We use 'systems science’ approaches to explore how chemical and biological systems are formed from their constituent interacting parts. In 'systems chemistry' we study the interacting networks of molecules which together perform a function or possess emergent properties: a famous example is abiogenesis (how life began). 'Systems biology' looks into how DNA, RNA, proteins and metabolites interact within cells, tissues and whole organisms, to create a complex functioning biological organism. 'Systems medicine' examines the human body as an integrated system, considering how biochemical, physiological and environmental interactions play a part in our health.
Although a reductionist approach is often successful at identifying the constituent parts of a complex system, it often falls short when trying to reveal how such parts work together to create a multi-system functional unit. By comprehensive profiling of molecular landscapes, we hope to reveal such interactions and gain new insights into the basic processes of life.
