9 May 2024
Eben van Tonder
Introduction
I am amazed when I find places where the right people have been appointed and the right principles of production are in use but the company is still ineffective. From an infrastructure and equipment perspective, everything seems to be in place for a successful organisation, but the output speaks to undesirable outcomes such as ineffectiveness and low productivity. These questions came to me as I was trying to identify a drainage issue in Lagos. At night I am reading up on the history of the development of our understanding of proteins and their constituent parts. I wondered what lessons there are from nature to help us build effective organisations. What ingredients will drive us from inefficiency to efficiency, from mediocre to good and from good to great? If skilled people and good industrial design alone are no guarantees for success, what are the magic ingredients?
The evolution of industrial practices has often mirrored natural processes in striking ways. The early 20th-century innovations by Philip Armour in meatpacking and Henry Ford in automobile manufacturing showcased principles that, interestingly, align with the molecular processes described decades later by Francis Crick in his sequence hypothesis. This week I have been looking at how the study of proteins in the 1800s and 1900s became the forerunners of understanding the code of life – the DNA. Crick’s hypothesis outlines how DNA sequences determine proteins’ structure and functionality. This parallels how sequences in manufacturing processes dictate the final product’s form and function. His system is in its most basic form nothing but a linear sequence (nucleotide or base pairs in DNA or RNA) encoding another linear sequence (amino acids to form a protein) which determines the structure and function of the product (in the example being protein). The hypothesis, in particular, emphasizes that the specific ordering of the nucleotides directly dictates the order in which amino acids are assembled in protein synthesis. This concept forms the basis of the genetic code and underpins how genetic information is translated into functional molecules within living cells.
The Dawn of Efficient Production: Armour and Ford
Two great examples of industrial practices that mirror biological process as described are companies created by Henry Ford and Philip Armour. I chose these two because they used the same basic linear systems of production that we find in biology, elucidated by Francis Crick. Their processes form the basis of the industrial manufacturing process.
Philip Armour’s introduction of the disassembly line for meatpacking in the late 19th century revolutionized the way meat was processed and distributed. His system famously broke down whole animals into standardized cuts, mirroring the catabolic processes of digestion where complex structures are broken down into simpler, usable forms. This method maximized efficiency and reduced waste, principles central to any process designed for optimal output.
Similarly, Henry Ford’s assembly line, inspired by Armour’s disassembly concept, transformed automobile manufacturing. Ford’s line enabled the sequential assembly of standardized parts into complex automobiles. This mirrored the anabolic processes of protein synthesis, where simple building blocks (amino acids) are assembled into complex proteins according to the genetic code. (for my work on Ford and Armour, see David Graaff’s Armour – A Tale of Two Legends from my book, Bacon & the Art of Living)
The effectiveness of their production systems is witnessed to by the size and importance of the companies they created.
-> Henry Ford and the Ford Motor Company
Henry Ford founded the Ford Motor Company in 1903, with an initial capital of $28,000. Ford revolutionized the automobile industry by introducing the assembly line production method, which significantly lowered the costs of production. The Model T, introduced in 1908, is a landmark example, initially priced around $825 and eventually reduced to under $300 by the mid-1920s due to these efficiencies. This put automobiles within reach of the average American, dramatically changing not only the auto industry but also societal norms around mobility.
Ford’s impact was global; by the early 1920s, Ford was producing half of all automobiles in the United States, and by extending operations internationally, he helped propagate industrial production techniques worldwide.
At its peak in the early 1920s, Ford Motor Company held approximately 60% of the U.S. automobile market. Today, the global revenue of Ford Motor Company (2020) is about $127 billion, with a significant reduction in market share due to increased competition but still a major player in the automotive sector
If we adjust the market dominance from Ford’s peak during the 1920s to today’s money considering inflation and industry growth, we’d estimate a company with an overwhelming control of its market, akin to early 20th-century figures but in a market that has grown exponentially. In today’s terms, such market dominance would equate to hundreds of billions of dollars in revenue and valuation.
