mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: at least one processing unit executing an operating system, OS, ; a volatile memory comprising at least one tangible, non-transitory volatile computer-readable medium; and a non-volatile, nonV, memory communicatively connected with the at least one processing unit and comprising at least one tangible, non-transitory non-volatile computer-readable medium; wherein the volatile memory comprises: a first driver ; and wherein the nonV memory comprises: a driver-configuration file ; a driver store comprising a first copy of a second driver , the second driver being different from the first driver; and an installed-driver backing store comprising a second copy of the second driver ; and wherein the system is configured such that a comparison, by the OS , of a current driver, as represented by the second copy of the second driver in the backing store , with a driver staged for installation, as represented by the first copy of the second driver in the driver store , provides an indication to the OS that the second driver is already running, even when second driver is not, in fact, running. at least one processing unit executing an operating system, OS, ; a volatile memory comprising at least one tangible, non-transitory volatile computer-readable medium; and a non-volatile, nonV, memory communicatively connected with the at least one processing unit and comprising at least one tangible, non-transitory non-volatile computer-readable medium; wherein the volatile memory comprises: a first driver ; and wherein the nonV memory comprises: a driver-configuration file ; a driver store comprising a first copy of a second driver , the second driver being different from the first driver; and an installed-driver backing store comprising a second copy of the second driver ; a driver-configuration file ; a driver store comprising a first copy of a second driver , the second driver being different from the first driver; and an installed-driver backing store comprising a second copy of the second driver ; and wherein the system is configured such that a comparison, by the OS , of a current driver, as represented by the second copy of the second driver in the backing store , with a driver staged for installation, as represented by the first copy of the second driver in the driver store , provides an indication to the OS that the second driver is already running, even when second driver is not, in fact, running.
A process for producing at least one anhydrous rare earth chloride from an ore containing the at least one rare earth, the process comprising: contacting the ore containing the at least one rare earth with reactants comprising a carbonaceous reducing agent, chlorine, and a boron-containing Lewis acid acting as a defluorination agent in a chlorination reactor to produce a gaseous product and an anhydrous non-volatile chloride mixture comprising the at least one rare earth chloride, the boron-containing Lewis acid being selected from the group consisting of: B(OH) 3 , BCl 3 , B 2 O 3 , Na 2 B 4 O 7 , and mixtures thereof.
A water-soluble film comprising: a polyvinyl alcohol (PVOH) resin blend comprising: a first PVOH copolymer comprising a first anionic monomer unit, the first anionic monomer unit comprising maleic anhydride or an alkali metal salt of maleic anhydride, wherein the first anionic monomer unit is present in the first PVOH copolymer in an amount in a range of 1 mol% to 3 mol%; and a second PVOH copolymer comprising a second anionic monomer unit, the second anionic monomer unit comprising maleic anhydride or an alkali metal salt of maleic anhydride, wherein the second anionic monomer unit is present in the second PVOH copolymer in an amount in a range of 3 mol% to10 mol%; wherein the first PVOH copolymer is provided in the blend in an amount in a range of 10 wt.% to 70 wt.%, based on the total weight of the PVOH resin blend and the amount of first anionic monomer unit present in the first PVOH copolymer is different from the amount of second anionic monomer unit present in the second PVOH copolymer. a first PVOH copolymer comprising a first anionic monomer unit, the first anionic monomer unit comprising maleic anhydride or an alkali metal salt of maleic anhydride, wherein the first anionic monomer unit is present in the first PVOH copolymer in an amount in a range of 1 mol% to 3 mol%; and a second PVOH copolymer comprising a second anionic monomer unit, the second anionic monomer unit comprising maleic anhydride or an alkali metal salt of maleic anhydride, wherein the second anionic monomer unit is present in the second PVOH copolymer in an amount in a range of 3 mol% to10 mol%; wherein the first PVOH copolymer is provided in the blend in an amount in a range of 10 wt.% to 70 wt.%, based on the total weight of the PVOH resin blend and the amount of first anionic monomer unit present in the first PVOH copolymer is different from the amount of second anionic monomer unit present in the second PVOH copolymer.
