We use NMR directly in live human cells to describe the complete post-translational maturation process of human superoxide dismutase 1 (SOD1). We follow, at atomic resolution, zinc binding, homodimer formation and copper uptake, and discover that copper chaperone for SOD1 oxidizes the SOD1 intrasubunit disulfide bond through both copper-dependent and copper-independent mechanisms. Our approach represents a new strategy for structural investigation of endogenously expressed proteins in a physiological (cellular) environment. © 2013 Nature America, Inc
Many eukaryotic proteins exert their physiological function in specific cellular compartments. Prote...
SOD1 has to undergo several post-translational modifications before reaching its mature form. The pr...
AbstractMany eukaryotic proteins exert their physiological function in specific cellular compartment...
We use NMR directly in live human cells to describe the complete post-translational maturation proce...
We use NMR directly in live human cells to describe the complete post-translational maturation proce...
In-cell NMR allows characterizing the folding state of a protein as well as posttranslational events...
In-cell NMR allows characterizing the folding state of a protein as well as posttranslational events...
An integrated approach which combines in-cell NMR spectroscopy with optical and X-ray fluorescence m...
Cellular structural biology methods are needed to characterize biological processes at atomic resolu...
The direct protein expression approach described in Chapter 4 is ideally suited for observing cellul...
In-cell NMR is a powerful technique to investigate proteins in living human cells at atomic resoluti...
Mutations in the superoxide dismutase 1 (SOD1) gene are related to familial cases of amyotrophic la...
Superoxide dismutase 1 (SOD1) is an important metalloprotein for cellular oxidative stress defence, ...
SOD1 has to undergo several post-translational modifications before reaching its mature form. The pr...
The redox properties of cellular environments are critical to many functional processes, and are str...
Many eukaryotic proteins exert their physiological function in specific cellular compartments. Prote...
SOD1 has to undergo several post-translational modifications before reaching its mature form. The pr...
AbstractMany eukaryotic proteins exert their physiological function in specific cellular compartment...
We use NMR directly in live human cells to describe the complete post-translational maturation proce...
We use NMR directly in live human cells to describe the complete post-translational maturation proce...
In-cell NMR allows characterizing the folding state of a protein as well as posttranslational events...
In-cell NMR allows characterizing the folding state of a protein as well as posttranslational events...
An integrated approach which combines in-cell NMR spectroscopy with optical and X-ray fluorescence m...
Cellular structural biology methods are needed to characterize biological processes at atomic resolu...
The direct protein expression approach described in Chapter 4 is ideally suited for observing cellul...
In-cell NMR is a powerful technique to investigate proteins in living human cells at atomic resoluti...
Mutations in the superoxide dismutase 1 (SOD1) gene are related to familial cases of amyotrophic la...
Superoxide dismutase 1 (SOD1) is an important metalloprotein for cellular oxidative stress defence, ...
SOD1 has to undergo several post-translational modifications before reaching its mature form. The pr...
The redox properties of cellular environments are critical to many functional processes, and are str...
Many eukaryotic proteins exert their physiological function in specific cellular compartments. Prote...
SOD1 has to undergo several post-translational modifications before reaching its mature form. The pr...
AbstractMany eukaryotic proteins exert their physiological function in specific cellular compartment...