mhurhangee/ep-ind-claims huggingface dataset:
A method for converting a turbofan engine, comprising; (a) providing a turbofan engine, the turbofan engine comprising; - a core engine including at least one high pressure spool assembly and a combustion chamber; - an unmodified fan configured for providing at least a bypass flow bypassing the core engine at least at one set of engine conditions, the fan being mechanically coupled to a low pressure turbine that is in turn driven by the core engine; (b) providing a converted turbofan engine from the turbofan engine by modifying or replacing the unmodified fan to provide a modified fan, the modified fan being configured for generating a reduced bypass flow with respect to said fan bypass flow during operation of the converted turbofan engine corresponding to said at least one set of engine conditions of step (a), to thereby enable said low pressure turbine to generate an excess shaft power above a baseline shaft power required for driving said modified fan during operation of the converted turbofan engine; wherein in step (b), said modified fan is modified with respect to the unmodified fan by reducing the outer diameter of the fan blades of said unmodified fan. (a) providing a turbofan engine, the turbofan engine comprising; - a core engine including at least one high pressure spool assembly and a combustion chamber; - an unmodified fan configured for providing at least a bypass flow bypassing the core engine at least at one set of engine conditions, the fan being mechanically coupled to a low pressure turbine that is in turn driven by the core engine; - a core engine including at least one high pressure spool assembly and a combustion chamber; - an unmodified fan configured for providing at least a bypass flow bypassing the core engine at least at one set of engine conditions, the fan being mechanically coupled to a low pressure turbine that is in turn driven by the core engine; (b) providing a converted turbofan engine from the turbofan engine by modifying or replacing the unmodified fan to provide a modified fan, the modified fan being configured for generating a reduced bypass flow with respect to said fan bypass flow during operation of the converted turbofan engine corresponding to said at least one set of engine conditions of step (a), to thereby enable said low pressure turbine to generate an excess shaft power above a baseline shaft power required for driving said modified fan during operation of the converted turbofan engine;
A power distribution system with a distribution feeder protected by a protection device against a fault occurring downstream of the protection device, and with a first energy source connected via a power electronics interface comprising a converter or an inverter (43, 53) to the distribution feeder upstream of the protection device and causing the protection device to clear the fault within a first fault clearance time, characterized in that the power system comprises an induction machine connected to the distribution feeder upstream of the protection device, and adapted to cause, in particular together with the first energy source connected via the power electronics interface, a fault current in the distribution feeder, said fault current causing the protection device to clear the fault within a second fault clearance time following the fault; and wherein the induction machine has a first power rating P IM which is at least approximately in the same order of magnitude as a second power rating of the first energy source; and the induction machine is configured to neither provide a substantial amount of work to any kind of external equipment or machinery, nor to receive any substantial amount of work by any kind of external equipment or machinery, i.e. with an amount of work W IM provided by or to the induction machine being negligible in comparison to the first power rating P IM, i.e. 10 W IM < P IM, preferably 100 W IM < P IM, most preferably 1000 W IM < P IM.
An airborne structure comprising: a support surface: a connection mechanism adjacent to the support surface for attaching the airborne structure to a vehicle; characterized by a shape memory alloy fairing is configured to provide a smooth surface around the connection mechanism, the shape memory alloy fairing having a first shape at a first temperature and a second shape at a second temperature. a support surface: a connection mechanism adjacent to the support surface for attaching the airborne structure to a vehicle; characterized by a shape memory alloy fairing is configured to provide a smooth surface around the connection mechanism, the shape memory alloy fairing having a first shape at a first temperature and a second shape at a second temperature. a connection mechanism adjacent to the support surface for attaching the airborne structure to a vehicle; characterized by a shape memory alloy fairing is configured to provide a smooth surface around the connection mechanism, the shape memory alloy fairing having a first shape at a first temperature and a second shape at a second temperature.
A cooling structure of a high-speed cup-shaped wheel, comprising a base and a blade ring, the blade ring being arranged on the base and fixedly connected to the base, wherein the blade ring is provided with a plurality of water channel groups, which is sequentially arranged at intervals in a circumferential direction of the blade ring; and characterised in that each of the water channel groups comprises two or more inner water channels (3.1), which are sequentially arranged at intervals in the circumferential direction of the blade ring, the width of each of the two or more inner water channels (3.1) in a radial direction of the blade ring being gradually increased.
