##plugins.themes.bootstrap3.article.main##

Weed struggle has an important place in agricultural production. The widespread use of chemicals in this struggle is due to its easy applicability, its short-term results, and its economic efficiency. However, the negative effects of these chemicals on the environment and human health have been recognized, and the interest in non-chemical struggle methods has also increased. One of the non-chemical methods of struggle is using electric energy. In this work, which is carried out by passing the electric current through the plant, it is aimed that ended the vital activity of weed (cress), as a result of electric current flowing through it. The experimental setup prepared for use in operation consists of a voltage regulator with 1-300 V steps and copper conductors which will contact the plants. In the experiments, weed seeds germinated under suitable conditions were placed on the board to complete the electric circuit and the circuit was completed by passing current through the plants that the copper conductor tips contacted. As a result of the experiments, plants were observed to lose their vitality about 70% when 100 volts of electricity was applied over the body for 300, 420 and 540 seconds. On the other hand, when electric energy was applied as 200 volts and 300 volts for 300, 420, and 540 seconds, respectively, the vital activity of the plants close to 100% was ended.

Downloads

Download data is not yet available.

References

  1. Aladjadjiyan, A., 2010. Effect of Microwave Irradiation on Seeds of Lentils. Romanian Biophys., Vol.20, No:3, P:213-221, Bucharest, 2010.
     Google Scholar
  2. Ark, P.A., and Perry, W., "Application of High-Frequency Electrostatic Field in Agriculture", The Quarterly Review of Biology, Vol.6, No:3, Pp.277-287, 1979.
     Google Scholar
  3. Ascard, J., Hatcher, P.E., Melander, B., and Upadhyaya, M.K., 2007. Thermal Weed Control. Pp. 155-176.
     Google Scholar
  4. Banık, S., Bandyopadhyay, S. and Ganguly, S., 2003. Bioeffects of Microwave-A Brief Review. Bioresource Technology 87 (2003) 155-159.
     Google Scholar
  5. Bebawı, E.F., Cooper, A.F., Brodıe, G.I. Et Al., “Effect of Microwave Radiation on Seed Mortality of Rubber Wine, Parthenium and Bellyache Bush”, Plant Protection Quarterly Vol.26, No.4, Pp.136-142, 2007.
     Google Scholar
  6. Bıgu-Del-Blanco, J., Brıstow, J.M., And Romero-Sıerra, C., 1977. Effects of Low-Level Microwave Radiation on Germination and Growth Rate in Corn Seeds. Proceedings of IEEE, Volume:65, Issue:7, P:1086-1088.
     Google Scholar
  7. Brodie G., Ryan, C., And Lancaster, C., 2012. Microwave Technologies as Part of Integrated Weed Management Strategy: A Review. International Journal of Agronomy Volume 2012, Article Id 636905.
     Google Scholar
  8. Cheng, W.M., Raghavan, G.S.V., Ngadı, M. and Wang, N. 2005. Microwave Power Control Strategies on The Drying Process I. Development and Evaluation of New Microwave Drying System. Journal of Food Engineering 76 (2006) 188–194.
     Google Scholar
  9. Davis, F., Wayland, J., Merkle, M., 1971.Ultrahigh-Frequency Electromagnetic Fields for Weed Control: Phytotoxicity and Selectivity Science, 173, 535–537.
     Google Scholar
  10. Diprode, M. F., F. A. Benson, and A. J. Willis. "The Effect of Externally Applied Electrostatic Fields, Microwave Radiation and Electric Currents on Plants and Other Organisms, With Special Reference to Weed Control." The Botanical Review 50. 2 (1984): 171-223.
     Google Scholar
  11. Fogelberg, F., 2004. Water-Jet Cutting of Potato Tops: Some Experiences from ……. Sweden. P.111.
     Google Scholar
