mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a thread comprised of cross linked hyaluronic acid or salts, hydrates or solvates thereof, wherein the method comprises the following steps: (i) mixing hyaluronic acid or salts, hydrates or solvates thereof with water or a buffer and a cross linking agent to form a gel, wherein the crosslinking agent is butanediol diglycidyl ether (BDDE); (ii) forming the gel into a thread; and; (iii) drying the thread of cross linked hyaluronic acid; wherein the step (ii) of forming the gel into a thread is selected from one of the following: (ii-1) extruding the gel; (ii-2) rolling the gel; (ii-3) placing the gel into a mold; (ii-4) allowing the gel to stretch into a thread under the influence of gravity or using centrifugal force; (ii-5) shearing the gel in between charged parallel glass plates; (ii-6) confining the gel into a groove patterned on an elastomer and then stretching the elastomer; and (ii-7) confining the gel into a permeable tubular structure that allows dehydration of the thread. (i) mixing hyaluronic acid or salts, hydrates or solvates thereof with water or a buffer and a cross linking agent to form a gel, wherein the crosslinking agent is butanediol diglycidyl ether (BDDE); (ii) forming the gel into a thread; and; (iii) drying the thread of cross linked hyaluronic acid; wherein the step (ii) of forming the gel into a thread is selected from one of the following: (ii-1) extruding the gel; (ii-2) rolling the gel; (ii-3) placing the gel into a mold; (ii-4) allowing the gel to stretch into a thread under the influence of gravity or using centrifugal force; (ii-5) shearing the gel in between charged parallel glass plates; (ii-6) confining the gel into a groove patterned on an elastomer and then stretching the elastomer; and (ii-7) confining the gel into a permeable tubular structure that allows dehydration of the thread. (ii-1) extruding the gel; (ii-2) rolling the gel; (ii-3) placing the gel into a mold; (ii-4) allowing the gel to stretch into a thread under the influence of gravity or using centrifugal force; (ii-5) shearing the gel in between charged parallel glass plates; (ii-6) confining the gel into a groove patterned on an elastomer and then stretching the elastomer; and (ii-7) confining the gel into a permeable tubular structure that allows dehydration of the thread.
Angular sector (38; 138) of a bladed stator of an axial turbine engine , particularly of a compressor (4; 6), the sector comprising: - an external collar in the form of a circular arc intended to be mounted on a casing of the turbine engine, - an internal collar (32; 132) in the form of a circular arc, - a row of stator blades (42; 142) extending radially and anchored in the collars in such a manner as to form a bladed box (38; 138), one box blade (42; 142) comprises an anchoring foot (50; 150) disposed in the thickness of one of the collars (30; 32; 132) in such a manner as to anchor the blade (42; 142) to said collar to make the box (38; 138) rigid; characterized in that each box blade (42; 142) comprises at least two anchoring feet (50; 150) at at least one of its radial ends, one of the two anchoring feet (50; 150) preferably being situated on the front side of the blade (42; 142) at one of the two axial ends of the blade, and the other of the two anchoring feet (50; 150) being situated on the back side of the blade at the other of the two axial ends of the blade (42; 142). - an external collar in the form of a circular arc intended to be mounted on a casing of the turbine engine, - an internal collar (32; 132) in the form of a circular arc, - a row of stator blades (42; 142) extending radially and anchored in the collars in such a manner as to form a bladed box (38; 138), one box blade (42; 142) comprises an anchoring foot (50; 150) disposed in the thickness of one of the collars (30; 32; 132) in such a manner as to anchor the blade (42; 142) to said collar to make the box (38; 138) rigid; characterized in that each box blade (42; 142) comprises at least two anchoring feet (50; 150) at at least one of its radial ends, one of the two anchoring feet (50; 150) preferably being situated on the front side of the blade (42; 142) at one of the two axial ends of the blade, and the other of the two anchoring feet (50; 150) being situated on the back side of the blade at the other of the two axial ends of the blade (42; 142).
