Abstract
The net photosynthetic rate (NP) of any autotrophic plant can be affected by a variety of external and internal factors. Extensive work with higher plants would suggest photosynthetically active photon flux density (PPFD) as a dominant factor, together with C02 concentration, temperature and diffusion resistance of the photosynthesising structure. Also, probably because of the strong interest in stomatal regulation, there has been considerable emphasis on leaf and canopy resistances. In recent years the adaptive significance of different photosynthetic pathways (C3, C4, CAM) has been extensively researched and, with this, water-use efficiency has become a central issue.
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References
Ahmadjian, V.A., and Hale, M.E., 1973, “The Lichens,” Academic Press, New York and London.
Badger, M.R., Kaplan, A., and Berry, J.A., 1980, Internal inorganic carbon pool of Chlamydomonas reinhardtii. Evidence for a carbon dioxide — concentrating mechanism, Plant Physiology, 66: 407–413.
Brown, R.H., 1980, Photosynthesis of grass species differing in carbon dioxide fixation pathways IV. Analysis of reduced oxygen responses in Panicum milioidesand Panicum schenckii, Plant Physiology, 65: 346–349.
Collins, C.A., and Farrar, J.F., 1978, Structural resistances to mass transfer in the lichen Xanthoria parietina, New Phytologist, 81: 71–83.
Cowan, D.A., Green, T.G.A., and Wilson, A.T., 1979, Lichen metabolism I. The use of tritium labelled water in studies of anhydrobiotic metabolism in Ramalina celastriand Peltigera polydactyla, New Phytologist, 82: 489–503.
Coxson, D.S., and Kershaw, K.A., 1984, Low temperature acclimation of net photosynthesis in the crustaceous lichen Caloplaca trachyphylla(Tuck.) A. Zahlbr., Canadian Journal of Botany, 62: 86–95.
Gates, D.M., and Papian, E.L., 1971, “Atlas of energy budgets of plant leaves,” Academic Press, New York.
Goebel, K., 1926, Morphologische and biologische Studien VII. Ein Beitrag zur Biologie der Flechten, Annales Jardin Botanique Buitenzorg, 36: 1–83.
Green, T.G.A., and Snelgar, W.P., 1981a, Carbon dioxide exchange in lichens: Relationship between net photosynthetic rate and CO2 concentration, Plant Physiology, 68: 199–201.
Green, T.G.A., and Snelgar, W.P. 1981b, Carbon dioxide exchange in lichens: Partition of total CO2 resistances at different thallus water contents into transport and carboxylation components, Physiologia Plantarum, 52: 411–416.
Green, T.G.A., and Snelgar, W.P., 1982a, Carbon dioxide exchange in lichens: relationship between the diffusive resistance of carbon dioxide and water vapour, The Lichenologist, 14: 255–260.
Green, T.G.A., and Snelgar, W.P., 1982b, A comparison of photosynthesis in two thalloid liverworts, Oecologia, 54: 275–280,
Green, T.G.A., Snelgar, W.P., and Brown, D.H., 1981, Carbon dioxide exchange in lichens. CO2 exchange through the cyphellate lower cortex of Sticta latifronsRich., New Phytologist, 88: 421–426.
Hale, M.E., 1974, “The Biology of Lichens,” Arnold, London.
Harris, G.P., 1976, Water content and productivity of lichens, in: “Water and Plant Life — Problems and Modern Approaches,” O.L. Lange, L. Kappen and E-D. Schulze, eds, pp. 452–468, Springer Verlag, Berlin.
Henssen, A., and Jahns, H.M., 1974, “Lichens, Eine Einfuhrung in die Flechtenkunde,” George Thieme Verlag, Stuttgart.
Hill, D.J., 1976, The physiology of lichen symbioses, in: “Lichenology: Progress and Problems,” D.H. Brown, D.L. Hawksworth and R.H. Bailey, eds, pp. 457–496, Academic Press, London.
Jarvis, P.G., 1971, The estimation of resistances to carbon dioxide transfer, in: “Plant Photosynthetic Production Manual of Methods,” Z. Sestak, J. Catsky and P.G. Jarvis, eds, pp. 566–631, W. Junk, The Hague.
Jones, G.J., and Norton, T.A., 1979, Internal factors controlling the rate of evaporation from fronds of some intertidal algae, New Phytologist, 83: 771–781.
Kennedy, R.A., Eastburn, J.L., and Jensen, K.G., 1980, C3-C4 photo-synthesis in the genus Mollugo: structure, physiology and evolution of intermediate characteristics, American Journal of Botany, 67: 1207–1217.
Kershaw, K.A., 1972, The relationship between moisture content and net assimilation rate of lichen thalli and its ecological significance, Canadian Journal of Botany, 50: 543–555.
Kershaw, K.A., 1977, Physiological-environmental interactions in lichens II. The pattern of net photosynthesis acclimation in Peltigera canina(L.) Willd. var. praetextata(Floerke in Somm.) Hue. and P. polydactyla(Neck.) Hoffm., New Phytologist, 79: 377–390.
Kershaw, K.A., and Smith, M.M., 1978, Studies on lichen dominated systems XXI. The control of seasonal rates of net photo-synthesis by moisture, light and temperature in Stereocaulon paschale, Canadian Journal of Botany, 56: 2825–2830.
Lange, O.L., 1980, Moisture content and CO2 exchange of lichens I. Influence of temperature on moisture-dependent net photosynthesis and dark respiration in Ramalina maciformis, Oecologia, 45: 82–87.
Lange, O.L., Geiger, I.L., and Schulze, E-D., 1977, Ecophysiological investigations on lichens of the Negev Desert V. A model to simulate net photosynthesis and respiration of Ramalina maciformis, Oecologia, 28: 247–259.
Lange, O.L., and Matthes, U., 1981, Moisture dependent CO2 exchange of lichens, Photosynthetica, 15: 555–574.
Lange, O.L., Schulze, E-D., Kappen, L., Buschbom, U., and Evenari, M., Bryologist, 83: 505–507.
Snelgar, W.P., and Green, T.G.A., 1981a, Ecologically linked variations in morphology, acetylene reduction and water relations in Pseudocyphellaria dissimilis, New Phytologist, 87: 403–411.
Snelgar, W.P., and Green, T.G.A., 1981, Carbon dioxide exchange in lichens: Apparent photorespiration and possible role of CO2 refixation in some members of the Stictaceae (Lichenes), Journal of Experimental Botany, 32: 661–668.
Snelgar, W.P., and Green, T.G.A., 1982, Growth rates of Stictaceae lichens in New Zealand beech forests, The Bryologist, 85: 301–306.
Snelgar, W.P., Green, T.G.A., and Beltz, C.K., 1981a, Carbon dioxide exchange in lichens: Estimation of internal thallus CO2 transport resistances, Physiologia Plantarum, 52: 417–422.
Snelgar, W.P., Green, T.G.A., and Wilkins, A.L., 1981b, Carbon dioxide exchange in lichens: resistances to CO2 uptake at different thallus water contents, New Phytologist, 88: 353–361.
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© 1985 Plenum Press, New York
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Green, T.G.A., Snelgar, W.P., Wilkins, A.L. (1985). Photosynthesis, Water Relations and Thallus Structure of Stictaceae Lichens. In: Brown, D.H. (eds) Lichen Physiology and Cell Biology. Springer, Boston, MA. https://doi.org/10.1007/978-1-4613-2527-7_5
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DOI: https://doi.org/10.1007/978-1-4613-2527-7_5
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