James Tour of Rice University has received funding to support his energy transition research. Photo via rice.edu

A Rice University chemist James Tour has secured a new $12 million cooperative agreement with the U.S. Army Engineer Research and Development Center on the team’s work to efficiently remove pollutants from soil.

The four-year agreement will support the team’s ongoing work on removing per- and polyfluoroalkyl substances (PFAS) from contaminated soil through its rapid electrothermal mineralization (REM) process, according to a statement from Rice.

Traditionally PFAS have been difficult to remove by conventional methods. However, Tour and the team of researchers have been developing this REM process, which heats contaminated soil to 1,000 C in seconds and converts it into nontoxic calcium fluoride efficiently while also preserving essential soil properties.

“This is a substantial improvement over previous methods, which often suffer from high energy and water consumption, limited efficiency and often require the soil to be removed,” Tour said in the statement.

The funding will help Tour and the team scale the innovative REM process to treat large volumes of soil. The team also plans to use the process to perform urban mining of electronic and industrial waste and further develop a “flash-within-flash” heating technology to synthesize materials in bulk, according to Rice.

“This research advances scientific understanding but also provides practical solutions to critical environmental challenges, promising a cleaner, safer world,” Christopher Griggs, a senior research physical scientist at the ERDC, said in the statement.

Also this month, Tour and his research team published a report in Nature Communications detailing another innovative heating technique that can remove purified active materials from lithium-ion battery waste, which can lead to a cleaner production of electric vehicles, according to Rice.

“With the surge in battery use, particularly in EVs, the need for developing sustainable recycling methods is pressing,” Tour said in a statement.

Similar to the REM process, this technique known as flash Joule heating (FJH) heats waste to 2,500 Kelvin within seconds, which allows for efficient purification through magnetic separation.

This research was also supported by the U.S. Army Corps of Engineers, as well as the Air Force Office of Scientific Research and Rice Academy Fellowship.

Last year, a fellow Rice research team earned a grant related to soil in the energy transition. Mark Torres, an assistant professor of Earth, environmental and planetary sciences; and Evan Ramos, a postdoctoral fellow in the Torres lab; were given a three-year grant from the Department of Energy to investigate the processes that allow soil to store roughly three times as much carbon as organic matter compared to Earth's atmosphere.

By analyzing samples from the East River Watershed, the team aims to understand if "Earth’s natural mechanisms of sequestering carbon to combat climate change," Torres said in a statement.

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This article originally ran on InnovationMap.

A Rice University professor studied the Earth's carbon cycle in the Rio Madre de Dios to shed light on current climate conditions. Photo courtesy of Mark Torres/Rice University

New study from Houston research team looks at how the Earth cycles fossil carbon

analyzing earth

Carbon cycles through Earth, its inhabitants, and its atmosphere on a regular basis, but not much research has been done on that process and qualifying it — until now.

In a recent study of a river system extending from the Peruvian Andes to the Amazon floodplains, Rice University’s Mark Torres and collaborators from five institutions proved that that high rates of carbon breakdown persist from mountaintop to floodplain.

“The purpose of this research was to quantify the rate at which Earth naturally releases carbon dioxide into the atmosphere and find out whether this process varies across different geographic locations,” Torres says in a news release.

Torres published his findings in a study published in PNAS, explaining how they used rhenium — a silvery-gray, heavy transition metal — as a proxy for carbon. The research into the Earth’s natural, pre-anthropogenic carbon cycle stands to benefit humanity by providing valuable insight to current climate challenges.

“This research used a newly-developed technique pioneered by Robert Hilton and Mathieu Dellinger that relies on a trace element — rhenium — that’s incorporated in fossil organic matter,” Torres says. “As plankton die and sink to the bottom of the ocean, that dead carbon becomes chemically reactive in a way that adds rhenium to it.”

The research was done in the Rio Madre de Dios basin and supported by funding from a European Research Council Starting Grant, the European Union COFUND/Durham Junior Research Fellowship, and the National Science Foundation.

“I’m very excited about this tool,” Torres said. “Rice students have deployed this same method in our lab here, so now we can make this kind of measurement and apply it at other sites. In fact, as part of current research funded by the National Science Foundation, we are applying this technique in Southern California to learn how tectonics and climate influence the breakdown of fossil carbon.”

Torres also received a three-year grant from the Department of Energy to study soil for carbon storage earlier this year.

Two Rice University researchers just received DOE funding for carbon storage research. Photo by Gustavo Raskosky/Rice University

Research team lands DOE grant to investigate carbon storage in soil

planting climate change impact

Two researchers at Rice University are digging into how soil is formed with hopes to better understand carbon storage and potential new methods for combating climate change.

Backed by a three-year grant from the Department of Energy, the research is led by Mark Torres, an assistant professor of Earth, environmental and planetary sciences; and Evan Ramos, a postdoctoral fellow in the Torres lab. Co-investigators include professors and scientists with the Brown University, University of Massachusetts Amherst and Lawrence Berkeley National Laboratory.

