mhurhangee/ep-ind-claims huggingface dataset:
An active flow control system for an aircraft comprising a diffuser having an inlet configured for flight speeds ranging from subsonic to hypersonic and a plurality of fluidic oscillators for managing fluid flow control mounted about a curvature of the diffuser, said oscillator being adapted to operate at a high pressure ratio greater than 2.0, and to create a jet of fluid in a throat of the nozzle, such that the throat is choked and such that Mach number of unity is created in the throat, said fluidic oscillator comprising: a body having an inflow portion and a narrow nozzle inlet formed opposite the inflow portion; and a nozzle integral with the body and coupled to the body by the narrow nozzle inlet, wherein the fluid passes through the narrow nozzle inlet at the high pressure ratio greater than 2.0, wherein the nozzle includes curved sidewalls angled with respect to the narrow nozzle inlet and an outlet, wherein the fluidic oscillator is adapted such that the fluid flow from the inflow portion to the narrow nozzle inlet is transmitted along a single fluid flow path, and wherein the sidewalls are curved such that space is formed between the jet and the sidewalls of the nozzle, wherein the diffuser includes an s-shaped elongated body having a first end open to ambient air and a second end, wherein the second end is an aerodynamic interface plane, where the second end of the diffuser meets a compressor of the aircraft, wherein the plurality of fluidic oscillators are positioned at an interface of the diffuser and the inlet or downstream of an interface, said interface of the diffuser and the inlet forming a throat region. a body having an inflow portion and a narrow nozzle inlet formed opposite the inflow portion; and a nozzle integral with the body and coupled to the body by the narrow nozzle inlet, wherein the fluid passes through the narrow nozzle inlet at the high pressure ratio greater than 2.0, wherein the nozzle includes curved sidewalls angled with respect to the narrow nozzle inlet and an outlet, wherein the fluidic oscillator is adapted such that the fluid flow from the inflow portion to the narrow nozzle inlet is transmitted along a single fluid flow path, and wherein the sidewalls are curved such that space is formed between the jet and the sidewalls of the nozzle, wherein the diffuser includes an s-shaped elongated body having a first end open to ambient air and a second end, wherein the second end is an aerodynamic interface plane, where the second end of the diffuser meets a compressor of the aircraft, wherein the plurality of fluidic oscillators are positioned at an interface of the diffuser and the inlet or downstream of an interface, said interface of the diffuser and the inlet forming a throat region.
Rotary machine with a deformable lozenge comprising: • a stator defining an oval-section enclosure; • four pistons of similar shape connected to each other by pivoting connectors with parallel axes to form a rotor with a deformable lozenge, each piston having a surface external to the lozenge cooperating with the wall of the enclosure to define an external cavity (14, 15) with a variable volume; and characterized in that it comprises a central shaft (16, 19) of oval section centered in the enclosure, and in that each piston has a surface internal to the lozenge cooperating with the central shaft to define an internal cavity (17, 18) of variable volume, the internal surface of each piston comprising a part configured to completely marry up with the central shaft at each half-turn of the rotor rotation. • a stator defining an oval-section enclosure; • four pistons of similar shape connected to each other by pivoting connectors with parallel axes to form a rotor with a deformable lozenge, each piston having a surface external to the lozenge cooperating with the wall of the enclosure to define an external cavity (14, 15) with a variable volume; and
A method of estimating hydraulic flow in a steering system of an articulated vehicle, the articulated vehicle comprising articulated front and rear parts with the front part and/or rear part being steerable, the method comprising: a) sensing a yaw rate of the articulated vehicle; b) sensing a velocity of the articulated vehicle; c) determining an estimate of a steering angle rate of the front part of the articulated vehicle using the sensed yaw rate and the sensed velocity; d) determining an estimate of the hydraulic flow in the steering system of the articulated vehicle using the estimate of the steering angle rate and one or more geometrical parameters of the steering system. a) sensing a yaw rate of the articulated vehicle; b) sensing a velocity of the articulated vehicle; c) determining an estimate of a steering angle rate of the front part of the articulated vehicle using the sensed yaw rate and the sensed velocity; d) determining an estimate of the hydraulic flow in the steering system of the articulated vehicle using the estimate of the steering angle rate and one or more geometrical parameters of the steering system.
