UAS Technikum Wien’s Comet Drone Is Now Available As Open Source

Eine Quadcopter-Drohne mit grünen und schwarzen Propellern, einer freiliegenden Leiterplatte auf der Oberseite und einem daran befestigten Akku auf der Unterseite, dargestellt vor einem schlichten weißen Hintergrund.

02 July, 2026

The multicopter platform for teaching and research was developed as part of the FFG Samurai project. It features a 3D-printable frame, off-the-shelf (COTS) hardware, a build manual and flexible flight controller interfaces.

The COMET multicopter platform, developed at the Embedded Systems Competence Centre (headed by Roman Beneder), is now fully available as open source. COMET was developed under the leadership of Christoph Böhm. The version now released is the further development of the mini-prototype platform presented in 2025.

COMET (Cost-efficient Open-Source Multicopter for Embedded-Systems Teaching) is a cost-effective rapid prototyping platform for teaching in the fields of embedded systems and cyber-physical systems. The platform originated from the FFG-funded R&D project SAMURAI and was presented at IEEE EDUCON in 2026. It is also intended for hobbyists and drone enthusiasts.

Technical Features And Open-source Approach:

Use In Teaching And Research

COMET is used in courses within the Embedded Systems competence field as a standardised teaching and experimentation platform at various levels of education – from schools and universities to workshops – for electronics and embedded systems as well as for more advanced topics such as localisation and indoor navigation.

At UAS Technikum Wien, COMET is currently being used in several Bachelor’s and Master’s theses, including fault injection, the resilience of flight controllers and indoor positioning. Furthermore, the platform is incorporated into regular courses as a motivating practical example, for instance:

  • Microcontroller Software Design in the Bachelor’s programme in Information and Communication Technologies and Services
  • Electronics Systems and PCB Design in the Bachelor’s programme in Electronic Engineering
  • System-on-Chip Design in the Master’s programme in Embedded Systems (including an FPGA-based COMET variant as an SoPC example)

COMET is also used in outreach activities: during the ‘Build-and-Fly’ workshop for school pupils (secondary school and HTL) as part of Electronics Days 2026, the drones were mechanically assembled, the flight controller was configured and a test flight was carried out.

Based on the open-source approach, COMET is intended to serve as a standardised teaching and experimentation platform beyond the scope of the Embedded Systems discipline and outside UAS Technikum Wien.

The COMET platform was presented in a paper (TechRxiv, presentation: IEEE EDUCON 2026) and is publicly available here.

Images of COMET:
https://cloud.technikum-wien.at/s/HcWK3ozydmtt4MS
Photo credit: UAS Technikum Wien

Contact Roman Beneder and Christoph Böhm:

roman.beneder@technikum-wien.at
christoph.boehm@technikum-wien.at

Further Information:

New COMET multicopter platform: First mini-format test prototype developed

City of Vienna Expert Team for Drone Technology in University of Applied Sciences Education (Drohn FH)

Department of Electronic Engineering & Entrepreneurship – UAS Technikum Wien

Embedded Systems Centre of Excellence – UAS Technikum Wien

Research and Development – UAS Technikum Wien

SAMURAI research project – UAS Technikum Wien

Picture Gallery:

Eine Quadcopter-Drohne mit grünen LED-Leuchten an den Propellern schwebt in einem Innenraum über einem Fliesenboden. Die Drohne verfügt über freiliegende Kabel, einen Akku und einen weißen Griff an der Oberseite.

Flightcontroller HW Platform: STM32-based Flightcontroller

Eine Quadcopter-Drohne mit grün leuchtenden Propellern und verschiedenen elektronischen Bauteilen fliegt in einem Innenraum innerhalb einer Metallrahmenkonstruktion über einem dunklen Fliesenboden.

Flightcontroller HW Platform: Basys3 Board ARTIX7 FPGA-based Flightcontroller

Auf einem Computerbildschirm ist die INAV-Configurator-Software zu sehen, die ein 3D-Modell einer Quadcopter-Drohne, links die Flugdaten und rechts die Schritte der Checkliste zur Voraktivierung anzeigt, von denen die meisten mit grünen Häkchen markiert sind.
Eine maßgefertigte Quadcopter-Drohne mit vier grünen Propellern, einer freiliegenden Leiterplatte, elektronischen Bauteilen und einem rechteckigen Akku, der an der Unterseite angebracht ist. Der Rahmen der Drohne scheint aus schwarzen und weißen Bauteilen zu bestehen.

Flightcontroller HW Platform: Aurix TC375 based Flightcontroller

Eine 3D-gerenderte technische Darstellung einer Quadcopter-Drohne mit beschrifteten Bauteilen, darunter vier Propeller, ein Akku, Leiterplatten, Verkabelung und ein orangefarbener Schutzrahmen über dem zentralen Rumpf.
FFG

Enquiries & Contact:

Christoph Böhm FHTW
Ing. Christoph Böhm, MSc.

Lecturer/Researcher

+43 1 333 40 77 - 2495christoph.boehm@technikum-wien.at
Roman Beneder-UASTW
Roman Beneder, MSc

Head of Competence Center Embedded Systems

+43-1-3334077-4900roman.beneder@technikum-wien.atDetails
Hannes-Huber-UASTW
Ing. Hannes Huber, BA

Marketing & Communications

+43 664 889 609 58 hannes.huber@technikum-wien.at