mhurhangee/patent-ind-claim-en huggingface dataset:
A combustor unit for a gas turbine assembly comprising a premix combustor and a reheat combustor , which are arranged in series along the gas flow direction (M); the reheat combustor comprising: a housing extending substantially along a longitudinal axis (B) and defining a reheat combustion chamber , a plurality of injection units distributed around the reheat combustion chamber and fed with air and fuel; wherein each injection unit of the plurality of injection units engages a respective hole of the housing and comprises a fuel supply line and at least one fuel nozzle in fluidic communication with the fuel supply line ; an air supply line and at least one air nozzle in fluidic communication with the air supply line ; and a conveying tube extending along an extension axis (C) and provided with an outlet flowing into the reheat combustion chamber and an inlet coinciding with the air nozzle ; the combustor being characterized in that in the conveying tube air and fuel coming from the at least one fuel nozzle and air nozzle are mixed; and in that the at least one first injection unit of the plurality of injection units is configured to inject fuel and air differently with respect to the others injection units ; wherein the at least one first injection unit of the plurality of injection units is configured to inject fuel and air according to a different equivalence ratio and/or to a different mixing between air and fuel and/or to a different penetration into the reheat combustion chamber with respect to the other injection units . a housing extending substantially along a longitudinal axis (B) and defining a reheat combustion chamber , a plurality of injection units distributed around the reheat combustion chamber and fed with air and fuel; wherein each injection unit of the plurality of injection units engages a respective hole of the housing and comprises a fuel supply line and at least one fuel nozzle in fluidic communication with the fuel supply line ; an air supply line and at least one air nozzle in fluidic communication with the air supply line ; and a conveying tube extending along an extension axis (C) and provided with an outlet flowing into the reheat combustion chamber and an inlet coinciding with the air nozzle ; the combustor being characterized in that in the conveying tube air and fuel coming from the at least one fuel nozzle and air nozzle are mixed; and in that the at least one first injection unit of the plurality of injection units is configured to inject fuel and air differently with respect to the others injection units ; wherein the at least one first injection unit of the plurality of injection units is configured to inject fuel and air according to a different equivalence ratio and/or to a different mixing between air and fuel and/or to a different penetration into the reheat combustion chamber with respect to the other injection units .
A method for drilling a plurality of subsea wells from a substantially stationary floating vessel, the plurality of subsea wells comprising a first subsea well with a first subsea wellhead and a second subsea well with a second subsea wellhead, the method comprising: connecting a drilling riser , that is at a first end thereof equipped with a drilling riser tensioner and a blowout preventer , to the first wellhead at a second, subsea end of the drilling riser using guidelines attached to the drilling riser said guidelines extending from the first subsea wellhead to the stationary floating vessel; moving the guidelines to a location of the second subsea well; disconnecting the drilling riser from the first wellhead; lifting the drilling riser together with its tensioner and blowout preventer by an amount sufficient to clear the first wellhead while maintaining the second end of the drilling riser in the vicinity of the seafloor; selectively tensioning the guidelines while moving the first end of the drilling riser in a substantially horizontal direction on the stationary floating vessel such that the first end of the riser is more nearly vertically aligned with the second wellhead; applying selected tension to the guidelines sufficient to align the second end of the drilling riser with the second wellhead; and lowering the drilling riser together with its tensioner and blowout preventer sufficiently to engage the second wellhead. connecting a drilling riser , that is at a first end thereof equipped with a drilling riser tensioner and a blowout preventer , to the first wellhead at a second, subsea end of the drilling riser using guidelines attached to the drilling riser said guidelines extending from the first subsea wellhead to the stationary floating vessel; moving the guidelines to a location of the second subsea well; disconnecting the drilling riser from the first wellhead; lifting the drilling riser together with its tensioner and blowout preventer by an amount sufficient to clear the first wellhead while maintaining the second end of the drilling riser in the vicinity of the seafloor; selectively tensioning the guidelines while moving the first end of the drilling riser in a substantially horizontal direction on the stationary floating vessel such that the first end of the riser is more nearly vertically aligned with the second wellhead; applying selected tension to the guidelines sufficient to align the second end of the drilling riser with the second wellhead; and lowering the drilling riser together with its tensioner and blowout preventer sufficiently to engage the second wellhead.
