mhurhangee/ep-ind-claims huggingface dataset:
Process for mixing borneol with plant proteins in the presence of solvents to produce dietary or food supplements, wherein the plant protein is a cereal protein which originates from at least one of the substances selected from the group consisting of rice, wheat, corn, oats, barley, millet, teff, the process comprising the steps of: - providing a borneol solution in either acetone or ethyl alcohol; - mixing the borneol solution with at least one plant protein, said mixing step being conducted by kneading; - drying the mixture; and - milling the mixture in order to obtain a powder; wherein said at least one plant protein comprises at least one of the substances of the group consisting of cereal proteins, and said solvents comprise at least one of the substances selected from either acetone or ethyl alcohol; and wherein said borneol is added to the plant protein as an ethanolic or acetone solution in a variable ratio between 1:1 and 1:2 [ethanolic or acetone solution: plant protein], a concentration of borneol in the ethanolic or acetone solution ranging between 100 and 150 grams per litre of solution. - providing a borneol solution in either acetone or ethyl alcohol; - mixing the borneol solution with at least one plant protein, said mixing step being conducted by kneading; - drying the mixture; and - milling the mixture in order to obtain a powder; wherein said at least one plant protein comprises at least one of the substances of the group consisting of cereal proteins, and said solvents comprise at least one of the substances selected from either acetone or ethyl alcohol; and wherein said borneol is added to the plant protein as an ethanolic or acetone solution in a variable ratio between 1:1 and 1:2 [ethanolic or acetone solution: plant protein], a concentration of borneol in the ethanolic or acetone solution ranging between 100 and 150 grams per litre of solution. wherein said at least one plant protein comprises at least one of the substances of the group consisting of cereal proteins, and said solvents comprise at least one of the substances selected from either acetone or ethyl alcohol; and wherein said borneol is added to the plant protein as an ethanolic or acetone solution in a variable ratio between 1:1 and 1:2 [ethanolic or acetone solution: plant protein], a concentration of borneol in the ethanolic or acetone solution ranging between 100 and 150 grams per litre of solution.
A positive electrode plate, comprising: a positive electrode current collector; and a positive electrode active material film provided on the positive electrode current collector and comprising a positive electrode active material; wherein, the positive electrode active material comprises a prussian blue analogue material, a molecular formula of the prussian blue analogue material is A x M[M' 6] y, where, A is one or more selected from a group consisting of alkali metal ion and alkaline-earth metal ion, M is a transition metal, M' is a transition metal, 0<x≤2, 0<y< 1; a water content of the positive electrode active material film measured according to the method defined in the description is 100μg/g∼5000μg/g; a specific surface area of the prussian blue analogue material measured according to the method defined in the description is 5m 2 /g∼20m 2 /g. a positive electrode current collector; and a positive electrode active material film provided on the positive electrode current collector and comprising a positive electrode active material; wherein, the positive electrode active material comprises a prussian blue analogue material, a molecular formula of the prussian blue analogue material is A x M[M' 6] y, where, A is one or more selected from a group consisting of alkali metal ion and alkaline-earth metal ion, M is a transition metal, M' is a transition metal, 0<x≤2, 0<y< 1; a water content of the positive electrode active material film measured according to the method defined in the description is 100μg/g∼5000μg/g; a specific surface area of the prussian blue analogue material measured according to the method defined in the description is 5m 2 /g∼20m 2 /g.
A multiresidual method for detecting and/or quantifying at least one amino acid or derivative thereof, at least one organic acid, and/or at least one modified nucleotide, in a sample of biological liquid or circulating cells, comprising the steps of: a) treating the sample with an extraction mixture at room temperature, preferably refrigerated at a temperature lower than -20°C comprising i) a mixture of one or more organic solvents having final polarity index between 3 and 6, ii) a strong acid_in an amount sufficient for the extraction mixture to have a normality from 0.005 to 0.025 N or a weak acid with ka in the range between 3.5 x 10-7 and 7.0 x 10-3 with a final concentration in the extraction mixture from 5 to 30 mM, wherein the extraction mixture comprises: - acetonitrile, dichloromethane and formic acid; or - acetonitrile and hydrochloric acid; or - acetone and formic acid; or - methanol and formic acid; or - acetonitrile and formic acid; - acetonitrile, methanol and hydrochloric acid; b) performing a hydrophilic interaction liquid chromatography (HILIC) on the sample treated in step a); c) performing an analysis by tandem mass spectrometry on the sample obtained in step b) for detecting and/or quantifying the at least one amino acid or derivative thereof, the at least one organic acid, and/or the at least one modified nucleotide. a) treating the sample with an extraction mixture at room temperature, preferably refrigerated at a temperature lower than -20°C comprising i) a mixture of one or more organic solvents having final polarity index between 3 and 6, ii) a strong acid_in an amount sufficient for the extraction mixture to have a normality from 0.005 to 0.025 N or a weak acid with ka in the range between 3.5 x 10-7 and 7.0 x 10-3 with a final concentration in the extraction mixture from 5 to 30 mM, wherein the extraction mixture comprises: - acetonitrile, dichloromethane and formic acid; or - acetonitrile and hydrochloric acid; or - acetone and formic acid; or - methanol and formic acid; or - acetonitrile and formic acid; - acetonitrile, methanol and hydrochloric acid; - acetonitrile, dichloromethane and formic acid; or - acetonitrile and hydrochloric acid; or - acetone and formic acid; or - methanol and formic acid; or - acetonitrile and formic acid; - acetonitrile, methanol and hydrochloric acid; b) performing a hydrophilic interaction liquid chromatography (HILIC) on the sample treated in step a); c) performing an analysis by tandem mass spectrometry on the sample obtained in step b) for detecting and/or quantifying the at least one amino acid or derivative thereof, the at least one organic acid, and/or the at least one modified nucleotide.
