Agriculture in Tamil Nadu – Current
Scenario
 60% rural population depends on agriculture
 Small & fragmented landholdings (avg. < 2 ha)
 Water scarcity, soil degradation, climate variability
 Need for sustainable, high-yield solutions
 Labour non-availability
 Input cost high
 Poor market network
Artificial Intelligence (AI)
 AI is a branch of computer science, dealing with the simulation of intelligent
behaviour in computers.
 AI is not a Man Vs Machine saga: Its in fact, Man with Machine synergy.
What is Precision Farming?
 Precision farming is a concept of doing “Right thing” in the “right
time”, at the “right place” with “right amount”.
 Site-specific crop management
 Use of data-driven decisions
 Optimize inputs (water, fertilizers, pesticides)
 Increase yield, reduce waste
Why AI in Agriculture?
 Traditional methods insufficient for modern challenges
 Big data + IoT sensors generate actionable insights
 AI enables predictive & prescriptive solutions
 Supports government policies (Digital India, TN e-Gov)
 More efficacy and optimise the resource use and efficiency.
 It solves scarcity of labour and resources to a larger extent.
 AI is the boom in agriculture to feed the increasing population of
world.
Role of AI in Precision Agriculture
 Data collection Processing Decision making Action
→ → →
 AI acts as the 'brain' of the farm ecosystem
 To increase production efficiency
 To improve product quality
 Effective use of all inputs
 To protect soil and water
 To determine the potential socio, economic and environmental
benefits.
AI in Crop Monitoring
 Satellite & drone imaging
 Disease detection via image recognition
 Growth stage monitoring with AI algorithms
 Automated farming activities
 Automated irrigation systems
 Identification of pest, disease and weeds out break weather
forecasting.
AI for Soil & Nutrient Management
 AI models predicting soil fertility
 Real-time nutrient recommendations
 Precision fertilizer application
 Grid soil sampling
 GIS based soil sampling
 Site specific Nutrient Management
 Soil survey and land use mapping (USDA) – by using remote sensing
AI for Irrigation Management
 Smart irrigation using AI + IoT sensors
 Predictive models for water needs
 Cauvery delta water scheduling
 Automative micro irrigation systems
 Laser land levelling
 Monitoring relative humidity and moisture stress
 Need based automated application of water at root zone
 Fertigation
AI in Pest & Disease Management
 Image-based detection of pests
 AI chatbots for farmers via mobile photos
 Reduces pesticide misuse
 Drone spraying
 Monitoring outbreak of pests before occurance
AI in Crop Yield Prediction
 Machine learning models for yield forecasting
 Helps in market planning & insurance
 Predicting paddy yield under monsoon variability
 Storage and warehousing
 Value addition
 Logistic support pre and post harvest
 Crop cutting experiments/NSSO
Robotics & Automation
 AI-powered drones for spraying
 Autonomous tractors & weed removers
 Labour shortage solution
 Automatic harvesters
 Automatic cleaner, graders and packers
 Transplanters , seed drills
AI in Supply Chain Optimization
 Predicting demand & price fluctuations
 Reducing post-harvest losses
 Connecting farmers to direct markets
Global Case Studies
 John Deere (AI tractors, precision seeding)
 IBM Watson Decision Platform for Agriculture
 Microsoft AI Sowing App
Indian Case Studies
 e-Choupal (ITC): digital farmer networks
 CropIn: AI-based farm management platform
 TNAU: AI in pest detection research
 e NAM – National Agricultural Marketing
 PMFBY – Pradhan Mantri Fasal Bima Yojana
 PMKVY – Pradhan Mantri Kaushal Vikas Yojana
 PM Kissan
Tamil Nadu Practices
 Drone spraying in Erode & Thanjavur
 AI-enabled soil testing in Salem
 Smart irrigation pilots in Coimbatore
 Remote Control (GIS) farming system in Pollachi, Sathyamangalam
 Lift irrigation systems cauvery basin.
Need for Business Models
 High cost of AI adoption
 Farmers’ limited capital
 Importance of sustainable revenue streams
 Employment generation
 Full utilization of all resources
 Bridge the gap between producer and consumer
Subscription Model
 Farmers pay for AI advisory as monthly/yearly subscription
 AI-based weather and crop advisory apps
Pay-Per-Use Model
 Drone spraying / soil testing charged per acre
 Reduces upfront investment
Platform-Based Model
 Aggregators connect farmers, buyers, and AI services
 Marketplace + advisory in single app
 Buyers and Sellers meet online
 e-Nam platform
 APMC Model and eNam model combination
Data-as-a-Service (DaaS)
 Farmer data sold to agri-input companies, insurers, policymakers
 Ethical data management & privacy concerns
 Market price for 52 weeks (Mapping)
 Data related to soil quality, water quality etc
 Cost for data and legal boundaries
Government & NGO Partnerships
 Subsidies for AI adoption
 Public–private partnerships
 CSR-based agri-digital platforms
 Farmer producer companies role
 Export and Import policies of Govt.
