mhurhangee/patent-ind-claim-en huggingface dataset:
An elastomeric polymer, comprising: a hard segment in the amount of 10% to 60% by weight of the elastomeric polymer, wherein the hard segment includes a urethane, urea or urethaneurea; and a soft segment in the amount of 40% to 90% by weight of the elastomeric polymer, wherein the soft segment comprises: (a) at least 2% by weight of the soft segment of at least one polyether macrodiol and at least one polycarbonate macrodiol; and (b) 70% by weight to 90% by weight of the soft segment of at least one polyisobutylene macrodiol and/or diamine, wherein the number average molecular weight of the elastomeric polymer is not less than 40 kilodaltons, and wherein the at least one polyether macrodiol includes at least one member selected form the group consisting of poly(propylene oxide) diol, poly(trimethylene oxide) diol, poly(tetramethylene oxide) diol, poly(hexamethylene oxide) diol, poly(heptamethylene oxide) diol, poly(octamethylene oxide) diol and poly(decamethylene oxide) diol. a hard segment in the amount of 10% to 60% by weight of the elastomeric polymer, wherein the hard segment includes a urethane, urea or urethaneurea; and a soft segment in the amount of 40% to 90% by weight of the elastomeric polymer, (a) at least 2% by weight of the soft segment of at least one polyether macrodiol and at least one polycarbonate macrodiol; and (b) 70% by weight to 90% by weight of the soft segment of at least one polyisobutylene macrodiol and/or diamine, wherein the number average molecular weight of the elastomeric polymer is not less than 40 kilodaltons, and wherein the at least one polyether macrodiol includes at least one member selected form the group consisting of poly(propylene oxide) diol, poly(trimethylene oxide) diol, poly(tetramethylene oxide) diol, poly(hexamethylene oxide) diol, poly(heptamethylene oxide) diol, poly(octamethylene oxide) diol and poly(decamethylene oxide) diol.
A heat ray-shielding resin sheet material, characterized by containing a composite tungsten oxide particle expressed by a general formula M y WO z (wherein M is one or more kinds of element selected from Cs, Rb, K, Tl, In, Ba, Li, Ca, Sr, Fe, Sn, Al, and Cu, satisfying 0.1 ≤ y ≤ 0.5, 2.2 ≤ z ≤ 3.0) and having a hexagonal crystal structure, a selected wavelength absorbing material, a dispersant, an ultraviolet absorber, and a thermoplastic resin, wherein the selected wavelength absorbing material has a transmission profile in which a transmittance of a light of a wavelength of 420 nm can be set to 40% or less when a transmittance of a light of a wavelength of 550 nm is 90% or more, and a transmittance of a light of a wavelength of 460 nm is 90% or more, a content of the selected wavelength absorbing material in the heat ray-shielding resin sheet material is 0.01 mass% or more and 2.0 mass% or less, the selected wavelength absorbing material is one or more kinds selected from a benzotriazole compound and an indole compound, and the benzotriazole compound is expressed by [Chemical formula 1] or [Chemical formula 8], R1 in the benzotriazole compound expressed by [Chemical formula 1] is a group expressed by any one selected from [Chemical formula 2] to [Chemical formula 5], R2 in [Chemical formula 2] to [Chemical formula 5] is an alkylene group having 1 to 8 carbon atoms, R3 in [Chemical formula 2] to [Chemical formula 5] is a hydrogen atom or a methyl group, and R4 in [Chemical formula 4] is the alkylene group having 1 to 8 carbon atoms. wherein the selected wavelength absorbing material has a transmission profile in which a transmittance of a light of a wavelength of 420 nm can be set to 40% or less when a transmittance of a light of a wavelength of 550 nm is 90% or more, and a transmittance of a light of a wavelength of 460 nm is 90% or more, a content of the selected wavelength absorbing material in the heat ray-shielding resin sheet material is 0.01 mass% or more and 2.0 mass% or less, the selected wavelength absorbing material is one or more kinds selected from a benzotriazole compound and an indole compound, and the benzotriazole compound is expressed by [Chemical formula 1] or [Chemical formula 8], R1 in the benzotriazole compound expressed by [Chemical formula 1] is a group expressed by any one selected from [Chemical formula 2] to [Chemical formula 5], R2 in [Chemical formula 2] to [Chemical formula 5] is an alkylene group having 1 to 8 carbon atoms, R3 in [Chemical formula 2] to [Chemical formula 5] is a hydrogen atom or a methyl group, and R4 in [Chemical formula 4] is the alkylene group having 1 to 8 carbon atoms.
