Jason Hoverman

Jason Hoverman

orcid

Research Focus & Metrics

Academic Career Length

24Years (2003-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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12 September 2006 in Ecology Letters
Verified
Journal Article
Closed access
PDF file
RRRick Relyea
Rick Relyea
JHJason Hoverman
Jason Hoverman

1 October 2008 in Nature
Verified
Journal Article
Closed access
JRJason Rohr
Jason Rohr
ASAnna M. Schotthoefer
Anna M. Schotthoefer
TRThomas R. Raffel
Thomas R. Raffel
HCHunter J. Carrick
Hunter J. Carrick
NHNeal Halstead
Neal Halstead
VBVal R. Beasley
Val R. Beasley

13 February 2013 in Nature
Verified
Journal Article
Closed access
PJPieter T. J. Johnson
Pieter T. J. Johnson
DPDaniel L. Preston
Daniel L. Preston
JHJason Hoverman
Jason Hoverman
KRKatherine L. D. Richgels
Katherine L. D. Richgels

3 December 2009 in Diseases of Aquatic Organisms
Verified
Journal Article
Open access
PDF file
MGMatthew J. Gray
Matthew J. Gray
DMDebra Miller
Debra Miller
JHJason Hoverman
Jason Hoverman
Mass mortality of amphibians has occurred globally since at least the early 1990s from viral pathogens that are members of the genus Ranavirus, family Iridoviridae. The pathogen infects multiple amphibian hosts, larval and adult cohorts, and may persist in herpetofaunal and osteichthyan reservoirs. Environmental persistence of ranavirus virions outside a host may be several weeks or longer in aquatic systems. Transmission occurs by indirect and direct routes, and includes exposure to contaminated water or soil, casual or direct contact with infected individuals, and ingestion of infected tissue during predation, cannibalism, or necrophagy. Some gross lesions include swelling of the limbs or body, erythema, swollen friable livers, and hemorrhage. Susceptible amphibians usually die from chronic cell death in multiple organs, which can occur within a few days following infection or may take several weeks. Amphibian species differ in their susceptibility to ranaviruses, which may be related to their co-evolutionary history with the pathogen. The occurrence of recent widespread amphibian population die-offs from ranaviruses may be an interaction of suppressed and naïve host immunity, anthropogenic stressors, and novel strain introduction. This review summarizes the ecological research on amphibian ranaviruses, discusses possible drivers of emergence and conservation strategies, and presents ideas for future research directions. We also discuss common pathological signs of ranaviral disease, methods for diagnostic evaluation, and ranavirus surveillance methods. In as much as ranaviral disease is listed as a notifiable disease by the World Organization for Animal Health and is a threat to amphibian survival, we recommend that biosecurity precautions are implemented by nations to reduce the likelihood of transporting ranavirus virions among populations. Biosecurity precautions include disinfecting footwear and equipment that comes in contact with surface water inhabited by amphibians and testing commercially shipped amphibians for the pathogen. We also encourage natural resource organizations to establish routine surveillance programs for ranaviruses in wild amphibian populations.

5 January 2012 in Ecology Letters
Verified
Journal Article
Closed access
PDF file
PJPieter T. J. Johnson
Pieter T. J. Johnson
JRJason R. Rohr
Jason R. Rohr
JHJason Hoverman
Jason Hoverman
EKEsra Kellermanns
Esra Kellermanns
JBJay Bowerman
Jay Bowerman
KLKevin B. Lunde
Kevin B. Lunde

1 September 2011 in Ecohealth
Verified
Journal Article
Closed access
PDF file
JHJason Hoverman
Jason Hoverman
MGMatthew J. Gray
Matthew J. Gray
NHNathan A. Haislip
Nathan A. Haislip
DMDebra Miller
Debra Miller