Method for determining the filling level of shirred casing sticks in a shirred casing stick storage in the sausage production, where, for separating said shirred casing sticks , in said shirred casing sticks storage a row R 1 with a first number of consecutively disposed shirred casing sticks is pushed by a pusher during a first stroke cycle along a sloped plane over a separation edge , and once the last shirred casing stick of said row R 1 has been pushed over said separation edge 20, said pusher moves back along said sloped plane and a row R 2 with a second number of consecutively disposed shirred casing sticks is taken by said pusher and pushed in a further stroke cycle in the direction towards said separation edge , characterized in that a control device determines the filling level of shirred casing sticks in said shirred casing stick storage from the number of shirred casing sticks pushed over said separation edge , wherein the filling level of shirred casing sticks in said shirred casing stick storage is determined in dependence of the number of shirred casing sticks of a row R 1 which are pushed over said separation edge in a stroke cycle before said pusher again moves back i. in said shirred casing sticks storage a row R 1 with a first number of consecutively disposed shirred casing sticks is pushed by a pusher during a first stroke cycle along a sloped plane over a separation edge , and once the last shirred casing stick of said row R 1 has been pushed over said separation edge 20, said pusher moves back along said sloped plane and a row R 2 with a second number of consecutively disposed shirred casing sticks is taken by said pusher and pushed in a further stroke cycle in the direction towards said separation edge , characterized in that a control device determines the filling level of shirred casing sticks in said shirred casing stick storage from the number of shirred casing sticks pushed over said separation edge , wherein the filling level of shirred casing sticks in said shirred casing stick storage is determined in dependence of the number of shirred casing sticks of a row R 1 which are pushed over said separation edge in a stroke cycle before said pusher again moves back i.
An austenitic stainless steel alloy, consisting of, by weight: about 24.0% to about 26.0% chromium; about 14.0% to about 19.0% nickel; about 4.5% to about 5.5% manganese; about 1.2% to about 1.5% niobium; about 1.0% to about 2.0% silicon; about 0.4% to about 0.5% carbon; about 0.2% to about 0.3% nitrogen; about 0.03% or less phosphorus; about 0.03% or less sulphur; wherein the total amount of tungsten and/or molybdenum is less than about 0.3%; wherein the total amount of one or more of aluminum, titanium, vanadium, cobalt, and/or copper, and any combination of two or more thereof is less than about 0.3%; and a balance of iron with inevitable / unavoidable impurities. about 24.0% to about 26.0% chromium; about 14.0% to about 19.0% nickel; about 4.5% to about 5.5% manganese; about 1.2% to about 1.5% niobium; about 1.0% to about 2.0% silicon; about 0.4% to about 0.5% carbon; about 0.2% to about 0.3% nitrogen; about 0.03% or less phosphorus; about 0.03% or less sulphur; wherein the total amount of tungsten and/or molybdenum is less than about 0.3%; wherein the total amount of one or more of aluminum, titanium, vanadium, cobalt, and/or copper, and any combination of two or more thereof is less than about 0.3%; and a balance of iron with inevitable / unavoidable impurities. wherein the total amount of tungsten and/or molybdenum is less than about 0.3%; wherein the total amount of one or more of aluminum, titanium, vanadium, cobalt, and/or copper, and any combination of two or more thereof is less than about 0.3%; and a balance of iron with inevitable / unavoidable impurities.
A composition comprising 4-amino-α,α-dimethyl-2-ethoxymethyl-1H-imidazo[4,5-c]quinolin-1-ethanol (resiquimod), or a pharmaceutically acceptable salt thereof, for use in treating or ameliorating cutaneous T-cell lymphoma (CTCL), wherein the composition is to be administered topically, transdermally, intradermally or intralesionally, wherein the composition comprises about 0.03-0.06% (w/w) of resiquimod .
