Forging For Space
The physics of light are universal, but the orbital environment presents a unique and unforgiving set of challenges. For years, our terrestrial instruments have served as the ultimate testbed for developing ultra-reliable optical systems, advanced thermal management, and proprietary coatings that perform flawlessly under extreme conditions. We are now applying this deep well of proven, ground-up expertise to solve the critical challenges of the new space economy. Our first-principles philosophy is not just about building better instruments for Earth; it’s about engineering the fundamental technologies required for the next generation of assets in orbit.
Our Core R&D Initiatives
01
Space Technology downstream initiative
Passive Thermal Control System for Mid-aperture Solar Telescopes
01 – Space Technology downstream initiative
Passive Thermal Control System for
Mid-aperture Solar Telescopes
SOLEYE 300 CryoSol – Project Goal
The aim of our project is to create a passive thermal control system for our medium aperture solar telescope using space-tech thermo-optical coatings in order to eliminate structural distorsion and self-induced local seeing issues caused by overheated telescope truss frame.
Solar telescopes operate in a radiation environment akin to space. Passive thermo-optical coatings originally designed for spacecraft are suitable for solar telescopes due to the comparable magnitudes of thermal radiation effects (solar and terrestrial).
SOLEYE 300 CryoSol – Project Results
Our ESA Spark Funding initiative has delivered a breakthrough in passive thermal management. Field testing confirmed that SOLEYE’s space-grade thermal control system is capable of maintaining the temperature difference of sunlit structures below 1 Kelvin, successfully fulfilling the project’s primary mission objectives.
This validated technology has now been directly transferred to our commercial lineup as the defining feature of the SOLEYE 300 CryoSol, serving as a functional downstream application of space technology in a terrestrial environment.
Furthermore, our research identified that specific material combinations are capable of emittive overcooling—dropping below ambient temperature even under direct sunlight. This opens significant opportunities for the development of complex, passively controlled Thermal Control Systems, paving the way for new technologies in next-generation solar telescopes.
“ESA Spark Funding – Design Terminal project – Space-grade thermal solution for SOLEYE“
02 – Space Weather initiativeS
A➔ Space Weather Forecasting InstrumenTS
Instrument Engineering
We design and manufacture ground-based instruments for reliable, cost-effective space weather prediction.
Custom System Development
We operate as your dedicated R&D partner, ready to architect a bespoke telescope system optimized for integration with your unique research assets.
Proven Collaboration – the SOLEYE x MOF Device
As an example, we have an ongoing collaboration with the Hungarian Solar Physics Foundation (HSPF) to develop a next-generation instrument for the global SAMNet network.
The goal of the Hungarian-initiated and led Solar Activity Magnetic Network (SAMNet) project is to create a global network for the continuous monitoring of magnetic field changes occurring in the Sun’s atmosphere, by further developing the MOF instrument already successfully operating at the Gyula Solar Physics Observatory.
B➔ Space Weather Forecasting Service Development
Our goal is to create a reliable, user-friendly, and cost-effective service that enables the earliest possible warning of the arrival of space weather conditions posing a threat to electrical equipment.
Through a highly accurate forecasting and warning system tailored to the needs of electricity providers, transmission system operators can effectively prevent damage to electrical equipment.
03-SOLEYE Technology Upstream Initiative
TECHNOLOGY TRANSFER – Small Sat COVERGLASS R&D
Two Key Directions / Use Cases
1. Optimised Transmission for PV Coverglasses
Developing coatings that provide a targeted 400-1100 nm transmission window combined with UV and IR blocking for application directly onto PV panel coverglasses. This will maximise the light reaching the solar cell while precisely rejecting unwanted wavelengths and energy for the efficient reduction of the heat load on the solar panel.
2. Spectral Splitting Panels for Thermal Management
Innovating spectral splitting panels designed to effectively separate heat energy from electrical energy. This directly addresses the thermal load challenge, allowing for cooler operation and improved longevity of PV cells in orbit.
Bring Us Your Challenge
We are actively seeking consortium partners, satellite manufacturers, and aerospace firms to collaborate on ESA and EU tenders and co-develop the future of orbital and terrestrial technology. If your mission requires a novel solution for space weather forecasting, advanced thermal management, or a specific optical challenge, our workshop is ready for the conversation.
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