Panel Session III - Astronomical Search for Origins Program

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The Space Congress Proceedings 2004 (41st) Space Congress Proceedings Apr 27th, 8:00 AM Panel Session - Astronomical Search for Origins Program Eric P. Smith Origins Theme Scientist, James Webb Space Telescope Program Scientist Follow this and additional works at: http://commons.erau.edu/space-congress-proceedings Scholarly Commons Citation Eric P. Smith, "Panel Session - Astronomical Search for Origins Program" (April 27, 2004). The Space Congress Proceedings. Paper 11. http://commons.erau.edu/space-congress-proceedings/proceedings-2004-41st/april-27/11 This Event is brought to you for free and open access by the Conferences at ERAU Scholarly Commons. t has been accepted for inclusion in The Space Congress Proceedings by an authorized administrator of ERAU Scholarly Commons. For more information, please contact commons@erau.edu.

Astronomical Search for Origins Program Eric P. Smith Origins Theme Scientist, James Webb Space Telescope Program Scientist 27-April-2004 41 st Space Congress 28

Origins Program Missions Passive Cooling Space nterferometry - Starlight Nulling l TPF ColdOpHcs RFocalPlanes Passive Cooling - Long Baseline Starlight Nulling Arrays SAFR Large UV/.Opticaj Large Cold Optics JR Focal Planes Large Deployable Op cs... SOFA o. b... s e r v a t o r i e s """"V~i ~s~i ~o ~n~s-b, e ~~~.!.,= Overview Mission (Part of NASA's Astronomical Search for Origins theme) - Detect light from the first objects in the universe - Study of the birth and evolution of galaxies - Understand star and planet formation Description - Sensitive (large and cold) infrared (0.6-28µm) space observatory - Orbit at Sun-Earth Lagrange Point 2 (L2 - about 1.5 million km from Earth) - Launch in 2011-5 year lifetime (10 year goal) - -$38 total value: -$2.58 U.S. (-$1.98 development+ -$0.68 ops)+ -$0.48 equivalent value from ESA + -$0.18 equivalent value from CSA [nearest $0.18] Organization - Project Lead: NASA's Goddard Space Flight Center - nternational collaboration w/ European and Canadian Space Agencies (ESA & CSA) - Prime Contractor: Northrop Grumman Space Technology - Other mission hardware & software: University of Arizona, JPL, STScl Status - Preliminary Design (Formulation/Phase 8) 27-April-2004 41st Space Congress LO Observatory Animation 27-April-2004 4 lst Space Congress 12 29

Radial Velocity Planet Detection Qi' 150 too - ~ 50.... 0 f i / ".. ~..,50-100 /l / HD209458 0.0 6.5 1.0.OrlJillJ/ Ptim;e 27-April-2004 4Jst Space Congress 13 27-April-2004 41st Space Congress 14 Transits Reveal Planet Origins Program Missions Transits of a planet orbiting HD 209458 determine properties of another Solar System - Previously known from radial velocity - nclination= 87.1 Mass= 0.63 Mjup - Radius =1.27-1.6 Rjup Density= 0.27-0.38 g/cc <Saturn Spectroscopy of transit signal can probe planet's atmosphere 27-Apri l-2004 41 st Space Congress 0.0 J'.) - Tc (day$) 15 0.1 Spitzer SOFA Space nterferometry - Starlight Nulling TPF SAFR l ColdOplics R FocalPlanes Passive Cooling Large Cold Optics R Focal Planes Large Deployable Op cs o_ b s e r v a t o r i e s---------- V; s -~ -~.~ ~.,!. ;!_.~ ~.~ " The l/t?v J 1\ p.c <17 ' ' Mission Use transit photometry to detect Earth-size planets Wide field-of-view 0.95-meter (3-foot) diameter telescope Monitor 100,000 stars (every 15 minutes) for 4 years Enough precision (20 ppm) to detect transits of Earth-size planets Launches 2007 Pri!flary Mrrror The 1 [/~71'] J or. Mission '.\c.f.., t-d Focal Plane Array 27-Apri l-2004 41 st Space Congress 17 27-April-2004 4 1 st Space Congress 18 30

