The Texas solar project is expected to go online in 2026. Photo via elawan.com

A Spanish renewable power company with its United States headquarters in Houston has struck a corporate power purchase agreement with Google.

Elawan Energy, announced that it will supply renewable energy to Google under a PPA for the energy generated by a 37 megawatts defined conditions solar project located in the Texas Hill Country.

The PPA deal was facilitated through LEAP (LevelTen Energy’s Accelerated Process), which was co-developed by Google and LevelTen Energy. The goal is to source and execute clean energy PPAs more efficiently. All of this will contribute to Google’s 2030 goal to run on 24/7 carbon-free energy on every grid where it operates.

Elawan, which has local development teams with offices in Houston, is working to expand its presence in North America by reinforcing its commitment to providing clean energy solutions. The company is part of the ORIX Group, and specializes in the development and operation of wind and solar power plants in 15 countries.

Elawan Energy and ORIX currently manage an operational portfolio of over 300 megawatts across ERCOT, SPP, and PJM regions. Elawan operates 1.8 gigawatts of renewable energy projects and has approximately 8 gigawatts under development.

The current solar project is in an advanced stage of development. The commercial operations are expected to commence in 2026.

Earlier this year, Google reported that it plans to spend more than $1 billion to support its cloud and data center infrastructure and expand its commitment to clean energy.

For the first time, Texas has outpaced California as the top state for new solar energy, according to American Clean Power Association's recent quarterly market report. The Lone Star State added 1.6 gigawatts of new solar, the report found.

Shell’s Savion subsidiary, which the energy giant acquired in 2021, plans to sell about one-fourth of its solar generation and storage assets. Photo via shell.us

Shell shrinks renewable portfolio yet again with latest divestment

sunsetting solar?

In a move aimed at focusing more on its oil and gas business, Houston-based Shell USA continues to scale back its wind and solar energy portfolio.

The Reuters news service reported February 29 that Shell’s Savion subsidiary, which the energy giant acquired in 2021, plans to sell about one-fourth of its solar generation and storage assets. These assets represent as much as 10.6 gigawatts of generation and storage capacity.

This development follows the completion in early February of deals for Kansas City, Missouri-based Savion to sell its 50 percent stake in a solar energy project in Ohio and for Houston-based Shell Wind Energy to sell its 60 percent stake in a wind farm in Texas.

The buyer of the Texas and Ohio assets was London-based investment manager InfraRed Capital Partners. Shell says it’ll manage both projects.

On its website, Savion says it has solar generation and storage projects underway totaling 38.1 gigawatts of capacity. Meanwhile, it has completed projects offering another 2.3 gigawatts of capacity.

During an investor presentation last June, Shell CEO Wael Sawan indicated that, for now, the company would put more of an emphasis on higher-profit oil and gas production and less of an emphasis on lower-profit renewable energy generation.

“It is critical that the world avoids dismantling the current energy system faster than we are able to build the clean energy system of the future. Oil and gas will continue to play a crucial role in the energy system for a long time to come, with demand reducing only gradually over time,” said Sawan, adding that “continued investment in oil and gas is critical to ensure a balanced energy transition.”

Sawan rose to the top post at Shell in January 2023, replacing Ben van Beurden. Sawan previously was Shell’s director of integrated gas, and renewables and energy solutions.

Reflecting Shell’s shifting priorities under Sawan’s leadership, the company’s spending in its renewables and energy solutions division fell 23 percent in 2023 compared with previous year, according to a Reuters analysis.

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Oxy opens energy-focused innovation center in Midtown Houston

moving in

Houston-based Occidental officially opened its new Oxy Innovation Center with a ribbon cutting at the Ion last month.

The opening reflects Oxy and the Ion's "shared commitment to advancing technology and accelerating a lower-carbon future," according to an announcement from the Ion.

Oxy, which was named a corporate partner of the Ion in 2023, now has nearly 6,500 square feet on the fourth floor of the Ion. Rice University and the Rice Real Estate Company announced the lease of the additional space last year, along with agreements with Fathom Fund and Activate.

At the time, the leases brought the Ion's occupancy up to 90 percent.

Additionally, New York-based Industrious plans to launch its coworking space at the Ion on May 8. The company was tapped as the new operator of the Ion’s 86,000-square-foot coworking space in Midtown in January.

Dallas-based Common Desk previously operated the space, which was expanded by 50 percent in 2023 to 86,000 square feet.

CBRE agreed to acquire Industrious in a deal valued at $400 million earlier this year. Industrious also operates another local coworking space is at 1301 McKinney St.

Industrious will host a launch party celebrating the new location Thursday, May 8. Find more information here.

Oxy Innovation Center. Photo via LinkedIn.


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


Houston climatech company signs on to massive carbon capture project in Malaysia

big deal

Houston-based CO2 utilization company HYCO1 has signed a memorandum of understanding with Malaysia LNG Sdn. Bhd., a subsidiary of Petronas, for a carbon capture project in Malaysia, which includes potential utilization and conversion of 1 million tons of carbon dioxide per year.

The project will be located in Bintulu in Sarawak, Malaysia, where Malaysia LNG is based, according to a news release. Malaysia LNG will supply HYCO1 with an initial 1 million tons per year of raw CO2 for 20 years starting no later than 2030. The CCU plant is expected to be completed by 2029.

"This is very exciting for all stakeholders, including HYCO1, MLNG, and Petronas, and will benefit all Malaysians," HYCO1 CEO Gregory Carr said in the release. "We approached Petronas and MLNG in the hopes of helping them solve their decarbonization needs, and we feel honored to collaborate with MLNG to meet their Net Zero Carbon Emissions by 2050.”

