  We present results for the azimuthal anisotropy of charged hadron
distributions in A+A, p+A, d+A, and He3+A collisions within the IP-Glasma+MUSIC
model. Obtained anisotropies are due to the fluid dynamic response of the
system to the fluctuating initial geometry of the interaction region. While the
elliptic and triangular anisotropies in peripheral Pb+Pb collisions at
root-s=2.76 TeV are well described by the model, the same quantities in
root-s=5.02 TeV p+Pb collisions underestimate the experimental data. This
disagreement can be due to neglected initial state correlations or the lack of
a detailed description of the fluctuating spatial structure of the proton, or
both. We further present predictions for azimuthal anisotropies in p+Au, d+Au,
and He3+Au collisions at root-s=200 GeV. For d+Au and 3He+Au collisions we
expect the detailed substructure of the nucleon to become less important.

Nuclear Theory;High Energy Physics - Phenomenology;Nuclear Experiment