Cable lead-through , comprising 1.1 a divisible frame, which has at least two longitudinal strips (1.3, 2.3, 20.3) and at least two side strips (1.1, 1.2, 2.1, 2.2, 20.1, 20.2), which together lie in a plane perpendicular to the running direction (L) of the cables passed through, 1.2 at least one grommet , which has at least one bore (4.2) for passing the cable through; 1.3 separating elements located between the longitudinal strips (1.3, 2.3, 20.3), of which at least one forms an intermediate space (Z) between itself and an adjacent separating element or one of the side strips (1.1, 1.2, 2.1, 2.2, 20.1, 20.2), which is designed to accommodate the at least one grommet , which in turn has at least one bore (4.2) for passing the cable through; and comprising the following features: 1.4 each of the longitudinal strips (1.3, 2.3, 20.3) has a plurality of holes or recesses on at least its side facing the respective other longitudinal strip (1.3, 2.3, 20.3); 1.5 each separating element corresponds to the holes or the recesses in the longitudinal strips (1.3, 2.3, 20.3) at least in the region of at least one of its front-side ends, so that the separating elements can be inserted into the holes or recesses transversely to the running direction (L) of the cables passed through; 1.6 the separating elements are waisted in the running direction (L) of the inserted cables with at least one depression, so that a form-fit contact with the individual grommets can be produced. 1.1 a divisible frame, which has at least two longitudinal strips (1.3, 2.3, 20.3) and at least two side strips (1.1, 1.2, 2.1, 2.2, 20.1, 20.2), which together lie in a plane perpendicular to the running direction (L) of the cables passed through, 1.2 at least one grommet , which has at least one bore (4.2) for passing the cable through; 1.3 separating elements located between the longitudinal strips (1.3, 2.3, 20.3), of which at least one forms an intermediate space (Z) between itself and an adjacent separating element or one of the side strips (1.1, 1.2, 2.1, 2.2, 20.1, 20.2), which is designed to accommodate the at least one grommet , which in turn has at least one bore (4.2) for passing the cable through; 1.4 each of the longitudinal strips (1.3, 2.3, 20.3) has a plurality of holes or recesses on at least its side facing the respective other longitudinal strip (1.3, 2.3, 20.3); 1.5 each separating element corresponds to the holes or the recesses in the longitudinal strips (1.3, 2.3, 20.3) at least in the region of at least one of its front-side ends, so that the separating elements can be inserted into the holes or recesses transversely to the running direction (L) of the cables passed through; 1.6 the separating elements are waisted in the running direction (L) of the inserted cables with at least one depression, so that a form-fit contact with the individual grommets can be produced.
