Gravitational-wave astrophysics of binary black holes. Do black holes live alone, or form lasting gravitational partnerships? This question is of immense significance to astronomers. The emerging field of gravitational-wave astronomy is set to provide the answers. This project aims to develop innovative strategies to search for black hole pairs using leading technologies built with Australian expertise.
A mathematical analysis of the influence of small scale inhomogeneities on the evolution of the universe. A fundamental unresolved problem in modern cosmology is to quantify the influence of small-scale inhomogeneities on the evolution of the universe. This project will develop the mathematical techniques required to resolve this question. In addition, these techniques will have important applications to the analysis of astronomical data.
The diversity of core-collapse supernovae. This project aims to develop a comprehensive picture of the explosions of massive stars as core-collapse supernovae using high-end computer simulations. Such explosions come in many varieties and arise from different classes of progenitor stars. This project seeks to thoroughly understand this diversity. It endeavours to provide simulations of supernovae powered by magnetic fields, supernovae that produce black holes, supernovae in binary systems, and t ....The diversity of core-collapse supernovae. This project aims to develop a comprehensive picture of the explosions of massive stars as core-collapse supernovae using high-end computer simulations. Such explosions come in many varieties and arise from different classes of progenitor stars. This project seeks to thoroughly understand this diversity. It endeavours to provide simulations of supernovae powered by magnetic fields, supernovae that produce black holes, supernovae in binary systems, and the most energetic neutrino-driven supernovae. The project also aspires to better link numerical simulations, observations of supernovae and their remnants, and the nucleosynthesis fingerprints that supernovae have left in the chemical history record of galaxies.Read moreRead less
Extreme astrophysics in the age of gravitational waves. This project aims to probe the most catastrophic explosions in the universe. It will use gravitational wave astronomy to detect an exotic effect that causes space to permanently deform following cataclysmic events, determine the origin of binary black holes by measuring statistical properties of many mergers, and use observations of colliding neutron stars to understand the physics of the biggest explosions in the Universe. This project wil ....Extreme astrophysics in the age of gravitational waves. This project aims to probe the most catastrophic explosions in the universe. It will use gravitational wave astronomy to detect an exotic effect that causes space to permanently deform following cataclysmic events, determine the origin of binary black holes by measuring statistical properties of many mergers, and use observations of colliding neutron stars to understand the physics of the biggest explosions in the Universe. This project will lay the framework for the next decade of the new field of gravitational-wave astronomy.Read moreRead less
Gravitational-wave astronomy: detection and beyond. This project aims to detect ripples in the fabric of spacetime known as gravitational waves by using new data analysis techniques while developing technology to enable the next generation of gravitational-wave detectors. Detection of gravitational waves would constitute a revolution in astronomy, allowing us to probe the most dramatic events in the Universe with a new form of radiation. During the next five years, it is probable that gravitatio ....Gravitational-wave astronomy: detection and beyond. This project aims to detect ripples in the fabric of spacetime known as gravitational waves by using new data analysis techniques while developing technology to enable the next generation of gravitational-wave detectors. Detection of gravitational waves would constitute a revolution in astronomy, allowing us to probe the most dramatic events in the Universe with a new form of radiation. During the next five years, it is probable that gravitational waves will be detected. Terrestrial detectors, operating in the audio band, and pulsar timing arrays, operating in the nanohertz band, are both rapidly approaching the required sensitivity. This project is designed to make important contributions to gravitational-wave astronomy at a crucial time.Read moreRead less
Shining gravitational waves on binary astrophysics. This project aims to take advantage of the growing data set of gravitational-wave observations, which ushered in a new field of gravitational-wave astronomy, to answer fundamental questions in astrophysics. This project will combine state-of-the art theoretical modelling with innovative machine learning techniques in order to explore how the Universe makes merging black holes and neutron stars, and what they tell us about the lives and deaths ....Shining gravitational waves on binary astrophysics. This project aims to take advantage of the growing data set of gravitational-wave observations, which ushered in a new field of gravitational-wave astronomy, to answer fundamental questions in astrophysics. This project will combine state-of-the art theoretical modelling with innovative machine learning techniques in order to explore how the Universe makes merging black holes and neutron stars, and what they tell us about the lives and deaths of the most elusive but incredibly important massive stars. This will strengthen Australia's role in the emerging field of gravitational-wave astronomy and provide broad benefits through transferrable machine learning techniques, collaboration building, and big data training.Read moreRead less