A medical instrument, comprising: a shaft for insertion into a body of a patient; a distal-end assembly , which is coupled to the shaft and comprises: a telescopic assembly , configured to elongate so as to collapse the distal-end assembly, and to compress so as to expand the distal-end assembly; an elastic element , coupled to self-elongate and thus elongate the telescopic assembly; and an inflatable balloon , which is coupled to the telescopic assembly and is configured to collapse by the telescopic assembly elongating, and to expand by the telescopic assembly compressing; and a puller-wire , which runs through the shaft and is connected to a distal end of the telescopic assembly , and which is configured, when pulled, to compress the telescopic assembly . a shaft for insertion into a body of a patient; a distal-end assembly , which is coupled to the shaft and comprises: a telescopic assembly , configured to elongate so as to collapse the distal-end assembly, and to compress so as to expand the distal-end assembly; an elastic element , coupled to self-elongate and thus elongate the telescopic assembly; and an inflatable balloon , which is coupled to the telescopic assembly and is configured to collapse by the telescopic assembly elongating, and to expand by the telescopic assembly compressing; and a telescopic assembly , configured to elongate so as to collapse the distal-end assembly, and to compress so as to expand the distal-end assembly; an elastic element , coupled to self-elongate and thus elongate the telescopic assembly; and an inflatable balloon , which is coupled to the telescopic assembly and is configured to collapse by the telescopic assembly elongating, and to expand by the telescopic assembly compressing; and a puller-wire , which runs through the shaft and is connected to a distal end of the telescopic assembly , and which is configured, when pulled, to compress the telescopic assembly .
A rotating electrical machine comprising: a rotor having a rotor core provided with a plurality of magnet holes in a circumferential direction, and permanent magnets embedded in the magnet holes and forming magnetic poles; and a stator having a plurality of tooth portions which are disposed in the circumferential direction and on which coils are wound, wherein the rotor is disposed on an inner circumferential side of the stator with a magnetic gap therebetween, and an outer circumferential portion of the rotor core has petal portions disposed so as to correspond to the respective magnetic poles and each having an arc shape with a diameter smaller than a rotor diameter, and interpole bridges each located at a non-magnetic portion between the adjacent magnetic poles and disposed on an outer circumferential side with respect to the permanent magnets , characterized in that the interpole bridges each have an outer circumferential surface facing the magnetic gap and formed by two flat surfaces , and a connection portion between the two flat surfaces is recessed with respect to the magnetic gap . a rotor having a rotor core provided with a plurality of magnet holes in a circumferential direction, and permanent magnets embedded in the magnet holes and forming magnetic poles; and a stator having a plurality of tooth portions which are disposed in the circumferential direction and on which coils are wound, wherein the rotor is disposed on an inner circumferential side of the stator with a magnetic gap therebetween, and an outer circumferential portion of the rotor core has petal portions disposed so as to correspond to the respective magnetic poles and each having an arc shape with a diameter smaller than a rotor diameter, and interpole bridges each located at a non-magnetic portion between the adjacent magnetic poles and disposed on an outer circumferential side with respect to the permanent magnets , characterized in that the interpole bridges each have an outer circumferential surface facing the magnetic gap and formed by two flat surfaces , and a connection portion between the two flat surfaces is recessed with respect to the magnetic gap .
