mhurhangee/ep-ind-claims huggingface dataset:
A method for determining an amount of at least one isoform of cytochrome P450 in a sample, comprising the use of a mass spectrometry technique, wherein the at least one isoform of cytochrome P450 comprises CYP 1A2 and the mass spectrometry technique comprises a tandem spectrometry (MS MS) technique, or a liquid chromatography tandem mass spectrometry (LC-MS/MS) technique, wherein the determining comprises determining an amount of CYP 1A2 in the sample by detecting at least one isolated peptide specific to cytochrome P450 isoform CYP 1A2 that has the amino acid sequence of: SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10 or SEQ ID NO: 13; the technique comprising using a triple quadrupole instrument and Multiple Reaction Monitoring, wherein the method comprises monitoring precursor-product ion pair transitions of at least one of said sequences wherein the m/z of the precursor/product ion pair value is about: 432/636, 432/535, or 432/478 for SEQ ID NO: 8, 482/800, 482/628, or 482/743 for SEQ ID NO: 9, 491/721, 491/834, or 491/535 for SEQ ID NO: 10 or 695/695, 695/837, or 695/950 for SEQ ID NO: 13. 432/636, 432/535, or 432/478 for SEQ ID NO: 8, 482/800, 482/628, or 482/743 for SEQ ID NO: 9, 491/721, 491/834, or 491/535 for SEQ ID NO: 10 or 695/695, 695/837, or 695/950 for SEQ ID NO: 13.
A module (100, 200, 800, 900) comprising: a substrate (102, 202, 802, 902); a collapsible fluid chamber (110 - 120, 810a-c - 818a-c, 910a-c - 918a-c) supported on said substrate; a compression element (130, 830a-c, 930a-c) configured to collapse said fluid chamber by compressing said fluid chamber between said compression element and said substrate as said compression element moves across at least a portion of said substrate; and an actuator element (150, 850a-c, 950a-c) constructed and arranged for movement in a plane that is parallel to a plane of said substrate and coupled to said compression element such that movement of said actuator element in a plane that is parallel to a plane of said substrate causes corresponding movement of said compression element across the substrate to compress said fluid chamber, wherein said actuator element (150, 850a-c, 950a-c) comprises an actuator strip including a free end (152, 952a-c), a fixed end secured to said substrate, and a middle portion extending from said fixed end to said free end and engaging said compression element (130, 830a-c, 930a-c). a substrate (102, 202, 802, 902); a collapsible fluid chamber (110 - 120, 810a-c - 818a-c, 910a-c - 918a-c) supported on said substrate; a compression element (130, 830a-c, 930a-c) configured to collapse said fluid chamber by compressing said fluid chamber between said compression element and said substrate as said compression element moves across at least a portion of said substrate; and an actuator element (150, 850a-c, 950a-c) constructed and arranged for movement in a plane that is parallel to a plane of said substrate and coupled to said compression element such that movement of said actuator element in a plane that is parallel to a plane of said substrate causes corresponding movement of said compression element across the substrate to compress said fluid chamber, wherein said actuator element (150, 850a-c, 950a-c) comprises an actuator strip including a free end (152, 952a-c), a fixed end secured to said substrate, and a middle portion extending from said fixed end to said free end and engaging said compression element (130, 830a-c, 930a-c).
