mhurhangee/patent-ind-claim-en huggingface dataset:
A machining tool for chip-removing machining comprising • a tool body , and • a generator assembly for harvesting electric energy to be used in the tool and having at least one first component secured to the tool body and a second component movably connected to the tool body so as to by moving with respect to the first component through interaction therewith generate electric energy in the first component , wherein the generator assembly comprises an arrangement configured to conduct a medium flow to hit and act upon the second component for moving it with respect to the first component , and wherein the second component comprises at least one magnet and the first component comprises a first member interacting with the magnet when passed thereby while generating electric energy in the first component , characterized in that the first component comprises a cantilever having one end secured to the tool body , that the first member is magnetic and arranged on the cantilever to make the cantilever flex and oscillate by interaction with the at least one magnet of the second component , and that the first component comprises a second member of piezoelectric material secured to the cantilever and to flex and oscillate therewith for generating electric energy. • a tool body , and • a generator assembly for harvesting electric energy to be used in the tool and having at least one first component secured to the tool body and a second component movably connected to the tool body so as to by moving with respect to the first component through interaction therewith generate electric energy in the first component , wherein the generator assembly comprises an arrangement configured to conduct a medium flow to hit and act upon the second component for moving it with respect to the first component , and wherein the second component comprises at least one magnet and the first component comprises a first member interacting with the magnet when passed thereby while generating electric energy in the first component , characterized in that the first component comprises a cantilever having one end secured to the tool body , that the first member is magnetic and arranged on the cantilever to make the cantilever flex and oscillate by interaction with the at least one magnet of the second component , and that the first component comprises a second member of piezoelectric material secured to the cantilever and to flex and oscillate therewith for generating electric energy.
An apparatus for arc welding, comprising: a torch body comprising a power supply line and a gas supply line ; and being characterised by : two or more metal segments acting as electrodes movable relative to one another being sized and shaped to surround a seam between two elongated objects to be welded together, the two or more metal segments being in electrical communication with the power supply line creating an electric arc between the two or more metal segments and the two elongated objects, so that, in use, the electrical arc fully surrounds the seam between the two elongated objects to be welded; and a gas jacket attached to each of the metal segments; wherein the two or more metal segments are moveable in a radial direction via a screw mechanism or wherein the two or more metal segments are moveable in a radial direction via a lead screw. a torch body comprising a power supply line and a gas supply line ; and being characterised by : two or more metal segments acting as electrodes movable relative to one another being sized and shaped to surround a seam between two elongated objects to be welded together, the two or more metal segments being in electrical communication with the power supply line creating an electric arc between the two or more metal segments and the two elongated objects, so that, in use, the electrical arc fully surrounds the seam between the two elongated objects to be welded; and a gas jacket attached to each of the metal segments; wherein the two or more metal segments are moveable in a radial direction via a screw mechanism or wherein the two or more metal segments are moveable in a radial direction via a lead screw. two or more metal segments acting as electrodes movable relative to one another being sized and shaped to surround a seam between two elongated objects to be welded together, the two or more metal segments being in electrical communication with the power supply line creating an electric arc between the two or more metal segments and the two elongated objects, so that, in use, the electrical arc fully surrounds the seam between the two elongated objects to be welded; and a gas jacket attached to each of the metal segments; wherein the two or more metal segments are moveable in a radial direction via a screw mechanism or wherein the two or more metal segments are moveable in a radial direction via a lead screw.
A method of operating a processor, the method comprising: identifying a speculation-source operation, being an operation that speculation is based on; identifying an operation that is at least partially executed in a speculative fashion based on the identified speculation-source operation; if the identified operation is dependent on speculative data: classifying the identified operation as a taint-source operation; associating the speculation-source operation with the taint-source operation; storing taint data associating the taint-source operation with the speculation source operation; and based on the stored taint data, blocking the taint-source operation until its associated speculation-source operation is resolved; if the identified operation is not dependent on speculative data: classifying the identified operation as safe; and allowing the safe operation to proceed. identifying a speculation-source operation, being an operation that speculation is based on; identifying an operation that is at least partially executed in a speculative fashion based on the identified speculation-source operation; if the identified operation is dependent on speculative data: classifying the identified operation as a taint-source operation; associating the speculation-source operation with the taint-source operation; storing taint data associating the taint-source operation with the speculation source operation; and based on the stored taint data, blocking the taint-source operation until its associated speculation-source operation is resolved; classifying the identified operation as a taint-source operation; associating the speculation-source operation with the taint-source operation; storing taint data associating the taint-source operation with the speculation source operation; and based on the stored taint data, blocking the taint-source operation until its associated speculation-source operation is resolved; if the identified operation is not dependent on speculative data: classifying the identified operation as safe; and allowing the safe operation to proceed. classifying the identified operation as safe; and allowing the safe operation to proceed.
