Details

Autor(en) / Beteiligte

• Figoli, Alberto
• Hoinkis, Jan
• Bundschuh, Jochen
• Figoli, A.
• Hoinkis, J.

Titel

Membrane Technologies for Water Treatment: Removal of Toxic Trace Elements with Emphasis on Arsenic, Fluoride and Uranium

Auflage

1

Ort / Verlag

Milton: CRC Press

Erscheinungsjahr

2016

Quelle

Alma/SFX Local Collection

Beschreibungen/Notizen

• Focuses on the application of membrane technologies in removing toxic metals\metalloids from water. Particular attention is devoted to the removal of arsenic, uranium, and fluoride. These compounds are all existing in the earth’s crust at levels between two and five thousands micrograms per kg (parts per million) on average and these compounds can be considered highly toxic to humans, who are exposed to them primarily from air, food and water. In order to comply with the new maximum contaminant level, numerous studies have been undertaken to improve established treatments or to develop novel treatment technologies for removing toxic metals from contaminated surface and groundwater. Among the technologies available, applicable for water treatment, membrane technology has been identified as a promising technology to remove such toxic metals from water. The book describes both pressure driven (traditional processes, such as Nanofiltration, Reverse Osmosis, Ultrafiltration,etc) and more advanced membrane processes (such as forward osmosis, membrane distillation, and membrane bio-reactors) employed in the application of interest. Key aspect of this book is to provide information on both the basics of membrane technologies and on the results depending on the type of technology employed. Born 1970 in La Spezia, Italy. Alberto Figoli got his PhD in Chemical Technologies at the Membrane Technology Group, University of Twente (The Netherlands), in 2001. Since 2001, he is working as permanent researcher at the Institute on Membrane Technology, ITM-CNR (Italy). He is expert in the field of membrane technology, particularly in membrane preparation and characterisation and membrane operations related to environmental issues. He attended more than 100 national and international conferences on membranes with oral and poster presentations and as chairman. He also presented lectures at courses on membrane operations as invited speaker. In 2006, he received the prize on Scientific Productivity "Food Packaging Research GSICA Awards", on the basis of the scientific work he carried out during the years on food packaging issues. He presented several book chapters on Membrane Preparation and Application and he is author of more than 60 scientific papers published in international journals and of a US patent on membrane technology application. Alberto is member of several associations that deal with membranes (EMS, GISCA) and is involved as scientific responsible for ITM-CNR in several national and international and Eurpean projects. Part I Generality on arsenic, fluoride and uranium 1. Fluoride, uranium and arsenic: occurrence, mobility, chemistry, human health impacts and concerns Alberto Figoli, Jochen Bundschuh & Jan Hoinkis 1.1 Introduction 1.2 Fluoride 1.3 Uranium 1.4 Arsenic Part II Traditional membrane processes 2. Arsenic removal by low pressure-driven membrane operations Alfredo Cassano 2.1 Introduction 2.2 Microfiltration and ultrafiltration 2.3 Arsenic removal by using microfiltration 2.4 Arsenic removal by using ultrafiltration 2.5 Conclusions　 3. Fluoride and uranium removal by nanofiltration Stefan-André Schmidt, Tiziana Marino, Catherine Aresipathi, Shamim-Ahmed Deowan, Priyanath N. Pathak, Prasanta Kumar Mohaptra, Jan Hoinkis & Alberto Figoli 3.1 Introduction 3.2 Common removal technologies 3.3 Removal of dissolved fluoride and uranium by NF 3.4 Conclusions and outlook 4. The use of reverse osmosis (RO) for removal of arsenic, fluoride and uranium from drinking water Priyanka Mondal, Anh Thi Kim Tran & Bart Van der Bruggen 4.1 Reverse osmosis: background and transport mechanism 4.2 Types of RO membranes 4.3 Membrane modules and their application 4.4 Reverse osmosis for arsenic, fluoride and uranium removal from