Lavoisier S.A.S.
14 rue de Provigny
94236 Cachan cedex
FRANCE

Heures d'ouverture 08h30-12h30/13h30-17h30
Tél.: +33 (0)1 47 40 67 00
Fax: +33 (0)1 47 40 67 02


Url canonique : www.lavoisier.fr/livre/sciences-de-la-terre/hydro-climatic-extremes-in-the-anthropocene/descriptif_4954427
Url courte ou permalien : www.lavoisier.fr/livre/notice.asp?ouvrage=4954427

Hydro-Climatic Extremes in the Anthropocene, 1st ed. 2023 Springer Climate Series

Langue : Anglais
This book explores how human civilization has contributed to changes in the Anthropocene, an era that marks a fundamental change in the way mankind has interacted with the Earth system. It examines the 21st century in the context of human development of water infrastructures, climate change impacts on freshwater resources, groundwater depletion, rising population, land use change, extreme events (droughts, floods, and wildfires). The implications of climate change impacts on environmental assets and the global water cycle are also highlighted. The book takes a pragmatically trans-disciplinary and holistic approach to the discussion of these issues, and the Earth system in the Anthropocene, drawing from a plethora of case studies. The capabilities of machine learning tools in satellite hydrology applications have been demonstrated as well as the feasibility of remote sensing data and innovative geospatial tools in environmental assessment.  The book further showcases the multiple strengths and potential of new multi-disciplinary satellite radar programmes and geodetic missions, to measure and characterize extreme events, and their links to global climate, as well as in remote sensing of the environment. The aim is to provide innovative tools and a scientific framework that underpin our fundamental understanding of environmental systems, and the complexities of socio-hydrological systems in the Anthropocene. Policy issues have also been raised as an important aspect that can strengthen the management and administration of water resources, particularly in emerging economies where observational data is often lacking, limited, or difficult to access. It also highlights the lessons learned from freshwater hotspots (e.g., Lake Chad and Lake Urmia) where prolonged droughts and human activities have led to a permanent loss of surface water. It identifies the role of institutions and stakeholders in driving policies that underpins water management and climate change adaptation. The book articulates the novel applications of remote sensing tools as part of a monitoring framework that can alert stakeholders and the public sector to the dangers of mismanagement of freshwater in these hotspots and help facilitate water governance approaches. The book fills a critical gap in the multi-disciplinary aspect of planetary science, particularly in understanding the impacts of climate change and human actions on freshwater resources, as well as the stability of the Earth system.
​Part I
The Anthropocene
1 The Anthropocene
1.1 Understanding the Anthropocene
1.1.1 What is the Anthropocene?
1.1.2 The challenges
1.1.3 The 21st century environment
1.2 Aims and objectives of the book
Part II
Hydro-climatic extremes
2 Hydro-climatic extremes
2.1 Hydrological extremes in the 21st century
2.1.1 Changes in the characteristics of extreme events
2.1.2 The Earth System in the Anthropocene
2.2 Operational monitoring
2.2.1 Earth resources satellites
2.2.2 Climate models
2.2.3 Global hydrological models
2.2.4 Data assimilation and downscaling
2.3 Aims and objectives of the book
Part III
Water resources
3 How much freshwater is available?
3.1 Are we running out of freshwater?
3.1.1 The wet versus the dry
3.1.2 Water crises, security, and scarcity
3.1.3 Water demand and climate
3.1.4 Threats to freshwater availability
3.2 Safe limits, sustainability, and resilience
3.2.1 Pursuing water security and sustainability
3.2.2 Building resilience
3.2.3 Water reallocation
3.3 Optimizing monitoring framework
3.3.1 The tools for monitoring
3.3.2 Limitations and challenges to monitoring
4 Satellite hydrology
4.1 Multi-mission satellite hydrology systems
4.1.1 Radar systems
4.1.2 Time-variable satellite gravity missions
4.2 Quantifying land water storage
4.2.1 Terrestrial water storage
4.2.2 Satellite observations of changes in groundwater
4.2.3 Surface water hydrology
4.2.4 Reconstruction from models and observations
4.3 Benefits of satellite hydrology systems
4.3.1 Tracking climate change
4.3.2 Hydrological processes
4.3.3 Understanding anthropogenic influence
4.3.4 Policy frameworks
5 Can the wells run dry?
5.1 Groundwater resources
5.1.1 Global groundwater status
5.1.2 What is groundwater drought?
5.1.3 Measuring groundwater drought
5.1.4 Impacts of extraction and drought
5.1.5 Groundwater processes
5.1.6 Recharge
5.1.7 Discharge
5.2 Sustainable limits
5.2.1 Human population and risk
5.2.2 Adaptation and resilience to climate change
6 Multi-satellite systems in environmental monitoring
6.1 Advancing understanding of environmental systems
6.1.1 Monitoring to improve decision and policies
6.1.2 Remote sensing of the environment
6.2 New platforms and technology for monitoring
6.2.1 Emerging optical systems
6.2.2 Cloud computing platforms
Part IV
Machine learning
7 Novel machine learning applications
7.1 Machine learning and satellite hydrology
7.2 Quantifying influence of oceanic variability
7.3 Deep learning methods for land water storage
7.3.1 Groundwater level modelling with machine learning
7.3.2 Reconstruction of terrestrial water storage
7.3.3 Downscaling of terrestrial water storage
7.4 Machine learning models for extreme events
7.4.1 Floods
7.4.2 Droughts
7.5 Feature extraction from multi-satellite systems
Part V
Hydro-climatic extremes
8 Drought characterization and links to global climate
8.1 Drought and influence of climate teleconnection patterns
9 Measuring impacts of drought from space
9.1 Drought impacts on water availability
10Changes in hydro-meteorological conditions
10.1 Flood risk
10.2 Drought events
10.3 Wildfires
11Modelling impacts of climate change on freshwater
11.1 Drought variability, frequency and duration
Dr. Christopher Ndehedehe is a senior lecturer at the School of Environment and Science, Griffith University, where he concurrently serves as an Australian Research Council (ARC) DECRA (Discovery Early Career Researcher Award) fellow (2023–2026). He joined Griffith University in June 2018 under its Areas of Strategic Investment as a Research Fellow in Griffith’s Australia’s Rivers Institute. This was after the completion of an outstanding Ph.D. thesis, which received the vice-chancellor’s commendation in early 2018 at Curtin University, Western Australia. Christopher is a leading expert in satellite hydrology and environmental geo-informatics with a strong international reputation and experience in remote sensing of water resources. This is exemplified in his pioneering cutting-edge cross-disciplinary research in environmental remote sensing and satellite hydrology that connects climate, freshwater resources, and the environment. 

Examines changes in hydro-climatic extremes in the Anthropocene

Explores extreme events and methods to improve understanding of climate processes

Provides fundamental understanding of the impacts of human activities on hydrological systems

Date de parution :

Ouvrage de 454 p.

15.5x23.5 cm

Disponible chez l'éditeur (délai d'approvisionnement : 15 jours).

147,69 €

Ajouter au panier