All Space Systems & Subsystems in Thessaloniki

Research interests include hydrodynamics and heat/mass transport in multiphase systems (bubbles and droplet flows in liquids), materials physicochemical characterisation (non-Newtonian rheological/viscosity, surface and interfacial tension, wettability/surface energy, thermal conductivity, thermal diffusivity, heat capacity, structural characterisation, roughness, and coherence of foams, emulsions, and biofilms, etc.), innovative electrical diagnostics, water and wastewater quality monitoring and treatment, computational fluid dynamics, etc. Has coordinated or participated in more than 100 international (including 25 ESA) and national research projects. Additionally, the members are highly experienced in low gravity research. Specifically, researchers have: a) participated in 2 experiments performed onboard the International Space Station (RUBI: Reference Multiscale Boiling Experiment and PASTA: Particle Stabilised Emulsions and Foams) and b) studied experimentally heat transfer and bubbles/drops dynamics under zero gravity conditions, participating in 10 ESA Parabolic Flight Campaigns.

KENOTOM focuses on providing embedded engineering services. KENOTOM is active in sectors such as automotive, industrial automation, biomedical, aviation, and space. Its main clients come from the auto-motive sector. For a decade now, the company has been working with some of the biggest Tier-1 automo-tive suppliers and, more recently, with one OEM. Its approach to innovation and quality is centred on con-tinuous improvement and adherence to industry standards. KENOTOM is committed to delivering cutting-edge solutions that meet the highest benchmarks.

Stellar Phronesis is a Greek deep-tech company developing and licensing scalable RF payload and beamforming technologies based on integrated photonics.
The company develops architectures for the scalable processing and distribution of coherent RF signals across large, adaptive antenna systems, addressing the increasing bandwidth, capacity, flexibility and reconfiguration requirements of next-generation satellite communications and Earth-observation payloads. Its technology combines RF photonics, photonic integrated circuits (PICs) and intelligent control software, while remaining compatible with established RF front ends and system-integration workflows.
By transferring demanding RF signal-processing and distribution functions from conventional electronic hardware to photonic integrated circuits, Stellar Phronesis enables antenna and payload architectures to scale without equivalent growth in power consumption, size, weight, thermal burden and implementation complexity. The resulting architecture supports wide instantaneous bandwidth, large numbers of coherent RF channels and dynamic reconfiguration under the stringent SWaP constraints of space systems.
The technology is particularly relevant to satellite communication and multichannel Earth-observation payloads, large phased-array antennas and other advanced RF systems where increasing aperture size, bandwidth and spatial-resource requirements place growing demands on conventional electronic beamforming architectures.
Stellar Phronesis works with space-industry partners through feasibility studies, system co-development, technology integration and IP and software licensing, supporting the development of next-generation RF payload and antenna systems.