mhurhangee/patent-ind-claim-en huggingface dataset:
A process for manufacturing a composite part comprising the following steps: - arrangement of a fibrous preform in a mold comprising an impregnation chamber which comprises in its lower part a filter by making a first face of the preform rest on said filter , the impregnation chamber being closed by a flexible membrane placed opposite a second face of the preform , said membrane separating the impregnation chamber from a compaction chamber ; characterized in that the process further comprises the following steps: - injection of a compression fluid into the compaction chamber so as to apply a first pressure (Pm) on the membrane ; - injection of a slurry comprising ceramic particles into the impregnation chamber with a second pressure (Pb) while maintaining the injection of the compression fluid, the second injection pressure (Pb) of the slurry being lower than the first pressure (Pm) on the membrane , wherein the process comprises the following step: - progressive increase of the first pressure (Pm) on the membrane and of the second injection pressure (Pb) of the slurry with maintenance of the second injection pressure (Pb) of the slurry lower than the first pressure (Pm) on the membrane . - arrangement of a fibrous preform in a mold comprising an impregnation chamber which comprises in its lower part a filter by making a first face of the preform rest on said filter , the impregnation chamber being closed by a flexible membrane placed opposite a second face of the preform , said membrane separating the impregnation chamber from a compaction chamber ; characterized in that the process further comprises the following steps: - injection of a compression fluid into the compaction chamber so as to apply a first pressure (Pm) on the membrane ; - injection of a slurry comprising ceramic particles into the impregnation chamber with a second pressure (Pb) while maintaining the injection of the compression fluid, the second injection pressure (Pb) of the slurry being lower than the first pressure (Pm) on the membrane , - progressive increase of the first pressure (Pm) on the membrane and of the second injection pressure (Pb) of the slurry with maintenance of the second injection pressure (Pb) of the slurry lower than the first pressure (Pm) on the membrane .
A method for operating a sanitary fitting , wherein the sanitary fitting comprises a housing having an outlet and a contact sensor , wherein a tapping of a fluid can be activated in a contact mode of the sanitary fitting by touching the contact sensor , characterized in that a deactivation of the contact mode occurs if the contact sensor is touched for a duration of at least 3 seconds.
Manual drive cooking preparation appliance comprising a bowl to contain food to process with a side face , a removable rotary working accessory disposed in the bowl , a removable cover disposed on the bowl , the cover comprising a manual command motor to rotate a drive shaft of the rotary working accessory about an axis A of rotation by traction of a cord transversally to the axis A of rotation, a first dynamic seal disposed between the cover and the side face of the bowl in order to fill the space between the cover and the bowl ; characterised in that the cover comprises a second dynamic seal , disposed between the cover and the drive shaft in order to fill the space between the drive shaft and the cover ; each seal (9; 10) has an inner wall , a connecting part arranged on the cover , an annular lip and a recess , the annular lip being movable and deformable with an angle α of displacement extending outwards with respect to the axis A of rotation, so as to ensure the sealing when the cover is connected to the bowl in the working position. the cover comprising a manual command motor to rotate a drive shaft of the rotary working accessory about an axis A of rotation by traction of a cord transversally to the axis A of rotation, a first dynamic seal disposed between the cover and the side face of the bowl in order to fill the space between the cover and the bowl ; characterised in that the cover comprises a second dynamic seal , disposed between the cover and the drive shaft in order to fill the space between the drive shaft and the cover ; each seal (9; 10) has an inner wall , a connecting part arranged on the cover , an annular lip and a recess , the annular lip being movable and deformable with an angle α of displacement extending outwards with respect to the axis A of rotation, so as to ensure the sealing when the cover is connected to the bowl in the working position.
A method of operating an intermittent air jet weaving machine to form a textile, said air jet weaving machine having a weft yarn , which is propelled by a burst of high pressure air using at least one compressed gas booster , and a warp shed defined by warp threads , the method comprising depositing energy to form a low density guide path (A) for the weft yarn to pass through the warp shed defined by the warp threads , characterized by using laser energy and/or electric discharge energy to impulsively heat the air along a straight path to form the low density guide path (A) surrounded by a higher density region, said higher density region containing at least a fraction of the heated portion of the air; directing at least a portion of the weft yarn into the low density guide path (A).
