Redefining Energy

Battery Energy Storage Systems (BESS) were traditionally developed as portfolios of relatively small, MW-scale projects, reflecting the experience of renewable energy funds rooted in solar and wind. But a new generation of GW-scale projects is entering the market, led by developers with different backgrounds, industrial expertise and a fundamentally different view of scale: bigger is better.Statera, Copenhagen Infrastructure Partners (CIP), Zenobē and Fidra Energy are emerging as major players, backed by infrastructure investors such as EQT, Ares and KKR. Fidra Energy is one of these new titans. Backed by EIG, with $27 billion in assets under management, and the UK National Wealth Fund, Fidra is pursuing an ambitious strategy in Great Britain, with just three projects in its pipeline, but on an unprecedented scale: the 1.45 GW / 2.9 GWh Thorpe Marsh project, the 500 MW / 1 GWh West Burton C project, and Enderby, a 1 GW project potentially offering four hours of storage.A single project can occupy an area equivalent to around 40 football pitches. These are not simply larger versions of conventional battery installations. Their teams bring extensive gas industry experience and a different approach to engineering, project delivery and infrastructure development. They are also strategically located on brownfield sites, often former coal-fired power stations or gas plants, benefiting from existing grid connections, lower connection costs and shorter permitting timelines. Laurent and Gerard welcome Chris Elder, CEO of Fidra Energy, to explore what sets this new generation of projects apart and why scale is becoming such a competitive advantage. Despite their size, these projects can be highly bankable. Around 50% of future revenues can be secured through capacity payments and tolling agreements, providing the long-term visibility lenders need.Thorpe Marsh demonstrates this: a consortium of 13 banks has committed £600 million in debt financing. We also examine one of the most critical decisions in delivering projects of this magnitude: battery supplier selection. Following a year-long tender process, Sungrow's PowerTitan 2.0 was selected for Thorpe Marsh. More than 600 twenty-foot containers will be installed on site, creating a significant logistical and construction challenge. Yet, as Chris explains, building a battery storage facility can be considerably simpler than delivering a gas-fired power plant.Finally, we explore an energy system increasingly shaped by gigawatt-scale batteries. As these assets become central to grid stability, flexibility and renewable integration, Chris anticipates significant sector consolidation. Will a handful of large-scale developers come to dominate the market? And are GW-scale batteries set to become the backbone of tomorrow's electricity grid? It is a conversation about the people, capital, technology and industrial thinking driving the next chapter of battery energy storage.

For almost two decades, the environmental movement has repeatedly announced the demise of fossil fuels. The headlines have been dramatic, but the results have been less convincing.  As COP31 is about to begin, the world remains remarkably indifferent — despite the climate crisis growing ever more urgent, as if saving the planet were merely an optional item on the agenda, Gerard and Laurent invite Mark Campanale, founder of Carbon Tracker. Carbon Tracker is the financial think tank that brought the concepts of unburnable carbon and the carbon bubble into mainstream debate. Its research has helped investors understand the risks of fossil-fuel investments but has also been politically weaponised by the Greens.  A decade ago, the debate centred on stranded assets, carbon budgets and the prospect that fossil-fuel reserves would become economically unviable. Today, our thinking is increasingly aligned with perspectives associated with Ember and Michael Liebreich, emphasising technology, economics and the practical realities of the energy transition.  We probably are witnessing a schism between former allies: the “Climate Movement” and “The Clean Energy community”. We believe technology, innovation and economics will do more to accelerate the transition than verbose toothless international accords or poorly designed top-down government policies.   Carbon Tracker deserves credit for making climate risk a serious financial issue. However, forecasts about the timing of peak fossil-fuel demand have proved less reliable. Oil demand rebounded after COVID-19, while geopolitical instability and energy-security concerns have demonstrated the resilience of hydrocarbons.  The question is whether the carbon-focused approach remains relevant or whether it is approaching obsolescence.   Environmental campaigners have advocated carbon taxes for decades, arguing that polluters should pay for emissions and that revenues should fund the transition to cleaner energy.But what if the world already has a de facto carbon tax, imposed not by environmental policy but by geopolitical conflicts? Wars, supply disruptions and decisions by powerful governments can drive up the price of oil and gas, imposing enormous costs on households and businesses. Russia under Putin, Iran under the Ayatollahs and the United States under Trump illustrate how geopolitical decisions can reshape global energy markets.  Carbon Tracker helped establish stranded-asset risk as a serious capital-markets concern. Its central warning—that some fossil-fuel investments could lose value as the energy system evolves—remains relevant.   But the timing of the transition has proved difficult to predict. Fossil-fuel demand has shown greater resilience than some forecasts anticipated, while geopolitics, affordability and energy security have complicated the path towards decarbonisation.The distinction is important: identifying investments at risk is not the same as predicting the imminent collapse of fossil-fuel demand. Our conversation was robust, with both sides standing their ground. We left with a sense that the debate needs to move beyond political targets and increasingly outdated assumptions towards the realities of technology, economics and capital allocation. We may agree on the destination, but the real argument is about the pathway. Further reading Carbon Tracker's Unburnable Carbon: Ten Years On, 2020 Vision: Why You Should See the Fossil Fuel Peak Coming and Managing Peak Oil provide useful context for assessing its original thesis, its influence on financial markets and the challenges of forecasting the energy transition.  https://carbontracker.org/reports/      