An immunogenic polypeptide comprising a multitude of human papillomavirus L2 N-terminal peptides corresponding to amino acids 20 to 38 of the L2 polypeptide of HPV16, wherein said HPV L2 N-terminal peptides are L2 N-terminal peptides from at least 8 different HPV genotypes; or are variants thereof comprising at most two, preferably at most one amino acid substitution(s) per HPV L2 N-terminal peptide.
A method of laser reactive cutting a metal workpiece having a thickness of between 10 mm and 60 mm, the method comprising the steps of providing the workpiece having the thickness (t) of between 10 mm and 60 mm, of causing a laser beam to impinge on the workpiece while the laser beam is moved relative to the workpiece and while a cutting gas containing oxygen is ejected from a laser machining nozzle and is thereby directed onto a position of incidence of the laser beam on the workpiece, characterized in that a focal position of the laser beam is at a distance (a f) of between 10 mm and 30 mm from the workpiece, and in that the laser beam has a power of at least 5 kW.
A method of making a trunk piston engine lubricating oil composition which comprises mixing (a) a major amount of a base stock comprising at least 90% by weight saturated hydrocarbons, wherein the base stock comprising at least 90% by weight saturated hydrocarbons comprises at least one of a Group II base oil, a Group III base oil or a base stock derived from a Fischer-Tropsch synthesized, waxy, paraffinic hydrocarbon material; and (b) a minor amount of a base oil having a viscosity index of less than 70 and a cycloaliphatic hydrocarbon content of at least 25 wt. %.
A method comprising: a) providing an aqueous catalyst solution comprising complexes of metal ions and a complexing compound which is allantoin, wherein allantoin is included in amounts of 30 ppm to 500 ppm; b) applying the catalyst to a substrate; c) applying a reducing agent to the catalyst; and d) immersing the substrate into a metal plating bath to electrolessly plate metal on the substrate. a) providing an aqueous catalyst solution comprising complexes of metal ions and a complexing compound which is allantoin, wherein allantoin is included in amounts of 30 ppm to 500 ppm; b) applying the catalyst to a substrate; c) applying a reducing agent to the catalyst; and d) immersing the substrate into a metal plating bath to electrolessly plate metal on the substrate.
An electronic device (100, 500) comprising: an input device sensor configured to detect insertion of an input device in the electronic device; a reception unit configured to receive a button input signal received from the input device inserted in the electronic device; and a controller configured to: set a button portion provided in the input device as a button of the electronic device in response to detecting insertion of the input device in the electronic device; and perform a function corresponding to the button input signal if the button input signal of the input device is received from the reception unit. an input device sensor configured to detect insertion of an input device in the electronic device; a reception unit configured to receive a button input signal received from the input device inserted in the electronic device; and a controller configured to: set a button portion provided in the input device as a button of the electronic device in response to detecting insertion of the input device in the electronic device; and perform a function corresponding to the button input signal if the button input signal of the input device is received from the reception unit. set a button portion provided in the input device as a button of the electronic device in response to detecting insertion of the input device in the electronic device; and perform a function corresponding to the button input signal if the button input signal of the input device is received from the reception unit.
