Natural Resistance of Eight Sapling Species to Damage by Microcerotermesgabrielis Weidner

Document Type : Research Article

Authors

1 Research Associate Professor, Iranian Research Institute of Plant Protection, Agricultural Research, Education and Extension Organization (AREEO), Tehran, Iran

2 Ph.D. Student of Forestry, Department of Forestry, Faculty of Agriculture and Natural Resources, Islamic Azad University, Science and Research Branch, Tehran, Iran

3 Researcher, Research Institute of Petroleum Industry,Tehran, Iran

Abstract

Introduction:The subterranean termites make large damage to wood and cellulosic products. They can have the destroying effects on forest plantations, agriculture crop, and urban landscaping. According to the previous studies, Microcerotermesgabrielis Weidner is the most important termite of the Alborz province belong to the family Termitidae. This species is also reported in the central, the northeastern and the southern regions of Iran. MicrocerotermesvaraminicaGhayourfar, Amitermesvilis (Hagen), A. kharaziiGhayourfar, Anacantthotermesvagan (Hagan) have been also reported from Tehran province.Chemical control of termiteis the most conventional method ofcontrol. A few insecticides have acceptable termiticide effects. However more of them have negative effects on the other non-targets organisms in the environment, and may run off into groundwater. Thus we wouldconsiderthe other methods of termite control. Usage of native and natural resistant plant species can be reasonable strategy against termitesinafforestation. Plant species are food sources for termites, however, they differ in their palatabilityand can affect termite preference. There are some studies have reported differences in feeding rates and preferences of termite species amongdifferent species of woody plants. Tree Shalamzar Plantation, encompassing 54 ha in the southern Alborz mountain range have sustained termite damage since 2013. The objective of this study was to evaluate the natural resistance of eight different sapling species to termite´s damage in this region.
Materials and Methods: Termites were collected from four infested locations within Shalamzar Plantation, Karaj, Iran. Infested saplings with active termite tunnels were visited and soldier termites collected and transferred to the systematics lab for species identification using a systematic key of Iranian termites. Termite infestation rates were estimatedfor each of 8 sapling species. Ten saplings of each species were randomly selected and examined from the four infested locations. Termite-free saplings with no damage or mud tunnels were designated as healthy 'control' plants. Infestation rates were calculated based on the number of infested saplings per total number of each sapling species. The saplings were classified by the termite damage in five categories:1. health (0% damage ) 2. Low ((>0 to 25%) 3. Medium ((>25 to 50%), 4. High ((>50 to 75%) 5. Dead ((>75 to 100%). Data on percentage of infested saplings from each species were subjected to PROC GLM model in completely randomized design. Differences among means were analyzed using LSD Test (P≤0.05). Termite damage was analyzed using the Kruskal–Wallis test. Mean termite damage rates and frequency of damage groups in each plant species were estimated.
Results: The results showed that Microcerotermesgabrielis is only damaging termite species on the studied saplings in these regions. Juniper and mountain almond species had no termite infestation and were resistant to its attack. Silverberry and hackberry species were the most susceptible saplings to termite damage with a 65 and57.5 % infestation rate and 60.44 and55 % dead rate, respectively. Judas sapling plants had over 60% termite infestation rate, sustained 20% mortality. It is tolerant species to termite. Ash and barberry species hadless than 50% oftermite infestation and their dead plant rate was 35.42and 28.33 %, respectively. Thus, the species of juniper and mountain almond saplings can be replaced by dead saplings.
Discussion: Microcerotermesgabrielis is the primary sapling-damaging pest on the southern Alborz mountain slopes. This is the first report of termite attacking saplings in Iran. Susceptibility of saplings to termite damage varies with termite species. Microcerotermesspp. prefers to feed Faqus sp., whereas Microtermes sp. feeds more Piceasp. and Odontotermes spp.feeds live plant tissue and tree bark. Hackberry and silverberry saplings were preferred by M. gabrielis, whereas the species ofjuniper and mountain almond showed resistant totermite´s infestation. There are many factors affecting termite feeding preference. Wood moisture and densityaffect wood palatability to termite, and some plant chemicalssuch as phenol compoundsand lignin ofwood act as antifeedants and repellents on termite.
Conclusion: The species of juniper and mountain almond saplings were the most resistant to M. gabrielis.
Amongsaplings sustaining damage, Judas tree had also the lowest mortality. So, three species ofjuniper, mountain almond and Judas are recommended to be considered for tree planting in locations where M. gabrielis has infested the soil. It is prudent to identify the predominant tree-damaging termite species in areas designated for afforestation, and determines the plants and trees that are the highest levels of resistant to damage by indigenous termites prior to conducting planting operations.

