%20(1200%20x%20475%20px)%20(4).png)
The global e‑NG market has moved well beyond just early pilots. With more than 150 projects now tracked in the e‑NG Coalition’s monthly Global Project Tracker, the sector is building real industrial momentum. Our latest data shows that production is on course to reach 1 Mt by 2030, climbing to around 1.3Mt by 2031, driven by commercial‑scale developments across Europe, North America, and fast‑advancing hubs such as Japan.
This growth confirms that e-NG (e‑methane) could be an operational solution. The strengthened project pipeline also shows that e‑NG could function as a system‑level solution, capable of reinforcing today’s energy networks while supporting long‑term climate neutrality. At the same time, the numbers point to a clear challenge: supply must expand faster to keep up with the demand signals coming from energy markets, infrastructure operators, and policymakers.
In addition, the sector’s evolution comes at a moment when energy systems are being reshaped by geopolitical pressures, supply disruptions, and binding decarbonization targets. In this shifting landscape, renewable gaseous fuels are taking on a more strategic role than ever before, and e‑NG is increasingly becoming a critical component of the energy system taking place.
This trajectory cannot be understood without considering the broader geopolitical context. Since 2022, energy security concerns have intensified the need to diversify supply sources and reduce dependence on imported fossil fuels. Recent international developments have once again exposed the structural fragility of global energy systems.
Tensions involving Iran and instability around key maritime routes, particularly in the Strait of Hormuz, have renewed concerns about the security of oil and LNG flows. A significant share of internationally traded energy passes through this corridor, making it acritical chokepoint. Any disruption, whether physical or perceived, can immediately affect prices, insurance costs, and supply reliability.
The global gas market also remains highly sensitive to developments involving Russia, which continues to play a major role through LNG and redirected exports. This has contributed to ongoing volatility and reinforces the reality that the fossil fuels trade remains deeply exposed to geopolitical risk.
The U.S. has taken steps to stabilize global markets and avoid supply shocks, while EU leaders have reiterated the urgency of reducing external dependencies and strengthening internal resilience, showing that short-term crisis management is no longer sufficient but structural solutions are needed.
In parallel, decarbonization targets remain in place and, in many cases, are becoming more stringent. In Europe, frameworks such as RED (Renewable Energy Directive) III have further reinforced binding renewable energy targets, increasing the overall ambition for renewable energy deployment across sectors. For example, they have also formally recognized renewable fuels of non-biological origin (RFNBOs), including e-NG (e-methane), within the EU’s decarbonization architecture and their possible role in achieving climate objectives.
Yet the move from regulation to real‑world deployment is not happening fast enough. Implementation rules, certification systems, and market incentives remain unclear or delayed, creating a gap between policy ambition and on‑the‑ground progress. This comes at a time when industry and energy consumers urgently need reliable low‑carbon solutions.
However, this is not a new observation. Initiatives such as REPowerEU, proposed by the European Commission in 2022, had already highlighted the need to scale renewable gas production. This idea also aligns with broader calls from financial and institutional actors, including the European Central Bank, to accelerate investment in renewable energy capacity as part of strengthening economic resilience. Most recently, the ECB emphasized that energy price shocks have played a central role in recent inflation dynamics, complicating efforts to maintain price stability across the euro area.
Because fossil fuel prices are largely driven by global markets, Europe remains vulnerable to external volatility and accelerating the shift toward domestically produced renewable energy is therefore essential for stabilizing energy costs and strengthening overall economic outlook. The ECB also stressed that the speed of the transition is one of the most critical challenges and delaying action prolongs exposure to volatility and may lead to an eminent energy crisis.
In this context, renewable gases are increasingly viewed as strategic pillars of the energy transition – sooner than ever. While electrification remains important, it is structurally complex, capital‑intensive, and slow to deploy at scale. It requires major grid expansion, system integration, and lengthy permitting processes. As a result, electrification alone cannot deliver the speed or system‑wide coverage required in the near future.
Fortunately, e-NG (e‑methane) directly addresses this gap. By enabling renewable energy to flow through existing gas infrastructure, it provides a flexible, dispatchable, and immediately scalable energy carrier. It allows renewable energy to be stored, transported, and used where and when it is needed without waiting for entirely new systems to be built, and can reach end‑use equipment with minimal modifications. In this sense, e-NG (e‑methane) is not only a complement to electrification but a critical tool to help address in a faster way the market demand, price instability and still maintain climate neutrality targets.
Industry mapping exercises show that e-NG (e‑methane) production capacity has grown significantly in recent years, with more projects advancing toward final investment decisions and early commercial deployment.
A notable example is the large‑scale synthetic methane initiative led by Tree Energy Solutions (TES-H2), one of the Coalition’s members. In March 2026, TES-H2, together with partners OX2 and Södra, advanced a new e-NG (e‑methane) project in Sweden into the pre‑FEED phase, a key milestone in Europe’s transition toward commercial‑scale deployment. The project will produce e-NG (e‑methane) using renewable hydrogen and biogenic CO₂ sourced from industrial processes, demonstrating how existing industrial ecosystems can be integrated into synthetic fuel production.
TES-H2’s model is particularly illustrative of the sector’s direction: producing synthetic methane in resource-efficient locations and transporting it through existing gas and LNG systems, thereby contributing to both energy security and decarbonization objectives.
To support a clearer understanding of this evolving landscape, the e‑NG Coalition has developed a global monthly ProjectTracker, verified and backed by our partners, Gena Solutions, that provides a structured, data‑driven overview of e-NG (e‑methane) deployment worldwide. The tracker offers granular insights into how the market is progressing across regions and value chains.
The latest analysis shows that the global e-NG(e-methane) project production could reach approximately 1.3 Mt by 2031, based on announced start-up timelines. At the same time, the data highlights that some projects are still in early development stages, underlining both the strong momentum in project announcements and the distance still to be covered before full commercial scale up.
Geographically, the pipeline remains highly concentrated. The United States, Finland, Canada, and Australia account for nearly 90% of projected capacity, indicating that a relatively small group of markets is driving global progress. However, a significant share of projects is being developed with export‑oriented models targeting Europe and Japan, signaling the emergence of international value chains for e-NG (e‑methane).
Beyond headline figures, the monthly Project Tracker captures detailed project‑level information, including project name, developers, country, city, CH4 capacity, development status, start‑up timelines, CO₂ type and sourcing, H2 type, electricity mix, methanation type, licensor methanation, gas transport, LNG partner, end-use sector, and if the production is destined for the domestic market or to export. This level of detail enables a more precise assessment of where progress is occurring, how value chains are forming, and where bottlenecks remain.
Taken together, the data not only highlights the acceleration of project development but also provides critical insights into the future of e-NG (e‑methane).
E-NG (e‑methane) is no longer an experimental concept, but it is emerging as a foundational component of the future energy system. The data shows a sector gaining speed, driven by industrial commitment and reinforced by geopolitical and economic pressures that make diversification and resilience more urgent than ever. Yet the gap between projected supply and expected demand underscores a simple reality: momentum alone is not enough. Clear regulatory frameworks, credible certification systems, and targeted incentives are essential to turn early‑stage progress into large‑scale, reliable production.
If governments, industry, and financial institutions align around the need for acceleration, e-NG (e‑methane) can evolve into a system‑level solution, and particularly, one capable of strengthening energy security, stabilizing markets, and delivering meaningful decarbonization across hard‑to‑electrify sectors.
The coming years will determine whether the world can scale quickly enough to meet these challenges. What is already evident is that e-NG (e‑methane) will play a decisive role in shaping a more resilient and sustainable global energy landscape.
%20(1200%20x%20475%20px).png)
