mhurhangee/patent-ind-claim-en huggingface dataset:
A system for cleaning an additive manufacturing machine recoater , comprising: a position module for sensing and/or determining a position of a recoater of the additive manufacturing machine ; a gas manifold disposed in the additive manufacturing machine and configured to spray a pressurized gas on the recoater when the recoater is in at least one cleaning position; a valve configured to allow the pressurized gas to flow from a gas source to the gas manifold ; and a valve control module configured to control the valve as a function of the position sensed and/or determined by the position module , wherein the valve control module is configured to open the valve when the recoater is at one or more selected positions, wherein the one or more selected positions include a cleaning position, wherein the cleaning position is behind a zero position of normal operations. a position module for sensing and/or determining a position of a recoater of the additive manufacturing machine ; a gas manifold disposed in the additive manufacturing machine and configured to spray a pressurized gas on the recoater when the recoater is in at least one cleaning position; a valve configured to allow the pressurized gas to flow from a gas source to the gas manifold ; and a valve control module configured to control the valve as a function of the position sensed and/or determined by the position module , wherein the valve control module is configured to open the valve when the recoater is at one or more selected positions, wherein the one or more selected positions include a cleaning position, wherein the cleaning position is behind a zero position of normal operations.
A method of forming an optical article , the method comprising: providing a base lens substrate having opposite first and second optical surfaces, and at least one microlens protruding from the second optical surface , placing the base lens substrate in a mold comprising first and second mold portions such that the first optical surface is disposed on a molding surface of the first mold portion , and that a volume (V) is defined between a molding surface of the second mold portion and the second optical surface , filling the volume (V) with a moldable material (M) suitable for forming abrasion resistant coating; and setting the moldable material to form an abrasion-resistant coating over the base lens substrate , wherein the abrasion resistant coating encapsulates each microlens . providing a base lens substrate having opposite first and second optical surfaces, and at least one microlens protruding from the second optical surface , placing the base lens substrate in a mold comprising first and second mold portions such that the first optical surface is disposed on a molding surface of the first mold portion , and that a volume (V) is defined between a molding surface of the second mold portion and the second optical surface , filling the volume (V) with a moldable material (M) suitable for forming abrasion resistant coating; and setting the moldable material to form an abrasion-resistant coating over the base lens substrate , wherein the abrasion resistant coating encapsulates each microlens .
A method for producing a grain-oriented electrical steel sheet by comprising a series of steps of subjecting a slab reheated to approximately 1400 °C having a chemical composition comprising of C: 0.002-0.10 mass%, Si: 2.5-6.0 mass%, Mn: 0.01-0.8 mass% and further containing: i) Al: 0.010-0.050 mass% and N: 0.003-0.020 mass%, or ii) at least one of S: 0.005-0.03 mass% and Se: 0.002-0.03 mass%, or iii) Al: 0.010-0.050 mass%, N: 0.003-0.020 mass%, and at least one of S: 0.005-0.03 mass% and Se: 0.002-0.03 mass%, and optionally Cr: 0.01-0.50 mass%, Cu: 0.01-0.50 mass%, P: 0.005-0.50 mass%, Ni: 0.01-1.50 mass%, Sb: 0.005-0.50 mass%, Sn: 0.005-0.50 mass%, Mo: 0.005-0.100 mass%, B: 0.0002-0.0025 mass%, Nb: 0.0010-0.0100 mass% and V: 0.001-0.01 mass% and the remainder being Fe and inevitable impurities to hot rolling, hot band annealing, one or two or more cold rollings sandwiching an intermediate annealing therebetween, formation of subscale, which is an oxide coating composed mainly of Si and Fe oxides, on steel sheet surface through decarburization annealing, application of an annealing separator composed mainly of MgO onto steel sheet surface and finish annealing, characterized in that when a certain temperature within a range of 700-800°C in a heating process of the decarburization annealing is T1 and a certain temperature as a soaking temperature within a range of 820-900°C is T2, a heating rate R1 between 500°C and T1 