ALBERT

Note: Kaiserslautern, Technische Universität, Dissertation, 2003 (Nicht für den Austausch)

Note: Zugl.: Kaiserslautern, Univ., Habil., 2002

Note: Contents: Preface. - 1. Introduction and data manipulation. - 1.1. Why ordination?. - 1.2. Terminology. - 1.3. Types of analyses. - 1.4. Response variables. - 1.5. Explanatory variables. - 1.6. Handling missing values in data. - 1.7. Importing data from spreadsheets - WCanoImp program. - 1.8. Transformation of species data. - 1.9. Transformation of explanatory variables. - 2. Experimental design. - 2.1. Completely randomized design. - 2.2. Randomized complete blocks. - 2.3. Latin square design. - 2.4. Most frequent errors - pseudoreplications. - 2.5. Combining more than one factor. - 2.6. Following the development of objects in time - repeated observations. - 2.7. Experimental and observational data. - 3. Basics of gradient analysis. - 3.1. Techniques of gradient analysis. - 3.2. Models of species response to environmental gradients. - 3.3. Estimating species optima by the weighted averaging method. - 3.4. Calibration. - 3.5. Ordination. - 3.6. Constrained ordination. - 3.7. Basic ordination techniques. - 3.8. Ordination diagrams. - 3.9. Two approaches. - 3.10. Testing significance of the relation with environmental variables. - 3.11. Monte Carlo permutation tests for the significance of regression. - 4. Using the Canoco for Windows 4.5 package. - 4.1. Overview of the package. - 4.2. Typical flow-chart of data analysis with Canoco for Windows. - 4.3. Deciding on the ordination method: unimodal or linear?. - 4.4. PCA or RDA ordination: centring and standardizing. - 4.5. DCA ordination: detrending. - 4.6. Scaling of ordination scores. - 4.7. Running CanoDraw for Windows 4.0. - 4.8. New analyses providing new views of our data sets. - 5. Constrained ordination and permutation tests. - 5.1. Linear multiple regression model. - 5.2. Constrained ordination model. - 5.3. RDA: constrained PCA. - 5.4. Monte Carlo permutation test: an introduction. - 5.5. Null hypothesis model. - 5.6. Test statistics. - 5.7. Spatial and temporal constraints. - 5.8. Split-plot constraints. - 5.9. Stepwise selection of the model. - 5.10. Variance partitioning procedure. - 6. Similarity measures. - 6.1. Similarity measures for presence-absence data. - 6.2. Similarity measures for quantitative data. - 6.3. Similarity of samples versus similarity of communities. - 6.4. Principal coordinates analysis. - 6.5. Non-metric multidimensional scaling. - 6.6. Constrained principal coordinates analysis (db-RDA). - 6.7. Mantel test. - 7. Classification methods. - 7.1. Sample data set. - 7.2. Non-hierarchical classification (K-means clustering). - 7.3. Hierarchical classifications. - 7.4. TWINSPAN. - 8. Regression methods . - 8.1. Regression models in general. - 8.2. General linear model: terms. - 8.3. Generalized linear models (GLM). - 8.4. Loess smoother. - 8.5. Generalized additive models (GAM). - 8.6. Classification and regression trees. - 8.7. Modelling species response curves with CanoDraw. - 9. Advanced use of ordination. - 9.1. Testing the significance of individual constrained ordination axes. - 9.2. Hierarchical analysis of community variation. - 9.3. Principal response curves (PRC) method. - 9.4. Linear discriminant analysis. - 10. Visualizing multivariate data. - 10.1. What we can infer from ordination diagrams: linear methods. - 10.2. What we can infer from ordination diagrams: unimodal methods. - 10.3. Visualizing ordination results with statistical models. - 10.4. Ordination diagnostics. - 10.5. t-value biplot interpretation. - 11. Case study 1: Variation in forest bird assemblages. - 11.1. Data manipulation. - 11.2. Deciding between linear and unimodal ordination. - 11.3. Indirect analysis: portraying variation in bird community. - 11.4. Direct gradient analysis: effect of altitude. - 11.5.Direct gradient analysis: additional effect of other habitat characteristics. - 12. Case study 2: Search for community composition patterns and their environmental correlates: vegetation of spring meadows. - 12.1. The unconstrained ordination. - 12.2. Constrained ordinations. - 12.3. Classification. - 12.4. Suggestions for additional analyses. - 13. Case study 3: Separating the effects of explanatory variables. - 13.1. Introduction. - 13.2. Data. - 13.3. Data analysis. - 14. Case study 4: Evaluation of experiments in randomized complete blocks. - 14.1. Introduction. - 14.2. Data. - 14.3. Data analysis. - 15. Case study 5: Analysis of repeated observations of species composition from a factorial experiment. - 15.1. Introduction. - 15.2. Experimental design. - 15.3. Sampling. - 15.4. Data analysis. - 15.5. Univariate analyses. - 15.6. Constrained ordinations. - 15.7. Further use of ordination results. - 15.8. Principal response curves. - 16. Case study 6: Hierarchical analysis of crayfish community variation. - 16.1. Data and design. - 16.2. Differences among sampling locations. - 16.3. Hierarchical decomposition'of community variation. - 17. Case study 7: Differentiating two species and their hybrids with discriminant analysis. - 17.1. Data. - 17.2. Stepwise selection of discriminating variables. - 17.3. Adjusting the discriminating variables. - 17.4. Displaying results. - Appendix A: Sample datasets and projects. - Appendix B: Vocabulary. - Appendix C: Overview of available software. - References. - Index.

