mhurhangee/ep-ind-claims huggingface dataset:
Food product packaging comprising a food product in a sealed wrapper of sheet material, comprising a first sheet shaped in a receiving configuration adapted to contain the product, having an end edge in the shape of a flange, a second sheet adhered to said flange to form a sealed wrapper surrounding the product, and a body of sheet material in the shape of a cup with a base and a side wall, characterised in that said base is adhered to said second sheet and the adhesive force between said base and said second sheet is greater than the adhesive force between the second sheet and said flange, so that a force tending to separate said body from the packaging causes the detachment of said second sheet from the flange with the opening of the packaging.
A cleaning lance intended to perform cleaning using both steam and the suction or blowing of air, comprising within it: - a first fluidic circuit, referred to as the air-suction or air-blowing circuit, comprising an air connection end piece designed to be connected to a suction and/or blowing device, an air-suction or air-blowing nozzle, a duct connecting the air connection end piece to the air-suction or air-blowing nozzle; - a second fluidic circuit, referred to as the steam generating circuit, comprising a connection end piece for connection to a pressurized liquid supply, a steam ejection nozzle, a duct connecting the connection end piece to the steam ejection nozzle, the duct housing, from upstream to downstream: • a pressurized-liquid spray nozzle designed to spray the pressurized liquid in the form of droplets, • means for generating droplets of steam from the droplets of spray, • a nozzle for atomizing the generated steam. - a first fluidic circuit, referred to as the air-suction or air-blowing circuit, comprising an air connection end piece designed to be connected to a suction and/or blowing device, an air-suction or air-blowing nozzle, a duct connecting the air connection end piece to the air-suction or air-blowing nozzle; - a second fluidic circuit, referred to as the steam generating circuit, comprising a connection end piece for connection to a pressurized liquid supply, a steam ejection nozzle, a duct connecting the connection end piece to the steam ejection nozzle, the duct housing, from upstream to downstream: • a pressurized-liquid spray nozzle designed to spray the pressurized liquid in the form of droplets, • means for generating droplets of steam from the droplets of spray, • a nozzle for atomizing the generated steam. • a pressurized-liquid spray nozzle designed to spray the pressurized liquid in the form of droplets, • means for generating droplets of steam from the droplets of spray, • a nozzle for atomizing the generated steam.
Method for printing a substrate by means of ink-jet printing, wherein landing zones which correspond to a landing zone type are predefined on the substrate in a landing zone pattern, consisting of landing zone lines and landing zone rows aligned at right angles thereto, the landing zone pattern is aligned relative to a print head in such a way that the landing zone rows extend substantially parallel to the printing direction, and the print head is activated in such a way that one or more drops of one or more print head nozzles produce a pattern of landing points within the landing zone, wherein the print head nozzles produce imaginary nozzle lines on the substrate surface with a lateral resolution representing the spacing between the nozzle lines, characterized in that the lateral resolution is chosen to be large enough that the smallest spacing of the nozzle lines is smaller than the minimum spacing of the landing zone rows and in that, in the event of a variation in the spacing of adjacent landing zone rows between various landing zone lines, predefined by the substrate, the position of the landing zones of a landing zone line relative to the nozzle lines is determined and, from the latter, only the print head nozzles of which the nozzle line intersects a landing zone are activated in accordance with a nozzle activation scheme and the corresponding landing zone type.
Supported nanocatalyst for conversion of monoolefins, comprising: (i) at least one particulate zeolite support, (ii) at least one transition metal oxide, wherein the transition metal is selected from the group consisting of Mn, Cr, V, Zr, Mo, W, Pd, Pt, Ru, Ni, Co, W and Zn, the transition metal oxide being supported on the support, wherein the average particle size of the supported nanocatalyst is from 25 - 500 nm, and pores of the nanocatalyst have an average diameter of 55 - 65 Angström. (i) at least one particulate zeolite support, (ii) at least one transition metal oxide, wherein the transition metal is selected from the group consisting of Mn, Cr, V, Zr, Mo, W, Pd, Pt, Ru, Ni, Co, W and Zn, the transition metal oxide being supported on the support,
A composition comprising Porcine Reproductive and Respiratory Syndrome Virus (PRRSV) of a European type, which is of the strain deposited with European Collection of Cell Cultures (ECACC) under the Accession Number ECACC 11012502.
