Myxomycete diversity and distribution from the fossil record to the present
- 355 Downloads
- 39 Citations
Abstract
The myxomycetes (plasmodial slime molds or myxogastrids) are a group of eukaryotic microorganisms usually present and sometimes abundant in terrestrial ecosystems. Evidence from molecular studies suggests that the myxomycetes have a significant evolutionary history. However, due to the fragile nature of the fruiting body, fossil records of the group are exceedingly rare. Although most myxomycetes are thought to have very large distributional ranges and many species appear to be cosmopolitan or nearly so, results from recent studies have provided evidence that spatial distribution patterns of these organisms can be successfully related to (1) differences in climate and/or vegetation on a global scale and (2) the ecological differences that exist for particular habitats on a local scale. A detailed examination of the global distribution of four examples (Barbeyella minutissima, Ceratiomyxa morchella, Leocarpus fragilis and Protophysarum phloiogenum) demonstrates that these species have recognizable distribution patterns in spite of the theoretical ability of their spores to bridge continents.
Keywords
Distribution patterns Ecology Long-distance dispersal Microorganisms Slime moldsNotes
Acknowledgements
A major part of the specimen digitalization work which formed the basis for the distribution maps presented in this paper was carried out within a grant of the seed money program of GBIF International, coordinated by the second author. Another grant funded in the context of the Global Biodiversity of Eumycetozoans project (DEB-0316284) from the US National Science Foundation added data especially for the American continent. Appreciation is extended to many of our colleagues for providing additional information on records of particular species. Among these are G. Adamonité (Lithuania), U. Eliasson (Sweden), A. Estrada-Torrez (Mexico), A. Koshelova (Russia), C. Lado (Spain), R. McHugh (Ireland), M. Meyer (France), D. Wrigley de Basanta (Spain) and I. Zemlianskaya (Russia). We also wish to thank John Shadwick for helping produce the distribution maps of the four species.
References
- Alexopoulos CJ (1963) The myxomycetes II. Bot Rev 29:1–78CrossRefGoogle Scholar
- Alexopoulos CJ (1964) The rapid sporulation of some myxomycetes in moist chamber culture. Southwestern Nat 9:155–159CrossRefGoogle Scholar
- Alexopoulos CJ (1970) Rain forest myxomycetes. In: Odum HT (ed) A tropical rain forest. United States Atomic Energy Commission, Washington, DC, pp F21–F23Google Scholar
- Baldauf SL, Roger AJ, Wenk-Siefert J et al (2000) A kingdom-level phylogeny of eukaryotes based on combined protein data. Science 290:972–977 PubMedCrossRefGoogle Scholar
- Baldauf SL, Doolittle WF (1997) Origin and evolution of the slime molds (Mycetozoa). PNAS 94:12007–12012PubMedCrossRefGoogle Scholar
- Berkeley MJ (1857) Introduction to cryptogamic botany. Bailliere, LondonGoogle Scholar
- Blackwell M, Alexopoulos CJ (1975) Taxonomic studies in the Myxomycetes IV. Protophysarum phloiogenum, a new genus and species of Physaraceae. Mycologia 67:32–37 CrossRefGoogle Scholar
- Blackwell M, Gilbertson RL (1980) Sonoran desert myxomycetes. Mycotaxon 11:139–149Google Scholar
- Castillo A, Illana C, Moreno G (1998) Protophysarum phloiogenum and a new family in the Physarales. Mycol Res 102:838–842CrossRefGoogle Scholar
- Clark J (2000) The species problem in the myxomycetes. Stapfia 73:39–53Google Scholar
- Clark J, Stephenson SL (2000) Biosystematics of the myxomycete Physarum melleum. Nova Hedwigia 71:161–164Google Scholar
- Collins OR (1980) Apomictic-heterothallic conversion in a myxomycete, Didymium iridis. Mycologia 72:1109–1116 CrossRefGoogle Scholar
- Collins OR (1981) Myxomycete genetics, 1960–1981. J Elisha Mitchell Sci Soc 97:101–125Google Scholar
