mhurhangee/ep-ind-claims huggingface dataset:
A propeller blade retention arrangement comprising: • a propeller blade comprising in radial sequence an aerofoil portion, a shank portion and a root portion; the root portion having first cross-sectional area close to the shank portion and second cross-sectional area at the end distal to the aerofoil portion, wherein the second cross-sectional area is greater than the first cross-sectional area; • at least two cheeks each having an inner surface arranged to abut the root portion, an outer surface that is threaded and edge surfaces that abut another of the at least two cheeks; wherein the at least two cheeks are arranged to surround the root portion in circumferential abutment; • a collar having a threaded inner surface arranged to threadingly engage the outer surfaces of the at least two cheeks; and • characterised in that each cheek comprises an integral penny, the integral penny being a flange having part-circular outer periphery and an inner periphery arranged to abut the transition from shank portion to aerofoil portion of the propeller blade. • a propeller blade comprising in radial sequence an aerofoil portion, a shank portion and a root portion; the root portion having first cross-sectional area close to the shank portion and second cross-sectional area at the end distal to the aerofoil portion, wherein the second cross-sectional area is greater than the first cross-sectional area; • at least two cheeks each having an inner surface arranged to abut the root portion, an outer surface that is threaded and edge surfaces that abut another of the at least two cheeks; wherein the at least two cheeks are arranged to surround the root portion in circumferential abutment; • a collar having a threaded inner surface arranged to threadingly engage the outer surfaces of the at least two cheeks; and • characterised in that each cheek comprises an integral penny, the integral penny being a flange having part-circular outer periphery and an inner periphery arranged to abut the transition from shank portion to aerofoil portion of the propeller blade.
An access point, comprising: an interface circuit configured to wirelessly communicate with an electronic device, wherein the interface circuit is configured to: transmit a multi-basic service set, BSS, beacon that comprises a transmitted basic service set identifier, BSSID, and one or more non-transmitted BSSIDs, wherein the transmitted BSSID and the one or more non-transmitted BSSIDs have separate wireless connection interfaces and different capabilities; transmit individual beacons for each of the transmitted BSSID and the one or more non-transmitted BSSIDs, wherein a given BSSID in a given individual beacon corresponds to one of: the transmitted BSSID or a given one of the one or more non-transmitted BSSIDs; receive a probe request associated with the electronic device, where the probe request comprises a multi-BSS indication; and selectively transmit a probe response in response to the probe request, wherein a type of the probe response is based at least in part on the multi-BSS indication; and wherein operations performed by the interface circuit comprise: the transmitted BSSID is compatible with a first Institute of Electrical and Electronics Engineers, IEEE, 802.11 standard, a non-transmitted BSSID in the one or more non-transmitted BSSIDs is compatible with a second IEEE 802.11 communication protocol that is different from the first IEEE 802.11 standard, and the transmitted BSSID shares an SSID with the non-transmitted BSSID. transmit a multi-basic service set, BSS, beacon that comprises a transmitted basic service set identifier, BSSID, and one or more non-transmitted BSSIDs, wherein the transmitted BSSID and the one or more non-transmitted BSSIDs have separate wireless connection interfaces and different capabilities; transmit individual beacons for each of the transmitted BSSID and the one or more non-transmitted BSSIDs, wherein a given BSSID in a given individual beacon corresponds to one of: the transmitted BSSID or a given one of the one or more non-transmitted BSSIDs; receive a probe request associated with the electronic device, where the probe request comprises a multi-BSS indication; and selectively transmit a probe response in response to the probe request, wherein a type of the probe response is based at least in part on the multi-BSS indication; and wherein operations performed by the interface circuit comprise: the transmitted BSSID is compatible with a first Institute of Electrical and Electronics Engineers, IEEE, 802.11 standard, a non-transmitted BSSID in the one or more non-transmitted BSSIDs is compatible with a second IEEE 802.11 communication protocol that is different from the first IEEE 802.11 standard, and the transmitted BSSID shares an SSID with the non-transmitted BSSID.
