ALBERT

Note: Contents Prologue Acknowledgments List of Symbols PART I Foundations 1 INTRODUCTION: The Basic Challenge 1.1 The Climate System 1.2 Some Basic Observations 1.3 External Forcing 1.3.1 Astronomical Forcing 1.3.2 Tectonic Forcing 1.4 The Ice-Age Problem 2 TECHNIQUES FOR CLIMATE RECONSTRUCTION 2.1 Historical Methods 2.1.1 Direct Quantitative Measurements 2.1.2 Descriptive Accounts of General Environmental Conditions 2.2 Surficial Biogeologic Proxy Evidence 2.2.1 Annually Layered Life Forms 2.2.2 Surface Geomorphic Evidence 2.3 Conventional Nonisotopic Stratigraphic Analyses of Sedimentary Rock and Ice 2.3.1 Physical Indicators 2.3.2 Paleobiological Indicators (Fossil Faunal Types and Abundances) 2.4 Isotopic Methods 2.4.1 Oxygen Isotopes 2.4.2 Deuterium and Beryllium in Ice Cores 2.4.3 Stable Carbon Isotopes 2.4.4 Strontium and Osmium Isotopes 2.5 Nonisotopic Geochemical Methods 2.5.1 Cadmium Analysis 2.5.2 Greenhouse Gas Analysis of Trapped Air in Ice Cores 2.5.3 Chemical and Biological Constituents and Dust Layers in Ice Cores 2.6 Dating the Proxy Evidence (Geochronometry) 3 A SURVEY OF GLOBAL PALEOCLIMATIC VARIATIONS 3.1 The Phanerozoic Eon (Past 600 My) 3.2 The Cenozoic Era (Past 65 My) 3.3 The Plio-Pleistocene (Past 5 My) 3.4 Variations during the Last Ice Age: IRD Events 3.5 The Last Glacial Maximum (20 ka) 3.6 Postglacial Changes: The Past 20 ky 3.7 The Past 100 Years 3.8 The Generalized Spectrum of Climatic Variance 3.9 A Qualitative Discussion of Causes 4 GENERAL THEORETICAL CONSIDERATIONS 4.1 The Fundamental Equations 4.2 Time Averaging and Stochastic Forcing 4.3 Response Times and Equilibrium 4.4 Spatial Averaging 4.5 Climatic-Mean Mass and Energy Balance Equations 4.5.1 The Water Mass Balance 4.5.2 Energy Balance 5 SPECIAL THEORETICAL CONSIDERATIONS FOR PALEOCLIMATE: Structuring a Dynamical Approach 5.1 A Basic Problem: Noncalculable Levels of Energy and Mass Flow 5.2 An Overall Strategy 5.3 Notational Simplifications for Resolving Total Climate Variability 5.4 A Structured Dynamical Approach 5.5 The External Forcing Function, F 5.5.1 Astronomical/Cosmic Forcing 5.5.2 Tectonic Forcing 6 BASIC CONCEPTS OF DYNAMICAL SYSTEMS ANALYSIS: Prototypical Climatic Applications 6.1 Local (or Internal) Stability 6.2 The Generic Cubic Nonlinearity 6.3 Structural (or External) Stability: Elements of Bifurcation Theory 6.4 Multivariable Systems 6.4.1 The Two-Variable Phase Plane 6.5 A Prototype Two-Variable Model 6.5.1 Sensitivity of Equilibria to Changes in Parameters: Prediction of the Second Kind 6.5.2 Structural Stability 6.6 The Prototype Two-Variable System as a Stochastic-Dynamical System: Effects of Random Forcing 6.6.1 The Stochastic Amplitude 6.6.2 Structural Stochastic Stability 6.7 More Than Two-Variable Systems: Deterministic Chaos PART II Physics of the Separate Domains 7 MODELING THE ATMOSPHERE AND SURFACE STATE AS FAST-RESPONSE COMPONENTS 7.1 The General Circulation Model 7.2 Lower Resolution Models: Statistical-Dynamical Models and the Energy Balance Model 7.2.1 A Zonal-Average SDM 7.2.2 Axially Asymmetric SDMs 7.2.3 The Complete Time-Average State 7.3 Thermodynamic Models 7.3.1 Radiative-Convective Models 7.3.2 Vertically Averaged Models (the EBM) 7.4 The Basic Energy Balance Model 7.5 Equilibria and Dynamical Properties of the Zero-Dimensional (Global Average) EBM 7.6 Stochastic Resonance 7.7 The One-Dimensional (Latitude-Dependent) EBM 7.8 Transitivity Properties of the Atmospheric and Surface Climatic State: Inferences from a GCM 7.9 Closure Relationships Based on GCM Sensitivity Experiments 7.9.1 Surface Temperature Sensitivity 7.10 Formal Feedback Analysis of the Fast-Response Equilibrium State 7.11 Paleoclimatic Simulations 8 THE SLOW-RESPONSE "CONTROL" VARIABLES: An Overview 8.1 The Ice Sheets 8.1.1 Key Variables 8.1.2 Observations 8.2 Greenhouse Gases: Carbon Dioxide 8.3 The Thermohaline Ocean State 8.4 A Three-Dimensional Phase-Space Trajectory 9 GLOBAL DYNAMICS OF THE ICE SHEETS 9.1 Basic Equations