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Guided learning journeys that build knowledge step by step.
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7817 Paths · page 626 / 782
This learning path guides students through the CALPHAD approach, from fundamental thermodynamic principles to advanced computational techniques. It covers Gibbs energy modeling, phase equilibrium calculations, thermodynamic databases, and practical use of software like Thermo-Calc and FactSage.
This advanced learning path provides a systematic understanding of the thermodynamics governing polymer solutions and blends, rooted in classical solution thermodynamics and the Flory-Huggins theory. It covers the origin and role of the χ parameter, solubility criteria, phase behavior including UCST and LCST, and osmotic pressure, with applications to real systems.
This learning path guides students from foundational thermodynamics and probability through the principles of statistical mechanics to the practical calculation of thermodynamic properties using partition functions. It covers translational, rotational, vibrational, and electronic contributions, and culminates in the computation of U, S, A, and G for model systems.
This learning path guides advanced university students through the principles of irreversible thermodynamics, focusing on entropy production, Onsager relations, and coupled fluxes. It systematically builds from classical thermodynamics to linear non-equilibrium theory and its applications such as thermodiffusion.
This path guides learners from fundamental thermodynamic concepts through the Gibbs phase rule and its application to binary phase diagrams. It covers temperature-composition and pressure-composition diagrams, key features like eutectics and azeotropes, and the Lever rule for quantitative analysis. Designed for university students, it integrates chemical thermodynamics and phase equilibria to enable confident interpretation and application.
A comprehensive learning path covering the thermodynamic foundations of mixtures, ideal solution behavior, excess properties, and activity coefficient models. It progresses from chemical potential and activity to excess Gibbs free energy and practical models like Margules, van Laar, Wilson, and NRTL.
This learning path guides advanced university chemistry students through the thermodynamic treatment of non-ideal solutions, starting from the chemical potential and culminating in the Debye-Hückel theory and its extensions. It covers the concepts of activity and activity coefficients, the different standard states for solvents and solutes, and the practical application of these models to electrolyte solutions.
A comprehensive learning path guiding students from ideal gas behavior through advanced real gas equations of state, including virial expansion, van der Waals equation, reduced variables, corresponding states, and the Joule-Thomson effect. The path builds conceptual understanding and practical calculation skills for thermodynamic properties of real gases.
This advanced path guides students through the mathematical foundations and systematic derivation of Maxwell relations from thermodynamic potentials, culminating in the derivation of key thermodynamic coefficients. It emphasizes the logical dependencies and applications essential for thermodynamic theory specialization.
This learning path guides high school students from foundational thermodynamics to the relationship between electrochemical potential and free energy. It covers standard electrode potentials, the Nernst equation, and effects of concentration and temperature on cell potential, culminating in the practical application of calculating ΔG from E.