Founded in 1848, Lazard is one of the world’s most prestigious investment banks. But in energy, its influence goes well beyond Wall Street. For twenty years, Lazard’s Levelized Cost of Energy (LCOE) report has shaped how investors think about the economics of solar, wind, gas, coal and nuclear. It has helped change minds—and channel vast amounts of capital into the energy transition.  The report has also attracted criticism. Its critics argue that LCOE ignores some of the hardest questions facing modern power systems: intermittency, grid integration, balancing and backup. Yet despite those shortcomings, for anyone investing in energy, the Lazard report remains the reference. The “source.”  So what does the latest edition tell us about where energy is heading? Laurent and Gerard have the privilege of sitting down with George Bilicic, Global Head of Power, Energy & Infrastructure at Lazard. George advises some of the world’s largest companies and governments on strategy and finance and has spent decades at the heart of the energy and financial industries, working alongside legendary figures such as Felix Rohatyn and Bruce Wasserstein.  We talk about America’s extraordinary surge in electricity demand—and what it means for the power system. We dig into the economics of solar, wind, gas and nuclear. We discuss geothermal. And we ask a deceptively simple question: what is actually the cheapest way to produce reliable electricity? The answer is more complicated than the headlines suggest. In the US, renewables are among the cheapest sources of new power. But geography matters. So do grids, intermittency and backup. Gas can still be remarkably competitive when those costs are taken into account.  And there is a crucial catch: what works economically in gas-rich America does not necessarily work in countries that have to import their gas.  Then there is nuclear. Nuclear is coming back—but don't expect a renaissance overnight. We discuss why its revival is likely to be slow, expensive and heavily dependent on governments rather than markets.  A fascinating conversation with one of the true titans of the energy and finance industry.Link to Lazard LCOE reporthttps://www.lazard.com/news-announcements/lazard-releases-2026-levelized-cost-of-energyplus-report-pr/