and Boundary Conditions 9.2 A Scale Analysis 9.3 The Vertically Integrated Ice-Sheet Model 9.4 The Surface Mass Balance 9.5 Basal Temperature and Melting 9.6 Deformable Basal Regolith 9.7 Ice Streams and Ice Shelves 9.8 Bedrock Depression 9.9 Sea Level Change and the Ice Sheets: The Depression-Calving Hypothesis 9.10 Paleoclimatic Applications of the Vertically Integrated Model 9.11 A Global Dynamical Equation for Ice Mass 10 DYNAMICS OF ATMOSPHERIC CO2 10.1 The Air-Sea Flux, Q↑ 10.1.1 Qualitative Analysis of the Factors Affecting Q↑ 10.1.2 Mathematical Formulation of the Ocean Carbon Balance 10.1.3 A Parameterization for Q↑ 10.2 Terrestrial Organic Carbon Exchange, W↑G 10.2.1 Sea Level Change Effects 10.2.2 Thermal Effects 10.2.3 Ice Cover Effects 10.2.4 Long-Term Terrestrial Organic Burial, W↓G 10.2.5 The Global Mass Balance of Organic Carbon 10.3 Outgassing Processes, V↑ 10.4 Rock Weathering Downdraw, W↓ 10.5 A Global Dynamical Equation for Atmospheric CO2 10.6 Modeling the Tectonically Forced CO2 Variations, µˆ : Long-Term Rock Processes 10.6.1 The Long-Term Oceanic Carbon Balance 10.6.2 The GEOCARB Model 10.7 Overview of the Full Global Carbon Cycle 11 SIMPLIFIED DYNAMICS OF THE THERMOHALINE OCEAN STATE 11.1 General Equations 11.1.1 Boundary Conditions 11.2 A Prototype Four-Box Ocean Model 11.3 The Wind-Driven, Local-Convective, and Baroclinic Eddy Circulations 11.3.1 The Wind-Driven Circulation: Gyres and Upwelling 11.3.2 Local Convective Overturnings and Baroclinic Eddy Circulations 11.4 The Two-Box Thermohaline Circulation Model: Possible Bimodality of the Ocean State 11.4.1 The Two-Box System 11.4.2 A Simple Model of the TH Circulation 11.4.3 Meridional Fluxes 11.4.4 Dynamical Analysis of the Two-Box Model 11.5 Integral Equations for the Deep Ocean State 11.5.1 The Deep Ocean Temperature 11.5.2 The Deep Ocean Salinity 11.6 Global Dynamical Equations for the Thermohaline State: θ and Sφ PART III Unified Dynamical Theory 12 THE COUPLED FAST- AND SLOW-RESPONSE VARIABLES AS A GLOBAL DYNAMICAL SYSTEM: Outline of a Theory of Paleoclimatic Variation 12.1 The Unified Model: A Paleoclimate Dynamics Model 12.2 Feedback-Loop Representation 12.3 Elimination of the Fast-Response Variables: The Center Manifold 12.4 Sources of Instability: The Dissipative Rate Constants 12.5 Formal Separation into Tectonic Equilibrium and Departure Equations 13 FORCED EVOLUTION OF THE TECTONIC-MEAN CLIMATIC STATE 13.1 Effects of Changing Solar Luminosity and Rotation Rate 13.1.1 Solar Luminosity (S) 13.1.2 Rotation Rate (Ω) 13.2 General Effects of Changing Land-Ocean Distribution and Topography (h) 13.3 Effects of Long-Term Variations of Volcanic and Cosmic Dust and Bolides 13.4 Multimillion-Year Evolution of CO2 13.4.1 The GEOCARB Solution 13.4.2 First-Order Response of Global Ice Mass and Deep Ocean Temperature to Tectonic CO2 Variations 13.5 Possible Role of Salinity-Driven Instability of the Tectonic-Mean State 13.6 Snapshot Atmospheric and Surficial Equilibrium Responses to Prescribed y-Fields Using GCMs 14 THE LATE CENOZOIC ICE-AGE DEPARTURES: An Overview of Previous Ideas and Models 14.1 General Review: Forced vs. Free Models 14.1.1 Models in Which Earth-Orbital Forcing Is Necessary 14.1.2 Instability-Driven (Auto-oscillatory) Models 14.1.3 Hierarchical Classification in Terms of Increasing Physical Complexity 14.2 Forced Ice-Line Models (Box 1, Fig. 14-1) 14.3 Ice-Sheet Inertia Models 14.3.1 The Simplest Forms (Box 2) 14.3.2 More Physically Based Ice-Sheet Models: First Applications 14.3.3 Direct Bedrock Effects (Box 3) 14.3.4 Bedrock-Calving Effects (Box 4) 14.3.5 Basal Meltwater and Sliding (Box 5) 14.3.6 Ice Streams and Ice Shelf Effects 14.3.7 Continental Ice-Sheet Movement (Box 6) 14.3.8 Three-Dimensional (λ, φ, hI) Ice-Sheet Models 14.4 The Need for Enhancement of the Coupled Ice-Sheet/Atmospheric Climate Models 14.5 Ice-Sheet Variables Coupled with Additional Slow-Response Variables 14.5.1 Regolith Mass, mr (Box 7) 14.5.2 The Deep Ocean Te

