mhurhangee/ep-ind-claims huggingface dataset:
An amorphous solid dispersion comprising amorphous N 4-(4-([1,2,4]Triazolo[1,5- a]pyridin-7-yloxy)-3-methylphenyl)- N 6-(4,4-dimethyl-4,5-dihydrooxazol-2-yl)quinazoline-4,6-diamine or amorphous (2-((4-((4-([1,2,4]triazolo[1,5- a]pyridin-7-yloxy)-3-methylphenyl)amino)quinazolin-6-yl)amino)-4-methyl-4,5-dihydrooxazol-4-yl)methanol and a dispersion polymer, for use in treating brain metastases in a patient with ErbB2+ breast cancer.
An aqueous composition comprising a) surfactants comprising a salt of a C 10-16 alcohol ethoxylate sulfate, a betaine surfactant, and an alkyl polyglucoside; and b) at least 8 weight % of the composition of a C 16-18 fatty alcohol. a) surfactants comprising a salt of a C 10-16 alcohol ethoxylate sulfate, a betaine surfactant, and an alkyl polyglucoside; and b) at least 8 weight % of the composition of a C 16-18 fatty alcohol.
A heart valve prosthesis comprising: a tubular stent having a compressed configuration for delivery within a vasculature and a deployed configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent; one or more elements coupled to a distal end of the stent, each element including an outer generally U-shaped or V-shaped support arm (2140A, 2140B) and an inner generally V-shaped or U-shaped support arm that both distally extend from the distal end of the stent when the stent is in the compressed configuration, wherein during deployment of the prosthesis each support arm (2140A, 2140B, 2142A) bends radially outward and then towards an outer surface of the stent such that it translates more than ninety degrees from the compressed configuration to proximally extend from the distal end of the stent when the stent is in the deployed configuration; a graft material coupled to at least a portion of the heart valve prosthesis; and an anti-paravalvular leakage component including the one or more elements for sealing and an annular sealing member coupled to the one or more elements, wherein the annular sealing member comprises the graft material coupled to the one or more elements, so that the one or more elements are configured for sealing the heart valve prosthesis within the native heart valve. a tubular stent having a compressed configuration for delivery within a vasculature and a deployed configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent; one or more elements coupled to a distal end of the stent, each element including an outer generally U-shaped or V-shaped support arm (2140A, 2140B) and an inner generally V-shaped or U-shaped support arm that both distally extend from the distal end of the stent when the stent is in the compressed configuration, wherein during deployment of the prosthesis each support arm (2140A, 2140B, 2142A) bends radially outward and then towards an outer surface of the stent such that it translates more than ninety degrees from the compressed configuration to proximally extend from the distal end of the stent when the stent is in the deployed configuration; a graft material coupled to at least a portion of the heart valve prosthesis; and an anti-paravalvular leakage component including the one or more elements for sealing and an annular sealing member coupled to the one or more elements, wherein the annular sealing member comprises the graft material coupled to the one or more elements, so that the one or more elements are configured for sealing the heart valve prosthesis within the native heart valve.
A double barrel for hazardous goods, comprising an outer barrel made of plastic and an inner barrel made of plastic and received in the outer barrel, wherein the body of the outer barrel is formed of a first barrel part and a second barrel part, the first barrel part has a first connecting area and the second barrel part has a second connecting area complementary to the first connecting area, and the first and the second barrel part (20, 22) are firmly connected to each other via the connecting areas (33, 35) in an assembled state by means of a circumferential plastic weld seam, characterized in that the connecting areas (33, 35) are formed thicker in the area of the circumferential plastic weld seam by the factor 1.5 to 2.0 than the wall thickness of the outer barrel in the middle of the height of the outer barrel.
