  We propose a strategy for new physics searches in channels which contain a
boosted $Z$ boson in the final state. Our proposal exploits the previously
overlooked advantages of boosted $Z\rightarrow \nu \bar{\nu}$ topologies, where
collimated neutrinos result in signals with large missing energy. We illustrate
the advantage of this channel in a case study of singly produced TeV scale
charge 2/3 fermionic top partners ($T'$) which decay to $t+Z$. A comparison
with the di-leptonic channel reveals that signals with missing energy offer
superior probes of new physics at TeV scales, despite the large $t\bar{t}$
backgrounds. The effect can be attributed to a factor of $\sim 3$ enhancement
in the signal cross section, coming from the branching ratio of $Z\rightarrow
\nu \bar{\nu}$. We exploit the unique event topology of singly produced top
partners to suppress the $t\bar{t}$ background, as well as further improve on
the existing proposals to detect $T'$ in the boosted di-lepton channel. Our
conclusions on advantages of $Z\rightarrow \nu \bar{\nu}$ can be extended to
most physics searches which utilize a boosted $Z$ boson in the final state.