According to a release from Rice, the team aims to investigate the processes that allow soil to store roughly three times as much carbon as organic matter compared to Earth's atmosphere.

“Maybe there’s a way to harness Earth’s natural mechanisms of sequestering carbon to combat climate change,” Torres said in a statement. “But to do that, we first have to understand how soils actually work.”

The team will analyze samples collected from different areas of the East River watershed in Colorado. Prior research has shown that rivers have been great resources for investigating chemical reactions that have taken place as soil is formed. Additionally, research supports that "clay plays a role in storing carbon derived from organic sources," according to Rice.

"We want to know when and how clay minerals form because they’re these big, platy, flat minerals with a high surface area that basically shield the organic carbon in the soil," Ramos said in the statement. "We think they protect that organic carbon from breakdown and allow it to grow in abundance.”

Additionally, the researchers plan to create a model that better quantifies the stabilization of organic carbon over time. According to Torres, the model could provide a basis for predicting carbon dioxide changes in Earth's atmosphere.

"We’re trying to understand what keeps carbon in soils, so we can get better at factoring in their role in climate models and render predictions of carbon dioxide changes in the atmosphere more detailed and accurate,” Torres explained in the statement.

The DOE and Rice have partnered on a number of projects related to the energy transition in recent months. Last week, Rice announced that it would host the Carbon Management Community Summit this fall, sponsored by the DOE, and in partnership with the city of Houston and climate change-focused multimedia company Climate Now.

In July the DOE announced $100 million in funding for its SCALEUP program at an event for more than 100 energy innovators at the university.

Rice also recently opened its 250,000-square-foot Ralph S. O’Connor Building for Engineering and Science. The state-of-the-art facility is the new home for four key research areas at Rice: advanced materials, quantum science and computing, urban research and innovation, and the energy transition.

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Houston company tapped to run renewables project with Meta power agreement

power deal

Houston-based Consolidated Asset Management Services (CAMS) has been selected to operate Plano-based Nexus Renewable Power's major renewables development, known as Project Goody.

CAMS will provide comprehensive asset management, operations, maintenance, regulatory compliance and remote operations services for the $220 million solar and battery storage project located in Lamar County, Texas, northeast of Dallas.

“The project underscores CAMS’ commitment to supporting dependable, grid-strengthening energy infrastructure across the United States,” Brian Ivany, EVP of CAMS Renewables, said in a news release. “Our team is proud to support Nexus and excited to apply our subject matter expertise and hands-on approach to ensure operational excellence and long-term success of the Goody project.”

Project Goody, or MRG Goody Solar and Storage, will feature a 172-megawatt solar facility paired with 237 megawatts of battery energy storage. The project will be connected to the ERCOT grid. Meta, the parent company of Facebook, has signed on as the power offtaker for the project.

Nexus Renewable Power develops, finances and operates solar and energy storage assets. It currently operates projects generating 325 megawatts of solar and 350 megawatts of battery storage, with another 300 megawatts of solar and 1 gigawatt of battery storage projects under construction, according to its website. Project Goody is the first in a series of renewable developments underway, according to Nexus.

CAMS manages and operates energy infrastructure assets for its clients. Last year, it added InfraRed Capital Partners, which owns the 202-megawatt Mesteño Wind Project in the Rio Grande Valley, to its customer list. It also rolled out services to help deliver power to meet the growing demand from AI data centers.

Houston-area solar farm to move forward with $394M in construction financing

solar funding

Project SunRope, a 347-megawatt solar project outside of Houston, has landed $394 million in construction financing.

The project, located in Wharton County, about 60 miles outside of Houston, is slated to begin commercial operation in Q3 2027 and aims to support emission reductions, grid reliability and affordability in one of the highest electricity-demand regions in Texas and the U.S. It’s being developed through a joint venture between San Antonio-based OCI Energy and leading Israeli solar company Arava Power. New York-based ING Capital underwrote the financing package.

“The close of construction financing for Project SunRoper represents an important milestone for OCI Energy and our partners,” Sabah Bayatli, resident of OCI Energy, said in a news release. “This transaction reflects our continued commitment to deliver high-quality, utility-scale solar projects that strengthen grid reliability and provide affordable energy infrastructure.”

The construction financing is supported by a 20-year power purchase agreement with a Fortune 100 company, according to the release. Other collaborators include BHI and Bank of Hapoalim, which provided financing support and letters of credit to support the development of the project.

This is the second transaction between OCI Energy and ING, as they previously worked together on financing for the Alamo City Battery Energy Storage System, a 120-megawatt battery energy storage system under development in Bexar County.

“This project exemplifies the high‑quality renewable infrastructure we seek to finance – a strong sponsor partnership, a long‑term contracted revenue profile, and a well‑located asset in one of the most dynamic power markets in the United States,” Sven Wellock, managing director at ING, added in the release. “We are proud to build on our existing relationship with OCI Energy and to partner with Arava Power on its continued expansion in the U.S. market, advancing a project that will deliver reliable, affordable clean energy for years to come.”

