Project description
Lasting impact expected from the study of short-lived elements
Uranium and plutonium are perhaps the best-known actinides, a large group of radioactive elements most of which are highly unstable and as of yet only produced synthetically via nuclear reactions in particle accelerators. Actinides also include obscure elements like Curium, Einsteinium, Fermium and Mendelevium named after famous scientists. Although actinides have been crucial to our basic understanding of nuclear chemistry and applications including nuclear power, they are still largely a mystery due to their ephemeral natures. The EU-funded LISA project brings together 12 partners focused on preparing 15 PhD students to shine the light on actinides. The consortium plans to develop novel laser technologies enabling the creation and study of actinides for the development of new applications.
Objective
LISA aims to train the next generation of atomic, nuclear and laser scientists by conducting research to increase our understanding of the atomic and nuclear properties of the chemical elements known as the actinides. Of long-standing interest to the fields of fundamental atomic and nuclear physics, this effort is an essential prerequisite for unravelling the structure of the superheavy elements at the end of Mendeleev’s table. This knowledge is required for the effective production, identification and handling of these elements, and is thus a necessary foundation for our goals of understanding and exploiting the potential for practical applications of the actinides in the fields of medical physics, nuclear applications and environmental monitoring. Our consortium of world-leading experts in radioactive ion beam research and applications, laser spectroscopy, scientific laser technologies (industrial partners) and nuclear and atomic theorists will recruit and train 15 doctoral students. LISA will form a cohesive and symbiotic collaboration for training young scientists in the pursuit of the following research objectives: Develop laser-based actinide ion beam production and purification techniques; develop laser technology; measurement of ionization potentials and electron affinities; extract atomic and nuclear properties from laser spectroscopy studies; enhance the prospects for direct use of the actinide isotopes themselves (theranostic applications), or the application of techniques for their detection (environmental monitoring). LISA will be structured into 7 work packages (WP), separated according to specific types of technical or research challenges, training, communication and management, but highly interlinked to ensure a close interaction between the ESR fellows. This structure is designed to expose all trainees to the breath of activity types across the network and also to foster working relationships that will endure long after the project ends.
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1211 GENEVE 23
Switzerland