AN EFFICIENT, COMPETITIVE "OZONE GENERATION SYSTEMS" FOR THE CHALLENGES IN AGRICULTURE SECTOR

  • Giorgi Tsivtsivadze Georgian Technical University. Scientific Tender for the Introduction of Innovative Technologies, Tbilisi, Georgia
  • Giorgi Burjanadze Tsulukidze Mining Institute, Water Quality Control Laboratory, Tbilisi, Georgia
  • Sophia Burjanadze Ivane Javakhishvili Tbilisi State University, Electrical and Electronics Engineering Department, Tbilisi, Georgia
  • Lena Shatakishvili GeorgianTechnical Universit, Professor Dean Faculty of Power Engineering, Georgia
  • Lali Akhalbedashvili Al. Tvalchrelidze Caucasus Institute of Mineral Resources, Iv. Javakhishvili Tbilisi State University
Keywords: Ozone, Eco Friendly, Energy Efficient, Cost Efficient, Disinfection

Abstract

The Paris agreement besides issues related to mitigation of warming, adaptation to climate change and climate finance, recognizes the fundamental priority of food security and hunger eradication and the particular vulnerability of food production systems, also the sustainable consumption and production rules and models.
The Directive 2009/128/EC of the European Parliament and of the Council establishes a framework for achieving the sustainable use of pesticides, reducing the risks and impacts of pesticide use on human health and the environment, and promoting integrated pest management and the use of alternative, by non-chemical approaches or techniques for pesticides. The European Commission's plan calls for a 50% reduction in pesticide use over the next decade, and by 2030 the reduce the sale of antimicrobials to farm animals by 50% and 20% the use of fertilizers. The share of organic farming will also increase by 25% from the current 10%.
The presented article considers the solution of problems in various spheres of the national economy, through an innovative energy and cost-effective ozone generation system as an alternative to expensive and non-ecological disinfectants and pesticides.

References

Crippa M., Solazzo E., Guizzardi D., Monforti-Ferrario F., Tubiello F. N., Leip A. (2021) Food systems are responsible for a third of global anthropogenic GHG emissions, Nature Food 2:198-209.

Moncayo J.R, Hamadeh N., Rissanen M., Conti V., Bai Y. (2023) Over 3.1 billion people could not afford a healthy diet in 2021 - an increase of 134 million since the start of COVID-19, the J. of World Bank.

Das H., Nakeertha V., Borah A., Devi N.S. (2023) Chemical Fertilizer and its Effects on the Soil Environment, Research and Review in Agriculture Sciences 7:31-51.

Tudi M., Ruan H.D., Wang L., Lyu, J., Sadler R., Connell D., Chu C., Phung D.T. (2021) Agriculture Development, Pesticide Application and Its Impact on the Environment, the J. of (PMC) PubMed.

Masterson V. (2023) Our food and agriculture is responsible for trillions of dollars of hidden costs, says the UN. Here’s why – and what can be done, the J, of WEF.

Pretty J.N. (1997) The sustainable intensification of agriculture, Natural Resources Forum 21(4): 247 – 256.

Tiwari B.K., Brennan C.S., Curran T., Gallagher E., Cullen P.J., O' Donnell C.P. (2010) Application of ozone in grain processing, the J. of Science Direct.

Varga L., Szigeti J. (2016) Use of ozone in the dairy industry: A review, the J. of International Journal of Dairy Technology 69(2):157-168.

Giménez B., Zaritzky N., Graiver N. (2024) Ozone treatment of meat and meat products: a review, the J. of Front. Food. Sci. Technol. Sec: Food Packaging and Preservation: Vol.4.

Fuhrmann H., Rupp N., Büchner A., Braun P. (2010) The effect of gaseous ozone treatment on egg components, the J. of The Science of Food and Agriculture, 90(4):593-8.

Yamada T., Rosadi M.Y., Hudori H., Suzuki Y., Ito E., Li F. (2019) Characteristics of dissolved organic matter in a water purification plant and distribution pipes, the J. of EDP Sciences, Article Number 03007: 1-7.

Bollyky L.J., Johnson B. (2023) The Role of Ozone in Water Bottling, the J. of Water World.

Raio A., Feliciani A., Ferri V., Carboni C. (2016) Integrated vineyard management trials using ozonated and electrolized water. The J. of Infowine. Internet J. Enol. Viticulture: 1-6.

Englezos V., Rantsiou K., Cravero F., Torchio F., Giacosa S., Segade S.R., Gai G., Dogliani E., Gerbi V., Cocolin L., Rolle L. (2019) Minimizing the environmental impact of cleaning in winemaking industry by using ozone for cleaning-in-place (CIP) of wine bottling machine. The J. of Cleaner Production 233:582-589.

Aidoo O.F., Osei-Owusu J., Chia S.Y., Dofuor A.K., Antwi-Agyakwa A.K., Okyere H., Gyan M., Edusei G., Ninsin K.D., Duker R.Q., Siddiqui S. A., Borgemeister Ch. (2023) Remediation of pesticide residues using ozone: A comprehensive overview. The J. of Science Direct.

Hossen A., Ahmed F., Saha S.S., Mondal I.H. (2023) Advantages of ozone disinfection method for water purification over chlorine disinfection, Natural Resources Conservation and Research 6(2):1-4.

Boner M., Lau P.J. (1999) Wastewater Technology Fact Sheet - Ozone Disinfection, EPA 832-F-99-063.

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Published
2025-03-15
Citations
How to Cite
Giorgi Tsivtsivadze, Giorgi Burjanadze, Sophia Burjanadze, Lena Shatakishvili, & Lali Akhalbedashvili. (2025). AN EFFICIENT, COMPETITIVE "OZONE GENERATION SYSTEMS" FOR THE CHALLENGES IN AGRICULTURE SECTOR. World Science, (1(87). https://doi.org/10.31435/ws.1(87).2025.3247
Section
Agriculture