Volcanoes and sedimentary systems are linked by a strong relationship. The ascent and eruption of magma liberates large volumes of material, through a variety of mechanisms, to the surrounding environment, with subsequent sediment input and transport influencing the evolution of that environment. This connection between volcanism and adjacent sedimentary systems has long attracted the attention of geologists, giving rise to an increasing body of academic research over the past three decades. Volcanic Processes in the Sedimentary Record: When Volcanoes Meet the Environment collects innovative works exploring how volcanoes and sedimentary systems interact, moving from the processes directly associated with eruptive behaviour, to the most distal sedimentary offshoots, where volcanogenic particles are accumulated during or after volcanic activity. In doing this, different volcanic and environmental settings are explored, travelling through space and time, showing how volcaniclastic detritus is produced and dispersed by volcanic, volcano-sedimentary and sedimentary mechanisms, via processes affecting development of volcanic edifices themselves through to the most distal depocentres.

This volume focuses on how advances in both remote sensing and modelling can be brought together to improve our understanding of the behaviour of active volcanoes. It includes review papers, papers reporting technical advances and case studies showing how the integration of remote-sensing observations with models can be put to good use.

A Journey Through Tides is a fully comprehensive text on the history of tides. It brings together geology and oceanography and discusses, in detail, new ideas that have emerged about how tectonics and tides interact. In addition, the book provides an overview of Earth's history, from the perspective of tidal changes, while also highlighting other fascinating phenomena (e.g., solid Earth tides and links between tides and earthquakes). Sections cover an introduction to tides for oceanography students and scientists from other disciplines, cover the Earth's deep time processes, and include several case studies of specific topics/processes that apply to a earth science disciplines. There are many other processes that drive and modify the tides, hence this book also describes why there is a tide, how it has changed since Earth's early days, and what consequences the tides, and changes in the tides, have on other parts of the Earth system. - Presents a fully comprehensive overview on tides that goes beyond the field of oceanography - Provides a state-of-the-art review on science related to tides, a fundamental element in the Earth System that regulates our planet - Explores the limits of our knowledge, including much ongoing research on deep time tides, future tides, tides in exoplanets, and more - Includes a website with tectonic animations and associated tidal evolution videos for interactive learning

Volcanoes release gases to the atmosphere both during and between eruptive phases. Primary and secondary processes occurring within the mantle and crust control the gases’ chemical and isotopic compositions as well as their emission rates. Therefore by measuring these gases a wealth of scientific information concerning the source and fate of these fluids is provided. Fluid geochemistry has been highly useful in advancing both our fundamental scientific understanding and procedures for operational volcano monitoring and eruption forecasting. Gases from low-to-high temperature fumaroles and those diffusively released through the soils of volcanic flanks are investigated using various sampling and measurement techniques. Furthermore, a variety of remote sensing methods are applied at relatively great distances from the source to gather major gas composition and flux data for volcanic plumes using ground based, airborne (including UAV) and space borne platforms. The acquired data have advanced science in a number of key ways: • firstly, with parallel thermodynamical modelling to advance our capacity to interpret acquired degassing data; • secondly, through improved constraints on budgets for volcanically mediated geochemical cycling, particularly via regional subduction processes; • thirdly, through improved constraints on the effects of volcanic gases on atmospheric composition, chemistry and radiative transfer, particularly in terms of halogen chemistry, volcanogenic climate change and impacts on human health; • fourthly, there has been a growing body of work focused on combining degassing data with contemporaneous geophysical data and studies on conduit fluid dynamics to advance our understanding of how subterranean gas flow mediates activity at the surface; • and fifthly, there have been considerable advances in the methods themselves, used to make the gas measurements, in particular in terms of extractive sampling (e.g., using MultiGAS units, mass spectrometry, spectroscopic isotope measurement approaches and diffusive denuder sampling) and remote sensing approaches (e.g., DOAS, UV cameras and other imaging techniques, LIDAR and FT)

Atmospheric Oscillations: Sources of Subseasonal-to-Seasonal Variability and Predictability provides a thorough examination of the various atmospheric oscillations of scientific and societal importance in the context of natural climate variability and anthropogenic climate change. Included are introductions to each phenomenon, an overview of the state of knowledge, in-depth analysis of relevant dynamical processes, and discussions of the impacts on weather and climate and implications to subseasonal-to-seasonal predictions and predictability. Written by an international team of experts in the fields of atmospheric and planetary sciences, each chapter of the book either focuses on a specific atmospheric oscillation or the interaction between multiple oscillations. - Includes a comprehensive accounting of various atmospheric oscillations across different regions and subseasonal-to-seasonal time scales - Presents a detailed examination of each atmospheric oscillation, along with key examples of their interactions - Provides an in-depth analysis and discussion of relevant dynamical processes and implications to weather and climate predictions

Volcanic eruptions are complex and inherently uncertain, making the management of a potentially explosive eruption on a small island with limited resources extremely difficult. This volume presents scientific findings from the 2020–21 eruption of La Soufrière Volcano, on the island of St Vincent in the Eastern Caribbean. This involved three months of effusive activity that escalated rapidly to 13 days of explosive activity, beginning with an intense two days of near-continuous ash venting and explosions. The book contains an introduction and 17 papers, split into two parts: the first presents geological and volcanological advances, whereas the second documents and analyses the impacts of the eruption and the challenges presented for the management of the volcanic crisis. This volume represents both significant contributions to the knowledge of the Soufrière eruptive system and important insights into the ways and means by which volcanic eruptions of this type impact on populations at risk. It also provides detailed insights into the most effective communication processes through this type of crisis.

Comprehensive, up-to-date account of polar climate change over the last one million years for researchers and advanced students in polar science.

Volcanic eruptions are common, with more than 50 volcanic eruptions in the United States alone in the past 31 years. These eruptions can have devastating economic and social consequences, even at great distances from the volcano. Fortunately many eruptions are preceded by unrest that can be detected using ground, airborne, and spaceborne instruments. Data from these instruments, combined with basic understanding of how volcanoes work, form the basis for forecasting eruptionsâ€"where, when, how big, how long, and the consequences. Accurate forecasts of the likelihood and magnitude of an eruption in a specified timeframe are rooted in a scientific understanding of the processes that govern the storage, ascent, and eruption of magma. Yet our understanding of volcanic systems is incomplete and biased by the limited number of volcanoes and eruption styles observed with advanced instrumentation. Volcanic Eruptions and Their Repose, Unrest, Precursors, and Timing identifies key science questions, research and observation priorities, and approaches for building a volcano science community capable of tackling them. This report presents goals for making major advances in volcano science.