mhurhangee/patent-ind-claim-en huggingface dataset:
A fire control panel modular assembly, comprising: a fire control panel module including a locking ridge ; and a fire control panel module carrier including a module carrier slot , a locking tab including a locking tab sliding surface , and a release button including a release button sliding surface , wherein: the module carrier slot is configured to accept the fire control panel module therein; the locking tab is configured to engage the locking ridge to releasably retain the fire control panel module in the module carrier slot ; and actuation of the release button from a first position inward with respect to the module carrier to a second position causes the release button sliding surface to translate along the locking tab sliding surface . a fire control panel module including a locking ridge ; and a fire control panel module carrier including a module carrier slot , a locking tab including a locking tab sliding surface , and a release button including a release button sliding surface , wherein: the module carrier slot is configured to accept the fire control panel module therein; the locking tab is configured to engage the locking ridge to releasably retain the fire control panel module in the module carrier slot ; and actuation of the release button from a first position inward with respect to the module carrier to a second position causes the release button sliding surface to translate along the locking tab sliding surface . the module carrier slot is configured to accept the fire control panel module therein; the locking tab is configured to engage the locking ridge to releasably retain the fire control panel module in the module carrier slot ; and actuation of the release button from a first position inward with respect to the module carrier to a second position causes the release button sliding surface to translate along the locking tab sliding surface .
An interchangeable jet module comprising: a jet ; a manifold with a mounting surface for mounting a base portion of the jet ; a jet plate with a mounting surface for mounting a top portion of the jet ; an array of adjacent air and water chambers underlying the manifold mounting surface , the array providing multiple mounting locations on the manifold mounting surface , such mounting locations are on the manifold mounting surface where access to water and air chambers by spaced air and water intakes on any single jet is provided, characterised in that the array of adjacent water and air chambers are arrayed side-by-side to each other in a curved cross-sectional plane generally parallel to and underlying the manifold mounting surface to provide adjacent water and air chambers. a jet ; a manifold with a mounting surface for mounting a base portion of the jet ; a jet plate with a mounting surface for mounting a top portion of the jet ; an array of adjacent air and water chambers underlying the manifold mounting surface ,
A collimator comprising: a support and protection module having a box structure, the box structure having a top opening and a side opening; a filter module configured to be placed into and pulled from the box structure from the side opening of the box structure, wherein the filter module comprises: a filter replacing unit , the filter replacing unit comprising a filter holder , a filter mounting plate , and one or more first filters , wherein the one or more first filters are mounted on the filter mounting plate via the filter holder ; and a filter floating base , wherein the filter replacing unit is detachably mounted on the filter floating base ; and a slice module configured to be mounted on the box structure from the top opening and close the top opening, wherein the filter module and the slice module are detachably connected with the support and protection module . a support and protection module having a box structure, the box structure having a top opening and a side opening; a filter module configured to be placed into and pulled from the box structure from the side opening of the box structure, wherein the filter module comprises: a filter replacing unit , the filter replacing unit comprising a filter holder , a filter mounting plate , and one or more first filters , wherein the one or more first filters are mounted on the filter mounting plate via the filter holder ; and a filter floating base , wherein the filter replacing unit is detachably mounted on the filter floating base ; and a filter replacing unit , the filter replacing unit comprising a filter holder , a filter mounting plate , and one or more first filters , wherein the one or more first filters are mounted on the filter mounting plate via the filter holder ; and a filter floating base , wherein the filter replacing unit is detachably mounted on the filter floating base ; and a slice module configured to be mounted on the box structure from the top opening and close the top opening, wherein the filter module and the slice module are detachably connected with the support and protection module .
