mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing particles in an emulsion wherein the particles have organic functionality disposed thereon, said method comprising the steps of: A. providing a first reactant having at least two unsaturated carbon-carbon moieties; B. providing a second reactant having at least two Si-H moieties, so long as a minimum of five reactive groups are present, and/or the sum of the number of the unsaturated carbon-carbon moieties of the first reactant and the Si-H moieties of a second reactant is at least five and/or at least one of the unsaturated carbon-carbon moieties of the first reactant or the Si-H moieties of the second reactant is pendant; C. providing a third reactant having a silicon atom and a condensable reactive group bonded to the silicon atom and also having an unsaturated carbon-carbon moiety and/or a Si-H moiety; D. providing a hydrosilylation catalyst; E. providing a polar liquid; F. combining the first, second, and third reactants in the presence of the hydrosilylation catalyst and the polar liquid to form an emulsion wherein the first, second, and third reactants react via a hydrosilylation reaction to form particles in the emulsion that have a cross-linked network wherein the condensable reactive group is disposed on the particles, and wherein the particles are disposed in the polar liquid; and G. adding a silane to the particles wherein the silane has an organic moiety and a condensation leaving group such that the condensable reactive group of the particles reacts with the condensation leaving group of the silane via a condensation reaction to form the particles having the organic functionality disposed thereon. A. providing a first reactant having at least two unsaturated carbon-carbon moieties; B. providing a second reactant having at least two Si-H moieties, so long as a minimum of five reactive groups are present, and/or the sum of the number of the unsaturated carbon-carbon moieties of the first reactant and the Si-H moieties of a second reactant is at least five and/or at least one of the unsaturated carbon-carbon moieties of the first reactant or the Si-H moieties of the second reactant is pendant; C. providing a third reactant having a silicon atom and a condensable reactive group bonded to the silicon atom and also having an unsaturated carbon-carbon moiety and/or a Si-H moiety; D. providing a hydrosilylation catalyst; E. providing a polar liquid; F. combining the first, second, and third reactants in the presence of the hydrosilylation catalyst and the polar liquid to form an emulsion wherein the first, second, and third reactants react via a hydrosilylation reaction to form particles in the emulsion that have a cross-linked network wherein the condensable reactive group is disposed on the particles, and wherein the particles are disposed in the polar liquid; and G. adding a silane to the particles wherein the silane has an organic moiety and a condensation leaving group such that the condensable reactive group of the particles reacts with the condensation leaving group of the silane via a condensation reaction to form the particles having the organic functionality disposed thereon.
Master cylinder, in particular for a clutch, actuating or brake system of a vehicle, comprising a cylinder housing with a piston bore , a piston arranged in the piston bore and having an end side facing a cylinder chamber and at least one afterflow opening leading from a piston skirt surface through a piston wall to the cylinder chamber at a distance from the end side , said opening adjoining an afterflow space in a pressure equalization position of the piston so that in the pressure equalization position hydraulic medium can run on into the cylinder chamber in order to equalize the pressure, and an inner sealing element arranged between the housing and the piston in the area of the piston bore and limiting the cylinder chamber , characterized in that the sealing element is insertable into the cylinder housing from an outer opening thereof, that the cylinder housing has a bore lying adjacent to the outer opening and reaching as far as a base of a receiving groove , the sealing element being insertable through said bore, that the bore lying adjacent to the outer opening has at least one cross sectional surface corresponding to a cross sectional surface of the base of the groove, that an insert fixing the sealing element in place is insertable into the cylinder housing , that the insert forms a groove wall in the state inserted into the cylinder housing and that an additional groove wall not formed by the insert is provided in the cylinder housing .
A method for producing an energy store by means of a device , the device comprising a printing pad which is configured to support a cell element or cell stack of the energy store , wherein the device comprises a printing screen having a frame containing a first lattice structure for receiving a first and second paste , wherein by means of a first application device belonging to the device , the first paste is applied to the first lattice structure , wherein the first paste is distributed on the first lattice structure by means of a distribution device belonging to the device , wherein any recesses or openings in the first lattice structure are filled with the first paste , characterized in that the first lattice structure is decoupled from the frame with the first paste , and the first lattice structure and the first paste are deposited on the printing pad , wherein the first lattice structure and the first paste form a first electrode of the cell element or cell stack , wherein at least one second lattice structure is filled with a second paste for forming at least a second electrode , wherein the first electrode and the second electrode are separated from one another by a separator , wherein the second paste is applied to the second lattice structure by means of a second application device belonging to the device , wherein the second paste is applied by means of the distribution device belonging to the device on the second lattice structure , wherein any recesses or openings in the second lattice structure are filled with the second paste , wherein the second lattice structure with the second paste are decoupled from the frame , and the second lattice structure and the second paste are deposited on the separator .
