Bridging Molecular Complexity and Multiscale Systems Integration

Systems Chemistry explores complex chemical networks and their emergent properties, focusing on how molecular components interact to form dynamic, self-organizing systems. By studying reaction networks, feedback loops, and far-from-equilibrium processes, it seeks to understand the origins of chemical complexity, drawing inspiration from biological systems.This field provides a foundation for the study of synthetic life, where researchers design chemical systems that exhibit life-like behaviors such as self-replication, adaptation, and evolution—bridging the gap between non-living and living matter. Additionally, systems chemistry drives the development of interactive and autonomous materials, which can sense, respond, and adapt to their environment without external control. These biologically inspired materials have promising applications in smart materials, soft robotics, and next-generation medical technologies. Key topics that will be addressed include the integration of systems chemistry in devices, interactive materials, synthetic cells, molecular computing, interactions with biology, dynamic biological and synthetic assembly, and the theory and modeling of dynamic systems.