ALBERT

Note: Contents: Introduction: Climate Change and our Future ; 1: Global Crisis and the Mandate of COP ; 2: Insuring the Future ; 3: The Kyoto Protocol and its Carbon Market ; 4: The Road to Paris: An Insider’s Timeline ; 5: An Uncertain Future ; 6: Implementing the Carbon Market and its CDM ; 7: The Paris Agreement: Failure as an Opportunity ; 8: Avoiding Extinction ; 9: Four Obscure Articles in the Paris Agreement Hold the Key to Resolve Climate Change ; 10: Reversing Climate Change ; Epilogue: The Future Act of 2018: New U.S. Law Provides Unlimited Tax Credits to Remove CO2 from Air

Note: Contents: Introduction ; 1. Climate Change: What's the Big Deal? ; 2. Business as Usual: What Are the Costs? ; 3. Why Do Economists Like a Carbon Tax? ; 4. Isn't There a Better Way? (No, There Isn't) ; 5. Cap and Trade: The Other Way to Price Pollution ; 6. What To Do With $200 Billion: Give It Back ; 7. So You Want a Carbon Tax: How Do You Design It? ; 8. Objections to a Carbon Tax ; 9. Enacting a Carbon Tax: How Do We Get There? ; Afterword - What Next?

Note: Contents: Sea of data : apophenia and pattern recognition / Hito Steyerl -- Crapularity hermeneutics : interpretation as the blind spot of analytics, artificial intelligence, and other algorithmic producers of the post-apocalyptic present / Florian Cramer -- Queerying homophily / Wendy Hui Kyong Chun -- Data paranoia : how to make sense of pattern discrimination / Clemens Apprich

Note: Prologue : the new political times of the anthropocene , Timings , Ecological inequalities , Limiting growth? , Ecological debts , Population futures , Value , Epilogue : historical possibilities for an anthropocened politics

Note: Dissertation, Universität Potsdam, 2019 , Table of contents Abstract Zusammenfassung Abbreviations 1 Introduction 1.1 Scientific background 1.1.1 Permafrost in the Northern Hemisphere 1.1.2 The permafrost carbon climate feedback 1.1.3 Rapidly changing, deep permafrost environments 1.2 Aims of this dissertation 1.3 Investigated study areas 1.4 Basic method overview 1.4.1 Field work in the Arctic 1.4.2 Laboratory procedure 1.4.3 Analysis ofl andscape-scale carbon and nitrogen stocks 1.5 Thesis organization 1.6 Overview of publications 1.6.1 Publication#1 - Yedoma landscape publication 1.6.2 Publication#2 - Thermokarst lake sequence publication 1.6.3 Publication#3 - North Alaska Arctic river delta publication 1.6.4 Extended Abstract - Western Alaska river delta study 1.6.5 Appendices - Supplementary material and paper in preparation II Carbon and nitrogen pools in thermokarst-affected permafrost landscapes in Arctic Siberia 2.1 Abstract 2.2 Introduction 2.3 Material and methods 2.3.1 Study area 2.3.2 Field Work 2.3.3 Laboratory analysis 2.3.4 Landform classification and upscaling C and N pools 2.4 Results 2.4.1 Sedimentological results 2.4.2 Sampling site SOC and N stocks 2.4.3 Upscaling: Landscape SOC and N stocks 2.4.4 Radiocarbon dates 2.5 Discussion 2.5.1 Site specific soil organic C and N stock characteristics 2.5.2 Upscaling of C and N pools 2.5.3 Sediment and organic C accumulation rates 2.5.4 Characterizing soil organic carbon 2.5.5 The fate of organic carbon in thermokarst-affected yedoma in Siberia 2.6 Conclusions III Impacts of successive thermokarst lake stages on soil organic matter, Arctic Alaska 3.1 Abstract 3.2 Plain language summary 3.3 Introduction 3.4 Study site 3.5 Methods 3.5.1 Core collection 3.5.2 Biogeochemical analyses 3.5.3 Study area OC and N calculation 3.6 Results 3.6.1 Biogeochemistry 3.6.2 Sediment organic carbon and nitrogen stocks 3.6.3 Radiocarbon dates and carbon accumulation rates 3.6.4 Landscape C and N budget 3.7 Discussion 3.7.1 Impact of thermokarst lake dynamics on organic matter storage 3.7.2 High organic C and N stocks on the ACP 3.7.3 Landscape chronology 3.7.4 Organic matter accumulation 3.7.5 Future development 3.8 Conclusions IV Sedimentary and geochemical characteristics of two small permafrost-dominated Arctic river deltas in northern Alaska 4.1 Abstract 4.2 Introduction 4.3 Study area 4.4 Material and Methods 4.4.1 Soil organic carbon and soil nitrogen storage 4.4.2 Radiocarbon dating and organic carbon accumulation rates 4.4.3 Grain size distribution 4.4.4 Scaling carbon and nitrogen contents to landscape level 4.5 Results 4.5.1 Carbon and nitrogen contents 4.5.2 Radiocarbon dates and accumulation rates 4.5.3 Grain size distribution 4.5.4 Arctic river delta carbon and nitrogen storage 4.6. Discussion 4.6.1 Significance of carbon and nitrogen stocks in Arctic river deltas 4.6.2 SOC and SN distribution with depth 4.6.3 Sedimentary characteristics 4.6.3.1 Accumulation rates 4.6.3.2 Sediment distribution 4.6.4 Impacts of future changes 4.6.5 Significance of remotely sensed upscaling results 4.7 Conclusions V Soil carbon and nitrogen stocks in Arctic river deltas - New data for three Western Alaskan deltas 5.1 Abstract 5.2 Introduction 5.3 Study sites 5.4 Methods 5.5 Results and discussion 5.5 Conclusions VI Discussion 6.1 Interregional comparison 6.2 Changing thermokarst landscapes and their global impact 6.3 A growing C and N data base 6.4 Outlook - potential follow-up projects VII Synthesis VIII References Appendix A Synthesis of SOC and N inventories Appendix B Supplementary material to Chapter II Appendix C Supplementary material to Chapter III Appendix D Supplementary material to Chapter IV Appendix E Supplementary material to Chapter V Appendix F Arctic river delta data set - Version 1.0 Acknowledgements - Danksagung

Note: Contents: : 1: Climate Justice: Integrating Economics and Philosophy, Ravi Kanbur and Henry Shue ; 2: Poor People on the Front Line: The Impacts of Climate Change on Poverty in 2030, Julie Rozenberg and Stephane Hallegatte ; 3: Governing the Commons to Promote Global Justice: Climate Change Mitigation and Rent Taxation, Michael Jakob, Ottmar Edenhofer, Ulrike Kornek, Dominic Lenzi, and Jan Minx. ; 4: Equity Implications of the COP21 Intended Nationally Determined Contributions to Reduce Greenhouse Gas Emissions, Adam Rose, Dan Wei, and Antonio Bento ; 5: Climate Change and Inequity: How to Think about Inequities in Different Dimensions, Nicole Hassoun and Anders Herlitz ; 6: Climate Change and Economic Self-Interest, Julie Nelson ; 7: Noncompliers' Duties, Anja Karnein ; 8: Divest-Invest: A Moral Case for Fossil Fuel Divestment, Alex Lenferna ; 9: Justice and Posterity, Simon Caney ; 10: Discounting and the Paradox of the Indefinitely Postponed Splurge, Matthew Rendall ; 11: The Controllability Precautionary Principle: Justification of a Climate Policy Goal under Uncertainty, Eugen Pissarskoi ; 12: The Social Cost of Carbon from Theory to Trump, Paul Kelleher ; 13: Long-term Climate Justice, John Nolt ; Appendix: Declaration on Climate Justice

