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  • Cambridge [u.a.] : Cambridge University Press  (1)
  • Frontiers  (1)
  • American Meteorological Society (AMS)
  • 1
    Monograph available for loan
    Monograph available for loan
    Cambridge [u.a.] : Cambridge University Press
    Call number: AWI A13-92-0466 ; PIK N 456-93-0113
    Description / Table of Contents: Contents: Preface. - Acknowledgements. - The authors. - Acronyms. - Notation. - Physical constants. - PART 1: INTRODUCTION. - 1 Introduction to climate modeling. - 2 Human components of the climate system. - PART 2: THE SCIENCE: SUBSYSTEMS AND PROCESSES. - 3 The atmosphere. - 4 The ocean circulation. - 5 Land surface. - 6 Terrestrial ecosystems. - 7 Atmospheric chemistry. - 8 Marine biogeochemistry. - PART 3: MODELING AND PARAMETERIZATION. - 9 Climate system simulation: basic numerical & computational concepts. - 10 Atmospheric general circulation modeling. - 11 Ocean general circulation modeling. - 12 Sea ice models. - 13 Land ice and climate. - 14 Biophysical models of land surface processes. - 15 Chemistry-transport models. - 16 Biogeochemical ocean models. - PART 4: COUPLINGS AND INTERACTIONS. - 17 Global coupled models: atmosphere, ocean, sea ice. - 18 Tropical pacific ENSO models: ENSO as a mode of the coupled system. - PART 5: SENSITIVITY EXPERIMENTS AND APPLICATIONS. - 19 Climate variability simulated in GCMs. - 20 Climate-model responses to increased CO2 and other greenhouse gases. - 21 Modeling large climatic changes of the past. - 22 Changes in land use. - PART 6: FUTURE PROSPECTS. - 26 Climate system modeling prospects. - References. - Index
    Description / Table of Contents: It is now widely recognized that human activities are transforming the global environment. What will be the changes in climate caused by anthropogenic influences and how do these compare with natural variations? To address these questions there is an urgent need to understand and model the global climate system effectively. A central role of climate system models will be to help determine possible impacts and help guide possible future policies. Climate System Modeling provides a thorough grounding in climate dynamics and the issues involved but also the mathematical, physical, chemical and biological basis for the component models and the sources of uncertainty, the assumptions made and approximations introduced. Climate system models go beyond climate models to include all aspects of the climate system: the atmosphere, the ocean, the cryosphere (including snow, sea ice, and glaciers), the biosphere and terrestrial ecosystems, other land surface processes and additional parts of the hydrosphere including ricers, and all the complex interactions between these components. The biogeochemical cycles in both the atmosphere and the ocean are dealt with in detail, potentially allowing the carbon cycle, for instance, to be treated with some veracity. Instead of projecting and specifying what future atmospheric concentrations of carbon dioxide and methane might be, the goal of these models is to deal comprehensively with the carbon cycle and predict the future evolution of greenhouse gas concentrations, as well as the impact of those changes on the physical climate. Climate System Modeling is a comprehensive text which will appeal to students and researchers concerned with any aspect of climate and the study of related topics in the earth and environmental sciences.
    Type of Medium: Monograph available for loan
    Pages: XXIX, 788 S. : graph. Darst.
    ISBN: 0521432316
    Location: A 18 - must be ordered
    Branch Library: AWI Library
    Branch Library: PIK Library
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  • 2
    Publication Date: 2022-01-31
    Description: The Atlantic Meridional Overturning Circulation (AMOC) extends from the Southern Ocean to the northern North Atlantic, transporting heat northwards throughout the South and North Atlantic, and sinking carbon and nutrients into the deep ocean. Climate models indicate that changes to the AMOC both herald and drive climate shifts. Intensive trans-basin AMOC observational systems have been put in place to continuously monitor meridional volume transport variability, and in some cases, heat, freshwater and carbon transport. These observational programs have been used to diagnose the magnitude and origins of transport variability, and to investigate impacts of variability on essential climate variables such as sea surface temperature, ocean heat content and coastal sea level. AMOC observing approaches vary between the different systems, ranging from trans-basin arrays (OSNAP, RAPID 26 degrees N, 11 degrees S, SAMBA 34.5 degrees S) to arrays concentrating on western boundaries (e.g., RAPID WAVE, MOVE 16 degrees N). In this paper, we outline the different approaches (aims, strengths and limitations) and summarize the key results to date. We also discuss alternate approaches for capturing AMOC variability including direct estimates (e.g., using sea level, bottom pressure, and hydrography from autonomous profiling floats), indirect estimates applying budgetary approaches, state estimates or ocean reanalyses, and proxies. Based on the existing observations and their results, and the potential of new observational and formal synthesis approaches, we make suggestions as to how to evaluate a comprehensive, future-proof observational network of the AMOC to deepen our understanding of the AMOC and its role in global climate.
    Type: Article , PeerReviewed , info:eu-repo/semantics/article
    Format: text
    Format: text
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