Smart financial tool from oil and gas industry veterans ensures funds are available to seal inactive wells in the future. Image via Shutterstock.

Think back to when your first friend got their driver’s license. Everyone wanted a ride, but when it came time to fill the tank, pay for repairs and maintenance, or – worst case, perform some autobody work to resolve damage incurred in a fender-bender – the driver usually got caught holding the bag.

For the oil and gas industry, the same thing often happens with old wells that have stopped producing at an economic rate. When production is high and prices are favorable, everyone wants a piece of the action. But as soon as a well’s production slows to a crawl or the bottom falls out of the market (again), investing partners scatter like cockroaches into obscurity, leaving the majority owner with the financial and environmental burden to properly seal up the well.

Just over 100 years ago, the Texas Railroad Commission, which serves as the primary governing body for oil and gas wells developed across the state, enacted the first regulation calling for due care when plugging inactive or otherwise deemed useless wells. The policy laid the groundwork for keeping potential contaminants contained to prevent environmental and safety hazards.

Oklahoma followed suit some 15+ years later, subsequently followed by California another dozen years after that. The remaining states have enacted similar laws within just the last 40 years. But that’s not to say that the industry was not properly closing off wellbores after useful life. Nay, it merely highlights the pace at which regulatory actions move across the nation after inception in a single state.

Of particular note, but perhaps not as obvious, is the time lag between Texas’s first policies demanding the costly, albeit necessary, activities to plug and abandon (P&A) a well and the Asset Retirement Obligation (ARO), an accounting treatment introduced in 2001 that ensures companies recognize and retain the financial liability for completing end-of-useful-life requirements.

Unfortunately, ARO is truly just an accounting concept, so if a company becomes insolvent, there is limited chance the investment necessary to properly P&A a well will be available. This does not bode well for the industry, nor the environment, as valuable hydrocarbons are lost from leaking, seeping, and weeping wells across the country.

Let’s not catastrophize the potential environmental damage here, however. Highly conservative estimates made by the EPA in 2022 claim over 2 million potentially orphaned wells produce methane emissions equivalent to approximately 1% of all cars on the road across the United States. No one argues that this is acceptable, but it does put things into perspective, given that approximately 1/3 of global emissions are attributable to light duty and commercial vehicles on the road.

To bolster the industry with confidence the cash investment necessary for P&A activities will be readily available upon asset retirement, one company looked outside of energy for guidance. Embracing a model most typically associated with life insurance, OneNexus Assurance provides contractual certainty to upstream operators that funds will be available to cover the associated end-of-useful-life costs (depending on the benefit amount purchased, of course).

“Our business model provides the oil and gas industry much-needed peace of mind that capital is available when inevitable ARO funding becomes imminent and offers a preferable alternative to trust funds, surety bonds, and sinking funds as a means of prefunding decommissioning liabilities," says Tony Sanchez, founder and CEO of OneNexus, in a recent release.

The OneNexus approach allows the primary operator to collect monthly payments for end-of-useful-life costs long before the well is depleted from other invested partners.

“OneNexus Assurance is a game changer,” continues Sanchez, “It enables responsible parties to pay towards decommissioning funding in today’s dollars at a substantial discount to the ultimate plugging cost, it guarantees that a pre-determined amount decided by the client is secured for the future, and it does away with the need to chase payments later.”

While this solution does not fully resolve the problem of orphaned wells – the aforementioned 2 million (or less) wells no longer producing but not fully sealed off, either – it does at least guarantee that whomever gets caught holding the bag at the end will find some dollars inside.

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Wind and solar supplied over a third of ERCOT power, report shows

power report

Since 2023, wind and solar power have been the fastest-growing sources of electricity for the Electric Reliability Council of Texas (ERCOT) and increasingly are meeting stepped-up demand, according to a new report from the U.S. Energy Information Administration (EIA).

The report says utility-scale solar generated 50 percent more electricity for ERCOT in the first nine months this year compared with the same period in 2024. Meanwhile, electricity generated by wind power rose 4 percent in the first nine months of this year versus the same period in 2024.

Together, wind and solar supplied 36 percent of ERCOT’s electricity in the first nine months of 2025.