A composition comprising at least the following: A) an ethylene/α-olefin interpolymer; B) a polypropylene homopolymer; C) a crosslinking agent; and wherein the ethylene/α-olefin interpolymer of component A) has the following properties: i) has a density greater than, or equal to, 0.850 g/cc as measured in accordance with ASTM D-792-08; ii) a molar ratio of "vinyl to total unsaturation" greater than, or equal to, 1/10 as measured by 1H NMR; iii) an 110/12 ratio from 6.2 to 40 wherein 110 refers to a melt index, in g/10 min, measured using ASTM D-1238-10, condition 190°C/10.0 kg and 12 refers to a melt index, in g/10 min, measured using ASTM D-1238-10, condition 190°C/2.16 kg; and wherein the polypropylene homopolymer of component B) has the following properties; i) a density of greater than or equal to 0.855 g/cc and less than or equal to 0.915 g/cc, as measured in accordance with ASTM D-792-08; and ii) a melt flow rate (MFR) from 0.1 to 10 g/10 min, as measured using ASTM D 1238-10 (Condition 230°C/2.16 kg). A) an ethylene/α-olefin interpolymer; B) a polypropylene homopolymer; C) a crosslinking agent; and wherein the ethylene/α-olefin interpolymer of component A) has the following properties: i) has a density greater than, or equal to, 0.850 g/cc as measured in accordance with ASTM D-792-08; ii) a molar ratio of "vinyl to total unsaturation" greater than, or equal to, 1/10 as measured by 1H NMR; iii) an 110/12 ratio from 6.2 to 40 wherein 110 refers to a melt index, in g/10 min, measured using ASTM D-1238-10, condition 190°C/10.0 kg and 12 refers to a melt index, in g/10 min, measured using ASTM D-1238-10, condition 190°C/2.16 kg; and wherein the polypropylene homopolymer of component B) has the following properties; i) a density of greater than or equal to 0.855 g/cc and less than or equal to 0.915 g/cc, as measured in accordance with ASTM D-792-08; and ii) a melt flow rate (MFR) from 0.1 to 10 g/10 min, as measured using ASTM D 1238-10 (Condition 230°C/2.16 kg). i) has a density greater than, or equal to, 0.850 g/cc as measured in accordance with ASTM D-792-08; ii) a molar ratio of "vinyl to total unsaturation" greater than, or equal to, 1/10 as measured by 1H NMR; iii) an 110/12 ratio from 6.2 to 40 wherein 110 refers to a melt index, in g/10 min, measured using ASTM D-1238-10, condition 190°C/10.0 kg and 12 refers to a melt index, in g/10 min, measured using ASTM D-1238-10, condition 190°C/2.16 kg; and wherein the polypropylene homopolymer of component B) has the following properties; i) a density of greater than or equal to 0.855 g/cc and less than or equal to 0.915 g/cc, as measured in accordance with ASTM D-792-08; and ii) a melt flow rate (MFR) from 0.1 to 10 g/10 min, as measured using ASTM D 1238-10 (Condition 230°C/2.16 kg). i) a density of greater than or equal to 0.855 g/cc and less than or equal to 0.915 g/cc, as measured in accordance with ASTM D-792-08; and ii) a melt flow rate (MFR) from 0.1 to 10 g/10 min, as measured using ASTM D 1238-10 (Condition 230°C/2.16 kg).
