mhurhangee/ep-ind-claims huggingface dataset:
A method of selective fault recovery during operation of an electronic device having a system with a plurality of subsystems (104, 112, 148), wherein the method comprises: detecting a fault in a subsystem of the electronic device; performing a state reset of the subsystem having the detected fault, said state reset comprising re-initializing said subsystem while maintaining power to said subsystem; performing a power reset of the subsystem having the detected fault when the fault persists after performing the state reset of the subsystem having the detected fault; notifying a user of the electronic device of the fault when the fault persists after performing the power reset of the subsystem having the detected fault and providing the user with an option to perform a state reset of the system comprising a state reset for every subsystem in said system, wherein upon receiving approval for performing the state reset of the system, the method further comprises: performing the state reset of the system; and performing a power reset of the system comprising a power reset for every subsystem in said system when the fault persists after performing the state reset of the system; said method further comprising using a first processor to perform the state reset of the system and using a second processor to perform the power reset of the subsystem and the power reset of the system. detecting a fault in a subsystem of the electronic device; performing a state reset of the subsystem having the detected fault, said state reset comprising re-initializing said subsystem while maintaining power to said subsystem; performing a power reset of the subsystem having the detected fault when the fault persists after performing the state reset of the subsystem having the detected fault; notifying a user of the electronic device of the fault when the fault persists after performing the power reset of the subsystem having the detected fault and providing the user with an option to perform a state reset of the system comprising a state reset for every subsystem in said system, performing the state reset of the system; and performing a power reset of the system comprising a power reset for every subsystem in said system when the fault persists after performing the state reset of the system; said method further comprising using a first processor to perform the state reset of the system and using a second processor to perform the power reset of the subsystem and the power reset of the system.
Gas-insulated electrical device (2, 32), comprising - a dielectric insulation gas including an at least partly fluorinated first insulation gas component - and a calcium salt, in which the calcium salt is the salt of an organic acid. - a dielectric insulation gas including an at least partly fluorinated first insulation gas component - and a calcium salt, in which the calcium salt is the salt of an organic acid.
Push button for a timepiece comprising a cylindrical armature inside which there is a longitudinally-arranged, through push button formed of a head, having a bottom face abutting against a first shoulder made in the armature when manual pressure is exerted on the head, and of a stem which ends in a retaining means limiting the axial travel of said stem in the armature, a first push button return spring is wound around the stem, said spring being arranged between the bottom face of the head and a first retaining means partially derived from said armature, said push button being characterized in that it includes a second spring wound around the stem, one of the ends of said second spring resting on said first retaining means and the other end thereof resting on a second retaining means partially derived from said armature and including a gasket, the second spring being arranged to bend and act as a valve spring allowing the gasket to rise up against the return force of the second spring, which allows any overpressure air inside the timepiece to escape through the space between the push button stem and the armature if the pressure inside the timepiece is higher than the pressure outside said timepiece.
A method of manufacturing wind turbine blades of a desired length with connection means with the rotor hub comprising steps of providing and using a plurality of enlarged manufacturing moulds (41, 43, 45, 47) for each blade, each of said moulds having a common zone of a predetermined length (L01, L02, L03) and, at least, an adaptive zone arranged with the length (AL01, AL02, AL03) needed for manufacturing blades with the desired length, wherein the length of each adaptive zone in each of said enlarged manufacturing moulds (41, 43, 45, 47) is comprised between 1%-15% of the length of the common zone. an adaptive zone arranged with the length (AL01, AL02, AL03) needed for manufacturing blades with the desired length, wherein the length of each adaptive zone in each of said enlarged manufacturing moulds (41, 43, 45, 47) is comprised between 1%-15% of the length of the common zone.
