- ISBN: 9781119591689 | 1119591686
- Cover: Hardcover
- Copyright: 1/13/2021
The data in this book are new or updated, and will serve also as Origin of Life and evolutionary studies. Endospores of bacteria have a long history of use as model organisms in astrobiology, including survival in extreme environments and interplanetary transfer of life. Numerous other bacteria as well as archaea, lichens, fungi, algae and tiny animals (tardigrades, or water bears) are now being investigated for their tolerance to extreme conditions in simulated or real space environments. Experimental results from exposure studies on the International Space Station and space probes for up to 1.5 years are presented and discussed. Suggestions for extaterrestrial energy sources are also indicated.
Audience
Researchers and graduate students in microbiology, biochemistry, molecular biology and astrobiology, as well as anyone interested in the search for extraterrestrial life and its technical preparations.
Audience
Researchers and graduate students in microbiology, biochemistry, molecular biology and astrobiology, as well as anyone interested in the search for extraterrestrial life and its technical preparations.
Joseph Seckbach earned his MSc and PhD from the University of Chicago, and was postdoc at Caltech, Pasadena, CA. He is retired from the Hebrew University of Jerusalem and spent periods in research in the USA: UCLA, Harvard, Baton-Rouge (LSU); in Germany (Tübingen and Munich as an exchange scholar). He has edited a series of books "Cellular Origin, Life in Extreme Habitats and Astrobiology" and has edited more than 40 volumes and authored more than 140 research articles. His interest is in astrobiology and iron in plants (phytoferritin).
Helga Stan-Lotter is emeritus Professor of Microbiology at the University of Salzburg, Austria. She obtained her PhD degree from the Technical University of Munich, Germany. She was a postdoc at the University of Calgary, Canada, a research associate at the University of British Columbia, Canada, and held a US National Research Council Fellowship at the NASA Ames Research Center in Moffett Field, California. Her scientific interests are extremophilic microorganisms and astrobiology.
Preface xiii
Part I Extremophiles in Environments on Earth with Similarity to Space Conditions 1
1 Volcanic Steam Vents: Life at Low pH and High Temperature 3
Richard L. Weiss Bizzoco and Scott T. Kelley
1.1 Introduction 3
1.2 Steam Cave and Vent Sites 5
1.3 Steam Cave and Vent Sample Collection 5
1.4 Culture Isolation 13
1.5 Cell Structure of Isolates 16
1.6 Environmental Models 17
1.7 Conclusions 18
2 Rio Tinto: An Extreme Acidic Environmental Model of Astrobiological Interest 21
Ricardo Amils and David Fernández-Remolar
2.1 Introduction 21
2.2 Acidic Chemolithotrophy 22
2.3 Rio Tinto Basin 24
2.4 Biodiversity in the Tinto Basin 25
2.5 Tinto Basin Sedimentary Geomicrobiology 27
2.6 The Iberian Pyrite Belt Dark Biosphere 29
2.7 Methanogenesis in Non-Methanogenic Conditions 34
2.8 Rio Tinto: A Geochemical and Mineralogical Terrestrial Analog of Mars 35
2.9 Conclusions 37
3 Blossoms of Rot: Microbial Life in Saline Organic-Rich Sediments 45
Adrian-Stefan Andrei, Paul-Adrian Bulzu and Horia Leonard Banciu
3.1 Introduction 46
3.2 Overview of Saline Aquatic Systems 47
3.3 Prerequisites of Organic Carbon-Rich Sediment Genesis in Saline Lakes 48
3.4 Chemistry of Recent Organic Carbon-Rich Sediments in Saline Water Bodies 48
3.5 Microbial Life in Saline Sapropels 49
3.6 Relevance of Saline Sapropels 65
3.7 Concluding Remarks 65
4 The Haloarchaea of Great Salt Lake as Models for Potential Extant Life on Mars 83
Madelyn Bayles, Bradley C. Belasco, Alexander J. Breda, Calli B. Cahill, Adrik Z. Da Silva, Michael J. Regan Jr., Nicklaus K. Schlamp, Mariah P. Slagle and Bonnie K. Baxter
