mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a cold-rolled and annealed steel sheet comprising the following steps : - feeding a slab which composition comprising by weight: 0.6 < C < 1.3%, 18 ≤ Mn < 30% 7 ≤ Al < 12%, Si ≤ 2.0 % S ≤ 0.015%, P ≤ 0.1%, N ≤ 0.1%, possibly one or more optional elements chosen among Ni, Cr and Cu in an individual amount of up to 3% and possibly one or more elements chosen among B, Ta, Zr, Nb, V, Ti, Mo, and W in a cumulated amount of up to 2.0%, the remainder of the composition being iron and inevitable impurities resulting from the elaboration, - reheating such slab at a temperature above 1000°C and hot rolling it with a final rolling temperature of at least 800°C, - coiling the hot rolled steel sheet at a temperature below 600 °C, - cold-rolling such hot rolled steel sheet at a reduction comprised between 30 and 80%, - first annealing of such cold rolled sheet by heating it up to an annealing temperature comprised between 700 and 1000°C, holding it at such temperature during less than 5 minutes and cooling it at a rate of at least 30°C/s, - second annealing of such annealed sheet by heating it up to an annealing temperature comprised between 400 and 700°C, holding it at such temperature between 2 and 10 hours and cooling it at a rate of at least 30°C/s. - feeding a slab which composition comprising by weight: 0.6 < C < 1.3%, 18 ≤ Mn < 30% 7 ≤ Al < 12%, Si ≤ 2.0 % S ≤ 0.015%, P ≤ 0.1%, N ≤ 0.1%, possibly one or more optional elements chosen among Ni, Cr and Cu in an individual amount of up to 3% and possibly one or more elements chosen among B, Ta, Zr, Nb, V, Ti, Mo, and W in a cumulated amount of up to 2.0%, the remainder of the composition being iron and inevitable impurities resulting from the elaboration, 0.6 < C < 1.3%, 18 ≤ Mn < 30% 7 ≤ Al < 12%, Si ≤ 2.0 % S ≤ 0.015%, P ≤ 0.1%, N ≤ 0.1%, - reheating such slab at a temperature above 1000°C and hot rolling it with a final rolling temperature of at least 800°C, - coiling the hot rolled steel sheet at a temperature below 600 °C, - cold-rolling such hot rolled steel sheet at a reduction comprised between 30 and 80%, - first annealing of such cold rolled sheet by heating it up to an annealing temperature comprised between 700 and 1000°C, holding it at such temperature during less than 5 minutes and cooling it at a rate of at least 30°C/s, - second annealing of such annealed sheet by heating it up to an annealing temperature comprised between 400 and 700°C, holding it at such temperature between 2 and 10 hours and cooling it at a rate of at least 30°C/s.
An electrode comprising: an active material-containing layer which includes an active material containing primary particles (PP) of a composite oxide and a first conductive agent containing fibrous carbon (FC) and a second conductive agent containing granular carbon, the composite oxide being represented by the formula Li a Ti 1-x M1 x Nb 2-y M2 y O 7-δ (0 ≤ a < 5, 0 ≤ x < 1, 0 ≤ y < 1, each of element M1 and element M2 is at least one element selected from the group consisting of Fe, Ni, W, Ta, and Mo, and the element M1 and the element M2 may be the same or may be elements different from each other), wherein the primary particles have an average particle size of 0.3 um or more and 2 μm or less, the average particle size of the primary particles being obtained by a scanning electron microscopic image of a section of the active material-containing layer at a magnification of 10000, and at least a part of a surface of the primary particles is coated with the fibrous carbon and a covering ratio of the primary particles by the fibrous carbon is 1% or more and 30% or less, the covering ratio being obtained by a scanning electron microscopic image of a section of the active material-containing layer at a magnification of 50000. wherein the primary particles have an average particle size of 0.3 um or more and 2 μm or less, the average particle size of the primary particles being obtained by a scanning electron microscopic image of a section of the active material-containing layer at a magnification of 10000, and at least a part of a surface of the primary particles is coated with the fibrous carbon and a covering ratio of the primary particles by the fibrous carbon is 1% or more and 30% or less, the covering ratio being obtained by a scanning electron microscopic image of a section of the active material-containing layer at a magnification of 50000.