A compound solar cell, comprising: a compound light absorbing layer provided over a substrate and made of a Group I-III-VI compound semiconductor; a buffer layer; a front side electrode layer; and an interface layer, wherein the interface layer is provided between the compound light absorbing layer and the buffer layer such that the interface layer is directly on the compound light absorbing layer, characterised in that the interface layer is made of a mixed crystal compound having a composition represented by the following general formula: Zn(O x,S 1-x)... wherein X is 0.9 < X < 1 or 0 < X < 0.1 and in that the buffer layer is made of a mixed crystal compound having a composition represented by the following general formula: Zn(O Y,S 1-Y)... wherein Y is 0.5 ≤ Y < 1 or represented by the following general formula: (Zn Z,Mg 1-Z)O... wherein Z is 0.5 ≤ Z < 1. a compound light absorbing layer provided over a substrate and made of a Group I-III-VI compound semiconductor; a buffer layer; a front side electrode layer; and an interface layer,
A wall element of a sliding wall, comprising a glazing with at least two glass panes (7, 8) which are arranged distanced to one another, wherein a tightening device with a tightening means which can be extended downwards and/or upwards is arranged between the glass panes (7, 8), and wherein the glass panes (7, 8) are held in a mutually distanced manner by way of a spacer, and an edge region exists between the spacer and an edge (7c, 8c) of the glass pane (7, 8), wherein the glazing is designed in a frameless manner and by way of this a front side of the wall element which is to say a front side of a wall which is formed therefrom consists completely of glass, and wherein the tightening device is arranged within the edge region, characterised in that the glass panes (7, 8) are designed in an optically transparent manner and the glass in the edge region has a reduced transparency or is designed in a completely opaque manner, so that the tightening device arranged within the wall element is not visible from the outside.
Plug system comprising a plug part with at least one contact element and a mating plug part with at least one contact point on a contact carrier surface running approximately parallel to a plugging direction, wherein the plug part can be plugged into the mating plug part in the plugging direction and in an end position the at least one contact element is in electrical contact with the contact point, the mating plug part having a counterpressure surface arranged, at least in portions, opposite the contact carrier surface in a pressing direction oriented transversely to the plugging direction, characterised in that the contact carrier surface is held on the mating plug part so as to be moveable in the plugging direction relative to the counterpressure surface.
A composite material for shielding electromagnetic radiation, said material containing a thermoplastic, electrically non-conductive polymer, a nanocarbon material and nanoparticles, characterised in that the composite material comprises: • 88 - 99.88 wt% of the thermoplastic, electrically non-conductive polymer; • 0.1 - 10 wt% of the nanocarbon material, which is in form of flakes having a diameter to thickness ratio higher than 3, the thickness of the flakes not exceeding 30 nm and the diameter being of 100 to 5000 nm, • 0.01 - 1 wt% of dielectric nanoparticles introducing a loss unrelated to electrical conductivity in a given frequency range, i.e. unrelated to the dispersion of an electromagnetic wave on free carriers, • 0.01 - 1 wt% of an auxiliary material which allows to control the dispersion of the nanocarbon material and the dielectric nanoparticles in a polymer matrix and/or which can change the properties of the nanocarbon material and the dielectric nanoparticles, wherein the composite material is in form of a homogeneous mixture. • 88 - 99.88 wt% of the thermoplastic, electrically non-conductive polymer; • 0.1 - 10 wt% of the nanocarbon material, which is in form of flakes having a diameter to thickness ratio higher than 3, the thickness of the flakes not exceeding 30 nm and the diameter being of 100 to 5000 nm, • 0.01 - 1 wt% of dielectric nanoparticles introducing a loss unrelated to electrical conductivity in a given frequency range, i.e. unrelated to the dispersion of an electromagnetic wave on free carriers, • 0.01 - 1 wt% of an auxiliary material which allows to control the dispersion of the nanocarbon material and the dielectric nanoparticles in a polymer matrix and/or which can change the properties of the nanocarbon material and the dielectric nanoparticles,
A universal osteotomy device comprising: a first body component having an upper guide edge for forming a cutting track; a second body component having a lower guide edge disposed below said upper guide edge, a guide slot being formed between said upper guide edge and said lower guide edge for guiding a saw blade to perform a cutting procedure, said guide slot having a connecting member for connecting said upper guide edge and said lower guide edge; wherein said first body component further comprises a first correcting through-hole, said second body component further comprises a second correcting through-hole, at least one correction angle between at least one longitudinal axes of said first correcting through-hole and at least one longitudinal axis of said second correcting through-hole is formed, such that, when an open angle of osteotomy is the same as that of a preoperative planning correction angle, said longitudinal axis of said first correcting through-hole and the corresponding longitudinal axis of said second correcting through-hole will coincide to be passed through by an alignment bar, said correction angles being 1°-45°, characterised in that the surface of said first body component and the surface of said second body component have an average curvature or a uniform curvature of bone surface.
