mhurhangee/patent-ind-claim-en huggingface dataset:
Box (100; 100') for transporting and/or storing small parts, tools, machines or other articles , the box (100; 100') comprising a body with a base and side walls (140, 140.1, 140.2, 140.3) surrounding the base , the box also comprising a lid connected to the body and a receiving space which is formed by the body and the lid and in which at least one storage container for small parts, tools, machines or other articles is received, the receiving space having a surface portion which, with one side, faces the storage container and has a grid formed by a multiplicity of elevations , wherein the storage container is arranged on the surface portion in a position secured against lateral displacement using at least one, preferably a plurality, of the elevations , and wherein the surface portion is formed on an insert part which is inserted into the receiving space and which, with a front side , faces the storage container , characterized in that the insert part is supported with its rear side against further storage containers (40, 40.1, 40.2, 40.3) which, so as to form a first layer , are supported in a manner positioned against a further insert part which is provided with elevations arranged in a grid-like manner, such that the at least one storage container positioned on the insert part forms a second layer .
A dye composition for hair dyeing comprising, as a main component, an azo dye having trimethylammonio, wherein the result of the Ames test is negative, wherein the content of the compound contained in the dye composition for hair dyeing and represented by the following formula (III) is 0.3 wt.% or less, and wherein the azo dye having trimethylammonio is Basic Brown 16 represented by the following structural formula (I): and wherein the Ames test is conducted by the method indicated in the description,
A method , comprising: for each of a plurality of compute resources: analyzing network data packets received by the compute resource from a plurality of network addresses based on a classification model to determine a subset of the plurality of network addresses that are non-malicious; grouping the plurality of compute resources into clusters based on a first measure of similarity between the network addresses associated with their respective subsets; associating with each cluster a first set of network addresses that is obtained by combining the subsets associated with its compute resources; and outputting a tag that represents at least one of the first sets of network addresses, the tag being suitable for use in configuring a firewall application to allow access by the at least one of the first sets of network addresses to the plurality of compute resources. for each of a plurality of compute resources: analyzing network data packets received by the compute resource from a plurality of network addresses based on a classification model to determine a subset of the plurality of network addresses that are non-malicious; grouping the plurality of compute resources into clusters based on a first measure of similarity between the network addresses associated with their respective subsets; associating with each cluster a first set of network addresses that is obtained by combining the subsets associated with its compute resources; and outputting a tag that represents at least one of the first sets of network addresses, the tag being suitable for use in configuring a firewall application to allow access by the at least one of the first sets of network addresses to the plurality of compute resources.
A method for producing a porous adsorbent structure that is capable of a reversible adsorption and desorption cycle for capturing CO 2 from a gas mixture, said structure comprising a support matrix of surface modified cellulose nanofibers, said surface modified cellulose nanofibers consisting of cellulose nanofibers having a diameter of 4 nm to 1000 nm and a length of 100 nm to 1 mm covered with a coupling agent being covalently bound to the surface thereof, wherein i) said support matrix is a web of nanofibers with a porosity of at least 20%, and ii) said coupling agent comprises at least one monoalkyldialkoxyaminosilane, the method comprising the steps of: a) providing a first amount of a homogenized suspension of cellulose nanofibers having a diameter of 4 nm to 1000 nm and a length of 100 nm to 1 mm in a solvent; b) adding thereto a second amount of a coupling agent comprising at least one monoalkyldialkoxyaminosilane, thereby allowing formation of a homogeneous suspension of surface modified cellulose nanofibers in said solvent; c) mechanically concentrating said suspension through centrifugation, filtration or pressing, thereby obtaining a wet slurry; d) optionally washing said wet slurry with said solvent; e) removing said solvent by a drying operation, said drying operation being selected from freeze drying, atmospheric freeze drying or a combination thereof, preferably freeze drying, thereby obtaining a dried material; and f) subjecting said dried material to a heating process in an inert atmosphere, thereby obtaining said porous adsorbent structure. i) said support matrix is a web of nanofibers with a porosity of at least 20%, and ii) said coupling agent comprises at least one monoalkyldialkoxyaminosilane, a) providing a first amount of a homogenized suspension of cellulose nanofibers having a diameter of 4 nm to 1000 nm and a length of 100 nm to 1 mm in a solvent; b) adding thereto a second amount of a coupling agent comprising at least one monoalkyldialkoxyaminosilane, thereby allowing formation of a homogeneous suspension of surface modified cellulose nanofibers in said solvent; c) mechanically concentrating said suspension through centrifugation, filtration or pressing, thereby obtaining a wet slurry; d) optionally washing said wet slurry with said solvent; e) removing said solvent by a drying operation, said drying operation being selected from freeze drying, atmospheric freeze drying or a combination thereof, preferably freeze drying, thereby obtaining a dried material; and f) subjecting said dried material to a heating process in an inert atmosphere, thereby obtaining said porous adsorbent structure.
