mhurhangee/ep-ind-claims huggingface dataset:
A process for stabilizing free-radically polymerizable monomers, which comprises the steps a) introduction of a solution of an inhibitor of the free-radical polymerization by means of an inert pressurized gas into a vessel comprising the monomers via at least one line which comprises an ascending region and at its end means for introducing the inhibitor solution and for blowing gas into the vessel, and b) mixing of the contents of the vessel and the inhibitor solution by blowing gas through the line, where the flow velocity of the pressurized gas in step (a) is set so that plug flow or annular flow is obtained as flow regime of the inhibitor solution in the ascending region of the line and the superficial gas velocity in the vessel in step (b) is set to ≥ 0.1 mm/s. a) introduction of a solution of an inhibitor of the free-radical polymerization by means of an inert pressurized gas into a vessel comprising the monomers via at least one line which comprises an ascending region and at its end means for introducing the inhibitor solution and for blowing gas into the vessel, and b) mixing of the contents of the vessel and the inhibitor solution by blowing gas through the line,
A method in a mobile station for selecting a combined Gateway General packet radio service Support Node/Home Agent, GGSN/HA, node when accessing internet using a Wireless Local Area Network, WLAN, access network and when using a General Packet Radio Service, GPRS, network, the method comprising: obtaining, at the mobile station accessing internet using the WLAN access network, a network address for a HA function of the combined GGSN/HA; transmitting, from the mobile station, a request to a name server for a name associated with the network address for the HA function of the combined GGSN/HA; receiving, at the mobile station, from the name server in response to the request, the name associated with the network address; initiating, at the mobile station, a GPRS network attachment; and after initiating the GPRS network attachment, initiating, at the mobile station, a context activation, wherein the step of initiating the context activation comprises: transmitting, from the mobile station, the name to a Serving GPRS Support Node, SGSN; and wherein the SGSN selects the same combined GGSN/HA based on the received name when the mobile station access internet using the GPRS network. obtaining, at the mobile station accessing internet using the WLAN access network, a network address for a HA function of the combined GGSN/HA; transmitting, from the mobile station, a request to a name server for a name associated with the network address for the HA function of the combined GGSN/HA; receiving, at the mobile station, from the name server in response to the request, the name associated with the network address; initiating, at the mobile station, a GPRS network attachment; and after initiating the GPRS network attachment, initiating, at the mobile station, a context activation, wherein the step of initiating the context activation comprises: transmitting, from the mobile station, the name to a Serving GPRS Support Node, SGSN; and wherein the SGSN selects the same combined GGSN/HA based on the received name when the mobile station access internet using the GPRS network.
A method for measuring haemagglutinin of an influenza virus by a sandwich immunoassay method, said method comprising extracting the haemagglutinin by treating the influenza virus with a cationic or an anionic surfactant; and then sandwiching the extracted haemagglutinin between an anti-haemagglutinin antibody which undergoes antigen-antibody reaction with the haemagglutinin, and a lectin which binds to the haemagglutinin but does not bind to an immunoglobulin which belongs to the same species and same class as an immunoglobulin constituting the anti-haemagglutinin antibody, wherein the lectin is at least one selected from the group consisting of Ricinus communis agglutinin, Datura stramonium lectin and Erythrina cristagalli lectin.
A method of preparing an isocyanatosilane comprising reacting an olefinic isocyanate with a hydridosilane in the presence of at least one dinuclear rhodium complex under hydrosilylation conditions.
