mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining how an individual responds to immunotherapy for cancer comprising detecting the presence or absence in the individual of: - all of the chromosome interactions represented by the probe sequences shown in Table 8c to thereby determine whether the individual will be responsive to immunotherapy; and/or - all of the chromosome interactions represented by the probe sequences shown in Table 2.a3 to thereby determine whether the individual is a hyper-progressor in whom immunotherapy will accelerate disease. - all of the chromosome interactions represented by the probe sequences shown in Table 8c to thereby determine whether the individual will be responsive to immunotherapy; and/or - all of the chromosome interactions represented by the probe sequences shown in Table 2.a3 to thereby determine whether the individual is a hyper-progressor in whom immunotherapy will accelerate disease.
An energy storage device electrode, comprising a current-collecting substrate, a carbon nanotube-containing undercoat layer formed on at least one side of the current-collecting substrate, and an active material layer formed on a surface of the undercoat layer, wherein the active material layer contains no conductive additive, the undercoat layer includes a carbon nanotube dispersant made of a pendant oxazoline group-containing polymer, and the coating weight of the undercoat layer per side of the current-collecting substrate is from 0.001 g/m 2 to 1.5 g/m 2 . a current-collecting substrate, a carbon nanotube-containing undercoat layer formed on at least one side of the current-collecting substrate, and an active material layer formed on a surface of the undercoat layer, wherein the active material layer contains no conductive additive, the undercoat layer includes a carbon nanotube dispersant made of a pendant oxazoline group-containing polymer, and the coating weight of the undercoat layer per side of the current-collecting substrate is from 0.001 g/m 2 to 1.5 g/m 2 .
A microphone (M) comprising: a microphone unit ; an impedance converter that converts output impedance of the microphone unit ; a light source that notifies an operation state of the microphone unit ; a conversion substrate on which the impedance converter is mounted; a light source substrate on which the light source is mounted; characterised by a connection substrate to which a signal line that transmits a signal from the impedance converter and a power line that transmits power to the light source are connected, wherein the conversion substrate , the light source substrate , and the connection substrate are three-dimensionally connected to one another to constitute one substrate unit . a microphone unit ; an impedance converter that converts output impedance of the microphone unit ; a light source that notifies an operation state of the microphone unit ; a conversion substrate on which the impedance converter is mounted; a light source substrate on which the light source is mounted; characterised by a connection substrate to which a signal line that transmits a signal from the impedance converter and a power line that transmits power to the light source are connected, wherein the conversion substrate , the light source substrate , and the connection substrate are three-dimensionally connected to one another to constitute one substrate unit .
End cap for at least partially covering a glass-fibre laying pipe, with a cylindrical basic shape, having along its longitudinal axis an inner cylindrical receiving section , with an end surface , and an operator-control head , wherein the receiving section has at least one lateral partial slot formation which extends only over part of the height of the lateral surface, and has on the inner side at least one element of a form-fit connection for interaction with the glass-fibre laying pipe to be covered, wherein the operator-control head has a concentric opening for lead-through of the glass-fibre cable, wherein the end cap is characterized in that the at least one lateral partial slot formation has a relief bore at the end point within the lateral-surface contour, in that the receiving section has a continuous lateral longitudinal slot formation , wherein the continuous lateral longitudinal slot formation extends over the full height of the lateral surface of the end cap and is configured for lateral insertion of a glass-fibre cable and subsequent attachment of the end cap to the glass-fibre laying pipe, wherein a sealing element , in particular in the form of a disc or a ring, is arranged on the inner end surface of the cylindrical receiving section , and the sealing element closes off at least parts of the longitudinal slot formation within the lateral-surface contour and is adapted in particular to the lateral-surface inner contour of the end cap . has on the inner side at least one element of a form-fit connection for interaction with the glass-fibre laying pipe to be covered, wherein the operator-control head has a concentric opening for lead-through of the glass-fibre cable, wherein the end cap is characterized in that the at least one lateral partial slot formation has a relief bore at the end point within the lateral-surface contour, in that the receiving section has a continuous lateral longitudinal slot formation , wherein the continuous lateral longitudinal slot formation extends over the full height of the lateral surface of the end cap and is configured for lateral insertion of a glass-fibre cable and subsequent attachment of the end cap to the glass-fibre laying pipe, wherein a sealing element , in particular in the form of a disc or a ring, is arranged on the inner end surface of the cylindrical receiving section , and the sealing element closes off at least parts of the longitudinal slot formation within the lateral-surface contour and is adapted in particular to the lateral-surface inner contour of the end cap .
