mhurhangee/ep-ind-claims huggingface dataset:
A control unit for an appliance; wherein the appliance comprises a receptacle for taking up content, in particular a food item; wherein the appliance comprises a temperature modification unit, in particular a heating unit and/or a cooling unit, for modifying a temperature of the content within the receptacle; wherein the appliance is configured to operate a tool to process the content within the receptacle; and wherein the appliance comprises a temperature sensor configured to provide measurement data regarding the temperature of the content; wherein the control unit is configured to - determine, based on measurement data provided by the temperature sensor, a temperature signal (311, 312) indicative of the temperature of the content within the receptacle as a function of time, during operation of the temperature modification unit for modifying the temperature of the content within the receptacle; being characterised in that the control unit is further configured to - determine tool information regarding the tool and/or regarding operation of the tool, based on the temperature signal (311, 312); and - monitor and/or control operation of the tool based on the determined tool information. - determine, based on measurement data provided by the temperature sensor, a temperature signal (311, 312) indicative of the temperature of the content within the receptacle as a function of time, during operation of the temperature modification unit for modifying the temperature of the content within the receptacle; being characterised in that the control unit is further configured to - determine tool information regarding the tool and/or regarding operation of the tool, based on the temperature signal (311, 312); and - monitor and/or control operation of the tool based on the determined tool information.
-butylidenephthalide having the following formula as the active ingredient for use in treating liver fibrosis, liver cirrhosis, or hepatitis or, for use in improving liver function in a subject: wherein R is =CHCH 2 CH 2 CH 3, and n-butylidenephthalide is E form, Z form or a mixture thereof.
A production method of a high-concentration alcohol, which is a method for producing a high-concentration alcohol by using an adsorption column and a membrane separation unit in this order, and in which the alcohol produced is ethanol, which comprises: a water adsorption step of introducing a water-alcohol mixture into the adsorption column to adsorb water on the adsorption column and obtain a first concentrated alcohol, a water desorption step of introducing an alcohol into the adsorption column to desorb the water adsorbed and obtain a hydrous alcohol, and a membrane separation step of introducing the hydrous alcohol into a membrane separation unit provided with a zeolite membrane composite containing zeolite having an SiO 2 /Al 2 O 3 molar ratio of 5 to 15 to obtain a second concentrated alcohol, wherein after separating the hydrous alcohol by using the zeolite membrane containing zeolite having an SiO 2 /Al 2 O 3 molar ratio of 5 to 15, the concentrated alcohol component obtained is further dehydrated using an LTA-type zeolite membrane, wherein the alcohol concentration of the concentrated alcohol component introduced into the LTA-type zeolite membrane is 80 % by mass or more, and wherein the permeation of flux of water in the membrane separation step using the membrane separation unit is 0.1 kg/(m2*h) or more. a water adsorption step of introducing a water-alcohol mixture into the adsorption column to adsorb water on the adsorption column and obtain a first concentrated alcohol, a water desorption step of introducing an alcohol into the adsorption column to desorb the water adsorbed and obtain a hydrous alcohol, and a membrane separation step of introducing the hydrous alcohol into a membrane separation unit provided with a zeolite membrane composite containing zeolite having an SiO 2 /Al 2 O 3 molar ratio of 5 to 15 to obtain a second concentrated alcohol, wherein after separating the hydrous alcohol by using the zeolite membrane containing zeolite having an SiO 2 /Al 2 O 3 molar ratio of 5 to 15, the concentrated alcohol component obtained is further dehydrated using an LTA-type zeolite membrane, wherein the alcohol concentration of the concentrated alcohol component introduced into the LTA-type zeolite membrane is 80 % by mass or more, and
A method comprising: causing a user interface state of a source device to be provided to a target device and initiating database replication in response to an indication of a switch from the source device to the target device; permitting the target device to access a database of the source device while the database of the source device is replicated to the target device; and completing the database replication and closing target device's access to the database of the source device. causing a user interface state of a source device to be provided to a target device and initiating database replication in response to an indication of a switch from the source device to the target device; permitting the target device to access a database of the source device while the database of the source device is replicated to the target device; and completing the database replication and closing target device's access to the database of the source device.
A method of assembling a cell growth module comprising a synthetic polymeric membrane and a synthetic polymeric housing, the method comprising: treating the membrane with both gamma irradiation and gas plasma to modify the surface of the membrane to cause cells to adhere to the membrane; and inserting the membrane into the housing, after the treating step to form the cell growth module. treating the membrane with both gamma irradiation and gas plasma to modify the surface of the membrane to cause cells to adhere to the membrane; and inserting the membrane into the housing, after the treating step to form the cell growth module.
