Covers modeling and analyzing complex biological networks, focusing on metabolism and signaling, using techniques like flux balance analysis and kinetic modeling.
Emphasizes standardization in synthetic biology, genetic circuits, logic building blocks, signal matching, data integration, and metabolic engineering.
Explores Chemical Biology's interdisciplinary nature, enzyme inhibition, genetic methods, and metabolic regulation, highlighting its real-world relevance through recent Nobel Prize contributions.
Covers the historical development of genomics, from Sanger sequencing to high-throughput technologies and cost reductions, highlighting the impact of key players like Craig Venter.