LRP2020: Signposts of planet formation in protoplanetary disks

N. Marel, R. Dong, R. Pudritz, J. Wadsley, A. Boley, Eve J. Lee, M. Ali-Dib, B. Matthews, C. Marois, Henry Ngo Nrc Herzberg, U. Victoria, Mcmaster University, U. Columbia, McGill University, U. Montreal
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Abstract

Successful exoplanet surveys in the last decade have revealed that planets are ubiquitous throughout the Milky Way, and show a large diversity in mass, location and composition. At the same time, new facilities such as the Atacama Large Millimeter/submillimeter Array (ALMA) and optical/infrared facilities including Gemini/GPI have provided us with sharper images than ever before of protoplanetary disks around young stars, the birth cradles of planets. The high spatial resolution has revealed astonishing structures in disks, such as rings, gaps, asymmetries and spiral arms, and the enormous jump in sensitivity has provided the tools for both large, statistically relevant surveys and deep, sensitive molecular line studies. These observations have revolutionized our view of planet formation, disk formation and disk evolution, bringing model simulations and observations closer to the same level of detail, with many contributions from Canadian researchers on theoretical, observational and technological sides. The new results have inevitably led to a range of new questions, which require next generation instruments such as the Next Generation Very Large Array (ngVLA) and large scale optical infrared facilities. In this white paper we will discuss the current transformation in our understanding of planet formation and the next steps and challenges in connecting theory with exoplanet demographics and protoplanetary disk observations for Canadian research.
LRP2020:原行星盘中行星形成的标志
在过去十年中,成功的系外行星调查表明,行星在整个银河系中无处不在,并且在质量、位置和组成方面表现出很大的多样性。同时,新的设备,如阿塔卡马大型毫米/亚毫米阵列(ALMA)和光学/红外设备,包括双子座/GPI,为我们提供了比以往任何时候都清晰的年轻恒星周围原行星盘的图像,行星的诞生摇篮。高空间分辨率揭示了磁盘中惊人的结构,如环、间隙、不对称和螺旋臂,灵敏度的巨大飞跃为大型、统计相关的调查和深入、敏感的分子线研究提供了工具。这些观测彻底改变了我们对行星形成、磁盘形成和磁盘演化的看法,使模型模拟和观测更接近同一细节水平,加拿大研究人员在理论、观测和技术方面做出了许多贡献。新的结果不可避免地导致了一系列新的问题,这需要下一代仪器,如下一代甚大阵列(ngVLA)和大型光学红外设施。在本白皮书中,我们将讨论我们对行星形成的理解的当前转变,以及将理论与系外行星人口统计和原行星盘观测联系起来的下一步和挑战。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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