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Guided learning journeys that build knowledge step by step.
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7819 Paths · page 645 / 782
This advanced professional learning path equips forensic scientists with the organic chemistry knowledge and analytical skills needed for drug identification, toxicology screening, trace analysis, polymer analysis, and arson residue investigation. It covers fundamental organic chemistry, spectroscopy, chromatography, and their forensic applications, emphasizing real-world casework and quality assurance.
This learning path explores the organic chemistry underlying food science, focusing on the structure, reactivity, and transformations of macronutrients (carbohydrates, proteins, lipids) and key food additives. It builds from foundational organic chemistry concepts to applied topics like the Maillard reaction, antioxidants, and flavor chemistry.
This learning path explores the environmental fate and transport of organic pollutants, focusing on pesticides and persistent organic pollutants (POPs). It covers key processes such as degradation (hydrolysis, photolysis, microbial), bioaccumulation, and partitioning, with an emphasis on the underlying organic and aromatic chemistry. The path concludes with green remediation strategies, providing a comprehensive understanding for students interested in environmental science.
This advanced learning path guides students through the principles and applications of non-covalent interactions in molecular assembly. Starting with foundational concepts in intermolecular forces and stereochemistry, it progresses through hydrogen bonding, π-π stacking, host-guest chemistry, and self-assembly, culminating in molecular recognition and design.
This advanced path explores the principles of photochemistry, from light absorption and excited states to key reactions like cycloadditions and electrocyclizations, and their roles in photosynthesis and vision. It builds on molecular orbital and pericyclic reaction theory to provide a deep understanding of light-induced processes.
This learning path guides materials science students from foundational organic chemistry through the mechanisms of polymer synthesis to the structure-property relationships of advanced polymer classes. It covers step-growth and chain-growth polymerization, radical polymerization, condensation polymers, copolymers, conducting polymers, and biodegradable polymers, emphasizing how molecular structure dictates macroscopic properties.
This advanced learning path bridges organic chemistry principles with pharmaceutical drug design. It covers essential concepts from functional groups and stereochemistry to lead compound optimization, pharmacophore modeling, SAR, ADME, and combinatorial chemistry, providing a comprehensive foundation for careers in pharmaceutical sciences.
This advanced learning path explores the chemistry of natural products, focusing on major classes (terpenes, alkaloids, polyketides) and their biosynthesis. It builds from foundational organic chemistry and biochemistry to advanced topics in isolation, structural determination, and biosynthetic logic.
This learning path teaches the systematic application of retrosynthetic logic to design multi-step organic syntheses. It covers the disconnection approach, synthons, functional group interconversions, protecting groups, and synthetic equivalents, building from foundational organic chemistry to advanced strategy. The path emphasizes practical problem-solving through exercises and case studies.
This path teaches students how to use infrared (IR) and mass spectrometry (MS) data to identify functional groups and determine molecular structures. It covers the theoretical foundations, spectral interpretation, and integrated structure elucidation, with a focus on organic chemistry applications.