ALBERT

Note: Chapter 1. Rate Laws of Chemical Reactions by Antonio C. Lasaga, p. 1 - 68 Chapter 2. Dynamic Treatment of Geochemical Cycles: Global Kinetics by Antonio C. Lasaga, p. 69 - 110 Chapter 3. Kinetics of Weathering and Diagenesis by Robert A. Berner, p. 111 - 134 Chapter 4. Transition State Theory by Antonio C. Lasaga, p. 135 - 170 Chapter 5. Irreversible Thermodynamics in Petrology by George W. Fisher and Antonio C. Lasaga, p. 171 - 210 Chapter 6. Diffusion in Electrolyte Mixtures by David E. Anderson, p. 211 - 260 Chapter 7. The Atomistic Basis of Kinetics: Defects in Minerals by Antonio C. Lasaga, p. 261 - 320 Chapter 8. Kinetics of Crystallization of Igneous Rocks by R. James Kirkpatrick, p. 321 - 398

Note: In kyrill. Schr. - Legende russ. u. engl.

Note: Arrangement of Volume III: Part VIII Germany. - Part IX Federal Republic of Germany. - Part X Japan. - Part XI New Zealand. - Part XII Norway. - Part XIII Peru. - Part XIV Poland. - Part XV South Africa. - Part XVI Union of Soviet Socialist Republics. - Part XVII United Kingdom of Great Britain and Northern Ireland. - Part XVIII United States of America. - Part XIX Uruguay.

Note: In kyrillischer Schrift , Zusammenfassungen in englischer Sprache , Inhaltsverzeichnis in englischer Sprache

Note: IntroductionMain Assumptions of the Assignment Process -- Definition of Collapse -- Proposing a Range for Fatality Rates in a Collapsed Building -- Assignments of judgment-based fatality rates -- Conclusions. ..

