For decades, the world’s electricity system was a one-way street, writes Frédéric Godemel, EVP Energy Management, Schneider Electric. Electricity flowed in one direction, from large power plants, over vast distances, to homes and businesses. The system was reliable, but rigid.
Today, that world is being reshaped. The rise of distributed energy, digitalization and automation has made energy dynamic, bi-directional (or even omni-directional) and increasingly complex. Solar and wind farms, behind-the-meter batteries, electric vehicles charging at unpredictable times, and data centers with surging power are all part of this new landscape. The challenge is clear: How do we harness this complexity to build a more resilient, efficient, and sustainable future?
The answer lies in five key technologies that are redefining the energy landscape: evolving energy distribution, software defined power, AI-powered energy intelligence, advanced cooling & power for data centers, and prosumer solutions for residential, commercial and industrial environments. These innovations are already being deployed, delivering tangible benefits for businesses, communities, and the planet.
- Evolving Energy Distribution
Traditional electrical systems separate AC and DC circuits, requiring multiple conversions that waste energy and add complexity. We’re now witnessing a change, where more and more hybrid systems are being installed. A hybrid system uses a single backbone for both AC power from the grid and DC power from solar panels and batteries, enabling renewable energy to be routed directly where it is needed. This minimizes conversion losses and creates smarter, more adaptive energy networks that better support electrification and net‑zero ambitions.
But the AC/DC shift is only part of the evolution. Solid‑state and hybrid circuit breakers represent a second major leap forward. Unlike mechanical breakers that react after an electrical fault, solid‑state breakers use power electronics to detect anomalies in microseconds. This protection creates almost a proactive shield, increasing safety while maintaining continuity of service.
If we take the example of the airline industry, airports around the world are increasingly adopting hybrid AC/DC architectures. Airports that have embraced modern electrification and monitoring – such as Vancouver International Airport, where 97% of airside operations are already powered efficiently and sustainably through advanced electrification and renewable integration – demonstrate the value of this approach.
By combining continuous diagnostics, smart distribution, and next‑generation protection devices like solid‑state breakers, airports can isolate faults more rapidly, maintain service reliability, and transform what could otherwise become operational disruption into a manageable, contained, and non‑impactful event.
- Agility for a Dynamic Grid
We know the grid is getting more complex. More power generation sources, more bi-directional flows and more variable demand sources. As complexity increases, being able to showcase agility is increasingly important too. Software Defined Power (SDP) is one area where this agility is coming to the fore. SDP replaces custom hardware with standardized, programmable, intelligent systems that can be updated and reconfigured as needs evolve. This responds to changing conditions and emerging threats.
The blackout that swept across Spain and Portugal in April 2025 was a stark reminder of how important reliable grid infrastructure is. Voltage surges cascaded across the network in seconds – far too fast for manual intervention.
With the complexity that comes with energy transition, traditional protection schemes have been proven too slow in response time. With 40% of the grid being more than 40 years old in Europe, SDP integration would enable the reconfiguration of thousands of substations in real time, isolating faults and preventing widespread outages. While this sounds like a technology solution – because it is – it’s also about ensuring greater resilience in the network we have. Without massive grid upgrades, Europe’s energy transition will stall.
- From Data to Action
The modern grid is too complex to rely on manual management alone. AI-powered platforms now continuously monitor electricity use across buildings and sites, analyzing data, detecting anomalies, and automatically optimizing systems to reduce waste. AI doesn’t just spot inefficiencies. It learns patterns, predicts demand, and can automate thousands of micro-decisions that add up to significant savings and emissions reductions.
And while 2025 might have been the year AI really entered mainstream conversations, this kind of approach to grid management isn’t something that has only just started to exist. For example, in Hyderabad, our smart factory cut energy use by 59%, water consumption by 57%, and CO₂ emissions by 61% within four years. How? With an advanced, cloud-based manufacturing system powered by IoT-enabled devices, leveraging real-time data and predictive analytics for smart decision-making processes. It’s this kind of approach that shows us a world powered by data and digital insights is more efficient and sustainable.
- Empowering the Energy Citizen
The energy transition isn’t just happening at the grid level. It’s happening in our homes and communities. The rise of the “prosumer”- a home that both produces and manages its own electricity – is transforming the residential energy landscape. Rooftop solar, batteries, heat pumps, and smart controls are turning homes and buildings into mini power stations, capable of optimizing their own energy use and even supporting the wider grid through local microgrids. Hybrid AC/DC systems route solar power directly to DC loads, while solid-state breakers and intelligent controls ensure safety and efficiency.
This change is about not only technology, but also about putting the power back in the hands of people. They’re no longer simple consumers of energy. They can choose when to use, store to sell energy and be more insulated from price volatility. All while knowing they’re playing a more active role in the journey towards net zero.
- Meeting the Demands of the Digital Age
Data centers are growing in importance. So many tasks from online shopping to sending emails have touch points with a data centre. But in this new world where AI is growing exponentially, their role is soaring. As is their energy consumption and the power density of GPU based accelerated compute.
Traditional air cooling can no longer keep pace with the heat generated by high-density servers in AI Factory data centers. Liquid cooling, which delivers chilled fluid directly to the hottest chips, is now essential for efficiency and reliability.
Schneider Electric’s deployment of liquid cooling and high-density power architectures with advanced monitoring and control in data centers across Virginia and beyond has delivered significant results.
During a major storm in 2024, when Virginia’s data center region saw 1,500 MW of compute go offline for hours due to grid issues, data centers with advanced cooling and power systems, including solid-state breakers and SDP integration could have absorbed electrical and thermal shocks, keeping critical AI services online.
The Path Forward
The future of energy is more electric, more automated and more digital. The technologies driving this forward aren’t operating in silos but are truly integrated into a more automated system. We’re bringing together AC and DC through hybrid systems, made more resilient with SDP and AI.
The move into the age of electricity will require a rethink of how we approach energy. The old model, of static, linear power flows is changing and so we must invest in technology, infrastructure and people to make this a reality.
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