Why $0.50/kg Could Change the Hydrogen Equation
The next competition in hydrogen will be fought on cost, carbon intensity and reliability - not color alone. For years, the hydrogen industry has defined itself by color. Green. Blue. Gray.
Those labels are useful shorthand for how hydrogen is produced. But ultimately, customers and investors have to answer more practical questions, like what does the energy cost? What is its carbon intensity? And what incumbent energy source can it economically displace?
At Eclipse Energy, that is how we think about hydrogen. Our objective is to move ultra-low-carbon hydrogen production toward $0.50 per kilogram at the point of production. While we have not demonstrated that cost commercially yet, it is the economic destination we are working toward, currently building on our previous field trial from June 2025.
The significance of $0.50/kg goes well beyond producing hydrogen more cheaply than other hydrogen technologies. At that price, hydrogen starts entering the economic conversation with conventional energy.
$0.50/kg is an Energy Price
The numbers are worth translating. Hydrogen contains approximately 33.3 kilowatt-hours of energy per kilogram on a lower-heating-value basis. At $0.50/kg, that equals approximately $4.40/MMBtu. On a higher-heating-value basis, the equivalent is approximately $3.70/MMBtu. The U.S. Department of Energy publishes the underlying heating values for hydrogen through its Alternative Fuels Data Center.
For context, the U.S. Energy Information Administration's August 2026 forecast puts the average 2026 Henry Hub natural-gas price at approximately $3.44/MMBtu. Natural-gas prices move continuously, and Henry Hub is not the same thing as delivered gas at a customer's facility, but it provides a useful reference point. (U.S. Energy Information Administration, August 2026 Short-Term Energy Outlook)
That comparison needs to be handled carefully. $0.50/kg hydrogen isn't the same as $3.70/MMBtu delivered natural gas. Hydrogen may still need to be compressed, stored, transported, and converted. The equipment required to use it has its own capital and operating costs.
The point is narrower, but potentially much more important: At $0.50/kg, the underlying energy contained in hydrogen is no longer too expensive to compete with conventional fuels.
Consider electricity. If $0.50/kg hydrogen were converted into electricity at an illustrative electrical efficiency of 50% to 60%, the hydrogen itself would represent approximately $25-$30/MWh of electricity produced. That is not a $25-$30/MWh electricity cost. It is the fuel component only. You still have to add compression, storage, generation equipment, maintenance, financing, and other costs. But it changes the starting point.
The question begins to shift to a more consequential one. From whether hydrogen is simply too expensive to use as energy to whether we build the rest of the system efficiently and reliably enough to make the resulting energy competitive.
The Goal Is an Economic Case That Does Not Depend on Subsidies
Public policy has helped accelerate nearly every major energy technology, and hydrogen is no different. Production credits, carbon pricing, grants, and other incentives can be extremely useful in bringing new technologies down the cost curve.
But incentives are a much stronger accelerant when they are improving an already attractive underlying business rather than creating the economics themselves. Policies change. Commodity markets change. Governments change.
A more durable foundation is a molecule that can become economically attractive before incentives are applied. With hydrogen moving toward $0.50/kg, the conversation shifts from how much of a premium someone will pay for clean hydrogen to where inexpensive, low-carbon hydrogen can create more value than the energy source it replaces. That changes the size of the opportunity.
Getting to $0.50/kg Is a System Problem
There is no single scientific breakthrough that gets Eclipse to $0.50/kg. It is a system-level outcome.
First, we are starting with existing oilfields. Much of the infrastructure is in place. Wells, gathering systems, roads, utilities, surface facilities, and, importantly, decades of information about how the reservoir behaves already exist.
Not all legacy infrastructure will be suitable for hydrogen service, and integrity must be evaluated. But where existing assets can be safely reused, a meaningful portion of the physical system required to access the subsurface has already been built.
Second, the feedstock is already underground. Our process uses biotechnology to convert residual hydrocarbons (a tremendous amount of oil is uneconomic when extraction operations reach their economic limit)in mature oil reservoirs into hydrogen. We are not continuously purchasing natural gas or electricity as the primary hydrocarbon feedstock for hydrogen production.
Then the reservoir has to perform, which adds a long list of variables that we have integrated into our biotechnological approach. This includes injectivity, reservoir communication, the volume contacted by biotechnology, biological conversion, hydrogen yield, concentration, mobility, and recovery. Oh, and don’t forget the surface operations.