An injection device comprising - a housing (10; 410) having a first aperture or window, - a dose indicator (120; 480) positioned within the housing (10; 410) and rotatable with respect to the housing (10; 410) during dose setting and during dose dispensing, - a gauge element (110; 490), which is interposed between the housing (10; 410) and the dose indicator (120; 480), wherein the gauge element (110; 490) has a second aperture or window, which is positioned with respect to the first aperture or window of the housing (10; 410) such that at least a part of the dose indicator (120; 480) is visible through the first and second apertures (11, 111) or windows, and wherein the gauge element (110; 490) is axially guided within the housing (10; 410) and in threaded engagement with the dose indicator (120; 480) such that rotation of the dose indicator (120; 480) causes an axial displacement of the gauge element (110; 490), characterized in that the injection device further comprises a resilient member (90; 510) adapted to provide a force necessary for ejecting a dose from the injection device, wherein the gauge element (110; 490) does not protrude out of the housing (10; 410) during dose setting and during dose dispensing, wherein the injection device has no dial extension, and wherein the injection device further comprises a cartridge holder (20; 413) for receiving a cartridge, wherein the gauge element (110; 490) is guided in the housing (10; 410) such that the gauge element (110; 490) at least in one of its axial positions during dose setting overlaps at least a part of the cartridge. - a housing (10; 410) having a first aperture or window, - a dose indicator (120; 480) positioned within the housing (10; 410) and rotatable with respect to the housing (10; 410) during dose setting and during dose dispensing, - a gauge element (110; 490), which is interposed between the housing (10; 410) and the dose indicator (120; 480), wherein the gauge element (110; 490) has a second aperture or window, which is positioned with respect to the first aperture or window of the housing (10; 410) such that at least a part of the dose indicator (120; 480) is visible through the first and second apertures (11, 111) or windows, and wherein the gauge element (110; 490) is axially guided within the housing (10; 410) and in threaded engagement with the dose indicator (120; 480) such that rotation of the dose indicator (120; 480) causes an axial displacement of the gauge element (110; 490),
A method comprising generating, by a source wireless access network node for a user equipment UE, a plurality of security configurations, wherein each security configuration of the plurality of security configurations is associated with a different respective candidate target wireless access network node in a set of candidate target wireless access network nodes; sending, by the source wireless access network node, each security configuration of the plurality of security configurations to the respective candidate target wireless access network node; and sending, by the source wireless access network node, security information of the plurality of security configurations to the UE. sending, by the source wireless access network node, each security configuration of the plurality of security configurations to the respective candidate target wireless access network node; and sending, by the source wireless access network node, security information of the plurality of security configurations to the UE.
A method of preparing a feedstock liquid having a viscosity from 4.0 x 10 -2 to 6.5 x 10 -2 Pa·s at 15°C used for production of ammonium diuranate particles to be used for production of a nuclear fuel for a high temperature-gas reactor, which comprises mixing a uranyl nitrate solution, obtained by reacting nitric acid with a uranium oxide so that the molar ratio (A/B) of nitric acid to uranium is from 2.1 to 2.6, and from 50 to 99% by volume of tetrahydrofurfuryl alcohol based on an entire volume of tetrahydrofurfuryl alcohol included in the feedstock liquid to produce a uranyl nitrate mixture, weighing polyvinyl alcohol when it is dry, dissolving the polyvinyl alcohol in water while the polyvinyl alcohol and water are heated to a temperature of at least 75°C, to produce a 6 to 9 mass% aqueous polyvinyl alcohol solution, mixing the aqueous polyvinyl alcohol solution with from 1 to 50% by volume of tetrahydrofurfuryl alcohol based on an entire volume of tetrahydrofurfuryl alcohol included in the feedstock liquid at a temperature ofatleast50°C to produce a polyvinyl alcohol solution, mixing the uranyl nitrate mixture with the polyvinyl alcohol solution under stirring, degassing a resultant mixture of the uranyl nitrate mixture and the polyvinyl alcohol solution, and adjusting the volume thereof by adding pure water, wherein the uranium content in the feedstock liquid is from 0.6 to 0.9 mol-U/L, the total amount of tetrahydrofurfuryl alcohol in the feedstock liquid is 40 to 50% by volume based on an entire volume of the feedstock liquid and the amount of polyvinyl alcohol in the feedstock liquid is from 10 to 15 g/L.
A medication delivery device (100, 502) comprising: a dose selector (112, 506) for selecting an amount of medication to deliver; a first capacitive sensor adjacent the dose selector (112, 506) and operative to detect linear displacement of the dose selector during medication delivery; a transceiver; and a screw coupled between the dose selector (112, 506) and a plunger configured to apply pressure to a medication cartridge in a medication cartridge holder to administer the selected amount of medication; characterized in that the medication delivery device further comprises a second capacitive sensor adjacent the screw and operative to detect linear displacement of the screw during medication delivery; and a processor coupled to the first capacitive sensor, the second capacitive sensor, and to the transceiver and operative to determine an amount of medication actually delivered by the medication delivery device based on both the detected linear displacement of the dose selector (112, 506) and the detected linear displacement of the screw, and further operative to communicate via the transceiver the determined amount of medication from the medication delivery device to a data management system or a blood glucose meter. a dose selector (112, 506) for selecting an amount of medication to deliver; a first capacitive sensor adjacent the dose selector (112, 506) and operative to detect linear displacement of the dose selector during medication delivery; a transceiver; and a screw coupled between the dose selector (112, 506) and a plunger configured to apply pressure to a medication cartridge in a medication cartridge holder to administer the selected amount of medication; characterized in that the medication delivery device further comprises a second capacitive sensor adjacent the screw and operative to detect linear displacement of the screw during medication delivery; and a processor coupled to the first capacitive sensor, the second capacitive sensor, and to the transceiver and operative to determine an amount of medication actually delivered by the medication delivery device based on both the detected linear displacement of the dose selector (112, 506) and the detected linear displacement of the screw, and further operative to communicate via the transceiver the determined amount of medication from the medication delivery device to a data management system or a blood glucose meter.
