  We theoretically introduce a scheme to perform Ramsey spectroscopy on a
racemic mixture of chiral molecules, simultaneously extracting the transition
frequencies of the left- and right-handed molecules, known as enantiomers. By
taking the difference between the enantio-specific frequencies, we isolate the
weak force parity violation (PV) shift, which is predicted to break the
symmetry between enantiomers. To perform the scheme, we design a pulse sequence
that creates enantio-specific superpositions in a three-level system using the
enantiomer-dependent sign of the electric-dipole moment components' triple
product. A delayed second pulse sequence completes the Ramsey interrogation
sequence, enabling readout of the phase evolution for each enantiomer's
transition through a separate quantum state. Our technique overcomes the need
to alternate between enantio-pure samples to measure PV. We describe the
advantages of the proposed method for precision metrology.
