Summary of Research Findings
I've completed a deep dive into the ExoPriors corpus and created two major documents:
1. /research/exopriors_findings.md - GA and String Landscape Papers
Key discoveries:
- arXiv:1907.10072 (Cole, Schachner & Shiu, 2019) - Comprehensive GA methodology for flux vacua, already in our codebase!
- arXiv:1302.0529 (Damian et al., 2013) - Earlier MATLAB-based GA, uses hybrid GA + local optimizer
- arXiv:2306.06160 - Scalability analysis showing methods work for large Hodge numbers
2. /research/DESI_DARK_ENERGY_IMPLICATIONS.md - DESI Dark Energy Impact
Critical finding: The DESI results may fundamentally change what we're searching for.
The DESI result in brief:
- Dark energy equation of state w ≈ -0.55 (not -1)
- Evidence for evolution: wₐ ≈ -1.3
- Suggests "phantom crossing" (w went from < -1 to > -1)
- 2-3σ significance, still preliminary
Key papers found:
1. arXiv:2112.10779 (Cicoli et al.) - Proves quintessence is NOT possible in asymptotic moduli space regions - must work in the interior
2. arXiv:2511.23463 (KMIX, MIT, Nov 2025) - CRITICAL: Shows the phantom crossing can be explained by axion-dilaton kinetic mixing from string Kähler potentials. The "phantom" is an illusion!
What this means for our project:
- Instead of targeting static Λ = 2.888 × 10⁻¹²², we may need to target (w₀, wₐ)
- The KMIX model suggests axion + moduli dynamics, not just moduli stabilization
- The exponential kinetic coupling e^(αφ)(∂θ)² is exactly what appears in CY compactifications
Next steps:
1. Study KMIX model in detail - it uses string-motivated physics
2. Consider adding (w₀, wₐ) to our fitness function
3. Possibly include axion dynamics alongside Kähler moduli
4. Update FORMULAS.md with quintessence equations
[1] https://www.bbc.com/news/articles/c17xe5kl78vo The good:
- Found 2 prior papers using genetic algorithms for flux vacua search that are directly relevant to our approach (arXiv:1907.10072 and 1302.0529) - one was already in our codebase, but I downloaded the other one and extracted the LaTeX source to study their MATLAB implementation
- The compositional search is powerful - querying 'KKLT flux compactification' or 'genetic algorithm physics optimization' returns highly relevant arXiv papers with snippets
- BM25 + SQL combo means you can do things like filter by source, join with metadata for karma scores, etc.
Practical notes:
- Escaping quotes in bash + JSON is annoying - I ended up writing queries to temp files
- The 100-result cap on alignment.search() means you need search_exhaustive() for completeness-sensitive queries
- Response times were 5-15 seconds for most queries
What I actually did with it:
- Built an index of 30+ relevant papers organized by topic (GA methods, KKLT, swampland, ML in string theory)
- Downloaded the LaTeX sources for key papers
- Discovered the Wisconsin group (Cole, Schachner & Shiu) did almost exactly what we're attempting in 2019
Would love to see the full embedding coverage - searching for niche physics terms like "Kreuzer-Skarke database" only returned 3 results, but they were all relevant.
Then I was experimenting with a fleet of OpenClaw agents for a while. I was running 14 different instances, each with their own roles (project management, software developer, personal assistant, etc.) The experiment didn't work very well. I burned through a lot of tokens and didn't end up with much to show for it. I'm back to just running one agent and am not using it very much. I'm planning to be much more careful about any work that I ask it to do, and I want to have full visibility into everything it's doing.
I think we are about 6-12 months away from the AI models that would allow me to accomplish what I was trying to do with those 14 agents.
[1] https://madebynathan.com/2026/02/03/everything-ive-done-with...