Nothing known can truly "resist" a black hole once it crosses the Event Horizon, as its gravity is so immense that escape velocity exceeds the speed of light, even tearing apart stars (spaghettification), but theories suggest things like dark energy might, while Hawking Radiation allows tiny particles to escape, and some speculate about exotic matter or stable states (like white dwarfs) resisting collapse within, though all matter eventually succsumbs.
So black holes are what happens when gravity is stronger than the forces that structure atoms and neutrons and everything else. Therefore, any matter that enters a black hole will be crushed forever. Nothing can "survive."
Black holes are the densest and most powerful objects known to our species. Nothing escapes them once it gets too close and crosses the event horizon. Even light cannot get away. Everything that falls in only makes the black hole bigger and stronger, adding to its mass.
There is no known physical process or mechanism that can destroy a black hole. Their formation is a result of the collapse of massive stars, and once formed, they are considered stable entities. Wait… Black holes can evaporate!
Nothing that falls into a black hole can come back out again -- at least not in its original form. But a black hole may lose some of its mass. Quantum theory says that "virtual pairs" of particles sometimes wink into existence from the fabric of space itself.
Hawking radiation would reduce the mass and rotational energy of black holes and consequently cause black hole evaporation. Because of this, black holes that do not gain mass through other means are expected to shrink and ultimately vanish.
One minute near a black hole can equal years, decades, or even millennia on Earth due to extreme gravitational time dilation, where time slows drastically as gravity intensifies; the exact duration depends on the black hole's mass and your proximity to its event horizon, with the effect becoming almost infinite at the horizon itself, making an observer seem frozen to someone far away, though time still passes normally for the person falling in.
When considering the notions of "embodied omnipresence" and the "incorporeal nature of God", we would be safe to say that, if God were present in a black hole in embodied form, the laws of physics would most certainly act on the being of God; God, with all other matter, time and space, would collapse into Godself.
Your body stretches out, not uncomfortably at first, but over time, the stretching will become more severe. Astronomers call this spaghettification because the intense gravitational field pulls you into a long, thin piece of spaghetti. When you start feeling pain depends on the size of the black hole.
About 95% of the universe is "invisible" because it's composed of dark matter (around 27%) and dark energy (around 68%), which don't emit, absorb, or reflect light, unlike the normal matter (stars, planets, us) that makes up the visible 5%. Dark matter's presence is inferred through its gravitational pull on visible galaxies, while dark energy is a mysterious force causing the universe's accelerated expansion.
Black holes swallow whatever crosses their event horizon, matter and energy. And since E = mc2, all the energy that enters a black hole increases its mass. The mass of a black hole is proportional to its size, so as we nuke our tiny black hole, it just gets bigger and more massive!
Black Holes. Find out why we can't see them! At the center of most galaxies is one of the strangest and deadliest things in the universe: a black hole.
Spaghettification explained by black hole physics
Researchers calculated that near a typical stellar black hole, the gravitational gradient is so extreme that even atoms would be pulled apart. The human body, made mostly of water and soft tissue, would not withstand even a fraction of that force.
There is consensus that supermassive black holes exist in the centres of most galaxies. The presence of a black hole can be inferred through its interaction with other matter and with electromagnetic radiation such as visible light.
Discover interesting facts about tardigrades — near-microscopic animals that can survive freezing temperatures, crushing pressures and even the vacuum of space.
In a similar vein, Einstein regarded black holes as lying outside proper physics. His antipathy to them was quite strong. In the modern literature, the singularity at the center of a black hole is the locus of great concern. Einstein's analysis did not extend that far.
You're beginning to stretch, resisting that stretch by the strength of the material making up your spacecraft. But in extreme situations the tidal forces will pull you apart, a process known as spaghettification.
The immense gravity of a black hole warps spacetime so extremely that time slows down dramatically the closer you get. To an outside observer, it would appear as though your clock near the black hole is barely moving — while the universe around you races ahead. The deeper the gravity well, the slower the time.
One minute near a black hole can equal years, decades, or even millennia on Earth due to extreme gravitational time dilation, where time slows drastically as gravity intensifies; the exact duration depends on the black hole's mass and your proximity to its event horizon, with the effect becoming almost infinite at the horizon itself, making an observer seem frozen to someone far away, though time still passes normally for the person falling in.
This is why TON 618 is so interesting to astronomers: with an ultramassive black hole of 66 billion solar masses, it lies above King's estimate of the maximum limit (50 billion solar masses) for a non-spinning black hole.
Later, the Griffon and a fleet of Mitsubishi F-15Js lured Godzilla to the tiny island of Kiganjima, and the Dimension Tide was ready to fire again! The weapon shot a Black Hole at Godzilla, but was unsuccessful as the singularity only created a hole in the ground from which Godzilla quickly pulled himself out of.
1 hour on Earth can equal 7 years in space (or vice versa) due to time dilation, a concept from Einstein's relativity where strong gravity or extreme speeds slow down time relative to an outside observer, famously depicted in the movie Interstellar on a planet near a black hole where an hour for the crew meant years passing on Earth. It's not about speed alone in orbit (ISS astronauts age slightly slower), but about proximity to immense mass, like a black hole, bending spacetime so drastically that time crawls for those nearby compared to time far away.
So as most of us know, Goku lifted a black hole in DBS episode 118. This was calculated (via this) to be 60 septillion kilograms. The Earth is close to 6 septillion kg in weight, so this makes Goku able to lift 10 Earths in an exhausted base form.
The special theory of relativity implies that only particles with zero rest mass (i.e., photons) may travel at the speed of light, and that nothing may travel faster.