mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical contactor comprising a casing formed of an electrically insulating material and at least one connection terminal mounted in the casing and intended to establish and maintain a contact between an electrical conductor which is inserted in the connection terminal and an electrical bonding strip mounted in the casing to ensure an electrical connection between the electrical bonding strip and the electrical conductor, the connection terminal being of the pressure type and comprising a contact spring comprising at least one blade and configured such that the contact between the electrical conductor and the electrical bonding strip results from a press-fit of the electrical conductor in opposition to the action of the contact spring and is automatically held by the contact spring after insertion of the electrical conductor, the contact spring being capable of varying between a first rest configuration from which it can open under the effect of the action of inserting the electrical conductor to occupy a second configuration in which the contact spring exerts a pressing force of the electrical conductor against the electrical bonding strip , and a third configuration in which the electrical conductor is free to be removed from the bonding terminal, the casing comprising a peripheral wall and a cover which are assembled to each other, at least one insertion opening which is at least partially delimited by the cover allowing inserting the electrical conductor in the casing up to the connection terminal, the contact spring and the casing being configured such that the contact spring is mounted in the casing in a mounting direction substantially parallel to the direction in which the electrical conductor is inserted into the connection terminal , characterized in that the contact spring comprises a protuberance extending locally in a lateral direction of the blade perpendicular to a longitudinal direction (X) of the blade which locally corresponds to the direction of extension or elongation of the blade and to a transverse direction (Z) along which the smallest size of the blade comparable to its thickness is counted, and in that the cover delimits at least one first stop formed in a suitable manner so that said protuberance automatically bears against the first stop during the passage of the contact spring towards the second configuration or towards the third configuration in order to block the tilting of the contact spring in a first direction (S1) during the insertion of the electrical conductor in the connection terminal .
Modular fiber reinforced plastic poles, consisting of two or more successive hollow parts of constant cross section, said successive hollow parts having different sizes, said poles further consisting of annular joints of shape corresponding with the shape of the hollow parts that they connect, with circumferential grooves at both their sides suitable for fitting the hollow parts that they connect, whereby each hollow part is fitted with the other via the annular joints; characterized In that : said successive hollow parts have different shapes, and said modular fiber reinforced plastic poles further consist of a cap of shape corresponding to the shape of the upper hollow part, whereby the cap is fitted on the top of the upper hollow part of the pole, said successive hollow parts have different shapes, and said modular fiber reinforced plastic poles further consist of a cap of shape corresponding to the shape of the upper hollow part, whereby the cap is fitted on the top of the upper hollow part of the pole,
Computer-implemented method for producing a concrete component with at least one outer surface in a defined exposed concrete quality (SB1 - SB4) by means of a formwork arrangement installed at a construction site or in a precast plant, into which formwork arrangement a fresh concrete is filled as starting material, comprising the following steps: - providing (I) data on the concrete formulation and/or concrete quality of the fresh concrete delivered or to be delivered to the construction site , - providing (II) data on the formwork skin class (H) of the formwork arrangement installed at the construction site , - measuring (III) actual physical environmental data by sensors arranged on the construction site , - comparing (IV) the provided and measured dissimilar data with corresponding stored historical data of similar concrete components of known exposed concrete quality (SB1 - SB4) in order to predict via - data pattern recognition to predict with which exposed concrete quality (SB1 - SB4) the concrete component to be produced can be realized under the given circumstances. - providing (I) data on the concrete formulation and/or concrete quality of the fresh concrete delivered or to be delivered to the construction site , - providing (II) data on the formwork skin class (H) of the formwork arrangement installed at the construction site , - measuring (III) actual physical environmental data by sensors arranged on the construction site , - comparing (IV) the provided and measured dissimilar data with corresponding stored historical data of similar concrete components of known exposed concrete quality (SB1 - SB4) in order to predict via - data pattern recognition to predict with which exposed concrete quality (SB1 - SB4) the concrete component to be produced can be realized under the given circumstances.
Pneumatic vehicle tyre of radial construction, having a tread with at least one profile positive extending in a circumferential direction, such as a block row or a profile strip , which is provided with a multiplicity of transverse grooves , wherein each transverse groove is delimited by two mutually opposite groove flanks and a groove base connecting the groove flanks , and wherein one of these groove flanks transitions into the tread surface via a chamfer in the form of a planar sloping surface, characterized in that , at least along the majority of the longitudinal extent of the transverse groove , the groove flank adjoining the chamfer is embodied, at least in its portion adjoining the chamfer , in a concavely curved manner in cross section, protruding in the direction of the transverse groove , wherein there is a bend-free transition between the chamfer and the groove flank .