A dimeric protein comprising two recombinant chimeric P-Selectin Glycoprotein Ligand-1 (PSGL-1) proteins, wherein the monomeric recombinant chimeric PSGL-1 protein comprises at least: a selectin Binding domain able to specifically bind a selectin protein and comprising at least aa 5-16 of SEQIDNO:11 (mature PSGL-1 sequence), a leucine zipper domain able to form a right-handed α helix thus promoting dimerization through protein-protein interaction and comprising an amino acid sequence at least 90% homologous or identical to aa 187-208 of SEQIDNO:12 (Neural Retina-specific Leucine Zipper) and a disulfide bonds promoting region comprising at least one cysteine available to form a disulfide bond with another cysteine in a monomeric chimeric protein counterpart, so that the two chimeric protein monomers are covalently linked to each other by at least a disulfide bond.
Reinforced product, used in particular for the reinforcing of a finished rubber article, comprising one or more textile or metal reinforcing threads, said thread or threads being covered with a sheath comprising a thermoplastic polymer composition, the sheathed thread(s) being themselves embedded in a rubber composition termed coating rubber, characterized in that this coating rubber is a composition based on at least one diene elastomer, a reinforcing filler and a polysulfide compound of general formula (I) wherein: n is a number greater than or equal to 2, Z represents an oxygen atom or the group -N(H)-, and R 1 and R 2 each represent a linear or branched divalent hydrocarbon group containing 1 to 18 carbon atoms. n is a number greater than or equal to 2, Z represents an oxygen atom or the group -N(H)-, and R 1 and R 2 each represent a linear or branched divalent hydrocarbon group containing 1 to 18 carbon atoms.
A method of manufacturing a packboard for an aircraft, the method comprising: coupling a head of a metal stud that is electrically conductive to a metal sheet that is electrically conductive such that the metal stud is in electrical contact with the metal sheet and the head of the metal stud is substantially flush with a first surface of the metal sheet; laying plies of electrically nonconductive material across a second surface, opposite the first surface, of the metal sheet, wherein laying the plies comprises: molding the plies to shape a packboard housing form having an inboard surface and an outboard surface , the second surface of the metal sheet extending across a minority portion, being less than half, of the outboard surface of the packboard housing form; and extending the metal stud completely through the plies; coupling a metal mesh that is electrically conductive across the first surface of the metal sheet and across a majority portion, being more than half, of the outboard surface of the packboard housing form, wherein the metal mesh is in electrical contact with the first surface of the metal sheet; and curing the plies to set the packboard housing form. coupling a head of a metal stud that is electrically conductive to a metal sheet that is electrically conductive such that the metal stud is in electrical contact with the metal sheet and the head of the metal stud is substantially flush with a first surface of the metal sheet; laying plies of electrically nonconductive material across a second surface, opposite the first surface, of the metal sheet, wherein laying the plies comprises: molding the plies to shape a packboard housing form having an inboard surface and an outboard surface , the second surface of the metal sheet extending across a minority portion, being less than half, of the outboard surface of the packboard housing form; and extending the metal stud completely through the plies; molding the plies to shape a packboard housing form having an inboard surface and an outboard surface , the second surface of the metal sheet extending across a minority portion, being less than half, of the outboard surface of the packboard housing form; and extending the metal stud completely through the plies; coupling a metal mesh that is electrically conductive across the first surface of the metal sheet and across a majority portion, being more than half, of the outboard surface of the packboard housing form, wherein the metal mesh is in electrical contact with the first surface of the metal sheet; and curing the plies to set the packboard housing form.