A method for managing caching for a content delivery system, the method comprising: receiving, by a business logic agent from a caching agent, a content request indicating that the caching agent is requesting content data for a client, wherein the business logic agent and the caching agent are operatively coupled via a network; filling, by the business logic agent, the content data in a first cache storage of the business logic agent, wherein the content data is received from an upstream node of the content delivery system; providing, by the business logic agent, the cached content data to the caching agent; and while a second cache storage of the caching agent is being filled with the content data, maintaining, by the business logic agent, the cached content data in response to receiving additional content requests from the caching agent, wherein the additional content requests indicate that the caching agent is requesting the same content data for additional clients; wherein the content delivery system is a content delivery network, CDN; the business logic agent and the caching agent are on a same edge node of the CDN; the upstream node is an origin server that stores the content data or a node (140 between the edge node and the origin node in the CDN that stores the content data; and the network is a local host connection. receiving, by a business logic agent from a caching agent, a content request indicating that the caching agent is requesting content data for a client, wherein the business logic agent and the caching agent are operatively coupled via a network; filling, by the business logic agent, the content data in a first cache storage of the business logic agent, wherein the content data is received from an upstream node of the content delivery system; providing, by the business logic agent, the cached content data to the caching agent; and while a second cache storage of the caching agent is being filled with the content data, maintaining, by the business logic agent, the cached content data in response to receiving additional content requests from the caching agent, wherein the additional content requests indicate that the caching agent is requesting the same content data for additional clients; wherein the content delivery system is a content delivery network, CDN; the business logic agent and the caching agent are on a same edge node of the CDN; the upstream node is an origin server that stores the content data or a node (140 between the edge node and the origin node in the CDN that stores the content data; and the network is a local host connection.
A process for treating a plant oil, comprising a step of contacting the oil with an enzyme, wherein the enzyme is capable of hydrolysing an a' or b' stereoisomer of chlorophyll or a chlorophyll derivative and wherein the enzyme comprises a polypeptide having at least 90% sequence identity to SEQ ID NO:13.
An access point, AP, comprising: a processor configured to determine whether a preset condition is met; and a transmitter configured to broadcast a first message once the preset condition is met, wherein the first message carries a quiet information element and a first ignoring instruction information element, the quiet information element is used to suspend a station, STA, which receives the first message, from transmitting information to the AP, the first ignoring instruction information element is in a format supported only by a specified STA, and the first ignoring instruction information element is used for instructing the specified STA to ignore the quiet information element, wherein the first message is a beacon frame periodically broadcasted by the AP, wherein, the specified STA is a high-efficiency wireless local area network station, HEW STA, and/or an STA with protocol versions later than HEW protocol defined in 802.11 standards. a processor configured to determine whether a preset condition is met; and a transmitter configured to broadcast a first message once the preset condition is met, wherein the first message carries a quiet information element and a first ignoring instruction information element, the quiet information element is used to suspend a station, STA, which receives the first message, from transmitting information to the AP, the first ignoring instruction information element is in a format supported only by a specified STA, and the first ignoring instruction information element is used for instructing the specified STA to ignore the quiet information element, wherein the first message is a beacon frame periodically broadcasted by the AP, wherein, the specified STA is a high-efficiency wireless local area network station, HEW STA, and/or an STA with protocol versions later than HEW protocol defined in 802.11 standards.
Method of manufacturing an electronic chip comprising memory cells comprising phase-change material, comprising: a) forming a first metal level comprising first interconnection tracks crossing a first insulating layer; b) for each memory cell, forming an element for heating the phase-change material against sides of portions of the first layer; and before step b), forming first spacers against said sides by forming a layer of a material of the first spacers and by then removing by anisotropic etching the horizontal portions of the layer of the material of the first spacers, the first layer being made of a thermal insulator. a) forming a first metal level comprising first interconnection tracks crossing a first insulating layer; b) for each memory cell, forming an element for heating the phase-change material against sides of portions of the first layer; and
An acoustic sensor comprising: a side wall closed at each end by an end wall (11, 12) to form a disc-shaped cavity which, in use, contains a fluid; at least one transmitter and at least one receiver operatively associated with a first end wall of the end walls (11, 12); wherein the cavity has a substantially circular cross-section, or the cavity has an elliptical cross-section in the plane of the end walls (11, 12); wherein a maximum half width, a, of the cavity and a height, h, of the cavity satisfies the following inequality: a h is greater than 1.2; and wherein, in use, the transmitter causes oscillatory motion of the region of the end wall operatively associated with the transmitter, in a direction substantially perpendicular to the plane of the end walls (11, 12); such that the perpendicular oscillations of the end walls (11, 12) drive substantially in-plane oscillations of the fluid pressure in the cavity; and the substantially in-plane oscillations in the pressure of the fluid drive substantially perpendicular oscillatory motion of the region of the end wall operatively associated with the receiver, resulting in an electrical signal from the receiver, and wherein transmitter(s) and receiver(s) are mechanically isolated from one another by means of rigid support structure(s) positioned on the first end wall between the transmitter(s) and receiver(s) or by means of a thin flexible membrane bridging gap(s) in the first end wall between the transmitter(s) and receiver(s). a side wall closed at each end by an end wall (11, 12) to form a disc-shaped cavity which, in use, contains a fluid; at least one transmitter and at least one receiver operatively associated with a first end wall of the end walls (11, 12); wherein the cavity has a substantially circular cross-section, or the cavity has an elliptical cross-section in the plane of the end walls (11, 12); wherein a maximum half width, a, of the cavity and a height, h, of the cavity satisfies the following inequality: a h is greater than 1.2; and wherein, in use, the transmitter causes oscillatory motion of the region of the end wall operatively associated with the transmitter, in a direction substantially perpendicular to the plane of the end walls (11, 12); such that the perpendicular oscillations of the end walls (11, 12) drive substantially in-plane oscillations of the fluid pressure in the cavity; and the substantially in-plane oscillations in the pressure of the fluid drive substantially perpendicular oscillatory motion of the region of the end wall operatively associated with the receiver, resulting in an electrical signal from the receiver, and wherein transmitter(s) and receiver(s) are mechanically isolated from one another by means of rigid support structure(s) positioned on the first end wall between the transmitter(s) and receiver(s) or by means of a thin flexible membrane bridging gap(s) in the first end wall between the transmitter(s) and receiver(s).
