Effect of magnetic water treatment on the growth and yield of Lettuce (Lactuca sativa) in hydroponics system

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Research Paper 21/11/2022
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Effect of magnetic water treatment on the growth and yield of Lettuce (Lactuca sativa) in hydroponics system

Marvin D. Adorio, John Paul D. Galvan, Mhell Ruth Ann C. Simon, Romar P. Razote
J. Biodiv. & Environ. Sci. 21(5), 225-230, November 2022.
Copyright Statement: Copyright 2022; The Author(s).
License: CC BY-NC 4.0

Abstract

This study investigates the influence of magnetic treatment on the growth and yield of lettuce, as measured by plant height, the number of leaves per plant, leaf length, leaf area, root length, and fresh weight. The collected data were compiled and statistically analyzed using Analysis of Variance arranged in Randomized Complete Block Design (RCBD) configuration with four treatments repeated three times. The least significant difference (LSD) test was used to determine differences between treatment means. The use of magnetized water in a hydroponic system significantly increased the parameters of growth performance (height, leaf area, leaf length, root length, and fresh weight) of lettuce. Further, the number of leaves per plant, plant height, leaf length, leaf area, and fresh weight increase as the number of magnets increases. These results implied that magnetic water technology applied in hydroponics could help increase crop growth and yield performance with less water.

Agcaoili SO. 2019. Enhancing the growth and yield of lettuce (Lactuca sativa L.) in hydroponic system using magnetized irrigation water. Recoletos Multidisciplinary Research Journal 7(2), 15-28.

Ali Y, Samaneh R. 2014. Effects of magnetic treatment of irrigation water on the quality of soil: A comprehensive review, Indi American Journal of Pharmaceutical Sciences 4(05), 1125-1129.

Aly MA, Thanaa ME, Osman SM, Abdelhamed AA. 2015. Effect of magnetic irrigation water and some anti-salinity substances on the growth and production of Valencia orange. Middle East Journal of Agriculture Research 4(1), 88-98.

De Souza A, García D, Sueiro L, Licea L, Porras E. 2005. Pre-sowing magnetic treatment of tomato seeds: effects on the growth and yield of plants cultivated late in the season. Spanish Journal of Agricultural Research 3(1), 113-122.

Efthimiadou A, Katsenios N, Karkanis A, Papastylianou P, Triantafyllidis V, Travlos I, Bilalis DJ. 2014. Effects of presowing pulsed electromagnetic treatment of tomato seed on growth, yield, and lycopene content. The Scientific World Journal 2014.

El-Yazid A, Shalaby A, Khalf SM, El-Satar A. 2011. Effect of magnetic field on seed germination and transplant growth of tomato. Journal of American Science 7(12), 306-323.

Galvan JP, Adorio M, Simon MRA, Razote R. 2021, Growth and yield performance of pechay (Brassica napus L.) in hydroponics system as influenced by magnetic field; IJAAR, V19, N1, July P1-8.

Haq Z, Iqbal M, Jamil Y, Anwar H, Younis A, Arif M, Fareed Z, Hussain F. 2016. Magnetically treated water irrigation effect on turnip seed germination, seedling growth, and enzymatic activities. Information Processing in Agriculture 3 (2), 99-106.

Hashim AK, Ali SAK, Bashee MI. 2019. Effect of Magnetic Treatment of Water on Corrosion Rate. International Journal of Agriculture & Environmental Science. Volume 5 Issue 6 – Nov to Dec 2018, 13-17.

Hozayn M, Abdallhamm, Abd El-Monem AA, El-Saady AA, Darwish MA. 2016. Applications of magnetic technology in agriculture. A novel tool for improving crop productivity (1): Canola. African Journal of Agricultural Research 11(5) pp. 441-449.

Hozayn M, Qados AA. 2010. Irrigation with magnetized water enhances growth, chemical constituent, and yield of chickpea (Cicer arietinum L.). Agriculture and Biology Journal of North America 1(4), 671-676.

Ignatov I, Mosin O. 2014. Basic concepts of magnetic water treatment. European Journal of Molecular Biotechnology 4, 72-85

Khattab M. 2000. Pre-treatment of gladiolus cormels to produce commercial yield: I-effect of GA3, seawater and magnetic system on the growth and corms production. Alexandria Journal of Agricultural Research 45(3), 181-1199.

Krzysztof B. 1999. The tests with the utilization of magnetic fields in soilless cultivation. In International Symposium on Growing Media and Hydroponics 548, 431-436.

Maheshwari BL, Grewal HS. 2009. Magnetic treatment of irrigation water: Its effects on vegetable crop yield and water productivity. Agricultural water management 96(8), 1229-1236.

Mane DR. Sawant VS. 2015. Comparative Study of Effect of Magnetic Field and Magnetically Treated Water on Growth of Plants and Crop Yield. International Journal for Scientific Research & Development.

Marei A, Rdaydeh D, Karajeh D, Abu-Khalaf N. 2014. Effect of using magnetic brackish water on irrigated bell pepper crop (Capsicum annuum L.) characteristics in Lower Jordan Valley/West Bank.

Novitsky Y. 2001. Growth of green onions in a weak permanent magnetic field. Russian Journal of Plant Physiology 48(6), 709-716.

Surendran U, Sandeep O, Joseph EJ. 2016. The impacts of magnetic treatment of irrigation water on the plant, water, and soil characteristics. Agricultural Water Management 178, 21-29.

Taimourya H, Oussible M, Baamal L, Bourarach EH, Hassanain N, Masmoudi L, El Harif A. 2018. Magnetically treated irrigation water improves the production and the fruit quality of strawberry plants (Fragaria× ananassa Duch.) in the northwest of Morocco. J Agric Sci Technol 8, 145-156.

Youssef M, Abou Kamer ME. 2019. Effectiveness of different nutrition sources and magnetic fields on lettuce grown under the hydroponic system. Scientific Journal of Agricultural Sciences 1(2), 62-71.

Yusuf KO, Ogunlela AO. 2015. Impact of magnetic treatment of irrigation water on the growth and yield of tomato. Notulae Scientia Biologicae 7(3), 345-348.

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