BreathingSoil Sensors


Invented by Luis Andre Reyes, CEO of Blood Moon Dynamics, Inc.

A new approach: sensing from beneath the surface.

Breathing Soil is an interconnected underground sensing network for farms, forests, floodplains, mountain slopes and borders. The sensors are powered by the soil itself and are projected to last up to 40 years.

  • Soil temperature
  • Moisture
  • Ground movement
  • Footsteps and disturbances
  • Alerts to the network
Real-timeSoil insights
Self-poweredNo battery changes or solar panels
Up to 40 yearsProjected node service life
InterconnectedA distributed network, not a single point

Look beneath the surface.

Most monitoring watches what is happening above ground. Breathing Soil detects and monitors changes within the soil, where many risks begin before anything is visible.

Above-ground monitoring

Cameras, satellites, aerial surveillance and smoke detection. Useful, but dependent on line of sight, power and maintenance, and limited in remote terrain.

Breathing Soil

A buried, distributed network of sensors that watches ground conditions continuously and flags changes that may otherwise go unnoticed. No conventional battery replacement and no external solar panels.

One network, omni-use applications.

From early wildfire detection to precision farming, the same underground network supports a wide range of protection and monitoring needs.

Early wildfire detection

Detect abnormal soil temperature, moisture changes and thermal patterns, and monitor where embers may land, so potential ignitions are caught early and sent to emergency response systems.

Utility transmission and distribution

Monitor ground beneath high-voltage lines, transformers and substations, with continuous coverage along transmission corridors and early alerts to fire mitigation teams.

Railroads and transport corridors

Watch for abnormal thermal activity near tracks, ground fires from sparks or hot materials, and remote stretches of railway.

Forest management and conservation

Track soil moisture, drought, temperature and environmental stress over time across remote and inaccessible terrain.

Flood detection and early warning

Sense rising soil saturation and subsurface water accumulation before surface flooding, and map how quickly conditions are changing.

Avalanche, landslide and mudslide detection

Monitor saturation, moisture and ground movement on slopes, road cuts and embankments, with alerts as instability increases.

Earthquake and ground movement

Add information about ground disturbances around infrastructure. A complementary tool for geotechnical monitoring, not a replacement for conventional seismic instruments.

Animal movement and wildlife

Detect animals approaching a roadway, identify their direction, and warn traffic systems to help reduce wildlife collisions.

Trespasser and perimeter security

Buried sensors can detect footsteps and ground disturbances around substations, pipelines, remote properties and borders.

Agriculture and precision farming

Continuous soil moisture and temperature data to support irrigation decisions, and to feed AI-driven management, that apply soil amendments when and where they are needed.

AI, predictive analytics and autonomous response

Combine sensor data with AI to separate normal variation from true anomalies, map developing risks, and coordinate with drones, cameras and weather systems.

From a buried signal to a dispatched response.

The greatest opportunity is pairing the sensor network with AI. Here is how a wildfire scenario could unfold.

  1. Node detectsA Breathing Soil node senses an abnormal condition.
  2. Network relaysThe reading travels through the interconnected network.
  3. AI evaluatesSurrounding sensors are compared to identify a potential ignition.
  4. Alert sentEmergency response systems are notified.
  5. Drone investigatesAn autonomous drone is dispatched to confirm.

If a small fire is confirmed, an appropriately equipped response drone or firefighting team could potentially intervene before it becomes a major incident. This is the kind of integrated early detection and response system we believe can be developed.

Three disasters, one gap.

In a fast fire, every minute between ignition and alert counts. Here is what the ground could have told us first.

Camp Fire · California · 2018

A century-old line, four hours to Paradise.

85 deaths~18,800 structures destroyed~$8.4B insured losses

A nearly 100-year-old PG&E transmission line started it. It was first reported around 6:30 a.m. and reached the town of Paradise in about 4 hours.

In a fast fire, every minute between ignition and alert is the difference between a controlled evacuation and a disaster. A buried network along the line would have been watching the ground at the source.

Lahaina · Maui · 2023

Believed out. It wasn’t.

At least 102 deathsDeadliest U.S. wildfire in over a century

Downed power lines started a morning fire. Crews believed it was out and left for other calls. Investigators found it rekindled that afternoon, most likely from an undetected ember in a dry gully.

This is the case for a network that stays in the ground and keeps watching after crews leave. Cameras and patrols move on. Buried nodes don’t.

Atmospheric river · British Columbia · 2021

The warning was underground first.

4 killed, Highway 99 mudslide600,000+ farm animals lost$450M+ insured damage

A mudslide on Highway 99 near Duffey Lake killed four people. CN and CP rail lines were cut, leaving no rail connection between Kamloops and Vancouver. More than 600,000 farm animals died when Sumas Prairie flooded, and insured damage was at least $450 million, the costliest natural disaster in BC history at the time.

Saturation and ground movement build underground before a slope fails or a field floods, and that’s exactly what our network watches.

Speed versus Dryad: read the ground, don’t wait for smoke.

Silvanet’s published claim is detection “within minutes from ignition,” and it depends on wind carrying smoke to a sensor hanging on a tree.

Tree-mounted, smoke-dependent

  • Waits for smoke to drift to the sensor
  • Sits in the fire’s path and burns with it

Breathing Soil

  • Reads the ground directly, with no wait for smoke to drift anywhere
  • The moment a node registers an abnormal change, the alert goes straight out through the network
  • Buried, so it keeps reporting while the fire passes and after it’s gone

That after-the-fire reporting is exactly the gap Lahaina exposed.

Let’s talk about where it could work.

We’re introducing Breathing Soil to utilities, railroads, land managers, agriculture and infrastructure operators. Tell us about your corridor, forest or field.