The binary system V404-Cygni 8,000 light years from earth is a microquasar that contains a black hole more than nine times the mass of our own sun. The best evidence of the existence of black holes comes from binary systems where visible stars orbit an unknown mass, and a recent find has shown V404-Cygni rapidly rotating and pulling gas from the nearby star and ejecting the spiralling plasma in different directions back out into space rather than straight along the axis.
It has been suggested that this new find could be applied to systems much larger than V404-Cygni and particularly how these black holes can affect time and space, especially when the ejected plasma reaches the speed of light that then channels into much larger regions of space. But, how can the governing gravitational and kinetic energy transfer – as seen similarly with astrophysical jets spewing out from the centre of galaxies -communicate the relativistic effects on physics at a large-scale? Read More