
Cellulose Processing with Ionic Liquids
Royal Society of Chemistry (Publisher)
Will be published approx. on 26. June 2029
Book
Hardback
400 pages
978-1-78801-560-8 (ISBN)
Description
Cellulose is a historical polymer that has been used in the textiles and chemical industries since the origins of the industrial revolution. It is highly abundant and potentially represents a renewable feedstock for a number of everyday chemicals and products. However, in its purified technical form it is recalcitrant towards dissolution in common solvents (including water). It also does not have a melting point, precluding low-cost melt processing. Thus, chemical derivatization or harsh experimental conditions are typically needed for cellulose valorisation. Recently, novel and innovative routes for cellulose processing have utilised certain ionic liquids, as direct-dissolution solvents. These allow for cellulose dissolution under relatively mild conditions, allowing access to dissolution-regeneration methods, homogeneous chemistry and environmentally benign product engineering. There is therefore considerable interest, both academically and industrially, in developing different approaches to processing cellulose using ionic liquids.
Taking a highly critical look at the potential of ionic liquids, for cellulose processing, this book demonstrates the benefits and challenges of ionic liquids towards tangible applications, in the areas of cellulose chemistry and technology. Weighing up what is actually achievable, versus actually feasible process scenarios, it presents the concepts with high potential from both an engineering and fundamental perspective. The sustainability of product and process design is a focus throughout, with individual chapters specifically devoted to recyclability and toxicity of ionic liquids in chemical processing.
Taking a highly critical look at the potential of ionic liquids, for cellulose processing, this book demonstrates the benefits and challenges of ionic liquids towards tangible applications, in the areas of cellulose chemistry and technology. Weighing up what is actually achievable, versus actually feasible process scenarios, it presents the concepts with high potential from both an engineering and fundamental perspective. The sustainability of product and process design is a focus throughout, with individual chapters specifically devoted to recyclability and toxicity of ionic liquids in chemical processing.
More details
Series
Language
English
Place of publication
Cambridge
United Kingdom
Target group
Professional and scholarly
Product notice
Unsewn / adhesive bound
Dimensions
Height: 234 mm
Width: 156 mm
Weight
600 gr
ISBN-13
978-1-78801-560-8 (9781788015608)
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Schweitzer Classification
Persons
Alistair W. T. King holds the title of Docent (Adjunct Professor) and University Researcher at the University of Helsinki (Materials Chemistry Division). He works in the general area of synthetic organic chemistry and biomass. Most recently he has had a strong collaboration with Prof. Michael Hummel, Prof. Herbert Sixta and Prof. Ilkka Kilpelaeinen in the development of ionic liquids for application in a novel fibre-spinning process (IONCELL (R)). This was awarded the H&M Foundation global change award for the promotion of environmental sustainability and circular economy in textiles production. His core research interests and expertise are in sustainable chemical processing, physical organic chemistry, cellulose chemistry and technology, fundamentals of biomass structure, NMR and ionic liquids. His main research topics are the development of ionic liquids for cellulose processing and as media for NMR analysis of cellulosic biomass. His main application interests are in the bulk and surface chemical modification of cellulosics.
Michael Hummel is an Assoc. Prof. and ERC Starting Grant recipient at the Department of Bioproducts and Biosystems (Aalto University). After a thorough education in the synthesis of a wide spectrum of heterocyclic compounds, he moved to the development and engineering of products from bio-based materials. He has been one of the key persons in the development of a new fibre spinning process, termed Ioncell (R). This technology offers new product possibilities for wood-based feedstocks and enables the use of low-value waste material such as paper, cardboard or recycled cotton. Ioncell (R) was recognized with the European Paper Recycling Award by the European Paper Recycling Council and the first ever Global Change Award by the H&M Foundation. Currently, he is working on the development of biobased textile dyes and a new class of carbon fibres and carbon materials derived from biopolymers.
Michael Hummel is an Assoc. Prof. and ERC Starting Grant recipient at the Department of Bioproducts and Biosystems (Aalto University). After a thorough education in the synthesis of a wide spectrum of heterocyclic compounds, he moved to the development and engineering of products from bio-based materials. He has been one of the key persons in the development of a new fibre spinning process, termed Ioncell (R). This technology offers new product possibilities for wood-based feedstocks and enables the use of low-value waste material such as paper, cardboard or recycled cotton. Ioncell (R) was recognized with the European Paper Recycling Award by the European Paper Recycling Council and the first ever Global Change Award by the H&M Foundation. Currently, he is working on the development of biobased textile dyes and a new class of carbon fibres and carbon materials derived from biopolymers.
Content
Short history of cellulose solvents
Ionic liquids - An overview
Fundamentals of cellulose
Thermodynamics and kinetic aspects of cellulose dissolution
Pulp upgrading and refining using Ionic liquids
Heterogeneous preparation & modification of Nanocellulose
Homogeneous cellulose chemistry
Fundamentals of cellulose regeneration from ionic liquid solutions
Shaped products through regeneration from ionic liquid solutions and future potential
Degradation during biomass processing in ionic liquids
Recycling of ionic liquids
Toxicity of ionic liquids
Ionic liquids - An overview
Fundamentals of cellulose
Thermodynamics and kinetic aspects of cellulose dissolution
Pulp upgrading and refining using Ionic liquids
Heterogeneous preparation & modification of Nanocellulose
Homogeneous cellulose chemistry
Fundamentals of cellulose regeneration from ionic liquid solutions
Shaped products through regeneration from ionic liquid solutions and future potential
Degradation during biomass processing in ionic liquids
Recycling of ionic liquids
Toxicity of ionic liquids