  We report our calculation of jet quenching and its azimuthal anisotropy in
the high energy AA and high multiplicity pA and dA collisions. The purpose of
this study is twofold. First, we improve our previous event-by-event studies,
by properly implementing $p_t$ dependence in the modeling. We show that, within
the jet "monography" scenario featuring a strong near-Tc-enhancement of jet
energy loss, the computed high-$p_t$ nuclear modification factor $R_{AA}$ and
the harmonic coefficients in its azimuthal anisotropy $v_{2,\,3,\,4}$, agree
well with the available data from both Relativistic Heavy Ion Collider (RHIC)
and Large Hadron Collider (LHC). Second, in light of current discussions on
possible final state collective behavior in the high-multiplicity pPb and dAu
collisions, we examine the implication of final state jet attenuation in such
collisions, by applying the same model used in AA collisions and quantifying
the corresponding $R_{pA}$ and $R_{dA}$ and their azimuthal anisotropy. The
high-$p_t$ $V_n$ provide a set of clean indicators of final state energy loss.
In particular we find in the most central pPb (5.02 TeV) and dAu (200 GeV)
collisions, $V_2$ is on the order of $0.01$ and $0.1$ respectively, measurable
with current experimental accuracy. In addition, our high-$p_t$ $R_{dA}$ is
around $0.6$ which is compatible with preliminary dAu results from RHIC.
