Conferences related to Ocean Remote Sensing

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2017 25th International Conference on Geoinformatics

The theme is Past and Future 25 Years. We welcome traditional topics in GIScience and also encourage papers on new and emergent themes including: Big GeoData, GIScience of the Internet of Things, Geospatial Semantic Web, Sensor Geomatics, Geosimulation Modeling, Mobile Computing, Mobile Behavior, Complex Networks, Online Social Media, Cyber Computing, Events and Process, and Critical GIS to address societal issues, such as climate change, smart cities, precision medicine, urban mobility, crime analysis, migration, disaster, and environmental sustainability. Topics on China, such as population, urban and environmental developments, are especially encouraged. A wide range of disciplines related to Geographic Information Science are invited, including: Geography, Cognitive science, Computer science, Engineering, Information science, Social science, Urban Planning, among many others.


2017 IEEE Radar Conference (RadarCon)

This conference will be a continuation of the annual IEEE radar series (formerly the IEEE National Radar conference). These conferences cover the many disciplines that span the applications of modern radar systems. This includes systems-level through subsystem and component technologies, antennas, and signal processing (deterministic and adaptive). The scope includes systems architectures of monostatic, bistatic and multistatic, and ground-based, airborne, and spaceborn realizations.

  • 2019 IEEE Radar Conference (RadarCon)

    Presentation of new technologies and techniques that significantly advance radar system capabilities for ground penetration, land, ocean, air, space and astronomy applications. Innovative system applications in air-defense, anti-missile, imaging, and mobile are encouraged. Technology areas such as radar, wideband, MIMO, and antenna signal processing, hardware and devices, materials, lasers, scattering, big data processing, architectures, multi-function operation, and multi-site coordination are all appropriate. In addition to the presentation of contributed technical papers in high quality oral and poster sessions, the committee is planning a conference agenda that includes invited talks from leading experts within our community, an excellent selection of tutorials, exhibits, and informal gatherings for colleagues to share ideas.

  • 2018 IEEE Radar Conference (RadarConf18)

    This conference will be a continuation of the annual IEEE radar series (formerly the IEEE National Radar conference). These conferences cover the many disciplines that span the applications of modern radar systems, including systems-level through subsystem and component technologies, antennas, and signal processing (deterministic and adaptive). The scope includes systems architectures of monostatic, bistatic and multistatic, and ground-based, airborne, shipborne, and spaceborne realizations.

  • 2016 IEEE Radar Conference (RadarCon)

    A continuing series of annual RADAR Conferences IEEE-AESS

  • 2015 IEEE Radar Conference (RadarCon)

    The scope of the IEEE 2015 International Radar Conference includes all aspects of civil and military radar. Topics range from fundamental theory to cutting-edge applications, from signal processing, modeling, simulation to hardware implementation and experimental results.

  • 2014 IEEE Radar Conference (RadarCon)

    The 2014 IEEE Radar Conference will showcase innovations and developments in radar technology. Topics will include presentations describing developments in radar systems and their implementations, phenomenology, target and clutter modeling, signal processing, component advances, etc.

  • 2013 IEEE Radar Conference (RadarCon)

    The conference theme is The Arctic The New Frontier as it presents a vast and challenging environment for which radar systems operating in a multi-sensor environment are currently being developed for deployment on space, air, ship and ground platforms and for both remote sensing of the environment and for the monitoring of human activity. It is one of the major challenges and applications being pursued in the field of radar development in Canada.

  • 2012 IEEE Radar Conference (RadarCon)

    The 2012 IEEE Radar Conference will host 400 to 600 attendees interested in innovations and developments in radar technology. The radar related topics will include presentations describing developments in radar systems and their implementations, phenomenology, target and clutter modeling, component advances, signal processing and data processing utilizing advanced algorithms. The conference will also include exhibits by vendors of radar systems, radar components, instrumentation, related software and publ

  • 2011 IEEE Radar Conference (RadarCon)

    RadarCon11 will feature topics in radar systems, technology, applications, phenomenology,modeling, & signal processing. The conference theme, In the Eye of the Storm, highlights the strong regional interest in radar for severe weather analysis and tracking. Broader implications of the theme reflect global interests such as radar's role in assessing climate change, supporting myriad defense applications, as well as issues with spectrum allocation and management.