  12. Fuentes, E., Baez, M., And Labra, R., 2007. Parameters Affecting Microwave-Assisted Extraction of Organophosphorus Pesticides from Agricultural Soil. Journal of Chromatography A, 1169 (2007) 40-46.
     Google Scholar
  13. Heisel, T., Schou, J., Andreasen, C., Chrıstensen, S., 2002. Using Laser to Measure Stem Thickness and Cut Weed Stems. European Weed Research Society Weed Research 42, 242-248.
     Google Scholar
  14. Kaufman, Kenton R., and Leroy W. Schaffner. Energy and Economics of Electrical Weed Control. North Dakota Agricultural Experiment Station, North Dakota State University, 1980. Transactions of The Asea. 25 (2): 0297-0300. (Doi: 10.13031/2013.33523) @1982.
     Google Scholar
  15. Marx C, Barcikowski S, Hustedt M, Haferkamp H, Rath T, 2012. Design and Application of a Weed Damage Model for Laser-Based Weed Control. Biosystems Engineering.
     Google Scholar
  16. Mathıassen, K., Bak T., Chrıstensen S., Kudsk P., 2006. The Effect of Laser Treatment as A Weed Control Method. Biosystems Engineering 2006, 95(4), 497-505.
     Google Scholar
  17. Mavrogıanopoulos, G., N., Frangoudakis, A., Pandelakis, J., 2000. Energy Efficient Soil Disinfestations by Microwaves. Agricultural Engineering Resources, 75, 146–153.
     Google Scholar
  18. Nelson, S., O., 1985. Rf and Microwave Energy for Potential Agricultural Applications. Journal of Microwave Power, 20(2), 65–70.
     Google Scholar
  19. Nelson, S., O., 1996. A Review and Assessment of Microwave Energy for Soil Treatment to Control Pests. Transactions of The Asae, 39(1), 281–289.
     Google Scholar
  20. Olsen, R., G.; Hammer, W., C., 1982. Thermographic Analysis of Waveguide-Irradiated Insect Pupae. Radio Science, 17, 95–104.
     Google Scholar
  21. Parish, S., 1990. A Review of Non-Chemical Weed Control Techniques.Biological Agriculture and Horticulture. Vol.7,117-137
     Google Scholar
  22. Sahin H., Saglam R, 2015 “A Research about Microwaves Effects on.Germination of Weed Plants”, Arpn Journal of Agricultural and Biological. Science. Vol.10, No:3
     Google Scholar
  23. Sahin, H., 2014, Effects of Microwaves on Germination of Weed Seeds, Journal of Biosystem Engineering 39(4):304-309. (2014. 12).
     Google Scholar
  24. Sartorato I., Zanin G., Baldoın, C., And Zanche, C., 2006. Observations on the Potential of Microwaves for Weed Control. European Weed Research Society. Weed Reseach 46,1- 9. 2006.
     Google Scholar
  25. Skiles, J.W., 2006. Plant Response to Microwaves at 2.45 Ghz. Acta Astronautica 58 (2006) 258 - 263.
     Google Scholar
  26. Vadıvambal, R., Jayas D.S., 2010. non-UniformTemperature Distribution During Microwave Heating of Food Material. Food Bioprocess Technology (2010) 3:161-171.
     Google Scholar
  27. Vadıvambal, R., Jayas, D.S., 2007. Changes in Quality of Microwave-Treated Agricultural Products-A Review. Biosystems Engineering 98 (2007) 1-16.
     Google Scholar
  28. Velazquez, B., Gracia-Lo Pez, C., Plaza Gonzalez, P. J., 2005. Determination of Dielectric Properties in The Agricultural Soils. Biosystems Engineering, 91(1), 119–125.
     Google Scholar
  29. Velazquez, B., Gracıa-Lopez, C., and Puerta, R., 2008. Work Conditions for Microwave Applicators Designed to Eliminate Undesired Vegetation in a Field. Biosystems Engineering, 100(2008), 31–37.
     Google Scholar
  30. Venkatesh, M.S., and Raghavan, G.S.V, 2004. An Overview of Microwave Processing and Dielectric Properties of Agri-Food Materials. Biosystems Engineering (2004) 88 (1), 1–18.
     Google Scholar
  31. Vidmar, M., 2005. An Improved Microwave Weed Killer. Microwave Journal October 1, 2005.
     Google Scholar
  32. Vincent, Charles, Bernhard Panneton, and Francis Fleurat-Lessard, Eds. Physical Control Methods in Plant Protection. (Page 174-179). Springer Inra Editions, 2001.
     Google Scholar