mhurhangee/ep-ind-claims huggingface dataset:
An oral care composition consisting essentially of: a) from 5% to 10% by weight of a insoluble particulate such as a dentally acceptable abrasive; b) from 0.01% to 5% by weight of suspending polymer which is a mixture of 1) xanthan gum with 2) microcrystalline cellulose or a microcrystalline cellulose and carboxy methylcellulose sodium mixture or a mixture of microcrystalline cellulose and a microcrystalline cellulose and carboxy methylcellulose sodium mixture or mixtures of various microcrystalline cellulose and carboxy methylcellulose sodium mixtures; c) from 0.1% to 5% surfactant or surfactant system; d) at least 45% of a liquid carrier; e) optionally a foam enhancing agent; and f) optionally a foam generating agent; wherein said composition has a tan delta of less than 1 at frequencies 0.1 to 100 rads -1 as measured by an RFSII rheometer with couette geometry at a temperature of 25°C. a) from 5% to 10% by weight of a insoluble particulate such as a dentally acceptable abrasive; b) from 0.01% to 5% by weight of suspending polymer which is a mixture of 1) xanthan gum with 2) microcrystalline cellulose or a microcrystalline cellulose and carboxy methylcellulose sodium mixture or a mixture of microcrystalline cellulose and a microcrystalline cellulose and carboxy methylcellulose sodium mixture or mixtures of various microcrystalline cellulose and carboxy methylcellulose sodium mixtures; c) from 0.1% to 5% surfactant or surfactant system; d) at least 45% of a liquid carrier; e) optionally a foam enhancing agent; and f) optionally a foam generating agent;
A lens comprising a centrally extending axis being perpendicular to a lens axis of the lens, the lens being adapted for refracting light rays from a light source positioned off-axis with respect to the centrally extending axis, characterised by the lens comprising a first plurality of slits (21, 22, 23, 24) extending entirely in an interior of the lens and comprising a length extending perpendicular to the centrally extending axis, a width (w) extending parallel to the centrally extending axis and a thickness (t) extending perpendicular to both the length and the width, the first plurality of slits being mutually parallel and covering between 40 % and 60 % of a plane in which both the centrally extending axis and the length and width (w) of the first plurality of slits (21, 22, 23, 24) extend.
A method for the production of 1-butanol comprising: a) providing a recombinant microbial production host which produces 1-butanol, wherein the recombinant microbial host cell comprises DNA molecules encoding polypeptides that catalyse each of the following substrate to product conversions: i) acetyl-CoA to acetoacetyl-CoA; ii) acetoacetyl-CoA to 3-hydroxybutyryl-CoA; iii) 3-hydroxybutyryl-CoA to crotonyl-CoA; iv) crotonyl-CoA to butyryl-CoA; v) butyryl-CoA to butyraldehyde; and vi) butyraldehyde to 1-butanol; wherein at least one of said DNA molecules is heterologous to said microbial host cell; b) seeding the production host of (a) into a fermentation medium comprising a fermentable carbon substrate to create a fermentation culture; c) growing the production host in the fermentation culture at a first temperature for a first period of time, wherein while growing the production host at a first temperature over a first period of time, a metabolic parameter of the fermentation culture is monitored and wherein the first temperature is from about 25°C to about 40°C; d) lowering the temperature of the fermentation culture to a second temperature; and e) incubating the production host at the second temperature of step (d) for a second period of time; wherein steps (d) and (e) are repeated one or more times; whereby 1-butanol is produced. a) providing a recombinant microbial production host which produces 1-butanol, wherein the recombinant microbial host cell comprises DNA molecules encoding polypeptides that catalyse each of the following substrate to product conversions: i) acetyl-CoA to acetoacetyl-CoA; ii) acetoacetyl-CoA to 3-hydroxybutyryl-CoA; iii) 3-hydroxybutyryl-CoA to crotonyl-CoA; iv) crotonyl-CoA to butyryl-CoA; v) butyryl-CoA to butyraldehyde; and vi) butyraldehyde to 1-butanol; wherein at least one of said DNA molecules is heterologous to said microbial host cell; i) acetyl-CoA to acetoacetyl-CoA; ii) acetoacetyl-CoA to 3-hydroxybutyryl-CoA; iii) 3-hydroxybutyryl-CoA to crotonyl-CoA; iv) crotonyl-CoA to butyryl-CoA; v) butyryl-CoA to butyraldehyde; and vi) butyraldehyde to 1-butanol; wherein at least one of said DNA molecules is heterologous to said microbial host cell; b) seeding the production host of (a) into a fermentation medium comprising a fermentable carbon substrate to create a fermentation culture; c) growing the production host in the fermentation culture at a first temperature for a first period of time, wherein while growing the production host at a first temperature over a first period of time, a metabolic parameter of the fermentation culture is monitored and wherein the first temperature is from about 25°C to about 40°C; d) lowering the temperature of the fermentation culture to a second temperature; and e) incubating the production host at the second temperature of step (d) for a second period of time; wherein steps (d) and (e) are repeated one or more times; whereby 1-butanol is produced.
