Publications of N. Eugene Engelbrecht

A list of publications authored or co-authored by N. Eugene Engelbrecht, derived from the SAO/NASA Astrophysics Data System (ADS). The number in brackets after each title indicates the number of citations that the paper has received.

Orcid ID: 0000-0003-3659-7956

List of publications ordered by citations
Number of papers: 50 (refereed: 47)
No. of citations: 1020
First author papers: 15 (refereed: 15)

2026

  1. Particle Transport from First Principles in the Early Heliosphere: κ1 Ceti as a Case Study for the Young Sun [0]
    Engelbrecht, N. Eugene, Herbst, Konstantin, Scherer, Klaus, Oughton, Sean & Airapetian, Vladimir S., ApJ, 998, 45

2025

  1. Polytropic index and thermodynamic behaviour of the central plasma sheet near lunar distances [0]
    Desta, Ephrem Tesfaye, Strauss, Roelf Du Toit & Engelbrecht, Nicholas Eugene, essoar.176031285
  2. Detectability of the passage of the heliosphere through an interstellar cloud with cosmogenic nuclides in lunar soil [2]
    Poluianov, S. & Engelbrecht, N. E., A&A, 694, A62
  3. Modeling the astrosphere of LHS 1140: On the differences of 3D magnetohydrodynamic single- and multi-fluid simulations and the consequences for exoplanetary habitability [4]
    Scherer, K., Herbst, K., Engelbrecht, N. E., Ferreira, S. E. S., Kleimann, J. & Light, J., A&A, 694, A106
  4. Revisiting the Winding Angle of the Heliospheric Magnetic Field: Investigating the Influence of Turbulence [0]
    van der Merwe, F. H. & Engelbrecht, N. E., Solar Physics, 300, 80

2024

  1. Heliospheric Diffusion of Stochastic Parker Spirals in Radially Evolving Solar Wind Turbulence [4]
    Bian, N. H., Strauss, R. D., Li, G. & Engelbrecht, N. E., ApJ, 962, 186
  2. Modeling of the Polytropic Index and Temperature Anisotropy in the Solar Wind [3]
    Desta, Ephrem Tesfaye, Strauss, R. D. & Engelbrecht, N. E., ApJ, 966, 142
  3. The Diffusion Tensor of Protons at 1 au: Comparing Simulation, Observation, and Theory [4]
    Els, P. L., Engelbrecht, N. E., Lang, J. T. & Strauss, R. D., ApJ, 975, 134
  4. On Calculating Diffusion Coefficients Numerically in Synthetic Turbulence Using Particle Pushers [3]
    Els, P. L. & Engelbrecht, N. E., ApJ, 969, 51
  5. On the 3D Transport of Low-energy Galactic Cosmic-ray and Jovian Electrons in the Inner Heliosphere in the Presence of a Fisk-type Heliospheric Magnetic Field [1]
    Engelbrecht, N. E., ApJ, 975, 227
  6. On the Comprehensive 3D Modeling of the Radiation Environment of Proxima Centauri b: A New Constraint on Habitability? [9]
    Engelbrecht, N. Eugene, Herbst, Konstantin, Strauss, R. Du Toit, Scherer, Klaus, Light, Juandre & Moloto, K. D., ApJ, 964, 89
  7. Impact of Cosmic Rays on Atmospheric Ion Chemistry and Spectral Transmission Features of TRAPPIST-1e [9]
    Herbst, Konstantin, Bartenschlager, Andreas, Grenfell, John Lee, Iro, Nicolas, Sinnhuber, Miriam, Taysum, Benjamin, Wunderlich, Fabian, Engelbrecht, N. Eugene, Light, Juandre, Moloto, Katlego D., Harre, Jan-Vincent, Rauer, Heike & Schreier, Franz, ApJ, 961, 164
  8. Spectroscopic Imaging of the Sun with MeerKAT: Opening a New Frontier in Solar Physics [6]
    Kansabanik, Devojyoti, Mondal, Surajit, Oberoi, Divya, Chibueze, James O., Engelbrecht, N. E., Strauss, R. D., Kontar, E. P., Botha, G. J. J., Steyn, P. J. & Nel, Amoré E., ApJ, 961, 96
  9. A Detailed Survey of the Parallel Mean Free Path of Solar Energetic Particle Protons and Electrons [11]
    Lang, J. T., Strauss, R. D., Engelbrecht, N. E., van den Berg, J. P., Dresing, N., Ruffolo, D. & Bandyopadhyay, R., ApJ, 971, 105
  10. Jovian Electrons in the Inner Heliosphere: Opportunities for Multi-spacecraft Observations and Modeling [7]
    Strauss, R. D., Dresing, N., Engelbrecht, N. E., Mitchell, J. G., Kühl, P., Jensen, S., Fleth, S., Sánchez-Cano, B., Posner, A., Rankin, J. S., Lee, C. O., van den Berg, J. P., Ferreira, S. E. S. & Heber, B., ApJ, 961, 57
  11. Cosmic-Ray Transport in the Presence of a Fisk-type Heliospheric Magnetic Field: Investigating the Influence of Drift [4]
    Troskie, J. S., Engelbrecht, N. E. & Steyn, P. J., ApJ, 970, 144
  12. An Evaluation of Different Numerical Methods to Calculate the Pitch-angle Diffusion Coefficient from Full-orbit Simulations: Disentangling a Rope of Sand [3]
    van den Berg, J. P., Els, P. L. & Engelbrecht, N. E., ApJ, 977, 174