An acrylic rubber comprising: an alkyl acrylate unit; a crosslinking monomer unit having a halogeno group, an epoxy group, or a carboxyl group; a unit of a bifunctional monomer represented by the following formula (A-1): wherein n represents 1 to 9, R 1 represents a hydrogen atom or a methyl group, and R 2 represents an alkanediyl group having 2 to 4 carbon atoms; and an ethylene unit, wherein a content of the ethylene unit is 0.1 to 10 parts by mass with respect to 100 parts by mass of the alkyl acrylate unit, wherein the acrylic rubber has a toluene insoluble content of 4 to 40% by mass; and wherein the toluene insoluble content is calculated from the following equation: toluene insoluble content % by mass = x / 0.2 × 100 wherein x (g) is the dried solid content (toluene insoluble content) which is weighed by immersing 0.2 g of the acrylic rubber in toluene in 100ml, leaving it at 23°C for 24 hours, filtering it using a 200 mesh wire netting, and drying the filter cake at 120°C for 1 hour. an alkyl acrylate unit; a crosslinking monomer unit having a halogeno group, an epoxy group, or a carboxyl group; a unit of a bifunctional monomer represented by the following formula (A-1): wherein n represents 1 to 9, R 1 represents a hydrogen atom or a methyl group, and R 2 represents an alkanediyl group having 2 to 4 carbon atoms; and an ethylene unit, wherein a content of the ethylene unit is 0.1 to 10 parts by mass with respect to 100 parts by mass of the alkyl acrylate unit, wherein the acrylic rubber has a toluene insoluble content of 4 to 40% by mass; and wherein the toluene insoluble content is calculated from the following equation: toluene insoluble content % by mass = x / 0.2 × 100 wherein x (g) is the dried solid content (toluene insoluble content) which is weighed by immersing 0.2 g of the acrylic rubber in toluene in 100ml, leaving it at 23°C for 24 hours, filtering it using a 200 mesh wire netting, and drying the filter cake at 120°C for 1 hour.
An aerosol-generating article (4000a,4000b) comprising an aerosol-generating substrate (4020a,4020b), the aerosol-generating substrate including a homogenised star anise material comprising star anise particles, an aerosol former, an exogenous binder and between 2 percent by weight and 15 percent by weight of fibres, on a dry weight basis, wherein the aerosol-generating substrate comprises: at least 70 micrograms of -anethole per gram of the substrate, on a dry weight basis; at least 50 micrograms of epoxyanethole per gram of the substrate, on a dry weight basis; and at least 130 micrograms of benzyl isoeugenol ether per gram of the substrate, on a dry weight basis. at least 70 micrograms of -anethole per gram of the substrate, on a dry weight basis; at least 50 micrograms of epoxyanethole per gram of the substrate, on a dry weight basis; and at least 130 micrograms of benzyl isoeugenol ether per gram of the substrate, on a dry weight basis.
A method of preparing a sample for study in a charged-particle microscope, comprising the following steps: - Providing a substantially planar sample holder having opposed faces (Sb, Sf) substantially parallel to one another, comprising at least one aperture that connects said faces and across which a membrane has been mounted, which membrane comprises at least one perforation; - Spanning a film of aqueous liquid across said perforation, which liquid comprises at least one study specimen suspended therein, characterized by the following steps: - Prior to said spanning step, placing a blotting sheet of blotting material in intimate contact with a first surface of said membrane, at a side distal from said sample holder; - Depositing said aqueous liquid through said aperture and onto a second surface of said membrane, opposite said first surface; - Subsequently removing said blotting sheet from said membrane. - Providing a substantially planar sample holder having opposed faces (Sb, Sf) substantially parallel to one another, comprising at least one aperture that connects said faces and across which a membrane has been mounted, which membrane comprises at least one perforation; - Spanning a film of aqueous liquid across said perforation, which liquid comprises at least one study specimen suspended therein, - Prior to said spanning step, placing a blotting sheet of blotting material in intimate contact with a first surface of said membrane, at a side distal from said sample holder; - Depositing said aqueous liquid through said aperture and onto a second surface of said membrane, opposite said first surface; - Subsequently removing said blotting sheet from said membrane.
