Build the aircraft that watches the airspace.
We don’t resell hardware — we engineer purpose-built drones from open-source flight stacks. Buy a general airframe, add the sensors and the AI, and own every layer. The same discipline behind our airspace solutions, documented openly.
Own every layer.
A finished commercial drone is a black box: you inherit its sensor choices, its firmware, its data path, and its end-of-life. A purpose-built airframe on an open-source flight stack inverts that. You choose the airframe class, mount the sensors the mission actually needs, run the autonomy you can audit, and keep the data. Buying locks you in; building keeps the layers yours.
Five layers, openly documented.
- 01 · Why build
Custom over finished
Own every layer through open source — from flight control to the data path. Escape vendor lock-in and end-of-life risk on someone else’s roadmap.
- 02 · Open-source SW
ArduPilot · PX4 · Pixhawk
ArduPilot (Copter), PX4, and the Pixhawk flight-controller family explained as working defaults — including the license reality (GPLv3 vs BSD-3-Clause) that governs what you can ship.
- 03 · Hardware
Airframe · compute · payload
A reference build: X500 (X650 for heavier payloads), a Jetson companion computer, a zoom + thermal gimbal, and RTK positioning. Sized for the mission, not the spec sheet.
- 04 · Guides
BOM · procurement · setup
Bill of materials and budget, domestic vs overseas procurement and customs trade-offs, plus a setup and calibration checklist you can hand to a technician.
- 05 · E-book
Build methodology series
A written “drone build & customization methodology” series — table of contents and downloadable chapters as they publish.
Pick a layer.
- ArduPilot · PX4 · Pixhawk
Open-Source SW
Flight-stack selection, licenses, and the audit story behind running autonomy you can read.
Detail → - 6X · Cube · firmware
Pixhawk
The flight-controller board the autonomy runs on — class selection, firmware, wiring, calibration.
Detail → - X500 · Jetson · gimbal · RTK
Hardware
The reference airframe, companion compute, payload, and positioning stack — and when to scale to X650.
Detail → - BOM · procurement · setup
Guides
From bill of materials to first calibrated flight, including the domestic-vs-overseas procurement decision.
Detail → - .bin / .ulg · analysers
Flight Log
Read the flight before the next one — open-source analysers plus an AVIX airspace-safety value layer (roadmap).
Detail → - Methodology series
E-book
The long-form build methodology, chapter by chapter, as a downloadable series.
Detail →
Build it with us, or take the guide and go.
We publish the methodology openly. When the mission gets specific — sensors, autonomy, airspace integration — open a channel and we engineer it with you.
Figures and configurations on this page are illustrative, drawn from public open-source documentation (subject to verification). Operation in the Republic of Korea requires national airworthiness rules, KC radio-frequency certification, and expert validation. All build content is published only after export-control and dual-use review. Open-source components are governed by their own licenses (ArduPilot: GPLv3, PX4: BSD-3-Clause). This page is not legal or export-control advice.