A process comprising: melting a constituent corresponding to a luminescent material to form a melt; adding a vacancy-filling agent into the melt, wherein the vacancy-filling agent has a vaporization temperature at atmospheric pressure that is within 250°C of the melting temperature of the luminescent material; and forming the luminescent material from the melt, wherein the luminescent material includes at least some of the vacancy-filling atoms from the vacancy-filling agent, whereby either the constituent corresponding to the luminescent material is selected from an oxygen-containing luminescent material and the vacancy-filling agent is selected from a metal oxide, or the constituent corresponding to the luminescent material is selected from a halide-containing luminescent material and the vacancy-filling agent is selected from a metal halide, or the constituent corresponding to the luminescent material is selected from a sulfur-containing compound and the vacancy-filling agent is selected from a metal sulfide or sulfur. melting a constituent corresponding to a luminescent material to form a melt; adding a vacancy-filling agent into the melt, wherein the vacancy-filling agent has a vaporization temperature at atmospheric pressure that is within 250°C of the melting temperature of the luminescent material; and forming the luminescent material from the melt, wherein the luminescent material includes at least some of the vacancy-filling atoms from the vacancy-filling agent, whereby either the constituent corresponding to the luminescent material is selected from an oxygen-containing luminescent material and the vacancy-filling agent is selected from a metal oxide, or the constituent corresponding to the luminescent material is selected from a halide-containing luminescent material and the vacancy-filling agent is selected from a metal halide, or the constituent corresponding to the luminescent material is selected from a sulfur-containing compound and the vacancy-filling agent is selected from a metal sulfide or sulfur.
A communication apparatus (101, STA-A) comprising: a specifying unit configured to, before starting connection processing via a wireless network, specify an external device (101, STA-B) that will be a file transmitting source by responding to an inquiry, transmitted from an external source, for utilizing a file transmitting service; a first receiving unit configured to, before starting connection processing via a wireless network, receive related information relating to a file to be transmitted from the external device (101, STA-B) specified by the specifying unit, wherein the related information includes a name and a size of the file to be transmitted; a determination unit configured to, before starting connection processing via a wireless network, determine whether to receive the file to be transmitted based on the related information received by the first receiving unit, wherein in a case where the communication apparatus has a file having a name and a size that are identical to the name and size of the file to be transmitted, the determination unit determines to not receive the file to be transmitted; a network connection unit configured to establish a wireless network connection when the determination unit determines to receive the file to be transmitted; and a second receiving unit configured to receive the file to be transmitted from the external device (101, STA-B) specified by the specifying unit after the communication apparatus has established the wireless network connection. a specifying unit configured to, before starting connection processing via a wireless network, specify an external device (101, STA-B) that will be a file transmitting source by responding to an inquiry, transmitted from an external source, for utilizing a file transmitting service; a first receiving unit configured to, before starting connection processing via a wireless network, receive related information relating to a file to be transmitted from the external device (101, STA-B) specified by the specifying unit, wherein the related information includes a name and a size of the file to be transmitted; a determination unit configured to, before starting connection processing via a wireless network, determine whether to receive the file to be transmitted based on the related information received by the first receiving unit, wherein in a case where the communication apparatus has a file having a name and a size that are identical to the name and size of the file to be transmitted, the determination unit determines to not receive the file to be transmitted; a network connection unit configured to establish a wireless network connection when the determination unit determines to receive the file to be transmitted; and a second receiving unit configured to receive the file to be transmitted from the external device (101, STA-B) specified by the specifying unit after the communication apparatus has established the wireless network connection.