mhurhangee/ep-ind-claims huggingface dataset:
A shoe insert for insertion into a shoe, comprising a first end having a dome-shaped part to be received in a toe portion of a shoe and an opposite second end having a curved shell-shaped part configured to act as a shoe horn, wherein the shoe insert further comprises a connecting part connecting the first end and the second end (2, 4), wherein the first end, the second end and the connecting part arranged there between are integrally formed, wherein the dome-shaped part comprises a convex dome surface and wherein the curved shell-shaped part comprises a convex shoe horn surface, wherein the convex dome surface and the convex shoe horn surface are arranged in opposite facing directions.
A system of outwardly opening window assemblies comprising at least two window assemblies (1,40), a first of said at least two window assemblies comprising a window frame, a window sash displaceably connected to the window frame via a mounting fitting, a double or triple glazed window pane mounted in the window sash, a glazing bead mounted on the outside of the window pane after the window pane has been placed in the sash and a primary sealing interface located between the frame and the window sash in the closed position of the window, and a second of said at least two window assemblies comprising a window frame, a double or triple glazed window pane identical to the window pane of the first window assembly and mounted directly in the window frame, a glazing bead mounted on the outside of the window pane after the window pane has been placed in the window frame and a primary sealing interface located between the window frame and the window pane, characterized in that the distance (w 4a) from the primary sealing interface of the first window assembly to the outside surface of the window pane of the first window assembly is greater than the distance (w 4c) from the primary sealing interface of the second window assembly to the outside surface of the window pane of the second window assembly and in that the distance from the innermost surface of the window frame to the outside surface of the window pane of the first window assembly is the same as the distance from the innermost surface of the window frame of the second window assembly to the outside surface of the window pane of the second window assembly.
A device for facilitating the removal of a shirt of the polo shirt or T-shirt type, the removal of the shirt being carried out through the neckline, said device comprising a textile part added to the inside of the shirt and positioned in the centre of the back of the shirt, said added part being a piece of fabric extending from the neckline of the shirt to the bottom of the shirt and comprising a longilineal part, sewn by its lateral edges onto the inside of the back of the shirt so as to provide, in the longilineal part, between the two lateral stitches, a middle space, inside which a pull cord is positioned so that said cord can slide between the added part and the inside of the back of the shirt, said pull cord comprising a movable end, which extends out of said space and which emerges therefrom through an open orifice at the end of the added part close to the neckline, characterised in that the added part further comprises a flared part, which extends the longilineal part, said flared part being sewn to the bottom of the shirt on the inside of the back of the shirt, by the extensions of the lateral stitches, the pull cord having a fixed end, which is fixed by a stitch onto the inside of the back of the shirt, at the limit between the longilineal part and the flared part of the added part, so that it cannot be completely extracted from the middle space in which it is housed.
An array substrate for a display, comprising: a base substrate; a thin film transistor on the base substrate, the thin film transistor comprising a gate electrode connected to a gate line, an active layer, a gate insulating layer insulating the gate electrode from the active layer, a first electrode connected to a data line, and a second electrode spaced apart from the first electrode; and a micro light emitting diode on the base substrate, the micro light emitting diode comprising a first electrode, a first buffer layer, a second buffer layer, a light emitting layer and a second electrode, which are stacked on top of each other, wherein the second electrode of the thin film transistor is connected to one of the first electrode of the micro light emitting diode or the second electrode of the micro light emitting diode, characterised by the first buffer layer and the active layer being in a same layer and being made of a same material in a same process, the material of the first buffer layer and the active layer comprises graphene, and a material of the second buffer layer is different from the material of the first buffer layer. a base substrate; a thin film transistor on the base substrate, the thin film transistor comprising a gate electrode connected to a gate line, an active layer, a gate insulating layer insulating the gate electrode from the active layer, a first electrode connected to a data line, and a second electrode spaced apart from the first electrode; and a micro light emitting diode on the base substrate, the micro light emitting diode comprising a first electrode, a first buffer layer, a second buffer layer, a light emitting layer and a second electrode, which are stacked on top of each other, wherein the second electrode of the thin film transistor is connected to one of the first electrode of the micro light emitting diode or the second electrode of the micro light emitting diode, characterised by the first buffer layer and the active layer being in a same layer and being made of a same material in a same process, the material of the first buffer layer and the active layer comprises graphene, and a material of the second buffer layer is different from the material of the first buffer layer.
