mhurhangee/ep-ind-claims huggingface dataset:
A method of preventing or controlling a fungal infection comprising applying to a plant in need thereof, the composition comprising (a) 0.1 to 2.0% v/v soybean oil, (b) 0.05 to 1.0% w/v polyglycerol esters of fatty acids, (c) one or more antioxidants, and (d) optionally one or more of anhydrous milk fat, olive oil and coconut fat. (a) 0.1 to 2.0% v/v soybean oil, (b) 0.05 to 1.0% w/v polyglycerol esters of fatty acids, (c) one or more antioxidants, and (d) optionally one or more of anhydrous milk fat, olive oil and coconut fat.
A stator angular sector for a turbine engine compressor, the sector extending around an axis of radial symmetry, and comprising: · an outer shroud and an inner shroud arranged coaxially one inside the other; and · at least one vane extending radially between said shrouds (22, 24) and connected thereto at its radial ends; wherein the outer shroud has first and second mounting means (44, 46) for mounting the stator angular sector on a casing of the engine, said first and second mounting means being oriented parallel to the axis in opposite directions and being connected together by an intermediate portion; wherein the outer shroud has at least one axial end portion extending from said intermediate portion, provided with a free end, and connected to the radially-outer end of the vane; wherein at least one damper-forming insert (601, 602, 603, 604, 605, 606, 607) is suitable for coming into contact with the end portion; and wherein beyond a given value for the amplitude of vibration of the end portion, the damper insert (601, 602, 603, 604, 605, 606, 607) and the end portion are suitable for moving relative to each other so as to vary the total moving mass moving with the end portion, thereby modifying the vibratory behavior of said end portion, wherein the outer shroud includes, at least at one axial end, a cavity opening out to said axial end, said cavity extending between the end portion and an outer radial tongue carrying one of the first and second mounting means (44, 46). · an outer shroud and an inner shroud arranged coaxially one inside the other; and · at least one vane extending radially between said shrouds (22, 24) and connected thereto at its radial ends;
A rotating leaf spring seal (250; 350; 450), comprising: a first annular ring (254; 454) configured for positioning against a support structure (245; 445); a hook section (272; 372; 472) having an outer surface configured for sealing engagement with a tie shaft (220; 320; 420) and an inner surface configured for receiving a hold down ring (280; 380); and a spring section (260; 360; 460) disposed between the first annular ring (254; 454) and the hook section (272; 372; 472), wherein the spring section (260; 360; 460) includes a first spring portion and a second spring portion disposed radially inward of the first annular ring (254; 454), the first spring portion including a second annular ring, characterised in that the second annular ring is substantially parallel to the first annular ring (254; 454) and the first annular ring (254; 454) is connected to the second annular ring by an annular wall. a first annular ring (254; 454) configured for positioning against a support structure (245; 445); a hook section (272; 372; 472) having an outer surface configured for sealing engagement with a tie shaft (220; 320; 420) and an inner surface configured for receiving a hold down ring (280; 380); and a spring section (260; 360; 460) disposed between the first annular ring (254; 454) and the hook section (272; 372; 472), wherein the spring section (260; 360; 460) includes a first spring portion and a second spring portion disposed radially inward of the first annular ring (254; 454), the first spring portion including a second annular ring, characterised in that the second annular ring is substantially parallel to the first annular ring (254; 454) and the first annular ring (254; 454) is connected to the second annular ring by an annular wall.
A method for preparing methyl -3-[[4-[methyl[2-(4-methyl-1-piperazinyl)acetyl]amino] phenyl]amino]phenylmethylene)-oxindole-6-carboxylate of formula 1, characterized in that it comprises: a) a reaction of methyl oxindole-6-carboxylate with acetic anhydride at a temperature of 130 - 140°C, providing methyl 1-acetyl-oxindole-6-carboxylate of formula 3 b) a reaction of methyl 1-acetyl-oxindole-6-carboxylate of formula 3 with trimethyl orthobenzoate and acetic anhydride in the presence of toluene, providing methyl -1-acetyl-3-(methoxyphenylmethylene)-oxindole-6-carboxylate of formula 2 c) a reaction -1-acetyl-3-(methoxyphenylmethylene)-oxindole-6-carboxylate of formula 2 with N -(4-aminophenyl)- N,4-dimethyl-1-piperazine acetamide and subsequently with an alkali hydroxide or alkali alkoxide in methanol or ethanol without isolation of the intermediate, providing methyl -3-[[4-[methyl[2-(4-methyl-1-piperazinyl)acetyl]amino]phenyl]amino]phenylmethylene)-oxindole-6-carboxylate of formula 1, wherein the reaction is conducted at a temperature of 50 to 100°C, wherein the alkali hydroxide is potassium hydroxide and the alkali alkoxide is potassium tert- butoxide or sodium ethoxide. a) a reaction of methyl oxindole-6-carboxylate with acetic anhydride at a temperature of 130 - 140°C, providing methyl 1-acetyl-oxindole-6-carboxylate of formula 3 b) a reaction of methyl 1-acetyl-oxindole-6-carboxylate of formula 3 with trimethyl orthobenzoate and acetic anhydride in the presence of toluene, providing methyl -1-acetyl-3-(methoxyphenylmethylene)-oxindole-6-carboxylate of formula 2 c) a reaction -1-acetyl-3-(methoxyphenylmethylene)-oxindole-6-carboxylate of formula 2 with N -(4-aminophenyl)- N,4-dimethyl-1-piperazine acetamide and subsequently with an alkali hydroxide or alkali alkoxide in methanol or ethanol without isolation of the intermediate, providing methyl -3-[[4-[methyl[2-(4-methyl-1-piperazinyl)acetyl]amino]phenyl]amino]phenylmethylene)-oxindole-6-carboxylate of formula 1, wherein the reaction is conducted at a temperature of 50 to 100°C, wherein the alkali hydroxide is potassium hydroxide and the alkali alkoxide is potassium tert- butoxide or sodium ethoxide.
