mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode active material comprising a secondary particle, the secondary particle comprising: a plurality of primary particles of a silicon-containing material; an electrically conductive material; and a chemically cross-linked water-insoluble polymer; characterised in that the chemically cross-linked water-insoluble polymer comprises at least one selected from polyvinyl alcohol, poly(acrylic acid), a poly(acrylic acid) substituted with an alkali cation or an ammonium ion, polyimide, polyamideimide, polyvinylidene fluoride, carboxymethyl cellulose, carboxymethyl cellulose sodium salt, carboxymethyl cellulose ammonium salt, methylcellulose, hydroxymethylcellulose, hydroxypropyl cellulose, ethyl cellulose, diacetyl cellulose, polytetrafluoroethylene, polyethylene, and polypropylene. a plurality of primary particles of a silicon-containing material; an electrically conductive material; and a chemically cross-linked water-insoluble polymer;
A composition, comprising: a polymer nanoparticle comprising a methoxy polyethylene glycol-block-polycaprolactone (mPEG- b -PCL) copolymer comprising a mPEG moiety of from 2,000 Da to 8,000 Da and a PCL moiety of from 7,000 Da to 13,000 Da; and a photosensitive compound encapsulated within the polymer nanoparticle, the photosensitive compound having a formula wherein R 1 , R 4 , R 5 , R 8 , R 9 , R 12 , R 13 and R 16 -R 32 are independently selected from hydrogen, halogen, NO 2 , cyano, amino, aminocarbonyl, aminosulfonyl, carboxyl, carboxyl ester, aliphatic, heteroaliphatic, aryl, aryloxy, arylthio, heteroaryl, heteroaryloxy or heteroarylthio, or any two adjacent R groups together form an aryl, heteroaryl, cycloalkyl or heterocycloalkyl ring; and M is silicon bis(trihexylsilyloxide), hydroxysilyl methyl succinate or dimethyl O,O'-silanediyl disuccinate. a polymer nanoparticle comprising a methoxy polyethylene glycol-block-polycaprolactone (mPEG- b -PCL) copolymer comprising a mPEG moiety of from 2,000 Da to 8,000 Da and a PCL moiety of from 7,000 Da to 13,000 Da; and a photosensitive compound encapsulated within the polymer nanoparticle, the photosensitive compound having a formula wherein R 1 , R 4 , R 5 , R 8 , R 9 , R 12 , R 13 and R 16 -R 32 are independently selected from hydrogen, halogen, NO 2 , cyano, amino, aminocarbonyl, aminosulfonyl, carboxyl, carboxyl ester, aliphatic, heteroaliphatic, aryl, aryloxy, arylthio, heteroaryl, heteroaryloxy or heteroarylthio, or any two adjacent R groups together form an aryl, heteroaryl, cycloalkyl or heterocycloalkyl ring; and M is silicon bis(trihexylsilyloxide), hydroxysilyl methyl succinate or dimethyl O,O'-silanediyl disuccinate.
A process of controlling the morphology of graphite in a process for the production of graphite, the process comprising: contacting at elevated temperature, an iron oxide catalyst with a hydrocarbon gas to catalytically convert at least a portion of the hydrocarbon gas to hydrogen and carbon; wherein the temperature is between 600 °C and 1000 °C and a pressure between 1 bar(g) and 10 bar(g), and wherein both the temperature and the pressure are set within predetermined value ranges to selectively synthesise graphitic material selected from the group consisting of carbon nano-onions (CNOs), carbon micro-shells (CMSs) and/or graphene, and wherein the hydrocarbon gas is selected from methane and natural gas. wherein the temperature is between 600 °C and 1000 °C and a pressure between 1 bar(g) and 10 bar(g), and wherein both the temperature and the pressure are set within predetermined value ranges to selectively synthesise graphitic material selected from the group consisting of carbon nano-onions (CNOs), carbon micro-shells (CMSs) and/or graphene, and wherein the hydrocarbon gas is selected from methane and natural gas.
