Papers
Topics
Authors
Recent
Search
2000 character limit reached

A Shock Flash Breaking Out of a Dusty Red Supergiant

Published 24 Nov 2023 in astro-ph.HE and astro-ph.SR | (2311.14409v3)

Abstract: Shock breakout emission is light that arises when a shockwave, generated by core-collapse explosion of a massive star, passes through its outer envelope. Hitherto, the earliest detection of such a signal was at several hours after the explosion, though a few others had been reported. The temporal evolution of early light curves should reveal insights into the shock propagation, including explosion asymmetry and environment in the vicinity, but this has been hampered by the lack of multiwavelength observations. Here we report the instant multiband observations of a type II supernova (SN 2023ixf) in the galaxy M101 (at a distance of 6.85+/-0.15 Mpc), beginning at about 1.4 hours after the explosion. The exploding star was a red supergiant with a radius of about 440 solar radii. The light curves evolved rapidly, on timescales of 1-2 hours, and appeared unusually fainter and redder than predicted by models within the first few hours, which we attribute to an optically thick dust shell before it was disrupted by the shockwave. We infer that the breakout and perhaps the distribution of the surrounding dust were not spherically symmetric.

Definition Search Book Streamline Icon: https://streamlinehq.com
References (71)
  1. A surge of light at the birth of a supernova. Nature, 554(7693):497–499, February 2018.
  2. An extremely luminous X-ray outburst at the birth of a supernova. Nature, 453(7194):469–474, May 2008.
  3. Supernova Shock Breakout from a Red Supergiant. Science, 321(5886):223–226, July 2008.
  4. A Wolf-Rayet-like progenitor of SN 2013cu from spectral observations of a stellar wind. Nature, 509(7501):471–474, May 2014.
  5. Shock Breakout and Early Light Curves of Type II-P Supernovae Observed with Kepler. Astrophys. J., 820(1):23, March 2016.
  6. Confined dense circumstellar material surrounding a regular type II supernova. Nature Physics, 13(5):510–517, February 2017.
  7. Shock cooling of a red-supergiant supernova at redshift 3 in lensed images. Nature, 611(7935):256–259, November 2022.
  8. A Comprehensive Measurement of the Local Value of the Hubble Constant with 1 km s−11{}^{-1}start_FLOATSUPERSCRIPT - 1 end_FLOATSUPERSCRIPT Mpc−11{}^{-1}start_FLOATSUPERSCRIPT - 1 end_FLOATSUPERSCRIPT Uncertainty from the Hubble Space Telescope and the SH0ES Team. Astrophys. J., 934(1):L7, July 2022.
  9. Early Supernovae Light Curves Following the Shock Breakout. Astrophys. J., 725(1):904–921, December 2010.
  10. The Early UV/Optical Emission from Core-collapse Supernovae. Astrophys. J., 728(1):63, February 2011.
  11. Shock cooling emission from explosions of red supergiants - I. A numerically calibrated analytic model. Mon. Not. R. Astron. Soc., 522(2):2764–2776, June 2023.
  12. K. Itagaki. Transient Discovery Report for 2023-05-19. Transient Name Server Discovery Report, 2023-1158:1, May 2023.
  13. LT Classification of SN 2023ixf as a Type II Supernova in M101. Transient Name Server AstroNote, 119:1, May 2023.
  14. Onset of SN 2023ixf observed over East Asian longitudes. Transient Name Server AstroNote, 130:1, May 2023.
  15. Supernovae with Two Peaks in the Optical Light Curve and the Signature of Progenitors with Low-mass Extended Envelopes. Astrophys. J., 788(2):193, June 2014.
  16. UV/Optical Emission from the Expanding Envelopes of Type II Supernovae. Astrophys. J., 838(2):130, April 2017.
  17. SN 2023ixf in Messier 101: Photo-ionization of Dense, Close-in Circumstellar Material in a Nearby Type II Supernova. Astrophys. J., 954(2):L42, September 2023.
