Megan G. Roberts
Contact Information
Title: Assistant Professor
Office:
Labs:
Phone (Office):
E-mail: megan.roberts@uwo.ca
Education
Research
The response of a polymer material at a biological interface depends on its physicochemical properties. is driven to understand the way that biopolymers interact with each other as well as with synthetic polymer surfaces so that we can learn to exploit these interactions and maximize the performance of new polymer materials for medical applications.
- Using intentional polymer surface design to manipulate protein corona formation. Research in this area will focus on the development of methods for characterizing biological responses to polymer surfaces. Over time, this will allow us to build a “medicine by design” toolkit and readily participate in industrially relevant safety studies.
- Sustainable emulsion-based vaccine technologies. This approach combines adjuvance with delivery method in novel vaccine formulations. To this end, we exploit the self-assembly of biopolymers at the oil/water interface to create dryable, oil-powder vaccine formulations that may be redispersed to reform liquid emulsions.
- Exploiting the self-assembly of polysaccharides for biocompatible materials. While assembly of biomacromolecules is an area of growing interest, the preparation of precise carbohydrate assemblies remains relatively unexplored due to their structural complexity and diversity. Projects in this area will focus on understanding the crystallization driven self-assembly potential of polysaccharides so that we can eventually develop next-generation biomaterials from these essential macromolecules.
Teaching
In W 2025, Dr. Roberts will teach a graduate course on “Polymer Materials for a Circular Bioeconomy.”
Publications
Please visit Dr. Roberts’ for an up-to-date record of publications.
- (This article is part of the themed collection: and was in the top 5% of highly cited articles from the Royal Society of Chemistry in 2022).