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- TL;DR Summary
- Entropic Tension Cosmology (ETC) posits that entropy gradients in spacetime create emergent forces—termed "entropic tensions"—which guide the formation and stabilization of fundamental particles, eventually creating hadrons like protons and neutrons.
ETC suggests these entropy-driven forces are fundamental in shaping matter at quantum scales, paralleling established concepts such as entropic gravity. ETC does not propose new fundamental physics; rather, it emphasizes entropy gradients as key organizing influences that naturally complement standard frameworks like Quantum Chromodynamics (QCD) and classical thermodynamics.
Entropic Tension Cosmology (ETC) aligns with well-established ideas from statistical mechanics and thermodynamics, where entropy gradients naturally produce emergent forces that guide the formation and stabilization of fundamental particles, specifically hadrons such as protons and neutrons. This principle resonates with the concept of entropic forces discussed by Verlinde (2011), where gravity itself has been explored as an emergent phenomenon resulting from entropy gradients.
At the quantum scale, entropy-driven processes influence the organization of quarks into stable hadronic states, echoing standard quantum chromodynamics (QCD) and the well-documented confinement of quarks and gluons (Gross & Wilczek, 1973; Politzer, 1973). The idea that entropy gradients guide the stabilization of matter complements existing frameworks without contradicting established particle physics models.
Furthermore, the principle underlying ETC parallels phenomena observed at cosmological scales. The entropy-based interpretation is consistent with established models describing cosmological horizons (Bekenstein, 1973; Hawking, 1974), cosmic acceleration (Riess et al., 1998; Perlmutter et al., 1999), and large-scale structure formation governed by gravitational collapse and entropy production through virialization processes (Peebles, 1980).
While ETC itself formally concludes at the hadronic epoch, it naturally complements the thermodynamic explanations prevalent in modern cosmology, such as the holographic principle (t'Hooft, 1993; Susskind, 1995) and the observed arrow of time dictated by entropy growth (Penrose, 1989). This compatibility underscores the universal role of entropy as a fundamental organizing force in physics, bridging microscopic particle dynamics and macroscopic cosmic evolution.
If anyone is interested in more info on Entropic Tension Cosmology (ETC) let me know
Entropic Tension Cosmology (ETC) aligns with well-established ideas from statistical mechanics and thermodynamics, where entropy gradients naturally produce emergent forces that guide the formation and stabilization of fundamental particles, specifically hadrons such as protons and neutrons. This principle resonates with the concept of entropic forces discussed by Verlinde (2011), where gravity itself has been explored as an emergent phenomenon resulting from entropy gradients.
At the quantum scale, entropy-driven processes influence the organization of quarks into stable hadronic states, echoing standard quantum chromodynamics (QCD) and the well-documented confinement of quarks and gluons (Gross & Wilczek, 1973; Politzer, 1973). The idea that entropy gradients guide the stabilization of matter complements existing frameworks without contradicting established particle physics models.
Furthermore, the principle underlying ETC parallels phenomena observed at cosmological scales. The entropy-based interpretation is consistent with established models describing cosmological horizons (Bekenstein, 1973; Hawking, 1974), cosmic acceleration (Riess et al., 1998; Perlmutter et al., 1999), and large-scale structure formation governed by gravitational collapse and entropy production through virialization processes (Peebles, 1980).
While ETC itself formally concludes at the hadronic epoch, it naturally complements the thermodynamic explanations prevalent in modern cosmology, such as the holographic principle (t'Hooft, 1993; Susskind, 1995) and the observed arrow of time dictated by entropy growth (Penrose, 1989). This compatibility underscores the universal role of entropy as a fundamental organizing force in physics, bridging microscopic particle dynamics and macroscopic cosmic evolution.
If anyone is interested in more info on Entropic Tension Cosmology (ETC) let me know