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A Survey of Patterns of Diversity in Non-Lichenized Fungi

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A Survey of Patterns of Diversity in Non-Lichenized Fungi Mitt. Eidgenöss. Forsch.anst. Wald Schnee Landsch. 70, 1: 157-173 (1995) A Survey of Patterns of Diversity in Non-Lichenized Fungi D. Jean Lodge1, I. Chapela, G. Samuels, F. A. Uecker, D. Desjardin, E. Horak, O. K. Miller, Jr., G. L. Hennebert, C. A. Decock, J. Ammirati, H. H. Burdsall. Jr., P. M. Kirk, D. W. Minter, R. Hailing, T. Laessøe, G. Mueller, Sabine Huhndorf, F. Oberwinkler, D. N. Pegler, B. Spooner, R. H. Petersen, J. D. Rogers, L. Ryvarden, R. Watling, Evelyn Turnbull, A. J. S. Whalley. 1Center for Forest Mycology Research, Forest Products Lab, USDA-Forest Service, Luquillo, PR 00773-1377, USA Addresses of the co-authors see page 173 Abstract This paper summarizes the opinions of 26 mycologists who have worked in more than one hemli- sphere or continent regarding the locations, correlates, and potential causes of centers of fungal en- demism and diversity in non-lichenized fungi. These views were initially obtained via a survey and then summarized by the lead author. Most authors working on basidiomycetes thought that fun- gal diversity was more strongly correlated with host and habitat diversity than with resource abun- dance, whereas most of those working on ascomycetes and Hyphomycetes indicated that all three factors were very important. Overall diversity was highest in the tropics, at intermediate to high rainfall. and at middle to low elevations. Certain fungal groups, however. such as the Cortinaria- ceae (Agaricales), and some members of the Heterobasidiomycetes are more diverse at middle to high latitudes and elevations. There was no apparent variation in Gasteromycete diversity with latitude. The Neotropics were ranked as having a greater diversity of fungi than Africa by three of the four authors with experience in both. Although this pattern might be related to historical fac- tors or to a higher diversity of host plants in the Neotropics, collections of fungi from Africa and the Asian tropics have been too limited to make confident comparisons between continents Ex- cept for the Gasteromycetes and certain plant parasites, Europe was always ranked lowest in fun- gal diversity when it was included in comparisons, even though collecting has been most intense there. The types of areas most frequently mentioned as having many species that are unknown elsewhere were humid forests on islands, tropical mountaintops, and large tropical river basins For example. Australia, New Zealand, New Guinea, Sulawesi, the Andes, and parts of Africa and South Amer- ica. especially the Congo and Amazon river basins were thought to have many unique species, These areas encompass many wet to moist centers of endemism for plants. The concordance suggests that despite differences in the mechanisms of dispersal and sexual incompatibility, there may be similar forces governing the isolation and speciation of plants and fungi growing in humid areas Some plant parasitic Heterobiasidomycetes that are host-restricted occur in all regions and habi- tats, including dry ones. Species with limited ranges also appear to be common in the Agaricales regardless of the region. Unfortunately, there is currently too little knowledge of fungal mating sys- tems and dispersal barriers with regard to their roles in fungal evolution and distribution. The vari- ous gaps, hypotheses, and global patterns of fungal diversity identified in this paper are worthy of pursuit through experiments anti comparable surveys. Keywords: fungi, diversity, endemism, dispersal, reproductive isolation, speciation 157 1 Introduction There is a growing consensus that there are at least one million, and perhaps 1.5 million or more species of fungi in the world (HAWKSWORTH 1991, 1993: HAMMOND 1992: Ross- MAN 1994). Mycology has been represented in recent forums on global biodiversity (e.g., H AMMOND 1992), but the types of information commonly available for plants and ani- mals is unfortunately often lacking or fragmentary for fungi. Because relatively few my- cotas are thoroughly known, it is difficult to know which species have truly restricted geo- graphic ranges, where centers of high diversity lie, and what factors are related to fungal diversity. Such issues are crucial to the conservation of fungal diversity. In the absence of complete knowledge, the expert opinions of mycologists with broad geographical experi- ence are valuable for suggesting where our conservation efforts might be directed with greatest effect in the short term, and for suggesting hypotheses about fungal diversity and evolution that may be worthy of further pursuit and testing. This paper summarizes the opinions of the 26 authors who have studied fungi in more than one hemisphere regard- ing the locations, correlates, and potential causes of centers of fungal endemism and di- versity. 