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2026

Journal Article

  • J. J. Boldú, et al., Electron density estimation from measurements of spacecraft potential using Solar Orbiter, åp 709, A86 (2026).

  • J. J. Boldú, et al., Kinetic Structure of an Interplanetary Shock Observed at Two Heliocentric Longitudes, Journal of Geophysical Research (Space Physics) 131, e2026JA035129 (2026).

  • D. L. Clarkson, E. P. Kontar, Signatures of Large-scale Magnetic Field Disturbances and Switchbacks in Interplanetary Type III Radio Bursts, \apj 999, 134 (2026).

  • A. P. Dimmock, et al., Solar Orbiter encounters an unusually high Mach number interplanetary shock, åp 709, A103 (2026).

  • N. J. T. Edberg, et al., Solar Orbiter in Venus' Ionosphere: Observations From the 4th Flyby, Journal of Geophysical Research (Space Physics) 131, e2025JA034813 (2026).

  • C. Han, et al., Do Solar Energetic Electrons cross the Heliospheric Current Sheet? - A Statistical Study, arXiv e-prints , arXiv:2604.19446 (2026).

  • G. Kinoshita, et al., Spatiotemporal Evolution of the 2022 March Interplanetary Coronal Mass Ejection Revealed by Multipoint Observations of Forbush Decreases, \apj 997, 2 (2026).

  • M. Kretzschmar, et al., First in Situ Detection of the Magnetic Component of a Solar Type III Radio Wave, \apjl 1001, L24 (2026).

  • V. Krupar, et al., Unprecedented 19 Day Type IV Radio Burst as a Corotating Electron Reservoir, \apjl 1003, L5 (2026).

  • D. Lario, et al., The Major Solar Energetic Particle Event on 2024 May 20: Multispacecraft Observations of a Long-lasting Energetic Particle Reservoir, \apj 998, 260 (2026).

  • A. Pesini, et al., A citizen-science catalogue of interplanetary Type III solar radio bursts and first statistical results, åp 709, A253 (2026).

  • F. J. Polanco-Rodríguez, C. Krafft, P. Savoini, Evidence of Langmuir/Z-mode Wave Decay into Z-mode Electromagnetic Radiation in the Solar Wind, \apjl 1002, L35 (2026).

  • H. Ran, et al., The Damping and Instability of Ion-acoustic Waves in the Solar Wind: Solar Orbiter Observations, \apj 1003, 124 (2026).

  • S. Raptis, et al., Compressive Structures in the Foreshock of Collisionless Shocks, \apjl 1000, L55 (2026).

  • Š. Štverák, et al., Modelling spacecraft-emitted electrons measured by the SWA-EAS experiment on board the Solar Orbiter mission, åp 709, A132 (2026).

  • A. Vecchio, et al., Electron temperatures in the ionosphere of Venus from Solar Orbiter/Radio and Plasma Waves instrument, åp 709, A232 (2026).

  • X. Wu, et al., Correlation between Electron Temperature and Ion Charge-state Ratios in the Solar Wind at \ensuremath\sim0.5 au, \apj 1000, 13 (2026).

  • R. Zatini, F. Calore, P. D. Serpico, Low-frequency radio telescopes sensitivity to light dark matter, \prd 113, 063029 (2026).

  • L. Zhao, et al., Generation of Ion-scale Plasma Waves near Shocks Observed by Solar Orbiter, \apjl 1000, L30 (2026).

2025

Journal Article

  • V. Annenkov, C. Krafft, A. Volokitin, P. Savoini, Statistical properties of beam-driven upper-hybrid wave turbulence in the solar wind, åp 699, L6 (2025).

  • F. Azzollini, E. P. Kontar, A Multispacecraft Analysis and Modeling of Type III Radio Burst Exciter Deceleration in Inhomogeneous Heliospheric Plasma, \apj 989, 118 (2025).

  • E. Berriot, et al., Radial Evolution of a Density Structure within a Solar Wind Magnetic Sector Boundary, \apj 981, 140 (2025).

  • A. Bruno, et al., The 2024 July 16 solar event: a challenge to the coronal mass ejection origin of long-duration gamma-ray flares, åp 704, A140 (2025).

  • R. Bučík, et al., Origin of the Unusual Composition of <sup>3</sup>He-rich Solar Energetic Particles, \apj 981, 178 (2025).

