CM
C. Möstl
astro-ph.SRphysics.space-phastro-ph.EPcoronal mass ejectionsphysics.plasm-phastro-ph.IMMarsphysics.geo-phcs.LGensemble modeling
On Valency
published · living versionsW_6z5whtyu·v1 · currentpublished
Calculation of distant retrograde orbits and their use in space weather forecasting
with E. E. Davies, E. Weiler, E. Palmerio, N. Lugaz +3
1 version
W_hn9ebuw3·v1published
Preprints & journals
86 papers in the corpus · 2009–2026A living catalog of stream interaction regions in the Parker Solar Probe era2610.35506v1 · R. C. Allen, G. C. Ho, L. K. Jian et al.2026 · 35 citationsA&A 650, A25 (2021)on Valency
Evidence for CME--CME Interaction in a Magnetic-Cloud-Like Ejecta: Insights from Multipoint Observations and Polytropic Analysis2609.11554v1 · Jyoti Sheoran, Vaibhav Pant, Eva Weiler et al.2026 · 0 citationsarXiv
Evolution of Coronal Mass Ejection Properties through Superposed Epoch Analysis from 0.2 to 2.2 au2606.07566v1 · Yakub Olufadi, Nada Al-Haddad, Florian Regnault et al.2026 · 0 citationsarXiv
Radial Dependency of ICME-associated Particle Acceleration Processes: Statistical Multipoint Observations from 2016-20232605.00163v1 · Malik H. Walker, Robert C. Allen, George C. Ho et al.2026 · 0 citationsarXiv
Probing the magnetic field of a coronal mass ejection with PSR J1022+10012603.18051v3 · El Mehdi Zahraoui, Hannah T. Rudisser, Golam M. Shaifullah et al.2026 · 0 citationsarXiv
Investigating potential benefits of future sub-L1 missions with STEREO-A2602.22982v2 · Eva Weiler, Emma E. Davies, Christian Mostl et al.2026 · 0 citationsarXiv
The impact of electron precipitation on Earth's thermospheric NO production and the drag of LEO satellites2602.18595v1 · M. Scherf, S. Krauss, G. Tsurikov et al.2026 · 4 citationsarXiv
Solar Wind Heating Near the Sun: A Radial Evolution Approach2602.10275v2 · Yogesh, Leon Ofman, Kristopher Klein et al.2026 · 6 citationsarXiv
Towards a Fully Automated Pipeline for Short-Term Forecasting of In Situ Coronal Mass Ejection Magnetic Field Structure2602.06926v2 · Hannah T. Rudisser, Emma E. Davies, Ute V. Amerstorfer et al.2026 · 0 citationsarXiv
Predicting CME Arrivals with Heliospheric Imagers from L5: A Data Assimilation Approach2512.09738v1 · Tanja Amerstorfer, Justin Le Louedec, David Barnes et al.2025 · 0 citationsarXiv
On the magnetic field evolution of interplanetary coronal mass ejections from 0.07 to 5.4 au2512.04730v2 · Christian Mostl, Emma E. Davies, Eva Weiler et al.2025 · 7 citationsarXiv
Real-time prediction of two geomagnetic storms using Solar Orbiter as a far upstream solar wind monitor2508.13892v4 · Emma E. Davies, Eva Weiler, Christian Mostl et al.2025 · 1 citationSpace Weather, 24, e2026SW005013
Intermittency in Interplanetary Coronal Mass Ejections Observed by Parker Solar Probe and Solar Orbiter2505.22283v1 · Julia Ruohotie, Simon Good, Christian Mostl et al.2025 · 5 citationsarXiv
ARCANE -- Early Detection of Interplanetary Coronal Mass Ejections2505.09365v3 · H. T. Rudisser, G. Nguyen, J. Le Louedec et al.2025 · 5 citationsR\"udisser, H. T., Nguyen, G., Le Lou\"edec, J., Davies, E. E., & M\"ostl, C. (2026). ARCANE--Early detection of Interplanetary Coronal Mass Ejections. Space Weather, 24, e2025SW004537
First observations of a geomagnetic superstorm with a sub-L1 monitor2411.12490v3 · Eva Weiler, Christian Mostl, Emma E. Davies et al.2024 · 23 citationsarXiv
Distorted Magnetic Flux Ropes within Interplanetary Coronal Mass Ejections2406.13022v1 · Andreas J. Weiss, Teresa Nieves-Chinchilla, Christian Mostl2024 · 14 citationsarXiv
