Hostname: page-component-586b7cd67f-t7fkt Total loading time: 0 Render date: 2024-11-30T20:30:49.277Z Has data issue: false hasContentIssue false

Effects of Carbon Dioxide Enrichment on the Growth and Morphology of Kudzu (Pueraria lobata)

Published online by Cambridge University Press:  12 June 2017

Thomas W. Sasek
Affiliation:
Duke Phytotron, Dep. Bot., Duke Univ., Durham, NC 27706
Boyd R. Strain
Affiliation:
Duke Phytotron, Dep. Bot., Duke Univ., Durham, NC 27706

Abstract

Kudzu (Pueraria lobata Ohwi # PUELO) was grown from seeds in controlled-environment chambers at 350, 675, or 1000 μl·1−1 CO2. Biomass and leaf area production, morphological characteristics, and growth analysis components were determined at 14, 24, 45, and 60 days after emergence. At 60 days, plants grown at 1000 μl·1−1 CO2 had 51% more biomass, 58% longer stems, and 50% more branches than plants grown at 350 μl·1−1 CO2. Plants grown at 675 μl·1−1 CO2 were intermediate. Growth analysis components indicated that CO2 enrichment increased growth by compounding effects due to increased net assimilation rates and increased leaf area duration. Relative growth rates were not significantly affected. The large CO2-induced increase in stem height versus stem diameter is in marked contrast to previously reported responses of woody erect growth forms. Possible ecological implications for competitive abilities are discussed.

Type
Weed Biology and Ecology
Copyright
Copyright © 1988 by the Weed Science Society of America 

Access options

Get access to the full version of this content by using one of the access options below. (Log in options will check for institutional or personal access. Content may require purchase if you do not have access.)