A method for estimating state information for a movable object using multiple sensors during operation of the movable object , the method comprising: receiving, at one or more processors, previous state information for the movable object ,; selecting, at the one or more processors, an amount of the previous state information using a sliding window filter of a predetermined size, wherein the predetermined size of the sliding window is such that data from multiple previous time points is selected; receiving, at the one or more processors, inertial data from at least one inertial sensor carried by the movable object , the inertial data comprising inertial measurement data obtained by the at least one inertial sensor over at least two different time points during the operation of the movable object ; receiving, at the one or more processors, image data from at least two image sensors carried by the movable object , the image data comprising images obtained by each image sensor of the at least two image sensors over at least two different time points during the operation of the movable object ; and determining, with aid of the one or more processors, updated state information for the movable object based on the selected previous state information, the inertial data, and the image data using an iterative optimization algorithm during the operation of the movable object . receiving, at one or more processors, previous state information for the movable object ,; selecting, at the one or more processors, an amount of the previous state information using a sliding window filter of a predetermined size, wherein the predetermined size of the sliding window is such that data from multiple previous time points is selected; receiving, at the one or more processors, inertial data from at least one inertial sensor carried by the movable object , the inertial data comprising inertial measurement data obtained by the at least one inertial sensor over at least two different time points during the operation of the movable object ; receiving, at the one or more processors, image data from at least two image sensors carried by the movable object , the image data comprising images obtained by each image sensor of the at least two image sensors over at least two different time points during the operation of the movable object ; and determining, with aid of the one or more processors, updated state information for the movable object based on the selected previous state information, the inertial data, and the image data using an iterative optimization algorithm during the operation of the movable object .
A method for preparing a conjugated polymer, comprising providing at least one first monomer comprising a 3,4-dioxythiophene, 3,4-dioxyselenophene, 3,4-dioxytellurophene 3,4-dioxyfuran, or 3,4-dioxypyrrole; optionally providing at least one second monomer comprising a conjugated unit; providing a Pd or Ni comprising catalyst; providing an aprotic solvent; providing a carboxylic acid; combining the first monomer, second monomer, catalyst, solvent and carboxylic acid as a polymerization mixture; and heating the polymerization mixture in excess of 120 °C, wherein at least one of the first monomers or second monomers is substituted with hydrogen reactive functionalities and at least one of the first or second monomers is substituted with non-hydrogen reactive functionalities, wherein the non-hydrogen reactive functionalities are Cl, Br, I, OTs, OTf, CN, OCN, SCN, wherein the polymerization mixture is free of a phosphine ligand, and wherein the ratio of the hydrogen reactive functionalities and the non-hydrogen reactive functionalities permits a degree of polymerization in excess of four. providing at least one first monomer comprising a 3,4-dioxythiophene, 3,4-dioxyselenophene, 3,4-dioxytellurophene 3,4-dioxyfuran, or 3,4-dioxypyrrole; optionally providing at least one second monomer comprising a conjugated unit; providing a Pd or Ni comprising catalyst; providing an aprotic solvent; providing a carboxylic acid; combining the first monomer, second monomer, catalyst, solvent and carboxylic acid as a polymerization mixture; and heating the polymerization mixture in excess of 120 °C, wherein at least one of the first monomers or second monomers is substituted with hydrogen reactive functionalities and at least one of the first or second monomers is substituted with non-hydrogen reactive functionalities, wherein the non-hydrogen reactive functionalities are Cl, Br, I, OTs, OTf, CN, OCN, SCN, wherein the polymerization mixture is free of a phosphine ligand, and wherein the ratio of the hydrogen reactive functionalities and the non-hydrogen reactive functionalities permits a degree of polymerization in excess of four.