A dishwasher comprising: a washing chamber having a door movable from an open position permitting a loading of the washing chamber along an axis, through a vent position providing venting but not loading of the washing chamber , to a sealed position sealing water within the washing chamber by a compression of a gasket ; an electric actuator supported at an upper wall of the washing chamber , the electric actuator having a movable plunger having an elongate section extendable to move the door to the vent position , the elongate section supporting a gear rack; and a DC motor communicating through at least one pinion gear with the gear rack to move the plunger along the axis in a first and second direction with different polarities of electrical current applied to the DC motor to move the door to the vent position and retract the plunger to the sealed position , characterised in that : the dishwasher further includes an encoder providing a signal distinguishing a position of the electric actuator among at least three different positions of: the vent position , the sealed position , and a compressed-sealed position with the gasket further compressed from the sealed position wherein the encoder provides at least one encoding track extending along the elongate section to interact with at least one stationary sensor. a washing chamber having a door movable from an open position permitting a loading of the washing chamber along an axis, through a vent position providing venting but not loading of the washing chamber , to a sealed position sealing water within the washing chamber by a compression of a gasket ; an electric actuator supported at an upper wall of the washing chamber , the electric actuator having a movable plunger having an elongate section extendable to move the door to the vent position , the elongate section supporting a gear rack; and a DC motor communicating through at least one pinion gear with the gear rack to move the plunger along the axis in a first and second direction with different polarities of electrical current applied to the DC motor to move the door to the vent position and retract the plunger to the sealed position , characterised in that : the dishwasher further includes an encoder providing a signal distinguishing a position of the electric actuator among at least three different positions of: the vent position , the sealed position , and a compressed-sealed position with the gasket further compressed from the sealed position wherein the encoder provides at least one encoding track extending along the elongate section to interact with at least one stationary sensor. the dishwasher further includes an encoder providing a signal distinguishing a position of the electric actuator among at least three different positions of: the vent position , the sealed position , and a compressed-sealed position with the gasket further compressed from the sealed position wherein the encoder provides at least one encoding track extending along the elongate section to interact with at least one stationary sensor.
A base plate unit , wherein the base plate unit is of an integral structure made of fiber reinforced polymer-matrix composite material, and the base plate unit comprises: a base plate unit body comprising at least one bearing part , each bearing part comprising a panel , a plurality of web plates extending downwards from a bottom of the panel , and bottom supports disposed at lower ends of the web plates, the web plates comprising two side-web plates at both sides of the panel and middle web plates in the middle; and foot plates disposed at both exterior sides of a bottom of the base plate unit body and formed by extending bottoms of respective outmost side-web plates of the base plate unit body outwards horizontally; wherein the bottom supports are planar supports that are connected to both foot plates to form an integral structure, wherein lower ends of the middle web plates are connected to the planar supports , and wherein a width F of the panel of each bearing part is 50 to 450 mm and a thickness G of the foot plate is 3 to 7 mm, characterized in that a thickness A of the panel is 3 to 8 mm, a thickness B of each of the side-web plates and the middle web plates is 4 to 7 mm and a width E of the foot plate is 15 to 40 mm, wherein the base plate unit body comprises a plurality of bearing parts arranged transversally at intervals, and bottom ends of the side-web plates of adjacent bearing parts are connected integrally by a bottom connecting plate , which together with the side-web plates of adjacent bearing parts enclose a groove that is filled by a groove fixing member. a base plate unit body comprising at least one bearing part , each bearing part comprising a panel , a plurality of web plates extending downwards from a bottom of the panel , and bottom supports disposed at lower ends of the web plates, the web plates comprising two side-web plates at both sides of the panel and middle web plates in the middle; and foot plates disposed at both exterior sides of a bottom of the base plate unit body and formed by extending bottoms of respective outmost side-web plates of the base plate unit body outwards horizontally; wherein the bottom supports are planar supports that are connected to both foot plates to form an integral structure, wherein lower ends of the middle web plates are connected to the planar supports , and wherein a width F of the panel of each bearing part is 50 to 450 mm and a thickness G of the foot plate is 3 to 7 mm, characterized in that a thickness A of the panel is 3 to 8 mm, a thickness B of each of the side-web plates and the middle web plates is 4 to 7 mm and a width E of the foot plate is 15 to 40 mm, wherein the base plate unit body comprises a plurality of bearing parts arranged transversally at intervals, and bottom ends of the side-web plates of adjacent bearing parts are connected integrally by a bottom connecting plate , which together with the side-web plates of adjacent bearing parts enclose a groove that is filled by a groove fixing member.
