Last data update: Dec 09, 2024. (Total: 48320 publications since 2009)
Records 1-5 (of 5 Records) |
Query Trace: Rekant S[original query] |
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Detection of SARS-CoC-2 in a squirrel monkey (Saimiri sciureus): A One Health investigation and response
Yaglom HD , Roth A , Alvarez C , Corbus E , Ghai RR , Ferguson S , Ritter JM , Hecht G , Rekant S , Engelthaler DM , Venkat H , Tygielski S . J Zoo Wildl Med 2024 55 (2) 471-478 Through collaborative efforts, One Health partners have responded to outbreaks of COVID-19 among animals, including those in human care at zoos. Zoos have been faced with numerous challenges, including the susceptibility of many mammalian species, and therefore the need to heighten biosecurity measures rapidly. Robust One Health collaborations already exist in Arizona to address endemic and emerging zoonoses, but these have rarely included zoos. The pandemic shed light on this, and Arizona subsequently expanded its SARS-CoV-2 surveillance efforts to include zoo animals. Testing and epidemiologic support was provided to expedite the detection of and response to zoonotic SARS-CoV-2 infection in zoo animals, as well as to understand possible transmission events. Resulting from this program, SARS-CoV-2 was detected from a rectal swab collected from an 8-yr-old squirrel monkey (Saimiri sciureus) from a zoo in Southern Arizona. The animal had rapidly become ill with nonrespiratory symptoms and died in July 2022. Genomic sequencing from the swab revealed mutations consistent with the Omicron (BA.2) lineage. An epidemiologic investigation identified an animal caretaker in close proximity to the affected squirrel monkey who tested positive for COVID-19 the same day the squirrel monkey died. Critical One Health partners provided support to the zoo through engagement of local, state, and federal agencies. Necropsy and pathologic evaluation showed significant necrotizing colitis; the overall clinical and histopathological findings did not implicate SARS-CoV-2 infection alone as a causal or contributing factor in the squirrel monkey's illness and death. This report documents the first identification of SARS-CoV-2 in a squirrel monkey and highlights a successful and timely One Health investigation conducted through multisectoral collaboration. |
Clinical and epidemiologic features of SARS-CoV-2 in dogs and cats compiled through national surveillance in the United States
Liew AY , Carpenter A , Moore TA , Wallace RM , Hamer SA , Hamer GL , Fischer RSB , Zecca IB , Davila E , Auckland LD , Rooney JA , Killian ML , Tell RM , Rekant SI , Burrell SD , Ghai RR , Behravesh CB . J Am Vet Med Assoc 2023 261 (4) 480-489 OBJECTIVE: To characterize clinical and epidemiologic features of SARS-CoV-2 in companion animals detected through both passive and active surveillance in the US. ANIMALS: 204 companion animals (109 cats, 95 dogs) across 33 states with confirmed SARS-CoV-2 infections between March 2020 and December 2021. PROCEDURES: Public health officials, animal health officials, and academic researchers investigating zoonotic SARS-CoV-2 transmission events reported clinical, laboratory, and epidemiologic information through a standardized One Health surveillance process developed by the CDC and partners. RESULTS: Among dogs and cats identified through passive surveillance, 94% (n = 87) had reported exposure to a person with COVID-19 before infection. Clinical signs of illness were present in 74% of pets identified through passive surveillance and 27% of pets identified through active surveillance. Duration of illness in pets averaged 15 days in cats and 12 days in dogs. The average time between human and pet onset of illness was 10 days. Viral nucleic acid was first detected at 3 days after exposure in both cats and dogs. Antibodies were detected starting 5 days after exposure, and titers were highest at 9 days in cats and 14 days in dogs. CLINICAL RELEVANCE: Results of the present study supported that cats and dogs primarily become infected with SARS-CoV-2 following exposure to a person with COVID-19, most often their owners. Case investigation and surveillance that include both people and animals are necessary to understand transmission dynamics and viral evolution of zoonotic diseases like SARS-CoV-2. |
Investigation of SARS-CoV-2 infection and associated lesions in exotic and companion animals.