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: Contents: Introduction / V. I. Nikolaev. - Oxygen isotope composition of the bone phosphate of reindeer: potential as a palaeoenvironmental recorder / Vladimir Nikolaev, Silvana Davanzo, Antonio Longinelli, Paola Iacumin. - Carbon isotope studies of mammoth's food and fossil remains / Vladimir Nikolaev, Silvana Davanzo, Ludmila Kuznetsova, Paola Iacumin. - A fresh approach to palaeogeography of northern regions of West Siberia in sartan time (Late Pleistocene) / Dimitri Bolshiyanov, Vladimir Nikolaev, Alexander Sosnovskiy. - Relief and sediments forming of the Eastern Khibiny Mountains in the end of Late Pleistocene and Holocene / F. A. Romanenko, A. A. Lukashov, E. D. Sheremetskaya, Yu. R. Belyaev, N. E. Zaretskaya, D. K. Kuznetsov, O. S. Olyunina, A. M. Tarbeeva. , In kyrillischer Schrift

Note: Contents: 1 Introduction ; 2 Income Taxation ; 3 Models of Optimal Lifetime Income Taxation with Time-Consistent Preferences ; 4 Models of Optimal Lifetime Income Taxation with Time-Inconsistent Preferences ; 5 Incomplete Markets and Social Security ; 6 Models of Optimal Retirement Incentives with Varying Disutility of Labor ; 7 Models of Optimal Retirement Incentives with Varying Life Expectancy ; 8 Pension Insurance Reform with a Focus onGermany ; 9 Theory and Policy

Note: Inhalt = Content 1. Vorwort = Introduction 2 . Ausgewählte Forschungsthemen = Selected research topics Wenn ein Eisrücken dem Wind im Weg steht = An ice ridge being an obstacle to the wind / Thomas Garbrecht, Christof Lüpkes Das Klima hat seine ganz eigene Dynamik = The climate has its own dynamics / Dörte Handorf, Antje Weisheimer, Klaus Dethloff Wenn die großen Gletscher kommen = The appearance of large glaciers / Katrin Meissner, Rüdiger Gerdes Molekularbiologen auf der Jagd nach toxischen Algenblüten = Development of methods for early warning systems / Linda Medlin, Christian Schütt Schlechte Aussichten für Kalkbildner im Meer = Poor prospects for marine calcifying organisms / Ulf Riebesell, Ingrid Zondervan, Björn Rost Der etwas andere Krill: Leben im kalten wie im warmen Wasser = Krill, a bit different: Life in both cold and warm waters / Friedrich Buchholz, Reinhard Saborowski, Markus Salomon Multidrug Resistenz - eine alte Überlebensstrategie von Meeresorganismen = Multidrug-Resistance - an ancient survival strategy for marine organisms / Angela Köhler-Günther, Alexander Lüdeking, Tilman Alpermann Nährstoffbelastung des Wattenmeeres und der angrenzenden Küstengewässer = Eutrophication of the Wadden Sea and adjacent coastal zone / Justus van Beusekom, Ragnhild Asmus, Victor de Jonge (RIKZ, NL), Eike Rachor Magnesium als Faktor für die Verbreitung von Krebsen in den Polarmeeren = Magnesium as a factor limiting the distribution of polar crustaceans / Franz-Josef Sartoris, Markus Frederich, Hans-Otto Pörtner Gebirge unter dem antarktischen Eis entdeckt = Discovery of a mountain range under the ice / Daniel Steinhage, Uwe Nixdorf, Uwe Meyer, Heinrich Miller Seesedimente Ostgrönlands als Zeugen von Klimaschwankungen und veränderten Meeresströmungen = Lacustrine sediments of East Greenland give evidence for changes in the climate and in the oceanic circulation pattern / Bernd Wagner, Martin Melles, Holger Cremer, Hans-W. Hubberten Östliche Karasee bereits früh eisfrei = Early deglaciation in the eastern Kara Sea / Hans Peter Kleiber, Frank Niessen 3. Forschung = Research 3.1 Klimasystem = 3.1 Climate system 3.2 Pelagische Ökosysteme = 3 .2 Pelagic ecosystems 3.3 Benthische Ökosysteme = 3.3 Benthic ecosystems 3.4 Geosystem = 3.4 Geosystem 3.5 Projektgruppen = 3.5 Project groups 4. Logistik und Expeditionen = Logistics and operational activities 5. Nationale und internationale Zusammenarbeit = National and international cooperation 6. Informationszentrum = Information center 7. Presse-und Öffentlichkeitsarbeit = Public relations department 8. Personeller Aufbau und Haushaltsentwicklung = Personnel structure and budget trends 9. Veröffentlichungen, Patente = Publications, patents Anhang = Annex I. Personal = I. Personnel II. Wissenschaftliche Veranstaltungen = II. Scientific events III. Abgeschlossene Examensarbeiten = III. Completed theses and dissertations

