Skip Navigation Links.
Collapse <span class="m110 colortj mt20 fontw700">Volume 12 (2024)</span>Volume 12 (2024)
Collapse <span class="m110 colortj mt20 fontw700">Volume 11 (2023)</span>Volume 11 (2023)
Collapse <span class="m110 colortj mt20 fontw700">Volume 10 (2022)</span>Volume 10 (2022)
Collapse <span class="m110 colortj mt20 fontw700">Volume 9 (2021)</span>Volume 9 (2021)
Collapse <span class="m110 colortj mt20 fontw700">Volume 8 (2020)</span>Volume 8 (2020)
Collapse <span class="m110 colortj mt20 fontw700">Volume 7 (2019)</span>Volume 7 (2019)
Collapse <span class="m110 colortj mt20 fontw700">Volume 6 (2018)</span>Volume 6 (2018)
Collapse <span class="m110 colortj mt20 fontw700">Volume 5 (2017)</span>Volume 5 (2017)
Collapse <span class="m110 colortj mt20 fontw700">Volume 4 (2016)</span>Volume 4 (2016)
Collapse <span class="m110 colortj mt20 fontw700">Volume 3 (2015)</span>Volume 3 (2015)
Collapse <span class="m110 colortj mt20 fontw700">Volume 2 (2014)</span>Volume 2 (2014)
Collapse <span class="m110 colortj mt20 fontw700">Volume 1 (2013)</span>Volume 1 (2013)
World Journal of Agricultural Research. 2018, 6(4), 144-152
DOI: 10.12691/WJAR-6-4-5
Original Research

Efficiency of Aphid and Thrips Vectors in Transmission of Maize Lethal Necrosis Viruses

Teresa Nyambura Kinyungu1, , James Wanjohi Muthomi1, Sevgan Subramanian2, Douglas Watuku Miano1, Florence Mmogi Olubayo1 and Joseph Wagura Kariuki1

1Department of Plant Science & Crop Protection, University of Nairobi P. O Box 30197,-00625, Nairobi, Kenya

2International Centre of Insect Physiology and Ecology, P.O. Box 30772-00100, Nairobi, Kenya

Pub. Date: December 17, 2018

Cite this paper

Teresa Nyambura Kinyungu, James Wanjohi Muthomi, Sevgan Subramanian, Douglas Watuku Miano, Florence Mmogi Olubayo and Joseph Wagura Kariuki. Efficiency of Aphid and Thrips Vectors in Transmission of Maize Lethal Necrosis Viruses. World Journal of Agricultural Research. 2018; 6(4):144-152. doi: 10.12691/WJAR-6-4-5

Abstract

Maize lethal necrosis disease occur in major growing regions of Kenya, causing losses of up to 100% estimated at 50 million US$ in 2014/15. The study was undertaken to evaluate the efficiency of thrips and aphids in transmission of maize lethal necrosis viruses. Maize seedlings were inoculated with adults and nymphs of Western flower thrip (Franklinella occidentalis), corn leaf aphids (Rhapolosiphum maidis) and Russian wheat aphid (Diuraphis noxia) carrying maize lethal necrosis viruses. Data collected included virus titre, disease incidence and severity and plant height. Area under disease progress curve (AUDPC) was calculated using the MLN severity data. Adults of R. maidis were the most efficient vector of Sugarcane mosaic virus (SCMV) but adults and nymphs of F. occidentalis did not transmit any of the maize lethal necrosis viruses. The highest titre of SCMV at 0.38 was noted in plants where adults of R. maidis were used to transmit viruses. Disease severity and AUDPC was highest at 44.4 % and 928.3 respectively in plants inoculated with viruses using adults of R. maidis. Inoculating maize plants with viruses using R. maidis reduced plant height by 15.1 to 18.2%. The study showed that adults of R. maidis are the most efficient in transmission of Sugarcane mosaic virus. Therefore, for effective management of maize lethal necrosis disease, management of aphid vectors is critical.

Keywords

isease vectors Diuraphis noxia, Franklinella occidentalis, Maize lethal necrosis, Rhapolosiphum maidis, Virus transmission

Copyright

Creative CommonsThis work is licensed under a Creative Commons Attribution 4.0 International License. To view a copy of this license, visit http://creativecommons.org/licenses/by/4.0/

References

[1]  Schroeder, C., Onyango, O.T, Nar, B.R., Jick, N.A., Parzies H.K. and Gemenet D.C, ¡°Potentials of hybrid maize varieties for small-holder farmers in Kenya: A review based on SWOT analysis¡±, African Journal of Food, Agriculture, Nutrition and Development, 13 (2), 7562-786. April 2013.
 
