A model of air-tree-soil system for ozone impact analysis

Ecological Modelling

Volumn 111, Issue 2-3, 1998, Pages 207-222

  Chen, Carl W ^a   Tsai, W T ^a   Lucier, Alan A ^b  

^a Systech Engineering Inc   (United States)

^b NATIONAL COUNCIL FOR AIR AND STREAM IMPROVEMENT   (United States)

Author keywords

Loblolly; Mature tree; Modelpine; Seedlings; Stimuli; Stresses

Indexed keywords

AIR-SOIL INTERACTION; ECOSYSTEM MODELING; GROWTH RESPONSE; OZONE; SOIL-VEGETATION INTERACTION;

UNITED STATES;

EID: 0032170680     PISSN: 03043800     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0304-3800(98)00120-3     Document Type: Article

References (41)

1. Acock B., Reynold J.F. Model structure and data base development. Dixon R.K., Meldahl R.S., Ruark G.A., Warren W.G. Process Modeling of Forest Growth Responses to Environmental Stress. 1990;169-179 Timber Press, Portland, Oregon.
2. Allen L.H. Plant responses to rising carbon dioxide and potential interactions with air pollutants. J. Environ. Quality. 19(1):1990;15-34.
3. Allen L.H., Boote K.J., Jones J.W., Valle R.R., Acock B., Rogers H.H., Dahlman R.C. Response of vegetation to rising carbon dioxide: photosynthesis, biomass, and seed yield of soybean. Global Biogeochem. Cycles. 1(1):1987;1-14.
4. Amthor J.S., Cumming J.R. Low levels of ozone encore bean leaf maintenance respiration. Can. J. Bot. 66:1988;724-726.
5. Boyer W.D., Romancier R.M., Ralston C.W. Root respiration rates for four tree species grown in the field. For. Sci. 17:1971;492-493.
6. Charles-Edward D.A., Doley D., Rimmington G.M. Modelling Plant Growth and Development. 1986;Academic Press, Sydney, Australia.
7. Chen, C.W., 1993a. The Response of Plants to Interacting Stresses: PGSM Version 1.3 Model documentation, Electric Power Research Institute, Palo Alto.CA. Research Project 2799-07, TR-101880.
8. Chen, C.W., 1993b. PGSM Version 1.3: A Physiologically Based Tree Model for the Assessment of Air Pollution Impacts on Plants Electric Power Research Institute, Palo Alto, CA, Research Project 2799-1, TR101881.
9. Chen, C.W., Dean, J.D., Gherini, S.A., Goldstein, R.A., 1982. Acid rain model hydrologic module. J. Environ. Eng. ASCE, 108 (E3), 455-472.
10. Chen, C.W., Gomez, L.E., Fox, C.A., Goldstein, R.A., Lucier, A.A., 1988. A tree model with multiple stresses. In: Ek, A.R., Shifley, S.R., Burk, T.E. (Eds.), Forest Growth Modelling and Prediction. Society of American Foresters Publication SAF87.12, pp. 270-277.
11. Chen C.W., Gomez L.E. Modeling tree responses to interacting stresses. Dixon R.K., Meldhal R.S., Ruark G.A., Warren W.G. Forest Growth: Process Modeling of Response to Environmental Stress. 1990;338-350 Timber Press, Portland, Oregon.
12. Chen C.W., Tsai W.T., Gomez L. Modeling responses of ponderosa pine to interacting stresses of ozone and drought. For. Sci. 40(2):1994;267-288.
13. Christensen, N.L., Peet, R.K., 1988. Patterns of growth and mortality of loblolly pine (Pinus taeda). In: Permanent Sample Plots of the Duke Forest 1934-1988, an unpublished manuscript, Department of Botany, Duke University, Durham, NC.
14. Chung H.H., Barnes R.L. Photosynthate allocation in pinus taeda. L. substrate requirements for synthesis of shoot biomass. Can. J. For. Res. 7:1977;106-111.
15. Coyne P.I., Bingham G.E. Comparative ozone dose response of gas exchange in a ponderosa pine stand exposed to long-term fumigations. J. Air Pollut. Control Assoc. 31(1):1981;38-41.
16. Gherini S.A., Mok L., Hudson R.J., Davis G.F., Chen C.W., Goldstein R.A. The ILWAS model: formulation and application. Water, Air, Soil Pollut. 26:1985;425-459.
17. Heck W.W., Adams R.M., Cure W.W., Heagle A.S., Heggestad H.E., Kohut R.J., Kress L.W., Rawlings J.O., Taylor O.C. A reassessment of crop loss from ozone. Environ. Sci. Technol. 17:1983;572-581.
18. Heck W.W., Cure W.W., Rawlings J.O., Zaragoza L.J., Heagle A.S., Heggestad H.E., Kohut R.J, Kress L.W., Temple P.J Assessing impacts of ozone on agriculture crops: 1. Overview. J. Air Pollut. Control Assoc. 34:1984;729-735.
