Our research involves developing and using optical techniques, specifically fluorescence microscopy, for the study of the distribution, dynamics and interactions of cellular components. Cells scatter or absorb very little light in the visible range. Due to this transparency, fluorescence microscopy, a method where only the component of interest is tagged with a fluorophore, is one of the best techniques currently available to study the distribution and dynamics of cellular components in living or intact cells. However, the direct observation of static or dynamic interactions between cellular components has been elusive due to the fact that the resolution of the light microscope is ~ 250 nm, whereas interactions typically occur at the ~ 10 nm scale. The primary goal of the K.A Lidke lab is to develop new optical techniques that are able to probe cellular structure and dynamics at or close to the molecular scale and to apply these techniques to specific biological and biophysical questions. Our developed technology includes fluorescence superresolution techniques, single particle tracking and high-speed hyperspectral microscopy.
Join us at the 2020 Quantitative BioImaging Conference at the University of Oxford’s Mathematical Institute, Oxford, UK between January 6-9, 2020.
Super-resolution image of the nuclear pore complex. From the lab of K. Lidke
Super-resolution image of Actin in a HeLa cell. From the lab of K. Lidke
3D Super-resolution image of microtubules in a RBL cell From the lab of K. Lidke
3D Super-resolution image of the microtubule organizing center in a RBL cell. From the lab of K. Lidke
3D Super-resolution image of the mitochondria in a RLB cell. From the lab of K. Lidke