A display device comprising: a pixel array comprising a plurality of pixels, each of the pixels comprising a three sub-pixels; a black matrix located between the sub-pixels; an optical sensing array over the black matrix, the optical sensing array comprising a row conductor, a column conductor that crosses the row conductor at a crossing region, and a sensing diode coupled to the row conductor and to the column conductor at the crossing region, wherein the sensing diode is configured to generate current in response to light incident on the sensing diode; a partial spectrum pass filter on the sensing diode, wherein the partial spectrum pass filter is configured to block a range of wavelengths of light from reaching the sensing diode, and is configured to allow a remaining range of wavelengths of light to reach the sensing diode; a light emission array adjacent the optical sensing array, wherein the light emission array is configured to generate the remaining range of wavelengths of light; characterized in that one sensing diode is located between all of the three sub-pixels of a pixel. a pixel array comprising a plurality of pixels, each of the pixels comprising a three sub-pixels; a black matrix located between the sub-pixels; an optical sensing array over the black matrix, the optical sensing array comprising a row conductor, a column conductor that crosses the row conductor at a crossing region, and a sensing diode coupled to the row conductor and to the column conductor at the crossing region, wherein the sensing diode is configured to generate current in response to light incident on the sensing diode; a partial spectrum pass filter on the sensing diode, wherein the partial spectrum pass filter is configured to block a range of wavelengths of light from reaching the sensing diode, and is configured to allow a remaining range of wavelengths of light to reach the sensing diode; a light emission array adjacent the optical sensing array, wherein the light emission array is configured to generate the remaining range of wavelengths of light; characterized in that one sensing diode is located between all of the three sub-pixels of a pixel.
Slip for producing a durable hard coating on a substrate, comprising a) silicon nitride particles, and b) a binder comprising nanosize solid particles or precursors of nanosize solid particles which by means of the sol-gel process are converted into said solid particles, wherein the binder comprises a nanocomposite comprising the nanosize solid particles in an organically modified inorganic polycondensate or a precursor thereof. a) silicon nitride particles, and b) a binder comprising nanosize solid particles or precursors of nanosize solid particles which by means of the sol-gel process are converted into said solid particles, wherein the binder comprises a nanocomposite comprising the nanosize solid particles in an organically modified inorganic polycondensate or a precursor thereof.
Method for preparing a lipophilic extract of the red pulp from the fruit of the species Pandanus conoideus by direct pressing of the separated red pulp or by extraction of the separated, crushed red pulp at temperatures below 40 °C.
N-(4-Chloro-3-methyl-1,2-oxazol-5-yl)-2-[2-(6-methyl-1,3-dihydro-2-benzofuran-5-yl)acetyl]thiophene-3-sulfonamide or a pharmacologically acceptable salt thereof.
A bump strip comprising first and second end caps (501, 502) and an intermediate part defining, together, a length of the bump strip, the end caps having an end part (511, 512) and a connecting part (512, 522); and characterised by: the connecting part (512, 522) of each of the first end cap and the second end cap (501, 502) defining a recess (504a, 504b) such that when the connecting parts of the two end caps are positioned side-by-side the recesses define a fastening hole, and wherein the intermediate part is defined by a carrier part, the carrier part also provided with one or more fastening holes, and wherein the side-by-side connecting parts and carrier part are arranged to overlap each other such that the fastening hole defined by the connecting parts and a fastening hole of the one or more fastening holes in the carrier part overlap such that a fastener can pass through the overlapped holes to secure the bump strip to the surface to be protected.
