geopolitical-volatility
The State of Perpetual Tension
A single quantitative data point summarizes the new global energy normal. According to the Global Gas Report 2026, published jointly by the International Gas Union (IGU) and Snam, global natural gas demand reached a historic record of 4,202 billion cubic meters in 2025. This volume represents an increase of 69 billion cubic meters compared to the previous year, corresponding to a growth rate of 1.7%. The global energy system entered 2026 from what appeared to be a solid position, characterized by diversification of routes and significant investments in LNG infrastructure and storage. However, this resilience built up in recent years is experiencing unprecedented pressure, not so much due to a lack of resources, but rather due to the complexity of their physical and political distribution.
The IGU’s forecast is clear: supply tensions will remain acute for at least until next summer. The market is pricing in a prolonged tightness that exceeds traditional winter seasonal cycles. This dynamic is not simply a spike in demand, but a manifestation of a systemic constraint where production and logistical capacity struggles to respond to geopolitical volatility. Europe, in particular, is having to reconfigure its reserves while Asia maintains robust industrial demand, creating a direct conflict for available LNG ships.
The Paradox of the Blocked Infrastructure
Global tensions clash with paradoxical local realities. In the United States, a country aiming to maximize its natural gas production to fill gaps created by trade restrictions in the South China Sea and the Persian Gulf, an unexpected regulatory constraint has emerged. The Energy Information Administration (EIA) predicts that natural gas output will reach new historical highs in 2026 and 2027. Yet, just as domestic and international demand grows, the infrastructure framework faces significant legal roadblocks.
A prime example is North Carolina, where a judge has blocked the advancement of a natural gas power plant designed by Duke Energy. This decision illustrates how the resilience of the system does not depend only on extraction capacity, but also on the speed at which new assets can be built and connected to the grid. The local regulatory blockade acts as friction that reduces overall operational flexibility. While the global market seeks to absorb external shocks, advanced economies must navigate between the physical need to ensure energy supply and the regulatory constraints that slow down or prevent the realization of new infrastructure.
This phenomenon is not isolated. The energy transition is not eliminating dependence on gas, but shifting its weight towards projects that are more complex to approve and implement. Nominal production capacity increases, but the deployment speed of conversion and storage assets decreases due to longer authorization processes and local opposition. The result is a system that, while having the resources, struggles to allocate them promptly where the need is most acute.
The Transatlantic Competition for Storage
The global gas allocation mechanism is changing radically. The war in the Middle East has disrupted LNG exports from the Gulf, forcing Europe to compete directly with Asia for limited shipments. This dynamic has created an outbidding effect among European buyers, who are trying to fill their storage sites before winter, driving prices up and generating prolonged demand destruction in other sectors.
The stability of the system is maintained thanks to diversification of sources, but flexibility is eroded. The IGU emphasizes that the system entered 2026 more resilient than in 2022, thanks to past investments in infrastructure and storage. However, this resilience comes at a cost: the ability to absorb subsequent shocks depends on the availability of financial liquidity to purchase shipments at high prices and the logistical capacity to transport them. Europe, with its plan to ban LNG imports from Russia starting in January 2027, is in a strategically vulnerable position that requires careful management of reserves.
The competition for storage is not only an economic problem, but also a physical one. LNG ships are finite resources and their rotation depends on the availability of regasification terminals and weather conditions. A delay in deliveries or an interruption in one of the main transit routes can have cascading effects on the entire European system. The current tension is therefore the result of an overlap between growing structural demand and geographically fragmented supply.
Governance as a Structural Constraint
In addition to physical and energy constraints, an increasingly critical factor is emerging: the governance of infrastructure projects. While governments are investing billions to secure supply chains for critical minerals and energy, funding for governance and community engagement seems to be shrinking. A report from the Trust, Accountability and Inclusion (TAI) Collaborative highlights how the demand for minerals is growing rapidly, but development aid and legacy philanthropic support are decreasing.
This imbalance creates a systemic risk to long-term energy resilience. Without strong governance, infrastructure projects risk delays, additional costs, and local opposition that compromises their feasibility. The $180 million investment by the U.S. Department of Energy in the PROSPECT program for mining education is an attempt to bridge this gap, but it represents only a fraction of the resources needed to support global demand growth.
The lesson learned from the gas sector is clear: resilience is not built solely with pipes and ships, but with institutions capable of managing local and global complexities. The energy system of the future must integrate physical capabilities and effective governance to address tensions that will continue to manifest in the coming years. The transition is not an event, but a continuous process of adapting to increasingly stringent constraints.
Photo by Korng Sok on Unsplash
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