High-resolution multiphoton microscopy reveals coupling of blood vessel subtype with expanding osteoblasts at the bone regeneration interface, further highlighting the heterogeneity of oxygen microenvironment and its impact on cellular energy metabolism of bone and vessel forming cells.

Image-based motion correction enables the use of fluorescence lifetime and other functional imaging modalities in an intravital and clinical context in the presence of physiological motion.

Infrared high-pulse-energy low-pulse-repetition-rate excitation advances deep intravital microscopy in strongly scattering tissues such as skin tumors and thick bone, thereby bringing previously inaccessible tumor areas in reach with subcellular resolution.

Mitotic labeling defines a change in cell division kinetics from growth to homeostasis and identifies slowly cycling cells in the adult tendon.

STOMP is a technique that can determine the proteomic composition of any feature that is identifiable by laser scanning microscopy and is at least one cubic micron in size.

Human blood derived macrophage polarisation can be classified by proxy of their metabolism, using advanced microscopy techniques generating single-cell parameters that are clustered and validated using machine learning classification models.

The combination of a new genetically encoded voltage indicator and fast two-photon imaging methods enables detection of rapid neural electrical activity in organotypic slice cultures and in living flies.

TRUST, as a rapid and fully automated whole-organ imaging technique, enables high-resolution multicolor 3D imaging at low cost by using a UV-LED for widefield illumination and a color camera while relieving researchers from lengthy and laborious tissue processing protocols.

Development of imaging methods to capture neural activity and structure through the intact cuticle using 2-photon and 3-photon excitation in the genetic model organism, Drosophila melanogaster.

A one-photon three-dimensional light sculpture technique has been developed and demonstrated for high spatio-temporal resolution photostimulation and imaging of dozens of neurons in the intact mouse brain in vivo.