Last year, the nuclear industry experienced something close to a gold rush. SMRs — Small Modular Reactors — became the hottest story in energy. Private capital poured in, valuations exploded, and the industry produced an impressive collection of truly bombastic promises. The backdrop is undeniably powerful: electrification is accelerating, geopolitics are reshaping energy markets, and the world needs reliable, 24/7 clean power. Nuclear has rarely enjoyed such formidable tailwinds.  So, what could possibly go wrong?  Gerard and Laurent bring in Andrei Utkin, Associate Director at S&P Global Energy, and one of the more independent observers of the nuclear industry, to separate the nuclear opportunity from the nuclear hype.  Because there is a problem. The Western nuclear supply chain has not exactly covered itself in glory this century when it comes to delivering large reactors on time and on budget. Governments are nevertheless pushing ahead — rightly so. We are particularly interested to see how smaller designs such as GE Hitachi’s reactor in Ontario and Rolls-Royce’s SMR in the UK perform. These projects have something many start-ups do not: government backing, established industrial supply chains, and companies with decades of nuclear experience. Whatever the final cost — and, for reasons that remain remarkably consistent, that cost always seems to go up — these SMRs are likely to happen.  But the really fascinating story is the private SMR market. Today, it counts roughly 50 developers, 130 designs, 20 publicly listed companies, and more than $10 billion of private and corporate capital. Yet only a much smaller number of technologies are genuinely approaching commercial deployment.  Some have made it to the stock market: NuScale, Oklo, X-Energy, Nano Nuclear. Their share prices all peaked around twelve months ago. Since then? Down 50% to 80% from their highs. Perhaps the public markets are beginning to tire of an industry that has delivered an extraordinary number of promises — and comparatively few reactors. Meanwhile, the executives and early shareholders of some of these companies have managed to cash out hundreds of millions of dollars.  Then comes the small detail of economics. With nuclear CAPEX estimates somewhere around $15–20/W — your guess is probably as good as ours — and brutally long lead times, nuclear has to compete with hydro at around $10/W, gas at roughly $4/W (up from about $1/W), wind at $2–5/W… …and solar plus batteries at around $0.40/W. That is an uncomfortable competitive landscape.  And we haven't even discussed the fuel. Russia still controls roughly 40% of the conventional nuclear fuel supply chain — and effectively 100% of the HALEU capacity required by some advanced SMR designs. So much for energy independence.  Laurent then tackles another increasingly abused acronym in the nuclear world: FOAK — First Of A Kind. What does it really mean? And, more importantly, how many times can a technology be “first of a kind” before investors start asking when the second one is coming?  All of this — and much more — in our yearly deep dive into nuclear: the technology, the economics, the geopolitics, the promises, and the increasingly uncomfortable gap between them.  ----Link to S&P report on nuclearhttps://www.spglobal.com/energy/en/commodity/electric-power/nuclear  Michael Barnard articles on SMRshttps://www.linkedin.com/pulse/scaling-examples-pt-1-small-modular-nuclear-reactors-smnrs-martin  https://nbmediacoop.org/2022/07/31/smnrs-riddled-with-high-costs-among-other-unresolved-problems/ And of course World Nuclear Industry Status Report 2026 (WNISR2026) https://www.worldnuclearreport.org/World-Nuclear-Industry-Status-Report-2026 Finally, the full text of 1953 Memo By Admiral Hyman Rickover   https://whatisnuclear.com/rickover.html   

The current datacenter buildout is the biggest GDP bet in America since the railroads 150 years ago. We have never seen a frenzy quite like this. The system is running on overdrive—and the cracks are starting to show.  While Anthropic and OpenAI announce dizzying financing numbers, measured in the trillions, the markets are beginning to cough: force majeure—effectively a default—at Oracle’s Jupiter datacenter; SB Energy abandoning its IPO; private credit funds restricting redemptions; and certain neoclouds’ bonds being priced as riskier than those of Zambia or Angola.And still, the buildout goes on.  Yes, half of the announced datacenters may never be built. Yes, local politics are turning increasingly toxic, with moratoriums spreading. And yet the buildout continues—and could move even faster if only the supply chain could keep up.  So, who should we believe: the bulls or the bears? Gerard and Laurent bring on one of the leading specialists in datacenter development, Eugene McGrane, Executive Managing Director at Cushman & Wakefield, one of the world’s largest real estate services firms. Cushman & Wakefield provides specialized real estate, financial, and strategic advisory services to the digital infrastructure and datacenter sector. Eugene’s team works with investors, developers, and technology occupiers on site selection, power procurement, land acquisition, lease negotiations, and project construction.We have a freewheeling conversation about what hyperscalers really want, the insatiable demand for compute, credit risks, political backlash, and how this industry seems to reinvent itself every few months.   Who are the winners? Who is most exposed? And where is this extraordinary journey ultimately heading?So, is the glass half full or half empty? It depends on your vantage point.  What seems clear is that demand for compute is not slowing down. And the sheer scale of the datacenter buildout is forcing the energy system to mobilize capital, infrastructure, and technology at a pace that could accelerate its modernization.  The AI boom may be chaotic, financially extreme, and politically contentious. But the buildout is still going.  ----With the energy industry's largest proprietary dataset, world-class experts and decision-grade models, all powered by Synoptic AI, Wood Mackenzie delivers Intelligence Connected across the energy and natural resources landscape.  

