This book provides an overview of extremophiles and their applications across various industries. It explores the fundamental characteristics of these microorganisms and their role in sustainability, focusing on enzyme production, biofuel generation, bioplastics, and environmental conservation. Contributing authors analyze the mechanisms that enable extremophiles to thrive in extreme conditions and examine their practical uses in industry.
Chapters provide expert analysis of the latest research on the biotechnological applications of these microorganisms. Topics such as biofuels, bioplastics, and other sustainable technologies are discussed, alongside real-world applications. The book emphasizes how extremophiles can be utilized for industrial, environmental, and medical applications, offering practical examples of sustainable technologies.
Researchers in microbiology, biotechnology, environmental science, chemical engineering, and related fields will gain valuable insights into the mechanisms of extremophiles. Industry professionals and students will also find the book beneficial for understanding the sustainable applications of these microorganisms.
By presenting the latest advancements and real-world applications, this contributed volume encourages readers to consider how extremophiles can address pressing environmental issues such as plastic biodegradation and renewable energy production. It serves as an essential resource for those aiming to contribute to sustainable development through scientific and technological innovation.
Chapter
1. Overview of the Basic Characteristics of Extremophiles and
Their Role in Sustainability.
Chapter
2. Diversity and Distribution of
Extremophiles.
Chapter 3. Achieving a Sustainable Bioeconomy through the
Utilization of the Extremely Thermophilic
Bacterium Fervidobacterium islandicum AW-1.
Chapter
4. Thermostability of
DNA Repair-Promoting Proteins from Radiation-Resistant Bacteria and Its
Application.
Chapter
5. Analysis and Application of Lignin Fragment
Degradation Metabolism by Marine-Isolated Bacteria.
Chapter
6. Recent
Research on Enzymes Produced by Halophiles and Their Industrial
Applications.
Chapter
7. Biotechnological Applications and Enzyme Production
in Hyperthermophilic Archaea.
Chapter
8. Genome Editing Technologies
in Hyperthermophilic and Acidophilic Archaea and Their Applications in
Bioindustry.
Chapter
9. Sustainable Production of Bio-Based Products Using
Extreme Halophilic Archaea.
Chapter
10. Industrial Applications and
Challenges of Antarctic-Derived Fungi.
Chapter
11. Frontiers in Ectoine
Production Using Halophiles and Future Perspectives.
Chapter
12. Peptide
syntheses using an organic solvent tolerant enzyme.
Chapter
13. Sustainable
Biomass Composting Technology Using Extremophiles and Its Applications.-
Chapter
14. Social Implementation of Methanation Technology Using
Methanogenic Archaea.
Chapter
15. Hydrogen Production Using
the Hyperthermophilic Archaea Thermococcus onnurineus NA1.
Chapter
16.
Development and Social Implementation of Chitin-Derived Biohydrogen
Production Technology Using Hyperthermophilic Archaea.
Chapter
17.
Bioleaching and Mining Applications.
Chapter
18. Microbial Fuel Cells and
Bioenergy Generation.
Chapter
19. Characteristics of Radiation-Resistant
Bacteria and Their Biotechnological Applications.
Chapter
20. The Future of
AI and Biotechnology.
Chapter
21. Future Perspectives for Sustainable
Development.
Professor Masahiro Ito received his B.S. in Chemistry from Rikkyo University and his Ph.D. in Chemical Engineering from the Tokyo Institute of Technology (now Institute of Science Tokyo) in 1994. He conducted postdoctoral research in Biochemistry at the Mount Sinai School of Medicine in New York before joining the Faculty of Life Sciences at Toyo University in 1997. His honors include the Extremophiles Young Poster Award (2002), the Japan Society for Extremophiles Encouragement Award (2005), and the JSPS Award for Outstanding Young Scientists (2011). He has served as Program Officer at MEXT and, since 2020, as Program Director of Toyo Universitys Bio-Resilience Research Project, now in its second phase. He is Associate Editor of Frontiers in Microbiology, on the editorial boards of AEM, Extremophiles and Engineering Microbiology and an expert member of Japans Food Safety Commission. His research centers on extremophiles, especially alkaliphilic and halophilic microorganisms.
Professor Issay Narumi is a faculty member in the Faculty of Life Sciences at Toyo University, where he serves as Professor and has also acted as the Dean of the faculty. His research focuses on applied microbiology and molecular biology, with particular emphasis on DNA repair mechanisms and the exceptional radiation resistance of certain bacteria. His research explores DNA repair mechanisms in extremophilic bacteria to understand better how these organisms survive severe radiation damage. He utilizes interdisciplinary approaches, including genetics, biochemistry, and structural biology. Professor Narumi also teaches courses in microbiology and radiation biology. Prior to his position at Toyo University, he served as a Senior Researcher in the Quantum Beam Application Research Division at the Japan Atomic Energy Agency (JAEA), where he investigated ion-beam biology and microbial mutations. His work has been published in numerous peer-reviewed journals and contributes to both fundamental science and applied microbial biotechnology.
Professor Noriyuki Doukyu obtained his PhD at Tokyo Institute of Technology (now Institute of Science Tokyo) and subsequently served as an assistant professor at the same university. He then joined Toyo University as an associate professor, later becoming a professor, a position he holds to this day. His specialty is applied microbiology, with a particular focus on research into organic solvent-tolerant microorganisms and methanogens.
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