For more than a decade, global energy policy has been framed around a simple but powerful concept: the energy trilemma.
Policymakers, industry leaders and international institutions have attempted to balance three competing priorities – energy security, affordability, and environmental sustainability.
This framework helped guide the early stages of the energy transition as governments sought to reduce carbon emissions while ensuring reliable, competitively priced energy supplies.
It reflected a world in which global energy markets were relatively stable, supply chains were increasingly globalised, and geopolitical tensions were assumed to be manageable. That world no longer exists.
The energy transition is now unfolding in a far more complex strategic environment defined by geopolitical competition, supply chain fragmentation, technological rivalry, and climate-related disruption.
In this new landscape, energy systems are no longer viewed simply as economic infrastructure. They are increasingly understood as strategic national assets – critical to economic resilience, industrial competitiveness, and national security.
As a result, the traditional energy trilemma is evolving into a new framework. Increasingly, governments are approaching energy policy through a broader lens in which national security becomes the overriding objective, supported by three key pillars: resilience, diversification, and controllability. This emerging paradigm could be described as “the new energy trilemma”.
From energy policy to strategic security
Recent global events have accelerated this shift in thinking.
The weaponisation of energy supply during geopolitical conflicts, volatility in global fuel markets, and growing competition over critical minerals and energy technologies have highlighted the vulnerabilities embedded in modern energy systems.
At the same time, the energy transition itself is creating new forms of dependency.
Clean energy technologies – including batteries, solar modules, wind turbines and electrolysers – rely on supply chains that are often concentrated in a small number of countries. The materials required to produce these technologies, such as lithium, cobalt, nickel and rare earth elements, are also geographically concentrated.
The result is a paradox: while the transition to low-carbon energy promises long-term sustainability, it also introduces new strategic vulnerabilities. Governments are therefore beginning to rethink the design of their energy systems not only in terms of emissions reduction or cost efficiency, but also in terms of system resilience and strategic autonomy.
Resilience: Designing energy systems that withstand disruption
Resilience refers to an energy system’s capacity to withstand shocks, adapt to disruptions, and recover quickly from unexpected events. These disruptions can take many forms – supply interruptions, infrastructure failures, cyber-attacks, extreme weather events, or geopolitical conflict.
Resilient energy systems are built with redundancy and flexibility. They avoid single points of failure and incorporate a diverse mix of infrastructure and technologies that keep systems functioning even when parts of the network are compromised.
Increasingly, resilience is being enhanced through distributed energy systems, battery storage, microgrids, and digital monitoring technologies that allow operators to anticipate and respond to disruptions in real time.
The shift toward decentralised and flexible energy architectures reflects a broader recognition that future energy systems must be capable of absorbing volatility rather than assuming stability.
Diversification: reducing strategic dependency
Historically, diversification referred primarily to balancing different fuel sources – coal, oil, gas, nuclear and renewables. While this remains important, the concept today has evolved into something much broader.
Diversification now encompasses technologies, supply chains, geographic sources of energy, and infrastructure pathways. In an increasingly uncertain geopolitical environment, this broader approach is essential for reducing systemic risk.
When energy systems depend heavily on a single supplier, fuel, technology or trade route, they become inherently vulnerable to disruption. By spreading risk across multiple sources and systems, countries can significantly strengthen their overall energy security.
This principle is already shaping energy policy. Governments are seeking to diversify sources of critical minerals, develop multiple supply routes for natural gas and electricity, and support a wider portfolio of low-carbon technologies rather than relying on a single technological pathway.
However, the timing of deployment often becomes a barrier to diversification. Many alternative energy solutions cannot be implemented overnight, and the perception that they require long development timelines can discourage early action.
In reality, deployment can often be significantly accelerated through rapid scaling, provided the appropriate incentives are in place. In many cases the challenge is less about the physical speed of development and more about how such projects are valued within policy and investment frameworks. If governments properly recognise the broader strategic benefits these systems provide – particularly their contribution to resilience and energy security – deployment timelines can shorten considerably.
Diversification is therefore emerging as a form of strategic insurance, ensuring that disruption in one part of the energy system does not cascade across the wider economy.
Controllability
Controllability refers to the degree to which nations retain sovereign influence over the critical elements of their energy systems. This includes the ability to manage supply reliability, maintain operational stability, and exercise strategic oversight over key infrastructure, technologies and supply chains.
In an increasingly uncertain geopolitical environment, controllability is becoming a central consideration for governments. Energy systems underpin economic activity, industrial production and national resilience.
Without sufficient control over these systems, countries risk becoming dependent on external actors whose political or economic interests may diverge from their own. More fundamentally, the concept of controllability is closely linked to the more effective use of localised and regional resources.
Over the past several decades, the global economy has become accustomed to relying heavily on internationally traded energy commodities. While this model has delivered efficiency and scale, it has also introduced new vulnerabilities – particularly where supply chains become concentrated in a limited number of regions or where geopolitical tensions disrupt trade flows.
Looking ahead, the world may gradually evolve toward a more regionally diversified energy landscape, where local and regional energy systems play a greater role in meeting both societal and industrial demand. This does not imply a retreat from global trade. Rather, it suggests a more balanced model in which regional energy ecosystems provide greater stability and resilience, while international markets continue to support complementary flows of energy and resources. Such an approach can strengthen system controllability, allowing nations and regions to optimise the use of domestic resources, improve infrastructure coordination, and enhance the resilience of critical industries.
Importantly, this perspective also highlights the need to draw much closer connections between energy systems, economic strategy and environmental objectives. Too often, discussions around climate action and economic development are treated as separate policy conversations. In reality, the transition now underway demands a far more integrated approach – one in which energy policy, industrial competitiveness, resource efficiency and environmental stewardship are addressed together within a coherent strategic framework.
In this context, controllability becomes not simply a question of infrastructure ownership or system management, but a broader capability: the ability of nations and regions to shape energy systems in ways that support long-term economic resilience, industrial development and environmental sustainability simultaneously.
Implications for the global energy transition
The emergence of the new energy trilemma has profound implications for how energy systems are designed and financed. Energy policy is becoming more closely aligned with industrial strategy and national security planning. Governments are investing heavily in domestic infrastructure, encouraging local supply chains, and strengthening regional energy cooperation.
The shift is also influencing how new industrial zones and infrastructure projects are developed. Increasingly, major industrial clusters are being designed as integrated energy ecosystems, combining renewable power generation, storage, flexible demand, hydrogen production, carbon management and digital energy optimisation. These ecosystems enhance resilience, diversify supply pathways and improve system controllability – making them attractive platforms for both industrial investment and national energy security.
A strategic reframing of the energy transition
The global energy transition is still fundamentally about decarbonisation. But it is increasingly also about strategic resilience. In a world characterised by geopolitical competition and supply chain uncertainty, energy systems can no longer be designed solely around cost and emissions. They must also be capable of supporting national stability, economic competitiveness and technological sovereignty.
This article is the first part of a series on the new energy trilemma by Peter Godfrey, Asia Pacific managing director of Energy Institute. The piece was first published by the Energy Institute.
