positioned over a backdrop frame and wherein the foreground window is provided with fields for entering the data and wherein the backdrop frame is provided as an iFrame by the requesting party; the computer user entering the data in the foreground window of the second web page; the verifying server verifying the data entered by the computer user; and the verifying server sending the requesting server a notification as to whether or not the verification was successful. the computer user using a browser to access a first web page from a requesting server provided by a requesting party; the computer user selecting a control presented by the first web page to request a further web page where the computer user is able to enter data that requires verification by a third party; the requester server redirecting the computer user's browser to a verifying server provided by a verifying party; the verifying server providing to the computer user's browser a second web page to fulfil the request for the further web page, wherein the second web page is presented as a foreground, lightbox window positioned over a backdrop frame and wherein the foreground window is provided with fields for entering the data and wherein the backdrop frame is provided as an iFrame by the requesting party; the computer user entering the data in the foreground window of the second web page; the verifying server verifying the data entered by the computer user; and the verifying server sending the requesting server a notification as to whether or not the verification was successful.
Device for accommodating and for releasing a payload on an aerial vehicle, having: a mounting frame for accommodating the payload, a linear moving means that can be positioned in a cavity of the aerial vehicle, the cavity having an opening, said moving means having a base and at least one holding element, a release device arranged on the mounting frame, wherein the mounting frame has a largely planar opening area which is surrounded by an opening edge, wherein the moving means is coupled with the mounting frame on a side of the mounting frame facing away from the opening area by the at least one holding element, wherein the moving means is designed to move the mounting frame linearly and vertically in the direction of the opening in the cavity at a variable distance from the base, wherein the release device is designed to hold the payload in the mounting frame, such that the mounting frame encloses or surrounds the payload at least in part when the mounting frame is in a neutral, retracted position or in a release, extended position, wherein the linear moving means is configured to move the mounting frame between the neutral position and the release position, and wherein the release device is designed to move the payload selectively from the mounting frame, where necessary and when the mounting frame is in the release position, via the opening edge and in a direction facing away from the base and to release the payload. a mounting frame for accommodating the payload, a linear moving means that can be positioned in a cavity of the aerial vehicle, the cavity having an opening, said moving means having a base and at least one holding element, a release device arranged on the mounting frame, wherein the mounting frame has a largely planar opening area which is surrounded by an opening edge, wherein the moving means is coupled with the mounting frame on a side of the mounting frame facing away from the opening area by the at least one holding element, wherein the moving means is designed to move the mounting frame linearly and vertically in the direction of the opening in the cavity at a variable distance from the base, wherein the release device is designed to hold the payload in the mounting frame, such that the mounting frame encloses or surrounds the payload at least in part when the mounting frame is in a neutral, retracted position or in a release, extended position, wherein the linear moving means is configured to move the mounting frame between the neutral position and the release position, and wherein the release device is designed to move the payload selectively from the mounting frame, where necessary and when the mounting frame is in the release position, via the opening edge and in a direction facing away from the base and to release the payload.
An unducted thrust producing system, said thrust producing system comprising: a rotating element having an axis of rotation; and a stationary element; said rotating element having a plurality of blades, each blade having: a blade root proximal to said axis, a blade tip remote from said axis, and a blade span measured between said blade root and said blade tip, wherein said blades are characterized by: at 30% span the blade camber is at least 90% of the maximum blade camber between 50% span and 100% span, and the blade camber at 0% span is at least 110% of the maximum blade camber between 50% span and 100% span. a rotating element having an axis of rotation; and a stationary element; said rotating element having a plurality of blades, each blade having: a blade root proximal to said axis, a blade tip remote from said axis, and a blade span measured between said blade root and said blade tip, a blade root proximal to said axis, a blade tip remote from said axis, and a blade span measured between said blade root and said blade tip, wherein said blades are characterized by: at 30% span the blade camber is at least 90% of the maximum blade camber between 50% span and 100% span, and the blade camber at 0% span is at least 110% of the maximum blade camber between 50% span and 100% span.
Traction battery of an industrial truck, comprising a battery tray, a plurality of battery cells and a cooling device in the form of an air guide shroud which at least partially covers the top side of the battery cells and has at least one air inlet opening for guiding a cooling air stream, characterized in that an optical display is provided on the air guide shroud, which optical display displays the measurement values of at least one temperature sensor arranged between the battery cells in the interior of the traction battery.