An assembly for 3D printer, comprising: an illumination module, comprising a light emitting unit; a monochrome LCD photomask provided to correspond with the concave mirror of the illumination module, and a mirror surface of the concave mirror faces toward the monochrome LCD photomask; and a photosensitive material container provided adjacent to the monochrome LCD photomask, and the monochrome LCD photomask is provided between the concave mirror and the photosensitive material container, characterised in that the illumination module further comprises an optical lens with positive refractive power, wherein at least one of an object-side surface and an image-side surface of the optical lens is a free-form surface, and the light emitting unit is provided at an object side of the optical lens; and a concave mirror provided at an image side of the optical lens, wherein the concave mirror acts as an optical path folding element, and light emitted by the light emitting unit passes through the optical lens and is reflected by the concave mirror to be a parallel light ray. a monochrome LCD photomask provided to correspond with the concave mirror of the illumination module, and a mirror surface of the concave mirror faces toward the monochrome LCD photomask; and a photosensitive material container provided adjacent to the monochrome LCD photomask, and the monochrome LCD photomask is provided between the concave mirror and the photosensitive material container, characterised in that the illumination module further comprises an optical lens with positive refractive power, wherein at least one of an object-side surface and an image-side surface of the optical lens is a free-form surface, and the light emitting unit is provided at an object side of the optical lens; and a concave mirror provided at an image side of the optical lens, wherein the concave mirror acts as an optical path folding element, and light emitted by the light emitting unit passes through the optical lens and is reflected by the concave mirror to be a parallel light ray.
A near field communication target device configured to respond to a read request transmitted by a reader device by transmitting a message comprising an unencrypted portion and an encrypted portion, the encrypted portion incorporating a counter that is incremented each time a read request is received, wherein the encrypted portion incorporates an identification code for the target device, wherein the identification code is a unique identification code of the target device, wherein the message further comprises a message authentication code created by the target device from a session key generated in response to the read request.
