Spotlight September 2021: Wood, the raw material of the future?

Home > Spotlight September 2021: Wood, the raw material of the future?

One of the greatest challenges facing humanity is to produce clean drinking water under the given circumstances of global warming, population growth and increasing littering. In September, we would like to present a review article that believes one approach to solve this problem is the use of nanoscale wood. In the review, “Advanced Nanowood Materials for the Water-Energy Nexus,” published in the journal Advanced Materials, methods for using wood for water treatment are outlined based on the structure of wood, bottom up or top down. Using the approaches described, wood can be used for water purification, desalination, or chemical removal.
Many examples are shown of how the basic building block of wood, cellulose (a natural polymer), can be processed into nanofibers or polymer matrices, enabling filtration of ultra-small particles.
In contrast, top-down approaches preserve the fundamental structure of wood. For example, naturally occurring channels and mesopores open up the possibility of binding chemicals or applying catalysts. Research with palladium, titanium dioxide, or iron oxide nanoparticles applied to wood showed very good separation of chemicals from water. By chemically modified wood, it was possible to selectively remove copper ions, separate oils and organic solvents, or filter out heavy metals from water.
Wood is an indispensable, climate-neutral raw material due to its ability to bind CO2. In combination with nanoparticles, it may be possible in the future to extend the versatile properties of wood and thus provide a solution approach to water scarcity and environmental pollution.

 

Original publication:

Chen, X. et al (2021) Advanced Nanowood Materials for the Water–Energy Nexus. Advanced Materials, 33(28), 2001240. doi.org/10.1002/adma.202001240

Spotlight September 2021: Wood, the raw material of the future?

Weitere Spotlights


Spotlight August 2023: From principles to reality. FAIR implementation in the nanosafety community

Spotlight August 2023: From principles to reality. FAIR implementation in the nanosafety community

In the August 2023 Spotlight, we present a paper that addresses the implementation of FAIR (Findability, Accessibility, Interoperability and Reusability) Data in nanosafety research. The authors introduce the new AdvancedNano GO FAIR Implementation Network (see also https://www.go-fair.org/implementation-networks/overview/advancednano/) established as part of the GO FAIR initiative. The paper highlights the AdvancedNano GO FAIR Implementation Network’s support […]

Read more

Spotlight January 2022: Methods, models, mechanisms and metadata

Spotlight January 2022: Methods, models, mechanisms and metadata

For the new year, we are presenting no “classic” paper here, but would like to point out an editorial: Methods, Models, Mechanisms and Metadata: Introduction to the Nanotoxicology Collection at F1000 Research. This editorial introduces the F1000Research Nanotoxicology Collection, where best practices can be collected in the form of original research reports, including no-effect studies, […]

Read more

Spotlight July 2021: The Path to Digital Material Research – It is never too late to start

Spotlight July 2021: The Path to Digital Material Research – It is never too late to start

Machine Learning, Artificial Intelligence, Big Data…. Have you read these words lately? No, these are not just buzzwords. The digitalisation of science is an evolving topic that is gaining importance with each passing day. That is why this month we would like to introduce you to the article “Digital Transformation in Materials Science: A Paradigm […]

Read more

Spotlight December 2021: Silica nanoparticles improve plant disease resistance

Spotlight December 2021: Silica nanoparticles improve plant disease resistance

The resistance of plants to various pathogens is often increased in agriculture with various chemicals (“fertilizers”). A new direction is being taken with the use of nanoparticles. These can be sprayed on the plants. In the present study, the model plant Arabidopsis was used to investigate whether silicon dioxide nanoparticles (SiO2) can increase resistance to […]

Read more

Skip to content