Note: Zugl.: Cambridge, Univ., Diss

Note: CONTENTS Page Preface Summary Introduction Temperature correction factors Crushing strength Tensile strength · Shear strength Torsional shear strength Work of disaggregation of snow Angle of internal friction and apparent unit cohesion Discussion of results References

Note: CONTENTS I. Introduction II. Instrumentation Recording of data III. Results Global radiation Albedo of snow Diffuse sky radiation Effect of clouds on radiation Atmospheric and terrestrial radiation Effect of low sun angle on measured radiation Global radiation gradient Atmospheric transmission coefficient Heat balance of snow cover Applied use of solar energy References. Appendix

Note: CONTENTS Preface Summary Introduction Apparatus Specimens Experimental procedures and results Analysis of the data Discussion References

Note: CONTENTS Preface Summary Introduction Definition of whiteout Scope of this study Instrumentation and observations Location of project: Fog particle measurements Atmospheric humidity measurements Visibility measurements Air temperature measurements Radiation measurements Atmospheric nuclei Observations of fog whiteout Conditions prior to onset of whiteout Conditions at time of arrival and during whiteout Micro-structure of fog whiteout Analysis of moisture balance during two selected cases Synoptic situation for case 1 Synoptic situation for case 2 Computations Attempts at fog whiteout dispersal References Appendix A - Freezing nuclei observations Appendix B - Absolute humidity gradient data

Note: Contents: Initial circumstances. - Conclusions. - State of affairs. - Detection and attribution of climate change. - Climate impact research. - The political dimension of climate change. - Climate protection from ethical points of view. - Economic aspects of climate politics. - Flexible instruments - the situation in Germany. - Legal framework for climate protection. - Trans-disciplinary evaluation of climate problems. - Trans-disciplinary evaluation of modelling future climates. - Preconditions for the determination of objectives in climate politics. - Elements of rational climate politics. - Precautionary principle and the principle of adequacy. - Economic and ethical rationality. - Strategies for coherent climate politics. -

Note: Contents Acknowledgements Editor's Preface Translator's Preface Preface to Volume V of the Russian Edition, Salicaceae-Portulacaceae Preface to Volume VI of the Russian Edition, Caryophyllaceae-Ranunculaceae Abbreviations Used in Citing Floristic and Systematic Literature FAMILY XX / Salicaceae — Willow Family GENUS 1 / Populus - Poplar GENUS 2 / Chosenia - Chosenia GENUS 3 / Salix - Willow FAMILY XXI / Betulaceae — Birch Family GENUS 1 / Betula - Birch GENUS 2 / Alnaster - Green Alder GENUS 3 / Alnus - Alder FAMILY XXII / Urticaceae — Nettle Family GENUS 1 / Urtica - Nettle FAMILY XXIII / Polygonaceae — Buckwheat Family GENUS 1 / Oxyria - Mountain Sorrel GENUS 2 / Rumex - Dock, Sorrel GENUS 3 / Rheum - Rhubarb GENUS 4 / Koenigia - Koenigia GENUS 5 / Polygonum - Knotweed, Smartweed FAMILY XXIV / Chenopodiaceae — Goosefoot Family GENUS 1 / Chenopodium - Goosefoot GENUS 2 / Monolepis - Monolepis GENUS 3 / Atriplex - Orache GENUS 4 / Corispermum - Bugseed FAMILY XXV / Portulacaceae — Purslane Family GENUS 1 / Claytonia - Spring Beauty GENUS 2 / Montia - Blinks FAMILY XXVI / Caryophyllaceae — Pink Family GENUS 1 / Stellaria - Chickweed, Stitchwort GENUS 2 / Cerastium - Mouse-ear Chickweed GENUS 3 / Sagina - Pearlwort GENUS 4 / Minuartia - Minuartia GENUS 5 / Honkenya - Sea Sandwort GENUS 6 / Arenaria - Sandwort GENUS 7 / Moehringia - Groue Sandwort GENUS 8 / Merckia - Mercfo'a GENUS 9 / Spergula - Corn Spurry GENUS 10 / Spergularia - Sand Spurry GENUS 11 / Agrostemma - Corn Cockle GENUS 12 / Viscaria - Catchfly GENUS 13 / Silene - Campion GENUS 14 / Lychnis - Lychnis GENUS 15 / Coronaria - Ragged Robin GENUS 16 / Gastrolychnis - Gastrolychnis GENUS 17 / Gypsophila - Baby's-breath GENUS 18 / Dianthus - Pink FAMILY XXVII / Faeoniaceae — Peony Family GENUS 1 /Paeonia - Peony FAMILY XXVIII / Ranunculaceae — Buttercup Family GENUS 1 / Caltha - Marsh Marigold GENUS 2 / Trollius - Globe Flower GENUS 2a / Coptis - Goldthread GENUS 3 / Aquilegia - Columbine GENUS 4 / Delphinium - Larkspur GENUS 5 / Aconitum - Monkshood GENUS 6 7 Anemone - Anemone GENUS 7 / Pulsatilla - Pasque Flower GENUS 8 / Atragene - Alpine Clematis GENUS 9 / Oxygraphis - Oxygraphis GENUS 10 / Beckwithia - Beckwithia GENUS 11 / Batrachium - White Water Crowfoot GENUS 12 / Ranunculus - Buttercup GENUS 13 / Thalictrum - Meadow Rue APPENDIX I / Summary of Data on the Geographical Distribution of Vascular Plants of the Soviet Arctic TABLE 5 / Distribution of Vascular Plants of the Soviet Arctic, Salicaceae-Ranunculaceae Index of Plant Names

