mhurhangee/patent-ind-claim-en huggingface dataset:
Isochronous timepiece oscillator mechanism with coupled oscillators, formed solely by a first oscillator comprising a first elastic return means attached, on the one hand, to a fixed structure at the level of at least one first anchoring and, on the other hand, to a first wheel set pivoting about a first axis (D1), and by a second oscillator comprising a second elastic return means attached to a second wheel set , whereby said first oscillator and said second oscillator are coupled to one another, by a mechanical link by said second elastic return means which is attached to said first wheel set , whereby said first oscillator is of the sprung balance type, and whereby said first elastic return means is a first balance spring attached to said fixed structure by a first stud constituting said first anchoring , whereby said second oscillator is of the sprung balance type and whereby said second elastic return means is a second balance spring attached to said second wheel set , said second balance spring being attached, on the one hand to the felloe or to an arm of said first wheel set in a second stud , and on the other hand to said second wheel set which pivots about a second axis (D2), the maintenance of the oscillation of said oscillator mechanism being carried out on only one of either said first wheel set or said second wheel set .
An inner cowl of a gas turbine engine , characterised by the inner cowl comprising: an inlet for a secondary flow system disposed on the inner cowl, the inlet in fluid communication with a bypass flow path (B); and an external turning vane disposed upstream from the inlet , the external turning vane comprising a vane body extending radially from the inner cowl and disposed upstream from the inlet of the secondary flow system , the vane body configured to turn an airflow in the bypass flow path (B) towards an axial direction and to introduce higher momentum flow of a vortex into the inlet to minimize flow separation on a sidewall of the inlet . an inlet for a secondary flow system disposed on the inner cowl, the inlet in fluid communication with a bypass flow path (B); and an external turning vane disposed upstream from the inlet , the external turning vane comprising a vane body extending radially from the inner cowl and disposed upstream from the inlet of the secondary flow system , the vane body configured to turn an airflow in the bypass flow path (B) towards an axial direction and to introduce higher momentum flow of a vortex into the inlet to minimize flow separation on a sidewall of the inlet .
Apparatus for treating laundry comprising a base from which extends at least one pole intended to support clothing to be ironed and/or smoothed, said base comprising an upper shell returned onto a lower shell , the lower shell comprising a cavity receiving a ballast intended to increase the stability of the base , characterised in that the lower shell comprises a guiding column wherein said pole is inserted.
A gastric residual volume system comprising: a feeding container connected to administration tubing ; relief tubing ; a delivery tube in fluid communication with the administration tubing and the relief tubing ; a multi-way connector having a first arm, a second arm, and a third arm, wherein the first arm is connected to the relief tubing , the second arm is connected to the delivery tube , and the third arm is connected to the administration tubing ; a collection reservoir in fluid communication with the relief tubing , wherein the collection reservoir includes a vent configured to allow gas to pass through in both directions, the collection reservoir is configured to collect reflux fluids from a patient's stomach via the relief tubing , and the collection reservoir comprises volumetric indicia configured to represent a volume of reflux fluids received from the patient's stomach; characterized in that the system further comprises a gastric residual volume measurement apparatus interconnected to the relief tubing between the collection reservoir and the multi-way connector . a feeding container connected to administration tubing ; relief tubing ; a delivery tube in fluid communication with the administration tubing and the relief tubing ; a multi-way connector having a first arm, a second arm, and a third arm, wherein the first arm is connected to the relief tubing , the second arm is connected to the delivery tube , and the third arm is connected to the administration tubing ; the first arm is connected to the relief tubing , the second arm is connected to the delivery tube , and the third arm is connected to the administration tubing ; a collection reservoir in fluid communication with the relief tubing , wherein the collection reservoir includes a vent configured to allow gas to pass through in both directions, the collection reservoir is configured to collect reflux fluids from a patient's stomach via the relief tubing , and the collection reservoir comprises volumetric indicia configured to represent a volume of reflux fluids received from the patient's stomach; characterized in that the system further comprises a gastric residual volume measurement apparatus interconnected to the relief tubing between the collection reservoir and the multi-way connector .
