mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a spool; a turbine coupled to drive the spool; a fan coupled to be driven by the turbine through the spool; a gear assembly coupled between the fan and the spool such that rotation of the spool drives the fan at a different speed than the spool; and a fan nozzle downstream from the fan, the fan nozzle including a variable area nozzle configured to change an exit area of the fan nozzle; the fan nozzle further comprising: a fan bypass duct including an outer wall, an inner wall and a fan bypass flow path there between, the fan bypass duct defining an exit area and being configured to adjust the exit area; and an acoustic liner partially lining the fan bypass duct; wherein the acoustic liner is located on an outer fixed area, and an inner fixed area of the fan bypass flow path, the inner fixed area being an inner wall or case or core cowl that bounds an inner diameter of the fan bypass flow path and the outer fixed area being an outer wall or case that bounds an outer diameter of the fan bypass flow path; characterized in that the acoustic liner lines no greater than 50% of a surface area of the fan bypass flow path. a spool; a turbine coupled to drive the spool; a fan coupled to be driven by the turbine through the spool; a gear assembly coupled between the fan and the spool such that rotation of the spool drives the fan at a different speed than the spool; and a fan nozzle downstream from the fan, the fan nozzle including a variable area nozzle configured to change an exit area of the fan nozzle; the fan nozzle further comprising: a fan bypass duct including an outer wall, an inner wall and a fan bypass flow path there between, the fan bypass duct defining an exit area and being configured to adjust the exit area; and an acoustic liner partially lining the fan bypass duct; wherein the acoustic liner is located on an outer fixed area, and an inner fixed area of the fan bypass flow path, the inner fixed area being an inner wall or case or core cowl that bounds an inner diameter of the fan bypass flow path and the outer fixed area being an outer wall or case that bounds an outer diameter of the fan bypass flow path; characterized in that the acoustic liner lines no greater than 50% of a surface area of the fan bypass flow path. a fan bypass duct including an outer wall, an inner wall and a fan bypass flow path there between, the fan bypass duct defining an exit area and being configured to adjust the exit area; and an acoustic liner partially lining the fan bypass duct; wherein the acoustic liner is located on an outer fixed area, and an inner fixed area of the fan bypass flow path, the inner fixed area being an inner wall or case or core cowl that bounds an inner diameter of the fan bypass flow path and the outer fixed area being an outer wall or case that bounds an outer diameter of the fan bypass flow path; characterized in that the acoustic liner lines no greater than 50% of a surface area of the fan bypass flow path.
A random number generation apparatus, comprising: a first random number generating part generating a random number u=(u 1,...,u D) T ∈[-∞,∞] D; a second random number generating part generating a random number v∈[0,f'max]; a determining part determining whether f'(x 1 =u 1,...,x D =u D)≥v or not, and, if f'(x 1 =u 1,...,x D =u D)≥v, adopting u as a random number according to f'(x 1,...,x D); and an anonymization part anonymizing attributes in a database based on the adopted random number u, wherein D is a predetermined positive integer, for i=1,...,D, [h i] is a predetermined possible range for a random variable x i, a hole [h] is [h]=([h 1],...,[h D]) T, H is a probability of a predetermined basic distribution function f(x 1,...,x D) in the hole [h], α=1/(1-H), a corrected distribution function f'(x 1,...,x D) is defined by Expressions and: [Formula 29] H = ∫ x 1 ∈ h 1 ⋯ ∫ x D ∈ h D f x 1 ⋯ x D dx 1 ⋯ dx D f ′ x 1 ⋯ x D = 0 if x 1 ∈ h 1 ∧ ⋯ ∧ x D ∈ h D f ′ x 1 ⋯ x D = α ⋅ ƒ x 1 ⋯ x D otherwise and f' max is a maximum value of f'(x 1,...,x D). a first random number generating part generating a random number u=(u 1,...,u D) T ∈[-∞,∞] D; a second random number generating part generating a random number v∈[0,f'max]; a determining part determining whether f'(x 1 =u 1,...,x D =u D)≥v or not, and, if f'(x 1 =u 1,...,x D =u D)≥v, adopting u as a random number according to f'(x 1,...,x D); and an anonymization part anonymizing attributes in a database based on the adopted random number u, wherein D is a predetermined positive integer, for i=1,...,D, [h i] is a predetermined possible range for a random variable x i, a hole [h] is [h]=([h 1],...,[h D]) T, H is a probability of a predetermined basic distribution function f(x 1,...,x D) in the hole [h], α=1/(1-H), a corrected distribution function f'(x 1,...,x D) is defined by Expressions and: [Formula 29] H = ∫ x 1 ∈ h 1 ⋯ ∫ x D ∈ h D f x 1 ⋯ x D dx 1 ⋯ dx D f ′ x 1 ⋯ x D = 0 if x 1 ∈ h 1 ∧ ⋯ ∧ x D ∈ h D f ′ x 1 ⋯ x D = α ⋅ ƒ x 1 ⋯ x D otherwise and f' max is a maximum value of f'(x 1,...,x D).