Cosmetic composition comprising a physiologically acceptable medium containing: an aqueous phase; an oily phase of density at ambient temperature of less than that of the aqueous phase; and nacre particles, dispersed in the aqueous phase, consisting of a substrate coated, partially or totally, by one or more layers, at least one of the layers being a layer of metallic oxide, said substrate being chosen from the group consisting of silica, borosilicate, mica and aluminium, and when the substrate is of mica or aluminium, the nacre particles comprise a layer of silica on the surface, and when the metallic oxide is an iron oxide, the content of iron oxide is less than 50% by weight relative to the total weight of the particles, said cosmetic composition comprising from 5% to 85% by weight of oily phase relative to the total weight of said composition, said composition having at rest three visually separate phases. an aqueous phase; an oily phase of density at ambient temperature of less than that of the aqueous phase; and nacre particles, dispersed in the aqueous phase, consisting of a substrate coated, partially or totally, by one or more layers, at least one of the layers being a layer of metallic oxide,
A switching method, comprising: determining, by a source network device (70, 90), N candidate network devices based on broadcast channel quality information of candidate network devices and a neighboring relation table, sending, by the source network device (70, 90), a first measurement parameter to a terminal device (80, 100) to indicate an attribute of the N determined candidate network devices needing to be measured by the terminal device (80, 100), receiving, by the source network device (70, 90), from the terminal device (80, 100) N pieces of data channel quality information, wherein the N pieces of data channel quality information are in a one-to-one correspondence with the N candidate network devices, each of the N pieces of data channel quality information is used to indicate coverage quality of a data channel between a terminal device (80, 100) and a candidate network device corresponding to the data channel quality information, and N is an integer greater than or equal to 1; and determining, by the source network device (70, 90) based on the N pieces of data channel quality information, one of the N candidate network devices as a target network device, wherein the target network device is a network device to which the terminal device (80, 100) is to be switched from the source network device (70, 90). determining, by a source network device (70, 90), N candidate network devices based on broadcast channel quality information of candidate network devices and a neighboring relation table, sending, by the source network device (70, 90), a first measurement parameter to a terminal device (80, 100) to indicate an attribute of the N determined candidate network devices needing to be measured by the terminal device (80, 100), receiving, by the source network device (70, 90), from the terminal device (80, 100) N pieces of data channel quality information, wherein the N pieces of data channel quality information are in a one-to-one correspondence with the N candidate network devices, each of the N pieces of data channel quality information is used to indicate coverage quality of a data channel between a terminal device (80, 100) and a candidate network device corresponding to the data channel quality information, and N is an integer greater than or equal to 1; and determining, by the source network device (70, 90) based on the N pieces of data channel quality information, one of the N candidate network devices as a target network device, wherein the target network device is a network device to which the terminal device (80, 100) is to be switched from the source network device (70, 90).
Vehicle interior device, in particular airplane interior device, with at least one power supply interface and with at least one power supply unit, the power supply unit (18a; 18b; 18c) being implemented by an energy harvesting unit, characterised in that the energy harvesting unit comprises at least one piezo element capable of utilising vibrations generated in a movement of a vehicle for power production.
An array with a plurality of capillaries, in particular for thermophoresis measurements, wherein the capillaries are arranged in the same plane and are mechanically attached to the array, and wherein at least one first free end of each capillary projects from the array in such a way that the free ends of the capillaries may be inserted simultaneously into wells of a microwell plate, wherein stacking elements in the shape of at least one projecting tooth (101, 102, 103) and at least one configured recess are provided at the array, wherein, when the arrays are stacked, the recess engages with the tooth of an adjacent array from the stack. wherein at least one first free end of each capillary projects from the array in such a way that the free ends of the capillaries may be inserted simultaneously into wells of a microwell plate, wherein stacking elements in the shape of at least one projecting tooth (101, 102, 103) and at least one configured recess are provided at the array, wherein, when the arrays are stacked, the recess engages with the tooth of an adjacent array from the stack.
