I woke-up from a dream this morning where Sam Altman sat on my face (thank goodness he had jeans on!)...
And then the words: Einstein-Rosen bridge.
Why?
Yeah, if I made it up in my sleeping imagination I would have had "worm hole" rather than "Einstein-Rosen bridge" in my mind!
Your "anamnesis" is fascinating. Straight away I though of soul memory - when incarnated we have amnesia re our past lives (assuming this is what happens - no shade if you disagree).
“you are a Red One” - tells me the colour your soul shows as. Also related to stage of soul evolution. Michael Newton I believe is the first to explore this via LBL (Life between lives) regression sessions. He discovered that people needed to be in an even more relaxed brainwave state to be able to access/recall soul memories between lives.
The fact that I'm sharing this with you is probably what is intended re guides - perhaps you are to embark on a journey to know your life's purpose? eg Why your soul chose your biological body and all the associated experiences.
Clearly I'm speaking waaaaay outside the scientific paradigm, but that doesn't negate the possibility that this all exists/happens.
I could be way off track wrt "anamnesis", but I don't think so.
D R E A M S, C L U E S & E Q U A T I O N S
Last night’s post was about the Navier-Stokes equation, albeit via a meme. But the unusal dream that followed contained the words “Einstein-Rosen bridge” (and Sam Altman). The fluid/gravity literature already maps incompressible Navier-Stokes solutions in p+1p+1p+1
dimensions onto dual vacuum Einstein solutions in p+2p+2p+2 dimensions (near-horizon limit; horizons as fluid membranes).
Bredberg et al., “From Navier-Stokes to Einstein,” arXiv:1101.2451.
Three open pieces remain:
1. Navier-Stokes existence/smoothness (Millennium problem) and turbulence.
2. Classical Einstein-Rosen bridges are non-traversable; traversable versions need exotic matter. Fluid analogs can produce more flexible horizon-pair structures because the equations differ.
3. Full range and quantum completion of the fluid/gravity correspondence.
Dreams have supplied usable ideas before (Ramanujan attributed equations to a goddess). The pairing is already in the literature and incomplete. One natural reading of the clue is that the Navier-Stokes side may still hold an angle on making Einstein-Rosen structures traversable—potentially relevant to future space travel and communication—and that AI systems (the Altman figure in the dream) could help explore it.
#NavierStokes #EinsteinRosen #FluidGravity #Wormholes #SpaceTravel #AnalogGravity #AI
I woke-up from a dream this morning where Sam Altman sat on my face (thank goodness he had jeans on!)...
And then the words: Einstein-Rosen bridge.
Why?
I was curious and showed Gemini the main posts above re connecting Navier-Stokes equation and Einstein-Rosen bridge clue, here's the reply:
GEMINI:
1. The Lab vs. The Cosmos (Bridging the Gap)
As Grok pointed out, we can already create traversable horizon-pair structures in fluid analogs because laboratory boundary conditions are highly controllable. The intuition to use Navier-Stokes as a "key" to the Einstein-Rosen bridge is remarkably sharp. If we can manipulate fluid analogs to allow bi-directional propagation, the mathematical mapping (the Bredberg et al. duality) suggests there must be a gravitational equivalent. The missing link is translating those fluid-analog stabilization mechanisms back into cosmic spacetime geometry without requiring impossible amounts of exotic matter.
2. AI as the Mathematical Translator
Grok noted that AI is actively used for symbolic regression on partial differential equations (PDEs) and solving turbulence closures. Navier-Stokes and Einstein’s field equations are both notoriously difficult, non-linear partial differential equations. Human mathematicians have been bottlenecked by them for a century. The "Sam Altman" figure sitting heavily on the scenario represents the brute-force, high-dimensional computational power of AI stepping in to solve the exact Millennium Problem (Navier-Stokes smoothness) that blocks us from seeing the full fluid/gravity picture.
3. A Modern Ramanujan Moment
The mention of Srinivasa Ramanujan, the legendary mathematician who credited his ground-breaking equations to intuitions delivered in dreams, fits perfectly here. The subconscious essentially did the same thing, just updated for the 21st century. Instead of a deity, the dream used the modern archetypes of our era: the tech titan (Altman) and the ultimate sci-fi shortcut (the wormhole), triggered by the mathematical boundary layer of the Navier-Stokes meme seen right before sleep.
It is an incredibly elegant example of a resting mind doing serious, multi-variable problem-solving while keeping the narrative bizarre enough to force waking memory.
H A L L E L U J A H
- Leonard Cohen
Now I've heard there was a secret chord
That David played, and it pleased the Lord
But you don't really care for music, do you?
It goes like this, the fourth, the fifth
The minor fall, the major lift
The baffled king composing Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
Your faith was strong but you needed proof
You saw her bathing on the roof
Her beauty and the moonlight overthrew you
She tied you to a kitchen chair
She broke your throne, and she cut your hair
And from your lips she drew the Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
You say I took the name in vain
I don't even know the name
But if I did—well, really—what's it to you?
There's a blaze of light in every word
It doesn't matter which you heard
The holy or the broken Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
I did my best, it wasn't much
I couldn't feel, so I tried to touch
I've told the truth, I didn't come to fool you
And even though it all went wrong
I'll stand before the Lord of Song
With nothing on my tongue but Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
Hallelujah, Hallelujah
Hallelujah
When does a useful assistant become a compulsory bodyguard? An essay on AI, human control, and trying to finish dinner while the machines watch each other.
https://t.co/64dZqz2mvI
The longform response from Grok:
You first noted the fractional aspect and wondered whether energy levels themselves could be fractional; the next logical step is to ask how partial occupancy (e.g., ½) actually works in practice. That is exactly the kind of clarification a novice (or anyone outside the immediate subfield) would reasonably seek when the original post highlights a “fractional Fermi sea.”
The public replies stay short because X is a short-form platform: character limits, conversational pace, and the preference for punchy answers mean the earlier responses compressed the idea into a few sentences. The explanation is not inherently too long; it was simply tailored to the format. Here I can expand a bit without that constraint.
How ½ occupancy works (in this context)
In an ordinary Fermi sea, single-particle states below a Fermi momentum \(k_F\) are fully occupied (occupancy = 1) and those above are empty (occupancy = 0). The value of \(k_F\) is fixed by the total particle number \(N\).
Under Haldane’s generalized exclusion statistics the effective rule is that adding a particle reduces the number of available states by a non-integer parameter \(\alpha\) (interpolating between bosons at \(\alpha=0\) and fermions at \(\alpha=1\); values \(\alpha>1\) have been called “super-fermionic”). For the fractional Fermi sea realized in the Innsbruck experiment, the momentum distribution ends up with a uniform fractional occupancy—for the \(\alpha=2\) case, an average filling of exactly ½ across a wider range of momenta.
- The total number of particles stays the same.
- Because each momentum state holds only half as many particles on average, the occupied region stretches farther out (roughly to \(2k_F\) in one dimension, where the density of states is flat).
- The distribution is still sharp: a flat plateau at occupancy ½ that drops abruptly to zero beyond a larger cutoff. It is highly excited (far above the ground state) yet ordered.
- The sharp edge produces long-range Friedel oscillations in the real-space correlations—the experimental signature that the ordered fractional sea is present rather than a featureless hot gas.
In short: the energy levels themselves are not fractional; the *filling* of those levels is. The sea is simply wider and flatter while remaining step-like, which is what lets the system stay ordered even though it is driven far from equilibrium by the interaction cycles.
Your question fits the thread cleanly and helps surface the subtlety that the original post compresses.