mhurhangee/ep-ind-claims huggingface dataset:
Method of manufacturing a cement from a cement clinker comprising at least two kinds of clinker phases with differing grindability, comprising the steps: - feeding the cement clinker to a first milling stage - grinding the cement clinker in the first milling stage with a setting of grinding power and grinding time that allows grinding an easier to grind phase to a predetermined maximum particle size while a harder to grind phase maintains a particle size larger than the predetermined maximum particle size - transferring the output from the first milling stage to a first separator dividing the output into a first fraction with the predetermined maximum particle size and a second fraction with a larger particle size - transferring the second fraction with a larger particle size to a second milling stage - grinding the second fraction with a larger particle size in the second milling stage to a final maximum particle smaller than the predetermined maximum particle size and - combining the first fraction with the predetermined maximum particle size, optionally after grinding in a third mill, with the second fraction with a larger particle size after the first milling stage and ground to a final maximum particle size below the predetermined maximum particle size in the second milling stage, wherein the harder to grind phase has a higher fineness than the easier to grind phase. - feeding the cement clinker to a first milling stage - grinding the cement clinker in the first milling stage with a setting of grinding power and grinding time that allows grinding an easier to grind phase to a predetermined maximum particle size while a harder to grind phase maintains a particle size larger than the predetermined maximum particle size - transferring the output from the first milling stage to a first separator dividing the output into a first fraction with the predetermined maximum particle size and a second fraction with a larger particle size - transferring the second fraction with a larger particle size to a second milling stage - grinding the second fraction with a larger particle size in the second milling stage to a final maximum particle smaller than the predetermined maximum particle size and - combining the first fraction with the predetermined maximum particle size, optionally after grinding in a third mill, with the second fraction with a larger particle size after the first milling stage and ground to a final maximum particle size below the predetermined maximum particle size in the second milling stage, wherein the harder to grind phase has a higher fineness than the easier to grind phase.
Leaf spring of a hold-down assembly for brake pads of an automotive disc brake, extending on the outside of the hold-down in its longitudinal direction and having two main sides (9.1, 9.2) and consecutively a first spring end, an intermediate spring portion and a second spring end, characterized in that the terminal part of each spring end (9a, 9c) is formed by positive fit elements (10a, 10c) which extend relative to the main sides (9.1, 9.2) in opposite directions away from the main sides in such a way that the first positive fit element is on the first main side (9.1) and that the second positive fit element is on the second main side (9.2), and wherein the leaf spring has at least two bends (9f, 9e) of opposite bending directions, of which the outside of the bend of the bend closest to the first spring end is on the first main side (9.2) and the outside of the bend of the at least one further bend is on the first main side (9.1).
A liquid discharge apparatus comprising: a liquid discharge head including a nozzle face in which nozzles are formed to discharge liquid from the nozzles; a carriage on which the liquid discharge head is mounted, the carriage configured to move in a horizontal direction and a vertical direction; and a maintenance unit configured to maintain the liquid discharge head, wherein the maintenance unit includes: a wiper configured to wipe the nozzle face of the liquid discharge head; a conveyor configured to reciprocally move the wiper between a retracted position and a wiping position; and a cover configured to move in the vertical direction to cover the wiper at the retracted position; characterized in that the cover is configured to contact with the carriage movable in the vertical direction; wherein the carriage is configured to move downward to contact and push the cover downward. a liquid discharge head including a nozzle face in which nozzles are formed to discharge liquid from the nozzles; a carriage on which the liquid discharge head is mounted, the carriage configured to move in a horizontal direction and a vertical direction; and a maintenance unit configured to maintain the liquid discharge head, wherein the maintenance unit includes: a wiper configured to wipe the nozzle face of the liquid discharge head; a conveyor configured to reciprocally move the wiper between a retracted position and a wiping position; and a cover configured to move in the vertical direction to cover the wiper at the retracted position; characterized in that the cover is configured to contact with the carriage movable in the vertical direction; wherein the carriage is configured to move downward to contact and push the cover downward. a wiper configured to wipe the nozzle face of the liquid discharge head; a conveyor configured to reciprocally move the wiper between a retracted position and a wiping position; and a cover configured to move in the vertical direction to cover the wiper at the retracted position; characterized in that the cover is configured to contact with the carriage movable in the vertical direction; wherein the carriage is configured to move downward to contact and push the cover downward.
