Understanding nanoparticle–protein interactions is a crucial issue in the development of targeted nanomaterial delivery. Besides unraveling the composition of the nanoparticle’s protein coronas, distinct proteins thereof could control nanoparticle uptake into specific cell types. Here we differentially analyzed the protein corona composition on four polymeric differently functionalized nanoparticles by label-free quantitative mass spectrometry. Next, we correlated the relative abundance of identified proteins in the corona with enhanced or decreased cellular uptake of nanoparticles into human cancer and bone marrow stem cells to identify key candidates. Finally, we verified these candidate proteins by artificially decorating nanoparticles w...
Nanomedicine aims to find novel solutions for urgent biomedical needs. Despite this, one of the most...
In biological environments, nanoparticles are enshrouded by a layer of biomolecules, predominantly p...
In biological fluids, proteins associate with nanoparticles, leading to a protein "corona" defining ...
Nanoparticles are currently finding increasing use as drug delivery systems in the treatment of canc...
Exposure of nanoparticles (NPs) to biological fluids (e.g., plasma, interstitial fluid, and cytoplas...
It is now well understood that once in contact with biological fluids, nanoscale objects lose their ...
Currently, ligand binding to nanoparticle surface is the most widespread strategy for targeting spec...
Upon contact with plasma or other protein-containing biological fluids, the surface of nanoparticles...
It is now well known that the primary interactions of biological entities (e. g., tissues and cells)...
Enhanced understanding of bio-nano interaction requires recognition of hidden factors such as protei...
It is now well known that the primary interactions of biological entities (e. g., tissues and cells)...
The formation of the biomolecule corona on the surface of nanoparticles upon exposure to biological ...
In biological environments, nanoparticles are enshrouded by a layer of biomolecules, predominantly p...
Nanoparticles have unique capacities of interacting with the cellular machinery and entering cells. ...
Nanomedicine aims to find novel solutions for urgent biomedical needs. Despite this, one of the most...
In biological environments, nanoparticles are enshrouded by a layer of biomolecules, predominantly p...
In biological fluids, proteins associate with nanoparticles, leading to a protein "corona" defining ...
Nanoparticles are currently finding increasing use as drug delivery systems in the treatment of canc...
Exposure of nanoparticles (NPs) to biological fluids (e.g., plasma, interstitial fluid, and cytoplas...
It is now well understood that once in contact with biological fluids, nanoscale objects lose their ...
Currently, ligand binding to nanoparticle surface is the most widespread strategy for targeting spec...
Upon contact with plasma or other protein-containing biological fluids, the surface of nanoparticles...
It is now well known that the primary interactions of biological entities (e. g., tissues and cells)...
Enhanced understanding of bio-nano interaction requires recognition of hidden factors such as protei...
It is now well known that the primary interactions of biological entities (e. g., tissues and cells)...
The formation of the biomolecule corona on the surface of nanoparticles upon exposure to biological ...
In biological environments, nanoparticles are enshrouded by a layer of biomolecules, predominantly p...
Nanoparticles have unique capacities of interacting with the cellular machinery and entering cells. ...
Nanomedicine aims to find novel solutions for urgent biomedical needs. Despite this, one of the most...
In biological environments, nanoparticles are enshrouded by a layer of biomolecules, predominantly p...
In biological fluids, proteins associate with nanoparticles, leading to a protein "corona" defining ...