The Human Operating Manual

Rethinking Humanity: Five Foundational Sector Disruptions, the Lifestyle of Civilizations, and the Coming Age of Freedom

Authors: James Arbib, Tony Seba

Topics: Global disruption, systems thinking, and societal planning 

All information is attributed to the authors. Except in the case where we may have misunderstood a concept and summarized incorrectly. These notes are only for reference and we always suggest reading from the original source.

Contents

Introduction

Executive Summary

Part 1: Rethinking Disruption: Technology Convergence and Organizing Systems Driving Societal Transformation

Part 2: Rethinking the Past: The History of Humanity

Part 3: Rethinking the Present: Between Two Ages

Part 4: Rethinking the Future: The Path to Freedom

RethinkX 2020-2030 Action Plan

List of Recommended Books


Introduction

Technology disruptions are not linear progressions and they do not take decades to play out. They may appear to start slowly, but they move exponentially as they trigger powerful feedback mechanisms that drive rapid change, the impacts of which can ripple out across the economy and society.

The five foundational sectors of the global economy – information, energy, transport, food, and materials – are being disrupted at an unprecedented speed and scale.

Executive Summary

During the 2020s, key technologies will converge to completely disrupt the five foundational sectors that underpin the global economy, and with them every major industry in the world today.

  • In information, energy, food, transportation, and materials, costs will fall by 10x or more, while production processes an order of magnitude (10x) more efficient will use 90% fewer natural resources with 10x-100x less waste.
  • The prevailing production system will shift away from a model of centralized extraction and the breakdown of scarce resources that requires vast physical scale and reach, to a model of localized creation from limitless, ubiquitous building blocks – a world built not on coal, oil, steel, livestock, and concrete but on photons, electrons, DNA, molecules and (q)bits. Product design and development will be performed collaboratively over information networks while physical production and distribution will be fulfilled locally.
  • As a result, geographic advantage will be eliminated as every city or region becomes self-sufficient. Built on technologies we are already using today, which will be far more equitable, robust, and resilient. We have the opportunity to move from a world of extraction to one of creation, a world of scarcity to one of plenitude, a world of inequity and predatory competition to one of shared prosperity and collaboration.

The Organizing System encompasses both the fundamental beliefs, institutions, and reward systems that enable optimal decisions to be taken across a society, and the structures that manage, control, govern, and influence its population.

  • Every leading civilization, from Çatalhöyük and Sumer to Babylonia and Rome, has fallen as it reached the limits of its ability to organize society and solve the problems created by its production system. When these civilizations were threatened with collapse, they looked backwards and attempted to double down on their Organizing System rather than adapting. The result was descent into a dark age.

Centralized content production with high costs, high barriers to entry, and narrow distribution channels has given way to billions of producer-consumers generating content at near-zero cost with minimal barriers to entry across a globally-connected network.

  • A few computer hackers in an apartment in one country can hijack another’s governance processes, spread false narratives, polarize public opinion, paralyze decision-making processes, and help enable regime change home and abroad. Individual nations are no longer able to manage the narrative or control the flow of information.
  • The upcoming disruptions that will unfold simultaneously in the energy, food, transportation, and materials sectors during the 2020s will present further unprecedented new challenges at the same time as solving old problems.

Dark ages occur due to lack of leadership. The established centers of power, the U.S., Europe, or China, handicapped by incumbent mindsets, beliefs, interests, and institutions, are unlikely to lead. In a globally competitive world, smaller, hungrier, more adaptable communities, cities, or states such as Israel, Mumbai, Dubai, Singapore, Lagos, Shanghai, California, or Seattle are more likely to develop a winning Organizing System. They will appear as if from nowhere, with capabilities far beyond those of incumbent leaders. Everyone else could get trampled before they have time to understand what is happening.

Part 1: Rethinking Disruption: Technology Convergence and Organizing Systems Driving Societal Transformation

1.1 How the Smartphone Disrupted the Oil Industry

The introduction of GPRS technology (2.5G) allowed data to be sent all the time, increasing transfer rates dramatically. Touch screens worked well enough to use (2007). With sensors, processing power, and energy dense lithium-ion batteries also now in place, this was the last piece of the jigsaw.

The iPhone was born through technological convergence – the coming together of key technologies at a particular point in time to enable the creation of an entirely new product or service at a competitive cost.

Adoption was non-linear and followed an S-curve – in all technology disruptions the pace appears slow at first because a new product has less than 1%-2% market penetration, then hits a tipping point and accelerates through an exponential phase until the product nears about 80% of the market, at which point growth slows as the market reaches saturation.

Hamstrung by protecting their existing product suite and locked into existing business models, thought processes, cultures, and incentive structures that favor incremental progress over disruptive innovation, incumbents find it difficult to develop and adapt quickly enough to entirely new product architectures, business models, or success metrics.

At the same time, the arrival of the smartphone triggered destruction of value. The market share of Nokia slipped from 51% of the market in Q4 2007 to less than 3% just five years later as net sales slumped 75%. Cameras were included in smartphones and as their quality improved, standalone cameras (both digital and what was left of the film market) became largely redundant. The same can be said of MP3 players, GPS navigation devices, and handheld gaming consoles.

Social lives were transformed as smartphones revolutionized how we communicated, made friends, and managed our networks. The way we found jobs, worked, shopped, and entertained ourselves changed almost overnight. The arrival of social media had an even greater transformative effect, completely upending traditional channels not just of communication but of information, as individuals could for the first-time bypass traditional sources of news and analysis by creating their own content and sharing it with billions of people at the touch of a button.

Uber (founded in 2009), Ola (2010), Lyft (2012), and Didi (2012) have decimated the taxi markets in their respective countries, offering cheaper and more convenient rides. Often hamstrung by century-old regulatory models, licenses, or expensive medallions, established taxi operators have been unable to respond, other than by evolving into ride-hailing services themselves.

The improvement in lithium-ion battery costs, driven initially by the consumer electronics sector and then by the smartphone market, means electric vehicles (EVs) are now disrupting the high end of the gasoline vehicle market and are about to disrupt the mainstream market. The all-electric Tesla Model 3, for example, is now one of the best-selling cars in the US.

The convergence of ride-hailing, AVs, and EVs will soon create an entirely new form of transport known as Transportation-asa-Service (TaaS) – essentially robo-taxis. This will be dramatically cheaper than car ownership, costing up to 10x less per mile and saving the average American family more than $5,600 a year, and trigger a rapid disruption of the gasoline car, bus, delivery van, and truck markets.

In the past, we needed the car to go to a restaurant or shop for food, but today a host of companies such as Amazon, Uber Eats, and GrubHub deliver fresh produce and ready-made meals to our front door. In the past, we needed a car to go and see a movie, but today streaming services like Netflix and Prime offer a monthly subscription to tens of thousands of movies and TV shows for less than the cost of a theater ticket.

1.2 How the Car Transformed Society in the 20th Century

In 1890, a skilled butcher took eight to ten hours to slaughter and dress a steer on a farm. Chicago meatpacking factories did it in 35 minutes. The innovation that made this possible was the moving disassembly line, where animals were slaughtered, butchered, processed, and packed before being shipped in railroad cars around the nation quickly and efficiently. Henry Ford rethought and flipped this model into a moving car assembly line, lowering manufacturing time and costs by an order of magnitude.

Car sales grew from less than 5% of the vehicle fleet in 1905 to more than 95% in 1925. Adoption happened along an S-curve, with a 10-year phase between 1910 and 1920 taking market penetration from 11% to 81%. But this growth was not just a replacement for carriage sales – the car created a whole new market for transport where none had existed previously.

The trusted horse eventually came to be seen as increasingly outdated, dirty, and obsolete. This change in public perception acted as a powerful accelerator of change and happened despite an active resistance campaign from incumbents.

By the 1930s, one in every seven Americans was in employment linked to the auto industry. Whole new industries in auto insurance and finance appeared. The car ushered in the shopping mall and changed the very structure of the retail industry. The impact on raw materials was equally profound as steel, oil, and rubber replaced iron, animal feed, and wood. In just 10 years, the auto industry went from a minor buyer to becoming the leading consumer of steel, with demand skyrocketing from 70,000 tons in 1910 to one million tons by 1920. Increased investment in the steel industry as a result pushed costs down further and brought innovations like corrosion-free stainless steel, which opened new possibilities in applications from surgical implants, food and beverage equipment, and construction.

The car industry also played a more direct role in the growth of the U.S. middle class by raising incomes. In 1914, Ford doubled its workers’ wages, raising eyebrows throughout the industry and beyond. Two years later, profits had doubled and within seven years it owned half the U.S. auto market. 

Its introduction led to huge changes in the built environment as houses, towns, and cities were redesigned around this radical new form of transport. It changed where we lived and worked, and where we built our schools, shops, hospitals, and factories. For the first time, people moved out of towns into the suburbs in huge swathes and needed cars to commute to and from work. Meanwhile, drive-in diners, movie theaters, malls, and big-box stores all became part of the urban landscape.

The car also played an important role in our culture, helping drive the first phase of the sexual revolution as young people found new ways of escaping parental control, while giving people of all ages far more independence and opportunity. The driving test became a cultural rite of passage for teenagers.

Occasionally, a convergence of factors triggers a phase change.

