mhurhangee/ep-ind-claims huggingface dataset:
A method for processing data in an optical network, - wherein a centralized component is connected to several decentralized components (ONUS); - wherein first data is conveyed from the centralized component to at least two decentralized components (ONUS), wherein the at least two decentralized components share an optical resource; - wherein second data is conveyed from the decentralized component (ONUS) to the centralized component via at least one separate optical resource; characterized by the optical resource shared by the at least two decentralized components comprising a dual side-band spectrum arranged symmetrically around a reference carrier frequency at the centralized component and at a given frequency distance from the reference carrier frequency and being used to convey the first data to said decentralized components. - wherein a centralized component is connected to several decentralized components (ONUS); - wherein first data is conveyed from the centralized component to at least two decentralized components (ONUS), wherein the at least two decentralized components share an optical resource; - wherein second data is conveyed from the decentralized component (ONUS) to the centralized component via at least one separate optical resource;
An isolated nucleic acid comprising at least 17 contiguous nucleotides corresponding to SEQ ID NO:1, wherein said isolated nucleic acid comprises the mutation wherein nucleotides 2271-2358 (exon 14 deletion) are deleted, wherein said nucleic acid is less than 5000 nucleotides in length.
A method comprising: obtaining an indication of pressure applied to a key of a keyboard; and determining that the pressure applied to the key is a key strike, in response to both (a) the pressure applied to the key rising to a key press threshold amount, and, (b) within a particular amount of time of the pressure applied to the key rising to the key press threshold amount, the pressure applied to the key also rising to a selection threshold amount or the pressure applied to the key rising to a threshold rate, the selection threshold amount being greater than the key press threshold amount. obtaining an indication of pressure applied to a key of a keyboard; and determining that the pressure applied to the key is a key strike, in response to both (a) the pressure applied to the key rising to a key press threshold amount, and, (b) within a particular amount of time of the pressure applied to the key rising to the key press threshold amount, the pressure applied to the key also rising to a selection threshold amount or the pressure applied to the key rising to a threshold rate, the selection threshold amount being greater than the key press threshold amount.
Hollow rotor shaft for a rotating electrical machine, the rotor shaft comprising two parts (Z11, Z12), wherein a first part comprises a first hollow cylindrical element having a first end and a second end opposite the first end, and a second part comprises a second hollow cylindrical element having a first end, wherein a first section of the first end of the first hollow cylindrical element and a second section of the first end of the second hollow cylindrical element are secured by securing means, characterised in that the first section of the first end of the first hollow cylindrical element and the second section of the first end of the second hollow cylindrical element are in contact and the securing means comprises: a plurality of first bosses regularly distributed over an internal periphery of the second end of the first hollow cylindrical element forming a first ring of bosses, each of the first bosses comprising a smooth guide hole, a plurality of second bosses regularly distributed over an internal periphery of the first end of the second hollow cylindrical element forming a second ring of bosses, each of the second bosses comprising a threaded hole, a fixation part at the second end of the first hollow cylindrical element and in contact with a section of the first ring of bosses, and a plurality of threaded elements, each threaded element passing through a respective guide hole, being screwed into a respective threaded hole and cooperating with the fixation part such that each threaded element is parallel to an axis of revolution of the rotor shaft and holds the first and second sections (S1, S2) in contact. a plurality of first bosses regularly distributed over an internal periphery of the second end of the first hollow cylindrical element forming a first ring of bosses, each of the first bosses comprising a smooth guide hole, a plurality of second bosses regularly distributed over an internal periphery of the first end of the second hollow cylindrical element forming a second ring of bosses, each of the second bosses comprising a threaded hole, a fixation part at the second end of the first hollow cylindrical element and in contact with a section of the first ring of bosses, and a plurality of threaded elements, each threaded element passing through a respective guide hole, being screwed into a respective threaded hole and cooperating with the fixation part such that each threaded element is parallel to an axis of revolution of the rotor shaft and holds the first and second sections (S1, S2) in contact.
