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Size, shape and surface chemistry of nano-gold dictate its cellular interactions, uptake and toxicity

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posted on 2024-11-23, 09:55 authored by Catherine Carnovale, Gary BryantGary Bryant, Ravi ShuklaRavi Shukla, Vipul BansalVipul Bansal
Colloidal gold is undoubtedly one of the most extensively studied nanomaterials, with 1000s of different protocols currently available to synthesise gold nanoparticles (AuNPs). While developments in the synthesis of AuNPs have progressed rapidly in recent years, our understanding of their biological impact, with particular respect to the effect of shape, size, surface characteristics and aggregation states, has struggled to keep pace. It is generally agreed that when AuNPs are exposed to biological systems, these parameters directly influence their pharmacokinetic and pharmacodynamic properties by influencing AuNPs distribution, circulation time, metabolism and excretion in biological systems. However, the rules governing these properties, and the science behind them, are poorly understood. Therefore, a systematic understanding of the implications of these variables at the nano-bio interface has recently become a topic of major interest. This Review Article attempts to ignite a discussion around the influence of different physico-chemical parameters on biological activity of AuNPs, while focussing on critical aspects of cellular interactions, uptake and cytotoxicity. The review also discusses emerging trends in AuNP uptake and toxicity that are leading to technological advances through AuNP-based therapy, diagnostics and imaging.

Funding

Exploiting bacterial metal resistance machinery for metal ion nano-biosensors development

Australian Research Council

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Radio-magnetic nanoparticles as bimodal positron emission tomography/magnetic resonance imaging contrast agents for dendritic cell tracking

Australian Research Council

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History

Related Materials

  1. 1.
    DOI - Is published in 10.1016/j.pmatsci.2016.04.003
  2. 2.
    ISSN - Is published in 00796425

Journal

Progress in Materials Science

Volume

83

Start page

152

End page

190

Total pages

39

Publisher

Elsevier Ltd

Place published

United Kingdom

Language

English

Copyright

© 2016 Elsevier Ltd. All rights reserved.

Former Identifier

2006062706

Esploro creation date

2020-06-22

Fedora creation date

2016-06-30

Open access

  • Yes

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