[2]  Andret-Link, P. and Fuchs, M, ¡°Transmission specificity of plant viruses by vectors¡±, Journal of Plant Pathology, 87(3), 53-165. 2005.
 
[3]  Dader, B., Then, C., Berthelot, E., Ducousso, M., Ng, J.C.K., Drucker, M, ¡°Insect transmission of plant viruses: Multilayered interactions optimize viral propagation¡±, Insect Science, 24 (6), 929-946. July 2017.
 
[4]  Opara, E.U, ¡°An overview on the role of virus vectors in host plant intraction-transmission strategy¡±, World Journal of Agricultural Sciences, 3 (2), 009-012. April 2015.
 
[5]  Ng, J.C.K and Perry, K. L, ¡°Transmission of plant viruses by aphids¡±, Molecular Plant Pathology, 5 (5), 505-511. September 2004.
 
[6]  Berger, P.H., Zeyen, R.J. and Groth J.V, ¡°Aphid retention of Maize dwarf mosaic virus (potyvirus): epidemiological implications. Annals of Biology¡±, 111 (2), 337-344. October 1987.
 
[7]  Silva, K.N., Melo, F.L., Orilio, A.F., Nagata, T., Silva, M.S., Fernandes, C.D., Fragoso, R.R., Dessaune, S.N and Resende, R.O, ¡°Biological and molecular characterization of a highly divergent Johnsongrass mosaic virus isolate form Pennisetum purpureum¡±, Archives of Virology, 161 (7), 981-1986. July 2016.
 
[8]  Ingwell, L.L., Eigenbrode, S.D and Bosque-Perez, N.A, ¡°Plant viruses alter insect behavior to enhance their spread¡±, Science Reports, 2, 578. August 2012.
 
[9]  Martiniere, A., Bak, A., Macia, J-L., Lautredou, N., Gargani, D., Doumayrou, J., Garzo, E., Moreno, A., Blac, S. and Drucker, M, ¡°A virus responds instantly to the presence of vector on the host and forms transmission morphs¡±, eLife 2013, 2:e00183. January 2013.
 
[10]  Brault, V., Uzest, M., Monsion, B., Jacquot, E and Blanc, S, ¡°Aphid as transport devices. Comptes Rendus Biologies¡±, 333 (6-7), 524-538. May 2010.
 
[11]  Daugherty, M.P., Bosco, D., and Almeida, R.P.P, ¡°Temperature mediates vector transmission efficiency: inoculum supply and plant infection dynamics¡±, Annals of Applied Biology, 155 (3), 361-369. November 2013.
 
[12]  Gandhi, G.R. and Murali, S, ¡°Do plants benefit their insect vectors? Journal of Entomology and Zoology Studies¡±, 5 (4), 1906-1911. 2017.
 
[13]  Dietzgen, R.G., Mann, K.S. and Johnson, K N, ¡°Plant virus-insect interactions: Current and potential future research directions¡±, Viruses, 8 (11), 303. November 2016.
 
[14]  Shi, X-B., Xie, W., Zhang, Y-J, “Advances in the characteristics and mechanisms of the transmission of plant viruses by insect vectors”, Acta Entomologica Sinica, 55 (7), 841-848. 2012.
 
[15]  Knoke, J.K., Louie, R., Madden, L.V., and Gordon, D.T, ¡°Spread of Maize dwarf mosaic virus from johnsongrass to corn¡±, Plant Disease, 67 (4), 367-370. January 1983.
 
[16]  So, Y-S., Ji, H.C., and Brewbaker, J.L, “Resistance to corn leaf aphid (Rhopalosiphum maidis Fitch) in tropical corn (Zea mays L.)”, Euphytica, 172 (3), 373-381. April, 2010.
 
[17]  Mansoor-ul-Hasan, Sahi, G.H., Wakil, W., and Imanat, Y, ¡°Aphid transmission of Sugarcane mosaic virus¡±, Pakistan Journal of Agricultural Sciences, 40 (1-2), 74-76. 2003.
 
[18]  Cabanas S., Atnable S., Higash C.H.V and Bressan A, ¡°Dissecting the mode of Maize chlorotic mottle virus transmission (Tombusviridae: Machlomovirus) by Frankliniella williamsi (Thysinoptera: Thripidae)¡±, Journal of Economic Entomology, 106 (1): 16-24. Feb 2013.
 
