[1] 张福珠,苗鸿,鲁纯.1994.落叶阔叶林释放异戊二烯的研究[J].环境科学,15:1～5

[2] Andreae M, Berresheim H, Bingermer H et al. 1990. The atmospheric sulfur cycle over the Amazon basin 2: wet season[J]. Journal of G eophysical Research, 95:16813～16825

[3] Baldlacchi D, Guenther A, Harley P et al. 1995. The fluxes and air chemistry of isoprene above a deciduous hardwood forest[J].Philosophical Transactions of the Royal Society of London A Mathe matical and Physical Sciences. 350: 279～296

[4] Bazzz F. 1990. The response of natural systems to the rising global CO₂ levels[R]. Annual Review of Ecology and Systematic. 121:167～196

[5] Beijamin M. 1996. Low-emitting urban forests: A taxonomic methodology for assessing isoprene and monoterpene emission rates [J]. Atnospheric Enviroroment. 30: 1437～1452

[6] Fahn A. 1979. Secretary tissues in plants [M]. London: Academic Press. 25～73

[7] Farmer E, Ryan C. 1990. Interplant corrmmunication: airbornemethyl jasmonate induces synthesis of proteins inhibitors in plant leaves[A]. Proceedings of the National Academy of Sciences[C].87: 7713～7716

[8] Fehserffeld F. 1992. Emission of volatile organic compounds frorm vegetation and the implications for atmosphefic chemistry [A]. Global Biogeochemical Cycles[C]. 6: 389～430

[9] Gemshendon J, Croreau R. 1993. Terpenoid biosynthesis: the ba sic pathway and formation of monoterpenes, sesquiterpenes and diterpenes[A]. In: Moore T(ed). Lipid metabolism in plants[C]. Boca Raton: CRC Press. 333～388

[10] G oldan P, Kuster W, Feshenfekd F. 1993. The observation of a C5 alcohol emnission in a North American forest[R]. G eophysical Research Letters. 20: 1039～1042

[11] Guenther A, Momon R, Fall R. 1991. Isoprene and monterpene emission rate variability: observvations with Eucalyptus and emission rate algorithm development[J]. Journal of Geophysical Research. 96:10799～10808

[12] Guenther A, Zimmerman P, Klinger L et al. 1996. Estimates of regional natural volatile organic compound fluxes from enclosure and ambient measurements[J]. Journal of Geophysical Research. 101: 1345～1359

[13] Guentber A, Zimmennan, Wildemmth M et al. 1994. Natural volatile organic compound emission rate estimates for US woodland landscapes[J]. Atmospheric Environnmnent. 28: 1197～1210

[14] Guenther A. 1995. A global model of natural volatile organic com pound emissions[J]. Journal of Geophysical Research. 100:8873～8892

[15] Haager-smit A, Darley E. 1952. Investigation on injury from air pollution in the Los Angeles area[J]. Plant Physiology. 27:18～34

[16] Harley P, Litvak M, Sharkey T. 1994. Isoprene emission from vel vet bean leaves: interactions between niaogen availahility, growth photon flux density and leaf development [J]. Plant Physiology. 105: 279～285

[17] Jones C, Rasmussen. 1975. Production of isoprene by leaf tissue [J]. Plant Physiology. 55:982～987

[18] Kesselmeir J. 1991. Emission of sulfur compconds from vegetation and global-scale extrapolation. In: Sharkey T, Holland E, Mooney H (ed), Trace gas emissions by plants [M]. San Diego: Academic Press. 261～265

[19] Kuzma J, Fall R. 1993. Leaf isoprene emission rate is dependent on leaf development and the level of isoprene syntheses[J]. Plant Physiology. 101: 435～440

[20] Lerdau M, Matson P, Fall R et al. 1995. Ecological controls over monoterpene emission from Douglas fir[J]. Ecology. 76:2640～2647

[21] Lerdau M, Gershenzon J. 1997. Allocation theoryand the coat of defene. Resource allocation in plants and animals [M]. San Diego: Acedemic press. 298～355

[22] Logan J, Prather M, Wofsy S. 1981. Tropospheric chemistry: a global perspective[J]. Journal of Geophysical Research. 86:7210～7254

[23] Loreto F, Delfine S. 2000. Emission of isoprene forn salt-stressed Eucalyputus globulus leaves[J]. Plant Physiology. 123: 1605～1610

[24] Loreto F, Sharkey T. 1993. On the relationship between isoprene emission and photosynthetic metabolites under different en1vironmental conditions [J]. Planta. 189:420～424

[25] Lorio P. 1993. Enviromnental stress and whole-tree physiology[A]. In: Schowalter T, Filip G (eds.) Beetle-pathogen interactions in conifer forests[C]. London: Academic Press. 81～101

[26] MacDonald R C, Fall R. 1993. Detection of subtantial emissionsof methanol from plants to the atmosphere[J]. Atmosphere Environmerit. 27: 1709～1713

[27] Mcgarvey D, Croreau R. 1995. Terpenoid metabolism[J]. Plant Cell. 7: 1015～1026

[28] Momson R, Lerdau M, Sharkey T. 1995. Biological aspects of constructing biological hydrocarbon emission inventories[J]. Atmospheric Environment. 29:2989～3002

[29] Nemecek-marshall M, MacDonald R C, Franzen J J et al. 1995. Methanol emission from plants[J]. Plant Physiology. 108: 1359～1368

[30] Sanadze G. 1991. Isolaene effect: light-dependent emission of isorene by green parts of plants[A]. Trace gas emission by plants[C]. San Diego: Academic Press. 135～152

[31] Scufort G, Kotzias D, Sparta C et al. 1995. Volatile organics in Mediterranean shrrubs and their potential role in a changing environment. Global change and Mediterranenn-type ecosystmas [M].Berlin: Springer-Verlag. 343～370

[32] Sharkey T, Singsaas E. 1995. Why plants emit isoprene[J]. Nature. 374:769

[33] Sharkey T. 1996. Emission of low molecular mass hydrocarbonsfrom plants[A]. Trends in Plant Science [C]. San Diego: Aca demic Press. 1:78～82

[34] Silver G, Fall R. 1991. Enzymatic synthesis of isoprene from dimethylallyl diphosphate in aspen leaf extracts[J]. Plant Physiology. 97: 1588～1591

[35] Talbot R, Adreas M, Berreshenm H et al. 1990. Scurces and sinks of formic, acetic, and pyruic acids over central Amazonia 2: wet season[J]. Journal of Geophysical Research. 95: 16799～16811