A cap sterilizer comprising: a spray nozzle (81A; 81B) configured to spray a sterilant against a cap ; and an air-rinse nozzle (94A; 94B) configured to air-rinse the cap sprayed with the sterilant by the spray nozzle (81A; 81B); and a washing nozzle configured to wash the cap air-rinsed by the air rinse nozzle (94A; 94B), wherein the spray nozzle (81A; 81B), the air rinse nozzle (94A; 94B), and the washing nozzle are arranged in this order along a conveying direction of the cap , the washing nozzle is configured to blow a washing liquid against the cap to wash the cap , and the air-rinse nozzle (94A; 94B) is configured to blow sterile hot air against both inner and outer surfaces of the cap and is configured to blow sterile hot air so as to rise a temperature of the cap to 40°C or more and to remove the sterilant adhering to the cap . a spray nozzle (81A; 81B) configured to spray a sterilant against a cap ; and an air-rinse nozzle (94A; 94B) configured to air-rinse the cap sprayed with the sterilant by the spray nozzle (81A; 81B); and a washing nozzle configured to wash the cap air-rinsed by the air rinse nozzle (94A; 94B), wherein the spray nozzle (81A; 81B), the air rinse nozzle (94A; 94B), and the washing nozzle are arranged in this order along a conveying direction of the cap , the washing nozzle is configured to blow a washing liquid against the cap to wash the cap , and the air-rinse nozzle (94A; 94B) is configured to blow sterile hot air against both inner and outer surfaces of the cap and is configured to blow sterile hot air so as to rise a temperature of the cap to 40°C or more and to remove the sterilant adhering to the cap .
A centrifugal electric pump assembly comprising an electric motor , a wet section provided with an intake duct and a delivery duct , and an impeller , said impeller being keyed on a shaft of said electric motor , said electric motor being composed of a stator and a rotor , said rotor being integral with said shaft , said stator being contained in a receptacle , said rotor being comprised between two bushings : - a first bushing , arranged proximate to said impeller , - a second bushing , arranged opposite said first bushing and located at the end of said shaft that is opposite to the one provided with said impeller , said centrifugal electric pump assembly further comprising a scale remover substance adapted to prevent the forming of scale proximate to said second bushing , characterized in that the centrifugal electric pump assembly comprises, at one end, an electrical box , which contains an electrical board adapted to control and supply power to said electric motor , said electrical box being closed at the free end by a lid , said centrifugal electric pump assembly comprising a plug , provided with: - at a first end, a contour that is adapted to enter a hole which communicates with said wet section , acting as a flow control element, said hole that communicates with said wet section being proximate to said second bushing , - at the other end, a head adapted to be easily accessible to the user, said scale remover substance adapted to prevent the forming of scale being constituted by a tablet which is inserted in a seat in said first end of said plug . - a first bushing , arranged proximate to said impeller , - a second bushing , arranged opposite said first bushing and located at the end of said shaft that is opposite to the one provided with said impeller , said centrifugal electric pump assembly further comprising a scale remover substance adapted to prevent the forming of scale proximate to said second bushing , characterized in that the centrifugal electric pump assembly comprises, at one end, an electrical box , which contains an electrical board adapted to control and supply power to said electric motor , said electrical box being closed at the free end by a lid , said centrifugal electric pump assembly comprising a plug , provided with: - at a first end, a contour that is adapted to enter a hole which communicates with said wet section , acting as a flow control element, said hole that communicates with said wet section being proximate to said second bushing , - at the other end, a head adapted to be easily accessible to the user, - at a first end, a contour that is adapted to enter a hole which communicates with said wet section , acting as a flow control element, said hole that communicates with said wet section being proximate to said second bushing , - at the other end, a head adapted to be easily accessible to the user, said scale remover substance adapted to prevent the forming of scale being constituted by a tablet which is inserted in a seat in said first end of said plug .
A flexible solid state lighting strip , comprising: an elongate circuit board having a longitudinal axis , wherein the elongate circuit board is bent, about folding lines (22; 26; 30; 34) parallel to the longitudinal axis of the elongate circuit board, into sections , such that subsequent sections along the longitudinal axis are oriented at least 45 degrees apart; and at least one solid state light source mounted on the elongate circuit board, and characterised in that at least some of said sections of the elongate circuit board each has the shape of an isosceles trapezoid. an elongate circuit board having a longitudinal axis , wherein the elongate circuit board is bent, about folding lines (22; 26; 30; 34) parallel to the longitudinal axis of the elongate circuit board, into sections , such that subsequent sections along the longitudinal axis are oriented at least 45 degrees apart; and at least one solid state light source mounted on the elongate circuit board, and characterised in that at least some of said sections of the elongate circuit board each has the shape of an isosceles trapezoid.