Flux rope modeling of the 2022 Sep 5 CME observed by Parker Solar Probe and Solar Orbiter from 0.07 to 0.69 au2405.10810v2 · Emma E. Davies, Hannah T. Rudisser, Ute V. Amerstorfer et al.2024 · 0 citationsarXiv
Understanding the effects of spacecraft trajectories through solar coronal mass ejection flux ropes using 3DCOREweb2405.03271v4 · Hannah Theresa Rudisser, Andreas Jeffrey Weiss, Justin Le Louedec et al.2024 · 7 citationsarXiv
The Need for Near-Earth Multi-Spacecraft Heliospheric Measurements and an Explorer Mission to Investigate Interplanetary Structures and Transients in the Near-Earth Heliosphere.39308932 · Lugaz, Noé, Lee, Christina O, Al-Haddad, Nada et al.2024 · 14 citationsSpace science reviews. 2024;220(7):73
The Width of Magnetic Ejecta Measured Near 1 au: Lessons from STEREO-A Measurements in 2021--20222312.03942v1 · No'e Lugaz, Bin Zhuang, Camilla Scolini et al.2023 · 18 citationsarXiv
The effect of magnetic field line topology on ICME-related GCR modulation2310.11310v1 · Emma E. Davies (1, Camilla Scolini, R'eka M. Winslow et al.2023 · 2 citationsarXiv
Turbulence Properties of Interplanetary Coronal Mass Ejections in the Inner Heliosphere: Dependence on Proton Beta and Flux Rope Structure2307.09800v2 · S. W. Good, O. K. Rantala, A.-S. M. Jylha et al.2023 · 25 citationsarXiv
Using Solar Orbiter as an upstream solar wind monitor for real time space weather predictions2307.01083v2 · R. Laker, T. S. Horbury, H. O'Brien et al.2023 · 21 citationsSpace Weather, 22, e2023SW003628 (2024)
L1 and off Sun-Earth line visible-light imaging of Earth-directed CMEs: An analysis of inconsistent observations2304.05264v1 · Richard A. Harrison, Jackie A. Davies, David Barnes et al.2023 · 1 citationarXiv
Which Upstream Solar Wind Conditions Matter Most in Predicting Bz within Coronal Mass Ejections2303.17682v1 · Pete Riley, M. A. Reiss, C. Mostl2023 · 1 citationarXiv
Writhed Analytical Magnetic Flux Rope Model.37032658 · Weiss, A J, Nieves-Chinchilla, T, Möstl, C et al.2024 · 12 citationsJournal of geophysical research. Space physics. 2022;127(12):e2022JA030898
Multi-Spacecraft Observations of the Evolution of Interplanetary Coronal Mass Ejections Between 0.3 and 2.2 AU: Conjunctions with the Juno Spacecraft2205.09472v1 · Emma E. Davies (1, R'eka M. Winslow, Camilla Scolini (1 et al.2022 · 27 citationsarXiv
Automatic Detection of Interplanetary Coronal Mass Ejections in Solar Wind In Situ Data2205.03578v2 · Hannah T. Rudisser, Andreas Windisch, Ute V. Amerstorfer et al.2022 · 10 citationsSpace Weather, 20, e2022SW003149
The siphonic energy transfer between hot solar wind and cold martian ionosphere through open magnetic flux rope.39660350 · Xu, Xiaojun, Lee, Lou-Chuang, Xu, Qi et al.2024 · 6 citationsFundamental research. 2024;4(4):882-889
CMEs and SEPs During November-December 2020: A Challenge for Real-Time Space Weather Forecasting2203.16433v2 · Erika Palmerio, Christina O. Lee, M. Leila Mays et al.2022 · 35 citationsarXiv
A Coronal Mass Ejection and Magnetic Ejecta Observed In Situ by STEREO-A and Wind at 55 Angular Separation2203.16477v1 · No'e Lugaz, Tarik M. Salman, Charles J. Farrugia et al.2022 · 26 citationsarXiv
Unifying the Validation of Ambient Solar Wind Models2201.13447v2 · Martin A. Reiss, Karin Muglach, Richard Mullinix et al.2022 · 23 citationsarXiv
Making Waves: Mirror Mode Structures Around Mars Observed by the MAVEN Spacecraft.35860696 · Simon Wedlund, Cyril, Volwerk, Martin, Mazelle, Christian et al.2025 · 26 citationsJournal of geophysical research. Space physics. 2022;127(1):e2021JA029811