A method for screening alpha-amylases having high wash performance at low temperature, wherein the alpha-amylases have at least 85% sequence identity to SEQ ID NO: 2; and comprises the steps of a) determining the binding of the alpha-amylases to solid or immobilized starch; b) selecting alpha-amylases having a low binding to starch; wherein the alpha-amylases have less than 90% of the binding to starch than the alpha-amylase having SEQ ID NO: 2. a) determining the binding of the alpha-amylases to solid or immobilized starch; b) selecting alpha-amylases having a low binding to starch;
A pneumatic tire having a carcass , a tread , a bead , a shoulder , a sidewall , and which defines a first cavity for receiving pressurised air, characterized in that the tire comprises a plurality of hydraulic tire stiffening lines , each hydraulic tire stiffening line defining a second cavity within the first cavity for receiving a hydraulic fluid and wherein the rigidity of the hydraulic tire stiffening line is dependent on the fluid pressure within the second cavity, each hydraulic tire stiffening line being aligned in an approximately transverse direction in regards to the periphery of the tire , the hydraulic tire stiffening lines being spaced apart in a circumferential direction of the tire and fluidly connectable to a pressurized hydraulic fluid supply system on a machine to which the tire is fitted through at least one supply line operatively connectable to such a pressurized hydraulic fluid supply system , the arrangement configured such that, in use, adjusting the hydraulic fluid pressure in the hydraulic tire stiffening lines is operative to adjust the stiffness of the tire .
A shunt resistor module, comprising: a shunt resistor ; and a printed circuit board (PCB) substrate configured so that the shunt resistor is directly fixed thereto, wherein the shunt resistor includes: a resistor unit having a predetermined resistance; plate-shaped terminal units respectively configured to extend at both sides of the resistor unit; and a voltage measurement lead pin configured to protrude perpendicular to the terminal unit and having an end portion bent to be parallel to the terminal unit, characterised in that the PCB substrate includes an assembly guide portion formed to be cut inward by a predetermined depth from an outermost side thereof to have a cut width corresponding to a thickness of the voltage measurement lead pin, and wherein the voltage measurement lead pin is fit into the assembly guide portion so that the resistor unit and the terminal unit are placed on a front surface of the PCB substrate and the end portion of the voltage measurement lead pin is caught at a rear surface of the PCB substrate. a shunt resistor ; and a printed circuit board (PCB) substrate configured so that the shunt resistor is directly fixed thereto, wherein the shunt resistor includes: a resistor unit having a predetermined resistance; plate-shaped terminal units respectively configured to extend at both sides of the resistor unit; and a voltage measurement lead pin configured to protrude perpendicular to the terminal unit and having an end portion bent to be parallel to the terminal unit, a resistor unit having a predetermined resistance; plate-shaped terminal units respectively configured to extend at both sides of the resistor unit; and a voltage measurement lead pin configured to protrude perpendicular to the terminal unit and having an end portion bent to be parallel to the terminal unit, characterised in that the PCB substrate includes an assembly guide portion formed to be cut inward by a predetermined depth from an outermost side thereof to have a cut width corresponding to a thickness of the voltage measurement lead pin, and wherein the voltage measurement lead pin is fit into the assembly guide portion so that the resistor unit and the terminal unit are placed on a front surface of the PCB substrate and the end portion of the voltage measurement lead pin is caught at a rear surface of the PCB substrate.