2023

  1. The Radial Variation of the Solar Wind Turbulence Spectra near the Kinetic Break Scale from Parker Solar Probe Measurements [26]
    Lotz, S., Nel, A. E., Wicks, R. T., Roberts, O. W., Engelbrecht, N. E., Strauss, R. D., Botha, G. J. J., Kontar, E. P., Pitňa, A. & Bale, S. D., ApJ, 942, 93
  2. On the Causality Problem in Focused Particle Transport [2]
    Strauss, R. D., van den Berg, J. P., Engelbrecht, N. E. & Wijsen, N., Journal of Physics Conference Series, Journal of Physics Conference Series, 2544, p. 012008

2022

  1. Spectral Properties of the N Component of the Heliospheric Magnetic Field from IMP and ACE Observations for 1973-2020 [20]
    Burger, R. A., Nel, A. E. & Engelbrecht, N. E., ApJ, 926, 128
  2. Theory of Cosmic Ray Transport in the Heliosphere [77]
    Engelbrecht, N. Eugene, Effenberger, F., Florinski, V., Potgieter, M. S., Ruffolo, D., Chhiber, R., Usmanov, A. V., Rankin, J. S. & Els, P. L., Space Science Reviews, 218, 33
  3. Revisiting the Revisited Palmer Consensus: New Insights from Jovian Electron Transport [13]
    Engelbrecht, N. Eugene, Vogt, Adrian, Herbst, Konstantin, Du Toit Strauss, R. & Burger, R. A., ApJ, 929, 8
  4. Astrospheres of Planet-Hosting Cool Stars and Beyond ⋅ When Modeling Meets Observations [23]
    Herbst, Konstantin, Baalmann, Lennart R., Bykov, Andrei, Engelbrecht, N. Eugene, Ferreira, Stefan E. S., Izmodenov, Vladislav V., Korolkov, Sergey D., Levenfish, Ksenia P., Linsky, Jeffrey L., Meyer, Dominique M.-A., Scherer, Klaus & Strauss, R. Du Toit, Space Science Reviews, 218, 29
  5. On the numerical modelling of astrospheres, including those of luminous blue variable stars, and the modulation of cosmic rays within [7]
    Light, Juandré, Ferreira, S. E. S., Engelbrecht, N. E., Scherer, K. & Herbst, K., MNRAS, 516, 3284
  6. A detailed comparison of techniques used to model drift in numerical cosmic ray modulation models [7]
    Mohlolo, S. T., Engelbrecht, N. Eugene & Ferreira, S. E. S., Advances in Space Research, 69, 2574
  7. A Permutation Entropy Analysis of Voyager Interplanetary Magnetic Field Observations [7]
    Raath, J. L., Olivier, C. P. & Engelbrecht, N. E., Journal of Geophysical Research (Space Physics), 127, e30200

2021

  1. An Ab Initio Approach to Antiproton Modulation in the Inner Heliosphere [45]
    Engelbrecht, N. Eugene & Moloto, K. D., ApJ, 908, 167
  2. Current Sheets, Plasmoids and Flux Ropes in the Heliosphere. Part I. 2-D or not 2-D? General and Observational Aspects [53]
    Khabarova, O., Malandraki, O., Malova, H., Kislov, R., Greco, A., Bruno, R., Pezzi, O., Servidio, S., Li, Gang, Matthaeus, W., Le Roux, J., Engelbrecht, N. E., Pecora, F., Zelenyi, L., Obridko, V. & Kuznetsov, V., Space Science Reviews, 217, 38
  3. Current Sheets, Plasmoids and Flux Ropes in the Heliosphere. Part II: Theoretical Aspects [34]
    Pezzi, O., Pecora, F., Le Roux, J., Engelbrecht, N. E., Greco, A., Servidio, S., Malova, H. V., Khabarova, O. V., Malandraki, O., Bruno, R., Matthaeus, W. H., Li, G., Zelenyi, L. M., Kislov, R. A., Obridko, V. N. & Kuznetsov, V. D., Space Science Reviews, 217, 39
  4. On the Turbulent Reduction of Drifts for Solar Energetic Particles [23]
    van den Berg, J. P., Engelbrecht, N. E., Wijsen, N. & Strauss, R. D., ApJ, 922, 200