Method for manufacturing a grille for a cascade type thrust reverser, of a jet engine, said method including the following steps: a) manufacturing (101, 102, 103; 101', 102', 103', 104'; 100') a first component (PC) including continuous or long fibres, pre-impregnated by a thermoplastic or thermosetting resin; b) manufacturing (201, 202, 203, 204; 201', 202', 203', 204'; 200'), subsequently or together with step a), a series of second components (SC) each including discontinuous fibres, pre-impregnated by a thermoplastic or thermosetting resin, step b) being carried out such that the second components (SC) are, on the one hand, arranged transversally with respect to a longitudinal direction of the first component on at least one side of the first component (PC) and, on the other hand, spaced from one another according to this longitudinal direction, so as to form a comb-shaped structure (SFP), wherein the second components (SC) are consolidated to the first component (PC). a) manufacturing (101, 102, 103; 101', 102', 103', 104'; 100') a first component (PC) including continuous or long fibres, pre-impregnated by a thermoplastic or thermosetting resin; b) manufacturing (201, 202, 203, 204; 201', 202', 203', 204'; 200'), subsequently or together with step a), a series of second components (SC) each including discontinuous fibres, pre-impregnated by a thermoplastic or thermosetting resin, step b) being carried out such that the second components (SC) are, on the one hand, arranged transversally with respect to a longitudinal direction of the first component on at least one side of the first component (PC) and, on the other hand, spaced from one another according to this longitudinal direction, so as to form a comb-shaped structure (SFP), wherein the second components (SC) are consolidated to the first component (PC).
Compounds of the formula wherein A and B form -(CH 2 ) 2 -O-(CH 2 ) 2 -, and W and X is CH 3 , Y is H, V 1 is 4-F, V 2 is H, and V 3 is H or Wherein A and B form and W and X is CH 3 , and Y is Cl. for use for controlling parasitic Copepodae in fish.
A method of verifying swelling of a swellable material in a well, the method comprising: connecting a transmitter to a sensor installed in a well which senses a parameter indicative of degree of swelling of the swellable material, wherein the sensor senses a parameter indicative of degree of swelling of the swellable material using a probe which extends from the sensor into the swellable material; and conveying a receiver into an interior of a tubular string, whereby the transmitter transmits to the receiver an indication of the degree of swelling of the swellable material. connecting a transmitter to a sensor installed in a well which senses a parameter indicative of degree of swelling of the swellable material, wherein the sensor senses a parameter indicative of degree of swelling of the swellable material using a probe which extends from the sensor into the swellable material; and conveying a receiver into an interior of a tubular string, whereby the transmitter transmits to the receiver an indication of the degree of swelling of the swellable material.
An inertial sensor comprising: a proof mass structure spaced apart from a planar surface of a substrate , said proof mass structure having a first section and a second section , said first section having a first mass that is greater than a second mass of said second section ; an anchor coupled to said planar surface of said substrate ; and a spring system interconnected between said anchor and said first and second sections of said proof mass structure , said spring system being configured to enable translational motion of said first and second sections of said proof mass structure in response to linear acceleration forces imposed on said inertial sensor in any of three orthogonal directions , characterized in that said spring system comprises: a first spring element ; a rotational beam having a first beam end and a second beam end , said first spring element interconnecting said anchor and a midpoint of said rotational beam , said midpoint being centered between said first and second beam ends ; a second spring element interconnecting said first beam end of said rotational beam and said first section of said proof mass structure ; and a third spring element interconnecting said second beam end of said rotational beam and said second section said proof mass structure . a proof mass structure spaced apart from a planar surface of a substrate , said proof mass structure having a first section and a second section , said first section having a first mass that is greater than a second mass of said second section ; an anchor coupled to said planar surface of said substrate ; and a spring system interconnected between said anchor and said first and second sections of said proof mass structure , said spring system being configured to enable translational motion of said first and second sections of said proof mass structure in response to linear acceleration forces imposed on said inertial sensor in any of three orthogonal directions , characterized in that said spring system comprises: a first spring element ; a rotational beam having a first beam end and a second beam end , said first spring element interconnecting said anchor and a midpoint of said rotational beam , said midpoint being centered between said first and second beam ends ; a second spring element interconnecting said first beam end of said rotational beam and said first section of said proof mass structure ; and a third spring element interconnecting said second beam end of said rotational beam and said second section said proof mass structure . a first spring element ; a rotational beam having a first beam end and a second beam end , said first spring element interconnecting said anchor and a midpoint of said rotational beam , said midpoint being centered between said first and second beam ends ; a second spring element interconnecting said first beam end of said rotational beam and said first section of said proof mass structure ; and a third spring element interconnecting said second beam end of said rotational beam and said second section said proof mass structure .