A mattress comprising: a first air-holding portion; a second air-holding portion; wherein the first air-holding portion comprises the approximate middle section of the mattress and the second air-holding portion comprises the foot portion of the mattress, the first air-holding portion connected to the second air-holding portion via a connecting portion arranged to allow only one-way airflow from the first air-holding portion to the second air-holding portion; wherein the first air-holding portion includes a one-way air inlet valve and the second air-holding portion includes a one-way air outlet valve, wherein the second air-holding portion comprises a plurality of interconnected chambers (518, 520, 522), characterised in that at least one of the plurality of interconnected chambers is larger than the other interconnected chambers (520, 522) and the at least one larger chamber is located closer to the middle portion of the mattress than the other interconnected chambers (520, 522), the chambers being interconnected such that the chambers are in fluid communication with each other, and the interconnection is such that the air may flow in only one direction between the plurality of chambers. a first air-holding portion; a second air-holding portion; wherein the first air-holding portion comprises the approximate middle section of the mattress and the second air-holding portion comprises the foot portion of the mattress, the first air-holding portion connected to the second air-holding portion via a connecting portion arranged to allow only one-way airflow from the first air-holding portion to the second air-holding portion; wherein the first air-holding portion includes a one-way air inlet valve and the second air-holding portion includes a one-way air outlet valve, wherein the second air-holding portion comprises a plurality of interconnected chambers (518, 520, 522), characterised in that at least one of the plurality of interconnected chambers is larger than the other interconnected chambers (520, 522) and the at least one larger chamber is located closer to the middle portion of the mattress than the other interconnected chambers (520, 522), the chambers being interconnected such that the chambers are in fluid communication with each other, and the interconnection is such that the air may flow in only one direction between the plurality of chambers.
A lasing composition comprising a proteinaceous biological substrate, wherein the biological substrate is chemically modified at specific attachment sites with light-emitting labels due to the presence of covalent bonds between the light-emitting labels and functional groups of amino acids present in the biological substrate, wherein the light-emitting labels comprise a fluorophore, the average molecular diameter of the light-emitting labels is between 0.5 nm and 2 nm, and the average distance between adjacent light-emitting labels is between 1 nm and 15 nm.
A method of measuring a liquid medium with low pressure of saturated vapors when pumped out of a tank, said method comprising at least one main stage and at least one subsequent stage, a main stage is followed by a subsequent stage; the main stage comprises using a first line pump to pump out the medium from the tank and in a first instrument line (Fa, Ta, pa) equipped with a mass meter with a first flow rate range, the subsequent stage is initiated by the first line pump being stopped, whereby the system enters the subsequent stage, during the subsequent stage the medium remnants are collected from the tank and inner cavities of the first instrument line (Fa, Ta, pa) into the bottom of the system inner volume by gravity; and from the bottom point of the bottom of the system inner volume, the medium is supplied by a second pump into a second instrument line (Fb, Tb, pb) equipped with a mass meter, the mass measuring capacity of the second instrument line (Fb, Tb, pb) is at least one order of magnitude less than that of the first instrument line (Fa, Ta, pa), wherein when the number of performed main stages and subsequent stages reaches a predefined value or another condition is met, the measurement result is calculated by summing all medium masses from all main stages and subsequent stages, wherein a command to enter the subsequent stage and also to finish the next subsequent stage is given when at least one of the following conditions is fulfilled: when an interruption of liquid flow is registered by probe readings corresponding to an empty pipeline at the pump suction of the corresponding line, when filter clogging is determined by exceeded limits of a differential pressure sensor at a filter, when currently active mass meter readings correspond to a level of bubbles in the medium above a predefined value, if a diagnostic error occurs in any of the instrument lines, if a certain value of the current load on an excitation coil of the mass meter sensor of the first instrument line is exceeded. when an interruption of liquid flow is registered by probe readings corresponding to an empty pipeline at the pump suction of the corresponding line, when filter clogging is determined by exceeded limits of a differential pressure sensor at a filter, when currently active mass meter readings correspond to a level of bubbles in the medium above a predefined value, if a diagnostic error occurs in any of the instrument lines, if a certain value of the current load on an excitation coil of the mass meter sensor of the first instrument line is exceeded.
An air secondary battery comprising a cathode for reducing oxygen in an oxygen-containing gas in a discharge process, an anode containing an active metal material, and an electrolyte interposed between the cathode and the anode, wherein the cathode has a trap portion configured to confine a metal oxide generated in the cathode, in the discharge process, wherein the cathode has a first cathode layer and a second cathode layer, the first cathode layer and the second cathode layer are porous bodies, characterized in that an average pore diameter of pores in the second cathode layer is larger than an average pore diameter of pores in the first cathode layer, and a potential of an oxygen reduction reaction in the second cathode layer is higher than a potential of an oxygen reduction reaction potential in the first cathode layer, the first cathode layer is used as the trap portion in contact with the electrolyte and the second cathode layer is separated from the electrolyte at a distance corresponding to the thickness of the first cathode layer, and the average pore diameter of the first cathode layer is less than 100 nm.