A method for a client device to request data from a cloud storage device , the method comprising: receiving, at the client device, a user request (UR) specifying requested data (RD), producing, at the client device, a client evaluation result (ER1) by evaluating an access policy associated with the requested data, transmitting, by the client device, the user request (UR) to the cloud storage device , receiving, at the client device, a cloud evaluation result (ER2) from the cloud storage device , the cloud evaluation result (ER2) being produced by the cloud storage device by evaluating the access policy associated with the requested data, comparing, at the client device, the client evaluation result (ER1) and the cloud evaluation result (ER2), and producing, if the client evaluation result (ER1) fails to match the cloud evaluation result (ER2), a warning message (WM). receiving, at the client device, a user request (UR) specifying requested data (RD), producing, at the client device, a client evaluation result (ER1) by evaluating an access policy associated with the requested data, transmitting, by the client device, the user request (UR) to the cloud storage device , receiving, at the client device, a cloud evaluation result (ER2) from the cloud storage device , the cloud evaluation result (ER2) being produced by the cloud storage device by evaluating the access policy associated with the requested data, comparing, at the client device, the client evaluation result (ER1) and the cloud evaluation result (ER2), and producing, if the client evaluation result (ER1) fails to match the cloud evaluation result (ER2), a warning message (WM).
A peptide consisting of an amino acid sequence of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3.
Device for isolating a lenticule in the cornea of an eye , which comprises - a laser beam source that is configured to emit pulsed laser radiation with - a pulse frequency of 1.2 MHz to 10 MHz, - a pulse energy of 1 nJ to less than 200 nJ and - a wavelength which penetrates the cornea , - a beam forming unit which comprises - beam optics , which have an image field and which bundle the pulsed laser radiation in the cornea into a focus which is located inside the image field and which has a maximum diameter of less than 3 μm, and - a beam deflection unit which shifts the focus in the cornea and inside the image field, wherein the focus moves along a path at resting image field, - a control unit , which is configured to control the laser beam source and the beam forming unit , in order to isolate the lenticule in the cornea by specifying the path , which lenticule is delimited by at least one cut surface which is curved with regard to a front surface of the cornea . - a laser beam source that is configured to emit pulsed laser radiation with - a pulse frequency of 1.2 MHz to 10 MHz, - a pulse energy of 1 nJ to less than 200 nJ and - a wavelength which penetrates the cornea , - a pulse frequency of 1.2 MHz to 10 MHz, - a pulse energy of 1 nJ to less than 200 nJ and - a wavelength which penetrates the cornea , - a beam forming unit which comprises - beam optics , which have an image field and which bundle the pulsed laser radiation in the cornea into a focus which is located inside the image field and which has a maximum diameter of less than 3 μm, and - a beam deflection unit which shifts the focus in the cornea and inside the image field, wherein the focus moves along a path at resting image field, - beam optics , which have an image field and which bundle the pulsed laser radiation in the cornea into a focus which is located inside the image field and which has a maximum diameter of less than 3 μm, and - a beam deflection unit which shifts the focus in the cornea and inside the image field, wherein the focus moves along a path at resting image field, - a control unit , which is configured to control the laser beam source and the beam forming unit , in order to isolate the lenticule in the cornea by specifying the path , which lenticule is delimited by at least one cut surface which is curved with regard to a front surface of the cornea .
A method of decoding image data for reproduction on a display, comprising: extracting metadata from the image data, the metadata indicating a localized gamut definition and the metadata providing information about the localized gamut definition for one or more particular frames; decompressing the image data; and applying an inverse gamut transform to the image data, wherein the inverse gamut transform maps color coordinate values of the localized gamut definition to color coordinate values of an image data format for reproduction on the display, wherein the gamut of the localized gamut definition is smaller than the gamut of the image data. extracting metadata from the image data, the metadata indicating a localized gamut definition and the metadata providing information about the localized gamut definition for one or more particular frames; decompressing the image data; and applying an inverse gamut transform to the image data, wherein the inverse gamut transform maps color coordinate values of the localized gamut definition to color coordinate values of an image data format for reproduction on the display, wherein the gamut of the localized gamut definition is smaller than the gamut of the image data.
A phase shift mask blank having a transparent substrate and a phase shift film formed on the transparent substrate, wherein the phase shift film has a phase difference of 160 to 200° and a transmittance of 3 to 15% at exposure wavelength of 200 nm or less, the phase shift film includes a lower layer and an upper layer in order from the transparent substrate side, the upper layer contains transition metal, silicon, nitrogen and/or oxygen, or silicon, nitrogen and/or oxygen, the lower layer contains chromium, silicon, nitrogen and/or oxygen, and the content of silicon is 3 at% or more to less than 15 at% for the sum of chromium and silicon in the lower layer, and the ratio of oxygen content to the total content of chromium and silicon is less than 1.7, and etching selectivity of the upper layer is 10 or more compared to the lower layer in fluorine-based dry etching. the phase shift film has a phase difference of 160 to 200° and a transmittance of 3 to 15% at exposure wavelength of 200 nm or less, the phase shift film includes a lower layer and an upper layer in order from the transparent substrate side, the upper layer contains transition metal, silicon, nitrogen and/or oxygen, or silicon, nitrogen and/or oxygen, the lower layer contains chromium, silicon, nitrogen and/or oxygen, and the content of silicon is 3 at% or more to less than 15 at% for the sum of chromium and silicon in the lower layer, and the ratio of oxygen content to the total content of chromium and silicon is less than 1.7, and etching selectivity of the upper layer is 10 or more compared to the lower layer in fluorine-based dry etching.