References

Literature Cited

1. Acock, B. and Allen, L. H. Jr. 1985. Crop responses to increased atmospheric CO2 concentration. Pages 5398 in Strain, B. R. and Cure, J. D., eds. Direct Effects of Carbon Dixoide on Vegetation. State of the Art Vol. IV. U.S. Dep. Energy.Google Scholar
2. Andersen, A. S. 1976. Regulation of apical dominance by ethephon, irradiance and CO2 . Physiol. Plant. 37:303308.Google Scholar
3. Baker, D. N., Enoch, H. Z., and Acock, B. 1983. Plant growth and development. Pages 107130 in Lemon, E. R., ed. CO2 and Plants: The Response of Plants to Rising Levels of Atmospheric Carbon Dioxide. Westview, Boulder, CO.Google Scholar
4. Bhattacharya, S., Bhattacharya, N. C., Biswas, P. K., and Strain, B. R. 1985. Response of cowpea (Vigna unguiculata L.) to CO2-enriched environment on growth, dry matter production and yield components at different stages of vegetative and reproductive growth. J. Agric. Sci. (Cambridge) 105:526534.Google Scholar
5. Calvert, A. 1972. Effects of day and night temperatures and carbon dioxide enrichment on yield of glasshouse tomatoes. J. Hortic. Sci. 47:231247.Google Scholar
6. Carlquist, S. 1975. Ecological strategies of xylem evolution. Univ. California, Berkeley.Google Scholar
7. Clark, W. C., ed. 1982. Carbon Dioxide Review. Oxford Univ. Press, New York, NY.Google Scholar
8. Darwin, C. 1867. On the movements and habits of climbing plants. J. Linn. Soc. (Botany) 9:1118.Google Scholar
9. DeLucia, E. H., Sasek, T. W., and Strain, B. R. 1985. Photosynthetic inhibition after long-term exposure to elevated levels of atmospheric carbon dioxide. Photosynth. Res. 7:175184.Google Scholar
10. Downs, R. J. and Hellmers, H. 1978. Controlled climate and plant research. World Meteorological Organization. Tech. Note #148. Geneva.Google Scholar
11. Edmonds, J. A., Reilly, J., Trabalka, J. R., and Reichle, D. E. 1984. An analysis of possible future retention of fossil fuel CO2. DOE OR/21400-1. U.S. Dep. Energy, Washington, DC.Google Scholar
12. Gifford, R. M. 1977. Growth pattern, carbon dioxide exchange and dry weight distribution in wheat growing under differing photosynthetic environments. Austr. J. Plant Physiol. 4:99110.Google Scholar
13. Hardy, R.W.F. and Havelka, U. D. 1977. Possible routes to increase the conversion of solar energy to food and feed by grain legumes and cereal grains (drop production): CO2 and N2 fixation, foliar fertilization, and assimilate partitioning. Pages 299322 in Mitsui, A, Miyachi, S., San Pietro, A., and Tamura, S., eds. Biological Solar Energy Conversion. Academic Press, New York.Google Scholar
14. Hellmers, H. and Giles, L. J. 1979. Carbon dioxide: critic I. Pages 229234 in Tibbitts, T. W. and Kozlowski, T. T., eds. Controlled Environment Guidelines for Plant Research. Academic Press, New York.Google Scholar
15. Kimball, B. A. 1983. Carbon dioxide and agricultural yield: An assemblage and analysis of 430 prior observations. Agron. J. 75:779788.Google Scholar
16. Kimball, B. A. 1983. Carbon dioxide and agricultural yield: An assemblage and analysis of 770 prior observations. WCL Report 14. U.S. Dep. Agric., Agric. Res. Serv. 71 pp.Google Scholar
17. Kramer, P. J., Hellmers, H., and Downs, R. J. 1970. SEPEL: new phytotrons for environmental research. Bioscience 20: 12011208.Google Scholar
18. Kriedemann, P. E., Sward, R. J., and Downton, W.J.S. 1976. Vine response to carbon dioxide enrichment during heat therapy. Aust. J. Plant Physiol. 3:605618.Google Scholar
19. Kvet, J., Ondok, J. P., Necas, J., and Jarvis, P. G. 1971. Methods of growth analysis. Pages 343391 in Sestak, Z., Catsky, J., and Jarvis, P. G., eds. Plant Photosynthetic Production, Manual of Methods. Dr. W. Junk N. V. Publ., The Hague.Google Scholar
20. LaMarche, V. C. Jr., Graybill, D. A., Fritts, H. C., and Rose, M. R. 1984. Increasing atmospheric carbon dioxide: Tree ring evidence for growth enhancement in natural vegetation. Science 225: 10191021.Google Scholar
21. Manabe, S. and Stouffer, R. J. 1979. CO2 climate sensitivity study with a mathematical model of the global climate. Nature (London) 282:491493.Google Scholar
22. Manabe, S. and Wetherland, R. T. 1975. The effects of doubling the CO2 concentration on the climate of a general circulation model. J. Atmos. Sci. 32:315.Google Scholar
23. McMahon, T. 1973. Size and shape in biology. Science 179: 12011204.Google Scholar
