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Chemical engineering has been and will remain pivotal in developing practical solutions for global challenges related to energy, environment, healthcare, and food and water security. Advancements in these fields depend on the thoughtful application of scientific principles, which falls squarely within the chemical engineer's expertise. The graduate curriculum in chemical engineering focuses on synthesis while maintaining rigorous analytical foundations. Research within the department integrates principles from physics, chemistry, mathematics, biochemistry, and microbiology. Key research priorities currently include: data science applications (AI and machine learning in chemical engineering contexts), sustainable energy solutions (catalysis and surface science applications), and medical advancements (biochemical engineering, biomaterials, and precision medicine). Established research domains continue to thrive, often intersecting with emerging fields: polymer science, colloid chemistry, nanotechnology, computational thermodynamics, molecular simulations, process design automation, and supercritical fluid technologies. This sampling of research topics demonstrates the department's wide-ranging and multifaceted investigative scope.