Ing. Milan Skula
Lab Administrator
Space Lab is a multidisciplinary, mission-oriented research platform at VSB-TUO, built on connecting fields that are usually developed separately. We integrate space radiation physics, space weather, radiation effects on electronics, advanced sensors, space agriculture, data and image processing, artificial intelligence, onboard and edge computing, IoT, and biomedical engineering. Our core strength is cross-disciplinary integration: transforming expertise from physics, electronics, informatics, sensing, biomedicine and space engineering into complete systems for space missions. A highlight is radiation research supported by doc. Carlos Granja, one of the leading experts in the field, covering detection and interpretation of ionising radiation in space and terrestrial environments. Our work ranges from nanosatellite experiments and space-grade computing to smart wearables for astronauts. A flagship example is CONREX, where the first nanorobots in space will be controlled and evaluated in microgravity.
Space Lab provides a broad portfolio of services covering the complete development chain from concept design to experimental validation. Thanks to its multidisciplinary expertise, the Lab is able to support projects in space technologies, embedded and onboard computing, sensors, radiation-related experiments, biomedical systems, IoT, artificial intelligence, data and image processing, virtual instrumentation, rapid prototyping and mission-oriented testing. In practice, the Lab can deliver end-to-end solutions: system architecture, electronics design, sensor integration, data acquisition, signal processing, AI-based evaluation, prototype manufacturing, environmental testing and preparation of experimental payloads for space or extreme-environment applications.
The Lab’s strength is not limited to one specific technology. Its value lies in combining multiple scientific and engineering domains into functional prototypes and complete experimental systems, as demonstrated by current projects in nanorobotics, smart astronaut wearables, nanosatellite radiation monitoring, onboard computing and short-duration microgravity simulation.
The Lab develops unobtrusive physiological monitoring solutions that fuse cardiovascular, respiratory, and thermoregulatory signals—supporting health assessment in space and other extreme environments.
We deliver software pipelines for data interpretation, experiment control, and AI-based evaluation across space, biomedical, and engineering applications.
From prototype manufacturing and mission-oriented testing to short-duration microgravity simulation, the Lab helps validate nanorobotics, wearables, satellite subsystems, and other payloads before real mission deployment.
Expertise spans detection and interpretation of ionising radiation, nanosatellite radiation monitoring, and assessment of onboard electronics, memory systems, and protection algorithms in orbit or in controlled test environments.
We combine sensor hardware, automated measurement platforms, and data acquisition workflows to support radiation monitoring, payload instrumentation, biomedical sensing, and other multidisciplinary experiments.
The Lab supports the full hardware development chain—from concept and architecture through electronics design to integration of functional prototypes ready for testing in terrestrial or mission-oriented scenarios.
Accelerates iterative development of experimental payloads, enclosures, and mechanical components for space and terrestrial test campaigns.
Used for experimental validation, payload testing, and non-invasive monitoring in technical and biomedical research workflows.
Support qualification and stress testing under controlled temperature and humidity conditions prior to mission deployment.
Covers sensor integration, measurement systems, virtual instrumentation, and automated measurement platforms for research-grade hardware development.
Includes data acquisition systems for biomedical, physical and engineering signals, plus software tools for image processing, signal processing, AI-based evaluation and experiment control.
Comprehensive electromagnetic compatibility infrastructure for validation of space-grade electronics, IoT devices, and wireless measurement systems.
Supports prototyping, integration, and field testing of wireless measurement systems, control algorithms, and mission-oriented payloads.
Supports development and validation of onboard electronics, IoT nodes, and embedded platforms used in space and extreme-environment applications.
Enables antenna characterisation and wireless system validation for satellite communication, IoT, and UAV payloads.
Enables structural and functional testing of satellite subsystems, sensors, and experimental hardware under dynamic load conditions.
Supports mission preparation, system demonstration, and experimental scenario modelling across multidisciplinary space projects.
Lab Administrator
Lab Leader