A method for controlling an electric motor comprising a mechanical commutator, in which method - the points in time at which commutation takes place are determined by means of a sensor or without a sensor, - the electric motor is controlled by means of a supply voltage signal having a sequence of pulses, characterized in that - the supply voltage signal is modulated by means of a modulation signal to reduce its magnitude at the commutation points in time, which modulation signal is in phase with the commutation points of time such that the minima of the modulation signal coincide with the commutation points in time. - the points in time at which commutation takes place are determined by means of a sensor or without a sensor, - the electric motor is controlled by means of a supply voltage signal having a sequence of pulses, - the supply voltage signal is modulated by means of a modulation signal to reduce its magnitude at the commutation points in time, which modulation signal is in phase with the commutation points of time such that the minima of the modulation signal coincide with the commutation points in time.
CO 2 radio frequency, RF, gas-discharge laser apparatus, comprising: a laser housing formed from an elongated metal extrusion, the extrusion having a first compartment and a second compartment, said elongated metal extrusion including channels (62A, 62B) for coolant fluid to follow a path therethrough for cooling the housing; first and second elongated discharge-electrodes (70, 71) located in the first compartment of the laser housing, spaced apart and parallel to each other defining a discharge gap therebetween, the first electrode functioning as a live-electrode and the second electrode functioning as a ground electrode, the discharge-electrodes including cooling tubes to direct coolant fluid therethrough for cooling the electrodes; first and second resonator mirrors (150, 150A) defining a laser resonator extending through the discharge-gap between the discharge-electrodes; a radio-frequency power-supply, RFPS, and an impedance-matching network located in the second compartment of the laser housing for supplying RF power to the electrodes (70, 71) for creating a RF discharge in the discharge gap for causing a laser beam to be generated and delivered from the laser resonator, the RFPS being assembled on an elongated metal mounting-plate including coolant-channels (90A, 90B, 90C, 90D) for flowing coolant fluid therethrough for cooling the RFPS assembled thereon; and an arrangement for combining the channels of the extrusion, the cooling tubes of the electrodes and the coolant-channels of the mounting plate into a coolant circuit with a single coolant fluid input and a single coolant fluid output. a laser housing formed from an elongated metal extrusion, the extrusion having a first compartment and a second compartment, said elongated metal extrusion including channels (62A, 62B) for coolant fluid to follow a path therethrough for cooling the housing; first and second elongated discharge-electrodes (70, 71) located in the first compartment of the laser housing, spaced apart and parallel to each other defining a discharge gap therebetween, the first electrode functioning as a live-electrode and the second electrode functioning as a ground electrode, the discharge-electrodes including cooling tubes to direct coolant fluid therethrough for cooling the electrodes; first and second resonator mirrors (150, 150A) defining a laser resonator extending through the discharge-gap between the discharge-electrodes; a radio-frequency power-supply, RFPS, and an impedance-matching network located in the second compartment of the laser housing for supplying RF power to the electrodes (70, 71) for creating a RF discharge in the discharge gap for causing a laser beam to be generated and delivered from the laser resonator, the RFPS being assembled on an elongated metal mounting-plate including coolant-channels (90A, 90B, 90C, 90D) for flowing coolant fluid therethrough for cooling the RFPS assembled thereon; and an arrangement for combining the channels of the extrusion, the cooling tubes of the electrodes and the coolant-channels of the mounting plate into a coolant circuit with a single coolant fluid input and a single coolant fluid output.
