mhurhangee/ep-ind-claims huggingface dataset:
A topology remediation method, comprising: deriving, by a remediation engine, a number of remediation actions based on a number of incidents within an instantiated topology and a number of policies associated with the instantiated topology, the instantiated topology comprising a plurality of nodes, wherein each node of the plurality of nodes of the topology is associated with a single lifecycle management action, LCMA, and a number of policies; generating, by the remediation engine, a number of function calls to a number of LCMAs to be issued to a lifecycle management engine to remediate the incidents, wherein the number of function calls is based on a number of LCMAs associated with the nodes of the instantiated topology, the incidents to be remediated and the policies associated with the nodes of the topology; and modifying, by the lifecycle management engine, the instantiated topology based on the number of LCMAs called by the remediation engine. deriving, by a remediation engine, a number of remediation actions based on a number of incidents within an instantiated topology and a number of policies associated with the instantiated topology, the instantiated topology comprising a plurality of nodes, wherein each node of the plurality of nodes of the topology is associated with a single lifecycle management action, LCMA, and a number of policies; generating, by the remediation engine, a number of function calls to a number of LCMAs to be issued to a lifecycle management engine to remediate the incidents, wherein the number of function calls is based on a number of LCMAs associated with the nodes of the instantiated topology, the incidents to be remediated and the policies associated with the nodes of the topology; and modifying, by the lifecycle management engine, the instantiated topology based on the number of LCMAs called by the remediation engine.
A handover failure detection device comprising: detection means for detecting at least one of handover failure types regarding outgoing handover from a first cell managed by a first base station by observing a) presence/absence of reception by the first base station of an acknowledgment response to a handover command regarding first handover of a mobile terminal from the first cell to a second cell managed by a second base station, and b) presence/absence of a request for connection re-establishment from the mobile terminal to the first cell, the request occurring after initiation of the first handover, wherein the acknowledgment response to the handover command is transmitted to the first base station from the mobile terminal, and the detection means is configured to detect a first handover failure type when the acknowledgment response to the handover command is not received (S23, S25) within a first predetermined period dependent on initiation of the first handover and the request for connection re-establishment is also not received (S24, S25) within a second predetermined period dependent on initiation of the first handover. detection means for detecting at least one of handover failure types regarding outgoing handover from a first cell managed by a first base station by observing a) presence/absence of reception by the first base station of an acknowledgment response to a handover command regarding first handover of a mobile terminal from the first cell to a second cell managed by a second base station, and b) presence/absence of a request for connection re-establishment from the mobile terminal to the first cell, the request occurring after initiation of the first handover, wherein the acknowledgment response to the handover command is transmitted to the first base station from the mobile terminal, and the detection means is configured to detect a first handover failure type when the acknowledgment response to the handover command is not received (S23, S25) within a first predetermined period dependent on initiation of the first handover and the request for connection re-establishment is also not received (S24, S25) within a second predetermined period dependent on initiation of the first handover.
A method for evaluating a wafer configuration comprising the steps of measuring a configuration of a wafer at positions with a prescribed space within a surface of the wafer; providing a first region within the wafer surface for calculating a reference line or a reference plane from the measured wafer configuration; calculating a reference line or a reference plane in the first region; providing a second region to be evaluated outside the first region; extrapolating the reference line or reference plane to the second region; analyzing a difference between the measured configuration of the second region and the extrapolated reference line or reference plane within the second region; and calculating the analyzed difference as surface characteristics.
