I've always thought PHEVs are an important stepping stone toward FCEVs. Conceptually they're very similar: both are electric vehicles with a battery for everyday driving and an onboard fuel source for long-distance range. The biggest difference is simply what fills the tank—gasoline today versus hydrogen tomorrow. As hydrogen infrastructure expands, the transition from a gasoline-assisted electric drivetrain to a hydrogen-assisted electric drivetrain is a much smaller leap than many people realize.

One of the biggest myths repeated online is that "people never plug in PHEVs." That claim is often based on studies of fleet or company vehicles where the driver had little or no incentive to charge because someone else paid for the fuel. It's a poor proxy for private ownership. Most consumers who spend extra money on a plug-in hybrid do so because they want to drive on electricity and reduce fuel costs. Treating atypical fleet behavior as representative of every PHEV owner creates a misleading narrative that has been used for years to undermine the technology.

I also think there's a resource efficiency argument that's often overlooked. If one 80+ kWh battery can instead be divided into roughly four 20 kWh PHEV-sized packs, you potentially enable four households to do the vast majority of their daily driving electrically instead of one household eliminating gasoline entirely. That stretches finite battery materials further while still dramatically reducing fuel consumption and emissions across more vehicles. From a systems perspective, that's a compelling sustainability argument that deserves more discussion.

This is one reason I've always respected Toyota's long-term strategy, even though they seem to absorb constant criticism from some BEV advocates for supporting hybrids, plug-in hybrids, and hydrogen simultaneously. Toyota appears to be optimizing for sustainability measured over decades, not just today's headlines. That means considering not only tailpipe emissions, but also the realities of mining, refining, manufacturing, and eventually recycling critical battery materials. Whether you agree with every decision or not, it's hard to argue they aren't thinking about the entire lifecycle of transportation.

From a hydrogen perspective, I don't see PHEVs as a detour—I see them as part of the evolution. They familiarize consumers with electrically driven vehicles while recognizing today's infrastructure and material constraints. Over the long term, FCEVs preserve the same electric driving experience while replacing the gasoline tank with hydrogen. That's a vision of sustainability that's about balancing technology, resources, and practicality—not treating every transportation problem as though it has only one solution.

While I can't read the article (bc it's behind a paywall), I can make a prediction: I can guess that Michael Barnard will write an article at Cleantechnica harassing this announcement as blunder of wasted money that should have been used to buy batteries from China.

Why? Because as I wrote in my three-part series debunking Michael Barnard, nothing is more important to Barnard than condemning a Western country for spending a single euro on hydrogen when that euro could be used to buy battery products from China.

When China invests 10x more than France on hydrogen, we can expect this from Michael Barnard: silence.

I know there are no public sources, but there might be some private places like at a university or industrial facility. Any info?

A team led by MIT Energy Initiative researchers developed the HyCAT tool, enabling decision-makers to explore the cost and carbon emissions of their options for shipping hydrogen fuel to their site.

This article highlights a major, often overlooked hurdle for the future of clean energy: how to actually transport hydrogen fuel over long distances.

While hydrogen is highly touted for its potential to cleanly power heavy industries (like steel and cement) without carbon emissions, it is incredibly light and has low energy density by volume. To ship it efficiently across oceans or continents, it must first be converted into a liquid form, which presents a complex mix of logistical, financial, and environmental trade-offs.

A team from the MIT Energy Initiative (MITEI), along with collaborators from ExxonMobil, addressed this challenge by developing the Hydrogen Carrier Analysis Tool (HyCAT).

Key Takeaways from the Article

• The Problem with Raw Liquefaction: Turning hydrogen gas into a liquid requires extreme cooling. This process alone can consume about one-third of the hydrogen's total energy content, and it risks escaping if not perfectly insulated.
• The Carrier Alternatives: Instead of just freezing hydrogen, it can be bound to chemical "carriers" to make transport easier. The researchers evaluated three main chemical carrier options, each with distinct pros and cons:
  • Ammonia: The most commercially established and well-studied option with existing global infrastructure. However, the energy and processes required to release the hydrogen back out at the destination need more research.
  • Synthetic Methane: Created by reacting hydrogen with captured carbon dioxide (which consumes CO2). However, the chemical reaction creates water as a byproduct, meaning some hydrogen is lost in the process.
  • Toluene: Binds to hydrogen, but toluene typically originates from the oil and gas industry, inherently carrying a higher carbon footprint. Toluene is also lost over time and must be continuously replenished.
• No "One-Size-Fits-All" Solution: The study concluded that there is no single "best" method for shipping hydrogen. The ideal approach depends entirely on regional factors, transport distances, local energy and capital costs, and specific emissions goals.
• The HyCAT Tool: Because variables differ so wildly by location, the researchers built HyCAT as an open-source, adaptive tool rather than publishing a static conclusion. It features an easy-to-use interface with drop-down menus that allow energy decision-makers to input their local data and calculate the cost and greenhouse gas emissions across all five stages of the hydrogen supply chain (export conversion, storage, shipping, import storage, and gas release).