A method of adaptation of transmit power based on channel quality, comprising: determining that a visitor access terminal that is not authorized for data access at an access node has entered into a coverage area of said access node, wherein the coverage area of said access node is smaller than the coverage area of a macro node; determining channel quality; and determining a transmit power value at the access node based on the determined channel quality, wherein the determining includes determining to decrease the transmit power value in the presence of the visitor access terminal that is not authorized for data access. determining that a visitor access terminal that is not authorized for data access at an access node has entered into a coverage area of said access node, wherein the coverage area of said access node is smaller than the coverage area of a macro node; determining channel quality; and determining a transmit power value at the access node based on the determined channel quality, wherein the determining includes determining to decrease the transmit power value in the presence of the visitor access terminal that is not authorized for data access.
An electrolyte, comprising: a lithium salt; an organic solvent; and an additive; wherein, the additive comprises fluoroborate and lithium difluorophosphate; the fluoroborate is one or more selected from a group consisting of compounds represented by formula 1; wherein, R 1, R 2 and R 3 each independently are one selected from a group consisting of C1-C20 alkyl group and C6-C16 aryl group, and at least one of R 1, R 2 and R 3 is substituted with a fluorine atom; a content of lithium difluorophosphate is 0.1% ~ 3% of a total mass of the electrolyte; a content of the fluoroborate is 0.01% ~ 5% of the total mass of the electrolyte. a lithium salt; an organic solvent; and an additive; wherein, the additive comprises fluoroborate and lithium difluorophosphate; the fluoroborate is one or more selected from a group consisting of compounds represented by formula 1; wherein, R 1, R 2 and R 3 each independently are one selected from a group consisting of C1-C20 alkyl group and C6-C16 aryl group, and at least one of R 1, R 2 and R 3 is substituted with a fluorine atom; a content of lithium difluorophosphate is 0.1% ~ 3% of a total mass of the electrolyte; a content of the fluoroborate is 0.01% ~ 5% of the total mass of the electrolyte.
An absorbent structure comprising a single stratum exhibiting a Capillarity Work Potential greater than the Capillarity Work Potential trade-off Boundary, wherein the absorbent structure comprises a heterogeneous mass comprising enrobeable elements selected from the group consisting of creped cellulose wadding, fluffed cellulose fibers, wood pulp fibers also known as airfelt, textile fibers, synthetic fibers, rayon fibers, airlaid, absorbent fibers, thermoplastic fibers, tricomponent fibers, bicomponent fibers, tufts, and combinations thereof, and one or more pieces of open-cell foam that enrobe the enrobeable elements, said discrete open-cell foam pieces comprising a High Internal Phase Emulsion (HIPE) foam, and wherein the absorbent structure is a generally planar structure which has been opened by formation means.
A coated article comprising: a coating supported by a substrate, wherein the coating is an anticondensation coating comprising the following layers moving away from the first substrate: a layer comprising silicon nitride and/or silicon oxynitride, a layer comprising a transparent conductive oxide, TCO, a layer comprising silicon nitride, and a layer comprising one or more of zirconium oxide, zirconium nitride, aluminum oxide, and aluminum nitride. a layer comprising silicon nitride and/or silicon oxynitride, a layer comprising a transparent conductive oxide, TCO, a layer comprising silicon nitride, and a layer comprising one or more of zirconium oxide, zirconium nitride, aluminum oxide, and aluminum nitride.
