By December 31, 2040, will more than 1% of global food production (measured by caloric or mass equivalent share of the global human food supply) be obtained via 'Food without Agriculture' (FwoA) technologies?

probability: 5%

rationale:

Reaching a 1% share of global human food supply by 2040 requires roughly 10-25 million tons of Food without Agriculture (FwoA) production annually, or about 2.5-4 million tons if assessed against a single macronutrient baseline like protein. Current global single-cell protein production sits at roughly 30,000-40,000 tons per year feedinnovation.org, nearly all of which is directed toward animal feed. Under the definitions in play, feed does not count toward the human food threshold unless explicit lifecycle crop-substitution is quantified, which no current data does. Direct food-grade output is negligible by comparison: Solar Foods produces only 160-230 tons per year 2 sources, and Savor produces about 5 tons of synthetic fat annually savor.it. Hitting the 1% threshold would demand a 1,000-fold scale-up in qualifying direct-to-human production over the next 14 years.

The physical and financial constraints of such a rapid scale-up are severe. Achieving gigaton-scale impact would require building dozens to hundreds of 100,000-ton-class facilities, demanding tens to hundreds of billions of dollars in capital expenditure. Current investment trajectories are vastly insufficient; total fermentation funding fell to $357 million in 2025 gfi.org, and cumulative FwoA capital sits around $650 million. The friction of scaling is already highly visible across the sector. Calysta's flagship 20,000-ton plant has been suspended amid financing and technical difficulties proteinproductiontechnology.com, and several startups, including Arkeon agfundernews.com and NovoNutrients , have recently shut down or faced insolvency. Sustaining the 40-60% annualized growth required through 2040 with zero margin for sector-wide failure is highly improbable under present market realities.

Fundamentally, FwoA products face a brutal economic benchmark: achieving cost parity with bulk agricultural commodities that trade around $1/kg. While synthetic fats offer a plausible path to price parity with palm oil at scale using established thermochemical processes 2 sources, protein pathways are heavily gated by energy prices. E-protein costs are projected to fall to €4.0-4.5/kg in 2030 and only reach roughly €2/kg by 2050 2 sources, with companies like Solar Foods targeting a premium $13-25/kg in the near term investors.solarfoods.com. This dynamic strongly echoes the first FwoA wave of the 1940s-1970s. Historical state-backed programs achieved meaningful scale—producing hundreds of thousands of tons of feed-grade yeast—but ultimately collapsed when they could no longer compete with cheap agricultural commodity prices 3 sources. Despite modern advantages in cheap electrolysis and genetic engineering, the second wave risks repeating this exact pattern by retreating to premium niches and aquafeed rather than displacing bulk human calories.

Despite these formidable barriers, there are non-linear accelerants that prevent this from being impossible. A lenient reading of the benchmarks that assesses FwoA purely by its share of global protein or fat lowers the absolute tonnage required. More importantly, massive non-market interventions could bypass traditional capital constraints. A strategic, state-backed buildout by China utilizing industrial exhaust gases foodtimes.eu, massive Gulf-state subsidization driven by food security priorities, or large-scale defense procurement could underwrite the sector. Alternatively, a severe global catastrophe that crippled conventional agriculture—such as a nuclear winter scenario—could force rapid, cost-insensitive FwoA deployment allfed.info. However, barring unprecedented sovereign subsidization or catastrophic disruptions, the steep technical, financial, and commodity-competition hurdles make a 1% penetration rate by 2040 highly unlikely.