High Resolution Mid-Infrared Imaging of Dusty Circumstellar Structure around Evolved Stars with the MMT Adaptive Optics System B.A. Biller, L.M. Close,

Slides:



Advertisements
Similar presentations
Probing the Conditions for Planet Formation in Inner Protoplanetary Disks James Muzerolle.
Advertisements

Searching for disks around high-mass (proto)stars with ALMA R. Cesaroni, H. Zinnecker, M.T. Beltrán, S. Etoka, D. Galli, C. Hummel, N. Kumar, L. Moscadelli,
14 May 2004ALMA Workshop UMD Margaret Meixner (STScI) Stars and Their Evolution: as viewed by ALMA Margaret Meixner STScI.
Speaker: Laird Close University of Arizona ADAPTIVE OPTICS IN ASTRONOMY THE PROBLEM: Since Newton’s time it was realized that the mixing of hot and cold.
Dust particles and their spectra. Review Ge/Ay 132 Final report Ivan Grudinin.
VLBI observations of two 43-GHz SiO masers in R Cas Jiyune Yi KVN Korea VLBI Network ( KVN ) group Korea Astronomy and Space Science Institute In collaboration.
Debris Disk Science with GMT Inseok Song, University of Georgia for “Opening New Frontiers with the Giant Magellan Telescope” in Oct 2010 Zodiacal light:
Armando DOMICIANO de SOUZA Main collaborators: O. Chesneau (OCA, F), T. Driebe (MPIfR, D), K-.H. Hofmann (MPIfR, D), S. Kraus (MPIfR, D), A. Miroshnichenko.
Multi-band Infrared Mapping of the Galactic Nuclear Region Q. D. Wang (PI), H. Dong, D. Calzetti (Umass), Cotera (SETI), S. Stolovy, M. Muno, J. Mauerhan,
Temporal variations of the circumstellar environment of the Mira star V Oph Keiichi Ohnaka Max-Planck-Institut für Radioastronomie ESO Santiago Seminar.
Composite colliding winds (CWo - orbiting; CWc - concentric; CWb - binary) and Seaquist, Taylor and Button (STB) model of HM Sge (open circle - hot component;
Post Main Sequence Evolution PHYS390 (Astrophysics) Professor Lee Carkner Lecture 15.
TIGER The TIGER Instrument Overview Phil Hinz - PI July 13, 2010.
Post-AGB evolution. Learning outcome evolution from the tip of the AGB to the WD stage object types along the post-AGB evolution basics about planetary.
A Summary of Results from Nulling Interferometry W. Liu, P. Hinz, W. Hoffmann, and the MMT Adaptive Optics Group Steward Observatory, University of Arizona.
The First Adaptive Optics High Resolution Mid – IR Imaging of Evolved Stars: Case Studies of RV Boo and AC Her B.A. Biller, L.M.Close, D. Potter, J. Bieging,
Structure of circumstellar envelope around AGB and post-AGB stars Dinh-V-Trung Sun Kwok, P.J. Chiu, M.Y. Wang, S. Muller, A. Lo, N. Hirano, M. Mariappan,
Comparison of Photometric And Spectroscopic Redshifts.
Episodic Mass Loss from Post- AGB Stars Angela Speck Angela Speck, Margaret Meixner, Maia Nenkova, Moshe Elitzur & Gill Knapp.
Centimeter and Millimeter Observations of Very Young Binary and Multiple Systems -Orbital Motions and Mass Determination -Truncated Protoplanetary Disks.
The Deaths of Stars Chapter 10. Evolution off the Main Sequence: Expansion into a Red Giant Hydrogen in the core completely converted into He: H burning.
Circumstellar disk imaging with WFIRST: not just for wide field surveys any more... Tom Greene (NASA ARC) & WFIRST Coronagraph Team AAS / WFIRST Session.
MOLECULAR GAS and DUST at the CENTER of the EGG NEBULA Jeremy Lim and Dinh-V-Trung (Institute of Astronomy & Astrophysics, Academia Sinica, Taiwan) Introduction.
ASYMMETRIC PLANETARY NEBULAE III Mt. Rainier National Park 28 July - 1 August 2003 Evidence of Bipolar Structures in Precursors of PNe Evidence of Bipolar.
Imaging Planets in the Thermal Infrared Phil Hinz University of Arizona Outline: Observations of HR 8799 and Fomalhaut Survey of FGK stars in the thermal.
Stellar Winds and Mass Loss Brian Baptista. Summary Observations of mass loss Mass loss parameters for different types of stars Winds colliding with the.
L. Matrà 1,2, B. Merín 1, C. Alves de Oliveira 1, N. Huélamo 3, Á. Kóspál 4, N. L.J. Cox 5, Á. Ribas 1,3, E. Puga 1, R. Vavrek 1, P. Royer 5, T. Prusti.
VLTI ’ s view on the circumstellar environment of cool evolved stars: EuroSummer School Observation and data reduction with the Very Large Telescope Interferometer.
Dust Envelopes around Oxygen-rich AGB stars Kyung-Won Suh Dept. of Astronomy & Space Science Chungbuk National University, Korea