Note: Crystal Chemistry Chapter 1. Mica crystal chemistry and the influence of pressure, temperature, and solid solution on atomistic models by Maria Franca Brigatti and Stephen Guggenheim, p. 1 - 98 Chapter 2. Behavior of micas at high pressure and high temperature by Pier Francesco Zanazzi and Alessandro Pavese, p. 99 - 116 Chapter 3. Structural features of micas by Giovanni Ferraris and Gabriella Ivaldi, p. 117 - 154 Chapter 4. Crystallographic basis of polytypism and twinning in micas by Massimo Nespolo and Slavomil Durovic, p. 155 - 280 Chapter 5. Investigation of micas using advanced transmission electron microscopy by Toshihiro Kogure, p. 281 - 312 Chapter 6. Optical and Mössbauer spectroscopy of iron in micas by M. Darby Dyar, p. 313 - 350 Chapter 7. Infrared spectroscopy of micas by Anton Beran, p. 351 - 370 Chapter 8. X-ray absorption spectroscopy of the micas by Annibale Mottana, Augusto Marcelli, Giannantonio Cibin, and M. Darby Dyar, p. 371 - 412 Metamorphic Petrology Chapter 9. Constraints on studies of metamorphic K-Na white micas by Charles V. Guidotti and Francesco P. Sassi, p. 413 - 448 Chapter 10. Modal spaces for pelitic schists by James B. Thompson, Jr., p. 449 - 462 Chapter 11. Phyllosilicates in very low-grade metamorphism: Transformation to micas by Péter Árkai, p. 463 - 478 Historical Perspective Chapter 12. Micas: Historical perspective by Curzio Cipriani, p. 479 - 499

Note: Chapter 1. Mineralogy, Petrology and Geochemistry of Beryllium: An Introduction and List of Beryllium Minerals by Edward S. Grew, p. 1 - 76 Chapter 2. Behavior of Beryllium During Solar System and Planetary Evolution: Evidence from Planetary Materials by Charles K. Shearer, p. 77 - 120 Chapter 3. Trace-Element Systematics of Beryllium in Terrestrial Materials by Jeffrey G. Ryan, p. 121 - 146 Chapter 4. Rates and Timing of Earth Surface Processes From In Situ-Produced Cosmogenic Be-10 by Paul R. Bierman, Marc W. Caffee, P. Thompson Davis, Kim Marsella, Milan Pavich, Patrick Colgan, and David Mickelson, p. 147 - 206 Chapter 5. Cosmogenic Be-10 and the Solid Earth: Studies in Geomagnetism, Subduction Zone Processes, and Active Tectonics by Julie D. Morris, John Gosse, Stefanie Brachfeld, and Fouad Tera, p. 207 - 270 Chapter 6. Environmental Chemistry of Beryllium-7 by James M. Kaste, Stephen A. Norton, and Charles T. Hess, p. 271 - 290 Chapter 7. Environmental Chemistry of Beryllium by J. Vesely, S. A. Norton, P. Skrivan, V. Majer, P. Kram, T. Navr·til, and J. M. Kaste, p. 291 - 318 Chapter 8. Beryllium Analyses by Secondary Ion Mass Spectrometry by Richard L. Hervig, p. 319 - 332 Chapter 9. The Crystal Chemistry of Beryllium by Frank C. Hawthorne and Danielle M. C. Huminicki, p. 333 - 404 Chapter 10. Mineralogy of Beryllium in Granitic Pegmatites by Petr Cerny, p. 405 - 444 Chapter 11. Beryllium in Silicic Magmas and the Origin of Beryl-Bearing Pegmatites by David London and Joseph M. Evensen, p. 445 - 486 Chapter 12. Beryllium in Metamorphic Environments (Emphasis on Aluminous Compositions) by Edward S. Grew, p. 487 - 550 Chapter 13. Be-Minerals: Synthesis, Stability, and Occurrence in Metamorphic Rocks by Gerhard Franz and Giulio Morteani, p. 551 - 590 Chapter 14. Non-pegmatitic Deposits of Beryllium: Mineralogy, Geology, Phase Equilibria and Origin by Mark D. Barton and Steven Young, p. 591 - 691

