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Aurélien de la Lande

Researcher at Université Paris-Saclay

Publications -  71
Citations -  1319

Aurélien de la Lande is an academic researcher from Université Paris-Saclay. The author has contributed to research in topics: Density functional theory & Electron transfer. The author has an hindex of 20, co-authored 65 publications receiving 1087 citations. Previous affiliations of Aurélien de la Lande include James I University & University of Calgary.

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On the role of charge transfer in halogen bonding

TL;DR: The energetic contribution of charge transfer to halogen bonding is found to be rather small, on average about 10% of the interaction energy, which is less than that in hydrogen bonds.
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Derivation of interpretative models for long range electron transfer from constrained density functional theory

TL;DR: In this article, Wu and Van Voorhis proposed a constrained DFT approach for the study of long-range biological electron transfers within Marcus theory, which allows one to define chemically relevant nonadiabatic states and to compute the three key parameters entering the rate constant expression; the driving force (Δ G °), the reorganization energy (λ ), and the electronic coupling H DA.
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Surface residues dynamically organize water bridges to enhance electron transfer between proteins

TL;DR: This analysis suggests that, in addition to enabling the association and docking of the proteins, surface residues stabilize and control interprotein solvent dynamics in a concerted way.
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Robust and Efficient Constrained DFT Molecular Dynamics Approach for Biochemical Modeling.

TL;DR: This article takes advantage of the possibility to express atomic densities in terms of linear combination of Hermite Gaussian functions to improve the computation of the cDFT integration weights within the Hirshfeld and Voronoi deformation density electronic population approaches.
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Electronic Coupling Calculations for Bridge-Mediated Charge Transfer Using Constrained Density Functional Theory (CDFT) and Effective Hamiltonian Approaches at the Density Functional Theory (DFT) and Fragment-Orbital Density Functional Tight Binding (FODFTB) Level.

TL;DR: Four methods to calculate charge transfer integrals in the context of bridge-mediated electron transfer are tested and appear to give reliable results for both TB and TS ET and present a good alternative to expensive ab initio methodologies for large systems involving long-range charge transfers.