mhurhangee/patent-ind-claim-en huggingface dataset:
A carbon fiber manufacturing method, comprising: providing a raw material step, providing a carbon fiber precursor fiber bundle ; performing a high-temperature carbonization step, the carbon fiber precursor fiber bundle being heated to form a carbon fiber having a carbon content in the range of 80 to 90 %; performing a plasma surface treatment step, a plasma gas flow with a power of 100-10000 watts acting on the carbon fiber for 10-1000 milliseconds so that a surface of the carbon fiber is formed with a plasma-modified configuration ; performing a sizing step, the plasma-modified configuration being coated with a resin oiling agent ; and performing a drying step, the resin oiling agent coated on the plasma-modified configuration being processed with drying so that the resin oiling agent is firmly adhered to the surface of the carbon fiber ; wherein in the high-temperature carbonization step, the carbon fiber precursor fiber bundle is guided into a chamber , the chamber is formed with at least one microwave field concentration area therein and is provided with a gas supply assembly to supply an inert gas and a microwave generating assembly to supply a high-frequency microwave, under the protection of the inert gas atmosphere, an electric field of the high-frequency microwave produces a sensing current to heat up and produce a high temperature quickly with the carbon fiber precursor fiber bundle passing through the microwave field concentration area ; wherein the chamber is provided with at least one pair of microwave-sensitive materials . providing a raw material step, providing a carbon fiber precursor fiber bundle ; performing a high-temperature carbonization step, the carbon fiber precursor fiber bundle being heated to form a carbon fiber having a carbon content in the range of 80 to 90 %; performing a plasma surface treatment step, a plasma gas flow with a power of 100-10000 watts acting on the carbon fiber for 10-1000 milliseconds so that a surface of the carbon fiber is formed with a plasma-modified configuration ; performing a sizing step, the plasma-modified configuration being coated with a resin oiling agent ; and performing a drying step, the resin oiling agent coated on the plasma-modified configuration being processed with drying so that the resin oiling agent is firmly adhered to the surface of the carbon fiber ; wherein in the high-temperature carbonization step, the carbon fiber precursor fiber bundle is guided into a chamber , the chamber is formed with at least one microwave field concentration area therein and is provided with a gas supply assembly to supply an inert gas and a microwave generating assembly to supply a high-frequency microwave, under the protection of the inert gas atmosphere, an electric field of the high-frequency microwave produces a sensing current to heat up and produce a high temperature quickly with the carbon fiber precursor fiber bundle passing through the microwave field concentration area ; wherein the chamber is provided with at least one pair of microwave-sensitive materials .
Backfeeding installation comprising: - at least one stationary compressor between a gas network at a first pressure and a gas network at a second pressure higher than the first pressure; and - an automaton for controlling the operation of each stationary compressor; characterised in that the installation comprises a mounting space for at least one additional compressor, which space is equipped with at least one gas inlet connector at the first pressure, at least one gas outlet connector at the second pressure, and at least one energy supply connector for the additional compressor; and in that the installation also comprises: - a distribution unit for distributing gas from the gas network at the first pressure to each stationary compressor and to the gas inlet connector at the first pressure for at least one additional compressor ; and - a collection unit for collecting gas from each stationary compressor and the gas outlet connector at the second pressure for each additional compressor, the automaton being configured to detect the operational stationary and additional compressors, to determine the compression capacity of the operational compressors and to control the operation of each stationary compressor and each additional compressor as a function of the compression capacity of the operational stationary and additional compressors. - at least one stationary compressor between a gas network at a first pressure and a gas network at a second pressure higher than the first pressure; and - an automaton for controlling the operation of each stationary compressor; - a distribution unit for distributing gas from the gas network at the first pressure to each stationary compressor and to the gas inlet connector at the first pressure for at least one additional compressor ; and - a collection unit for collecting gas from each stationary compressor and the gas outlet connector at the second pressure for each additional compressor,
A battery including a current collector which electrically connects a power generating element contained inside of an envelope to an external terminal whose at least part is disposed outside of the envelope comprising a case and a cover , wherein the current collector comprises: a base electrically connected to the external terminal ; a connector projecting from the base to be electrically connected to the power generating element ; and a rib disposed along at least a part of an outer peripheral edge of the base , wherein the rib includes a main portion vertically projecting from the base , characterised in that the base of the current collector is formed with a through hole , and wherein the external terminal and the base of the current collector are caulked and fixed to the cover via the through hole . a base electrically connected to the external terminal ; a connector projecting from the base to be electrically connected to the power generating element ; and a rib disposed along at least a part of an outer peripheral edge of the base , wherein the rib includes a main portion vertically projecting from the base , characterised in that the base of the current collector is formed with a through hole , and wherein the external terminal and the base of the current collector are caulked and fixed to the cover via the through hole .
