The protein corona is the adsorbed protein layer that forms around nanoparticles in biological fluids. The review presents it as the effective interface seen by living systems.
First-pass extracted concept
protein corona
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protein corona
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Evidence Snippets
Supported by the supplied web research summary stating that the review abstract emphasizes "protein corona effects" and that intrinsic nanoparticle properties precondition in vivo identity via the protein corona.
Evolving areas of interest that are discussed include ... new principles established in the role of the protein corona
The supplied web research summary identifies protein corona/biological identity as one of four explicitly source-aligned areas relevant to the anchor review and notes that corona formation shapes circulation, targeting, biodistribution, efficacy, and safety.
Related component names explicitly supported by discovered sources include EPR effect, protein corona, personalized protein corona, PEGylation, and Potato virus X.
When NP are exposed to biological fluids, an adsorption layer of proteins, a "protein corona" forms around the NPs.
Supporting Sources
Linked Claims
The review's abstract framing includes protein corona effects as an important determinant of nanoparticle in vivo identity and delivery behavior.
The source identifies the role of the protein corona as an evolving area of interest in lipid-based RNA delivery design.
Evolving areas of interest that are discussed include ... new principles established in the role of the protein corona
Protein corona is treated as a relevant determinant of nanoparticle biological identity and delivery behavior in the review's design context.
Living systems interact with protein-coated nanoparticles rather than bare nanoparticles.
When nanoparticles are exposed to biological fluids, proteins adsorb to their surfaces and form a protein corona.
The review summarizes findings on protein corona composition in the bloodstream, molecular aspects of the adsorption layer, its time evolution, and unresolved issues in nanoparticle–protein interaction research.