Laura Huber

Dr. Laura Huber

Department of Pathobiology, College of Veterinary Medicine, Auburn University, Auburn, AL 36849, USA

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

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

Representative Publications

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17 December 2020 in Antibiotics
Verified
Journal Article
Open access
PDF file
KTKatie Tiseo
Katie Tiseo
LHLaura Huber
Laura Huber
MGMarius Gilbert
Marius Gilbert
TRTimothy P. Robinson
Timothy P. Robinson
TBThomas P. Van Boeckel
Thomas P. Van Boeckel
Demand for animal protein is rising globally and has been facilitated by the expansion of intensive farming. However, intensive animal production relies on the regular use of antimicrobials to maintain health and productivity on farms. The routine use of antimicrobials fuels the development of antimicrobial resistance, a growing threat for the health of humans and animals. Monitoring global trends in antimicrobial use is essential to track progress associated with antimicrobial stewardship efforts across regions. We collected antimicrobial sales data for chicken, cattle, and pig systems in 41 countries in 2017 and projected global antimicrobial consumption from 2017 to 2030. We used multivariate regression models and estimated global antimicrobial sales in 2017 at 93,309 tonnes (95% CI: 64,443, 149,886). Globally, sales are expected to rise by 11.5% in 2030 to 104,079 tonnes (95% CI: 69,062, 172,711). All continents are expected to increase their antimicrobial use. Our results show lower global antimicrobial sales in 2030 compared to previous estimates, owing to recent reports of decrease in antimicrobial use, in particular in China, the world’s largest consumer. Countries exporting a large proportion of their production are more likely to report their antimicrobial sales data than countries with small export markets.

1 January 2019 in Antimicrobial Agents and Chemotherapy
Verified
Journal Article
Closed access
PDF file
LHLaura Huber
Laura Huber
SGSteeve Giguère
Steeve Giguère
NSNathan M. Slovis
Nathan M. Slovis
CCCraig N. Carter
Craig N. Carter
BBBonnie S. Barr
Bonnie S. Barr
JSJacqueline L. Smith
Jacqueline L. Smith
Objective: To determine the prevalence of R. equi strains resistant to macrolides and rifampicin over time in clinical samples from foals submitted to diagnostic laboratories in central Kentucky. Methods: Retrospective observational study of all clinical samples from foals that were submitted to veterinary diagnostics laboratories in Kentucky between January 1995 and December 2017. Samples were included if R. equi was cultured and tested for in vitro susceptibility to erythromycin or rifampicin. Results:In vitro susceptibility to erythromycin was available for 2169 isolates of R. equi while susceptibility to both erythromycin and rifampicin was available for 1681 isolates. Rifampicin resistance was first detected in 2000 and erythromycin resistance was first detected in 2004. Between 1995 and 2006, the proportion of resistant isolates of R. equi was 0.7% for erythromycin and 2.3% for rifampicin. There was a significant (P <0.001) increase in the proportion of resistant R. equi between 2007 and 2017, with 13.6% of isolates being resistant to erythromycin and 16.1% being resistant to rifampicin. Between 2007 and 2017, isolates of R. equi resistant to erythromycin or rifampicin were significantly less likely to be isolated from feces than from the respiratory tract, other soft tissues, or musculoskeletal infections. Conclusions: The considerable increase in the prevalence of isolates of R. equi resistant to macrolides and rifampicin since 2007 is of concern for both human and animal health.

21 February 2022 in Equine Veterinary Journal
Verified
Journal Article
Closed access
PDF file
ABAngela I. Bordin
Angela I. Bordin
LHLaura Huber
Laura Huber
MSMacarena G. Sanz
Macarena G. Sanz
NCNoah Cohen
Noah Cohen

1 September 2021 in Emerging Infectious Diseases
Verified
Journal Article
Open access
PDF file
LHLaura Huber
Laura Huber
AAAgnes Agunos
Agnes Agunos
SGSheryl P. Gow
Sheryl P. Gow
CCCarolee A. Carson
Carolee A. Carson
TBThomas P. Van Boeckel
Thomas P. Van Boeckel
Antimicrobial Use in Broiler Chickens, Canada

1 August 2019 in Veterinary Microbiology
Verified
Journal Article
Closed access
LHLaura Huber
Laura Huber
SGSteeve Giguère
Steeve Giguère
NCNoah Cohen
Noah Cohen
NSNathan M. Slovis
Nathan M. Slovis
AHAmanda Hanafi
Amanda Hanafi
KHKelsey A. Hart
Kelsey A. Hart

19 May 2021 in Microbiology and Molecular Biology Reviews
Verified
Journal Article
Closed access
PDF file
SASonsiray Alvarez-Narvaez
Sonsiray Alvarez-Narvaez
LHLaura Huber
Laura Huber
SGSteeve Giguère
Steeve Giguère
KHKelsey A. Hart
Kelsey A. Hart
RBRoy D. Berghaus
Roy D. Berghaus
NCNoah Cohen
Noah Cohen
SUMMARY The development and spread of antimicrobial resistance are major concerns for human and animal health. The effects of the overuse of antimicrobials in domestic animals on the dissemination of resistant microbes to humans and the environment are of concern worldwide. Rhodococcus equi is an ideal model to illustrate the spread of antimicrobial resistance at the animal-human-environment interface because it is a natural soil saprophyte that is an intracellular zoonotic pathogen that produces severe bronchopneumonia in many animal species and humans. Globally, R. equi is most often recognized as causing severe pneumonia in foals that results in animal suffering and increased production costs for the many horse-breeding farms where the disease occurs. Because highly effective preventive measures for R. equi are lacking, thoracic ultrasonographic screening and antimicrobial chemotherapy of subclinically affected foals have been used for controlling this disease during the last 20 years. The resultant increase in antimicrobial use attributable to this “screen-and-treat” approach at farms where the disease is endemic has likely driven the emergence of multidrug-resistant (MDR) R. equi in foals and their environment. This review summarizes the factors that contributed to the development and spread of MDR R. equi, the molecular epidemiology of the emergence of MDR R. equi, the repercussions of MDR R. equi for veterinary and human medicine, and measures that might mitigate antimicrobial resistance at horse-breeding farms, such as alternative treatments to traditional antibiotics. Knowledge of the emergence and spread of MDR R. equi is of broad importance for understanding how antimicrobial use in domestic animals can impact the health of animals, their environment, and human beings.