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Low Carbon Stabilization and Solidification of Hazardous Wastes [Mīkstie vāki]

Edited by (Professor, The Hong Kong University of Science and Technology, Hong Kong, China), Edited by (Organic Food Development Center, Nanjing Institute of Environmental Sciences, Nanjing, China)
  • Formāts: Paperback / softback, 590 pages, height x width: 276x216 mm, weight: 1630 g, 65 illustrations (15 in full color); Illustrations
  • Izdošanas datums: 21-Sep-2021
  • Izdevniecība: Elsevier Science Publishing Co Inc
  • ISBN-10: 0128240040
  • ISBN-13: 9780128240045
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Low Carbon Stabilization and Solidification of Hazardous WastesPalielināt
  • Formāts: Paperback / softback, 590 pages, height x width: 276x216 mm, weight: 1630 g, 65 illustrations (15 in full color); Illustrations
  • Izdošanas datums: 21-Sep-2021
  • Izdevniecība: Elsevier Science Publishing Co Inc
  • ISBN-10: 0128240040
  • ISBN-13: 9780128240045
Citas grāmatas par šo tēmu:
Permanent link: https://www.kriso.lv/db/9780128240045.html
Keywords:

Low Carbon Stabilization and Solidification of Hazardous Wastes details sustainable and low-carbon treatments for addressing environmental pollution problems, critically reviewing low-carbon stabilization/solidification technologies. This book presents the latest state-of-the-art knowledge of low-carbon stabilization/solidification technologies to provide cost-effective sustainable solutions for real-life environmental problems related to hazardous wastes including contaminated sediments. As stabilization/solidification is one of the most widely used waste remediation methods for its versatility, fast implementation and final treatment of hazardous waste treatment, it is imperative that those working in this field follow the most recent developments.

Low Carbon Stabilization and Solidification of Hazardous Wastes is a necessary read for academics, postgraduates, researchers and engineers in the field of environmental science and engineering, waste management, and soil science, who need to keep up to date with the most recent advances in low-carbon technologies. This audience will develop a better understanding of these low-carbon mechanisms and advanced characterization technologies, fostering the future development of low-carbon technologies and the actualization of green and sustainable remediation.

  • Focuses on stabilization/solidification for environmental remediation, as one of the most widely used environmental remediation technologies in field-scale applications
  • Details the most advanced and up-to-date low-carbon sustainable technologies necessary to guide future research and sustainable development
  • Provides comprehensive coverage of low-carbon solutions for treating a variety of hazardous wastes as well as contaminated soil and sediment
List of contributors
xi
1 Overview of hazardous waste treatment and stabilization/solidification technology
1(14)
Xinni Xiong
Yuying Zhang
Lei Wang
Daniel C.W. Tsang
1.1 Introduction
1(1)
1.2 Sustainable waste management
2(1)
1.3 Overview of current waste treatment technologies
3(4)
1.4 Sustainable stabilization/solidification
7(4)
1.5 Conclusion and prospects
11(1)
References
11(4)
2 Green and low-carbon cement for stabilization/solidification
15(16)
Yassine El Khessaimi
Yassine Taha
Abdellatif Elghali
Safaa Mabroum
Rachid Hakkou
Mostafa Benzaazoua
2.1 Introduction
15(1)
2.2 Ordinary Portland cement stabilization/solidification
16(1)
2.3 Supplementary cementitious materials blended ordinary Portland cement-based stabilization/solidification
17(3)
2.4 Alkali-activated cement-based stabilization/solidification
20(1)
2.5 Magnesium-rich cement-based stabilization/solidification
21(1)
2.6 Special cement-based stabilization/solidification
22(2)
