When electrons and protons get excited

When electrons and protons get excited.

T he coupling of electron and proton transfer reactions is central to a broad range of biological and chemical processes, including photosynthesis, respiration, and various solar energy devices. Elucidation of the fundamental physical principles underlying proton-coupled electron transfer (PCET) reactions (1–5), in which both electrons and protons are transferred, is critical for a complete und...

Electrons and holes get closer

molybdenum and tungsten dichalcogenides, some of which have been predicted to have larger piezoelectric coefficients than MoS2 (ref. 3). Piezoelectricity has been reported in few-layer C3N4 nanosheets7. Future work may involve the study of higher-order electromechanical effects in few-layer materials that have potential to generate curvature in membranes5. The atomically thin nature of these ma...

Jovian protons and electrons: pioneer 11.

Transport Electrons and Protons Across Membranes

Surface-active properties of ubiquinones and ubiquinols have been investigated by monomolecular-film techniques. Stable monolayers are formed at an air/water interface by the fully oxidized and reduced forms of the coenzyme; collapse pressures and hence stability of the films tend to increase with decreasing length of the isoprenoid side chain and films of the reduced coenzymes are more stable ...

Kinetic Models of Solar Wind Electrons, Protons and Heavy Ions

In the present chapter, we describe the recent results obtained in the development of solar wind models using the kinetic approach. We show how the solution of the evolution equation is used to determine the velocity distribution function (VDF) of the solar wind particles and their moments. The solutions depend on the approximations and assumptions made in the development of the models. We desc...