Lumpy skin complaint (LSD) is an economically significant, vector-transmitted viral complaint of cattle and Asian water buffalo caused by the Lumpy skin complaint contagion (LSDV), a member of the rubric Capripoxvirus in the family Poxviridae. The complaint is accompanied by fever, skin nodular lesions, lymphadenopathy and may result in dropped milk product, weight loss and gravidity. After its major restriction to Africa, LSD spread to the Middle East, Europe and Asia, resulting in enormous lucrative losses. This review provides an overview of the present knowledge of LSD epidemiology, viral structure and pathogenesis, clinical donation, individual approaches, remedial and probative care, vaccination strategies, and forestallment and control measures. The work is acclimatized to B.Pharmacy scholars to provide a pharmacology- and public- health- familiar view of complaint operation and the role druggists may have in outbreak response. Vital challenges, new developments in diagnostics and vaccines, and future investigation directions are debated.
Introduction
Lumpy Skin Disease (LSD) is a contagious viral disease affecting cattle and water buffalo, caused by the Lumpy Skin Disease Virus (LSDV), a member of the Capripoxvirus genus. Originally confined to sub-Saharan Africa, the disease has spread across the Middle East, Europe, and Asia, causing significant economic losses due to reduced milk production, weight loss, damaged hides, reproductive issues, and trade restrictions. Although LSD is not transmissible to humans, it remains a major veterinary and agricultural concern.
The disease was first reported in Zambia in 1929 and has since spread through many countries in Africa, the Middle East, and Asia. Transmission occurs mainly through blood-feeding insects such as mosquitoes, flies, and ticks, while animal movement and trade contribute to long-distance spread. Morbidity rates vary widely, but mortality is generally low.
After infection, the virus spreads through the lymphatic system and bloodstream, leading to fever, enlarged lymph nodes, nasal discharge, loss of appetite, and characteristic skin nodules measuring 1–7 cm in diameter. Severe cases may cause respiratory problems, lameness, and systemic illness. Laboratory confirmation is essential because symptoms can resemble other skin diseases.
Diagnosis relies on PCR testing, virus isolation, serological assays, and histopathological examination of skin lesions. Currently, no specific antiviral treatment exists. Management focuses on supportive care, including anti-inflammatory drugs, fluid therapy, nutritional support, wound care, fly control, and antibiotics to prevent secondary bacterial infections.
Vaccination remains the most effective control measure. Both homologous LSDV vaccines and heterologous sheeppox/goatpox vaccines are used to provide immunity. Additional control strategies include vector management, movement restrictions, quarantine, surveillance, early reporting, and farmer awareness programs.
Pharmacists and pharmacy students can contribute by ensuring proper drug use, maintaining vaccine cold chains, educating farmers, supporting disease surveillance, and promoting antimicrobial stewardship. Recent research focuses on rapid molecular diagnostics, point-of-care testing, improved vaccines, genomic surveillance, and risk-based disease control strategies. Overall, effective management of LSD requires coordinated efforts involving veterinarians, pharmacists, farmers, and public health authorities to minimize its economic and agricultural impact.
Conclusion
One of the resurging transboundary animal diseases with severe economic impacts is lumpy skin disease. Control requires a thorough strategy that includes surveillance, biosecurity, vector management, and vaccination. Pharmacists and new B.Pharmacy graduates help in medication management, vaccine handling, and community education in areas of medication management, vaccine handling, and education to the community. The control will be supported by ongoing research on improved vaccines, rapid diagnostics, and understanding of transmission determinant factors.
References
[1] World Organisation for Animal Health (WOAH). Lumpy Skin Disease. https://www.woah.org/en/disease/lumpy-skin-disease/ (accessed 2025).
[2] Namazi F, et al. Lumpy skin disease, an emerging transboundary viral disease: a review. Viruses. 2021; (review article).
[3] Tuppurainen E, et al. Vaccines and vaccination against lumpy skin disease: a review (2021).
