“…Secondly, the tenacious success of the Standard Model has left aspiring physicists scrambling for new avenues to conduct physics, leading them to astrophysics and cosmology, as well as more distant fields in biology and life sciences (Galison 2016). In addition, the nature of big science infrastructures has become more heterogeneous; today we now see traditional particle accelerators and nuclear reactors work alongside synchrotron radiation, neutron scattering, and free electron laser facilities, where the empirical scope has widened to materials science, chemistry, energy, condensed matter physics, nanoscience, biology, biotechnology and pharmacology (Doing 2009;Heinze & Hallonsten 2017). Finally, big science infrastructures are no longer constrained by national security mandates, and must now compete in a global scientific market with increased mobility, transparency, and competition.…”