  • L. A. Cañizares, et al., Electron beam propagation and radio-wave scattering in the inner heliosphere using five spacecraft, åp 696, A124 (2025).

  • D. Chechotkin, O. Dudnik, O. Yakovlev, Prompt identification of solar wind stream interaction regions from Survey Burst Mode observations of the Radio and Plasma Wave experiment on Solar Orbiter, Journal of Space Weather and Space Climate 15, 39 (2025).

  • D. L. Clarkson, et al., Tracing the heliospheric magnetic field via anisotropic radio-wave scattering, Scientific Reports 15, 11335 (2025).

  • P. Dazzi, K. Issautier, P. Henri, B. Verkampt, Quasi-Thermal Noise Spectroscopy in Magnetized Space Plasma: Analysis of Wind/WAVES Measurements in Earth's Magnetosphere, Journal of Geophysical Research (Space Physics) 130, e2025JA033930 (2025).

  • P. Dazzi, K. Issautier, N. Meyer-Vernet, P. Henri, M. M. Martinović, Quasi-Thermal Noise Spectroscopy in Magnetized Space Plasma: Theory and Model, Journal of Geophysical Research (Space Physics) 130, 2024JA033325 (2025).

  • Y. Deng, et al., Probing Solar Polar Regions, Chinese Journal of Space Science 45, 913-942 (2025).

  • Z. Ding, et al., Bidirectional anisotropic solar energetic particle events observed by Solar Orbiter, åp 701, A123 (2025).

  • T. Formánek, et al., Polarization Analysis of Type III Langmuir/Z-mode Waves with Coherent Magnetic Component Observations by Solar Orbiter, \apjl 985, L29 (2025).

  • L. Harra, D. Müller, Solar orbiter: a short review of the mission and early science results, \apss 370, 12 (2025).

  • D. K. Hu, Y. Y. Liu, J. B. Cao, C. M. Liu, Y. T. Song, Interplanetary Magnetic Field Curvature and Its Role in Particle Acceleration: Magnetospheric Multiscale and Solar Orbiter Observations, \apj 983, 180 (2025).

  • C. Ioannou, et al., Polytropic Analysis of Large-scale Compressive Fluctuations in the Solar Wind: Fluid and Kinetic Behavior, \apj 988, 253 (2025).

  • E. P. Kontar, A. G. Emslie, D. L. Clarkson, A. Pitňa, Ion-scale Turbulence and Energy Cascade Rate in the Solar Corona and Inner Heliosphere, \apjl 991, L57 (2025).

  • M. Kretzschmar, et al., The Solar Orbiter merged magnetic field, åp 699, A236 (2025).

  • V. Krupar, et al., First Detection of Low-frequency Striae in Interplanetary Type III Radio Bursts, \apjl 985, L27 (2025).

  • J. - H. Li, Y. V. Khotyaintsev, D. B. Graham, T. Horbury, P. Louarn, Solar Orbiter Observations of a Self-Consistent Ion-Scale Magnetic Hole at 0.9AU, \grl 52, e2025GL118931 (2025).

  • X. - Y. Li, et al., Resonant interactions between suprathermal protons and ion-scale waves near an interplanetary shock, åp 693, A275 (2025).

  • J. Liu, et al., Langmuir-wave Excitation in Solar Wind Magnetic Holes, \apjl 988, L23 (2025).

  • D. Paipa-Leon, N. Vilmer, M. Maksimovic, V. Krupar, A. Vecchio, Connecting energetic electrons at the Sun and in the heliosphere through X-ray and radio diagnostics, åp 694, A111 (2025).

  • L. Rodríguez-García, et al., Solar energetic particles injected inside and outside a magnetic cloud: The widespread solar energetic particle event on 2022 January 20, åp 694, A64 (2025).

  • Š. Štverák, et al., Effects of cold electron emissions on thermal plasma measurements on board Solar Orbiter spacecraft, åp 693, A185 (2025).

  • D. Trotta, et al., An Overview of Solar Orbiter Observations of Interplanetary Shocks in Solar Cycle 25, \apjs 277, 2 (2025).

  • A. Warmuth, et al., CoSEE-Cat: A Comprehensive Solar Energetic Electron event Catalogue obtained from combined in situ and remote-sensing observations from Solar Orbiter: Catalogue description and first statistical results, åp 701, A20 (2025).

