
Intelligent Systems for Remote Sensing and Environmental Monitoring in Industry 6.0: Advances and Challenges for Sustainable Development
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Content
- Cover
- Title
- Copyright
- End User License Agreement
- Contents
- Preface
- List of Contributors
- AI Innovations Transforming Environmental Monitoring: Overcoming Challenges for a Sustainable Future
- Meetu Malhotra1,* and Swagata Ashwani2
- INTRODUCTION
- LITERATURE REVIEW
- Historical Development of AI in Environmental Monitoring
- Evolution of AI Techniques for Environmental Applications
- Traditional Environmental Monitoring vs. AI-Driven Monitoring
- Comparison of Manual Monitoring Systems with AI-Driven Systems
- Benefits and Limitations of Both Approaches
- AI Techniques Used in Environmental Monitoring
- Machine Learning Algorithms
- Deep Learning Models for Environmental Data Processing (CNNs, RNNs, LSTMs)
- Reinforcement Learning and Its Environmental Applications
- Remote Sensing Technologies for Environmental Monitoring
- Use of Satellite Imagery, Drones, and Sensors in Collecting Environmental Data
- AI's Role in Enhancing Remote Sensing Capabilities (Image Classification, Object Detection)
- APPLICATIONS OF AI IN ENVIRONMENTAL MONITORING
- Air Quality Monitoring
- AI Models for Detecting and Predicting Air Pollution Levels
- Role of Satellite Data and IoT Sensors in Air Quality Analysis
- Case Study: AI-Based Air Quality Monitoring in Urban Areas
- Water Quality Monitoring
- AI Systems for Detecting Water Pollution and Contaminants
- Application of AI for Sustainable Water Resource Management
- Case Study: AI Applications in River and Ocean Pollution Monitoring
- Deforestation and Land Use Change
- Land Use Classification and Its Importance for Environmental Sustainability
- Case Study: AI for Monitoring Forest Health and Land Use in the Amazon Rainforest
- Industrial Emissions and Waste Management
- Role of AI in Monitoring and Reducing Industrial Emissions
- AI for Optimizing Waste Management and Recycling Processes
- Case Study: AI-Driven Emission Monitoring in Heavy Industries
- AI IN SMART CITIES FOR ENVIRONMENTAL SUSTAINABILITY
- AI in Agriculture for Environmental Sustainability
- Use of AI to Monitor Soil Health, Irrigation Systems, and Crop Yields
- Role of AI in Precision Agriculture and Its Environmental Impact
- AI in Disaster Prediction and Environmental Risk Management
- Predicting Natural Disasters (e.g., Floods, Wildfires) Using AI Models
- Mitigating Risks Through Real-Time Monitoring and Predictions
- CHALLENGES IN AI-DRIVEN ENVIRONMENTAL MONITORING
- Data Collection and Integration Challenges
- Issues Related to Quality, Availability, and Accessibility of Environmental Data
- Integration of Diverse Data Sources (e.g., Satellite, IoT, Drones)
- Computational and Energy Costs
- High Computational Requirements of AI Models
- The Paradox of AI's Environmental Footprint (Energy Consumption of Data Centers)
- Ethical and Privacy Concerns
- Privacy Concerns Related to the Use of Surveillance Data
- Ethical Dilemmas in AI Decision-Making for Environmental Management
- Policy Frameworks Required to Govern AI Use in Environmental Sectors
- FUTURE DIRECTIONS AND OPPORTUNITIES
- Integration of AI with Other Emerging Technologies
- Advancements in AI Algorithms for Environmental Monitoring
- Scaling AI for Global Environmental Challenges
- Development of Standardized AI Frameworks
- Towards Ethical and Responsible AI for Environmental Sustainability
- CONCLUSION
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- AI for Earth: Revolutionizing Environmental Monitoring
