Sudden oak death: endangering California and Oregon forest ecosystems
By David M. Rizzo, M. Garbelotto. 2003
453 citations recorded by the source corpus.
Subfields: Cell Biology, Molecular Biology, Plant Science
View Paper: https://www.semanticscholar.org/paper/3334038b5fda21d5c6fdd56dfbc19bf1f5bce9f3
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Cell Biology
- Ross K. Meentemeyer
- Tomás Václavík
- T. E. Condeso
- J. Cushman
- I. Parker
- João A. N. Filipe
- C. Gilligan
- Richard D. Hunter
In Molecular Biology
- Ross K. Meentemeyer
- Tomás Václavík
- T. E. Condeso
- J. Cushman
- João A. N. Filipe
- C. Gilligan
- Richard D. Hunter
- Alex R. Cook
In Plant Science
- Ross K. Meentemeyer
- Tomás Václavík
- J. Cushman
- John A. Kupfer
- João A. N. Filipe
- C. Gilligan
- Richard D. Hunter
- Alex R. Cook
Citations in the corpus
- Sudden oak death in California: Disease progression in oaks and tanoaks (2005, background): “The degree of pathogenicity varies by host species; in most, the disease causes foliar blights and twig cankers, with some hosts apparently serving as disease reservoirs (Rizzo and Garbelotto, 2003).”
- Multi‐scale patterns of human activity and the incidence of an exotic forest pathogen (2008, background): “Because of its recent appearance, high virulence, genetic structure and geographic distribution, P. ramorum is thought to be non-native in both North America and Europe (Werres et al . 2001; Brasier 2003; Rizzo & Garbelotto 2003 ), although its exact region of origin is still unknown (D. M. Rizzo, ”
- Epidemiological modeling of invasion in heterogeneous landscapes: spread of sudden oak death in California (1990–2030) (2011, methodology): “…in forests, using Bayesian Markov chain Monte Carlo methods (Cook et al. 2008), with the effects of weather conditions on transmission parameters informed by published field and laboratory studies (Davidson et al. 2002, Davidson et al. 2003, Rizzo and Garbelotto 2003, Davidson et al. 2005).”
- Effects of landscape heterogeneity on the emerging forest disease sudden oak death (2007, methodology): “For example, fire suppression may have increased the area and density of woodlands in Sonoma County relative to historic levels (R.K. Meentemeyer & J.H. Cushman, unpublished data) and created conditions which favour disease (Rizzo & Garbelotto 2003; Moritz & Odion 2005).”
- Forest Ecosystem Responses to Exotic Pests and Pathogens in Eastern North America (2006, background): “…ramorum, the pathogenic organism responsible for sudden oak death, has caused severe decline in some oak and tanoak species in the western United States, and has recently spread to the eastern United States through widespread shipments of contaminated nursery stock (Rizzo and Garbelotto 2003).”
- The Evolutionary Ecology of Novel Plant-Pathogen Interactions (2004, background): “This may be the case in the Sudden Oak Death epidemic, where Phytophthora ramorum reproduces prolifically on the reasonably tolerant Arbutus menziesii but is often lethal on Lithocarpus and Quercus, where it has low fecundity (Garbelotto et al. 2003, Rizzo & Garbelotto 2003).”
- The potential of symptomless potted plants for carrying invasive soilborne plant pathogens (2015, background): “Among examples that have recently emerged are the most lethal pathogens ever witnessed in native forests, such as sudden oak death syndrome (Rizzo & Garbelotto, 2003) and jarrah dieback (Dell & Malajczuk, 1989).”
- Establishment of an emerging generalist pathogen in redwood forest communities (2005, background): “Within this coarse scale distribution, the presence of P. ramorum across the landscape is patchy, with many invaded forests juxtaposed with non-invaded forests (Rizzo & Garbelotto 2003).”
- Mapping the risk of establishment and spread of sudden oak death in California (2004, background): “ramorum growth is best at mild temperatures (Rizzo and Garbelotto, 2003).”