mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting an opening of a housing of a battery module , having the steps of • measuring a first measured variable by means of a first sensor , wherein the measured first measured variable represents a detected opening of the housing , • measuring a further measured variable by means of a further sensor , wherein the measured further measured variable represents the opening of the housing , • generating a first sensor signal by means of the first sensor on the basis of the measured first measured variable, • generating a further sensor signal by means of the further sensor on the basis of the measured further measured variable, and • activating a battery management system on the basis of the first sensor signal, • generating a locking signal on the basis of the first sensor signal of the first sensor and additionally on the basis of the further sensor signal by means of the battery management system , and • deactivating the battery management system on the basis of the generated locking signal. • measuring a first measured variable by means of a first sensor , wherein the measured first measured variable represents a detected opening of the housing , • measuring a further measured variable by means of a further sensor , wherein the measured further measured variable represents the opening of the housing , • generating a first sensor signal by means of the first sensor on the basis of the measured first measured variable, • generating a further sensor signal by means of the further sensor on the basis of the measured further measured variable, and • activating a battery management system on the basis of the first sensor signal, • generating a locking signal on the basis of the first sensor signal of the first sensor and additionally on the basis of the further sensor signal by means of the battery management system , and • deactivating the battery management system on the basis of the generated locking signal.
A telescopic actuator comprising a cylinder in which a rod is mounted to slide along a sliding axis (X), the actuator including a locking member comprising a locking finger that is movable along a locking direction (Y) that is perpendicular to the sliding axis, between a locking position in which an end of the locking finger is engaged in a groove in the rod in order to lock the rod in position, and a retracted position in which the end of the finger is disengaged from the groove in order to release the rod, a locking indicator being secured to the locking finger to be movable between a position indicating locking when the locking finger is in the locking position, and a position indicating unlocking when the locking finger is in the retracted position, the actuator being characterized in that the locking indicator is secured to the locking finger by a connection suitable for being interrupted in the event of the end of the finger being broken off while the rod is locked, a thrust spring being arranged in the locking finger to push the locking indicator towards the position indicating unlocking when said connection is interrupted, while the locking finger remains in the locking position.
A system for automatic adjustment of an ejection system for an aircraft, the system comprising: the ejection system having a plurality of adjustable settings; a helmet ; an image sensor located on the helmet and configured to detect user data corresponding to a user of the ejection system, wherein the image sensor is configured to detect image data corresponding to the user and wherein the image data is the user data; and a controller coupled to the ejection system and to the image sensor and configured to: determine an identifier of the user of the system based on the user data; retrieve specific settings of the user by accessing a database based on the identifier; and adjust at least one of the plurality of the adjustable settings of the ejection system based on the specific settings of the user retrieved from the database. the ejection system having a plurality of adjustable settings; a helmet ; an image sensor located on the helmet and configured to detect user data corresponding to a user of the ejection system, wherein the image sensor is configured to detect image data corresponding to the user and wherein the image data is the user data; and a controller coupled to the ejection system and to the image sensor and configured to: determine an identifier of the user of the system based on the user data; retrieve specific settings of the user by accessing a database based on the identifier; and adjust at least one of the plurality of the adjustable settings of the ejection system based on the specific settings of the user retrieved from the database. determine an identifier of the user of the system based on the user data; retrieve specific settings of the user by accessing a database based on the identifier; and adjust at least one of the plurality of the adjustable settings of the ejection system based on the specific settings of the user retrieved from the database.
An immunoassay method for human BNP fragment (4-32) in a sample, wherein the method uses an antibody that reacts with human BNP fragment (4-32) but does not react with full-length human BNP (1-32), human BNP fragment (3-32), and human BNP fragment (5-32).