An elevator load bearing member , comprising: a unidirectional weave of a plurality of load bearing fibers including at least a first material and a second material, and a coating over the plurality of load bearing fibers ; wherein a melting point of the first material is higher than a melting point of the second material, or, where the first material is a material that cannot be melted and has a decomposition temperature, the decomposition temperature of the first material is higher than the melting point of the second material; wherein the plurality of load bearing fibers are bonded together by at least some of the second material that is at least partially melted; and wherein, in said unidirectional weave, the load bearing fibers are arranged as warp fibers extending in a length direction of the load bearing member and some weft fibers transverse to the single direction of the warp fibers, but such weft fibers are far fewer in number than the warp fibers and are not considered significant to the load bearing performance of the unidirectional weave; characterized in that the second material comprises at least one of ultrahigh molecular weight polyethylene and ultrahigh molecular weight polypropylene. a unidirectional weave of a plurality of load bearing fibers including at least a first material and a second material, and a coating over the plurality of load bearing fibers ; wherein a melting point of the first material is higher than a melting point of the second material, or, where the first material is a material that cannot be melted and has a decomposition temperature, the decomposition temperature of the first material is higher than the melting point of the second material; wherein the plurality of load bearing fibers are bonded together by at least some of the second material that is at least partially melted; and wherein, in said unidirectional weave, the load bearing fibers are arranged as warp fibers extending in a length direction of the load bearing member and some weft fibers transverse to the single direction of the warp fibers, but such weft fibers are far fewer in number than the warp fibers and are not considered significant to the load bearing performance of the unidirectional weave; characterized in that the second material comprises at least one of ultrahigh molecular weight polyethylene and ultrahigh molecular weight polypropylene.
A method for the handling of coreless auger produced by an auger production machine from which the coreless auger emerges with a linear motion component and a rotational motion component, the method characterised by the steps of: guiding the rotating auger for linear movement away from the production machine towards a temporary storage facility that has a cylindrical receptacle rotatable about its own axis and a coaxial rotatable feed guide having an axial inlet for formed auger and an outwardly directed outlet for directing formed auger towards an inner periphery of the cylindrical receptacle ; and rotating the cylindrical receptacle and allowing the feed guide to rotate about the axis of its inlet that is roughly coincident with the axis of auger entering the axial inlet of the feed guide such that the outwardly directed outlet may move around the interior of the receptacle in a circular path to direct auger towards the inner periphery of the cylindrical receptacle and form a coil thereof, wherein the cylindrical receptacle is rotated at a speed selected to counteract the rotation of the auger about its own axis. guiding the rotating auger for linear movement away from the production machine towards a temporary storage facility that has a cylindrical receptacle rotatable about its own axis and a coaxial rotatable feed guide having an axial inlet for formed auger and an outwardly directed outlet for directing formed auger towards an inner periphery of the cylindrical receptacle ; and rotating the cylindrical receptacle and allowing the feed guide to rotate about the axis of its inlet that is roughly coincident with the axis of auger entering the axial inlet of the feed guide such that the outwardly directed outlet may move around the interior of the receptacle in a circular path to direct auger towards the inner periphery of the cylindrical receptacle and form a coil thereof, wherein the cylindrical receptacle is rotated at a speed selected to counteract the rotation of the auger about its own axis.