An electroconductive member for electrophotography to be used while being brought into contact with a body to be contacted, the electroconductive member comprising: an electroconductive support; and a layer of a network structural body having a structure in which fibers are forming meshes on an outer peripheral surface of the electroconductive support, wherein: when a surface of the electroconductive member is observed, at least a part of the network structural body exists in an arbitrary square region having one side length of 200 μm; the network structural body contains non-electroconductive fibers; and an average fiber diameter of a top 10% of fiber diameters of the non-electroconductive fibers measured at arbitrary points is 0.2 μm or more and 15 μm or less, characterized in that when a Voronoi tessellation is performed with generating points, the generating points being the non-electroconductive fibers exposed on a cross section in a thickness direction of the layer of the network structural body, each of areas of Voronoi polygons resulting from the Voronoi tessellation is defined as S 1, each of cross-sectional areas in the cross section of the non-electroconductive fibers as the generating points of the respective Voronoi polygons is defined as S 2, and a ratio "S 1 /S 2 " is calculated, an arithmetic average k U10 of a top 10% of the ratios is 40 or more and 160 or less. an electroconductive support; and a layer of a network structural body having a structure in which fibers are forming meshes on an outer peripheral surface of the electroconductive support, when a surface of the electroconductive member is observed, at least a part of the network structural body exists in an arbitrary square region having one side length of 200 μm; the network structural body contains non-electroconductive fibers; and an average fiber diameter of a top 10% of fiber diameters of the non-electroconductive fibers measured at arbitrary points is 0.2 μm or more and 15 μm or less, characterized in that when a Voronoi tessellation is performed with generating points, the generating points being the non-electroconductive fibers exposed on a cross section in a thickness direction of the layer of the network structural body, each of areas of Voronoi polygons resulting from the Voronoi tessellation is defined as S 1, each of cross-sectional areas in the cross section of the non-electroconductive fibers as the generating points of the respective Voronoi polygons is defined as S 2, and a ratio "S 1 /S 2 " is calculated, an arithmetic average k U10 of a top 10% of the ratios is 40 or more and 160 or less.
A hybrid Agaricus bisporus mushroom strain obtained by crossing a mushroom of wild strain AA-0096 with Agaricus bisporus bridging cross strain 4X29, wherein a representative culture of said 4X29 strain is deposited under ATCC Accession No. PTA-6877, and wherein a representative culture of said wild strain AA-0096 has been deposited under ATCC Accession No. PTA-6903, and wherein said hybrid mushroom strain (a) has at least one RAPD, SCAR or RFLP band of wild strain AA-0096 that is not present in said Agaricus bisporus bridging cross strain; (b) has at least one RAPD, SCAR or RFLP band of said Agaricus bisporus bridging cross strain that is not present in wild strain AA-0096; (c) has at least one physical characteristic selected from the group consisting of: cap color darker than a cap of commercial brown strain Amycel 2400, cap thickness that is thicker than a cap of commercial brown strain Amycel 2400, and increased productivity as compared to commercial brown strain Amycel 2400; and (d) is genetically non-compatible with comparison commercial brown strain Amycel 2400. (a) has at least one RAPD, SCAR or RFLP band of wild strain AA-0096 that is not present in said Agaricus bisporus bridging cross strain; (b) has at least one RAPD, SCAR or RFLP band of said Agaricus bisporus bridging cross strain that is not present in wild strain AA-0096; (c) has at least one physical characteristic selected from the group consisting of: cap color darker than a cap of commercial brown strain Amycel 2400, cap thickness that is thicker than a cap of commercial brown strain Amycel 2400, and increased productivity as compared to commercial brown strain Amycel 2400; and cap color darker than a cap of commercial brown strain Amycel 2400, cap thickness that is thicker than a cap of commercial brown strain Amycel 2400, and increased productivity as compared to commercial brown strain Amycel 2400; and (d) is genetically non-compatible with comparison commercial brown strain Amycel 2400.
A synthetic logging method for stimulating a reservoir, comprising: training a machine learning algorithm using training inputs comprising historical or exploratory data using data logged by one or more logging tools selected from a group consisting of passive nuclear logging tools and non-nuclear logging tools; and training outputs comprising one or more property logs, wherein the one or more property logs are derived from said historical or exploratory data and additional historical or exploratory data measured by an induced nuclear logging tool, wherein the one or more derived property logs comprise at least logs selected from a group consisting of: an elastic property log, a density log, a porosity log, and a sonic velocity log; generating a synthetic property log comprising one or more synthesized properties of the reservoir by supplying the trained MLA with inputs comprising data acquired from a production wellbore in said reservoir using one or more logging tools selected from a group consisting of: passive nuclear logging tools and nonnuclear logging tools, wherein the data is acquired without using an induced nuclear logging tool; wherein the synthetic log is selected from a group consisting of: an elastic property log, a density log, a porosity log, and a sonic velocity log; wherein the method further comprises generating a stimulation plan by supplying the synthetic log to a reservoir model; and wherein the reservoir is stimulated using the stimulation plan. training a machine learning algorithm using training inputs comprising historical or exploratory data using data logged by one or more logging tools selected from a group consisting of passive nuclear logging tools and non-nuclear logging tools; and training outputs comprising one or more property logs, wherein the one or more property logs are derived from said historical or exploratory data and additional historical or exploratory data measured by an induced nuclear logging tool, wherein the one or more derived property logs comprise at least logs selected from a group consisting of: an elastic property log, a density log, a porosity log, and a sonic velocity log; generating a synthetic property log comprising one or more synthesized properties of the reservoir by supplying the trained MLA with inputs comprising data acquired from a production wellbore in said reservoir using one or more logging tools selected from a group consisting of: passive nuclear logging tools and nonnuclear logging tools, wherein the data is acquired without using an induced nuclear logging tool; wherein the synthetic log is selected from a group consisting of: an elastic property log, a density log, a porosity log, and a sonic velocity log; wherein the method further comprises generating a stimulation plan by supplying the synthetic log to a reservoir model; and wherein the reservoir is stimulated using the stimulation plan.