A compound of formula (I): wherein R 1 is H or a hydrocarbon group; R 4 each independently is -R 11 -R 12 -, R 11 is C 3-10 -arylene, C 3-10 -cycloalkylene or -CR 7 R 8 -, wherein R 7 and R 8 each independently are H or C 1-6 -alkyl, and R 12 is a single bond or a linker having 1-10 atoms of the main chain; R 5 is OH, SH, COOH, NH 2 , NHR 9 (R 9 is C 1-6 -alkyl) ; and R 6 is H, C 1-6 -alkyl or R 5 . R 1 is H or a hydrocarbon group; R 4 each independently is -R 11 -R 12 -, R 11 is C 3-10 -arylene, C 3-10 -cycloalkylene or -CR 7 R 8 -, wherein R 7 and R 8 each independently are H or C 1-6 -alkyl, and R 12 is a single bond or a linker having 1-10 atoms of the main chain; R 11 is C 3-10 -arylene, C 3-10 -cycloalkylene or -CR 7 R 8 -, wherein R 7 and R 8 each independently are H or C 1-6 -alkyl, and R 12 is a single bond or a linker having 1-10 atoms of the main chain; R 5 is OH, SH, COOH, NH 2 , NHR 9 (R 9 is C 1-6 -alkyl) ; and R 6 is H, C 1-6 -alkyl or R 5 .
A method for improving the interpretation of the surroundings of an unmanned aerial vehicle, UAV , wherein the UAV comprises at least one sensor unit (61-66) configured to capture an image of a surrounding environment, the method comprising the steps of: - acquiring said image comprising depth data from said sensor unit (61-66), - determining a boundary between a first image portion and a second image portion , wherein said second image portion surrounds said first image portion , said boundary being defined by an interface between first periphery sub-portions of said first image portion and second periphery sub-portions of said second image portion, wherein a difference in depth data between adjacent said first periphery sub-portions and said second periphery sub-portions is above a first predetermined threshold and/or wherein said second periphery sub-portions comprises undefined depth data, - determining the area of the first image portion , - determining the shape of the first image portion, and - if the area of the first image portion is below a 20 second predetermined threshold, and if the shape of the first image portion is not elongated such that the average length of the first image portion is at least 10 - 30 % of the length of the image, determining that the first image portion contains incorrect depth data and deleting and/or adjusting the incorrect depth data contained by said first image portion . - acquiring said image comprising depth data from said sensor unit (61-66), - determining a boundary between a first image portion and a second image portion , wherein said second image portion surrounds said first image portion , said boundary being defined by an interface between first periphery sub-portions of said first image portion and second periphery sub-portions of said second image portion, wherein a difference in depth data between adjacent said first periphery sub-portions and said second periphery sub-portions is above a first predetermined threshold and/or wherein said second periphery sub-portions comprises undefined depth data, - determining the area of the first image portion , - determining the shape of the first image portion, and - if the area of the first image portion is below a 20 second predetermined threshold, and if the shape of the first image portion is not elongated such that the average length of the first image portion is at least 10 - 30 % of the length of the image, determining that the first image portion contains incorrect depth data and deleting and/or adjusting the incorrect depth data contained by said first image portion .
A salt of formula (VII): wherein X Θ is ascorbate, and the fluorine is isotopically enriched with 18 F.
A boiler for a machine for preparing beverages for heating a liquid pressurized to at least 8 bars to carry out an infusion of a product by the heated liquid, the boiler comprising: • a body having an outer wall covered with a screen-printed resistor and an inner wall , • the inner wall of the body having a longitudinal wall extending in a longitudinal direction and having a circular section, • an inner element having an outer face located opposite to the longitudinal wall of the body for defining, with the longitudinal wall , at least one portion of a heating chamber , • an inlet and an outlet of liquid in the heating chamber , • the inner wall of the body also has at least one bottom wall located at a distal end of the longitudinal wall , • a mounting configured to cooperate with the body so as to form, with the longitudinal wall and the bottom wall , a sealed enclosure comprising the heating chamber , • the bottom wall does not have an opening for the entry or exit of the liquid, characterised in that • the bottom wall has, with the longitudinal wall , a continuity of material. • a body having an outer wall covered with a screen-printed resistor and an inner wall , • the inner wall of the body having a longitudinal wall extending in a longitudinal direction and having a circular section, • an inner element having an outer face located opposite to the longitudinal wall of the body for defining, with the longitudinal wall , at least one portion of a heating chamber , • an inlet and an outlet of liquid in the heating chamber , • the inner wall of the body also has at least one bottom wall located at a distal end of the longitudinal wall , • a mounting configured to cooperate with the body so as to form, with the longitudinal wall and the bottom wall , a sealed enclosure comprising the heating chamber , • the bottom wall does not have an opening for the entry or exit of the liquid, characterised in that • the bottom wall has, with the longitudinal wall , a continuity of material.