2020

  1. Uncertainties implicit to the use of the force-field solutions to the Parker transport equation in analyses of observed cosmic ray antiproton intensities [23]
    Engelbrecht, N. Eugene & Di Felice, Valeria, Physical Review D, 102, 103007
  2. On the Generation of Compressible Mirror-mode Fluctuations in the Inner Heliosheath [18]
    Fichtner, Horst, Kleimann, Jens, Yoon, Peter H., Scherer, Klaus, Oughton, Sean & Engelbrecht, N. Eugene, ApJ, 901, 76
  3. On the Diversity of M-star Astrospheres and the Role of Galactic Cosmic Rays Within [34]
    Herbst, Konstantin, Scherer, Klaus, Ferreira, Stefan E. S., Baalmann, Lennart R., Engelbrecht, N. Eugene, Fichtner, Horst, Kleimann, Jens, Strauss, R. Du Toit, Moeketsi, Daniel M. & Mohamed, Shazrene, ApJ, 897, L27
  4. A Fully Time-dependent Ab Initio Cosmic-Ray Modulation Model Applied to Historical Cosmic-Ray Modulation [46]
    Moloto, K. D. & Engelbrecht, N. Eugene, ApJ, 894, 121
  5. The residence-time of Jovian electrons in the inner heliosphere [17]
    Vogt, A., Engelbrecht, N. E., Strauss, R. D., Heber, B., Kopp, A. & Herbst, K., A&A, 642, A170

2019

  1. Correlation of Long-term Cosmic-Ray Modulation with Solar Activity Parameters [33]
    Caballero-Lopez, R. A., Engelbrecht, N. E. & Richardson, J. D., ApJ, 883, 73
  2. The Implications of Simple Estimates of the 2D Outerscale Based on Measurements of Magnetic Islands for the Modulation of Galactic Cosmic-Ray Electrons [28]
    Engelbrecht, N. E., ApJ, 872, 124
  3. An Improved Treatment of Neutral Sheet Drift in the Inner Heliosphere [14]
    Engelbrecht, N. Eugene, Mohlolo, S. T. & Ferreira, S. E. S., ApJ, 884, L54
  4. On the Pitch-angle-dependent Perpendicular Diffusion Coefficients of Solar Energetic Protons in the Inner Heliosphere [16]
    Engelbrecht, N. Eugene, ApJ, 880, 60
  5. Current Sheets, Magnetic Islands, and Associated Particle Acceleration in the Solar Wind as Observed by Ulysses near the Ecliptic Plane [39]
    Malandraki, Olga, Khabarova, Olga, Bruno, Roberto, Zank, Gary P., Li, Gang, Jackson, Bernard, Bisi, Mario M., Greco, Antonella, Pezzi, Oreste, Matthaeus, William, Chasapis Giannakopoulos, Alexandros, Servidio, Sergio, Malova, Helmi, Kislov, Roman, Effenberger, Frederic, le Roux, Jakobus, Chen, Yu, Hu, Qiang & Engelbrecht, N. Eugene, ApJ, 881, 116
  6. Permutation Entropy Analysis of Magnetic Field Turbulence at 1AU Revisited [16]
    Olivier, C. P., Engelbrecht, N. E. & Strauss, R. D., Journal of Geophysical Research (Space Physics), 124, 4

2018

  1. A Tractable Estimate for the Dissipation Range Onset Wavenumber Throughout the Heliosphere [23]
    Engelbrecht, N. Eugene & Strauss, R. Du Toit, ApJ, 856, 159
  2. A Simplified Ab Initio Cosmic-ray Modulation Model with Simulated Time Dependence and Predictive Capability [49]
    Moloto, K. D., Engelbrecht, N. E. & Burger, R. A., ApJ, 859, 107

2017

  1. Towards a greater understanding of the reduction of drift coefficients in the presence of turbulence [0]
    Engelbrecht, Eugene, Toit Strauss, Du, le Roux, Kobus & Burger, Adri, arXiv:1705.09197
  2. Toward a Greater Understanding of the Reduction of Drift Coefficients in the Presence of Turbulence [67]
    Engelbrecht, N. E., Strauss, R. D., le Roux, J. A. & Burger, R. A., ApJ, 841, 107
  3. On the Effects of Pickup Ion-driven Waves on the Diffusion Tensor of Low-energy Electrons in the Heliosphere [18]
    Engelbrecht, N. Eugene, ApJ, 849, L15
  4. Perpendicular Diffusion of Solar Energetic Particles: Model Results and Implications for Electrons [77]
    Strauss, R. Du Toit, Dresing, Nina & Engelbrecht, N. Eugene, ApJ, 837, 43

2015

  1. Sensitivity of Cosmic-Ray Proton Spectra to the Low-wavenumber Behavior of the 2D Turbulence Power Spectrum [48]
    Engelbrecht, N. E. & Burger, R. A., ApJ, 814, 152

2014

  1. Cosmic-Ray Modulation: an Ab Initio Approach [13]
    Engelbrecht, N. E. & Burger, R. A., Brazilian Journal of Physics, 44, 512

2011

  1. Time-dependent cosmic ray modulation [34]
    Manuel, R., Ferreira, S. E. S., Potgieter, M. S., Strauss, R. D. & Engelbrecht, N. E., Advances in Space Research, 47, 1529

Created on Wed Apr 22 04:31:37 2026.