A method of providing a predetermined caller identification, ID, comprising: receiving, at a server , a first audio call from a first device via a public switched telephone network, PSTN, , the first device having a first caller ID corresponding to a first telephone number; receiving, at the server , data from the first device via a channel different from the PSTN, wherein the data includes the predetermined caller ID; connecting, by the server , the first device and a first destination device via a second audio call; and providing, by the server and to the first destination device , the predetermined caller ID that differs from the first caller ID. receiving, at a server , a first audio call from a first device via a public switched telephone network, PSTN, , the first device having a first caller ID corresponding to a first telephone number; receiving, at the server , data from the first device via a channel different from the PSTN, wherein the data includes the predetermined caller ID; connecting, by the server , the first device and a first destination device via a second audio call; and providing, by the server and to the first destination device , the predetermined caller ID that differs from the first caller ID.
A method for manufacturing a semiconductor device, the method comprising: a providing step of providing a semiconductor wafer having a front surface including a front surface shape that is formed by a surface structure including a mark , which is formed on the front surface of the semiconductor wafer , for positioning the semiconductor wafer ; an attachment step of attaching a supporting substrate to the front surface of the semiconductor wafer using an adhesive , wherein the supporting substrate and the adhesive have such transparency that the front surface of the semiconductor wafer is seen; an applying step of applying a resist onto the rear surface of a semiconductor wafer ; a photomask fixing step of fixing a position of a photomask above a stage so as to be aligned with a position of a camera below the stage ; a mounting step of mounting the semiconductor wafer on the stage, with the supporting substrate down; a positioning step of detecting the mark with the camera and positioning the semiconductor wafer on the basis of the mark so as to be aligned with the position of the camera , so that the semiconductor wafer and the photomask are aligned with each other; a patterning step of patterning the resist through the photomask in alignment with said surface structure; and a forming step of forming a circuit pattern in the rear surface of a semiconductor wafer using the patterned resist as a mask. a providing step of providing a semiconductor wafer having a front surface including a front surface shape that is formed by a surface structure including a mark , which is formed on the front surface of the semiconductor wafer , for positioning the semiconductor wafer ; an attachment step of attaching a supporting substrate to the front surface of the semiconductor wafer using an adhesive , wherein the supporting substrate and the adhesive have such transparency that the front surface of the semiconductor wafer is seen; an applying step of applying a resist onto the rear surface of a semiconductor wafer ; a photomask fixing step of fixing a position of a photomask above a stage so as to be aligned with a position of a camera below the stage ; a mounting step of mounting the semiconductor wafer on the stage, with the supporting substrate down; a positioning step of detecting the mark with the camera and positioning the semiconductor wafer on the basis of the mark so as to be aligned with the position of the camera , so that the semiconductor wafer and the photomask are aligned with each other; a patterning step of patterning the resist through the photomask in alignment with said surface structure; and a forming step of forming a circuit pattern in the rear surface of a semiconductor wafer using the patterned resist as a mask.
Method for deforming an orthodontic wire of a shape memory material into a target geometry for fitting into a patient-specific orthodontic apparatus comprising the following steps: a. creating a patient-specific target setup of the patient's upper or lower jaw, b. arranging brackets on teeth to be treated in the target setup, c. preparing a two-dimensional image of the target setup with brackets in the plan view, d. loading the image into a data processing system, e. identifying the position of the slots of the brackets in the image, f. exporting data of the position of the slots from the data processing system, g. producing a baking mold from a metal plate for the shape memory wire, wherein wire fixing sections , which hold the wire in the areas corresponding to the slots during baking, are generated in the baking mold by means of the data, h. inserting the wire into the baking mold and i. baking the wire; wherein in step g), the wire fixing sections for the wire are milled into the metal plate and a free space, in which the wire is not held, is milled between adjacent wire fixing sections, and wherein the bottoms of the wire fixing sections and the bottoms of the free spaces are milled to the same height, whereby the wire can be inserted flatly into the baking mold. a. creating a patient-specific target setup of the patient's upper or lower jaw, b. arranging brackets on teeth to be treated in the target setup, c. preparing a two-dimensional image of the target setup with brackets in the plan view, d. loading the image into a data processing system, e. identifying the position of the slots of the brackets in the image, f. exporting data of the position of the slots from the data processing system, g. producing a baking mold from a metal plate for the shape memory wire, wherein wire fixing sections , which hold the wire in the areas corresponding to the slots during baking, are generated in the baking mold by means of the data, h. inserting the wire into the baking mold and i. baking the wire; wherein in step g), the wire fixing sections for the wire are milled into the metal plate and a free space, in which the wire is not held, is milled between adjacent wire fixing sections, and wherein the bottoms of the wire fixing sections and the bottoms of the free spaces are milled to the same height, whereby the wire can be inserted flatly into the baking mold.
