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Nuclear fusion is the key to forming the world's most exotic nuclei, nuclei which hold a key to understanding our universe. The complex production and study of these exotic nuclei, which are not naturally produced on the Earth, is underway at heavy ion accelerators around the globe. This book is a study of two mechanisms which inhibit nuclear fusion, namely breakup and quasifission. The understanding of these processes is currently one of the most intriguing and challenging problems in nuclear physics. For light weakly bound nuclei, breakup is the process which suppresses fusion at…mehr

Produktbeschreibung
Nuclear fusion is the key to forming the world's most exotic nuclei, nuclei which hold a key to understanding our universe. The complex production and study of these exotic nuclei, which are not naturally produced on the Earth, is underway at heavy ion accelerators around the globe. This book is a study of two mechanisms which inhibit nuclear fusion, namely breakup and quasifission. The understanding of these processes is currently one of the most intriguing and challenging problems in nuclear physics. For light weakly bound nuclei, breakup is the process which suppresses fusion at above-barrier energies, while at the other end of the scale, in reactions of heavy nuclei, quasifission hinders the formation of heavy and superheavy elements. Current quantum mechanical reaction models are not able to provide a full description of either of these processes. This book is addressed to PhD scholars and nuclear scientists with the essential purpose of providing a comprehensive insight into the complex dynamics of breakup and quasifission.
Autorenporträt
Ramin Rafiei is a University Medalist in Engineering and Physics. The author has a PhD in experimental nuclear physics from the Australian National University, Canberra. Ramin Rafiei currently holds a postdoctoral fellowship at the Australian Nuclear Science and Technology Organization, Sydney.