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Agri 2026

Current status of precision agriculture in the USA

Kasiviswanathan Muthukumarappan, Speaker at Agriculture Conferences
South Dakota State University, United States
Title : Current status of precision agriculture in the USA

Abstract:

Precision agriculture has become an important component of modern farming in the United States, supporting more efficient, productive, and sustainable agricultural systems. Technologies such as Global Navigation Satellite Systems, geographic information systems, yield monitoring, variable-rate application, remote sensing, unmanned aerial vehicles, automated machinery, and digital decision-support tools are increasingly used to understand field variability and improve farm management. The level of adoption varies across regions, farm sizes, crop types, and production systems. Large-scale farms and producers of major field crops have generally adopted precision technologies more rapidly, while smaller farms continue to face challenges related to high investment costs, technical complexity, limited rural broadband access, and inadequate availability of trained personnel. Additional concerns include data ownership, cybersecurity, equipment compatibility, maintenance requirements, and the reliability of digital tools under diverse farming conditions. Recent developments in artificial intelligence, machine learning, robotics, satellite imagery, real-time sensors, and autonomous equipment are further expanding the capabilities of precision agriculture. These technologies can help optimize the use of seed, fertilizer, pesticides, water, fuel, and labor while reducing production costs and environmental impacts. However, their long-term value depends on affordability, ease of use, reliability, and measurable benefits at the farm level. The continued growth of precision agriculture in the United States will require cooperation among farmers, researchers, extension agencies, government institutions, equipment manufacturers, and technology providers. Improved connectivity, practical training, farmer-centered research, and accessible technologies will be essential for wider adoption. Precision agriculture therefore represents a major transition toward data-driven, site-specific, and sustainable agricultural management.
Keywords: Precision Agriculture; United States; Smart Farming; Variable-Rate Technology; Remote Sensing; Artificial Intelligence; Farm Automation; Digital Agriculture; Sustainable Agriculture

Biography:

Dr. Kasiviswanathan Muthukumarappan is a distinguished professor in the agricultural and biosystems engineering department at South Dakota State University. He has led multiple research projects and advised students in academic and research activities. His work focuses on food and bioprocessing standards development, resulting in over 200 peer-reviewed publications and 350 presentations. He has revised three ASABE standards, served on various committees, and held leadership roles within the Food and Process Engineering Institute (FPEI). Dr. Muthukumarappan has received numerous awards for his contributions to research and education in food and bioprocess engineering at both national and international levels.

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