Note: Contents: 1 Introduction. - 1.1 Chapter Summary. - 1.2 The Meaning of the Book’s Title. - 1.3 Historical Background. - 1.4 How to Read This Book. - 1.5 Further Reading. - References. - PART 1 BASIC THEORETICAL CONCEPTS. - 2 Discrete-Time Signals and Systems. - 2.1 Chapter Summary. - 2.2 Basic Definitions and Concepts. - 2.3 Discrete-Time Signals: Sequences. - 2.3.1 Basic Sequence Operations. - 2.3.2 Basic Sequences. - 2.3.3 Deterministic and Random Signals. - 2.4 Linear Time-Invariant (LTI) Systems. - 2.4.1 Impulse Response of an LTI System and Linear Convolution. - 2.4.2 An Example of Linear Convolution. - 2.4.3 Interconnections of LTI Systems. - 2.4.4 Effects of Stability and Causality Constraints on the Impulse Response of an LTI System. - 2.4.5 Finite (FIR) and Infinite (IIR) Impulse Response Systems. - 2.4.6 Linear Constant-Coefficient Difference Equation (LCCDE). - 2.4.7 Examples of LCCDE. - 2.4.8 The Solutions of an LCCDE. - 2.4.9 From the LCCDE to the Impulse Response: Examples. - 2.4.10 Eigenvalues and Eigenfunctions of LTI Systems. - References. - 3 Transforms of Discrete-Time Signals. - 3.1 Chapter Summary. - 3.2 z-Transform. - 3.2.1 Examples of z-Transforms and Special Cases. - 3.2.2 Rational z-Transforms. - 3.2.3 Inverse z-Transform. - 3.2.4 The z-Transform on the Unit Circle. - 3.2.5 Selected z-Transform Properties. - 3.2.6 Transfer Function of an LTI System. - 3.2.7 Output Sequence of an LTI System. - 3.2.8 Zeros and Poles: Forms for Rational Transfer Functions. - 3.2.9 Inverse System. - 3.3 Discrete-Time Fourier Transform (DTFT). - 3.3.1 An Example of DTFT Converging in the Mean-Square Sense. - 3.3.2 Line Spectra. - 3.3.3 Inverse DTFT. - 3.3.4 Selected DTFT Properties. - 3.3.5 The DTFT of a Finite-Length Causal Sequence. - 3.4 Discrete Fourier Series (DFS). - 3.4.1 Selected DFS Properties. - 3.4.2 Sampling in the Frequency Domain and Aliasing in the Time Domain. - 3.5 Discrete Fourier Transform (DFT). - 3.5.1 The Inverse DFT in Terms of the Direct DFT. - 3.5.2 Zero Padding. - 3.5.3 Selected DFT Properties. - 3.5.4 Circular Convolution Versus Linear Convolution. - 3.6 Fast Fourier Transform (FFT). - 3.7 Discrete Trigonometric Expansion. - 3.8 Appendix: Mathematical Foundations of Signal Representation. - 3.8.1 Vector Spaces. - 3.8.2 Inner Product Spaces. - 3.8.3 Bases in Vector Spaces. - 3.8.4 Signal Representation by Orthogonal Bases. - 3.8.5 Signal Representation by Standard Bases. - 3.8.6 Frames and Biorthogonal Bases. - 3.8.7 Summary and Complements. - References. - 4 Sampling of Continuous-Time Signals. - 4.1 Chapter Summary. - 4.2 Sampling Theorem. - 4.3 Reconstruction of a Continuous-Time Signal from Its Samples. - 4.4 Aliasing in the Frequency Domain and Anti-Aliasing Filter. - 4.5 The Uncertainty Principle for the Analog Fourier Transform. - 4.6 Support of a Continuous-Time Signal in the Time and Frequency Domains. - 4.7 Appendix: Analog and Digital Frequency Variables. - References. - 5 Spectral Analysis of Deterministic Discrete-Time Signals. - 5.1 Chapter Summary. - 5.2 Issues in Practical Spectral Analysis. - 5.2.1 The Effect of Windowing. - 5.2.2 The Effect of Spectral Sampling. - 5.3 Classical Windows. - 5.4 The Kaiser Window. - 5.5 Energy and Power Signals and Their Spectral Representations. - 5.6 Correlation of Deterministic Discrete-Time Signals. - 5.6.1 Correlation of Energy Signals. - 5.6.2 Correlation of Power Signals. - 5.6.3 Effect of an LTI System on Correlation Properties of Input and Output Signals. - 5.7 Wiener-Khinchin Theorem. - 5.7.1 Energy Signals and Energy Spectrum. - 5.7.2 Power Signals and Power Spectrum. - References. - PART 2 DIGITAL FILTERS. - 6 Digital Filter Properties and Filtering Implementation. - 6.1 Chapter Summary. - 6.2 Frequency-Selective Filters. - 6.3 Real-Causal-Stable-Rational (RCSR) Filters. - 6.4 Amplitude Response. - 6.5 Phase Response. - 6.5.1 Phase Discontinuities and Zero-Phase Response. - 6.5.2 Linear Phase (LP). - 6.5.3 Generalized Linear Phase (GLP). - 