A surgical laser system comprising: a laser generator , including a first laser source and a second laser source , wherein the first laser source is configured to output a first laser pulse train having first laser pulses , and the second laser source is configured to output a second laser pulse train having second laser pulses ; a beam combiner configured to combine the first and second laser pulse trains and output a combined laser pulse train comprising the first and second laser pulses , wherein the combined laser pulse train has a pulse repetition rate and forms a laser energy ; a stone analyzer configured to determine or assist in determining, one or more characteristics of a targeted kidney or bladder stone , from which a natural frequency of the stone can be estimated and used to determine laser energy settings ; wherein the stone analyzer has an output relating to the one or more characteristics of the kidney or bladder stone ; and a controller comprising at least one processor configured to determine the laser energy settings based on the output from the stone analyzer and to match the pulse repetition rate with the natural frequency. a laser generator , including a first laser source and a second laser source , wherein the first laser source is configured to output a first laser pulse train having first laser pulses , and the second laser source is configured to output a second laser pulse train having second laser pulses ; a beam combiner configured to combine the first and second laser pulse trains and output a combined laser pulse train comprising the first and second laser pulses , wherein the combined laser pulse train has a pulse repetition rate and forms a laser energy ; a stone analyzer configured to determine or assist in determining, one or more characteristics of a targeted kidney or bladder stone , from which a natural frequency of the stone can be estimated and used to determine laser energy settings ; wherein the stone analyzer has an output relating to the one or more characteristics of the kidney or bladder stone ; and a controller comprising at least one processor configured to determine the laser energy settings based on the output from the stone analyzer and to match the pulse repetition rate with the natural frequency.
Instrument, characterised in that it comprises a piezoelectric sensor including a body with a central cavity , a membrane extending over the cavity , attached to the body via the periphery thereof and including a carrier layer made of polymer and a sensitive layer made of piezoelectric polymer material, the membrane being capable of deforming or vibrating, the sensitive layer being made of a material comprising a polymer filled with inorganic alumina nanomaterials, the polymer of the sensitive layer being selected from the group comprising polyvinylidene fluoride (PVDF), vinylidene fluoride and trifluoroethylene copolymer P(VDF-TrFE) and polyamide-11, the carrier layer being made of a material selected from the group comprising polyimide (PI) and polyether ether ketone (PEEK), a first conductive layer made of aluminium being interposed between the carrier layer and the sensitive layer , a second conductive layer being deposited on a portion of a free surface of the sensitive layer , the instrument further including a transmission rod , a first end whereof is intended to be applied against a mass that is capable of vibrating and a second end whereof bears against the membrane of the sensor .
A method for producing an artificial turf fiber , the method comprising: - preparing a liquid core polymer mixture , the core polymer mixture comprising a core polymer and a thread polymer forming beads within the core polymer ; - coextruding the liquid core polymer mixture with a liquid cladding polymer component into a monofilament , the liquid core polymer mixture forming a cylindrical core , the liquid cladding polymer component forming a cladding encompassing the core , the cladding having a non-circular profile; - quenching the monofilament ; - reheating the quenched monofilament ; - stretching the reheated monofilament to deform the beads into threadlike regions ; and - providing one or more of the stretched monofilaments as the artificial turf fiber . - preparing a liquid core polymer mixture , the core polymer mixture comprising a core polymer and a thread polymer forming beads within the core polymer ; - coextruding the liquid core polymer mixture with a liquid cladding polymer component into a monofilament , the liquid core polymer mixture forming a cylindrical core , the liquid cladding polymer component forming a cladding encompassing the core , the cladding having a non-circular profile; - quenching the monofilament ; - reheating the quenched monofilament ; - stretching the reheated monofilament to deform the beads into threadlike regions ; and - providing one or more of the stretched monofilaments as the artificial turf fiber .