Ion exchange apparatus for use in ion exchange processes, in particular for changing the material composition of a solution, having a plurality of columns (C) through which fluid can flow, each column having a first inflow/outflow end and a second inflow/outflow end and with a plurality of media paths (P), wherein each inflow/outflow end can be coupled to at least two media paths (P); wherein each media path (P) has one or more inlets and the media paths (P) have one or more outlets , characterised in that a crossing is provided between adjacent columns (C), which crossing is implemented by means of four valves (YX11, YX12, YX13, YX14) connected to one another via H-piping and by means of which any number of adjacent columns (C) can be operated in series, wherein the first inflow/outflow ends and the second inflow/outflow ends of two neighbouring columns (C) can be coupled to one another in any desired manner by means of the intersection to provide a fluid path. having a plurality of columns (C) through which fluid can flow, each column having a first inflow/outflow end and a second inflow/outflow end and with a plurality of media paths (P), wherein each inflow/outflow end can be coupled to at least two media paths (P); wherein each media path (P) has one or more inlets and the media paths (P) have one or more outlets , characterised in that a crossing is provided between adjacent columns (C), which crossing is implemented by means of four valves (YX11, YX12, YX13, YX14) connected to one another via H-piping and by means of which any number of adjacent columns (C) can be operated in series, wherein the first inflow/outflow ends and the second inflow/outflow ends of two neighbouring columns (C) can be coupled to one another in any desired manner by means of the intersection to provide a fluid path.
A method for bonding a connector on a substrate , comprising: - bringing an installation device into contact with the substrate in such a way that the installation device and the substrate delimit a hermetic space , said connector being installed in said hermetic space and arranged with a gap to the substrate; - reducing the pressure within said hermetic space, the reduction in pressure bringing the pressure within the hermetic space below a saturation vapor pressure of water or below 900mbar; - when the conditions relative to humidity or the presence of liquid water in the hermetic space are suitable for bonding the adhesive, moving the connector toward the substrate to compress an adhesive between the substrate and the connector. - bringing an installation device into contact with the substrate in such a way that the installation device and the substrate delimit a hermetic space , said connector being installed in said hermetic space and arranged with a gap to the substrate; - reducing the pressure within said hermetic space, the reduction in pressure bringing the pressure within the hermetic space below a saturation vapor pressure of water or below 900mbar; - when the conditions relative to humidity or the presence of liquid water in the hermetic space are suitable for bonding the adhesive, moving the connector toward the substrate to compress an adhesive between the substrate and the connector.
Method for producing a composite material, in particular a steel composite material, comprising the following method steps: -- providing a first workpiece and a second workpiece , -- producing a bonded connection between the first workpiece and the second workpiece to form a provisional composite and -- rolling, in particular hot rolling, the provisional composite to form the composite material, wherein in that, during the rolling, the bonded connection is at least partially broken as a predetermined breaking point. -- providing a first workpiece and a second workpiece , -- producing a bonded connection between the first workpiece and the second workpiece to form a provisional composite and -- rolling, in particular hot rolling, the provisional composite to form the composite material,
A solids heat exchanger comprising a shell and tube type heat exchanger having a shell side provided with a heating means comprising induction heating means and a tube side suitable for receiving waste material to be heated wherein one or more tubes are provided each having extending longitudinally therein a screw conveyor rotatable so as to convey said material to be heated along the length of said tube and wherein the heat exchanger further comprises a filter and condenser arrangement for separating oil, hydrocarbons and water from the output material.
A power tool stand comprising a base ; a projecting frame connected to the base; a power tool carriage moveably mounted on the projecting frame; and a tool interface mounted on the power tool carriage arranged to secure a removeable power tool; wherein the power tool carriage comprises at least one duct having a duct inlet (802 or 816), in fluid communication with a duct outlet (804 or 814), and characterised in that the at least one duct is a water duct connectable to a supply of water or an air duct connectable to a vacuum supply. a base ; a projecting frame connected to the base; a power tool carriage moveably mounted on the projecting frame; and a tool interface mounted on the power tool carriage arranged to secure a removeable power tool; wherein the power tool carriage comprises at least one duct having a duct inlet (802 or 816), in fluid communication with a duct outlet (804 or 814), and characterised in that the at least one duct is a water duct connectable to a supply of water or an air duct connectable to a vacuum supply.
