Master the food math of civilizational collapse — and survive it!

If you're here, you've probably already done enough reading to know that the global food system is far more fragile than official reassurances suggest. You understand, at least intuitively, that the interlocking dependencies — ammonia synthesis for fertilizer, diesel for harvesting, container shipping for distribution, GPS for precision agriculture — don't all have to fail permanently to produce a catastrophic outcome. They just have to fail long enough, in enough places, at the same time.

What you may not have found yet is a treatment of this problem that takes the data seriously without devolving into sensationalism on one end or bureaucratic reassurance on the other. That gap is what this seminar exists to fill. I built this course because the serious literature on nuclear food system collapse — the agronomic modeling, the atmospheric physics, the historical case studies — is genuinely rigorous and genuinely actionable, and almost none of it reaches the people who need it most: preppers who are planning at the household level without understanding the systemic drivers, policy researchers who understand the systemic drivers without connecting them to practical resilience, and serious citizens who simply want to think clearly about a catastrophic risk that, unlike most discussed in public life, has documented precedent and quantifiable mechanics.

The curriculum moves in a specific direction by design. We start with the physics and the trade network analysis because you cannot plan rationally for something you haven't accurately modeled. Over 70-percent yield loss in US staple crops is not a rhetorical device — it is a figure with assumptions, confidence intervals, and agronomic inputs that can be examined and challenged. We examine it honestly, including where the science is contested or incomplete. That rigor is what makes the planning that follows credible rather than theatrical.

From there, we work through the specific failure points — fertilizer supply, mechanized fuel, pesticide chemistry, commercial seed networks — and the documented replacements for each. Biological nitrogen fixation is not a romantic alternative; it is a chemistry with known limitations and real performance data. Draft animal power requires infrastructure that takes years to rebuild. These are not scare points — they are planning constraints, and treating them as such is the only way to build a response that survives contact with reality.

The historical case studies are where this course earns its authority. Leningrad's siege gardens, Cuba's organoponicos, the Soviet famine's lessons in what state failure actually looks like at the local level, the caloric engineering of World War II British rationing — these are not analogies. They are documented outcomes produced by real human communities under measurable stress. We analyze them the way a policy analyst reads a case file: looking for the variables that explain divergent outcomes, extracting what is transferable, and applying it forward.

The capstone is a working document. If you complete this course seriously, you leave with a community food resilience plan that reflects actual agronomic constraints, real caloric requirements, and a phased strategy across the timescales where preparation genuinely matters. Whether you use it to brief a local emergency planning committee, inform a policy memo, or make decisions for your own community, it will be grounded in something more durable than anxiety — it will be grounded in evidence. That's the only kind of preparation I'm interested in teaching.