42 43 Restoring climate from the soil up In 2015, a new thread was woven into the fabric of the Biotic Pump Greening Group. Once again, it was Antonio Nobre who acted as the seamster, just as he had in 2004, when he invited Victor Gorshkov and Anastassia Makarieva to study the Amazon. This time, however, what caught his attention was not a theoretical model, but a practical approach to land management: Syntropic Farming – a regenerative agroforestry system developed by Swiss farmer and geneticist Ernst Götsch. This approach seeks not only to recreate the structure of forests, but also their functional complexity. Through ongoing exchanges with Felipe Pasini and me, as experienced practitioners and long-standing collaborators of Ernst Götsch, the group gained field insights and practical frameworks for translating Biotic Pump physics into land-based strategies. In 2019, Felipe and I have officially joined the group, anchoring a deeper alliance between cutting-edge ecological science and restoration practices. This integration was critical because activating the Biotic Pump is not simply a matter of increasing green cover. Reforestation without ecological coherence – especially the widespread use of fast-growing monocultures – has often led to low survival rates, poor ecosystem function and, in some cases, even greater disruption of local water cycles. Syntropic systems, by contrast, are based on ecological principles of stratification (organization of species into functional layers) and natural succession (temporal progression of plant communities over time). This vertical complexity creates multiple microclimates and pressure differentials that enhance air circulation, while temporal dynamics accelerate regeneration toward mature systems capable of properly activating the Biotic Pump. This integrated perspective now informs the group’s projects in diverse and challenging environments, from arid landscapes in Saudi Arabia to climatestressed vineyards in France. By combining climate diagnostics, landscape hydrology, and syntropic design, the group develops land-use strategies that restore ecological functions, whether through large-scale regreening or by adapting productive systems to enhance climate resilience. While the Biotic Pump Theory provides the scientific foundation for preserving intact forests, Syntropic Agriculture complements this imperative with a practical blueprint for restoring degraded lands through farming. By making reforestation productive, it eases the pressure to convert natural forests into farmland and reframes restoration not as a moral imposition or economic sacrifice, but as a regenerative strategy that is both viable and desirable. The intelligence that builds upward Watch a forest emerge from abandoned farmland, and you witness something that defies our industrial logic entirely. Where, over time, our machines inevitably wear down, break apart, and return to rust, living systems grow more intricate, more capable, more fertile with each passing season. This is the profound difference between entropy and syntropy – between systems that disperse energy and those that organize it into ever-greater complexity. Industrial steam engines exemplify entropy in action: fuel burns, heat disperses, metal fatigues, and each cycle brings wear. The Second Law of Thermodynamics governs this realm with iron certainty: energy always flows from organized to disorganized states, from useful to wasteful forms. But step into an old-growth forest, and you encounter a different, fascinating physics. Here, diffuse sunlight becomes living wood. Atmospheric chaos becomes orchestrated rainfall. Simple soil microbiomes become vast networks that communicate across miles of root systems. This is syntropy: a concept, first demonstrated by the Italian mathematician Luigi Fantappiè in 1944 and later explored (as negative entropy) by scientists like Austrian-Irish theoretical physicist Erwin Schrödinger and by Hungarian physiologist Szent-Györgyi to describe how living systems sustain and increase their internal order. The forest operates like a factory where the machinery doesn't just maintain itself – it continuously redesigns itself to become more efficient, more resilient, more interconnected. A mature tropical forest can move more vaporous water across a continent than the Amazon River moves to the sea, yet it does so while simultaneously cooling the planet, generating its own rainfall, and supporting millions of species in elegant collaboration. This isn't magic. It’s the result of self-organizing processes, where individual components dissolve their boundaries and function as interdependent parts of a larger, co-evolved system. Each tree is both itself and part of something more. Each root network is both autonomous and entangled. Forests are living engines, operating with the precision of Swiss clockwork and the accumulated wisdom of millions of years of evolution. Our current crises – climate breakdown, social fragmentation, ecological collapse – are symptoms of trying to solve 21st-century problems with 19th-century thinking. We're still operating like black-soot-spewing steam engines in a world that demands the green brilliance of forest intelligence.
RkJQdWJsaXNoZXIy NDUzNDc=