Publications of Andrew Hillier

A list of publications authored or co-authored by Andrew Hillier, 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: 0000-0002-0851-5362

List of publications ordered by citations
Number of papers: 53 (refereed: 51)
No. of citations: 1594
First author papers: 25 (refereed: 24)

2026

  1. Quantifying reconnection and its dynamical role in 2D magnetic Rayleigh─Taylor turbulence [0]
    Kalluri, Manohar Teja, Hillier, Andrew & Snow, Ben, Physics of Plasmas, 33, 012108

2025

  1. Investigating Bidirectional Flows in a Quiescent Prominence Using MAST Ca II 8542 Å Line Scan Observations [1]
    Dubey, Sandeep K., Hillier, Andrew & Mathew, Shibu K., ApJ, 985, 73
  2. Understanding coronal rain dynamics through a point-mass model [4]
    Hillier, Andrew, Oliver, Ramon & Martínez-Gómez, David, A&A, 696, A231
  3. Self-similarity and growth of non-linear magnetic Rayleigh─Taylor instability — Role of the magnetic field strength [5]
    Kalluri, Manohar Teja & Hillier, Andrew, Physica D Nonlinear Phenomena, 483, 134924
  4. TeV Solar Gamma Rays as a Probe for the Solar Internetwork Magnetic Fields [5]
    Ng, Kenny C. Y., Hillier, Andrew & Ando, Shin'ichiro, Physical Review Letters, 135, 125201
  5. Observational signatures of mixing-induced cooling in the Kelvin-Helmholtz instability [3]
    Snow, B., Osborne, C. & Hillier, A. S., MNRAS, 537, 1904
  6. Nonlinear evolution of fluting oscillations in coronal flux tubes [3]
    Soler, Roberto & Hillier, Andrew, A&A, 693, A201
  7. Identification of Nonlinear Damping of Transverse Loop Oscillations by KHI-induced Turbulence [2]
    Zhong, Sihui, Hillier, Andrew & Arregui, Iñigo, ApJ, 991, 208

2024

  1. Unveiling the True Nature of Plasma Dynamics from the Reference Frame of a Superpenumbral Fibril [7]
    Bate, W., Jess, D. B., Grant, S. D. T., Hillier, A., Skirvin, S. J., Van Doorsselaere, T., Jafarzadeh, S., Wiegelmann, T., Duckenfield, T., Beck, C., Moore, T., Stangalini, M., Keys, P. H. & Christian, D. J., ApJ, 970, 66
  2. Nonlinear Wave Damping by Kelvin–Helmholtz Instability-induced Turbulence [5]
    Hillier, Andrew, Arregui, Iñigo & Matsumoto, Takeshi, ApJ, 966, 68
  3. Partially ionized plasma of the solar atmosphere: recent advances and future pathways [3]
    Hillier, Andrew S., Snow, Ben & Luna, Manuel, Philosophical Transactions of the Royal Society of London Series A, 382, 20230230
  4. On the ambipolar diffusion formulation for ion-neutral drifts in the non-negligible drift velocity limit [5]
    Hillier, Andrew S., Philosophical Transactions of the Royal Society of London Series A, 382, 20230229
  5. Kink Instability of Flux Ropes in Partially Ionized Plasmas [2]
    Murtas, Giulia, Hillier, Andrew & Snow, Ben, ApJ, 977, 108
  6. Kelvin-Helmholtz-induced mixing in multi-fluid partially ionized plasmas [4]
    Snow, Ben & Hillier, Andrew S., Philosophical Transactions of the Royal Society of London Series A, 382, 20230227

2023

  1. The role of cooling induced by mixing in the mass and energy cycles of the solar atmosphere [13]
    Hillier, Andrew, Snow, Ben & Arregui, Iñigo, MNRAS, 520, 1738
  2. Partially ionized two-fluid shocks with collisional and radiative ionization and recombination - multilevel hydrogen model [8]
    Snow, B., Druett, M. K. & Hillier, A., MNRAS, 525, 4717

2022

  1. Collisional ionization and recombination effects on coalescence instability in chromospheric partially ionized plasmas [10]
    Murtas, Giulia, Hillier, Andrew & Snow, Ben, Physics of Plasmas, 29, 062302

