Research performed with photosynthetic bacteria has found strong coupling between the bacteria and photons. Bacteria placed in an optical cavity results in the formation of new eigenstates that are a coherent superposition of photonic and excitonic transitions. Quantum beats have been observed via two-dimensional electronic spectroscopy (2DES) in the Fenna-Matthews-Olson bacteriochlorophyll complex found in green sulphur bacteria. It has been proposed that artificial LHCs mimic photosynthesis. Because the development of artificial LHCs has been based on those present in nature, inherent similarities between these two forms of LHCs exist in photon absorption and energy transfer. Specifically, the BODIPY-bearing pillar [5]arene LHC has been shown to exhibit FRET with 92% efficiency. Time-dependent density functional theory (TD-DFT) has shown electronic coherence in four chemically unique BODIPY compounds on the order of femtoseconds. To date, artificial LHCs have not been shown experimentally to exhibit quantum coherence. The development of compounds that exhibit photosynthetic properties analogous to plants and bacteria would allow for the synthesis of solar cells with higher efficiencies in energy transfer, in addition to materials able to store photon energy. The aim of the research presented is to show that the artificial LHC BODIPY pillar [5]arene exhibits quantum coherence via a series of experiments designed to compare light absorption by the LHC to the chromophore.