Space mission BRАUDE-M. Radio telescope on the farside of the Moon

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Bilateral Workshop on Astrophysics V.N. Karazin Kharkiv National University INAF Space mission BRАUDE-M. Radio telescope on the farside of the Moon Dr. Vyacheslav Zakharenko, Director of the Institute of Radio Astronomy of the NAS of Ukraine, Kharkiv 22-23, March 2018, Rome, Italy

Space mission BRАUDE-M. Radio telescope on the farside of the Moon (FRT). The new generation of low frequency radio telescope has high sensitivity due to - a wide, broadband antenna element; - an amplifier, which is intrinsic part of an antenna element; - a parallel receiver spectrum analyzer. Telescope efficiency is much higher than that of the whip antenna onboard the spacecraft. Wide range of astronomical tasks: - The Sun, SME, bursts of various types at a distance of several radii, space weather; - Jupiter: kilometer, decameter radiation, as a model of exoplanet radio emission; - Io-, Ganymede-, etc. controlled radiation; - Saturn: SKR, lightning, Great White Spot; - pulsars, long-term emission and dispersion measure variations; pulses as test signals; - RRL at low frequencies, high-z red-shifted HI line, Dark Ages; - interferometry with base up to 380 000 km, Solar system objects, scattering. What do we mean when say "telescope of new generation?

Mission overview "Braude-M : Big Radio Astronomy Universe, DЕmonstration from the Moon

Wideband with high sensitivity Octave : f high / f low = 2 GURT transfer function

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From GURT (8 80 MHz) to FRT 4 40 MHz, A E = 400 m 2 @ 25 MHz d = 3.5 m GURT d = 7 m FRT theor. exper. 4 40 4 40

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Even Juno s receiver modern parallel spectrum analyzer have small frequency range Juno

Even Juno s receiver modern parallel spectrum analyzer have small frequency range Juno

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NDA Solar IV type burst GURT

Solar radio emission Solar Orbiter RPW: DC-20 MHz UTR-2, URAN: 8-33 MHz GURT: 8-80 MHz FRT 4 40 MHz

Jupiter radio emission URAN-2, A E = 28000 m 2

Non-Io radio emission

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Radio recombination lines. Dark Ages: HI, z ~ 100 UTR-2. Direction - Cas А. In the range 10.5-31 MHz there are Carbon RRL С854α... С596α. Integration time 55 min. With ~100 h int. time -> dt/t ~ 2*10-6 FRT range [Liu, Pritchard, Tegmark & Loeb arxiv:1211.3743v3]

Interferometer up to 380 000 km. 80 m Noise ~ 0.5%

A twofold mission to the Moon: objectives and payloads Decision Letter - Revise: 13 February 2018 Mr Johnson Special Issue Managing Guest Editor (Acta Astronautica) -Reviewer 3: Many of the pioneering steps This proposal carefully stepped through the MANY genuinely interesting scientific questions that can be addressed by 1) getting away from the Earth s ionosphere, and 2) getting away from the Earth s RFI. Many of the pioneering steps have been taken by this group: both on the technical side with electrically short, active antennas working in a regime of Galactic background dominance, in being pioneers for many of the most interesting scientific questions, including RRLs, and emission from solar system bodies.

Conclusion So I really like this paper a lot, it is based on LOTS of experience! The key is to get in contact with other groups that are pushing similar missions, and to work together. You have a very strong background in technology and REAL science at low frequencies, so you can be a real asset to other groups that have much less REAL experience. Low frequency radio telescope of new generation: high sensitivity part of a wide flexible telescope net with (at each section) different mode of observations, possibilities of RFI mitigation, preliminary data process and work in different combinations of net parts.

Thank you for your attention!