Note: Contents Foreword by Richard Fortey ... vii Preface by A. Behrens ... ix Acknowledgements ... ix TANNER, J., BETTERTON, J., NELLER,R.&CRAIG, J. Introduction: aspects of the life and works of Sir Archibald Geikie ... 1 Geikie’s family history BETTERTON, J. The Geikie Archive at Haslemere Museum: family and professional material ... 7 CRIBB, S. J. Early life in Edinburgh and beyond: 1835–55 ... 27 TAYLOR, M. A. Autobiography and documentable fact in the family background and religious affiliation of Archibald Geikie (1835–1924) ... 39 Geikie’s friendships and professional relationships TAYLOR,M.A.‘Miller’s most important geological discovery’: Archibald Geikie (1835–1924) as pupil and memorialist of Hugh Miller (1802–56) ... 51 BUREK, C. V. Archibald Geikie: his influence on and support for the roles of female geologists ... 67 JOHNSTON, H. H. M. Forster Heddle: an intimate friendship ... 93 SORKHABI, R. Sir Archibald Geikie: the North American connections ... 113 SANDERS, A. J. A long life’s relationship: Archibald Geikie, Alexander Macmillan and his publishing house ... 139 Geikie as a field geologist BUTLER, R. W. H., MATTHEWS,S.J.&MORGAN, R. K. Geikie’sfield researches and theirgeological controversies ... 149 DEWEY, J. F. The Highland Controversy revisited: Geikie’s compounded blunder ... 179 SUMMERHAYES. C. P. Archibald Geikie and the Ice Age controversy ... 183 WORSLEY, P. Archibald Geikie as a glacial geologist ... 191 MORGAN, N. Geikie’s science in the cemetery ... 213 Unpublished Geikie material and archival resources BETTERTON, J. The Geikie Archive at Haslemere Educational Museum ... 223 BETTERTON, J. Unpublished manuscripts of Archibald Geikie ... 255 BETTERTON, J. Archival resources ... 317 Artistic family MORRISON, J. Archibald Geikie and landscape painting ... 319 SCOTT, H. E. The life and art of Walter Geikie (1795–1837) ... 337 Geological collections BENTON, M. J. Archibald Geikie and the Elgin reptiles ... 353 BETTERTON, J. Geikielite: an illustrated account of the co-type specimens ... 361 MENDUM,J.R.& HOWE, M. P. A. Geikie and the development of petrography, particularly in Scotland ... 367 A Scottish industry CRAIG,J.&UNDERHILL, J. R. Archibald Geikie’s role in the establishment of the Scottish oil shale industry ... 379 Index ... 401

Note: Contents OFTERDINGER, U., MACDONALD, A. M., COMTE, J.-C. & YOUNG, M. E. Groundwater in fracturedbedrock environments: managing catchment and subsurface resources–an introduction .....1 FOUCHÉ, O., YAO,TH. K., OGA, M.-S. Y. & SORO, N. Typology of hard rock ground waterswithin the Lower Sassandra, a main catchment in humid tropical West Africa .....................................11 COMTE, J.-C., OFTERDINGER, U., LEGCHENKO, A., CAULFIELD, J., CASSIDY,R.&MÉZQUITAGONZÁLEZ, J. A. Catchment-scale heterogeneity offlow and storage propertiesin a weathered/fractured hard rock aquifer from resistivity and magnetic resonance surveys: implications for groundwaterflow paths and the distribution of residence times ........................................................................35 VASSEUR,G.&LACHASSAGNE, P. Evaluation of the geothermal effects caused by the weatheringof crystalline rocks ....................59 MACDONALD,A.M.&DAVIES, J. Fractures in shale: the significance of igneous intrusions forgroundwaterflow .....................................71 DICKSON, N. E. M., COMTE, J.-C., KOUSSOUBE, Y., OFTERDINGER,U.S.&VOUILLAMOZ, J.-M.Analysis and numerical modelling of large-scale controls on aquifer structure andhydrogeological properties in the African basement (Benin, West Africa) .....................................................................................81 PARKER, B. L., CHAPMAN, S. W., GOLDSTEIN,K.J.&CHERRY, J. A. Multiple lines offieldevidence to inform fracture network connectivity at a shale site contaminated with densenon-aqueous phase liquids ..........................................................................101 STROEBEL, D. H., THIART,C.&DEWIT, M. Towards defining a baseline status of scarcegroundwater resources in anticipation of hydraulic fracturing in the Eastern Cape Karoo,South Africa: salinity, aquifer yields and groundwater levels ........................................129 BAIOCCHI, A., LOTTI, F., PISCOPO,V.&SAMMASSIMO, V. Hard-rock aquifer response topumping and sustainable yield of wells in some areas of Mediterranean Region ........................................147 NEWTON, C. J. Fracture and conduit controls on groundwater movementin the Carboniferous Limestone of the eastern Mendip Hills, Somerset, England .........................................................161 KENNEL,J.R.&PARKER, B. L. Acoustic televiewer amplitude data for porosity estimationwith application to porewater conversion ....177 BELLE, P., LACHASSAGNE, P., MATHIEU, F., BARBET, C., BRISSET,N.&GOURRY, J.-C.Characterization and location of the laminated layer within hard rock weathering profilesfrom electrical resistivity tomography: implications for water well siting ..............187 PARKER, B. L., BAIROS, K., MALDANER, C. H., CHAPMAN, S. W., TURNER, C. M.,BURNS, L. S., PLETT, J., CARTER, R.&CHERRY, J. A. Metolachlor dense non-aqueous phaseliquid source conditions and plume attenuation in a dolostone water supply aquifer ................................................................207 ADEKILE,D.&CARTER, R. James Robert Temple Hazell: A Pioneer of African Hydrogeology ...........................................................237 Index .....................................................................................245

Note: CONTENTS PREFACE 1 IASC Internal Development IASC Organization IASC Council IASC Executive Committee Secretariat ISIRA IASC Medal 2019 2 IASC Working Groups Cross-cutting Activities Launching of MOSAiC, an IASC Flagship Initiative Atmosphere Working Group (AWG) Cryosphere Working Group (CWG) Marine Working Group (MWG) Social and Human Working Group (SHWG) Terrestrial Working Group (TWG) 3 Arctic Science Summit Week 2018 POLAR2018: Where the Poles Come Together Upcoming ASSWs 4 Data and Observations#Arctic Data Committee (ADC) Sustaining Arctic Observing Networks (SAON) 5 Capacity Building IASC Fellowship Program Fellows’ Voices Overview of Supported Early Career Scientists

Note: Contents: Preface ; 1. Pragmatism and the policy sciences ; 2. The Chicago School of Pragmatism ; 3. Functions of the decision process ; 4. Functionalism and policy change ; 5. The unity of knowledge and policy ; 6. The roots of misinterpretation ; 7. Conclusions – rediscovering the policy sciences.

Note: Vectors, tensors, and fourier transforms Stress, strain, and seismic waves Reflection and transmission of plane waves Surface waves, head waves, and normal modes Waves in heterogeneous media Data transformations Synthetic seismograms Seismic migration Plane waves in anisotropic media Plane waves in anelastic media Answers to selected exercises