A method for providing single-stranded RNA (ssRNA), comprising: (i) producing an RNA preparation comprising ssRNA by in vitro transcription; (ii) contacting the RNA preparation with a cellulose material under conditions which allow binding of double-stranded RNA (dsRNA) to the cellulose material and do not allow binding of ssRNA to the cellulose material; and (iii) separating the ssRNA from the cellulose material under conditions which allow binding of dsRNA to the cellulose material and do not allow binding of ssRNA to the cellulose material, wherein in step (ii) the RNA preparation is provided as a liquid comprising ssRNA and a first buffer and/or the cellulose material is provided as a suspension in a first buffer, wherein the first buffer comprises water, ethanol and a salt in a concentration which allows binding of dsRNA to the cellulose material and which does not allow binding of ssRNA to the cellulose material; and the concentration of ethanol in the first buffer is 14 to 20% (v/v) and the concentration of the salt in the first buffer is 15 to 70 mM. (i) producing an RNA preparation comprising ssRNA by in vitro transcription; (ii) contacting the RNA preparation with a cellulose material under conditions which allow binding of double-stranded RNA (dsRNA) to the cellulose material and do not allow binding of ssRNA to the cellulose material; and (iii) separating the ssRNA from the cellulose material under conditions which allow binding of dsRNA to the cellulose material and do not allow binding of ssRNA to the cellulose material, wherein in step (ii) the RNA preparation is provided as a liquid comprising ssRNA and a first buffer and/or the cellulose material is provided as a suspension in a first buffer, wherein the first buffer comprises water, ethanol and a salt in a concentration which allows binding of dsRNA to the cellulose material and which does not allow binding of ssRNA to the cellulose material; and the concentration of ethanol in the first buffer is 14 to 20% (v/v) and the concentration of the salt in the first buffer is 15 to 70 mM.
An eye treatment device arranged for removing debris from margin of the eyelid and/or for massaging the meibomian glands, said eye treatment device comprises a swab operatively connected to a housing that accommodates a drive unit , said drive unit being arranged for moving the swab relative to said housing , and wherein said eye treatment device comprises heating means arranged for heating the swab , characterized in that - the moving of the swab relative to said housing is a rotating movement, - the swab is made of cotton wadding or sponge material, - said swab is arranged for absorbing a treatment liquid, and - wherein said swab is arranged for being releasably attached to the housing , or to an extension member arranged for coupling the swab to the housing . - the moving of the swab relative to said housing is a rotating movement, - the swab is made of cotton wadding or sponge material, - said swab is arranged for absorbing a treatment liquid, and - wherein said swab is arranged for being releasably attached to the housing , or to an extension member arranged for coupling the swab to the housing .
A pressure sensor having a sensor body (2, 20; 2', 20; 2", 20') with a diaphragm (20; 20'), the sensor body (2, 20; 2', 20; 2", 20') and the diaphragm (20; 20') being at least partly formed with an electrically insulating material, particularly a ceramic material, and defining a cavity (3; 3'), the diaphragm (20; 20') at least partly facing said cavity (3; 3') and having thereon at least part of a detection element configured for detecting a bending or deformation of the diaphragm (20; 20'), wherein the sensor body (2, 20; 2', 20; 2", 20') supports a circuit arrangement , in signal communication with the detection element and comprising a plurality of circuit components , among which an integrated circuit , the circuit arrangement being prearranged for treating a signal generated by the detection element , characterized in that - the said integrated circuit consists of a die made of a semiconductor material ; - the circuit arrangement includes an electric circuit pattern comprising a plurality of tracks made of electrically conductive material directly deposited onto a first surface of the sensor body (2, 20; 2', 20; 2", 20') that is made of electrically insulating material, said tracks being organized such that a region of said first surface is directly exposed for the mechanical bonding, particularly through glue-bonding or resin-bonding, of the said die ; - the die is directly bonded to said first surface, at said region, i.e., a zone not occupied by said tracks ; - said die is connected to respective said tracks by wire bonding, i.e., by means of thin flexible connecting wires , made of an electrically conductive material. - the said integrated circuit consists of a die made of a semiconductor material ; - the circuit arrangement includes an electric circuit pattern comprising a plurality of tracks made of electrically conductive material directly deposited onto a first surface of the sensor body (2, 20; 2', 20; 2", 20') that is made of electrically insulating material, said tracks being organized such that a region of said first surface is directly exposed for the mechanical bonding, particularly through glue-bonding or resin-bonding, of the said die ; - the die is directly bonded to said first surface, at said region, i.e., a zone not occupied by said tracks ; - said die is connected to respective said tracks by wire bonding, i.e., by means of thin flexible connecting wires , made of an electrically conductive material.