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The courses will be given in English.

THE FIRST PART (first week) deals with missions, the space
environment, the main types of payloads and their techniques.
Module 1, after a brief overview of the
principal space missions, describes what goes into a space
system, including launchers, development stages of a spacecraft and finally
cost and manufacturing aspects.
Module 2 describes the fundamental laws of spacecraft
dynamics governing the motion of vehicles on different types of orbit and also
orbit determination techniques.
Module 3 describes the stresses of the space environment
and the effects of radiation, atomic oxygen, meteorites, debris and
electrostatic discharges.
Module 5 and 6, after a brief review of electromagnetic
waves, describe missions and payloads for radio and optical telecommunications
and for radiolocation and navigation.
Module 7 introduces observation and scientific missions
and payloads, then goes on to describe measurement physics and the
characteristics of optical and infrared instruments and also radio
instruments.
Module 8 describes the radio techniques used for
transmitting information, antennas, reception, filtering, frequency
generation, digital transmission, power transmission and telemetry/telecommand
(TT&C).
Module 9 describes optical techniques and technology
used for sensors and sensor electronics.
THE SECOND PART (second week) deals with
the techniques and technology used on satellite busses and methods for
developing spacecraft.
Module 10 introduces mechanical and thermal architecture
with structural design rules, engineering analyses, materials, thermal control
and mechanisms.
Module 11 deals with chemical and electrical propulsion
technology and describes the characteristics of propulsion subsystems.
Module 12 discusses attitude stabilisation and control.
It defines the various kinds of stabilisation techniques and technology used
and gives several examples.
Module 13 is devoted to onboard power supply and
describes the various possible power sources, technology for storing energy,
electrical distribution architecture and electromagnetic compatibility.
Module 14 deals with computer architecture and onboard
management, it describes onboard management functions, telemetry and
telecommand, computer architecture, flight software and onboard data storage.
Module 15 deals with the problems involved in designing
and testing a rover for planetary exploration and goes into the autonomous
navigation techniques used for such rovers.
Module 4 concludes by describing product assurance and
the development of orbital systems. It describes development and verification
phasing and planning f satellites and the corresponding normalised
references, the R.A.M.S. approach and quality assurance techniques implemented
to ensure the quality of the various basic elements. It dwells on electronic
components and technology and the effect of radiation on equipment.
Download Preliminary programme
(V5)

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