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http://dx.doi.org/10.11614/KSL.2019.52.3.210

The Effects of Experimental Warming on Seed Germination and Growth of Two Oak Species (Quercus mongolica and Q. serrata)  

Park, Sung-ae (Natural Environment Research Division, National Institute Environmental Research)
Kim, Taekyu (Natural Environment Research Division, National Institute Environmental Research)
Shim, Kyuyoung (Natural Environment Research Division, National Institute Environmental Research)
Kong, Hak-Yang (Natural Environment Research Division, National Institute Environmental Research)
Yang, Byeong-Gug (Biodiversity Informatics Team, National Institute of Biological Resources)
Suh, Sanguk (Department of Biological Sciences, Konkuk University)
Lee, Chang Seok (Department of Bio and Environmental Technology, Seoul Women's University)
Publication Information
Abstract
Population growth and the increase of energy consumption due to civilization caused global warming. Temperature on the Earth rose about $0.7^{\circ}C$ for the last 100 years, the rate is accelerated since 2000. Temperature is a factor, which determines physiological action, growth and development, survival, etc. of the plant together with light intensity and precipitation. Therefore, it is expected that global warming would affect broadly geographic distribution of the plant as well as structure and function ecosystem. In order to understand the effect of global warming on the ecosystem, a study about the effect of temperature rise on germination and growth in the plant is required necessarily. This study was carried out to investigate the effects of experimental warming on the germination and growth of two oak species(Quercus mongolica and Q. serrata) in temperature gradient chamber(TGC). This study was conducted in control, medium warming treatment($+1.7^{\circ}C$; Tm), and high warming treatment ($+3.2^{\circ}C$; Th) conditions. The final germination percentage, mean germination time and germination rate of two oak species increased by the warming treatment, and the increase in Q. serrata was higher than that in Q. mongolica. Root collar diameter, seedling height, leaf dry weight, stem dry weight, root dry weight, and total biomass were the highest in Tm treatment. Butthey were not significantly different in the Th treatment. In the Th treatment, Q. serrata had significantly higher H/D ratio, S/R ratio, and low root mass ratio (RMR) compared with control plot. Q. mongolica had lower RMR and higher S/R ratio in the Tm and Th treatments compared with control plot. Therefore, growth of Q. mongolica are expected to be more vulnerable to warming than that of Q. serrata. The main findings of this study, species-specific responses to experimental warming, could be applied to predict ecosystem changes from global warming. From the result of this study, we could deduce that temperature rise would increase germination of Q. serrata and Q. mongolica and consequently contribute to increase establishment rate in the early growth stage of the plants. But we have to consider diverse variables to understand properly the effects that global warming influences germination in natural condition. Treatment of global warming in the medium level increased the growth and the biomass of both Q. serrata and Q. mongolica. But the result of treatment in the high level showed different aspects. In particular, Q. mongolica, which grows in cooler zones of higher elevation on mountains or northward in latitude, responded more sensitively. Synthesized the results mentioned above, continuous global warming would function in stable establishment of both plants unfavorably. Compared the responses of both sample plants on temperature rise, Q. serrata increased germination rate more than Q. mongolica and Q. mongolica responded more sensitively than Q. serrata in biomass allocation with the increase of temperature. It was estimated that these results would due to a difference of microclimate originated from the spatial distribution of both plants.
Keywords
experimental warming; germination; Quercus mongolica; Q. serrata; seedling growth;
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1 An J.A, H.N. Chang, M.J. Park, S.H. Han, J.H. Hwang, M.S. Cho and Y. Son. 2016. Effect of Experimental Warming on Physiological and Growth Responses of Larix kaempferi Seedlings. Journal of Climate Change Research 7(1): 77-84.   DOI
2 Arend, M., T. Kuster, M.S. Gunthardt-Goerg and M. Dobbertin. 2011. Provenance-specific growth responses to drought and air warming in three European oak species (Quercus robur, Q. petraea and Q. pubescens). Tree Physiology 31(3): 287-297.   DOI
3 Baskin, C.C. and J.M. Baskin. 1998. Seeds: Ecology, Biogeography, and Evolution of Dormancy and Germination. Academic Press, San Diego.
4 Bernareggi, G. 2015. Study of the effects of climate warming on seed germination and seed longevity of snowbed species. PhD Thesis, Universita degli Studi di Parma, Parma, Italy.
5 Bewley, J.D. and M. Black. 1982. Physiology and biochemistry of seeds in relation to germination. 2nd Ed. springer-Verlagpress. Berlin. Heidelberg and New York.