Note: CONTENTS: Preface. - Definitions. - 1 Atmospheric Properties. - 1.1. Atmospheric Structure. - 1.1.1. Atmospheric Layers. - 1.1.2. Convective and Stable Boundary Layers. - 1.1.3. Boundary Layer Theory. - 1.2. Atmospheric Properties. - 1.2.1. Vertical Profiles of Temperature, Pressure and Number Density. - 1.2.2. Tropospheric and Stratospheric Aerosols. - 1.2.3. Particulate Sizes and Distributions. - 1.2.4. Atmospheric Data Sets. - 2 Light Propagation in the Atmosphere. - 2.1. Light Extinction and Transmittance. - 2.2. Total and Directional Elastic Scattering of the Light Beam. - 2.3. Light Scattering by Molecules and Particulates: Inelastic Scattering. - 2.3.1. Index of Refraction. - 2.3.2. Light Scattering by Molecules (Rayleigh Scattering). - 2.3.3. Light Scattering by Particulates (Mie Scattering). - 2.3.4. Monodisperse Scattering Approximation. - 2.3.5. Polydisperse Scattering Systems. - 2.3.6. Inelastic Scattering. - 2.4. Light Absorption by Molecules and Particulates. - 3 Fundamentals of the Lidar Technique. - 3.1. Introduction to the Lidar Technique. - 3.2. Lidar Equation and lts Constituents. - 3.2.1. The Single-Scattering Lidar Equation. - 3.2.2. The Multiple-Scattering Lidar Equation. - 3.3. Elastic Lidar Hardware. - 3.3.1 Typical Lidar Hardware. - 3.4. Practical Lidar lssues. - 3.4.1. Determination of the Overlap Function. - 3.4.2. Optical Filtering. - 3.4.3. Optical Alignment and Scanning. - 3.4.4. The Range Resolution of a Lidar. - 3.5. Eye Safety Issues and Hardware. - 3.5.1. Lidar-Radar Combination. - 3.5.2. Micropulse Lidar. - 3.5.3. Lidars Using Eye-Safe Laser Wavelengths. - 4 Detectors, Digitizers, Electronics. - 4.1. Detectors. - 4.1.1. General Types of Detectors. - 4.1.2. Specific Detector Devices. - 4.1.3. Detector Performance. - 4.1.4. Noise. - 4.1.5. Time Response. - 4.2. Electric Circuits for Optical Detectors. - 4.3. A-D Converters/Digitizers. - 4.3.1. Digitizing the Detector Signal. - 4.3.2. Digitizer Errors. - 4.3.3. Digitizer Use. - 4.4. General. - 4.4.1. Impedance Matching. - 4.4.2. Energy Monitaring Hardware. - 4.4.3. Photon Counting. - 4.4.4. Variable Amplification. - 5 Analytical Solutions of the Lidar Equation. - 5.1. Simple Lidar-Equation Solution for a Homogeneaus Atmosphere: Slope Method. - 5.2. BasicTransformation of the Elastic Lidar Equation. - 5.3. Lidar Equation Solution for a Single-Component Heterogeneaus Atmosphere. - 5.3.1. Boundary Point Solution. - 5.3.2. Optical Depth Solution. - 5.3.3. Solution Based on a Power-Law Relationship Between Backscatter and Extinction. - 5.4. Lidar Equation Solution for a Two-Component Atmosphere. - 5.5. Which Solution is Best?. - 6 Uncertainty Estimation for Lidar Measurements. - 6.1. Uncertainty for the Slope Method. - 6.2. Lidar Measurement Uncertainty in a Two-Component Atmosphere. - 6.2.1. General Formula. - 6.2.2. Boundary Point Solution: Influence of Uncertainty and Location of the Specified Boundary Value on the Uncertainty δkw(r). - 6.2.3. Boundary-Point Solution: lnfl.uence of the Particulate Backscatter-to-Extinction Ratio and the Ratio Between Kp(r) and Km(r) on Measurement Accuracy. - 6.3. Background Constituent in the Original Lidar Signal and Lidar Signal Averaging. - 7 Backscatter-to-Extinction Ratio. - 7.1. Exploration of the Backscatter-to-Extinction Ratios: Brief Review. - 7.2. lnfluence of Uncertainty in the Backscatter-to-Extinction Ratio on the Inversion Result. - 7.3. Problem of a Range-Dependent Backscatter-to-Extinction Ratio. - 7.3.1. Application of the Power-Law Relationship Between Backscattering and Total Scattering in Real Atmospheres: Overview. - 7.3.2. Application of a Range-Dependent Backscatter-to-Extinction Ratio in Two-Layer Atmospheres. - 7.3.3. Lidar Signal Inversion with an Iterative Procedure. - 8 Lidar Examination of Clear and Moderately Turbid Atmospheres. - 8.1. One-Directional Lidar Measurements: Methods and