is set to not less than 80°C/s and a heating rate R2 between T1 and T2 is set to not more than 15°C/s, and wherein a coating weight converted to oxygen per one-side surface of the steel sheet after the decarburization annealing is 0.35-0.85 g/m 2 and wherein an oxygen potential P H2O /P H2 in an atmosphere reaching to the soaking temperature T2 in the decarburization annealing is within a range of 0.30-0.55, and performing reduction annealing after the soaking treatment in the decarburization annealing in a reduction zone having an oxygen potential P H2O /P H2 of not more than 0.10 at a temperature of not lower than T2 but not higher than 900 °C for not less than 5 seconds. i) Al: 0.010-0.050 mass% and N: 0.003-0.020 mass%, or ii) at least one of S: 0.005-0.03 mass% and Se: 0.002-0.03 mass%, or iii) Al: 0.010-0.050 mass%, N: 0.003-0.020 mass%, and at least one of S: 0.005-0.03 mass% and Se: 0.002-0.03 mass%,
Visible light-responsive photocatalytic titanium oxide fine particle mixture comprising two types of titanium oxide fine particles having a volume-based 50% cumulative distribution size (D50) measured by dynamic laser light scattering of from 5 to 30 nm: a first type of titanium oxide fine particles containing in solid solution a tin constituent and a transition metal constituent that increases visible light responsiveness, and a second type of titanium oxide fine particles containing in solid solution an iron-group element constituent composed of iron group metal selected from iron, cobalt or nickel and a chromium-group element constituent composed of chromium group metal selected from chromium, molybdenum or tungsten, wherein the transition metal constituent contained in solid solution in the first type of titanium oxide fine particles is at least one selected from vanadium, chromium, manganese, niobium, molybdenum, rhodium, antimony, tungsten and cerium.
A method for manufacturing a turbomachine component made of composite material, said method comprising the steps consisting in: - producing a fibrous preform by three-dimensional weaving of filaments so as to produce a fibrous texture, which is wound in a plurality of superposed layers on a mandrel with a profile corresponding to that of the component to be manufactured, in order to obtain the fibrous preform with a shape corresponding to that of the component to be manufactured, the filaments being separated into warp filaments and weft filaments , the warp filaments being interwoven with the weft filaments in a three-dimensional weaving, - creating a stiffening zone in the fibrous preform, characterised in that said stiffening zone is formed by at least one layer of warp filaments not interwoven with weft filaments interposed between the warp filaments and the weft filaments that are interwoven. - producing a fibrous preform by three-dimensional weaving of filaments so as to produce a fibrous texture, which is wound in a plurality of superposed layers on a mandrel with a profile corresponding to that of the component to be manufactured, in order to obtain the fibrous preform with a shape corresponding to that of the component to be manufactured, the filaments being separated into warp filaments and weft filaments , the warp filaments being interwoven with the weft filaments in a three-dimensional weaving, - creating a stiffening zone in the fibrous preform,
A blended thermoplastic composition comprising: a. from 20 wt% to 80 wt% of a polycarbonate polymer; b. from 3 wt% to 30 wt% of a phosphorus-containing flame retardant; c. from 10 wt% to 70 wt% of a filler comprising at least one thermally conductive filler and at least one thermally insulating filler, wherein the thermally conductive filler is a high thermally conductive filler having a thermal conductivity greater than or equal to 50 W/mK, a low thermally conductive filler having a thermal conductivity from 10 W/mK to 30 W/mK, or a combination thereof, and wherein the thermally insulating filler has a thermal conductivity less than 10 W/mK, wherein the thermal conductivity is determined according to the method disclosed in the specification ; d. from 0,1 wt% to 10 wt% of a silicone-containing char-forming agent; wherein the combined weight percent value of all components does not exceed 100 wt%; wherein all weight percent values are based on the total weight of the blended thermoplastic composition; wherein a molded sample of the blended thermoplastic composition has a UL94 V0 rating at a thickness of 1.2 mm; and wherein a molded sample of the blended thermoplastic composition has a through-plane thermal conductivity when determined in accordance with ASTM E1461 of greater than or