Water consumption in the textile industry is high and textile dyes are complex organic molecules that are hard to treat. Every year thousands of tons of dyes are produced worldwide and approximately 10-15% of those remain in wastewater, contaminating groundwater and the environment. Conventional treatment methods present problems of inefficiency, high operational costs and secondary pollution, but magnetic biochar has emerged as a promising material for textile wastewater remediation as it has high adsorption capacity and reusability and is easy to separate using an external magnetic field. Exploring the synthesis, characterization and application of magnetic biochar in textile wastewater remediation, this book details the principles of biochar modification for the incorporation of magnetic nanoparticles. It also looks at the key aspects of pollutant removal mechanisms and summarizes recent advances in magnetic biochar composites, regeneration and reuse. This book bridges the gap between fundamental research and practical applications, and includes a discussion of the economic and environmental feasibility of magnetic biochar technology and its large-scale implementation in textile wastewater management. It is a valuable resource for environmental scientists, engineers and industrial practitioners seeking sustainable wastewater treatment solutions.
Les mer
This book explores the synthesis, characterisation and application of magnetic biochar in textile wastewater remediation. It is a valuable resource for researchers and practitioners seeking sustainable wastewater treatment solutions, and includes a discussion of the feasibility of magnetic biochar technology and its large-scale implementation.
Les mer
1: Introduction to Textile Wastewater, its Treatment Technology and Role of Magnetic Biochar 2: Synthesis and Characterization Techniques of Magnetic Biochar 3: Properties and Applications of Magnetic Biochar in Wastewater 4: Adsorption Isotherm and Kinetic Modelling for Magnetic Biochar 5: Mechanisms of Pollutant Removal Using Magnetic Biochar
Les mer
Water consumption in the textile industry is high and textile dyes are complex organic molecules that are hard to treat. Every year thousands of tons of dyes are produced worldwide and approximately 10-15% of those remain in wastewater, contaminating groundwater and the environment. Conventional treatment methods present problems of inefficiency, high operational costs and secondary pollution, but magnetic biochar has emerged as a promising material for textile wastewater remediation as it has high adsorption capacity and reusability and is easy to separate using an external magnetic field. Exploring the synthesis, characterization and application of magnetic biochar in textile wastewater remediation, this book details the principles of biochar modification for the incorporation of magnetic nanoparticles. It also looks at the key aspects of pollutant removal mechanisms and summarizes recent advances in magnetic biochar composites, regeneration and reuse. This book bridges the gap between fundamental research and practical applications, and includes a discussion of the economic and environmental feasibility of magnetic biochar technology and its large-scale implementation in textile wastewater management. It is a valuable resource for environmental scientists, engineers and industrial practitioners seeking sustainable wastewater treatment solutions.
Les mer
This book is aimed primarily at undergraduate and postgraduate students, doctoral researchers and faculty members in environmental science, chemical engineering, water treatment and related disciplines. It should also be relevant to practitioners and professionals in the textile and other production industries.
Les mer

Produktdetaljer

ISBN
9781836993995
Publisert
2026-03-06
Utgiver
CABI Publishing
Høyde
234 mm
Bredde
156 mm
Aldersnivå
U, P, 05, 06
Språk
Product language
Engelsk
Format
Product format
Heftet
Antall sider
88

Serien redigert av

Biografisk notat

Dan Bahadur Pal (Author) Dr Pal is currently working as an Assistant Professor, Department of Chemical Engineering, Harcourt Butler Technical University, Kanpur-208002, Uttar Pradesh India. He received his M. Tech and PhD in the field of Chemical Engineering from the Indian Institute of Technology (BHU) Varanasi, Uttar Pradesh, India. Before that, he completed his B. Tech in Chemical Engineering from UPTU, Lucknow. Dr Pal's research interest is nano-technology, catalysis, energy and environment and waste management with a special focus on developing processes and materials by using waste as raw materials. He also prefers to work on bio-waste processing and value addition. Dr Pal has published more than 94 publications in reputed journals and books, along with 53 book chapters and 11 edited books. Ashish Kapoor (Author) Dr Ashish Kapoor currently works in the Department of Chemical Engineering, Harcourt Butler Technical University, Kanpur, India. He received his B. Tech and M. Tech degrees in Chemical Engineering from the Indian Institute of Technology Madras, Tamil Nadu, India. He received his doctorate in Chemical Engineering from the University of Illinois at Urbana-Champaign, USA. His research interests include environmental remediation, microfluidic sensors for water quality monitoring, transport processes, modelling and simulation. He has published more than 45 publications in reputed journals and 10 book chapters. He has been granted one patent. Neha Srivastava (Series Edited By) Neha Srivastava received a PhD in Biotechnology from Department of Molecular and Cellular Engineering, SHIATS, India in 2016 in the area of bioenergy. She works in the Department of Chemical Engineering and Technology, IIT (BHU) Varanasi, India. She has published more than 28 research articles in peer reviewed journals and has filed 3 patents, 1 technology transfer and edited 7 books. She has many popular social scientific articles in newspapers and has 11 potential deposited microorganisms in her credit. Presently, she is working on bioprocess technology and biofuels production (Microbial screening and enzymes; production and enhancement, biohydrogen production from waste biomass, bioethanol production).