A casing for a rotating machine, the casing including: - an inner surface delimiting an inner volume for housing a rotor of said rotating machine; - a first and a second shell (11, 12) that are joined together in a dividable manner in order to constitute said inner volume, said first and second shell (11, 12) respectively comprising a first and a second split flange (13, 14) with, respectively, a first and second split surface (13a, 14a) contacting each other when said shells (11, 12) are joined together; - a plurality of holes on said first and second split flange (13, 14) passing though said first and second split surface(13a, 14a), said holes being dimensioned for housing a plurality of bolts for joining said first and second shells (11, 12); - a first groove on one of said first and second split surface connecting said plurality of holes; - a second groove on one of said first and second split surfaces (13a, 14a), between said first groove and said inner surface of said casing; - a first duct in one of said first and second flange (13, 14) for circulating a fluid to and from said first groove; - a second duct in one of said first and second flange (13, 14) for circulating a fluid to and from said second groove; - wherein said first groove is connected with an inert gas source by means of said first duct. - an inner surface delimiting an inner volume for housing a rotor of said rotating machine; - a first and a second shell (11, 12) that are joined together in a dividable manner in order to constitute said inner volume, said first and second shell (11, 12) respectively comprising a first and a second split flange (13, 14) with, respectively, a first and second split surface (13a, 14a) contacting each other when said shells (11, 12) are joined together; - a plurality of holes on said first and second split flange (13, 14) passing though said first and second split surface(13a, 14a), said holes being dimensioned for housing a plurality of bolts for joining said first and second shells (11, 12); - a first groove on one of said first and second split surface connecting said plurality of holes; - a second groove on one of said first and second split surfaces (13a, 14a), between said first groove and said inner surface of said casing; - a first duct in one of said first and second flange (13, 14) for circulating a fluid to and from said first groove; - a second duct in one of said first and second flange (13, 14) for circulating a fluid to and from said second groove; - wherein said first groove is connected with an inert gas source by means of said first duct.
A method comprising the steps of: (a) contacting a sample with a set of polypeptide constructs, wherein each polypeptide construct comprises a custom-designed polypeptide portion and an identifying nucleic acid portion that identifies the polypeptide portion, wherein the custom-designed polypeptide portions are encoded by polynucleotide sequences that are custom-designed, and wherein one or more of the polypeptide constructs are acted upon by a kinase in the sample at the custom-designed polypeptide portion(s); (b) separating the one or more polypeptide constructs that are acted upon by the kinase from the polypeptide constructs that are not acted upon by the kinase; and (c) sequencing the identifying nucleic acid portion(s) of the one or more polypeptide constructs that are acted upon by the kinase, thereby identifying the corresponding custom-designed polypeptide portion(s) as comprising a phosphorylation site by the kinase. (a) contacting a sample with a set of polypeptide constructs, wherein each polypeptide construct comprises a custom-designed polypeptide portion and an identifying nucleic acid portion that identifies the polypeptide portion, wherein the custom-designed polypeptide portions are encoded by polynucleotide sequences that are custom-designed, and wherein one or more of the polypeptide constructs are acted upon by a kinase in the sample at the custom-designed polypeptide portion(s); (b) separating the one or more polypeptide constructs that are acted upon by the kinase from the polypeptide constructs that are not acted upon by the kinase; and (c) sequencing the identifying nucleic acid portion(s) of the one or more polypeptide constructs that are acted upon by the kinase, thereby identifying the corresponding custom-designed polypeptide portion(s) as comprising a phosphorylation site by the kinase.
A multi-layered laminate comprising in ascending vertical sequence: (i) an indicator layer, (ii) an overcoat layer, (iii) a humidity control layer, (iv) a sample loading layer, and (v) a spreading layer, wherein the indicator layer (i) comprises ionophore/fluorophore sensing molecules; the overcoat layer (ii) comprises a substance that blocks visible light; the humidity control layer (iii) has opposing sides and is effective to inhibit undesirable effects of varying levels of humidity present on one side of the layer, said humidity control layer comprising: a water-insoluble, porous matrix, including a plurality of channels or through holes at least some of which extend from one side of the layer to an opposing side; and one or more water-soluble, solid, polymeric substances that fill a substantial portion of the plurality of channels or through holes; the sample loading layer (iv) has opposing sides and comprises a water-insoluble, porous matrix, including a plurality of channels or through holes at least some of which extend from one side of the layer to an opposing side; the spreading layer (v) has opposing surfaces and is effective to promote a desirable rate of spreading of a liquid sample applied on one surface of the layer, said spreading layer comprising: (a') a water-insoluble, porous matrix, including a plurality of channels or through holes at least some of which extend from one surface to an opposing surface, the matrix further characterized as including fibers having an average length falling in the range of 50 μm to 400 μm, preferably 200 μm to 300 μm; (b') one or more water-soluble, solid, polymeric substances that fill a substantial portion of the plurality of channels or through