- Domke W (1952) Der erste sichere Fund eines Myxomyceten im Baltischen Bernstein (Stemonitis splendens Rost Fa Succini fa Nov Foss). Mitteilungen aus dem Geologischen Staatsinstitut in Hamburg 21:154–161Google Scholar
- Dörfelt H, Schmidt AR, Ullmann P et al (2003) The oldest fossil myxogastroid slime mold. Mycol Res 107:123–126PubMedCrossRefGoogle Scholar
- El Hage N, Little C, Clark L et al (2000) Biosystematics of Didymium squamulosum. Mycologia 92:54–64CrossRefGoogle Scholar
- Eliasson UH (1981) Patterns of occurrence of myxomycetes in a spruce forest in south Sweden. Holarctic Ecology 4:20–31Google Scholar
- Eliasson UH (1991) The myxomycete biota of the Hawaiian Islands. Mycol Res 95:257–267CrossRefGoogle Scholar
- Eliasson UH, Lundqvist N (1979) Fimicolous myxomycetes. Bot Not 132:551–568Google Scholar
- Eliasson UH, Keller HW (1999) Coprophilous myxomycetes: updated summary, key to species, and taxonomic observations on Trichia brunnea, Arcyria elaterensis, and Arcyria stipata. Karstenia 39:1–10Google Scholar
- Farr ML (1976) Myxomycetes. Flora Neotropica, Monograph 16. New York Botanical Garden, New YorkGoogle Scholar
- Feest A (1987) The quantitative ecology of soil Mycetozoa. Prog Protist 2:331–361Google Scholar
- Feest A, Madelin MF (1985) A method for the enumeration of myxomycetes in soils and its application to a wide range of soils. FEMSW Microbiol Ecol 31:103–109CrossRefGoogle Scholar
- Fenchel T, Finlay BJ (2004) The ubiquity of small species: patterns of local and global diversity. Bio Science 54:777–784Google Scholar
- Finlay BJ (2002) Global dispersal of free-living microbial eukaryotic species. Science 296:1061–1063PubMedCrossRefGoogle Scholar
- Fiore-Donno A-M, Berney C, Pawlowski J et al (2005) Higher-order phylogeny of plasmodial slime molds (Myxogastria) based on elongation factor 1-A and small subunit rRNA gene sequences. J Eukaryot Microbiol 52:1–10CrossRefGoogle Scholar
- Foissner W (2006) Biogeography and dispersal of micro-organisms: a review emphasizing protests. Acta Protozool 45:111–136Google Scholar
- Gilbert HC, Martin GW (1933) Myxomycetes found on the bark of living trees. Univ Iowa Stud Nat Hist 15:3–8Google Scholar
- Graham A (1971) The role of Myxomyceta spores in palynology (with a brief note on the morphology of certain algal zygospores). Review Palaeobot Palynol 11:89–99CrossRefGoogle Scholar
- Griffin DW, Kellogg CA, Shinn EA (2001) Dust in the wind: long range transport of dust in the atmosphere and its implications for global public and ecosystem health. Glob Change Hum Health 2:20–33CrossRefGoogle Scholar
- Griffin DW, Kellogg CA, Garrison VH et al (2002) The global transport of dust. Am Scientist 90:230–237Google Scholar
- Härkönen M (1977) Corticolous myxomycetes in three different habitats in southern Finland. Karstenia 17:19–32Google Scholar
- Härkönen M (1981) Myxomycetes developed on litter of common Finnish trees in moist chamber cultures. Nordic J Bot 1:791–794CrossRefGoogle Scholar
- Hudson HJ (1986) Fungal biology. Edward Arnold, Baltimore, MarylandGoogle Scholar
- Hutchinson GE (1951) Copepodology for the ornithologist. Ecology 32:571–577CrossRefGoogle Scholar
- Irawan B, Clark J, Stephenson SL (2000) Biosystematics of the Physarum compressum morphospecies. Mycologia 92:884–893CrossRefGoogle Scholar
- Kalyanasundaram I (1997) Myxomycetes in the tropics: distribution and ecology. In: Janardhanan KK, Rajendran C, Natarajan K, Hawksworth DL (eds) Tropical mycology. Science Publishers Inc, Enfield, New Hampshire, pp 227–237Google Scholar
- Keller HW, Brooks TE (1976) Corticolous myxomycetes V: observations on the genus Echinostelium. Mycologia 68:1204–1220CrossRefGoogle Scholar
- Kellogg CA, Griffin DW (2006) Aerobiology and the global transport of desert dust. Trends Ecol Evol 21:638–644PubMedCrossRefGoogle Scholar
- Kerr SJ (1994) Frequency of recovery of myxomycetes from soils of the northern United States. Canad J Bot 72:771–778CrossRefGoogle Scholar
- Kowalski DT (1967) Observations on the Dianemaceae. Mycologia 59:1075–1084CrossRefGoogle Scholar