A battery , comprising: a battery cell comprising a pressure relief mechanism , the pressure relief mechanism being configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; a thermal management component configured to accommodate a fluid to adjust a temperature of the battery cell ; an avoidance chamber formed between the pressure relief mechanism and the thermal management component , the avoidance chamber being configured to provide a space allowing the pressure relief mechanism to be actuated; and a collection chamber located on an outer side of the avoidance chamber for collecting emissions from the battery cell when the pressure relief mechanism is actuated, wherein the thermal management component is configured such that emissions of the battery cell are capable of passing through the thermal management component when the pressure relief mechanism is actuated, and then entering the collection chamber through the avoidance chamber ; wherein the thermal management component is provided with a through hole, and the through hole is configured such that the avoidance chamber and the collection chamber are in communication with each other; wherein the avoidance chamber is formed from an avoidance structure of the thermal management component that is open toward the pressure relief mechanism , and the avoidance structure comprises an avoidance side wall surrounding the avoidance chamber and an avoidance bottom wall opposite to the pressure relief mechanism . a battery cell comprising a pressure relief mechanism , the pressure relief mechanism being configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; a thermal management component configured to accommodate a fluid to adjust a temperature of the battery cell ; an avoidance chamber formed between the pressure relief mechanism and the thermal management component , the avoidance chamber being configured to provide a space allowing the pressure relief mechanism to be actuated; and a collection chamber located on an outer side of the avoidance chamber for collecting emissions from the battery cell when the pressure relief mechanism is actuated, wherein the thermal management component is configured such that emissions of the battery cell are capable of passing through the thermal management component when the pressure relief mechanism is actuated, and then entering the collection chamber through the avoidance chamber ; wherein the thermal management component is provided with a through hole, and the through hole is configured such that the avoidance chamber and the collection chamber are in communication with each other; wherein the avoidance chamber is formed from an avoidance structure of the thermal management component that is open toward the pressure relief mechanism , and the avoidance structure comprises an avoidance side wall surrounding the avoidance chamber and an avoidance bottom wall opposite to the pressure relief mechanism .
An optical processing apparatus, comprising: at least one optical lens group , light transmittance of which is adjustable; a photodetector configured to detect a light intensity of light emitted to the at least one optical lens group ; and a controller configured to adjust the light transmittance of the at least one optical lens group according to the light intensity detected by the photodetector , characterized in that each of the at least one optical lens group comprises a light-transmissive layer , and one convex lens or a plurality of coaxially arranged convex lenses configured to converge light from a light incident side of the optical lens group , the light-transmissive layer covers the one convex lens or the plurality of coaxially arranged convex lenses in a direction of a main optical axis of the one convex lens or the plurality of coaxially arranged convex lenses , and light transmittance of the light-transmissive layer is adjustable; wherein the light-transmissive layer comprises a liquid crystal layer and a transparent driving electrode layer , and the controller is configured to control a power supply to supply a driving voltage to the driving electrode layer , so as to generate an electric field for driving liquid crystals in the liquid crystal layer to deflect; and wherein when the liquid crystals in the liquid crystal layer do not deflect, a long axis of the liquid crystals is perpendicular to the main optical axis of the one convex lens or the plurality of coaxially arranged convex lenses . at least one optical lens group , light transmittance of which is adjustable; a photodetector configured to detect a light intensity of light emitted to the at least one optical lens group ; and a controller configured to adjust the light transmittance of the at least one optical lens group according to the light intensity detected by the photodetector , characterized in that each of the at least one optical lens group comprises a light-transmissive layer , and one convex lens or a plurality of coaxially arranged convex lenses configured to converge light from a light incident side of the optical lens group , the light-transmissive layer covers the one convex lens or the plurality of coaxially arranged convex lenses in a direction of a main optical axis of the one convex lens or the plurality of coaxially arranged convex lenses , and light transmittance of the light-transmissive layer is adjustable; wherein the light-transmissive layer comprises a liquid crystal layer and a transparent driving electrode layer , and the controller is configured to control a power supply to supply a driving voltage to the driving electrode layer , so as to generate an electric field for driving liquid crystals in the liquid crystal layer to deflect; and wherein when the liquid crystals in the liquid crystal layer do not deflect, a long axis of the liquid crystals is perpendicular to the main optical axis of the one convex lens or the plurality of coaxially arranged convex lenses .
A coating material for fried food, comprising: a wheat flour in an amount of 50 to 95 mass%; and a modified starch in an amount of 5 to 50 mass%, the modified starch having been subjected to an oxidation treatment or an acid treatment and having an RVA maximum viscosity of 1,000 mPa·s or less; wherein the starch is corn starch or tapioca starch. a wheat flour in an amount of 50 to 95 mass%; and a modified starch in an amount of 5 to 50 mass%, the modified starch having been subjected to an oxidation treatment or an acid treatment and having an RVA maximum viscosity of 1,000 mPa·s or less; wherein the starch is corn starch or tapioca starch.
