Using Spitzer to Observe the Solar System

Similar documents
Spitzer Space Telescope: Status & Opportuni4es

Solar System Observations with Spitzer

Spitzer Space Telescope Cycle-6 Exploration Science Programs

Spitzer Space Telescope Calibration Strategy: The Use of Asteroids

SPITZER SPACE TELESCOPE

Spitzer Space Telescope Current Status and Future Plans

Spitzer Space Telescope

Benefits of Infrared. The Spitzer Space Telescope. Instruments/Components of Spitzer. Cryostat. Infrared Telescope

James Webb Space Telescope Cycle 1 Call for Proposals

Solar System Science with JWST!

Star Formation. Answering Fundamental Questions During the Spitzer Warm Mission Phase

Cycle-5 Proposal. Submission Statistics

Star Formation. Spitzer Key Contributions to Date

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

Spitzer Observations of ARM Targets 2009 BD and 2011 MD

Searching for Other Worlds

Exoplanet Detection and Characterization with Mid-Infrared Interferometry

Light and Telescopes

Exoplanets Atmospheres. Characterization of planetary atmospheres. Photometry of planetary atmospheres from direct imaging

Large Area Imaging Survey of Near-Infrared Sky with Korean Compact Space Telescopes

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

Escaping the Zodi Light! Harvey Moseley! NASA/GSFC! The View from 5 AU! March 26, 2010!

Transneptunian objects. Minor bodies in the outer Solar System. Transneptunian objects

Herschel Mission Overview and Key Programmes

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

The Planet Pluto. & Kuiper Belt. The Search for PLANET X Pluto Discovered. Note how Pluto Moved in 6 days. Pluto (Hades): King of the Underworld

radar astronomy The basics:

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

Formation and Evolution of Planetary Systems

Detection and characterization of exoplanets from space

Part III: Circumstellar Properties of Intermediate-Age PMS Stars

The Star Formation Observatory (SFO)

The Space InfraRed Telescope Facility - SIRTF SIRTF an Overview

TMT and Space-Based Survey Missions

Announcement of Opportunity AKARI (ASTRO-F)

The Gravitational Microlensing Planet Search Technique from Space

Exoplanets Direct imaging. Direct method of exoplanet detection. Direct imaging: observational challenges

The search for Planet X Lowell Observatory, Flagstaff, Arizona. Overview. Andy Lubenow

Survey of the Solar System. The Sun Giant Planets Terrestrial Planets Minor Planets Satellite/Ring Systems

Physical Characterization Studies of Near- Earth Object Spacecraft Mission Targets Drs. Eileen V. Ryan and William H. Ryan

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

Exoplanet Science with SPHEREx s All-Sky Spectro-photometric Survey in the Near-Infrared. A White Paper in support of the Exoplanet Science Strategy

A Random Walk Through Astrometry

Cycle-1 Accepted Proposal Statistics. May 2004

Observational Cosmology Journal Club May 14, 2018; Ryohei Nakatani

A Large Monolithic-Aperture Optical/UV Serviceable Space Telescope Deployed to L2 by an Ares-V Cargo Launch Vehicle

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

Great Observatories Galactic Center Region Image Unveiling Science Telecon. October 6, 2009

Origins of Stars and Planets in the VLT Era

The Galactic Exoplanet Survey Telescope (GEST)

Planetary Science Update. David Schurr Deputy Director Planetary Science July 23, 2014

6 Photometry of Moving Object Centaur 8405 Asbolus using IRAC

View from 5 AU. Final Discussion. Michael Hauser, STScI Michael Werner, JPL

The James Webb Space Telescope Overview

Microlensing Parallax with Spitzer

GAIA: SOLAR SYSTEM ASTROMETRY IN DR2

Gaia Status & Early Releases Plan

Finding Extra-Solar Earths with Kepler. William Cochran McDonald Observatory

Kepler s Multiple Planet Systems

LEARNING ABOUT THE OUTER PLANETS. NASA's Cassini spacecraft. Io Above Jupiter s Clouds on New Year's Day, Credit: NASA/JPL/University of Arizona

Mid-IR and Far-IR Spectroscopic Measurements & Variability. Kate Su (University of Arizona)

TNOs are Cool: A Survey of the Transneptunian Region. (39 members, 19 institutes, 9 countries)

CASE/ARIEL & FINESSE Briefing

Millimetre Science with the AT

Introduction to SDSS -instruments, survey strategy, etc

The Large Synoptic Survey Telescope

3.4 Transiting planets

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

Our Galaxy. We are located in the disk of our galaxy and this is why the disk appears as a band of stars across the sky.

Detecting Near Earth Asteroids with a Constellation of Cubesats with Synthetic Tracking Cameras. M. Shao, S. Turyshev, S. Spangelo, T. Werne, C.

Pluto, the Kuiper Belt, and Trans- Neptunian Objects

Limits on Pluto Rings from the June Stellar Occultation. Henry Throop, R. G. French, K. Shoemaker, C. R. Ruhland, L. A. Young, C. B.

