mhurhangee/ep-ind-claims huggingface dataset:
An information processing device comprising: a first acquisition unit configured to acquire a sound signal outputted from a microphone; an acoustic feature detection unit configured to detect an acoustic feature based on the sound signal; an identification unit configured to identify first discomfort condition information corresponding to a first work type of work performed by a user, among one or more pieces of discomfort condition information specifying discomfort conditions using the acoustic feature and corresponding to one or more work types, based on work type information indicating the first work type; and an output judgment unit configured to judge whether first masking sound should be outputted or not based on the acoustic feature detected by the acoustic feature detection unit and the first discomfort condition information, characterized by a second acquisition unit configured to acquire application software information as information regarding application software activated in a terminal device used by a user; a work type detection unit configured to detect the first work type of work performed by the user based on the application software information. a first acquisition unit configured to acquire a sound signal outputted from a microphone; an acoustic feature detection unit configured to detect an acoustic feature based on the sound signal; an identification unit configured to identify first discomfort condition information corresponding to a first work type of work performed by a user, among one or more pieces of discomfort condition information specifying discomfort conditions using the acoustic feature and corresponding to one or more work types, based on work type information indicating the first work type; and an output judgment unit configured to judge whether first masking sound should be outputted or not based on the acoustic feature detected by the acoustic feature detection unit and the first discomfort condition information, characterized by a second acquisition unit configured to acquire application software information as information regarding application software activated in a terminal device used by a user; a work type detection unit configured to detect the first work type of work performed by the user based on the application software information.
A molded thermal insulation body comprising a thermal insulation layer made from one or more insulation materials and a cover layer, wherein the cover layer is formed by a polyurea obtained from a polyaddition polymerization reaction of an aromatic or aliphatic isocyanate and an OH group-free polyamine having a terminal amino group, wherein the cover layer is disposed on the thermal insulation layer or the molded thermal insulation body and wherein the cover layer surrounds the thermal insulation layer or the molded thermal insulation body on all sides, characterized in that the insulation material, as a single material or a blend, is selected from the group formed by pyrogenic silica, precipitated silica, open-cell mineral foams, aerogels, polyurethane aerogel, mineral fibers, fiber composites, hollow glass spheres, vermiculite.
Edible composition having a lipid continuous phase which is liquid at 25 °C and self-assembled structures; the composition comprising oil, phospholipids, caffeine and water, the phospholipids being present in the composition at a level between 0.01wt.% and 30 wt.%, wherein the oil comprises limonene and an essential oil, and wherein the essential oil is coffee oil.
A method for determining the prognosis of a prostate cancer in a subject diagnosed as having prostate cancer, comprising: (i) determining in a tissue sample from said subject, wherein said tissue sample comprises prostate cancer cells, the level of FOXA1 protein or nucleic acid, wherein the FOXA1 nucleic acid is optionally FOXA1 mRNA, (ii) determining the level of FOXC1 protein or nucleic acid in said tissue sample, wherein the FOXC1 nucleic acid is optionally FOXC1 mRNA, (iii) calculating the ratio of said FOXC1 protein or nucleic acid to said FOXA1 protein or nucleic acid; (iv) comparing said ratio to a comparable FOXC1:FOXA1 ratio in a reference population of samples comprising prostate cancer cells in which a prognostic outcome is associated with each of the reference population samples; and (v) identifying said subject as having a poor prognosis relative to the prognostic outcome when the FOXC1:FOXA1 ratio of the subject is equal to or greater than a FOXC1:FOXA1 cutoff ratio, and identifying said subject as having a good prognosis relative to the prognostic outcome when the FOXC1:FOXA1 ratio of the subject is less than the FOXC1:FOXA1 cutoff ratio, wherein the FOXC1:FOXA1 cutoff ratio corresponds to at least the 50 th percentile of FOXC1:FOXA1 ratios of the reference population. (i) determining in a tissue sample from said subject, wherein said tissue sample comprises prostate cancer cells, the level of FOXA1 protein or nucleic acid, wherein the FOXA1 nucleic acid is optionally FOXA1 mRNA, (ii) determining the level of FOXC1 protein or nucleic acid in said tissue sample, wherein the FOXC1 nucleic acid is optionally FOXC1 mRNA, (iii) calculating the ratio of said FOXC1 protein or nucleic acid to said FOXA1 protein or nucleic acid; (iv) comparing said ratio to a comparable FOXC1:FOXA1 ratio in a reference population of samples comprising prostate cancer cells in which a prognostic outcome is associated with each of the reference population samples; and (v) identifying said subject as having a poor prognosis relative to the prognostic outcome when the FOXC1:FOXA1 ratio of the subject is equal to or greater than a FOXC1:FOXA1 cutoff ratio, and identifying said subject as having a good prognosis relative to the prognostic outcome when the FOXC1:FOXA1 ratio of the subject is less than the FOXC1:FOXA1 cutoff ratio, wherein the FOXC1:FOXA1 cutoff ratio corresponds to at least the 50 th percentile of FOXC1:FOXA1 ratios of the reference population.
