Development, integration and test platform for accelerators and superconducting magnets: Synergium

The Synergium is the large technology platform in the Accelerators, Cryogenics and Magnetism Department covering more than 25,000 m². It is intended for the national, European and international community, for research and development in the field of particle accelerators, cryogenic systems and superconducting magnets for the purposes of fundamental research.

Development, integration and test platform for accelerators and superconducting magnets: Synergium
Electron-positron linear accelerators

Electron-positron linear accelerators

Breakthroughs in particle physics are closely related to the availability of electron beams of ever-increasing energy and luminosity. Electron accelerators are also essential to free electron lasers operating in the ultraviolet and X-ray regions. To supply the high brilliance beams used in solid-state physics, as well as in chemistry and biology, 3rd generation synchrotron radiation machines also operate with very intense electron beams.  

SARAF: a “turnkey” LINAC

The Compact Linear Collider

The XFEL light source

High-Intensity sources and injectors

High-intensity high-energy linear accelerators, capable of consistently reaching 1 GeV and several tens of milliamps, find numerous applications in nuclear and particle physics, and in condensed matter physics as well. The interaction of a proton beam, accelerated by a Linac of this kind, with a target, enables the production of particles such as radioactive ions, neutrons, neutrinos or muons.

IFMIF (INTERNATIONAL FUSION MATERIALS IRRADIATION FACILITY)

The IPHI high-intensity proton injector

The SPIRAL2 project

The FAIR linear proton accelerator

High-Intensity sources and injectors
R&D and Instrumentation for Future Accelerators

R&D and Instrumentation for Future Accelerators

Any new project presents challenges of its own and generally needs specific R&D. Conversely, it is often the case that breakthroughs in some one particular R&D can profit to several projects. Several lines of R&D specific to accelerators are pursued at SACM: • The improvement of analytic models and development of numerical methods for modelling the particle beams dynamics which has to be adjusted to higher and higher requirements for operating parameters (energy, luminosity, reliability, …).

Particle beam dynamics

ADSs

ECR SOURCE DEVELOPMENT: THE ALISES CONCEPT

LASER-PLASMA ACCELERATION

LOTUS

R&D relating to superconducting radio frequency cavities

Superconducting Magnets for Particle Physics Research

Irfu designs, builds, tests and operates large superconducting magnets for research. These magnets are a critical technology for nuclear and particle physics accelerators and detectors, such as the Atlas torus and the CMS solenoid in the LHC or the Glad dipole in GSI/Fair. The specifications imposed by the scientific objectives lead to large size, high magnetic fields and specific magnetic configurations.

H0

MQYY MAGNET FOR HL-LHC

SUPER-FRS DIPOLES FOR FAIR

The GLAD superconducting spectrometer for R3B

THE SUPERCONDUCTING COIL FOR THE LNCMI HYBRID MAGNET

THE WAVE MAGNET

Testing of superconducting magnets for the KATRIN experiment

Superconducting Magnets for Particle Physics Research
Achievements in response to societal challenges

Achievements in response to societal challenges

The Institute applies its expertise to social issues, such as energy and health.  Projects can be important like for example : the design and construction and installation of the ISEULT 11.

DEMO

Space radiation superconducting shield

THE ISEULT 11.7 T HIGH MAGNETIC FIELD SYSTEM FOR THE NEUROSPIN PLATFORM

THE SOLID HYDROGEN TARGET FOR THE CHyMENE PROJECT

LIQUID HYDROGEN TARGETS FOR THE MINOS (Magic Numbers Off Stability) PROJECT

Instrumentation and development for R&D magnets

The design and construction of high technology cryomagnetic systems are based on R&D activities which are part of the first design or prototyping phase. SACM also maintains an R&D activity outside construction projects in order to prepare for the future. It runs a range of R&D through international collaboration and in particular with CERN, in order to develop new superconductors to increase the magnetic field or the operating temperature.

CRYOGENIC PULSATING HEAT PIPES

FRESCA2

HIGH-TEMPERATURE SUPERCONDUCTORS FOR ACCELERATOR MAGNETS

INDIRECT COOLING TECHNIQUES

PROTECTION COMPUTATIONS

R&D ON HIGH-TEMPERATURE SUPERCONDUCTORS

R&D on the conductor MgB2

The JT-60SA platform

Instrumentation and development for R&D magnets

 

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