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Guided learning journeys that build knowledge step by step.
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7817 Paths · page 625 / 782
This learning path equips chemical engineering professionals with advanced thermodynamics knowledge to design and optimize industrial chemical processes. It covers fundamental thermodynamic principles, heat and material balances, distillation design, reactor thermodynamics, heat integration via pinch analysis, and process optimization.
This learning path guides students interested in thermal engineering through the thermodynamic principles underlying refrigeration systems. It covers core concepts such as the first and second laws of thermodynamics, phase equilibria, vapor-compression cycles, refrigerants, absorption refrigeration, heat pumps, and environmental considerations.
This path provides an advanced, systematic study of thermodynamic cycles used for energy conversion, focusing on the underlying chemical thermodynamics. Learners will progress from fundamental laws and state functions through ideal cycles (Carnot, Rankine, Brayton, Otto) to practical considerations like efficiency enhancement and combined heat and power. The path emphasizes the connection between thermodynamic principles and their application in real energy systems.
This advanced graduate-level path explores how classical thermodynamics extends to nanoscale systems, where surface effects dominate. Learners will master surface energy, the Gibbs-Thomson effect, nanocrystal stability, and size-dependent phase transitions, with applications to nanoparticles.
This advanced learning path applies chemical thermodynamics to environmental systems, covering gas solubility, cloud thermodynamics, ocean mixing, carbonate equilibrium, and biogeochemical cycles. Learners will develop a quantitative understanding of phase equilibria and solution thermodynamics essential for Earth science applications.
A comprehensive path applying chemical thermodynamics to biological systems, covering Gibbs free energy, ATP hydrolysis, coupled reactions, protein folding, and membrane potentials. Designed for university students with a background in general chemistry and introductory biochemistry.
This advanced learning path explores how pressure influences chemical equilibria and phase transitions, starting from fundamental thermodynamic principles and progressing to high-pressure experimental techniques and geochemical applications. It covers the pressure dependence of equilibrium constants, the Clapeyron equation, and the use of the diamond anvil cell to study materials under extreme conditions.
This advanced path covers the thermodynamic principles and techniques essential for understanding and achieving low temperatures, including liquefaction, refrigeration cycles, adiabatic demagnetization, the third law, and quantum phenomena like superfluidity. It bridges classical thermodynamics with quantum mechanical effects, providing a solid foundation for students interested in extreme conditions.
This advanced learning path equips students with the thermodynamic principles needed to interpret and apply materials phase diagrams, covering solid solutions, intermetallics, ceramics, and TTT diagrams. It progresses from fundamental thermodynamic concepts to advanced applications, emphasizing the driving forces behind phase stability and transformations.
A comprehensive graduate-level path covering the theory and practice of computing thermodynamic properties using Monte Carlo and Molecular Dynamics simulations. It bridges statistical thermodynamics, potential models, simulation algorithms, and free energy calculations, with a focus on practical implementation.