Method for producing a thermoplastic combination film (F) suitable for a composite glass pane , wherein the thermoplastic combination film (F) comprises at least one defined area (K), which is provided for a camera window or an HUD (head-up display) region that has a variable wedge angle, the method at least comprising the steps: - providing a first thermoplastic film (F1), - producing a second thermoplastic film (F2) with a variable wedge angle, wherein the three-dimensional shape of the second thermoplastic film (F2) is obtained by molding on a mold , and - joining together the first thermoplastic film (F1) and the second thermoplastic film (F2), wherein the steps of joining together the first thermoplastic film (F1) and the second thermoplastic film (F2) and of producing the second thermoplastic film (F2) are done simultaneously. - providing a first thermoplastic film (F1), - producing a second thermoplastic film (F2) with a variable wedge angle, wherein the three-dimensional shape of the second thermoplastic film (F2) is obtained by molding on a mold , and - joining together the first thermoplastic film (F1) and the second thermoplastic film (F2),
A therapeutically effective amount of at least one tPA (tissue plasminogen activator) mutant or an anti-fibrinolytic composition comprising said mutant for use in a method for inhibiting the fibrinolytic activity of at least one of tPA and uPA, in a subject suffering from a disease, disorder, or condition associated with fibrinolysis, and/or for use in a method for the treatment, amelioration, inhibition or prophylaxis of said disease, disorder, or condition associated with fibrinolysis, wherein said mutant carries a point mutation in position 481 of the Wild type molecule as denoted by SEQ 481 ID NO. 7, substituting Ser to Ala, said mutant inhibits the fibrinolytic activity of at least one of tPA and uPA (urokinase plasminogen activator), and wherein said disease, disorder, or condition is any one of coagulopathy, thrombocytopenia, noncompressible hemorrhage, gynecological hemorrhage, hemorrhage in mouth (hematemesis, hemoptysis), nose (epistaxis), anus (hematochezia), urinary tract (hematuria); internal bleedings into the spleen and liver, gastrointestinal bleeding, minor surgery or major surgery bleeding, congenital coagulopathy, hemophilia, disseminated intravascular coagulation (DIC), heparin induced thrombocytopenia (HIT) and internal bleeding induced by coumadin, Warfarin or a combination of both.
An apparatus for the therapeutic treatment of a user's tissue injury comprising a control unit to which an applicator adapted to be positioned in proximity of the tissue injury to be treated is connected, said control unit being configured to generate at the applicator an electric field adapted to be applied to the tissue injury, said apparatus being characterized in that it comprises a return electrode, electrically connected to a reference potential (V1) and applied to the user in proximity of the tissue injury to be treated, said applicator being placed on the tissue injury to concentrate the electric field on the tissue injury and said control unit being also configured to generate an air or oxygen flow which is directed to the applicator and to transform, at the applicator , the air or oxygen flow in an ozone flow adapted to be diffused and applied to the tissue injury in combined action with said electric field, said applicator comprising an electrode electrically connected to said control unit, said electrode comprising a plurality of threadlike conductive elements , said threadlike conductive elements being adapted to trigger at their free ends a plurality of electric discharges , said applicator being configured in such a way as to convey said electric discharges to the tissue injury, said electric discharges being adapted to ionize said air flow conveyed inside the diffuser for the production of said ozone flow.
A method for repairing a metallic article, comprising: providing a metallic article having a gap defect ; removing material of an area formed with the gap defect from the metallic article to form a gap ; disposing repair material into the formed gap ; sealing and vacuumizing a bonding land defined between the metallic article and the repair material; and treating the repair material and the metallic article using hot isostatic pressing to perform the repair, wherein sealing the bonding land is performed by sealing the surface area of the bonding land , characterized in that the surface area of the bonding land , and the sealing material form a discontinuous connecting bonding line and define an opening on the surface area ; wherein sealing the surface area of the bonding land is performed using a powder micro-spark deposition process. providing a metallic article having a gap defect ; removing material of an area formed with the gap defect from the metallic article to form a gap ; disposing repair material into the formed gap ; sealing and vacuumizing a bonding land defined between the metallic article and the repair material; and treating the repair material and the metallic article using hot isostatic pressing to perform the repair, wherein sealing the bonding land is performed by sealing the surface area of the bonding land , characterized in that the surface area of the bonding land , and the sealing material form a discontinuous connecting bonding line and define an opening on the surface area ; wherein sealing the surface area of the bonding land is performed using a powder micro-spark deposition process.
A device for cooling a turbine casing by air jets, preferably a low-pressure turbine casing of a turbomachine, comprising a pressurized air supply housing and at least one cooling line comprising two cooling pipes arranged on each side of said housing , said housing comprising a bottom , two longitudinal side walls , two upstream and downstream end walls and an upper wall , and said bottom of the housing being pierced by air injection orifices arranged so as to open toward the casing around which said cooling device is intended to be arranged, each cooling pipe being curved, arranged around a part of the casing and at a distance therefrom and being provided with air injection orifices opening toward the casing, each of said side walls extends outward via at least one tubular sleeve integral with said side wall , each sleeve is configured and dimensioned so that one of the cooling pipes may be connected thereto, characterized in that each sleeve is arranged on said side wall so that its bottom is at the same level as said bottom of the housing at the place where they join.