A method of hydraulically controlling multiple well tools in a well, comprising the steps of: a) providing a set of first hydraulic lines (201, 202, 203); b) providing a closing hydraulic line; c) wherein each of said first hydraulic lines (201, 202, 203) and said closing hydraulic line is fluidly connected to a plurality of addressable control devices, each connected to a plurality of actuators controlling a plurality of tools; d) selecting a tool for actuation by generating a first code on the first hydraulic lines by applying a first hydraulic pressure to one of the first hydraulic lines; e) activating the selected tool by generating a second code on the first hydraulic lines (201, 202, 203) by applying the first hydraulic pressure to one or more of the first hydraulic lines that are not used in the selecting step d); and f) terminating the activation of said tool by applying the first hydraulic pressure to said closing hydraulic line; wherein g) the closing hydraulic line is a common close line which closes all actuated tools a) providing a set of first hydraulic lines (201, 202, 203); b) providing a closing hydraulic line; c) wherein each of said first hydraulic lines (201, 202, 203) and said closing hydraulic line is fluidly connected to a plurality of addressable control devices, each connected to a plurality of actuators controlling a plurality of tools; d) selecting a tool for actuation by generating a first code on the first hydraulic lines by applying a first hydraulic pressure to one of the first hydraulic lines; e) activating the selected tool by generating a second code on the first hydraulic lines (201, 202, 203) by applying the first hydraulic pressure to one or more of the first hydraulic lines that are not used in the selecting step d); and f) terminating the activation of said tool by applying the first hydraulic pressure to said closing hydraulic line; wherein g) the closing hydraulic line is a common close line which closes all actuated tools
An insert system comprising a. an insert comprising i. a base and ii. an outer skirt extending from 1. the base, thereby forming a chamber, 2. said outer skirt being provided with a first inner skirt surface and a first outer skirt surface; and b. a panel comprising i. a core structure and ii. a first cover sheet that at least partially covers the core structure; 1. the first cover sheet defining a first outer panel surface and 2. having an opening; characterized by c. at least one piston arranged in the opening and beneath the first outer panel surface d. wherein the piston during mounting of the insert sweeps into the chamber to discharge an adhesive agent from the chamber into the core structure via at least one pathway (P1, P2). a. an insert comprising i. a base and ii. an outer skirt extending from 1. the base, thereby forming a chamber, 2. said outer skirt being provided with a first inner skirt surface and a first outer skirt surface; and i. a base and ii. an outer skirt extending from 1. the base, thereby forming a chamber, 2. said outer skirt being provided with a first inner skirt surface and a first outer skirt surface; and 1. the base, thereby forming a chamber, 2. said outer skirt being provided with a first inner skirt surface and a first outer skirt surface; and b. a panel comprising i. a core structure and ii. a first cover sheet that at least partially covers the core structure; 1. the first cover sheet defining a first outer panel surface and 2. having an opening; characterized by i. a core structure and ii. a first cover sheet that at least partially covers the core structure; 1. the first cover sheet defining a first outer panel surface and 2. having an opening; characterized by 1. the first cover sheet defining a first outer panel surface and 2. having an opening; characterized by c. at least one piston arranged in the opening and beneath the first outer panel surface d. wherein the piston during mounting of the insert sweeps into the chamber to discharge an adhesive agent from the chamber into the core structure via at least one pathway (P1, P2).
Method for preparing single-sized II-VI semiconductor nanocrystals comprising the steps: a) providing a first solution which comprises at least one group II B element precursor, at least one carboxylic acid and at least one alkene; b) providing a second solution which comprises at least one group VI A element precursor and at least one secondary phosphine; c) mixing the first solution and the second solution to obtain a reaction mixture; and d) heating the reaction mixture to obtain a solution containing the single-sized II-VI semiconductor nanocrystals; wherein the carboxylic acid: group II B element precursor molar ratio is 3 or less, preferably 2 or less; the group II B element precursor: group VI A element precursor molar ratio has to exceed 2, preferably at least 4, the group VI A element precursor is selenium, and the group II B element precursor is an group II B element oxide. a) providing a first solution which comprises at least one group II B element precursor, at least one carboxylic acid and at least one alkene; b) providing a second solution which comprises at least one group VI A element precursor and at least one secondary phosphine; c) mixing the first solution and the second solution to obtain a reaction mixture; and d) heating the reaction mixture to obtain a solution containing the single-sized II-VI semiconductor nanocrystals;
A computer-readable storage medium having a service listener stored thereon that, when executed on a computer, detects a network-connected hardware device, the service listener comprising: at least one listening module component (212a, 212b) containing instructions for listening for device announcement messages on a network and for notifying the service listener of an arrival of the hardware device; and a device installer containing instructions for installing a driver for the hardware device, wherein the service listener is implemented in user mode of an operating system of the computer, the user mode being outside a kernel mode of the operating system, and wherein the service listener informs the operating system of the computer of an arrival of the hardware device. at least one listening module component (212a, 212b) containing instructions for listening for device announcement messages on a network and for notifying the service listener of an arrival of the hardware device; and a device installer containing instructions for installing a driver for the hardware device, wherein the service listener is implemented in user mode of an operating system of the computer, the user mode being outside a kernel mode of the operating system, and wherein the service listener informs the operating system of the computer of an arrival of the hardware device.
Process for limiting the level of flooding of a watercourse notably a wide river, a narrow river and/or one of its tributaries characterized in that is consists of injecting into the said watercourse at least one friction-reduction agent in the form of a water-soluble polymer.