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Planetary Intelligence

 

Planetary Intelligence

To solve our global problems, we need to evolve into a global collective, taking inspiration from DNA, ants, and our own social success.

November 18, 2022

Try to imagine the future. What will our world be like? A techno-dream? A chaotic dystopia? You can find endless conflicting models of where we are headed, but they all start from the same premise: As long as humans are around, tomorrow’s Earth will be shaped by us, more than eight billion people burning, building, calculating, producing, discarding, and otherwise engaging with our planet.

Enabled by our ever-increasing scientific knowledge and technological capacity, we have transformed the land, water, and air of our planet, and we seem poised for bigger transformations to come. With all that activity we have also conjured unprecedented problems for our species, including climate change, widespread extinctions, nuclear weapons, and the threat of runaway artificial intelligence. It is difficult for us to comprehend our power for creation and destruction because that power operates on scales of space and time far beyond those of our individual experiences. A cough on the subway or a long commute to work does not hint at the possibility of a global pandemic or warn of a warming planet.

To make sense of our impact—and to guide ourselves toward a future we want, not one we merely succumb to—we need an entirely new conceptual framework. Along with my colleagues Adam Frank and David Grinspoon, I describe that framework as planetary intelligence. In our view, intelligent individuals like you and me may be a passing evolutionary phase on the path to a more advanced, collective intelligence, one that can operate intentionally at a global scale. The future of Earth and the future of intelligence may be, in this sense, one and the same.

Fantastical as the idea may sound, similar transitions have played out repeatedly in the history of life. Time and again, individuals have given way to collectives, because collectives often are better at responding to information about their environment and coming up with strategies for survival. Consider the social insects. No one ant in a colony has access to enough information to make intelligent decisions; individual ants seeking a new nest site cannot visit every possible home. Instead, they have evolved decision-making mechanisms that operate at the colony level, comparing the quality of potential nest sites based on the combined experiences of many ants that have each seen only a small subset of the options. Such information sharing has made ants and other social species highly successful, to the point that they cannot survive outside their social groups.

The origin of life was a planetary-scale phenomenon for standardized sharing of information.

Socially, our species is already collective. A typical modern human
can survive only hours to weeks in the wild, away from all societal
comforts. Our technology, which makes it possible for us to live
comfortably in nearly every habitat on Earth, was invented through our
social behavior. Our technology has progressed so quickly that our
current social structures are no longer sufficient to steer it, however.
Things invented only decades ago are already becoming outdated.
A prominent example is nuclear arms proliferation. After World War II
it became clear that new global norms had to be established to prevent a
nuclear catastrophe. We came to understand the threat, but we have
still not intelligently resolved it. The treaties and other makeshift
solutions of the last century are not resilient enough to contain
countries that might want to defect from these agreements.

We need to invent new collectives that can compensate for our
technological advances. Like ants, we cannot individually comprehend all
the information required to make the right decisions for survival. That
is why we must nurture planetary intelligence, creating systems to
sustain life on the same scales of space and time at which our
technology operates. The history of evolution tells us that this
transition can happen, and that it must.

The roots of collective intelligence stretch back to the earliest stages of life on Earth. It was the cooperative action of many molecules, interacting through complex webs of chemical reactions, that gave rise to the first living organisms. On their own, no atoms in an organism are alive, yet collectively they are. You are a self-assembling living system, a set of nested feedback loops of molecules that process information specific to producing other molecules—the molecules that compose you. You are a collective.

In this view, the boundaries of what constitutes a living thing are not well defined, because the chains of information propagating through molecules and other matter extend beyond the boundaries of what we call an individual organism. Across both space and time, every living thing is part of persistent ecosystems that include food webs of predator and prey species continuously cycling resources.

Extending this idea to the planetary scale leads us to the concept of the biosphere, the collective activity of all life on Earth, a concept introduced by the Russian-Ukrainian geochemist Vladimir Vernadsky in 1926. A key feature of the biosphere is that it maintains itself by shaping the whole Earth to be more conducive to the biosphere’s own ability to continue. In the 1970s, British environmentalist James Lovelock and American biologist Lynn Margulis built on Vernadsky’s work and proposed the Gaia theory, which holds that the biosphere’s self-sustaining process is somehow intelligent and even purposeful.

From the Gaia-level perspective, it becomes apparent that a defining feature of life is its lineages of information that self-produce and persist across time. The patterns that define you as you last far longer than the molecules that are constantly in flux, assembled and disassembled, moving in and out of your body. In cells, molecules need to survive degradation long enough to have their information copied, as is the case with DNA, or to be repeatedly rebuilt, as is the case with other biomolecules. Likewise for the knowledge in our minds: If we could not convey it to anyone else, it would not continue to exist.

Our survival may depend on a successful transition to a globally integrated, technological intelligence.

