The Role of Software Engineering in Advancing the Clean Energy Transition
When people think about the clean energy transition, they often picture wind turbines spinning offshore or rows of solar panels soaking up the sun. These images capture the visible side of change – the hardware. But what many don’t realise is that, behind the scenes, there's something less obvious doing all the heavy lifting… software.
As part of the software engineering team, it can sometimes feel like we’re the invisible layer – not always seen but making almost everything possible. Software is what keeps the whole system running smoothly, translating raw generation into reliable, usable energy and ensuring all the moving parts operate in sync. As renewable energy and storage systems become more widespread, that role only grows in importance. Wind turbines, solar panels, electric vehicles, and smart grids are all critical technologies on their own but, without software, they’re just individual instruments. Software is what turns them into an orchestra – conducting vast flows of data, synchronising every element in harmony, and building momentum towards a cleaner, net zero future.
Our Mission
At Energised Futures, Centrica’s in-house science, research and innovation incubator, our mission is to accelerate a new energy future and catalyse Centrica’s purpose of energising a greener, fairer future. We take early-stage research and turn it into real, scalable applications. And as Energised Futures grows, and innovation moves from concept to production, the demands on teams shifts - highlighting the need for clear roles and dedicated expertise at every stage of the journey.
Why a Dedicated Software Engineering Team Matters
Before the Software Engineering team was established, the Research Engineers at Energised Futures were doing everything. From exploring new ideas to building production-ready software and managing security and reliability. It’s a bit like asking someone to both design a car and build the engine at the same time – neither speedy nor sustainable.
By introducing a dedicated Software Engineering team, we’ve been able to create a clearer split. Researchers can focus on pushing boundaries and developing new ideas, while our team transforms those ideas into robust applications – deploying and maintaining them in our modern cloud infrastructure, and ensuring they are scalable, secure, and ready for real-world use.
That shift has already made a noticeable difference in how quickly and effectively innovation can move forward.
How we work
To support this shift and ensure ideas can move quickly from research into real-world applications, we use an agile way of working based on Scrum – a framework that breaks projects into short, manageable cycles and encourages regular feedback and improvement. Through regular check-ins and two-week ‘sprints’, we continuously prioritise tasks, test progress and adapt based on feedback. This approach helps us to break down complex challenges into manageable steps while staying flexible as research evolves. Rotating roles like Scrum Master also encourages shared ownership and collaboration across the team.
Ultimately, this approach helps us to learn faster, improve continuously, and build solutions that are ready for real world impact – something reflected in the progress we’ve already made...
Key Achievements
Our team has already delivered several impactful improvements to the way Energised Futures operates:
1. Deployed our Cloud Infrastructure
We have developed and deployed our own cloud environment, enabling us to host our applications independently and reduce our reliance on other teams.
In practice, this means we’re no longer waiting in queues or constrained by external timelines. We can build, test, and deploy at our own pace, which significantly speeds up how quickly research ideas turn into working solutions. It also gives us more confidence in the robustness of our systems, as we have full ownership over their performance and scalability.
To support this, we also aim to make the handover of completed and production-ready research projects to other business units within Centrica as smooth as possible. We do this by aligning our cloud infrastructure closely with the platforms and standards already adopted across the wider business.
2. Enabling Real-Word Asset Integration
Another task we’ve taken on is connecting physical devices in the Energised Futures Lab at the new Centrica Park, such as batteries, EV chargers, and heat pumps, to our cloud environment.
In simple terms, this means we can monitor and control these devices remotely, as well as collect and analyse the data they produce in real time. This creates a shared platform where researchers can test how their algorithms perform with real equipment, rather than just simulations, giving them much greater confidence in how those solutions will work in the real world.
3. Supporting Existing Research Projects
Our team has also continued to provide technical support to existing projects. This includes creating simulations that mimic asset behaviour, such as EV chargers. These simulations allow researchers to test ideas and accelerate innovation without being limited by the complexity or availability of real-world assets. We have also worked on ingesting and storing external datasets in the cloud, as well as building dedicated APIs to enable secure and reliable data exchange between systems.
These achievements show incredible progress, but they are only just the beginning. Together they demonstrate what’s possible when the right foundations are in place and point to a much bigger opportunity ahead.
Our Vision
We’re still a small team, early in our journey but one thing is already clear: software engineering is shaping the energy transition. Through backend systems, data processing, and real-time device communication, we ensure energy technologies work together seamlessly, efficiently, and reliably.
By building the digital intelligence behind these systems, we’re making an accelerated energy transition possible. From my perspective, that's what makes software engineering in this space so exciting.
Because a cleaner, more connected energy future doesn’t just depend on new technologies, but on how intelligently they work together.