- Kowalski DT (1970) The species of Lamproderma. Mycologia 62:621–672PubMedCrossRefGoogle Scholar
- Kowalski DT (1971) The genus Lepidoderma. Mycologia 63:490–516CrossRefGoogle Scholar
- Lado C (2001) Nomenmyx. A nomenclatural taxabase of Myxomycetes. Cuadernos de Trabajo Flora Micológica Ibérica 16:1–221Google Scholar
- Madelin MF (1984) Myxomycetes, microorganisms and animals: a model of diversity in animal-microbial interactions. In: Anderson JN, Rayner ADA, Walton DWH (eds) Invertebrate-microbial interactions. Cambridge University Press, New York, pp 1–33Google Scholar
- Madelin MF (1990) Methods for studying the ecology and population dynamics of soil myxomycetes. Meth Microbiol 22:405–416CrossRefGoogle Scholar
- Martin GW, Alexopoulos CJ (1969) The Myxomycetes. Univ of Iowa Press, Iowa CityGoogle Scholar
- Martin GW, Alexopoulos CJ, Farr ML (1983) The genera of myxomycetes. Univ of Iowa Press, Iowa CityGoogle Scholar
- Mayr E (1970) Population, species, and evolution. Belknap Press, Harvard Univ Press, CambridgeGoogle Scholar
- Meier FC, Lindbergh CA (1935) Collecting micro-organisms from the Arctic atmosphere. Sci Mon 40:5–20Google Scholar
- Mitchell DW (1980) A Key to the corticolous Myxomycetes. The British Mycological Society, Cambridge, EnglandGoogle Scholar
- Mosquera J, Lado C, Beltrán-Tejera E (2000) Morphology and ecology of Didymium subreticulosporum. Mycologia 92:978–983CrossRefGoogle Scholar
- Muñoz J, Felicisimo AM, Cabezas F et al (2004) Wind as a long-distance dispersal vehicle in the Southern Hemisphere. Science 304:1144–1147PubMedCrossRefGoogle Scholar
- Nannenga–Bremekamp NE (1989) Notes on myxomycetes XXIII. Seven new species of Myxomycetes. Proc Koninkl Nederl Akad Wet C 92:505–515 Google Scholar
- Neubert H, Nowotny W, Baumann K (1993) Die Myxomyceten Deutschlands und des angrenzenden Alpenraumes unter besonderer Berücksichtigung Österreichs. Band 1 Ceratiomyxales, Echinosteliales, Liceales, Trichales. Baumann, Gomaringen, GermanyGoogle Scholar
- Novozhilov YK, Schnittler M, Stephenson SL (1998) Analysis of myxomycete diversity of Russian subarctic and arctic areas. Mikol Fitopatol 32:27–33Google Scholar
- Novozhilov YK, Schnittler M, Stephenson SL (1999) Myxomycetes of the Taimyr Peninsula (north–central Siberia). Karstenia 39:77–97Google Scholar
- Olive LS (1970) The Mycetozoa: a revised classification. Bot Rev 36:59–87CrossRefGoogle Scholar
- Olive LS (1975) The Mycetozoans. Academic Press, New YorkGoogle Scholar
- Olive LS, Stoianovitch C (1979) Observations of the mycetozoan genus Ceratiomyxa: description of a new species. Mycologia 71:546–555CrossRefGoogle Scholar
- Pando F et al (2003) MA Cryptogamic collections online databases. http://wwwrjbcsices/herbario/crypto/crydbhtm. Cited 01 Jan 2007
- Poole AL, Adams NM (1990) Trees and shrubs of New Zealand. DSIR Publishing, Wellington, New ZealandGoogle Scholar
- Schnittler M (2000) Foliicolous liverworts as a microhabitat for Neotropical myxomycetes. Nova Hedwigia 72:259–270Google Scholar
- Schnittler M (2001) Ecology of myxomycetes of a winter-cold desert in western Kazakhstan. Mycologia 93:653–669CrossRefGoogle Scholar
- Schnittler M, Mitchell DW (2000) Species diversity in myxomycetes based on the morphological species concept – a critical examination. Stapfia 73:55–62Google Scholar
- Schnittler M, Novozhilov YK (1996) The myxomycetes of boreal woodlands in Russian northern Karelia: a preliminary report. Karstenia 36:19–40Google Scholar
- Schnittler M, Novozhilov YK (2000) Myxomycetes of the winter-cold desert in western Kazakhstan. Mycotaxon 74:267–285Google Scholar
- Schnittler M, Stephenson SL (2000) Myxomycete biodiversity in four different forest types in Costa Rica. Mycologia 92:626–637CrossRefGoogle Scholar
- Schnittler M, Stephenson SL (2001) Inflorescences of Neotropical herbs as a new microhabitat for myxomycetes. Mycologia 94:6–20CrossRefGoogle Scholar
