EFFECT OF PLANT DERIVED NANOPARTICLES ON SPODOPTERA FRUGIPERDA (LEPIDOPTERA: NOCTUIDAE)


221 / 249

Authors

  • SACHIN S. LONDHE Department of Zoology, MVP’s K.R.T. Arts, B.H. Commerce and A.M. Science College, (KTHM college) Nashik, Maharashtra, affiliated to Savitribai Phule Pune University, Pune, India.
  • DHANRAJ B. GOSWAMI Department of Zoology, MVP’s K.R.T. Arts, B.H. Commerce and A.M. Science College, (KTHM college) Nashik, Maharashtra, affiliated to Savitribai Phule Pune University, Pune, India.
  • MANISH D. GOSWAMI Department of Zoology, MVP’s K.R.T. Arts, B.H. Commerce and A.M. Science College, (KTHM college) Nashik, Maharashtra, affiliated to Savitribai Phule Pune University, Pune, India.
  • MAHADEV B. ATOLE Department of Zoology, MVP’s K.R.T. Arts, B.H. Commerce and A.M. Science College, (KTHM college) Nashik, Maharashtra, affiliated to Savitribai Phule Pune University, Pune, India.

https://doi.org/10.58537/jorangrau.2025.53.2.04

Keywords:

Dature, Fall armyworm (FAW), Silver nano particles, Spodoptera frugiperda

Abstract

The fall army worm (Spodoptera frugiperda), a major pest of maize, is responsible for substantial crop losses worldwide. Conventional chemical insecticides are increasingly limited by issues such as pest resistanceand concerns about human health. The present study investigates the potential of green-synthesized silver nanoparticles (AgNPs) derived from six different plant extracts as an eco-friendly alternative for managing the Spodoptera frugiperda. Larvae were collected from infested maize fields in Nashik district, Maharashtra, India, and subsequently reared under laboratory conditions. Fall armyworms were placed in jars and reared in cages with chickpea, rice and maize flour. Rearing conditions: 27 ± 3°C temperature and 60 ± 5% relative humidity. Plant extracts from six plants (datura, neem, ginger, onion, tobacco and mint) were dried, ground, and filtered. 100 grams of powder were dissolved in 500 ml of distilled water, shaken daily for a week, and then filtered. The solution was heated to 78°C to obtain crude extracts. Silver nanoparticles were synthesized by the reduction of silver nitrate using aqueous extracts from six medicinal plants: Datura stramonium, Azadirachta indica (Neem), Zingiber officinale (Ginger), Allium cepa (Onion), Nicotiana tabacum (Tobacco), and Mentha arvensis (Mint). UV-Visible spectroscopy confirmed the formation of polydisperse AgNPs with an average absorbance peak of around 400 nm. Toxicity was assessed through a leaf-dip bioassay method across concentrations ranging from 1 to 60 ppm, with larval mortality recorded at 24 and 48 hours post treatment. AgNPs synthesized from Datura and Neem exhibited the highest insecticidal activity, resulting in 96% and 85% mortality at 20 ppm, respectively. AgNPs derived from Mentha achieved 88% mortality at 60 ppm, whereas Zingiber-based nanoparticles were the least effective, with 73% mortality at the same concentration. The median lethal concentration (LC50) values were lowest for Datura (1.88 ppm) and Neem (2.61 ppm), indicating superior efficacy, while the highest LC50 was observed for Zingiber (14.91 ppm). Although one-way ANOVA revealed no statistically significant differences in mortality among treatments (p > 0.05), the observed variation in LC50 values suggests practical differences in effectiveness. These findings highlight the potential of plant-mediated silver nanoparticles, particularly those synthesized from Datura stramonium and Azadirachta indica, as promising, sustainable alternatives for managing Spodoptera frugiperda.

References

1. Deshmukh, K. 2019. Nanotechnology in an

2. ancient era. Biotechnology products in

3. everyday life, 3-14.

