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Biotechnology for Zero Waste. Emerging Waste Management Techniques. Edition No. 1

  • Book

  • 624 Pages
  • February 2022
  • John Wiley and Sons Ltd
  • ID: 5836499
Biotechnology for Zero Waste

The use of biotechnology to minimize waste and maximize resource valorization

In Biotechnology for Zero Waste: Emerging Waste Management Techniques, accomplished environmental researchers Drs. Chaudhery Mustansar Hussain and Ravi Kumar Kadeppagari deliver a robust exploration of the role of biotechnology in reducing waste and creating a zero-waste environment. The editors provide resources covering perspectives in waste management like anaerobic co-digestion, integrated biosystems, immobilized enzymes, zero waste biorefineries, microbial fuel cell technology, membrane bioreactors, nano biomaterials, and more.

Ideal for sustainability professionals, this book comprehensively sums up the state-of-the-art biotechnologies powering the latest advances in zero-waste strategies. The renowned contributors address topics like bioconversion and biotransformation and detail the concept of the circular economy. Biotechnology for Zero Waste effectively guides readers on the path to creating sustainable products from waste. The book also includes: - A thorough introduction to modern perspectives on zero waste drives, including anaerobic co-digestion as a smart approach for enhancing biogas production - Comprehensive explorations of bioremediation for zero waste, biological degradation systems, and bioleaching and biosorption of waste - Practical discussions of bioreactors for zero waste and waste2energy with biotechnology - An in-depth examination of emerging technologies, including nanobiotechnology for zero waste and the economics and commercialization of zero waste biotechnologies

Perfect for process engineers, natural products, environmental, soil, and inorganic chemists, Biotechnology for Zero Waste: Emerging Waste Management Techniques will also earn a place in the libraries of food technologists, biotechnologists, agricultural scientists, and microbiologists.

Table of Contents

Foreword xxvii

Preface xxix

Part I Modern Perspective of Zero Waste Drives 1

1 Anaerobic Co-digestion as a Smart Approach for Enhanced Biogas Production and Simultaneous Treatment of Different Wastes 3
S. Bharathi and B. J. Yogesh

1.1 Introduction 3

1.2 Anaerobic Co-digestion (AcD) 5

1.3 Digester Designs 13

1.4 Digestate/Spent Slurry 14

1.5 Conclusion 15

References 15

2 Integrated Approaches for the Production of Biodegradable Plastics and Bioenergy from Waste 19
Chandan Kumar Sahu, Mukta Hugar, and Ravi Kumar Kadeppagari

2.1 Introduction 19

2.2 Food Waste for the Production of Biodegradable Plastics and Biogas 19

2.3 Dairy and Milk Waste for the Production of Biodegradable Plastics and Biogas 22

2.4 Sugar and Starch Waste for the Production of Biodegradable Plastics and Biogas 23

2.5 Wastewater for the Production of Biodegradable Plastics and Bioenergy 25

2.6 Integrated Approaches for the Production of Biodegradable Plastics and Bioenergy from Waste 27

2.7 Conclusions 28

References 28

3 Immobilized Enzymes for Bioconversion of Waste to Wealth 33
Angitha Balan, Vaisiri V. Murthy, and Ravi Kumar Kadeppagari

3.1 Introduction 33

3.2 Enzymes as Biocatalysts 34

3.3 Immobilization of Enzymes 35

3.4 Bioconversion of Waste to Useful Products by Immobilized Enzymes 38

3.5 Applications of Nanotechnology for the Immobilization of Enzymes and Bioconversion 41

3.6 Challenges and Opportunities 43

Acknowledgments 43

References 44

Part II Bioremediation for Zero Waste 47

4 Bioremediation of Toxic Dyes for Zero Waste 49
Venkata Krishna Bayineni

4.1 Introduction 49

4.2 Background to Dye(s) 50

4.3 The Toxicity of Dye(s) 50

4.4 Bioremediation Methods 51

4.5 Conclusion 63

References 63

5 Bioremediation of Heavy Metals 67
Tanmoy Paul and Nimai C. Saha

5.1 Introduction 67

5.2 Ubiquitous Heavy Metal Contamination - The Global Scenario 68

5.3 Health Hazards from Heavy Metal Pollution 69

5.4 Decontaminating Heavy Metals - The Conventional Strategies 71

5.5 Bioremediation - The Emerging Sustainable Strategy 72

5.6 Conclusion 78

References 79

6 Bioremediation of Pesticides Containing Soil and Water 83
Veena S. More, Allwin Ebinesar Jacob Samuel Sehar, Anagha P. Sheshadri, Sangeetha Rajanna, Anantharaju Kurupalya Shivram, Aneesa Fasim, Archana Rao, Prakruthi Acharya, Sikandar Mulla, and Sunil S. More