-> Philip Armour and Armour & Company
Philip Armour founded Armour & Company in 1867 in Chicago. It became one of the largest meatpacking firms in America, part of the “Big Five” Western meatpackers. Armour was innovative in utilizing every part of the slaughtered animals, coining the phrase “Everything but the squeal.” This approach maximized efficiencies and profitability, influencing resource use in ways that many modern industries emulate.
The company’s reach was extensive, controlling a vast portion of the meat market in the U.S. and having a substantial export business, affecting meat prices and production practices globally.
At its height, Armour & Company was an integral part of Chicago’s Union Stock Yards, which handled the majority of the U.S. meat market. While exact figures on market share are harder to ascertain for Armour compared to Ford, the company was undoubtedly one of the top players in the meatpacking industry during its peak in the early 20th century.
If adjusted for today’s market values, considering the vast expansion of the global meat market and inflation, Armour & Company would likely be valued at tens of billions of dollars, with profitability driven high by its efficiency and scale, akin to major modern agribusiness and food production corporations.
Crick’s Sequence Hypothesis: A Biological Parallel
Decades later, Francis Crick’s sequence hypothesis provided a fundamental understanding of how life works at a molecular level. By explaining how the sequence of nucleotides in DNA dictates the amino acid sequence in proteins, Crick illuminated the biological mechanism that parallels the sequential logic of the industrial assembly lines of Ford.
The similarities between Ford, Armour and Francis Crick’s hypothesis make these a particularly pointed discussion in one article. They did not emulate Crick’s Hypothesis as his work came years after theirs but the fact that their manufacturing systems emulate living systems and happen to be extremely effective is more than only coincidental! Life favours the most effective system!
Integration Across Disciplines
The interesting overlap between these industrial and biological processes highlights a universal principle: the sequence of components, whether in DNA, on an assembly line, or in a disassembly line, critically determines the structure and function of the final product. Understanding this can lead to improvements in efficiency and functionality across different fields.
Still, the question remains as to why we can have the right elements of production in a system such as a company and still it does not guarantee automatically result in optimal outcomes. I was wondering if biology would give me clues about what the missing ingredients are.
Guiding Forces in Nature
The key vector that propels systems to greatness is the existence of “guiding forces” and nature and biological systems are no exception. Natural forces “guide” species development by favouring traits that offer survival and reproductive advantages, thus driving evolutionary change. Let’s look at some key “drivers” from the natural world including biology.
-> The Centrality of an Efficient System
By now we have shown this so conclusively that we may miss the first driver of a biological system to success and in that it must contain within its structure and basic to its operation a highly productive system that guarantees maximum outcomes with minimal waistage. This describes the DNA/RNA/ Protein Synthesis pathway as well as the manufacturing principals of Armour and Ford.
-> Genetic Mutations: The Innovators of Biology
Genetic mutations in biology introduce new traits that can lead to significant evolutionary advantages. These mutations are random and still are pivotal elements that introduce variability, upon which natural selection acts. Some mutations enable organisms to exploit new niches or adapt to environmental changes more effectively, which can be compared to what we call innovation. Instead of originating in the mind of an individual or a group, nature, as it were “experiments” through the mechanism of random adaptations. It is the reverse of the conscious planned systems of Armour and Ford. In nature, the advantages are “discovered” after the fact. After the mutations took place. Innovation is the first essential ingredient to an effective organisation. Ford and Armour both exemplified this in a remarkable way.
-> A Clear Vision for Dominance
Richard Dawkins’ “selfish gene” theory posits that genes propagate themselves, sometimes at the cost of the organism, in ways that mirror personal gain in human endeavours. These genes behave in a way that maximizes their own chances of survival, an echo of how industrial leaders manoeuvre to capture market share and maximize profit margins. (See endnote 1)
“What is in it for me” is a key driver to success of any system.