The global market for Virtual Power Plants is assessed around 100GW (+/- 20GW). It is a 7bnUSD expected to grow at a CAGR above 20% in the next 5 years to reach 40bnUSD within a decade.   VPP are a digitally coordinated flexible network of distributed resources: cheaper than central stations. They manage behind the meter assets like Solar, batteries, HVAC, EV…  VPP is a term invented 30 years ago by US economist and finance scholar Dr Shimon Awerbuch, who died 20 years ago in a light plane crash over the Alps. Only aged 51, he leaves a great legacy. His foundational work in 1996 was called “The Virtual Utility” where he demonstrated that Electricity generation must be treated like a financial portfolio. He proved that Renewables (even if they were very expensive at the time) were a powerful hedge against fossil fuel volatility.  In our series about how digital is transforming the how we track, trade, and optimise energy, Gerard and Laurent have invited Marc Rühs, CEO Next Kraftwerke, the world largest VPP with 15GW Capacity. Connecting more than 14,000 decentralised electricity producers, consumers, and storage facilities, the company contributes to grid stability and optimizes electricity production and consumption based on price signals. It trades its electricity on various European exchanges via its own 24/7 electricity trading platform. Next Kraftwerke has been part of the Shell Group since 2021.We have a deep conversation about how VPP work, their impact on flexibility, and the fact that they used to be ignored or discarded by incumbents. But that is changing with the arrival of AI providing better systems and increased demand.  Along the way, we pop some balloons, such as V2G or Heating management, which work great in theory but are non-significant from a volume point of view. Maybe they will in the next decade.   As Shell is reducing its footprint in Clean Energy transition assets, it is reinforcing its position in the VPP market, as Next Kraftwerke is fully integrated into Shell trading organisation.  Marc demonstrates that the future of energy lies in intelligently connecting renewable generation, storage, demand-side flexibility, and trading capabilities to create a more resilient and sustainable energy system.  

Joseph J. Romm (1960–2026) was an MIT-trained physicist who became one of the most prominent voices in the U.S. climate movement after serving as Acting Assistant Secretary for Energy Efficiency and Renewable Energy at the U.S. Department of Energy in the 1990s.  He founded the Climate Progress blog, authored ten books—including The Hype About Hydrogen and Hell and High Water—and was named a Time “Hero of the Environment” and one of Rolling Stone’s “100 People Who Are Changing America” in 2009.  Later, as a Senior Fellow at the University of Pennsylvania’s Penn Center for Science, Sustainability, and the Media, Romm continued to challenge what he regarded as dead-end technologies and costly distractions, including hydrogen, carbon offsets, and carbon capture.   Romm died unexpectedly at the age of 66 on September 14, 2026, in Washington, D.C.  Michael Barnard and Joe shared a long history of friendship and collaboration, strengthened by a memorable conversation 18 months ago following the release of the second edition of Joe’s seminal book, The Hype About Hydrogen.  That conversation between Joe and Michael was a fascinating and uniquely candid dialogue about the real solutions to climate change—and about technologies they believed risked diverting attention and investment from more effective pathways, including hydrogen, carbon capture and storage (CCS), direct air carbon capture (DAC), and some proposed approaches to green steel.Joe had an extraordinary influence on the climate and energy-transition debate over the past three decades. His rigorous analysis, willingness to challenge conventional wisdom, and ability to communicate complex energy issues shaped the way many of us think about the transition to a clean-energy economy.  He will be deeply missed. He will not be forgotten.  

In our series: How AI is revolutionising Energy, Laurent and Gerard dive deep into the intricate corner of Energy Management system for large industrial clusters.  You would believe that legacy providers such as Siemens, Schneider Electric or Hitachi would provide such solutions. They are not. Indeed, they provide legacy Scada systems which are hardware linked and bottom up. There is no glue to optimise them as a group and deliver access to Energy markets.  Two young Belgian engineers have decided to address this blind spot and come up with a new generation of software: AI powered EMS. That is what Companion Energy has achieved. We bring in its CEO Thomas Vyncke.  Most of the European energy conversation still focuses on front-of-the-meter flexibility: batteries, renewables and other assets participating in wholesale and balancing markets. Thomas’ thesis is that an equally important — and much less developed — opportunity sits behind the meter, inside large industrial and commercial companies.  The problem is complexity. Every enterprise site is different: different tariffs, contracts, generation assets, batteries, EV fleets, boilers, industrial processes, grid constraints and operating requirements. The opportunity therefore isn't simply to buy cheaper electricity or optimise one battery. It is to continuously optimise the entire energy system of the site against its operational and financial reality.  That is what Vyncke and co-founder Jonas Verstraeten are building with Companion.energy, founded in 2022. The platform provides transparency on energy costs and automates optimisation across complex behind-the-meter environments.  The company says it currently optimises more than €500m of energy spend and 350+ MW of assets across Belgium, the Netherlands, Switzerland and Romania, working with companies including Proximus, TotalEnergies and Port of Antwerp-Bruges. It recently raised a €7.8m seed round to support international expansion.  And it is just the beginning…   With the energy industry's largest proprietary dataset, world-class experts and decision-grade models, all powered by Synoptic AI, Wood Mackenzie delivers Intelligence Connected across the energy and natural resources landscape.