A method for providing store intelligence in a retail store facility, "RSF" , comprising: communicating a first unique identifier between a first beacon of a first proximity system disposed adjacent to an Electronic Article Surveillance, "EAS" system of the RSF and a Mobile Communication Device, "MCD" possessed by a person located in proximity to the first beacon via a first Short Range Communication, "SRC" ; communicating the first unique identifier and a second unique identifier to an intelligence system located remote from the first beacon and the MCD , where the first and second unique identifiers collectively comprise a unique identifier of the first beacon and a unique identifier of the MCD ; capturing a first time stamped image of the person using a camera of the proximity system which is located near the first beacon ; communicating the first time stamped image to the intelligence system for storage; and performing operations at the intelligence system to enhance the security or safety of the RSF by using the first unique identifier to detect an entrance or exit of the person to/from the RSF and using at least one of the second unique identifier and the first time stamped image to make a first determination as to an identification of the person . communicating a first unique identifier between a first beacon of a first proximity system disposed adjacent to an Electronic Article Surveillance, "EAS" system of the RSF and a Mobile Communication Device, "MCD" possessed by a person located in proximity to the first beacon via a first Short Range Communication, "SRC" ; communicating the first unique identifier and a second unique identifier to an intelligence system located remote from the first beacon and the MCD , where the first and second unique identifiers collectively comprise a unique identifier of the first beacon and a unique identifier of the MCD ; capturing a first time stamped image of the person using a camera of the proximity system which is located near the first beacon ; communicating the first time stamped image to the intelligence system for storage; and performing operations at the intelligence system to enhance the security or safety of the RSF by using the first unique identifier to detect an entrance or exit of the person to/from the RSF and using at least one of the second unique identifier and the first time stamped image to make a first determination as to an identification of the person .
A method to determine the weight percent of an "amorphous" fraction in an olefin-based polymer composition, comprising one or more olefin-based polymers; said method comprising the following steps: a) dissolving the olefin-based polymer composition in organic solvent to form a polymer solution; b) injecting at least a portion of the polymer solution onto a support material; c) cooling the support material at a rate greater than, or equal to, 0.2°C/min; d) increasing the temperature of the support material to elute the polymers of the olefin-based polymer composition; e) generating a chromatogram; f) determining the peak area of the first elution from its lower integration limit to its upper integration limit; g) calculating the "amorphous" fraction" based on the following Equation A below: wt % " amorphous " fraction = PA amorp / PA total × 100 wherein PA amorp = peak area of the first elution, and PA total = total peak area of the polymers of the olefin-based polymer composition, wherein the support material comprises one of the following: a) gold particles, b) gold coated particles, c) particles comprising gold, d) particles comprising a coating comprising gold, e) copper particles, f) copper coated particles, g) particles comprising copper, h) particles comprising a coating comprising copper, i) silver particles, j) silver coated particles, k) particles comprising silver, l) particles comprising a coating comprising silver , or m) a combination thereof. a) dissolving the olefin-based polymer composition in organic solvent to form a polymer solution; b) injecting at least a portion of the polymer solution onto a support material; c) cooling the support material at a rate greater than, or equal to, 0.2°C/min; d) increasing the temperature of the support material to elute the polymers of the olefin-based polymer composition; e) generating a chromatogram; f) determining the peak area of the first elution from its lower integration limit to its upper integration limit; g) calculating the "amorphous" fraction" based on the following Equation A below: wt % " amorphous " fraction = PA amorp / PA total × 100 wherein PA amorp = peak area of the first elution, and PA total = total peak area of the polymers of the olefin-based polymer composition, wherein the support material comprises one of the following: a) gold particles, b) gold coated particles, c) particles comprising gold, d) particles comprising a coating comprising gold, e) copper particles, f) copper coated particles, g) particles comprising copper, h) particles comprising a coating comprising copper, i) silver particles, j) silver coated particles, k) particles comprising silver, l) particles comprising a coating comprising silver , or m) a combination thereof.