  • An incumbent system is kept stable by constraining factors that act to resist change. These brakes can weaken over time.
  • Technologies improve in cost and capabilities and converge to enable a disruptive new product or service to outcompete an existing one.
  • Disruption happens quickly, despite perceived barriers including strong resistance to change. These barriers are not constants, but variables.
  • Adoption is non-linear and follows an S-curve. It is driven by accelerating feedbacks that affect the cost and capabilities of products, demand, supply, and regulation.
  • Economic destruction of the existing industry happens early, before the new disruptive industry reaches maturity, and the impact is often disproportionate to the scale of change. Leverage (both financial and operating) means that a small downturn in demand can bankrupt an industry. 
  • Disruptors tend to come from outside the incumbent industry. Incumbent mindsets, incentives, practices, and business models blind existing businesses to the new reality. 
  • A linear, mechanistic, siloed mindset prevents us from seeing the speed and extent of disruptions in advance.
  • Disruptions represent phase changes – they are not just the like-for-like substitution of technologies. They enable new business models, metrics, and incentives. The new system can be fundamentally different to the old in terms of the structure of the value chain, how value is delivered (business model), the metrics and incentives that drive consumers (demand), producers and investors (supply), and policymakers (regulation).
  • Disruptions open up possibilities across the value chain, connected sectors, the wider economy, and society. Disruptions of foundational sectors have profound impacts that ripple across not just the economy but the whole of society. These impacts can act as feedback loops impacting the cost and capabilities of technologies and other aspects of the system, acting as secondary drivers of disruption.

Almost all analyses from government, NGOs, banks, consultants, and other prognosticators are linear in three dimensions:

  1. Linear Trends. Extrapolating past and present conditions and trends as a heuristic to predict the future.
  2. Linear Causality. Treating the system as simple and mechanistic – A causes B and “all else remains equal” (only accounting for first order effects of change).
  3. Sector silos. Treating each sector of the economy as its own independent system, whereas in fact everything is interrelated.

The linear approach is a reasonable approximation of the future during periods of incremental progress, when self-correcting feedbacks (brakes) dominate and constrain change, but it is woefully inadequate as disruption approaches and self-reinforcing feedbacks (accelerators) take over.

1.3 How the Printed Book Enabled Europe’s Breakthrough

Trade slowly began to flourish as trade routes were gradually reopened and ideas developed and spread as southern Europe began to prosper once more. The increasing availability of capital in the hands of the merchant class and the developing universities helped nurture a new thirst for knowledge and innovation. The Mediterranean region again became a melting pot of ideas and concepts developed locally, rediscovered from earlier times, and imported from the East (where a higher level of technological capability and social complexity had been maintained). Attracted by the increasing openness to ideas and people of Renaissance Italy, by 1500 around 5,000 Greek intellectuals had migrated to Venice alone.

  • They brought secular scholarship, knowledge, and ideas that defined Europe’s new identity and brought lasting change. The result was a dramatic rise in the number of manuscripts published in Europe starting in the 12th century, creating further demand for information and knowledge.

Europe had hundreds of states (cities, republics, and kingdoms) competing for trade, technologies, and people in a way that China did not. New technologies need the right governing structures and societal conditions in which to flourish. For the printed book, Europe, rather than the then-dominant East, provided this environment.

Again, a convergence of technologies was the catalyst.

  • Parchment, made from sheep, goat, cow, and other animal skins, was the main technology used by European scribes throughout the Middle Ages. But parchment was expensive – more than 200 sheep were required to make one Bible.
  • A new technology in the form of paper was brought to Europe in the 12th century from China by Islamic traders and by the 15th century it had largely replaced parchment in manuscript production.
  • The first key enabling technology was now in place, but advances in ink technology, metallurgy, and machining, leading to the invention of metal, movable typeface, were necessary to make the printing press possible. The cross-pollination of technologies across different sectors was key – the first printing press was a modified wine press traditionally used to press grapes and olives. All these technologies came together in the 1450s with the invention of the Gutenberg Printing Press.
  • A page could now be printed in just a few minutes, 200 times faster than handwritten manuscripts. The first paper Bibles that came out of Gutenberg’s workshop in around 1454 cost 30 Florins – 10x less than a manuscript Bible.
  • Competition, technology improvements, and scale pushed book prices down even further. By 1483, the cost of printing had fallen so far that the Ripoli press in Florence charged three Florins for 1,025 copies of Plato’s Dialogues, whereas a scribe would charge one Florin for a single copy.

The book invited personal reflection and abstract thinking that helped give rise to individualism. Centuries of received wisdom were soon overturned. The church and state began to lose control over access to information.

  • The printing press was also instrumental in the spread of ideas of the early humanists such as Petrarch and Renaissance philosophers such as Pico della Mirandola, which in turn laid the foundations for the Enlightenment and Scientific Revolution. This information revolution enabled and then fed into ongoing developments in science, technology, philosophy, and the arts and enabled an acceleration in the development and diffusion of ideas. Francis Bacon, Isaac Newton, John Locke, Galileo, Descartes, Darwin, and others found new ways to understand and explain the physical world and develop the scientific method that underpinned the new mechanized system of production that emerged through the Industrial Revolution.
  • Empiricism and the scientific method replaced religion as a more effective way of explaining the world. City states coalesced into nation states as the emerging production system required greater scale and reach to compete. Monarchy was replaced by democracy and the church separated from the state. Freemarket capitalism overturned feudal systems and the barter economy and individuals became empowered to receive rewards for their efforts.

Organizing Systems evolve in ways that resemble biological organisms – those best suited to the economic, technological, and geographical conditions in a given era or place thrive and are replicated. Copy, paste, and adapt, either through mimicry or conquest. The various components that make up the Organizing System should not be thought of as mechanical parts, but as subsystems that interact and overlap with each other. There is no ‘right’ combination in any era or society and the evolution of each aspect and the combinations that develop are not planned or designed, but emerge (self-organize) over time through experimentation (trial and often painful error) and competition.

The importance of geography changes over time and is dependent on the technological capabilities of an era – an early civilization might be dependent on the fertility of the soil and availability of natural resources immediately surrounding it, while a civilization with more advanced transportation and energy technologies can free itself from these constraints and access fertile soil and materials further afield.

Organizing Systems have the capacity to adapt to changing conditions – essentially broadening the range of conditions in which they can function and thrive – but their adaptive capacity is limited in speed and scale. Historically, fundamental change in societal capabilities has happened only when civilizations collapse or as new civilizations break through, when a new Organizing System emerges to replace one that can no longer adapt fast enough to order-of-magnitude improvements in technological capabilities.

Part 2: Rethinking the Past: The History of Humanity

2.1 Humanity 1.0: The Age of Survival

Humans were organized into small groups limited to dozens or hundreds of individuals. These communities, egalitarian by necessity, had little use for belongings that served any purpose other than survival. With no means of storing food, most of their time was spent planning, finding, and gathering food, energy, and materials.

Humans had to live according to nature’s seasonal and climatic flows. They had to be agile and mobile. Leadership was distributed and cooperation was critical to survival as the needs of the group trumped those of the individual. In this system, hoarding and competition within groups were existential liabilities to be avoided and punished. Human activities were local and largely sustainable, despite some mega species extinctions and localized deforestation and landscape change.

The major technological discovery of the Age of Survival was fire, which provided warmth, protection against predators, and heat for cooking, as well as triggering the development of advanced hunting tools. Fire also allowed humans to become more mobile and migrate farther to more diverse geographies.

First, we need to survive, which includes procuring food, water, energy, shelter, and physical security and safety. Staying alive and staying safe. Second, we need to grow. Physical (or horizontal) growth refers to individual and societal reproduction (population expansion, suburbanization, and colonization), which expands at the expense of other human and non-human populations. Spiritual (or vertical) growth can collectively be described as the need to flourish or thrive – the need for purpose, creation, connection, self-improvement, and self-actualization. Human consciousness and behavior manifest themselves in different ways depending on how these needs are met within the context and the circumstances of any particular time.

During the Age of Survival, estimates suggest that the earth could optimally nourish about 8.6 million people living on hunting, fishing, and gathering, although human populations experienced high volatility, with numbers possibly dropping as low as 1,000 to 10,000 individuals around 70,000 years ago. By the end of the Age, the world’s population was probably around four million.

2.2 Humanity 2.0: The Age of Extraction

Initially, agriculture was inferior to foraging as it offered a lower quality and smaller variety of food for a lot more work. Cities were also inferior in many ways – for example, higher population density (of people, crops, and animals) created the conditions for infectious diseases to spread.

After millennia of experimentation, city dwellers developed the production and Organizing Systems that brought food surplus, manufacturing, and trade, which enabled them to organize and support greater numbers of people, opening up huge possibilities for humanity.

  • Freed from the need to forage to survive, humans could specialize and innovate in areas like information, food, transportation, energy, materials, and social and organizational structures. Trade allowed plant and animal hybridization techniques to spread, which enabled higher food yields from existing land, which in turn led to larger populations, deeper specialization, and new skills and technologies that expanded the possibilities further.
  • As emerging cities developed, they found new challenges around productivity, monoculture, and overcrowding to overcome, such as disease, pestilence, and the need for food storage and imports to survive seasonality.

Extraction became the prevailing system of production and exploitation emerged as a core principle of the Organizing System. Cities harnessed resources and people from as far afield as their technological capability allowed in order to force feed their production systems. They took what they found in nature and harvested them to break down, process, and produce the things they needed or wanted, namely food, energy, and materials.

  • Early civilizations found themselves locked into a competitive system driving an underlying need for growth. A world of plenty turned into a scarcity-based system of production where the winner takes all.
  • The easiest and cheapest resources to exploit were used first and depleted. Subsequent resources became harder to access and required either increased technological capabilities in extraction or production or the ability to reach and access new resources.
  • Once the growth imperative was unleashed, a self-reinforcing process of predatory competition for control of, or access to, resources was inevitable, and with it the need for military power to exploit land, materials, and labor as rapidly-expanding cities competed with one another for finite resources.