6.1 Introduction 83

6.2 Pesticide Biomagnification and Consequences 84

6.3 Ill Effects of Biomagnification 84

6.4 Bioremediation 85

6.5 Methods Used in Bioremediation Process 86

6.6 Bioremediation Process Using Biological Mediators 88

6.7 Factors Affecting Bioremediation 90

6.8 Future Perspectives 91

References 91

7 Bioremediation of Plastics and Polythene in Marine Water 95
Tarun Gangar and Sanjukta Patra

7.1 Introduction 95

7.2 Plastic Pollution: A Threat to the Marine Ecosystem 96

7.3 Micro- and Nanoplastics 96

7.4 Microbes Involved in the Degradation of Plastic and Related Polymers 99

7.5 Enzymes Responsible for Biodegradation 101

7.6 Mechanism of Biodegradation 102

7.7 Biotechnology in Plastic Bioremediation 104

7.8 Future Perspectives: Development of More Refined Bioremediation Technologies as a Step Toward Zero Waste Strategy 106

Acknowledgment 106

Conflict of Interest 107

References 107

Part III Biological Degradation Systems 111

8 Microbes and their Consortia as Essential Additives for the Composting of Solid Waste 113
Mansi Rastogi and Sheetal Barapatre

8.1 Introduction 113

8.2 Classification of Solid Waste 113

8.3 Role of Microbes in Composting 114

8.4 Effect of Microbial Consortia on Solid Waste Composting 116

8.5 Benefits of Microbe-Amended Compost 119

References 119

9 Biodegradation of Plastics by Microorganisms 123
Md. Anisur R. Mazumder, Md. Fahad Jubayer, and Thottiam V. Ranganathan

9.1 Introduction 123

9.2 Definition and Classification of Plastics 124

9.3 Biodegradation of Plastics 128

9.4 Current Trends and Future Prospects 136

List of Abbreviations 137

References 138

10 Enzyme Technology for the Degradation of Lignocellulosic Waste 143
Swarrna Haldar and Soumitra Banerjee

10.1 Introduction 143

10.2 Enzymes Required for the Degradation of Lignocellulosic Waste 144

10.3 Utilizing Enzymes for the Degradation of Lignocellulosic Waste 150

10.4 Conclusion 150

References 150

11 Usage of Microalgae: A Sustainable Approach to Wastewater Treatment 155
Kumudini B. Satyan, Michael V. L. Chhandama, and Dhanya V. Ranjit

11.1 Introduction 155

11.2 Microalgae for Wastewater Treatment 158

11.3 Cultivation of Microalgae in Wastewater 162

11.4 Algae as a Source of Bioenergy 164

11.5 Conclusion 166

References 166

Part IV Bioleaching and Biosorption of Waste: Approaches and Utilization 171

12 Microbes and Agri-Food Waste as Novel Sources of Biosorbents 173
Simranjeet Singh, Praveen C. Ramamurthy, Vijay Kumar, Dhriti Kapoor, Vaishali Dhaka, and Joginder Singh

12.1 Introduction 173

12.2 Conventional Methods for Agri-Food Waste Treatment 175

12.3 Application of the Biosorption Processes 176

12.4 Use of Genetically Engineered Microorganisms and Agri-Food Waste 178

12.5 Biosorption Potential of Microbes and Agri-Food Waste 179

12.6 Modification, Parameter Optimization, and Recovery 180

12.7 Immobilization of Biosorbent 182

12.8 Conclusions 183

References 185

13 Biosorption of Heavy Metals and Metal-Complexed Dyes Under the Influence of Various Physicochemical Parameters 189
Allwin Ebinesar Jacob Samuel Sehar, Veena S. More, Amrutha Gudibanda Ramesh, and Sunil S. More