A circular stapling assembly for anastomotically joining tubular tissue sections comprising: a. A circular anvil; b. A circular staple head assembly having a centrally located passage and a knife located in the passage; c. A moveable shaft connecting the anvil and staple head; d. An elongated shaft extending from the staple head assembly and gripping means; and e. At least one reinforcing buttress comprising 1) a substantially flat disk of a flexible, bioabsorbable material having a centrally located aperture and 2) a plurality of radiating slits directed from said centrally located aperture towards a periphery of said disk that forms a plurality of leaflets; and characterised by said slits terminating in stress relieving end apertures at a distance from said periphery, wherein said apertures are sized and configured such that they prevent cracking of said at least one reinforcing buttress when the leaflets are bent out of plane of the buttress. a. A circular anvil; b. A circular staple head assembly having a centrally located passage and a knife located in the passage; c. A moveable shaft connecting the anvil and staple head; d. An elongated shaft extending from the staple head assembly and gripping means; and e. At least one reinforcing buttress comprising 1) a substantially flat disk of a flexible, bioabsorbable material having a centrally located aperture and 2) a plurality of radiating slits directed from said centrally located aperture towards a periphery of said disk that forms a plurality of leaflets; and 1) a substantially flat disk of a flexible, bioabsorbable material having a centrally located aperture and 2) a plurality of radiating slits directed from said centrally located aperture towards a periphery of said disk that forms a plurality of leaflets; and
Device of axis Y for packaging and applying a product, particularly a care or make-up product, including: - a receptacle for containing the product, - an applicator affixed to a cap and comprising an application element, characterised in that the receptacle is provided with a wiping element, of axis X comprising an internal wiping skirt extended in its lower part by a wiping lip defining a wiping orifice, the internal wiping skirt is extended in its upper part by a shoulder connected to an external catching skirt by a holding portion, at least one preferably annular first groove, open towards the wiping lip, being defined between the internal wiping skirt and the external catching skirt, the internal wiping skirt includes an internal surface provided with an internal sealing fluting, and the holding portion includes at least one intermediate holding skirt of axis X or a collar, the intermediate holding skirt provides, with the external catching skirt, at least one preferably annular second groove, open away from the wiping lip, the annular second groove houses at least a first magnet or a ballast that is fixed relative to the annular second groove the wiping orifice being traversed by the application element upon its exit from the receptacle, the cap includes a ballast or at least a second magnet, the first and second magnets being, as appropriate, arranged so as to attract one another upon passage from the open position to the closed position. - a receptacle for containing the product, - an applicator affixed to a cap and comprising an application element,
A system for magnetic tracking of an intra-body probe, the system comprising: a location pad, an intra-body probe, and a control console; wherein the location pad comprises: a housing having a flat surface; and at least five field generators, which are fixed to the housing and are configured to generate respective magnetic fields having respective axes that are perpendicular to the flat surface such that a magnitude of a composite magnetic field, comprising the superposition of the respective magnetic fields generated by the at least five field generators, is substantially constant as a function of coordinates parallel to the flat surface; wherein the intra-body probe is a tool for inserting into a patient, and comprises a position sensor, the position sensor being capable of generating electrical signals in response to magnetic fields generated by the field generators; and wherein the control console is operatively linkable to the location pad and to the intra-body probe, and is adapted to determine a position of the position sensor based on electrical signals received from the position sensor. a location pad, an intra-body probe, and a control console; wherein the location pad comprises: a housing having a flat surface; and at least five field generators, which are fixed to the housing and are configured to generate respective magnetic fields having respective axes that are perpendicular to the flat surface such that a magnitude of a composite magnetic field, comprising the superposition of the respective magnetic fields generated by the at least five field generators, is substantially constant as a function of coordinates parallel to the flat surface; wherein the intra-body probe is a tool for inserting into a patient, and comprises a position sensor, the position sensor being capable of generating electrical signals in response to magnetic fields generated by the field generators; and wherein the control console is operatively linkable to the location pad and to the intra-body probe, and is adapted to determine a position of the position sensor based on electrical signals received from the position sensor. a housing having a flat surface; and at least five field generators, which are fixed to the housing and are configured to generate respective magnetic fields having respective axes that are perpendicular to the flat surface such that a magnitude of a composite magnetic field, comprising the superposition of the respective magnetic fields generated by the at least five field generators, is substantially constant as a function of coordinates parallel to the flat surface; wherein the intra-body probe is a tool for inserting into a patient, and comprises a position sensor, the position sensor being capable of generating electrical signals in response to magnetic fields generated by the field generators; and wherein the control console is operatively linkable to the location pad and to the intra-body probe, and is adapted to determine a position of the position sensor based on electrical signals received from the position sensor.
