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Energy tech expert: Recent report shines light on clean tech progress needed by 2030

"Companies and stakeholders across the energy spectrum need to act together and act fast." Photo via Getty Images

Houston is home to some of the nation's largest oil and gas exploration and production firms, making it one of the world’s most important energy capitals. Growing regional support for pioneering clean tech, such as carbon capture, will help achieve the crucial transition to net zero whilst maintaining economic stability, boosting local industries and creating jobs.

According to the International Energy Agency (IEA), North America and Asia Pacific are expected to hold the largest share in carbon capture capacity. North America’s world-leading carbon capture potential comes as no surprise given the nation’s dominance in oil and gas, and ideal geology for sequestration.

The IEA’s recently published World Energy Outlook 2023 depicts a global market that is in transition. With more companies, world leaders and governments recognizing that a shift towards sustainable energy is both inevitable and transformative, the question is no longer whether we switch to clean energy, but rather how soon the transition can happen.

For every $1 in investment spending on fossil fuels globally, $1.8 is now being spent to develop clean energy, according to the IEA. Although the clean energy market has almost doubled in the past five years to reach an estimated $2.8 trillion in 2023, investment needs to hit $4.2 trillion per year by 2030 to achieve the universally shared goal of net zero. The IEA believes around 1 Gigaton of CO2 must be captured in 2030, rising to 6 Gigatons by 2050 to achieve the Net Zero Emissions by 2050 Scenario (termed NZE Scenario). This presents a tremendous opportunity for government stakeholders and the business community in Houston to turbocharge the economy and protect the planet from the impact of climate change.

While volatility around the energy market lingers, sustainable technologies remain one of the most dynamic areas of global energy investment. An essential ingredient to its success is bringing on board innovators, entrepreneurs, corporations, and financiers to ensure technology innovation is front and center in facilitating the clean energy transition.

Carbon capture technology is critical, but energy leaders and hard-to-abate industries are under pressure to move faster. To do that, the carbon capture industry must scale up its deployment and increase adoption if hard-to-abate sectors are to address the 30 percent of global CO2 emissions for which they are responsible. Governments have a pivotal role to play in providing financial, regulatory and policy incentives, facilitating a collaborative environment between financiers, hard-to-abate operators, and clean tech companies. While we are moving in the right direction, there is no room for complacency or procrastination given the short timescales for meaningful action.

Over the past several years, Carbon Clean, a global company that is revolutionizing carbon capture, has enjoyed significant expansion in North America. Following the passage of the Inflation Reduction Act (IRA) in August 2022, we saw huge interest in our modular industrial carbon capture technology almost overnight, resulting in a 64 percent increase in inquiries from the U.S. To meet this booming demand, we have opened a U.S. headquarters in Houston, and have plans to double our U.S. headcount to meet industry requirements for our scalable and cost-effective technology, CycloneCC. In short, the United States is poised to become our biggest market. Given our latest lead investor and partner is Houston-based Chevron New Energies, there is no better place than Houston to drive innovation in the country’s energy sector.

The IRA did more than just bring in new inquiries for our breakthrough technology – it also signaled to the energy sector that the federal government is getting serious about bringing emissions down. The impact of the IRA cannot be overstated, especially for the point-source carbon capture technology pioneered by Carbon Clean. While the IRA involves billions of dollars of public investment, it is set up in such a way that companies must make substantial investments first, acting as a down payment on fostering jobs and ensuring the business community is delivering ambitious climate action. The benefits are being felt locally as well – cities like Houston are at the forefront of what the IRA has to offer, taking advantage of these investments and reducing emissions.

Companies and stakeholders across the energy spectrum need to act together and act fast. With the dramatic growth required for carbon capture to have full effect, it will be essential for government, industry, and innovators to join together to concentrate on a number of projects and clusters. We are confident that with new cutting-edge technology and broad collaboration we can rapidly get the world on the right path to net zero.

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Prateek Bumb is CTO and co-founder of Carbon Clean and the principal innovator of Carbon Clean’s industrial carbon capture technologies.

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A View From HETI

Researchers Rahul Pandey, senior scientist with SRI and principal investigator (left), and Praveen Bollini, a University of Houston chemical engineering faculty, are key contributors to the microreactor project. Photo via uh.edu

A University of Houston-associated project was selected to receive $3.6 million from the U.S. Department of Energy’s Advanced Research Projects Agency-Energy that aims to transform sustainable fuel production.

Nonprofit research institute SRI is leading the project “Printed Microreactor for Renewable Energy Enabled Fuel Production” or PRIME-Fuel, which will try to develop a modular microreactor technology that converts carbon dioxide into methanol using renewable energy sources with UH contributing research.

“Renewables-to-liquids fuel production has the potential to boost the utility of renewable energy all while helping to lay the groundwork for the Biden-Harris Administration’s goals of creating a clean energy economy,” U.S. Secretary of Energy Jennifer M. Granholm says in an ARPA-E news release.

The project is part of ARPA-E’s $41 million Grid-free Renewable Energy Enabling New Ways to Economical Liquids and Long-term Storage program (or GREENWELLS, for short) that also includes 14 projects to develop technologies that use renewable energy sources to produce sustainable liquid fuels and chemicals, which can be transported and stored similarly to gasoline or oil, according to a news release.

Vemuri Balakotaiah and Praveen Bollini, faculty members of the William A. Brookshire Department of Chemical and Biomolecular Engineering, are co-investigators on the project. Rahul Pandey, is a UH alum, and the senior scientist with SRI and principal investigator on the project.

Teams working on the project will develop systems that use electricity, carbon dioxide and water at renewable energy sites to produce renewable liquid renewable fuels that offer a clean alternative for sectors like transportation. Using cheaper electricity from sources like wind and solar can lower production costs, and create affordable and cleaner long-term energy storage solutions.

“As a proud UH graduate, I have always been aware of the strength of the chemical and biomolecular engineering program at UH and kept myself updated on its cutting-edge research,” Pandey says in a news release. “This project had very specific requirements, including expertise in modeling transients in microreactors and the development of high-performance catalysts. The department excelled in both areas. When I reached out to Dr. Bollini and Dr. Bala, they were eager to collaborate, and everything naturally progressed from there.”

The PRIME-Fuel project will use cutting-edge mathematical modeling and SRI’s proprietary Co-Extrusion printing technology to design and manufacture the microreactor with the ability to continue producing methanol even when the renewable energy supply dips as low as 5 percent capacity. Researchers will develop a microreactor prototype capable of producing 30 MJe/day of methanol while meeting energy efficiency and process yield targets over a three-year span. When scaled up to a 100 megawatts electricity capacity plant, it can be capable of producing 225 tons of methanol per day at a lower cost. The researchers predict five years as a “reasonable” timeline of when this can hit the market.

“What we are building here is a prototype or proof of concept for a platform technology, which has diverse applications in the entire energy and chemicals industry,” Pandey continues. “Right now, we are aiming to produce methanol, but this technology can actually be applied to a much broader set of energy carriers and chemicals.”

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