mhurhangee/patent-ind-claim-en huggingface dataset:
A ply bonding adhesive composition for the manufacture of multi-ply paper tissue and multi-ply paper towel comprising: (a) water; (b) polyvinyl alcohol; and (c) nanofibrillated cellulose, wherein the adhesive comprises from 90-98.5% by weight of the composition water, from to 0.5% to 10% by weight of the composition polyvinyl alcohol and from 0.05% to 2.5% by weight of the composition nanofibrillated cellulose and wherein said nanofibrillated cellulose is characterized in that : (i) the nanofibrillated cellulose contains fibrils 4-20 nm wide and 500-2000 nm long, as measured according to the description; or (ii) the nanofibrillated cellulose exhibits a Characteristic Nanofiber Viscosity Reduction of at least 80% as the shear rate is increased from 5 sec -1 to 500 sec -1 , the viscosity being measured on a 1 wt% suspension of the nanofibrillated cellulose in water at room temperature, between 23°C and 29°C, as described in the description. (a) water; (b) polyvinyl alcohol; and (c) nanofibrillated cellulose,
A bacteriocin construct for use in treating an infection by Klebsiella pneumoniae or E. coli in a subject, wherein said bacteriocin construct is Klebicin CCL having SEQ ID NO: 2.
A method of controlling an electronic apparatus , the method comprising: performing a chat with a user of an other electronic apparatus; obtaining (S410) a name referring to the user of the other electronic apparatus in the chat with the user of the other electronic apparatus using an artificial intelligence, AI, model; and storing (S420) the obtained name referring to the user of the other electronic apparatus in association with contact information of the user of the other electronic apparatus based on the name referring to the user of the other electronic apparatus being obtained more than a predetermined number of times in a chat with the user of the other electronic apparatus; and wherein the obtaining (S410) further comprises obtaining the name referring to the user of the other electronic apparatus in a voice chat using the AI model while conducting the voice chat with the user of the other electronic apparatus. performing a chat with a user of an other electronic apparatus; obtaining (S410) a name referring to the user of the other electronic apparatus in the chat with the user of the other electronic apparatus using an artificial intelligence, AI, model; and storing (S420) the obtained name referring to the user of the other electronic apparatus in association with contact information of the user of the other electronic apparatus based on the name referring to the user of the other electronic apparatus being obtained more than a predetermined number of times in a chat with the user of the other electronic apparatus; and wherein the obtaining (S410) further comprises obtaining the name referring to the user of the other electronic apparatus in a voice chat using the AI model while conducting the voice chat with the user of the other electronic apparatus.
A wave field synthesis apparatus for driving an array of loudspeakers with drive signals, the apparatus comprising: - a listener pose identifying unit for identifying a pose of a listener , wherein the pose comprises a location and an orientation of a listener, - a sound reproduction unit for generating the drive signals, the sound reproduction unit comprising a sound field synthesizer for generating sound field drive signals for causing the array of loudspeakers to generate a sound field at at least one audio zone and a binaural renderer for generating binaural drive signals for causing the array of loudspeakers to generate specified sound pressures at at least two locations, and - an adaptation unit for adapting one or more parameters of the sound reproduction unit based on the identified pose of the listener; wherein the listener pose identifying unit comprises an uncertainty determining unit for determining an uncertainty level, wherein the uncertainty level comprises a location uncertainty level, which reflects an estimated uncertainty in an identified location, and/or an orientation uncertainty level, which reflects an estimated uncertainty in an identified orientation, and wherein the adaptation unit is configured to adapt a parameter of the sound reproduction unit based on the determined uncertainty level; wherein the adaptation unit is configured to adapt a parameter indicating a size of the audio zone based on the determined uncertainty level, wherein a higher uncertainty corresponds to a larger size; and wherein the adaptation unit is configured to adjust a weighting parameter, which indicates a weighting between the sound field drive signals and the binaural drive signals, based on the determined uncertainty level. - a listener pose identifying unit for identifying a pose of a listener , wherein the pose comprises a location and an orientation of a listener, - a sound reproduction unit for generating the drive signals, the sound reproduction unit comprising a sound field synthesizer for generating sound field drive signals for causing the array of loudspeakers to generate a sound field at at least one audio zone and a binaural renderer for generating binaural drive signals for causing the array of loudspeakers to generate specified sound pressures at at least two locations, and - an adaptation unit for adapting one or more parameters of the sound reproduction unit based on the identified pose of the listener;