A biopsy cap (30; 40) for use with an endoscopic instrument , the biopsy cap (30; 40) comprising: a base having a securing member for securing the biopsy cap (30; 40) to a port on the endoscopic instrument ; an outer shell securable to the base and defining an interior volume ; a disk shutter section disposed within the interior volume and including a plurality of fins (100a, 100b, 100c; 100) arranged in a helical fashion; characterised in that the biopsy cap (30; 40) further comprises a brush section (46; 90) disposed within the interior volume adjacent the disk shutter section , the brush section (46; 90) including a plurality of brushes (70a, 70b, 70c; 84a, 84b, 84c, 84d) arranged in a helical fashion. a base having a securing member for securing the biopsy cap (30; 40) to a port on the endoscopic instrument ; an outer shell securable to the base and defining an interior volume ; a disk shutter section disposed within the interior volume and including a plurality of fins (100a, 100b, 100c; 100) arranged in a helical fashion; characterised in that the biopsy cap (30; 40) further comprises a brush section (46; 90) disposed within the interior volume adjacent the disk shutter section , the brush section (46; 90) including a plurality of brushes (70a, 70b, 70c; 84a, 84b, 84c, 84d) arranged in a helical fashion.
A circuit for generating a DC voltage supply from a higher voltage AC signal, comprising: an input for receiving the higher voltage AC signal, the input further being the input to a resonant tank of a resonant switch mode power converter; a first capacitor (C1) in series between the input and a first node (N1); a first diode (D1) in forward direction between the first node and a DC voltage supply node (Nout); a second capacitor (C2) between the DC voltage supply node (Nout) and a reference terminal; a third capacitor (C3) between the first node (N1) and a second node (N2); a second diode (D2) in forward direction between the reference terminal and the first node (N1); a controllable voltage supply arranged to provide a voltage to the third capacitor (C3) via a third diode (D3); and a fourth diode (D4) between the second node (N2) and the reference terminal, a diode arrangement comprising the third diode (D3) and the fourth diode (D4) in series across the controllable voltage supply , with the junction between the third and fourth diodes (D3, D4) defining the second node (N2). an input for receiving the higher voltage AC signal, the input further being the input to a resonant tank of a resonant switch mode power converter; a first capacitor (C1) in series between the input and a first node (N1); a first diode (D1) in forward direction between the first node and a DC voltage supply node (Nout); a second capacitor (C2) between the DC voltage supply node (Nout) and a reference terminal; a third capacitor (C3) between the first node (N1) and a second node (N2); a second diode (D2) in forward direction between the reference terminal and the first node (N1); a controllable voltage supply arranged to provide a voltage to the third capacitor (C3) via a third diode (D3); and a fourth diode (D4) between the second node (N2) and the reference terminal, a diode arrangement comprising the third diode (D3) and the fourth diode (D4) in series across the controllable voltage supply , with the junction between the third and fourth diodes (D3, D4) defining the second node (N2).
A wireless information communication terminal (B) comprising a component for outputting a first piece of information , a first receiver (B1) of the ultra-wide band type capable of receiving a first signal (S1) containing first data (D1) along a determined first wireless communication channel of the ultra-wide band type, a control unit for generating the first piece of information to be sent to the outputting component depending on the first data (D1) received by the first receiver (B1), the terminal (B) further comprising at least one second emitter (B2) capable of emitting a second signal (S2) along a determined second wireless communication channel of the ultra-wide band type, the control unit being configured to bring about the emission of the second signal (S2) by the second emitter (B2) in response to the first receiver (B1) receiving the first signal (S1), characterized in that the terminal (B) further comprises a third receiver (B3) for receiving (S3) along a third wireless communication channel a third trigger signal, the control unit being configured to activate, in response to the third receiver (B3) receiving the third trigger signal (S3), for a predetermined period of time the first receiver (B1) of the ultra-wide band type so as to make said first receiver receive the first signal (S1) containing first data (D1) along the determined first wireless communication channel of the ultra-wide band type, the third communication channel being different from the first communication channel at least in that the third receiver (B3) has, over the same activation period, lower energy consumption than that of the first receiver (B1).