holes; and (c') one or more hydrophilic, super absorbent materials, preferably comprising poly(acrylic acids), poly(acrylic amides), their salts, or combinations thereof; and, each layer in the multi-layered laminate is different from one another in that each layer is composed of a different combination of chemical substances. a water-insoluble, porous matrix, including a plurality of channels or through holes at least some of which extend from one side of the layer to an opposing side; and one or more water-soluble, solid, polymeric substances that fill a substantial portion of the plurality of channels or through holes; (a') a water-insoluble, porous matrix, including a plurality of channels or through holes at least some of which extend from one surface to an opposing surface, the matrix further characterized as including fibers having an average length falling in the range of 50 μm to 400 μm, preferably 200 μm to 300 μm; (b') one or more water-soluble, solid, polymeric substances that fill a substantial portion of the plurality of channels or through holes; and (c') one or more hydrophilic, super absorbent materials, preferably comprising poly(acrylic acids), poly(acrylic amides), their salts, or combinations thereof; and,
A battery comprising a cathode layer, an electrolyte layer, and an anode layer, in this order, the anode layer including a silicon clathrate compound, as an anode active material, and the silicon clathrate compound having a composition represented by M x Si 46, wherein M is a metal element, x satisfies 0 < x < 8, and including a crystal phase of a Type I silicon clathrate, wherein an average primary particle size of the silicon clathrate compound is 50 nm or more and 3000 nm or less, an average secondary particle size of the silicon clathrate compound is 1 um or more and 40 um or less, and the average primary particle size and the average secondary particle size are determined by observation with a SEM, characterised in that the silicon clathrate compound includes the crystal phase of the Type I silicon clathrate as a main phase. the anode layer including a silicon clathrate compound, as an anode active material, and the silicon clathrate compound having a composition represented by M x Si 46, wherein M is a metal element, x satisfies 0 < x < 8, and including a crystal phase of a Type I silicon clathrate, wherein an average primary particle size of the silicon clathrate compound is 50 nm or more and 3000 nm or less, an average secondary particle size of the silicon clathrate compound is 1 um or more and 40 um or less, and the average primary particle size and the average secondary particle size are determined by observation with a SEM, characterised in that the silicon clathrate compound includes the crystal phase of the Type I silicon clathrate as a main phase.
A coil coating method for multilayer coating of a continuous, more particularly coated, metal strip which is disposed in the strip passage, wherein on a flat side of the metal strip a conversion layer is optionally produced, subsequently a curable polymer primer is applied on said flat side by means of a roller application for forming an electrically insulating primer layer, and a curable polymer varnish is applied and cured on said primer layer by means of roller application for forming an electrically insulating varnish layer, wherein at least one at least electrically conductive conductor track is printed at least in some areas between the primer layer and the varnish layer, wherein the conductor track is printed in some areas on the pre-cured primer layer, characterized in that the conductor track and the varnish are applied by a wet-on-wet process.
A system for wirelessly communicating with an aircraft, the system comprising: a directional slot antenna ((46, 62) having a first port and a second port for communicating with the aircraft; a processor communicatively connected with the directional slot antenna (46, 62); and a memory communicatively connected with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: determining a proximity of the aircraft to the directional slot antenna (46, 62) for wireless communication; determining availability of the directional slot antenna for wireless communication with the aircraft; selecting the directional slot antenna (46, 62) based on the determined proximity and availability; determining whether to communicate via the first port or the second port based on at least one of speed or position of the aircraft; and providing instructions for the directional slot antenna to communicate with the aircraft via the determined port of the directional slot antenna (46, 62). a directional slot antenna ((46, 62) having a first port and a second port for communicating with the aircraft; a processor communicatively connected with the directional slot antenna (46, 62); and a memory communicatively connected with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: determining a proximity of the aircraft to the directional slot antenna (46, 62) for wireless communication; determining availability of the directional slot antenna for wireless communication with the aircraft; selecting the directional slot antenna (46, 62) based on the determined proximity and availability; determining whether to communicate via the first port or the second port based on at least one of speed or position of the aircraft; and providing instructions for the directional slot antenna to communicate with the aircraft via the determined port of the directional slot antenna (46, 62). determining a proximity of the aircraft to the directional slot antenna (46, 62) for wireless communication; determining availability of the directional slot antenna for wireless communication with the aircraft; selecting the directional slot antenna (46, 62) based on the determined proximity and availability; determining whether to communicate via the first port or the second port based on at least one of speed or position of the aircraft; and providing instructions for the directional slot antenna to communicate with the aircraft via the determined port of the directional slot antenna (46, 62).