ChapterPDF Available

Microbiological Degradation of Organic Pollutants from Industrial Wastewater

Authors:
Nanobiotechnology for
Green Environment
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Nanobiotechnology for
Green Environment
Edited by
Amit Kumar and Chhotu Ram
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First edition published 2021
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Library of Congress Cataloging‑in‑Publication Data
Names: Kumar, Amit (Assistant professor in biotechnology), editor. | Ram,
Chhotu, editor.
Title: Nanobiotechnology for green environment / edited by Amit Kumar and
Chhotu Ram.
Description: First edition. | Boca Raton : CRC Press, 2021. | Includes
bibliographical references and index. | Summary: “The book examines
environmental issues and their solutions with advancements in
biotechnology and nanotechnology. This book will focus on environmental
friendly waste management, wastewater treatment and utilization of
wastes for energy”-- Provided by publisher.
Identiers: LCCN 2020041193 (print) | LCCN 2020041194 (ebook) | ISBN
9780367460686 (hardback) | ISBN 9780367461362 (ebook)
Subjects: MESH: Waste Management--methods | Nanotechnology | Green
Chemistry Technology | Biodegradation, Environmental | Nanostructures
Classication: LCC TD793 (print) | LCC TD793 (ebook) | NLM WA 778 | DDC
363.72/8--dc23
LC record available at https://lccn.loc.gov/2020041193
LC ebook record available at https://lccn.loc.gov/2020041194
ISBN: 978-0-367-46068-6 (hbk)
ISBN: 978-0-367-46136-2 (ebk)
Typeset in Times LT Std
by KnowledgeWorks Global Ltd.
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v
Contents
Editors ......................................................................................................................vii
Contributors .............................................................................................................. ix
Chapter 1 Global Environmental Issues and the Role of
Nanobiotechnology for the Sustainable Environment ..........................1
Chhotu Ram, Amit Kumar and Yilkal Bezie
Chapter 2 Municipal Solid Waste Management: Recent Practices ..................... 37
Chhotu Ram and Amit Kumar
Chapter 3 Recent Advances in the Structural Modications of
Nanoparticles to Enhance Photocatalytic Activity ............................ 67
Anoop Kumar Verma, Stef Talwar, Navneet Kaur and Vikas
Kumar Sangal
Chapter 4 Microbiological Degradation of Organic Pollutants from
Industrial Wastewater ......................................................................... 83
Ayantika Banerjee, Moharana Choudhury, Arghya
Chakravorty, Vimala Raghavan, Bhabatush Biswas,
Siva Sankar Sana, Rehab A. Rayan, Nalluri Abhishek,
Neeta L. Lala and Seeram Ramakrishna
Chapter 5 Lignocellulosic Biomass Wastes to Bioenergy: Role of
Microbial Enzymes for Second Generation Biofuels ....................... 115
Amit Kumar, Diwakar Aggarwal, Amit Kumar Bharti and
Chhotu Ram
Chapter 6 Microbiological Removal of Heavy Metals from the
Environment: An Eco-Friendly Approach ....................................... 139
Dushyant Kumar, Sandeep K. Malyan, Amrish Kumar and
Jagdeesh Kumar
Chapter 7 Recent Trends in Solar Photocatalytic Degradation of
Organic Pollutants using TiO2 Nanomaterials ................................. 165
Chhotu Ram, Bushra Zaman, Rajesh Kumar Jena and
Amit Kumar
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vi Contents
Chapter 8 Recent Advancement in Phytoremediation for Removal
of Toxic Compounds ........................................................................ 195
Yilkal Bezie, Mengistie Taye and Amit Kumar
Chapter 9 Utilization of Nanoparticle-Loaded Adsorbable Materials
for Leachate Treatment ....................................................................229
Kulbir Singh
Chapter 10 Application of Fe-TiO2 Nanoparticle Composite
Encompassing the Dual Effect ......................................................... 249
Stef Talwar, Anoop Kumar Verma and Vikas Kumar Sangal
Index ...................................................................................................................... 263
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vii
Editors
Dr. Amit Kumar currently works as an Assistant
Professor at the Department of Biotechnology, College
of Natural and Computational Sciences, Debre Markos
University, Ethiopia. He completed his Doctorate in
Biotechnology from the Indian Institute of Technology
Roorkee, India. He is extensively involved in research on
industrial enzymes, pulp and paper biotechnology, bio-
fuels production, and environmental biotechnology. He
has published several research and review articles in vari-
ous reputed international journals. He has also co-edited
three books and published several book chapters. He has
guided several graduate and post-graduate projects.