- Ashish Kumar Karn1, Shrishti Jha1, Zitin Wali2, Archana Tiwari2 and Hina Bansal1,*
- INTRODUCTION
- Importance of Environmental Monitoring
- Traditional Methods and Limitations
- Introduction to AI in Environmental Science
- AI TECHNOLOGIES IN ENVIRONMENTAL MONITORING
- Machine Learning and Deep Learning
- Computer Vision and Image Recognition
- Natural Language Processing (NLP) for Environmental Data
- Role of Big Data and Cloud Computing
- AI IN CLIMATE CHANGE MONITORING AND PREDICTION
- AI for Weather Forecasting and Climate Models
- Predicting Extreme Weather Events
- AI's Role in Carbon Emission Tracking
- Case Studies: AI-based Climate Monitoring Solutions
- AI FOR POLLUTION DETECTION AND CONTROL
- Air Quality Monitoring Systems using AI
- Water Pollution Detection through AI Sensors
- Soil and Land Pollution: AI Applications
- AI in Managing Industrial Waste and Recycling
- BIODIVERSITY AND ECOSYSTEM MONITORING USING AI
- AI for Species Identification and Conservation
- AI-Powered Drones for Habitat Surveillance
- Predicting Biodiversity Loss with AI Models
- Case Studies: AI in Wildlife Protection and Conservation
- REMOTE SENSING AND SATELLITE IMAGERY IN ENVIRONMENTAL MONITORING
- Use of AI for Analyzing Satellite Data
- Deforestation and Land Use Change Detection
- Monitoring Glacial Melting and Ocean Health
- Challenges and Innovations in AI-Driven Remote Sensing
- AI IN NATURAL DISASTER MANAGEMENT AND PREDICTION
- Real-time AI Applications in Flood Monitoring and Forecasting
- AI for Wildfire Detection and Spread Prediction
- Earthquake and Tsunami Early Warning Systems
- Improving Disaster Response with AI Tools
- AI FOR SUSTAINABLE RESOURCE MANAGEMENT
- AI in Water Resource Management
- Optimizing Energy Consumption with AI
- Precision Agriculture and Sustainable Land Use
- Case Studies: AI-driven Sustainability Projects
- ETHICAL, SOCIAL, AND POLICY CONSIDERATIONS IN AI-DRIVEN ENVIRONMENTAL MONITORING
- Data Privacy and Security in Environmental AI Systems
- Addressing Algorithmic Bias in AI Models
- AI and Public Policy for Environmental Sustainability
- Ensuring Accessibility and Equity in AI Applications
- FUTURE TRENDS AND INNOVATIONS IN AI FOR ENVIRONMENTAL MONITORING
- Emerging AI Technologies for Environmental Protection
- The Role of AI in Global Environmental Policies
- Future Research Directions and Opportunities
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- Smart Solutions: The Impact of AI on Environmental Monitoring Systems
- Monika Singh T.1,*, C. Kishor Kumar Reddy1, Madiha Munawar1 and Marlia Mohd Hanafiah2
- INTRODUCTION
- Role of AI in Enhancing Monitoring Capabilities
- The Need for Smart Solutions in Environmental Management
- AI TECHNOLOGIES IN ENVIRONMENTAL MONITORING
- Computer Vision for Remote Sensing and Image Analysis
- AI-Driven Internet of Things (IoT) for Real-Time Monitoring
- Big Data Analytics for Environmental Insights
- APPLICATIONS OF AI IN VARIOUS ENVIRONMENTAL SECTORS
- Air Quality Monitoring and Pollution Control
- Water Resource Management and Contamination Detection
- Wildlife and Ecosystem Monitoring with AI
- Climate Change Monitoring and Prediction
- SMART SOLUTIONS FOR REAL-TIME DATA COLLECTION AND PROCESSING
- AI-Powered Sensors and Drones for Data Collection
- Cloud-Based AI for Data Analysis and Storage
- Edge AI for On-Site Environmental Monitoring
- AI IN PREDICTIVE ENVIRONMENTAL MODELS
- AI for Climate Change Forecasting and Early Warning Systems
- Predictive Models for Disaster Management and Mitigation
- AI-Based Predictive Analytics for Sustainable Agriculture
- CHALLENGES AND LIMITATIONS OF AI IN ENVIRONMENTAL MONITORING
