Asymmetric day/night temperature elevation: Growth implications for yellow-poplar and loblolly pine using simulation modeling

Forest Science

Volumn 46, Issue 2, 2000, Pages 248-257

  Constable, John V H ^a,b   Retzlaff, William A ^c,d  

^a UNIVERSITY OF COLORADO   (United States)

^b UNIVERSITY OF ILLINOIS AT CHICAGO   (United States)

^c Boyce Thompson Institute for Plant Research   (United States)

^d SOUTHERN ILLINOIS UNIVERSITY EDWARDSVILLE   (United States)

Author keywords

Climate change; Liriodendron tulipifera; Pinus taeda; Temperature; TREGRO model

Indexed keywords

LIRIODENDRON TULIPIFERA; PINUS TAEDA;

EID: 0034112542     PISSN: 0015749X     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (43)

1. 2 and temperature effects on leaf area production in two annual plant species. Ecology 73:1260-1269.
2. ARNONE, J.A. III, AND C. KÖRNER. 1997. Temperature adaptation and acclimation potential of leaf dark respiration in two species of Ranunculus from warm and cold habitats. Arc. Alp. Res. 29:122-125.
3. BAKER, J.B., AND O.G. LANGDON. 1990. Loblolly Pine (Pinus taeda L.). P. 497-512 in Silvics of North America. Vol. I. Conifers, Burns, R.M., and B.H. Honkala (eds.). USDA For. Serv. Agric. Handb. 654. Washington, DC.
4. 2 to extreme temperature events. Ecol. Applic. 4:593-603.
5. BECK, D.E. 1990. Yellow-Poplar (Liriodendron tulipifera L.). P. 406-416 in Silvics of North America. Vol. II. Hardwoods, Burns, R.M., and B.H. Honkala (eds.). USDA For. Serv. Agric. Handb. 654. Washington, DC.
6. BERRY, J.A., AND O. BJÖRKMAN. 1980. Photosynthetic response and adaptation to temperature in higher plants. Ann. Rev. Plant Physiol. 31:491-543.
7. BRIX, H. 1969. Effects of temperature on dry matter production of douglas-fir seedlings during bud dormancy. Can. J. Bot. 47:1143-1146.
8. 2 and temperature regimes. Oecologia 98:159-166.
9. CALLAWAY, R.M., E.H. DELUCIA, AND W.H. SCHLESINGER. 1994b. Biomass allocation of montane and desert ponderosa pine: an analog for response to climate change. Ecology 75:1474-1481.
10. CAREY, E.V., R.M. CALLAWAY, AND E.H. DELUCIA. 1997. Stem respiration of ponderosa pine grown in contrasting climates: implications for global climate change. Oecologia 111:19-25.
11. CLARK, A. 1992. Characteristics of timber stands containing sufficient heart-wood for cavity excavation by red-cockaded woodpecker clans. P. 621-626 in Proc. Seventh Bienn. Southern Silvic. Res. Conf. Southern For. Exp. Sta. Gen. Tech. Rep. 50. P. 621-626.
12. CONSTABLE, J.V.H., G.E. TAYLOR, JR., J.A. LAURENCE, AND J.A. WEBER. 1996. Climatic change effects on the physiology and growth of Pinus ponderosa: Expectations from simulation modeling. Can. J. For. Res. 26:1315-1325.
13. CONSTABLE, J.V.H., AND W.A. RETZLAFF. 1997. Simulating the response of mature yellow-poplar and loblolly pine trees to shifts in peak ozone periods during the growing season using the TREGRO model. Tree Physiol. 17:627-635.
14. FOLLAND, C.K., ET AL. 1992. Observed climate variability and change. P. 135-170 in Climate Change 1992. The Supplementary Report to the IPCC Scientific Assessment, Houghton, J.T., B.A. Callender, and S.K. Varney (eds.). Cambridge University Press, Cambridge, U.K.
15. GANSERT, D. 1994. Root respiration and its importance for the carbon balance of beech saplings (Fagus sylvatica L.) in a montane beech forest. Plant Soil 167:109-119.
16. HOUGHTON, J.T., G.J. JENKINS, AND J.J. EPHRAUMS. 1990. Climate change: The IPCC (Intergovernmental Panel on Climate Change), scientific assessment. Cambridge University Press, Cambridge, U.K. 365 p.
17. IDSO, S.B., AND R.C. BALLING. 1992. U.S. temperature/precipitation relationships: Implications for future 'greenhouse' climates. Agric. For. Meteorol. 58:143-147.
18. INNES, J.L. 1994. Climatic sensitivity of temperate forests. Environ. Pollut. 83:237-243.
