论文标题
用多波长观测来解开全球冠状磁场
Untangling the global coronal magnetic field with multiwavelength observations
论文作者
论文摘要
磁性定义了复杂而动态的太阳能电晕。冠状质量弹出(CME)被认为是由冠状磁场中的应力,曲折和缠结引起的,这些冠状磁场会积聚能量并最终爆发,将等离子体扔到星际间空间中。即使是永远存在的太阳风也具有由全球冠状磁场塑造的三维形态,形成了地理填充性旋转相互作用区域。 CME的演化和太阳风的结构密切取决于冠状磁场,因此对全球磁热气氛的全面观察对于科学进步和太空天气预测至关重要。尽管在局部测量冠状磁场方面已经取得了一些进步,但尚未提供全球冠状磁场的概要测量值。 我们得出的结论是,2050年的关键目标应该是全球冠状磁场的全面,正在进行的3D概要图。这将需要建造新的望远镜,即基于空间和空间,以获得对冠状磁场敏感的互补的多波长观测值。它还需要开发能够合并多波长数据以及向前分析工具和仿真测试台的反转框架,以优先级和建立对拟议望远镜的观察要求。
Magnetism defines the complex and dynamic solar corona. Coronal mass ejections (CMEs) are thought to be caused by stresses, twists, and tangles in coronal magnetic fields that build up energy and ultimately erupt, hurling plasma into interplanetary space. Even the ever-present solar wind possesses a three-dimensional morphology shaped by the global coronal magnetic field, forming geoeffective corotating interaction regions. CME evolution and the structure of the solar wind depend intimately on the coronal magnetic field, so comprehensive observations of the global magnetothermal atmosphere are crucial both for scientific progress and space weather predictions. Although some advances have been made in measuring coronal magnetic fields locally, synoptic measurements of the global coronal magnetic field are not yet available. We conclude that a key goal for 2050 should be comprehensive, ongoing 3D synoptic maps of the global coronal magnetic field. This will require the construction of new telescopes, ground and space-based, to obtain complementary, multiwavelength observations sensitive to the coronal magnetic field. It will also require development of inversion frameworks capable of incorporating multi-wavelength data, and forward analysis tools and simulation testbeds to prioritize and establish observational requirements on the proposed telescopes.