mhurhangee/ep-ind-claims huggingface dataset:
A method of destructing a toxic chemical, comprising the steps of - mixing said toxic chemical with a liquid phase formed by an aqueous mixture of water and an ionic liquid or molten salt which is miscible with water, said ionic liquid or molten salt comprising a compound according to formula I wherein each R 1 to R 3 is a methyl group; and X - stands for an anion selected from the group of halogens, bicarbonates, acetates, and combinations thereof; wherein the aqueous mixture of water and the ionic liquid or molten salt has a pH higher than 7.0, preferably 8 to 10; and wherein the liquid phase contains a polyol, a monomeric or polymeric saccharide or a combination thereof; - incorporating an oxidative agent in the liquid phase to obtain a concentration of the oxidative agent which is 0.5 to 20 wt % of the non-aqueous part of the composition; and - contacting said toxic chemical in said liquid phase with said ionic liquid or molten salt so as to decompose said toxic chemical; wherein the toxic chemical is selected from the group consisting of organic compounds containing one or more heteroatoms and biological warfare agents. - mixing said toxic chemical with a liquid phase formed by an aqueous mixture of water and an ionic liquid or molten salt which is miscible with water, said ionic liquid or molten salt comprising a compound according to formula I wherein each R 1 to R 3 is a methyl group; and X - stands for an anion selected from the group of halogens, bicarbonates, acetates, and combinations thereof; wherein the aqueous mixture of water and the ionic liquid or molten salt has a pH higher than 7.0, preferably 8 to 10; and wherein the liquid phase contains a polyol, a monomeric or polymeric saccharide or a combination thereof; each R 1 to R 3 is a methyl group; and X - stands for an anion selected from the group of halogens, bicarbonates, acetates, and combinations thereof; wherein the aqueous mixture of water and the ionic liquid or molten salt has a pH higher than 7.0, preferably 8 to 10; and wherein the liquid phase contains a polyol, a monomeric or polymeric saccharide or a combination thereof; - incorporating an oxidative agent in the liquid phase to obtain a concentration of the oxidative agent which is 0.5 to 20 wt % of the non-aqueous part of the composition; and - contacting said toxic chemical in said liquid phase with said ionic liquid or molten salt so as to decompose said toxic chemical;
A method of producing a composite useful as splints or casts in immobilization of fractured body extremities, comprising the steps of - mixing together a first component formed by a polymer and - a second component formed by a reinforcing material, characterized by - mixing a thermoplastic polymer selected from the group of biodegradable polymers and mixtures thereof with a reinforcing material selected from woody materials in the form of platy wood particles having a ratio of the thickness to the smaller of the length or width of the plate's edges of between 1:2 and 1:500, and - carrying out the mixing as melt mixing in an apparatus for melt processing of polymers, said apparatus being an extruder. - mixing together a first component formed by a polymer and - a second component formed by a reinforcing material, - mixing a thermoplastic polymer selected from the group of biodegradable polymers and mixtures thereof with a reinforcing material selected from woody materials in the form of platy wood particles having a ratio of the thickness to the smaller of the length or width of the plate's edges of between 1:2 and 1:500, and - carrying out the mixing as melt mixing in an apparatus for melt processing of polymers, said apparatus being an extruder.
Device for measuring a duration of a level of an electrical signal, comprising: - a first ring oscillator consisting of inverter gates whose power supply is modulated by the electrical signal, - a second ring oscillator whose power supply is not modulated by the electrical signal, characterized in that it comprises: - means for counting the total number of transitions from gate to gate of a point of instability of the first ring oscillator, a point of instability being present at an inverter gate when the logic level at the input of the inverter gate is equal to the logic level at the output of the inverter gate, - means for counting the total number of transitions from gate to gate of a point of instability of the second ring oscillator, - means for determining the duration of the level of the electrical signal based on the values from the counting means. - a first ring oscillator consisting of inverter gates whose power supply is modulated by the electrical signal, - a second ring oscillator whose power supply is not modulated by the electrical signal, - means for counting the total number of transitions from gate to gate of a point of instability of the first ring oscillator, a point of instability being present at an inverter gate when the logic level at the input of the inverter gate is equal to the logic level at the output of the inverter gate, - means for counting the total number of transitions from gate to gate of a point of instability of the second ring oscillator, - means for determining the duration of the level of the electrical signal based on the values from the counting means.
