Ooh! tonylang posted something about science. Perhaps we can discuss that for a moment.
A Hilbert space is a mathematical abstraction. It sounds like you're imagining it to be like a physical space. That would be a category error.The hypothesized entanglement molecule, a primordial arrangement of atoms, naturally establishes a shared information state with a form of matter called metamatter hypothesized to exist outside of our space-time within the Hilbert-space called the metverse.
Suspected by whom? Anybody whose opinion is worth paying attention to?Today it is suspected that gravity is as weak as observed in our space-time because it too exists partially or mostly outside of our space-time.
The local curvature of spacetime affects things here immediately, regardless of whether whatever it was that originally caused that curvature is far away. Sure, changes to gravity propagate at the speed of light (probably), but if you're considering a static gravitational field, its "effects" in causing masses to fall down and so on are, in effect, instantaneous. That's what relativity says, anyhow. A quantum theory of gravity would look a little different.However, gravity like all known standard-model forces is governed and constrained by the laws of relativity and their effects are therefore limited at or below the speed of light in this space-time.
In what way(s) do you understand entanglement to subvert the laws of relativity? Can you explain?The only phenomenon known to science which demonstrates behavior which essentially subverts the current laws of relativity is entanglement, a type of quantum coherence.
Huh? The entire human genome has been sequenced, so the whole molecule is known. We still have a lot to work out about what all those genes do, exactly. Is that what you meant?Much of the DNA molecule remains unknown to modern science and is sometimes referred to as DNA dark-matter.
Actually, AI analysis has effectively solved the protein folding problem, as far as I am aware. It was in the news recently. It's a lot faster now than it used to be. Maybe you're a little out of date on this?Our most powerful computing systems programmed with our best models running non-stop for months can barley model the folding of a basic protein.
Sheer size is not really the deciding factor, as you're no doubt aware. A star is, in lots of ways, quite a simple thing. Our Sun, for instance, mostly consists of hydrogen ions buzzing around, along with some helium. The main processes that determine its characteristics are reasonably well understood. They include nuclear fusion, gravitation, the physics of gases and plasmas and so on. Of course, like most things, the more your drill down into the nitty gritty, the more complexities and nuances you tend to find. For instance, over 80 elements have been detected in the Sun, even though 78 of them occur in relatively minute quantities compared to H and He. But the Sun is, at a crude level of description, a big homogeneous ball of gas. One hydrogen ion is very like every other hydrogen ion. In contrast, the sequences of bases in a DNA molecule are many and varied; they encode instructions for building things that perform many different biological functions.On the other hand, we are much more capable of modeling a star like our Sun or even a black hole which we all know are both physically much larger than a DNA molecule or a Ribosome or your cat.
It's good to see that we appear to agree on this point, at least.As I'm sure you can see size doesn't matter in this regard. Likewise complexity can be deceptive to the human eye but is well defined in mathematical terms. The reason we are more able to model a Star is because the processes that implement a star and inanimate entities in general, are far simpler in mathematical and informational complexity than those that define a protein to a bacteria. Modeling a star is only a few orders of magnitude more difficult than simulating the aerodynamics and thermodynamics of the Space shuttle. Simulating even single bacteria is far, far more complex.
That's the same thing that normal, run-of-the-mill quantum theory says, too, more or less.The theory of instantiation by natural entanglement proposes that all that you are experiencing at this moment including the body you’re in, and the reality you see as this universe, is a real-time rendering of a set of quantum wave functions of state (Hamiltonians) or qsf’s.