mhurhangee/ep-ind-claims huggingface dataset:
A pressure bulkhead for an aircraft fuselage, comprising: A sandwich structure defining a central axis and extending between a circumferential border area which is configured for being mounted to a fuselage shell, wherein the sandwich structure comprises: An inner face sheet extending transverse to the central axis, an outer face sheet opposite the inner face sheet, extending transverse to the central axis, and a core assembly sandwiched between the inner face sheet and the outer face sheet, wherein the inner face sheet, when viewed in a radial cross section along the central axis, has an even shape, wherein the outer face sheet, when viewed in said radial cross section along the central axis, has a convex shape, characterized in that the distance between the outer face sheet and the inner face sheet increases tangent continuously from the border area to a central area about the central axis. A sandwich structure defining a central axis and extending between a circumferential border area which is configured for being mounted to a fuselage shell, wherein the sandwich structure comprises: An inner face sheet extending transverse to the central axis, an outer face sheet opposite the inner face sheet, extending transverse to the central axis, and a core assembly sandwiched between the inner face sheet and the outer face sheet, wherein the inner face sheet, when viewed in a radial cross section along the central axis, has an even shape, wherein the outer face sheet, when viewed in said radial cross section along the central axis, has a convex shape, characterized in that the distance between the outer face sheet and the inner face sheet increases tangent continuously from the border area to a central area about the central axis. An inner face sheet extending transverse to the central axis, an outer face sheet opposite the inner face sheet, extending transverse to the central axis, and a core assembly sandwiched between the inner face sheet and the outer face sheet, wherein the inner face sheet, when viewed in a radial cross section along the central axis, has an even shape, wherein the outer face sheet, when viewed in said radial cross section along the central axis, has a convex shape, characterized in that the distance between the outer face sheet and the inner face sheet increases tangent continuously from the border area to a central area about the central axis.
A computer program product for securely broadcasting a message to a plurality of recipient devices, the compute program product comprising computer executable instructions stored on a non-transitory computer readable medium that when executed by a processor instruct the processor to: identify a message; encrypt the message utilizing a first key comprising an encryption key; generate a message authentication code utilizing a second key that is mathematically coupled to the first key that is utilized to encrypt the message, the second key comprising a message authentication code key; and cause the encrypted message to be broadcasted to a plurality of recipient devices, utilizing the message authentication code, characterized in that the encryption key and the MAC key are generated utilizing a third key via a key derivation function, the third key comprising a broadcast key. identify a message; encrypt the message utilizing a first key comprising an encryption key; generate a message authentication code utilizing a second key that is mathematically coupled to the first key that is utilized to encrypt the message, the second key comprising a message authentication code key; and cause the encrypted message to be broadcasted to a plurality of recipient devices, utilizing the message authentication code, characterized in that the encryption key and the MAC key are generated utilizing a third key via a key derivation function, the third key comprising a broadcast key.
A pharmaceutical composition for use in preventing or treating a regulatory T cell-mediated disease, the pharmaceutical composition comprising an induced T-cell co-stimulator ligand (ICOSL)-overexpressing clonal mesenchymal stem cell.
A frame structure, such as a window sash or a frame for a window or door, including side, top and bottom pieces, said frame structure comprising a core made from at least one core member and a shell of polyurethane encasing the core, wherein at least one core member is made from expanded polystyrene, characterized in that the expanded polystyrene of the at least one core member has a density of 80-200 kg/m 3, and in that at least one joint between core members and/or core pieces of the frame structure is stabilized by polyurethane material having been allowed to flow into the gaps between the core members and/or core pieces, where it has sets, thus functioning as a glue.
A method for data communications, the method comprising: presenting information content for transmission to a destination entity; determining a plurality of diversity paths to the destination entity; estimating one or more transmission characteristics of each of the diversity paths; fragmenting the information content into a plurality of data segments; associating each data segment with a corresponding diversity path based on the transmission characteristics of the diversity path; determining a lifetime for each data segment based on underlying transmission characteristics for each data segment; transmitting the data segments simultaneously over the corresponding diversity path for each data segment; receiving all data segments from the plurality of diversity paths at the destination entity; and reconstructing the data segments back into the information content at the destination entity. presenting information content for transmission to a destination entity; determining a plurality of diversity paths to the destination entity; estimating one or more transmission characteristics of each of the diversity paths; fragmenting the information content into a plurality of data segments; associating each data segment with a corresponding diversity path based on the transmission characteristics of the diversity path; determining a lifetime for each data segment based on underlying transmission characteristics for each data segment; transmitting the data segments simultaneously over the corresponding diversity path for each data segment; receiving all data segments from the plurality of diversity paths at the destination entity; and reconstructing the data segments back into the information content at the destination entity.
