talk · Tuesday 22 September · 09:45–⁠09:57 · SAL A

Cross-Modal Coordination for Biodiversity Monitoring at Scale: Lessons from SmartWilds

Jenna Kline · AI for Biodiversity Data

Recording time 1:12:22–1:22:22Open on Vimeo ↗

Summaries and key moments are machine-produced. Check the recording for the speaker’s exact words.

The short versionCoordinating multiple sensor modalities with AI at the far edge, informed by synchronised multimodal datasets like SmartWilds, can scale and adapt biodiversity monitoring.

Overview

What this was about

Jenna Kline, a postdoc at MIT, presented her PhD work reframing ecological sensing as an adaptive edge-systems problem in which AI closes the sensing loop. She first described autonomous drone systems for tracking herds that redefine the target as the herd, add behaviour-adaptive flight to reduce disturbance, and adapt paths to capture views needed for individual identification (tested in Ohio and Kenya). She then argued for cross-modal coordination among drones, camera traps, acoustic monitors, citizen science and GPS, presenting the SmartWilds dataset from a summer-long campaign at The Wilds safari park in Ohio: nearly 400,000 occurrences across five modalities with metadata enabling temporal and spatial cross-referencing against a known census. Synchronised traces from such datasets can inform provisioning decisions (models, hardware, sensor configuration, thresholds) before expensive field trials.

Why it matters. Moves monitoring from collect-then-analyse pipelines toward real-time adaptive sensing, and shows how multimodal benchmark datasets can de-risk the design of field systems.

Key ideas

In the room

  • Traditional workflows separate sensing, inference and analysis, preventing real-time adjustment and delaying insights.
  • 'Far edge' means both remote field sites and constrained commodity hardware with latency and connectivity limits.
  • Autonomous drone work: herd tracking, behaviour-adaptive flight, and surface-of-interest-aware paths (e.g. elephant ears, zebra/giraffe flanks for individual ID).
  • AI in the loop increased the yield of usable data in field tests in Ohio and Kenya.
  • SmartWilds: 200-acre pasture with known census of milu deer, takin and Przewalski's horses; ~400,000 occurrences across five modalities.
  • Cross-modal triggers: a camera trap alarm could launch a drone; an acoustic event could activate camera traps; a citizen science observation could trigger other sensors.
  • Biodiversity datasets must be usable by robotics and AI research communities.
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Notable moments

In their words

Transcript

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Programme abstract

Cross-Modal Coordination for Biodiversity Monitoring at Scale: Lessons from SmartWilds

Jenna Kline

No single sensing modality is sufficient to monitor biodiversity at scale. Camera traps miss vocalizing birds, acoustic recorders miss silent species, drones struggle with species ID from altitude, and citizen science is opportunistic. Each modality has its own mature AI ecosystem (BirdNET, BioCLIP, MegaDetector, foundation models for drone imagery, iNaturalist), but automating biodiversity data collection, preparation, and interpretation at scale requires moving beyond single-modality pipelines toward cross-modal coordination, with smart sensors making decisions at the edge.

Coordinating across modalities is fundamentally a multi-scalar problem across both time and space. Standardizing these streams into datasets that support multimodal AI requires AI itself: foundation models for cross-modal alignment, LLM-assisted metadata extraction, and shared schemas like Darwin Core that make the result machine-actionable. We present SmartWilds, a co-located multimodal deployment at The Wilds Conservation Center, Ohio, combining camera traps, autonomous recording units, drones, citizen science, and field text across 220 hectares, with 380K Darwin Core occurrences and complete sensor configuration metadata.

We evaluate where each modality-specific AI pipeline is mature and where it is not, with drone species ID from altitude showing the largest gap, bird vocalization classification being robust but limited to vocal taxa, and camera-trap individual re-identification at scale remaining unsolved. We report annotation effort, computational cost, and known failure modes alongside performance, supporting honest assessment of which components are ready for edge deployment and which require centralized compute or human review.

Submitted to the conference programme before the talk, so the talk itself may differ.