Keywords


1- Abdullah F., Subramanian P., Ibrahim H., Abdul Malek S.N., Lee G.S., and Hong S.L. 2015. Chemical Composition, Antifeedant, Repellent, and Toxicity Activities of the Rhizomes of Galangal, Alpinia galanga Against Asian Subterranean Termites, Coptotermes gestroi and Coptotermes curvignathus (Isoptera: Rhinotermitidae). Journal of Insect Science, 15(1):1-7.
2- Aihetasham A., and Iqbal S. 2013. Feeding preferences of Microcerotermes championi (Snyder ) for different wooden blocks dried at different temperatures under forced and choice feeding conditions in laboratory and field. Agris, 44(4): 1137–1144.
3- Anonymous. 2011. Forests in a green economy a synthesis. United Nations Environment Programme. Available in: http://www.unep.org/pdf/PressReleases/UNEP-ForestsGreenEco-basse_def_version_normale.pdf. htm.
4- Anonymous. 2016. The theme of the 2016 International Day of Forests is “forests and water”. United Nations. Available in http://www.un.org/en/events/forestsday/.htm.
5- Arabtabar Firozichaei H., Rezanejad A., Hosseinzadeh A., Nejatsalari A., and Golbabei F. 2008. Investigation on impregnation and durability of Eucalyptus species in natural and treated form against decay and insect attack. Research Institute of Forest and Rangeland (RIFR), Agricultural Research, Education and Extension Organization (AREEO), Final Report NO: 31028. (in Persian with English abstract)
6- Badawi A., Faragala A.A., and Dabbour A., 1984. The natural resistance of some imported wood species to subterranean termites in Saudi Arabia. Zeitschrift fur angewandte Entomologie, 98:500-504.
7- Gay F.T., Greaves T., Holdaway F.G., and Wetherly A.H. 1954. Standard laboratory colonies of termites for evaluating the resistance of timber, timber preservatives and other materials to termite attack. CSIRO Australia, 277: 1-64.
8- Ghayourfar, R. 2005. Termite of Iran. Agricultural Research, Education and Extension Organization, Iranian Research Institute of Plant Protection, Amozesh Keshavarzi press, Karaj, Iran, p.180 (in Persian).
9- Golestaneh, S.R., Karampour F., and Farrar N. 2013. Introduction of the destructive agents affecting wild almond Amygdalus scoparia forests in Koh-Siah Dashti area in Bushehr province. Iranian Journal of Forest and Range Protection Research, V 10(2) :165-177.
10- Harris, W.V., 1961. Termites, Their Recognition and Control. Longmans, London, 186 pp.
11- Judd T.M., and Corbin C.C. 2009. Effect of cellulose concentration on the feeding preferences of the termite, Reticulitermes flavipes (Isoptera: Rhinotermitidae). Sociobiology, 53(3):775-784.
12- Mahdavi Meymand Z., Moshafi M.H., and Forutanfar H. 2009. Antibacterial Activity of Metanolic Extract of 12 Herbal Species on 6 Bacterial Strains Using Cylinder-plate Method. Journal of Rafsanjan University Of Medical Sciences,V8(3) Page 227 -237.
13- Morales-Ramos J.A., and Rojas M.G. 2001. Nutritional Ecology of the Formosan Subterranean Termite (Isoptera: Rhinotermitidae)-Feeding Response to Commercial Wood Species. Journal of Economic Entomology, 94(2):516-523.
14- Mounguengui S., Tchinda J.B.S., Ndikontar M.K., Dumarçay S., Atteke C., Perrin D., Gelhaye E. and Gerardin P. 2015. Total phenolic and lignin contents, phytochemical screening, antioxidant and fungal inhibition properties of the heartwood extractives of ten Congo Basin tree species. Annals of Forest Science, 1-10.
15- Omidbakhsh M., Soleymanejadyan E., Habibpour B.and Asareh M.H. 2003. A study of resistance of four tree species to Sand-termite, Psammotermes hybostoma Desneux (Isoptera: Rhinotermitide) in sand dunes of Khozestan province. Pajouhesh – va- Sazandegi in Natural Science, 16(30):44-51. (in Persian with English abstract)
16- Omidbakhsh M., Soleymanejadyan E., Habibpour B., and Asareh M.H. 2004. Sand-termite, Psammotermes hybostoma Desneux (Isoptera: Rhinotermitide) damage to three plants used in biological stabilization of sand dunes in Khozestan. The Scientific Journal of Agriculture, 27(10):77-91. (in Persian with English abstract)
17- Rasib K.Z., 2008. Feeding preferences of Microcerotermes championi (Snyder) on different timbers dried at different temperatures under choice and no choice trials. Nature Proceedings. Available http://hdl. handle. net/10101/npre, 20481.
18- Rezanajaddeldari A., and Hoseinkhani H. 2014. Investigation on durability of P. nigra and P. alba against termite using filed trial. Research Institute of Forest and Rangeland(RIFR), Agricultural Research, Education and Extension Organization (AREEO), Final Report NO: 45444. (in Persian with English abstract)
19- Shafiei Alavijeh E., Habibpour B., Moharramipour S., and A. Rasekh. 2014. Bioactivity of Eucalyptus camaldulensis essential oil against Microcerotermes diversus (Isoptera: Termitidae). Journal of Crop Protection, 3(1):1-11.
20- Shahid A.S., and Akhtar M.S. 1983. Wood preferences and survival of Coptotermes heimi (Wasmann) and Odontotermes obesus (Rambur) (Isoptera). Pakistan Journal of Zoology, (11):303-314.
21- Shanbhag R.R., and Sundararaj R. 2012. Host range, pest status and distribution of wood destroying termites of india. The Journal of Tropical Asian Entomology, 2(1): 12-27
22- Skyba O., Douglas C.J., and Mansfield S.D. 2013. Syringyl-rich lignin renders poplars more resistant to degradation by wood decay fungi. Applied and Environmental Microbiology, 79(8):2560-2571.
23- Smythe R.V., and Carter F.L. 1970. Feeding responses to sound wood by Coptotermes formosanus, Reticulitermes flavipes, and R. virginicus (Isoptera: Rhinotermitidae). Annals of the Entomological Society of America, 63: 841-847.
24- Tsao R., Romanchuk F.E., Peterson C.J., and Coats J. R. 2002. Plant growth regulatory effect and insecticidal activity of the extracts of the Tree of Heaven (Ailanthus altissima L.). BioMed Centra Ecology. 2: 1-6
25- Yang R.Z, and Tang C.S. 1988. Plants used for pest control in China: a literature review. Economic botany 42: 376-406.
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