Studies of plant–pathogen interactions have historically focused on simple models of
infection involving single host-single disease systems. However, plant infections often …

Recent methodological advances have uncovered tremendous microbial diversity
cohabiting in the same host plant, and many of these microbes cause disease. In this review …

Co-infections by multiple pathogen strains are common in the wild. Theory predicts co-
infections to have major consequences for both within-and between-host disease dynamics …

Predicting the emergence, spread and evolution of parasites within and among host
populations requires insight to both the spatial and temporal scales of adaptation, including …

Long‐term observational studies conducted at large (regional) spatial scales contribute to
better understanding of landscape effects on population and evolutionary dynamics …

Multiple infections, either simultaneous or sequential, affecting a single plant or crop are
now recognized to be common in plant disease epidemics. These multiple infections thus …

Host individuals are often coinfected with diverse parasite assemblages, resulting in
complex interactions among parasites within hosts. Within hosts, priority effects occur when …

BACKGROUND Complex III inhibitors are key compounds in the control of Plasmopara
viticola. They are prone to the development of resistance, as demonstrated by the …

Infectious diseases dynamics are affected by both spatial and temporal heterogeneity in
their environments. Our ability to quantify and predict how this heterogeneity impacts risks of …

The common powdery mildew plant diseases are caused by ascomycete fungi of the order
Erysiphales. Their characteristic life style as obligate biotrophs renders functional analyses …