| Amelia Cronan |
| Kyle Grant |
| Emily Soward |
| Chris Birke |
| Iris Bull |
| Heather Saal |
| Skylaar Ford |
| Clay Joy Smith |
If we imagine a world five years from now where real-time 3D neural radiance fields, multi-sensor ecological data, and ever advancing AI architectures are fully integrated, what emerges is not just a dataset, but a living digital model of the ecosystem itself. Endowed with the ability to communicate with other natural intelligence systems, sites in different biomes spread across the world will share and compare insights. These systems would continuously learn, update, and evolve, providing an interactive, immersive, and predictive understanding of environmental processes at an unprecedented level.
Distinct from existing artificial intelligence trained on datasets collected with the goal of solving specific problems, natural intelligence systems are embodied through the subjective experience of their own sensor network.
This connection to life, paired with the ability to communicate with humanity through natural language and imagery, will finally give a voice back to the forest. Ecologists, conservationists, and everyday people can interact with such environmental models as though they were having a conversation with the ecosystem itself. Rather than requiring deep knowledge of technology and science, such models can communicate with everyone through spoken conversation and virtual reality simulations.
People might ask such things as : “How has biodiversity changed in the past three years?”, “Which species have altered their vocalization patterns, and why?”, “Predict the impact of a 2°C temperature increase on amphibian populations.”, or even "Do you feel healthy and have hope for the future?"
Beyond answers with words and statistics alone, we can step into the radiance-field reconstruction of a forest, listen to real-time bioacoustic data spatially mapped to where animals are vocalizing, and timelapse the shifts in wind patterns, soil moisture, and temperature overlaid in the environment.
These abilities unlock new ways to understand and promote healthy ecology, while respecting the environment as an active partner in decision making.
• Early Warnings & Ecological Interventions: The AI could detect anomalies — a gradual drop in frog calls, a declining soil moisture trend, or shifts in migration routes — and forecast their ecological consequences. Conservationists would receive early alerts about habitat degradation, allowing for rapid intervention.
• Collaborative Planning : Policymakers and the models themselves could collaboratively simulate climate scenarios, testing how rising temperatures, altered rainfall, or invasive species spread might reshape these ecosystems over the next decade — and plan mitigation strategies accordingly.
• Live and Historical Playback : Instead of static observations, users could rewind and fast-forward ecological history, seeing how tree growth, animal behavior, or microclimate changes unfold over months or years—and how AI predicts they will continue.
• Simulation-Driven Education : Students training in ecology, hydrology, or conservation could conduct virtual fieldwork in real ecosystems, experimenting with real data in a controllable, interactive without disturbing the environment itself.
• Autonomous Environmental Response : If an AI detects habitat degradation, illegal deforestation, or declining wildlife populations, it could dispatch conservation drones to investigate, monitor, or even perform corrective actions (e.g., reseeding, irrigation, controlled burns, targeted pest control, police poaching). Such self aware intervention, data-driven by the ecology itself, experiences the consequences of it's own decisions.
• Ecological Self Advocacy : Beyond it's physical care, a natural intelligence model will have the capacity to produce and broadcast its own media. Such a system could generative movies explaining the unique beauty of its ecological existence, showing the way waters shift through the season, the hidden slow motion conversations between the trees through their roots, and the triumph and suffering among the animals as told through the songs and histories among them. Awareness raising efforts such as these endow essential political agency to the land.
The Ecological Archive has spent these last years researching different methods for collecting sensor data, gauging the viability and difficulty of equipment laden expeditions to remote locations, learning the needs of academics, policy makers, and industry, and familiarizing ourselves with new artificial intelligence technologies that expand the capacity for all people to contribute to better understanding our world.
In November of 2023 we traveled to the reknown Redwood forests of Humboldt, California to evaluate the effectiveness of new photogrammetry techniques in the field. The unique beauty of these trees has been an inspiration to us, and the difficult terrain of massive fallen logs posed a difficult challenge for scans.
We were accompanied by documentary filmmaker, Anthony Svatek, his film crew, and a generous donation of 32 GoPro Hero Eight camera units from Lens Rentals (which the director kindly facilitated.)
We tested two multi-sensor survey configurations : a constellation of 32 cameras, all focused on the same area from different positions and angles to generate the dataset for a radiance field video, and additionally, a linear optical array configuration designed to capture a singular volumetric scan over a larger area of difficult terrain spanned by cables.
The survey generated a meager 1.6TB of raw data, which we hope to release along with a research paper on the study later this year. We verified the effectiveness of the LOA approach (as well as it's drawbacks,) and look forward to the results of the 3D video.
Our second pilot study expedition took us to the island nation of Niue.
Shielded by steep cliffs on all sides, it's known as "The Rock of Polynesia" for its tiered limestone landscape of coral, caves, and chasms. We traveled the island testing out various methods of data collection. Along the way we met the locals, their government offcials, and their conservation organizations as well.
Beyond the pristine nature, we were drawn to Niue by their nation wide commitment to sustainable ecological developmental goals. Their Niue Ocean Wide organization is dedicated to sustainable management and restoration of the coral which rings the island, as well as the immaculate Moana Mahu Reef which covers 127,000sqkm offshore.
The Huvalu Forest Conservation Area spans almost a fifth of the island, preserving a pristine tropical rainforest full of ebony trees and native wildlife, and as the world's first Dark Sky Nation, Niue strictly controls light pollution to offer unparalleled views of our galaxy above us.
Uniquely, the unusually fertile red soil of the lush interior is naturally radioactive. In addition to photogrammetric drone scans, we performed a cursory survey of radiation levels across the island using a modern portable gamma ray spectrometer. Thankfully, results verify the island is well within safety guidelines.
To lean even more, check out the Niue Environmental Data Portal to delve deeper into the GIS science that helps keep the island healthy and safe.
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