A textile waste regenerated flooring, comprising a layer being an extruded sheet, the extruded sheet being prepared from a mixture consisting of 30-50 parts by weight of a textile waste fiber, 30-50 parts by weight of an inorganic filler, and 10-30 parts by weight of polyethylene, wherein the textile waste fiber is prepared by opening a textile waste and granulating sequentially, wherein the polyethylene has a molecular weight of 40,000-300,000, the inorganic filler is calcium carbonate and has a particle size of 200-400 mesh, and wherein the textile waste regenerated flooring is prepared by a method comprising mixing the textile waste fiber, the inorganic filler and the polyethylene to obtain the mixture; and subjecting the mixture to a melt extrusion, a shaping, and a lamination, to obtain the textile waste regenerated flooring. 30-50 parts by weight of a textile waste fiber, 30-50 parts by weight of an inorganic filler, and 10-30 parts by weight of polyethylene, wherein the textile waste fiber is prepared by opening a textile waste and granulating sequentially, wherein the polyethylene has a molecular weight of 40,000-300,000, the inorganic filler is calcium carbonate and has a particle size of 200-400 mesh, and wherein the textile waste regenerated flooring is prepared by a method comprising mixing the textile waste fiber, the inorganic filler and the polyethylene to obtain the mixture; and subjecting the mixture to a melt extrusion, a shaping, and a lamination, to obtain the textile waste regenerated flooring. mixing the textile waste fiber, the inorganic filler and the polyethylene to obtain the mixture; and subjecting the mixture to a melt extrusion, a shaping, and a lamination, to obtain the textile waste regenerated flooring.
A seal configured to permit passage of a medical device through the seal, the seal comprising: an elastic component having a proximal end, a distal end, and an elongated inner cavity having a cavity depth extending between the proximal end and the distal end, the elongated inner cavity having a cavity length and a cavity width that is shorter than the cavity length and the elongated inner cavity having an elongated trough having a trough length and a trough width that is shorter than the trough length, wherein the trough length is parallel to the cavity length and the elongated trough is adjacent the distal end of the elastic component, wherein the elastic component has a slit that intersects the elongated trough and the elastic component includes one or more flaps (74a, 74b) of elastic material at the distal end and bottom of the elongated trough, the one or more flaps (74a, 74b) configured to form a fluid seal around the medical device to reduce leakage of blood and air through the seal.
A system suitable for being incorporated in an aircraft (1A, 1B, 1C), the system comprising: a stationary module (10A, 10B, 10C); an engine propeller (50A, 50B, 50C) having a plurality of blades (52A, 52B, 52C) suitable for rotating relative to the stationary module (10A, 10B, 10C) about an engine axis; and a remote connection system; the remote connection system comprising: · a light emitter device configured to emit a light beam that emerges to the outside of the propeller (50A, 50B, 50C) from at least one emission surface (54A, 54B, 54C) of said propeller (50A, 50B, 50C); and · a light detector device for detecting the light beam, the optical device including at least one detection surface (14A, 14B, 14C) that is sensitive to the light beam, and that is incorporated in the stationary module (10A, 10B, 10C) so that said at least one emission surface (54A, 54B, 54C) and said at least one detection surface (14A, 14B, 14C) come repetitively to face each other remotely when the propeller (50A, 50B, 50C) is rotating relative to the stationary module (10A, 10B, 10C); and · characterized in that the light emitter device comprises a light source (62A, 62B, 62C) arranged remotely from the propeller (50A, 50B, 50C); and at least one light guide (64A, 64B, 64C) arranged inside a blade (52A, 52B, 52C) of the propeller (50A, 50B, 50C) so as to guide the light beam from the light source (62A, 62B, 62C) to said at least one emission surface (54A, 54B, 54C). · a light emitter device configured to emit a light beam that emerges to the outside of the propeller (50A, 50B, 50C) from at least one emission surface (54A, 54B, 54C) of said propeller (50A, 50B, 50C); and · a light detector device for detecting the light beam, the optical device including at least one detection surface (14A, 14B, 14C) that is sensitive to the light beam, and that is incorporated in the stationary module (10A, 10B, 10C) so that said at least one emission surface (54A, 54B, 54C) and said at least one detection surface (14A, 14B, 14C) come repetitively to face each other remotely when the propeller (50A, 50B, 50C) is rotating relative to the stationary module (10A, 10B, 10C); and · characterized in that the light emitter device comprises a light source (62A, 62B, 62C) arranged remotely from the propeller (50A, 50B, 50C); and at least one light guide (64A, 64B, 64C) arranged inside a blade (52A, 52B, 52C) of the propeller (50A, 50B, 50C) so as to guide the light beam from the light source (62A, 62B, 62C) to said at least one emission surface (54A, 54B, 54C).
A method performed by an interaction manager device for enabling a user using multiple devices having different capabilities to process a multimodal application, the method comprising: receiving a request to establish a session for processing a multimodal application from each of one or more devices; determining whether said devices are operated by a single user; creating a composite capability profile for those devices determined to be operated by said user; selecting, for processing, for each of the one or more modalities, a device from those devices determined to be operated by said user based on its capabilities; generating a unique session identification, ID, for a single session; transmitting said unique session ID to the selected devices and establishing a single session with the selected devices using the unique session ID. receiving a request to establish a session for processing a multimodal application from each of one or more devices; determining whether said devices are operated by a single user; creating a composite capability profile for those devices determined to be operated by said user; selecting, for processing, for each of the one or more modalities, a device from those devices determined to be operated by said user based on its capabilities; generating a unique session identification, ID, for a single session; transmitting said unique session ID to the selected devices and establishing a single session with the selected devices using the unique session ID.
Spacer fixing element (10, 30, 50, 70, 102) for fastening a first component (22, 42, 62, 104) at a distance from a second component (24, 44, 64, 108), comprising a head (16, 36, 56, 80, 116) that transitions into a shank which latter in turn terminates in a self-tapping tip (11, 31, 51, 71), with a first threaded portion (12, 32, 52, 72, 110) being provided following the tip (11, 31, 51, 71) in the direction of the head (16, 36, 56, 80, 116), which first threaded portion has a thread with a first direction of rotation, wherein by screwing in the element in the first direction of rotation, a hole can be made into the first component (22, 42, 62, 104) through which the first threaded portion (12, 32, 52, 72, 110) is passed, and following said first threaded portion (12, 32, 52, 72, 110), a stop element is provided which forms a stop on said second component (24, 44, 64, 106), characterized in that said stop element is formed as a second threaded portion (14, 34, 54, 74, 112) which comprises a thread having a second direction of rotation that is opposite to the first direction of rotation, with the second threaded portion (14, 34, 54, 74, 112) being designed such that, when the spacer fixing element (10, 30, 50, 70, 102) with the second direction of rotation is screwed in, the second threaded portion can be screwed into the hole remaining in the first component (22, 42, 62, 104) after penetration by the first threaded portion (12, 32, 52, 72, 110) after which, when screwed in in the first direction of rotation, it will form a stop on the second component (24, 44, 64, 106), wherein furthermore the area between the thread run-out of the second threaded portion (14, 34, 54, 74. 112) facing the head (16, 36, 56, 80, 116) and the head (16, 36, 56, 80, 116) is designed in such a way that it will pass through the hole remaining in the first component (22, 42, 62, 104), at least it is turned in a first direction of rotation.