4.1 The Great Salt Lake System in the Bonneville Basin 84
4.2 The Transformation of an Ancient Wet Mars to a Modern Hostile Environment 89
4.3 Life in Evaporitic Minerals on Earth 95
4.4 Great Salt Lake Haloarchaea 97
4.5 Haloarchaea Have Superpowers for Extreme Lifestyles 99
4.6 Extant or Extinct Haloarchaea on Mars? 105
4.7 Conclusions and Insights 108
5 Arsenic-and Light Hydrocarbon-Rich Hypersaline Soda Lakes and Their Resident Microbes as Possible Models for Extraterrestrial Biomes 125
Ronald S. Oremland
5.1 Introduction 125
5.2 Mars 129
5.3 Enceladus 131
5.4 Titan 132
6 Antarctic Bacteria as Astrobiological Models 137
Carmel Abbott and David A. Pearce
6.1 Introduction 138
6.2 Antarctica as an Analogous Environment for Astrobiology 139
6.3 Astrobiological Environments of Interest 142
6.4 Bacterial Adaptations to Extreme Environments as Analogues for Astrobiology 143
6.5 Antarctic Bacteria as Analogues for Astrobiology 145
6.6 Endemic Antarctic Bacteria used in Astrobiology 146
6.7 Cosmopolitan Bacteria Found in Antarctica and used in Astrobiology 151
6.8 Conclusion 152
7 Extremophilic Life in Our Oceans as Models for Astrobiology 161
Robert Y. George
7.1 Introduction 162
7.2 Southern Ocean Ecosystem: West Antarctic Peninsula Region 162
7.3 Sea Ice Decline in WAP and Ice Shelf Collapse in Amundsen Sea 162
7.4 Deoxygenation Leading toward Hypoxic Zone in Amundsen Sea 164
7.5 Microbial Extremophiles in Southern Ocean 165
7.6 Chemosynthetic Abyssal Ecosystems 166
7.7 Hydrothermal Activity in Hrad Vallis on Mars 170
7.8 Why Chemosynthetic Ecosystems Remind Us of Environmental Conditions When Life Originated in the Universe 172
7.9 Ultra-Abyssal Ecosystem: Puerto Rico Trench 173
7.10 Affiliations of Abyssal Life to Astrobiology: Some Perspectives 175
7.11 Can We Find Protozoans Such as Xenophyophores on Other Planets? 177
7.12 Barophilic Organisms in the Deep-Sea 178
Part II Extremophiles in Space (International Space Station, Others) and Simulated Space Environments 183
8 Challenging the Survival Thresholds of a Desert Cyanobacterium under Laboratory Simulated and Space Conditions 185
Daniela Billi
8.1 Introduction 185
8.2 Endurance of Chroococcidiopsis Under Air-Drying and Space Vacuum 186
8.3 Endurance of Chroococcidiopsis Under Laboratory Simulated and Space Radiation 189
8.4 The Use of Chroococcidiopsis’s Survival Thresholds for Future Astrobiological Experiments 191
9 Lichens as Astrobiological Models: Experiments to Fathom the Limits of Life in Extraterrestrial Environments 197
Rosa de la Torre Noetzel and Leopoldo Garcia Sancho
9.1 Introduction 197
9.2 Survival of Lichens in Outer Space 199
9.3 Space Environment: Relevance in Space Science 200
9.4 Biological Effects of Space 201
9.5 Current and Past Astrobiological Facilities for Experiments with Lichens 203
9.6 Space Experiments with Lichens 206
9.7 Simulation Studies 214
9.8 Summary and Conclusions 215
9.9 Future Possibilities and Recommendations 216
10 Resistance of the Archaeon Halococcus morrhuae and the Biofilm-Forming Bacterium Halomonas muralis to Exposure to Low Earth Orbit for 534 Days 221
Stefan Leuko, Helga Stan-Lotter, Greta Lamers, Sebastian Sjöström, Elke Rabbow, Andre Parpart and Petra Rettberg
10.1 Introduction 222
10.2 Material and Methods 223
10.3 Results 228
10.4 Discussion 232
11 The Amazing Journey of Cryomyces antarcticus from Antarctica to Space 237
Silvano Onofri, Claudia Pacelli, Laura Selbmann and Laura Zucconi
11.1 Introduction 238
11.2 The McMurdo Dry Valleys 238
11.3 Cryptoendolithic Communities 239
11.4 The Black Microcolonial Yeast-like Fungus Cryomyces antarcticus 240
11.5 The Polyextremotolerance of Cryomyces antarcticus 240
