Book contents
- Frontmatter
- Contents
- List of contributors
- Preface
- 1 Effects of climate change on fungal diseases of trees
- 2 Effects of climate change on Fusarium foot rot of winter wheat in the United Kingdom
- 3 Effects of UV-B radiation (280–320 nm) on foliar saprotrophs and pathogens
- 4 Implications of global warming and rising sea-levels for macrofungi in UK dune systems
- 5 Red Data Lists and decline in fruiting of macromycetes in relation to pollution and loss of habitat
- 6 Effects of dry-deposited SO2 and sulphite on saprotrophic fungi and decomposition of tree leaf litter
- 7 Effects of atmospheric pollutants on phyllosphere and endophytic fungi
- 8 Influences of acid mist and ozone on the fluorescein diacetate activity of leaf litter
- 9 Mycorrhizas and environmental stress
- 10 Myccorhizas, succession, and the rehabilitation of deforested lands in the humid tropics
- 11 Potential effects on the soil mycoflora of changes in the UK agricultural policy for upland grasslands
- 12 Uptake and immobilization of caesium in UK grassland and forest soils by fungi, following the Chernobyl accident
- 13 Effects of pollutants on aquatic hyphomycetes colonizing leaf material in freshwaters
- 14 Fungi and salt stress
- 15 Fungal sequestration, mobilization and transformation of metals and metalloids
- 16 Urban, industrial and agricultural effects on lichens
- 17 Fungal interactions with metals and radionuclides for environmental bioremediation
- 18 Impact of genetically-modified microorganisms on the terrestrial microbiota including fungi
- 19 Has chaos theory a place in environmental mycology?
- Index of generic and specific names
- Subject index
7 - Effects of atmospheric pollutants on phyllosphere and endophytic fungi
Published online by Cambridge University Press: 05 November 2011
- Frontmatter
- Contents
- List of contributors
- Preface
- 1 Effects of climate change on fungal diseases of trees
- 2 Effects of climate change on Fusarium foot rot of winter wheat in the United Kingdom
- 3 Effects of UV-B radiation (280–320 nm) on foliar saprotrophs and pathogens
- 4 Implications of global warming and rising sea-levels for macrofungi in UK dune systems
- 5 Red Data Lists and decline in fruiting of macromycetes in relation to pollution and loss of habitat
- 6 Effects of dry-deposited SO2 and sulphite on saprotrophic fungi and decomposition of tree leaf litter
- 7 Effects of atmospheric pollutants on phyllosphere and endophytic fungi
- 8 Influences of acid mist and ozone on the fluorescein diacetate activity of leaf litter
- 9 Mycorrhizas and environmental stress
- 10 Myccorhizas, succession, and the rehabilitation of deforested lands in the humid tropics
- 11 Potential effects on the soil mycoflora of changes in the UK agricultural policy for upland grasslands
- 12 Uptake and immobilization of caesium in UK grassland and forest soils by fungi, following the Chernobyl accident
- 13 Effects of pollutants on aquatic hyphomycetes colonizing leaf material in freshwaters
- 14 Fungi and salt stress
- 15 Fungal sequestration, mobilization and transformation of metals and metalloids
- 16 Urban, industrial and agricultural effects on lichens
- 17 Fungal interactions with metals and radionuclides for environmental bioremediation
- 18 Impact of genetically-modified microorganisms on the terrestrial microbiota including fungi
- 19 Has chaos theory a place in environmental mycology?
- Index of generic and specific names
- Subject index
Summary
Introduction
Plant leaf surfaces (here termed the phyllosphere) are colonized by a wide range of bacteria, yeasts and filamentous fungi. They include epiphytic fungi, endophytes and pathogens. The total community and its structure are influenced by a range of abiotic and biotic factors. These include not just atmospheric pollutants but also wind, precipitation, water availability and pH. Microbial community structure may also be influenced by the presence of nutrients from insect honey dew, pollen, leaf exudates and organic debris. Interactions between abiotic and biotic factors can occur. For example, atmospheric pollutants have been demonstrated to markedly increase the weathering of conifer needle surfaces and to decrease the protective wax fibrillar structure (Rinallo et al., 1986), which could increase nutrient exudates in the phyllosphere and thus influence patterns of colonization and perhaps senescence of needles.
The impact of atmospheric pollutants on both epiphytic and endophytic fungi colonizing plant leaves has received increasing attention by being implicated directly or indirectly in ‘forest decline’ in parts of Europe where significant premature senescence and defoliation of forests occurred in the 1970s and 1980s (Boddy et al., this volume; Schutt & Cowling, 1985; Kandler, 1990). For example, Rehfuess and Rodenkirchen (1985) implicated the endophytes Lophodermium piceae and Rhizosphaera kalkhoffii in premature senescence and needle reddening disease. However, Butin and Wagner (1985) suggested that they may be only early colonizers of dying or dead needles and therefore not involved in such forest decline syndromes.
- Type
- Chapter
- Information
- Fungi and Environmental Change , pp. 90 - 101Publisher: Cambridge University PressPrint publication year: 1996
- 2
- Cited by