- Ethical and Privacy Concerns in AI-Driven Monitoring
- Technical and Infrastructure Challenges
- CASE STUDIES: SUCCESSFUL IMPLEMENTATIONS OF AI IN ENVIRONMENTAL MONITORING
- AI in Air Quality Monitoring: Case of Smart Cities
- AI for Climate Resilience in Coastal Regions
- AI-Powered Solutions in Water Management
- THE FUTURE OF AI IN ENVIRONMENTAL MONITORING
- Emerging Technologies and Innovations
- AI in Circular Economy and Sustainable Practices
- Global Collaboration for AI-Enhanced Environmental Monitoring
- CONCLUSION
- The Path Forward for AI and Environmental Sustainability
- Future Directions for Smart Environmental Solutions
- Policy and Regulatory Considerations for AI in Environmental Protection
- ACKNOWLEDGEMENTS
- REFERENCES
- Harnessing AI-Driven Remote Sensing for Sustainable Industry 6.0: Innovations, Challenges, and Pathways to Mitigate Environmental Degradation
- Ushaa Eswaran1,*, Vishal Eswaran2, Wan Mazlina Wan Mohamed3, Vivek Eswaran4 and Keerthna Murali5
- INTRODUCTION
- Objectives for the Chapter
- LITERATURE REVIEW
- Integration of AI and Remote Sensing in Industry 6.0
- Advancements in Remote Sensing for Environmental Monitoring
- AI-Driven Enhancements in Remote Sensing
- Industry 6.0 and AI-Enabled Sustainable Practices
- Challenges and Future Directions
- METHODOLOGY
- Multi-Dimensional Analytical Approach
- Literature Review for Theoretical Framework Development
- Case Study Selection and Data Sources
- Experimental Work and AI Model Evaluation
- Data Processing and Machine Learning Techniques
- Expert Delphi Study for Future Trends and Challenges
- Ethical Considerations in Data Collection and Analysis
- Triangulation for Validity and Reliability
- CASE STUDIES
- Case Study 1
- Key Results
- Case Study 2
- Key Findings
- Case Study 3
- Key Results
- Case Study 4
- Key Outcomes
- RESEARCH AND EXPERIMENTAL STUDIES
- Experiment 1
- Methodology
- Results
- Experiment 2
- Methodology
- Results
- Consequence
- Experiment 3
- Methodology
- Results
- Implications of Experiment
- Experiment 4
- Methodology
- Results
- Consequences
- DISCUSSION
- FUTURE TRENDS
- CONCLUSION
- AUTHOR CONTRIBUTIONS
- REFERENCES
- Advancing Environmental Sustainability with AI and Remote Sensing: Practical Applications and Future Directions in Industry 6.0
- Ushaa Eswaran1,*, Vishal Eswaran2, Wan Mazlina Wan Mohamed3, Vivek Eswaran4 and Keerthna Murali5
- INTRODUCTION
- Objectives of the chapter
- LITERATURE REVIEW
- Convolutional Neural Networks and Land Cover Classification
- Deep Learning in the Detection and Monitoring of Oil Spills
- AI Models in Climate Science
- Machine Learning and IoT for Air Quality Monitoring
- Irrigation Precision with AI and Remote Sensing
- Edge Computing for Real-time Data Processing
- Blockchain Technology for Data Integrity and Traceability
- METHODOLOGY
- CASE STUDIES
- Detecting Illegal Logging in the Amazon Rainforest
- Urban Air Quality Management in a Metropolitan Area
- Precision Agriculture in Large-Scale Farming
- Monitoring Coastal Erosion Using Satellite and UAV Data
- Forest Fire Detection and Management Using Remote Sensing
- RESEARCH AND EXPERIMENTAL STUDIES
- DISCUSSION
- FUTURE TRENDS
- CONCLUSION
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- Geospatial Analysis for Deforestation Monitoring
- Galiveeti Poornima1,* and Vinay Janardhana Chari2
- INTRODUCTION TO GEOSPATIAL ANALYSIS IN DEFORESTATION MONITORING
- INDUSTRY 6.0 AND ITS ROLE IN ENVIRONMENTAL MONITORING
- TECHNOLOGIES FOR GEOSPATIAL ANALYSIS IN DEFORESTATION
- INTELLIGENT SYSTEMS AND MACHINE LEARNING FOR DEFORESTATION DETECTION