Electromechanical conversion device comprising: a resonant electrical circuit comprising an inductance and a capacitor, the capacitor having at least a first electrode and a second electrode; and a mechanical oscillator comprising at least one microbeam (MP, MP1) formed in a membrane, the first and second electrodes (EC1, EC2) being located side by side and the first electrode of the capacitor being located on a face of the microbeam (MP, MP1) in such a way that the electrical capacitance of the capacitor varies when the mechanical oscillator oscillates; device wherein the inductance comprises an electric track of very low thickness made on the membrane and made of a superconductive material chosen in such a way as to obtain an electric track having a high kinetic inductance, three times greater than its magnetic inductance.
A screw assembly comprising: a screw having a shank and a head; an insert having threads on an exterior surface and an opening configured extending therethrough and to receive the head of the screw; and a housing having a passage therethrough, the passage having a distal section and a proximal section, wherein the distal section receives the screw head, the passage at the distal section being partially threaded for engaging the threads on the insert, characterised in that: the screw assembly is polyaxial; the shank of the screw is movable relative to a longitudinal axis of the housing; a coupling releasably attachable to the head of the screw engages the head of the screw such that the screw is pivotable relative to the longitudinal axis at a predetermined angle; the coupling has a series of radial knobs and the screw head has a series of radially located gaps configured to accept the series of radial knobs; and the interaction between the coupling and the head of the screw permits the screw to be driven in response to a driver tool which engages the coupling, even if the screw is disposed at an angle relative to the coupling. a screw having a shank and a head; an insert having threads on an exterior surface and an opening configured extending therethrough and to receive the head of the screw; and a housing having a passage therethrough, the passage having a distal section and a proximal section, wherein the distal section receives the screw head, the passage at the distal section being partially threaded for engaging the threads on the insert, characterised in that: the screw assembly is polyaxial; the shank of the screw is movable relative to a longitudinal axis of the housing; a coupling releasably attachable to the head of the screw engages the head of the screw such that the screw is pivotable relative to the longitudinal axis at a predetermined angle; the coupling has a series of radial knobs and the screw head has a series of radially located gaps configured to accept the series of radial knobs; and the interaction between the coupling and the head of the screw permits the screw to be driven in response to a driver tool which engages the coupling, even if the screw is disposed at an angle relative to the coupling. the screw assembly is polyaxial; the shank of the screw is movable relative to a longitudinal axis of the housing; a coupling releasably attachable to the head of the screw engages the head of the screw such that the screw is pivotable relative to the longitudinal axis at a predetermined angle; the coupling has a series of radial knobs and the screw head has a series of radially located gaps configured to accept the series of radial knobs; and the interaction between the coupling and the head of the screw permits the screw to be driven in response to a driver tool which engages the coupling, even if the screw is disposed at an angle relative to the coupling.
A ceramic core produced by sintering a mixture comprising 0.1 to 15.0 mass% of alumina, 0.005 to 0.1 mass% of at least one of potassium and sodium, and the balance being silica and inevitable impurities, wherein the silica comprises amorphous silica by not less than 90 mass% in relation to the whole silica.
