In the field of quantum biology, the phenomenon of coherence—where particles maintain a synchronized state—is hypothesized to facilitate near-instantaneous energy transfer in photosynthetic complexes. Standard chemical models previously attributed this efficiency to a 'random walk' of excitons, yet the speed of transfer observed in the Fenna-Matthews-Olson complex exceeds these classical predictions. However, maintaining coherence in a 'warm and wet' biological environment contradicts the decoherence expected at ambient temperatures. Recent simulations suggest that environmental noise may actually prevent the exciton from becoming trapped in local energy minima, thereby aiding rather than hindering the quantum process.