A method for recycling noble metals from electronic waste materials containing noble metals, comprising the following steps: taking electronic waste materials containing noble metals, mechanically breaking up and sieving to obtain electronic waste powders containing noble metals; taking said electronic waste powders containing noble metals, removing rubber and plastic materials by electrostatic separation, collecting noble metal-rich part; taking said noble metal-rich part, removing ferromagnetic metals by magnetic separation, collecting ferromagnetism-free metal-rich part; taking and feeding said ferromagnetism-free metal-rich part into heating chamber from feed inlet of microwave reactor, shutting the feed inlet valve and valve that connects the channels, heating to pyrogenation temperature T 1 = 400∼600°C by microwave, collecting gases generated by pyrolysis at exhaust outlet; heating to melting temperature T 2 = 700∼900°C by microwave, melting stannum, lead, antimony and other low-melting-point metals, keeping melting for 5∼30 minutes, allowing the melted low-melting-point metal liquor to pass through the filtering screen, collecting filtrate A and residues A separately; continue to heat said residues A to melting temperature T 3 =990∼1020°C by microwave, melting metal silver, keeping melting for 5∼30minutes, allowing melted silver liquor to pass through the filtering screen, collecting filtrate B and residues B separately; taking said residues B, applying one or more methods of microwave-melting, acid-liquor filtration, electrolysis and extraction to separate one or more noble metals individually. taking electronic waste materials containing noble metals, mechanically breaking up and sieving to obtain electronic waste powders containing noble metals; taking said electronic waste powders containing noble metals, removing rubber and plastic materials by electrostatic separation, collecting noble metal-rich part; taking said noble metal-rich part, removing ferromagnetic metals by magnetic separation, collecting ferromagnetism-free metal-rich part; taking and feeding said ferromagnetism-free metal-rich part into heating chamber from feed inlet of microwave reactor, shutting the feed inlet valve and valve that connects the channels, heating to pyrogenation temperature T 1 = 400∼600°C by microwave, collecting gases generated by pyrolysis at exhaust outlet; heating to melting temperature T 2 = 700∼900°C by microwave, melting stannum, lead, antimony and other low-melting-point metals, keeping melting for 5∼30 minutes, allowing the melted low-melting-point metal liquor to pass through the filtering screen, collecting filtrate A and residues A separately; continue to heat said residues A to melting temperature T 3 =990∼1020°C by microwave, melting metal silver, keeping melting for 5∼30minutes, allowing melted silver liquor to pass through the filtering screen, collecting filtrate B and residues B separately; taking said residues B, applying one or more methods of microwave-melting, acid-liquor filtration, electrolysis and extraction to separate one or more noble metals individually.
A compound comprising: A. a fluoroelastomer A comprising copolymerized units of: one fluorinated olefin; at least one co-monomer different from fluorinated olefin A selected from fluorovinyl ethers, fluorinated olefins, olefins, and mixtures of these; at least one chain transfer agent or fluorinated monomer comprising cure sites; B. 0.1 to 10 parts per 100 parts fluoroelastomer A of at least one co-agent selected from the group consisting of triallyl cyanurate, trimethacryl isocyanurate, triallyl isocyanurate, trimethallyl isocyanurate, triacryl formal, triallyl trimellitate, N,N'-m-phenylene bismaleimide, diallyl phthalate, tetraallylterephthalamide, tri(diallylamine)-s-triazine, triallyl phosphite, N,N-diallylacrylamide, and combinations of these; C. 0.05 to 5 parts per 100 parts fluoroelastomer A of at least one chemical entity comprising an azo functional group; D. 0.01 to 10 parts per 100 parts fluoroelastomer A of a peroxide curing agent; wherein, when the compound has been cured into an article, the article exhibits no visible particles on the article surface when viewed at a magnification of 500 times that of an unmagnified image. A. a fluoroelastomer A comprising copolymerized units of: one fluorinated olefin; at least one co-monomer different from fluorinated olefin A selected from fluorovinyl ethers, fluorinated olefins, olefins, and mixtures of these; at least one chain transfer agent or fluorinated monomer comprising cure sites; one fluorinated olefin; at least one co-monomer different from fluorinated olefin A selected from fluorovinyl ethers, fluorinated olefins, olefins, and mixtures of these; at least one chain transfer agent or fluorinated monomer comprising cure sites; B. 0.1 to 10 parts per 100 parts fluoroelastomer A of at least one co-agent selected from the group consisting of triallyl cyanurate, trimethacryl isocyanurate, triallyl isocyanurate, trimethallyl isocyanurate, triacryl formal, triallyl trimellitate, N,N'-m-phenylene bismaleimide, diallyl phthalate, tetraallylterephthalamide, tri(diallylamine)-s-triazine, triallyl phosphite, N,N-diallylacrylamide, and combinations of these; C. 0.05 to 5 parts per 100 parts fluoroelastomer A of at least one chemical entity comprising an azo functional group; D. 0.01 to 10 parts per 100 parts fluoroelastomer A of a peroxide curing agent;
