Multiplexable and Scalable Aqueous Synthesis Platform for Oleate‐Based, Bilayer‐Coated Gold Nanoparticles

Author:

Backhaus Andreas1,Albrecht Jillian1,Alzhanova Gaukhar1,Long Avery1,Arnold Wyatt1,Lee Junseok1,Tse Ho‐Yin2,Su Tina T.3,Cruz‐Gomez Sebastian4,Lee Seung Soo S.1,Menges Fabian5,Parent Lucas R.6,Ratjen Lars2,Burtness Barbara4,Fortner John D.1,Zimmerman Julie B.1ORCID

Affiliation:

1. Department of Chemical and Environmental Engineering Yale University 17 Hillhouse Avenue Rm 530 New Haven CT 06511 USA

2. Center for Green Chemistry and Green Engineering Yale University New Haven CT 06511 USA

3. Department of Immunology Yale School of Medicine New Haven CT 06511 USA

4. Department of Internal Medicine Yale School of Medicine New Haven CT 06511 USA

5. Department of Chemistry Yale University New Haven CT 06511 USA

6. Innovation Partnership Building University of Connecticut Storrs CT 06269 USA

Abstract

AbstractDespite gold‐based nanomaterials having a unique role in nanomedicine, among other fields, synthesis limitations relating to reaction scale‐up and control result in prohibitively high gold nanoparticle costs. In this work, a new preparation procedure for lipid bilayer‐coated gold nanoparticles in water is presented, using sodium oleate as reductant and capping agent. The seed‐free synthesis not only allows for size precision (8–30 nm) but also remarkable particle concentration (10 mm Au). These reaction efficiencies allow for multiplexing and reaction standardization in 96‐well plates using conventional thermocyclers, in addition to simple particle purification via microcentrifugation. Such a multiplexing approach also enables detailed spectroscopic investigation of the nonlinear growth process and dynamic sodium oleate/oleic acid self‐assembly. In addition to scalability (at gram‐level), resulting gold nanoparticles are stable at physiological pH, in common cell culture media, and are autoclavable. To demonstrate the versatility and applicability of the reported method, a robust ligand exchange with thiolated polyethylene glycol analogues is also presented.

Funder

Division of Engineering Education and Centers

Publisher

Wiley

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