mhurhangee/ep-ind-claims huggingface dataset:
An architecture for live testing, comprising: - a platform independent Test Planner for generating a test package in response to receiving an event; and - a platform dependent Test Execution Framework, TEF, for executing the test package in an environment serving live traffic, wherein generating the test package comprises: - selecting test goals corresponding to the event; - generating a test suite comprising test cases and test design techniques selected to achieve the test goals; and - generating a test plan comprising partially ordered Test Suite Item runs, TSIs, wherein each TSI combines a test configuration with at least one test suite item, wherein generating the test suite is based on a runtime state of a system to be tested and wherein information about the selected test cases and about the selected test design techniques is complemented with appropriate test isolation methods and contingency plans to minimize any impact on live traffic. - a platform independent Test Planner for generating a test package in response to receiving an event; and - a platform dependent Test Execution Framework, TEF, for executing the test package in an environment serving live traffic, wherein generating the test package comprises: - selecting test goals corresponding to the event; - generating a test suite comprising test cases and test design techniques selected to achieve the test goals; and - generating a test plan comprising partially ordered Test Suite Item runs, TSIs, wherein each TSI combines a test configuration with at least one test suite item, - selecting test goals corresponding to the event; - generating a test suite comprising test cases and test design techniques selected to achieve the test goals; and - generating a test plan comprising partially ordered Test Suite Item runs, TSIs, wherein each TSI combines a test configuration with at least one test suite item, wherein generating the test suite is based on a runtime state of a system to be tested and wherein information about the selected test cases and about the selected test design techniques is complemented with appropriate test isolation methods and contingency plans to minimize any impact on live traffic.
A seal ring, which is to be used in a hydraulic sealing device including a housing having a shaft hole and a shaft to be inserted into the shaft hole, the seal ring to be mounted to a shaft annular groove formed in the shaft, to be brought into contact with an inner peripheral surface of the housing, and to be brought into slidably contact with a side wall surface of the shaft annular groove, which is opposed to a side to which a sealed fluid flows, so as to seal an annular groove between them, wherein, when an axial width of a seal ring outer peripheral surface is a first width, a longitudinal sectional shape of the sealing ring as viewed in a circumferential direction has the first width as a maximum axial width of the seal ring and has a level difference portion that forms a second width (a21, a211) smaller than the first width at a position of the shaft outer peripheral surface closer to a shaft center in a direction from the seal ring outer peripheral surface to a seal ring inner peripheral surface, wherein the level difference portion is present over an entire periphery in the circumferential direction on, at least, a seal ring contact surface among the seal ring contact surface and a seal ring pressure-receiving surface, the seal ring contact surface being slidably contact with the side wall surface of the shaft annular groove that forms the first width, the seal ring pressure-receiving surface being opposing to the seal ring contact surface, wherein the level difference portion is formed so that, at seal ring abutment joint portions of the seal ring which are opposed to each other, a center line of the second width on an abutment joint end surface on an inner periphery side of a seal ring abutment joint portion at one end at which the abutment joint end surface of the seal ring is positioned on the side to which the sealed fluid flows is positioned on a side closer to the seal ring pressure-receiving surface with respect to a center line of the first width on the same longitudinal cross section of the seal ring as viewed in the circumferential direction, characterized in that the level difference portion is formed so that the center line of the second width on an abutment joint end surface at another end on the inner periphery side of the seal ring abutment joint portion is positioned on a side closer to the seal ring contact surface with respect to the center line of the second width on the abutment joint end surface at the one end on the inner periphery side of the seal ring, wherein the level difference portion is formed so that the center line of the second width in the circumferential direction of the seal ring in which the sealed fluid flows draws a trajectory of extending along the circumferential direction and shifting from the abutment joint end surface on the inner periphery side of the seal ring abutment joint portion at the one end toward the abutment joint end surface on the inner periphery side of the seal ring abutment joint portion at the another end so as to be closer to the seal ring contact surface.
A method of making a battery comprising: preparing a cathode active material by a process comprising treating lithium nickel oxide (LiNiO 2) with an aqueous acid solution, including contacting the oxide with an aqueous acid; incorporating the cathode active material into a cathode, the cathode further comprising a second cathode active material selected from the group consisting of electrolytic manganese dioxide, chemically-prepared manganese dioxide, acid-treated electrolytic manganese dioxide, acid-treated chemically-prepared manganese dioxide, and combinations thereof; and incorporating the cathode into a battery. preparing a cathode active material by a process comprising treating lithium nickel oxide (LiNiO 2) with an aqueous acid solution, including contacting the oxide with an aqueous acid; incorporating the cathode active material into a cathode, the cathode further comprising a second cathode active material selected from the group consisting of electrolytic manganese dioxide, chemically-prepared manganese dioxide, acid-treated electrolytic manganese dioxide, acid-treated chemically-prepared manganese dioxide, and combinations thereof; and incorporating the cathode into a battery.