Profile for a safety edge, wherein the profile (12; 62, 72; 82) is made of rubber-elastic material and includes at least one switching chamber portion, wherein the switching chamber portion has at least one cavity traversing in the longitudinal direction of the profile, at least two electric conductors (26, 28) traversing in the longitudinal direction of the profile (12; 62, 72; 82) and adjoining the cavity, and a switching chamber wall surrounding the cavity and the conductors (26, 28) in the radial direction, wherein the switching chamber wall on its side located on the radially exterior outer side, as viewed from the cavity, is connected to at least one retaining bar (32, 34, 36, 38) traversing in the longitudinal direction of the profile (12; 62, 72; 82), characterized in that the outer side of the switching chamber wall has a mostly circular cross section at least in the vicinity of a free end of the profile (12; 62, 72; 82), wherein in the vicinity of the free end of the profile (12; 62, 72; 82) the outer side of the switching chamber wall in the vicinity of the connection to the at least one retaining bar (32, 34, 36, 38) is cut clear by recessing or cutting off the retaining bars, so that the outer side of the switching chamber wall in the vicinity of the free end of the profile (12; 62, 72; 82) is essentially smooth.
A laser projection module, comprising: a laser emitter configured to emit laser, the laser comprising a zero order beam gathered and superimposed at a center of a light-emitting surface of the laser emitter, and a non-zero order beam transmitted towards the surrounding of the light-emitting surface of the laser emitter; a reflection element arranged in a laser emission direction of the laser emitter and configured to reflect the laser emitted from the laser emitter; a diffractive optical element arranged in a light exiting direction of the reflection element and configured to diffract the laser reflected by the reflection element; and an optical detector arranged between the laser emitter and the reflection element, and configured to receive the laser emitted from the laser emitter and detect an intensity of the non-zero order beam of the laser, wherein the laser projection module further comprises a substrate assembly, the substrate assembly comprises a substrate and a circuit board carried on the substrate, and the laser emitter is carried on the circuit board, the optical detector is arranged on the circuit board and comprises a light-receiving surface, the light receiving surface is perpendicular to the circuit board or is inclined at an angle with respect to the circuit board. a laser emitter configured to emit laser, the laser comprising a zero order beam gathered and superimposed at a center of a light-emitting surface of the laser emitter, and a non-zero order beam transmitted towards the surrounding of the light-emitting surface of the laser emitter; a reflection element arranged in a laser emission direction of the laser emitter and configured to reflect the laser emitted from the laser emitter; a diffractive optical element arranged in a light exiting direction of the reflection element and configured to diffract the laser reflected by the reflection element; and an optical detector arranged between the laser emitter and the reflection element, and configured to receive the laser emitted from the laser emitter and detect an intensity of the non-zero order beam of the laser, wherein the laser projection module further comprises a substrate assembly, the substrate assembly comprises a substrate and a circuit board carried on the substrate, and the laser emitter is carried on the circuit board, the optical detector is arranged on the circuit board and comprises a light-receiving surface, the light receiving surface is perpendicular to the circuit board or is inclined at an angle with respect to the circuit board.
A method for uplink transmission in a wireless communication system, the method comprising: determining, by a wireless device (110,50), an uplink transmission group based on a difference between downlink reception timing and uplink transmission timing; transmitting, by the wireless device (110,50), an uplink signal in an asynchronized subframe or a synchronized subframe when the wireless device belongs to a first uplink transmission group; and transmitting, by the wireless device (110,50), the uplink signal only in the asynchronized subframe when the wireless device (110,50) belongs to a second uplink transmission group, wherein the synchronized subframe includes a plurality of first-orthogonal frequency division multiplexing, OFDM, symbols, the asynchronized subframe includes a plurality of second-OFDM symbols, and a cyclic prefix, CP, of a second-OFDM symbol is longer than a CP of a first-OFDM symbol. determining, by a wireless device (110,50), an uplink transmission group based on a difference between downlink reception timing and uplink transmission timing; transmitting, by the wireless device (110,50), an uplink signal in an asynchronized subframe or a synchronized subframe when the wireless device belongs to a first uplink transmission group; and transmitting, by the wireless device (110,50), the uplink signal only in the asynchronized subframe when the wireless device (110,50) belongs to a second uplink transmission group, wherein the synchronized subframe includes a plurality of first-orthogonal frequency division multiplexing, OFDM, symbols, the asynchronized subframe includes a plurality of second-OFDM symbols, and a cyclic prefix, CP, of a second-OFDM symbol is longer than a CP of a first-OFDM symbol.