 Infrastructure support by NABARD, MOFPI, GOI and State Govt.
 AI based small training centres
Cooperative/Cluster Model
 FPOs adopt AI collectively
 Shared resources: drones, sensors, platforms
 Involvement of farmers organizations
 Co-operative or collective farming
 Crop wise clusters
 Marketing networks
 Successful models of Amul, Aavin etc.,
Startup Models in India
 AI-driven AgriTech startups (Ninjacart, Fasal, DeHaat)
 Venture capital support for agri innovation
 Tamil Nadu Startup & Innovation Mission
 Agri based business plans
 Creation of awareness among young and educated farmers.
 Linkages between incubation centers and endusers
Challenges in AI Adoption
 High cost of technology
 Low digital literacy among farmers
 Connectivity issues in rural Tamil Nadu
 Data privacy & ownership issues
 Risk and Uncertainty
 High salary packages for IT staff / skilled workers
 Network marketing
Opportunities for Tamil Nadu
 Strong research ecosystem (TNAU, IIT-M, Anna Univ)
 Government support for smart agriculture
 Export potential for AI-based solutions
 Job creation in AgriTech
Future of AI in Precision Farming
 Integration of AI + IoT + Robotics
 Cloud-based farm decision platforms
 AI-powered vertical farming & hydroponics
 Advancement in Micro irrigation
 Remote control of entire farming systems
 Quality assurance and precision post harvest technologies
 R&D for organic farming
Role of Academia & Research Scholars
 Localized AI models for TN crops
 Interdisciplinary research (AI + Agriculture + Economics + Management
+ Engineering)
 Industry & farmer collaborations
 Suggestion of innovative projects
 Guide the students about AI models and scope
Policy Recommendations
 Subsidies for AI adoption
 Skill development for farmers
 Open agri-data platforms for researchers
 Encouraging AgriTech startups
 Training and visit to successful Models
 More budgetary allotment for AI based research and development
 Inclusion of AI based syllabus in curriculum.
Key Takeaways
 AI transforms farming into data-driven enterprise
 Business models must ensure affordability & scalability
 Tamil Nadu can lead AI-driven agriculture
AI is not replacing farmers,
it is empowering them.
செயற்கை அறிந்தக கடைத்தும் உலகத்து
இயற்கை அறிந்து செயல் --- குறள் * 63

AI_Precision_Farming_BusinessModels_Full.pptx

  • 2.
    Agriculture in TamilNadu – Current Scenario  60% rural population depends on agriculture  Small & fragmented landholdings (avg. < 2 ha)  Water scarcity, soil degradation, climate variability  Need for sustainable, high-yield solutions  Labour non-availability  Input cost high  Poor market network
  • 3.
    Artificial Intelligence (AI) AI is a branch of computer science, dealing with the simulation of intelligent behaviour in computers.  AI is not a Man Vs Machine saga: Its in fact, Man with Machine synergy.
  • 4.
    What is PrecisionFarming?  Precision farming is a concept of doing “Right thing” in the “right time”, at the “right place” with “right amount”.  Site-specific crop management  Use of data-driven decisions  Optimize inputs (water, fertilizers, pesticides)  Increase yield, reduce waste
  • 5.
    Why AI inAgriculture?  Traditional methods insufficient for modern challenges  Big data + IoT sensors generate actionable insights  AI enables predictive & prescriptive solutions  Supports government policies (Digital India, TN e-Gov)  More efficacy and optimise the resource use and efficiency.  It solves scarcity of labour and resources to a larger extent.  AI is the boom in agriculture to feed the increasing population of world.
  • 6.
    Role of AIin Precision Agriculture  Data collection Processing Decision making Action → → →  AI acts as the 'brain' of the farm ecosystem  To increase production efficiency  To improve product quality  Effective use of all inputs  To protect soil and water  To determine the potential socio, economic and environmental benefits.
  • 7.
    AI in CropMonitoring  Satellite & drone imaging  Disease detection via image recognition  Growth stage monitoring with AI algorithms  Automated farming activities  Automated irrigation systems  Identification of pest, disease and weeds out break weather forecasting.
  • 8.
    AI for Soil& Nutrient Management  AI models predicting soil fertility  Real-time nutrient recommendations  Precision fertilizer application  Grid soil sampling  GIS based soil sampling  Site specific Nutrient Management  Soil survey and land use mapping (USDA) – by using remote sensing
  • 9.
    AI for IrrigationManagement  Smart irrigation using AI + IoT sensors  Predictive models for water needs  Cauvery delta water scheduling  Automative micro irrigation systems  Laser land levelling  Monitoring relative humidity and moisture stress  Need based automated application of water at root zone  Fertigation
  • 10.
    AI in Pest& Disease Management  Image-based detection of pests  AI chatbots for farmers via mobile photos  Reduces pesticide misuse  Drone spraying  Monitoring outbreak of pests before occurance
  • 11.