A method for preparing a color capsule composition for cosmetics, the method comprising the steps of: uniformly mixing a color pigment, a plasticizer and a polymer in a first solvent to produce a first mixture solution; spray-drying the first mixture solution to produce core particles in which the color pigment is covered by the polymer; uniformly mixing the obtained core particles, a functional pigment and a second solvent to produce a second mixture solution and spray-drying the second mixture solution to produce capsule particles in each of which a coating layer of the functional pigment is formed on the outer surface of the polymer; wherein in the step of producing the first mixture solution, the polymer, the colour pigment and the plasticizer are used in amounts of 5-15wt %, 70-90 wt % and 5-15 wt %, respectively, based on the total weight of the polymer, the colour pigment and the plasticizer, and in the step of producing the second mixture solution, the core particles and the functional pigment are used in amounts of 80-40 wt % and 20-60 wt %, respectively, based on the total weight of the core particles and the functional pigment; and wherein the first and second solvents are any one selected from the group consisting of acetone, ethanol and distilled water. uniformly mixing a color pigment, a plasticizer and a polymer in a first solvent to produce a first mixture solution; spray-drying the first mixture solution to produce core particles in which the color pigment is covered by the polymer; uniformly mixing the obtained core particles, a functional pigment and a second solvent to produce a second mixture solution and spray-drying the second mixture solution to produce capsule particles in each of which a coating layer of the functional pigment is formed on the outer surface of the polymer; wherein in the step of producing the first mixture solution, the polymer, the colour pigment and the plasticizer are used in amounts of 5-15wt %, 70-90 wt % and 5-15 wt %, respectively, based on the total weight of the polymer, the colour pigment and the plasticizer, and in the step of producing the second mixture solution, the core particles and the functional pigment are used in amounts of 80-40 wt % and 20-60 wt %, respectively, based on the total weight of the core particles and the functional pigment; and wherein the first and second solvents are any one selected from the group consisting of acetone, ethanol and distilled water.
A system with at least two automatically moving floor processing devices (1, 2, 3, 4, 5) for the automatically controlled processing of a surface in an environment, a shared computing device allocated to the floor processing devices (1, 2, 3, 4, 5), which plans at least one operational activity of at least one floor processing device (1, 2, 3, 4, 5) based on defined rules, and a shared database allocated to the floor processing devices (1, 2, 3, 4, 5), which stores an area map with several partial surface areas (9, 10, 11, 12, 13, 14) and the planned operational activity, characterized in that a partial area designation and/or a floor type designation associated with the partial surface areas (9, 10, 11, 12, 13, 14) is stored, wherein the computing device is set up to receive a floor processing command from a user of the system, with this floor processing command on the one hand indicating a floor processing activity to be performed, and on the other hand having a partial area designation and/or a floor type designation, wherein the computing device is set up to ascertain partial surface areas (9, 10, 11, 12, 13, 14) out of the plurality of partial surface areas (9, 10, 11, 12, 13, 14) contained in the area map that correspond to the partial area designation and/or floor type designation specified in the floor processing command, and according to the predefined rules to plan the performance of the floor processing activity specified in the floor processing command by at least one floor processing device (1, 2, 3, 4, 5), wherein the predefined rules depend on a device parameter of the floor processing device (1, 2, 3, 4, 5) and a position of the partial surface area (9, 10, 11, 12, 13, 14) in the environment to be processed.
An apparatus, suitable for use in an assembly process of a scroll fluid machinery, for positioning a fixed scroll on the basis of a positional relationship between a volute wrap of the fixed scroll and a volute wrap of a movable scroll, the apparatus comprising: a fixing member for fixing an assembly body of an integrated combination of the movable scroll, a crank shaft engaged with the movable scroll, and a housing member composing a bearing of the crank shaft; a pressing mechanism for pressing the fixed scroll engaged with the movable scroll against the housing member; determining means for determining a stirring distance and a stirring direction of the fixed scroll; and a stirring mechanism for stirring the fixed scroll according to the stirring distance and the stirring direction which are determined by the determining means by applying instant striking force to the fixed scroll being pressed against the housing member, characterized by a guide for inhibiting the fixed scroll from rotating while allowing the fixed scroll to displace in parallel to an X axis direction or a Y axis direction which intersect at a right angle with each other, wherein the X axis direction and the Y axis direction in which the guide of the pressing mechanism allows the fixed scroll to displace agree with directions of the instant striking force that the displacing mechanism applies to the fixed scroll. a fixing member for fixing an assembly body of an integrated combination of the movable scroll, a crank shaft engaged with the movable scroll, and a housing member composing a bearing of the crank shaft; a pressing mechanism for pressing the fixed scroll engaged with the movable scroll against the housing member; determining means for determining a stirring distance and a stirring direction of the fixed scroll; and a stirring mechanism for stirring the fixed scroll according to the stirring distance and the stirring direction which are determined by the determining means by applying instant striking force to the fixed scroll being pressed against the housing member, characterized by a guide for inhibiting the fixed scroll from rotating while allowing the fixed scroll to displace in parallel to an X axis direction or a Y axis direction which intersect at a right angle with each other, wherein the X axis direction and the Y axis direction in which the guide of the pressing mechanism allows the fixed scroll to displace agree with directions of the instant striking force that the displacing mechanism applies to the fixed scroll.