A method of laser drilling with modified laser energy distribution to reduce back-wall strike, the method comprising providing a substrate to be drilled proximate a back wall; the method being characterised by the following steps: generating laser light in a fiber laser having a feed fiber; coupling the laser light from the feed fiber of the fiber laser to a process fiber, wherein the laser light is coupled into a cladding (124, 126) of the process fiber such a way to modify the laser energy distribution to produce a laser beam output from the process fiber with a beam profile having a beam energy at a central region that is less than a beam energy at an outer region; and directing the modified laser beam from the process fiber to the substrate to be drilled until the modified laser beam forms a hole in the substrate. generating laser light in a fiber laser having a feed fiber; coupling the laser light from the feed fiber of the fiber laser to a process fiber, wherein the laser light is coupled into a cladding (124, 126) of the process fiber such a way to modify the laser energy distribution to produce a laser beam output from the process fiber with a beam profile having a beam energy at a central region that is less than a beam energy at an outer region; and directing the modified laser beam from the process fiber to the substrate to be drilled until the modified laser beam forms a hole in the substrate.
A bacteriophage particle comprising bacteriophage DNA for use in a method of therapy by selectively killing at least one target bacterial species or strain, comprising: a recombinant Type I CRISPR-Cas system comprising (i) a polynucleotide encoding a CRISPR array; and (ii) at least one polynucleotide encoding one or more Type I CRISPR polypeptides, where the Type I CRISPR polypeptides comprise Type I Cascade polypeptides and a polynucleotide encoding a Cas3 polypeptide or a Cas3' polypeptide and a Cas3" polypeptide, wherein the Type I CRISPR array comprised in the bacteriophage DNA comprises at least one spacer having substantial complementarity to a target DNA in the at least one target bacterial species or strain, and wherein the bacteriophage particle does not comprise phagemid DNA. a recombinant Type I CRISPR-Cas system comprising (i) a polynucleotide encoding a CRISPR array; and (ii) at least one polynucleotide encoding one or more Type I CRISPR polypeptides, where the Type I CRISPR polypeptides comprise Type I Cascade polypeptides and a polynucleotide encoding a Cas3 polypeptide or a Cas3' polypeptide and a Cas3" polypeptide, wherein the Type I CRISPR array comprised in the bacteriophage DNA comprises at least one spacer having substantial complementarity to a target DNA in the at least one target bacterial species or strain, and wherein the bacteriophage particle does not comprise phagemid DNA.
A variant of annexin V, said variant having added at the C-terminus of an annexin V (i) a cysteine residue, or (ii) a short peptide with flexible structure, wherein the short peptide has up to 25 amino acid residues of which 1-3 are cysteine residues and the other amino acid residues, if any, are glycine, alanine and/or serine residues. (i) a cysteine residue, or (ii) a short peptide with flexible structure, wherein the short peptide has up to 25 amino acid residues of which 1-3 are cysteine residues and the other amino acid residues, if any, are glycine, alanine and/or serine residues.
An edible oil-in-water emulsion comprising: • 15-80 wt.% of a continuous aqueous phase, said aqueous phase having a pH in the range of 3.0-5.0; • 20-85 wt.% of a dispersed oil phase comprising 80-100 vol.% of oil droplets having a diameter of less than 20 μm; wherein the emulsion has an elastic modulus G' at 20°C of 100-3500 Pa and contains 0.1-8% of finely ground pulse seed, calculated as dry matter by weight of aqueous phase, said finely ground pulse seed being obtained from pulse seed having the following composition, calculated on dry matter: - 30-60 wt.% of starch; - 1-40 wt.% of dietary fiber; - 0.5-12 wt.% of sugars; - 15-35 wt.% of protein; - 0.8-12 wt.% of oil; wherein starch, dietary fiber, sugars, protein and oil together make up 95-100 wt.% of the dry matter contained in the pulse seed; wherein the pulse seed contains starch and protein in a weight ratio of 2:3 to 3:1; wherein 60-100 wt.% of the of the protein comprised in the finely ground pulse seed is denatured; and wherein 50-100 wt.% of the starch comprised in the emulsion is gelatinized starch. • 15-80 wt.% of a continuous aqueous phase, said aqueous phase having a pH in the range of 3.0-5.0; • 20-85 wt.% of a dispersed oil phase comprising 80-100 vol.% of oil droplets having a diameter of less than 20 μm; - 30-60 wt.% of starch; - 1-40 wt.% of dietary fiber; - 0.5-12 wt.% of sugars; - 15-35 wt.% of protein; - 0.8-12 wt.% of oil;