A hemodynamic sensing device comprising: a precordial mounting substrate; a plurality of pressure transducers configured to be attached to the precordial mounting substrate while the precordial mounting substrate is secured to a subject; an electrical interface for the plurality of pressure transducers, the electrical interface adapted to communicate an electrical signal from the plurality of pressure transducers to a receiving device; and a lumen set configured to provide fluid to the plurality of pressure transducers from the subject's blood stream. a precordial mounting substrate; a plurality of pressure transducers configured to be attached to the precordial mounting substrate while the precordial mounting substrate is secured to a subject; an electrical interface for the plurality of pressure transducers, the electrical interface adapted to communicate an electrical signal from the plurality of pressure transducers to a receiving device; and a lumen set configured to provide fluid to the plurality of pressure transducers from the subject's blood stream.
Process for printing a multicomponent system, comprising at least one isocyanate component and at least one isocyanate-reactive component, wherein the isocyanate component comprises at least one compound having aliphatically bonded isocyanate groups and the isocyanate-reactive component comprises at least one compound having isocyanate-reactive groups, characterized in that a mixture of the isocyanate component and isocyanate-reactive component has a pot life at a temperature of 23°C of ≤ 30 minutes, the isocyanate component and the isocyanate-reactive component each have a use life of ≥ 16 hours at 20°C and a relative humidity of 50%, the isocyanate component and the isocyanate-reactive component each have a viscosity measured at 70°C and a constant shear rate of 100 1/s of ≤ 100 mPas and the gap Ra between the Hansen solubility parameter of the compound having aliphatically bonded isocyanate groups or optionally a mixture of all compounds having isocyanate groups and the Hansen solubility parameter of the compound having isocyanate-reactive groups or optionally a mixture of all compounds having isocyanate-reactive groups is ≤ 25, wherein the isocyanate component and the isocyanate-reactive component are applied to a substrate separately so that they contact one another at at least one common interface after application to the substrate, wherein the isocyanate component and the isocyanate-reactive component are not mixed before application to the substrate, wherein the pot life is the time in which the viscosity of the mixture of the isocyanate component and the isocyanate-reactive component doubles at a temperature of 23°C, wherein the use life is the duration for which a printing operation where the isocyanate component and the isocyanate-reactive component are printed with a printing head may be interrupted at 20°C and 50% relative humidity without printing quality being impaired upon resumption of printing.
An encoding apparatus comprising one or more processors configured: to encode a sequence of Sample Adaptive Offset parameters as: a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset or Edge Offset; and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and to transmit the sequence of SAO parameters as an encoded bitstream; wherein the one or more processors are configured to binarize the SAO type using truncated unary binarization and to encode a first bin of the SAO type using a context mode and a second bin of the SAO type using a by-pass mode; wherein the one or more processors are configured to binarize the EO class using a fixed length code and encode the EO class using a by-pass mode in the event that the SAO type is EO, or to binarize the BO band position using a fixed length code and encode the BO band position using a by-pass mode in the event that the SAO type is BO; and wherein the one or more processors are configured to order, in the encoded bitstream, the first bin of the SAO type encoded using the context mode before the second bin of the SAO type and the bins of SAO parameters encoded using the by-pass mode. to encode a sequence of Sample Adaptive Offset parameters as: a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset or Edge Offset; and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset or Edge Offset; and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and to transmit the sequence of SAO parameters as an encoded bitstream; wherein the one or more processors are configured to binarize the SAO type using truncated unary binarization and to encode a first bin of the SAO type using a context mode and a second bin of the SAO type using a by-pass mode; wherein the one or more processors are configured to binarize the EO class using a fixed length code and encode the EO class using a by-pass mode in the event that the SAO type is EO, or to binarize the BO band position using a fixed length code and encode the BO band position using a by-pass mode in the event that the SAO type is BO; and wherein the one or more processors are configured to order, in the encoded bitstream, the first bin of the SAO type encoded using the context mode before the second bin of the SAO type and the bins of SAO parameters encoded using the by-pass mode.