Syrup binder system for food, which binder system comprises a sugar, a polyol, dietary fiber having water holding capacity greater than 8 ml/g, an emulsifier, edible oil, and water.
An alkylation process comprising the steps of: providing a loop reactor comprising a reaction chamber and a heat exchanger, wherein the reaction chamber and the heat exchanger are in fluid communication with each other via at least one conduit such that a fluid in the reaction chamber can be circulated through the heat exchanger and returned to the reaction chamber; introducing an alkylatable aromatic compound into the loop reactor; introducing an olefin into the loop reactor; introducing a catalyst into the loop reactor; adjusting the alkylatable aromatic compound to a pre-reaction temperature that is below a desired reaction temperature; optionally, adjusting the olefin to a second pre-reaction temperature that is below the desired reaction temperature; optionally, adjusting the catalyst to a third pre-reaction temperature that is below the desired reaction temperature; initially contacting the catalyst and olefin in the conduit circulating fluid from the reaction chamber to the heat exchanger; circulating the alkylatable aromatic compound, the olefin and the catalyst in the loop reactor; and maintaining the alkylatable aromatic compound and olefin at the desired reaction temperature. providing a loop reactor comprising a reaction chamber and a heat exchanger, wherein the reaction chamber and the heat exchanger are in fluid communication with each other via at least one conduit such that a fluid in the reaction chamber can be circulated through the heat exchanger and returned to the reaction chamber; introducing an alkylatable aromatic compound into the loop reactor; introducing an olefin into the loop reactor; introducing a catalyst into the loop reactor; adjusting the alkylatable aromatic compound to a pre-reaction temperature that is below a desired reaction temperature; optionally, adjusting the olefin to a second pre-reaction temperature that is below the desired reaction temperature; optionally, adjusting the catalyst to a third pre-reaction temperature that is below the desired reaction temperature; initially contacting the catalyst and olefin in the conduit circulating fluid from the reaction chamber to the heat exchanger; circulating the alkylatable aromatic compound, the olefin and the catalyst in the loop reactor; and maintaining the alkylatable aromatic compound and olefin at the desired reaction temperature.
A method for investigating at least one process stream deriving from a catalytic process and comprising at least five different hydrocarbon-containing components, wherein the method comprises at least the steps of: a) providing at least one process stream conduit which is in operative connection with at least one online IR spectrometer and in operative connection with at least one online gas chromatograph ; b) passing the at least one process stream through the at least one process stream conduit , wherein during this passing of the process stream through the process stream conduit an analytical characterization of the process stream using an online IR spectrometer and an online gas chromatograph is performed; c) evaluating the spectral data obtained in the analytical characterization of the process stream using an online IR spectrometer as a function of the time at which this spectroscopic analysis of the process stream was carried out, d) evaluating the chromatography data obtained during the analytical characterization of the process stream using the online gas chromatograph as a function of a sampling time for samples taken from the process stream, e) machine learning-based training of a model that models a mathematical relationship between spectral data and corresponding chromatography data in respect of an identical process stream by using the evaluation results obtained in steps c) and d) in respect of the process stream passed through the process stream conduit in step b) . a) providing at least one process stream conduit which is in operative connection with at least one online IR spectrometer and in operative connection with at least one online gas chromatograph ; b) passing the at least one process stream through the at least one process stream conduit , wherein during this passing of the process stream through the process stream conduit an analytical characterization of the process stream using an online IR spectrometer and an online gas chromatograph is performed; c) evaluating the spectral data obtained in the analytical characterization of the process stream using an online IR spectrometer as a function of the time at which this spectroscopic analysis of the process stream was carried out, d) evaluating the chromatography data obtained during the analytical characterization of the process stream using the online gas chromatograph as a function of a sampling time for samples taken from the process stream, e) machine learning-based training of a model that models a mathematical relationship between spectral data and corresponding chromatography data in respect of an identical process stream by using the evaluation results obtained in steps c) and d) in respect of the process stream passed through the process stream conduit in step b) .
