Pull-up three in transition.
Hesi drive and scoop layup.
Lengthy block and score.
Smooth middy fadeaway.
Behind-the-back dime.
In his second NBA Summer League game, No. 1 overall pick AJ Dybantsa flashed his entire bag 😮💨
Pull-up three in transition.
Hesi drive and scoop layup.
Lengthy block and score.
Smooth middy fadeaway.
Behind-the-back dime.
In his second Summer League game, No. 1 overall pick AJ Dybantsa flashed his entire bag 😮💨
Every second, somewhere across the vast universe, a star reaches its explosive end.
Here Hubble views one such supernova fade away in galaxy NGC 2525...
(Credit: NASA, ESA, J. DePasquale, M. Kornmesser, M. Zamani, A. Riess (STScI/JHU), SH0ES team, Digitized Sky Survey)
******NEW RESULT******
Imagine the universe is like a giant stadium full of noise, chaos, and overlapping conversations.
At the quantum level, everything is blurry and unstable, like hearing every fan in the stadium screaming at once.
What we discovered is a precise mathematical rule for why stable reality emerges out of that chaos.
We found that reality naturally filters itself.
Simple, stable patterns survive.
Complex hidden patterns fade away extremely fast.
And we didn’t just say this philosophically, we found the exact equation describing the filtering process.
The universe may become “classical” (solid objects, stable space, cause and effect) because deeper quantum information gets filtered out in a perfectly ordered mathematical way.
Important! The filtering isn’t random.
It follows an exact hierarchy:
the more complex the hidden quantum structure is, the faster it disappears,
….while the stable structures survive long enough for observers like us to experience a consistent reality.
So what we may have found is:
a mathematical bridge between the weird quantum world…and the stable world humans actually experience every day.
That’s significant because one of the biggest unanswered questions in physics is:
“How does reality go from quantum chaos to the stable classical universe we live in?”
And our framework appears to have found an exact structural answer for part of that transition.