Everyone says "Systems Thinking." Almost nobody does it


· 6 min read
There is a phrase that has become obligatory in any serious conversation about climate, energy, governance, or organisational strategy. You hear it in boardrooms, in policy papers, in conference keynotes. "We need to think systemically."
And yet, there is little trace of progress. The problem is not insincerity. Most of what passes for systems thinking is the aggregation of siloed expertise dressed in more ambitious vocabulary. We look at our suppliers. We invite ten specialists. Each presents their analysis of one dimension, whether energy, water, supply chains, biodiversity, social cohesion. And then, implicitly, we assume that the sum of their contributions constitutes a systemic picture.
It does not. We have the trunk, the tail, the flank, the leg. We do not have the elephant.
Senior decision-makers, executives, ministers, institutional funders alike, share one professional reflex more than any other. When presented with a diagnosis, they ask: what is the solution? The result of decades of operating in environments where problems were complicated but ultimately bounded. You identified the constraint, allocated resources, measured the outcome. The discipline worked.
The problems we are now facing have a different structure. Complicated problems have solutions. Complex systems have behaviours — emergent, non-linear, sometimes irreversible. Applying solution-logic to a complex system does not solve it. It displaces the problem, often into a domain nobody was watching.
Copper illustrates this cleanly. It is among the most critical materials for the energy transition. Electrification of transport, grid expansion, AI deployments and renewable deployment all depend on it heavily. Chile and Peru together hold between 40 and 55 percent of known global reserves. Both countries face structural water scarcity. Extracting and refining copper requires enormous volumes of fresh water. Mining operations and local populations are already in direct competition for the same aquifer systems. A 2023 IEA analysis concluded that known copper supply trajectories cannot meet projected demand under even moderately ambitious decarbonisation scenarios.
This is a structural collision between the material requirements of the solution we have chosen and the physical limits of the places where those materials exist. The solution generates a new version of the problem in a different domain. That is what complex systems do. The same pattern holds for lithium, for phosphorus, for the specific grades of sand required for construction and semiconductor manufacturing. In each case, abundance at the aggregate level dissolves when you examine where the resource actually is, what extracting it requires, and what the second-order effects are on the ecosystems and communities that depend on the same inputs.
Arthur Keller, a French specialist in systemic risk, uses a medical analogy worth borrowing here.
A patient presents with chronic headaches, persistent skin problems, and digestive issues. A dermatologist prescribes a cream. A gastroenterologist recommends a herbal tea. A GP adds paracetamol. Each prescription is defensible in isolation. If the three symptoms are three separate problems, the patient may improve. If they are symptoms of generalised cancer, i.e. a systemic disruption of the organism, the prescriptions change nothing that matters. The doctor who hands over all three and says "we have solutions" is not the patient's ally, regardless of their individual competence.
Current approaches to ecological and resource risk follow the same clinical logic. Climate policy, biodiversity frameworks, energy transition roadmaps, circular economy regulation, each technically coherent within its own boundary, each a response to a symptom. The underlying condition, an economic model structurally dependent on extracting and degrading natural systems faster than they regenerate, remains unaddressed.
This explains why decades of effort, genuine investment, and real political will have produced trajectories that keep moving in the wrong direction at the aggregate level. In 2023, approximately 85 percent of the world's primary energy still came from oil, gas, and coal. Since the first major international climate conferences of the early 1990s, global CO₂ concentration has increased faster, not slower. Individual countries have made meaningful progress. The system has not.
The real challenge is that we extract renewable resources faster than they can renew themselves. We destroy part of the planet faster than its capacity to regenerate. And we pollute faster than the capacity to absorb the pollution. That is the problem.
Systems resist change with considerable force, absorbing reforms, domesticating innovations, tolerating alternatives at the margins while reproducing themselves at the centre. They also have tipping points. Thresholds beyond which change becomes self-reinforcing rather than self-correcting. The same non-linearity that makes systems hard to reform makes them capable of fast transformation once the underlying conditions shift sufficiently.
A growing number of enterprises have begun to locate the leverage by redesigning the fundamental logic of their business model rather than the characteristics of their product. Michelin is the most documented example. Rather than selling tyres, they sell kilometres, charging fleet operators per kilometre driven, retaining ownership of and responsibility for the tyre throughout its operational life. The incentive structure changes entirely. Longevity becomes a margin driver. Repair becomes preferable to replacement. Material efficiency follows from the contract, not from a sustainability commitment layered on top of an unchanged commercial logic.
The companies building this kind of model are not doing so primarily for ecological reasons. They are doing it because it produces more durable client relationships, more predictable revenue, and greater resilience against the supply chain volatility that is already intensifying and will continue to do so. The reduction in material throughput is a consequence of the logic, not the declared motive. That alignment between commercial interest and systemic sustainability is precisely what systems analysis looks for. Structural incentive redesign rather than heroic sacrifice.
This does not resolve everything. It does not address the geopolitical concentration of critical materials, the depletion of aquifer systems in copper-producing regions, or the institutional failures that allow short-term extraction to override long-term viability. The functional economy is one structural lever among several. Its significance is that it demonstrates the question can be reframed away from "how do we reduce the harm of what we already do" toward "what kind of economic activity remains viable as the conditions we currently depend on change."
The countries and enterprises that build alternative logics now are reading the situation more accurately than those still optimising within the current model. Resource competition is intensifying across every critical material relevant to the energy transition. Supply chain geography is being redrawn by a combination of physical constraint, climate disruption, and deliberate strategic decoupling between major powers. The institutions that have spent a generation assuming stable access to cheap inputs are increasingly exposed. The ones repositioning around different assumptions, material circularity, territorial resilience, performance-based rather than throughput-based revenue are not being idealistic. They are pricing in a trajectory that the optimists are still discounting.
The harder ask, for any executive or policymaker reading this, is to sit with a different question than the one professional training makes instinctive. Not "what is the solution to this problem?" But, "what am I building that would still make sense if the conditions I currently depend on were no longer there?"
That question does not have a quick answer. Sitting with it long enough to answer it honestly is the work. Most organisations will not do it until the pressure is acute. The ones that do it now, while there is still room to build deliberately rather than desperately, will not just be better positioned. They will have something to offer when the system reaches its next inflection and the people around them are looking for a direction. History rarely remembers the organisations that optimised well within a failing system.
Felicia Jackson

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