mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling operation of an arrangement for a helicopter having at least a first turboshaft engine and a second turboshaft engine , each turboshaft engine having a first electric machine on a compressor spool , the compressor spool having both at least one turbine stage and at least one compressor stage , and a second electric machine on a power spool , the power spool having a low-pressure turbine stage , the method is characterised by comprising : determining an increase in power requirement, upon determining, extracting electrical power from the power spool of the first turboshaft engine using the second electric machine of the first turboshaft engine , and the first electric machine of the second turboshaft engine imparting mechanical rotation power to the corresponding compressor spool using a portion of the extracted electrical power. determining an increase in power requirement, upon determining, extracting electrical power from the power spool of the first turboshaft engine using the second electric machine of the first turboshaft engine , and the first electric machine of the second turboshaft engine imparting mechanical rotation power to the corresponding compressor spool using a portion of the extracted electrical power.
Particles of silica bonded to polymer chains constituted of at least one polymer comprising at least one fluorinated styrenic repetitive unit carrying at least one proton-conducting group, optionally in the form of a salt, with the bond between said particles and each one of these chains being carried out via at least one organic spacer group.
A method for analysing the control of a vehicle comprising an autonomous driving unit , comprising the steps: - detecting a change in the driving mode from autonomous driving to manual driving; - before and/or after detecting the change, monitoring at least one driving parameter; and - based on driving values obtained by the monitoring with respect to the detected change in driving mode, determining at least one driving quantity quantifying the quality of interplay between the autonomous driving unit and a human driver characterized in that the at least one driving quantity is determined based on the time interval (Δt) between the autonomous driving unit outputting a control takeover request (R) and the human driver taking over control, and a vehicle dynamic variable during the time interval (Δt). - detecting a change in the driving mode from autonomous driving to manual driving; - before and/or after detecting the change, monitoring at least one driving parameter; and - based on driving values obtained by the monitoring with respect to the detected change in driving mode, determining at least one driving quantity quantifying the quality of interplay between the autonomous driving unit and a human driver
Method of obtaining a sorbent material for immunological pre-treatment of a biological liquid, wherein the sorbent material is characterized by microcapsules, wherein the method comprises the steps of: (i) solubilizing antibodies in a physiological buffer containing 0.3 to 2.5 percent by weight alginic acid and dropping said solution in an aqueous buffer containing ions of a two-valent salt to precipitate alginate cores having diameters from 0.5 to 5.0 millimetres and volumes in the range from 0.1 to 50 microlitres; (ii) alternately immersion of said alginate cores in liquid buffer solutions alternately containing a polycationic macropolymer or a polyanionic macropolymer to obtain a layer-by-layer electrostatic deposition and macroion-rich liquid-liquid phases having embedded alginate cores; (iii) hardening of said macroion-rich liquid-liquid phases by complex co-acervation at ambient temperatures for a period of time to obtain microcapsules consisting of precipitated alginate cores each embedded in a multilayered macroion membrane; (iv) lyophilization of said microcapsules to obtain multilayer macroion membranes that are permeable to proteins of a molecular weight no greater than about 100 000 daltons; (v) conditioning of said semipermeable microcapsules and, if necessary, classification, to obtain microcapsules that can be added to biological fluids for immunological treatment and removal of peptidic components smaller than 100 000 daltons. (i) solubilizing antibodies in a physiological buffer containing 0.3 to 2.5 percent by weight alginic acid and dropping said solution in an aqueous buffer containing ions of a two-valent salt to precipitate alginate cores having diameters from 0.5 to 5.0 millimetres and volumes in the range from 0.1 to 50 microlitres; (ii) alternately immersion of said alginate cores in liquid buffer solutions alternately containing a polycationic macropolymer or a polyanionic macropolymer to obtain a layer-by-layer electrostatic deposition and macroion-rich liquid-liquid phases having embedded alginate cores; (iii) hardening of said macroion-rich liquid-liquid phases by complex co-acervation at ambient temperatures for a period of time to obtain microcapsules consisting of precipitated alginate cores each embedded in a multilayered macroion membrane; (iv) lyophilization of said microcapsules to obtain multilayer macroion membranes that are permeable to proteins of a molecular weight no greater than about 100 000 daltons; (v) conditioning of said semipermeable microcapsules and, if necessary, classification, to obtain microcapsules that can be added to biological fluids for immunological treatment and removal of peptidic components smaller than 100 000 daltons.
