Plane in the sky, and a person in the foreground

Szczerbatek

Our flagship plane is named 'Szczerbatek' (pronounced 'Sh-cher-ba-tek', meaning 'Toothless' in Polish - yes, we know it's a tongue twister!). A versatile aircraft designed for autonomous flight, data collection, and maybe even making dentists nervous.

Discover our solutions!

Our Solutions

We build it. We code it. We fly it.

Analisysis and design

Initial design and aerodynamic calculations for our aircraft.

Laminating

Carbon fiber composite for robust construction.

Onboard electronics

Tested components for reliable control and safe flight.

3D printing

Custom components for our needs.

Programming

Visual recognition system for highest mission performance.

CNC milling

Precision manufactured moulds for high quality construction.

Fusion-based 3D modeling

Designing the aircraft in a 3D environment to ensure precision and accuracy.

See Szczerbatek in Action

Watch our latest test flight and development progress

See Szczerbatek in Action

Our Journey

The evolution of the Szczerbatek project through time

Initial Discussions and Planning

The team holds first coordination meetings. Objectives are set, responsibilities assigned, and a general project roadmap is outlined. The vision of the project is created.

Initial Discussions and Planning

Conceptual Design Phase, Aerodynamic and Structural Calculations

Development of the aircraft concept begins. Core structural layout, control surfaces, and configuration are sketched. Aerodynamic simulations of the wings and fuselage are performed. Fusion-based 3D modeling of the aircraft structure is undertaken.

Conceptual Design Phase, Aerodynamic and Structural Calculations

Selection of Onboard Electronics and Materials, Power Requirement Calculations

The team selects appropriate onboard electronic systems (flight controllers, sensors, telemetry modules) and materials (composites, resins) based on mission criteria and weight/power efficiency. Detailed calculations of total power needs are conducted, including propulsion, onboard systems, and mission-specific devices.

Selection of Onboard Electronics and Materials, Power Requirement Calculations

Air Drop System and Retardant Mechanism Design, Execution and Testing

Design begins on the payload delivery system and retardant mechanism deployment, focusing on precision, weight, and reliability. The mechanical components of the air drop system mechanism are built, tested, and refined.

Air Drop System and Retardant Mechanism Design, Execution and Testing

Mold CNC Milling, Software Design

High-precision CNC milling of molds for aerodynamic parts (wings, fuselage shells) is completed. The team begins designing software solutions.

Mold CNC Milling, Software Design

Laminating Process

Composite lay-up and vacuum-assisted lamination of the aircraft components are carried out using selected materials.

Laminating Process

Electronics and Telemetry System Implementation

Physical integration and wiring of electronic components, telemetry modules, sensors, and flight controllers into the aircraft.

Electronics and Telemetry System Implementation

Software Implementation

Developing and testing custom software solutions, including algorithms for terrain mapping and autonomous release systems.

Software Implementation

Final Aircraft Improvements

Based on prototype testing, design tweaks are implemented to optimize flight stability, payload capacity, and overall mission performance.

Final Aircraft Improvements

Outdoor Flight Testing

Field tests are conducted to validate aircraft performance, test drop mechanisms, and collect telemetry data in the real world.

Outdoor Flight Testing

Software Adjustments

Bug fixes, code optimization, and final software updates based on flight data and performance logs.

Software Adjustments

Mission Performance and Team Communication Tests

Simulated mission runs are performed to verify teamwork efficiency, communication protocols, and mission execution.

Mission Performance and Team Communication Tests

Final Tests during Droniada event

Final full-scale tests are conducted under conditions replicating the competition during the Droniada event.

Final Tests during Droniada event

SUAS Mission Demonstration

Participation in the SUAS competition.

SUAS Mission Demonstration

Meet Our Team

The passionate individuals behind the Szczerbatek project, bringing together diverse skills and experience to solve challenging problems and deliver innovative solutions.

Izabella Rosikoń

Team Leader

Izabella Rosikoń

Manages workflow and coordinates team efforts to ensure efficient and timely task execution.

Part of AGH Solar Plane

Szczerbatek is being developed by AGH Solar Plane - a student organization dedicated to pushing the boundaries of solar aviation. Join us in our mission to revolutionize sustainable flight.

Learn More About Our Organization