Note: CONTENTS Preface Acknowledgements 1. Introduction 1.1 Boundaries of the Arctic 1.2 Main Geographical Factors Shaping the Climate 2. Atmospheric Circulation 2.1 Development of Views on Atmospheric Circulation in the Arctic 2.2 Large-scale Atmospheric Circulation 2.3 Synoptic-scale Circulation 2.4 Winds 2.5 Local Circulation and Mesoscale Disturbances 3. Radiation Conditions 3.1 Sunshine Duration 3.2 Global Solar Radiation 3.3 Short-wave Net Radiation 3.4 Long-wave Net Radiation 3.5 Net Radiation and Other Elements of the Heat Balance 4. Air Temperature 4.1 Mean Monthly, Seasonal, and Annual Air Temperature 4.2 Mean and Absolute Extreme Air Temperatures 4.3 Temperature Inversions 5. Cloudiness 5.1 The Annual Cycle 5.2 Spatial Patterns 5.3 Fog 6. Air Humidity 6.1 Water Vapour Pressure 6.2 Relative Humidity 7. Atmospheric Precipitation and Snow Cover 7.1 Atmospheric Precipitation 7.2 Number of Days with Precipitation 7.3 Snow Cover 8. Air Pollution 9. Climatic Regions 9.1 The Atlantic Region 9.2 The Siberian Region 9.3 The Pacific Region 9.4 The Canadian Region 9.5 The Baffin Bay Region 9.6 The Greenland Region 9.7 The Interior Arctic Region 10. Climatic Change and Variability in the Holocene 10.1 Period 10-11 ka-l ka BP 10.2 Period 1 ka-O.l ka BP 10.3 Period 0.1 ka-Present 11. Scenarios of the Arctic Climate in the 21st Century 11.1 Model Simulations of the Present-day Arctic Climate 11.2 Scenarios of the Arctic Climate in the 21st Century References Copyright Acknowledgements Index

Note: Erscheinungsjahr in Vorlageform:1993-

Note: Contents Acknowledgements Executive Summary with Key Findings and Recommendations Current State of the Art Key Scientific Challenges and Recommendations Major New Synthesis Initiative Required Implementation of Arctic-CHAMP Policy Implications Summary 1. Introduction Rationale for Pan-Arctic Hydrologic Synthesis Report Framework 2. A Strategy for Detecting and Understanding Arctic Hydrological Change: Arctic-CHAMP Arctic-CHAMP Basic Long-Term Monitoring Arctic-CHAMP Field-Based Process Studies Arctic-CHAMP Synthesis Modeling Execution of Arctic-CHAMP 3. Role and Importance of Water in the Arctic System The Integrated Water Cycle of the Pan-Arctic Land Atmosphere Ocean Importance of Arctic Hydrology to the Arctic System Importance of the Arctic to the Earth System 4. Unprecedented Change to Arctic Hydrological Systems Changes to the Land-Based Hydrologic Cycle Changes to the Atmosphere The Changing Arctic Ocean and its Regional Seas 5. Impacts and Feedbacks Associated with Arctic Hydrological Change Direct Impacts on Ecosystems Arctic Water Cycle Change and Humans Land-Atmosphere-Ocean Feedbacks Land-Atmosphere-Ocean-Human Feedbacks 6. Implementation of Arctic-CHAMP References Appendix 1. NSF-ARCSS Arctic Hydrology Workshop Participants Appendix 2. Current Gaps in Understanding the Pan-Arctic Hydrological Cycle Appendix 3. Integration of Arctic-CHAMP with NSF and Other Federal Agency Initiatives Appendix 4. International Collaborations

Note: Contents: Preface. - Family Berberidaceae. - Family Menispermaceae. - Family Papaveraceae. - Family Hypecoaceae. - Family Fumariaceae. - Family Brassicaceae, or Cruciferae: Key to Genera. - Genera Macropodium R.Br.--Gorodkovia Botsch. et Karav. - Genera Erysimum L.--Goldbachia DC. - Genera Hesperis L.--Neuroloma Andrz. - Genera Strigosella Boiss.--Microstigma Trautv. - Genera Dontostemon Andrz. ex C.A. Meyer--Dimorphostemon Kitag. - Genera Chorispora R.Br. ex DC.--Galitzkya V. Boczantzeva. - Genera Alyssum L.--Ptilotrichum C.A. Meyer. - Genus Lesquerella S. Watson. - Genera Draba L.--Subularia L. - Family Droseraceae. - Family Crassulaceae. - Family Saxifragaceae. - Family Parnassiaceae. - Family Grossulariaceae. - Maps of Plant Distribution. - Index of Latin Names of Plants.

