Over the past few decades, coherent broadband spectroscopy has been widely used to
improve our understanding of ultrafast processes (eg, photoinduced electron transfer, proton …

In traditional Raman spectroscopy, narrow-band light is irradiated on a sample, and its
inelastic scattering, ie, Raman scattering, is detected. The energy difference between the …

Tricomb spectroscopy unveils a new dimension to standard linear and nonlinear
spectroscopic analysis, offering the possibility to reveal the almost real-time evolution of …

Tellurium (Te) microcrystal with a bandgap of approximately 0.37 eV is a potentially useful
semiconducting material exhibiting ultrafast electronic relaxation processes. To measure the …

LSSmOrange is a fluorescent protein that exhibits a large energy gap between absorption
and emission, which makes it a useful tool for multicolor bioimaging. This characteristic of …

Coherent multidimensional spectroscopy has been widely used to study the structure and
dynamics of chemical and biological systems. Each ultrashort pulse from a single mode …

Time-resolved multidimensional spectroscopy is an advanced spectroscopic technique that
can be used to study the molecular structure and dynamics of chromophores in condensed …

High-resolution optical multidimensional coherent spectroscopy (MDCS) requires frequency-
stable laser sources and high-resolution heterodyne spectra. Fully phase-locked dual-comb …

Combining surface-enhanced Raman scattering (SERS) with the coherent nonlinear Raman
technique is a promising route for achieving higher sensitivity and time-resolved SERS …

Time-resolved pump–probe and two-dimensional spectroscopy are widely used to study
ultrafast chemical and biological processes in solutions. However, the corresponding …