An apparatus for preparing and dispensing beverages, comprising supplying means to supply water to said apparatus, a heater for heating the water, a pump for feeding water from said supplying means to said heater, a logic unit for controlling said heater and said pump, a device for heating and/or frothing the milk, comprising a mixing chamber provided with a steam inlet hydraulically connected to said heater, means for feeding the milk into said mixing chamber and means for introducing air into said mixing chamber, characterized in that said heater is an electromagnetic induction heater comprising a metal duct adapted to be heated by electromagnetic induction and at least one electromagnetic induction winding whose coils are arranged around said metal duct, and in that the logic unit is configured to control the pump and the heater so that hot water and steam can be produced within the metal duct, and in comprising means for feeding said steam to said mixing chamber.
A sensor, comprising: a base body including a first surface including a first base body region; a first structure body provided in the first base body region; the first structure body including a first movable member configured to vibrate, the vibration of the first movable member including a first component along a first direction along the first surface and a second component along a second direction along the first surface, the second direction crossing the first direction; a the control device including a controller configured to perform a processing operation, the processing operation including obtaining a first rotation angle (θv1) of the first movable member based on the first component and the second component; characterized in that the base body includes a second base body region; wherein the sensor comprises a second structure body provided in the second base body region; the second structure body including a second movable member configured to vibrate; the processing operation further including outputting a second rotation angle (θv2), the second rotation angle (θv2) being obtained by correcting a first rotation angle (θv1) based on a resonance frequency of the second movable member. a base body including a first surface including a first base body region; a first structure body provided in the first base body region; the first structure body including a first movable member configured to vibrate, the vibration of the first movable member including a first component along a first direction along the first surface and a second component along a second direction along the first surface, the second direction crossing the first direction; a the control device including a controller configured to perform a processing operation, the processing operation including obtaining a first rotation angle (θv1) of the first movable member based on the first component and the second component; characterized in that the base body includes a second base body region; wherein the sensor comprises a second structure body provided in the second base body region; the second structure body including a second movable member configured to vibrate; the processing operation further including outputting a second rotation angle (θv2), the second rotation angle (θv2) being obtained by correcting a first rotation angle (θv1) based on a resonance frequency of the second movable member.
A method performed by a network node for supporting a Voice over IP, VoIP, service of a wireless device, the network node being operable in a wireless communication network, the method comprising, when a channel quality of a channel between the wireless device and the network node falls below a predetermined threshold: - determining aggregated Quality of Service, QoS, requirements with regard to Guaranteed Bit Rate, GBR, for services which the wireless device is currently using, - determining an achievable bitrate using Transmission Time Interval, TTI, bundling and - determining to enable TTI bundling of the wireless device based on the determined aggregated GBR requirement and the determined achievable bitrate. - determining aggregated Quality of Service, QoS, requirements with regard to Guaranteed Bit Rate, GBR, for services which the wireless device is currently using, - determining an achievable bitrate using Transmission Time Interval, TTI, bundling and - determining to enable TTI bundling of the wireless device based on the determined aggregated GBR requirement and the determined achievable bitrate.
A power generation system comprising a wind power plant comprising a plurality of wind turbine generators; a power plant controller configured to signal, to each of at least a portion of the plurality of wind turbine generators, a voltage reference for the output voltage of the wind turbine generator, wherein the power plant controller comprises a determiner configured to determine the voltage reference in response to a voltage disturbance in the wind power plant grid and is configured to determine the voltage reference for each of the at least a portion of the plurality of the wind turbine generators based on a location of the wind turbine generator with respect to a location of the voltage disturbance in the wind power plant grid; wherein each of the at least a portion of the plurality of wind turbine generators comprises a controller configured to control the wind turbine generator based on the voltage reference.
