mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing an OxRAM type resistive memory cell comprising a silicon oxide layer, said method comprising the following steps: - determining values (t TE_opt, t OX_opt, x opt) of manufacturing parameters (t TE, t OX, x) enabling the resistive memory cell to have an initial resistance (R i) before a conductive filament is formed for the first time comprised between 10 7 Ω to 3·10 9 Ω, preferably between 3·10 7 Ω and 10 9 Ω; - forming on a substrate a stack successively comprising a first electrode, the silicon oxide layer and a second electrode, by applying said manufacturing parameter values. - determining values (t TE_opt, t OX_opt, x opt) of manufacturing parameters (t TE, t OX, x) enabling the resistive memory cell to have an initial resistance (R i) before a conductive filament is formed for the first time comprised between 10 7 Ω to 3·10 9 Ω, preferably between 3·10 7 Ω and 10 9 Ω; - forming on a substrate a stack successively comprising a first electrode, the silicon oxide layer and a second electrode, by applying said manufacturing parameter values.
An antimicrobial composition comprising: i. 0.001 to 5% by weight of thymol, ii. 0.01 to 5% by weight of one or more bicyclic alcohols, and iii. a carrier; wherein the one or more bicyclic alcohols are selected from the group consisting of nopol, dihydronopol, myrtenol, dihydromyrtenol, and nopinol; and wherein the carrier comprises water, ethanol, propanol, isopropanol, ethylene glycol, propylene glycol, diethylene glycol, or mixtures thereof. i. 0.001 to 5% by weight of thymol, ii. 0.01 to 5% by weight of one or more bicyclic alcohols, and iii. a carrier;
Method for operating an automotive lighting device comprising at least one solid-state light source, a plurality of sensors, configured to provide device data; - a control unit; the method comprising performing at the control unit the following steps: - receiving and processing the device data; - generating an estimated condition of the lighting device based on the device data; and - controlling an operation parameter of the automotive lighting device using the estimated condition; the method being characterised in that generating the estimated condition comprises: - training the control unit to generate an estimated condition with a training dataset; - simulate a first time for derating if no action is carried out; - associate an action over an operation parameter to the values of the estimated condition; - simulate the action over the operation parameter; and - testing the control unit with the simulated action to verify whether the time for derating is greater than the first time for derating; wherein the step of training the control unit comprises the use of a machine learning algorithm. at least one solid-state light source, a plurality of sensors, configured to provide device data; - a control unit; - a control unit; the method comprising performing at the control unit the following steps: - receiving and processing the device data; - generating an estimated condition of the lighting device based on the device data; and - controlling an operation parameter of the automotive lighting device using the estimated condition; - receiving and processing the device data; - generating an estimated condition of the lighting device based on the device data; and - controlling an operation parameter of the automotive lighting device using the estimated condition; the method being characterised in that generating the estimated condition comprises: - training the control unit to generate an estimated condition with a training dataset; - simulate a first time for derating if no action is carried out; - associate an action over an operation parameter to the values of the estimated condition; - simulate the action over the operation parameter; and - testing the control unit with the simulated action to verify whether the time for derating is greater than the first time for derating; wherein the step of training the control unit comprises the use of a machine learning algorithm. - training the control unit to generate an estimated condition with a training dataset; - simulate a first time for derating if no action is carried out; - associate an action over an operation parameter to the values of the estimated condition; - simulate the action over the operation parameter; and - testing the control unit with the simulated action to verify whether the time for derating is greater than the first time for derating; wherein the step of training the control unit comprises the use of a machine learning algorithm.
A management system for an identification and for a bio-monitoring in a vehicle with respect to at least one user with a personal data module configured to access personal data of the user and to thereby identify the user, wherein the personal module (no) is implemented in a portable device, the management system comprising: a vehicle-related module, configured to access at least one vehicle component; and a communication module, configured to facilitate an exchange of data between the personal module and the vehicle-related module, even when the personal module is outside the vehicle, wherein the vehicle-related module is adapted to control or allow at least one change to the at least one vehicle component based on the exchanged data, characterized in that the vehicle-related module is configured as a secure gateway in order to: store user-specific data only during a communication with the personal module, and delete the user-specific data after a predetermined period of time after termination of the communication; and analyze data generated in the vehicle, and return only aggregated or specifically selected data and information to the portable device. a vehicle-related module, configured to access at least one vehicle component; and a communication module, configured to facilitate an exchange of data between the personal module and the vehicle-related module, even when the personal module is outside the vehicle, wherein the vehicle-related module is adapted to control or allow at least one change to the at least one vehicle component based on the exchanged data, characterized in that the vehicle-related module is configured as a secure gateway in order to: store user-specific data only during a communication with the personal module, and delete the user-specific data after a predetermined period of time after termination of the communication; and analyze data generated in the vehicle, and return only aggregated or specifically selected data and information to the portable device. store user-specific data only during a communication with the personal module, and delete the user-specific data after a predetermined period of time after termination of the communication; and analyze data generated in the vehicle, and return only aggregated or specifically selected data and information to the portable device.