An expandable, exothermic particulate gel-forming composition comprising: galvanic alloy particles blended with slush powder of a super absorbent polymer capable of swelling to at least 200 gms per gm of dry polymer when exposed to water; wherein the galvanic alloy particles consist of two metallic agents with different oxidation potentials; and wherein the gel-forming composition is configured to expand at least two fold (volume/volume) and configured to produce heat by an exothermic reaction for at least one hour when exposed to an aqueous activator solution comprising water and an electrolyte; wherein the galvanic alloy particles and the super absorbent polymer are configured to build a gellable particulate configured to limit the reaction potential of the galvanic alloy particles so that a controlled reaction takes place which ensues as moisture is transferred from the gellable particulate to the galvanic alloy particles, whereby the reaction liberates heat and hydrogen gas, and creates oxides of the galvanic alloy particles, whereby the heat is stored in the gellable particulate. galvanic alloy particles blended with slush powder of a super absorbent polymer capable of swelling to at least 200 gms per gm of dry polymer when exposed to water; wherein the galvanic alloy particles consist of two metallic agents with different oxidation potentials; and wherein the gel-forming composition is configured to expand at least two fold (volume/volume) and configured to produce heat by an exothermic reaction for at least one hour when exposed to an aqueous activator solution comprising water and an electrolyte; wherein the galvanic alloy particles and the super absorbent polymer are configured to build a gellable particulate configured to limit the reaction potential of the galvanic alloy particles so that a controlled reaction takes place which ensues as moisture is transferred from the gellable particulate to the galvanic alloy particles, whereby the reaction liberates heat and hydrogen gas, and creates oxides of the galvanic alloy particles, whereby the heat is stored in the gellable particulate.
A directional flow control device comprising: a housing extending along a longitudinal axis between an inlet end and a discharge end ; a flow deflector received in the housing , the flow deflector being rotatable in the housing about a rotation axis parallel to the longitudinal axis, the flow deflector having a flow channel therethrough, the flow channel having an intake bore at a front end of the flow deflector and a discharge bore at a rear end of the flow deflector , the intake bore being coaxial with the rotation axis , the discharge bore being offset from the rotation axis ; a shell receiving the housing , wherein the shell includes a cavity receiving the housing , the housing having a front housing and a rear housing , the rear housing being fixedly coupled to the shell , the front housing being axially movable in the cavity relative to the rear housing and the shell , the flow deflector being positioned between the front housing and the rear housing ; and a biasing spring configured to engage the front housing and an end wall of the shell to bias the front housing toward the rear housing , the biasing spring sealingly compressing the front housing against the flow deflector . a housing extending along a longitudinal axis between an inlet end and a discharge end ; a flow deflector received in the housing , the flow deflector being rotatable in the housing about a rotation axis parallel to the longitudinal axis, the flow deflector having a flow channel therethrough, the flow channel having an intake bore at a front end of the flow deflector and a discharge bore at a rear end of the flow deflector , the intake bore being coaxial with the rotation axis , the discharge bore being offset from the rotation axis ; a shell receiving the housing , wherein the shell includes a cavity receiving the housing , the housing having a front housing and a rear housing , the rear housing being fixedly coupled to the shell , the front housing being axially movable in the cavity relative to the rear housing and the shell , the flow deflector being positioned between the front housing and the rear housing ; and a biasing spring configured to engage the front housing and an end wall of the shell to bias the front housing toward the rear housing , the biasing spring sealingly compressing the front housing against the flow deflector .
A non-woven fiber pasting mat comprising: a plurality of fibers coated with a sizing composition, wherein the sizing composition is coated on the plurality of fibers by a process that includes applying an aqueous-based suspension or emulsion comprising one or more of a film former, a coupling agent, a lubricant and a surfactant, to the plurality of fibers; a binder composition applied onto the coated fibers; and one or more active compounds capable of reducing sulphation in a lead-acid battery, said active compounds being included in at least one of said sizing composition and said binder composition and comprising one or more of sulphosuccinate (di-octyl); polyvinylalcohol; colloidal silica; polyacrylamide; phosphonic acid; polyacrylic acid; phosphate ester; polycarboxylic acid; polymeric anionic compounds; hexamethylenediaminetetrakis-(methylenephosphonic acid); chitin; chitosan; inulin; polyaspartic acid; polysuccinimide; iminodisuccinate; maleic acid/acrylic acid copolymer; maleic acid/acrylamide copolymer; humic acid; calcium salt of polymers from naphtalenenesulphonic acid condensed with formaldehyde; sodium salt of condensed sulfonated naphtalene; perfluoroalkylsulfonic acid; and cellulose. a plurality of fibers coated with a sizing composition, wherein the sizing composition is coated on the plurality of fibers by a process that includes applying an aqueous-based suspension or emulsion comprising one or more of a film former, a coupling agent, a lubricant and a surfactant, to the plurality of fibers; a binder composition applied onto the coated fibers; and one or more active compounds capable of reducing sulphation in a lead-acid battery, said active compounds being included in at least one of said sizing composition and said binder composition and comprising one or more of sulphosuccinate (di-octyl); polyvinylalcohol; colloidal silica; polyacrylamide; phosphonic acid; polyacrylic acid; phosphate ester; polycarboxylic acid; polymeric anionic compounds; hexamethylenediaminetetrakis-(methylenephosphonic acid); chitin; chitosan; inulin; polyaspartic acid; polysuccinimide; iminodisuccinate; maleic acid/acrylic acid copolymer; maleic acid/acrylamide copolymer; humic acid; calcium salt of polymers from naphtalenenesulphonic acid condensed with formaldehyde; sodium salt of condensed sulfonated naphtalene; perfluoroalkylsulfonic acid; and cellulose.