A prepreg sheet, which is an intermediate of molded articles, comprising a nonwoven fabric comprising carbon fibers and thermoplastic resin fibers, wherein, the prepreg sheet has a thickness expansion rate of 250% or less after being heated for 90 seconds at a temperature of the melting point of the thermoplastic resin fibers to the melting point + 100°C, wherein the prepreg sheet has a density of marks made by needle punching of 3 punches/cm 2 or less, wherein the density of marks is determined according to the method indicated in the description, wherein the prepreg sheet has a basis weight of 100 to 1500 g/m 2 and a thickness of 0.5 to 6.0 mm, and wherein the carbon fibers have an average fiber length of 15 to 100 mm, and the thermoplastic resin fibers have an average fiber length of 25 to 100 mm. the prepreg sheet has a thickness expansion rate of 250% or less after being heated for 90 seconds at a temperature of the melting point of the thermoplastic resin fibers to the melting point + 100°C, wherein the prepreg sheet has a density of marks made by needle punching of 3 punches/cm 2 or less, wherein the density of marks is determined according to the method indicated in the description, wherein the prepreg sheet has a basis weight of 100 to 1500 g/m 2 and a thickness of 0.5 to 6.0 mm, and wherein the carbon fibers have an average fiber length of 15 to 100 mm, and the thermoplastic resin fibers have an average fiber length of 25 to 100 mm.
A light signalling device for a motor vehicle, comprising a first light source adapted to emit a first light beam , a converging optical system positioned opposite the first light source in such a way that its main object focus is located at the first light source and an upper plate opposite a lower plate , wherein said plates are arranged in such a way as to be parallel or substantially parallel to the first light beam coming from the optical system and at least one part of the first light beam passes between said plates, and wherein the lower plate reflects the first light beam and the upper plate is transparent and/or translucent to the first light beam , the signalling device being characterized in that it comprises a reflective wall opposite the upper plate , in such a way as to form between said wall and the upper plate a cavity through which a part of the first light beam is able to propagate.
A resin composition for a metal-clad laminate plate, comprising: (A) a styrene-butadiene-styrene block copolymer (SBS) having i) a molar ratio of a 1,2-bonding structure to a 1,4-bonding structure in a butadiene block of 80:20 to 100:0 which is measured by 1 H NMR, ii) a weight ratio of the styrene block to the butadiene block of 10:90 to 60:40, and iii) a weight average molecular weight (Mw) of 2,000 to 40,000, (B) a polybutadiene having i) a molar ratio of a 1,2-bonding structure to a 1,4-bonding structure of 80:20 to 100:0 which is measured by 1 H NMR, and ii) a weight average molecular weight (Mw) of 500 to 5,000, and (C) an initiator which is selected from the group consisting of benzoyl peroxide, cumene hydroperoxide, 2,5-dimethylhexane-2,5-dihydroperoxide, 2,5-dimethyl-2,5-di(t-butylperoxy)hexine-3, di-t-butyl peroxide, t-butylcumyl peroxide, α,α'-bis(t-butylperoxy-m-isopropyl)benzene, 2,5-dimethyl-2,5-di(t-butyl peroxy) hexane, dicumyl peroxide, di-t-butyl peroxy isophthalate, t-butyl peroxybenzoate, 2,2-bis(t-butylperoxy)butane, 2,2-bis(t-butylperoxy)octane, 2,5-dimethyl-2,5-di(benzoylperoxy)hexane, di(trimethylsilyl)peroxide and trimethylsilyl triphenylsilyl peroxide. (A) a styrene-butadiene-styrene block copolymer (SBS) having i) a molar ratio of a 1,2-bonding structure to a 1,4-bonding structure in a butadiene block of 80:20 to 100:0 which is measured by 1 H NMR, ii) a weight ratio of the styrene block to the butadiene block of 10:90 to 60:40, and iii) a weight average molecular weight (Mw) of 2,000 to 40,000, i) a molar ratio of a 1,2-bonding structure to a 1,4-bonding structure in a butadiene block of 80:20 to 100:0 which is measured by 1 H NMR, ii) a weight ratio of the styrene block to the butadiene block of 10:90 to 60:40, and iii) a weight average molecular weight (Mw) of 2,000 to 40,000, (B) a polybutadiene having i) a molar ratio of a 1,2-bonding structure to a 1,4-bonding structure of 80:20 to 100:0 which is measured by 1 H NMR, and ii) a weight average molecular weight (Mw) of 500 to 5,000, and i) a molar ratio of a 1,2-bonding structure to a 1,4-bonding structure of 80:20 to 100:0 which is measured by 1 H NMR, and ii) a weight average molecular weight (Mw) of 500 to 5,000, and (C) an initiator which is selected from the group consisting of benzoyl peroxide, cumene hydroperoxide, 2,5-dimethylhexane-2,5-dihydroperoxide, 2,5-dimethyl-2,5-di(t-butylperoxy)hexine-3, di-t-butyl peroxide, t-butylcumyl peroxide, α,α'-bis(t-butylperoxy-m-isopropyl)benzene, 2,5-dimethyl-2,5-di(t-butyl peroxy) hexane, dicumyl peroxide, di-t-butyl peroxy isophthalate, t-butyl peroxybenzoate, 2,2-bis(t-butylperoxy)butane, 2,2-bis(t-butylperoxy)octane, 2,5-dimethyl-2,5-di(benzoylperoxy)hexane, di(trimethylsilyl)peroxide and trimethylsilyl triphenylsilyl peroxide.
