Unveiling Potential of Seed Planter and Drone for Sowing of Pelleted Seeds in Sesame (Sesamum indicum L.)
135 / 112
Keywords:
Sesame, Seed pelleting, Seed germination, Seedling vigour, Mechanized sowing, Seed drill sowing, Drone sowingAbstract
An experiment was conducted to standardize the optimum pellet size for mechanized sowing in small sized sesame seeds. After standardization of pelleting protocol, the pelleting was carried out in the seed coating machine and the physical properties of the pellets were measured. In which, irrespective of different layers of pellets, the 100 seed weight of pelleted seeds increased over unpelleted seeds. The physiological parameters showed that the sesame seeds pelleted with 16 layers have recorded higher seedling vigour than unpelleted seeds. Therefore, it was optimized for sowing in the field by seed drill and drone. The field experiment results showed that sowing of pelleted seeds with air assisted seed drill was found suitable for maintenance of recommended plant population (11 plants/m2). Maximum plant height (128.2 cm) was registered by pelleted seeds sown by inclined seed drill followed by line sowing with pelleted seed (127.7 cm) and the lowest plant height (125.1 cm) was recorded in broadcasting of unpelleted seed. Among the treatments, pelleted seeds sown by drone produced more number of branches (7.8/plant) and capsules (58.4/plant) and recorded 13.3% higher yield (746 kg/ha) than the unpelleted seed.
Downloads
References
1. 1. MANDAL AB, R MONDAL, P MUKHERJEE AND S DUTTA (2015). Seed enhancement through priming, coating and pelleting for uniform
2. crop stand and increased productivity. Journal of the Andaman Science Association, 20(1): 26-33.
3. 2. KHANNA R, A NATH, K PAL AND PK OJHA (2022). A review on seed pelleting in increasing the production potential of pulses. Agricultural
4. Mechanization in Asia, 53(5): 7605-7613.
5. 3. PRAKASH M, S NARAYANAN, GBS KUMAR AND A KAMARAJ (2013). Effect of seed hardening and pelleting on seed quality and
6. physiological of rice in aerobic condition. Agricultural Science Digest, 33: 172-177. doi: 10.5958/j.0976-0547.33.3.002.
7. 4. PANNING JW, MF KOCHER, JA SMITH AND SD KACHMAN (2000). Laboratory and field testing of seed spacing uniformity for sugarbeet
8. planters. Applied Engineering in Agriculture, 16(1): 7-13. doi: 10.13031/2013.4985.
9. 5. RANJEET K, S ADAMALA, YA RAJWADE AND HV SINGH (2015). Performance evaluation of a tractor mounted pneumatic planter for
10. sorghum in dryland. African Journal of Agricultural Research, 10(39): 3767-3772. doi: 10.5897/AJAR2015.10048.
11. 6. YAZGI A, T GUNHAN, B KIR, GD TOPCU AND E AYKAS (2025). Evaluation of a seed drill for barley and vetch sowing as a function of
12. varying seeding ratios. Peer J, doi.: 10.7717/peerj.19014
13. 7. RAJA K, V ALEX ALBERT, B VENUDEVAN, P MOHAN KUMAR AND G SASTHRI (2025). Seed pelleting technique for mechanized sowing in
14. green gram [Vigna radiata (L.) R. Wilczek]. Legume Research, 48(9): 1464-1468. doi: 10.18805/LR-5124
15. 8. GIGENDHIRAN D, K RAJA, R UMARANI, T ANAND AND R KARTHIKEYAN (2025) A review on modern seed delivery systems for sustainable
16. agriculture and environmental restoration. Plant Science Today, 12(sp1):01-12. https:/doi.org/10.14719/ pst.7077
17. 9. MARZUKI OF, EYL TEO AND AS MD RAFIE (2021). The mechanism of drone seeding technology: A review. The Malaysian Forester, 84(2):
18. 349-358.
19. 10. CASTRO J, D ALCARAZ-SEGURA, J L BALTZER, L AMOROS, F MORALES-RUEDA AND S TABIK (2024). Automated precise seeding with
20. drones and artificial intelligence: a workflow. Restoration Ecology, 32(5): e14164
21. 11. ISTA (2025). International Rules for Seed Testing. International Seed Testing Association, Zurich, Switzerland.
22. 12. ABDUL-BAKI AA AND JD ANDERSON (1973). Relationship between decarboxylation of glutamic acid and vigor in soybean seed. Crop
23. Science, 13(2): 227-232. https://doi.org/10.2135/cropsci1973.0011183X001300020023x.
24. 13. Maguire JD (1962). Speed of germination - aid in selection and evaluation for seedling emergence and vigor. Crop Science 2(2): 176-
25. 177. https://doi.org/10.2135/cropsci1962.0011183X000200020033x.
26. 14. PANSE VG AND PV SUKHATME (1967). Statistical method for agricultural worker, ICAR Publication, New Delhi.
27. 15. Scott JM (1989). Seed coatings and treatments and their effects on plant establishment. Advances in Agronomy, 42:43-83.
28. 16. JEEPHET P, C ATNASEO, S HERMHUK AND J KANGSOPA (2022). Effect of seed pelleting with different matrices on physical
29. characteristics and seed quality of lettuce (Lactuca sativa). International Journal of Agricultural Technology, 18(5): 2009-2020.
30. 17. SIRI B (2015). Seed conditioning and seed enhancements. Klungnanawitthaya Printing, Khon Kaen, Thailand.
31. 18. DOGAN T AND A ZEYBEK (2009). Improving the traditional sesame seed planting with seed pelleting. African Journal of Biotechnology,
32. 8: 6120-6126.
33. 19. WASANTHIKA HMN, ICS EDIRIMANNA, MNF NASHATH, ANM MUBARAK AND ADNT KUMARA (2022). Effect of seed pelleting on the
34. growth and yield performance of sesame (Sesamum indicum L.) cultivation. Sri Lankan Journal of Technology, 30(1): 24-29.
35. 20. ZHIJUN W, CHEN YU, SHI SHENGCAI, DENG HAO, LIAO XIAOBING AND XU LIJIA (2023). Design and experimental analysis of drone rice
36. direct seeding device. Journal of Engineering Science and Technology Review, 16(5):132-139.
37. 21. TENORIO-CRUZ, FERMÍN, JUAREZ-CORTES, ERIK, PEREZ-VILLEGAS, MANUEL Y TELLEZ-HERNANDEZ AND RUBEN (2020). Drone
38. Sembrador. Revista de Tecnologías en Procesos Industriales, 4-11: 8-12.