An ultrasound diagnostic apparatus comprising: a display unit that displays a B-mode image (UB) in which at least a blood vessel region (BR) is imaged; a gate setting unit that sets a Doppler gate (DG) within the blood vessel region (BR) on the B-mode image (UB); and characterised by : a vascular wall detection unit that sets an upper detection region (R1) and a lower detection region (R2) on an outer side of the Doppler gate (DG) set by the gate setting unit and that detects an anterior vascular wall (W1) and a posterior vascular wall (W2) by performing image analysis on the B-mode image (UB) in the upper detection region (R1) and the lower detection region (R2), respectively. a display unit that displays a B-mode image (UB) in which at least a blood vessel region (BR) is imaged; a gate setting unit that sets a Doppler gate (DG) within the blood vessel region (BR) on the B-mode image (UB); and characterised by : a vascular wall detection unit that sets an upper detection region (R1) and a lower detection region (R2) on an outer side of the Doppler gate (DG) set by the gate setting unit and that detects an anterior vascular wall (W1) and a posterior vascular wall (W2) by performing image analysis on the B-mode image (UB) in the upper detection region (R1) and the lower detection region (R2), respectively. that sets an upper detection region (R1) and a lower detection region (R2) on an outer side of the Doppler gate (DG) set by the gate setting unit and that detects an anterior vascular wall (W1) and a posterior vascular wall (W2) by performing image analysis on the B-mode image (UB) in the upper detection region (R1) and the lower detection region (R2), respectively.
A process for purifying compound of Formula A, wherein R 1 , R 2 , R 3 and R 4 can be independently a hydrogen, halogen, cyano, amino, N-thio derivatives, hydroxyl, unsubstituted or substituted linear or branched (C 1 -C 10 ) alkyl or cycloalkyl, heterocyclic unsubstituted or substituted with halogen, cyano, amino, hydroxyl or linear or branched (C 1 -C 10 ) alkyl and wherein m, n, p and q can be 0, 1, 2, or 3; said process comprising the steps of: a) feeding a reaction product mixture of compound of Formula A into a reactor; b) preparing a slurry of the mixture in aqueous conditions; c) stirring the slurry for a pre-determined time at a temperature of from 25 to 80°C; d) separating solids; e) optionally repeating steps b), c) and d); and f) drying to get purified compound of Formula A; wherein said aqueous conditions comprise water or a mixture of water and one or more solvents. wherein R 1 , R 2 , R 3 and R 4 can be independently a hydrogen, halogen, cyano, amino, N-thio derivatives, hydroxyl, unsubstituted or substituted linear or branched (C 1 -C 10 ) alkyl or cycloalkyl, heterocyclic unsubstituted or substituted with halogen, cyano, amino, hydroxyl or linear or branched (C 1 -C 10 ) alkyl and wherein m, n, p and q can be 0, 1, 2, or 3; said process comprising the steps of: a) feeding a reaction product mixture of compound of Formula A into a reactor; b) preparing a slurry of the mixture in aqueous conditions; c) stirring the slurry for a pre-determined time at a temperature of from 25 to 80°C; d) separating solids; e) optionally repeating steps b), c) and d); and f) drying to get purified compound of Formula A; a) feeding a reaction product mixture of compound of Formula A into a reactor; b) preparing a slurry of the mixture in aqueous conditions; c) stirring the slurry for a pre-determined time at a temperature of from 25 to 80°C; d) separating solids; e) optionally repeating steps b), c) and d); and f) drying to get purified compound of Formula A; wherein said aqueous conditions comprise water or a mixture of water and one or more solvents.