  • Y. Yang, et al., Ion-scale Solitary Structures in the Solar Wind Observed by Solar Orbiter and Parker Solar Probe, \apjl 994, L19 (2025).

  • S. L. Yardley, Solar Orbiter and Parker Solar Probe: Multi-viewpoint messengers of the inner heliosphere, arXiv e-prints , arXiv:2502.09450 (2025).

  • L. - L. Zhao, A. Silwal, X. Zhu, H. Li, G. P. Zank, Transonic Turbulence and Density Fluctuations in the Near-Sun Solar Wind, \apjl 979, L4 (2025).

  • X. Zheng, et al., Quasithermal Noise in Magnetized Plasma: Theory and Simulations, \apj 985, 114 (2025).

2024

Journal Article

  • E. Berriot, P. Démoulin, O. Alexandrova, A. Zaslavsky, M. Maksimovic, Identification of a single plasma parcel during a radial alignment of the Parker Solar Probe and Solar Orbiter, åp 686, A114 (2024).

  • J. J. Boldú, et al., Ion-Acoustic Waves Associated With Interplanetary Shocks, \grl 51, e2024GL109956 (2024).

  • N. Chrysaphi, et al., First determination of the angular dependence of rise and decay times of solar radio bursts using multi-spacecraft observations, åp 687, L12 (2024).

  • J. T. Coburn, et al., The Regulation of the Solar Wind Electron Heat Flux by Wave─Particle Interactions, \apj 964, 100 (2024).

  • L. Colomban, et al., Quantifying the diffusion of suprathermal electrons by whistler waves between 0.2 and 1 AU with Solar Orbiter and Parker Solar Probe, åp 684, A143 (2024).

  • J. - B. Dakeyo, et al., Radial evolution of the accuracy of ballistic solar wind backmapping, åp 686, A12 (2024).

  • J. - B. Dakeyo, et al., Testing the flux tube expansion factor - solar wind speed relation with Solar Orbiter data, åp 691, A77 (2024).

  • N. J. T. Edberg, et al., Extent of the Magnetotail of Venus From the Solar Orbiter, Parker Solar Probe and BepiColombo Flybys, Journal of Geophysical Research (Space Physics) 129, e2024JA032603 (2024).

  • C. Gerekos, et al., Observation of solar radio burst events from Mars orbit with the Shallow Radar instrument, åp 683, A56 (2024).

  • S. Ijaz, J. Vaverka, J. Šafránková, Z. Němeček, Study of Dust Impact Signals around Mars Using MAVEN/LPW Observations, \apj 970, 175 (2024).

  • S. Karapakula, et al., Architecture Design and Ground Performance of Netherlands-China Low-Frequency Explorer, Radio Science 59, e2023RS007906 (2024).

  • L. Y. Khoo, et al., Multispacecraft Observations of a Widespread Solar Energetic Particle Event on 2022 February 15-16, \apj 963, 107 (2024).

  • K. - L. Klein, C. Salas Matamoros, A. Hamini, A. Kollhoff, Non-thermal electrons in an eruptive solar event: Magnetic structure, confinement, and escape into the heliosphere, åp 690, A382 (2024).

  • S. Kočiščák, A. Theodorsen, I. Mann, The distribution of the near-solar bound dust grains detected with Parker Solar Probe, åp 692, A68 (2024).

  • S. Kočiščák, et al., Impact ionization double peaks analyzed in high temporal resolution on Solar Orbiter, Annales Geophysicae 42, 191-212 (2024).

  • V. Krupar, et al., Comparative Analysis of Type III Radio Bursts and Solar Flares: Spatial Localization and Correlation with Solar Flare Intensity, \apj 961, 88 (2024).

  • V. Krupar, et al., Enhancing Triangulation of Interplanetary Type III Bursts through Wavevector Correction, \apj 960, 101 (2024).

  • V. Krupar, et al., Radial Variations in Solar Type III Radio Bursts, \apjl 967, L32 (2024).

  • D. Lario, et al., A Rapid Sequence of Solar Energetic Particle Events Associated with a Series of Extreme-ultraviolet Jets: Solar Orbiter, STEREO-A, and Near-Earth Spacecraft Observations, \apj 975, 84 (2024).

  • P. Louarn, et al., Skewness and kurtosis of solar wind proton distribution functions: The normal inverse-Gaussian model and its implications, åp 682, A44 (2024).

