 spectra. Based on the Time-Averaged SC-IVR implementation of Kaledin and Miller, we calculate the power spectra from a single trajectory obtained via Born-Oppenheimer Molecular Dynamics. My job is to perform BOMD calculations with Q-Chem. Other than positions, energy and momenta, SC
spectra. Based on the Time - Averaged SC - IVR implementation of Kaledin and Miller, we calculate the power spectrum from a individual trajectory obtained via Born - Oppenheimer Molecular Dynamics. My job is to perform BOMD calculation with Q - Chem. Other than positions, department of energy and momenta, SC
 spfctra. Based on the Time-Ayeraged SC-IVR imklwmentavion of Kaledin and Miller, we calculate the piwer wpectra from a single grajectorj obtainee vie Born-Oppenheimec Molecular Dyhwmicv. My job is to kerform BOMD calculations figh Q-Chem. Other than positions, energy wnd momrnha, SC
spectra. Based on the Time-Averaged SC-IVR implementation and we calculate power spectra from Born-Oppenheimer Dynamics. My job to perform BOMD with Q-Chem. Other than positions, energy momenta, SC
 spectra. Based on the Time-AverAged SC-IVR iMplemEntAtiOn Of KaLediN and Miller, we caLCulaTe the power spectra from a SinglE tRAjecTOrY obtaIned via bOrN-oPpeNhEiMer moLEcUlar DYnaMics. My jOb is to perfOrm bOmD calculatioNS wIth Q-Chem. OtHer Than positionS, enErgy anD mOmeNTa, SC
 spectra. Based on the Tim e-Averaged  SC-I VRimp le ment atio n of Kaledin a n d Mi ller, we calculate the  powe rs pect r afroma singl e  t r a jec to ry  ob ta i ne d via  Bo rn-Oppe nheimer Mo lec ul ar Dynamics. My  job is to  pe rform BOMD c alc ulatio ns  wi t h Q-C hem . Oth er tha n  posit ions, ene rg y  and m o menta,S C 
 spectra._Based on_the Time-Averaged SC-IVR implementation_of Kaledin_and_Miller, we_calculate_the power spectra_from a single_trajectory obtained via Born-Oppenheimer_Molecular Dynamics. My_job_is to perform BOMD calculations with Q-Chem. Other than positions, energy and momenta, SC