Process for the preparation of an aqueous solution of a borohydride or an aluminohydride denoted XH 4 where X is chosen from KB, LiB, NaAl, KAI, LiAl or NaB, carried in an underwater vehicle, said process comprising dissolution of XH 4 in the form of tablets in an aqueous dissolution solution, such that the dissolution is carried out in a dissolution chamber and a storage reservoir of XH 4 tablets, and is carried out by forced circulation of the aqueous dissolution solution between said storage reservoir and the dissolution chamber.
A cationic electrodeposition coating composition comprising an amine-modified epoxy resin, a curing agent, a Group-3 element compound, and a cationic or nonionic resin, wherein the amine-modified epoxy resin has a number-average molecular weight within a range of 1,000 to 5,000, and the cationic or nonionic resin has a number-average molecular weight of 10,000 or more.
A composition for coating an optical fiber comprising: a free radically curable acrylate and/or a methacrylate functionalized oligomer having a density of less than 1.0 g/cm 3; where the acrylate and/or the methacrylate functionalized oligomer has a functionality of 1 or more; a photoinitiator; and optionally a free radically curable acrylate and/or methacrylate diluent monomer that has a density of less than 1.0 g/cm 3; where the coating composition is disposed and cured on an optical fiber; where a density of the cured coating is less than 1.0 g/cm 3; and where the average functionality of the composition is greater than one. a free radically curable acrylate and/or a methacrylate functionalized oligomer having a density of less than 1.0 g/cm 3; where the acrylate and/or the methacrylate functionalized oligomer has a functionality of 1 or more; a photoinitiator; and optionally a free radically curable acrylate and/or methacrylate diluent monomer that has a density of less than 1.0 g/cm 3;
Seat adjusting device, in particular for motor vehicles, comprising a spindle which is fastened on a first one of two rails (3, 4), which are adjustable relative to one another, by means of at least one mounting located at the end of the spindle, and a gear mechanism which can be driven by a motor arranged on the second rail, wherein the mounting is a one-piece stamped bent part with a first region with at least one fastening opening (64a, 64b), and with a second region which is offset upwards with respect to the first region to hold one end of the spindle, wherein the first region and the second region are connected integrally by a transition region, characterised in that the second region is slotted, with two legs (82a, 82b) which, at least in sections, lie opposite a slot and between which the end of the spindle can be fixed, wherein the transition region is also at least partially slotted, wherein the two legs (82a, 82b) of the second region extend into the transition region as part-legs (92a, 92b) and are connected there by a transverse leg.
Method for determining a differential power (ΔP) between an output power ( P real) of a wind farm that is actually fed into a supply grid under given boundary conditions and a maximum possible output power ( P max) of the wind farm under the boundary conditions, wherein the wind farm has a plurality of wind turbines, arranged in spatial proximity to each other, for converting wind energy into electrical energy, characterized by the following steps of: a. operating the wind farm under the given boundary conditions, wherein at least one of the wind turbines is operated in a restricted state; b. determining a performance variable ( X i,lim,real), prevailing under the boundary conditions, of a selected wind turbine (WEA_i); c. using a wake model to estimate a simulated restricted performance variable ( Xi,lim,sim) of the selected wind turbine (WEA_i), wherein the wake model takes into account the given boundary conditions and the restricted state of the at least one wind turbine; d. using the wake model to estimate a simulated maximum performance variable ( X i,max,sim) of the selected wind turbine (WEA_i), wherein the wake model takes into account the given boundary conditions and it is assumed that the wind farm is operated in the unrestricted state; e. determining a corrected maximum performance variable ( X i,max,est) for the selected wind turbine (WEA_i) while taking into account the prevailing performance variable ( X i,lim,real)' the simulated restricted performance variable ( X i,lim,sim) and the simulated maximum performance variable ( X i,max,sim); f. using the corrected maximum performance variable ( X i,max,est) to calculate the maximum possible output power ( P i,max,est) of the selected wind turbine (WEA_i). a. operating the wind farm under the given boundary conditions, wherein at least one of the wind turbines is operated in a restricted state; b. determining a performance variable ( X i,lim,real), prevailing under the boundary conditions, of a selected wind turbine (WEA_i); c. using a wake model to estimate a simulated restricted performance variable ( Xi,lim,sim) of the selected wind turbine (WEA_i), wherein the wake model takes into account the given boundary conditions and the restricted state of the at least one wind turbine; d. using the wake model to estimate a simulated maximum performance variable ( X i,max,sim) of the selected wind turbine (WEA_i), wherein the wake model takes into account the given boundary conditions and it is assumed that the wind farm is operated in the unrestricted state; e. determining a corrected maximum performance variable ( X i,max,est) for the selected wind turbine (WEA_i) while taking into account the prevailing performance variable ( X i,lim,real)' the simulated restricted performance variable ( X i,lim,sim) and the simulated maximum performance variable ( X i,max,sim); f. using the corrected maximum performance variable ( X i,max,est) to calculate the maximum possible output power ( P i,max,est) of the selected wind turbine (WEA_i).