  • 2010 IEEE International Radar Conference

    RADAR Systems, RADAR technology

  • 2009 IEEE Radar Conference

    The conference's scope is civil and military radar, including science, technology, and systems. The theme for RADAR '09 is "Radar: From Science to Systems," emphasizing scientific or observational requirements and phenomenology that lead to the systems that we in the radar community develop.

  • 2008 IEEE Radar Conference

    The 2008 IEEE Radar Conference will focus on the key aspects of radar theory and applications as listed below. Exploration of new avenues and methodologies of radar signal processing will also be encouraged. Tutorials will be held in a number of fields of radar technology. The Conference will cover all aspects of radar systems for civil, security and defense applications.

  • 2007 IEEE Radar Conference

  • 2006 IEEE Radar Conference

  • 2005 IEEE International Radar Conference

  • 2004 IEEE Radar Conference

  • 2003 IEEE Radar Conference

  • 2002 IEEE Radar Conference

  • 2001 IEEE Radar Conference

  • 2000 IEEE International Radar Conference

  • 1999 IEEE Radar Conference

  • 1998 IEEE Radar Conference

  • 1997 IEEE Radar Conference

  • 1996 IEEE Radar Conference


IGARSS 2017 - 2017 IEEE International Geoscience and Remote Sensing Symposium

This conference covers topics in remote sensing technology including radar and optical sensors, systems, and signal processing techniques; physics and theory of remote sensing using electromagnetic waves; advanced signal processing and information extraction methods; applications of remote sensing; and geosciences.


OCEANS 2017

Papers on ocean technology, exhibits from ocean equipment and service suppliers, student posters and student poster competition, tutorials on ocean technology, workshops and town meetings on policy and governmental process.

  • Oceans 2020 MTS/IEEE GULF COAST

    To promote awareness, understanding, advancement and application of ocean engineering and marine technology. This includes all aspects of science, engineering, and technology that address research, development, and operations pertaining to all bodies of water. This includes the creation of new capabilities and technologies from concept design through prototypes, testing, and operational systems to sense, explore, understand, develop, use, and responsibly manage natural resources.

  • OCEANS 2018 MTS/IEEE Charleston

    Ocean, coastal, and atmospheric science and technology advances and applications

  • OCEANS 2016

    The Marine Technology Scociety and the Oceanic Engineering Society of the IEEE cosponor a joint annual conference and exposition on ocean science, engineering, and policy. The OCEANS conference covers four days. One day for tutorials and three for approx. 500 technical papers and 150 -200 exhibits.

  • OCEANS 2015

    The Marine Technology Scociety and the Oceanic Engineering Society of the IEEE cosponor a joint annual conference and exposition on ocean science, engineering, and policy. The OCEANS conference covers four days. One day for tutorials and three for approx. 450 technical papers and 150-200 exhibits.

  • OCEANS 2014

    The OCEANS conference covers four days. One day for tutorials and three for approx. 450 technical papers and 150-200 exhibits.

  • OCEANS 2013

    Three days of 8-10 tracks of technical sessions (400-450 papers) and concurent exhibition (150-250 exhibitors)

  • OCEANS 2012

    Ocean related technology. Tutorials and three days of technical sessions and exhibits. 8-12 parallel technical tracks.

  • OCEANS 2011

    The Marine Technology Society and the Oceanic Engineering Scociety of the IEEE cosponsor a joint annual conference and exposition on ocean science engineering, and policy.

  • OCEANS 2010

    The Marine Technology Society and the Oceanic Engineering Scociety of the IEEE cosponsor a joint annual conference and exposition on ocean science engineering, and policy.

  • OCEANS 2009

  • OCEANS 2008

    The Marine Technology Society (MTS) and the Oceanic Engineering Society (OES) of the Institute of Electrical and Electronic Engineers (IEEE) cosponsor a joint conference and exposition on ocean science, engineering, education, and policy. Held annually in the fall, it has become a focal point for the ocean and marine community to meet, learn, and exhibit products and services. The conference includes technical sessions, workshops, student poster sessions, job fairs, tutorials and a large exhibit.

  • OCEANS 2007

  • OCEANS 2006

  • OCEANS 2005

  • OCEANS 2004

  • OCEANS 2003

  • OCEANS 2002

  • OCEANS 2001

  • OCEANS 2000

  • OCEANS '99

  • OCEANS '98

  • OCEANS '97

  • OCEANS '96


OCEANS 2017 - Aberdeen

Papers on ocean technology, exhibits from ocean equipment and service suppliers, student posters and student poster competition, tutorials on ocean technology, workshops and town hall meetings on policy and governmental process.

