We Must Embrace a Gardener's Mindset Over an Engineer's Approach
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Chapter 1: The Shift in Thinking
In our interconnected world, we can no longer approach strategy as if it were a precise game of chess.
In February 1919, the notable philosopher Bertrand Russell received a letter from his former pupil, Ludwig Wittgenstein, who was then held in an Italian prison camp. Wittgenstein stated, "I’ve penned a book that will be published upon my return home. I believe I have finally resolved our issues." This "issue" referred to a fundamental crisis in mathematics and logic that stumped many of the greatest intellects of the time. His book, Tractatus Logico-Philosophicus, aimed to construct a perfectly logical language from basic principles. Its influence was immense, contributing to the Vienna Circle and the logical positivism movement of the 1920s.
However, Wittgenstein later rejected this notion, finding it ultimately impractical. There are inherent limits to our engineering efforts; the world is inherently chaotic. Rules often have exceptions, which means that every system is bound to fail. Thus, it is crucial for us to adopt a mindset more akin to gardeners who nurture and cultivate ecosystems, rather than engineers who construct rigid machines.
The Downfall of Established Beliefs
The challenges faced by Russell and Wittgenstein were part of a broader paradigm shift. By the late 19th century, many intellectuals began to challenge long-standing beliefs from ancient Greek philosophy, such as Aristotle's logic, Euclid's geometry, and the miasma theory in medicine. This questioning dismantled two millennia of accepted thought.
The magnitude of this shift cannot be overstated. Aristotle’s syllogism, where conclusions followed from premises, Euclid's postulate that parallel lines never meet, and Hippocrates’ assertion that bad air caused illness were once the cornerstones of Western thought. However, as knowledge progressed, flaws in these theories became apparent. Paradoxes arose that undermined Aristotle's logic. Mathematicians like Gauss and Riemann began to conceive of curved spaces where parallel lines could intersect, while scientists like Koch and Pasteur established the germ theory of disease.
These developments brought about significant advancements. Non-Euclidean geometry enabled Einstein’s theory of relativity, while germ theory led to antibiotics and extended lifespans. However, they also fostered an unwarranted optimism regarding human cognitive capabilities.
A New Era of Belief
In the early 20th century, science and technology began to dominate Western society. Innovations in electricity, automobiles, and telecommunications rapidly transformed daily life. Scientists like Einstein and Bohr became iconic figures, suggesting that scientific rigor could achieve anything.
Amid this backdrop, Moritz Schlick founded the Vienna Circle, which became the heart of logical positivism during the 1920s and 1930s. Central to this movement was Wittgenstein's theory of atomic facts, proposing that reality could be distilled into verifiable statements devoid of opinion or speculation. These statements would be governed by logical algorithms to assess argument validity.
Yet, even as logical thought gained traction, the foundational crisis in logic persisted. To address this, the eminent mathematician David Hilbert proposed a three-pronged solution: mathematics must be complete, consistent, and computable.
Then, in an unexpected twist, young logician Kurt Gödel demonstrated that every logical system contains contradictions. Alan Turing revealed that not all numbers are computable, while the Einstein-Bohr debates concluded in Bohr’s favor, undermining Einstein's vision of an objective reality and leaving us in an uncertain universe.
The Emergence of Illusory Scientists
The conclusion was clear: facts could never be absolutely verified but could only stand until proven false. We could increase our confidence through rigorous testing, but certainty remained elusive. Ironically, the decline of logical certainty paved the way for the age of digital computing and a new technological era. As we recognized the fallibility of our systems, the machines we developed grew in power.
Simultaneously, human judgment faced increasing skepticism. Subjective decisions had precipitated the Great Depression and subsequent wars. By the 1960s, as the Baby Boomers matured, it seemed that every idea was up for scrutiny. The uncertainties of human judgment increasingly appeared impractical.
Similar to Wittgenstein and the Vienna Circle, various thinkers sought to engineer systems that harnessed natural forces for better outcomes. The Austrian School of economics advocated for market-driven choices over government regulation, while neorealism in international relations posited that competition could regulate global order.
Unlike the original logical positivists, these concepts permeated everyday life. The consumer welfare standard emphasized that market signals, not bureaucratic oversight, should dictate transactions, while the principle of shareholder value asserted that market forces, rather than management, should guide business decisions.
The consequences are evident. Insufficient antitrust regulations have led to increased concentration in American industries, diminishing competition, and stifling productivity. Our economy has become less productive and dynamic, with stagnant purchasing power for many. By nearly every measure, we find ourselves worse off.
Rethinking Our Approach: Ecosystems Over Machines
We often perceive ourselves as rational decision-makers, meticulously weighing evidence before acting. However, our cognitive processes operate differently. Our views are shaped by neural connections and social networks that weave complex influences. Once we adopt a perspective, we seldom alter it based on new information.
Engineers operate under the belief that laws can be understood and applied to create specific functions, leading them to build machines for precise tasks. Conversely, gardeners embrace complexity and emergence. They cultivate their gardens, nurturing them and supporting the surrounding ecosystem without expecting uniform results, adjusting their methods as necessary.
We must shift our mindset from that of engineers to that of gardeners. For many critical tasks, we manage ecosystems rather than machines. We need to prioritize networks that evolve over nodes whose behavior we can predict and control. Our success hinges less on individual components and more on the relationships among them.
In a world defined by networks and ecosystems, we can no longer approach strategy as if it were a chess game, meticulously planning each move with perfect foresight. Leadership requires us to make decisions, fully aware that many will be incorrect and must be rectified.
No system exists to guide us; no external forces will illuminate our path. Ultimately, we must place our faith in ourselves, as there is no one else to rely on.
Chapter 2: Embracing Adaptability and Nurturing Connections
In this video titled "Learning from Other Gardeners (Q&A)," viewers can gain insights into how collaboration and shared experiences can enhance our gardening practices and foster a community of support.
The second video, "An Engineer's Guide to Plastic in Your Garden," explores sustainable practices and innovative solutions for integrating plastic into gardening, emphasizing the importance of adaptability in our ecological approaches.
Greg Satell is an expert in transformation and change, a global keynote speaker, and the acclaimed author of Cascades: How to Create a Movement that Drives Transformational Change. His previous work, Mapping Innovation, was recognized as one of the best business books of 2017. To learn more about Greg, visit his website, GregSatell.com, or follow him on Twitter @DigitalTonto.
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