Note: Inhalt TEIL I Brave New World? 1 Die neue alte Welt der Virtualisierung 1.1 V2 1.2 Vorbemerkungen 1.2.1 Verwendete Formatierungen 1.2.2 Weiterführende Hinweise 1.2.3 Beispieldateien 1.3 Was dieses Buch sein/nicht sein soll 1.3.1 Was es sein soll 1.3.2 Was es nicht sein soll und nicht ist 1.4 Wie dieses Buch zu lesen ist 1.4.1 Grundsätzliches 1.4.2 Kapitel/Teile und Zielgruppen im groben Überblick 1.5 Welche Teile des Buchs sind neu, welche wurden stark überabeitet? 1.6 In welchen Kapiteln finde ich welche Themen? 1.6.1 Themen nach Abschnitten/Schlagworten mit grundlegenden Erklärungen 1.7 Verwendete Plattformen und Versionsspezifikationen 1.7.1 Vorbetrachtungen 1.7.2 Container-OS und die Zukunft 2 Container 2.1 Warum Container? 2.2 Microservices, Container und der pawlowsche Hund 2.2.1 Wie erkläre ich es meinem CEO? 2.2.2 Die neue Welt der Microservices: Admins, DevOps-und Container-Teams 2.2.3 Die neue Welt der Microservices: aus der Perspektive der CEOs/Entscheider 2.3 Continuous Delivery/Continuous Integration und DevOps 2.3.1 Semi- oder vollautomatisch:Continuous Integration/Continuous Delivery 2.3.2 CD/CI und das Big-Bang-Release-Problem 2.4 Continuous Delivery 2.4.1 Was verstehen wir darunter? 2.4.2 Continuous Delivery Pipelines 2.4.3 Commit-Stage 2.4.4 Acceptance-Test-Stage 2.4.5 Exkurs: Acceptance-Tests und Dreieinigkeit 2.4.6 Load/Capacity-, Security- und Exploration-Tests 2.4.7 Rollout/Go-Live 2.4.8 Die Gates 2.4.9 Fazit: Wo kann CD nutzbringend eingesetzt werden? 2.4.10 Jenkins-Integration in Kubernetes 2.5 DevOps: Gewaltenteilung oder Kooperation? 2.5.1 Grundsätzliche Betrachtungen 2.5.2 Vom DevOps-Paradigma/Hype zum Unwort 2.5.3 Kommunikationsblackouts im DevOps-Team 2.5.4 Das konkrete DevOps-Problem im klassischen Umfeld 2.5.5 »Works for me« und anderer Nonsens im DevOps-Business - und ein Ausweg? 2.5.6 BizDevOps - und noch eine Silbe TEIL II Single-Node Container-Systeme 3 Container-Engines und -Plattformen, Basicsund Konzepte 3.1 World of Tiers - Teil 1 3.2 Container-Basics 3.2.1 Namespaces, Security und Container-Konzepte 3.2.2 Enter Namespace - nsenter 3.2.3 Namespaces und Sicherheit? 3.3 VMs - obsolet durch Container? 3.3.1 Container vs. VM 3.3.2 Packungsdichte und Ressourcen 3.4 Wann sind Container sinnvoll? 3.5 Container-Engines/Container-Runtime und Komponenten im Überblick 3.5.1 Von LXC zu Docker 3.5.2 Docker 3.5.3 libcontainer, containerd und runC 3.5.4 runC, containerd und shim im Docker-Kontext 3.5.5 runC als eigenständiges Container-Tool 3.5.6 (cri-)containerd - Wirrwarr im Kubernetes-Kontext 3.5.7 LXD 3.5.8 CoreOS bzw. Container-Linux und Rocket/rkt 3.5.9 CRI-O 3.6 Überblick der Container-Formate 3.6.1 OCI -... Standardisierung? 3.6.2 Runtime Specs 3.6.3 Image-Format 3.6.4 Das BSI und die lieben Container 3.6.5 Fazit 3.7 Container: eine funktionale Übersicht 3.7.1 Aufbau eines Container-Hosts 3.7.2 Docker-Images 3.7.3 Anzahl der Layer 4 Docker 4.1 Docker-Versionen 4.1.1 Docker-Versionen, wichtige Meilensteine und Inkompatibilitäten 4.1.2 Docker-LTS-Versionen und die Enterprise Edition 4.1.3 DDC, CE, EEB, EES, EEA - und der beständige Wechsel im Docker-Land 4.1.4 Betrachtete Plattformen und Docker-Versionen 4.1.5 Funktionaler Überblick: Docker CU, dockerd, Registry 4.2 Docker-Installation 4.2.1 Paketnamen und Dependencies 4.2.2 Docker-Installation unter Ubuntu 18.04 LTS 4.2.3 Docker-Installation unter RHEL/CentOS ≥ 7.4 4.2.4 Docker-Version unter CaaSP 4.2.5 CaaSP- und BTRFS/Docker-Problematiken 4.2.6 CaaSP-spezifische Docker-Konfigurationsdateien 4.2.7 Installation der Commercially Supported Docker-Engine 4.2.8 Docker CE, EE 4.2.9 Storage-Driver-Nonsens unter Docker CE und EE 4.2.10 Distributionsunabhängige Installation von Docker 4.3 Deinstallation, Upgrade oder Umstellung auf andere Storage-Backends 4.3.1 Deinstallation 4.3.2 Upgrade 4.3.3 Umstellung des Storage-Backends 4.4 Docker und systemd-lntegration 4.4.1 systemd-Service-Units für Docker 4.5 Docker und Proxies 4.5.1 Docker-Daemon hinter einem Proxy betreiben 4.5.2 Docker-Client-Settings für Proxies (Docker ≥ 17.07) 4.5.3 Docker-Client- bzw. Image-Settings für Proxies (Docker ≤ 17.06) 4.6 Docker im Betrieb 4.6.1 Permanente Diensteinbindung 4.6.2 Lokale HA 4.6.3 Verbose Mode 4.6.4 Status-Überprüfung/Features 4.6.5 Docker-Systeminformationen 4.6.6 Docker-Daemon-Konfigurationsmöglichkeiten 4.6.7 Mögliche Startoptionen/Schalter des Docker-Daemons 4.6.8 Konfiguration per /etc/docker/daemon.json 4.6.9 Alternatives Docker-Verzeichnis als Konfigurationsbeispiel 4.6.10 Docker-CLI-Konfiguration 4.6.11 Docker-Plugins 4.7 Docker-Image-Management - Basics 4.7.1 Auszug der Docker-CLI-Subkommandos 4.7.2 CLI-Strukturen seit Docker 1.13 4.7.3 docker Container- und image-Subkommandos 4.7.4 Einfaches Image-Management 4.7.5 Docker-Namensräume und das Default-Registry-Problem 4.7.6 Docker-Images (unter docker.io) suchen 4.7.7 Image-Schema-Versionen 4.7.8 Offizielles CentOS-lmage von docker.io pullen 4.7.9 Lokal verfügbare Docker-Images listen und filtern 4.7.10 Meta-Informationen von lokalen Images abfragen 4.7.11 Images löschen 4.7.12 docker save & load Images 4.7.13 Dangling Images: The good and the bad 〈none〉:〈none〉 4.7.14 Build-History eines Images inspizieren 4.8 Trusted Images 4.8.1 Ein eigenes, generisches Trusted Basis-Image erzeugen 4.8.2 Gescriptete Image-Erzeugung (YUM Based) 4.8.3 Mikro-Image »from scratch« mit go 4.8.4 Red Hats Container Health Index 4.8.5 Mikro-Image einer Legacy-Applikation 4.8.6 Transformation von Legacy-Apps in Images 4.8.7 Images: grundlegende Security-relevante Betrachtungen 4.9 Betrieb und Management von Docker-Containern 4.9.1 Kurzübersicht der relevanten Docker-CLI-Kommandos 4.9.2 Neues »docker container«-Subkommando 4.9.3 docker history 4.9.4 Container starten-docker [Container] run 4.9.5 Docker-Registry, Image, Container run, lokaler Datastore -the Big Picture 4.9.6 (Random-)Container-Names und automatische Löschung (run -rm ) 4.9.7 Container-HA: automatische Restarts 4.9.8 docker [Container] run --readonly 4.9.9 Detached Container im Hintergrund starten 4.9.10 Auflisten von Container-Instanzen - docker ps 4.9.11 Starten und Stoppen existierender Container 4.9.12 docker [Container] rename 4.9.13 Container-Instanzen löschen: docker [Container] rm/prune 4.9.14 docker [Container] attach-Optionen 4.9.15 Befehle im laufenden Container ausführen: docker [Container] exec 4.9.16 docker [Container] create 4.9.17 Container-Instanzen exportieren und als Images importieren 4.9.18 Kopieren von Daten: Container zwischen Host 4.9.19 docker Checkpoint 4.10 Prozessverwaltung im Container 4.10.1 docker top 4.10.2 Prozesse im Container beenden 4.10.3 docker wait und Return/Exit-Codes 4.10.4 Den Container und alle in ihm laufenden Prozesse temporär pausieren 4.10.5 Live-Events mit docker events 4.11 Container-Capabilities/Privilegien 4.11.1 Prüfung und Auslesen der Capabilities 4.12 Docker Logging 4.12.1 Log-Driver 4.12.2 Zentralisierte Logs für Container-Instanzen 4.12.3 Container-Logs mit docker logs 4.13 Einfache Applikationen im Container 4.13.1 Vorbetrachtungen 4.13.2 Installation von Applikationen im gestarteten Container 4.14 Image-Modifikationen committen und taggen 4.14.1 Commit- Beispiel 4.14.2 Nachträgliches Taggen von Images 4.14.3 Exkurs - die :latest-Problematik 4.15 Layer-Strukturen 4.15.1 Verzeichnisstrukturen auf dem lokalen Docker-Host 4.15.2 Was ist beim letzten Commit passiert, wo liegt der neue Layer? 4.15.3 IDs der RW-Layer von gestarteten Containern und Querbezüge 4.15.4 Layer-Analyse und Flattening (Zusammenfassung) 4.16 Limitierte Container-Instanzen 4.16.1 docker [Container] stats 4.16.2 Mögliche Limitierungen 4.16.3 Beispiele aus der Praxis für limitierte Container-Instanzen 4.16.4 Nachträgliche Limitierung 4.17 Docker-Images erstellen (docker build) und verwalten 4.17.1 Best-Practice/File-Hierarchie 4.17.2 docker [image] build 4.17.3 Dockerfile-Direktiven/Instruktionen 4.17.4 Build-Anwendungsbeispiel: Apache-Container 4.17.5 Bu

