mhurhangee/ep-ind-claims huggingface dataset:
A rotor blade assembly for a wind turbine, the rotor blade assembly comprising: a rotor blade having surfaces defining a pressure side, a suction side, a leading edge, and a trailing edge extending between a blade tip and a blade root; and, at least one noise reducer secured at the trailing edge, the noise reducer comprising at least one serration, the at least one serration comprising a base portion having a triangular cross-section and extending along a first plane defined by an X-Y plane relative to an X-Y coordinate, and opposing side edge features extending from the base portion on opposing sides of the base portion, having an arcuate form cross-section, and extending out of the first plane so as to reduce vortices generated by the serration, or wherein the at least one serration comprises a generally triangular cross-section, opposing side edges and a radius of curvature defined between the opposing side edges, wherein the radius of curvature is configured to reduce vortices generated by the side edges of the serration. a rotor blade having surfaces defining a pressure side, a suction side, a leading edge, and a trailing edge extending between a blade tip and a blade root; and, at least one noise reducer secured at the trailing edge, the noise reducer comprising at least one serration, the at least one serration comprising a base portion having a triangular cross-section and extending along a first plane defined by an X-Y plane relative to an X-Y coordinate, and opposing side edge features extending from the base portion on opposing sides of the base portion, having an arcuate form cross-section, and extending out of the first plane so as to reduce vortices generated by the serration, or base portion having a triangular cross-section and extending along a first plane defined by an X-Y plane relative to an X-Y coordinate, and opposing side edge features extending from the base portion on opposing sides of the base portion, having an arcuate form cross-section, and extending out of the first plane so as to reduce vortices generated by the serration, or wherein the at least one serration comprises a generally triangular cross-section, opposing side edges and a radius of curvature defined between the opposing side edges, wherein the radius of curvature is configured to reduce vortices generated by the side edges of the serration. a generally triangular cross-section, opposing side edges and a radius of curvature defined between the opposing side edges, wherein the radius of curvature is configured to reduce vortices generated by the side edges of the serration.
Process for preparing polyoxymethylene dimethyl ethers having ≥ 3 oxymethylene units (OME n≥3), comprising the steps: (i) introduction of formaldehyde, methanol and water into a reactor R and reaction to give a reaction mixture containing formaldehyde, water, methylene glycol, polyoxymethylene glycols, methanol, hemiformals, methylal (OME n=1) and polyoxymethylene dimethyl ethers (OME n>1); (ii) introduction of the reaction mixture into a reactive distillation column K1 and separation into a low boiler fraction F1 containing formaldehyde, water, methylene glycol, polyoxymethylene glycols, methanol, hemiformals, methylal (OME n=1) and polyoxymethylene dimethyl ethers having from 2 to 3 oxymethylene units (OME n=2-3) and a high boiler fraction F2 containing essentially polyoxymethylene dimethyl ethers having more than two oxymethylene units (OME n≥3), wherein the high boiler fraction F2 contains at least 90% by weight of polyoxymethylene dimethyl ethers having more than two oxymethylene units (OME n≥3). (i) introduction of formaldehyde, methanol and water into a reactor R and reaction to give a reaction mixture containing formaldehyde, water, methylene glycol, polyoxymethylene glycols, methanol, hemiformals, methylal (OME n=1) and polyoxymethylene dimethyl ethers (OME n>1); (ii) introduction of the reaction mixture into a reactive distillation column K1 and separation into a low boiler fraction F1 containing formaldehyde, water, methylene glycol, polyoxymethylene glycols, methanol, hemiformals, methylal (OME n=1) and polyoxymethylene dimethyl ethers having from 2 to 3 oxymethylene units (OME n=2-3) and a high boiler fraction F2 containing essentially polyoxymethylene dimethyl ethers having more than two oxymethylene units (OME n≥3), wherein the high boiler fraction F2 contains at least 90% by weight of polyoxymethylene dimethyl ethers having more than two oxymethylene units (OME n≥3).
