The Non Equilibrium Ionization Model in ISIS

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The Non Equilibrium Ionization Model in ISIS L. Ji1, N.S. Schulz1, M. Nowak1, H.L. Marshall1, M. Noble1, J. Kwan2 1 MIT Kavli Institute for Astrophysics and Space Research 2 University of Massachusettes, Amherst X ray Spectroscopy Workshop July 11 13 2007

Outline Why do we care about Non equilibrium Ionization (NEI)? What's our NEI code and its improvements in ISIS?

NEI Introduction t dyn t intrinsic t dyn T / dt /dt The plasma could be under ionized or over ionized Ji et al. 2006

Basic structure of plasma emission models ne Te abundance Ionization equilibrium n(an+) ne T e Credit: Hans Böhringer 1997 Ionization evolution ñ(an+) Radiative emission lines spectrum Evolution of the astrophysical model Bremsstrahlung Recombination rad. Two-photon emission Cooling rate

colliding wind binaries accretion flow in AGN super starcluster winds galactic winds radiative shock flows in IGM Eta Car Poster by Corcoran et al Sgr A* Baganof et al 2003 M104 Sombrero Li et al. 2007

the archetype colliding wind binary WR 140 MgXII SiXIV SXVI Model: hydrodynamical simulations + CIE NeX MgXI SiXIII SXV NeIX OVIII Pittard &Dougherty 2006

Eta Car the Galaxy s most massive & luminous star (5 106 L ; 100 M ) 5 HETG 100ksec May 3 2003 Oct 16 2002 Jun 16 2003 Jul 20 2003 Sep 26 2003 0.1 0.5 red ; 0.5 1.0 green ; 1.0 10keV blue FeXXV FeI Poster by Corcoran et al.

Sgr A* r < 10 arcsec (~0.4pc) Chandra ACIS I : 0.5 7keV 1.'3 X 1.'5 Contours : VLA 6 cm 0.5 1.5keV red 1.5 3keV yellow 3 6 kev green 6 7keV blue 6.5 0.2 kev 0.1 Baganoff et al. 2003 Xu et al. 2006

Arches cluster and its vicinity super stellar clusters (SSCs): 1 8 kev lie in extra galactic star forming galaxies (e.g. M82) or in local regions (e.g. NGC3603, R136 in 30 Doradus, Arches cluster) mass and energy loss from massive stars energize ISM by their winds (stellar cluster wind) HST MICMOS Near IR Figer et al. 2000, Wang et al. 2006 Because of both the shock heating in the wind wind collision and the fast adibatic cooling in the subsequent expansion, the wind gas is in highly NEI state.

dash: CIE solid: non CIE Ji et al. 2006

NGC253 2 10 kev 0.2 0.5 kev abundance puzzle exists in the analysis of X-ray gas of starburst galaxies, such as in NGC253 (Strickland et al. 2002) based on one/two temperature CIE assumption. XMM EPIC XMM EPIC pn pn Breitschwerdt 2002 D25

WHIM is too tenuous to be observed in emission Tracers for WHIM: various UV and X ray absorption lines (e.g. CIV, OVI, OVII, NeVIII etc.) from FUSE, Chandra, XMM Newton. Radiative shock flow could be suitable scenario Tripp et al. 2005

T 0 =5 106 K 4 Te 0=1 10 K n 0 =1 10 cm 5 3 Oxygen ionic fraction NEI : without UV & X ray background radiation (UVBR) NEI: with UVBR EQI: equilibrium ionization with UVBR CIE: collisional equilibrium ionization with UVBR Ji et al. 2007

Column density maps Ts =[5e5, 7e5] K n0 = [10 7, 10 5] cm 3 Az = [0.01, 2.0] Z Ji et al. 2007

Characteristics of our spectral code (Ji PhD thesis 2006) based on the updated atomic data (CHIANTI, APED) the atomic data and the code are separate fine structure energy levels have been regrouped and the collisional rate and A rates have been re calculated in order to save computational time. In addition, it is flexible to include fine structures for interested ions. including the atomic process of cascading down following recombinations into highly excited levels allowing electron temperature evolution due to Coulomb interaction dealing with dynamics and ionization self consistently For the collisional ionization plasma & the photoionization plasma exposed in the external radiation field Forbidden Two photons Resonance Intercombination

ISIS Interactive Spectral Interpretation System (Houck 2002) All XSPEC models + mathematical scripts of IDL/Matlab (TCL in XSPEC is not mathematical e.g. models may be scripts, not just C/C++ or Fortran Very extensible: easy to add new features by wrapping external libraries (like LSODE) as importable modules (e.g. XSTAR) Fully programmable APED interface Distributed parallelism with PVM, and multicore parallelism with OpenMP Noble et al. 2007 in preparation

New developments in ISIS (on going) 1. Incorporate photoionization effects Atomic data from XSTAR Allowing atomic data to be queried and manipulated according to different physical scenarios. Facilitating time dependent NEI photoionization modelling e.g. NEI versions of XSPEC photemis/warmphot etc. 2. Develop template NEI models for simple dynamics e.g. 1D steady state adiabatic wind (Ji et al. 2006), single radiative shock flow in IGM (Ji et al. 2007), a slab of photoionization plasma with time evolving ionization sources. allowing self consistent modelling of NEI plasmas parallel computation (Noble et al. 2006) friendly for custom users

Thanks!

V =500km s 1 Comparisons for inner regions M 0 =10 M sun yr 4 Cumulative spectrum within certain annulus non CIE*10 CIE Surface brightness profile for different energy band CIE could be a fair good approximation for stellar winds with small V inner in the region 1

V =500km s 1 Comparisons for inner regions M 0 =10 M sun yr 4 Cumulative spectrum within certain annulus non CIE*10 CIE Surface brightness profile for different energy band CIE could be a fair good approximation for stellar winds with small V inner in the region 1

V =2000km s 1 M 0 =10 M sun yr 4 non CIE*10 Fe ions CIE partially ionized ions from C,N,O and Fe account for the soft excess in non CIE case 1

V =2000km s 1 Comparisons for outer regions M 0 =10 M sun yr 3 non CIE*10 CIE CIE could be a fair good approximation for stellar winds with large in thevouter region 1

V =500km s 1 M 0 =10 3 M sun yr 1 CIE: dash lines non_cie: solid lines delayed recombination dominates in outer region recombination edges and cascade lines due to recombination into highly excited energy levels account for the difference non CIE*10 CIE

An illustration an adiabatic expanding stellar cluster wind M ~3 10 5 M sun yr 1 v =1000 km s 1 T 0=5 106 K r 0 =0.3 pc T =T 0 r / r 0 4/ 3 Comparison of Equilibrium/Non CIE spectrum r=2pc r=1pc T=1e6 K T=4e5 K

An illustration Comparison of spectral code with/without including recombinations into highly excited levels for non CIE case r= 1pc T=1e6 K r= 2pc T=4e5 K

Level balance equations