Sometimes these two ways of propagating information, biological and conceptual, are discussed in terms of genes and memes.
These are two of the most obvious projections of the many ways that
information structures our reality as it propagates through the physical
systems that we are and that we interact with. All life on Earth is
part of one information structure generating novel, self-sustaining
patterns. Our technology maintains the same pattern of propagation: The
genes in our cells and the memes in our minds ultimately trace their
information lineage all the way back to the origin of life.

The first living organism invented the first planetary-scale
information processing system, what we now know as the genetic code.
Most likely, many versions of life arose on the early Earth, each using
its own coding system and therefore unable to share information with the
others. Life went global by evolving a common genetic code and
biochemical machinery that could read it. The origin of life was a
planetary-scale phenomenon for standardized sharing of information.

That process is not so different from our modern standardization of
internet protocols, which in principle give anybody on Earth access to
the same information. Although our human cultures emerged locally, we
are becoming integrated into a technologically mediated, planetary-scale
system. This transition, too, was anticipated by Vladimir Vernadsky in
his concept of the noosphere, a global ecosystem of thought. He
predicted a future phase of evolution in which the planet is enveloped
in technology and intelligently steered by it. We have already entered
that future, but we are not yet controlling where we are going.

From the collection of molecules that formed the first
self-reproducing organism to today, intelligence has operated on
increasing scales of space and time. That expansion is an evolutionary
response to the threats posed to collectives—threats that can be managed
only by organizing at an even higher scale. Planetary intelligence is a
natural next stage. Our survival may depend on a successful transition
to a globally integrated, technological intelligence.

What can we learn about how to build a sustainable future by viewing the past this way?

In the past evolution of life, major transitions have been driven by new modes of information processing and storage, as beautifully summarized by Hungarian evolutionary biologist Eörs Szathmáry and British mathematician John Maynard Smith in their book, The Major Transitions in Evolution. Examples include the transition from single cells to multicellularity (which required division of labor and information sharing among cell types) and the transition from individuals to human societies (mediated by communication through language).

It stands to reason that the next major evolutionary transition will be one from societies to globally integrated planetary intelligence, able to process the unprecedented amount of information humans are accumulating. The challenge we face is that, even with our global technology, we haven’t yet reached this scale of global intelligence. Earth is too technologically immature to deal with our existential problems because we have not yet evolved intelligence that operates on the scale at which these problems exist.

Take climate change, which is altering the environment across the globe and will make itself felt over many lifetimes. None of us experiences information on those scales, so it is hard for us to be motivated as individuals to solve the threat and decide on the best ways to do it. Our current top-down regulations and restrictions exist in entities, mainly governments and corporations, that are much smaller in time and space than the systems they aim to regulate.

It may well be that we cannot solve our threats this way. That is why the concept of planetary intelligence is so important. A handful of regulations enacted over a period of several years cannot address our current existential crises. We need intelligent systems, including automated monitoring of the planetary environment and of our technological infrastructure, that have evolved to operate on the relevant timescales of decades or centuries.

Planetary intelligence is likeliest to emerge from the collective behavior of our technology and ourselves, acting in concert just as tissues work together to form functioning multicellular organisms. The cellular hardware and software of life have persisted for some 3.8 billion years. We have not yet evolved any technology that might last so long. Perhaps we could, though. To do that, we must transcend our human cognition. We need to think fundamentally differently about the scales of the problems we face and about what it will take to address them.

Our technologies are already starting to work in concert with us in novel ways that we may not even perceive.

There is a common misconception that intelligence is just a form of
computing and that we can engineer our way to a human-level (or even
superhuman) intelligence by building the right individual algorithms
into a box. This is the motivation behind most current big AI projects.
Artificial general intelligence, however, should not be our end
goal—assuming it is even possible. What we need is artificial global
intelligence, which will not emerge from the current model computer
scientists are using to design our most (so-called) intelligent systems.

As with previous forms of collective intelligence, planetary
intelligence is likely to look like a transition rather than a single
invention. Our technologies are already starting to work in concert with
us in novel ways that we may not even perceive for what they are; they
are beginning to act collectively, and we are part of that feedback
loop. Take, for instance, open-source software platforms like WordPress,
which provides unbounded space for computer software to evolve because
its source code is available to study, modify, and share, both by humans
and by other algorithms. For now, such systems are still mostly
human-mediated, but part of being a good ancestor is setting up
ecosystems that can continue to flourish far into the future, long after
those of us alive today persist only as traces of information
propagating in the technology we created.

It is not much of a stretch to imagine comparable systems emerging to
manage energy and resources on a global scale. Our awareness of climate
change is already an example of the Earth modeling its own possible
futures, as pointed out by philosopher Benjamin Bratton.
The pressing question for us now is: How quickly can we evolve
technological systems that not only anticipate possible futures but also
steer us collectively to the ones we want?

Unlike cells or ants, we have the capacity to absorb the lessons from
major transitions in the history of life. We also have the
self-awareness to recognize problems unfolding on scales that we, as
individuals, are not evolved to deal with. Now it is up to us to
facilitate the planetary intelligence needed to solve them.

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