Phase-cycling and double-quantum two-dimensional electronic spectroscopy using a common-path birefringent interferometer
arXiv:2409.11959 · doi:10.1364/OPTICA.543007
Abstract
Selecting distinct quantum pathways in two-dimensional electronic spectroscopy (2DES) can give particularly deep insights into coherent and incoherent interactions and quantum dynamics in various materials. This includes isolating rephasing and non-rephasing pathways for conventional single-quantum 2DES, but also the ability to record double- and zero-quantum spectra. Such advanced 2DES schemes usually require phase-cycling when performed in a partially or fully collinear geometry. A particularly simple and effective implementation of 2DES utilizes an in-line birefringent interferometer, the Translating-Wedge-based Identical pulses eNcoding System (TWINS), for the generation of an inherently phase-stable collinear excitation pulse pair. Here, we demonstrate how the TWINS can be adapted to allow for phase-cycling and experimental access to isolated quantum pathways. These new capabilities are demonstrated by recording rephasing, non-rephasing, zero-quantum and double-quantum 2DES on a molecular J-aggregate. This easy-to-implement extension opens up new experimental possibilities for TWINS-based 2DES in multidimensional all-optical and photoemission spectroscopy and microscopy.
13 pages, 4 figures
References in corpus (9)
- Direct Measurement of Exciton Valley Coherence in Monolayer WSe
- Multidimensional Coherent Photocurrent Spectroscopy of a Semiconductor Nanostructure
- Watching the coherent birth of polaron pairs in conjugated polymers
- Many-body two-quantum coherences in semiconductor nanostructures
- Coherent Excitonic Coupling in an Asymmetric Double InGaAs Quantum Well Arises from Many-Body Effects
- The Excitation Ladder of Cavity Polaritons
- Plasmon mediated coherent population oscillations in molecular aggregates
- Separating Pathways in Double-Quantum Optical Spectroscopy Reveals Excitonic Interactions
- The Optical Signatures of Stochastic Processes in Many-Body Exciton Scattering