mhurhangee/patent-ind-claim-en huggingface dataset:
A fabric for use in transmission belts, the fabric comprising a plurality of first weft yarns interspersed with a plurality of second weft yarns , wherein the first weft yarns comprise a first resilient core and an aliphatic polyamide fibre thread wrapped around the first resilient core to form a first covered yarn, and wherein the second weft yarns comprise a second resilient core and an aramid fibre thread wrapped around the second resilient core to form a second covered yarn, wherein the first covered yarn and/or the second covered yarn is, or are, double covered yarn, the double covered yarn having an inner cover yarn and an outer cover yarn, and wherein the first inner cover yarn comprises the same material as the first outer cover yarn, and/or the second inner cover yarn comprises the same material as the second outer cover yarn. wherein the first covered yarn and/or the second covered yarn is, or are, double covered yarn, the double covered yarn having an inner cover yarn and an outer cover yarn, and wherein the first inner cover yarn comprises the same material as the first outer cover yarn, and/or the second inner cover yarn comprises the same material as the second outer cover yarn.
A perovskite radiovoltaic-photovoltaic battery, wherein the battery comprises a first electrode, a first charge transport layer, a perovskite layer, a second charge transport layer, and a second electrode in sequence, wherein the first charge transport layer is an electron transport layer and the second charge transport layer is a hole transport layer, or, the first charge transport layer is a hole transport layer and the second charge transport layer is an electron transport layer; characterised in that the first electrode is a transparent electrode; the perovskite layer is doped with a fluorescent substance; at least one of the first electrode, the first charge transport layer, the second charge transport layer, or the second electrode is radioactive; and when the first electrode and/or the second electrode is radioactive, the first electrode and/or the second electrode is an irradiated electrode formed by compounding a radioactive source and a conductor material; and, when the first charge transport layer and/or the second charge transport layer is radioactive, the first charge transport layer and/or the second charge transport layer is an irradiated semiconductor formed by compounding a radioactive source and a semiconductor material. the battery comprises a first electrode, a first charge transport layer, a perovskite layer, a second charge transport layer, and a second electrode in sequence, wherein the first charge transport layer is an electron transport layer and the second charge transport layer is a hole transport layer, or, the first charge transport layer is a hole transport layer and the second charge transport layer is an electron transport layer; characterised in that the first electrode is a transparent electrode; the perovskite layer is doped with a fluorescent substance; at least one of the first electrode, the first charge transport layer, the second charge transport layer, or the second electrode is radioactive; and when the first electrode and/or the second electrode is radioactive, the first electrode and/or the second electrode is an irradiated electrode formed by compounding a radioactive source and a conductor material; and, when the first charge transport layer and/or the second charge transport layer is radioactive, the first charge transport layer and/or the second charge transport layer is an irradiated semiconductor formed by compounding a radioactive source and a semiconductor material.
A method for removing nitrogen oxides NOx from a gaseous current, comprising the steps of: passing the gaseous current through: - a first de-NOx catalytic bed, - and then into a second de-NOx catalytic bed comprising a catalyst which is iron exchanged zeolite with the addition of ammonia (NH 3 ) as a reducing agent, wherein the molar ratio of NH 3 over NOx in the gas admitted to said second de-NOx catalytic bed is 1.4 to 2, wherein said second de-NOx catalytic bed is operated at a temperature in the range of 420 °C to 435 °C, and the space velocity in said second de-NOx catalytic bed is 10000 h -1 to 14000 h -1 . passing the gaseous current through: - a first de-NOx catalytic bed, - and then into a second de-NOx catalytic bed comprising a catalyst which is iron exchanged zeolite with the addition of ammonia (NH 3 ) as a reducing agent, - a first de-NOx catalytic bed, - and then into a second de-NOx catalytic bed comprising a catalyst which is iron exchanged zeolite with the addition of ammonia (NH 3 ) as a reducing agent, wherein the molar ratio of NH 3 over NOx in the gas admitted to said second de-NOx catalytic bed is 1.4 to 2, wherein said second de-NOx catalytic bed is operated at a temperature in the range of 420 °C to 435 °C, and the space velocity in said second de-NOx catalytic bed is 10000 h -1 to 14000 h -1 .
