"The principle of all things is water; all comes from water, and to water all returns" - Thales of Miletus(624–548 BC)

RESOLV opens new frontiers in solvation science

A UNIFYING FRAMEWORK FOR UNDERSTANDING AND PREDICTING SOLVENT PROCESSES beyond ambient conditions, thermal equilibrium and homogeneous bulk phase.

Since 2012, the Cluster of Excellence RESOLV (EXC 1069) launched Solvation Science as a new interdisciplinary field of research to provide a much-needed unifying framework for the understanding of solvation processes.

The majority of chemical reactions, including many that are central to important industrial processes, and virtually all biological processes, take place in solution. But what role does the solvent play in all these processes? RESOLV transcends the traditional view that considered solvents as being inert media in which molecular processes take place. The paradigm underlying RESOLV is to consider solvent molecules as active species, rather than just being passive spectators.

RESEARCH AREA I

Local Solvent Fluctuations in Hetero- geneous Systems

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New challenges in describing, predicting the solvents' role 

Seven years of research (2012-2018) have opened up new challenges in Solvation Science. We discovered that many crucial chemical transformations do not occur under ambient conditions, in thermal equilibrium or in homogeneous bulk phase.
Besides, we found necessary to lift the barriers between previously separated research thrusts (see pdf document below “RESOLV 2012-2018_Seven years in Solvation Science”, for an overview of the previous research areas). Finally, the more we advance Solvation Science the more we find it intertwined with many other disciplines.

RESEARCH AREA II

Solvent Control of Chemical Dynamics and Reactivity

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New goals in solvation science

Therefore, in 2019-2025, the new RESOLV (EXC 2033) will tackle chemical processes far beyond homogeneous bulk phases, thermal equilibria, and ambient conditions. RESOLV takes up these emerging challenges and focuses its research on: Unravelling the mechanisms of local solvent fluctuations in heterogeneous systems (Area I); analysing how the solvent controls chemical dynamics and reactivity (Area II); uncovering how solvation works under extreme conditions (Area III). In doing so, RESOLV will bridge novel microscopic solvation concepts with macroscopic properties to boost key technological applications, such as new energy storage technologies and smart sensors. Finally, we will advance the global research environment of Solvation Science and infuse this concept into other disciplines, such as astrochemistry and life sciences.

RESEARCH AREA III

Solvation Under Extreme Conditions

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We explore new avenues of solvation, advance new technologies  

In Area I, RESOLV will introduce local concepts for solvation thermodynamics as well as site- specific polarity and local pH scales in nanoheterogeneous environments. Fundamental to the progress that we aim to achieve will be the synergistic combination of experiments addressing local solvent properties with theoretical approaches. These concepts promise to have a strong impact on advancing molecular recognition and (bio-)electrocatalysis.

In Area II, RESOLV will address dynamical aspects of solvation as well as ‘solvent shaping’, and will proceed to time-resolved techniques. Our goal is to tackle complex reacting systems in solution at the molecular level. This will lay the foundation for developing innovative synthesis strategies and boost the transfer of these results into bio- and process technologies. 

In Area III, RESOLV will consider high pressure, low temperature, and nanoconfinement as key stressors for the solvent that enable us to rigorously modulate solvation properties without changing the chemical identity of the solvent. Advancing the understanding of solvation under extreme conditions will open up new applications, ranging from organocatalysis and enzymology to increasing the shelf life of bioproducts.

 

RESOLV (2012-2018) - Seven years in Solvation Research

RESOLV in a Nutshell (2012-2018)