The study of enzyme behavior in small nanocompartments is crucial for the understanding of biocatalytic processes in the cellular environment. We have developed an enzymatic conjugation strategy to attach a model enzyme to the interior of a cowpea chlorotic mottle virus capsid. It is shown that with this methodology high encapsulation efficiencies can be achieved. Additionally, we demonstrate that the encapsulation does not affect the enzyme performance in terms of a decreased activity or a hampered substrate diffusion. Finally, it is shown that the encapsulated enzymes are protected against proteases. We believe that our strategy can be used to study enzyme kinetics in an environment that approaches physiological conditions
Using a newly discovered encapsulin from Mycolicibacterium hassiacum, several biocatalysts were pack...
The simultaneous expression in Escherichia coli cells of the Qβ virus-like particle (VLP) capsid pro...
The virus like particle (VLP) derived from bacteriophage P22 presents a unique platform for construc...
In the cell, enzymes are almost always spatially confined in crowded and tightly controlled cellular...
In cellular systems, compartmentalization plays an important role in the protection and regulation o...
In the cell, enzymes are almost always spatially confined in crowded and tightly controlled cellular...
Contains fulltext : 161505.pdf (publisher's version ) (Closed access
The packaging of proteins into discrete compartments is an essential feature for cellular efficiency...
Protein-based nanoreactors are generated by encapsulating an enzyme inside the capsid of the cowpea ...
Enzymes are always considered as great gifts from nature since they are holding brilliant properties...
Protein cages are attractive as molecular scaffolds for the fundamental study of enzymes and metabol...
Encapsulation of enzymes inside protein cage structures, mimicking protein-based organelle structure...
In nature, the interior of a cell hosts a remarkable network of organelles and subcellular compartme...
Virus-like particles are very interesting tools for application in bionanotechnology, due to their m...
The encapsulation of enzymes in wet, nanoporous silica gels is a powerful strategy to exploit the ca...
Using a newly discovered encapsulin from Mycolicibacterium hassiacum, several biocatalysts were pack...
The simultaneous expression in Escherichia coli cells of the Qβ virus-like particle (VLP) capsid pro...
The virus like particle (VLP) derived from bacteriophage P22 presents a unique platform for construc...
In the cell, enzymes are almost always spatially confined in crowded and tightly controlled cellular...
In cellular systems, compartmentalization plays an important role in the protection and regulation o...
In the cell, enzymes are almost always spatially confined in crowded and tightly controlled cellular...
Contains fulltext : 161505.pdf (publisher's version ) (Closed access
The packaging of proteins into discrete compartments is an essential feature for cellular efficiency...
Protein-based nanoreactors are generated by encapsulating an enzyme inside the capsid of the cowpea ...
Enzymes are always considered as great gifts from nature since they are holding brilliant properties...
Protein cages are attractive as molecular scaffolds for the fundamental study of enzymes and metabol...
Encapsulation of enzymes inside protein cage structures, mimicking protein-based organelle structure...
In nature, the interior of a cell hosts a remarkable network of organelles and subcellular compartme...
Virus-like particles are very interesting tools for application in bionanotechnology, due to their m...
The encapsulation of enzymes in wet, nanoporous silica gels is a powerful strategy to exploit the ca...
Using a newly discovered encapsulin from Mycolicibacterium hassiacum, several biocatalysts were pack...
The simultaneous expression in Escherichia coli cells of the Qβ virus-like particle (VLP) capsid pro...
The virus like particle (VLP) derived from bacteriophage P22 presents a unique platform for construc...