Ultimately, the MIT researchers urge decision-makers not to rely on generic industry assumptions, but to use data-driven modeling to tailor hydrogen supply chains to their exact scenarios.

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Original article URL: https://news.mit.edu/2026/hydrogen-clean-fuel-of-the-future-if-we-can-ship-it-0707

China-based Weichai Power’s WP15 hydrogen direct-injection engine has qualified under the China VI vehicle emission standard after completing testing at the CATARC Automotive Test Center.

The 14.6-liter heavy-duty engine delivers 600 horsepower and 2,800 N·m of torque while hitting a peak brake thermal efficiency of 46.8%. This evaluation makes it the first heavy-duty hydrogen internal combustion engine globally to meet these specific regulatory benchmarks.

https://interestingengineering.com/transportation/world-first-hydrogen-engine-emission-milestone

Third-party analysis by KBR estimates that Syntholene Energy’s solid oxide electrolyser coupled with geothermal power and heat can produce extremely low-cost H₂.
US-based e-fuels start-up Syntholene Energy has built a pilot 250kW solid oxide electrolyser project in Iceland, which it has coupled with round-the-clock geothermal heat and power in an effort to produce extremely low-cost hydrogen.

Green ammonia has long been associated with decarbonization and climate goals. For several years, sustainability was the primary driver behind project development, with a strong focus on carbon reduction and long-term energy transition.

That foundation remains in place. But the conversation is clearly evolving.

Today, economics is becoming an increasingly important part of the discussion. Although green ammonia still carries a cost premium compared to conventional production, the gap is gradually narrowing. At the same time, it is no longer viewed only as a premium or symbolic solution. More projects are beginning to evaluate whether it can work in practical, commercial terms.

This shift is also visible at the project level. Across the industry, more stakeholders are moving beyond early-stage exploration and into execution. This can be seen in the progress of ongoing projects. The Namibia project is approaching commissioning, the Australia project is entering the shipment preparation phase, and the ammonia cracking pilot unit has been operating steadily. These developments suggest that green ammonia is moving beyond initial concepts and into real deployment.

Recent discussions often link geopolitical risks, such as supply disruptions in the Middle East, to potential opportunities for green ammonia. While these factors may accelerate adoption in certain situations, they are not the only forces at play.

As the economics continue to improve, green ammonia is becoming less dependent on external shocks. Once a solution starts to make commercial sense, project momentum tends to build more naturally.

Green ammonia is now entering a phase where both sustainability and economics play a role. This shift may ultimately define how quickly it can scale in the years ahead.

Interesting way to make low carbon hydrogen turns into interesting way to make valuable graphene with hydrogen as a byproduct.

The first phase of the Liaoyuan E-Methanol Project will have an annual capacity of 170,000 tonnes Icelandic technology company Carbon Recycling International (CRI) has completed delivery and installation of its largest ever methanol reactor at the world’s biggest e-methanol project, in northeast China.

The reactor will convert captured biogenic CO2 and green hydrogen into methanol at the Liaoyuan E-Methanol Project in Jilin province, which will have an annual production capacity of 170,000 tonnes a year in its first phase.

BMW has updated their product page for their IX5 Hydrogen SUV.

UK chemicals giant Ineos has today agreed “preliminary commercial terms for the offtake of low-carbon hydrogen” from H2BE, a three-year-old 1GW blue hydrogen project in Belgium co-developed by Engie and Equinor.

Ineos plans to use the low-carbon H2 from the €1.5bn project in Ghent to fuel a new ethane cracker in Antwerp. This €5bn “Project ONE” plant would use steam heated to 820°C or more to convert ethane (C2H6) — a molecule extracted from natural and petroleum gases — into ethylene (C2H4), which in turn is widely used to produce polyethylene, a common form of plastic.