A hydrogenation process comprising: (a) passing a mixture comprising fluoroolefin and H 2 through a bed of palladium catalyst in a reaction zone wherein the palladium catalyst comprises finely divided zero valent palladium supported on an α-alumina carrier; and (b) producing a hydrofluoroalkane product; wherein the palladium concentration of the catalyst in the front of the bed is from 0.001 wt % to 0.2 wt % based on the total weight of the palladium and the carrier, and the palladium concentration of the catalyst in the back of the bed is from 0.1 wt % to 1 wt % based on the total weight of the palladium and the carrier; and wherein the palladium concentration of the catalyst in the front of the bed is lower than the palladium concentration of the catalyst in the back of the bed. (a) passing a mixture comprising fluoroolefin and H 2 through a bed of palladium catalyst in a reaction zone wherein the palladium catalyst comprises finely divided zero valent palladium supported on an α-alumina carrier; and (b) producing a hydrofluoroalkane product;
An electrostatic transducer comprising: an insulator sheet ; at least one electrode sheet , laminated on the insulator sheet , constituting one target region as a detection region or a driving region, formed of an elastomer containing conductive fillers, and including at least one terminal part ; and at least one bypass conductor , having an electrical resistivity smaller than an electrical resistivity of the electrode sheet , disposed in contact with the electrode sheet along a surface of a portion of the electrode sheet , and electrically connected to the electrode sheet in an area in contact with the electrode sheet , characterized in that the bypass conductor has meshes and is formed in a sheet shape, the electrode sheet is formed in an elongated shape, and an orientation direction of the meshes of the bypass conductor is inclined with respect to the longitudinal direction of the electrode sheet . an insulator sheet ; at least one electrode sheet , laminated on the insulator sheet , constituting one target region as a detection region or a driving region, formed of an elastomer containing conductive fillers, and including at least one terminal part ; and at least one bypass conductor , having an electrical resistivity smaller than an electrical resistivity of the electrode sheet , disposed in contact with the electrode sheet along a surface of a portion of the electrode sheet , and electrically connected to the electrode sheet in an area in contact with the electrode sheet , characterized in that the bypass conductor has meshes and is formed in a sheet shape, the electrode sheet is formed in an elongated shape, and an orientation direction of the meshes of the bypass conductor is inclined with respect to the longitudinal direction of the electrode sheet .
Flexible spacer for double/triple glazing, wherein the spacer is made of a butyl rubber being a copolymer of isobutylene with isoprene, with average molecular weight ranging from 300,000 to 600,000, with isoprene content ranging from 0.50% to 3.50% by weight, whereby the spacer is impermeable to moisture and has capacity of sealing noble gases, the spacer being loaded with both reinforcing and inert fillers, the spacer incorporating moisture absorbing material, each side wall of the said spacer featuring at least a wave positioned immediately above an accumulation area of internal or primary sealant so as to ensure adhesion to a glass of the double/triple glazing within which the spacer is intended to be fitted, characterized in that : - the said spacer features at least one recess on the back, with a configuration such as to allow the external sealant to penetrate and create a strong mechanical bond between the two materials, and - a sector of the spacer comprises a second compound made of a different elastomer chosen in the group of EPDM, SBR, BR, NR and VMQ, said different elastomer being co-vulcanised with butyl rubber and containing said moisture absorbing material in the form of desiccant salts, so as to allow the surface to absorb a greater amount of humidity from the double/triple glazing within this elastomer. - the said spacer features at least one recess on the back, with a configuration such as to allow the external sealant to penetrate and create a strong mechanical bond between the two materials, and - a sector of the spacer comprises a second compound made of a different elastomer chosen in the group of EPDM, SBR, BR, NR and VMQ, said different elastomer being co-vulcanised with butyl rubber and containing said moisture absorbing material in the form of desiccant salts, so as to allow the surface to absorb a greater amount of humidity from the double/triple glazing within this elastomer.
