DEVELOPMENT OF THE OPTIMAL HOOKAH TOBACCO RECIPES FOR SERVICING OF GUESTS OF RESTAURANT BUSINESS ENTERPRISES

Keywords: hookah, tobacco, mixture, aerosol, nicotine, raw materials, recipe

Abstract

The article examines the physico-chemical composition of hookah tobacco, which are important for cre-ating recipes, determining consumer characteristics and adapting modern technology for the production of hookah tobacco in relation to modern realities of the Ukrainian market. The component composition of the formed aerosol (nicotine, carbon monoxide), as well as carbonyl compounds as conditionally toxic substances of the gas phase is de-termined. As a result of research the optimum recipes of tobacco for a hookah with the improved consumer characteris-tics are developed and recommended. The technology of preparation of tobacco for a hookah with aromatizers is con-sidered. The possibility of using a mixture of glycerol with propylene glycol in any ratio with a propylene glycol content of not more than 20% due to the decrease in smoke density is shown. The results of organoleptic evaluation of hookah mixture made by experimental and industrial samples and aerosol are shown. The obtained data testify to the high con-sumer evaluation of the tested samples of Mandarin Orange hookah mixtures and the experimental sample of the hook-ah mixture based on tobacco raw materials of the American type Virginia, which received the maximum tasting evalua-tion. This is due to the porous structure of the leaf and the high content of carbohydrates in the original tobacco. The absence of negative signs of taste on the basis of tobacco-free hookah mixtures is proved. Hookah mixture based on mineral raw materials (steam stones) with the addition of nicotine produces an aerosol of medium density and weak aroma. Technological methods for reducing the nicotine content in the aerosol forming a hookah mixture, based on modeling its composition by regulating the quantitative content of raw tobacco. The results of research on the determi-nation of nicotine and establishing the dependence of its content in the aerosol of experimental samples of tobacco for hookah on the quantitative content of raw tobacco of different varieties are revealed. The direct dependence of the de-gree of nicotine content in the aerosol on its content in the tobacco raw material of the hookah mixture is shown. In samples with the maximum content of raw tobacco (30%), the nicotine content in the aerosol is significantly increased. The simulated multicomponent composition of tobacco products solves the difficult problem of reducing toxicity in the design of tobacco products. The dependence of the influence of the quantitative ratio of tobacco and vegetable raw materials (tea, medicinal herbs) on the consumer properties of hookah mixtures is revealed. It is determined that the replacement of part (not more than 20%) of tobacco raw materials with plant additives can reduce the toxicity of the aerosol, while maintaining the stability of consumer properties.

References

1. Жабенцова О. А., Гнучих Е. В. Совершенствование технологии изготовления табака для кальяна пониженной токсичности с применением гидротермической обработки. Известия вузов. Пищевая технология. 2015. № 1. С. 10-14.
2. Матюхина Н. Н., Миргородская А. Г., Шкидюк М. В. Динамика изменения токсичности кальянных смесей при использовании различного табачного сырья. Научное обеспечение инновационных технологий производства и хранения сельскохозяйственной и пищевой продукции : сб. матер. I Междунар. науч.-практ. конф. молодых ученых и аспирантов (09-23 апр. 2018 г., г. Краснодар). С. 290-294.
3. Методика определения органолептических показателей табака для кальяна МВИ-07-2009.
4. Ощипок І. М. Сучасні підходи до використання електронних курильних пристроїв та кальяну в закладах ресторанного господарства. Підприємництво і торгівля : збірник наукових праць. Львів : Видавництво Львівського торговельно-економічного університету, 2020. Вип. 26. С. 76-81.
5. Татарченко И. И. Табак, табачные изделия: технология и контроль качества : учебное пособие. Краснодар : Просвещение-Юг, 2018. 627 с.
6. Baker, R. R.; Coburn, S.; Liu, C.; Tetteh, J. Pyrolysis of saccharide tobacco ingredients: A TGA-FTIR investigation. J. Anal. Appl. Pyrolysis 2005, 74, 171-180. [CrossRef]
7. Banoži´c, M.; Banjari, I.; Jakovljevi´c, M.; Šubari´c, D.; Tomas, S.; Babi´c, J.; Joki´c, S. Optimization of Ultrasound-Assisted Extraction of Some Bioactive Compounds from Tobacco Waste. Molecules 2019, 24, 1611. [CrossRef] [PubMed]
8. Feng, J.-W.; Zheng, S.; Maciel, G. E. EPR Investigations of Charring and Char/Air Interaction of Cellulose, Pectin, and Tobacco. Energ. Fuel. 2004, 18, 560-568. [CrossRef]
9. Goubet, I.; Le Quere, J.-L.; Voilley, A. J. Retention of Aroma Compounds by Carbohydrates: Influence of Their Physicochemical Characteristics and of Their Physical State: A Review. J. Agric. Food Chem. 1998, 46, 1981-1990. [CrossRef]
10. Hall, M.B.M.; Merten, S.D.R. 100-Year Review: Carbohydrates—Characterization, digestion, and utilization. J. Dairy Sci. 2017, 100, 10078-10093. [CrossRef] Molecules 2020, 25, 1734 11 of 13.
11. Leffingwell, J. C. Nitrogen components of leaf and their relationship to smoking quality and aroma. Rec. Adv. Tob. Sci. 1976, 2, 1-31.
12. Mitsui, K.; David, F.; Dumont, E.; Ochiai, N.; Tamura, H.; Sandra, P. LC fractionation followed
by pyrolysis GC–MS for the in-depth study of aroma compounds formed during tobacco combustion. J. Anal. Appl. Pyrolysis 2015, 116, 68-74. [CrossRef]
13. Roemer, E.; Schorp, M. K.; Piadé, J.-J.; Seeman, J. I.; Leyden, D. E.; Haussmann, H. J. Scientific assessment of the use of sugars as cigarette tobacco ingredients: A review of published and other publicly available studies. Crit. Rev. Toxicol. 2012, 42, 244-278. [CrossRef]
14. Tayoub, G.; Sulaiman, H.; Alorfi, M. Determination of nicotine levels in the leaves of some Nicotiana tabacum varieties cultivated in Syria. Herba Pol. 2015, 61, 23-30. [CrossRef]
15. Xi, Y. X.; Song, J. Z.; Yang, J.; Li, F.; Cai, X. J.; Wang, X. M.; Wei, C. Y. Analysis of flavor precursors and degradation products content in flue-cured tobacco of different color and maturity. Acta Tab. Sin. 2011, 17, 23-30.
16. Zhu, W. K.; Wang, Y.; Chen, L. Y.; Wang, Z. G.; Li, B.; Wang, B. Effect of two-stage dehydration on retention of characteristic flavor components of flue-cured tobacco in rotary dryer. Dry. Technol. 2016, 34, 1621-1629. [CrossRef]
17. https://eng.agromassidayu.com/samie-vkusnie-recepti-kalyana-a-698455.
18. http://vniitti.ru/conf/conf2015/article/ShkidyukM.V._statya.pdf.
Published
2022-04-15