equal to 0.4 W/mK. a. from 20 wt% to 80 wt% of a polycarbonate polymer; b. from 3 wt% to 30 wt% of a phosphorus-containing flame retardant; c. from 10 wt% to 70 wt% of a filler comprising at least one thermally conductive filler and at least one thermally insulating filler, wherein the thermally conductive filler is a high thermally conductive filler having a thermal conductivity greater than or equal to 50 W/mK, a low thermally conductive filler having a thermal conductivity from 10 W/mK to 30 W/mK, or a combination thereof, and wherein the thermally insulating filler has a thermal conductivity less than 10 W/mK, wherein the thermal conductivity is determined according to the method disclosed in the specification ; d. from 0,1 wt% to 10 wt% of a silicone-containing char-forming agent;
Myoviridae Spounavirinae phiEF7H, deposited under accession number: NITE BP-02886.
A method for synchronize word correlation, comprising: obtaining , by a correlator, first values that each indicate a likelihood or probability that a respective timeslot in a symbol timing window of a carrier wave is meant or expected to include energy in form of a light pulse; multiplying , by the correlator, the first values respectively by correlation coefficients to produce a plurality of products, wherein at least one of the correlation coefficients comprises a negative coefficient value; generating , by the correlator, a correlation value by combining the products together; determining , by the correlation, whether a synchronization word has been detected with a given amount of likelihood based on the correlation value; and causing , by the correlator, symbol timing synchronization at a receiver when a determination is made that the synchronization word has been detected with the given amount of likelihood based on the correlation value. obtaining , by a correlator, first values that each indicate a likelihood or probability that a respective timeslot in a symbol timing window of a carrier wave is meant or expected to include energy in form of a light pulse; multiplying , by the correlator, the first values respectively by correlation coefficients to produce a plurality of products, wherein at least one of the correlation coefficients comprises a negative coefficient value; generating , by the correlator, a correlation value by combining the products together; determining , by the correlation, whether a synchronization word has been detected with a given amount of likelihood based on the correlation value; and causing , by the correlator, symbol timing synchronization at a receiver when a determination is made that the synchronization word has been detected with the given amount of likelihood based on the correlation value.
A gear assembly , comprising: a support , an axle mounted to the support and defining an axis of rotation, a gear mounted to the axle for rotation relative to the axle about the axis of rotation, a pin , and a thrust washer disposed axially adjacent to the gear and blocked against rotation relative to the support about the axis of rotation, the thrust washer comprising a through-hole and a first channel and a second channel , the axle disposed in the through-hole , the pin disposed in the channels and extending into the axle , wherein the thrust washer comprises a first bight projecting axially into the support and comprising the first channel , the thrust washer comprises a second bight projecting axially into the support and comprising the second channel , characterized in that the support comprises a first groove and a second groove , and the first and second bights project axially respectively into, so as to be disposed respectively in, the first and second grooves . a support , an axle mounted to the support and defining an axis of rotation, a gear mounted to the axle for rotation relative to the axle about the axis of rotation, a pin , and a thrust washer disposed axially adjacent to the gear and blocked against rotation relative to the support about the axis of rotation, the thrust washer comprising a through-hole and a first channel and a second channel , the axle disposed in the through-hole , the pin disposed in the channels and extending into the axle , wherein the thrust washer comprises a first bight projecting axially into the support and comprising the first channel , the thrust washer comprises a second bight projecting axially into the support and comprising the second channel , characterized in that the support comprises a first groove and a second groove , and the first and second bights project axially respectively into, so as to be disposed respectively in, the first and second grooves .