A terminal comprising: a receiving section configured to receive a downlink control information including a field that indicates a frequency domain resource, assigned to a downlink shared channel; and a control section configured to determine an initial downlink bandwidth part, BWP, based on whether information regarding the initial downlink BWP, within a cell, is provided via a higher layer, the determined initial downlink BWP being used for determining a number of bits of the field, wherein bit selection during rate matching of the downlink shared channel is controlled based on the initial downlink BWP. a receiving section configured to receive a downlink control information including a field that indicates a frequency domain resource, assigned to a downlink shared channel; and a control section configured to determine an initial downlink bandwidth part, BWP, based on whether information regarding the initial downlink BWP, within a cell, is provided via a higher layer, the determined initial downlink BWP being used for determining a number of bits of the field, wherein bit selection during rate matching of the downlink shared channel is controlled based on the initial downlink BWP.
A surgical shaver assembly, comprising: an outer tube; an inner tube having a longitudinal axis, a proximal end and a distal end rotatably received within a hollow passage of said outer tube, said inner tube including a distal portion and a window that extends through said distal portion; wherein said inner tube is self-centering relative to said outer tube to establish a tight gap between said inner tube and said outer tube, whereby said tight gap induces a scissor effect when said inner tube rotates within said outer tube to sever tissue; whereby the inner tube is self-centering via an apex at a distal end of the inner tube received within a conical shaped distal portion of the outer tube; and wherein, in a direction from the proximal end to the distal end of the inner tube, said distal portion of said inner tube includes a top surface and a bottom surface that include proximal sections, wherein the top and bottom surfaces (28A, 30A) converge toward the longitudinal axis, intermediate sections, wherein the top and bottom surfaces (28A, 30A) diverge away from the longitudinal axis, and distal sections, wherein the top and bottom surfaces (28A, 30A) converge toward the longitudinal axis, wherein the intermediate sections are between the proximal sections and the distal sections. an outer tube; an inner tube having a longitudinal axis, a proximal end and a distal end rotatably received within a hollow passage of said outer tube, said inner tube including a distal portion and a window that extends through said distal portion; wherein said inner tube is self-centering relative to said outer tube to establish a tight gap between said inner tube and said outer tube, whereby said tight gap induces a scissor effect when said inner tube rotates within said outer tube to sever tissue; whereby the inner tube is self-centering via an apex at a distal end of the inner tube received within a conical shaped distal portion of the outer tube; and wherein, in a direction from the proximal end to the distal end of the inner tube, said distal portion of said inner tube includes a top surface and a bottom surface that include proximal sections, wherein the top and bottom surfaces (28A, 30A) converge toward the longitudinal axis, intermediate sections, wherein the top and bottom surfaces (28A, 30A) diverge away from the longitudinal axis, and distal sections, wherein the top and bottom surfaces (28A, 30A) converge toward the longitudinal axis, wherein the intermediate sections are between the proximal sections and the distal sections.
A method, comprising: sending to a first peer computer of a peer-to-peer network via a computer network a voluntary request to download a first digital content item; voluntarily downloading from the first peer computer via the computer network the first digital content item, the first digital content item saved in a user-controlled portion of a local storage machine; obligatorily downloading from a source via the computer network a second digital content item in response to receiving a command from a centralized management service computer, the second digital content item saved in a service-controlled portion of the local storage machine; and obligatorily uploading from the service-controlled portion of the local storage machine to a second peer computer via the computer network the second digital content item in response to receiving an obligatory request from the second peer computer via the computer network to provide the second digital content item, the obligatory request being commanded by the centralized management service computer. sending to a first peer computer of a peer-to-peer network via a computer network a voluntary request to download a first digital content item; voluntarily downloading from the first peer computer via the computer network the first digital content item, the first digital content item saved in a user-controlled portion of a local storage machine; obligatorily downloading from a source via the computer network a second digital content item in response to receiving a command from a centralized management service computer, the second digital content item saved in a service-controlled portion of the local storage machine; and obligatorily uploading from the service-controlled portion of the local storage machine to a second peer computer via the computer network the second digital content item in response to receiving an obligatory request from the second peer computer via the computer network to provide the second digital content item, the obligatory request being commanded by the centralized management service computer.
Fluid circulation valve comprising a body and a mobile flap equipped with a first wing and with a second wing, said valve also comprising a seal, said seal having an opening for the passage of the fluid, the first of said wings, referred to as the shutoff wing, being able, at least in part, to shut off said opening in the seal when the flap is in a closed position, said shutoff wing and the second wing being provided one on either side of the seal when the flap is in the closed position, said flap comprising an intermediate zone connecting said first wing and said second wing, that passes through said opening in the seal, said seal having a blind zone situated facing said second wing when the flap is in the closed position, the opening of the seal being provided only in the region of the shutoff wing when the flap is in the closed position, characterized in that said body is made in two parts (30a, 30b), each part defining a duct and having an opening that comes into alignment to define an aperture, the seal also acting as a seal providing sealing between the two parts (30a, 30b) with respect to the outside of the valve.