  • M. Rojo, et al., Electron moments derived from the Mercury Electron Analyzer during the cruise phase of BepiColombo, åp 683, A99 (2024).

  • J. Rolla, A. Romero-Wolf, T. J. W. Lazio, An Instrument Error Budget for Space-Based Absolute Flux Measurements of the Sky Synchrotron Spectrum Below 20 MHz, Radio Science 59, e2023RS007824 (2024).

  • R. K. Saito, et al., The VISTA Variables in the Vía Láctea extended (VVVX) ESO public survey: Completion of the observations and legacy, åp 689, A148 (2024).

  • M. J. Starkey, et al., Multispacecraft Energetic Particle Enhancements Associated with a Single Corotating Interaction Region, \apj 962, 160 (2024).

  • D. Trotta, et al., Properties of an Interplanetary Shock Observed at 0.07 and 0.7 au by Parker Solar Probe and Solar Orbiter, \apj 962, 147 (2024).

  • T. Varesano, et al., SPICE connection mosaics to link the Sun's surface and the heliosphere, åp 685, A146 (2024).

  • A. Vecchio, M. Maksimovic, N. Chrysaphi, E. P. Kontar, V. Krupar, Temporally Resolved Type III Solar Radio Bursts in the Frequency Range 3─13 MHz, \apjl 974, L18 (2024).

  • A. Vinogradov, et al., Embedded Coherent Structures from Magnetohydrodynamics to Sub-ion Scales in Turbulent Solar Wind at 0.17 au, \apj 971, 88 (2024).

  • L. Yang, et al., Dynamic acceleration of energetic protons by an interplanetary collisionless shock, åp 686, A132 (2024).

2023

Conference Paper

  • L. Lamy, et al., in Planetary, Solar and Heliospheric Radio Emissions IX, C. K. Louis, C. M. Jackman, G. Fischer, A. H. Sulaiman, P. Zucca, Eds. (2023), p. 103105.

  • V. Martinez Pillet, et al., in The Era of Multi-Messenger Solar Physics, IAU Symposium. G. Cauzzi, A. Tritschler, Eds. (2023), vol. 372, p. 3-16.

  • D. M. Weigt, et al., in Planetary, Solar and Heliospheric Radio Emissions IX, C. K. Louis, C. M. Jackman, G. Fischer, A. H. Sulaiman, P. Zucca, Eds. (2023), p. 04052.
Journal Article

  • D. Berghmans, et al., First perihelion of EUI on the Solar Orbiter mission, åp 675, A110 (2023).

  • J. J. Boldú, et al., Langmuir waves associated with magnetic holes in the solar wind, åp 674, A220 (2023).

  • R. Bučík, et al., The first gradual solar energetic particle event with an enhanced <sup>3</sup>He abundance on Solar Orbiter, åp 669, A13 (2023).

  • R. Bučík, et al., Recurrent <sup>3</sup>He-rich solar energetic particle injections observed by Solar Orbiter at \ensuremath\sim0.5 au, åp 673, L5 (2023).

  • X. Chen, et al., Source positions of an interplanetary type III radio burst and anisotropic radio-wave scattering, åp 680, A1 (2023).

  • K. - S. Cho, et al., Opening New Horizons with the L4 Mission: Vision and Plan, Journal of Korean Astronomical Society 56, 263-275 (2023).

  • A. P. Dimmock, et al., Backstreaming ions at a high Mach number interplanetary shock. Solar Orbiter measurements during the nominal mission phase, åp 679, A106 (2023).

  • N. Dresing, et al., The 17 April 2021 widespread solar energetic particle event, åp 674, A105 (2023).

  • S. Ertl, et al., TDCOSMO. X. Automated modeling of nine strongly lensed quasars and comparison between lens-modeling software, åp 672, A2 (2023).

  • I. C. Jebaraj, et al., Relativistic electron beams accelerated by an interplanetary shock, åp 680, L7 (2023).

  • I. C. Jebaraj, et al., Multiple injections of energetic electrons associated with the flare and CME event on 9 October 2021, åp 675, A27 (2023).

  • I. C. Jebaraj, V. Krasnoselskikh, M. Pulupa, J. Magdalenic, S. D. Bale, Fundamental-Harmonic Pairs of Interplanetary Type III Radio Bursts, \apjl 955, L20 (2023).

