mhurhangee/ep-ind-claims huggingface dataset:
A coating system on a ceramic matrix composite substrate, the coating system comprising: a bond coat on a surface of the CMC substrate; a first rare earth silicate coating on the bond coat, wherein the first rare earth silicate coating comprises at least one rare earth silicate layer; a sacrificial coating of a reinforced rare earth disilicate matrix on the at least one rare earth silicate layer, wherein the sacrificial coating has a thickness of 4 mils (0.1016 mm) to 40 mils (1.016 mm) a second rare earth silicate coating on the sacrificial coating, wherein the second rare earth silicate coating comprises at least one rare earth silicate layer; and an outer layer on the second rare earth silicate coating characterized in that the sacrificial coating comprises a plurality of coarse particles at a level of 30% to 65% by volume of the ceramic material, wherein the coarse particles have an average particle size of 5 microns to 100 microns, and wherein the coarse particles are selected from the list consisting of barium strontium aluminosilicate (BSAS) particles, silicon particles, or a mixture thereof, and wherein the sacrificial coating is deposited by a thick tape deposition method, which uses a reinforced rare earth disilicate matrix material, said matrix material being a mixture of a rare earth disilicate powder, sintering aids which promote densification at temperatures of 1260°C (2300°F) to 1371°C (2500°F), organic binder, plasticizer, and one or more solvents. a bond coat on a surface of the CMC substrate; a first rare earth silicate coating on the bond coat, wherein the first rare earth silicate coating comprises at least one rare earth silicate layer; a sacrificial coating of a reinforced rare earth disilicate matrix on the at least one rare earth silicate layer, wherein the sacrificial coating has a thickness of 4 mils (0.1016 mm) to 40 mils (1.016 mm) a second rare earth silicate coating on the sacrificial coating, wherein the second rare earth silicate coating comprises at least one rare earth silicate layer; and an outer layer on the second rare earth silicate coating characterized in that the sacrificial coating comprises a plurality of coarse particles at a level of 30% to 65% by volume of the ceramic material, wherein the coarse particles have an average particle size of 5 microns to 100 microns, and wherein the coarse particles are selected from the list consisting of barium strontium aluminosilicate (BSAS) particles, silicon particles, or a mixture thereof, and wherein the sacrificial coating is deposited by a thick tape deposition method, which uses a reinforced rare earth disilicate matrix material, said matrix material being a mixture of a rare earth disilicate powder, sintering aids which promote densification at temperatures of 1260°C (2300°F) to 1371°C (2500°F), organic binder, plasticizer, and one or more solvents.
A suction pad (10, 60) comprising: a body; and a sponge member, wherein the body includes a negative pressure chamber, and a plurality of communication passages configured to communicate with the negative pressure chamber, and the sponge member includes a plurality of cavities configured to open toward a workpiece and communicate with the negative pressure chamber through the communication passages, a flow passage adjustment valve configured to adjust a flow passage area is disposed in each of the communication passages, and when vacuum pressure is generated in the negative pressure chamber and a cavity among the plurality of cavities is not closed by the workpiece, a flow passage area of a communication passage among the communication passages that corresponds to the cavity that is not closed by the workpiece is adjusted to be decreased, and the suction pad (10, 60) further comprises a pressure detection port configured to detect pressure in at least one cavity among the plurality of cavities, the pressure detection port is provided in plurality, characterized in that the body includes a plurality of detection passages configured to communicate with corresponding cavities of the sponge member, each of the detection passages vertically passes through the body, and an end of each of the detection passages forms each of the pressure detection ports, and each of the pressure detection ports is disposed near a center of each of four sides of an upper surface of the body. wherein the body includes a negative pressure chamber, and a plurality of communication passages configured to communicate with the negative pressure chamber, and the sponge member includes a plurality of cavities configured to open toward a workpiece and communicate with the negative pressure chamber through the communication passages, a flow passage adjustment valve configured to adjust a flow passage area is disposed in each of the communication passages, and when vacuum pressure is generated in the negative pressure chamber and a cavity among the plurality of cavities is not closed by the workpiece, a flow passage area of a communication passage among the communication passages that corresponds to the cavity that is not closed by the workpiece is adjusted to be decreased, and the suction pad (10, 60) further comprises a pressure detection port configured to detect pressure in at least one cavity among the plurality of cavities, the pressure detection port is provided in plurality, characterized in that the body includes a plurality of detection passages configured to communicate with corresponding cavities of the sponge member, each of the detection passages vertically passes through the body, and an end of each of the detection passages forms each of the pressure detection ports, and each of the pressure detection ports is disposed near a center of each of four sides of an upper surface of the body.