Mid-infrared Spectral Evolution of Post-AGB Stars Kevin Volk, Gemini Observatory.
The planetary nebula M2-9: Balmer line profiles of the nuclear region Silvia Torres-Peimbert 1 Anabel Arrieta 2 Leonid Georgiev 1 1 Instituto de Astronomía,
The Close Binary Central Star of the Young Planetary Nebula HB12 C. H. Hsia a, W. H. Ip a, J.Y. Hu b a Institute of Astronomy, National Central University,
Note that the following lectures include animations and PowerPoint effects such as fly-ins and transitions that require you to be in PowerPoint's Slide.
Lecture 17 Post-ms evolution II. Review Review Review.
VLASS – Galactic Science Life cycle of star formation in our Galaxy as a proxy for understanding the Local Universe legacy science Infrared GLIMPSE survey.
ESMA workshop Leiden, 1-2 Feb Evolved Stars eSMA science case for evolved stars (AGB, post-AGB, proto-PNe and PNe) Wouter Vlemmings With various levels.
Hee-Won Lee ARCSEC and Dept. of Astronomy Sejong University 2010 August 26.
GEOL3045: Planetary Geology Lysa Chizmadia The Sun & Ulysses Lysa Chizmadia The Sun & Ulysses.
Spectropolarimetry Bag Lunch Seminar - Dec 2003 Outline 1.Background 2.Applications a)Studying the transition from AGB to post-AGB; b)Probing the structure.
Dusty disks in evolved stars?
Page 1 MIRAC3-BLINC Magellan results MIRAC4-BLINC plans Static and Deformable Secondaries Phil Hinz and Bill Hoffmann Steward Observatory Giovanni Fazio.
A-Ran Lyo KASI (Korea Astronomy and Space Science Institute) Nagayoshi Ohashi, Charlie Qi, David J. Wilner, and Yu-Nung Su Transitional disk system of.
ASTR112 The Galaxy Lecture 7 Prof. John Hearnshaw 11. The galactic nucleus and central bulge 11.1 Infrared observations (cont.) 11.2 Radio observations.
Introduction Star itself Ejecta, Great Eruption in 1840 formed the Homunculus The 5.52 yr periodicity Binary vs shell D = 2.3 kpc.
The infrared extinction law in various interstellar environments 1 Shu Wang 11, 30, 2012 Beijing Normal University mail.bnu.edu.cn.
Kenneth Wood St Andrews
Jets Two classes of jets from X-ray binaries
ALMA Observations of proto-planetary disks I HD – P.I. Casassus 2013 Nature 493, 191 Herbig Ae star 140 pc, 2 Myr, 1.9 M , disk mass 0.1 M  Left:
The planet-forming zones of disks around solar- mass stars: a CRIRES evolutionary study VLT Large Program 24 nights.
The AU Mic Debris Ring Density profiles & Dust Dynamics J.-C. Augereau & H. Beust Grenoble Observatory (LAOG)
( 1: Kobe University, 2: Nagoya University, 3: NAOJ) ☆ Abstract ☆ We obtained a high spatial resolution (FWHM ~ 0.1”) near-infrared image of XZ Tau, a.
70 th International Symposium on Molecular Spectroscopy June 2015 First Scientific Observations with the New ALMA Prototype Antenna of the Arizona Radio.
Searching for disks around high-mass (proto)stars with ALMA R. Cesaroni, H. Zinnecker, M.T. Beltrán, S. Etoka, D. Galli, C. Hummel, N. Kumar, L. Moscadelli,
The Lower Main Sequence UV Ceti Stars –M dwarf flare stars –About half of M dwarfs are flare stars (and a few K dwarfs, too) –A flare star brightens by.
The circumstellar environment of evolved stars as seen by VLTI / MIDI Keiichi Ohnaka Max-Planck-Institut für Radioastronomie, Infrared Interferometry Group.
Debris Disks - LBTI Phil Hinz University of Arizona.
Globular Clusters Globular clusters are clusters of stars which contain stars of various stages in their evolution. An H-R diagram for a globular cluster.
Presented by: Suklima Guha Niyogi Leiden Observatory 13/02/2013 USING INFRARED OBSERVATIONS OF CIRCUMSTELLAR DUST AROUND EVOLVED STARS TO TEST DUST FORMATION.
Circumstellar Disks at 5-20 Myr: Observations of the Sco-Cen OB Association Marty Bitner.
NICMOS Measurements of the Near Infrared Background
Young planetary systems
Observation of microquasars with the MAGIC telescope
Nucleosynthesis and stellar lifecycles
An Analysis of Dust Shell Around Symbiotic Star CH CYGNI Mustafa Helvaci Informatics Institute, Istanbul Technical University.
Pulse Profile Decomposition: Geometry and Beam Patterns of EXO and 4U
The Interstellar Medium
-Orbital Motions and Mass Determination
Mikako Matsuura National Astronomical Observatory of Japan
Eventually, the star's fuel will begin to run out
EVN observations of OH maser burst in OH
Presentation transcript:

High Resolution Mid-Infrared Imaging of Dusty Circumstellar Structure around Evolved Stars with the MMT Adaptive Optics System B.A. Biller, L.M. Close, A. Li, J.H. Bieging, W.F. Hoffmann, P.M. Hinz, D. Potter, D. Miller, G. Brusa, M. Lloyd-Hart, F. Wildi, and B.D. Oppenheimer, Steward Observatory

High Resolution Adaptive Optics Imaging in the Mid-Infrared MMT adaptive secondary removes ~8 warm optical elements compared to standard AO MMT adaptive secondary removes ~8 warm optical elements compared to standard AO Background 3x lower than standard AO opens up Mid-IR wavelengths to AO Background 3x lower than standard AO opens up Mid-IR wavelengths to AO Can achieve Strehls of ~100% at Mid-IR wavelengths and resolution down to the diffraction limit. Can achieve Strehls of ~100% at Mid-IR wavelengths and resolution down to the diffraction limit.

Lifecycle of Evolved Stars  AGB (Asymptotic Giant Branch) Significant ISM enrichment through Slow Wind Significant ISM enrichment through Slow Wind In some cases, dense toroidal structure can form In some cases, dense toroidal structure can form  Post-AGB / Proto-Planetary Nebula Mass loss ceases Mass loss ceases Circumstellar material observable primarily in IR Circumstellar material observable primarily in IR  White Dwarf / Planetary Nebula Hard photons from white dwarf ionize and light up Hard photons from white dwarf ionize and light up circumstellar material.

Planetary Nebulae Shapes Collimation due to:  Magnetic Fields  Dense Toroidal Structure  Binary Interaction  Not Well Understood Balick and Frank (2002)

RV Boo and CH Cyg RV Boo – AGB star with possible Keplerian disk RV Boo – AGB star with possible Keplerian disk CH Cyg -- Only known symbiotic triple star – consists of: CH Cyg -- Only known symbiotic triple star – consists of:  inner red giant/white dwarf pair (period~800 days, Hinkle et al. 1993)  outer red giant (period ~ 14.5 years, Skopal et al. 1996)  system viewed nearly edge on

A Keplerian Disk around RV Boo? Bergman et al. (2000)

RV Boo – Raw Data  9.8  m  SR ~ 100%!  145 Jy RV Boo total flux  5% eccentricity

Super-Resolution through Deconvolution 0.16” ( pc) FWHM disk, Position Angle of 120 o comparable to that of CO disk. 0.1”

Parallactic Angle vs. Position Angle

Modeling  Emission modeled using A. Li’s dust thermal emission models.  Grain size distribution modeled as a power law.  Minimum grain size: 0.01  m  Maximum grain size: 1000  m  Dust spatial distribution modeled as a modified power law.  Star modeled using Kurucz 3000 K M6IIIe star model.  Fit SED to our 9.8  m point and IRAS/ISO fluxes and spectra.  Best fit model had disk inclination o of 30 o to 40 o from edge on and a mid-IR disk mass of 1.6 x M sun

Model Comparison

CH Cyg Only known symbiotic triple star – consists of: Only known symbiotic triple star – consists of:  inner red giant/white dwarf pair (period~800 days, Hinkle et al. 1993)  outer red giant (period ~ 14.5 years, Skopal et al. 1996)  system viewed nearly edge on  Multiple outbursting phases since 1963

CH Cyg – Raw Images

CH Cyg – Cut Plots 9.8  m horizontal9.8  m vertical 11.7  m horizontal 11.7  m vertical

e vs. FWHM 9.8  m 11.7  m

Deconvolution – Highlighting the Spherically Symmetric Structure

CH Cyg – Modeling The Symmetric Structure

CH Cyg – Residual “Jets” Crocker et al. 2001

Conclusions RV Boo (Biller et al. 2005) ” disk (60 AU at 390 pc) with PA of 120 o and inclined o from edge on. RV Boo (Biller et al. 2005) ” disk (60 AU at 390 pc) with PA of 120 o and inclined o from edge on. CH Cyg (Biller et al. 2006) – Nearly spherically symmetric extension after deconvolution CH Cyg (Biller et al. 2006) – Nearly spherically symmetric extension after deconvolution  FWHM(9.8  m) of ” ( AU at 270 pc.)  FWHM(11.7  m) of ” ( AU at 270 pc.) Fainter, ~0.7” asymmetric extension stretching north to south, with similar direction/size to the radio/optical jets imaged by Crocker et al Fainter, ~0.7” asymmetric extension stretching north to south, with similar direction/size to the radio/optical jets imaged by Crocker et al

X Her and RS Cnc

Followup Observations