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Nucleation and growth kinetics in colloids and metals: a system- and scale-bridging approach to understanding the resulting morphology evolution

Over the past two decades, such scale-bridging approaches have matured to provide a better control of morphology-dependent phenomena in several material classes of importance for natural and engineering science. More recently, such scale-bridging approaches have been extended to system-bridging studies, which emerged based on the question: can the analogy between different condensed-matter systems be taken so far that the investigation of experimentally and theoretically simple-to-handle systems can answer questions of interfacial and phase-dynamics in a general system-independent manner? This article discusses the perspectives of the arising scale- and system-bridging research approaches in condensed matter physics.