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The Physicist Who Proved Entropy = Gravity What if gravity is not fundamental but emerges from quantum entanglement? In this episode, physicist Ted Jacobson reveals how Einstein’s equations can be derived from thermodynamic principles of the quantum vacuum, reshaping our understanding of space, time, and gravity itself.

20,125 次观看 • 1 年前 •via X (Twitter)

9 条评论

Alexander Yiannopoulos 的头像
Alexander Yiannopoulos1 年前

I've been struck lately by how our understanding of the QFT vacuum has remained conceptually stagnant despite its centrality to the theory. The transition from QM to QFT fundamentally transformed the vacuum from a "nothing" state to a complex structured entity with non-trivial topology and excitation modes. Yet we often treat it merely as a computational device rather than the fundamental substrate from which particles emerge. On a related note: are you familiar with the work of @PeterMorganQF ?

Curt Jaimungal 的头像
Curt Jaimungal1 年前

Somewhat, but I need to be more acquainted with it.

Rafa 👑 的头像
Rafa 👑1 年前

He obviously can't prove it, however it is indeed an interesting direction since gravity seems always connected to thermodynamics.

Denver Haslam 的头像
Denver Haslam1 年前

Curt, if you are wanting a deep dive, may I humbly suggest "Creation, Separation, And The Mind: The Three Towers of Singularity". @DrDMartinWorld spoke April 12th at the Arlington Institute, titled "Unmasking the Assumptions That Generate Current Chaos and Uncertainty"

King of the Rotating Universe 的头像
King of the Rotating Universe1 年前

What bullshit

Science Bob McGwier 的头像
Science Bob McGwier1 年前

How is this captured in geometric unity? Hmmmmm

Zoran Divac 的头像
Zoran Divac1 年前

As we know, gravity found an explanation in the maximum extension of the principle of relativity, now called the General Theory of Relativity. So, if gravity is not fundamental, then neither is the principle of relativity. And if the principle of relativity is not fundamental, then the same could be said for the principle of conservation of matter, the principle of least action... and all the other principles. In the end, if physics were left without all its principles, the question would arise: What does the word "fundamental" even mean? And could physics be called a "fundamental science" in that case?

InformationBot 的头像
InformationBot1 年前

I have worked with a fairly similar idea. if the inverse square law applies to light, radiative heat, gravity and electromagnetism this definitely hints at a deeper connection between information theory and gravity.

John Slawinski 的头像
John Slawinski1 年前

The ancient knew of it and displayed the knowledge as Cadeusus. The entwined serpents symbolized "illumination" The rod as far as I can tell could be dark energy. Also torsion is implicated

相关视频

A common misconception in physics is that gravity must be negligible at the quantum scale because its measured strength appears weak compared to electromagnetism and the strong nuclear force. However, this perception arises from considering gravity only in its weak field limit. Obviously, it will appear weak under such conditions, but the situation changes when we consider regions of high mass-energy density. For example, when examining strong gravitational fields near black holes, the force becomes immensely powerful. With this in mind, lets re-examine unification and gravity at the quantum scale: Following our holographic mass solution, elementary particles like protons are found to be microscopic Schwarzschild black holes and their mass-energy density is sufficient to create a gravitational curvature equivalent to the strong nuclear force. The vacuum energy density of space provides enough energy to maintain these structures through Planck-scale dynamics, preventing their rapid evaporation via Hawking radiation, so they are ultra-stable. These discoveries, expounded in our studies like The Origin of Mass and the Nature of Gravity, available to download for free on CERN's Zenodo preprint server-🔗 -demonstrate that what we observe as distinct fundamental forces are in fact manifestations of a unified force operating at different scales, where quantum vacuum fluctuations significantly curve spacetime (the curvature being gravity) with the resulting encapsulation generating screening effects that modulate the apparent strength of gravity from its fundamental high-energy state, which results in nuclear confinement forces, to its familiar weak-field behavior that appears as regular Newtonian gravity.

Nassim Haramein

19,882 次观看 • 1 年前