talk · Thursday 24 September · 09:31–⁠09:45 · SAL B

Digital Twins as System-Optimization Tools: Provisioning Edge and Cloud Infrastructure for Biodiversity Monitoring at Scale

Tanya Berger-Wolf · Operationalizing Biodiversity Digital Twins within Data Space Ecosystems

Recording time 1:26:28–1:37:17Open on Vimeo ↗

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

The short versionDigital twins should close the sim-to-real loop for the sensor systems too, letting teams plan where and how to deploy multimodal monitoring before going into the field.

Overview

What this was about

Tanya Berger-Wolf argued that biodiversity digital twins should model not only nature but also the sensing system itself, so that deployments of drones, camera traps, acoustic sensors, GPS tags and supporting compute, power and network infrastructure can be planned and optimised. Using a summer deployment at The Wilds conservation centre in Ohio (over 400,000 data points across five modalities), she showed a mock-up in which camera trap positions and drone flight plans can be moved within the twin. She called for bringing robotics and sensor-system standards into the same conversation as data standards and AI readiness, pointing to simulators such as WildWing.

Why it matters. At-scale monitoring (e.g. the newly announced Amazon.ia effort) depends on deploying complementary sensors in the right place and time; treating the cyber-physical system as part of the twin makes that a solvable optimisation problem.

Key ideas

In the room

  • Remote sensing, autonomous vehicles, on-body sensors, camera traps, acoustic recorders, eDNA and citizen science capture complementary signals at different spatiotemporal scales.
  • At-scale monitoring requires cross-modal coordination and provisioning of compute, energy, infrastructure and sensor deployment ('sensing everything, everywhere, all at once').
  • Current practice stops at data analysis; the loop should return to system refinement, using digital experiments in the twin to plan future deployments.
  • The Wilds (Ohio), a large conservation science site with endangered species, was instrumented over a summer, yielding over 400,000 data points across GPS tags, camera traps, acoustic sensors, drone flights and citizen science.
  • A mock-up twin lets users reposition camera traps and edit drone flight plans with full sensor details to see what the system needs to provision.
  • Standards now exist for biodiversity data and AI readiness is being discussed; robotics and sensor aspects need to join the same conversation.
  • Simulation environments already exist for drones, e.g. the WildWing software for drone mission planning in biodiversity settings.
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Notable moments

In their words

Transcript

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Programme abstract

Digital Twins as System-Optimization Tools: Provisioning Edge and Cloud Infrastructure for Biodiversity Monitoring at Scale

Tanya Berger-Wolf

Monitoring dynamic ecosystems increasingly requires autonomous systems that make decisions at the far edge, where sensors meet the environment. Biodiversity digital twins, however, are typically positioned as integration and visualization layers over data streams produced by sensor networks whose hardware, models, and edge-cloud placement have already been fixed. This framing treats the cyber-physical system as fixed and external. We argue that monitoring biodiversity at landscape scale should be approached as a system-optimization problem, and operational DTs must model and help provision the cyberphysical system itself, including the edge AI stack where most decisions are made.

Autonomous ecosystem sensing must balance processing speed, energy use, network availability, and ecological goals in ways single-platform designs cannot resolve. Smart sensors, powered by edge AI, close a local loop at the edge; coordinating them across modalities, sites, and ecosystems is a provisioning decision with ecological consequences. Where to place a sensor or model, when to offload to the cloud, and how mission settings interact with accuracy are decisions a data-only DT cannot represent, let alone optimize.

Robotics-readiness requires embodied intelligence, where models, sensors, and platforms act on the world they observe. Extending DT architectures to support this requires co-simulating layers that data-only DTs treat as out of scope, combining ecological realism with edge-deployed AI models, smart sensors, and edge-to-cloud networks. We argue that modeling the cyberphysical system, including the dynamic ecosystems it observes, is what makes DTs operational and necessary infrastructure for biodiversity monitoring at scale.

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