24. Monsi, M. and Murata, V. 1970. Development of photosynthetic systems as influenced by distribution of matter. Page 115141 in Prediction and Measurement of Photosynthetic Productivity. Cent. Agric. Publ. Doc., Wageningen.Google Scholar
25. Morison, J.I. L. and Gifford, R. M. 1984. Ethlene contamination of CO2 cylinders. Plant Physiol. 75:275277.Google Scholar
26. Oechel, W. C. and Strain, B. R. 1985. Native species responses to increased atmospheric carbon dioxide concentrations. Pages 117154 in Strain, B. R. and Cure, J. R., eds. Direct Effects of Increasing Carbon Dioxide on Vegetation. State of the Art Volume IV. U.S. Dep. Energy. DOE/ER-0238.Google Scholar
27. Paez, A., Hellmers, H., and Strain, B. R. 1980. CO2 effects on apical dominance in Pisum sativum . Physiol. Plant. 50:4346.Google Scholar
28. Paez, A., Hellmers, H., and Strain, B. R. 1983. CO2 enrichment, drought stress and growth of Alaska pea plants (Pisum sativum). Physiol. Plant 58:161165.Google Scholar
29. Paez, A., Hellmers, H., and Strain, B. R. 1984. Carbon dioxide enrichment and water stress interaction on growth of two tomato cultivars. J. Agric. Sci. Camb. 102:687693.Google Scholar
30. Patterson, D. T. and Flint, E. P. 1980. Potential effects of global atmospheric CO2 enrichment on the growth and competitiveness of C3 and C4 weed and crop plants. Weed Sci. 28:7175.Google Scholar
31. Pearcy, R. W. and Bjorkman, O. 1983. CO2 and Plants, Chapter 4. Physiological effects. Pages 65105 in Lemon, E. R., ed. CO2 and Plants: The Response of Plants to Rising Levels of Atmospheric Carbon Dioxide. Westview Press Inc., Boulder, CO.Google Scholar
32. Putz, F. E. 1983. Liana biomass and leaf area of a “tierra firme” forest in the Rio Negro Basin, Venezuela. Biotropica 15:185189.Google Scholar
33. Putz, F. E. 1984. The natural history of lianas on Barro Colorado Island, Panama. Ecology 65:17131724.Google Scholar
34. Sionit, N., Hellmers, H., and Strain, B. R. 1980. Growth and yield of wheat under CO2 enrichment and water stress. Crop Sci. 20:687690.Google Scholar
35. Sionit, N., Hellmers, H., and Strain, B. R. 1982. Interaction of atmospheric CO2 enrichment and irradiance on plant growth. Agron. J. 74:721725.Google Scholar
36. Sionit, N., Strain, B. R., and Hellmers, H. 1981. Effects of different concentrations of atmospheric CO2 on growth and yield components of wheat. J. Agric. Sci., Camb. 79:335339.Google Scholar
37. Sionit, N., Strain, B. R., Hellmers, H., and Kramer, P. J. 1981. Effects of atmospheric CO2 concentration and water stress on water relations of wheat. Bot. Gaz. 142:191196.Google Scholar
38. Sionit, N., Strain, B. R., Hellmers, H., Riechers, G. H., and Jaeger, C. H. 1985. Long-term atmospheric CO2 enrichment affects the growth and development of Liquidambar styraciflua and Pinus taeda seedlings. Can. J. For. Res. 15:468471.Google Scholar
39. Stevens, L. 1976. King Kong kudzu, menace to the South. Smithsonian 7:9399.Google Scholar
40. Strain, B. R. 1985. Physiological and ecological controls on carbon sequestering in ecosystems. Biogeochemistry 1:219232.Google Scholar
41. Stuiver, M. 1928. Atmospheric carbon dioxide in the 19th century. Science 202:1109.Google Scholar
42. Thomas, J. F. and Harvey, C. N. 1983. Leaf anatomy of four species grown under continuous CO2 enrichment. Bot. Gaz. 144:303309.Google Scholar
43. Tinus, R. W. 1972. CO2 enriched atmosphere speeds growth of ponderosa pine and blue spruce seedlings. Tree Planters' Notes 23:1215.Google Scholar
44. Tolley, L. C. and Strain, B. R. 1984. Effects of CO2 enrichment on growth of Liquidambar styraciflua and Pinus taeda seedlings under different irradiance levels. Can. J. For. Res. 14:343350.Google Scholar
45. Tolley, L. C. and Strain, B. R. 1984. Effects of CO2 enrichment and water stress on gas exchange of Liquidambar styraciflua and Pinus taeda seedlings grown under differnet irradiance levels. Oecologia 65:166172.Google Scholar
46. Tsugawa, H. and Kayama, R. 1974. Studies on population structure of kudzu vine. 1. On the thickening growth of internodes of stems and main roots, the number of their vascular bundle rings. J. Jpn. Soc. Grassl. Sci. 20:181186.Google Scholar
47. Tsugawa, H. and Kayama, R. 1985. Studies on population structure of kudzu vines (Pueraria lobata Ohwi). VI. The structure of overwintering aboveground parts of individual plants which constitute a natural kudzu population. J. Jpn. Soc. Grassl. Sci. 3:167176.Google Scholar
48. United States Dep. Agric. 1971. Common Weeds of the United States. Dover Publications, Inc., New York. 463 pp.Google Scholar