13.1 Introduction 189

13.2 Mechanisms Involved in Biosorption of Toxic Heavy Metal Ions and Dyes 191

13.3 Chemistry of Heavy Metals in Water 191

13.4 Chemistry of Metal-Complexed Dyes 192

13.5 Microbial Species Used for the Removal of Metals and Metal-Complexed Dyes 192

13.6 Industrial Application on the Biosorption of Heavy Metals 195

13.7 Biosorption of Reactive Dyes 198

13.8 Metal-Complexed Dyes 199

13.9 Biosorption of Metal-Complexed Dyes 200

13.10 Conclusion 203

References 203

14 Recovery of Precious Metals from Electronic and Other Secondary Solid Waste by Bioleaching Approach 207
Dayanand Peter, Leonard Shruti Arputha Sakayaraj, and Thottiam Vasudevan Ranganathan

14.1 Introduction 207

14.2 What Is Bioleaching? 208

14.3 E-Waste, What Are They? 210

14.4 Role of Microbes in Bioleaching of E-Waste 212

14.5 Application of Bioleaching for Recovery of Individual Metals 214

14.6 Large-Scale Bioleaching of E-Waste 215

14.7 Future Aspects 215

List of Abbreviations 216

References 216

Part V Bioreactors for Zero Waste 219

15 Photobiological Reactors for the Degradation of Harmful Compounds in Wastewaters 221
Naveen B. Kilaru, Nelluri K. Durga Devi, and Kondepati Haritha

15.1 Introduction 221

15.2 Photobiological Agents and Methods Used in PhotoBiological Reactors 222

15.3 Conclusion 238

Acknowledgment 238

References 239

16 Bioreactors for the Production of Industrial Chemicals and Bioenergy Recovery from Waste 241
Gargi Ghoshal

16.1 Introduction 241

16.2 Basic Biohydrogen-Manufacturing Technologies and their Deficiency 244

16.3 Overview of Anaerobic Membrane Bioreactors 246

16.4 Factors Affecting Biohydrogen Production in AnMBRs 248

16.5 Techniques to Improve Biohydrogen Production 252

16.6 Environmental and Economic Assessment of BioHydrogen Production in AnMBRs 253

16.7 Future Perspectives of Biohydrogen Production 253

16.8 Products Based on Solid-State Fermenter 253

16.9 Koji Fermenters for SSF for Production of Different Chemicals 257

16.10 Recent Research on Biofuel Manufacturing in Bioreactors Other than Biohydrogen 258

References 259

Part VI Waste2Energy with Biotechnology: Feasibilities and Challenges 263

17 Utilization of Microbial Potential for Bioethanol Production from Lignocellulosic Waste 265
Manisha Rout, Bithika Sardar, Puneet K. Singh, Ritesh Pattnaik, and Snehasish Mishra

17.1 Introduction 265

17.2 Processing of Lignocellulosic Biomass to Ethanol 268

17.3 Biological Pretreatment 271

17.4 Enzymatic Hydrolysis 276

17.5 Fermentation 277

17.6 Conclusion and Future Prospects 279

References 280

18 Advancements in Bio-hydrogen Production from Waste Biomass 283
Shyamali Sarma and Sankar Chakma

18.1 Introduction 283

18.2 Routes of Production 285

18.3 Biomass as Feedstock for Biohydrogen 286

18.4 Factors Affecting Biohydrogen 288

18.5 Strategies to Enhance Microbial Hydrogen Production 292

18.6 Future Perspectives and Conclusion 297

References 297

19 Reaping of Bio-Energy from Waste Using Microbial Fuel Cell Technology 303
Senthilkumar Kandasamy, Naveenkumar Manickam, and Samraj Sadhappa

19.1 Introduction 303

19.2 Microbial Fuel Cell Components and Process 306

19.3 Application of Microbial Fuel Cell to the Social Relevance 309

19.4 Conclusion and Future Perspectives 311

References 311

20 Application of Sustainable Micro-Algal Species in the Production of Bioenergy for Environmental Sustainability 315
Senthilkumar Kandasamy, Jayabharathi Jayabalan, and Balaji Dhandapani