Method of making hybrid organic-inorganic core-shell nano-particles, comprising the steps of a) providing a dispersion of colloidal organic particles as a template; b) adding at least one inorganic oxide precursor; and c) forming an inorganic shell layer from the precursor on the template to result in core-shell nano-particles, wherein the colloidal particles comprise an organic synthetic polyampholyte and have an average particle size of 10-300 nm as measured by Dynamic Light Scattering (DLS), and wherein the polyampholyte is a copolymer obtained from • at least one cationic or basic monomer (M1); • at least one anionic or acidic monomer (M2); and • at least one neutral or non-ionic monomer (M3). a) providing a dispersion of colloidal organic particles as a template; b) adding at least one inorganic oxide precursor; and c) forming an inorganic shell layer from the precursor on the template to result in core-shell nano-particles, wherein the colloidal particles comprise an organic synthetic polyampholyte and have an average particle size of 10-300 nm as measured by Dynamic Light Scattering (DLS), and wherein the polyampholyte is a copolymer obtained from • at least one cationic or basic monomer (M1); • at least one anionic or acidic monomer (M2); and • at least one neutral or non-ionic monomer (M3). • at least one cationic or basic monomer (M1); • at least one anionic or acidic monomer (M2); and • at least one neutral or non-ionic monomer (M3).
A device for detecting the position of a shifter lever in a motor vehicle, the shifter lever rotatably movable around a pivot axis and translationally moveable in a direction along the axis , the device comprising: a 2D magnetic sensor ; and a dual magnet coupled to the shifter lever at a pivot point and disposed proximate the 2D magnetic sensor , the dual magnet having a first magnet and a second magnet, the first magnet having a first pole pair and the second magnet having a second pole pair, wherein the first pole pair is circumferentially offset from the second pole pair. a 2D magnetic sensor ; and a dual magnet coupled to the shifter lever at a pivot point and disposed proximate the 2D magnetic sensor , the dual magnet having a first magnet and a second magnet, the first magnet having a first pole pair and the second magnet having a second pole pair, wherein the first pole pair is circumferentially offset from the second pole pair.
An aft frame for a combustor of a gas turbine , which is connected to or formed as a part of a downstream end of a duct for routing combustion gases through the combustor to an inlet of the gas turbine , and which when installed in the combustor forms an axial gap between the aft frame and shroud portions of a first stage stationary nozzle disposed at the inlet of the gas turbine , the aft frame comprising: a rail extending circumferentially around and radially outwardly from the downstream end of the duct , the rail defining an outer surface of the aft frame facing the axial gap ; and a preformed cover plate having an inner surface attached to the outer surface of the aft frame ; wherein a plurality of micro-cooling channels is formed within at least one of the inner surface of the preformed cover plate and the outer surface of the aft frame , wherein the preformed cover plate extends across the plurality of micro-cooling channels characterized in that the cover plate is flush with the outer surface of the aft frame ; and in that the plurality of micro-cooling channels have a width of between about 100 micrometers and about 3 millimeters and a depth between about 100 micrometers and about 3 millimeters or have a width and/or depth of less than about 50, 100, 150, 200, 250, 300, 350, 400, 450, 500, 600, 700, or 750 micrometers. a rail extending circumferentially around and radially outwardly from the downstream end of the duct , the rail defining an outer surface of the aft frame facing the axial gap ; and a preformed cover plate having an inner surface attached to the outer surface of the aft frame ; wherein a plurality of micro-cooling channels is formed within at least one of the inner surface of the preformed cover plate and the outer surface of the aft frame , wherein the preformed cover plate extends across the plurality of micro-cooling channels
A locking unit, in particular an additional locking unit of a multipoint locking system , having a lock housing , a slide arranged in a longitudinally displaceable manner in the lock housing , a pivot latch , which is mounted pivotably about a pivot axis in or on the lock housing and is coupled to the slide with a coupling element such that the pivot latch is pivoted from a locking position into an unlocking position during the displacement of the slide in an unlocking direction (E), wherein the lock housing has at least one first control curve , wherein the pivot latch has a second control curve , wherein the coupling element can be transported together with the slide in the longitudinal direction (L) and engages both in the first control curve and in the second control curve , such that the displacement of the slide is converted into a pivoting movement of the pivot latch , characterised in that the coupling element has, in the section engaging in the second control curve in the pivot latch , a control cross section that differs from the circular shape. a lock housing , a slide arranged in a longitudinally displaceable manner in the lock housing , a pivot latch , which is mounted pivotably about a pivot axis in or on the lock housing and is coupled to the slide with a coupling element such that the pivot latch is pivoted from a locking position into an unlocking position during the displacement of the slide in an unlocking direction (E), wherein the lock housing has at least one first control curve , wherein the pivot latch has a second control curve , wherein the coupling element can be transported together with the slide in the longitudinal direction (L) and engages both in the first control curve and in the second control curve , such that the displacement of the slide is converted into a pivoting movement of the pivot latch , characterised in that the coupling element has, in the section engaging in the second control curve in the pivot latch , a control cross section that differs from the circular shape.