6 Bonner, F.T. and R.P. Karrfalt. 2008. The woody plant seed manual. Agric. Handbook No. 727. US Department of Agriculture, Forest Service. Washington, DC.
7 Cannell, M.G.R. and R.I. Smith. 1986. Climatic warming, spring budburst and forest damage on trees. Journal of Applied Ecology 23(1): 177-191.   DOI
8 Cannell, M.G.R., J. Grace and A. Booth. 1989. Possible impacts of climatic warming on trees and forests in the United Kingdom: a review. Forestry: An International Journal of Forest Research 62(4): 337-364.   DOI
9 Cho, M.S., J. Hwang, A.R. Yang, S. Han and Y. Son. 2014. Seed Germination and Seedling Survival Rate of Pinus densiflora and Abies holophylla in Open-field Experimental Warming Using the Infrared Lamp. Journal of Korean Society of Forest Science 103(2): 203-210.   DOI
10 Cho, Y.C., N.S. Kim and B.Y. Koo. 2018. Changed land management policy and the emergence of a novel forest ecosystem in South Korea: landscape dynamics in Pohang over 90 years. Ecological Research 33(2): 351-361.   DOI
11 Choi, C.H., B.S. Seo, W.S. Tak, K.J. Cho, C.S. Kim and S.U. Han. 2008. Comparison of Seed Germination Response to Temperature by Provenances in Fraxinus rhynchophylla. Journal of Korean Forest Society 97(6): 576-581.
12 Choung, Y.S. 1998. Vegetation in the Paekdoo Great Mountain Chain. Preservation Nature 103: 48-54.
13 Garzoli, K. (ed). 1988. The Australian Greenhouse Handbook. Australian Government Publishing Service. Canberra Australia. 185 pp.
14 Ericsson, T., L. Rytter and E. Vapaavuori. 1996. Physiology of carbon allocation in trees. Biomass and Bioenergy 11(2-3): 115-127.   DOI
15 Figueroa, J.A. and J.J. Armesto. 2001. Community-wide germination strategies in a temperate rain forest of Southern Chile: ecological and evolutionary correlates. Australian Journal of Botany 49: 411-425.   DOI
16 Footitt, S., Z. Huang, H. Ölcer-Footitt, H. Clay and W.E. Finch-Savage. 2018. The impact of global warming on germination and seedling emergence in Alliaria petiolata, a woodland species with dormancy loss dependent on low temperature. Plant Biology (Stuttg) 20(4): 682-690.   DOI
17 Ghannoum, O., N.G. Phillips, J.P. Conroy, R.A. Smith, R.D. Attard, R. Woodfield, B.A. Logan, J.D. Lewis and D.T. Tissue. 2010. Exposure to preindustrial, current and future atmospheric $CO_2$ and temperature differentially affects growth and photosynthesis in Eucalyptus. Global Change Biology 16: 303-319.   DOI
18 Haase, D.L. 2007. Morphological and physiological evaluations of seedling quality. Riley, L.E., Dumroese, R.K., Landis, T.D. (tech. cords) National proceedings: Forest and Conservation Nursery Associations-2006. Proc. RMRS-P-50. Fort Collins, CO: US Department of Agriculture, Forest Service, Rocky Mountain Research Station. 3-8.
19 Han, S., J. An, T.K. Yoon, S.J. Yun, J. Hwang, M.S. Cho and Y. Son. 2014. Species-specific growth responses of Betula costata, Fraxinus rhynchophylla, and Quercus variabilis seedlings to open-field artificial warming. Korean Journal of Agricultural and Forest Meteorology 16(3): 219-226.   DOI
20 Heydecker, W. 1977. Stress and seed germination: An agronomic view, p. 237-282. In: The physiology and biochemistry of seed dormancy and germination (Elsevier, A.K. ed.). North Holland and Biomedical Press, Amsterdam.
21 Houle, G. 1994. Spatiotemporal patterns in the components of regeneration of four sympatric tree species - Acer rubrum, A. saccharum, Betula alleghaniensis and Fagus grandifolia. Journal of Ecology 82(1): 39-53.   DOI
22 IPCC. 2013. Climate change 2013: The physical Science Basis. NY, Cambridge University Press. New York.
23 Jang, R.H., S.Y. Lee and Y.H. You. Phenological response of 6 oak species to climate change. Proceedings Korean Soc. Environ. Ecol. Con. 27(1): 3.
24 Jeon, B.S., J.H. Kang, S.Y. Yoon, S.W. Lee and J.I. Chung. 2003, Germination, Seedling Emergence, and Growth of Burcucumber Affected by Maturity and Size. Korean Journal of Crop Science 48(3): 152-155.