- CASE STUDIES
- Global Forest Watch (GFW)
- Rainforest Connection (RFCx)
- The Trillion Trees Project by Microsoft's AI for Earth
- Wildlife Conservation Society's (WCS) SMART Platform
- NASA's Global Ecosystem Dynamics Investigation (GEDI)
- CHALLENGES IN GEOSPATIAL MONITORING OF DEFORESTATION
- OPPORTUNITIES FOR SUSTAINABLE DEVELOPMENT THROUGH GEOSPATIAL TECHNOLOGIES
- CONCLUSION
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- Deep Learning-Based CO2 Cycle and Trend Forecasting: Unveiling Patterns for Enhanced Climate Insights
- K.M. Danial Sadad1, Shahariar Tasin1, Anindya Nag1,*, Kaysun Molla1, Disha Mallick3 and Mehedi Hassan2
- INTRODUCTION
- LITERATURE SURVEY
- METHODOLOGY
- Dataset Description
- Data Preprocessing
- Missing Data Handling
- Encoding
- Processed Dataset
- Standardization
- Outlier Detection and Handling
- Principal Component Analysis
- Feature Selection
- Correlation Analysis
- Descriptive Statistics
- Parameter Tunning
- Data Splitting
- Applied Models
- SARIMA
- Prophet
- XGBoost
- ETS
- LSTM (Proposed)
- Performance Analysis
- MAE (Mean Absolute Error)
- RMSE (Root Mean Square Error)
- R-Square
- RESULTS AND DISCUSSION
- ALGORITHM 8.1: ALGORITHM FOR FORECASTING CO2
- COMPARISON WITH STATE-OF-THE-ART TECHNIQUES
- CONCLUSION AND FUTURE SCOPE
- AUTHORS' CONTRIBUTIONS
- DATA AVAILABILITY
- REFERENCES
- AI-Driven Data Analytics for Environmental Decision-Making
- Swagata Ashwani1,* and Meetu Malhotra2
- INTRODUCTION
- THE ROLE OF AI IN ENVIRONMENTAL DECISION MAKING
- Case Studies
- Technological Benefits
- MULTIMODAL DATA ANALYTICS IN ENVIRONMENTAL MONITORING
- Importance of Multimodal Data Analytics
- Multimodal Approaches
- Challenges in Data Fusion
- Applications of Multimodal Data Analytics
- KEY CHALLENGES IN AI-DRIVEN ENVIRONMENTAL ANALYTICS
- Data Availability and Quality
- Scalability and Real-time Processing
- Interpretability and Transparency
- CONSIDERATIONS IN ENVIRONMENTAL AI
- Privacy in Environmental Monitoring
- EVALUATION METRICS FOR AI-DRIVEN ENVIRONMENTAL SYSTEMS
- Metrics for Model Accuracy
- Environmental Specific Metrics and Context-Specific Metrics
- Limitations
- EMERGING SOLUTIONS AND INNOVATIONS
- Improving Data Quality and Fusion Techniques
- Developing Explainable AI Models for Transparency
- Policy and Governance
- FUTURE DIRECTIONS FOR AI IN ENVIRONMENTAL DECISION-MAKING
- Potential Innovations
- AI-Enabled IoT for Real-Time Data Collection
- AI-Powered Drones for Ecosystem Monitoring
- Collaborative Approaches
- Importance of Multi-Stakeholder Collaboration
- Call for Responsible AI
- CONCLUSION
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- Dynamic Dashboards for Machine Learning-driven Remote Sensing Data Visualization in Higher Education Advancing Towards Industry 6.0
- Vijay Arputharaj J.1,*, K. Deeba2, D. Karthika3 and Ramesh Kumar Ayyasamy4
- INTRODUCTION TO INDUSTRY 6.0 IN HIGHER EDUCATION
- Differences and Unique Characteristics of Each Industrial Revolution and their Impact on Higher Education Advancements
- The First Industrial Revolution (Late 18th Century to Early 19th Century)
- The Second Industrial Revolution (Late 19th Century to Early 20th Century)
- The Third Industrial Revolution (Late 20th Century)
- The Fourth Industrial Revolution (21st Century - Present)
- The Fifth Industrial Revolution (Emerging)
- The Sixth Industrial Revolution (Future Outlook)
- Evolution of Industrial Revolutions and their Impact on Higher Education
- Role of Streamlit and AI in Creating Intelligent Educational Systems
- EXPLORING CURRENT TRENDS IN EDUCATIONAL AUTOMATION AND DATA VISUALIZATION
- Machine Learning and Generative AI in Academic Management