A method for producing an oriented multilayer film comprising A) co-extruding a multilayer film comprising 1) a first layer prepared from a first high density polyethylene composition having a melt index, I 2, of from 0.2 to 10 grams per 10 minutes, a density of from 0.95 to 0.97 g/cc and from 100 to 9000 parts per million of a nucleating agent; and 2) a second layer prepared from a second polyethylene composition having a melt index, I 2, of from 0.2 to 10 grams per 10 minutes and a density which is lower than the density of said first high density polyethylene composition by an amount of from 0.010 to 0.060 g/cc; and B) stretching said multilayer film in the machine direction at a stretch ratio of from at least 1:6 to 1:12; wherein melt index is measured according to ASTM D1238 at 190°C using a 2.16 kg weight and density is measured according to ASTM D792. A) co-extruding a multilayer film comprising 1) a first layer prepared from a first high density polyethylene composition having a melt index, I 2, of from 0.2 to 10 grams per 10 minutes, a density of from 0.95 to 0.97 g/cc and from 100 to 9000 parts per million of a nucleating agent; and 2) a second layer prepared from a second polyethylene composition having a melt index, I 2, of from 0.2 to 10 grams per 10 minutes and a density which is lower than the density of said first high density polyethylene composition by an amount of from 0.010 to 0.060 g/cc; and 1) a first layer prepared from a first high density polyethylene composition having a melt index, I 2, of from 0.2 to 10 grams per 10 minutes, a density of from 0.95 to 0.97 g/cc and from 100 to 9000 parts per million of a nucleating agent; and 2) a second layer prepared from a second polyethylene composition having a melt index, I 2, of from 0.2 to 10 grams per 10 minutes and a density which is lower than the density of said first high density polyethylene composition by an amount of from 0.010 to 0.060 g/cc; and B) stretching said multilayer film in the machine direction at a stretch ratio of from at least 1:6 to 1:12;
A method for electronically signing an electronic document, in which - an initiator of a signature process generates a request data set that includes the electronic document and a signature request, the signature request including a request for an electronic signature of at least one signer over at least the electronic document (105.1), - the request data set is made available to the at least one signer for generating the electronic signature over at least the electronic document (101.6), - the at least one signer generates an electronic signature over at least the electronic document and generates a positive response data set which includes at least the electronic document and the electronic signature (101.8), and - the positive response data set is made available to at least one recipient, in particular, the initiator, (101.9), wherein - at least two signature levels with different security levels of the electronic signature are specified for the electronic signature, and - the signature request comprises a signature specification that can be specified by the initiator and that defines a minimum security level which the electronic signature of the at least one signer over the electronic document must at least have, wherein - the initiator generates, as an initiator signature, an electronic signature over the electronic document and the request data set includes the initiator signature, wherein - a security level of the initiator signature defines the minimum security level. - an initiator of a signature process generates a request data set that includes the electronic document and a signature request, the signature request including a request for an electronic signature of at least one signer over at least the electronic document (105.1), - the request data set is made available to the at least one signer for generating the electronic signature over at least the electronic document (101.6), - the at least one signer generates an electronic signature over at least the electronic document and generates a positive response data set which includes at least the electronic document and the electronic signature (101.8), and - the positive response data set is made available to at least one recipient, in particular, the initiator, (101.9), - at least two signature levels with different security levels of the electronic signature are specified for the electronic signature, and - the signature request comprises a signature specification that can be specified by the initiator and that defines a minimum security level which the electronic signature of the at least one signer over the electronic document must at least have, wherein - the initiator generates, as an initiator signature, an electronic signature over the electronic document and the request data set includes the initiator signature, wherein - a security level of the initiator signature defines the minimum security level.
A gel sheet comprising a gel material and an intermediate base embedded in the gel material, and satisfying the following expression: S / T ≤ 0.4 wherein T represents a thickness of the gel sheet, and S represents an amplitude of the intermediate base; and wherein the gel material comprises at least two gel sheet layers having a gel sheet layer A (11,11a, 11b, 11c) and a gel sheet layer B (12, 12a, 12b, 12c) alternately stacked; the gel sheet layer A comprises at least one inorganic salt at a total content of X wt% relative to the total weight of the gel sheet layer A; and the gel sheet layer B comprises at least one inorganic salt at a total content of Y wt% relative to the total weight of the gel sheet layer B, characterised in that Y is less than X, and X and Y satisfy the following expression 3: 0 ≤ Y < X ≤ 15 and the gel sheet layer B comprises at least one acid at a content of 0.01 to 10 wt.% relative to the total weight of the gel sheet layer B. wherein T represents a thickness of the gel sheet, and S represents an amplitude of the intermediate base; and wherein the gel material comprises at least two gel sheet layers having a gel sheet layer A (11,11a, 11b, 11c) and a gel sheet layer B (12, 12a, 12b, 12c) alternately stacked; the gel sheet layer A comprises at least one inorganic salt at a total content of X wt% relative to the total weight of the gel sheet layer A; and the gel sheet layer B comprises at least one inorganic salt at a total content of Y wt% relative to the total weight of the gel sheet layer B, characterised in that Y is less than X, and X and Y satisfy the following expression 3: 0 ≤ Y < X ≤ 15 and the gel sheet layer B comprises at least one acid at a content of 0.01 to 10 wt.% relative to the total weight of the gel sheet layer B.