Device for identifying a user, comprising: - a microcircuit configured to store information regarding a user and - a display device, such as a screen; - the microcircuit being configured to implement the following steps: • a step of determining a first security code, • a step of commanding the display device to display the first security code, characterized in that the microcircuit is configured to implement the following steps: • a step of receiving a second security code, • and if the first security code and the second security code are identical a step of transmitting the information regarding the user. - a microcircuit configured to store information regarding a user and - a display device, such as a screen; - the microcircuit being configured to implement the following steps: • a step of determining a first security code, • a step of commanding the display device to display the first security code, • a step of determining a first security code, • a step of commanding the display device to display the first security code, • a step of receiving a second security code, • and if the first security code and the second security code are identical a step of transmitting the information regarding the user.
A method of preparing nucleic acids from a template nucleic acid by subjecting a sample to thermocycles comprising the steps a) Subjecting a first amount of said sample in a first amplification chamber to a first number of thermocycles to prepare a first amount of a first reaction mixture, and b) Subjecting a partial amount of said first reaction mixture in a second amplification chamber to a second number of thermocycles to prepare a second amount of a second reaction mixture wherein the volume of said second amplification chamber is smaller than the volume of said first amplification chamber. a) Subjecting a first amount of said sample in a first amplification chamber to a first number of thermocycles to prepare a first amount of a first reaction mixture, and b) Subjecting a partial amount of said first reaction mixture in a second amplification chamber to a second number of thermocycles to prepare a second amount of a second reaction mixture
Stator for an electric machine, whereas the stator comprises three stator windings (W1, W2, W3), the stator has a first cylindrical surface with a plurality of circumferentially spaced winding slots (WS1, WS2,...) formed in it, each winding slot (WS1, WS2,...) extending along an axial length of the first cylindrical surface and set up to embed a segment of a single stator winding (W1, W2, W3), each stator winding (W1, W2, W3) is pre-formed as a closed loop, two substantially parallel segments of each stator winding (W1, W2, W3) are embedded in a first (WS1, WS3, WS5) and a second winding slot (WS2, WS4, WS6) of the stator, with the second winding slot (WS2, WS4, WS6) being the third adjacent winding slot to the first winding slot (WS1, WS3, WS5), each of the three stator windings (W1, W2, W3) has a first winding head segment (WH1, WH2, WH3) leaving the winding slots (WS1, WS2,...) in an axial direction of the stator, the first winding head segments (WH1, WH2, WH3) of the three stator windings (W1, W2, W3) differ in form so that each first winding head segment (WH1, WH2, WH3) is differently tilted in radial direction of the stator, the length of the three stator windings (W1, W2, W3) is substantially the same, and the first winding head segment of one of the three stator windings (W1, W2, W3) comprises a section that is continuously tilted on a curvature characterized in that the curvature is more than a 90 degree segment of a substantially circular arc but not more than an about 135 degrees segment of a substantially circular arc when the angle of the winding head WH2 is about 45 degrees or the curvature is a 90 degree segment of a substantially circular arc. the stator comprises three stator windings (W1, W2, W3), the stator has a first cylindrical surface with a plurality of circumferentially spaced winding slots (WS1, WS2,...) formed in it, each winding slot (WS1, WS2,...) extending along an axial length of the first cylindrical surface and set up to embed a segment of a single stator winding (W1, W2, W3), each stator winding (W1, W2, W3) is pre-formed as a closed loop, two substantially parallel segments of each stator winding (W1, W2, W3) are embedded in a first (WS1, WS3, WS5) and a second winding slot (WS2, WS4, WS6) of the stator, with the second winding slot (WS2, WS4, WS6) being the third adjacent winding slot to the first winding slot (WS1, WS3, WS5), each of the three stator windings (W1, W2, W3) has a first winding head segment (WH1, WH2, WH3) leaving the winding slots (WS1, WS2,...) in an axial direction of the stator, the first winding head segments (WH1, WH2, WH3) of the three stator windings (W1, W2, W3) differ in form so that each first winding head segment (WH1, WH2, WH3) is differently tilted in radial direction of the stator, the length of the three stator windings (W1, W2, W3) is substantially the same, and the first winding head segment of one of the three stator windings (W1, W2, W3) comprises a section that is continuously tilted on a curvature characterized in that
A resonance podium comprising: a frame, the frame comprising a plurality of walls; a top panel supported by the plurality of walls of the frame to form a top surface that supports a performer playing a musical instrument on the resonance podium, the top panel including an opening; and a resonant panel disposed through and into the opening of the top panel, the resonant panel being supported by the plurality of walls and isolated from the top panel, the resonant panel configured to receive a portion of the musical instrument and to project structurally-transmitted vibrations from the musical instrument for acoustical amplification. a frame, the frame comprising a plurality of walls; a top panel supported by the plurality of walls of the frame to form a top surface that supports a performer playing a musical instrument on the resonance podium, the top panel including an opening; and a resonant panel disposed through and into the opening of the top panel, the resonant panel being supported by the plurality of walls and isolated from the top panel, the resonant panel configured to receive a portion of the musical instrument and to project structurally-transmitted vibrations from the musical instrument for acoustical amplification.