A spectroscopy device for water analysis comprising: an optical microspectrometer; and a waterproof casing designed to withstand underwater environment; the casing having at least one portion, which is transparent to the wavelengths of light being measured; the microspectrometer comprising a light source; a detector configured to detect and measure a spectral signal emitted, transmitted, or reflected by a sample; optical components comprising optical lenses and optical filters; and a means for controllable positioning of the optical lenses and the optical filters in front of the microspectrometer's detector; wherein the optical filters comprise a 390-410 nm high pass filter, a 490-510 nm high pass filter, and a 590-610 nm high pass filter; wherein the light source is a light source or a set of light sources, designed to emit light in the ranges 360-380 nm, 440-460 nm, and 570-590 nm; wherein the microspectrometer is designed to be accommodated within the casing, so that the detector is positioned behind the transparent portion of the casing to be capable to be exposed to the spectral signal being measured.
Apparatus for vulcanizing tyres, having at least one vulcanization chamber (2a, 2b), and having at least one loader (7a, 7b) for loading the at least one vulcanization chamber with a green tyre and at least one unloader for unloading an at least partially vulcanized tyre from the at least one vulcanization chamber (2a, 2b), characterized in that the apparatus for vulcanizing tyres has at least one set-down device (4a, 4b), at least one pushing apparatus (6a, 6b) and a transporting belt, wherein, with the aid of the at least one unloader, a tyre is able to be unloaded from the at least one vulcanization chamber (2a, 2b) and said tyre is able to be set down on the at least one set-down device (4a, 4b), and wherein, with the aid of the at least one pushing apparatus (6a, 6b), the tyre set down on the at least one set-down device (4a, 4b) is able to be pushed onto the transporting belt for the purpose of transporting the tyre away.
A pultrusion method of pultruding a composite material member while drawing a plurality of fiber sheets in a drawing direction, the pultrusion method comprising: a gap material preliminary molding step of preliminarily molding a gap material which is to be provided in a gap formed by the plurality of fiber sheets which is drawn in the drawing direction, wherein the gap material has a wedge shape in a cross section cut in a plane orthogonal to the longitudinal direction and includes a gap fiber sheet which includes reinforcement fibers oriented in a fiber direction different from the drawing direction, and gap reinforcement fibers oriented in the same fiber direction as the drawing direction, and wherein, in the gap material preliminary molding step, the gap reinforcement fibers and the gap fiber sheet are respectively supplied toward a preliminary molding tool, the gap reinforcement fibers are disposed so as to be in contact with at least one surface of the gap fiber sheet, and the gap fiber sheet in which the gap reinforcement fibers are in contact with one surface thereof is rolled inwardly and is bent spirally and is introduced into the preliminary molding tool, and the gap reinforcement fibers and the gap fiber sheet are drawn along the drawing direction in the preliminary molding tool, whereby the gap material is preliminarily molded. a gap material preliminary molding step of preliminarily molding a gap material which is to be provided in a gap formed by the plurality of fiber sheets which is drawn in the drawing direction, wherein the gap material has a wedge shape in a cross section cut in a plane orthogonal to the longitudinal direction and includes a gap fiber sheet which includes reinforcement fibers oriented in a fiber direction different from the drawing direction, and gap reinforcement fibers oriented in the same fiber direction as the drawing direction, and wherein, in the gap material preliminary molding step, the gap reinforcement fibers and the gap fiber sheet are respectively supplied toward a preliminary molding tool, the gap reinforcement fibers are disposed so as to be in contact with at least one surface of the gap fiber sheet, and the gap fiber sheet in which the gap reinforcement fibers are in contact with one surface thereof is rolled inwardly and is bent spirally and is introduced into the preliminary molding tool, and the gap reinforcement fibers and the gap fiber sheet are drawn along the drawing direction in the preliminary molding tool, whereby the gap material is preliminarily molded.
Use of lacosamide for the preparation of a pharmaceutical composition for the prevention, alleviation or/and treatment of a disease which is a channelopathy associated with a dysfunction of a voltage-gated sodium channel, wherein the disease is an epilepsy syndrome selected from the group of generalized epilepsy with febrile seizures plus (GEFS+), severe myoclonic epilepsy in infancy (SMEI), benign familial neonatal seiizures (BNIFS), intractable childhood epilepsy with generalized tonic clonic seizures (ICEGTC), and infantile spasms (West syndrome).
