________________________________________________________________________________________________________________________
Scaling to match demand
Deploying gas can be an energy efficient solution to bridging intermittency. Gas generators can run at 80 percent efficiency in combined heat and power( CHP) configurations when paired with heat and steam recovery. Modular generators can be scaled from single units to multi-MW installations to match demand. Crucially, they are grid-code compliant and designed to meet national regulations for frequency response and voltage control. This means that, rather than being back-up systems, they are complete grid assets.
Permanent infrastructure takes years to get fully functional, whereas temporary gas generation can be mobilized, delivering 200 MW + within a few months. This means that gas can be used to smooth out any fluctuations in renewable power generation, support during seasonal peaks, as well as during infrastructure upgrades. These upgrades are necessary to deliver a low carbon future, but we cannot skip the steps needed to get them up and running. It is these steps along the journey that gas makes possible.
Baseload, plus batteries
The strengths offered by gas generation shouldn’ t overshadow the positives of battery power, but rather show the current need for both to be used in tandem. Intelligent hybrid systems, like the kind deployed at a data centre in Dublin, use batteries to manage rapid fluctuations and peak shaving, while gas generation provides sustained baseload capacity.
In the example from Dublin, the data center used 14 MW of gas-fired generation and a 1MW BESS in order to be operational, while connections to the grid are being planned down the line. Batteries bear the brunt of rapid load changes and short-term peaks while the consistent baseload power comes from gas generators. This approach means major projects and critical facilities can be operational with reliable, scalable, and flexible energy.
SCADA platforms make remote connectivity, third-party system interoperability, and sophisticated load management possible and optimize each part’ s contribution. By using a hybrid system with advanced controls, it is possible to exceed the efficiency and operational gains that either power type can achieve on its own.
Energy systems that are decentralized and can deploy closer to the point of consumption can reduce transmission loss and alleviate grid congestion. This has the added benefit of building resilience against widespread outages. Temporary modular gas platforms can deliver resilience where and when needed. Installations can be configured across multiple sites, providing distributed generation that supports local grid stability while reducing stress on transmission infrastructure.
Businesses using decentralized systems have operational certainty, safeguarding operations for critical processes such as manufacturing, infrastructure and data centers.
The reality of progress
There is of course criticism of any fossil fuel use, and it is only right that all use of nonrenewable energy is closely monitored and scrutinized. Currently, we rely on the grid for an enormous portion of our lives, livelihoods, the economy and much of our healthcare. Two wellestablished principles are at play here: the grid must be kept stable, and we must transition to renewable energy. Rather than conflicting with one another, these provide framework for how to transition safely.
The energy transition is in progress and continues to move forward. Gas can provide the bridge we must traverse to see the grid fully decarbonized.
The infrastructure being deployed is temporary and adaptable. Unlike permanent power stations representing decades of capital
16