6.5.4 Constraints on GLP Filters. - 6.6 Digital Filtering Implementation. - 6.6.1 Direct Forms. - 6.6.2 Transposed-Direct Forms. - 6.6.3 FIR Direct and Transposed-Direct Forms. - 6.6.4 Direct and Transposed-Direct Forms for LP FIR Filters. - 6.6.5 Cascade and Parallel Forms. - 6.7 Zero-Phase Filtering. - 6.8 An Incorrect Approach to Filtering. - 6.9 Filtering After Downsampling. - 6.9.1 Theory of Downsampling. - 6.9.2 An Example of Filtering After Downsampling. - References. - 7 FIR Filter Design. - 7.1 Chapter Summary. - 7.2 Design Process. - 7.3 Specifications of Digital Filters. - 7.3.1 Constraints on the Magnitude Response. - 7.3.2 Constraints on the Phase Response. - 7.4 Selection of Filter Type: IIR or FIR?. - 7.5 FIR-Filter Design Methods and Approximation Criteria. - 7.6 Properties of GLP FIR Filters. - 7.6.1 Factorization of the Zero-Phase Response. - 7.6.2 Zeros of the Transfer Function. - 7.6.3 Another Form of the Adjustable Term. - 7.7 Equiripple FIR Filter Approximations: Minimax Design. - 7.8 Predicting the Minimum Filter Order. - 7.9 MPR Algorithm. - 7.10 Properties of Equiripple FIR Filters. - 7.11 The Minimax Method for Bandpass Filters. - References. - 8 IIR Filter Design. - 8.1 Chapter Summary. - 8.2 Design Process. - 8.3 Lowpass Analog Filters. - 8.3.1 Laplace Transform. - 8.3.2 Transfer Function and Design Parameters. - 8.4 Butterworth Filters. - 8.5 Chebyshev Filters. - 8.5.1 Chebyshev-I Filters. - 8.5.2 Chebyshev-II Filters. - 8.6 Elliptic Filters. - 8.7 Normalized and Non-normalized Filters. - 8.8 Comparison Among the Four Analog Filter Types. - 8.9 From the Analog Lowpass Filter to the Digital One. - 8.9.1 Bilinear Transformation. - 8.9.2 Design Procedure. - 8.9.3 Examples. - 8.10 Frequency Transformations. - 8.10.1 From a Lowpass to a Highpass Filter. - 8.10.2 From a Lowpass to a Bandpass Filter. - 8.10.3 From a Lowpass to a Bandstop Filter . - 8.11 Direct Design of IIR Filters. - 8.12 Appendix. - 8.12.1 Trigonometric Functions with Complex Argument. - 8.12.2 Elliptic Integrals. - 8.12.3 Jacobi Elliptic Functions. - 8.12.4 Landen-Gauss Transformation. - 8.12.5 Elliptic Rational Function. - References. - PART 3 SPECTRAL ANALYSIS. - 9 Statistical Approach to Signal Analysis. - 9.1 Chapter Summary. - 9.2 Preliminary Considerations. - 9.3 Random Variables. - 9.4 Ensemble Averages. - 9.5 Stationary Random Processes and Signals. - 9.6 Ergodicity. - 9.7 Wiener-Khinchin Theorem for Random Signals and Power Spectrum. - 9.8 Cross-Power Spectrum of Two Random Signals. - 9.9 Effect of an LTI System on a Random Signal. - 9.10 Estimation of the Averages of Ergodic Stationary Signals. - 9.10.1 General Concepts in Estimation Theory. - 9.10.2 Mean and Variance Estimation. - 9.10.3 Autocovariance Estimation. - 9.10.4 Cross-Covariance Estimation. - 9.11 Appendix: A Road Map to the Analysis of a Data Record. - References. - 10 Non-Parametric Spectral Methods. - 10.1 Chapter Summary. - 10.2 Power Spectrum Estimation. - 10.3 Periodogram. - 10.3.1 Bias. - 10.3.2 Variance. - 10.3.3 Examples. - 10.3.4 Variance Reduction by Band- and Ensemble-Averaging. - 10.4 Bartlett’s Method. - 10.5 Modified Periodogram. - 10.6 Welch’s Method. - 10.7 Blackman-Tukey Method. - 10.8 Statistical Significance of Spectral Peaks. - 10.9 MultiTaper Method. - 10.10 Estimation of the Cross-Power Spectrum of Two Random Signals. - 10.11 Use of the FFT in Power Spectrum Estimation. - 10.12 Power Spectrum Normalization. - References. - 11 Parametric Spectral Methods. - 11.1 Chapter Summary. - 11.2 Signals with Rational Spectra . - 11.3 Stochastic Models and Processes. - 11.3.1 Autoregressive-Moving Average (ARMA) Model. - 11.3.2 Autoregressive (AR) Model. - 11.3.3 Moving Average (MA) Model. - 11.3.4 How the AR and MA Modeling Approaches Are Theoretically Related. - 11.3.5 First-Order AR and MA Models: White, Red and Blue Noise. - 11.3.6 Higher-Order AR Models. - 11.4 The AR Approach to Spectral Estimation. - 11.5 AR Modeling and Linear Prediction. - 11.6

