Prashant K Srivastava,
Prashant K. Srivastava,
Prashant K. (Assistant Professor Institute of Environment and Sustainable Development Banaras Hindu University, India) Srivastava,
George P. Petropoulos,
George P. (Assistant Professor of Geoinformatics, Department of Geography, Harokopio University of Athens, Greece) Petropoulos,
Y.H. Kerr,
Y.H. (CESBIO, Toulouse, France) Kerr
e.a.
Elsevier Science
e druk, 2016
9780128033883
Satellite Soil Moisture Retrieval
Techniques and Applications
Specificaties
Gebonden, blz.
|
Engels
Elsevier Science |
e druk, 2016
ISBN13: 9780128033883
Rubricering
Levertijd ongeveer 8 werkdagen
Samenvatting
Satellite Soil Moisture Retrieval: Techniques and Applications offers readers a better understanding of the scientific underpinnings, development, and application of soil moisture retrieval techniques and their applications for environmental modeling and management, bringing together a collection of recent developments and rigorous applications of soil moisture retrieval techniques from optical and infrared datasets, such as the universal triangle method, vegetation indices based approaches, empirical models, and microwave techniques, particularly by utilizing earth observation datasets such as IRS III, MODIS, Landsat7, Landsat8, SMOS, AMSR-e, AMSR2 and the upcoming SMAP.
Through its coverage of a wide variety of soil moisture retrieval applications, including drought, flood, irrigation scheduling, weather forecasting, climate change, precipitation forecasting, and several others, this is the first book to promote synergistic and multidisciplinary activities among scientists and users working in the hydrometeorological sciences.
Specificaties
Inhoudsopgave
<p>Section I</p> <p>Introduction</p> <p>1. Soil Moisture from Space: Techniques and Limitations</p> <p>Y.H. Kerr, J.-P. Wigneron, A. Al Bitar, A. Mialon and P.K. Srivastava</p> <p>2. Available Data Sets and Satellites for Terrestrial Soil</p> <p>Moisture Estimation </p> <p>P.K. Srivastava, V. Pandey, S. Suman, M. Gupta and T. Islam</p> <p>Section II</p> <p>Optical and Infrared Techniques & Synergies</p> <p>Between them</p> <p>3. Soil Moisture Retrievals Using Optical/TIR Methods </p> <p>P. Rahimzadeh-Bajgiran and A. Berg</p> <p>4. Optical/Thermal-Based Techniques for Subsurface</p> <p>Soil Moisture Estimation </p> <p>M. Holzman and R. Rivas</p> <p>5. Spatiotemporal Estimates of Surface Soil Moisture</p> <p>from Space Using the Ts/VI Feature Space </p> <p>G.P. Petropoulos, G. Ireland, H. Griffiths, T. Islam, D. Kalivas,</p> <p>V. Anagnostopoulos, C. Hodges and P.K. Srivastava</p> <p>6. Spatial Downscaling of Passive Microwave Data With</p> <p>Visible-to-Infrared Information for High-Resolution</p> <p>Soil Moisture Mapping </p> <p>M. Piles and N. Sánchez</p> <p>7. Soil Moisture Retrieved From a Combined Optical and</p> <p>Passive Microwave Approach: Theory and Applications </p> <p>C. Mattar, A. Santamaría-Artigas1, J. A. Sobrino, J.C. Jiménez – Muñoz</p> <p>Section III</p> <p>Microwave Soil Moisture Retrieval Techniques</p> <p>8. Nonparametric Model for the Retrieval of Soil</p> <p>Moisture by Microwave Remote Sensing </p> <p>D.K. Gupta, R. Prasad, P.K. Srivastava and T. Islam</p> <p>9. Temperature-Dependent Spectroscopic Dielectric</p> <p>Model at 0.05–16 GHz for a Thawed and Frozen</p> <p>Alaskan Organic Soil </p> <p>V. Mironov and I. Savin</p> <p>10. Active and Passive Microwave Remote Sensing</p> <p>Synergy for Soil Moisture Estimation </p> <p>R. Akbar, N. Das, D. Entekhabi and M. Moghaddam</p> <p>11. Intercomparison of Soil Moisture Retrievals From In</p> <p>Situ, ASAR, and ECV SM Data Sets Over Different</p> <p>European Sites </p> <p>B. Barrett, C. Pratola, A. Gruber and E. Dwyer</p> <p>Section IV</p> <p>Advanced Applications of Soil Moisture</p> <p>12. Use of Satellite Soil Moisture Products for the</p> <p>Operational Mitigation of Landslides Risk in</p> <p>Central Italy </p> <p>13. Remotely Sensed Soil Moisture as a Key Variable in</p> <p>Wildfires Prevention Services: Towards New Prediction</p> <p>Tools Using SMOS and SMAP Data </p> <p>D. Chaparro, M. Piles and M. Vall-llossera</p> <p>14. Integrative Use of Near-Surface Satellite Soil Moisture</p> <p>and Precipitation for Estimation of Improved</p> <p>Irrigation Scheduling Parameters </p> <p>M. Gupta, P.K. Srivastava and T. Islam</p> <p>15. A Comparative Study on SMOS and NLDAS-2 Soil</p> <p>Moistures Over a Hydrological Basin—With</p> <p>Continental Climate </p> <p>16. Continental Scale Monitoring of Subdaily and Daily</p> <p>Evapotranspiration Enhanced by the Assimilation of</p> <p>Surface Soil Moisture Derived from Thermal Infrared</p> <p>Geostationary Data </p> <p>17. Soil Moisture Deficit Estimation Through SMOS Soil</p> <p>Moisture and MODIS Land Surface Temperature </p> <p>P.K. Srivastava, T. Islam, S.K. Singh, M. Gupta, George P. Petropoulos,</p> <p>D.K. Gupta, W.Z. Wan Jaafar and R. Prasad</p> <p>Section V</p> <p>Future Challenges in Soil Moisture Retrieval and</p> <p>Applications</p> <p>18. Soil Moisture Retrievals Based on Active and</p> <p>Passive Microwave Data: State-of-the-Art and</p> <p>Operational Applications </p> <p>J. Munõz-Sabater, A. Al Bitar and L. Brocca</p> <p>19. Emerging and Potential Future Applications of</p> <p>Satellite-Based Soil Moisture Products </p> <p>E. Tebbs, F. Gerard, A. Petrie and E. De Witte</p>