  • OCEANS 2019 - Marseille

    Research, Development, and Operations pertaining to the Oceans

  • 2018 OCEANS - MTS/IEEE Kobe Techno-Ocean (OTO)

    The conference scope is to provide a thematic umbrella for researchers working in OCEAN engineering and related fields across the world to discuss the problems and potential long term solutions that concernnot only the oceans in Asian pacific region, but the world ocean in general.

  • OCEANS 2016 - Shanghai

    Papers on ocean technology, exhibits from ocean equipment and service suppliers, student posters and student poster competition, tutorial on ocean technology, workshops and town hall meetings on policy and governmental process.

  • OCEANS 2015 - Genova

    The Marine Technology Society and the Oceanic Engineering Society of IEEE cosponsor a joint annual conference and exposition on ocean science, engineering and policy. The OCEANS conference covers four days. One day for tutorials and three for approx. 450 technical papers and 50-200 exhibits.

  • OCEANS 2014 - TAIPEI

    The OCEANS conference covers all aspects of ocean engineering from physics aspects through development and operation of undersea vehicles and equipment.

  • OCEANS 2013 - NORWAY

    Ocean related technologies. Program includes tutorials, three days of technical papers and a concurrent exhibition. Student poster competition.

  • OCEANS 2012 - YEOSU

    The OCEANS conferences covers four days with tutorials, exhibits and three days of parallel tracks that address all aspects of oceanic engineering.

  • OCEANS 2011 - SPAIN

    All Oceans related technologies.

  • OCEANS 2010 IEEE - Sydney

  • OCEANS 2009 - EUROPE

  • OCEANS 2008 - MTS/IEEE Kobe Techno-Ocean

  • OCEANS 2007 - EUROPE

    The theme 'Marine Challenges: Coastline to Deep Sea' focuses on the significant challenges, from the shallowest waters around our coasts to the deepest subsea trenches, that face marine, subsea and oceanic engineers in their drive to understand the complexities of the world's oceans.

  • OCEANS 2006 - ASIA PACIFIC

  • OCEANS 2005 - EUROPE


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Periodicals related to Ocean Remote Sensing

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Antennas and Propagation, IEEE Transactions on

Experimental and theoretical advances in antennas including design and development, and in the propagation of electromagnetic waves including scattering, diffraction and interaction with continuous media; and applications pertinent to antennas and propagation, such as remote sensing, applied optics, and millimeter and submillimeter wave techniques.


Geoscience and Remote Sensing Letters, IEEE

It is expected that GRS Letters will apply to a wide range of remote sensing activities looking to publish shorter, high-impact papers. Topics covered will remain within the IEEE Geoscience and Remote Sensing Societys field of interest: the theory, concepts, and techniques of science and engineering as they apply to the sensing of the earth, oceans, atmosphere, and space; and ...


Geoscience and Remote Sensing, IEEE Transactions on

Theory, concepts, and techniques of science and engineering as applied to sensing the earth, oceans, atmosphere, and space; and the processing, interpretation, and dissemination of this information.


Oceanic Engineering, IEEE Journal of

Bayes procedures; buried-object detection; dielectric measurements; Doppler measurements; geomagnetism; sea floor; sea ice; sea measurements; sea surface electromagnetic scattering; seismology; sonar; acoustic tomography; underwater acoustics; and underwater radio communication.



Most published Xplore authors for Ocean Remote Sensing

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Xplore Articles related to Ocean Remote Sensing

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Ocean Surface Wind Direction Inversion Using Shipborne High-Frequency Surface Wave Radar

Junhao Xie; Guowei Yao; Minglei Sun; Zhenyuan Ji; Gaopeng Li; Jun Geng IEEE Geoscience and Remote Sensing Letters, 2017

Shipborne high-frequency surface wave radar (SHFSWR) has exhibited great advantages over onshore HFSWR (OHFSWR) in ocean remote sensing. Unlike OHFSWR, SHFSWR suffers the problem of Doppler spectrum spread owing to platform movement, which is a great challenge preventing the extraction of ocean surface parameters for SHFSWR. To address this challenge, in this letter, the mathematical model of ocean surface wind ...