A method of controlling a multilevel converter, comprising: discriminating (121-2, 121-3) whether or not each of a plurality of sub-modules has an ON state or an OFF state; calculating (121-1,121-4) the number of ON state sub-modules and the number of OFF state sub-modules; extracting (122-1,122-2) sub-modules having the maximum voltage and the minimum voltage among the ON state sub-modules and sub-modules having the maximum voltage and the minimum voltage among the OFF state sub-modules; switching states (S210 to 280) of the plurality of sub-modules based on a difference between the number of ON state sub-modules at a previous state and the number of ON state sub-modules at a next state, characterized by the switching states of the plurality of sub-modules: at a first switching operation, switching a state of the sub-module having the maximum voltage or the minimum voltage into an ON state or an OFF state, and at the remaining switching operations, randomly selecting a specific sub-module among the remaining sub-modules except the sub-modules having the maximum voltage and the minimum voltage and switching a state of the selected specific sub-module into an ON state or an OFF state. discriminating (121-2, 121-3) whether or not each of a plurality of sub-modules has an ON state or an OFF state; calculating (121-1,121-4) the number of ON state sub-modules and the number of OFF state sub-modules; extracting (122-1,122-2) sub-modules having the maximum voltage and the minimum voltage among the ON state sub-modules and sub-modules having the maximum voltage and the minimum voltage among the OFF state sub-modules; switching states (S210 to 280) of the plurality of sub-modules based on a difference between the number of ON state sub-modules at a previous state and the number of ON state sub-modules at a next state, at a first switching operation, switching a state of the sub-module having the maximum voltage or the minimum voltage into an ON state or an OFF state, and at the remaining switching operations, randomly selecting a specific sub-module among the remaining sub-modules except the sub-modules having the maximum voltage and the minimum voltage and switching a state of the selected specific sub-module into an ON state or an OFF state.
Hydraulic valve connected to a bottom wall of a tank for containing a liquid, wherein said hydraulic valve engages a through opening delimited through said bottom wall, said hydraulic valve comprising a cage element connected to said bottom wall inside said tank, a shutter movable housed inside said element cage, in an interposed position between said cage element and said bottom wall, characterized in that said hydraulic valve comprises a hollow connection element which hermetically engages said through opening delimiting a passage which passes through said hydraulic valve to selectively place said tank in fluid communication with the outside according to the position of said shutter, wherein said hollow connection element includes an engaging portion which extends with one of its free ends in said through opening and defines a passage opening selectively occludable by said shutter, wherein said shutter is movable according to the liquid in said reservoir between a position distal to said free end causing the opening of said hydraulic valve and a position of abutment against said free end of said hollow connection element, causing at least partial closure of said hydraulic valve, wherein said hollow connection element comprises radial notches which pass radially through said free end of said engagement portion and, when said shutter is in proximity to said free end, said radial notches define respective preferential passages for a liquid sucked out of said tank determining the gradual closure of said hydraulic valve and avoiding the formation and of vortices and a suction of air through said hollow connection element.
A device for open-loop control and/or closed-loop control of a technical installation, comprising a first backplane module, a second backplane module and at least a third backplane module configured to be positioned adjacent to one another on a mounting rail that defines a longitudinal direction, wherein the first backplane module comprises a first main body and a first contact part, wherein the second backplane module comprises a second main body and a second contact part and wherein the third backplane module comprises a third main body and a third contact part, wherein the main bodies (108, 110, 112) each have an upper side comprising insertion openings configured to receive electrical contacts of separate electronic modules, and wherein the contact parts (114, 116, 118) form a bus line in the longitudinal direction by means of which plugged-in electronic modules can be electrically coupled to one another, wherein the second main body comprises a receptacle and the second contact part is selectively arranged in said receptacle in one of at least two defined variants, wherein the second contact part has an electrically conductive connection to the first contact part and to the third contact part in a first variant of the at least two variants, and wherein the second contact part, in a second variant of the at least two variants, has an electrically conductive connection to the third contact part but not to the first contact part, wherein the second contact part can assume a defined first positional arrangement and at least one alternative second positional arrangement in the receptacle, wherein the first positional arrangement forms the first variant and wherein the alternative second positional arrangement forms the second variant such that the second contact part can be arranged, depending on the variant, in one of at least two different positions and/or in one of at least two different alignments on the main body, characterized in that the second contact part comprises a synthetic material body having embedded a first metal contact and a second metal contact for an electrical connection to the first and third contact parts (114, 118), and wherein the second metal contact is arranged on a side of the synthetic material body, said side facing away from the first metal contact.