[19]  Mauck, K.E., Moraes, C.M.D and Mescher, M.C, ¡°Evidence of local adaptation in plant virus effects on host-vector interaction¡±, Integrative and Comparative Biology, 54, 193-203. 2014.
 
[20]  Deng, T-C., Chou, C-M., Chen, C-T., Tsai, C-H.and Lin, F-C., First report of Maize chlorotic mottle virus on sweet corn in Taiwan, Plant Disease, 98 (12), 1,748.1- 1,748.1. December 2014.
 
[21]  Zhao, M., Ho, H., Wu, Y., He, Y. and Li, M, ¡°Western flower thrips (Frankliniella occidentalis) transmits Maize chlorotic mottle virus¡±. Journal of Phytopathology, 162, 532-536. 2014.
 
[22]  Nault, L.R., Styer W.E., Coffey, M.E., Gordon, D.T., Negi, L.S. and Iblett C.L, ¡°Transmission of Maize chlorotic mottle virus by chrysomelid beetles¡±, Phytopathology, 68, 1071-1074.1978.
 
[23]  Jensen, S.G, “Laboratory transmission of Maize chlorotic mottle virus by three species of corn rootworms”, Plant Disease, 69, 864-868. 1985.
 
[24]  Philips, N.J.O., Uyemoto, J.K., Wilson, D.L, ¡°Maize chlorotic mosaic virus and rotation: effect of sorghum, and virus incidence¡±, Plant Disease, 66, 376-379. 1982.
 
[25]  Gray, S.M. and Banerjee, N, ¡°Mechanisms of arthropod transmission of plant and animal viruses¡±, Microbiology Molecular Biology Reviews, 63 (1), 128-148. 1999.
 
[26]  Jensen, S.G, ¡°Laboratory transmission of Maize chlorotic mottle virus by three species of corn rootworms¡±, Plant Disease, 69, 864-868. 1985.
 
[27]  Gergerich, R.C, Scott, H.A and Fulton, J.P, ¡°Evidence that ribonuclease in beetle regurgitant determines the transmission of plant viruses¡±, Journal of General Virology, 67, 367-370. February 1987.
 
[28]  Gergerich, R. C and Scott, H. A, ¡°Determinants in the specificity of virus transmission by leaf feeding beetles¡±, Advances in Disease Vector Research, 8, 1-13. 1991.
 
[29]  Castiglioni, E. and Navia, D, ¡°Presence of the wheat curl mite, Aceria tosichella Keifer (Prostigmata: Eriophyidae) in Uruguay¡±, Agrociencia, 14 (1), 19-26. Feb 2010.
 
[30]  Tatineni, S., van Winklee D.H. and French, R, ¡°The N-terminal region of Wheat streak mosaic virus coat protein is a host- and strain-specific long-distance transport factor¡±, Journal of Virology, 85 (4): 1718-1731. February 2011.
 
[31]  Navia, D., Menonca, R.S., Skoracka, A., Szyalo, W., Knihinicki, D., Hein, G,L., Pereira, P.R.V., Truol, G., and Lau, D, ¡°Wheat curl mite: Aceria tosichella, and transmitted viruses: an expanding pest complex affecting cereal crops¡±, Experimental and Applied Acarology , 59(1-2), 95-143. February 2012.
 
[32]  Whitfield, A.E., Falk, B.W., Rotenberg, D, ¡°Insect vector-mediated transmission of plant viruses¡±, Virology, 479-480, 278-289. 2015.
 
[33]  Kuntze, L., Fuchs E., Gruntzig, Schulz, M., Klein, D. and Melchinger, E, ¡°Resistance of early-maturing European maize germplasm to Sugarcane mosaic virus (SCMV) and Maize dwarf mosaic virus (MDMV)¡±, Plant breeding, 116 (5), 499-507. October 1997.
 
[34]  Louie, R. and Darrah, L.L, ¡°Disease resistance and yield loss to Sugarcane mosaic virus in East Africa- adapted maize¡±, Crop Science, 20, 638-640. 1980.
 
[35]  Khan, S.A., Hussein, N., Saljoqi, A.U.R. and Hayat, Y, ¡°Resistance of the maize variety jalal against corn leaf aphid Rhopalosiphum maidis, its impact on pest density and effects on yield and yield components¡±, Journal of Agricultural and Biological Science, 1 (2), 30-35 August 2006.
 