Wind field retrieval over the ocean using X-band polarization SAR data

Yongzheng Ren; Mingxia He; Susanne Lehner 2010 Second IITA International Conference on Geoscience and Remote Sensing, 2010

An X-band wind field algorithm (XMOD) based on a linear approach is discussed in our previous work to describe the relationship between normalized radar cross section (NRCS), wind speed, wind direction and incidence angle. To apply the XMOD to TerraSAR-X data acquired in HH polarization, the two C-band polarization models are analyzed and tuned to X-band TerraSAR-X data. To demonstrate ...


Ocean remote sensing: Challenges for the future

Bertrand Chapron; Rene Garello; David E. Weissman OCEANS 2008, 2008

Challenges facing ocean remote sensing are as unlimited as the variety of sea surface dynamics and meteorological conditions across the globe and their range of spatial and time scales. Ultimate goals are to be able to make accurate estimates of selected key sets of geophysical variables, with the intention of either making predictions across time and spatial boundaries, or advancing ...


A simple boundary process technique for empirical mode decomposition

Kan Zeng; Ming-Xia He IGARSS 2004. 2004 IEEE International Geoscience and Remote Sensing Symposium, 2004

The empirical mode decomposition (EMD) proposed by Huang et al. in 1998 shows remarkably effective in analyzing nonlinear signals. It adaptively represents nonstationary signals as sums of zero-mean amplitude modulation-frequency modulation (AM-FM) components by iteratively conducting the sifting process. How to determine the boundary conditions of the cubic spline when constructing the envelopes of data is the critical issue of ...


Comparison of Incoherent and Coherent Wave Field Measurements Using Dual-Polarized Pulse-Doppler X-Band Radar

Erin E. Hackett; Anne M. Fullerton; Craig F. Merrill; Thomas C. Fu IEEE Transactions on Geoscience and Remote Sensing, 2015

Radar-based remote sensing for measurement of ocean surface waves presents advantages over conventional point sensors such as wave buoys. As its use becomes more widespread, it is important to understand the sensitivity of the extracted wave parameters to the characteristics of the radar and the scatterers. To examine such issues, experiments were performed offshore of the Scripps Institution of Oceanography ...


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Educational Resources on Ocean Remote Sensing

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eLearning

Ocean Surface Wind Direction Inversion Using Shipborne High-Frequency Surface Wave Radar

Junhao Xie; Guowei Yao; Minglei Sun; Zhenyuan Ji; Gaopeng Li; Jun Geng IEEE Geoscience and Remote Sensing Letters, 2017

Shipborne high-frequency surface wave radar (SHFSWR) has exhibited great advantages over onshore HFSWR (OHFSWR) in ocean remote sensing. Unlike OHFSWR, SHFSWR suffers the problem of Doppler spectrum spread owing to platform movement, which is a great challenge preventing the extraction of ocean surface parameters for SHFSWR. To address this challenge, in this letter, the mathematical model of ocean surface wind ...


Wind field retrieval over the ocean using X-band polarization SAR data

Yongzheng Ren; Mingxia He; Susanne Lehner 2010 Second IITA International Conference on Geoscience and Remote Sensing, 2010

An X-band wind field algorithm (XMOD) based on a linear approach is discussed in our previous work to describe the relationship between normalized radar cross section (NRCS), wind speed, wind direction and incidence angle. To apply the XMOD to TerraSAR-X data acquired in HH polarization, the two C-band polarization models are analyzed and tuned to X-band TerraSAR-X data. To demonstrate ...


Ocean remote sensing: Challenges for the future

Bertrand Chapron; Rene Garello; David E. Weissman OCEANS 2008, 2008

Challenges facing ocean remote sensing are as unlimited as the variety of sea surface dynamics and meteorological conditions across the globe and their range of spatial and time scales. Ultimate goals are to be able to make accurate estimates of selected key sets of geophysical variables, with the intention of either making predictions across time and spatial boundaries, or advancing ...


A simple boundary process technique for empirical mode decomposition

Kan Zeng; Ming-Xia He IGARSS 2004. 2004 IEEE International Geoscience and Remote Sensing Symposium, 2004

The empirical mode decomposition (EMD) proposed by Huang et al. in 1998 shows remarkably effective in analyzing nonlinear signals. It adaptively represents nonstationary signals as sums of zero-mean amplitude modulation-frequency modulation (AM-FM) components by iteratively conducting the sifting process. How to determine the boundary conditions of the cubic spline when constructing the envelopes of data is the critical issue of ...