A method of pretreating a vessel to maintain storage of a precursor material in a stabilized form within the vessel, said method comprising: providing a pressure vessel and/or conduit extending therefrom having an interior volume defined by one or more metallic surfaces having hydroxyls; pretreating the one or more surfaces by applying an organic-containing material onto the one or more surfaces of the vessel and/or conduit; forming a protected surface; introducing the gaseous precursor material at a predetermined concentration of 1% or less into the interior volume of the vessel at a pressure of up to 1034 kPa (150 psia), wherein the organic-containing material is selected from the group consisting of octadecyltrichlorosilane, quercetin, and combinations thereof; wherein when said organic-containing material comprises octadecyltrichlorosilane, it is provided with the addition of a trace amount of water; wherein the gaseous precursor material is SnD 4 and said material remains chemically stable with said protected surface so as to not undergo substantial decomposition during storage within the vessel. providing a pressure vessel and/or conduit extending therefrom having an interior volume defined by one or more metallic surfaces having hydroxyls; pretreating the one or more surfaces by applying an organic-containing material onto the one or more surfaces of the vessel and/or conduit; forming a protected surface; introducing the gaseous precursor material at a predetermined concentration of 1% or less into the interior volume of the vessel at a pressure of up to 1034 kPa (150 psia), wherein the organic-containing material is selected from the group consisting of octadecyltrichlorosilane, quercetin, and combinations thereof; wherein when said organic-containing material comprises octadecyltrichlorosilane, it is provided with the addition of a trace amount of water; wherein the gaseous precursor material is SnD 4 and said material remains chemically stable with said protected surface so as to not undergo substantial decomposition during storage within the vessel.
A conductive film for use in a touch panel, the conductive film comprising: a base member having a sensor area and a non-active area defined therein; a sensor electrode formed on the base member in the sensor area and the non-active area, the sensor electrode including nano-material conductors defining a network structure; an over-coating layer configured to cover the sensor electrode in the sensor area and the non-active area; and a wiring electrode formed on the over-coating layer in the non-active area, the wiring electrode including a pad portion electrically connected to the sensor electrode and a wiring portion connected to the pad portion, wherein the over-coating layer includes a first portion located between the sensor electrode and the wiring electrode and includes a recess, the recess including at least one of a perforation formed through the over-coating layer and a thin film portion providing the first portion with a smaller thickness than a remaining portion of the over-coating layer. a base member having a sensor area and a non-active area defined therein; a sensor electrode formed on the base member in the sensor area and the non-active area, the sensor electrode including nano-material conductors defining a network structure; an over-coating layer configured to cover the sensor electrode in the sensor area and the non-active area; and a wiring electrode formed on the over-coating layer in the non-active area, the wiring electrode including a pad portion electrically connected to the sensor electrode and a wiring portion connected to the pad portion, wherein the over-coating layer includes a first portion located between the sensor electrode and the wiring electrode and includes a recess, the recess including at least one of a perforation formed through the over-coating layer and a thin film portion providing the first portion with a smaller thickness than a remaining portion of the over-coating layer.
A door or window assembly, comprising: a track assembly; a first leaf slidable along the track assembly in a plane of the first leaf between a first position and a second position; a second leaf moveably coupled to the track assembly, wherein the first leaf is arranged to engage the second leaf to form a combined leaf when the first leaf is in the second position; a third leaf pivotally coupled to the second leaf, wherein the combined leaf is arranged to be foldable against the third leaf; characterized by a locking mechanism operable to lock the second leaf in a stationary position relative to the track assembly, wherein the locking mechanism is released when the first leaf engages the second leaf in the second position. a track assembly; a first leaf slidable along the track assembly in a plane of the first leaf between a first position and a second position; a second leaf moveably coupled to the track assembly, wherein the first leaf is arranged to engage the second leaf to form a combined leaf when the first leaf is in the second position; a third leaf pivotally coupled to the second leaf, wherein the combined leaf is arranged to be foldable against the third leaf; characterized by a locking mechanism operable to lock the second leaf in a stationary position relative to the track assembly, wherein the locking mechanism is released when the first leaf engages the second leaf in the second position.
A computer-implemented method of encoding an audio signal using a neural network, the method including the steps of: (a) obtaining a perceptual domain audio signal by applying a mask indicative of masking thresholds derived from a psychoacoustic model to the audio signal in an original signal domain; (b) inputting the perceptual domain audio signal into a neural network for mapping the perceptual domain audio signal to a latent feature space representation; (c) obtaining, as an output from the neural network, the latent feature space representation of the perceptual domain audio signal; and (d) outputting the latent feature space representation of the perceptual domain audio signal in a bitstream. (a) obtaining a perceptual domain audio signal by applying a mask indicative of masking thresholds derived from a psychoacoustic model to the audio signal in an original signal domain; (b) inputting the perceptual domain audio signal into a neural network for mapping the perceptual domain audio signal to a latent feature space representation; (c) obtaining, as an output from the neural network, the latent feature space representation of the perceptual domain audio signal; and (d) outputting the latent feature space representation of the perceptual domain audio signal in a bitstream.