A method for producing one or more fluid hydrocarbon products from a solid hydrocarbonaceous material that comprises at least one of xylitol, glucose, cellobiose, cellulose, hemi-cellulose, lignin, sugar cane bagasse, wood and corn stover, the method comprising: providing a solid catalyst in a fluidized bed reactor, wherein the solid catalyst comprises a zeolite catalyst which is ZSM-5, fluidizing the catalyst using a fluidization fluid, the residence time of the fluidization fluid in the reactor being from 2 to 480 seconds; feeding the solid hydrocarbonaceous material to the fluidized bed reactor at a mass-normalized space velocity of between 0.01 hour -1 and 0.1 hour -1; catalytically pyrolyzing at least a portion of the hydrocarbonaceous material by heat alone without oxidation; wherein the temperature within the reactor is between 500°C and 1000°C, and the residence time of the hydrocarbonaceous material in the reactor is from 2 to 480 seconds, and separating the catalyst from the one or more fluid hydrocarbon products in a separator, the temperature in the separator being from 200°C to 500°C, the residence time of the catalyst in the separator being at least 1 second; wherein the one or more fluid hydrocarbon products comprise a relatively larger amount of aromatics than olefins, the amount of aromatics being at least 6% or more. providing a solid catalyst in a fluidized bed reactor, wherein the solid catalyst comprises a zeolite catalyst which is ZSM-5, fluidizing the catalyst using a fluidization fluid, the residence time of the fluidization fluid in the reactor being from 2 to 480 seconds; feeding the solid hydrocarbonaceous material to the fluidized bed reactor at a mass-normalized space velocity of between 0.01 hour -1 and 0.1 hour -1; catalytically pyrolyzing at least a portion of the hydrocarbonaceous material by heat alone without oxidation; wherein the temperature within the reactor is between 500°C and 1000°C, and the residence time of the hydrocarbonaceous material in the reactor is from 2 to 480 seconds, and separating the catalyst from the one or more fluid hydrocarbon products in a separator, the temperature in the separator being from 200°C to 500°C, the residence time of the catalyst in the separator being at least 1 second; wherein the one or more fluid hydrocarbon products comprise a relatively larger amount of aromatics than olefins, the amount of aromatics being at least 6% or more.
A method for authorizing an execution of at least one autorun type application on a device using a token, the at least one autorun type application being executable by the device, the token being coupled to the device, the method comprises the following steps: - the token sends to the device data for identifying the autorun type application; - the device analyses whether the identified autorun type application is included within a list of at least one authorized application; characterized in that the token comprising the at least one autorun type application, the method further comprises the following steps: - only if the identified autorun type application is included within the list of at least one authorized application, - the device analyses whether the autorun type application is authenticated based on data for authenticating the autorun type application, the data for authenticating the autorun type application being received from the token, and - only if the device authenticates the autorun type application, the device authorizes to execute the autorun type application. - the token sends to the device data for identifying the autorun type application; - the device analyses whether the identified autorun type application is included within a list of at least one authorized application; - only if the identified autorun type application is included within the list of at least one authorized application, - the device analyses whether the autorun type application is authenticated based on data for authenticating the autorun type application, the data for authenticating the autorun type application being received from the token, and - only if the device authenticates the autorun type application, the device authorizes to execute the autorun type application.
A cleansing method, comprising using an oil-based cleansing composition comprising a nonionic surfactant having a HLB of 8 to 10 as component, an oil component having an IOB of 0.02 to 0.07 as component, and less than 5% by mass of water, wherein the mass ratio of component and component is 1:4 to 2:1, wherein said nonionic surfactant is POE glyceryl isostearate, and wherein a micellar aqueous solution phase or a bicontinuous microemulsion phase is formed when said oil-based cleansing composition and water are mixed in the ratio of 4:6.