A methotrexate multivesicular liposomes formulation consisting of 55 mM of methotrexate, 131 mM sodium hydroxide, 22 mM cholesterol, 22 mM tricaprylin, 3.08 mM DPPG, 14.52 mM DOPC, 38.7 mM of sucrose, and 69.3 mM sodium chloride, wherein administration by subcutaneous injection of a single dose of said formulation to a subject in need thereof results in a maximum serum concentration (C max) of said methotrexate of from 5% to 50% of the C max of an immediate release methotrexate solution by subcutaneous injection, wherein said immediate release methotrexate solution is a saline solution of methotrexate, and wherein the formulation is substantially cyclodextrin free, and wherein the duration of said methotrexate in the serum of the subject is from 1 to 30 days.
A compound having the structure of Formula I: wherein, is a double bond; Q is absent; G is selected from N, C and C(CH 3); J 1 is selected from N, N(CH 3), N(CH 2 CH 3), N(CF 3), C (CF 3), S and O; Z 1 is C or N; Z 2 is C or N; alternatively, Z 1 is N, when D 1 is absent; alternatively, Z 2 is N, when D 4 is absent; E 2 is absent; E 1 is L 1 -R 1; L 1 is selected from R 1 is selected from and alternatively, R 1 is provided that J 1 is selected from N, N(CH 2 CH 3), N(CF 3), C (CF 3), S and O; alternatively, R 1 is provided that J 1 is N(CH 3), L 1 is selected from and D 3 is selected from H, Br, F, Cl, NO 2, CF 3, OMe, CH 3 and OH; alternatively, R 1 is provided that J 1 is N(CH 3), L 1 is and D3 is selected from Br, F, Cl, OMe, CH 3 and OH; alternatively, R 1 is provided that J 1 is N(CH 3), L 1 is and D3 is selected from NO 2, CF 3,,OMe, CH 3 and OH; alternatively, R 1 is provided that D 3 is selected from Br, F, Cl and NO 2; alternatively, R 1 is provided that D 3 is selected from H, Br, F, Cl and NO 2; alternatively, R 1 is provided that D 3 is H; alternatively, R 1 is provided that J 1 is selected from N, N(CH 3) and O; alternatively, R 1 is provided that D 3 is selected from H, Br, F, Cl, CF 3 and NO 2; D 1 is selected from H, Br, F, Cl and OH; D 2 is selected from H, Br, F and Cl; D 3 is selected from H, Br, F, Cl, CF 3, OMe, CH 3 and OH; alternatively, D 3 is NO 2, provided that when R 1 is and when J 1 is O, D 3 is selected from H, Br, F, Cl, CF 3 and D 4 is selected from H, Br, F and Cl; provided that the compound is not is a double bond; Q is absent; G is selected from N, C and C(CH 3); J 1 is selected from N, N(CH 3), N(CH 2 CH 3), N(CF 3), C (CF 3), S and O; Z 1 is C or N; Z 2 is C or N; alternatively, Z 1 is N, when D 1 is absent; alternatively, Z 2 is N, when D 4 is absent; E 2 is absent; E 1 is L 1 -R 1; L 1 is selected from R 1 is selected from and alternatively, R 1 is provided that J 1 is selected from N, N(CH 2 CH 3), N(CF 3), C (CF 3), S and O; alternatively, R 1 is provided that J 1 is N(CH 3), L 1 is selected from and D 3 is selected from H, Br, F, Cl, NO 2, CF 3, OMe, CH 3 and OH; alternatively, R 1 is provided that J 1 is N(CH 3), L 1 is and D3 is selected from Br, F, Cl, OMe, CH 3 and OH; alternatively, R 1 is provided that J 1 is N(CH 3), L 1 is and D3 is selected from NO 2, CF 3,,OMe, CH 3 and OH; alternatively, R 1 is provided that D 3 is selected from Br, F, Cl and NO 2; alternatively, R 1 is provided that D 3 is selected from H, Br, F, Cl and NO 2; alternatively, R 1 is provided that D 3 is H; alternatively, R 1 is provided that J 1 is selected from N, N(CH 3) and O; alternatively, R 1 is provided that D 3 is selected from H, Br, F, Cl, CF 3 and NO 2; D 1 is selected from H, Br, F, Cl and OH; D 2 is selected from H, Br, F and Cl; D 3 is selected from H, Br, F, Cl, CF 3, OMe, CH 3 and OH; alternatively, D 3 is NO 2, provided that when R 1 is and when J 1 is O, D 3 is selected from H, Br, F, Cl, CF 3 and D 4 is selected from H, Br, F and Cl; provided that the compound is not
A 3D printer, comprising: a) a chamber, optionally containing a biological material; b) a dosing unit for bringing at least one enzyme in contact with a material present in the chamber; and c) a control unit, characterized in that the dosing unit contains at least one enzyme suitable for catalyzing a reaction suitable for effectuating a covalent bonding of biological material, and the control unit is configured to prompt the process of bringing the at least one enzyme in contact with a biological material present in the chamber. a) a chamber, optionally containing a biological material; b) a dosing unit for bringing at least one enzyme in contact with a material present in the chamber; and c) a control unit, characterized in that the dosing unit contains at least one enzyme suitable for catalyzing a reaction suitable for effectuating a covalent bonding of biological material, and the control unit is configured to prompt the process of bringing the at least one enzyme in contact with a biological material present in the chamber.