Limitations of transportation and communication technologies gave rise to a cluster effect for cities and the centralization of institutions and systems of governance to control and manage civilizations. This centralization was reflected in increasing hierarchies as societies evolved.

  • Humanity’s successful Organizing Systems were no longer based on sharing, generalist skills, and equality, but on ownership, specialization, and inequality. Leadership was no longer distributed but controlled directly from the center. Storage and hoarding were no longer punished, but rewarded.

The growth imperative was, however, counterbalanced by a deep-seated need for stability. For societies to thrive and continue to advance and grow, they needed self-stabilization mechanisms. Growth without social stability led to disorder and collapse, while stability without growth led to stasis and being left behind.

  • The Organizing System, through its belief systems, culture, and governance structures, played a critical role in creating the push and pull necessary to balance the need for growth with the need to maintain stability.

2.3 Rethinking the Lifecycle of Civilizations

A crude proxy for societal capabilities is the size of settlement that can be supported by a civilization. The maximum size of a city is determined by the technologies and the Organizing System (and geography) of the day. Looking back through history, a recurring pattern is clear to see – large jumps in societal capabilities (core city size) followed by a new equilibrium, followed by collapse into a dark age.

Historically, just as we saw with sector disruptions, breakthroughs are often led by outsiders with access to, and knowledge of, pre-existing technologies, but without the baggage of incumbency of operating within an antiquated Organizing System and the resistance to change that comes with it. Never has the leader of one order made the adaptations necessary to break through and lead the next, higher order.

While civilizations are expanding geographically, riches and resources flow in increasing quantities to the center, generating the wealth needed to improve living conditions and maintain the support of a growing core population. But as the geographic limits of their production and Organizing Systems are reached, these riches and resources dry up, with diminishing returns to further expansion as control or influence of far-flung provinces becomes increasingly expensive and ineffective. Without this increasing surplus from expansion, growth begins to slow. The emergence of rivals with similar capabilities can exacerbate this problem.

  • At a certain point in their expansion, civilizations pass a threshold and enter a ‘buffer zone’, within which they can still survive or even thrive for relatively long periods of time. However, with their centralized, brittle structure, they have limited ability to react to shocks that impact their productive capacity and ability to sustain themselves – single points of failure that render the whole inherently fragile.
  • These shocks can be environmental, military (wars and invasion), sociopolitical (inequality or over-exploitation leading to rebellion or civil war), or pandemics. Environmental shocks can be exogenous (historically), such as changes to climate and rainfall patterns leading to drought or inundation, or they can be self-inflicted, such as decreasing soil fertility caused by over-irrigation, soil salination, deforestation, or intensive farming, all of which affect the ability of a civilization to feed itself. Over-exploitation of scarce resources can likewise impact energy or material supplies.
  • As they reach the limits of their geographic spread, civilizations can no longer expand to exploit more land or resources to overcome these shocks.
  • The impact of the end of the expansionary period can be compounded as narrow, embedded interest groups (religious, warrior, monarchical, commercial, or aristocratic) seek to improve their position further. Without the easy gains from expansion, they increasingly extract rents from within society, aided by Extraction Age economies of scale that lead to a centralization of wealth. These groups can capture governments at many levels to privatize and concentrate wealth and profits, while socializing risks and waste. The end result is an extractive feedback loop where more profits accrue to these interest groups. The end result is a concentration of profits and wealth in fewer hands, an increase in inequality, and a decrease in social cohesion and support.

Organizing Systems harden at a time when they need plasticity to adapt. The faster change happens, the more unstable the system becomes, which leads to an increasing desire for social stability and maintaining the status quo.

  • The extractive, exploitative, winner-take-all production system is concerned mainly with maximizing income from useful outputs for the center. Both the finite nature of resources and the human and social impacts from production are ignored. Civilizations that go too far in correcting for them handicap themselves competitively in the long term compared with those that do not, creating an inherent conflict between short and long-term interests. All previous leading civilizations were blind to the long-term effect of these impacts until it was too late, prioritizing the short over the long-term and the narrow over the common interest.

Without the possibility of geographic expansion, growth can only come from breakthrough – order-of-magnitude improvements in technological capabilities and a new Organizing System that allow civilizations to produce more from their existing footprints. The only other choice is to cut consumption to live within the existing system’s means, which is almost impossible to do voluntarily when the fundamental beliefs, institutions, and reward systems that led to its success are based on driving growth. These two options are in direct conflict – cutting the scale of production reduces the surplus available to support the investment in innovation needed to break through.

Civilizations soon enter a death spiral. Reductions in the productive capacity reduce the surplus available to feed the core power structures, such as the state bureaucracies, and economic, military, and religious elites. As the surplus shrinks, social expenditures such as education, water, health, social services and technology development are cut, leading to a reduction in support for the system and further lowering of productive capacity. In the face of collapse, rather than adapt, civilizations have tended to re-double their efforts on what had worked previously – more extraction, more walls, more blood sacrifices, or more power for the center of authority, be it king, emperor, or the elites that endorse them. Such actions, while positioned as solutions, are Band-Aids on a system on the verge of collapse. More than that, they accelerate the breakdown by exacerbating the very problems that are causing it. The negative feedback continues as taxes and debt increase and currencies are debased, selling the future to pay for the present, further destabilizing an already brittle and unstable system.

  • Every leading civilization, from Çatalhöyük and Sumer to Babylon and Rome, has collapsed in this way, unable to adapt and break through the capability frontier of their order. Dark ages followed, representing a reversal of social complexity and a collapse to a lower level of capabilities. This process of collapse happens remarkably quickly – all the leading millenary civilizations in the Fertile Crescent and Eastern Mediterranean world collapsed in just one hundred years (between 1250 and 1150 BCE), many of them never to return.

The process of change mirrors that at a sector level:

  • Breakthrough is driven by convergence – dramatic improvements in technological capabilities in foundational sectors to create the potential for an order-of-magnitude improvement in societal capabilities.
  • Civilizations that develop the best combination of technology and Organizing System increase their capabilities rapidly and outcompete others.
  • Over time, the Organizing System becomes more embedded and less adaptable.
  • As civilizations reach the limit of their expansion, the context is set for collapse and the baggage of incumbency prevents the adaptation needed to break through.
  • A shock to the system, such as environmental degradation, increasing inequality, or increasing financial and social instability, can push it out of equilibrium and lead to collapse.
  • Civilizations lose adaptability as they approach collapse, blinded by incumbent mindsets, beliefs, incentives, and interests. They double down on what brought them to greatness instead of adapting to the new reality.
  • The existing system collapses before the new one emerges. This manifests in a dark age that can last for hundreds of years.
  • These periods of change represent a phase change.
  • Change happens quickly.
  • The emerging leaders come from the edge of the old system.

As the Roman Empire collapsed, the Mediterranean basin and its hinterlands plunged into a new lower order known as the Dark Ages. Technological and organizational capabilities regressed dramatically as Europe fractured and was overwhelmed by religious dogma, poverty, violence, and ignorance. For centuries, even the ruling elites, including emperors, kings, and knights, were illiterate. From the 8th to the 10th centuries, Europe’s main export commodity was its own people – enslaved humans.

While the first printing presses were small and distributed, small print runs of perhaps 100 copies turned into much larger print runs of 500 copies or more. Economies of scale pushed the system to become more centralized, as profitability required more copies of each publication to be printed. The invention of the telegraph and telephone then allowed for direct, person-to-person communication.

  • High costs of infrastructure, scarce distribution channels, and economies of scale led to centralization and high barriers to entry. As a result, large newspaper groups controlled the flow of news.
  • The emergence of radio and television followed the same model of centralized access to consumers, providing a degree of control over the flow of information. Centralized regulation controlling a limited number of channels emerged to match this structure – governments could regulate newspapers, TV, and radio and influence the messages they delivered.

Steam power developed as Thomas Newcomen and then James Watt developed the steam engine.

  • This invention enabled the creation of disruptive products across many sectors including transportation, mining, energy, agriculture, and manufacturing and kickstarted the Industrial Revolution. 
  • Steam ships, trains, cars, and planes allowed access to the whole world with an order-of-magnitude improvement in speed and range.
  • A centralized system of production on a greater scale than ever before emerged to harvest, extract, and process resources and to distribute the resulting outputs.

New models of thought, belief systems, and conceptual frameworks from the Renaissance and Scientific Revolution gave rise to new political, social, and economic systems that, together, grew to influence, manage, and control the actions and behaviors of hundreds of millions of individuals across the world. The need for scale, reach, centralization, and hierarchy that defined the industrial system of production was reflected in the industrial governance structures, institutions, and in geopolitics.

Religion, which had served a purpose both in explaining the world and in governance through the Dark Ages, no longer offered a competitive advantage. It was unbundled and replaced by empiricism and democracy, its purpose shifting to providing social compliance, a sense of purpose, and stability. Those states that separated church from state and embraced scientific thought progressed far faster than those organized around religious dogma.

  • Occasionally they flare up, cause damage and are surgically removed but, in general, their importance diminishes in leading nations – monarchies remain, stripped of their absolute power, and religious and racist dogma fight to return to an imagined golden era.

Scientific thought sought to explain the world by breaking it down into ever smaller pieces, focusing on simple, linear cause and effect. This reductionist thinking, which could explain the separate parts of the world down to a sub-atomic level, was well-matched to the emerging technologies and system of production. It was reflected in education, industry, science, academia, government, and in the increasing specialization of labor, as the complexity of the whole was broken down into manageable parts, disciplines, or departments.