Note: Contents: Executive Summary. - Introduction. - Objectives. - ANTOSTRAT background. - Summary statements. - Input needs for Antarctic paleoclimate modelling. - ANTOSTRAT data management with the information system PANGEA. - Ocean Drilling Programme. - Cape Roberts drilling. - Marine shallow drilling. - Dreging/coring. - Under-ice drilling. - Lake coring. - Terrestrial shallow drilling. - Cosmogenic surface exposure dating in Antarctica: progress and potential. - Synthesis and directions. - Summary. - References. - Acknowledgements. - Appendices. - 1. Workshop agenda. - 2. Workshop participants. - 3. Meeting Report published in EOS. - 4. Acronyms and abbreviations.

Note: Russ. Ausgabe als AWI G2-02-0113 verfügbar

Note: One way to shape technology and its embedding in society in the 21st century is through the visions that guide their development, especially concerning the long-term societal perspective. A critical discussion and assessment of these visions is a prerequisite for influencing the course of development. Technology assessment, therefore, has to provide a methodological repertoire for assessing and constructing visions, taking into account the requirements for long-term orientation and the need for public legitimation. This volume draws upon insights from technology assessment (TA), political sciences, epistemology, sociology and ethics. It contributes to the recent literature on "shaping technology", taking into account the "co-evolution of technology and society". It is connected to the TA literature that emphasises TA's pro-active role and its contricution to political judgement. It uses those insights from policy planning and epistemology that may help to reconcile long-term planning and public legitimacy

Note: CONTENTS: Report on the 2000 activities of NGRIP Operations. - Objective. - Kangerlussuaq (Søndre Strømfjord). - Preparation of the field season. - Start of the field season. - Starting the camp. - Drilling. - Drill recovery. - Summary. - Medevac. - Acknowledgement. - Logger results. - NGRIP 2000 sub programs. - Automatic weather stations. - GLA TIS, seismic program. - 2000 Field Season, Diary. - Communication. - Schedule for camp close down. - Maintenance/Logistics after the season. - Bulk Supplies. - List of participants. - NGRIP camp load. - Table of LC130 flights. - NGRIP documentation. - NGRIP camp load. - Sitreps. - Daily reports from NGRIP. - Surface topography near NGRIP. - Surface topography around the NGRIP site, July 1998. - Map of trenches, not updated. - Tower and roof opening of original trench. - Inclined drill pit, 1996. - Map of Greenland. - ERS1 based Topography of North Greenland. - Map of skiway. - Map of ice divide north of Summit. - Map of magnetic declination in Greenland. - List of NGRIP addresses.

Note: Contents: Report on the 2001 activities of NGRIP Operations. - Objective. - Kangerlussuaq (Søndre Strømfjord). - Preparation of the field season. - Drilling equipment. - Start of the field season. - Starting the camp. - Communication. - Bailing. - Drilling. - Logging. - Last Drilling. - Summaries. - DML electronics. - Garbage handling. - Medivac. - Acknowledgement. - Graphs. - NGRIP 2001 sub programs. - Automatic weather stations. - Dust program. - GPS measurements. - Firn gas sampling. - 2001 Field season, Diary. - Communication. - Maintenance/Logistics after the season. - Bulk supplies. - List of participants. - Table of LC130 flights. - NGRIP documentation. - NGRIP camp load. - Sitreps. - Daily reports from NGRIP. - Special reports. - Schedule for camp close down. - List of NGRIP addresses.

Note: 1 Introduction Acknowledgments 2 Why we use Jupyter notebooks 2.1 Why do we use Jupyter? 2.2 But first, what is Jupyter Notebook? 2.3 Course benefits & anecdotes 2.4 Student benefits 2.5 Instructor benefits 2.6 Conclusions 3 Notebooks in teaching and learning 3.1 Oh the places your notebooks will go! 3.2 Before You Begin… 4 A catalogue of pedagogical patterns 4.1 Introduction 4.2 Shift-Enter for the win 4.3 Fill in the blanks 4.4 Target Practice 4.5 Twiddle, tweak, and frob 4.6 Notebook as an app 4.7 Win-day-one 4.8 Top-down sequence 4.9 Two bites at every apple 4.10 Coding as translation 4.11 Symbolic math over pencil + paper 4.12 Replace analysis with numerical methods 4.13 The API is the lesson 4.14 Proof by example, disproof by counterexample 4.15 The world is your dataset 4.16 Now you try (with different data or process) 4.17 Connect to external audiences 4.18 There can be only one 4.19 Hello, world! 4.20 Test driven development 4.21 Code reviews 4.22 Bug hunt 4.23 Adversarial programming 5 Jupyter Notebook ecosystem 5.1 Language support: kernels 5.2 Using Jupyter notebooks 5.3 Authoring Jupyter notebooks 5.4 Tips and tricks 5.5 Gotchas 6 Getting your class going with Jupyter 6.1 Local installation on students’ or lab computers 6.2 Jupyter on remote servers 6.3 Distribution and collection of materials 6.4 Assessing student learning with Jupyter notebooks 6.5 How do you create Jupyter notebooks for reuse and sharing? 6.6 Jupyter: a 21st Century genre of Open Educational Resources and practices 7 Usage case studies 7.1 Jupyter notebooks in support of scaling for large enrollments 7.2 The “CFD Python” story: guiding learners at their own pace 7.3 Analyzing music with music21 7.4 Interactivity in computer science (high school and middle school) 7.5 Interactive geophysics with Jupyter 7.6 Investigating hurricanes 8 About the authors 8.1 Project lead 8.2 Authors at the sprint 9 Glossary References