Apparatus for interfacing with a touchscreen coupled to a monitor of an electronic device, comprising: an overlay adapted to mount over the touchscreen of the electronic device, said overlay being formed of an electrically non-conductive material with a number of openings; an electrically conductive plate mounted to said overlay, said electrically conductive plate being formed with said openings; a number of tactile actuators each mounted to said overlay and coupled to said electrically conductive plate at one of said openings, each of said tactile actuators having a first end (48, 112, 154, 198) which projects outwardly from said overlay in position to be manipulated by a user of the apparatus and a second end which mounts at least one conductive pad (49, 60, 126, 184), said at least one conductive pad (49, 60, 126, 184) of each tactile actuator being movable into engagement and disengagement with the surface of the touchscreen, or being in continuous engagement with and movable along the surface of the touchscreen, in response to manipulation of said first end (48, 112, 154, 198) of a respective tactile actuator by the user of the apparatus; a controller coupled to the touchscreen and to the monitor of the electronic device, said controller being effective to monitor the position of said conductive pads (49, 60, 126, 184) of said tactile actuators relative to the surface of the touchscreen of the electronic device and to control one or more of graphic images and text displayed on the monitor of the electronic device dependent on said position of said conductive pads (49, 60, 126, 184) on the surface of the touchscreen. an overlay adapted to mount over the touchscreen of the electronic device, said overlay being formed of an electrically non-conductive material with a number of openings; an electrically conductive plate mounted to said overlay, said electrically conductive plate being formed with said openings; a number of tactile actuators each mounted to said overlay and coupled to said electrically conductive plate at one of said openings, each of said tactile actuators having a first end (48, 112, 154, 198) which projects outwardly from said overlay in position to be manipulated by a user of the apparatus and a second end which mounts at least one conductive pad (49, 60, 126, 184), said at least one conductive pad (49, 60, 126, 184) of each tactile actuator being movable into engagement and disengagement with the surface of the touchscreen, or being in continuous engagement with and movable along the surface of the touchscreen, in response to manipulation of said first end (48, 112, 154, 198) of a respective tactile actuator by the user of the apparatus; a controller coupled to the touchscreen and to the monitor of the electronic device, said controller being effective to monitor the position of said conductive pads (49, 60, 126, 184) of said tactile actuators relative to the surface of the touchscreen of the electronic device and to control one or more of graphic images and text displayed on the monitor of the electronic device dependent on said position of said conductive pads (49, 60, 126, 184) on the surface of the touchscreen.
A method for calibrating a vehicle onboard unit of a vehicle identification system by means of a first roadside radio beacon, and optionally a second roadside radio beacon, the method comprising: emitting at least one polling message (pm i) from the first radio beacon; in the first radio beacon, determining a link margin of a communication with a first vehicle onboard unit by evaluating a response message (rm i) of the first onboard unit to the polling message/s (pm i); and sending a configuration message (cm) from the first radio beacon or the second radio beacon to the first onboard unit or to a second vehicle onboard unit with a same characteristic as the first onboard unit to adjust a receive sensitivity or a transmit power of the first or the second onboard unit, respectively, to a level derived from the determined link margin. emitting at least one polling message (pm i) from the first radio beacon; in the first radio beacon, determining a link margin of a communication with a first vehicle onboard unit by evaluating a response message (rm i) of the first onboard unit to the polling message/s (pm i); and sending a configuration message (cm) from the first radio beacon or the second radio beacon to the first onboard unit or to a second vehicle onboard unit with a same characteristic as the first onboard unit to adjust a receive sensitivity or a transmit power of the first or the second onboard unit, respectively, to a level derived from the determined link margin.
An electron microscope comprising: a spherical aberration corrector using a multipole element excited with a coil current I, the multipole element having a bore radius of b, the multipole element introducing, in use, a corrector spherical aberration (C BC); an objective lens which introduces, in use, an objective spherical aberration (C g); and transfer optics mounted between the multipole element and the objective lens; characterised in that the transfer optics is configured with a ratio M (= r1/r0) set greater than 1, the distance r1 being the distance of an incident point to the objective lens for electrons from an optical axis, the electrons passing across a point located at the distance r0 from the optical axis within the multipole element; and at least one of the current I and the bore radius b of the multipole element is controlled to set the magnitude of the corrector spherical aberration (C sc) greater than the magnitude of the objective spherical aberration (C s) in accordance with the ratio M of the transfer optics, such that the contribution (X o) to the overall spherical aberration (C st) of the electron microscope from the spherical aberration corrector downstream of the transfer optics has substantially the same magnitude as the objective spherical aberration (C s). a spherical aberration corrector using a multipole element excited with a coil current I, the multipole element having a bore radius of b, the multipole element introducing, in use, a corrector spherical aberration (C BC); an objective lens which introduces, in use, an objective spherical aberration (C g); and transfer optics mounted between the multipole element and the objective lens; characterised in that the transfer optics is configured with a ratio M (= r1/r0) set greater than 1, the distance r1 being the distance of an incident point to the objective lens for electrons from an optical axis, the electrons passing across a point located at the distance r0 from the optical axis within the multipole element; and at least one of the current I and the bore radius b of the multipole element is controlled to set the magnitude of the corrector spherical aberration (C sc) greater than the magnitude of the objective spherical aberration (C s) in accordance with the ratio M of the transfer optics, such that the contribution (X o) to the overall spherical aberration (C st) of the electron microscope from the spherical aberration corrector downstream of the transfer optics has substantially the same magnitude as the objective spherical aberration (C s).
