RESOLV Scientists have found new paths to steer and optimize electrochemical processes.

Nat. Chem.: Exploring biological structures at the atomic level reveals a fascinating complexity of shapes and functions that form the foundation of all life on earth. While nature has developed intricate networks of interacting molecular structures over billions of years, synthetic chemists face significant challenges in the synthesis of complex molecules.

The nanosensors can be used to track reactions with invisible light, saving materials and time.

Phys. Chem. Chem. Phys.: Accurate predictions of chemical shifts of species in aqueous solution are possible by combining ab initio molecular dynamics simulations with quantum-mechanical solvation models.

Nat.Chem: Stimuli-responsive molecules change shape or function under external influences, crucial for intelligent materials, switchable catalysts and bioimaging probes. Light, a key stimulus, allows for waste-free and precise control of processes.

Angew. Chem.Int. Ed.: RESOLV researchers present a solid-state NMR approach to detect symmetric motions of bound ligands

RESOLV member, Prof. Benjamin List, and his team found a group of catalysts that let “lazy” aliphatic hydrocarbons react. This work was published in Nature.

Nature: RESOLV PI Benjamin List and his team developed a new method to create complex molecules from simple ones in a single step. Polyene cyclization can form multiple carbon bonds, rings, and specific 3D structures.

Cell Rep Phys Sci.:Researchers are constantly pushing the limits of technology by breaking new ground in CO2 conversion. Their goal is to turn the harmful greenhouse gas into a valuable resource.

Researchers have identified a mechanism that promotes the breakdown of harmful protein deposits. If it malfunctions, it can lead to Parkinson’s disease.