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5 NSF Program Implementation
Pages 116-123

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From page 116...
... Where appropriate, the chapter also addresses connections to the 2010 astronomy and astrophysics decadal survey, New Worlds, New Horizons in Astronomy and Astrophysics,1 which also made recommendations concerning NSF ground-based solar physics facilities and programs. Cost implications are considered, but because the recommendations to NSF are not fit to a specific budget, the committee does not prioritize its recommendations.
From page 117...
... is an example of a midscale project widely seen as having transformed research in the ground-based AIM community. Although different NSF directorates have programs to support unsolicited midscale projects at different levels, these programs may be overly prescriptive and uneven in their availability, and practical gaps in proposal opportunities and funding levels may be limiting the effectiveness of midscale research across NSF.
From page 118...
... The radio emissions of interest convey unique, otherwise inaccessible information about the solar atmosphere and the acceleration of energetic particles. Discoveries in the areas of quiet sun physics, the evolution of coronal magnetic fields, solar flares, and space weather drivers are anticipated with the undertaking of this project.
From page 119...
... Capturing these phenomena will require the deployment of an autonomous network of heterogeneous instruments, using optical and radio remote sensing techniques to measure neutral winds and temperatures, plasma densities, and plasma irregularities. Such a network would become a valuable facility in its own right, comparable to an EarthScope USArray5 for heliophysics, and would also be the ground-based counterpart to space-based investigations, complementing everything from CubeSat projects to NASA strategic missions.
From page 120...
... Undergraduate and Graduate Training The NSF Research Experiences for Undergraduates program is an excellent means to attract talented undergraduates to the field, and the committee has endorsed it in the "Educate" component of DRIVE, along with the various summer school offerings supported by NSF. Currently, these include the annual Polar Aeronomy and Radio Science (PARS)
From page 121...
... In addition, the skills needed to become a successful scientist go beyond such formal discipline training and include interpersonal and communication skills, awareness of career opportunities, and leadership and laboratory management ability. The committee endorses NSF programs that support postdoctoral and graduate student mentoring and recommends that NSF enable opportunities for focused community workshops that directly address professional development skills for graduate students.
From page 122...
... The 2010 astronomy and astrophysics decadal survey6 considered the future of NSF-supported solar research in view of its likely expansion in the ATST era. The current funding split, with the majority of grant funding coming from AGS and with the facilities funding divided between AGS and AST, was noted for being unusual and differing from the space-based solar research model.
From page 123...
... The addition of the Asian half of the meridian will be useful for distinguishing local-time from storm-time space weather phenomenology. While participation in international solar and space research projects could be accomplished through numerous individual, bilateral initiatives and agreements, the overall impact would be increased by coordinated agency involvement.


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