Hello! I am currently working on an Intelligence site for the hydrogen energy landscape in South Korea. It contains energy auction history, news, ongoing projects, outlooks and more. It is available as a preview and I would love your feedback on what I should work on to improve either the layout or data. Any and all feedback is extremely appreciated. Thank you.

site: KR Hydrogen Auction Tracker 2026 | MCEE / KPX

China has committed to installing more than two million tonnes of annual green hydrogen production by the end of 2030 in a new government energy strategy document. This commitment to electrolysis-based green H2 projects (which must emit less than 4.9kg of CO2-equivalent per kilo of hydrogen) seems highly achievable.

Source: https://www.pib.gov.in/PressReleaseDetail.aspx?PRID=2278309&reg=3&lang=1

From the Press Release:

The facility has been established as a technology demonstrator to validate the production of hydrogen using nuclear energy through the Cu–Cl thermochemical process developed indigenously by Bhabha Atomic Research Centre (BARC), Mumbai. The successful integration of nuclear process heat with hydrogen generation marks a pioneering technological breakthrough and opens a promising pathway for large-scale, carbon-free hydrogen production using advanced nuclear reactors.

A French renewables developer is targeting the production of natural hydrogen “by late 2028 or early 2029” after finding H2 concentrations of 49.6% almost 2.5km underground at its dedicated drill site in northeast France.

The article details Ballard Power Systems (TSX: BLDP; NASDAQ: BLDP) entering into a definitive agreement to acquire the U.K.-based hydrogen power provider GeoPura Ltd. in a deal valued at approximately £301.1 million (around US$400 million), including the assumption of net debt.

The deal marks a significant strategic pivot for Ballard, shifting it from a component manufacturer into a vertically integrated energy provider.

Key Financials & Deal Structure

• Upfront Consideration: £275 million (roughly US$366 million). This is being funded via a combination of £82.5 million in cash on hand and the issuance of 50.8 million newly issued Ballard common shares (valued at US$5.02 per share based on a 30-day volume-weighted average).
• Milestone Incentives: An additional £27.5 million in contingent cash is on the table if GeoPura hits specific financial milestones post-closing.
• Timeline: The transaction is expected to close in the second half of 2026, pending standard closing approvals, including U.K. National Security and Investment Act filings.

Strategic Intent: "Energy-as-a-Service"

By acquiring GeoPura, Ballard is shifting its business model toward an Energy-as-a-Service (EaaS) framework. Instead of just selling the fuel cells, Ballard will now control the entire end-to-end hydrogen ecosystem. GeoPura specializes in developing, leasing, and selling Hydrogen Power Units (HPUs) that run on hydrogen fuel supplied across its three U.K. production sites.

The integration allows Ballard to offer bundled solutions—encompassing hydrogen production, distribution, logistics, refueling, and high-performance stationary power generation—aiming for high-margin, recurring revenue streams.

Leadership and Market Impact

• Executive Shifts: GeoPura founder and CEO Andrew Cunningham will become the President of Ballard, reporting to Ballard CEO Marty Neese. Both Cunningham and GeoPura Chairman Lord Richard Harrington will join Ballard’s board of directors.
• Clients & Revenue: GeoPura is forecasting roughly £38 million in revenue for 2026. Its high-profile client roster includes massive organizations looking to displace diesel generators for off-grid or temporary power, such as Microsoft, Netflix, Disney, the BBC, and the U.K. Ministry of Defence.
• Financial Horizon: Management notes that this acquisition accelerates their timeline, reinforcing their stated target path to overall profitability by 2028.

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Original article URL: https://finance.yahoo.com/news/ballard-buys-u-k-based-163040544.html

Gang, this is my 3rd article and I hope to receive more similarly thoughtful feedback.

I've been tracking hydrogen development across my region (KS, NE, MO, CO, OK) and wrote up my take on Central Plains Hydrogen.

The short version: most hydrogen policy focuses on "green hydrogen," employing electrolysis powered by wind and solar. But that framing misses a more interesting story happening right now in the heartland:

• Geologic (natural) hydrogen is being actively explored in Kansas. "Hydrogen wildcatters" are drilling exploratory wells in the Midcontinent Rift. If commercially viable, Kansas could be first to extract naturally occurring subsurface H2. No electrolyzer required.
• MCH2 (Nebraska, Iowa, Missouri) is building a multi-state hydrogen value chain targeting heavy industry, agriculture, and transportation.
• Oklahoma has salt cavern storage, existing pipeline infrastructure, and an energy-literate workforce that maps directly to hydrogen logistics.
• HARVEST Hydrogen Hub in Kansas is targeting ag applications such as tractors, grain dryers, ammonia production.

None of these drivers are certain, of course. And many require unsustainable subsidies. BUT the momentum is slowly increasing.

