SOFIA Stratospheric Observatory For Infrared Astronomy

Similar documents
The Stratospheric Observatory for Infrared Astronomy (SOFIA)

Observation of Exoplanets with the Stratospheric Observatory for Infrared Astronomy (SOFIA)

American-German Stratospheric Observatory for Infrared Astronomy (SOFIA) Science Mission Operations Briefing

SOFIA: An Observatory for THz Science and Technology

SOFIA Edwin Erickson NASA Ames Research Center

The Stratospheric Observatory for Infrared Astronomy (SOFIA) and the Transient Universe

R. D. Gehrz a E. E. Becklin b, and Göran Sandell b

CYCLE 1 SCIENCE STATUS AND HOW TO PROPOSE TIME ON SOFIA. Helen J. Hall¹, Erick T. Young¹, Hans Zinnecker²,³

Next Generation SOFIA Science Instrument Call for Proposals

NASA IRTF and Synergies with SOFIA

The Stratospheric Observatory for Infrared Astronomy (SOFIA): Infrared Sensor Development and Science Capabilities

SOFIA. Science Operations of an Airborne Observatory

SOFIA Science Capabilities and Instrument Overview

The Stratospheric Observatory for Infrared Astronomy (SOFIA)

SOFIA Science Highlights Cycle 4 Progress Cycle 5 Call for Proposals

NASA s SOFIA: Stratospheric Observatory for Infrared Astronomy" D. Backman! SOFIA Outreach / NASA Ames / SETI Institute!

The Stratospheric Observatory for Infrared Astronomy (SOFIA)

SOFIA Science Metrics Update

FIFI-LS Commissioning

Early Science Results from SOFIA, the World s Largest Airborne Observatory

SPITZER SPACE TELESCOPE

Scientific Capability of the James Webb Space Telescope and the Mid-InfraRed Instrument

Stratospheric Observatory for Infrared Astronomy

The Stratospheric Observatory for Infrared Astronomy (SOFIA)

arxiv: v1 [astro-ph.im] 3 May 2012

Notes: Reference: Merline, W. J. and S. B. Howell (1995). "A Realistic Model for Point-sources Imaged on Array Detectors: The Model and Initial

Report on SPIE Symposium Astronomical Telescopes and Instrumentation. Amsterdam 1-6 July Erick Young SCTF 8/1/2012

MAJOR SCIENTIFIC INSTRUMENTATION

Cryogenic Detectors for Infrared Astronomy: the Single Aperture Far-InfraRed (SAFIR) Observatory

A Science Vision for SOFIA

FORCAST: Science Capabili2es and Data Products. William D. Vacca

The next-generation Infrared astronomy mission SPICA Space Infrared Telescope for Cosmology & Astrophysics

The first six years of SOFIA Science. Observatory status and science highlights. Stratospheric Observatory For Infrared Astronomy

Spitzer Space Telescope Current Status and Future Plans

Herschel and Planck: ESA s New Astronomy Missions an introduction. Martin Kessler Schloss Braunshardt 19/03/2009

arxiv: v1 [astro-ph.im] 22 Feb 2012

Todays Topics 3/19/2018. Light and Telescope. PHYS 1403 Introduction to Astronomy. CCD Camera Makes Digital Images. Astronomical Detectors

Telescopes 3 Feb. Purpose

FMOS. A Wide-field Multi-Object Infra-red Spectrograph for the Subaru Telescope. David Bonfield, Gavin Dalton

Observing with SOFIA

Herschel Mission Overview and Key Programmes

Stratospheric Observatory for Infrared Astronomy (SOFIA) Observing Cycle 7. Call for Proposals July 27, 2018

FIRST carrier spacecraft

Terahertz (THz) Astronomy from Antarctica. New opportunities for groundbreaking science

1/29/14. Topics for Today. UV, X-rays and Gamma-rays. Atmospheric Absorption of Light. Why bother with other light? ASTR 1040: Stars & Galaxies

Lessons Learned! from Past & Current ESA-NASA Collaborations

Welcome and Introduction

From Supernovae to Planets

arxiv:astro-ph/ v1 13 Jan 2004


The Space InfraRed Telescope Facility - SIRTF SIRTF an Overview

FIR/submm astronomy: science, observatories, and perspectives for lunar observatory

Exoplanet Detection and Characterization with Mid-Infrared Interferometry

The SPICA infrared space observatory project status

The Porcupine Survey: Spitzer Warm Mission Followup of WISE Brown Dwarf Candidates

The Near-Infrared Spectrograph on JWST: Killer Science Enabled by Amazing Technology. Jason Tumlinson STScI Hubble Science Briefing Nov.