A conveying system comprising: a frame ; a roller ; a driver for the roller, the driver comprising a first portion fixed to the frame and a second portion fixed to the roller , wherein the second portion is detachable from the first portion and wherein the driver comprises an axial flux motor; wherein the axial flux motor comprises a stator housed in a stator housing fixed to the frame and a rotor housed in a rotor housing coupled to the stator housing , the rotor fixed to an end of the roller; characterized in that the stator comprises a magnetic return plate and a plurality of copper windings over laminated steel cores ; and in that the stator housing includes a ledge , and the rotor housing includes a bottom edge configured to mate with the ledge when the axial flux motor is assembled. a frame ; a roller ; a driver for the roller, the driver comprising a first portion fixed to the frame and a second portion fixed to the roller , wherein the second portion is detachable from the first portion and wherein the driver comprises an axial flux motor; wherein the axial flux motor comprises a stator housed in a stator housing fixed to the frame and a rotor housed in a rotor housing coupled to the stator housing , the rotor fixed to an end of the roller; characterized in that the stator comprises a magnetic return plate and a plurality of copper windings over laminated steel cores ; and in that the stator housing includes a ledge , and the rotor housing includes a bottom edge configured to mate with the ledge when the axial flux motor is assembled.
A cold rolled and heat treated steel sheet having a composition comprising of the following elements, expressed in percentage by weight: 0.10 % ≤ Carbon ≤ 0.5 % 1 % ≤ Manganese ≤ 3.4 % 0.5 % ≤ Silicon ≤ 2.5 % 0.03 % ≤ Aluminium ≤ 1.5 % Sulfur ≤ 0 .003 % . 0.002 % ≤ Phosphorus ≤ 0 .02 % Nitrogen ≤ 0 .01% 0.05 % ≤ Chromium ≤ 1 % 0.001 % ≤ Niobium ≤ 0 .1 % 0.001 % ≤ Titanium ≤ 0 .1 % and can contain one or more of the following optional elements 0.001 % ≤ Molybdenum ≤ 0.5 % 0.01 % ≤ Copper ≤ 2 % 0.01 % ≤ Nickel ≤ 3 % 0.0001 % ≤ Calcium ≤ 0 .005 % Vanadium ≤ 0.1 % Boron ≤ 0.003 % Cerium ≤ 0.1 % Magnesium ≤ 0.010 % Zirconium ≤ 0.010 % the remainder composition being composed of iron and the unavoidable impurities caused by processing, and a microstructure of the said rolled steel sheet comprises by area fraction, 10 to 30% Residual Austenite, 5 to 50% Annealed Bainite, 10 to 40 % of Bainite, 1% to 20% Quenched Martensite, and less than 30 % Tempered Martensite where the combined presence of Bainite and Residual Austenite shall be 30% or more, wherein the microstructure is determined by method described in the description.
A method of fabricating a variable stator vane , the method comprising: providing at least one fibre sheet ; rolling the at least one fibre sheet around a mandrel to form a spindle section of the variable stator vane , wherein an excess of material of the at least one fibre sheet remains after forming the spindle section ; and using the excess of material of the at least one fibre sheet to form at least one aerofoil section of the variable stator vane , characterised in that the fibre sheet is impregnated with a polymeric material. providing at least one fibre sheet ; rolling the at least one fibre sheet around a mandrel to form a spindle section of the variable stator vane , wherein an excess of material of the at least one fibre sheet remains after forming the spindle section ; and using the excess of material of the at least one fibre sheet to form at least one aerofoil section of the variable stator vane , characterised in that the fibre sheet is impregnated with a polymeric material.
