Intelligent system for monitoring mountain ecosystems
Living Mountain Observatory (LMO)— is a unified network for monitoring and managing the projectDREVO Living Mountains, which combines sensors, drones, satellite data, robotic platforms and artificial intelligence to continuously monitor the health of mountain watersheds.
The main task is to move from eliminating the consequences toearly detection of changesand data-driven ecosystem management.
"You can't effectively restore what you can't measure."
Main objectives
Forest monitoring.
Monitoring of springs.
River monitoring.
Soil monitoring.
Biodiversity monitoring.
Erosion control.
Early detection of fires.
Control of illegal logging.
Air quality monitoring.
Climate change control.
System architecture
Satellites
│
TREVO AeroSense Drone
│
Living Mountain Observatory
│
├── Ground stations
├── Soil sensors
├── Spring stations
├── River stations
├── Weather stations
├── Cameras
├── Acoustic stations
├── Insect traps
├── Camera traps
├── River Rover
└── Mountain Digital Twin
Main subsystems
1. Water Observatory
CONTROL:
water level;
flow rate of springs;
groundwater level;
temperatures;
turbidity;
pH;
mineralization;
dissolved oxygen;
nitrates;
phosphates;
electrical conductivity.
2. Forest Observatory
CONTROL:
tree growth;
crown conditions;
drying out;
diseases;
pests;
fallen tree;
biomass;
age of the forest.
3. Soil Observatory
Measured:
humidity;
temperature;
density;
organic matter;
humus;
pH;
carbon content;
erosion;
infiltration;
activity of soil biota.
4. Biodiversity Observatory
Observation for:
birds;
mammals;
amphibians;
reptiles;
insects;
pollinators;
mushrooms;
lichens;
rare plants.
5. Climate Observatory
Measured:
air temperature;
humidity;
wind speed;
precipitation;
solar radiation;
evaporation;
snow;
snow depth.
6. Fire Observatory
CONTROL:
temperatures;
smoke;
infrared radiation;
moisture content of the forest litter;
rate of fire spread.
7. Landslide Observatory
Monitoring:
slope movements;
cracks;
without it;
mudflows;
rockfall.
8. River Observatory
CONTROL:
stream;
banks;
sediments;
depths;
flow speeds;
pollution;
spawning grounds.
Technologies used
TREVO AeroSense Drone
Performed by:
LiDAR scanning;
multispectral imaging;
thermal imaging control;
photogrammetry;
erosion detection;
control of forest roads.
WOOD River Rover
Used for:
river surveys;
bottom mapping;
assessment of the riverbed condition;
search for contamination;
control of hydraulic structures.
Camera trap
Control:
large animals;
nocturnal activity;
migration.
Acoustic stations
Determine:
birds;
bats;
insects;
amphibians;
noise of equipment;
illegal logging.
Automatic weather stations
They transmit data every few minutes.
Sensor network
Springs
Measured:
debit;
temperature;
water quality.
Rivers
CONTROL:
level;
consumption;
turbidity;
pollution.
Soil
Measured:
humidity;
temperature;
electrical conductivity.
Forest
Measured:
tree growth;
movement of trunks;
wood moisture content.
Mountain Digital Twin
All data is fed into the digital twin.
It stores:
measurement history;
cards;
photographs;
relief models;
the condition of each section.
WOOD AI
Artificial intelligence analyzes:
forest change;
change of springs;
climate change;
risk of fires;
risk of erosion;
animal migration;
biodiversity dynamics.
Automatic alerts
The system reports:
decrease in the spring flow rate;
drying up of the stream;
forest fire;
illegal logging;
water pollution;
mudflows;
mass drying of trees;
pest outbreaks.
Integration with DREVO
| System | Purpose |
|---|---|
| Mountain Springs Recovery | Spring control |
| Mountain Forest Corridors | Monitoring forest corridors |
| DREVO River Rover Scout | River survey |
| DREVO River Rover Restore | Control of restoration works |
| TREVO AeroSense Drone | Remote monitoring |
| Mountain Digital Twin | Data storage and modeling |
| WOOD AI | Analysis and forecasting |
| AMCWSRI | Data transmission across the entire watershed – from mountains to coast |
Stages of implementation
Stage I
mapping;
installation of base stations;
creation of a digital model.
Stage II
connecting sensors;
launch of unmanned monitoring;
River Rover integration.
Stage III
launch of artificial intelligence;
risk forecasting;
automatic notifications.
Stage IV
complete digital model of the catchment;
autonomous control;
international exchange of environmental data.
Expected results
early detection of environmental problems;
reducing damage from fires and erosion;
restoration of springs;
improving water quality;
biodiversity conservation;
support for scientific research;
efficient management of natural resources;
decision making based on objective data.
The main principle
Living Mountain Observatory transforms mountains into a continuously monitored living system.
In combination withMountain Digital Twin, WOOD AI, TREVO AeroSense Drone And WOOD River Roverthis network createsdigital nervous system of a mountain catchmentIt allows us to monitor the state of ecosystems in near real time, predict changes, and take timely measures to preserve water, forests, and biodiversity.