MAJOR SCIENTIFIC INSTRUMENTATION

The next-generation Infrared astronomy mission SPICA (1)Oxford presentation (2)Status and Schedule (3)Operation and Observation Program

Extragalactic astrophysics experiments & instruments with the 25 meter Atacama telescope

The Interstellar Medium in Galaxies: SOFIA Science

MIRI The Mid-InfraRed Instrument for JWST The James Webb Space Telescope

Launching Astronomers into the Stratosphere

AST 301 Introduction to Astronomy

CASE/ARIEL & FINESSE Briefing

Spitzer Space Telescope

Observing Program Update

Detectors for IR astronomy

Sun Shield. Solar Paddle

Hubble Space Telescope Users Committee (STUC)

From the VLT to ALMA and to the E-ELT

Spectroscopy with the Herschel Space Observatory

James Webb Space Telescope Cycle 1 Call for Proposals

Six Years of Astrophysics with the Far Ultraviolet Spectroscopic Explorer

Introduction to the Harvard- Smithsonian Center for Astrophysics

What do we do with the image?

Instrumentation and Remote Sensing

Goals of the meeting. Catch up with JWST news and developments: ERS and GO call for proposals are coming!!

ASTR 2310: Chapter 6

Light and Telescope 10/24/2018. PHYS 1403 Introduction to Astronomy. Reminder/Announcement. Chapter Outline. Chapter Outline (continued)

THE EMISSION AND DISTRIBUTION OF DUST OF THE TORUS OF NGC 1068

REPORT FROM THE WORKSHOP ON LABORATORY SPECTROSCOPY IN SUPPORT OF HERSCHEL, SOFIA, AND ALMA

An Astrophysics Mission of Opportunity on the International Space Station

Optical/NIR Spectroscopy A3130. John Wilson Univ of Virginia

HIPO Flight Experience

Outline HST HST. HST& JWST CARMA and ALMA SOFIA Chandra Blackbodies. Doppler Effect. Homework #5 was due today.

The James Webb Space Telescope Overview

Methane in Mars Atmosphere: Evidence for Life or Uncertain Detections?

Infrared Astronomical Satellite IRAS. Dr. Dusan Petrac

Caltech Submillimeter Observatory

WISE - the Wide-field Infrared Survey Explorer

Synergy between the Thirty Meter Telescope and the James Webb Space Telescope: When > 2.

Electromagnetic Spectrum. Name: Period: Electromagnetic Spectrum. 1. What is the electromagnetic spectrum? 2. What is radiation?

FY15 President s Budget Request for NASA Astrophysics

Radio spectroscopy. Annoying question at a NSF Science and Technology Center Review

The ESBO DS project Towards a balloon-based observatory

4.2 Herschel. Introduction. Scientific objectives

Cosmology The Road Map

GEMINI 8-M Telescopes Project

SOFIA Quick Guide. Instrument Capabilities & Science Cases

Chapter 6 Telescopes: Portals of Discovery

Transcription:

1

SOFIA Stratospheric Observatory For Infrared Astronomy E.E. Becklin SOFIA Chief Scientist ISSTT 2008 April 28, 2008 2

Outline of Material Overview of SOFIA Progress to Date Science Schedule and Future Opportunities 3

4 OVERVIEW

Overview of SOFIA SOFIA is 2.5 m telescope in a modified B747SP aircraft Optical-mm performance Can obtain obscured IR (30-300 µm), most important Joint Program between the US (80%) and Germany (20%) First Science 2009 (NASA, DLR, USRA, DSI) Designed for 20 year lifetime 5

Overview of SOFIA (Cont) Operating altitude 39,000 to 45,000 feet (12 to 14 km) Above > 99% of obscuring water vapor World Wide Deployments Ramp up to ~1000 science hours per year Build on KAO Heritage with improvements (Facility Inst., Science Support) Science flights to originate from Palmdale.Aircraft operation by NASA Dryden Research Center (DFRC) Science Center is located at NASA Ames Research Center 6