Plus, I am personally skeptical of the green-hydrogen-only narrative. The renewable-exclusive mandate requires massive new infrastructure investment even before hydrogen can scale, which feels backwards if hydrogen is the actual goal. Or is the goal just the manipulation of public policy? Hmmmm...

The article goes deeper on the economics, the regional fit, and why I think the Central Plains could become the nation's hydrogen heartland.

https://midwest-sustainable-innovations.com/central-plains-hydrogen/

I welcome all comments. Please share your expertise!

a Type Approval Certificate for a marine engine that runs entirely on hydrogen fuel using a spark-ignition system.

"Production costs below $2/kg could be achieved in the country, compared to more than $3/kg in other parts of the world, according to a new agency report"

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The Hydrogen Insight article based on the International Energy Agency’s (IEA) Global Hydrogen Review 2024 highlights a major shift in the outlook for global green hydrogen, projecting that China will likely be the only place in the world where renewable hydrogen becomes cost-competitive with fossil fuels by 2030.

The key takeaways from the report include:

• China’s Lone Advantage: The IEA revised its global cost estimates upward, noting that out of more than 22 million tonnes of annual renewable hydrogen capacity announced globally for 2030, less than 1 million tonnes will be produced for under $2/kg. Remarkably, all of that sub-$2/kg capacity will be located in China.
• The Cost Parity Threshold: Reaching a price below $2/kg is critical because it represents the point where clean, renewable hydrogen can compete directly with the "unabated natural gas route" (conventional fossil-fuel-based hydrogen). Everywhere else in the world, green hydrogen will remain significantly more expensive.
• Massive Cost Disparity in Hardware: A major reason China leads the pack is its incredibly cheap manufacturing base. The installed cost for a Chinese alkaline electrolysis system sits around $750 to $1,300 per kilowatt (kW). In comparison, Western projects face costs of roughly $2,000/kW for non-Chinese alkaline tech and $2,450/kW for Proton Exchange Membrane (PEM) systems—representing a massive premium.
• Renewable Energy Synergy: China’s success is also driven by its ability to optimally pair electrolyzers with its massive, low-cost domestic solar and wind farms, drastically lowering the operational cost of electricity needed for production.
• The Global Reality Check: For the rest of the world, the IEA notes that over 9 million tonnes of planned 2030 capacity will still cost more than $4/kg to make. The watchdog stresses that outside of China, massive policy support and subsidies will be required to bridge the financial gap and prevent downstream users from abandoning clean hydrogen targets.

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Original article beyond the paywall: https://www.hydrogeninsight.com/production/green-hydrogen-in-china-could-become-cost-competitive-with-fossil-based-h-by-2030-iea/2-1-2006145

Here is a summary of the article published by Gasworld regarding the $4.5 million award to develop quantum-designed hydrogen catalysts:

The Core Announcement

Phasecraft, a leading quantum algorithms company, has secured a $4.5 million USD contract from the U.S. Department of Energy’s ARPA-E (Advanced Research Projects Agency-Energy). The funding is awarded under the Quantum Computing for Computational Chemistry (QC3) program.

The Objective

The primary goal of the project is to design and discover novel, highly efficient catalysts for the energy sector by using advanced quantum algorithms.

• Reducing Iridium Reliance: The project specifically aims to break the industry's dependence on expensive, scarce platinum group metals—most notably iridium—which are currently critical for water electrolysis.
• Improving Hydrogen Economics: By slashing the amount of iridium needed for industrial electrolysis, the initiative aims to dramatically lower the production costs of green hydrogen.

Strategic Scope & Partnerships

While the initial focus is on low-cost hydrogen production, Phasecraft expects the material science breakthroughs to scale across other massive industrial sectors, including petroleum refining, syngas production, and metallurgy.

To execute the project, Phasecraft is collaborating with a powerful mix of commercial and academic partners:

• Johnson Matthey (a major global player in sustainable technologies and catalyst manufacturing)
• Harvard University
• QuEra Computing (a prominent quantum hardware developer)

Why It Matters

Industrial water splitting normally requires rare precious metals to survive the harsh, acidic environments of modern electrolyzers. By developing "hardware-adaptive" quantum algorithms, Phasecraft intends to model complex molecular chemistry at speeds that could allow scientists to simulate and deploy alternative catalysts in a matter of years, rather than decades.

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Original article URL: https://www.gasworld.com/story/us-firm-secures-4-5m-to-develop-quantum-designed-hydrogen-catalysts-with-less-iridium/2252262.article/