OCI Energy operates several utility-scale solar and battery energy storage system projects outside of the San Antonio area, as well as in Georgia and New Jersey. It has five other projects under construction outside of San Antonio and Waco, with more than 20 under development throughout the state.

Energy expert reviews Texas' big strides in winter grid resilience

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Many Houstonians were holding their breath during the hard freezes that occurred in late January. While Winter Storm Uri was five years ago, the massive blackouts remain a fresh memory.

During that storm, 4.5 million Texans lost power, the state suffered over $80 billion in economic losses, and more than 200 people lost their lives.

During the most recent freeze events, Texas did not experience large-scale blackouts across the state like those in 2021. Regional power outages occurred due to infrastructure issues, including ice on trees and power lines. Since Uri, we have not seen the same sustained weather conditions to test the grid, but there have been significant improvements.

What Has Changed Since Uri

The ERCOT grid has changed significantly since the storm in 2021:

  1. Senate Bill 3 required generators to winterize their equipment, treated the natural gas supply chain as critical infrastructure, and imposed fines of up to $1 million for falling short. More than 300 power units have already been weatherized, and regulators have issued clearer standards to help keep the grid running during extreme cold.
  2. There has been significant progress with monitoring the grid and preparing for emergencies. ERCOT has improved in spotting problems before they turn into outages. Operators now have stronger real-time visibility into generator performance and fuel supplies, improved coordination with natural gas providers, and more advanced forecasting tools that help predict energy availability.
  3. The Texas Energy Fund authorized more than $10 billion for reliability projects across the state. The funds support four programs that aim to increase energy generation and dispatch capacity during periods of grid strain.

Signs of Progress

The grid's performance from 2022 to 2026 shows measurable improvements in how the system handles extreme cold.

  • ERCOT has implemented conservation alerts to help reduce grid load and prevent major blackouts.
  • Operators monitor the reserve margin, essentially the buffer between supply and demand. When that cushion holds, the grid has more flexibility to keep power flowing.
  • Stronger coordination between generators, transmission operators and utilities is also improving overall system resilience.

Additionally, Texas has built one of the largest smart-meter networks in the country, enabling better predictive analysis of electricity demand and usage. These smart meters have been installed in 90% of Texas residential homes, providing a much more accurate picture of energy consumption.

Finally, energy companies are helping customers understand how small changes in usage can ease grid strain. Individually, those adjustments may seem minor, but across millions of homes, they can meaningfully lower demand and help reduce the risk of outages.

Remaining Vulnerabilities and Possible Risks

Despite the progress, Grid Strategies assigned the Texas power grid a D-minus rating this year. A major factor in the rating is Texas’s lack of connections to neighboring power grids. While the state earned a B for legislative engagement, delayed transmission projects contributed to a lower C-minus outcome score.

While the grid has become more reliable since 2021, several threats remain that could impede its continued progress.

  • Population growth remains one of the biggest tests for Texas grid reliability. The state is expected to add roughly 15 million residents over the next three decades.
  • Data centers, industrial expansion, and corporate relocations continue to drive electricity demand higher. Houston sits at the center of that growth, making it a key region to watch to see whether Texas can keep pace with rising energy needs.
  • Increased weather volatility in Texas will make demand predictions even more challenging. Currently, Texas supplies almost 45% of its energy needs with natural gas. Natural gas production and extraction are particularly susceptible to cold weather and freezing conditions.

What “No Blackouts” Really Means for Texans

A stronger grid comes with a price tag. Meeting Texas’s growing demand requires major investments in generation, transmission, and emergency preparedness, and those costs ultimately flow to consumers through higher electric bills.

At the same time, Texans are becoming more proactive about managing energy use and protecting against outages, with more homeowners investing in generators, battery storage, and solar as part of long-term energy planning.

Final Thoughts

As lawmakers continue to debate how to recover grid investments, consumers will ultimately bear part of the cost. The challenge moving forward is improving reliability while keeping electricity affordable for Texans.

Texas continues to expand renewable generation to diversify the power mix, and battery storage is quickly becoming a key reliability tool because it can respond almost instantly to demand spikes. At the same time, advanced forecasting technology is helping operators better anticipate grid stress.

The Texas energy market is evolving fast, driven by population growth and rising electricity demand. Lawmakers, regulators, and grid operators will need to stay aligned to keep reliability moving in the right direction, while consumers will play a bigger role in managing how and when they use electricity.

So, is Texas better prepared for winter today? In many ways, yes. But the grid is still vulnerable to extreme weather and rapid demand growth. Maintaining reliability will require continued investment, planning, and coordination to keep the lights on across the state.

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Sam Luna is director at BKV Energy, where he oversees brand and go-to-market strategy, customer experience, marketing execution, and more.