A grating for X-ray differential phase-contrast imaging, comprising - a first sub-grating; and - at least a second sub-grating (114; 116; 118); wherein the sub-gratings each comprise a body structure with bars and gaps being arranged periodically with a pitch ( a); wherein the sub-gratings (112; 114; 116; 118) are arranged consecutively in the direction of the X-ray beam; and wherein the sub-gratings (112; 114; 116; 118) are positioned displaced to each other perpendicularly to the X-ray beam; wherein the projections of the sub-gratings (112; 114; 116; 118) result in an effective grating with a smaller effective pitch (z) than the pitches of the sub-gratings; wherein the sub-gratings are made from silicon with an additional gold layer covering the bars and gaps; and wherein the effective grating is defined by the sidewalls in direction of the X-ray beam. - a first sub-grating; and - at least a second sub-grating (114; 116; 118);
A nacelle assembly, comprising: an inlet lip section having a highlight diameter Dh; and a cowl section downstream of said inlet lip section, and having a maximum diameter Dmax, at least a portion of said cowl section including a flexible portion located within an exterior wall of the nacelle assembly; characterised in that: said nacelle assembly further comprises a nanoelectromechanical system configured to adjust said flexible portion to change a thickness contour of the nacelle assembly by reducing or increasing the maximum diameter Dmax for varying a ratio of maximum diameter Dmax to highlight diameter Dh in response to an operability flight condition. an inlet lip section having a highlight diameter Dh; and a cowl section downstream of said inlet lip section, and having a maximum diameter Dmax, at least a portion of said cowl section including a flexible portion located within an exterior wall of the nacelle assembly;
A fluid flow characteristic regulator, comprising: a) a fluid flow path; b) a control fluid flow path adjacent said fluid flow path; c) a flexible barrier located between said fluid flow path and said control fluid flow path, wherein the flexible barrier has a first barrier surface contacting the fluid flow path and a second barrier surface contacting the control fluid flow path; and wherein the flexible barrier is configured from an inelastic flexible material substantially impermeable to the fluid flow and the control fluid flow; d) a fluid flow variation sensor which senses movement of said flexible barrier in response to a fluid flow in said fluid flow path and produces a fluid variation signal based upon said movement of non-eleastic deformation of said flexible barrier; e) a fluid flow variation signal analyzer which generates control fluid adjustment values in response to said fluid variation signal; f) a control fluid delivery adjustment element which converts said control fluid adjustment values to corresponding control fluid delivery adjustment values; and g) a control fluid controller which adjusts control fluid characteristics of a control fluid in said control fluid path based on said control fluid deliver adjustment values; and wherein the fluid flow characteristics are selected from the group consisting of pressure and flow rate. a) a fluid flow path; b) a control fluid flow path adjacent said fluid flow path; c) a flexible barrier located between said fluid flow path and said control fluid flow path, wherein the flexible barrier has a first barrier surface contacting the fluid flow path and a second barrier surface contacting the control fluid flow path; and wherein the flexible barrier is configured from an inelastic flexible material substantially impermeable to the fluid flow and the control fluid flow; d) a fluid flow variation sensor which senses movement of said flexible barrier in response to a fluid flow in said fluid flow path and produces a fluid variation signal based upon said movement of non-eleastic deformation of said flexible barrier; e) a fluid flow variation signal analyzer which generates control fluid adjustment values in response to said fluid variation signal; f) a control fluid delivery adjustment element which converts said control fluid adjustment values to corresponding control fluid delivery adjustment values; and g) a control fluid controller which adjusts control fluid characteristics of a control fluid in said control fluid path based on said control fluid deliver adjustment values; and
A handheld device, comprising: a touchscreen configured to display a thumb operated virtual keyboard, the virtual keyboard having a plurality of rows of keys, each row of keys following an arc shape with the arcs of the different rows of keys configured as tiered arcs within reach of a user's thumb of a hand holding the handheld device, the handheld device including, for each row of keys of the plurality of rows, assumptions about the shape and orientation for a contact patch that a particular row of keys will experience when a key of that row is touched by the thumb of the hand holding the handheld device, wherein the handheld device is configured to: detect a touch on the touchscreen by a user, the touch providing a contact patch on the touchscreen; determine a location for a centroid of the contact patch for the touch; and determine a location of an active point for the touch with respect to the centroid; and wherein determination of the location of the active point for the touch takes into account the assumptions about the shape and orientation for a contact patch for each row of the keys of the plurality of rows and adjusts the location of the active point with respect to the centroid accordingly. a touchscreen configured to display a thumb operated virtual keyboard, the virtual keyboard having a plurality of rows of keys, each row of keys following an arc shape with the arcs of the different rows of keys configured as tiered arcs within reach of a user's thumb of a hand holding the handheld device, the handheld device including, for each row of keys of the plurality of rows, assumptions about the shape and orientation for a contact patch that a particular row of keys will experience when a key of that row is touched by the thumb of the hand holding the handheld device, wherein the handheld device is configured to: detect a touch on the touchscreen by a user, the touch providing a contact patch on the touchscreen; determine a location for a centroid of the contact patch for the touch; and determine a location of an active point for the touch with respect to the centroid; and detect a touch on the touchscreen by a user, the touch providing a contact patch on the touchscreen; determine a location for a centroid of the contact patch for the touch; and determine a location of an active point for the touch with respect to the centroid; and wherein determination of the location of the active point for the touch takes into account the assumptions about the shape and orientation for a contact patch for each row of the keys of the plurality of rows and adjusts the location of the active point with respect to the centroid accordingly.