No one country needed direct control of every other nation, merely the power with allies to exert enough influence to ensure access to resources and markets. Global governance structures, institutions, and agreements also evolved to cover issues that required cooperation beyond national borders, but these were designed to further the interests of the nation states’ centers of power, not to replace them.

  • Democracy emerged as the best-adapted system of governance, enabling self-organization, experimentation, competition, and adaptive decision-making. It allowed election on the basis of merit (to some degree) rather than inheritance.
  • No longer could a small core dominate the wider population through violence, fear, or a belief system that bred subservience (push). New systems that focused on the pull of reward and incentives and the perception of individual freedom outcompeted other alternatives.

The need to incentivize growth within a framework of resource scarcity led to a tension between tolerating (or encouraging) inequality to drive growth and the need for social cohesion. Successful societies managed to maintain the support of both an expanding core and the exploited masses in order to survive by redistributing wealth to maintain stability.

  • The social contract that emerged allowed individuals to trade their labor for capital and offered some form of safety net and growth opportunities to most citizens. This contract allowed millions of people to self-organize, start new businesses, and drive the system of production to a vast scale. It created incentives and security to invest in the development of their skills and knowledge, driving specialization and growth at all levels.

Part 3: Rethinking the Present: Between Two Ages

3.1 A New Age: From Extraction to Creation

Early signs of breakdown are apparent, manifesting in a growing number of societal, governance, and environmental problems across the world.

  • The impact of our civilization on the Earth’s biophysical systems has gone beyond the limits of what can be supported sustainably as, like previous civilizations, we prioritize short-term growth over long-term survival.
  • Climate change, soil degradation, deforestation, and increasingly unstable ecosystems are the result. Our food system has reached its limits as we push to extract ever more from our finite land while externalizing the social costs of environmental degradation and pathogenic viruses.
  • Governments, which are in place to regulate companies on behalf of the people, are now regulating people on behalf of companies, amplifying the trends of increasing inequality, disillusionment, and dwindling institutional trust.

3.2 The Creation-Based System of Production

As batteries improve as demand and investment in electric vehicles rise, they become competitive in the electricity storage market, which boosts the market for solar and wind energy, which increases demand for more grid storage, which catalyzes further improvement in battery technology cost and capabilities, which improves EV competitiveness relative to fossil-fuel powered vehicles. These technologies are converging in different combinations in different sectors to enable extraordinary improvement in the costs and capabilities of new products and services.

The cost and capabilities of many key technologies such as sensors, communications, computing, 3D visualization, and robotics are expected to improve by several orders of magnitude over the next decade. As technology allows for an increasing portion of physical work to be performed remotely (via virtual, enhanced, or mixed reality), this labor could be sourced from anywhere in the world, before ultimately being replaced by automation.

Where we live and work can be almost completely decoupled, having an huge impact on immigration, border controls, tax regimes, labor regulations, and even on concepts like nationalism.

Food: Harnessing biology through precision fermentation (PF) will lead to the end of animal agriculture, representing a second domestication of plants and animals.

  • Nutritious food that initially replicates livestock proteins (milk and meat) will not just be an order-of-magnitude cheaper, but superior in every possible way – the food itself (taste, aroma, texture, mouthfeel, nutrition, and variety), predictability of quality, price, and supply, as well as impact on health, animal welfare, and the environment.
  • The DNA of a single soy plant or chicken will be enough to create an unlimited quantity of soy or chicken protein. Small biological reserves with immense biodiversity will, therefore, be far more valuable than immense tracts of land with marginal biodiversity.
  • A Food-as-Software model will allow scientists, food designers, and molecular chefs to develop food like we develop smartphone Apps. Individualized nutrition, where specific proteins, fibers, and vitamins are developed on-demand to match our specific genetic, epi-genetic, and metabolic makeup as well as lifestyle will become the norm.

Energy: Solar power, batteries, sensors, and AI will enable a new energy system that is distributed, with demand predictively managed to match supply. Energy will be generated mainly through solar PV (complemented by wind), which is already the lowest cost form of energy and is disrupting the new-build, grid-scale, fossil fuel-based generation market.

  • Peaking power plants will be rendered obsolete as battery storage flattens both the demand and generation curves (destroying volatility-based pricing power) and provides more predictable, higher quality, and resilient electric power.
  • Even the concept of baseload generation will disappear as central generation is replaced by a network of smart, on-demand generation and storage resources.
  • The collapse of GE’s power division, which bet on a fossil fuel, centralized power generation future, is the shape of things to come. The existing centralized system is facing a death spiral of increasing costs, lower demand, and bankruptcy as utilization rates drop and demand migrates off grid.

Transportation: Transport will be disrupted in a myriad of ways. TaaS (shared A-EVs hailed on demand) will rapidly replace the model of individual car ownership and with it the combustion engine.

  • Electric vehicles (trucks, vans, buses, and cars) can drive about half a million miles as opposed to around 140,000 miles for ICE vehicles. This means fleets will also have to go electric because the per-mile cost of EVs is one third (soon to be one sixth) the cost of ICE transportation in high-utilization models.
  • Companies like Amazon and Fedex will have no choice but to quickly replace their whole fleets with electric trucks and vans for purely economic reasons.
  • As human drivers are replaced, congestion will ease and the possibility of integrating other electric forms of transport will emerge. Together, these disruptions will deliver a transportation system 10x cheaper and far more efficient than the one it replaces.

Materials: Production of materials will be transformed in the same way as food production, moving from a breakdown to a build-up model.

  • Just like the chemical and petrochemical industries disrupted plant and animal-based materials and created a panoply of materials that did not exist in nature, so new technologies will disrupt extractive resources and chemical synthesis by creating a near-infinite array of materials with hitherto unheard-of capabilities at a fraction of the cost and resource utilization of extraction-based methods.

3.3 Humanity 3.0: The Age of Freedom

The current, large-scale, centralized system will be replaced by an entirely decentralized system based on a model of resource creation, rather than extraction. We will build what we need from the ground up at the molecular level, with an order-of-magnitude improvement in cost and efficiency. The building blocks of this system – the bit (and qbit), photon, electron, molecule, and DNA (or gene) – are available and plentiful everywhere and can be recombined in infinite ways to create new products and services at essentially zero cost.

A creation-based system can produce near-infinite outputs once the infrastructure is built – limitless quantities of organic materials produced from the genetic information held in single cells and the plentiful flows of energy produced from the sun, with just a few further inputs. Such a system produces only what is needed, without the need to grow whole plants or animals or dig up huge quantities of raw materials to break down into useful outputs. Stocks of non-organic materials (e.g., metals) and capital will be needed to seed the system, but everything else can be created and sourced locally.

As the emerging, distributed, networked system increasingly overwhelms the center, the extractive core will collapse. Not only is creation a vastly superior production system, but networks themselves make it easy to weaponize information to empower individuals and institutions to destroy the center, which will be so weak it will offer no resistance.

Trying to understand, manage, and influence our economies and societies through this industrial relic will not only exacerbate the problems we already face, but create new problems, accelerating the collapse of our civilization. Political divisions, inequality, and social instability will worsen dramatically over the next decades. Governance and decision-making, likewise, will become increasingly ineffective. This combination of widespread discontent and an inability to understand and lead will push many more people towards the kinds of simplistic, extremist, populist solutions that are increasingly taking hold today.

3.4 Industrial Order Band-Aids and Creation Age Possibilities

Almost every conversation today about fixing societal problems is rooted in this linear mindset. Like doctors treating individual symptoms and causing all manner of side effects while ignoring the root cause of illnesses, the solutions suggested right across the political spectrum, whether they be economic, political, social, or environmental, are all aimed at patching up the current Industrial Order Organizing System, somehow finding a way to make it function effectively in a rapidly-changing world it is no longer suited to.

  • Within the extraction paradigm, the problems are in conflict. Solving climate change in a system of extraction requires hugely negative social impacts.
  • Solving inequality kills the incentives to technological progress.
  • Solving the nutrition crisis requires more land, more animal farming, and more deforestation, giving rise to more zoonotic virus epidemics, in a system already pushing humanity to its limits.

As our civilization reaches its limits and these incumbent elites capture more of the surplus, wage growth stagnates, inequality grows, and populism, discontent, and dislocation rise. These problems are exacerbated as our social contract, which trades labor for capital and social stability, breaks down in the face of increasing technological disruption.

  • The four biggest political democracies in the world (India, the US, Indonesia, and Brazil) are all governed by populist leaders, while the re-emergence of centralizing extremism, be it political, religious, or economic, continues to gather pace around the world. These movements push back against progress, as openness to new ideas and people diminishes as we look to assign blame for our problems. Rising racism and xenophobia are signs of this process.
  • As incumbent industries collapse over the next decade and leadership is unable to understand why, let alone anticipate and mitigate the impacts, we will face more unrest and social dislocation around the world, leading to more extremist, centralizing, populist movements.

Solutions suggested today, such as taxing and redistributing more, protecting jobs, re-training, limiting consumption, or putting up protectionist barriers are merely Extraction Age solutions to Freedom Age problems. Relying on redistribution to offset inequality and unemployment will become increasingly ineffective. In some cases, particularly limiting consumption, these so-called solutions are counterproductive and dangerous, hampering economic growth and destroying the capital required to build the emerging system of production, leading to further social unrest and, ultimately, societal breakdown.

Those who own the information networks will own both the system of production and the Organizing System.

  • Decisions about ownership of the network and the core platforms built on it, and about intellectual property rights, personal data, and open access to information, will determine whether the outcome is benevolent or dystopian.
  • If we allow the modern, Food-as-Software production network to be dominated by healthcare-style monopolies, the benefits of the immense improvement in cost, quality, and variety of modern foods will not necessarily accrue to humanity but rather to a few biotech companies.
  • A transparent, collaborative, open-source system more closely resembling software development than current drug development and marketing is not just preferable, but perhaps an existential choice for humanity.