There is simply too much greenwashing happening. Environmental reporting has become a meaningless bureaucracy feeding a fictional reality through glossy reports that nobody reads anymore.  But things are changing; the impact of climate change (heatwaves, floods) is hitting back at governments trying to ignore it. Some BigTech, historically in favour of renewable energy are now busy building the biggest gas plants in the world for their datacenters, while pretending still to be on track for their “net zero” commitments.  They maintain the fiction through carbon accounting tricks, maximisation of loopholes and heavy PR campaigns run by the American Petroleum Institute and McKinsey.  Fortunately, there are a lot of companies which start to see the direction of travel: a more granular way of accounting for Energy and Emissions. Not by the year, where summer solar can be accounted for winter consumption, but by the month and soon by the hour.   Hourly matching is new, tough, but far from unsurmountable. That is what new companies such as Renewabl are enabling: by cutting though the bureaucracy and Excel Sheets, and helping the forward thinkers to present, report and optimise their energy and emissions profile.  Laurent and Gerard have the privilege of receiving Carolyn Addy, Head of Commercial at Renewabl, to talk about the new trends, the innovations, and how progressively, we are entering a more transparent and efficient world.  We talk about immediate non-regret solutions and the impact of AI in the process. We also dive into how hourly PPAs are progressively making their way into the market, and whatever perceived additional work they require, in fact they provide better hedges against volatile energy costs.

Where Are BESS Making Money? Gerard and Laurent had the pleasure of welcoming Ed Porter Director Europe at Modo Energy for an insightful discussion on battery profitability and the evolving economics of Battery Energy Storage Systems (BESS).  Modo Energy is a fast-growing data analytics and market intelligence platform helping energy professionals benchmark asset performance, forecast revenues and evaluate investments in renewable energy and grid-scale battery storage.  Ed outlines three stages in the development of a battery market:Stage 1 – Pre-saturation: Batteries can achieve attractive payback periods, sometimes as short as three years, primarily through ancillary services.Stage 2 – Wholesale market competition: As ancillary service revenues become more competitive, batteries increasingly rely on wholesale market opportunities, as seen in Australia, Texas and Great Britain.Stage 3 – Sophisticated grid services: Once wholesale markets become saturated, batteries move towards more advanced and specialised grid services (voltage, inertia...).  The technology is evolving rapidly, as is the deployment of new battery capacity. This makes future revenues increasingly difficult to predict, particularly because of the cannibalisation effect: as more batteries enter a market, they compete for the same revenue opportunities and can progressively reduce market spreads.  From Australia to PJM, ERCOT and CAISO, and across Great Britain, Spain and Germany, we explore the fundamentals driving battery profitability in different markets.   With CAPEX around $500,000/MW, a decent return might be in the region of $70,000–80,000/MW. Yet the picture varies dramatically by market. Poland can deliver around $300,000/MW, while ERCOT and Australia's NEM are currently below $30,000/MW.  These differences highlight why investors need to look beyond headline revenues and consider market structure, competition, saturation, technology and future revenue cannibalisation.  We also discuss Long Duration Energy Storage (LDES) and explore the deeper market and technological levers that can make batteries a profitable long-term investment.   A compelling conversation on where BESS is making money today—and, perhaps more importantly, where the opportunities may lie tomorrow. With the energy industry's largest proprietary dataset, world-class experts and decision-grade models, all powered by Synoptic AI, Wood Mackenzie delivers Intelligence Connected across the energy and natural resources landscape.