A method of producing a porous body of a water-insoluble polymer, the method comprising the steps of: preparing a solution in which a water-insoluble polymer is dissolved in a mixed solvent containing a good solvent for the water-insoluble polymer and a poor solvent for the water-insoluble polymer, wherein the good solvent is a solvent in which the solubility of the water-insoluble polymer at 25°C is 1 mass% or more, and wherein the poor solvent is a solvent in which the solubility of the water-insoluble polymer at 25°C is less than 1 mass%, wherein when preparing the solution, heating and cooling after the heating are carried out in such a way that the good solvent and the poor solvent do not separate; and removing the mixed solvent from the solution by vaporization, wherein the poor solvent has a boiling point higher than a boiling point of the good solvent, a porous body is obtained by removing the mixed solvent by vaporization to form pores, the water-insoluble polymer is an ethylene-vinyl alcohol copolymer, the good solvent is dimethyl sulfoxide or a mixed solvent of water and propyl alcohol, and the poor solvent is γ-butyrolactone, or sulfolane. preparing a solution in which a water-insoluble polymer is dissolved in a mixed solvent containing a good solvent for the water-insoluble polymer and a poor solvent for the water-insoluble polymer, wherein the good solvent is a solvent in which the solubility of the water-insoluble polymer at 25°C is 1 mass% or more, and wherein the poor solvent is a solvent in which the solubility of the water-insoluble polymer at 25°C is less than 1 mass%, wherein when preparing the solution, heating and cooling after the heating are carried out in such a way that the good solvent and the poor solvent do not separate; and removing the mixed solvent from the solution by vaporization, wherein the poor solvent has a boiling point higher than a boiling point of the good solvent, a porous body is obtained by removing the mixed solvent by vaporization to form pores, the water-insoluble polymer is an ethylene-vinyl alcohol copolymer, the good solvent is dimethyl sulfoxide or a mixed solvent of water and propyl alcohol, and the poor solvent is γ-butyrolactone, or sulfolane.
Traction system, notably for a ship, comprising a fixed station and at least one first sail and one second sail , the first sail comprising a wing and being connected to a winch of the fixed station by a first traction cable , the second sail comprising a second wing and being connected to a winch of the fixed station by a second traction cable , the fixed station including a mast caracterized in that the said mast carries first means of mooring the first wing to this mast , and second means of mooring the second wing to this mast .
A semiconductor laser module comprising: a semiconductor laser element (104-1 to 6) outputting a laser light; an optical fiber comprising a core portion and a cladding portion formed at an outer periphery of the core portion, the laser light being made incident into an end of the optical fiber, the optical fiber guiding the laser light to outside the semiconductor laser module; an optical component being disposed at an outer periphery of the optical fiber and fixing the optical fiber; a first-fixing agent fastening the optical component to the optical fiber; a light-absorbing element being disposed at an outer periphery of the optical component and fixing the optical component; a first light-blocking portion disposed between an end, into which the laser light is incident, of the optical fiber and the optical component; and a housing accommodating therein the semiconductor laser element, an end, at a side into which the laser light is incident, of the optical fiber, and the first light-blocking portion, wherein the optical component has an optical transmittance at a wavelength of the laser light, and the light-absorbing element has an optical absorptivity at a wavelength of the laser light, wherein the optical fiber includes a protrusion end portion protruding from the optical component at the end of the optical fiber into which the laser light is incident, and the first light-blocking portion is disposed at an outer periphery of the protrusion portion of the optical fiber and is separated from the optical fiber. a semiconductor laser element (104-1 to 6) outputting a laser light; an optical fiber comprising a core portion and a cladding portion formed at an outer periphery of the core portion, the laser light being made incident into an end of the optical fiber, the optical fiber guiding the laser light to outside the semiconductor laser module; an optical component being disposed at an outer periphery of the optical fiber and fixing the optical fiber; a first-fixing agent fastening the optical component to the optical fiber; a light-absorbing element being disposed at an outer periphery of the optical component and fixing the optical component; a first light-blocking portion disposed between an end, into which the laser light is incident, of the optical fiber and the optical component; and a housing accommodating therein the semiconductor laser element, an end, at a side into which the laser light is incident, of the optical fiber, and the first light-blocking portion, wherein the optical component has an optical transmittance at a wavelength of the laser light, and the light-absorbing element has an optical absorptivity at a wavelength of the laser light, wherein the optical fiber includes a protrusion end portion protruding from the optical component at the end of the optical fiber into which the laser light is incident, and the first light-blocking portion is disposed at an outer periphery of the protrusion portion of the optical fiber and is separated from the optical fiber.