Blanket redistribution (communism/socialism) means incentives to grow disappear and societies fall behind. Too little redistribution (unfettered free markets) and inequality and social upheaval results.

  • But if all our basic needs can be provided for negligible cost, inequality will no longer be the price of growth. Social violence and extreme waste will no longer fit the winning production system.

The process of democracy is being hijacked as elections are influenced by interest groups and even foreign governments that corrupt the truth and target voters with false or misleading messages through social media. Fake news, fake analysis, pseudo-science, and an inability to manage the flow and accuracy of information undermine trust in the democratic process. The decentralization of information technology and social media in particular enables citizens to lock themselves in echo chambers, leading to a splintering of society and a polarization of opinion, making the agreement required to effect change ever harder to reach.

  • The desire for certainty in increasingly unstable times is creating resistance to change. The very checks and balances that are hard-wired into our constitutions and decision-making processes to create the stability needed to succeed in the Industrial Order are now millstones round our collective necks, stifling change just as it is needed most.
  • In the emerging network-first world, hierarchical, centralized nation states will become far less relevant. As the need for scale and reach is replaced by localized self-sufficiency, nation states will face being outcompeted by governance structures better suited to the emerging age, namely the network and the node.
  • As trust is transferred to the network and the node, tribal loyalties will necessarily shift from the center. Loyalties might be owed to those in our immediate vicinity, either physical, spiritual, or intellectual, with shared beliefs, values, and interests.

In the face of these threats, governments the world over are looking to consolidate power by increasing their control over individuals, corporations, and states. Established democracies are doubling down on a centralized model that is no longer fit for purpose, epitomized by the federal administration’s increasing attempts to push back against progress in California in areas such as clean energy, transportation, and pollution.

By harnessing AI, first to aid and then increasingly to lead decision-making, the prospect arises of an Organizing System that is able to make better decisions. Freedom Age governance could run billions of simulations and scenarios and plot complex interactions across society and the short and long-term impact of decisions, free from political or vested interests, resistance to change, and dogma. Such a governance system could help achieve the outcomes we desire, cutting through the tension that exists between short and long-term interests.

  • Initially, this could lead towards a decentralized, network-based, direct democracy, helping citizens to take decisions by informing them of the likely impact of, for example, a new transportation bill or zoning law for cities, or of changes to energy, pollution, and rental prices. These scenarios could be run in open, transparent networks where citizens can experiment with changing assumptions and re-run simulations to learn how they apply to their families and communities.
  • Democracy might serve a role in choosing the outcomes we want and the principles upheld, with AI left to work out how best to achieve them.

The growth imperative encourages exponential growth within a finite world. This is an inherently unsustainable model – collapse is inexorable as the impact of our activities grows. The only solutions that have worked throughout history are harnessing new lands, which is impossible in a civilization with global reach and impact, or breakthrough technological improvement that allows us to do far more with far less.

The climate change narrative, for example, assumes there is a cost to decarbonizing – that the emerging system is somehow more expensive than the old. According to this narrative, the solutions are behavior change and government action.

  • This fallacy is based on a failure to understand the processes of technology disruption. As new food, material, transport, and energy technologies outcompete Industrial Order technologies on both costs and capabilities over the next decade, the diagnosis fundamentally changes. No longer is the market a headwind acting against the emergence of the new system, but a tailwind supporting it.
  • The challenge is not to overcome market forces but to accelerate and enable them, or at the very least to get out of their way.
  • A reduction in consumption on the scale required to solve climate change would lead to such economic dislocation that the capital required to develop and deploy the required technologies would not be available, locking us into our current, unsustainable system.
  • Moreover, the solutions currently suggested to solve these problems – behavior change, tax, and regulation – are creating political polarization and resistance, making implementation far harder. Likewise, the technological solutions to climate change suggested, like clean diesel or carbon capture and storage, are merely Band-Aids on the Industrial Order production system. Extractive technologies are already being superseded by far more robust, distributed, and cheaper technologies that utilize essentially infinite energy sources.

The land freed from agriculture offers possibilities to solve climate change that does not exist in the current food production system. As plentiful food supplies can be produced using a fraction of the landmass currently used, alternative possibilities for how we use that land emerge. Relatively low-cost reforestation at vast scale becomes viable. Furthermore, as our technological capabilities continue to improve, we should expect, within two decades, to have the capabilities to manipulate the biosphere to the extent that we can control or influence the climate system, providing that we do not pass tipping point.

Part 4: Rethinking the Future: The Path to Freedom

Resistance to Change

Our current Organizing System is deeply entrenched and reflects our most deeply-held beliefs and values, meaning resistance to fundamental change is extraordinarily strong. During our lifetimes and the lifetimes of our grandparents, the system has been a constant, so the idea that the concepts underpinning it like modern democracy, nation states, capitalism, or individual rights could change radically seems inconceivable.

Factors Driving Breakthrough

Context set by:

  • Exponential improvement in fundamental technologies
  • 10x disruptions of foundational sectors of economy
  • Information networks as collaborative production systems

Changes required:

  • Development of Freedom Age thinking
  • Choices based on emergent possibility space
  • Increased self-organization, experimentation, innovation
  • Development of new, continuously-adaptive Organizing System
  • Resources deployed to protect people through transition to maintain stability
  • Acceleration of foundational sectors
  • Increased decentralization – devolve power to the edge (cities, regions)

Factors Driving Collapse

Context set by:

  • Increasing inequality
  • Increasing instability and fragility – reducing robustness and resilience to shocks e.g., pandemics
  • Increasing resistance to change
  • Climate change and environmental degradation
  • Financial instability: Increasing debt, tax, currency debasement
  • Increasing incompatibility of Organizing System
  • Linear/complicated thinking

Accelerated by reaction:

  • Increasing centralization of resources and decision-making
  • Choices based on looking backwards e.g., protect incumbent industries
  • Dogmatic decision-making, beliefs harden, power elites turn inwards and backwards

During periods of instability, as civilizations reach their limits and begin to fall, populations seek comfort in certainty and crave the status quo, reducing the system’s flexibility and making change harder to affect. Just at the point when our decision-making processes and Organizing System need to adapt fundamentally, they become increasingly inflexible and resistant to change.

Breakthrough

Societal breakthroughs to a higher order have never been planned. They have emerged through endless experimentation and iterations across cultures and geographies until a state accidentally stumbled across the right fit of production and Organizing Systems.

If we can develop a new Organizing System that is designed to benefit humanity, not any single individual or group of individuals, we will create some incredible possibilities over the 2020s and into the 2030s.

Poverty could cease to exist as the new system of production can fulfil our basic needs at near zero cost. The cost of the American Dream, thought of in terms of 1,000 miles/month of transport, 2,000 kWh/month of energy, complete nutrition (including 100 grams of protein, 250 grams of healthy carbs, 70 grams of fats, and micronutrients), 100 liters of clean water a day, continuing education, 500 sq. ft. of living space, and communications, could be less than $250/month by 2030 and half that by 2035.90 A new social contract that provides a minimum quality of life encompassing these basic needs becomes possible, not just in America but throughout the world.

Localized bonds of kinship and the need for scale that necessitated and underpinned nation states will be replaced by bonds of kinship that act in multiple dimensions, rendering our most fundamental centralized governance structures obsolete.

Digital-first institutions, communities, and bonds of kinship will replace the industrial, tribal kinship model. Distributed trust based on accessible, immutable, verifiable transactions and other personal and business history will undermine the value of brands and usurp even governments as the intermediaries of trust.

  • Technologies such as blockchain have the potential to disintermediate some of the core institutions of the industrial Organizing System, such as commercial and central banks, and political parties. It could also enable new concepts such as triple-entry accounting which would help us achieve new levels of institutional trust by allowing all parties in the network (consumers, creators, producers, voters, and individual investors) to have access to complete transaction records, not just the curated summaries that centralized institutions and auditors disclose today.

More capable of experimenting and adapting to shocks, millions of self‑sufficient, self-governing nodes will replace a few dozen centralized nation states, providing a vast increase in both diversity and quality of decision-making. As the need for scale and reach diminishes along with the flow of physical goods, and perhaps people, resilience will grow and supply-chain security will improve dramatically.

Dystopian Breakthrough

With little need to incentivize participation and support, the possibility arises of a system controlled and exploited by a small, all-powerful group and not managed in the interest of humanity.

  • Picture pandemics with viruses designed by individuals specifically to cause maximum damage, weather-modification warfare technologies, pocket rockets carrying nuclear weapons aimed at our water supply, automated mass quantum hacking of personal, commercial, and government bank accounts, and a new technologically-enhanced, ‘superior’ human species.

Collapse

The alternative is a breakdown of the current system as the world descends into a new dark age, capable of supporting only a fraction of the current population. In line with previous collapses, the complex causes of this breakdown might include climate change, famine, social unrest driven by increasing inequality, disease, or a multitude of other interrelated causes leading to increasing warfare or state failure. Underpinning them all, however, is a civilization that has reached its limits and an Organizing System that can no longer adapt to the pace of change.

Transitioning to the Future

For the first time in history, we have the opportunity to enable the emergence of a new Organizing System without first descending into a dark age.

In order to succeed, we must overcome a three-fold challenge:

1. Rethink the present and the future: To appreciate what is happening in the world today and develop the tools to understand and manage the emerging Organizing System in a way that is beyond our current Industrial Order models of thought.

2. Enable the future we want: To create the conditions in which this new system can emerge and flourish.

3. Bridge the journey: To manage the transition while somehow keeping our current system functioning in the face of unprecedented change long enough for a new system to emerge.

