# Integrating Prevention and Response at the Crossroads of Henipavirus Preparedness, Hendra@30 Conference, 2024

**Authors:** Kim Halpin, Raúl Gómez Román, Emmie de Wit, Alison J. Peel, Jonathan H. Epstein, Jennifer Barr, Sarah J. Edwards, Melanie N. Tripp, Berta Blanch-Lázaro, Belinda Linnegar, Gervais Habarugira, Glenn A. Marsh, Danielle Anderson, Li-Yen Chang, Wanda Markotter

PMC · DOI: 10.3201/eid3201.250979 · Emerging Infectious Diseases · 2026-01-01

## TL;DR

This paper discusses a conference on henipaviruses like Hendra and Nipah, highlighting efforts to improve prevention and response strategies through interdisciplinary research.

## Contribution

The paper proposes integrating bat ecology into henipavirus research to develop ecologic prevention strategies.

## Key findings

- The Hendra@30 conference expanded interdisciplinary research on henipaviruses.
- Integrating bat ecology could prevent spillover and complement existing response efforts.
- Four key elements advanced research and medical countermeasures for henipaviruses.

## Abstract

Diseases caused by henipaviruses, exemplified by Hendra virus and Nipah virus, pose a serious risk to public health because of their epidemic potential and high case-fatality rates and the paucity of medical countermeasures to mitigate them. In December 2024, a group of 150 scientists from 16 countries convened in Geelong, Victoria, Australia, to mark the 30th anniversary of the discovery of Hendra virus. The Hendra@30 conference built upon its predecessor conference held in 2019 in Singapore, Nipah@20, by expanding its program across broader disciplines and integrating sessions on human sociology and disease ecology into the main scientific discussions. We describe key highlights from Hendra@30 and reflect on 4 key elements that have advanced henipavirus research and medical countermeasures research and development. We propose that integrating bat ecology into henipavirus research blueprints will enable development of ecologic countermeasures that prevent spillover and will complement existing preparedness and response efforts with evidence-based prevention strategies.

## Full-text entities

- **Diseases:** infection (MESH:D007239), HeV disease (MESH:D045464), neurologic sequelae (MESH:D009422), deaths (MESH:D003643), respiratory and neurologic disease (MESH:D012140), viral diseases (MESH:D014777), COVID-19 (MESH:D000086382)
- **Chemicals:** lipid (MESH:D008055), dexamethasone (MESH:D003907), mRNA-1215 (-), polyphosphazene (MESH:C108974), remdesivir (MESH:C000606551)
- **Species:** Bacillus sp. AT (species) [taxon 1196779], Cricetus cricetus (black-bellied hamster, species) [taxon 10034], Phoenix dactylifera (date palm, species) [taxon 42345], Henipavirus (genus) [taxon 260964], Pteropus medius (Indian flying fox, species) [taxon 143291], Chiroptera (bats, order) [taxon 9397], Langya virus (no rank) [taxon 2971765], Hendra virus [taxon 63330], Epalzeorhynchos kalopterus (flying fox, species) [taxon 699555], Pteropodidae (flying foxes, family) [taxon 9398], Severe acute respiratory syndrome coronavirus 2 (no rank) [taxon 2697049], Nipah virus [taxon 121791], Mustela putorius furo (black ferret, subspecies) [taxon 9669], Sus scrofa (pig, species) [taxon 9823], Mus musculus (house mouse, species) [taxon 10090], Chlorocebus aethiops (African green monkey, species) [taxon 9534], Cricetinae (hamsters, subfamily) [taxon 10026], Equus caballus (domestic horse, species) [taxon 9796], Cercopithecidae (monkey, family) [taxon 9527], Vesicular stomatitis virus (species) [taxon 11276], Artibeus (neotropical fruit bats, genus) [taxon 9416], Homo sapiens (human, species) [taxon 9606]

## Full text

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## References

30 references — full list in the complete paper: https://tomesphere.com/paper/PMC12870148/full.md

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Source: https://tomesphere.com/paper/PMC12870148