Method for adjusting an AC power controller, - wherein the AC power controller comprises at least two circuits of converter valves (Thll, Th12, Th21, Th22), said circuits being designated as stages (St1, St2), and the stages are connected at least indirectly to a first terminal of an output of the AC power controller, - wherein the voltage at an output of each stage (St1, St2) is adjusted by a variation of a firing angle of a phase cutting, and - wherein an output voltage (U S) of the AC power controller in a first voltage range, in the case where a second stage is turned off, is adjusted by a first stage and the output voltage (U S) of the AC power controller in a second voltage range, higher than the first voltage range, in the case of a firing pulse present at the first stage with a firing angle of 0°, is adjusted by the second stage, characterized in that in a range of the output voltage (U S) of the AC power controller between the first voltage range and the second voltage range the first stage and the second stage are operated during half a period with a phase cutting and the output voltage (U S) of the AC power controller is adjusted by an adjustment of the voltage at the output of the first stage and/or of the second stage, wherein the first stage has a firing angle of greater than 0°, that is to say does not turn on completely, and a firing angle of the second stage is chosen such that the second stage does not turn off completely, wherein the firing angle of the first stage is less than the firing angle of the second stage. - wherein the AC power controller comprises at least two circuits of converter valves (Thll, Th12, Th21, Th22), said circuits being designated as stages (St1, St2), and the stages are connected at least indirectly to a first terminal of an output of the AC power controller, - wherein the voltage at an output of each stage (St1, St2) is adjusted by a variation of a firing angle of a phase cutting, and - wherein an output voltage (U S) of the AC power controller in a first voltage range, in the case where a second stage is turned off, is adjusted by a first stage and the output voltage (U S) of the AC power controller in a second voltage range, higher than the first voltage range, in the case of a firing pulse present at the first stage with a firing angle of 0°, is adjusted by the second stage,
The use of thermoplastic molding compositions comprising A) from 30 to 99% by weight of a thermoplastic polyamide B) from 0.01 to 10% by weight of an organic isocyanate or diisocyanate, or a mixture of these C) from 0 to 60% by weight of other additional substances, where the sum of the percentages by weight of A) to C) is 100%, for the production of moldings of any type with improved haze (measured in accordance with ASTM D1003) and/or improved clarity (measured in accordance with ASTM D1003) and/or increased laser transparency (measured at a wavelength of 1064 nm by means of a thermoelectric power measurement). A) from 30 to 99% by weight of a thermoplastic polyamide B) from 0.01 to 10% by weight of an organic isocyanate or diisocyanate, or a mixture of these C) from 0 to 60% by weight of other additional substances,
A computer-implemented method comprising: monitoring, by each of a plurality of endpoint computer systems, data relating to a plurality of events occurring within an operating environment of the corresponding endpoint computer system, the monitoring comprising receiving and/or inferring the data using one or more sensors executing on the endpoint computer system; storing, for each endpoint computer system, artifacts used in connection with the plurality of events in a vault being encrypted such that the data contained therein are protected from alteration and so that the data cannot be readily accessed or otherwise compromised, the vault being maintained on such endpoint computer system, wherein the storing of the data in the vault includes determining, based on one or more criteria, to retain in each vault a first subset of the data as more likely to be relevant for a software-based attack and to exclude from the corresponding vault a second subset of data as more likely to be irrelevant for a software-based attack; receiving, by at least a subset of the plurality of endpoint computer systems from a server, a query; identifying and retrieving, by the endpoint computer systems receiving the query, artifacts within the corresponding vaults in response to the query; and providing, by the endpoint computer systems receiving the query to the server, results responsive to the query including or characterizing the identified artifacts. monitoring, by each of a plurality of endpoint computer systems, data relating to a plurality of events occurring within an operating environment of the corresponding endpoint computer system, the monitoring comprising receiving and/or inferring the data using one or more sensors executing on the endpoint computer system; storing, for each endpoint computer system, artifacts used in connection with the plurality of events in a vault being encrypted such that the data contained therein are protected from alteration and so that the data cannot be readily accessed or otherwise compromised, the vault being maintained on such endpoint computer system, wherein the storing of the data in the vault includes determining, based on one or more criteria, to retain in each vault a first subset of the data as more likely to be relevant for a software-based attack and to exclude from the corresponding vault a second subset of data as more likely to be irrelevant for a software-based attack; receiving, by at least a subset of the plurality of endpoint computer systems from a server, a query; identifying and retrieving, by the endpoint computer systems receiving the query, artifacts within the corresponding vaults in response to the query; and providing, by the endpoint computer systems receiving the query to the server, results responsive to the query including or characterizing the identified artifacts.
