论文标题
极端天体物理环境中的暗物质
Dark Matter In Extreme Astrophysical Environments
论文作者
论文摘要
通过观察极端的天体物理环境来探索暗物质 - 此处定义为重型物体,例如白矮人,中子星和黑洞,以及超新星和紧凑型物体合并事件 - 自上次雪人质量工艺以来一直是一个主要的生长领域。理论工作强调了当前和近未实现观测值的实用性,以限制整个质量范围内新的暗物质参数空间。这包括从无线电到伽马射线的电磁频谱的重力波仪器和观测值。尽管最近的搜索已经为各种暗物质模型提供了领先的敏感性,但这项工作也强调了对理论天体物理学研究的需求,以更好地限制这些极端天体物理系统的特性。这些搜索标志探测暗物质的独特潜力为提出的下一代天文学和重力波仪器增加了动力。
Exploring dark matter via observations of extreme astrophysical environments -- defined here as heavy compact objects such as white dwarfs, neutron stars, and black holes, as well as supernovae and compact object merger events -- has been a major field of growth since the last Snowmass process. Theoretical work has highlighted the utility of current and near-future observatories to constrain novel dark matter parameter space across the full mass range. This includes gravitational wave instruments and observatories spanning the electromagnetic spectrum, from radio to gamma-rays. While recent searches already provide leading sensitivity to various dark matter models, this work also highlights the need for theoretical astrophysics research to better constrain the properties of these extreme astrophysical systems. The unique potential of these search signatures to probe dark matter adds motivation to proposed next-generation astronomical and gravitational wave instruments.