Note: Contents: List of figures. - List of tables. - Foreword by Clive Hamilton. - Acknowledgements. - 1. Climate change and corporate capitalism. - 2. Creative self-destruction and the incorporation of critique. - 3. Climate change and the corporate construction of risk. - 4. Corporate political activity and climate coalitions. - 5. Justification, compromise, and corruption. - 6. Climate change, managerial identity and narrating the self. - 7. Emotions, corporate environmentalism and climate change. - 8. Political myths and pathways forward. - 9. Imagining alternatives. - Appendix. - References. - Index.

Note: Contents: 1. Introduction 2. Theories of Decentralised Forest Management and Fiscal Decentralisation 3. The Cases of Riau and Papua Provinces 4. Factors Affecting Local Forest Governance 5. Intergovernmental Fiscal Transfers and Indonesia's Experience 6. The Design of REDD+ and Decentralised Forest Management 7. Incentive Structures Influencing Subnational Governments’ Decisions on Land-use Change 8. The Distribution Formulae of IFTs for REDD+ 9. Conclusion Index

Note: Contents: 1. Energy Governance — A Key Challenge in the Era of Globalization ; PART I FOUNDATIONS ; 2. Germany’s ‘Energiewende’: What Can Environmental Law Scholarship Learn From it? ; 3. Ten Good Practices in Environmental Constitutionalism that can Contribute to Sustainable Shale Gas Development ; 4. Human Rights versus Human Needs: Debating the Language for Universal Access to Modern Energy Services ; 5. Using Social Science Perspectives on Risk to Implement an Environmental Justice Analysis ; 6. Scaling Up Local Solutions: Creating an Enabling Legal Environment for the Deployment of Community-Based Renewable Microgrids ; 7. Innovative Financing for Renewable Energy ; PART II EXPERIENCES ; 8. Energy and Smart Cities — Perspectives from a City-State, Singapore ; 9. Judicial Perspectives on Renewable Energy and Climate Change Governance ; 10. A Reflection on Some Legal Aspects of Decision Control in the Energy Transition Process: A Comparison of France and Germany ; 11. Learning from Europe: Some Ideas for the Energy Improvement of the US Existing Building Stock ; 12. Sustainable Sewage PART III GOVERNANCE GAPS ; 13. Environmentally Displaced Persons in the Niger Delta: Challenges and Prospects ; 14. Agriculture, Energy and Development: An Uneasy Relationship ; Index