4. Goergen, G., Kumar, P. L., Sankung, S. B.,

5. Togola, A., and Tamò, M. 2016. First

6. report of outbreaks of the fall armyworm

7. Spodoptera frugiperda (JE Smith)

8. (Lepidoptera: Noctuidae), a new alien

9. invasive pest in West and Central

10. Africa. PloS one, 11(10), e0165632.

11. Gulzar, M. U., Zia, T., Shahzad, M., Ibrahim, M.

12. U., and Ihsan, T. 2020. Impacts of bio

13. synthesized silver-nanoparticles

14. (AgNO3) and plant oils against

15. Trogoderma granarium. GSC Biological

16. and Pharmaceutical Sciences, 10(3),

17. 010-015.

18. Jabbar, A., Tariq, M., Gulzar, A., Mukhtar, T.,

19. and Zainab, T. 2022. Lethal and sub

20. lethal effects of plant extracts and green

21. silver nanoparticles against Culex

22. pipiens. Pakistan Journal of Zoology,

23. 54(3), 1259-1267.

24. Khan, H.S., Tariq, M., Mukhtar, T., and Gulzar,

25. A., 2021. Insecticid altoxicity of plant

26. extracts and green silver nanoparticles

27. against Aedesalbopictus. Pakistan

28. Journal of Zoology 53, 2123-2128.

29. Kumar, D., and Jhariya, A. N. 2013. Nutritional,

30. medicinal and economical importance of

31. corn: A mini review. Res J Pharm

32. Sci, 2319, 555X.

33. Naharki, K., Regmi, S., and Shrestha, N. 2020.

34. A review on invasion and management

35. of fall armyworm Spodoptera frugiperda

36. in Nepal. Reviews in Food and

37. Agriculture, 1(1), 6-11.

38. Nazir, K., Mukhtar, T., and Javed, H. 2019. In

39. Vitro Effectiveness of Silver

40. Nanoparticles against Root-Knot

41. Nematode (Meloidogyne incognita).

42. Pakistan Journal of Zoology, 51(6).

43. Pascoli, M., de Albuquerque, F. P., Calzavara,

44. A. K., Tinoco-Nunes, B., Oliveira, W. H.

45. C., Gonçalves, K. C., and Fraceto, L. F.

46. 2020. The potential of nano-bio pesticide

47. based on zein nanoparticles and neem

48. oil for enhanced control of agricultural

49. pests. Journal of Pest Science, 93, 793

50. 806.

51. Reed, G. L., Jensen, A. S., Riebe, J., Head, G.,

52. and Duan, J. J. 2001. Transgenic Bt

53. potato and conventional insecticides for

54. Colorado potato beetle management:

55. comparative efficacy and non target

56. impacts. Entomologia experiment

57. alisetapplicata, 100(1), 89-100. Sanchis, V., and Bourguet, D. 2008. Bacillus

58. thuringiensis: applications in agriculture

59. and insect resistance management. A

60. review. Agronomy for sustainable

61. development, 28, 11-20.

62. Sarda, R. K., Chhabra, S. C., and Minjas, J. N.

63. 1986. Laboratory observations on the

64. molluscicidal properties of Swartziama

65. dagascariensis (Leguminosae).

66. Shahbaz, M., Akram, A., Raja, N. I., Mukhtar,

67. T., Mashwani, Z. U., Mehak, A., and

68. Yousaf, T. 2022. Green synthesis and

69. characterization of selenium nano

70. particles and its application in plant

71. disease management: A review. Pakistan

72. Journal of Phytopathology, 34(1), 189

73. 102.

74. Umair, G.M., Threem, Z., Muhammad, S.,

75. Usama, I.M. and Talal, I. 2020. Impacts

76. of bio-synthesized silver nanoparticles

77. (AgNO3) and plant oils against

78. Trogoderma granarium. GSC Biological

79. and Pharmaceutical Sciences 10, 010

80. 015.

Downloads

Published

15-10-2025

How to Cite

SACHIN S. LONDHE. (2025). EFFECT OF PLANT DERIVED NANOPARTICLES ON SPODOPTERA FRUGIPERDA (LEPIDOPTERA: NOCTUIDAE) (DHANRAJ B. GOSWAMI, MANISH D. GOSWAMI, & MAHADEV B. ATOLE, Trans.). The Journal of Research ANGRAU, 53(2), 29-37. https://doi.org/10.58537/jorangrau.2025.53.2.04