In this study, we investigated charge inversion of protein-coated Au nanoparticles caused by the addition of metal ions. The addition of hydrolyzable metal ions (Lewis acids) can induce drastic pH changes and depending on this pH, the metal ions (e.g. M3+) are readily converted into the hydrolyzed species (MOH2+, M(OH)2+) or even into hydroxides (M(OH)3). Adsorbed metal hydroxides were identified to cause the charge inversion of the NPs by using a combination of cryo-TEM, EFTEM and ζ-potential measurements.ISSN:1463-9084ISSN:1463-907
Studying the interaction of functional proteins such as enzymes and nanoparticles (NPs) includes the...
As the use of nanoparticles as biological and electronic platforms increases, research must be condu...
The ligand effects of atomically precise metal nanoclusters on electrocatalysis kinetics have been r...
In this study, we investigated charge inversion of protein-coated Au nanoparticles caused by the add...
Tuning of protein surface charge is a fundamental mechanism in biological systems. Protein charge is...
When a nanomaterial enters a biological system, proteins adsorb onto the particle surface and alter ...
When a nanomaterial enters a biological system, proteins adsorb onto the particle surface and alter ...
Along with the rapid growth of the nanotechnology, nanoparticles (NPs) have found many applications ...
“Naked” gold nanoparticles (AuNPs), synthesized in the absence of any capping agents, prepared by pu...
Monolayer-protected gold nanoparticles (AuNPs) exhibit distinct physical and chemical properties dep...
As nanoparticles (NPs) are increasingly used in many applications their safety and efficient applica...
The work reported here describes interactions between nanoscale Au colloids and two main types of or...
Corrosion is the sum of processes by which an element, commonly a metal, wears away, deteriorates [1...
Silver nanoparticles are notoriously susceptible to oxidation, yet gold nanoparticles coated in silv...
The nature of the nanoparticle-protein corona is emerging as a key aspect in determining the impact ...
Studying the interaction of functional proteins such as enzymes and nanoparticles (NPs) includes the...
As the use of nanoparticles as biological and electronic platforms increases, research must be condu...
The ligand effects of atomically precise metal nanoclusters on electrocatalysis kinetics have been r...
In this study, we investigated charge inversion of protein-coated Au nanoparticles caused by the add...
Tuning of protein surface charge is a fundamental mechanism in biological systems. Protein charge is...
When a nanomaterial enters a biological system, proteins adsorb onto the particle surface and alter ...
When a nanomaterial enters a biological system, proteins adsorb onto the particle surface and alter ...
Along with the rapid growth of the nanotechnology, nanoparticles (NPs) have found many applications ...
“Naked” gold nanoparticles (AuNPs), synthesized in the absence of any capping agents, prepared by pu...
Monolayer-protected gold nanoparticles (AuNPs) exhibit distinct physical and chemical properties dep...
As nanoparticles (NPs) are increasingly used in many applications their safety and efficient applica...
The work reported here describes interactions between nanoscale Au colloids and two main types of or...
Corrosion is the sum of processes by which an element, commonly a metal, wears away, deteriorates [1...
Silver nanoparticles are notoriously susceptible to oxidation, yet gold nanoparticles coated in silv...
The nature of the nanoparticle-protein corona is emerging as a key aspect in determining the impact ...
Studying the interaction of functional proteins such as enzymes and nanoparticles (NPs) includes the...
As the use of nanoparticles as biological and electronic platforms increases, research must be condu...
The ligand effects of atomically precise metal nanoclusters on electrocatalysis kinetics have been r...