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Detect and Trace: An Australian Field Trial Using Machine-Learning Tools to Combat Illegal Wildlife Trade
Phoebe Meagher1,2, Joseph Cincotta1,2, Ha Tran Hong Phan3
1Taronga Institute of Science and Learning, Taronga Conservation Society Australia, Mosman, NSW 2088, Australia.
New machine-learning tools successfully detected smuggled wildlife in real-world seizures. This technology integration supports intelligence-led enforcement and reduces illegal wildlife trafficking.
Area of Science:
- Wildlife conservation
- Forensic science
- Artificial intelligence
Background:
- Illegal wildlife trade poses a significant global threat to biodiversity, ecosystems, and human health.
- Limited real-world testing of advanced technologies hinders efforts to combat wildlife trafficking.
- Existing methods for detecting smuggled wildlife are often insufficient against sophisticated trafficking operations.
Purpose of the Study:
- To evaluate the effectiveness of two machine-learning tools in detecting smuggled wildlife during real-world seizures.
- To assess the safety and utility of radiation-exposure data from CT X-ray scanning in wildlife interdiction.
- To demonstrate the potential of integrating novel technologies into intelligence-led enforcement strategies.
Main Methods:
- An opportunistic Australian trial involving seven months of real-world wildlife seizures.
- Deployment of two machine-learning algorithms with a CT X-ray baggage scanner (RTT®110) and a portable X-ray fluorescence (pXRF) device (Olympus Vanta).
- Analysis of 116 intercepted animals (reptiles and crustaceans) across five genera and 48 scanned parcels.
Main Results:
- Automated AI detected smuggled wildlife in 56% of scanned consignments using the AT.3 algorithm.
- High-resolution 3D X-ray images enabled the identification of concealed wildlife.
- Machine-learning provenance models differentiated between wild-caught and captive-bred lizards (Tiliqua sp.), aiding enforcement.
Conclusions:
- Integrating machine-learning technology significantly enhances the detection capabilities for smuggled wildlife.
- The trial demonstrated a reduction in the export of seized parcels via postal pathways following technology implementation.
- These findings support the adoption of advanced technological solutions for more effective wildlife trafficking interdiction.
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