Spatio-temporal changes in chronic wasting disease risk in wild deer during 14 years of surveillance in Alberta, Canada

被引:9
|
作者
Smolko, Peter [1 ,2 ]
Seidel, Dana [3 ]
Pybus, Margo [1 ,4 ]
Hubbs, Anne [4 ]
Ball, Mark [4 ]
Merrill, Evelyn [1 ]
机构
[1] Univ Alberta, Dept Biol Sci, Edmonton, AB T6G 2E9, Canada
[2] Tech Univ Zvolen, Dept Appl Zool & Wildlife Management, Zvolen 96001, Slovakia
[3] Univ Calif Berkeley, Dept Environm Sci Policy & Management, Berkeley, CA 94720 USA
[4] Govt Alberta, Alberta Fish & Wildlife Div, Edmonton, AB T6H 4P2, Canada
关键词
Disease surveillance; Disease risk; Transmissible spongiform encephalopathy; Prion; Chronic wasting disease; Deer; WHITE-TAILED DEER; MULE DEER; TEMPORAL PATTERNS; GENETIC-ANALYSIS; SPACE USE; PREVALENCE; EPIDEMIOLOGY; POPULATION; TRANSMISSION; DYNAMICS;
D O I
10.1016/j.prevetmed.2021.105512
中图分类号
S85 [动物医学(兽医学)];
学科分类号
0906 ;
摘要
Disease risk modeling is a key first step to understand the spatio-temporal dynamics of wildlife disease and to direct cost-effective surveillance and management. In Alberta, active surveillance for chronic wasting disease (CWD) in wild cervids began in 1998 with the first case detected in free-ranging cervids in 2005. Following the detection, a herd reduction program was implemented during 2005-2008 and in 2006 the ongoing hunter-based CWD Surveillance Program became mandatory in high-risk Wildlife Management Units (WMU). We used data collected during the CWD surveillance program to 1) document growth in sex-specific CWD prevalence (proportion of deer in sample that is CWD-positive) in hunter-harvest deer in 6 WMUs consistently monitored from 2006 to 2018, 2) document landscape features associated with where CWD-positive compared to CWD-negative deer were removed during hunter harvest and herd reduction in an early (2005-2012) and in a late period (2013-2017), and 3) to map the spatial risk of harvesting a deer infected with CWD in the prairie parklands of Alberta. In the 6 continuously monitored WMUs, risk of a harvested deer being CWD positive increased from 2006 to 2018 with CWD prevalence remaining highest in male mule deer whereas overall growth rate in CWD prevalence was greater in female mule deer, but similar to male white-tailed deer. We found no evidence that the 3-year herd reduction program conducted immediately after CWD was first detected affected the rate at which CWD grew over the course of the invasion. Risk of deer being CWD-positive was the highest in animals taken near small stream drainages and on soils with low organic carbon content in the early period, whereas risk became highest in areas of agriculture especially when far from large river drainages where deer often concentrate in isolated woody patches. The change in the influence of proximity to known CWD-positive cases suggested the disease was initially patchy but became more spatially homogeneous over time. Our results indicate that a targeted-removal program will remove more CWD positive animals compared to hunter harvest. However, the discontinuation of targeted removals during our research program, restricted our ability to assess its long term impact on CWD prevalence.
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页数:10
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  • [1] Association mapping of genetic risk factors for chronic wasting disease in wild deer
    Matsumoto, Tomomi
    Samuel, Michael D.
    Bollinger, Trent
    Pybus, Margo
    Coltman, David W.
    [J]. EVOLUTIONARY APPLICATIONS, 2013, 6 (02): : 340 - 352
  • [2] Bovine spongiform encephalopathy, chronic wasting disease and scrapie (TSE surveillance) programs in Alberta, Canada
    Ortegon, Hernan
    Chow, Eva
    Coetser, Christa
    Hauer, Gerald
    Pybus, Margo
    Ulmer-Franco, Ana M.
    [J]. PRION, 2013, 7 : 27 - 27
  • [3] A statewide surveillance effort for detecting chronic wasting disease in wild white-tailed deer in Missouri
    Beringer, J
    Hansen, LP
    Millspaugh, JJ
    Mayer, T
    [J]. WILDLIFE SOCIETY BULLETIN, 2003, 31 (03) : 873 - 881
  • [4] Characterization of chronic wasting disease isolates from free-ranging deer (Odocoileus sp) in Alberta and Saskatchewan, Canada
    Velasquez, Camilo Duque
    Kim, Chiye
    Daude, Nathalie
    van der Merwe, Jacques
    Herbst, Allen
    Bollinger, Trent
    Aiken, Judd
    McKenzie, Debbie
    [J]. PRION, 2015, 9 : S20 - S21
  • [5] Spatio-temporal ecological models via physics-informed neural networks for studying chronic wasting disease
    Reyes, Juan Francisco Mandujano
    Ma, Ting Fung
    McGahan, Ian P.
    Storm, Daniel J.
    Walsh, Daniel P.
    Zhu, Jun
    [J]. SPATIAL STATISTICS, 2024, 62
  • [6] Spatio-temporal network analysis of pig trade to inform the design of risk-based disease surveillance
    Cardenas, Nicolas Cespedes
    VanderWaal, Kimberly
    Veloso, Flavio Pereira
    Ardila Galvis, Jason Onell
    Amaku, Marcos
    Grisi-Filho, Jose H. H.
    [J]. PREVENTIVE VETERINARY MEDICINE, 2021, 189
  • [7] Control and Surveillance Operations to Prevent Chronic Wasting Disease Establishment in Free-Ranging White-Tailed Deer in Quebec, Canada
    Gagnier, Marianne
    Laurion, Isabelle
    DeNicola, Anthony J.
    [J]. ANIMALS, 2020, 10 (02):
  • [8] Building a program for community-based monitoring of wildlife health - Lessons for surveillance of chronic wasting disease in moose and deer in Western Canada
    Parlee, Brenda L.
    Achimnachie, Kevin
    Posein, Greg
    [J]. PRION, 2016, 10 : S125 - S126
  • [9] The contribution of malaria control interventions on spatio-temporal changes of parasitaemia risk in Uganda during 2009–2014
    Julius Ssempiira
    Betty Nambuusi
    John Kissa
    Bosco Agaba
    Fredrick Makumbi
    Simon Kasasa
    Penelope Vounatsou
    [J]. Parasites & Vectors, 10
  • [10] The contribution of malaria control interventions on spatio-temporal changes of parasitaemia risk in Uganda during 2009-2014
    Ssempiira, Julius
    Nambuusi, Betty
    Kissa, John
    Agaba, Bosco
    Makumbi, Fredrick
    Kasasa, Simon
    Vounatsou, Penelope
    [J]. PARASITES & VECTORS, 2017, 10