A method of tagmentation comprising: (a) providing a first transposome, the first transposome comprising a first transposon and a first transposase enzyme having a first tagmentation profile; (b) combining a target nucleic acid with the first transposase enzyme under conditions suitable for tagmentation, thereby generating a first tagmented nucleic acid; (c) combining the first tagmented nucleic acid with a second transposome under conditions suitable for tagmentation, the transposome comprising a second transposon and a second transposase enzyme having a second tagmentation profile, thereby generating a second tagmented nucleic acid, wherein the first tagmentation profile and the second tagmentation profile are different, optionally wherein the tagmentation is sequential. (a) providing a first transposome, the first transposome comprising a first transposon and a first transposase enzyme having a first tagmentation profile; (b) combining a target nucleic acid with the first transposase enzyme under conditions suitable for tagmentation, thereby generating a first tagmented nucleic acid; (c) combining the first tagmented nucleic acid with a second transposome under conditions suitable for tagmentation, the transposome comprising a second transposon and a second transposase enzyme having a second tagmentation profile, thereby generating a second tagmented nucleic acid, wherein the first tagmentation profile and the second tagmentation profile are different, optionally wherein the tagmentation is sequential.
A golf ball comprising a spherical core and a cover disposed outside the spherical core, wherein when a center hardness of the spherical core in Shore C hardness, hardnesses at 2.5 mm, 5 mm, 7.5 mm, 10 mm, 12.5 mm and 15 mm points from a center of the spherical core toward a surface of the spherical core in Shore C hardness, and a surface hardness of the spherical core in Shore C hardness are represented by H 0, H 2.5, H 5, H 7.5, H 10, H 12.5, H 15 and H s respectively, the following relation is satisfied: H 2.5 − H 0 > H 12.5 − H 10 > H s − H 15, and a relation of H 0 ≥60 is satisfied, characterized in that a relation of 15≤(H s -H 0)≤25 is satisfied. and a relation of H 0 ≥60 is satisfied, characterized in that a relation of 15≤(H s -H 0)≤25 is satisfied.
Method of operating a crane having a luffable crane boom and having a trolley arranged travelable at the crane boom, wherein the crane can be operated in a luffing mode, on the one hand, and in a trolley mode, on the other hand, characterized in that a change of the hoist rope reeving takes place on a single hoist rope for a mode change. characterized in that a change of the hoist rope reeving takes place on a single hoist rope for a mode change.
A service box configured to be mounted within a raised access floor, the service box having at least one selectively lockable secure chamber, a door operatively associated with a housing and configured to provide human access to at least the secure chamber, and a locking device operatively associated with the door providing access to the secure chamber, the locking device being configured to prevent human access to the secure chamber when the locking device is in a locked position, characterized in that the service box includes: the housing that at least partially defines a space, the housing having at least one cable entry point and at least one cable exit point; and a separation member positioned within the housing that divides the space defined by the housing into at least two chambers (110, 120), wherein at least one of the chambers (110, 120) is the secure chamber and each chamber defined within the housing is accessible by at least one cable entry point (130, 132, 134) and at least one cable exit point (180, 182). the housing that at least partially defines a space, the housing having at least one cable entry point and at least one cable exit point; and a separation member positioned within the housing that divides the space defined by the housing into at least two chambers (110, 120), wherein at least one of the chambers (110, 120) is the secure chamber and each chamber defined within the housing is accessible by at least one cable entry point (130, 132, 134) and at least one cable exit point (180, 182).