A method for performing a multiplexed immunoassay on a sample using flow cytometry, the method comprising: (a) contacting blood, plasma or a cell lysate with a plurality of capture antibodies attached to a bead, wherein said bead is specific for at least one analyte to form a plurality of captured analytes; (b) contacting the plurality of captured analytes with at least one type of detection antibody specific for the at least one analyte, wherein the at least one type of detection antibody has a first member of a signal amplification pair, which is a peroxidase, to form a plurality of detectable captured analytes, wherein the at least one type of detection antibody is at least two types of detection antibodies, which comprise: (i) a plurality of activation state-independent antibodies labeled with a facilitating moiety, which is glucose oxidase; and (ii) a plurality of activation state-dependent antibodies labeled with the first member of a signal amplification pair, wherein the facilitating moiety generates an oxidizing agent, which is hydrogen peroxide (H 2 O 2) which channels to and reacts with the first member of the signal amplification pair; (c) contacting the plurality of detectable captured analytes with a second member of the signal amplification pair to generate an amplified signal; and (d) detecting the amplified signal generated from the first and second members of the signal amplification pair. (a) contacting blood, plasma or a cell lysate with a plurality of capture antibodies attached to a bead, wherein said bead is specific for at least one analyte to form a plurality of captured analytes; (b) contacting the plurality of captured analytes with at least one type of detection antibody specific for the at least one analyte, wherein the at least one type of detection antibody has a first member of a signal amplification pair, which is a peroxidase, to form a plurality of detectable captured analytes, wherein the at least one type of detection antibody is at least two types of detection antibodies, which comprise: (i) a plurality of activation state-independent antibodies labeled with a facilitating moiety, which is glucose oxidase; and (ii) a plurality of activation state-dependent antibodies labeled with the first member of a signal amplification pair, wherein the facilitating moiety generates an oxidizing agent, which is hydrogen peroxide (H 2 O 2) which channels to and reacts with the first member of the signal amplification pair; (i) a plurality of activation state-independent antibodies labeled with a facilitating moiety, which is glucose oxidase; and (ii) a plurality of activation state-dependent antibodies labeled with the first member of a signal amplification pair, wherein the facilitating moiety generates an oxidizing agent, which is hydrogen peroxide (H 2 O 2) which channels to and reacts with the first member of the signal amplification pair; (c) contacting the plurality of detectable captured analytes with a second member of the signal amplification pair to generate an amplified signal; and (d) detecting the amplified signal generated from the first and second members of the signal amplification pair.
A method of matching protocols of embedded audio/video, AV, contents stored by a media server, the method comprising: receiving, by a remote user interface, RUI, server, uniform resource identifier, URI, information of AV contents and protocol information of the AV contents from the media server; creating, by the RUI server, user interface, UI, data using the received URI and protocol information; transmitting the UI data from the RUI server to an RUI client; parsing, by the RUI client, the URI information and the protocol information of the AV contents embedded in the UI data; storing, by the RUI client, the parsed URI information and the parsed protocol information in a cache unit of the RUI client; receiving, by the RUI client of a control command for the AV contents from a user; extracting, by the RUI client, protocol information corresponding to the AV contents from the cache unit; transmitting, by the RUI client, the control command and the extracted protocol information to an AV control point, CP, obtaining, by the AV CP, protocol information of the AV contents from a media renderer; performing, by the AV CP, a protocol matching operation in which the obtained protocol information is compared with the protocol information received from the RUI client; retrieving, by the AV CP, the AV contents from the media server and reproducing the retrieved AV contents based on the result of the matching operation, wherein the AV CP and the media renderer are implemented as a first single device, the AV CP and the RUI client are implemented as a second device or the AV CP, the RUI client and the media renderer implemented as a third single device, and wherein the RUI server and the media server are implemented as fourth single device. receiving, by a remote user interface, RUI, server, uniform resource identifier, URI, information of AV contents and protocol information of the AV contents from the media server; creating, by the RUI server, user interface, UI, data using the received URI and protocol information; transmitting the UI data from the RUI server to an RUI client; parsing, by the RUI client, the URI information and the protocol information of the AV contents embedded in the UI data; storing, by the RUI client, the parsed URI information and the parsed protocol information in a cache unit of the RUI client; receiving, by the RUI client of a control command for the AV contents from a user; extracting, by the RUI client, protocol information corresponding to the AV contents from the cache unit; transmitting, by the RUI client, the control command and the extracted protocol information to an AV control point, CP, obtaining, by the AV CP, protocol information of the AV contents from a media renderer; performing, by the AV CP, a protocol matching operation in which the obtained protocol information is compared with the protocol information received from the RUI client; retrieving, by the AV CP, the AV contents from the media server and reproducing the retrieved AV contents based on the result of the matching operation,