The Department of Chemical Engineering and Materials Science (ChEMS) at Michigan State University pursues a broad and interconnected research portfolio that spans the molecular to the macroscopic scale, unified by a commitment to solving pressing challenges in energy, sustainability, health, and advanced manufacturing. Faculty combine computational modeling and artificial intelligence with experimental synthesis and characterization to accelerate the discovery of new molecules, catalysts, and materials, while parallel efforts in electrochemical energy storage and conversion, functional and electronic materials, and structural materials and processing address how atomic- and microstructure-level design translates into device- and component-scale performance for batteries, fuel cells, semiconductors, and metals. This materials-focused work is complemented by deep expertise in catalysis, sustainability, and process design aimed at decarbonizing the chemical industry and converting renewable and waste feedstocks into fuels and chemicals, alongside a substantial polymers and composites research base that spans fundamental polymer physics, biodegradable and biobased plastics, and composite manufacturing. The department's biomedical and bio-inspired materials researchers apply engineering principles to protein and drug delivery, biosensors, and tissue-interfacing materials, while a growing plant and environmental science thrust extends nanomaterial and biopolymer platforms to agricultural resilience and environmental remediation. Across all of these areas, the department emphasizes translating fundamental scientific understanding into practical, often commercializable technologies — reflected in its extensive patent portfolio, industry partnerships, and entrepreneurial faculty ventures — while training the next generation of chemical engineers and materials scientists through nationally recognized research and teaching programs.​


The CHEMS Research Annual Report booklet cover

Research Annual Report

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Christina Chan and a graduate student examining a sample under a microscope

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Research Areas

Polyhedral representation of crystal structure of La-Ta-O framework studied as Li-battery solid electrolyte (Wei Lai)​

Artificial Intelligence, Modeling, and Simulation​

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Fluorescence microscopy images comparing the activation of wild-type (WT) and mutant (W457A) IRE1alpha protein cultured in bovine serum albumin (BSA, control) vs. in palmitic acid (PA). WT shows sparse green spots in BSA and numerous green spots with PA, indicating that PA induces the activation of the protein. The W457A variant shows no fluorescence with either BSA or PA, suggesting the tryptophan residue (W) in the protein is important for the activation of protein. (Kris Chan)​

Biomedical and Bio-inspired Materials​

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Graphic illustrating plasma-stimulated surface reactions for dry reforming methane and CO2 hydrogenation (Ruigang Wang)​

Catalysis, Sustainability, and Process Design​

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SEM image of Re-doped molybdenum diselenide catalysts​

Electrochemical Energy Conversion and Storage​

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In this picture, the Mg2SiO4 target in the sample carousel at the bottom of the picture is  being hit by a rastering 248 nm KrF excimer pulsed laser deposition (PLD) laser beam, the substrate upon which the Mg2SiO4 film is being grown (which you can't see) is attached to the underside of the rotating heater assembly at the top of the picture, and the plasma is in between (Nicolas)​

Functional and Electronic Materials

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Development of biopolymer-based nanocarriers for precision delivery of active agents to plants, enabling sustainable and resilient agriculture​

Plant and Environmental Science​

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Real-time optical microscopy of in-situ surface roughening of hydrogel during swelling (Caroline Szczepanski)​

Polymers and Composites​

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Artistic rendering of an EBSD map​

Structural Materials and Processing​

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