A cleaning apparatus comprising: a cleaning unit which comprises a power consumption unit comprising a suction force generating device for generating a suction force; and a stick unit being configured to be coupled to the cleaning unit and which allows moving the cleaning unit in a state of being gripped by a user, wherein the cleaning unit comprises a first coupling portion , and wherein the stick unit comprises: a second coupling portion being configured to be separably coupled with the first coupling portion ; an operation portion being configured to be operable to separate the second coupling portion from the first coupling portion ; and a power transfer portion for transferring an operation force of the operation portion to the second coupling portion . a cleaning unit which comprises a power consumption unit comprising a suction force generating device for generating a suction force; and a stick unit being configured to be coupled to the cleaning unit and which allows moving the cleaning unit in a state of being gripped by a user, wherein the cleaning unit comprises a first coupling portion , and wherein the stick unit comprises: a second coupling portion being configured to be separably coupled with the first coupling portion ; an operation portion being configured to be operable to separate the second coupling portion from the first coupling portion ; and a power transfer portion for transferring an operation force of the operation portion to the second coupling portion . a second coupling portion being configured to be separably coupled with the first coupling portion ; an operation portion being configured to be operable to separate the second coupling portion from the first coupling portion ; and a power transfer portion for transferring an operation force of the operation portion to the second coupling portion .
A tape cutting processing apparatus configured to perform cutting processing so that a leading end of a cover tape of a component wrapping tape protrudes by a predetermined protruding length from a leading end of a carrier tape of the component wrapping tape , the component wrapping tape being capable of being wound around a tape reel mounted on a tape feeder and the cover tape being adhered on an upper face side of the carrier tape provided with cavities accommodating components at fixed pitches, the apparatus comprising: a conveyance device configured to convey the component wrapping tape along a conveyance path ; a detection device configured to detect the presence or absence of the component accommodated in the cavity of the component wrapping tape conveyed along the conveyance path at a detection position (Ld) disposed on the conveyance path ; a cutting device configured to cut each cutting portion of the carrier tape and the cover tape at a cutting position (Lc) disposed on the conveyance path ; and a control device configured to control each operation of the conveyance device and the cutting device , characterized by a folding-back member configured to fold back the cover tape at a folding-back position so that adhesion surfaces of the cover tape face each other as the component wrapping tape is conveyed, wherein the control device is configured to control the conveyance device based on a detection signal from the detection device to position the carrier tape and the cover tape folded back by the folding-back member in a state of being overlapped on the cutting position (Lc), and to control the cutting device to cut the carrier tape and the cover tape at once. a conveyance device configured to convey the component wrapping tape along a conveyance path ; a detection device configured to detect the presence or absence of the component accommodated in the cavity of the component wrapping tape conveyed along the conveyance path at a detection position (Ld) disposed on the conveyance path ; a cutting device configured to cut each cutting portion of the carrier tape and the cover tape at a cutting position (Lc) disposed on the conveyance path ; and a control device configured to control each operation of the conveyance device and the cutting device , characterized by a folding-back member configured to fold back the cover tape at a folding-back position so that adhesion surfaces of the cover tape face each other as the component wrapping tape is conveyed, wherein the control device is configured to control the conveyance device based on a detection signal from the detection device to position the carrier tape and the cover tape folded back by the folding-back member in a state of being overlapped on the cutting position (Lc), and to control the cutting device to cut the carrier tape and the cover tape at once.
