Computer Vision in Smart Agriculture and Precision
Farming: Techniques and Applications
Sumaira Ghaza1 Arslan Munir2 Waqar S. Qureshi3
1Department of Computer Science, Kansas State University, 66506 Manhattan, KS, USA
2Department of Electrical Engineering and Computer Science, Florida Atlantic University,
33431 Boca Raton, FL, USA
3School of Computer Science, University of Galway, H91 TK33 Galway, Ireland
Presented By: Sudhanshu Singh
October 23, 2024
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 1/11
Outline
Introduction
Research Background
Research Need
Problem Statement
Analysis
Conclusion
Future Work
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 2/11
Research Background
Digitization in agriculture
AI, Computer Vision driven growth
Focus: precision farming techniques
Key stages: image acquisition, analysis
AI boosts productivity, sustainability
Tackles food security, global issues
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 3/11
Research Needs
Improved real-time vision-based models needed
Integration with diverse crop environments required
Enhance precision in stress detection techniques
Develop scalable solutions for large farms
Improve data fusion from multiple sensors
Focus on sustainability and reduced resource use
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 4/11
Problem Statement
Traditional farming lacks precision, efficiency
Manual monitoring is time-consuming and inconsistent
Diverse environmental conditions challenge uniform solutions
Accurate crop health assessment remains difficult
Real-time data processing is limited in agriculture
Need for automation to reduce labor costs
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 5/11
Proposed Methodology
Image Acquisition Systems
Image Stitching Techniques
Image Analysis for Crops
Decision Making using AI
Automated Treatment Plans
Real-Time Implementation Focus
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 6/11
Proposed Methodology via Flow Chart
Figure.1 : Digital life cycle of crops in precision agriculture
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 7/11
Analysis
Enhanced soil characterization for better fertilizer decisions
Early detection of crop diseases and nutrient issues
Data integration for optimized resource usage
Targeted treatments increase yield and quality
Automation reduces labor costs and monitoring time
Addressing model challenges is crucial for success
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 8/11
Conclusion
AI revolutionizes precision agriculture applications
Vision systems automate crop monitoring effectively
RGB, multispectral, thermal imaging widely used
Key for detecting stress, yield optimization
Real-time deployment poses major challenges
Future: autonomous, scalable agricultural solutions
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 9/11
Future Scope
Expand AI-driven automation in agriculture
Develop adaptive models for diverse crops
Improve real-time decision-making with AI
Integrate advanced robotics for autonomous farming
Enhance environmental sustainability through precision
Increase scalability for large-scale farming operations
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 10/11
Thank You
Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 11/11

Smart_Agriculture_Using_ComputerVision_and_Machine_learning.pdf

  • 1.
    Computer Vision inSmart Agriculture and Precision Farming: Techniques and Applications Sumaira Ghaza1 Arslan Munir2 Waqar S. Qureshi3 1Department of Computer Science, Kansas State University, 66506 Manhattan, KS, USA 2Department of Electrical Engineering and Computer Science, Florida Atlantic University, 33431 Boca Raton, FL, USA 3School of Computer Science, University of Galway, H91 TK33 Galway, Ireland Presented By: Sudhanshu Singh October 23, 2024 Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 1/11
  • 2.
    Outline Introduction Research Background Research Need ProblemStatement Analysis Conclusion Future Work Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 2/11
  • 3.
    Research Background Digitization inagriculture AI, Computer Vision driven growth Focus: precision farming techniques Key stages: image acquisition, analysis AI boosts productivity, sustainability Tackles food security, global issues Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 3/11
  • 4.
    Research Needs Improved real-timevision-based models needed Integration with diverse crop environments required Enhance precision in stress detection techniques Develop scalable solutions for large farms Improve data fusion from multiple sensors Focus on sustainability and reduced resource use Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 4/11
  • 5.
    Problem Statement Traditional farminglacks precision, efficiency Manual monitoring is time-consuming and inconsistent Diverse environmental conditions challenge uniform solutions Accurate crop health assessment remains difficult Real-time data processing is limited in agriculture Need for automation to reduce labor costs Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 5/11
  • 6.
    Proposed Methodology Image AcquisitionSystems Image Stitching Techniques Image Analysis for Crops Decision Making using AI Automated Treatment Plans Real-Time Implementation Focus Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 6/11
  • 7.
    Proposed Methodology viaFlow Chart Figure.1 : Digital life cycle of crops in precision agriculture Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 7/11
  • 8.
    Analysis Enhanced soil characterizationfor better fertilizer decisions Early detection of crop diseases and nutrient issues Data integration for optimized resource usage Targeted treatments increase yield and quality Automation reduces labor costs and monitoring time Addressing model challenges is crucial for success Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 8/11
  • 9.
    Conclusion AI revolutionizes precisionagriculture applications Vision systems automate crop monitoring effectively RGB, multispectral, thermal imaging widely used Key for detecting stress, yield optimization Real-time deployment poses major challenges Future: autonomous, scalable agricultural solutions Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 9/11
  • 10.
    Future Scope Expand AI-drivenautomation in agriculture Develop adaptive models for diverse crops Improve real-time decision-making with AI Integrate advanced robotics for autonomous farming Enhance environmental sustainability through precision Increase scalability for large-scale farming operations Sudhanshu Singh(IIITL) Computer Vision in Smart Agriculture October 23, 2024 10/11
  • 11.
    Thank You Sudhanshu Singh(IIITL)Computer Vision in Smart Agriculture October 23, 2024 11/11