- Current Trends in Industry 6.0 and Impact on Education
- Impact on Education:
- FRAMEWORKS FOR INTEGRATING INDUSTRY 6.0 WITH UNIVERSITY SYSTEMS
- Process Flow and Core Components of the Framework
- Architecture of the Framework
- CASE STUDY: IMPLEMENTING INDUSTRY 6.0 TECHNOLOGIES AT THE UNIVERSITY OF MELBOURNE
- Technological Implementations
- Outcomes
- Challenges
- CONCLUSION
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- Exploring Satellites with a Focus on Meteorological Satellites: Applications and Case Studies
- Romana Taskeen1,*, Sumayya Afreen1, Asma Begum1, D. Radhika1 and Ayesha Nuzha2
- INTRODUCTION
- About Satellite
- Fundamental Principles in Satellite Implementation
- KEY DOMAINS IN SATELLITE SYSTEMS
- Image Processing
- Machine Learning
- Object Recognition and Change Detection
- Advanced Algorithms in Time Series Analysis
- Emergence and History of Meteorological Satellites in India and China
- History of Meteorological Satellites in India
- History of Meteorological Satellites in China
- Applications of Meteorological Satellites
- Sustainable Development
- Land Resource Management
- Epidemic Prediction and Prevention
- Disaster Management (3Ps)
- Climate Monitoring
- Satellite Communications (SatComs)
- Case Studies on Applications of Meteorological Satellites
- India's Satellite-Based Climate Change Case Study
- Case Study of Jakarta, Indonesia
- China's Satellite-Based Case Study on Desertification (Ordos-Plateau) and Forest Fire (in Yunnan Province)
- Monitoring Forest Fire Impact of Climate Change in Yunnan Province Using GRACE Satellites
- Challenges of Satellite Technology and Mitigation Strategies
- FUTURE SCOPE
- CONCLUSION
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- AI-Driven Weather Prediction using Bidirectional LSTM Models in the Lower Mahanadi River Basin
- Monalisha Pattnaik1,*, Sudev Kumar Padhi2, B. Sudershan Patro3, Ashirbad Mishra4, Prasanta Kumar Patra5, Duryadhan Behera5 and Aryan Pattnaik6
- INTRODUCTION
- LITERATURE REVIEW
- DATA AND PRELIMINARY ANALYSIS
- Performance Measurement Metrics
- METHODOLOGY
- Artificial Neural Network
- Deep Neural Network
- Bidirectional LSTM Network
- EXPERIMENTAL EVALUATION AND RESULTS OF WEATHER PREDICTION MODELS
- Neural Networks and Bidirectional LSTM Models for Weather Prediction
- Artificial Neural Network Models for Weather Prediction
- Deep Neural Network Model for Weather Prediction
- Bidirectional Long Short-Term Memory Model for Weather Prediction
- Practical Implications
- CONCLUSIONS
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- Leveraging GANs for Low-light Image Enhancement in Challenging Environments
- Ajjada Surekha1, Budamkayala Vara Satya Sai Ganesh1, Gedela Teja1, Dannana Vasubabu1, Telagarapu Prabhakar1,* and Srinath Doss2
- INTRODUCTION
- LITERATURE SURVEY
- METHODOLOGY
- Dataset
- Preprocessing
- Proposed GAN Model
- Generator
- Discriminator
- Feature Extraction
- Feature Refinement
- Loss function
- Evaluated Metrics
- PSNR Formula
- MSE Calculation
- High PSNR (&30db)
- Low PSNR (&20db)
- SSIM (Structural Similarity Index Measure)
- SOFTWARE AND HARDWARE REQUIREMENTS
- Software Requirements
- Python
- IDE (Integrated Development Environment)
- Hardware requirements
- Processing Power
- Graphics Card (GPU)
- Memory
- RESULTS AND DISCUSSION
- CONCLUSION AND FUTURE SCOPE
- AUTHORS' CONTRIBUTIONS
- REFERENCES
- Subject Index
- Back Cover
AI Innovations Transforming Environmental Monitoring: Overcoming Challenges for a Sustainable Future
Meetu Malhotra1, *, Swagata Ashwani2
1 Department of Data Science, Harrisburg University of Science and Technology, Harrisburg, USA