2.7 Carbon dioxide reduction potential of low carbon cements
24(1)
2.8 Summary
24(1)
2.9 Future trends
25(1)
List of abbreviations
25(1)
References
25(6)
3 Natural or engineered clays for stabilization/solidification
31(18)
Yunhui Zhang
Fei Wang
Quanzhi Tian
Zhengtao Shen
3.1 Introduction
31(1)
3.2 Natural clays for stabilization/solidification
32(3)
3.3 Engineered clays for stabilization/solidification
35(8)
3.4 Summary
43(1)
3.5 Future trends
43(1)
References
43(6)
4 Biocementation technology for stabilization/solidification of organic peat
49(16)
Sivakumar Gowthaman
Meiqi Chen
Kazunori Nakashima
Shin Komatsu
Satoru Kawasaki
4.1 Introduction
49(2)
4.2 Biocementation technique
51(1)
4.3 Materials and methods
52(3)
4.4 Results and discussion
55(6)
4.5 Challenges and future prospects
61(1)
4.6 Conclusions
61(1)
References
62(3)
5 Biochar for green and sustainable stabilization/solidification
65(10)
Liang Chen
Lei Wang
Xinni Xiong
Daniel C.W. Tsang
5.1 Introduction
65(1)
5.2 Biochar from different biomass for stabilization/solidification
66(2)
5.3 Chemically modified biochar for stabilization/solidification
68(1)
5.4 Biochar-enhanced cement for stabilization/solidification
69(1)
5.5 Limitations and future trends
70(1)
5.6 Summary
71(1)
References
71(4)
6 Stabilization/solidification of contaminated soils: a case study
75(18)
Yan-Jun Du
Ning-Jun Jiang
6.1 Introduction
75(2)
6.2 Mechanical, physicochemical, and microstructural characteristics
77(6)
6.3 Leaching behavior of ordinary Portland cement-stabilized Pb-contaminated clay under acid rain attack
83(7)
6.4 Closure comments
90(1)
References
90(3)
7 Stabilization/solidification of sediments: challenges and novelties
93(20)
Abdellatif Elghali
Mostafa Benzaazoua
Julien Couvidat
Yassine Taha
Louise Darricau
Carmen Mihaela Neculita
Vincent Chatain
7.1 Introduction
93(1)
7.2 Sediments genesis and their main characteristics
94(4)
7.3 Stabilization/solidification techniques
98(6)
7.4 Main tests used for assessment of the effectiveness of S/S technology
104(1)
7.5 Integration of contaminated sediments in circular economy
105(1)
7.6 Durability of stabilized sediments
106(1)
References
107(6)
8 Stabilization/solidification of contaminated marine sediment
113(16)
Sabino De Gisi
Claudia Labianca
Francesco Todaro
Michele Notarnicola
8.1 Introduction
113(1)
8.2 Methods for marine sediment characterization
114(1)
8.3 Marine sediment characterization
115(1)
8.4 Main binders and additives used in S/S
115(3)
8.5 S/S for inorganic sediment contamination
118(1)
8.6 S/S for mixed organic and inorganic sediment contamination
118(1)
8.7 Discussion
118(6)
8.8 Summary
124(1)
8.9 Future trends
124(1)
References
124(5)
9 Physicochemical properties of municipal solid waste incineration fly ash
129(12)
Lizhi Tong
Qing Hu
9.1 Introduction
129(1)
9.2 Types of incineration fly ash
130(1)
9.3 Physicochemical properties of incineration fly ash
131(2)
9.4 Metal leaching behavior of incineration fly ash
133(4)
9.5 Summary
137(1)
9.6 Future trends
137(1)
Abbreviations
138(1)
References
138(3)
10 Stabilization/solidification of municipal solid waste incineration fly ash
141(16)
Pengfei Ren
Kim Hung Mo
Tung-Cbai Ling
10.1 Introduction
141(1)
10.2 Characteristics of MSWI fly ash
142(1)
10.3 S/S methods and technologies
143(10)
10.4 Conclusions and perspectives
153(1)
References
153(4)
11 Stabilization/solidification of municipal solid waste incineration bottom ash
157(18)
Pei Tang
11.1 Introduction
157(1)
11.2 Incineration bottom ash characteristics
157(2)
11.3 Immobilization of incineration bottom ash and the associated applications
159(11)
11.4 Summary
170(1)
11.5 Future trend
171(1)
References
171(4)
12 Stabilization/solidification of acid mine drainage treatment sludge
175(26)
Marouen Jouini
Mostafa Benzaazoua
Carmen Mihaela Neculita
12.1 Introduction
175(1)
12.2 Stability of acid mine drainage sludge
175(2)