Note: Contents: 1 Introduction. - 1.1 Basic Concepts and Definitions. - 1.1.1 What Gas Seepage Is, What It Is Not. - 1.1.2 A Jungle of Names: Seeps, Macroseeps, Microseepage, Microseeps, and Miniseepage. - 1.1.3 Seepage id est Migration. - 1.1.4 Microbial, Thermogenic, and Abiotic Methane. - 1.2 Significance of Seepage and Implications. - 1.2.1 Seepage and Petroleum Exploration. - 1.2.2 Marine Seepage on the Crest of the Wave. - 1.2.3 From Sea to Land. - 1.2.4 A New Vision. - References. - 2 Gas Seepage Classification and Global Distribution. - 2.1 Macro-Seeps. - 2.1.1 Gas Seeps. - 2.1.2 Oil Seeps. - 2.1.3 Gas-Bearing Springs. - 2.1.4 Mud Volcanoes. - 2.1.5 Miniseepage. - 2.1.6 The Global Distribution of Onshore Macro-Seeps. - 2.2 Microseepage. - 2.3 Marine Seepage Manifestations. - References. - 3 Gas Migration Mechanisms. - 3.1 Fundamentals. - 3.1.1 Sources and Pathways. - 3.1.2 Diffusion and Advection. - 3.2 Actual Mechanisms and Migration Forms. - 3.2.1 Bubble and Microbubble Flow. - 3.2.2 Gas Seepage Velocity. - 3.2.3 Matter Transport by Microbubbles. - 3.2.4 The Concept of Carrier Gas and Trace Gas. - References. - 4 Detecting and Measuring Gas Seepage. - 4.1 Gas Detection Methods. - 4.1.1 Above-Ground (Atmospheric) Measurements. - 4.1.2 Ground Measurements. - 4.1.3 Measurements in Aqueous Systems. - 4.2 Indirect Methods. - 4.2.1 Chemical-Mineralogical Alterations of Soils. - 4.2.2 Vegetation Changes (Geobotanical Anomalies). - 4.2.3 Microbiological Analyses of Soils. - 4.2.4 Radiometric Surveys. - 4.2.5 Geophysical Techniques. - References. - 5 Seepage in Field Geology and Petroleum Exploration. - 5.1 Seepage and Faults. - 5.2 Microseepage Applied to Areal Petroleum Exploration. - 5.2.1 Which Gas Can Be Measured?. - 5.2.2 Microseepage Methane Flux Measurements. - 5.3 Seep Geochemistry for Petroleum System Evaluation. - 5.3.1 Recognising Post-genetic Alterations of Gases. - 5.3.2 Assessing Gas Source Type and Maturity. - 5.3.3 The Presence of Undesirable Gases (CO2, H2S, N2). - 5.3.4 Helium in Seeps… for Connoisseurs. - References. - 6 Environmental Impact of Gas Seepage. - 6.1 Geohazards. - 6.1.1 Methane Explosiveness. - 6.1.2 The Toxicity of Hydrogen Sulphide. - 6.1.3 Mud Expulsions and the Degradation of Soil-Sediments. - 6.2 Stray Gas, Natural versus Man-Made. - 6.3 Hypoxia in Aquatic Environments. - 6.4 Gas Emissions to the Atmosphere. - 6.4.1 Methane Fluxes and the Global Atmospheric Budget. - 6.4.2 Ethane and Propane Seepage, a Forgotten Potential Source of Ozone Precursors. - 6.5 Natural Seepage and CO2 Geological Sequestration. - References. - 7 Seepage in Serpentinised Peridotites and on Mars. - 7.1 Seeps and Springs in Active Serpentinisation Systems. - 7.1.1 Where Abiotic Methane Is Seeping. - 7.1.2 How Abiotic Methane in Land-Based Serpentinisation Systems Is Formed. - 7.1.3 How to Distinguish Abiotic and Biotic Methane. - 7.1.4 Seepage to the Surface. - 7.1.5 Is Abiotic Gas Seepage Important for the Atmospheric Methane Budget?. - 7.2 Potential Methane Seepage on Mars. - 7.2.1 Looking for Methane on Mars. - 7.2.2 A Theoretical Martian Seepage. - References. - 8 Gas Seepage and Past Climate Change. - 8.1 Past Seepage Stronger than Today. - 8.2 Potential Proxies of Past Seepage. - 8.3 Methane and Quaternary Climate Change. - 8.3.1 Traditional Models: Wetlands versus Gas Hydrates. - 8.3.2 Adding Submarine Seeps. - 8.3.3 Considering Onshore and Offshore Seepage in Total. - 8.3.4 CH4 Isotope Signatures in Ice Cores. - 8.4 Longer Geological Time Scale Changes. - 8.4.1 The Concept of Sedimentary Organic Carbon Mobilization. - 8.4.2 Paleogene Changes. - References. - 9 Seeps in the Ancient World: Myths, Religions, and Social Development. - 9.1 Seeps in Mythology and Religion. - 9.2 Seeps in Social and Technological Development. - References. - Epilogue. - Index.