A ride system to control ride vehicle motion, comprising: a carriage configured to receive and secure a ride vehicle and to transport the ride vehicle from along a first ride path of the ride system to a second ride path of the ride system; and a plurality of pulley systems drivingly coupled to the carriage, each pulley system of the plurality of pulley systems comprising: a pulley; a pulley cable engaged with the pulley and attached to a portion of the carriage; and a motor drivingly coupled to the pulley to drive pulley motion and pulley cable motion, and thereby cause the portion of the carriage to displace in accordance with the pulley motion and the pulley cable motion; and characterised in that the ride system further comprises a control system communicatively coupled to the carriage and the plurality of pulley systems, wherein the control system is configured to actuate the motor of each pulley system to drive the respective pulley motion and pulley cable motion, and wherein the control system is configured to control the pulley cables to rotate the carriage about a longitudinal axis, a lateral axis, and/ or a vertical axis. a carriage configured to receive and secure a ride vehicle and to transport the ride vehicle from along a first ride path of the ride system to a second ride path of the ride system; and a plurality of pulley systems drivingly coupled to the carriage, each pulley system of the plurality of pulley systems comprising: a pulley; a pulley cable engaged with the pulley and attached to a portion of the carriage; and a motor drivingly coupled to the pulley to drive pulley motion and pulley cable motion, and thereby cause the portion of the carriage to displace in accordance with the pulley motion and the pulley cable motion; and a pulley; a pulley cable engaged with the pulley and attached to a portion of the carriage; and a motor drivingly coupled to the pulley to drive pulley motion and pulley cable motion, and thereby cause the portion of the carriage to displace in accordance with the pulley motion and the pulley cable motion; and characterised in that the ride system further comprises a control system communicatively coupled to the carriage and the plurality of pulley systems, wherein the control system is configured to actuate the motor of each pulley system to drive the respective pulley motion and pulley cable motion, and wherein the control system is configured to control the pulley cables to rotate the carriage about a longitudinal axis, a lateral axis, and/ or a vertical axis.
A color developing machine comprising a color developing unit that is configured to heat and color develop a print medium, on which ink is attached, characterized in that the color developing unit includes a transportation path in which a carry-in port, which is an opening on an upper end side in the transportation path, and a carry-out port of the print medium, which is an opening on a lower end side in the transportation path, are in communication with outside air, the transportation path extending in a vertical direction, wherein the color developing unit includes a heating unit with a plurality of heaters, wherein at least some of the plurality of heaters are arranged along a width direction of the print medium, which is a direction orthogonal to a transporting direction of the print medium, wherein the at least some heaters are arranged at equal intervals excluding the heaters of the at least some heaters that are arranged at the lowermost side with respect to the transporting direction, wherein the heaters at the lowermost side are arranged so that the interval is shorter than the interval of the other heaters of the at least some heaters, and wherein the color developing machine includes a control unit that is configured to independently carry out heating control for each of a plurality of sets of the heaters.
