Session Tracks

This track focuses on the latest developments in quantum chemistry methodologies and their applications in studying excited states. Researchers are invited to present their findings on novel computational techniques and their implications for electronic transitions.

This session will explore various spectroscopic methods used to investigate excited state properties and dynamics. Contributions that highlight the interplay between theory and experimental results in spectroscopy are particularly welcome.

This track emphasizes the role of molecular dynamics in understanding the behavior of excited states in complex systems. Papers discussing innovative simulation techniques and their applications to photophysical processes are encouraged.

This session will delve into the applications of time-dependent density functional theory in studying excited state phenomena. Researchers are invited to share insights on methodological advancements and case studies demonstrating its efficacy.

This track is dedicated to the exploration of ab initio methods for excited state calculations. Contributions that showcase new algorithms or applications in chemical reactivity and electronic structure are highly encouraged.

This session will focus on the role of molecular orbitals in determining the properties of excited states. Papers discussing theoretical models that link molecular orbital theory with experimental observations are welcome.

This track will examine the photophysical properties of molecules and the mechanisms of energy transfer in excited states. Researchers are invited to present theoretical studies that elucidate these processes in various chemical systems.

This session aims to explore the dynamics of excited states and their influence on reaction pathways. Contributions that integrate theoretical modeling with experimental data to reveal mechanistic insights are encouraged.

This track will investigate the fundamental principles of light-matter interactions as they pertain to excited states. Papers that provide theoretical frameworks or experimental validations of these interactions are welcome.

This session focuses on the theoretical modeling approaches used to understand chemical reactivity in excited states. Researchers are invited to share their findings on how excited state characteristics influence reaction mechanisms.

This track will highlight computational strategies employed in the study of photochemical processes. Contributions that bridge theoretical insights with practical applications in photochemistry are particularly encouraged.