A non-transitory, computer-readable storage medium storing program instructions that when executed on a computing device cause the computing device to perform: loading, at runtime by a runtime module executing within a runtime environment, a class from a runtime linkable, multi-version library, wherein the multi-version library is configured to include multiple versions of classes, wherein all versions of a respective class are binary compatible, having an identical class signature for the respective class; wherein said loading comprises: determining whether the multi-version library includes a version of the class associated with a current version of a software development kit for implementing software executable within a respective current version of the runtime environment; and in response to determining that the multi-version library does include the version of the class associated with the current version of the software development kit, loading, from the multi-version library, the version of the class associated with the current version of the software development kit. loading, at runtime by a runtime module executing within a runtime environment, a class from a runtime linkable, multi-version library, wherein the multi-version library is configured to include multiple versions of classes, wherein all versions of a respective class are binary compatible, having an identical class signature for the respective class; wherein said loading comprises: determining whether the multi-version library includes a version of the class associated with a current version of a software development kit for implementing software executable within a respective current version of the runtime environment; and in response to determining that the multi-version library does include the version of the class associated with the current version of the software development kit, loading, from the multi-version library, the version of the class associated with the current version of the software development kit. determining whether the multi-version library includes a version of the class associated with a current version of a software development kit for implementing software executable within a respective current version of the runtime environment; and in response to determining that the multi-version library does include the version of the class associated with the current version of the software development kit, loading, from the multi-version library, the version of the class associated with the current version of the software development kit.
Electrical installation cabinet for receiving electrical and/or electronic control elements, having an installation space, an inner door and an outer casing, characterized in that the outer casing is at least partially formed from a veneered plywood, wherein at least one layer of the veneered plywood is formed from a material which expands in the event of a fire.
A method, comprising: reducing the power consumption of a communications device maintaining multiple wireless connections to other devices by simultaneously coordinating the arrangement of the slotted communications protocols that are to be used by each of the respective wireless connections based on: the other devices to which the communication device is to remain connected; and the respective communication protocols that are to be used to communicate with each of those other devices wherein the slotted protocols are arranged in such a way as to ensure that those radios which do not interfere with each other share the same time slots and the slotted protocols are arranged in such a way as to ensure that those radios which do interfere with each other do not share the same time slots. reducing the power consumption of a communications device maintaining multiple wireless connections to other devices by simultaneously coordinating the arrangement of the slotted communications protocols that are to be used by each of the respective wireless connections based on: the other devices to which the communication device is to remain connected; and the respective communication protocols that are to be used to communicate with each of those other devices wherein the slotted protocols are arranged in such a way as to ensure that those radios which do not interfere with each other share the same time slots and the slotted protocols are arranged in such a way as to ensure that those radios which do interfere with each other do not share the same time slots. the other devices to which the communication device is to remain connected; and the respective communication protocols that are to be used to communicate with each of those other devices wherein the slotted protocols are arranged in such a way as to ensure that those radios which do not interfere with each other share the same time slots and the slotted protocols are arranged in such a way as to ensure that those radios which do interfere with each other do not share the same time slots.
A developer storing body (13, 43) detachably attached to an image forming unit main body of an image forming unit, said developer storing body (13, 43) comprising: a cartridge main body (90, 41) for storing a developer, said cartridge main body (90, 41) having a developer outlet opening through which said developer is ejected, and an outlet shutter member movable with respect to said cartridge main body (90, 41) so as to open and close said developer outlet opening, wherein said cartridge main body (90, 41) has a to-be-locked portion which is brought into engagement with a locking portion of said image forming unit main body, and wherein said outlet shutter member is movable with respect to said cartridge main body (90, 41) in a direction (b) which is substantially the same as a longitudinal direction of said developer main body (13, 43), characterised in that said outlet shutter member is configured to surround said cartridge main body (90, 41). a cartridge main body (90, 41) for storing a developer, said cartridge main body (90, 41) having a developer outlet opening through which said developer is ejected, and an outlet shutter member movable with respect to said cartridge main body (90, 41) so as to open and close said developer outlet opening, wherein said cartridge main body (90, 41) has a to-be-locked portion which is brought into engagement with a locking portion of said image forming unit main body, and wherein said outlet shutter member is movable with respect to said cartridge main body (90, 41) in a direction (b) which is substantially the same as a longitudinal direction of said developer main body (13, 43), characterised in that said outlet shutter member is configured to surround said cartridge main body (90, 41).