Rotstein DS , Peloquin S , Proia K , Hart E , Lee J , Vyhnal KK , Sasaki E , Balamayooran G , Asin J , Southard T , Rothfeldt L , Venkat H , Mundschenk P , McDermott D , Crossley B , Ferro P , Gomez G , Henderson EH , Narayan P , Paulsen DB , Rekant S , Schroeder ME , Tell RM , Torchetti MK , Uzal FA , Carpenter A , Ghai R . Vet Pathol 2022 59 (4) 3009858211067467 Documented natural infections with severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) in exotic and companion animals following human exposures are uncommon. Those documented in animals are typically mild and self-limiting, and infected animals have only infrequently died or been euthanized. Through a coordinated One Health initiative, necropsies were conducted on 5 animals from different premises that were exposed to humans with laboratory-confirmed SARS-CoV-2 infection. The combination of epidemiologic evidence of exposure and confirmatory real-time reverse transcriptase-polymerase chain reaction testing confirmed infection in 3 cats and a tiger. A dog was a suspect case based on epidemiologic evidence of exposure but tested negative for SARS-CoV-2. Four animals had respiratory clinical signs that developed 2 to 12 days after exposure. The dog had bronchointerstitial pneumonia and the tiger had bronchopneumonia; both had syncytial-like cells with no detection of SARS-CoV-2. Individual findings in the 3 cats included metastatic mammary carcinoma, congenital renal disease, and myocardial disease. Based on the necropsy findings and a standardized algorithm, SARS-CoV-2 infection was not considered the cause of death in any of the cases. Continued surveillance and necropsy examination of animals with fatal outcomes will further our understanding of natural SARS-CoV-2 infection in animals and the potential role of the virus in development of lesions. |
Notes from the field: Monkey bite in a public park and possible exposure to herpes B virus - Thailand, 2018
Wu AC , Rekant SI , Baca ER , Jenkins RM , Perelygina LM , Hilliard JK , Schmid DS , Leman RF . MMWR Morb Mortal Wkly Rep 2020 69 (9) 247-248 On January 7, 2019, the Oregon Public Health Division (OPHD) was contacted by a local health department regarding an Oregon teen who, on December 24, 2018, was bitten by a macaque monkey (Figure) in a public park in Phuket, Thailand. The bleeding wound was immediately rinsed with bottled water without soap. Subsequently, hotel staff members applied a topical pain reliever. The following day, the teen went to a local clinic in Thailand and received the first dose of rabies postexposure prophylaxis vaccine; rabies immune globulin was not administered. She received 2 additional doses of rabies vaccine while in Thailand. | | On January 5, 2019, the patient left Thailand and was evaluated by a physician in Oregon on January 7. The physician contacted the local health department, seeking guidance about when to administer the final dose of rabies vaccine. Upon learning about the macaque bite, the local health department contacted OPHD, where staff members expressed concern about possible exposure to Macacine herpesvirus 1 (B virus). This virus, commonly found in macaques,* can, in rare cases, cause severe encephalitic infection in humans if not treated promptly (1). The case fatality rate of untreated B virus infection approaches 80% (2). OPHD contacted CDC, and the National B Virus Resource Center (NBVRC) in Atlanta, Georgia, to discuss testing.† |
Notes from the Field: Investigation of Colorado tick fever virus disease cases - Oregon, 2018
McDonald E , George D , Rekant S , Curren E , DeBess E , Hedberg K , Lutz J , Faith J , Kaisner H , Fawcett R , Sherer R , Kanyuch R , Gudmundsson A , Gardner N , Salt M , Kosoy O , Velez J , Staples E , Fischer M , Gould C . MMWR Morb Mortal Wkly Rep 2019 68 (12) 289-290 In early summer 2018, four cases of Colorado tick fever (CTF) were reported in residents of central Oregon; CTF virus infection was confirmed using CDC’s reverse transcription–polymerase chain reaction (RT-PCR) assay (1). CTF is caused by a coltivirus that is transmitted by infected Rocky Mountain wood ticks (Dermacentor andersoni) (2). The tick is found throughout the western United States and Canada, typically at 4,000–10,000 feet (1,219–3,048 meters) above sea level in grassy areas near sage brush (3). CTF virus causes an acute febrile illness with nonspecific symptoms, and although fatal cases are rare, up to 30% of persons with CTF virus disease require hospitalization (4). Because there is no definitive treatment for CTF virus disease, clinical management is supportive. Biphasic illness pattern, leukopenia, absence of rash, and place of exposure can help distinguish CTF from other arthropod-borne infections (2,5). CTF is a reportable condition in six states, including Oregon, but is not nationally notifiable. Over the past decade, the Oregon Health Authority has reported an average of less than one case of CTF per year. |
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