What is the Satellite technology in environmental monitoring?
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Satellite Technology in Environmental Monitoring
Introduction to Satellite Remote Sensing in Environmental Monitoring
Satellite remote sensing technology has revolutionized environmental monitoring by providing comprehensive data on various environmental parameters. This technology overcomes traditional monitoring constraints such as limited spatial coverage and resolution, enabling continuous and high-resolution observations of the Earth's surface and atmosphere1.
Applications of Satellite Remote Sensing
Air Quality and Atmospheric Monitoring
Satellite remote sensing is extensively used for monitoring atmospheric conditions, including air pollutants like aerosols, particulate matter, sulfur dioxide, nitrogen dioxide, and greenhouse gases such as carbon dioxide and methane. These observations are crucial for understanding air quality and its impact on public health1 5 6. High-resolution satellite data enhance the precision of air quality monitoring, making it possible to track pollution sources and trends over time1 5.
Water Quality and Marine Ecosystems
Satellites play a vital role in monitoring water quality and marine ecosystems. They provide data on water blooms, oil spills, water pollution, and drinking water safety. For instance, the Advanced Land Observing Satellite (ALOS) contributes to global environmental monitoring by using high-resolution optical and microwave sensors to observe water bodies and track changes in water quality9. Additionally, marine environmental monitoring networks utilize satellite data to collect and transmit information about marine ecosystems, improving the analysis and prediction of marine conditions4.
Land Cover and Ecological Monitoring
Satellite technology is also employed in land cover and ecological monitoring. It helps in mapping land use changes, assessing ecosystem productivity, and monitoring environmental damages from activities like mining. The integration of multisensor satellite images enhances the retrieval and interpretation of distinctive features, aiding in environmental systems analysis and decision-making2 6.
Technological Advancements and Integration
Multisensor Image Fusion
The fusion of multisensor satellite images with different spatial, temporal, and spectral resolutions is critical for comprehensive environmental monitoring. This approach allows for better feature retrieval, interpretation, and mapping, which are essential for effective environmental management2. For example, the fusion of data from different satellite missions can improve the accuracy of environmental monitoring and address issues like missing value pixel reconstruction2.
Geostationary Satellites
Geostationary satellites, such as the Geostationary Operational Environmental Satellites (GOES), provide high-frequency observations of the Earth's surface and atmosphere. These satellites offer significant advantages for monitoring rapidly evolving ecosystem processes, such as drought development and wildfire detection. The Advanced Baseline Imager (ABI) on GOES extends the applications of geostationary observations to various environmental disciplines, including land surface temperature, solar radiation, and biomass burning emissions7.
China's Environmental Monitoring Satellites
China has developed several satellite systems for environmental monitoring, including the HJ-1A/B and FY3 satellites. These satellites are designed to monitor environmental and disaster conditions, although there are challenges related to load design and data utilization efficiency. Future developments aim to enhance the accuracy and efficiency of these satellite systems to better meet environmental monitoring needs3 10.
Conclusion
Satellite technology has become indispensable for environmental monitoring, offering high-resolution, continuous, and comprehensive data on various environmental parameters. From air quality and water ecosystems to land cover and ecological monitoring, satellites provide critical insights that aid in environmental management and public health protection. Advancements in multisensor image fusion, geostationary satellites, and dedicated environmental monitoring satellites continue to enhance the capabilities and applications of satellite remote sensing in environmental science.
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Most relevant research papers on this topic
Advancing application of satellite remote sensing technologies for linking atmospheric and built environment to health
Satellite remote sensing monitoring (SRSM) technology revolutionizes environmental monitoring, enhancing our understanding of the relationship between air pollution and population health.
Systematic ReviewMultisensor Satellite Image Fusion and Networking for All-Weather Environmental Monitoring
Multisensor satellite image fusion and networking can improve environmental monitoring and decision-making, as demonstrated in a case study of Lake Nicaragua.
Development of environmental monitoring satellite systems in China
China's current environmental monitoring satellite systems face challenges in load design and data utilization efficiency, and need to improve their development based on foreign satellite systems.
Transmission Control Over Satellite Network for Marine Environmental Monitoring System
The proposed transmission scheme significantly improves the transmission performance of TCP/IP-based Internet networks over satellite networks, enhancing marine environmental monitoring.
Systematics of atmospheric environment monitoring in China via satellite remote sensing
Satellite remote sensing in China has advanced in atmospheric monitoring, enabling accurate air pollution monitoring and environmental management.
Literature ReviewAn overview of satellite remote sensing technology used in China’s environmental protection
Satellite remote sensing technology, particularly high-resolution models, can significantly improve China's environmental management.
Reviews and syntheses: Ongoing and emerging opportunities to improve environmental science using observations from the Advanced Baseline Imager on the Geostationary Operational Environmental Satellites
Advanced Baseline Imagers on Geostationary Operational Environmental Satellites (GOES) can improve environmental science by providing high-frequency observations of key ecosystem properties, including land surface temperature, solar radiation, evapotranspiration, and biomass burning emissions.
Literature ReviewOn the Use of Unmanned Aerial Systems for Environmental Monitoring
UAS have the potential to revolutionize environmental monitoring by providing high spatial detail and enhanced temporal retrieval, but require harmonization of sensing technologies and application-specific challenges for full potential.
Highly CitedAdvanced Land Observing Satellite (ALOS) and Monitoring Global Environmental Change
The Advanced Land Observing Satellite (ALOS) uses high-resolution optical and active microwave sensors to monitor global environmental changes, contributing to water, carbon, and climate change monitoring.
Highly CitedEnvironment Satellite 1 and its application in environmental monitoring
The Environment Satellite 1 (HJ-1) effectively monitors large water bodies, regional air quality, and macro eco-environmental conditions, with potential applications in large water body environmental remote sensing, regional air quality monitoring, and macro eco-environmental satellite sensing.
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