  • S. Kočiščák, et al., Modeling Solar Orbiter dust detection rates in the inner heliosphere as a Poisson process, åp 670, A140 (2023).

  • E. P. Kontar, et al., An Anisotropic Density Turbulence Model from the Sun to 1 au Derived from Radio Observations, \apj 956, 112 (2023).

  • A. Kvammen, et al., Machine learning detection of dust impact signals observed by the Solar Orbiter, Annales Geophysicae 41, 69-86 (2023).

  • A. Lalti, Y. V. Khotyaintsev, D. B. Graham, Short-Wavelength Electrostatic Wave Measurement Using MMS Spacecraft, Journal of Geophysical Research (Space Physics) 128, e2022JA031150 (2023).

  • C. Y. Lorfing, et al., Solar Electron Beam-Langmuir Wave Interactions and How They Modify Solar Electron Beam Spectra: Solar Orbiter Observations of a Match Made in the Heliosphere, \apj 959, 128 (2023).

  • R. Lu, et al., Study of the Mechanical Properties and Microstructure of Spiral Tubes and Actuators for Controlled Extension Fabricated with Beryllium Bronze Strips, Materials 16, 6719 (2023).

  • R. Marino, L. Sorriso-Valvo, Scaling laws for the energy transfer in space plasma turbulence, \physrep 1006, 1-144 (2023).

  • G. M. Mason, et al., The 18-19 March 2022 series of <sup>3</sup>He-rich events observed by Solar Orbiter at 0.36 au compared with EUV, X-ray, and radio observations, åp 669, L16 (2023).

  • G. M. Mason, et al., Heavy-ion Acceleration in <sup>3</sup>He-rich Solar Energetic Particle Events: New Insights from Solar Orbiter, \apj 957, 112 (2023).

  • C. S. Salem, M. Pulupa, S. D. Bale, D. Verscharen, Precision electron measurements in the solar wind at 1 au from NASA's Wind spacecraft, åp 675, A162 (2023).

  • K. Stergiopoulou, et al., Solar Orbiter Data-Model Comparison in Venus' Induced Magnetotail, Journal of Geophysical Research (Space Physics) 128, e2022JA031023 (2023).

  • R. F. Wimmer-Schweingruber, et al., Unusually long path length for a nearly scatter-free solar particle event observed by Solar Orbiter at 0.43 au, åp 678, A98 (2023).

  • S. L. Yardley, et al., Slow Solar Wind Connection Science during Solar Orbiter's First Close Perihelion Passage, \apjs 267, 11 (2023).

2022

Journal Article

  • R. C. Allen, et al., Interplanetary mesoscale observatory (InterMeso): A mission to untangle dynamic mesoscale structures throughout the heliosphere, Frontiers in Astronomy and Space Sciences 9, 1002273 (2022).

  • J. - B. Dakeyo, M. Maksimovic, P. Démoulin, J. Halekas, M. L. Stevens, Statistical Analysis of the Radial Evolution of the Solar Winds between 0.1 and 1 au and Their Semiempirical Isopoly Fluid Modeling, \apj 940, 130 (2022).

  • A. P. Dimmock, et al., Analysis of multiscale structures at the quasi-perpendicular Venus bow shock. Results from Solar Orbiter's first Venus flyby, åp 660, A64 (2022).

  • A. P. Dimmock, et al., Mirror Mode Storms Observed by Solar Orbiter, Journal of Geophysical Research (Space Physics) 127, e2022JA030754 (2022).

  • T. Dudok de Wit, et al., First Results From the SCM Search-Coil Magnetometer on Parker Solar Probe, Journal of Geophysical Research (Space Physics) 127, e30018 (2022).

  • V. Krasnoselskikh, et al., ICARUS: in-situ studies of the solar corona beyond Parker Solar Probe and Solar Orbiter, Experimental Astronomy 54, 277-315 (2022).

  • M. U. Lee, G. S. Yun, J. - Y. Ji, Dispersion relation and instability for an anisotropic nonuniform flowing plasma, Plasma Physics and Controlled Fusion 64, 125003 (2022).

  • M. M. Martinović, et al., Plasma Parameters From Quasi-Thermal Noise Observed by Parker Solar Probe: A New Model for the Antenna Response, Journal of Geophysical Research (Space Physics) 127, e30182 (2022).