A process for purifying the compound of Formula I or the salts thereof, wherein said process comprises the following steps: loading the crude compound of Formula I onto a macroporous adsorption resin; washing the macroporous adsorption resin by using water, an organic solvent or a mixed solution of an organic solvent and water as the washing liquid; and eluting the compound of Formula I from the macroporous adsorption resin by using water, an organic solvent or a mixed solution of an organic solvent and water as the eluent; wherein, the adsorption resin in step comprises halogen and is bonded with styrene polymer matrix through a chemistry bond that is a covalent bond; or in step, the solution comprising the crude compound of Formula I comprises ionizable salts; and the macroporous adsorption resin is selected from a non-polar aromatic adsorption resin polymerized from styrene and divinylbenzene, or a methacrylic adsorption resin of moderate polarity with methacrylate units in its structure. loading the crude compound of Formula I onto a macroporous adsorption resin; washing the macroporous adsorption resin by using water, an organic solvent or a mixed solution of an organic solvent and water as the washing liquid; and eluting the compound of Formula I from the macroporous adsorption resin by using water, an organic solvent or a mixed solution of an organic solvent and water as the eluent;
Method for producing a pressure-sensitive adhesive on the basis of a silane-modified polymer, comprising at least one silyl-containing polymer, at least one compatible tackifying resin and at least one catalyst, where the pressure-sensitive adhesive is prepared from a mixture of chainlike, silane-modified, alkoxysilylated prepolymers, the mixture comprising at least one first, silane-modified prepolymer with ethoxysilylation laterally on the chain, and at least one second, silane-modified prepolymer with ethoxysilylation and/or methoxysilylation terminally and/or laterally on the chain, where the first prepolymer and the second prepolymer are crosslinked with one another with elimination of alcohol, characterized in that the first, silane-modified prepolymer with ethoxysilylation laterally on the chain is a longer-chain prepolymer than the second, shorter-chain prepolymer with ethoxysilylation and/or methoxysilylation laterally and/or terminally on the chain, where the chain length is understood as being a total chain length made up of the main chain and - if present - all the side chains, and the total chain length corresponds to the respective molar mass of the prepolymer, where the total fraction of silane-modified, methoxysilylated prepolymers in the mixture of the chainlike, silane-modified, alkoxysilylated prepolymers is at most 50 mass%.
A method of protein enrichment of a microalga grown heterotrophically, said microalga being of the genus Chlorella, characterized in that the heterotrophic culturing comprises a step aiming at limiting the growth of said microalga by means of a deficiency of glucose in the fermentation medium with a continuous supply in glucose so as to obtain a growth rate of between 0.06 h -1 and 0.09 h -1, thus making it possible for the biomass protein content to reach more than 50% by weight.
A method for geofencing in a geofenced area, wherein the geofenced area is defined by a set of N fence-pole devices, FPDs, where N is greater than or equal to 3 such that the set of N FPDs comprises at least a first FPD (FPD A) a second FPD (FPD B) and a third FPD (FPD C), the method being performed by the first FPD and comprising: the first FPD determining a first direction indicator indicating a first direction from the first FPD to a communication device; the first FPD determining a second direction indicator indicating a second direction from the first FPD to the second FPD, wherein the second direction indicator is used to define a spanning area for the first FPD; the first FPD determining, based on the first direction indicator and the second direction indicator, whether or not the communication device is within the spanning area; the first FPD determining a third direction indicator indicating a direction from the first FPD to the third FPD, wherein the step of the first FPD determining, based on the first direction indicator, whether or not the communication device is within the spanning area comprises the first FPD determining whether the first direction is between: i) the direction from the first FPD to the second FPD and ii) the direction from the first FPD to the third FPD,_and the first FPD determining that either: i) the communication device is within the spanning area or ii) the communication device is not within the spanning area. the first FPD determining a first direction indicator indicating a first direction from the first FPD to a communication device; the first FPD determining a second direction indicator indicating a second direction from the first FPD to the second FPD, wherein the second direction indicator is used to define a spanning area for the first FPD; the first FPD determining, based on the first direction indicator and the second direction indicator, whether or not the communication device is within the spanning area; the first FPD determining a third direction indicator indicating a direction from the first FPD to the third FPD, wherein the step of the first FPD determining, based on the first direction indicator, whether or not the communication device is within the spanning area comprises the first FPD determining whether the first direction is between: i) the direction from the first FPD to the second FPD and ii) the direction from the first FPD to the third FPD,_and the first FPD determining that either: i) the communication device is within the spanning area or ii) the communication device is not within the spanning area.