A polymerization process control method, comprising: performing a polymerization reaction in a polymerization reactor to produce polyethylene having long chain branching (LCB) greater than 0.01 per 1,000 carbon atoms and less than 0.07 per 1,000 carbon atoms, wherein the polymerization reaction is catalyzed by an electron donor-free Ziegler-Natta catalyst and an alkyl aluminum co-catalyst with ethylene and optionally one or more comonomers to produce the polyethylene; removing a portion of the polyethylene from the polymerization reactor; measuring a melt flow ratio (I 21 /I 2 ) of the polyethylene removed from the polymerization reactor to determine the amount of LCB using a predetermined relationship between the melt flow ratio (I 21 /I 2 ) and the LCB; and controlling an amount of LCB of the polyethylene from the polymerization reactor by adjusting a weight concentration of the alkyl aluminum co-catalyst present in the polymerization reactor. performing a polymerization reaction in a polymerization reactor to produce polyethylene having long chain branching (LCB) greater than 0.01 per 1,000 carbon atoms and less than 0.07 per 1,000 carbon atoms, wherein the polymerization reaction is catalyzed by an electron donor-free Ziegler-Natta catalyst and an alkyl aluminum co-catalyst with ethylene and optionally one or more comonomers to produce the polyethylene; removing a portion of the polyethylene from the polymerization reactor; measuring a melt flow ratio (I 21 /I 2 ) of the polyethylene removed from the polymerization reactor to determine the amount of LCB using a predetermined relationship between the melt flow ratio (I 21 /I 2 ) and the LCB; and controlling an amount of LCB of the polyethylene from the polymerization reactor by adjusting a weight concentration of the alkyl aluminum co-catalyst present in the polymerization reactor.
An isolated antibody that specifically binds to human CTLA-4 protein, comprising a heavy chain variable region and a light chain variable region, wherein the heavy chain variable region comprises the amino acid sequence of SEQ ID NO: 7 and the light chain variable region comprises the amino acid sequence of SEQ ID NO: 8.
A spray-dried powder containing a mixture of structurally distinct human milk oligosaccharides and at least one monosaccharide selected from the group consisting of L-fucose and N-acetylneuraminic acid, wherein the spray-dried powder comprises saccharide [wt.-%] 2'-fucosylactose (2'-FL) 30.0 - 55.0 3-fucosyllactose (3-FL) 10.0 - 15.0 lacto- N -tetraose (L N T) 20.0 - 30.0 lacto- N -neotetraose (L N nT) 0.0 - 5.0 lacto-N-fucopentaose I (L N FPI) 0.0 - 20.0 3'-sialyllactose (3'-SL) 2.0 - 4.0 6'-sialyllactose (6'-SL) 4.0 - 6.0 N-acetylneuraminic acid (NeuAc) 0.0 - 10.0 L-fucose 0.0 - 6.0 Total 100.0 with the exception of a composition comprising saccharide [wt.-%] 2'-fucosylactose (2'-FL) 34 3-fucosyllactose (3-FL) 11 lacto- N -tetraose (L N T) 20 lacto- N -neotetraose (L N nT) 2 lacto-N-fucopentaose I (L N FPI) 13 3'-sialyllactose (3'-SL) 3 6'-sialyllactose (6'-SL) 4 N-acetylneuraminic acid (NeuAc) 8 L-fucose 5 Total 100
A compound selected from the group consisting of and or a pharmaceutically acceptable salt thereof, a tautomer thereof, a pharmaceutically acceptable salt of a tautomer thereof, an enantiomer thereof, or a pharmaceutically acceptable salt of an enantiomer thereof.
A method of communicating uplink control information, UCI, embedded in a demodulation reference signal, DMRS, sequence, the method comprising: determining to communicate a specific UCI; selecting a first DMRS sequence from a plurality of DMRS sequences to be used in an uplink message, wherein the first DMRS sequence corresponds to the specific UCI; selecting a first pilot sub-sequence to embed in the first DMRS sequence from a number of pilot sub-sequences, the first pilot sub-sequence being common among all or a portion of the plurality of DMRS sequences; and transmitting the uplink message comprising the first DMRS sequence over a physical channel, said first DMRS sequence comprising the specific UCI and the first pilot sub-sequence. determining to communicate a specific UCI; selecting a first DMRS sequence from a plurality of DMRS sequences to be used in an uplink message, wherein the first DMRS sequence corresponds to the specific UCI; selecting a first pilot sub-sequence to embed in the first DMRS sequence from a number of pilot sub-sequences, the first pilot sub-sequence being common among all or a portion of the plurality of DMRS sequences; and transmitting the uplink message comprising the first DMRS sequence over a physical channel, said first DMRS sequence comprising the specific UCI and the first pilot sub-sequence.
