Update README.md

README.md

@@ -5,7 +5,7 @@
 [Peter P. Orth](https://faculty.sites.iastate.edu/porth/), D. Phelan, J. Zhao, H. Zheng, J. F. Mitchell, C. Leighton, Rafael M. Fernandes
 
 ### Abstract 
-Doped perovskite cobaltites (e.g., La$_{1-x}$Sr$_x$CoO$_3$) have been extensively studied for their spin-state physics, electronic inhomogeneity, and insulator-metal transitions. Ferromagnetically-interacting spin-state polarons emerge at low $x$ in the phase diagram of these compounds, eventually yielding long-range ferromagnetism. The onset of long-range ferromagnetism ($x \approx 0.18$) is substantially delayed relative to polaron percolation ($x \approx 0.05$), however, generating a troubling inconsistency. Here, Monte-Carlo simulations of a disordered classical spin model are used to establish that previously ignored \emph{magnetic frustration} is responsible for this effect, enabling faithful reproduction of the magnetic phase diagram.
+Doped perovskite cobaltites (e.g., La$_{1-x}$ Sr$_x$ CoO$_3$) have been extensively studied for their spin-state physics, electronic inhomogeneity, and insulator-metal transitions. Ferromagnetically-interacting spin-state polarons emerge at low $x$ in the phase diagram of these compounds, eventually yielding long-range ferromagnetism. The onset of long-range ferromagnetism ($x \approx 0.18$) is substantially delayed relative to polaron percolation ($x \approx 0.05$), however, generating a troubling inconsistency. Here, Monte-Carlo simulations of a disordered classical spin model are used to establish that previously ignored _magnetic frustration_ is responsible for this effect, enabling faithful reproduction of the magnetic phase diagram.
 
 ### Description
 This repository includes information, code, and data to generate the theoretical figures of the paper (Figs.3 and 4).