mhurhangee/patent-ind-claim-en huggingface dataset:
Corrosion-inhibitor container having at least one chamber for receiving a corrosion inhibitor, having at least one gas-permeable wall and having at least one external thread ; wherein the corrosion-inhibitor container is configured to be screwed into a core hole of a transmission housing by way of the external thread ; wherein the wall separates the chamber from an interior of the transmission housing when the corrosion-inhibitor container has been screwed into the core hole; characterized by at least one internal thread which is configured to receive a closure screw which is configured to be screwed into the core hole. the corrosion-inhibitor container is configured to be screwed into a core hole of a transmission housing by way of the external thread ; wherein the wall separates the chamber from an interior of the transmission housing when the corrosion-inhibitor container has been screwed into the core hole; characterized by at least one internal thread which is configured to receive a closure screw which is configured to be screwed into the core hole.
Cooking appliance with a hob and/or a cooking cavity and an user interface for inputting and/or displaying information for controlling a cooking process in the cooking appliance , wherein the user interface is an external or independent unit with respect to the cooking appliance or arranged outside of the cooking appliance , wherein the user interface has a memory device for recording data for controlling a cooking process in the cooking appliance , wherein the memory device is arranged for receiving cooking recipe data for a plurality of recipes, and wherein the cooking recipe data include related cooking parameters, and wherein an electronic cookbook is stored in the memory device , from which data can be retrieved during preparation of the cooking process, wherein: - the cooking appliance and user interface are configured such that recipe related interactive search functions are used for setting cooking parameters when information stored in the memory device of the user interface is used; and - the interactive search functions and a selection process of data for cooking is provided, wherein, in response to an input of data of a dish to be prepared, a search is carried out to find data for cooking, wherein the user interface provides a keyboard pushbutton, and wherein clicking the pushbutton results in transferring the data for cooking to the cooking appliance and in starting the cooking process based on the transferred data; and characterized in that the user interface is configured to display simultaneously a direct feedback about each cooking zone of the cooking appliance, and, if it is active, as well as about the duration of the cooking process. - the cooking appliance and user interface are configured such that recipe related interactive search functions are used for setting cooking parameters when information stored in the memory device of the user interface is used; and - the interactive search functions and a selection process of data for cooking is provided, wherein, in response to an input of data of a dish to be prepared, a search is carried out to find data for cooking, wherein the user interface provides a keyboard pushbutton, and wherein clicking the pushbutton results in transferring the data for cooking to the cooking appliance and in starting the cooking process based on the transferred data; and characterized in that the user interface is configured to display simultaneously a direct feedback about each cooking zone of the cooking appliance, and, if it is active, as well as about the duration of the cooking process. and characterized in that the user interface is configured to display simultaneously a direct feedback about each cooking zone of the cooking appliance, and, if it is active, as well as about the duration of the cooking process.
A pharmaceutical composition comprising nanoparticles which comprise at least one cationic lipid, at least one neutral helper lipid and RNA encoding at least one antigen, wherein, at physiological pH, the charge ratio of positive charges to negative charges in the nanoparticles is between 1:2 and 1:1.2, wherein the positive charges are contributed by the at least one cationic lipid and the negative charges are contributed by the RNA, and wherein the molar ratio of the at least one cationic lipid to the at least one neutral helper lipid is from 9:1 to 3:7.
An apparatus , comprising: a first core (132-1) and a second core (132-2) sharing a power domain, the first core (132-1) comprising a first switch (138-1) coupled to a supply voltage (VDD) in a voltage domain and configured to provide a first voltage (135-1) and the second core (132-2) comprising a second switch (138-2) coupled to the supply voltage (VDD) in the voltage domain and configured to provide a second voltage (135-2), wherein the first core (132-1) is configured to operate at the first voltage (135-1) of the voltage domain, and the second core (132-2) is configured to operate at the second voltage (135-2) of the voltage domain; and a control circuit configured to independently adjust each of the first and second voltages (135-1; 135-2) of the voltage domain for thermal mitigation, the control circuit configured to independently adjust each of the first and second voltages (135-1; 135-2) of the voltage domain for thermal mitigation by adjusting the first switch (138-1) and the second switch (138-2), respectively, wherein each of the first and second switches (138-1; 138-2) comprises a plurality of unit switches, and the control circuit is configured to independently adjust each of the first and second voltages (135-1; 135-2) of the voltage domain for thermal mitigation by turning off a number of the plurality of unit switches of the first and second switches (138-1; 138-2), respectively. a first core (132-1) and a second core (132-2) sharing a power domain, the first core (132-1) comprising a first switch (138-1) coupled to a supply voltage (VDD) in a voltage domain and configured to provide a first voltage (135-1) and the second core (132-2) comprising a second switch (138-2) coupled to the supply voltage (VDD) in the voltage domain and configured to provide a second voltage (135-2), wherein the first core (132-1) is configured to operate at the first voltage (135-1) of the voltage domain, and the second core (132-2) is configured to operate at the second voltage (135-2) of the voltage domain; and a control circuit configured to independently adjust each of the first and second voltages (135-1; 135-2) of the voltage domain for thermal mitigation, the control circuit configured to independently adjust each of the first and second voltages (135-1; 135-2) of the voltage domain for thermal mitigation by adjusting the first switch (138-1) and the second switch (138-2), respectively, wherein each of the first and second switches (138-1; 138-2) comprises a plurality of unit switches, and the control circuit is configured to independently adjust each of the first and second voltages (135-1; 135-2) of the voltage domain for thermal mitigation by turning off a number of the plurality of unit switches of the first and second switches (138-1; 138-2), respectively.