A hybrid article , wherein the hybrid article is a weld filler for a fusion welding process, comprising: a core including a lateral surface and a core material , and a sintered coating disposed on and circumscribing the lateral surface , the sintered coating including: a first metallic particulate material including a first melting point and constituting, by weight, more than 95% up to 99.5% of the sintered coating ; and a second metallic particulate material including a second melting point and constituting, by weight, from 0.5% up to 5% of the sintered coating , wherein the second melting point is lower than the first melting point and the sintered coating includes a coating density less than the core ; wherein the core material and the first metallic particulate material are independently selected from the group consisting of GTD 111, GTD 222, GTD 262, HASTELLOY W, HAYNES 188, HANES 230, HANES 282, INCONEL 617, INCONEL 625, INCONEL 718, INCONEL 738, MAR-M-247, NIMONIC 263, René 41, René 80, René 108, René 142, René 195, 316SS, and combinations thereof; wherein the second metallic particulate material is selected from the group consisting of braze alloys BCo-1, DF-4B, BNi-2, BNi-5, BNi-9, MAR-M-509B, and combinations thereof; and wherein the core is a wire. a core including a lateral surface and a core material , and a sintered coating disposed on and circumscribing the lateral surface , the sintered coating including: a first metallic particulate material including a first melting point and constituting, by weight, more than 95% up to 99.5% of the sintered coating ; and a second metallic particulate material including a second melting point and constituting, by weight, from 0.5% up to 5% of the sintered coating , a first metallic particulate material including a first melting point and constituting, by weight, more than 95% up to 99.5% of the sintered coating ; and a second metallic particulate material including a second melting point and constituting, by weight, from 0.5% up to 5% of the sintered coating , wherein the second melting point is lower than the first melting point and the sintered coating includes a coating density less than the core ; wherein the core material and the first metallic particulate material are independently selected from the group consisting of GTD 111, GTD 222, GTD 262, HASTELLOY W, HAYNES 188, HANES 230, HANES 282, INCONEL 617, INCONEL 625, INCONEL 718, INCONEL 738, MAR-M-247, NIMONIC 263, René 41, René 80, René 108, René 142, René 195, 316SS, and combinations thereof; wherein the second metallic particulate material is selected from the group consisting of braze alloys BCo-1, DF-4B, BNi-2, BNi-5, BNi-9, MAR-M-509B, and combinations thereof; and wherein the core is a wire.
A method of conducting a chemical reaction involving gaseous reactants in a slurry bubble column reactor, said reactor comprising: a slurry zone; a gas space above the slurry zone; gas supply apparatus arranged to supply gas to the slurry zone; a gas outlet from the gas space; and a liquid outlet; the gas supply apparatus comprising gas supply and distribution means and a set of gas nozzles; in which said method comprises supplying the gaseous reactants by way of the gas supply apparatus, the reactor contains a volume of slurry comprising a liquid phase and solid catalyst particles, and the catalyst particles are maintained in suspension in the slurry by rising gas bubbles from the gas supply apparatus; and in which the gas supply and distribution means are arranged to deliver the gas to the set of gas nozzles; the nozzles opening downwards and being arranged in use to inject gas into the slurry zone of the reactor, thereby forming downwardly extending gas jets of length L in the slurry; the number and the configuration of the nozzles being selected to provide a distribution of nozzles across a cross section of the reactor which corresponds to a minimum density of 75 evenly distributed nozzles per m 2 , the opening of each nozzle being positioned a perpendicular distance D from the surface of the bottom of the reactor, wherein D = 0.75 to 1.5 L.