A block-copolymer pellet comprising 100 parts by weight of a pellet-shaped article of a block copolymer (A) and 0.01 to 5 parts by weight of a hydrocarbon-based dusting agent (B), wherein the block copolymer (A) has at least one aromatic vinyl polymer block and at least one conjugated diene polymer block, the hydrocarbon-based dusting agent (B) has a BET specific surface area measured as specified in the specification of 0.50 to 3.00 m 2 /g, a volume average particle size measured as specified in the specification of 2.0 to 20 μm, a bulk density of 0.10 to 0.34 g/cm 3 , and a melting point of 75°C or higher, and the block-copolymer pellet has a Shore A hardness measured as specified in the specification of 10 to 80, and a BET specific surface area of 0.001 to 0.05 m 2 /g measured by a Kr adsorption method. wherein the block copolymer (A) has at least one aromatic vinyl polymer block and at least one conjugated diene polymer block, the hydrocarbon-based dusting agent (B) has a BET specific surface area measured as specified in the specification of 0.50 to 3.00 m 2 /g, a volume average particle size measured as specified in the specification of 2.0 to 20 μm, a bulk density of 0.10 to 0.34 g/cm 3 , and a melting point of 75°C or higher, and the block-copolymer pellet has a Shore A hardness measured as specified in the specification of 10 to 80, and a BET specific surface area of 0.001 to 0.05 m 2 /g measured by a Kr adsorption method.
An electronic apparatus , comprising: a display configured to provide a user interface, UI, screen , the UI screen comprising a UI element including a plurality of areas, each area corresponding to at least one sound content, respectively; and a processor configured to acquire a main color value from images related to the sound contents, respectively, based on an average color value of an object which exceeds a preset size from among the objects included in the image, control the display to display the UI element , and when a user interface apparatus is located at one of the plurality of areas, control the display to provide a thumbnail image of a sound content corresponding to the one of the plurality of areas on the UI element , wherein thumbnail images of sound content corresponding to areas other than the one of the plurality of areas are not displayed on the UI element . a display configured to provide a user interface, UI, screen , the UI screen comprising a UI element including a plurality of areas, each area corresponding to at least one sound content, respectively; and a processor configured to acquire a main color value from images related to the sound contents, respectively, based on an average color value of an object which exceeds a preset size from among the objects included in the image, control the display to display the UI element , and when a user interface apparatus is located at one of the plurality of areas, control the display to provide a thumbnail image of a sound content corresponding to the one of the plurality of areas on the UI element , wherein thumbnail images of sound content corresponding to areas other than the one of the plurality of areas are not displayed on the UI element . acquire a main color value from images related to the sound contents, respectively, based on an average color value of an object which exceeds a preset size from among the objects included in the image, control the display to display the UI element , and when a user interface apparatus is located at one of the plurality of areas, control the display to provide a thumbnail image of a sound content corresponding to the one of the plurality of areas on the UI element , wherein thumbnail images of sound content corresponding to areas other than the one of the plurality of areas are not displayed on the UI element .
A screwdriver , comprising: a housing comprising a handle section and a motor housing section, a longitudinal axis (B) of the handle section being at a non-zero angle with respect to a longitudinal axis (A) of the motor housing section; a motor housed in the motor housing section; a tool holder selectively driven by the motor , the tool holder being in a forward location of the screwdriver ; a user actuatable trigger for activating the motor ; and a bit holder rotatably held on the housing, the bit holder comprising a first section which includes a plurality of bit retainers and a second section including a plurality of detents ; wherein the screwdriver further comprises a pin which engages with the plurality of detents to hold the bit holder in one of a plurality of rotational positions; characterized in that the bit holder is located axially behind the motor housing section along the motor housing section longitudinal axis (A). a housing comprising a handle section and a motor housing section, a longitudinal axis (B) of the handle section being at a non-zero angle with respect to a longitudinal axis (A) of the motor housing section; a motor housed in the motor housing section; a tool holder selectively driven by the motor , the tool holder being in a forward location of the screwdriver ; a user actuatable trigger for activating the motor ; and a bit holder rotatably held on the housing, the bit holder comprising a first section which includes a plurality of bit retainers and a second section including a plurality of detents ; wherein the screwdriver further comprises a pin which engages with the plurality of detents to hold the bit holder in one of a plurality of rotational positions; characterized in that the bit holder is located axially behind the motor housing section along the motor housing section longitudinal axis (A).