Note: Outline Abstract Keywords 1. Introduction 2. Methods 2.1. Sample collection 2.2. 234Th analyses 2.3. Particulate organic carbon analyses 3. Results 3.1. Hydrography 3.2. Nutrients 3.3. 234Th activities and POC concentrations 3.4. Trapped material 4. Discussion 4.1. Origins of 234Th/238U disequilibrium 4.2. Determining 234Th fluxes 4.3. Calibration of sediment trap with 234Th 4.4. Vertical flux of particulate organic carbon and the POC/234Thp ratio 5. Conclusion Acknowledgements References

Note: CONTENTS Carlo Doglioni and Eugenio Carminati: The effect of four subductions in N/E-Italy Alfred Hirn: Geophysical data and collisional belt: Pyrenees and Himalayas Onno Oncken: The Andes mountain belt - comparing the geophysical architecture of a subduction orogen with collisional belts Ewald Lueschen, Helmut Gebrande, Karl Millahn und Rinaldo Nicolich: Seismic profiling by the TRANSALP WORKING GROUP: deep crustal vibroseis and explosive profiling Daniela Borrini, Luca Bertelli, Roberto Fantoni, Alfredo Mazzotti, Giacomo Mezzadra and Rinaldo Nicolich: High resolution processing of vibrosets data Karl Millahn, Ewald Lueschen and Helmut Gebrande: Seismic profiling by the TRANSALP Working Group: cross-line recording for 3D-Control Florian Bleibinhaus: Seismic profiling by the TRANSALP Working Group: refraction and wide-angle reflection seismic traveltime tomography Jörn Kummerow, Reiner Kind, Onno Oncken Kurt Wylegalla, and Frank Scherbaum: Seismic profiling by the TRANSALP Working Croup: receiver functions image and Upper Mantle anisotropy Rüdiger Thomas, Kurt Bram, Klaus Schwerd and Jürgen Fertig: High-resolution reflection seismics and hydrocarbon industry profiles at the northern part of the TRANSALP profile Marcello Bernabini, Pierluigi Bernardelli, Carlo Comin, Franco Coren, Salvatore Giammetti, Roberto Longoni, Rinaldo Nicolich, Luciana Orlando, Franco Palmieri and Claudio Zanolla: Gravimetnc data base and 2001 surveys Jörg Ebbing and Hans-Jürgen Götze: The collision of the European and Adriatic plates in the Eastern Alps - insights from 3D density modelling and isostatic investigations Roberto Cassinis and Salvatore Scarascia: The structure of the deep crust and Moho boundary along the TRANSALP according to the DSS data: a contribution to the lateral extension of the model Stefano Solarino, Eduard Kissling, Dario Slejko, Claudio Eva, Elena Eva, and Alessandro Rebez: Seismotectonics of eastern Veneto in the light of the TRANSALP experiment Wolfgang A. Lenhardt: Seismicity in Tyrol in relation to the TRANSALP profile Jörg Ansorge, Regina Lippitsch and Eduard Kissling: Lithosphere structure of the Alpine arc: new evidence from high-resolution teleseismic tomography Giuliano F. Panza, Reneta Raykova, Chimera Giordano and Abdelkarim Aoudia: Multiscale surface wave tomography in the Alps Antonella Peresan, Alexandre Gorshkov, Alexandre Soloviev, Inessa Vorobieva, and Giuliano F. Panza : Morfostructural zonation and block model dynamics in the Alps and surrounding regions Ernst Willingshofer, Dimitrios Sokoutis and Jean-Pierre Burg : Collisional tectonics and the deep structure of the Eastern Alps: inferences from lithospheric-scale analogue modelling Klaus Ullemeyer, Siegfried Siegesmund, and Patrick N. J. Rosolofosaon: Experimental and texture-derived P-wave velocities from the TRANSALP seismic traverse - preliminary results Hans-Dieter Vosteen, Christoph Clauser, and Bernd Lammerer: The thermal regime of the Eastern Alps: results from inverse analyses along tbe TRANSALP traverse Stefan Schlömer, Eckhard Faber, Alfred Hollerbach, Manfred Teschner, Bernd Lammerer, Ewald Lueschen, and Jürgen Poggenburg: Hydrocarbon gases in sediments from shot holes - Transalp Section Carla Braitenberg, Jörg Ebbing, and Hans-Jürgen Götze: New Inputs from the Transalp transect to the understanding of isotasy in the Eastern Alps Igor Cerovsky, Wolfgang Frisch and Bruno Meurers: Gravity and magnetic modelling in 3D Andrea Argnani and Claudia Piromallo: The evolution of the Alpine orogen of Eastern Europe: insights from plate kinematics and comparison with mantle tomography Franco Pettenati, Livio Sirovich and Francesco Gentile: Validation of some Transalp results (southern segment) by source inversion