SummaryRecurring groups of atoms in molecules are surrounded by specific canonical distributions of electrons. Deviations from these distributions reveal unrealistic molecular geometries. Here, we show how canonical electron densities can be combined with classical electron densities derived from X-ray diffraction experiments to drive the real space refinement of crystal structures. The refinement process generally yields superior molecular models with reduced excess electron densities and improved stereochemistry without compromising the agreement between molecular models and experimental data
Refinement is a critical step in the determination of a model which explains the crystallographic ob...
Electronic charge density distribution in molecular systems has been described in terms of the topol...
Structure determination of macromolecules often depends on phase improvement and phase extension by ...
Recurring groups of atoms in molecules are surrounded by specific canonical distributions of electro...
Recurring groups of atoms in molecules are surrounded by specific canonical distributions of electro...
SummaryRecurring groups of atoms in molecules are surrounded by specific canonical distributions of ...
The expected electron density for an atomic model is calculated directly from the coordinates in a r...
The expected electron density for an atomic model is calculated directly from the coordinates in a r...
X-ray structural analysis might be regarded as a method of visualizing molecules as they appear in t...
X-rays are diffracted by the electron density of crystals. Thus, the correct analysis of a single cr...
Macromolecular structures resolved by X-ray crystallography are essential for life science research....
Accurate X-ray diffraction experiments allow for a reconstruction of the electron density distributi...
In this work, the quality of the electron density in crystals reconstructed by the multipolar model ...
Chemists and biologists employ two different methods to determine the atomic structure of molecules....
Abstract Understanding the relationship between protein structure and biological function is a centr...
Refinement is a critical step in the determination of a model which explains the crystallographic ob...
Electronic charge density distribution in molecular systems has been described in terms of the topol...
Structure determination of macromolecules often depends on phase improvement and phase extension by ...
Recurring groups of atoms in molecules are surrounded by specific canonical distributions of electro...
Recurring groups of atoms in molecules are surrounded by specific canonical distributions of electro...
SummaryRecurring groups of atoms in molecules are surrounded by specific canonical distributions of ...
The expected electron density for an atomic model is calculated directly from the coordinates in a r...
The expected electron density for an atomic model is calculated directly from the coordinates in a r...
X-ray structural analysis might be regarded as a method of visualizing molecules as they appear in t...
X-rays are diffracted by the electron density of crystals. Thus, the correct analysis of a single cr...
Macromolecular structures resolved by X-ray crystallography are essential for life science research....
Accurate X-ray diffraction experiments allow for a reconstruction of the electron density distributi...
In this work, the quality of the electron density in crystals reconstructed by the multipolar model ...
Chemists and biologists employ two different methods to determine the atomic structure of molecules....
Abstract Understanding the relationship between protein structure and biological function is a centr...
Refinement is a critical step in the determination of a model which explains the crystallographic ob...
Electronic charge density distribution in molecular systems has been described in terms of the topol...
Structure determination of macromolecules often depends on phase improvement and phase extension by ...