Nabil Freij
9 Papers
Nabil Freij is an academic researcher. The author has contributed to research in topics: Interoperability & Computer science. The author has an hindex of 1, co-authored 1 publications.
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Papers
The Astropy Project: Sustaining and Growing a Community-oriented Open-source Project and the Latest Major Release (v5.0) of the Core Package
The Astropy Collaboration,Adrian M. Price-Whelan,Pey Lian Lim,Nicholas Earl,Nathaniel Starkman,Larry Bradley,David L. Shupe,Aarya A. Patil,Lia Corrales,C. E. Brasseur,M. Nöthe,Axel Donath,Erik Tollerud,Brett M. Morris,Adam Ginsburg,Eero Vaher,B. A. Weaver,James Tocknell,William Jamieson,M. H. van Kerkwijk,Thomas P. Robitaille,Bruce Merry,Matteo Bachetti,H. M. Gunther,Tom Aldcroft,Jaime A. Alvarado-Montes,Anne M. Archibald,A. B'odi,Shreyas Bapat,Geert Barentsen,Juanjo Baz'an,Manish J Biswas,Médéric Boquien,D. J. Burke,D. Cara,Mihai Cara,Kyle E. Conroy,Simon Conseil,Matt Craig,Robert M. Cross,Kelle L. Cruz,Francesco D'Eugenio,Nadia Dencheva,Hadrien A. R. Devillepoix,J. P. Dietrich,Arthur Eigenbrot,Thomas Erben,Leonardo Ferreira,Daniel Foreman-Mackey,R. T. Fox,Nabil Freij,Suyog Garg,Robel Geda,Lauren Glattly,Yash Gondhalekar,Karl D. Gordon,David Grant,Perry Greenfield,A. M. Groener,S. Guest,Sebastián Gurovich,Rasmus Handberg,Akeem Hart,Zac Hatfield-Dodds,Derek Homeier,Griffin Hosseinzadeh,Tim Jenness,Craig Jones,Prajwel Joseph,J. Bryce Kalmbach,Emir Karamehmetoglu,M. Kaluszy'nski,Michaelann Kelley,Nicholas S. Kern,Wolfgang Kerzendorf,Eric W. Koch,Shankar Kulumani,Antony H. Lee,Chun Ly,Zhiyuan Mao,Conor D. MacBride,Jakob M. Maljaars,Demitri Muna,N. A. Murphy,Henrik Norman,R. G. O'Steen,Kyle A. Oman,Camilla Pacifici,Sergio Pascual,J. Pascual-Granado,Rohit R Patil,G. I. Perren,T. E. Pickering,Tanuja Rastogi,Benjamin R. Roulston,Daniel F Ryan,Eli S. Rykoff,J. Sabater,Parikshit Sakurikar,Jesús Salgado,A. Sanghi,Nicholas Saunders,V. G. Savchenko,L. C. Schwardt,Michael Seifert-Eckert,Albert J. Shih,A. S. Jain,G. R. Shukla,J. Sick,Chris Simpson,Sudheesh Singanamalla,Leo Singer,Jaladh Singhal,Manodeep Sinha,B. SipHocz,Lee R. Spitler,David Stansby,Ole Streicher,Jani vSumak,John D. Swinbank,Dan S. Taranu,N. B. Tewary,Grant R. Tremblay,Miguel de Val-Borro,Samuel J. Van Kooten,Zlatan Vasovi'c,Shresth Verma,José Vinícius de Miranda Cardoso,Peter K. G. Williams,Tom J. Wilson,Benjamin Winkel,W. M. Wood-Vasey,Rui Xue,Peter Yoachim,Chenchen Zhang,Andrea Zonca +135 more
TL;DR: Astropy as mentioned in this paper is a Python package that provides commonly needed functionality to the astronomical community, such as astronomy, astronomy, and astronomy data visualization, as well as other related projects and packages.
Rapid variations of Si IV spectra in a flare observed by interface region imaging spectrograph at a sub-second cadence
TL;DR: In this paper , a moment analysis of the Si IV 1402.77 Å line profiles observed with the Interface Region Imaging Spectrograph (IRIS) during the M-class flare from 18 January 2022 at an unprecedented 0.8 s cadence was performed.
•Dissertation
The identification and analysis of MHD waves in localised solar atmospheric wave guides
Nabil Freij
- 23 Sep 2015
TL;DR: In this article, the authors used high-resolution data sets taken from several solar telescopes, the aim was to identify magnetohydrodynamics (MHD) wave modes in the cross-sectional area of these magnetic structures.
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The SunPy Project: An interoperable ecosystem for solar data analysis
W. T. Barnes,Steven Christe,Nabil Freij,Laura A. Hayes,David Stansby,Jack Ireland,Stuart Mumford,Daniel H. Ryan,Albert J. Shih +8 more
TL;DR: The SunPy project as mentioned in this paper is a community of scientists and software developers creating an ecosystem of Python packages for solar physics, which includes the sunpy core package as well as a set of affiliated packages.
A data screening approach to confirming a target mineral is chlorite using EPMA and LA‐ICPMS data
Nabil Freij,Daniel Gregory,Yang Liu +2 more
Abstract: Applying machine learning techniques to large datasets of in situ analyses has been proven to be a powerful tool in Earth Sciences. However, problems may arise when dealing with minerals such as chlorite, that exist as a solid solution rather than a single, stoichiometric ideal. It can be difficult to determine whether the variations in major element concentrations are due to compositional difference in the mineral of interest or due to sampling of the surrounding mineral phases in addition to the mineral of interest during the analyses. If the latter, interpretations of the results would be complicated, misled or even spurious. Here we present a method to identify chlorite based on the major and minor element content, from both LA‐ICPMS and EPMA data. Further we present a dataset of 3,317 analyses of chlorite and have shown that 7.4% of these analyses include significant quantities of non‐chlorite material.
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