We study the dynamics of the classical Euler buckling of compressed solid m
embranes. We relate the membrane buckling dynamics to phase ordering phenom
ena. Membranes develop a wavelike pattern whose wavelength grows, via coars
ening, as a power of time. We find that evolving membranes are similar to g
rowing surfaces ("growing interfaces") whose transverse width grows as a po
wer of time. The morphology of the evolving membranes is characterized by t
he presence of a network of growing ridges where the elastic energy is most
ly localized. We used this fact to develop a scaling theory of the buckling
dynamics that gives analytic estimates of the coarsening exponents. Our fi
ndings show that the membrane buckling dynamics is characterized by a disti
nct scaling behavior not found in other coarsening phenomena. [S1063-651X(9
9)04510-9].