NextDecade enters a deal with two major investors to move toward final investment decision for the Rio Grande LNG Project. Image via Shutterstock.

The Rio Grande LNG Project (RGLNG), an LNG export facility in Cameron County, Texas with planned capacity for exporting up to 27 million tons of LNG per year, makes a giant leap toward the final investment decision stage with the latest agreements signed by NextDecade Energy announced earlier today.

Entry to this next phase includes executing investor agreements with Global Infrastructure Partners (GIP) and TotalEnergies (TTE). In addition, TTE commits to purchasing 5.4 million tons of LNG annually for the next 20 years from the first three trains (RGLNG Phase 1) that will transport to the facility, with additional options to purchase from subsequent trains.

“This announcement marks a momentous milestone for NextDecade,” said Matt Schatzman, chairman and CEO of NextDecade, in the release. “We are excited to work with GIP and TotalEnergies on RGLNG and our proposed CCS project at RGLNG. We are also eager to grow our partnership with GIP and TotalEnergies focusing on our shared vision to reduce carbon emissions in the energy sector.”

“With the world increasingly moving toward sustainable solutions, this partnership among GIP, TotalEnergies and NextDecade reinforces our shared commitment to helping lead the transition and shaping of the future of energy,” added Bayo Ogunlesi, chairman and Chief Executive Officer of Global Infrastructure Partners. “This venture marks a critical step in displacing coal usage and upholds GIP’s commitment to promoting decarbonization, energy security and energy affordability. Our shared vision with TotalEnergies and NextDecade, combined with our capabilities, will undoubtedly help catalyze the development of cleaner energy.”

"We are delighted to join forces with NextDecade and GIP on the development of this new US LNG project, for which TotalEnergies shall leverage its extensive experience in LNG and technical expertise in major industrial project development," commented Patrick Pouyanné, chairman and CEO of TotalEnergies. “Our involvement in this project will enhance our LNG capacity by 5.4 MTPA strengthening our ability to ensure Europe's gas supply security and to provide Asian customers with an alternative fuel that emits half as much as coal.”

Pending execution of the FID and definitive documentation, GIP becomes the majority investor in Phase 1 of the RGLNG, and TTE will acquire another 16.67%. Both companies will also have options to invest in Trains 4 and 5 servicing the South Texas LNG export facility and options to invest in future carbon capture and sequestration (CCS) efforts planned for RGNLG.

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Geothermal energy startup's $600M deal fuels surge in Houston VC funding

by the numbers

The venture capital haul for Houston-area startups jumped 23 percent from 2023 to 2024, according to the latest PitchBook-NVCA Venture Monitor.

The fundraising total for startups in the region climbed from $1.49 billion in 2023 to $1.83 billion in 2024, PitchBook-NVCA Venture Monitor data shows.

Roughly half of the 2024 sum, $914.3 million, came in the fourth quarter. By comparison, Houston-area startups collected $291.3 million in VC during the fourth quarter of 2023.

Among the Houston-area startups contributing to the impressive VC total in the fourth quarter of 2024 was geothermal energy startup Fervo Energy. PitchBook attributes $634 million in fourth-quarter VC to Fervo, with fulfillment services company Cart.com at $50 million, and chemical manufacturing platform Mstack and superconducting wire manufacturer MetOx International at $40 million each.

Across the country, VC deals total $209 billion in 2024, compared with $162.2 billion in 2023. Nearly half (46 percent) of all VC funding in North America last year went to AI startups, PitchBook says. PitchBook’s lead VC analyst for the U.S., Kyle Stanford, says that AI “continues to be the story of the market.”

PitchBook forecasts a “moderately positive” 2025 for venture capital in the U.S.

“That does not mean that challenges are gone. Flat and down rounds will likely continue at higher paces than the market is accustomed to. More companies will likely shut down or fall out of the venture funding cycle,” says PitchBook. “However, both of those expectations are holdovers from 2021.”

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This story originally appeared on our sister site, InnovationMap.com.

Houston researchers harness dialysis for new wastewater treatment process

waste not

By employing medical field technology dialysis, researchers at Rice University and the Guangdong University of Technology in China uncovered a new way to treat high-salinity organic wastewater.

In the medical field, dialysis uses a machine called a dialyzer to filter waste and excess fluid from the blood. In a study published in Nature Water, Rice’s team found that mimicking dialysis can separate salts from organic substances with minimal dilution of the wastewater, addressing some of the limitations of previous methods.

The researchers say this has the potential to lower costs, recover valuable resources across a range of industrial sectors and reduce environmental impacts.

“Traditional methods often demand a lot of energy and require repeated dilutions,” Yuanmiaoliang “Selina” Chen, a co-first author and postdoctoral associate in Elimelech’s lab at Rice, said in a news release. “Dialysis eliminates many of these pain points, reducing water consumption and operational overheads.”

Various industries generate high-salinity organic wastewater, including petrochemical, pharmaceutical and textile manufacturing. The wastewater’s high salt and organic content can present challenges for existing treatment processes. Biological and advanced oxidation treatments become less effective with higher salinity levels. Thermal methods are considered “energy intensive” and susceptible to corrosion.

Ultimately, the researchers found that dialysis effectively removed salt from water without requiring large amounts of fresh water. This process allows salts to move into the dialysate stream while keeping most organic compounds in the original solution. Because dialysis relies on diffusion instead of pressure, salts and organics cross the membrane at different speeds, making the separation method more efficient.

“Dialysis was astonishingly effective in separating the salts from the organics in our trials,” Menachem Elimelech, a corresponding author on the study and professor of civil and environmental engineering and chemical and biomolecular engineering at Rice, said in a news release. “It’s an exciting discovery with the potential to redefine how we handle some of our most intractable wastewater challenges.”