Problems. - 8.1.1. Application of a Particulate-Free Zone Approach. - 8.1.2. Iterative Method to Determine the Location of Clear Zones. - 8.1.3. Two-Boundary-Point and Optical Depth Solutions. - 8.1.4. Combination of the Boundary Point and Optical Depth Solutions. - 8.2. Inversion Techniques for a "Spotted" Atmosphere. - 8.2.1. General Principles of Localization of Atmospheric "Spots". - 8.2.2. Lidar-Inversion Techniques for Monitaring and Mapping Particulate Plumes and Thin Clouds. - 9 Multiangle Methods for Extinction Coefficient Determination. - 9.1. Angle-Dependent Lidar Equation and Its Basic Solution. - 9.2. Solution for the Layer-Integrated Form of the Anglenependent Lidar Equation. - 9.3. Solution for the Two-Angle Layer-Integrated Form of the Lidar Equation. - 9.4. Two-Angle Solution for the Angle-Independent Lidar Equation. - 9.5. High-Altitude Tropospheric Measurements with Lidar. - 9.6. Which Method Is the Best?. - 10 Differential Absorption Lidar Technique (DIAL). - 10.1. DIAL Processing Technique: Fundamentals. - 10.1.1. General Theory. - 10.1.2. Uncertainty of the Backscatter Corrections in Atmospheres with Large Gradients of Aerosol Backscattering. - 10.1.3. Dependence of the DIAL Equation Correction Terms on the Spectral Range Interval Between the On and Off Wavelengths. - 10.2. DIAL Processing Technique: Problems. - 10.2.1. Uncertainty of the DIAL Solution for Column Content of the Ozone Concentration. - 10.2.2. Transition from Integrated to Range-Resolved Ozone Concentration: Problems of Numerical Differentiation and Data Smoothing. - 10.3. Other Techniques for DIAL Data Processing. - 10.3.1. DIAL Nonlinear Approximation Technique for Determining Ozone Concentration Profiles. - 10.3.2. Compensational Three-Wavelength DIAL Technique. - 11 Hardware Solutions to the Inversion Problem. - 11.1. Use of N2 Raman Scattering for Extinction Measurement. - 11.1.1. Method. - 11.1.2. Limitations of the Method. - 11.1.3. Uncertainty. - 11.1.4. Altemate Methods. - 11.1.5. Determination of Water Content in Clouds. - 11.2. Resolution of Particulate and Molecular Scattering by Filtration. - 11.2.1. Background. - 11.2.2. Method. - 11.2.3. Hardware. - 11.2.4. Atomic Absorption Filters. - 11.2.5. Sources of Uncertainty. - 11.3. Multiple-Wavelength Lidars. - 11.3.1. Application of Multiple-Wavelength Lidars for the Extraction of Particulate Optical Parameters. - 11.3.2. Investigation of Particulate Microphysical Parameters with Multiple-Wavelength Lidars. - 11.3.3. Limitations of the Method. - 12 Atmospheric Parameters from Elastic Lidar Data. - 12.1. Visual Range in Horizontal Directions. - 12.1.1. Definition of Terms. - 12.1.2. Standard Instrumentation and Measurement Uncertainties. - 12.1.3. Methods of the Horizontal Visibility Measurement with Lidar. - 12.2. Visual Range in Slant Directions. - 12.2.1. Definition of Terms and the Concept of the Measurement. - 12.2.2. Asymptotic Method in Slant Visibility Measurement. - 12.3. Temperature Measurements. - 12.3.1. Rayleigh Scattering Temperature Technique. - 12.3.2. Metal Ion Differential Absorption. - 12.3.3. Differential Absorption Methods. - 12.3.4. Doppler Broadening of the Rayleigh Spectrum. - 12.3.5. Rotational Raman Scattering. - 12.4. Boundary Layer Height Determination. - 12.4.1. Profile Methods. - 12.4.2. Multidimensional Methods. - 12.5. Cloud Boundary Determination. - 13 Wind Measurement Methods from Elastic Lidar Data. - 13.1. Correlation Methods to Determine Wind Speed and Direction. - 13.1.1. Point Correlation Methods. - 13.1.2. Two-Dimensional Correlation Method. - 13.1.3. Fourier Cerrelation Analysis. - 13.1.4. Three-Dimensional Correlation Method. - 13.1.5. Multiple-Beam Technique. - 13.1.6. Uncertainty in Correlation Methods. - 13.2. Edge Technique. - 13.3. Fringe Imaging Technique. - 13.4. Kinetic Energy, Dissipation Rate, and Divergence. - Bibliography. - Index.