Machine train composed of a road milling machine that travels in front and comprises a machine frame supported by crawler tracks (3, 4) or wheels and a milling drum arranged on the machine frame that is for milling away material, and a road finisher that travels behind and comprises a machine frame which is supported by crawler tracks or wheels and on which a reservoir for material to be laid and a screed for laying material are arranged, wherein the road finisher comprises a levelling device for adjusting the position of the screed, and the levelling device is configured so that the position of the screed in relation to a reference line or reference surface can be changed, wherein the road milling machine comprises a profile data determining device for the levelling device of the road finisher, the profile data determining device being configured so that a sequence of height profile data describing the height of the road surface in the longitudinal direction is determined while the road milling machine advances, and comprises a data transmission device for transmitting the height profile data to the road finisher, and the tracks (4, 5) or wheels of the road milling machine are fastened via lifting columns (8, 9) to the machine frame in such a manner that the height of the machine frame relative to the surface of the ground can be changed in order to adjust the milling depth of the milling drum, characterized in that the milling machine comprises a milling depth control device that is for controlling the lifting columns (8, 9) and comprises a first measurement device for measuring the distance of a reference point on the road milling machine to the surface of the unprocessed ground on the left side of the milling drum as seen in the working direction, and a second measurement device for measuring the distance of a reference point on the road milling machine to the surface of the unprocessed ground on the right side of the milling drum as seen in the working direction A, wherein the milling depth control device is configured so that the lifting columns (8, 9) are controlled such that when the road milling machine advances, the milling depth on the left and right side of the milling drum as seen in the working direction is kept substantially constant, regardless of the condition of the ground surface, and wherein the road milling machine comprises a transverse incline sensor that generates a sequence of transverse incline data in accordance with the transverse incline of the machine frame, wherein the profile data determining device is configured so that the height profile data is obtained from the transverse incline data.
A system comprising: a cache directory (325, 345, 360) configured to: maintain an entry (705A, 705B) for each region of memory which has at least one cache line cached in a cache subsystem (320, 335, 355) of the system comprising one or more cache subsystems, wherein a region comprises a plurality of cache lines; maintain a reference count for each entry of the cache directory, wherein the reference count is configured to track a number of cache lines of a corresponding region that are cached in a corresponding cache subsystem of the system; monitor reference count fields of entries in a first array; track a given region on a finer granularity basis than a previous granularity basis, responsive to detecting the reference count for the given region has exceeded a threshold; create an entry in a second array responsive to receiving a memory request targeting the given region after detecting that the reference count has exceeded the threshold; reclaim a given entry responsive to the reference count for the given entry reaching zero; and perform lookups to the first and second arrays in parallel in response to receiving a memory request. maintain an entry (705A, 705B) for each region of memory which has at least one cache line cached in a cache subsystem (320, 335, 355) of the system comprising one or more cache subsystems, wherein a region comprises a plurality of cache lines; maintain a reference count for each entry of the cache directory, wherein the reference count is configured to track a number of cache lines of a corresponding region that are cached in a corresponding cache subsystem of the system; monitor reference count fields of entries in a first array; track a given region on a finer granularity basis than a previous granularity basis, responsive to detecting the reference count for the given region has exceeded a threshold; create an entry in a second array responsive to receiving a memory request targeting the given region after detecting that the reference count has exceeded the threshold; reclaim a given entry responsive to the reference count for the given entry reaching zero; and perform lookups to the first and second arrays in parallel in response to receiving a memory request.
A borescope system for inspecting and profiling boreholes, comprising: a housing extending from a first end toward a second end, the housing including a first transparent viewing section extending circumferentially around a longitudinal axis of the housing and defining an exterior of a portion of the housing; a first camera configured to rotate about the longitudinal axis of the housing, and also pivot relative to the longitudinal axis of the housing; and a second camera disposed within the housing, the second camera being configured to rotate about the longitudinal axis of the housing, wherein the second camera is configured to visualize a field of view exterior of the housing through the first transparent viewing section. a housing extending from a first end toward a second end, the housing including a first transparent viewing section extending circumferentially around a longitudinal axis of the housing and defining an exterior of a portion of the housing; a first camera configured to rotate about the longitudinal axis of the housing, and also pivot relative to the longitudinal axis of the housing; and a second camera disposed within the housing, the second camera being configured to rotate about the longitudinal axis of the housing, wherein the second camera is configured to visualize a field of view exterior of the housing through the first transparent viewing section.