20.1 Introduction 315

20.2 Cultivation and Processing of Microalgae 317

20.3 Genetic Engineering for the Improvement of Microalgae 326

20.4 Conclusion and Challenges in Commercializing Microalgae 327

References 327

Part VII Emerging Technologies (Nano Biotechnology) for Zero Waste 329

21 Nanomaterials and Biopolymers for the Remediation of Polluted Sites 331
Minchitha K. Umesha, Sadhana Venkatesh, and Swetha Seshagiri

21.1 Introduction 331

21.2 Water Remediation 332

21.3 Soil Remediation 336

References 339

22 Biofunctionalized Nanomaterials for Sensing and Bioremediation of Pollutants 343
Satyam and S. Patra

22.1 Introduction 343

22.2 Synthesis and Surface Modification Strategies for Nanoparticles 345

22.3 Binding Techniques for Biofunctionalization of Nanoparticles 345

22.4 Commonly Functionalized Biomaterials and Their Role in Remediation 348

22.5 Biofunctionalized Nanoparticle-Based Sensors for Environmental Application 354

22.6 Limitation of Biofunctionalized Nanoparticles for Environmental Application 355

22.7 Future Perspective 356

22.8 Conclusion 356

Acknowledgment 357

References 357

23 Biogeneration of Valuable Nanomaterials from Food and Other Wastes 361
Amrutha B. Mahanthesh, Swarrna Haldar, and Soumitra Banerjee

23.1 Introduction 361

23.2 Green Synthesis of Nanomaterials by Using Food and Agricultural Waste 362

23.3 Synthesis of Bionanoparticles from Food and Agricultural Waste 362

23.4 Conclusion 365

Acknowledgments 365

References 365

24 Biosynthesis of Nanoparticles Using Agriculture and Horticulture Waste 369
Vinayaka B. Shet, Keshava Joshi, Lokeshwari Navalgund, and Ujwal Puttur

24.1 Introduction 369

24.2 Agricultural and Horticultural Waste 370

24.3 Biosynthesis of Nanoparticle 370

24.4 Characterization of Biosynthesized Nanoparticles 373

24.5 Applications of Biosynthesized Nanoparticles 375

References 377

25 Nanobiotechnology - A Green Solution 379
Baishakhi De and Tridib K. Goswami

25.1 Introduction 379

25.2 Nanotechnology and Nanobiotechnology - The Green Processes and Technologies 381

25.3 The Versatile Role of Nanotechnology and Nanobiotechnology 385

25.4 Nanotechnologies inWaste Reduction and Management 390

25.5 Conclusion 393

References 393

26 Novel Biotechnological Approaches for Removal of Emerging Contaminants 397
Sangeetha Gandhi Sivasubramaniyan, Senthilkumar Kandasamy, and Naveen kumar Manickam

26.1 Introduction 397

26.2 Classification of Emerging Contaminants 397

26.3 Various Sources of ECs 399

26.4 Need of Removal of ECs 400

26.5 Methods of Treatment of EC 400

26.6 Biotechnological Approaches for the Removal of ECs 401

26.7 Conclusion 406

References 407

Part VIII Economics and Commercialization of Zero Waste Biotechnologies 409

27 Bioconversion of Waste to Wealth as Circular Bioeconomy Approach 411
Dayanand Peter, Jaya Rathinam, and Ranganathan T. Vasudevan

27.1 Introduction 411

27.2 Biovalorization of Organic Waste 413

27.3 Bioeconomy Waste Production and Management 414

27.4 Concerns About Managing Food Waste in Achieving Circular Bioeconomy Policies 416

27.5 Economics of Bioeconomy 417

27.6 Entrepreneurship in Bioeconomy 417

27.7 Conclusion 418

List of Abbreviations 418

References 418

28 Bioconversion of Food Waste to Wealth - Circular Bioeconomy Approach 421
Rajam Ramasamy and Parthasarathi Subramanian

28.1 Introduction 421

28.2 Circular Bioeconomy 422

28.3 Food Waste Management Current Practices 424

28.4 Techniques for Bioconversion of Food Waste Toward Circular Bioeconomy Approach 425

28.5 Conclusion 435

References 435

29 Zero-Waste Biorefineries for Circular Economy 439
Puneet K. Singh, Pooja Shukla, Sunil K. Verma, Snehasish Mishra, and Pankaj K. Parhi