A mounting element , for mounting an architectural covering between two opposing mounting surfaces , the mounting element comprising: - an elongate mounting member which is elongated along a longitudinal direction (X) and which has a first end (102.1), a second end (102.2), and at least one guide surface , and - an extension mechanism arranged at the first end (102.1), the extension mechanism being operable between: i) a retracted state, and ii) an extended state in which the extension mechanism abuts one of the opposing mounting surfaces when the mounting element is mounted between the opposing mounting surfaces , and - a telescopic extender arranged at the second end (102.2), the telescopic extender being operable between a retracted configuration and an extended configuration so as to abut the other one of the opposing mounting surfaces when the mounting element is mounted between the opposing mounting surfaces , and wherein the telescopic extender comprises: - a slidable body configured to slide along the guide surface parallel to the longitudinal direction (X) in a first translation direction (X2) away from the first end (102.1) so as to lengthen the mounting element , and characterized in that the telescopic extender comprises: - a locking member mechanically coupled to the slidable body , the locking member being configured: i) to allow the slidable body to slide in the first translation direction (X2), and ii) to engage the guide surface so as to prevent the slidable body from sliding in a second translation direction (OX2) opposite the first translation direction (X2). - an elongate mounting member which is elongated along a longitudinal direction (X) and which has a first end (102.1), a second end (102.2), and at least one guide surface , and - an extension mechanism arranged at the first end (102.1), the extension mechanism being operable between: i) a retracted state, and ii) an extended state in which the extension mechanism abuts one of the opposing mounting surfaces when the mounting element is mounted between the opposing mounting surfaces , and - a telescopic extender arranged at the second end (102.2), the telescopic extender being operable between a retracted configuration and an extended configuration so as to abut the other one of the opposing mounting surfaces when the mounting element is mounted between the opposing mounting surfaces , and - a slidable body configured to slide along the guide surface parallel to the longitudinal direction (X) in a first translation direction (X2) away from the first end (102.1) so as to lengthen the mounting element , and - a locking member mechanically coupled to the slidable body , the locking member being configured: i) to allow the slidable body to slide in the first translation direction (X2), and ii) to engage the guide surface so as to prevent the slidable body from sliding in a second translation direction (OX2) opposite the first translation direction (X2).
A statistical copolymer latex, comprising: a chloroprene monomeric unit and an unsaturated nitrile monomeric unit in which a content of the unsaturated nitrile monomeric unit is 5 mass% to 20 mass%, wherein a toluene-insoluble fraction of a statistical copolymer obtained by lyophilization of the statistical copolymer latex is 50 mass% to 100 mass% with respect to 100 mass% of the statistical copolymer. a chloroprene monomeric unit and an unsaturated nitrile monomeric unit in which a content of the unsaturated nitrile monomeric unit is 5 mass% to 20 mass%, wherein a toluene-insoluble fraction of a statistical copolymer obtained by lyophilization of the statistical copolymer latex is 50 mass% to 100 mass% with respect to 100 mass% of the statistical copolymer.
A method in a seedling planting machine , in which seedlings are extracted from a seedling storage to be transferred to planting means of the planting machine , wherein the method comprises - holding the seedling storage in its place on a storage track of the planting machine supported by first holding elements , - transferring the seedling storage on the storage track of the planting machine by moving second holding elements in relation to the first holding elements and in relation to the storage track , characterised in that the transferring of the seedling storage is performed by moving the second holding elements so that - the seedling storage comes into contact with the second holding elements , - the seedling storage is transferred from being supported by the first holding elements to be supported by the second holding elements , - the seedling storage is transferred a transfer distance forwards on the storage track by moving the second holding elements, - the second holding elements are transferred so that the seedling storage is transferred to be supported by the first holding elements , - the seedling storage is detached from the second holding elements . - holding the seedling storage in its place on a storage track of the planting machine supported by first holding elements , - transferring the seedling storage on the storage track of the planting machine by moving second holding elements in relation to the first holding elements and in relation to the storage track , - the seedling storage comes into contact with the second holding elements , - the seedling storage is transferred from being supported by the first holding elements to be supported by the second holding elements , - the seedling storage is transferred a transfer distance forwards on the storage track by moving the second holding elements, - the second holding elements are transferred so that the seedling storage is transferred to be supported by the first holding elements , - the seedling storage is detached from the second holding elements .