A method of preparing a complex of lithium titanium oxide having a spinel structure and carbon nanotube, comprising: (a) a step in preparing a dispersion by dispersing powder of the complex of titanium oxide and carbon nanotube in distilled water; by treatment of ultrasonic waves; (b) a step in preparing the mixed solution by mixing the dispersion with a lithium salt; (c) a step in synthesizing the complex of lithium titanium oxide and carbon nanotube by applying microwave to the mixed solution, wherein the titanium oxide is formed on the surface of the carbon nanotube, (d) a step in heat-treating the complex of lithium titanium oxide and carbon nanotube in an argon atmosphere including hydrogen at 500 to 900°C, and (e) a step in cleaning and drying the complex of lithium titanium oxide and carbon nanotube. (a) a step in preparing a dispersion by dispersing powder of the complex of titanium oxide and carbon nanotube in distilled water; by treatment of ultrasonic waves; (b) a step in preparing the mixed solution by mixing the dispersion with a lithium salt; (c) a step in synthesizing the complex of lithium titanium oxide and carbon nanotube by applying microwave to the mixed solution, wherein the titanium oxide is formed on the surface of the carbon nanotube, (d) a step in heat-treating the complex of lithium titanium oxide and carbon nanotube in an argon atmosphere including hydrogen at 500 to 900°C, and (e) a step in cleaning and drying the complex of lithium titanium oxide and carbon nanotube.
A copolymer comprising a monomer unit A, a monomer unit B, and a monomer unit C that are represented by general formula (I) shown below, wherein a mole fraction of the monomer unit C based on all monomer units that constitute the copolymer is 0.5 to 40%: wherein R A represents a functional group having an amide bond, R B represents an alkyl or an alkenyl having 2 to 20 carbon atoms, Rc represents an alkyl or an alkenyl in which an arbitrary hydrogen atom is substituted with at least one functional group selected from the group consisting of an amino group which is capable of forming an amide bond with a carboxy qroup, an azido group, an imino group, a carboxy group, an acid chloride group, an acid anhydride group, an aldehyde group, a phosphoric acid group, a thiol group, an isocyanate group, a thioisocyanate group, an epoxy group, a halogenated alkyl group, a cyano group, a vinyl group, an ethynyl group, a nitro group and a nitroso group, and ionized functional groups thereof (wherein an arbitrary carbon atom in the alkyl or the alkenyl of Rc is optionally substituted with a nitrogen atom, an oxygen atom, or a sulfur atom), and X 1 , X 2 , and X 3 each represent a hydrogen atom or a methyl group. wherein a mole fraction of the monomer unit C based on all monomer units that constitute the copolymer is 0.5 to 40%: wherein R A represents a functional group having an amide bond, R B represents an alkyl or an alkenyl having 2 to 20 carbon atoms, Rc represents an alkyl or an alkenyl in which an arbitrary hydrogen atom is substituted with at least one functional group selected from the group consisting of an amino group which is capable of forming an amide bond with a carboxy qroup, an azido group, an imino group, a carboxy group, an acid chloride group, an acid anhydride group, an aldehyde group, a phosphoric acid group, a thiol group, an isocyanate group, a thioisocyanate group, an epoxy group, a halogenated alkyl group, a cyano group, a vinyl group, an ethynyl group, a nitro group and a nitroso group, and ionized functional groups thereof (wherein an arbitrary carbon atom in the alkyl or the alkenyl of Rc is optionally substituted with a nitrogen atom, an oxygen atom, or a sulfur atom), and X 1 , X 2 , and X 3 each represent a hydrogen atom or a methyl group.
A method for manufacturing a rotor blade panel, the method comprising: placing a mold of the rotor blade panel relative to a computer numeric control (CNC) device ; forming one or more fiber-reinforced outer skins in the mold ; and, printing and depositing, via the CNC device , a plurality of rib members that form at least one three-dimensional (3-D) reinforcement grid structure onto an inner surface of the one or more fiber-reinforced outer skins before the one or more fiber-reinforced outer skins have cooled from forming, the grid structure bonding to the one or more fiber-reinforced outer skins as the grid structure is being deposited, wherein the plurality of rib members comprise, at least, a first rib member extending in a first direction and a second rib member extending in a different, second direction, at least one of the first rib member or the second rib member having a varying height along a length thereof. placing a mold of the rotor blade panel relative to a computer numeric control (CNC) device ; forming one or more fiber-reinforced outer skins in the mold ; and, printing and depositing, via the CNC device , a plurality of rib members that form at least one three-dimensional (3-D) reinforcement grid structure onto an inner surface of the one or more fiber-reinforced outer skins before the one or more fiber-reinforced outer skins have cooled from forming, the grid structure bonding to the one or more fiber-reinforced outer skins as the grid structure is being deposited, wherein the plurality of rib members comprise, at least, a first rib member extending in a first direction and a second rib member extending in a different, second direction, at least one of the first rib member or the second rib member having a varying height along a length thereof.