A transdermal and/or dermal composition comprising: (a) from 2% to 25% by total weight or total volume of an ethoxylated macadamia nut oil, (b) from 1% to 70% by total weight or total volume of ethanol, (c) from 0.5% to 12.0% by total weight or total volume of an active ingredient selected from the group consisting of aspirin, acetaminophen, naproxen, ketoprofen, ibuprofen, and insulin, and (d) optionally, water, wherein greater than 90% of the particles of the active ingredient in the composition have a particle size that is less than 30, 20, 19, 18, 17, 16, 15, 14, 13, 12, 11, 10, 9, 8, 7, 6, 5, or 4 nanometers, or smaller, as determined by Dynamic Light Scattering, using a volume-weighted particle size distribution calculation method. (a) from 2% to 25% by total weight or total volume of an ethoxylated macadamia nut oil, (b) from 1% to 70% by total weight or total volume of ethanol, (c) from 0.5% to 12.0% by total weight or total volume of an active ingredient selected from the group consisting of aspirin, acetaminophen, naproxen, ketoprofen, ibuprofen, and insulin, and (d) optionally, water,
A method for authenticating a diffractive element , comprising: recording of at least two images of the diffractive element using a portable device having an image recording apparatus , wherein the images are recorded with different spatial orientations of the portable device relative to the diffractive element , characterized in that the method comprises: determining the spatial orientations of the portable device relative to the diffractive element during the recording of the images with respect to at least two spatial directions, wherein the spatial orientations of the portable device relative to the diffractive element are determined by way of orientation sensors that are integrated in the portable device in relation to a known reference orientation relative to the diffractive element and/or by way of analysis of the recorded images; generating recording data from the images and the associated spatial orientations; and electronically comparing the recording data with reference data. determining the spatial orientations of the portable device relative to the diffractive element during the recording of the images with respect to at least two spatial directions, wherein the spatial orientations of the portable device relative to the diffractive element are determined by way of orientation sensors that are integrated in the portable device in relation to a known reference orientation relative to the diffractive element and/or by way of analysis of the recorded images; generating recording data from the images and the associated spatial orientations; and electronically comparing the recording data with reference data.
Method for the production of a laminate consisting of a wood-based panel and a decorative paper arranged on the wood-based panel comprising the steps a) providing the wood-based panel, b) scattering at least one layer of at least one pulverulent resin onto at least one side of the wood-based panel, wherein the surface of the side of the wood-based panel to be scattered with the pulverulent resin is unsanded and is provided with a pressed skin or rotting layer; c) placing at least one decorative paper impregnated on the side opposite to the decor to the side of the wood-based panel which has been provided with the pulverulent resin; and c2) placing at least one overlay to the decorative paper; and d) pressing the layered structure of wood-based panel, pulverulent resin and decorative paper. a) providing the wood-based panel, b) scattering at least one layer of at least one pulverulent resin onto at least one side of the wood-based panel, wherein the surface of the side of the wood-based panel to be scattered with the pulverulent resin is unsanded and is provided with a pressed skin or rotting layer; c) placing at least one decorative paper impregnated on the side opposite to the decor to the side of the wood-based panel which has been provided with the pulverulent resin; and c2) placing at least one overlay to the decorative paper; and d) pressing the layered structure of wood-based panel, pulverulent resin and decorative paper.
Process for preparing a porous material, at least comprising the steps of: a) providing a mixture (I) comprising (i) a composition (A) comprising components suitable to form an organic gel and (ii) a solvent (B), b) reacting the components in the composition (A) in the presence of the solvent (B) to form a gel, and c) drying of the gel obtained in step b), wherein the composition (A) comprises a catalyst (C) selected from the group consisting of alkali metal and earth alkali metal salts of linear saturated or unsaturated monocarboxylic acid with 4 to 7 carbon atoms, wherein the catalyst (C) is selected from the group consisting of alkali metal sorbates and earth alkali metal sorbates, wherein the composition (A) comprises at least one polyfunctional isocyanate as component (a1), and at least one aromatic amine as component (a2), optionally comprises water as component (a3), and optionally comprises at least one further catalyst as component (a4). a) providing a mixture (I) comprising (i) a composition (A) comprising components suitable to form an organic gel and (ii) a solvent (B), (i) a composition (A) comprising components suitable to form an organic gel and (ii) a solvent (B), b) reacting the components in the composition (A) in the presence of the solvent (B) to form a gel, and c) drying of the gel obtained in step b),