Date:April 18, 2019
Country: Canada
Plants
Trees
Cellulose
Application
Description Emily D. Cranston's research focuses on transforming cellulose nanocrystals (CNCs) into sustainable, high-performance materials through surface engineering. By tailoring the surface chemistry of CNCs, she develops biocompatible products with applications in food, health, energy, and water. This includes emulsifiers, hydrogels, adhesives, and tissue scaffolds. Her work bridges scientific research and the commercialization of eco-friendly technologies.
Pathway Description: The process in this project involves tailoring the surface chemistry of cellulose nanocrystals (CNCs) to improve their interactions, stability, and compatibility with various materials. CNCs are developed into hybrid nanocellulose materials by adjusting their composition. Chemical crosslinking is used to create networked CNC structures for applications like tissue scaffolds. This surface engineering enables the production of sustainable, high-performance products in diverse fields such as food, health, and energy.
Source: Know More...
Tags: Nanocellulose InnovationBio Based NanomaterialsBiocompatible Products
Types of Feedstock
secondary agricultural residue
Chemical
Chemical crosslinking
Biological
cellulose extraction