从地球细胞爆炸的启示看 Ia 型超新星的爆炸模型

IF 8.1 1区 物理与天体物理 Q1 PHYSICS, MULTIDISCIPLINARY Physical review letters Pub Date : 2024-09-17 DOI:10.1103/physrevlett.133.121201
Kazuya Iwata, Keiichi Maeda
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引用次数: 0

摘要

细胞结构被认为是陆地爆炸起爆、传播和熄灭的关键标准。虽然对已知涉及爆炸的 Ia 型超新星的一些研究已经涉及了细胞结构的重要性,但进一步的详细处理将有助于加深对爆炸结果的理解。在本研究中,我们弥合了天体物理学和工程学领域的这一差距,重点研究了富氦白矮星包层中的爆炸,作为所谓双引爆模型的触发过程。我们通过高分辨率二维模拟对细胞结构进行了量化。我们证明了被广泛接受的淬火和起爆的地面实验标准确实可以很好地解释以前的流体力学模拟结果。本研究强调了继续将地面引爆实验的洞察力应用于天体物理问题的潜力,特别是长期悬而未决的 Ia 型超新星爆炸机制问题。
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Viewing Explosion Models of Type Ia Supernovae through Insights from Terrestrial Cellular Detonation
The cellular structure is considered to be a key as a criterion in initiation, propagation, and quenching of terrestrial detonation. While a few studies on type Ia supernovae, which are known to involve detonation, have addressed the importance of the cellular structure, further detailed treatment will benefit enhanced understanding of the explosion outcomes. In the present study, we bridge this gap in the astrophysics and engineering fields, focusing on the detonation in a helium-rich white dwarf envelope as the triggering process for the so-called double-detonation model. The cellular structures are quantified via high-resolution two-dimensional simulations. We demonstrate that widely accepted terrestrial-experimental criteria for quenching and initiation of detonation can indeed explain the results of previous hydrodynamic simulations very well. The present study highlights the potential of continuing to apply the insight from terrestrial detonation experiments to astrophysical problems, specifically the long unresolved problem of the explosion mechanism of type Ia supernovae.
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来源期刊
Physical review letters
Physical review letters 物理-物理:综合
CiteScore
16.50
自引率
7.00%
发文量
2673
审稿时长
2.2 months
期刊介绍: Physical review letters(PRL)covers the full range of applied, fundamental, and interdisciplinary physics research topics: General physics, including statistical and quantum mechanics and quantum information Gravitation, astrophysics, and cosmology Elementary particles and fields Nuclear physics Atomic, molecular, and optical physics Nonlinear dynamics, fluid dynamics, and classical optics Plasma and beam physics Condensed matter and materials physics Polymers, soft matter, biological, climate and interdisciplinary physics, including networks
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