Comparison of Incoherent and Coherent Wave Field Measurements Using Dual-Polarized Pulse-Doppler X-Band Radar

Erin E. Hackett; Anne M. Fullerton; Craig F. Merrill; Thomas C. Fu IEEE Transactions on Geoscience and Remote Sensing, 2015

Radar-based remote sensing for measurement of ocean surface waves presents advantages over conventional point sensors such as wave buoys. As its use becomes more widespread, it is important to understand the sensitivity of the extracted wave parameters to the characteristics of the radar and the scatterers. To examine such issues, experiments were performed offshore of the Scripps Institution of Oceanography ...


More eLearning Resources

IEEE-USA E-Books

  • Radar Principles

    Advances in radar system hardware and software have enabled radar systems to detect, differentiate, classify, image, and track the range, altitude, direction, or velocity of multiple moving or fixed targets simultaneously. A radar system has a receiver intended to detect the reflected electromagnetic waves, indicating an object with a different dielectric constant in the propagation direction. Doppler radar is typically used to detect moving targets, and estimate their velocity. Security systems motion detectors and door openers are common uses of Doppler radar¿¿¿based motion detectors. There are two basic radar configurations based on the spatial relationship between the transmitting and receiving antennas: monostatic and bistatic. The major areas of radar application are briefly described, including military defense and weapons systems, remote monitoring of the Earth's surface, the ocean, and other planets, reconnaissance imaging, ground¿¿¿penetrating radar for archeological expeditions, weather surveillance, air traffic control, and others.

  • Transport Theory of Waves in Randomly Distributed Scatterers

    Electrical Engineering Wave Propagation and Scattering in Random Media A volume in the IEEE/OUP Series on Electromagnetic Wave Theory Donald G. Dudley, Series Editor This IEEE Classic Reissue presents a unified introduction to the fundamental theories and applications of wave propagation and scattering in random media. Now for the first time, the two volumes of Wave Propagation and Scattering in Random Media previously published by Academic Press in 1978 are combined into one comprehensive volume. This book presents a clear picture of how waves interact with the atmosphere, terrain, ocean, turbulence, aerosols, rain, snow, biological tissues, composite material, and other media. The theories presented will enable you to solve a variety of problems relating to clutter, interference, imaging, object detection, and communication theory for various media. This book is expressly designed for engineers and scientists who have an interest in optical, microwave, or acoustic wave propagation a d scattering. Topics covered include: * Wave characteristics in aerosols and hydrometeors * Optical and acoustic scattering in sea water * Scattering from biological materials * Pulse scattering and beam wave propagation in such media * Optical diffusion in tissues and blood * Transport and radiative transfer theory * Kubelka--Munk flux theory and plane-parallel problem * Multiple scattering theory * Wave fluctuations in turbulence * Strong fluctuation theory * Rough surface scattering * Remote sensing and inversion techniques * Imaging through various media About the IEEE/OUP Series on Electromagnetic Wave Theory Formerly the IEEE Press Series on Electromagnetic Waves, this joint series between IEEE Press and Oxford University Press offers outstanding coverage of the field with new titles as well as reprintings and revisions of recognized classics that maintain long-term archival significance in electromagnetic waves and applica ions. Designed specifically for graduate students, practicing engineers, and researchers, this series provides affordable volumes that explore electromagnetic waves and applications beyond the undergraduate level. See page il of the front matter for a listing of books in this series.

  • Stochastic Wave Theories

    This chapter presents a summary of the historical development of the statistical wave theories and new ideas, and key questions that may be outstanding or may need further attention. It also discusses the reciprocity relations for the radiative transfer. Radiative transfer has been applied extensively to geophysical remote sensing and scattering. Basic formulations of radiative transfer are closely related to neutron transport and Boltzmann's transport equation. It has been used in biomedical tissue optics, imaging, and ultrasound imaging of tissues. The Sommerfeld problem deals with radio waves over a flat earth. However, if people consider imaging of objects near the ocean surface or terrain, it may be necessary to study the effects of roughness of the surface. This is a study of "stochastic Green's function" for rough surfaces. This problem has been studied using Dyson and Bethe‐Salpeter equations for coherent and incoherent fields using the smoothed diagram method similar to Watson‐Keller studies.