A composition comprising an epoxy resin of formula (I): and a mixture of two diamine curing agents comprising a first diamine curing agent selected from the group consisting of formulas (II), (XVI)-(XVIII) and (XXIII)-(XXV): and combinations thereof; and a second diamine curing agent selected from the group consisting of the formulas (III)-(XV) and (XIX)-(XXII): and combinations thereof; wherein the mixture of diamine curing agents includes 90% (wt) of the first diamine curing agent and 10% (wt) of the second diamine curing agent. an epoxy resin of formula (I): and a mixture of two diamine curing agents comprising a first diamine curing agent selected from the group consisting of formulas (II), (XVI)-(XVIII) and (XXIII)-(XXV): and combinations thereof; and a second diamine curing agent selected from the group consisting of the formulas (III)-(XV) and (XIX)-(XXII): and combinations thereof; wherein the mixture of diamine curing agents includes 90% (wt) of the first diamine curing agent and 10% (wt) of the second diamine curing agent.
System for configuring a management system for a parking area , wherein the system comprises the following: - a movable platform for scanning the parking area ; - a navigation device for determining a position of the platform in the parking area ; - a vehicle sensor of the management system , wherein the vehicle sensor is configured to detect when a motor vehicle approaches; - wherein the platform is configured to be detected by the vehicle sensor as a motor vehicle ; and - a control device which is configured to control the platform to scan the parking area and to assign the position of the vehicle sensor detecting the approach to a position of the platform . - a movable platform for scanning the parking area ; - a navigation device for determining a position of the platform in the parking area ; - a vehicle sensor of the management system , wherein the vehicle sensor is configured to detect when a motor vehicle approaches; - wherein the platform is configured to be detected by the vehicle sensor as a motor vehicle ; and - a control device which is configured to control the platform to scan the parking area and to assign the position of the vehicle sensor detecting the approach to a position of the platform .
A fluid-transfer article comprising a first region for holding an aerosol precursor and for transferring said aerosol precursor to a second region of said fluid-transfer article , said second region comprising a first part , said first part being adjacent said first region and having a plurality of holes therein, and a second part adjacent to said first part and extending across said plurality of holes in said first part; wherein said second part of said second region has at least one recess therein for opening towards a heater of an aerosol generation apparatus, said at least one recess being configured to form at least one gap between said activation surface and said heater , said at least one gap forming at least one air-flow pathway along said activation surface ; characterized in that said second part of said second region is porous for passage there-through of said aerosol precursor from said plurality of holes to an activation surface of said second region for thermal interaction with said heater . wherein said second part of said second region has at least one recess therein for opening towards a heater of an aerosol generation apparatus, said at least one recess being configured to form at least one gap between said activation surface and said heater , said at least one gap forming at least one air-flow pathway along said activation surface ; characterized in that said second part of said second region is porous for passage there-through of said aerosol precursor from said plurality of holes to an activation surface of said second region for thermal interaction with said heater .
An energy storage device configured to power a starter motor of an internal combustion engine for outdoor power equipment , wherein the internal combustion engine comprises a brake, said energy storage device comprising: a battery ; a control circuit , the control circuit _configured to operate the starter motor of the internal combustion engine , wherein the control circuit is configured to: start the internal combustion engine via the starter motor when the brake is released; prevent activation of the starter motor when the brake is engaged; and deactivate the motor when the internal combustion engine is running at or above a predetermined threshold speed; characterised in that a housing configured to be removably coupled to the internal combustion engine , wherein the battery and the control circuit are located within the housing. a battery ; a control circuit , the control circuit _configured to operate the starter motor of the internal combustion engine , wherein the control circuit is configured to: start the internal combustion engine via the starter motor when the brake is released; prevent activation of the starter motor when the brake is engaged; and deactivate the motor when the internal combustion engine is running at or above a predetermined threshold speed; characterised in that start the internal combustion engine via the starter motor when the brake is released; prevent activation of the starter motor when the brake is engaged; and deactivate the motor when the internal combustion engine is running at or above a predetermined threshold speed; characterised in that a housing configured to be removably coupled to the internal combustion engine , wherein the battery and the control circuit are located within the housing.