-> Population Dynamics: Impact of Scale in Nature
The concept of scale is another essential requirement that seems to drive adaptations in nature and biology. Population dynamics, predator-prey relationships, and symbiotic interactions are all influenced by the scale of biological populations. These dynamics are essential for understanding how species adapt to their ecological niches and manage resources, similar to how businesses must scale operations efficiently. Philip Armour and Henry Ford represent the largest scale operations that have been ever undertaken up to that point, in the history of humanity in their respective areas of work. Scale placed a requirement of designing the systems they were involved in at a level that had never been done before. It made resources available that would not have been possible if the scale was not on the enormous level that they operated on. Small operations can of course be highly effective but even if successful operations are small, they are always large in a particular niche enviroment.
-> The Imperative of Leadership in Social Animals
While direct leadership is absent in biological processes, certain social animals exhibit leader-like behaviours. A key “guiding principals” from the natural world is leadership. Alpha wolves or matriarch elephants lead their groups, making decisions that affect navigation, safety, and resource acquisition. These animals benefit the group and enhance their own survival and reproduction, thus supporting the leadership traits through natural selection.
The “Missing Link
Philip Armour and Henry Ford revolutionized their respective industries through visionary leadership, innovation, a drive to dominate and gain and a relentless pursuit of scalability and efficiency.
The Essence of Industrial Visionaries-
Philip Armour’s introduction of the disassembly line in meatpacking and Henry Ford’s perfection of the assembly line in automobile manufacturing were not merely incremental improvements; they were transformative changes that redefined entire industries. These innovations were driven by a combination of visionary leadership, a clear understanding of scale’s impact, and a personal ambition aligned with broader economic incentives. Armour, known for his appreciation of aesthetics, may also have been driven by a pursuit of functional beauty in his systems, much like an artist.
Conclusion
The parallels between the work of Armour, Ford, and Crick offer a fascinating glimpse into how human innovation can inadvertently mimic natural processes. These insights provide not only a deeper appreciation of nature’s efficiency but also inspire innovative approaches to modern manufacturing and synthetic biology.
The parallels between the strategic innovations of industrial leaders like Armour and Ford and the evolutionary strategies observed in nature highlight a fascinating intersection of biology and industry. Both domains showcase how complex systems can arise from the interplay of individual actions and systemic forces, driven by the underlying goals of survival and efficiency. This comparative analysis not only deepens our understanding of natural and industrial systems but also illuminates the universal themes of adaptation and strategic innovation across different realms of life.
Note 1
Richard Dawkins introduced the concept of the “selfish gene” in his 1976 book titled “The Selfish Gene”. The primary idea behind the book is that the fundamental unit of natural selection is not the species, the group, or even the individual, but rather the gene itself. According to Dawkins, genes are “selfish” in that they are driven by the imperative to replicate themselves across generations, and they “use” individual organisms as vehicles to promote their own survival and reproduction.
Dawkins argues that our understanding of evolutionary processes is enhanced by considering that genes, which are passed down through generations, effectively program organisms to behave in ways that maximize the likelihood of those genes’ survival. This perspective shifts the focus of evolutionary biology from individuals or species to the genes themselves, offering a gene-centric view of evolution.
The “selfish gene” theory helps explain a wide array of biological phenomena, including altruistic behaviours in the animal kingdom. Dawkins suggests that such behaviours can evolve because they serve the survival and reproduction of genes, even if they appear to sacrifice the interests of the individual. For example, an animal that risks its life to save its kin might be promoting the survival of its own genes, as its kin likely share many of the same genes.
This theory has been influential in evolutionary biology, and while it has sparked controversy and debate, especially in its broader interpretations, it remains a foundational concept for understanding the dynamics of natural selection. It’s also spurred further developments in evolutionary theory, including debates about levels of selection and the role of cooperative behaviour in evolution.
The image is of Francis Crick.