Method for avoiding a collision of a motor vehicle with an object , in which the object is detected in surroundings of the motor vehicle , a relative position between the motor vehicle and the object is determined and the relative position between the motor vehicle and the object is taken as a basis for determining at least one collision-avoiding measure, wherein a maximum predefinable wheel steering angle range (rm) is determined, a blocked wheel steering angle range (rb), for which the collision with the object is a threat and is avoidable, and a warning wheel steering angle range (rw), for which a collision with the object is not a threat, and which adjoins the blocked wheel steering angle range (rb), are determined in the maximum predefinable wheel steering angle range (rm) on the basis of the relative position between the motor vehicle and the object , a first collision-avoiding measure is determined for the blocked wheel steering angle range (rb) and a second collision-avoiding measure is determined for the warning wheel steering angle range (rw), the second collision-avoiding measure being initiated if the current wheel steering angle is in the warning wheel steering angle range (rw), and wherein a steering movement performed by the driver within the warning wheel steering angle range (rw) is detected and, if the detected steering movement is in the direction of the blocked wheel steering angle range (rb), the second collision-avoiding measure performed is a steering intervention in the opposite direction to the steering movement.
Shuttle-less weaving machine suitable for making a fabric comprising a fabric weft saving device, said device being located and operating between a fabric-forming area which comprises a comb configured to beat the weft tails of the fabric and a temple configured to transversely stretch said fabric , said comb and said temple being positioned on an opposite side with respect to a cylinder configured to wrap the fabric , said fabric weft saving device comprising a guiding plane for guiding said fabric , which is located downstream of said comb and of said temple , and a shear having a fixed blade , which is located below said fabric and downstream of said guiding plane , and a movable blade cooperating with said fixed blade , wherein said fabric weft saving device also comprises - pneumatic and/or mechanical devices, configured for sliding said weft tails of the fabric onto said guiding plane and towards said fixed blade and said movable blade of said shear , thus maintaining said weft tails of the fabric protruding and extended; - a suction system , positioned below said guiding plane and below said fixed blade of said shear , which is configured to recover excess weft tails of the fabric , characterized in that said suction system comprises a suction nozzle made with a series of wrapped and superimposed layers with a spiral-shaped section, of which at least two layers are configured so that said fabric longitudinally slides and at least one third layer is configured to suck and prepare for cutting said weft tails, by means of at least one of said fixed and movable blades of the shear . - pneumatic and/or mechanical devices, configured for sliding said weft tails of the fabric onto said guiding plane and towards said fixed blade and said movable blade of said shear , thus maintaining said weft tails of the fabric protruding and extended; - a suction system , positioned below said guiding plane and below said fixed blade of said shear , which is configured to recover excess weft tails of the fabric ,
A rubber blend comprising: (i) a natural rubber present in an amount of about 40 to about 60 phr; and (ii) at least one propylene-based elastomer comprising at least about 80 wt% propylene-derived units and about 5 to about 20 wt% ethylene-derived units, by weight of the propylene-based elastomer, wherein the at least one propylene-based elastomer has a viscosity at 190°C from about 500 to about 8000 mPa·s and a melting temperature of about 90°C to about 105°C, and wherein the at least one propylene-based elastomer is present in an amount of about 1 to about 3 phr. (i) a natural rubber present in an amount of about 40 to about 60 phr; and (ii) at least one propylene-based elastomer comprising at least about 80 wt% propylene-derived units and about 5 to about 20 wt% ethylene-derived units, by weight of the propylene-based elastomer, wherein the at least one propylene-based elastomer has a viscosity at 190°C from about 500 to about 8000 mPa·s and a melting temperature of about 90°C to about 105°C, and wherein the at least one propylene-based elastomer is present in an amount of about 1 to about 3 phr.
