Journal of Veterinary Medicine and Health
Open Access

Veterinary public health; One Health; Zoonotic diseases; Food safety; Antimicrobial resistance; Surveillance; Interdisciplinary collaboration

Introduction

Veterinary public health encompasses the intersection of veterinary medicine [1], public health, and environmental health, focusing on the prevention, control, and mitigation of health risks associated with animals that impact human populations [2]. This field recognizes the interconnectedness of animal, human, and environmental health and adopts a holistic approach to address emerging challenges. With globalization, urbanization, climate change, and other drivers influencing disease dynamics, veterinary public health plays an increasingly vital role in protecting public health and promoting animal welfare [3]. This article explores the importance of veterinary public health, current strategies and challenges, and potential future directions to enhance its effectiveness in addressing evolving health threats [4].

Importance of Veterinary Public Health

Veterinary public health is essential for several reasons. Firstly, zoonotic diseases, which originate in animals and can be transmitted to humans [5], represent a significant public health concern. Diseases such as avian influenza, rabies, and Ebola virus disease highlight the potential impact of zoonoses on global health security. Veterinary public health efforts aim to detect, monitor, and control these diseases through surveillance, vaccination campaigns, and outbreak investigations [6]. Secondly, ensuring food safety is a key component of veterinary public health. Contamination of food products with pathogens such as Salmonella, Campylobacter, and E. coli can lead to foodborne illnesses in humans. Veterinary public health professionals work to establish and enforce regulations for safe food production [7], processing, and distribution, minimizing the risk of foodborne disease outbreaks. Thirdly, antimicrobial resistance poses a growing threat to both animal and human health. The misuse and overuse of antibiotics in veterinary medicine contribute to the development of resistant bacteria, compromising the effectiveness of treatment options for infections in animals and humans alike. Veterinary public health initiatives promote judicious antimicrobial use, antimicrobial stewardship programs, and surveillance of antimicrobial resistance to preserve the efficacy of these critical drugs [8].

Challenges in Veterinary Public Health

Despite its importance, veterinary public health faces several challenges. One challenge is the need for interdisciplinary collaboration. Effective veterinary public health interventions require expertise from diverse fields, including veterinary medicine [9], public health, epidemiology, microbiology, ecology, and sociology. Collaborative efforts are essential to address complex health issues at the human-animal-environment interface. Another challenge is the globalization of trade and travel, which facilitates the rapid spread of infectious diseases. Emerging pathogens can cross borders quickly [10], necessitating coordinated surveillance and response mechanisms at national and international levels. Strengthening global health security requires investment in surveillance networks, laboratory capacity, and communication systems to detect and contain disease threats. Furthermore, resource constraints and competing priorities may limit the capacity of veterinary public health systems to respond effectively to health crises. Many low- and middle-income countries face challenges in funding veterinary services, infrastructure development, and workforce training. Addressing these disparities requires investment in capacity building, technology transfer, and sustainable development initiatives.

Future Directions in Veterinary Public Health

To enhance the effectiveness of veterinary public health, several strategies can be pursued. Firstly, adopting a One Health approach, which recognizes the interconnectedness of human, animal, and environmental health, can inform holistic solutions to complex health challenges. By integrating expertise from multiple disciplines, One Health initiatives can address emerging zoonotic diseases, food safety risks, and environmental health threats more effectively. Secondly, leveraging advances in technology and data analytics can enhance surveillance, early detection, and response capabilities. Tools such as geographic information systems (GIS), genomic sequencing, and mobile health applications enable real-time monitoring of disease trends, rapid outbreak investigations, and targeted interventions. Investing in digital health infrastructure and capacity building can strengthen veterinary public health systems worldwide. Thirdly, promoting education and training in veterinary public health is essential to develop a skilled workforce capable of addressing evolving health risks. Training programs for veterinarians, public health professionals, and other stakeholders should emphasize interdisciplinary collaboration, evidence-based decision-making, and communication skills. By investing in human capital development, countries can build resilient public health systems capable of responding to emerging threats.

Conclusion

Veterinary public health plays a crucial role in protecting animal and human populations from health risks associated with animals. By addressing zoonotic diseases, food safety concerns, antimicrobial resistance, and environmental health risks, veterinary public health efforts contribute to global health security and sustainable development. To enhance its effectiveness, veterinary public health initiatives should embrace interdisciplinary collaboration, leverage technology and data analytics, and invest in education and training. By adopting a One Health approach and strengthening veterinary public health systems worldwide, we can build a healthier and more resilient future for both animals and humans.

References

1. Festing MFW, Altma DG (2002) Guidelines for the design and statistical analysis of experiments using laboratory animals. ILAR J 43:244-58.

              Indexed at, Cross Ref, Google Scholar

2. Granstrom DE (2003) Agricultural (nonbiomedical) animal research outside the laboratory: a review of guidelines for institutional animal care and use committees. ILAR J 44:206-10.

              Indexed at, Cross Ref, Google Scholar

3. Taylor JD, Baumgartner A, Schmid TE, Brinkworth MH (2019) Responses to genotoxicity in mouse testicular germ cells and epididymal spermatozoa are affected by increased age.  Toxicol Lett 310:1-6.

Indexed at, Google Scholar, CrossRef

4. Hill D, Sugrue I, Arendt E, Hill C, Stanton C, et al. (2017) Recent advances in microbial fermentation for dairy and health. F1000Research 6:1-5

Indexed at, Google Scholar, CrossRef

5. Nuttall TJ, Marsella R, Rosenbaum MR, Gonzales AJ, Fadok VA, et al. ( 2019) Update on pathogenesis, diagnosis, and treatment of atopic dermatitis in dogs. J Am Vet Med Assoc 254:1291-1300.

              Indexed at, Cross Ref, Google Scholar

6. Domenico Santoro (2019) Therapies in canine atopic dermatitis: an update. Vet Clin North Am Small Anim Pract 49:9-26.

              Indexed at, Cross Ref, Google Scholar

7. Bond R, Morris DO, Guillot J, Bensignor EJ, Robson D, et al. (2020) Biology, diagnosis and treatment of malassezia dermatitis in dogs and cats: clinical consensus guidelines of the world association for veterinary dermatology. Vet Dermatol 31:75.

              Indexed at, Cross Ref, Google Scholar

8. Olivry T (2011) Is the skin barrier abnormal in dogs with atopic dermatitis? Vet Immunol Immunopathol 144:11-6.

              Indexed at, Cross Ref, Google Scholar

9. Mueller RS, Rosenkrantz W, Bensignor E, Karaś-Tęcza J, Paterson T, et al. (2020) Diagnosis and treatment of demodicosis in dogs and cats: clinical consensus guidelines of the world association for veterinary dermatology. Vet Dermatol 31:5-27.

              Indexed at, Cross Ref, Google Scholar

10. Cicero L, Fazzotta S, Palumbo V D, Cassata G, Monte AIL, et al.( 2018) Anesthesia protocols in laboratory animals used for scientific purposes. Acta Biomed 89:337-342.

              Indexed at, Cross Ref, Google Scholar