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http://dx.doi.org/10.11614/KSL.2013.46.2.234

Effect of Elevated $CO_2$ Concentration and Temperature on the Growth Response of Several Woody Plants, Including Two Endangered Species  

Jang, Rae-Ha (Department of Biology, Kongju National University)
Kim, Hae-Ran (Department of Biology, Kongju National University)
You, Young-Han (Department of Biology, Kongju National University)
Publication Information
Abstract
Increasing global $CO_2$ concentration and temperature is leading to the phenomenon of global warming and impacting the growth of plants. In order to determine the effects of global warming on the woody plants of Korea, five woody species, Pinus densiflora (Korea's dominant species), Ginkgo biloba (a commonly used street tree), Quercus glauca (dominant species in sub-tropical forests), Quercus gilva and Abeliophylum distichum (both endangered species), were grown at control (ambient $CO_2$+ambient temperature) and treatment (elevated $CO_2$+elevated temperature) conditions in a glasshouse, and were monitored for their ecological response. Shoot lengths and number of leaves were measured once a month from April to October in 2010, and were again measured in November 2011. Shoot lengths of P. densiflora, G. biloba and Q. glauca were not significantly affected by elevated $CO_2$ and temperature conditions. However. those of Q. gilva and A. distichum were both higher for plants grown under treatment than for those grown under control. The number of leaves of five woody species was not significantly affected by elevated $CO_2$ and temperature. These results indicate that P. densiflora, G. biloba and Q. glauca react more favorably than Q. gilva and A. distichum (each of which are designated as endangered plants) under global warming situations.
Keywords
global warming; dominant vegetation; shoot growth;
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1 Usami, T., J. Lee and T. Oikawa. 2001. Interactive effects of increased temperature and $CO_2$ on the growth of Quercus myrsinaefolia saplings. Plant, Cell and Environment 24: 1007-1019.   DOI
2 Crookshanks, M., G. Taylor and M. Broadmeadow. 1998. Elevated $CO_2$ and tree root growth contrasting responses in Fraxinus excelsior, Quercus petraea and Pinus sylvestris. New Phytologist 138: 241-250.   DOI
3 Wullschleger, S.D., W.M. Post and A.W. King. 1995. On the potential for a $CO_2$ fertilization effect in forest trees-an assessment of 58 controlled-exposure studies and estimates of the biotic growth factor, p.85-107. In: Biotic Feedbacks on the Bloval Climatic System: Will the Warming Feed the Warming? (Woodwell. G.M. and F.R. Mackenzie, eds.). Oxford Univ. Press, New York.
4 Carson, R.W. and E.A. Bazzaz. 1982. Photosynthetic and growth response to fumigation with $SO_2$ at elevated $CO_2$ for $C_3$ and $C_4$ plants. Oceologia 59: 50-54.
5 Copyrights Ministry of Environment. 2011. White paper. Copyrights Ministry of Environment. 360pp.
6 Delucia, E.H., J.G. Hamilton, S.L. Naidu, R.B. Thomas, J.A. Andrews, A. Finzi, M. Labine, R. Matamala, J.E. Mohan, G.R. Hendrey and W.H. Schlesinger. 1999. Net promary production of a forest ecosystem with experimental $CO_2$ enrichment. Science 284: 1177-1179.   DOI
7 Han, S.S. and H.S. Choi. 1986. Ecophysiological interpretations on the Quercus grosserrata and Quercus acutissima leaves. Journal of Korean Forestry Society 72: 37-44.
8 He, J.S., K.S. Wolfe-Bellin and F.A. Bazzaz. 2005. Leaf-level physiolohy, biomass, and reproduction of Phytolacca ameri-cana under conditions of elevated $CO_2$ and altered temperature regimes. International Journal of Plant Sciences 166(4): 615-622.   DOI
9 Hong, Y.S. 2012. Effects of elevated $CO_2$ concentration and temperature on the phenology, growth response and reproductive ecology of Cicuta virosa, endangered plant in Korea. PhMD Dissertation. Kongju National University, Kongju, Korea.
10 Attipalli, R.R., K.R. Girish and S.R. Agepati. 2010. The impact of global elevated $CO_2$ concentration on photosynthesis and plant productivity. Current Science 99(1): 1-10.
