Climate change and plant diseases

Ghini, R.; Hamada, E.; Bettiol, W.

doi:10.1590/s0103-90162008000700015

Cited by 122 publications

(90 citation statements)

References 54 publications

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“…Nonetheless, in many cases an increased frequency and severity of fires can decrease the ability of forests to provide goods and services (Sturrock et al 2011). It is also possible that warmer temperatures may make it easier to deploy biological control in some cases, although there is still little available information on the impacts of climate change on plant disease biological control (Ghini et al 2008;Compant et al 2010). …”

Section: Direct Effects Of Climate Change On Plant Pathosystemsmentioning

confidence: 99%

Impacts of climate change on plant diseases—opinions and trends

et al. 2012

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There has been a remarkable scientific output on the topic of how climate change is likely to affect plant diseases. This overview addresses the need for review of this burgeoning literature by summarizing opinions of previous reviews and trends in recent studies on the impacts of climate change on plant health. Sudden Oak Death is used as an introductory case study: Californian forests could become even more susceptible to this emerging plant disease, if spring precipitations will be accompanied by warmer temperatures, although climate shifts may also affect the current synchronicity between host cambium activity and pathogen colonization rate. A summary of observed and predicted climate changes, as well as of direct effects of climate change on pathosystems, is provided. Prediction and management of climate change effects on plant health are complicated by indirect effects and the interactions with global change drivers. Uncertainty in models of plant disease development under climate change calls for a diversity of management strategies, from more participatory approaches to interdisciplinary science. Involvement of stakeholders and scientists from outside plant pathology shows the importance of trade-offs, for example in the land-sharing vs. sparing debate. Further research is needed on climate change and plant health in mountain, boreal, Mediterranean and tropical regions, with multiple climate change factors and scenarios (including our responses to it, e.g. the assisted migration of plants), in relation to endophytes, viruses and mycorrhiza, using long-term and large-scale datasets and considering various plant disease control methods.Keywords Adaptive ecosystem management . Biotic interactions . Landscape pathology . Phytophthora ramorum . Plant disease epidemiology . Tree fungal pathogens Up to the 1990s, there was little information about climate change impacts on plant disease. For example, Eur J Plant Pathol

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Section: Direct Effects Of Climate Change On Plant Pathosystemsmentioning

confidence: 99%

Impacts of climate change on plant diseases—opinions and trends

et al. 2012

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“…Given the potential impact of ongoing climate change on disease risk for humans (McMichael 2006;Estrada-Pena 2009) and other organisms (e.g. Ghini et al 2008;Gale et al 2009), such information will undoubtedly be important, especially for threatened or endangered taxa (Smith et al 2009). …”

Section: Introductionmentioning

confidence: 99%

Thermoregulatory behaviour affects prevalence of chytrid fungal infection in a wild population of Panamanian golden frogs

2009

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Predicting how climate change will affect disease dynamics requires an understanding of how the environment affects host-pathogen interactions. For amphibians, global declines and extinctions have been linked to a pathogenic chytrid fungus, Batrachochytrium dendrobatidis. Using a combination of body temperature measurements and disease assays conducted before and after the arrival of B. dendrobatidis, this study tested the hypothesis that body temperature affects the prevalence of infection in a wild population of Panamanian golden frogs (Atelopus zeteki ). The timing of first detection of the fungus was consistent with that of a wave of epidemic infections spreading south and eastward through Central America. During the epidemic, many golden frogs modified their thermoregulatory behaviour, raising body temperatures above their normal set point. Odds of infection decreased with increasing body temperature, demonstrating that even slight environmental or behavioural changes have the potential to affect an individual's vulnerability to infection. The thermal dependency of the relationship between B. dendrobatidis and its amphibian hosts demonstrates how the progression of an epidemic can be influenced by complex interactions between host and pathogen phenotypes and the environments in which they are found.

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“…In addition, the temperature and soil-dependent growth increases in cfu g -1 could be also valuable to discuss the use of these biocontrol agents in a future, considering temperature changes due to global warming (Ghini et al 2008). …”

Section: Discussionmentioning

confidence: 99%

Biocontrol capacity of wild and mutant Trichoderma harzianum (Rifai) strains on Rhizoctonia solani 618: effect of temperature and soil type during storage

Montealegre¹,

Valderrama²,

Herrera³

et al. 2009

Electro Journal of Biotech

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Wild (Th11, Th12 and Th650) and mutant (Th11A80.1, Th12A40.1, Th12C40.1 and Th650-NG7) Trichoderma harzianum strains were stored for 180 days at 5ºC or at 22ºC, in two types of soils. Strains recovered at 90, 120 and 180 days from the two types of soils, retained their full capacity to biocontrol Rhizoctonia solani 618, that produces crown and root rot of tomatoes. Recovery, estimated as colony forming units (cfu) of the wild and mutant strains, showed that all increased their cfu after storage independently of the type of soil and temperature, although kinetic behavior differed among strains. Ratios of recovery after storage in type B soil/ type A soil or at 22ºC/5ºC, higher or lower than one respectively, allowed to establish that Th11 and Th12 were the most appropriate strains for the biocontrol of R. solani in conditions where growth of the phytopathogen is optimal.

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Climate change and plant diseases

Cited by 122 publications

References 54 publications

Impacts of climate change on plant diseases—opinions and trends

Impacts of climate change on plant diseases—opinions and trends

Thermoregulatory behaviour affects prevalence of chytrid fungal infection in a wild population of Panamanian golden frogs

Biocontrol capacity of wild and mutant Trichoderma harzianum (Rifai) strains on Rhizoctonia solani 618: effect of temperature and soil type during storage

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