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D. Spence, J. Chrystal (1970)
Photosynthesis and zonation of fresh-water macrophytes. 1. Depth distribution and shade tolerance.New Phytologist, 69
(1990)
The colonization of disturbed freshwater habitats by Characeae
J. Schutten, A. Davy (2000)
Predicting the hydraulic forces on submerged macrophytes from current velocity, biomass and morphologyOecologia, 123
M. Berg, H. Coops, J. Simons, Annemarie Keizer (1998)
Competition between Chara aspera and Potamogeton pectinatus as a function of temperature and lightAquatic Botany, 60
E. Best, H. Woltman, F. Jacobs (1996)
Sediment-related growth limitation of Elodea nuttallii as indicated by a fertilization experimentFreshwater Biology, 36
E. Jeppesen, J. Jensen, P. Kristensen, M. Søndergaard, E. Mortensen, O. Sortkjær, K. Olrik (1990)
Fish manipulation as a lake restoration tool in shallow, eutrophic, temperate lakes 2: threshold levels, long-term stability and conclusionsHydrobiologia, 200-201
E. Nes, M. Scheffer, M. Berg, H. Coops (2002)
Dominance of charophytes in eutrophic shallow lakes : when should we expect it to be an alternative stable state?Aquatic Botany, 72
M. Scheffer, M. Redelijkheid, F. Noppert (1992)
Distribution and dynamics of submerged vegetation in a chain of shallow eutrophic lakesAquatic Botany, 42
G. Hutchinson (1957)
A treatise on limnology.
M. Berg, H. Coops, J. Simons, J. Pilon (2002)
A comparative study of the use of inorganic carbon resources by Chara aspera and Potamogeton pectinatusAquatic Botany, 72
D. Spence, J. Chrystal (1970)
PHOTOSYNTHESIS AND ZONATION OF FRESHWATER MACROPHYTESNew Phytologist, 69
M. Scheffer (1997)
Ecology of Shallow Lakes
Irmgard Blindow (1992)
Decline of charophytes during eutrophication: Comparison with angiospermsFreshwater Biology, 28
M. Scheffer, Hosper Sh, Meijer Ml, B. Moss, E. Jeppesen (1993)
Alternative equilibria in shallow lakes.Trends in ecology & evolution, 8 8
R. Noordhuis, D. Molen, M. Berg (2002)
Response of herbivorous water-birds to the return of Chara in Lake veluwemeer, The NetherlandsAquatic Botany, 72
J. Barko, R. Smart (1983)
Effects of organic matter additions to sediment on the growth of aquatic plantsJournal of Ecology, 71
Irmgard Blindow (1992)
Long- and short-term dynamics of submerged macrophytes in two shallow eutrophk lakesFreshwater Biology, 28
R. Moen, Y. Cohen (1989)
Growth and competition between potamogeton pectinatus L. and Myriophyllum exalbescens fern. in experimental ecosystemsAquatic Botany, 33
G. Calado, P. Duarte (2000)
Modelling growth of Ruppia cirrhosaAquatic Botany, 68
M. Berg, M. Scheffer, E. Nes, H. Coops (1999)
Dynamics and stability of Chara sp. and Potamogeton pectinatus in a shallow lake changing in eutrophication levelHydrobiologia, 408-409
M. Hill, R. Jongman, C. Braak, O. Tongeren (1987)
Data analysis in community and landscape ecologyJournal of Animal Science
S. Weisner, J. Strand, Håkan Sandsten (1997)
Mechanisms regulating abundance of submerged vegetation in shallow eutrophic lakesOecologia, 109
A. Fielding, J. Bell (1997)
A review of methods for the assessment of prediction errors in conservation presence/absence modelsEnvironmental Conservation, 24
T. Rea, D. Karapatakis, K. Guy, J. Pinder, H. Mackey (1998)
The relative effects of water depth, fetch and other physical factors on the development of macrophytes in a small southeastern US pondAquatic Botany, 61
A. Middelboe, S. Markager (1997)
Depth limits and minimum light requirements of freshwater macrophytesFreshwater Biology, 37
E. Nes, M. Scheffer, M. Berg, H. Coops (2003)
Charisma: a spatial explicit simulation model of submerged macrophytesEcological Modelling, 159
D. Spencer, M. Rejmánek (1989)
Propagule type influences competition between two submersed aquatic macrophytesOecologia, 81
M. Remillard, R. Welch (1993)
GIS technologies for aquatic macrophyte studies: Modeling applicationsLandscape Ecology, 8
T. Ozimek, A. Kowalczewski (1984)
Long-term changes of the submerged macrophytes in eutrophic lake Mikołajskie (North Poland)Aquatic Botany, 19