A method of operating a mobile device that is configured for use in a first radio access network that uses a first radio access technology and a second radio access network that uses a second, different, radio access technology, the mobile device aggregating a plurality of carriers in the first radio access network, the method comprising: obtaining information for, or pertaining to, one or more of the plurality of aggregated carriers in the first radio access network comprising measuring one or more signal quality parameters for a primary carrier of the mobile device from the plurality of aggregated carriers in the first radio access network; and processing the obtained information for the primary carrier of the plurality of aggregated carriers in the first radio access network to determine an action for the mobile device to take with respect to the second radio access network. obtaining information for, or pertaining to, one or more of the plurality of aggregated carriers in the first radio access network comprising measuring one or more signal quality parameters for a primary carrier of the mobile device from the plurality of aggregated carriers in the first radio access network; and processing the obtained information for the primary carrier of the plurality of aggregated carriers in the first radio access network to determine an action for the mobile device to take with respect to the second radio access network.
Welding device, in particular a welding gun, for welding a welding stud to a substrate along a welding axis in a welding direction, comprising an inert gas cover with a welding chamber and comprising a holding device for holding the welding stud within the welding chamber during a welding operation, wherein the inert gas cover has an input channel, a distribution chamber, a multiplicity of first connecting channels and an inert gas inlet into the welding chamber, wherein an inert gas feed line is connectable to the input channel, wherein the input channel opens into the distribution chamber, characterized in that the first connecting channels open into the distribution chamber at different distances from the input channel, wherein the first connecting channels connect the distribution chamber pneumatically to the inert gas outlet, and wherein a common cross-sectional area of the first connecting channels is all the greater, the greater the distance from the input channel at which the first connecting channels open into the distribution chamber.
A method of forming one or more composite structures, the method comprising: forming one or more carbon structures from a carbon source via a hydrothermal process; and introducing iron onto the one or more carbon structures to form the one or more composite structures comprising carbon and one or more nanostructures comprising iron; wherein forming the one or more carbon structures from the carbon source further comprises introducing a seeding additive to the carbon source, the seeding additive being a potassium salt or a phosphate salt; and wherein introducing iron onto the one or more carbon structures to form the one or more composite structures comprises: dissolving an iron salt in a suitable solvent to form a precursor solution; mixing the precursor solution and a suspension comprising the one or more carbon structures to form a resultant mixture; drying the resultant mixture comprising the iron salt and the one or more carbon structures; and adding an anti-agglomeration additive to the resultant mixture before drying the resultant mixture; wherein the anti-agglomeration additive is any one selected from a group consisting of glucosamine, melamine, and a combination thereof. forming one or more carbon structures from a carbon source via a hydrothermal process; and introducing iron onto the one or more carbon structures to form the one or more composite structures comprising carbon and one or more nanostructures comprising iron; wherein forming the one or more carbon structures from the carbon source further comprises introducing a seeding additive to the carbon source, the seeding additive being a potassium salt or a phosphate salt; and wherein introducing iron onto the one or more carbon structures to form the one or more composite structures comprises: dissolving an iron salt in a suitable solvent to form a precursor solution; mixing the precursor solution and a suspension comprising the one or more carbon structures to form a resultant mixture; drying the resultant mixture comprising the iron salt and the one or more carbon structures; and dissolving an iron salt in a suitable solvent to form a precursor solution; mixing the precursor solution and a suspension comprising the one or more carbon structures to form a resultant mixture; drying the resultant mixture comprising the iron salt and the one or more carbon structures; and adding an anti-agglomeration additive to the resultant mixture before drying the resultant mixture; wherein the anti-agglomeration additive is any one selected from a group consisting of glucosamine, melamine, and a combination thereof.
Fuel delivery system, the fuel delivery system having a fuel filter which cleans fuel sucked in from a storage pot; a suction jet pump for filling the storage pot with fuel from a fuel tank; wherein a drive line connects the suction jet pump to the fuel filter; wherein a first pressure, valve is provided on the drive line, said first pressure valve opening automatically in the direction of the suction jet pump when a pressure on the fuel filter side exceeds a first threshold value, wherein the first threshold value is between a vapour pressure of the fuel at a switch-off temperature of the fuel delivery system and a system pressure, wherein a first non-return valve is provided between the fuel pump and the fuel filter, said first non-return valve opening in the direction of the fuel filter, wherein a feed line for connecting to an internal combustion engine is provided downstream of the fuel filter, wherein a second pressure valve is provided on the feed line, said second pressure valve opening towards the fuel tank when a pressure in the feed line exceeds a second threshold value; characterized in that a second non-return valve is provided in the feed line, said second non-return valve opening in the direction of the internal combustion engine, and in that the second threshold value of the second pressure valve is greater than the first threshold value of the first pressure valve.