Note: Contents 1 The Conifers Conifer Taxonomy Geographic Distribution and Biogeography Life History Ecological Tolerance Conifer Mating System, Life Cycle, and Reproduction The Largest, Tallest, and Oldest Organisms on the Planet Genetic Diversity Summary Part I Genomes 2 Genomes: Classical Era The Beginnings of Genome Research in Conifers Chromosome Number and Polyploidy Genome Size Karyotype Analysis Genome Content Organelle Genomes: Chloroplast and Mitochondria Size and Structure Gene Content Inheritance Variation Summary 3 Gene and Genome Sequencing in Conifers: Modern Era A Short History of DNA Sequencing in Conifers Expressed Sequence Tag Sequencing Gene Discovery Using Next-Generation Sequencing Conifer Reference Genome Sequences Sequencing, Assembly, and Annotation Strategies Summary Statistics of Published Conifer Genome Sequences Discovery of the Noncoding DNA Content of Conifer Genomes Discovery of the Number and Types of Coding Genes in Conifers Chloroplast and Mitochondrial Genome Sequencing Summary 4 Noncoding and Repetitive DNA Introduction Ribosomal DNA Tandem Repeats: Satellite, Minisatellite, and Microsatellite DNA Transposons and Retrotransposons Pseudogenes Summary 5 Gene Structure and Gene Families A Short History of Early Conifer Gene Sequencing Wood-Forming Genes Vegetative Growth Genes Floral Genes Light-Regulated Genes Defense-Related Genes Disease-Resistant Genes Summary 6 Gene Expression and the Transcriptome A Short History of Gene Expression Studies in Conifers Wood Formation Biotic Factors Abiotic Factors Seasonal Patterns Epigenetic Control of Gene Expression Summary 7 Proteomics and Metabolomics A Short History of Proteomic and Metabolomic Research in Conifers Wood Formation Biotic Factors Abiotic Factors Seed Development and Somatic Embryogenesis Summary Part II Variation 8 Phenotypic Variation in Natural Populations Introduction Definitions Terms for Describing the Identity of Experimental Plant Materials: Provenance, Population, Seed Source, and Accession Terms for Describing Patterns of Genetic Variation on the Natural Landscape: Cline, Race, and Ecotype Historical Perspectives Application of Common Garden Experiments Experimental Approaches and Analytical Methods Experimental Approaches Analytical Methods Dependent and Independent Variables Common Garden Testing Literature Amount, Distribution, and Pattern of Genetic Variation in Phenotypic Traits of Conifers Amount and Distribution of Genetic Variation Patterns of Variation Are Local Sources Best? Case Studies Pseudotsuga menziesii (Douglas-fir) Pinus Summary 9 Neutral Genetic Variation Introduction and Background Molecular Markers Used in the Study of Neutral Variation Three Conifer Genomes Purpose and Applications of Neutral Genetic Variation Studies General Diversity Results: Allozymes Variation Within Species Variation Within Populations Distribution of Variation Among Populations (Based on Polymorphic Loci only) Differences in Measures of Diversity Among Conifer Genera and Families Allozyme Summary General Diversity Results: Molecular Markers Organelle Markers Nuclear Markers Population Differentiation Factors Affecting Amount and Distribution of Genetic Variation Mating Systems Gene Flow Genetic Drift Case Studies Diversity, Population Structure, and Biogeography Conservation and Mating Systems Effects of Forest Management and Tree Improvement on Genetic Diversity Summary 10 Adaptive Genetic Variation A Short History of Adaptive Genetic Variation in Conifers General Trends in Patterns of Adaptive Genetic Diversity in Conifers Observed from Neutrality and FST Outlier Tests Detection of Nonneutral Genes in a Few Conifer Species Pinus taeda Pinus sylvestris Pinus mugo, P. uncinata, and P. uliginosa Pinus pinaster and P. halepensis Pinus radiata Pinus contorta Pinus massoniana and P. hwangshanensis Pinus lambertiana and Other Subgenus Strobus Species Pseudotsuga menziesii Larix Species Abies Species Picea Species Cryptomeria japonica and Taxodium distichum Summary 11 Quantitative Trait Dissection A Short History of Complex Trait Dissection in Conifers Pinus taeda Pinus elliottii Pinus radiata Pinus sylvestris Pinus pinaster Pinus contorta Pseudotsuga menziesii Picea ssp. Larix ssp. Cryptomeria japonica Summary 12 Landscape Genomics A Short History of Landscape Genomics Studies in Conifers Pinus Subgenus Pinus Pinus Subgenus Strobus Picea Abies and Larix Summary 13 Conservation Genetics A Brief Introduction to Conservation Genetics in Forestry Fragmentation Habitat Loss Forest Practice Disease Insects Climate Change Summary 14 Forest Health Introduction The Growing Relevance of Forest Health Genetic Variation in Forest Health Traits Insects and Disease Abiotic Stress Mechanisms of Resistance and Tolerance Case Studies Resistance to Pissodes strobi (White Pine Weevil) Found in Picea sitchensis (Sitka spruce) Resistance to an Introduced Pathogen (Phytophthora lateralis) in Chamaecyparis lawsoniana (Port-Orford-cedar) Resistance to Stem Rusts in North American White Pines and Southern Yellow Pines Summary Part III Evolution 15 Hybridization and Introgression Introduction Definitions and Background Definitions Background Approaches to Identifying Hybrids and Quantifying Levels of Introgression Evolving Insights Case Studies of Introgressive Hybridization in Conifers Pinus contorta (Lodgepole Pine) x P. banksiana (Jack Pine) Picea sitchensis (Sitka Spruce) x P. glauca (White Spruce) and P. engelmannii (Engelmann Spruce) x P. glauca Pinus taeda (Loblolly Pine) x P. echinata (Shortleaf Pine) Hybrid Speciation Artificial Hybrids Summary 16 Paleobotany, Taxonomic Classification, and Phylogenetics Introduction Paleobotany Taxonomic Classification Cupressus Pinus Phylogenetics Character Selection The Conifers and Related Gymnosperms Araucariaceae Cupressaceae Pinaceae Podocarpaceae Sciadopityaceae Taxaceae Summary 17 Comparative Genomics Introduction to Comparative Genomics Comparative Mapping Comparative Gene Content and Transcriptomics Comparative Genome Sequences Summary 18 Historical Perspective and Future Directions in Forest Genetics and Genomics Historical Perspective Current Situation Future Directions Primary Commercial Species (Group A) Appendix 1 Appendix 2 References Index

Note: Zugl.: Marburg (Lahn), Univ., Habil.-Schr., 2004 u.d.T.: Gutmann, Mathias: Die Medialität des Erfahrens

Note: Inhaltsverzeichnis 1 Das Dilemma 1.1 Die Welt verändert sich 1.2 Die Organisation im gesellschaftlichen Wandel 1.3 Teilzeit-Führung als Herausforderung 1.4 Psychologische Aspekte 1.4.1 Psychologische Modelle und Theorien 1.4.2 Persönlichkeitsentwicklung und Resilienz 1.4.3 Selbstcoaching 1.5 Betriebswirtschaftliche Aspekte (Makroebene) Literatur 2 Das Umfeld 2.1 Der Übergang zur Teilzeit-Führung braucht Instabilität 2.2 Digitalisierung 2.3 Agilität; Das Serum-Prinzip Literatur 3 Die Führung 3.1 Historische Modelle und aktueller Status 3.2 Neue Führung braucht neue Führungstypen (np-Studie) 3.2.1 Fünf Führungstypen 3.2.2 Roadmap für die Entwicklung „guter Führung“ 3.3 Arbeitskultur im Wandel 3.4 Führung in Vernetzung und Komplexität Literatur 4 Kultur in ihren unterschiedlichen Facetten 4.1 Kultur als Begriff 4.2 Untemehmenskultur 4.3 Wie sieht eine (Organisations-) Kultur für Teilzeit-Führung aus? Literatur 5 Die Theorie (der Teilzeit-Führung) 5.1 Arbeitszeit wird kein Frauenthema bleiben 5.2 Teilzeit-Führung - eine Begriffsdefinition 5.3 Aktueller Forschungsstand 5.4 Modelle der Teilzeit-Führung 5.4.1 Vollzeitnahe Teilzeitarbeit 5.4.2 Kadermodell 5.4.3 Top Sharing 5.4.4 Job/Top Splitting 5.5 Erfolgreiche Ansätze zur Teilzeit-Führung in ausgewählten Unternehmen 5.5.1 elbdudler GmbH - Vollzeitnahe Teilzeitarbeit 5.5.2 DATEV eG - Diverse Modelle der Teilzeit-Führung 5.5.3 Commerzbank AG - Top Sharing 5.5.4 Robert Bosch GmbH - Vollzeitnahe Teilzeitarbeit 5.5.5 Trumpf GmbH & Co. KG - Teilzeit Invest 5.6 Erfolgsfaktoren der Teilzeit-Führung 5.7 Grenzen der Führung in Teilzeit Literatur 6 Generation Y - Neue Ansprüche an Führungskräfte und Arbeitgeber 6.1 Jede Generation hat eigene Merkmale 6.2 Erwartungen an einen Arbeitgeber 6.3 Anforderungen an Arbeitszeitmodelle Literatur 7 Die Methode 7.1 Systemaufstellung: Alles Humbug oder nützliches Instrument? 7.1.1 Vorbereitung und Ausgangspunkt 7.1.2 Phase 1: Führungskraft mit Teilzeitoption prototypisch 7.1.3 Phase 2: Führungskraft mit Teilzeitoption in einem mittelständischen Maschinenbauuntemehmen 7.1.4 Phase 3: Führungskraft mit Teilzeitoption in Schweden 7.2 Ergebnisse und Erkenntnisse Literatur 8 Die Herausforderung 8.1 Kultur sichtbar machen 8.1.1 Das Interview- und Analysewerkzeug „nextexpertizer“ 8.1.2 Die vierstündige Übung von Ed Schein 8.2 Führungsverständnis reflektieren 8.3 Wie wir reden und was wir meinen (Kommunikation und Betriebsklima) 8.3.1 Vertrauen 8.3.2 Lösungsorientierung 8.3.3 Metakommunikation 8.3.4 Besprechungsroutinen 8.4 Organisationsstruktur unter die Lupe nehmen 8.5 Kreativität ins Unternehmen bringen 8.6 Die Personalabteilung aufmöbeln (HR 2020) 8.6.1 Hürden überwinden 8.6.2 Pilotprojekte - wer nicht wagt 8.6.3 Beteiligte bestärken und beraten Literatur 9 Die Lösung 9.1 Das Projekt „Augenhöhe" 9.2 Buurtzorg 9.3 Voraussetzungen für Teilzeit-Führung schaffen 9.4 Kollektive Lösungsfindung 9.4.1 Open Space 9.4.2 nextmoderator® 9.5 Vertrauen schaffen 9.6 Mut zur Entscheidung Literatur 10 Der Ausblick Sachverzeichnis