Passenger seat having: - a backrest , and - a seat element , wherein the seat element comprises a first portion adjoining the backrest and a second portion which can be pivoted relative to the first portion between an inoperative position and a use position, wherein the second portion of the seat element in its use position increases a depth of a seat surface of the seat element that can be used by the user, and wherein the passenger seat further comprises a locking mechanism which is configured to prevent a pivoting movement of the second portion of the seat element from its use position into its inoperative position when a weight (F G ) of a user sitting on the passenger seat acts on the seat element , characterized in that the locking mechanism comprises a holding element which is connected to the second portion of the seat element and can be moved between a holding position, in which the holding element holds the second portion of the seat element in its use position, and a release position, in which the holding element permits a pivoting movement of the second portion of the seat element from its use position into its inoperative position, and in that the locking mechanism is configured to release the second portion of the seat element for a pivoting movement from its use position into its inoperative position when the weight (F G ) acting on the seat element is removed. - a backrest , and - a seat element , wherein the seat element comprises a first portion adjoining the backrest and a second portion which can be pivoted relative to the first portion between an inoperative position and a use position, wherein the second portion of the seat element in its use position increases a depth of a seat surface of the seat element that can be used by the user, and wherein the passenger seat further comprises a locking mechanism which is configured to prevent a pivoting movement of the second portion of the seat element from its use position into its inoperative position when a weight (F G ) of a user sitting on the passenger seat acts on the seat element ,
A network traffic sending method, comprising: receiving , by a network traffic flow distributor , a first attack traffic flow; determining , by the network traffic flow distributor , that a request type of the first attack traffic flow is a first request type; determining , by the network traffic flow distributor , maturity of a virtual honeypot model for the first request type, wherein the maturity of the virtual honeypot model indicates a similarity between a first virtual response traffic flow generated by a virtual honeypot using the virtual honeypot model in response to an attack traffic flow having the first request type and a first physical response traffic flow generated by a physical honeypot in response to an attack traffic flow having the first request type and determining , by the network traffic flow distributor , whether the maturity of the virtual honeypot model for the first type is greater than a preset maturity threshold that is set for the first request type, if the maturity of the virtual honeypot model is higher than the preset maturity threshold that is set for the first request type, forwarding the first attack traffic flow to a virtual honeypot using the virtual honeypot model; otherwise, forwarding the first attack traffic flow to a physical honeypot ; or if the maturity of the virtual honeypot model is higher than the preset maturity threshold, forwarding the first attack traffic flow to a physical honeypot and a virtual honeypot using the virtual honeypot model; otherwise, forwarding the first attack traffic flow only to a physical honeypot . receiving , by a network traffic flow distributor , a first attack traffic flow; determining , by the network traffic flow distributor , that a request type of the first attack traffic flow is a first request type; determining , by the network traffic flow distributor , maturity of a virtual honeypot model for the first request type, wherein the maturity of the virtual honeypot model indicates a similarity between a first virtual response traffic flow generated by a virtual honeypot using the virtual honeypot model in response to an attack traffic flow having the first request type and a first physical response traffic flow generated by a physical honeypot in response to an attack traffic flow having the first request type and determining , by the network traffic flow distributor , whether the maturity of the virtual honeypot model for the first type is greater than a preset maturity threshold that is set for the first request type, if the maturity of the virtual honeypot model is higher than the preset maturity threshold that is set for the first request type, forwarding the first attack traffic flow to a virtual honeypot using the virtual honeypot model; otherwise, forwarding the first attack traffic flow to a physical honeypot ; or if the maturity of the virtual honeypot model is higher than the preset maturity threshold, forwarding the first attack traffic flow to a physical honeypot and a virtual honeypot using the virtual honeypot model; otherwise, forwarding the first attack traffic flow only to a physical honeypot .
Piston pump, in particular for a motor vehicle, with a piston which is mounted displaceably in a housing, with a linear actuator for the displacement of the piston in a first direction, and with a restoring spring for the displacement of the piston in a second direction, the piston delimiting a first pressure chamber on the end side by way of a first end , which first pressure chamber is assigned to a first hydraulic circuit, the piston delimiting a second pressure chamber on the end side by way of a second end , and the linear actuator having an armature which is connected fixedly to the piston and a stator which is arranged fixedly on the housing and coaxially with respect to the piston , the stator being arranged between the two pressure chambers , the armature lying offset with respect to the stator in the relieved state of the restoring spring , and the first pressure chamber being arranged in a first housing part and the second pressure chamber being arranged in a second housing part , characterized in that the linear actuator is configured as a single-phase reluctance machine, and in that the two housing parts bear tightly against one another such that the stator is clamped in between them.
