  We present first results and future plans for the Oscillating Resonant Group
AxioN (ORGAN) experiment, a microwave cavity axion haloscope situated in Perth,
Western Australia designed to probe for high mass axions motivated by several
theoretical models. The first stage focuses around 26.6 GHz in order to
directly test a claimed result, which suggests axions exist at the
corresponding mass of $110~\mu$eV. Later stages will move to a wider scan range
of 15-50 GHz ($60-210~\mu $eV). We present the results of the pathfinding run,
which sets a limit on $g_{a\gamma\gamma}$ of $2.02\times 10^{-12} $eV$^{-1}$ at
26.531 GHz, or 110~$\mu$eV, in a span of 2.5 neV (shaped by the Lorentzian
resonance) with $90 \%$ confidence. Furthermore, we outline the current design
and future strategies to eventually attain the sensitivity to search for well
known axion models over the wider mass range.
