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authorbradramshaw undefined <bradramshaw@cornell.edu>2020-06-26 14:16:17 +0000
committeroverleaf <overleaf@localhost>2020-07-03 10:23:52 +0000
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@@ -140,11 +140,11 @@ under pressure.\cite{Choi_2018} Above 0.13--0.5 $\GPa$ (depending on
temperature), \urusi\ undergoes a $\Bog$ nematic distortion, which might be
related to the anomalous softening of the $\Bog$ elastic modulus
$(C_{11}-C_{12})/2$ that occurs over a broad temperature range at zero
-pressure.\cite{Wolf_1994, Kuwahara_1997} Motivated by these results---which
+pressure.\cite{Wolf_1994, Kuwahara_1997,yanagisawa2012gamma3} Motivated by these results---which
hint at a $\Bog$ strain susceptibility associated with the \ho\ state---we
construct a phenomenological mean field theory for an arbitrary \op\ coupled to
strain, and then determine the effect of its phase transitions on the elastic
-response in different symmetry channels.
+response in different symmetry channels.
We find that only one \op\ representation reproduces the anomalous $\Bog$
elastic modulus, which softens in a Curie--Weiss-like manner from room