A fuel supply device (10; 33; 36; 59; 83; 85) comprising: an inlet pipe , a first end of the inlet pipe configured to be connected to an oil supply port and a second end of the inlet pipe configured to be connected to a fuel tank ; and an air flow path (17; 35; 47; 63; 84; 105), an upstream side end of the air flow path (17; 35; 47; 63; 84; 105) configured to be open to an outside and a downstream side end of the air flow path (17; 35; 47; 63; 84; 105) configured to be connected to the fuel tank , wherein the air flow path (17; 35; 47; 63; 84; 105) includes a negative pressure valve (23; 53; 70; 86) configured to move a valve body (28; 57; 76; 98) to open a valve port (27; 55; 75; 96) when a pressure in the fuel tank becomes a negative pressure, and an air filter (30; 43; 78; 110) disposed upstream of the negative pressure valve (23; 53; 70; 86), the fuel supply device characterized in that the air flow path is connected via a communication to the inlet pipe below the oil supply port and the negative pressure valve (23; 53; 70; 86) and the air filter (30; 43; 78; 110) are integrated with each other and constitute a valve module (18; 64) that is detachable from the air flow path (17; 35; 47; 63; 84; 105). an inlet pipe , a first end of the inlet pipe configured to be connected to an oil supply port and a second end of the inlet pipe configured to be connected to a fuel tank ; and an air flow path (17; 35; 47; 63; 84; 105), an upstream side end of the air flow path (17; 35; 47; 63; 84; 105) configured to be open to an outside and a downstream side end of the air flow path (17; 35; 47; 63; 84; 105) configured to be connected to the fuel tank , wherein the air flow path (17; 35; 47; 63; 84; 105) includes a negative pressure valve (23; 53; 70; 86) configured to move a valve body (28; 57; 76; 98) to open a valve port (27; 55; 75; 96) when a pressure in the fuel tank becomes a negative pressure, and an air filter (30; 43; 78; 110) disposed upstream of the negative pressure valve (23; 53; 70; 86), the fuel supply device characterized in that a negative pressure valve (23; 53; 70; 86) configured to move a valve body (28; 57; 76; 98) to open a valve port (27; 55; 75; 96) when a pressure in the fuel tank becomes a negative pressure, and an air filter (30; 43; 78; 110) disposed upstream of the negative pressure valve (23; 53; 70; 86), the fuel supply device characterized in that the air flow path is connected via a communication to the inlet pipe below the oil supply port and the negative pressure valve (23; 53; 70; 86) and the air filter (30; 43; 78; 110) are integrated with each other and constitute a valve module (18; 64) that is detachable from the air flow path (17; 35; 47; 63; 84; 105).
A peptide or a pharmaceutically acceptable salt thereof, comprising: (a) a chaperone-mediated autophagy (CMA)-targeting signal domain; wherein the CMA-targeting signal domain comprises KFERQKILDQRFFE; (b) a protein-binding domain that selectively binds to a target cytosolic protein; and (c) a cell membrane penetrating domain. (a) a chaperone-mediated autophagy (CMA)-targeting signal domain; wherein the CMA-targeting signal domain comprises KFERQKILDQRFFE; (b) a protein-binding domain that selectively binds to a target cytosolic protein; and (c) a cell membrane penetrating domain.
A safety thread scheduler configured to schedule a check thread for a critical thread being run on one of a plurality of execution units (102_0 ... 102_K-1), the check thread being a duplicate of the critical thread; the safety thread scheduler being configured to schedule the check thread to begin being run on a second one of the plurality of execution units, characterized in that the safety thread scheduler is configured to schedule the check thread to begin being run on a second one of the plurality of execution units before the end of a safety time-window for scheduling the check thread; and the safety thread scheduler being further configured to allow the check thread, when the check thread is running on the second one of the plurality of execution units, to be interrupted by a further thread and to re-schedule the check thread to be resumed by expiry of a re-scheduling time limit. the safety thread scheduler being configured to schedule the check thread to begin being run on a second one of the plurality of execution units, characterized in that the safety thread scheduler is configured to schedule the check thread to begin being run on a second one of the plurality of execution units before the end of a safety time-window for scheduling the check thread; and the safety thread scheduler being further configured to allow the check thread, when the check thread is running on the second one of the plurality of execution units, to be interrupted by a further thread and to re-schedule the check thread to be resumed by expiry of a re-scheduling time limit.