A composition comprising a single-stranded nucleic acid molecule consisting of a nucleotide sequence shown by 5'-AGCAGAGUACACACAGCAUAUACC-P-GGUAUAUGCUGUGUGUACUCUGCUUC-P-G-3' (in the sequence, P is a proline derivative linker represented by the following formula) and a buffer, and having the following features: (a) being in the form of a solution at ambient temperature; and (b) a content of the nucleic acid molecule after storage at 25°C, relative humidity 60% for 4 weeks, of not less than 80% relative to the content at the time of start of the storage, wherein the buffer adjusts the pH of the composition to not less than 4.6 and not more than 7.0. (a) being in the form of a solution at ambient temperature; and (b) a content of the nucleic acid molecule after storage at 25°C, relative humidity 60% for 4 weeks, of not less than 80% relative to the content at the time of start of the storage, wherein the buffer adjusts the pH of the composition to not less than 4.6 and not more than 7.0.
A high-lift device comprising - an airfoil shaped body having a leading edge and a trailing edge and extending in a longitudinal direction mainly configured to generate aerodynamic force; - a profile structure arranged to be mounted inside of the airfoil shaped body and extending in longitudinal direction of the airfoil shaped body, wherein the profile structure is approximately as long as the airfoil shaped body wherein the profile structure is configured to provide most of the required mechanical strength and stiffness and the airfoil shaped body is a fairing-like structure to provide for the aerodynamic shape; - wherein the airfoil shaped body is provided with a longitudinally extending opening extending over the whole length of the airfoil shaped body at a side through which the profile structure is accessible inside of the airfoil shaped body, wherein the longitudinally extending opening is at the lower side of the airfoil shaped body, characterized in that device mounting structures for mounting the high-lift device to a further aerodynamic lift device, such as a wing, are provided to the profile structure only. - an airfoil shaped body having a leading edge and a trailing edge and extending in a longitudinal direction mainly configured to generate aerodynamic force; - a profile structure arranged to be mounted inside of the airfoil shaped body and extending in longitudinal direction of the airfoil shaped body, wherein the profile structure is approximately as long as the airfoil shaped body wherein the profile structure is configured to provide most of the required mechanical strength and stiffness and the airfoil shaped body is a fairing-like structure to provide for the aerodynamic shape; - wherein the airfoil shaped body is provided with a longitudinally extending opening extending over the whole length of the airfoil shaped body at a side through which the profile structure is accessible inside of the airfoil shaped body, wherein the longitudinally extending opening is at the lower side of the airfoil shaped body, characterized in that device mounting structures for mounting the high-lift device to a further aerodynamic lift device, such as a wing, are provided to the profile structure only.
A device for use in identifying a possible swallowing impairment in a candidate during execution of a swallowing event, the device comprising: a dual axis accelerometer to be positioned in a region of the candidate's throat and configured to acquire axis-specific vibrational data representative of the swallowing event; a processing module operatively coupled to said accelerometer for processing said axis-specific data to extract therefrom, for each axis, one or more features representative of the swallowing event, and classify said vibrational data as indicative of one of normal swallowing and possibly impaired swallowing based on said extracted features; wherein said accelerometer is configured for being aligned along an anterior-posterior axis (A-P) and a superior-inferior axis (S-I) of the candidate's throat; characterized in that said extracted features comprise a log energy of vibrational data acquired along said A-P axis and an entropy of vibrational data acquired along said S-I axis. a dual axis accelerometer to be positioned in a region of the candidate's throat and configured to acquire axis-specific vibrational data representative of the swallowing event; a processing module operatively coupled to said accelerometer for processing said axis-specific data to extract therefrom, for each axis, one or more features representative of the swallowing event, and classify said vibrational data as indicative of one of normal swallowing and possibly impaired swallowing based on said extracted features; wherein said accelerometer is configured for being aligned along an anterior-posterior axis (A-P) and a superior-inferior axis (S-I) of the candidate's throat; characterized in that said extracted features comprise a log energy of vibrational data acquired along said A-P axis and an entropy of vibrational data acquired along said S-I axis.