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

Note: Dissertation zur Erlangung des Doktorgrades der Naturwissenschaften am Fachbereich Geowissenschaften der Universität Bremen, 2003

Note: Science as the open society and its ideological deformations -- Role of scale in the scope of scientific governance -- Historical interdependence of the university and knowledge production -- Multiculturalism's challenge to academic integrity: or a tale of two churches -- University as capitalism's final frontier: or the fading hope for enlightenment in a complex world -- Sociology as both sanctifier and secularizer of science -- Road not taken: revisiting the original New Deal -- Elements for a new constitution of science..

Note: Contents: Preface to the eighth edition. - Acknowledgements. - 1 INTRODUCTION AND HISTORY OF METEOROLOGY AND CLIMATOLOGY. - A The atmosphere. - B Solar energy. - C Global circulation. - D Climatology. - E Mid-latitude disturbances. - F Tropical weather. - G Palaeoclimates. - H The global climate system. - 2 ATMOSPHERIC COMPOSITION, MASS AND STRUCTURE. - A Composition of the atmosphere. - 1 Primary gases. - 2 Greenhouse gases. - 3 Reactive gas species. - 4 Aerosols. - 5 Variations with height. - 6 Variations with latitude and season. - 7 Variations with time. - B Mass of the atmosphere. - 1 Total pressure. - 2 Vapour pressure C The layering of the atmosphere. - 1 Troposphere. - 2 Stratosphere. - 3 Mesosphere. - 4 Thermosphere. - 5 Exosphere and magnetosphere. - 3 SOLAR RADIATION AND THE GLOBAL ENERGY BUDGET. - A Solar radiation. - 1 Solar output. - 2 Distance from the sun. - 3 Altitude of the sun. - 4 Length of day. - B Surface receipt of solar radiation and its effects. - 1 Energy transfer within the earth-atmosphere system. - 2 Effect of the atmosphere. - 3 Effect of cloud cover. - 4 Effect of latitude. - 5 Effect ofland and sea. - 6 Effect of elevation and aspect. - 7 Variation of free-air temperature with height. - C Terrestrial infra-red radiation and the greenhouse effect. - D Heat budget of the earth. - E Atmospheric energy and horizontal heat transport. - 1 The horizontal transport of heat. - 2 Spatial pattern of the heat budget components. - 4 ATMOSPHERIC MOISTURE BUDGET. - A The global hydrological cycle. - B Humidity. - 1 Moisture content. - 2 Moisture transport. - C Evaporation. - D Condensation. - E Precipitation characteristics and measurement. - 1 Forms of precipitation. - 2 Precipitation characteristics. - a Rainfall intensity. - b Areal extent of a rainstorm. - c Frequency of rainstorms. - 3 The world pattern of precipitation. - 4 Regional variations in the altitudinal maximum of precipitation. - 5 Drought. - 5 ATMOSPHERIC INSTABILITY, CLOUD FORMATION AND PRECIPITATION PROCESSES. - A Adiabatic temperature changes. - B Condensation level. - C Air stability and instability. - D Cloud formation. - 1 Condensation nuclei. - 2 Cloud types. - 3 Global cloud cover. - E Formation of precipitation. - 1 Bergeron-Findeisen theory. - 2 Coalescence theories. - 3 Solid precipitation. - F Precipitation types. - 1 'Convective type' precipitation. - 2 'Cyclonic type' precipitation. - 3 Orographic precipitation. - G Thunderstorms. - 1 Development. - 2 Cloud electrification and lightning. - 6 ATMOSPHERIC MOTION: PRINCIPLES. - A Laws of horizontal motion. - 1 The pressure-gradient force. - 2 The earth's rotational deflective (Coriolis) force. - 3 The geostrophic wind. - 4 The centripetal acceleration. - 5 Frictional forces and the planetary boundary layer. - B Divergence, vertical motion and vorticity. - 1 Divergence. - 2 Vertical motion. - 3 Vorticity. - C Local winds. - 1 Mountain and valley winds. - 2 Land and sea breezes. - 3 Winds due to topographic barriers. - 7 PLANETARY-SCALE MOTIONS IN THE ATMOSPHERE AND OCEAN. - A Variation of pressure and wind velocity with height. - 1 The vertical variation of pressure systems. - 2 Mean upper-air patterns. - 3 Upper wind conditions. - 4 Surface pressure conditions. - B The global wind belts. - 1 The trade winds. - 2 The equatorial westerlies. - 3 The mid-latitude (Ferrel) westerlies. - 4 The polar easterlies. - C The general circulation. - 1 Circulations in the vertical and horizontal planes. - 2 