A method for automatically evaluating the yarn length absorbed by a rectilinear machine to knit an article, the machine comprising a needle bed above which a carriage moves carrying at least one thread guide, said carriage moving between two ends of a working path in accordance with a first and a second operative phase which take place along opposing movement directions, during this movement said carriage selectively raising and lowering, from and into said bed, needles arranged to cooperate with a yarn to form the article, said yarn unwinding from a feeder, this latter comprising means for measuring a yarn quantity fed towards said needle bed, yarn feed taking place at constant tension, and means for measuring the yarn feed velocity during each operative phase, the method being characterized in that if this velocity is greater than zero or a threshold value the yarn quantity fed towards said needle bed in the respective operative phase is measured until said velocity attains a value equal to zero or less than the threshold value, the values of these quantities measured during each operative phase being algebraically added to a value of the yarn quantity fed to the carriage during each phase to enable the carriage to pass from one end to the other of the working path and vice versa, from this algebraic sum there being determined the yarn quantity effectively fed to the needles for article production during each operative phase.
Torsionally elastic shaft coupling consisting of - a driving flange and a driven flange, each for connecting the shaft coupling to adjacent machinery elements, - two elastic coupling bodies (3, 8) arranged in series, and - an intermediate member which is connected via the first coupling body to the driving flange and via a second coupling body to the driven flange, wherein, by the relative rotation of driving flange and intermediate member, torques are transmitted from the driving flange via the first coupling body to the intermediate member and from there, by relative rotation of intermediate member and driven flange, from the intermediate member via the second coupling body to the driven flange, wherein the two coupling bodies (3, 8) have different stiffness characteristics, wherein the relative torsional angle between driving flange and intermediate member being limited by an elastically resilient stop element of the shaft coupling, characterized in that the elastically resilient stop element comprises several spring elements each of which being provided with a cylinder which has a rigid connection with the intermediate member and an axis extending primarily in the circumferential direction of the shaft coupling, and with a spring-loaded piston which is guided within said cylinder so as to be longitudinally movable. - a driving flange and a driven flange, each for connecting the shaft coupling to adjacent machinery elements, - two elastic coupling bodies (3, 8) arranged in series, and - an intermediate member which is connected via the first coupling body to the driving flange and via a second coupling body to the driven flange,
An apparatus comprising: a cover adapted to enclose and secure a Micro-chamber containing a chemical and/or biological sample in a reservoir on a substrate; and a vesicle coupled to the cover and containing a reagent to be dispensed on the sample, wherein the cover is removable from the reservoir. a cover adapted to enclose and secure a Micro-chamber containing a chemical and/or biological sample in a reservoir on a substrate; and a vesicle coupled to the cover and containing a reagent to be dispensed on the sample, wherein the cover is removable from the reservoir.
A thermal transfer sheet comprising: a substrate; a transferable protective layer and a transferable color layer disposed in this order on one side of the substrate; and a back face layer disposed on the other side of the substrate, wherein the transferable protective layer contains a cyclic olefin-based polymer having a glass transition temperature of 140°C or more at a proportion of more than 50% by mass of the solid content of the transferable protective layer and an incompatible resin with the cyclic olefin-based polymer, and the transferable protective layer contains 5 to 30 parts by mass of the incompatible resin on the basis of 100 parts by mass of the total amount of the cyclic olefin-based polymer and the incompatible resin, and wherein the transferable color layer contains a colorant and a phenolic resin having a softening point of 110°C or more. a substrate; a transferable protective layer and a transferable color layer disposed in this order on one side of the substrate; and a back face layer disposed on the other side of the substrate, wherein the transferable protective layer contains a cyclic olefin-based polymer having a glass transition temperature of 140°C or more at a proportion of more than 50% by mass of the solid content of the transferable protective layer and an incompatible resin with the cyclic olefin-based polymer, and the transferable protective layer contains 5 to 30 parts by mass of the incompatible resin on the basis of 100 parts by mass of the total amount of the cyclic olefin-based polymer and the incompatible resin, and wherein the transferable color layer contains a colorant and a phenolic resin having a softening point of 110°C or more.