Thermally insulated stiffening element for a roller shutter box, which at least comprises: - a bottom fastening tab which has at least one fastening hole and/or a slot; - a top fastening tab which has at least one fastening hole and/or a slot; - a single- or multi-part connecting yoke which extends from the bottom fastening tab to the top fastening tab and which is arranged at right angles to the tabs (11, 13) and which is to be oriented perpendicularly to a longitudinal axis of the roller shutter box, and - at least one thermal insulation element of a thermally insulating material that can be attached to at least one side face of the connecting yoke, characterized - in that the thermal insulation element, with its cross section, completely covers the outline of the connecting yoke in side view; - in that the thermal insulation element is situated by way of a projecting web in front of the outer edge of the connecting yoke that is to be oriented towards the centre of the roller shutter box and/or behind the outer edge of the connecting yoke that is to be oriented towards the inner side of the building, and - in that the thermal insulation element has, at its upper and/or at its lower end, at least one recess (80.1, 80.3) into which there can be inserted the bottom fastening tab and/or the top fastening tab and also, where appropriate, fastening elements which project beyond the bottom fastening tab and the top fastening tab. - a bottom fastening tab which has at least one fastening hole and/or a slot; - a top fastening tab which has at least one fastening hole and/or a slot; - a single- or multi-part connecting yoke which extends from the bottom fastening tab to the top fastening tab and which is arranged at right angles to the tabs (11, 13) and which is to be oriented perpendicularly to a longitudinal axis of the roller shutter box, and - at least one thermal insulation element of a thermally insulating material that can be attached to at least one side face of the connecting yoke, - in that the thermal insulation element, with its cross section, completely covers the outline of the connecting yoke in side view; - in that the thermal insulation element is situated by way of a projecting web in front of the outer edge of the connecting yoke that is to be oriented towards the centre of the roller shutter box and/or behind the outer edge of the connecting yoke that is to be oriented towards the inner side of the building, and - in that the thermal insulation element has, at its upper and/or at its lower end, at least one recess (80.1, 80.3) into which there can be inserted the bottom fastening tab and/or the top fastening tab and also, where appropriate, fastening elements which project beyond the bottom fastening tab and the top fastening tab.
Method for modelling a sedimentary basin, said sedimentary basin having undergone a plurality of geological events defining a sequence of states { A i} of the basin, each of said states extending between two successive geological events, the method comprising the implementation by data processing means of steps of: (a) obtaining measurements of physical quantities of said basin, which are acquired from sensors; (b) for each of said states A i, constructing a meshed representation of said basin depending on said measurements of physical quantities; the method is characterized in that it further comprises a step of: (c) for each of said states A i, and for each cell of said meshed representation, 1. computing an effective stress applied to the cell at the end of the state A i, said effective stress at the end of said state A i being computed depending on said effective stress at the end of the preceding state A i - 1 and on an additional effective stress on said state A i dependent on a change in sediment thickness during said state A i; 2. computing an overpressure in the cell at the end of the state A i depending on said effective stress computed at the end of the state A i. (a) obtaining measurements of physical quantities of said basin, which are acquired from sensors; (b) for each of said states A i, constructing a meshed representation of said basin depending on said measurements of physical quantities; 1. computing an effective stress applied to the cell at the end of the state A i, said effective stress at the end of said state A i being computed depending on said effective stress at the end of the preceding state A i - 1 and on an additional effective stress on said state A i dependent on a change in sediment thickness during said state A i; 2. computing an overpressure in the cell at the end of the state A i depending on said effective stress computed at the end of the state A i.
A method of manufacturing an array chip, comprising the steps of: i) depositing at least one ligand onto the active surface of a wafer substrate having at least one scribe line, the active surface being the reverse of the surface comprising the at least one scribe line; ii) detecting the position of the deposited ligand in relation to the at least one scribe line; iii) determining whether the ligand has been deposited correctly in relation to the at least one scribe line; and iv) breaking the wafer substrate along the at least one scribe line, to produce at least one array chip. i) depositing at least one ligand onto the active surface of a wafer substrate having at least one scribe line, the active surface being the reverse of the surface comprising the at least one scribe line; ii) detecting the position of the deposited ligand in relation to the at least one scribe line; iii) determining whether the ligand has been deposited correctly in relation to the at least one scribe line; and iv) breaking the wafer substrate along the at least one scribe line, to produce at least one array chip.