Large Space Apertures : Customers & Users The Long View From Astronomy

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Large Space Apertures : Customers & Users The Long View From Astronomy Dan Lester Large Space Apertures Kick-Off Workshop University of Texas 11 November 2008, KISS Caltech Lester - Large Space Apertures 1

Astronomy in the Coming Decades Hard to escape BIGGER IS BETTER Spatial resolution Light collecting power Background rejection Lester - Large Space Apertures 2

Large Space Apertures translates to Large optics Large structures Large instruments If our strategies for space telescope sizes aren t extensible, we hit a scientific dead end. Lester - Large Space Apertures 3

The trick is to get big things in small places (creative engineering, and LOTS of hinges, latches, actuators!) Dan Lester University of Texas LEAG Theme 1, Goal 1C Lester - Large Space Apertures 4

Or maybe to get bigger places to put things Ares V (big dumb launchers help for a while) Dan Lester University of Texas LEAG Theme 1, Goal 1C Lester - Large Space Apertures 5

Or maybe to do it in pieces (true extensibility!) Lester - Large Space Apertures 6

To avoid scientific dead ends, must consider new heavy lift launchers in-space deployment/maintenance/servicing (humans?, robots?) precision formation flying Think outside the box EELV launch shroud Look at the big picture Lester - Large Space Apertures 7

The Exploration Initiative Offers Human access beyond LEO (maintenance, servicing) Huge launch vehicles (e.g. Ares V) (large mass and volume lift capability) and we have witnessed autonomous! Successful first steps at^robotic servicing Orbital Express Dramatic advances in in-space construction Lester - Large Space Apertures 8

Re Exploration TWO Thrusts (1) Use the Moon as a platform to enable astronomy (2) Use the new lunar transportation architecture to enable astronomy Lester - Large Space Apertures 9

Exploration and Astronomy? Lots of Thinking Workshop On Astronomy Enabled By Ares V April 26-27, 2008 NASA Ames Final conference report NASA/CP 2008-214588 August 20, 2008 NRC Science Opportunities Enabled by NASA's Constellation System Space Studies Board (ongoing) RFI March 2008, Interim Report June 2008 Workshop on Astrophysics Enabled by the Return to the Moon April 26-27, 2007 Space Telescope Science Center Conference report to NASA HQ, and to Lunar Science Conf July 23, 2008 NRC The Scientific Context for Exploration of the Moon study Space Studies Board, Final Report issued 2007 NAC Science Associated with the Lunar Exploration Architecture workshop; February 27- March 2, 2007 Tempe AZ White papers and presentations. Summary report by John Mather March 2, 2007 from NAC APS (followup to NAC ongoing through LEAG) Lester - Large Space Apertures 10

Ares 5 10m diam shroud baseline Ares V Options - A New Paradigm? Heavy-lift, large payload volume options For lofting BIG, DEPLOYED (~8m) or UNDEPLOYED (>20m?) telescopes. Heavy lift offers not just aperture, but aperture with simplicity. Trade risk for mass. HST Volume lift capacity more important than mass lift capacity! (65 mt to SE L2) 25mt to LEO 125mt to LEO Lester - Large Space Apertures 11

In the case of the Single Aperture Far Infrared (SAFIR) observatory, Ares V could offer baseline large apertures with low deployment risk, or x2 scaling of baseline architectures. Lester - Large Space Apertures 12

Servicing Venues -- Importance of EM L1 While Earth-Sun L2 is optimal ops site for many telescopes, Earth-Moon L1 is a nearby jobsite to which transit back and forth is easy -- meters/sec delta V Adapted from Decadal Planning Team documents Earth-Moon L1 is 84% of the way to the Moon, semi-stable, highly accessible to lunar-capable human space program, and offers low latency (~1 sec) to Earth for telerobotic efforts. Lester - Large Space Apertures 13

Attach points for KISS? large space telescopes in a mass-relaxed design environment; opportunities? new approaches? scaling non-linearities for large space telescopes? AR&D and nav technologies for in-space assembly? Lagrange ops/job-site planning, stationkeeping, comm? piecewise approach to in-space assembly of large telescopes? Lester - Large Space Apertures 14