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Preprint

Text-conditioned Segmentation for Tomato Phenotyping via Procedural Synthetic Data

Samy MounirComputer, Electrical and Mathematical Sciences and Engineering Division , KAUST , KSAMikolaj CieslakComputer, Electrical and Mathematical Sciences and Engineering Division , KAUST , KSANajmeddine DhiebComputer, Electrical and Mathematical Sciences and Engineering Division , KAUST , KSAHakim GhazzaiComputer, Electrical and Mathematical Sciences and Engineering Division , KAUST , KSAJonathan KleinComputer, Electrical and Mathematical Sciences and Engineering Division , KAUST , KSAKatja FroehlichComputer, Electrical and Mathematical Sciences and Engineering Division , KAUST , KSASoeren PirkDepartment of Computer Science , Kiel University , GermanyWojtek PałubickiDepartment of Artificial Intelligence , Adam Mickiewicz University , PolandGianluca SettiDepartment of Electronics and Telecommunications , Polytechnic University of Turin , ItalyAhmed M. EltawilComputer, Electrical and Mathematical Sciences and Engineering Division , KAUST , KSADominik L. MichelsComputer, Electrical and Mathematical Sciences and Engineering Division , KAUST , KSA
2026
ABI

Annotatsiya

Vision-based automation is an excellent candidate for reducing manual labor in greenhouse crop production and phenotyping. However, progress is constrained by the lack of annotated training data. Recent advances in vision-based foundational models have shown promising results in zero-shot generalization to novel domains, but their performance drops in complex agricultural environments. In this work, we present a sim-to-real framework for tomato plant segmentation that combines synthetic data generation with fine-tuning of a foundation model. We model a commercial cherry tomato greenhouse and use it to generate a large-scale synthetic dataset under diverse viewpoints, lighting conditions, and plant morphology. Subsequently, we fine-tune the Segment Anything Model 3 (SAM 3) on the synthetic dataset, specializing its text-conditioned segmentation behavior for greenhouse crop organs while retaining the general visual prior that makes zero-shot transfer possible. By evaluating our framework on multiple real-world greenhouse datasets, we demonstrate that combining synthetic data with SAM 3 fine-tuning significantly improves segmentation performance and model confidence. To support community benchmarking, we publicly release the procedural model, the generated synthetic dataset, and our fine-tuned SAM 3 weights.

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