Braking system for dispensing unit for espresso coffee machines, said dispensing unit being equipped with a lever which moves around a centre of rotation (F) from a start position/raised lever to an end position/lowered lever , said lever having a first free end equipped with a handle and a second end fastened to a cylindrical body by means of a fork , said cylindrical body containing within it elastic means of the spring type, said braking system being made up of a pair of levers each consisting of a pair of longitudinal elements said pair of levers being associated with at least one damper piston and associated with the outer surface of the cylindrical body of the dispensing unit , said braking system characterised in that each pair of levers consists of a first longitudinal element and a second longitudinal element , said first longitudinal element being shorter than the second longitudinal element so as to constitute a short lever and a long lever , said short lever and long lever being connected respectively to four fulcrums (A,B,C,D) wherein the first fulcrum (A) is fixed and hinged to a end of the long lever , the second fulcrum (B) is movable and hinged to the end of the long lever which is opposite the end to which the first fulcrum (A) is hinged said second fulcrum (B) being hinged to an end of the short lever , the third fulcrum (C) is movable and hinged to the end of the short lever which is opposite the end to which the second fulcrum (B) is hinged, the fourth fulcrum (D) is fixed and hinged to the lower end of the at least one damper piston . long lever being connected respectively to four fulcrums (A,B,C,D) wherein the first fulcrum (A) is fixed and hinged to a end of the long lever , the second fulcrum (B) is movable and hinged to the end of the long lever which is opposite the end to which the first fulcrum (A) is hinged said second fulcrum (B) being hinged to an end of the short lever , the third fulcrum (C) is movable and hinged to the end of the short lever which is opposite the end to which the second fulcrum (B) is hinged, the fourth fulcrum (D) is fixed and hinged to the lower end of the at least one damper piston .
A containerized data center modular rack system configured to mount electronic equipment, comprising: a container structure with a floor and a ceiling configured to house a modular rack system, a plurality of bottom anchor assemblies disposed in the floor of the container structure , a plurality of top anchor assemblies disposed in the ceiling of the container structure , and a plurality of modular supports each having an upper end configured to be removably secured to one of the plurality of top anchor assemblies disposed in the ceiling of the container structure , wherein each of the plurality of modular supports is extendable and retractable to achieve a desired height and has a lower end configured to be removably secured to one of the plurality of bottom anchor assemblies disposed in the floor of the container structure , and a plurality of openings configured to mount electronic equipment, wherein the plurality of modular supports are arranged in the container structure to form an equipment rack and the configurability of the modular rack system allows the supported electronic equipment to be mounted in configurations specific to the application. a container structure with a floor and a ceiling configured to house a modular rack system, a plurality of bottom anchor assemblies disposed in the floor of the container structure , a plurality of top anchor assemblies disposed in the ceiling of the container structure , and a plurality of modular supports each having an upper end configured to be removably secured to one of the plurality of top anchor assemblies disposed in the ceiling of the container structure , wherein each of the plurality of modular supports is extendable and retractable to achieve a desired height and has a lower end configured to be removably secured to one of the plurality of bottom anchor assemblies disposed in the floor of the container structure , and a plurality of openings configured to mount electronic equipment, wherein the plurality of modular supports are arranged in the container structure to form an equipment rack and the configurability of the modular rack system allows the supported electronic equipment to be mounted in configurations specific to the application.