A method comprising: providing fracturing in a well bore (1a, 1b), to produce at least one of natural gas and oil, the well bore (1a, 1b) comprising vertical and horizontal well bore regions and a pipe (45, 42); injecting frozen CO 2 into the well bore (1a, 1b), wherein the CO 2 is cooled below its freezing temperature to produce a snow like material which is injected into the well bore (1a, 1b) through a tube (51, 45) and which is released into the well bore (1a, 1b) through perforations in the tube (51, 45); and injecting pressurized steam into a region of the well bore (1a, 1b) through peripheral openings in the pipe (45, 42) extending downward into the well bore (1a, 1b) and into the horizontal region of the well bore after a sufficient amount of frozen CO 2 is released into the well to create a catalytic reaction that heats and expands the frozen CO 2 causing the fracturing of shale and other geological formations in the well. providing fracturing in a well bore (1a, 1b), to produce at least one of natural gas and oil, the well bore (1a, 1b) comprising vertical and horizontal well bore regions and a pipe (45, 42); injecting frozen CO 2 into the well bore (1a, 1b), wherein the CO 2 is cooled below its freezing temperature to produce a snow like material which is injected into the well bore (1a, 1b) through a tube (51, 45) and which is released into the well bore (1a, 1b) through perforations in the tube (51, 45); and injecting pressurized steam into a region of the well bore (1a, 1b) through peripheral openings in the pipe (45, 42) extending downward into the well bore (1a, 1b) and into the horizontal region of the well bore after a sufficient amount of frozen CO 2 is released into the well to create a catalytic reaction that heats and expands the frozen CO 2 causing the fracturing of shale and other geological formations in the well.
A package having opposing first and second sides defining an interior therebetween that is accessible in an open configuration and is substantially not accessible in a closed configuration, the package comprising: a first film disposed proximate the first side including a bulk layer having a first coloring agent of a first color and a peel layer coupled to the bulk layer and having a second coloring agent of a second color, wherein the first and second colors cooperatively create a third color; and a second film disposed proximate the second side and coupled to the peel layer at a seal located on at least part of a periphery of the first and second films, the peel layer detached from the second film in areas other than the seal, wherein the peel layer is releasably coupled to the bulk layer and the second film at the seal to show the third color when the package is in the closed configuration, and the peel layer is coupled to the second film and spaced from the bulk layer at the seal upon application of a peeling force to show the second color when the package is in the open configuration. a first film disposed proximate the first side including a bulk layer having a first coloring agent of a first color and a peel layer coupled to the bulk layer and having a second coloring agent of a second color, wherein the first and second colors cooperatively create a third color; and a second film disposed proximate the second side and coupled to the peel layer at a seal located on at least part of a periphery of the first and second films, the peel layer detached from the second film in areas other than the seal, wherein the peel layer is releasably coupled to the bulk layer and the second film at the seal to show the third color when the package is in the closed configuration, and the peel layer is coupled to the second film and spaced from the bulk layer at the seal upon application of a peeling force to show the second color when the package is in the open configuration.
