Specific Features of Convective Drying of Plum, a Stone Fruit

Mirzaakhmedova Nargiza

Tashkent State Agrarian University, 1st-year Master’s Student

Keywords: Plum, convective drying, thermal effect, jam, traditional drying


Abstract

This article provides information on the varieties of plum, a stone fruit, and their convective drying process. Plums (locally known as “gayloli”) are processed in three different ways: 1) lye treatment (referred to as boiled gayloli in vernacular), 2) dried gayloli (initially spread on the ground), and 3) leaf form (also known as gayloli bark in vernacular). Additionally, plums are widely used in their ripe form for various purposes. The article focuses on the convective drying method, its technological aspects, advantages, and impact on the physicochemical properties of the fruit. The study highlights the suitability of this method for industrial-scale processing in Uzbekistan and its role in producing high-quality, long-shelf-life products for domestic and export markets.


References

References

1. Academy of Sciences of the Republic of Uzbekistan. (2019). Processing technologies for agricultural products. Tashkent.

2. Karimov, A., et al. (2021). Fruit and vegetable drying technology. Tashkent: O‘qituvchi.

3. Ibragimov, I., & Nurmatova, M. (2020). Physicochemical foundations of food products. Tashkent.

4. International Journal of Food Science and Technology. (2022). Thermal drying techniques in fruit processing.

5. FAO. (2021). Technical report on postharvest handling and drying. Rome.

6. Pomology of Uzbekistan. (1983). Tashkent.

7. Ribakov, A. A., & Ostroukhova, S. A. (1967). Fruit growing in Uzbekistan. Tashkent.

8. Bo‘riyev, Kh. (2002). Guide for amateur gardeners. Tashkent.

9. Vokkosov, Z. K. U. (2022). Obtaining organomineral fertilizers based on local agricultural ores, mineral fertilizers, cattle manure, and solutions of nitrogen-fixing microorganisms. Universum: Technical Sciences, (6-4), 99, 44–48.

10. Vokkosov, Z. K. U., et al. (2022). Development and study of the effectiveness of organic fertilizers. Universum: Technical Sciences, (12-5), 105, 10–15.

11. Kanoatov, Kh. M., Vokkosov, Z. K., Khodjiev, A. A., & Alieva, G. S. (2021). Organic-mineral fertilizer based on manure. NVEO-Natural Volatiles & Essential Oils Journal, NVEO, 10631–10636.

12. Vokkosov, Z., & Murodillaevich, K. K. (2022). Obtaining organomineral fertilizers based on local raw materials and nitrogen-fixing microorganisms. Chemical Science International Journal, 31(4), 44–53.

13. Vokkosov, Z. K., & Kanoatov, Kh. M. (2022). Analysis of physicochemical and mineralogical indicators of local agriculture (bentonite and phosphorite flour) in the production of organomineral fertilizers. NamMTI Scientific-Technical Journal, 7(2), 109–113.

14. Maftuna, I., & Khayrullo, Q. (2023). Fertilizers obtained from non-natural raw materials and their types. International Journal of Advanced Research in Education, Technology and Management, 2(3).

15. Voqqosov, Z., & Kholdarova, G. (2022). Production of organic mineral fertilizers based on local raw materials and nitrogen-fixing microorganisms. NamMTI Scientific-Technical Journal, (1), 84–87.

16. Sharipov, S. Y., Azizov, A. S., & Vakkasov, Z. K. (2022). Storage of apples in different methods in the valley region of Uzbekistan. IOP Conference Series: Earth and Environmental Science, 1068(1), 012029.