Method for operating at least one actuator for a force controller of a device, with which a haptic feedback is provided to a user of the device, by means of a force predetermined in its strength and applied by the at least one actuator onto the force controller, concerning at least one operational state of the device, when the force controller is brought by the user to at least one predetermined point on a movement path of the force controller, and wherein the at least one actuator is controlled such that as soon as the user deflects the force controller for a predetermined time duration to the at least one predetermined point on the movement path of the force controller and/or keeps it at this point, the strength of the force applied by the at least one actuator onto the force controller is reduced after a further predetermined time duration.
A vehicle comprising a morphing wing and a body, the morphing wing comprising an inner edge connected to the body and an outer edge positioned externally of the body, wherein the vehicle is configured to transform from a first configuration into a second configuration for ascent or descent of the vehicle, wherein the drag force and lift force on the vehicle in the second configuration are less than in the first configuration; wherein the vehicle is configured to transform from the first to the second configuration by: contracting the wing within a geometric plane defined by the wing; and rotating the outer edge of the wing downwards, out of the geometric plane. contracting the wing within a geometric plane defined by the wing; and rotating the outer edge of the wing downwards, out of the geometric plane.
A device (7, 53) to support the back and/or head of a wheelchair user in a vehicle, the device (7, 53) comprising: a support arrangement; and a back/headrest which presents a substantially planar support surface, the back/headrest being moveable with respect to the support arrangement between a stowed position, in which the back/headrest is relatively close to the support arrangement, and a deployed position, in which the back/headrest is supported at a second, greater distance from the support arrangement, wherein when the back/headrest is in the stowed position the support surface lies in a first plane, and when the back/headrest moves to the deployed position, the support surface thereof is in the first plane, or in a further plane which is substantially parallel with the first plane, and wherein the support arrangement comprises a first component which is fixed in place, and the device (7, 53) further comprises a support arm which is pivotally attached to the fixed component near a first end thereof, and has a second opposite end which is a free end, wherein the back/headrest is attached to the support arm. a support arrangement; and a back/headrest which presents a substantially planar support surface, the back/headrest being moveable with respect to the support arrangement between a stowed position, in which the back/headrest is relatively close to the support arrangement, and a deployed position, in which the back/headrest is supported at a second, greater distance from the support arrangement, wherein when the back/headrest is in the stowed position the support surface lies in a first plane, and when the back/headrest moves to the deployed position, the support surface thereof is in the first plane, or in a further plane which is substantially parallel with the first plane, and wherein the support arrangement comprises a first component which is fixed in place, and the device (7, 53) further comprises a support arm which is pivotally attached to the fixed component near a first end thereof, and has a second opposite end which is a free end, wherein the back/headrest is attached to the support arm.
Pyrogenically prepared, surface modified aluminum oxide, having the following physical chemical properties: Surface area [m 2 /g] 50 to 150 Tamped density [g/L] 25 to 130 Drying loss [%] less than 5 Loss on ignition [%] 0.1 to 15 C content [%] 0.1 to 15 pH value 3 to 9, characterized in that it has been treated with a surface modification agent which is selected from the group consisting of: dimethyldichlorosilane, octyltrimethoxysilane, octyltriethoxysilane, hexamethyldisilazane, 3-methacryloxypropyltrimethoxysilane, 3-methacryloxypropyltriethoxysilane, hexadecyltrimethoxysilane, hexadecyltriethoxysilane, dimethylpolysiloxane, glycidyloxypropyltrimethoxysilane, glycidyloxypropyltriethoxysilane, nanofluorohexyltrimethoxysilane, tridecafluorooctyltrimethoxysilane, tridecafluorooctyltriethoxysilarie. dimethyldichlorosilane, octyltrimethoxysilane, octyltriethoxysilane, hexamethyldisilazane, 3-methacryloxypropyltrimethoxysilane, 3-methacryloxypropyltriethoxysilane, hexadecyltrimethoxysilane, hexadecyltriethoxysilane, dimethylpolysiloxane, glycidyloxypropyltrimethoxysilane, glycidyloxypropyltriethoxysilane, nanofluorohexyltrimethoxysilane, tridecafluorooctyltrimethoxysilane, tridecafluorooctyltriethoxysilarie.