A lithium titanate product that has its formula in the form of Li x Ti y O z, wherein, when y is 1, the x:y molar ratio is 1.1-1.8, the x:y molar ratio is preferably 1.3-1.8, the x:y molar ratio is most preferably 1.3-1.7, while the z:y molar ratio is 2.0-4.5, preferably the z:y molar ratio is 3.0-4.0 and wherein the crystal size of said lithium titanate is from 15 to 40 nm.
A rotatable friction disk comprising: a rotor carrier plate; a first wear liner coupled to the rotor carrier plate; a second wear liner coupled to the rotor carrier plate; and a floating rotor core located between the first wear liner and the second wear liner, wherein the floating rotor core comprises a floating rotor core key, and the floating rotor core key is located within a key notch (230, 240; 746) in the rotor carrier plate; characterised in that: the floating rotor core is free to move in an axial direction between the first rotor wear liner and the second rotor wear liner. a rotor carrier plate; a first wear liner coupled to the rotor carrier plate; a second wear liner coupled to the rotor carrier plate; and a floating rotor core located between the first wear liner and the second wear liner, wherein the floating rotor core comprises a floating rotor core key, and the floating rotor core key is located within a key notch (230, 240; 746) in the rotor carrier plate; characterised in that: the floating rotor core is free to move in an axial direction between the first rotor wear liner and the second rotor wear liner.
A micro-component electrode for an implantable medical device comprising: an electrically conductive core selected from the group of materials consisting of carbon fibers, composites comprising single-walled carbon nanotubes, composites comprising multi-walled carbon nanotubes, graphene, and combinations thereof, and having a diameter of less than or equal to 10 μm, wherein the electrically conductive core defines a surface; one or more electrically conductive regions disposed on the surface of the electrically conductive core comprising an electrically conductive polymeric coating; and an electrically non-conductive polymeric coating disposed directly on and conforming to regions of the surface of the electrically conductive core where the one or more electrically conductive regions are absent, wherein the electrically non-conductive polymeric coating comprises a parylene polymer or a parylene polymer derivative. an electrically conductive core selected from the group of materials consisting of carbon fibers, composites comprising single-walled carbon nanotubes, composites comprising multi-walled carbon nanotubes, graphene, and combinations thereof, and having a diameter of less than or equal to 10 μm, wherein the electrically conductive core defines a surface; one or more electrically conductive regions disposed on the surface of the electrically conductive core comprising an electrically conductive polymeric coating; and an electrically non-conductive polymeric coating disposed directly on and conforming to regions of the surface of the electrically conductive core where the one or more electrically conductive regions are absent, wherein the electrically non-conductive polymeric coating comprises a parylene polymer or a parylene polymer derivative.
A method for operating an air intake of an aircraft turbojet engine nacelle extending along an axis X oriented from upstream to downstream in which an internal air flow (F-INT) circulates from upstream to downstream during a thrust phase and a reverse air flow (F-INV) from downstream to upstream during a thrust reversal phase, the air intake circumferentially extending about axis X, and comprising an internal wall pointing to axis X and configured to guide the internal air flow (F-INT) and the reverse air flow (F-INV), and an external wall, opposite to the internal wall and configured to guide an external air flow (F-EXT), the internal wall and the external wall being connected to each other by an air intake lip so as to form an annular cavity, the air intake lip comprising at least one fixed portion and at least one movable portion (3, 3', 7) between a first position and a second position, method wherein at least one movable portion (3, 3', 7) of the air intake lip is in the first position, in which the air intake lip has an aerodynamic profile so as to guide the internal air flow (F-INT) over the internal wall to promote a thrust phase, the air intake lip having a first radial thickness, the method comprises, during a thrust reversal phase of said turbojet engine, a step of moving in downstream translation the movable portion (3, 3', 7) with respect to the fixed portion in the second position so that the air intake lip comprises a second radial thickness that is less than the first radial thickness so as to promote reverse thrust.
