Can Houston stay a leader in the future of energy? Scott Nyquist weighs in. Photo via Getty Images

Houston has a legacy in in the energy industry — but can it remain the energy capital of the world? In short, yes.

That may sound counterintuitive, given that the energy system is transitioning — slowly, but inexorably — away from the city’s strengths in oil and gas. But that is the point: to an extent that may be overlooked, the O&G industry is critical to the transition, in two ways. Houston is well placed to take the lead on both.

First, there is the simple fact that oil and gas are essential, and will be for decades to come. About 99 percent of vehicles on the road right now use fossil fuels, and there are no readily available substitutes for their uses as feedstock for other industries, such as chemicals. Oil and gas account for almost 70 percent of US primary energy demand.

I do believe that their influence will diminish, as the energy system transitions to cleaner, lower-emission sources. McKinsey’s most recent Global Energy Perspective projected demand for oil will peak by 2027 and for gas a decade later. The International Energy Agency (IEA) sees the same evolution, but somewhat more slowly. Even after demand peaks, whenever that is, oil and gas will still be used, just not as much. I don’t see any reasonable scenario in which oil and gas disappears or is left in the ground for decades to come.

Second, and more interestingly, the O&G industry itself is essential to the goal of reducing greenhouse-gas emissions. If that sounds counterintuitive, too—well, it is. But bear with me. Under almost all emissions-reduction scenarios, carbon capture and storage (CCS), including direct air capture, and hydrogen play huge roles--accounting for more than 20 percent of future cuts in the IEA’s projection, for example. The Intergovernmental Panel on Climate Change also sees a big role for CCS, while noting that “global rates of CCS deployment are far below those in modelled pathways limiting global warming to 1.5°C or 2°C.” In other words, it matters, and there’s not enough of it. Hydrogen has been many people’s favorite technology of the future since at least the 1990s; the World Energy Council says it could account for as much as 25 percent of total final energy consumption by 2050, though likely less.

Let’s consider CCS first. This refers to reducing carbon-dioxide (CO2) emissions, particularly from industry, by capturing it on-site and then storing it underground: it is therefore never released into the atmosphere. Direct air capture sucks out carbon from the atmosphere, and then stores it. There is more than enough storage capacity, according to the IEA, and the technologies work.

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Credit: Global CCS Institute

The problem has been regulation and economics—CCS is relatively expensive. About half of US emissions come from power generation and industry, such as cement; carbon capture works for both. And that is just what is possible now. Eventually, captured CO2 could be used to make a wide array of products, including building materials, carbon fiber, synthetic fuels, and plastics.

The Biden Administration is allocating $3.5 billion for direct air capture projects and $8 billion for hydrogen; those are not huge sums, given how costly large-scale energy projects are, but it just might be the beginning of bigger things. In addition, companies that have committed to net zero are beginning to put serious money behind carbon capture—almost $2 billion so far this year, compared to just $50 million in the past.

All this is relevant to Houston because Texas is the largest single US producer of both oil and gas, and these are the only players that now routinely use CCS, for gas processing and enhanced oil recovery. Houston is, by far, the national leader in carbon capture. Moreover, CCS can help to scale up “blue” or lower-emissions hydrogen, which could be an even bigger opportunity.

Hydrogen is not a source of energy, but a carrier of it. Once the hydrogen is produced—that is, separated from other elements, such as the oxygen in water—it can be stored and then released, either through combustion or via a fuel cell that converts hydrogen into electricity. Hydrogen could be used in a wide variety of ways, including powering vehicles, heating buildings, and fueling industry. Indeed, its potential is so broad and deep that the Hydrogen Council (with help from McKinsey) estimated late last year that hydrogen could contribute more than 20 percent of emissions abatement to 2050. The Council is a trade group and may therefore be a little optimistic (or a lot), but no one questions the potential of hydrogen in cutting emissions.