An insole for footwear, wherein said insole comprises a lower membrane foil (3.2) and an upper membrane foil (3.3) mutually joined along a closed path so as to form an enclosure (3.5) between the lower membrane foil (3.2) and the upper membrane foil (3.3), wherein the enclosure is filled with water; wherein only the upper membrane foil, or both the upper membrane foil and the lower membrane foil, is made of a plastic material with a membrane foil stiffness defined by a deflection within a deflection interval in a bending measurement as follows: the bending measurement is being made with a piece of 10 mm x 25 mm of the plastic material placed centrally resting on two parallel rails (2.2) having a mutual distance of 15 mm, and wherein a force is applied onto the piece at 25°C, the force corresponding to a weight of 25g midway between the two parallel rails (2,2) so as to cause a deflection after a constant weight impact for 2.5 minutes, the deflection of which is then measured; characterized in that the upper membrane foil (3.3) has a thickness of less than 1.5 mm and the deflection interval is 0.02 to 1.95 mm.
Method for determining the location of a firer, said method comprising the steps of a) determining the position of a moving object at the detection of firing against the moving object, b) estimating a plurality of positions for the moving object during a predetermined time period preceding the detection of firing, and c) estimating the location of a firer only based on line of sight calculations using only three dimensional map data and the determined position of the moving object at the detection of firing and the estimated plurality of positions of the moving object during the predetermined time period preceding the detection of firing, wherein the location of the firer is estimated based on the assumption that the moving object has been visible to the firer substantially during the whole predetermined time period preceding the detection of firing. a) determining the position of a moving object at the detection of firing against the moving object, b) estimating a plurality of positions for the moving object during a predetermined time period preceding the detection of firing, and c) estimating the location of a firer only based on line of sight calculations using only three dimensional map data and the determined position of the moving object at the detection of firing and the estimated plurality of positions of the moving object during the predetermined time period preceding the detection of firing, wherein the location of the firer is estimated based on the assumption that the moving object has been visible to the firer substantially during the whole predetermined time period preceding the detection of firing.
An electronic device for capacitive fingerprint recognition and authentication, comprising: a button including a lens, the lens formed of an anisotropic dielectric material; a fingerprint sensor for capacitive fingerprint sensing and positioned below the button; a structure (115, 312) that supports and surrounds the sides of the button and supports or integrates a ground ring that electrically isolates the fingerprint sensor, wherein the button is disposed within the ground ring; a tactile dome switch (118,218) positioned below the fingerprint sensor; and a stiffener element positioned between the fingerprint sensor and the tactile dome switch; and a flexible circuit element positioned between the fingerprint sensor and the stiffener element, characterized in that the flexible circuit element is configured to receive signals from the fingerprint sensor and receive and transmit force imposed on the button to the tactile dome switch (118, 218). a button including a lens, the lens formed of an anisotropic dielectric material; a fingerprint sensor for capacitive fingerprint sensing and positioned below the button; a structure (115, 312) that supports and surrounds the sides of the button and supports or integrates a ground ring that electrically isolates the fingerprint sensor, wherein the button is disposed within the ground ring; a tactile dome switch (118,218) positioned below the fingerprint sensor; and a stiffener element positioned between the fingerprint sensor and the tactile dome switch; and a flexible circuit element positioned between the fingerprint sensor and the stiffener element, characterized in that the flexible circuit element is configured to receive signals from the fingerprint sensor and receive and transmit force imposed on the button to the tactile dome switch (118, 218).