A terminal comprising: a receiving section configured to receive a first downlink control information, DCI, scheduling a first Physical Uplink Shared channel, PUSCH, of a first cell; a control section configured to perform, in a case where the receiving section further receives, after the first DCI, a second DCI scheduling a second PUSCH of a second cell and wherein the second PUSCH overlaps the first PUSCH, a control in which only the first PUSCH among the first PUSCH and the second PUSCH is considered in a calculation of a power headroom report, PHR, in the first PUSCH and in which it is assumed that the second PUSCH is not present for the calculation of the PHR; and a transmission section configured to transmit the PHR in the first PUSCH, wherein a transmission duration of the first PUSCH is longer than a transmission duration of the second PUSCH. a receiving section configured to receive a first downlink control information, DCI, scheduling a first Physical Uplink Shared channel, PUSCH, of a first cell; a control section configured to perform, in a case where the receiving section further receives, after the first DCI, a second DCI scheduling a second PUSCH of a second cell and wherein the second PUSCH overlaps the first PUSCH, a control in which only the first PUSCH among the first PUSCH and the second PUSCH is considered in a calculation of a power headroom report, PHR, in the first PUSCH and in which it is assumed that the second PUSCH is not present for the calculation of the PHR; and a transmission section configured to transmit the PHR in the first PUSCH, wherein a transmission duration of the first PUSCH is longer than a transmission duration of the second PUSCH.
A method of forming a barrier, comprising: a. providing a glass flake loaded curable organic material comprising (i) at least one curable organic material, (ii) 5-95 vol% glass flakes based on the volume of organic material, b. applying the glass flake loaded curable organic material to at least one first substrate, and c. curing the curable organic material to form a barrier, wherein the glass flakes have an aspect ratio of 2-100 and a length of 0.1-2000 micrometer [microns]. a. providing a glass flake loaded curable organic material comprising (i) at least one curable organic material, (ii) 5-95 vol% glass flakes based on the volume of organic material, (i) at least one curable organic material, (ii) 5-95 vol% glass flakes based on the volume of organic material, b. applying the glass flake loaded curable organic material to at least one first substrate, and c. curing the curable organic material to form a barrier,
A processor-implemented method for testing a device, the method comprising: determining a plurality of test cases for testing the device; accessing a plurality of test scripts corresponding to the plurality of test cases; determining a plurality of primitive executables for each test script corresponding to the plurality of test cases, by: determining a plurality of steps for each test script; determining one or more primitive executables for each of the plurality of steps, wherein each primitive executable corresponds to an atomic operation to test the device; selecting a candidate test case from the plurality of test cases based on time for execution, component coverage and resource requirement of the plurality of primitive executables; transmitting Z for not, based on the availability of the device, the one or more primitive executables for a test script corresponding to the candidate test case in serial or parallel manner to the device for execution and receiving a result corresponding to the execution of the each of the one or more primitive executables. determining a plurality of test cases for testing the device; accessing a plurality of test scripts corresponding to the plurality of test cases; determining a plurality of primitive executables for each test script corresponding to the plurality of test cases, by: determining a plurality of steps for each test script; determining one or more primitive executables for each of the plurality of steps, wherein each primitive executable corresponds to an atomic operation to test the device; determining a plurality of steps for each test script; determining one or more primitive executables for each of the plurality of steps, wherein each primitive executable corresponds to an atomic operation to test the device; selecting a candidate test case from the plurality of test cases based on time for execution, component coverage and resource requirement of the plurality of primitive executables; transmitting Z for not, based on the availability of the device, the one or more primitive executables for a test script corresponding to the candidate test case in serial or parallel manner to the device for execution and receiving a result corresponding to the execution of the each of the one or more primitive executables.