A Fast Bow Shock Location Predictor-Estimator From 2D and 3D Analytical Models: Application to Mars and the MAVEN Mission.35865029 · Simon Wedlund, Cyril, Volwerk, Martin, Beth, Arnaud et al.2025 · 18 citationsJournal of geophysical research. Space physics. 2022;127(1):e2021JA029942
Quantifying the uncertainty in CME kinematics derived from geometric modelling of Heliospheric Imager data2111.13337v1 · Luke Barnard, Mathew Owens, Christopher J. Scott et al.2021 · 12 citationsarXiv
A Catalog of Interplanetary Coronal Mass Ejections Observed by Juno between 1 and 5.4 AU2111.11336v1 · Emma E. Davies, Robert J. Forsyth, R'eka M. Winslow et al.2021 · 28 citationsarXiv
Magnetic Structure and Propagation of Two Interacting CMEs From the Sun to Saturn.35864948 · Palmerio, Erika, Nieves-Chinchilla, Teresa, Kilpua, Emilia K J et al.2024 · 35 citationsJournal of geophysical research. Space physics. 2021;126(11):e2021JA029770
Multipoint interplanetary coronal mass ejections observed with Solar Orbiter, BepiColombo, Parker Solar Probe, Wind and STEREO-A2109.07200v4 · C. Mostl, A. J. Weiss, M. A. Reiss et al.2021 · 50 citationsarXiv
Forecasting GICs and geoelectric fields from solar wind data using LSTMs: application in Austria2109.08624v2 · R. L. Bailey, R. Leonhardt, C. Mostl et al.2021 · 23 citationsarXiv
Predicting CMEs using ELEvoHI with STEREO-HI beacon data2108.08072v2 · Maike Bauer, Tanja Amerstorfer, Jurgen Hinterreiter et al.2021 · 7 citations2021, Space Weather, Volume 19, Issue 12
Drag-based CME modeling with heliospheric images incorporating frontal deformation: ELEvoHI 2.02108.08075v1 · J. Hinterreiter, T. Amerstorfer, M. Temmer et al.2021 · 21 citationsarXiv
Machine learning for predicting the Bz magnetic field component from upstream in situ observations of solar coronal mass ejections2108.04067v2 · Martin A. Reiss, Christian Mostl, Rachel L. Bailey et al.2021 · 27 citationsarXiv
Solar origins of a strong stealth CME detected by Solar Orbiter2103.17225v1 · Jennifer O'Kane, Lucie M. Green, Emma E. Davies et al.2021 · 28 citationsarXiv
Why are ELEvoHI CME arrival predictions different if based on STEREO-A or STEREO-B heliospheric imager observations?2102.07478v1 · Jurgen Hinterreiter, Tanja Amerstorfer, Martin A. Reiss et al.2021 · 17 citationsarXiv
CME Magnetic Structure and IMF Preconditioning Affecting SEP Transport2102.05514v1 · Erika Palmerio, Emilia K. J. Kilpua, Olivier Witasse et al.2021 · 36 citationsarXiv
Evaluation of CME Arrival Prediction Using Ensemble Modeling Based on Heliospheric Imaging Observations.34853569 · Amerstorfer, Tanja, Hinterreiter, Jürgen, Reiss, Martin A et al.2024 · 35 citationsSpace weather : the international journal of research & applications. 2021;19(1):e2020SW002553
In situ multi-spacecraft and remote imaging observations of the first CME detected by Solar Orbiter and BepiColombo2012.07456v3 · E. E. Davies, C. Mostl (2, M. J. Owens et al.2020 · 63 citationsA&A 656, A2 (2021)
Prediction of the in situ coronal mass ejection rate for solar cycle 25: Implications for Parker Solar Probe in situ observations2007.14743v2 · Christian Mostl, Andreas J. Weiss, Rachel L. Bailey et al.2020 · 63 citationsApJ, 903, 92 (2020)
Using gradient boosting regression to improve ambient solar wind model predictions2006.12835v3 · R. L. Bailey, M. A. Reiss, C. N. Arge et al.2020 · 28 citationsarXiv
Prediction of Dst during solar minimum using in situ measurements at L52005.00249v1 · R. L. Bailey, C. Mostl, M.A. Reiss et al.2020 · 19 citationsarXiv
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