The project will convert CO2 into industrial-grade syngas (a versatile mixture of carbon monoxide and hydrogen) using HYCO1’s proprietary CUBE Technology. According to the company, its CUBE technology converts nearly 100 percent of CO2 feed at commercial scale.

“Our revolutionary process and catalyst are game changers in decarbonization because not only do we prevent CO2 from being emitted into the atmosphere, but we transform it into highly valuable and usable downstream products,” Carr added in the release.

As part of the MoU, the companies will conduct a feasibility study evaluating design alternatives to produce low-carbon syngas.

The companies say the project is expected to “become one of the largest CO2 utilization projects in history.”

HYCO1 also recently announced that it is providing syngas technology to UBE Corp.'s new EV electrolyte plant in New Orleans. Read more here.

Tackling methane in the energy transition: Takeaways from Global Methane Hub and HETI

The view from heti

Leaders from across the energy value chain gathered in Houston for a roundtable hosted by the Global Methane Hub (GMH) and the Houston Energy Transition Initiative (HETI). The session underscored the continued progress to reduce methane emissions as the energy industry addresses the dual challenge of producing more energy that the world demands while simultaneously reducing emissions.

The Industry’s Shared Commitment and Challenge

There’s broad recognition across the industry that methane emissions must be tackled with urgency, especially as natural gas demand is projected to grow 3050% by 2050. This growth makes reducing methane leakage more than a sustainability issue—it’s also a matter of global market access and investor confidence.

Solving this issue, however, requires overcoming technical challenges that span infrastructure, data acquisition, measurement precision, and regulatory alignment.

Getting the Data Right: Top-Down vs. Bottom-Up

Accurate methane leak monitoring and quantification is the cornerstone of any effective mitigation strategy. A key point of discussion was the differentiation between top-down and bottom-up measurement approaches.

Top-down methods such as satellite and aerial monitoring offer broad-area coverage and can identify large emission plumes. Technologies such as satellite-based remote sensing (e.g., using high-resolution imagery) or airborne methane surveys (using aircraft equipped with tunable diode laser absorption spectroscopy) are commonly used for wide-area detection. While these methods are efficient for identifying large-scale emission hotspots, their accuracy is lower when it comes to quantifying emissions at the source, detecting smaller, diffuse leaks, and providing continuous monitoring.

In contrast, bottom-up methods focus on direct, on-site detection at the equipment level, providing more granular and precise measurements. Technologies used here include optical gas imaging (OGI) cameras, flame ionization detectors (FID), and infrared sensors, which can directly detect methane at the point of release. These methods are more accurate but can be resource and infrastructure intensive, requiring frequent manual inspections or continuous monitoring installations, which can be costly and technically challenging in certain environments.

The challenge lies in combining both methods: top-down for large-scale monitoring and bottom-up for detailed, accurate measurements. No single technology is perfect or all-inclusive. An integrated approach that uses both datasets will help to create a more comprehensive picture of emissions and improve mitigation efforts.

From Detection to Action: Bridging the Gap

Data collection is just the first step—effective action follows. Operators are increasingly focused on real-time detection and mitigation. However, operational realities present obstacles. For example, real-time leak detection and repair (LDAR) systems—particularly for continuous monitoring—face challenges due to infrastructure limitations. Remote locations like the Permian Basin may lack the stable power sources needed to run continuous monitoring equipment to individual assets.

Policy, Incentives, and Regulatory Alignment

Another critical aspect of the conversation was the need for policy incentives that both promote best practices and accommodate operational constraints. Methane fees, introduced to penalize emissions, have faced widespread resistance due to their design flaws that in many cases actually disincentivize methane emissions reductions. Industry stakeholders are advocating for better alignment between policy frameworks and operational capabilities.

In the United States, the Subpart W rule, for example, mandates methane reporting for certain facilities, but its implementation has raised concerns about the accuracy of some of the new reporting requirements. Many in the industry continue to work with the EPA to update these regulations to ensure implementation meets desired legislative expectations.

The EU’s demand for quantified methane emissions for imported natural gas is another driving force, prompting a shift toward more detailed emissions accounting and better data transparency. Technologies that provide continuous, real-time monitoring and automated reporting will be crucial in meeting these international standards.

Looking Ahead: Innovation and Collaboration

The roundtable highlighted the critical importance of advancing methane detection and mitigation technologies and integrating them into broader emissions reduction strategies. The United States’ 45V tax policy—focused on incentivizing production of low-carbon intensity hydrogen often via reforming of natural gas—illustrates the growing momentum towards science-based accounting and transparent data management. To qualify for 45V incentives, operators can differentiate their lower emissions intensity natural gas by providing foreground data to the EPA that is precise and auditable, essential for the industry to meet both environmental and regulatory expectations. Ultimately, the success of methane reduction strategies depends on collaboration between the energy industry, technology providers, and regulators.

The roundtable underscored that while significant progress has been made in addressing methane emissions, technical, regulatory, and operational challenges remain. Collaboration across industry, government, and technology providers is essential to overcoming these barriers. With better data, regulatory alignment, and investments in new technologies, the energy sector can continue to reduce methane emissions while supporting global energy demands.

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HETI thanks Chris Duffy, Baytown Blue Hydrogen Venture Executive, ExxonMobil; Cody Johnson, CEO, SCS Technologies; and Nishadi Davis, Head of Carbon Advisory Americas, wood plc, for their participation in this event.

This article originally appeared on the Greater Houston Partnership's Houston Energy Transition Initiative blog. HETI exists to support Houston's future as an energy leader. For more information about the Houston Energy Transition Initiative, EnergyCapitalHTX's presenting sponsor, visit htxenergytransition.org.