A self-adhesive, vapor permeable air and moisture barrier membrane, comprising: a substrate having a major surface extending in a longitudinal direction between a first longitudinal edge and a second longitudinal edge, and in a cross direction between the edges; a first coating, which forms a first layer of a first adhesive material, that is continuous in the longitudinal direction and discontinuous in the cross direction, disposed on the major surface in a first pattern that varies relative to the longitudinal edges; and a second coating, which forms a second layer of a second adhesive material, that is continuous in the longitudinal direction and discontinuous in the cross direction, disposed on the substrate in a second pattern (70' or 72), wherein the second pattern contacts the first pattern, wherein either the second pattern is parallel to the longitudinal edges, or the second pattern varies relative to the longitudinal edges, and wherein a plurality of coating-free zones is formed on the substrate , wherein each coating-free zone is completely surrounded by both the first and the second coatings. a substrate having a major surface extending in a longitudinal direction between a first longitudinal edge and a second longitudinal edge, and in a cross direction between the edges; a first coating, which forms a first layer of a first adhesive material, that is continuous in the longitudinal direction and discontinuous in the cross direction, disposed on the major surface in a first pattern that varies relative to the longitudinal edges; and a second coating, which forms a second layer of a second adhesive material, that is continuous in the longitudinal direction and discontinuous in the cross direction, disposed on the substrate in a second pattern (70' or 72), wherein the second pattern contacts the first pattern, wherein either the second pattern is parallel to the longitudinal edges, or the second pattern varies relative to the longitudinal edges, and wherein a plurality of coating-free zones is formed on the substrate , wherein each coating-free zone is completely surrounded by both the first and the second coatings.
A method, comprising: providing a metal substrate; applying a first powder coating composition; applying a second powder coating composition on the non-gelled first coating composition, the second composition comprising: at least one polymeric binder resin; and an application additive used to increase faraday cage penetration while limiting back ionization, wherein the application additive comprises an extrudable antistatic component; and a post-blended highly dispersed component. providing a metal substrate; applying a first powder coating composition; applying a second powder coating composition on the non-gelled first coating composition, the second composition comprising: at least one polymeric binder resin; and an application additive used to increase faraday cage penetration while limiting back ionization, wherein the application additive comprises an extrudable antistatic component; and a post-blended highly dispersed component. at least one polymeric binder resin; and an application additive used to increase faraday cage penetration while limiting back ionization, wherein the application additive comprises an extrudable antistatic component; and a post-blended highly dispersed component. an extrudable antistatic component; and a post-blended highly dispersed component.