An aircraft wing comprising: a rear spar having a rear side and a front side opposite the rear side ; and a forward trunnion support assembly including: a side load backup fitting disposed on the front side of the rear spar ; a forward trunnion housing assembly coupled to the rear side of the rear spar ; a side load fitting disposed on the rear side of the rear spar , a first end of the side load fitting coupled to the forward trunnion housing assembly , a second end of the side load fitting coupled to side load backup fitting via a first plurality of fasteners extending through the rear spar ; and an upper stabilization brace fitting disposed on the rear side of the rear spar , the upper stabilization brace fitting coupled to the side load backup fitting via a second plurality of fasteners 646) extending through the rear spar . a rear spar having a rear side and a front side opposite the rear side ; and a forward trunnion support assembly including: a side load backup fitting disposed on the front side of the rear spar ; a forward trunnion housing assembly coupled to the rear side of the rear spar ; a side load fitting disposed on the rear side of the rear spar , a first end of the side load fitting coupled to the forward trunnion housing assembly , a second end of the side load fitting coupled to side load backup fitting via a first plurality of fasteners extending through the rear spar ; and an upper stabilization brace fitting disposed on the rear side of the rear spar , the upper stabilization brace fitting coupled to the side load backup fitting via a second plurality of fasteners 646) extending through the rear spar . a side load backup fitting disposed on the front side of the rear spar ; a forward trunnion housing assembly coupled to the rear side of the rear spar ; a side load fitting disposed on the rear side of the rear spar , a first end of the side load fitting coupled to the forward trunnion housing assembly , a second end of the side load fitting coupled to side load backup fitting via a first plurality of fasteners extending through the rear spar ; and an upper stabilization brace fitting disposed on the rear side of the rear spar , the upper stabilization brace fitting coupled to the side load backup fitting via a second plurality of fasteners 646) extending through the rear spar .
An image processing device adapted to obtain a depth information image representing a distribution of depth information about an object on the basis of a first image (D80) and a second image (S81) that have different degrees of blurring, the first and second images being captured under different focus positions and/or different aperture diameters by an image sensor including a plurality of groups of pixels, each group including a red pixel for obtaining red information, a green pixel for obtaining green information, and a blue pixel for obtaining blue information, wherein the first image and the second image are decomposed into red (R), green (G), blue (B) images, and, by interpolating missing pixels, a first RGB format image (D82) having signal values for red (R), green (G), blue (B) of all pixels of the image is generated from the first image and a second RGB format image (D83) having signal values for red (R), green (G), blue (B) of all pixels of the image is generated from the second image, and wherein the image processing device comprises: a generation unit configured to generate a first mixed image (D84) from the first RGB format image and a second mixed image (D85) from the second RGB format image, wherein a mixed signal corresponding to each pixel of the mixed images is generated by calculating a weighted average of signal values for red (R), green (G), blue (B) in the same group; an extracting unit configured to extract signals, each corresponding to one of the plurality of pixels of each group, from each of the first mixed image and the second mixed image and generate a first extracted image (D86) and a second extracted image (D87) respectively corresponding to the first mixed image and the second mixed image, wherein the extracted signals are signals corresponding to pixels of the first image and of the second image that obtain the same color information; and a calculating unit configured to calculate the depth information image from a difference in degree of blurring between regions in the first extracted image and corresponding regions in the second extracted image. a generation unit configured to generate a first mixed image (D84) from the first RGB format image and a second mixed image (D85) from the second RGB format image, wherein a mixed signal corresponding to each pixel of the mixed images is generated by calculating a weighted average of signal values for red (R), green (G), blue (B) in the same group; an extracting unit configured to extract signals, each corresponding to one of the plurality of pixels of each group, from each of the first mixed image and the second mixed image and generate a first extracted image (D86) and a second extracted image (D87) respectively corresponding to the first mixed image and the second mixed image, wherein the extracted signals are signals corresponding to pixels of the first image and of the second image that obtain the same color information; and a calculating unit configured to calculate the depth information image from a difference in degree of blurring between regions in the first extracted image and corresponding regions in the second extracted image.
Marking comprising randomly distributed cholesteric liquid crystal polymer, "CLCP", flakes reflecting circular polarized light for its identification or authentication, the CLCP flakes having a size of between 20 to 100 micrometers and a thickness of about 1 to 10 micrometers; characterized in that the marking has a flake density not higher than 35 flakes per square millimeter.
A dye-sensitized solar cell including: - a working electrode , - a first conducting layer for extracting photo-generated electrons from the working electrode, - a porous insulation substrate made of microfibers, wherein the first conducting layer is a porous conducting layer formed on one side of the porous insulation substrate, - a counter electrode including a second conducting layer arranged on the opposite side of the porous insulation substrate, and - electrolyte for transferring electrons from the counter electrode to the working electrode, characterized in that the porous insulation substrate comprises a layer of woven microfibers and a layer of non-woven microfibers disposed on the layer of woven microfibers on a first side of the substrate. - a working electrode , - a first conducting layer for extracting photo-generated electrons from the working electrode, - a porous insulation substrate made of microfibers, wherein the first conducting layer is a porous conducting layer formed on one side of the porous insulation substrate, - a counter electrode including a second conducting layer arranged on the opposite side of the porous insulation substrate, and - electrolyte for transferring electrons from the counter electrode to the working electrode, characterized in that the porous insulation substrate comprises a layer of woven microfibers and a layer of non-woven microfibers disposed on the layer of woven microfibers on a first side of the substrate.