11 Idso, S.B. and B.A. Kimball. 1997. Effects of long-term atmospheric $CO_2$ enrichment on the growth and fruit preoduction of sour orange trees. Global Change Biology 3: 89-96.   DOI
12 Idso, S.B., B.A. Kimball, M.G. Anderson and J.R. Mauney. 1987. Effect of Atmospheric $CO_2$ Enrichment on Plant Growth: the Interactive role of Air Temperature. Agriculture, Ecosystems and Environment 20: 1-10.   DOI
13 IPCC. 2007. Climate change 2007: Mitigation of climate change. Contribution working group III contribution to the fourth as-sessment report of the Intergovermental panel on climate change. Cambridge university press, Cambridge, New York, U.S.A., 176pp.
14 Beerling, D.J., J.C. Mcelwain and C.P. Osborne. 1998. Stomatal responses of the 'living fossil' Ginkgo biloba L. to changes in atmospheric $CO_2$ concentrations. Journal of Experimental Botany 49(326): 1603-1607.
15 Jeong, H.M., H.R. Kim and Y.H. You. 2009. Growth difference among saplings of Quercus acutissima, Q. variabilis and Q. mongolica under the environmental gradients treatment. Korean Journal of Environmental Biology 27(1): 82-87.
16 Jeong, J.K., H.R. Kim and Y.H. You. 2010. Effect of elevated $CO_2$ concentration and temperature on growth response of Quercus acutissima and Q. variabilis. Korean Journal of Limnology 24(6): 648-656.
17 Kim, H.R. 2010. Effects of elevated $CO_2$ concentration and temperature on ecological responses of Phytolacca insularis and Phytolacca Americana. PhMD Dissertation. Kongju National University, Kongju, Korea.
18 Kim, J.H. 2012. The global warming as seen by biologist. Seoul National University Press. 225-227pp.
19 Lee, C.B. 2006. Coloured flora of Korea. Hang Moon publisher. 127-141pp.
20 Kim, S.H., S.H. Jung, H.J. Kang and I.S. Lee. 2010. Effects of elevated $CO_2$ on growth of Pinus densiflora seedling and enzyme activities in soil. Journal of Ecology and Field Biology 33(2):133-139.   DOI
21 Kim, S.Y. and H.J. Kang. 2003. Effects of elevated atmospheric $CO_2$ on wetland plants: a review. Korean Journal of Limnological Society 36(4): 391-402.
22 Kobayashi, N. 2006. Global Warming and Forest Business (3th ed.). Bomoondang, Seoul, 268p.
23 Lee, H.J. 2010. Ecological studies on Quercus gilva and Q. glauca by elevated $CO_2$ concentration and temperature. PhMD Dissertation. Kongju National University, Kongju, Korea.
24 Lee, J.S. and O.S. Kim. 1995. The investigation on natural growth region of Abeliophyllum distchum Nakai. Korean Journal of Plant Taxonomy 21(1): 1-8.
25 Lim, J.K. 2002. A draft of the secon national communication of the Republic of Korea. Korea Energy Economics Institue. Rep. Gyeonggi-do., Korea, 211pp.
26 Lim, K.B., Y.T. Min, Y.M. Kim, S.D. Han and H.M. Kwon. 1995. Oaks. Forest Tree Breeding Research. 187-226pp.
27 No, H.J. and H.Y. Jung. 2002. Well-defined statistical analysis according to statistica. Hyeong-seok Publisher. 336pp.
28 Park, H.R. 2003. Global warming and its effects and preventive. Uyoung, Seoul, 285.
29 Poorter, H. and M. Perez-Soba. 2002. Plant growth ay elevated $CO_2$, p. 489-496. In: Encyclopedia of Global Environmental Change (Munn, T., H.A. Mooney and J.G. Canadell, eds.). John Willey & Sons, Ltd, Chichester.
30 The meterological administration. 2011. Climate Chage report. The Meterological Administration. 45pp.
31 Shin, D.H., H.R. Kim and Y.H. You. 2012. Effects of elevated $CO_2$ concentration and increased temperature on the change of the phonological and reproductive characteristics of Phytolocca insularis, a Korea endemic plant. Journal of Wetlands Research 14(1): 6-7.
32 Strain, B.R. 1985. Physiological and ecological controls on carbon sequestering in terrestrial ecosystem. Biogeochemistry 1: 219-232.   DOI
33 Terry, A.C., W.P. Quick and D.J. Beerling. 2000. Long-term growth of ginkgo with $CO_2$ enrichment increases leaf ice nucleation temperatures and limits recovery of the photosynthetic system from freezing. Plant Physiology 124(1): 183-190.   DOI