2 Department of Engineering, Carnegie Mellon University, Pittsburgh, USA
Abstract
The rapid advancement of Artificial Intelligence (AI) has significantly transformed the landscape of environmental monitoring, offering innovative solutions to detect and address various forms of environmental degradation. By integrating AI with remote sensing technologies, it becomes possible to analyze vast amounts of data from satellite imagery, drones, and ground-based sensors, enabling real-time monitoring and timely intervention in environmental issues. This synergy enhances the accuracy and efficiency of detecting pollutants, deforestation, and biodiversity loss, among other critical challenges. This chapter explores the major developments and applications of AI in monitoring environmental degradation, particularly within industrial settings. As environmental challenges, such as pollution, deforestation, and biodiversity loss, intensify, traditional monitoring methods have proven insufficient to address these issues effectively. This chapter reviews the historical development of AI technologies in environmental monitoring, highlighting how these innovations have transformed data collection and analysis processes, resulting in enhanced accuracy and efficiency. This chapter compares traditional environmental monitoring systems with AI-driven approaches, highlighting the benefits and limitations of each method. The discussion includes various AI techniques employed in environmental monitoring, such as machine learning algorithms, deep learning models, and reinforcement learning, which have demonstrated remarkable capabilities in analyzing complex environmental data.
Additionally, this chapter delves into the role of remote sensing technologies, including satellite imagery and IoT sensors, in enhancing data acquisition and processing. The chapter further examines specific applications of AI in monitoring air and water quality, detecting deforestation and land use changes, conserving biodiversity, and managing industrial emissions. Through real-time case studies, the practical implications and effectiveness of AI-driven solutions in promoting environmental sustainability were illustrated. The chapter concludes with a discussion of the challenges and future directions for AI in environmental monitoring, emphasizing the
need for continued innovation and collaboration across sectors to leverage AI technologies for a sustainable future.
Keywords: Artificial intelligence, Environmental monitoring, Environmental surveillance, Machine learning, Remote sensing, Sustainability.* Corresponding author Meetu Malhotra: Department of Data Science, Harrisburg University of Science and Technology, Harrisburg, USA; E-mail: FMeetu@my.harrisburgu.edu
INTRODUCTION
Environmental degradation in industry refers to the impairment of the natural environment through activities initiated by industries such as water pollution, excessive use of natural resources, and destruction of natural habitats [1]. Forcing industries, such as production, farming, and mining, play a significant role in polluting the atmosphere and water sources, destroying the soil and depleting natural resources and habitats that support life. These problems have been exacerbated by the rapid growth of industrial processes and urbanization, thereby paving the way for high greenhouse gas emissions and devastating effects on [2].It has been reported that environmental pollution from industries causes millions of untimely deaths every year. The World Bank has urged concerted efforts on monitoring and controlling measures [3].