A solar cell module, comprising: a solar cell panel; a plurality of frame members (22, 23) that are provided at the peripheral edge of the solar cell panel and that have a cross-sectional shape having a hollow portion; a corner member provided in the hollow portion; a holding section that is provided in the hollow portion and that holds the corner member; and a plurality of rivet sections (30, 31) formed by pressing the frame member (22, 23), characterized in that the hollow portion is defined by an inner wall (56, 57) on an inner periphery side and an outer wall on an outer periphery side in each of the plurality of frame members (22, 23), the holding section includes a first rib and a second rib which project from an inner face of the inner wall (56, 57) of each of the plurality of frame members (22, 23) and which extend along a longitudinal direction of each of the plurality of frame members (22, 23), and further includes a third rib and a fourth rib which project from an inner face of the outer wall of each of the plurality of frame members (22, 23) and which extend along the longitudinal direction, and the plurality of rivet sections (30, 31) include a first part formed on a portion of the inner wall (56, 57) at least partly superposed with the corner member and at least adjacent to the first rib, and a second part formed on a portion of the inner wall (56, 57) at least partly superposed with the corner member and at least adjacent to the second rib. a solar cell panel; a plurality of frame members (22, 23) that are provided at the peripheral edge of the solar cell panel and that have a cross-sectional shape having a hollow portion; a corner member provided in the hollow portion; a holding section that is provided in the hollow portion and that holds the corner member; and a plurality of rivet sections (30, 31) formed by pressing the frame member (22, 23), characterized in that the hollow portion is defined by an inner wall (56, 57) on an inner periphery side and an outer wall on an outer periphery side in each of the plurality of frame members (22, 23), the holding section includes a first rib and a second rib which project from an inner face of the inner wall (56, 57) of each of the plurality of frame members (22, 23) and which extend along a longitudinal direction of each of the plurality of frame members (22, 23), and further includes a third rib and a fourth rib which project from an inner face of the outer wall of each of the plurality of frame members (22, 23) and which extend along the longitudinal direction, and the plurality of rivet sections (30, 31) include a first part formed on a portion of the inner wall (56, 57) at least partly superposed with the corner member and at least adjacent to the first rib, and a second part formed on a portion of the inner wall (56, 57) at least partly superposed with the corner member and at least adjacent to the second rib.
An article of footwear (10, 110) comprising: a sole structure (12, 212, 312) having an inner surface; a guide (30A-30H) secured to the inner surface of the sole structure (12, 212, 312); an upper having a bottom, an outer surface of the bottom secured to the inner surface of the sole structure (12, 212, 312) around the guide (30A-30H) with the guide (30A-30H) between the bottom of the upper and the sole structure (12, 212, 312), the upper and the guide (30A-30H) forming a passage (34A-34E); and a tensioning component (32A-32H) extending along the guide (30A-30H) in the passage (34A-34E), and extending out of the passage (34A-34E) at at least one of a medial side or a lateral side of the upper, and the tensioning component (32A-32H) having a fixed end (53A-35E) adhered to the inner surface of the sole structure (12, 212, 312), the tensioning component (32A-32H) movable in the passage (34A-34E) relative to the upper and the guide (30A-30H) in response to an increase in tension in the tensioning component (32A-32H) to flexibly conform the sole structure (12, 212, 312) to a foot disposed in the upper. a sole structure (12, 212, 312) having an inner surface; a guide (30A-30H) secured to the inner surface of the sole structure (12, 212, 312); an upper having a bottom, an outer surface of the bottom secured to the inner surface of the sole structure (12, 212, 312) around the guide (30A-30H) with the guide (30A-30H) between the bottom of the upper and the sole structure (12, 212, 312), the upper and the guide (30A-30H) forming a passage (34A-34E); and a tensioning component (32A-32H) extending along the guide (30A-30H) in the passage (34A-34E), and extending out of the passage (34A-34E) at at least one of a medial side or a lateral side of the upper, and the tensioning component (32A-32H) having a fixed end (53A-35E) adhered to the inner surface of the sole structure (12, 212, 312), the tensioning component (32A-32H) movable in the passage (34A-34E) relative to the upper and the guide (30A-30H) in response to an increase in tension in the tensioning component (32A-32H) to flexibly conform the sole structure (12, 212, 312) to a foot disposed in the upper.