A method for producing set type fermented milk, the method comprising the steps of: sterilizing yogurt mix in an ultra high temperature sterilization process; cooling the sterilized yogurt mix; and fermenting the cooled yogurt mix; wherein the yogurt mix comprises milk solid-not-fat and 0.4 % by weight or more of β-lactoglobulin, the weight ratio between the β-lactoglobulin and the milk solid-not-fat (β-Lg/milk SNF) being between 0.05 and 1; characterized in that the ultra high temperature sterilization process is a process for heating the yogurt mix at a temperature between 120°C and 140°C for between 1 second and 5 minutes. sterilizing yogurt mix in an ultra high temperature sterilization process; cooling the sterilized yogurt mix; and fermenting the cooled yogurt mix;
A line-scan sensor for combined imaging and spectral measurements, integrated on a single semiconductor substrate, said sensor including: a plurality of pixel lines, each pixel line including a plurality of pixels, at least one of said pixel lines being an imaging line (232, 234, 236 1, 236 2) designated for acquiring at least one image of an object and at least one of said pixel lines, different from said at least one imaging line, being a spectral measurement line (238 1, 238 2), designated for acquiring a spectral measurement of light received from said object, each imaging line (232, 234, 236 1, 236 2) being associated with a single respective spectral response within a spectral range, each pixel in each spectral measurement line (238 1, 238 2) being associated with a respective pixel spectral band, each of at least three pixels in each of said spectral measurement lines (238 1, 238 2) being respectively associated with different respective pixel spectral bands, said different respective pixel spectral bands being non-identical to any one of said single spectral responses associated with each said imaging lines, wherein said at least one of pixel lines being said spectral measurement line (238 1, 238 2) includes two spectral measurement lines, and wherein each two horizontally adjacent groups of four pixels (244 1 -244 n) in the two spectral measurement lines are separated by two vertically adjacent pixels (246 1- 246 n-1), said two vertically adjacent pixels (246 1- 246 n-1) are covered with an opaque material. a plurality of pixel lines, each pixel line including a plurality of pixels, at least one of said pixel lines being an imaging line (232, 234, 236 1, 236 2) designated for acquiring at least one image of an object and at least one of said pixel lines, different from said at least one imaging line, being a spectral measurement line (238 1, 238 2), designated for acquiring a spectral measurement of light received from said object, each imaging line (232, 234, 236 1, 236 2) being associated with a single respective spectral response within a spectral range, each pixel in each spectral measurement line (238 1, 238 2) being associated with a respective pixel spectral band, each of at least three pixels in each of said spectral measurement lines (238 1, 238 2) being respectively associated with different respective pixel spectral bands, said different respective pixel spectral bands being non-identical to any one of said single spectral responses associated with each said imaging lines, wherein said at least one of pixel lines being said spectral measurement line (238 1, 238 2) includes two spectral measurement lines, and wherein each two horizontally adjacent groups of four pixels (244 1 -244 n) in the two spectral measurement lines are separated by two vertically adjacent pixels (246 1- 246 n-1), said two vertically adjacent pixels (246 1- 246 n-1) are covered with an opaque material.
Mixed oxide, containing: a) a mixed substituted lithium-manganese spinel, in which some of the manganese lattice sites are occupied by lithium ions, and b) a boron-oxygen compound, selected from a boron oxide, a boric acid or salts thereof, characterised in that the mixed oxide is a homophasic homotype mixed crystal that comprises the constituents a) and b), constituent b) being present in the same phase as constituent a). a) a mixed substituted lithium-manganese spinel, in which some of the manganese lattice sites are occupied by lithium ions, and b) a boron-oxygen compound, selected from a boron oxide, a boric acid or salts thereof,
An axle drive unit for an electric power-driven vehicle with at least one drive axle, comprising at least one electric motor (10, 11) for generating drive torque and at least one transmission (12, 13) for transmitting the drive torque to the drive axle, wherein the electric motor (10, 11) and the transmission (12, 13) form an assembly, and power electronics for supplying power to the at least one electric motor (10, 11) forms an integral part of the assembly, characterized in that an inductive charging receiver for a battery system is integrated into the assembly, wherein the power electronics is electrically connected to the inductive charging receiver and adapted to rectify an AC voltage that can be induced into the inductive charging receiver.