Dr. Chhotu Ram is an Assistant Professor at the Department
of Chemical Engineering at Adigrat University, Ethiopia.
Dr. Ram did his M. Tech. in Environmental Technology
from Thapar University Patiala, India. Further, he
earned his Doctorate in Environmental Engineering
from Indian Institute of Technology Roorkee, India. He
has published several research papers in reputed journals
worldwide and research contribution to many interna-
tional conferences. He has research interests in the area of
water quality and wastewater engineering and materials
performance. Presently, he deals with various R&D proj-
ects in the elds such as wastewater treatment, solid waste management, and water
quality for a sustainable environment.
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ix
Contributors
Nalluri Abhishek
Center for Fuel Cell Innovation,
School of Materials Science
and Engineering
Huazhong University of Science
and Technology
Hubei, China
Diwakar Aggarwal
Department of Biotechnology
Maharishi Markandeshwar (Deemed
to be University)
Mullana, Ambala, India
Ayantika Banerjee
Korea Atomic Energy Research
Institute
University of Science and Technology
Daejeon, South Korea
Yilkal Bezie
Department of Biology, College
of Sciences
Bahir Dar University
Bahir Dar, Ethiopia
Amit Kumar Bharti
Department of Paper Technology,
Indian Institute of Technology
Roorkee, Saharanpur Campus
Saharanpur, India
Bhabatush Biswas
Department of Bio Engineering,
National Institute of Technology
Agartala, India
Arghya Chakravorty
School of Bio Sciences and Technology,
Vellore Institute of Technology
Vellore, India
Moharana Choudhury
Voice of Environment (VoE)
Guwahati, India
Rajesh Kumar Jena
Department of Science and Humanities,
Darbhanga College of Engineering
Aryabhatta Knowledge University
Madhpur, India
Navneet Kaur
School of Energy and Environment,
Thapar Institute of Engineering
and Technology
Patiala, India
Amit Kumar
Department of Biotechnology, College
of Natural and Computational Sciences
Debre Markos University
Debre Markos, Ethiopia
Amrish Kumar
Indian Institute of Technology Roorkee,
Saharanpur Campus
Saharanpur, India
Dushyant Kumar
Center for Rural Development and
Technology, Indian Institute of
Technology, Delhi
New Delhi, India
Jagdeesh Kumar
Department of Hydrology, Indian
Institute of Technology Roorkee
Roorkee, India
Neeta L. Lala
Centre for Nanobers and
Nanotechnology, Department
of Mechanical Engineering
National University of Singapore
Singapore
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xContributors
Sandeep K. Malyan
National Institute of Hydrology
Roorkee, India
Vimala Raghavan
Centre for Nanotechnology Research,
Vellore Institute of Technology
Vellore, India
Chhotu Ram
Department of Chemical Engineering,
College of Engineering and
Technolo g y
Adigrat University
Adigrat, Ethiopia
Seeram Ramakrishna
Centre for Nanobers and
Nanotechnology, Department
of Mechanical Engineering
National University of Singapore
Singapore
Rehab A. Rayan
Department of Epidemiology, High
Institute of Public Health
Alexandria University
Alexandria, Egypt
Siva Sankar Sana
School of Chemical Engineering
and Technology
North University of China
Taiyuan, China
Vikas Kumar Sangal
Department of Chemical Engineering,
Malaviya National Institute
of Technology
Jaipur, India
Kulbir Singh
Department of Environmental Science
and Engineering
Guru Jambheshwar University of
Science and Technology
Hisar, India
Stef Talwar
Department of Chemical Engineering,
Thapar Institute of Engineering
and Technology
Patiala, India
Mengistie Taye
College of Agriculture and
Environmental Sciences
Bahir Dar University
Bahir Dar, Ethiopia
Anoop Kumar Verma
School of Energy and Environment,
Thapar Institute of Engineering
and Technology
Patiala, India
Bushra Zaman
College of Engineering
Utah State University
Logan, Utah
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... WWTPs are effective both in the protection of ecological life and in the sustainability of water resources (Cipolletta et al., 2021). Water availability and usability are under pressure from pollutants (Banerjee et al., 2021). Eutrophication of surface waters and coastal areas is expected to increase almost everywhere by 2030 (Friedland et al., 2021). ...
