Deciphering host–virus interaction networks in ALV infection: an integrative multi-omics perspective - Report - MDSpire

Deciphering host–virus interaction networks in ALV infection: an integrative multi-omics perspective

  • By

  • Junliang Xia

  • Weiding Chen

  • Xiaoli Zhou

  • Tao Xu

  • Guodong Mo

  • Xiquan Zhang

  • June 30, 2026

  • 0 min

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Clinical Report: Analyzing Host-Virus Interaction Dynamics in Avian Leukosis Virus Infection

Background

Avian leukosis virus (ALV) poses significant challenges to poultry health due to its capacity for persistent infection and immunosuppression. Despite eradication efforts, the virus continues to circulate, particularly in environments with inadequate biosecurity.

Data Highlights

No numerical data or trial data presented in the article.

Key Findings

  • ALV can establish lifelong infections and induce immunosuppression and tumorigenesis.
  • Current control measures are limited by subclinical infections and rapid viral evolution.
  • Multi-omics approaches can capture coordinated changes across various biological layers, enhancing understanding of host responses.
  • CRISPR-based functional screening can validate candidate host factors involved in viral replication.
  • Integration of molecular phenotypes with multi-omics data can improve identification of resistance mechanisms.

Clinical Implications

The integration of multi-omics technologies and functional genomics may facilitate the identification of critical host determinants in ALV infections.

Conclusion

A comprehensive understanding of host-virus interactions through multi-omics approaches is essential.

Related Resources & Content

  1. Merck Veterinary Manual, Merck, 2024 -- Avian Leukosis in Poultry
  2. APHIS, USDA, 2026 -- Testing Protocols - VIR (Virology)
  3. Cornell Law School, 2026 -- 9 CFR § 113.31 - Detection of avian lymphoid leukosis
  4. Frontiers in Veterinary Science, 2024 -- Gp85 protein encapsulated by alginate-chitosan composite microspheres induced strong immunogenicity against avian leukosis virus in chicken
  5. npj Digital Medicine — Multiomics Analysis Using Explainable AI Uncovers Common and Distinct Host Responses in COVID-19 and Influenza
  6. the pathologist — AML Complexity Uncovered: A Unified Whole Genome and Informatics Approach for High Resolution Disease Understanding
  7. Frontiers in Immunology — Comparative transcriptome analysis unveils unique antiviral immune signatures of Rhinolophus pusillus
  8. Acta Neuropathologica — Whole-Viral Genome Sequencing Targeting from Neuropathology Samples Preserved in Formalin-Fixed Paraffin
  9. Avian Leukosis in Poultry - Poultry - Merck Veterinary Manual
  10. Testing Protocols - VIR (Virology) | APHIS
  11. 9 CFR § 113.31 - Detection of avian lymphoid leukosis. | Electronic Code of Federal Regulations (e-CFR) | US Law | LII / Legal Information Institute
  12. Frontiers | Gp85 protein encapsulated by alginate-chitosan composite microspheres induced strong immunogenicity against avian leukosis virus in chicken
  13. Recombinant nanobody expressed by transgenic chimeric chickens eliminated vertical transmission of avian leukosis virus subgroup J - ScienceDirect
  14. ALV-J-contaminated commercial live vaccines induced pathogenicity in Three-Yellow chickens: one of the transmission routes of ALV-J to commercial chickens - PMC
  15. Autophagy-mediated TET2 degradation by ALV-J Env protein suppresses innate immune activation to promote viral replication | Journal of Virology
  16. Avian leukosis virus p15 interacts with interferon regulatory factor 7 to antagonize the cGAS-STING signaling pathway and promote viral replication - PubMed
  17. Role of O-linked glycosylation modification on internalization and replication of avian leukosis virus subgroup J - PubMed
  18. Current knowledge on the epidemiology and prevention of Avian leukosis virus in China - ScienceDirect

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