[4] Haider A, et al. Lumpy Skin Disease: Insights into Molecular Pathogenesis. MDPI. 2024.
[5] FAO & EMPRES-Animal Health. Special edition on Lumpy Skin Disease. 2023.
[6] CFS Ph (Iowa State) Lumpy Skin Disease factsheet. 2025.
[7] World Organisation for Animal Health (WOAH). Lumpy Skin Disease: Global Overview and Control Strategies. 2025.
[8] Haider A et al. Molecular pathogenesis and host response in Lumpy Skin Disease Virus infection. Front Vet Sci. 2024.
[9] Tuppurainen E S M & Oura C A L. Recent developments in Capripoxvirus vaccines and diagnostics. Vet Microbiol. 2023.
[10] Namazi F & Tavassoli M. Lumpy Skin Disease as a new emerging transboundary infection: an up-to-date review. Viruses. 2022.
[11] FAO EMPRES-AH. Special Bulletin on Lumpy Skin Disease Outbreaks in Asia. 2024.
[12] Patel J S et al. Advances in production of live-attenuated vaccines against LSDV. Indian J Vet Res. 2023.
[13] Kumar P & Sharma R. Control and eradication of LSD: current challenges and new perspectives. Vet World. 2025.
[14] Ali H M et al. Epidemiological study of LSDV outbreaks in Egypt. J Anim Health Prod. 2023.
[15] Chandran P S et al. One-Health approach to manage transboundary animal diseases. Int J Vet Sci. 2022.
[16] Rahman M A et al. Economic losses associated with LSDV outbreaks in South Asia. J Livestock Economics. 2024.
[17] Sharma N K et al. Field performance of homologous and heterologous vaccines in India. Vet Practitioner. 2023.
[18] Meena P et al. Molecular detection and phylogenetic analysis of LSDV isolates. BMC Vet Res. 2023.
[19] Bhanuprakash V et al. Comparative pathology of Capripoxvirus infections. Small Rumin Res. 2021.
[20] Pathak R D et al. Use of recombinant vaccine vectors in LSD prevention. Vaccines (ISSN 2076-393X). 2024.
[21] Joshi N K et al. Stability of LSDV vaccines under field cold-chain conditions. Trop Anim Health Prod. 2025.
[22] FAO & WOAH Joint Mission. Guidelines for LSDV outbreak response and vaccination monitoring. 2023.
[23] Nandi S K et al. Pharmacological interventions in supportive therapy of LSD. Indian J Pharm Pract. 2024.
[24] Rathod S B et al. Antimicrobial stewardship in veterinary practice. J Pharm Allied Health Sci. 2023.
[25] Ghosh S et al. Cold-chain management in livestock vaccine logistics. Int J Pharm Logistics. 2024.
[26] Bhardwaj P K et al. Vector ecology and disease dynamics of LSDV. Parasitol Res. 2023.
[27] Thomas D E et al. Public awareness and farmer training in LSD prevention. Vet Public Health J. 2025.
[28] Waweru C M et al. Whole-genome sequencing of LSDV field isolates from Africa and Asia. Arch Virol. 2024.
[29] OIE Animal Health Yearbook. Lumpy Skin Disease facts and figures 2020–2024. 2025 Edition.
[30] Patel A P et al. New nanocarriers for delivery of veterinary vaccines. Int J Nano Drug Deliv. 2023.
[31] Singh R K et al. Immunogenicity comparison of Capripoxvirus vaccines. Vet Immunol Immunopathol. 2022.
[32] Tageldin M H et al. Re-emergence of LSDV in the Arabian Peninsula. Vet Rec. 2024.
[33] Ali A & Amina S. Lumpy Skin Disease outbreak review in North Africa. Afr Vet J. 2023.
[34] Fayez M A & Ahmed A R. Re-emergence pattern and clinical observations of LSD in Egypt. J Vet Med Sci. 2022