A two-part curable adhesive comprising: a first part comprising an epoxy resin and a first oligomeric toughener, and a second part comprising a curative that is reactive with the epoxy resin at ambient conditions and a second oligomeric toughener, wherein the first oligomeric toughener comprises either an epoxy-terminated butadiene-acrylonitrile oligomer or a polyetheramine-epoxy adduct, the second oligomeric toughener comprises polytetrahydrofuranamine, and wherein the first and second oligomeric tougheners are immiscible with each other at ambient conditions, and further wherein the two-part curable adhesive cures at ambient temperature when the first part and second part are mixed with each other. a first part comprising an epoxy resin and a first oligomeric toughener, and a second part comprising a curative that is reactive with the epoxy resin at ambient conditions and a second oligomeric toughener, wherein the first oligomeric toughener comprises either an epoxy-terminated butadiene-acrylonitrile oligomer or a polyetheramine-epoxy adduct, the second oligomeric toughener comprises polytetrahydrofuranamine, and wherein the first and second oligomeric tougheners are immiscible with each other at ambient conditions, and further wherein the two-part curable adhesive cures at ambient temperature when the first part and second part are mixed with each other.
A process for producing liquid hydrocarbon products from at least one of a biomass-containing feedstock and a biomass-derived feedstock, said process comprising the steps of: a) contacting the biomass-containing feedstock and/or biomass-derived feedstock with a hydropyrolysis catalyst composition and molecular hydrogen in a hydropyrolysis reactor vessel at a temperature in the range of from 350 to 600°C, a pressure in the range of from 0.50 to 7.50MPa and a WHSV in the range of from 2.0 to 6 kg(biomass)/hour/kg(catalyst), to produce a product stream comprising a partially deoxygenated hydrocarbon product, H 2 O, H 2 , CO 2 , CO, C 1 - C 3 gases, char and catalyst fines; b) removing all or a portion of said char and catalyst fines from said product stream; c) cooling the remaining product stream to a temperature in the range of from 150 to 400°C; and d) hydroconverting all or a portion of said partially deoxygenated hydrocarbon product in a hydroconversion reactor in the presence of one or more catalyst compositions suitable for hydrodeoxygenation and aromatic saturation of the partially deoxygenated hydrocarbon product in the presence of the H 2 O, CO 2 , CO, H 2 , and C 1 - C 3 gas generated in step a), to produce a vapour phase product comprising a C4+ hydrocarbon product, H 2 O, CO, CO 2 , and C 1 - C 3 gases; wherein the hydroconversion reactor is a fixed bed reactor; and the hydroconversion reactor contains a catalyst composition comprising one or more active metals selected from cobalt, molybdenum, nickel and tungsten supported on a metal oxide support and a catalyst composition comprising one or more active metals selected from ruthenium, rhodium, palladium, osmium, iridium and platinum supported on an oxide support. a) contacting the biomass-containing feedstock and/or biomass-derived feedstock with a hydropyrolysis catalyst composition and molecular hydrogen in a hydropyrolysis reactor vessel at a temperature in the range of from 350 to 600°C, a pressure in the range of from 0.50 to 7.50MPa and a WHSV in the range of from 2.0 to 6 kg(biomass)/hour/kg(catalyst), to produce a product stream comprising a partially deoxygenated hydrocarbon product, H 2 O, H 2 , CO 2 , CO, C 1 - C 3 gases, char and catalyst fines; b) removing all or a portion of said char and catalyst fines from said product stream; c) cooling the remaining product stream to a temperature in the range of from 150 to 400°C; and d) hydroconverting all or a portion of said partially deoxygenated hydrocarbon product in a hydroconversion reactor in the presence of one or more catalyst compositions suitable for hydrodeoxygenation and aromatic saturation of the partially deoxygenated hydrocarbon product in the presence of the H 2 O, CO 2 , CO, H 2 , and C 1 - C 3 gas generated in step a), to produce a vapour phase product comprising a C4+ hydrocarbon product, H 2 O, CO, CO 2 , and C 1 - C 3 gases; wherein