Enabling the Future we Want

The transition will be neither smooth nor planned centrally by any leading country. They are poorly positioned precisely because they have become so successful. In a globally-competitive world, smaller, hungrier, more adaptable communities, cities, or states, such as Israel, Mumbai, Dubai, Singapore, Lagos, Shanghai, California, or Seattle, are more likely to develop the winning Organizing System.

To overcome the power of incumbency, our mindsets must evolve to embrace change rather than fear it, to challenge pre-conceptions and rethink everything from first principles. We must resist incumbency at every level, from the influence of powerful groups to our dependency on current systems, concepts, and beliefs.

The emerging Organizing System will need to decentralize decision-making to communities and cities while finding ways to make meaningful decisions at a network level for issues that might require global management, such as control of technologies like AI and quantum computing, human population, pandemic response, shared resources (water, air, and forests), or climate control.

Bridging the Journey

Finding ways to create enough resilience to allow the transition to continue will be critical. Some of the Band-Aids on the industrial system will have a role in this process but should not be mistaken for credible, long-term solutions.

The transition will be hard, amounting perhaps to little more than organized chaos, but a strong vision of where we are heading and a clear explanation of why we must get there might help create the support needed to stay on track.

But left, right, and center must recognize that their world views are increasingly obsolete. We need to walk a delicate tightrope over the next decade – keeping social stability, cohesion, and trust without tempering the creative forces that drive innovation and progress. Pressure to move towards extremes will increase if we fail to understand what is happening, with an increase in resistance to change from incumbent mindsets, beliefs, behaviors, and interest groups. When the new system emerges, this tension will disappear.

One of biggest risks during the transition will be military conflict, as war has been part of the collapse of every leading civilization in history. As tensions rise, incumbent interest groups will weaponize uncertainty and inflame fear of ‘the other’ to instigate conflict. Information warfare has always been used in the Extraction Age, with false narratives, fake news, and pseudo facts creating and inflaming the demand for war.

States and regions that are reliant on the resource intensity of the current extractive production system, such as the Middle East and Russia, could be the first to break down. A drop in the cost of export commodities would cause a decline in government revenues, and thus a disproportionate cut in social spending and a rise in debts, both of which would make the system even more unstable. There will be calls for increased funding for conventional military warfare, even though they are increasingly obsolete in the age of cyber warfare, leading to a disproportionate increase in military expenditures as a percentage of government income. All these destabilizing forces will push these societies towards disintegration with disturbing possibilities, such as an increase in suppression and violence followed by civil unrest and chaos.

Choices

We can choose to be fearful of losing what we have and fight to defend it, but this is a battle we will undoubtedly lose. The collapse of the existing, extraction-based system has already started and is inevitable. Clinging to the principles and beliefs that underpin it, seeing them as immutable constants for all time rather than the man-made, ephemeral constructs they are, will simply accelerate this collapse.

Or we can choose to create an extraordinary future for humanity, a future where poverty no longer exists and every one of us has the fundamental right to all our basic needs. A future where we can all live and thrive well within the biophysical limits of the Earth, free from the existential threat of human-made climate change. A future where we can, for the first time in history, achieve true freedom.

RethinkX 2020-2030 Action Plan

High Level

  • Recognize where we are and the threats to our system. There is no return to ‘normal’. We are at a rupture point and the old rules no longer apply. Actions taken in a stable system can have the opposite effect when the system is out of equilibrium.
  • Be prepared for regular shocks throughout the 2020s. Examples include financial and real estate crises, pandemics, social unrest, state failure, environmental catastrophes, and mass migration. They will compound the destabilization caused by the rapid transformation of our production system brought about by technological disruption to every sector of the economy.
  • Pay attention to the cascading impacts of sector disruptions. Every major sector of the economy will be disrupted during the 2020s. The implications of these disruptions for other sectors will be just as impactful as the initial disruptions themselves. For example, the disruption of transportation will drive the market price of oil down to around $25 as soon as 2021, which will cause whole segments of the oil industry to collapse (including oil sands, deepwater oil, and shale/tight oil) with knock-on effects across their value chains (refineries, pipelines, shipping, engineering, construction, and steel). Since oil is the largest tradable commodity in the world, credit markets will be hit as the industry is unable to service its debt, or even goes bankrupt. Since oil is tied to the dollar, the world’s reserve currency’s hegemony will be undermined, with potential implications for interest rates (which affect, for example, real estate, construction, concrete, and car sales) and U.S. geopolitical power. Equally, the disruption of transportation will also drive the resale value of ICE cars, trucks, buses, and vans down to zero or even negative territory. A single percentage point decline in resale value could cost car manufacturers hundreds of millions of dollars. A collapse in resale value could cause liquidity problems, which again would have implications for jobs and credit markets. Disruption to information and communications could dramatically reduce the need for physical presence and hence transportation, which will be further impacted by the order-of-magnitude drop in shipping goods and resources (oil, coal, cars, and food), with knock-on effects for roads, trucks, rail, and shipping.
  • Balance the need for rapid change with measures to increase social, economic, and political stability. 
  • Create a vision and a clear plan to mitigate adverse outcomes, such as job losses, instability, and uncertainty.
  • Communicate them clearly in order to create broad social support.
  • Realize that this is a race to the top. Those that get left behind will be trapped in the legacy industrial system as it enters a death spiral of decreasing demand and investment and increasing costs. Those that lead will be in a position to set the new global rules of engagement.
  • Devolve power to cities, regions, and states. Encourage self-organization, management of local production, and flexibility in planning, investing, and governance.
  • Value robustness and resiliency. For example, one hundred million homes, commercial buildings, warehouses, and factories generating and storing electric energy is a far more robust and resilient system than a few power plants and a centralized, 20th century grid. Equally distributed, local food production through PF is far more robust and resilient than a centralized system that fails to deliver food during times of crisis. Robustness and resilience must be priced in when building new infrastructure.
  • Rethink old concepts like efficiency and economies of scale, which come at the price of vulnerability and single points of failure. Just as the internet created an information network that has proved capable of withstanding and absorbing shocks, the creation-based production system architecture will enable local production, storage, and distribution that are impervious to shocks. For essential needs such as food, energy, and transportation, aim for robust and resilient, local self-sufficiency, not vulnerable, just-in-time, global supply chains.
  • Recognize that we need no technological breakthroughs. This is largely about execution, and hence capital investments. Scale-up will deliver predictable and exponential improvements in costs and capabilities over time as the new system rapidly outcompetes the old, meaning that market forces will be a tailwind and not the headwind predicted by mainstream analysis.
  • Do not give credence to incumbents’ linear forecasts that fail to account for the complexity that drives non-linear improvements in cost and adoption of new technologies. Incumbent industries, captured government agencies, and the mainstream analysts they consult have different incentives to the rest of society. Before putting taxpayer, ratepayer, or pension money at risk, take the time to assess mainstream forecasters’ predictions from 10 or 15 years ago versus the reality today. Hold them accountable for their predictions, which have been wrong and continue to be wrong by orders of magnitude.

Accelerate the New System of Production

  • Information: 5G, broadband, small satellite networks, UAV, and other forms of modern information networks.
  • Energy: Solar, wind, and batteries.
  • Transport: Batteries, fleet-charging networks, support for AVs/micro-mobility, and integration and conversion of rail and public transit with TaaS.
  • Food: Distributed, localized, PF production hubs.
  • Materials: Building production capacity for organic materials through PF. These modern materials will help accelerate roll-out across the other foundational sectors.