Hydraulic servo-actuated valve comprising a valve body , an actuator and a lid - the valve body comprising an inlet duct , an outlet duct , a main opening arranged on the valve body between the inlet duct and the outlet duct ; - the actuator being arranged at the main opening ; - the lid , together with the actuator , delimiting an actuating chamber ; said actuator being adapted to perform an actuating movement between an open position, allowing the flow between the inlet duct and the outlet duct , and a closed position, preventing the flow between the inlet duct and the outlet duct , said valve being adapted to connect a two-way operating member that is adapted to control the opening and closing of the connection between the actuating chamber and the outlet duct , said valve comprising a removable filter holder arranged on the inlet duct , and a filter arranged on the filter holder , the filter penetrating into the inlet duct in self-cleaning position, said filter holder comprising a labyrinth dissipator , characterized in that said filter holder comprises a knob comprising a housing adapted to accommodate the labyrinth dissipator , said knob being separable from the labyrinth dissipator . - the valve body comprising an inlet duct , an outlet duct , a main opening arranged on the valve body between the inlet duct and the outlet duct ; - the actuator being arranged at the main opening ; - the lid , together with the actuator , delimiting an actuating chamber ;
Method to manufacture panels or aerostructures (P) associated with a plurality of hollow reinforcement structures in which at least two of said hollow reinforcement structures intersect one another; the method comprises the following consecutive steps: a) positioning a single mandrel , shaped so as to manufacture hollow structures that intersect one another, on the surface of a panel (P) in correspondence to the hollow structures to be manufactured; b) laminating at least one composite material layer on top of the mandrel ; c) polymerizing said panel (P) on which said at least one composite material layer is applied, in a single step of polymerization for all the hollow reinforcement structures ; d) removing said mandrel from the hollow structures through dissolution, being said mandrel water-soluble. a) positioning a single mandrel , shaped so as to manufacture hollow structures that intersect one another, on the surface of a panel (P) in correspondence to the hollow structures to be manufactured; b) laminating at least one composite material layer on top of the mandrel ; c) polymerizing said panel (P) on which said at least one composite material layer is applied, in a single step of polymerization for all the hollow reinforcement structures ; d) removing said mandrel from the hollow structures through dissolution, being said mandrel water-soluble.
