  Recent progress in neutron spin-echo spectroscopy by means of longitudinal
Modulation of IntEnsity with Zero Effort (MIEZE) is reviewed. Key technical
characteristics are summarized which highlight that the parameter range
accessible in momentum and energy, as well as its limitations, are extremely
well understood and controlled. Typical experimental data comprising
quasi-elastic and inelastic scattering are presented, featuring magneto-elastic
coupling and crystal field excitations in Ho2Ti2O7, the skyrmion lattice to
paramagnetic transition under applied magnetic field in MnSi, ferromagnetic
criticality and spin waves in Fe. In addition bench marking studies of the
molecular dynamics in H2O are reported. Taken together, the advantages of MIEZE
spectroscopy in studies at small and intermediate momentum transfers comprise
an exceptionally wide dynamic range of over seven orders of magnitude, the
capability to perform straight forward studies on depolarizing samples or under
depolarizing sample environments, as well as on incoherently scattering
materials.

Strongly Correlated Electrons;Instrumentation and Detectors