Variable-geometry horological display mechanism , including at least one elastic hand that includes a first drive barrel secured to a first end of a flexible blade , and a second drive barrel secured to another end of said flexible blade , and including a display index which, in a non-constrained free state of said elastic hand in which both said first barrel and said second barrel are not subjected to any stress and are distant from each other, is distant from said first barrel and from said second barrel , the service position of said elastic hand being a constrained position where said first barrel and said second barrel are coaxial with each other around an output axis (D), said display mechanism including first means for driving said first barrel about said output axis (D), and second means for driving said second barrel about said output axis (D), said first drive means and second drive means being arranged to deform said flexible blade , and varying the angular position of said second barrel with respect to the angular position of said first barrel around said output axis (D), and to vary the radial position of said display index with respect to said output axis (D), characterised in that said display mechanism includes a mechanism of the differential type including an input frame mounted so as to be free to rotate about said output axis (D), said input frame includes a first pivot and a second pivot carrying respectively an intermediate wheel and a satellite meshing with each other through their toothings (1039; 1019), said satellite including an eccentric finger that is arranged to travel a track of a fixed cam , and which is returned against said track by the elasticity of said elastic hand , said input frame including an input toothing , and a shaft that carries, coaxial along said output axis (D), a first cannon-pinion including said first barrel and a second cannon-pinion including said second barrel , the toothing of one of which meshes with the toothing of said intermediate wheel , and the toothing of the other one of which meshes with the toothing of said satellite .
Apparatus for generating a decorrelation signal using an input signal, comprising: a subband filterbank for providing a plurality of subband signals, wherein a subband signal includes a sequence of at least two subband samples, the sequence of the subband samples representing a bandwidth of the subband signal, which is smaller than a bandwidth of the input signal, wherein the input signal includes a block of a predetermined number of input samples, the number of subband samples in a subband signal is smaller than the number of input samples; a reverberation filter to obtain a plurality of reverberated subband signals from the plurality of subband signals, the filtering of the reverberation filter having an all-pass characteristic, the reverberation filter being operative to apply a fractional delay to each subband signal and being adapted to have different sets of filter coefficients for each subband signal, wherein the plurality of reverberated subband signals together represent the decorrelation signal; and a detector for detecting a transient at a location in the decorrelation signal, wherein the decorrelation signal is attenuated at the location. a subband filterbank for providing a plurality of subband signals, wherein a subband signal includes a sequence of at least two subband samples, the sequence of the subband samples representing a bandwidth of the subband signal, which is smaller than a bandwidth of the input signal, wherein the input signal includes a block of a predetermined number of input samples, the number of subband samples in a subband signal is smaller than the number of input samples; a reverberation filter to obtain a plurality of reverberated subband signals from the plurality of subband signals, the filtering of the reverberation filter having an all-pass characteristic, the reverberation filter being operative to apply a fractional delay to each subband signal and being adapted to have different sets of filter coefficients for each subband signal, wherein the plurality of reverberated subband signals together represent the decorrelation signal; and a detector for detecting a transient at a location in the decorrelation signal, wherein the decorrelation signal is attenuated at the location.