Publications by authors named "Reunov D"

The recent advances achieved in microscopy technology have led to a significant breakthrough in biological research. Super-resolution fluorescent microscopy now allows us to visualize subcellular structures down to the pin-pointing of the single molecules in them, while modern electron microscopy has opened new possibilities in the study of protein complexes in their native, intracellular environment at near-atomic resolution. Nonetheless, both fluorescent and electron microscopy have remained beset by their principal shortcomings: the reliance on labeling procedures and severe sample volume limitations, respectively.

View Article and Find Full Text PDF

The article is devoted to the development of an EUV microscope using a wavelength of 13.84 nm. Due to the use of a mirror lens with a large numerical aperture, NA = 0.

View Article and Find Full Text PDF

Biomeshes based on decellularized bovine pericardium (DBP) are widely used in reconstructive surgery due to their wide availability and the attractive biomechanical properties. However, their efficacy in clinical applications is often affected by the uncontrolled immunogenicity and proteolytic degradation. To address this issue, we present here multiparametric imaging analysis of epoxy crosslinked DBPs to reveal their fate after implantation.

View Article and Find Full Text PDF
Article Synopsis
  • Conventional diagnostic methods fail to adequately characterize the complex inner workings and diverse cell types in diseased livers during surgery, highlighting the need for better approaches.
  • The research employs advanced technologies like multiphoton microscopy and mass spectrometry to study liver pathology, allowing for assessment of cellular metabolism and tissue composition without damaging samples.
  • The findings from this combined method aim to improve the identification of liver diseases and create faster diagnostic techniques that can aid in surgical planning and reduce the risk of liver failure post-surgery.
View Article and Find Full Text PDF

Induced pluripotent stem cells (iPSC) are a promising tool for personalized cell therapy, in particular, in the field of dermatology. Metabolic plasticity of iPSC are not completely understood due to the fact that iPSC have a mixed mitochondrial phenotype, which still resembles that of somatic cells. In this study we investigated the metabolic changes in iPSC undergoing differentiation in two directions, dermal and epidermal, using two-photon fluorescence microscopy combined with FLIM.

View Article and Find Full Text PDF