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LIDAX

From Wikipedia, the free encyclopedia
LIDAX
Company typePrivate company
IndustrySpace and Scientific Industry
Founded2000
Headquarters,
Area served
Worldwide
ServicesAdvanced mechanical systems, engineering, design and development for Space, on-ground instruments and high-energy particle applications.
Number of employees
26 (90 % engineers and technicians)
WebsiteLIDAX

LIDAX is a space technology company, founded at the beginning of the year 2000. It designs and manufactures advanced mechanical equipments that form part of complex space flight systems and instruments for Earth observation (EarthCARE, Meteosat), planetary exploration (Exomars), astrophysics instrumentation (James Webb Space Telescope, BepiColombo, Plato, World Space Observatory) and telecom. The activities of the company encompass all aspects, from conceptual design, through integration and testing up to realization; both for satellite and on-ground instrumentation (OGSE & MGSE).

Engineers and technicians represent practically the 90% of the company's personnel. LIDAX also owns a specialized laboratory called SMARTLAB for testing space mechanisms and subsystems. In the Smartlab, the performance of mechanisms can be measured under different environmental conditions, thus, measurement tests with optical metrology can be carried out under vacuum, cryogenic and high temperature environments.

The company is headquartered in Paracuellos de Jarama, near Madrid-Barajas Airport, Spain. It operates next to the Spain's Space Agency Instituto Nacional de Técnica Aeroespacial (INTA, English: National Institute of Aerospace Technology) and other known space industries such as EADS CASA Espacio. (part of Astrium)

Since 2014, LIDAX forms part of SUMA Aerospace, a consortium set up with another three companies to become an internationally recognized organization for the design, manufacturing, commercialization and maintenance of electro-mechanical equipments for the aeronautic sector.

Activity Areas

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The activities of Lidax are focused mainly on the following areas:

  • Space Instrumentation: Development of space innovative instrumentation such as cryogenic instruments, far infra-red instruments and robotic exploration. Specifically, focal plane assemblies, optical mounts for space telescopes, spectrometers and active folding mirrors.
  • Space systems and components such as deployment mechanisms, cryogenic submicron linear Actuator submicron X-Y stage, M2 hexapods, space dry lubricated gearboxes, hold down and release mechanisms, qualified flexible thermal links,...


  • On-ground instruments: Part of innovative scientific instruments such as, telescope instrumentation – atmosphere and telescope simulators for new adaptive optical methods –, particle accelerators – structural components or mechanisms for Cryomodules –, and others.

Main projects

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References

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  1. ^ Serrano, J.; Moral, A. G.; Pedrosa, E.; Moreno, J.; Díez, L.; Allo, J.; Laviada, C. (2007). Heaney, James B; Burriesci, Lawrence G (eds.). "MIRI telescope simulator (MTS) folding mirrors". Cryogenic Optical Systems and Instruments XII. 6692: 66920L. Bibcode:2007SPIE.6692E..0LS. doi:10.1117/12.732392. S2CID 120340799.
  2. ^ Argelaguet, Heribert (24 September 2009). "Atmosphere and Telescope Simulator for New Adaptive Optics Methods Development" (PDF). INTA. Archived from the original (PDF) on 29 June 2010. Retrieved 30 December 2010.
  3. ^ Mas-Hesse, J. Miguel (15 December 2009). "PLATO: PLAnetary Transits and Oscillations of stars" (PDF). CDTI. p. 21. Retrieved 10 April 2021.
  4. ^ "Aprobada la misión PLATO para buscar nuevas 'Tierras'" [PLATO mission to search for new 'Earths' approved]. Agencia SINC (in Spanish). 21 February 2014. Retrieved 10 April 2021.
  5. ^ "La ESA selecciona a la empresa de ingeniería española LIDAX para el desarrollo de reductoras espaciales". Infoespacial (in Spanish). 9 July 2013. Retrieved 10 April 2021.
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