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Original Articles

Remote Sensing for Monitoring Surface Water Quality Status and Ecosystem State in Relation to the Nutrient Cycle: A 40-Year Perspective

, &
Pages 101-166 | Published online: 21 Oct 2014
 

Abstract

Delineating accurate nutrient fluxes and distributions in multimedia environments requires the integration of vast amounts of information. Such nutrient flows may be related to atmospheric deposition, agricultural runoff, and urbanization effect on surface and groundwater systems. Two types of significant undertakings for nutrient management have been in place for sustainable development. While many environmental engineering technologies for nutrient removal have been developed to secure tap water sources and improve the drinking water quality, various watershed management strategies for eutrophication control are moving to highlight the acute need for monitoring the dynamics and complexities that arise from nutrient impacts on water quality status and ecosystem state, both spatially and temporally. These monitoring methods and data are associated with local point measurements, air-borne remote sensing, and space-borne satellite images of spatiotemporal nutrient distributions leading to the generation of accurate environmental patterns. Within this context, several key water quality constituents, including total nitrogen, total phosphorus, chlorophyll-a concentration, colored dissolved organic matter (dissolved organic carbon or total organic carbon), harmful algal blooms (e.g., cyanobacterial toxins or microcystin concentrations), and descriptors of ecosystem states, such as total suspended sediment (or turbidity), transparency (e.g., Secchi disk depth), and temperature, will be of major concern. Considering the advancements, challenges, and accomplishments related to remote sensing technologies in the past four decades, we present a thorough literature review of contemporary state-of-the-art technologies of remote sensing platforms and sensors that may be employed to support essential scientific missions, and provide an in-depth discussion and new insight into various inversion methods (or models) to improve the estimation accuracy. In this study, the spectrum of these remote sensing technologies and models is first divided into groups based on chronological order associated with different platforms and sensors, although some of them may be subject to mission-oriented arrangements. Case-based and location-based studies were cited, organized, and summarized to further elucidate tracks of application potential that support future, forward-looking, cost-effective, and risk-informed nutrient management plans. The comprehensive reviews presented here should echo real-world observational evidence by using integrated sensing, monitoring, and modeling techniques to improve environmental management, policy analysis, and decision making.

NOMENCLATURE

Abbreviations

Acronym=

Meaning

AISA=

Airborne Imaging Spectrometer for different Applications

ALOS=

Advanced Land Observation Satellite

ANN=

Artificial Neural Network

ASTER=

Advanced Spaceborne Thermal Emission and Reflection Radiometer

AVHRR=

Advanced Very High Resolution Radiometer

AVIRIS=

Airborne Visible/Infrared Imaging Spectrometer

CASI=

Compact Airborne Spectrographic Imager

CBERS=

China-Brazil Earth Resources Satellite

CDOM=

Colored Dissolved Organic Matter

CERP=

Comprehensive Everglades Restoration Plan

CZCS=

Coastal Zone Color Scanner

DO=

Dissolved Oxygen

DOC=

Dissolved Organic Carbon

ENVISAT=

Environmental Satellite

EO-1=

Earth Observing-1

EOS=

Earth Observing System

EROS=

Earth Resources Observation Satellite

ERS=

European Remote-Sensing Satellite

ERTS=

Earth Resources Technology Satellite

ETM+=

Enhanced Thematic Mapper Plus

GA-PLS=

Genetic Algorithms with Partial Least Squares

GEGA=

Grammatical Evolution - Genetic Algorithm

GIS=

Geographical Information System

GP=

Genetic Programming

HABs=

Harmful Algal Blooms

HRG=

High Resolution Geometric

HRV=

High Resolution Visible

HRVIR=

High Resolution Visible and Infrared

IDFM=

Integrated Data Fusion and Machine-learning

IoT=

Internet of Things

IR=

Infrared

IRIS=

Internet Routing in Space

IRS=

Indian Remote Sensing

JPL=

Jet Propulsion Laboratory

JERS-1=

Japanese Earth Resources Satellite 1

KITSAT=

Korea Institute of Technology Satellite

LMR=

Linear Multiple Regression

MERIS=

Medium Resolution Imaging Spectrometer

MIR=

Mid-band Infrared

MODIS=

Moderate-Resolution Imaging Spectroradiometer

MAE=

Mean Absolute Error

MSS=

Multispectral Scanner System

MW=

Microwave

N=

Nitrogen

NH3=

Ammonia

NIR=

Near Infrared

NOx=

Nitrogen Oxides

NOAA=

National Oceanic and Atmospheric Administration

NRC=

National Research Council

OSA=

Optical Sensor Assembly

P=

Phosphorous

Pan=

Panchromatic

PALSAR=

Phased Array type L-band Synthetic Aperture Radar

PSO=

Particle swarm Optimization

RADAR=

Radio Detection and Ranging

RBFN=

Radial Basis Function Network

RBV=

Return Beam Vidicon

RMSE=

Root Mean Square Error

SAR=

Synthetic Aperture Radar

SDD=

Secchi Disk Depth

SE=

Standard Error

SeaWiFS=

Sea-viewing Wide Field-of-view Sensor SeaWiFS

SMMR=

Scanning Multi-channel Microwave Radiometer

SMAP=

Soil Moisture Active Passive satellite

SMOS=

Soil Moisture and Ocean Salinity satellite

SPOT=

Système Pour l’Observation de la Terre

SR=

Scanning Radiometer

SST=

Sea Surface Temperature

SVM=

Support Vector Machine

TIR=

Thermal Infrared

TM=

Thematic Mapper

TN=

Total Nitrogen

TNDVI=

Transformed Normalized Difference Vegetation index

TOC=

Total Organic Carbon

TP=

Total Phosphorous

TSI=

Trophic State Index

TSM=

Total Suspended Matter

TSS=

Total Suspended Solids

USEPA=

United States Environmental Protection Agency

USGS=

United States Geological Survey

VHRR=

Very High Resolution Radiometer

VIS=

Visible

WHO=

World Health Organization

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