12.3 Management of acid mine drainage sludge
177(1)
12.4 Low-carbon stabilization/solidification of acid mine drainage active treatment sludge
178(2)
12.5 Low-carbon stabilization/solidification of acid mine drainage passive treatment residues
180(14)
12.6 Summary
194(1)
12.7 Future trends
195(1)
Acknowledgments
195(1)
Abbreviations
195(1)
References
196(5)
13 Stabilization/solidification of mining waste via biocementation
201(10)
Wilson Mwandira
Kazunori Nakashima
Satoru Kawasaki
13.1 Introduction
201(1)
13.2 Biochemistry and mechanism of mine waste solidification/stabilization by microbially induced carbonate precipitation
201(2)
13.3 Factors to consider for bioremediation of mine waste based on microbially induced carbonate precipitation
203(2)
13.4 Mine waste solidification/stabilization by microbially induced carbonate precipitation
205(2)
13.5 Benefits and challenges
207(1)
13.6 Future trends
207(1)
References
208(3)
14 Sustainable utilization of incinerated sewage sludge ash
211(16)
Yifan Zhou
Jiangshan Li
Chi-Sun Poon
14.1 Introduction
211(1)
14.2 Characteristics of incinerated sewage sludge ash
211(5)
14.3 Incinerated sewage sludge ash blended binder by lime activation
216(1)
14.4 Adsorption of pollutants by incinerated sewage sludge ash
217(1)
14.5 Recycling incinerated sewage sludge ash into construction materials
218(2)
14.6 Stabilization/solidification of soil by incinerated sewage sludge ash
220(2)
14.7 Summary
222(1)
14.8 Future trends
222(1)
Abbreviations
222(1)
References
223(4)
15 Sustainable stabilization/solidification of mine wastes
227(16)
Xin Wang
Linling Wang
Yutong Qi
Ling Chen
15.1 Introduction
227(1)
15.2 Environmental impacts of mine wastes
227(1)
15.3 Alkaline material-based solidification/stabilization
228(2)
15.4 Metal oxyhydroxide-based solidification/stabilization
230(2)
15.5 Phosphate-based solidification/stabilization
232(1)
15.6 Silica-based solidification/stabilization
233(2)
15.7 Organic material-based solidification/stabilization
235(2)
15.8 Cement-based solidification/stabilization
237(1)
15.9 Summary
238(1)
15.10 Future trends
239(1)
References
239(4)
16 Stabilization/solidification of metallurgical solid wastes
243(16)
Xin Wang
Linling Wang
Jing Chen
16.1 Introduction
243(1)
16.2 Solid wastes generated from metallurgy industry
244(1)
16.3 Stabilization/solidification of chromite ore processing residue
244(3)
16.4 Stabilization/solidification of arsenic-alkali residue from antimony smelting
247(2)
16.5 Stabilization/solidification of arsenic-bearing sludge
249(4)
16.6 Stabilization/solidification of As-rich flue dust
253(1)
16.7 Summary
254(1)
16.8 Future trends
254(1)
References
255(4)
17 Rotary kilns coprocessing hazardous wastes
259(32)
Yike Zhang
Nannan Zhao
Zengyi Ma
Pucheng Zhong
Zhuoting Fang
Yuandong Qian
Jianhua Van
17.1 Introduction
259(3)
17.2 Multistage pyrolysis incineration technology for hazardous wastes in rotary kiln
262(11)
17.3 Purification of flue gas during hazardous wastes incineration
273(8)
17.4 Case study of 100 t/d hazardous waste incineration and disposal project
281(2)
17.5 Conclusions and future perspective
283(2)
References
285(6)
18 Utilization of recycled powder from construction and demolition waste
291(12)
Jianzhuang Xiao
Zhiming Ma
18.1 Introduction
291(1)
18.2 Preparing technology and properties of recycled powder
292(1)
18.3 Early-age properties of concrete with recycled powder
293(2)
18.4 Mechanical properties of concrete with recycled powder
295(2)
18.5 Economic and environmental benefits
297(1)
18.6 Conclusion
297(1)
18.7 Perspectives
298(1)
References
298(5)
19 Sustainable utilization of drinking water sludge
303(18)
Yan Zhuge
Yue Liu
Phuong Ngoc Pham
19.1 Introduction
303(1)
19.2 Physical and chemical characterizations of raw and treated alum sludge
304(3)
19.3 Application of alum sludge as supplementary cementitious materials
307(4)