A method for transmitting feedback information by a user equipment in a wireless communication system, the method comprising: obtaining information on a predefined filter book; receiving, from a base station, information on a plurality of subbands, wherein the plurality of subbands is configured to be applied respectively with a plurality of filter indexes; estimating a channel for each of the plurality of subbands; obtaining the plurality of filter indexes corresponding respectively to the plurality of subbands, wherein each of the plurality of filter indexes is selected from the predefined filter book for maximizing a signal to leakage-and-noise ratio, SLNR, of a corresponding subband among the plurality of subbands; and transmitting, to the base station, the feedback information including the plurality of filter indexes and a plurality of filter quality information, FQI, values corresponding respectively to the plurality of filter indexes, wherein the SLNR is calculated based on following equation, and wherein a residual carrier frequency offset, CFO, [C i ] m , n is calculated based on following equation, where [C i ] is a M x N matrix, [C i ] m,n is an element of an n-th column in an m-th row in [Ci], ∈ i indicates a residual CFO of an i th UE, and N fft is an N-point FFT, SLNR i,k is an SLNR of the k-th subcarrier of the i-th user equipment, P i,k is a power of the k-th subcarrier of the i-th user equipment, F i,k is a filter of the k-th subcarrier of the i-th user equipment, and [ H i ] k is a channel of the k-th subcarrier of the i-th user equipment. obtaining information on a predefined filter book; receiving, from a base station, information on a plurality of subbands, wherein the plurality of subbands is configured to be applied respectively with a plurality of filter indexes; estimating a channel for each of the plurality of subbands; obtaining the plurality of filter indexes corresponding respectively to the plurality of subbands, wherein each of the plurality of filter indexes is selected from the predefined filter book for maximizing a signal to leakage-and-noise ratio, SLNR, of a corresponding subband among the plurality of subbands; and transmitting, to the base station, the feedback information including the plurality of filter indexes and a plurality of filter quality information, FQI, values corresponding respectively to the plurality of filter indexes, wherein the SLNR is calculated based on following equation, and wherein a residual carrier frequency offset, CFO, [C i ] m , n is calculated based on following equation, where [C i ] is a M x N matrix, [C i ] m,n is an element of an n-th column in an m-th row in [Ci], ∈ i indicates a residual CFO of an i th UE, and N fft is an N-point FFT, SLNR i,k is an SLNR of the k-th subcarrier of the i-th user equipment, P i,k is a power of the k-th subcarrier of the i-th user equipment, F i,k is a filter of the k-th subcarrier of the i-th user equipment, and [ H i ] k is a channel of the k-th subcarrier of the i-th user equipment.
A method for stimulating production of hydrocarbons from a sandstone formation, the method comprising the steps of: injecting a stimulation fluid into the sandstone formation, the stimulation fluid comprising a hydrofluoric acid generating precursor and an oxidizing agent, where one or both of the hydrofluoric acid generating precursor and the oxidizing agent comprise a degradable encapsulation; injecting an ammonium containing compound into the sandstone formation; injecting a nitrite containing compound into the sandstone formation; and maintaining the stimulation fluid, the ammonium containing compound, and the nitrite containing compound in the sandstone formation to: initiate reaction of the ammonium containing compound and the nitrite containing compound to generate heat and nitrogen gas, where upon generation of heat within the formation and degradation of the degradable encapsulation, the hydrofluoric acid generating precursor and the oxidizing agent react to form hydrofluoric acid in-situ; and dissolve silica and silicate minerals to stimulate the sandstone formation. injecting a stimulation fluid into the sandstone formation, the stimulation fluid comprising a hydrofluoric acid generating precursor and an oxidizing agent, where one or both of the hydrofluoric acid generating precursor and the oxidizing agent comprise a degradable encapsulation; injecting an ammonium containing compound into the sandstone formation; injecting a nitrite containing compound into the sandstone formation; and maintaining the stimulation fluid, the ammonium containing compound, and the nitrite containing compound in the sandstone formation to: initiate reaction of the ammonium containing compound and the nitrite containing compound to generate heat and nitrogen gas, where upon generation of heat within the formation and degradation of the degradable encapsulation, the hydrofluoric acid generating precursor and the oxidizing agent react to form hydrofluoric acid in-situ; and dissolve silica and silicate minerals to stimulate the sandstone formation. initiate reaction of the ammonium containing compound and the nitrite containing compound to generate heat and nitrogen gas, where upon generation of heat within the formation and degradation of the degradable encapsulation, the hydrofluoric acid generating precursor and the oxidizing agent react to form hydrofluoric acid in-situ; and dissolve silica and silicate minerals to stimulate the sandstone formation.