    AI in CropYield Prediction  Machine learning models for yield forecasting  Helps in market planning & insurance  Predicting paddy yield under monsoon variability  Storage and warehousing  Value addition  Logistic support pre and post harvest  Crop cutting experiments/NSSO
  • 12.
    Robotics & Automation AI-powered drones for spraying  Autonomous tractors & weed removers  Labour shortage solution  Automatic harvesters  Automatic cleaner, graders and packers  Transplanters , seed drills
  • 13.
    AI in SupplyChain Optimization  Predicting demand & price fluctuations  Reducing post-harvest losses  Connecting farmers to direct markets
  • 14.
    Global Case Studies John Deere (AI tractors, precision seeding)  IBM Watson Decision Platform for Agriculture  Microsoft AI Sowing App
  • 15.
    Indian Case Studies e-Choupal (ITC): digital farmer networks  CropIn: AI-based farm management platform  TNAU: AI in pest detection research  e NAM – National Agricultural Marketing  PMFBY – Pradhan Mantri Fasal Bima Yojana  PMKVY – Pradhan Mantri Kaushal Vikas Yojana  PM Kissan
  • 16.
    Tamil Nadu Practices Drone spraying in Erode & Thanjavur  AI-enabled soil testing in Salem  Smart irrigation pilots in Coimbatore  Remote Control (GIS) farming system in Pollachi, Sathyamangalam  Lift irrigation systems cauvery basin.
  • 17.
    Need for BusinessModels  High cost of AI adoption  Farmers’ limited capital  Importance of sustainable revenue streams  Employment generation  Full utilization of all resources  Bridge the gap between producer and consumer
  • 18.
    Subscription Model  Farmerspay for AI advisory as monthly/yearly subscription  AI-based weather and crop advisory apps
  • 19.
    Pay-Per-Use Model  Dronespraying / soil testing charged per acre  Reduces upfront investment
  • 20.
    Platform-Based Model  Aggregatorsconnect farmers, buyers, and AI services  Marketplace + advisory in single app  Buyers and Sellers meet online  e-Nam platform  APMC Model and eNam model combination
  • 21.
    Data-as-a-Service (DaaS)  Farmerdata sold to agri-input companies, insurers, policymakers  Ethical data management & privacy concerns  Market price for 52 weeks (Mapping)  Data related to soil quality, water quality etc  Cost for data and legal boundaries
  • 22.
    Government & NGOPartnerships  Subsidies for AI adoption  Public–private partnerships  CSR-based agri-digital platforms  Farmer producer companies role  Export and Import policies of Govt.  Infrastructure support by NABARD, MOFPI, GOI and State Govt.  AI based small training centres
  • 23.
    Cooperative/Cluster Model  FPOsadopt AI collectively  Shared resources: drones, sensors, platforms  Involvement of farmers organizations  Co-operative or collective farming  Crop wise clusters  Marketing networks  Successful models of Amul, Aavin etc.,
  • 24.
    Startup Models inIndia  AI-driven AgriTech startups (Ninjacart, Fasal, DeHaat)  Venture capital support for agri innovation  Tamil Nadu Startup & Innovation Mission  Agri based business plans  Creation of awareness among young and educated farmers.  Linkages between incubation centers and endusers
  • 25.
    Challenges in AIAdoption  High cost of technology  Low digital literacy among farmers  Connectivity issues in rural Tamil Nadu  Data privacy & ownership issues  Risk and Uncertainty  High salary packages for IT staff / skilled workers  Network marketing
  • 26.
    Opportunities for TamilNadu  Strong research ecosystem (TNAU, IIT-M, Anna Univ)  Government support for smart agriculture  Export potential for AI-based solutions  Job creation in AgriTech
  • 27.
    Future of AIin Precision Farming  Integration of AI + IoT + Robotics  Cloud-based farm decision platforms  AI-powered vertical farming & hydroponics  Advancement in Micro irrigation  Remote control of entire farming systems  Quality assurance and precision post harvest technologies  R&D for organic farming
  • 28.
    Role of Academia& Research Scholars  Localized AI models for TN crops  Interdisciplinary research (AI + Agriculture + Economics + Management + Engineering)  Industry & farmer collaborations  Suggestion of innovative projects  Guide the students about AI models and scope
  • 29.
    Policy Recommendations  Subsidiesfor AI adoption  Skill development for farmers  Open agri-data platforms for researchers  Encouraging AgriTech startups  Training and visit to successful Models  More budgetary allotment for AI based research and development  Inclusion of AI based syllabus in curriculum.
  • 30.
    Key Takeaways  AItransforms farming into data-driven enterprise  Business models must ensure affordability & scalability  Tamil Nadu can lead AI-driven agriculture
  • 31.
    AI is notreplacing farmers, it is empowering them. செயற்கை அறிந்தக கடைத்தும் உலகத்து இயற்கை அறிந்து செயல் --- குறள் * 63