Variations in the circulation of the northern hemisphere. - a Zonal index variations. - b North Atlantic Oscillation. - D Ocean structure and circulation. - 1 Above the thermocline. - a Vertical. - b Horizontal. - 2 Deep ocean water interactions. - a Upwelling. - b Deep ocean circulation. - 3 The oceans and atmospheric regulation. - 8 NUMERICAL MODELS OF THE GENERAL CIRCULATION, CLIMATE AND WEATHER PREDICTION / T. N. Chase and R. G. Barry. - A Fundamentals of the GCM. - B Model simulations. - 1 GCMs. - 2 Simpler models. - 3 Regional models. - C Data sources for forecasting. - D Numerical weather prediction. - 1 Short- and medium-range forecasting. - 2 'Nowcasting'. - 3 Long-range outlooks. - 9 MID-LATITUDE SYNOPTIC AND MESOSCALE SYSTEMS. - A The airmass concept. - B Nature of the source area. - 1 Cold airmasses. - 2 Warm airmasses. - C Airmass modification. - 1 Mechanisms of modification. - a Thermodynamic changes. - b Dynamic changes. - 2 The results of modification: secondary airmasses. - a Cold air. - b Warm air. - 3 The age of the airmass. - D Frontogenesis. - 1 Frontal waves. - 2 The frontal-wave depression. - E Frontal characteristics. - 1 The warm front. - 2 The cold front. - 3 The occlusion. - 4 Frontal-wave families. - F Zones of wave development and frontogenesis. - G Surface/upper-air relationships and the formation of frontal cyclones. - H Non-frontal depressions. - 1 The lee cyclone. - 2 The thermal low. - 3 Polar air depressions. - 4 The cold low. - I Mesoscale convective systems. - 10 WEATHER AND CLIMATE IN MIDDLE AND HIGH LATITUDES. - A Europe. - 1 Pressure and wind conditions. - 2 Oceanicity and continentality. - 3 British airflow patterns and their climatic characteristics. - 4 Singularities and natural seasons. - 5 Synoptic anomalies. - 6 Topographic effects. - B North America. - 1 Pressure systems. - 2 The temperate west coast and Cordillera. - 3 Interior and eastern North America. - a Continental and oceanic influences. - b Warm and cold spells. - c Precipitation and the moisture balance. - C The subtropical margins. - 1 The semi-arid southwestern United States. - 2 The interior southeastern United States. - 3 The Mediterranean. - 4 North Africa. - 5 Australasia. - D High latitudes. - 1 The southern westerlies. - 2 The sub-Arctic. - 3 The polar regions. - a The Arctic. - b Antarctica. - 11 TROPICAL WEATHER AND CLIMATE. - A The intertropical convergence. - B Tropical disturbances. - 1 Wave disturbances. - 2 Cyclones. - a Hurricanes and typhoons. - b Other tropical disturbances. - 3 Tropical cloud clusters. - C The Asian monsoon. - 1 Winter. - 2 Spring. - 3 Early summer. - 4 Summer. - 5 Autumn. - D East Asian and Australian summer monsoons. - E Central and southern Africa. - 1 The African monsoon. - 2 Southern Africa. - F Amazonia. - G El Niño-Southern Oscillation (ENSO) events. - 1 The Pacific Ocean. - 2 Teleconnections. - H Other sources of climatic variations in the tropics. - 1 Cool ocean currents. - 2 Topographic effects. - 3 Diurnal variations. - I Forecasting tropical weather. - 1 Short- and extended-range forecasts. - 2 Long-range forecasts. - 12 BOUNDARY LAYER CLIMATES. - A Surface energy budgets. - B Non-vegetated natural surfaces. - 1 Rock and sand. - 2 Water. - 3 Snow and ice C Vegetated surfaces. - 1 Short green crops. - 2 Forests. - a Modification of energy transfers. - b Modification of airflow. - c Modification of the humidity environment. - d Modification of the thermal environment. - D Urban surfaces. - 1 Modification of atmospheric composition. - a Aerosols. - b Gases. - c Pollution distribution and impacts. - 2 Modification of the heat budget. - a Atmospheric composition. - b Urban surfaces. - c Human heat production. - d Heat islands. - 3 Modification of surface characteristics. - a Airflow. - b Moisture. - 4 Tropical urban climates. - 13 CLIMATE CHANGE. - A General considerations. - B Climate forcings and feedbacks. - 1 External forcing. - 2 Short-term forcing and feedback. - C The climatic record. - 1 The geological record. - 2 Late glacial and post-glacial conditions. - 3 The past 1000 years. - D Possible causes of recent climatic change. - 1 Circulation changes. - 2 Energy budgets. - 3 Anthropogenic factors. - E Model s