Copolyamides formed from a diamine component A), a dicarboxylic acid component B) and possibly a lactam- and/or ω-amino acid component C), a maximum excess of the diamine component A) or the dicarboxylic acid component B) of 3 % being used, the quantity of the lactam- and/or ω-amino acid component C) being 0 - 15% by mol and the sum of components A) to C) being 100% by mol, and a) the diamine component A) consisting of A1) 62 to 96 proportions by mol of 1,6-hexanediamine, A10 4 to 38 proportions by mol of bis(aminomethyl)cyclohexane and also A3) 0 to 30 proportions by mol of one or more cycloaliphatic diamines different from A2), the sum of A2) and A3) being 4 to 38 proportions by mol and the sum of A1), A2) and A3) being 100 proportions by mol, b) the dicarboxylic acid component B) consisting of B1) 64 to 100 proportions by mol of terephthalic acid, B2) 0 to 18 proportions by mol of isophthalic acid and also B3) 0 to 18 proportions by mol of one or more aliphatic dicarboxylic acids with 6 to 18 C-atoms, the sum of B1), B2) and B3) being 100 proportions by mol, and c) the lactam- and/or ω-amino acid component C) consisting of one or more lactams and/or ω-amino acids, the sum of the lactams and/or ω-amino acids being 100 proportions by mol. a) the diamine component A) consisting of A1) 62 to 96 proportions by mol of 1,6-hexanediamine, A10 4 to 38 proportions by mol of bis(aminomethyl)cyclohexane and also A3) 0 to 30 proportions by mol of one or more cycloaliphatic diamines different from A2), the sum of A2) and A3) being 4 to 38 proportions by mol and the sum of A1), A2) and A3) being 100 proportions by mol, A1) 62 to 96 proportions by mol of 1,6-hexanediamine, A10 4 to 38 proportions by mol of bis(aminomethyl)cyclohexane and also A3) 0 to 30 proportions by mol of one or more cycloaliphatic diamines different from A2), b) the dicarboxylic acid component B) consisting of B1) 64 to 100 proportions by mol of terephthalic acid, B2) 0 to 18 proportions by mol of isophthalic acid and also B3) 0 to 18 proportions by mol of one or more aliphatic dicarboxylic acids with 6 to 18 C-atoms, the sum of B1), B2) and B3) being 100 proportions by mol, and B1) 64 to 100 proportions by mol of terephthalic acid, B2) 0 to 18 proportions by mol of isophthalic acid and also B3) 0 to 18 proportions by mol of one or more aliphatic dicarboxylic acids with 6 to 18 C-atoms, c) the lactam- and/or ω-amino acid component C) consisting of one or more lactams and/or ω-amino acids, the sum of the lactams and/or ω-amino acids being 100 proportions by mol.
Process for making a multilayer structure with a printed pattern by a) providing a film substrate having a crystalline organic compound layer, wherein the substrate optionally has a metal or metaloxide layer between the film substrate and the organic compound layer; b) applying a printed pattern via a plurality of printing rolls wherein the following steps are performed: b1) optionally, applying as a first layer a primer over the whole surface, b2) applying one or more ink layers on the film to obtain a printed pattern, and b3) optionally, applying a cover varnish layer; to obtain a film substrate with a crystalline organic layer and a printed pattern, wherein the ink comprises a pigment, a binder and a solvent, wherein the binder comprises a polyurethane, polyamide or polyvinylbutyrate. a) providing a film substrate having a crystalline organic compound layer, wherein the substrate optionally has a metal or metaloxide layer between the film substrate and the organic compound layer; b) applying a printed pattern via a plurality of printing rolls wherein the following steps are performed: b1) optionally, applying as a first layer a primer over the whole surface, b2) applying one or more ink layers on the film to obtain a printed pattern, and b3) optionally, applying a cover varnish layer; b1) optionally, applying as a first layer a primer over the whole surface, b2) applying one or more ink layers on the film to obtain a printed pattern, and b3) optionally, applying a cover varnish layer;
A recombinant polypeptide having transposase activity comprising a sequence at least 90% identical to SEQ ID NO: 1, wherein the polypeptide comprises an Arg at the position corresponding to position 14; an Ala at the position corresponding to position 33; a His at the position corresponding to position 115; an Asp at the position corresponding to position 214; an Ala at the position corresponding to position 215; a Val at the position corresponding to position 216; a Gln at the position corresponding to position 217; a His at the position corresponding to position 243; an Arg at the position corresponding to position 136; a His at the position corresponding to position 253 and an Arg at the position corresponding to position 255.
