
2 m Class UAV
Conceptual and technical design of fixed-wing UAV platforms with modular airframe architecture, payload integration, and practical manufacturability.
Airframe · propulsion · payload bay
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[00] // Engineering Profile
Mechanical Engineering · HMU · UAV Systems
UAV systems · autonomous control · embedded systems · defence technology.
[01] Raven-01Mechanical Engineer focused on UAV systems, autonomous control, embedded systems, and defence-related engineering applications.
I develop UAV systems at the intersection of mechanical design, embedded control, and autonomous navigation. My work combines airframe design, onboard electronics, control algorithms, companion computing, telemetry, and ground control interfaces.
I also bring 4 years of mechanical design experience in industry, working with practical design constraints, manufacturability, CAD workflows, and real engineering documentation.
My strongest direction is full-stack UAV development: taking an idea from mechanical design and structural optimization, through embedded control and autonomy, up to ground station software and real-world system integration.

Conceptual and technical design of fixed-wing UAV platforms with modular airframe architecture, payload integration, and practical manufacturability.
Airframe · propulsion · payload bay
Research direction using Model Predictive Control for constrained trajectory tracking and Control Barrier Functions as a safety layer.
MPC · CBF · obstacle avoidance
Topology optimization, generative design, 3D-printed structures, carbon reinforcement, and stiffness-to-weight improvement workflows.
nTopology · CAD · manufacturabilityFixed-wing config
Structural optimization
Modular payload
Teensy 4.1
STM32 / ESP32
I2C · SPI · UART
MPC trajectory
CBF safety layer
State constraints
Python / PyQt
MAVLink telemetry
Mission planning
A technical paper focused on the design of a fixed-wing aerial robotics testbed for research in autonomous control, safety-critical navigation, and obstacle avoidance. The work connects mechanical UAV design with the control architecture required for MPC and Control Barrier Function research.
Contributed to early-stage concept development and proposal formulation for an approximately €10M EU-funded defence project focused on autonomous unmanned systems. Involvement through SVK Robotics, contributing technical concept and system-level thinking for UAV-based autonomous systems within a multinational defence and technology consortium.
Startup engineering environment focused on defence-related UAV systems and autonomous technologies. Role includes UAV concepts, system architecture, proposal preparation, and integration of mechanical, electronic, and control subsystems.
Represented SVK Robotics at NATO Innovation Days, communicating the company direction and UAV/autonomous systems focus in a defence innovation environment.