A method for detecting standing-wave ratio, the method comprising: grabbing output power detection data, OPD, of a base station signal transmitted by a Time-Division Long-Term Evolution, TD-LTE, base station system and reflection power detection data, RPD, of a device to be detected in the base station system, wherein the TD-LTE base station signal is an orthogonal frequency-division multiplexing, OFDM, modulated signal; extracting feedback signals of the OPD and feedback signals of the RPD within a plurality of periods of time, according to a preset data length, within a first preset bandwidth range; performing Fast Fourier Transform on the feedback signals of the OPD and the feedback signals of the RPD in each period of time respectively, and determining spectrum characteristics of the feedback signals of the OPD and the spectrum characteristics of the feedback signals of the RPD by determining maximum amplitude of the feedback signals of the OPD in each period of time as well as maximum amplitude of the feedback signals of the RPD in each period of time, as well as determining the reflection coefficient of the base station system on the basis of the maximum amplitude of the feedback signals of the OPD and the maximum amplitude of the feedback signals of the RPD corresponding to each period of time; and determining the standing-wave ratio of the base station system within the first preset bandwidth range according to the reflection coefficient of the base station system. grabbing output power detection data, OPD, of a base station signal transmitted by a Time-Division Long-Term Evolution, TD-LTE, base station system and reflection power detection data, RPD, of a device to be detected in the base station system, wherein the TD-LTE base station signal is an orthogonal frequency-division multiplexing, OFDM, modulated signal; extracting feedback signals of the OPD and feedback signals of the RPD within a plurality of periods of time, according to a preset data length, within a first preset bandwidth range; performing Fast Fourier Transform on the feedback signals of the OPD and the feedback signals of the RPD in each period of time respectively, and determining spectrum characteristics of the feedback signals of the OPD and the spectrum characteristics of the feedback signals of the RPD by determining maximum amplitude of the feedback signals of the OPD in each period of time as well as maximum amplitude of the feedback signals of the RPD in each period of time, as well as determining the reflection coefficient of the base station system on the basis of the maximum amplitude of the feedback signals of the OPD and the maximum amplitude of the feedback signals of the RPD corresponding to each period of time; and determining the standing-wave ratio of the base station system within the first preset bandwidth range according to the reflection coefficient of the base station system.
A user wearable optical article comprising: an optical substrate with a front main face and a rear main face for facing the user when wearing the optical article; and an interferential coating disposed on at least one of the front main face and rear main face and configured to selectively reflect light of at least one range of wavelengths of an incident light in the near infrared light spectrum, so that a peak reflectance at 850 nm or 940nm measured at a substantially normal to the optical article is at least 70%, and the interferential coating has a mean reflectance of less than 1.5% in a visible light range, the total thickness of the interferential coating being equal to or less than 750 nm, optionally equal to or less than 710 nm, and optionally equal to or less than 650 nm. an optical substrate with a front main face and a rear main face for facing the user when wearing the optical article; and an interferential coating disposed on at least one of the front main face and rear main face and configured to selectively reflect light of at least one range of wavelengths of an incident light in the near infrared light spectrum, so that a peak reflectance at 850 nm or 940nm measured at a substantially normal to the optical article is at least 70%, and the interferential coating has a mean reflectance of less than 1.5% in a visible light range, the total thickness of the interferential coating being equal to or less than 750 nm, optionally equal to or less than 710 nm, and optionally equal to or less than 650 nm.