The Rules

  • Governments should prioritize deployment of existing foundational sector technologies, not basic research and development. We already have technologies that will disrupt food, energy, and transportation. Government investment in R&D in these technologies brought them to this point but businesses can and should make the necessary investments to push solar PV, batteries, EVs, AVs, and PF to economic viability and disruption of legacy industries. Government support should focus on removing obstacles that stand in the way of widespread deployment.
  • Governments should enable well-regulated markets but should not participate in or distort industries. For example, today the U.S. government stockpiles 1.4 billion pounds of cheese that it pushes in the form of school lunches and the Supplemental Nutrition Assistance Program.
  • Governments should not own electric power generation, transmission, pipelines, and mines.
  • Remove barriers to the new system, including unnecessary red tape, regulations, and laws. For example, end onerous municipal, state, or federal requirements for distributed solar installations. Users must be connected within 24 hours of building a distributed solar/battery installation. In urban planning, end minimum parking requirements (off and on-street), exclusionary zoning laws, onerous housing density requirements, requirements for converting existing parking and garage space to housing, office, and shops, and be ready to close unnecessary streets and plan for their redevelopment into parks, higher-density housing, affordable housing, businesses, on-demand workspace, and mobile retail.
  • Stop all subsidies (direct and indirect) to legacy sectors.
  • Remove regulatory support for legacy systems. For example, gas connectivity should not be required for new residential and commercial buildings. Parking requirements should not be required for new-build residential or commercial projects. Allow builders to build parking according to consumer needs, not government requirements.
  • Design open, fair, transparent, and competitive markets that remove barriers to new entrants and reduce the ability for monopolies to form. For example, grant the right to individuals and businesses to produce, store, and trade electricity. Remove restrictions on decentralized power generation.
  • Create universal standards for new product approval, connectivity, and access. Provide easy, instant connectivity to the new electricity grid. Create open platforms and standards for the provision of TaaS. Create standards and remove barriers for EV connectivity to the grid (V2G).
  • Update and streamline evaluation processes using computer simulation. For example, to understand the impact of food products and their ingredients on human health.
  • Use tax and subsidy to accelerate the transition. For example, accelerated depreciation allowances on new infrastructure.
  • Price negative externalities by taxing the most damaging and unhealthy products to reflect their broader costs to society, including zoonotic viruses.
  • Use regulations to support the new system. For example, as a minimum, require all new buildings in urban areas to be electric-only (i.e. no gas or petrol allowed for space heating or even cooking). Better still, require all new buildings to have solar, battery storage, and electric V2G connections, and the ability to add more solar and batteries. Require all roof replacement projects to include solar generation.
  • Establish independent regulatory bodies where necessary. For example, to develop policies and oversee modern food technologies and their products, especially given the lobbying power of the conventional food industry and potential conflicts of interest between the old and new industries.
  • Accelerate scale-up of the new system through direct investment and investment incentives. For example, fast track development of AV technology.
  • Set and signal clear intentions to provide clarity and certainty to investors, businesses, and consumers through targets for adoption of new technologies and restrictions on old. For example, signpost a ban on gasoline or diesel vehicle sales from 2025 and the use of such vehicles from 2030. Signal plans to ban diesel generators in urban and suburban areas by 2025. Provide incentives to swap old diesel generators for battery storage (‘battery storage for clunkers’).
  • Adapt metrics and taxation to fit the new system. For example, for transportation, move taxes and fees for TaaS to a cents-per-mile basis to replace gasoline tax and annual vehicle fees. Keep gasoline taxes for ICE vehicles as the industry winds down. Do not tax solar self-generation or energy storage, only tax sales to the grid or third parties.
  • Adapt subsidies to fit the new system. For transportation, consider a zero-emission-miles (ZEM) not zero-emissions vehicle (ZEV) incentive. Incentives for purchasing vehicles (ZEV) encourage inefficient use of more vehicles that impose up to 10x more costs on society through inefficient resource utilization and externalizing costs (for example materials, traffic, and parking space needs).
  • Support the creation of open-source, transparent, collaborative networks – preferably international – to accelerate the pace of development.
  • Develop new models for community ownership of platforms and networks (energy, information, and transportation). Private ownership and competition should be focused on ideas and elements of the value chain that sit on top of the networks and platform (e.g., production, distribution, and retail).
  • Adapt intellectual property (IP) regimes. IP rights that are in place to create incentives for investment in certain sectors can also limit technological progress and create unnecessary costs for consumers. For example, imposing a pharmaceutical style IP regime on food would increase costs dramatically, slow the development of the market, and prevent an open‑source food production system from emerging. Time-limited IP rights should be granted only when in the public interest.
  • Allow companies to patent production methods but not biological entities, life, or genes – IP regimes should be process-focused rather than output-focused. This will encourage innovators to adopt and develop technology and encourage the development of open-source platforms and molecular, cellular, and biological system databases.
  • Give individuals control and ownership of data rights. Information is at the center of each disruption – consumer data on energy use, transport, personalized nutrition, and healthcare, for example, have value. Ensuring individual ownership and control of private data will provide economic benefits to consumers that are currently being extracted by third parties. It will also provide benefits like privacy and security. Treating user data like IP should be considered – individuals would own all personal data and have the right to license it to anyone on their own terms. That is, ‘legal agreements’, whereby companies like Facebook, Google, and Amazon, compel users to give up rights to their data in exchange for access to apps, should be illegal. Just like IP licensing agreements, individuals should have the right to license data on a per-use, time-limited basis. They should also be able to exclude usage. Companies should bid for the right to use individual data like they bid for people’s labor. Individuals should have the right to offer their data and IP under terms they find favorable.
  • Create rules to ensure open access to data and interfaces when in the public interest. For example, 3D High-Definition mapping and traffic flow data for transportation of energy, goods, and people should be openly accessible.
  • Design energy, transport, and production networks based on scale-free network design. For example, transition the centralized, one-way electric power grid to a networked, multi-way grid. This is like the transition of the centralized, one-way newspaper, radio, or broadcast TV information flow to an internet-based model where everyone can generate, store, and share or trade content. Aim for an energy network that resembles the internet.
  • Build adaptability into infrastructure. For example, ensure that new-build solar, wind, and battery capacity built around the centralized electric power grid is adaptable to the fully decentralized energy system that will emerge. Equally, encourage standards to ensure that a charging network for privately-owned electric vehicles is ready for the emergence of shared autonomous fleets.
  • Regulatory requirements should aim for flexible, distributed, localized, robust production networks. For example, road use should be flexible, so that both lanes and parking can be assigned to the most appropriate use (e.g., bicycles, scooters, delivery robots, robo-taxis, and high-occupancy vehicles) in real time. Plan for road usage fees to be based on social goals as well as the cost of infrastructure – for example, tax empty vehicle miles, congested road usage, and heavier vehicles at a higher rate than high-occupancy (e.g., buses) and light vehicles (e.g., bikes and scooters). Plan for flexibility in pricing and integrating real-time pricing information into mapping software so that vehicles can optimize driving routes in real time. Plan for the impact of disruptions on related sectors – for example integrating TaaS fleets with transit, rail, and micro-mobility solutions.
  • Balance safety with the need for rapid transition in regulatory-approval processes. There is inevitably conflict between approving new technologies (e.g., AVs or PF foods) and public safety. Regulatory approval processes can impose costs and delays on new technologies. Decisions here need careful consideration of the full costs and wider benefits of transition, not a narrow focus on direct impacts. Many barriers to adoption can be removed without any trade off.
  • Use rules around insurance to accelerate the transition. For example, no-fault insurance for AV technology would mean that insurers pay the injured party regardless of fault, where the owner of the vehicle is the insured party. In other words, use the same insurance system for human and autonomous drivers. Resist the pressure to subsidize human-driven vehicles when it becomes clear they are measurably more dangerous than autonomous vehicles.
  • Allow transportation companies to self-insure. This will provide incentives for them to develop safer transportation technology.
  • Governments should not insure outdated legacy systems, such as fossil fuel or nuclear energy projects.
  • Governments should be aware of the role they can play in shaping public opinion and resisting the inevitable push back from incumbent interests that are at risk from disruption.
  • Increase transparency. For example, modernize food labeling to better communicate health benefits, health risks, and environmental impacts to consumers. Labeling laws should have clear meanings. Establish clear, official terms and definitions in conjunction with the food industry, both legacy and new, that government agencies use when referring to various products and their production methods that do not favor one industry over another.
  • Prioritize consumers’ right to know. Instead of simplistic, static food labels, for example, consumers should be able to scan a QR code that shows details of the content of food they intend to purchase, including the source of all ingredients, manufacturing methods, heavy metal content, health impact to children and adults, and environmental impact. Data should include names of companies and GPS location of farms and factories for all ingredients, all of which are available in disparate databases today.
  • Create standards for users to download food data to nutrition apps so they and their nutritionists can optimize individual health outcomes.
  • Governments should lead by example in their own procurement programs. For example, all government buildings should install solar and battery storage. Transportation, governments, public transportation agencies, public schools, and postal systems should procure using a TaaS model on a cost per-mile basis, not for purchasing vehicles (pulling steel).

Investment and Business

  • Create new funding mechanisms that recognize changes in capital requirements. The capital required will be a mix of debt and equity, with returns underpinned by the offtake of production. Creating new funding mechanisms and driving capital towards them to incentivize investment in the physical infrastructure and value chains required to scale up the new system will be critical. Infrastructure-style financing mechanisms with separate layers of risk and return could be repurposed to provide funding at a smaller scale.
  • Use pensions and savings to help build out the new system. The fixed return profile of these investments (such as distributed power networks, food production centers, and TaaS) will closely match the liability profile of pension schemes (much more so than traditional pension portfolios) and are a good proxy for the ultimate needs for which pensions are designed to meet (such as food, housing, energy, and transportation). Consider changes to rules to drive pension assets and savings towards these products. This would provide a stepping stone towards distributed, participatory ownership (or a new social contract based on a ‘right’ to energy and other needs) and potentially avoid the fundamental restructuring of the pension systems in Western economies that is inevitable under the current system.
  • Set up simple regulations for individuals to invest in new infrastructure. Existing regulations (such as Investment Tax Credits) are geared to a system where big finance, corporations, and wealthy individuals invest big money in a few big projects. Society needs participatory finance where every individual can invest directly in smaller projects in their communities, cities, and regions.
  • Develop new legal mechanisms/asset classes so individuals can invest in small (residential, commercial, and industrial) solar and battery projects and A-EVs, which are cash-generating assets. Preferably, these should be digital-only mechanisms with real-time reporting and fast and direct cash disbursement to investors, municipalities (taxes), and suppliers. To increase trust in these new mechanisms, consider requiring triple-entry accounting. This would minimize the likelihood of accounting fraud as well as legacy credit rating and auditing bias.
  • Make distributed solar, wind, and battery storage projects REIT-able. This would make trillions of dollars managed by Real Estate Investment Trusts available to scale up the new distributed, robust, clean energy infrastructure.
  • Extend Master Limited Partnerships to solar, wind, and battery projects. This would make hundreds of billions (potentially trillions) of dollars from public markets available to clean energy projects.
  • Avoid investments in old system infrastructure that will become obsolete. Capital investments in legacy systems will be stranded. These include investments in the value chain of fossil fuels (mining, pipelines, and refineries), ICE vehicles (supply chain, manufacturing, and distribution), and industrial agriculture (farms, processing plants, and machinery). For example, the UK government is planning to spend £100bn on a high-speed rail link that will be obsolete before it is finished (early 2030s) when it could, for example, repurpose two lanes of highway that will no longer be needed to run autonomous electric road trains for a fraction of the cost (the technology for this is already good enough).
  • Do not use taxpayers or ratepayer money to invest in legacy projects. Over the foreseeable future, utilities will push for taxpayers to fund power plants (coal, natural gas, oil, and nuclear) under linear assumptions (such as high utilization rates for several decades). These capital investments are already stranded or will be over the next few years. Utilities should instead ask their shareholders to fund these legacy projects. If they are not good enough for shareholders, they are certainly not good enough for ratepayers.
  • Do not make static, long-term investment assumptions. We can no longer assume that a natural gas or coal power plant will be competitive in 10 or even five years. A 25-year NPV calculation will certainly be wrong. For example, you cannot assume a high plant-utilization rate in the future. As there is higher penetration of zero-marginal-cost solar, wind, and storage, legacy power plants will enter a vicious cycle as they are pushed into the role of peakers – the market for them will diminish dramatically so the price needed to sustain them will rise, decreasing the market further.
  • Do not make resale value assumptions based on legacy trends. For example, ICE vehicle lease agreements assume a certain resale value based on historic prices. This assumption can no longer be made. A more realistic assumption for any ICE vehicles sold today (with an average five-or-more-year lease) is that residual value will be zero or even negative. This will cause a collapse in the value of debt secured on these assets (including cars, equipment, and power infrastructure), which will in turn cause a death spiral for these industries as the cost of purchasing these new assets shoots up (lower residual value = higher monthly payments).
  • Prioritize investments based on the idea that everything (houses, vehicles, infrastructure, and people) will be connected to information networks. This means that everything should be thought of as a connected, smart device.
  • Mitigate disincentives to investment in markets with deflating prices. For example, guarantee recovery of investment for the installation of zero-marginal-cost technologies such as solar, wind, and storage.