Origins Program Missions Nulling Synthetic maging TPF...,,_'"'~... ~"""~" Large UV/Oplicaj la SAFR ii l ColdOptics RFocatPlanes Passive Cooling Large Cold Optics RFocalPJanes La1"9eDeployableOp cs o_b_s_e_r_v_a_t o_r_i e_ s,;~ ~~~~~~;~~-: ~!!~~:~~~:~: Astrometric Search for Planets Measure star's positional wobble Complements radial velocity - Most sensitive to massive planets far from their stars Space nterferometry Mission will be able to detect tiny, tiny stellar wobble due to Earth-mass planets around nearby stars - Measures positions of stars with precision equivalent to the size of an amoeba in California as seen from Washington, DC!! Sun's wobble seen from 33 light-years away 27-Apri l-2004 41 st Space Congress 21 LBT Spitzer SOFA Origins Program Missions Space ~ry Starlight Nulling TPF! Cold Optics RFocalPlanes Passive Cooling ~~----~~~~~ ~ LongBaselineSlar1ightNullingArrays D SAFR Large UV/Opticaj Large Cold Optics lr Focal Planes Large Deployable Op cs, The Habitable Zone* for Various Types of Stars 10 s. Continuousiy ;f H bhable Zone E l! Solac S)"tem 0. 1 l...-j-l.l.lu.l.--'--l.l.llul-->-lj...lj.u"--.._,_.1..1.lwl--l...u..llw 0.001 0.01 0.1 10 100 Stellar Radii and Planetary Orbital Semi-Major Axis (A.U,) *The Habitable Zone is the range of distances from a star at which water can remain liquid on the surface of an orbiting planet 27-April-2004 41st Space Congress 24 7/9l 31

Simulated TPF Spectmm of an Earth-like Planet Atmospheric Composit ion of an Early Earth-like World Harboring Life? Main Constituents C0 2, N 2, H 2 0 Secondary Constituents CO, H 2, H 2 S, CH 4 9 10 11: 12 13 14 15 1S Wavelength ( µm) Trace Constituents Organo-sulfur compounds, hydrocarbons, other reduced gases 27-April-2004 4 1 st Space Congress 25 27-April-2004 4 sl Space Congress 26 Origins Science in the New Vision mplement a sustained and affordable human and robotic program to explore the solar system and beyond How do Origins Mi ssions Align with the Vi sion? Conduct advanced telescope searches for Earth-like planets and habitable environments around other stars What are the properties of giants orbitiog orl1er stars? lfo)' common ate terrestrial plane.ts? What are their properties and wlticb of tbem m ight be habitable? ls there life on planets owside the solar system? Origins nvestigations 11.Srudy 1he properties of giant i::xtr.isolar planets using the combined light of planet and parent srar. 12. Detect giant planers by direct imaging. and study thdr properties 13. lnvestigate which nearby stars host terrestrial plant:ts that might be suitab le fo r life 14.Srudy the composition of atmospheres oftem::strial planets orbiting n~mty stars 15. De rem1ine optimal biosignatures for life on other worlds 16. Search for ~videoc ~ of li fe on lmbitable planets orbiting oth~r stars Mission Status nvestigations HST Operational 11,23 Keck nterf. <>C/D 11,12 LBT <>C/D 11,12 <DB, 2007 launch 11,13 SM <DB, 2009 launch 11,13,14 <DB, 2011 launch 11,12 TPF rv 2014 launch 11,12,13,14,15,16 27-Apri l-2004 4 1 st Space Congress 27 27-April-2004 4 1 st Space Congress 28 Changes to Mi ssions in response t o the Vi sion : project considering white paper study by astrobiologists outlining observatory capabilities for optimal astrobiology science return TPF: Split TPF program into two components, coronographic and interferometric observatories and accelerate development on coronographic option. 27-April-2004 4 1st Space Congress 29 Why Fly a TPF Coronagraph and an nterferometer? Respond to presidents vision - "... conduct advanced telescope searches for Earth-like planets and habitable en vironments around other stars." The technology appears to be maturing for both Fl y sooner -- A small to moderate sized coronograph in ~2014 - Starlight suppression technology must be fully demonstrated first (by 2006) - Enter phase A in 2007 More capable, iater --- Formation flying interferometer done jointly with ESA later towards end of decade - Continue technology development during coronagraph formulation and implementation - Collaboration with ESA on SMART3 (~2011) - Enter Phase A in ~ 2011 Most compelling science --- Data from both wavelength regions provide robust assessment of habitability and biomarkers Doing both within ORGNS line requires no near t erm augmentation 27-April-2004 41st Space Congress 30 32

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