Note: Dissertation, Gottfried Wilhelm Leibniz Universität Hannover, 2019 , 1. Introduction 1.1. Research Objectives 1.2. Outline and Structure of the Thesis 2. Theoretical Background 2.1. Introduction 2.2. SAR Imaging 2.2.1. SAR Image Distortions 2.2.2. SAR Imaging Modes 2.2.3. SAR Missions 2.3. SAR Interferometry 2.3.1. InSAR Workflow 2.3.2. InSAR Decorrelation 2.3.3. Errors in InSAR 2.3.4. Examples of Interferograms 2.3.5. Decomposition of Line-of-Sight Measurements 2.4. Multi Temporal InSAR 2.4.1. Scattering Mechanisms in SAR Images 2.4.2. Interferogram Stacking 2.4.3. Persistent Scatterer InSAR 2.4.4. Small Baseline InSAR 2.5. Analysis of Displacement Time Series 2.5.1. Continuous Wavelet Transform 2.5.2. Cross Wavelet Transform 2.5.3. Application of CWT and XWT to InSAR Time Series 3. Methodological Contribution 37 3.1. Introduction 3.2. Challenges in Large-scale InSAR 3.3. Proposed Method 3.3.1. Interferogram Formation 3.3.2. Adaptive Correction of Interferograms 3.3.3. Estimating the Displacement Rate 3.3.4. Estimating the Time Series of Displacement 4. InSAR Monitoring of Localized Landslide in Taihape, New Zealand 4.1. Abstract 4.2. Introduction 4.3. Study Area 4.4. Methods 4.4.1. InSAR Measurement 4.4.2. Ancillary Data 4.4.3. Cause-Effect Analysis 4.5. Results 4.5.1. Small-baseline Interferograms 4.5.2. Time-series Results 4.6. Discussion 4.6.1. Suitability of InSAR Measurements for Monitoring the Taihape Landslide 4.6.2. Interpretation of InSAR Results 4.6.3. Comparison with Ground Truth 4.6.4. Comparison with Rainfall and Groundwater Level 4.7. Conclusion 4.8. Acknowledgments 4.9. Supplementary Materials 5. InSAR Measurement of Regional Land Subsidence in Tehran, Iran 5.1. Abstract 5.2. Introduction 5.3. Study Area and Problem Description 5.4. Datasets 5.4.1. SAR Data 5.4.2. Leveling 5.4.3. Groundwater Level 5.5. Methods 5.5.1. Multi-temporal InSAR Analysis 5.5.2. Merging InSAR Time Series 5.5.3. Cause-Effect Analysis 5.6. Results 5.6.1. Southwest of Tehran 5.6.2. IKA Airport 5.6.3. Varamin County 5.6.4. Time Series of Displacement 5.6.5. Accuracy, Precision and Consistency Assessments 5.7. Discussion 5.7.1. Structural Control of the Displacement 5.7.2. Comparison with Groundwater 5.7.3. Elastic vs. Inelastic Compaction 5.8. Conclusion 5.9. Acknowledgments 5.10. Supplementary materials 5.10.1. Significance of Tropospheric Delay 5.10.2. Decomposition of LOS Measurement 5.10.3. Under/Overestimation of Displacement Rates 6. Sentinel-1 InSAR Measurement of Anthropogenic Deformation in Germany 6.1. Summary 6.2. Introduction 6.3. Sentinel-1 InSAR Processing 6.4. Large-scale Sentinel-1 Processing 6.5. Anthropogenic Ground Motion in Berlin 6.6. Mining-induced Deformation in Leipzig 6.7. Conclusions and Prospect 6.8. Acknowledgements 7. Subsequent Work: Measurement of Localized Deformations over Extensive Areas 7.1. Introduction 7.2. SAR Datasets 7.3. Sentinel-1 Interferograms 7.4. Corrected Interferograms 7.5. Displacement Maps and Time Series 7.6. Discussion 7.7. Conclusion 8. Cooperation Works 8.1. Quantifying Land Subsidence in the Rafsanjan Plain, Iran Using InSAR Measurements 8.1.1. Abstract 8.1.2. Author Contribution 8.2. Characterizing Post-construction Settlement of Masjed-Soleyman Dam Using TerraSAR-X SpotLight InSAR 8.2.1. Abstract 8.2.2. Author Contribution 8.3. InSAR Observation of the 18 August 2014 Mormori (Iran) Earthquake 8.3.1. Author Contribution 9. Summary and Future Work 9.1. Future works , Zusammenfassung in Englisch und Deutsch Seite 3-6

Note: Dissertation, Gottfried Wilhelm Leibniz Universität Hannover, 2019 , Contents Declaration Abstract Zusammenfassung List of Figures List of Tables Abbreviation 1 Introduction 1.1 Motivation of the study 1.2 Proposal and content 2 On the application of TLS in deformation monitoring 2.1 Fundamentals of TLS 2.1.1 Range measurement system 2.1.2 Beam deflection system 2.2 Error sources for TLS measurements 2.2.1 Influence factors for the errors 2.2.2 State of the art in TLS calibration 2.3 Deformation monitoring with TLS measurements 2.3.1 Design of measurement scheme 2.3.2 Data collection 2.3.3 Data pre-processing 2.3.4 General methodology in TLS-based deformation monitoring 3 The influence of a simplified stochastic model on a congruence based deformation analysis 3.1 Modelling the deformation 3.1.1 Conventional deformation model (Descriptive model) 3.1.2 Advanced deformation model (Causal model) 3.2 Hypothesis test for congruency 3.3 Influence of simplified VCMs on the congruency test 4 On the stochasticity of TLS measurement 4.1 State of the art for the stochastic models of TLS measurements 4.2 Challenge of specifying variance-covariance values 4.3 Statistical evaluation of stochastic model 5 Approximating the 3D point clouds with B-spline models for deformation monitoring 5.1 State of the art on the approximation of 3D point clouds 5.2 B-spline approximation in a linear Gauss-Markov model 5.3 Model selection methodology based on hypothesis testing 5.4 Comparison between B-splines and polynomial approximation 6 Conclusion and Outlook Contributions of Authors Paper 1 Paper 2 Paper 3 Paper 4 Bibliography Curriculum Vitae Acknowledgement , Zusammenfassung in Englisch und Deutsch