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Millions of cubic meters of water are polluted every day as a result of industrialization and other human activities. The contribution of the Wastewater Treatment Plant, which was built to prevent this pollution, to the water cycle was examined through water footprint indicators in this study. In the study, the wastewater treatment plant was evaluated for treated and non-treated cases, and the contribution of the plant to the grey water footprint was determined from the difference between the two cases. Wastewater Treatment Plants not only save the volume of water in the receiving environment but also protect the water quality. This study revealed that as a result of the treatment of industrial and domestic mixed wastewater with a pollution load of 396.297 mg biochemical oxygen demand L-1, 924.245 mg chemical oxygen demand L-1, 26.139 mg total nitrogen L-1 2.76 mg total phosphorus L-1, and 426.861 mg total suspended solids L-1, in the Wastewater Treatment Plant, it recovered an average of 14,375,243 m3 of freshwater per month in the water cycle by protecting the Class III (medium) water quality of receiving environment. The calculations made in the study are based on the Water Footprint Assessment Manual. The volume of recovered water is 19 ± 14 times larger than the inlet flow of wastewater treatment. On the other hand, the total amount of freshwater consumed directly and indirectly in the wastewater treatment is 3696 m3 month-1. ⁓97.093% of the indirect blue water footprint is used for the generation of electrical energy. This study reveals all aspects of the Wastewater Treatment Plants contribution to the sustainable environment with the natural water cycle and the protection of the receiving water quality.
... Further, it was stated that in 2017, out of 18.6% of total treatment capacity, merely 13.5% of sewage was treated (CPCB, 2013 andCPCB, 2017c). Industries are based on the use of water for many operations, which later on lead to the release of polluted water from the industries across the world (Owa et al., 2013;Kamali and Khodaparast, 2015), and the majority of them end up as industrial wastewater (Ranade and Bhandari, 2014;Banerjee et al., 2021). ...
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Tagetes erecta L. var Pusa basanti was used as the test plant to estimate the irrigation-potential of paint industry wastewater taken from Bergers Paint Private Limited situated at State Industrial Development Corporation, Samba, Jammu and Kashmir (SIDCO). The dilutions were prepared at T 0 , T 20 , T 40 , T 60 , T 80 , and T 100 (concentrations ranging from 20% to 100%). The aim was to see the performance of germination, growth, yield, and pigment content at various concentrations. The parameters were found out to be maximum at the lowest concentration (T 20) with maximum dilution of 80%. Germination percentage was estimated to be maximum (41.6%). The positive parameters gave the highest values at 20% concentration (T 20), and values then declined giving the lowest value at 100% (T 100), and vice versa were obtained for the negative parameters. Growth parameters included length of root, shoot, root-shoot ratio, number of leaves, plant height, dry and fresh weight. These parametersindicated the peak values at lower concentrations and vice-versa was obtained at highest concentration. The economic output increased at initial levels upto 60% and then declined. Stover yield though increased at T 20 but further at higher concentrations, it declined, and the harvest index was highest at T 100. The study revealed that lower wastewater concentration caused a stimulatory effect in chlorophyll a and b, whereas total chlorophyll was significant at higher concentrations. Total chlorophyll increased up to 60% concentration but decreased at a higher concentration as the number of days after sowing (DAS) increased. Correlation and ANOVA were performed, which clearly described that the various parameters showed a declining trend with the rising wastewater concentration.
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The search for “green materials” is fueled by a desire to protect the environment. Wastewater treatment and remediation is a highly discussed f ield because ofadvancementsin biorefineries and bioprocessing technology. Their building blocks may now bederived from a variety of green technology approaches. Novel biological applications with significant added value and improved characteristics and functions have been created for use in a variety of industries. The true benefits and concerns of such innovative biobased solutions, on the other hand, have heightened scientific and public awareness.
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Zinc biosorption characteristic of locally isolated Aspergillus flavus NA9 were examined as a function of pH, temperature, pulp density, contact time and initial metal ion concentration. The maximum zinc uptake was found to be 287.8 ± 11.1 mg g(-1) with initial metal concentration 600 mg L(-1) at initial pH 5.0 and temperature 30 °C. The equilibrium data gave good fits to Freundlich and Florry models with correlation coefficient value of 0.98. The contribution of the functional groups and lipids to zinc biosorption as identified by chemical pretreatment was in the order: carboxylic acids > hydroxyl > amines > lipids. The mechanism of biosorption was also studied using Fourier transform infrared (FTIR) spectrometry, scanning electron microscopy (SEM) and energy dispersive X-ray analysis (EDX). The biosorbent was regenerated using 0.01 M HCl with 83.3% elution efficiency and was reused for five sorption-desorption cycles with 23.5% loss in biosorption capacity. The order of co-cations showing increased inhibitions of zinc uptake by A. flavus NA9 was Pb > Cu > Mn > Ni. The biosorption assays conducted with actual paint industry effluents revealed efficiency of 88.7% for Zn (II) removal by candidate biomass.