Engineering the next generation of LNG, gas, and hydrogen

Global energy demand continues to grow while expectations around affordability, energy security, and lower emissions continue to rise. For the gas industry, the challenge is no longer balancing these priorities but delivering projects that achieve all three. 

Natural gas and LNG remain essential components of the global energy system. At the same time, developers are under increasing pressure to reduce the carbon intensity of new facilities, accelerate project delivery, and improve capital efficiency. Global gas demand is expected to grow by around 380 bcm between 2025 and 2030, while approximately 345 bcm/year of new LNG export capacity is expected to come online by the end of the decade, led primarily by the US and Qatar.

How can projects reach Final Investment Decision faster, reduce execution risk, secure reliable energy supply, and lower emissions while remaining economically competitive over decades of operation? Increasingly, the answer lies not in choosing one technology over another, but in integrating proven solutions that deliver performance across the entire project lifecycle. 

Delivering lower-carbon LNG 

LNG has entered a new phase of development. The focus is no longer solely on adding export capacity, but on delivering projects that combine competitive economics with lower emissions, greater flexibility, and higher execution certainty. 

The priority today is to improve the performance of existing assets while designing the next generation of LNG facilities. Electrification, carbon capture, modularisation, and digital engineering are enabling LNG projects that are more efficient, more resilient, and better positioned to meet increasingly ambitious environmental objectives. 

Given that LNG facilities are among the most energy-intensive assets in the hydrocarbon value chain, the opportunity for improvement is considerable. Lower-carbon power, optimised process design, and carbon capture can substantially reduce operational emissions while preserving the reliability and competitiveness that global energy markets require. 

Designing for faster delivery 

One of the most significant changes shaping the LNG industry is the move toward standardised, modular and electrified solutions. Project developers are no longer optimising only for production capacity; they are seeking greater schedule certainty, lower execution risk, and improved carbon performance. 

Modular LNG solutions, such as SnapLNG by T.EN™, illustrate this evolution. By combining repeatable design, pre-assembled modules, and full electrification, these solutions can shorten project schedules, improve cost predictability, and reduce emissions while providing greater flexibility for deployment. Approximately 250 Mtpa of new LNG capacity is expected to enter the market by 2030, owners are increasingly looking for repeatable engineering approaches that accelerate project delivery while maintaining high standards of safety, quality, and performance. 

Hydrogen: building on existing strengths 

While LNG will continue to play a central role in meeting growing energy demand, hydrogen represents an important opportunity for industrial decarbonisation over the longer term. 

Global hydrogen demand reached nearly 100 million tonnes in 2024, yet low-emissions hydrogen still accounts for less than 1% of total production. Scaling production will require not only technology, but also coordinated infrastructure development, supportive regulatory frameworks, and integrated industrial ecosystems. 

Blue hydrogen offers one practical pathway by leveraging existing gas infrastructure while capturing a high proportion of CO₂ emissions. Solutions such as BlueH2 by T.EN™ are enabling industrial players to reduce emissions today while creating foundations for broader hydrogen economies tomorrow. 

Projects already operational, under construction, or having reached Final Investment Decision could enable more than 4 Mtpa of low-emissions hydrogen production by 2030, with a further 6 Mtpa achievable through supportive policies and infrastructure development. Ultimately, hydrogen’s success will depend on how effectively it is integrated with carbon capture, transportation and storage infrastructure, industrial clusters, and evolving energy systems, rather than being developed as a standalone solution. 

From projects to integrated energy systems 

What ultimately emerges is not a competition between different energy vectors, but a more integrated energy landscape. LNG, carbon capture, hydrogen, electrification, and digital technologies each have a role to play: their greatest value lies in how they work together to improve project performance, reduce emissions and strengthen energy security. Through its portfolio spanning LNG, hydrogen, CCUS, and digital solutions, Technip Energies is helping clients develop integrated energy infrastructure that responds to today’s market realities while remaining adaptable to tomorrow’s opportunities. 

As the industry gathers at Gastech 2026, one thing is becoming increasingly clear: the next chapter of the energy industry will be defined not by a single breakthrough technology, but by the ability to integrate proven solutions more effectively, execute projects with greater certainty, and continuously improve their environmental performance. 

In that context, LNG, gas, and hydrogen are not competing pathways. They are complementary elements of an evolving energy system designed to meet growing global demand while progressively reducing its carbon footprint. The pace at which these solutions are integrated, and projects are successfully delivered, will help define the pace of the energy transition in the years ahead.