A Rice University team researching carbon nanotube synthesis has received $4.1 million funding from both Rice’s Carbon Hub and The Kavli Foundation. Photo by Gustavo Raskosky/Rice University

A Rice University-led team of scientists has been awarded a $4.1 million grant to optimize a synthesis process that could make carbon materials sustainable and affordable on a large scale.

Known as carbon nanotube (CNT) synthesis, the process has the ability to create hollow cylindrical nanoscale structures made from carbon atoms that are strong, lightweight and carry heat and electricity well. CNT synthesis evolved across multiple countries around the same time, according to Rice. But to scale up the process in a way that could create alternatives to materials dependent on heavy industry, Matteo Pasquali, the team's leader and the A.J. Hartsook Professor of Chemical and Biomolecular Engineering, says collaboration will be required.

“We have to apply a collaborative mindset to solve this problem,” Pasquali says in a statement. “We believe that by bringing together a dedicated interdisciplinary community, this project will lead to improvements in reactor efficiency and help identify further gaps in instrumentation and modeling.”

The grant seeks to achieve that. The funds come from both Rice’s Carbon Hub, which contributed $2.2 million to the team, and The Kavli Foundation, which granted $1.9 million in the form of a Kavli Exploration Award in Nanoscience for Sustainability.

The Kavli Foundation supports research in astrophysics, nanoscience, neuroscience and theoretical physics. Winners of its Kavli Prize, which recognizes scientific breakthroughs, often go on to win the Nobel Prize.

“We are proud to partner with Rice University to support this important high-risk, high-reward research,” says Amy Bernard, director of life sciences at The Kavli Foundation, says in a statement.

Pasquali is the director and one of the creators of Rice's Carbon Hub, a collaborative group of corporations, researchers, universities and nonprofits focused on decarbonizing the economy. He says the grant will help the team develop tools to shed light on CNT formation and reaction zones.

“We are at a critical juncture in carbon research, and it is really important that we shed light on the physical and chemical processes that drive CNT synthesis,” Pasquali says. “Currently, reactors are black boxes, which prevents us from ramping up synthesis efficiency. We need to better understand the forces at play in CNT formation by developing new tools to shed light on the reaction zone and find ways to leverage it to our advantage.”

Boris Yakobson, the Karl F. Hasselmann Professor of Engineering and professor of materials science and nanoengineering at Rice, and Thomas Senftle, assistant professor of chemical and biomolecular engineering at Rice, are also involved in the project. Other collaborators hail from the UK, Italy, Korea, and Spain, as well as U.S. labs and universities, including Harvard, Stanford, MIT and others.

In October, a separate team of Rice researchers released a study on a new synthesis process with applications in developing commercially relevant solar cells.

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Houston university debuts new program to develop wind turbine workforce

future technicians

University of Houston-Downtown announced a new Wind Turbine Technician Certificate Program.

UHD’s goal with the new program is to address the global need for workers skilled in servicing, diagnosing, repairing and installing wind turbines and other associated equipment.

The program will allow students to learn at their own pace, and is supported seven days a week by tutorial and technical staff, and offers flexible payment options with a low initial registration fee.

Some courses can be purchased as students work through them.The total cost is $1,750 for the entire program.

The course will be delivered in partnership with George Brown College in Toronto. George Brown College is a leader in distance learning, and one program highlight will be its 3D interactive wind turbine simulator. The wind turbine simulator will have key features like real-time visualization, interactive operation, pre-built lab projects, and Pitch and Yaw Ladder Logic applications, which shows how Programmable Logic Controllers (PLCs) are used to provide automatic control of wind turbines.

“The programs we develop at George Brown College feature robust technical simulation software so we can reach different students, like those looking to diversify their skills and can’t attend full time because of family or work commitments,” Colin Simpson, dean of continuous learning, says in a news release. “Additionally, our partnership with University of Houston-Downtown allows us to extend our reach to help train the U.S. clean energy workforce.”

According to Global Wind Energy Council’s Global Wind Report 2023, over half a million new wind technicians will be needed by 2026 to service the expected capacity increases, as wind generation is expected to more than double by 2030. Texas produces 26 percent of all U.S. wind-sourced electricity.

“Wind energy is one of the fastest-growing energy sources in the world, and as the largest wind producer in the United States, there is a growing need for skilled technicians in Texas,” UHD President Loren J. Blanchard adds. “By partnering with George Brown College, we’re able to leverage a unique online program to develop a skilled workforce for the wind energy sector in the state and beyond.”

Power grid tech co. with Houston HQ raises $25M series B

money moves

A Norway-based provider of technology for power grids whose U.S. headquarters is in Houston has raised a $25 million series B round of funding.

The venture capital arm of Polish energy giant Orlen, Norwegian cleantech fund NRP Zero, and the Norway-based Steinsvik Family Office co-led Heimdall Energy's round. Existing investors, including Investinor, Ebony, Hafslund, Lyse, and Sarsia Seed, chipped in $8.5 million of the $25 million round.

“This funding gives us fuel to grow internationally, as we continue to build our organization with the best people and industry experts in the world,” Jørgen Festervoll, CEO of Heimdall, says in a news release.

Founded in 2016, Heimdall supplies software and sensors for monitoring overhead power lines. The company says its technology can generate up to 40 percent in additional transmission capacity from existing power lines.

Heimdall entered the U.S. market in 2023 with the opening of its Houston office after operating for several years in the European market.

“Heimdall Power has built itself a unique position as an enabler for the ongoing energy transition, with fast-increasing electricity demand and queues of renewables waiting to get connected,” says Marek Garniewski, president of Orlen’s VC fund.

Heimdall says it will put the fresh funding toward scaling up production and installation of its “magic ball” sphere-shaped sensors. In the U.S., these sensors help operators of power grids maximize the capacity of the aging power infrastructure.

“In the United States alone, there are over 500,000 miles of power lines — most of which have a far higher transmission capacity than grid operators have historically been able to realize. To increase capacity, many have launched large-scale and expensive infrastructure projects,” Heimdall says.

Now, the U.S. government has stepped in to ensure that utilities are gaining more capacity from the existing infrastructure, aiming to upgrade 100,000 miles of transmission lines over the next five years.

Heimdall's technology enables grid operators and utilities to boost transmission capacity without undertaking lengthy, costly infrastructure projects. Earlier this year, the company kicked off the largest grid optimization project in the U.S. with Minnesota-based Great River Energy.

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This article originally ran on InnovationMap.