A cylinder sleeve (II, III) used in a V-type block of a crank circular slider mechanism, the V-type block comprising a piston which has a receiving hole for a circular slider and a circular slider received in the receiving hole, the block having a main journal hole and comprising a group of adjacent cylinders (11, 12) arranged in a V form intersecting in the position of the main journal hole, each of the cylinders (11, 12) in the group of adjacent cylinders (11, 12) extending through the main journal hole respectively, wherein said cylinders (11, 12) each extend through the main journal hole with an axial length beyond the main journal hole, wherein the axial length is long enough for providing a reciprocating range required for the reciprocating motion of the part of the piston located beneath the receiving hole for the circular slider, characterized in that the cylinder sleeve is a thin wall cylinder body whose axial length is sized so as to receive the whole reciprocating motion of the piston of the crank circular slider mechanism; the cylinder sleeve is provided with a through hole having an axis intersecting vertically the central axis of the thin wall cylinder block, the through hole is located in the cylinder sleeve in the axial direction permitting in such a way that it just faces the main journal hole; after the cylinder sleeve fits into the cylinder, the through hole is used for passage of the crank pin of the crankshaft and is also referred to as the crankshaft passage hole; a part of the side wall of the cylinder sleeve is cut out to form an avoidance opening which is located so that one of the two circles where the crankshaft passage hole intersects the cylinder sleeve (II, III) is cut through by the avoidance opening, the other circle just faces the avoidance opening; in the axial part of the cylinder sleeve (II, III) in which the avoidance opening lies, the cylinder sleeve (II, III), after being cut out by the avoidance opening and the circles, is left on the two sides with a width enough for providing a guiding plan for the guiding portion of the piston fitted in the cylinder sleeve (II, III).
A method of preparing a transparent thermoplastic resin, the method comprising: a first polymerization step of polymerizing 50 to 80 % by weight relative to the weight of the transparent thermoplastic resin of an aromatic vinyl compound, 10 to 30 % by weight relative to the weight of the transparent thermoplastic resin of a vinyl cyanide compound, and 0 to 15 % by weight of (meth)acrylic acid alkyl ester relative to the weight of the transparent thermoplastic resin; a second polymerization step of polymerizing by additionally adding 1 to 10 % by weight relative to the weight of the transparent thermoplastic resin of the aromatic vinyl compound; and an obtainment step of obtaining a transparent thermoplastic resin, and wherein the first polymerization step is performed at 105 to 115 °C. a first polymerization step of polymerizing 50 to 80 % by weight relative to the weight of the transparent thermoplastic resin of an aromatic vinyl compound, 10 to 30 % by weight relative to the weight of the transparent thermoplastic resin of a vinyl cyanide compound, and 0 to 15 % by weight of (meth)acrylic acid alkyl ester relative to the weight of the transparent thermoplastic resin; a second polymerization step of polymerizing by additionally adding 1 to 10 % by weight relative to the weight of the transparent thermoplastic resin of the aromatic vinyl compound; and an obtainment step of obtaining a transparent thermoplastic resin, and wherein the first polymerization step is performed at 105 to 115 °C.
A system for a knee replacement surgery comprising: a tibial cut guide (134, 334) having a first guide portion (204, 304) configured to couple with and be adjustable relative to a second guide portion (206, 306), wherein the first guide portion is configured to define a sagittal cut slot and a proximal cut slot, wherein the first guide portion is rotatable relative to the second guide portion about a proximal-distal axis to adjust an angle of the sagittal cut slot and the proximal cut slot with respect to an anterior-posterior axis; and an alignment guide configured for extramedullary mounting to the patient and configured to couple with the second guide portion of the tibial cut guide, the alignment guide having a first mechanism and a second mechanism of differing construction, the first mechanism and the second mechanism are both configured to be actuated to facilitate extension and retraction of the alignment guide to position the tibial cut guide in a desired proximal-distal location relative a tibia of a patient when the tibial cut guide and the alignment guide are assembled together. a tibial cut guide (134, 334) having a first guide portion (204, 304) configured to couple with and be adjustable relative to a second guide portion (206, 306), wherein the first guide portion is configured to define a sagittal cut slot and a proximal cut slot, wherein the first guide portion is rotatable relative to the second guide portion about a proximal-distal axis to adjust an angle of the sagittal cut slot and the proximal cut slot with respect to an anterior-posterior axis; and an alignment guide configured for extramedullary mounting to the patient and configured to couple with the second guide portion of the tibial cut guide, the alignment guide having a first mechanism and a second mechanism of differing construction, the first mechanism and the second mechanism are both configured to be actuated to facilitate extension and retraction of the alignment guide to position the tibial cut guide in a desired proximal-distal location relative a tibia of a patient when the tibial cut guide and the alignment guide are assembled together.