In this study, we go beyond the current experimental and theoretical knowledge and probe the energetic position of each pigment molecule and thus the energy funnel within the FCP complex from P. tricornutum for which a crystal structure is available. For this purpose, we have performed a multiscale simulation with the numerically efficient densityfunctional based tight-binding (DFTB) approach at its center . Surprisingly and counterintuitively, our simulations show that the Chl-c2 pigment has an average excitation energy lower than or at most similar to that of any other Chl molecule in the FCP complex from P. tricornutum. This result takes into consideration also thermal fluctuations, via a 1 ns-long quantum mechanics/molecular mechanics (QM/MM) MD simulation employing the timedependent long-range corrected (TD-LC) DFTB method within the QM/MM scheme. The energetic order of the average excitation energies along the QM/MM MD trajectory stayed almost the same as for the QM/MM-minimized and for the crystal structure conformations.