A system for separating native heart valve leaflets attached together by a fixation device , comprising: an elongate shaft having a proximal end portion , a distal end portion and a longitudinal axis extending therebetween, the elongate shaft configured for transvascular delivery of the distal end portion to a native heart valve; a balloon disposed at the distal end portion of the elongate shaft, the balloon inflatable from a collapsed condition to an inflated condition; at least one snare lumen extending along at least a portion of the balloon, the at least one snare lumen having an exit port defined therein, wherein the exit port is disposed at an intermediate location along a length of the balloon; and a snare deployable through the exit port from a delivery position within the at least one snare lumen to an extended position extending beyond the exit port, the snare in the extended position configured to capture the fixation device. an elongate shaft having a proximal end portion , a distal end portion and a longitudinal axis extending therebetween, the elongate shaft configured for transvascular delivery of the distal end portion to a native heart valve; a balloon disposed at the distal end portion of the elongate shaft, the balloon inflatable from a collapsed condition to an inflated condition; at least one snare lumen extending along at least a portion of the balloon, the at least one snare lumen having an exit port defined therein, wherein the exit port is disposed at an intermediate location along a length of the balloon; and a snare deployable through the exit port from a delivery position within the at least one snare lumen to an extended position extending beyond the exit port, the snare in the extended position configured to capture the fixation device.
Structure of boot which includes an upper, comprising a bootleg (100.1) substantially cylindrical in shape and presenting an open upper edge, a lateral external surface, and a lateral internal surface, wherein the upper further comprises a lower portion (100.2) that corresponds to the foot, the structure of boot further comprising a sole (100.3) presenting an anterior portion (100.3.1), a central portion (100.3.2) and a posterior portion which comprises a heel (100.3.4), wherein - the bootleg (100.1) and the lower portion (100.2) of the upper are realized by weaving with linear and circular machines of yarns to obtain a single unit of knit ; - the lateral internal surface of the bootleg (100.1) includes a first reinforcing element and a second reinforcing element (4.1), - anteriorly, laterally and posteriorly to the lower portion (100.2) of the upper and to the posterior portion of the bootleg (100.1) result associated reinforcing and protective elements (5.1, 5.2, 5.3,5.4), - the lower portion (100.2) of the upper placed in correspondence with the heel, presents a series of inserts (6, 6.1-6.n), said inserts (6.6.1 -6). N) being positioned one above the other from the heel position to the ankle position, said boot characterized in that - the first reinforcing element of the bootleg (100.1) is constituted by a surface which extends from the upper end of the bootleg (100.1) up to half the length of the bootleg (100.1) itself, said surface extending at the bottom along the width of the bootleg (100.1), - the second reinforcing element (4.1) of the bootleg (100.1) is constituted by a flat surface which extends from the upper end of the bootleg (100.1) up to half the length of the bootleg (100.1) itself and above the lower end of the first reinforcing element . - the bootleg (100.1) and the lower portion (100.2) of the upper are realized by weaving with linear and circular machines of yarns to obtain a single unit of knit ; - the lateral internal surface of the bootleg (100.1) includes a first reinforcing element and a second reinforcing element (4.1), - anteriorly, laterally and posteriorly to the lower portion (100.2) of the upper and to the posterior portion of the bootleg (100.1) result associated reinforcing and protective elements (5.1, 5.2, 5.3,5.4), - the lower portion (100.2) of the upper placed in correspondence with the heel, presents a series of inserts (6, 6.1-6.n), said inserts (6.6.1 -6). N) being positioned one above the other from the heel position to the ankle position, said boot characterized in that - the first reinforcing element of the bootleg (100.1) is constituted by a surface which extends from the upper end of the bootleg (100.1) up to half the length of the bootleg (100.1) itself, said surface extending at the bottom along the width of the bootleg (100.1), - the second reinforcing element (4.1) of the bootleg (100.1) is constituted by a flat surface which extends from the upper end of the bootleg (100.1) up to half the length of the bootleg (100.1) itself and above the lower end of the first reinforcing element .