Validated in simulation · Moving to prototype

Light structures, built by a drone swarm.

FlyOps is building a system in which an autonomous drone swarm assembles temporary, illuminated structures from 20 cm smart LED cubes. No scaffolding, no cranes, no people working at height.

Problem

Event structures today mean scaffolding, cranes and days of labor.

Building stages, towers, illuminated signage and installations for festivals, concerts, trade fairs and brand events is expensive, slow and risky. Teardown repeats the same effort.

Today

  • Heavy equipment such as scaffolding and cranes
  • Large installation crews
  • People working at height
  • Separate days for setup and teardown

With FlyOps

  • The structure is designed in a web studio
  • A planner computes build order and drone requirements
  • A drone swarm places the cubes autonomously
  • The finished structure becomes a programmable light-show display

How it works

Design, stabilize, build, light up.

The first four steps run end to end in a physics simulation. Teardown is the next development stage.

Design

Draw your structure layer by layer in a web-based studio. The planner computes build order, estimated duration, number of drones and battery needs.

Stabilize

Ballast cubes on the bottom layer are filled with water on site: light in transport, heavy in place. The planner checks that the structure withstands the 10 m/s design wind at every step of the build.

Build

A truck arrives on site and lifts raise cubes through openings in its roof. Drones seat each cube using camera-assisted alignment and connect it with magnetic locks. Multiple drones work in parallel.

Light up

Timeline-based animations are designed in the studio's Light Show tab. Once the structure is complete, the LEDs on all six faces of every cube come on.

Tear down

Goal: the same swarm disassembles the structure in reverse order and returns the cubes to the truck.

Planned

Why it's different

Swarm, cube and simulation, designed together.

Swarm coordination

Drones are coordinated from a shared ground station. The top of the structure is divided into zones, collision risk is managed, and loaded drones spend as little time as possible waiting in the air.

Smart cube

Every cube knows its own state (stored, in transit, locked, fault) and shows it with its LEDs. Magnetic locks connect it to neighboring cubes.

Water ballast

Instead of heavy concrete blocks, ballast cubes are filled with water on site. Logistics stay light; the structure gains weight where it stands.

Simulation first

Every design is tested in a MuJoCo physics simulation built from real component data, under wind, camera error and failure scenarios. Problems surface before anything goes on site.

Specifications

Design values

Target values used in the simulation model. They will be updated with the physical prototype.

Drone
Frame650 mm
Motor4 × 380 KV
Propeller14"
Mass~2.15 kg
Total thrust~6.8 kgf
Cube & structure
LED cube20 cm · 0.6 kg
LightingLEDs on 6 faces
ConnectionMagnetic lock
Ballast cube water capacity6.9 kg
Water carrier0.85 kg/trip · ~7 s pour
Design wind10 m/s · SF 1.5

Build time depends on structure size and the number of ballast cubes. The planner estimates it separately for each design.

Roadmap

From simulation to the field

✔ DONE

Simulation

Design, planning, autonomous multi-drone assembly, water ballast and light show run end to end in physics simulation.

○ LATER

Pilot event

First on-site build at a real event.

Who it's for

For anyone who builds temporary structures

Event and production companies Festival and concert productions Trade-fair booth builders Brand activation agencies Municipal city events Later: rapid temporary structures in disaster zones

Contact

Let's plan the first pilot event together.

If you have an event, trade fair or installation project, join the waitlist and be the first to hear about the prototype and pilot.

[email protected]