  18. Circumstellar material ejected violently by a massive star immediately before its death. Science Bulletin, 68:2548–2554, 2023.
  19. High-resolution Spectroscopy of SN 2023ixf’s First Week: Engulfing the Asymmetric Circumstellar Material. Astrophys. J., 956(1):46, October 2023.
  20. Early Spectroscopy and Dense Circumstellar Medium Interaction in SN 2023ixf. Astrophys. J., 956(1):L5, October 2023.
  21. Far-ultraviolet to Near-infrared Observations of SN 2023ixf: A High-energy Explosion Engulfed in Complex Circumstellar Material. Astrophys. J., 954(1):L12, September 2023.
  22. From Discovery to the First Month of the Type II Supernova 2023ixf: High and Variable Mass Loss in the Final Year before Explosion. Astrophys. J., 955(1):L8, September 2023.
  23. Millimeter Observations of the Type II SN 2023ixf: Constraints on the Proximate Circumstellar Medium. Astrophys. J., 951(2):L31, July 2023.
  24. E. Waxman and B. T. Draine. Dust Sublimation by Gamma-ray Bursts and Its Implications. Astrophys. J., 537(2):796–802, July 2000.
  25. Evidence for dust destruction from the early-time colour change of GRB 120119A. Mon. Not. R. Astron. Soc., 440(2):1810–1823, May 2014.
  26. Photoelectric Emission from Interstellar Dust: Grain Charging and Gas Heating. Astrophys. J. Suppl., 134(2):263–281, June 2001.
  27. Bolometric light curves of aspherical shock breakout. Mon. Not. R. Astron. Soc., 508(4):5766–5785, December 2021.
  28. Shock Breakout in Three-dimensional Red Supergiant Envelopes. Astrophys. J., 933(2):164, July 2022.
  29. The SN 2023ixf Progenitor in M101. I. Infrared Variability. Astrophys. J., 957(2):64, November 2023.
  30. Shock Cooling and Possible Precursor Emission in the Early Light Curve of the Type II SN 2023ixf. Astrophys. J., 953(1):L16, August 2023.
  31. SN 2023ixf in Messier 101: A Variable Red Supergiant as the Progenitor Candidate to a Type II Supernova. Astrophys. J., 952(1):L23, July 2023.
  32. The Dusty and Extremely Red Progenitor of the Type II Supernova 2023ixf in Messier 101. arXiv e-prints, page arXiv:2309.01389, September 2023.
  33. Further constraints on the eruption time of SN 2023ixf in M101. Transient Name Server AstroNote, 150:1, May 2023.
  34. N. Hamann. Pre-Discovery Images of SN 2023ixf on 18th May 2023 21:19:13 UTC. Transient Name Server AstroNote, 127:1, May 2023.
  35. Astropy: A community Python package for astronomy. Astron. Astrophys., 558:A33, October 2013.
  36. The Astropy Project: Building an Open-science Project and Status of the v2.0 Core Package. Astron. J., 156(3):123, September 2018.
  37. Proper Image Subtraction—Optimal Transient Detection, Photometry, and Hypothesis Testing. Astrophys. J., 830(1):27, October 2016.
  38. The Automated Photometry of Transients pipeline (AUTOPHOT). Astron. Astrophys., 667:A62, November 2022.
  39. APASS - The Latest Data Release. In American Astronomical Society Meeting Abstracts #225, volume 225 of American Astronomical Society Meeting Abstracts, page 336.16, January 2015.
  40. LMFIT: Non-Linear Least-Square Minimization and Curve-Fitting for Python. Zenodo, September 2014.
  41. SciPy 1.0: fundamental algorithms for scientific computing in Python. Nature Methods, 17:261–272, February 2020.
  42. Antarctic Survey Telescope 3-3: Overview, System Performance and Preliminary Observations at Yaoan, Yunnan. Universe, 8(6):303, May 2022.
  43. Optical and Near-Infrared Observations of the Highly Reddened, Rapidly Expanding Type Ia Supernova SN 2006X in M100. Astrophys. J., 675(1):626–643, March 2008.
  44. Pipeline for the Antarctic Survey Telescope 3-3 in Yaoan, Yunnan. Frontiers in Astronomy and Space Sciences, 9:897100, July 2022.
  45. Image Subtraction in Fourier Space. Astrophys. J., 936(2):157, September 2022.