A method of forwarding a digital signal received in an optical network, the method comprising: receiving duplicates of the digital signal, wherein the digital signal is arranged into portions with each portion containing a timestamp and an error detection code, wherein the error detection codes are cyclic redundancy check, CRC, codes, and the duplicates are received as a first digital signal on a first optical path of the optical network and a second digital signal on a second optical path of the optical network that is separate to the first optical path; identifying corresponding timestamps in the first and second digital signals; using identified corresponding timestamps to synchronize corresponding portions of the first and second digital signals such that corresponding timestamps are synchronized; using at least one of the error detection codes to select one and only one of the corresponding portions of the first and second digital signals for forwarding, wherein using at least one of the error detection codes to select one and only one of the corresponding portions of the first and second digital signals for forwarding comprises determining whether or not the corresponding portions of the first and second digital signals are identical and, if the corresponding portions are not identical, using the error detection codes in both corresponding portions to determine errors in the corresponding portions and selecting the corresponding portion of the digital signal containing the least errors; and forwarding the selected portions of the first and second digital signals thereby forwarding the digital signal. receiving duplicates of the digital signal, wherein the digital signal is arranged into portions with each portion containing a timestamp and an error detection code, wherein the error detection codes are cyclic redundancy check, CRC, codes, and the duplicates are received as a first digital signal on a first optical path of the optical network and a second digital signal on a second optical path of the optical network that is separate to the first optical path; identifying corresponding timestamps in the first and second digital signals; using identified corresponding timestamps to synchronize corresponding portions of the first and second digital signals such that corresponding timestamps are synchronized; using at least one of the error detection codes to select one and only one of the corresponding portions of the first and second digital signals for forwarding, wherein using at least one of the error detection codes to select one and only one of the corresponding portions of the first and second digital signals for forwarding comprises determining whether or not the corresponding portions of the first and second digital signals are identical and, if the corresponding portions are not identical, using the error detection codes in both corresponding portions to determine errors in the corresponding portions and selecting the corresponding portion of the digital signal containing the least errors; and forwarding the selected portions of the first and second digital signals thereby forwarding the digital signal.
A method of extending the lifetime of a rolling-element bearing of an electrical machine , the method comprising: a) defining a first set of control parameter values, b) estimating a first remaining useful life, RUL, of the rolling-element bearing , based on a signal that provides a measure of vibrations of the rolling-element bearing obtained when the electrical machine is controlled by the first set of control parameter values, c) changing at least one control parameter value in the first set of control parameter values to thereby obtain a second set of control parameter values, d) estimating a second RUL of the rolling-element bearing based on the signal, obtained when the electrical machine is controlled by the second set of control parameter values, e) comparing the first RUL with the second RUL, f) in case the second RUL is longer than the first RUL, replacing the control parameter values in the first set of control parameter values with those of the second set of control parameter values, and replacing the value of the first RUL with that of the second RUL, and g) repeating steps c)-f) over and over during operation of the electrical machine . a) defining a first set of control parameter values, b) estimating a first remaining useful life, RUL, of the rolling-element bearing , based on a signal that provides a measure of vibrations of the rolling-element bearing obtained when the electrical machine is controlled by the first set of control parameter values, c) changing at least one control parameter value in the first set of control parameter values to thereby obtain a second set of control parameter values, d) estimating a second RUL of the rolling-element bearing based on the signal, obtained when the electrical machine is controlled by the second set of control parameter values, e) comparing the first RUL with the second RUL, f) in case the second RUL is longer than the first RUL, replacing the control parameter values in the first set of control parameter values with those of the second set of control parameter values, and replacing the value of the first RUL with that of the second RUL, and g) repeating steps c)-f) over and over during operation of the electrical machine .
