How to Think About Energy In A Changing System
Most of us move through our days without thinking much about where our power comes from. The lights turn on, the devices charge, and the building runs. Until something breaks, your energy provider increases their prices, a blackout catches you off guard, or a news story about grid failure somewhere makes you wonder, briefly, whether that could happen where you live.
Those brief wonders are worth paying attention to because the energy system underneath modern life is at a turning point, and the decisions being made right now about how to redesign it will shape what becomes possible across almost every domain. Including healthcare, food, cities, transport, and the way communities organise themselves. This is not a “think about it later” thing, as the transition is already underway, and most people are arriving at the conversation later than we need.
The good news is that being curious about energy is enough to get you started. You do not need to be an engineer or an energy policy expert to think usefully about this. You just need to be willing to ask a few different questions than the ones you have been asking. Here are a few actions you can take today to help build your agency when it comes to the future of energy and power systems.
1. Shift your thinking to “what could we build from scratch?”
The instinct when a system shows strain is to look for someone in charge to fix it. And for most of the history of electricity, that made sense as our energy was centralised by design. The power came from somewhere distant, travelled through infrastructure you did not own or manage, and arrived at your wall. All you have to do is pay the bill.
That model is shifting as what’s being developed are early stages of decentralised solar, home battery storage, community microgrids, and peer-to-peer energy sharing between households and buildings.
These are not fringe concepts being tested in remote locations. They are operating in multiple countries right now. And the logic behind them is simple: the closer the source to the user, the less energy is lost in transmission and the more resilient the system is when something fails. But more than that, it gives communities something they have rarely had in the entire history of electricity: real control over their own power supply.
Action: Look up what is actually happening with energy infrastructure in your area. Not to get into the politics of it, but just looking at the ground-level activity. Are there community microgrids operating nearby? Is rooftop solar penetration unusually high somewhere close to you? What percentage of your local grid currently runs on renewables? That kind of specific knowledge is a better starting point than any general opinion about "the energy transition.”
2. Treat the battery problem as the hinge point, not a footnote
Storage is where the future of energy either opens up or stalls. Solar and wind are variable by nature, and without somewhere to store the energy when it is being generated, you cannot use it when you actually need it. This is the constraint that most optimistic conversations about renewable energy tend to skip past, and it is the one that deserves the most direct attention. Even though we love renewable energy, it’s not always the best solution for every situation.
The progress in battery technology right now is significant and largely under-discussed outside specialist circles. Lithium-ion is the technology most people know, but the research directions beyond it are worth understanding. We’re big fans of nuclear diamond batteries that are currently in R&D; they use radioactive carbon waste encased in synthetic diamond to produce a small but extraordinarily long-lasting electrical current, potentially for thousands of years. For low-draw continuous applications like medical devices, remote sensors, and satellite systems, they represent a different way of thinking about energy availability entirely.
Action: If you are building anything that depends on continuous power, whether that is a product, a service infrastructure, or a physical space, put the energy storage question on the table early. What does your system need to function if grid access becomes unreliable? What would change if energy storage became ten times cheaper in the next decade? These are not hypothetical exercises. They are planning questions worth running now. Don’t let a battery or energy problem of today get in the way of developing your idea that belongs to tomorrow.
3. Start paying attention to where the physical and digital worlds are converging
The future of energy is not only about where power comes from, but it’s also about how a grid thinks. Current developments include AI-enabled grid management, advanced sensors, digital twins, smart meters, predictive maintenance, and real-time rerouting when a section of the network fails. Here, the electrical engineering world and the software and AI world are increasingly the same conversation, and the people who can move between those two domains are building some of the most consequential infrastructure of the next era.
This convergence is where Tesla's original vision of a wireless, interconnected energy system starts to feel less like a failed experiment and more like an unfinished blueprint. And Hedy Lamarr's frequency-hopping patent, the one that was ignored by the military in 1942, became the foundation for Wi-Fi, Bluetooth, and GPS. This is also a useful reminder that the ideas which seem like they belong in one domain often turn out to be most powerful when they land in another. And the person who can see both sides of a system, the physical constraint and the digital possibility, is the person who tends to find the non-obvious solution.
Action: If you work in energy, infrastructure, or any adjacent sector, identify one relationship or thread between your technical domain and the AI or data space that does not yet exist in your organisation or industry. The most interesting problems in energy right now are sitting at exactly that intersection, and most have not yet built the bridge between the two sides.
4. Extend your planning horizon to match what is actually coming
Most organisational thinking about energy sits in a five-to ten-year window. The shifts that are already in motion, across decentralisation, advanced storage, materials science breakthroughs, and intelligent grid management, are going to reshape what the energy sector looks like over twenty to thirty years. Planning with a short horizon right now means building infrastructure and strategy that will need to be rethought sooner than expected.
The breakthroughs in energy efficiency over the coming decades are likely to come as much from materials science as from any single technology. Here we’re thinking about advanced semiconductors, quantum materials, and next-generation conductors. These are not distant research projects, and it’s an active field where progress is accelerating. Building relationships now with researchers, with communities running microgrid experiments, with teams working on predictive infrastructure, is not premature. It is the right time.
Action: Take one planning assumption your industry holds about energy and test whether it still makes sense in a twenty-year window. What happens to your work if distributed energy becomes the default rather than the exception? What happens when energy stops being constrained in the same way it has been for the last 100 or so years? You do not need answers yet, just a little bit of curious thinking.
The Journey Ahead
The next wave of energy is not just a utility upgrade. If it arrives at the scale and speed that current trajectories suggest, it is closer to a civilisational shift. Energy abundance changes what is possible in food systems, water infrastructure, healthcare, manufacturing, and the way communities are designed and governed. That is a large claim, and it is worth sitting with seriously rather than either dismissing it or getting swept up in excitement.
What makes this moment different from other technological turning points is that individuals, communities, and smaller organisations have a genuine say in how it unfolds. The decisions about where to pilot microgrids, how to invest in storage research, which policy frameworks to support, and what questions to ask of energy providers are not reserved for governments and large utilities anymore. They belong to anyone who decides to pay attention.
Curiosity, right now, is a form of participation. And participation is how the next system gets built.