Method for automated provision of a parking space of a predefined size (L3) by automatic reparking an already parked motor vehicle , wherein the method comprises the following steps: determining whether a surrounding area of the motor vehicle , on which the parked motor vehicle can travel, is sufficient to provide, by reparking the motor vehicle , the room for the parking space which is to be made available, and when there is sufficient surrounding area , corresponding automatic reparking of the motor vehicle , wherein the automated provision of the parking space is carried out independently of a specific parking request to park a vehicle , characterized in that the steps are excluded exclusively by means of a vehicle-internal, computer-based system which is configured to park the motor vehicle autonomously. determining whether a surrounding area of the motor vehicle , on which the parked motor vehicle can travel, is sufficient to provide, by reparking the motor vehicle , the room for the parking space which is to be made available, and when there is sufficient surrounding area , corresponding automatic reparking of the motor vehicle , wherein the automated provision of the parking space is carried out independently of a specific parking request to park a vehicle , characterized in that the steps are excluded exclusively by means of a vehicle-internal, computer-based system which is configured to park the motor vehicle autonomously.
Process for the preparation of an α-nucleated polypropylene composition, comprising the steps of a) forming a polypropylene composition comprising a polymeric nucleating agent, said polypropylene composition having a melt flow rate MFR 2 measured in accordance with ISO 1133 (230 °C, 2.16 kg) in the range of 0.1 to 500 g/10 min, a pentad regularity determined by 13 C-NMR spectroscopy of at least 95.0 mol-%, a solidification temperature Ts 400 of at least 50 °C and a heat of crystallization (Hc) at a cooling rate of 200 K/s of at least 30 J/g, b) heating the polypropylene composition obtained in step a) to a melt temperature of at least 200 °C c) exposing the melt obtained in step b) to a cooling rate of 200 K/sec or more. a) forming a polypropylene composition comprising a polymeric nucleating agent, said polypropylene composition having a melt flow rate MFR 2 measured in accordance with ISO 1133 (230 °C, 2.16 kg) in the range of 0.1 to 500 g/10 min, a pentad regularity determined by 13 C-NMR spectroscopy of at least 95.0 mol-%, a solidification temperature Ts 400 of at least 50 °C and a heat of crystallization (Hc) at a cooling rate of 200 K/s of at least 30 J/g, b) heating the polypropylene composition obtained in step a) to a melt temperature of at least 200 °C c) exposing the melt obtained in step b) to a cooling rate of 200 K/sec or more.
An electronic device, comprising: a connection interface including: a connection portion ; and a fastening portion including a first plate and a plate driver , wherein the plate driver is configured to detect if the connection interface and a connector are mated and cause the first plate to: (i) be substantially flush with a surface of the electronic device when the connection interface and a connector are not mated, and (ii) extend or recede from the surface of the electronic device when the connection interface and the connector are mated. a connection portion ; and a fastening portion including a first plate and a plate driver ,
An insulating coating material comprising: an insulating film made from a polyimide resin; and an adhesive layer made from a fluorocarbon resin, the insulating film having a tensile stress at 5% strain of not less than 180 MPa and a tensile stress at 15% strain of not less than 225 MPa, the stresses being obtained by measuring a tensile modulus according to ASTM D882. an insulating film made from a polyimide resin; and an adhesive layer made from a fluorocarbon resin, the insulating film having a tensile stress at 5% strain of not less than 180 MPa and a tensile stress at 15% strain of not less than 225 MPa, the stresses being obtained by measuring a tensile modulus according to ASTM D882.
A forming method of an electrode for a cartridge (B) detachably mountable to an apparatus main assembly of an image forming apparatus (A), the cartridge (B) including a frame supporting a process member for effecting image formation, the apparatus main assembly including a main assembly contact, the manufacturing method comprising: bringing a mold into contact with the frame so as to form an electrode forming space between the mold and the frame , the electrode forming space branching off into only two spaces which are a first space and a second space; and molding the electrode by injecting an electroconductive resin into the electrode forming space from an injection receiving portion (G) of the electrode such that the electroconductive resin is branched within the electrode forming portion and the electrode is molded within the electrode forming portion by the branched electroconductive resin , the electroconductive resin injected from the injection receiving portion (G) flowing into the first space and the second space to mold a first contact portion and a second contact portion , respectively, such that the first contact portion is arranged so as not to overlap with the injection receiving portion (G) when viewed in a direction perpendicular to a surface of the frame on which the injection receiving portion (G) is provided, wherein the first contact portion is configured to be electrically connected to the main assembly contact, and the second contact portion is configured to be electrically connected to the process member , the first contact portion and the second contact portion being electrically connected with each other. bringing a mold into contact with the frame so as to form an electrode forming space between the mold and the frame , the electrode forming space branching off into only two spaces which are a first space and a second space; and molding the electrode by injecting an electroconductive resin into the electrode forming space from an injection receiving portion (G) of the electrode such that the electroconductive resin is branched within the electrode forming portion and the electrode is molded within the electrode forming portion by the branched electroconductive resin , the electroconductive resin injected from the injection receiving portion (G) flowing into the first space and the second space to mold a first contact portion and a second contact portion , respectively, such that the first contact portion is arranged so as not to overlap with the injection receiving portion (G) when viewed in a direction perpendicular to a surface of the frame on which the injection receiving portion (G) is provided, wherein the first contact portion is configured to be electrically connected to the main assembly contact, and the second contact portion is configured to be electrically connected to the process member , the first contact portion and the second contact portion being electrically connected with each other.