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: Enthält 5 Zeitschriftenaufsätze , Dissertation, Göteborgs Universitet, 2002 , Table of Contents: Introduction Methods Summary of Papers Paper I Paper II Paper III Paper IV Paper V Conclusions and discussion Acknowledgements References Appendices Paper I: Late Quaternary stratigraphy of western Yamal Peninsula, Russia : new constraints on the configuration of the Eurasian ice sheet / Forman, S. L., Ingólfson, Ó., Gataullin, V., Manley, W. F., Lokrantz, H. Paper II: Late Quaternary stratigraphy, glacial limits and paleoenvironments of the Maresale area, western Yamal Peninsula, Russia / Forman, S. L., Ingólfson, Ó., Gataullin, V., Manley, W. F., Lokrantz, H. Paper III: Late Quaternary stratigraphy, Radiocarbon Chronology, and Glacial History at Cape Shpindler, Southern Kara Sea, Arctic Russia / Manley, W. F., Lokrantz, H., Gataullin, V., Ingólfson, Ó., Andersson, T. Paper IV: Glaciotectonised Quaternary sediments at Cape Shpindler, Yugorski Peninsula, Arctic Russia : implications of glacial history, ice movements and Kara Sea Ice Sheet configuration / Lokrantz, H., Ingólfson, Ó. and Forman, S. L. Paper V: Origin of a massive ground ice body on Yugorski Peninsula, Arctic Russia : buried glacier ice or intrasedimental segregation ice? / Lokrantz, H. and Ingólfson, Ó.

Note: Contents: Imprint Published Reports Preface Summary Zusammenfassung Résumé Riassunto Resumaziun 1 Introduction 2 Weather and Climate 2.1 Weather and Climate in 2004/2005 2.2 Weather and Climate in 2005/2006 2.3 Climate Deviation from the Mean Value 1961–1990 2.4 Duration of the Snow Cover 3 Borehole Measurements 3.1 Active Layer Thickness 3.2 Permafrost Temperatures 3.2 ERT Monitoring Network 3.4 Conclusions Boreholes 4 Surface Temperatures 4.1 Surface Temperatures in Unconsolidated Sediments 4.2 Rock Surface Temperatures 4.3 Conclusions Surface Temperatures 5 Air Photos 5.1 Air Photos in 2004/2005 and 2005/2006 6 Conclusion 7 Selected Aspects of Permafrost Monitoring 7.1 Short-term Variations in Rock Glacier Kinematics 7.2 Destabilized Rock Glaciers 7.3 Conclusions Rock Glacier Dynamics Acknowledgements References Appendix

Note: Erscheint alle 2 Jahre , Text in deutscher und englischer Sprache

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 Introduction I. Physiographic description of study area II. Structure of the marginal zone of the ice cap III. Geomorphologic processes IV. Recent glacial history of the ice margin

Note: Contents: 1:Information, Equilibrium, Efficiency Concepts ; 2:No-Trade Theorems, Asset Pricing, Bubbles ; 3:Market Microstructure Models ; 4:Dynamic Models, Technical Analysis and Volume ; 5:Herding and Informational Cascades ; 6:Crashes, Investigative Herding, Bank Runs

Note: Contents Introduction Why Some Bears Attack Attack - Chris Widrig Warning Signs Attack - Michio Hishino How to Survive a Bear Attack Attack - Terry Everard When Traveling in Bear Country Attack - Mark Matheny Attacks: Are They Increasing? Attack - Glenda Ann Bradley Ned Rasmussen and Gene Moe Hattie Amitnaag and Moses Aliyak Photographing bears Bibliography

Note: CONTENTS Page Preface Summary Introduction Ring tensile strength Flexural strength of small beams Flexural strength of inplace beams Crushing strength Shear strength Discussion of results References

Note: CONTENTS Preface Summary Introduction Procedure Preparation of test plots Measurements of ice and gravel surfaces Composition of the gravel covering Results Sorting in a smooth layer of sandy gravel over an uneven ice surface Sorting in a uniform layer of sandy gravel over depressions in the ice surface Sorting in a uniform layer of sandy gravel over a uniform ice surface Sorting in a non-uniform layer of sandy gravel over a uniform ice surface Discussion and recommendations Conclusions References