Emerging Themes and Approaches in Plant Virus Epidemiology

生物 寄主(生物学) 植物病毒 载体(分子生物学) 传输(电信) 领域(数学) 疾病 流行病学 病毒 生物技术 生态学 风险分析(工程) 病毒学 计算机科学 遗传学 医学 电信 基因 重组DNA 内科学 数学 病理 纯数学
作者
Michael Jeger,Nik J. Cunniffe,Fred Hamelin
出处
期刊:Phytopathology [Scientific Societies]
卷期号:113 (9): 1630-1646 被引量:3
标识
DOI:10.1094/phyto-10-22-0378-v
摘要

Plant diseases caused by viruses share many common features with those caused by other pathogen taxa in terms of the host-pathogen interaction, but there are also distinctive features in epidemiology, most apparent where transmission is by vectors. Consequently, the host-virus-vector-environment interaction presents a continuing challenge in attempts to understand and predict the course of plant virus epidemics. Theoretical concepts, based on the underlying biology, can be expressed in mathematical models and tested through quantitative assessments of epidemics in the field; this remains a goal in understanding why plant virus epidemics occur and how they can be controlled. To this end, this review identifies recent emerging themes and approaches to fill in knowledge gaps in plant virus epidemiology. We review quantitative work on the impact of climatic fluctuations and change on plants, viruses, and vectors under different scenarios where impacts on the individual components of the plant-virus-vector interaction may vary disproportionately; there is a continuing, sometimes discordant, debate on host resistance and tolerance as plant defense mechanisms, including aspects of farmer behavior and attitudes toward disease management that may affect deployment in crops; disentangling host-virus-vector-environment interactions, as these contribute to temporal and spatial disease progress in field populations; computational techniques for estimating epidemiological parameters from field observations; and the use of optimal control analysis to assess disease control options. We end by proposing new challenges and questions in plant virus epidemiology.

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