A fuel tank system comprising: a fuel tank; an array of sensors; a light source arranged to illuminate a surface of a liquid fuel in the fuel tank with light so that the light is reflected or scattered by the surface of the fuel onto the array of sensors , the light travelling to and from the surface of the fuel via a measurement path containing a transmission medium, wherein the light source is also arranged to illuminate at least one sensor of the array of sensors with light via a reference path containing a transmission medium with the same refractive index as the transmission medium in the measurement path, the reference path having a known reference distance which does not vary in accordance with the quantity of the fuel; and a processing system arranged to determine a measured time of flight of the light which travels via the measurement path to each sensor of the array of sensors, measure a reference time of flight of the light which travels via the reference path to said at least one sensor, and estimate the quantity of the fuel in the fuel tank in accordance with the determined measured times of flight of the light which travels via the measurement path to each sensor, the reference time of flight and the known reference distance, wherein either: the surface of the fuel is illuminated from above so that the transmission medium in the measurement path comprises ullage gas; or the surface of the fuel is illuminated from below so that the transmission medium in the measurement path comprises the liquid fuel; characterised in that the fuel tank system is an aircraft system further comprising a reflector which is mounted in fixed relation to the array of sensors, so that the light travelling via the reference path is reflected onto said at least one sensor by the reflector, wherein the reflector is a semi-transparent window arranged such that some of the light from the light source is transmitted through the semi-transparent window and illuminates the surface of the fuel to provide the measurement path, and some of the light from the light source is reflected by the semi-transparent window onto said at least one sensor to provide the reference path.
A system for tomosynthesis comprising: an imaging system housing ; an x-ray source connected to the imaging system housing for delivering energy to a breast of a patient; a compression arm assembly housing connected to the imaging arm housing; a support connected to the compression arm assembly housing, wherein the support is configured to support the breast of the patient during delivery of the energy; a detector disposed in the support, such that a surface of the support is disposed between the x-ray source and the detector, the detector adapted to receive the delivered energy from the x-ray source and wherein the support is disposed between the x-ray source and the detector; a paddle disposed between the support and the x-ray source, wherein a bottom surface of the paddle at least partially defines a plane, and wherein when in a rest position, the plane is substantially parallel to the support; and a pivot mechanism connecting the paddle to the compression arm assembly housing, wherein the pivot mechanism comprises an axle that allows for pivotal movement of the paddle, wherein the axle defines an axis of rotation substantially parallel to a sagittal plane of the patient, and a biasing mechanism that is incorporated into the pivot mechanism to control the pivotal movement of the paddle around the axle as the breast is compressed by the paddle, wherein the biasing mechanism comprises at least one biasing element for biasing the paddle into the rest position. an imaging system housing ; an x-ray source connected to the imaging system housing for delivering energy to a breast of a patient; a compression arm assembly housing connected to the imaging arm housing; a support connected to the compression arm assembly housing, wherein the support is configured to support the breast of the patient during delivery of the energy; a detector disposed in the support, such that a surface of the support is disposed between the x-ray source and the detector, the detector adapted to receive the delivered energy from the x-ray source and wherein the support is disposed between the x-ray source and the detector; a paddle disposed between the support and the x-ray source, wherein a bottom surface of the paddle at least partially defines a plane, and wherein when in a rest position, the plane is substantially parallel to the support; and a pivot mechanism connecting the paddle to the compression arm assembly housing, wherein the pivot mechanism comprises an axle that allows for pivotal movement of the paddle, wherein the axle defines an axis of rotation substantially parallel to a sagittal plane of the patient, and a biasing mechanism that is incorporated into the pivot mechanism to control the pivotal movement of the paddle around the axle as the breast is compressed by the paddle, wherein the biasing mechanism comprises at least one biasing element for biasing the paddle into the rest position.
A wrist watch comprising: a display for providing a user interface for a user when wearing the wrist watch on a wrist; a first motion sensor arranged to detect motion of the wrist watch; a proximity detector arranged to detect the proximity of a hand of the user when wearing the wrist watch; and a data processor , wherein the data processor is configured to activate the user interface when the first motion sensor detects that the wrist of the user has been raised and the proximity detector detects that the hand of the user has moved toward the wrist watch. a display for providing a user interface for a user when wearing the wrist watch on a wrist; a first motion sensor arranged to detect motion of the wrist watch; a proximity detector arranged to detect the proximity of a hand of the user when wearing the wrist watch; and a data processor , wherein the data processor is configured to activate the user interface when the first motion sensor detects that the wrist of the user has been raised and the proximity detector detects that the hand of the user has moved toward the wrist watch.