19.4 Application of alum sludge as sand replacement
311(1)
19.5 Durability and leaching behavior of alum sludge
312(4)
19.6 Improving properties of concrete incorporating alum sludge
316(2)
19.7 Summary and further considerations
318(1)
References
318(3)
20 Sustainable utilization of slags
321(22)
Fei Jin
20.1 Introduction
321(1)
20.2 Characteristics of different slags
321(7)
20.3 Utilization of slags in civil and environmental engineering
328(6)
20.4 Summary and future trends
334(1)
References
334(9)
21 Utilization of recycled aggregate in geopolymer concrete development: A case study
343(12)
Zhuo Tang
Wengui Li
21.1 Introduction
343(1)
21.2 Experimental program
344(3)
21.3 Results and discussions
347(5)
21.4 Conclusions
352(1)
Acknowledgment
353(1)
References
353(2)
22 Utilization of coal fly ash and bottom ash in brick and block products
355(18)
Kim Hung Mo
Tung-Chai Ling
22.1 Introduction
355(1)
22.2 Unfired brick
355(5)
22.3 Fired brick
360(3)
22.4 Block
363(4)
22.5 Fly ash geopolymer block/brick
367(1)
22.6 Discussion and conclusion
368(1)
22.7 Recommendations
369(1)
Acknowledgment
369(1)
References
369(4)
23 Beneficial use of coal fly ash in geotechnical infrastructure
373(22)
Masrur Mahedi
Bora Cetin
23.1 Introduction
373(1)
23.2 Material overview
374(2)
23.3 Stabilization and solidification techniques
376(15)
23.4 Limitations and future needs
391(1)
23.5 Conclusions
391(1)
References
392(2)
Further reading
394(1)
24 Utilization of contaminated biowaste
395(12)
Weiting Xu
Jizhi Huang
24.1 Introduction
395(1)
24.2 Traditional management methods of solid biowaste
395(1)
24.3 Potential of biowaste for energy storage
396(1)
24.4 Utilization of agricultural biowaste as low-carbon construction materials
397(1)
24.5 Case study: biomass silica extraction from agricultural biowaste rice husk and its application as concrete products
398(4)
24.6 Conclusions and prospects
402(1)
References
402(5)
25 Cement-based stabilization/solidification of radioactive waste
407(26)
Sarah Kearney
Antonia S. Yorkshire
Daniel A. Geddes
Theodore Hanein
Shaun Nelson
John L. Provis
Brant Walkley
25.1 Introduction
407(1)
25.2 Portland cement
408(10)
25.3 Calcium sulfoaluminate based cements
418(2)
25.4 Magnesia-based cements
420(1)
25.5 Alkali-activated materials and geopolymers
420(3)
25.6 Industrial perspectives and future directions
423(1)
References
424(9)
26 Glass-based stabilization/solidification of radioactive waste
433(16)
Shengheng Tan
26.1 Introduction
433(1)
26.2 Glass wasteforms for radioactive waste solidification
433(9)
26.3 Melting technologies
442(2)
26.4 Conclusion
444(1)
26.5 Suggestions for future development
445(1)
References
445(4)
27 Ceramic-based stabilization/solidification of radioactive waste
449(20)
Shi-Kuan Sun
Daniel J. Bailey
Laura J. Gardner
Neil C. Hyatt
27.1 Introduction
449(1)
27.2 Pyrochlore
450(2)
27.3 Zirconolite
452(4)
27.4 Perovskite
456(2)
27.5 Brannerite
458(2)
27.6 Zircon
460(2)
27.7 Summary
462(1)
27.8 Future trends
463(1)
References
464(5)
28 Stabilization/solidification of radioactive waste in geochemical aspects
469(14)
Binglin Guo
Keiko Sasaki
28.1 Introduction
469(3)
28.2 Geochemical applications in radioactive waste management
472(7)
28.3 Summary challenges and future research
479(1)
Acknowledgments
480(1)
References
480(3)
29 Advances of lab-scale analytical methods for solidification/stabilization technologies
483(14)
Jinqin Yang
Niklas Hedin
29.1 Introduction
483(1)
29.2 Leaching toxicity test
484(1)
29.3 Porosity and surface property analysis
485(1)
29.4 Solid phase identification
486(2)
29.5 Chemical structure characterization
488(1)
29.6 Elemental and compositional determination
489(1)
29.7 Summary
490(1)
29.8 Future trends
491(1)
Abbreviations
492(1)
References
492(5)
30 Advanced characterizations for stabilization/solidification technologies
497(20)
Bin Ma
Jinqin Yang
