Explains the first principle of thermodynamics and transformations of ideal gases, including isothermal, isochoric, isobaric, and adiabatic processes with practical examples.
Covers modeling and analyzing complex biological networks, focusing on metabolism and signaling, using techniques like flux balance analysis and kinetic modeling.
Explores the Nobel Prize-winning discovery of replica and cavity methods in complex systems, focusing on the random energy model and the application of probability theory.
Explores mathematical tools for differentials of functions of multiple variables and integrals, including conservative quantities and exact total differentials.