- Optical SystemS
We design and manufacture optical systems for scientific instrumentation and space applications
Our technologies enable advanced observation, measurement and analysis in demanding research and exploration environments
We work with
Competencies
Specialists in optical systems
We are a leading designer and manufacturer of advanced optical solutions for the space and scientific research sectors.
01 · Telescopes and Optical Objectives
Our high-precision optical objectives are designed to maximize light capture and image quality across various wavelengths (IR, VIS, UV, X), forming the foundation for robust and versatile optical systems.
02 · Laser Collimators and FSO Optical Communication
Our space-grade laser collimators, engineered with STOP analysis, ensure exceptional performance under structural, thermal, and optical constraints. Ideal for FSO (Free Space Optics) communication systems and scientific applications demanding absolute laser pointing stability.
03 · Focal Planes (FPAs)
Custom-designed FPAs capture faint celestial signals or the most intricate details of Earth, guaranteeing exceptional sensitivity and data collection across infrared, visible, UV, and X-ray bands, enabling groundbreaking discoveries.
04 · Scientific Applications and Emerging Space Applications
We are passionate about enabling pioneering research. Our optical systems play a vital role in missions ranging from deep space exploration to Earth observation and cutting-edge scientific instrumentation.
Photograph: INTA. PLATO Project. 26 Focal Plane Assemblies (FPA) developed by LIDAX.
At LIDAX, we are passionate about innovation and exceeding expectations
We believe that innovation is key to unlocking revolutionary technological breakthroughs. We turn your vision into reality.
Here are some of our key achievements:
Cutting-Edge Technology for Space Missions
James Webb Telescope
The James Webb Space Telescope, a marvel of modern engineering, allows us to observe the universe in infrared wavelengths, unveiling the secrets of the cosmos. LIDAX has collaborated in validating the mirror movement system of the telescope by reproducing cryogenic conditions (25K) in a vacuum.
SMARTLID3
We have led the adaptation of an advanced terrestrial LIDAR system, developing a design that allows it to operate in space and comply with ECSS standards, withstanding launch and the extreme conditions of the space environment.
BEPI COLOMBO
Bepi Colombo is an ESA mission focused on observing Mercury, the closest planet to the Sun. Lidax collaborates on this project through the Focal Plane of MIXS (Mercury Imaging X-ray Spectrometer) which will help unravel the secrets of Mercury.
EarthCARE
Our active co-alignment sensor technology is featured in this mission, studying clouds and aerosols in Earth’s atmosphere, which is vital for understanding climate change.
PLATO
We are part of the search for Earth-like exoplanets, seeking signs of life beyond our solar system. Our collaboration has enabled the design, development, and manufacturing of the focal planes with CCD sensors for the 26 telescopes that will observe the universe.
Meteosat Third Generation
Meteosat 3rd Generation mission enables the acquisition of high-precision meteorological data. This is achieved thanks to the reflective observation system technology developed by LIDAX. In particular, Lidax has participated in the development of the opto-thermo-mechanical systems for the IRS (Infrared Sounder) and FCI (Flexible Combined Imager) payloads.
ExoMars Rover
ExoMars is a mission to explore Mars and discover if there is life on the Red Planet. Lidax collaborates on this project through the internal Optical Head: a 532 nm Raman laser system that will allow the detection of life on Mars.
MORERA
Morera is a Spanish national project that applies artificial intelligence to contribute to sustainable agriculture, primarily optimizing water irrigation systems. For this project, LIDAX collaborates in the development of a compact refracting telescope, which allows data collection in the thermal infrared spectrum (TIR 8-12 μm).