29.1 Introduction 439

29.2 Bioenergy, Bioeconomy, and Biorefineries 440

29.3 Bioeconomic Strategies Around the World 443

29.4 Challenging Factors and Impact on Bioeconomy 445

29.5 Effect of Increased CO2 Concentration, Sequestration, and Circular Economy 447

29.6 Carbon Sequestration in India 447

29.7 Methods for CO2 Capture 448

29.8 Conclusion and Future Approach 451

References 452

30 Feasibility and Economics of Biobutanol from Lignocellulosic and Starchy Residues 457
Sandesh Kanthakere

30.1 Introduction 457

30.2 Opportunities and Future of Zero Waste Biobutanol 458

30.3 Generation of Lignocellulosic and Starchy Wastes 459

30.4 Value Added Products from Lignocellulose and Starchy Residues 462

30.5 Conclusion 468

References 468

31 Critical Issues That Can Underpin the Drive for Sustainable Anaerobic Biorefinery 473
Spyridon Achinas

31.1 Introduction 473

31.2 Biogas - An Energy Vector 474

31.3 Anaerobic Biorefinery Approach 475

31.4 Technological Trends and Challenges in the Anaerobic Biorefinery 477

31.5 Perspectives Toward the Revitalization of the Anaerobic Biorefineries 482

31.6 Conclusion 485

Conflict of Interest 485

References 485

32 Microbiology of Biogas Production from Food Waste: Current Status, Challenges, and Future Needs 491
Vanajakshi Vasudeva, Inchara Crasta, and Sandeep N. Mudliar

32.1 Introduction 491

32.2 Fundamentals for Accomplishing National Biofuel Policy 492

32.3 Significances of Anaerobic Microbiology in Biogas Process 493

32.4 Microbiology and Physico-Chemical Process in AD 493

32.5 Pretreatment 496

32.6 Variations in Anaerobic Digestion 496

32.7 Factors Influencing Biogas Production 497

32.8 Application of Metagenomics 502

32.9 Conclusions and Future Needs 504

List of Abbreviations 504

References 505

Part IX Green and Sustainable future (Zero Waste and Zero Emissions) 507

33 Valorization of Waste Cooking Oil into Biodiesel, Biolubricants, and Other Products 509
Murlidhar Meghwal, Harita Desai, Sanchita Baisya, Arpita Das, Sanghmitra Gade, Rekha Rani, Kalyan Das, and Ravi Kumar Kadeppagari

33.1 Introduction 509

33.2 Treatment 510

33.3 Evaluation of Waste Cooking Oil and Valorized Cooking Oil 511

33.4 Versatile Products as an Outcome of Valorized Waste Cooking Oil 512

33.5 Conclusion 516

References 517

34 Agri and Food Waste Valorization Through the Production of Biochemicals and Packaging Materials 521
A. Jagannath and Pooja J. Rao

34.1 Introduction 521

34.2 Importance 522

34.3 Worldwide Initiatives 522

34.4 Composition-Based Solutions and Approaches 523

34.5 Biochemicals 523

34.6 Biofuels 526

34.7 Packaging Materials and Bioplastics 526

34.8 Green Valorization 531

34.9 Conclusion 531

References 532

35 Edible Coatings and Films from Agricultural and Marine Food Wastes 543
C. Naga Deepika, Murlidhar Meghwal, Pramod K. Prabhakar, Anurag Singh, Rekha Rani, and Ravi Kumar Kadeppagari

35.1 Introduction 543

35.2 Sources of Food Waste 544

35.3 Film/Coating Made from Agri-Food Waste 545

35.4 Film/Coating Materials from Marine Biowaste 548

35.5 Film/Coating Formation Methods 550

35.6 Conclusion 552

References 553

36 Valorization of By-Products of Milk Fat Processing 557
Menon R. Ravindra, Monika Sharma, Rajesh Krishnegowda, and Amanchi Sangma

36.1 Introduction 557

36.2 Processing of Milk Fat and Its By-Products 558

36.3 Valorization of Buttermilk 558

36.4 Valorization of Ghee Residue 562

36.5 Conclusion 565

References 565

Index 569

Authors

Chaudhery Mustansar Hussain NJIT, Dept of Chemistry and Environmental Sciences. Ravi Kumar Kadeppagari