A lyophilized composition comprising nanoparticle complexes having an outer surface, wherein each of the nanoparticle complexes comprises a. a carrier protein which is albumin, b. between about 100 to about 1000 antibodies having an Fc portion and an antigen-binding portion, and c. at least one therapeutic agent which is paclitaxel, wherein the carrier protein, the antibodies, and the at least one therapeutic agent are bound through non-covalent bonds, said nanoparticle complexes being lyophilized, and wherein upon reconstitution with an aqueous solution, antigen-binding portions of the antibodies remain arranged on the outer surface of the nanoparticle complexes, and further wherein the nanoparticle complexes remain capable of binding to the antigen in vivo. a. a carrier protein which is albumin, b. between about 100 to about 1000 antibodies having an Fc portion and an antigen-binding portion, and c. at least one therapeutic agent which is paclitaxel,
A multi-stage turbine designed as an induction turbine with vapour induction in at least one intermediary stage; wherein: said turbine is an radial-outward-flow type multi-stage turbine, with an axial main vapour inlet port and an annular secondary vapour inlet port, which is arranged in said turbine so as to annularly induce, in an intermediary stage of said turbine, a secondary vapour stream into an already partially expanded radial main vapour stream characterized in that: said annular secondary vapour inlet port comprises a ring-zone with through holes, which radially surrounds said axial main vapour inlet port in a first turbine housing part; said axial vapour inlet port comprises a first tubular vapour inlet connection; said annular vapour inlet port comprises a second tubular vapour inlet connection surrounding said first tubular vapour inlet connection, so as to define with the latter an annular space; and said ring-zone with through holes is arranged in said annular space. said turbine is an radial-outward-flow type multi-stage turbine, with an axial main vapour inlet port and an annular secondary vapour inlet port, which is arranged in said turbine so as to annularly induce, in an intermediary stage of said turbine, a secondary vapour stream into an already partially expanded radial main vapour stream said annular secondary vapour inlet port comprises a ring-zone with through holes, which radially surrounds said axial main vapour inlet port in a first turbine housing part; said axial vapour inlet port comprises a first tubular vapour inlet connection; said annular vapour inlet port comprises a second tubular vapour inlet connection surrounding said first tubular vapour inlet connection, so as to define with the latter an annular space; and said ring-zone with through holes is arranged in said annular space.
A recombinant protein comprising a listeriolysin O protein, wherein the LLO protein comprises a mutation within the cholesterol-binding domain thereof (SEQ ID NO: 18), wherein said mutation consists of the substitution of all the amino acid residues at positions 2, 9 and 10 of SEQ ID NO: 18, and wherein the recombinant protein exhibits a greater than 100-fold reduction in hemolytic activity relative to a wild-type LLO protein; and optionally, wherein the recombinant protein further comprises a heterologous peptide comprising an antigenic peptide.
A method for identifying a User Equipment, LTE, performed by a base station for a high-speed-railway dedicated network, the base station comprising a plurality of remote radio units, RRUs, the method comprising: receiving, by RRUs of the plurality of RRUs which cover a same UE, uplink messages transmitted at two or more different times by the same UE; determining, according to the uplink messages transmitted at two or more different times, RRU positional information of each RRU of the plurality of RRUs that receives an uplink message of the uplink messages; judging whether a proportion of a number of different pieces of the RRU positional information among at least two pieces of the RRU positional information to a total number of the at least two pieces of the RRU positional information reaches a preset proportion threshold; determining the LTE as a common LTE in response to the proportion not reaching the preset proportion threshold; and determining the LTE as a fast-moving LTE in response to the proportion reaching the preset proportion threshold; characterized in that when the UE is in an idle state, receiving the uplink messages transmitted at two or more different times by the same UE comprises: receiving uplink wake-up signals transmitted at two or more different times by the same UE; and the method further comprises: transmitting a broadcast message to the LTE for instructing the UE to stop transmitting the uplink wake-up signals. receiving, by RRUs of the plurality of RRUs which cover a same UE, uplink messages transmitted at two or more different times by the same UE; determining, according to the uplink messages transmitted at two or more different times, RRU positional information of each RRU of the plurality of RRUs that receives an uplink message of the uplink messages; judging whether a proportion of a number of different pieces of the RRU positional information among at least two pieces of the RRU positional information to a total number of the at least two pieces of the RRU positional information reaches a preset proportion threshold; determining the LTE as a common LTE in response to the proportion not reaching the preset proportion threshold; and determining the LTE as a fast-moving LTE in response to the proportion reaching the preset proportion threshold; characterized in that when the UE is in an idle state, receiving the uplink messages transmitted at two or more different times by the same UE comprises: receiving uplink wake-up signals transmitted at two or more different times by the same UE; and the method further comprises: transmitting a broadcast message to the LTE for instructing the UE to stop transmitting the uplink wake-up signals.