Z=0 No Z Z- NON. Solar System Theory and Observa3ons

DEPARTMENT OF PHYSICS AND ASTRONOMY. Planets around white dwarfs Matt Burleigh

The formation & evolution of solar systems

Taking the census of the Milky Way Galaxy. Gerry Gilmore Professor of Experimental Philosophy Institute of Astronomy Cambridge

13 - EXTRASOLAR PLANETS

Gemini: A Visiting DMD-based spectro-imager

Astro 201: Sept. 23, 2010

James Webb Space Telescope (JWST) 1: Project Status and Moving Targets

Modeling the Orbits of the Outer Planets

Asteroid Redirect Mission: Candidate Targets. Paul Chodas, NEO Program Office, JPL

New Horizons Mission Update

JWST/NIRSpec. P. Ferruit. (ESA JWST project scientist) Slide #1

The Zadko Telescope: the Australian Node of a Global Network of Fully Robotic Follow-up Telescopes

Who was here? How can you tell? This is called indirect evidence!

Placing Our Solar System in Context with the Spitzer Space Telescope

The discovery of four small moons of Pluto with the Hubble Space Telescope

The Main Points. Asteroids. Lecture #22: Asteroids 3/14/2008

HD Transits HST/STIS First Transiting Exo-Planet. Exoplanet Discovery Methods. Paper Due Tue, Feb 23. (4) Transits. Transits.

The Galaxy Viewed at Very Short Time-Scales with the Berkeley Visible Image Tube (BVIT)

How do telescopes work? Simple refracting telescope like Fuertes- uses lenses. Typical telescope used by a serious amateur uses a mirror

OSIRIS-REX OVERVIEW PRESENTATION TO THE PLANETARY SCIENCE SUBCOMMITTEE

15m James Clerk Maxwell Telescope (JCMT) Surface accuracy : 24 micron Pointing accuracy : 2 arcsec in Azimuth and Elevation

WISE (Wide-field Infrared Survey Explorer)

Extrasolar Planets: Molecules and Disks

James Webb Space Telescope Cycle 1 Call for Proposals and Update on WFIRST

Astronomy November, 2016 Introduction to Astronomy: The Solar System. Mid-term Exam 3. Practice Version. Name (written legibly):

Lecture #15: Plan. Telescopes (cont d) Effects of Earth s Atmosphere Extrasolar planets = Exoplanets

Solar System Objects. Bryan Butler National Radio Astronomy Observatory

Transcription:

Using Spitzer to Observe the Solar System Sean Carey Spitzer Science Center 47 th DPS meeting 09 November 2015 SJC - 1

Spitzer Space Telescope NASA s Infrared Great Observatory Launched on 25 August 2003 Solar Orbit -- Earth trailing 85 cm telescope Calibrated data products provided through archive Post-cryo mission started 27 July 2009 Operate as a general observatory through 2018 until JWST launches Solar system science 10% of last observing cycle Exoplanets 25% of warm observations Potentially useful in more directed science plan for 2019-2020 47 th DPS meeting 09 November 2015 SJC - 2

Cycles 11-12 Exoplanets Brown Dwarfs Galac3c Structure Star Forma3on & Debris Disks Young Stellar Object Variability Compact Objects & Evolved Stars Distant Universe & Cosmology Nearby Galaxies Galaxy Clusters AGN/ ULIRGS Solar System Objects Transient Universe

Solar System Programs Selected for Cycle 11 PID Science Category Hours PI Ins4tu4on 11002 NEOs 710.1 David Trilling NAU An Explora+on Science Survey of Near Earth Object Proper+es 11106 Comets 237.6 Michael Kelley Maryland CO2 Orbital Trends in Comets 11097 Asteroids 50.0 Ben Rozi3s Tennessee Thermal Emission Light-Curves of Rapidly Rota+ng Asteroids 11145 Asteroids 22.2 Eric MacLennan Tennessee Regolith Size Sor+ng on Q-type NEAs 11090 KBOs 6.5 Noemi Pinilla-Alonso Tennessee Rota+onally resolved study of the surface of Pluto during NASA New Horizons flyby 11112 Satellites 5.1 Richard Cartwright Tennessee North Polar Surfaces of the Uranian Moons: Coated with CO2 Frost? 11104 Comets 1.6 Ma]hew Knight Lowell Obs. P/1999 R1: Sunskir+ng comet or asteroid? 1033.1 hours selected (15 props, 3514.2 hrs submitted) Three are led by new Spitzer PIs 47 th DPS meeting 09 November 2015 SJC - 4

Spitzer as Solar System Investigator Passive cooled operations at 3.6 and 4.5 µm using InfraRed Array Camera (IRAC) 5 arcmin FOVs ~1.6 arcsec resolution 1σ sensitivities in 100s are 21.2, 20.4 at 3.6 and 4.5 µm Saturate at 2 mag Solar system science built into observatory Track at 1 arcsec / second Moving target support in observing mode 47 th DPS meeting 09 November 2015 SJC - 5

