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Good morning and happy Friday,
This week kicked off with a bang heard across the energy markets as NextEra Energy announced it intends to acquire Dominion Energy in a nearly $67 billion all-stock deal—check out this week’s Must Read for more detail.
The war in Iran is at the 12-week mark, and has pushed inflation to its highest level in three years, while the IEA warns that commercial oil inventories are “declining rapidly,” with only several weeks’ supply left.
The U.S. clean energy supply chain got some attention this week—ACP released its America Builds Power: The State of Clean Energy Manufacturing in 2026 report, which finds that “clean power manufacturing contributes $31 billion to U.S. GDP annually and supports 216,000 American jobs.”
And SEIA hosted the American Solar and Storage Manufacturing Expo on Capitol Hill to highlight the historic investments made “in domestic capacity across every level of the supply chain;” pv magazine says 2027 could be a breakout year for capex, while cautioning that “upstream bottlenecks and strict trade enforcement mean active factory production continues to trail behind headline numbers.”
Meanwhile, BloombergNEF’s Energy Outlook 2026 finds that “if countries continue on their current path of rapidly deploying economically competitive clean technologies, they stand to cut their reliance on imported fossil fuels and ultimately strengthen their energy security.”
Read on for more.
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They Might Be Giants
The proposed NextEra-Dominion mega merger would create the world’s largest regulated electric utility by market capitalization—and potentially reshape how power is developed for the AI and data center economy. If approved, the massive deal will create a company that’s a global leader in renewables and battery storage, the top U.S. producer of natural gas power, and the nation’s second-largest nuclear operator. Here are some themes to track:
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One of the biggest elements to watch is storage deployment. NextEra is already a dominant battery developer, and Virginia recently expanded Dominion’s storage mandate to 20 GW by 2045. Executives are openly positioning storage as a fast-track solution for PJM’s reliability and capacity challenges, particularly as data center demand accelerates. For developers, that could signal a much larger and more aggressive storage procurement market in the Mid-Atlantic.
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The merger is also fundamentally about load growth. The combined company says it has visibility into more than 130 GW of large-load demand tied largely to AI infrastructure and hyperscale data centers. Dominion brings deep relationships in “Data Center Alley,” while NextEra brings capital, renewable development expertise, and an increasingly all-of-the-above strategy that includes solar, storage, gas, and transmission.
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For clean energy markets, the implications are mixed but potentially significant. A larger, better-capitalized utility could accelerate storage deployment, grid modernization, and renewable buildout in PJM—a region that has struggled with interconnection delays and resource adequacy.
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At the same time, some analysts expect the company to lean heavily on new gas generation for data center growth, while questions remain around offshore wind priorities and how aggressively the merged company would pursue distributed energy or competitive market reforms.
⚡️ The Takeaway
Scale meets scrutiny. Overall, the merger reflects a broader shift underway in the utility sector: scale, capital access, and speed-to-power are becoming central competitive advantages in the AI era. Ultimately, regulatory scrutiny will likely define the deal’s trajectory. Consumer advocates, lawmakers, and clean energy groups are already raising concerns about ratepayer impacts, market concentration, and political influence. The merger still requires approval from multiple state commissions, FERC, and the NRC, with a review timeline expected to stretch 12-18 months.
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Optimizing Tradeoffs
A new Cornell-led study provides useful evidence that improved utility-scale solar siting may reduce some land-use conflicts without materially changing project economics. Using New York State as a case study, researchers modeled several large-scale solar deployment pathways and found that avoiding ecologically sensitive land “reduces permitting friction for a mere 0.17% cost premium.” Here are some key deets:
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The study examined how different siting priorities—minimizing cost, preserving farmland, or protecting biodiversity—reshape the geography of solar deployment. Researchers incorporated real-world development constraints including transmission proximity, road access, slope, and soil conditions into the modeling.
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The trade-offs were substantial. A least-cost buildout concentrated heavily on pasture and hay land, with nearly half overlapping grassland bird habitat. Prioritizing agricultural preservation protected about 80% of prime farmland but shifted development pressure toward forested areas. Biodiversity-focused siting avoided sensitive habitats, though it required greater use of agricultural land elsewhere.
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For developers, the most notable finding may be the relatively small economic impact of biodiversity-conscious siting. The researchers argue that identifying lower-conflict parcels earlier in development could help reduce permitting friction, environmental litigation risk, and community opposition without significantly affecting returns.
⚡️ The Takeaway
The solar siting chessboard. The study doesn’t offer a silver bullet for permitting challenges—smarter macro-siting won’t eliminate local politics, interconnection bottlenecks, or project-specific opposition, and New York’s land-use dynamics may not translate cleanly to other markets. But overall, the research is a constructive contribution to the ongoing conversation around utility-scale solar buildout and land use. If similar modeling approaches can help developers identify lower-conflict sites earlier in the pipeline, they could become a valuable addition to pre-construction strategy.
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Surf’s Up
Wave energy has spent decades as one of clean tech’s most intriguing “what ifs,” but IDOM’s latest MARMOK Atlantic deployment suggests the sector may finally be moving closer to real-world viability. The company recently deployed its upgraded MARMOK-A-5 wave energy converter off the coast of Spain at the BiMEP marine test site, where it became the first wave energy device to electrically connect to the grid through the site’s HarshLab buoy system.
What makes the project particularly interesting is the engineering approach. MARMOK uses an oscillating water column design: waves move an internal water column like a piston, compressing air inside the buoy and driving a turbine that generates electricity. But the real story is that the device has now survived multiple winters in the Atlantic, gathered years of operational data, and returned with an upgraded power take-off system designed to improve efficiency while maintaining durability in brutal offshore conditions.
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For developers, the significance is less about near-term deployment volumes and more about what wave energy could eventually add to the clean energy stack. Ocean waves offer a highly predictable generation profile that often complements solar and wind production patterns, particularly in coastal markets with constrained land availability. If wave systems become commercially viable, they could become valuable firming resources for grids increasingly dominated by variable renewables.
There’s still a long road between successful pilots and bankable utility-scale projects—wave energy faces substantial commercialization hurdles, especially around cost and scalability. But the project highlights a broader trend in emerging energy technologies: Europe is continuing to use public-private demonstration programs and pre-commercial procurement mechanisms to push hardware from pilot stage toward bankability.
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Thanks for diving into the Developer Dispatch with us.
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Building American power requires a powerful team. |
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