Outputs

Project outputs

Outputs in practice:

  • Unmanned Aircraft System (UAS), which can be used to transport material,
  • ICT systems for UAS needs,
  • Means of transport management system and its architecture,
  • Prototype of an aircraft,
  • Prototype module for cargo transport,
  • Algorithms for the management of a group of autonomous aircraft,
  • Digital twin group of a group of autonomous aircraft,
  • Biodatabanks of samples transported by UAV,
  • Transportation model for different types of biological material,
  • Business model for UAVs in the transport of biological material in real conditions,
  • Efficient UAS drive,
  • Automated base for UAS.

STU:

  • Means of transport management system and its architecture,
  • A comprehensive set of test results for individual modules and control algorithms,
  • A prototype of the designed system,
  • A set of optimization measures,
  • A kite prototype of the aircraft,
  • Results from comprehensive tests of the proposed aircraft,
  • Prototype module for cargo transport,
  • Prototypes of modules for localization, navigation and energy functions,
  • Prototype of UAV modules interface.

UNIZA:

  • A software platform for the management and coordination of a group of autonomous aircraft,
  • Algorithms for controlling of a group of autonomous aircraft,
  • Digital twin (a virtual representation) of a group of unmanned autonomous aircraft,
  • A mobile laboratory for monitoring, tracking, identifying and enforcing control of a group of UAVs as well as any intruders.

MGA:

  • Creating a set of optimal laboratory procedures allowing fast and efficient sample processing,
  • Establishing of a biodatabank of samples transported by UAVs,
  • Optimal transportation model for different types of biological material, including determination of different aspects of its transportation:
  • determining the effect of changes in pressure, temperature and vibration on the monitored parameters in biological samples,
  • defining the conditions in which it is possible to transport samples without changing or losing the examined markers,
  • determination of the effect of transportation on individual types of samples, specifically blood, urine, tissue specimen and bacteriological swab,
  • determination of the maximum flight time during which the sample remains unchanged,
  • design of a business model for an efficient and sustainable way of using UAVs in the transportation of biological material in real conditions.

Aerobtec:

  • Design of highly efficient vector control algorithms for UAVs,
  • Design of a frequency converter of the propulsion system allowing energy recovery,
  • Comprehensive tests of the designed propulsion,
  • Power supply charging and monitoring system module,
  • UAV and automated base communication interface module