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Ground Based, Space Based, Infrastructure, Technological Development, and State of the Profession Activities Ground Based, Space Based, Infrastructure, Technological Development, and State of the Profession Activities Ground Based, Space Based, Technological Development, and State of the Profession Activities Ground Based, Space Based, and Technological Development Activities Ground Based and Space Based Activities Ground Based, Infrastructure, Technological Development, and State of the Profession Activities Ground Based, Infrastructure, Technological Development, State of the Profession, and Other Activities Ground Based, Infrastructure, and Technological Development Activities Ground Based, Infrastructure, and State of the Profession Activities Ground Based and Infrastructure Activities Ground Based, Technological Development, and State of the Profession Activities Ground Based and Technological Development Activities Ground Based Projects Space Based, Infrastructure, Technological Development, and State of the Profession Activities Space Based, Infrastructure, Technological Development Activities Space Based and Infrastructure Activities Space Based, Technological Development, and State of the Profession Activities Space Based and Technological Development Activities Space Based and State of the Profession Activities Space Based Projects Infrastructure, Technological Development, and State of the Profession Activities Infrastructure, Technological Development, and Other Activities Infrastructure and Technological Development Activities Infrastructure, State of the Profession, and Other Activities Infrastructure and State of the Profession Activities Infrastructure Activities Technological Development, State of the Profession, and Other Activities Technological Development and State of the Profession Activities Technological Development Activities State of the Profession and Other Activities State of the Profession Activities Other Activities Ground Based, Space Based, Infrastructure, Technological Development, and State of the Profession Activities Name: Michael Fundator Proposing Team: Type of Activity: Ground Based Project Space Based Project Infrastructure Activity Technological Development Activity State of the Profession Consideration Description: Michael Fundator after presenting at different International, National, and local Conferences and Symposiums on subjects ranging from Pure Mathematics and Probability to different DNA and RNA analyses or Magnetism and Analytical Chemistry with application of Smoluchowski equation to 1D, 2D, 3D, and multidimensional models and publishing several articles in different International Journals with affiliation with DBASSE of the National Academy of Sciences of USA, the author with MS in Statistics from Rutgers University became a winner of the World Championship in Multidimensional Time Model that was developed by an author and partially presented in 3 White Papers submitted by the author in answer to the Call for White Papers is based on Stein estimators in Statistics, multifractal, multiscale laws of turbulent equations and Quantum Mechanics approach of Bohr–Kramers–Slater to interaction of matter and electromagnetic field for evaluation of different discontinuous quantum effects in atoms, molecules, and their different formations, and could be extended to physical optics, and further to direct analysis without questionable cosmological assumptions (for instance, micro- and macro- possible relations and other) of various space investigations including Solar System objects observations that are hardly detectible, for example planets and moons paths like Uranus moons, dust rings like the newly discovered of Mercury, meteor zone predictions, with further extension to pulsars emissions and formation of Black Holes, for example Primordial that are characterized by density perturbations, early dust type stages following turbulent fluctuations of the metric, and extended to BH formed by stellar collapse along with other analytical and observational applications including Biophysics and Biochemistry. Web link: https://sites.google.com/.../dr-michael-fundator-from-usa-wins-world-championship-201... http://surveygizmoresponseuploads.s3.amazonaws.com/fileuploads/623127/4458621/250- ad57d859f5c9a7fa688af62831af3bd3_AstroWhitePaper.pdf http://surveygizmoresponseuploads.s3.amazonaws.com/fileuploads/623127/4458621/250- 9010b50a3aa6b0814add25b38b20d229_Rescue1111.pdf http://surveygizmoresponseuploads.s3.amazonaws.com/fileuploads/623127/4458621/250- ff1d89d5e32053cca210ef3dc091c1f6_Astro_theory_of_motion.pdf Ground Based, Space Based, Technological Development, and State of the Profession Activities Name: Ashwini Sathnur Proposing Team: Ashwini Sathnur, Capacity Development Expert in United Nations Development Programme Type of Activity: Ground Based Project Space Based Project Technological Development Activity State of the Profession Consideration Description: Impact of solar flares and radiation exposure on the human astronauts who are located in the low - earth - orbit or deep space regions. Realization and implementation of inclusive development and accessibility solutions in these situations and bringing about a remedy for health - related issues in such situations! Web link: https://issuu.com/ashwinisathnur/docs/solar_flares_and_quantum_physics_ne Ground Based, Space Based, and Technological Development Activities Name: Thomas Maccarone Proposing Team: Poshak Gandhi (University of Southampton), Stephen S. Eikenberry (University of Florida), Piergiorgio Casella (INAF-Rome), James F. Steiner (MIT), Gregory R. Sivakoff (University of Alberta), Alexandra J. Tetarenko (East Asian Observatory), Daryl Haggard (McGill University) Type of Activity: Ground Based Project Space Based Project Technological Development Activity Description: We plan to submit a paper arguing for the importance of having the capability of making optical and infrared variability measurements at millisecond timescales, primarily aimed at better understanding of the physics of compact objects. This capability has long been widely available for radio astronomy, and for X-ray and gamma-ray astronomy. Historically, it was available in the optical during the era when photomultipliers were the detector of choice for photometry, but with the advent of the CCD, it has become available only in niche instrumentation. In recent years, modern, high quantum- efficiency devices have been developed that detect optical photons with millisecond or better time resolution. Some of these systems also have direct energy resolution, while in other cases, systems have been set up to use dichroics to allow observations in several filters at once. Most often, though, observatories have not considered the value of high time resolution observations in planning their facilities. As a result, the capability to make these measurements is often limited by the analog to digital conversion, or, in the cases of many satellite missions, by the accuracy of the on-board clock. The lack of optical and infrared timing capabilities on publicly available facilities is particular noticeable in the United States. We plan to illustrate briefly a few examples of cutting edge science that has been done with existing facilities, and to discuss in broad terms the type of instrumentation and policy changes that could lead to a more widespread capability of doing optical and infrared timing. Web link: Name: William (Bill) Doggett Proposing Team: Type of Activity: Ground Based Project Space Based Project Technological Development Activity Description: This Notice of Intent (NOI) to provide a paper that reviews the significant capability that has been developed through decades of in-space assembly research at NASA Langley Research Center. The work began in the late 80's and continues today, validating the feasibility of assembling predictable systems on-orbit. The paper will review early erectable structures development and associated flight experiments, discuss assembly development targeting Space Station Freedom (the precursor to the International Space Station), describe robotic and EVA laboratory assembly experiments, and conclude with a description of more recent modular assembly approaches. The capabilities described are cross cutting to astrophysics telescopes of varying sizes achieved through single or multiple launches. Certainly, in-space assembly allows the creation of large scientific observatories. However, there are many other benefits of in-space assembly that will be highlighted. One of the most important is that in- space assembly provides funding and programmatic versatility. If an instrument is lagging, it does not directly impact the mission launch. Launch what is available, and expand the capability over time. I.e., achieve scientific observations early and often to begin learning, then expand and enhance the capability as science directs and funding enables. Web link: NA Ground Based and Space Based Activities Name: John Mather Proposing Team: Eliad Peretz, NASA, JPL, Industry, Academia, ELTs, International Type of Activity: Ground Based Project Space Based Project Description: We are studying a Starshade orbiting the Earth, to work with telescopes on the ground, to image and characterize exoplanetary systems in reflected light. This would implement the top recommendation in the NAS Exoplanet Science Strategy Report: "NASA should lead a large strategic direct imaging mission capable of measuring the reflected-light spectra of temperate terrestrial planets orbiting Sun-like stars." The starshade would carry a laser beacon to enable adaptive optics at
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