Method for transmitting digital XDSL signals via a coaxial cable to an interface of an end user, the coaxial cable having an overall frequency range designed for transmitting TV signals and/or radio signals to the interface of the end user in an upper frequency range of the overall frequency range, the interface comprising a VDSL output, characterised in that the method comprises the following steps: - provision of first symmetrical (balanced) XDSL signals to the coaxial cable on a digital subscriber line access multiplexer, DSLAM,; - a first transformation of the first symmetric digital XDSL signals directed towards the XDSL output into asymmetric (unbalanced) XDSL signals by means of a first balun device; - coupling of the asymmetric XDSL signals into the coaxial cable in a lower frequency range of the overall frequency range, the lower frequency range being below the upper frequency range without an overlap, - attenuation of a reflection of the asymmetric XDSL signals in the at least one coaxial cable by means of a filter; - a second transformation of the asymmetric XDSL signals directed towards the XDSL output into second symmetric XDSL signals by means of a balun device assigned to the interface; - coupling-out of the second symmetric XDSL signals; - separate provision of the second symmetric XDSL signals to the XDSL output. - provision of first symmetrical (balanced) XDSL signals to the coaxial cable on a digital subscriber line access multiplexer, DSLAM,; - a first transformation of the first symmetric digital XDSL signals directed towards the XDSL output into asymmetric (unbalanced) XDSL signals by means of a first balun device; - coupling of the asymmetric XDSL signals into the coaxial cable in a lower frequency range of the overall frequency range, the lower frequency range being below the upper frequency range without an overlap, - attenuation of a reflection of the asymmetric XDSL signals in the at least one coaxial cable by means of a filter; - a second transformation of the asymmetric XDSL signals directed towards the XDSL output into second symmetric XDSL signals by means of a balun device assigned to the interface; - coupling-out of the second symmetric XDSL signals; - separate provision of the second symmetric XDSL signals to the XDSL output.
A method for the cleaning and anti-corrosion pretreatment of a metal component that is composed at least in part of a material that consists predominantly of one or more of the metals iron, zinc and/or aluminum, by bringing the component into contact with an acidic aqueous composition containing a) at least 0.003 wt.% of aliphatic diols which have at least 4 carbon atoms but no more than 10 carbon atoms; b) at least 0.01 wt.% of aliphatic saturated polyhydroxy compounds which have more than two hydroxyl groups and at least 4 but no more than 8 carbon atoms; c) at least one water-soluble compound of the elements Zr and/or Ti; d) at least one water-soluble source of fluoride ions. a) at least 0.003 wt.% of aliphatic diols which have at least 4 carbon atoms but no more than 10 carbon atoms; b) at least 0.01 wt.% of aliphatic saturated polyhydroxy compounds which have more than two hydroxyl groups and at least 4 but no more than 8 carbon atoms; c) at least one water-soluble compound of the elements Zr and/or Ti; d) at least one water-soluble source of fluoride ions.
A portable data carrier, in particular a micro-SD card, with a carrier, a first and a second antenna (20, 10), and a processing unit coupled with the first and the second antenna (12, 10), wherein - the first and the second antenna (20, 10) are mutually arranged such that the second antenna is not or minimally influenced by the first transmitting antenna, - a field can be generated via the processing unit by means of the first antenna upon a transmitting communication of the data carrier with a reading device, wherein for generating the field by the processing unit a frequency of the reading device can be processed; - a reading device field is received via the second antenna; characterized in that the field transmitted by the first antenna causes a modulation of the reading device field, and for synchronizing the transmission frequency of the data carrier with the transmission frequency of the reading device, the reading device field is received via the second antenna and its frequency is evaluated by the processing unit. - the first and the second antenna (20, 10) are mutually arranged such that the second antenna is not or minimally influenced by the first transmitting antenna, - a field can be generated via the processing unit by means of the first antenna upon a transmitting communication of the data carrier with a reading device, wherein for generating the field by the processing unit a frequency of the reading device can be processed; - a reading device field is received via the second antenna; characterized in that the field transmitted by the first antenna causes a modulation of the reading device field, and for synchronizing the transmission frequency of the data carrier with the transmission frequency of the reading device, the reading device field is received via the second antenna and its frequency is evaluated by the processing unit.
A connection between a drill pipe made of carbon-fibre or glass-fibre reinforced plastic and a tubular connector (2, 20), preferably made from metal, which connector (2, 20) is partially accommodated in one end of the drill pipe and is bonded to the aforesaid, characterised in that a thrust element connected with positive-locking fit to the connector (2, 20) in the region of the end of the drill pipe in which the connector (2, 20) is received presses onto the exterior of the end of the drill pipe.