- Schnittler M, Lado C, Stephenson SL (2002) Rapid biodiversity assessment of a tropical myxomycete assemblage – Maquipucuna Cloud Forest Reserve, Ecuador. Fungal Divers 9:135–167Google Scholar
- Schnittler M, Stephenson SL, Novozhilov YK (2000) Ecology and world distribution of Barbeyella minutissima (Myxomycetes). Mycol Res 104:1518–1523CrossRefGoogle Scholar
- Stephenson SL (1988) Distribution and ecology of myxomycetes in temperate forests I. Patterns of occurrence in the upland forests of southwestern Virginia. Can J Bot 66:2187–2207Google Scholar
- Stephenson SL (1989) Distribution and ecology of myxomycetes in temperate forests II. Patterns of occurrence on bark surface of living trees, leaf litter, and dung. Mycologia 81:608–621CrossRefGoogle Scholar
- Stephenson SL (2003) Myxomycetes associated with decaying fronds of Nikau palm (Rhopalostylis sapida) in New Zealand. NZ J Bot 41:311–317Google Scholar
- Stephenson SL (2004) Distribution and ecology of myxomycetes in southern Appalachian subalpine coniferous forests. In: Cribbs CL (ed) Fungi in forest ecosystems: diversity, ecology, and systematics. New York Botanical Garden, Bronx, pp 203–212Google Scholar
- Stephenson SL, Cavender JC (1996) Dictyostelids and myxomycetes. In: Hall GS (ed) Methods for the examination of organismal diversity in soils and sediments. CAB International, Oxon, UK, pp 91–101Google Scholar
- Stephenson SL, Estrada-Torres A, Schnittler M et al (2001) Distribution and ecology of myxomycetes in the forests of Yucatan. In: Gómez–Pompa A, Allen M, Fedick S et al (eds) Lowland Maya area: three millennia at the human–wildland interface. Haworth Press, New YorkGoogle Scholar
- Stephenson SL, Kalyanasundaram I, Lakhanpal TN (1993) A comparative biogeographical study of myxomycetes in the mid-Appalachians of eastern North America and two regions of India. J Biogeogr 20:645–657CrossRefGoogle Scholar
- Stephenson SL, Landolt JC (1996) The vertical distribution of dictyostelids and myxomycetes in the soil/litter microhabitat. Nova Hedwigia 62:105–117Google Scholar
- Stephenson SL, Landolt JC (1998) Dictyostelid cellular slime molds in canopy soils of tropical forests. Biotropica 30:657–661CrossRefGoogle Scholar
- Stephenson SL, Landolt JC, Moore DL (1999) Protostelids, dictyostelids, and myxomycetes in the litter microhabitat of the Luquillo experimental forest, Puerto Rico. Mycol Res 103:209–214CrossRefGoogle Scholar
- Stephenson SL, Laursen GA (1993) A preliminary report on the distribution and ecology of myxomycetes in Alaskan tundra. Biblthca mycol 150:251–257Google Scholar
- Stephenson SL, Laursen GA (1998) Myxomycetes from Alaska. Nova Hedwigia 66:425–434Google Scholar
- Stephenson SL, Laursen GA, Seppelt RD (2007) Myxomycetes of subantarctic Macquarie Island. Austral J Bot (in press)Google Scholar
- Stephenson SL, Moreno G (2006) A new species of Didymium (Myxomycetes) from subantarctic Macquarie Island. Mycol Progr 5:255–258CrossRefGoogle Scholar
- Stephenson SL, Novozhilov YK, Schnittler M (2000) Distribution and ecology of myxomycetes in high-latitude regions of the northern hemisphere. J Biogeogr 27:741–754CrossRefGoogle Scholar
- Stephenson SL, Schnittler M, Lado C et al (2004) Studies of Neotropical mycetozoans. Syst Geogr Plants 74:87–108Google Scholar
- Stephenson SL, Stempen H (1994) Myxomycetes: a handbook of slime molds. Timber Press, Portland, OregonGoogle Scholar
- Stephenson SL, Studlar SM (1985) Myxomycetes fruiting upon bryophytes: coincidence or preference? J Bryology 13:537–548Google Scholar
- Swap R, Garstang M, Greco S et al (1996) Saharan dust in the Amazon Basin. Tellus 44:133–149Google Scholar
- Thom C, Raper KD (1930) Myxamoebae in soil and decomposing crop residues. J Wash Acad Sci 20:362–370Google Scholar
- Waggoner BM, Poinar GO Jr (1992) A fossil myxomycete plasmodium from Eocene-Oligocene amber of the Dominican Republic. J Euk Microbiol 39:639–642Google Scholar
- Wrigley de Basanta D (2000) Acid deposition in Madrid and corticolous myxomycetes. Stapfia 73:113–120Google Scholar