Relationships of Aulacophora beetles feeding behavior with cucurbitacin types in host crops

Abstract

Abstract: Aulacophora fermoralis chinensis and Aulacophora cattigarensis are the two related Aulacophora beetles,but their host selectivity and feeding behavior are significantly different.A.fermoralis chinensis usually feeds upon Cucumis sativus and Cucurbita moschata,but never upon Luffa acutangula,Momordica charantia and Citrullas lanatus.Its feeding behavior on hosts is to snip a circular trench on their leaves,and then,to feed the leaf tissues isolated by the trench.On the contrary,A.cattigarensis only feeds L.acutangula,and its trenching behavior rarely occurs.This study showed that the host selectivity and feeding behavior of the two beetles were significantly correlated with the types of cucurbitacin biosynthesized by host melon crops.C.sativus and C.moschata might be induced to produce cucurbitacin I by A.fermoralis chinensis feeding,and this compound was responsible for feeding deterrent on A.fermoralis chinensis.Therefore,the feeding behavior of A.fermoralis chinensis was to block the translocation of cucurbitacin I to feeding sites.M.charantia and C.lanatus contained deterrent cucurbitacin D,and thus,both beetles never fed upon them,while L.acutangula contained stimulants cucurbitacin B and E,and made A.cattigarensis directly feed upon it without trenching.The results suggested that the taste responses of insects on specific allelochemicals from plants may play an important role in host selectivity and feeding behavior.

Key words: Aulacophora fermoralis chinensis, Aulacophora cattigarensis, Melon crop, Feeding behavior, Cucurbitacin

CLC Number:

Q948.12

YANG Xiao, KONG Chuihua, LIANG Wenju, ZHANG Maoxin, HU Fei . Relationships of Aulacophora beetles feeding behavior with cucurbitacin types in host crops[J]. Chinese Journal of Applied Ecology, 2005, 16(7): 1326-1329.

References

[1] Abe M, Matsnda K, Tamaki Y. 2000. Differences in feeding response among three cucurbitaceous feeding leaf beetles to cucurbitacins. Appl Ent Zool, 35:137～142
[2] Agrawal AA, Gorski PM, Tallamy DW. 1999. Polymorphism in plant defense against herbivory:Constitutive and induced resistance in Cucumis sativus. J Chem Ecol, 25:2285～2304
[3] Brust GE, Foster RE. 1995. Semiochemical-based toxic baits for control of striped cucumber beetle (Coleoptera:Chrysomelidae) in cantaloupe. J Econ Ent, 88:112～116
[4] Carroll CR, Hoffman CA. 1980. Chemical feeding deterrent mobilized in response to insect herbivory and counter adaptation by Epilach na tredecim notata. Science, 209:414～416
[5] Chambliss OL, Jones CM. 1966. Cucurbitant:Specific insect attractants in cucurbitaceae. Science, 153:1392～1393
[6] Ferguson JE, Metcalf ER, Metcalf RL, et al. 1983. Influence of cucurbitacin content in cotyledons of cucurbitsceae cultivars upon feeding behavior of Diabrotica beetles (Coleoptera:Chrysomelidae).J Econ Ent,76:47～51
[7] Gorski PM, Jaworski A, Shannon S, et al. 1986. Rapid TLC and HPLC quantification of cucurbitacin C in cucumber cotyledons.Hortscience, 21:1034～1036
[8] Halaweish FT. 1993. Cucurbitacins from Cucurbita texana:Evidence for the role of isocucurbitacins. J Chem Ecol, 19:29～37
[9] Halaweish FT, Tallamy DW. 1993. Quantitative determination of cucurbitacins by high performance liquid chromatography and high performance thin layer chromatography. J Liquid Chromatogr, 16:497～511
[10] Kang L (康乐), Hopkins TL. 2004. Behavioral and olfactory responses of grasshopper hatchlings, Melanoplus sanguinipes, to plant odours and volatile compounds. Chin Sci Bull (科学通报), 49(2):136～141 (in Chinese)
[11] Kessler A, Baldwin IT. 2001. Defensive function of herbivore-induced plant volatile emissions in nature. Science, 291:2141～2144
[12] KongC-H (孔垂华), Liang W-J(梁文举), Yang X(杨晓), et al.2004. Mechanism of Aulacophora fermoralis chinensis Weise feeding behavior and chemical response of host Cucumis sativus L.Chin Sci Bull (科学通报), 49(13):1258～1262(in Chinese)
[13] Lance DR, Sutter GR. 1992. Field tests of a semiochemical-based toxic bait for suppression of corn rootworm beetles (Coleoptera:Chrysomelidae). J Econ Ent, 85:967～973
[14] Martin AWP, Blackburn M, Schroder FWR, et al. 2002. Stabilization of cucurbitacin E-glycoside, a feeding stimulant for diabroticite beetles, extracted from bitter Hawkesbury watermelon. J Insect Sci, 2:19～24
[15] Rausher MD. 2001. Co-evolution and plant resistance to natural enemies. Nature, 411:857～864
[16] Rice CA, Rymal KS, Chambliss OL, et al. 1981. Chromatographic and mass spectral analysis of cucurbitacins of three Cucumis sativus cultivars. J Agric Food Chem, 29:194～196
[17] Tallamy DW. 1985. Squash beetle feeding behavior:An adaptation against induced cucurbit defense. Ecology, 66:1574～1579
[18] Tallamy DW, Stull J, Ehresman NP, et al. 1997. Cucurbitacins as feeding and oviposition deterrents to insects. Environ Ent, 26:678～683
[19] Yan S-C(严善春), Zhang D-D(张丹丹), Chi D-F(迟德富).2003. Advances of studies on the effects of plant volatiles on insect behavior. Chin J Appl Eeol(应用生态学报), 14(2):461～465(in Chinese)