A method of operating a user equipment, UE, comprising: transmitting a measurement report during a configured DRX ON duration that precedes a wake-up signal, WUS; and receiving a WUS that includes an indication of selected physical cell identifiers, PCIs, of a PCI group; and monitoring , in response to the WUS, one or more configured DRX ON durations associated with the selected PCIs of the PCI group, wherein the one or more configured DRX ON durations includes the next configured DRX ON duration subsequent to the WUS. transmitting a measurement report during a configured DRX ON duration that precedes a wake-up signal, WUS; and receiving a WUS that includes an indication of selected physical cell identifiers, PCIs, of a PCI group; and monitoring , in response to the WUS, one or more configured DRX ON durations associated with the selected PCIs of the PCI group, wherein the one or more configured DRX ON durations includes the next configured DRX ON duration subsequent to the WUS.
A method for restricting a search area for a model-based online optimization method that determines a predicted optimum first trend in a state variable of a vehicle within a prescribed search area for a route section ahead, characterized by a) determination of a predicted second trend in the state variable along the route section ahead on the basis of route information for the route section (S1-S3) ahead, b) restriction of the search area on the basis of the determined predicted second trend in the state variable (S4); and c) use of the search area restricted in this way for the subsequent determination of the first trend in the state variable . a) determination of a predicted second trend in the state variable along the route section ahead on the basis of route information for the route section (S1-S3) ahead, b) restriction of the search area on the basis of the determined predicted second trend in the state variable (S4); and c) use of the search area restricted in this way for the subsequent determination of the first trend in the state variable .
A cooking apparatus comprising: a casing ; a cooking chamber formed inside the casing ; a duct member formed outside the cooking chamber to extend from a first plate of the cooking chamber to a second plate forming an upper surface of the cooking chamber ; a heater installed inside the duct member ; and a fan installed inside the duct member and configured to blow air in the duct member , wherein the cooking chamber is formed to cook food using high-temperature air discharged into the cooking chamber through a first outlet part formed at the second plate , wherein the first outlet part includes a plurality of outlet holes and is located in a first area corresponding to a central area of the second plate , and characterized in that the plurality of outlet holes is spirally disposed outward from a center portion of the first area , wherein a first distance (d1) between a first outlet hole (h1) randomly selected from the plurality of outlet holes and a second outlet hole (h2) outwardly adjacent to the first outlet hole (h1) on a spiral line has a distance increased by a certain proportion from a second distance (d2) between the first outlet hole (h1) and a third outlet hole (h3) inwardly adjacent to the first outlet hole (h1) on the spiral line. a casing ; a cooking chamber formed inside the casing ; a duct member formed outside the cooking chamber to extend from a first plate of the cooking chamber to a second plate forming an upper surface of the cooking chamber ; a heater installed inside the duct member ; and a fan installed inside the duct member and configured to blow air in the duct member , wherein the cooking chamber is formed to cook food using high-temperature air discharged into the cooking chamber through a first outlet part formed at the second plate , wherein the first outlet part includes a plurality of outlet holes and is located in a first area corresponding to a central area of the second plate , and characterized in that the plurality of outlet holes is spirally disposed outward from a center portion of the first area , wherein a first distance (d1) between a first outlet hole (h1) randomly selected from the plurality of outlet holes and a second outlet hole (h2) outwardly adjacent to the first outlet hole (h1) on a spiral line has a distance increased by a certain proportion from a second distance (d2) between the first outlet hole (h1) and a third outlet hole (h3) inwardly adjacent to the first outlet hole (h1) on the spiral line.