2 Methods A survey was sent to 22 mycologists who were known to have worked with various basi- diomycetes, ascomycetes, or anamorphic stages (asexual states) of non-lichenized fungi on more than one hemisphere or continent. Nineteen of the authors came from this group, and an additional seven came from colleagues of the 22 who were contacted initi- ally. Some authors combined their responses to the survey for a particular group. while others supplied separate information for two different groups. In all, 29 surveys are sum- marized below, representing 17 for basidiomycetes, one for macrofungi (mostly large ba- sidiomycetes). seven for ascomycetes, and four for fungi that are primarily asexual or veg- etative states of ascomycetes (Hyphomycetes and plant endophytic fungi) (Tab. l). Two responses were for a given genus, seven for families, seven for orders, six for higher taxonomic groupings, two for Hyphomycetes, and four for ecological or other groups (Gasteromycetes, ant-fungus gardens, plant endophytes. and macromycetes). These views were then summarized by the lead author. The classification of geographical regions into areas of high, intermediate or low rain- fall depends on the degree to which moisture losses from evapotranspiration are balanc- ed or exceeded by inputs from precipitation, so it varies with temperature regimes, lati- tude, and altitude (HOLDRIDGE 1947). The amount of annual precipitation associated with the Rain Forest and Rain Tundra life zones, as defined by HOLDRIDGE (1947), (high rainfall in this survey) is 500-1000 mm in Alpine elevational belts at Subpolar latitudes, 2000-4000 mm in Boreal Subalpine and Cool Temperate Montane areas, 4000-8000 mm in Lower Montane and Premontane elevational belts at Warm Temperate and Subtropi- cal latitudes. and greater than 8000 mm in lowlands at tropical latitudes. Intermediate rain- fall, associated with Wet and Moist Forests and Tundra plant formations, occurs with an annual precipitation of 125–500 mm in Alpine elevational belts at Subpolar latitudes, 250–1000 mm in Subalpine elevational belts at Boreal latitudes, 500-2000 mm in Mon- 158 Mitt. Eidgenöss. Forsch.anst. Wald Schnee Landsch. 70, 1 (1995) Mitt. Eidgenöss. Forsch.anst. Wald Schnee Landsch. 70. 1 (1995) 159 3 Results 3.1 Latitude Overall diversity is higher at low latitudes in the Hymenomycetes (Homo- and Hetero- basidiomycetes, excluding rusts and smuts), and macrofungi (primarily basidiomycetes), but there are mixed patterns of diversity with latitude at lower taxonomic levels (Tab. 2). For example, diversity is greatest at middle latitudes in the Homobasidiomycetes, in- creases or decreases with latitude among the Heterobasidiomycetes and related corticia- ceous Homobasidiomycetes depending on the family or genus (OBERWINKLER 1993), and follows no pattern among the Gasteromycetes as a whole, though certain families or or- ders, such as the Phallales, are more diverse in the tropics and subtropics (DRING 1980, M ILLER and MILLER 1988). The Gasteromycetes arc a polyphyletic, ecological group (MALENÇON 1931, REIJNDERS 1963, SMITH and SINGER 1958, HORAK and MOSER 1965, H EIM 1971, BAS 1975, WATLING 1982, MILLER and WATLING 1987, MILLER and MILLER 1988). Among the Aphyllophorales (Cantharellales, Hericiales, Poriales, Ganodermales, Bondarzewiales, Fistulinales, Lachnocladiales, Stereales, and Thelephorales) there was a consensus that diversity was higher at middle and low latitudes than at high latitudes With- in the Aphyllophorales, there are more species of polypore fungi in tropical Africa than in temperate Europe, despite the comparatively light collecting in Africa (Polyporaceae; RYVARDEN 1993). A similar pattern of higher diversity in the New World tropics may oc- cur in the Agaricales. The diversity of agarics associated with ant fungus-gardens, how- ever, is highest in subtropical South America and decreases as one goes north through Central America into temperate North America. Strong latitudinal gradients in diversity were more apparent among some basidiomycetes families, but the direction of the change differed among groups or hemispheres. For example, within the Agaricales, the Cortina- riaceae is more diverse at middle to high latitudes in both the northern and southern hemispheres (HORAK 1979, MOSER and HORAK 1975), while the Tricholomataceae and Agaricaceae appear to be more diverse in the tropics (DENNIS 1970). In the New World, the diversity of Boletales decreases as one approaches the equator, but there is no cor- responding increase in diversity at higher latitudes in the southern hemisphere. The New World Boletales are mostly ectomycorrhizal symbionts of trees in the Pinaceae, Fagaceae and Salicaceae, and their diversity follows the distribution of their host plants.
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