System comprising an apparatus for producing an object and/or a further object by means of additive manufacturing, the apparatus comprising: - a process chamber for receiving a bath of powdered material which can be solidified by exposure to electromagnetic radiation; - a support for positioning the object in relation to a surface level of the bath of powdered material; - a solidifying device arranged for emitting a beam of electromagnetic radiation on the surface level for solidifying a selective part of said powdered material; the system further comprising: - a status acquisition device arranged for acquiring information related to a status of said apparatus, said information comprising: - a calibration status of said apparatus, wherein said calibration status, acquired by said status acquisition device, is determined taking into account a measure of an actual, historical and/or expected calibration status; and - a control unit that is arranged for receiving said acquired information related to said status of said apparatus and further is arranged for: - scheduling a calibration stop and/or a calibration downtime taking into account said determined calibration status. - a process chamber for receiving a bath of powdered material which can be solidified by exposure to electromagnetic radiation; - a support for positioning the object in relation to a surface level of the bath of powdered material; - a solidifying device arranged for emitting a beam of electromagnetic radiation on the surface level for solidifying a selective part of said powdered material; - a status acquisition device arranged for acquiring information related to a status of said apparatus, said information comprising: - a calibration status of said apparatus, wherein said calibration status, acquired by said status acquisition device, is determined taking into account a measure of an actual, historical and/or expected calibration status; and - a calibration status of said apparatus, wherein said calibration status, acquired by said status acquisition device, is determined taking into account a measure of an actual, historical and/or expected calibration status; and - a control unit that is arranged for receiving said acquired information related to said status of said apparatus and further is arranged for: - scheduling a calibration stop and/or a calibration downtime taking into account said determined calibration status. - scheduling a calibration stop and/or a calibration downtime taking into account said determined calibration status.
Extractor hood comprising: - a box body having a base portion intended to be disposed above a cooktop (T); said box body defining an internal chamber , - an extractor fan with at least one inlet in communication with said internal chamber of the box body, in such a way to create a depression in the internal chamber of the box body to extract fumes (F) from the cooktop (T) through an opening of said base portion of the box body, - a delivery fan with one inlet in communication with said internal chamber of the box body and one outlet in communication with a delivery conduit having one end disposed in said base portion of the box body, before said opening of the base portion of the box body through which the fumes (F) are extracted, - a distributor (6; 106) disposed at the end of said delivery conduit; said distributor (6; 106) comprising an annular body with an internal surface with truncated-conical shape having an axis (A) that coincides with the axis of the distributor, and - deflector means (D) disposed above said distributor (6; 106) in such a way to direct a delivery airflow (M) from said delivery conduit towards at least one preferential direction with respect to the axis (A) of the distributor, in such a way that at least two airflows (V', V"; V1, V2) with different flow rate come out from the distributor (6; 106), wherein the airflow with the higher flow rate (V"; V2) is directed towards a burner (B4) of said cooktop having a higher power than the other burners. - a box body having a base portion intended to be disposed above a cooktop (T); said box body defining an internal chamber , - an extractor fan with at least one inlet in communication with said internal chamber of the box body, in such a way to create a depression in the internal chamber of the box body to extract fumes (F) from the cooktop (T) through an opening of said base portion of the box body, - a delivery fan with one inlet in communication with said internal chamber of the box body and one outlet in communication with a delivery conduit having one end disposed in said base portion of the box body, before said opening of the base portion of the box body through which the fumes (F) are extracted, - a distributor (6; 106) disposed at the end of said delivery conduit; said distributor (6; 106) comprising an annular body with an internal surface with truncated-conical shape having an axis (A) that coincides with the axis of the distributor, and - deflector means (D) disposed above said distributor (6; 106) in such a way to direct a delivery airflow (M) from said delivery conduit towards at least one preferential direction with respect to the axis (A) of the distributor, in such a way that at least two airflows (V', V"; V1, V2) with different flow rate come out from the distributor (6; 106), wherein the airflow with the higher flow rate (V"; V2) is directed towards a burner (B4) of said cooktop having a higher power than the other burners.
