Chemical Engineering
News and updates featuring research, faculty achievements, student projects, and industry impact from the Artie McFerrin Department of Chemical Engineering.
Moving toward an electrified solution to generate heat for manufacturing industries
Oct. 12, 2024 • 4 min. readWith funding from the DOE, Texas A&M researchers will conduct a two-year “jumpstart” project devoted to developing electrified heating technologies.
Cell signaling pathways have been discovered to positively affect human stem cells
Oct. 10, 2024 • 3 min. readResearch from Dr. Gregory Reeves shows how soon we can alter cells that are faster and more reliable for stem cells.
Researchers look to control gene expression by studying the memories of cells.
Texas A&M joins $26 million initiative to revolutionize carbon utilization
Sep. 5, 2024 • 4 min. readPioneering technology from Texas A&M paves the way for carbon conversion solutions through a new Engineering Research Center.
Greener pastures: Better ammonia production for a more sustainable future
Aug. 21, 2024 • 3 min. readDr. Joseph Kwon and Dr. Mark Barteau of Texas A&M have discovered a way to produce ammonia for fertilizer that is greener and more efficient.
Artificial + human intelligence merge in the world of process safety systems
July 18, 2024 • 3 min. readResearchers are developing Intelligence Augmentation, a comprehensive framework that integrates AI and human decision-making into process safety systems.
The American Bureau of Shipping and Texas A&M University’s Mary Kay O’Connor Process Safety Center have collaborated on a carbon capture project.
Dr. Jeetain Mittal has been announced as the 2024 National Institutes of Health grant recipient for his work with multiscale computational models.
More than $15 million in grants have been awarded to five research participants, including Texas A&M, to combat the effects of climate change.
Rich molecular language guides tiny liquid droplet formation in cells
April 30, 2024 • 4 min. readTexas A&M scientists help show that the amino acids within disordered proteins can interact in multiple ways to form membrane-less liquid droplets.