SOFIA The Observatory Educators work station pressure bulkhead open cavity (door not shown) scientist stations, telescope and instrument control, etc. TELESCOPE scientific instrument (1 of 9)

Why SOFIA? Infrared transmission in the Stratosphere very good: >80% from 1 to 1000 microns Instrumentation: wide complement, rapidly interchangeable, state-of-the art Mobility: anywhere, anytime Long lifetime 8

9 PROGRESS TO DATE

Major Physical Installations Completed Main Deck, Looking Aft at Instrument Interface Telescope Installed 10

11 Telescope in Action

SOFIA Makes Its First Flight! 12

SOFIA s Instrument Complement As an airborne mission, SOFIA supports a unique, expandable instrument suite SOFIA covers the full IR range with imagers and low to high resolution spectrographs 4 instruments at Initial Operations; 9 instruments at Full Operations. SOFIA will take fully advantage of improvements in instrument technology. There will be one new instrument or major upgrade each year. 13

Four First Light Instruments Working/complete HIPO instrument in Waco on SOFIA during Aug 2004 Working/complete FLITECAM instrument at Lick in 2004/5 Working FORCAST instrument at Palomar in 2005 Successful lab demonstration of GREAT in July 2005 14

15 SCIENCE

Science Capabilities Because of large aperture and better detectors, sensitivity for imaging and spectroscopy similar to the space observatory ISO 8x8 arcmin Field of View allows use of very large detector arrays Image size is diffraction-limited beyond 25 µm, making it 3 times sharper than the space observatory Spitzer at these wavelengths 16

SOFIA is a good observatory to study chemistry in space Astrochemistry Most ground state molecular lines in IR or submillimeter Need high spectral resolution throughout which SOFIA has. As sensitive as CSO, but much larger wavelength range is accessible Light molecules: Molecular hydrogen, HD, water, other hydrides in IR and submillimeter The fullerene, C 60, has 4 IR lines in SOFIA s bands 17

Cold Molecular Hydrogen using HD SOFIA will study deuterium in the galaxy using the ground state HD line at 112 microns. This will allow determination the cold molecular hydrogen abundance. Atmospheric transmission around the HD line at 40,000 feet Deuterium in the universe is created in the Big Bang. Measuring the amount of cold HD (T<50K) can best be done with the ground state rotational line at 112 microns. Detections with ISO means a GREAT high resolution spectrometer study possible. As pointed out by Bergin and Hollenbach, HD gives the cold molecular hydrogen. HD has a much lower excitation temperature and a dipole pole moment that almost compensates for the higher abundance of molecular hydrogen. In the future could be used much like the HI 21cm maps but for cold molecular gas. 18

19 Schedule & Future Opportunities

SOFIA Schedule (Major Milestones) First Re-Flight Occurred April 07 Closed Door Testing Finished Jan 08 Door Drive Delivered Spring 08 Mirror Coated Summer 08 Open Door Flights at Palmdale Winter 08-09 First Science 09 Next Instrument call 10 20

US General Observer Opportunities First call for science proposals in 09 Future calls every 12 months First General Observers 2010 Expect ~ 20 General Observer science flights Shared risk with Instrument PI s Open Observatory with Facility Instruments 21

Next Call for New Instruments The next call for instruments will be at first Science ~FY10 There will be additional calls every 3 years There will be one new instrument or upgrade per year Approximate funding for new instruments $8 M/yr 22

Summary Program making progress! Aircraft structural modifications complete Telescope installed, several instruments tested on ground observatories Completed first flight and ferry flight to NASA Dryden Full envelope flight testing closed door finished. Aircraft at Palmdale. Several subsystems will be installed fall 08 (Door motor drive, coated primary mirror) First science in 09 23 SOFIA will be one of the primary facilities for far-ir and submillimeter astronomy for many years