  • E. Palmerio, et al., CMEs and SEPs During November-December 2020: A Challenge for Real-Time Space Weather Forecasting, Space Weather 20, e2021SW002993 (2022).

  • D. Perrone, et al., Evolution of coronal hole solar wind in the inner heliosphere: Combined observations by Solar Orbiter and Parker Solar Probe, åp 668, A189 (2022).

  • N. Sioulas, et al., Magnetic Field Intermittency in the Solar Wind: Parker Solar Probe and SolO Observations Ranging from the Alfvén Region up to 1 AU, \apj 934, 143 (2022).

2021

Journal Article

  • R. C. Allen, et al., Energetic ions in the Venusian system: Insights from the first Solar Orbiter flyby, åp 656, A7 (2021).

  • A. Aran, et al., Evidence for local particle acceleration in the first recurrent galactic cosmic ray depression observed by Solar Orbiter. The ion event on 19 June 2020, åp 656, L10 (2021).

  • L. Berčič, et al., Whistler instability driven by the sunward electron deficit in the solar wind. High-cadence Solar Orbiter observations, åp 656, A31 (2021).

  • R. Bučík, et al., The long period of <sup>3</sup>He-rich solar energetic particles measured by Solar Orbiter 2020 November 17-23, åp 656, L11 (2021).

  • J. O. Burns, et al., Low Radio Frequency Observations from the Moon Enabled by NASA Landed Payload Missions, \psj 2, 44 (2021).

  • F. Carbone, et al., Statistical study of electron density turbulence and ion-cyclotron waves in the inner heliosphere: Solar Orbiter observations, åp 656, A16 (2021).

  • T. Chust, et al., Observations of whistler mode waves by Solar Orbiter's RPW Low Frequency Receiver (LFR): In-flight performance and first results, åp 656, A17 (2021).

  • R. D'Amicis, et al., First Solar Orbiter observation of the Alfvénic slow wind and identification of its solar source, åp 656, A21 (2021).

  • J. L. Freiherr von Forstner, et al., Radial evolution of the April 2020 stealth coronal mass ejection between 0.8 and 1 AU. Comparison of Forbush decreases at Solar Orbiter and near the Earth, åp 656, A1 (2021).

  • C. García Marirrodriga, et al., Solar Orbiter: Mission and spacecraft design, åp 646, A121 (2021).

  • R. Gómez-Herrero, et al., First near-relativistic solar electron events observed by EPD onboard Solar Orbiter, åp 656, L3 (2021).

  • D. B. Graham, et al., Kinetic electrostatic waves and their association with current structures in the solar wind, åp 656, A23 (2021).

  • L. Z. Hadid, et al., Solar Orbiter's first Venus flyby: Observations from the Radio and Plasma Wave instrument, åp 656, A18 (2021).

  • G. Jannet, et al., Measurement of Magnetic Field Fluctuations in the Parker Solar Probe and Solar Orbiter Missions, Journal of Geophysical Research (Space Physics) 126, e28543 (2021).

  • Y. V. Khotyaintsev, et al., Density fluctuations associated with turbulence and waves. First observations by Solar Orbiter, åp 656, A19 (2021).

  • A. Kollhoff, et al., The first widespread solar energetic particle event observed by Solar Orbiter on 2020 November 29, åp 656, A20 (2021).

  • M. Kretzschmar, et al., Whistler waves observed by Solar Orbiter/RPW between 0.5 AU and 1 AU, åp 656, A24 (2021).

  • M. Maksimovic, et al., The Solar Orbiter Radio and Plasma Waves (RPW) instrument (Corrigendum), åp 654, C2 (2021).

  • M. Maksimovic, et al., First observations and performance of the RPW instrument on board the Solar Orbiter mission, åp 656, A41 (2021).

  • L. Matteini, et al., Solar Orbiter's encounter with the tail of comet C/2019 Y4 (ATLAS): Magnetic field draping and cometary pick-up ion waves, åp 656, A39 (2021).

  • S. Musset, et al., Simulations of radio-wave anisotropic scattering to interpret type III radio burst data from Solar Orbiter, Parker Solar Probe, STEREO, and Wind, åp 656, A34 (2021).

  • G. Nicolaou, et al., Deriving the bulk properties of solar wind electrons observed by Solar Orbiter. A preliminary study of electron plasma thermodynamics, åp 656, A10 (2021).