Use of pre-oxidized ilmenite particles for reaching a predetermined concentration of ilmenite particles in the bed material of a fluidized bed boiler during startup of the fluidized bed boiler, wherein said pre-oxidized ilmenite particles i) were produced inside a furnace , by carrying out the steps of: a) heating the furnace to a predetermined temperature; b) maintaining an oxidizing environment inside the furnace ; c) continuously feeding fresh ilmenite particles to the furnace ; d) pre-oxidizing the ilmenite particles by subjecting the ilmenite particles to the oxidizing environment inside the furnace at the predetermined temperature; e) continuously removing pre-oxidized ilmenite particles from the furnace ; and/or ii) are pre-oxidized in said boiler from fresh ilmenite particles provided to said boiler. i) were produced inside a furnace , by carrying out the steps of: a) heating the furnace to a predetermined temperature; b) maintaining an oxidizing environment inside the furnace ; c) continuously feeding fresh ilmenite particles to the furnace ; d) pre-oxidizing the ilmenite particles by subjecting the ilmenite particles to the oxidizing environment inside the furnace at the predetermined temperature; e) continuously removing pre-oxidized ilmenite particles from the furnace ; and/or a) heating the furnace to a predetermined temperature; b) maintaining an oxidizing environment inside the furnace ; c) continuously feeding fresh ilmenite particles to the furnace ; d) pre-oxidizing the ilmenite particles by subjecting the ilmenite particles to the oxidizing environment inside the furnace at the predetermined temperature; e) continuously removing pre-oxidized ilmenite particles from the furnace ; and/or ii) are pre-oxidized in said boiler from fresh ilmenite particles provided to said boiler.
A method for repairing a display panel, the display panel comprising a plurality of pixels for display, each of the pixels including a color filter film on a substrate , at least part of the pixels having a bright spot defect , the bright spot defect being a constantly bright spot within a single pixel region, wherein the method comprises: determining a pixel where the bright spot defect resides and a position of the bright spot defect in the pixel ; setting a repair region , the repair region being a region in the pixel including the bright spot defect and having an area smaller than that of the single pixel region; and forming a black material layer in the repair region for preventing light emitted from a directly-below portion thereof from leaving a display surface of the display panel; wherein forming a black material layer in the repair region comprises: performing carbonization treatment on the color filter film in the repair region by laser, such that the color filter film is irradiated with the laser and directly carbonized to form a carbonized color filter film ; characterized in that the method further comprises: performing modification treatment on the color filter film in the repair region by laser prior to performing carbonization treatment on the color filter film in the repair region ; and wherein parameters of the laser for the modification treatment comprise: a wavelength of 349 nm, an energy of 200 to 400 nJ, an operating rate of 150 to 300 μm/s, and a frequency of 40 to 60 Hz, wherein the operating rate is a traveling speed of a laser device. determining a pixel where the bright spot defect resides and a position of the bright spot defect in the pixel ; setting a repair region , the repair region being a region in the pixel including the bright spot defect and having an area smaller than that of the single pixel region; and forming a black material layer in the repair region for preventing light emitted from a directly-below portion thereof from leaving a display surface of the display panel; wherein forming a black material layer in the repair region comprises: performing carbonization treatment on the color filter film in the repair region by laser, such that the color filter film is irradiated with the laser and directly carbonized to form a carbonized color filter film ; characterized in that the method further comprises: performing modification treatment on the color filter film in the repair region by laser prior to performing carbonization treatment on the color filter film in the repair region ; and wherein parameters of the laser for the modification treatment comprise: a wavelength of 349 nm, an energy of 200 to 400 nJ, an operating rate of 150 to 300 μm/s, and a frequency of 40 to 60 Hz, wherein the operating rate is a traveling speed of a laser device.
A stator assembly comprising: a stator formed by a plurality of annular claw pole pieces held together by means of injection overmolding, a columnar connection portion being provided on a peripheral edge of one of the pole pieces and protruding outwardly in the radial direction from said peripheral edge of one of the pole pieces ; a mounting groove located on an axial face end of said stator on one of the pole pieces ; an annular coil wound around said pole pieces ; a pin connector with a ground pin , the pin connector being press-fitted onto said mounting groove in the direction perpendicular to the axial direction of said stator ; and a magnetically conductive ring , said stator , which is mounted with said coil and the pin connector , being pressed into the magnetically conductive ring , wherein the columnar connection portion is connected to the ground pin of the pin connector , said columnar connection portion being also in contact with said magnetically conductive ring , and a pin connector cover separate from the stator is provided, the pin connector cover being press-fitted onto the pin connector so as to protect the pins on the pin connector . a stator formed by a plurality of annular claw pole pieces held together by means of injection overmolding, a columnar connection portion being provided on a peripheral edge of one of the pole pieces and protruding outwardly in the radial direction from said peripheral edge of one of the pole pieces ; a mounting groove located on an axial face end of said stator on one of the pole pieces ; an annular coil wound around said pole pieces ; a pin connector with a ground pin , the pin connector being press-fitted onto said mounting groove in the direction perpendicular to the axial direction of said stator ; and a magnetically conductive ring , said stator , which is mounted with said coil and the pin connector , being pressed into the magnetically conductive ring , wherein the columnar connection portion is connected to the ground pin of the pin connector , said columnar connection portion being also in contact with said magnetically conductive ring , and a pin connector cover separate from the stator is provided, the pin connector cover being press-fitted onto the pin connector so as to protect the pins on the pin connector .