A laundry drying appliance being a washer/dryer and comprising: a cabinet having a top, wherein the top comprises a base element having shape and size adapted to match and close from above the cabinet when the top is mounted thereto, a rotating drum accommodated within a tub housed in the cabinet, and a laundry drying air circulation system for circulating drying air, wherein the drying air circulation system comprises: - a drying air return duct through which drying air coming from drum flows, the drying air return duct having an outlet, and - a drying air delivery duct (205, 215) through which the drying air is sent back to the drum, the drying air delivery duct having an inlet; and wherein the top forms a ready-to-mount moisture condensing module ready to be mounted to the cabinet for dehydrating drying air used to dry laundry within the drying drum of the laundry drying appliance, the top having: - a drying air inlet couplable to said outlet of the drying air return duct, - a drying air outlet couplable to said inlet of the drying air delivery duct (205, 210), - fluid passageways defined inside the top from said drying air inlet to said drying air outlet for the passage of the drying air to be dehydrated, and - moisture condensing means arranged inside said fluid passageways. a cabinet having a top, wherein the top comprises a base element having shape and size adapted to match and close from above the cabinet when the top is mounted thereto, a rotating drum accommodated within a tub housed in the cabinet, and a laundry drying air circulation system for circulating drying air, wherein the drying air circulation system comprises: - a drying air return duct through which drying air coming from drum flows, the drying air return duct having an outlet, and - a drying air delivery duct (205, 215) through which the drying air is sent back to the drum, the drying air delivery duct having an inlet; and - a drying air return duct through which drying air coming from drum flows, the drying air return duct having an outlet, and - a drying air delivery duct (205, 215) through which the drying air is sent back to the drum, the drying air delivery duct having an inlet; and wherein the top forms a ready-to-mount moisture condensing module ready to be mounted to the cabinet for dehydrating drying air used to dry laundry within the drying drum of the laundry drying appliance, the top having: - a drying air inlet couplable to said outlet of the drying air return duct, - a drying air outlet couplable to said inlet of the drying air delivery duct (205, 210), - fluid passageways defined inside the top from said drying air inlet to said drying air outlet for the passage of the drying air to be dehydrated, and - moisture condensing means arranged inside said fluid passageways. - a drying air inlet couplable to said outlet of the drying air return duct, - a drying air outlet couplable to said inlet of the drying air delivery duct (205, 210), - fluid passageways defined inside the top from said drying air inlet to said drying air outlet for the passage of the drying air to be dehydrated, and - moisture condensing means arranged inside said fluid passageways.
Method for inspecting a wafer for electronics, optics or optoelectronics, comprising: - rotating the wafer about an axis of symmetry perpendicular to a main surface of said wafer, - emitting, from a light source coupled with an interferometric device, two incident light beams, so as to form, at the intersection between the two beams, a measurement volume containing interference fringes arranged such that a region of the main surface of the wafer passes through at least one fringe of the measurement volume, the dimension (Dy) of said measurement volume in a radial direction of the wafer being comprised between 5 and 100 μm, - collecting at least a portion of the light scattered by said region of the wafer, - acquiring the collected light and emitting an electrical signal representing the variation in the light intensity of the collected light as a function of time, - detecting, in said signal, a frequency component in said collected light, said frequency being the time signature of the passage of a defect through the measurement volume. - rotating the wafer about an axis of symmetry perpendicular to a main surface of said wafer, - emitting, from a light source coupled with an interferometric device, two incident light beams, so as to form, at the intersection between the two beams, a measurement volume containing interference fringes arranged such that a region of the main surface of the wafer passes through at least one fringe of the measurement volume, the dimension (Dy) of said measurement volume in a radial direction of the wafer being comprised between 5 and 100 μm, - collecting at least a portion of the light scattered by said region of the wafer, - acquiring the collected light and emitting an electrical signal representing the variation in the light intensity of the collected light as a function of time, - detecting, in said signal, a frequency component in said collected light, said frequency being the time signature of the passage of a defect through the measurement volume.
An actuating apparatus (12, 62) for a downhole valve; the actuating apparatus comprises: a tubular body (30, 300) comprising an axial bore (32, 320) extending through the body; an inlet port (42, 420) extending radially and at least partially through the tubular body, the inlet port being in fluid communication, when open, with a region (32, 15) uphole of the actuating apparatus; and an actuating member operable by application of fluid pressure from the region uphole of the actuating apparatus via the inlet port to actuate the valve, wherein the actuating member is a piston member (61, 450), wherein fluid pressure is applied to the piston member via the inlet port such that movement of the piston member facilitates actuation of the valve, and wherein the actuating apparatus further comprises a spring (65, 650) adapted to apply a spring force on the piston member such that movement of the piston member displaces hydraulic fluid through an outlet (44, 440). a tubular body (30, 300) comprising an axial bore (32, 320) extending through the body; an inlet port (42, 420) extending radially and at least partially through the tubular body, the inlet port being in fluid communication, when open, with a region (32, 15) uphole of the actuating apparatus; and an actuating member operable by application of fluid pressure from the region uphole of the actuating apparatus via the inlet port to actuate the valve, wherein the actuating member is a piston member (61, 450), wherein fluid pressure is applied to the piston member via the inlet port such that movement of the piston member facilitates actuation of the valve, and wherein the actuating apparatus further comprises a spring (65, 650) adapted to apply a spring force on the piston member such that movement of the piston member displaces hydraulic fluid through an outlet (44, 440).
