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EasyDAM_V4: Guided-GAN-based cross-species data labeling for fruit detection with significant shape difference.

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Area of Science:

  • Agricultural Technology
  • Computer Vision
  • Machine Learning

Background:

  • Smart orchards rely on high-performance fruit detection, which requires large labeled datasets.
  • Current methods for automatic labeling struggle with fruits exhibiting significant shape variations.
  • Manual data labeling is costly and time-consuming, hindering AI development in agriculture.

Purpose of the Study:

  • To propose an improved automatic fruit labeling method, EasyDAM_V4, to address limitations in cross-domain fruit image translation.
  • To effectively reduce domain differences by translating phenotypic features like shape, texture, and color.
  • To enhance the applicability of automatic labeling for fruits with substantial shape variance.

Main Methods:

  • Utilizing an improved fruit automatic labeling method, EasyDAM_V4.
  • Introducing the Across-CycleGAN fruit translation model for spanning translation between source and target fruit images.
  • Validating the method on pear fruit (source domain) and pitaya, eggplant, and cucumber (target domains) with large phenotypic differences.

Main Results:

  • EasyDAM_V4 demonstrated substantial cross-fruit shape translation capabilities.
  • Achieved average labeling accuracies of 87.8% for pitaya, 87.0% for eggplant, and 80.7% for cucumber.
  • Effectively reduced domain differences between fruits with significant shape variance.

Conclusions:

  • The EasyDAM_V4 method significantly improves automatic fruit labeling, even with considerable shape differences between domains.
  • This research enhances the practical application of AI in smart orchards by reducing data labeling costs and improving model training.
  • The Across-CycleGAN model offers a robust solution for cross-domain image translation in agricultural computer vision tasks.