Power generation system comprising: - at least one renewable energy source , - a reversible fuel cell module exhibiting a electrolysis functioning mode where the fuel cell module is powered by the renewable energy source for generation of a combustible gas and a fuel cell functioning mode where the fuel cell module generates electricity from a combustible gas, - a high temperature heat storage coupled to said reversible fuel cell module for maintaining the reversible fuel cell module in a operation temperature range in the electrolysis functioning mode, the high temperature heat storage comprising a heat exchanger having salts as heat exchange medium that are in a molten state in the operation temperature range of the reversible fuel cell module - a combustible gas storage coupled to the reversible fuel cell module for storing the combustible gas generated by the reversible fuel cell module in the electrolysis functioning mode and for supplying the combustible gas to the reversible fuel cell module in the fuel cell function mode, wherein the reversible fuel cell module is encapsulated by the high temperature heat storage , and a first thermal isolation is built around the high temperature heat storage . - at least one renewable energy source , - a reversible fuel cell module exhibiting a electrolysis functioning mode where the fuel cell module is powered by the renewable energy source for generation of a combustible gas and a fuel cell functioning mode where the fuel cell module generates electricity from a combustible gas, - a high temperature heat storage coupled to said reversible fuel cell module for maintaining the reversible fuel cell module in a operation temperature range in the electrolysis functioning mode, the high temperature heat storage comprising a heat exchanger having salts as heat exchange medium that are in a molten state in the operation temperature range of the reversible fuel cell module - a combustible gas storage coupled to the reversible fuel cell module for storing the combustible gas generated by the reversible fuel cell module in the electrolysis functioning mode and for supplying the combustible gas to the reversible fuel cell module in the fuel cell function mode,
A flow synthesis process for producing a compound of the Formula I and its pharmaceutically acceptable salts, the process comprising the steps of: a) reacting L-menthyl glyoxalate with 1,4-dithiane-2,5-diol in a dehydration reaction to form a reaction product comprising a compound of the Formula Ia b) reacting the reaction product of step (a) with an acetylation reagent to form a reaction product comprising a compound of the Formula Ib c) reacting the reaction product of step (b) with pyridine triflate and a compound of the Formula Ic in a glycosylation reaction to from a reaction product comprising a compound of the Formula Id d) reacting the reaction product of step (c) with a reducing agent to form the compound of Formula I, wherein R is selected from H or F, and wherein steps (a) to (b) and (c) to (d) are continuous flow synthesis steps, such that the compound of Formula Ib is the only intermediate isolated in the process. a) reacting L-menthyl glyoxalate with 1,4-dithiane-2,5-diol in a dehydration reaction to form a reaction product comprising a compound of the Formula Ia b) reacting the reaction product of step (a) with an acetylation reagent to form a reaction product comprising a compound of the Formula Ib c) reacting the reaction product of step (b) with pyridine triflate and a compound of the Formula Ic in a glycosylation reaction to from a reaction product comprising a compound of the Formula Id d) reacting the reaction product of step (c) with a reducing agent to form the compound of Formula I, wherein R is selected from H or F, and wherein steps (a) to (b) and (c) to (d) are continuous flow synthesis steps, such that the compound of Formula Ib is the only intermediate isolated in the process.
A vibration suppressing method for a supercharger , the supercharger comprising a shaft , a wheel arranged at one end or the other end of the shaft , and a housing including a wheel cover accommodating the wheel , the method comprising: a determining step (S101) of determining a suppression target oscillation frequency to be a suppression target from among oscillation frequencies of the housing vibrating with shaft vibration of the shaft transmitted thereto; a preparing step (S102) of preparing a vibration suppressing unit having a natural frequency to be tuned in to the suppression target oscillation frequency; and an attaching step (S103) of attaching the vibration suppressing unit prepared in the preparing step (S102) onto an outer face of the housing , wherein the vibration suppressing unit includes a dynamic damper device including at least one damper member to be attached onto the outer face of the housing , the damper member being extended in a direction away from the housing and having a natural frequency to be tuned in to vibration of the housing , characterised in that the preparing step (S102) includes a step of performing a hammering test with two vibration suppressing units each having different natural frequencies attached to the housing , and a step of determining the vibration suppressing unit based on a result of the hammering test. a determining step (S101) of determining a suppression target oscillation frequency to be a suppression target from among oscillation frequencies of the housing vibrating with shaft vibration of the shaft transmitted thereto; a preparing step (S102) of preparing a vibration suppressing unit having a natural frequency to be tuned in to the suppression target oscillation frequency; and an attaching step (S103) of attaching the vibration suppressing unit prepared in the preparing step (S102) onto an outer face of the housing , wherein the vibration suppressing unit includes a dynamic damper device including at least one damper member to be attached onto the outer face of the housing , the damper member being extended in a direction away from the housing and having a natural frequency to be tuned in to vibration of the housing , characterised in that the preparing step (S102) includes a step of performing a hammering test with two vibration suppressing units each having different natural frequencies attached to the housing , and a step of determining the vibration suppressing unit based on a result of the hammering test.