Protein-based nanoreactors are generated by encapsulating an enzyme inside the capsid of the cowpea chlorotic mottle virus (CCMV). Here, three different noncovalent methods are described to efficiently incorporate enzymes inside the capsid of these viral protein cages. The methods are based on pH, leucine zippers, and electrostatic interactions respectively, as a driving force for encapsulation. The methods are exclusively described for the enzymes horseradish peroxidase, glucose oxidase, and Pseudozyma antarctica lipase B, but they are also applicable for other enzymes
Enzymes encapsulated in nanocontainers are a better model of the conditions inside a living cell tha...
Virus capsids, i.e., viruses devoid of their genetic material, are suitable nanocarriers for biomedi...
The applications of viral protein cages have expanded rapidly into the fields of bionanotechnology a...
In the cell, enzymes are almost always spatially confined in crowded and tightly controlled cellular...
In the cell, enzymes are almost always spatially confined in crowded and tightly controlled cellular...
The packaging of proteins into discrete compartments is an essential feature for cellular efficiency...
Virus-like particles are very interesting tools for application in bionanotechnology, due to their m...
The study of enzyme behavior in small nanocompartments is crucial for the understanding of biocataly...
The cowpea chlorotic mottle virus (CCMV) is a versatile building block for the construction of nanor...
In cellular systems, compartmentalization plays an important role in the protection and regulation o...
Various protein-based organelles exist in nature that are involved in a wide variety of different me...
Viral protein cage-based nanoreactors can be generated by encapsulation of catalytic metal nanoparti...
Protein cages are attractive as molecular scaffolds for the fundamental study of enzymes and metabol...
Enzymes encapsulated in nanocontainers are a better model of the conditions inside a living cell tha...
Virus capsids, i.e., viruses devoid of their genetic material, are suitable nanocarriers for biomedi...
The applications of viral protein cages have expanded rapidly into the fields of bionanotechnology a...
In the cell, enzymes are almost always spatially confined in crowded and tightly controlled cellular...
In the cell, enzymes are almost always spatially confined in crowded and tightly controlled cellular...
The packaging of proteins into discrete compartments is an essential feature for cellular efficiency...
Virus-like particles are very interesting tools for application in bionanotechnology, due to their m...
The study of enzyme behavior in small nanocompartments is crucial for the understanding of biocataly...
The cowpea chlorotic mottle virus (CCMV) is a versatile building block for the construction of nanor...
In cellular systems, compartmentalization plays an important role in the protection and regulation o...
Various protein-based organelles exist in nature that are involved in a wide variety of different me...
Viral protein cage-based nanoreactors can be generated by encapsulation of catalytic metal nanoparti...
Protein cages are attractive as molecular scaffolds for the fundamental study of enzymes and metabol...
Enzymes encapsulated in nanocontainers are a better model of the conditions inside a living cell tha...
Virus capsids, i.e., viruses devoid of their genetic material, are suitable nanocarriers for biomedi...
The applications of viral protein cages have expanded rapidly into the fields of bionanotechnology a...