Title:
Cellulose Nanomaterials: Plant‐based Nanoparticles Growing a Sustainable Future
Cellulose Nanomaterials: Plant‐based Nanoparticles Growing a Sustainable Future
No Thumbnail Available
Authors
Moon, Robert J.
Authors
Advisors
Advisors
Associated Organizations
Organizational Unit
Series
Series
Collections
Supplementary to
Permanent Link
Abstract
Cellulose based materials (wood, cotton, etc.) have been used by our society as engineering
materials for thousands of years and their use continues today as verified by the enormity of the world wide
industries in forest products, paper, textiles, packaging, etc. A new family of cellulose based particles (Cellulose Nanomaterials) with new functionality and performance are being developed to further expand the
use of renewable materials in the ever widening consumer products base. Cellulose nanomaterials (CNs)
are nanoparticles extracted from a wide variety of source materials (e.g. trees. plants. algae, bacteria). These
fibril-like particles (3-50 nm wide, 50-2000+ nm long) have a unique combination of characteristics: high
mechanical properties, low coefficient of thermal expansion. high aspect ratio, and low density. The exposed
-OH side groups on CN surfaces can be readily modified to achieve different surface properties, and have
been used to adjust CN self-assembly and dispersion within a wide range of suspensions and matrix
polymers, and to control interfacial properties in composites (e.g. CN-CN and CN-matrix). Also, CNs can
potentially be produced at industrial size quantities and at low costs, and preliminary tests have shown low
environmental, health and safety issues. Research in CNs has grown rapidly in the last few years in an ever
growing application space, including but not limited to: reinforcing fillers for polymers, cements. fibers,
transparent films, flexible transparent displays, biomedical implants, drug delivery, barrier films, separation
membranes, batteries, supercapacitors, sensors, etc.
Sponsor
Date Issued
2015-04-14
Extent
62:06 minutes
Resource Type
Moving Image
Resource Subtype
Lecture