  • C. J. Owen, et al., High-cadence measurements of electron pitch-angle distributions from Solar Orbiter SWA-EAS burst mode operations, åp 656, L9 (2021).

  • D. Píša, et al., First-year ion-acoustic wave observations in the solar wind by the RPW/TDS instrument on board Solar Orbiter, åp 656, A14 (2021).

  • J. Soucek, et al., Solar Orbiter Radio and Plasma Waves - Time Domain Sampler: In-flight performance and first results, åp 656, A26 (2021).

  • K. Steinvall, et al., Solar wind current sheets and deHoffmann-Teller analysis. First results from Solar Orbiter's DC electric field measurements, åp 656, A9 (2021).

  • D. Telloni, et al., Study of two interacting interplanetary coronal mass ejections encountered by Solar Orbiter during its first perihelion passage. Observations and modeling, åp 656, A5 (2021).

  • A. Vecchio, et al., Solar Orbiter/RPW antenna calibration in the radio domain and its application to type III burst observations, åp 656, A33 (2021).

  • D. Verscharen, et al., The angular-momentum flux in the solar wind observed during Solar Orbiter's first orbit, åp 656, A28 (2021).

  • M. Volwerk, et al., Solar Orbiter's first Venus flyby. MAG observations of structures and waves associated with the induced Venusian magnetosphere, åp 656, A11 (2021).

  • A. Zaslavsky, et al., First dust measurements with the Solar Orbiter Radio and Plasma Wave instrument, åp 656, A30 (2021).
Thesis
  • F. Carcaboso Morales, thesis, University of Alcala, Spain (2021).
  • N. Chrysaphi, thesis, University of Glasgow, School of Physics and Astronomy (2021).

2020

Journal Article

  • E. Antonucci, et al., Metis: the Solar Orbiter visible light and ultraviolet coronal imager, åp 642, A10 (2020).

  • T. A. Bowen, et al., A Merged Search-Coil and Fluxgate Magnetometer Data Product for Parker Solar Probe FIELDS, Journal of Geophysical Research (Space Physics) 125, e27813 (2020).

  • T. S. Horbury, et al., The Solar Orbiter magnetometer, åp 642, A9 (2020).

  • R. A. Howard, et al., The Solar Orbiter Heliospheric Imager (SoloHI), åp 642, A13 (2020).

  • M. Maksimovic, et al., The Solar Orbiter Radio and Plasma Waves (RPW) instrument, åp 642, A12 (2020).

  • M. M. Martinović, et al., Solar Wind Electron Parameters Determination on Wind Spacecraft Using Quasi-Thermal Noise Spectroscopy, Journal of Geophysical Research (Space Physics) 125, e28113 (2020).

  • L. M. Milanese, N. F. Loureiro, M. Daschner, S. Boldyrev, Dynamic Phase Alignment in Inertial Alfvén Turbulence, \prl 125, 265101 (2020).

  • D. Müller, et al., The Solar Orbiter mission. Science overview, åp 642, A1 (2020).

  • C. J. Owen, et al., The Solar Orbiter Solar Wind Analyser (SWA) suite, åp 642, A16 (2020).

  • J. Rodríguez-Pacheco, et al., The Energetic Particle Detector. Energetic particle instrument suite for the Solar Orbiter mission, åp 642, A7 (2020).

  • A. P. Rouillard, et al., Models and data analysis tools for the Solar Orbiter mission, åp 642, A2 (2020).

  • S. K. Solanki, et al., The Polarimetric and Helioseismic Imager on Solar Orbiter, åp 642, A11 (2020).

  • SPICE Consortium, et al., The Solar Orbiter SPICE instrument. An extreme UV imaging spectrometer, åp 642, A14 (2020).

  • M. Velli, et al., Understanding the origins of the heliosphere: integrating observations and measurements from Parker Solar Probe, Solar Orbiter, and other space- and ground-based observatories, åp 642, A4 (2020).

  • A. P. Walsh, et al., Coordination of the in situ payload of Solar Orbiter, åp 642, A5 (2020).

  • I. Zouganelis, et al., The Solar Orbiter Science Activity Plan. Translating solar and heliospheric physics questions into action, åp 642, A3 (2020).

2001

Conference Paper
  • M. Maksimovic, et al., in Solar encounter. Proceedings of the First Solar Orbiter Workshop, ESA Special Publication. B. Battrick, et al., Eds. (2001), vol. 493, p. 285-287.