An assembly, comprising: a busbar that includes: a first layer, wherein: the first layer defines: a first layer top surface; a first layer bottom surface; a first layer first end; a first layer second end; and a first layer center region between the first layer first and second ends (140, 150); and the first layer forms first layer perforations; a second layer, wherein the second layer is disposed against the first layer bottom surface and electrically isolated from the first layer, and wherein the second layer defines connector orifices, having a same size as each other, that are aligned with the first layer perforations; and a first capacitor, wherein the first capacitor is supported against and electrically connected to the first layer top surface, and wherein the first capacitor includes busbar connectors, and the busbar connectors respectively extend through the first layer perforations to electrically connect with the connector orifices, characterized in that the first layer perforations are of different sizes about the first layer center region so that perforations closer to the first layer first end are smaller than perforations spaced apart from the first layer first end. the first layer defines: a first layer top surface; a first layer bottom surface; a first layer first end; a first layer second end; and a first layer center region between the first layer first and second ends (140, 150); and the first layer forms first layer perforations; a second layer, wherein the second layer is disposed against the first layer bottom surface and electrically isolated from the first layer, and wherein the second layer defines connector orifices, having a same size as each other, that are aligned with the first layer perforations; and a first capacitor, wherein the first capacitor is supported against and electrically connected to the first layer top surface, and wherein the first capacitor includes busbar connectors, and the busbar connectors respectively extend through the first layer perforations to electrically connect with the connector orifices, characterized in that the first layer perforations are of different sizes about the first layer center region so that perforations closer to the first layer first end are smaller than perforations spaced apart from the first layer first end.
A golf ball comprising a core with a diameter being equal to or greater than 36.0 mm and equal to or less than 41.0 mm, an inner cover positioned outside the core, a mid cover positioned outside the inner cover, and an outer cover positioned outside the mid cover, wherein when distances from the central point of the core to nine points and JIS-C hardnesses at the nine points, which nine points are obtained by dividing the region from the central point of the core to the surface of the core at intervals of 12.5% of the radius of the core, are plotted in a graph, R 2 of the linear approximation curve obtained by the least-square method is equal to or greater than 0.95, the JIS-C hardness Hs at the surface of the core is greater than the JIS-C hardness Hi of the inner cover, and the JIS-C hardness Ho of the outer cover is greater than the JIS-C hardness Hi of the inner cover, and the difference Hs-H between the hardness Hs at the surface of the core and the hardness H at the central point of the core is equal to or greater than 15, and the total thickness of the inner cover, the mid cover and the outer cover is equal to or less than 2.5 mm.
Laminated structure comprising, in succession: at least a first glass sheet; a second glass sheet connected to the first via an adhesive layer, the edge of the second glass sheet being set back from that of the first on at least one side; a third glass sheet connected to the second via an adhesive layer, the edge of the second glass sheet being, on at least said side, set back from that of the third which is itself set back from that of the first; optionally one or more additional glass sheets connected to the third and, where appropriate, to one another via one or more adhesive layers; a sheet for dampening the impact of a projectile, is connected to the third or last glass sheet via an adhesive layer; and an armoring insert made of material of high bullet that occupies, on at least said side, at least part of the cavity bounded by the edges of the first and third glass sheets (1, 5) and the end face of the second glass sheet, characterized in that, on at least said side, the edges of the third glass sheet and of said additional glass sheet or sheets are set back from that of the sheet in order to dampen the impact of a projectile, in that the space between the armoring insert, the end face of the third glass sheet and the edge of the sheet for dampening the impact of a projectile is at least partly occupied by a material (30, 31) capable of absorbing the energy of a projectile, in that the material (30, 31) capable of absorbing the energy of a projectile is bonded to the armoring insert, to the end face of the third glass sheet and to the sheet for dampening the impact of a projectile, via a material capable of flowing and of ensuring degassing during assembly of the laminated structure, and in that an encapsulation material, impervious to the material flowing during the assembly and impermeable to the penetration of moisture into the laminated structure, encapsulates at least that portion of the end face of said laminated structure which lies between the end face of the sheet for dampening the impact of a projectile and at least part of the armoring insert.
