2018•ECS Meeting AbstractsRequires access

(Invited) Cellulose and Ionic Liquids Beyond Dissolution

Nolene Byrne

Open publisher page 0 citations

Abstract

Cellulose finds use in a wide variety of applications and owing to its renewable abundant nature the use of cellulose in new applications is increasing. The ability of ionic liquids to dissolve cellulose was a catalyst for significant ionic liquid development and research in the early 2000’s to present day. Many applications and research papers exist on the topic of ionic liquids and cellulose from understanding dissolution mechanisms to developing functionalized forms of cellulose. In this talk, our efforts on processing cellulose and other lignocellulose types with ionic liquids will be discussed covering topics from spinning regenerated cellulose fibres to the development of cellulose aerogels with tunable pore structures, including recycling textiles materials using ionic liquid solvents. The influence of dissolution and regeneration is a common theme for each of these processes and impacts the properties of the final material. Application properties will also discussed. Figure 1: Aerogels produced using different ionic liquids resulting in different pore morphology and mechanical properties. Figure 2: Regenerated lignocellulose fibres produced under different draw and different solvents: below carbon fibre from regenerated lignocellulose precursor Figure 1

About this research paper

What this paper is about

Cellulose finds use in a wide variety of applications and owing to its renewable abundant nature the use of cellulose in new applications is increasing. The ability of ionic liquids to dissolve cellulose was a catalyst for significant ionic liquid development and research in the early 2000’s to present day. Many applications and research papers exist on the topic of ionic liquids and cellulose from understanding dissolution mechanisms to developing functionalized forms of cellulose. In this talk, our efforts on processing cellulose and other lignocellulose types with ionic liquids will be discussed covering topics from spinning regenerated cellulose fibres to the development of cellulose aerogels with tunable pore structures, including recycling textiles materials using ionic liquid solvents. The influence of dissolution and regeneration is a common theme for each of these processes and impacts the properties of the final material. Application properties will also discussed. Figure 1: Aerogels produced using different ionic liquids resulting in different pore morphology and mechanical properties. Figure 2: Regenerated lignocellulose fibres produced under different draw and different solvents: below carbon fibre from regenerated lignocellulose precursor Figure 1

Why it matters

A significance statement is not available in the OpenAlex record.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

Cellulose finds use in a wide variety of applications and owing to its renewable abundant nature the use of cellulose in new applications is increasing. The ability of ionic liquids to dissolve cellulose was a catalyst for significant ionic liquid development and research in the early 2000’s to present day. Many applications and research papers exist on the topic of ionic liquids and cellulose from understanding dissolution mechanisms to developing functionalized forms of cellulose. In this talk, our efforts on processing cellulose and other lignocellulose types with ionic liquids will be discussed covering topics from spinning regenerated cellulose fibres to the development of cellulose aerogels with tunable pore structures, including recycling textiles materials using ionic liquid solvents. The influence of dissolution and regeneration is a common theme for each of these processes and impacts the properties of the final material. Application properties will also discussed. Figure 1: Aerogels produced using different ionic liquids resulting in different pore morphology and mechanical properties. Figure 2: Regenerated lignocellulose fibres produced under different draw and different solvents: below carbon fibre from regenerated lignocellulose precursor Figure 1

Key concepts: Ionic liquid, Cellulose, Dissolution, Regenerated cellulose, Chemical engineering, Materials science, Spinning, Ionic bonding

Related papers

Back to paper searchBrowse research topicsOriginal source
(Invited) Cellulose and Ionic Liquids Beyond Dissolution — Research Paper | ScholarLens