[36]  Blackman, R. and Eastop, V.F., 2000. Aphids on the world¡¯s trees - an identification and information guide. XF2006251066.
 
[37]  Moritz, G., Brandt, S., Triapitsyn, S., Subramanian, S, ¡°Identification and information for thrips for East Africa¡±. http://thripsnet.zoologie.uni-halle.de/key-server-neu/. 2017.
 
[38]  Clark, M.F. and Adams, A.N, ¡°Characteristics of the microplate method of enzyme-linked immunosorbent assay for the detection of plant viruses¡±, Journal of General Virology, 34 (3): 475-483. March 1977
 
[39]  Horsfall, J.G. and Barratt, R.W, ¡°An improved grading system for measuring plant diseases¡±, Phytopathology, 35: 655, November 1945.
 
[40]  Simko I. and Piepho H-P, ¡°The area under the disease progress stairs: Calculation, advantage and application, Analytical and Theoretical Plant Pathology, 102 (4), 381-389. April 2012.
 
[41]  Wakman, W., Kontong, W.S., Muis, A., Persley, D.M. and Teakle, D.S, ¡°Mosaic disease of maize caused by Sugarcane mosaic potyvirus in Sulawesi¡±, Indonesian Journal of Agricultural Science, 2 (2), 56-59. 2001.
 
[42]  Singh, M., Singh, A., Upadhyaya, P.P., Rao, G.P, ¡°Transmission studies on an Indian isolate of Sugarcane mosaic potyvirus¡±. Sugar Tech, 7 (2-3), 32-38. 2005.
 
[43]  Perera, M.F., Filipone, M.P., Noguera, A.S., Cuenya, M.I. and Castagnaro, A.P, ¡°An overview of the sugarcane mosaic disease in South America¡±, Functional Plant Science and Biotechnology, 6, 98-107. 2012.
 
[44]  Noone, D.F., Srisink, S., Teakle, D.S., Allsopp, P.G. and Taylor, P.W.J, ¡°Ability to transmit Sugarcane mosaic virus and seasonal phenology of some aphids species (Hemiptera: Aphididae) on the Isis and Bundaberg districts of Queensland¡±, Australian Journal of Entomology Society, 33 (1), 27-30. February 1994.
 
[45]  Duong, H.N., Vidosne R.Z. and. Kozma, E, ¡°Comparative studies on aphid transfer of maize-pathogen potyviruses¡±, National Agricultural Library and Documentation Centre; Deposit library of the FAO. 1991.
 
[46]  Halbert, S.E., Connelly, J., Bishop, G.W. and Blackmer. J.L, “Transmission of Barley yellow dwarf virus by field collected aphids (Homoptera: Aphididae) and their relative importance in barley yellow dwarf epidemiology in Southwestern Idaho”, Annals of Applied Biology, 121 (1), 105-121. August 1992.
 
[47]  Thongmeearkom, P., Ford, R. E. and Jedlinski, H, ¡°Aphid transmission of Maize dwarf mosaic virus strains, Phytopathology¡±, 66, (3) 332-335. 1975.
 
[48]  Gildow, F.E., Shah, D.A., Sackett, W.M., Butzler, T., Nault, B.A., and Fleischer, S.J, ¡°Transmission efficiency of Cucumber mosaic virus by aphids associated with virus epidemics in snap bean¡±, Phytopathology, 98 (11), 1233-1241. November 2008.
 
[49]  Gambley, C.F., Thomas, J.E., Magnaye, LV. and Herradura, L, ¡°Abaca mosaic virus: a distinct strain of Sugarcane mosaic virus¡±, Australasian Plant Pathology, 33 (3), 475-484. December 2004.
 
[50]  Garzo, E.I., Duque, M. and Fereres, A, ¡°Transmission efficiency of different non-persistent viruses infecting melon by four aphid species¡±, Spanish Journal of Agricultural Research, 2 (3), 369-378. September 2004.
 
[51]  Deressa, T. and Demissie G, “Maize lethal necrosis disease (MLND) - a review. Journal of Natural Sciences Research”, 7 (7), 38-42. 2017.
 
[52]  Anhalt, M.D and Almeida, R.P, ¡°Effect of temperature, vector life stage, and plant access period on transmission of banana bunchy top virus to banana¡±, Phytopathology, 98 (6), 743-748. June 2008.
 