A cartridge (6, 6') and a temperature adjustment stage (10, 101, 102) for heating the cartridge (6, 6') in which a plurality of wells that store a liquid are formed, wherein the cartridge (6, 6') is used in an inspection system that detects an object captured by an immunoreaction, wherein the wells include a labeled antibody well that stores a labeled antibody that labels the object, and the wells further include at least one of a cleaning liquid well, a mixed diluent well, a specimen dilution well, or a measurement reagent well, wherein the temperature adjustment stage (10, 101, 102) comprises a structure that heats at least one of the cleaning liquid well, the mixed diluent well, the specimen dilution well, or the measurement reagent well; and wherein the temperature adjustment stage (10, 101, 102) further comprises a mounting recess which is formed so as to correspond to a shape of the cartridge (6, 6'), characterized in that the mounting recess is formed with a recess that prevents a bottom part of the labeled antibody well from coming into contact with the temperature adjustment stage (10, 101, 102) when the cartridge (6, 6') is mounted in the mounting recess, and at least one of a bottom part of the cleaning liquid well, a bottom part of the mixed diluent well, a bottom part of the specimen dilution well, or a bottom part of the measurement reagent well substantially contacts with the temperature adjustment stage (10, 101, 102). the wells include a labeled antibody well that stores a labeled antibody that labels the object, and the wells further include at least one of a cleaning liquid well, a mixed diluent well, a specimen dilution well, or a measurement reagent well, wherein the temperature adjustment stage (10, 101, 102) comprises a structure that heats at least one of the cleaning liquid well, the mixed diluent well, the specimen dilution well, or the measurement reagent well; and wherein the temperature adjustment stage (10, 101, 102) further comprises a mounting recess which is formed so as to correspond to a shape of the cartridge (6, 6'), characterized in that the mounting recess is formed with a recess that prevents a bottom part of the labeled antibody well from coming into contact with the temperature adjustment stage (10, 101, 102) when the cartridge (6, 6') is mounted in the mounting recess, and at least one of a bottom part of the cleaning liquid well, a bottom part of the mixed diluent well, a bottom part of the specimen dilution well, or a bottom part of the measurement reagent well substantially contacts with the temperature adjustment stage (10, 101, 102).
A lifting device comprising a lift arm and a first support structure which is adapted to be placed on a lifting vessel (83, 84) and comprises a first attachment unit that includes a first attachment element which connects the lift arm rotatably to the first support structure, the lift arm comprising a load transfer device that is secured to a first end portion (17, 27) of the lift arm, the lifting device further comprising a second support structure and a second attachment unit that includes a second attachment element which connects the lift arm rotatably to the second support structure, and wherein the first attachment element, the second attachment element and the load transfer device all lie substantially in a straight line or substantially in the same plane, characterized in that the lifting device further comprises: a first elevation device for effecting a substantially vertical movement of the lift arm relative to the first support structure and a second elevation device for effecting a substantially vertical movement of the lift arm relative to the second support structure. wherein the first attachment element, the second attachment element and the load transfer device all lie substantially in a straight line or substantially in the same plane, characterized in that the lifting device further comprises: a first elevation device for effecting a substantially vertical movement of the lift arm relative to the first support structure and a second elevation device for effecting a substantially vertical movement of the lift arm relative to the second support structure. a first elevation device for effecting a substantially vertical movement of the lift arm relative to the first support structure and a second elevation device for effecting a substantially vertical movement of the lift arm relative to the second support structure.
A portable and configurable oxygen concentrator,, for providing various flow rates and volumes of concentrated oxygen to a patient, the oxygen concentrator,, comprising: an electro-mechanical assembly,, including a housing with an outer surface,, the housing enclosing a compressor,, a user interface, mounted to the housing; a first battery,, having a first battery capacity, the first battery,, removably mountable to the electro-mechanical assembly,, to form a substantially continuous surface between the first battery,, and the outer surface, in a working configuration; a first adsorbent module, having a first adsorbent capacity, a first notification device (20x 1), associated with the first adsorbent module,; a second adsorbent module, having a second adsorbent capacity, a second notification device (20x 2), associated with the second adsorbent module,; and a controller, in communication with one of the first notification device, and the second notification device (20x 2),, the controller, configured to operate to produce a first oxygen volume of oxygen enriched air when the first adsorbent module, is mounted to the electro-mechanical assembly,, and to produce a second oxygen volume of oxygen enriched air when the second adsorbent module, is mounted to the electro-mechanical assembly,,, the second oxygen volume being greater than the first oxygen volume. an electro-mechanical assembly,, including a housing with an outer surface,, the housing enclosing a compressor,, a user interface, mounted to the housing; a first battery,, having a first battery capacity, the first battery,, removably mountable to the electro-mechanical assembly,, to form a substantially continuous surface between the first battery,, and the outer surface, in a working configuration; a first adsorbent module, having a first adsorbent capacity, a first notification device (20x 1), associated with the first adsorbent module,; a second adsorbent module, having a second adsorbent capacity, a second notification device (20x 2), associated with the second adsorbent module,; and a controller, in communication with one of the first notification device, and the second notification device (20x 2),, the controller, configured to operate to produce a first oxygen volume of oxygen enriched air when the first adsorbent module, is mounted to the electro-mechanical assembly,, and to produce a second oxygen volume of oxygen enriched air when the second adsorbent module, is mounted to the electro-mechanical assembly,,, the second oxygen volume being greater than the first oxygen volume.
