From the (thermonuclear) supernova to the supernova remnant

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10th DTA symposium Stellar deaths and their diversity 2019-01-21 NAOJ, Mitaka campus, Japan From the (thermonuclear) supernova to the supernova remnant Gilles Ferrand Research Scientist Astrophysical Big Bang Laboratory + S. Nagataki, D. Warren, F. Röpke, I. Seitenzhal

2 From the 3D supernova to the 3D remnant 3D simulations of a supernova remnant (SNR) 3D simulations of thermonuclear supernovae (TN SN)? Röpke 2007, Seitenzahl et al 2013 What can the (morphology of the) SNR tell us about the explosion? shocked ejecta at 500 yr Ferrand et al 2010, 2012, 2014, 2016

3 Simulating a TN SN: initial conditions Chandrasekhar-mass white dwarf initial flame configuration? grid of ignition patterns Seitenzahl et al 2013

4 Simulating a TN SN: hydro 3D evolution propagation of the flame? interaction with turbulence (sub-grid modeling) deflagration or detonation? popular model = deflagration to detonation transition (DDT) Seitenzahl et al 2013

5 SN Ia explosion model N100 model delayed detonation of a Chandrasekhar mass white dwarf total mass density composition: 56Ni 16O 12C 3D iso-contours on Sketchfab https://skfb.ly/ 6pKYW 3D volume rendering data from Seitenzahl et al 2013 courtesy Fritz Röpke

6 3D visualization with Virtual Reality Ferrand & Warren 2018 RIKEN Open at Day 2018-04-21 ~160 people enjoyed the VR demo ABBL booth during RIKEN Open Day

7 Hydro evolution of the SNR slices of log(density) from 1 yr to 500 yr on a 256^3 Cartesian grid (simulation made in co-expanding grid, box size increases by factor ~150) Chevalier 1D initial profile (power-law) what SNR people used to do N100 angle-averaged effectively 1D initial profile (~exponential) N100 full 3D initial profile what SN people are telling us

8 Hydro evolution of the SNR slices of log(density) t = 1 yr t = 100 yr t = 500 yr N100 3Di SN phase + SNR phase N100 1Di SNR phase only

9 Spherical harmonics expansion of the SNR waves forward shock (FS) from 1 yr to 500 yr 3Di 1Di

10 Spherical harmonics expansion of the SNR waves reverse shock (RS) from 1 yr to 500 yr 3Di 1Di

11 Spherical harmonics expansion of the SNR waves contact discontinuity (CD) from 1 yr to 500 yr 3Di 1Di

12 Rayleigh-Taylor from the SN and SNR phases contact discontinuity (CD) at 500 yr 3Di SN modes SNR RTI 1Di SNR RTI

13 Global time evolution of the angular power this is the contribution from the initial SN this is the contribution purely from the SNR phase RTI t = 178 yr total power total power for l<10 (large scales) vs. total power for l>10 (small scales) separation of the contributions

14 Conclusions and perspectives Morphological signatures of the (thermonuclear) explosion can be seen clearly in the first hundred years, and may still be detected after a few hundred years. The SH analysis reveals that (for the N100 model) the RTI from the SNR is dominant only after ~200 yr. Ferrand et al 2019, in preparation Future simulations will enable us to make comparisons between different SN explosion models: between different ignition setups for the DDT model, that produce different initial asymmetries and yields between different SN explosion models: pure deflagration, pure detonation, other detonations, other channels (Role of the companion star?) Interestingly, using a realistic 3D SN model leads to larger scale and more irregular structures, which were not seen in SNR simulations made from (semi-)analytical SN models, and which better match X-ray observations of Tycho s SNR. Will compute the synthetic thermal (and non-thermal) emission as observed in projection for direct comparison.

15 X-ray emission from the SNR projection along l.o.s. of the density squared = proxy for the thermal emission 1Di 3Di Tycho looks more like this To be continued