The role of networks to overcome large-scale challenges in tomography: The non-clinical tomography users research network
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Paul M. Gignac
Valeria Aceves
Stephanie Baker
Jessica J. Barnes
Joshua Bell
Doug Boyer
Deborah Cunningham
Francesco De Carlo
Morgan H. Chase
Karly E. Cohen
Matthew Colbert
Theresa De Cree
Juan Daza
Edwin Dickinson
Valerie DeLeon
Lindsay Dougan
Franklin Duffy
ChristiAna Dunham
Catherine M. Early
Dave R. Edey
Scott Echols
Scott A. Eckley
Kelsey Fenner
Katheryn P. Franklin
Brent Gila
Freya E. Goetz
Jaimi A. Gray
Devora Gleiber
Alexander S. Hall
Romy Hanna
Markus Hannula
William Harris
Jennifer J. Hill
Casey M. Holliday
Kelsi Hurdle
Aditi Jayarajan
Jamie L. Knaub
Amanda R. Krause
Alice Leavey
Emily J. Lessner
Leigha M. Lynch
Murat Maga
Jessica Maisano
Kristin Marsh
Michael Marsh
Elizabeth Martin-Silverstone
John P. Misiaszek
April I. Neander
Haley D. O'Brien
Selby Olson
Eldon Panigot
Susan M. Motch Perrine
Teresa J. Porri
Andre Ramsey
Gary Scheiffele
Heather F. Smith
Edward L. Stanley
Stuart R. Stock
Claire E. Terhune
Dana L. Thomas
Camilo Andres Linares Vargas
Megan Veltri
Jason M. Warnett
Akinobu Watanabe
Emily A. Waters
Roger Wende
Daniel J. Wescott
Charles B. Withnell
Scott Whittaker
Zoë E. Wilbur
Jordan Wilson
Manon Wilson
Julie Winchester
Caitlin B. Yoakum
Christopher M. Zobek
Abstract
Our ability to visualize and quantify the internal structures of objects via computed tomography (CT) has fundamentally transformed science. As tomographic tools have become more broadly accessible, researchers across diverse disciplines have embraced the ability to investigate the 3D structure-function relationships of an enormous array of items. Whether studying organismal biology, animal models for human health, iterative manufacturing techniques, experimental medical devices, engineering structures, geological and planetary samples, prehistoric artifacts, or fossilized organisms, computed tomography has led to extensive methodological and basic sciences advances and is now a core element in science, technology, engineering, and mathematics (STEM) research and outreach toolkits. Tomorrow’s scientific progress is built upon today’s innovations. In our data-rich world, this requires access not only to publications but also to supporting data. Reliance on proprietary technologies, combined with the varied objectives of diverse research groups, has resulted in a fragmented tomography-imaging landscape, one that is functional at the individual lab level yet lacks the standardization needed to support efficient and equitable exchange and reuse of data. Developing standards and pipelines for the creation of new and future data, which can also be applied to existing datasets is a challenge that becomes increasingly difficult as the amount and diversity of legacy data grows. Global networks of CT users have proved an effective approach to addressing this kind of multifaceted challenge across a range of fields. Here we describe ongoing efforts to address barriers to recently proposed FAIR (Findability, Accessibility, Interoperability, Reuse) and open science principles by assembling interested parties from research and education communities, industry, publishers, and data repositories to approach these issues jointly in a focused, efficient, and practical way. By outlining the benefits of networks, generally, and drawing on examples from efforts by the Non-Clinical Tomography Users Research Network (NoCTURN), specifically, we illustrate how standardization of data and metadata for reuse can foster interdisciplinary collaborations and create new opportunities for future-looking, large-scale data initiatives.
Type
Publication
Tomography of Materials and Structures, 5