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The Future of Agriculture.
- Format:
- Book
- Author/Creator:
- Pandey, Kavita.
- Language:
- English
- Subjects (All):
- Sustainable agriculture.
- Agricultural innovations.
- Physical Description:
- 1 online resource (241 pages)
- Edition:
- 1st ed.
- Place of Publication:
- Sharjah : Bentham Science Publishers, 2024.
- Summary:
- The Future of Agriculture: IoT, AI and Blockchain Technology for Sustainable Farming explores how cutting-edge technologies like Artificial Intelligence (AI), the Internet of Things (IoT), and Blockchain are transforming farming for a sustainable future. Addressing challenges such as climate change, resource scarcity, and food supply chain inefficiencies, the book highlights how these technologies can improve decision-making, enhance crop yields, and increase transparency in agriculture. With a blend of theory and real-world applications, it covers everything from AI-driven pesticide prediction and disease identification to using Blockchain for efficient food supply chain management. This comprehensive guide is essential for researchers, professionals, and anyone interested in the intersection of technology and sustainable farming. Key Features:- Introduction to Digital Twin technology for sustainable farming- Practical applications of AI and IoT in agriculture- Blockchain's role in food supply chain management- Frameworks for precision agriculture and access to government schemes- Insights on integrating AI, IoT, and Blockchain into solid waste management systems Readership:Researchers (Academia, Ph.D. students), industry professionals, and trade experts.
- Contents:
- Cover
- Title
- Copyright
- End User License Agreement
- Contents
- Foreword
- Preface
- List of Contributors
- Digital Twin for Sustainable Farming: Developing User-Friendly Interfaces for Informed Decision-Making and Increased Profitability
- Chandramohan Dhasarathan1,*, Ramachandra Reddy. B.2, Ashok Kumar. S.3 and Sambasivam Gnanasekaran4
- INTRODUCTION
- LITERATURE STUDY
- PROPOSED METHODOLOGY- META-ANALYSIS
- Digital Twin Technology in Agriculture
- The Critical Benefit of Digital Twin Technology in Agriculture
- OBSERVATION
- DISCUSSIONS
- RESEARCH HIGHLIGHTS AND FUTURE FOCUS
- CONCLUSION
- ACKNOWLEDGMENT
- REFERENCES
- Agricultural Resource Management Using Technologies Like AI, IoT, and Blockchain
- Ashish Mahalle1,* and Snehlata Dongre1
- AGRICULTURAL GROWTH IN INDIA
- SUSTAINABLE AGRICULTURE METHODS
- FRAMEWORK FOR AGRICULTURE DECISION SUPPORT
- TECHNOLOGIES USED IN SMART FARMING
- Internet of Things (IoT)
- Artificial Intelligence (AI)
- Blockchain
- APPLICATIONS IN AGRICULTURE
- ROLE OF ENGINEER IN DEVELOPING SMART FARMING
- LIST OF ABBREVIATIONS
- ACKNOWLEDGEMENT
- Prediction for Increasing Yield Production with IoT and AI Using Soil Properties
- Aravind H.S.1, Savitha Ambliihalli Chandrappa1,*, Neha Venkatesh2 and Kalyan Kumar Basavaiah3
- Contributions of the Research Article
- LITERATURE REVIEW
- Wireless Sensor Network (WSN) /Internet of Things (IoT)
- Data Analytics
- FRAMEWORK OF THE PROPOSED SYSTEM
- Components of Sub-modules
- Arduino UNO
- Machine Learning (ML)
- Servo Motor
- LCD Display
- Sensors
- Flowchart of the Proposed System
- IMPLEMENTATION OF THE PROPOSED SYSTEM
- RESULTS AND DISCUSSION
- CONSENT FOR PUBLICATIONS
- REFERENCES.