Connecting method for secure connecting of a Mobile Device System to a Network , comprising the following steps: - Sending a communication request from the Mobile Device System to a Network Operator requesting a communication to the Network , - Receiving the communication request at the Network Operator and extracting at least one specification information out of the communication request specifying the Mobile Device System , - Forwarding the communication request at the Network Operator via a private Access Point Network, APN, to a Cleaning Hub based on the specification information , wherein the Cleaning Hub is a position within the Internet, - Comparing the communication request at the Cleaning Hub to at least one communication policy , - Allowing or denying at the Cleaning Hub the communication of the Mobile Device System to the Network requested with the communication request based on the result of the comparison to the at least one communication policy . - Sending a communication request from the Mobile Device System to a Network Operator requesting a communication to the Network , - Receiving the communication request at the Network Operator and extracting at least one specification information out of the communication request specifying the Mobile Device System , - Forwarding the communication request at the Network Operator via a private Access Point Network, APN, to a Cleaning Hub based on the specification information , wherein the Cleaning Hub is a position within the Internet, - Comparing the communication request at the Cleaning Hub to at least one communication policy , - Allowing or denying at the Cleaning Hub the communication of the Mobile Device System to the Network requested with the communication request based on the result of the comparison to the at least one communication policy .
Pharmaceutical composition comprising: an aqueous solution of: a) maropitant citrate, the maropitant having the structural formula I: b) a pharmaceutically acceptable β-cyclodextrin, c) 7 - 18 mg/ml phenylmethanol. a) maropitant citrate, the maropitant having the structural formula I: b) a pharmaceutically acceptable β-cyclodextrin, c) 7 - 18 mg/ml phenylmethanol.
A method for determining a presence of at least one biological guest structure at a biological host structure the method comprising a light-sensitive system receiving light from the host structure hosting one or more optically active entities at at least one part of the host structure not hosting the at least one guest structure, wherein the optically active entities cause light emission from said at least one part, and the light-sensitive system outputting a signal based on the received light, and determining a light value based on the output signal, the light value indicating an amount of light from the host structure being incident on the light-sensitive system, and determining on the basis of the light value at least one of a quantity and a position of the at least one guest structure at the host structure. a light-sensitive system receiving light from the host structure hosting one or more optically active entities at at least one part of the host structure not hosting the at least one guest structure, wherein the optically active entities cause light emission from said at least one part, and the light-sensitive system outputting a signal based on the received light, and determining a light value based on the output signal, the light value indicating an amount of light from the host structure being incident on the light-sensitive system, and determining on the basis of the light value at least one of a quantity and a position of the at least one guest structure at the host structure.
A sensor mark comprising: a substrate having: a first deep ultra violet (DUV) absorbing layer comprising a first material which substantially absorbs DUV radiation; a first protecting layer comprising a second material; and wherein: the first DUV absorbing layer has a first through hole in it; the first protecting layer is positioned, in plan, in the first through hole characterized in that the first protecting layer in the first through hole has a patterned region comprising a plurality of through hole; ; and in that the second material is more noble than the first material. a substrate having: a first deep ultra violet (DUV) absorbing layer comprising a first material which substantially absorbs DUV radiation; a first protecting layer comprising a second material; and a first deep ultra violet (DUV) absorbing layer comprising a first material which substantially absorbs DUV radiation; a first protecting layer comprising a second material; and wherein: the first DUV absorbing layer has a first through hole in it; the first protecting layer is positioned, in plan, in the first through hole characterized in that the first protecting layer in the first through hole has a patterned region comprising a plurality of through hole; ; and in that the second material is more noble than the first material. the first DUV absorbing layer has a first through hole in it; the first protecting layer is positioned, in plan, in the first through hole characterized in that the first protecting layer in the first through hole has a patterned region comprising a plurality of through hole; ; and in that the second material is more noble than the first material.
Silencer system for a firearm, with a jacket tube mountable on the barrel of the firearm, in which jacket tube a first silencer with an axial through-hole for bullet passage is coaxially arranged, wherein the first silencer is arranged in the jacket tube under formation of an intermediate first annular space and comprises at its barrel-facing end an afflux cone penetrated by its through-hole and lying at an axial distance (d) from the barrel , in order to divert gases emerging divergently from the barrel into the annular space , which is provided with chicanes and a gas outlet downstream thereof, wherein the first silencer comprises a stack of deflection pots , which each have an afflux base that is conical towards the barrel and axially penetrated by the through-hole , wherein the afflux bases are provided with gas passages towards the respective next deflection pot .