Alejandro Fernandez-Martinez
Alexander Lyubartsev
Laurent Charlet
30.1 Introduction
497(1)
30.2 X-ray absorption spectroscopy characterization
498(4)
30.3 Pair distribution function analysis
502(5)
30.4 Small-angle X-ray/small-angle neutron scattering
507(2)
30.5 Molecular computations
509(3)
30.6 Summary
512(1)
30.7 Future trends
513(1)
References
513(4)
31 Evaluating comprehensive carbon emissions of solidification/stabilization technologies: a case study
517(14)
Md. Uzzal Hossain
Lei Wang
Daniel C.W. Tsang
S. Thomas Ng
Chi-Sun Poon
31.1 Introduction
517(2)
31.2 Materials, strategies, and methodology for evaluation
519(3)
31.3 Evaluation of carbon emissions for different strategies of the studied waste materials
522(5)
31.4 Summary and future outlook
527(1)
Acknowledgment
528(1)
Abbreviations
528(1)
References
528(3)
32 Life cycle assessment of different alternative materials used for stabilization/solidification
531(14)
Shaoqin Ruan
32.1 Introduction
531(1)
32.2 Life cycle assessment analysis of ordinary Portland cement and alternative materials
532(8)
32.3 Summary
540(1)
32.4 Future trend
540(1)
References
541(4)
33 Sustainable waste management and circular economy
545(10)
Bauyrzhan Biakhmetov
Siming You
Abay Dostiyarov
33.1 Introduction
545(1)
33.2 Circular economy and sustainable waste management
546(1)
33.3 Stabilization/solidification of hazardous waste
547(4)
33.4 Recommendation
551(1)
33.5 Conclusion
551(1)
References
552(3)
34 Future research directions for sustainable remediation
555(10)
Lei Wang
Yuying Zhang
Daniel C.W. Tsang
34.1 Introduction
555(1)
34.2 New technologies for remediation
555(1)
34.3 Novel materials for remediation
556(1)
34.4 Advanced characterization for remediation
557(1)
34.5 Big data for sustainable remediation
558(1)
34.6 Environmental impact assessment
559(1)
34.7 Cost---benefit analysis and life cycle assessment
559(1)
34.8 Conclusion
560(1)
References
561(4)
Index 565
Daniel C.W. Tsang is a Professor in the Department of Civil and Environmental Engineering at the Hong Kong University of Science and Technology and Pao Yue-Kong Chair Professor at the State Key Laboratory of Clean Energy Utilization of Zhejiang University in China. He was a Professor and MSc Programme Leader at the Hong Kong Polytechnic University, a Visiting Professor at the University of Queensland in Australia and Chulalongkorn University in Thailand, a Visiting Scholar at Stanford University in the US, an IMETE Scholar at Ghent University in Belgium, and a postdoctoral fellow at Imperial College London in the UK. With over 20 years of R&D experience, he has published more than 600 articles in top-tier journals and has been recognized among Stanford Universitys Top 2% Scientists and Clarivates Highly Cited Researchers in the fields of Engineering and Environment & Ecology. His team is dedicated to developing green technologies for long-term decarbonization and promoting resource circularity and sustainable development. He serves as the Editor-in-Chief of npj Materials Sustainability (Springer Nature), Chairman of the Hong Kong Waste Management Association (2023-2025), and Chairman of the Waste Management Subcommittee of the Advisory Council on the Environment (2023 & 2024) of the Hong Kong SAR Government. Lei Wang is a professor at Nanjing Institute of Environmental Sciences, Ministry of Ecology and Environment. His primary research areas are regional ecological environment assessment and organic industry development. He has currently published over 30 articles in journals including Natrue Geoscience, Geoderma, Agriculture, Ecosystems & Environment, and others. Additionally, he currently holds the position of Deputy Director of the Soil Ecology Committee of the Chinese Soil Science Society, and he is also a member of the Carbon Peak and Carbon Neutrality Committee of the Chinese Society for Environmental Sciences.