A. Smolders, J. Roelofs (1993)
Sulphate-mediated iron limitation and eutrophication in aquatic ecosystemsAquatic Botany, 46
D. Spence (1982)
zonation of plants in freshwater lakesAdvances in Ecological Research, 12
(2003)
Stochastic stream catchment - lake ecosystem modeling for evaluating management scenario ’ s for submerged macrophytes and nutrient loading
(1985)
Relations between water transparency and maximum depth of macrophyte colonization in lakes
G. Cumming (2000)
Using between‐model comparisons to fine‐tune linear models of species rangesJournal of Biogeography, 27
P. Chambers, Jacob Kaiff (1985)
Depth distribution and biomass of submersed aquatic macrophyte communities in relation to Secchi depthCanadian Journal of Fisheries and Aquatic Sciences, 42
H. Coops, R. Doef (1996)
Submerged vegetation development in two shallow, eutrophic lakesHydrobiologia, 340
Logistic regression was used to analyse the relationship between six submerged macrophyte taxa (Chara spp., Potamogeton perfoliatus, Potamogeton pectinatus, Potamogeton pusillus, Myriophyllum spicatum, Alisma gramineum and sum of all species) and four environmental variables (turbidity, effective wind fetch, water depth and sediment silt percentage, including interactions and some quadratic terms). The models were based on intensive vegetation samples (total c. 72 000) and other monitoring data carried out in five Dutch shallow lakes in the IJsselmeer area from 1988 to 1998. Water depth and light extinction were the most important factors determining the occurrence of all studied species in Veluwemeer, while effective wind fetch had a moderate effect and sediment silt had only a minor effect on the occurrence. Water depth had a negative impact on all species, except A. gramineum, which showed an optimum response. Three species showed an optimum response at intermediate turbidity (M. spicatum, P. pusillus and P. pectinatus), whereas the other taxa were negatively related. Three species (Chara spp., P. perfoliatus and M. spicatum) were positively related to wind fetch or showed an optimum response at intermediate value, whereas P. pusillus, P. pectinatus and A. gramineum were negatively related. The models including interactions between the explanatory variables showed a high goodness of fit for Veluwemeer for Chara, P. pectinatus and M. spicatum (in more than 8 of 10 instances, a cell originally scored `1' are predicted to have a higher probability than the ones originally scored `0'). The models of the other species showed a moderate goodness of fit (between 6 and 8 of 10 instances correctly predicted). The models developed for Veluwemeer were valid for Chara in all the four other lakes (more than 8 of 10 instances correctly predicted), while the models of other species were valid in some instances. A succession of vegetation was recognised based on water depth and turbidity in Veluwemeer. P. perfoliatus and P. pectinatus dominated the shallow zones under turbid conditions, but a change to dominance by Chara occurred in clear water. Based on the observation of co-occurrence, competition has played an important role for the shift from P. pectinatus to Chara. Chara became dominant 2 years after initial colonisation of Chara in P. pectinatus beds. Competition between P. perfoliatus and Chara may have been of less importance, due to a more distinct habitat (deeper colonisation) of dense P. perfoliatus beds. The analysed species showed large differences in vegetation stability from year-to-year. Chara showed the highest year to year stability (c. 65% of the cells remained covered from one year to another), while A. gramineum showed the highest dynamics (c. 10% of the cells remained covered from one year to another). Species producing specialized vegetative propagules for over wintering showed a higher local stability than species without such propagules.
Hydrobiologia – Springer Journals
Published: Oct 10, 2004
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