A quantum light emitting diode, comprising: a first electrode; a second electrode facing the first electrode; a first charge transporting layer disposed on the first electrode; a light-amount enhancing layer having a structure configured to guide emitted light toward an emitting side and disposed on the first charge transporting layer; and an emitting material layer disposed on the light-amount enhancing layer; characterized in that the light-amount enhancing layer includes a plurality of prism patterns; and the emitting material layer includes quantum particles, wherein the quantum particles are disposed between adjacent prism patterns, and wherein the light-amount enhancing layer includes an insulating material. a first electrode; a second electrode facing the first electrode; a first charge transporting layer disposed on the first electrode; a light-amount enhancing layer having a structure configured to guide emitted light toward an emitting side and disposed on the first charge transporting layer; and an emitting material layer disposed on the light-amount enhancing layer; characterized in that the light-amount enhancing layer includes a plurality of prism patterns; and the emitting material layer includes quantum particles, wherein the quantum particles are disposed between adjacent prism patterns, and wherein the light-amount enhancing layer includes an insulating material.
A light emitting device, comprising: at least one solid-state light emitter operable to generate blue excitation light; and a wavelength conversion component positioned remotely to the at least one solid-state light emitter, said wavelength conversion component comprising: at least one blue light excitable photoluminescence material; and a light scattering material, wherein the light scattering material has an average particle size that is selected such that the light scattering material will scatter blue excitation light relatively more than the light scattering material will scatter light generated by the at least one photoluminescence material, wherein the at least one photoluminescence material is located in a wavelength conversion layer and the light scattering material is located in a light diffusing layer different from the wavelength conversion layer, and wherein the light scattering material has an average particle size in a range 100nm to 150nm and the wavelength conversion layer faces the at least one solid-state light emitter such that, in operation, the diffusing layer decreases the probability of externally originating photons from interacting with the at least one photoluminescence material thereby improving an OFF state white appearance of the component of the light emitting device. at least one solid-state light emitter operable to generate blue excitation light; and a wavelength conversion component positioned remotely to the at least one solid-state light emitter, said wavelength conversion component comprising: at least one blue light excitable photoluminescence material; and a light scattering material, wherein the light scattering material has an average particle size that is selected such that the light scattering material will scatter blue excitation light relatively more than the light scattering material will scatter light generated by the at least one photoluminescence material, wherein the at least one photoluminescence material is located in a wavelength conversion layer and the light scattering material is located in a light diffusing layer different from the wavelength conversion layer, and wherein the light scattering material has an average particle size in a range 100nm to 150nm and the wavelength conversion layer faces the at least one solid-state light emitter such that, in operation, the diffusing layer decreases the probability of externally originating photons from interacting with the at least one photoluminescence material thereby improving an OFF state white appearance of the component of the light emitting device.
Disc brake piston cap interposed between the caliper and the piston to protect the piston against attack (from liquids and solids), this cap being made up of a bellows-style concertina-folded boot having an outer edge and an inner edge to be housed in an annular groove of the caliper at the mouth of the bore accommodating the piston, the outer edge of the cap being fixed to the caliper at the outer side of the annular groove and its inner edge being provided with a bulge housed in a groove of the piston, the piston cap being characterized in that the inner fold of the cap is situated between the groove of the piston and the inside of the caliper and has longitudinal ribs on its face pressed against the piston to allow air to pass and in that the inner fold is connected by an articulation to an outwardly facing intermediate fold itself connected by an articulation to an inwardly facing intermediate fold connected by an articulation to an outwardly facing outer fold, itself connected by an articulation to the overmoulded insert, and the inner articulations (331, 342) are equipped with studs to press against the bottom of the annular groove of the caliper while allowing air to pass between the studs.