19. KARL, T.R., ET AL. 1991. Global warming: Evidence for asymmetric diurnal temperature change. Geophys. Res. Let. 18:2253-2256.
20. KARL, T.R., ET AL. 1995. Asymmetric trends of daily maximum and minimum temperature: Empirical evidence and possible causes. P. 80-96 in Natural Climate Variability on Decade-to-Century Time Scales, edited by National Research Council. National Academy Press, Washington, D.C.
21. 2 transport based in observed winds: 1. Analysis of observed data. In Aspects of climate variability in the Pacific and the Western Americas, Peterson, D.H. (ed.). Geophys. Monogr. 55:165-236.
22. 2, temperature and nitrogen. Tree Physiol. 16:635-642.
23. LAVIGNE, M.B. 1989. Stem growth and respiration of young balsam fir trees in thinned and unthinned stands. Can J. For. Res. 18:483-489.
24. LAVIGNE, M.B. 1996. Comparing stem respiration and growth of jack pine provenances from southern and northern locations. Tree Physiol. 16:847-852.
25. LAVIGNE, M.B., AND M.G. RYAN. 1997. Growth and maintenance respiration rates of aspen, black spruce, and jack pine stems at northern and southern BOREAS sites. Tree Physiol. 17:541-553.
26. NATIONAL ACADEMY OF SCIENCES. 1992. Rethinking the ozone problem in urban and regional air pollution. National Academy Press, Washington, D.C.
27. NORBY, R.J., ET AL. Temperature-controlled open-top chambers for global change research. Global Ch. Biol. 3:259-267.
28. 2 affects long-term patterns of stem diameter and height of Douglas-fir seedlings. Can. J. For. Res. 28:1046-1054.
29. 2 and/or temperature. Can. J. Bot. 76:1991-2001.
30. POORTER, H., C. REMKES, AND H. LAMBERS. 1990. Carbon and nitrogen economy of 24 wild species differing in relative growth rate. Plant Physiol. 94:621-627.
31. RYAN, M.G., ET AL. 1995. Woody tissue maintenance respiration of four conifers in contrasting climates. Oecologia 101:133-140.
32. SAMPSON, D.A. 1993. The potential effects of increased temperatures and elevated ambient carbon dioxide on Loblolly pine productivity: Results from a simulation model. P. 337-343 in Sustainable ecological systems: Implementing an ecological approach to land management. USDA For. Serv. Gen. Tech. Rep. RM-247.
33. SCHERM, H., AND A.H.C. VAN BRUGGEN. 1994. Global warming and nonlinear growth: how important are changes in average temperature? Phytopath. 84:1380-1384.
34. SIEGEL, E., H. DOWLATABADI, AND M.J. SMALL. 1995. Sensitivity and uncertainty analysis of an individual plant model and performance of its reduced form versions: A case study of TREGRO. J. Biogeog. 22:689-694.
35. STEELE, L.P., ET AL. 1992. Slowing down of the global accumulation of atmospheric methane during the 1980s. Nature (London) 358:313-316.
36. STRAIN, B.R., K.O. HIGGINBOTHAM, AND J.C. MULROY. 1976. Temperature preconditioning and photosynthetic capacity of Pinus taeda L. Photosynthetica 10:47-53.
37. 2 and air temperature on carbon assimilation of Pinus taeda trees. Plant Cell Environ. 20:373-380.
38. TESKEY, R.O., AND R.E. WILL. 1999. Acclimation of loblolly pine (Pinus taeda) seedlings to high temperatures. Tree Physiol. 19:519-525.
39. TINGEY, D.T., ET AL. 1995. A versatile sun-lit controlled-environment facility for studying plant and soil processes. J. Environ. Qual. 25:614-625.
40. 2 doubling. Global Biogeochem. Cycles 9:407-437.
41. WEINSTEIN, D.A., AND R.D. YANAI. 1994. Integrating the effects of simultaneous multiple stresses on plants using the simulation model TREGRO. J. Environ. Qual. 23:418-428.
42. WEINSTEIN, D.A., R.M. BELOIN, AND R.D. YANAI. 1991. Modeling changes in red spruce carbon balance and allocation in response to interacting ozone and nutrient stresses. Tree Physiol. 9:127-146.
43. WEINSTEIN, D.A., R.D. YANAI, R.M. BELOIN, AND C.G. ZOLLWEG. 1992. The response of plants to interacting stresses: TREGRO version 1.74 description and parameter requirements. The Electric Power Res. Inst., Palo Alto, CA.