Solar System Advisory Panel Roadmap for Solar System Research Recommendations to STFC

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Solar System Advisory Panel Roadmap for Solar System Research Recommendations to STFC UK-ELIPS Workshop on Astrobiology and Dust Open University April 2013 Sunrise over Lindos Bay, Rhodes (MMG, Sept. 2012)

Solar System Research Goal: Understand the origin and evolution of the Solar System, and the nature of the phenomena that influence its dynamics pursued through a combination of observation (reliant on both spaceand ground-based instrumentation), laboratory analysis and experimentation, simulation and theoretical modelling. From its central star, the Sun, to the outermost fringes, as defined by the Oort cloud that is a reservoir of comets within the Solar System is a variety of objects: planets, their satellites and rings, asteroids, Kuiper Belt Objects and comets, plus streams of interplanetary and interstellar dust. Interactions between and amongst Solar System bodies are influenced by gravitational, magnetic and electric fields. Controlling the entire dynamic of the Solar System is the Sun, a complex interplay of plasmas and fields that connect with and influence the behaviour of planetary magnetospheres and ionospheres.

The Solar System Community 40 research groups in Solar and Solar-Terrestrial physics 30 research groups in Planetary Sciences Total of about 400 researchers not including PDRA or PhD students Roadmap was put together Town Meeting ( ~ 100 attendees) Written submissions from ~ 20 individuals plus ~ 5 university departments Identified 3 major themes Draft Roadmap circulated to community Additional input; revision; circulated to specific individuals for comment

Key Themes Solar Variability and its Impact on Us Planets and Life Universal Processes Plus 5 cross-cutting issues: Data Centres Grants, Fellowships, Studentships High Performance Computing Laboratory infrastructure Telescopes Recognition that there is overlap in subject matter with the other AP, particularly the AAP

Planets and Life Covers the formation and evolution of the Solar System, and applies that understanding to the formation of other planetary systems Three key questions How did the Solar System form and evolve? How widespread is life in the Universe? What do other planets tell us about the Earth?

UK Strengths Astrobiology important sub-discipline within planetary sciences UK was amongst the first to recognize the subject as a cognate area still a major international driver of the subject. Exoplanet detection. Laboratory-based analysis of extraterrestrial materials Remote sensing of planetary atmospheres and surfaces Small body dynamics

Key Requirements Mission or Facility Theme Question Currently operational Near-term operational Medium-term operational Long-term operational (2016-2020) (2020-2030) (2013-2016) Cassini-Huygens; SuperWASP; MEX; VEX; UKIRT; JCMT; How did the Solar ING; HARPS-NEF; UK System form and CAN evolve? MSL OSIRIS-Rex NGTS; Rosetta; JWST; GAIA BepiColombo; Lunar Lander; ExoMars (lander and orbiter); Sample Return Curation Facility Main Belt Comet mission; Marco-Polo-R; JUICE; E-ELT; Mars Sample Return; Uranus Pathfinder; EnVision InSight; New Horizons Juno Hayabusa 2 MESSENGER Planets and Life Cassini-Huygens; MEX; How widespread VEX; UK CAN; BISAL; Rosetta; JWST; GAIA; is life in the ELIPS Universe? MSL; Osiris-Rex Cassini/Huygens; What do other MEX; VEX; JCMT: planets tell us UKIRT; ING; HARPSabout the Earth? NEF; UK CAN; ELIPS MSL; MESSENGER Uranus Pathfinder Main Belt Comet ExoMars (lander and mission; Marco-Polo-R; orbiter); Sample Return JUICE; E-ELT; Mars Curation Facility Sample Return; EnVision; EChO InSight; New Horizons Juno Hayabusa 2 Rosetta; JWST; GAIA BepiColombo; Lunar Lander; ExoMars (lander and orbiter); Sample Return Curation Facility Uranus Pathfinder Main Belt Comet mission; Marco-Polo-R; JUICE; E-ELT; Mars Sample Return; EnVision; EChO InSight; New Horizons Juno

P2: How widespread is life in the Universe? P3. What do other planets tell us about the Earth? Key missions and requirements for P2: In order to search for life beyond Earth, it is necessary to characterise the nature of life that can survive in extreme environments. One of the ways that this can be done is to undertake experiments in specialised environments, e.g., below ground (as in the BISAL facility) or in space (on the ISS). Access to the ISS is only readily possible if the UK joins ESA s ELIPS programme (see Recommendation 1) Key missions and requirements for P3: Simulation studies of impacts require the facilities associated with membership of ELIPS (see Recommendation 1)

Relationship with UK Space Agency Much of the research undertaken by the Solar System community relies on data from space missions Relationship with the UK Space Agency is critical Not just for ESA missions, but for participation in bilateral missions Grey area, possibly not completely understood by the community, where responsibility for funding of projects falls between the remits of the STFC and the UK Space Agency funding for building a detector for a mission is the responsibility of the Space Agency funding for research into generic detector development belongs with the STFC Funds for such research would come from the PRD line, and/or the Fellowships, Grants and Studentship lines. Recommendation: Support for ESA programmes through the UK Space Agency Cosmic Visions and Aurora have clear goals and planned space missions Proposal to join ELIPS and Space Situational Awareness (optional) programmes Cross-representation on relevant strategic committees

Excerpts from the SSAP Roadmap Relationship with the UK Space Agency and with ESA As part of a desired expansion of the national space programme, the UK Space Agency is seeking to join ESA s Life and Physical Science in Space Programme (ELIPS). This is an optional programme, and acts as an umbrella for a variety of activities, including access to the International Space Station, parabolic flights and drop towers. These facilities enable experiments to be carried out in zero gravity, and also at high gravity and at high speed. Subscription to these facilities would give the UK access to a laboratory in low Earth orbit, as well as new planetary simulation facilities and detector test beds. It would be of great benefit to the Solar System science community if this development took place, as it would enhance and extend the range of observations, experiments and simulations that could be undertaken in pursuit of our science goals, across all three of the themes described above. It is therefore important that STFC be aware of this potential increase in infrastructure capacity, as, if successful, additional funds would be required to exploit data from the ELIPS facilities. Recommendation 1:The SSAP recommends that the STFC supports the UK Space Agency in its bid to become a partner in ESA s ELIPS programme. If the bid is successful, STFC should consider requests for funding to exploit data from the ELIPS facilities in the same way as from other space missions and projects.