A trackpad (100; 600; 700; 800; 900) comprising: a substrate (106; 806; 906); a circuit board (110; 910) coupled to the substrate for detecting a position of an object adjacent the substrate; a haptic feedback component (113, 901) coupled to the circuit board; a first plate coupled to the circuit board; a second plate (104; 704; 904) including a spring element (118; 706), and a spacer (120; 920) coupling the circuit board and the spring element to each other; and a capacitive force sensor that detects a capacitance of the first plate and the second plate; and wherein the spring element facilitates first movement of the substrate, the circuit board and the first plate relative to the second plate, and the spacer facilitates second movement of at least the substrate and the circuit board by the haptic feedback component, the first movement occurring in a first direction, and the second movement occurring in a second direction essentially perpendicular to the first direction. a substrate (106; 806; 906); a circuit board (110; 910) coupled to the substrate for detecting a position of an object adjacent the substrate; a haptic feedback component (113, 901) coupled to the circuit board; a first plate coupled to the circuit board; a second plate (104; 704; 904) including a spring element (118; 706), and a spacer (120; 920) coupling the circuit board and the spring element to each other; and a capacitive force sensor that detects a capacitance of the first plate and the second plate; and wherein the spring element facilitates first movement of the substrate, the circuit board and the first plate relative to the second plate, and the spacer facilitates second movement of at least the substrate and the circuit board by the haptic feedback component, the first movement occurring in a first direction, and the second movement occurring in a second direction essentially perpendicular to the first direction.
A method for producing a finished leather substitute, which method comprises a) providing a sheet material grown from mycelium, which sheet material shows a top surface layer and a bottom surface layer that are defined in the sense of growth of the mycelium, from the bottom to the top; b) contacting the sheet material with an aqueous solution comprising lubricants; c) drying it; d) applying at least one finishing coating on the bottom surface only. a) providing a sheet material grown from mycelium, which sheet material shows a top surface layer and a bottom surface layer that are defined in the sense of growth of the mycelium, from the bottom to the top; b) contacting the sheet material with an aqueous solution comprising lubricants; c) drying it; d) applying at least one finishing coating on the bottom surface only.
A method for operating an inverter, the method comprising: converting with the inverter DC power supplied to a DC input of the inverter into AC power supplied from an AC output of the inverter by applying set operational parameter limits which define limits for allowed operating points of the inverter; and collecting, during the converting, data of operational conditions related to the inverter, characterized in that the method comprises: determining on the basis of the collected data whether the set operational parameter limits can be optimized with regard to one or more optimization criteria, wherein the one or more optimization criteria comprises an estimated lifetime of the inverter or a part thereof; and in response to determining that the set operational parameter limits can be optimized, adapting one or more of the set operational parameter limits applied in the converting on the basis of the collected data. converting with the inverter DC power supplied to a DC input of the inverter into AC power supplied from an AC output of the inverter by applying set operational parameter limits which define limits for allowed operating points of the inverter; and collecting, during the converting, data of operational conditions related to the inverter, characterized in that the method comprises: determining on the basis of the collected data whether the set operational parameter limits can be optimized with regard to one or more optimization criteria, wherein the one or more optimization criteria comprises an estimated lifetime of the inverter or a part thereof; and in response to determining that the set operational parameter limits can be optimized, adapting one or more of the set operational parameter limits applied in the converting on the basis of the collected data. determining on the basis of the collected data whether the set operational parameter limits can be optimized with regard to one or more optimization criteria, wherein the one or more optimization criteria comprises an estimated lifetime of the inverter or a part thereof; and in response to determining that the set operational parameter limits can be optimized, adapting one or more of the set operational parameter limits applied in the converting on the basis of the collected data.
Method for producing L-menthol in solid form, characterized by the following steps: - providing a menthol melt, - feeding the melt to a drop former having a rotating, perforated outer drum and a fixed nozzle strip adjacent to the inside of the outer drum, - depositing melt drops produced by the drop former onto a continuous cooling belt, - solidifying the melt drops during transport on the cooling belt to form L-menthol pellets, and - taking the pellets off in the region of a deflection drum for the cooling belt. - providing a menthol melt, - feeding the melt to a drop former having a rotating, perforated outer drum and a fixed nozzle strip adjacent to the inside of the outer drum, - depositing melt drops produced by the drop former onto a continuous cooling belt, - solidifying the melt drops during transport on the cooling belt to form L-menthol pellets, and - taking the pellets off in the region of a deflection drum for the cooling belt.