Right now, the primary use of hydrogen is in oil refining, which is one of Houston’s major industries. In addition, O&G companies are already looking into the conversion of methane in natural gas to hydrogen as well as the possibility of blending hydrogen into natural gas to lower the carbon content.

The Houston region already produces and consumes a third of the nation’s hydrogen, and is home to most of its dedicated hydrogen pipelines; its massive and efficient pipeline and transport system for gas can be adapted to move hydrogen. For the production of “green” or very-low emissions hydrogen, Houston also has a significant—and growing--renewable energy infrastructure. Indeed, if Texas was a country, it would be the world’s fifth-largest generator of wind power, and it is second in solar in the United States.

In short, when it comes to hydrogen, Houston is well ahead of the competitive pack, not only in physical terms, but in the human expertise that will count most of all to turn hydrogen from boutique to big. According to a recent report by the Center for Houston’s Future, Houston-based hydrogen assets could abate 220 million tons of carbon emissions by 2050, or more than half of Texas’s current emissions. Plus, it could create $100 billion in economic value.

The bottom line: there is no practical emissions reduction on the scale that the United States has committed to—net zero by 2050—without the development of CCS and hydrogen. And the O&G industry is leading the way in both these technologies. That puts Houston in an enviable position to both be part of the transition and to benefit from it. All told, according to the Houston Energy Transition Initiative, which includes 17 major energy-industry players, the region could gain up to 400,000 jobs in an accelerated scenario of adopting lower-carbon technologies. (McKinsey helped with this research, too.) To use a term beloved of consultants, that looks like a win-win.

Houston calls itself the “energy capital of the world”—and this isn’t a case of all hat and no cattle. The city is home to a critical mass of capital, innovation, expertise, and entrepreneurship. To continue to deserve that title, however, will require Houston to embrace the challenge of the energy transition: providing the reliable energy the world needs while also reducing emissions.

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Scott Nyquist is a senior advisor at McKinsey & Company and vice chairman, Houston Energy Transition Initiative of the Greater Houston Partnership. The views expressed herein are Nyquist's own and not those of McKinsey & Company or of the Greater Houston Partnership. This article originally ran on LinkedIn.

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Houston startup secures $5M to turn oilfield wastewater into critical minerals

fresh funding

Houston-based startup Altillion has secured $5 million in seed funding to accelerate the commercialization of its proprietary IRIS and ALIX technologies, which convert oilfield-produced water into valuable minerals.

San Francisco-based EIC Rose Rock and Houston-based Flathead Forge led the round. Altillion says the funding will go toward pilot facilities and commercial deployments as the company looks to scale in the U.S.

“Altillion’s efficient and scalable technologies are needed more than ever to reshape critical mineral recovery and facilitate beneficial use of oilfield brines,” Jay Keener, Altillion’s CEO and co-founder, said in a news release. “We’re uniquely positioned to provide a stable, domestic supply of the critical minerals needed for electronics, batteries, healthcare and national defense technologies. This investment from EIC Rose Rock and Flathead Forge enables us to strategically accelerate this impact and is very timely given the current geopolitical dynamics.”

Altillion's IRIS and ALIX platforms extract minerals like iodine, lithium and copper from oilfield-produced water, geothermal brines and salars. This process allows companies to unlock new sources of revenue while also boosting the domestic critical minerals supply chain. The company announced earlier this summer that it will launch a feasibility project in the Permian Basin and aims to develop a path to commercial-scale implementation in the field.

“We are excited to partner with Altillion to scale and deploy these world-class technologies to access the vast wealth hidden in wastewater,” David Clouse, Managing Director of EIC Rose Rock, added in the release. “With Altillion, we’re expanding our ability to empower the energy industry to domestically source the critical minerals America needs for a robust economy and supply chain.”

Altillion was founded by Keener and COO Scott Buckwald in 2023. Keener previously founded KDH Trading, where Buckwald also serves as COO, according to his LinkedIn page.

Houston's KBR to provide tech for Singapore SAF plant

SAF agreement

Houston engineering and technology contractor KBR has been picked as the technology provider for what’s expected to be Asia's first commercial-scale ethanol-to-jet sustainable aviation fuel (SAF) plant.