Note: Contents Additives and Chemicals in Plastics / Anthony L. Andrady and Nepali Rajapakse Food Containers and Packaging Materials as Possible Source of Hazardous Chemicals to Food / Evangelia Manoli and Dimitra Voutsa Release of Additives and Monomers from Plastic Wastes / Charita S. Kwan and Hideshige Takada Degradation of Various Plastics in the Environment / Kalliopi N. Fotopoulou and Hrissi K. Karapanagioti Occurrence of Marine Litter in the Marine Environment: A World Panorama of Floating and Seafloor Plastics / Christos Ioakeimidis, François Galgani, and George Papatheodorou Sources, Distribution, and Fate of Microscopic Plastics in Marine Environments / Richard C. Thompson Nature of Plastic Marine Pollution in the Subtropical Gyres / Marcus Eriksen, Martin Thiel, and Laurent Lebreton Hazardous Chemicals in Plastics in Marine Environments: International Pellet Watch / Rei Yamashita, Kosuke Tanaka, Bee Geok Yeo, Hideshige Takada, Jan A. van Franeker, Megan Dalton, and Eric Dale Sorption of Hydrophobic Organic Compounds to Plastics in the Marine Environment: Equilibrium / Satoshi Endo and Albert A. Koelmans Sorption of Hydrophobic Organic Compounds to Plastics in the Marine Environment: Sorption and Desorption Kinetics / Hrissi K. Karapanagioti and David Werner Biofilms on Plastic Debris and Their Influence on Marine Nutrient Cycling, Productivity, and Hazardous Chemical Mobility / Tracy J. Mincer, Erik R. Zettler, and Linda A. Amaral-Zettler Ingestion of Plastics by Marine Organisms / Peter G. Ryan Transfer of Hazardous Chemicals from Ingested Plastics to Higher-Trophic-Level Organisms / Kosuke Tanaka, Rei Yamashita, and Hideshige Takada The Role of Plastic Debris as Another Source of Hazardous Chemicals in Lower-Trophic Level Organisms / Chelsea M. Rochman Conclusions of “Hazardous Chemicals Associated with Plastics in Environment” / Hrissi K. Karapanagioti and Hideshige Takada Erratum to: Food Containers and Packaging Materials as Possible Source of Hazardous Chemicals to Food / Evangelia Manoli and Dimitra Voutsa Index

Note: Contents 1 The Ecology of Browsing and Grazing II / Iain J. Gordon and Herbert H. T. Prins 2 The Palaeontology of Browsing and Grazing / Juha Saarinen 3 The Paleoecological Impact of Grazing and Browsing: Consequences of the Late Quaternary Large Herbivore Extinctions / John Rowan and J. T. Faith 4 Morphological and Physiological Adaptations for Browsing and Grazing / Daryl Codron, Reinhold R. Hofmann, and Marcus Clauss 5 Feeding Ecology of Large Browsing and Grazing Herbivores / Jan A. Venter, Mika M. Vermeulen, and Christopher F. Brooke 6 Population Dynamics of Browsing and Grazing Ungulates in the Anthropocene / Christian Kiffner and Derek E. Lee 7 Community Dynamics of Browsing and Grazing Ungulates / Charudutt Mishra, Munib Khanyari, Herbert H. T. Prins, and Kulbhushansingh R. Suryawanshi 8 Weather and Climate Impacts on Browsing and Grazing Ungulates / Randall B. Boone 9 Impacts of Browsing and Grazing Ungulates on Soil Biota and Nutrient Dynamics / Judith Sitters and Walter S. Andriuzzi 10 Effects of Grazing and Browsing on Tropical Savanna Vegetation / Frank van Langevelde, Claudius A. D. M. van de Vijver, Herbert H. T. Prins, and Thomas A. Groen 11 Impacts of Browsing and Grazing Ungulates on Plant Characteristics and Dynamics / Autumn E. Sabo 12 Impacts of Browsing and Grazing Ungulates on Faunal Biodiversity / Krisztián Katona and Corli Coetsee 13 Interactions Between Fire and Herbivory: Current Understanding and Management Implications / Izak P. J. Smit and Corli Coetsee 14 Managing Browsing and Grazing Ungulates / Richard W. S. Fynn, David J. Augustine, and Samuel D. Fuhlendorf 15 The Ecology of Browsing and Grazing in Other Vertebrate Taxa / Iain J. Gordon, Herbert H. T. Prins, Jordan Mallon, Laura D. Puk, Everton B. P. Miranda, Carolina Starling-Manne, René van der Wal, Ben Moore, William Foley, Lucy Lush, Renan Maestri, Ikki Matsuda, and Marcus Clauss 16 Browsers and Grazers Drive the Dynamics of Ecosystems / Iain J. Gordon and Herbert H. T. Prins Index

Note: Contents Part I Biomaterials 1 Biomaterials and Biological Materials 1.1 Definitions and History: Biomaterial and Biological Material 1.2 Classification of Biomaterials 1.3 Conclusions References Part II Biomineralization and Biominerals 2 Biominerals 2.1 Biominerals of Marine Invertebrates Origin 2.1.1 Calcium-Based Biominerals 2.1.2 Magnesium-Based Biominerals 2.1.3 Barite-Based Biominerals 2.1.4 Fe-Based Biominerals 2.1.5 Vanadium (Biomineral?) 2.1.6 Strontium-Based Biominerals 2.1.7 Boron 2.1.8 Titanium-Based Biominerals 2.1.9 Copper-Based Biominerals 2.1.10 Zinc-Based Biominerals 2.1.11 Manganese Oxides 2.1.12 Germanium-Based Biominerals 2.1.13 Silica-Based Biominerals 2.2 Conclusion References 3 Biomineralization 3.1 Conclusion References 4 The Circle: Biomineralization - Demineralization - Remineralization in Nature 4.1 Principles of Demineralization: Isolation of Organic Matter 4.2 Conclusion References Part III Biocomposites and Biomineralized Structures 5 Hierarchical Biological Materials 5.1 Cellular Structures 5.2 Honeycomb Matrices 5.3 Siliceous Honeycombs in Diatoms 5.4 Conclusion References 6 Paleodyction- Enigmatic Honeycomb Structure 6.1 Conclusion References 7 Sponge Biosilica- Perfectionism in Glass 7.1 Glass Sponges (Hexactinellida) 7.2 Demosponges (Demospongiae) 7.3 Lithistid Sponges 7.4 Cellular Structures in Glass Sponges 7.5 Spiculogenesis 7.5.1 Chitin- and Collagen-Based Silicification Versus Silicatein- Based Way 7.6 Conclusion References 8 Interspace Mineralization Within Bilayered Organic Matrix of Deep-Sea Bamboo Coral (Anthozoa: Gorgonacea: Isididae) 8.1 Conclusion References 9 Living Bone Implants of Bamboo Corals Origin 9.1 Conclusion References 10 Spicular Structures in Molluscs 10.1 Spicules of Nudibranchia 10.2 Spicules in Aplacophora 10.3 Spicules in Polyplacophora (Chitons) 10.4 Onchidiella Spicules 10.5 Conclusion References Part IV Non-mineralized Structures 11 Enigmatic Structural Protein Spongin 11.1 Spongin as a Halogenated Scleroprotein 11.2 Spongin as a Collagenous Protein 11.2.1 The Basal Spongin 11.3 Role of Spongins in Natural Environments 11.4 Mechanical Properties of Spongin-Based Skeletons 11.5 Spongin as a Three Dimensional Scaffold for Tissue Engineering 11.6 Conclusion References 12 Gorgonin 12.1 Introduction into the History and Chemistry of Gorgonin 12.2 Mechanical Properties of Gorgonin-Based Skeletons 12.3 Gorgonin-Based Skeletons and Paleooceanographic Dynamics 12.4 Conclusion References 13 Antipathin 13.1 Brief Introduction in to Antipatharia 13.2 Chemistry of Black Corals 13.3 Material Properties of Antipathin-Based Skeletons 13.4 Conclusion References 14 Rubber-Like Bioelastomers of Marine Origin 14.1 Hinge Ligament 14.2 Chemistry of the Hinge Ligament 14.3 Structural Features of Hinge Ligaments 14.4 Conclusion References 15 Capsular Bioelastomers of Whelks 15.1 Conclusion References 16 Byssus: From Inspiration to Development of Novel Composites 16.1 Byssus: An Ancient Marine Biological Material 16.2 Why Molluscs Produce Different Kinds of Byssus 16.3 Chemistry of Byssus and Related Proteins 16.3.1 (mefp-2) Mytilus Edulis Adhesive Protein-2 16.3.2 (mefp-3) Mytilus edulis Adhesive Protein-3 16.3.3 (mefp-4) Mytilus Edulis Adhesive Protein-4 16.3.4 (mefp-5) Mytilus edulis Adhesive Protein-5 16.4 Biomechanics and Materials Properties of Byssus 16.5 Conclusion References 17 Abductin 17.1 Conclusion References 18 Resilin 18.1 Conclusion References 19 Adhesion Systems in Echinodermata 19.1 Sea Urchins 19.2 Sea Cucumbers 19.3 Sea Stars 19.4 Conclusion References 20 Adhesive Gels of Marine Gastropods (Mollusca) Origin 20.1 Conclusion References 21 Biocements 21.1 Barnacles: Crustaceans That Mimic Molluscs 21.2 “First-Kiss” Adhesion Behaviour in Barnacles 21.3 Barnacles Cements 21.4 Conclusion References 22 Halogenated Biocomposites 22.1 Polychaetes Jaws 22.2 Crustaceans Alternative Cuticles 22.3 Conclusion References 23 Chitin-Protein-Based Composites 23.1 The Highly Flexible Setae of Hairy Lobster Kiwa hirsuta 23.2 Shinkaia Crosnieri 23.3 Structural Features of Eriocheir sinensis Setae 23.4 Conclusion References Part V Macromolecular Biopolymers 24 Chitin 24.1 Chitinous Scaffolds of Marine Sponges Origin 24.2 Biological Features of Chitin 24.3 Chitin Scaffolds for Application in Tissue Engineering 24.4 Conclusion References 25 Collagens from Marine Invertebrates 25.1 Poriferan Collagens 25.2 Coelenterates Collagens 25.3 Molluscs Collagens 25.4 Echinoderm Collagens 25.5 Conclusion References Part VI From Extreme Biomineralization to Extreme Biomimetics 26 Extreme Biomimetics 26.1 Templates for Extreme Biomimetics 26.2 Conclusion References 27 Epiloque 27.1 Biomedicine and Bioengineering 27.2 Marine Biomaterials and Microplastic References Index