2021

  1. Dispersion relations for waves in visco-gravitating anisotropic magnetoplasmas [3]
    Desta, Ephrem Tesfaye, Hillier, A. & Eritro, Tigistu Haile, Physics of Plasmas, 28, 042901
  2. Observation of bi-directional jets in a prominence [9]
    Hillier, A. & Polito, V., A&A, 651, A60
  3. Coalescence instability in chromospheric partially ionized plasmas [20]
    Murtas, Giulia, Hillier, Andrew & Snow, Ben, Physics of Plasmas, 28, 032901
  4. Stability of two-fluid partially ionized slow-mode shock fronts [11]
    Snow, B. & Hillier, A., MNRAS, 506, 1334
  5. Shock identification and classification in 2D magnetohydrodynamiccompressible turbulence—Orszag-Tang vortex [1]
    Snow, Benjamin John, Hillier, Andrew, Murtas, Guilia & Botha, Gert J. J., Experimental Results, 2, e35

2020

  1. Self-similar solutions of asymmetric Rayleigh-Taylor mixing [7]
    Hillier, A., Physics of Fluids, 32, 015103
  2. Estimating the Energy Dissipation from Kelvin-Helmholtz Instability Induced Turbulence in Oscillating Coronal Loops [25]
    Hillier, Andrew, Van Doorsselaere, Tom & Karampelas, Konstantinos, ApJ, 897, L13

2019

  1. Ion-neutral decoupling in the nonlinear Kelvin-Helmholtz instability: Case of field-aligned flow [25]
    Hillier, A., Physics of Plasmas, 26, 082902
  2. On Kelvin-Helmholtz and parametric instabilities driven by coronal waves [36]
    Hillier, Andrew, Barker, Adrian, Arregui, Iñigo & Latter, Henrik, MNRAS, 482, 1143
  3. Coronal Cooling as a Result of Mixing by the Nonlinear Kelvin-Helmholtz Instability [30]
    Hillier, Andrew & Arregui, Iñigo, ApJ, 885, 101
  4. Achievements of Hinode in the first eleven years [80]
    Hinode Review Team, Al-Janabi, Khalid, Antolin, Patrick, Baker, Deborah, Bellot Rubio, Luis R., Bradley, Louisa, Brooks, David H., Centeno, Rebecca, Culhane, J. Leonard, Del Zanna, Giulio, Doschek, George A., Fletcher, Lyndsay, Hara, Hirohisa, Harra, Louise K., Hillier, Andrew S., Imada, Shinsuke, Klimchuk, James A., Mariska, John T., Pereira, Tiago M. D., Reeves, Katharine K., Sakao, Taro, Sakurai, Takashi, Shimizu, Toshifumi, Shimojo, Masumi, Shiota, Daikou, Solanki, Sami K., Sterling, Alphonse C., Su, Yingna, Suematsu, Yoshinori, Tarbell, Theodore D., Tiwari, Sanjiv K., Toriumi, Shin, Ugarte-Urra, Ignacio, Warren, Harry P., Watanabe, Tetsuya & Young, Peter R., Publications of the Astronomical Society of Japan, 71, R1
  5. Dynamic Evolution of Current Sheets, Ideal Tearing, Plasmoid Formation and Generalized Fractal Reconnection Scaling Relations [13]
    Singh, K. A. P., Pucci, Fulvia, Tenerani, Anna, Shibata, Kazunari, Hillier, Andrew & Velli, Marco, ApJ, 881, 52

2018

  1. The magnetic Rayleigh-Taylor instability in solar prominences [67]
    Hillier, Andrew, Reviews of Modern Plasma Physics, 2, 1
  2. Observations of the Kelvin-Helmholtz Instability Driven by Dynamic Motions in a Solar Prominence [34]
    Hillier, Andrew & Polito, Vanessa, ApJ, 864, L10
  3. Onset of 2D magnetic reconnection in the solar photosphere, chromosphere, and corona [3]
    Snow, B., Botha, G. J. J., McLaughlin, J. A. & Hillier, A., A&A, 609, A100

2017

  1. Differences between Doppler velocities of ions and neutral atoms in a solar prominence [24]
    Anan, T., Ichimoto, K. & Hillier, A., A&A, 601, A103
  2. Quiescent Prominence Dynamics Observed with the Hinode Solar Optical Telescope. II. Prominence Bubble Boundary Layer Characteristics and the Onset of a Coupled Kelvin-Helmholtz Rayleigh-Taylor Instability [47]
    Berger, Thomas, Hillier, Andrew & Liu, Wei, ApJ, 850, 60
  3. The non-linear growth of the magnetic Rayleigh-Taylor instability [28]
    Carlyle, Jack & Hillier, Andrew, A&A, 605, A101
  4. Investigating prominence turbulence with Hinode SOT Dopplergrams [15]
    Hillier, A., Matsumoto, T. & Ichimoto, K., A&A, 597, A111

2016

  1. The formation and evolution of reconnection-driven, slow-mode shocks in a partially ionised plasma [52]
    Hillier, A., Takasao, S. & Nakamura, N., A&A, 591, A112
  2. On the nature of the magnetic Rayleigh-Taylor instability in astrophysical plasma: the case of uniform magnetic field strength [33]
    Hillier, Andrew S., MNRAS, 462, 2256