The proposed plant on Jurong Island in Singapore is being developed by Keppel Ltd.’s Infrastructure Division and Aster Chemicals and Energy. KBR will provide technology licensing and Front-End Engineering Design (FEED) services based on its PureSAF technology.

The plant has a planned production capacity of up to 100,000 tons of SAF per year. The plant is subject to final investment decisions and regulatory approvals.

“We are looking forward to working with Keppel and Aster on this key project and to support Singapore’s ambition of becoming Asia’s leading SAF hub and advancing the ongoing efforts to decarbonize the country’s aviation ecosystem,” Stuart Bradie, KBR president and CEO, said in a news release.

According to KBR, its PureSAF Technology can process multiple feedstocks like bioethanol, syngas, carbon dioxide and hydrogen and convert them to SAF, diesel and gasoline.

The technology was developed by Swedish Biofuels AB and commercialized by KBR.

“KBR’s PureSAF is a feedstock-flexible, bankable technology that is designed to deliver a 100% drop in jet fuel, ready to power aircraft without blending,” Bradie added in the news release. “We are constantly innovating our SAF solution to make it compatible with feedstock availability in different regions and to enable the aviation industry to transition to low-carbon jet fuel with a cost-optimized approach.

KBR has also entered into a memorandum of intent with Keppel’s Infrastructure Division, which states that the companies will collaborate again on decarbonization efforts across biofuels, plastic recycling, digitalization via AI, and SAF.

KBR announced in October that it would spin off its Mission Technology Solutions business, nicknamed SpinCo. The scaled-down KBR, nicknamed RemainCo, would concentrate solely on sustainability technology and services designed to reduce carbon emissions and support energy transition efforts. SpinCo named its new CEO and CFO earlier this month.

Houston energy expert discusses why hydrogen still has a future

Guets Column

Not long ago, hydrogen was hailed as the next big thing in clean energy. Investors poured in, and countries from Japan to Germany built ambitious hydrogen strategies. It wasn’t a new discovery; hydrogen has been used for over a century in refineries and fertilizers, but it suddenly found itself reborn as the world began working toward decarbonization.

When hydrogen burns, the only byproduct is water. Green hydrogen, produced with renewable power, could replace fossil fuels in everything from trucks to ships to steel mills. But the momentum has cooled. Costs remain stubbornly high, several projects have been delayed or canceled, and policy support has wavered. In the U.S., a change in administration has created uncertainty. In Europe, some governments are slowing funding or revising hydrogen mandates. Even the International Maritime Organization (IMO) recently postponed a key vote on fuel-carbon standards.

Yet as Mike Graff , former Chairman and CEO of American Air Liquide, said in an Energy Forum episode with Ed Emmett at Rice University’s Baker Institute, “The world is always looking to make sure that energy is first available, it’s affordable, and then it’s clean. And I see hydrogen over time evolving in that manner.” He also noted that “companies have produced hydrogen and utilized hydrogen for over 100 years, and they’ve done that very safely… I think we can continue that moving forward.”

China has doubled down on hydrogen as part of its industrial strategy, building massive electrolyzer manufacturing capacity and funding dozens of pilot projects across transportation and heavy industry. Japan and South Korea also stand out as examples of how sustained policy support can drive hydrogen progress.

Where Hydrogen Fits Today

To understand hydrogen’s role now, it helps to remember what it actually does. About 76 percent of global hydrogen is produced from natural gas and used in refineries, fertilizer plants, and chemical production. This so-called “gray hydrogen” is essential but carbon-intensive.

What’s new is the rise of low-carbon hydrogen, “blue” hydrogen made from natural gas with carbon capture, and “green” hydrogen produced by splitting water with renewable electricity. These methods are expensive, but they’re growing. According to the International Energy Agency, global low-emissions hydrogen output rose about 10 percent in 2024.

