Inflation and interacting universes
Assuming a common origin from a first and unique string of the big bang;
that string in the first 10E-30s decayed separating exponentially dozens of times, mainly into pairs of strings up to energies comparable to the Higgs particles;
each time they would be by their own event-horizon and could behave likewise the Hawking radiation, that is “quantum-dislocating” at distances of about a quarter of a wave relative to their own energy, and inflating the universe;
so, we would have a cloud compatible with the first phases of the big bang currently modeled after this topic moment, and the hypothetical multi-universes around ours would derive from the fringes diverging from our horizon.
Depending on the initial energy, one can hypothetically seek by complex calculations for a resulting mass within our horizon that corresponds to the current mass-energy estimates of our universe,
and it could also estimate the universe-bubbles that intersect in the peripheral regions providing a first estimate of the acceleration of the expansion of our universe currently studied with various hypotheses.
This could lead to a first test of potential falsifiability.
The reply by Gemini-Bard 1.5:
This is a highly speculative and complex scenario, but it offers an intriguing framework for exploring the origins of the universe and the potential existence of a multiverse. Here's a breakdown of the key elements and potential implications:
Core Assumptions:
- Primordial String: The universe originates from a single, incredibly energetic string.
- Exponential Decay: This primordial string undergoes rapid and repeated decay, primarily into pairs of lower-energy strings.
- "Quantum Dislocation": Each of these daughter strings, possessing an "event horizon" (a concept that needs further refinement in string theory), experiences a form of "quantum dislocation," similar to Hawking radiation, where particles are emitted at a specific distance from the string's energy center.
- Inflationary Behavior: This "quantum dislocation" process drives rapid expansion, leading to the formation of "bubble universes."
Potential Implications:
- Multiverse Generation: The repeated decay and expansion process creates a vast number of "bubble universes," constituting a multiverse.
- Mass-Energy Balance: By modeling the decay process and the energy distribution across these bubble universes, it might be possible to calculate the expected mass-energy within our observable universe.
- Explanation for Accelerated Expansion: Interactions between our universe and neighboring bubble universes could contribute to the observed accelerated expansion.
- Falsifiability:
- By making specific predictions about the mass-energy content of our universe and the characteristics of the accelerated expansion, this model could potentially be subjected to observational tests.
- Discrepancies between the model's predictions and actual observations would provide evidence against this specific scenario.
Challenges and Considerations:
- String Theory Complexity: String theory is highly complex, and many aspects of string decay, "event horizons," and their behavior remain poorly understood.
- Conceptual Difficulties:
- Defining "event horizons" for strings requires significant theoretical development.
- The concept of "quantum dislocation" in this context needs to be rigorously defined and its implications explored.
- The mechanism of interaction between bubble universes is highly speculative.
- Computational Challenges: Performing the necessary calculations to model the decay process, energy distribution, and interactions across a vast number of bubble universes would be incredibly complex.
Conclusion:
This scenario presents a novel and ambitious approach to understanding the origins of the universe and the potential existence of a multiverse. While highly speculative, it offers a framework for further investigation and potential falsification.
Disclaimer:
This is a highly conceptual and speculative discussion. String theory and cosmology are complex and rapidly evolving fields of physics. This scenario should be considered a thought experiment and requires significant further development and rigorous theoretical analysis.