A multi-layer construction method wherein the construction of each layer comprises the steps of: providing a cementitious material; delivering said cementitious material to a nozzle indexing said nozzle along a pre-determined path; and applying said cementitious material to a work surface by extrusion through said nozzle; these steps being repeated for each additional layer of construction required the method further comprising: substantially simultaneously with said application of said cementitious material, applying a support material in a contiguous layer with said cementitious material in areas where cementitious material is not desired, such that said support material, along with said cementitious material, provides the work surface for the next layer of construction, characterized by the support material being a sand-based material. providing a cementitious material; delivering said cementitious material to a nozzle indexing said nozzle along a pre-determined path; and applying said cementitious material to a work surface by extrusion through said nozzle; these steps being repeated for each additional layer of construction required the method further comprising: substantially simultaneously with said application of said cementitious material, applying a support material in a contiguous layer with said cementitious material in areas where cementitious material is not desired, such that said support material, along with said cementitious material, provides the work surface for the next layer of construction, characterized by the support material being a sand-based material.
A liquid pharmaceutical formulation comprising exendin or a pharmaceutically acceptable salt thereof and a tonicity modifier in a physiologically acceptable buffer having a pH in the range of 5.5 to 6, wherein the exendin or the pharmaceutically acceptable salt thereof does not exhibit visible aggregation in the formulation.
Device (1, 1') for holding a food tray in a cooking compartment of a cooking appliance, which has a support (2, 2', 3, 3') which has at least one insertion guide (8, 8') for receiving the food tray and which is delimited by an upper and a lower guide element (6, 6', 7, 7') such that when the food tray is mounted in the insertion guide (8, 8'), the food tray rests on the lower guide element (6, 6'), characterised in that at one end (71', 72') the upper guide element has a cross-sectional surface (71a', 72a') which is arranged so as to lead to a first supporting bar of the support (2', 3') and at this contact point the guide element is connected to the first supporting bar in a retaining manner, wherein the upper guide element has a first element piece which extends beginning from a front first end in a straight line in the direction of a second supporting bar, and wherein the cross-sectional surface (71a', 72a') is fastened to the first supporting bar by means of a welded connection.
An air supply arrangement for a vehicle, said air supply arrangement comprising - a housing, said housing comprising an air inlet adapted to receive an air stream from outside of the vehicle and an outlet adapted to convey said air stream to a vehicle climate control system, and - a cowl (17, 17') provided within said housing, said cowl (17, 17') being arranged within said housing, such that it redirects said air stream, said cowl (17, 17') being arranged such that said air stream is split into at least two air stream portions, whereof a first air stream portion passes between said cowl (17, 17') and a top portion of said housing, and a second air stream portion passes below said cowl (17, 17'), and wherein said cowl (17, 17') changes the direction of said first air stream portion by at least 90 degrees, when passing an upper edge of said cowl (17, 17') characterized in that said second air stream portion is redirected by more than 90 degrees when passing below a lower edge of said cowl (17, 17'). - a housing, said housing comprising an air inlet adapted to receive an air stream from outside of the vehicle and an outlet adapted to convey said air stream to a vehicle climate control system, and - a cowl (17, 17') provided within said housing, said cowl (17, 17') being arranged within said housing, such that it redirects said air stream,