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Guided learning journeys that build knowledge step by step.
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This graduate-level learning path equips students with the skills to design and conduct rigorous research in environmental chemistry. It covers the full research lifecycle: from formulating questions and designing experiments, through advanced analytical methods and data analysis, to effective scientific writing and ethical practice.
This advanced graduate-level path explores the design, properties, and applications of green solvents—ionic liquids, supercritical fluids, bio-based solvents, and solvent-free conditions—within the context of sustainable chemistry. It builds from foundational concepts in physical and organic chemistry to practical process design and assessment, emphasizing the principles of green chemistry and real-world implementation.
This advanced learning path explores the chemical principles underlying waste-to-energy (WtE) technologies, focusing on combustion, pyrolysis, gasification, emissions control, and ash chemistry. It integrates organic chemistry and thermodynamics to provide a comprehensive understanding of the processes and their environmental implications.
This graduate-level learning path explores how antibiotics, heavy metals, and other environmental contaminants promote the emergence and spread of antimicrobial resistance (AMR). It integrates microbiology and environmental chemistry to understand co-selection mechanisms, resistance gene transfer, and environmental hotspots, culminating in an assessment of real-world AMR management challenges.
This advanced graduate-level learning path explores the chemical behavior and environmental fate of microplastics. It covers polymer chemistry fundamentals, sorption of pollutants, degradation and fragmentation processes, and analytical methods. Learners will integrate these concepts to understand microplastics as vectors for contaminants and their overall environmental impact.
This path guides graduate students in atmospheric chemistry through the fundamental and advanced concepts of new particle formation (NPF), from the thermodynamics of nucleation to the roles of sulfuric acid, amines, and organic acids, culminating in particle growth models. It emphasizes the critical dependencies between molecular-level understanding and atmospheric observations.
This advanced graduate-level path equips students in materials and chemistry with the knowledge to apply nanomaterials to environmental sensing and remediation. It covers the fundamental surface chemistry and physics of nanomaterials, their applications in catalysis, adsorption, membranes, and sensors, and the critical considerations of fate and toxicity. The path progresses from foundational concepts to specialized applications and culminates in a capstone project.
This professional learning path equips environmental remediation practitioners with the chemical principles and practical frameworks needed to design and evaluate remediation strategies for contaminated sites. It covers core chemistry, contaminant behavior, and major remediation technologies including chemical oxidation, reduction, precipitation, stabilization, and chelation, with an emphasis on integrating geological and hydrogeological context.
This advanced graduate-level path equips food science and chemistry students with a systematic understanding of chemical contaminants in food. It covers major contaminant classes, their sources and toxicology, analytical methods for detection, and regulatory frameworks, culminating in an integrated risk assessment perspective.
This advanced graduate-level learning path equips students in agriculture and environmental science with a deep understanding of pesticide chemistry, environmental fate, and analytical methods. It covers major pesticide classes, their modes of action, degradation pathways, metabolites, and residue analysis, grounded in essential organic chemistry and environmental processes.