A retroreflective material comprising: a fixing resin layer; transparent microspheres embedded in the fixing resin layer; and a reflective layer provided between the transparent microspheres and the fixing resin layer, the reflective layer being formed of a metal, the transparent microspheres having a refractive index of 1.8 to 2.2, and the transparent microspheres being exposed in air with an exposure ratio of 53 to 70%, wherein the retroreflective material has retroreflective performance of 100 cd/lx/m 2 or more for incident light with an incident angle of 60°, as measured at an observation angle of 0.2° in accordance with a method defined in JIS Z9117 . a fixing resin layer; transparent microspheres embedded in the fixing resin layer; and a reflective layer provided between the transparent microspheres and the fixing resin layer, the reflective layer being formed of a metal, the transparent microspheres having a refractive index of 1.8 to 2.2, and the transparent microspheres being exposed in air with an exposure ratio of 53 to 70%, wherein the retroreflective material has retroreflective performance of 100 cd/lx/m 2 or more for incident light with an incident angle of 60°, as measured at an observation angle of 0.2° in accordance with a method defined in JIS Z9117 .
An illumination unit , comprising: a light source section including a plurality types of light sources configured to emit light with various different wavelengths; and an optical-path conversion member configured to convert incoming light coming from the plurality types of light sources to outgoing light by modifying an optical path of the incoming light such that an angle formed between center rays in the outgoing light becomes much smaller than an angle being formed between center rays in the incoming light, wherein a far field pattern, FFP, in the light emitted from the plurality types of light sources is in an in-plane anisotropic shape, a long-axis direction of the FFP is the same between the plurality types of light sources ; the light emitted from the plurality types of light sources is linearly polarized in two different directions, each light source having either a first polarizing direction parallel to the short-axis direction of the FFP or a second polarizing direction parallel to the long-axis direction of the FFP, and a retardation film is provided behind the optical-path conversion member in a path of the outgoing light, which retardation film is configured to change one of the first and second polarizing directions to the respective other polarizing direction, while not changing this other polarizing direction. a light source section including a plurality types of light sources configured to emit light with various different wavelengths; and an optical-path conversion member configured to convert incoming light coming from the plurality types of light sources to outgoing light by modifying an optical path of the incoming light such that an angle formed between center rays in the outgoing light becomes much smaller than an angle being formed between center rays in the incoming light, wherein a far field pattern, FFP, in the light emitted from the plurality types of light sources is in an in-plane anisotropic shape, a long-axis direction of the FFP is the same between the plurality types of light sources ; the light emitted from the plurality types of light sources is linearly polarized in two different directions, each light source having either a first polarizing direction parallel to the short-axis direction of the FFP or a second polarizing direction parallel to the long-axis direction of the FFP, and a retardation film is provided behind the optical-path conversion member in a path of the outgoing light, which retardation film is configured to change one of the first and second polarizing directions to the respective other polarizing direction, while not changing this other polarizing direction.