The richer the hydrogen concentration in the produced gas, the less total gas has to be processed for each kilogram of hydrogen recovered. This brings scale into the equation because fixed costs become more efficient when they are distributed across meaningful production volumes. That is why the solution must consider biotechnology and reservoir engineering
Variability Is Not the Enemy. Unpredictability Is.
Oil reservoirs are not identical, and we should not pretend they are. Different reservoirs have varying temperatures, pressures, fluid compositions, permeabilities, salinities, remaining hydrocarbon saturations, and well configurations.
The technical objective, therefore, cannot be to make every reservoir behave exactly the same way. The objective is to become increasingly good at predicting the variability.
That is why Eclipse has been building a growing biological and subsurface database alongside the technology. Every laboratory experiment and every field deployment gives us another opportunity to connect reservoir characteristics with biological response, hydrogen generation, recovery, and ultimately economics.
Over time, the value of that dataset should not simply be that it tells us what happened. It should help us predict what will happen next.
The long-term objective is not to search for one perfect reservoir. It is to identify which reservoirs are attractive, understand how the process should be configured for each one, and estimate the likely economics before significant capital is deployed. If that predictive capability improves with every deployment, the database itself becomes part of the commercial advantage.
Hydrogen Demand Exists
There is another misconception around hydrogen: that an entirely new market needs to be invented for it.
It does not.
Refineries, ammonia producers, chemical facilities, and other industrial operations already consume hydrogen at scale. They understand the molecule. They have procurement systems. And in many cases, they already have some of the necessary infrastructure. If a lower-carbon hydrogen molecule can be delivered competitively, it can compete for existing demand. That is the natural starting point.
What becomes more interesting is what happens if the cost falls far enough to make applications that historically struggled to justify hydrogen economically start to make sense. That could include steel, methanol, synthetic fuels, industrial heat, heavy transportation, and electricity generation.
For Eclipse, power may ultimately represent one of the most consequential opportunities, especially for stranded assets.
The Cheapest Megawatt-Hour Is Not Always the Most Valuable Megawatt-Hour
The power market makes the limitations of a simple commodity-cost comparison particularly clear. Wind and solar have become extraordinarily competitive sources of new electricity. Lazard's 2026 Levelized Cost of Energy analysis estimates the unsubsidized cost of new utility-scale solar at approximately $40-$98/MWh and onshore wind at approximately $37-$99/MWh. New natural-gas combined-cycle generation is estimated at approximately $51-$129/MWh. (Lazard, Levelized Cost of Energy+ 2026)
While those numbers are important, electricity has another characteristic that most commodities do not: Supply and demand have to remain balanced continuously. An electron that is available at noon is not necessarily equivalent to an electron required at midnight. Solar output follows sunlight. Wind output follows wind conditions.
Batteries can shift electricity through time, and they will play an increasingly important role in power systems. But the duration matters. The Department of Energy defines long-duration energy storage as systems capable of delivering electricity for 10 hours or more. DOE is also supporting demonstrations designed for 24-hour and even 72-hour operation. (U.S. Department of Energy, Long-Duration Energy Storage)
None of this means renewable power is unreliable, or that conventional generation is perfectly reliable. Gas plants can experience forced outages. Gas pipelines can become constrained. Nuclear plants require maintenance and refueling. Transmission lines fail. Batteries eventually discharge. Every energy system has constraints.
We shouldn’t be asking whether one technology is universally better than another. We should work to find out what combination of technologies can provide the required electricity, at the required time, for the required duration, at an acceptable cost.
That is where I believe hydrogen can become much more compelling. The opportunity is not for hydrogen to replace every electron or every fuel. It is to provide low-carbon energy where cost, reliability, duration, and availability matter most. That is what we are pursuing at Eclipse. By using existing subsurface assets and biotechnology, we can produce hydrogen at a cost that can compete with conventional and new energies.
There is still work to do. But if we can deliver hydrogen that is low-carbon, low-cost and reliable, the conversation changes. It is no longer about whether hydrogen has a place in the energy system. It is about how big that place can be.
Prabhdeep Singh Sekhon is CEO of Eclipse Energy, an energy technology company transforming depleted oil fields into low-cost, sustainable hydrogen resources through subsurface biotechnology. He brings nearly two decades of global energy experience spanning climate technology, venture capital, private equity, and multi-billion-dollar energy projects across five continents.