Hearing aid adapted to be received fittingly in an auditory canal of a user, having a device housing that comprises: - a microphone on a proximal side for receiving sound, - a loudspeaker which is in open communication with a sound-emitting opening of the hearing aid, - a battery chamber for receiving a battery therein, and - a sound processing device for reproducing said sound by the loudspeaker in at least partly processed manner, characterized - in that said device housing is to be received completely recessed in the auditory canal, - in that the device housing is at least partly accommodated in a fitting body having an outer wall which is configured to lie sealingly within said auditory canal of the user - in that the fitting body comprises a sleeve with a cavity which is open on a first side, said device housing being releasably placed in said cavity at said first side, - in that the sleeve comprises the sound-emitting opening and said sound-emitting opening opens said cavity at a second side, - in that the sleeve comprises a pull member which extends beyond the proximal side of the device housing, - in that an outer wall of the device housing lies sealingly against an inner wall of said cavity, - in that the pull member comprises a tab which extends as an integral part from the fitting body , and - in that a transmission channel (14-16) between the loudspeaker and the sound-emitting opening comprises a buffer space for cerumen. - a microphone on a proximal side for receiving sound, - a loudspeaker which is in open communication with a sound-emitting opening of the hearing aid, - a battery chamber for receiving a battery therein, and - a sound processing device for reproducing said sound by the loudspeaker in at least partly processed manner, characterized - in that said device housing is to be received completely recessed in the auditory canal, - in that the device housing is at least partly accommodated in a fitting body having an outer wall which is configured to lie sealingly within said auditory canal of the user - in that the fitting body comprises a sleeve with a cavity which is open on a first side, said device housing being releasably placed in said cavity at said first side, - in that the sleeve comprises the sound-emitting opening and said sound-emitting opening opens said cavity at a second side, - in that the sleeve comprises a pull member which extends beyond the proximal side of the device housing, - in that an outer wall of the device housing lies sealingly against an inner wall of said cavity, - in that the pull member comprises a tab which extends as an integral part from the fitting body , and - in that a transmission channel (14-16) between the loudspeaker and the sound-emitting opening comprises a buffer space for cerumen.
A method for doping a y-phase hexagonal ferrite material with potassium, the method comprising: providing a y-phase strontium hexagonal ferrite material; and substituting at least some of strontium with a trivalent ion composition including potassium or a tetravalention composition including potassium to form a high resonant frequency hexagonal ferrite, characterised in that the composition being Sr 2-x K x Co 2-x M x Fe 12 O 22 when a trivalent ion is used for the substitution, M being any trivalent ion and x being 0.2 to 1.5, and the composition being Sr 2-2x K 2x Co 2-x N x Fe 12 O 22 when a tetravalention is used for the substitution, N being any tetravalention and x being 0.2 to 0.75. providing a y-phase strontium hexagonal ferrite material; and substituting at least some of strontium with a trivalent ion composition including potassium or a tetravalention composition including potassium to form a high resonant frequency hexagonal ferrite, characterised in that the composition being Sr 2-x K x Co 2-x M x Fe 12 O 22 when a trivalent ion is used for the substitution, M being any trivalent ion and x being 0.2 to 1.5, and the composition being Sr 2-2x K 2x Co 2-x N x Fe 12 O 22 when a tetravalention is used for the substitution, N being any tetravalention and x being 0.2 to 0.75.
A filter device comprising a plurality of filter assemblies connected up and down and a collecting component, wherein each of the filter assemblies comprises: a sample tube , which is in a hollow tubular shape and has an upper end opening and a lower end opening, and a filter mesh , which is disposed in the upper end opening of the sample tube for filtering sample to be filtered when the sample to be filtered is placed on the filter mesh ; and the filter mesh has a downwardly-protruding curved surface; each of the filter assemblies further comprises an upper connecting part disposed at the upper end opening of the sample tube and a lower connecting part disposed at the lower end opening of the sample tube , and the lower connecting part of the filter assembly arranged above is connected to the upper connecting part of the filter assembly arranged below; and the upper connecting part and the lower connecting part are parts independent of the respective sample tube ; the collecting component comprises an upper connecting part which is same as the upper connecting part of the filter assembly, and the upper connecting part of the collecting component is connected to the lower connecting part of the filter assembly arranged at the bottom; and the collecting component is connected to the lower end opening of the sample tube of the filter assembly arranged at the bottom for collecting liquid filtered by the filter mesh into a testing container. a sample tube , which is in a hollow tubular shape and has an upper end opening and a lower end opening, and a filter mesh , which is disposed in the upper end opening of the sample tube for filtering sample to be filtered when the sample to be filtered is placed on the filter mesh ; and the filter mesh has a downwardly-protruding curved surface; each of the filter assemblies further comprises an upper connecting part disposed at the upper end opening of the sample tube and a lower connecting part disposed at the lower end opening of the sample tube , and the lower connecting part of the filter assembly arranged above is connected to the upper connecting part of the filter assembly arranged below; and the upper connecting part and the lower connecting part are parts independent of the respective sample tube ; the collecting component comprises an upper connecting part which is same as the upper connecting part of the filter assembly, and the upper connecting part of the collecting component is connected to the lower connecting part of the filter assembly arranged at the bottom; and the collecting component is connected to the lower end opening of the sample tube of the filter assembly arranged at the bottom for collecting liquid filtered by the filter mesh into a testing container.
