Jackson Bernard V, Tokumaru Munetoshi, Iwai Kazumasa, Bracamontes Matthew T, Buffington Andrew, Fujiki Ken'ichi, Murakami Go, Heyner Daniel, Sanchez-Cano Beatriz, Rojo Mathias, Aizawa Sae, Andre Nicolas, Barthe Alain, Penou Emmanuel, Fedorov Andrei, Sauvaud Jean-Andre, Yokota Shoichiro, Saito Yoshifumi
Center for Astrophysics and Space Sciences, University of California, San Diego 0424, La Jolla, CA 92093-0424 USA.
Institute for Space-Earth, Environmental Research, Nagoya University, Furo-cho, Chikusa-ku, Nagoya, 464-8601 Japan.
Sol Phys. 2023;298(5):74. doi: 10.1007/s11207-023-02169-8. Epub 2023 May 30.
Remotely sensed interplanetary scintillation (IPS) data from the Institute for Space-Earth Environmental Research (ISEE), Japan, allows a determination of solar-wind parameters throughout the inner heliosphere. We show the 3D analysis technique developed for these data sets that forecast plasma velocity, density, and component magnetic fields at Earth, as well at the other inner heliospheric planets and spacecraft. One excellent coronal mass ejection (CME) example that occurred on the 10 March 2022 was viewed not only in the ISEE IPS analyses, but also by the spacecraft near Earth that measured the CME arrival at one AU. Solar Orbiter, that was nearly aligned along the Earth radial at 0.45 AU, also measured the CME in plasma density, velocity, and magnetic field. BepiColombo at 0.42 AU was also aligned with the STEREO A spacecraft, and viewed this CME. The instruments used here from BepiColombo include: 1) the European-Space-Agency Mercury-Planetary-Orbiter magnetic field measurements; 2) the Japan Aerospace Exploration Agency Mio spacecraft Solar Particle Monitor that viewed the CME Forbush decrease, and the Mercury Plasma Experiment/Mercury Electron Analyzer instruments that measured particles and solar-wind density from below the spacecraft protective sunshield covering. This article summarizes the analysis using ISEE, Japan real-time data for these forecasts: it provides a synopsis of the results and confirmation of the CME event morphology after its arrival, and discusses how future IPS analyses can augment these results.
来自日本空间与地球环境研究所(ISEE)的遥感行星际闪烁(IPS)数据,能够确定整个内日球层的太阳风参数。我们展示了为这些数据集开发的三维分析技术,该技术可预测地球以及其他内日球层行星和航天器处的等离子体速度、密度和分量磁场。一个发生在2022年3月10日的出色日冕物质抛射(CME)实例,不仅在ISEE的IPS分析中被观测到,而且在地球附近测量到CME到达1天文单位处的航天器也观测到了。太阳轨道飞行器在0.45天文单位处几乎沿地球径向排列,也测量了CME的等离子体密度、速度和磁场。位于0.42天文单位处的贝皮科伦坡号也与日地关系天文台A航天器对齐,并观测到了此次CME。贝皮科伦坡号在此处使用的仪器包括:1)欧洲航天局水星行星轨道器的磁场测量;2)日本宇宙航空研究开发机构水琴号航天器的太阳粒子监测器,它观测到了CME福布什下降,以及水星等离子体实验/水星电子分析仪仪器,它们从航天器保护遮阳板下方测量粒子和太阳风密度。本文总结了利用日本ISEE实时数据进行这些预测的分析:它提供了结果的概要以及CME事件到达后的形态确认,并讨论了未来的IPS分析如何能增强这些结果。