An apparatus for transmitting charging power wirelessly to a receiver (108, 208, 408, 608) via a wireless charging field generating field emissions, the receiver having a receiver antenna and operationally connected to a load of a vehicle, the apparatus comprising: a power transmitter (104, 204, 404, 604) having a transmitter antenna; first means for determining one or more charging conditions associated with the receiver(108, 208, 408, 608); means for obtaining a first indicator of one or more characteristics of the vehicle; and second means for determining a second indicator of the one or more charging conditions, and characterised by: third means for determining a power level for driving the transmitter antenna at a level sufficient to maintain the field emissions from the wireless charging field below an emission threshold level, the power level determined based on the first and second indicators, wherein the one or more charging conditions comprise a misalignment of the receiver with respect to the transmitter, the misalignment representing a translational difference between a reference point of the receiver antenna and a reference point of the transmitter antenna. a power transmitter (104, 204, 404, 604) having a transmitter antenna; first means for determining one or more charging conditions associated with the receiver(108, 208, 408, 608); means for obtaining a first indicator of one or more characteristics of the vehicle; and second means for determining a second indicator of the one or more charging conditions, and characterised by: third means for determining a power level for driving the transmitter antenna at a level sufficient to maintain the field emissions from the wireless charging field below an emission threshold level, the power level determined based on the first and second indicators, wherein the one or more charging conditions comprise a misalignment of the receiver with respect to the transmitter, the misalignment representing a translational difference between a reference point of the receiver antenna and a reference point of the transmitter antenna. third means for determining a power level for driving the transmitter antenna at a level sufficient to maintain the field emissions from the wireless charging field below an emission threshold level, the power level determined based on the first and second indicators, wherein the one or more charging conditions comprise a misalignment of the receiver with respect to the transmitter, the misalignment representing a translational difference between a reference point of the receiver antenna and a reference point of the transmitter antenna.
Bracket for cable ducts for concealing cut edges on abutting cable duct sections and/or their ends, comprising: - a strip-like front plate (12; 112) with upper and lower latching elements (14, 16) for fastening the bracket to a wiring duct or cable duct, characterized in that at least one guide or fastening element (20; 120; 220) for receiving a separate side plate (22; 122; 222) is formed on the inner side of the front plate (12; 112). - a strip-like front plate (12; 112) with upper and lower latching elements (14, 16) for fastening the bracket to a wiring duct or cable duct,
A cell stack comprising a plurality of cells adapted to operate as fuel cells or electrolysis cells and stacked on top of each other to form a plurality of cell layers in the cell stack, each of said cells comprising • an anode, • an electrolyte, • and a cathode, where each cell is flat and has • at least one edge, • at least one anode gas inlet region, • at least one anode gas outlet region, • at least one cathode gas inlet region, • and at least one cathode gas outlet region, • and a first anode gas inlet region is located between the first and the second edge of the cell, • a second anode gas inlet region is located between the first and the second edge of the cell, where each layer of cells is divided by an interconnect with gas flow channels on each side, viz. a first side facing the anode side of an adjacent cell and providing an anode gas flow, and a second side facing the cathode side of an adjacent cell and providing a cathode gas flow, wherein a first part of each cell has a counter-flow of the anode gas flow direction relative to the cathode gas flow direction, and wherein a second part of each cell has a co-flow of the anode gas flow direction relative to the cathode gas flow direction, wherein the anode gas performs a first flow pass in counter-flow relative to the cathode gas, and the cell stack further comprises a manifolding adapted to distribute the anode gas further to the second anode gas inlet region of each cell, and after distributing said anode gas performs a second flow pass in co-flow relative to the cathode gas. • an anode, • an electrolyte, • and a cathode, where each cell is flat and has • at least one edge, • at least one anode gas inlet region, • at least one anode gas outlet region, • at least one cathode gas inlet region, • and at least one cathode gas outlet region, • and a first anode gas inlet region is located between the first and the second edge of the cell, • a second anode gas inlet region is located between the first and the second edge of the cell,
An immobilization device for securing a patient's position for use in treating the patient during radiation therapy, the device comprising: a shell component; a plurality of material inserts disposed in the shell component, wherein each material insert of the plurality of material inserts is disposed in the shell component to lie on a path of at least one of a plurality of beams emitted from a nozzle of a radiation treatment system and is configured to respectively shape a distribution of a dose delivered to the patient by a respective beam of the plurality of beams; and a scaffold component disposed in the shell component and operable to hold the plurality material inserts in place relative to the patient; the immobilization device being characterized by each material insert having an irregular shape for shaping the respective beam to correspond to a shape or region of a target in the patient and a non-uniform thickness in accordance with a treatment plan. a shell component; a plurality of material inserts disposed in the shell component, wherein each material insert of the plurality of material inserts is disposed in the shell component to lie on a path of at least one of a plurality of beams emitted from a nozzle of a radiation treatment system and is configured to respectively shape a distribution of a dose delivered to the patient by a respective beam of the plurality of beams; and a scaffold component disposed in the shell component and operable to hold the plurality material inserts in place relative to the patient; the immobilization device being characterized by each material insert having an irregular shape for shaping the respective beam to correspond to a shape or region of a target in the patient and a non-uniform thickness in accordance with a treatment plan.