Note: Contents: The Risk to Ecosystems and Ecosystem Services: A Framework for the Atlas of Ecosystem Services ; The Ecosystem Service Concept: Linking Ecosystems and Human Wellbeing ; The Link Between Diversity, Ecosystem Functions, and Ecosystem Services ; Embracing Community Resilience in Ecosystem Management and Research ; Risk and Uncertainty as Sources of Economic Value of Biodiversity and Ecosystem Services ; Taking Social Responsibility in Using Ecosystem Services Concepts: Ethical Issues of Linking Ecosystems and Human Well-Being ; Introduction to Part II: Drivers and Their Risks for Ecosystems, Their Functions, and Services ; Scaling Sensitivity of Drivers ; The Evidence for Genetic Diversity Effects on Ecosystem Services ; Using Dynamic Global Vegetation Models (DGVMs) for Projecting Ecosystem Services at Regional Scales ; Remote Sensing Measurements of Forest Structure Types for Ecosystem Service Mapping ; Mapping Land System Archetypes to Understand Drivers of Ecosystem Service Risks ; Assessment of Soil Functions Affected by Soil Management ; Mediterranean Wetlands: A Gradient from Natural Resilience to a Fragile Social-Ecosystem ; Vulnerability of Ecosystem Services in Farmland Depends on Landscape Management ; Provisioning Ecosystem Services at Risk: Pollination Benefits and Pollination Dependency of Cropping Systems at the Global Scale ; Minimising Risks of Global Change by Enhancing Resilience of Pollinators in Agricultural Systems ; Drivers of Risks for Biodiversity and Ecosystem Services: Biogas Plants Development in Germany ; European Energy Governance Landscapes: Energy-Related Pressures on Ecosystem Services ; Wind Power Deployment as a Stressor for Ecosystem Services: A Comparative Case Study from Germany and Sweden ; Selected Trade-Offs and Risks Associated with Land Use Transitions in Central Germany ; New EU-Level Scenarios on the Future of Ecosystem Services ; The Rural-to-Urban Gradient and Ecosystem Services ; How to Reconcile the Ecosystem Service of Regulating the Microclimate with Urban Planning Projects on Brownfields? The Case Study Bayerischer Bahnhof in Leipzig, Germany ; Urban Green Infrastructure in Support of Ecosystem Services in a Highly Dynamic South American City: A Multi-Scale Assessment of Santiago de Chile ; Climate Regulation by Diverse Urban Green Spaces: Risks and Opportunities Related to Climate and Land Use Change ; Climate Change as Driver for Ecosystem Services Risk and Opportunities ; Capacity of Ecosystems to Degrade Anthropogenic Chemicals ; Impacts of Nitrogen Deposition on Forest Ecosystem Services and Biodiversity ; Ecosystem Services from Inland Waters and Their Aquatic Ecosystems ; Groundwater Ecosystems and Their Services: Current Status and Potential Risks ; Drinking Water Quality at Risk: A European Perspective ; Pesticide Effects on Stream Ecosystems ; How Good Are Bad Species? ; Alien Planktonic Species in the Marine Realm: What Do They Mean for Ecosystem Services Provision? ; Invasion of the Wadden Sea by the Pacific Oyster (Magallana gigas): A Risk to Ecosystem Services? ; International Trade and Global Flows of Ecosystem Services ; Introduction to Part III: Trade-Offs and Synergies Among Ecosystem Services ; Trade-Offs and Synergies Between Biodiversity Conservation and Productivity in the Context of Increasing Demands on Landscapes ; Climate Change Induced Carbon Competition: Bioenergy Versus Soil Organic Matter Reproduction ; Removal of Agricultural Residues from Conventional Cropping Systems ; Shrinking Cities and Ecosystem Services: Opportunities, Planning, Challenges, and Risks ; Spatial Patterns of Ecosystem Service Bundles in Germany ; Indicators of Ecosystem Services for Policy Makers in the Netherlands ; The Montérégie Connection: Understanding How Ecosystems Can Provide Resilience to the Risk of Ecosystem Service Change ; Synchronized Peak Rate Years of Global Resources Use Imply Critical Trade-Offs in Appropriation of Natural Resources and Ecosystem Services

Note: Contents: Introduction -- Answer -- Creating a technology -- Scientific origins -- US technology push -- Building a market -- Japanese niche markets -- German demand pull -- Making it cheap -- Chinese entrepreneurs -- Local learning -- Doing it again -- Solar as a model to follow -- Applying the model -- Accelerating innovation.

Note: Introduction to the hydrologic cycle and drought -- Global hydroclimatology -- Drought in the climate system -- Drought and hydroclimate variability in the Holocene -- Climate change and drought -- Case studies: the Dust Bowl and the Sahel drought -- Desertification and land degradation -- Groundwater and irrigation.

Note: Part I. Physical Properties of Unconventional Reservoirs: 1. Introduction; 2. Composition, fabric, elastic properties and anisotropy; 3. Strength and ductility; 4. Frictional properties; 5. Pore networks and pore fluids; 6. Flow and sorption; 7. Stress, pore pressure, fractures and faults; Part II. Stimulating Production from Unconventional Rservoirs: 8. Horizontal drilling and multi-stage hydraulic fracturing; 9. Reservoir seismology; 10. Induced shear slip during hydraulic fracturing; 11. Geomechanics and stimulation optimization; 12. Production and depletion; Part III. Environmental Impacts and Induced Seismicity: 13. Environmental impacts and induced seismicity; 14. Managing the risk of injection-induced seismicity; References; Index.

Note: Introduction: networks and human behavior -- Power and influence: central positions in networks -- Diffusion and contagion -- Too connected to fail: financial networks -- Homophily: houses divided -- Immobility and inequality: network feedback and poverty traps -- The wisdom and folly of the crowd -- The influence of our friends and our local network structures -- Globalization: our changing networks.

Note: Contents: 1. Einleitung ; 2. Modernes Personalmanagement in Organisationen ; 3. Management von und in Hochschulen ; 4. Akademisches Personalmanagement ; 5. Strategisch-orientiertes akademisches ; Personalmanagement ; 6. Zwischenfazit