Spitzer Orbit 1.50 AU! circle of radius 1 AU from Sun 0.50 AU! Earth Oct 2018 Nov 2016! Cryogen Depleted IOC/SV Mission Lifetime Req't Thru Cryo Depletion Warm Mission Distance from Earth and geometry modify spacecraft heating, battery charging and downlink rates 6 47 th DPS meeting 09 November 2015 SJC - 6

Spitzer Capabilities Unique vantage point with respect to Earth (currently 1.4 AU away) Different path length through Zodiacal dust cloud (could possible use shutter for Zody) Different viewing angle for NEAs ~7000 hours/year available for science observations Can observe continuously for ~72 hours Can observe targets quasi-continuously for 38 or more days (Need 2-4 hours gaps for downlinks every 24-72 hours) 47 th DPS meeting 09 November 2015 SJC - 7

Spitzer Target Visibilities 47 th DPS meeting 09 November 2015 SJC - 8

Long-term Photometric Stability Absolute photometry stable to <0.5% over timescale of years Krick et al. (2015) 47 th DPS meeting 09 November 2015 SJC - 9

12 Fraine et al. Short-term Photometric Stability 1.0004 1.0004 Rel. Flux Normalized Flux 0.9980 0.9956 0.9932 0.9908 0.9884 RMS Scatter RMS Theoretical N 1 RMS Scatter 10 3 10-3 Residuals 0.04 0.02 0.00 0.02 0.04 Phase Phase 0.9860 0.9860 0.0002 0.0000 0.0002 Difference 10 0 10 1 10 2 10 3 Time per Bin (s) Bin size in seconds 10 4 10-4 0.00005477 0.00003160 0.00000843 Fraine et al. (2013) measured transit depth of GJ1214b to precision of 40 ppm (radius to ~28 km) 14 consecutive transits coadded to produce final light curve Fig. 5. Phased & binned transit of GJ1214b at 4.5 µm fromour13spitzertransits,plusthetransitobservedbydé s e r t e t a l. ( 2 0 1 1 ). Fig. 4. Standard deviation of the residuals (data minus the simultaneous fit, in units of the stellar flux) for all 14 transits at 4.5 µm, versus bin size. The red lines in the lower panel show a ±1σ envelope. Relative photometry < 100 ppm which is repeatable 47 th DPS meeting 09 November 2015 SJC - 10

2011 MD A Challenging Target Spitzer tracked potential AARM target 2011 MD for 19.9 hours, covering a distance of 17.5 arcmin on the sky. Shifting and adding data led to a 2.2 sigma detection (0.60+/- 0.27uJy) of asteroid at position consistent with prediction Inferred diameter is 6m [4-10 is range]; density 1.1 g/cm+3 Suggest 2011MD is a rubble-pile asteroid Asteroid was ~0.14 au from Earth at the 3me Exploited Spitzer s Earth-trailing solar orbit 47 th DPS meeting 09 November 2015 SJC - 11

Asteroid (2867) Steins Example 47 th DPS meeting 09 November 2015 SJC - 12

Create Observation SBAG 47 th DPS meeting 09 November 2015 SJC - 13

Visualize Observation 47 th DPS meeting 09 November 2015 SJC - 14

Observation Planning Overview Handled by SPOT user tool Find targets by NAIF ID or send orbital parameters to SSC Design observation Final observations are submitted with proposal Visualize observation Add a Shadow observation to measure background Constrain observation for specified date if desired or link order of observations to have multiple epochs Moving targets require special handling as they are observations that need to be fixed in time when scheduled 47 th DPS meeting 09 November 2015 SJC - 15

Getting Data -- Spitzer Heritage Archive Search for moving targets in the archive 47 th DPS meeting 09 November 2015 SJC - 16

Precovery Tool Search for moving targets in the archive Find moving targets serendipitously observed by Spitzer See Luisa s talk about IRSA Services @ 1:30pm 47 th DPS meeting 09 November 2015 SJC - 17

Final Thoughts Plan to operate Spitzer through 2018 14000 hours available in 2017-2018 Proposal deadline will be this summer Spitzer has unique capabilities for planetary science and 3.6 and 4.5 µm data are unmatched until JWST 47 th DPS meeting 09 November 2015 SJC - 18

Any Questions? Contact the Helpdesk at the Spitzer Science Center help@spitzer.caltech.edu Visit the Spitzer Science Center web pages http://ssc.spitzer.caltech.edu http://irsa.ipac.caltech.edu/data/spitzer/docs/ spitzermission/observingprograms/solarsystemprograms/ http://irsa.ipac.caltech.edu/data/spitzer/docs/files/ spitzer/sso_observing_with_spitzer.pdf Spitzer/IRSA demos on YouTube 47 th DPS meeting 09 November 2015 SJC - 19