For research purposes, neutrons are released from the nucleus and are used as probes with which researchers can look inside a very wide variety of materials, without damaging them. For example, with neutrons one can look inside a big car engine, investigate drug delivery, see how plants uptake water, get insights into the development of superconductors.
On 21 April 2016 in Rokkasho (Japan) a ceremony was held for the installation of the low energy section of a very powerful accelerator (LIPAc) representing a prototype for the International Fusion Material Irradiation Facility (IFMIF). The aim of IFMIF, and of the LIPAc accelerator, is the production of very high intense fluxes of high energy monoenergetic neutrons which are needed for testing the structural resistance of materials to be employed in Nuclear Fusion Reactors.
The European Spallation Source [ESS] is one of the largest science infrastructure projects being built in Europe today. Designed to generate neutron beams for science, ESS will benefit a broad range of research, from life science to engineering materials, from heritage conservation to magnetism.
The facility design includes a linear proton accelerator, a tungsten target station, twenty-two state-of-the-art neutron instruments, a suite of laboratories, and a supercomputing data management and software centre…
Since the mid 1940’s, the research reactors had provided stable and reliable neutron sources for experimental research of neutron scattering. By recognizing unique features and powerful probe ability of neutrons, particularly for material and life science, Europe and North America accelerated building high-flux beam reactors dedicated to neutron scattering in 1960’s and 1970’s. A large number of neutron users in these regions resulted in the formation of the European Neutron Scattering Association [ENSA] and the Neutron Scattering Society of America [NSSA], respectively.
In the Asia-Oceania Region, on the other hand, India and Australia initiated neutron scattering…