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Guided learning journeys that build knowledge step by step.
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This learning path equips materials industry professionals with the knowledge and skills to navigate intellectual property protection for inorganic inventions, covering patentability requirements, claims drafting, patent searching, and infringement analysis, with a focus on inorganic chemistry and chemical literature.
This learning path guides researchers in structural chemistry from the fundamentals of crystallography and X-ray diffraction through data collection, structure solution, and refinement, culminating in the production and validation of CIF files. It emphasizes the theoretical principles and practical applications necessary for determining crystal structures.
This professional learning path guides students and lab professionals through the safe and effective synthesis, purification, and handling of air-sensitive inorganic compounds. It covers essential inert atmosphere techniques (Schlenk line and glovebox), purification methods, and characterization using IR and NMR spectroscopy, with a strong emphasis on safety throughout.
This learning path explores the fundamental chemistry behind key inorganic building materials including cement, concrete, glass, ceramics, lime, and plaster. It covers the solid-state chemistry principles, hydration reactions, and durability issues such as steel corrosion in concrete, providing a solid foundation for students interested in materials science.
This path explores the chemistry of inorganic compounds used in agriculture, focusing on macronutrients (N, P, K) and micronutrients (Fe, Zn, Cu, Mn), their roles in fertilizers, and the chemistry of soil and nutrient uptake. It also covers inorganic pesticides and their environmental impact.
This learning path equips chemical industry professionals with a systematic understanding of the production processes and applications of major industrial inorganic chemicals, including ammonia, sulfuric acid, nitric acid, chlorine, sodium carbonate, and fertilizers. It begins with foundational concepts in chemical equilibrium, thermodynamics, and main group chemistry, then explores each industrial process, emphasizing the underlying chemical principles, process conditions, and the interconnections between these chemicals, particularly in fertilizer production.
This advanced learning path covers the chemistry of heavy metal pollutants (Pb, Hg, As, Cd), their speciation and transport in the environment, and key remediation strategies including precipitation, adsorption, and ion exchange. It emphasizes the role of acid-base and redox chemistry in controlling pollutant behavior and treatment.
This learning path explores the chemistry and medicinal applications of metal-based compounds, from platinum anticancer drugs to MRI contrast agents and radiopharmaceuticals. It builds on foundational coordination chemistry and bioinorganic principles to understand how metal complexes are designed and used in medicine, while also addressing metal toxicity.
This learning path guides university students through the principles and applications of photochemistry in inorganic systems. It covers electronic spectra, photoexcitation of metal complexes, excited states, energy transfer, and photocatalysis, culminating in real-world applications like water splitting and CO₂ reduction. The path emphasizes foundational concepts and builds toward advanced applications.
This learning path provides a systematic journey through the synthesis, structure, and properties of advanced inorganic materials, including zeolites, perovskites, MOFs, superconductors, ceramics, and glasses. Starting with foundational solid-state chemistry concepts, it progresses through key synthesis methods and culminates in understanding the structure-property relationships of specific material classes.