A light emitting device package comprising: first and second frames spaced apart from each other; a package body including a body disposed between the first and second frames ; a light emitting device including first and second bonding parts ; a first through hole (TH1) in the first frame ; a second through hole (TH2) in the second frame ; and first and second conductive layers disposed in the first and second through holes (TH1, TH2), characterized by further comprising: a first resin disposed between the body of the package body and the light emitting device ; and intermetallic compound layers disposed between the first conductive layer and the first frame , and between the second conductive layer and the second frame , respectively, wherein the first bonding part of the light emitting device overlaps with the first through hole (TH1) in the first frame , wherein the second bonding part of the light emitting device overlaps with the second through hole (TH2) in the second frame , and wherein the first and second bonding parts are spaced apart from each other. first and second frames spaced apart from each other; a package body including a body disposed between the first and second frames ; a light emitting device including first and second bonding parts ; a first through hole (TH1) in the first frame ; a second through hole (TH2) in the second frame ; and first and second conductive layers disposed in the first and second through holes (TH1, TH2), characterized by further comprising: a first resin disposed between the body of the package body and the light emitting device ; and intermetallic compound layers disposed between the first conductive layer and the first frame , and between the second conductive layer and the second frame , respectively, wherein the first bonding part of the light emitting device overlaps with the first through hole (TH1) in the first frame , wherein the second bonding part of the light emitting device overlaps with the second through hole (TH2) in the second frame , and wherein the first and second bonding parts are spaced apart from each other.
A method, implemented at a computer system that includes one or more processors and system memory, of quantifying a nucleic acid sample comprising nucleic acid of one or more contributors, the method comprising: (a) receiving, by the computer system, nucleic acid sequence reads obtained from the nucleic acid sample and mapped to one or more alleles at one or more polymorphism loci,; (b) determining, using the nucleic acid sequence reads and by the one or more processors, allele counts for each of the one or more alleles at the one or more polymorphism loci; (c) using a probabilistic mixture model that applies a probabilistic mixture model to the allele counts, and that uses probability distributions to model the allele counts at the one or more polymorphism loci, the probability distributions accounting for errors in the nucleic acid sequence reads; (d) quantifying, using the probabilistic mixture model and by the one or more processors, one or more fractions of nucleic acid of the one or more contributors in the nucleic acid sample; (e) determining a posterior probability that a specific contributor among the one or more contributors has a specific genotype; and (f) calling, based on the posterior probability, that the nucleic acid sample includes nucleic acid from the specific contributor. (a) receiving, by the computer system, nucleic acid sequence reads obtained from the nucleic acid sample and mapped to one or more alleles at one or more polymorphism loci,; (b) determining, using the nucleic acid sequence reads and by the one or more processors, allele counts for each of the one or more alleles at the one or more polymorphism loci; (c) using a probabilistic mixture model that applies a probabilistic mixture model to the allele counts, and that uses probability distributions to model the allele counts at the one or more polymorphism loci, the probability distributions accounting for errors in the nucleic acid sequence reads; (d) quantifying, using the probabilistic mixture model and by the one or more processors, one or more fractions of nucleic acid of the one or more contributors in the nucleic acid sample; (e) determining a posterior probability that a specific contributor among the one or more contributors has a specific genotype; and (f) calling, based on the posterior probability, that the nucleic acid sample includes nucleic acid from the specific contributor.