An optical information reader comprising: a light receiving sensor provided with a light receiving surface that is capable of imaging an information code; a reflective mirror (24, 24a) that reflects light (Lr) reflected, in a given direction (Z-axis), from an outside of the reader through a reading opening towards the light receiving sensor, the light reflected from the outside of the reader forming a spatial imaging area, the imaging area being provided according to the light receding surface and having a central optical axis (Lgr) passing in the given direction; an imaging lens that collects the light reflected by the reflective mirror and so as to provide an image to the light receiving surface of the light receiving sensor; and a marker light irradiating unit that irradiates a marker light(Lm) in the given direction, characterized in that the marker light irradiating unit is positioned farther away in the given direction from the reading opening than the reflective mirror (24, 24a) is, and disposed such that the marker light has an optical axis (Lgm) that passes in the given direction and is parallel to the central optical axis of the imaging area, and such that the marker light is adjacent to an outer edge of the reflective mirror. a light receiving sensor provided with a light receiving surface that is capable of imaging an information code; a reflective mirror (24, 24a) that reflects light (Lr) reflected, in a given direction (Z-axis), from an outside of the reader through a reading opening towards the light receiving sensor, the light reflected from the outside of the reader forming a spatial imaging area, the imaging area being provided according to the light receding surface and having a central optical axis (Lgr) passing in the given direction; an imaging lens that collects the light reflected by the reflective mirror and so as to provide an image to the light receiving surface of the light receiving sensor; and a marker light irradiating unit that irradiates a marker light(Lm) in the given direction, characterized in that the marker light irradiating unit is positioned farther away in the given direction from the reading opening than the reflective mirror (24, 24a) is, and disposed such that the marker light has an optical axis (Lgm) that passes in the given direction and is parallel to the central optical axis of the imaging area, and such that the marker light is adjacent to an outer edge of the reflective mirror.
A low sulfur marine fuel trunk piston diesel engine lubricating oil composition comprising or made of admixing an oil of lubricating viscosity in an amount of 50 mass % or more of the composition; and, in respective amounts of less than 50 mass % of the composition, an overbased metal detergent comprising a metal salt of a surfactant selected from a hydrocarbyl-substituted phenol, a hydrocarbyl-substituted sulfonic acid, and a hydrocarbyl-substituted hydroxybenzoic acid; a zinc dihydrocarbyldithiophosphate in an amount of 50 to 500 ppm by weight in terms of P atoms as measured by ASTM D5185; optionally, an aminic anti-oxidant in an amount of up to 400, preferably in an amount up to 200 (preferably, when present, from 10 to 200) ppm by weight in terms of N atoms as measured by ASTM D5762; and a borated ashless dispersant in an amount of 10 to 500 ppm by weight in terms of B atoms as measured by ASTM D5185; the composition having a TBN of 5 to less than 20, preferably 8 to 15, mg KOH/g as measured by ASTM D2896. an oil of lubricating viscosity in an amount of 50 mass % or more of the composition; and, in respective amounts of less than 50 mass % of the composition, an overbased metal detergent comprising a metal salt of a surfactant selected from a hydrocarbyl-substituted phenol, a hydrocarbyl-substituted sulfonic acid, and a hydrocarbyl-substituted hydroxybenzoic acid; a zinc dihydrocarbyldithiophosphate in an amount of 50 to 500 ppm by weight in terms of P atoms as measured by ASTM D5185; optionally, an aminic anti-oxidant in an amount of up to 400, preferably in an amount up to 200 (preferably, when present, from 10 to 200) ppm by weight in terms of N atoms as measured by ASTM D5762; and a borated ashless dispersant in an amount of 10 to 500 ppm by weight in terms of B atoms as measured by ASTM D5185;
A light transmissive structure comprising: a light transmissive substrate having first and second opposing faces; and an array of microprism elements (10, 16) substantially covering the first face of the substrate, a respective microprism element comprising a plurality of microprisms (12, 14); wherein the second face of the substrate is smooth; and wherein the light transmissive structure is configured to receive light from a light source facing the first face and to distribute the light emerging from the second face in a 2D batwing distribution characterized in that said plurality of microprisms are concentric and circular. a light transmissive substrate having first and second opposing faces; and an array of microprism elements (10, 16) substantially covering the first face of the substrate, a respective microprism element comprising a plurality of microprisms (12, 14); wherein the second face of the substrate is smooth; and wherein the light transmissive structure is configured to receive light from a light source facing the first face and to distribute the light emerging from the second face in a 2D batwing distribution characterized in that said plurality of microprisms are concentric and circular.