24 Back-up

Instrument/ Location PI Instrument Type HIPO/Lowell Dunham.3-1.1 µm High Speed Occultation Camera FLITECAM**/ UCLA McLean 1-5.5 µm Infrared Camera and IR channel for HIPO FORCAST**/ Faint Object Infrared Camera. Simultaneous Dual channel Herter Cornell observations (5-25 µm & 25-40 µm) GREAT/MPI- Hi resolution (R> 10 Güsten ) Heterodyne Spectrometer Bonn 3 bands - 1.6-1.9 THz; 2.4-2.7 THz; 4.7 THz FIFI-LS**/ Poglitsch Dual Channel (42-110 µm ; 100-210 µm) MPI Garching Grating Spectrometer HAWC**/ High Angular resolution 4 channel Camera @ Harper UChicago 50 µm, 100 µm, 160 µm, 200 µm CASIMIR/ Zmuidzinas Hi resolution (R~ 10 6 ) Heterodyne Spectrometer Caltech 500-2000 GHz EXES/UTexas Lacy 5-28 µm-high resolution grating spectrometer (R>100,000) SAFIRE/GSFC Moseley Fabry-Perot Spectrometer 100-655 µm (2000<R<10 4 ) ** Facility Instruments 25

SOFIA and Spitzer SOFIA will become operational near the time that Spitzer runs out of cryogens. The science impact of not being contemporary is small: Spitzer is a high sensitivity imaging and low resolution spectroscopy mission. SOFIA is a high spectral and high angular resolution mission As it now stands, the two observatories are very complementary and when Spitzer runs out of cryogens in early FY09, SOFIA will be the only observatory working in the 25 to 60 micron region for over 10 years: Comets, Supernovae, Variable AGN, other discoveries. 26

SOFIA and Herschel Herschel and SOFIA will now start at about the same time Joint calibration work is on going For the years of overlap, SOFIA will be only program with 25 to 60 micron capability with high resolution spectroscopy in the 60 to 150 micron region When cryogens run out in Herschel in ~2011 SOFIA will be only NASA mission in 25 to 600 micron region for many years Important follow-up Advanced instrumentation will give unique capabilities to SOFIA: Polarization, Heterodyne Arrays, Heterodyne Spectroscopy at 28 microns (ground state of molecular hydrogen), and other interesting astrophysics lines Both missions are critically important and complementary 27

SOFIA and JWST SOFIA is very complementary to JWST Before JWST is deployed and after Spitzer cryogens run out, SOFIA is only mission with 5 to 8 micron capabilities important organic signatures After JWST is launched SOFIA is the only mission to give complementary observation beyond 28 microns and high resolution spectroscopy in 5 to 28 micron region 28

SOFIA and WISE WISE is a very sensitive all sky survey in the 3.3 to 23 micron region. It is expect to launch just as SOFIA begins operations. SOFIA can provide a number of important follow up observations. Very red sources seen only at 23 microns can be followed up at 38 microns with FORCAST on SOFIA and spectra can be obtained with EXES on SOFIA for the brightest 23 micron sources not seen by IRAS. Nearby cold Brown Dwarfs discovered by WISE can be followed up with the FLITECAM GRISM and EXES. 29

Infrared Space Observatories 1000 Wavelength (µm) 100 10 SPITZER Herschel SOFIA JWST SAFIR? 0.3 3 30 Frequency (THz) 1 Ground-based Observatories 2005 2010 2015 2020 2025 SOFIA provides temporal continuity and wide spectral coverage, complementing other infrared observatories. 30

Partnership Opportunity on SOFIA The NASA Science Mission Directorate is providing an opportunity for domestic and international governments, agencies, universities, organizations, and research foundations to participate as a partner in SOFIA operations. Currently, NASA is funding 80% of the program and the German space agency, DLR, is funding 20%. A substantial long-term opportunity exists for a new partnership agreement of between 3 and 10 years duration. In exchange for their support, the new partner would receive up to 20% of NASA s share of the observatory time ( 150 observation hours per year at full operational capability). 31

The Benefits of Partnership The new partner will have access to flight and science operations and infrastructure, including: World-wide deployment capability Fully operational and maintained aircraft and telescope assembly with aircrew and support staff Ground-based labs at NASA Dryden and NASA Ames, and project data archiving and storage infra-structure Existing instruments and/or use of partner-supplied instruments Access and use of SOFIA as an instrumentation flight test bed (detectors, focal planes, read-out electronics, cooling) in support of future instrument technology development and testing. (A detailed instrument interface control document (ICD) is available). 32