Note: Contents: Questions ; We'll Deal with That Lofty Stuff Some Other Day ; Speaking as a Layman ; You Never Get to See the Whole Picture ; Polluting the Message ; The jury of Our Peers ; The Power of the Mob ; Through a Glass Darkly ; Inside the Elephant ; The Two Brains ; Familiar Yet Unimaginable ; Uncertain Long-Term Costs ; Them, There, and Then ; Costing the Earth ; Certain About the Uncertainty ; Paddling in the Pool of Worry ; Don't Even Talk About It! ; The Non-Perfect Non-Storm ; Cockroach Tours ; Tell Me a Story ; Powerful Words ; Communicator Trust ; If They Don't Understand the Theory, Talk About It Over and Over and Over Again ; Protect, Ban, Save, and Stop ; Polarization ; Turn Off Your Lights or the Puppy Gets It ; Bright-siding ; Winning the Argument ; Two Billion Bystanders ; Postcard from Hopenhagen ; Precedents and Presidents ; Wellhead and Tailpipe ; The Black Gooey Stuff ; Moral Imperatives ; What Did You Do in the Great Climate War, Daddy? ; The Power of One ; Degrees of Separation ; Intimations of Mortality ; From the Head to the Heart ; Climate Conviction ; Why We Are Wired to Ignore Climate Change… And Why We Are Wired to Take Action ; In a Nutshell

Note: Trading a livable worldPower shift -- Beyond the north-south divide? -- Manufacturing consent -- The politics of adaptation -- The staying power of big fossil -- Society too civil? -- Contesting climate injustice -- Power in a future world -- Linking movements for justice..

Note: Preface -- Acknowledgments -- Executive Summary -- Part One - C’mon! Don’t tell me the current trends are sustainable! -- 1.1 Introduction: The World in Disarray -- 1.2 Limits to Growth - how relevant was its message?- 1.3 Planetary Boundaries -- 1.4 The Anthropocene -- 1.5 The Climate Challenge -- 1.6 Other disasters ahead -- 1.7 Unsustainable population growth - and urbanization -- 1.8 Unsustainable agriculture and food system -- 1.9 Trade versus environment -- 1.10 The 2030 Agenda - the devil is in implementation -- 1.11 Do we like disruptions? The case of the digital revolution -- 1.12 From Empty World to Full World -- Part Two - C’mon! Don’t stick to outdated philosophies! -- 2.1 Laudato Sí: The Pope raises His voice -- 2.2 Change the Story, Change the Future -- 2.3 1991: „The First Global Revolution“ -- 2.4 Capitalism got arrogant -- 2.5 The failure of the market doctrine -- 2.6 Philosophical errors of the market doctrine -- 2.7 Reductionist philosophy is shallow and inadequate -- 2.8 Gaps between Theory, Education and Social Reality -- 2.9 Tolerance and long-term perspectives -- 2.10 We may need a New Enlightenment -- Part Three Come On! Join us on an exciting journey towards a sustainable world! .- 3.1 A regenerative economy -- 3.2 Development Alternatives -- 3.3 The Blue Economy -- 3.4 Decentralized energy -- 3.5 Some agricultural success stories -- 3.6 Regenerative urbanization: Ecopolis -- 3.7 Climate: Some good news, but bigger challenges -- 3.8 Circular economy requires a new economic logic -- 3.9 Five-fold resource productivity -- 3.10 Healthy disruption -- 3.11 Reform of the financial sector -- 3.12 Reform of the economic set-up -- 3.13 Benign investment -- 3.14 Measuring well-being rather than GDP -- 3.15 Civil Society, Social Capital and Collective Leadership -- 3.16 Global Governance -- 3.17 National level action: China and Bhutan -- 3.18 Education for a sustainable civilization -- Conclusion: We invite readers to ‘come on’

