We describe a method that integrates data derived from different mass spectrometry (MS)-based techniques with a modeling strategy for structural characterization of protein assemblies. We encoded structural data derived from native MS, bottom-up proteomics, ion mobility–MS and chemical cross-linking MS into modeling restraints to compute the most likely structure of a protein assembly. We used the method to generate near-native models for three known structures and characterized an assembly intermediate of the proteasomal base
Most cellular processes depend on a multitude of molecular machines, predominantly comprised of prot...
This thesis illustrates the current standing of mass spectrometry (MS) in molecular and structural b...
Mass spectrometry is now established as a powerful tool for the study of the stoichiometry, interact...
We describe a method that integrates data derived from different mass spectrometry (MS)-based techni...
We describe a method that integrates data derived from different mass spectrometry (MS)-based techni...
Protein complexes are key catalysts and regulators for the majority of cellular processes. Unveiling...
Protein assemblies are critical for cellular function and understanding their physical organization ...
SummaryStructure determination of macromolecular protein assemblies remains a challenge for well-est...
Current challenges in the field of structural genomics point to the need for new tools and technolog...
Nowadays, mass spectrometry plays an important role in structural biology. At one end it can be used...
Knowledge of protein structure and protein–protein interactions is vital for appreciating the elabor...
Over the past two decades, mass spectrometry (MS) has emerged as a bone fide approach for structural...
Native mass spectrometry and mass spectrometry in general, are powerful analytical tools for studyin...
Physical interactions between proteins and the formation of stable complexes form the basis of most ...
Cross-linking in combination with mass spectrometry can be used as a tool for structural modeling of...
Most cellular processes depend on a multitude of molecular machines, predominantly comprised of prot...
This thesis illustrates the current standing of mass spectrometry (MS) in molecular and structural b...
Mass spectrometry is now established as a powerful tool for the study of the stoichiometry, interact...
We describe a method that integrates data derived from different mass spectrometry (MS)-based techni...
We describe a method that integrates data derived from different mass spectrometry (MS)-based techni...
Protein complexes are key catalysts and regulators for the majority of cellular processes. Unveiling...
Protein assemblies are critical for cellular function and understanding their physical organization ...
SummaryStructure determination of macromolecular protein assemblies remains a challenge for well-est...
Current challenges in the field of structural genomics point to the need for new tools and technolog...
Nowadays, mass spectrometry plays an important role in structural biology. At one end it can be used...
Knowledge of protein structure and protein–protein interactions is vital for appreciating the elabor...
Over the past two decades, mass spectrometry (MS) has emerged as a bone fide approach for structural...
Native mass spectrometry and mass spectrometry in general, are powerful analytical tools for studyin...
Physical interactions between proteins and the formation of stable complexes form the basis of most ...
Cross-linking in combination with mass spectrometry can be used as a tool for structural modeling of...
Most cellular processes depend on a multitude of molecular machines, predominantly comprised of prot...
This thesis illustrates the current standing of mass spectrometry (MS) in molecular and structural b...
Mass spectrometry is now established as a powerful tool for the study of the stoichiometry, interact...