19. Heagle A.S., Body D.E., Heck W.W. An open-top field chamber to assess the impact of air pollution on plants. J. Environ. Quality. 2:1973;365-368.
20. Jarvis, P.G., Barton, C.V., Dougherty, P.M., Teskey, R.O., Massheder, J.M., 1990. MOESTRO in development and use of tree and forest response models. In: State of Science and Technology Report 17, National Acid Precipitation Assessment Program, Washington DC, pp 17-167 to 17-178
21. Kira T., Shinozaki K., Hozumi K. Structure of forest canopies as related to their primary productivity. Plant Cell Physiol. 10:1969;129-142.
22. Kobayashi K., Miller J.E., Flagler R.B., Heck W.W. Model analysis of interactive effects of ozone and water stress on the yield of soybean. Environ. Pollut. 82:1993;39-45.
23. Kramer P.J., Decker J.P. Relation between light intensity and rate of photosynthesis of Loblolly pine and certain hardwood. Plant Physiol. 19:1944;350-358.
24. Landsberg J.J. Experimental approaches to the study of the effects of nutrients and water on carbon assimilation by trees. Tree Physiol. 2:1986;427-444.
25. Larcher W. Physiological Plant Ecology. 1980;Springer-Verlag, NY.
26. McLaughlin, S.B., Adams, M.B., Edwards, N.T., Hanson, P.J., Layton, P.A., O'Neal, E.G., Roy, W.K., 1988. Comparative Sensitivity, Mechanisms, and Whole Plant Physiological Implications of Responses of Loblolly Pine Genotypes to Ozone and Acid Deposition, Oak Ridge National Laboratory, Environmental Science Division, Oak Ridge, TN, 38731, Publication No. 3105.
27. Miller P.R., McBride J.R. Effects of air pollutants on forests. Mudd J.B., Kozlowski T.T. Responses of Plants to Air Pollution. 1975;Academic Press, NY.
28. Mudano J.E., Allen H.L., Kress L.W. Stem and foliage elongation of young loblolly pine as affected by ozone. For. Sci. 38(2):1992;324-335.
29. Sasek T.W., Richardson C.J. Effects of chronic doses of ozone on loblolly pine: photosynthetic characteristics in the third growing season. For. Sci. 35(3):1989;745-755.
30. Sasek, T.W., Richardson, C.J., 1992. The dose-response approach for characterizing the effects of near ambient ozone concentrations on photosynthesis. In: Flagler, R.B. (Ed.), Transactions of the Response of Southern Commercial Forests to Air Pollution, Air and Waste Management Association, pp. 257-271.
31. Shafer S.R., Heagle A.S., Carnberato D.M. Effects of chronic doses of ozone on field-grown loblolly pine: seedling responses in the first year. J. Air Pollut. Control Assoc. 37:1987;1179-1184.
32. Shafer S.R., Heagle A.S. Response of field grown loblolly pine to chronic doses of ozone during multiple growing seasons. Can. J. For. Res. 19:1989;821-831.
33. Shafer S.R., Reinert R.A., Eason E., Spruil S.E. Analysis of ozone concentration-biomass response relationships among open-pollinated families of loblolly pine. Can. J. For. Res. 23:1993;706-715.
34. 2 enrichment affects the growth and development of Liquidmabar Styraciflua and Pinus Taeda seedlings. Can. J. For. Res. 15:1985;468-471.
35. Stow T.K., Allen H.L., Kress L.W. Ozone impacts on seasonal foliage dynamics of young loblolly pine. For. Sci. 38(1):1992;102-119.
36. Strain B.R. Physiological and ecological controls on carbon sequestering in ecosystem. Biogeochem. 1:1985;219-232.
37. Temple P.J., Riechers G.H., Miller P.R., Lennox R.W. Growth response of ponderosa pine to long-term exposure to ozone, wet and dry acidic deposition, and drought. Can. J. For. Res. 23:1993;59-66.
38. Waring R.H., Schlesinger W.H. Forest Ecosystems Concept and Management. 1985;Academic Press, Orlando, FL.
39. Weinstein D.A., Beloin R.M., Yanai R.D. Modeling changes in red spruce carbon balance and allocation in response to interacting ozone and nutrient stresses. Tree Physiol. 9:1991;127-146.
40. Weinstein D.A. et al. The Response of Plants to Interacting Stresses: TREGRO Version 1.74, EPRI TR-101061. 1992;Electric Power Research Institute, Palo Alto, CA.
41. Weinstein D.A., Yanai R.D. Integrating the effects of simultaneous multiple stresses on plants using the simulation model TREGO. J. Environ. Quality. 23:1994;418-428.