A Microelectromechanical System (MEMS), comprising: a substrate; a released proof mass disposed over a first area of the substrate and having: a first body region comprising a thick metal layer over a thin metal layer; and a first sensing structure comprising the thin metal layer, but lacking the thick metal layer; a frame disposed over a second area of the substrate, the frame having: a second body region; and a second sensing structure separated from the first sensing structure by a gap to register a change in capacitance with displacement of the proof mass relative to the frame, characterized in that the second body region comprises at least the thick metal layer; the second sensing structure comprises the thin metal layer, but also lacks the thick metal layer, and in that the thick metal layer has a film thickness that is at least three times greater than that of the thin metal layer. a substrate; a released proof mass disposed over a first area of the substrate and having: a first body region comprising a thick metal layer over a thin metal layer; and a first sensing structure comprising the thin metal layer, but lacking the thick metal layer; a first body region comprising a thick metal layer over a thin metal layer; and a first sensing structure comprising the thin metal layer, but lacking the thick metal layer; a frame disposed over a second area of the substrate, the frame having: a second body region; and a second sensing structure separated from the first sensing structure by a gap to register a change in capacitance with displacement of the proof mass relative to the frame, characterized in that the second body region comprises at least the thick metal layer; the second sensing structure comprises the thin metal layer, but also lacks the thick metal layer, and in that the thick metal layer has a film thickness that is at least three times greater than that of the thin metal layer. a second body region; and a second sensing structure separated from the first sensing structure by a gap to register a change in capacitance with displacement of the proof mass relative to the frame, characterized in that the second body region comprises at least the thick metal layer; the second sensing structure comprises the thin metal layer, but also lacks the thick metal layer, and in that the thick metal layer has a film thickness that is at least three times greater than that of the thin metal layer.
Filter apparatus connected to a wiring drawing portion (R, S, T) of a frequency converter, the filter apparatus comprising: a condenser element having an electronic part having an insulator as a dielectric material held between conductor plates; a sealing agent sealing the condenser element; a filter circuit comprising the condenser element; a connection conductor establishing wiring connections of the filter circuit; and a filter housing supporting the sealing agent, wherein the filter housing has an opening at the wiring drawing portion (R, S, T) and a fitting portion for fitting with a part of the frequency converter, the connection conductor has terminals (8, 9, 10) consisting of deformable metal which are connected with the frequency converter through the opening at the wiring drawing portion and a ground connection conductor formed on a ground electrode side of the filter housing that is on an opposite side of the condenser element from the terminals (8, 9, 10), and a ground electrode of the frequency converter and the ground connection conductor are connected when the fitting portion is fitted to the part of the frequency converter. a condenser element having an electronic part having an insulator as a dielectric material held between conductor plates; a sealing agent sealing the condenser element; a filter circuit comprising the condenser element; a connection conductor establishing wiring connections of the filter circuit; and a filter housing supporting the sealing agent, wherein the filter housing has an opening at the wiring drawing portion (R, S, T) and a fitting portion for fitting with a part of the frequency converter, the connection conductor has terminals (8, 9, 10) consisting of deformable metal which are connected with the frequency converter through the opening at the wiring drawing portion and a ground connection conductor formed on a ground electrode side of the filter housing that is on an opposite side of the condenser element from the terminals (8, 9, 10), and a ground electrode of the frequency converter and the ground connection conductor are connected when the fitting portion is fitted to the part of the frequency converter.
A composition comprising one or more species of living cells, and a mixture of at least one degradable hydrogel and at least one kind of degradable and surface cross-linked particle, wherein the at least one kind of degradable and surface cross-linked particle comprises a material which degrades faster than the at least one degradable hydrogel, wherein the at least one kind of degradable and surface cross-linked particle has a surface comprising additional reactive groups to bind the one or more species of living cells to its surface, and wherein the one or more species of living cells bound to the surface of the at least one kind of degradable and surface cross-linked particle are comprised in the at least one degradable hydrogel, and wherein the at least one degradable hydrogel of the mixture is formable to a hydrogel matrix.