25 Jeong, J.K., H.R. Kim and Y.H. You. 2010. Effects of elevated $CO_2$ concentration and temperature on growth response of Quercus acutissima and Quercus variabilis. Korean Journal of Environment and Ecology 24(6): 648-656.
26 Khan, M.A. and I.A. Ungar. 1997. Effects of thermo period on recovery of seed germination of halophytes from saline conditions. American Journal of Botany 84: 279-283.   DOI
27 Kim, I.T., M.S. Song and S.H. Jung. 2009. Analysis of Distribution and Association Structure on the Sawtooth Oak (Quercus acutissima) Forest in Korea. Journal of Life Science 19(3): 356-361.   DOI
28 Klady, R.A., G.H. Henry and V. Lemay. 2011. Changes in high arctic tundra plant reproduction in response to long-term experimental warming. Global Change Biology 17(4): 1611-1624.   DOI
29 Kulkarni, M.G., R.A. Street and J. Van Staden. 2007. Germination and seedling growth requirements for propagation of Dioscorea dregeana (Kunth) Dur. and Schinz: A tuberous medicinal plant. South African Journal of Botany 73: 131-137.   DOI
30 K.M.A. (Korea Meteorological Administration). 2017. Korean Peninsula Climate Change Report for New Climate Regime.
31 Lee, C.S. 1989. A study on the succession of pine forests damaged by pine gall midge. PhD Thesis, Seoul National University, Seoul.
32 Lee, C.S., J.H. Kim, H. Yi and Y.H. You. 2004. Seedling establishment and regeneration of Korean red pine (Pinus densiflora S. et Z.) forests in Korea in relation to soil moisture. Forest Ecology and Management 199(2-3): 423-432.   DOI
33 Lee, C.S., S. Jung, B.S. Lim, A.R. Kim, C.H. Lim and H. Lee. 2019. Forest Decline Under Progress in the Urban Forest of Seoul, Central Korea. In: Deforestation around the world. IntechOpen. DOI: http://dx.doi.org/10.5772/intechopen.86248.   DOI
34 Lee, H.J., Y.M. Chun and C.H. Kim. 1998. Floristic Composition and Soil Condition of Quercus mongolica Forest on Mt. Worak. Korean Journal of Environmental Biology 16(2): 169-180.
35 Lee, J.S., O. Takehisa, M. Shigeru and H.J. Lee. 2000. Effects of Elevated $CO_2$ and Temperature on Seedling Emergence of Herbsina Japanese Temperate Grassland. The Korean Journal of Ecology 23(6): 423-429.
36 Lee, M.J. and H. Song. 2011. Vegetation Structure and Ecological Restoration Model of Quercus mongolica Community. Journal of the Korea Society of Environmental Restoration Technology 14(1): 57-65.   DOI
37 Lopushinsky, W. and T.A. Max. 1990. Effects of soil temperature on root and shoot growth and on bud burst timing in conifer seedling transplants. New Forest 4(2): 107-124.   DOI
38 Lee, S.J., S. Han, T.K. Yoon, H. Chung, N.J. Noh, W. Jo, C.W. Park, S. Ko, S.H. Han and Y. Son. 2012. Effects of experimental warming on growth of Quercus variabilis seedlings. Journal of Korean Society of Forest Science 101(4): 722-728.
39 Lee, W.T. and T.H. Chung. 1965. Korea Forest Vegetation Zone and Theory of Right Tree on Right Site. Journal of Sungkyunkwan University 10: 329-435.
40 Lloret, F., J. Penuelas, P. Prieto, L. Llorens and M. Estiarte. 2009. Plant community changes induced by experimental climate change: seedling and adult species composition. Perspectives in Plant Ecology, Evolution and Systematics 11(1): 53-63.   DOI
41 Milbau, A., B.J. Graae and A. Shevtsova. 2009. Effects of a warmer climate on seed germination in the subarctic. Annals of Botany 104: 287-296.   DOI
42 Moles, A. and M. Westoby. 2004. What do seedlings die from and what are the implications for evolution of seed size? Oikos 106: 193-199.   DOI
43 Mullan, B. and J. Haqq-Misra. 2019. Population growth, energy use, and the implications for the search for extraterrestrial intelligence. Futures 106(2019): 4-17.   DOI
44 NOAA. 2017. Earth system research laboratory ESR Global monitoring division. www.esrl.noaa.gov/gmd/ccgg/trends/global.html/.