2015

  1. Nonlinear instability and intermittent nature of magnetic reconnection in solar chromosphere [16]
    Singh, K. A. P., Hillier, Andrew, Isobe, Hiroaki & Shibata, Kazunari, Publications of the Astronomical Society of Japan, 67, 96

2014

  1. Superflare Occurrence and Energies on G-, K-, and M-type Dwarfs [113]
    Candelaresi, S., Hillier, A., Maehara, H., Brandenburg, A. & Shibata, K., ApJ, 792, 67
  2. Determination of Prominence Plasma β from the Dynamics of Rising Plumes [1]
    Hillier, Andrew, Hillier, Richard & Tripathi, Durgesh, Nature of Prominences and their Role in Space Weather (Editors: Schmieder, Brigitte, Malherbe, Jean-Marie & Wu, S. T.), IAU Symposium, 300, p. 94
  3. The Generation and Damping of Propagating MHD Kink Waves in the Solar Atmosphere [54]
    Morton, R. J., Verth, G., Hillier, A. & Erdélyi, R., ApJ, 784, 29

2013

  1. A Statistical Study of Transverse Oscillations in a Quiescent Prominence [59]
    Hillier, A., Morton, R. J. & Erdélyi, R., ApJ, 779, L16
  2. On the Support of Solar Prominence Material by the Dips of a Coronal Flux Tube [37]
    Hillier, Andrew & van Ballegooijen, Adriaan, ApJ, 766, 126
  3. Can Superflares Occur on Our Sun? [219]
    Shibata, Kazunari, Isobe, Hiroaki, Hillier, Andrew, Choudhuri, Arnab Rai, Maehara, Hiroyuki, Ishii, Takako T., Shibayama, Takuya, Notsu, Shota, Notsu, Yuta, Nagao, Takashi, Honda, Satoshi & Nogami, Daisaku, Publications of the Astronomical Society of Japan, 65, 49

2012

  1. Determination of Prominence Plasma β from the Dynamics of Rising Plumes [26]
    Hillier, Andrew, Hillier, Richard & Tripathi, Durgesh, ApJ, 761, 106
  2. Numerical Simulations of the Magnetic Rayleigh-Taylor Instability in the Kippenhahn-Schlüter Prominence Model. II. Reconnection-triggered Downflows [54]
    Hillier, Andrew, Isobe, Hiroaki, Shibata, Kazunari & Berger, Thomas, ApJ, 756, 110
  3. Numerical Simulations of the Magnetic Rayleigh-Taylor Instability in the Kippenhahn-Schlüter Prominence Model. I. Formation of Upflows [90]
    Hillier, Andrew, Berger, Thomas, Isobe, Hiroaki & Shibata, Kazunari, ApJ, 746, 120

2011

  1. Magneto-thermal convection in solar prominences [145]
    Berger, Thomas, Testa, Paola, Hillier, Andrew, Boerner, Paul, Low, Boon Chye, Shibata, Kazunari, Schrijver, Carolus, Tarbell, Ted & Title, Alan, Nature, 472, 197
  2. Observations of Plasma Blob Ejection from a Quiescent Prominence by Hinode Solar Optical Telescope [15]
    Hillier, Andrew, Isobe, Hiroaki & Watanabe, Hiroko, Publications of the Astronomical Society of Japan, 63, 19
  3. Numerical Simulations of the Magnetic Rayleigh-Taylor Instability in the Kippenhahn-Schlüter Prominence Model [76]
    Hillier, Andrew, Isobe, Hiroaki, Shibata, Kazunari & Berger, Thomas, ApJ, 736, L1

2010

  1. Spicule Dynamics over a Plage Region [26]
    Anan, Tetsu, Kitai, Reizaburo, Kawate, Tomoko, Matsumoto, Takuma, Ichimoto, Kiyoshi, Shibata, Kazunari, Hillier, Andrew, Otsuji, Kenichi, Watanabe, Hiroko, Ueno, Satoru, Nagata, Shin'ichi, Ishii, Takako T., Komori, Hiroyuki, Nishida, Keisuke, Nakamura, Tahei, Isobe, Hiroaki & Hagino, Masaoki, Publications of the Astronomical Society of Japan, 62, 871
  2. Evolution of the Kippenhahn-Schlüter Prominence Model Magnetic Field under Cowling Resistivity [20]
    Hillier, Andrew, Shibata, Kazunari & Isobe, Hiroaki, Publications of the Astronomical Society of Japan, 62, 1231

Created on Wed Apr 8 04:30:40 2026.