Active Digestion, Kidneys & Other Organs Cells, Biochemistry & Physiology

Development of Antiamoebic Contact Lens Surfaces: A Green Fabrication Approach

In plain English

AI plain-English summary

Contact lens wearers face a growing risk from *Acanthamoeba*—a hardy microbe that can cause severe eye infections—because the antimicrobials used in lens disinfectants are losing effectiveness as resistance spreads. This project replaces those chemicals with a physical approach: it uses a green, non-chemical method to sculpt microscopic surface features directly onto contact lenses, creating a texture that prevents microbes from sticking in the first place. The problem is that current disinfection relies on chemical agents, which are increasingly failing against drug-resistant strains. This research fills a gap by offering a resistance-proof alternative—physical surface design rather than chemical attack. If successful, the work could lead to next-generation contact lenses that resist both amoebae and bacteria without relying on antimicrobials. That would reduce the risk of blinding eye infections for millions of users, and the same surface-engineering principles could extend to other medical devices, such as catheters or implants, where microbial adhesion is a persistent problem. The project also explores the fundamental molecular processes of *Acanthamoeba* differentiation through epigenetics, advancing basic understanding of how pathogens interact with surfaces.

View original technical description
"The disinfection of contact lenses relies on antimicrobials, which face the significant challenge of medium- to long-term drug resistance. This project explores an alternative strategy: tailoring contact lens surfaces by fabricating antiamoebic materials. The focus will be on understanding how experimental conditions influence structural features on lenses and how these inhibit microbes, particularly Acanthamoeba. This approach employs a green, physical (non-chemical, non-contact) method to create surface structures that prevent microbial adhesion. By integrating material sciences with bioassay-guided testing, the project aims to develop surfaces with both antiamoebic and antibacterial properties while maintaining the mechanical and biocompatible characteristics essential for contact lenses. The project will also investigate the molecular processes of Acanthamoeba differentiation using epigenetics, The outcomes will advance knowledge of pathogen-substrate interactions, optimise micro/nano-structural designs, and contribute to next-generation, infection-resistant contact lenses, addressing a critical need in eye health. "

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Researchers

Sabeena Mughal (Student)

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Original classification

Studentship

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