45 Norby, R.J., T.M. Long, J.S. Jartz-Rubin and E.Z. O’Neil. 2000. Nitrogen resorption in senescing tree leaves in a warmer, $CO_2$-enriched atmosphere. Plant and Soil 224(1): 15-29.   DOI
46 Peng, Y.Y. and Q.L. Dang. 2003. Effects of soil temperature on biomass production and allocation in seedlings of four boreal tree species. Forest Ecology and Management 180(1-3): 1-9.   DOI
47 Park, J.H. 2014. Phytochemical variation of Quercus mongolica Fisch. ex Ledeb. and Quercus serrata Murray (Fagaceae) in Mt. Jiri, Korea1a. Korean Journal of Environment and Ecology 28(5): 574-587.   DOI
48 Park, M.J., S.J. Yun, H.M. Yun, H. Chang, S.H. Han, J. An and Y. Son. 2016. Effects of open-field artificial warming and precipitation manipulation on physiological characteristics and growth of Pinus densiflora seedlings. Journal of Climate Change Research 7: 9-17.   DOI
49 Pearson, R.G., W. Thuiller, M.B. Araujo, E. Martinez-Meyer, L. Brotons, C. McClean, L. Miles, P. Segurado, T.P. Dawson and D.C. Lees. 2006. Model-based uncertainty in species range prediction. Journal of Biogeography 33(10): 1704-1711.   DOI
50 Rees, M. 1993. Trade-offs among dispersal strategies in British plants. Nature 366: 150-152.   DOI
51 Roberts, E.H. 1988. Temperature and seed germination. In : Symposia of the Society for Experimental Biology 42: 109-132.
52 Song, K.S., K.S. Jeon, K.S. Choi, J.Y. Choi, H.I. Sung and J.J. Kim. 2014. Growth Characteristics of Daphniphyllum macropodum Seedlings of Warm-Temperate Landscape Tree by Shading and Fertilization Treatment: Research on seedling production of D. macropodum by container nursery for meteorological disasters. Journal of Climate Research 9: 65-76.   DOI
53 Thompson, B.E. 1985, Seedling morphological evaluation - what you can tell by looking, In: Proceedings, Evaluation seedling quality: principles, procedures, and predictive abilities of major tests. Corvallis, Oregon State University, Forestry Research Laboratory. 59-72.
54 Tripathi, R.S. and M.L. Khan. 1990. Effects of seed weight and microsite characteristics on germination and seedling fitness in two species of Quercus in a subtropical wet hill forest. Oikos 57(3): 289-296.   DOI
55 Thompson, L.J. and S. Naeem. 1996. The effects of soil warming on plant recruitment. Plant and Soil 182(2): 339-343.   DOI
56 Thompson, P.A. 1970. Characterization of the germination responses to temperature of species and ecotypes. Nature 225: 827-831.   DOI
57 Thuiller, W., C. Albert, M.B. Araújo, P.M. Berry, M. Cabeza, A. Guisan, T. Hickler, G.F. Midgley, J. Paterson, F.M. Schurr, M.T. Sykes and N.E. Zimmermann. 2008. Predicting global change impacts on plant species’ distributions: future challenges. Perspectives in Plant Ecology, Evolution and Systematics 9(3-4): 137-152.   DOI
58 Walck, J.L., S.N. Hidayati, K.W. Dixon, K.E.N. Thompson and P. Poschilod. 2011. Climate change and plant regeneration from seed. Global Change Biology 17: 2145-2161.   DOI
59 Wang, K.Y., S. Kellomaki and K. Laitinen. 1995. Effects of needle age, long-term temperature and $CO_2$ treatments on the photosynthesis of Scots pine. Tree Physiology 15: 211-218.   DOI
60 Wertin, T.M., M.A. McGuire and R.O. Teskey. 2011. Higher growth temperatures decreased net carbon assimilation and biomass accumulation of northern red oak seedlings near the southern limit of the species range. Tree Physiology 3: 1277-1288.
61 Xiao, Z., Z. Zhang and Y. Wang. 2004. Dispersal and germination of big and small nuts of Quercus serrata in a subtropical broad-leaved evergreen forest. Forest Ecology and Management 195(1-2): 141-150.   DOI
62 Xu, Z.F., T.X. Hu, K.Y. Wang, Y.B. Zhang and J.R. Xian. 2009. Short-term responses of phenology, shoot growth and leaf traits of four alpine shrubs in a timberline ecotone to simulated global warming, Eastern Tibetan Plateau, China. Plant Species Biology 24(1): 27-34.   DOI
63 Xu, J., W. Li, C. Zhang, W. Liu and G. Du. 2017. The determinants of seed germination in an alpine/subalpine community on the Eastern Qinghai-Tibetan Plateau. Ecological Engineering 98: 114-122.   DOI