Disposable cap comprising - a cavity comprising a proximal opening; - a separately openable and closable cover attached using a snap-lock mechanism; - an ostomy bag housed between the proximal opening and the cover in a bag cavity formed in the cover; wherein the bag cavity is externally located to the cavity and is dimensioned for accommodating ostomy bag folded inside. - a cavity comprising a proximal opening; - a separately openable and closable cover attached using a snap-lock mechanism; - an ostomy bag housed between the proximal opening and the cover in a bag cavity formed in the cover;
A surgical laser system comprising: a laser generator comprising a first laser source (140 A) configured to output a first laser pulse train (144, 104A) comprising first laser pulses, and a second laser source configured to output a second laser pulse train (148, 104B) comprising second laser pulses, each laser pulse train including laser pulses (146, 150) at a pulse repetition rate; a beam combiner configured to combine the at least two laser pulse trains into a combined laser pulse train (152, 104) including laser pulses at a resultant pulse repetition rate; a stone analyzer having an output relating to a natural or resonance frequency of a targeted stone; and a controller comprising at least one processor configured to determine the natural or resonance frequency of the stone based on the output from the stone analyzer 170), and match the resultant pulse repetition rate with the natural or resonance frequency. a laser generator comprising a first laser source (140 A) configured to output a first laser pulse train (144, 104A) comprising first laser pulses, and a second laser source configured to output a second laser pulse train (148, 104B) comprising second laser pulses, each laser pulse train including laser pulses (146, 150) at a pulse repetition rate; a beam combiner configured to combine the at least two laser pulse trains into a combined laser pulse train (152, 104) including laser pulses at a resultant pulse repetition rate; a stone analyzer having an output relating to a natural or resonance frequency of a targeted stone; and a controller comprising at least one processor configured to determine the natural or resonance frequency of the stone based on the output from the stone analyzer 170), and match the resultant pulse repetition rate with the natural or resonance frequency.
A method for forming an aggregate pier in a matrix soil comprising the steps of: (a) forming an elongate cavity having a bottom and a longitudinal axis in the matrix soil by lowering a hollow tube with a bulbous bottom head element having an open end at the extreme end thereof including a closure mechanism for closing the extreme open end, said bulbous bottom head element configured with a greater cross sectional area portion than the cross sectional area of the adjacent connected hollow tube and configured to provide axial and transaxial vector forces on the soil matrix, said closure mechanism closed during formation of the elongate cavity to prevent aggregate material discharge from the bottom head element during formation of the cavity and to prevent clogging of the bottom head element or hollow tube with matrix soil materials during penetration and formation of the elongate cavity; (b) raising the hollow tube a predetermined first incremental distance in the formed cavity; (c) opening the closure mechanism when the hollow tube is raised; (d) feeding pier forming aggregate material through the special bottom head element extreme open end into the portion of the cavity revealed by raising the hollow tube said first incremental distance; and (e) lowering the hollow tube a predetermined second incremental distance to compact the discharged aggregate material in the cavity by axial and transaxial force impact from the bulbous bottom head element onto the discharged aggregate material surface while displacing a portion of the pier forming aggregate material transaxially into the sidewalls of the filled cavity. (a) forming an elongate cavity having a bottom and a longitudinal axis in the matrix soil by lowering a hollow tube with a bulbous bottom head element having an open end at the extreme end thereof including a closure mechanism for closing the extreme open end, said bulbous bottom head element configured with a greater cross sectional area portion than the cross sectional area of the adjacent connected hollow tube and configured to provide axial and transaxial vector forces on the soil matrix, said closure mechanism closed during formation of the elongate cavity to prevent aggregate material discharge from the bottom head element during formation of the cavity and to prevent clogging of the bottom head element or hollow tube with matrix soil materials during penetration and formation of the elongate cavity; (b) raising the hollow tube a predetermined first incremental distance in the formed cavity; (c) opening the closure mechanism when the hollow tube is raised; (d) feeding pier forming aggregate material through the special bottom head element extreme open end into the portion of the cavity revealed by raising the hollow tube said first incremental distance; and (e) lowering the hollow tube a predetermined second incremental distance to compact the discharged aggregate material in the cavity by axial and transaxial force impact from the bulbous bottom head element onto the discharged aggregate material surface while displacing a portion of the pier forming aggregate material transaxially into the sidewalls of the filled cavity.
Aircraft jet engine having a longitudinal axis (XX'), comprising a wall surrounding a flow of gas which is ejected at a downstream end of the wall along the longitudinal axis, multiple ducts (32, 34, 36, 38, 40, 42, 44, 46) distributed at the periphery of the downstream end of the wall and each comprising an end portion provided with an outlet opening, each duct being able to eject a jet of fluid via its outlet opening, said ducts having essentially the same angular orientation with respect to the downstream end in order that the jets exiting from these ducts are oriented in the same direction, each jet of fluid ejected via the corresponding outlet opening forming an offset angle (d) with the longitudinal axis (XX') as seen in a projection of the outlet opening onto the longitudinal axis in a plane containing the longitudinal axis, said ducts, termed primary ducts, being spaced apart from one another, characterised in that at least one duct termed secondary duct adjoins each primary duct and is arranged adjacent and parallel thereto.