  • Multiple Scattering Theory

    Electrical Engineering Wave Propagation and Scattering in Random Media A volume in the IEEE/OUP Series on Electromagnetic Wave Theory Donald G. Dudley, Series Editor This IEEE Classic Reissue presents a unified introduction to the fundamental theories and applications of wave propagation and scattering in random media. Now for the first time, the two volumes of Wave Propagation and Scattering in Random Media previously published by Academic Press in 1978 are combined into one comprehensive volume. This book presents a clear picture of how waves interact with the atmosphere, terrain, ocean, turbulence, aerosols, rain, snow, biological tissues, composite material, and other media. The theories presented will enable you to solve a variety of problems relating to clutter, interference, imaging, object detection, and communication theory for various media. This book is expressly designed for engineers and scientists who have an interest in optical, microwave, or acoustic wave propagation a d scattering. Topics covered include: * Wave characteristics in aerosols and hydrometeors * Optical and acoustic scattering in sea water * Scattering from biological materials * Pulse scattering and beam wave propagation in such media * Optical diffusion in tissues and blood * Transport and radiative transfer theory * Kubelka--Munk flux theory and plane-parallel problem * Multiple scattering theory * Wave fluctuations in turbulence * Strong fluctuation theory * Rough surface scattering * Remote sensing and inversion techniques * Imaging through various media About the IEEE/OUP Series on Electromagnetic Wave Theory Formerly the IEEE Press Series on Electromagnetic Waves, this joint series between IEEE Press and Oxford University Press offers outstanding coverage of the field with new titles as well as reprintings and revisions of recognized classics that maintain long-term archival significance in electromagnetic waves and applica ions. Designed specifically for graduate students, practicing engineers, and researchers, this series provides affordable volumes that explore electromagnetic waves and applications beyond the undergraduate level. See page il of the front matter for a listing of books in this series.

  • Clouds and Precipitation: Extreme Rainfall and Rain from Shallow Clouds

    This chapter reviews present knowledge on extreme precipitation and moderate rainfall from low-level clouds. Primary focus is on the statistics of precipitation characteristics rather than on a detailed description of individual case studies. First, observed variability of precipitation from low-level clouds and the existing techniques to separate different microphysical stages from remote-sensing measurements are reviewed. Over the tropical areas of Pacific and Atlantic oceans, the global distribution of shallow rainfall exhibits a "butterfly" pattern. This feature encompasses heavily precipitating regions such as the intertropical, south Pacific, and south Atlantic convergence zones (ITCZ, SPCZ, and SACZ, respectively); the northern hemispheric counterpart of SPCZ and SACZ emerges only when shallow rain is isolated. The nature of extreme precipitation varies temporally. On a timescale of about a day, extreme precipitation is associated with synoptic- scale disturbances, including a notable example known as tropical plumes or moist conveyer belt, which could give rise to extreme daily precipitation in downstream arid regions. On an hourly timescale, extreme precipitation is caused by mesoscale moisture convergence, which is so intense that it maintains a continuous overturning of saturated air. Satellite observations imply that the global distribution of extreme precipitation shows a systematic difference from the total rainfall map in terms of, for example, the contrast between land and ocean. The distribution of low-level, precipitation-related latent heating associated with warm rain coincides with the butterfly pattern. Its cohabitation and separation with the deep heating suggests that warm rain plays a role in providing a thick layer of moist static energy source to the convection, and that it is also related to the tropical plumes which cause extr eme precipitation in the semiarid west coasts of continents.

  • Geophysical Remote Sensing and Imaging

    Geophysical remote sensing and imaging is a key engineering discipline dealing with the remote sensing of the earth, oceans, atmosphere, and space. It covers vast areas as represented by the Geoscience and Remote Sensing Society (GRSS) of IEEE. This chapter discusses several techniques and applications of remote sensing and imaging. First, it reviews polarimetric radars as applied to the decomposition theorem, which helps to obtain medium characteristics from radar backscattering. Next, the chapter also discusses nonspherical particles and differential reflectivity and general eigenvalue formulations of nonspherical scattering. It then presents more fundamental formulations of space‐time vector radiative transfer and Wigner distributions and describes passive radars in relation to polarization and ocean wind directions. The chapter further discusses the inclusion of antenna temperature in the van Cittert‐Zernike theorem. Finally, it covers ionospheric dispersion and Faraday rotation effects on synthetic aperture radar (SAR) images.



Standards related to Ocean Remote Sensing

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Jobs related to Ocean Remote Sensing

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