ARTIFICIAL NEURAL NETWORK MODELING FOR NICOTINE EXTRACTION FROM TOBACCO AND TOBACCO BY-PRODUCTS

4th International Symposium On Biotechnology (2026),  [pp. 913-920]
 
AUTHOR(S) / АУТОР(И): Marija Banožić , Sara Ćuk , Mladen Zovko , Nikolina Kajić
 
Download Full Pdf   

DOI: https://doi.org/10.46793/SBT26.913B

ABSTRACT / САЖЕТАК:

This study analyzed optimization of ultrasound-assisted nicotine extraction from tobacco leaf and byproducts (scrap, dust, rib) using Artificial Neural Networks (ANN). Experimental nicotine yields ranged from 0.024% to 0.798%. A feedforward ANN identified extraction time as the most critical parameter (importance ~0.41), followed by temperature. Although data variability resulted in low R2 values (probably due small number of experiments), low RMSE scores confirmed absolute prediction proximity. Optimal conditions were determined at 70 °C, 45 min, and 20 ml/g. While ANN effectively visualized non-linear trends via response surfaces, Response Surface Methodology (RSM) is suggested for future robust statistical modeling.

KEYWORDS / КЉУЧНЕ РЕЧИ:

artificial neural network, extraction, nicotine

ACKNOWLEDGEMENT / ПРОЈЕКАТ:

The research presented in this article is part of a project entitled “Use of Artificial Intelligence and Predictive Modeling for the Extraction of Bioactive Compounds from Plant-Based Byproducts” financially supported by federal ministry of science and Education of Bosnia and Herzegovina.

REFERENCES / ЛИТЕРАТУРA:

  • Al–Tamrah S.A. (1999). Spectrophotometric determination of nicotine. Analytica Chimica Acta, 379: 75–80.
  • Altemimi A., Lakhssassi N., Baharlouei A., Watson D.G., Lightfoot D.A. (2017). Phytochemicals: Extraction, isolation, and identification of bioactive compounds from plant extracts. Plants, 6 (42): 1-23.
  • Ashley D.L., Pankow J.F., Tavakoli A.D., Watson C.H. (2009). Approaches, challenges, and experience in assessing free nicotine. Published in Nicotine Psychopharmacology. Handbook of Experimental Pharmacology, Henningfield J.E., London E.D., Pogun S. (eds.), 437–456. Berlin, Germany: Springer.
  • Banožić M., Aladić K., Jerković I., Jokić S. (2021). Volatile organic compounds of tobacco leaves versus waste (scrap, dust, and midrib): extraction and optimization. Journal of the Science of Food and Agriculture, 101 (5): 1822-1832.
  • Banožić M., Babić J., Jokić S. (2020). Recent advances in extraction of bioactive compounds from tobacco industrial waste-a review. Industrial Crops and Products, 144, 112009.
  • Basri M., Rahman R.N.Z.R.A., Ebrahimpour A., Salleh A.B., Gunawan E.R., Rahman M.B.A. (2007). Comparison of estimation capabilities of response surface methodology (RSM) with artificial neural network (ANN) in lipase-catalyzed synthesis of palm-based wax ester. BMC Biotechnology, 7 (53): 1-10.
  • Karačonji B.I. (2006). Facts about nicotine toxicity. Arhiv za higijenu rada i toksikologiju, 56: 363–371.
  • Pankow J.F., Duell A.K., Peyton D.H. (2020). Free-base nicotine fraction in non-aqueous vs. aqueous solutions: electronic cigarette fluids without vs. with dilution with water. Chemical Research in Toxicology, 33: 1729–1735.
  • Shoji T. (2020). Nicotine Biosynthesis, transport, and regulation in tobacco: Insights. Published in The Tobacco Plant Genome, Ivanov N.V., Sierro N., Peitsch M.C. (eds.), 147–155. Cham, Switzerland: Springer.
  • Tayoub G., Sulaiman H., Alorfi M. (2015). Determination of nicotine levels in the leaves of some Nicotiana tabacum varieties cultivated in Syria. Herba Polonica, 61: 23–30.
  • Valverde J.L., Curbelo C., Mayo O., Molina C.B. (2000). Pyrolysis kinetics of tobacco dust. Chemical Engineering Research and Design, 78: 921–924.