Use of an aluminium alloy strip for producing lithographic printing plates or printing plates for waterless offset printing, wherein the aluminium alloy strip has a rolled-in surface topography on at least one strip surface, characterised in that the surface of the aluminium alloy strip has a mean peak number RPc measured perpendicular to the rolling direction of the aluminium alloy strip of ≤ 50 cm -1, preferably ≤ 45 cm -1 or particularly preferably ≤ 40 cm -1, wherein c1 = + 0.25 μm and c2 = - 0.25 μm have been selected as section lines for the RPc measurement and the mean peak number RPc is determined from an optical areal measurement of three measuring areas of at least 4.5 mm x 4.5 mm using a confocal microscope with a lateral measuring point distance of 1,6 μm or less, wherein the arithmetic mean value of the profile parameter RPc perpendicular to the rolling direction is calculated within the measuring areas from the profile sections of the areal measurement available perpendicular to the rolling direction per measuring area and the arithmetic mean is calculated for the parameter from the three measuring areas, wherein the measurement data processing is performed by a shape equalisation with a second-order polynomial (F-filter) and a Gaussian filter with λc = 250 μm as a waviness filter without filtering the fine roughness.
An emulsion aggregation toner having toner particles comprising a core and a shell, wherein the core comprises an IR-taggant is selected from the group consisting of an inorganic ceramic nanoparticle, an IR-emitting organic dye, an IR-emitting quantum dot, and mixtures thereof; a crystalline polyester resin; and an amorphous polyester resin, wherein the IR-taggant has an emission peak in the wavelength range of from 1000 nm to 1200 nm. an IR-taggant is selected from the group consisting of an inorganic ceramic nanoparticle, an IR-emitting organic dye, an IR-emitting quantum dot, and mixtures thereof; a crystalline polyester resin; and an amorphous polyester resin, wherein the IR-taggant has an emission peak in the wavelength range of from 1000 nm to 1200 nm.
Method for the isolation of human cardiac progenitor cells subpopulations, comprising the following steps: a) mincing a heart tissue sample containing a population of cardiac cells; b) 4-times progressive digestion of the cardiac tissue with an enzymatic mixture until a cell suspension is achieved and filtration is achieved through filters of size comprised between 30 μM and 100 μM; c) further digestion of residual cardiac tissue obtained in step b) for 16 hours with an enzymatic mixture until a cell suspension is achieved and filtration through filters of size comprised between 30 μM and 100 μM; d) culturing the cell suspension obtained in step b) and c) in a culture medium suitable to propagate the cardiac cells; e) preliminary expansion of the cell suspension obtained in step d) in a culture medium suitable to expand the cardiac cells in the presence of an enzymatic or non enzymatic solution; f) secondary expansion of the cardiac cells obtained in step e) in a culture medium suitable to further expand the cardiac cells in the presence of an enzymatic or non enzymatic solution; g) isolating one or more subpopulations of cardiac cells by positive and/or negative selection by the use of monoclonal antibodies directed against one or more surface antigens expressed in the starting population of cardiac progenitor cells. a) mincing a heart tissue sample containing a population of cardiac cells; b) 4-times progressive digestion of the cardiac tissue with an enzymatic mixture until a cell suspension is achieved and filtration is achieved through filters of size comprised between 30 μM and 100 μM; c) further digestion of residual cardiac tissue obtained in step b) for 16 hours with an enzymatic mixture until a cell suspension is achieved and filtration through filters of size comprised between 30 μM and 100 μM; d) culturing the cell suspension obtained in step b) and c) in a culture medium suitable to propagate the cardiac cells; e) preliminary expansion of the cell suspension obtained in step d) in a culture medium suitable to expand the cardiac cells in the presence of an enzymatic or non enzymatic solution; f) secondary expansion of the cardiac cells obtained in step e) in a culture medium suitable to further expand the cardiac cells in the presence of an enzymatic or non enzymatic solution; g) isolating one or more subpopulations of cardiac cells by positive and/or negative selection by the use of monoclonal antibodies directed against one or more surface antigens expressed in the starting population of cardiac progenitor cells.