A sintered material containing: - at least 25% by weight of chromium oxide Cr 2 O 3 ;and - at least 0.5% and less than 9.5% by weight of silica SiO 2 ; and - at least 1% by weight of zirconium oxide, at least 30% by weight of said zirconium oxide ZrO 2 being stabilized in the cubic and/or quadratic form; and - more than 10%, by weight, of aluminum oxide Al 2 O 3 . - at least 25% by weight of chromium oxide Cr 2 O 3 ;and - at least 0.5% and less than 9.5% by weight of silica SiO 2 ; and - at least 1% by weight of zirconium oxide, at least 30% by weight of said zirconium oxide ZrO 2 being stabilized in the cubic and/or quadratic form; and - more than 10%, by weight, of aluminum oxide Al 2 O 3 .
An exhaust system for use with a spark- ignited gaseous fuel internal combustion engine , the system comprising: a turbocharger having a turbine in exhaust receiving communication with the engine and a compressor in charge air providing communication with the engine; a main exhaust gas line in exhaust gas receiving communication with the turbine; a three-way catalyst positioned within the main exhaust line, the three-way catalyst configured to oxidize carbon monoxide and reduce nitrogen oxides present in the exhaust gas flowing through the main exhaust gas line; an exhaust gas recirculation line in exhaust gas receiving communication with the main exhaust line and exhaust gas providing communication with air flow received by the compressor, the exhaust gas recirculation line being positioned downstream of the three-way catalyst; characterized in that the three-way catalyst is further configured to oxidize methane, and a nitrogen oxide reduction catalyst is positioned in the exhaust gas recirculation line. a turbocharger having a turbine in exhaust receiving communication with the engine and a compressor in charge air providing communication with the engine; a main exhaust gas line in exhaust gas receiving communication with the turbine; a three-way catalyst positioned within the main exhaust line, the three-way catalyst configured to oxidize carbon monoxide and reduce nitrogen oxides present in the exhaust gas flowing through the main exhaust gas line; an exhaust gas recirculation line in exhaust gas receiving communication with the main exhaust line and exhaust gas providing communication with air flow received by the compressor, the exhaust gas recirculation line being positioned downstream of the three-way catalyst; characterized in that the three-way catalyst is further configured to oxidize methane, and a nitrogen oxide reduction catalyst is positioned in the exhaust gas recirculation line.
A method for the manufacture of phosphoric acid of phosphate-containing ashes from waste incineration plants, the method at least comprising the recovery of calcium phosphate, characterized in that a) the ashes are reacted with phosphoric acid, b) the acid-insoluble part of the solids is separated, c) calcium phosphate-precipitate is recovered and separated by adding calcium oxide or calcium carbonate to the filtrate or supernatant, and at least partially the filtrate or the supernatant with the resulting phosphoric acid is returned and, in the first step, is used for solution of substances from the ash. a) the ashes are reacted with phosphoric acid, b) the acid-insoluble part of the solids is separated, c) calcium phosphate-precipitate is recovered and separated by adding calcium oxide or calcium carbonate to the filtrate or supernatant, and
Method of laser microdissection, in which a microscopic examination object (O) is processed by means of a laser beam using tuples of coordinate values which each specify positions of target points (P1, P2) on the examination object (O), at least in a first spatial direction (X) and a second spatial direction (Y) orthogonal to the first spatial direction, characterized in that positions of at least three reference points (R1, R2, R3) are determined in advance, in each case in the first and the second spatial direction (X, Y) and in a third spatial direction (Z) orthogonal to the first and the second spatial direction (X, Y), with the first and the second spatial direction (X, Y) being perpendicular to an objective axis of a laser microdissection system used in the method , in that the positions of the reference points (R1, R2, R3) are used to define a reference plane (R) which corresponds at least in part to a plane in which a surface of the examination object (O) is arranged, in that respective further coordinate values specifying an expected location (Z1, Z2) of the target points (P1, P2) on the examination object (O) in the third spatial direction are determined for the target points (P1, P2), in that the further coordinate values are determined on the basis of the defined reference plane (R), and in that a focal location of the laser beam for processing the examination object (O) is set depending on the determined further coordinate values.