Andreas Gahlmann

Andreas Gahlmann is an Associate Professor in the Department of Chemistry at the University of Virginia with a primary appointment in Molecular Physiology and Biological Physics. His research focuses on developing and applying super-resolution fluorescence imaging techniques to study bacterial cells at the nanoscale level, bridging chemistry, biology, and physics disciplines.

Education:

• BA/BS in Chemistry, University of Portland
• PhD in Physical Chemistry, California Institute of Technology
• Postdoc in Biophysical Chemistry, Stanford University

Dr. Gahlmann's research centers on super-resolution fluorescence imaging of bacterial cells. His laboratory develops nanoscale imaging methods for 3D single-molecule localization in intact bacterial cells with two primary objectives: (1) Development of 3D super-resolution imaging methods including instrument design, sample preparation, and computational image analysis; and (2) Application of these methods to understand molecular-level spatial and temporal phenomena inside intact bacterial cells and cellular-level interactions within microbial communities. His work integrates chemistry, molecular biology, biophysics, optical physics, engineering, and computer science to access molecular (nanometer) length scales inaccessible with conventional microscopy.

Analysis of Dr. Gahlmann's publication record reveals consistent advancement in super-resolution microscopy techniques applied to bacterial systems. His research spans computational methods for optical correction, single-molecule tracking in live cells, and investigation of bacterial protein organization. Key thematic areas include 3D single-molecule localization, bacterial pathogenesis mechanisms, protein complex organization, and methodological innovations that bridge molecular to cellular scales.

Dr. Gahlmann operates in a highly interdisciplinary research environment, utilizing the single-molecule sensitivity of super-resolution fluorescence microscopy to localize biomolecules in 3D space and track their motion over time. His laboratory primarily works with living cells to characterize how molecular- and cellular-level phenomena determine cell physiology and phenotype, with projects addressing biological processes directly relevant to bacterial pathogenesis and biotechnological applications.