Hydrogen is also expanding beyond industry. As Graff explained, it already powers thousands of forklifts in warehouses across the U.S. and is beginning to appear in commercial trucking, locomotives, and even aviation prototypes. “You can now drive 600 to 800 miles on a hydrogen fuel-cell truck,” he noted, “and refuel in 30 minutes, just like you would refill for diesel.”

The Cost Challenge and a Gulf Coast Opportunity

So why the slowdown? One word: economics.

Even with generous tax credits, green hydrogen can cost two to three times more than conventional fuels. Electrolyzers are still expensive, though costs are falling as Chinese suppliers introduce low-cost alternatives.

Infrastructure is another hurdle. Pipelines, storage, and fueling networks need to be built from scratch.

But those same challenges point to opportunity, especially along the U.S. Gulf Coast. The region already has one of the world’s largest hydrogen pipeline systems and a well-established energy infrastructure. Texas, in particular, has a head start. It already hosts nearly 1,000 miles of hydrogen pipelines, about 64 percent of the U.S. total, and some of the world’s largest hydrogen storage sites at Moss Bluff, Spindletop, and Clemens. Out of 140 hydrogen plants operating nationwide, 43 are in Texas, supported by extensive refining and natural gas infrastructure. This combination of assets gives the Gulf Coast an unmatched foundation to scale low-carbon hydrogen and integrate production, storage, and end use across industries.

As Ken Medlock , Senior Director of the Center for Energy Studies at Rice University’s Baker Institute, explains in his report: Developing a Robust Hydrogen Market in Texas, Texas has all the critical elements needed to lead in a low-carbon hydrogen economy, including existing infrastructure, a skilled workforce, and proximity to industrial demand centers. That combination gives it a distinct advantage in scaling up hydrogen production and use.

Governments around the world are showing renewed confidence in hydrogen. The European Commission awarded nearly €3 billion to 13 major projects, while Japan and South Korea continue expanding fueling networks. China is leading one of the most ambitious buildouts, with more than 50 planned hydrogen projects and a rapidly growing fleet of fuel-cell vehicles. Despite recent setbacks, global investment has surpassed $100 billion, and projects in places such as Chile, where strong renewables and low-cost Chinese equipment help make projects feasible, are moving toward final investment decisions.

What Comes Next

Hydrogen’s future won’t depend on replacing every fuel, but on filling the gaps where batteries and biofuels fall short.

Transportation: This is where momentum is strongest today. Batteries dominate cars, but hydrogen fuel cells excel in heavy trucks, ships, and planes. As Graff noted, “You can design a commercial vehicle with the same utility as diesel but powered by hydrogen.” Airbus and Boeing are testing hydrogen propulsion concepts, and several ports are experimenting with hydrogen bunkering for cargo ships.

Industry: Steel, cement, and chemicals account for a quarter of global emissions. Hydrogen-based direct-reduced-iron (DRI) steelmaking is being piloted in Europe and Asia and could transform how these materials are produced at scale.

Storage: Hydrogen can store energy for days or weeks, serving as backup for renewables like wind and solar. But storage remains very costly and may only prove viable for the “last mile” of greenhouse gas reduction or grid stability.

These uses may sound niche, but that’s how technologies scale. They start small, gain an economic foothold, and expand as costs decline.

Conclusion

Hydrogen's early, perhaps irrational, exuberance may have cooled, but amidst the rubble of cancelled projects are the beginnings of an industry that could play a vital niche role on the journey towards a lower carbon intensity energy future. As costs fall and infrastructure around the world expands, hydrogen's role will expand into the nooks and crannies of the energy industry.

It won't replace every fuel, but it doesn't have to. Success will come from steady, project-by-project progress.

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Scott Nyquist is a senior advisor at McKinsey & Company and vice chairman, Houston Energy Transition Initiative of the Greater Houston Partnership. The views expressed herein are Nyquist's own and not those of McKinsey & Company or of the Greater Houston Partnership. This article originally appeared on LinkedIn.