Gravitational wave evidence suggests that star clusters are key sites for black hole mergers, with…
Browsing: OzGrav
OzGrav, short for the ARC Centre of Excellence for Gravitational Wave Discovery, is an Australian research center dedicated to the study of gravitational waves, which are ripples in spacetime caused by some of the universe’s most violent and energetic processes. Established in 2017, OzGrav’s main focus is on advancing our understanding of gravitational waves through international collaborations, leveraging facilities like the Advanced LIGO (Laser Interferometer Gravitational-Wave Observatory). The center engages in a broad range of activities, including developing new technologies to improve gravitational wave detectors, exploring the astrophysical implications of gravitational wave observations, and educating the next generation of scientists in this emerging field. OzGrav aims to harness these cosmic phenomena to unlock new knowledge about black holes, neutron stars, and the fundamental laws of physics.
Astronomers at Swinburne University helped identify a rare tidal disruption event (TDE), involving a jet…
OzGrav Makes Waves With $35M To Understand the Universe The Australian Research Council Centre of…
Scintillation studies of pulsar J1603-7202 revealed its rare companion and mapped plasma causing extreme scattering,…
Hunt for Continuous Gravitational Waves In the last few years, astronomers have achieved an incredible…
Deep Follow-up of GW151226 — an ordinary binary or a low-mass ratio merger? Now that…
Merging supermassive black holes emit gravitational waves that form a cosmic background. Simulations help predict…
New laser breakthrough to help increase understanding of gravitational waves. Scientists have created a proof-of-concept…
Massive stars play a vital role in galaxies, but one-dimensional models produce varying predictions, affecting…
Supermassive black holes generate accretion disks that hide merging celestial bodies. Gravitational waves from these…
A new metasurface-based method enhances laser eigenmode measurement, improving gravitational wave detector precision for studying…
The High Time Resolution Universe Pulsar Survey Double neutron star (DNS) systems in tight orbits…
A team of OzGrav scientists has designed a table-top demo to teach gravitational-wave detection, using…
Researchers improved pulsar timing precision after unexpected behavior in J1909-3744, aiding future gravitational wave detection.…
Scientists are searching for continuous gravitational waves from neutron stars, aiming to unlock secrets of…
The SPIIR team has developed a rapid localization method for gravitational waves, cutting computation time…
Few black hole–star systems emit X-rays because only rare asymmetric stellar winds allow the formation…
A gravitational-wave search for ultralight boson clouds found no signals but set new limits on…