Ben C. Scheele

Dr. Ben C. Scheele


Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

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

Representative Publications

View All Publications
29 March 2019 in Science
Verified
Journal Article
Closed access
PDF file
BSBen C. Scheele
Ben C. Scheele
Frank PasmansFrank Pasmans
Frank Pasmans
LSLee F. Skerratt
Lee F. Skerratt
LBLee Berger
Lee Berger
AMAn Martel
An Martel
SCStefano Canessa
Stefano Canessa
The demise of amphibians?: Rapid spread of disease is a hazard in our interconnected world. The chytrid fungus Batrachochytrium dendrobatidis was identified in amphibian populations about 20 years ago and has caused death and species extinction at a global scale. Scheele et al. found that the fungus has caused declines in amphibian populations everywhere except at its origin in Asia (see the Perspective by Greenberg and Palen). A majority of species and populations are still experiencing decline, but there is evidence of limited recovery in some species. The analysis also suggests some conditions that predict resilience. Science , this issue p. 1459 ; see also p. 1386

27 June 2014 in Conservation Biology
Verified
Journal Article
Closed access
PDF file
BSBen C. Scheele
Ben C. Scheele
DHDavid A. Hunter
David A. Hunter
LGLaura Grogan
Laura Grogan
LBLee Berger
Lee Berger
JKJon E. Kolby
Jon E. Kolby
DDDon A. Driscoll
Don A. Driscoll

1 May 2017 in Trends in Ecology & Evolution
Verified
Journal Article
Closed access
BSBen C. Scheele
Ben C. Scheele
CFClaire N. Foster
Claire N. Foster
SBSam C. Banks
Sam C. Banks
DLDavid B Lindenmayer
David B Lindenmayer

22 April 2015 in Proceedings Of The Royal Society B-Biological Sciences
Verified
Journal Article
Open access
ABArnaud Bataille
Arnaud Bataille
SCScott D. Cashins
Scott D. Cashins
LGLaura Grogan
Laura Grogan
LSLee F. Skerratt
Lee F. Skerratt
DHDavid Hunter
David Hunter
BWBruce Waldman
Bruce Waldman
The pathogenic chytrid fungusBatrachochytrium dendrobatidis(Bd) can cause precipitous population declines in its amphibian hosts. Responses of individuals to infection vary greatly with the capacity of their immune system to respond to the pathogen. We used a combination of comparative and experimental approaches to identify major histocompatibility complex class II (MHC-II) alleles encoding molecules that foster the survival of Bd-infected amphibians. We found that Bd-resistant amphibians across four continents share common amino acids in three binding pockets of the MHC-II antigen-binding groove. Moreover, strong signals of selection acting on these specific sites were evident among all species co-existing with the pathogen. In the laboratory, we experimentally inoculated Australian tree frogs with Bd to test how each binding pocket conformation influences disease resistance. Only the conformation of MHC-II pocket 9 of surviving subjects matched those of Bd-resistant species. This MHC-II conformation thus may determine amphibian resistance to Bd, although other MHC-II binding pockets also may contribute to resistance. Rescuing amphibian biodiversity will depend on our understanding of amphibian immune defence mechanisms against Bd. The identification of adaptive genetic markers for Bd resistance represents an important step forward towards that goal.

26 May 2017 in Science
Verified
Journal Article
Closed access
PDF file
DLDavid B Lindenmayer
David B Lindenmayer
BSBen C. Scheele
Ben C. Scheele
Limiting open-access information on rare and endangered species will help to protect them

1 October 2018 in Journal of Environmental Management
Verified
Journal Article
Closed access
BSBen C. Scheele
Ben C. Scheele
SLSarah M. Legge
Sarah M. Legge
DAD.P. Armstrong
D.P. Armstrong
PCP. Copley
P. Copley
NRN. Robinson
N. Robinson
DLDavid B Lindenmayer
David B Lindenmayer