Part intended for temporary immobilization at a selected ratio of a lever control unit mounted in the housing of a gearbox , comprising at least: - a part intended for positioning the immobilizing part relative to an ear secured to the casing of the gearbox and to the locking of the immobilizing part to this ear, this part comprising a frame delimiting an opening intended for the passage of the ear and comprising two substantially parallel branches , one of which comprises a locking boss intended to be engaged in an orifice of the ear , the branch comprising the locking boss being able to be elastically separated from the other branch , and - a part intended to immobilize the control lever at the selected gear and comprising an arm integral with the frame of the positioning and locking part extending from the frame and the free end of which is conformable and intended to immobilize the control lever at the selected gear of the gearbox. speeds , characterized in that it comprises a third part consisting of an operating handle integral with the frame of the positioning and locking part opposite the immobilizing part of this part, which operating handle comprises two branches forming a clamp allowing, by bringing one closer to the other, to elastically separate the branch with locking boss from the other branch of the frame of the part for positioning and locking the immobilizing part to disengage the locking boss from the orifice of the ear and to remove the immobilizing part from the casing of the gearbox . - a part intended for positioning the immobilizing part relative to an ear secured to the casing of the gearbox and to the locking of the immobilizing part to this ear, this part comprising a frame delimiting an opening intended for the passage of the ear and comprising two substantially parallel branches , one of which comprises a locking boss intended to be engaged in an orifice of the ear , the branch comprising the locking boss being able to be elastically separated from the other branch , and - a part intended to immobilize the control lever at the selected gear and comprising an arm integral with the frame of the positioning and locking part extending from the frame and the free end of which is conformable and intended to immobilize the control lever at the selected gear of the gearbox. speeds , characterized in that it comprises a third part consisting of an operating handle integral with the frame of the positioning and locking part opposite the immobilizing part of this part, which operating handle
A method for manufacturing an aluminum alloy thick plate from an aluminum alloy, the aluminum alloy containing Mg in a content of 1.5 percent by mass or more and 12.0 percent by mass or less, and further containing at least one member selected from the group consisting of Si in a content of 0.7 percent by mass or less, Fe in a content of 0.8 percent by mass or less, Cu in a content of 0.6 percent by mass or less, Mn in a content of 1.0 percent by mass or less, Cr in a content of 0.5 percent by mass or less, Zn in a content of 0.4 percent by mass or less, Ti in a content of 0.1 percent by mass or less, and Zr in a content of 0.3 percent by mass or less, with the remainder being aluminum and inevitable impurities, the method comprising in the following order: a melting step of melting the aluminum alloy; a hydrogen gas removal step of removing hydrogen gas from the molten aluminum alloy; a filtration step of filtering the aluminum alloy, from which hydrogen gas have been removed, to remove inclusions from the aluminum alloy; a casting step of casting the aluminum alloy, from which inclusions have been removed, into a slab; a slicing step of slicing the slab into an aluminum alloy thick plate having a predetermined thickness; and a heat treatment step of thermally treating the aluminum alloy thick plate having a predetermined thickness by holding the same at a temperature of 400°C or higher but lower than its melting point for one hour or longer. a melting step of melting the aluminum alloy; a hydrogen gas removal step of removing hydrogen gas from the molten aluminum alloy; a filtration step of filtering the aluminum alloy, from which hydrogen gas have been removed, to remove inclusions from the aluminum alloy; a casting step of casting the aluminum alloy, from which inclusions have been removed, into a slab; a slicing step of slicing the slab into an aluminum alloy thick plate having a predetermined thickness; and a heat treatment step of thermally treating the aluminum alloy thick plate having a predetermined thickness by holding the same at a temperature of 400°C or higher but lower than its melting point for one hour or longer.
A process for the production of a light converter comprising a siloxane polymer matrix with light converter nano particles embedded therein, the process comprising: (a) mixing (i) light converter nano particles having an outer surface grafted with grafting ligands and (ii) curable siloxane polymers, and (b) curing the curable siloxane polymers, thereby producing the light converter ; - wherein the grafting ligands comprise siloxane grafting ligands having x1 Si backbone elements, wherein at least one Si backbone element of each siloxane grafting ligand comprises a side group having a grafting functionality selected from the group consisting of an amine comprising side group, a carboxylic acid comprising side group, a phosphine comprising side group, a phosphine oxide comprising side group, a phosphate comprising side group, and a thiol comprising side group, wherein the side group is a side group of a non-terminal Si backbone element; - wherein the curable siloxane polymers have y1 Si backbone elements; - wherein x1 is at least 20, wherein y1 is at least 2, and wherein x1/y1 >1. (a) mixing (i) light converter nano particles having an outer surface grafted with grafting ligands and (ii) curable siloxane polymers, and (b) curing the curable siloxane polymers, thereby producing the light converter ; - wherein the grafting ligands comprise siloxane grafting ligands having x1 Si backbone elements, wherein at least one Si backbone element of each siloxane grafting ligand comprises a side group having a grafting functionality selected from the group consisting of an amine comprising side group, a carboxylic acid comprising side group, a phosphine comprising side group, a phosphine oxide comprising side group, a phosphate comprising side group, and a thiol comprising side group, wherein the side group is a side group of a non-terminal Si backbone element; - wherein the curable siloxane polymers have y1 Si backbone elements; - wherein x1 is at least 20, wherein y1 is at least 2, and wherein x1/y1 >1. - wherein the grafting ligands comprise siloxane grafting ligands having x1 Si backbone elements, wherein at least one Si backbone element of each siloxane grafting ligand comprises a side group having a grafting functionality selected from the group consisting of an amine comprising side group, a carboxylic acid comprising side group, a phosphine comprising side group, a phosphine oxide comprising side group, a phosphate comprising side group, and a thiol comprising side group, wherein the side group is a side group of a non-terminal Si backbone element; - wherein the curable siloxane polymers have y1 Si backbone elements; - wherein x1 is at least 20, wherein y1 is at least 2, and wherein x1/y1 >1.