Note: Zugleich: Dissertation, Christian-Albrechts-Universität zu Kiel, 1999 , INHALTSVERZEICHNIS 1. Einleitung 1.1 Kenntnisstand und offene Fragen 1.2 Fragestellung und Ziele dieser Arbeit 2. Umweltbedingungen in den Arbeitsgebieten 2.1 Hydrographie, Eisverhältnisse und NAO 2.2 Zur Variation von Wassertiefe und Breite der Dänemarkstraße und zur Vereisung Islands während des letzten Glazials 3. Methoden 3.1 Auswahl der Kernstationen 3.2 Probennahme und Analysen (Übersicht) 3.3 Zur Rekonstruktion von Paläobedingungen im Oberflächenwasser Zur Aussage stabiler Isotopenverhältnisse in planktischen Foraminiferen Zur Messung stabiler Isotopenverhältnisse Zur Massenspektrometrie Zur Rekonstruktion von Oberflächentemperaturen Alkane und Alkohole als Maß für Staubeintrag Eistranspmtiertes Material und vulkanische Aschen 3.4 Zur Rekonstruktion von Paläobedingungen im Zwischen-/ Tiefenwasser Häufigkeit von Cibicides- und anderen benthischen Arten (inkl. Taxonomie) Stabile Isotopenverhältnisse in benthischen Foraminiferen 3.5 AMS 14C-Datierungen Probenreinigung 3. 6 Hauptelementanalysen von vulkanischen Asche-Leithorizonten 3. 7 Geomagnetische Meßgrößen und magnetische Suszeptibiltät 3.8 Techniken zur Spektralanalyse 4. Methodische Ergebnisse 4.1 Zum Einfluß der Probenreinigung auf δ18O-/ δ13C-Werte 4.2 Probleme bei der langfristigen Reproduzierbarkeit von δ18O-Zeitreihen 4.3 Einfluß der Korngröße und Artendefinition planktischer Foraminiferen auf SST-Rekonstruktionen in hohen Breiten 4.4 Vergleich der stabilen Isotopenwerte von Cibicides lobatulus und Cibicidoides wuellerstorfi 5. Stratigraphische Grundlagen und Tiefenprofile der Klimasignale 5.1 Stratigraphische Korrelation zwischen parallel-gekernten GKG- und SL-/KL-Profilen 5.2 Flanktische δ18O-/ δ13C-Kurven, 14C-Alter und biostratigraphische Fixpunkte Westliches Islandbecken Kern PS2644 Kern PS2646 Kern PS2647 Kern 23351 Vøring-Plateau Kern 23071 Kern 23074 5.3 Benthische δ18O-/ δ13C-Werte in Kern PS2644 5.4 Siliziklastische Sedimentkomponenten: Eistransportiertes Material Westliches Islandbecken Kern PS2644 Kern PS2646 Kern PS2647 Vøring-Plateau Kern 23071 Kern 23074 5.5 Vulkanische Glasscherben in Kern PS2644: Wind- und Eiseintrag 5.6 Geochemie und Alter einzelner Tephralagen als Leithorizonte Westliches Islandbecken Kern PS2644 Kern PS2646 Kern PS2647 Vøring-Plateau Kern 23071 Kern 23074 5.7 Magnetische Suszeptibilität in den Kernen PS2644, PS2646 und PS2647 Kern PS2644 Kern PS2646 und PS2647 5.8 Geomagnetische Feldintensität und Richtungsänderungen in Kern PS2644 5.9 Variation von Planktonfauna und -flora Westliches Islandbecken: Kern PS2644 Kern PS2646 und PS2647 Vøring-Plateau: Kern 23071 und 23074 5.10 Benthische Foraminiferen in Kern PS2644 6. Entwicklung von Temperatur und Salzgehalt nördlich der Dänemark-Straße 6.1 Variation der Oberflächentemperatur nach Planktonforaminiferen 6.2 Variation der Oberflächentemperatur nach Uk37 6.3 Variation der Oberflächensalinität 7. Die Feinstratigraphie von Kern PS2644 als Basis für eine Eichung der 14C-Altersskala 22 - 55 ka 7.1 Korrelation zwischen den Klimasignalen in Kern PS2644 und der GISP2-Klimakurve zum Kalibrieren der 14C-Alter und Erstellen eines Altersmodells Tephrachronologische Marker Korrelationsparameter und -regeln Sonderfälle/ Probleme bei der Korrelation 7.2 Alters-stratigraphische Korrelation der Klimakurven von Kern 23071 und 23074 7.3 Variation der Altersanomalien zwischen 20 und 55 14C-ka 7.4 Variabilität des planktischen 14C-Reservoiralters in Schmelzwasserbeeinflußten Seegebieten Variation der planktischen 14C-Alter unmittelbar an der Basis von Heinrich-Ereignis 4 Unterschiede zwischen planktischen und benthischen 14C-Altern in der westlichen Islandsee. Zur Erklärung der inversen Altersdifferenzen 7.5 Differenz zwischen 14C- und Kalenderalter: Zeitliche Variation unter Einfluß des Erdmagnetfeldes - Modell und Befund 7.6 Sedimentationsraten der Kerne 23071, 23074 und PS2644 nach dem GISP2-Altersmodell Vøring-Plateau: Kerne 23071 und 23074 Südwest-Islandsee: Kern PS2644 8. Klimaoszillationen im Europäischen Nordmeer in der Zeit und Frequenzdomäne 8.1 "Der Einzelzyklus" in den Klimakurven von Kern PS2644 8.2 Zur Veränderlichkeit der Warm- und Kaltextreme sowie Zyklenlänge Besonderheiten in der Zyklenlänge Variation der Kalt-(Stadiale) Variation der Interstadiale 8.3 Periodizitäten der Klimasignale im Frequenzband der D.-Oe.-Zyklen. Der D.-Oe.-Zyklus von 1470 J., seine Multiplen und harmonischen Schwingungen Weitere Frequenzen: 1000-1150 Jahre- und 490- 510 Jahre-Zyklizitäten Höhere Frequenzen im Bereich von Jahrhunderten und Dekaden 8.4 Phasenbeziehungen und (örtliche) Steuemngsmechanismen der Dansgaard-Oeschger-Zyklen 9. Schlußfolgerungen Danksagung Literaturverzeichnis Anhang

Note: Table of Contents Abstract Zusammenfassung List of Figures List of Tables 1. Introduction 1.1 Scientific Background 1.1.1 Arctic Climate Change 1.1.2 Permafrost Degradation 1.1.3 The Arctic Freshwater System and its Biogeochemistry 1.2 Objectives 1.3 Study Region and Methods 1.3.1 Study Area 1.3.2 Field Sampling and Measurements 1.3.3 Geochemical Analyses 1.3.4 Data Processing 1.4 Thesis Structure 1.5 Author Contributions 2. Spatial Variability of Dissolved Organic Carbon, Solutes and Suspended Sediment in Disturbed Low Arctic Coastal Watersheds 2.1 Abstract 2.2 Introduction 2.3 Study Site 2.4 Methods 2.4.1 Stream Monitoring 2.4.2 Mapping of Disturbances 2.4.3 Flux Estimates and Statistics 2.5 Results 2.5.1 Catchment Disturbance 2.5.2 Runoff and Hydrochemistry 2.5.3 Lateral Transport of Stream Water 2.5.4 Hydrochemical Composition and Fluxes in Nearby Streams 2.6 Discussion 2.6.1 Total Runoff and Water Quality 2.6.2 Water Quality Changes from Headwaters to Downstream 2.6.3 Changes in Hydrochemistry and Isotopic Composition over Time 2.6.4 Importance of Disturbances for Hydrochemistry 2.7 Conclusions 2.8 Supplementary Material 3. Terrestrial Colored Dissolved Organic Matter (cDOM) in Arctic Catchments - Characterizing Organic Matter Composition Across the Arctic 3.1 Introduction 3.2 Study Area 3.3 Methods 3.3.1 Field Methods and Hydrochemistry 3.3.2 Statistical Analyses 3.4 Results 3.4.1 Meteorological Conditions and General Hydrochemistry 3.4.2 DOC and cDOM Absorption Characteristics 3.4.3 Downstream Patterns of DOC and cDOM Along Longitudinal Transects 3.4.4 Temporal Trends ofDOC and cDOM with Changing Meteorological Conditions 3.5 Discussion 3.5.1 Limitations of cDOM Measurements from Terrestrial Sources 3.5.2 Catchment Processes and Biogeochemical Cycling 3.5.2.1 Regional Catchment Properties 3.5.2.2 Rainfall Events 3.5.2.3 Downstream Patterns and Impact of Permafrost Disturbance 3.5.3 Nature of cDOM-DOC Across the Terrestrial Arctic 3.6 Conclusion 3.7 Supplementary Material 4. Summer Rainfall DOC, Solute and Sediment Fluxes in a Small Arctic Coastal Catchment on Herschel Island (Yukon Territory, Canada) 4.1 Abstract 4.2 Introduction 4.3 Study Site 4.4 Methodology 4.4.1 Weather data 4.4.2 Hydrology 4.4.3 Suspended Sediment and Hydrochemistry 4.4.4 Flux Estimates and Statistics 4.5 Results 4.5.1 Meteorological Conditions 4.5.2 Streamflow and Electrical Conductivity 4.5.3 Transport of Suspended Sediment and Organic Matter 4.5.4 Solute Transport 4.5.5 Alluvial Fan Sampling 4.6 Discussion 4.6.1 Hydrological Response 4.6.2 Water Quality and Fluxes 4.6.3 Rainfall Response and Flow Pathways 4.7 Conclusions 4.8 Supplementary Material 5. Synthesis 5.1 Impacts of Permafrost Degradation on Stream Biogeochemistry 5.2 Controls on DOM Quality across the Arctic 5.3 Biogeochemical Fluxes from Small Coastal Catchments to the Arctic Ocean 5.4 Challenges 5.5 Outlook Acronyms Bibliography Acknowledgements Eidesstattliche Erklärung