Security element for producing valuable documents, such as banknotes, cheques or the like, wherein, in a dielectric that is transparent to THz radiation in a first plane, a first layer is arranged which is formed from a layer material that is opaque to THz radiation and forms a periodic or quasi-periodic first line grating structure, which is not perceivable with the naked eye, made of parallel longitudinal slits that produce gaps in the first layer, wherein a width of the longitudinal slits is no greater than 1/5 of the period (p), preferably no greater than 1/10 of the period (p), characterized in that, in the dielectric in a second plane that is parallel to the first plane, a second layer is arranged which is likewise formed from a layer material that is opaque to THz radiation and forms a second line grating structure that is inverse to the first line grating structure.
A plant transplantation shock treatment light device, wherein at least one said light device (220, 320, 321) is a UV LED and is arranged to illuminate at least one plant seedling (210, 310) indoors prior to the transfer of said at least one plant seedling to outdoor life, and at least one wavelength up-converting phosphor is arranged in proximity of the UV LED.
An anti-CAIX (carbonic anhydrase IX) antibody for use in the treatment of renal clear cell carcinoma (ccRCC), wherein the use comprises quantifying CAIX expression in at least one tumor sample provided from a subject to be treated, determining a CAIX score based on the CAIX expression in the tumor sample, and the subject is treated if a CAIX score ≥ 2.6 is reached, wherein CAIX expression is quantified by immunohistochemical staining and wherein the CAIX score is determined and/or calculated by the formula: CAIX Score = 0 × percentage of viable tumor cells with no staining intensity + ( 1 × percentage of viable tumor cells with faint staining intensity) + ( 2 × percentage of viable tumor cells with moderate staining intensity) + ( 3 × percentage of viable tumor cells with strong staining intensity).
A compound of the general formula: or a pharmacologically acceptable salt thereof, wherein R 1, R 2, R 3 and R 4 each independently represents H, OH, F, Cl, CF 3, NH 2, -C OC 1-6 alkyl, -CONH 2, -OC 1-6 alkyl, -O-C C 1-6 alkyl, -NHC 1-6 alkyl, -NH-C C 1-6 alkyl;-C(=O)NHC 1-6 alkyl; -NHSO 2 C 1-6 alkyl; SOCH 3; SOCF 3; -SO 2 NH 2, SO 2 N(C 1-6 alkyl); or a group comprising a linear or branched polyethylene glycol group which comprises the formula -(CH 2 -CH 2 -O) t - with t being an integer of from 2 to 100 and has a molecular weight of from 400 to 50000 Da; and R 31 represents H or a group wherein X 31 is OH or OC 1-3 alkyl. R 1, R 2, R 3 and R 4 each independently represents H, OH, F, Cl, CF 3, NH 2, -C OC 1-6 alkyl, -CONH 2, -OC 1-6 alkyl, -O-C C 1-6 alkyl, -NHC 1-6 alkyl, -NH-C C 1-6 alkyl;-C(=O)NHC 1-6 alkyl; -NHSO 2 C 1-6 alkyl; SOCH 3; SOCF 3; -SO 2 NH 2, SO 2 N(C 1-6 alkyl); or a group comprising a linear or branched polyethylene glycol group which comprises the formula -(CH 2 -CH 2 -O) t - with t being an integer of from 2 to 100 and has a molecular weight of from 400 to 50000 Da; and R 31 represents H or a group wherein X 31 is OH or OC 1-3 alkyl.
A method for measuring oscillatory motion related to respiration, the method comprising one processor carrying out the following steps: receiving a plurality of signals related to a plurality of measurements of a direction of a vector parameter (a t-1, a t); determining a predominant measured direction of the vector parameter ( a t) based on the plurality of measurements; determining an angle of rotation (Φ t) between: a measured direction of the vector parameter of one of the plurality of measurements (a t), and the predominant measured direction of the vector parameter ( a t); characterised in: determining an angular velocity (ω) based on the angle of rotation (Φ t); and determining, based on the angular velocity (ω), a respiration flow rate. receiving a plurality of signals related to a plurality of measurements of a direction of a vector parameter (a t-1, a t); determining a predominant measured direction of the vector parameter ( a t) based on the plurality of measurements; determining an angle of rotation (Φ t) between: a measured direction of the vector parameter of one of the plurality of measurements (a t), and the predominant measured direction of the vector parameter ( a t); a measured direction of the vector parameter of one of the plurality of measurements (a t), and the predominant measured direction of the vector parameter ( a t); determining an angular velocity (ω) based on the angle of rotation (Φ t); and determining, based on the angular velocity (ω), a respiration flow rate.