- Pesticide Prediction and Disease Identification with AIoT
- Ajay Kumar Dharmireddy1,*, Kambham Jacob Silva Lorraine1, Ravi Kumar Maddumala1 and Kotha Lavanya1
- LITERATURE SURVEY
- Different Techniques for Pest Detection
- Image Processing in the Field of Agricultural Research
- IOT-BASED SMART PEST DETECTION IN AGRICULTURE
- Sensor Deployment
- Pest Detection Sensors
- Data Collection and Transmission
- Data Analytics and Processing
- Pest Detection and Alerts
- Decision Support System
- Integration with other Agricultural Systems
- Historical Data Analysis and Prediction
- Benefits of Smart Pest Detection in Agriculture using IoT Include
- PROBLEM STATEMENT
- EXISTING METHOD
- Image Acquisition
- Pre-processing
- Feature extraction
- Classification
- PROPOSED MODEL
- Proposed Methodology
- Data Collection
- Dataset Augmentation
- Classification of Datasets
- Deep Learning Model
- STRUCTURE OF RESNET-18
- Initial Layers
- Basic Blocks (Residual Blocks)
- Global Average Pooling and Classifier
- Training and Testing the Model
- Performance Evaluation
- Components Used
- Relay
- RESULTS AND DISCUSSIONS
- FUTURE WORK
- Weed Control for Better Crop Health Using AIoT
- Sanjana T.1,* and Madhusudhan K. N.1
- SYSTEM FOR AUTONOMOUS ERADICATION OF WEEDS
- Origin and History of AI, IoT and Blockchain Technology and their Pertinence in Food Supply Chain Management
- Sudhanand Prasad Lal1,*, Abhinab Borah1, Sakshi Pundir1, Leezamoni Das1 and Diksha Srivastava1
- METHODOLOGY
- CHALLENGES OF AI IN SUPPLY CHAIN
- Evolution and History of IoT
- Applications of IoT
- IoT in the Food Supply Chain
- The architecture of IoT in the food supply chain.
- Widely accepted definitions of Blockchain
- Looking back at Blockchain
- Characteristics of Blockchain
- Application of Blockchain in Agriculture
- Blockchain for Food Supply Chain Management
- Any Food Supply Chain Starts with the following:
- Genesis and History of Public Distribution System (PDS)
- Evolution of PDS in India
- Public Distribution System (PDS) in India
- What is the current state of using modern ICT in the food sector?
- What is SMART-PDS?
- "Food for all Model" of Chhattisgarh
- Centralized Online Real-Time Electronic Public Distribution System (CORE-PDS) of Chhattisgarh in India
- Phases of Chhattisgarh's Model
- CONCLUSION AND FUTURE PERSPECTIVES
- Food Supply Chain Management by Leveraging AI, IoT, and Blockchain Technologies
- K. Radhika1,*, Sheena Mohammed1, Satya Kiranmai Tadepalli1 and Kiranmaie Puvvula1
- ARTIFICIAL INTELLIGENCE IN FOOD SUPPLY CHAIN MANAGEMENT
- Role of AI in Food Supply Chain Management
- Predictive Analytics for Demand Forecasting
- AI-enabled Quality Control and Inspection
- AI-enabled route optimization and logistics
- LEVERAGING IOT IN FOOD SUPPLY CHAIN MANAGEMENT
- Introduction to IoT in the Context of Food Supply Chain
- IoT-enabled Smart Sensors for Real-time Monitoring
- IoT-based Temperature and Humidity Control
- BLOCKCHAIN TECHNOLOGY IN FOOD SUPPLY CHAIN MANAGEMENT
- Role of Blockchain Technology in Food Supply Chain Management
- Transparency and Traceability through Blockchain
- Blockchain-based smart contracts for secure transactions
- INTEGRATION OF AI, IOT, AND BLOCKCHAIN IN FOOD SUPPLY CHAIN MANAGEMENT
- CHALLENGES AND RESEARCH DIRECTIONS
- CONSENT FOR PUBLICATION
- CONFLICT OF INTEREST
- ACKNOWLEDGEMENTS