A method performed by a base station (300, 400) of a wireless network, for supporting radio communication between wireless devices (302, 402) and the base station (300, 400), wherein the base station (300, 400) employs carrier aggregation with multiple carriers serving a primary cell, PCell, and at least one secondary cell, SCell, wherein the base station (300, 400) serves the PCell on licensed frequency spectrum and serves the at least one SCell on unlicensed frequency spectrum, the method comprising: - signalling (3:3) an SCell status to the wireless devices (302, 402), the SCell status indicating whether the at least one SCell will be in active state where the base station (300, 400) transmits downlink signals on a carrier serving the at least one SCell, or in inactive state where the base station (300, 400) does not transmit downlink signals on the carrier serving the at least one SCell, wherein when the base station (300, 400) detects that the unlicensed frequency spectrum is idle and available for radio communication, the signalled SCell status indicates that the at least one SCell will be in the active state and the signalled SCell status comprises an activity value indicating a number of subframes in which the at least one SCell will be in active state. - signalling (3:3) an SCell status to the wireless devices (302, 402), the SCell status indicating whether the at least one SCell will be in active state where the base station (300, 400) transmits downlink signals on a carrier serving the at least one SCell, or in inactive state where the base station (300, 400) does not transmit downlink signals on the carrier serving the at least one SCell, wherein when the base station (300, 400) detects that the unlicensed frequency spectrum is idle and available for radio communication, the signalled SCell status indicates that the at least one SCell will be in the active state and the signalled SCell status comprises an activity value indicating a number of subframes in which the at least one SCell will be in active state.
A system for separating liquid and gas flowing through a multiphase pipeline, said system comprising: • A riser having an upper end and a lower end, said riser being at its lower end configured to receive fluid from said multiphase pipeline and having means for delivering (5,6) of gas at its upper end, said riser further comprising valve means for adjusting the flow at which the gas is delivered through the upper end of said riser; • a pipe to be arranged outside or inside the riser, said pipe having an upper part and a lower part with the lower part being connected to or inserted into the riser, thereby creating a liquid flow path between the riser and the pipe, said pipe having a liquid intake configured to receive liquid from a liquid column in said riser, and said upper end of said pipe being configured to deliver said liquid, said pipe further comprising means for adjusting the flow at which said liquid is delivered through the upper end of said pipe; characterised in that the system further comprises: • level measuring means (12,13) adapted for measuring the position of a surface of said liquid column in said riser; • control means capable of controlling said valve means such that the position of the surface of said liquid column can be adjusted by adjusting the flow at which gas/liquid is delivered via said liquid flow path (7,9,3,11) and through the upper end of said riser (5,6). • A riser having an upper end and a lower end, said riser being at its lower end configured to receive fluid from said multiphase pipeline and having means for delivering (5,6) of gas at its upper end, said riser further comprising valve means for adjusting the flow at which the gas is delivered through the upper end of said riser; • a pipe to be arranged outside or inside the riser, said pipe having an upper part and a lower part with the lower part being connected to or inserted into the riser, thereby creating a liquid flow path between the riser and the pipe, said pipe having a liquid intake configured to receive liquid from a liquid column in said riser, and said upper end of said pipe being configured to deliver said liquid, said pipe further comprising means for adjusting the flow at which said liquid is delivered through the upper end of said pipe; • level measuring means (12,13) adapted for measuring the position of a surface of said liquid column in said riser; • control means capable of controlling said valve means such that the position of the surface of said liquid column can be adjusted by adjusting the flow at which gas/liquid is delivered via said liquid flow path (7,9,3,11) and through the upper end of said riser (5,6).
Use of a color conversion sheet for agriculture, wherein said color conversion sheet comprises at least one inorganic fluorescent material having the peak emission light wavelength in the range from 660 nm to 730 nm, and a matrix material comprising a polymer selected from the group consisting of photosetting polymer, a thermosetting polymer, a thermoplastic polymer, and a combination of thereof.