A device for generating electricity by acceleration of and/or changes in orientation of the device, the device comprising first and second principle components (370, 380; 200), wherein: the first principle component (370, 380) is mounted relative to a housing for resilient deformation and to generate electricity when so deformed; the second principle component is rotationally mounted relative to the housing for rotation relative to the housing and the first principle component, the centre of mass of the second principle component being offset from its axis of rotation, wherein the first principle component extends through the axis of rotation of the second principle component and wherein the first and/or second principle component comprises one or more magnets (230, 370); wherein the or each magnet is arranged such that during at least part of the rotational path of the second principle component, at least one magnet on one of the first and second principle component interacts with the other of the first and second principle component, or a magnet thereon, to deform the first component and thereby generate electricity. the first principle component (370, 380) is mounted relative to a housing for resilient deformation and to generate electricity when so deformed; the second principle component is rotationally mounted relative to the housing for rotation relative to the housing and the first principle component, the centre of mass of the second principle component being offset from its axis of rotation, wherein the first principle component extends through the axis of rotation of the second principle component and wherein the first and/or second principle component comprises one or more magnets (230, 370); wherein the or each magnet is arranged such that during at least part of the rotational path of the second principle component, at least one magnet on one of the first and second principle component interacts with the other of the first and second principle component, or a magnet thereon, to deform the first component and thereby generate electricity.
A device for preventing microwave leakage for a microwave oven, comprising: - a cavity assembly formed with an opening portion through which heating energy generated in an energy generating means is supplied into a cooking chamber provided within the cavity assembly; - a cover (127, 129) provided on a side of the cavity assembly to cover the opening portion; - a choke member provided between the cavity assembly and the cover (127, 129) to prevent microwaves supplied into the cooking chamber from leaking through a gap between the cavity assembly and the cover (127, 129); the choke member comprises a blank portion formed in a shape and size corresponding to the opening portion and a choke portion extending downward from an inner peripheral portion of the blank portion; and - an insulator installed on the upper surface of the cavity assembly, the insulator comprising an opening portion corresponding to the opening portion of the cavity assembly and extension ribs extending downward along an inner peripheral portion of the opening portion; wherein the choke portion is inserted into the opening portion and positioned adjacent to the extension ribs. - a cavity assembly formed with an opening portion through which heating energy generated in an energy generating means is supplied into a cooking chamber provided within the cavity assembly; - a cover (127, 129) provided on a side of the cavity assembly to cover the opening portion; - a choke member provided between the cavity assembly and the cover (127, 129) to prevent microwaves supplied into the cooking chamber from leaking through a gap between the cavity assembly and the cover (127, 129); the choke member comprises a blank portion formed in a shape and size corresponding to the opening portion and a choke portion extending downward from an inner peripheral portion of the blank portion; and - an insulator installed on the upper surface of the cavity assembly, the insulator comprising an opening portion corresponding to the opening portion of the cavity assembly and extension ribs extending downward along an inner peripheral portion of the opening portion;
Device for chopping fruits, having a base part, which has a platform, which projects from a base bottom portion and is intended for at least one fruit, and a chopping part, which has at least one blade and can be moved in a guided manner in relation to the base part in such a manner that a fruit located on the platform is chopped by means of the blade, wherein the platform contains at least one slot, which extends from a top side of the platform towards the base bottom portion and into which the blade dips during the guided movement, and wherein the chopping part has a container portion, characterized in that the chopping part has a container portion having an elastically expandable container bottom portion, which can expand during the guided movement in order to transfer at least some of the chopped fruit into the container portion.
A lighting control system, comprising: at least one light unit including at least one sensor; a centralized or distributed controller arranged to control a lighting strategy of the at least one light unit; a connected device in communication with the controller; characterized in that the controller is arranged to: - receive status information from the connected device, wherein, using the status information, the controller is arranged to estimate an expected level of traffic directed toward the at least one light unit and - adjust the lighting strategy of the at least one light unit using the estimation of the expected level of traffic, wherein adjusting the lighting strategy includes adjusting a detection threshold of the at least one sensor. at least one light unit including at least one sensor; a centralized or distributed controller arranged to control a lighting strategy of the at least one light unit; a connected device in communication with the controller; - receive status information from the connected device, wherein, using the status information, the controller is arranged to estimate an expected level of traffic directed toward the at least one light unit and - adjust the lighting strategy of the at least one light unit using the estimation of the expected level of traffic, wherein adjusting the lighting strategy includes adjusting a detection threshold of the at least one sensor.