A method for manufacturing a scintillator, the method comprises the steps of: - providing a basic scintillator structure in the form of a silicon (Si) substrate having micromechanical features formed in the substrate, said basic scintillator structure having a front and a back, wherein the step of providing a basic scintillator structure further comprises filling said micromechanical features with scintillating material; - applying a reflector on the front of the basic scintillator structure; said method being characterized in the steps of - opening the back of said basic scintillator structure to create a scintillator having open ended micromechanical features formed in the substrate and filled with scintillating material, wherein the reflector is applied on the front side of the basic scintillator structure, where openings of the micromechanical features are initially located, to close the openings, and then the back side of the basic scintillator structure is opened to provide the open-ended micromechanical features. - providing a basic scintillator structure in the form of a silicon (Si) substrate having micromechanical features formed in the substrate, said basic scintillator structure having a front and a back, wherein the step of providing a basic scintillator structure further comprises filling said micromechanical features with scintillating material; - applying a reflector on the front of the basic scintillator structure; said method being characterized in the steps of - opening the back of said basic scintillator structure to create a scintillator having open ended micromechanical features formed in the substrate and filled with scintillating material,
A passive intermodulation, i.e. PIM, test system comprising: a PIM antenna configured to be tuned by loop size to receive radio frequency signals comprising the PIM frequency of interest generated by one or more broadcast frequencies of a site antenna, wherein the PIM antenna is a loop antenna; a wand configured to support the PIM antenna on one end and configured for positioning the PIM antenna by hand; a coaxial cable configured to be electrically connected to and extending from the PIM antenna; a filter configured to be connectable to the coaxial cable and to suppress the broadcast frequencies and pass the PIM frequencies of interest; and a signal analyzer configured to be connectable to the coaxial cable and to display a representation of the PIM received by the PIM antenna; wherein the PIM antenna comprises a near field magnetic field antenna operative to detect a signal from a source of PIM interference broadcast by the site antenna, the source of PIM interference being characterized by a wavelength, by placing the PIM antenna within one wavelength of the source of the PIM interference, and wherein the signal analyzer is configured to locate the source of PIM interference based on the strength of the detected signal. a PIM antenna configured to be tuned by loop size to receive radio frequency signals comprising the PIM frequency of interest generated by one or more broadcast frequencies of a site antenna, wherein the PIM antenna is a loop antenna; a wand configured to support the PIM antenna on one end and configured for positioning the PIM antenna by hand; a coaxial cable configured to be electrically connected to and extending from the PIM antenna; a filter configured to be connectable to the coaxial cable and to suppress the broadcast frequencies and pass the PIM frequencies of interest; and a signal analyzer configured to be connectable to the coaxial cable and to display a representation of the PIM received by the PIM antenna; wherein the PIM antenna comprises a near field magnetic field antenna operative to detect a signal from a source of PIM interference broadcast by the site antenna, the source of PIM interference being characterized by a wavelength, by placing the PIM antenna within one wavelength of the source of the PIM interference, and wherein the signal analyzer is configured to locate the source of PIM interference based on the strength of the detected signal.
A method for the gas-chromatic separation and determination of volatile substances in a carrier gas by means of a chromatographic separation capillary, wherein the separation capillary and/or a sheath capillary surrounding the separation capillary is electrically conductive and is heated with current in the form of resistance heating and is/are cooled by a forced convective flow by means of a fluid, characterized in that the separation capillary and/or the sheath capillary is are subject to a radial incident flow and a continuous temperature variation in the form of a gradient along the separation capillary and/or sheath capillary is produced by a continuous change in the speed of flow of the cooling fluid streaming in the separation capillary and/or the sheath capillary.
