Monitoring the cumulative germination of tomato seeds using artificial intelligence

Authors

  • Pablo Ríos Universidad Tecnológica del Uruguay (UTEC), Departamento de Mecatrónica, Logística y Biomédica Author
  • Diego Quiroga Universidas Tecnológica del Uruguay (UTEC), Departamento de Mecatrónica, Logística y Biomédica Author
  • Hernando Jimenez Universidad Tecnológica del Uruguay (UTEC), Departamento de Sostenibilidad Ambiental / Universidad Antonio Nariño, Grupo de Investigación REM Author
  • María Laura Umpierrez Universidad Tecnológica del Uruguay (UTEC), Departamento de Sostenibilidad Ambiental Author
  • María Victoria Panzl Universidad Tecnológica del Uruguay (UTEC), Departamento de Sostenibilidad Ambiental Author

Keywords:

Germination detection, Machine vision, Object tracking, Seed tracking, Germinator

Abstract

Monitoring seed germination is a common task in research activities for various crops under different treatments. To determine the impact of a seed treatment, it is essential to conduct germination trials, which typically last around ten days. One of the main inputs obtained from these trials is the graphs of the germination rate per day. To evaluate the germination status, direct observation in the laboratory is necessary, verifying the number of germinated seeds throughout each trial. This visual inspection requires adequate training and is time-consuming, as well as prone to human error. This proposal focuses on an embedded system based on a Raspberry Pi 4, located inside a germinator, where it captures images periodically. Through image processing, primarily based on the use of custom-trained YOLO machine learning models, these images are analyzed, tracking each tray and the germination status of its seeds. Furthermore, the development of a local web server with a graphical interface is proposed, allowing scientists to audit and correct the system's results. This system would essentially transform the germinator into a smart germinator. This work is part of a research project evaluating the effect of magnetic fields on tomato crops, within the framework of the strategic research group on sustainable agri-food production at the Technological University of Uruguay.

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References

Masteling, R., Voorhoeve, L., IJsselmuiden, J. et al., 2020. DiSCount: computer vision for automated quantification of Striga seed germination. Plant Methods 16(1), Art. 60.

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Genze, N., Bharti, R., Grieb, M. et al., 2020. Accurate machine learning-based germination detection, prediction and quality assessment of three grain crops. Plant Methods 16(1), Art. 157.

Škrubej, U., Rozman Č., Stajnko D. 2015. Assessment of germination rate of the tomato seeds using image processing and machine learning. European Journal of Horticultural Science. 80(1), 68-75.

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Published

2025-12-05

Issue

Section

Extended abstracts - CINTIA

How to Cite

Monitoring the cumulative germination of tomato seeds using artificial intelligence. (2025). LINKS Revista Internacional, 3(1). https://revista.utec.edu.uy/ojs/index.php/revistalinks/article/view/48

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