11.6 Cryomyces antarcticus and its Resistance to Radiation in Ground-Based Simulated Studies 242
11.7 C. antarcticus and its Resistance to Actual Space Exposure in Low Earth Orbit 245
11.8 Conclusion 250
11.9 Future Perspectives 250
Part III Reviews of Extremophiles on Earth and in Space 255
12 Tardigrades -- Evolutionary Explorers in Extreme Environments 257
K. Ingemar Jönsson
12.1 Introduction 258
12.2 The Evolutionary Transition Towards Cryptobiotic Adaptations in Tardigrades 259
12.3 Cryptobiosis as an Evolutionary Adaptive Strategy 260
12.4 Defining Life in Cryptobiotic Animals 261
12.5 A Resilience Approach to the Cryptobiotic State 262
12.6 Molecular Mechanisms for Structural Stability in the Dry State 263
12.7 Tardigrades as Astrobiological Models 265
12.8 Tardigrades -- Extremotolerants or Extremophiles? 267
13 Spore-Forming Bacteria as Model Organisms for Studies in Astrobiology 275
Wayne L. Nicholson
13.1 Introduction 275
13.2 Historical Beginnings 276
13.3 Revival of Lithopanspermia 278
13.4 Testing Lithopanspermia Experimentally 279
13.5 Lithopanspermia, Spores, and the Origin of Life 282
13.6 Interstellar Lithopanspermia 283
13.7 Humans as Agents of Panspermia 284
13.8 Survival and Growth of Spores in the Mars Environment 284
14 Potential Energy Production and Utilization Pathways of the Martian Subsurface: Clues from Extremophilic Microorganisms on Earth 291
Varun G. Paul and Melanie R. Mormile
14.1 Introduction 292
14.2 Energy Sources 293
14.3 Conclusion 306
Part IV Theory and Hypotheses 317
15 Origin of Initial Communities of Thermophilic Extremophiles on Earth by Efficient Response to Oscillations in the Environment 319
Vladimir N. Kompanichenko and Vladimir F. Levchenko
15.1 Introduction 320
15.2 Required Conditions for the Origin of Life: Necessity of Rapid-Frequency Oscillations of Parameters 320
15.3 Parameters of the Environment for the Origin of Life 322
15.4 Formation of Prebiotic Microsystem Clusters and Their Conversion into Primary Communities of Thermophilic Extremophiles 323
15.5 Theoretical and Experimental Verification of the Proposed Approach 325
15.6 Conclusion 326
16 Extremophiles and Horizontal Gene Transfer: Clues to the Emergence of Life 329
Sohan Jheeta
16.1 Introduction 329
16.2 T-LUCAs, LUCAs and Progenotes 330
16.3 Prebiotic World and T-LUCA 330
16.4 Emergence of LUCA 333
16.5 Chemical Composition of LUCA 335
16.6 Emergence of Cellular Life Forms 336
16.7 Evidence for Cellular Life Forms 338
16.8 The Hypotheses: Genetic First vs. Metabolism First 341
16.9 Extremophiles 342
16.10 The Viral Connection to the Origin of Life 344
16.11 Horizontal Gene Transfer (HGT) 344
16.12 Mechanisms of HGT 346
16.13 Clues to the Origins of Life and a Phylogenetic Tree 348
16.14 Conclusion 351
17 What Do the DPANN Archaea and the CPR Bacteria Tell Us about the Last Universal Common Ancestors? 359
Charles H. Lineweaver
17.1 Introduction 359
17.2 The Discovery of DPANN and CPR 361
17.3 Common Features of CPR and DPANN 361
17.4 LUCA and the Deep-Rootedness of CPR and DPANN 362
17.5 Short Branches, Deep Branches and Multiple LUCAs 363
17.6 Viruses: LUCA without ‘Cellular’ 364
18 Can Biogeochemistry Give Reliable Biomarkers in the Solar System? 369
Julian Chela-Flores
18.1 Evidence of Life in the Solar System 370
18.2 Extremophiles on Earth 370
18.3 Extremophiles in Low Orbits Around the Earth 372
18.4 Have There Been Extremophiles on the Moon? 372
18.5 Have There Been Extremophiles on Mars? 373
18.6 Europa is a Likely Location for an Extremophilic Ecosystem 374
18.7 Are There Other Environments for Extremophiles in the Solar System? 376
18.8 Are There Environments for Extremophiles on Exoplanets? 378
References 379
Index 385
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