A method for producing a polyurethane foam comprising forming a reaction mixture that contains an aromatic polyisocyanate, at least one isocyanate-reactive material having an average functionality of at least 2 and an equivalent weight of at least 200 per isocyanate-reactive group, at least one blowing agent, at least one surfactant and at least one catalyst, and curing the reaction mixture in the presence of (i) at least one acetoacetate ester or amide, wherein the acetoacetate ester or amide is one or more of trimethylolpropane mono-, di or triacetoacetate ester, trimethylolethane mono- di- or tri acetoacetate ester, trimethoxymethane mono-, di- or triacetoacetate ester; ethylene glycol mono- or diacetoacetate ester; 1,2-propylene glycol mono- or diacetoacetate ester, 1,3-propylene glycol mono- or diacetoacetate ester, pentaerythritol mono-, di-, tri- or tetraacetoacetate ester, glycerin mono-, di or triacetoacetate ester, diethylene glycol mono- or diacetoacetate ester, dipropylene glycol mono- or diacetoacetate ester, triethylene glycol mono- or diacetoacetate ester, erythritol mono-, di-, tri- or tetraacetoacetate ester, n-hexane mono-, di, tri, tetra, penta-, or hexaacetoacetate ester, sorbitol mono-, di-, tri-,tetra-, penta- or hexaacetoacetate ester and 1,4-butanediol mono- or diacetoacetate ester, and the acetoacetate ester or amide is in an amount from 0.01 to 1 pph; and (ii) at least one aminoalcohol and/or alkylhydroxylamine, wherein the aminoalcohol and/or alkylhydroxylamine is selected from one or more of 2-amino-1-butanol, 2-amino-2-ethyl-1,3-propanediol, 2-amino-2-methyl-1-propanol, 2-amino-1-methyl-1,3-propanediol, 1,1,1-tris (hydroxymethyl) methylamine, N-methylethanolamine, N-butylethanolamine, 2-amino-2(hydroxymethyl)propane-1,3-diol, N-isopropylhydroxylamine, N-ethylhydroxylamine, N-methylhydroxylamine, N-(n-butyl)hydroxylamine and N-(sec-butyl)hydroxylamine to form the polyurethane foam, and the aminoalcohol and/or alkylhydroxylamine is in an amount from 0.01 to 5 pph.
A structural ultra-thick steel having excellent resistance to brittle crack propagation, the structural ultra-thick steel consisting of: 0.02-0.1 wt % of C, 0.8-2.5 wt % of Mn, 0.05-1.5 wt % of Ni, 0.005-0.1 wt % of Nb, 0.005-0.1 wt % of Ti, and the remainder of Fe and other inevitable impurities, the structural ultra-thick steel having microstructures consisting of one structure selected from the group consisting of a single-phase structure of ferrite, a single-phase structure of bainite, a complex-phase structure of ferrite and bainite, a complex-phase structure of ferrite and pearlite, and a complex-phase structure of ferrite, bainite, and pearlite, and wherein the ferrite is acicular ferrite or polygonal ferrite, and the bainite is granular bainite, wherein when the microstructures have the complex-phase structure of ferrite, bainite, and pearlite a percentage of pearlite to the complex-phase structure is 30 vol% or less, wherein the steel has a grain size of 15 μm or less, the grain size having a high-angle grain boundary of 15° or higher measured in an EBSD manner in a central portion in a plate thickness direction, wherein the steel has a yield strength of 350 MPa or more, an impact transition temperature of -60°C or lower in of a central portion thereof, a thickness of 10-100 mm and 6,000 or more of Kca value obtained by performing an ESSO test. 0.02-0.1 wt % of C, 0.8-2.5 wt % of Mn, 0.05-1.5 wt % of Ni, 0.005-0.1 wt % of Nb, 0.005-0.1 wt % of Ti, and the remainder of Fe and other inevitable impurities, the structural ultra-thick steel having microstructures consisting of one structure selected from the group consisting of a single-phase structure of ferrite, a single-phase structure of bainite, a complex-phase structure of ferrite and bainite, a complex-phase structure of ferrite and pearlite, and a complex-phase structure of ferrite, bainite, and pearlite, and wherein the ferrite is acicular ferrite or polygonal ferrite, and the bainite is granular bainite, wherein when the microstructures have the complex-phase structure of ferrite, bainite, and pearlite a percentage of pearlite to the complex-phase structure is 30 vol% or less, wherein the steel has a grain size of 15 μm or less, the grain size having a high-angle grain boundary of 15° or higher measured in an EBSD manner in a central portion in a plate thickness direction, wherein the steel has a yield strength of 350 MPa or more, an impact transition temperature of -60°C or lower in of a central portion thereof, a thickness of 10-100 mm and 6,000 or more of Kca value obtained by performing an ESSO test.
Use of a coating comprising nano-filaments obtained by a polymerisation reaction of one or more silane compounds in the presence of water as a flame retardant coating applied on a surface of a material.