Evolution of the heavy fermion state in Ce2IrIn8
R. H. Heffner, G. D. Morris, E. D. Bauer, J. L. Sarrao, J. D. Thompson, D. E. MacLaughlin, L. Shu
Abstract
We report muon spin rotation Knight shift and susceptibility studies for 1 T applied field along the crystalline c- and a-axes of the heavy fermion compound Ce2IrIn8. Below a characteristic temperature T* one observes a `Knight-shift anomaly' in which the Knight shift constant K no longer scales linearly with susceptibility chi. This anomaly is consistent with a scaling law in which chi is composed of a high-temperature component corresponding to non-interacting local moments and a low-temperature component chicf proportional to (1-T/T*)(T*/T) which characterizes the heavy-electron state below T*. We find that T* is anisotropic, with Ta* = 59(3)K and Tc* = 24(1)K, and derive the magnitudes of chicf for H along the a- and c-axes.
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