The Electronic-Nose, an Early Detection Tool for Emerald Ash Borer Infestations

Electronic noses, specialized machines that can be hand-held devices or for laboratory use, can detect emerald ash borer (EAB) larvae while ash trees are still alive and before signs of insect infestations appear. Early detection can prevent tree death and damage, and can also prevent EAB from spreading to healthy trees. This new tool has the potential to greatly improve the effectiveness of direct EAB control and quarantine procedures to mitigate tree damage and provide options for early tree harvests to preserve lumber value.
Fiscal Year
2020
Research Station
Research Unit(s)
Forest Genetics & Biological Foundations
An electronic-nose (e-nose) was recently developed as a new tool to detect emerald ash borer (Agrilus planipennis) infestations much earlier than current methods allow. The e-nose can detect EAB whose larvae tunnel under sapwood, and identify them before symptoms appear, which can prevent tree death and damage. Early detection can also prevent EAB from spreading to healthy trees. Even though EAB larvae only tunnel shallowly into the sapwood, they cause significant damage that changes the physiology of the entire tree. The damage changes the volatile organic compounds released from the sapwood, which the e-nose can detect. E-nose early detections of EAB infestations could potentially save millions of ash trees from further damage, mitigating billions of dollars in economic losses in tree values and lumber across affected areas, and help to determine when quarantine measures are necessary. This tool has far-reaching application as a forest health management tool to detect other major insect and disease pests.
Publications
- Wilson, A. D.; Forse, Lisa B.; Babst, Benjamin A.; Bataineh, Mohammad M.. 2019. Detection of emerald ash borer infestations in living green ash by noninvasive electronic-nose analysis of wood volatiles
Forest Service Partners
- Benjamin A. Babst and Mohammad M. Bataineh - Arkansas Forest Resources Center and the University of Arkansas