The Paradox of Agricultural Prosperity: When Fertile Land Hindered Industrialization
August 7, 2022
August 7, 2022
Picture a map of Europe in 1400, dotted with thriving cities. Now fast-forward to 1800 and observe a startling transformation—the economic landscape has inverted. The once-prosperous breadbaskets have stagnated, while former backwaters pulse with industrial might. This isn't coincidence, but perhaps one of history's most surprising economic ironies.
What if the very soil that made regions wealthy for millennia became their economic shackle during the crucial dawn of industrialization?
Our research reveals a counterintuitive truth: regions blessed with fertile land—historically the foundation of wealth and power—often industrialized later and less completely than their agriculturally disadvantaged neighbors. The statistical evidence is striking: areas with high agricultural productivity that showed strong urban growth before 1600 experienced significantly slower development after 1750, precisely when industrialization was taking root.
This "curse of fertility" operates through a compelling economic mechanism. In regions where farming yielded exceptional returns, capital, labor, and entrepreneurial talent remained tethered to agriculture. Why risk uncertain manufacturing ventures when fields reliably produced wealth? Meanwhile, in regions cursed with poor soil, the economic calculus tilted toward industrial experimentation—particularly where rivers provided both transportation and the growing prize of water power.
The pattern appears with remarkable consistency: northern England industrialized while its fertile south remained agricultural; the Netherlands surged forward while similarly sized but more fertile regions lagged; areas of poor agricultural potential across Europe became unexpected centers of manufacturing innovation.
As we explore this "reversal of fortune" within Europe itself—a phenomenon economists like Acemoglu might recognize from colonial development patterns—we'll uncover how geographic "disadvantages" sometimes create unexpected economic advantages, and why necessity truly became the mother of industrial invention.
The primary mechanism behind this paradox was opportunity cost. In regions with highly productive agricultural land, the returns to farming remained substantial. Why risk capital in untested manufacturing ventures when continuing agricultural production offered reliable profits? The most talented entrepreneurs, laborers, and capital naturally flowed toward the highest returns, which for centuries meant agriculture.
Moreover, landowners in these fertile regions typically held significant political power, which they often used to protect their economic interests through policies favoring agriculture over nascent manufacturing. Land-based wealth also reinforced social systems that valued landed status over commercial innovation.
By contrast, regions with marginal agricultural land faced different incentives. When farming provided meager returns, alternative economic activities became relatively more attractive. These areas had less to lose by experimenting with new forms of production and were often more open to social mobility based on commercial success rather than landed inheritance.
Figure 1: The map of England with log population of cities (circle size) in 1600 and 1850, overlaid on the Caloric Suitability Index (post-1500). White areas represent agriculturally rich land, red areas represent poor agricultural land, and black areas are not arable. Note how population centers shift northward to regions with lower agricultural potential during industrialization. Caloric Suitability taken from Galor and Özak (2015).
England provides perhaps the clearest illustration of this agricultural paradox. As Figure 1 shows, English cities in 1600 were predominantly located in the agriculturally rich southern regions. By 1850, urban growth had shifted dramatically toward the north—precisely the areas with less favorable agricultural conditions.
The fertile southeast remained primarily agricultural well into the 19th century, while industrial centers emerged in Lancashire, Yorkshire, and the Midlands—regions where farming yielded lower returns. Manchester, Birmingham, Sheffield, and Leeds all blossomed in areas of relatively poor agricultural suitability.
This wasn't mere coincidence. The opportunity cost of shifting land and labor from agriculture to industry was lower in these northern regions. Additionally, these areas often had abundant water resources that became increasingly valuable with improvements in waterwheel technology during the mid-18th century.
Figure 2: The map of Europe with log population of cities (circle size) in the 14th and 18th centuries, overlaid on the Caloric Suitability Index (post-1500) with borders as of 1650. Yellow areas represent agriculturally rich land, red areas represent poor land, and black areas are not arable. Note the significant shift in population centers from fertile to less fertile regions. Caloric Suitability from Galor and Özak (2015).
Looking at the broader European context (Figure 2), we observe a similar pattern. In the 14th century, the largest European cities tended to be in regions with high agricultural productivity: Northern Italy, Southern France, and the Low Countries. By the 18th century, many major urban centers had emerged in areas with lower agricultural potential, particularly in northern Europe.
Our research examined historical city population data for 278 European cities, testing the relationship between caloric suitability (a measure of agricultural potential) and urban growth over time. The results confirm our hypothesis: agricultural richness positively predicted city population in 1600 but became insignificant or even negative by 1850.