Heavier reliance on wind and solar power comes amid greater demand for ERCOT electricity. In the first nine months of 2025, ERCOT recorded the fastest growth in electricity demand (5 percent) among U.S. power grids compared with the same period last year, according to the report.

“ERCOT’s electricity demand is forecast to grow faster than that of any other grid operator in the United States through at least 2026,” the report says.

EIA forecasts demand for ERCOT electricity will climb 14 percent in the first nine months of 2026 compared with the same period this year. This anticipated jump coincides with a number of large data centers and cryptocurrency mining facilities coming online next year.

The ERCOT grid covers about 90 percent of Texas’ electrical load.

Micro-nuclear reactor to launch next year at Texas A&M innovation campus

nuclear pilot

The Texas A&M University System and Last Energy plan to launch a micro-nuclear reactor pilot project next summer at the Texas A&M-RELLIS technology and innovation campus in Bryan.

Washington, D.C.-based Last Energy will build a 5-megawatt reactor that’s a scaled-down version of its 20-megawatt reactor. The micro-reactor initially will aim to demonstrate safety and stability, and test the ability to generate electricity for the grid.

The U.S. Department of Energy (DOE) fast-tracked the project under its New Reactor Pilot Program. The project will mark Last Energy’s first installation of a nuclear reactor in the U.S.

Private funds are paying for the project, which Robert Albritton, chairman of the Texas A&M system’s board of regents, said is “an example of what’s possible when we try to meet the needs of the state and tap into the latest technologies.”

Glenn Hegar, chancellor of the Texas A&M system, said the 5-megawatt reactor is the kind of project the system had in mind when it built the 2,400-acre Texas A&M-RELLIS campus.

The project is “bold, it’s forward-looking, and it brings together private innovation and public research to solve today’s energy challenges,” Hegar said.

As it gears up to build the reactor, Last Energy has secured a land lease at Texas A&M-RELLIS, obtained uranium fuel, and signed an agreement with DOE. Founder and CEO Bret Kugelmass said the project will usher in “the next atomic era.”

In February, John Sharp, chancellor of Texas A&M’s flagship campus, said the university had offered land at Texas A&M-RELLIS to four companies to build small modular nuclear reactors. Power generated by reactors at Texas A&M-RELLIS may someday be supplied to the Electric Reliability Council of Texas (ERCOT) grid.

Also in February, Last Energy announced plans to develop 30 micro-nuclear reactors at a 200-acre site about halfway between Lubbock and Fort Worth.

Rice University partners with Australian co. to boost mineral processing, battery innovation

critical mineral partnership

Rice University and Australian mineral exploration company Locksley Resources have joined together in a research partnership to accelerate the development of antimony processing in the U.S. Antimony is a critical mineral used for defense systems, electronics and battery storage.

Rice and Locksley will work together to develop scalable methods for extracting and utilizing antimony. Currently, the U.S. relies on imports for nearly all refined antimony, according to Rice.

Locksley will fund the research and provide antimony-rich feedstocks and rare earth elements from a project in the Mojave Desert. The research will explore less invasive hydrometallurgical techniques for antimony extraction and explore antimony-based materials for use in batteries and other energy storage applications.

“This strategic collaboration with Rice marks a pivotal step in executing Locksley’s U.S. strategy,” Nathan Lude, chairman of Locksley Resources, said in a news release. “By fast-tracking our research program, we are helping rebuild downstream capacity through materials innovation that the country urgently requires.”

Pulickel Ajayan, the Benjamin M. and Mary Greenwood Anderson Professor of Materials Science and Nanoengineering at Rice, is the principal investigator of the project.

“Developing scalable, domestic pathways for antimony processing is not only a scientific and engineering challenge but also a national strategic priority,” Ajayan said in the news release. “By combining Rice’s expertise in advanced materials with Locksley’s resources, we can address a critical supply chain gap and build collaborations that strengthen U.S. energy resilience.”

The Rice Advanced Materials Institute (RAMI) will play a major role in supporting the advancement of technology and energy-storage applications.

“This partnership aligns with our mission to lead in materials innovations that address national priorities,” Lane Martin, director of RAMI, said in a news release. “By working with Locksley, we are helping to build a robust domestic supply chain for critical materials and support the advancement of next-generation energy technologies.”