We investigate cloud–cloud collisions and giant molecular cloud evolution in hydrodynamic simulations of isolated galaxies. The simulations include heating and cooling of the interstellar medium (ISM), self-gravity and stellar feedback. Over time-scales <5 Myr most clouds undergo no change, and mergers and splits are found to be typically two-body processes, but evolution over longer time-scales is more complex and involves a greater fraction of intercloud material. We find that mergers or collisions occur every 8–10 Myr (1/15th of an orbit) in a simulation with spiral arms, and once every 28 Myr (1/5th of an orbit) with no imposed spiral arms. Both figures are higher than expected from analytic estimates, as clouds are not uniformly distri...
We investigate giant molecular cloud (GMCs) collisions and their ability to induce gravitational ins...
This article has been accepted for publication in Monthly Notices of the Royal Astronomical Society ...
We determine the physical properties and turbulence driving mode of molecular clouds formed in numer...
We investigate cloud–cloud collisions and giant molecular cloud evolution in hydrodynamic simulation...
We investigate cloud-cloud collisions, and GMC evolution, in hydrodynamic simulations of isolated ga...
This is the final version. Available from Oxford University Press via the DOI in this record Young m...
The different roles played by orbital dynamics and dissipative cloud-cloud collisions in the formati...
We present the results of smoothed particle hydrodynamics simulations in which two clouds, each havi...
Young massive clusters (YMCs) are recently formed astronomical objects with unusually high star form...
In an earlier paper, we used smoothed particle hydrodynamics (SPH) simulations to explore star forma...
This article has been accepted for publication in Monthly Notices of the Royal Astronomical Society....
This is the final version. Available from OUP via the DOI in this recordWith the advent of modern ob...
We investigate the impact of galactic environment on the properties of simulated giant molecular clo...
This is the final version. Available from Oxford University Press via the DOI in this record© 2020 T...
We have studied the evolution of a local region of molecular clouds, moving in the mean gravitationa...
We investigate giant molecular cloud (GMCs) collisions and their ability to induce gravitational ins...
This article has been accepted for publication in Monthly Notices of the Royal Astronomical Society ...
We determine the physical properties and turbulence driving mode of molecular clouds formed in numer...
We investigate cloud–cloud collisions and giant molecular cloud evolution in hydrodynamic simulation...
We investigate cloud-cloud collisions, and GMC evolution, in hydrodynamic simulations of isolated ga...
This is the final version. Available from Oxford University Press via the DOI in this record Young m...
The different roles played by orbital dynamics and dissipative cloud-cloud collisions in the formati...
We present the results of smoothed particle hydrodynamics simulations in which two clouds, each havi...
Young massive clusters (YMCs) are recently formed astronomical objects with unusually high star form...
In an earlier paper, we used smoothed particle hydrodynamics (SPH) simulations to explore star forma...
This article has been accepted for publication in Monthly Notices of the Royal Astronomical Society....
This is the final version. Available from OUP via the DOI in this recordWith the advent of modern ob...
We investigate the impact of galactic environment on the properties of simulated giant molecular clo...
This is the final version. Available from Oxford University Press via the DOI in this record© 2020 T...
We have studied the evolution of a local region of molecular clouds, moving in the mean gravitationa...
We investigate giant molecular cloud (GMCs) collisions and their ability to induce gravitational ins...
This article has been accepted for publication in Monthly Notices of the Royal Astronomical Society ...
We determine the physical properties and turbulence driving mode of molecular clouds formed in numer...