A vacuum chuck comprising: a base substrate (101, 201, 301) comprising a first peak to valley flatness, wherein the first peak to valley flatness comprises a peak to valley flatness across the base substrate of 5 microns or less; and at least one embossment structure (103, 203, 204, 305, 306, 307) comprising a polymer and being disposed above the base substrate (101, 201, 301), the at least one embossment structure (103, 203) extending to a height above portions of the vacuum chuck surrounding the at least one embossment structure (103, 203, 204, 305, 306, 307) to support a substrate upon the at least one embossment structure (103, 203, 204, 305, 306, 307) during vacuum chucking of the substrate; the height of the at least one embossment structure (103, 203, 204, 305, 306, 307) being such that a prime wafer clamped by the vacuum chuck against the at least one embossment structure (103, 203, 204, 305, 306, 307) has a second peak to valley flatness that is less than the first peak to valley flatness; and wherein the at least one embossment structure (103, 203, 204, 305, 306, 307) comprises a plurality of embossment structures that vary in shape and pattern over a plurality of different regions of a surface of the vacuum chuck, the plurality of different regions of the surface comprising at least one region in the immediate vicinity of at least one of a lift pin hole of the vacuum chuck and a gas seal of the vacuum chuck. a base substrate (101, 201, 301) comprising a first peak to valley flatness, wherein the first peak to valley flatness comprises a peak to valley flatness across the base substrate of 5 microns or less; and at least one embossment structure (103, 203, 204, 305, 306, 307) comprising a polymer and being disposed above the base substrate (101, 201, 301), the at least one embossment structure (103, 203) extending to a height above portions of the vacuum chuck surrounding the at least one embossment structure (103, 203, 204, 305, 306, 307) to support a substrate upon the at least one embossment structure (103, 203, 204, 305, 306, 307) during vacuum chucking of the substrate; the height of the at least one embossment structure (103, 203, 204, 305, 306, 307) being such that a prime wafer clamped by the vacuum chuck against the at least one embossment structure (103, 203, 204, 305, 306, 307) has a second peak to valley flatness that is less than the first peak to valley flatness; and wherein the at least one embossment structure (103, 203, 204, 305, 306, 307) comprises a plurality of embossment structures that vary in shape and pattern over a plurality of different regions of a surface of the vacuum chuck, the plurality of different regions of the surface comprising at least one region in the immediate vicinity of at least one of a lift pin hole of the vacuum chuck and a gas seal of the vacuum chuck.
Vehicle cab or vehicle seat comprising an upper part and a lower part which are vertically spring-mounted relative to one another by means of at least one height-adjustable scissor-action frame comprising two scissor arms (5, 6) which are pivotable about a common axis, and at least one air spring having a variable air volume, it being possible for movements of the scissor-action frame to be transmitted to a switching element, by means of a transmission element that is mechanically operatively connected to the scissor-action frame, in order to control the air volume of the air spring, characterised by a height-adjustment device for the scissor-action frame, comprising a manually actuable control lever element and a guide element that is mechanically operatively connected thereto, the switching element being able to be pivoted about a first axis of rotation and the transmission element being able to be pivoted about the first axis of rotation in the opposite direction to the switching element by means of the guide element, in order to change a neutral position of the switching element that is between two switches (9a, 9b) provided for controlling an air volume of the air spring.
An internal tower structure for a wind turbine generator, the internal tower structure comprising a plurality of superposed platforms on a support structure, the support structure comprising a plurality of support members in the form of substantially vertical support pillars, the internal tower structure being separate from a tower of a wind turbine generator, characterised in that the support structure connects the plurality of platforms such that the internal tower structure is capable of being supported at its upper end only and installable within a tower of a wind turbine generator as a single unit and in a single lifting operation, and wherein a lifting apparatus is mounted on the internal tower structure at an uppermost platform of the plurality of platforms, to enable components to be lifted to and from the platforms.
System for protecting wind turbines against atmospheric discharges, wind turbines wherein a tower is defined, a self-orienting nacelle, and a rotor with its corresponding blades, nacelle that houses the classic mechanisms of transmission and transformation of the rotor's kinetic energy into electric power, characterised in that it comprises within the nacelle a central control unit, provided with the complementary programming firmware, an electric field compensating device, connected thereto, an electric field sensor, an electromagnetic field sensor, an anemometer, a relative air humidity sensor and a temperature and atmospheric pressure sensor, the electric field compensating device being associated to both the nacelle, the tower, and the blades, in such a manner that between the rotor, which is associated to a conductive surface established on the surface of the blades, and the nacelle, a first pair or rings is established, of a conductive nature, concentric, the dielectric of which is air, while in the bottom zone of the nacelle, in correspondence with the tilting means thereof with the tower, a second pair of conductive rings is established, the dielectric of which is likewise air.