Note: Contents: Preface. - Tritium in Antarctic precipitation - information on global distribution / D. Hebert. - On the physical geography of the Schirmacher Oasis (East Antarctica, Dronning Maud Land) / W. Richter. - Investigation of Deuterium concentration relations between atmospheric water vapour and precipitations in the Schirmacher Oasis, East Antarctica / P. Kowski. - Isotope-hydrological and hydrochemical characterization of lakes in the Schirmacher Oasis (East Antarctica) / W. Richter, U. Wand, G. Strauch, P. Kowski, W. Kurze. - Isotope-hydrological and hydrochemical studies of the interior Antarctic lake "Untersee" in the Wohlthat Massif, Dronning Maud Land, East Antarctica / W.-D. Hermichen, M. Crelle, P. Kowski, W. Kurze, U. Wand. - The isotope-glaciological situation in the surroundings of the Schirmacher Oasis/Dronning Maud Land - a first overview / W.-D. Hermichen, P. Kowski, G. Strauch. - Radiocarbon dating of breeding places of petrels in the Antarctic / A. Hiller, U. Wand. - K - Ar dating of basalt dykes in the Schirmacher Oasis, Dronning Maud Land, East Antarctica / G. Kaiser, U. Wand.

Note: Contents: Part One: Why Great Companies Can Fail ; 1 How can great firms fail? Insights from the Hard Disk Drive industry ; 2 Value networks and the impetus to innovate ; 3 Disruptive technological change in the mechanical excavator industry ; Part Two: Managing Disruptive Technological Change ; 5 Give responsibility for disruptive technologies to organizations whose customers need them ; 6 Match the size of the organization to the size of the market ; 7 Discovering new and emerging markets ; 8 How to appraise your organization's capabilities and disabilities ; 9 Performance provided, market demand, and the product life cycle ; 10 Managing disruptive technological change: a case study ; 11 The dilemma of innovation: a summary

Note: Foreword; Prologue; Acknowledgements; Contents; Chapter 1: Early Earth Systems; 1.1 Archaean and Proterozoic Atmospheres; 1.2 Early Biospheres; 1.3 Greenhouse States and Glaciations; Chapter 2: Phanerozoic Life and Mass Extinctions of Species; 2.1 Acraman Impact and Acritarchs Radiation; 2.2 Cambrian and Late Ordovician Mass Extinction; 2.3 Late and End-Devonian Mass Extinctions; 2.4 Late Permian and Permian-Triassic Mass Extinctions; 2.5 End-Triassic Mass Extinction; 2.6 Jurassic-Cretaceous Extinction; 2.7 K-T (Cretaceous-Tertiary Boundary) Mass Extinction; 2.8 Paleocene-Eocene Extinction. , 2.9 The End-Eocene FreezeChapter 3: Cenozoic Biological Evolution (by Colin Groves); 3.1 The Evolution of Mammals; 3.2 From Primates to Humans; 3.3 From Genetic Evolution to Cultural Evolution; Chapter 4: Fire and the Biosphere; 4.1 An Incendiary Biosphere; 4.2 The Deep-Time History of Fire; 4.3 Fire and Pre-historic Human Evolution; 4.4 Neolithic Burning and Early Civilizations; Chapter 5: The Anthropocene; 5.1 The Modern Atmosphere; 5.2 Neolithic Burning and Early Global Warming; 5.3 The Great Carbon Oxidation Event; 5.4 The Sixth Mass Extinction of Species; 5.5 The Faustian Bargain. , 5.6 The Post-anthropocene WorldChapter 6: Rare Earth; Chapter 7: Prometheus: An Epilogue; References; About the Book and the Authors; Index.