Climatology: An Atmospheric Science offers a systematic examination of the Earth's climate system, focusing on the long-term patterns and processes that define weather over decades and centuries. The book details the fundamental components of this system, including the atmosphere, hydrosphere, cryosphere, lithosphere, and biosphere, and explains their continuous interactions through the flows of energy, water, and chemicals. It breaks down the primary drivers of climate, from the distribution of solar radiation and the planet's orbital characteristics to the complex circulation of oceans and atmosphere, which redistribute heat from the tropics to the poles. The text employs both observational data and theoretical models to explain the classification and distribution of the world's climatic zones. It analyzes the mechanisms behind phenomena such as monsoons, El Niño-Southern Oscillation (ENSO) cycles, and the periodic advance and retreat of glaciers. A significant portion of the work is dedicated to the evidence, causes, and projected consequences of contemporary climate change, discussing the enhanced greenhouse effect, the role of anthropogenic emissions, and the feedback loops involving clouds, ice albedo, and carbon cycles. This study presents climatology not as a static catalog of weather statistics but as a dynamic, analytical science. It highlights the use of paleoclimatological records-from ice cores to sediment layers-to reconstruct past climates and establish a baseline for current changes.
Thomas Johnson maps the complex and vital systems of Earth's atmosphere. His work in climatology synthesizes data from ancient ice cores, satellite telemetry, and global sensor networks to construct a coherent picture of planetary weather patterns and long-term climatic trends. For Johnson, the atmosphere is a dynamic, interconnected fluid, a global engine driven by solar energy, rotation, and the planet's own geography, where localized events ripple into global consequences. Johnson's expertise lies in making vast atmospheric processes tangible and immediate. He details how ocean currents transfer heat, how mountain ranges shape regional rainfall, and how microscopic particles in the air can alter cloud formation and global temperature. His analysis connects the fundamental physics of radiation and thermodynamics directly to observable phenomena-the formation of a hurricane, the persistence of a drought, or the shifting path of a jet stream. He frames climate not as a static backdrop, but as a continuous, interactive dialogue between the oceans, land, ice, and air. A central pillar of Johnson's approach is the rigorous interpretation of evidence. He elucidates how climatologists distinguish natural variability from anthropogenic signals, using tree rings, sediment layers, and instrumental records to reconstruct past climates and project future scenarios. His work emphasizes the scientific method in action: the formulation of models, the testing of hypotheses against real-world data, and the continuous refinement of predictions as new information emerges from a warming Arctic or a changing ocean current. As a communicator, Johnson's style is precise and evocative. He translates intricate concepts like albedo feedback loops, atmospheric cell circulation, and carbon cycle fluxes into clear, logical narratives. He uses vivid examples-the drying of a continent, the intensification of a storm surge, the retreat of a glacier-to demonstrate the principles of atmospheric science at work, making the global scale personal and urgent.
| Preface Chapter 1. Foundations of Climatology Definition, Scope, and Evolution of Climatology Weather and Climate: Concepts and Distinctions Components of the Climate System Spatial and Temporal Scales of Climate Atmospheric Composition and Structure Energy Balance of the Earth–Atmosphere System Climate Classification and Terminology Interdisciplinary Linkages in Climate Science Chapter 2. Atmospheric Structure and Dynamics Vertical Structure of the Atmosphere Thermal Stratification and Lapse Rates Atmospheric Pressure and Density Forces Governing Atmospheric Motion Wind Systems and Circulation Patterns Jet Streams and Upper-Air Dynamics Atmospheric Stability and Instability General Circulation of the Atmosphere Chapter 3. Solar Radiation and Earth’s Energy Budget Nature and Properties of Solar Radiation Insolation and Its Geographic Distribution Reflection, Absorption, and Scattering Albedo and Surface Energy Exchange Terrestrial Radiation and Heat Balance Greenhouse Effect and Atmospheric Heating Seasonal and Latitudinal Energy Variations Measurement of Radiation and Energy Fluxes Chapter 4. Temperature and Heat Distribution Controls of Air Temperature Horizontal and Vertical Temperature Patterns Diurnal and Seasonal Temperature Variation Land–Sea Contrast and Continentality Temperature Inversions and Their Effects Urban Heat Island Phenomenon Extreme Temperature Events Global and Regional Temperature Trends Chapter 5. Atmospheric Moisture and Precipitation Water Vapor and Humidity Measures Evaporation, Condensation, and Sublimation Cloud Formation and Classification Precipitation Processes and Types Global Patterns of Rainfall Monsoons and Seasonal Moisture Regimes Droughts and Floods Measurement and Analysis of Precipitation |
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$280.00