  We theoretically analyze angle-resolved photo-electron spectra (ARPES)
generated by the interaction of C$_{60}$ with intense, short laser pulses. In
particular, we focus on the impact of the carrier-envelope phase (CEP) onto the
angular distribution. The electronic dynamics is described by time-dependent
density functional theory, and the ionic background of $\csixty$ is
approximated by a particularly designed jellium model. Our results show a clear
dependence of the angular distributions onto the CEP for very short pulses
covering only very few laser cycles, which disappears for longer pulses. For
the specific laser parameters used in a recent experiments, a very good
agreement is obtained. Furthermore, the asymmetry is found to depend on the
energy of the emitted photoelectrons. The strong influence of the angular
asymmetry of electron emission onto the CEP and pulse duration suggests to use
this sensitivity as a means to analyze the structure of few-cycle laser pulses.
