Eskadrones unites humans and robots into one multi-agent system to detect and intercept drones.

We cover the entire counter-drone cycle, from scenario modeling to interception and after-action analysis.

About us

We are creating a new approach to human-robot interaction. Repelling modern drone attacks requires coordinated work from many participants: operators, sensors, ground and aerial platforms. No single asset can solve this task on its own. We develop multi-agent technologies that unite people and robots into a single team, regardless of who manufactured the platforms.
In such a team, every participant is an agent with its own capabilities, limitations and role. The outcome is determined not by the strength of any single asset, but by who intercepts which target, and when. Our system assigns targets and roles across agents, accounts for their position and status, and reshapes their interaction as the situation changes. This way, the group performs better than the sum of its individual assets.
Multi-agent algorithms are born in simulation. Only there is it possible to run thousands of attack scenarios, compare tactics and see how the actions of one agent affect the entire system. Proven algorithms are then transferred to real assets and live data.
By analyzing results, we see where coordination worked and where it failed, and we continuously improve the interaction. This forms a closed development loop: scenario → action → result → analysis → improvement → new scenario.

What we’re building

1. Multi-agent simulation

1. Multi-agent simulation

A digital testing ground where people, robots, sensors and hostile drones act as individual agents. Here we play out attack scenarios, test tactics and develop coordination algorithms before real-world deployment.

2. Optimal placement

2. Optimal placement

Determining the best configuration of interceptor platforms, bases and sensors on real terrain, taking into account landscape, attack directions and available resources. Each configuration is tested against a wide range of scenarios, because placement effectiveness depends on how agents will interact with each other.

3. Multi-agent coordination

3. Multi-agent coordination

The core of the system: automatic assignment of targets, tasks and roles between people and robots based on their position, status and capabilities. When the situation changes, the system dynamically reshapes their interaction.

4. Sensor data fusion

4. Sensor data fusion

Merging data from heterogeneous sensors into a shared operational picture available to all agents. This shared picture is what allows agents to act in concert rather than each relying on its own data.

5. Human-system interfaces

5. Human-system interfaces

In our system, a human is a full-fledged agent and, at the same time, the one who sets tasks and makes key decisions. Our interfaces make it possible to command not a single robot, but a group of agents as a unified whole.

6. Full interception cycle

6. Full interception cycle

From target detection and identification to assigning interceptors, tracking and interception. For each target, the system selects the most effective combination of agents, regardless of the asset manufacturer.

7. Real-time monitoring and assessment

7. Real-time monitoring and assessment

Continuous tracking of each agent and the system as a whole during an attack: actions, changes in the situation and deviations from the plan.

8. Post-analysis and optimization

8. Post-analysis and optimization

Analysis of results after scenarios and attacks: where coordination succeeded and where it failed. The findings feed back into coordination algorithms, placement and resource allocation, and the cycle begins again.

Contacts

For any questions or proposals, please write to: eskadrones.ua@gmail.com