A method for forming a pellicle for extreme ultraviolet lithography, the method comprising: forming a coating of a first material on at least a peripheral region of a main surface of a carbon nanotube pellicle membrane , the membrane including a carbon nanotube film , arranging the carbon nanotube pellicle membrane on a pellicle frame with said peripheral region facing a support surface of the pellicle frame , wherein the support surface of the pellicle frame is formed by a second material, and bonding together the coating of the carbon nanotube pellicle membrane and the pellicle support surface by applying a pressure for pressing the carbon nanotube pellicle membrane and the pellicle support surface against each other, the method further comprising heating the carbon nanotube pellicle membrane and the pellicle frame while applying the pressure. forming a coating of a first material on at least a peripheral region of a main surface of a carbon nanotube pellicle membrane , the membrane including a carbon nanotube film , arranging the carbon nanotube pellicle membrane on a pellicle frame with said peripheral region facing a support surface of the pellicle frame , wherein the support surface of the pellicle frame is formed by a second material, and bonding together the coating of the carbon nanotube pellicle membrane and the pellicle support surface by applying a pressure for pressing the carbon nanotube pellicle membrane and the pellicle support surface against each other, the method further comprising heating the carbon nanotube pellicle membrane and the pellicle frame while applying the pressure.
A multifunctional welding apparatus comprising: a first handle ; a first head member moveably coupled to the first handle ; a second handle ; a second head member movably coupled to the second handle , wherein the first head member and the second head member are rotatably coupled to each other; a first tool unitarily formed with at least one of the first head member and the second head member , wherein the first tool is a pliers , and a plurality of tools moveably coupled to at least one of the first handle and the second handle , wherein the plurality of tools includes at least one of a thickness gauge , a scratching tool , and a picking tool , characterized by further including a biasing member between the first and second head members , and wherein not only a pliers is formed with at least one of the first and second head members , but also a nozzle removing tool , a tip removing tool , a wire cutting tool , a hammer and a cleaning tool . a first handle ; a first head member moveably coupled to the first handle ; a second handle ; a second head member movably coupled to the second handle , wherein the first head member and the second head member are rotatably coupled to each other; a first tool unitarily formed with at least one of the first head member and the second head member , wherein the first tool is a pliers , and a plurality of tools moveably coupled to at least one of the first handle and the second handle , wherein the plurality of tools includes at least one of a thickness gauge , a scratching tool , and a picking tool , characterized by further including a biasing member between the first and second head members , and wherein not only a pliers is formed with at least one of the first and second head members , but also a nozzle removing tool , a tip removing tool , a wire cutting tool , a hammer and a cleaning tool .
Method of redimensioning a timepiece movement intended to operate at ambient atmospheric pressure to operating under a low-pressure atmosphere, characterised in that it comprises the following steps: 1. measuring the quality factor FQ of the movement at atmospheric pressure, optically or acoustically, by free oscillation, and calculating the energy loss ΔE at atmospheric pressure according to the formula Δ ⁢ E = 2 × π × E FQ with E = 2 × π 2 × f 2 × I bal × θ 2 wherein f : frequency of the balance I bal : inertia of the balance θ : amplitude of the balance or E = 1 2 × K × θ 2 wherein K = stiffness of the balance spring 2. measuring the quality factor FQ of the movement at a predetermined low pressure corresponding to the operating pressure intended for the modified movement, optically or acoustically, by free oscillation, and calculating the energy loss ΔE at said predetermined low pressure according to the formula Δ ⁢ E = 2 × π × E FQ 3. calculating the energy gain between the energy loss ΔE at atmospheric pressure calculated in step 1 and the energy loss ΔE at the predetermined low pressure calculated in step 2 as a percentage 4. modifying the movement intended to operate at ambient atmospheric pressure by increasing the reduction ratio of the going gear train by a value corresponding to the previously determined percentage in order to obtain a movement operating at said predetermined low pressure. 1. measuring the quality factor FQ of the movement at atmospheric pressure, optically or acoustically, by free oscillation, and calculating the energy loss ΔE at atmospheric pressure according to the formula Δ ⁢ E = 2 × π × E FQ with E = 2 × π 2 × f 2 × I bal × θ 2 wherein f : frequency of the balance I bal : inertia of the balance θ : amplitude of the balance or E = 1 2 × K × θ 2 wherein K = stiffness of the balance spring f : frequency of the balance I bal : inertia of the balance θ : amplitude of the balance 2. measuring the quality factor FQ of the movement at a predetermined low pressure corresponding to the operating pressure intended for the modified movement, optically or acoustically, by free oscillation, and calculating the energy loss ΔE at said predetermined low pressure according to the formula Δ ⁢ E = 2 × π × E FQ 3. calculating the energy gain between the energy loss ΔE at atmospheric pressure calculated in step 1 and the energy loss ΔE at the predetermined low pressure calculated in step 2 as a percentage 4. modifying the movement intended to operate at ambient atmospheric pressure by increasing the reduction ratio of the going gear train by a value corresponding to the previously determined percentage in order to obtain a movement operating at said predetermined low pressure.