The impact of industrial activities on the environment is not only limited to ecological harm but also contributes to broader economic challenges, including inflation. Inflation is a global issue that is exacerbated by climate change, as the rising frequency and intensity of extreme weather events drive up the prices of essential goods, such as food and energy. However, AI offers hope by helping mitigate climate change through reduced emissions, enhanced energy efficiency, and the promotion of renewable energy sources. The green transition, with a focus on sustainability, is crucial in addressing inflation, and AI plays a pivotal role in this effort.
According to a 2022 BCG Climate AI Survey [4], 87% of CEOs in the public and private sectors responsible for AI and climate initiatives consider AI to be vital in the fight against climate change, as shown in Fig. (1). The survey highlighted that AI's most significant business value lies in reducing emissions (61%) as part of broader mitigation efforts, which also include removing emissions and measuring them (57%). Other key areas include adaptation (forecasting hazards at 44% and managing vulnerabilities at 42%), as well as fundamental areas like climate research and finance (28%).
Fig. (1))Leaders in climate and AI advocate for AI's role in combating climate change.
Notably, monitoring is critical to sustainable development, as it supplies the relevant information required for decision-making and policy-making [5]. Regular monitoring systems utilize information related to risk and environmental ratings, the reliability of the preventive and correctional measures, and adherence to environmental standards. In addition, it brings awareness of regular system changes in the internal or external environment to prevent potential damage. This chapter is about sustainability, where environmental concerns are incorporated in industrial processes, and checks are the primary element of sustainability. This is the major role of monitoring as it helps to assess the impacts of the environment and promote responsibility, ensuring that economic growth is not achieved at the total detriment of the ecology.
AI serves a central role in enhancing remote sensing and surveillance in environmental management [6]. By ingesting substantial amounts of data gathered by satellites, drones, and IoT sensors, AI algorithms can spot trends, identify abnormalities, and make more accurate forecasts of future environmental conditions in real-time than traditional modeling approaches. AI, in the form of Machine Learning (ML) and Deep Learning (DL), has shown considerable promise in enhancing object detection and image classification for remote sensing, there by improving the monitoring of habitats, airborne pollution, and water bodies [7]. The use of AI also helps enhance the process of data retrieval and analysis, enabling real-time remote sensing, and allowing decision-making parties easy access to information at the right time it is required. In this respect, AI elevates the efforts of environmental monitoring to a new level, providing exceptional tools to address some of the critical environmental degradation issues in industry.
This study makes a significant contribution to the field of environmental monitoring, particularly in addressing the issue of environmental degradation, by examining the potential role of AI in mitigating the problem. It provides a systematic analysis of the evolution of AI technologies and their applications in remote sensing, with a specific focus on the advances that increase data accuracy and efficiency in monitoring different environmental problems. The comparison between traditional and AI-driven approaches elucidates the strengths and weaknesses of both methodologies, paving the way for a better understanding of how AI can revolutionize data collection and analysis. Additionally, this chapter explores how AI can be applied to real-life problems in air and water quality monitoring, deforestation detection, and biodiversity conservation, providing practical implementations of this technology to support sustainability. Furthermore, it addresses the challenges faced in adopting these technologies and outlines future research directions, thereby fostering collaboration across sectors for sustainable environmental solutions.
The rest of the paper is organized as follows: Section 2 provides a Comprehensive Literature Review, starting with the Historical Development of AI in Environmental Monitoring (2.1), followed by a Comparison of Manual Monitoring Systems with AI-driven systems (2.2). The section also explores various AI Techniques used in Environmental Monitoring (2.3) and concludes with a review of Remote Sensing Technologies for environmental data collection (2.4). Section 3 discusses Applications of AI in Environmental Monitoring, while Section 4 focuses on the role of AI in Smart Cities for Environmental Sustainability. Section 5 identifies the Challenges in AI-driven environmental monitoring, followed by Section 6, which highlights Future Directions and Opportunities in the field. Finally, Section 7 presents the Conclusion, summarizing key insights from the paper.
Literature...
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