of the Cansiglio, 1936 earthquake Francesco Paolo Sassi, Luigi Burlini, Bernardo Cesare, Antonio Galgaro, Claudio Mazzoli, Sandro Meli, Luca Peruzzo, Raffaele Sassi, and Richard Spiess: Crustal modelling of a type area in Eastern Alps: a multidisciplinary attempt Muriel Gerbault, and Ernst Willingshofer: Thermo-mechanical modelling and indentation tectonics: how important is lower crustal rheology? Gian Battista Vai: Palaeozoic palaeotectonis of the eastern Southern Alps: implications for the Transalp Profile Silvano Sinigoi, James E. Quick, Gabriella Peressini and Adriano Mayer: An example of the Apulian lower crust: the lvrea-Verbano zone Maria Iole Spalla and Guido Grosse: Permian-Triassic magmatism and the tectonothermal evolution of the Austroalpine and South-Alpine lithosphere Claudio L. Rosenberg: Ascent of tbe Periadriatic Plutons: a review with implications for the TRANSALP transect Alfonso Bosellini, Piero Gianolla and Marco Stefani: The evolution of the Triassic carbonate platforms in the Dolomites, Northern Italy Vincenzo Picotti, Miriam Cobianchi, Roberto Fantoni, and Daniele Masetti: Platform to basin transittons: tectonic control and patterns in the Mesozoic of the eastern Southern Alps Patrizia Macera, Daniela Gasperini, Katiuscia Maffei, Silvana Martin and Claudia Piromallo: Tertiary magmatism in the Eastern Alps Luca Bertelli, Luigi Cantelli, Alberto Castellarin, Roberto Fantoni, Alessandro Mosconi, Mattia Sella and Luigi Selli: Upper crustal style, shortening and deformation ages in the Alps along the southern sector of the TRANSALP profile Massimiliano Zattin, Andrea Cuman, Roberto Fantoni, Silvana Martin, Paolo Scotti, and Cristina Stefani: Thermochronological evolution of the Southern Alps along the TRANSALP profile Roberto Fantoni, Bruno Della Vedova, Michela Giustiniani, Rinaldo Nicolich, Chiara Barbieri, Anna Del Ben, Icilio Finetti and Alberta Castellarin: Deep seismic profiles through the Venetian and Adriatic foreland (Northern Italy) Chiara Barbieri, Giovanni Bertotti, Daniele Catellani, Andrea Di Giulio, Roberto Fantoni and Nicoletta Mancin: Flexural response of the Venetian foreland to the Southalpine orogeny analysed through 2D crustal modelling Alberta M. RrvA and Marco M. SrEFANI: Synvolcanic deformation and intraplat/orm collapsing: the Latemar case history from the Middle Triassic of the Dolomites Marco Stefani and Riccardo Caputo: Synvolcanic carbonate production at scalloped platform margins: examples from the Middle Triassic Catinaccio Buildups (Dolomites, Italy) Riccardo Caputo and Marco Stefanil: Understanding poly nucleated carbonate platforms through palinspastic restoration: example from Middle Triassic of the Dolomites Giovanni Battista Carulli, Andrea Cozzi, Daniele Masetti, Enrico Pernarcic, Fulvio Podda and Maurizio Ponton: Middle Triassic- Early Jurassic extensional tectonics in the Carnian Prealps (eastern Southern Alps, N. E. Italy) Riccardo Caputo, Eliana Pou and Adriano Zanferrari: Neogene-Quaternary twist tectonics in the eastern Southern Alps, Italy Adriano Zanferrari, Eliana M. Pou and Sergio Rogledi: The external thrust-belt of eastern Southern Alps in Friuli (NE Italy) Martin Thöni: Garnet chronometry in the Eastern Alps: insight into the polyphase nature of a composite orogenic structure Silvana Martin: Tectonic setting and pre-Alpine evolution of the Tonale nappe, Eastern Austroalpine Georg Hoinkes: The "Alpine" metamorphic evolution of the Austroalpine basement: comparative petrological data from the Ötztal- and Wölz-Complex Franz Neubauer: Tectonic evolution of the Eastern Alps: from Permian rifting to Cretaceous and Tertiary collisions Mark R. Handy, Claudio. L. Rosenberg, Ralph Wagner and Maja Wegmann: Tertiary exhumation and strike-slip tectonics in the Austroalpine basement: implications for deep structure of the TRANSALP section Bernd Lammerer: The Tauern Window - key to the understanding of the Eastern Alps Franz Neubauer, Ada Kiss and Cestmir Tomek: Control of the collisional architecture by inherited, passive-margin structures: the European crust in the TRANSALP section compared with borehole and other seismic sections of the northern Eastern Alps Hugo Ortner, Franz Reiter and Reiner Brandner: Kinematic