An image forming system (1;1A;1B) in which a plurality of image forming apparatuses are connected through a network , the image forming system (1 ;1A;1 B) comprising a control unit (100,200;100;200) that controls the image forming apparatuses , wherein the control unit is configured to, when outputting a job to a plurality of image forming apparatuses , compare image quality parameters of each of the image forming apparatuses to the image quality parameters of one specific of the image forming apparatuses , select image forming apparatuses that have image quality parameters similar to the image quality parameters of the one specific of the image forming apparatuses and that can output the job, and cause the selected image forming apparatuses and the one specific of the image forming apparatuses (10,20,30,40.,50) to output the job.
A crosslinkable rubber composition, comprising: an acrylic rubber; an amine compound represented by the following formula (A-1); a carbon black; and a crosslinking agent, wherein the acrylic rubber has acrylate units and carboxy group-containing monomer units, and has 0.5 to 10 parts by mass of ethylene units with respect to 100 parts by mass of the acrylate units and 5 to 20 parts by mass of alkyl methacrylate units with respect to 100 parts by mass of the acrylate units, wherein R 1 represents a hydrogen atom or an amino group in the formula (A-1).
Flexible laminate for shielding from electromagnetic radiation, comprising a) at least one metal foil, and b) a sheetlike substrate comprising or consisting of a fibre material, film material or foam material, wherein the laminate has a multitude of objects formed from incisions into the main area of the laminate, wherein each object consists of two or more incisions having a common starting point, and wherein the two incisions or every two adjacent incisions have an angle of 45 to 160°, wherein the flexible laminate is characterized in that the incisions completely sever the metal foil and the sheetlike substrate in each case. a) at least one metal foil, and b) a sheetlike substrate comprising or consisting of a fibre material, film material or foam material,
A high-voltage insulator arrangement, comprising: a high-voltage insulator for insulation of a conductor of a DC gas- insulated electrical system, the insulator comprising an insulator body and an insulator surface , wherein the electrical conductivity of the insulator surface is higher than the electrical conductivity of the insulator body ; and a contacting element , wherein the contacting element comprises an insulator side face having a first height (hres) for electrically connecting a predetermined length of the insulator surface to a definite potential, the contacting element further extending by a total width (w) in a width direction away from the insulator surface up to an end face , wherein a second height (hend) of the contacting element at the end face is lower than the first height (hres), wherein the height of the contacting element from the first height (hres) to the second height (hend) reduces at a gradient angle (α) such that a gas side face of the contacting element , which joins the insulator side face to the end face and which is configured to be exposed to the insulation gas, is slanted. a high-voltage insulator for insulation of a conductor of a DC gas- insulated electrical system, the insulator comprising an insulator body and an insulator surface , wherein the electrical conductivity of the insulator surface is higher than the electrical conductivity of the insulator body ; and a contacting element ,
Plant for managing products, comprising a plurality of work areas , each bounded by perimeter walls , each work area comprising at least one robotic unit for moving and handling the products, and wherein the work areas are connected together by at least one overhead conveying unit for conveying products from one work area to another, characterized in that the overhead conveying unit comprises an outer casing , provided with openings obtained on the side surfaces facing the work areas and provided with a fixed guide fitted in the cavity formed by the outer casing on which a plurality of conveying plates move, wherein on the upper surface of the conveying plate coupling elements (42 43, 44) are obtained that are suitable for receiving pallets with components being processed and other objects inherent to processing that it is necessary to convey from one work area to the other inside the processing plant .
A method of modifying a digital image signal obtained from an optical sensor , comprising: receiving the digital image signal from the optical sensor , wherein the digital image signal represents a plurality of pixels ; maintaining image modification data derived from characterizing an intensity variation pattern as a combination of two or more geometric shapes that are combined to define the intensity variation pattern by a single center of gravity or a single defined shape, wherein the intensity variation patterns have been established from measurements through the optical sensor by an optical system viewing an image field having a uniform intensity; calculating a correction factor for each of the plurality of pixels based on the radial distance of the respective pixel from the center of gravity of the intensity variation pattern of the plurality of pixels and the maintained modification data; and modifying the plurality of pixels by combining the plurality of correction factors with the plurality of pixels. receiving the digital image signal from the optical sensor , wherein the digital image signal represents a plurality of pixels ; maintaining image modification data derived from characterizing an intensity variation pattern as a combination of two or more geometric shapes that are combined to define the intensity variation pattern by a single center of gravity or a single defined shape, wherein the intensity variation patterns have been established from measurements through the optical sensor by an optical system viewing an image field having a uniform intensity; calculating a correction factor for each of the plurality of pixels based on the radial distance of the respective pixel from the center of gravity of the intensity variation pattern of the plurality of pixels and the maintained modification data; and modifying the plurality of pixels by combining the plurality of correction factors with the plurality of pixels.