water 4.5 Experimental study for removal of arsenic and fluoride from water by RO and loose RO membranes 4.6 Conclusion 5. Electro-membrane processes for the removal of trace toxic metal ions from water Svetlozar Velizarov, Adrian Oehmen, Maria Reis & João Crespo 5.1 Introduction 5.2 Case studies 5.3 Concluding remarks and future needs 6. Fluoride, arsenic and uranium removal from water using adsorbent materials and integrated membrane systems Hacene Mahmoudi, Noreddine Ghaffour & Mattheus Goosen 6.1 Introduction 6.2 Fluoride 6.3 Arsenic 6.4 Uranium 6.5 Concluding remarks and outlook Part III New trends in materials and process development 7. Biosorbent materials and membranes for the treatment of toxic ions from water Mir Saeed Seyed Dorraji, Vahid Vatanpour & Abdolreza Mirmohseni 7.1 Introduction 7.2 Mechanism of metal biosorption and factors affecting its performance 7.3 Equilibrium models for bioadsorption process 7.4 Choice of metals for bioadsorption studies 7.5 Biosorbent materials as a precursor in membrane preparation 7.6 Hybrid of biosorption and membrane processes 7.7 Biofiltration 7.8 Bioadsorption of arsenic, uranium and fluoride 7.9 Conclusion 8. Liquid membrane separations of uranium Prasanta Kumar Mohapatra 8.1 Introduction 8.2 Liquid membranes 8.3 Liquid membrane separations using different extractants 8.4 Applications of liquid membranes for uranium recovery 8.5 Conclusion and perspectives 9. Supported liquid membrane technology in the removal and recovery of toxic ions from water Raffaele Molinari & Pietro Argurio 9.1 Introduction 9.2 Theory 9.3 SLM application in the removal and recovery of toxic ions from water 9.4 Conclusion 10. Polymer inclusion membranes for the separation of uranium and arsenic from dilute aqueous solutions Alexander M. St John, Spas D. Kolev & Clàudia Fontàs 10.1 Introduction 10.2 Extraction and separation of solutes 10.3 Separation of uranium 10.4 Separation of arsenic 10.5 Conclusion and outlook 11. Removal of arsenic by nanofiltration: a case study on novel membrane materials Jianfeng Song, Xue-Mei Li, Claudia Ursino, Alberto Figoli & Tao He 11.1 Introduction 11.2 Nanofiltration (NF) 11.3 Removal of arsenic by nanofiltration 11.4 High performance NF membranes 11.5 Cost evaluation 11.6 Summary and outlook 12. Fate and removal of trace metals/metalloids and fluoride from urban wastewater by membrane bioreactors: pilot and full-scale experiences Evina Katsou, Simos Malamis, Franco Cecchi & Francesco Fatone 12.1 Introduction 12.2 Myths and realities about MBR 12.3 Occurrence, fate and removal of trace metals, metalloids and fluoride 12.4 Conclusion 13. Membrane distillation for the treatment of waters contaminated by arsenic, fluoride and uranium Alessandra Criscuoli & Maria Concetta Carnevale 13.1 Introduction 13.2 Traditional treatments 13.3 Application of the membrane distillation technique 13.4 Synthesis of the literature results 13.5 Conclusions and remarks 14. Removal of inorganic and organic trace contaminants by forward osmosis membranes Qianhong She & Chuyang Y. Tang 14.1 Introduction 14.2 Fundamentals of mass transport and solute rejection in FO 14.3 Removal of organic contaminants by FO membranes 14.4 Removal of inorganic contaminants by FO membranes 14.5 Conclusions and outlook Subject index Book series page "The book has chapters on all the major membrane technologies and their application to removing toxic trace elements, each chapter covering at least one of arsenic, fluoride and uranium. Taken together, the references for each chapter provide a very good resource for readers wanting to learn more about particular membrane technologies used in this field or a set of studies on toxic element removal." "Overall, the book will appeal particularly to membrane scientists looking to understand the scope for removal of toxic trace elements, especially arsenic, uranium and fluoride, and to scientists working on these elements looking to understand how membranes could be used to treat contaminated waters." Nadia Permogorov, Johnson Matthey Technology Centre, Reading UK. Printed in Johnson Matthey Technology Review, no. 60, 2016