A method for performing a machine vision process for finding and decoding a symbol in an image using a camera having a multi-focus lens having a lens field of view where the lens can be set at different focus positions the method comprising the steps of: positioning at least one of the camera and a symbol to be imaged so the lens field of view is directed at the symbol to be imaged; and setting an image formation setting; characterized in that the method further comprises the steps of: obtaining (52, 58, 104, 116, 254, 262, 304, 308) a subset of images at each of a plurality of different lens focus positions where the image formation setting is different for each of the images obtained at each lens focus position; and after each image is obtained (52, 116, 262, 308) and while obtaining (52, 116, 262, 308) additional images, attempting (54, 107, 260, 314) to perform the machine vision process on the images; wherein the machine vision process includes one of locating a symbol in obtained images and decoding (68, 118, 142, 137, 268, 314, 319) a symbol in obtained images. positioning at least one of the camera and a symbol to be imaged so the lens field of view is directed at the symbol to be imaged; and setting an image formation setting; characterized in that the method further comprises the steps of: obtaining (52, 58, 104, 116, 254, 262, 304, 308) a subset of images at each of a plurality of different lens focus positions where the image formation setting is different for each of the images obtained at each lens focus position; and after each image is obtained (52, 116, 262, 308) and while obtaining (52, 116, 262, 308) additional images, attempting (54, 107, 260, 314) to perform the machine vision process on the images; wherein the machine vision process includes one of locating a symbol in obtained images and decoding (68, 118, 142, 137, 268, 314, 319) a symbol in obtained images. obtaining (52, 58, 104, 116, 254, 262, 304, 308) a subset of images at each of a plurality of different lens focus positions where the image formation setting is different for each of the images obtained at each lens focus position; and after each image is obtained (52, 116, 262, 308) and while obtaining (52, 116, 262, 308) additional images, attempting (54, 107, 260, 314) to perform the machine vision process on the images; wherein the machine vision process includes one of locating a symbol in obtained images and decoding (68, 118, 142, 137, 268, 314, 319) a symbol in obtained images.
A holding basket for containing an inner basket for holding at least one medical item for processing having a top end and a base end comprising: an essentially rectangular base and side walls (120, 122, 124) extending from the base, only two rims (130, 132) configured for sliding into a slide rack each such rim disposed on a first pair (120, 122) of opposing side walls, two windows each disposed on a second pair opposing side walls configured for manual access for slidable removal of the inner basket, wherein the holding basket is configured for stackability or nestability with an adjacent holding basket (100', 100"). an essentially rectangular base and side walls (120, 122, 124) extending from the base, only two rims (130, 132) configured for sliding into a slide rack each such rim disposed on a first pair (120, 122) of opposing side walls, two windows each disposed on a second pair opposing side walls configured for manual access for slidable removal of the inner basket, wherein the holding basket is configured for stackability or nestability with an adjacent holding basket (100', 100").
A method comprising the steps of: a) providing an adhesive article comprising: i) a base resin comprising an epoxy resin; ii) a first epoxy curative; and iii) a second epoxy curative; by reacting the base resin with the first epoxy curative such that the first epoxy curative is at least 70% reacted with epoxy resin in the article and the second epoxy curative is at least 70% unreacted in the article; b) embossing the adhesive article with a relief pattern; and c) curing the adhesive article such that the second epoxy curative is at least 70% reacted with epoxy in the article. a) providing an adhesive article comprising: i) a base resin comprising an epoxy resin; ii) a first epoxy curative; and iii) a second epoxy curative; by reacting the base resin with the first epoxy curative such that the first epoxy curative is at least 70% reacted with epoxy resin in the article and the second epoxy curative is at least 70% unreacted in the article; i) a base resin comprising an epoxy resin; ii) a first epoxy curative; and iii) a second epoxy curative; b) embossing the adhesive article with a relief pattern; and c) curing the adhesive article such that the second epoxy curative is at least 70% reacted with epoxy in the article.