A method of preventing a rollback of a wheel excavator, the wheel excavator including a driving motor and a transmission, the method comprising: detecting (ST210, ST220; ST410, ST420) a driving direction of the wheel excavator on a slope; comparing (ST230, ST260; ST430, ST460) the driving direction of the wheel excavator with a desired driving direction of a driver for the wheel excavator; and selectively generating (ST250, ST260; ST450, ST460) a hydraulic brake force using the driving motor of the wheel excavator in accordance with comparison results; and characterized by : converting (ST240; ST440) the wheel excavator into a normal drive when the driving direction of the wheel excavator is coincided with the desired driving direction after the generating a hydraulic brake force, wherein generating (ST250; ST450) the hydraulic brake force comprises maximumly setting an oil discharge amount of the driving motor when the driving direction of the wheel excavator is not coincided with the desired driving direction. detecting (ST210, ST220; ST410, ST420) a driving direction of the wheel excavator on a slope; comparing (ST230, ST260; ST430, ST460) the driving direction of the wheel excavator with a desired driving direction of a driver for the wheel excavator; and selectively generating (ST250, ST260; ST450, ST460) a hydraulic brake force using the driving motor of the wheel excavator in accordance with comparison results; and characterized by : converting (ST240; ST440) the wheel excavator into a normal drive when the driving direction of the wheel excavator is coincided with the desired driving direction after the generating a hydraulic brake force, wherein generating (ST250; ST450) the hydraulic brake force comprises maximumly setting an oil discharge amount of the driving motor when the driving direction of the wheel excavator is not coincided with the desired driving direction. converting (ST240; ST440) the wheel excavator into a normal drive when the driving direction of the wheel excavator is coincided with the desired driving direction after the generating a hydraulic brake force, wherein generating (ST250; ST450) the hydraulic brake force comprises maximumly setting an oil discharge amount of the driving motor when the driving direction of the wheel excavator is not coincided with the desired driving direction.
A metallocene catalyst compound represented by Chemical Formula 2 below: in Chemical Formula 2, R 1 to R 5 are each independently at least one selected from the group consisting of hydrogen, a C1-C10 alkyl group, an aryl group, and a C1-C10-alkyl-group-substituted silicon (Si); R 6 to R 15 are each independently at least one selected from the group consisting of hydrogen, halogen, and a C1-C10 alkyl group; R 16 is absent or is selected from the group consisting of hydrogen, a C1-C10 alkyl group, a C1-C10-alkyl-group-substituted silicon (Si), and a hetero atom; M is titanium (Ti), zirconium (Zr) or hafnium (Hf); and X is halogen, a C1-C10 hydrocarbon group, or a hetero atom including a C1-C10 hydrocarbon. in Chemical Formula 2, R 1 to R 5 are each independently at least one selected from the group consisting of hydrogen, a C1-C10 alkyl group, an aryl group, and a C1-C10-alkyl-group-substituted silicon (Si); R 6 to R 15 are each independently at least one selected from the group consisting of hydrogen, halogen, and a C1-C10 alkyl group; R 16 is absent or is selected from the group consisting of hydrogen, a C1-C10 alkyl group, a C1-C10-alkyl-group-substituted silicon (Si), and a hetero atom; M is titanium (Ti), zirconium (Zr) or hafnium (Hf); and X is halogen, a C1-C10 hydrocarbon group, or a hetero atom including a C1-C10 hydrocarbon.
An abradable coated part of a compressor, comprising: a substrate ; and a multilayer abradable coating on the substrate , wherein the multilayer abradable coating comprises: at least one first abradable layer ; and at least one second abradable layer , wherein the first abradable layer and the second abradable layer have different properties related to erosion resistance; characterised in that : the first abradable layer has higher erosion resistance than the second abradable layer against impacts at a high angle of incidence, and the second abradable layer has higher erosion resistance than the first abradable layer against impacts at a low angle of incidence. a substrate ; and a multilayer abradable coating on the substrate , wherein the multilayer abradable coating comprises: at least one first abradable layer ; and at least one second abradable layer , wherein the first abradable layer and the second abradable layer have different properties related to erosion resistance; characterised in that : the first abradable layer has higher erosion resistance than the second abradable layer against impacts at a high angle of incidence, and the second abradable layer has higher erosion resistance than the first abradable layer against impacts at a low angle of incidence. at least one first abradable layer ; and at least one second abradable layer , wherein the first abradable layer and the second abradable layer have different properties related to erosion resistance; characterised in that : the first abradable layer has higher erosion resistance than the second abradable layer against impacts at a high angle of incidence, and the second abradable layer has higher erosion resistance than the first abradable layer against impacts at a low angle of incidence.
Casing for the nacelle of a wind turbine comprising multiple interconnectable casing parts , the interconnectable casing parts being attachable as a self-supporting casing to one or more supporting parts of the nacelle, each casing part comprising a wall element having incorporated therein at least one strut extending from a first edge of the wall element to a second edge of the wall element, which has at each of its ends a connecting shoe for connection to a connecting shoe of an adjacent casing part , the connecting shoe having an anchoring element which has at least two anchor plates which project into the strut and are incorporated and/or laminated into the strut .
A CLPTM1L-targeting agent, wherein the CLPTM1L-targeting agent is a monoclonal antibody that binds specifically to a peptide having an amino acid sequence of SEQ ID NO:6 or SEQ ID NO:10.