An apparatus, comprising: an interface , configured to communicate with a non-volatile memory ; and a processor , which is configured to: hold a translation table that maps between logical addresses and respective physical addresses in the non-volatile memory; characterised in that the processor is configured to periodically store to the non-volatile memory successive blocks of a baseline version of the translation table; determine a maximal number of incremental updates that, when recovered together with the baseline version of the translation table from the non-volatile memory and replayed in the processor , satisfies a target recovery time of the translation table; and store up to the maximal number of incremental updates to the non-volatile memory , wherein an incremental update specifies changes relative to the baseline version of translation table caused by storage operations that take place between storing the successive blocks of the baseline version of the translation table. an interface , configured to communicate with a non-volatile memory ; and a processor , which is configured to: hold a translation table that maps between logical addresses and respective physical addresses in the non-volatile memory; characterised in that the processor is configured to periodically store to the non-volatile memory successive blocks of a baseline version of the translation table; determine a maximal number of incremental updates that, when recovered together with the baseline version of the translation table from the non-volatile memory and replayed in the processor , satisfies a target recovery time of the translation table; and store up to the maximal number of incremental updates to the non-volatile memory , wherein an incremental update specifies changes relative to the baseline version of translation table caused by storage operations that take place between storing the successive blocks of the baseline version of the translation table. hold a translation table that maps between logical addresses and respective physical addresses in the non-volatile memory; characterised in that the processor is configured to periodically store to the non-volatile memory successive blocks of a baseline version of the translation table; determine a maximal number of incremental updates that, when recovered together with the baseline version of the translation table from the non-volatile memory and replayed in the processor , satisfies a target recovery time of the translation table; and store up to the maximal number of incremental updates to the non-volatile memory , wherein an incremental update specifies changes relative to the baseline version of translation table caused by storage operations that take place between storing the successive blocks of the baseline version of the translation table.
A method of wireless communication at a transmitting device, comprising: determining at least one location for inserting phase tracking reference signal, PT-RS, samples into a sequence of a plurality of samples, wherein a first set of the plurality of samples comprises at least one of a first number of samples at a beginning of the sequence and a second number of samples at an end of the sequence, and wherein the at least one location for the PT-RS samples is within a second set of the plurality of samples, wherein the first number of samples at the beginning of the sequence and the second number of samples at the end of the sequence are identified based on a predefined formula comprising a function of an estimate of a delay spread of the channel, an Fast Fourier Transform, FFT, size, and a Discrete Fourier Transform, DFT, size of a Discrete Fourier Transform spread Orthogonal Frequency-Division Multiplexing, DFT-s-OFDM; inserting the PT-RS samples into the sequence based on the at least one location, wherein the at least one location of the PT-RS samples excludes the first set of the plurality of samples; and transmitting a signal based on the inserted PT-RS samples. determining at least one location for inserting phase tracking reference signal, PT-RS, samples into a sequence of a plurality of samples, wherein a first set of the plurality of samples comprises at least one of a first number of samples at a beginning of the sequence and a second number of samples at an end of the sequence, and wherein the at least one location for the PT-RS samples is within a second set of the plurality of samples, wherein the first number of samples at the beginning of the sequence and the second number of samples at the end of the sequence are identified based on a predefined formula comprising a function of an estimate of a delay spread of the channel, an Fast Fourier Transform, FFT, size, and a Discrete Fourier Transform, DFT, size of a Discrete Fourier Transform spread Orthogonal Frequency-Division Multiplexing, DFT-s-OFDM; inserting the PT-RS samples into the sequence based on the at least one location, wherein the at least one location of the PT-RS samples excludes the first set of the plurality of samples; and transmitting a signal based on the inserted PT-RS samples.