We propose a novel means to isolate and quantify the effects of Berry force on molecular dynamics using two reasonably strong continuous wave (CW) laser fields with frequencies ω and 2ω. For molecules or materials with three frequency-matching bright transitions (|0 → |1 , |1 → |2 , |0 → |2 ) at frequencies (ω, ω, 2ω) respectively, the effects of Berry curvature can be isolated by varying the phase between the two laser fields (∆φ ) and monitoring the dynamics. Moreover, we find that the resulting chemical dynamics can depend critically on the sign of ∆φ ; in other words, the effects of Berry curvature can be enormous. Thus, this manuscript represents an unusual step forward towards using light-matter interactions to affect chemical dynamics, suggesting that topological concepts usually invoked in adiabatic quantum optics and condensed matter can be directly applied to non-adiabatic chemical excited state dynamics.