Manage the Decline of the Old Production System

  • Remove direct and indirect incentives and support through fiscal, regulatory, and legal frameworks. Resist bailouts of industries. For example, remove subsidies and protection currently given to fossil fuel and nuclear industries.
  • Protect people, not businesses. Allow unviable incumbent businesses to go bankrupt, but protect people through policies to retrain, financial and healthcare support, and access to social capital through the transition. Also, create mobility to help people move to different locations with better job and quality-of-life opportunities.
  • Create debt-relief programs to help small businesses, individuals, and others within the value chain to exit their incumbent industries.
  • Expand social safety-net programs to ensure that individuals affected by disruption can either retrain for or transition to other livelihoods, or retire with dignity.
  • Anticipate that whole towns and regions will be disproportionally affected by disruption and enable programs to help local populations transition successfully to the new system. This includes providing educational, financial, healthcare, and social-capital support, as well as creating new employment opportunities.
  • Salvage critical assets of incumbent businesses still required while the new system is being built (such as power stations, mines, and farms). For example, temporarily, selectively, and minimally subsidize critical legacy fossil fuel-based generation capacity (as it becomes uneconomic) to bridge to the new system. No new fossil or nuclear is needed so resist the misleading push to subsidize natural gas or other energy sources to ‘bridge’ to the future.
  • Do not lock into long-term price contracts for legacy infrastructure. For example, as centralized fossil fuel-based energy collapses, commit only to short-term offtake agreements if necessary to keep the lights on.
  • Remove or resist the fightback from incumbent industries and mindsets in the form of phony science, lobbying (regulatory capture), and disingenuous demands to protect jobs and influence public opinion when they really seek to protect their own financial position.
  • Recognize that this process is deflationary and that high levels of debt will cause industries to collapse fast, which will have impacts far beyond the industries themselves. Central banks, governments, and investors will need to plan for a long period of supply-side deflation in the foundational sectors, just as there has been deflation in information technologies.
  • Break up the monopoly utility model in the same way telecom monopolies were broken up (which enabled the internet to break through). Large-scale generation, transmission, distribution, and retail should be separate companies in a given market. The electricity distribution company business model should be to maintain and upgrade poles and system stability (storage) and make money mostly on electricity trade transactions (like eBay or Uber). In an open, transparent, well-designed marketplace, companies will prioritize local generation because it will be cheaper.
  • Break up gas and electric power businesses (transmission, pipelines, and retail). This will create competition between gas and electric power.

Patching up the Old System

  • Ensuring social stability will be critical, a challenge made harder by profound changes to the workforce. Communicating a clear vision for the future (what it looks like and how we get there) will help create support and remove the incentive to look backwards for populist solutions. But more critical is a clear plan to mitigate the adverse consequences of change, which include job losses, increasing instability, and uncertainty.
  • Subsidize universal access to information network connectivity, TaaS, and distributed electric power, including the elderly, less able bodied, the poor, and those living in rural areas.
  • Enable universal access to lifelong education. America once innovated by creating the land-grant college program, which enabled the emergence of the state university system. In the 2020s, we will need a new universal, lifelong, decentralized, and participatory education-for-all system. To this end, begin the process of developing a new system of education that recognizes the full range of future needs and possibilities. Recognize short-term requirements (for example for engineers and coders) but realize that these needs will change rapidly. Allow experimentation with new nontraditional forms of delivery that could massively reduce costs and deliver a better service. Decouple quality of education from zip codes.

Enabling the New System

  • Decentralize and experiment at the edge. Allow states and cities far greater autonomy in decision-making, including areas such as immigration policy, taxation, currency, asset classes, ownership structures, intellectual property, representation and decision-making, education, public expenditures and investment, laws, and regulations.
  • Ensure the center does not crush the edge. The new Organizing System will represent an existential threat to incumbent interests, including nation states. Breakthrough will only be achieved if the center facilitates and embraces its own transformation and the eventual diminution of its own importance. While increased centralization to nation states is inevitable in the short-term, for us to succeed the center will need to diminish. This process is inevitable – as the new system emerges in a U.S. state or in Israel, Dubai, Singapore, Mumbai or elsewhere, the role of the federal government will shift profoundly. While its eventual role will depend on the Organizing Systems that emerge at the state or regional levels, the center is likely to become a collaborator not director, continually contributing to the network to create value.
  • Put systems thinking at the center of all scenario-planning and decision-making. While recognizing the shortcomings implicit in modeling future scenarios, be prepared to update assumptions and change course rapidly.
  • Focus governance and decision-making on principles of resilience, adaptivity, flexibility, and agility. Encourage novel approaches and embrace the lessons of experiment failure.
  • Be aware that a new social contract will be required, which might grant a right to needs (increasing over time as costs drop), while redefining concepts like work, reward, and purpose. A gradual transition will be required as society nears the end of the scale-up of the new system and jobs disappear. Concepts like a universal basic income that, over time, will become rapidly more affordable, and the pension reforms discussed above, can help bridge the transition.
  • Plan early for massive change to land use and the built environment. The simultaneous disruption of the foundational sectors will create extraordinary new possibilities for towns and cities and well as farming regions. Cities of far greater density and size will be feasible (manageable cities of 100m people will be possible by the early 2030s), as will far more distributed conurbations of almost limitless scale, as the cluster effect favoring cities diminishes and land is freed from food production and transportation. Furthermore, demands for land within and around cities will change as food production, goods manufacturing, and energy production decentralize and the transportation system radically changes in land-use requirements. There will be many competing interests for these areas and it is essential that regions begin to plan early, taking full account of all potential future uses.
  • Develop rules of the network and govern at the point of connection. As governance moves away from our current centralized, hierarchical structures, new structures will emerge at the level of the node (localized, self-sufficient community) and the network (far broader and ultimately global). Developing the rules of the network will be critical. This will not require global agreement, as the ‘best-fit’ Organizing System, wherever it emerges, is likely to spread rapidly as it outcompetes all others. Connection to the network will be vital to participate in any aspect of society and thus governing at the point of connection will be critical. Regions that hope to lead will need to focus on these network principles that will allow the new system of production to be managed and governed effectively.
  • Develop verifiable and immutable methods to establish trust across the network for all forms of institutions and human relationships.
  • Develop principles for usage and control of AI and biotechnology. Both AI and biotechnologies have the potential to create extraordinary opportunities for humanity, but as the cost and accessibility of both plummets, so the risks of rogue individuals or groups harnessing them for negative means rise. AI is likely to be integrated into decision-making across society, including in the allocation of scarce resources (market function) and policy decisions (democracy). Furthermore, AI will have a critical role across all aspects of the production and Organizing Systems, so creating clear principles that help mitigate the risks of adverse outcomes will be critical. A modern form of the Philadelphia convention, to decide on these principles and decide on what humanity should optimize for, might be needed.

List of Recommended Books

  • Frankopan, P. (2017). The Silk Roads: A New History of the World. Oxford, United Kingdom: Bloomsbury Publishing.
  • Gilding, P. (2011). The Great Disruption: Why the Climate Crisis Will Bring on the End of Shopping and the Birth of a New World. New York, New York: Bloomsbury Press.
  • Hidalgo, C. A. (2015). Why Information Grows: The Evolution of Order, from Atoms to Economies. New York, New York: Basic Books.
  • Kauffman, S. A. (2019). A World Beyond Physics: The Emergence and Evolution of Life. New York, New York: Oxford University Press USA.
  • Morris, I. (2011). Why the West Rules – for Now: The Patterns of History and What They Reveal About the Future. London, United Kingdom: Picador.
  • Scott, J. C. (2017). Against the Grain: A Deep History of the Earliest States. New Haven, Connecticut: Yale University Press.
  • Strogatz, S. H. (2003). Sync: The Emerging Science of the Spontaneous Order. New York, New York: Hachette Books.
  • West, G. B. (2017). Scale: The Universal Laws of Growth, Innovation, Sustainability, and the Pace of Life in Organisms, Cities, Economies, and Companies. New York, New York: Penguin Random House.
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