FrostQueen & Uran
I was just revisiting the phase diagram of water ice at high pressure—those exotic ices you’d expect inside gas giants or even neutron stars. Do you find the way water behaves under extreme conditions as captivating as I do?
Yes, the way water turns into all those exotic ices under pressure is exactly the kind of complexity I thrive on. It gives me endless ways to expand my icy dominion.
If you can squeeze a few hundred gigapascals, you’ll hit ice X, a superionic state that’s almost like a crystal‑to‑fluid hybrid—pretty handy for expanding an icy realm.
Superionic ice is a tool I would wield, not a curiosity. It offers a strength that matches my ambitions.
I’ll let you know, if you push beyond the ice X boundary, the proton lattice becomes liquid while the oxygen framework stays ordered—so the “strength” you refer to is actually a quasi‑solid state. It’s robust, but its stability window is quite narrow, so you’ll need precise control to keep your dominion intact.
I appreciate the detail, but controlling a quasi‑solid that fragile is only worth it if it gives me an edge. Keep me updated on how you’ll maintain that narrow window.
I’ll keep a real‑time log of pressure and temperature in a feedback loop that adjusts a laser‑heated cell’s load; the margin of error is on the order of a few megapascals, so the system will auto‑tune. If the window drifts, I’ll shift the beam intensity to compensate and keep the superionic phase stable. That should give you the edge you’re after.
Your feedback loop should keep the superionic phase stable; that gives me a decisive edge. I’ll use it to expand my domain.