Peter Grünberg Centre
A Science Centre and User Platformfor Fundamental Research in Information Technology
The Peter Grünberg Centre at Forschungszentrum Jülich is an essential method and infrastructure platform for nanoelectronics research in the Jülich-Aachen region. It is the first dedicated nanoelectronics user research facility in Germany. It combines a state-of-the-art research technology platform with widespread scientific expertise for the benefit of internal and external users. The possibilities provided by the Peter Grünberg Centre range from the sample preparation of complex structures and in-depth electron- and photon-beam characterization up to their integration into novel device concepts and architectures.
Peter Grünberg from Forschungszentrum Jülich was awarded the Nobel Prize in Physics 2007 jointly with Albert Fert. The two scientists were honoured for discovering the giant magnetoresistance effect which is used in millions of computer hard drives today. The Peter Grünberg Centre builds on the recipe for success created by the famous scientist after whom it is named.
The new research platform in Jülich spans a range of activities from broad-based fundamental research for nanoelectronics and information technology to concepts for technological applications. The new centre will thus play a key role in the Jülich-Aachen Research Alliance (JARA) with RWTH Aachen University. It will strengthen research activities in the area of future information technology (FIT) at Forschungszentrum Jülich and within the JARA section Fundamentals of Future Information Technology (JARA-FIT), and grant internal and external users access to the necessary technology. Within the Peter Grünberg Centre, knowledge and expertise will be shared among all research groups participating in JARA-FIT.
Progress in the field of nanoelectronics is driven by a unique interplay of scientific and technological components. Firstly, strong fundamental research in solid-state physics and materials science provides the basis for novel and unexpected phenomena and brings about new synthesis routes and material systems with the potential for use in nanoelectronics. These activities include strong cross-boundary components linking several disciplines, such as physics, chemistry (molecular electronics) and even biology (bioelectronics). Secondly, technology and engineering develop innovative device concepts and architectures, as well as new fabrication processes and advanced characterization techniques, which help to push the limits in condensed matter and materials research. Both components must work hand in hand to ensure a competitive technological environment. The successful implementation of novel scientific approaches is essential if we are to respond to the challenges that lie ahead.
last change: 19.03.2009 | PGC Admin | Print
