Physicist Roger Penrose proposed in 1969 that energy could be extracted from a rotating black hole inside the ergosphere, leading to further exploration in the field of black hole physics.
Belarusian physicist Yakov Zel’dovich theorized in 1971 about mimicking black hole behavior using a rotating metal cylinder and a mirror setup to create a 'black hole bomb.'
Researchers at the University of Southampton successfully replicated the black hole bombing effect in a lab experiment using a rotating aluminum cylinder and electromagnetic waves.
The experiment demonstrated spontaneous amplification and exponential growth from noise, resembling scenarios near real black holes, confirming Zel’dovich’s prediction.
The Zel’dovich effect works by changing energy through rotational Doppler shifts, causing rotational surfaces to steal energy from incoming radiation.
Scientists believe superradiance, key to the black hole bomb concept, could aid in detecting unknown particles like dark matter and studying gravitational waves.
Experimental results show the aluminum cylinder amplifying electromagnetic waves by being spun quickly enough to induce negative frequency shifts.
This laboratory confirmation of superradiant amplification offers insights into cosmic processes and encourages the search for these phenomena in actual black hole systems.
The experiment revealed the aluminum cylinder's self-sustaining amplification dynamics and its eventual stabilization as predicted in black hole physics.
By simulating black hole behaviors on a smaller scale, researchers aim to further understand cosmic phenomena and potentially observe quantum vacuum fluctuations.