A turbine engine comprising: a starter motor ; a compressor assembly comprising a plurality of variable stator vanes ; and a computing device coupled in communication with said starter motor and said plurality of variable stator vanes , said computing device configured to: actuate said starter motor of the turbine engine such that a motoring speed of the turbine engine increases; monitor a parameter of said turbine engine ; and actuate said plurality of variable stator vanes such that said plurality of variable stator vanes are at least partially open to control, based on said parameter, the motoring speed of the turbine engine to mitigate thermal rotor bow in said turbine engine . a starter motor ; a compressor assembly comprising a plurality of variable stator vanes ; and a computing device coupled in communication with said starter motor and said plurality of variable stator vanes , said computing device configured to: actuate said starter motor of the turbine engine such that a motoring speed of the turbine engine increases; monitor a parameter of said turbine engine ; and actuate said plurality of variable stator vanes such that said plurality of variable stator vanes are at least partially open to control, based on said parameter, the motoring speed of the turbine engine to mitigate thermal rotor bow in said turbine engine . actuate said starter motor of the turbine engine such that a motoring speed of the turbine engine increases; monitor a parameter of said turbine engine ; and actuate said plurality of variable stator vanes such that said plurality of variable stator vanes are at least partially open to control, based on said parameter, the motoring speed of the turbine engine to mitigate thermal rotor bow in said turbine engine .
An ozone generator cell comprising: a high voltage electrode layer ; two dielectric layers (112a, 112b; 212a, 212b), the first dielectric layer disposed on a first side of the high voltage electrode layer and the second dielectric layer disposed on the second, opposite side of the high voltage electrode layer ; two low voltage electrode layers (116a, 116b; 216a, 216b), one low voltage electrode layer disposed over each of the two dielectric layers (112a, 112b; 212a, 212b); two discharge regions, the first discharge region defined, in part, by the high voltage electrode layer , the first dielectric layer disposed on the first side of the high voltage electrode layer , and the low voltage electrode layer disposed on the first side of the high voltage electrode layer , the second discharge region defined, in part, by the high voltage electrode layer , the second dielectric layer disposed on the second side of the high voltage electrode layer , and the low voltage electrode layer disposed on the second side of the high voltage electrode layer ; and two thermally conductive plates (120a, 120b; 220a, 220b), the first thermally conductive plate in contact with the low voltage electrode layer on the first side of the high voltage electrode layer , and the second thermally conductive plate in contact with the low voltage electrode layer on the second side of the high voltage electrode layer , wherein the two thermally conductive plates (120a, 120b; 220a, 220b) maintain contact between the layers located therebetween in the absence of a bonding agent. a high voltage electrode layer ; two dielectric layers (112a, 112b; 212a, 212b), the first dielectric layer disposed on a first side of the high voltage electrode layer and the second dielectric layer disposed on the second, opposite side of the high voltage electrode layer ; two low voltage electrode layers (116a, 116b; 216a, 216b), one low voltage electrode layer disposed over each of the two dielectric layers (112a, 112b; 212a, 212b); two discharge regions, the first discharge region defined, in part, by the high voltage electrode layer , the first dielectric layer disposed on the first side of the high voltage electrode layer , and the low voltage electrode layer disposed on the first side of the high voltage electrode layer , the second discharge region defined, in part, by the high voltage electrode layer , the second dielectric layer disposed on the second side of the high voltage electrode layer , and the low voltage electrode layer disposed on the second side of the high voltage electrode layer ; and two thermally conductive plates (120a, 120b; 220a, 220b), the first thermally conductive plate in contact with the low voltage electrode layer on the first side of the high voltage electrode layer , and the second thermally conductive plate in contact with the low voltage electrode layer on the second side of the high voltage electrode layer , wherein the two thermally conductive plates (120a, 120b; 220a, 220b) maintain contact between the layers located therebetween in the absence of a bonding agent.