TECHNOLOGICAL FACILITIES AT KIT, DE
The KIT Accelerator Technology Platform (ATP) provides a central access-point for large-scale accelerator projects to KIT-based accelerators (KARA, FLUTE) and Know-How located at KIT institutes (IANM, IAR, IBPT, IHM, IMS, IMT, IPE, IPQ, ITEP, ITIV, ITTK, LAS, SCC). This Know-How covers compact magnet technology, vacuum technology, laser technology and materials science, terahertz sensors, nano- and microtechnology, electronics and high performance computing, cryogenics and superconductor technology, microwave and pulsed power technology, mathematics, numerics, physics and modelling, imaging, and cooperation with industry. Access to KIT-based accelerators via ATP is augmented by European transnational access via ARIES (Accelerator Research and Innovation for European Science and Society) for accelerator researchers and via CALIPSOplus for small and medium-sized enterprises (SME), and by the European technology infrastructure AMICI (Accelerator and Magnetic Infrastructure for Cooperation and Innovation). The infrastructures Karlsruhe Research Accelerator (KARA), KIT short-pulse linac test facility and THz source (FLUTE), Magnet Characterization Facilities (MCF), electronic packaging and interconnects center (AVT), "KIT ASIC and Detector Laboratory" (KIT ADL) and cryogenics laboratories contribute to KIT ATP, which combines accelerator-relevant infrastructures, technologies and research in a unique way, taking advantage of the wide-spread expertise of KIT institutes to advance accelerator science and technology. KIT ATP cooperates with strategic industry partners such as Bilfinger Noell GmbH in the field of superconducting magnet technology and insertion devices.In bold, you can see the Technological Infrastructures (TI) present in the laboratory:
- A. Facilities for beam tests of accelerator components
- B. Test stations for magnets
- B1. Test stations for superconducting magnets
- B2. Test stations for normal conducting magnets
- B3. Magnetic measurement facilities
- C. Test stations for High Power RF components
- C1. Test stations for superconducting cavities
- C2. Test stations for normal conducting cavities
- D. Test stations for High Power RF components
- D1. RF wave guides
- D2. RF power sources
- D3. Power transistors
- D4. High power amplifiers
- D5. Solid State Power Amplifiers with their combiners and control system
- E. Platform for characterization, treatments and test of materials
- E1. Thermal treatment platforms
- E2. Chemical treatment platforms
- E3. Facilities for surface analyses
- E4. Electromagnetic, mechanical, thermal and associated material characterization platforms>
- E5. Test stations for mechanical manufacturing and tests (at cryogenic temperatures)
- F. Platforms for clean assembly, alignment and tests of accelerator components
- F1. Complete accelerator modules
- F2. RF power couplers
- G. Platforms for Manufacturing, treatments and test of Magnet components for accelerator
For further details see:
- Novel superconducting undulator provides first x-ray light
- Superconducting Undulators - Established as a Superconducting Undulators Product for Synchrotron Light Sources and Free Electron Lasers
RESEARCH INFRASTRUCTURES WHOSE CONSTRUCTION HAS INVOLVED THE INFN TECHNICAL PLATFORMS
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CONTACT
KIT ATP: www.ibpt.kit.edu/atp.
AMICI at KIT can be reached via E-Mail: amici@ibpt.kit.edu.