[53]  Mortazavi, N. and Aleosfoor, M, ¡°Efficiency of Thrips tabaci and Frankliniella occidentalis populations in transmission of Tomato yellow ring virus¡±, Zoology and Ecology, 25, 241-246. 2015.
 
[54]  Wosula, E.N., McMechan, A.J., Oliveira-Hofman, C., Wegulo, S.N. and Hein, G.L, ¡°Differential transmission of two isolates of Wheat streak mosaic virus by five wheat curl mite populations¡±. Plant Disease, 100 (1), 154-158. January 2016.
 
[55]  Froissart, R, Doumayrou, J, Vuillaume, F, Alizon, S, Michalakis, Y, ¡°The virulence¨Ctransmission trade-off in vector-borne plant viruses: a review of (non-)existing studies¡±, Philosophical Transactions of the Royal Society B: Biological Sciences, 365(1548), 1907-1918 .June 2010.
 
[56]  Sison, M.L.J., Cueva, F.M D. and Pozon, A.P.M, ¡°Transmission of episomal Banana streak virus by mealy bugs of different host plants¡±, Journal of International Society for Southeast Asian Agricultural Sciences, 23 (2), 203-2014. 2017.
 
[57]  Fattah, A.I.A., El-Din, H.A.N., Abodoah, A.M. and Sadik, A.S, “Occurrence of two Sugarcane mosaic potyvirus strains in sugar”, Pakistan Journal of Biotechnology, 2 (1-2), 1-12.
 
[58]  Macharia M., Tebkew D., Agum W. and Njuguna M, ¡°Incidence and distribution of insect pests in rain-fed wheat in Eastern Africa¡±, African Crop Science Journal 24, 149-155. 2016.
 
[59]  Fuchs, E. and Gruntzig, M, ¡°Influence of Sugarcane mosaic virus (SCMV) and Maize dwarf mosaic virus (MDMV) on the growth and yield of two maize varieties¡±, Journal of Plant Diseases and Protection, 102 (1), 44-50. February 1995.
 
[60]  Pocsai, M, ¡°Effect of Brome mosaic virus infection on the plant height and weight of cereals at their early stages of growth¡±, Cereal Research Communications, 15(2/3), 167-174. 1987
 
[61]  Mahjabeen, K.P.A., Sarwar, N., Saleem, M.Y., Asghar, M., Iqbal, Q., Jamil, F.F, ¡°Effect of Cucumber mosaic virus infection on morphology, yield and phenolic contents of tomato¡±, Achieves of Phytopathology and Plant Protection, 45, 766-782. October 2011.
 
[62]  Hooks, C.R.R., Wright, M.G., Kabasawa, D.S., Manandhar, R. and Almeida, R.P.P, “Effect of Banana bunchy top virus infection on morphology and growth characteristics of banana”, Annals of Applied Biology, 153 (1), 1-9. August 2008.
 
[63]  Prendeville, H,R.; Tenhumberg, B. and Pilson, D, ¡°Effects of virus on plant fecundity and population dynamics¡±, New Phytologist, 202 (4), 1346 -1356. June 2014.
 
[64]  Mahuku, G., Lockhart B.E., Wanjala, B., Jones M.W., Kimunye, J.N., Stewart, L.R., Cassone , B.J ., Sevgan, S., Nyasani, J.O., Kusia, E., Kumar P L., Niblett, C.L., Kiggundu, A., Asea, G., Pappu, H.R., Wangai, A., Prasanna, B M. and Redinbaugh, M.G, ¡°Maize lethal necrosis (MLN), an emerging threat to maize based food security in Sub-Saharan Africa¡±, Phytopathology, 105 (7), 956-965. July 2015.
 
[65]  Zielinska, L., Trzmiel, K. and Jezewska, M, ¡°Ultrastructural changes in maize leaf cells infected with Maize dwarf mosaic virus and Sugarcane mosaic virus¡±. Acta Biologica Cracoviensia, 54 (1), 97-104. 2012.
 
[66]  Mekureyaw, M.F, ¡°Maize lethal necrosis disease: an emerging problem of maize production in Eastern Africa¡±, Journal of Plant Physiology and Plant Pathology, 5, 4. 2017.
 
[67]  Murray, R.R., Emblow, M.S.M., Hetherington, A.M. and Foster, G.D, ¡°Plant virus infections control stomatal development¡±, Scientific Reports, 6: 34507. September 2016.