  46. E. Bertin and S. Arnouts. SExtractor: Software for source extraction. A&AS, 117:393–404, June 1996.
  47. VizieR Online Data Catalog: AAVSO Photometric All Sky Survey (APASS) DR9 (Henden+, 2016). VizieR Online Data Catalog, page II/336, January 2016.
  48. astropy/ccdproc: v1.3.0.post1, December 2017.
  49. Astrometry.net: Blind Astrometric Calibration of Arbitrary Astronomical Images. Astron. J., 139(5):1782–1800, May 2010.
  50. Gaia Collaboration. The Gaia mission. Astron. Astrophys., 595:A1, November 2016.
  51. Gaia Collaboration. Gaia Data Release 2. Summary of the contents and survey properties. Astron. Astrophys., 616:A1, August 2018.
  52. Multi-Band Photometric Follow-up of SN 2023ixf. Transient Name Server AstroNote, 129:1, May 2023.
  53. ZTF Pre-Discovery Forced Photometry of SN 2023ixf. Transient Name Server AstroNote, 120:1, May 2023.
  54. Is there an indication of evolution of type ia supernovae from their rise times? The Astronomical Journal, 118(6):2668, 1999.
  55. The Very Young Type Ia Supernova 2013dy: Discovery, and Strong Carbon Absorption in Early-time Spectra. Astrophys. J., 778(1):L15, November 2013.
  56. SN 2018zd: an unusual stellar explosion as part of the diverse Type II Supernova landscape. Mon. Not. R. Astron. Soc., 498(1):84–100, October 2020.
  57. Constraints on the Progenitor of SN 2016gkg from Its Shock-cooling Light Curve. Astrophys. J., 837(1):L2, March 2017.
  58. Measuring Reddening with Sloan Digital Sky Survey Stellar Spectra and Recalibrating SFD. Astrophys. J., 737(2):103, August 2011.
  59. What can we Learn from the Rising Light Curves of Radioactively Powered Supernovae? Astrophys. J., 769(1):67, May 2013.
  60. Shock Breakout from Type Ia Supernova. Astrophys. J., 708(1):598–604, January 2010.
  61. R. A. Chevalier and C. Fransson. Supernova Interaction with a Circumstellar Medium. In K. Weiler, editor, Supernovae and Gamma-Ray Bursters, volume 598, pages 171–194. 2003.
  62. Possible circumstellar interaction origin of the early excess emission in thermonuclear supernovae. Mon. Not. R. Astron. Soc., 525(1):246–255, October 2023.
  63. Optical Properties of Interstellar Graphite and Silicate Grains. Astrophys. J., 285:89, October 1984.
  64. Spectroscopic Constraints on the Properties of Dust in Active Galactic Nuclei. Astrophys. J., 402:441, January 1993.
  65. Dust Grain-Size Distributions and Extinction in the Milky Way, Large Magellanic Cloud, and Small Magellanic Cloud. Astrophys. J., 548(1):296–309, February 2001.
  66. The Effects of Circumstellar Dust Scattering on the Light Curves and Polarizations of Type Ia Supernovae. Astrophys. J., 931(2):110, June 2022.
  67. Eli Dwek. Will Dust Black Out SN 1987A? Astrophys. J., 329:814, June 1988.
  68. Aspherical Supernovae: Effects on Early Light Curves. Astrophys. J., 856(2):146, April 2018.
  69. Christopher D. Matzner, Yuri Levin and Stephen Ro. Oblique Shock Breakout in Supernovae and Gamma-Ray Bursts. I. Dynamics and Observational Implications. Astrophys. J., 779(1):60, December 2013.
  70. Early Time Spectropolarimetry of the Aspherical Type II Supernova SN 2023ixf. Astrophys. J., 955(2):L37, October 2023.
  71. Rotational disruption of dust grains by radiative torques in strong radiation fields. Nature Astronomy, 3:766–775, May 2019.
Citations (20)

Summary

Paper to Video (Beta)

Whiteboard

No one has generated a whiteboard explanation for this paper yet.

Open Problems

We haven't generated a list of open problems mentioned in this paper yet.

Continue Learning

We haven't generated follow-up questions for this paper yet.

Collections

Sign up for free to add this paper to one or more collections.

Tweets

Sign up for free to view the 1 tweet with 0 likes about this paper.