A method of operating a vehicle comprising at least a first vehicle retarding subsystem (3; 5; 13) controllable to retard the vehicle , and processing circuitry coupled to said at least first vehicle retarding subsystem (3; 5; 13), said method comprising the steps of: acquiring (S10, S20, S30), by said processing circuitry from said first vehicle retarding subsystem (3; 5; 13), at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and determining (S11, S21, S31), by said processing circuitry , a measure indicative of a retardation energy capacity (VCREC) currently available for retardation of said vehicle , based on: said acquired at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); a predefined model of retardation energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and a predefined limit indicative of a maximum allowed energy accumulation by said first vehicle retarding subsystem (3; 5; 13). acquiring (S10, S20, S30), by said processing circuitry from said first vehicle retarding subsystem (3; 5; 13), at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and determining (S11, S21, S31), by said processing circuitry , a measure indicative of a retardation energy capacity (VCREC) currently available for retardation of said vehicle , based on: said acquired at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); a predefined model of retardation energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and a predefined limit indicative of a maximum allowed energy accumulation by said first vehicle retarding subsystem (3; 5; 13). said acquired at least one value indicative of current energy accumulation by said first vehicle retarding subsystem (3; 5; 13); a predefined model of retardation energy accumulation by said first vehicle retarding subsystem (3; 5; 13); and a predefined limit indicative of a maximum allowed energy accumulation by said first vehicle retarding subsystem (3; 5; 13).
A method for use in a local device comprising: measuring interference values on uplink resources of a victim cell; determining a highest measured interference value and a lowest measured interference value for all available channels; accessing a channel of the uplink resources of the victim cell based on whether a calculated probability of accessing the channel of the uplink resources of the victim cell meets a predetermined condition, wherein the calculated probability is dependent on a suitable transmission power and the highest measured interference value and the lowest measured interference value. measuring interference values on uplink resources of a victim cell; determining a highest measured interference value and a lowest measured interference value for all available channels; accessing a channel of the uplink resources of the victim cell based on whether a calculated probability of accessing the channel of the uplink resources of the victim cell meets a predetermined condition, wherein the calculated probability is dependent on a suitable transmission power and the highest measured interference value and the lowest measured interference value.
An embryonic cell for a self-healing system architecture, said cell including at least a first input and a second input , at least one output , and at least one functional block configurable to set the at least one output based on at least one of the first input and the second input using either one of a plurality of functions, wherein the cell is configurable to operate in a first state or a second state different from the first state, and: if operating in the first state: use the functional block to set the at least one output based on the first input using a first function of the plurality of functions during a time period of a single clock cycle, and if operating in the second state and by using time-division multiplexing: use the functional block to set the at least one output based on the first input using the first function during only a part of the time period triggered by a clock signal slope of a first kind, and set the at least one output based on the second input using a second function of the plurality of functions during another part of the time period triggered by a clock signal slope different from the first kind, wherein the functional block is implemented using reversible logic. if operating in the first state: use the functional block to set the at least one output based on the first input using a first function of the plurality of functions during a time period of a single clock cycle, and if operating in the second state and by using time-division multiplexing: use the functional block to set the at least one output based on the first input using the first function during only a part of the time period triggered by a clock signal slope of a first kind, and set the at least one output based on the second input using a second function of the plurality of functions during another part of the time period triggered by a clock signal slope different from the first kind, wherein the functional block is implemented using reversible logic.
Mast segment for a large manipulator , comprising a top strand , a bottom strand and two lateral web plates , wherein the web plates in each case together with the top strand , the bottom strand and with reinforcement plates each spaced from the web plates in each case form stiffening boxes located laterally on the mast segment , wherein the stiffening boxes extent at least in sections along a plunging region for a hydraulic cylinder , characterized in that a longitudinally-extending central strand is arranged within the mast segment , which strand forms another reinforcement box together with the web plates and the upper strand in such a way that three reinforcement boxes are formed in the plunging region of the hydraulic cylinder by means of the upper strand , the lower strand , the web plates , the reinforcement plates and the middle strand .