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Physics

D-Index
87
Citations
27152
World Ranking
2466
National Ranking
210

Overview

Matthew R. Bate is affiliated with the University of Exeter in the United Kingdom and focuses on research within the field of Physics and Astronomy. Their work predominantly explores Astronomy and Astrophysics, with specific attention to topics such as Astrophysics and Star Formation Studies, Stellar, planetary, and galactic studies, and Astro and Planetary Science.

The scientist has contributed to various areas including Space Exploration and Technology, Astrophysical Phenomena and Observations, Planetary Science and Exploration, and studies relating to Gamma-ray bursts and supernovae.

Frequent publication venues for Matthew R. Bate include the Monthly Notices of the Royal Astronomical Society, Zenodo (CERN European Organization for Nuclear Research), arXiv (Cornell University), Astronomy and Astrophysics, and Science.

Some of their recent papers are:

  • A triple-star system with a misaligned and warped circumstellar disk shaped by disk tearing, 2020, Science
  • Dust coagulation during the early stages of star formation: molecular cloud collapse and first hydrostatic core evolution, 2022, Open Research Exeter (University of Exeter)
  • The impact of non-ideal magnetohydrodynamic processes on discs, outflows, counter-rotation, and magnetic walls during the early stages of star formation, 2021, Monthly Notices of the Royal Astronomical Society
  • The formation of massive stellar clusters in converging galactic flows with photoionization, 2021, Monthly Notices of the Royal Astronomical Society
  • Photoionizing feedback in spiral arm molecular clouds, 2020, Monthly Notices of the Royal Astronomical Society

Matthew R. Bate has frequently collaborated with the following coauthors:

  • Daniel Elsender
  • Clare L. Dobbs
  • Thomas J R Bending
  • Daniel J. Price
  • Danny McCulloch

Best Publications

  • Modelling accretion in protobinary systems

    Matthew R. Bate;Ian A. Bonnell;Nigel M. Price

  • The formation of a star cluster: predicting the properties of stars and brown dwarfs

    Matthew R. Bate;Matthew R. Bate;Ian A. Bonnell;Volker Bromm;Volker Bromm

  • On the formation of massive stars

    Ian A. Bonnell;Matthew R. Bate;Hans Zinnecker

  • Competitive accretion in embedded stellar clusters

    I. A. Bonnell;M. R. Bate;C. J. Clarke;J. E. Pringle

  • Resolution requirements for smoothed particle hydrodynamics calculations with self-gravity

    Matthew R. Bate;Andreas Burkert

  • Stellar, brown dwarf and multiple star properties from a radiation hydrodynamical simulation of star cluster formation

    Matthew Russell Bate;Matthew Russell Bate

  • Competitive accretion in embedded stellar cluster

    I. A. Bonnell;M. R. Bate;C. J. Clarke;J. E. Pringle

  • Stellar, brown dwarf and multiple star properties from hydrodynamical simulations of star cluster formation

    Matthew R. Bate

  • The hierarchical formation of a stellar cluster

    Ian A. Bonnell;Matthew R. Bate;Stephen G. Vine

  • Massive star formation: nurture, not nature

    Ian A. Bonnell;Stephen G. Vine;Matthew R. Bate

  • Star formation through gravitational collapse and competitive accretion

    Ian A. Bonnell;Matthew R. Bate

  • The formation mechanism of brown dwarfs

    Matthew R. Bate;Matthew R. Bate;Ian A. Bonnell;Volker Bromm;Volker Bromm

  • The origin of the initial mass function and its dependence on the mean Jeans mass in molecular clouds

    Matthew R. Bate;Ian A. Bonnell

  • Accretion and the stellar mass spectrum in small clusters

    I. A. Bonnell;M. R. Bate;C. J. Clarke;J. E. Pringle

  • ACCRETION DURING BINARY STAR FORMATION. II : GASEOUS ACCRETION AND DISC FORMATION

    Matthew R. Bate;Matthew R. Bate;Ian A. Bonnell

  • The importance of radiative feedback for the stellar initial mass function

    Matthew R. Bate

  • The formation of close binary systems by dynamical interactions and orbital decay

    Matthew R. Bate;Matthew R. Bate;Ian A. Bonnell;Volker Bromm;Volker Bromm

  • Predicting the properties of binary stellar systems: the evolution of accreting protobinary systems

    Matthew R. Bate;Matthew R. Bate

  • On the diversity and statistical properties of protostellar discs

    Matthew R Bate

  • Chaotic star formation and the alignment of stellar rotation with disc and planetary orbital axes

    M. R. Bate;G. Lodato;G. Lodato;J. E. Pringle;J. E. Pringle

Frequent Co-Authors

Ian A. Bonnell
Ian A. Bonnell University of St Andrews
J. E. Pringle
J. E. Pringle University of Cambridge
Volker Bromm
Volker Bromm The University of Texas at Austin
John D. Monnier
John D. Monnier University of Michigan–Ann Arbor
Eric D. Feigelson
Eric D. Feigelson Pennsylvania State University
Philip J. Armitage
Philip J. Armitage Stony Brook University
Adrian Baddeley
Adrian Baddeley Curtin University
Gordon P. Garmire
Gordon P. Garmire Pennsylvania State University
T. ten Brummelaar
T. ten Brummelaar Georgia State University
Kevin Luhman
Kevin Luhman Pennsylvania State University

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