We aren’t even a level 1 civilization yet…
Humanity currently ranks below the first rung on the scale measuring advanced civilizations.
In 1964, Soviet astronomer Nikolai Kardashev revolutionized our search for extraterrestrial life by shifting the focus from abstract intelligence to measurable energy.
He argued that energy is the only universal metric that scales across species and time, providing a clear framework for measuring a civilization's advancement. The resulting Kardashev Scale categorizes civilizations into three levels: Type I manages the total energy output of its home planet, Type II harnesses the power of its entire star, and Type III controls the energy of an entire galaxy. This hierarchy suggests that survival in the cosmos is directly tied to the ability to command vast amounts of power, making highly energetic species harder to eliminate or ignore.
Today, humanity remains surprisingly low on this cosmic ladder, currently calculated at approximately 0.73. We have yet to reach Type I status, meaning we still fail to fully capture and utilize the total energy available on Earth. While the scale was initially theoretical, it remains the most useful lens for understanding our technological trajectory and the immense gap between our current capabilities and those of a truly advanced species. We are effectively standing below the bottom rung of a three-part ladder, looking up at the first milestone of planetary mastery as we navigate our transition into a more energy-efficient future.
source: Kardashev, N. S. (1964). Transmission of Information by Extraterrestrial Civilizations. Soviet Astronomy.
The Quantum Mechanical Model of the Atom
The modern model of the atom that describes electrons as existing in orbitals, regions where they are most likely to be found, rather than moving in fixed paths around the nucleus.
Key equations:
• Planck relation: E = hf
• de Broglie relation: λ = h/p
• Heisenberg uncertainty principle: ΔxΔp ≥ ħ/2
Together, these principles describe the energy, wave nature, and fundamental uncertainty of particles at the atomic scale.
🚨 Scientists Want To Power Starships Using Artificial Black Holes!
According to one team of physicists, creating a black hole might actually be the easy part — the real challenge is using it to power a spaceship. 🚀
Our fastest spacecraft today — NASA’s Parker Solar Probe — travels at just 0.059% the speed of light. At that pace, it would take 7,700 years to reach the nearest star, Proxima Centauri.
So scientists are thinking far beyond rockets. Their bold idea?
💥 Create a tiny artificial black hole — called a kugelblitz — by focusing unimaginable amounts of energy into a single point.
This mini black hole would release Hawking radiation, which could be collected and used to push a starship to near light speed.
🕳️ A black hole just a few attometers wide could power a ship for decades or even centuries!
But controlling one — and turning its deadly radiation into usable thrust — is the real challenge.
Some scientists say it might even be impossible… unless we find primordial black holes, ancient remnants from the dawn of the universe. The upcoming Nancy Grace Roman Telescope could help us discover them.
💭 Could humanity’s path to the stars depend on mastering the most dangerous force in the cosmos?
Maybe one day… we’ll ride the power of a black hole to the edge of the galaxy. 🌠
Welcome to Dub Nation, @IREN_Ltd 👏
Golden State and IREN announced today a landmark multi-year global partnership that will include the IREN badge on all Golden State Warriors jerseys beginning with the 2026-27 season.
Gravity near a black hole is far stranger than simple attraction.
This visualization highlights how spacetime curvature shapes the paths of light and matter around a non rotating black hole.
• The event horizon marks the boundary beyond which nothing can return
• Light passing nearby follows curved paths, creating gravitational lensing
• The photon sphere is a region where light can orbit the black hole
• Escape velocity increases dramatically as distance from the center decreases
• The geometry of spacetime determines motion, not an invisible pulling force
One of the most fascinating predictions of Einstein's theory is that massive objects don't just exist in space. They change the structure of space and time itself.