A trim element comprising: - a decorative layer comprising an outer face at least partially defining the outer surface of the trim element, an inner face opposite the outer face, and a plurality of openings extending between the outer face and the inner face, at least the outer face of the decorative layer having a decorative color; - a support layer comprising an outer face, an inner face and at least one flexible layer, the support layer being translucent at least opposite the openings in the decorative layer; - a bonding layer bonding the inner face of the decorative layer to the outer face of the support layer, said bonding layer being translucent at least opposite the openings in the decorative layer; and - a lighting device configured to emit light towards the inner face of the support layer, said light passing through the support layer and the bonding layer and at least partially illuminating the outer surface of the trim element through the openings, characterized in that at least one of the support layer and the bonding layer has the same decorative color as the outer face of the decorative layer. - a decorative layer comprising an outer face at least partially defining the outer surface of the trim element, an inner face opposite the outer face, and a plurality of openings extending between the outer face and the inner face, at least the outer face of the decorative layer having a decorative color; - a support layer comprising an outer face, an inner face and at least one flexible layer, the support layer being translucent at least opposite the openings in the decorative layer; - a bonding layer bonding the inner face of the decorative layer to the outer face of the support layer, said bonding layer being translucent at least opposite the openings in the decorative layer; and - a lighting device configured to emit light towards the inner face of the support layer, said light passing through the support layer and the bonding layer and at least partially illuminating the outer surface of the trim element through the openings, characterized in that at least one of the support layer and the bonding layer has the same decorative color as the outer face of the decorative layer.
Novolac which has been modified to be flame-retardant using 9,10-dihydro-9-oxa-10-phosphapheanthrene and/or a derivative thereof and corresponds to the following formula: in which R 1 is selected from i) hydrogen, ii) a DOP group of formula iii) a DOPO group of formula and iv) a DOPS group of formula and n ≥ 2; wherein a plurality of the R 1 groups are DOP, DOPO and/or DOPS groups. i) hydrogen, ii) a DOP group of formula iii) a DOPO group of formula and iv) a DOPS group of formula and
A compound of formula or a pharmaceutically acceptable salt thereof for use in the treatment or prevention of a central nervous system disorder wherein the central nervous system disorder is selected from the group consisting of Friedreich's ataxia, a brain injury, a rare metabolic disease, global or local ischemia, intracerebral haemorrhage, stroke, vascular dementia, meningitis caused by viral infection in the nervous system, encephalitis caused by viral infection in the nervous system, and a metastasis of a primary brain tumor.
A secondary battery, comprising an electrode assembly, a housing and a top cover assembly, wherein the housing has an accommodating chamber, the accommodating chamber having an opening, and the electrode assembly being accommodated in the accommodating chamber; the electrode assembly comprises a plurality of electrode units, the plurality of electrode units being stacked in an axial direction of the accommodating chamber; the top cover assembly comprises a top cover plate and an insulating member arranged on an inner side of the top cover plate, the top cover plate being connected to the housing, and the insulating member being located on a side of the electrode assembly in the axial direction; and a first buffer gap is provided between the insulating member and the top cover plate; wherein one side of the insulating member close to the top cover plate is provided with a first recess; one side of the top cover plate close to the insulating member is provided with a fixing hole; and the insulating member is provided with a connecting portion extending from a bottom wall of the first recess, and the connecting portion is inserted into the fixing hole of the top cover plate and is fixed to the top cover plate; wherein the connecting portion comprises a first region and a second region, the first region extending from a bottom wall of the first recess, the second region extending from an end of the first region away from the bottom wall and being inserted into the fixing hole, and a diameter of the first region is larger than a diameter of the second region and a diameter of the fixing hole. the housing has an accommodating chamber, the accommodating chamber having an opening, and the electrode assembly being accommodated in the accommodating chamber; the electrode assembly comprises a plurality of electrode units, the plurality of electrode units being stacked in an axial direction of the accommodating chamber; the top cover assembly comprises a top cover plate and an insulating member arranged on an inner side of the top cover plate, the top cover plate being connected to the housing, and the insulating member being located on a side of the electrode assembly in the axial direction; and a first buffer gap is provided between the insulating member and the top cover plate; wherein one side of the insulating member close to the top cover plate is provided with a first recess; one side of the top cover plate close to the insulating member is provided with a fixing hole; and the insulating member is provided with a connecting portion extending from a bottom wall of the first recess, and the connecting portion is inserted into the fixing hole of the top cover plate and is fixed to the top cover plate; wherein the connecting portion comprises a first region and a second region, the first region extending from a bottom wall of the first recess, the second region extending from an end of the first region away from the bottom wall and being inserted into the fixing hole, and a diameter of the first region is larger than a diameter of the second region and a diameter of the fixing hole.