Note: Beiträge teilweise englisch, teilweise russisch , Überwiegend kyrillische Schrift

Note: Contents: 1 Background. - 2 Processing overview. - 2.1 AAPP. - 2.2 BUFR and CMA. - 2.3 Cloud mask and thinning in HIRLAM 3D-VAR. - 2.4 Radiative transfer calculations. - 2.5 Data selection. - 3 Bias correction and error statistics. - 3.1 The need for bias correction. - 3.2 Bias correction method. - 3.3 Background errors in observation space. - 3.4 Estimation of observation error covariance statistics. - 3.4.1 Rotated channels. - 3.4.2 Estimation from analysis departures (DNMI). - 3.4.3 Non-diagonal cost contributions. - 3.4.4 Approach using comparison with background error (SMHI). - 4 Impact studies. - 4.1 Overview. - 4.2 The May 2001 impact study at DNMI. - 4.3 December 1999 SMHI experiment. - 4.3.1 Data coverage and model area. - 4.3.2 Verification. - 4.3.3 Results. - 4.3.4 The "French storm". - 4.4 December 2001 NOAA 16 impact study at DMI. - 4.5 January 2002 NOAA 16 impact study at DMI. - 5 Ongoing and future work. - 5.1 Overview. - 5.2 Use of observations over ice. - 5.3 Moisture channels. - 5.4 Future sensors. - 6 Conclusions and outlook for the future. - Acknowledgment. - References.

Note: CONTENTS: Introduction - All Staff meeting 2002 / Per Undén. - Report of Hirlam Management Group visit to Met Éireann / Per Undén. - The operational HIRLAM at the Finnish Meteorological Institute / Kalle Eerola. - Recent changes in the operational suites at Météo-France / Dominique Giard. - HIRLAM operational activities in Met Éireann / Ray McGrath. - Operational HIRLAM at met.no / Ole Vignes. - SMHI operational HIRLAM systems / Lars Meuller. - Revision of the ECMWF humidity analysis 1: Construction of a gaussian control variable / Elías Valur Hólm. - A nudging procedure to assimilate analyses of cloud and precipitation in a version of HIRLAM / Bent Hansen Sass and Claus Petersen. - HIRLAM 4DVAR / Xiang-Yu Huang, Xiaohua Yang, Nils Gustafsson, Kristian Mogensen and Magnus Lindskog. - Progress in the investigation of problems in the operational 4d-var assimilation at Météo-France / Dominique Giard. - Recent and future developments in the turbulence modeling in HIRLAM / Geert Lenderink. - Parametrization of the effects of subgrid-scale orography / Laura Rontu and Kai Sattler. - ISBA tests in a Nordic area - an update / Simo Järvenoja. - Results of the SAT-MAP-CLIMATE project / Niels Woetmann Nielsen, Charlotte Hasager, Henrik Søgaard, Jens H Chrisensen, Niels Otto Jensen and Eva Bøgh. - Progress and problems in the Functional Boxes / Erik Bazile. - Status Kain Fritsch Rash Kristjansson and Hirlam 22 km experiences / Sander Tijm, Roy Wichink, Oscar van de Velde, Ben Wichers Schreur and Toon Moene. - The representation of shallow cumulus convection and associated cloud fields in the Rossby Centre Atmospheric modell / Colin Jones and Enrique Sanchez. - Parametrization of mountain-related effects in fine-scale HIRLAM - items for discussion / Laura Rontu. - Testing alternative lateral boundary strategies: A progress report / Aidan McDonald. - Current situation with the NH HIRLAM / Aarne Mannik and Rein Room. - Manipulations to determine the hybrid coordinate in HIRLAM / Per Undén and Nils Gustafsson. - Comparison of convection and condensation schemes under non-hydrostatic Hirlam model: A case study / Sami Niemela and Carl Fortelius. - Real time solution of forward and inverse air pollution problems with a numerical dispersion model based on short-term weather forecasts / Mikhail Sofiev. - Asyncronous I/O in HIRLAM / Ole Vignes. - HIRLAM coding styles / Gerard Cats. - NWP on a GRID compute environment / Gerard Cats. - HIRLAM verification scores, 1st quarter 2002 / Per Undén. - Validation test for HIRLAM 5.1.4: winter condition / Xiaohua Yang. - Recent tests of proposed revisions to the STRACO cloud scheme / Bent Hansen Sass and Xiaohua Yang.