The statistical evidence is compelling. When we regressed log city population on caloric suitability, we found a positive and statistically significant coefficient of 0.299 (p < 0.1) for the year 1600. By 1750, this coefficient had decreased to an insignificant 0.098, and by 1850, it had turned negative at -0.040, though not yet statistically significant with country fixed effects.
When we removed country fixed effects to examine broader European patterns, the negative effect for 1850 strengthened to -0.261 and became statistically significant (p < 0.05). This suggests that at a continental scale, higher agricultural suitability was associated with lower urban development by the mid-19th century.
Even more revealing are our results for city growth rates. The effect of caloric suitability on population growth was significantly negative after 1750. Specifically, for the period 1750-1800. These findings indicate that cities in less agriculturally suitable areas grew substantially faster during the critical early industrialization period.
This agricultural disadvantage became even more pronounced for cities located on navigable rivers. Rivers served two crucial functions that accelerated industrialization: they provided transportation networks essential for trade and, critically, supplied power for early manufacturing through waterwheels.
Our regression results show that by 1750, cities with navigable rivers had populations about 20.2% larger than those without (coefficient 0.202, p < 0.01), and by 1850, this advantage had grown to 25.4% (coefficient 0.254, p < 0.01). This effect was negligible in 1600 (coefficient 0.069, not statistically significant), indicating that river advantages became increasingly important during industrialization.
The remarkable innovation and efficiency improvements in waterwheel technology during the mid-18th century transformed marginal agricultural land with good water resources into prime industrial real estate. While waterways had always been valuable for transportation, their power-generating potential became economically revolutionary with these technological advances. The combination of cheap land (due to poor agricultural returns) and accessible power created ideal conditions for early industrialization—particularly for textile manufacturing, which required substantial power for mechanized processes. As Musson and Robinson (1989) document, even though watermill construction was known since approximately the 3rd century BC, significant innovations in the mid-18th century dramatically increased their efficiency. These improvements made water power economically viable for industrial applications in ways previously impossible.
This pattern helps explain different industrialization trajectories across Europe. In England, initial industrial development concentrated in the northern regions—Lancashire, Yorkshire, and the Midlands—areas with poorer soils but abundant water resources. Meanwhile, the fertile agricultural lands of southern England remained predominantly rural much longer.
France presents a contrasting case. The country possessed exceptionally fertile agricultural land across much of its territory, particularly in the Paris Basin and parts of the south. French agriculture remained highly profitable well into the 19th century, drawing investment and entrepreneurial talent away from manufacturing. While France certainly industrialized, it did so more slowly and less completely than Britain, maintaining its agricultural orientation longer.
Spain, Portugal, and parts of Central Europe faced similar dynamics. Regions that excelled in agricultural production—such as Andalusia in Spain or the Hungarian plains—were often slower to industrialize than areas with more marginal farming potential but good access to water power and transportation.
This historical paradox offers insights for contemporary development economics. Resource abundance—whether fertile soil in the 18th century or oil reserves today—can sometimes create perverse incentives that delay economic diversification and technological advancement. Economists call this the "resource curse," where abundant natural resources actually slow rather than accelerate development.
Just as Britain's relatively poor agricultural land helped push it toward industrial innovation, today's resource-poor countries like Japan, South Korea, and Singapore have often diversified and industrialized more successfully than resource-rich counterparts. The lesson seems clear: necessity remains the mother of invention, and sometimes geographic "disadvantages" can transform into long-term economic advantages.
The agricultural paradox helps us understand that industrialization wasn't simply a story of advantage accumulation—it often required a specific balance of constraints and opportunities. Areas with poor agricultural returns but good water resources and transportation networks occupied a sweet spot for early industrial development. Too much agricultural productivity could actually delay the transition to manufacturing.
This insight challenges simplistic narratives about geographic determinism. Geography matters enormously, but in complex and sometimes counterintuitive ways. Britain's industrialization wasn't just about having coal deposits or colonial markets—it also benefited from the relatively poor agricultural potential of its northern regions, which created incentives to develop alternative economic activities.
Acemoglu, D., Johnson, S., & Robinson, J. A. (2001). The colonial origins of comparative development: An empirical investigation. American Economic Review, 91(5), 1369-1401.
Chandler, T. (1987). Four thousand years of urban growth: An historical census.
Galor, O., & Özak, Ö. (2015). Land productivity and economic development: Caloric suitability vs. agricultural suitability. Agricultural Suitability (July 12, 2015).
Musson, A. E., & Robinson, E. (1989). Science and technology in the industrial revolution, Volume 3. Taylor & Francis.