An operating method of a memory cell, the operating method comprising: providing a memory cell, the memory cell comprising: a substrate, having two source/drain regions (102, 104) being separated by a channel region disposed under a surface of the substrate; an insulating layer, disposed on the channel region; a charge storage layer, disposed on the insulating layer a multi-layer tunneling dielectric structure, disposed on the charge storage layer; and a gate, disposed on the multi-layer tunneling dielectric structure; performing a first operation, supplying a negative bias to the gate and setting the source/drain regions (102, 104) to be floating, grounded, or 0V, injecting electrons from the gate of the memory cell into the charge storage layer through the multi-layer tunneling dielectric structure by -FN tunneling so as to increase the threshold voltage of the memory cell; and performing a second operation, supplying a positive bias to the gate and setting the source/drain regions (102, 104) to be floating, grounded, or 0V, the second operation of the operating method being further characterised by injecting holes from the gate of the memory cell to the charge storage layer through the multi-layer tunneling dielectric structure by +FN tunneling so as to decrease the threshold voltage of the memory cell. providing a memory cell, the memory cell comprising: a substrate, having two source/drain regions (102, 104) being separated by a channel region disposed under a surface of the substrate; an insulating layer, disposed on the channel region; a charge storage layer, disposed on the insulating layer a multi-layer tunneling dielectric structure, disposed on the charge storage layer; and a gate, disposed on the multi-layer tunneling dielectric structure; a substrate, having two source/drain regions (102, 104) being separated by a channel region disposed under a surface of the substrate; an insulating layer, disposed on the channel region; a charge storage layer, disposed on the insulating layer a multi-layer tunneling dielectric structure, disposed on the charge storage layer; and a gate, disposed on the multi-layer tunneling dielectric structure; performing a first operation, supplying a negative bias to the gate and setting the source/drain regions (102, 104) to be floating, grounded, or 0V, injecting electrons from the gate of the memory cell into the charge storage layer through the multi-layer tunneling dielectric structure by -FN tunneling so as to increase the threshold voltage of the memory cell; and performing a second operation, supplying a positive bias to the gate and setting the source/drain regions (102, 104) to be floating, grounded, or 0V, the second operation of the operating method being further characterised by injecting holes from the gate of the memory cell to the charge storage layer through the multi-layer tunneling dielectric structure by +FN tunneling so as to decrease the threshold voltage of the memory cell.
A molded motor comprising: a molded stator that is formed by providing a molding resin to a stator and provided with an opening formed in an end of the molded stator in an axial direction; a rotor provided inside the molded stator; a pair of bearings (11; 12) that support a rotor shaft of the rotor; an insulating bracket whose outer circumferential part is fitted in an inner circumferential part of the opening, which is provided with a concave part supporting one of the bearings (11; 12) by surrounding an outer ring of the one of the bearings (11; 12), and that is formed of an insulating resin; and a bracket that is provided on a counter-load side of the insulating bracket and is fixed at least to the molded stator. a molded stator that is formed by providing a molding resin to a stator and provided with an opening formed in an end of the molded stator in an axial direction; a rotor provided inside the molded stator; a pair of bearings (11; 12) that support a rotor shaft of the rotor; an insulating bracket whose outer circumferential part is fitted in an inner circumferential part of the opening, which is provided with a concave part supporting one of the bearings (11; 12) by surrounding an outer ring of the one of the bearings (11; 12), and that is formed of an insulating resin; and a bracket that is provided on a counter-load side of the insulating bracket and is fixed at least to the molded stator.
Evaporator for a motor vehicle air conditioning device comprising at least one refrigerant tube (22, 22A) intended to allow the circulation of a refrigerant fluid and at least one storage member comprising at least one housing (16, 20) comprising a material referred to as a thermal storage material intended to store frigories and release them to a ventilation fluid intended to circulate towards an interior of the vehicle, characterized in that the housing has a substantially hemispherical shape, at least one wall of the refrigerant tube forming a wall of the housing (16, 20).
A pharmaceutical composition comprising a compound of formula: or a pharmaceutically acceptable salt, solvate, or stereoisomer thereof, wherein: R 1 is -C R 5 wherein R 5 is methyl substituted with -OH; R 2 is hydrogen, methyl, or glucuronide (gluc); R 3 is hydrogen, ethyl, or gluc; R 4 is hydrogen or hydroxyl. R 1 is -C R 5 wherein R 5 is methyl substituted with -OH; R 2 is hydrogen, methyl, or glucuronide (gluc); R 3 is hydrogen, ethyl, or gluc; R 4 is hydrogen or hydroxyl.