- Framework Based on IoT, AI, and Blockchain for Smart Access to Government Agricultural Schemes
- D. Vinodha1,*, M.J. Buvana2, S. Rajalakshmi2, J. Jenefa1, E.A. Mary Anita1 and Maria Lapina3
- EXISTING SYSTEMS
- TECHNOLOGIES USED
- IoT in Precision Agriculture
- Detectors of Soil Moisture
- Weather Monitoring Sensor
- Sensors for Crop Health
- GPS Trackers
- Drone
- Role of AI in Precision Agriculture
- Role of Blockchain in Precision Agriculture
- Drone Monitoring System (DMS)
- Soil Health Monitoring System
- Crop Health Monitoring System
- Health Assessing Model
- Blockchains for Smart Access to Government Schemes
- Blockchain for DMS (BC_DMS)
- BC for Field-wise Sanctioned Schemes (BC_FSS)
- Smart Contracts
- ACKNOWLEDGMENTS
- Transforming Agriculture with IoT for Precision Agriculture and Sustainable Crop Management
- Suyash Bhardwaj1,*, Sasirekha Venkatesan2, Swati Rawat3 and Pashupati Nath4
- INTRODUCTION TO IOT IN AGRICULTURE
- Definition of IoT
- Applications of IoT in Agriculture
- Precision agriculture
- Agricultural Drones
- Automated irrigation
- Livestock Monitoring
- Crop Monitoring System
- Smart Greenhouses
- Environmental Monitoring
- Remote Sensing
- Supply Chain Management
- Advantages of IoT-based agriculture systems
- IOT SENSORS IN AGRICULTURE
- Types of IoT sensors used in agriculture
- Soil Moisture Sensors
- Crop Sensors
- Weather Sensors
- Livestock Sensors
- Irrigation Sensors
- Sensor Technologies for Monitoring Crop Health
- Optical Sensors
- Spectral Sensors
- Multispectral and Hyperspectral Imaging
- Thermal Imaging
- Drone-based Sensors
- Soil Sensors
- IOT-BASED DATA COLLECTION AND MANAGEMENT
- Overview of Data Collection and Management Systems
- Centralized Data Collection and Management Systems.
- Decentralized Data Collection and Management Systems
- Cloud-based Data Management Systems
- Edge Computing in IoT-based Agriculture
- IOT-BASED PRECISION AGRICULTURE
- Definition of Precision Agriculture
- Advantages of Precision Agriculture
- Real-time Monitoring and Control using IoT in Precision Agriculture
- Literature Review of IoT in Precision Agriculture
- IOT-BASED SUSTAINABLE CROP MANAGEMENT
- Crop Monitoring using IoT
- Automated Irrigation Systems using IoT
- Pest and Disease Management using IoT
- Literature Review of Sustainable Crop Management
- CHALLENGES AND FUTURE OF IOT FOR PRECISION AGRICULTURE AND SUSTAINABLE AGRICULTURE
- Challenges for Precision Agriculture and Sustainable Agriculture
- Technical Challenges in IoT-based Agriculture
- Privacy and Security Concerns in IoT-based Agriculture
- Future Trends in IoT-based Agriculture
- Scientific Integrated Solid Waste Management System to Minimize Adverse Effects on Agriculture
- Megha Jain1,* and Dhiraj Pandey1
- RELATED STUDY
- Stages in Remote Sensing
- Resolution
- Resolutions of Remote Sensing
- Criteria for extracting the data
- A. Data and Material
- IMPLEMENTATION AND RESULTS
- Simple Additive Weighting (SAW) Technique
- Compromise Programming Technique
- TOPSIS Technique
- FUTURE SCOPE
- FUNDING AGENCY
- Subject Index
- Back Cover.
- Notes:
- Description based on publisher supplied metadata and other sources.
- Part of the metadata in this record was created by AI, based on the text of the resource.
- ISBN:
- 9789815274349
- 9815274341
- OCLC:
- 1467875033
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