OUR ENGINEERING APPROACH

Build. Fly. Understand.
Build better.

The airframe, flight software and mission workflow need to work together. Our next development phase applies that engineering focus to surveying and mapping.

Pressure contours on the tailsitter airframe, with the original pressure scaleAERODYNAMICS / PRESSURE
Surface mesh of the tailsitter airframe from the engineering videoGEOMETRY / SURFACE MESH

01THE WORK BEHIND THE FLIGHT

Engineering is
a complete loop.

The original programme already brought design, analysis, machining, assembly and flight testing together.

Design: Airframe geometry01

Design

Airframe geometry

The prototype’s custom airframe is the starting point for our surveying and mapping platform.

Analyse: Mesh & flow studies02

Analyse

Mesh & flow studies

Aerodynamic analysis alongside practical modelling and iteration.

Manufacture: CAD to CAM to hardware03

Manufacture

CAD to CAM to hardware

Machining, fabrication and hands-on assembly by the team.

Fly: The test that matters04

Fly

The test that matters

Prototype flight testing informs the next airframe and its intended surveying and mapping missions.

02FROM THE ENGINEERING ARCHIVE

Inside the original
development work.

CAD geometry, flow visualisation and solver studies from the prototype programme.

03PEREGRON CONTROL

The mission,
from the ground.

Our ground station software direction brings survey planning, aircraft readiness and mission monitoring into a single operator workspace.

Flight automation, with operator control.

  • Autonomous takeoff
  • Automatic landing
  • Waypoint navigation
  • Geofencing
  • Return to launch
  • Terrain following
  • Automatic transition
  • Loiter & autonomous orbit
  • Route replanning
  • Fail-safe monitoring
  • Operator override
  • Target tracking

04OUR NEXT DEVELOPMENT PHASE

Test the model.
Then test it against reality.

Our simulation direction starts with the aircraft we actually built, not a generic drone model.

MEASUREMODELSIMULATEFLYREFINE
PHYSICS

An aircraft-specific model.

Mass properties, propulsion response, control surfaces and aerodynamic behaviour. The goal is a model calibrated against measurements from the real aircraft.

FLIGHT SYSTEMS

Software in the loop.

Our direction is to connect the model with PX4, evaluate control behaviour and repeat the same scenario under different conditions.

VALIDATION

Trust that is measured.

Compare simulated results with separate physical tests. Document where the model is useful and where more testing is needed.

DEVELOPMENT DIRECTION — NOT A CLAIM OF A COMPLETED SIMULATION PRODUCT.

THE COMMERCIAL PLATFORM

Engineering for
surveying and mapping.

Our commercial focus is an autonomous aircraft platform for surveying and mapping. We are developing simulation, repeatable testing and flight software to support that next airframe.

We want to work with survey teams to define mission planning, field operation and the data they need from each flight. Those requirements will guide the platform’s development and validation.

Discuss your survey workflow

SURVEYING & MAPPING

Tell us about
your survey.

We’re working towards a commercial mapping platform.
Help shape it around your field requirements.