Method for manufacturing a profile segment of a segmented casting-vulcanizing mold for vehicle tires, the molding area of which forms a segment of the tread profile of a tire to be vulcanized, comprising the following steps: - producing a rigid model segment which has a casing-shaped tread surface - milling the profile positive of the tread into the casing-shaped tread surface of the model segment in order to obtain the master model - producing a flexible imprint preferably made of silicone rubber from the master model - producing a rigid casting made of plaster from the imprint preferably made of silicone rubber in order to form a casting core segment - casting all the annular casting core segments placed one against the other with an aluminum-magnesium alloy in order to obtain a vulcanizing mold which is in turn subsequently divided into individual profile segments, characterized in that a plasma coating is applied to the tread of the model segment, into which the profile positive of the tread is subsequently milled in order to obtain the master model, wherein the plasma coating is configured in such a way that it gives the master model a certain degree of roughness. - producing a rigid model segment which has a casing-shaped tread surface - milling the profile positive of the tread into the casing-shaped tread surface of the model segment in order to obtain the master model - producing a flexible imprint preferably made of silicone rubber from the master model - producing a rigid casting made of plaster from the imprint preferably made of silicone rubber in order to form a casting core segment - casting all the annular casting core segments placed one against the other with an aluminum-magnesium alloy in order to obtain a vulcanizing mold which is in turn subsequently divided into individual profile segments, characterized in that a plasma coating is applied to the tread of the model segment, into which the profile positive of the tread is subsequently milled in order to obtain the master model, wherein the plasma coating is configured in such a way that it gives the master model a certain degree of roughness.
A method for facilitating a transfer of a first communication device involved in a first communication session to a different communication session, the method comprising: receiving a first message comprising a unique identifier inserted into at least one portion of the first message , the at least one portion comprising at least one of a header and a parameter of the first message, the first message having traversed at least one Back-to-Back UA, B2BUA, wherein the unique identifier comprises a Globally Routable UA URI, GRUU, that identifies the first communication device involved in the first communication session and an Address of Record, AOR, for a user of the first communication device; extracting the unique identifier from the at least one portion of the first message ; and inserting the extracted unique identifier into a Contact Uniform Resource Identifier, URI, of the first message and sending the first message with the inserted unique identifier in the Contact Uniform Resource Identifier to a user relation element, wherein the unique identifier in the Contact Uniform Resource Identifier of the first message is used by the user relation element to transfer the first communication device involved in the first communication session to a second communication device in the different communication session using the unique identifier. receiving a first message comprising a unique identifier inserted into at least one portion of the first message , the at least one portion comprising at least one of a header and a parameter of the first message, the first message having traversed at least one Back-to-Back UA, B2BUA, wherein the unique identifier comprises a Globally Routable UA URI, GRUU, that identifies the first communication device involved in the first communication session and an Address of Record, AOR, for a user of the first communication device; extracting the unique identifier from the at least one portion of the first message ; and inserting the extracted unique identifier into a Contact Uniform Resource Identifier, URI, of the first message and sending the first message with the inserted unique identifier in the Contact Uniform Resource Identifier to a user relation element, wherein the unique identifier in the Contact Uniform Resource Identifier of the first message is used by the user relation element to transfer the first communication device involved in the first communication session to a second communication device in the different communication session using the unique identifier.
Optical measurement device comprising a light emission source emitting an initial optical signal, separation means arranged to separate the initial optical signal so as to form a reference optical signal and a measurement optical signal, a reference channel arranged to detect the reference optical signal, and a measurement channel arranged to detect the measurement optical signal, an optical wire used as a sensor, the optical wire comprising at least one mechanically pre-stressed optical fiber guiding the optical signal between the separation means and the measurement channel , the reference channel receiving said reference optical signal passing along a path other than the optical wire, the device moreover comprising calculation means arranged to measure an intensity of the measurement optical signal and an intensity of the reference optical signal, and to deduce therefrom a deformation of the optical wire , the reference channel and the measurement channel being formed in a single photodetector substrate , characterized in that the light emission source emitting the initial optical signal is thermally coupled to the measurement channel and the reference channel .